‘The Sun Is Rising in Africa and the Middle East: On the Path to a Solar Energy’ Future’ Is now available

ON March 26, 2018 Pan Stanford Publishing released the 9th book in its renewable energy series: ‘The Sun Is Rising in Africa and the Middle East: On the Path to a Solar Energy Future’. It was authored by Peter Varadi, Frank Wouters, and me, and includes important chapters by contributors Anil Cabraal, Richenda Van Leeuwen, and Wolfgang Palz. It is available in a paperback, Kindle, and digital format and can be found on several bookseller websites.

Summary (from back cover of book)
Both Africa and the Middle East are blessed with enormous solar energy resources. Electrification is an urgent need in Africa, where many of its 54 countries are among the world’s fastest-growing economies, but where half the population still has no access to electricity. Solar energy is seen as the fastest and cheapest path to addressing this need. Oil-rich countries in the Middle East are turning to solar energy to meet the growing domestic demand for electricity, freeing up hydrocarbons for export. This book describes the energy transition in Africa and the Middle East, from dependence on fossil fuels to increasing reliance on solar energy. The authors were assisted by the contributions of top experts Wolfgang Palz, Anil Cabraal, and Richenda Van Leeuwen in their efforts to provide a sound basis for understanding where solar energy is heading in these two important global regions.

I also include here the book’s more expansive Epilogue:

Epilogue

An energy transition that took its first tentative steps in the latter part of the 20th century is now unfolding rapidly in the 21st century. It will have a major impact on Africa and the Middle East along with every other part of the world. It is a transition from dependence on carbon-based fuels such as coal, oil, and natural gas to the utilization of renewable energy technologies such as solar, wind, biomass, geothermal, hydropower, and ocean technologies. All, but geothermal, which is derived from the radioactive decay heat in the core of the earth, and tidal energy caused by the moon, are direct or indirect forms of solar energy. Just as we have experienced a fossil fuel era for the past few hundred years—today the world is still more than 80% dependent on such fuels—we are now embarking on a solar energy era that taps into the enormous amounts of energy received by the earth from its sun 150 million kilometers away. To put this in context, while the earth intercepts approximately 6 million exajoules of solar radiation each year (1 exajoule = 1018 joules), and the total global energy consumption is about 600 exajoules, the fraction of the sun’s radiated energy intercepted by the earth’s disk is only 4 parts in 10 billion. The issue before us is how to utilize this diffuse energy source cost-effectively and meet, in an environmentally friendly way, the needs of an expanding global population

We are transitioning from relying on ever-scarcer sources of fossil energy to an era of unlimited, clean, and cheap energy, brought about by modern technology. This transition, which can also be seen as an energy revolution, has major implications for bringing energy services not only to urban and peri-urban areas of Africa and the ‘Middle East but also to those rural, off-grid areas currently without access to electricity. Both Africa and the Middle East are blessed with enormous solar resources, which are just beginning to be tapped, providing an opportunity to improve the lives of hundreds of millions of people. Efficient and cost-effective solar solutions and novel business models enable previously unserved people to leapfrog straight into the future of energy. This book explores some of these opportunities that will transform Africa and the Middle East in the decades ahead. It is an exciting time in the energy history of the world, and Africa and the Middle East will be important playing fields in creating that new history.

A New Book On Solar Energy In Africa and the Middle East

I have not posted on this blog web site for a while because my writing efforts were diverted to helping create a new book entitled ‘The Sun Is Rising In Africa and the Middle East: On the Road to a Solar Energy Future”. The book went to the printer earlier this week and should be available in printed form shortly. A digital version is also in the works. The book has three authors and three additional contributors, each bringing a rich perspective and set of experiences to the discussion. To whet your appetitites I include below the first few pages of the manuscript, including the Table of Contents. More information coming when the book is actually available for sale.
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THE SUN IS RISING
IN AFRICA AND THE MIDDLE EAST
On the Road to a Solar Energy Future

Peter F. Varadi | Frank Wouters | Allan R. Hoffman
Contributors
Wolfgang Palz
Anil Cabraal
Richenda Van Leeuwen

