turning to the drawings , fig1 shows a side view of the combination material . gypsum material , plasterboard , woodboard , plastic , metal , wood , or any other combination of commonly used mounting materials may comprise the board 106 . in a preferred embodiment 106 is plasterboard . plasterboard is commonly recognized as a material comprising a rigid board made of layers of fiberboard , paper , or glass matte ( sometimes called paperless drywall ) bonded to a gypsum plaster core , used instead of plaster or wood panels in construction to form walls . the layers and core , which comprise the plasterboard , may be made from a variety of materials . for example , the core may comprise cement , metal , plastic , wood or other materials surrounded by layers of fiberboard , paper , glass matte , fibers , or other compositions . again , the board may comprise plasterboard , plasterboard - like materials , and other materials for paneling such as woodboard , plastic , metal , or polymeric compositions . attached to the board is a solid surface material — such as acrylic polymer , plastic , corian , or other material including especially those materials with minimal porosity — which comprises the outer surface . in some preferred embodiments , the solid surface material is comprised of compounds adapted to allow the diffuse transfer of light , such as to form ambient lighting for an environment . in a highly preferred embodiment , 108 is a solid surface - material comprising an acrylic polymer . normally , plasterboard is spackled . utilization of an adhered or disposed solid surface material obviates the need for spackling . to the combination of 106 and 108 , is a connector 104 ( shown as a male connector , but optionally female or “ neuter ”). in another embodiment , the connector may be a female adaptor . suitable adaptors are well know in the art and include : brackets , push button handle sections , angle adaptors , bolt and socket arrangements , magnetic attachments , sock and ball attachments , and any other device in which an extrusion can be placed in a cavity such that the cavity adheres , cradles , supports , or encloses the extrusion . the adaptors need not be female / male counterparts but can be “ neuter ” as in a magnet - to - magnet coupling . in a preferred embodiment , the adaptors are further adapted to allow translational adjustment of the connection . for example , a female to male coupling would be ideal if after the coupling is made , the female or male adaptor , while remaining disposed in , on , or around its counterpart , can be moved in a direction . such a feature allows the material on which the adaptor is affixed to be adjusted to allow for better fitting of the material . a ball and socket joint may allow such translation adjustment or any other device which allows , by friction or otherwise , the adjustment of the fitting . the joint may be in combination with another adaptor , such as a linear adaptor , or the ball and socket joint or other joint may be linearly extended itself . the adaptor 102 ( shown as female but optionally male or neuter ) is disposed on a frame or other architectural feature 100 . element 50 shows the female to male coupling . the coupling need not be made by a female to male attachment , but may be made by linear ( extended ) elements . fig2 shows a side view , which helps describe the invention &# 39 ; s “ overlapping ” functionality . the combination material 106 and 108 is disposed together in such a manner as to leave an overlap on at least one edge , preferably two or more . note the edges of 106 or 108 may independently be beveled ( 109 ). the overlap is designed to allow additional material to be disposed onto the first material . in a preferred embodiment , the outer material comprises an acrylic or other plastic , which can be heated to allow sealing of the surface , thereby providing a seamless joint . the combination material will have disposed on or in its body frame element 70 / 104 which is attached by a screw or bolt , glue patch , or other affixing means 120 . the frame or architectural feature 100 will have disposed on or in it another frame element 60 / 102 that is affixed by affixing means 122 ( such a bolt , screw , nail , or adhesive ). as such , the composite material may be joined with the attachment point on the frame , i . e . 60 / 102 and 70 / 104 are joined ( optionally they may be permanently joined using adhesive , nails , screws , bolts , and so on ). note , 60 / 70 refer to a mate which has female / male connectivity ( not shown ). 102 / 104 refer to any type of connectivity , such as by linear elements extending along the length of the frame and composite material ( shown ). the composite wall system has a first frame and second frame element or elements . these elements may be , but need not be , male / female or female / male mate - able elements . alternatively , the elements may be any coupling system but preferably are mate - able and adjustable such that the element - to - element fitting may be adjusted to provide a better fit for the board element . mating does not require a male and female element but can occur anytime an element , including linear elements , are disposed onto , interposed with , or interleaved with another element such as a second linear element in such a manner that friction , gravity , or other forces retain the elements together . such other forces can include adhesive forces such as from a glue or joining forces such as from a bolt or screw . additionally , the elements are , in a preferred embodiment , linear elements , meaning the element extends along an axis , such as , for example , a point on the far left portion of a frame to a point on the far right portion of a frame , thereby providing uniform , high - holding strength . the element systems are preferably metal , especially light - weight and high - strength metals . the board wall panel can be a number of compositions and in an exemplary embodiment is plasterboard , gypsum , or gypsum - composite since these are commonly used materials for installation of walls . the board wall panel is affixed onto a solid surface material . fig3 shows a front and side view of the invention disposed on a frame . in a preferred embodiment , the adjoining means is extended in one direction to provide , for example , the horizontal ( parallel to ground ) frame element 60 / 102 which is attached to frame 100 . the frame element 60 / 102 on frame 100 mates or joins with its complementary frame element 70 / 104 attached to the combination material 106 & amp ; 108 . the disposing means need not be extended but can be a point - to - point adjoinment . when extended , it can extend in any direction , such as vertically or at an angle . fig4 and fig5 show various views of another embodiment of the invention in which the composite wall material has been adapted for placement in a corner . as can be seen in the drawing , the materials comprise curves that make them suitable for placement in corners . this aspect of the invention , when