Patent Abstract:
A mounting bracket for mounting “wet” location lighting fixtures. In embodiments, a mounting bracket allows a light fixture to be installed over a new or existing junction box. Gasketing and a plurality of bumpers provide a waterproof fit between the fixture and the junction box. In an embodiment, a lighting fixture system comprising a junction box, a lighting fixture, and a mounting bracket is presented. In another embodiment, a method of installing a lighting system to a mounting surface is presented.

Full Description:
PRIORITY 
       [0001]    This application claims priority to U.S. Provisional Application No. 61/468,672, filed Mar. 29, 2011, which is hereby incorporated in its entirety. 
     
    
     FIELD OF THE INVENTION 
       [0002]    The present invention relates generally to mounting brackets. More specifically, the present invention relates to mounting brackets for mounting “wet” location lighting fixtures. 
       BACKGROUND OF THE INVENTION 
       [0003]    Several applications, including food processing facilities, commercial kitchens, industrial facilities, pedestrian and road tunnels, laundries, saunas, elevator shafts, storage buildings, car washes, refrigerators and freezer, among others, utilize a UL Listed “wet” location lighting fixture. 
         [0004]    Wet locations require that lighting and the corresponding mounting mechanisms that are placed within such locations to be suitably water resistant and bug resistant. Water resistant and bug resistant lighting fixtures and mounting mechanisms provide for a safe and controlled environment in which there is minimized danger of electrical shorts or bug infestation, for example, which is critical in the aforementioned applications. 
         [0005]    Typically, traditional surface-mounted brackets do not provide water resistant and bug resistant seals between fixture boxes and lighting fixture housings. Those that do provide some sort of water-resistant or bug-resistant properties are often bulky and project the fixture far from the mounting surface. As a result, traditional methods using conduit and wire-pulling via a fixture whip and junction box cover plate are often used to mount lighting fixtures in wet locations. Such traditional methods require costly superfluous materials, such as metallic straight connectors, 90 degree connectors, liquid tight conduits, GFF series fixture mounting hardware, conduit hangers, 14 AWG THHN—Black wiring, 14 AWG THHN—White wiring, and 14 AWG THHN—Green wiring, for example. 
         [0006]    Not only is the pure cost of materials expensive, but superfluous cost is incurred in traditional installation methods in moving all of these materials to the job site, preparing the materials for installation, and working with the materials to install lighting fixtures. The actual installation process in traditional mounting methods therefore also requires time-consuming and expensive labor costs. 
         [0007]    Also, the look and appearance of traditional fixture whip installation methods is often unsightly and obtrusive, a consideration that should not be minimized. In lighting fixture installations using a fixture whip, the conduit or whip often runs from one end of the lighting fixture housing for a length along the ceiling or wall and finally terminating at a junction box. A junction box cover is typically used to cover the junction box and wiring within. Often, these conduits or whips and junction box covers are in a color in complete contrast to the color of the ceiling or wall (typically being available in either black or white). Alternatively, additional cost can be incurred in trying to match the color of the whip to the color of the ceiling or wall material. Additionally, whip or conduit brackets are often required to affix the whip or conduit to the ceiling or wall. Therefore, traditional installation methods provide a very cluttered and unsightly appearance proximate the installed fixture. 
         [0008]    Further, the National Electrical Code (NEC), a United States standard for the safe installation of electrical wiring and equipment, stipulates the connection of an electric-discharge luminaire as it relates to access to boxes. Referring to §410.24(B), “Electric-discharge luminaires surface mounted over concealed outlet, pull, or junction boxes and designed not to be supported solely by the outlet box shall be provided with suitable openings in the back of the luminaire to provide access to the wiring in the box.” 
         [0009]    Therefore, there is a need for an easily-installed and effective surface-mounting bracket for installing lighting fixtures in wet locations that is cost effective, easy to install, and in compliance with UL and National Electrical Code regulations. 
       SUMMARY OF THE INVENTION 
       [0010]    A mounting bracket according to embodiments of the present application substantially meets the aforementioned needs of the industry. The mounting bracket, according to embodiments of the invention, provides a mounting means for mounting a light fixture to a support surface in wet locations. Specifically, in embodiments, a 4-foot or 8-foot GFF series light fixture can be installed over a new or existing junction box. 
         [0011]    In a feature and advantage of embodiments of the invention, the bracket complies with UL Listing requirements. Gasketing and a plurality of bumpers provide a waterproof fit between the fixture and the junction box. In an embodiment, neoprene closed cell foam gaskets provide water and bug resistance, thereby creating a closed environment between the fixture and the junction box. Thus, the critical area between the supply connectors and the lighting fixture is protected and power is able to pass efficiently and safely to the fixture from the junction box in wet locations. In embodiments, wet location applications therefore provide a UL listing, NEMA 4× rating, and IP67 rating that are protected against dust and the ingress of water; for example, against strong jets of directed water, and against the entry of water during prolonged submersion at a limited depth. Embodiments further protect against corrosion and against damage by the external formation of ice on any piece of the lighting system. 
         [0012]    In another feature and advantage of embodiments of the invention, the bracket provides for an opening in the fixture and the bracket to access wiring in the junction box, in compliance with NEC §410.24(B). Therefore, embodiments are NEC compliant. 
         [0013]    In another feature and advantage of embodiments of the invention, a simple mounting bracket eliminates the need for superfluous installation materials such as, for example, metallic straight connectors, 90 degree connectors, liquid tight conduits, GFF series fixture mounting hardware, conduit hangers, 14 AWG THHN—Black wiring, 14 AWG THHN—White wiring, and 14 AWG THHN—Green wiring of traditional fixture whip-mounted lighting fixtures. In an embodiment, 95% of the materials required in installation can be eliminated compared to traditional conduit and wire-pulling methods. Time and cost is likewise saved in not transporting the aforementioned materials to the job site, preparing the materials for installation, and working with the materials during actual installation. 
         [0014]    Embodiments allow for much faster installation than traditional mounting means, as no fixture whips are needed to wire to the junction box from the fixture—the electrician is able to wire directly to the junction box through the fixture hole, as the fixture is positioned directly over an existing or new recessed junction box on a ceiling or wall. Additionally, the bracket provides a “snap” fit onto the fixture housing and fixture lens, further easing installation. In embodiments, no adhesive sealant or gasket is required during installation and coupling of the fixture to the mounting surface. In embodiments, a 41% material and labor savings can be realized using embodiments when compared to traditional conduit and wire method (for a 4-foot GFF series lighting fixture). An efficiently-installed and labor-saving mounting bracket is therefore provided in embodiments. 
         [0015]    In another feature and advantage of embodiments of the invention, a clean and pleasing look is provided. Embodiments make certain types of light fixture installations much cleaner than traditional mounting means by hiding the junction box beneath the light fixture. In embodiments, no unsightly fixture whip runs from one end of the lighting fixture housing for a length along the ceiling or wall to a junction box. A pleasing look is further provided because no junction box cover plate is necessary when compared to traditional fixture whip installations. Further, there is no need to match whip colors to wall or ceiling material colors in attempt to mask the exposed whip. Likewise, no superfluous whip brackets are exposed. Therefore, only the sleek fixture lens is exposed. 
         [0016]    Additionally, the fixture housing is mounted flush against the mounting surface, with only the thin width of the bracket material between the fixture housing between and the mounting surface, in embodiments. Therefore, embodiments of the lighting fixture only project from the mounting surface at a height of roughly the fixture height itself. The obtrusion into the area surrounding the installation location is therefore minimized. Bulky mounting brackets are therefore avoided in embodiments. 
         [0017]    The above summary of the invention is not intended to describe each illustrated embodiment or every implementation of the present invention. The figures and the detailed description that follow more particularly exemplify these embodiments. 
     
    
     
       BRIEF DESCRIPTION OF THE DRAWINGS 
         [0018]    The invention may be more completely understood in consideration of the following detailed description of various embodiments of the invention in connection with the accompanying drawings, in which: 
           [0019]      FIG. 1  is an exploded perspective view of a lighting system depicted in conjunction with a mounting surface, according to an embodiment. 
