This application is a nonprovisional application of U.S. Provisional Application No. 63/562,784, filed Mar. 8, 2024, which is hereby incorporated herein by reference in its entirety.
Light fixtures, including chandeliers, typically include ornamental bodies. The ornamental bodies typically serve to enhance the visual presentation of the light fixture and the room in which it is mounted. The ornamental bodies typically include varying shapes based on a consumer's preference. The ornamental bodies are typically made from glass and are typically coupled to the light fixture. Supporting the ornamental bodies in the light fixture typically includes fitting the ornamental bodies with dowels or collars. The use of dowels involves boring holes into the ornamental bodies, which may cause fractures in the ornamental bodies. Collars typically involve adhesive, which can become brittle and fail. Collars, if made of polymer, may become brittle and fail.
It would therefore be desirable to provide improved apparatus and methods for light fixtures including translucent bodies.
The leftmost digit (e.g., “L”) of a three-digit reference numeral (e.g., “LRR”), and the two leftmost digits (e.g., “LL”) of a four-digit reference numeral (e.g., “LLRR”), generally identify the first figure in which a part is called-out.
Apparatus and methods for lighting are provided. The apparatus may include a light fixture. The apparatus may include a light emitting diode (“LED”) light source. The apparatus may include a support. The support may define a hole. The support may define a hole therein. The apparatus may include a translucent body. The translucent body may include a translucent material. The translucent material may be transparent. The translucent material may be partially opaque. The translucent material may include acrylic. The translucent material may include crystal. The translucent material may include glass. The translucent material may include a polymer.
The translucent body may include an extension. The extension may extend through the hole. The translucent body may define a protrusion. The extension may extend from the protrusion. The protrusion may obstruct passage of the body through the hole. Interference between the support and the protrusion may be the only force acting to obstruct the passage of the body through the hole. The extension and the protrusion may be monolithic.
The support may include a planar surface. The hole may intersect the surface. The apparatus may include a frame. The frame may be spaced apart from the support. The frame may define a passage. The passage may receive the extension.
The translucent body may include a longitudinal axis. The extension may be a first extension. The first extension may include a first diameter perpendicular to the axis. The translucent body may include a second extension. The second extension may extend from the protrusion. The second extension may include a second diameter perpendicular to the axis. The second extension may be monolithic with the protrusion and the first extension. The first diameter may equal the second diameter. The first and second diameters may be longitudinally constant along the first and second extensions, respectively.
The translucent body may include a wall. The translucent body may include a hollow region interior to the wall. The wall may define an inner diameter and an outer diameter. The first and second diameters may be inner diameters. The first and second diameters may be outer diameters. The outer diameter may be greater than the inner diameter.
The translucent body may include an interior region. The LED light source may be disposed outside the interior region. The LED light source may be detached from the translucent body. The apparatus may include a second translucent body. The second translucent body may define a second protrusion. The second translucent body may define a third extension which extends from the second protrusion. The support may define a second hole. The third extension may be configured to extend through the second hole. The second protrusion may obstruct passage of the second translucent body through the second hole. The first extension may include a first longitudinal length. The third extension may include a second longitudinal length. The second longitudinal length may be longer than the first longitudinal length.
The LED light source may be a first LED light source. The apparatus may include a second LED light source. The first LED light source may be configured to emit light through a first orifice defined by the support. The second LED light source may be configured to emit light through a second orifice defined by the support. The first hole and the second hole may be arranged in a row. The first orifice may be disposed between the first hole and the second hole.
The apparatus may include an LED base. The LED base may be spaced apart from the support. The LED light source may be disposed on the LED base. The LED base may be supported by a hanging wire.
The apparatus may include an insulating ring. The insulating ring may be attached to the LED base. The insulating ring may electrically insulate the LED base from the support. The insulating ring may be configured to support the support.
The apparatus may include a frame. The frame may be spaced apart from the support. The frame may define a passage. The passage may be configured to receive the first extension.
