Shaping A Sustainable Energy Future

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2021REGIONAL TRENDS REPORTShaping a SustainableEnergy Futurein Asia and the PacificA GREENER,MORE RESILIENTAND INCLUSIVEENERGY SYSTEM

The shaded areas of the map indicate ESCAP members and associate members.*The Economic and Social Commission for Asia and the Pacific (ESCAP) servesas the United Nations’ regional hub, promoting cooperation among countriesto achieve inclusive and sustainable development.The largest regional intergovernmental platform with 53 member States and9 associate members, ESCAP has emerged as a strong regional think-tankoffering countries sound analytical products that shed insight into the evolvingeconomic, social and environmental dynamics of the region. The Commission’sstrategic focus is to deliver on the 2030 Agenda for Sustainable Development,which it does by reinforcing and deepening regional cooperation and integrationto advance connectivity, financial cooperation and market integration. Theresearch and analysis undertaken by ESCAP, coupled with its policy advisoryservices, capacity building and technical assistance to governments aims tosupport countries’ sustainable and inclusive development ambitions.Information and statistics presented in this publication include only thosemember and associate member States located in the Asia-Pacific region.*The designations employed and the presentation of material on this map do not imply theexpression of any opinion whatsoever on the part of the Secretariat of the United Nationsconcerning the legal status of any country, territory, city or area or of its authorities, or concerningthe delimitation of its frontiers or boundaries.

2021REGIONAL TRENDS REPORTShaping a SustainableEnergy Futurein Asia and the PacificA GREENER, MORE RESILIENTAND INCLUSIVE ENERGY SYSTEMUnited Nations publicationSales no.: E.21.II.F.3Copyright @ United Nations 2021All rights reservedISBN: 978-92-1-120821-4e-ISBN: 978-92-1-604002-4ISSN: 2618-107Xe-ISSN: 2618-1088ST/ESCAP/2933This publication may be reproduced in whole or in part for educationalor non-profit purposes without special permission from the copyrightholder, provided that the source is acknowledged. The ESCAP PublicationsOffice would appreciate receiving a copy of any publication that uses thispublication as a source.Use may not be made of this publication for resale or any othercommercial purpose whatsoever without prior permission. Applicationsfor such permission, with a statement of the purpose and extent ofreproduction, should be addressed to the Secretary of the PublicationsBoard, United Nations, New York.Cover photos:Istock photo #537887302Istock photo # 851449160The designations employed and the presentation of the material in thispublication do not imply the expression of any opinion on the part of theUnited Nations concerning the legal status of any country, territory, city orarea, or of its authorities, or concerning the delimitation of its frontier orboundaries.

iiForewordEnergy has played a key role in the Asia-Pacific region’s rapid economicgrowth, creating development opportunities and improving the livesof billions of people across communities. Yet, while the COVID-19pandemic has posed multiple socio-economic development challenges,transitioning to a sustainable energy future remains a critical aspectof recovering better together. The pandemic has further highlightedthe central role that energy plays in the delivery of distance and onlineeducation, digital health services and teleworking.Building on ongoing work of the United Nations Economic and SocialCommission for Asia and the Pacific (ESCAP) to advance the SustainableDevelopment Goal 7 (SDG 7), member States need to advance cleartargets for universal access, increase renewable energy and improveenergy efficiency, while Nationally Determined Contributions under theParis Agreement provides a basis for limiting greenhouse gas emissions.With the current pace, the Asia-Pacific region will not be on track to meetSDG 7 and the Paris Agreement goals.The aim of this report is to assess the ambitions and progress of ESCAPmember States in the achievement of global, regional and nationalsustainable energy objectives, and to discuss solutions to the keychallenges. The report assesses the potential for sustainable energy andbuilding back better from COVID-19 to be mutually reinforcing, providingrecommendations on how to develop greener, more inclusive energysystems that offer greater resilience to future crises.We have a historic opportunity to accelerate the deployment ofsustainable technologies by directing investment towards renewableenergy, energy efficiency and electric mobility. We need to furtherstrengthen policy coherence and engage the private sector in financingthe sustainable energy transformation. Drawing on the most up-to-datedata across the SDG 7 targets, the analysis in this report considers a rangeof examples and key lessons from the varied experience across the regionto inform and improve future decision-making efforts.ESCAP stands ready to work with stakeholders of the region and itsmember States to achieve a vision of a transformed energy system thatensures greater resilience and supports mitigation of climate change. It ismy hope that this report will provide a basis for enhanced energy policiesin pursuit of SDG 7 and the Paris Agreement goals as we recover bettertogether in Asia and the Pacific.Armida Salsiah AlisjahbanaUnder-Secretary-General of the United Nationsand Executive Secretary of ESCAPShaping a Sustainable Energy Futurein Asia and the PacificA GREENER, MORE RESILIENTAND INCLUSIVE ENERGY SYSTEM

