Carbon Peak and Carbon Neutralization Information Support Platform
Правительство утвердило актуализированную редакцию Стратегии в области цифровой трансформации в сфере госуправления до 2030 года. Её ключевыми направлениями стали автоматизация административных процессов, внедрение и применение искусственного интеллекта. Документ PDF 709Kb Распоряжение от 9 июля 2026 года №1779-р На сегодняшний день Правительством ведётся системная работа по оптимизации бюрократических процедур за счёт внедрения цифровых технологий, в том числе в документообороте. Ключевым результатом является сокращение количества документов на 10% и согласований – на 8%, а также уменьшение объёма ручного ввода данных на 42% по оптимизированным процессам. Также за последние 5 лет среднее время согласования документов сократилось втрое, и теперь составляет один день, а срок выпуска нормативных актов уменьшился в 48 раз – до 15 минут. В марте 2026 года также был запущен пилотный проект по внедрению ИИ-сервисов на площадке Аппарата Правительства. Участие в нём приняли более 130 сотрудников из 8 пилотных структурных подразделений. По итогам пилота принято решение о масштабировании ИИ-сервисов на все структурные подразделения Аппарата, а также об интеграции технологий искусственного интеллекта в систему электронного документооборота. Кроме того, началась работа по размещению протестированных ИИ-сервисов на площадке ГАС «Управление» для их использования ФОИВ и регионами.
发布时间:2026-07-16 Правительство России
As AI Factory deployments accelerate, infrastructure requirements are rapidly expanding beyond conventional data centers toward industrial-scale environments. Leveraging its expertise in power systems, cooling technologies, and industrial engineering, MHI is advancing an integrated AI infrastructure portfolio that combines advanced cooling, modular systems, and power technologies to support this transition. To address increasing power and cooling challenges for scaling of AI-ready data center infrastructure, MHI has shipped its 10MW-class centrifugal chiller test unit to the United States, supporting next-generation high-density AI workloads with arrival scheduled at the Port of Brunswick, Georgia around July. The shipment marks an important commercialization milestone in MHI's integrated AI infrastructure strategy. As part of this strategy, MHI is advancing its Modular Chiller Plant (MCP), a pre-engineered cooling system that integrates MHI's centrifugal chiller as its core cooling component together with pumps, heat exchangers, and controls into a modular architecture. The MCP is designed to support NVIDIA DSX™-aligned cooling architectures and scalable liquid-cooled AI deployments while simplifying deployment and enabling scalable expansion. MHI's MCP architecture enables effective utilization of free-cooling operation modes and improved Power Usage Effectiveness (PUE), while its closed-loop configuration addresses growing concerns around water scarcity and Water Usage Effectiveness (WUE) in large-scale data centers. MCP is currently undergoing U.S. safety and regulatory certification, including UL certification, with shipment of the centrifugal chiller contributing to certification readiness ahead of commercial deployment. Designed to reduce onsite integration requirements and support future growth, MCP helps hyperscale, colocation, and AI infrastructure operators efficiently manage cooling as computing densities continue to increase. Delivering AI factories at scale requires close collaboration across compute, power, and cooling. NVIDIA DSX is NVIDIA's AI factory-scale platform, unifying design, simulation, operations, and ecosystem technologies. Supporting this strategy, MHI participates in the NVIDIA Partner Network as a Power & Cooling Partner and works with NVIDIA and ecosystem partners to advance integrated power and cooling technologies for NVIDIA DSX. MHI's expertise in energy, engineering, and industrial infrastructure systems underpins these solutions. The centrifugal chiller is based on proven technology with a strong track record in mission-critical applications, while MHI's advanced power initiatives, including 800VDC, are built on decades of experience in large-scale power infrastructure and transportation systems, and are developed in collaboration with ecosystem partners. "AI growth is driving a step-change in infrastructure scale and complexity," said Shin Gomi, Senior General Manager, Data Center & Energy Management, Mitsubishi Heavy Industries, Ltd. "By combining advanced cooling technologies, modular design, and industrial engineering expertise with NVIDIA AI infrastructure, MHI is helping enable the scalable, reliable, and energy-efficient AI infrastructure." "AI factories require compute, power, and cooling to be designed as one system. NVIDIA DSX provides the platform for that system-level approach. MHI's work in large-scale cooling and 800 VDC power infrastructure can help ecosystem partners build more scalable and energy-efficient AI factories," said Vladimir Troy, Vice President of AI infrastructure at NVIDIA. Looking ahead, MHI continues to expand its integrated AI infrastructure portfolio through technology investments that support the evolving requirements of AI Factory and high-density computing environments.
