Hyundai and TerraPower, Chaired by Bill Gates, Unite to Fast‑Track Next‑Gen Nuclear Reactors

Hyundai E&C, TerraPower, and HD Hyundai have strengthened their alliance to accelerate commercialization of next-generation Natrium® small modular reactors (SMRs), with Bill Gates personally attending the leadership meeting in Seoul on August 14, 2026. This collaboration positions Korea and the U.S. at the forefront of global nuclear innovation.

TerraPower is a U.S.-based nuclear innovation company founded by Bill Gates and partners, focused on developing advanced reactors like the Natrium® system to deliver safe, carbon-free, and flexible energy while also advancing medical isotopes for cancer treatment.

Key Highlights from the Meeting

The meeting brought together senior executives from all three companies, including Hyundai E&C CEO Hanwoo, TerraPower Board Chairman Bill Gates, President and CEO Chris Levesque, and HD Hyundai Chairman Kisun Chung.

TerraPower is building its first Natrium reactor in Wyoming, and executives discussed expanding collaboration to future projects, committing to sustained close cooperation.

Attendees:

• Hanwoo Lee, CEO Hyundai E&C
• Bill Gates, Chairman TerraPower
• Chris Levesque, CEO TerraPower
• Kisun Chung, Chairman HD Hyundai

Focus: Commercial deployment and global expansion of the Natrium® sodium-cooled fast reactor (SFR).

Strategic Importance

• Global Expansion: Builds on trilateral MOU signed in May 2026.
• U.S. Market Entry: Targeting ~95 GW installed nuclear capacity, aging reactors, and rising AI-driven electricity demand.
• Korea-U.S. Cooperation: HD Hyundai to manufacture 2–3 Natrium reactor vessels annually.

The Natrium® Advantage

• Technology: Sodium-cooled fast reactor (SFR).
• Benefits: Enhanced safety, economic efficiency, flexible power output, scalable deployment.

Implications for Energy Markets

• Commercialization Path: First Natrium unit under construction in Wyoming, USA.
• Global Competitiveness: Hyundai E&C brings EPC expertise; HD Hyundai strengthens manufacturing.
• Demand Drivers: Rising electricity needs from digital infrastructure and climate commitments.

Partnership Roles

Partner	Role
TerraPower	Provides Natrium® technology, led by Bill Gates
Hyundai E&C	EPC expertise, project management, global deployment
HD Hyundai	Manufactures primary reactor equipment, builds supply chain

Risks & Challenges

• Regulatory hurdles: Nuclear licensing varies by country.
• Public perception: Safety and waste management concerns.
• Supply chain readiness: Scaling to 2–3 reactor vessels annually requires investment.

Conclusion

This trilateral partnership marks a milestone in nuclear innovation, combining U.S. technology leadership with Korean industrial strength. If successful, Natrium reactors could redefine the future of clean, reliable energy, supporting both climate goals and digital economy growth.

IIT Hyderabad, Crimson Energy Launch ANUGYAN: India’s First Nuclear Tech Industry–Academia Programme

Highlights

• Three-month residential programme to prepare deployment-ready engineers for India's expanding nuclear energy sector.
• The curriculum integrates reactor physics, thermal hydraulics, Small Modular Reactors (SMRs), nuclear safety, regulatory compliance and simulator-based training.
• The programme supports India's vision of expanding nuclear power capacity to 100 GWe by 2047 through the development of an indigenous workforce.

The Indian Institute of Technology Hyderabad (IITH), in collaboration with Crimson Energy Experts Pvt. Ltd. (CEEPL), today inaugurated ANUGYAN – Nuclear Technology Orientation Programme (NTOP), India's first industry–academia programme dedicated to preparing engineers and industry professionals for the country's rapidly expanding civil nuclear energy sector.

The programme was formally launched during a ceremony held at the IIT Hyderabad campus in the presence of senior leaders from academia and industry, marking a significant milestone in strengthening India's indigenous capabilities in nuclear engineering education, workforce development and clean energy technologies.

Designed as a three-month fully residential programme, ANUGYAN bridges the gap between academic learning and real-world industrial execution by combining IIT Hyderabad's academic excellence with the extensive expertise of senior nuclear professionals from Crimson Energy Experts. The programme aims to create highly skilled professionals capable of supporting India's growing nuclear energy ecosystem through advanced technical education and practical industry exposure.

With India opening civil nuclear energy to greater private participation and targeting an expansion of its nuclear power generation capacity from approximately 8.8 GWe to 100 GWe by 2047, ANUGYAN has been conceptualized to address the growing demand for specialized engineering talent. The curriculum covers reactor physics, thermal hydraulics, radiation shielding, Small Modular Reactors (SMRs), nuclear safety, quality assurance, engineering design, AERB regulatory compliance, and generic simulator-based training, providing participants with comprehensive exposure to modern nuclear engineering practices.

The programme also creates opportunities for engineering graduates, working professionals, PSU executives, EPC contractors and industrial equipment manufacturers to develop specialized capabilities for contributing to India's emerging nuclear supply chain. Participants who successfully complete the programme will receive a joint certification from IIT Hyderabad and Crimson Energy Experts Pvt. Ltd.

The launch of ANUGYAN also builds upon the recently signed Memorandum of Understanding between IIT Hyderabad, Dassault Systèmes and Crimson Energy Experts during Bharat Innovate 2026 in Nice, France, to establish the Centre of Design Excellence in Nuclear Engineering (CODENE). The proposed Centre will create a state-of-the-art ecosystem for advanced nuclear engineering design, digital simulation and collaborative research, further strengthening India's indigenous capabilities in nuclear technologies.

Prof. B. S. Murty, Director, IIT Hyderabad, said: "The launch of ANUGYAN reflects IIT Hyderabad's commitment to developing future-ready talent aligned with India's strategic priorities. As the nation accelerates its clean energy transition and expands its civil nuclear programme, building a highly skilled workforce becomes increasingly important. Through this unique industry–academia partnership, we are combining academic excellence with decades of industrial expertise to prepare engineers capable of driving innovation, ensuring safety, and contributing meaningfully to India's long-term energy security and the vision of Atmanirbhar Bharat. We believe this initiative will play a vital role in creating the next generation of nuclear engineering professionals for the country."

Cmde R. D. Mane (Retd.), President – Nuclear Division, Crimson Energy Experts Pvt. Ltd., said: "Nuclear technology execution demands strict compliance, quality assurance and specialized engineering design. Through ANUGYAN, our aim is to train engineers who can navigate AERB regulations, optimize equipment design and deliver high-reliability execution for next-generation nuclear deployments, including Small Modular Reactors and floating nuclear power plants. The programme combines rigorous coursework with practical case studies delivered by veterans with decades of experience at premier Department of Atomic Energy institutions such as BARC and NPCIL. We are delighted to partner with IIT Hyderabad in developing world-class nuclear engineering talent for India's future."

The inaugural batch of ANUGYAN commenced on August 3, 2026, with participants drawn from engineering institutions, public sector organizations and industries across the country. The programme is expected to play a significant role in strengthening India's nuclear engineering ecosystem by preparing deployment-ready professionals equipped to contribute across research institutions, public sector enterprises, engineering procurement and construction (EPC) companies, advanced manufacturing industries and emerging nuclear technology enterprises.

By integrating academic rigour with industry experience, ANUGYAN represents a major step towards building the skilled workforce required for India's next generation of clean energy infrastructure while advancing the national vision of energy security, technological self-reliance and sustainable development.

