Big Spenders: the outlook for the oil and gas industry in 2012 is an Economist Intelligence Unit report which analyses the oil and gas industry outlook from the point of view of top-level operators, including CEOs and other board-level executives and policymakers. The report has been commissioned by GL Noble Denton.
white paper
Research Methodology Our research drew on two main initiatives. A global survey of senior executives was
Energy independence has been a stated, albeit ill-defined, goal of the United States since the Nixon administration. Recent developments in both the unconventional oil and gas and renewable energy industries have brought this goal closer than it has been in decades.
At 24% in 2015 [1], petroleum imports as a share of total national consumption are at their lowest since 1970 and Henry hub (the US benchmark for natural gas) prices are hovering around $2.8/Mbtu, down from $12 in June 2008. Meanwhile, the costs of utility-scale solar photovoltaic and onshore wind energy have dropped more than 60% and 40% respectively since 2008, and in recent years these sources have accounted for the majority of newly installed generation capacity in the United States.
That this has happened so fast is remarkable. In less than fifteen years, unconventional oil and gas production, mainly using hydraulic fracturing (“fracking”), rose from negligible to supplying around half of domestic production [2] [3].
This growth is a testament to the US economy’s ability to combine technological progress, flexible regulation and financial innovation to develop new opportunities. When, in 2014, OPEC decided to maintain production levels despite an oil-price crash, shale production was projected to stop abruptly. According to data from the Energy Information Agency (EIA), however, oil production continued to grow in the US for another six months, reaching record highs before it peaked. Various factors drove this counterintuitive dynamic.
First, rig efficiency has increased in many of the unconventional oil plays, as a result, in part, of producers focusing on their most productive plays. New-well oil production per rig in the Bakken region, for instance, has doubled since 2014 [4]. Along with a decline in the oil and gas rig count and a large drop in employment in the oil and gas sector, these efficiency gains have cut both labour and equipment costs, lowering the breakeven point. “People are trying to cut costs as much as they can, wherever they can. Even the accounting firms have been asked to halve their fees,” says Peter R. Hartley, an energy economics scholar at Rice University.
Another important lever has been to finance operations through debt. This, however, has reached daunting proportions. Onshore oil producers tracked by EIA, collectively accounting for 2.7m barrels per day of US production, spent 83% of their cash-flow revenues on debt repayments as of June 2015, the highest levels since 2011. Many companies have also engaged in asset write-downs. The 46 international and US upstream oil companies regularly tracked by the EIA, for instance, wrote down $38bn in Q3 2015 alone — the largest write-down since 2008. While no one wants to sell at low valuations, consolidation becomes more likely the longer the oil price remains low.
On the whole, however, the geostrategic energy situation for the United States remains quite positive. As Mr Hartley highlights, “The fact the oil price is down is less a result of investments in America than it is a decision of OPEC to keep the tap open.” However, he notes, “the much greater flexibility of unconventional production — and the large amount of resources available — means the US supply response is now much more elastic. And that reduces OPEC’s monopoly power over oil prices."
These advantages in terms of energy security are even more pronounced for natural gas, a commodity for which a single global price does not exist. Since 2006, lasting spreads have favoured the US Henry hub benchmarks versus the price of natural gas in Europe or Japan. Sustained low prices have created competitive gains for industries relying on natural gas as feedstock, with the petrochemicals industry an obvious long-term winner, although a low oil price also limits the gains from the ethane-naphtha spread. The metals industry should also benefit. Steelmaking in the US, for instance, has seen resurgence in the use of direct reduced iron (DRI), with US DRI output potentially reaching up to 10m tonnes by 2020 from just 1.3m in 2013. Cheap natural gas is also saving consumers money on their heating and electricity bills. According to an evaluation by Harvard Business School, these savings totalled $800 per average US household in 2014. While some of that will be saved, the rest will result in increased consumer spending, thus benefitting the economy.
Energy abundance is an opportunity, not an excuse
One of the most crucial questions facing the US in the future is how newly abundant fossil fuel resources will affect the trajectory of the country’s carbon emissions. Left unchecked, climate change could leave critical parts of the US housing stock and infrastructure exposed to climate-induced sea level rise as well as more frequent and stronger extreme weather events such as hurricanes or droughts. Such events already cost the US tens of billions of dollars a year in damaged property, other economic harms and health consequences. Climate change could also impact the power generation infrastructure due to higher temperatures and reduced water availability, according to the Department of Energy (DOE). “In the absence of concerted action to improve resilience, energy system vulnerabilities pose a threat to America’s national security, energy security, economic wellbeing, and quality of life,” warns a DOE report published in 2015 evaluating the vulnerability of the US energy sector to climate change. It is in the US’s long-term interest to address the climate problem today.
Under the United Nations climate accord agreed to in December 2015, the US has also pledged to take action on climate change. The agreement, signed in Paris by more than 190 countries, recognises the need to achieve “global peaking of greenhouse gas emissions as soon as possible” to keep temperature increases below 2°C by the end of the century. By ratifying the agreement and issuing the Clean Power Plan (CPP), the US’ first policy to explicitly target carbon emissions from the power sector at the national level, the country has taken a step in the right direction. But the US can and should do more.
The need for a clear, coherent and long-term signal
A successful transition requires policy and price signals that are clear, long-term, and strong enough to shift investments towards low-carbon infrastructure. These signals are critical to achieving a low-carbon future for two primary reasons. First, free-market competition requires a level playing field, including a firm price on carbon emissions to account for their negative externalities. Second, for markets to adjust in a non-disruptive manner the price should be gradually more stringent, thus enabling the private sector to shift gradually towards a low-carbon economy.
Until recently, the pattern of US governance in the energy sector had been driven mostly by short-term opportunism rather than a pro-active redesign of the US’s infrastructure base. The production tax credit (PTC) for onshore wind, which provides tax credits per unit of electricity generated for a period of 10 years, had been notoriously hard to predict, for instance, leading to surges in instalments in the quarter preceding possible renewal as companies pushed projects forward in a race to completion prior to the PTC’s expiry. Last-minute policy uncertainty, of course, is not the best way to promote long-term investment in enduring, capital-intensive infrastructure.
The US seems to have learned this lesson. In December 2015, the PTC and the Investment Tax Credit – PTC’s solar equivalent – were both extended for a duration of five years. The impact of this longer-term signal is substantial: the extension is expected to bring an additional 19GW of wind and 18GW of solar online over the next five years respectively, according to analysis by Bloomberg New Energy Finance [5].
As for pricing carbon, the US has limited, regional markets, covering a mere 10% of the country’s total emissions. Although California’s cap-and-trade programme currently boasts the highest price in the US (~13$/tCO2e as of Sept 2016) and is close to the $20/tCO2e the International Energy Agency (IEA) estimates the US will have to apply to its power sector by 2020 to keep its emissions compatible with a 2°C scenario, the current carbon price is still far from the $100/tCO2e the IEA assumes will be needed in the US by 2030.
Despite this suboptimal policy context, the US has done relatively well in reducing emissions cost-effectively. As of 2015, it had the second-largest installed base of non-hydro renewables in the world and was the second largest country in terms of investments, albeit well below those of China, which has been ahead of the US on both accounts since 2011. As for coal, the US has gradually replaced it with renewables and natural gas, with the latter accounting for around 35% of total electricity production in the second quarter of 2016 — up from just 17% in 2001. However, coal’s current displacement is not a result of carbon policies but rather a consequence of low-cost natural gas and regulations aimed at local — not global — pollution.
“Given the current set of regulations in the US to mitigate carbon emissions, it is difficult to say with confidence how effective the combination of these policies is going to be,” says Justin Gundlach, climate-change fellow at the Sabin Center for Climate Change Law at Columbia Law School. The problem of policy coherence is hardly exclusive to America, but it does hinder the US’s ability to realign its energy system to meet the country’s long-term economic and environmental needs.
One positive development in that regard is the CPP. A key feature of the CPP, according to Mr Gundlach, is that it forces states to tackle the issue of policy coherence in a transparent and coordinated way, which facilitates implementation and reduces compliance costs. Another advantage of the CPP is that it opens up the possibility for carbon emissions trading between participating states. Under the proposed plan, currently under review by the U.S. Court of Appeals for the D.C. Circuit, states are allowed to choose between a rate-based goal, set in tCO2e/MWh — effectively a performance standard for carbon intensity— or a mass-based goal, with a cap on total tons of CO2 equivalent. Under the latter option, states would then “readily qualify to trade with affected electricity generating units in states that adopt the same approach”.
Leading by example
Beyond increasing policy coherence, both state and federal governments can open up new markets through public procurement strategies. A clear example of that is the role the public sector has played in expanding the market for energy service companies in the buildings sector — over a fifth of the total floorspace in the US is owned by federal, state, or local governments. Government mandates and purchasing decisions have helped improve energy efficiency through procurement and fostered a broader private-sector market.
Not every state is active in promoting sustainability, however. California has led in energy efficiency initiatives for decades while states like New York or Connecticut have established green investment banks dedicated to promoting clean-energy investments in the state. By contrast, other states such as North Dakota or Wyoming still lack even a mandatory building energy code at the state level. [6]
Another important role for government will be fostering innovation. The government can help expand R&D efforts to help lower the cost of technologies currently in labs. The country’s announced goal to double clean-energy R&D spending, along with 19 other nations leading in clean energy R&D, is an important step in that direction. Should the US reach that objective, clean-energy R&D levels in the US would roughly double from ~$5bn today to some $10bn by 2020.
Complementing this R&D push will be ‘demand pull’ efforts such as policies that create new markets for technologies that are nearing commercialization. California’s 2013 mandate to install 1.3GW of storage by 2020, for instance, has helped utilities diversify their energy-storage technology portfolios while fostering an environment for technologies to compete, from utility-scale solutions to decentralized ones. The reason, says Nancy Pfund, managing partner at DBL Investors, is that “these policies de-risk it for investors, it’s not a pilot to nowhere”. One of the technologies enabled by the mandate, and in which DBL has invested, is Advanced Microgrid Solutions, a startup that managed to secure a 50MW storage contract in 2014 with one of California’s utilities. “That’s unheard of for a start-up company,” notes Pfund.
A critical time for climate action
By explicitly stating the goal of keeping temperature increases “well below 2°C”, the Paris agreement is a clear signal of the international community’s resolve to combat climate change. Current pledges are far from meeting that goal, however, and the agreement emphasises the urgent need to address the significant gap between the countries’ mitigation pledges and the aggregate emission pathways actually necessary to hold the increase in global average temperature well below 2°C. With that in mind, a key element of the Paris agreement is the commitment to review climate pledges every 5 years to increase ambitions based on policy progress and technological developments.
On 5 October 2016, the threshold for operationalization of the Paris Agreement (55 countries representing at least 55% of global emissions) was achieved, meaning the agreement will enter into force on 4 November 2016.
The next five years will thus be crucial for climate action. Acting now will not be free: under existing US policies, including the CPP, some $2.19trn worth of investments will be required over the next 25 years in the US power sector alone, with some 39% going to transmission and distribution (T&D) infrastructure, followed by renewables (37%), fossil-fuel power generation (13%) and nuclear (11%). Acting later will cost even more, as abatement costs and the value of US assets exposed to climate-change risks will rise over time. In such a context, it is of grave concern that new US president Donald Trump rejects the overwhelming scientific evidence of climate change [7] [8].
Low energy prices represent a unique opportunity to reduce carbon emissions. As Mark Brownstein, vice president of the climate and energy program at the Environmental Defense Fund, notes, “The decline in natural gas price is creating economic headroom to ramp up investment in electric transmission and distribution infrastructure with minimal impact on the customer’s total monthly energy bill”. This is because, from an end-user point of view, the increased costs associated with the investment in T&D are offset by the lower costs of electricity generation thanks to cheap natural gas.
How to spend that low gas price dividend matters, says Brownstein. Avoiding lock-in to a carbon-intensive infrastructure will be critical, he notes. In fact, as Mr Gundlach warns, "Integrating means changing the electric system. Natural gas provides an easy way around that in the short-term. It does not, however, constitute a long-term solution to the decarbonisation of the electricity sector.”
Similar considerations apply to the natural-gas distribution side. States will thus have to carefully evaluate the costs and benefits of building new pipelines to feed rising demand from the power sector against those of investing in clean-power generation and demand-side responses to reduce the demand for natural gas in the first place — and thus avoid the need for pipeline investments.
America’s opportunity to shine
The next administration faces a unique responsibility to position the United States on a path towards a low-carbon future. Success will require leveraging the benefits of the switch away from coal while avoiding a permanent lock-in to fossil-fuel-dependent infrastructure. This will be a difficult yet crucial balance to strike. The good news is that, thanks to cheap energy, the US is in a uniquely favourable position to act. Achieving a clean energy transition will not only be good for the US economy, it will also help consolidate US leadership on the international fight against climate change. The Paris agreement on climate change is a clear signal that the world is ready to act on the issue. It’s time for America to rise to the challenge.
_____________________________________________________________
FOOTNOTES:
1 http://www.eia.gov/tools/faqs/faq.cfm?id=32&t=6
2 https://www.eia.gov/tools/faqs/faq.cfm?id=847&t=6
3 https://www.eia.gov/tools/faqs/faq.cfm?id=847&t=6
4 https://www.eia.gov/petroleum/drilling/pdf/dpr-full.pdf #page=3
5 http://www.bbhub.io/bnef/sites/4/2016/04/BNEF-Summit-Keynote-2016.pdf
6 http://database.aceee.org/state/public-building-requirements
[7] http://www.scientificamerican.com/article/trump-picks-top-climate-skepti...
[8] http://fortune.com/2016/10/01/trump-paris-climate-agreement/
The study focuses on the following areas:
The main types of strategies for encouraging energy savings How information campaigns and incentives can be tailored to specific audiences The role played by product labelling and standard-setting for energy efficiency An assessment of what strategies work best in encouraging efficiencyKey findings:
Conservation initiatives can be grouped into three broad categories: raising awareness, tightening technical standards for buildings and energy-using products, and offering incentives to cut energy use. Ownership of buildings determines the strategy for saving energy. For owner-occupied buildings, investments in efficiency pay back over time in lower energy bills. In rented housing and workplaces, a gains-sharing approach, in which owners as well as tenants benefit from efficiency investments, work best. Raising awareness I: Tailoring the message to the audience is important. Some respond best to appeals based on environmental protection, while others care most about financial incentives and returns. Raising awareness II: Choosing a trusted messenger is also key to successful awareness campaigns. For example in the US, regulated utilities tend to be trusted sources, whereas in the UK, privatised energy companies encountered resistance to their conservation messages. Setting standards and applying labels: Product-labelling schemes that rate the efficiency of buildings or homes have proven effective tools for cutting energy use. An example is the US ‘Energy Star’ programme. Incentives count: Various government incentive programmes, as well as private-sector gains-sharing schemes, have proven effective in promoting energy efficiency. Avoiding the ‘rebound effect’: While investment in efficiency lowers energy bills, governments should guard against the “rebound effect”, in which consumers—encouraged by the greater efficiency—buy more appliances and devices and thereby end up using more energy, not less.
Following high-level declarations at the Sustainable Development Goals and the Paris Climate Conference in late 2015, there is a growing appetite for renewable energy in Africa. This is much-needed; the continent’s energy supplies are not meeting the needs and aspirations of its people. A better system will promote economic diversification, raise productivity, and improve the health and wellbeing of citizens. Africa requires between $60 and $90 billion annually to address its energy shortfall, roughly quadruple 2014 investment levels.
While fossil fuels, notably coal, oil and gas, continue to provide a significant quantity of energy - especially in South Africa - renewables need to play a greater role. Africa has plentiful resources, from geothermal power in Kenya and Ethiopia to hydropower in Zambia and the Democratic Republic of Congo. Solar and wind are especially promising, thanks to falling costs and resource abundance. From solar-powered hospitals in Lagos to wind farms in Lake Turkana, renewable energy is not just a pipe dream - it is a reality. Renewables can increase energy security, reduce energy import bills, and diversify and de-risk the energy mix. Through off-grid technologies, they can provide direct, affordable power to rural regions beyond the reach of the grid system.
But to harness renewables at scale, very significant infrastructure is needed: both core assets like wind and solar farms1 and transmission grids, as well as connective infrastructures, like roads to and from sites for transporting kit and manpower, or for bringing products, like solar-powered mobile phones, to market. This requires effective regulation, sufficient financing, appropriate technologies and smart business models. The ambitions are there.
The African Renewable Energy Initiative, led by institutions including the African Union and the United Nations Environment Programme, has set a goal of 300 GW of renewable energy capacity by 2030. But this requires a 680% increase in current deployment rates. According to IRENA’s latest data, the installed renewable power generation capacity in Sub-Saharan Africa currently stands slightly below 30 GW, roughly 25-30% of the installed power base, but this is dominated by large hydro, with other renewables collectively accounting for just 4-5% of power generation. Can the investment be achieved? Who are the current players and how is the market evolving?
This report, combining country fieldwork and 28 expert interviews, looks at the current renewable power capacity on the continent, identifies the market leaders and looks at the key enablers and constraints.
In 2010 global investment in new renewable energy projects exceeded investment in new fossil fuelfired plants for the first time, largely driven by a mix of renewable energy incentives and political pressure to invest in less emission-intensive energy production. Yet although investments in renewable energy plants are growing, so are the risks. Political/regulatory risk and financial risk are on the rise against a backdrop of macro-economic uncertainty, while weather-related volume risk is rising up the agenda as investments in offshore wind farms accelerate.
Energy independence has been a stated, albeit ill-defined, goal of the United States since the Nixon administration. Recent developments in both the unconventional oil and gas and renewable energy industries have brought this goal closer than it has been in decades.
At 24% in 2015 [1], petroleum imports as a share of total national consumption are at their lowest since 1970 and Henry hub (the US benchmark for natural gas) prices are hovering around $2.8/Mbtu, down from $12 in June 2008. Meanwhile, the costs of utility-scale solar photovoltaic and onshore wind energy have dropped more than 60% and 40% respectively since 2008, and in recent years these sources have accounted for the majority of newly installed generation capacity in the United States.
That this has happened so fast is remarkable. In less than fifteen years, unconventional oil and gas production, mainly using hydraulic fracturing (“fracking”), rose from negligible to supplying around half of domestic production [2] [3].
This growth is a testament to the US economy’s ability to combine technological progress, flexible regulation and financial innovation to develop new opportunities. When, in 2014, OPEC decided to maintain production levels despite an oil-price crash, shale production was projected to stop abruptly. According to data from the Energy Information Agency (EIA), however, oil production continued to grow in the US for another six months, reaching record highs before it peaked. Various factors drove this counterintuitive dynamic.
First, rig efficiency has increased in many of the unconventional oil plays, as a result, in part, of producers focusing on their most productive plays. New-well oil production per rig in the Bakken region, for instance, has doubled since 2014 [4]. Along with a decline in the oil and gas rig count and a large drop in employment in the oil and gas sector, these efficiency gains have cut both labour and equipment costs, lowering the breakeven point. “People are trying to cut costs as much as they can, wherever they can. Even the accounting firms have been asked to halve their fees,” says Peter R. Hartley, an energy economics scholar at Rice University.
Another important lever has been to finance operations through debt. This, however, has reached daunting proportions. Onshore oil producers tracked by EIA, collectively accounting for 2.7m barrels per day of US production, spent 83% of their cash-flow revenues on debt repayments as of June 2015, the highest levels since 2011. Many companies have also engaged in asset write-downs. The 46 international and US upstream oil companies regularly tracked by the EIA, for instance, wrote down $38bn in Q3 2015 alone — the largest write-down since 2008. While no one wants to sell at low valuations, consolidation becomes more likely the longer the oil price remains low.
On the whole, however, the geostrategic energy situation for the United States remains quite positive. As Mr Hartley highlights, “The fact the oil price is down is less a result of investments in America than it is a decision of OPEC to keep the tap open.” However, he notes, “the much greater flexibility of unconventional production — and the large amount of resources available — means the US supply response is now much more elastic. And that reduces OPEC’s monopoly power over oil prices."