发布时间:2026-07-16 Mitsubishi Heavy Industries
For the average citizen, Algae is often viewed as a problematic growth, sometimes found in backyard swimming pools and in-home fish tanks. These environments are constantly trying to eliminate and prevent algae formation. On the other hand, algae today in greenhouse gas emissions reduction efforts and biofuel production via algae growth are significant; where algae support environmental improvement (via CO2 sequestration) and supports biofuels, which should be among the most acute demands of our time. Coincidentally, with restrictions on fossil fuels in the Middle East; this is ever more critical than before. In addition to ethanol projects today, the electric utility sector has tested the injection of hot flue gas from coal and gas fired power plants, with the potential for carbon sequestration. Certain blue-green algae can grow in an environment with hot flue gas from such power or chemical projects. Via photosynthesis, carbon dioxide and water are basic requirements for algae growth, and oxygen plus water vapor are by-products from this process. The algae also can absorb SOx and NOx; two compounds which cause acid rain. The algae process from power, combustion, and other chemical projects including ethanol are therefore a means of sequestering carbon, plus, in some cases, other environmentally harmful agents, with an energy source feedstock in the form of algae generated; which could be used for both ethanol and biodiesel projects. As for ethanol and biodiesel, when a full loop or cycle is considered, whereby ethanol yields CO2 as a by-product, and this CO2 is then used in algae growth, from this point, algae can be used in the manufacture of biodiesel and/or a feedstock for fermentation as ethanol; conceivably a cycle is then generated; that being a cycle using CO2 from ethanol and other CO2 sources for production of algae; and this algae returning as a feedstock for ethanol or as a feedstock in biodiesel projects. The algae growth is a CO2 sink, or form of sequestering carbon; thus, it is extremely important today, as would be generating a viable, highly efficient form of plant oil from algae. Algae could be considered the most viable oil source available, growing more rapidly than any other material. Please see illustration 1 for the CO2 an algae sourcing concepts for biodiesel and ethanol production. As a rule of thumb, approximately one ton of carbon dioxide would be removed (from otherwise airborne emissions) via the growth of two tons of algae. Carbon Dioxide – Gross Yield, Markets, and Ethanol Merchant Carbon dioxide is well known as a soft drink carbonation agent, a cryogenic fluid, and an industrial gas consumed in foundries, to name a few. Globally, there is an estimated 25 million tons of total CO2 emissions daily absorbed by the oceans, leaving a gross 50 million tons in excess, beyond the ocean’s ability to take on this gas as a natural process, again this is on a daily schedule, all produced from industrial and biological processes. This is primarily power plant, flue gas & chemical by-product; to follow with a wide range of other processes daily. This total 50 million tons of carbon dioxide in excess each day is growing at an astronomical rate, from an emissions perspective. Next is the question of growing energy demand. The U.S. has a dire need to become green energy independent, as well as other continents and countries throughout the globe. Even in markets which are oil rich, CO2 sinks must be established which are of a viable nature, v. those which are not true sequestration methods, such as enhanced oil recovery (EOR), and class VI wells. Therefore, using CO2 from ethanol sources as an ingredient for algae growth, is an excellent CO2 sink, since algae oil can then be used to produce biodiesel. Some 40% of the U.S. merchant CO2 is sourced from ethanol v. other sources in the United States. The U.S. Midwest is today well satisfied with merchant CO2 from ethanol, assuming all current CO2 from ethanol sources continue. Other regions of the US and various global markets are also candidates for CO2 from ethanol; that being for merchant use. As for algae use, all regions are wide open when ethanol and CO2 emitting sources exist. The ethanol markets in the US and Brazil essentially equal each other in terms of volume, however, corn-based ethanol sources run year-round v. those sourced from sugar cane, as found in Brazil. The problem with the sources in Brazil, if dedicating these sources to the algae production, a chemical process, or the merchant markets, yield a void period due to the timing associated with