F24F11/46

SCALABLE CONTROL OF HEAT PUMPS WITH LIMITED SMART-HOME DEVICES
20230228446 · 2023-07-20 ·

An apparatus in one embodiment comprises at least one processing device. The processing device comprises a processor coupled to a memory, and is configured to obtain information characterizing operation of a heat pump at a particular energy usage location, and to process the obtained information in a reinforcement learning agent to generate at least one control signal for controlling the heat pump, wherein the reinforcement learning agent is implemented at least in part utilizing behavioral cloning of a model predictive control process. In some embodiments, the behavioral cloning of the model predictive control process comprises a constraint-informed parameter grouping (CIPG) phase, a training data generation phase and a model training phase. The apparatus can be implemented, for example, at least in part in a cloud-based processing platform, and/or at least in part in one or more of a smart meter, a smart thermostat, a smart-home controller or other smart-home device.

SCALABLE CONTROL OF HEAT PUMPS WITH LIMITED SMART-HOME DEVICES
20230228446 · 2023-07-20 ·

An apparatus in one embodiment comprises at least one processing device. The processing device comprises a processor coupled to a memory, and is configured to obtain information characterizing operation of a heat pump at a particular energy usage location, and to process the obtained information in a reinforcement learning agent to generate at least one control signal for controlling the heat pump, wherein the reinforcement learning agent is implemented at least in part utilizing behavioral cloning of a model predictive control process. In some embodiments, the behavioral cloning of the model predictive control process comprises a constraint-informed parameter grouping (CIPG) phase, a training data generation phase and a model training phase. The apparatus can be implemented, for example, at least in part in a cloud-based processing platform, and/or at least in part in one or more of a smart meter, a smart thermostat, a smart-home controller or other smart-home device.

AUTOMATED CLOUD HOSTED BMS ARCHIVE AND DIFFERENCE ENGINE

A method for determining updates in a building management system (BMS) is shown. The method includes receiving, via an on premise server, configuration data associated with at least part of the BMS. The method includes storing the configuration data within a cloud server communicably coupled with the on premise server. The method includes determining, via a difference engine within the cloud server, information comprising a delta between the configuration data and one or more previous sets of configuration data stored within the cloud server. The method includes providing, to the on premise server, the information to an interface.

AUTOMATED CLOUD HOSTED BMS ARCHIVE AND DIFFERENCE ENGINE

A method for determining updates in a building management system (BMS) is shown. The method includes receiving, via an on premise server, configuration data associated with at least part of the BMS. The method includes storing the configuration data within a cloud server communicably coupled with the on premise server. The method includes determining, via a difference engine within the cloud server, information comprising a delta between the configuration data and one or more previous sets of configuration data stored within the cloud server. The method includes providing, to the on premise server, the information to an interface.

Proactive system control using humidity prediction

During an initial period of time, an HVAC controller stores a record of an energy demand of the HVAC system that corresponds to an amount of energy used to operate the HVAC system. For a future time period, an anticipated energy demand of the HVAC system is determined. The controller then recursively determines, for each of a plurality of time points within the future time period, an anticipated indoor humidity value using the anticipated energy demand and the record of the energy demand. The HVAC system is operated based at least in part on the anticipated indoor humidity value.

Proactive system control using humidity prediction

During an initial period of time, an HVAC controller stores a record of an energy demand of the HVAC system that corresponds to an amount of energy used to operate the HVAC system. For a future time period, an anticipated energy demand of the HVAC system is determined. The controller then recursively determines, for each of a plurality of time points within the future time period, an anticipated indoor humidity value using the anticipated energy demand and the record of the energy demand. The HVAC system is operated based at least in part on the anticipated indoor humidity value.

FREECOOLING UNIT FOR TEMPERATURE MANAGEMENT SYSTEM
20230221032 · 2023-07-13 · ·

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.

FREECOOLING UNIT FOR TEMPERATURE MANAGEMENT SYSTEM
20230221032 · 2023-07-13 · ·

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.

AIR CONDITIONING SYSTEM, AND INDOOR UNIT OF SAME

This air conditioning system includes a refrigerant circuit including an indoor heat exchanger of an indoor unit and an outdoor heat exchanger of an outdoor unit, and a detection unit capable of detecting a refrigerant leaking from the indoor unit. The detection unit is capable of switching between an energized state and a non-energized state on the basis of information on a refrigerant filling amount by which the refrigerant circuit is filled with the refrigerant.

AIR CONDITIONING SYSTEM, AND INDOOR UNIT OF SAME

This air conditioning system includes a refrigerant circuit including an indoor heat exchanger of an indoor unit and an outdoor heat exchanger of an outdoor unit, and a detection unit capable of detecting a refrigerant leaking from the indoor unit. The detection unit is capable of switching between an energized state and a non-energized state on the basis of information on a refrigerant filling amount by which the refrigerant circuit is filled with the refrigerant.