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  • Renewables
23 May 2019

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  • Indonesia

Reported locally, the Directorate General of New and Renewable Energy and Energy Conservation (EBTKE) targets the Sorik Merapi Geothermal Power Plant (PLTP), at Mandailing Natal, North Sumatra to be able to operate commercially in the second half of this year. The construction of the 40 MW capacity plant costs US $ 180 million or around Rp. 2.6 trillion.

Director of Geothermal Directorate General of EBTKE Ida Nurhayatin said the progress of the construction of the plant had reached 70-80%. The contractor working on the construction is PT Sorik Merapi Geothermal Power.

“It is expected to be operational in the third or fourth quarter,” she told local news outlet katadata.co.id.

On the other hand, East Java Regional Business Director, Bali and Nusa Tenggara, Djoko Rahardjo Abumanan said the infrastructure of the Sorik Merapi PLTP had actually been completed. “It’s just an administrative process,” he said.

In addition to the Sorik Merapi PLTP, Lumut Balai Unit I PLTP will also be operating commercially, possibly next July. The plant is located in Muara Enim, South Sumatra.The plant with a 55 MW capacity is done by PT Pertamina Geothermal Energy (PGE). After unit I operates, PGE will conduct a tender for unit II engineering, procurement and construction work (EPC) which also has a capacity of 55 MW

The target is that the tender can be carried out this year after the company has completed several administrative requirements, the Muara Laboh PLTP located in Solok Selatan, West Sumatra, will also be operational soon, the target is September 2019.

The plant built by PT Supreme Energy has a capacity of 80 MW, the investment value for this plant reaches US $ 580 million or around Rp. 8.4 trillion.

  • Renewables
23 May 2019

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  • Singapore

Over 7,000 PV panels will generate 3.5GW hours of energy enough to power 1,000 three-bedroom HDB flats for a year.

Personal care firm Kimberly-Clark Corporation has installed rooftop panels for its Tuas manufacturing facility in one of Singapore’s largest solar energy installations to date, an announcement revealed.

A total of 7,730 photovoltaic panels mounted on its roof will generate 3.5GW hours of clean energy, which will be enough to power up 1,000 three-bedroom Housing and Development Board (HDB) flats for a year.

With this investment, renewable energy will reportedly replace 15% of conventional energy use at the plant, reducing Green House Gas emissions (GHGs) by approximately 1,600 metric tonnes per year. This is equivalent to removing nearly 350 passenger cars from roads annually.

The solar roof panels were installed in partnership with Singapore-based solar energy provider Sunseap, which has developed many grid-connected PV systems in Singapore.

  • Renewables
23 May 2019

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  • Singapore

With the country currently struggling with its power supply, Cambodia must prioritise the development of solar energy facilities over hydropower dams, the Solar Energy Association of Cambodia said.

For in depth analysis of Cambodian Business, visit Capital Cambodia
.

Speaking to Khmer Times yesterday, Sokun Sum, chairman of the association, said Cambodia should focus on attracting investment in solar energy.

He said construction times for solar farms are lower than for hydropower dams, and with demand for electricity skyrocketing, Cambodia needs to build energy infrastructure as fast as possible.

..

He said up to five 60-megawatt solar farms can be built within seven months, while building a single hydropower dam can take up to five years.

“It has been brought up to our attention that power consumption in Cambodia has dramatically increased, mostly driven by construction projects. Therefore, investment in solar parks should go before hydropower, which now dominates domestic power consumption in the country,” he said.

Mr Sum acknowledged that solar farms can be expensive and require large plots of land, but said returns on investment are high.

According to RFA News, Cambodia has about 10,000MW of hydropower potential, 8,100MW for solar, and about 6,500MW for wind.

The latest report from the Electricity Authority of Cambodia shows that about 85 percent of the power consumed in the country is generated internally – from coal, hydropower, biofuels, and renewable energy sources. Renewable energy accounts for 0.46 percent of all power generated in the country, but that figure will rise to 0.68 percent by the end of the year, EAC says.

..

Cambodia imports the rest of the energy it consumes (15 percent) from Thailand, Vietnam, and Laos, but energy imports will rise to 21.15 of total energy consumed by the end of 2019.

In 2017, a $12.5-million, 10MW solar farm was completed in Svay Rieng province’s Bavet city by Singaporean firm Sunseap. This is the country’s first large-scale solar farm.

The government recently approved two 60MW solar plants – one in Pursat province and the other in Kampong Chhnang – along with a 20MW expansion to an existing 60MW farm in Kampong Speu.

