阅读说明：本技术 离合灯调节器 (Clutch lamp regulator ) 是由 S·T·佛莱德汉姆 M·B·格莱姆 于 2019-07-12 设计创作，主要内容包括：调节器调节雾灯、前照灯或其他形式的可调节汽车灯的位置。调节器包括侧开口的保持器螺钉接口。侧开口保持器允许调节器在整个行程中提供离合。另外,保持器的远端包括一组保持器卡扣指状物和一组单独的弹簧指状物。卡扣指状物和弹簧指状物允许与灯配合面板的结实、弹性连接,并允许保持器牢固地连接到各种厚度的灯配合面板。(The adjuster adjusts the position of a fog light, a headlamp, or other form of adjustable automotive light. The adjuster includes a laterally open retainer screw interface. The side ported retainer allows the adjuster to provide clutching throughout its stroke. In addition, the distal end of the retainer includes a set of retainer snap fingers and a set of individual spring fingers. The snap fingers and spring fingers allow a strong, resilient connection with the lamp mating panel and allow the retainer to be securely connected to lamp mating panels of various thicknesses.)

1. An adjuster for an adjustable automotive lamp, the adjuster comprising:

a base screw comprising a threaded shaft; and

a retainer connected to the threaded shaft, and the retainer comprising:

a semi-circular sidewall partially surrounding at least a portion of the threaded shaft, the semi-circular sidewall having an internal thread associated with the thread of the threaded shaft, and the semi-circular sidewall defining a clutch opening that allows the semi-circular sidewall to expand when the threaded shaft slides relative to the internal thread;

a plurality of retainer snap fingers located near a distal end of the retainer and configured to mate with a lamp mating portion of an adjustable automotive lamp; and

a plurality of retainer spring fingers positioned adjacent the plurality of retainer snap fingers to further secure the lamp mating portion against substantial sliding movement along the adjuster after the plurality of retainer snap fingers mate with the lamp mating portion.

2. The adjuster of claim 1, wherein the base screw further comprises a plurality of base screw snap fingers configured to be mated to a housing mating portion of a lamp housing in a manner that allows the base screw to rotate relative to the housing mating portion.

3. The adjuster as claimed in claim 2, wherein the base screw further comprises an O-ring coaxially secured to the base screw, the O-ring configured to form a seal between the base screw and the housing mating part when the base screw is mated to the housing mating part.

4. The adjuster as claimed in claim 2, wherein the base screw further includes a deformable finger positioned at a distal end of the base screw adjacent a base screw snap finger to further secure the housing mating portion against substantial longitudinal sliding movement after the plurality of snap fingers mate with the housing mating portion.

5. The adjuster as claimed in claim 4, wherein the deformable finger is sufficiently resiliently deformable to absorb system vibrations without breaking away from the base screw during use.

6. The adjuster as claimed in claim 5, wherein the semi-circular side wall further includes an unthreaded portion between the internal thread and the spring finger, and wherein the unthreaded portion defines a gap at least partially opposite the clutch opening.

7. A regulator assembly for an adjustable automotive lamp, the regulator assembly comprising:

a housing mating portion connected to the lamp housing;

a lamp fitting portion forming part of an adjustable automotive lamp; and

a lamp adjuster connected to the housing mating portion and the lamp mating portion, the lamp adjuster comprising:

a base screw fitted to the housing fitting portion, the base screw including a threaded shaft; and

a retainer connected to a threaded shaft, the retainer comprising;

a semi-circular sidewall partially surrounding at least a portion of the threaded shaft, the semi-circular sidewall having a series of internal threads associated with the threads of the threaded shaft, and the semi-circular sidewall defining a clutch opening that allows the semi-circular sidewall to expand as the threaded shaft slides relative to the internal threads;

a plurality of retainer snap fingers located near a distal end of the retainer and mated to the lamp mating portion; and

a plurality of retainer spring fingers positioned adjacent the plurality of retainer snap fingers to secure the lamp mating portion against significant longitudinal movement.

8. The regulator assembly of claim 7, wherein the lamp mating portion comprises a lamp mating geometry configured to limit rotation of the holder relative to the lamp mating portion while allowing the lamp mating portion to pivot relative to the holder.

9. The regulator assembly of claim 8, wherein the lamp mating geometry comprises a plus sign shape.

10. The regulator assembly of claim 9, wherein the base screw further comprises a plurality of base screw snap fingers configured to mate with the housing mating portion.

11. The regulator assembly of claim 10, wherein the housing mating portion comprises a housing mating geometry configured to allow the base screw to rotate relative to the housing mating portion.

12. The adjuster assembly of claim 11, wherein said base screw further comprises a deformable finger positioned at a distal end of said base screw adjacent a plurality of base screw snap fingers to secure said housing mating portion against longitudinal movement.

