Latest news with #PERC
CTV News
3 hours ago
- Entertainment
- CTV News
Prince Edward wraps up P.E.I. visit with military parade
Hundreds packed the streets of downtown Charlottetown Saturday morning for a rare royal sighting. Prince Edward wrapped up his visit to Prince Edward Island — the first stop on a week-long Canadian tour — with a parade marking a military milestone. The Duke of Edinburgh spent three days on the Island celebrating the 150th anniversary of the P.E.I. Regiment. 'In times of emergency and in times of strife, they will be the first ones to support you,' he said, standing outside Charlottetown City Hall, addressing 80 unit members and the crowd gathered. The parade moved through the city centre to the sound of drums beating and brass blaring, tanks trailing behind, as the Union Jack waved from front porches. 'I've always liked the royals,' said David Windsor MacNevin, who says he was just two years old when King George VI and Queen Elizabeth visited in 1939. Some shared their first impressions of the Duke. 'I think the Crown is an important part of our history and traditions, and it's fun to see him in action,' said Wayne Scott. 'He's obviously very personable.' Several people had the chance to meet Prince Edward at a regimental ball the night before. 'Very approachable, very down to earth, incredibly charismatic. It was a very enjoyable experience,' said Sarah Jane Crabb, whose husband is a retired military member. Others stood by to cheer on loved ones. 'My husband is in that jeep right over there,' said Sharon Birt-Gallant, pointing towards him. 'I'm so proud to be a Canadian. It's unbelievable.' For two visitor from Florida, it was lucky timing. 'We just happened to be on the cruise that's docked today. And we heard that the prince was in town,' said tourist Kevin Holmwood. 'To be able to be here and see this — what a once-in-a-lifetime opportunity,' added Jennifer Holmwood. The day carried deeper meaning for those in uniform. The royal recognition, they said, was more than symbolic — it was a nod to their dedication. 'It was an honour, really. I've never got to play in front of royalty before, so that was really cool,' said Cpl. Isabelle McNeill, a musician in the P.E.I. Regiment band. 'It definitely raises the spirits of the regiment to have our colonel-in-chief being here and joining us,' added Cpl. William Carson. Next on the royal itinerary: Toronto, followed by Ottawa for Canada Day.
The Wire
2 days ago
- Business
- The Wire
Saatvik Green Energy Limited (SGEL) Recognised Among ‘Best Organisations to Work 2025' by ET Now
Gurgaon | June 27, 2025 — Saatvik Green Energy Limited (SGEL) has been recognised as one of India's best organisations to Work for at the 'ET Now Best Organisations to Work' awards event, held at Sahara Star, Mumbai. This honour celebrates Saatvik's commitment to building a people-first culture rooted in clarity, care, and consistent communication. The award recognises organisations that inspire trust, foster employee well-being, and create inclusive workspaces where people thrive with purpose and pride. Prashant Mathur, CEO of SGEL said, 'At Saatvik Green Energy Limited, inclusion is embedded in how we function every day. We work to create a culture where everyone—regardless of their role, background, or language—is encouraged to speak, contribute, and participate. Feedback loops are structured through regular townhalls, cross-functional huddles, and one-on-one check-ins, ensuring clarity and access across levels. Our hiring, training, and internal communication practices reflect a conscious effort to bring in diverse perspectives while staying rooted in our values as a proudly Indian clean energy company.' Saatvik Green Energy Limited (SGEL) has earned this recognition following a rigorous multi-stage evaluation process conducted by ET Now and its research and knowledge partners. The selection was based on demonstrated efforts to build a transparent work environment, inclusive growth practices, and a sustained focus on workplace well-being. 'Saatvik Green Energy Limited's people philosophy is built on three pillars: clarity, respect, and opportunity. Beyond well-structured policies, we've worked hard to build a high-trust culture—where information flows openly, teams take ownership, and contributions are celebrated across the board. Many of our senior leaders have grown from within the organization, which speaks to the opportunities for merit-based growth here. Whether it's employee-led initiatives, process innovation on the shop floor, or our structured recognition programs, we believe in listening actively and acting decisively to create a workplace where people feel valued every single day,' said Prashant Mathur, CEO, SGEL. This recognition comes at a significant milestone in Saatvik's journey—the successful completion of 10 years of operational excellence—and follows its recent achievement of being certified as a Great Place to Work®, reinforcing its commitment to creating a workplace anchored in respect, growth, and collaboration. About Saatvik Green Energy Limited SGEL is one of India's leading module manufacturers, in terms of operational solar PV module manufacturing capacity, with an operational capacity of approximately 3.80 GW modules as of February 28, 2025. The SGEL offers Mono PERC and N-TopCon modules, EPC services, and O&M capabilities. Disclaimer: SAATVIK GREEN ENERGY LIMITED is proposing, subject to applicable statutory and regulatory requirements, receipt of requisite approvals, market