Our next webinar will be held on February 26th and cover the best industry practices when it comes to power plant redesign. The constant increase of global energy consumption and rising cost of fuel require higher energy generating capacity with a simultaneous improvement of the efficiency of energy conversion processes. The greatest effect of improving the performance of existing power plants and other energy systems can be obtained by modifying the thermodynamic cycles of these plants.
It’s Throwback Thursday and we’re sharing another webinar!
Are you looking for ways to increase your energy cycle efficiency?
Do you want to enhance your thermal or nuclear electricity generation project with advanced power conversion technologies?
Are you interested in expanding into the Supercritical CO2 Cycle business?
If you answered ‘yes’ to any of these questions, watch “Supercritical CO2 Cycle – Advanced Power Conversion Technology,” which we recorded and put in our resource center! Learn more about technological advantages and most effective solutions in S-CO2 Cycle Turbine design!
During this 1-hour webinar you’ll learn about:
Overall S-CO2 Cycle Overview
Heat balance simulation in modern software
Most common modern turbomachinery design challenges
Leveraging AxSTREAM to help you with S-CO2 Cycle design
Who should watch:
Engineering managers interested in developing S-CO2 Cycle turbomachinery
Mechanical and aerospace engineers working on CO2 Cycle / Super Critical Carbon Dioxide Brayton Cycle and looking for optimization strategies
Scientists and developers in the field of alternative energy sources (research and study)
Everyone interested in how SoftInWay Inc. and AxSTREAM can help you with advanced Turbomachinery Design
You can find the recording here, in our video center. Not registered for our center? Not a problem, just register and you’ll be emailed access info for all of our free learning materials.
This past Tuesday was the 44th celebrated Earth Day. On Earth Day, more than 100 countries join together to literally stop and smell the roses, appreciate the splendor and beauty of Mother Nature and take extra efforts to be more conscientious for our shared home.
Turbomachinery, though not always the first thing that comes to mind when speaking on the subject of green technology, plays an important role toward our efforts for a more sustainable environment. Continue reading “Sustainable Turbomachinery”→
The supercritical CO2 power cycle is one of the most promising power technologies. It is not by chance though, because carbon dioxide (CO2) has a unique combination of attributes, such as a low critical temperature, an environmentally natural origin, a high standard of safety and a low cost. Carbon dioxide is also thoroughly studied, therefore there is sufficient information surrounding it. But on the other hand, the supercritical CO2 cycle has a high energy conversion factor, such as high thermal efficiency. Continue reading “Designing Supercritical CO2 Power Plants”→
The goal of this test case is to find the gas turbine necessary to produce 58 MW of total net power for the conversion of a steam turbine to a combined gas-steam cycle while providing the highest level of cycle thermal efficiency.
Co-generation power plants are very popular in Europe compared to the U.S. market. It will be interesting to see if this type of application will take off in North America, but I’d like to share a little background information on co-generation first. Continue reading “Co-generation Power Plants”→
To have a successful application of an ORC system, the availability of an adequate heat source is crucial. In principal every heat-generating process, such as burning fossil fuel, can be taken as a heat source for ORC.
However, the aim is to improve energy efficiency and sustainability of new or existing applications with the focus on waste heat and renewable energy sources.
Organic Rankine Cycle (ORC) is a technology that can convert thermal energy at relatively low temperatures (80 to 350°C or 175 to 660°F) to actual work that can be further converted into electricity.
It is basically a thermodynamic cycle according to the Rankine principle but specifically uses organic fluids in order to have a boiling point at relatively low temperatures.
The heat is used to make the liquid boil and generate high pressure gases that will then drive equipment able to transmit torque to the shaft and create electrical power.
There are two main types of machines that are able to do this
• Turbine-based system
• Reciprocating piston-based system Continue reading “Components of an ORC Cycle”→