13. The regulator assembly according to claim 12, wherein the deformable finger is sufficiently elastically deformed to absorb system vibrations without breaking away from the base screw during use.

14. The regulator assembly according to claim 11, wherein the base screw further comprises an O-ring secured around the base screw at a location where the base screw engages the housing engagement portion, the O-ring forming a seal between the base screw and the housing engagement portion.

15. The regulator assembly according to claim 7, wherein the lamp mating portion comprises a panel.

16. A lamp adjuster for an adjustable automotive lamp, the adjuster comprising:

a base screw, the base screw comprising:

a threaded shaft;

a plurality of base screw snap fingers configured to mate to a housing mating portion of the lamp housing in a manner that allows the base screw to rotate relative to the housing mating portion;

a securing mechanism configured to secure the housing mating portion against significant longitudinal movement after the plurality of snap fingers are mated with the housing mating portion; and

an orientation tab on a distal end of the base screw, the orientation tab configured to provide an indication of a proper orientation of the light adjuster to a user installing the light adjuster; and

a retainer connected to a threaded shaft, the retainer comprising:

a semi-circular side wall partially surrounding at least a portion of the threaded shaft, the semi-circular side wall having a series of internal threads associated with the threads of the threaded shaft, and the semi-circular side wall defining a clutch opening that allows the semi-circular side wall to expand when the threaded shaft slides relative to the internal threads;

a pair of opposing retainer snap fingers located near a distal end of the retainer and configured to mate to a lamp mating panel of an automotive lamp heat sink in a manner that secures the retainer against rotation; and

a pair of opposed retainer spring fingers positioned adjacent the plurality of retainer snap fingers to secure the lamp mating portion against substantial longitudinal movement along the length of the adjuster after the plurality of snap fingers mate with the lamp mating portion.

17. The lamp adjuster of claim 16, wherein the securing mechanism includes a deformable finger positioned at a distal end of the base screw and adjacent the plurality of base screw snap fingers to secure the housing mating portion.

18. The light adjuster of claim 17, wherein the semi-circular sidewall further includes an unthreaded portion between the internal thread and the spring finger, and wherein the unthreaded portion defines a gap at least partially opposite the clutch opening.

19. The lamp adjuster of claim 16, wherein the securing mechanism includes an O-ring secured around the base screw at a location where the base screw engages the housing engagement portion.

20. The lamp adjuster of claim 19, further comprising a pair of travel limit lugs positioned on a side of the retainer spring fingers opposite the retainer snap fingers, each travel limit lug of the pair of travel limit lugs positioned sufficiently close to the pair of spring fingers to prevent over-extension of each respective spring finger of the pair of spring fingers.

Technical Field

The present invention generally relates to the field of regulators. More particularly, the present invention relates to an adjuster for fog lights, headlamps and other forms of adjustable automotive lights that allows clutching throughout the stroke.

Background

In automobiles, interior adjusters are commonly used to adjust the position of certain automotive lights, such as fog lights or headlamps. Such internal regulators comprise a plurality of components and can easily become complicated. Thus, simplicity is an important aspect when designing a regulator. In addition, lamp regulators often need to absorb high levels of system vibration, such as by peeling of the regulator, and even in some cases, dislodging, which can result in undesirable reorientation of the regulator, resulting in damage to the regulator components. It is therefore valuable for the regulator to be configured to maintain its orientation while being subjected to system vibrations and to form a mating connection that is sufficiently resilient to absorb vibrations without disengaging or damaging the mating components. It is also valuable for the regulator to provide clutching throughout the stroke to eliminate peel damage, especially where higher system weights or operating temperatures need to be accommodated.

It will be appreciated by those skilled in the art that one or more aspects of the present invention may meet certain objectives, while one or more other aspects may lead to certain other objectives. Other objects, features, benefits and advantages of the present invention will become apparent in this summary and description of the disclosed embodiments, and will be readily apparent to those skilled in the art. These objects, features, benefits and advantages will become apparent from the foregoing when taken in conjunction with the accompanying drawings and all reasonable inferences to be drawn therefrom.

Disclosure of Invention

In certain aspects, the present invention provides an adjuster for adjusting an automotive lamp. According to some forms of the invention, such an adjuster includes a retainer and a base screw configured in a manner to allow clutching throughout the stroke. Accordingly, in one embodiment, the present invention provides an adjuster for an adjustable automotive lamp. The adjuster includes a base screw and a retainer. The base screw includes a threaded shaft. The retainer is connected to the threaded shaft and includes a semi-circular sidewall, a plurality of retainer snap fingers, and a plurality of retainer spring fingers. The semi-circular side wall includes internal threads associated with the threads of the threaded shaft. The semi-circular side wall also surrounds at least a portion of the threaded shaft and defines a clutch opening. The clutch opening allows the semi-circular side wall to expand when the threaded shaft slips relative to the internal threads. The retainer snap fingers are located near a distal end of the retainer and are configured to mate with a lamp mating portion of an adjustable automotive lamp. The retainer spring fingers are positioned in such proximity to the retainer snap fingers to further secure the lamp engaging portion against substantial sliding movement along the adjuster after the retainer snap fingers engage the lamp engaging portion.