conditions and other considerations, an initial public offering of its Equity Shares and has filed the DRHP with SEBI and Stock Exchanges on March 13, 2025. The DRHP is available on the websites of SEBI, BSE and NSE at and respectively, and on the websites of the Book Running Lead Managers i.e. DAM Capital Advisors Limited at Ambit Private Limited at and Motilal Oswal Investment Advisors Limited at respectively and also at the website of the Company at https: investors should note that investment in equity shares involves a high degree of risk and for details relating to such risk, see 'Risk Factors' on page 54 of the DRHP. Potential investors should not rely on the DRHP for making any investment decisions. The Equity Shares offered in the Offer have not been and will not be registered under the U.S. Securities Act of 1933, as amended ('U.S. Securities Act'), or any state securities laws in the United States, and unless so registered may not be offered or sold within the United States, except pursuant to an exemption from, or in a transaction not subject to, the registration requirements of the U.S. Securities Act and applicable state securities laws. Accordingly, such Equity Shares are being offered and sold (i) outside of the United States in offshore transactions in reliance on Regulation S under the U.S. Securities Act and the applicable laws of the jurisdiction where those offers and sales occur; and (ii) within the United States to 'qualified institutional buyers' (as defined in Rule 144A under the U.S. Securities Act), pursuant to the private placement exemption set out in Section 4(a) of the U.S. Securities Act. (Disclaimer: The above press release comes to you under an arrangement with NRDPL and PTI takes no editorial responsibility for the same.).
Mint
3 days ago
- Business
- Mint
HVR Solar Advances India's Solar Tech Leadership with 2GW N-Type Topcon Manufacturing Hub
Delhi, India, 26th June 2025: HVR Solar Pvt Ltd is betting big on next-generation solar technology with the launch of a 2GW annual production facility dedicated to N-Type Topcon bifacial modules in Sonepat, Haryana. The facility, operational from Q3 2025, represents a strategic pivot toward high-efficiency solar solutions as the industry grapples with evolving performance demands and technological convergence. The 6.5-acre facility will produce modules with maximum capacity of 715Wp, positioning HVR Solar in the premium segment where efficiency gains translate directly to improved project economics. The move comes as global solar manufacturers race to commercialize advanced cell technologies, with N-Type Topcon emerging as a leading candidate to replace traditional PERC technology. "We're witnessing a fundamental shift in solar technology adoption, where efficiency improvements of even 2-3% can determine project viability," said Mr. Rishabh Aggarwal, Director, HVR Solar Pvt Ltd. "Our investment in N-Type Topcon technology positions us at the forefront of this transition, offering developers a compelling value proposition in an increasingly competitive market." The technology choice reflects careful market analysis of emerging trends in solar photovoltaics. N-Type Topcon cells offer superior efficiency compared to conventional P-Type PERC cells, with lower temperature coefficients and reduced light-induced degradation. These characteristics become particularly valuable in utility-scale installations where marginal efficiency gains compound over project lifecycles. Bifacial module design adds another dimension to performance optimization, enabling energy generation from both sides of the panel. This capability can increase energy yield by 10-30% depending on installation conditions, making it particularly attractive for ground-mounted utility projects and agrivoltaics applications. Mr. Sagar Sachdev, Executive Director, HVR Solar Pvt Ltd, highlighted the strategic rationale: "The convergence of N-Type cell technology with bifacial design represents the current sweet spot in solar module development. We're not just manufacturing products; we're delivering solutions that address real-world challenges faced by project developers in optimizing land use and maximizing energy density." The Sonepat location was selected after comprehensive analysis of logistics, infrastructure, and talent availability. Haryana's industrial ecosystem provides access to skilled manufacturing workforce while ensuring proximity to key markets in northern India. The state's supportive industrial policies and robust infrastructure development further enhance the facility's long-term viability. HVR Solar's expansion occurs against the backdrop of India's evolving solar manufacturing landscape. The implementation of ALMM regulations and PLI incentives has catalyzed domestic manufacturing growth, while rising global trade tensions have created opportunities for Indian manufacturers to capture market share previously dominated by Chinese suppliers. The company's technology roadmap extends beyond current N-Type Topcon offerings, with research and development initiatives exploring heterojunction technology & Solar Cells Manufacturing in near future. This forward-looking approach positions HVR Solar to adapt to evolving technology paradigms in the rapidly advancing photovoltaics sector. Manufacturing operations will incorporate Industry 4.0 principles, including automated quality control systems, predictive maintenance protocols, and real-time production optimization. These capabilities are essential for