About Crimson Energy:

Crimson Energy Experts Pvt Ltd is a leading technical firm specializing in nuclear engineering, SMR/ Micro Reactor design, technology localisation with comprehensive design and technical services for setting up Nuclear Power Plants and workforce development through its "Anugyan" education framework. For more details -: https://anugyan.com/

About IITH:

IITH, established in 2008, has reached a respectable position in academics, research, technology development, and Start-ups in a short span of 17+ years. In the National Institutional Ranking Framework (NIRF-2025), IITH is ranked 7th among Engineering institutes (crossing a first-generation IIT this year), and is ranked 6th in Innovation, while it has maintained its rank within the top 10 Engineering Institutes ever since NIRF was launched. IITH is ranked 588th in the QS World University Rankings 2027 and 270th in the QS Asian University Rankings 2026 (123rd globally in citations per faculty). IITH has recorded a major leap in the QS World University Rankings by Subject 2026, entering the global Top 400 in Engineering & Technology with a rank of 395, marking a sharp improvement from the 501–550 band in 2025. IITH secured 46 positions by 31 faculties in the Stanford /Elsevier Global Top 2% Scientists list 2025 across two categories. IITH has been striving for excellence with its vision of "Inventing & Innovating in Technology for Humanity," guided by its newly adopted Sanskrit Motto, "नवोन्मेषेण देशनिर्माणम्" (Nation Building through Innovation).

• 345+ full-time Faculty
• 350+ non-teaching Staff
• 6140+ Students (PG+PhD students accounting for about 60%)
• 5730+ R&D Projects worth Rs. 1820+ Cr (Rs. 245+ Cr funding in 2025-26)
• 14,040+ Publications
• 2,85,210+ Citations
• 165 h-index
• 775+ Patents (250 Patents in 2025, i.e., 0.75 patents per faculty in 2025)
• About 300 Start-ups (generated 1100+ jobs with revenue of Rs. 1500+ Cr)

The thrust areas of research at IITH are: Next-Generation Telecommunications, Autonomous Navigation, Robotics & Intelligent systems, Semiconductors & Devices, Additive Manufacturing, Advanced Materials & Critical Minerals, Materials characterisation, Catalysis, Healthcare, Energy, Sustainability, Climate Change, Smart Mobility, EV technology, Quantum technologies, Nuclear Energy, Computational Engineering, Design, AR/VR, Waste management, and Rural development.


Follow us on Instagram, LinkedIn, Twitter, Facebook, and YouTube for the latest updates. To know more, please visit https://www.iith.ac.in/ || You can view all press releases/notes from IIT Hyderabad at: https://pr.iith.ac.in/press-release || Cell: 8331036099 | Email: pro@iith.ac.in

India Unveils World’s First Nuclear-Powered Hydrogen Plant

India's Department of Atomic Energy (DAE) has inaugurated the world’s first hydrogen production facility at IGCAR, Kalpakkam, using the Copper–Chlorine (Cu–Cl) thermochemical cycle powered by nuclear heat from the Fast Breeder Test Reactor (FBTR). This breakthrough positions India at the forefront of carbon-free hydrogen innovation, integrating advanced nuclear technology with clean energy goals.

Imagine boiling water in a special pot, and instead of just steam, clever chemistry breaks the water into hydrogen (fuel) and oxygen (air). The “ingredients” (copper and chlorine compounds) act like kitchen helpers—used again and again, never wasted.

Developed through the combined expertise of Bhabha Atomic Research Centre (BARC) and IGCAR, this first-of-its-kind facility reflects the strength of indigenous innovation and reinforces the vision of Atmanirbhar Bharat and Viksit Bharat through advanced nuclear science and technology.

In this breakthrough, Hydrogen burns without smoke—only water comes out and unlike petrol or coal, this process doesn’t release CO₂. Instead of wasting electricity, it uses heat from reactors that already exist. In its future usage, Hydrogen can run cars, factories, and even airplanes without polluting the air. 

So, in plain words —

India has built a “magic kitchen” at IGCAR that cooks water with nuclear heat, serving up clean hydrogen fuel without smoke or waste.

Key Highlights

• Inauguration Date: 26 June 2026
• Location: Indira Gandhi Centre for Atomic Research (IGCAR), Kalpakkam, Tamil Nadu
• Technology: Copper–Chlorine (Cu–Cl) thermochemical cycle developed by BARC
• Heat Source: Nuclear process heat from the Fast Breeder Test Reactor (FBTR)
• Leaders Present: Dr. Ajit Kumar Mohanty and Sreekumar G. Pillai

How the Cu–Cl Cycle Works

• Process: Splits water into hydrogen and oxygen using nuclear heat.
• Efficiency: Operates at lower temperatures than other thermochemical cycles.
• Environmental Impact: Produces zero greenhouse gas emissions.

Strategic Importance

• Energy Security: Reduces dependence on imported fossil fuels.
• Clean Energy Transition: Supports India’s Net Zero 2070 target.
• Global Leadership: First-of-its-kind facility worldwide.
• Scalability: Technology demonstrator providing operational data for future deployment.

Comparison: Hydrogen Production Methods

Method	Energy Source	Emissions	Efficiency	Global Status
Steam Methane Reforming	Natural Gas	High CO₂	Moderate	Widely used
Electrolysis	Electricity (renewables/nuclear)	Zero (if clean power)	Moderate	Growing adoption
Cu–Cl Cycle	Nuclear Heat	Zero	High	First facility at IGCAR

Risks & Challenges

• Scaling Up: Requires large infrastructure investments.
• Public Perception: Nuclear-linked hydrogen may face acceptance challenges.
• Global Competition: Other nations exploring rival cycles.

Next Steps for India

• Expand: Move Cu–Cl hydrogen production to industrial scale.
• Integrate: Use Small Modular Reactors (SMRs) for distributed hydrogen generation.
• Export: Position India as a global supplier of clean hydrogen.

Beyond India’s Cu–Cl breakthrough at IGCAR, several other nuclear-assisted hydrogen systems are being explored worldwide, including sulfur–iodine cycles in Japan and South Korea, high-temperature electrolysis in the U.S. and Europe, and hybrid thermochemical projects under the IAEA. These efforts aim to leverage nuclear heat for large-scale, carbon-free hydrogen.

India’s Cu–Cl facility is unique for its lower temperature requirement, making it more practical than sulfur–iodine cycles. Globally, HTGRs and advanced reactors are expected to drive nuclear hydrogen, with pilot projects in Japan, South Korea, and the U.S. forming the backbone of future deployment.

IIT Hyderabad Launches Nuclear Technology Orientation Programme with Crimson Energy Experts

IITH & Crimson Team at launch

• 3-month residential programme to build skilled workforce for India’s growing nuclear energy sector. 
• Joint initiative by IIT Hyderabad and Crimson Energy Experts Pvt. Ltd.
• Participants to learn from IIT Hyderabad faculty and experienced Scientists and Engineers from the Department of Atomic Energy ecosystem

In a significant step towards strengthening India’s nuclear energy talent pipeline, the Indian Institute of Technology Hyderabad (IITH), in collaboration with Crimson Energy Experts Pvt. Ltd. (CEEPL), has announced the launch of the Nuclear Technology Orientation Programme (NTOP), a first-of-its-kind three-month residential programme designed to equip Engineers and Professionals with a comprehensive understanding of nuclear power technologies and operations. The programme will commence on August 3, 2026, at the IITH campus.

As India accelerates its clean energy transition and expands its nuclear power capacity, the demand for trained professionals with domain knowledge in nuclear technologies is expected to grow significantly. The NTOP aims to bridge this industry-academia gap by offering participants exposure to the technical, operational, safety, and regulatory aspects of nuclear power generation.