used in conjunction with the linear , i . e . non - curved , elements of the invention , can be used to provide a room in which all surfaces in the room have been covered by the material providing an environment that has seamless seals at all conjunction points . this is of particular benefit in environments where sterility and cleanliness are a concern . fig6 shows a side - view detailing an exemplary and preferred embodiment of the attachment system . the system comprising the composite panel may be mounted to metal or other studs ( using , e . g ., a screw , bolt , or other joining means 122 ) on an existing frame such that the composite panel hangs on a clip rail and allows the composite panel to slide along a railing attached to an existing frame until the panel engages a panel next to it . the clip rail need not , however , be attached to a stud . any architectural feature can comprise the frame for attaching the clip rail . for example , the clip rail could be mounted to an existing wall , such as masonry walls or even walls that already contain plasterboard or other materials such as for fire , sound , or other insulation purposes . the clip rail only requires a surface or feature providing an attachment point such as by use of a screw , bolt , adhesive , nail , or other joining means . engagement between adjoining composite panels occurs via the overlapping edges , which may be beveled , on the complimentary solid surfaces . the exposed plasterboard or other material on the right side of the panel thus mounted can then be fixed to the metal studs ( or other architectural feature ) with a joining means , such as a screw , nail or adhesive , before the next panel is mounted , slid to adjoin the now fixed panel , and then again fixed to studs ( or other architectural feature ) on or of the frame . non - metal studs may also be used , such as high - strength plastic studs or studs made of other high - strength materials sufficient to securely hold the composite wall panels into place . with particular reference to the elements in fig6 , it can thus be seen that linear frame element 70 is disposed onto linear frame element 60 , such that the force of gravity and friction , among other forces , are helping maintain the connection between elements . the particular structure of linear elements 60 and 70 shown in fig6 is preferred because it provides a simple means for joining two elements together . further , the connection between the frame elements does not need glue or other joining means since the action of gravity , friction , and the squeezing of one frame element by the other provide sufficient rigidity and strength to keep the elements in place . the elements may slide , however , along the length of the linear element ( such as to allow adjustment for perfect fit ). a final bolt , screw , adhesive , or other similar joining means may be disposed in , through , or on the linear elements to secure them permanently into place . this is not necessary though since adjoining board elements , i . e . other panels that are placed on the linear frame elements , may exert sufficient lateral force to keep the elements in place . for example , if the panels are secured around all four walls of a room , there is sufficient frictional and other force to prevent the panels from moving laterally under normal forces . again , fig6 shows linear frame elements for mating comprising a flat panel having an angled extrusion , said angled extrusion adapted to squeeze the second angled extrusion on the second flat panel of the second linear frame element , said squeezing occurring by the force of the angled extrusion onto the second angled extrusion and the force of the flat panel onto the second angled extrusion , and the force of the second angled extrusion onto the angled extrusion and the force of the second flat panel onto the angled extrusion . bolts , screws , or other similar joining means 122 are shown joining the elements to the frame , as by connection to studs ( not shown ). bolts , screws , other joining means 120 attach the other linear element to the board material . the bolts or screws need not extend into the solid surface material as shown in fig6 but may go only so far as the thread 130 . solid surface material 108 may be joined with the board material 106 either by a bolt or screw or by an adhesive layer 140 interposed between the solid surface and the board element . the adhesive layer may comprise insulation , such as electromagnetic insulation , including lead or other radiation barriers , or the adhesive layer may be absent and the interposed layer comprise only insulation . the insulation , if present , may comprise thermal or sound barriers as well . in one alternative embodiment , the intervening layer may comprise kevlar or other very high strength materials adapted to prevent projectiles from puncturing the material . fig7 shows another front view of an embodiment of the present invention . here , the overlapping edge 200 of the solid surface material 108 and the overlapping edges 200 of the board element are shown . studs 90 ( which alternatively could be any other architectural feature such as a wall board or other panel ), such as those that may be found on the frame to which the panels are attached , provide a point at which the linear frame elements 80 may be attached . as can be seen in the figure , the solid surface panel can be slid along the linear frame element onto the frame . at this point it can be fixed in place and additional panels installed , their edges overlapping to provide a seal . fig8 provides a detail view of frame elements 60 and 70 mated together . bold lines indicate points of touching between the two elements in this embodiment . most touching occurs on the angled extrusion . the angle can be narrow , such as 10 degrees between the plane and the extrusion or wide such as 45 degrees are more . in a preferred embodiment , the angle is adapted to maintain a center of gravity such that the board panel elements are retained , i . e . the mate is maintained by action of gravity , friction , and squeezing forces . pressure , such as from force points 300 and 302 , which arise by action of gravity , by friction , and squeezing forces between points of touching on the panel provide the means for retention of the mate but allow lateral translation . such lateral translation would occur , in one embodiment , by slightly lifting the top element , sliding it , and refitting the top element to mate with the bottom element . in the foregoing description , certain terms and visual depictions are used to illustrate the preferred embodiment . however , no unnecessary limitations are to be construed by the terms used or illustrations depicted , beyond what is shown in the prior art , since the terms and illustrations are exemplary only , and are not meant to limit the scope of the present invention . it is further known that other modifications may be made to the present invention , without departing the scope of the invention , as noted in the appended claims .