IP Library Granted Patent US 12,317,390
Granted Patent B2
US 12,317,390 · App. 18/358,316 · Granted May 27, 2025

Faceplate remote control device for use in a load control system

Inventors: Jeffrey Karc (Danielsville, PA); Jamie Steffie (Slatington, PA); Jordan H. Crafts (Bethlehem, PA)
Assignee: Lutron Technology Company LLC
H05B47/115H05B47/19H05B47/13H05B47/175
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Quick Facts
Patent No.
US 12,317,390
App. No.
18/358,316
Granted
May 27, 2025
Kind
B2
Abstract

A faceplate remote control device may be attached to a wall-mounted mechanical light switch that has a toggle actuator. The faceplate remote control device may include a toggle indicator that detects operation of the toggle actuator of the mechanical switch. The toggle indicator may cause the generation of an indication of detected operation of the toggle actuator. The toggle indicator may comprise a sliding member that is configured to move with the toggle actuator. The toggle indicator may comprise an obstruction detection device that includes an infrared (IR) transmitter and an IR receiver. The faceplate remote control device may include a control circuit and a wireless communication circuit. The control circuit may be configured to cause the wireless communication circuit to transmit one or more messages in response to detecting operation of the toggle actuator of the mechanical switch.

Claims (75)

1. An electrical load controller, comprising:

a housing that includes an electric switching device faceplate;

the housing having an aperture formed therethrough to accommodate the passage of an electric switching device actuator;

sensor circuitry to:

detect a position of the electric switching device actuator, the electric switching device actuator to adjust power delivered to a conductively coupled first electric load device; and

generate a first signal that includes information indicative of a position of the electric switching device actuator;

wireless communication interface circuitry;

electric load controller control circuitry coupled to the sensor circuitry and the wireless communication circuitry, the electric load controller control circuitry to:

receive, from the sensor circuitry, the first signal;

generate a second signal that includes one or more instructions based on of the position of the electric switching device actuator;

cause the wireless communication interface circuitry to transmit the second signal to a first remotely mounted electric load control device;

wherein the one or more instructions included in the second signal cause the first remotely mounted electric load control device to adjust power delivered to a second electric load device different from the first electric load device.

2. The electrical load controller of claim 1 , the electric load controller control circuitry to further:

receive, from a wireless control device, a signal indicative of an actuation of an actuator included in the wireless control device; and

generate the second signal that includes one or more instructions based on one of: the position of the electric switching device actuator or the signal indicative of an actuation of an actuator included in the wireless control device.

3. The electrical load controller of claim 1 , the electric load controller control circuitry to further:

cause the wireless communication interface circuitry to transmit the second signal to a second remotely mounted electric load control device;

wherein the one or more instructions included in the second signal cause the second remotely mounted electric load control device to adjust power delivered to a third electric load device different from the first electric load device and the second electric load device.

4. The electrical load controller of claim 1 wherein to detect a position of the electric switching device actuator, the electric switching device actuator to adjust power delivered to a conductively coupled first electric load device, the sensor circuitry to further:

detect a position of a wallbox-mountable electric toggle switch, the wallbox-mountable electric toggle switch to control the power delivered to the first electric load device.

5. The electrical load controller of claim 3 wherein to detect a position of the electric switching device actuator, the electric switching device actuator to adjust power delivered to a conductively coupled first electric load device, the sensor circuitry to further:

detect a position of a location of a slidably displaceable electric control device actuator, the slidably displaceable electric control device actuator to vary the power delivered to the conductively coupled first electric load device.

6. The electrical load controller of claim 5 wherein to cause the wireless communication interface circuitry to transmit the second signal to the first remotely mounted electric load control device, the electric load controller control circuitry to further:

cause the wireless communication interface circuitry to transmit the second signal to the first remotely mounted electric load control device;

wherein the one or more instructions included in the second signal cause the first remotely mounted electric load control device to vary the power delivered to the second electric load device based on the received location of the slidably displaceable electric control device actuator.

7. The electrical load controller of claim 6 wherein to cause the wireless communication interface circuitry to transmit the fourth signal, the electric load controller control circuitry to further:

cause the wireless communication interface circuitry to transmit the second signal to the second remotely mounted electric load control device;

wherein the one or more instructions included in the second signal cause the second remotely mounted electric load control device to vary the power delivered to the third electric load device based on the received location of the slidably displaceable electric control device actuator.

8. A method to control an electrical load via a controller having a housing couplable to an electric switching device faceplate, wherein the housing includes an aperture formed therethrough to accommodate the passage of an electric switching device actuator reversibly transitionable between a first position and a second position, the method comprising:

detecting, by sensor circuitry disposed in an electric load controller housing, a position of an electric switching device actuator that passes through an aperture formed in the electric load controller housing, the electric switching device actuator to adjust power delivered to a conductively coupled first electric load device;

generating, by the sensor circuitry a first signal that includes information indicative of a position of the electric switching device actuator;

receiving, by electric load controller control circuitry, the first signal;

generating, by the electric load controller control circuitry, a second signal that includes one or more instructions based on of the position of the electric switching device actuator responsive to receipt of the first signal;

causing, by the electric load controller control circuitry, operatively coupled wireless communication interface circuitry to transmit the second signal to a first remotely mounted electric load control device;

wherein the one or more instructions included in the second signal cause the first remotely mounted electric load control device to adjust power delivered to a second electric load device different from the first electric load device.

9. The method of claim 8 , further comprising:

receiving, by the electric load controller control circuitry from a wireless control device, a signal indicative of an actuation of an actuator included in the wireless control device; and

generating, by the electric load controller control circuitry, the second signal that includes one or more instructions based on one of: the position of the electric switching device actuator or the signal indicative of an actuation of an actuator included in the wireless control device.