The apparatus may include a second LED base. The second LED base may be spaced apart from the frame. The second LED light source may be disposed on the second LED base. The first LED light source may be configured to emit light in a first direction. The second LED light source may be configured to emit light in a second direction opposite the first direction. The second LED light source may be configured to emit light through the second orifice in the frame. The first and second directions may be parallel to a central axis of the translucent body.
The apparatus may include a vertical spacer. The vertical spacer may include a first end and a second end. The first end may be attached to the first LED base. The second end may be opposite to the first end. The second end may be attached to the second LED base. The first LED base may support the second LED base via the vertical spacer.
The first LED light source may be connected to a first circuit board. The second LED light source may be connected to a second circuit board. The first circuit board may be disposed on the first LED base. The second circuit board may be disposed on the second LED base.
Bottom plate 402 may include a decorative plate. Canopy 404 may surround part or all of the electrical components that power fixture 100. Canopy 404 may connect to mounting plate 406. Canopy 404 may connect to mounting plate 406 by welding, fastening or any other suitable connection. Mounting plate 406 may be mounted to a surface. The surface may be a ceiling, an overhang, a beam, a standalone structure or any other suitable structure. The surface may include one or more of wood, metal, sheet rock, plaster or any other suitable material. Mounting plate 406 may be mounted to the surface via anchors 410. Anchors 410 may be appropriately selected to suit the material of the surface and the weight of fixture 100.
Junction box 412 may be fastened to mounting plate 406. Junction box 412 may receive supply cables therethrough. The supply cables may be connected to lead wires within junction box 412. The supply cables may supply power to the lead wires. The lead wires may supply power to fixture 100. Junction box 412 may define junction hole 414. Junction hole 414 may be sized to allow for the supply cables to enter junction box 412.
Safety cord 416 may connect to a safety structure within the surface. Safety cord 416 may provide an additional line of support for fixture 100.
Fixture 100 may include one or more wire ropes 418. Wire ropes 418 may be mounted to fixture base 102. Wire ropes 418 may support lighting assembly 104. Wire ropes 418 may include steel.
Junction box 412 may include one or more protruding tabs 508. Each protruding tab 508 may include a hole sized to accommodate a corresponding screw 510. Screws 510 may fasten junction box 412 to mounting plate 406.
Fixture base 102 may include one or more wire rope supports 512. The number of wire rope supports 512 may correspond to the number of wire ropes 418. Each wire rope support 512 may include one or more of adjustment swivel 514, swivel receptacle 516, inner cylinder 518 and gasket 520. Adjustment swivel 514 may support wire rope 418.
Wire rope 418 may be fixed to adjustment swivel 514 by welding or any other suitable type of connection. Wire rope 418 may be inserted through wire rope support 512 and fixed to mounting bracket 714.
Swivel receptacle 516 may support and hold adjustment swivel 514. Adjustment swivel 514 may swivel within swivel receptacle 516. Swiveling within swivel receptacle 516 may allow adjustment swivel 514 to support wire rope 418 at different angles. Supporting wire rope 418 at different angles may allow fixture base 102 to support lighting assemblies 104 having different diameters. Supporting wire rope 418 at different angles may allow fixture base 102 to support lighting assembly 104 at different heights.
Nut 522 may secure bottom plate 402 to canopy 404 and mounting plate 406 via wire rope supports 512. Gasket 524 may provide a seal between nut 522 and bottom plate 402. Gasket 524 may provide a seal between swivel receptacle 516 and bottom plate 402 and canopy 404. Gasket 524 may electrically insulate swivel receptacle 516 and nut 522 from bottom plate 402 and canopy 404.
