the research consultancy for energy technologies
…resistivity, measured in Ohm-meters, and varying from 10^-30 in super-conducting materials through to 10^20 at the most highly insulating plastics as might feature in HVDC power cables. Most of ‘the…
…example, generating 1 MWH of power from coal emits 1.15 tons of CO2. Generating that same 1 MWH of power from natural gas emits 0.45 tons of CO2, resulting in…
…two-thirds of the energy costs for expanded power grids is embedded in the aluminium of power cabling. Finally, energy storage consumes energy in the form of round-trip efficiency losses, while…
…CO2 power cycles. $449.00 – Purchase Checkout Added to cart Thermodynamics can be defined as the science governing energy flows. Especially at the “middle levels”, from the kinetic energy of billions of…
…properties. This helps to fine-tune appropriate risking factors for vanilla CCS, blue hydrogen, CO2-EOR, CO2 shipping and super-critical CO2 power cycles. There is a wide moat around leading turbomachinery companies….
…and enable higher volumes of flow, even of mildly corrosive fluids, without requiring overly thick pipeline walls. In power grids, overhead power lines are not made from conductive copper, but…
…in order to remove particulate dusts from exhaust gases, especially in coal-fired power plant applications. As usual, we model what power plant increment is required to earn a 10% IRR…
…the main reason is a lack of knowledge and processing power. A key idea in the note is that AI will help to close these thermodynamic gaps. So where are…
This data-file quantifies the energy needed to produce steam, for industrial heat, power, chemicals, CCS plants and hydrogen reforming. As rules of thumb, low pressure saturated steam at 100◦C requires…
…based on tracking past projects and the need for synthetic inertia and reactive power compensation. Decision-makers are welcome to reflect or ignore these costs, but we recommend understanding them and…