In another embodiment, the present invention provides an adjuster assembly for an adjustable automotive lamp. The regulator assembly includes a housing mating portion connected to the lamp housing, a lamp mating portion forming a portion of an adjustable automotive lamp, and a lamp regulator connected to the housing mating portion and the lamp mating portion. The lamp adjuster includes a base screw and a retainer. The base screw includes a threaded shaft. The retainer is connected to the threaded shaft and includes a semi-circular sidewall, a plurality of retainer snap fingers, and a plurality of retainer spring fingers. The semi-circular side wall includes internal threads associated with the threads of the threaded shaft. The semi-circular side wall also surrounds at least a portion of the threaded shaft and defines a clutch opening. The clutch opening allows the semi-circular side wall to expand when the threaded shaft slips relative to the internal threads. The retainer snap fingers are located near a distal end of the retainer and are configured to mate with a lamp mating portion of an adjustable automotive lamp. The retainer spring fingers are positioned adjacent the retainer snap fingers to further secure the lamp mating portion against substantial sliding movement along the adjuster after the retainer snap fingers mate with the lamp mating portion.

In another embodiment, the invention provides a lamp adjuster for an adjustable automotive lamp. The lamp adjuster includes a base screw and a retainer. The base screw has a threaded shaft and a plurality of base screw snap fingers configured to be mated to the housing mating portion of the lamp housing in a manner that allows the base screw to rotate relative to the housing mating portion. The base screw also has a securing mechanism configured to secure the housing mating portion against significant longitudinal movement after the plurality of snap fingers are mated with the housing mating portion, and an orientation tab on a distal end of the base screw. The orientation tab is configured to provide an indication of a proper orientation of the light adjuster to a user installing the light adjuster. The retainer is connected to the threaded shaft of the base screw and includes a semi-circular sidewall, a pair of opposing retainer snap fingers, and a pair of opposing retainer spring fingers. The wall partially surrounds at least a portion of the threaded shaft and has a series of internal threads associated with the threads of the threaded shaft. In addition, the semi-circular side wall defines a clutch opening that allows the semi-circular side wall to expand as the threaded shaft slides relative to the internal threads. The pair of retainer snap fingers are located near a distal end of the retainer and are configured to mate to a lamp mating panel of an automotive lamp heat sink in a manner that secures the retainer against rotation. A pair of opposed retainer spring fingers are positioned in such proximity to the plurality of retainer snap fingers so as to secure the lamp mating portion against significant longitudinal movement along the length of the adjuster after the plurality of snap fingers are mated with the lamp mating portion.

Other objects and advantages of the present disclosure will become apparent hereinafter.

Drawings

FIG. 1 is a perspective view of a clutch light adjuster assembly including a clutch light adjuster, a housing mating portion, and a light mating panel in accordance with one embodiment of the present invention;

FIG. 2 is a perspective view of a clutch light adjuster of the clutch light adjuster assembly of FIG. 1, including a base screw, an O-ring, and a retainer;

FIG. 3 is an exploded perspective side view of the clutch light adjuster of FIG. 2;

FIG. 4 is an exploded perspective side view of the clutch light adjuster assembly of FIG. 1 with the light engaging panel removed for clarity, showing the clutch light adjuster as an assembled unit and the housing engaging portion still to be assembled as a separate element;

FIG. 5 is an exploded perspective side view of the clutch light adjuster assembly of FIG. 1, showing the clutch light adjuster and housing mating parts together as an assembled unit, and the mating face plate as a separate element yet to be assembled;

FIG. 6 is a top view of the clutch light adjuster assembly of FIG. 1 with the light engaging panel not shown;

FIG. 7 is a top view of the clutch light adjuster assembly of FIG. 1;

FIG. 8 is a top view of a lamp mating panel of the clutch lamp adjuster assembly of FIG. 1;

FIG. 9 is a bottom view of the clutch light adjuster assembly of FIG. 1;

FIG. 10 is a bottom view of the housing engagement portion of the clutch light adjuster assembly of FIG. 1;

FIG. 11 is a perspective view of a base screw of the clutch light adjuster shown in FIG. 2;

FIG. 12 is a perspective view of a retainer of the clutch light adjuster illustrated in FIG. 2;

FIG. 13 is a rotated perspective view of the retainer shown in FIG. 12;

FIG. 14 is a front perspective view of the clutch light adjuster assembly of FIG. 1;

FIG. 15 is a front perspective cut-away view of the clutch light adjuster assembly of FIG. 14;

FIG. 16 is a side view of the clutch light adjuster assembly of FIG. 1;