sugarcane crops as well as the lack of a viable means for storage of sugarcane v. corn. At one time, and in error, corn gained a negative reputation in terms of creating food shortages and high food prices; which is not correct; evermore in today’s world. Since most of the corn is dedicated to markets other than ethanol, those concerned about grain use as a feedstock sometimes sought alternate feedstocks, such as algae. Ethanol is one of today’s hopes to become green energy independent in the U.S., and elsewhere; and the drive in some markets to increase the gasoline blend to E-15, only makes sense. Biodiesel growth, Feedstock Yield & Projects Algae have basic requirements for growth, including CO2, water, nutrients, and sunlight. CO2 is a major by-product of ethanol production. Algae can serve as a feedstock for biodiesel and ethanol. The discussion surrounding this article surrounds the biodiesel sector, where on the front end, CO2 is one ingredient for growth of algae; and algae is then discussed as perhaps the ultimate source of plant-based oil for biodiesel. It is also well known that algae can flourish in otherwise hostile growing environments, including non-arable land, or in dirty water. When algae flourishes, it is unmatched by any terrestrial feedstock known. Algae can double in mass several times daily. In the United States, Iowa and Texas have traditionally been the largest producers of biodiesel; with a total of 11 plants or so; with a newfound interest in SAF. Of course, B100 as 100% biodiesel is more expensive than diesel; so the most common form of biodiesel is 20% by volume, or B20 more commonly known. With respect to estimating the number of U.S. gallons of biodiesel produced from a variety of feedstock materials, algae is often considered the highest in efficiency when compared to a variety of other materials, for example, table 1 below has estimates which are defined in terms of gallons of biodiesel per acre (gpa). Table 1 – feedstock yield from acreage of crop source CROP YIELD – gpa Algae 1,800 to 15,000 Tallow, Chinese 503 to 970 Palm Oil 508 Coconut 230 Rapeseed 102 Soy 59.2 to 98.6 Peanut 90 Sunflower 82 The DOE has estimated that algae fuel can yield up to 30 times more energy per acre than land crops such as soybean. A growing consensus suggests that biodiesel produced from algae is the only feasible solution today for replacement in full of petro-diesel products. No other feedstock has the oil yield sufficient in volume to produce such large volumes of oil. To illustrate this point, in order to produce sufficient oil for biodiesel from crops such as soy or palm, all growing regions for all of today’s crops would have to produce simply soy (for example) to yield sufficient biodiesel for full replacement v. producing a mix of biofuel the ideal algae strains and food dedicated products. Given the high oil yield from algae, from 10 to 45 million acres would be sufficient, as land, pond, or ocean space, to grow enough algae to replace the total petro- diesel fuel in the United States today. This is = 3.8% of the total amount of acreage used in the United States today for grazing and farming; that being about 1.19 billion acres. In the end, one could conclude that the vast superior biodiesel feedstock material for the large-scale replacement of petro-diesel is clearly algae. To produce large scale quantities of algae for such massive biodiesel projects, it is essential to have sustainable high oil producing strains of algae, often micro algae, on a large-scale basis; followed by the ability to adequately extract the oil from algae on such a scale. To follow, of course, there would need to be capabilities to convert algae oil into biodiesel. The first two steps are essentially specific to algae; and the final step is typical of all biodiesel processes related to all plant-based oils. The challenges of greatest need are defining & refining the most viable strains of algae strains and developing / maintaining the most effective and optimal cultivation methods. Furthermore, there is the potential of added opportunity for SAF. With respect to converting vegetable, plant, and algae oil into biodiesel is largely defined as transesterfication. Since algae can grow under severe conditions, a wide range of temperatures, pH, and salinity; such facilities can exist in places which are fully unsuitable for conventional agriculture. Again, key technical challenges are the right strains of algae with the highest oil content (oil or lipid content from algae can be converted into diesel or jet fuels by conventional oil refineries); also harvesting efficiently such algae