10. The method of claim 8 , further comprising:

causing, by the electric load controller control circuitry, the wireless communication interface circuitry to transmit the second signal to a second remotely mounted electric load control device;

wherein the one or more instructions included in the second signal cause the second remotely mounted electric load control device to adjust power delivered to a third electric load device different from the first electric load device and the second electric load device.

11. The method of claim 8 wherein detecting the position of the electric switching device actuator further comprises:

detecting, by the sensor circuitry, a position of a wallbox-mountable electric toggle switch, the wallbox-mountable electric toggle switch to control the power delivered to the conductively coupled first electric load device.

12. The method of claim 10 wherein detecting the position of the electric switching device actuator further comprises:

detecting, by the sensor circuitry, a position of a location of a slidably displaceable electric control device actuator, the slidably displaceable electric control device actuator to vary the power delivered to the conductively coupled first electric load device.

13. The method of claim 12 wherein causing the wireless communication interface circuitry to transmit the second signal further comprises:

causing, by the electric load controller control circuitry, the wireless communication interface circuitry to transmit the second signal to the first remotely mounted electric load control device;

wherein the one or more instructions included in the second signal cause the first remotely mounted electric load control device to vary the power delivered to the second electric load device based on the received location of the slidably displaceable electric control device actuator.

14. The method of claim 13 wherein causing the wireless communication interface circuitry to transmit the fourth signal further comprises:

causing, by the electric load controller control circuitry, the wireless communication interface circuitry to transmit the second signal to the second remotely mounted electric load control device;

wherein the one or more instructions included in the second signal cause the second remotely mounted electric load control device to vary the power delivered to the third electric load device based on the received location of the slidably displaceable electric control device actuator.

15. A non-transitory, machine-readable, storage device that includes instructions that, when executed by electric load controller control circuitry, cause the electric load controller control circuitry to:

receive, from operatively coupled sensor circuitry, a first signal that includes information indicative of a detected position of an electric switching device actuator, the electric switching device actuator to adjust power delivered to a conductively coupled first electric load device;

wherein the electric switching device actuator passes through an aperture formed in a housing that includes the operatively coupled sensor circuitry, the housing couplable to an electric switching device faceplate;

generate a second signal that includes one or more instructions based on of the detected position of the electric switching device actuator;

cause operatively coupled wireless communication interface circuitry disposed in the housing to transmit the second signal to a first remotely mounted electric load control device;

wherein the one or more instructions included in the second signal cause the first remotely mounted electric load control device to adjust power delivered to a second electric load device different from the first electric load device.

16. The non-transitory, machine-readable, storage device of claim 15 wherein the instructions, when executed by the electric load controller control circuitry, further cause the electric load controller control circuitry to:

receive, from a wireless control device, a signal indicative of an actuation of an actuator included in the wireless control device; and

generate the second signal that includes one or more instructions based on one of:

the detected position of the electric switching device actuator; or

the signal indicative of an actuation of an actuator included in the wireless control device.

17. The non-transitory, machine-readable, storage device of claim 15 wherein the instructions, when executed by the electric load controller control circuitry, further cause the electric load controller control circuitry to:

cause the wireless communication interface circuitry to transmit the second signal to a second remotely mounted electric load control device;

wherein the one or more instructions included in the second signal cause the second remotely mounted electric load control device to adjust power delivered to a third electric load device different from the first electric load device and the second electric load device.

18. The non-transitory, machine-readable, storage device of claim 15 wherein the instructions that cause the electric load controller control circuitry to receive, from the operatively coupled sensor circuitry, the first signal that includes the information indicative of the position of an electric switching device actuator further cause the electric load controller control circuitry to:

receive, from the sensor circuitry, a first signal that includes information indicative of the position of a wallbox-mountable electric toggle switch, the wallbox-mountable electric toggle switch to control the power delivered to the first electric load device.

19. The non-transitory, machine-readable, storage device of claim 15 wherein the instructions that cause the electric load controller control circuitry to receive, from the operatively coupled sensor circuitry, the first signal that includes the information indicative of the position of an electric switching device actuator further causes the electric load controller control circuitry to:

receive, from the sensor circuitry, a first signal that includes information indicative of the position of a location of a slidably displaceable electric control device actuator, the slidably displaceable electric control device actuator to vary the power delivered to the conductively coupled first electric load device.

20. The non-transitory, machine-readable, storage device of claim 19 wherein the instructions that cause the electric load controller control circuitry to cause the wireless communication interface circuitry to transmit the second signal to the first remotely mounted electric load control device further cause the electric load controller control circuitry to:

cause the wireless communication interface circuitry to transmit the second signal the first remotely mounted electric load control device;

wherein the one or more instructions included in the second signal cause the first remotely mounted electric load control device to vary the power delivered to the second electric load device based on the received location of the slidably displaceable electric control device actuator.

21. The non-transitory, machine-readable, storage device of claim 20 wherein the instructions that cause the electric load controller control circuitry to cause the wireless communication interface circuitry to transmit the second signal to the second remotely mounted electric load control device further cause the electric load controller control circuitry to:

cause the wireless communication interface circuitry to transmit the second signal to the second remotely mounted electric load control device;

wherein the one or more instructions included in the second signal cause the second remotely mounted electric load control device to vary the power delivered to the third electric load device based on the received location of the slidably displaceable electric control device actuator.

Continuity (7)
Continuation 17577271 · Jan 17, 2022
Continuation 16901414 · Jun 15, 2020
Continuation 16430227 · Jun 3, 2019
Continuation 15845797 · Dec 18, 2017
Division 14576983 · Dec 19, 2014
Provisional Application 61920865 · Dec 26, 2013
Related Publication 20240032177A1 · Jan 25, 2024
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