Pranos Fusion develops infrastructure for nuclear fusion energy generation in India
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Pranos Fusion develops infrastructure for nuclear fusion energy generation in India

Pranos Fusion is developing the industrial equipment necessary for India to generate electricity through nuclear fusion. Nuclear fusion is a process that powers the Sun, where light atoms combine to release energy without producing carbon dioxide or long-lived radioactive waste, unlike the fission of heavy atoms.

Although the wait for nuclear fusion energy has lasted seventy years, the delay is not due to physical problems, as laboratories have repeatedly demonstrated fusion reactions. For example, China's tokamak held plasma for 1066 seconds, and WEST in France exceeded this figure, reaching 1377 seconds. However, the necessary industrial complex is missing: magnets, control systems, design tools, and supply chains that could turn an experiment into an operational power plant.

Pranos Fusion focuses precisely on this missing industrial part, not on the reaction itself. Founded in Bengaluru in 2024 by Shaurya Kaushal and Roshan George, the company positions itself as a developer of an integrated technology stack for fusion, asserting that the world needs commercial infrastructure to connect fusion to power grids.

This technology stack consists of three components. JENGA is a platform for plasma design and control—a digital twin that links plasma physics with the engineering aspects of the device, allowing configurations to be tested in simulation before working with hardware. MAGGA is responsible for high-temperature superconducting magnets that confine the plasma; more powerful magnets allow for the creation of more compact machines, which was key to achieving compact fusion in the last decade. PRAGYA is the machine itself, a compact spherical tokamak. The tokamak confines plasma in a donut-shaped magnetic field, and the low aspect ratio version built by Pranos has a more squat appearance compared to the classic design, which complicates engineering but reduces production costs.

In August 2026, the company announced the completion of the development of the first privately built tokamak in India. This year, the company aims to achieve the first plasma milestone, which is a separate and more complex stage than simply building the apparatus.

The founders possess experience from different sides of the technology stack. Kaushal holds a Ph.D. in computational physics from JNCASR and an engineering degree from BITS Pilani, and has worked at the UK Atomic Energy Authority and CSIR-CEERI; he oversees physics and hardware. George has a background in computer science and has spent many years creating digital platforms for the energy sector; he is responsible for software and control algorithms.

The company started with preliminary funding of about 3.5 crore rupees from Industrial47 and a grant of 2 lakh rupees from Startup India Seed Fund. In March 2026, it raised $6.8 million, equivalent to about 63 crore rupees, co-led by Pi Ventures and Ankur Capital, with participation from Industrial47 and angel investors, including Groww co-founder Lalit Kashre, founders of Razorpay and Bhukhanwala Industries. The total amount of funding raised reached approximately $7.22 million, which is directed towards supporting a team of about eight people, test sites, and three technological directions. The company collaborates with third-party manufacturers in Bengaluru, Pune, and Chennai for equipment fabrication.

Pranos is incubated at the Institute for Plasma Research, which manages India's operational tokamaks, as well as at JNCASR. Plasma control systems are being developed with subsequent integration into existing IPR facilities in mind.

It is worth noting the scale of the project: Commonwealth Fusion Systems and Helion Energy have collectively raised billions of dollars but have not yet achieved net energy gain. Pranos has raised seven million dollars and aims to build an industrial base, rather than participate in the race.

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China develops compact fusion devices aiming for first energy by 2030
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pandaily.com

China develops compact fusion devices aiming for first energy by 2030

Controlled nuclear fusion, often called the dream of creating a sun on Earth, is becoming a visible reality in China. A thermonuclear reactor has the potential to power a medium-sized city, and new Chinese 'artificial suns' are under construction along two technical tracks.

In Hefei, Anhui Province, the world's first compact experimental device for generating energy through fusion—BEST—is being built. Its construction is proceeding at an intensive pace. The heart of this device is a giant donut-shaped ring divided into eight segments that are raised section by section. Once connected, they form a closed cavity where fusion reactions and plasma burning occur.

Concurrently, development of another artificial sun is accelerating in Chengdu. This is a stainless steel cylinder over twenty meters long. Unlike bulky hall-sized toroidal tokamaks, this is China's first thermonuclear reactor utilizing a linear configuration with a reverse field. If a tokamak is compared to a large power plant, this device is more akin to a small generator. It is planned to become operational by the end of 2026, targeting tens of millions of degrees and the production of commercially viable neutrons.

Earlier generations of devices have already demonstrated significant progress. In January 2025, the experimental superconducting tokamak EAST achieved sustained plasma operation at a temperature of 100 million degrees Celsius for 1066 seconds, setting a world record. In March 2025, this device made a breakthrough by reaching double one hundred million degrees, marking China's entry into the experimental burning stage. Now, BEST is moving further: beyond achieving fusion reactions, it aims to create a complete cyclical engineering system capable of stably generating energy, with plans to demonstrate the first kilowatt-hours of fusion-derived electricity by 2030.

The development of this industry requires expanding the entire supply chain. A ten-billion yuan thermonuclear reactor mobilizes the entire industrial system: from raw materials like superconducting materials and special metals, to magnet systems, vacuum, cryogenic cooling, heating, and power supply systems, as well as first wall and divertor components that directly contact the plasma. Technologies developed within this process are already finding applications in medicine: in August 2026, a domestic superconducting device for proton therapy completed the treatment of the first patient in a clinical trial, offering a non-invasive method for treating tumors.

The knowledge accumulated during the mass production of proton therapy—including design, testing, electromagnetic compatibility, and emergency shutdown standards—is being used to optimize the BEST device, closing the loop between research, industry, and research support. Fusion is no longer the exclusive prerogative of state commands. Since 2025, a wave of startups has joined the race, offering both compact devices with fast iteration cycles and massive, more expensive superdevices, providing capital with numerous technical avenues to choose from. Market institutions report dozens of domestic companies involved in fusion that completed funding in the first half of 2026, raising over 7 billion yuan, with records repeatedly broken in rounds. Thus, fusion has transformed into an arena for venture capital, and the artificial sun is moving from myth to grid connection.

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