fig1 shows a front view of a console 10 having a display 13 supported by the shock mount of the present invention . console 10 includes a support structure 12 and an extension 11 for holding a keyboard or the like . “ mounted to support structure 12 is display 13 which has an opaque elastomer bezel 14 having a front peripheral lip 14 a secured to a front face of a visual information displaying surface portion of the display 13 to provide an esthetically pleasing appearance over 360 degrees .” ( emphasis added .) typically , display 13 can be any type of device that presents visual information to a user . fig2 shows a cross sectional view of the console 10 showing the support structure 12 supporting a removable base 20 . removable base 20 include a mounting edge comprising a stepped a peripheral edge 20 a to allow one to position the removable base 20 in a mating peripheral engagement with peripheral extension 12 a on support structure 12 . the sheet elastomer bezel 14 , which extends around the peripheral region of display 13 , has a first peripheral end or display attaching lip 14 a secured to display 13 and a second peripheral end or base attachment lip 14 b secured to removable base 20 through a set of fasteners 23 . supporting display 13 is a first and second elastomer mount 21 and 22 . the shock isolators 21 and 22 each have a first end support surface and a second end support surface with the first end support surface and the second end support surface laterally offset other so that a force on the first end support is cantileverly supported to place the elastomer in a shear condition rather than a compression condition and a force on the second end support is cantileverly supported to place the elastomer in a shear condition rather than a compression condition . elastomer mounts 21 , 22 are preferably of the type shown in my copending patent application ser . no . 09 / 779 , 423 filed feb . 28 , 2001 , titled double triad elastomer mount which is hereby incorporated by reference . the application discloses an elastomer shock isolator that is positioned in the shear or tension mode as opposed to an axial compression mode . such elastomeric isolators provide enhanced shock and vibration attenuating characteristics in response to dynamic forces due to shock and vibration . fig5 is a perspective view of the double triad one - piece shock isolator 30 disclosed in the ser . no . 09 / 779 , 423 for providing shock and vibration attenuation while providing axially offset support to an object . isolator 30 is a one - piece two - tetrahedron elastomer shock isolator 30 that simultaneously isolates shocks and supports a static load . shock isolator 30 has a set of integral elastomer side walls forming a first tetrahedron elastomer shell 31 with a tetrahedron shaped cavity 31 c therein and a second tetrahedron elastomer shell 32 having a set of integral elastomer side walls forming a second tetrahedron elastomer shell with a tetrahedron shaped cavity 32 c therein . a central axis 33 is shown extending through an apex end 32 a of elastomer shell 32 and an apex end 31 a of elastomer shell 31 . fig2 shows apex end 31 a and apex end 32 a are smoothly joined to each other at junction surface 39 to form the one - piece two - tetrahedron elastomer shock isolator . fig1 shows the top tetrahedron elastomer shell 32 has a triangular shaped base end that forms a first support surface 32 b . similarly , the bottom tetrahedron elastomer shell 31 has a triangular shaped base end that forms a second support surface 31 b . the conjunction of the apex ends of the two - tetrahedron elastomer shells provides an integral force transfer region between the triangular shaped base ends 31 b and 32 b of the two - tetrahedron elastomer shells 31 and 32 . in order to provide shear resistance the base ends 31 b and 32 b are laterally offset with respect to the conjoined area 35 ( fig3 ) which occurs at the conjunction of the apex ends of tetrahedron elastomer shells 31 and 32 . that is , a line parallel to axis 33 that extends through base end or first support surface 32 b does not extend through the conjoined area 35 between the apex of the two - tetrahedron elastomers 31 and 32 . similarly , a line parallel to axis 33 that extends through the second base end or support surface 31 b does not extend through the conjoined area between the two apex ends 31 a and 32 a of the two - tetrahedron elastomers 31 and 32 . consequently , forces applied to base ends produce shear within the elastomer . these type of elastomer shock isolator which functions in the shear mode is more fully shown and described in my copending application ser . no . 09 / 779 , 423 is hereby incorporated herein by reference . fig2 shows the elastomer bezel 14 in a slack condition wherein a curvature of the elastomer bezel is visible . that is , bezel 14 is sufficiently long so as to be positioned in a curved condition which is referred to as mounting the bezel 14 in a slack condition . this condition normally occurs around the entire periphery of the display 13 when the elastomer bezel 14 is in the relaxed condition , i . e . a condition where the static forces are supported by the elastomer shock isolators 21 and 22 . fig3 shows a portion of the removable base and elastomer bezel 14 illustrating the condition when shock and vibration forces have displaced display 13 . in this condition , due to downward displacement of display 13 relative to removable base 20 , the elastomer bezel 14 is now in a taut or tension condition . when the elastomer bezel is in a tension condition as illustrated in fig3 further elongation of elastomer bezel is resisted resulting in the bezel 14 coacting with the elastomer shock mount 21 to further inhibit shock and vibration forces . that is , the elastomer bezel is sufficient flexible so as to offer little resistance to flexing when in the slack mode but has sufficient internal integrity to offer substantial resistance to elongation of bezel 14 when the bezel is in the taut condition as shown in fig3 . at the same time the bezel 14 provides an aesthetically pleasing appearance around the peripheral region of display 13 . fig4 shows a partial cross section of the support structure 12 and a side view of the shock isolated unit 30 with removable base 20 and bezel 14 . the peripheral lip edge 20 a of removable base forms mating engagement with the peripheral lip 12 a in support structure 12 a so a user can insert and mount the shock isolated unit 30 into the support structure 12 . this greatly facilitates replacing a display that may malfunction including any shock isolators since the shock isolated unit 30 carries the shock isolator 21 and elastomer bezel 14 as a unitary component . an operator need only secure the removable base 20 to the support structure with fasteners ( not shown ) and attach the display power cable 28 to the console . while the display 13 is shown in a vertical mount the display 13 can be mounted in horizontal or any other orientation with the present invention . the present invention also includes a method of shock isolating a display from a support housing by supporting a display 13 with an elastomer shock isolator 21 positioned on an interior region of a display 13 . one can then secure first peripheral lip 14 a of elastomer bezel to the display 13 . one can secure a second peripheral lip 14 b of the elastomer bezel 14 to the base 20 to thereby provide coactive shock and vibration protection to the display unit . in order to produce coactive shock isolation one mounts the bezel 14 in a slack condition as shown in fig2 so that the elastomer shock isolators 21 and 22 provide primary shock and vibration attenuation and the bezel 14 provides secondary shock and vibration attenuation as the bezel is brought into a taut condition . in addition , the invention can include the step of mounting of the elastomer bezel 14 and elastomer isolators 21 , 22 to a removable base 20 to permit the unitary removable and replacement of the display 13 as a shock isolated unit as well as the step of securing the base 20 to a support structure 12 .