maintaining consistent product quality while achieving competitive manufacturing costs in the global market. The facility's design emphasizes flexibility and scalability, enabling rapid adaptation to changing market demands and technology evolution. Modular production lines can be reconfigured to accommodate different cell sizes and module configurations, ensuring long-term asset utilization despite technological uncertainties. Market dynamics favor high-efficiency module adoption, with utility-scale developers increasingly prioritizing energy density over initial cost considerations. This trend, combined with declining balance-of-system costs, creates favorable conditions for premium module technologies like N-Type Topcon bifacial designs. HVR Solar's strategic positioning targets the intersection of technological advancement and market opportunity, leveraging India's manufacturing cost advantages while delivering performance capabilities that meet global standards. The initiative represents a calculated bet on technology leadership as a sustainable competitive advantage in the commoditizing solar module market. For more information please visit:
The Sun
4 days ago
- Science
- The Sun
Australia's ‘solar godfather': Vietnam leads Southeast Asia's clean energy transition
HANOI, VIETNAM - Media OutReach Newswire - 23 June 2025 - With the invention of solar cells using Passivated Emitter and Rear Contact (PERC) technology, Prof. Martin Andrew Green from the University of New South Wales (Australia) and his team made a groundbreaking contribution to green energy production. Two years after receiving the 2023 VinFuture Grand Prize, he continues to push the boundaries of solar innovation, working to improve efficiency and help pave the way for a future of productive renewable energy harvest. Nurturing the energy revolution Renowned as the 'godfather of solar,' Prof. Martin Green has spent over five decades advancing solar energy technologies. In 2023, Prof. Green's revolutionary development of Passivated Emitter and Rear Contact (PERC) technology, now used in over 90% of solar panels worldwide, earned him the VinFuture Grand Prize. Through the VinFuture Prize, Prof. Green has also had a unique perspective on Vietnam's progress toward global sustainability, as he continues to become a member of the VinFuture Prize Council. 'One of the most immediate outcomes was the opportunity to establish new collaborations in Vietnam. I have gained much greater insight into the progress being made in Vietnam's clean energy sector than I knew before,' he shared. Prof. Green also expressed deep appreciation for the VinFuture Prize, noting that winning such a significant award had undoubtedly enhanced his research group's ability to attract the necessary resources to develop new ideas. Earlier this year, his pioneering work was honored with a clean-energy ferry named after him in Australia. While he felt 'fortunate to be selected,' Prof. Green emphasized that this recognition propelled him toward a broader movement for a global solar energy revolution. 'We need to move faster,' he urged, pointing to the stark evidence already unfolding in Australia, including massive bushfires followed by widespread flooding that falls well outside the norm. 'It is a bit of a sign of what lies in the future. We're beginning to feel the initial effects of climate change, which will only intensify unless we take urgent action,' Prof. Green warned. The 'godfather of solar' also shared that the path forward hinges on international collaboration and government leadership. The global exchange of knowledge and talent has allowed innovations from his lab to influence commercial solar production in China, which in turn benefits countries like Australia that import these cost-effective solar technologies. Much of that progress, Prof. Green added, has been made possible by falling prices driven by technologies like PERC, as well as support from international organizations such as the United Nations (UN). One of the UN's key Sustainable Development Goals is to ensure universal access to energy by 2030 and solar offers the most viable path to get there. Pushing solar frontiers In recent years, Prof. Martin Green and his team have continuously challenged the boundaries of what photovoltaic technology can achieve. One of the most compelling directions in his current research revisits a landmark theoretical paper he wrote about 40 years ago, regarding the limits on the energy conversion efficiency of silicon cells. 'At the time, most people believed that the efficiency limits lay just over 20% energy conversion efficiency. However, in my paper, I calculated the theoretical limit to be between 29% and 30%, significantly higher than what was commonly accepted,' he said, suggesting that 25% efficiency was a feasible target. This insight became a key motivation for his team to explore greater efficiency gains. They set a practical goal of 25% efficiency, which they ultimately reached around the turn of the century. Today, many commercial solar cells already operate at this level of efficiency, getting closer to the 29-30% limit he proposed years ago. The second area of focus involves stacking cells made from different materials on top of each other to capture more energy from sunlight. Sunlight can be regarded as a stream of particles called photons. Silicon cells respond to photons of all colors in sunlight, from blue to red and even to the lower-energy infrared ones that our eyes can't see. However, blue photons