Hotspot cutoff d-optic
The present invention is an optic used for producing a desired beam pattern having a body portion having a height and a thickness, and at least one sidewall profile, as well as an input port for receiving light from a light source. The optic of the present invention also includes an output surface formed as part of the body portion on the opposite side of the body portion in relation to the input port, at least one leg portion formed as part of the body portion, and at least one alignment feature formed as part of the leg portion, the alignment feature for controlling the alignment of the optic in relation to the light source.
1. An optic used for creating a desired beam pattern, comprising:
a body portion formed by two opposing sidewalls and having a height and thickness;
an input port optically connected to said body portion, said input port operable for receiving light from a light source;
an output surface formed as part of said body portion and being substantially adjacent to at least one sidewall, wherein light is received into said input port, proceeds through said body portion, and exits said output surface;
a first lower wall portion formed as part of said body portion; and
a second lower wall portion formed as part of said body portion, each of said first wall portion and said second wall portion having a hyperbolic profile for increasing the intensity of said desired beam pattern.
2. The optic used for creating a desired beam pattern of claim 1 , wherein said output surface is substantially perpendicular to at least one sidewall.
3. The optic used for creating a desired beam pattern of claim 1 , further comprising at least one side wall having at least one sidewall profile.
4. The optic used for creating a desired beam pattern of claim 3 , said at least one sidewall profile further comprising an asymmetric sidewall profile.
5. The optic used for creating a desired beam pattern of claim 1 , further comprising:
a wall formed as part of said body portion, said wall being substantially perpendicular to said input port; and
a notch formed at the intersection of said input port and said wall, said wall and said notch being operable for creating a smooth, blended foreground portion of said desired beam pattern.
6. The optic used for creating a desired beam pattern of claim 1 , wherein the body portion having a D-shape profile with a flat surface of the D-shape serving as the input port and a curved surface of the D-shape serving as the output surface.
7. An optic used for creating a desired beam pattern, comprising:
a body portion formed by two opposing sidewalls;
an input port optically connected to said body portion, said input port operable for receiving light from a light source;
an output surface formed as part of said body portion and being substantially adjacent to at least one sidewall, wherein light is received into said input port, proceeds through said body portion, and exits said output surface;
a multi-cycle wave formed over approximately thirty percent of said output surface; and
an output prism formed as part of at least a portion of said output surface, said multi-cycle wave and said output prism being operable for forming said desired beam pattern.
8. The optic used for creating a desired beam pattern of claim 7 , said multi-cycle wave further comprising a three-cycle wave.
9. The optic used for creating a desired beam pattern of claim 7 , wherein the body portion having a D-shape profile with a flat surface of the D-shape serving as the input port and a curved surface of the D-shape serving as the output surface.
10. An optic used for creating a desired beam pattern, comprising:
a body portion formed by two opposing sidewalls;
an input port optically connected to said body portion, said input port operable for receiving light from a light source;
an output surface formed as part of said body portion and being substantially adjacent to at least one sidewall, wherein light is received into said input port, proceeds through said body portion, and exits said output surface; and
a clipped corner formed as part of said body portion, said clipped corner extending at an angle from said output surface.
11. The optic used for creating a desired beam pattern of claim 10 , further comprising:
a first lower wall portion formed as part of said body portion; and
a second lower wall portion formed as part of said body portion, each of said first wall portion and said second wall portion having a hyperbolic profile for increasing the intensity of said desired beam pattern.
12. An optic used for creating a desired beam pattern, comprising:
a body portion formed by two opposing sidewalls and having a height and thickness; at least one sidewall having an asymmetric sidewall profile;
an input port optically connected to said body portion, said input port operable for receiving light from a light source;
an output surface formed as part of said body portion and being substantially adjacent to at least one sidewall, wherein light is received into said input port, proceeds through said body portion, and exits said output surface
a multi-cycle wave formed over approximately thirty percent of said output surface; and
an output prism formed as part of at least a portion of said output surface, said multi-cycle wave and said output prism being operable for forming said desired beam pattern.
13. The optic used for creating a desired beam pattern of claim 12 , wherein said output surface is substantially perpendicular to said at least one sidewall.
14. The optic used for creating a desired beam pattern of claim 12 , further comprising:
a first lower wall portion formed as part of said body portion;
a second lower wall portion formed as part of said body portion, each of said first wall portion and said second wall portion having a hyperbolic profile;
a wall formed as part of said body portion, said wall being substantially perpendicular to said input port; and
a notch formed at the intersection of said input port and said wall, said wall and said notch being operable for creating a smooth, blended foreground portion of said desired beam pattern.
15. The optic used for creating a desired beam pattern of claim 12 , said multi-cycle wave further comprising a three-cycle wave.
16. The optic used for creating a desired beam pattern of claim 12 , wherein the body portion having a D-shape profile with a flat surface of the D-shape serving as the input port and a curved surface of the D-shape serving as the output surface.
17. An optic used for creating a desired beam pattern, comprising:
a body portion formed by two opposing sidewalls, at least one sidewall having an asymmetric sidewall profile;
an input port optically connected to said body portion, said input port operable for receiving light from a light source; and
an output surface formed as part of said body portion and being substantially adjacent to at least one sidewall, wherein light is received into said input port, proceeds through said body portion, and exits said output surface
a clipped corner formed as part of said body portion, said clipped corner extending at an angle from said output surface;
a first lower wall portion formed as part of said body portion; and
a second lower wall portion formed as part of said body portion, each of said first wall portion and said second wall portion having a hyperbolic profile for increasing the intensity of said desired beam pattern.
18. The optic used for creating a desired beam pattern of claim 17 , wherein the body portion having a D-shape profile with a flat surface of the D-shape serving as the input port and a curved surface of the D-shape serving as the output surface.
19. An optic used for creating a desired beam pattern, comprising:
a body portion formed by two opposing sidewalls and having a height and thickness;
at least one sidewall having an asymmetric sidewall profile;
an input port optically connected to said body portion, said input port operable for receiving light from a light source;
an output surface formed as part of said body portion and being substantially perpendicular to said at least one sidewall, wherein light is received into said input port, proceeds through said body portion, and exits said output surface
a wall formed as part of said body portion, said wall being substantially perpendicular to said input port;
a notch formed at the intersection of said input port and said wall, said wall and said notch being operable for creating a smooth, blended foreground portion of said desired beam pattern;
a three-cycle wave formed over approximately thirty percent of said output surface; and
an output prism formed as part of at least a portion of said output surface, said three-cycle wave and said output prism being operable for forming said desired beam pattern.
20. The optic used for creating a desired beam pattern of claim 19 , wherein the body portion having a D-shape profile with a flat surface of the D-shape serving as the input port and a curved surface of the D-shape serving as the output surface.
21. An optic used for creating a desired beam pattern, comprising:
a body portion formed by two opposing sidewalls, at least one sidewall having an asymmetric sidewall profile;
an input port optically connected to said body portion, said input port operable for receiving light from a light source;
an output surface formed as part of said body portion and being substantially perpendicular to at least one sidewall, wherein light is received into said input port, proceeds through said body portion, and exits said output surface;
a clipped corner formed as part of said body portion, said clipped corner extending at an angle from said output surface;
a first lower wall portion formed as part of said body portion; and
a second lower wall portion formed as part of said body portion, each of said first wall portion and said second wall portion having a hyperbolic profile for increasing the intensity of said desired beam pattern.
22. The optic used for creating a desired beam pattern of claim 21 , wherein the body portion having a D-shape profile with a flat surface of the D-shape serving as the input port and a curved surface of the D-shape serving as the output surface.