is the other challenge with this feedstock. Summary As described in this article, algae are the most efficient means of producing a unique agricultural crop with a high vegetable oil content v. petroleum product; as well as oils from other well known and tested food crops, such as palm oil and soy crops. Moreover, algae do not take from foodstuffs, as would be what the press, the oil companies, and certain lawmakers have historically claimed as one of the reasons for high food prices when using corn in ethanol production. Food prices today, being sky high, are driven by high energy prices, and today, ExxonMobil’s $8.8 billion, the first quarter of 2026; given this, why does anyone believe corn in ethanol is the reason for the food pricing crisis today? High food prices are primarily driven by energy costs; and all of those who are attempting to foster the oil industry sometimes blame ethanol. On the other hand, ethanol has been a major saving grace as an alternative fuel option today, and will be tomorrow, considering the global hydrocarbon decline, oil & gas are finite and are declining rapidly. The best hope is a full range of feedstocks for ethanol, including the traditional corn, wheat, rice, and other grains used throughout history; however, today, and tomorrow, we can further balance this supply equation with the development of viable cellulostic technologies, as well as a growing use of algae as a feedstock in the production of biofuels. When considering the loop obtained when producing ethanol and the CO2 by-product feeding some of the essential processes whereby via photosynthesis the basic elements including light, CO2, water and nutrients yield fast growing strains of algae. Algae can grow at geometric rates; many times, beyond the alternate forms of plant-based oil derivatives, which in turn can be used as a feedstock material for ethanol as part of the loop back to ethanol; or perhaps more importantly a feedstock agent in the form of oils for biodiesel & SAF production. In the end, algae can grow in a wide variety of climates, in a wide range of terrain, and yield the most plentiful form of plant oil feedstock for biofuels. This is an extraordinary opportunity for replacement of diesel and jet fuels from biodiesel plants; and from ethanol plants, the ethanol – gasoline mix can use algae as a supplement or common feedstock. These oil replacement agents are the key to long-term self-sufficiency and energy management for the future; and algae can be the key. About the author As a very diverse CO2 consultant, Sam A. Rushing, of Advanced Cryogenics Ltd. is a chemist with 30 years in the CO2 industry, in both merchant and consultant roles. A full range of services are available from technical to market and business services. Call or send an e-mail to 305 852 2597; rushing@terranova.netwww.carbondioxideconsultants.com Author Sam A. Rushing (Advanced Cryogenics) Source Advanced Cryogenics, publication, 2026-06-16. Supplier Advanced Cryogenics, Ltd. Share Renewable Carbon News – Daily Newsletter Subscribe to our daily email newsletter – the world's leading newsletter on renewable materials and chemicals Subscribe
发布时间:2026-07-16 renewable carbon news
CEO and Founder, Tom Rose, holding ReVentas virgin-like recycled film © Reventas ReVentas, a Scottish start-up pioneering a new type of plastic recycling, has been awarded £3.5m grant funding from Scottish Enterprise to support the development of their solvent based recycling technology over the next three years. The funding, awarded as part of a £9m project, will help ReVentas further develop its proprietary recycling technology, with a particular focus on difficult to recycle plastics such as films found in food packaging. These materials remain one of the biggest challenges in plastic recycling today and will become an increasing priority for councils from 2028 onwards as requirements to collect and process films expands across the UK. ReVentas’ patented dissolution recycling technology uses a chemical solvent to rapidly dissolve waste plastics, filtering the polymer of contaminants including colour and odour, and producing a natural, virgin-like polymer that can be directly used in high value applications such as packaging, automotive and consumer products. The technology operates at low temperatures and pressures, reducing both process cost and carbon footprint, providing a sustainable route to recycling plastics at scale. ReVentas recently signed an engineering and licensing alliance agreement with global engineering company KBR to support the roll out of the technology globally. The Scottish Enterprise backed project