FIG. 17 is a front view of the clutch light adjuster assembly of FIG. 1;

FIG. 18 is a cross-sectional front view of the clutch light adjuster assembly illustrated in FIG. 16, taken along line A-A in FIG. 16;

FIG. 19 is a side view of a portion of the clutch light adjuster assembly in a retracted position;

FIG. 20 is a detailed side view of the clutch light adjuster assembly shown in FIG. 19 at the distal end of the retainer;

FIG. 21 is a side view of the clutch light adjuster assembly in an extended position;

FIG. 22 is a detailed side view of a portion of the clutch light adjuster assembly shown in FIG. 21 at a distal end of the retainer;

FIG. 23 is a perspective view of a clutch light adjuster assembly including portions of a clutch light adjuster and housing, and a light heat sink according to a second embodiment of the present disclosure;

FIG. 24 is a side view of the clutch light adjuster assembly shown in FIG. 23;

FIG. 25 is a perspective view of the clutch light adjuster assembly of FIG. 23 showing the clutch light adjuster, the mating portion of the housing, and the mating panel of the light heat sink with the remainder of the housing and the remainder of the light heat sink removed for clarity;

FIG. 26 is a perspective view of a clutch light adjuster of the clutch light adjuster assembly shown in FIG. 25, the clutch light adjuster including a base screw and a retainer;

FIG. 27 is an exploded perspective side view of the clutch light adjuster illustrated in FIG. 26;

FIG. 28 is an exploded perspective side view of the clutch light adjuster assembly shown in FIG. 25 with the light engaging panel removed for clarity, showing the clutch light adjuster as an assembled unit and the housing engaging portion as a separate element yet to be assembled;

FIG. 29 is an exploded perspective side view of the clutch light adjuster assembly illustrated in FIG. 25, showing the clutch light adjuster and housing mating portion together as an assembled unit, and the mating face plate as a separate element yet to be assembled;

FIG. 30 is a top view of the clutch light adjuster assembly shown in FIG. 25 with the light engaging panel removed for clarity;

FIG. 31 is a top view of the clutch light adjuster assembly shown in FIG. 25;

FIG. 32 is a top view of a light engaging panel of the clutch light adjuster assembly shown in FIG. 25;

FIG. 33 is a bottom view of the clutch light adjuster assembly shown in FIG. 25;

FIG. 34 is a bottom view of the housing mating portion of the clutch light adjuster assembly shown in FIG. 25;

FIG. 35 is a perspective view of a base screw of the clutch light adjuster illustrated in FIG. 26;

FIG. 36 is a perspective view of a retainer of the clutch light adjuster illustrated in FIG. 26;

FIG. 37 is a rotated perspective view of the retainer shown in FIG. 36;

FIG. 38 is a front perspective view of the clutch light adjuster assembly shown in FIG. 25;

FIG. 39 is a front perspective cut-away view of the clutch light adjuster assembly shown in FIG. 25;

FIG. 40 is a side view of the clutch light adjuster assembly shown in FIG. 25 with the retainer in a neutral position;

FIG. 41 is a front view of the clutch light adjuster assembly of FIG. 40;

FIG. 42 is a cross-sectional front view of the clutch light adjuster assembly illustrated in FIG. 40, taken along line B-B of FIG. 40;

FIG. 43 is a side view of the clutch light adjuster assembly shown in FIG. 40 with the retainer in a retracted position;

FIG. 44 is a detailed side view of a portion of the clutch light adjuster assembly shown in FIG. 43 at the distal end of the retainer;

FIG. 45 is a side view of the clutch light adjuster assembly shown in FIG. 40 with the retainer in an extended position; and

FIG. 46 is a detailed side view of a portion of the clutch light adjuster assembly shown in FIG. 45 at a distal end of the retainer.

Detailed Description

Although the description herein refers primarily to fog lamps, the term "fog lamp" as used in this application may equally well be applied to other adjustable lamps, such as headlamps. The following references to fog lamps should not be construed as limiting the device for fog lamps only.

FIG. 1 illustrates one embodiment of a clutch fog lamp regulator assembly 10. In the illustrated embodiment, the regulator assembly 10 includes a clutch fog light regulator 12, a housing mating portion 14, and a light mating panel 16. The housing mating section 14 may form a portion of a wider lamp housing and the lamp mating panel 16 may form a portion of a wider lamp heat sink (not shown), but the remainder of the housing and the remainder of the lamp heat sink are omitted from the drawings of the embodiments for convenience and clarity. In this embodiment, the adjuster 12 includes a base screw 20, a retainer 18 that is threaded or snapped onto the base screw 20, and an O-ring 22 that wraps around a portion of the base screw 20 (see fig. 2). In this embodiment, the regulator 12 is mated with a housing mating portion 14 at a housing mating end and a lamp mating panel 16 at an opposite retainer mating end. Fig. 2 shows the regulator 12 in more detail. With housing mating portion 14 and lamp mating panel 16 removed, O-ring 22 is now visible.

