in one general aspect of the present invention , is a small battery operated remote controller / radio transmitter ( fig . a ). when a button is pushed , it turns on the transmitter and sends a code to the receiver . commands to open and close the jaws and to turn the light on and off . in another aspect of the present invention , a swivel connection ( fig . b 2 ) is attached at the opposite end of the main housing from the jaws ( fig . b 6 ). the purpose of the swivel connection is that of attaching a cable or line to the device for retrieval and / or manipulation of the device . the end user may attach any aforementioned cable or line adapted to their own particular needs and / or requirements regarding , but not limited to , strength , safety , length , flexibility , size , color , or composition . additionally , any aforementioned cable or line may be connected to any type of extension rod or telescoping rod ( example : a fishing rod and reel design ) for the purpose of extending the operators horizontal reach in addition to present inventions vertical applications . in another aspect of the present invention , a battery powered actuator ( fig . b 3 ) is captivated with an interior space of the main housing ( fig . b 4 ). this main housing construction can be formed with integrally molded structural support and attachment features to secure the movable components in place . in another aspect of the present invention , radio frequencies are monitored for the correct code from the remote radio transmitter ( fig . a ). when the correct code is received , to open the jaws ( fig . b 6 ), it provides power to the actuator ( fig . b 3 ). a small electric motor ( fig . b 7 ) turns a series of spur gears ( fig . b 8 ) that serve as a gear reduction . the last gear drives a rack - and - pinion gear set ( fig . b 9 ) that is the gear end of the actuator rod ( fig . b 5 ). the rack converts the rotational motion of the motor into the linear motion needed to move the actuator rod ( fig . b 5 ) in a direction away from the actuator ( fig . b 3 ) and towards the cooperating jaws ( fig . b 6 ) resulting in their opening in order to grasp an object there between . when the correct code is received to close the jaws , this series of events is reversed resulting in the actuator rod ( fig . b 5 ) moving toward the actuator ( fig . b 3 ) and way from the cooperating jaws ( fig . b 6 ) thus drawing the jaw assembly ( fig . c 14 ) into the secondary housing ( fig . c 13 ) resulting in the constriction and closing together the jaws ( fig . b 6 ) resulting in the jaw assembly ( fig . c 14 ) closing and securely grasping an object there between . in another aspect if the present invention , the actuator rod ( fig . c 11 ) protrudes through the end of the main housing ( fig . c 12 ) into a secondary housing ( fig . c 13 ), generally comprising an elongated shank adapted for a moveable actuator rod ( fig . c 11 ) with cooperating jaw attachments ( fig . c 18 ) that extend beyond the object - grasping and manipulating end ( fig . c 15 ). an operational space is maintained between this housing to accommodate the actuator rod ( fig . c 11 ) and the cooperating jaw attachments ( fig . c 18 ) facilitating transfer of the linear motion of the actuating rod ( fig . c 11 ) assisting in the opening and closing action of the cooperating jaw assembly ( fig . c 14 ) while transitioning through the object grasping and manipulation end of the secondary housing ( fig . c 15 ). in another aspect of the present invention , the actuator rod end ( fig . c 16 ) is proportionally larger than the remaining actuator rod ( fig . c 11 ) maintaining the angle of the attached cooperating jaw prongs ( fig . c 17 ). the cooperating jaw claws are attached ( fig . c 18 ) to the actuator rod ( fig . c 11 ) inward of its end ( fig . c 11 ) extending outward on angle through and past the grasping and manipulation end of the secondary housing ( fig . c 15 ) so as to maintain an open spacing when the actuator rod ( fig . c 11 ) is in the extended open position , a direction away from the actuator ( fig . b 3 ). when the actuator rod ( fig . c 11 ) moves toward the actuator ( fig . b 3 ), the closed position , the individual prongs ( fig . c 17 ) of the cooperating jaw assembly ( fig . c 14 ) are forced together as they are drawn back into the secondary housing ( fig . c 13 ) resulting in a reduction of prong spacing restricted by the secondary housing wall ( fig . c 13 ) thus eliminating spacing between the individual prongs ( fig . c 17 ) of the cooperating jaw assembly ( fig . c 14 ) resulting in its closing assisted in conjunction with the angulations of the tips of the prong ( fig . c 19 ). in another aspect of the present invention , a remote controlled flashlight mechanism . ( fig . b 10 ). the flashlight is turned on and off from the remote control ( fig . a ) to emit a ray of light which will illuminate the work area where the remote controlled pick - up device is being operated . the flashlight can be operated independently . since many modifications , variations , and changes in detail can be made to the described preferred embodiments of the invention , it is intended that all matters in the foregoing description and shown in the accompanying drawings be interpreted as illustrative and not in a limiting sense . thus , the scope of the invention should be determined by the claims and their legal equivalence .
a remote controlled pick - up device adapted for use by individuals from elevated positions , examples of which include , e . g ., a hunter position in a tree stand , a worker on a scaffold or roof , or a police officer or fireman retrieving an object from a storm drain . the device is operated remotely from any desired elevation , enabling the operator to grip or otherwise manipulate objects or articles that are located at a different position in order to retrieve or otherwise reposition them as so desired .