Compact cooling system for vehicle operators
A compact cooling system for vehicle operators includes: a variable speed compressor; a radiator coupled to the compressor with a tube; a fan adjacent to the radiator; an expansion chamber coupled to the radiator with a tube; a cooling plate coupled to the expansion chamber with a tube; a fluid reservoir coupled to the cooling plate with a tube through which cooling fluid can be transferred; and a fluid pump coupled to the fluid reservoir with a tube, the cooling plate including an inlet port for receiving warm cooling fluid from a cooling garment and an outlet port for transferring chilled cooling fluid to the cooling garment via the fluid reservoir and the fluid pump.
1. A compact cooling system for vehicle operators comprising:
a variable speed compressor;
a radiator coupled to the compressor with a tube;
a fan adjacent to the radiator;
an expansion chamber coupled to the radiator with a tube;
a cooling plate coupled to the expansion chamber with a tube;
a fluid reservoir coupled to the cooling plate with a tube through which cooling fluid can be transferred;
a fluid pump coupled to the fluid reservoir with a tube, the cooling plate including an inlet port for receiving warm cooling fluid from a cooling garment and an outlet port for transferring chilled cooling fluid to the cooling garment via the fluid reservoir and the fluid pump;
thermal sensors positioned proximately to the inlet port and the outlet port; and
a controller in electrical connection with the compressor, the fan, and the fluid pump, the controller being configured to determine a temperature differential between the thermal sensors and to automatically control the operation of the compressor, the fan, and the fluid pump based on the temperature differential, the controller being further configured to include a global positioning system (GPS) interface to wirelessly receive geographical location data.
2. The compact cooling system for vehicle operators of claim 1 wherein the cooling garment includes sewn-in tubes to circulate the cooling fluid in a serpentine path across or adjacently to the body of a wearer.
3. The compact cooling system for vehicle operators of claim 1 wherein the controller being further configured to include a biometric interface to receive biometric data from a wearer of the cooling garment.
4. The compact cooling system for vehicle operators of claim 1 wherein the controller being further configured to include a radio interface to wirelessly transmit data to a remote receiver.
5. The compact cooling system for vehicle operators of claim 1 wherein the cooling fluid is of a type from the group consisting of: water, distilled water, alcohol, coolant, refrigerant, a water-based coolant, and an oil-based coolant.
6. The compact cooling system for vehicle operators of claim 1 wherein the thermal sensors are of a type from the group consisting of: standard negative Temperature Coefficient (NTC) thermistors, Resistance Temperature Detector (RTD) devices, thermocouples, and semiconductor-based sensors.
7. The compact cooling system for vehicle operators of claim 1 wherein the compact cooling system is configured in a form factor suitable for installation on a motorcycle or in a race vehicle.
8. The compact cooling system for vehicle operators of claim 1 wherein the controller being further configured to include a USB dongle interface to enable the bulk transfer of large amounts of data or parameter configurations to the controller.
9. The compact cooling system for vehicle operators of claim 1 wherein the fan is a variable speed fan.
10. A method comprising:
providing a variable speed compressor;
coupling a radiator to the compressor with a tube;
installing a fan adjacent to the radiator;
coupling an expansion chamber to the radiator with a tube;
coupling a cooling plate to the expansion chamber with a tube;
coupling a fluid reservoir to the cooling plate with a tube through which cooling fluid can be transferred;
coupling a fluid pump to the fluid reservoir with a tube, the cooling plate including an inlet port for receiving warm cooling fluid from a cooling garment and an outlet port for transferring chilled cooling fluid to the cooling garment via the fluid reservoir and the fluid pump;
positioning thermal sensors proximately to the inlet port and the outlet port; and
configuring a controller in electrical connection with the compressor, the fan, and the fluid pump, the controller being configured to determine a temperature differential between the thermal sensors and to automatically control the operation of the compressor, the fan, and the fluid pump based on the temperature differential, the controller further including a global positioning system (GPS) interface to wirelessly receive geographical location data.
11. The method of claim 10 wherein the cooling garment includes sewn-in tubes to circulate the cooling fluid in a serpentine path across or adjacently to the body of a wearer.
12. The method of claim 10 wherein the controller includes a biometric interface to receive biometric data from a wearer of the cooling garment.
13. The method of claim 10 wherein the controller includes a radio interface to wirelessly transmit data to a remote receiver.
14. The method of claim 10 wherein the cooling fluid is of a type from the group consisting of: water, distilled water, alcohol, coolant, refrigerant, a water-based coolant, and an oil-based coolant.
15. The method of claim 10 wherein the thermal sensors are of a type from the group consisting of: standard negative Temperature Coefficient (NTC) thermistors, Resistance Temperature Detector (RTD) devices, thermocouples, and semiconductor-based sensors.
16. The method of claim 10 wherein the compact cooling system is configured in a form factor suitable for installation on a motorcycle or in a race vehicle.
17. The method of claim 10 wherein the controller includes a USB dongle interface to enable the bulk transfer of large amounts of data or parameter configurations to the controller.
18. A compact cooling system for vehicle operators comprising:
a variable speed compressor;
a radiator coupled to the compressor with a tube;
a fan adjacent to the radiator;
an expansion chamber coupled to the radiator with a tube;
a cooling plate coupled to the expansion chamber with a tube;
a fluid reservoir coupled to the cooling plate with a tube through which cooling fluid can be transferred;
a fluid pump coupled to the fluid reservoir with a tube, the cooling plate including an inlet port for receiving warm cooling fluid from a cooling garment and an outlet port for transferring chilled cooling fluid to the cooling garment via the fluid reservoir and the fluid pump;
thermal sensors positioned proximately to the inlet port and the outlet port; and
a controller in electrical connection with the compressor, the fan, and the fluid pump, the controller being configured to determine a temperature differential between the thermal sensors and to automatically control the operation of the compressor, the fan, and the fluid pump based on the temperature differential, the controller being further configured to include a biometric interface to receive biometric data from a wearer of the cooling garment.
19. The compact cooling system for vehicle operators of claim 18 wherein the controller being further configured to include a global positioning system (GPS) interface to wirelessly receive geographical location data.