Nuclear fusion and factory mass produced deep burn fission are solutions that have some technical risk and the research and the deployment effort for society might be somewhat comparable. The risks for the development are over estimated. There are benefits from lesser successes with nuclear fusion. Transmutation – cheaper ways to close the fission fuel cycle, space applications that are far easier than replacing coal as a cheap but clean energy source. For factory mass produced deep burn fission there are benefits as we get closer to factory mass production of components and as we work up to deeper and deeper burn (use more of the fissionable material from 5% up to 100%).
The end state of successful development of transformational technology (like nuclear fusion or factory mass produced deep burn fission) is a society that has a sustainable energy production that is hundreds of times larger. It is a society that can use those techonologies to open up the solar system to human exploration and colonization.
What is the objective for society – spending trillions to develop new capabilities with carbon sequestering. Plenty of research needed and trillions to implement an inherently weak and limited plan or to aim for a revolutionized society and set of solutions.
Is it better for a country to build up a new trillion dollar industry based on better landfill techniques for garbage so that an economy of roughly the same size does not choke on its own waste or to spend the money on technologies that enable a clean economy that is hundreds of times bigger. If you dialed back the clock hundreds of years, cities were choking on horse manure and using a lot of horses – there could have been costly solutions where we stuck with horses but cleaned up the waste or there was the shift to cars which while it has pollution actually has less pollution issues until the scale of the economy is ten to one hundred times bigger.
Background
EU non-carbon energy plan (US$73 billion/ 50 billion euro) called for coordinated research on a continental level, proposes $23.4 billion in solar power research, $8.8 billion in wind power research, $10.2 billion in nuclear power research, $13 billion for developing energy from biomass and waste, and $19 billion in carbon sequestration technology.
Carbon capture and storage at wikipedia
An integrated pilot-scale CCS power plant was to begin operating in September 2008 in the eastern German power plant Schwarze Pumpe run by utility Vattenfall, in the hope of answering questions about technological feasibility and economic efficiency. CCS applied to a modern conventional power plant could reduce CO2 emissions to the atmosphere by approximately 80-90% compared to a plant without CCS. The IPCC estimates that the economic potential of CCS could be between 10% and 55% of the total carbon mitigation effort until year 2100.
Capturing and compressing CO2 requires much energy and would increase the fuel needs of a coal-fired plant with CCS by 25%-40%. These and other system costs are estimated to increase the cost of energy from a new power plant with CCS by 21-91%. These estimates apply to purpose-built plants near a storage location; applying the technology to preexisting plants or plants far from a storage location would be more expensive. Recent industry reports suggest that with successful research, development and deployment (RD&D), sequestered coal-based electricity generation in 2025 will cost less than unsequestered coal-based electricity generation today.
The reasons that CCS is expected to cause such power price increases are several. Firstly, the increased energy requirements of capturing and compressing CO2 significantly raises the operating costs of CCS-equipped power plants. In addition, there are added investment and capital costs. The process would increase the fuel requirement of a plant with CCS by about 25% for a coal-fired plant, and about 15% for a gas-fired plant. The cost of this extra fuel, as well as storage and other system costs, are estimated to increase the costs of energy from a power plant with CCS by 30-60%, depending on the specific circumstances. Pre-commercial CCS demonstration projects are likely to be more expensive than mature CCS technology; the total additional costs of an early large scale CCS demonstration project are estimated to be €0.5-1.1 billion per project over the project lifetime
In 1986 a natural carbon dioxide leak at Lake Nyos killed 1,700 people and a large number of livestock.
The theoretical merit of CCS systems is the reduction of CO2 emissions by up to 90%, depending on plant type. So if your economy and fossil production increased by ten times you would be back where you started on CO2 emissions and you would be spending trillions each year just to get back to where we are now. It is an inherently weak and flawed plan and approach.
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Brian Wang is a Futurist Thought Leader and a popular Science blogger with 1 million readers per month. His blog Nextbigfuture.com is ranked #1 Science News Blog. It covers many disruptive technology and trends including Space, Robotics, Artificial Intelligence, Medicine, Anti-aging Biotechnology, and Nanotechnology.
Known for identifying cutting edge technologies, he is currently a Co-Founder of a startup and fundraiser for high potential early-stage companies. He is the Head of Research for Allocations for deep technology investments and an Angel Investor at Space Angels.
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