These advantages in terms of energy security are even more pronounced for natural gas, a commodity for which a single global price does not exist. Since 2006, lasting spreads have favoured the US Henry hub benchmarks versus the price of natural gas in Europe or Japan. Sustained low prices have created competitive gains for industries relying on natural gas as feedstock, with the petrochemicals industry an obvious long-term winner, although a low oil price also limits the gains from the ethane-naphtha spread. The metals industry should also benefit. Steelmaking in the US, for instance, has seen resurgence in the use of direct reduced iron (DRI), with US DRI output potentially reaching up to 10m tonnes by 2020 from just 1.3m in 2013. Cheap natural gas is also saving consumers money on their heating and electricity bills. According to an evaluation by Harvard Business School, these savings totalled $800 per average US household in 2014. While some of that will be saved, the rest will result in increased consumer spending, thus benefitting the economy.
Energy abundance is an opportunity, not an excuse
One of the most crucial questions facing the US in the future is how newly abundant fossil fuel resources will affect the trajectory of the country’s carbon emissions. Left unchecked, climate change could leave critical parts of the US housing stock and infrastructure exposed to climate-induced sea level rise as well as more frequent and stronger extreme weather events such as hurricanes or droughts. Such events already cost the US tens of billions of dollars a year in damaged property, other economic harms and health consequences. Climate change could also impact the power generation infrastructure due to higher temperatures and reduced water availability, according to the Department of Energy (DOE). “In the absence of concerted action to improve resilience, energy system vulnerabilities pose a threat to America’s national security, energy security, economic wellbeing, and quality of life,” warns a DOE report published in 2015 evaluating the vulnerability of the US energy sector to climate change. It is in the US’s long-term interest to address the climate problem today.
Under the United Nations climate accord agreed to in December 2015, the US has also pledged to take action on climate change. The agreement, signed in Paris by more than 190 countries, recognises the need to achieve “global peaking of greenhouse gas emissions as soon as possible” to keep temperature increases below 2°C by the end of the century. By ratifying the agreement and issuing the Clean Power Plan (CPP), the US’ first policy to explicitly target carbon emissions from the power sector at the national level, the country has taken a step in the right direction. But the US can and should do more.
The need for a clear, coherent and long-term signal
A successful transition requires policy and price signals that are clear, long-term, and strong enough to shift investments towards low-carbon infrastructure. These signals are critical to achieving a low-carbon future for two primary reasons. First, free-market competition requires a level playing field, including a firm price on carbon emissions to account for their negative externalities. Second, for markets to adjust in a non-disruptive manner the price should be gradually more stringent, thus enabling the private sector to shift gradually towards a low-carbon economy.
Until recently, the pattern of US governance in the energy sector had been driven mostly by short-term opportunism rather than a pro-active redesign of the US’s infrastructure base. The production tax credit (PTC) for onshore wind, which provides tax credits per unit of electricity generated for a period of 10 years, had been notoriously hard to predict, for instance, leading to surges in instalments in the quarter preceding possible renewal as companies pushed projects forward in a race to completion prior to the PTC’s expiry. Last-minute policy uncertainty, of course, is not the best way to promote long-term investment in enduring, capital-intensive infrastructure.
The US seems to have learned this lesson. In December 2015, the PTC and the Investment Tax Credit – PTC’s solar equivalent – were both extended for a duration of five years. The impact of this longer-term signal is substantial: the extension is expected to bring an additional 19GW of wind and 18GW of solar online over the next five years respectively, according to analysis by Bloomberg New Energy Finance [5].
As for pricing carbon, the US has limited, regional markets, covering a mere 10% of the country’s total emissions. Although California’s cap-and-trade programme currently boasts the highest price in the US (~13$/tCO2e as of Sept 2016) and is close to the $20/tCO2e the International Energy Agency (IEA) estimates the US will have to apply to its power sector by 2020 to keep its emissions compatible with a 2°C scenario, the current carbon price is still far from the $100/tCO2e the IEA assumes will be needed in the US by 2030.
Despite this suboptimal policy context, the US has done relatively well in reducing emissions cost-effectively. As of 2015, it had the second-largest installed base of non-hydro renewables in the world and was the second largest country in terms of investments, albeit well below those of China, which has been ahead of the US on both accounts since 2011. As for coal, the US has gradually replaced it with renewables and natural gas, with the latter accounting for around 35% of total electricity production in the second quarter of 2016 — up from just 17% in 2001. However, coal’s current displacement is not a result of carbon policies but rather a consequence of low-cost natural gas and regulations aimed at local — not global — pollution.
“Given the current set of regulations in the US to mitigate carbon emissions, it is difficult to say with confidence how effective the combination of these policies is going to be,” says Justin Gundlach, climate-change fellow at the Sabin Center for Climate Change Law at Columbia Law School. The problem of policy coherence is hardly exclusive to America, but it does hinder the US’s ability to realign its energy system to meet the country’s long-term economic and environmental needs.
One positive development in that regard is the CPP. A key feature of the CPP, according to Mr Gundlach, is that it forces states to tackle the issue of policy coherence in a transparent and coordinated way, which facilitates implementation and reduces compliance costs. Another advantage of the CPP is that it opens up the possibility for carbon emissions trading between participating states. Under the proposed plan, currently under review by the U.S. Court of Appeals for the D.C. Circuit, states are allowed to choose between a rate-based goal, set in tCO2e/MWh — effectively a performance standard for carbon intensity— or a mass-based goal, with a cap on total tons of CO2 equivalent. Under the latter option, states would then “readily qualify to trade with affected electricity generating units in states that adopt the same approach”.
Leading by example
Beyond increasing policy coherence, both state and federal governments can open up new markets through public procurement strategies. A clear example of that is the role the public sector has played in expanding the market for energy service companies in the buildings sector — over a fifth of the total floorspace in the US is owned by federal, state, or local governments. Government mandates and purchasing decisions have helped improve energy efficiency through procurement and fostered a broader private-sector market.
Not every state is active in promoting sustainability, however. California has led in energy efficiency initiatives for decades while states like New York or Connecticut have established green investment banks dedicated to promoting clean-energy investments in the state. By contrast, other states such as North Dakota or Wyoming still lack even a mandatory building energy code at the state level. [6]
Another important role for government will be fostering innovation. The government can help expand R&D efforts to help lower the cost of technologies currently in labs. The country’s announced goal to double clean-energy R&D spending, along with 19 other nations leading in clean energy R&D, is an important step in that direction. Should the US reach that objective, clean-energy R&D levels in the US would roughly double from ~$5bn today to some $10bn by 2020.
Complementing this R&D push will be ‘demand pull’ efforts such as policies that create new markets for technologies that are nearing commercialization. California’s 2013 mandate to install 1.3GW of storage by 2020, for instance, has helped utilities diversify their energy-storage technology portfolios while fostering an environment for technologies to compete, from utility-scale solutions to decentralized ones. The reason, says Nancy Pfund, managing partner at DBL Investors, is that “these policies de-risk it for investors, it’s not a pilot to nowhere”. One of the technologies enabled by the mandate, and in which DBL has invested, is Advanced Microgrid Solutions, a startup that managed to secure a 50MW storage contract in 2014 with one of California’s utilities. “That’s unheard of for a start-up company,” notes Pfund.
A critical time for climate action
By explicitly stating the goal of keeping temperature increases “well below 2°C”, the Paris agreement is a clear signal of the international community’s resolve to combat climate change. Current pledges are far from meeting that goal, however, and the agreement emphasises the urgent need to address the significant gap between the countries’ mitigation pledges and the aggregate emission pathways actually necessary to hold the increase in global average temperature well below 2°C. With that in mind, a key element of the Paris agreement is the commitment to review climate pledges every 5 years to increase ambitions based on policy progress and technological developments.
On 5 October 2016, the threshold for operationalization of the Paris Agreement (55 countries representing at least 55% of global emissions) was achieved, meaning the agreement will enter into force on 4 November 2016.
The next five years will thus be crucial for climate action. Acting now will not be free: under existing US policies, including the CPP, some $2.19trn worth of investments will be required over the next 25 years in the US power sector alone, with some 39% going to transmission and distribution (T&D) infrastructure, followed by renewables (37%), fossil-fuel power generation (13%) and nuclear (11%). Acting later will cost even more, as abatement costs and the value of US assets exposed to climate-change risks will rise over time. In such a context, it is of grave concern that new US president Donald Trump rejects the overwhelming scientific evidence of climate change [7] [8].
Low energy prices represent a unique opportunity to reduce carbon emissions. As Mark Brownstein, vice president of the climate and energy program at the Environmental Defense Fund, notes, “The decline in natural gas price is creating economic headroom to ramp up investment in electric transmission and distribution infrastructure with minimal impact on the customer’s total monthly energy bill”. This is because, from an end-user point of view, the increased costs associated with the investment in T&D are offset by the lower costs of electricity generation thanks to cheap natural gas.
How to spend that low gas price dividend matters, says Brownstein. Avoiding lock-in to a carbon-intensive infrastructure will be critical, he notes. In fact, as Mr Gundlach warns, "Integrating means changing the electric system. Natural gas provides an easy way around that in the short-term. It does not, however, constitute a long-term solution to the decarbonisation of the electricity sector.”
Similar considerations apply to the natural-gas distribution side. States will thus have to carefully evaluate the costs and benefits of building new pipelines to feed rising demand from the power sector against those of investing in clean-power generation and demand-side responses to reduce the demand for natural gas in the first place — and thus avoid the need for pipeline investments.
America’s opportunity to shine
The next administration faces a unique responsibility to position the United States on a path towards a low-carbon future. Success will require leveraging the benefits of the switch away from coal while avoiding a permanent lock-in to fossil-fuel-dependent infrastructure. This will be a difficult yet crucial balance to strike. The good news is that, thanks to cheap energy, the US is in a uniquely favourable position to act. Achieving a clean energy transition will not only be good for the US economy, it will also help consolidate US leadership on the international fight against climate change. The Paris agreement on climate change is a clear signal that the world is ready to act on the issue. It’s time for America to rise to the challenge.
_____________________________________________________________
FOOTNOTES:
1 http://www.eia.gov/tools/faqs/faq.cfm?id=32&t=6
2 https://www.eia.gov/tools/faqs/faq.cfm?id=847&t=6
3 https://www.eia.gov/tools/faqs/faq.cfm?id=847&t=6
4 https://www.eia.gov/petroleum/drilling/pdf/dpr-full.pdf #page=3
5 http://www.bbhub.io/bnef/sites/4/2016/04/BNEF-Summit-Keynote-2016.pdf
6 http://database.aceee.org/state/public-building-requirements
[7] http://www.scientificamerican.com/article/trump-picks-top-climate-skepti...
[8] http://fortune.com/2016/10/01/trump-paris-climate-agreement/
The study focuses on the following areas:
The main types of strategies for encouraging energy savings How information campaigns and incentives can be tailored to specific audiences The role played by product labelling and standard-setting for energy efficiency An assessment of what strategies work best in encouraging efficiencyKey findings:
Conservation initiatives can be grouped into three broad categories: raising awareness, tightening technical standards for buildings and energy-using products, and offering incentives to cut energy use. Ownership of buildings determines the strategy for saving energy. For owner-occupied buildings, investments in efficiency pay back over time in lower energy bills. In rented housing and workplaces, a gains-sharing approach, in which owners as well as tenants benefit from efficiency investments, work best. Raising awareness I: Tailoring the message to the audience is important. Some respond best to appeals based on environmental protection, while others care most about financial incentives and returns. Raising awareness II: Choosing a trusted messenger is also key to successful awareness campaigns. For example in the US, regulated utilities tend to be trusted sources, whereas in the UK, privatised energy companies encountered resistance to their conservation messages. Setting standards and applying labels: Product-labelling schemes that rate the efficiency of buildings or homes have proven effective tools for cutting energy use. An example is the US ‘Energy Star’ programme. Incentives count: Various government incentive programmes, as well as private-sector gains-sharing schemes, have proven effective in promoting energy efficiency. Avoiding the ‘rebound effect’: While investment in efficiency lowers energy bills, governments should guard against the “rebound effect”, in which consumers—encouraged by the greater efficiency—buy more appliances and devices and thereby end up using more energy, not less. Following high-level declarations at the Sustainable Development Goals and the Paris Climate Conference in late 2015, there is a growing appetite for renewable energy in Africa. This is much-needed; the continent’s energy supplies are not meeting the needs and aspirations of its people. A better system will promote economic diversification, raise productivity, and improve the health and wellbeing of citizens. Africa requires between $60 and $90 billion annually to address its energy shortfall, roughly quadruple 2014 investment levels.
While fossil fuels, notably coal, oil and gas, continue to provide a significant quantity of energy - especially in South Africa - renewables need to play a greater role. Africa has plentiful resources, from geothermal power in Kenya and Ethiopia to hydropower in Zambia and the Democratic Republic of Congo. Solar and wind are especially promising, thanks to falling costs and resource abundance. From solar-powered hospitals in Lagos to wind farms in Lake Turkana, renewable energy is not just a pipe dream - it is a reality. Renewables can increase energy security, reduce energy import bills, and diversify and de-risk the energy mix. Through off-grid technologies, they can provide direct, affordable power to rural regions beyond the reach of the grid system.
But to harness renewables at scale, very significant infrastructure is needed: both core assets like wind and solar farms1 and transmission grids, as well as connective infrastructures, like roads to and from sites for transporting kit and manpower, or for bringing products, like solar-powered mobile phones, to market. This requires effective regulation, sufficient financing, appropriate technologies and smart business models. The ambitions are there.
The African Renewable Energy Initiative, led by institutions including the African Union and the United Nations Environment Programme, has set a goal of 300 GW of renewable energy capacity by 2030. But this requires a 680% increase in current deployment rates. According to IRENA’s latest data, the installed renewable power generation capacity in Sub-Saharan Africa currently stands slightly below 30 GW, roughly 25-30% of the installed power base, but this is dominated by large hydro, with other renewables collectively accounting for just 4-5% of power generation. Can the investment be achieved? Who are the current players and how is the market evolving?
This report, combining country fieldwork and 28 expert interviews, looks at the current renewable power capacity on the continent, identifies the market leaders and looks at the key enablers and constraints.
The website, at energyrealities.org, combines videos, articles and maps from the Economist Intelligence Unit and partners National Geographic and New Scientist. Together, they tell the story of energy use, production and sustainability on our planet. We invite you to explore and share this content to help increase understanding and dialogue about our world's energy needs.
Energy independence has been a stated, albeit ill-defined, goal of the United States since the Nixon administration. Recent developments in both the unconventional oil and gas and renewable energy industries have brought this goal closer than it has been in decades.
At 24% in 2015 [1], petroleum imports as a share of total national consumption are at their lowest since 1970 and Henry hub (the US benchmark for natural gas) prices are hovering around $2.8/Mbtu, down from $12 in June 2008. Meanwhile, the costs of utility-scale solar photovoltaic and onshore wind energy have dropped more than 60% and 40% respectively since 2008, and in recent years these sources have accounted for the majority of newly installed generation capacity in the United States.
That this has happened so fast is remarkable. In less than fifteen years, unconventional oil and gas production, mainly using hydraulic fracturing (“fracking”), rose from negligible to supplying around half of domestic production [2] [3].
This growth is a testament to the US economy’s ability to combine technological progress, flexible regulation and financial innovation to develop new opportunities. When, in 2014, OPEC decided to maintain production levels despite an oil-price crash, shale production was projected to stop abruptly. According to data from the Energy Information Agency (EIA), however, oil production continued to grow in the US for another six months, reaching record highs before it peaked. Various factors drove this counterintuitive dynamic.
First, rig efficiency has increased in many of the unconventional oil plays, as a result, in part, of producers focusing on their most productive plays. New-well oil production per rig in the Bakken region, for instance, has doubled since 2014 [4]. Along with a decline in the oil and gas rig count and a large drop in employment in the oil and gas sector, these efficiency gains have cut both labour and equipment costs, lowering the breakeven point. “People are trying to cut costs as much as they can, wherever they can. Even the accounting firms have been asked to halve their fees,” says Peter R. Hartley, an energy economics scholar at Rice University.
Another important lever has been to finance operations through debt. This, however, has reached daunting proportions. Onshore oil producers tracked by EIA, collectively accounting for 2.7m barrels per day of US production, spent 83% of their cash-flow revenues on debt repayments as of June 2015, the highest levels since 2011. Many companies have also engaged in asset write-downs. The 46 international and US upstream oil companies regularly tracked by the EIA, for instance, wrote down $38bn in Q3 2015 alone — the largest write-down since 2008. While no one wants to sell at low valuations, consolidation becomes more likely the longer the oil price remains low.
On the whole, however, the geostrategic energy situation for the United States remains quite positive. As Mr Hartley highlights, “The fact the oil price is down is less a result of investments in America than it is a decision of OPEC to keep the tap open.” However, he notes, “the much greater flexibility of unconventional production — and the large amount of resources available — means the US supply response is now much more elastic. And that reduces OPEC’s monopoly power over oil prices."
These advantages in terms of energy security are even more pronounced for natural gas, a commodity for which a single global price does not exist. Since 2006, lasting spreads have favoured the US Henry hub benchmarks versus the price of natural gas in Europe or Japan. Sustained low prices have created competitive gains for industries relying on natural gas as feedstock, with the petrochemicals industry an obvious long-term winner, although a low oil price also limits the gains from the ethane-naphtha spread. The metals industry should also benefit. Steelmaking in the US, for instance, has seen resurgence in the use of direct reduced iron (DRI), with US DRI output potentially reaching up to 10m tonnes by 2020 from just 1.3m in 2013. Cheap natural gas is also saving consumers money on their heating and electricity bills. According to an evaluation by Harvard Business School, these savings totalled $800 per average US household in 2014. While some of that will be saved, the rest will result in increased consumer spending, thus benefitting the economy.
Energy abundance is an opportunity, not an excuse
One of the most crucial questions facing the US in the future is how newly abundant fossil fuel resources will affect the trajectory of the country’s carbon emissions. Left unchecked, climate change could leave critical parts of the US housing stock and infrastructure exposed to climate-induced sea level rise as well as more frequent and stronger extreme weather events such as hurricanes or droughts. Such events already cost the US tens of billions of dollars a year in damaged property, other economic harms and health consequences. Climate change could also impact the power generation infrastructure due to higher temperatures and reduced water availability, according to the Department of Energy (DOE). “In the absence of concerted action to improve resilience, energy system vulnerabilities pose a threat to America’s national security, energy security, economic wellbeing, and quality of life,” warns a DOE report published in 2015 evaluating the vulnerability of the US energy sector to climate change. It is in the US’s long-term interest to address the climate problem today.
Under the United Nations climate accord agreed to in December 2015, the US has also pledged to take action on climate change. The agreement, signed in Paris by more than 190 countries, recognises the need to achieve “global peaking of greenhouse gas emissions as soon as possible” to keep temperature increases below 2°C by the end of the century. By ratifying the agreement and issuing the Clean Power Plan (CPP), the US’ first policy to explicitly target carbon emissions from the power sector at the national level, the country has taken a step in the right direction. But the US can and should do more.
The need for a clear, coherent and long-term signal
A successful transition requires policy and price signals that are clear, long-term, and strong enough to shift investments towards low-carbon infrastructure. These signals are critical to achieving a low-carbon future for two primary reasons. First, free-market competition requires a level playing field, including a firm price on carbon emissions to account for their negative externalities. Second, for markets to adjust in a non-disruptive manner the price should be gradually more stringent, thus enabling the private sector to shift gradually towards a low-carbon economy.
Until recently, the pattern of US governance in the energy sector had been driven mostly by short-term opportunism rather than a pro-active redesign of the US’s infrastructure base. The production tax credit (PTC) for onshore wind, which provides tax credits per unit of electricity generated for a period of 10 years, had been notoriously hard to predict, for instance, leading to surges in instalments in the quarter preceding possible renewal as companies pushed projects forward in a race to completion prior to the PTC’s expiry. Last-minute policy uncertainty, of course, is not the best way to promote long-term investment in enduring, capital-intensive infrastructure.
