Elongated modular heatsink with coupled light source luminaire
View Patent ↗An aspect of the present disclosure describes a heatsink system, including a single substantially solid core detachable linear heatsink having at least one exterior flat surface, a power management module, a controller, a sensing device, a microswitch, a light source driver, a plurality of heat dissipating fins, and a plurality of lensed light sources coupled to the at least one exterior flat surface. Additionally, according to this aspect, the plurality of the heat dissipating fins and the core of the linear heatsink are a unitary body with the heat dissipating fins extending outwardly from the core and with a length of a first maximum dimension of the core and at least one fin being greater than a second maximum dimension of the core taken perpendicularly to at least one exterior flat surface that retains a light source. Still further, at least one of the power management module, the controller, the sensing device, and the light source driver are electromechanically coupled to the heatsink core, and at least one of the plurality of lensed light sources is coupled to the at least one exterior flat surface and is controlled by the processor to emit ultraviolet (UV) light.
1. A heatsink system, comprising:
a single substantially solid core detachable linear heatsink having at least one exterior flat surface;
a power management module;
a controller;
a sensing device;
a microswitch;
a light source driver;
a plurality of heat dissipating fins; and
a plurality of lensed light sources coupled to the at least one exterior flat surface;
wherein the plurality of the heat dissipating fins and the core of the linear heatsink are a unitary body with the heat dissipating fins extending outwardly from the core,
wherein a length of a first maximum dimension of the core and at least one fin is greater than a second maximum dimension of the core taken perpendicularly to at least one exterior flat surface that retains a light source;
wherein at least one of the power management module, the controller, the sensing device, and the light source driver are electromechanically coupled to the heatsink core, and at least one of the plurality of lensed light sources is coupled to the at least one exterior flat surface and is controlled by the processor to emit ultraviolet (UV) light.
2. The heatsink system of claim 1 , further comprising a communication device coupled to the heatsink.
3. The heatsink system of claim 2 , wherein the controller operates in response to real time input from at least one of the sensing device and the communication device.
4. The heatsink system of claim 3 , wherein the controller directs the light source driver to power the UV emitting light source in response to processing the real time input from the sensing device.
5. The heatsink system of claim 3 , further comprising:
a temporary backup power device wherein the temporary backup power device is configured to energize, in response to a power supply interruption, at least one of a microswitch and the controller.
6. The heatsink system of claim 5 , wherein the UV emitting light source turns off when at least one of these conditions occurs:
a. the controller does not receive input from the sensing device;
b. failure of the controller, the sensing device, or the communication device;
c. interruption of the power supply;
d. sensing the presence of living beings; and
e. activation of a building emergency system.
7. The heatsink system of claim 1 , wherein the sensing device is a camera coupled to the controller and configured to discern in real time at least one of a living being infrared signature, movement of living beings, and field of view pixel changes.
8. The heatsink system of claim 1 , wherein the controller operates a plurality of light source circuits that emit light within differing light spectrums.
9. The heatsink system of claim 1 , comprising at least one of a protective lens configured to shape an optical distribution of the UV emitting light source and an optical light beam shaping device coupled to the heat sink and having at least one of a reflection surface and a refraction surface.
10. A heatsink system, comprising:
a single substantially solid core detachable linear heatsink having at least one exterior flat surface;
a power management module;
a controller;
a sensing device;
a microswitch;
a light source driver;
a plurality of heat dissipating fins; and
a plurality of lensed light sources coupled to the at least one exterior flat surface;
wherein the plurality of the heat dissipating fins and the core of the linear heatsink are a unitary body with the heat dissipating fins extending outwardly from the core,
wherein a length of a first maximum dimension of the core and at least one fin is greater than a second maximum dimension of the core taken perpendicularly to at least one exterior flat surface that retains a light source,
wherein the heatsink is electromechanically coupled to at least one retainer housing,
wherein, the retainer housing retains at least one of the power management module, the controller, the sensing device, and the light source driver,
wherein at least one of the plurality of light sources is coupled to a flat surface of the heatsink and is controlled by the processor to emit ultraviolet (UV) light substantially within a germicidal ultraviolet (GUV) range.
11. The heatsink system of claim 10 , wherein the retainer housing retains a communication device.
12. The heatsink system of claim 11 , wherein the controller requires real time input from at least one of the sensing device and the communication device to operate the UV emitting light source.
13. The heatsink system of claim 10 , wherein the sensing device is a camera coupled to the controller and configured to discern in real time a living being infrared signature, movement of living beings, and field of view pixel changes.
14. The heatsink system of claim 10 , wherein the controller is configured to operate a plurality of light source circuits emitting light in differing light spectrums.
15. The heatsink system of claim 10 , wherein the controller activates the UV emitting light source driver only after processing real time input from the at least one sensing device.
16. The heatsink system of claim 10 , comprising at least one of a protective lens configured to shape an optical distribution of the UV emitting light source and an optical light beam shaping device coupled to a heat sink and having at least one of a reflection surface and a refraction surface.
17. The heatsink system of claim 10 , further comprising:
a temporary backup power device wherein the temporary backup power device is configured to energize, in response to a power supply interruption, at least one of a microswitch and the controller.
18. The heatsink system of claim 10 , wherein the UV light turns off when at least one of these conditions occurs:
a. the controller does not receive input from the sensing device;
b. failure of the controller, the sensing device, or a communication device;
c. interruption of a power supply;
d. sensing the presence of living beings; and
e. activation of a building emergency system.
19. A heatsink system, comprising:
a plurality of devices comprising:
a single substantially solid core detachable linear heatsink having at least one flat surface;
a power management module;
a controller;
a sensing device;
a microswitch;
a light source driver;
a plurality of heat dissipating fins; and
a plurality of lensed light sources coupled to the at least one flat surface of the heatsink;
wherein the plurality of the heat dissipating fins and the core of the linear heatsink are a unitary body with the heat dissipating fins extending outwardly from the core,
wherein a length of a first maximum dimension of the core and at least one fin is greater than a second maximum dimension of the core taken perpendicularly to at least one exterior flat surface that retains a light source,
wherein the heat sink is electromechanically coupled to at least one retainer housing;
wherein a first number of the plurality of devices is disposed within the at least one retainer housing;
wherein a second number of the plurality of devices is disposed within a light source driver enclosure,
wherein the light source driver enclosure is electromechanically coupled to the heatsink core,
wherein at least one of the plurality of the light sources is operated by the controller to emit UV light substantially within a GUV range.