will accelerate ReVentas ambition to take its technology closer to commercial deployment by expanding their pilot plant facility in Livingston to handle more complex plastic waste streams. CEO and Founder of ReVentas, Tom Rose, said: “Plastics are essential to every part of our lives, but we have not yet delivered workable solutions to deal with them at the end of life. ReVentas is providing a simple, scalable solution that can ensure the waste plastic we produce today are directly used in the products we buy tomorrow. “By continuing to develop our technology in Scotland, ReVentas can impactfully contribute to Scotland’s important net zero and circular economy goals.” Nicola Anderson, Director of Scaling Innovation at Scottish Enterprise, said: “ReVentas is developing pioneering recycling technology that has the potential to transform how valuable materials are recovered and reused, supporting Scotland’s transition to a more sustainable, circular economy. By turning cutting-edge innovation into commercial opportunity, the company is creating high-quality green jobs, attracting investment and strengthening Scotland’s position as a leader in clean technologies. “We are proud to have supported ReVentas throughout its growth journey. Over several years, Scottish Enterprise has worked alongside the company to secure international funding, develop a robust intellectual property strategy and unlock the investment needed to scale. More recently, our £2 million investment and this R&D grant are helping accelerate the development and commercialisation of technology with significant global potential. “ReVentas is a fantastic example of Scottish innovation delivering economic, environmental and social value. We look forward to continuing our partnership as the business grows internationally, creates new opportunities for Scotland and helps address some of the world’s most pressing sustainability challenges.” About ReVentas ReVentas is a Scottish recycling technology company based in Livingston, developing a patented solvent based recycling technology for polyethylene and polypropylene, the two most common plastics in use today. The process dissolves waste plastic, removes contamination including colour and odour, and produces a virgin-like recycled polymer suitable for high value applications. Based in Livingston, Scotland, ReVentas is focused on creating closed-loop recycling solutions that allow plastic waste to be reused in the products and packaging of the future. About Scottish Enterprise Scottish Enterprise (SE) is Scotland’s national economic development agency and a non-departmental public body of the Scottish Government. It supports businesses to innovate and scale to transform the Scottish economy by focusing on new market opportunities through targeted investment, innovation and internationalisation. Source ReVentas, press release, 2026-07-08. Supplier KBR ReVentas Scottish Enterprise Share Renewable Carbon News – Daily Newsletter Subscribe to our daily email newsletter – the world's leading newsletter on renewable materials and chemicals Subscribe
发布时间:2026-07-16 renewable carbon news環境省は、脱炭素化を進める観点から、従来の資源循環の取組よりさらに踏み込んだ資源の徹底活用を図るとともに、当該活用プロセスの省CO2 化を図ることとしています。 本事業は、再エネ関連製品(太陽光パネル、リチウムイオン電池、風力発電設備)等をリユースまたはリサイクル(解体、選別、再生材製造等)する技術またはスキーム構築の実証(委託事業)を行うものです。 令和8年度事業の実施主体について、次のとおり募集します。 ※本実証事業には委託事業と間接補助事業があり、本発表は委託事業の公募に係るお知らせです。間接補助事業に係る公募については、以下URL よりご確認ください。 https://www.jwrf.or.jp/individual/prj_001319.html ■ 実施対象事業 国内での社会実装に向けた脱炭素型の実証事業のうち、以下に取り組むもの。 再エネ関連製品(太陽光パネル、リチウムイオン電池、風力発電設備)やそのベース素材をリユースまたはリサイクル(解体、選別、再生材製造等)する技術またはスキーム構築の実証 その他製品等から鉄・非鉄金属・レアメタル等をリサイクル(解体、選別、再生材製造等)する技術またはスキーム構築の実証 ■ 公募対象者 本事業の公募対象者は、以下の(1)~(7)のいずれかに該当する者とします。また、複数の者による共同申請も可能です。ただし、共同申請の場合、原則として、その主たる業務を行う者が代表者として一括して受託することとします。 (1) 民間企業 (2) 独立行政法人通則法(平成11 年法律第103 号)第2条第1項に規定する独立行政法人 (3) 一般社団法人・一般財団法人及び公益社団法人・公益財団法人 (4) 大学 (5) 国立の研究開発機関又は独立行政法人と認められる研究開発機関 (6) 地方公共団体の研究開発機関 (7) その他支出負担行為担当官環境再生・資源循環局長が適当と認める者 ※ なお、委託費については、経理担当部局において管理等を行う必要があります。 ■ 予算 令和8年度は、1件あたりの事業費の上限を1億円(税込)程度とします。 ■ 事業実施期間 原則として、事業採択後の契約締結日から令和9年3月末までとします。 複数年度で行う事業の実施者は、毎年度の実証事業の達成目標をあらかじめ設定し、目標の達成について自己評価を行っていただきます。設定した目標の達成状況等については、各年度末に外部有識者から構成される国内資源循環体制構築に向けた再エネ関連製品及びベース素材の全体最適化実証事業評価審査委員会(以下「評価審査委員会」という。)が評価し、事業継続実施の可否について審査します。 なお、複数年度の事業は、評価審査委員会において事業継続が認められ、かつ各年度における本事業の予算が確保された場合に実施されるものとなります。 ■ 選定方法 環境省が事前審査(書類審査)を行った上で、評価審査委員会による審査を経て、採択事業を決定します。 ■ 契約の形態、金額等 事業実施者は、環境省との委託契約を締結することとします。なお、複数の者により共同実施する場合は、代表者が環境省との委託契約を締結することとし、共同実施者は、代表者との再委託契約を締結することとします。また、複数年度で実施する事業については、年度ごとに委託契約、契約金額の確定・精算を行うこととします。 ■ 応募方法について 以下に記載の郵送又は持参による方法で提出してください。 申請書様式に必要事項を記入の上、申請書一式を同封し、以下の提出先まで郵送(書留郵便等の配達の記録が残るものに限る。)