Nut and bolt 528 may secure bracket 526 to mounting plate 406 via screw holes 408. A corresponding nut 530 may engage an upper portion of inner cylinder 518. Gasket 532 may provide a seal between nut 530 and bracket 526. Gasket 532 may electrically insulate nut 530 from bracket 526. Bracket 526 may be disposed between nut 530 and swivel receptacle 516. Locking nut 530 to inner cylinder 518 on the top of bracket 526 and locking swivel receptacle 516 to inner cylinder 518 on the bottom of bracket 526 may secure wire rope support 512 to bracket 526. Bracket 526 may be secured to mounting plate 406 via nut and bolt 528. In this manner wire rope 418 may be secured to mounting plate 406 via wire rope support 512 and bracket 526.
Each nut 530 may include bore 534. Bore 534 may receive screw 536. Screw 536 may secure ring terminal 538 to nut 530. Lead wire 540 may include a positive lead wire. Lead wire 540 may include a negative lead wire. Lead wire 542 may include an oppositely charged wire from lead wire 540. There may be a corresponding number of lead wires 540 as lead wires 542. There may be one lead wire 540 and one lead wire 542. First ends of lead wires 540 and 542 may terminate at driver 544. Second ends of lead wires 540 and 542 may terminate at corresponding ring terminals 538. Second ends of lead wires 540 and 542 may terminate within a wire cap. Corresponding wire ropes 418 may extend through wire rope support 512 and terminate within the respective wire caps. Lead wires 540 and 542 may include an electrically insulated sleeve.
Driver 544 may supply power to lead wires 540 and 542. Lead wires 540 and 542 may be in electrical communication with nuts 530. Nut 530 may be in electrical communication with inner cylinder 518. Inner cylinder 518 may be in electrical communication with swivel receptacle 516. Swivel receptacle 516 may be in electrical communication with adjustment swivel 514. Adjustment swivel 514 may be in electrical communication with wire rope 418.
Driver 544 may supply power to lead wires 540 and 542. Lead wires 540 and 542 may be in direct electrical communication with wire ropes 418 via a wire cap. In this scenario, each of lead wires 540 and 542 and wire ropes 418 may be encased within an electrically insulated sleeve. The electrically insulated sleeve may be made from plastic or silicon.
Wire rope 418 may be in electrical communication with lighting assembly 104.
There may be four wire ropes 418. There may be two wire ropes 418 in electrical communication with driver 544. One of the two wire ropes 418 may be a positive conductor. One of the two wire ropes 418 may be a negative conductor. The two wire ropes 418 may be on opposite sides of fixture base 102.
Driver 544 may be an Underwriters Laboratories (“UL”) Class 2 driver. Driver 544 may output voltage less than or equal to 36V. Driver 544 may electrify wire ropes 418. The output voltage and current supplied by driver 544 to electrify wire ropes 418 may be regulated for user safety.
Wire rope 418 may be attached to extension 806. Wire rope 418 may be welded to extension 806. Extension 806 and swivel 802 may support the weight of wire ropes 418 and lighting assembly 104.
Wire rope 418 may be led through extension 806, central bore 804 and inner cylinder 518. Each wire rope 418 may be locked in place by a corresponding one of mounting brackets 714. Mounting brackets 714 may support the weight of wire ropes 418 and lighting assembly 104. Wire ropes 418 may be height-adjustable by feeding wire ropes 418 through a hole in mounting bracket and tying the wire ropes 418 through the hole to lock the wire ropes 418 in place. Once tied, free ends of wire ropes 418 may connect to lead wires 540 and 542 respectively. The free ends of wire ropes 418 may directly connect to lead wires 540 and 542 via a wire cap. The free ends of wire ropes 418 may electrically connect to lead wires 540 and 542 by engaging the free ends of wire ropes 418 with respective screws 536 and by securing ring terminal 538 to screw 536.
Swivel receptacle 516 may include top ring-shaped section 808 and bottom ring-shaped section 810. Top ring-shaped section 808 may include a larger outer diameter. Top ring-shaped section 808 may include internal threads. The internal threads may engage a lower portion of inner cylinder 518. Bottom ring-shaped section 810 may include a smaller outer diameter. Bottom ring-shaped section 810 may include external threads. An outer diameter of bottom ring-shaped section 810 may be larger than an inner diameter of top ring-shaped section 808. The shape of an inner portion of bottom ring-shaped section 810 may correspond to an external shape of swivel 802 to allow swivel 802 to swivel. Nut 522 may engage the external threads of bottom ring-shaped section 810.
