fig1 illustrates a preferred embodiment of the present invention . herein is disclosed a monopod camera mounting device , generally indicated by 10 . as shown in fig2 camera 100 is attached to the monopod 10 via a threaded mounting stud 51 . the threaded mounting stud 51 is located on a proximal end of a camera mounting leg 50 . the camera mounting leg 50 has both a proximal end and a distal end , and provides connection to the top end of supporting pod leg 30 ( described below ). the threaded mounting stud 51 mates with internal threads of a camera mounting slot 101 provided on a camera 100 . mounting in this threading manner may provide additional height of plus and / or minus a few inches as the camera 100 threads up and down the stud 51 . however , one of ordinary skill in the art would recognize that other means of mounting the camera or optical equipment may be employed . the monopod 10 is designed to extend and contract in length as well as provide rotational and angular movement . a series of telescoping junctions 30 a and 30 b , where sections of the supporting pod leg 30 meet , provide the height variations for the device . these junctions also facilitate compactibility and ease of transporting . as two telescoping junctions are disclosed , it is evident that more or fewer sections may be used without departing form the scope of the invention . the camera mounting leg 50 has a distal end which provides mobile coupling to facilitate angular and rotational movement ( described below ). the monopod 10 is equipped with a panning handle 52 , extending from the camera mounting leg 50 , which allows 360 degree rotation in the left and right longitudinal plane . the handle 52 has handgrip 53 for aiding in accurate panning movement . panning handle 52 may extend from the mounting leg 50 , as illustrated , or it may be adapted to be slidably attached along the vertical axis of the monopod 10 by way of a spring loaded clamp . the means of attachment to the monopod 10 may vary in kind and location without departing form the scope of the invention . a remote controller 54 may be affixed to the handle 52 , near the handgrip 53 , for remote operation of the camera device 100 via operation panel 55 . the remote controller 54 may be affixed permanently or removably , eg ., by a hook - and - loop ( velcro ®) type strap mounting . the remote control 54 has a control panel 55 and is electronically connected to the camera 100 via cord 56 at the control port 102 . the distal end of camera mounting leg 50 is connected to a swivel leg 42 which provides the panning action of the handle 52 . a bolt assembly comprised of threaded bolt 45 , bolt cap 43 , wing nut 44 and washers 46 a and 46 b provide the connection to the swivel leg 42 . swivel leg 42 has an upper end having a shaft 45 a provided therein to receive a threaded bolt 45 . supporting pod leg 30 has a swivel shaft 47 formed in its upper end . this shaft 47 facilitates coupling to the mounting leg 50 via swivel leg 42 . the lower end of the swivel leg 42 is smaller in diameter to allow for key - and - notch snug fitting within the swivel shaft 47 . located at the lower end of the swivel leg 42 are key notches 49 formed thereon . these notches 49 are mated to a keyhole channel 48 , to thereby provide swivel motion . the panning motion of the mounting leg 50 can be ceased at any time during recording by actuating set screw 41 . set screw 41 is threadingly received within screw shaft 41 a formed in the swivel leg 42 . the set crew 41 is adjusted within the shaft 41 a to allow friction contact with the swivel leg 42 to thereby cease movement of the leg 42 . to achieve angular movement for tilt motion of the camera 100 , the distal end of the camera mount 50 is configured to threadably receive bolt 45 , which in conjunction threads through swivel leg 42 . the bolt 45 may be tightened or loosened , via adjustments to the wing nut 44 to subsequently allow for free range angular motion or a more restricted movement . the nut 44 may also be tightened to fix the camera at a desired angle during recording . the pod leg 30 has gripping section 40 for clasping by an operator 200 ( as shown in fig6 ) during image recording . one of the novel features of this invention is the apparent ‘ floating camera ’ affect provided by a combination of counter balancing of the mounted weight ( s ) and shock absorption of motion . these functions in combination with full range panning motion and free range angular movement produce an ultimate floating camera recording effect . upper spring support member 34 and lower spring support member 32 are attached to pod leg 30 for absorbing vertical shock of movement by the operator 200 ( fig6 ). a series of springs 36 are supported by the upper and lower members . as in fig2 the springs 36 a - c may be coil springs . the spring series could be other types such as elastic spring columns 37 , as shown in fig3 . also , in lieu of a spring series , an elastic sock may be used to absorb vertical motion . in a preferred embodiment , the spring series consist of four columns of springs , however the number and type of springs employed may vary as long as the function is met , while not departing from the scope of the invention . one or both of the spring support members may be slidably attached to said pod leg 30 . as shown in fig2 the lower member 32 is permanently affixed to the pod leg 30 while the upper member 34 is slidably attached thereto . in this instance , the upper member 34 may have a set screw 38 , which keeps the upper member 34 stationary when torque is applied thereto . located at the bottom of the pod leg 30 is the counter weight assembly . as best illustrated in fig4 - 5a , the assembly has a base 20 formed of a suitable rigid material such as metals , alloys , wood or the like . the base 20 may be rigidly affixed to pod leg 30 or it may be removably attached via a hindge or wing nut or any suitable means ; however the means of attachment may vary as long as the function is met without departing from the scope of the invention . the base 20 has slots 25 formed therein to receive removable weights 24 . the weights are used to offset the weight of the optical equipment at the uppermost part of the monopod 10 . this includes the camera 100 as well as any incidentals such as cords or peripheral equipment . the weights 24 may be formed in a trapezoidal shape as shown in fig5 a . such as shape is advantageous in that is has a higher mass per volume . base 20 is shown in a rectangular shape , however the base may take on other shapes , likewise other shapes outside of a trapezoid may be used to form the weights 24 . the base 20 has friction - enhancing contacts 26 to aid in maintaining placement on a surface . these contacts may be elastomeric , rubberized , or any suitable friction enducing material , discs affixed to the base 20 . fig6 illustrates an operator 200 employing the use of monopod camera mount 10 . one hand is used to grip the pod leg 30 at the grip section 40 . when the monopod 10 is in use on uneven terrain , such as steps , illustrated herein , the camera 100 may experience minimal jostling as the counterweight assembly and spring assembly facilitate steady image recording during movement along steps 80 . further , the purpose of the foregoing abstract is to enable the u . s . patent and trademark office and the public generally , and especially the scientist , engineers and practitioners in the art who are not familiar with patent or legal terms or phraseology , to determine quickly from a cursory inspection the nature and essence of the technical disclosure of the application . the specification is not intended to be limiting as to the scope of the invention in any way . accordingly , the scope of the float cam should be determined not by the embodiments described and illustrated , but by the appended claims and their legal equivalents .