Contents

Preface​xi
Introduction​1
1.​Solar Energy in Africa and in the Middle East​3
1.1​An Overview of Energy Production and
Consumption in Africa and the Middle East​4
1.1.1​Africa​4
1.1.2​The Middle East​9
1.2​The Role of Solar Energy in Africa and in the
Middle East​13
2.​Solar Technologies for Electricity Generation​19
2.1​Solar Energy to Electricity: Solar cells​20
2.1.1​PV Modules Made of Solar Cells Created on
Si Wafers​24
2.1.2​Thin-Film PV Modules​27
2.1.3​Utilization of Various PV Production
Technologies​28
2.1.4​Solar PV Systems​28
2.2​Concentrating Thermal Solar Power Systems​31
2.3​Hybrid Solar Systems​35
3.​Electric Grid Issues in Africa and the Middle East​39
3.1​Introduction​40
3.2​Mini-grids​41
3.2.1​Devergy​42
3.2.2​Donor Support for Mini-Grids​43
3.2.3​Central vs. Individual Uses​43
3.3​Regional Power Pools in Africa​46
3.4​Gulf Cooperation Council Interconnection Authority​50
3.4.1​Middle East​50
3.4.2​GCCIA​50
3.4.3​GCCIA and Renewable Energy​52
4.​Regional and International Solar Initiatives​55
4.1​Introduction​56
4.2​Introduction to the European Development Aid:
A Personal Recollection​57
Wolfgang Palz
4.3​U.S. Energy Development Assistance to Africa and
the Middle East​63
4.3.1​Africa​63
4.3.2​Middle East​66
4.4​Lighting Africa: Evolution of World Bank Support
for Solar in Africa​68
Anil Cabraal
4.4.1​In the Beginning​68
4.4.2​Evolution​71
4.4.3​Solar PV in Africa​74
4.4.4​Lighting Africa​78
4.4.5​The Lighting Africa Program​80
4.4.6​Elements of Lighting Africa Program​81
4.4.7​Lessons Learned​84
4.4.8​The Future​86
4.4.9​Paris Climate Agreement (2015)​87
4.4.10 Climate Change Action Plan 2016-2020​88
4.4.11 IFC Scaling Solar​90
4.4.12 World Bank Off-grid Solar Projects​91
4.5​The Africa Clean Energy Corridor​93
4.5.1​The Issue at Hand​96
4.5.2​Planning​97
4.5.3​Resource Assessment​98
4.5.4​Access to Finance​99
4.5.5​Status and Way Forward​99
4.6​Global Energy Transfer Feed-in Tariff​102
4.6.1​Hydropower Projects​107
4.6.2​Cogeneration (Biomass: Bagasse from
Sugar Production)​108
4.6.3​Solar PV Projects​109
4.6.3.1​Soroti solar PV project​109
4.6.3.2​Tororo solar PV project​110
4.6.4​Wind Energy Projects​111
4.6.5​Conclusion​111
4.6.6​The Future of the GET FiT Program​112
4.6.6.1​Zambia​112
4.6.6.2​Namibia​112
4.6.6.3​Mozambique​113
4.7​Deserts as a Source of Electricity​114
5.​Existing and Emerging Solar PV Markets​119
5.1​Introduction​120
5.2​Water Pumping Utilizing Solar Electricity​121
5.2.1​Africa​126
5.2.2​Middle East​128
5.3​Solar Energy and Clean Water​131