Once all these projects are completed, Mr Sum expects solar to account for 3 percent of all energy produced in the country.

He said Cambodia should be producing 1,000 megawatts of solar power by 2020 to prevent future power shortages.

Mr Sum said companies from around the world are eyeing opportunity in Cambodia’s solar sector.

  • Bioenergy
22 May 2019

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  • Singapore

When diners at the National University of Singapore’s Raffles Hall toss out their food scraps, they join the vanguard of environmental sustainability. By composting unwanted food, the students take the first step to generate power that will eventually charge their cell phones.

Confused? Here’s how the energy is created: The Raffles Hall discarded food scraps are fed through an onsite, anaerobic bio-digester. Once the leftovers are placed in a bin, the automated system works like a biochemical stomach, breaking down organic matter into bio-gas.

The bio-gas is then converted into heat and electrical energy that keeps the bio-digester running. That power operates the lights, fans, the control computer, and pumps. Remaining electricity is directed toward an on-campus charging station, which allows students to plug in and power up their phones for free.

The bio-digester also produces a nutrient-dense substance, which can be converted into fertilizer. NUS’s waste-to-energy system is the brilliant design of associate professor Yen Wah Tong from the department of chemical and biomolecular engineering and research fellow Jingxin Zhang from the Environmental Research Institute.

This promising use for food waste is far more efficient than the alternative: sending scraps to a landfill for incineration.

Waste management is an urgent issue in Singapore. Forecasters expect the island nation’s only landfill will reach capacity in 20 years. Food waste has also increased 40 percent over the last decade. Currently, only 16 percent of all food waste is recycled.

NUS’s bio-digester also serves an additional purpose: raising awareness around food waste and renewable energy.

By charging phones, we’re advertising this type of utilization of food waste and encouraging people to think differently about waste.

— Yen Wah Tong

 

 

“We wanted to highlight a more public use of this electricity,” says Tong. “By charging phones, we’re advertising this type of utilization of food waste and encouraging people to think differently about waste.”

Singapore is one of many places exploring waste-to-energy (WTE) technologies, as refuse management is a worldwide concern. An estimated 800 industrial-scale WTE plants are currently in use across three dozen or so countries, converting municipal solid waste to energy via anaerobic digesters, which function much like the biodigester in Raffles Hall.

In the United States, there are more than 70 biodigestion plants, but many of the current WTE locations use various types of garbage.

In New York City, former Mayor Michael Bloomberg called food waste the city’s “final recycling frontier.” The Newtown Creek Wastewater Treatment Plant in the borough of Brooklyn — one of the few large-scale efforts in the U.S. to add food waste into bio-digester plants — has been adding edible garbage to a handful of egg-shaped bio-digester tanks since 2012.

The addition of the food waste boosts the plant’s methane gas production by approximately 17 percent. A portion of this bio-gas provides heat for the boilers at the plant. Plans are in the works to funnel the bio-gas energy to homes of area customers of National Grid, a utility company.

While few anaerobic digestion systems are designed exclusively for edible waste, food scraps have become increasingly recognized as a viable power source. According to research scientist Roy Posmanik of Israel’s Institute of Soil, Water and Environmental Science, a major appeal of converting food scraps to energy is basic efficiency, particularly in comparison to animal manure.

If you think of the cow itself as some kind of bio-digester, the animal fails to digest these fibers; so, it will be more challenging to engineer that digestion in a bio-digester.

— Roy Posmanik

“Using food waste is easier and faster than manure,” says Posmanik, currently a visiting scholar at Cornell University. The polymers that are dominant in all food scraps, including pulp and non-edible materials, are far more biodegradable than lignocellulosic material, which is biomass found in straw and other animal feed. “If you think of the cow itself as some kind of bio-digester, the animal fails to digest these fibers; so, it will be more challenging to engineer that digestion in a bio-digester.”

One reason food waste isn’t more popular as a renewable energy source, Posmanik thinks, is logistics. When a bio-digester produces bio-gas, an additional compartment is required to convert it into heat or electricity. Natural gas prices are also low in the U.S., making it harder for such regenerative technologies to compete. Posmanik observes that higher incentives from the government, such as reducing greenhouse gas emissions and recovering renewable resources, could result in a higher application.

Still, Posmanik is optimistic about the future: “There are lots of opportunities in this world of waste-to-resource.”

Tong and Zhang agree. Since installing the bio-digester at Raffles Hall their project has expanded to two more cafeterias. The green-friendly school is renovating a handful of cafeterias that will have infrastructure for future biodigesters.