Fig. 3-6 illustrate one manner of assembling the regulator assembly 10. Fig. 3 is an exploded view of the regulator 12. In the illustrated embodiment, the base screw 20 includes an O-ring channel 23 near the housing mating end of the regulator 12. The O-ring channel 23 allows for the proper positioning of the O-ring 22 and assists in maintaining the position of the O-ring 22 at the housing mating end of the base screw 20. Fig. 4 shows the regulator 12 fully assembled prior to mating with the housing mating portion 14. Here, the O-ring 22 is positioned in the O-ring channel 23 and the retainer 18 is snapped onto the base screw 20.

The ridged side wall 15 defines an opening in the housing mating portion 14 that is sized to allow the adjuster 12 to pass through the opening from the retainer mating end until the opposite housing mating end is reached. At the housing mating end, the base screw 20 snaps into place against the ridged sidewall 15 so that the base screw 20 can no longer be moved in the forward or rearward direction by the housing mating portion 14, but can still rotate within the opening defined by the ridged sidewall 15. Although in this embodiment the ridged side wall 15 is formed in a generally circular shape, in other embodiments the ridged side wall may be formed in other shapes corresponding to other mating ends of other base screws. In this embodiment, the O-ring 22 may act as a seal after the regulator 12 is mated with the housing mating portion 14, may assist in isolating vibrations, and/or may help secure the connection between the base screw 20 and the housing mating portion 14. Other embodiments, such as the embodiment shown in fig. 23-46, may operate without an O-ring. Fig. 5 shows the regulator 12 mated with the housing mating section 14, separated from the lamp mating panel 16. When fully assembled, the lamp mating panel 16 snaps into place at the retainer mating end of the regulator 12.

Fig. 6-8 show top views of various elements of the regulator assembly 10. Fig. 6 shows the regulator 12 mated with the housing mating portion 14. The lamp mating face 16 is not shown. Fig. 7 shows the complete regulator assembly 10. Fig. 8 shows only the lamp fitting panel 16. In this embodiment, the mating geometry 24 is formed in the shape of a plus sign. In other embodiments, the mating geometry may form other shapes corresponding to other mating ends of other adjusters.

Fig. 9-10 show bottom views of the regulator assembly 10 and the housing mating part 14, respectively. In the illustrated embodiment, the distal end of the base screw 20 includes a combined hex-cross recessed interface 25 that allows for multiple component mounting and adjustment options. However, in other embodiments, the distal end of the base screw 20 may include a different form of interface. In this embodiment, the distal end of the base screw 20 additionally includes an orientation tab 26. The orientation tab 26 allows the assembler to properly orient the regulator 12 even when the assembler cannot see beyond the housing mating section 14, for example, during blind assembly. The embodiment shown in fig. 9 comprises two orientation tabs 26, and proper installation is indicated by the horizontal orientation of the orientation tabs 26. However, in other embodiments, a different number of orientation tabs may be used, and the correct orientation of the regulator 12 may be indicated by a different orientation of the orientation tabs 26. Further, fig. 10 shows that the ridged side wall 15 extends continuously around the opening formed in the housing fitting portion 14. The continuity of the ridged sidewall 15 may allow the base screw 20 to rotate within the housing mating portion 14.

Fig. 11 shows the base screw 20 in more detail. The base screw 20 may include a base screw snap finger 30 that snaps into the ridged sidewall 15 facilitating a resilient but rotatable mating connection with the housing mating portion 14. The base screw 20 may additionally include a threaded section 28, with the retainer 18 being connected to the threaded section 28.

Fig. 12-13 show the retainer 18 in more detail. The retainer 18 includes a semi-circular retainer sidewall 40. In this embodiment, the retainer sidewall 40 defines a clutch opening 42. Additionally, a portion of the retainer sidewall 40 may be threaded to form the retainer interface section 38, wherein the retainer 18 may interact with the threaded section 28 of the base screw 20. The unique composition of the retainer side wall 40 allows clutching at any point in the overall stroke. When the base screw 20 is rotated in a manner that is not permitted by the retainer interface section 38, rather than being rotated in a manner that peels off the threaded section 28, the retainer side wall 40 expands, widening the clutch opening 42 to an extent sufficient to permit the base screw 20 to slide along the base screw interface 38 without significantly damaging the threads of the threaded section 28 until the threaded section 28 is again properly fitted within the retainer interface section 38, but without permitting the threaded section 28 to move away from the retainer interface section 38. The integrated full stroke clutch provides a more robust regulation solution for systems with increased weight and/or elevated temperature.