The programme is targeted at early and mid-career Engineers, Managers from EPC companies, manufacturing professionals, engineering consultants, power sector personnel, and executives from public sector undertakings engaged in energy and infrastructure development. The curriculum combines foundational nuclear engineering concepts with practical industry perspectives and covers topics such as Reactor Physics, Reactor Engineering, Radiation shielding, Nuclear safety, Waste management, Reactor instrumentation and Control systems, Thermal hydraulics, Quality assurance, Emergency preparedness, and Advanced Nuclear technologies including Small Modular Reactors (SMRs).

A key highlight of the programme is the involvement of distinguished faculty members from IITH alongside experienced Scientists and Engineers who have served in leading Department of Atomic Energy (DAE) organisations, including the Nuclear Fuel Complex (NFC), Bhabha Atomic Research Centre (BARC), Nuclear Power Corporation of India Ltd. (NPCIL), and BHAVINI. Many of the experts have played critical roles in the design, manufacturing, operation, and regulation of nuclear power reactors in India.

Speaking on the launch of the programme, Prof. B S Murty, Director, IITH, said: “As India advances towards energy security and sustainable growth, nuclear energy will play an increasingly important role in the country's clean energy future. Through this programme, IITH aims to contribute to capacity building by bringing together academic expertise and industry experience to develop a highly skilled workforce for strategic sectors. The initiative reflects our commitment to creating industry-relevant learning opportunities that address national priorities and future technology needs.”

Commodore R D Mane, President Nuclear, CEEPL said on launch of the Pioneering Programme: “India's Nuclear Renaissance is not a distant ambition; it is happening now, and talent will determine who leads it. With the SHANTI Act unlocking a new era for India's civil nuclear sector, our partnership with IITH is a bold commitment to building nuclear professionals of the highest global calibre, trained by state-of-the-art faculty who bring the frontier of nuclear science into the classroom. As knowledge and technology percolate across the sector, we are equally determined to position India as the world's destination for cost-efficient nuclear equipment manufacturing and services — and that future begins with the people we develop today.”

Participants completing the programme will receive a joint certificate from IITH and Crimson Energy Experts Pvt. Ltd. Beyond technical learning, the programme is expected to create a platform for networking and collaboration among professionals, researchers, industry experts, and policymakers involved in India’s nuclear energy ecosystem.

The launch of NTOP further reinforces IIT Hyderabad’s growing engagement with industry-led professional education programmes and its commitment to supporting national missions through technology, research, and human resource development.

About CEEPL:

Established in 2012, Crimson Energy Experts Private Limited is a niche technology company which operates in three verticals; viz Nuclear, Defence and Artificial Intelligence. The company is among the few companies in India with Nuclear Reactor design capability, having completed the concept design of a Small Modular Reactor and presently progressing a Micro reactor in partnership with IITH and IIT Jammu. Crimson boasts of an elite team of experts drawn from eminent scientists from BARC and NPCIL, with exceptional domain knowledge and vast industry experience. Crimson is rapidly growing and developing into a strategic platform interfacing multiple Nuclear stakeholders including technology providers, design experts, industry stalwarts, manufacturers and investors for Nuclear Projects, in the Nation’s pursuit of ‘AtmaNirbharata’ in Nuclear sector, under the able guidance of DAE and BARC.
About IITH:

IITH, established in 2008, has reached a respectable position in academics, research, technology development, and Start-ups in a short span of 17+ years. In the National Institutional Ranking Framework (NIRF-2025), IITH is ranked 7th among Engineering institutes (crossing a first-generation IIT this year), and is ranked 6th in Innovation, while it has maintained its rank within the top 10 Engineering Institutes ever since NIRF was launched. IITH is ranked 588th in the QS World University Ranking 2027 and 270th in QS Asian University Rankings 2026 (123rd global ranking in citations per faculty). IITH has recorded a major leap in the QS World University Rankings 2026 by Subject, entering the global Top 400 in Engineering & Technology with a rank of 395, marking a sharp improvement from the 501–550 band in 2025. IITH secured 46 positions by 31 faculties in the Stanford /Elsevier Global Top 2% Scientists list 2025 across two categories. IITH has been striving for excellence with a motto of "Inventing & Innovating in Technology for Humanity (IITH)".

With 345+ full-time Faculty, 355+ non-teaching Staff and 5,720+ Students (PG+PhD students accounting for about 60%), IITH has a strong research focus with 5640+ R&D Projects worth of Rs. 1800+ Cr (Rs. 245+ Cr funding in 2025-26), 13,750+ Publications, 2,76,400+ Citations, 163 h-index, 755 Patents (250 Patents in 2025, i.e., 0.75 patents per faculty in 2025, making it possibly the best Indian institute in terms of patents filed per faculty in a year), and about 300 Start-ups (that have generated 1100+ jobs with a revenue of Rs. 1500+ Cr).

The thrust areas of research at IITH are: next-generation telecommunications, autonomous navigation, robotics & intelligent systems, semiconductors & devices, additive manufacturing, advanced materials & critical minerals, healthcare, energy, materials characterization, sustainability, climate change, smart mobility, EV technology, catalysis, quantum technologies, AI embedded computational engineering, design, AR/VR, waste management, and rural development.

Modi Showcases India’s First 700 MWe Nuclear Steam Generator at L&T Hazira

Prime Minister Narendra Modi’s visit to L&T’s Hazira complex showcased India’s indigenous 700 MWe nuclear steam generator, a milestone in self-reliant energy manufacturing. This achievement, supported by NPCIL and complemented by BHEL’s contributions, strengthens India’s nuclear expansion under the Aatmanirbhar Bharat vision.

A nuclear steam generator is basically a giant kettle inside a nuclear power plant — it takes heat from the reactor and turns water into steam that spins turbines to make electricity. It’s one of the most critical parts of the system, but the principle is simple enough for everyday understanding.

Key Highlights of the Visit

• Event: PM Modi visited L&T’s A. M. Naik Heavy Engineering Complex, Hazira (Gujarat) on 5 June 2026.
• Showcased Equipment: A 700 MWe nuclear steam generator manufactured indigenously by L&T for NPCIL.
• Significance: Reinforces India’s ability to design and produce critical nuclear components domestically, reducing reliance on imports.

What is a 700 MWe Steam Generator?

• A steam generator is a giant heat exchanger inside nuclear reactors.
• It transfers heat from the reactor core coolant to water, producing high-pressure steam that drives turbines to generate electricity.
• These generators are designed for India’s 700 MWe Pressurised Heavy Water Reactors (PHWRs).

Role of L&T

• L&T has dispatched seven 700 MWe steam generators ahead of schedule for NPCIL projects.
• Manufactured at Hazira and Vadodara facilities, adhering to stringent safety standards.
• Supports India’s fast-track nuclear programme and PM Modi’s Aatmanirbhar Bharat vision.

Role of BHEL

• BHEL has been a partner in India’s nuclear programme since 1976.
• Recently secured a ₹1,405 crore order to supply 12 steam generators for NPCIL’s 700 MWe PHWR fleet mode programme.
• BHEL’s Trichy plant has already dispatched its 42nd nuclear steam generator for NPCIL’s Rajasthan Atomic Power Project.
• BHEL remains the only Indian company associated with all three stages of India’s nuclear programme.

National Nuclear Expansion

• NPCIL operates 24 reactors (8,780 MW), with 13,100 MW under implementation.
• Indigenous 700 MWe PHWRs are central to India’s target of 100 GW nuclear capacity by 2047.
• Each 700 MWe reactor generates ~5.2 billion units annually, avoiding 4.5 million tonnes of CO₂ emissions.