又は持参してください。郵送する場合は、包装の表に「令和8年度国内資源循環体制構築に向けた再エネ関連製品及びベース素材の全体最適化実証事業(委託)申請書在中」と明記してください。また、申請書、事業概要スライドについては、E-mail でも提出してください。 なお、提出された申請書類は返却しませんので、あらかじめ御了承ください。 申請書一式:① 申請様式(正本1部) ② 事業概要スライド(1部) ③ 添付書類(様式任意、必要に応じて申請事業の準備状況を示す資料や技術の補足説明資料など) ④ ①~③の電子データが格納されたCD-R1部 【提出先】 〇 環境省環境再生・資源循環局資源循環課資源循環ビジネス推進室 〒100-8975 東京都千代田区霞が関1—2—2 担当:松原、藤瀬 E-mail: hairi-recycle@env.go.jp ■ 公募に関する質問 任意様式にて、法人名、質問内容、担当者名、連絡先(電話番号、E-mail)を記載の上、件名を「【質問】国内資源循環体制構築に向けた再エネ関連製品及びベース素材の全体最適化実証事業」として、上記の提出先まで、E-mail にて提出してください。質問への回答は、提出者へE-mail もしくは電話により行います。 質問受付期間:令和8年8月7日(金)17:00(必着) ■ 公募のスケジュール ・ 公募の開始 :令和8年7月16 日(木) ・ 質問受付締切 :令和8年8月7日(金)17:00(必着) ・ 申請書提出締切 :令和8年8月 26 日(水)13:00(必着) ・ 評価審査委員会の開催 :令和8年10 月上旬~10 月 中旬(予定) 添付資料 公募要領[PDF 268KB] 申請様式[Word 40KB] 連絡先 環境再生・資源循環局 資源循環課 資源循環ビジネス推進室 代表 03-3581-3351 直通 03-6206-1875 室長 五味 俊太郎 室長補佐 皆川 裕哉 担当 松原 直也 担当 藤瀬 皓太
发布时间:2026-07-16 環境省Ministry of the Environment環境省は、脱炭素化を進める観点から、従来の資源循環の取組よりさらに踏み込んだ資源の徹底活用を図るとともに、当該活用プロセスの省CO2 化を図ることとしています。 本事業は、再エネ関連製品(太陽光パネル、リチウムイオン電池、風力発電設備)等をリユースまたはリサイクル(解体、選別、再生材製造等)する技術またはスキーム構築の実証(間接補助)を行うものです。実証事業を行うために直接必要な設備費及び業務費について、1/2を上限に補助します。 当該事業に係る補助事業者(執行団体)である公益財団法人廃棄物・3R研究財団において、公募を行うこととなりましたのでお知らせします。 ※本実証事業には委託事業と間接補助事業があり、本発表は間接補助事業の公募に係るお知らせです。委託事業に係る公募については、以下URL よりご確認ください。 https://www.env.go.jp/press/press_05305.html ■ 公募する補助対象事業 国内での社会実装に向けた脱炭素型の実証事業のうち、以下に取り組むもの。 再エネ関連製品(太陽光パネル、リチウムイオン電池、風力発電設備)やそのベース素材をリユースまたはリサイクル(解体、選別、再生材製造等)する技術またはスキーム構築の実証 その他製品等から鉄・非鉄金属・レアメタル等をリサイクル(解体、選別、再生材製造等)する技術またはスキーム構築の実証 ■ 公募実施期間 令和8年7月16 日(木)~ 同年8月26 日(水) 13:00 必着 ■ 公募及び説明会の詳細 公募内容の詳細については、公益財団法人廃棄物・3R研究財団ホームページを御参照ください。 https://www.jwrf.or.jp/individual/prj_001319.html ■ 問合せ先 ○ 公益財団法人廃棄物・3R研究財団 担当:小口、三宅、上島、小田切 〒130-0026 東京都墨田区両国3-25-5 JEI両国ビル8階 TEL:03-6659-6424 E-mail: r.koudoka-4@jwrf.or.jp 連絡先 環境再生・資源循環局 資源循環課 資源循環ビジネス推進室 代表 03-3581-3351 直通 03-6206-1875 室長 五味 俊太郎 室長補佐 皆川 裕哉 担当 松原 直也 担当 藤瀬 皓太
发布时间:2026-07-16 環境省Ministry of the Environment1.環境省では、主として金融機関の皆様を対象に、移行計画を中心とした気候関連情報開示の質の向上と、取引先企業へのエンゲージメントを含めた具体的な 行動を促進することを目的として、「サステナビリティ情報開示フォーラム」(全2回、ハイブリッド形式) を開催します。 2.令和8年9月3日(木)に、第1回フォーラムを開催いたしますので、是非ご参加ください。 ■ 事業概要 このたび、環境省では、国内金融機関における移行計画を中心とした気候関連情報開示の質の向上と、取引先企業へのエンゲージメントを含めた具体的な行動を促進することを目的として、「サステナビリティ情報開示フォーラム」(全2回、ハイブリッド形式)を開催します。 本フォーラムは、国内金融機関によるベストプラクティス等の共有を図るとともに、開示から実行への橋渡しや、自治体連携に関する講演も予定しています。また、地域のGX・脱炭素化を推進する主体である自治体の皆様にもご参加いただき、金融機関と自治体の連携促進につながる場となることを目指します。 全国各地の金融機関・自治体の皆様に広くご参加頂けるよう、 東京と 大阪の2回に分け対面で集う機会を設けることにより、気候関連情報開示やエンゲージメントに関する取組の機運を高めるとともに、金融機関間の交流を促進し、取組事例や課題を共有する機会の創出を目指します。 【開催日時】 第1回:令和8年9月3日(木)14:00~16:00 第2回:令和8年12月上旬(予定) 【開催形式】:各回ともにハイブリッド形式(対面/オンライン) 【対象】:地域の脱炭素化の推進に関心のある金融機関及び自治体 その他関心のある皆様 ■ 第1回サステナビリティ情報開示フォーラム(東京開催) 【開催日時】:令和8年9月3日(木)14:00~16:00 【開催形式】:ハイブリッド形式(対面/オンライン) 【開催会場(対面参加の場合)】:株式会社三菱総合研究所 (東京メトロ南北線・銀座線「溜池山王駅」直結、東京メトロ千代田線・丸の内線「国会議事堂前駅」直結) 【開催概要(予定)】 ○基調講演 (1)環境省 大臣官房 環境経済課 環境金融推進室 企画官 齊藤 啓 (2)りそなアセットマネジメント株式会社 チーフ・サステナビリティ・オフィサー 常務執行役員 責任投資部担当 松原 稔 氏 ○金融機関・自治体講演 (1)株式会社 北洋銀行 成長戦略企画部 管理役 佐藤 祐矢 氏 (2)山梨県 森林環境部 地域エネルギー推進室 株式会社 山梨中央銀行 地方創成推進部 山梨未来創生室 室長代理 宇佐美 裕規 氏 ○パネルディスカッション ○参加者間の交流時間(閉会後1時間程度、対面参加者のみ) ※フォーラムの内容・登壇者は都合により変更となる場合がございます。 ■ 第2回サステナビリティ情報開示フォーラム(大阪開催) 【開催日時】:令和8年12月4日(金)(予定) 【開催形式】:ハイブリッド形式(対面/オンライン)で実施 【開催会場(対面参加の場合)】:環境省近畿環境局 (JR大阪環状線「桜ノ宮駅」徒歩5分、大阪メトロ堺筋線「扇町駅」徒歩10分) ※第2回サステナビリティ情報開示フォーラム(大阪開催)の詳細については、令和8年10月頃に予定している報道発表において改めてお知らせします。 ■ 参加申込み(第1回サステナビリティ情報開示フォーラム) ※第2回サステナビリティ情報開示フォーラム(大阪開催)の詳細については、令和8年10月頃に予定している報道発表において改めてお知らせします。 参加は登録制です。第1回フォーラムへの参加を希望する金融機関の方は、対面/オンラインのどちらの形式で参加する場合にも、下記URLより登録フォームに必要事項を御記入の上、お申込みをお願いいたします。 お申込み後、登録いただいたEメールアドレスに会議URLが記載された承認メールが送信されます。フォーラム当日は、対面参加の方は直接会場までお越しください。オンライン参加の方は、指定の会議URLより御参加ください(13時45分より入室いただけます)。 ( https://mri.webex.com/weblink/register/rdf4a8a074868a46533ae0f27fc361d74) ※申込期限:令和8年8月27日(木)17:00 ※対面参加は定員50名を上限とします。申込者多数の場合はオンラインでの参加をお願いする場合がありますので、あらかじめ御了承ください。 なお、第2回フォーラムの参加申込み開始は、令和8年10月頃を予定しております。 【問合せ先】 〇株式会社三菱総合研究所 GX本部内 サステナビリティ情報開示フォーラム運営事務局 E-mail: sustainability-forum@ml.mri.co.jp 添付資料 「第1回サステナビリティ情報開示フォーラム」ご案内[PDF 1.3MB] 連絡先 環境省大臣官房環境経済課環境金融推進室 代表 03-3581-3351 直通 03-5521-8240 課長 平尾 禎秀 企画官 齊藤 啓 室長補佐 影山 凡子 担当 薄井 政人 担当 徳 健太郎