Inner cylinder 518 may be threadingly engaged with swivel receptacle 516. Inner cylinder 518 may be threadingly lowered to lock swivel 802 and prevent swivel 802 from swiveling. Inner cylinder 518 may be threadingly lifted to unlock swivel 802 and enable swivel 802 to swivel.
Swivel 802 may swivel in response to an adjustment of the height of wire ropes 418. Swivel 802 may swivel to adjust an angle at which wire ropes 418 are supporting lighting assembly 104.
Safety cord 416 may include clip 812, cord 814 and screw 816. Clip 812 may be secured to the safety structure. Screw 816 may secure cord 814 to enclosure plate 706. Enclosure plate 706 may be secured to canopy 404 via screws or any other suitable fasteners.
Upper tier top plate 1306 may support the translucent bodies 1102. Upper tier top plate 1306 may define upper tier top plate body holes 1304. The number of upper tier top plate body holes 1304 may correspond to the number of translucent bodies 1102. Translucent bodies 1102 may be inserted into upper tier top plate body holes 1304. Each translucent body 1102 may include a protrusion 1302. Upper tier top plate body holes 1304 may be sized to obstruct protrusions 1302 from entering upper tier top plate body holes 1304. Upper tier top plate 1306 may support translucent bodies 1102, e.g., against gravity, only by interference between translucent bodies 1102 and upper tier top plate 1306.
Upper tier top plate 1306 may be secured to belt 1104. Upper tier top plate 1306 may be welded to belt 1104.
Upper bottom plate 1402 may support one or more upper LEDs 1404. Upper LED 1404 may emit light through upper tier top plate LED hole 1308. Upper tier top plate LEDs may emit light in an upward direction. Upper tier top plate LED hole 1308 may direct the light emitted from upper LED 1404. Upper bottom plate 1402 may be secured to belt 1104. Upper bottom plate 1402 may be welded to belt 1104.
Lower bottom plate 1406 may stabilize translucent bodies 1102. Lower bottom plate 1406 may prevent translucent bodies 1102 from tilting. Lower bottom plate 1406 may include lower bottom plate body holes 1408. Translucent bodies 1102 may be inserted into corresponding lower bottom plate body holes 1408. Lower bottom plate 1406 may be secured to belt 1104. Lower bottom plate 1406 may be welded to belt 1104.
Lower tier top plate 1410 may support one or more lower LEDs 1412. Lower LEDs 1412 may emit light in a downward direction.
Plate support 1414 may support upper tier top plate 1306. A corresponding wire rope 418 may support plate support 1414. The number of plate supports 1414 may correspond to the number of wire ropes 418. Wire rope 418 may be secured to plate support 1414. Plate support 1414 may fit within upper tier top plate cutout 1310. Plate support 1414 may be secured to upper bottom plate 1402.
Spacer rings 1416 may be disposed between upper tier top plate 1306 and upper bottom plate 1402. Spacer rings 1416 may provide a uniform distance between upper tier top plate 1306 and upper bottom plate 1402. Spacer rings 1416 may prevent upper tier top plate 1306 from sagging under the weight of translucent bodies 1102. It may be desirable for the distance between upper tier top plate 1306 and upper bottom plate 1402 to remain uniform in some or all of lighting assembly 104. This may provide for upper tier top plate LED hole 1308 to emit light in a desired direction. It may be desirable for the distance between upper tier top plate 1306 and upper bottom plate 1402 to remain uniform in some or all of lighting assembly 104. This may provide for translucent bodies 1102 to be aligned and properly angled to produce a desired lighting effect.
