Spark ignition module and methods
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.
1. A spark ignition controller for use in a gas powered heater, the controller comprising:
a circuit board;
a plurality of connectors mounted on the circuit board;
a local temperature sensor mounted on the circuit board to measure a temperature proximate the controller; and
a processor mounted on the circuit board and programmed to:
initiate operation of the gas powered heater to generate heat in response to a call for heat received from a remote thermostat;
initiate operation of the gas powered heater to generate heat based on a temperature received by the processor from the local temperature sensor without receiving a call for heat;
control operation of the gas powered heater to generate heat 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
control operation of the gas powered heater to generate heat 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.
2. The spark ignition controller of claim 1 , further comprising a communication interface for communication with a mobile device.
3. The spark ignition controller of claim 2 , wherein the communication interface comprises a near field communication (NFC) module.
4. The spark ignition controller of claim 3 , wherein the communication interface further comprises a Bluetooth module.
5. The spark ignition controller of claim 2 , wherein the communication interface comprises a Bluetooth module.
6. The spark ignition controller of claim 2 , wherein the user selection to configure the controller to control a DSI system or to control an IP system is received from the mobile device via the communication interface.
7. The spark ignition controller of claim 1 , wherein the plurality of connectors including at least one terminal for use only in an IP system and at least one terminal for use only in a DSI system.
8. The spark ignition controller of claim 7 , wherein the at least one terminal for use with an IP system comprises a pilot valve terminal.
9. The spark ignition controller of claim 7 , wherein the at least one terminal for use with a DSI system comprises an inducer terminal.
10. The spark ignition controller of claim 1 , wherein the processor is further programmed to initiate operation of the gas powered heater to generate heat without receiving a call for heat based on the temperature from the local temperature sensor and a stored temperature setpoint.
11. The spark ignition controller of claim 10 , wherein the local temperature sensor comprises a thermistor.
12. The spark ignition controller of claim 11 , wherein the local temperature sensor comprises a thermistor connected to one of the plurality of connectors.
13. A spark ignition controller for a gas powered appliance comprising:
a circuit board;
a plurality of connectors mounted on the circuit board;
a communication interface mounted on the circuit board; and
a processor mounted on the circuit board and programmed to:
communicate with at least one other spark ignition controller to form a mesh network with the at least one other spark ignition controller, with the spark ignition controller and the at least one other spark ignition controller each operating as a node in the mesh network;
control operation of the gas powered 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
control operation of the system 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.
14. The spark ignition controller of claim 13 , wherein the communication interface comprises a Wi-Fi module.
15. The spark ignition controller of claim 14 , wherein the communication interface further comprises a Bluetooth module.
16. The spark ignition controller of claim 13 , wherein the communication interface comprises a Bluetooth module.
17. The spark ignition controller of claim 13 , wherein the processor is programmed to receive the user selection to configure the controller to control a DSI system or to control an IP system from a mobile device via the communication interface.
18. The spark ignition controller of claim 13 , wherein the plurality of connectors includes at least one terminal for use only in an IP system and at least one terminal for use only in a DSI system.
19. The spark ignition controller of claim 13 , wherein the gas powered appliance is a gas powered heater, the controller further comprises a temperature sensor mounted on the circuit board, and the processor is further programmed to initiate operation of the gas powered heater to generate heat based on a temperature measurement from the temperature sensor mounted on the circuit board and a stored temperature setpoint.
20. The spark ignition controller of claim 13 wherein the processor is programmed to receive the user selection to configure the controller to control a DSI system or to control an IP system from another spark ignition controller in the mesh network via the communication interface.