The retainer 18 additionally includes retainer snap fingers 32 to engage the lamp mating panel 16 and retainer spring fingers 34 to secure the connection to the lamp mating panel 16. In the illustrated embodiment, there are two retainer snap fingers 32 and two retainer spring fingers 34, each retainer spring finger 34 being located directly below a respective retainer snap finger 32. In other embodiments, there may be a greater number of retainer snap fingers 32 and/or retainer spring fingers 34. The direct engagement of the retainer 18 with the lamp mating panel 16 eliminates the need for mounting a secondary mating socket, simplifying assembly and reducing component count.

In this embodiment, both the retainer snap fingers 32 and the retainer spring fingers 34 are made of a resilient material. Securing the lamp mating panel 16 between a plurality of resilient elements allows the regulator assembly 10 to withstand greater system vibration while reducing the likelihood of damage or displacement, as compared to a single element or a small number of rigid elements, and accommodate lamp mating panels of various thicknesses or equivalent lamp mating elements without requiring higher installation forces or creating loose joints. Finally, the travel limit lug 36 may be attached to the retainer side wall 40 directly below each retainer spring finger 34. The travel limit lugs 36 limit the distance that the respective retainer spring fingers 34 can stretch during installation and general use, thereby reducing the risk of permanent deformation of the spring fingers.

Fig. 14-18 illustrate the various components of the overall regulator assembly 10 interacting with each other. For example, the cross-sectional view in fig. 15 shows the O-ring 22 in place between the base screw 20 and the ridged sidewall 15, and shows the lamp mating panel 16 locked in place by the retainer snap fingers 32 and further secured by the retainer spring fingers 34, also shown in the cross-sectional view in fig. 18. In addition, the custom fit of the retainer mating end within the mating geometry 24 (shown in fig. 8) helps control the insertion position, promotes proper retainer 18 orientation, and helps limit unwanted vibration. In addition, the ability to directly connect the mating end of the retainer 18 to the lamp mating panel 16 of the lamp heat sink eliminates the need for additional mating components, such as a secondary mating component, due to the mating geometry 24 (shown in fig. 8), simplifying the regulator assembly 10.

Fig. 19-22 illustrate how the light engaging panel 16 tilts when the retainer 18 is retracted (as shown in fig. 19-20) or extended (as shown in fig. 21-22). Note that the retainer 18 does not rotate as it is extended or retracted, but rather maintains a substantially constant orientation with the clutch opening 42 facing outward. This orientation ensures that typical service loads will occur on the retainer side wall 40, rather than on or opposite the clutch opening 42, which helps prevent shifting. The mating geometry 24 of the lamp mating panel 16 ensures this constant orientation, preventing significant twisting of the retainer 18.

In this embodiment, when the base screw 20 is rotated, the retainer 18 is extended or retracted by the interaction between the threaded section 28 of the base screw 20 and the retainer interface section 38 of the retainer 18. Here, when the base screw 20 is rotated, the rotational energy is translated to the lamp fitting panel 16 by rotating the fixed holder 18, so that the lamp fitting panel 16 is pivoted. In this embodiment, when the retainer 18 is in the retracted position (as shown in fig. 19-20), the lamp engagement panel 16 is inclined in the forward direction, and when the retainer 18 is in the extended position (as shown in fig. 21-22), the lamp engagement panel 16 is inclined in the rearward direction.

Fig. 23-24 illustrate a clutched fog lamp regulator assembly 110 according to a second embodiment of the present disclosure, in which an expanded view of the lamp housing 104 and the lamp heat sink 106 is shown. Housing mating portion 114 is attached to housing 104 and lamp mating portion 116 is attached to lamp heat sink 106. In this embodiment, the housing mating portion 114 is formed as part of the housing 104 and the lamp mating panel 116 is formed as part of the lamp heat sink 106, although other attachment means may be implemented. Additionally, although the lamp mating panel 116 is shown in this embodiment as being similar to a flat panel, in other embodiments the mating portion of the lamp heat sink may take on other shapes. In the present embodiment, clutch light adjuster 112 is connected to housing 104 at housing mating portion 114 and to light heat sink 106 at light mating panel 116.

Fig. 25 shows a clutch light adjuster assembly 110 that includes a clutch light adjuster 112, a housing mating portion 114, and a light mating panel 116. The remainder of the housing 104 and lamp heat sink 106 are removed in this and the remaining figures for clarity. In this embodiment, the adjuster 112 mates with a housing mating portion 114 at a housing mating end and a lamp mating panel 116 at an opposite retainer mating end. Fig. 26 shows the regulator 112 in more detail with the housing mating portion 114 and the light mating panel 116 removed. In this embodiment, the adjuster 112 includes a base screw 120 and a retainer 118 that is threaded or snapped onto the base screw 120.