5.3.1​Desalination​131
5.3.2​Disinfection​133
5.4​Off-Grid Telecom Towers​134
5.4.1​Off-Grid or Bad-Grid?​134
5.4.2​Tower operators​135
5.4.3​Renewable Energy Towers​136
5.4.4​Tower ESCOs​137
5.5​Internet with PV​139
5.5.1​Internet in Africa​139
5.5.2​NICE, the Gambia​140
5.6​Solar Energy and Mining​143
5.7​Tele-Medicine and Tele-Education​146
6.​Financing: The Key to Africa and the Middle East’s
Solar Energy Future​151
6.1​Introduction​152
6.2​Solar for Energy Access in Africa​153
Richenda Van Leeuwen
6.2.1​“Below,” “Beyond,” and “Off” the Grid:
Powering Energy Access​154
6.2.2​Why Solar for Energy Access in Africa?​156
6.2.3​Why Hasn’t the Grid Been Extended
across Africa?​156
6.2.4​Global Catalysts: Renewed Attention at
the UN and Beyond​157
6.2.5​Market Expansion​160
6.2.6​Future Directions​162
6.3​Financing Solar in Africa and the Middle East​164
6.3.1​Size Matters​165
6.3.2​Risk​167
6.3.3​Financing Off-Grid​167
6.4​Pay-As-You-Go and Community Solar​170
6.4.1​Where the Grid Doesn’t Reach​170
6.4.2​Solar Products​170
6.4.3​Solar Home Systems​174
6.4.4​M-Kopa​174
6.5​Large-Scale Auctions​178
6.5.1​Introduction​178
6.5.2​Sealed-Bid Auction​179
6.5.3​Descending Clock Auctions​179
6.5.4​Hybrid Auctions​179
6.5.5​South Africa​180
6.5.6​IFC’s Scaling Solar​182
6.5.7​Zambia​184
6.5.8​Epilogue​185
7.​Local Value Creation​187
7.1​Local Value Creation: Analysis​188
7.1.1​Local Content Requirements​189
7.1.2​Discussion​190
7.2​Nascent Manufacturing Sector​192
7.2.1​Fosera​193
7.2.2​Solar Manufacturing in the Middle East​196
7.2.3​Noor Solar Technologies​197
8.​Current and Future Solar Programs in Africa and in the
Middle East​199
8.1​Introduction​200
8.2​Africa​201
8.2.1​Electricity in Sub-Saharan Africa​202
8.2.2​Nigeria​204
8.2.2.1​Large grid-connected projects
in Nigeria​205
8.2.2.2​Feed-in tariffs​206
8.2.2.3​Net metering​206
8.2.2.4​Other solar applications​207
8.2.2.5​Discussion​207
8.2.3​Uganda​208
8.2.4​Namibia​210
8.2.4.1​Utilization of renewable energy
to produce electricity​212
8.2.4.2​Biomass​212
8.2.4.3​Wind​213
8.2.4.4​Concentrated Solar Power (CSP)​213
8.2.4.5​PV Systems​213
8.2.4.6​Commercial and other
organizations​216
8.2.4.7​Summary​218
8.2.5​Senegal​218
8.2.5.1​Impact of solar home systems
in Senegal​219
8.2.5.2​Solar energy in the Middle East
and North Africa​220
8.2.6​Morocco​221
8.2.7​Egypt​223
8.3​The Middle East​225
8.3.1​Jordan​225
8.3.2​United Arab Emirates​225
8.3.3​Saudi Arabia​228
8.4​Into the Future​231
Epilogue​233
Glossary​235
About the Authors​239
About the Contributors​241
Index​243

