18119154. HEAT EXCHANGER(S) FOR RECOVERING WATER AND/OR HEAT ENERGY FROM TURBINE ENGINE COMBUSTION PRODUCTS simplified abstract (Raytheon Technologies Corporation)

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HEAT EXCHANGER(S) FOR RECOVERING WATER AND/OR HEAT ENERGY FROM TURBINE ENGINE COMBUSTION PRODUCTS

Organization Name

Raytheon Technologies Corporation

Inventor(s)

Jon E. Sobanski of Glastonbury CT (US)

Jacob C. Snyder of East Haddam CT (US)

Neil J. Terwilliger of Cheshire CT (US)

HEAT EXCHANGER(S) FOR RECOVERING WATER AND/OR HEAT ENERGY FROM TURBINE ENGINE COMBUSTION PRODUCTS - A simplified explanation of the abstract

This abstract first appeared for US patent application 18119154 titled 'HEAT EXCHANGER(S) FOR RECOVERING WATER AND/OR HEAT ENERGY FROM TURBINE ENGINE COMBUSTION PRODUCTS

The abstract describes a turbine engine with an axis, consisting of a fan section, a turbine engine core, a bypass flowpath, a recovery system, and a core flowpath.

  • The turbine engine core powers the fan section and includes a core compressor section, a core combustor section, and a core turbine section.
  • The bypass flowpath is connected downstream of the fan section.
  • The recovery system comprises an evaporator module and a condenser module, with the condenser module overlapping the bypass flowpath.
  • The core flowpath extends through the core compressor section, core combustor section, core turbine section, evaporator module, and condenser module.

Potential Applications: - Aviation industry for aircraft propulsion systems - Power generation for turbines - Marine industry for ship propulsion systems

Problems Solved: - Increased efficiency in turbine engines - Improved cooling systems for engine components - Enhanced performance in various applications

Benefits: - Higher power output - Reduced fuel consumption - Lower emissions

Commercial Applications: Title: Advanced Turbine Engine Technology for Enhanced Performance This technology can be utilized in commercial aircraft, power plants, and marine vessels to improve efficiency and reduce environmental impact.

Prior Art: Prior research on turbine engine design and cooling systems can provide insights into the development of this technology.

Frequently Updated Research: Ongoing studies on turbine engine efficiency, cooling technologies, and aerospace propulsion systems can provide valuable information for further advancements in this field.

Questions about Turbine Engine Technology: 1. How does this turbine engine design compare to traditional models in terms of efficiency and performance? 2. What are the potential environmental benefits of implementing this technology in various industries?


Original Abstract Submitted

A turbine engine with an axis is provided. This turbine engine includes a fan section, a turbine engine core, a bypass flowpath, a recovery system and a core flowpath. The turbine engine core is configured to power the fan section. The turbine engine core includes a core compressor section, a core combustor section and a core turbine section. The bypass flowpath is fluidly coupled with and downstream of the fan section. The recovery system includes an evaporator module and a condenser module. The condenser module is arranged radially outboard of and axially overlaps the bypass flowpath. The core flowpath extends sequentially through the core compressor section, the core combustor section, the core turbine section, the evaporator module and the condenser module.