Fig. 27-29 illustrate one way of assembling the regulator assembly 110. Fig. 27 is an exploded view of the regulator 112. Fig. 28 shows the regulator 112 fully assembled with the retainer 118 snapped onto the base screw 120 prior to mating with the housing mating portion 114. The side walls 115 define an opening in the housing mating section 114 that is sized to allow the adjuster 112 to pass through the opening from the retainer mating end until reaching the opposite housing mating end. At the housing mating end, the base screw 120 snaps into place against the sidewall 115 such that the base screw 120 may no longer move in a forward or rearward direction through the housing mating portion 114, but may still rotate within the opening defined by the sidewall 115. Although in this embodiment the side wall 115 forms a substantially circular shape, in other embodiments the side wall may form other shapes corresponding to other mating ends of other base screws. Further, the present embodiment depicts a regulator assembly 110 in which no seal is required between the housing mating portion 114 and the base screw 120. Therefore, no O-ring is included in this embodiment. However, if a seal is required between the housing mating portion 114 and the base screw 120, an O-ring, such as an O-ring similar to the O-ring 22 shown and described in the previous embodiment, may be included in this embodiment. Fig. 29 shows the adjuster 112 mated with the housing mating portion 114, but separated from the lamp mating panel 116. When fully assembled, the lamp mating panel 116 snaps into place at the retainer mating end of the adjuster 112.

Fig. 30-32 show top views of various elements of the regulator assembly 110. Fig. 30 shows the adjuster 112 mated with the housing mating portion 114. The lamp mating face 116 is not shown. Fig. 31 shows the complete regulator assembly 110. And fig. 32 shows only the lamp mating panel 116. In this embodiment, the mating geometry 124 is formed in the shape of a plus sign. In other embodiments, the mating geometry may form other shapes corresponding to other mating ends of other adjusters.

Fig. 33-34 show bottom views of the regulator assembly 110 and the housing mating part 114, respectively. In the illustrated embodiment, the distal end of the base screw 120 includes a combined hex-cross recessed interface 125 that allows for multiple component mounting and adjustment options. However, in other embodiments, the distal end of the base screw 120 may include a different form of interface. The distal end of the base screw 120 may further include a deformable finger 122 that helps secure the base screw 120 to the housing mating portion 114. As can be seen in fig. 33, the deformable fingers 122 extend beyond the opening defined by the side walls 115 such that the housing mating section 114 may not move beyond the deformable fingers 122 in the rearward direction. The deformable fingers 122 may deform sufficiently to absorb system vibrations without disconnecting from the base screw 120, but remain sufficiently rigid to prevent the housing portion 114 from disconnecting from the base screw 120.

In this embodiment, the distal end of the base screw 120 additionally includes an orientation tab 126. The orientation tab 126 allows the assembler to properly orient the regulator 112 even when the assembler cannot see beyond the housing mating portion 114, such as during blind assembly. The embodiment shown in fig. 33 includes two orienting tabs 126, and proper installation is indicated by the horizontal orientation of the orienting tabs 126. However, in other embodiments, a different number of orientation tabs may be used, and the correct orientation of the adjuster 112 may be indicated by a different orientation of the orientation tab 126. Fig. 34 shows that the side wall 115 extends continuously around the opening formed in the housing mating section 114. The continuity of the side walls 115 may allow the base screw 120 to rotate within the housing mating portion 114.

Fig. 35 shows the base screw 120 in more detail. The base screw 120 may include a base screw snap finger 130 that snaps into the sidewall 115 to facilitate a resilient but rotatable mating connection with the housing mating portion 114. The base screw 120 may additionally include a threaded section 128, with the retainer 118 connected to the threaded section 128. In embodiments that do not include an O-ring, an O-ring channel (such as O-ring channel 23 shown in the previous embodiment) is no longer relevant and may be eliminated from such embodiments, which may reduce the overall length of the base screw. For example, in fig. 35, the base screw 120 is shown without an O-ring channel, as this embodiment does not include an O-ring. If a seal is desired between the housing mating portion 114 and the base screw 120, the base screw 120 may include an O-ring channel that may support an O-ring that is capable of forming the desired seal between the housing mating portion 114 and the base screw 120 when the housing mating portion 114 is mated with the base screw 120.

Fig. 36-37 show the retainer 118 in more detail. The retainer 118 includes a semi-circular retainer sidewall 140. In the present embodiment, the retainer sidewall 140 defines a clutch opening 142. Above the clutch opening 142, a first through core gap (pascore gap)144 may be defined in the retainer 118. The first through-core gap 144 may be sized to allow a limited amount of retainer spring finger 134 deflection while maintaining sufficient structural strength and position of the retainer spring finger 134 within an adjustable stroke length to avoid permanent deformation of the spring finger 134. Opposite the first through-core gap 144 and at least partially aligned with the first through-core gap 144, a second through-core gap 145 may be defined in the retainer 118. In this embodiment, a second through-core gap 145 is defined between the retainer interface section 138 and the retainer spring fingers 134. The second through-core gap 145 may be sized to provide room for additional snap fingers 134 deflection. The first through core gap 144 and the second through core gap 145 together may form the through core 143. Thus, sufficient structure may be provided by the wick 143 to maintain the mating function of the retainer spring fingers 134 and the retainer snap fingers 132, while still allowing a sufficient level of deflection of the retainer spring fingers 134 to mount and pivot the lamp mating portion 116.