Comparative Snapshot: L&T vs BHEL in Nuclear Steam Generators

Company	Contribution	Recent Milestone	Facilities
L&T	Manufactures 700 MWe steam generators for NPCIL	7 units dispatched ahead of schedule	Hazira & Vadodara
BHEL	Supplies steam generators, turbine sets, reactor headers	42nd steam generator dispatched (Rajasthan Atomic Project)	Trichy plant

Strategic Importance

• Strengthens energy security by reducing dependence on foreign suppliers.
• Creates skilled jobs and builds advanced engineering expertise.
• Supports India’s clean energy transition and net-zero 2070 goals.

India Bets on Nuclear Power to Fuel AI Data Centers

India is turning to nuclear energy to meet the surging power demand from AI-driven data centers, with a new Nuclear Energy Mission targeting 100 GW capacity by 2047. This move aims to ensure energy security, reduce fossil fuel dependence, and sustain hyperscale growth.

Why Nuclear Energy for Data Centers?

• AI workloads: A single AI server rack consumes 5–6 times more power than a conventional rack.
• Data center growth: India hosts <5% of global data centers despite accounting for 20% of global data consumption.
• Energy demand forecast: Capacity is expected to rise from <2 GW in 2025 to 8–15 GW by 2030.
• Policy push: The Nuclear Energy Mission aligns with India’s net-zero 2070 target and aims for 100 GW nuclear power by 2047.

Key Players Driving the Shift

• Reliance Industries: ₹1.6 lakh crore investment in a 1.5 GW AI cluster in Visakhapatnam.
• Google: $15B investment in a 1 GW hyperscale hub.
• Adani Group: $100B pan-India AI-ready infrastructure plan.
• Tata Group: Expanding with global partners like AWS and OpenAI.

Comparison: Energy Options for Data Centers

Energy Source	Reliability	Scalability	Carbon Impact	Suitability for AI
Nuclear	High	Very High	Low	Strong (stable baseload)
Solar	Medium (daylight dependent)	High	Very Low	Limited (needs storage)
Wind	Medium (seasonal)	Medium	Very Low	Moderate
Coal	High	High	Very High	Strong but unsustainable

Strategic Implications

• Energy Security: Nuclear reduces reliance on imported fossil fuels.
• Geopolitical Stability: Provides a resilient backbone for AI infrastructure amid global supply chain risks.
• Sustainability: Complements solar and wind to meet net-zero 2070 goals.
• Global Positioning: Positions India as a potential AI infrastructure hub, competing with Singapore, UAE, and US.

Small Modular Reactors (SMRs)

In late 2022, Union minister Dr Jitendra Singh has unveiled that India is taking steps for development of Small Modular Reactors (SMR), with up to 300 MW capacity to fulfill its commitment to Clean Energy transition.

SMRs are increasingly seen as a strategic solution to power India’s fast‑growing data center sector, offering clean, reliable baseload electricity that can sustain AI workloads and hyperscale operations. Experts highlight their role in ensuring energy security, resilience, and uninterrupted supply for mission‑critical infrastructure.

SMRs can directly power hyperscale clusters in Visakhapatnam, Hyderabad, and Mumbai. Unlike solar or wind, SMRs provide continuous electricity, crucial for AI clusters that cannot tolerate downtime.

Risks & Challenges of Nuclear Power in Data Centre 

• Execution risk: Scaling nuclear capacity from current levels to 100 GW by 2047 is ambitious.
• Cooling & water demand: AI data centers could drive water usage to 1,068 billion liters annually by 2028.
• Regulatory hurdles: Streamlined approvals across states are critical.
• Public perception: Nuclear projects often face opposition due to safety concerns.

Rolls-Royce Powers India’s Next Leap with MRO, Jet Engines, and Nuclear Ambitions

Rolls-Royce is preparing a major expansion in India with plans to establish a local Maintenance, Repair and Overhaul (MRO) facility for civil aviation engines and a full aero gas turbine complex with complete technology transfer for indigenous military jet engines, including the AMCA program. The company is also exploring small modular reactors (SMRs) for India’s civil nuclear sector, potentially investing billions and creating over 10,000 jobs.

Civil Aviation MRO Facility

• Current Status: Indian aircraft engines are serviced in Singapore and Hong Kong.
• Future Plan: Rolls-Royce will set up a domestic MRO hub to support India’s growing fleet.
• Drivers:
  • Air India & IndiGo have ordered 100+ Airbus A350s, powered exclusively by Rolls-Royce engines.
  • Over 220 engines and spares expected in India in the next few years.

Aero Gas Turbine Complex

• Scope: Indigenous development of military jet engines, starting with the Advanced Medium Combat Aircraft (AMCA).
• Technology Transfer: Rolls-Royce has offered complete IP transfer, ensuring Indian sovereignty over engine design.
• Timeline:
  • Ground trials: Targeted by 2032
  • First flight: Expected by 2034
• Expansion: Facility may later support dual-use engines for civil aviation.

Nuclear Energy – Small Modular Reactors (SMRs)

• Policy Context: Enabled by India’s Shanti Act 2025, which ended public sector monopoly in nuclear energy.
• Rolls-Royce Interest: Exploring deployment of SMRs for clean, scalable civil nuclear power.

Strategic Impact

Initiative	Focus Area	Timeline/Scale	Impact
Civil MRO	Aircraft engine servicing	Within next few years	Reduces reliance on overseas hubs
Gas Turbine Complex	Military jet engines (AMCA)	Trials by 2032, flight by 2034	Indigenous propulsion capability
SMRs	Civil nuclear energy	Post-2025	Clean energy, billions in investment

Risks & Challenges

• Capital Intensive: Requires sustained R&D and infrastructure investment.
• Global Competition: Competing with established aerospace giants in US/EU.
• Supply Chain Dependence: India must strengthen domestic ecosystem to reduce reliance on imported sub-systems.

Strategic Positioning

• Rolls-Royce sees India as its fourth “home market” after UK, US, and Germany.
• Longstanding partnerships with HAL and Force Motors already anchor its presence.
• Potential to employ 10,000+ people and invest billions of dollars in India’s aerospace and energy sectors.

India Takes Charge of Nuclear Tech Cooperation in Asia-Pacific

India has formally assumed the Chairmanship of the Regional Cooperative Agreement (RCA) for 2026, marking a major milestone in its leadership on peaceful nuclear cooperation across Asia-Pacific. The announcement was made during the 48th Meeting of National Representatives (NRM) held in Navi Mumbai from May 19–22, 2026.

What is the RCA?

• Regional Cooperative Agreement (RCA): Established in 1972 under the International Atomic Energy Agency (IAEA).
• Membership: 22 Asia-Pacific nations.
• Purpose: Promote cooperative research, training, and development in the peaceful applications of nuclear science and technology.

India’s Role in 2026

• Chairmanship: India assumed the RCA Chair for 2026 during the 48th NRM in Navi Mumbai.
• Host: Department of Atomic Energy (DAE), Government of India.
• Delegates: 29 representatives from 17 Asia-Pacific nations, plus 3 delegates from AFRA.
• Themes Highlighted:
  • Healthcare: Nuclear medicine, cancer care, radiotherapy.
  • Agriculture & Food Security: Mutation breeding, food preservation.
  • Water Management: Nuclear desalination, purification technologies.
  • Environmental Sustainability: Radiation technologies for waste management and isotope hydrology.

