IPC분류정보
국가/구분 |
United States(US) Patent
등록
|
국제특허분류(IPC7판) |
|
출원번호 |
US-0691529
(2010-01-21)
|
등록번호 |
US-8668437
(2014-03-11)
|
발명자
/ 주소 |
|
출원인 / 주소 |
|
인용정보 |
피인용 횟수 :
2 인용 특허 :
22 |
초록
▼
A cooling fluid feed system for a turbine engine for directing cooling fluids from a compressor, through one or more impellers, and into row one turbine vanes and one or more rows of turbine blades for increasing the cooling capacity of the turbine vanes and blades. Such a configuration increases co
A cooling fluid feed system for a turbine engine for directing cooling fluids from a compressor, through one or more impellers, and into row one turbine vanes and one or more rows of turbine blades for increasing the cooling capacity of the turbine vanes and blades. Such a configuration increases cooling capacity, which in turn increases the capacity for growth within the turbine engine, creates a larger cooling fluid to gas side pressure differential and reduces amount of bleed off of cooling fluids from the compressor, thereby increasing efficiency of the turbine engine.
대표청구항
▼
1. A turbine engine, comprising: at least one combustor positioned upstream from a rotor assembly, wherein the rotor assembly includes at least first and second rows of turbine blades extending radially outward from a rotor;a compressor positioned upstream from the at least one combustor;a first row
1. A turbine engine, comprising: at least one combustor positioned upstream from a rotor assembly, wherein the rotor assembly includes at least first and second rows of turbine blades extending radially outward from a rotor;a compressor positioned upstream from the at least one combustor;a first row of turbine vanes attached to a vane carrier, wherein the turbine vanes each extend radially inward and terminate proximate to the rotor assembly upstream of the first row of turbine blades;a first row turbine vane impeller in fluid communication with cooling systems positioned internally within the turbine vanes in the first row of turbine vanes for increasing the pressure of cooling fluids flowing from the compressor, wherein the first row turbine vane impeller is formed from a plurality of radially extending curved channels that are each formed by radially extending, curved ribs; anda concentric bore extending from the compressor to the first row turbine vane impeller to direct cooling fluids from the compressor to the first row turbine vane impeller. 2. The turbine engine of claim 1, wherein the first row turbine vane impeller is formed from a plurality of radially extending channels positioned in close proximity to a first blade rotor. 3. The turbine engine of claim 1, further comprising a plurality of turning guide vanes positioned radially inward from the first row turbine vane impeller to direct cooling fluids from the concentric bore into the first row turbine vane impeller. 4. The turbine engine of claim 1, further comprising a turbine blade impeller positioned between first and second blade rotors that are attached to the first and second rows of turbine blades and comprising a first cooling fluid hole in fluid communication with the first row of turbine blades and a second cooling fluid hole in fluid communication with the second row of turbine blades. 5. The turbine engine of claim 4, wherein the turbine blade impeller is attached to at least one of the first and second blade rotors with a circumferential slot positioned radially inward from the turbine blade impeller. 6. The turbine engine of claim 5, wherein the turbine blade impeller is formed from a plurality of curved radially extending channels having increasing cross-sectional areas moving radially outward, wherein the curved radially extending channels are each formed by radially extending, curved ribs. 7. The turbine engine of claim 4, further comprising a mid-stage bleed fluid channel in fluid communication with the turbine blade impeller. 8. The turbine engine of claim 7, further comprising a plurality of turning guide vanes in the mid-stage fluid channel to direct cooling fluids from the mid-stage bleed fluid channel to the turbine blade impeller. 9. A turbine engine, comprising: at least one combustor positioned upstream from a rotor assembly, wherein the rotor assembly includes at least first and second rows of turbine blades extending radially outward from a rotor;a compressor positioned upstream from the at least one combustor;a first row of turbine vanes attached to a vane carrier, wherein the turbine vanes each extend radially inward and terminate proximate to the rotor assembly upstream of the first row of turbine blades;a turbine blade impeller positioned between first and second blade rotors that are attached to the first and second rows of turbine blades and comprising a first cooling fluid hole in fluid communication with the first row of turbine blades and a second cooling fluid hole in fluid communication with the second row of turbine blades, wherein the turbine vane impeller is formed from a plurality of radially extending curved channels that are each formed by radially extending, curved ribs; anda mid-stage bleed fluid channel in fluid communication with the turbine blade impeller. 