In September, the team will partner with the National Environment Agency to bring biodigesters to “hawker centers,” which are small, affordably priced cafeterias located around Singapore. Tong also sees an opportunity to bring the concept to the regional market in South East Asia, rural areas that need food waste solutions, and beyond.

As Posmanik notes, “Food waste is a problem everywhere.”

  • Bioenergy
22 May 2019

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  • Singapore

Acropower, a subsidiary of Acromec, an engineering firm based in Singapore, has signed an agreement with Chew’s Agriculture, a commercial egg producer in Singapore, which will allow Acropower to acquire poultry waste from Chew’s Agriculture for it to be converted into biogas. The biogas will then be used to generate electricity.

Acropower stated in a news release that Chew’s Agriculture will supply poultry waste to the firm in exchange for electricity at a reduced rate.

The power plant will be able to supply the farm with up to 0.5 megawatts per hour based on waste provided by 600,000 laying hens, although the plant does have the capactiy to generate up to 0.8 megawatts per hour from the daily waste of 720,000 laying hens.

Acropower stated that it will scale up over a five-year period so that it will be able to process waste by no more than 1.5 million layers.

Commenting on the Agreement, Mr Lim Say Chin, executive chairman and managing director of Acromec said, “This project is a win-win situation for both parties. Disposal of animal waste is a costly issue for farms, and by converting it into energy, Acromec is expected to benefit from an economic view point and will also be contributing towards [the] protection of Singapore’s environment.”

  • Renewables
22 May 2019

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  • Myanmar

The solar-powered plant being built in Magway Region will start producing 20 MW at the end of this month, said Myint Zaw, Magway Region Minister for Electricity and Energy.

On March 20, 2016, an agreement was reached on the implementation of the 170-MW solar-powered plant in the time of the previous government. The project launched on 4 February, 2018. The 20-MW will be distributed to the Mann sub-power station in Minbu Township via Minbu-Ann power grid. The solar-powered project is developed by Green Earth Power (Myanmar) company. The previous government agreed to buy power at a price of Ks 190 per unit (12.75 cents). The payment will be made for the first 40 MW at this price. Power will be distributed to the national power grid. At the beginning, most of power are expected to go to Rakhine State. The Ks-190-per unit price is still high. The regional ministry will discuss with the company to change the per unit prices for the second, third and fourth phases, said Myint Zaw, Magway Region Minister for Electricity and Energy.

Teevor Doniav, Senior Project Manager of the company said: “Electricity is a major requirement for a country. Thanks to electricity access, the citizens can do the things for their improvements. I want the country to have many renewable energy plants. I would like to give advice that the country should invite international experts and build such kinds of power plants in the regions with no electricity access for the development as this country has lands, workforce, manpower and people-elected government.”

The biggest solar-powered plant in Myanmar is built on a 800-acre land in between Zeeaing and Laypin village on the left side of Minbu-Ann road. As a first phase, the power plant will produce 40 MW, using about 150,000 solar panels. The power plant will produce 170 MW—three 40-MW power grids and one 50-MW power grid.

  • Others
22 May 2019

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  • Singapore

Reflecting the growing importance of green buildings for Singapore’s climate strategy and economic development, the national certification scheme for building and construction professionals has been refreshed and handed over to new management.

From this July, professionals who want to be certified in the design and development of green buildings will obtain their qualification from the Singapore Green Building Council (SGBC) rather than from the Building and Construction Authority (BCA).

The newly introduced Green Mark Professional Qualification scheme, which replaces the Green Mark Specialist scheme, is intended to emphasise the need for and to build up competencies of industry professionals, given that Singapore has identified green buildings as one of three key areas to transform the nation’s construction industry .

Ang Kian Seng, BCA’s group director of environmental sustainability, said at the April launch of the scheme: “It is timely to carry out a review and make the qualification more up to date with respect to the systems used internationally and by other professional bodies.”

This new qualification was first announced by SGBC in September 2018, and will be further refined in coming months. The announcement comes in the tenth year of SGBC’s founding, and sees the non-profit organisation take on a more active role in promoting green buildings at home.

Leading the charge for more sustainable buildings

The key consideration in having SGBC take over the administration of the qualification was its international network of partners in the green building space, said speakers at the launch.

Thanks to SGBC’s close ties to the World Green Building Council (WorldGBC) and regional counterparts, professionals who hold the new qualification under SGBC’s management will have more flexibility in  meeting their professional development requirements via international programmes, in recognition of the more globalised work that Singapore’s green building professionals now take on .