           [0020]      FIG. 2  is an exploded, partial sectional, side view of the lighting system of  FIG. 1 , depicted in conjunction with a mounting surface presented in cross section. 
           [0021]      FIG. 3A  is a perspective view of a surface mount bracket, according to an embodiment, depicted in conjunction with a mounting surface. 
           [0022]      FIG. 3B  is a perspective view of a supplemental surface mount bracket, according to an embodiment, depicted in conjunction with a mounting surface. 
           [0023]      FIG. 4  is an exploded perspective view of a lighting system utilizing a supplemental surface mount bracket, according to an embodiment, depicted in conjunction with a mounting surface. 
           [0024]      FIG. 5  is a sectional side view of the surface mount bracket of  FIG. 3A  operably coupled to a mounting surface. 
           [0025]      FIG. 6  is a sectional side view of the supplemental surface mount bracket of  FIG. 3B  operably coupled to a mounting surface. 
           [0026]      FIG. 7  is a partial sectional side view of a lighting system installed to a mounting surface, according to an embodiment. 
           [0027]      FIG. 8  is a flow chart depicting a sequence of events for installing a fluorescent lamp with an embodiment of a mounting bracket hereof. 
       
    
    
       [0028]    While the invention is amenable to various modifications and alternative forms, specifics thereof have been shown by way of example in the drawings and will be described in detail. It should be understood, however, that the intention is not to limit the invention to the particular embodiments described. On the contrary, the intention is to cover all modifications, equivalents, and alternatives falling within the spirit and scope of the invention as defined by the appended claims. 
       DETAILED DESCRIPTION 
       [0029]    Referring generally to  FIGS. 1-2 , a lighting system  100  is depicted, according to an embodiment. Lighting system  100  generally includes lighting fixture  102 , mounting bracket  104 , and junction box  106 . 
         [0030]    Lighting fixture  102  comprises housing  108 , geartray  110 , lens  112 , and one or more lamps  113 . In an embodiment, lighting fixture  102  and its components are configured in a direction relatively orthogonal to a mounting surface, for example, along axis A of  FIG. 1   
         [0031]    Housing  108  is configured as a base to which other components of lighting fixture  102  can be coupled. Housing  108  comprises an elongated body  114 , a first elongated sidewall  116   a , a second elongated sidewall  116   b , a first abbreviated sidewall  118   a , a second abbreviated sidewall  118   b , a lip  120 , and one or more retaining clips  122 . Elongated body  114  is substantially flat and substantially rectangular, having a length greater than a width, in an embodiment. In an embodiment, then, elongated body  114  comprises two elongated sides and two abbreviated sides and presents a longitudinal axis. Other embodiments of elongated body  114  can be more or less elongated, depending on the application and desired lighting effect. Further, the width or abbreviated side of elongated body  114  can be more or less wide, depending on the application and desired lighting effect. 
         [0032]    One or more access apertures  124  can be configured along elongated body  114  and configured to allow access to junction box  106 . As depicted in  FIG. 1 , access aperture  124  is circular and positioned roughly in the center of elongated body  114  and therefore, housing  108 . In another embodiment, access aperture  124  can comprise a square or any other shaped void. In embodiments, access aperture  124  is not centered within elongated body  114 , and is instead offset along one of the elongated sides or offset along the width elongated body  114 . In embodiments, elongated body  114  can comprise a plurality of access apertures  124 . In an embodiment of a 4-foot lighting fixture  102 , for example, elongated body  114  comprises two access apertures  124 . In an embodiment of an 8-foot lighting fixture  102 , for example, elongated body  114  comprises three access apertures  124   
         [0033]    First elongated sidewall  116   a  extends at an angle from elongated body  114  along one of the elongated edges of elongated body  114  for the length of elongated body  114 . As depicted in  FIG. 1 , first elongated sidewall  116   a  extends at an angle greater than 90 degrees with respect to the surface of elongated body  114 . However, in embodiments, first elongated sidewall  116   a  can extend from elongated body  114  at an angle of 90 degrees or less, depending on the application. First elongated sidewall  116   a  extends for a length shorter than the width of elongated body  114 , although lengths of first elongated sidewall  116   a  that are shorter or longer than the depiction in  FIG. 1  are also possible. As such, first elongated sidewall  116   a  is substantially rectangular. In other embodiments, first elongated sidewall  116   a  can be substantially trapezoidal, with non-parallel sides having the same base angles, thus creating a shape that is substantially isosceles-trapezoidal. Other differently-shaped embodiments are also considered. 
         [0034]    Second elongated sidewall  116   b  extends at an angle from elongated body  114  along the elongated edge of elongated body  114  opposite first elongated sidewall  116   a  for the length of elongated body  114 . As depicted in  FIG. 1 , second elongated sidewall  116   b  extends at an angle greater than 90 degrees with respect to the surface of elongated body  114 . However, in embodiments, second elongated sidewall  116   b  can extend from elongated body  114  at an angle of 90 degrees or less, depending on the application. Second elongated sidewall  116   b  extends for a length shorter than the width of elongated body  114 , although lengths of second elongated sidewall  116   b  that are shorter or longer than the depiction in  FIG. 1  are also possible. In embodiments, as depicted, first elongated sidewall  116   a  and second elongated sidewall  116   b  extend at similar angles from their respective edges along elongated body  114  and to similar lengths, thus aiding in manufacturing. Similar to first elongated sidewall  116   a , second elongated sidewall  116   b  can comprise substantially rectangular, trapezoidal, or isosceles-trapezoidal shapes, among others, in embodiments. 
         [0035]    First abbreviated sidewall  118   a  extends at an angle from elongated body  114  along the abbreviated edge of elongated body  114  for the width of elongated body  114  to couple first elongated sidewall  116   a  and second elongated sidewall  116   b . As depicted in  FIG. 1 , first abbreviated sidewall  118   a  extends at an angle greater than 90 degrees with respect to the surface of elongated body  114 . However, in embodiments, first abbreviated sidewall  118   a  can extend from elongated body  114  at an angle of 90 degrees or less, depending on the application. First abbreviated sidewall  118   a  extends for a length shorter than the width of elongated body  114 , although lengths of first abbreviated sidewall  118   a  that are shorter or longer than the depiction in  FIG. 1  are also possible. First abbreviated sidewall  118   a  comprises a shape suitable to couple the interfacing edges of first elongated sidewall  116   a  and second elongated sidewall  116   b . As such, first abbreviated sidewall  118   a  can comprise substantially rectangular, trapezoidal, or isosceles-trapezoidal shapes, among others, in embodiments, depending on the respective shapes of first elongated sidewall  116   a  and second elongated sidewall  116   b.    
         [0036]    Second abbreviated sidewall  118   b  extends at an angle from elongated body  114  along the abbreviated edge of elongated body  114  opposite first abbreviated sidewall  118   a  for the width of elongated body  114  to couple first elongated sidewall  116   a  and second elongated sidewall  116   b  at the end opposite first abbreviated sidewall  118   a . As depicted in  FIG. 1 , second abbreviated sidewall  118   b  extends at an angle greater than 90 degrees with respect to the surface of elongated body  114 . However, in embodiments, second abbreviated sidewall  118   b  can extend from elongated body  114  at an angle of 90 degrees or less, depending on the application. Second abbreviated sidewall  118   b  extends for a length shorter than the width of elongated body  114 , although lengths of second abbreviated sidewall  118   b  that are shorter or longer than the depiction in  FIG. 1  are also possible. In embodiments, as depicted, first abbreviated sidewall  118   a  and second abbreviated sidewall  118   b  extend at similar angles from their respective edges along elongated body  114  and to similar lengths. Likewise, second abbreviated sidewall  118   b  comprises a shape suitable to couple the interfacing edges of first elongated sidewall  116   a  and second elongated sidewall  116   b  at the edge of elongated body  114  opposite first abbreviated sidewall  118   a . As such, second abbreviated sidewall  118   b  can comprise substantially rectangular, trapezoidal, or isosceles-trapezoidal shapes, among others, in embodiments, depending on the respective shapes of first elongated sidewall  116   a  and second elongated sidewall  116   b.    