The US seems to have learned this lesson. In December 2015, the PTC and the Investment Tax Credit – PTC’s solar equivalent – were both extended for a duration of five years. The impact of this longer-term signal is substantial: the extension is expected to bring an additional 19GW of wind and 18GW of solar online over the next five years respectively, according to analysis by Bloomberg New Energy Finance [5].
As for pricing carbon, the US has limited, regional markets, covering a mere 10% of the country’s total emissions. Although California’s cap-and-trade programme currently boasts the highest price in the US (~13$/tCO2e as of Sept 2016) and is close to the $20/tCO2e the International Energy Agency (IEA) estimates the US will have to apply to its power sector by 2020 to keep its emissions compatible with a 2°C scenario, the current carbon price is still far from the $100/tCO2e the IEA assumes will be needed in the US by 2030.
Despite this suboptimal policy context, the US has done relatively well in reducing emissions cost-effectively. As of 2015, it had the second-largest installed base of non-hydro renewables in the world and was the second largest country in terms of investments, albeit well below those of China, which has been ahead of the US on both accounts since 2011. As for coal, the US has gradually replaced it with renewables and natural gas, with the latter accounting for around 35% of total electricity production in the second quarter of 2016 — up from just 17% in 2001. However, coal’s current displacement is not a result of carbon policies but rather a consequence of low-cost natural gas and regulations aimed at local — not global — pollution.
“Given the current set of regulations in the US to mitigate carbon emissions, it is difficult to say with confidence how effective the combination of these policies is going to be,” says Justin Gundlach, climate-change fellow at the Sabin Center for Climate Change Law at Columbia Law School. The problem of policy coherence is hardly exclusive to America, but it does hinder the US’s ability to realign its energy system to meet the country’s long-term economic and environmental needs.
One positive development in that regard is the CPP. A key feature of the CPP, according to Mr Gundlach, is that it forces states to tackle the issue of policy coherence in a transparent and coordinated way, which facilitates implementation and reduces compliance costs. Another advantage of the CPP is that it opens up the possibility for carbon emissions trading between participating states. Under the proposed plan, currently under review by the U.S. Court of Appeals for the D.C. Circuit, states are allowed to choose between a rate-based goal, set in tCO2e/MWh — effectively a performance standard for carbon intensity— or a mass-based goal, with a cap on total tons of CO2 equivalent. Under the latter option, states would then “readily qualify to trade with affected electricity generating units in states that adopt the same approach”.
Leading by example
Beyond increasing policy coherence, both state and federal governments can open up new markets through public procurement strategies. A clear example of that is the role the public sector has played in expanding the market for energy service companies in the buildings sector — over a fifth of the total floorspace in the US is owned by federal, state, or local governments. Government mandates and purchasing decisions have helped improve energy efficiency through procurement and fostered a broader private-sector market.
Not every state is active in promoting sustainability, however. California has led in energy efficiency initiatives for decades while states like New York or Connecticut have established green investment banks dedicated to promoting clean-energy investments in the state. By contrast, other states such as North Dakota or Wyoming still lack even a mandatory building energy code at the state level. [6]
Another important role for government will be fostering innovation. The government can help expand R&D efforts to help lower the cost of technologies currently in labs. The country’s announced goal to double clean-energy R&D spending, along with 19 other nations leading in clean energy R&D, is an important step in that direction. Should the US reach that objective, clean-energy R&D levels in the US would roughly double from ~$5bn today to some $10bn by 2020.
Complementing this R&D push will be ‘demand pull’ efforts such as policies that create new markets for technologies that are nearing commercialization. California’s 2013 mandate to install 1.3GW of storage by 2020, for instance, has helped utilities diversify their energy-storage technology portfolios while fostering an environment for technologies to compete, from utility-scale solutions to decentralized ones. The reason, says Nancy Pfund, managing partner at DBL Investors, is that “these policies de-risk it for investors, it’s not a pilot to nowhere”. One of the technologies enabled by the mandate, and in which DBL has invested, is Advanced Microgrid Solutions, a startup that managed to secure a 50MW storage contract in 2014 with one of California’s utilities. “That’s unheard of for a start-up company,” notes Pfund.
A critical time for climate action
By explicitly stating the goal of keeping temperature increases “well below 2°C”, the Paris agreement is a clear signal of the international community’s resolve to combat climate change. Current pledges are far from meeting that goal, however, and the agreement emphasises the urgent need to address the significant gap between the countries’ mitigation pledges and the aggregate emission pathways actually necessary to hold the increase in global average temperature well below 2°C. With that in mind, a key element of the Paris agreement is the commitment to review climate pledges every 5 years to increase ambitions based on policy progress and technological developments.
On 5 October 2016, the threshold for operationalization of the Paris Agreement (55 countries representing at least 55% of global emissions) was achieved, meaning the agreement will enter into force on 4 November 2016.
The next five years will thus be crucial for climate action. Acting now will not be free: under existing US policies, including the CPP, some $2.19trn worth of investments will be required over the next 25 years in the US power sector alone, with some 39% going to transmission and distribution (T&D) infrastructure, followed by renewables (37%), fossil-fuel power generation (13%) and nuclear (11%). Acting later will cost even more, as abatement costs and the value of US assets exposed to climate-change risks will rise over time. In such a context, it is of grave concern that new US president Donald Trump rejects the overwhelming scientific evidence of climate change [7] [8].
Low energy prices represent a unique opportunity to reduce carbon emissions. As Mark Brownstein, vice president of the climate and energy program at the Environmental Defense Fund, notes, “The decline in natural gas price is creating economic headroom to ramp up investment in electric transmission and distribution infrastructure with minimal impact on the customer’s total monthly energy bill”. This is because, from an end-user point of view, the increased costs associated with the investment in T&D are offset by the lower costs of electricity generation thanks to cheap natural gas.
How to spend that low gas price dividend matters, says Brownstein. Avoiding lock-in to a carbon-intensive infrastructure will be critical, he notes. In fact, as Mr Gundlach warns, "Integrating means changing the electric system. Natural gas provides an easy way around that in the short-term. It does not, however, constitute a long-term solution to the decarbonisation of the electricity sector.”
Similar considerations apply to the natural-gas distribution side. States will thus have to carefully evaluate the costs and benefits of building new pipelines to feed rising demand from the power sector against those of investing in clean-power generation and demand-side responses to reduce the demand for natural gas in the first place — and thus avoid the need for pipeline investments.
America’s opportunity to shine
The next administration faces a unique responsibility to position the United States on a path towards a low-carbon future. Success will require leveraging the benefits of the switch away from coal while avoiding a permanent lock-in to fossil-fuel-dependent infrastructure. This will be a difficult yet crucial balance to strike. The good news is that, thanks to cheap energy, the US is in a uniquely favourable position to act. Achieving a clean energy transition will not only be good for the US economy, it will also help consolidate US leadership on the international fight against climate change. The Paris agreement on climate change is a clear signal that the world is ready to act on the issue. It’s time for America to rise to the challenge.
_____________________________________________________________
FOOTNOTES:
1 http://www.eia.gov/tools/faqs/faq.cfm?id=32&t=6
2 https://www.eia.gov/tools/faqs/faq.cfm?id=847&t=6
3 https://www.eia.gov/tools/faqs/faq.cfm?id=847&t=6
4 https://www.eia.gov/petroleum/drilling/pdf/dpr-full.pdf #page=3
5 http://www.bbhub.io/bnef/sites/4/2016/04/BNEF-Summit-Keynote-2016.pdf
6 http://database.aceee.org/state/public-building-requirements
[7] http://www.scientificamerican.com/article/trump-picks-top-climate-skepti...
[8] http://fortune.com/2016/10/01/trump-paris-climate-agreement/
The study focuses on the following areas:
The main types of strategies for encouraging energy savings How information campaigns and incentives can be tailored to specific audiences The role played by product labelling and standard-setting for energy efficiency An assessment of what strategies work best in encouraging efficiencyKey findings:
Conservation initiatives can be grouped into three broad categories: raising awareness, tightening technical standards for buildings and energy-using products, and offering incentives to cut energy use. Ownership of buildings determines the strategy for saving energy. For owner-occupied buildings, investments in efficiency pay back over time in lower energy bills. In rented housing and workplaces, a gains-sharing approach, in which owners as well as tenants benefit from efficiency investments, work best. Raising awareness I: Tailoring the message to the audience is important. Some respond best to appeals based on environmental protection, while others care most about financial incentives and returns. Raising awareness II: Choosing a trusted messenger is also key to successful awareness campaigns. For example in the US, regulated utilities tend to be trusted sources, whereas in the UK, privatised energy companies encountered resistance to their conservation messages. Setting standards and applying labels: Product-labelling schemes that rate the efficiency of buildings or homes have proven effective tools for cutting energy use. An example is the US ‘Energy Star’ programme. Incentives count: Various government incentive programmes, as well as private-sector gains-sharing schemes, have proven effective in promoting energy efficiency. Avoiding the ‘rebound effect’: While investment in efficiency lowers energy bills, governments should guard against the “rebound effect”, in which consumers—encouraged by the greater efficiency—buy more appliances and devices and thereby end up using more energy, not less. Following high-level declarations at the Sustainable Development Goals and the Paris Climate Conference in late 2015, there is a growing appetite for renewable energy in Africa. This is much-needed; the continent’s energy supplies are not meeting the needs and aspirations of its people. A better system will promote economic diversification, raise productivity, and improve the health and wellbeing of citizens. Africa requires between $60 and $90 billion annually to address its energy shortfall, roughly quadruple 2014 investment levels.
While fossil fuels, notably coal, oil and gas, continue to provide a significant quantity of energy - especially in South Africa - renewables need to play a greater role. Africa has plentiful resources, from geothermal power in Kenya and Ethiopia to hydropower in Zambia and the Democratic Republic of Congo. Solar and wind are especially promising, thanks to falling costs and resource abundance. From solar-powered hospitals in Lagos to wind farms in Lake Turkana, renewable energy is not just a pipe dream - it is a reality. Renewables can increase energy security, reduce energy import bills, and diversify and de-risk the energy mix. Through off-grid technologies, they can provide direct, affordable power to rural regions beyond the reach of the grid system.
But to harness renewables at scale, very significant infrastructure is needed: both core assets like wind and solar farms1 and transmission grids, as well as connective infrastructures, like roads to and from sites for transporting kit and manpower, or for bringing products, like solar-powered mobile phones, to market. This requires effective regulation, sufficient financing, appropriate technologies and smart business models. The ambitions are there.
The African Renewable Energy Initiative, led by institutions including the African Union and the United Nations Environment Programme, has set a goal of 300 GW of renewable energy capacity by 2030. But this requires a 680% increase in current deployment rates. According to IRENA’s latest data, the installed renewable power generation capacity in Sub-Saharan Africa currently stands slightly below 30 GW, roughly 25-30% of the installed power base, but this is dominated by large hydro, with other renewables collectively accounting for just 4-5% of power generation. Can the investment be achieved? Who are the current players and how is the market evolving?
This report, combining country fieldwork and 28 expert interviews, looks at the current renewable power capacity on the continent, identifies the market leaders and looks at the key enablers and constraints.
This report, edited by the Economist Intelligence Unit and supported by Shell, follows an event held in June 2011 that brought together energy experts based in London, Singapore and Shanghai for the world’s first live global conversation on the future of energy.
We have invited the same group of experts that participated in the debate to explain their views on the most challenging questions that arose during their discussion. The report also highlights some of the best contributions made in the online debate that surrounded their conversation.
white paper
The economic and political circumstances surrounding energy consumption are in flux. As countries such as China and
infographic
Click to view inforgraphic
Energy independence has been a stated, albeit ill-defined, goal of the United States since the Nixon administration. Recent developments in both the unconventional oil and gas and renewable energy industries have brought this goal closer than it has been in decades.
At 24% in 2015 [1], petroleum imports as a share of total national consumption are at their lowest since 1970 and Henry hub (the US benchmark for natural gas) prices are hovering around $2.8/Mbtu, down from $12 in June 2008. Meanwhile, the costs of utility-scale solar photovoltaic and onshore wind energy have dropped more than 60% and 40% respectively since 2008, and in recent years these sources have accounted for the majority of newly installed generation capacity in the United States.
That this has happened so fast is remarkable. In less than fifteen years, unconventional oil and gas production, mainly using hydraulic fracturing (“fracking”), rose from negligible to supplying around half of domestic production [2] [3].
This growth is a testament to the US economy’s ability to combine technological progress, flexible regulation and financial innovation to develop new opportunities. When, in 2014, OPEC decided to maintain production levels despite an oil-price crash, shale production was projected to stop abruptly. According to data from the Energy Information Agency (EIA), however, oil production continued to grow in the US for another six months, reaching record highs before it peaked. Various factors drove this counterintuitive dynamic.
First, rig efficiency has increased in many of the unconventional oil plays, as a result, in part, of producers focusing on their most productive plays. New-well oil production per rig in the Bakken region, for instance, has doubled since 2014 [4]. Along with a decline in the oil and gas rig count and a large drop in employment in the oil and gas sector, these efficiency gains have cut both labour and equipment costs, lowering the breakeven point. “People are trying to cut costs as much as they can, wherever they can. Even the accounting firms have been asked to halve their fees,” says Peter R. Hartley, an energy economics scholar at Rice University.
Another important lever has been to finance operations through debt. This, however, has reached daunting proportions. Onshore oil producers tracked by EIA, collectively accounting for 2.7m barrels per day of US production, spent 83% of their cash-flow revenues on debt repayments as of June 2015, the highest levels since 2011. Many companies have also engaged in asset write-downs. The 46 international and US upstream oil companies regularly tracked by the EIA, for instance, wrote down $38bn in Q3 2015 alone — the largest write-down since 2008. While no one wants to sell at low valuations, consolidation becomes more likely the longer the oil price remains low.
On the whole, however, the geostrategic energy situation for the United States remains quite positive. As Mr Hartley highlights, “The fact the oil price is down is less a result of investments in America than it is a decision of OPEC to keep the tap open.” However, he notes, “the much greater flexibility of unconventional production — and the large amount of resources available — means the US supply response is now much more elastic. And that reduces OPEC’s monopoly power over oil prices."
These advantages in terms of energy security are even more pronounced for natural gas, a commodity for which a single global price does not exist. Since 2006, lasting spreads have favoured the US Henry hub benchmarks versus the price of natural gas in Europe or Japan. Sustained low prices have created competitive gains for industries relying on natural gas as feedstock, with the petrochemicals industry an obvious long-term winner, although a low oil price also limits the gains from the ethane-naphtha spread. The metals industry should also benefit. Steelmaking in the US, for instance, has seen resurgence in the use of direct reduced iron (DRI), with US DRI output potentially reaching up to 10m tonnes by 2020 from just 1.3m in 2013. Cheap natural gas is also saving consumers money on their heating and electricity bills. According to an evaluation by Harvard Business School, these savings totalled $800 per average US household in 2014. While some of that will be saved, the rest will result in increased consumer spending, thus benefitting the economy.
Energy abundance is an opportunity, not an excuse
One of the most crucial questions facing the US in the future is how newly abundant fossil fuel resources will affect the trajectory of the country’s carbon emissions. Left unchecked, climate change could leave critical parts of the US housing stock and infrastructure exposed to climate-induced sea level rise as well as more frequent and stronger extreme weather events such as hurricanes or droughts. Such events already cost the US tens of billions of dollars a year in damaged property, other economic harms and health consequences. Climate change could also impact the power generation infrastructure due to higher temperatures and reduced water availability, according to the Department of Energy (DOE). “In the absence of concerted action to improve resilience, energy system vulnerabilities pose a threat to America’s national security, energy security, economic wellbeing, and quality of life,” warns a DOE report published in 2015 evaluating the vulnerability of the US energy sector to climate change. It is in the US’s long-term interest to address the climate problem today.
Under the United Nations climate accord agreed to in December 2015, the US has also pledged to take action on climate change. The agreement, signed in Paris by more than 190 countries, recognises the need to achieve “global peaking of greenhouse gas emissions as soon as possible” to keep temperature increases below 2°C by the end of the century. By ratifying the agreement and issuing the Clean Power Plan (CPP), the US’ first policy to explicitly target carbon emissions from the power sector at the national level, the country has taken a step in the right direction. But the US can and should do more.
The need for a clear, coherent and long-term signal
A successful transition requires policy and price signals that are clear, long-term, and strong enough to shift investments towards low-carbon infrastructure. These signals are critical to achieving a low-carbon future for two primary reasons. First, free-market competition requires a level playing field, including a firm price on carbon emissions to account for their negative externalities. Second, for markets to adjust in a non-disruptive manner the price should be gradually more stringent, thus enabling the private sector to shift gradually towards a low-carbon economy.
Until recently, the pattern of US governance in the energy sector had been driven mostly by short-term opportunism rather than a pro-active redesign of the US’s infrastructure base. The production tax credit (PTC) for onshore wind, which provides tax credits per unit of electricity generated for a period of 10 years, had been notoriously hard to predict, for instance, leading to surges in instalments in the quarter preceding possible renewal as companies pushed projects forward in a race to completion prior to the PTC’s expiry. Last-minute policy uncertainty, of course, is not the best way to promote long-term investment in enduring, capital-intensive infrastructure.
The US seems to have learned this lesson. In December 2015, the PTC and the Investment Tax Credit – PTC’s solar equivalent – were both extended for a duration of five years. The impact of this longer-term signal is substantial: the extension is expected to bring an additional 19GW of wind and 18GW of solar online over the next five years respectively, according to analysis by Bloomberg New Energy Finance [5].
As for pricing carbon, the US has limited, regional markets, covering a mere 10% of the country’s total emissions. Although California’s cap-and-trade programme currently boasts the highest price in the US (~13$/tCO2e as of Sept 2016) and is close to the $20/tCO2e the International Energy Agency (IEA) estimates the US will have to apply to its power sector by 2020 to keep its emissions compatible with a 2°C scenario, the current carbon price is still far from the $100/tCO2e the IEA assumes will be needed in the US by 2030.
Despite this suboptimal policy context, the US has done relatively well in reducing emissions cost-effectively. As of 2015, it had the second-largest installed base of non-hydro renewables in the world and was the second largest country in terms of investments, albeit well below those of China, which has been ahead of the US on both accounts since 2011. As for coal, the US has gradually replaced it with renewables and natural gas, with the latter accounting for around 35% of total electricity production in the second quarter of 2016 — up from just 17% in 2001. However, coal’s current displacement is not a result of carbon policies but rather a consequence of low-cost natural gas and regulations aimed at local — not global — pollution.
“Given the current set of regulations in the US to mitigate carbon emissions, it is difficult to say with confidence how effective the combination of these policies is going to be,” says Justin Gundlach, climate-change fellow at the Sabin Center for Climate Change Law at Columbia Law School. The problem of policy coherence is hardly exclusive to America, but it does hinder the US’s ability to realign its energy system to meet the country’s long-term economic and environmental needs.
One positive development in that regard is the CPP. A key feature of the CPP, according to Mr Gundlach, is that it forces states to tackle the issue of policy coherence in a transparent and coordinated way, which facilitates implementation and reduces compliance costs. Another advantage of the CPP is that it opens up the possibility for carbon emissions trading between participating states. Under the proposed plan, currently under review by the U.S. Court of Appeals for the D.C. Circuit, states are allowed to choose between a rate-based goal, set in tCO2e/MWh — effectively a performance standard for carbon intensity— or a mass-based goal, with a cap on total tons of CO2 equivalent. Under the latter option, states would then “readily qualify to trade with affected electricity generating units in states that adopt the same approach”.
Leading by example
Beyond increasing policy coherence, both state and federal governments can open up new markets through public procurement strategies. A clear example of that is the role the public sector has played in expanding the market for energy service companies in the buildings sector — over a fifth of the total floorspace in the US is owned by federal, state, or local governments. Government mandates and purchasing decisions have helped improve energy efficiency through procurement and fostered a broader private-sector market.