Key Significance

• Scientific Diplomacy: Reinforces India’s positioning as a technology-driven partner for the Global South.
• Track Record: India has decades of experience in peaceful nuclear applications, from healthcare to industrial development.
• Strategic Outreach: Strengthens India’s regional ties in Asia-Pacific and builds bridges with Africa through AFRA participation.

Event Details

• 48th NRM Dates: May 19–22, 2026.
• Location: Navi Mumbai, Maharashtra.
• Special Activities: Technical exhibition and guided tours at ACTREC, showcasing India’s nuclear-enabled healthcare innovations.

Quick Comparison: RCA Focus Areas

Sector	India’s Contributions	Regional Impact
Healthcare	Nuclear medicine, radiotherapy	Improved cancer care capacity
Agriculture	Mutation breeding, food preservation	Food security & sustainability
Water Management	Nuclear desalination, purification	Safe drinking water access
Environment	Radiation for waste & hydrology	Cleaner cities, better monitoring

Dr Jitendra Singh: PFBR Launch Places India in Elite Nuclear League

India has achieved a historic milestone with the Prototype Fast Breeder Reactor (PFBR) at Kalpakkam, Tamil Nadu attaining first criticality on April 6, 2026, making it the second country after Russia to operate a commercial-level fast breeder reactor. This marks the beginning of Stage II of India’s three-stage nuclear programme and positions the nation at the forefront of advanced nuclear technology.

Key Highlights

• Event Date: April 6, 2026, at 8:25 PM
• Location: Kalpakkam Nuclear Complex, Tamil Nadu
• Capacity: 500 MWe Prototype Fast Breeder Reactor (PFBR)
• Developed by: Indira Gandhi Centre for Atomic Research (IGCAR)
• Built by: Bharatiya Nabhikiya Vidyut Nigam Limited (BHAVINI)
• Global Position: India becomes the second country after Russia to operate a commercial fast breeder reactor

Significance in India’s Nuclear Programme

• Three-Stage Strategy:
  • Stage I: Pressurised Heavy Water Reactors (PHWRs) using natural uranium
  • Stage II: Fast Breeder Reactors (FBRs) using plutonium from Stage I fuel. PFBR marks India’s entry here
  • Stage III: Thorium-based reactors, leveraging India’s vast thorium reserves
• Fuel Efficiency: PFBR uses uranium-plutonium mixed oxide (MOX) fuel and produces more fuel than it consumes
• Future Thorium Utilisation: Designed to convert Thorium-232 into Uranium-233, enabling large-scale thorium deployment

Government Statements

• Dr Jitendra Singh (Union Minister): Highlighted India’s distinguished position in advanced nuclear capability and emphasized nuclear energy’s role in achieving 100 GW nuclear power capacity by 2047 and supporting Net Zero by 2070
• Prime Minister Narendra Modi: Called the PFBR’s criticality a “historic milestone” in his Mann Ki Baat address, praising scientists for advancing indigenous nuclear technology

Strategic Impact

Impact Area	Details
Energy Security	Enhances India’s ability to generate clean, reliable power
Global Standing	Places India alongside Russia in operating commercial fast breeder reactors
Clean Energy Transition	Supports AI, data infrastructure, and advanced manufacturing sectors with dependable power
Policy Support	Initiatives like SMRs and SHANTI Act enable private sector participation; five SMRs planned by 2033

Conclusion

India’s PFBR milestone is not just a technological achievement but a strategic leap toward energy independence and sustainability. By bridging uranium scarcity with thorium abundance, India is laying the foundation for a future-ready nuclear ecosystem that will power its clean energy transition and global leadership in advanced nuclear technology.

India Achieves Breakthrough: Prototype Fast Breeder Reactor Reaches Ist Criticality, Joining Russia as Global Pioneer in Advanced Nuclear Energy

India has achieved a historic milestone in nuclear energy: the indigenously built 500 MWe Prototype Fast Breeder Reactor (PFBR) at Kalpakkam, Tamil Nadu, attained first criticality on April 6, 2026. This marks India’s entry into Stage II of its three-stage nuclear programme, making it only the second country after Russia to operate a commercial fast breeder reactor.

Understanding Criticality

Criticality is the point at which a sustained and controlled nuclear fission chain reaction begins. At this stage, neutrons produced by fission equal those lost through absorption and leakage, resulting in a stable power output. It marks the transition from the construction phase to the operational phase and is the essential first step towards generating heat and, ultimately, electricity.

Notably, India holds limited uranium reserves but one of the largest thorium reserves in the world. To make the most of these resources, the Department of Atomic Energy designed a three-stage nuclear power programme built on a closed nuclear fuel cycle. The goal is to progressively multiply domestic fissile resources and secure long-term energy independence.

Key Highlights of Criticality

• Date & Location: April 6, 2026, Kalpakkam Nuclear Complex, Tamil Nadu
• Capacity: 500 MWe PFBR, designed by IGCAR and built by BHAVINI
• Significance: Marks the start of a sustained nuclear chain reaction (“first criticality”)
• Global Context: India joins Russia as the only nations with operational commercial fast breeder reactors

India’s Three-Stage Nuclear Programme

Stage	Technology	Fuel	Purpose
Stage 1	Pressurised Heavy Water Reactors (PHWRs)	Natural uranium	Produces plutonium for Stage 2
Stage 2	Fast Breeder Reactors (FBRs)	Plutonium + MOX fuel	Breeds more fuel than consumed; prepares Uranium-233 from thorium
Stage 3	Thorium-Based Reactors	Uranium-233 bred from thorium	Harnesses India’s abundant thorium reserves for long-term energy independence

The Prototype Fast Breeder Reactor (PFBR) at Kalpakkam, Tamil Nadu, is India’s flagship project in advanced nuclear technology. Construction began in 2004, and after years of design, testing, and regulatory clearances, the 500 MWe sodium-cooled reactor achieved first criticality on April 6, 2026, marking India’s formal entry into Stage II of its three-stage nuclear programme.

PFBR Origins, History & Technology Overview

Origins and Development

• Conceptualization: Conceived as part of Dr. Homi Bhabha’s three-stage nuclear vision to maximize India’s limited uranium and vast thorium reserves
• Design: Developed by the Indira Gandhi Centre for Atomic Research (IGCAR), using liquid sodium coolant and Uranium-Plutonium Mixed Oxide (MOX) fuel
• Construction: Initiated in 2004 at the Kalpakkam Nuclear Complex, near Chennai
• Ownership: Managed by Bharatiya Nabhikiya Vidyut Nigam Limited (BHAVINI), under the Department of Atomic Energy
• Cost: Estimated at ₹5,850 crore (about US$2.5 billion in 2023 terms)

Key Milestones

• 2004: Groundbreaking and start of construction
• 2010s: Multiple delays due to technical challenges, safety reviews, and component testing
• December 2025: Commissioning planned after Atomic Energy Regulatory Board (AERB) clearance
• April 6, 2026: Reactor achieved first criticality, establishing a self-sustaining nuclear chain reaction

Technical Features

• Type: Sodium-cooled, pool-type fast breeder reactor
• Capacity: 500 MWe (electrical output)
• Fuel Cycle: Uses plutonium from spent PHWR fuel; breeds more fissile material (Plutonium-239, Uranium-233) than it consumes
• Strategic Role: Designed to bridge Stage I (uranium-based PHWRs) and Stage III (thorium-based reactors)

Strategic Importance

• Global Standing: India becomes only the second country after Russia to operate a commercial fast breeder reactor
• Energy Security: Supports India’s long-term goal of 100 GW nuclear capacity by 2047 and net zero emissions by 2070
• Innovation: Demonstrates indigenous capability in advanced reactor design, positioning India as a leader in thorium-based nuclear energy

Challenges and Criticism

• Safety Concerns: Sodium coolant poses fire risks; breeder reactors are complex and costly
• Delays: Project faced repeated postponements, with commissioning delayed by over a decade
• Political Debate: Some leaders have urged reconsideration of the project citing safety and economics

Why India Must Scale Nuclear Power – India's energy demands are growing rapidly and its clean energy commitments are firm. Nuclear power is a base load source of electricity available round the clock, with lifecycle emissions comparable to renewables such as hydro and wind. It is uniquely placed to meet the always-on power needs of data centres, advanced industries, and emerging technologies. Scaling nuclear capacity is therefore not just a strategic choice but a practical necessity for India's long-term energy security and clean power transition.

