Emerson Electric Company

Copeland Comfort Control LP

David L Vie

Michael J Moran

John J Heller

John Francis Broker

John F Broker

Bradley C Zikes

Randy T Ruiz

Nayan J Mishra

Mike J Moran

Amanda Diaz

Timothy B Edwards

Thomas Blizzard

An example HVAC system includes an HVAC component, and an HVAC control configured to control the HVAC component according to an HVAC system configuration parameter. The HVAC control includes a controller wireless interface and a memory. The system also includes a mobile device having a user interface and a mobile wireless interface in wireless communication with the controller wireless interface of the HVAC control. The mobile device is configured to display the HVAC system configuration parameter on the user interface, receive user input settings for the HVAC system configuration parameter, and wirelessly transmit the received user input settings to the controller wireless interface of the HVAC control. The HVAC control is configured to store the received user input settings in the memory of the HVAC control to control the HVAC component. Example methods of controlling an HVAC system are also disclosed.

Wirelessly configuring climate control system controls

A controller for use in a gas appliance system includes a circuit board, a plurality of connectors and a processor mounted on the circuit board. The processor controls operation of the gas appliance using, in part, at least one connector of the plurality of connectors and control settings for an intermittent pilot (IP) system in response to a user selection to configure the controller to control an IP system, and controls operation of the gas appliance using, in part, at least one connector of the plurality of connectors and control settings for a direct spark ignition (DSI) system in response to a user selection to configure the controller to control a DSI system.

Spark ignition module and methods

A gas powered appliance includes a burner for burning gas, a flame sensor positioned proximate the burner to detect a strength of a flame on the burner and to output signals indicative of the strength of the flame, and a controller connected to the flame sensor. The controller includes a communication interface, a processor, and a memory containing instructions that program the controller to control the burner, receive the signals from the flame sensor indicative of the strength of the flame, determine the strength of the flame from the received signals, and output, using the communication interface, an indication of the strength of the flame to a mobile device for display on the mobile device.

Systems and methods for wirelessly configuring climate control system controls

A flame sensor assembly includes a flame sense rod and a flame sensor body. The flame sense rod includes a flame sensor end and a coupling end opposite the flame sensor. The flame sensor body defines a receptacle for receiving the coupling end of the flame sense rod, and includes an adjustable positioning bracket. The assembly also includes a wiring adapter for connecting the flame sensor body with a flame sense signal connector, and a mounting bracket adapted to mount the flame sensor body to a heating device with the flame sensor end of the flame sense rod positioned adjacent a flame of the heating device. Methods of replacing a flame sensor assembly for a heating device are also disclosed.

Flame sensor assemblies and methods of replacing flame sensor assemblies

Exemplary embodiments are provided of HVAC control assemblies. In an exemplary embodiment, an HVAC control assembly includes an HVAC control board, a first interface connector, and a second interface connector. The first interface connector and the second interface connector each include multiple pins adapted for connection to an equipment wiring harness. The assembly also includes an electrical conductor connected between at least one of the multiple pins of the first interface connector and at least one of the multiple pins of the second interface connector, and an HVAC controller configured to determine whether an equipment wiring harness is connected to the first interface connector or the second interface connector based on a state of at least one of the multiple pins connected to the electrical conductor. Example methods of determining an equipment wiring harness connection in an HVAC control assembly are also disclosed.

HVAC control assemblies, and corresponding methods of determining equipment wiring harness connections

In exemplary embodiments, wiring harness assemblies for electrical equipment and related methods are disclosed. In an exemplary embodiment, a wiring harness assembly for electrical equipment generally includes a first connector configured for connecting to a wiring harness, a second connector configured for mounting to a panel, and one or more conductors connecting the first connector with the second connector.

Connecting electrical equipment through wiring harnesses

Exemplary embodiments are disclosed of a relay switch control configured for connection between a power source and a load. The control includes a processor having a clock upon which an operating frequency of the processor is based, and a sealed relay operable by the processor to electrically connect or disconnect the power source and the load. The relay switch control can start power to the load through the relay after a randomized time delay determined by the processor using a value of a counter of the processor. The counter is updated as a function of cycles of the clock.

Relay switch control and related methods

A heat pump controller for use in a heat exchange system includes a computing device and a user interface coupled to the computing device. The computing device is configured to initiate a defrost cycle based on one of a plurality of user-selectable defrost modes, and the user interface is configured to display the user-selectable defrost modes and receive a user selection corresponding to one of the user-selectable defrost modes.

Heat pump controller with user-selectable defrost modes and reversing valve energizing modes

Disclosed are exemplary embodiments of controls for heating, ventilation, and/or air conditioning systems. In an exemplary embodiment, a control for a heating, ventilation, and/or air conditioning system includes an alphanumeric display and one or more input device. A processor of the control is configured to receive a user input through the input device(s), and in response to the user input, reorient a display of a message relative to the alphanumeric display.

HVAC controls and controllers including alphanumeric displays

A controller for use in a gas furnace system including a gas valve and an ignition device is provided. The controller includes a circuit board, a control circuit connected to the circuit board, and a plurality of harness connectors mounted to the circuit board. The control circuit is configured to control operation of the gas valve and the ignition device. Each harness connector is configured to mate with a wiring harness to electrically connect the control circuit to at least one component of the furnace system. Each harness connector includes a plurality of pin connectors defining a pin configuration of the corresponding harness connector, and each pin configuration is different than the other pin configurations. At least one pin connector from each harness connector is electrically connected in parallel with one of the pin connectors from each of the other harness connectors.

Growing community of inventors

Union, MO, United States of America

David L Vie