The reason for this change is to motivate professionals to “stay relevant” and up-to-date with changes in technology and design methods, said Lee Ang Seng, managing director of Beca Carter Hollings & Ferner Southeast Asia, who serves on the SGBC board.

“Technology changes constantly and we need to gain the insights and knowledge to keep up with new approaches. Renewing the qualification on a yearly basis will help us to elevate our professional standards,” he explained at the industry briefing.

It also ensures that building industry professionals will continue to push the envelope in retrofitting and developing green buildings that are energy efficient and that have the smallest carbon footprint possible, said SGBC’s Soh.

In addition to taking over the professional qualification scheme this year, SGBC will also join BCA in assessing entire building projects for the Green Mark Certification.

This is a step up from its initial mandate of certifying just the products used in green buildings, and puts SGBC on par with other green building councils around the region that issue and administrate green building certifications, such as the Philippines and Australian councils.

“With this new collaboration, we can now address the entirety of the green building value chain: from the professionals to the organisations and certified green products and finally the green buildings themselves,” said Dr Ho Nyok Yong, the president of SGBC, speaking during the signing of the BCA-SGBC agreement at the BuildSG Leadership Forum 2019 in April.

“Our enhanced position in the industry will allow us to develop and implement more impactful programmes towards a greener, sustainable and healthier built environment.

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  • Renewables
22 May 2019

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  • Philippines

Rising electricity prices and unattractive support schemes for large scale solar could see rooftop PV replace utility scale developments as the main driver for new capacity in the Philippines and Japan. That was the conclusion reached by reports published by Fitch Solutions Macro Research and Globadata.

According to Fitch’s forecasts on Japanese PV, distributed solar may be able to expand by around 4 GW per year between 2024 and 2028. Such growth would be triggered by rising power prices and the need for commercial and industrial electricity consumers to reduce grid consumption. Self consumption would be preferred to the option of selling surplus power to the grid, and would add to the appeal of distributed generation.

The authors of the report stressed residential PV systems with a generation capacity of up to 10 kW were not affected by recent FIT cuts implemented by the Japanese government, and FITs for systems ranging in size from 10 kW to 500 kW, although reduced from previous levels, were renewed in March.

Small-system FIT still attractive

The report, from U.S.-based Fitch, stated the residential FIT will stay flat at ¥24-26/kWh ($0.22-0.24), depending on project location, but systems larger than 10 kW were hit by a 22% cut, with the new payment amounting to ¥14/kWh since April 1. “While the continued, attractive FIT for solar installations smaller than 10 kW will stimulate near term growth in the segment, we expect both residential and C&I [commercial and industrial] consumers to shift from grid feed in [using grid power] towards self-consumption over the coming decade,” the authors of the report noted.

The report also cites Japan’s vulnerability to natural disasters as another stimulus for electricity users to secure energy independence.

Taking into account Japan’s difficult transition from FITs to auctions for large scale solar, Fitch analysts expect annual capacity additions to average 3.3 GW between 2021 and 2024, a slowdown on the 5.5 GW of capacity set to be added annually this year and next.

Japan had reached a cumulative PV capacity of 55.5 GW at the end of 2018, according to the latest statistics published by the International Renewable Energy Agency (IRENA), with new additions last year adding around 6 GW.

Net metering in the Philippines

With a FIT scheme for large scale solar having expired and auctions failing to drive big capacity additions, rooftop PV is also becoming a potential growth driver in the Philippines, according to Globaldata. “Net-metering currently has low adoption in the Philippines but can play a major role in increasing renewable power capacity in the country and in helping with the supply security,” wrote Harshavardhan Reddy Nagatham.

The Globaldata report forecasts solar will see its share of the country’s electricity mix rise from around 4.3% last year to 13% in 2030, with renewables – including hydropower – achieving 46.2%, up from around 30.5% at the moment.

Nagatham stressed the importance of deploying new power generation capacity in the Philippines as energy demand is expected to rise sharply due to an increasing population.

The public and businesses must be made aware of the availability of net metering and rooftop solar, wrote Nagatham.

A separate report by the U.S.-based Institute for Energy Economics and Financial Analysis (IEEFA) highlighted the limits of net metering provisions in the populous nation. The main challenges, said IEEFA analysts, were lack of access to affordable financing and complicated approval processes. The main drivers for future growth, they said, are expected to be high electricity prices and frequent power shortages.

Total PV capacity in the Philippines stood at around 886 MW at the end of last year, according to IRENA figures.

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