contain much more energy than needed, and in standard silicon cells, that excess energy is wasted. This is the key reasons behind the limits on the energy conversion efficiency of silicon cells. One material showing strong potential in lab settings is a special kind of perovskite, made with heavy elements like lead and iodine. Still, there is no guarantee that perovskites will meet the stability standards required for widespread commercial use, which is why researchers are also investigating alternative materials. Though these alternatives don't currently match perovskites in performance, they may offer better long-term reliability. These approaches, aiming to increase efficiency, have opened a door for the large-scale deployment of the solar revolution. According to Prof. Green, it has been a key driver in the dramatic cost reductions in photovoltaics over the past few decades. 'If we can transition to one of these stacked tandem cells, like perovskite on silicon, it could revolutionize not only performance but also system-wide cost dynamics. Not so much in the cost of making the cell, but by leveraging those efficiency gains to reduce the broader costs of solar deployment,' he emphasized. Bringing down the cost of cell production will be a key to expanding the interest in using them. According to the International Energy Agency, solar power delivers some of the cheapest electricity in history. 'The exciting thing is that the cost of solar is still coming down despite the massive decreases we have seen over the last 15 years. It continues to fall week by week,' he said. 'We witnessed the agricultural revolution and then the industrial revolution. Now, many believe we are entering an energy revolution, where it becomes so affordable and accessible that new applications open up.' However, one of the biggest near-term challenges is finding a cell that can be used in these stacks. Silicon is an ideal material for photovoltaics as it is abundant, non-toxic, and stable. What's missing is a complementary material that matches these qualities while offering additional performance benefits. In this search, artificial intelligence can provide a much wider scanning of possibilities than traditional methods permit. The whole material system will be canvassed, and perhaps some new materials will be identified. The potential of Vietnam As the global race to renewable energy and net-zero emissions accelerates, Vietnam is not standing on the sidelines. In terms of photovoltaics, he cited the data suggesting that over 10% of Vietnam's electricity has been generated from solar in recent years. As the adoption scales up, the uptake needs to match the electricity network's ability to absorb solar power. This requires parallel investment in battery storage systems and other stabilizing technologies, and Prof. Green believed Vietnam is progressing well on this front. 'So I think Vietnam would be one of Southeast Asia's leaders in terms of photovoltaics,' he remarked, 'Vietnam is probably already leading Southeast Asia in the clean energy transition.' In Southeast Asia, where two-wheeled vehicles dominate urban transportation, the shift toward electric scooters is also crucial. Drawing parallels with China, where the replacement of fossil-fueled bikes with electric versions has reduced pollution and CO₂ emissions, he believed that Southeast Asian nations could see similar environmental benefits by following this path. On this front, Prof. Green was impressed by VinFast's electric vehicles when visiting Vietnam in 2023. 'The quality of the cars seemed like genuinely competitive products. I also like the electric buses that VinBus has developed in Vietnam,' he stated. 'In this context, Vingroup seems to be leading the way in developing vehicles that can meet this potential demand,' he noted. The VinFuture Prize has also enabled Prof. Green to build valuable connections with experts in clean technology and beyond. 'I shared the 2023 VinFuture Grand Prize with Prof. Rachid Yazami, Prof. Akira Yoshino and Prof. Stanley Whittingham, whose pioneering work is in lithium-ion batteries. Meeting those people and getting to understand their contributions better has been really important to me as well', he said. Reflecting on the diversity of fields represented, he noted:'The VinFuture Prize is not limited to clean energy; it is designed to honor innovations with global impact across a wide range of disciplines.' VinFuture The VinFuture Foundation, established on International Human Solidarity Day on December 20th, 2020, is a non-profit organization co-founded by billionaire Mr. Pham Nhat Vuong and his wife, Madam Pham Thu Huong. The Foundation's core activity is awarding the annual VinFuture Prize, which recognizes transformative scientific and technological innovations capable of making significant positive changes in the lives of millions of people worldwide. The VinFuture Prize is now accepting nominations for the 2026 VinFuture Prize. Submit your nominations here: Outstanding nominators will be honored through the VinFuture Nominator Recognition Program. The VinFuture Prize consists of four prestigious awards presented each year. The most esteemed is the VinFuture Grand Prize, valued at US$3 million, making it one of the largest annual prizes globally. Additionally, there are three Special Prizes, each valued at US$500,000, specifically dedicated to honoring Women Innovators, Innovators from Developing Countries, and Innovators with Outstanding Achievements in Emerging Fields.