Spacer risers 1418 may be disposed between upper bottom plate 1402 and lower tier top plate 1410. Spacer risers 1418 may provide a uniform distance between upper bottom plate 1402 and lower tier top plate 1410 in some or all of lighting assembly 104. Spacer risers 1418 may prevent upper bottom plate 1402 from sagging under the weight of translucent bodies 1102. Sagging may cause lower bottom plate body holes 1408 and upper tier top plate body holes 1304 to be misaligned. Sagging may cause translucent bodies to be tilted with respect to one another.
The length of upper extension 1502 may be longer, shorter or equal than a length of lower extension 1504. Upper extension 1502 may include an outer diameter. Upper extension 1502 may include an inner diameter. Lower extension 1504 may include an outer diameter. Lower extension 1504 may include an inner diameter. The outer diameter of upper extension 1502 may be greater than, less than or equal to the outer diameter of lower extension 1504. The inner diameter of upper extension 1502 may be greater than, less than or equal to the inner diameter of lower extension 1504.
Translucent body 1102 may be made from a material that may be shaped when heated. The material may be glass, plastic or any other suitable translucent material.
Upper tier top plate 1306 may include upper tier top plate screw holes 1902.
Lighting assembly 104 may include one or more of upper plate screws 2002, upper plate spacers 2004, upper circuit board 2006, lower plate screws 2008, lower plate spacers 2010, lower tier top plate cutout 2012, lower circuit board 2014, lower circuit board screw 2016 and wiring holes 2018.
Upper plate screws 2002 may be inserted through upper tier top plate screw holes 1902. Upper plate screws 2002 may screw into upper plate spacers 2004. Upper plate screws 2002 may secure upper tier top plate 1306 to upper bottom plate 1402. Upper plate spacers 2004 may provide a uniform distance between upper tier top plate 1306 and upper bottom plate 1402 in some or all of lighting assembly 104. Upper plate spacers 2004 may be integral with upper bottom plate 1402. Upper plate spacers 2004 may be connected to upper bottom plate 1402. Upper plate screws 2002 and upper plate spacers 2004 may be used to align upper tier top plate 1306 with upper bottom plate 1402.
Upper bottom plate 1402 may support upper circuit board 2006. Upper circuit board 2006 may be fastened to upper bottom plate 1402. Upper LEDs 1404 may be attached to upper circuit board 2006. Upper circuit board 2006 may control upper LEDs 1404. Upper circuit board 2006 may extend across upper bottom plate 1402. Upper LEDs 1404 may be disposed between adjacent translucent bodies 1102. Upper LEDs 1404 may be disposed in the center of three translucent bodies 1102. The three translucent bodies 1102 may form an equilateral triangle. The translucent bodies 1102 may be distributed such that each translucent body 1102 forms an apex of an equilateral triangle. Upper LEDs 1404 may be disposed in a pattern. The pattern may be arranged such that light is emitted in a desired manner.
Upper LEDs 1404 may be connected in parallel, in series or any combination of serial and parallel connections. Upper LEDs 1404 may include a first group of LEDs and a second group of LEDs. Upper LEDs 1404 may include 3, 4, 5, 6 or any suitable number of LED groups. The first group of LEDs may include a first correlated color temperature (“CCT”). The second group of LEDs may include a second CCT. The first CCT may be different from the second CCT. The first group of LEDs may be arranged in a pattern with respect to the second group of LEDs. The pattern may be arranged such that light is emitted in a desired manner. The first and second CCTs may be user selectable. Each group of LEDs may include 1, 2, 3, 4, 5 or any suitable number of different CCTs. Each group of LEDs may include 1, 2, 3, 4, 5 or any suitable number of different red, green and blue (“RGB”), warm white, cool white, and any other suitable colored LEDs. The different colored LEDs may be user selectable.