The Vulnerable Society

This article is on a topic I have touched on before in this blog – the vulnerability of our infrastructure. The purpose of the article is twofold: to gather in one place my various thoughts on infrastructure vulnerability, and to issue a call for action to reduce this vulnerability before our infrastructure is compromised and we have to pay an unacceptably high price. This concern is valid for the U.S. and for other countries highly dependent on infrastructure.

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The Vulnerabile Society

This article is a call for action on an issue that has important implications for the U.S. – the fact that infrastructure on which we are highly dependent can be compromised by deliberate action by our enemies. I am not raising a new concern, but one that, despite some attention in recent years, is still not receiving the level of attention from public officials and the private sector that I believe it desperately needs. Failure to adequately address this issue can have dire consequences for our nation, and for other nations that find themselves in similar. situations.

I have written about this issue in bits and pieces before, starting in 2013, and continually return to the subject because I see too little happening to address a serious and growing problem. That problem is the vulnerability to cyber attacks on our infrastructure, a problem that genuinely scares me. This piece will pull my thoughts together in one place and review my concerns, which are now shared by a growing number of people as more and more cyber attacks occur and their harmful impacts are identified. I will also point out out the ways in which I believe this vulnerability can be mitigated, although complete elimination of cyber threats is not realistic. However, it is my strong belief that we can and must do a lot better at reducing these risks than we are now doing. The price for not doing better is potentially very high.
Infrastructure has been defined as “basic physical and organizational structures needed for the operation of a society or enterprise, or the services and facilities necessary for an economy to function.” The term is often used for the physical structures that support a society, such as roads, bridges, water supply, sewers, electrical grids, and telecommunications facilities.
A major concern is that most of our electricity supply today comes from large, centralized power plants that are poorly protected from attack, if at all, and most electrical power is distributed over above-ground power lines that form a highly interconnected grid subject to falling trees, storm damage, or sabotage. It wouldn’t take much to disable a portion of that grid and remove power from large numbers of utility customers. This concern is exacerbated by increasing computer control of the grid and its vulnerability to malevolent hacking. Given today’s level of protection against such hacking I am very worried.
It is important to emphasize that it is not electricity per se that is the valuable commodity but the services that access to electricity makes possible – lighting, heating, cooling, water services, manufacturing, transportation, and communications. Energy has always been critical to human activities, but what differentiates modern societies is the energy beyond human and animal power required to provide increasingly high levels of services. In the developed world we are totally dependent on these services and it is in society’s interest to provide these services in the most reliable way with the least amount of energy, to minimize costs and environmental and national security impacts. My growing concern is, that with steadily increasing electrification, including the electrification of transportation, and growing dependence on computer control and internet interconnection, that those many aspects of society that are dependent on electricity are increasingly vulnerable to serious disruption and blackmail. It is minimizing the risks associated with this vulnerability that must become a high priority focus of modern nations.
Another vulnerability, in addition to risks arising from cyber attacks, sabotage and military attacks, and one that has received some attention of late, is the impact that an electromagnetic pulse arising from a solar flare could have on our power systems. Interconnected power lines can act as a giant antenna that captures this electromagnetic energy and overloads the system and burns out power lines, transformers, and other equipment. This occurred in the 1860’s and burned out many telegraph lines. While physical components can be replaced it takes time, during which most people will be without power unless they have a backup generator. This is especially true for replacing the large power transformers in the system that are quite expensive and not routinely inventoried.
Still another area of concern is disruptions to the U.S. water supply, which have implications for public health, food production, and other public services. It is well known that after natural disasters one of the first infrastructure failures is that of the clean water distribution system. My growing concern is that we are not doing enough to make sure nobody is compromising or poisoning that water supply, which is largely unprotected. After 911 this topic began to get some increased attention from U.S. government agencies.
Another area of concern is telecommunications. Many of our communication systems today – telephone, television, Internet, GPS, weather forecasting, tele-education and tele-medicine – are dependent on solar-powered satellite links and any disruption of these links, whether inadvertent or deliberate, can disable critical elements of our society. These links provide unique and invaluable services, but the satellites are vulnerable to collisions with micrometeorites, disruption by solar flare radiation, sabotage and acts of war, and simply wearing out. And the number of links is increasing steadily as more and more satellites are placed into orbit.
It is well known that many public and private telecom networks are under regular cyber attack, by government-supported and private individuals. Many examples can be found, including the Stuxnet attack on Iranian centrifuges, the North Korean attack on SONY, recent ransomeware attacks, and the Russian attacks on U.S. and other national elections. The point is that we and others are highly vulnerable to cyber attacks, and unless we take steps to adequately protect our web-connected systems from these interventions I fear we will pay a terrible price. Too many of our public systems are now remotely controlled by wireless networks, and someone bent on doing damage and who is expert in hacking can make us hostage if our systems are penetrated. My concern is less with SONY than with our centralized electric utility systems that power our homes, businesses, hospitals, water supply systems, and many other aspects of modern life.
Is it difficult to provide this cyber protection? The simple answer is yes, for several reasons: the growing numbers of wireless networks and cyber hackers, the cost of counteracting malicious hacking, the availability of trained professionals to address the hacking issue, and what I have long considered a major problem – the inability to focus enough attention on cyber security issues.