/ iiiAcknowledgementsThis report was developed by the Energy Division of ESCAP under theoverall direction and guidance of Hongpeng Liu, Director of the EnergyDivision, and Michael Williamson, Section Chief of the Energy Division.Kaveh Zahedi, Deputy Executive Secretary provided overall review andguidance to finalize the report.The principal author of the report was Kimberly Roseberry. Thecontributors from the Energy Division were David Ferrari, Faran Rana,Sergey Tulinov, Michael Williamson and Matthew David Wittenstein.The peer review and valuable suggestions were provided by SE4All,including from Olivia Coldrey, Tamojit Chatterjee, Brian Dean, HannahGirardeau, Luc Severi and Ruchi Soni.Robert Oliver edited the manuscript. The cover and design layoutwere created by Lowil Espada. Administrative and secretarial supportwas provided by Prachakporn Sophon, Nawaporn Sunkpho, ThirayaTangkawattana and Sarinna Sunkphayung.Mitchell Hsieh, Katie Elles, Kavita Sukanandan, Christophe Manshoven,Sompot Suphutthamongkhon and Chavalit Boonthanom of the ESCAPCommunications and Knowledge Management Section, coordinated thedissemination of the report.

ivContentsForeword iiAcknowledgements iiiList of boxes viList of figures viList of tables viAbbreviationsand acronyms viiiExecutive summary ixINTRODUCTION xiiCHAPTER 1SUSTAINABLE ENERGYDEVELOPMENT:SITUATION ANDTRENDS 1Energy supply and use inAsia and the Pacific 1Growing momentum for asustainable energy transition 3SDG 7 as a guidingframework for the energytransition 6The outlook for meetingthe SDG 7 targets is mixed The sustainable energypolicy landscape Shaping a Sustainable Energy Futurein Asia and the PacificCHAPTER 2ENHANCING INCLUSIVEDEVELOPMENT BYPROGRESSINGENERGY ACCESS 13The context for energyaccess 13Progress towards universalenergy access to energy 15Clean cooking: A deep diveinto impact, and barriers touptake 228Major challenges toachieving universal accessto energy 2710Solutions to the challengesof universal access 34A GREENER, MORE RESILIENTAND INCLUSIVE ENERGY SYSTEM

/vCHAPTER 3A GREENER ENERGYSYSTEM THROUGHINCREASINGRENEWABLE ENERGYAND ENERGYEFFICIENCY 36The context for greenenergy 37CHAPTER 4BUILDING A RESILIENTENERGY FUTUREFOR ASIA AND THEPACIFIC 67First steps towardsrecovery from COVID-19 67Opportunities for thepandemic recovery 69The need to balance the“Energy Trilemma” for theenergy transition 69New considerations forenergy resilience 7378Regional and subregionalprogress in increasing theshare of renewable energyand lowering energyintensity 40Key regional trends 47Advancing clean energysystems A changing context forenergy resilience 57Moving beyond the pandemictowards an acceleratedsustainable and resilientenergy transition 79CONCLUSION ANDRECOMMENDATIONS 81Conclusion 81Recommendationsfor policymakers 83References 86

