China has performed well above the global average, shined as the regional leader in East Asia, matched, if not outperformed, OCED countries in many dimensions, many countries with much lower investments and capacity have scored higher on renewable energy indicators.
Why the discrepancy?
The World Bank's Regulatory Indicators for Sustainable Energy (RISE) could shed some light on the issue. Launched in February 2017, . It focuses on regulatory frameworks in these countries and measures that are within the direct responsibility of policy-makers. The result is based on data made available to the team at the end of 2015 and thoroughly validated.
Villa 31, an iconic urban settlement in the heart of Buenos Aires, is home to about 43,000 of the city’s poor. In Argentina, paradoxically, urban slums are called ‘villas’ – a word usually tied with luxury in many parts of the world.
The explicit need of the hour is a significant increase of annual investments in energy access, renewables and energy efficiency – in the hundreds of billions of dollars’ range. So what role does open data play in such a scenario, you may wonder.
Last month the World Bank launched a new Global Solar Atlas: a free, online tool that lets you zoom into areas anywhere in the world in great detail (1km resolution), and with downloadable poster maps for all developing countries. This new interactive tool is welcome news for anyone – policymaker or commercial developer – who has ever looked for solar maps or resource data from the cluttered and sometimes confusing array of public resources available
For this new atlas to have a greater impact, the following needs to happen.
First, we need to cut down on the duplication and often wasted resources associated with national mapping projects. For example, before the Global Solar Atlas was launched, it cost $100,000-150,000 to commission a solar resource map for an average-sized country, and the work took around six months to complete. But with the Atlas, we have completed this task for all developing countries at a fraction of the cost, allowing funding to be channeled into higher value activities such as geospatial planning to identify renewable energy zones, or ground-based measurement campaigns to help further improve the solar resource models on which the results are based. This new tool could be an invaluable asset for governments, development agencies, and foundations so that they no longer commission country-based mapping efforts that are, in many cases, costly and may end up duplicating what the Atlas offers already.
Second, we need to continuously improve the data behind the Atlas, and other commercially available solar resource models, by investing in ground-based solar radiation measurement stations, with the first two years of data compiled and available in the public domain. But this is easier said than done. There are major gaps in the current measurement data network, especially in developing countries, and this adds to the uncertainty of the solar data provided. In turn, that increases developer risk and ultimately costs. Unfortunately, it is very easy to commission a poor quality measurement campaign, or to leave out key bits of data that are needed for eventual analysis. So adopting a universal set of standards is vital.
Third, public research institutes that have previously carried out solar resource assessments need to take a hard look at what value they add in this area. Over the last five years a number of commercial providers of solar resource data have emerged that maintain standing solar resource models, and work continuously to improve and update their solar data. This is an excellent example of public incubation and research being translated into successful start-ups, and should be celebrated. But the originators now need to move on to new frontiers of research to avoid crowding out commercial providers, and to help generate the next generation of methodologies and tools.
You’d think the most important thing about putting together a global scorecard is, well, the scores of course.
My experience working on RISE – Regulatory Indicators for Sustainable Energy – taught me that it takes a lot more than just data to deliver a one-of-a-kind report.
But hang on. What’s RISE, you ask? , which are critical to achieve sustainable energy goals by 2030.
Nothing to this scale has been done before. .
My very first time getting familiar with this data was when I worked on the pilot version of RISE . We had decided the best way to get people to understand this endeavor was to get them to play a “Who Wants to be a Millionaire” style game, but with energy access, renewable energy and energy efficiency data. What an eye opener. At that time, I thought the breadth of the pilot project -- 28 indicators, 85 sub-indicators and a 17-country coverage – was impressive.
Kitumbeine is also 40 km (25 mi) from the nearest electricity grid.
But that hasn’t stopped Elisha. That’s because his store is actually inside a 16 KW mini grid container, under the shade of 60 solar panels. While such easy access to solar power has helped his business tremendously, it has also gifted him with a chance to learn to operate and maintain these mini grids. Consequently, he now acts as a liaison between his community and the solar company that helps set up these grids in remote Tanzanian villages that are starved for electricity.
Elisha’s story is a great example of how the sun paves the way for way more than just turning on a light bulb.
In many ways, Indian leader Mahatma Gandhi was an early environmentalist. He believed in a self-sustaining life, walked everywhere, and even spun his own cotton yarn. If he were alive, he would been a huge supporter of India’s efforts to use its abundant sunshine to generate clean, sustainable energy.
Today, India’s climate change mitigation strategy bears the unmistakable stamp of the father of the nation. It has a goal of achieving a five-fold jump in renewable energy to 175 GW by 2022, the bulk of which - 100 GW - is expected to come from solar and 40% of that from rooftop solar alone.
Not surprisingly, this target was subject to much skepticism initially. Forget the quantum leap to 175 GW in seven years. At the time of the announcement, India was far from meeting its original target of 20 GW, because even just a few years ago, commercial banks considered solar a risky and ‘non-bankable’ technology.
“If there is one thing that could really help my business, it would be reliable power supply,” said David, a small business owner in Lagos, on my recent trip to Nigeria.
“I agree. If only …,” echoed another.
And not without reason.
, the region with the second-lowest access rate. If we were to measure access to “reliable” electricity, then those numbers would be even more dismal.
Worryingly, the rate of access has been increasing at a mere 5 percentage points every decade, against population growth of 29 percent. If something is not done to dramatically change this trend, Africa will not see universal access to electricity in the 21st century. This is a seriously worrying prospect as the world races toward a 2030 deadline of universal access to electricity.
The target of achieving universal access by 2030 by the U.N.’s Sustainable Energy for All initiative and the billions of dollars committed by the U.S. government’s Power Africa plan underline the urgency of the situation. As a reminder,
So, are Africa’s utilities financially equipped to respond to this call?
Just months after a historic climate conference in Paris, I can’t help but marvel at how far the world has progressed in the uptake of renewable energy. Take solar power, for example. What used to be a prohibitively expensive endeavor just years ago, is now a household-level solution in many countries. Then there are the record-setting solar auctions in countries like Zambia, the United Arab Emirates, India, Mexico, and Peru.
So what’s the next critical piece of the puzzle in our global efforts to provide sustainable energy for all?
In my view – and that of many others – it is to establish a viable, stationary solution to store energy. While stationary energy storage on a large scale has always been around – hydro energy storage, as an example, is efficient and cost effective – it is tied to topography and difficult to add at will. The cost of batteries has also been a big obstacle to widespread deployment and was a primary reason for the electricity grid to be designed as the biggest real-time delivery systems humans have ever made.
Last week with the support of the World Bank Group’s (WBG) Scaling Solar initiative. The auction for 100 MW (2x50 MW) resulted in a price as low as 6 cents/kWh.
This is good news for the country, which much like the rest of Sub-Saharan Africa faces acute electricity shortages. .
Zambia’s solar auction result followed a series of headline-making auctions in India, Mexico, Peru, and Dubai. In Dubai’s case, the price was as low as 3 cents/kWh -- the lowest price ever offered for solar power. Solar auctions are effectively a competitive bidding process to build power plants and supply a specific quantity of electricity at a pre-agreed price over a specified period of time.