Optical power detector and reader
An optical power detection system comprises a sensor and a reader. The sensor is configured to detect light in the cladding of an optical fiber. The sensor is positioned both within a ferrule of the optical fiber and proximate the cladding. The sensor is additionally configured to produce an output signal representative of the detected light. The reader is electrically coupled to the sensor and is configured to receive the sensor output signal. The reader is additionally configured to operation on the output signal to produce a corresponding visual and/or audible indication of the optical power in the optical fiber.
1. An optical power detection system comprising:
a receptacle forming at least one of a wall panel, faceplate or wall mounted enclosure;
an adapter operably coupled to the receptacle, the adapter including an alignment sleeve to align a first optical fiber carrying a signal from a service provider with a second optical fiber for an in-home fiber optic network;
a photodetector configured to detect light from the first optical fiber carrying the signal from the service provider, while the adapter remains connected to the second optical fiber for the in-home fiber optic network;
a processor configured to convert an output from the photodetector into a visual signal for display on an output interface; and
a pushbutton test switch positioned on the receptacle and configured to initiate testing of the optical power detection system when activated;
wherein the output interface includes an on/off indicator light positioned on the receptacle and configured to provide a visual indication of the presence or absence of the optical signal based on the output from the processor.
2. The optical power detection system of claim 1 , wherein the pushbutton test switch is configured to selectively power the photodetector and the processor through harvested movement of the pushbutton test switch.
3. The optical power detection system of claim 1 , further comprising a solar panel configured to selectively power the photodetector and the processor.
4. The optical power detection system of claim 1 , wherein the receptacle defines a pair of electrical contacts enabling connection of a power supply external to the receptacle, wherein the power supply is configured to power the photodetector and the processor.
5. The optical power detection system of claim 1 , wherein the on/off indicator light comprises at least one LED indicator.
6. The optical power detection system of claim 1 , wherein the visual signal provides a binary indicator signifying a presence or absence of the signal from the service provider.
7. The optical power detection system of claim 1 , wherein the visual signal utilizes different colors to indicate different power levels of the signal from the service provider.
8. The optical power detection system of claim 1 , further comprising an amplifier to boost the output from the photodetector.
9. The optical power detection system of claim 1 , wherein the processor is configured to convert the output from the photodetector into a digital signal.
10. The optical power detection system of claim 1 , further comprising a wireless transmitter for transmission of data related to a power level of the signal from the service provider.
11. The optical power detection system of claim 10 , wherein the wireless transmitter is configured to transmit the data to a network via at least one of a Bluetooth low energy (BLE), ZigBee or Adaptive Network Topology (ANT) signal.
12. A wall-mounted panel configured for optical power detection, comprising:
an adapter integrated within a panel, wherein the adapter comprises an alignment sleeve designed to align a first optical fiber carrying a signal from a service provider with a second optical fiber for an in-home fiber optic network;
a photodetector incorporated within the panel, configured to detect light from the first optical fiber carrying the signal transmitted by the service provider, while the adapter remains connected to the second optical fiber for the in-home fiber optic network; and
a processor integrated within the panel, programmed to convert the output from the photodetector into a visual signal and display it on an output interface; and
a pushbutton test switch positioned on the panel and configured to initiate testing of the optical power detection system when activated;
wherein the output interface includes an on/off indicator light positioned on the panel and configured to provide a visual indication of the presence or absence of the optical signal based on the output from the processor.
13. The wall-mounted panel of claim 12 , wherein the pushbutton test switch is configured to selectively power the photodetector and the processor through harvested movement of the pushbutton test switch.
14. The wall-mounted panel of claim 12 , further comprising a solar panel configured to selectively power the photodetector and the processor.
15. The wall-mounted panel of claim 12 , further comprising wherein the receptacle defines a pair of electrical contacts enabling connection of a power supply external to the receptacle, wherein the power supply is configured to power the photodetector and the processor.
16. The wall-mounted panel of claim 12 , wherein the on/off indicator light comprises at least one LED indicator.
17. The wall-mounted panel of claim 12 , wherein the visual signal provides a binary indicator signifying a presence or absence of the signal from the service provider.
18. The wall-mounted panel of claim 12 , wherein the visual signal utilizes different colors to indicate different power levels of the signal from the service provider.
19. The wall-mounted panel of claim 12 , further comprising a wireless transmitter for transmission of data related to a power level of the signal from the service provider.
20. The wall-mounted panel of claim 19 , wherein the wireless transmitter is configured to transmit the data to a network via at least one of a Bluetooth low energy (BLE), ZigBee or Adaptive Network Topology (ANT) signal.