viList of boxesBox 1Box 2Box 3Box 4Box 5Electricity access systematic review findings Defining “clean cooking” Impact of COVID-19 on off-grid energy access Supporting renewables deployment with connectivity Data gaps and challenges 1418256065List of figuresFigure 1.Figure 2.Figure 3.Figure 4.Figure 5.Figure 6.Figure 7.Figure 8.Figure 9.Figure 10.Figure 11.Figure 12.Figure 13.Figure 14.Figure 15.Figure 16.Figure 17.Figure 18.Figure 19.Figure 20.Figure 21.Figure 22.Figure 23.Figure 24.Figure 25.Figure 26.Total energy supply by resource in Asia and the Pacific, 2000-2018 Final energy consumption by sector in Asia and the Pacific, 2000-2018 Per capita CO2 emissions from fuel combustion in Asia and the Pacific, 2000-2018 Per capita final consumption in Asia and the Pacific by income group, 2018 Asia-Pacific needed annual investments under IRENA’s Transforming Energy Scenario throughto 2050 Asia-Pacific clean energy investments, 2015-2020 Percentage of the population with access to electricity and clean cooking in Asia and the Pacific Access to electricity across Asia-Pacific subregions Asia-Pacific population without access to electricity, 2018 Access to clean cooking across Asia-Pacific subregions, 2010 and 2018 National rates of clean cooking, and 2000-2018 annual average gains (percentage points) Off-grid installed capacity in Asia and the Pacific, 2019 Electrification of health institutions and schools in select economies Percentage of population with access to electricity; population without access to electricityin Asia and the Pacific, 2000-2018 Percentage share of Asia-Pacific urban and rural populations with access to clean cooking Primary reliance on clean cooking and appliance ownership in Lao households Household cooking fuel and technology in Lao PDR Example results-based financing model for clean cookstoves CO2 emissions by fuel source in Asia and the Pacific and the rest of the world, 2000-2018 Fossil fuel subsidies in Asia and the Pacific, 2010-2019 Modern renewable percentage share of total final energy consumption, 2017 Renewable percentage share of electricity generation, 2018 Renewable share of total final energy consumption, 2000-2017 Modern renewable share of total final energy consumption, 2000-2017 Renewable energy production in Asia and the Pacific, by subregion, 2000-2018 Top ten economies: Modern renewable share of total final energy consumption, 2017 Shaping a Sustainable Energy Futurein Asia and the PacificA GREENER, MORE RESILIENTAND INCLUSIVE ENERGY 345

/ viiFigure 27. Energy intensity across global regions and Asia-Pacific subregions Figure 28. Energy intensity and annual change, 2000-2017 Figure 29. Growth rate of primary energy intensity, by period, and current global target rate Figure 30. Utility-scale solar PV weighted average cost of electricity, 2016 and 2019, and percentagechange Figure 31. Onshore wind weighted cost of electricity, 2010 and 2019, and percentage change Figure 32. Asia-Pacific energy supply and efficiency investments, 2015-2020 Figure 33. Renewable energy generation costs and generation equivalent costs of energy efficiencyFigure 34.Figure 35.Figure 36.Figure 37.Figure 38.Figure 39.Figure 40.Figure 41.Figure 42.Figure 43.Figure 44.Figure 45.Figure 46.measures in New Zealand RISE policy and regulatory framework scores for clean energy, 2019 Carbon pricing in Asia and the Pacific Global renewable energy employment by technology Renewable energy jobs in Asia and the Pacific, 2019 Renewable energy jobs per 100,000 people, 2019 Quantified energy policy commitments by category share, 2020 Construction and manufacturing jobs created per million dollars of capital investment;emissions by sector, 2018 The phases of the energy transition Balancing the “Energy Trilemma” Asia-Pacific WEC Energy Trilemma Index scores and dimension grades, 2020 Global energy infrastructure pandemic resilience scores Potential threat impacts to utilities Cumulative end-of-life solar PV panel waste projections in a high-loss scenario for selectedAsia-Pacific economies 4546474949545458596464666870717273757677List of tablesTable 1.Table 2.Table 3.Table 4.Table 5.Table 6.Table 7.Asia-Pacific region progress and outlook for achieving SDG 7 targets Results – systematic review of electricity access Top 10 Asia-Pacific economies, average annual gains in electrification, 2010-2018 ISO voluntary performance targets for clean cookstoves Cookstove initiative meta-analysis – general findings Multi-tier matrix for measuring access to household electricity supply Creating an enabling environment for progressing energy access 9141718233036