The different colored LEDs may include LEDs configured to emit violet light. The LEDs may include LEDs configured to emit indigo light. The LEDs may include LEDs configured to emit blue light. The LEDs may include LEDs configured to emit green light. The LEDs may include LEDs configured to emit yellow light. The LEDs may include LEDs configured to emit orange light. The LEDs may include LEDs configured to emit red light. The LEDs may include LEDs of different CCT. The different CCTs may include any CCTs in the range of 1800° K to 6500° K.
Upper LEDs 1404 may dissipate heat to upper bottom plate 1402 via thermal conduction. Upper bottom plate 1402 may dissipate heat to belt 1104 via thermal conduction. Upper bottom plate 1402 may dissipate heat to spacer risers 1418 via thermal conduction. Belt 1104 and spacer risers 1418 may dissipate heat to the environment via natural convection and radiation.
Lower plate screws 2008 may be inserted through lower bottom plate screw holes. Lower plate screws 2008 may screw into lower plate spacers 2010. Lower plate screws 2008 may secure lower bottom plate 1406 to lower tier top plate 1410. Lower plate spacers 2010 may enable that the distance between lower bottom plate 1406 and lower tier top plate 1410 remains uniform in some or all of lighting assembly 104. Lower plate spacers 2010 may be integral with lower tier top plate 1410. Lower plate spacers 2010 may be connected to lower tier top plate 1410. Lower plate screws 2008 and lower plate spacers 2010 may be used to align lower bottom plate 1406 with lower tier top plate 1410.
Lower tier top plate 1410 may support lower circuit board 2014. Lower circuit board 2014 may be fastened to lower tier top plate 1410. Lower LEDs 1412 may be attached to lower circuit board 2014. Lower circuit board 2014 may control lower LEDs 1412. Lower circuit board 2014 may extend across lower tier top plate 1410. Lower LEDs 1412 may be disposed between adjacent translucent bodies 1102. Lower LEDs 1412 may be disposed in the center of the three translucent bodies 1102. Lower LEDs 1412 may be disposed in a pattern. The pattern may be arranged such that light is emitted in a desired manner.
Lower LEDs 1412 may be connected in parallel, in series or any combination of serial and parallel connections. Lower LEDs 1412 may include a first group of LEDs and a second group of LEDs. Lower LEDs 1412 may include 3, 4, 5, 6 or any suitable number of LED groups. The first group of LEDs may include a first correlated color temperature (“CCT”). The second group of LEDs may include a second CCT. The first CCT may be different from the second CCT. The first group of LEDs may be arranged in a pattern with respect to the second group of LEDs. The pattern may be arranged such that light is emitted in a desired manner. The first and second CCTs may be user selectable. Each group of LEDs may include 1, 2, 3, 4, 5 or any suitable number of different CCTs. Each group of LEDs may include 1, 2, 3, 4, 5 or any suitable number of different red, green and blue (“RGB”), warm white, cool white, and any other suitable colored LEDs. The different colored LEDs may be user selectable.
The different colored LEDs may include LEDs configured to emit violet light. The LEDs may include LEDs configured to emit indigo light. The LEDs may include LEDs configured to emit blue light. The LEDs may include LEDs configured to emit green light. The LEDs may include LEDs configured to emit yellow light. The LEDs may include LEDs configured to emit orange light. The LEDs may include LEDs configured to emit red light. The LEDs may include LEDs of different CCT. The different CCTs may include any CCTs in the range of 1800° K to 6500° K.
Lower circuit board screw 2016 may secure lower circuit board 2014 to lower tier top plate 1410. Lower LEDs 1412 may dissipate heat to lower tier top plate 1410 via thermal conduction. Lower tier top plate 1410 may dissipate heat to belt 1104 via thermal conduction. Lower tier top plate 1410 may dissipate heat to spacer risers 1418 via thermal conduction.
Upper circuit board screw 2102 may secure upper circuit board 2006 to upper bottom plate 1402.
Lower LED 1412 may emit light through lower bottom plate LED hole 2104. Lower bottom plate LED hole 2104 may direct the light emitted from lower LED 1412.