Zawya
5 days ago
- Science
- Zawya
Australia's ‘solar godfather': Vietnam leads Southeast Asia's clean energy transition
HANOI, VIETNAM - Media OutReach Newswire - 23 June 2025 - With the invention of solar cells using Passivated Emitter and Rear Contact (PERC) technology, Prof. Martin Andrew Green from the University of New South Wales (Australia) and his team made a groundbreaking contribution to green energy production. Two years after receiving the 2023 VinFuture Grand Prize, he continues to push the boundaries of solar innovation, working to improve efficiency and help pave the way for a future of productive renewable energy harvest. Nurturing the energy revolution Renowned as the "godfather of solar," Prof. Martin Green has spent over five decades advancing solar energy technologies. In 2023, Prof. Green's revolutionary development of Passivated Emitter and Rear Contact (PERC) technology, now used in over 90% of solar panels worldwide, earned him the VinFuture Grand Prize. Through the VinFuture Prize, Prof. Green has also had a unique perspective on Vietnam's progress toward global sustainability, as he continues to become a member of the VinFuture Prize Council. " One of the most immediate outcomes was the opportunity to establish new collaborations in Vietnam. I have gained much greater insight into the progress being made in Vietnam's clean energy sector than I knew before," he shared. Prof. Green also expressed deep appreciation for the VinFuture Prize, noting that winning such a significant award had undoubtedly enhanced his research group's ability to attract the necessary resources to develop new ideas. Earlier this year, his pioneering work was honored with a clean-energy ferry named after him in Australia. While he felt " fortunate to be selected," Prof. Green emphasized that this recognition propelled him toward a broader movement for a global solar energy revolution. " We need to move faster," he urged, pointing to the stark evidence already unfolding in Australia, including massive bushfires followed by widespread flooding that falls well outside the norm. " It is a bit of a sign of what lies in the future. We're beginning to feel the initial effects of climate change, which will only intensify unless we take urgent action," Prof. Green warned. The "godfather of solar" also shared that the path forward hinges on international collaboration and government leadership. The global exchange of knowledge and talent has allowed innovations from his lab to influence commercial solar production in China, which in turn benefits countries like Australia that import these cost-effective solar technologies. Much of that progress, Prof. Green added, has been made possible by falling prices driven by technologies like PERC, as well as support from international organizations such as the United Nations (UN). One of the UN's key Sustainable Development Goals is to ensure universal access to energy by 2030 and solar offers the most viable path to get there. Pushing solar frontiers In recent years, Prof. Martin Green and his team have continuously challenged the boundaries of what photovoltaic technology can achieve. One of the most compelling directions in his current research revisits a landmark theoretical paper he wrote about 40 years ago, regarding the limits on the energy conversion efficiency of silicon cells. " At the time, most people believed that the efficiency limits lay just over 20% energy conversion efficiency. However, in my paper, I calculated the theoretical limit to be between 29% and 30%, significantly higher than what was commonly accepted," he said, suggesting that 25% efficiency was a feasible target. This insight became a key motivation for his team to explore greater efficiency gains. They set a practical goal of 25% efficiency, which they ultimately reached around the turn of the century. Today, many commercial solar cells already operate at this level of efficiency, getting closer to the 29-30% limit he proposed years ago. The second area of focus involves stacking cells made from different materials on top of each other to capture more energy from sunlight. Sunlight can be regarded as a stream of particles called photons. Silicon cells respond to photons of all colors in sunlight, from blue to red and even to the lower-energy infrared ones that our eyes can't see. However, blue photons contain much more energy than needed, and in standard silicon cells, that excess energy is wasted. This is the key reasons behind the limits on the energy conversion efficiency of silicon cells. One material showing strong potential in lab settings is a special kind of perovskite, made with heavy elements like lead and iodine. Still, there is no guarantee that perovskites will meet the stability standards required for widespread commercial use, which is why researchers are also investigating alternative materials. Though these alternatives don't currently match perovskites in performance, they may offer better long-term