viiiAbbreviations and acronymsABCadvanced biomass cookstoveLPGliquid propane gasADBAsian Development BankMTFMulti-Tier FrameworkACEASEAN Centre for EnergyMtoemillion tonnes of oil t-hoursCAGRcompound annual growth rateNDCsNationally Determined ContributionsCCUScarbon capture utilisation and storageNGOnon-governmental organizationDREdistributed renewable energyP2Ppeer-to-peerESCAPUnited Nations Economic and SocialCommission for Asia and the PacificPAYGpay-as-you-gopppercentage pointsESCOsenergy services companiesPPApower purchasing agreementEVselectric vehiclesPPPpurchasing power parityFiTfeed-in tariffPULSEproductive use leveraging solar energyGDPgross domestic productPVphotovoltaicGHGgreenhouse gasRBFresults-based financingHDIHuman Development IndexSDGsSustainable Development GoalsICSimproved cook stovesSHSsolar home systemIEAInternational Energy AgencyTFECtotal final energy consumptionIoTInternet of thingsTPEStotal primary energy supplyIPPindependent power producerTWhterawatt-hoursIRENAInternational Renewable Energy AgencyVREvariable renewable energykgkilogramWHOWorld Health Organizationkoekilogram oil d cost of electricityReferences to dollars ( ) are to United States dollars unless otherwise stated.Shaping a Sustainable Energy Futurein Asia and the PacificA GREENER, MORE RESILIENTAND INCLUSIVE ENERGY SYSTEM

/ ixExecutive summarySustainable Development Goal 7 (SDG7) targets universal access to energy,increasing renewable energy’s share in theglobal energy mix, and doubling the rateof energy efficiency improvement. SDG 7offers a framework for realizing not onlya sustainable energy future, but alsounderpins the achievement of myriadsocioeconomic development objectivesin areas including poverty, education,sustainable cities and communities,and the fight against climate change. Asthe world grapples with the continuingchallenges of the COVID-19 pandemic, therole of energy in sustaining economies andlivelihoods, while enabling the delivery ofhealth services and vaccine rollouts, hasbeen highlighted.Societal and economic disruptions dueto the pandemic have given rise to callsfor nations to “build back better,” withgreener, more resilient and inclusiveenergy systems. While the full set ofpolicy responses has yet to be seen,regional leaders have issued a wave ofcommitments towards reduced carbonemissions, to be achieved largely throughexpanded renewable energy capacity andenergy efficiency. At the time of draftingof this report, however, the plans andfinancial measures to achieve theseobjectives remain unclear, and manystimulus measures announced to datehave favoured fossil fuels.Large investments are needed for thetransition to sustainable energy, andcurrent investment levels are falling short.Evidence demonstrates the co-benefitsof investing in energy access, renewablesand energy efficiency, including increasedjobs, gender equality, strengthened energysystem resilience and stronger economicrecovery, making sustainable energy aprudent component of pandemic recoveryefforts. However, regional economies mustwork to improve policy certainty and theinvestment environment in order to attractneeded capital.Progress towards achieving the SDG 7targets is mixed, with the region fallingshort of the pace needed to achieve the2030 goal. The greatest strides have beenmade in expanding access to electricity.National grids have been extended andoff-grid renewable-energy systems arebringing electricity into an increasingnumber of households in hard-to-reachareas. Universal access to electricity inurban areas has almost been achieved,with a 2018 urban electrification rate of99.7 per cent for the Asia-Pacific region.Rural areas lag behind at 92 per cent.Plans and targets to provide electricalconnections are generally robust, althoughenergy access is a multi-faceted issue andimprovements are needed in the areas ofquantity and quality of energy services.Rural areas are particularly under-served,and the institutions that communitieshave most relied upon in the times of thepandemic – health clinics and schools –have suffered from unreliable servicesthat hinder their ability to deliver criticalservices.