         [0037]    The angles presented by the operable coupling of sidewalls  116   a ,  116   b ,  118   a , and  118   b  to elongated body  114 , as well as the angles presented by the coupling of first elongated sidewall  116   a  to first abbreviated sidewall  118   a  and first elongated sidewall  116   a  to second abbreviated sidewall  118   b , and likewise the angles coupling second elongated sidewall  116   b  to first abbreviated sidewall  118   a  and second elongated sidewall  116   b  to second abbreviated sidewall  118   b  can be rounded or otherwise sloped, and need not be at discrete angles. 
         [0038]    In an embodiment, sidewalls  116   a ,  116   b ,  118   a , and  118   b  themselves can be angled. For example, a portion of sidewalls  116   a ,  116   b ,  118   a , and  118   b  distal elongated body  114  can diverge from the plane of the projection from elongated body  114 . In an embodiment, a portion of sidewalls  116   a ,  116   b ,  118   a , and  118   b  extends generally orthogonal to elongated body  114 . In embodiments, this can be defined as a sidewall angle. 
         [0039]    Lip  120  comprises a projection from each of first elongated sidewall  116   a , second elongated sidewall  116   b , first abbreviated sidewall  118   a , and second abbreviated sidewall  118   b  that runs along each of these aforementioned components at their respective ends distal elongated body  114 . Lip  120  therefore forms a shape substantially similar to elongated body  114 , but smaller or larger depending on the angle of extension of first elongated sidewall  116   a , second elongated sidewall  116   b , first abbreviated sidewall  118   a , and second abbreviated sidewall  118   b  from elongated body  114 . For example, if the respective angle of extension is greater than 90 degrees, the shape formed by lip  120  will be larger than the shape of elongated body  114 . Conversely, if the respective angle of extension is less than 90 degrees, the shape formed by lip  120  will be smaller than the shape of elongated body  114 . In an embodiment, for example as depicted in  FIG. 2 , lip  120  is substantially L-shaped. In embodiments therefore, lip  120  initially projects orthogonally from sidewalls  116   a ,  116   b ,  118   a , and  118   b , then relatively parallel to sidewalls  116   a ,  116   b ,  118   a , and  118   b  along the angled portion of lip  120 . Other shapes of lip  120  are considered, depending on the application. For example, the angle of lip  120  need not be exactly orthogonal. Further, lip  120  can comprise rounded or otherwise curved projections, or comprise a single projection that has no angle or curve whatsoever. In embodiments, lip  120  is configured to receive a corresponding lip of lens  112 . 
         [0040]    One or more retaining clips  122  are configured to operably engage housing  108 . In an embodiment, a set of retaining clips  122  comprise a pair of opposing metal projections configured to hold geartray  110  in place when so engaged. As shown in  FIG. 1 , a first set of retaining clips  122  are positioned intermediate the length of housing  108 , roughly one-third of the length of housing  108  distal first abbreviated sidewall  118   a , and a second set of retaining clips  122  are positioned intermediate the length of housing  108 , roughly one-third of the length of housing  108  distal second abbreviated sidewall  118   b . While two pairs of retaining clips  122  are depicted at roughly one-third the length of housing  108 , any number of possible pluralities or configurations of retaining clips  122  are possible. In another embodiment, one or more retaining clips  122  are not operably coupled to housing  108 , but are formed as a discrete structure within housing  108  during manufacture. An individual set of retaining clips  122 , comprising a pair, are configured to be squeezed or otherwise receive pressure such that each retaining clip  122  in the pair moves parallel to geartray  110  towards the other retaining clip  122  in the pair. Upon release of such pressure, the retaining clips  122  in the pair are configured to move in a direction parallel to geartray  110  away from the other retaining clip  122  in the pair. 
         [0041]    In embodiments, housing  108  therefore comprises roughly half of an enclosed lighting fixture  102 , with lens  112  providing the opposing half. 
         [0042]    Optionally, housing  108  can comprise one or more alignment tabs  126  or  128 , one or more latch-mounting members  130 , and one or more latches. 
         [0043]    Alignment tabs  126  comprise projections that extend from within the inner surface or surfaces of housing  108 , for example, on elongated body  114 , sidewalls  116   a ,  116   b ,  118   a , or  118   b , or any combination thereof. Referring to  FIG. 1 , for example, a series of alignment tabs  126  are configured at the angle of interface at elongated body  114  and second elongated sidewall  116   b . A corresponding series of alignment tabs  126  are configured at the same relative positions along housing  108 , but at the interface between second elongated sidewall  116   b  and lip  120 . Another set of alignment tabs  126  are configured at the angle of interface at elongated body  114  and first elongated sidewall  116   a , similarly with corresponding alignment tabs  126  positioned at the interface between first elongated sidewall  116   a  and lip  120 . Such alignment tabs  126  are configured to guide geartray  110  along its edges or optionally, corresponding notches reflective of alignment tab  126  positions. 
         [0044]    Other types of alignment tabs  128  are also considered. For example, referring again to  FIG. 1 , an alignment tab  128  projects directly from elongated body  114  along the width of elongated body  114 , between first elongated sidewall  116   a  and second elongated sidewall  116   b . Such alignment tabs  128  are configured to allow clearance for the various electrical and wiring components of geartray  110 . Specifically, alignment tabs  128  inhibits geartray  110  from being positioned flush or too proximate elongated body  114  such that the various electrical and wiring components of geartray  110  are overly compressed or contacted. In another embodiment, alignment tabs  128  inhibits geartray  110  or any of its components from contacting housing  108  at all. In an embodiment, one or more alignment tabs  128  serve a secondary purpose as a tether cable interface point. The tether cable interface is operably couplable to one or more alignment tabs  128 . For example, a clip is operably coupleable to an alignment tab  128  to subsequently be coupled to a geartray  110  tether. Other types or configurations of alignment tabs  126  or  128  are also considered, but not necessarily shown in the figures. 
         [0045]    Latch-mounting members  130  comprise projections that extend from the outer surface or surfaces of housing  108 , for example, sidewalls  116   a ,  116   b ,  118   a ,  118   b , or lip  120 . In an embodiment, a pair of proximately-positioned mounting members  130  comprise the structure for mounting a single latch. In an embodiment, referring to  FIG. 1 , latch-mounting members  130  are positioned along lip  120  from the edge distal elongated body  114  to, for example, first elongated sidewall  116   a . A plurality of latch-mounting members  130  can be positioned along housing  108 , depending on the number of latches. In  FIG. 1 , four sets of latch-mounting members  130  are positioned per elongated side of housing  108 , for example as shown along first elongated sidewall  116   a . In another embodiment, latch-mounting members  130  do not comprise projections, but a single latch-mountable structure. 
         [0046]    One or more latches (not shown) comprise cam-type latches configured to interface and lock to lens  112 . Each latch is mountable within two opposing, projecting, latch-mounting members  130 . In an embodiment, latches can be made of polycarbonate that resists airborne particles. In another embodiment, latches can be made of steel or stainless steel, making such embodiments ideal for food processing facilities, freezer applications having extreme temperatures, and livestock containment buildings having acidic conditions. 
         [0047]    In an embodiment, housing  108  and its subcomponents can be made of stainless steel. In another embodiment, housing  108  can be made of reinforced polyester. In another embodiment, housing  108  can be made of plastic. In embodiments, solid housing  108  provides strong rigidity with no or limited deflection. 
         [0048]    Geartray  110  comprises a body  134 , first lip  136   a , second lip  136   b , one or more lampholder projections  138 , one or more ballasts  140 , and fixture wiring  142 . 
