초록 ▼

A method for operating a gas turbine engine including a compressor is provided. The method includes defining a predetermined concentration, placing at least one sensor in an inlet of the gas turbine engine, detecting a sand and dust concentration value using the at least one sensor; and deploying a

A method for operating a gas turbine engine including a compressor is provided. The method includes defining a predetermined concentration, placing at least one sensor in an inlet of the gas turbine engine, detecting a sand and dust concentration value using the at least one sensor; and deploying a boot to facilitate preventing particles from entering the compressor when the sand and dust concentration value equals or exceeds the predetermined concentration. The boot includes a plurality of fluid exit slots such that clean air is facilitated to be adhered to a flow path surface downstream from the boot.

대표청구항 ▼

What is claimed is: 1. A method for operating a gas turbine engine including a compressor, said method comprising: defining a predetermined concentration of at least one of sand and dust in an inlet of the gas turbine engine; detecting a concentration value of at least one of sand and dust in the g

What is claimed is: 1. A method for operating a gas turbine engine including a compressor, said method comprising: defining a predetermined concentration of at least one of sand and dust in an inlet of the gas turbine engine; detecting a concentration value of at least one of sand and dust in the gas turbine engine inlet using at least one sensor; and deploying an inflatable flow path boot positioned within a surface of the gas turbine engine inlet to facilitate preventing at least one of sand and dust particles from entering the compressor when the concentration value of the at least one of sand and dust equals or exceeds the predetermined concentration, and including a plurality of fluid exit slots disposed in the boot on a downstream side of the boot such that clean air is facilitated to be adhered to a flow path surface downstream from the boot. 2. A method in accordance with claim 1 wherein the inlet includes an entry channel, said method further comprises coupling the at least one sensor on a surface defining the entry channel. 3. A method in accordance with claim 1 wherein deploying the boot further comprises inflating the boot using bleed fluid. 4. A method in accordance with claim 1 wherein deploying the boot comprises narrowing a throat area of the inlet, and enhancing a flow path turn at a trailing edge of the throat area. 5. A method in accordance with claim 1 further comprising channeling fluid flow to the boot through at least one control valve configured to control flow to the boot. 6. A method in accordance with claim 5 further comprising coupling the at least one control valve to a processor to facilitate controlling deployment of the boot. 7. A method in accordance with claim 5 further comprising transmitting a signal representing an instruction to the at least one control valve to facilitate controlling fluid flow to the boot. 8. A method in accordance with claim 5 further comprising using the at least one control valve to selectively inflate and deflate the boot. 9. An inertial particle separation system for a gas turbine engine, said system comprising: an inlet of said gas turbine engine including at least one sensor configured to determine a concentration of at least one of sand and dust in said inlet; an inflatable boot coupled to a surface defining a flow path through said inlet, said boot comprising a plurality of fluid exit slots on a downstream side of the boot, said slots configured to facilitate clean air to adhere to a flow path surface downstream from said boot; and a controller configured to: receive a signal from said at least one sensor, the signal representative of the concentration; compare the received signal to a value representative of a threshold of the concentration; and inflate or deflate the inflatable boot based on the comparison. 10. A system in accordance with claim 9 wherein said system controller is coupled to said at least one sensor to compare a sensed concentration value with a predetermined concentration stored in said controller, said controller configured to cause said boot to be deployed when said sensed concentration value equals or exceeds said predetermined concentration. 11. A system in accordance with claim 9 wherein said inlet includes an entry channel, said at least one sensor is coupled to a surface defining a flow path through said entry channel. 12. A system in accordance with claim 9 wherein said inflatable boot is deployed using bleed fluid from the gas turbine engine. 13. A system in accordance with claim 11 wherein said boot is configured to create a sharp turn for fluid entering a clean fluid channel. 14. A system in accordance with claim 9 wherein each one of said plurality of fluid exit slots is configured to inject energy into a boundary layer downstream from said boot. 15. A system in accordance with claim 10 wherein said boot is selectively inflated and deflated based on a concentration of particles in fluid entering the gas turbine engine. 16. A dual mode particle inertial separation apparatus for a gas turbine engine, said apparatus comprising: an inertial particle separator comprising an entry channel and a flow path, said inertial particle separator facilitating effective removal of at least one of sand particles and debris from a flow of fluid in said entry channel during a first mode of operation of said inertial particle separator; and an inflatable boot coupled to a surface of said inertial particle separator and defining at least a portion of said flow path, said boot inflated is during a second mode of operation of said inertial particle separator to narrow a throat area of said entry channel by forcing the inflatable boot 50 towards an opposite surface of said inertial particle separator to facilitate increasing removal efficiency of the at least one of sand particles and debris from the flow of fluid in said entry channel. 17. An apparatus in accordance with claim 16 wherein at least one sensor is coupled to a surface defining said flow path through said entry channel. 18. An apparatus in accordance with claim 17 wherein said boot is configured to create a sharp turn for fluid entering a clean fluid channel in said inertial particle separator.