xAccess to clean cooking fuels andtechnologies remains the most overlookedSDG 7 target in terms of progress, policyand investment. Yet, a number of positivenational examples of clean cookinginitiatives have emerged within the AsiaPacific region, demonstrating the abilityto initiate strong policies to enablerapid progress in bringing modern, cleancooking options that can deliver socialand health benefits, especially for womenand children. Surveys have demonstratedhousehold willingness to pay for andadopt modern appliances, but marketmismatches in terms of perceived value,utility and affordability comprise some ofthe barriers that must be overcome withincreased awareness as well as innovative,reliable products and delivery models.An increasing share of the final energymix is derived from renewable energy, asthe Asia-Pacific region has experiencedrapid growth in this sector. In 2017,modern renewables accounted for 8.1 percent of total final energy consumption.Hydropower has provided the bulk ofthe region’s growing renewable energysupply, but water shortages from changinghydrological conditions have led torecent reductions in power production,while cross-border resource managementremains a challenge in some river basins.Evolving technologies and falling priceshave supported the rise of variablerenewables in the power sector, witha growing number of megaprojects forsolar and wind appearing, which areundercutting the costs of an increasingnumber of fossil fuel powerplants. Smallscale renewable energy systems are alsobeginning to contribute significantlyto the energy supply in some areas, andShaping a Sustainable Energy Futurein Asia and the Pacificare opening up opportunities to applyemerging technologies, including virtualpowerplants and peer-to-peer energytrading.While progress in the deployment ofrenewable energy has been rapid, theAsia-Pacific’s share of renewables in theenergy mix remains low compared withother global regions; regional economiesmust address key barriers to the growthof the sector, including inadequategrid infrastructure and unstable policyenvironments. Renewable energy pricingvaries across economies and fossil fuelscontinue to be favoured in some contexts,particularly those with domestic fossilfuel resources. However, improvedtechnologies, growing economies of scale,more competitive supply chains anddeveloper experience are expected todrive continued reductions in renewableenergy prices.Energy intensity has steadily declinedacross the region, indicating ongoingprogress in energy efficiency. In there g i o n’s l a rge r e co n o m i e s , e n e rg yefficiency enhancements are helping todrive a regional improvement trend thatoutpaces the global rate of progress.Still, Asia-Pacific energy intensity – 5.2MJ per 2011 PPP in 2017 – remainshigher than the global average of 5.0,and the opportunity for the applicationof energy efficiency measures is large.While minimum energy performancestandards cover a growing share ofenergy consumption, broader applicationacross sectors is needed alongsideincentives, support for energy servicecompanies, financing and harmonizationthat can facilitate growth in clean energytechnology production and trade.A GREENER, MORE RESILIENTAND INCLUSIVE ENERGY SYSTEM