         [0049]    Body  134  is substantially flat and substantially rectangular, having a length greater than a width, in an embodiment. Other embodiments of body  134  can be more or less elongated, depending on the application and desired lighting effect. Further, the width of body  134  can be more or less wide, depending on the application and desired lighting effect. In embodiments, body  134  of geartray  110  is slightly smaller than the side of housing  108  in order to accommodate geartray  110  into housing  108 . Likewise, the shape of body  134  is dictated by the shape of housing  108 , and specifically, elongated body  114 . In an embodiment, body  134  can be made of corrosion-protected metal or other suitable materials. 
         [0050]    One or more retaining clip apertures  144  are configured along body  134 . An individual retaining clip aperture  144  is of a size such that retaining clip  122  is designed to fit within an individual retaining clip aperture  144  when lighting fixture  102  is assembled, yet keeping the continuity of body  134  as contiguous as possible. For example, retaining clip aperture  144  can comprise a slit or slot slightly larger than the size of retaining clip  122 . Retaining clip apertures  144 , in an embodiment, are positioned as pairs of apertures along body  134  at the relative location along lighting fixture  102  as retaining clips  122  are along housing  108 . For example, referring to the depiction of an embodiment in  FIG. 1 , a first set of retaining clip apertures  144  are positioned intermediate the length of body  134 , roughly one-third of the length of body  134  distal a first end corresponding to that proximate first abbreviated sidewall  118   a  when assembled, and a second set of retaining clip apertures  144  are positioned intermediate the length of body  134 , roughly one-third of the length of body  134  distal a second end corresponding to that proximate second abbreviated sidewall  118   b  when assembled. One or more retaining clip apertures  144  therefore allow one or more retaining clips  122  to project through body  134  to be accessible to a user. 
         [0051]    First lip  136   a  comprises, in an embodiment, a substantially V-shaped projection that extends along one of the elongated edges of body  134  for the length of body  134 . In an embodiment, first lip  136   a  extends from body  134  such that the arc created by the two rays of first lip  136   a , as connected by a vertex, is substantially in the same plane as body  134 . Other shapes of first lip  136   a  are considered, depending on the application. For example, the angle of first lip  136   a  need not be V-shaped. Further, first lip  136   a  can comprise rounded or otherwise curved projections, or comprise a single projection that has no angle or curve whatsoever. First lip  136   a  is configured to interface with lip  120  of housing  108 , as well as lens  112 . 
         [0052]    Second lip  136   b  comprises, in an embodiment, a substantially V-shaped projection that extends along the elongated edge of body  134  opposite first lip  136   a  for the length of body  134 . Similar to first lip  136   a , in an embodiment, second lip  136   b  extends from body  134  such that the arc created by the two rays of second lip  136   b , as connected by a vertex, is substantially in the same plane as body  134 . Other shapes of second lip  136   b  are considered, depending on the application and likewise, the shape of first lip  136   a . First and second lips  136   a  and  136   b  can comprise the same shape, or shapes different than the other, in embodiments. 
         [0053]    Body  134 , first lip  136   a , and second lip  136   b  can be made of, for example, stainless steel, or reinforced polyester, in embodiments. Other non-conductive, insulative, or semi-conductive materials can comprise body  134 , first lip  136   a , and second lip  136   b.    
         [0054]    Lampholder projection  138  comprises a semicircle or semi-ovular projection from body  134  configured to apply electrical current to lamp  113 . In an embodiment, a first lampholder projection  138  is positioned at a first end of body  134 , and a second lampholder projection  138  is positioned at a second end opposite the first end at the length of body  134  to comprise a set or pair. The set or pair of lampholder projections  138  is thus configured to operably couple to and power a single lamp  113 . In the embodiment depicted in  FIG. 1 , a first set of lampholder projections  138  is positioned proximate first lip  136   a , and a second set of lampholder projections  138  is positioned proximate second lip  136   b . Myriad different positionings and pluralities of sets are considered. Further, in an embodiment, lampholder projections  138  need not be in pairs, but comprise a single projection configured to hold lamp  113  in a cantilevering manner. 
         [0055]    Ballast  140  limits the amount of current in the circuit created by the lighting system  100 . In an embodiment, ballast  140  comprises an inductive ballast that limits the current through the lamps  113 , which can otherwise rise to harmful levels. As such, ballast  140  is operably coupled to fixture wiring  142  and through to one or more lamps  113 . In an embodiment, ballast  140  is operably coupled to body  134 . As depicted in  FIG. 2 , ballast  140  is positioned on body  134  on the side opposite lampholder projections  138 . In other embodiments, ballast  140  can be positioned and affixed on the side of lampholder projections  138 , or can be free from body  134 . 
         [0056]    Fixture wiring  142  comprises the wiring adapted to couple the supply conductors from junction box  106  to ballast  140  and lamps  113 . Fixture wiring  142  therefore comprises wiring coupling ballast  140  to one or more lamps  113 , and through the electrical contacts of lampholder projections  138 , in an embodiment. In an embodiment, fixture wiring  142  comprises a luminaire disconnect configured to couple junction box  106  supply connectors to ballast  140 . In an embodiment, the luminaire disconnect is yellow and color coded for circuit wiring. In an embodiment, the termination of hot supply line conductors are connected to a black port and a neutral conductor is connected to white, while a green ground is connected to a green bonding pigtail to the underside of geartray  110 . Such a configuration maintains correct polarity from junction box  106  to lamps  113 . 
         [0057]    Optionally, geartray  110  comprises a tether (not shown) that is operably coupled to body  134 , first lip  136   a , or second lip  136   b , or some combination thereof. The tether can comprise an extension of wiring, string, or other material that can be coupled to housing  108  to retain geartray  110  near housing  108 . Such a configuration simplifies installation and allows for easy ballast  140  replacement. 
         [0058]    Lens  112  comprises a lens elongated body  144 , a lens first elongated sidewall  146   a , a lens second elongated sidewall  146   b , a lens first abbreviated sidewall  148   a , a lens second abbreviated sidewall  148   b , and a lens lip  150 . 
         [0059]    Lens elongated body  144  is substantially flat and substantially rectangular, having a length greater than a width, in an embodiment. Other embodiments of lens elongated body  144  can be more or less elongated, depending on the application and desired lighting effect. Further, the width of lens elongated body  144  can be more or less wide, depending on the application and desired lighting effect. 
         [0060]    Lens first elongated sidewall  146   a  extends at a rounded angle from lens elongated body  144  along one of the elongated edges of lens elongated body  144  for the length of lens elongated body  144 . As depicted in  FIG. 1 , lens first elongated sidewall  146   a  extends at a rounded angle greater than 90 degrees with respect to the surface of lens elongated body  144 . However, in embodiments, lens first elongated sidewall  146   a  can extend from lens elongated body  144  at an angle of 90 degrees or less, depending on the application. Lens first elongated sidewall  146   a  extends for a length shorter than the width of lens elongated body  144 , although lengths of lens first elongated sidewall  146   a  that are shorter or longer than the depiction in  FIG. 1  are also possible. As such, first elongated sidewall  116   a  is substantially rectangular. In other embodiments, lens first elongated sidewall  146   a  can be substantially trapezoidal, with non-parallel sides having the same base angles, thus creating a shape that is substantially isosceles-trapezoidal. Other differently-shaped embodiments are also considered. Additionally, the outer surface of lens first elongated sidewall  146   a  can be ridged or otherwise stepped to create a different diffusion appearance. 
