Fusion Energy - a Way to Power the Expansion of Humanity

Fusion Energy - the Clean Power at the Heart of Stars

Natural, Clean, and Safe

Harness the boundless power of the stars to unlock limitless resources and establish industries beyond our world.

Earth has fully embraced this technology, and its exceptional benefits will quickly revolutionize traditional fuels and take over as the main source of continuous power worldwide.

Nuclear fusion, which utilizes affordable fusion fuel composed of hydrogen and lithium, can be found in abundant quantities all over the planet.

The Generation of Unlimited Energy with Zero Emissions

We are refining our designs for future commercial plants. Our fusion core technologies have been developed through extensive research. Our engineering work is based on test beds that provide valuable insights and confirm the accuracy of our models and simulations. Our approach presents a feasible way to bring fusion energy technology to fruition. The use of modern electronics, durable materials, and advancements in plasma physics enhance the potential of fusion energy technology. We are refining our designs for future commercial plants. Our fusion core technologies have been developed through extensive research. Our engineering work is based on test beds that provide valuable insights and confirm the accuracy of our models and simulations. Our approach presents a feasible way to bring fusion energy technology to fruition. The use of modern electronics, durable materials, and advancements in plasma physics enhance the potential of fusion energy technology.

 

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To disrupt carbon-based fuels, a fusion power plant must meet a combination of low capital costs, rapid construction time, low downtime, and ease of maintenance. The combination of additive manufacturing, high magnetic field, and high power, high precision lasers offer the best path for our plant to achieve these objectives. The following non-subsidized costs are targeted for 5-of-a-kind power units:

 

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RAPID MARKET CAPTURE DEPLOYMENT

REVENUE STRATEGY

The generation of profits will come from producing and selling power units in key markets to eliminate the expensive and time-consuming transportation of large components from abroad. A combination of pre-assembled components and those kept in inventory will be used alongside rapid additive manufacturing to meet the goal of installing and commissioning a plant within one year.

MARKET SIZE

By 2050, there is a need for approximately 300 quadrillion BTUs ("quads") of new energy. This would raise global energy consumption to a total of 911 quads. To meet this demand, an estimated $50 trillion in investments will be required for energy generation. Although carbon-based energy is expected to lose 11% of its market share during this time, it will still make up the majority of the energy mix at 69%. This means that around 125 quads of new carbon-based energy will be generated, resulting in an additional 3.6 billion tonnes of CO2 emissions per year by 2050.

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SEGMENTATION

We will primarily focus on intercepting new natural gas, coal, and diesel generating capacity in the 1 GWe and greater range, as well as replacing decommissioned plants for heat and electricity in emerging markets. This market represents the largest and fastest-growing region in the world for energy consumption, with a projected 70% increase from 2018 to 2050. Moreover, it encompasses the development of new baseload power plants that average between 820 MWe (natural gas) and 1100 MWe (nuclear).

The decarbonization of industry is the biggest challenge in global energy consumption, accounting for more than half of it. This includes energy-intensive applications like steel and cement production, desalination, and upcoming atmospheric decarbonization initiatives.

PROCESS & DISTRICT HEATING

High heat for cement, steel, glass, chemicals, and other use accounts for over 30% of global energy consumption.

DESALINATION

By 2050, more than 50% of the world's population will reside in regions experiencing water scarcity.

ATMOSPHERIC DECARBONIZATION

Direct air capture requires an astonishing 8.8 gigajoules of energy per ton of CO2.

MEDICAL ISOTOPE PRODUCTION

Long half-life isotopes, exclusive to 8 nuclear reactors, are meticulously manufactured and then transported across the globe.

HYDROGEN PRODUCTION

95% of hydrogen fuel is currently produced using methane, which is a fossil fuel input and emits carbon dioxide during the process.

POWERING THE HYDROGEN ECONOMY

Currently, the majority of hydrogen fuel production relies on methane reforming, which is environmentally detrimental and energy-intensive. However, hydrogen-from-fusion offers a more sustainable and economically viable alternative. By extracting deuterium and utilizing fusion reactions, hydrogen can be generated on a large scale without emissions. This advancement will greatly contribute to the growth of hydrogen applications in various sectors such as heat and power storage, industrial feedstock, and fuel-cell electric vehicles.