Not every state is active in promoting sustainability, however. California has led in energy efficiency initiatives for decades while states like New York or Connecticut have established green investment banks dedicated to promoting clean-energy investments in the state. By contrast, other states such as North Dakota or Wyoming still lack even a mandatory building energy code at the state level. [6]
Another important role for government will be fostering innovation. The government can help expand R&D efforts to help lower the cost of technologies currently in labs. The country’s announced goal to double clean-energy R&D spending, along with 19 other nations leading in clean energy R&D, is an important step in that direction. Should the US reach that objective, clean-energy R&D levels in the US would roughly double from ~$5bn today to some $10bn by 2020.
Complementing this R&D push will be ‘demand pull’ efforts such as policies that create new markets for technologies that are nearing commercialization. California’s 2013 mandate to install 1.3GW of storage by 2020, for instance, has helped utilities diversify their energy-storage technology portfolios while fostering an environment for technologies to compete, from utility-scale solutions to decentralized ones. The reason, says Nancy Pfund, managing partner at DBL Investors, is that “these policies de-risk it for investors, it’s not a pilot to nowhere”. One of the technologies enabled by the mandate, and in which DBL has invested, is Advanced Microgrid Solutions, a startup that managed to secure a 50MW storage contract in 2014 with one of California’s utilities. “That’s unheard of for a start-up company,” notes Pfund.
A critical time for climate action
By explicitly stating the goal of keeping temperature increases “well below 2°C”, the Paris agreement is a clear signal of the international community’s resolve to combat climate change. Current pledges are far from meeting that goal, however, and the agreement emphasises the urgent need to address the significant gap between the countries’ mitigation pledges and the aggregate emission pathways actually necessary to hold the increase in global average temperature well below 2°C. With that in mind, a key element of the Paris agreement is the commitment to review climate pledges every 5 years to increase ambitions based on policy progress and technological developments.
On 5 October 2016, the threshold for operationalization of the Paris Agreement (55 countries representing at least 55% of global emissions) was achieved, meaning the agreement will enter into force on 4 November 2016.
The next five years will thus be crucial for climate action. Acting now will not be free: under existing US policies, including the CPP, some $2.19trn worth of investments will be required over the next 25 years in the US power sector alone, with some 39% going to transmission and distribution (T&D) infrastructure, followed by renewables (37%), fossil-fuel power generation (13%) and nuclear (11%). Acting later will cost even more, as abatement costs and the value of US assets exposed to climate-change risks will rise over time. In such a context, it is of grave concern that new US president Donald Trump rejects the overwhelming scientific evidence of climate change [7] [8].
Low energy prices represent a unique opportunity to reduce carbon emissions. As Mark Brownstein, vice president of the climate and energy program at the Environmental Defense Fund, notes, “The decline in natural gas price is creating economic headroom to ramp up investment in electric transmission and distribution infrastructure with minimal impact on the customer’s total monthly energy bill”. This is because, from an end-user point of view, the increased costs associated with the investment in T&D are offset by the lower costs of electricity generation thanks to cheap natural gas.
How to spend that low gas price dividend matters, says Brownstein. Avoiding lock-in to a carbon-intensive infrastructure will be critical, he notes. In fact, as Mr Gundlach warns, "Integrating means changing the electric system. Natural gas provides an easy way around that in the short-term. It does not, however, constitute a long-term solution to the decarbonisation of the electricity sector.”
Similar considerations apply to the natural-gas distribution side. States will thus have to carefully evaluate the costs and benefits of building new pipelines to feed rising demand from the power sector against those of investing in clean-power generation and demand-side responses to reduce the demand for natural gas in the first place — and thus avoid the need for pipeline investments.
America’s opportunity to shine
The next administration faces a unique responsibility to position the United States on a path towards a low-carbon future. Success will require leveraging the benefits of the switch away from coal while avoiding a permanent lock-in to fossil-fuel-dependent infrastructure. This will be a difficult yet crucial balance to strike. The good news is that, thanks to cheap energy, the US is in a uniquely favourable position to act. Achieving a clean energy transition will not only be good for the US economy, it will also help consolidate US leadership on the international fight against climate change. The Paris agreement on climate change is a clear signal that the world is ready to act on the issue. It’s time for America to rise to the challenge.
_____________________________________________________________
FOOTNOTES:
1 http://www.eia.gov/tools/faqs/faq.cfm?id=32&t=6
2 https://www.eia.gov/tools/faqs/faq.cfm?id=847&t=6
3 https://www.eia.gov/tools/faqs/faq.cfm?id=847&t=6
4 https://www.eia.gov/petroleum/drilling/pdf/dpr-full.pdf #page=3
5 http://www.bbhub.io/bnef/sites/4/2016/04/BNEF-Summit-Keynote-2016.pdf
6 http://database.aceee.org/state/public-building-requirements
[7] http://www.scientificamerican.com/article/trump-picks-top-climate-skepti...
[8] http://fortune.com/2016/10/01/trump-paris-climate-agreement/
The study focuses on the following areas:
The main types of strategies for encouraging energy savings How information campaigns and incentives can be tailored to specific audiences The role played by product labelling and standard-setting for energy efficiency An assessment of what strategies work best in encouraging efficiencyKey findings:
Conservation initiatives can be grouped into three broad categories: raising awareness, tightening technical standards for buildings and energy-using products, and offering incentives to cut energy use. Ownership of buildings determines the strategy for saving energy. For owner-occupied buildings, investments in efficiency pay back over time in lower energy bills. In rented housing and workplaces, a gains-sharing approach, in which owners as well as tenants benefit from efficiency investments, work best. Raising awareness I: Tailoring the message to the audience is important. Some respond best to appeals based on environmental protection, while others care most about financial incentives and returns. Raising awareness II: Choosing a trusted messenger is also key to successful awareness campaigns. For example in the US, regulated utilities tend to be trusted sources, whereas in the UK, privatised energy companies encountered resistance to their conservation messages. Setting standards and applying labels: Product-labelling schemes that rate the efficiency of buildings or homes have proven effective tools for cutting energy use. An example is the US ‘Energy Star’ programme. Incentives count: Various government incentive programmes, as well as private-sector gains-sharing schemes, have proven effective in promoting energy efficiency. Avoiding the ‘rebound effect’: While investment in efficiency lowers energy bills, governments should guard against the “rebound effect”, in which consumers—encouraged by the greater efficiency—buy more appliances and devices and thereby end up using more energy, not less. Following high-level declarations at the Sustainable Development Goals and the Paris Climate Conference in late 2015, there is a growing appetite for renewable energy in Africa. This is much-needed; the continent’s energy supplies are not meeting the needs and aspirations of its people. A better system will promote economic diversification, raise productivity, and improve the health and wellbeing of citizens. Africa requires between $60 and $90 billion annually to address its energy shortfall, roughly quadruple 2014 investment levels.
While fossil fuels, notably coal, oil and gas, continue to provide a significant quantity of energy - especially in South Africa - renewables need to play a greater role. Africa has plentiful resources, from geothermal power in Kenya and Ethiopia to hydropower in Zambia and the Democratic Republic of Congo. Solar and wind are especially promising, thanks to falling costs and resource abundance. From solar-powered hospitals in Lagos to wind farms in Lake Turkana, renewable energy is not just a pipe dream - it is a reality. Renewables can increase energy security, reduce energy import bills, and diversify and de-risk the energy mix. Through off-grid technologies, they can provide direct, affordable power to rural regions beyond the reach of the grid system.
But to harness renewables at scale, very significant infrastructure is needed: both core assets like wind and solar farms1 and transmission grids, as well as connective infrastructures, like roads to and from sites for transporting kit and manpower, or for bringing products, like solar-powered mobile phones, to market. This requires effective regulation, sufficient financing, appropriate technologies and smart business models. The ambitions are there.
The African Renewable Energy Initiative, led by institutions including the African Union and the United Nations Environment Programme, has set a goal of 300 GW of renewable energy capacity by 2030. But this requires a 680% increase in current deployment rates. According to IRENA’s latest data, the installed renewable power generation capacity in Sub-Saharan Africa currently stands slightly below 30 GW, roughly 25-30% of the installed power base, but this is dominated by large hydro, with other renewables collectively accounting for just 4-5% of power generation. Can the investment be achieved? Who are the current players and how is the market evolving?
This report, combining country fieldwork and 28 expert interviews, looks at the current renewable power capacity on the continent, identifies the market leaders and looks at the key enablers and constraints.
The US and Canada Green City Index, a research project conducted by the Economist Intelligence Unit, sponsored by Siemens, seeks to measure and assess the environmental performance of 27 major US and Canadian cities across a range of criteria. This report presents the key findings and highlights from the Index, and is intended to provide stakeholders with a unique tool to help cities in the region learn from each other in order to better address the common environmental challenges they face.
white paper
The US and Canada Green City Index measures and rates the environmental performance of 27 cities in the US and Canada.
Cities across the globe are growing in size and in terms of how connected they are. Which cities are best at keeping their citizens safe and how do they do it? An updated version of the Safe Cities Index 2017, the 2019 index covers 60 cities across the globe and defines how to measure security in a rapidly urbanising world.
Visit the Safe Cities hub for more interactive content >>
The 2019 bleisure barometer: Asia’s best cities for work and recreation evaluates the bleisure potential of various cities in Asia-Pacific, based on a survey of global business travellers. It reveals that while Asia’s top bleisure destinations provide the right balance of business activity, high-quality infrastructure and top-flight leisure experiences, many less obvious choices stand out for different reasons, often involving opportunities for cultural exchange.
The key findings are:
Tokyo is Asia’s best bleisure destination, ranking first out of 26 cities in the region. The Japanese capital is joined by Singapore, Sydney, Hong Kong and Melbourne as a “five-star” bleisure city, as determined by a quantitative barometer constructed for this programme, based on survey responses. Raw scores and number of stars may not correlate perfectly, as the former is an absolute measure and the latter a relative one (see appendix I for the full methodology of barometer and star scoring). Less-affluent cities comprise most of the one-star destinations, with notable exceptions. Business travel may prove arduous in the emerging metropolises of South and South-east Asia, but greater GDP is hardly the only predictor of a high bleisure score. New Delhi and Hanoi tie for second (alongside Beijing and Hong Kong) in the category measuring opportunities for cultural experiences, providing them a leg up over cities with stronger infrastructure and a bigger international business scene. Shanghai and Beijing, often criticised for their poor urban environments, rank highly on business aspects such as quality of international links and level of digital connectivity, helping them best more ostensibly liveable cities, including Auckland, Brisbane, Seoul, Taipei and Wellington, in the overall ranking. Wealthy Adelaide falls in the one-star category, dragged down by low scores for quality of food and beverage and opportunity for cultural experiences. Ease of transportation is the top urban factor in a successful business trip. Other key aspects include street safety and quality of business venues, according to our survey. Regional differences emerge in these findings, with Asian executives prioritising transportation, while Europeans are less concerned about safety than those hailing from elsewhere. Dining out and enjoying local heritage are the chief ways busy business travellers unwind. These two factors rank well ahead of the third-place finisher, visiting an art museum or gallery. Regional nuances crop up here too: Asian executives are less likely to frequent the local drinking scene and more inclined to visit an amusement park.The report, including full scoring and star bracket methodology, as well as an infographic and video, can be found at: https://fivestarcities.economist.com/
As this report finds, cities need smarter and more flexible infrastructure to address these challenges— infrastructure that can make better use of existing space and resources, and that can adapt in accordance with uncertain, fast-moving future realities.
The idea of ‘flexible’ or future-proof cities is becoming more important. Imagine a roadway that works for today’s vehicles as well as tomorrow’s autonomous cars, an energy system that can provide reliable power despite spikes in usage (such as those that may come from greater adoption of electric cars), pylons that are mindful of overhead drones, a building that transforms depending on needs of its inhabitants, or an autonomous rail system that can double its capacity simply through changes to its operating algorithms.
Delivering infrastructure that is more responsive and flexible to future needs requires technological innovation as much as it does new approaches to planning, financing and procurement.
In this report, The EIU investigates the challenges facing cities and urban infrastructure in the near future, and the global trends and innovations in infrastructure that will be crucial in response. With an eye to international best practice, it focuses on the challenges and opportunities pertinent to Australia. Here, major cities are facing significant population growth forecasts that call into question their ability to continuously provide a high quality of life for their citizens. Challenges pertain to both meeting infrastructure need, and in delivering solutions, through effective planning, financing and collaboration, in time and on budget.
The key findings of the research include:
Australia is experiencing a number of growing pains. Population growth in cities is a universal trend—urban population is expected to rise by two-thirds by 2050 globally—but it is particularly acute in Australia, where cities must meet double or greater user demand without conflicting with the global targets set by the Paris Agreement and Agenda 2030. Such growth challenges the capacity and sustainability of cities’ infrastructure and the networks that connect them. Planners must also reckon with an ageing population, deteriorating infrastructure, adverse environmental change and evolving working patterns, altering the dynamics of how people operate in and navigate cities. A failure to respond to these challenges could result in declining economic productivity and threats to the quality of life for which Australian cities are renowned. To meet future demands, infrastructure builders across the globe are considering how they can expand the capacity of existing infrastructure and bolster the flexibility of new works. Updated networks like roads, railways and pipelines often need to accommodate twice their original usage demand without changing their physical footprint. The effective adoption of digital technology will be key to this transformation, such as updating metro systems with driverless trains and automatic controls, informed by large amounts of real-time data, to allow a more efficient use of capacity. Water and energy supply systems must also prove reliable in the face of natural disasters, shifts in market prices (such as oil or gas price shocks) or changes to supply sources (backups for solar generation, for example). New technological techniques and applications can help builders work more quickly, safely and cost-effectively. The design, construction and maintenance of infrastructure projects are increasingly driven by digital technologies, unlocking cost and time savings in building roads, railways and entire city centres. The cost and energy required to build with the highest safety margins could be reduced by remote monitoring through embedded sensors. Efficient, low-impact construction techniques will be important to reduce the disruption that construction and repairs have on metropolitan areas, too. Stakeholders are increasingly reliant on data to plan, build and optimise projects. Data generated by citizens and connected infrastructure are increasingly critical in delivering and operating smarter cities. Governments and infrastructure providers increasingly benefit from adding this data to their modelling and scenario planning. Open data can also allow citizens and third parties to solve problems or invent new applications that benefit all, from crowdsourcing potholes or reporting crime, to building new navigation apps. Australia’s state and federal governments, citizens, and commercial partners are still grappling with data ownership issues, but all are working to address the challenges. Mature financing and procurement practices help Australia attract international investment. Attractive markets encourage international competition for infrastructure procurement. Indeed, many of today’s projects are contracted to international players who bring advanced, ambitious proposals to government. And as demand for more advanced, flexible projects rises, players are increasingly presenting envelope-pushing approaches to win bids. Collaboration between governments, universities and commercial players is increasing, sparking innovation. Universities are playing a larger role in the advancement and application of infrastructure technology by partnering with private companies and government. New forms of collaboration are also more apparent among federal, state and local governments, and between governments and the private sector, potentially easing the problems posed by the historically disjointed nature of decision-making and long-term planning on major infrastructure. Australia has a strong record of robust infrastructure investment. Its leaders, institutions and businesses have identified the urgency and importance of responsible and smart infrastructure initiatives. As a result, Australia is well placed to wrestle with the challenges it faces, and, as it navigates infrastructure challenges earlier and with greater urgency than some other countries, could be a model for how other countries—in the OECD and in Asia-Pacific—can build smarter, more flexible, next-generation infrastructure in their cities.
white paper
Research Methodology Economies of scale: How the oil and gas industry cuts costs through replication is an
case study
Replication is not just about building structures faster. “It’s about learning to learn faster,” says Mr Wetselaar
Energy independence has been a stated, albeit ill-defined, goal of the United States since the Nixon administration. Recent developments in both the unconventional oil and gas and renewable energy industries have brought this goal closer than it has been in decades.
At 24% in 2015 [1], petroleum imports as a share of total national consumption are at their lowest since 1970 and Henry hub (the US benchmark for natural gas) prices are hovering around $2.8/Mbtu, down from $12 in June 2008. Meanwhile, the costs of utility-scale solar photovoltaic and onshore wind energy have dropped more than 60% and 40% respectively since 2008, and in recent years these sources have accounted for the majority of newly installed generation capacity in the United States.
That this has happened so fast is remarkable. In less than fifteen years, unconventional oil and gas production, mainly using hydraulic fracturing (“fracking”), rose from negligible to supplying around half of domestic production [2] [3].
This growth is a testament to the US economy’s ability to combine technological progress, flexible regulation and financial innovation to develop new opportunities. When, in 2014, OPEC decided to maintain production levels despite an oil-price crash, shale production was projected to stop abruptly. According to data from the Energy Information Agency (EIA), however, oil production continued to grow in the US for another six months, reaching record highs before it peaked. Various factors drove this counterintuitive dynamic.
First, rig efficiency has increased in many of the unconventional oil plays, as a result, in part, of producers focusing on their most productive plays. New-well oil production per rig in the Bakken region, for instance, has doubled since 2014 [4]. Along with a decline in the oil and gas rig count and a large drop in employment in the oil and gas sector, these efficiency gains have cut both labour and equipment costs, lowering the breakeven point. “People are trying to cut costs as much as they can, wherever they can. Even the accounting firms have been asked to halve their fees,” says Peter R. Hartley, an energy economics scholar at Rice University.
Another important lever has been to finance operations through debt. This, however, has reached daunting proportions. Onshore oil producers tracked by EIA, collectively accounting for 2.7m barrels per day of US production, spent 83% of their cash-flow revenues on debt repayments as of June 2015, the highest levels since 2011. Many companies have also engaged in asset write-downs. The 46 international and US upstream oil companies regularly tracked by the EIA, for instance, wrote down $38bn in Q3 2015 alone — the largest write-down since 2008. While no one wants to sell at low valuations, consolidation becomes more likely the longer the oil price remains low.
On the whole, however, the geostrategic energy situation for the United States remains quite positive. As Mr Hartley highlights, “The fact the oil price is down is less a result of investments in America than it is a decision of OPEC to keep the tap open.” However, he notes, “the much greater flexibility of unconventional production — and the large amount of resources available — means the US supply response is now much more elastic. And that reduces OPEC’s monopoly power over oil prices."
These advantages in terms of energy security are even more pronounced for natural gas, a commodity for which a single global price does not exist. Since 2006, lasting spreads have favoured the US Henry hub benchmarks versus the price of natural gas in Europe or Japan. Sustained low prices have created competitive gains for industries relying on natural gas as feedstock, with the petrochemicals industry an obvious long-term winner, although a low oil price also limits the gains from the ethane-naphtha spread. The metals industry should also benefit. Steelmaking in the US, for instance, has seen resurgence in the use of direct reduced iron (DRI), with US DRI output potentially reaching up to 10m tonnes by 2020 from just 1.3m in 2013. Cheap natural gas is also saving consumers money on their heating and electricity bills. According to an evaluation by Harvard Business School, these savings totalled $800 per average US household in 2014. While some of that will be saved, the rest will result in increased consumer spending, thus benefitting the economy.
Energy abundance is an opportunity, not an excuse
One of the most crucial questions facing the US in the future is how newly abundant fossil fuel resources will affect the trajectory of the country’s carbon emissions. Left unchecked, climate change could leave critical parts of the US housing stock and infrastructure exposed to climate-induced sea level rise as well as more frequent and stronger extreme weather events such as hurricanes or droughts. Such events already cost the US tens of billions of dollars a year in damaged property, other economic harms and health consequences. Climate change could also impact the power generation infrastructure due to higher temperatures and reduced water availability, according to the Department of Energy (DOE). “In the absence of concerted action to improve resilience, energy system vulnerabilities pose a threat to America’s national security, energy security, economic wellbeing, and quality of life,” warns a DOE report published in 2015 evaluating the vulnerability of the US energy sector to climate change. It is in the US’s long-term interest to address the climate problem today.
Under the United Nations climate accord agreed to in December 2015, the US has also pledged to take action on climate change. The agreement, signed in Paris by more than 190 countries, recognises the need to achieve “global peaking of greenhouse gas emissions as soon as possible” to keep temperature increases below 2°C by the end of the century. By ratifying the agreement and issuing the Clean Power Plan (CPP), the US’ first policy to explicitly target carbon emissions from the power sector at the national level, the country has taken a step in the right direction. But the US can and should do more.