Additionally, a portion of the retainer sidewall 140 may be threaded to form the retainer interface section 138, wherein the retainer 118 may interact with the threaded section 128 of the base screw 120. The unique composition of the retainer side wall 140 allows clutching at any point in the overall stroke. When the base screw 120 is rotated in a manner that is not permitted by the retainer interface section 138, rather than being rotated in a manner that peels off the threaded section 128, the retainer sidewalls 140 expand, widening the clutch opening 142 to an extent sufficient to permit the base screw 120 to slide along the base screw interface 138 without significantly damaging the threads of the threaded section 128 until the threaded section 128 is again properly fitted within the retainer interface section 138, but without permitting the threaded section 128 to move away from the retainer interface section 138. The core 143 is sized so that the retainer sidewall 140 retains a sufficient degree of gripping strength to prevent the base screw 120 from being removed from the retainer 118. The integrated full stroke clutch provides a more robust regulation solution for systems with increased weight and/or elevated temperature.

The retainer 118 additionally includes retainer snap fingers 132 to engage the lamp mating panel 116 and retainer spring fingers 134 to secure the connection to the lamp mating panel 116. In the illustrated embodiment, there are two retainer snap fingers 132 and two retainer spring fingers 134, each retainer spring finger 134 being located directly below a respective retainer snap 132. In other embodiments, there may be a greater number of retainer snap fingers 132 and/or retainer spring fingers 134. The direct engagement of the retainer 118 with the lamp mating panel 116 eliminates the need for mounting a secondary mating socket, simplifying assembly and reducing the number of components.

In this embodiment, both retainer snap fingers 132 and retainer spring fingers 134 are made of a resilient material. Securing the lamp mating panel 116 between a plurality of resilient elements allows the regulator assembly 110 to withstand greater system vibration while reducing the likelihood of damage or displacement compared to a single element or a small number of rigid elements, and to accommodate lamp mating panels of various thicknesses or equivalent lamp mating elements without requiring higher installation forces or creating loose joints. This embodiment does not include a travel limiting lug as shown in the previous embodiments, but may include a travel limiting lug if desired.

Fig. 38-42 illustrate the various components of the overall regulator assembly 110 interacting with each other. For example, the cross-sectional view in fig. 39 shows the housing mating section 114 locked in place between the deformable fingers 122 and the base screw snap fingers 130, and shows the lamp mating panel 116 locked in place by the retainer snap fingers 132 and further secured by the retainer spring fingers 134 as well, as is also shown in the cross-sectional view in fig. 42. In addition, the custom fit of the retainer mating end within the mating geometry 124 (shown in fig. 32) helps control the insertion position, promotes proper retainer 118 orientation, and helps limit unwanted vibration. In addition, the ability to directly connect the mating end of the retainer 118 to the lamp mating panel 116 of the lamp heat sink 106 eliminates the need for additional mating components, such as secondary mating components, due to the mating geometry 124 (shown in fig. 32), simplifying the regulator assembly 110.

Fig. 43-46 illustrate how lamp mating panel 116 tilts when retainer 118 is retracted (as shown in fig. 43-44) or extended (as shown in fig. 45-46). Note that the retainer 118 does not rotate as it is extended or retracted, but rather maintains a substantially constant orientation with the clutch opening 142 facing outward. This orientation ensures that typical service loads will occur on the retainer side wall 140, but not on or opposite the clutch opening 142, which helps prevent shifting. The mating geometry 124 of the lamp mating panel 116 ensures this constant orientation, preventing significant twisting of the retainer 118.

In this embodiment, when the base screw 120 is rotated, the retainer 118 is extended or retracted by the interaction between the threaded section 128 of the base screw 120 and the retainer interface section 138 of the retainer 118. Here, when the base screw 120 is rotated, the rotational energy is transferred to the lamp fitting panel 116 by rotating the fixed holder 118, so that the lamp fitting panel 116 pivots. In this embodiment, when the retainer 118 is in the retracted position (as shown in fig. 43-44), the lamp engagement panel 116 is angled in a forward direction, and when the retainer 118 is in the extended position (as shown in fig. 45-46), the lamp engagement panel 116 is angled in a rearward direction.

Although the invention has been described herein in what is believed to be the most practical and preferred embodiments, it is to be understood that the invention is not to be limited to the specific embodiments described above. Rather, it is recognized that modifications may be made by persons skilled in the art to the invention without departing from the spirit or intent of the invention and, therefore, the invention is to be taken as including all reasonable equivalents to the subject matter of the claims appended hereto and the description of the invention.