reliability. These approaches, aiming to increase efficiency, have opened a door for the large-scale deployment of the solar revolution. According to Prof. Green, it has been a key driver in the dramatic cost reductions in photovoltaics over the past few decades. " If we can transition to one of these stack ed tandem cells, like perovskite on silicon, it could revolutionize not only performance but also system-wide cost dynamics. Not so much in the cost of making the cell, but by leveraging those efficiency gains to reduce the broader costs of solar deployment," he emphasized. Bringing down the cost of cell production will be a key to expanding the interest in using them. According to the International Energy Agency, solar power delivers some of the cheapest electricity in history. " The exciting thing is that the cost of solar is still coming down despite the massive decreases we have seen over the last 15 years. It continues to fall week by week," he said. " We witnessed the agricultural revolution and then the industrial revolution. Now, many believe we are entering an energy revolution, where it becomes so affordable and accessible that new applications open up." However, one of the biggest near-term challenges is finding a cell that can be used in these stacks. Silicon is an ideal material for photovoltaics as it is abundant, non-toxic, and stable. What's missing is a complementary material that matches these qualities while offering additional performance benefits. In this search, artificial intelligence can provide a much wider scanning of possibilities than traditional methods permit. The whole material system will be canvassed, and perhaps some new materials will be identified. The potential of Vietnam As the global race to renewable energy and net-zero emissions accelerates, Vietnam is not standing on the sidelines. In terms of photovoltaics, he cited the data suggesting that over 10% of Vietnam's electricity has been generated from solar in recent years. As the adoption scales up, the uptake needs to match the electricity network's ability to absorb solar power. This requires parallel investment in battery storage systems and other stabilizing technologies, and Prof. Green believed Vietnam is progressing well on this front. " So I think Vietnam would be one of Southeast Asia's leaders in terms of photovoltaics," he remarked, " Vietnam is probably already leading Southeast Asia in the clean energy transition." In Southeast Asia, where two-wheeled vehicles dominate urban transportation, the shift toward electric scooters is also crucial. Drawing parallels with China, where the replacement of fossil-fueled bikes with electric versions has reduced pollution and CO₂ emissions, he believed that Southeast Asian nations could see similar environmental benefits by following this path. On this front, Prof. Green was impressed by VinFast's electric vehicles when visiting Vietnam in 2023. " The quality of the cars seemed like genuinely competitive products. I also like the electric buses that VinBus has developed in Vietnam," he stated. " In this context, Vingroup seems to be leading the way in developing vehicles that can meet this potential demand," he noted. The VinFuture Prize has also enabled Prof. Green to build valuable connections with experts in clean technology and beyond. " I shared the 2023 VinFuture Grand P rize with Prof. Rachid Yazami, Prof. Akira Yoshino and Prof. Stanley Whittingham, whose pioneering work is in lithium-ion batteries. Meeting those people and getting to understand their contributions better has been really important to me as well", he said. Reflecting on the diversity of fields represented, he noted:" The VinFuture Prize is not limited to clean energy; it is designed to honor innovations with global impact across a wide range of disciplines." Hashtag: #VinFuture The issuer is solely responsible for the content of this announcement. VinFuture The VinFuture Foundation, established on International Human Solidarity Day on December 20th, 2020, is a non-profit organization co-founded by billionaire Mr. Pham Nhat Vuong and his wife, Madam Pham Thu Huong. The Foundation's core activity is awarding the annual VinFuture Prize, which recognizes transformative scientific and technological innovations capable of making significant positive changes in the lives of millions of people worldwide. The VinFuture Prize is now accepting nominations for the 2026 VinFuture Prize. Submit your nominations here: Outstanding nominators will be honored through the VinFuture Nominator Recognition Program. The VinFuture Prize consists of four prestigious awards presented each year. The most esteemed is the VinFuture Grand Prize, valued at US$3 million, making it one of the largest annual prizes globally. Additionally, there are three Special Prizes, each valued at US$500,000, specifically dedicated to honoring Women Innovators, Innovators from Developing Countries, and Innovators with Outstanding Achievements in Emerging Fields. VinFuture