         [0061]    Lens second elongated sidewall  146   b  extends at a rounded angle from lens elongated body  144  along the elongated edge of lens elongated body  144  opposite lens first elongated sidewall  146   a  for the length of lens elongated body  144 . As depicted in  FIG. 1 , lens second elongated sidewall  146   b  extends at a rounded angle greater than 90 degrees with respect to the surface of lens elongated body  144 . However, in embodiments, lens second elongated sidewall  146   b  can extend from lens elongated body  144  at an angle of 90 degrees or less, depending on the application. Lens second elongated sidewall  146   b  extends for a length shorter than the width of lens elongated body  144 , although lengths of lens second elongated sidewall  146   b  that are shorter or longer than the depiction in  FIG. 1  are also possible. In embodiments, as depicted, lens first elongated sidewall  146   a  and lens second elongated sidewall  146   b  extend at similar angles from their respective edges along lens elongated body  144  and to similar lengths, thus aiding in manufacturing. Similar to lens first elongated sidewall  146   a , lens second elongated sidewall  146   b  can comprise substantially rectangular, trapezoidal, or isosceles-trapezoidal shapes, among others, in embodiments. Further, the outer surface of lens second elongated sidewall  146   b  can be ridged or otherwise stepped, as in lens first elongated sidewall  146   a.    
         [0062]    Lens first abbreviated sidewall  148   a  extends at a rounded angle from lens elongated body  144  along the abbreviated edge of lens elongated body  144  for the width of lens elongated body  144  to couple lens first elongated sidewall  146   a  and lens second elongated sidewall  146   b . As depicted in  FIG. 1 , lens first abbreviated sidewall  148   a  extends at a rounded angle greater than 90 degrees with respect to the surface of lens elongated body  144 . However, in embodiments, lens first abbreviated sidewall  148   a  can extend from lens elongated body  144  at an angle of 90 degrees or less, depending on the application. Lens first abbreviated sidewall  148   a  extends for a length shorter than the width of lens elongated body  144 , although lengths of lens first abbreviated sidewall  148   a  that are shorter or longer than the depiction in  FIG. 1  are also possible. Lens first abbreviated sidewall  148   a  comprises a shape suitable to couple the interfacing edges of lens first elongated sidewall  146   a  and lens second elongated sidewall  146   b . As such, lens first abbreviated sidewall  148   a  can comprise substantially rectangular, trapezoidal, or isosceles-trapezoidal shapes, among others, in embodiments, depending on the respective shapes of lens first elongated sidewall  146   a  and lens second elongated sidewall  146   b . The outer surface of lens first abbreviated sidewall  148   a  can be ridged or otherwise stepped. 
         [0063]    Lens second abbreviated sidewall  148   b  extends at a rounded angle from lens elongated body  144  along the abbreviated edge of lens elongated body  144  opposite lens first abbreviated sidewall  148   a  for the width of lens elongated body  144  to couple lens first elongated sidewall  146   a  and lens second elongated sidewall  146   b  at the end opposite lens first abbreviated sidewall  148   a . As depicted in  FIG. 1 , lens second abbreviated sidewall  148   b  extends at an angle greater than 90 degrees with respect to the surface of lens elongated body  144 . However, in embodiments, lens second abbreviated sidewall  148   b  can extend from lens elongated body  144  at an angle of 90 degrees or less, depending on the application. Lens second abbreviated sidewall  148   b  extends for a length shorter than the width of lens elongated body  144 , although lengths of lens second abbreviated sidewall  148   b  that are shorter or longer than the depiction in  FIG. 1  are also possible. In embodiments, as depicted, lens first abbreviated sidewall  148   a  and lens second abbreviated sidewall  148   b  extend at similar angles from their respective edges along lens elongated body  144  and to similar lengths. Likewise, lens second abbreviated sidewall  148   b  comprises a shape suitable to couple the interfacing edges of lens first elongated sidewall  146   a  and lens second elongated sidewall  146   b  at the edge of lens elongated body  144  opposite lens first abbreviated sidewall  148   a . As such, lens second abbreviated sidewall  148   b  can comprise substantially rectangular, trapezoidal, or isosceles-trapezoidal shapes, among others, in embodiments, depending on the respective shapes of lens first elongated sidewall  146   a  and lens second elongated sidewall  146   b . The outer surface of lens second abbreviated sidewall  148   b  can be ridged or otherwise stepped. 
         [0064]    Lens lip  150  comprises a projection from each of lens first elongated sidewall  146   a , lens second elongated sidewall  146   b , lens first abbreviated sidewall  148   a , and lens second abbreviated sidewall  148   b  that runs along each of these aforementioned components at their respective ends distal lens elongated body  144 . Lens lip  150  therefore forms a shape substantially similar to lens elongated body  144 , but smaller or larger depending on the angle of extension of lens first elongated sidewall  146   a , lens second elongated sidewall  146   b , lens first abbreviated sidewall  148   a , and lens second abbreviated sidewall  148   b  from lens elongated body  144 . For example, if the respective angle of extension is greater than 90 degrees, the shape formed by lens lip  150  will be larger than the shape of lens elongated body  144 . Conversely, if the respective angle of extension is less than 90 degrees, the shape formed by lens lip  150  will be smaller than the shape of lens elongated body  144 . In an embodiment, for example as depicted in  FIG. 2 , lens lip  150  is rounded. In embodiments therefore, lens lip  150  projects from sidewalls  116   a ,  116   b ,  118   a , and  118   b , outward and sloping back towards lens elongated body  144 , then parallel with sidewalls  116   a ,  116   b ,  118   a , and  118   b . Other shapes of lens lip  150  are considered, depending on the application. For example, lens lip  150  need not rounded or curved; orthogonal configurations are also considered. Lens lip  150  can also comprise a single projection that has no angle or curve whatsoever. In embodiments, lens lip  150  is configured to interface with lip  120  of housing  108 . 
         [0065]    Lens  112  and its components can be made of acrylic to form an acrylic ribbed diffuser, in an embodiment. In another embodiment, lens  112  can be made of acrylic to form an acrylic clear diffuser, in both a basic and a wide specular reflector option. 
         [0066]    One or more lamps  113  can comprise fluorescent bulbs, in an embodiment. In embodiments, lamps  113  T 5  and T 8  bulbs having long life and energy efficiency with uniform lumen distribution. Lamps  113  are configured to be operably coupled to opposing one or more lampholder projections  138 . In embodiments, lamps  113  can number one, two, three, four, or more in an individual housing (and corresponding geartray  110 ). Lamps  113  can be, for example, 4-feet in embodiments. In another embodiment, lamps  113  can be 8-feet in embodiments. 
         [0067]    Referring to  FIG. 3A , Mounting bracket  104  generally comprises a mounting plate  151  having a main surface  152 , a plurality of mounting bracket clips  154 , and one or more gaskets  156 . Mounting bracket  104  is configured to engage housing  108  and/or lens  112 , or any combination thereof, to provide positive, resilient engagement of light fixture  102 . 
         [0068]    Main surface  152  is substantially flat and substantially rectangular, having a length greater than a width, in an embodiment. Main surface  152  is configured to mirror the relative shape of housing  108 , and specifically, elongated body  114 . In an embodiment, then, main surface  152  comprises two elongated sides and two abbreviated sides and is configured to abut the longitudinal axis of elongated body  114 . Other embodiments of main surface  152  can be more or less elongated, depending on the shape of elongated body  114 . Further, the width or abbreviated sides of main surface  152  can be more or less wide, depending on the shape of elongated body  114 . Of course, main surface  152  can comprise any number of shapes and sizes, and need not exactly mirror the shape of elongated body  114 . As depicted in  FIG. 1 , main surface  152  is of a length much less than the length of housing  108 . However, main surface  152  can comprise a longer relative portion of housing  108 , in embodiments. 
         [0069]    Main surface  152  comprises one or more wiring apertures  158 . As depicted in  FIG. 3A , wiring aperture  158  is circular and positioned roughly in the center of main surface  152  along, for example, along an axis B through main surface  152 . Wiring aperture  158  is configured to mirror the relative shape of access aperture  124 . Therefore, in another embodiment, wiring aperture  158  can comprise a square or any other shaped void. In embodiments, wiring aperture  158  is not centered within main surface  152 , and is instead offset along one of the elongated sides or offset along the width of main surface  152 . Similarly, in embodiments, main surface  152  can comprise a plurality of wiring apertures  158 . 