/ xiInvesting in energy efficiency is a costeffective option for lowering the demandon energy systems and reducing theneed to produce more energy. Evidenceshows that energy efficiency investmentscan increase power supply availabilityat generation-equivalent costs that arelower than new generation. Yet, moreinvestment dollars are directed towardsupply, including fossil fuel supply. Theelimination of fossil fuel subsidies andwider adoption of carbon pricing canincentivize emission reductions as wellas spur development, both in energyefficiency and renewables.Advancing clean energy requires strongerpolicy and regulatory frameworks thatprovide predictability through progressivet a r g e t s , c o m p re h e n s i v e p l a n n i n g ,regulations and incentives. Governmentshave a leading role to play in the creationof an attractive investment environment,while approaches are needed that betterbalance the elements of the “energytrilemma” – energy security, energy equityand environmental sustainability. Atthe same time, emerging concerns andexternal threats to energy systems must beconsidered. The growth of the clean energysector is dependent upon the supply ofcritical raw materials, and new geopoliticaldependencies can be expected to emerge.Pandemics, cybersecurity and climatechange present challenges that requireawareness, planning and greater expertiseto combat the threats that they present,particularly as energy systems diversify,decentralise and digitize.COVID-19 pandemic recovery effortsoffer the opportunity to accelerate theenergy transition with smart, jobs-driveninvestments in clean energy. Prioritisationof “shovel-ready” projects that buildon existing successful initiatives andexperience, and align with national plans,can provide the foundation for successfulrecoveries. In the long term, the strongestapproaches will be those that arecomprehensive and holistic, designed toprovide a range of social, economic, healthand environmental co-benefits.Regional cooperation, from dialogue andknowledge exchange to the developmentof harmonized and interconnected energymarkets, can facilitate the acceleration ofthe sustainable energy transition. ESCAPoffers an intergovernmental platform andtechnical capacity to support membercountries in engaging in cooperativeefforts.

xiiINTRODUCTIONAsia and the Pacific – a diverseregion setting the global direction forsustainable energyThe Asia-Pacific region stands at the centreof the global energy stage, with its rapidlygrowing energy demand, expanding economicpower, and rising leadership in sustainableenergy. The region consumes half of the world’senergy and, with growing industrialization,GDP growth outpaces other global regions. Thecentre of renewable energy and energy efficienttechnology manufacturing is here, as are theworld’s largest renewable energy installations.Approximately twice as many people have gainedaccess to electricity in Asia and the Pacific since2010 than the rest of the world combined.10 smallest.1By population,the region has six ofthe biggest countries,2 withChina and India being the toptwo globally, each with a populationgreater than all of Africa. Meanwhile,numerous Pacific economies rank among theworld’s smallest. Geographically, 3 the RussianFederation has the world’s largest land area,with more than 16 million square kilometres,while Nauru has the smallest, at just 20 squarekilometres. Between all of these extremes a widespectrum of national situations can be found.In terms of energy, the economies of Asia andthe Pacific are faced with equally distinct andbroad-ranging circumstances. These are deeplyconnected to economic, social and geographicfactors, but are also driven by national priorities,policies and practices. On a per capita basis,energy consumption rates in 2018 varied 18-foldbetween the lowest and highest consumingnations.1At the same time, the region is defined by itsdiversity. It includes three of the world’s top10 largest economies of 2019, and eight of the23Shaping a Sustainable Energy Futurein Asia and the PacificAccording to data from the World Development IndicatorsDatabase, World Bank, updated 1 July 2020. For the top10 economies, Asia-Pacific economies held the following2019 rankings: China (2), Japan (3) and India (5). For thesmallest 10 economies with data, Asia-Pacific economiesheld the following rankings: Tuvalu (203, the world’ssmallest), Nauru (202), Kiribati (201), Marshall Islands(200), Palau (199), the Federated States of Micronesia(198), Tonga (196) and American Samoa (194).According to data for 2020 from the 2019 Revision ofWorld Population Prospects, United Nations StatisticalDivision.According to data from the World Development IndicatorsDatabase, World Bank, updated 1 July 2020.A GREENER, MORE RESILIENTAND INCLUSIVE ENERGY SYSTEM