India’s Nuclear Roadmap

• Current Capacity: 8.78 GW, ~3% of national electricity
• Planned Expansion: Target of 22.38 GW by 2031–32
• Long-Term Mission: 100 GW by 2047, backed by ₹20,000 crore investment in SMRs
• Policy Support: SHANTI Act, 2025 modernises India’s nuclear framework

Conclusion

The PFBR’s first criticality is not just a technological feat—it is a turning point in India’s energy journey. It validates decades of indigenous research, strengthens India’s global standing in advanced nuclear technology, and sets the stage for thorium-based reactors that could secure long-term energy independence.

India’s SHANTI Act Aligns Nuclear Liability with Global Regime, Authorizes Private Sector Entry into Atomic Energy

India’s Sustainable Harnessing and Advancement of Nuclear Energy for Transforming India (SHANTI) Act, 2025 marks a historic shift in nuclear energy policy by allowing private sector participation, modernizing liability rules, and aligning India’s framework with international conventions. While it promises to boost nuclear capacity to 100 GW by 2047, experts warn of gaps in supplier liability and waste management that need urgent attention.

Key Highlights of the SHANTI Act, 2025

• Private Sector Entry: Private companies can set up nuclear facilities or engage in nuclear energy activities under licenses from the Central Government and safety authorization from the Atomic Energy Regulatory Board (AERB).
• Civil Liability Framework:
  • Operator liability ranges from ₹100 crore to ₹3,000 crore, depending on facility type.
  • Strict no-fault liability ensures prompt compensation by operators.
  • Government liability capped at 300 million SDR (~₹3,000 crore).
  • Beyond this, India can access funds under the Convention on Supplementary Compensation (CSC).
• Regulatory Oversight: AERB enforces safety standards, conducts inspections, and mandates corrective measures for deviations.
• Incident Reporting: Licensees must report nuclear incidents, and AERB must recommend government notification within 15 days.

Strategic Goals

• Energy Transition: India aims to raise nuclear power’s share from 6% to 20% of the energy mix, targeting 100 GW capacity by 2047.
• Clean Energy Push: Nuclear energy is positioned as a critical pillar in India’s decarbonization strategy, complementing renewables.
• Global Alignment: Liability provisions are harmonized with international norms, strengthening India’s credibility in nuclear commerce.

Concerns & Criticisms

• Supplier Liability Gap: The Act does not explicitly provide operators the “right to recourse” against suppliers for faulty equipment, raising accountability concerns.
• Waste Management: Calls for a robust radioactive waste policy before licensing private firms.
• Transparency: Demands for third-party audits of reactor suppliers and public disclosure of inspection results.

International Dimension

• India–US Collaboration: The Act has opened doors for deeper civil nuclear cooperation with the US, accelerating technology transfer and investment.
• Global Nuclear Market: By aligning liability norms with CSC, India strengthens its position as a reliable partner in international nuclear projects.

Conclusion

The SHANTI Act, 2025 is a transformative milestone in India’s nuclear journey—balancing private participation, safety, and liability. However, supplier accountability and waste management remain unresolved challenges. Addressing these will be crucial for building public trust and ensuring that nuclear energy becomes a safe, sustainable backbone of India’s energy future.

In A Historic Shift, India Opens Uranium Mining to Private Sector

India is poised to make a historic shift in its nuclear energy strategy by allowing private firms to mine, import, and process uranium—ending a decades-old state monopoly, said a report by Reuters.

Key Highlights of the Policy Shift

• Private Sector Entry: Companies can now mine, import, and supply control systems for nuclear plants.
• State Retains Core Control: Government will manage spent fuel reprocessing and plutonium waste.
• Timeline: Policy expected to be announced in FY26.

Nuclear Expansion Goals

Metric	Current Status	2047 Target
Nuclear Power Capacity	8.8 GW	100 GW
Share of Electricity from Nuclear	~2%	5%
Uranium Demand Coverage (Domestic)	~25%	Remainder to be imported

Implications for Industry & Investment

• Legal Overhaul: Amendments needed in mining, electricity, and FDI laws.
• Foreign Participation: Minority stakes in nuclear plants to be allowed.
• Corporate Interest: Indian conglomerates preparing investment plans.

Global Context

Countries like Canada, South Africa, and the United States already allow private firms to mine and process uranium, offering international precedents for India’s move.

This shift is part of Prime Minister Modi’s broader Viksit Bharat 2047 vision, aiming to make nuclear energy a cornerstone of India’s clean energy and energy security strategy.

HYLENR Secures $3 Mn Pre-Series A to Commercialize LENR-Based Carbon-Free Heat Systems

HYLENR, a clean energy startup harnessing patented Low Energy Nuclear Reactions (LENR) to develop scalable, carbon-free heat energy systems for industrial heat and power, today announced the successful closure of around USD 3.0 Million strategic Pre-Series A funding round to accelerate product commercialisation.

The round was led by Valour Capital and Chhattisgarh Investments Limited, early-stage investors focused on deep-tech/energy transition technologies. Individual investors Karthik Sundar Iyer and Anant Sarda also participated. PwC served as the company’s advisor on the transaction, while Samvad Partners was their legal advisor.

The fresh capital injection enables HYLENR to fast-track from pilot to market launch, signaling growing investor confidence in LENR as a viable alternative to fossil fuels amid rising interest in its breakthrough heat energy amplification and scalable commercial systems.

Karan Goshar, Partner at Valour Capital, commented, “HYLENR’s LENR technology is disruptive; it represents a leap forward in redefining how the world approaches industrial heat and energy generation. What excites us most is the scalability and safety profile of their systems, coupled with the perfect mix of technological and entrepreneurial expertise within the team, which positions HYLENR to play a key role in the global energy transition. We are thrilled to back a team delivering transformative technology.”

“We believe LENR has the potential to be the safest and most energy-efficient thermal and electrical generation technology of the future,” said Siddhartha Durairajan, Chairman and Managing Director of HYLENR. Adding, “Our recent lab results show unprecedented energy gain ratios, and this round gives us the momentum to focus on our product roadmap. We have begun early proof-of-concept tests, with several government bodies and large corporations showing interest in our LENR systems. The next phase will focus on scaling manufacturing and expanding globally.”

“This round is a vote of confidence in both our technology and our mission,” expressed Ram Ramaseshan, Co-Founder, Executive Director and CEO of HYLENR. “We have moved beyond proof-of-concept into a phase where LENR can begin to address real-world energy challenges. This funding allows us to accelerate product development and market reach, addressing industry needs for clean, high-yield thermal and electrical energy solutions in the US, Europe, India and Japan markets.”