Let me discuss each of these barriers in turn. Wireless networking is growing because it offers many advantages – reduced wiring requirements and related costs, remote operation and reduced manpower requirements, ability to monitor more variables continuously and control systems to a finer degree. Disadvantages arise when inadequate attention is paid to preventing hacker penetration into the network, thus allowing disruption of normal operations or allowing hackers to take control of the network. Also, the number of capable hackers is increasing rapidly. Many schemes have been proposed for restricting unauthorized access to a network, usually using passwords, but often these passwords are not adequate to stop an experienced hacker and most people are resistant to remembering long, complicated passwords. Many companies are also not yet convinced of the need to spend the money on sophisticated protection systems, and some may see the consequences of a hacking as less costly than the required investment.
Costs are inherent in any attempt to prevent hacking, ranging from software and hardware costs to labor costs. There is some indication that SONY, an electronics company, spent too little on protection costs by underestimating the potential threat to its cyber systems. It surely is a mistake it won’t make again, and the SONY experience, and others, should serve as wake up calls to other corporate and government bodies as well as individual consumers.
The trained manpower issue is a critical one. As has been noted in Congressional testimony, the vast majority of people available today to address cyber security issues are the ones who designed and implemented the current vulnerable information technology system. Should they be the ones to try and fix it, or do we need newly-trained cyber experts who are not so closely linked to today’s operating modes? Clearly there are people who have the requisite high level skills – think NSA – but are they available broadly on a global basis? Expertise in cyber security is already in high demand and will be in even greater demand in the future as more and more functions are digitized and the Internet-of-All-Things becomes a part of everyday life.
Finally, let me address the issue of focusing attention on cyber security issues. It has not been easy. I have personally observed resistance to addressing cyber security issues by the U.S. military and private electric utilities, largely due to lack of familiarity with required capabilities and associated costs. Fortunately, this is beginning to change now that the consequences of not being vigilant are becoming obvious.
Let me now tie all these concerns to our electric unity system. Today, and for most of the past century, it has been a highly centralized grid system where large central power plants distributed electricity radially via high voltage transmission lines and lower voltage local distribution lines. It was a ‘dumb’ system with little overall control and when one part of the grid went down lots of people lost their electricity supply until the grid problem could be fixed. Today we are developing a ‘smart’ grid with lots of electronic controls that allow isolation of problem areas to minimize the number of people affected, that facilitates transfer of power from one grid region to another, and that allows utilities access to consumer homes and businesses for better balancing of supply and demand. These ‘smart grid’ features offer many advantages to suppliers and consumers, ranging from improved energy security to reduced costs. The downside is that electronic networks controlling these various features of the smart grid can be penetrated by sophisticated hackers, and my impression is that until fairly recently utility executives were not paying sufficient attention to cyber security issues. We can hope that this is no longer the case, but we all know of utilities that have underinvested in protecting their systems – e.g., by not trimming back trees that could fall on and disrupt power lines during storms, and not putting more of their power lines underground.
The good news is that some federal and state government and quasi-governmental agencies are beginning to take the issue seriously. Reports are now available that address Black Sky Day possibilities, which are defined as “extraordinary and hazardous catastrophes utterly unlike the blue sky days during which utilities usually operate.”
An important example of this increased government attention was the release in January 2017 of the second installment of the Department of Energy’s Quadrennial Energy Review. These reports, started in 2013, survey the U.S. energy system. The first installment dealt broadly with the entirety of the nation’s energy infrastructure, which goes far beyond electricity to encompass natural gas and oil pipelines, storage infrastructure, and other facets. This one focused on electricity, the nation’s rapidly changing electrical grid, and the need for new action to protect against evolving cyber security threats.
The document noted the sprawling scale of U.S. electric infrastructure – 7,700 power plants, 55,800 substations, 707,000 miles of high-voltage transmission lines, and 6.5 million additional miles of local lines spread out from the substations. It pointed out that dramatic change is sweeping over the sector and that this “rapidly evolving system” is in major need of modernization and upgrades to keep pace
“There’s the weak-link issue for the whole system,” Energy Secretary Ernest Moniz said in an interview when the report was released. “The reality is, for a lot of rural, smaller utilities, it’s a very difficult job to have the kind of expertise that will be needed in terms of cyber, so we suggest for example, grant programs to help with training, to help with analytical capacity in these situations.” “The economy would just take an enormous hit” from a successful grid attack, he said. The report also pointed out that cyberthreats are not the only challenge facing the grid. It warned that extreme weather events triggered by human-caused climate change also makes the system vulnerable.
The bottom line is that the integrity and reliability of many important infrastructure systems are at risk and a national commitment to minimizing these risks is a critical need. The primary responsibility of elected officials is to protect the U.S. public, and indications to date are that not enough is yet being done to meet that responsibility with respect to cyber threats. Red lights are flashing but is this to be another example of where the U.S. response is laggard until a crisis erupts? The sooner we address the following issues, via public education, legislation, and public and private practice, the more secure our energy and energy-dependent systems will be:
– identifying protection against cyber attacks as a national priority by both the President and the Congress.
– enhanced education of the public about the threat and implications of cyber attacks.
– engaging the government and private sector in a joint effort to develop new barriers to cyber network penetration that take into account both privacy concerns and the needs of the intelligence community to identify and protect us against internal and external threats.
– the need to focus greater attention on training of an increased number of cyber technology experts, much as we did in the aftermath of Sputnik in the late 1950s when the need for more trained scientists became evident.
– acceleration of the trend to distributed power generation, to reduce the risks of outages on today’s highly interconnected grid system that can lead to widespread loss of power. Distributed generation, in a smart grid system, can isolate (‘island’) local sources of lost power and keep the rest of the connected grid functioning. Renewable generation sources are inherently distributive and fit well into this category.

