Gas Turbine: Difference between revisions

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(Added some more links under the "External Links" section)
(Added some more links under the "External Links" section)
 
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=Basics=
=Basics=
*A [[Brayton cycle]] ( Jet Engine ) Optimized for Rotary Power Production rather than Thrust
*A [[Brayton cycle]] ( Jet Engine ) Optimized for Rotary Power Production rather than Thrust
*Can be used for Propulsion ( [[Turboprop]] / [[Turboshaft]] ) or for pumping fluids (Turbine Driven Pumps in Flood Control or Turbine Driven Pumps in Oil and Natural Gas Extraction + Refining), or for Electrical Generation
*Can be used for Propulsion ( [[Turboprop]] / [[Turboshaft]] ) or for Pumping Large Volumes Fluids (Turbine Driven Pumps in Flood Control or Turbine Driven Pumps in Oil and Natural Gas Extraction + Refining), or for Electrical Generation
*Another use case is as an Energy Supplying alternative to [[Gas Flaring]] since they readily accept the [[Syngas]] / Light Hydrocarbon / Oil Mixtures often Present
*They have the Advantage of Energy Efficiency*, Reduced [[Part Count]] ,  and High Power Density
*They have the Advantage of Energy Efficiency*, Reduced [[Part Count]] ,  and High Power Density
**This comes at the cost of increased ''design'' (ie not finished device, but the planning / design process / modeling) complexity, and Precision Required (See [[Turbine Balancing]] )
**This comes at the cost of increased ''design'' (ie not finished device, but the planning / design process / modeling) complexity, and Precision Required (See [[Turbine Balancing]] )
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=Internal Links=
=Internal Links=
*
*[[Micro Gas Turbine]] (The Size Most Relevant to OSE's Work)
*[[Micropower]] / [[PowerMEMS]] (These tend to use [[Rotary Engines]] or Gas Turbines due to lower part count and high power density, although [[Solid Oxide Fuel Cells]] seem to have made this research slow down due to simplicity (despite needing [[Catalysts]] consisting of Rare Earth Metals etc)
*[[Combined Cycle Engines]] tend to use a Gas Turbine + [[Steam Turbine]] (Or Recently Even a [[Supercritical CO2 Turbine]] !), and that is one of the most common modern thermal power plants, especially since they work well as [[Peaker Plants]]


=External Links=
=External Links=
*[https://en.wikipedia.org/wiki/Gas_turbine The Wikipedia Page on Gas Turbines]
*[https://en.wikipedia.org/wiki/Gas_turbine The Wikipedia Page on Gas Turbines]
*[https://mmta.co.uk/2017/06/22/dont-gas-turbines-blades-burn/ An Article by the "Minor Metals Trade Association" Titled "Why don’t Gas Turbines Blades burn?" ]
*8great Article that goes over [[Thermal Barrier Coatings]]
[[Category: Bio-Petrochemistry]] [[Category: Energy]] [[Category: Gas Turbines]]

Latest revision as of 23:42, 5 November 2022

Basics

  • A Brayton cycle ( Jet Engine ) Optimized for Rotary Power Production rather than Thrust
  • Can be used for Propulsion ( Turboprop / Turboshaft ) or for Pumping Large Volumes Fluids (Turbine Driven Pumps in Flood Control or Turbine Driven Pumps in Oil and Natural Gas Extraction + Refining), or for Electrical Generation
  • Another use case is as an Energy Supplying alternative to Gas Flaring since they readily accept the Syngas / Light Hydrocarbon / Oil Mixtures often Present
  • They have the Advantage of Energy Efficiency*, Reduced Part Count , and High Power Density
    • This comes at the cost of increased design (ie not finished device, but the planning / design process / modeling) complexity, and Precision Required (See Turbine Balancing )
  • They can be "Fuel Agnostic" to an Extent, however anything with a high Ash Content should be avoided due to the issue of Abrasive Turbine Wear

Internal Links

External Links