/ xiiiThe nations of Asia and the Pacific havecommitted to the 2030 Agenda for SustainableDevelopment. Adopted in 2015, the agendaestablished 17 Sustainable Development Goals(SDGs), including SDG 7 – Ensure access toaffordable, reliable, sustainable and modernenergy for all. The energy-related Goal 7 containsthree targets to be achieved by 2030 – 7.1 toensure universal access to affordable, reliableand modern energy services, 7.2 to increasesubstantially the share of renewable energy inthe global energy mix, and 7.3 to double theglobal rate of improvement in energy efficiency.The SDG targets are global but offer guidanceto Governments in setting their own objectivesand targets. Ultimately, the ambitions, actionsand achievements by individual economies willdetermine the global level of success.sector affects hunger (SDG 2), health and wellbeing (SDG 3) and climate (SDG 13). As energydecision-makers work towards the achievementof SDG 7, the integrated nature of the SDGsrequires holistic thinking and interdisciplinaryapproaches.Energy is the “golden thread” connectingeconomic, social and environmental realms.With a direct influence on the progress of anumber of non-energy SDGs focused on areassuch as health, gender equality, climate andsustainable production, consumption andcities, energy is one of the keys to facilitatingor restricting progress across the developmentagenda. Policy choices concerning the selectionof energy resources, and the extraction,conversion, distribution and consumption ofenergy, can have both positive and negativeinfluences on the achievement of SDG 7 as wellas each of the other SDGs (McCollum et al.,2018). For example, increasing the power supplyto support achievement of universal access toenergy (SDG 7) also enables progress for SDGsrelated to: poverty (SDG 1) by providing a keyinput to business and livelihood activities;education (SDG 4) through providing lightneeded for studying, or power for computers andother educational equipment; and sustainablecities and communities (SDG 11) where lowemission power supplies can improve air quality.Depending on the resources chosen, energy canhave constraining or counteracting impacts onother goals. For example, land-use changes,water stress or pollution arising from the energySustainable energy and the battle againstclimate changeThe global commitment to sustainable energyis strengthened by collaboration at the regionaland subregional levels, including under theAsia-Pacific Energy Forum, through which themembers and associate members of the UnitedNations Economic and Social Commission forAsia and the Pacific (ESCAP) have committed toaccelerating progress towards achieving targetsunder the three priority areas of SDG 7 – energyaccess, renewable energy and energy efficiency.4Energy is a central component of the ParisAgreement’s aim to keep global temperaturerise below two degrees Celsius above preindustrial levels, and to pursue efforts tolimit the temperature increase even further to1.5 degrees Celsius. 5 The climate agenda isadvanced through the delivery of NationallyDetermined Contributions (NDCs) under whichsignatory nations put forward their best effortsto reduce greenhouse gas emissions, periodicallyenhancing them through a process of revisionto ensure that ambition is increased over timeas financial and technical solutions becomeavailable.Concentrations of carbon dioxide in theatmosphere currently show no signs of peaking45See the 2018 Ministerial Declaration of the Second Asianand Pacific Energy Forum, available at: https://www.unescap.org/sites/default/files/ESCAP 74 28 Add1Ministerial%20Declaration.pdf.Paris Agreement to the United Nations FrameworkConvention on Climate Change, Dec. 12, 2015, T.I.A.S. No.16-1104.

xivand continue to rise to new record levels.Due to a fall in energy demand, the pandemichas resulted in a decrease in emissions,but will not reduce carbon concentrations(World Meteorological Organization, 2020).Transformational actions are needed to reducethe consequences of a warming atmosphere,while the transition to low-carbon energysources and technologies is critical to efforts todeliver climate change mitigation. Actions andinvestments are needed that build on experiencein evolving energy systems and lower technologycosts to deliver cumulative returns not onlyfor the energy sector, but for economies, theenvironment and the health of societies.SDG 7: Ensure access to affordable, reliable,sustainable and modern energy for allTHE TARGETSThe C

Figure 5.Asia-Pacific needed annual investments under IRENA'sTransforming Energy Scenario through to 2050 5 Figure 6.Asia-Pacific clean energy investments, 2015-2020 11 Figure 7.Percentage of the population with access to electricity and clean cooking in Asia and the Pacific 15 Figure 8.Access to electricity across Asia-Pacific subregions 16

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