Embedded electric generator in turbine engine

1. A turbine engine comprising:

an intake;

an inlet duct configured to receive fluid from the intake;

an outer bypass duct configured to receive fluid from the intake;

a drive shaft;

a tower shaft mechanically coupled to the drive shaft; and

an electric generator mechanically coupled to the tower shaft,

wherein the electric generator is located between the inlet duct and the outer bypass duct,

wherein the outer bypass duct comprises a bleed configured to provide cooling to the electric generator, and

wherein the electric generator is configured to receive, via the bleed, as cooling to the electric generator, at least a portion of the fluid from the intake.

2. The turbine engine of claim 1 , further comprising a compressor, wherein the tower shaft passes through the compressor, wherein the compressor is configured to compress fluid traveling through the inlet duct.

3. The turbine engine of claim 2 , wherein the compressor is beneath the outer bypass duct, wherein the electric generator is located between the compressor and the outer bypass duct.

4. The turbine engine of claim 1 , wherein the drive shaft comprises a low-pressure shaft.

5. The turbine engine of claim 1 , wherein the tower shaft is mechanically coupled to the drive shaft by a gearbox.

6. The turbine engine of claim 1 , further comprising a fuel jacket configured to absorb heat from the electric generator.

7. The turbine engine of claim 1 , wherein the electric generator comprises:

a first component comprising a magnet, wherein the first component is coupled to the tower shaft; and

a second component comprising a winding, wherein the second component is coupled to the compressor.

8. The turbine engine of claim 1 , wherein the electric generator is mechanically coupled to the tower shaft by a gearbox.

9. The turbine engine of claim 1 , wherein the electric generator is configured to deliver electricity to a fuel pump or a hydraulic pump.

10. A method comprising:

receiving, at an electric generator located between an inlet duct and an outer bypass duct of a turbine engine, via a tower shaft mechanically coupled to a drive shaft of the turbine engine, mechanical power;

generating, based on the mechanical power received from the tower shaft, electrical power;

outputting the electrical power to an electrical load;

providing, by a bleed of the outer bypass duct, cooling to the electric generator; and

receiving, at the electric generator via the bleed, as cooling to the electric generator, fluid from the outer bypass duct that transfers heat from the electric generator.

11. The method of claim 10 , further comprising:

receiving fuel in a fuel jacket; and

transferring heat from the electric generator to the fuel in the fuel jacket.

12. The method of claim 10 , wherein receiving mechanical power via the tower shaft comprises receiving mechanical power at the electric generator via a gearbox mechanically coupled to the tower shaft.

13. An electric generator module comprising:

a mechanical input configured to:

connect to a tower shaft that is mechanically coupled to a drive shaft of a turbine engine, wherein the tower shaft protrudes through a cavity of the turbine engine located between an inlet duct of the turbine engine and an outer bypass duct of the turbine engine, and

receive mechanical power from the tower shaft;

a power generation component configured to produce electrical power from mechanical power received by the mechanical input; and

an electrical output configured to output the electrical power produced by the power generation component to an electrical load,

wherein the outer bypass duct comprises a bleed configured to provide cooling to the electric generator module, and

wherein the electric generator module is configured to receive, via the bleed, as cooling to the electric generator module, fluid from the outer bypass duct.

14. The electric generator module of claim 13 , wherein the power generation component comprises:

a first component comprising a magnet, wherein the first component is configured to mechanically couple to the tower shaft; and

a second component comprising a winding, wherein the second component is configured to mechanically couple to a compressor of the turbine engine.

15. The electric generator module of claim 14 , wherein:

the first component is configured to mechanically couple to the tower shaft by at least a gearbox;

the first component is configured to rotate; and

the second component is configured to not rotate.

16. The electric generator module of claim 13 , further comprising a first heat exchanger configured to transfer heat from the electric generator module to fuel in a fuel jacket.

17. The electric generator module of claim 13 , further comprising a second heat exchanger configured to transfer heat from the electric generator module to the fluid from the outer bypass duct.

18. The electric generator module of claim 13 , wherein:

the tower shaft is configured to pass through a compressor;

the compressor is configured to compress fluid traveling through the inlet duct;

the compressor is configured to be positioned beneath the outer bypass duct; and

the electric generator module is located between the compressor and the outer bypass duct.

19. The electric generator module of claim 13 , wherein the mechanical input is configured to connect to the tower shaft that is mechanically coupled to a low-pressure shaft of the turbine engine.

20. The electric generator module of claim 13 , wherein the electrical output is configured to output the electrical power produced by the power generation component to a fuel pump or a hydraulic pump.