Pilot projects are already underway with leading government institutions and industrial players, aimed at replacing conventional fossil-based systems with sustainable, next-generation alternatives. The company’s product pipeline includes products ranging from 7.2KW for domestic consumption all the way to 1MW for large-scale industrial applications.

With its next fundraising round of USD 25 Million targeted with strategic investors and with Clean Energy focused funds from the U.S. and Europe, HYLENR aims to build on this momentum and expand its R&D, engineering, and international partnerships. The company is seeking mission-aligned investors who recognize LENR as a foundational pillar of the post-carbon energy era.

The inspiration for LENR technology comes from HYLENR’s Chief Innovation Officer, Padma Shri Dr. Prahlada, renowned as the Missile Man of India for his work on the Akash missile, and Dr. Varaprasad, the company’s Chief Scientific Officer.

About HYLENR Technologies

Founded in 2024 and based in Hyderabad, HYLENR Technologies is at the forefront of next-generation energy innovation. The company’s proprietary LENR-based hybrid heat systems aim to revolutionize thermal energy generation across industries such as manufacturing, oil & gas, district heating, and clean water desalination. Their breakthroughs in LENR are now protected by two patents — one for the product architecture, and another for the underlying process innovation. https://www.hylenr.com

About Valour Capital

Valour Capital is a venture capital firm backing breakthrough startups with the potential to create global impact. With a portfolio spanning cleantech, AI, biotech, and infrastructure, Valour is committed to investing in technologies that reimagine industries and reshape the future.

India's Nuclear Fuel Complex: 52 Years Since Its First Nuclear Fuel Bundle

A Legacy of Innovation Established in April 1971 , the Nuclear Fuel Complex (NFC) in Hyderabad has been a cornerstone of India's nuclear energy program. It was conceived as a pivotal industrial arm of the Department of Atomic Energy (DAE) to ensure self-reliance in nuclear fuel production—a vision championed by Dr. Homi Bhabha.

In June 1973 , NFC produced its first nuclear fuel bundle, marking a significant milestone in India's journey toward nuclear energy independence. At the time, Indira Gandhi was India's Prime Minister , and Raja Ramanna played a crucial role in India's nuclear advancements as a leading scientist within the Atomic Energy Commission. 

The Science Behind Nuclear Fuel

At the heart of NFC’s operations is the transformation of natural uranium —mined from Jaduguda, Jharkhand —into uranium dioxide (UO₂) pellets . These pellets, which undergo nuclear fission to generate energy, are encased in zirconium alloy tubes , ensuring containment of radioactive byproducts.

A 220 MW PHWR fuel bundle contains 15.2 kg of uranium dioxide , meticulously fabricated to withstand extreme conditions within nuclear reactors.

Manufacturing of Fuel Assemblies

NFC’s expertise extends beyond fuel production, supplying zircaloy-clad uranium oxide fuel assemblies and reactor core components to all 14 operating atomic power reactors in India.

Expanding India's Nuclear Capabilities

Over the decades, NFC has continuously expanded its production capacity. Initially designed to produce 250 tons of UO₂ per year, the Hyderabad facility is now scaling up to 600 tons annually to meet India's growing nuclear energy demands.

Beyond power generation, NFC plays a crucial role in defense and aerospace , supplying high-purity materials to the Indian Navy, Hindustan Aeronautics Limited (HAL), and other strategic sectors

The Road Ahead

As India accelerates its nuclear energy ambitions, NFC is poised to establish two new fuel fabrication facilities , ensuring a steady supply of nuclear fuel for upcoming reactors.

A new facility of NFC at Kota, where fuel tube production is already underway, and is expected later this year, with full commissioning of all fuel modules. 

With its legacy of innovation and commitment to self-reliance, NFC remains a pillar of India's nuclear energy program , driving the nation toward a sustainable and energy-secure future. Would you like me to refine any sections further or add more historical context?

China Achieves Historic First: Refueling a Running Nuclear Reactor

• China Revives Abandoned U.S. Nuclear Tech to Achieve Energy Breakthrough
• China now has world's first operational thorium nuclear reactor

Chinese scientists have achieved a major breakthrough in nuclear energy by reviving old research from the United States. They built a unique reactor in the Gobi Desert that runs on thorium, a different and safer fuel compared to uranium.

Unlike traditional reactors, the Chinese scientists built one that produces less nuclear waste. The most impressive part of their achievement is that they managed to refill the reactor while it was still running, something no one had done before.

Chinese scientists have successfully refueled an experimental thorium molten salt reactor without shutting it down—an unprecedented breakthrough in nuclear energy.

This technology was originally developed in the U.S. in the 1950s, but it was abandoned, leaving the research publicly available. China picked up where the U.S. left off and successfully made it work. If this innovation can be scaled up, it could lead to cleaner and safer nuclear power, helping the world transition to better energy solutions with less pollution. This marks a significant step toward sustainable energy and reducing carbon emissions.

As mentioned above, thorium reactors were originally developed in the United States in the 1950s, but the U.S. shifted focus to uranium-based reactors, leaving this research publicly available. Chinese scientists capitalized on this abandoned knowledge, refining it into a working prototype.

Comic Timing

The timing of China’s nuclear breakthrough is almost poetic, given the ongoing tariff war with the U.S. Right now, Washington and Beijing are locked in a tense trade battle, with the U.S. imposing up to 145% tariffs on Chinese goods, while China retaliates with 125% tariffs on American imports.

Against this backdrop, China’s successful revival of abandoned U.S. nuclear research feels like a strategic flex. It’s as if Beijing is saying, “You may have left this behind, but we’ve turned it into a game-changer.” The fact that the U.S. originally developed thorium reactor technology in the 1950s, only to abandon it, makes this moment even more ironic.

While trade tensions escalate, China is making strides in energy independence, potentially reducing reliance on foreign fuel sources. If thorium reactors prove viable on a large scale, China could strengthen its energy security, making it less vulnerable to external pressures—including economic sanctions.

It’s an interesting mix of scientific progress and geopolitical maneuvering.

Nuclear Technology

This reactor can generate 2 megawatts (MW) of energy, enough to power around 2,000 households, and it significantly reduces nuclear waste compared to conventional uranium reactors. Given China’s goal of carbon neutrality by 2060, this breakthrough could play a crucial role in its clean energy transition.

China’s breakthrough in nuclear energy revolves around a thorium molten salt reactor (TMSR), a next-generation nuclear system that operates differently from traditional uranium-based reactors. Here are the key technical details:

• Fuel Source: Instead of solid uranium rods, this reactor uses liquid thorium dissolved in molten salt.
• Refueling Innovation: Scientists successfully refueled the reactor while it was still running, a feat never achieved before.
• Safety Features: The molten salt system prevents overheating, making meltdowns nearly impossible.
• Efficiency: Thorium reactors extract more energy per unit of fuel compared to uranium reactors.
• Waste Reduction: Produces minimal long-lived radioactive waste, unlike conventional nuclear reactors.
• Self-Regulating Mechanism: If the reactor overheats, the molten salt expands, automatically reducing nuclear reactions.
• Emergency Shutdown System: A freeze plug at the reactor’s base melts in emergencies, draining the fuel into a safe storage chamber to stop reactions instantly.
• Power Output: The experimental reactor generates 2 megawatts (MW) of thermal power, enough to supply around 2,000 households

This breakthrough could redefine nuclear energy by making it safer, cleaner, and more sustainable. What’s your take on this? Comment below....

