as shown in the accompanying drawings for purposes of illustration , the present invention resides in a remote - controlled device having mechanical movement that replicates a walking insect having six legs . it has been found that for such a device to have a natural insect look it should seem to float or hover , requiring the legs to balance the body as it moves . it is the purpose of this invention to provide a remote controlled mechanical bug 10 having movement that replicates a walking insect . it will walk over uneven surfaces and on inclines . with reference to fig1 - 25 , the device 10 has five spur gears . one of these gears is a drive gear 12 with sixteen teeth 12 . the other four gears 14 each have seventy - two teeth . the drive gear 12 is smaller than the larger gears 14 . the four large gears 14 have their axis in a straight line . the large gears 14 includes a push gear 16 and three tile gears 18 . as the drive gear 12 rotates clockwise , the next gear ( i . e ., the push gear 16 ) rotates counterclockwise , and the tile gear 18 next to the push gear 16 rotates clockwise , causing the adjacent tile gear 18 to rotate counterclockwise , which causes the last tile gear 18 to rotate clockwise , as shown in fig4 and 5 . the push gear 14 drives the last three gears ( tile gears ) and the two wire shuttles ( i . e ., the upper shuttle 20 and the lower shuttle 22 ). naturally , the direction the gears 12 , 14 appear to rotate depends on the orientation of the viewer with respect to the device 10 . a drive mechanism ( not shown ) connected to the drive gear 12 causes the drive gear 12 to rotate , which in turn causes the other gears 14 to rotate and the shuttles 20 , 22 to move . this drive mechanism may be an electric motor that may be battery - powered or , alternatively , the motor may be solar - powered by a solar cell placed on the device 10 . the drive mechanism may also be a spring - loaded wind - up mechanism . the push gear 16 has a cylindrical shim 24 affixed to each of its sides with a smaller cylindrical post 26 affixed to each shim 24 . these posts 26 are placed about half way out from the center of the gear 16 and are diametrically opposed . if the post 26 on one side of the push gear 16 is down , the post 26 on the other side of the push gear 16 will be up . each of the three tile gears 18 have identical posts 26 with identical placement but without the cylindrical shim 24 . the four large gears 14 are about ¼th as thick as they are wide and are confined within but not restricted by a close fitting rectangular cabinet or housing 28 that is slightly thicker than the gears . the four large gears 14 are laid in the device 10 such that the posts 26 on one side of the housing 28 are alternately , down , up , down , and up from back to front . consequently the posts 26 on the other side of the device 10 will be up , down , up and down . six engineered tiles 30 are laid on the three tile gears 18 , each with a horizontal slot engaging the post 26 on the respective gears side . eight “ t ” bars 32 of the height of the housing 28 are then attached to the housing 28 vertically and centered equidistant from the axis of the tile gears 18 . the two “ t ” bars 32 closest to the push gear 16 are relieved to accept the cylindrical shim 24 on the push gear 16 . the “ t ” bars 32 are the same thickness as the cylindrical shim 24 so as to form a flat plane on both sides of the housing 28 . rectangular plates 34 are affixed above and below the tiles 30 . the plates 34 are nominally wider than the plane described by the “ t ” bars 32 and act as stiffeners and as slides for the wire shuttles 20 , 22 . the shuttles 20 , 22 are two identical wire frameworks that loosely engage the posts 26 on each side of the push gear 16 and the slides upon which they are drawn . each shuttle 20 , 22 appears to be inverted on its long axis from the other shuttle 20 , 22 . each shuttle 20 , 22 has four wire loops 36 set at right angles to the slide on which they are to be drawn in a reciprocating fashion . the rear most loop 36 on each shuttle 20 , 22 is loosely attached to the posts 26 of the push gear 16 so that when the push gear 16 is rotated one full turn , the post 26 on one side of the push gear 16 will travel up and down within the confines of the loop 36 of the upper shuttle 20 , which causes the upper shuttle 20 to move forward and backward . during this rotation , the corresponding post 26 on the other side of the push gear 16 will move down and up within the confines of the loop 36 causing the lower shuttle 22 to move backward and forward . the remaining three loops 36 on each shuttle 20 , 22 will , in the case of the lower shuttle 22 , be situated touching the front of the first and third tile 30 on the starboard side and the second tile 30 on the port side . in the case of the upper shuttle 20 , the loops 36 will be situated touching the first and third tile 30 on the port side and the second tile 30 on the starboard side . the tiles 30 move vertically upward and downward as the tile gears 18 rotate . as the push gear 16 is rotated via the drive gear 12 , the shuttles 20 , 22 will reciprocate horizontally , in opposing directions , all at the same rate . thus far , a mechanical movement having six tiles 30 with inverted semicircles has been described . each of these tiles 30 will be assigned an oar - lock bracket 38 and a leg 40 . the oar - lock brackets 38 will be fixedly attached by screws to the “ t ” bars 32 ( via threaded bores in the “ t ” bars 32 ) between the tiles 30 so as not to encumber the movement of the loops 36 of the shuttles 20 , 22 . each leg 40 will swivel on a horizontal pivot 42 which will swivel on a vertical pivot 44 directly beneath . each oar - lock 38 sits at the same distance from its respective tile 30 and is centered at the axis of that the gear 18 of that particular tile 30 . a horizontal wire end 46 of the leg 40 is inserted through its respective wire loop 36 on the shuttle 20 , 22 and into the confines of the semicircle almost touching the back wall of the cavity therein , as seen in fig2 . the vertical pivot 44 is inserted into the oar - lock 38 and secured so that it cannot lift out , but will swivel . a pin 48 inserted through a bore 50 in the leg 40 secures the leg to the horizontal pivot 42 . this is repeated for the other five legs 40 . a contact end 52 of the leg 40 contacts the surface the device is traveling on . when the drive gear 12 is rotated 180 ° legs 1 , 3 and 5 will arch forward as legs 2 , 4 and 6 travel backward in a horizontal plane . further 180 ° rotation in the same direction causes legs 1 , 3 and 5 to return in a horizontal plane and legs 2 , 4 and 6 to arch forward thus causing one step forward for every full rotation . the device 10 may be covered with a decorative facade ( not shown ) that is meant to mimic the appearance of an insect . the device 10 is remote controlled by standard remote control units , such as a radio frequency ( rf ) or infra - red ( ir ) controller . appropriate receiving circuitry is located within the device and electrically , electronically , and mechanically connected to the drive mechanism connected to the drive gear 12 . the device 10 may further include a processor with a memory that is capable of storing a series of programmed commands for operating the device 10 . although the embodiment has been described in detail for purposes of illustration , various modifications may be made without departing from the scope and spirit of the invention . accordingly , the invention is not to be limited , except as by the appended claims .
a mechanical bug includes a housing ; a gear mechanism within the housing ; and at least six legs extending from the housing , each leg having a first end operationally associated with the gear mechanism such that movement of the gear mechanism also moves the leg . the at least three legs move backward in a flat plane while at least three other legs arch upward and forward before returning again in the flat plane , causing the mechanical bug to remain level and steady as the mechanical bug walks forward .