Ford Global Technolgoies, LLC

Michael Steven Wallis

Manfred Koberstein

Ali Jalilevand

Shailesh Shrikant Kozarekar

Kenneth John Jackson

William Stewart Johnston

Robert Steven Sawyer

Christopher Mark Greiner

Douglas X Zhu

Daniel C Huang

Trent Greear Sutherland

Simon Arnold

Stephen Patrick Lepper

David Patel

Alan Langley Moore

Charles Robert Stanton

Eugene Cox

A vehicle ventilation system includes an inlet duct incorporating a poppet valve. The system also includes an evaporator core, a heater core, an air discharge duct and a blower. The blower moves air from the inlet duct through at least one of the evaporator core and the heater core to be discharged through the air discharge duct.

Vehicle ventilation system incorporating an inlet duct including a poppet valve

A vehicle includes a cooling arrangement that includes an air conditioning loop and a battery cooling loop connected together by a common chiller and arranged to cool each of cabin air and a battery. A coolant three-way proportional control valve is connected to the chiller and the battery. The control valve is configured to operatively control a capacity of the chiller for the battery.

Vehicle cabin air conditioning and battery cooling system

A battery thermal management system includes a passenger cabin air-conditioning refrigerant loop including at least one evaporator in fluid communication with a chiller and a battery pack coolant loop in fluid communication with the chiller. A controller is configured to determine whether a temperature of the at least one evaporator falls within a predetermined temperature range, and if so to cause a valve to bypass a refrigerant from the air-conditioning refrigerant loop to the chiller. Evaporator temperature is determined by providing at least one evaporator temperature sensor.

Electric vehicle battery cooling using excess cabin air conditioning capacity

A vehicle cooling system for cooling a vehicle battery may include a cabin cooling system having an electrical compressor arranged on a first refrigerant path and driven by a vehicle electrical system to cool a vehicle cabin, a battery cooling system having a mechanical compressor arranged on a second refrigerant path and driven by a vehicle engine, and a battery chiller in communication with both refrigerant paths and configured to cool coolant provided to a vehicle battery.

Vehicle compressor system

A vehicle system includes a refrigerant loop with a specific arrangement of valves and evaporators or heat exchangers to reduce the number of valves necessary. The vehicle system includes a refrigerant loop that includes a first thermal expansion valve downstream of a condenser and upstream of a first evaporator. A second thermal expansion valve is downstream of the condenser and upstream of a second evaporator. A third thermal expansion valve is upstream of a battery chiller. This arrangement allows for the valves to be simplified such that none of the thermal expansion valve include a binary shut-off valve. A multi-flow position valve may be positioned at a location that combines the outlet of the first and second evaporators.

Refrigerant shut off valve simplification

Systems and methods for operating a heater for a passenger cabin of a vehicle. In one example, fan speed of an evaporator cooling fan is adjusted to improve heating efficiency. In particular, fan speed is incrementally increased and maintained at the higher speed if output power of a compressor is reduced by more than an amount of power used to incrementally increase the fan speed.

Method for adjusting fan and compressor power for a vehicle cabin heating system

Air is cooled by a heat exchanger of a vehicle. The cooled air is directed to a cabin and/or battery of the vehicle. Ports in the cooling path direct the cooled air to the cabin and/or battery.

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Belleville, MI, United States of America

Michael Steven Wallis