10. The turbine engine of claim 9, wherein the turbine blade impeller is attached to at least one of the first and second blade rotors with a circumferential slot positioned radially inward from the turbine blade impeller. 11. The turbine engine of claim 9, wherein the turbine blade impeller is formed from a plurality of curved radially extending channels having cross-sectional areas that increase moving radially outward. 12. The turbine engine of claim 9, further comprising a plurality of turning guide vanes in the mid-stage fluid channel to direct cooling fluids from the mid-stage bleed fluid channel to the turbine blade impeller. 13. The turbine engine of claim 9, further comprising a first row turbine vane impeller in fluid communication with cooling systems positioned internally within the turbine vanes in the first row of turbine vanes for increasing the pressure of cooling fluids flowing from the compressor and a concentric bore extending from the compressor to the first row turbine vane impeller to direct cooling fluids from the compressor to the first row turbine vane impeller. 14. The turbine engine of claim 13, wherein the first row turbine vane impeller is formed from a plurality of radially extending channels positioned in close proximity to a first blade rotor and having cross-sectional areas that increase moving radially outward. 15. The turbine engine of claim 13, further comprising a plurality of turning guide vanes positioned radially outward from the first row turbine vane impeller to direct cooling fluids from the first row turbine vane impeller into the cooling systems in the turbine vanes in the first row of turbine vanes. 16. A turbine engine, comprising: at least one combustor positioned upstream from a rotor assembly, wherein the rotor assembly includes at least first and second rows of turbine blades extending radially outward from a rotor;a compressor positioned upstream from the at least one combustor;a first row of turbine vanes attached to a vane carrier, wherein the turbine vanes each extend radially inward and terminate proximate to the rotor assembly upstream of the first row of turbine blades;a first row turbine vane impeller in fluid communication with cooling systems positioned internally within the turbine vanes in the first row of turbine vanes for increasing the pressure of cooling fluids flowing from the compressor, wherein the first row turbine vane impeller is formed from a plurality of radially extending curved channels, wherein the curved radially extending channels are each formed by radially extending, curved ribs;a concentric bore extending from the compressor to the first row turbine vane impeller to direct cooling fluids from the compressor to the first row turbine vane impeller;a turbine blade impeller positioned between first and second blade rotors that are attached to the first and second rows of turbine blades, wherein the turbine blade impeller is formed from a plurality of radially extending curved channels, wherein the curved radially extending channels are each formed by radially extending, curved ribs;a first cooling fluid hole in fluid communication with the first row of turbine blades;a second cooling fluid hole in fluid communication with the second row of turbine blades; anda mid-stage bleed fluid channel in fluid communication with a mid-stage bleed fluid supply and the turbine blade impeller. 17. The turbine engine of claim 16, wherein the first row turbine vane impeller is formed from a plurality of radially extending curved channels having a cross-sectional area that increases moving radially outward and positioned in close proximity to a first blade rotor. 18. The turbine engine of claim 16, further comprising a plurality of turning guide vanes positioned radially inward from the first row turbine vane impeller to direct cooling fluids from the first row turbine vane impeller into the cooling systems in the turbine vanes in the first row of turbine vanes and further comprising a plurality of turning guide vanes to direct cooling fluids from the mid-stage bleed fluid channel to the turbine blade impeller. 19. The turbine engine of claim 16, wherein the turbine blade impeller is attached to at least one of the first and second blade rotors with a circumferential slot positioned radially inward from the turbine blade impeller. 20. The turbine engine of claim 16, wherein the turbine blade impeller is formed from a plurality of curved radially extending channels having a cross-sectional area that increases moving radially outward that are each formed by radially extending, curved ribs.
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