         [0070]    Main surface  152  further comprises a plurality of coupling apertures  160 . Coupling apertures  160  are configured to receive a fastener for securing mounting bracket  104 . In an embodiment, for example, that depicted in  FIG. 3A , coupling apertures  160  are of a type of slotted aperture. In embodiments, coupling apertures  160  can be of a shape other than a slot, for example, a circular void or any other suitable shape. 
         [0071]    Coupling apertures  160  can be configured in myriad positions relative to main surface  152 . In an embodiment, coupling apertures  160  can be positioned with the lengthwise opening of the slot parallel with an elongated side of main surface  152 . In another embodiment, coupling apertures  160  can be orthogonal to an elongated side of main surface  152 . In another embodiment, main surface  152  can comprise some coupling apertures  160  running parallel to an elongated side of main surface  152 , and others running orthogonal to an elongated side of main surface  152 . Of course, in embodiments, coupling apertures  160  need not be perfectly parallel or orthogonal to an elongated side of main surface  152 . In another embodiment, two coupling apertures  160  intersect to form an X or cross shape. In other embodiments, two or more coupling apertures  160  intersect to form other aperture shapes. 
         [0072]    In an embodiment, a plurality of coupling apertures  160  are configured on a single main surface  152 , having for example, eight coupling apertures  160 . As depicted in  FIG. 3A , on one side of main surface  152 , three coupling apertures  160  are configured parallel to an elongated side of main surface  152 , and one coupling apertures  160  is configured orthogonal to an elongated side of main surface  152 . That configuration is mirrored on the opposing side of main surface  152 . In embodiments, there can be more or less coupling apertures  160  per main surface  152 , depending on the application of lighting system  100  and the mounting surface. 
         [0073]    In an embodiment, referring to  FIG. 3A , each elongated side of main surface  152  comprises two mounting bracket clips  154 . A first mounting bracket clip  154  is positioned along the first elongated side at a location proximate the first abbreviated side, for example, proximate an axis C through main surface  152 . A second mounting bracket clip  154  is positioned along the first elongated side at a location proximate the second abbreviated side, therefore distal the first mounting bracket clip  154  along the main surface  152  first elongated side. Similarly, a third mounting bracket clip  154  is positioned along the second elongated side at a location proximate the first abbreviated side, for example, along an axis C through main surface  152 . A fourth mounting bracket clip  154  is positioned along the second elongated side at a location proximate the second abbreviated side, therefore distal the third mounting bracket clip  154  along the main surface  152  second elongated side. 
         [0074]    Each of a plurality of mounting bracket clips  154  generally comprises a leg  162  and a hook  164 . Leg  162 , in an embodiment, comprises a first portion  166  and a second portion  168 , with an angle of projection  170  presented at the junction between first portion  166  and main body  152 , and an angle of extension  172  presented at the junction of first portion  166  and second portion  168 . 
         [0075]    First portion  166  is operably coupled to main surface  152  and projects at an angle of projection  170  from main surface  152 . Similar to the angle of attachment of first and second elongated sidewalls  116   a  and  116   b  to elongated body  114 , the angle of projection  170  of first portion  166  can be greater than 90 degrees with respect to the main surface  152 . However, in embodiments, angle of projection  170  from main surface  152  can be at an angle of 90 degrees or less, depending on the application. Angle of projection  170  generally mirrors the angle of attachment of first elongated sidewall  116   a  to elongated body  114  and second elongated sidewall  116   b  to elongated body  114 . Angle of projection  170  need not perfectly mirror the angle of attachment of first and second elongated sidewalls  116   a  and  116   b , in embodiments, but, as depicted for example, in  FIG. 6 , can be such that the respective first portions  166  of each leg  162  are flush with first and second elongated sidewalls  116   a  and  116   b.    
         [0076]    First portion  166  extends for a length similar to that of the projection of first or second elongated sidewalls  116   a  and  116   b  from elongated body  114 , in an embodiment. The length of first portion  166  is configured to interface with first or second elongated sidewalls  116   a  and  116   b . As such, first portion  166  can be elongated or shortened, depending on the relative projection of first or second elongated sidewalls  116   a  and  116   b  from elongated body  114 . As described above with respect to first and second elongated sidewalls  116   a  and  116   b , first portion  166  can extend for a length shorter than the width of main surface  152 , although lengths of first portion  166  that are shorter or longer than the depiction in  FIGS. 1-3A  are also possible. First portion  166  can be substantially rectangular, in embodiments. 
         [0077]    Second portion  168  extends from first portion  166 . The junction between first portion  166  and second portion  168  creates an angle of extension  172  that mirrors the extension of lip  120  from housing  108 , and specifically, the extension of lip  120  from first elongated sidewall  116   a  and second elongated sidewall  116   b . In an embodiment, angle of extension  172  can be greater than 90 degrees with respect to first portion  166 . However, in embodiments, angle of extension  172  from first portion  166  can be at an angle of 90 degrees or less, depending on the application. As depicted in  FIG. 2 , second portion  168  is orthogonal to main surface  152 , thus creating an angle of extension  172  that is greater than 90 degrees relative to first portion  166 . 
         [0078]    Second portion  168  extends for a length similar to that of the length of lip  120 , in an embodiment. Second portion  168  is therefore configured to interface with any extension of housing  108  beyond first or second elongated sidewalls  116   a  and  116   b . As such, second portion  168  can be elongated or shortened, depending on the relative projection of housing  108  past the termination of sidewalls  116   a  and  116   b . First portion  166  can be substantially rectangular, in embodiments. 
         [0079]    In an embodiment, individual legs  162 , and specifically, individual first portions  166  can be connected by supporting member  174  as depicted in  FIG. 3A , but can also be directly coupled to main surface  152  in other embodiments. Supporting member  174  can span the relative length of an elongated side of main surface  152  that is not spanned by each leg  162  and specifically, each first portion  166  so as to couple individual legs  162  on the same side, together. Supporting member  174  can have a similar or identical angle of projection  170  as that of first portion  166  with main surface  152 . Supporting member  174  can likewise extend from main surface  152  up to or longer than the extension of first portion  166  from main surface  152 . 
         [0080]    In an embodiment, an angle of connection  176  is created between first portion  166  and supporting member  174 . Angle of connection  176  can provide additional stability to individual legs  162 , depending on its measure. Angle of connection  176  between first portion  166  and supporting member  174  can be relatively rounded, as depicted in  FIG. 3A , but can be at sharp angles, in embodiments. The greater the relative angle of angle of connection  176 , the more support to individual legs  162  is provided, until reaching a maximum point of a straight connection between, for example, the junction of angle of extension  172 , and the relative intermediate point of supporting member  174  along an elongated side of main surface  152 . Angle of connection  176  can therefore be varied, depending on the embodiment. 
         [0081]    Hook  164  is located at a distal end of leg  162 , and specifically, the end of second portion  168  distal the end of second portion  168  that extends from first portion  166 . Hook  164  extends back toward main surface  152 , in an embodiment. As such, hook  164  is configured to interface with lip  120 . In an embodiment, a portion of housing  108 , and likely lip  120  can be encompassed on two sides by hook  164  when so interfaced. In another embodiment, hook  164  extends back towards main surface  152 , and then orthogonal to the extension towards main surface  152 , such that a portion of hook  164  extends relatively parallel to second portion  168 . In an embodiment, a portion of housing  108 , and likely lip  120 , can be encompassed on three sides by hook  164  when so interfaced. 
         [0082]    Mounting bracket  104  and its components can be made of can be made of, for example, stainless steel, reinforced polyester, or any non-conductive, insulative, or semi-conductive material or combination of materials. In embodiments, mounting bracket  104  is made of corrosion-protected metal. 