发布时间:2026-07-16 環境省Ministry of the EnvironmentPRESS RELEASE UN Forum concludes with renewed commitment to accelerate action on the Sustainable Development Goals NEW YORK, 15 July 2026–The High-level Political Forum on Sustainable Development (HLPF) concluded this week with the adoption of a ministerial declaration, signaling a renewed commitment by countries to deliver on the Sustainable Development Goals (SDGs). “With less than five years remaining until 2030, the challenge before us is not simply to move faster. It is to work differently. It is to work collectively. It is to work with resolve,” said H.E. Mr. Lok Bahadur Thapa, President of the United Nations Economic and Social Council (ECOSOC). “Implementation can no longer be approached with one Goal, one sector, or one institution at a time. It requires policies that are integrated. It requires partnerships that are stronger. And it requires international cooperation that is more effective.” Held from 7 to 15 July under the auspices of ECOSOC, the Forum brought together more than 4,000 daily participants, including governments, business leaders, civil society organizations, youth, scientists, United Nations entities and other stakeholders, to showcase innovative solutions, exchange experiences and strengthen partnerships to accelerate SDG progress. The Forum conducted in-depth reviews of SDG 6 (Clean Water and Sanitation), SDG 7 (Affordable and Clean Energy), SDG 9 (Industry, Innovation and Infrastructure), SDG 11 (Sustainable Cities and Communities), and SDG 17 (Partnerships for the Goals), highlighting integrated approaches to advancing these Goals while accelerating progress across the entire 2030 Agenda. “Even in these times of division, multilateralism continues to deliver results,” said United Nations Secretary-General António Guterres. “From the Pact for the Future to the Sevilla Commitment, the Doha Political Declaration, the High Seas Treaty, and the Antigua and Barbuda Agenda for Small Island Developing States, countries have demonstrated that cooperation is possible.” “Moreover, the steady progress we are making in data and measurement is providing a much stronger evidence base to help countries better target their development efforts,” Mr. Guterres said. “The Sustainable Development Goals Summit, to be held next year, will provide a critical opportunity to build on this momentum and mobilize the leadership, financing and solidarity needed to achieve the Sustainable Development Goals,” he stressed. The SDGs deliver: Now the world must urgently scale up what works Currently, only 36 per cent of assessable SDG targets are on track or making moderate progress, according to The Sustainable Development Goals Report 2026, launched on 7 July 2026. While progress toward the Goals continues to face significant headwinds, including escalating conflict, economic uncertainty and the intensifying climate crisis, the report also highlights encouraging gains. Key achievements since 2015 include: Nearly 1 billion people gained access to safely managed drinking water. The global unemployment rate declined to a record low of 4.9 per cent in 2025. 92 per cent of the world’s population gained access to electricity, with one-third supplied by renewable energy sources. Global internet access increased from 40 per cent to 74 per cent of the population. A significant decline in AIDS-related deaths, with fatalities falling by 35 per cent. The report emphasizes that the SDGs remain the world’s shared blueprint for peace, prosperity, and sustainability and must be urgently returned to the centre of global decision-making. It identifies the priority actions needed to accelerate progress, including increased investment, stronger international cooperation, expanded access to technology and data, a faster energy transition, greater gender equality, and renewed commitments to peace. Voluntary National Reviews Thirty-six countries presented their Voluntary National Reviews (VNRs) at the Forum, highlighting actions they have taken to achieve the SDGs. This brings to 437 the number of reviews conducted since 2016 by 190 countries and the European. A snapshot of countries’ reporting on progress this year: Algeria: Developed a comprehensive “education-to-employment ecosystem” to align vocational training and higher education directly with modern labour market needs. Burundi: Established dedicated banks for young people and women specifically to finance their own economic empowerment and entrepreneurial projects. Cameroon: Strengthened the digital entrepreneurial ecosystem by expanding Internet access and supporting local start-ups as part of its structural economic transformation. Egypt: Launched the first voluntary carbon market in Africa in 2024 to advance climate finance and green investment. Gabon: Professionalized local maintenance and expanded solar-powered wells to ensure universal water access despite paradoxical shortages in some regions. Guinea-Bissau: Integrated climate resilience and multi-year spending targets into a programme-based budget for the first time in the country’s history. Italy: Conducted the first-ever “youth voluntary review,” directly incorporating the views and assessments of children and