Of course the issue of global warming and climate change must also be addressed for reasons that go beyond reducing vulnerability of our power grid to extreme weather events. However, that is a topic that is receiving extensive attention elsewhere and one I will not discuss in this article.

N m

Cyber Security: Revisiting a Critical Issue

Three previous blog posts have mentioned or addressed in detail this critical issue which I believe represents a major vulnerability of U.S. electrical power and other industrial systems:
– ‘Grids, Smart Grids and More Grids: What’s Coming’,
July 7, 2014
– ‘The Vulnerability of Our Electric Utility System to
Cyber Attacks’, January 28, 2015
– ‘Returning to an Important Subject: The Vulnerability of
the U.S. Electrical Grid’, August 31, 2015

I mention this history because today (January 6, 2017) the Washington Post published the following article on the same subject, reporting on the results of the Quadrennial Energy Review just published by the U.S. Department of Energy. It focuses much needed attention on this growing vulnerability.

New Obama report warns of changing ‘threat environment’ for the electricity grid
By Chris Mooney

At a time of heightened focus on U.S. cybersecurity risks, the Energy Department released a comprehensive report on the nation’s rapidly changing electrical grid Friday that calls for new action to protect against evolving threats.

The agency urged policymakers to grant regulators new emergency powers should threats become imminent, among other recommendations.

The document notes the sprawling scale of U.S. electric infrastructure: The nation has 7,700 power plants (ranging from coal-fired to nuclear) and 55,800 substations. Some 707,000 miles of high-voltage transmission lines link the two, and then 6.5 million additional miles of local lines spread out from the substations.

Dramatic change is sweeping over the sector. For instance, so-called smart meters are being added to bring more online control to the electrical grid. And more and more households are adding solar systems to their rooftops, providing new connecting points. A “rapidly evolving system” is in major need of modernization and upgrades to keep pace, the report says.

“There’s the weak-link issue for the whole system,” Energy Secretary Ernest Moniz said in an interview to highlight the report. “The reality is, for a lot of rural, smaller utilities, it’s a very difficult job to have the kind of expertise that will be needed in terms of cyber, so we suggest for example, grant programs to help with training, to help with analytical capacity in these situations.”

“The economy would just take an enormous hit” from a successful grid attack, he said.

The document is the second installment of the Quadrennial Energy Review, a series of wide-ranging reports surveying the entire U.S. energy system that the department began after President Obama announced new climate change policies in 2013. The first installment dealt broadly with the entirety of the nation’s energy infrastructure, which goes far beyond electricity to encompass natural gas and oil pipelines, storage infrastructure, and other facets. This one zooms in on electricity.

It highlights not only cyberattacks on electric infrastructure in Ukraine in late December of 2015 — in which three Ukrainian utilities were hit by synchronized cyberattacks, leading to power losses for 225,000 customers — but also the Oct. 21, 2016, event that used in-home Internet-connected devices, collectively, to lead a large denial-of-service attack.

“We know that this is not just a theoretical concern,” Moniz said.

The report calls for utilities to take engage in “deliberate risk management activities” as the electric power sector becomes increasingly interconnected with global communications networks.

“The threat environment is also changing — decision makers must make the case for investments that mitigate catastrophic, high-impact, low-probability events,” the report notes.

Cyberthreats are not the only challenge facing the grid. The report warns that extreme weather events triggered by human-caused climate change also makes the system vulnerable.

On grid security, the report contains myriad recommendations, including amending the Federal Power Act to give the Energy Department the ability to issue a “grid-security emergency order,” and also giving the Federal Energy Regulatory Commission new powers to bolster reliability standards that affect electricity-sector operators “if it finds that expeditious action is needed to protect national security in the face of fast-developing new threats to the grid.”

In the interview, Moniz said he hoped that under the next administration, the Quadrennial Energy Review process would continue, noting that the last installment of the report has already triggered major action. Of its 63 recommendations, the DOE has found, 21 are already “fully or partially reflected in Federal law.”

“We think that the second volume hopefully is going to have the same kind of track record,” Moniz said. “That’s the basis upon which I certainly hope, and will certainly recommend, presumably to [Energy secretary nominee Rick Perry], that the new administration take ownership of this, and keep it going.”