The need for a clear, coherent and long-term signal
A successful transition requires policy and price signals that are clear, long-term, and strong enough to shift investments towards low-carbon infrastructure. These signals are critical to achieving a low-carbon future for two primary reasons. First, free-market competition requires a level playing field, including a firm price on carbon emissions to account for their negative externalities. Second, for markets to adjust in a non-disruptive manner the price should be gradually more stringent, thus enabling the private sector to shift gradually towards a low-carbon economy.
Until recently, the pattern of US governance in the energy sector had been driven mostly by short-term opportunism rather than a pro-active redesign of the US’s infrastructure base. The production tax credit (PTC) for onshore wind, which provides tax credits per unit of electricity generated for a period of 10 years, had been notoriously hard to predict, for instance, leading to surges in instalments in the quarter preceding possible renewal as companies pushed projects forward in a race to completion prior to the PTC’s expiry. Last-minute policy uncertainty, of course, is not the best way to promote long-term investment in enduring, capital-intensive infrastructure.
The US seems to have learned this lesson. In December 2015, the PTC and the Investment Tax Credit – PTC’s solar equivalent – were both extended for a duration of five years. The impact of this longer-term signal is substantial: the extension is expected to bring an additional 19GW of wind and 18GW of solar online over the next five years respectively, according to analysis by Bloomberg New Energy Finance [5].
As for pricing carbon, the US has limited, regional markets, covering a mere 10% of the country’s total emissions. Although California’s cap-and-trade programme currently boasts the highest price in the US (~13$/tCO2e as of Sept 2016) and is close to the $20/tCO2e the International Energy Agency (IEA) estimates the US will have to apply to its power sector by 2020 to keep its emissions compatible with a 2°C scenario, the current carbon price is still far from the $100/tCO2e the IEA assumes will be needed in the US by 2030.
Despite this suboptimal policy context, the US has done relatively well in reducing emissions cost-effectively. As of 2015, it had the second-largest installed base of non-hydro renewables in the world and was the second largest country in terms of investments, albeit well below those of China, which has been ahead of the US on both accounts since 2011. As for coal, the US has gradually replaced it with renewables and natural gas, with the latter accounting for around 35% of total electricity production in the second quarter of 2016 — up from just 17% in 2001. However, coal’s current displacement is not a result of carbon policies but rather a consequence of low-cost natural gas and regulations aimed at local — not global — pollution.
“Given the current set of regulations in the US to mitigate carbon emissions, it is difficult to say with confidence how effective the combination of these policies is going to be,” says Justin Gundlach, climate-change fellow at the Sabin Center for Climate Change Law at Columbia Law School. The problem of policy coherence is hardly exclusive to America, but it does hinder the US’s ability to realign its energy system to meet the country’s long-term economic and environmental needs.
One positive development in that regard is the CPP. A key feature of the CPP, according to Mr Gundlach, is that it forces states to tackle the issue of policy coherence in a transparent and coordinated way, which facilitates implementation and reduces compliance costs. Another advantage of the CPP is that it opens up the possibility for carbon emissions trading between participating states. Under the proposed plan, currently under review by the U.S. Court of Appeals for the D.C. Circuit, states are allowed to choose between a rate-based goal, set in tCO2e/MWh — effectively a performance standard for carbon intensity— or a mass-based goal, with a cap on total tons of CO2 equivalent. Under the latter option, states would then “readily qualify to trade with affected electricity generating units in states that adopt the same approach”.
Leading by example
Beyond increasing policy coherence, both state and federal governments can open up new markets through public procurement strategies. A clear example of that is the role the public sector has played in expanding the market for energy service companies in the buildings sector — over a fifth of the total floorspace in the US is owned by federal, state, or local governments. Government mandates and purchasing decisions have helped improve energy efficiency through procurement and fostered a broader private-sector market.
Not every state is active in promoting sustainability, however. California has led in energy efficiency initiatives for decades while states like New York or Connecticut have established green investment banks dedicated to promoting clean-energy investments in the state. By contrast, other states such as North Dakota or Wyoming still lack even a mandatory building energy code at the state level. [6]
Another important role for government will be fostering innovation. The government can help expand R&D efforts to help lower the cost of technologies currently in labs. The country’s announced goal to double clean-energy R&D spending, along with 19 other nations leading in clean energy R&D, is an important step in that direction. Should the US reach that objective, clean-energy R&D levels in the US would roughly double from ~$5bn today to some $10bn by 2020.
Complementing this R&D push will be ‘demand pull’ efforts such as policies that create new markets for technologies that are nearing commercialization. California’s 2013 mandate to install 1.3GW of storage by 2020, for instance, has helped utilities diversify their energy-storage technology portfolios while fostering an environment for technologies to compete, from utility-scale solutions to decentralized ones. The reason, says Nancy Pfund, managing partner at DBL Investors, is that “these policies de-risk it for investors, it’s not a pilot to nowhere”. One of the technologies enabled by the mandate, and in which DBL has invested, is Advanced Microgrid Solutions, a startup that managed to secure a 50MW storage contract in 2014 with one of California’s utilities. “That’s unheard of for a start-up company,” notes Pfund.
A critical time for climate action
By explicitly stating the goal of keeping temperature increases “well below 2°C”, the Paris agreement is a clear signal of the international community’s resolve to combat climate change. Current pledges are far from meeting that goal, however, and the agreement emphasises the urgent need to address the significant gap between the countries’ mitigation pledges and the aggregate emission pathways actually necessary to hold the increase in global average temperature well below 2°C. With that in mind, a key element of the Paris agreement is the commitment to review climate pledges every 5 years to increase ambitions based on policy progress and technological developments.
On 5 October 2016, the threshold for operationalization of the Paris Agreement (55 countries representing at least 55% of global emissions) was achieved, meaning the agreement will enter into force on 4 November 2016.
The next five years will thus be crucial for climate action. Acting now will not be free: under existing US policies, including the CPP, some $2.19trn worth of investments will be required over the next 25 years in the US power sector alone, with some 39% going to transmission and distribution (T&D) infrastructure, followed by renewables (37%), fossil-fuel power generation (13%) and nuclear (11%). Acting later will cost even more, as abatement costs and the value of US assets exposed to climate-change risks will rise over time. In such a context, it is of grave concern that new US president Donald Trump rejects the overwhelming scientific evidence of climate change [7] [8].
Low energy prices represent a unique opportunity to reduce carbon emissions. As Mark Brownstein, vice president of the climate and energy program at the Environmental Defense Fund, notes, “The decline in natural gas price is creating economic headroom to ramp up investment in electric transmission and distribution infrastructure with minimal impact on the customer’s total monthly energy bill”. This is because, from an end-user point of view, the increased costs associated with the investment in T&D are offset by the lower costs of electricity generation thanks to cheap natural gas.
How to spend that low gas price dividend matters, says Brownstein. Avoiding lock-in to a carbon-intensive infrastructure will be critical, he notes. In fact, as Mr Gundlach warns, "Integrating means changing the electric system. Natural gas provides an easy way around that in the short-term. It does not, however, constitute a long-term solution to the decarbonisation of the electricity sector.”
Similar considerations apply to the natural-gas distribution side. States will thus have to carefully evaluate the costs and benefits of building new pipelines to feed rising demand from the power sector against those of investing in clean-power generation and demand-side responses to reduce the demand for natural gas in the first place — and thus avoid the need for pipeline investments.
America’s opportunity to shine
The next administration faces a unique responsibility to position the United States on a path towards a low-carbon future. Success will require leveraging the benefits of the switch away from coal while avoiding a permanent lock-in to fossil-fuel-dependent infrastructure. This will be a difficult yet crucial balance to strike. The good news is that, thanks to cheap energy, the US is in a uniquely favourable position to act. Achieving a clean energy transition will not only be good for the US economy, it will also help consolidate US leadership on the international fight against climate change. The Paris agreement on climate change is a clear signal that the world is ready to act on the issue. It’s time for America to rise to the challenge.
_____________________________________________________________
FOOTNOTES:
1 http://www.eia.gov/tools/faqs/faq.cfm?id=32&t=6
2 https://www.eia.gov/tools/faqs/faq.cfm?id=847&t=6
3 https://www.eia.gov/tools/faqs/faq.cfm?id=847&t=6
4 https://www.eia.gov/petroleum/drilling/pdf/dpr-full.pdf #page=3
5 http://www.bbhub.io/bnef/sites/4/2016/04/BNEF-Summit-Keynote-2016.pdf
6 http://database.aceee.org/state/public-building-requirements
[7] http://www.scientificamerican.com/article/trump-picks-top-climate-skepti...
[8] http://fortune.com/2016/10/01/trump-paris-climate-agreement/
The study focuses on the following areas:
The main types of strategies for encouraging energy savings How information campaigns and incentives can be tailored to specific audiences The role played by product labelling and standard-setting for energy efficiency An assessment of what strategies work best in encouraging efficiencyKey findings:
Conservation initiatives can be grouped into three broad categories: raising awareness, tightening technical standards for buildings and energy-using products, and offering incentives to cut energy use. Ownership of buildings determines the strategy for saving energy. For owner-occupied buildings, investments in efficiency pay back over time in lower energy bills. In rented housing and workplaces, a gains-sharing approach, in which owners as well as tenants benefit from efficiency investments, work best. Raising awareness I: Tailoring the message to the audience is important. Some respond best to appeals based on environmental protection, while others care most about financial incentives and returns. Raising awareness II: Choosing a trusted messenger is also key to successful awareness campaigns. For example in the US, regulated utilities tend to be trusted sources, whereas in the UK, privatised energy companies encountered resistance to their conservation messages. Setting standards and applying labels: Product-labelling schemes that rate the efficiency of buildings or homes have proven effective tools for cutting energy use. An example is the US ‘Energy Star’ programme. Incentives count: Various government incentive programmes, as well as private-sector gains-sharing schemes, have proven effective in promoting energy efficiency. Avoiding the ‘rebound effect’: While investment in efficiency lowers energy bills, governments should guard against the “rebound effect”, in which consumers—encouraged by the greater efficiency—buy more appliances and devices and thereby end up using more energy, not less. Following high-level declarations at the Sustainable Development Goals and the Paris Climate Conference in late 2015, there is a growing appetite for renewable energy in Africa. This is much-needed; the continent’s energy supplies are not meeting the needs and aspirations of its people. A better system will promote economic diversification, raise productivity, and improve the health and wellbeing of citizens. Africa requires between $60 and $90 billion annually to address its energy shortfall, roughly quadruple 2014 investment levels.
While fossil fuels, notably coal, oil and gas, continue to provide a significant quantity of energy - especially in South Africa - renewables need to play a greater role. Africa has plentiful resources, from geothermal power in Kenya and Ethiopia to hydropower in Zambia and the Democratic Republic of Congo. Solar and wind are especially promising, thanks to falling costs and resource abundance. From solar-powered hospitals in Lagos to wind farms in Lake Turkana, renewable energy is not just a pipe dream - it is a reality. Renewables can increase energy security, reduce energy import bills, and diversify and de-risk the energy mix. Through off-grid technologies, they can provide direct, affordable power to rural regions beyond the reach of the grid system.
But to harness renewables at scale, very significant infrastructure is needed: both core assets like wind and solar farms1 and transmission grids, as well as connective infrastructures, like roads to and from sites for transporting kit and manpower, or for bringing products, like solar-powered mobile phones, to market. This requires effective regulation, sufficient financing, appropriate technologies and smart business models. The ambitions are there.
The African Renewable Energy Initiative, led by institutions including the African Union and the United Nations Environment Programme, has set a goal of 300 GW of renewable energy capacity by 2030. But this requires a 680% increase in current deployment rates. According to IRENA’s latest data, the installed renewable power generation capacity in Sub-Saharan Africa currently stands slightly below 30 GW, roughly 25-30% of the installed power base, but this is dominated by large hydro, with other renewables collectively accounting for just 4-5% of power generation. Can the investment be achieved? Who are the current players and how is the market evolving?
This report, combining country fieldwork and 28 expert interviews, looks at the current renewable power capacity on the continent, identifies the market leaders and looks at the key enablers and constraints.
Chasing the negawatt – Energy efficiency in British homes and business: A policy perspective is a T-Systems report, written by the Economist Intelligence Unit. It reviews current UK business and consumer perspectives on energy efficiencyin order to identify the steps that need to be taken to change their behaviour.
white paper
Research Methodology The report is based on the following inputs: A survey of 259 executives with
Energy independence has been a stated, albeit ill-defined, goal of the United States since the Nixon administration. Recent developments in both the unconventional oil and gas and renewable energy industries have brought this goal closer than it has been in decades.
At 24% in 2015 [1], petroleum imports as a share of total national consumption are at their lowest since 1970 and Henry hub (the US benchmark for natural gas) prices are hovering around $2.8/Mbtu, down from $12 in June 2008. Meanwhile, the costs of utility-scale solar photovoltaic and onshore wind energy have dropped more than 60% and 40% respectively since 2008, and in recent years these sources have accounted for the majority of newly installed generation capacity in the United States.
That this has happened so fast is remarkable. In less than fifteen years, unconventional oil and gas production, mainly using hydraulic fracturing (“fracking”), rose from negligible to supplying around half of domestic production [2] [3].
This growth is a testament to the US economy’s ability to combine technological progress, flexible regulation and financial innovation to develop new opportunities. When, in 2014, OPEC decided to maintain production levels despite an oil-price crash, shale production was projected to stop abruptly. According to data from the Energy Information Agency (EIA), however, oil production continued to grow in the US for another six months, reaching record highs before it peaked. Various factors drove this counterintuitive dynamic.
First, rig efficiency has increased in many of the unconventional oil plays, as a result, in part, of producers focusing on their most productive plays. New-well oil production per rig in the Bakken region, for instance, has doubled since 2014 [4]. Along with a decline in the oil and gas rig count and a large drop in employment in the oil and gas sector, these efficiency gains have cut both labour and equipment costs, lowering the breakeven point. “People are trying to cut costs as much as they can, wherever they can. Even the accounting firms have been asked to halve their fees,” says Peter R. Hartley, an energy economics scholar at Rice University.
Another important lever has been to finance operations through debt. This, however, has reached daunting proportions. Onshore oil producers tracked by EIA, collectively accounting for 2.7m barrels per day of US production, spent 83% of their cash-flow revenues on debt repayments as of June 2015, the highest levels since 2011. Many companies have also engaged in asset write-downs. The 46 international and US upstream oil companies regularly tracked by the EIA, for instance, wrote down $38bn in Q3 2015 alone — the largest write-down since 2008. While no one wants to sell at low valuations, consolidation becomes more likely the longer the oil price remains low.
On the whole, however, the geostrategic energy situation for the United States remains quite positive. As Mr Hartley highlights, “The fact the oil price is down is less a result of investments in America than it is a decision of OPEC to keep the tap open.” However, he notes, “the much greater flexibility of unconventional production — and the large amount of resources available — means the US supply response is now much more elastic. And that reduces OPEC’s monopoly power over oil prices."
These advantages in terms of energy security are even more pronounced for natural gas, a commodity for which a single global price does not exist. Since 2006, lasting spreads have favoured the US Henry hub benchmarks versus the price of natural gas in Europe or Japan. Sustained low prices have created competitive gains for industries relying on natural gas as feedstock, with the petrochemicals industry an obvious long-term winner, although a low oil price also limits the gains from the ethane-naphtha spread. The metals industry should also benefit. Steelmaking in the US, for instance, has seen resurgence in the use of direct reduced iron (DRI), with US DRI output potentially reaching up to 10m tonnes by 2020 from just 1.3m in 2013. Cheap natural gas is also saving consumers money on their heating and electricity bills. According to an evaluation by Harvard Business School, these savings totalled $800 per average US household in 2014. While some of that will be saved, the rest will result in increased consumer spending, thus benefitting the economy.
Energy abundance is an opportunity, not an excuse
One of the most crucial questions facing the US in the future is how newly abundant fossil fuel resources will affect the trajectory of the country’s carbon emissions. Left unchecked, climate change could leave critical parts of the US housing stock and infrastructure exposed to climate-induced sea level rise as well as more frequent and stronger extreme weather events such as hurricanes or droughts. Such events already cost the US tens of billions of dollars a year in damaged property, other economic harms and health consequences. Climate change could also impact the power generation infrastructure due to higher temperatures and reduced water availability, according to the Department of Energy (DOE). “In the absence of concerted action to improve resilience, energy system vulnerabilities pose a threat to America’s national security, energy security, economic wellbeing, and quality of life,” warns a DOE report published in 2015 evaluating the vulnerability of the US energy sector to climate change. It is in the US’s long-term interest to address the climate problem today.
Under the United Nations climate accord agreed to in December 2015, the US has also pledged to take action on climate change. The agreement, signed in Paris by more than 190 countries, recognises the need to achieve “global peaking of greenhouse gas emissions as soon as possible” to keep temperature increases below 2°C by the end of the century. By ratifying the agreement and issuing the Clean Power Plan (CPP), the US’ first policy to explicitly target carbon emissions from the power sector at the national level, the country has taken a step in the right direction. But the US can and should do more.
The need for a clear, coherent and long-term signal
A successful transition requires policy and price signals that are clear, long-term, and strong enough to shift investments towards low-carbon infrastructure. These signals are critical to achieving a low-carbon future for two primary reasons. First, free-market competition requires a level playing field, including a firm price on carbon emissions to account for their negative externalities. Second, for markets to adjust in a non-disruptive manner the price should be gradually more stringent, thus enabling the private sector to shift gradually towards a low-carbon economy.
Until recently, the pattern of US governance in the energy sector had been driven mostly by short-term opportunism rather than a pro-active redesign of the US’s infrastructure base. The production tax credit (PTC) for onshore wind, which provides tax credits per unit of electricity generated for a period of 10 years, had been notoriously hard to predict, for instance, leading to surges in instalments in the quarter preceding possible renewal as companies pushed projects forward in a race to completion prior to the PTC’s expiry. Last-minute policy uncertainty, of course, is not the best way to promote long-term investment in enduring, capital-intensive infrastructure.
The US seems to have learned this lesson. In December 2015, the PTC and the Investment Tax Credit – PTC’s solar equivalent – were both extended for a duration of five years. The impact of this longer-term signal is substantial: the extension is expected to bring an additional 19GW of wind and 18GW of solar online over the next five years respectively, according to analysis by Bloomberg New Energy Finance [5].
As for pricing carbon, the US has limited, regional markets, covering a mere 10% of the country’s total emissions. Although California’s cap-and-trade programme currently boasts the highest price in the US (~13$/tCO2e as of Sept 2016) and is close to the $20/tCO2e the International Energy Agency (IEA) estimates the US will have to apply to its power sector by 2020 to keep its emissions compatible with a 2°C scenario, the current carbon price is still far from the $100/tCO2e the IEA assumes will be needed in the US by 2030.
Despite this suboptimal policy context, the US has done relatively well in reducing emissions cost-effectively. As of 2015, it had the second-largest installed base of non-hydro renewables in the world and was the second largest country in terms of investments, albeit well below those of China, which has been ahead of the US on both accounts since 2011. As for coal, the US has gradually replaced it with renewables and natural gas, with the latter accounting for around 35% of total electricity production in the second quarter of 2016 — up from just 17% in 2001. However, coal’s current displacement is not a result of carbon policies but rather a consequence of low-cost natural gas and regulations aimed at local — not global — pollution.
“Given the current set of regulations in the US to mitigate carbon emissions, it is difficult to say with confidence how effective the combination of these policies is going to be,” says Justin Gundlach, climate-change fellow at the Sabin Center for Climate Change Law at Columbia Law School. The problem of policy coherence is hardly exclusive to America, but it does hinder the US’s ability to realign its energy system to meet the country’s long-term economic and environmental needs.