         [0083]    Gasket  156  comprises a ring gasket operably coupled to main surface  152  in a ring surrounding wiring aperture  158 . Gasket  156  can span any length of main surface  152  surrounding wiring aperture  158 , as appropriate. Gasket  156  has a depth that is compressible and configured to interface to the surface of housing  108 , and specifically elongated body  114 . Gasket  156  is therefore configured to provide a seal between the mounting surface, the surface of main surface  152 , and the surface of housing  108 , and specifically elongated body  114 . Such a seal protects wiring aperture  158  and the wiring passing therethrough. In an embodiment, as depicted in  FIG. 3A , gasket  156  comprises a substantially rectangular gasket. In embodiments of main surface  152  having multiple wiring apertures  158 , multiple gaskets  156  can likewise be operably coupled to main surface  152 . Gasket  156  can be made of, for example, neoprene closed cell foam, or any other water-repelling foam, sponge, rubber, or other suitable material. In embodiments, gasket  156  can be made of any other suitable UL approved or tested material. 
         [0084]    Optionally, one or more bumpers  178  can be positioned along main surface  152 . In an embodiment, bumpers  178  are circular, as depicted in  FIG. 3A . In other embodiments, bumpers  178  can be any other shape suitable for the relative main surface  152  to which they are mounted, and for the relative application in which mounting bracket  104  is placed. Each bumper  178  has a depth similar to that of gasket  156  that is compressible and configured to interface to the surface of housing  108 , and specifically elongated body  114 . Because, in embodiments, bumpers  178  are spread along the length of main surface  152 , a relatively uniform compression is achieved when main surface  152  is interfaced with elongated body  114 . Bumpers  178  can be made of, for example, neoprene closed cell foam, or any other water-repelling foam, sponge, rubber, or other suitable material. Bumpers  178  can also be identified as supporting gaskets. 
         [0085]    Optionally, mounting bracket  104  can further comprise one or more fasteners  180  and related mounting hardware. Fasteners  180  and mounting hardware are configured to be received by coupling apertures  160  through main surface  152  and into a mounting surface to secure mounting bracket  104  to the mounting surface. For example, referring to  FIG. 1 , fastener  180  can comprise a screw. Other fasteners are also considered. In embodiments, mounting hardware can further comprise a washer to interface with a portion of main surface  152 , and specifically, the portion proximate an individual coupling aperture  160  to which fastener  180  is positioned through. 
         [0086]    Junction box  106  comprises a frame  182  and a plurality of supply conductors  184 . Frame  182  comprises a box or walled container configured to contain supply conductors  184  and other electrical connections. Frame  182  can therefore comprise any number of shapes. For example, as depicted in  FIGS. 2 ,  5 , and  6 , junction box  106  comprises a square or rectangular container. In another embodiment, junction box  106  can comprise a circularly-walled container. In embodiments, junction box  106  can be made of metal or plastic. In an embodiment, junction box  106  can be recessed in a ceiling or wall, or other mounting surface, such that the mounting surface substantially covers the walls of junction box  106 , but is open or apertured where supply conductors  184  are positioned within. Supply conductors  184  comprise wiring that is configured to carry electric charges. As such, supply conductors  184  are operably coupled to a power supply configured with appropriate power to light one or more lamps  113 . 
         [0087]    In another embodiment, referring to  FIGS. 3B and 4 , a lighting system  200  generally includes mounting bracket  104 , lighting fixture  202 , supplemental mounting bracket  204 , and junction box  206 . 
         [0088]    Lighting fixture  202  comprises housing  208 , geartray  110 , lens  112 , and one or more lamps  113 . Lighting fixture  202  is substantially the same as lighting fixture  102 , with differences described herein. Specifically, lighting fixture  202  comprises an offset access aperture  224  within elongated body  214  of housing  208 , as described above with respect to housing  108 . 
         [0089]    Supplemental mounting bracket  204  can provide additional support for certain lighting fixtures  202  and lighting systems  200  when used alone or in combination with mounting bracket  104 . Supplemental mounting bracket  204  generally comprises a mounting plate  251  having a main surface  252 , mounting bracket clip  254 , and one or more optional bumpers  278 . Additionally, supplemental mounting bracket  204  can optionally comprise one or more fasteners  280 . 
         [0090]    Main surface  252  is substantially the same as main surface  152 , but adapted to be of a size appropriate for supplemental mounting bracket  204 . Main surface  252  is substantially flat and substantially rectangular. In an embodiment, as depicted in  FIG. 3B , main surface has a having a width greater than a length, according to the same measuring style of main surface  152 , in an embodiment. Main surface  252  is configured to mirror the relative shape of housing  208 , and specifically elongated body  214 . Other embodiments of main surface  252  can be more or less elongated, depending on the shape of elongated body  214 . Further, the width sides of main surface  252  can be more or less wide, depending on the shape of elongated body  214 . Of course, main surface  252  can comprise any number of shapes and sizes, and need not exactly mirror the shape of elongated body  214 . As depicted in  FIG. 3B , main surface  252  is of a length much less than the length of housing  208 . However, main surface  252  can comprise a longer relative portion of housing  208 , in embodiments. 
         [0091]    Main surface  252  further comprises a plurality of coupling apertures  260 . Coupling apertures  260  are substantially the same as coupling apertures  260 , but are configured to receive a fastener for securing supplemental mounting bracket  204 . In an embodiment, for example, that depicted in  FIG. 3B  and in the center of main surface  252 , coupling apertures  260  are of a type of slotted aperture. In embodiments, coupling apertures  260  can be of a shape other than a slot, for example, a circular void or any other suitable shape, such as those in the relative corners of main surface  252 . 
         [0092]    Coupling apertures  260  can be configured in myriad positions relative to main surface  252 . In an embodiment, coupling apertures  260  can be positioned in the center of main surface  252 . In another embodiment, coupling apertures  260  can be positioned in the relative corners of main surface  252 . In other embodiments, coupling apertures  260  can slotted apertures parallel or orthogonal to a side of main surface  252 , or comprise X or cross shaped apertures, as described above with respect to main surface  152 . 
         [0093]    In an embodiment, a plurality of coupling apertures  260  are configured on a single main surface  252 , having for example, five coupling apertures  260 , as depicted in  FIG. 3B . In embodiments, there can be more or less coupling apertures  260  per main surface  252 , depending on the application of lighting system  200  and the mounting surface. 
         [0094]    Mounting bracket clip  254  is substantially the same as mounting bracket clip  154 . Supplemental mounting bracket  204  therefore comprises two mounting bracket clips  254 . A first mounting bracket clip  254  is positioned along a side corresponding to an elongated side of housing  208 , and a second mounting bracket clip  254  is positioned along the opposing elongated side of housing  208 . 
         [0095]    Mounting bracket clip  254  generally comprises a leg  262  substantially the same leg  162  and a hook  264  substantially the same as hook  164 . Leg  262 , in an embodiment, comprises a first portion  266  substantially the same as first portion  166  and a second portion  268  substantially the same as second portion  168 , with an angle of projection  270  at the junction between first portion  266  and main body  252  substantially the same as angle of projection  170 , and an angle of extension  272  at the junction of first portion  266  and second portion  268  substantially the same as angle of extension  172 . 
         [0096]    One or more bumpers  278  substantially the same as bumpers  178  can be positioned along main surface  252 . Just as with bumpers  178 , bumpers  278  can be circular, in an embodiment, as depicted in  FIG. 3B . 
         [0097]    Each bumper  278  has a depth similar to that of gasket  156  and bumper  178  that is compressible and configured to interface to the surface of housing  208 , and specifically elongated body  214 . Bumpers  278  therefore allow supplemental mounting bracket  204  to be coupled at the same distance relative to housing  208  as mounting bracket  104 , because the same depth of material is interfaced between main surface  152  and housing  208  as is main surface  252  with housing  208 . Bumpers  278  can be made of, for example, neoprene closed cell foam, or any other water-repelling foam, sponge, rubber, or other suitable material. 
         [0098]    Optionally, supplemental mounting bracket  204  can further comprise one or more fasteners  280  and related mounting hardware. Fasteners  280  and related mounting hardware are substantially the same as fasteners  180 , and are configured to be received by coupling apertures  260  through main surface  252  and into a mounting surface to secure supplemental mounting bracket  204  to the mounting surface. For example, referring to  FIG. 5 , fastener  280  can comprise a screw. Other fasteners are also considered. In embodiments, mounting hardware can further comprise a washer to interface with a portion of main surface  252 , and specifically, the portion proximate an individual coupling aperture  260  to which fastener  280  is positioned through. 