The DOE press release announcing the report can be found at
https://energy/gov/articles/administration-releases-second-installment-quadrennial-energy-review and the full report with related analyses can be found at energy.gov/QER.

A Presidential Campaign Speech from 2052

(Note to my readers: please allow me this ‘indulgence’ as it allows me to discuss what I see coming in the energy field.)

My fellow Americans, I am pleased to announce today my candidacy for President of the United State. We have just turned the corner on the first half of the 21st century, a time of significant change for our country and many other countries. In 2052 it is time to consolidate and reaffirm those changes that are beneficial, and plan for the coming decades. The 21st century has been an American century, but not exclusively – other parts of the world have demonstrated global leadership both economically and politically in these past 50 years – and it is encumbent on a new set of U.S. leaders to continue the American century in peaceful and meaningful cooperation with our global partners. Before discussing my plans for the future I would like to review what I see as the history and the accomplishments of the century’s first fifty years.

The century began as an extension of the 20th century – multiple national conflicts, internal dissension in many countries, and heavy dependence on traditional fuels such as coal, oil and natural gas. Global population continued to increase – having grown from 1.8 billion to more than 6 billion in the past century – and is expected to reach as much as 10 billion sometime before the turn of the current century. That number in 2052 is just under eight billion.

Increasing electrification was an important characteristic of the 20th century and will continue to define the 21st century as well. It is allowing increasing numbers of people to enjoy the energy services that access to electricity and other forms of energy brings – lighting, heating, cooling, communication, transportation, and the ability to make things quickly and in quantity. Today, fewer than five percent of the world’s population lacks access to reliable electricity supplies, and this number should reach zero in the next two decades. Essentially all have access to wireless devices that allow widespread communication and access to the world’s store of information.

This access to energy, the closely related access to clean water, and wireless capability have significantly reduced global poverty and greatly enhanced opportunities for learning. The education revolution that has been made possible by universal access to the internet, for both women and men, and the individualized learning that the computer revolution has made possible, together with energy access, has finally allowed a slowdown in the rate of population growth so that a stabilized global population may be achievable in my lifetime.

This century has also seen other powerful changes. In 2008 our country elected its first black President, and then reelected him in 2012 as affirmation of their good judgement four years before. In 2016 the U.S., after a lengthy and often nasty presidential campaign, elected its first female president, who once and for all showed that women can serve effectively at the highest levels of our political life. Together with the military opening all its ranks to female participation in 2015, the so-called ‘glass ceiling’ was finally shattered, never to be restored. That election also saw the election of a Vice President of Hispanic ethnicity, who eventually went on to become the 47th President of the United States. Today I am trying to shatter still another political barrier by attempting to become the first Muslim American to receive the nomination for President of a major political party.

While much has changed in the past five decades, and I will discuss one of the most important changes in detail shortly, not everything has changed, unfortunately. We are still human beings, with all our many shortcomings, and religious and racial intolerance are still major sources of pain and conflict in the modern world. While the threat of Islamic jihadism that arose forcefully in the first few decades of the century has been reduced significantly through the actions of a global coalition of Muslim and non-Muslim governments, remnants are still with us and require careful attention. As our President I would commit all the resources needed, in cooperation with our allies, to keep this threat under control. A major factor in controlling this threat has been the willingness of Sunni and Shiite governments to put aside their religious differences In the name of their overriding commonality, Islam.

Among the other changes we have seen in our lifetime is the establishment of the first human colonies on the moon and on Mars. The moon colony was a joint U.S.-Chinese achievement in 2032, just twenty years ago, and the first Mars colony of four people was established just 8 years ago, in 2044. Both were extraordinary events at the time, and commanded global attention, but as is true of so many achievements in outer space the existence of the colonies is becoming part of the background. That is an OK result as we want space travel to become a routine part of the mainstream.

Other major steps forward have been in the field of medicine. With advances in DNA measurement and manipulation personalized treatment has become routine for many gene-related diseases. It is not unusual today to see people living into their second centuries and still functioning normally. Of course the social security and related safety-net systems in the U.S. have had to be adjusted for this new longevity, and as you might expect, only after long and difficult political battles.

Finally, let me talk in some detail about the most important revolution of the 21st century, one I have worked hard to support in my current position as a U.S. Senator. It is one that I am committed to support and advance if I am privileged to serve as your President. That is the energy revolution that started in the latter part of the 20th century, took flight during the early decades of the 21st, and is today reaching all parts of the globe. It is a transition point in human history.