One positive development in that regard is the CPP. A key feature of the CPP, according to Mr Gundlach, is that it forces states to tackle the issue of policy coherence in a transparent and coordinated way, which facilitates implementation and reduces compliance costs. Another advantage of the CPP is that it opens up the possibility for carbon emissions trading between participating states. Under the proposed plan, currently under review by the U.S. Court of Appeals for the D.C. Circuit, states are allowed to choose between a rate-based goal, set in tCO2e/MWh — effectively a performance standard for carbon intensity— or a mass-based goal, with a cap on total tons of CO2 equivalent. Under the latter option, states would then “readily qualify to trade with affected electricity generating units in states that adopt the same approach”.
Leading by example
Beyond increasing policy coherence, both state and federal governments can open up new markets through public procurement strategies. A clear example of that is the role the public sector has played in expanding the market for energy service companies in the buildings sector — over a fifth of the total floorspace in the US is owned by federal, state, or local governments. Government mandates and purchasing decisions have helped improve energy efficiency through procurement and fostered a broader private-sector market.
Not every state is active in promoting sustainability, however. California has led in energy efficiency initiatives for decades while states like New York or Connecticut have established green investment banks dedicated to promoting clean-energy investments in the state. By contrast, other states such as North Dakota or Wyoming still lack even a mandatory building energy code at the state level. [6]
Another important role for government will be fostering innovation. The government can help expand R&D efforts to help lower the cost of technologies currently in labs. The country’s announced goal to double clean-energy R&D spending, along with 19 other nations leading in clean energy R&D, is an important step in that direction. Should the US reach that objective, clean-energy R&D levels in the US would roughly double from ~$5bn today to some $10bn by 2020.
Complementing this R&D push will be ‘demand pull’ efforts such as policies that create new markets for technologies that are nearing commercialization. California’s 2013 mandate to install 1.3GW of storage by 2020, for instance, has helped utilities diversify their energy-storage technology portfolios while fostering an environment for technologies to compete, from utility-scale solutions to decentralized ones. The reason, says Nancy Pfund, managing partner at DBL Investors, is that “these policies de-risk it for investors, it’s not a pilot to nowhere”. One of the technologies enabled by the mandate, and in which DBL has invested, is Advanced Microgrid Solutions, a startup that managed to secure a 50MW storage contract in 2014 with one of California’s utilities. “That’s unheard of for a start-up company,” notes Pfund.
A critical time for climate action
By explicitly stating the goal of keeping temperature increases “well below 2°C”, the Paris agreement is a clear signal of the international community’s resolve to combat climate change. Current pledges are far from meeting that goal, however, and the agreement emphasises the urgent need to address the significant gap between the countries’ mitigation pledges and the aggregate emission pathways actually necessary to hold the increase in global average temperature well below 2°C. With that in mind, a key element of the Paris agreement is the commitment to review climate pledges every 5 years to increase ambitions based on policy progress and technological developments.
On 5 October 2016, the threshold for operationalization of the Paris Agreement (55 countries representing at least 55% of global emissions) was achieved, meaning the agreement will enter into force on 4 November 2016.
The next five years will thus be crucial for climate action. Acting now will not be free: under existing US policies, including the CPP, some $2.19trn worth of investments will be required over the next 25 years in the US power sector alone, with some 39% going to transmission and distribution (T&D) infrastructure, followed by renewables (37%), fossil-fuel power generation (13%) and nuclear (11%). Acting later will cost even more, as abatement costs and the value of US assets exposed to climate-change risks will rise over time. In such a context, it is of grave concern that new US president Donald Trump rejects the overwhelming scientific evidence of climate change [7] [8].
Low energy prices represent a unique opportunity to reduce carbon emissions. As Mark Brownstein, vice president of the climate and energy program at the Environmental Defense Fund, notes, “The decline in natural gas price is creating economic headroom to ramp up investment in electric transmission and distribution infrastructure with minimal impact on the customer’s total monthly energy bill”. This is because, from an end-user point of view, the increased costs associated with the investment in T&D are offset by the lower costs of electricity generation thanks to cheap natural gas.
How to spend that low gas price dividend matters, says Brownstein. Avoiding lock-in to a carbon-intensive infrastructure will be critical, he notes. In fact, as Mr Gundlach warns, "Integrating means changing the electric system. Natural gas provides an easy way around that in the short-term. It does not, however, constitute a long-term solution to the decarbonisation of the electricity sector.”
Similar considerations apply to the natural-gas distribution side. States will thus have to carefully evaluate the costs and benefits of building new pipelines to feed rising demand from the power sector against those of investing in clean-power generation and demand-side responses to reduce the demand for natural gas in the first place — and thus avoid the need for pipeline investments.
America’s opportunity to shine
The next administration faces a unique responsibility to position the United States on a path towards a low-carbon future. Success will require leveraging the benefits of the switch away from coal while avoiding a permanent lock-in to fossil-fuel-dependent infrastructure. This will be a difficult yet crucial balance to strike. The good news is that, thanks to cheap energy, the US is in a uniquely favourable position to act. Achieving a clean energy transition will not only be good for the US economy, it will also help consolidate US leadership on the international fight against climate change. The Paris agreement on climate change is a clear signal that the world is ready to act on the issue. It’s time for America to rise to the challenge.
_____________________________________________________________
FOOTNOTES:
1 http://www.eia.gov/tools/faqs/faq.cfm?id=32&t=6
2 https://www.eia.gov/tools/faqs/faq.cfm?id=847&t=6
3 https://www.eia.gov/tools/faqs/faq.cfm?id=847&t=6
4 https://www.eia.gov/petroleum/drilling/pdf/dpr-full.pdf #page=3
5 http://www.bbhub.io/bnef/sites/4/2016/04/BNEF-Summit-Keynote-2016.pdf
6 http://database.aceee.org/state/public-building-requirements
[7] http://www.scientificamerican.com/article/trump-picks-top-climate-skepti...
[8] http://fortune.com/2016/10/01/trump-paris-climate-agreement/
The study focuses on the following areas:
The main types of strategies for encouraging energy savings How information campaigns and incentives can be tailored to specific audiences The role played by product labelling and standard-setting for energy efficiency An assessment of what strategies work best in encouraging efficiencyKey findings:
Conservation initiatives can be grouped into three broad categories: raising awareness, tightening technical standards for buildings and energy-using products, and offering incentives to cut energy use. Ownership of buildings determines the strategy for saving energy. For owner-occupied buildings, investments in efficiency pay back over time in lower energy bills. In rented housing and workplaces, a gains-sharing approach, in which owners as well as tenants benefit from efficiency investments, work best. Raising awareness I: Tailoring the message to the audience is important. Some respond best to appeals based on environmental protection, while others care most about financial incentives and returns. Raising awareness II: Choosing a trusted messenger is also key to successful awareness campaigns. For example in the US, regulated utilities tend to be trusted sources, whereas in the UK, privatised energy companies encountered resistance to their conservation messages. Setting standards and applying labels: Product-labelling schemes that rate the efficiency of buildings or homes have proven effective tools for cutting energy use. An example is the US ‘Energy Star’ programme. Incentives count: Various government incentive programmes, as well as private-sector gains-sharing schemes, have proven effective in promoting energy efficiency. Avoiding the ‘rebound effect’: While investment in efficiency lowers energy bills, governments should guard against the “rebound effect”, in which consumers—encouraged by the greater efficiency—buy more appliances and devices and thereby end up using more energy, not less. Following high-level declarations at the Sustainable Development Goals and the Paris Climate Conference in late 2015, there is a growing appetite for renewable energy in Africa. This is much-needed; the continent’s energy supplies are not meeting the needs and aspirations of its people. A better system will promote economic diversification, raise productivity, and improve the health and wellbeing of citizens. Africa requires between $60 and $90 billion annually to address its energy shortfall, roughly quadruple 2014 investment levels.
While fossil fuels, notably coal, oil and gas, continue to provide a significant quantity of energy - especially in South Africa - renewables need to play a greater role. Africa has plentiful resources, from geothermal power in Kenya and Ethiopia to hydropower in Zambia and the Democratic Republic of Congo. Solar and wind are especially promising, thanks to falling costs and resource abundance. From solar-powered hospitals in Lagos to wind farms in Lake Turkana, renewable energy is not just a pipe dream - it is a reality. Renewables can increase energy security, reduce energy import bills, and diversify and de-risk the energy mix. Through off-grid technologies, they can provide direct, affordable power to rural regions beyond the reach of the grid system.
But to harness renewables at scale, very significant infrastructure is needed: both core assets like wind and solar farms1 and transmission grids, as well as connective infrastructures, like roads to and from sites for transporting kit and manpower, or for bringing products, like solar-powered mobile phones, to market. This requires effective regulation, sufficient financing, appropriate technologies and smart business models. The ambitions are there.
The African Renewable Energy Initiative, led by institutions including the African Union and the United Nations Environment Programme, has set a goal of 300 GW of renewable energy capacity by 2030. But this requires a 680% increase in current deployment rates. According to IRENA’s latest data, the installed renewable power generation capacity in Sub-Saharan Africa currently stands slightly below 30 GW, roughly 25-30% of the installed power base, but this is dominated by large hydro, with other renewables collectively accounting for just 4-5% of power generation. Can the investment be achieved? Who are the current players and how is the market evolving?
This report, combining country fieldwork and 28 expert interviews, looks at the current renewable power capacity on the continent, identifies the market leaders and looks at the key enablers and constraints.
Industry accounts for around one-third of the world’s final energy demand; around 60 percent of this industrial demand is from developing countries. Industry’s total energy use continues to grow as a result of expanding production volumes, a trend that is likely to continue in the coming decades as living standards rise in developing regions. Meanwhile, energy use by industry is in many parts of the world less than fully efficient, and in some parts of industry leaves much room for improvement.
white paper
Research Methodology In January-February 2011, the Economist Intelligence Unit surveyed 348 senior executives, mostly
Energy independence has been a stated, albeit ill-defined, goal of the United States since the Nixon administration. Recent developments in both the unconventional oil and gas and renewable energy industries have brought this goal closer than it has been in decades.
At 24% in 2015 [1], petroleum imports as a share of total national consumption are at their lowest since 1970 and Henry hub (the US benchmark for natural gas) prices are hovering around $2.8/Mbtu, down from $12 in June 2008. Meanwhile, the costs of utility-scale solar photovoltaic and onshore wind energy have dropped more than 60% and 40% respectively since 2008, and in recent years these sources have accounted for the majority of newly installed generation capacity in the United States.
That this has happened so fast is remarkable. In less than fifteen years, unconventional oil and gas production, mainly using hydraulic fracturing (“fracking”), rose from negligible to supplying around half of domestic production [2] [3].
This growth is a testament to the US economy’s ability to combine technological progress, flexible regulation and financial innovation to develop new opportunities. When, in 2014, OPEC decided to maintain production levels despite an oil-price crash, shale production was projected to stop abruptly. According to data from the Energy Information Agency (EIA), however, oil production continued to grow in the US for another six months, reaching record highs before it peaked. Various factors drove this counterintuitive dynamic.
First, rig efficiency has increased in many of the unconventional oil plays, as a result, in part, of producers focusing on their most productive plays. New-well oil production per rig in the Bakken region, for instance, has doubled since 2014 [4]. Along with a decline in the oil and gas rig count and a large drop in employment in the oil and gas sector, these efficiency gains have cut both labour and equipment costs, lowering the breakeven point. “People are trying to cut costs as much as they can, wherever they can. Even the accounting firms have been asked to halve their fees,” says Peter R. Hartley, an energy economics scholar at Rice University.
Another important lever has been to finance operations through debt. This, however, has reached daunting proportions. Onshore oil producers tracked by EIA, collectively accounting for 2.7m barrels per day of US production, spent 83% of their cash-flow revenues on debt repayments as of June 2015, the highest levels since 2011. Many companies have also engaged in asset write-downs. The 46 international and US upstream oil companies regularly tracked by the EIA, for instance, wrote down $38bn in Q3 2015 alone — the largest write-down since 2008. While no one wants to sell at low valuations, consolidation becomes more likely the longer the oil price remains low.
On the whole, however, the geostrategic energy situation for the United States remains quite positive. As Mr Hartley highlights, “The fact the oil price is down is less a result of investments in America than it is a decision of OPEC to keep the tap open.” However, he notes, “the much greater flexibility of unconventional production — and the large amount of resources available — means the US supply response is now much more elastic. And that reduces OPEC’s monopoly power over oil prices."
These advantages in terms of energy security are even more pronounced for natural gas, a commodity for which a single global price does not exist. Since 2006, lasting spreads have favoured the US Henry hub benchmarks versus the price of natural gas in Europe or Japan. Sustained low prices have created competitive gains for industries relying on natural gas as feedstock, with the petrochemicals industry an obvious long-term winner, although a low oil price also limits the gains from the ethane-naphtha spread. The metals industry should also benefit. Steelmaking in the US, for instance, has seen resurgence in the use of direct reduced iron (DRI), with US DRI output potentially reaching up to 10m tonnes by 2020 from just 1.3m in 2013. Cheap natural gas is also saving consumers money on their heating and electricity bills. According to an evaluation by Harvard Business School, these savings totalled $800 per average US household in 2014. While some of that will be saved, the rest will result in increased consumer spending, thus benefitting the economy.
Energy abundance is an opportunity, not an excuse
One of the most crucial questions facing the US in the future is how newly abundant fossil fuel resources will affect the trajectory of the country’s carbon emissions. Left unchecked, climate change could leave critical parts of the US housing stock and infrastructure exposed to climate-induced sea level rise as well as more frequent and stronger extreme weather events such as hurricanes or droughts. Such events already cost the US tens of billions of dollars a year in damaged property, other economic harms and health consequences. Climate change could also impact the power generation infrastructure due to higher temperatures and reduced water availability, according to the Department of Energy (DOE). “In the absence of concerted action to improve resilience, energy system vulnerabilities pose a threat to America’s national security, energy security, economic wellbeing, and quality of life,” warns a DOE report published in 2015 evaluating the vulnerability of the US energy sector to climate change. It is in the US’s long-term interest to address the climate problem today.
Under the United Nations climate accord agreed to in December 2015, the US has also pledged to take action on climate change. The agreement, signed in Paris by more than 190 countries, recognises the need to achieve “global peaking of greenhouse gas emissions as soon as possible” to keep temperature increases below 2°C by the end of the century. By ratifying the agreement and issuing the Clean Power Plan (CPP), the US’ first policy to explicitly target carbon emissions from the power sector at the national level, the country has taken a step in the right direction. But the US can and should do more.
The need for a clear, coherent and long-term signal
A successful transition requires policy and price signals that are clear, long-term, and strong enough to shift investments towards low-carbon infrastructure. These signals are critical to achieving a low-carbon future for two primary reasons. First, free-market competition requires a level playing field, including a firm price on carbon emissions to account for their negative externalities. Second, for markets to adjust in a non-disruptive manner the price should be gradually more stringent, thus enabling the private sector to shift gradually towards a low-carbon economy.
Until recently, the pattern of US governance in the energy sector had been driven mostly by short-term opportunism rather than a pro-active redesign of the US’s infrastructure base. The production tax credit (PTC) for onshore wind, which provides tax credits per unit of electricity generated for a period of 10 years, had been notoriously hard to predict, for instance, leading to surges in instalments in the quarter preceding possible renewal as companies pushed projects forward in a race to completion prior to the PTC’s expiry. Last-minute policy uncertainty, of course, is not the best way to promote long-term investment in enduring, capital-intensive infrastructure.
The US seems to have learned this lesson. In December 2015, the PTC and the Investment Tax Credit – PTC’s solar equivalent – were both extended for a duration of five years. The impact of this longer-term signal is substantial: the extension is expected to bring an additional 19GW of wind and 18GW of solar online over the next five years respectively, according to analysis by Bloomberg New Energy Finance [5].
As for pricing carbon, the US has limited, regional markets, covering a mere 10% of the country’s total emissions. Although California’s cap-and-trade programme currently boasts the highest price in the US (~13$/tCO2e as of Sept 2016) and is close to the $20/tCO2e the International Energy Agency (IEA) estimates the US will have to apply to its power sector by 2020 to keep its emissions compatible with a 2°C scenario, the current carbon price is still far from the $100/tCO2e the IEA assumes will be needed in the US by 2030.
Despite this suboptimal policy context, the US has done relatively well in reducing emissions cost-effectively. As of 2015, it had the second-largest installed base of non-hydro renewables in the world and was the second largest country in terms of investments, albeit well below those of China, which has been ahead of the US on both accounts since 2011. As for coal, the US has gradually replaced it with renewables and natural gas, with the latter accounting for around 35% of total electricity production in the second quarter of 2016 — up from just 17% in 2001. However, coal’s current displacement is not a result of carbon policies but rather a consequence of low-cost natural gas and regulations aimed at local — not global — pollution.
“Given the current set of regulations in the US to mitigate carbon emissions, it is difficult to say with confidence how effective the combination of these policies is going to be,” says Justin Gundlach, climate-change fellow at the Sabin Center for Climate Change Law at Columbia Law School. The problem of policy coherence is hardly exclusive to America, but it does hinder the US’s ability to realign its energy system to meet the country’s long-term economic and environmental needs.
One positive development in that regard is the CPP. A key feature of the CPP, according to Mr Gundlach, is that it forces states to tackle the issue of policy coherence in a transparent and coordinated way, which facilitates implementation and reduces compliance costs. Another advantage of the CPP is that it opens up the possibility for carbon emissions trading between participating states. Under the proposed plan, currently under review by the U.S. Court of Appeals for the D.C. Circuit, states are allowed to choose between a rate-based goal, set in tCO2e/MWh — effectively a performance standard for carbon intensity— or a mass-based goal, with a cap on total tons of CO2 equivalent. Under the latter option, states would then “readily qualify to trade with affected electricity generating units in states that adopt the same approach”.
Leading by example
Beyond increasing policy coherence, both state and federal governments can open up new markets through public procurement strategies. A clear example of that is the role the public sector has played in expanding the market for energy service companies in the buildings sector — over a fifth of the total floorspace in the US is owned by federal, state, or local governments. Government mandates and purchasing decisions have helped improve energy efficiency through procurement and fostered a broader private-sector market.
Not every state is active in promoting sustainability, however. California has led in energy efficiency initiatives for decades while states like New York or Connecticut have established green investment banks dedicated to promoting clean-energy investments in the state. By contrast, other states such as North Dakota or Wyoming still lack even a mandatory building energy code at the state level. [6]
Another important role for government will be fostering innovation. The government can help expand R&D efforts to help lower the cost of technologies currently in labs. The country’s announced goal to double clean-energy R&D spending, along with 19 other nations leading in clean energy R&D, is an important step in that direction. Should the US reach that objective, clean-energy R&D levels in the US would roughly double from ~$5bn today to some $10bn by 2020.
Complementing this R&D push will be ‘demand pull’ efforts such as policies that create new markets for technologies that are nearing commercialization. California’s 2013 mandate to install 1.3GW of storage by 2020, for instance, has helped utilities diversify their energy-storage technology portfolios while fostering an environment for technologies to compete, from utility-scale solutions to decentralized ones. The reason, says Nancy Pfund, managing partner at DBL Investors, is that “these policies de-risk it for investors, it’s not a pilot to nowhere”. One of the technologies enabled by the mandate, and in which DBL has invested, is Advanced Microgrid Solutions, a startup that managed to secure a 50MW storage contract in 2014 with one of California’s utilities. “That’s unheard of for a start-up company,” notes Pfund.
A critical time for climate action
By explicitly stating the goal of keeping temperature increases “well below 2°C”, the Paris agreement is a clear signal of the international community’s resolve to combat climate change. Current pledges are far from meeting that goal, however, and the agreement emphasises the urgent need to address the significant gap between the countries’ mitigation pledges and the aggregate emission pathways actually necessary to hold the increase in global average temperature well below 2°C. With that in mind, a key element of the Paris agreement is the commitment to review climate pledges every 5 years to increase ambitions based on policy progress and technological developments.
On 5 October 2016, the threshold for operationalization of the Paris Agreement (55 countries representing at least 55% of global emissions) was achieved, meaning the agreement will enter into force on 4 November 2016.