A spacer ring 1416 may be inserted between each translucent body 1102 and upper tier top plate 1306. There may be fewer spacer rings 1416 than translucent bodies 1102. Spacer rings 1416 may be arranged in a pattern. The pattern and number of spacer rings 1416 may be selected such as to enable that a distance between upper tier top plate 1306 and upper bottom plate 1402 remains uniform in some or all of lighting assembly 104. Spacer rings 1416 may work in conjunction with upper plate spacers 2004. The pattern and number of spacer rings 1416 may depend on the size of one or more of translucent bodies 1102, lighting assembly 104 and upper tier top plate 1306. The pattern and number of spacer rings 1416 may depend on the weight of one or more of translucent bodies 1102 and lighting assembly 104.
Upper circuit board 2006 may include power connections 2302. Lower circuit board 2014 may include power connections 2402. Wire ropes 418 may connect to power connections 2302 and 2402 to supply power to upper circuit board 2006 and lower circuit board 2014 respectively. Power connections 2302 and 2402 may include a positive power terminal and a negative power terminal. The positive and negative power terminals may be on opposite sides of upper circuit board 2006 and lower circuit board 2014 respectively. The positive and negative power terminals may be in electrical communication with corresponding positive and negative conductors included in wire ropes 418. Upper circuit board 2006 may include two circuit boards. Lower circuit board 2014 may include two circuit boards.
Upper circuit board 2006 may include upper spacer ring hole 2802. Upper bottom plate 1402 may include upper bottom plate body hole 2804. Spacer rings 1416 may fit within upper spacer ring hole 2802. Spacer rings 1416 may sit on upper bottom plate 1402. Upper circuit board 2006 may not be able to bear loads distributed via spacer rings 1416. Spacer rings 1416 may be fastened to upper bottom plate 1402. Spacer rings 1416 may be fastened via glue, friction fit or any other suitable means of fastening. Spacer rings 1416 may provide thermal insulation between upper bottom plate 1402 and protrusions 1302.
Upper bottom plate 1402 may include upper slot 2806. Spacer riser 1418 may include top protrusion 2808. Top protrusion 2808 may fit within upper slot 2806. Upper slot 2806 and top protrusion 2808 may align spacer riser 1418 with upper bottom plate 1402.
Bottom shoulder 2906 may be connected to a top of lower tier top plate 1410. Bottom shoulder 2906 may be connected to lower tier top plate 1410 via welding.
Plate support 1414 may include one or more of knob 3002, nut 3004, sleeve 3006, Allen screw 3008, cable 3010, anti-pull ring 3012, hex screw 3014, chamfer 3016 and terminal end 3018.
Plate support 1414 may be attached to upper bottom plate 1402. Plate support 1414 may be attached to upper bottom plate 1402 via screwing knob 3002 into nut 3004 with upper bottom plate 1402 in the middle. A lower portion of knob 3002 may be threaded. Nut 3004 may be threaded to match the lower portion of knob 3002. Sleeve 3006 may be inserted into nut 3004 and knob 3002. Sleeve 3006 may be held in place by Allen screw 3008. Sleeve 3006 may provide electrical insulation between cable 3010 and knob 3002 and upper bottom plate 1402.
Cable 3010 may be attached to wire rope 418. Cable 3010 may be an extension of wire rope 418. Cable 3010 may be held against anti-pull ring 3012 via hex screw 3014. Tightening hex screw 3014 into anti-pull ring 3012 may lock the length of wire rope 418.
Sleeve 3006 may include silicone. Sleeve 3006 may include chamfer 3016. Wire rope 418 may rest on chamfer 3016. Chamfer 3016 may reduce tension on wire rope 418 when wire rope 418 rests thereon. The silicone may reduce tension on wire rope 418.
Chamfer 3016 may be replaced with an adjustment swivel and swivel receptacle. The adjustment swivel and swivel receptacle may include one or more features in common with adjustment swivel 514 and swivel receptacle 516.