The 1973-74 Oil Embargo, which took place almost a century ago, was a brutal wake up call for many nations, including our own. The history books tell many stories about how Americans, for the first time, began to look at energy issues in a different light. Prior to the Embargo energy costs were sufficiently low that it was not an area of public concern. Then, one day Americans awakened to the fact that much of their energy, especially for transportation, was imported from abroad, and that such supplies were subject to political uncertainties beyond our control. This was true in the countries of Western Europe as well. We responded by creating the International Energy Agency, a mechanism for sharing oil reserves among countries if another embargo threatened our energy supplies. We also started looking at energy alternatives, with particular emphasis on nuclear power. In fact the public mantra at that time by our political leaders was a doubling every decade of the number of nuclear power plants deployed in the U.S. A few others raised concerns about nuclear power and called for examination of enhanced energy efficiency and renewable energy alternatives. Until that time renewable energy had not been seriously considered except in the case of hydroelectricity. The suggestion related to enhanced energy efficiency was dismissed by economists and others who saw economic growth (GDP) tied one-to-one with energy consumption, and renewables were attacked as too expensive and incapable of meeting the demands of the U.S. economy. These arguments persisted for several decades until it was shown that GDP and energy consumption were not directly linked, climate change associated with combustion of fossil fuels became a major global issue, the costs of renewable energy systems began to decrease, and the ability of renewable energy in the form of electricity, biofuels, and heat were shown capable of supporting large economies. These new realities became the focus of policy debates in the first two decades of the century, and finally came to govern U.S. energy policy in the third decade when the majority of the private sector finally put its full support behind renewables and the battle to limit global warming. All Presidents since the Obama era have supported a move away from dependence on fossil fuels – it was 80% at the turn of the century – and Congress finally placed a steadily increasing cost on carbon emissions in 2020. This created the economic environment needed for investment in clean energy technologies and reduced use of fossil fuels. It allowed the U.S. to finally catch up with the many other countries that had seen the importance of these changes and implemented appropriate policies many years before.

These changes have led to today’s energy situation in the U.S. – 70% of electricity is generated by solar, wind, hydropower, and geothermal, natural gas from fracking peaked in 2040 and is steadily being replaced as an energy source in power plants as renewables take over, petroleum from fracking of oil shale peaked at about the same time and has been used to power aging and disappearing transportation fleets, electric vehicles dominate the automobile and light duty truck markets, all new aircraft and ships are designed to run on alternative biofuels, energy efficiency has been enshrined as the cornerstone of national energy policy, coal has been replaced as a domestic energy source except in a few industries, and nuclear power’s share of electricity generation has been steadily reduced to its current value of 5%. Total national energy demand has been stable even as the U.S. population has increased to 400 million, all new homes are routinely outfitted with solar energy rooftop systems and ground source heart pumps wherever feasible, the U.S. leads the world in wind turbine and wind energy production, we are second only to China in offshore wind energy deployment and production, and battery energy storage has become as ubiquitous as any other household appliance.

The world has turned a corner in these pat 50 years, undergoing an inevitable transition to dependence on energy from the sun and heat derived from radioactive decay in the core of the earth. These clean energy sources will last as long as people populate the earth, unlike fossil fuels which are depletable on any timescale relevant to humankind. We owe much to our fossil fuel resources, the product of millions of years of transformation of organic materials subject to high temperatures and extreme pressures deep in the earth, but the fossil fuel era is coming to an end and will eventually be only a blip on the timeline of history.

My promise to you as your President will be to continue and strengthen this transition in all ways possible so that our children, grandchildren, and their heirs, will live in a world free of global warming and the other harmful impacts of burning fossil fuels. Nuclear fission power had its day as well, but the issues associated with its use – cost, safety, long term storage of wastes, and weapons proliferation – have proved too difficult to accept now that renewable energy has been shown up to the task of meeting societal needs. Nuclear fusion, a much cleaner form of nuclear energy, remains as a long term possibility as well, but progress in taming the process that powers our sun and other stars has been slow and time will tell if controlled nuclear fusion has a future here on earth. I support continued cooperation with other countries in researching this technology that offers unlimited energy availability but so far has always been a few years away. Our investments largely must go into renewable technologies to ensure completion of the transition. This is our legacy to the future.