The next five years will thus be crucial for climate action. Acting now will not be free: under existing US policies, including the CPP, some $2.19trn worth of investments will be required over the next 25 years in the US power sector alone, with some 39% going to transmission and distribution (T&D) infrastructure, followed by renewables (37%), fossil-fuel power generation (13%) and nuclear (11%). Acting later will cost even more, as abatement costs and the value of US assets exposed to climate-change risks will rise over time. In such a context, it is of grave concern that new US president Donald Trump rejects the overwhelming scientific evidence of climate change [7] [8].
Low energy prices represent a unique opportunity to reduce carbon emissions. As Mark Brownstein, vice president of the climate and energy program at the Environmental Defense Fund, notes, “The decline in natural gas price is creating economic headroom to ramp up investment in electric transmission and distribution infrastructure with minimal impact on the customer’s total monthly energy bill”. This is because, from an end-user point of view, the increased costs associated with the investment in T&D are offset by the lower costs of electricity generation thanks to cheap natural gas.
How to spend that low gas price dividend matters, says Brownstein. Avoiding lock-in to a carbon-intensive infrastructure will be critical, he notes. In fact, as Mr Gundlach warns, "Integrating means changing the electric system. Natural gas provides an easy way around that in the short-term. It does not, however, constitute a long-term solution to the decarbonisation of the electricity sector.”
Similar considerations apply to the natural-gas distribution side. States will thus have to carefully evaluate the costs and benefits of building new pipelines to feed rising demand from the power sector against those of investing in clean-power generation and demand-side responses to reduce the demand for natural gas in the first place — and thus avoid the need for pipeline investments.
America’s opportunity to shine
The next administration faces a unique responsibility to position the United States on a path towards a low-carbon future. Success will require leveraging the benefits of the switch away from coal while avoiding a permanent lock-in to fossil-fuel-dependent infrastructure. This will be a difficult yet crucial balance to strike. The good news is that, thanks to cheap energy, the US is in a uniquely favourable position to act. Achieving a clean energy transition will not only be good for the US economy, it will also help consolidate US leadership on the international fight against climate change. The Paris agreement on climate change is a clear signal that the world is ready to act on the issue. It’s time for America to rise to the challenge.
_____________________________________________________________
FOOTNOTES:
1 http://www.eia.gov/tools/faqs/faq.cfm?id=32&t=6
2 https://www.eia.gov/tools/faqs/faq.cfm?id=847&t=6
3 https://www.eia.gov/tools/faqs/faq.cfm?id=847&t=6
4 https://www.eia.gov/petroleum/drilling/pdf/dpr-full.pdf #page=3
5 http://www.bbhub.io/bnef/sites/4/2016/04/BNEF-Summit-Keynote-2016.pdf
6 http://database.aceee.org/state/public-building-requirements
[7] http://www.scientificamerican.com/article/trump-picks-top-climate-skepti...
[8] http://fortune.com/2016/10/01/trump-paris-climate-agreement/
The study focuses on the following areas:
The main types of strategies for encouraging energy savings How information campaigns and incentives can be tailored to specific audiences The role played by product labelling and standard-setting for energy efficiency An assessment of what strategies work best in encouraging efficiencyKey findings:
Conservation initiatives can be grouped into three broad categories: raising awareness, tightening technical standards for buildings and energy-using products, and offering incentives to cut energy use. Ownership of buildings determines the strategy for saving energy. For owner-occupied buildings, investments in efficiency pay back over time in lower energy bills. In rented housing and workplaces, a gains-sharing approach, in which owners as well as tenants benefit from efficiency investments, work best. Raising awareness I: Tailoring the message to the audience is important. Some respond best to appeals based on environmental protection, while others care most about financial incentives and returns. Raising awareness II: Choosing a trusted messenger is also key to successful awareness campaigns. For example in the US, regulated utilities tend to be trusted sources, whereas in the UK, privatised energy companies encountered resistance to their conservation messages. Setting standards and applying labels: Product-labelling schemes that rate the efficiency of buildings or homes have proven effective tools for cutting energy use. An example is the US ‘Energy Star’ programme. Incentives count: Various government incentive programmes, as well as private-sector gains-sharing schemes, have proven effective in promoting energy efficiency. Avoiding the ‘rebound effect’: While investment in efficiency lowers energy bills, governments should guard against the “rebound effect”, in which consumers—encouraged by the greater efficiency—buy more appliances and devices and thereby end up using more energy, not less. Following high-level declarations at the Sustainable Development Goals and the Paris Climate Conference in late 2015, there is a growing appetite for renewable energy in Africa. This is much-needed; the continent’s energy supplies are not meeting the needs and aspirations of its people. A better system will promote economic diversification, raise productivity, and improve the health and wellbeing of citizens. Africa requires between $60 and $90 billion annually to address its energy shortfall, roughly quadruple 2014 investment levels.
While fossil fuels, notably coal, oil and gas, continue to provide a significant quantity of energy - especially in South Africa - renewables need to play a greater role. Africa has plentiful resources, from geothermal power in Kenya and Ethiopia to hydropower in Zambia and the Democratic Republic of Congo. Solar and wind are especially promising, thanks to falling costs and resource abundance. From solar-powered hospitals in Lagos to wind farms in Lake Turkana, renewable energy is not just a pipe dream - it is a reality. Renewables can increase energy security, reduce energy import bills, and diversify and de-risk the energy mix. Through off-grid technologies, they can provide direct, affordable power to rural regions beyond the reach of the grid system.
But to harness renewables at scale, very significant infrastructure is needed: both core assets like wind and solar farms1 and transmission grids, as well as connective infrastructures, like roads to and from sites for transporting kit and manpower, or for bringing products, like solar-powered mobile phones, to market. This requires effective regulation, sufficient financing, appropriate technologies and smart business models. The ambitions are there.
The African Renewable Energy Initiative, led by institutions including the African Union and the United Nations Environment Programme, has set a goal of 300 GW of renewable energy capacity by 2030. But this requires a 680% increase in current deployment rates. According to IRENA’s latest data, the installed renewable power generation capacity in Sub-Saharan Africa currently stands slightly below 30 GW, roughly 25-30% of the installed power base, but this is dominated by large hydro, with other renewables collectively accounting for just 4-5% of power generation. Can the investment be achieved? Who are the current players and how is the market evolving?
This report, combining country fieldwork and 28 expert interviews, looks at the current renewable power capacity on the continent, identifies the market leaders and looks at the key enablers and constraints.
white paper
Research Methodology The Economist Intelligence Unit conducted a survey of 705 companies globally, representing a
case study
HSBC, a global financial services firm headquartered in the UK, has developed a range of responses relating to climate
Energy independence has been a stated, albeit ill-defined, goal of the United States since the Nixon administration. Recent developments in both the unconventional oil and gas and renewable energy industries have brought this goal closer than it has been in decades.
At 24% in 2015 [1], petroleum imports as a share of total national consumption are at their lowest since 1970 and Henry hub (the US benchmark for natural gas) prices are hovering around $2.8/Mbtu, down from $12 in June 2008. Meanwhile, the costs of utility-scale solar photovoltaic and onshore wind energy have dropped more than 60% and 40% respectively since 2008, and in recent years these sources have accounted for the majority of newly installed generation capacity in the United States.
That this has happened so fast is remarkable. In less than fifteen years, unconventional oil and gas production, mainly using hydraulic fracturing (“fracking”), rose from negligible to supplying around half of domestic production [2] [3].
This growth is a testament to the US economy’s ability to combine technological progress, flexible regulation and financial innovation to develop new opportunities. When, in 2014, OPEC decided to maintain production levels despite an oil-price crash, shale production was projected to stop abruptly. According to data from the Energy Information Agency (EIA), however, oil production continued to grow in the US for another six months, reaching record highs before it peaked. Various factors drove this counterintuitive dynamic.
First, rig efficiency has increased in many of the unconventional oil plays, as a result, in part, of producers focusing on their most productive plays. New-well oil production per rig in the Bakken region, for instance, has doubled since 2014 [4]. Along with a decline in the oil and gas rig count and a large drop in employment in the oil and gas sector, these efficiency gains have cut both labour and equipment costs, lowering the breakeven point. “People are trying to cut costs as much as they can, wherever they can. Even the accounting firms have been asked to halve their fees,” says Peter R. Hartley, an energy economics scholar at Rice University.
Another important lever has been to finance operations through debt. This, however, has reached daunting proportions. Onshore oil producers tracked by EIA, collectively accounting for 2.7m barrels per day of US production, spent 83% of their cash-flow revenues on debt repayments as of June 2015, the highest levels since 2011. Many companies have also engaged in asset write-downs. The 46 international and US upstream oil companies regularly tracked by the EIA, for instance, wrote down $38bn in Q3 2015 alone — the largest write-down since 2008. While no one wants to sell at low valuations, consolidation becomes more likely the longer the oil price remains low.
On the whole, however, the geostrategic energy situation for the United States remains quite positive. As Mr Hartley highlights, “The fact the oil price is down is less a result of investments in America than it is a decision of OPEC to keep the tap open.” However, he notes, “the much greater flexibility of unconventional production — and the large amount of resources available — means the US supply response is now much more elastic. And that reduces OPEC’s monopoly power over oil prices."
These advantages in terms of energy security are even more pronounced for natural gas, a commodity for which a single global price does not exist. Since 2006, lasting spreads have favoured the US Henry hub benchmarks versus the price of natural gas in Europe or Japan. Sustained low prices have created competitive gains for industries relying on natural gas as feedstock, with the petrochemicals industry an obvious long-term winner, although a low oil price also limits the gains from the ethane-naphtha spread. The metals industry should also benefit. Steelmaking in the US, for instance, has seen resurgence in the use of direct reduced iron (DRI), with US DRI output potentially reaching up to 10m tonnes by 2020 from just 1.3m in 2013. Cheap natural gas is also saving consumers money on their heating and electricity bills. According to an evaluation by Harvard Business School, these savings totalled $800 per average US household in 2014. While some of that will be saved, the rest will result in increased consumer spending, thus benefitting the economy.
Energy abundance is an opportunity, not an excuse
One of the most crucial questions facing the US in the future is how newly abundant fossil fuel resources will affect the trajectory of the country’s carbon emissions. Left unchecked, climate change could leave critical parts of the US housing stock and infrastructure exposed to climate-induced sea level rise as well as more frequent and stronger extreme weather events such as hurricanes or droughts. Such events already cost the US tens of billions of dollars a year in damaged property, other economic harms and health consequences. Climate change could also impact the power generation infrastructure due to higher temperatures and reduced water availability, according to the Department of Energy (DOE). “In the absence of concerted action to improve resilience, energy system vulnerabilities pose a threat to America’s national security, energy security, economic wellbeing, and quality of life,” warns a DOE report published in 2015 evaluating the vulnerability of the US energy sector to climate change. It is in the US’s long-term interest to address the climate problem today.
Under the United Nations climate accord agreed to in December 2015, the US has also pledged to take action on climate change. The agreement, signed in Paris by more than 190 countries, recognises the need to achieve “global peaking of greenhouse gas emissions as soon as possible” to keep temperature increases below 2°C by the end of the century. By ratifying the agreement and issuing the Clean Power Plan (CPP), the US’ first policy to explicitly target carbon emissions from the power sector at the national level, the country has taken a step in the right direction. But the US can and should do more.
The need for a clear, coherent and long-term signal
A successful transition requires policy and price signals that are clear, long-term, and strong enough to shift investments towards low-carbon infrastructure. These signals are critical to achieving a low-carbon future for two primary reasons. First, free-market competition requires a level playing field, including a firm price on carbon emissions to account for their negative externalities. Second, for markets to adjust in a non-disruptive manner the price should be gradually more stringent, thus enabling the private sector to shift gradually towards a low-carbon economy.
Until recently, the pattern of US governance in the energy sector had been driven mostly by short-term opportunism rather than a pro-active redesign of the US’s infrastructure base. The production tax credit (PTC) for onshore wind, which provides tax credits per unit of electricity generated for a period of 10 years, had been notoriously hard to predict, for instance, leading to surges in instalments in the quarter preceding possible renewal as companies pushed projects forward in a race to completion prior to the PTC’s expiry. Last-minute policy uncertainty, of course, is not the best way to promote long-term investment in enduring, capital-intensive infrastructure.
The US seems to have learned this lesson. In December 2015, the PTC and the Investment Tax Credit – PTC’s solar equivalent – were both extended for a duration of five years. The impact of this longer-term signal is substantial: the extension is expected to bring an additional 19GW of wind and 18GW of solar online over the next five years respectively, according to analysis by Bloomberg New Energy Finance [5].
As for pricing carbon, the US has limited, regional markets, covering a mere 10% of the country’s total emissions. Although California’s cap-and-trade programme currently boasts the highest price in the US (~13$/tCO2e as of Sept 2016) and is close to the $20/tCO2e the International Energy Agency (IEA) estimates the US will have to apply to its power sector by 2020 to keep its emissions compatible with a 2°C scenario, the current carbon price is still far from the $100/tCO2e the IEA assumes will be needed in the US by 2030.
Despite this suboptimal policy context, the US has done relatively well in reducing emissions cost-effectively. As of 2015, it had the second-largest installed base of non-hydro renewables in the world and was the second largest country in terms of investments, albeit well below those of China, which has been ahead of the US on both accounts since 2011. As for coal, the US has gradually replaced it with renewables and natural gas, with the latter accounting for around 35% of total electricity production in the second quarter of 2016 — up from just 17% in 2001. However, coal’s current displacement is not a result of carbon policies but rather a consequence of low-cost natural gas and regulations aimed at local — not global — pollution.
“Given the current set of regulations in the US to mitigate carbon emissions, it is difficult to say with confidence how effective the combination of these policies is going to be,” says Justin Gundlach, climate-change fellow at the Sabin Center for Climate Change Law at Columbia Law School. The problem of policy coherence is hardly exclusive to America, but it does hinder the US’s ability to realign its energy system to meet the country’s long-term economic and environmental needs.
One positive development in that regard is the CPP. A key feature of the CPP, according to Mr Gundlach, is that it forces states to tackle the issue of policy coherence in a transparent and coordinated way, which facilitates implementation and reduces compliance costs. Another advantage of the CPP is that it opens up the possibility for carbon emissions trading between participating states. Under the proposed plan, currently under review by the U.S. Court of Appeals for the D.C. Circuit, states are allowed to choose between a rate-based goal, set in tCO2e/MWh — effectively a performance standard for carbon intensity— or a mass-based goal, with a cap on total tons of CO2 equivalent. Under the latter option, states would then “readily qualify to trade with affected electricity generating units in states that adopt the same approach”.
Leading by example
Beyond increasing policy coherence, both state and federal governments can open up new markets through public procurement strategies. A clear example of that is the role the public sector has played in expanding the market for energy service companies in the buildings sector — over a fifth of the total floorspace in the US is owned by federal, state, or local governments. Government mandates and purchasing decisions have helped improve energy efficiency through procurement and fostered a broader private-sector market.
Not every state is active in promoting sustainability, however. California has led in energy efficiency initiatives for decades while states like New York or Connecticut have established green investment banks dedicated to promoting clean-energy investments in the state. By contrast, other states such as North Dakota or Wyoming still lack even a mandatory building energy code at the state level. [6]
Another important role for government will be fostering innovation. The government can help expand R&D efforts to help lower the cost of technologies currently in labs. The country’s announced goal to double clean-energy R&D spending, along with 19 other nations leading in clean energy R&D, is an important step in that direction. Should the US reach that objective, clean-energy R&D levels in the US would roughly double from ~$5bn today to some $10bn by 2020.
Complementing this R&D push will be ‘demand pull’ efforts such as policies that create new markets for technologies that are nearing commercialization. California’s 2013 mandate to install 1.3GW of storage by 2020, for instance, has helped utilities diversify their energy-storage technology portfolios while fostering an environment for technologies to compete, from utility-scale solutions to decentralized ones. The reason, says Nancy Pfund, managing partner at DBL Investors, is that “these policies de-risk it for investors, it’s not a pilot to nowhere”. One of the technologies enabled by the mandate, and in which DBL has invested, is Advanced Microgrid Solutions, a startup that managed to secure a 50MW storage contract in 2014 with one of California’s utilities. “That’s unheard of for a start-up company,” notes Pfund.
A critical time for climate action
By explicitly stating the goal of keeping temperature increases “well below 2°C”, the Paris agreement is a clear signal of the international community’s resolve to combat climate change. Current pledges are far from meeting that goal, however, and the agreement emphasises the urgent need to address the significant gap between the countries’ mitigation pledges and the aggregate emission pathways actually necessary to hold the increase in global average temperature well below 2°C. With that in mind, a key element of the Paris agreement is the commitment to review climate pledges every 5 years to increase ambitions based on policy progress and technological developments.
On 5 October 2016, the threshold for operationalization of the Paris Agreement (55 countries representing at least 55% of global emissions) was achieved, meaning the agreement will enter into force on 4 November 2016.
The next five years will thus be crucial for climate action. Acting now will not be free: under existing US policies, including the CPP, some $2.19trn worth of investments will be required over the next 25 years in the US power sector alone, with some 39% going to transmission and distribution (T&D) infrastructure, followed by renewables (37%), fossil-fuel power generation (13%) and nuclear (11%). Acting later will cost even more, as abatement costs and the value of US assets exposed to climate-change risks will rise over time. In such a context, it is of grave concern that new US president Donald Trump rejects the overwhelming scientific evidence of climate change [7] [8].
Low energy prices represent a unique opportunity to reduce carbon emissions. As Mark Brownstein, vice president of the climate and energy program at the Environmental Defense Fund, notes, “The decline in natural gas price is creating economic headroom to ramp up investment in electric transmission and distribution infrastructure with minimal impact on the customer’s total monthly energy bill”. This is because, from an end-user point of view, the increased costs associated with the investment in T&D are offset by the lower costs of electricity generation thanks to cheap natural gas.
How to spend that low gas price dividend matters, says Brownstein. Avoiding lock-in to a carbon-intensive infrastructure will be critical, he notes. In fact, as Mr Gundlach warns, "Integrating means changing the electric system. Natural gas provides an easy way around that in the short-term. It does not, however, constitute a long-term solution to the decarbonisation of the electricity sector.”
Similar considerations apply to the natural-gas distribution side. States will thus have to carefully evaluate the costs and benefits of building new pipelines to feed rising demand from the power sector against those of investing in clean-power generation and demand-side responses to reduce the demand for natural gas in the first place — and thus avoid the need for pipeline investments.
America’s opportunity to shine
The next administration faces a unique responsibility to position the United States on a path towards a low-carbon future. Success will require leveraging the benefits of the switch away from coal while avoiding a permanent lock-in to fossil-fuel-dependent infrastructure. This will be a difficult yet crucial balance to strike. The good news is that, thanks to cheap energy, the US is in a uniquely favourable position to act. Achieving a clean energy transition will not only be good for the US economy, it will also help consolidate US leadership on the international fight against climate change. The Paris agreement on climate change is a clear signal that the world is ready to act on the issue. It’s time for America to rise to the challenge.
_____________________________________________________________
FOOTNOTES:
1 http://www.eia.gov/tools/faqs/faq.cfm?id=32&t=6
2 https://www.eia.gov/tools/faqs/faq.cfm?id=847&t=6
3 https://www.eia.gov/tools/faqs/faq.cfm?id=847&t=6
4 https://www.eia.gov/petroleum/drilling/pdf/dpr-full.pdf #page=3
5 http://www.bbhub.io/bnef/sites/4/2016/04/BNEF-Summit-Keynote-2016.pdf
6 http://database.aceee.org/state/public-building-requirements
[7] http://www.scientificamerican.com/article/trump-picks-top-climate-skepti...