Cable 3010 may terminate at terminal end 3018. Terminal end 3018 may connect to power connections 2302 and 2402. Terminal end 3018 may connect to power connections 2302 and 2402 via a lead wire soldered to power connections 2302 and 2402 respectively. The lead wire and terminal end 3018 may be held together in a wire cap. The lead wire and terminal end 3018 may be soldered together. The lead wire and terminal end 3018 may be electrically connected in any suitable manner. The lead wire from power connection 2302 may extend through wiring hole 2018 to reach terminal end 3018. The lead wire from power connection 2402 may extend through lower tier top plate cutout 2012 to reach terminal end 3018.
Installation of fixture 100 may include the following:
Support of lighting assembly 104 may include the following:
Wire rope 418 may be connected to or be an extension of cable 3010. Anti-pull ring 3012 may lock the length of wire rope 418. Anti-pull ring 3012 may directly support sleeve 3006. Sleeve 3006 may directly support nut 3004. Nut 3004 may directly support upper bottom plate 1402. Upper bottom plate 1402 may directly support belt 1104, spacer rings 1416, spacer risers 1418, upper plate spacers 2004 and upper circuit board 2006. Upper bottom plate 1402 may be directly attached to support belt 1104, spacer rings 1416, spacer risers 1418 and upper plate spacers 2004.
Belt 1104 may directly support or partially support upper tier top plate 1306, lower bottom plate 1406 and lower tier top plate 1410. Belt 1104 may be welded to upper tier top plate 1306, lower bottom plate 1406 and lower tier top plate 1410.
Spacer rings 1416 may directly support or partially support upper tier top plate 1306. Spacer risers 1418 may directly support or partially support lower tier top plate 1410. Upper plate spacers 2004 may directly support or partially support upper tier top plate 1306.
Upper tier top plate 1306 may directly support translucent bodies 1102. Lower tier top plate 1410 may directly support lower circuit board 2014. Lower tier top plate 1410 may directly support lower plate spacers 2010. Lower tier top plate 1410 may support or partially support lower bottom plate 1406 via lower plate spacers 2010 and lower plate screws 2008.
The cross-sectional view of stage A shows an inner diameter ID and outer diameter OD of translucent body 1102 before heat H is applied. The cross-sectional view of stage C shows expanded outer diameter ED and reduced inner diameter RD of translucent body 1102 after heat H is applied. Expanded outer diameter ED may be expanded relative to outer diameter OD. Reduced inner diameter RD may be reduced relative to inner diameter ID.
All ranges and parameters disclosed herein shall be understood to encompass any and all subranges subsumed therein, every number between the endpoints, and the endpoints. For example, a stated range of “1 to 10” should be considered to include any and all subranges between (and inclusive of) the minimum value of 1 and the maximum value of 10; that is, all subranges beginning with a minimum value of 1 or more (e.g. 1 to 6.1), and ending with a maximum value of 10 or less (e.g., 2.3 to 9.4, 3 to 8, 4 to 7), and finally to each number 1, 2, 3, 4, 5, 6, 7, 8, 9, and 10 contained within the range.
Thus, apparatus and methods for lighting have been provided. Persons skilled in the art will appreciate that the present invention can be practiced by other than the described examples, which are presented for purposes of illustration rather than of limitation. The present invention is limited only by the claims that follow.
Number | Name | Date | Kind |
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5144541 | Schonbek | Sep 1992 | A |
7854532 | Myers, Jr | Dec 2010 | B2 |
7909491 | Hoets | Mar 2011 | B2 |
20050052876 | Halverson | Mar 2005 | A1 |
20050201089 | Lee | Sep 2005 | A1 |
20060157207 | Schonbek | Jul 2006 | A1 |
20140268743 | Park | Sep 2014 | A1 |
20190390828 | Kotovsky | Dec 2019 | A1 |
Number | Date | Country | |
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63562784 | Mar 2024 | US |