         [0099]    Junction box  206  is substantially the same as junction box  106 , with differences described herein. Specifically, junction box  106  is positioned at a location within the mounting surface such that it is near a wall or other obstruction, for example. In such an embodiment, lighting fixture  202  may not be able to be centered on mounting bracket  104 , and instead is mounted to one side of lighting fixture  202 . 
         [0100]    In operation, referring generally to FIGS.  1  and  5 - 8 , the lighting system installation is done in a direction relatively orthogonal to the mounting surface, for example, along axis A of  FIG. 1   
         [0101]    At a step  302 , mounting bracket  104  is affixed to the mounting surface. Mounting bracket  104  is positioned directly under recessed junction box  106  where lighting fixture  102  is to be installed. Using coupling apertures  160  as a template, one or more fasteners  180  are secured through coupling apertures  160  to secure mounting bracket  104  to the mounting surface. In an embodiment, at least two fasteners  180  are used, with one fastener  180  positioned through main surface  152  at an area proximate a first set of mounting bracket clips  154 , and a second fastener  180  positioned through main surface  152  at an area proximate a second set of mounting bracket clips  154 . In an embodiment, washers contact main surface  152  to provide more coverage area to each fastener  180  than the fastener head. In another embodiment, three or more fasteners  180  are utilized. Mounting bracket  104  is thus operably coupled to the mounting surface, for example, as depicted in  FIG. 5 . 
         [0102]    At a step  304 , lens  112  is then removed from housing  108  by unsnapping lens  112  from housing  108 . In another embodiment, lens  112  is removed from housing  108  by opening or unsnapping latches located on the side of housing  108 . 
         [0103]    At a step  306 , geartray  110  is removed from housing  108  by operation of retaining clips  122 . Specifically, in an embodiment, retaining clips  122  are squeezed together on the top of geartray  110  to free geartray  110  from housing  108 . In an embodiment, a first set of retaining clips  122  are squeezed together to free one side of geartray  110 , then a second set of retaining clips  122  are squeezed together to free the opposite side of geartray  110 . Geartray  110  can then be rotated backwards to expose ballast  140  and fixture wiring  142   
         [0104]    At a step  308 , housing  108  is coupled to mounting bracket  104 . Housing  108  is positioned such that it is centered on mounting bracket  104 . In an embodiment, housing  108  is centered such that mounting bracket clips  154  are positioned just inside latch-mounting members  130  located on the sides of housing  108 . Housing  108  is pushed into mounting bracket  104 , and specifically, main surface  152 . In an embodiment, housing  108  can be secured in mounting bracket  104  by pushing first elongated sidewall  116   a  and elongated body  114  into a pair of mounting bracket clips  154 —a first mounting bracket clip  154  positioned along the first elongated side at a location proximate the first abbreviated side and second mounting bracket clip  154  positioned along the first elongated side at a location proximate the second abbreviated side. Specifically, the angle created by first elongated sidewall  116   a  and elongated body  114  is aligned to angle of projection  170 . Correspondingly, first portion  166  of leg  162  is aligned to first elongated sidewall  116   a  and second portion  168  is aligned to lip  120 . Hook  164  secures the portion of lip  120  coupled to first elongated sidewall  116   a . Angle of projection  170  and angle of extension  172 , combined with hook  164  and the extension of first portion  166 , and the extension of second portion  168  of leg  162  provide resilient engagement of housing  108 . 
         [0105]    Housing  108  can be slightly rotated to push second elongated sidewall  116   b  and elongated body  114  toward main surface  152  until second elongated sidewall  116   b  and the portion of lip  120  coupled to second elongated sidewall  116   b  snaps into a second pair of mounting bracket clips  154 . As the respective hooks  164  of the second set of mounting bracket clips  154  secures second elongated sidewall  116   b , the angle created by second elongated sidewall  116   b  and elongated body  114  is aligned to the respective angle of projection  170  of the second set of mounting bracket clips  154 . Likewise, first portion  166  of leg  162  is aligned to second elongated sidewall  116   b  and second portion  168  is aligned to lip  120 . Gasket  156  and bumpers  178  are compressed and provide a sealed interface to housing  108 . 
         [0106]    Geartray  110  can then be operably coupled to housing  108  via optional tether on geartray  110 , and alignment tab  128 , in an embodiment. 
         [0107]    At a step  310 , supply conductors  184  are connected to fixture wiring  142 . Supply conductors  184  are fed from junction box  106  through mounting bracket  104  via wiring aperture  158  and through housing  108  via access aperture  124 . Supply conductors  184  can then be operably coupled to fixture wiring  142 . In an embodiment, supply conductors  184  are connected directly to fixture wiring  142  comprising a luminaire disconnect. In embodiments, the optional tether holds geartray  110  near housing  108  so as to not overextend fixture wiring  110 , ballast  140 , or junction box supply conductors  184 . 
         [0108]    At a step  312 , geartray  110  is reinstalled into housing  108 . Geartray  110  is repositioned to align with retaining clips  122 . Once so positioned, geartray  110  can be pushed towards housing  108  until it snaps into a locked position. 
         [0109]    At a step  314 , one or more lamps  113  can then be operably coupled to one or more lampholder projections  138  into a final lighting configuration within lighting fixture  102 . 
         [0110]    At a step  316 , lens  112  can be snapped back into housing  108 . In another embodiment, latches can be re-snapped or re-secured to reinstall lens  112 . 
         [0111]    Finally, at step  318 , power can be applied to one or more lamps  113  via supply conductors  184 , ballast  140 , and fixture wiring  140  to illuminate lighting fixture  102 . 
         [0112]    Referring to the embodiment of  FIG. 4  and lighting system  200 , mounting bracket  104  is installed as described above, but lighting fixture  202  is positioned such that housing  208 , and specifically, wiring aperture  258  is aligned with junction box  206 . 
         [0113]    Further, supplemental mounting bracket  204  is positioned in line with mounting bracket  104 , as shown in  FIG. 4  to provide support for the end of lighting fixture  202  distal the end coupled to mounting bracket  104 . As such, subsequent to step  302 , supplemental mounting bracket  204  is affixed to the mounting surface. Referring to  FIG. 6 , using coupling apertures  260  as a template, one or more fasteners  280  are secured through coupling apertures  260  to secure mounting bracket  204 , and specifically, main surface  252  to the mounting surface. In an embodiment, one fastener  280  is utilized, although main surface  252  provides for additional fasteners  280 . Installation can then proceed as described above, with the installer aligning housing  208  into both mounting bracket  104  and supplemental mounting bracket  204 . 
         [0114]    Various embodiments of systems, devices and methods have been described herein. These embodiments are given only by way of example and are not intended to limit the scope of the invention. It should be appreciated, moreover, that the various features of the embodiments that have been described may be combined in various ways to produce numerous additional embodiments. Moreover, while various materials, dimensions, shapes, configurations and locations, etc. have been described for use with disclosed embodiments, others besides those disclosed may be utilized without exceeding the scope of the invention. 
         [0115]    Persons of ordinary skill in the relevant arts will recognize that the invention may comprise fewer features than illustrated in any individual embodiment described above. The embodiments described herein are not meant to be an exhaustive presentation of the ways in which the various features of the invention may be combined. Accordingly, the embodiments are not mutually exclusive combinations of features; rather, the invention may comprise a combination of different individual features selected from different individual embodiments, as understood by persons of ordinary skill in the art. 
         [0116]    Any incorporation by reference of documents above is limited such that no subject matter is incorporated that is contrary to the explicit disclosure herein. Any incorporation by reference of documents above is further limited such that no claims included in the documents are incorporated by reference herein. Any incorporation by reference of documents above is yet further limited such that any definitions provided in the documents are not incorporated by reference herein unless expressly included herein.

Technology Classification (CPC): 5