[8] http://fortune.com/2016/10/01/trump-paris-climate-agreement/
The study focuses on the following areas:
The main types of strategies for encouraging energy savings How information campaigns and incentives can be tailored to specific audiences The role played by product labelling and standard-setting for energy efficiency An assessment of what strategies work best in encouraging efficiencyKey findings:
Conservation initiatives can be grouped into three broad categories: raising awareness, tightening technical standards for buildings and energy-using products, and offering incentives to cut energy use. Ownership of buildings determines the strategy for saving energy. For owner-occupied buildings, investments in efficiency pay back over time in lower energy bills. In rented housing and workplaces, a gains-sharing approach, in which owners as well as tenants benefit from efficiency investments, work best. Raising awareness I: Tailoring the message to the audience is important. Some respond best to appeals based on environmental protection, while others care most about financial incentives and returns. Raising awareness II: Choosing a trusted messenger is also key to successful awareness campaigns. For example in the US, regulated utilities tend to be trusted sources, whereas in the UK, privatised energy companies encountered resistance to their conservation messages. Setting standards and applying labels: Product-labelling schemes that rate the efficiency of buildings or homes have proven effective tools for cutting energy use. An example is the US ‘Energy Star’ programme. Incentives count: Various government incentive programmes, as well as private-sector gains-sharing schemes, have proven effective in promoting energy efficiency. Avoiding the ‘rebound effect’: While investment in efficiency lowers energy bills, governments should guard against the “rebound effect”, in which consumers—encouraged by the greater efficiency—buy more appliances and devices and thereby end up using more energy, not less. Following high-level declarations at the Sustainable Development Goals and the Paris Climate Conference in late 2015, there is a growing appetite for renewable energy in Africa. This is much-needed; the continent’s energy supplies are not meeting the needs and aspirations of its people. A better system will promote economic diversification, raise productivity, and improve the health and wellbeing of citizens. Africa requires between $60 and $90 billion annually to address its energy shortfall, roughly quadruple 2014 investment levels.
While fossil fuels, notably coal, oil and gas, continue to provide a significant quantity of energy - especially in South Africa - renewables need to play a greater role. Africa has plentiful resources, from geothermal power in Kenya and Ethiopia to hydropower in Zambia and the Democratic Republic of Congo. Solar and wind are especially promising, thanks to falling costs and resource abundance. From solar-powered hospitals in Lagos to wind farms in Lake Turkana, renewable energy is not just a pipe dream - it is a reality. Renewables can increase energy security, reduce energy import bills, and diversify and de-risk the energy mix. Through off-grid technologies, they can provide direct, affordable power to rural regions beyond the reach of the grid system.
But to harness renewables at scale, very significant infrastructure is needed: both core assets like wind and solar farms1 and transmission grids, as well as connective infrastructures, like roads to and from sites for transporting kit and manpower, or for bringing products, like solar-powered mobile phones, to market. This requires effective regulation, sufficient financing, appropriate technologies and smart business models. The ambitions are there.
The African Renewable Energy Initiative, led by institutions including the African Union and the United Nations Environment Programme, has set a goal of 300 GW of renewable energy capacity by 2030. But this requires a 680% increase in current deployment rates. According to IRENA’s latest data, the installed renewable power generation capacity in Sub-Saharan Africa currently stands slightly below 30 GW, roughly 25-30% of the installed power base, but this is dominated by large hydro, with other renewables collectively accounting for just 4-5% of power generation. Can the investment be achieved? Who are the current players and how is the market evolving?
This report, combining country fieldwork and 28 expert interviews, looks at the current renewable power capacity on the continent, identifies the market leaders and looks at the key enablers and constraints.
Executive summary
white paper
case study
When evaluating the rationale for identifying energy savings in industrial operations, Gretchen Hancock, General
case study
One way some industries can reduce energy consumption is to use materials that require less energy to manufacture. For
case study
Buildings account for around 40% of the world’s energy use. So for a real estate management company with a large,
Energy independence has been a stated, albeit ill-defined, goal of the United States since the Nixon administration. Recent developments in both the unconventional oil and gas and renewable energy industries have brought this goal closer than it has been in decades.
At 24% in 2015 [1], petroleum imports as a share of total national consumption are at their lowest since 1970 and Henry hub (the US benchmark for natural gas) prices are hovering around $2.8/Mbtu, down from $12 in June 2008. Meanwhile, the costs of utility-scale solar photovoltaic and onshore wind energy have dropped more than 60% and 40% respectively since 2008, and in recent years these sources have accounted for the majority of newly installed generation capacity in the United States.
That this has happened so fast is remarkable. In less than fifteen years, unconventional oil and gas production, mainly using hydraulic fracturing (“fracking”), rose from negligible to supplying around half of domestic production [2] [3].
This growth is a testament to the US economy’s ability to combine technological progress, flexible regulation and financial innovation to develop new opportunities. When, in 2014, OPEC decided to maintain production levels despite an oil-price crash, shale production was projected to stop abruptly. According to data from the Energy Information Agency (EIA), however, oil production continued to grow in the US for another six months, reaching record highs before it peaked. Various factors drove this counterintuitive dynamic.
First, rig efficiency has increased in many of the unconventional oil plays, as a result, in part, of producers focusing on their most productive plays. New-well oil production per rig in the Bakken region, for instance, has doubled since 2014 [4]. Along with a decline in the oil and gas rig count and a large drop in employment in the oil and gas sector, these efficiency gains have cut both labour and equipment costs, lowering the breakeven point. “People are trying to cut costs as much as they can, wherever they can. Even the accounting firms have been asked to halve their fees,” says Peter R. Hartley, an energy economics scholar at Rice University.
Another important lever has been to finance operations through debt. This, however, has reached daunting proportions. Onshore oil producers tracked by EIA, collectively accounting for 2.7m barrels per day of US production, spent 83% of their cash-flow revenues on debt repayments as of June 2015, the highest levels since 2011. Many companies have also engaged in asset write-downs. The 46 international and US upstream oil companies regularly tracked by the EIA, for instance, wrote down $38bn in Q3 2015 alone — the largest write-down since 2008. While no one wants to sell at low valuations, consolidation becomes more likely the longer the oil price remains low.
On the whole, however, the geostrategic energy situation for the United States remains quite positive. As Mr Hartley highlights, “The fact the oil price is down is less a result of investments in America than it is a decision of OPEC to keep the tap open.” However, he notes, “the much greater flexibility of unconventional production — and the large amount of resources available — means the US supply response is now much more elastic. And that reduces OPEC’s monopoly power over oil prices."
These advantages in terms of energy security are even more pronounced for natural gas, a commodity for which a single global price does not exist. Since 2006, lasting spreads have favoured the US Henry hub benchmarks versus the price of natural gas in Europe or Japan. Sustained low prices have created competitive gains for industries relying on natural gas as feedstock, with the petrochemicals industry an obvious long-term winner, although a low oil price also limits the gains from the ethane-naphtha spread. The metals industry should also benefit. Steelmaking in the US, for instance, has seen resurgence in the use of direct reduced iron (DRI), with US DRI output potentially reaching up to 10m tonnes by 2020 from just 1.3m in 2013. Cheap natural gas is also saving consumers money on their heating and electricity bills. According to an evaluation by Harvard Business School, these savings totalled $800 per average US household in 2014. While some of that will be saved, the rest will result in increased consumer spending, thus benefitting the economy.
Energy abundance is an opportunity, not an excuse
One of the most crucial questions facing the US in the future is how newly abundant fossil fuel resources will affect the trajectory of the country’s carbon emissions. Left unchecked, climate change could leave critical parts of the US housing stock and infrastructure exposed to climate-induced sea level rise as well as more frequent and stronger extreme weather events such as hurricanes or droughts. Such events already cost the US tens of billions of dollars a year in damaged property, other economic harms and health consequences. Climate change could also impact the power generation infrastructure due to higher temperatures and reduced water availability, according to the Department of Energy (DOE). “In the absence of concerted action to improve resilience, energy system vulnerabilities pose a threat to America’s national security, energy security, economic wellbeing, and quality of life,” warns a DOE report published in 2015 evaluating the vulnerability of the US energy sector to climate change. It is in the US’s long-term interest to address the climate problem today.
Under the United Nations climate accord agreed to in December 2015, the US has also pledged to take action on climate change. The agreement, signed in Paris by more than 190 countries, recognises the need to achieve “global peaking of greenhouse gas emissions as soon as possible” to keep temperature increases below 2°C by the end of the century. By ratifying the agreement and issuing the Clean Power Plan (CPP), the US’ first policy to explicitly target carbon emissions from the power sector at the national level, the country has taken a step in the right direction. But the US can and should do more.
The need for a clear, coherent and long-term signal
A successful transition requires policy and price signals that are clear, long-term, and strong enough to shift investments towards low-carbon infrastructure. These signals are critical to achieving a low-carbon future for two primary reasons. First, free-market competition requires a level playing field, including a firm price on carbon emissions to account for their negative externalities. Second, for markets to adjust in a non-disruptive manner the price should be gradually more stringent, thus enabling the private sector to shift gradually towards a low-carbon economy.
Until recently, the pattern of US governance in the energy sector had been driven mostly by short-term opportunism rather than a pro-active redesign of the US’s infrastructure base. The production tax credit (PTC) for onshore wind, which provides tax credits per unit of electricity generated for a period of 10 years, had been notoriously hard to predict, for instance, leading to surges in instalments in the quarter preceding possible renewal as companies pushed projects forward in a race to completion prior to the PTC’s expiry. Last-minute policy uncertainty, of course, is not the best way to promote long-term investment in enduring, capital-intensive infrastructure.
The US seems to have learned this lesson. In December 2015, the PTC and the Investment Tax Credit – PTC’s solar equivalent – were both extended for a duration of five years. The impact of this longer-term signal is substantial: the extension is expected to bring an additional 19GW of wind and 18GW of solar online over the next five years respectively, according to analysis by Bloomberg New Energy Finance [5].
As for pricing carbon, the US has limited, regional markets, covering a mere 10% of the country’s total emissions. Although California’s cap-and-trade programme currently boasts the highest price in the US (~13$/tCO2e as of Sept 2016) and is close to the $20/tCO2e the International Energy Agency (IEA) estimates the US will have to apply to its power sector by 2020 to keep its emissions compatible with a 2°C scenario, the current carbon price is still far from the $100/tCO2e the IEA assumes will be needed in the US by 2030.
Despite this suboptimal policy context, the US has done relatively well in reducing emissions cost-effectively. As of 2015, it had the second-largest installed base of non-hydro renewables in the world and was the second largest country in terms of investments, albeit well below those of China, which has been ahead of the US on both accounts since 2011. As for coal, the US has gradually replaced it with renewables and natural gas, with the latter accounting for around 35% of total electricity production in the second quarter of 2016 — up from just 17% in 2001. However, coal’s current displacement is not a result of carbon policies but rather a consequence of low-cost natural gas and regulations aimed at local — not global — pollution.
“Given the current set of regulations in the US to mitigate carbon emissions, it is difficult to say with confidence how effective the combination of these policies is going to be,” says Justin Gundlach, climate-change fellow at the Sabin Center for Climate Change Law at Columbia Law School. The problem of policy coherence is hardly exclusive to America, but it does hinder the US’s ability to realign its energy system to meet the country’s long-term economic and environmental needs.
One positive development in that regard is the CPP. A key feature of the CPP, according to Mr Gundlach, is that it forces states to tackle the issue of policy coherence in a transparent and coordinated way, which facilitates implementation and reduces compliance costs. Another advantage of the CPP is that it opens up the possibility for carbon emissions trading between participating states. Under the proposed plan, currently under review by the U.S. Court of Appeals for the D.C. Circuit, states are allowed to choose between a rate-based goal, set in tCO2e/MWh — effectively a performance standard for carbon intensity— or a mass-based goal, with a cap on total tons of CO2 equivalent. Under the latter option, states would then “readily qualify to trade with affected electricity generating units in states that adopt the same approach”.
Leading by example
Beyond increasing policy coherence, both state and federal governments can open up new markets through public procurement strategies. A clear example of that is the role the public sector has played in expanding the market for energy service companies in the buildings sector — over a fifth of the total floorspace in the US is owned by federal, state, or local governments. Government mandates and purchasing decisions have helped improve energy efficiency through procurement and fostered a broader private-sector market.
Not every state is active in promoting sustainability, however. California has led in energy efficiency initiatives for decades while states like New York or Connecticut have established green investment banks dedicated to promoting clean-energy investments in the state. By contrast, other states such as North Dakota or Wyoming still lack even a mandatory building energy code at the state level. [6]
Another important role for government will be fostering innovation. The government can help expand R&D efforts to help lower the cost of technologies currently in labs. The country’s announced goal to double clean-energy R&D spending, along with 19 other nations leading in clean energy R&D, is an important step in that direction. Should the US reach that objective, clean-energy R&D levels in the US would roughly double from ~$5bn today to some $10bn by 2020.
Complementing this R&D push will be ‘demand pull’ efforts such as policies that create new markets for technologies that are nearing commercialization. California’s 2013 mandate to install 1.3GW of storage by 2020, for instance, has helped utilities diversify their energy-storage technology portfolios while fostering an environment for technologies to compete, from utility-scale solutions to decentralized ones. The reason, says Nancy Pfund, managing partner at DBL Investors, is that “these policies de-risk it for investors, it’s not a pilot to nowhere”. One of the technologies enabled by the mandate, and in which DBL has invested, is Advanced Microgrid Solutions, a startup that managed to secure a 50MW storage contract in 2014 with one of California’s utilities. “That’s unheard of for a start-up company,” notes Pfund.
A critical time for climate action
By explicitly stating the goal of keeping temperature increases “well below 2°C”, the Paris agreement is a clear signal of the international community’s resolve to combat climate change. Current pledges are far from meeting that goal, however, and the agreement emphasises the urgent need to address the significant gap between the countries’ mitigation pledges and the aggregate emission pathways actually necessary to hold the increase in global average temperature well below 2°C. With that in mind, a key element of the Paris agreement is the commitment to review climate pledges every 5 years to increase ambitions based on policy progress and technological developments.
On 5 October 2016, the threshold for operationalization of the Paris Agreement (55 countries representing at least 55% of global emissions) was achieved, meaning the agreement will enter into force on 4 November 2016.
The next five years will thus be crucial for climate action. Acting now will not be free: under existing US policies, including the CPP, some $2.19trn worth of investments will be required over the next 25 years in the US power sector alone, with some 39% going to transmission and distribution (T&D) infrastructure, followed by renewables (37%), fossil-fuel power generation (13%) and nuclear (11%). Acting later will cost even more, as abatement costs and the value of US assets exposed to climate-change risks will rise over time. In such a context, it is of grave concern that new US president Donald Trump rejects the overwhelming scientific evidence of climate change [7] [8].
Low energy prices represent a unique opportunity to reduce carbon emissions. As Mark Brownstein, vice president of the climate and energy program at the Environmental Defense Fund, notes, “The decline in natural gas price is creating economic headroom to ramp up investment in electric transmission and distribution infrastructure with minimal impact on the customer’s total monthly energy bill”. This is because, from an end-user point of view, the increased costs associated with the investment in T&D are offset by the lower costs of electricity generation thanks to cheap natural gas.
How to spend that low gas price dividend matters, says Brownstein. Avoiding lock-in to a carbon-intensive infrastructure will be critical, he notes. In fact, as Mr Gundlach warns, "Integrating means changing the electric system. Natural gas provides an easy way around that in the short-term. It does not, however, constitute a long-term solution to the decarbonisation of the electricity sector.”
Similar considerations apply to the natural-gas distribution side. States will thus have to carefully evaluate the costs and benefits of building new pipelines to feed rising demand from the power sector against those of investing in clean-power generation and demand-side responses to reduce the demand for natural gas in the first place — and thus avoid the need for pipeline investments.
America’s opportunity to shine
The next administration faces a unique responsibility to position the United States on a path towards a low-carbon future. Success will require leveraging the benefits of the switch away from coal while avoiding a permanent lock-in to fossil-fuel-dependent infrastructure. This will be a difficult yet crucial balance to strike. The good news is that, thanks to cheap energy, the US is in a uniquely favourable position to act. Achieving a clean energy transition will not only be good for the US economy, it will also help consolidate US leadership on the international fight against climate change. The Paris agreement on climate change is a clear signal that the world is ready to act on the issue. It’s time for America to rise to the challenge.
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FOOTNOTES:
1 http://www.eia.gov/tools/faqs/faq.cfm?id=32&t=6
2 https://www.eia.gov/tools/faqs/faq.cfm?id=847&t=6
3 https://www.eia.gov/tools/faqs/faq.cfm?id=847&t=6
4 https://www.eia.gov/petroleum/drilling/pdf/dpr-full.pdf #page=3
5 http://www.bbhub.io/bnef/sites/4/2016/04/BNEF-Summit-Keynote-2016.pdf
6 http://database.aceee.org/state/public-building-requirements
[7] http://www.scientificamerican.com/article/trump-picks-top-climate-skepti...
[8] http://fortune.com/2016/10/01/trump-paris-climate-agreement/
The study focuses on the following areas:
The main types of strategies for encouraging energy savings How information campaigns and incentives can be tailored to specific audiences The role played by product labelling and standard-setting for energy efficiency An assessment of what strategies work best in encouraging efficiencyKey findings:
Conservation initiatives can be grouped into three broad categories: raising awareness, tightening technical standards for buildings and energy-using products, and offering incentives to cut energy use. Ownership of buildings determines the strategy for saving energy. For owner-occupied buildings, investments in efficiency pay back over time in lower energy bills. In rented housing and workplaces, a gains-sharing approach, in which owners as well as tenants benefit from efficiency investments, work best. Raising awareness I: Tailoring the message to the audience is important. Some respond best to appeals based on environmental protection, while others care most about financial incentives and returns. Raising awareness II: Choosing a trusted messenger is also key to successful awareness campaigns. For example in the US, regulated utilities tend to be trusted sources, whereas in the UK, privatised energy companies encountered resistance to their conservation messages. Setting standards and applying labels: Product-labelling schemes that rate the efficiency of buildings or homes have proven effective tools for cutting energy use. An example is the US ‘Energy Star’ programme. Incentives count: Various government incentive programmes, as well as private-sector gains-sharing schemes, have proven effective in promoting energy efficiency. Avoiding the ‘rebound effect’: While investment in efficiency lowers energy bills, governments should guard against the “rebound effect”, in which consumers—encouraged by the greater efficiency—buy more appliances and devices and thereby end up using more energy, not less. Following high-level declarations at the Sustainable Development Goals and the Paris Climate Conference in late 2015, there is a growing appetite for renewable energy in Africa. This is much-needed; the continent’s energy supplies are not meeting the needs and aspirations of its people. A better system will promote economic diversification, raise productivity, and improve the health and wellbeing of citizens. Africa requires between $60 and $90 billion annually to address its energy shortfall, roughly quadruple 2014 investment levels.
While fossil fuels, notably coal, oil and gas, continue to provide a significant quantity of energy - especially in South Africa - renewables need to play a greater role. Africa has plentiful resources, from geothermal power in Kenya and Ethiopia to hydropower in Zambia and the Democratic Republic of Congo. Solar and wind are especially promising, thanks to falling costs and resource abundance. From solar-powered hospitals in Lagos to wind farms in Lake Turkana, renewable energy is not just a pipe dream - it is a reality. Renewables can increase energy security, reduce energy import bills, and diversify and de-risk the energy mix. Through off-grid technologies, they can provide direct, affordable power to rural regions beyond the reach of the grid system.
But to harness renewables at scale, very significant infrastructure is needed: both core assets like wind and solar farms1 and transmission grids, as well as connective infrastructures, like roads to and from sites for transporting kit and manpower, or for bringing products, like solar-powered mobile phones, to market. This requires effective regulation, sufficient financing, appropriate technologies and smart business models. The ambitions are there.
The African Renewable Energy Initiative, led by institutions including the African Union and the United Nations Environment Programme, has set a goal of 300 GW of renewable energy capacity by 2030. But this requires a 680% increase in current deployment rates. According to IRENA’s latest data, the installed renewable power generation capacity in Sub-Saharan Africa currently stands slightly below 30 GW, roughly 25-30% of the installed power base, but this is dominated by large hydro, with other renewables collectively accounting for just 4-5% of power generation. Can the investment be achieved? Who are the current players and how is the market evolving?
This report, combining country fieldwork and 28 expert interviews, looks at the current renewable power capacity on the continent, identifies the market leaders and looks at the key enablers and constraints.