young people into the national reporting process. Jordan: Initiated a massive national water conveyance project designed to desalinate and transport 300 million cubic metres of water annually to combat extreme scarcity. Liberia: Conducted a rigorous audit of domestic debt that freed up development resources by rejecting over $704 million in unsupported financial claims. Malawi: Institutionalized a government-wide monitoring and evaluation management information system to ensure evidence-based policymaking. Marshall Islands: Made history by launching “Enra,” a nationwide universal basic income programme providing quarterly cash transfers to all resident citizens. Mozambique: Leveraged its decentralization process to carry out voluntary local reviews (VLRs) in six different territories to ensure the SDGs are rooted in local communities. Norway: Established a national citizens’ panel to directly engage the public and strengthen participation in mainstream policy development. Republic of Moldova: Implemented an energy vulnerability reduction fund and used a multidimensional poverty index to protect citizens during overlapping global crises. Saint Kitts and Nevis: Implemented the LIFT (Livelihood Improvement for Family Transformation) Programme, which shifted social support from a welfare-based model to an empowerment model combining financial aid with skills training. Saudi Arabia: Achieved a historic 50 per cent reduction in non-renewable groundwater use for agriculture while simultaneously increasing agricultural production by 88 per cent. Senegal: Directed its 2050 Vision toward utilizing the start of domestic oil and gas production as a catalyst for a projected 6.7% economic growth rate. Switzerland: Developed the SDGital2030 platform, allowing hundreds of experts and external organizations to collaboratively assess the state of SDG implementation. Tonga: Expanded its renewable energy portfolio beyond solar to include innovative wind, biogas, and mineral-based energy sources. United Republic of Tanzania: Adopted a “whole-of-nation PLUS” approach that integrates the voices of parliament, civil society, and international partners into its long-term development pathway. Uruguay: Consolidated a structural energy transformation where renewable sources now account for nearly 99 per cent of the total electricity mix. Events Held in Connection with HLPF Thirteen high-level special events, 9 VNR labs, 206 side events and 6 exhibitions took place at the Forum. Key outcomes include, among others: Launch of UN Water’s SDG 6 Synthesis Report on Water and Sanitation 2026 and the fifth iteration of the SDG 6 Country Acceleration Case Studies (Uzbekistan, China, and São Tomé and Príncipe); Launch of Tracking SDG 7: The Energy Progress Report 2026 by SDG 7 Indicator Custodian Agencies (IEA, IRENA, UN DESA, World Bank and WHO); the SDG 7 Policy Briefs 2026 by the SDG 7 Technical Advisory Group, and the UN Energy’s Work Programme for 2026-2030 outlining six priority areas for collective; Launch of the “Accelerating Impact: Business and the United Nations Delivering on the Pact for the Future”, a thought leadership brief on practical opportunities for stronger business-UN collaboration prepared by the Action 55(c) Task Team coordinated by the UN Global Compact; Launch of the Progress Report 2026 of the High Impact Initiative on SDG Localization: Pushing Key Transitions and Achieving the SDGs by 2030 by the Local2030 Coalition as well as Policy Brief on “Localizing the SDGs by Advancing the Six Transitions at the Local Level” For more information, please visit: https://hlpf.un.org/2026; https://hlpf.un.org/2026/media | Hashtags: #HLPF, #GlobalGoals, #SDGs
发布时间:2026-07-16 united nations SDG goalsBRUSSELS — Three letters are about to dominate policy debates in the European Union. Best get familiar with them. This Friday, the European Commission will sketch out the future of the Emissions Trading System, or ETS, its most powerful tool to reduce the bloc’s contribution to global warming. The reform proposal will kick off months of squabbling among leaders and lawmakers, accompanied by ferocious lobbying from industry and campaigners, as they dissect and amend the plans. Advertisement The outcome will determine the path forward for Europe’s heavy industry, shaping decades of investments, and for the bloc’s efforts to cut planet-warming pollution. That’s because the ETS regulates the largest sources of greenhouse gas emissions in the EU, mostly factories and power plants, by turning carbon dioxide into an expense companies want to avoid. REQUEST A DEMO
发布时间:2026-07-16 Environment & Energy Publishing