Hylenr and TakeMe2Space to Test & Experiment Low-energy Nuclear Reaction (LENR) Tech for Space-based Compute Infrastructure

(L–R) Ronak Kumar Samantray, Founder of TakeMe2Space and Siddhartha Durairajan Hylenr Founder and CEO

• Hylenr and TakeMe2Space to test LENR Powered Compute Modules
• Ink MoU to test and experiment Hylenr’s Low-Energy Nuclear Reaction (LENR) technology for space-based compute infrastructure

Hyderabad based startup Hylenr Technologies, a leader in clean energy innovation, has signed a Memorandum of Understanding (MoU) with TakeMe2Space, a pioneering space-tech company, to develop and test LENR powered compute modules in space.

TakeMe2Space is actively exploring multiple energy technologies, including LENR, to assess efficient methods for heat extraction and potential reuse in its compute-focused satellites. This technology could also be applicable for deep space missions which traditionally use radioisotope based thermoelectric generators (RTGs).

Hylenr The ASTROGEN 250 — a 250 kW space-based energy generator specifically engineered to operate in extraterrestrial environments (think: the Moon, Mars, deep space missions). It’s like the HYTHERM 250’s intergalactic cousin, but tailored for the harsh, no-nonsense conditions of outer space.

As the first step of this collaboration, Hyderabad based startup TakeMe2Space, which is building LEO satellite infrastructure will provide the satellite platform and subsystems required to test Hylenr’s LENR-based thermo-electric generator in space.

"Validating our LENR technology in space is a crucial milestone, and TakeMe2Space’s platform and expertise provides the perfect opportunity to test our system in a real operational environment," said Hylenr Founder and CEO Siddhartha Durairajan. "This could open new possibilities for long-duration missions and off-grid power solutions in space."

Ronak Kumar Samantray, Founder of TakeMe2Space, added,

We are actively exploring alternative energy solutions for our in-space compute infrastructure and are excited to take this first step with Hylenr to test their technology in space. We are particularly interested in assessing how this approach can be leveraged for efficient heat management and energy reuse in our satellites.

This partnership represents a step toward exploring LENR for space, with TakeMe2Space bringing expertise in space systems and Hylenr demonstrating the viability of its LENR-based power system.

Furthermore, accomplishing this goal, will help deliver a compact, long-lasting, and clean energy source for space-based computing, possibly enabling: Long-duration missions. high-power computing in space, reduced reliance on solar power or other energy sources.

About Hylenr

Hyderabad based Startup HYLENR’s has demonstrated world’s first and a ground-breaking cold fusion technology to generate Clean Energy. This innovation has received a patent from the Government of India for its Low Energy Nuclear Reactor Technology. HYLENR’s Low Energy Nuclear Reactor is a promising alternative for power generation, by amplifying input electricity to produce heat for Space Application (MMRTG), Steam generation for multiple applications, Room Heating across cold regions globally, Induction heating for Domestic and Industrial requirements. Also, HYLENR devices can drastically decrease the risk profile for space missions. For more information : https://hylenr.com/

NTPC and US-based Clean Core Collaborate for Using Thorium-based Nuclear Fuel Tech in India

NTPC Limited, India's largest integrated power company, has partnered with US based Clean Core Thorium Energy (Clean Core) to explore the development and deployment of ANEEL™ fuel for Pressurized Heavy Water Reactors (PHWRs). This collaboration aims to leverage thorium-based nuclear fuel technology to enhance India's energy security and sustainability.

Advanced Nuclear Energy for Enriched Life (ANEEL™) is a new nuclear fuel developed by Clean Core, a Chicago-based company founded by Mehul Shah.

ANEEL™ is a mix of Thorium and Uranium enriched to a certain level, known as High Assay Low Enriched Uranium (HALEU).

The name ANEEL™ honors Dr. Anil Kakodkar, one of India's foremost nuclear scientists.

The collaboration aims to minimize the use of Uranium-235 by leveraging Thorium, which India has in abundance. ANEEL™ can be used in existing Pressurized Heavy-Water Reactors (PHWRs), which are a significant part of India's nuclear fleet.

It was in last month only when Clean Core announced that its patented ANEEL™ fuel has reached a groundbreaking burnup milestone in the Advanced Test Reactor at Idaho National Laboratory. With this, Clean Core's first-of-its-kind, thorium-based ANEEL™ fuel moves a step closer to commercialization.

ANEEL™ can fast-track India's transition to green energy by efficiently utilizing Thorium reserves. Spent ANEEL fuel cannot be used for weapons, enhancing nuclear non-proliferation efforts. It can help India achieve its net-zero target by 2070 and ensure energy security.

Key Objectives:

1. Development and Deployment: Explore the introduction of ANEEL™ fuel in India's PHWRs.
2. Indigenization: Promote local manufacturing and develop a domestic supply chain for ANEEL™ Fuel.
3. Supply Chain for HALEU: Establish logistics for High-Assay Low-Enriched Uranium (HALEU).
4. Uranium Supply with Sovereign Guarantee: Secure uranium supplies for India to support fuel requirements.

Benefits of ANEEL™ Fuel:

• Utilization of Thorium: Uses India's abundant thorium reserves in existing PHWR reactors.
• Waste Reduction: Significantly lowers nuclear waste.
• Energy Security: Enhances India's energy independence.
• Improved Safety: Boosts safety and proliferation resistance.
• Cost Efficiency: Delivers greater energy output while reducing operational costs.

This partnership reflects a commitment to fostering innovation in nuclear energy and ensuring energy sustainability and security.

Earlier in October, Larsen & Toubro also signed a Memorandum of Understanding (MoU) to with Clean Core to collaborate on providing efficient solutions globally in clean energy through CCTE’s patented ANEEL™ fuel. 

India, Russia and China Plan to Develop Nuclear Power Plant on the Moon

India, Russia and China are planning to collaborate on developing a nuclear power plant on the Moon. This ambitious project is led by Russia's state nuclear corporation, Rosatom, and aims to establish a small nuclear reactor capable of generating up to half a megawatt of energy.

The nuclear power plant is intended to support future lunar base operations, providing a reliable energy source essential for sustaining long-term human presence and scientific research on the Moon.

This ground-breaking project, capable of generating half a megawatt of energy and expected to be operational by 2035, will see an initial step of installing a small reactor for essential power.

The plan positions the Global South at the forefront of lunar colonisation efforts. India's involvement aligns seamlessly with its ambitious plans for a manned lunar mission by 2040, potentially accelerating this timeline. The collaboration transcends terrestrial geopolitics, showcasing the Global South's growing influence in space technology and diplomacy.

Using nuclear power on the Moon offers several significant advantages. Unlike solar power, which is dependent on sunlight and affected by the lunar night (lasting about 14 Earth days), nuclear power can provide a continuous and stable energy supply.

Moreover, nuclear reactors have a high energy density, meaning they can produce a large amount of energy from a relatively small amount of fuel. This is crucial for supporting long-term missions and operations on the Moon.

Transporting a nuclear reactor to the Moon is a complex and multi-step process. Typically, the reactor will be designed to be compact and lightweight, ensuring it can be safely transported by a spacecraft. Once in lunar orbit, a specialized lunar lander will transport the reactor from the spacecraft to the Moon’s surface. This lander will need to be capable of safely landing the reactor in the designated area.

After landing, the reactor will be deployed and assembled on the lunar surface. This might involve robotic systems or astronauts, depending on the mission’s specifics.

India's involvement aligns with its plans for a manned lunar mission by 2040. This collaboration underscores the importance of International cooperation in space exploration and the development of sustainable energy solutions for extraterrestrial environments.

This collaboration between India, Russia, and China will likely leverage their combined expertise in space technology and nuclear engineering to achieve this ambitious goal.