Smart UV C fixture with IoT features
An excimer bulb assembly including an excimer bulb and a pass filter such that the excimer bulb assembly does not emit substantial UV radiation in wavelengths longer than 231 nm, 232 nm, 233 nm, 234 nm or 235 nm. The wavelengths are measured at an incident angle of zero (0) degrees to the filter plane. The pass filter is preferably constructed of a plurality of layers of hafnium oxide, and most preferably constructed of less than seventy five (75) layers of hafnium oxide. The excimer bulb, pass filter, and two electrical connectors may be adapted to form a cartridge which may be adapted to swivel along its main axis. The cartridge may further include a smart chip. The smart chip may retain and store information regarding the assembly and preferably retains hours of use of the excimer bulb.
1. A smart Far UV fixture comprising:
a housing;
a Far UV source adapted for emitting Far UV radiation directly into an occupiable space at variable intensities, supported in said housing;
a smart power supply supported in said housing;
at least one sensor supported in said housing;
said smart power supply adapted to receive data from said at least one sensor;
said smart power supply further adapted for using said data from at least one sensor in making at least one human-safe determination of said occupiable space;
said smart power supply is in communication with said Far UV source such that when said human-safe determination requires a change in said Far UV source intensity, the smart power supply is in communication with said Far UV source to make said change;
said smart power supply is in communication with an IoT interface circuit adapted for directly connecting with, and exchanging data with a remote sensor;
said smart power supply is in communication with an IoT interface circuit adapted for directly connecting with, and exchanging data with, and reporting to, using wireless technology with the occupants of said occupiable space, at least one human-safe determination relating to the Far UV exposure of occupants in said occupiable space;
a cutoff filter adapted for filtering selected wavelengths in said Far UV C spectrum;
said cutoff filter including a plane;
when light emitted from said Far UV source at an incident angle of 0 degrees to said plane, said cutoff filter is adapted to block wavelengths longer than 234 nm;
said cutoff filter allows substantial transmission between 234 nm and 237 nm;
said cutoff filter reduces radiation from 240 nm to 400 nm to less than 1% of peak 222 nm radiation.
2. The smart Far UV fixture of claim 1 wherein said Far UV source is an excimer bulb.
3. The smart Far UV fixture of claim 1 wherein said Far UV source is a semiconductor bulb.
4. The smart Far UV fixture of claim 1 wherein said at least one sensor is a temperature sensor.
5. The smart Far UV fixture of claim 1 wherein said at least one sensor is a proximity sensor.
6. The smart Far UV fixture of claim 1 wherein said at least one sensor is adapted for detecting movement.
7. The smart Far UV fixture of claim 1 wherein said at least one sensor is a UV source brightness sensor.
8. The smart Far UV fixture of claim 1 wherein said smart power supply communicates with a crowd density sensor via said IoT interface circuit board.
9. The smart Far UV fixture of claim 1 wherein said IoT interface circuit board communicates with facility operators.
10. The smart Far UV fixture of claim 1 wherein said IoT interface circuit board communicates with lighting controls.
11. The smart Far UV fixture of claim 1 including a graphical interface.
12. The smart Far UV fixture of claim 1 wherein said filter is constructed of at least one layer of hafnium oxide.
13. The smart Far UV fixture of claim 1 including a diffusion layer.
14. The smart Far UV fixture of claim 1 including an illumination element having a white LED.
15. The smart Far UV fixture of claim 1 wherein said remote sensor is a temperature sensor.
16. The smart Far UV fixture of claim 1 wherein said remote sensor is a proximity sensor.
17. The smart Far UV fixture of claim 1 wherein said remote sensor is adapted for detecting movement.
18. The smart Far UV fixture of claim 1 wherein said remote sensor is a UV source brightness sensor.
19. The smart Far UV fixture of claim 1 wherein data received from said remote sensor includes bacterial load information.
20. The smart Far UV fixture of claim 1 wherein said IoT interface circuit board communicates with a remote crowd density sensor.
21. The smart Far UV fixture of claim 1 wherein said cutoff filter is not adapted to cut off any wavelengths shorter than 234 nm.
22. A smart Far UV fixture comprising:
a housing;
a krypton chloride excimer bulb including a cutoff filter supported in said housing;
said krypton chloride excimer bulb adapted for emitting Far UV radiation through said cutoff filter and directly into an occupiable space at variable intensities;
a smart power supply adapted for supplying at least 2000 volts at a frequency of at least 10 khz;
at least one sensor supported in said housing;
said smart power supply adapted to receive data from said at least one sensor;
said smart power supply further adapted for using said data from at least one sensor in making at least one human-safe determination of said occupiable space;
said smart power supply in communication with said krypton chloride excimer bulb such that when said human-safe determination requires a change in said Far UV source intensity, the smart UV fixture is in communication with said source to make said change;
said smart power supply in communication with an IoT interface circuit adapted for directly connecting with, and exchanging data with, and reporting to, using wireless technology, the occupants of said occupiable space, at least one human-safe determination relating to the Far UV exposure of occupants in said occupiable space.
23. The smart Far UV fixture of claim 22 wherein said smart power supply is in communication with an IoT interface circuit adapted for directly connecting with, and exchanging data with, a remote sensor.
24. The smart Far UV fixture of claim 23 wherein said remote sensor is a distance sensor.
25. The smart Far UV fixture of claim 23 wherein said remote sensor is adapted for detecting movement.
26. The smart Far UV fixture of claim 23 wherein said remote sensor is a UV source brightness sensor.
27. The smart Far UV fixture of claim 23 wherein said IoT interface circuit communicates with a remote crowd density sensor.