Patent classifications
F24F5/0046
ALL-WEATHER SOLAR WATER SOURCE HEAT PUMP AIR CONDITIONING SYSTEM
A solar water source heat pump air conditioning system includes an air-water heat exchange system, an aqueous solution heat exchange system, a heat pump main engine, a concentration system, an energy recovery system and a condensate water recovery system. According to the present invention, solar energy in air is absorbed by utilizing the air-water heat exchange system and is provided for a heat pump. Cold-heat transfer is performed between the air-water heat exchange system and the heat pump main engine by adopting the aqueous solution heat exchange system, thereby avoiding frosting and pipeline pollution. Cold energy of air-conditioning condensate water is collected by utilizing the condensate water recovery system and then is used, thereby increasing efficiency of the heat pump main engine. Air flowing through the air-water heat exchange system is purified by adopting a haze purification system, thereby improving air quality.
Submerged, self-sustained waterborne data center facility
A self-sustained, submerged waterborne data center facility that utilizes a closed-looped heat management system that is both energy-efficient and cost-effective is disclosed. Embodiments employ a closed-looped, energy efficient, cost effective thermal management system that leverages natural resources to control thermal conditions and reduce the overall requirement for cooling power.
PREDICTIVE BUILDING AIR FLOW MANAGEMENT FOR INDOOR COMFORT THERMAL ENERGY STORAGE WITH GRID ENABLED BUILDINGS
A thermal energy exchange and ventilated hollow core slab system and method within a building where the slab has an air passage with an inlet and outlet, an air handler unit having adjustable heating/cooling structure and, and ventilation structure connected to the hollow core concrete slab, and a building control connected to the hollow core concrete slab and air handler system for relative thermal exchange between the air and hollow core concrete slab to control user comfort; where the building is grid enabled.
THERMOELECTRIC HEAT EXCHANGER FOR AN HVAC SYSTEM
The present disclosure relates to a heating, ventilation, and/or air conditioning (HVAC) system having a heat exchanger configured to thermally regulate a supply air flow, where the heat exchanger includes a thermoelectric device, a first plurality of fins coupled to the thermoelectric device, and a second plurality of fins coupled to the thermoelectric device. The first plurality of fins extend into a supply air flow path of the supply air flow to transfer thermal energy between the thermoelectric device and the supply air flow and the second plurality of fins convectively transfer thermal energy between the thermoelectric device and a working fluid exterior the supply air flow path.
FREECOOLING UNIT FOR TEMPERATURE MANAGEMENT SYSTEM
A free cooling unit including a heat exchanger to allow heat exchange between a first fluid and a second fluid; a first pumping assembly to pump the first fluid through a first hydraulic circuit from a first inlet port of the unit to a first outlet port of the unit; a second pumping assembly to pump the second fluid through a second hydraulic circuit from a second inlet port of the unit to a second outlet port of the module and a control module to control the functioning of the unit. The unit further includes a diverter assembly arranged between the first pumping assembly and the heat exchanger and configured to switch between a first state in which the first fluid is directed through the heat exchanger before reaching the first outlet port and a second state in which the first fluid is directly directed to the first outlet port.
WATER COOLED PHOTOVOLTAIC PANEL SYSTEM
A cooling system for a photovoltaic panel including micro flat heat pipes (HP) integrated with thermoelectric generators (TEG) and a cooled water reservoir for cooling the working fluid in heat pipes. The cooled water in the reservoir is pumped from the condensate pan of an air conditioner. Experimental results show that cooling system reduced the average temperature of the panel by as much as 19° C. or 25%. Further, the output power of the photovoltaic panel increased by 44% when the photovoltaic panel was used in a very hot climate (30-40° C.). An additional two watts of power was generated by the TEGs.
SUPPLY CIRCUIT FOR A HEAT TRANSFER MEDIUM FOR A CONSUMER, INDUSTRIAL INSTALLATION AND METHOD FOR OPERATING SAME
An industrial installation having a primary supply circuit in which cooling water is conveyed and a consumer to which cooling water from the primary supply circuit is provided and which is connected to the primary supply circuit via a secondary supply circuit. An outward flow line of the secondary supply circuit is connected to an outward flow line of the primary supply circuit, and a return flow line of the secondary supply circuit is connected to a return flow line of the primary supply circuit. The outward flow line of the primary supply circuit is connected to a groundwater delivery line of a spring installation which has a groundwater delivery line through which groundwater can be conveyed from an aquifer and can be fed as cooling water into the outward flow line of the primary supply circuit. Also provided is a method for operating an industrial installation wherein the cooling water that is used is naturally occurring groundwater which is obtained from an aquifer with the aid of a spring installation.
Concentric pipe geothermal heat exchanger well head
A concentric pipe geothermal heat exchanger well head is described. The well head may include a riser pipe having an outer pipe and an inner core pipe, wherein an inner heat exchanger pipe is coupled to the inner core pipe, a reducer coupled to an outer heat exchanger pipe on one side and coupled to the outer pipe on a second opposite side to conduct fluid between the outer heat exchanger pipe and the outer pipe, a flow pipe parallel to and biaxial with the riser pipe configured to be coupled to a geothermal heat pump, and an elbow coupled to the outer pipe to couple fluid between the outer pipe and the well head pipe.
Heat transfer system utilizing dynamic fluid leveling
A heat transfer system includes a conduit having open first and second ends, first and second thermal exchange segments disposed in-between and in fluid communication with the ends, and a means for adding fluid to the first end. The first thermal exchange segment is disposed underneath and in thermal communication with the ground, a body of water, or other location with a different temperature. The first and second ends are arranged above all other section of conduit and relative to one another so that they are communicating vessels and a change in fluid level in one changes the fluid level in the other. The means for adding fluid to the first end of the conduit causes fluid to flow freely from the first end to the second end and fluid level to rise in the second overcoming any hydrostatic pressure in the system without a pump disposed along the conduit.
HEAT EXTRACTION WITH WATER COOLING SYSTEM
A Heat Extraction with Water (HEW) cooling system for cooling room air of a building comprises a self-contained, condenser unit including compressor, an HEW condenser tube, and a water pump to circulate cool underground water around the HEW condenser tube. A first flow line between the compressor and the building directs cooled refrigerant to an evaporator tube within the house. A second flow line directs heated refrigerant to the compressor. A third flow line directs heated, compressed refrigerant to a refrigerant flow line in a water jacket