fig1 shows a simulated octopus p . the simulated octopus p includes eyes 2 and 4 and a mouth or a beak 6 . a bandage 8 is provide to give the simulated octopus p a unique appearance . the simulated octopus p includes a housing h comprised of connected shell members 10 and 12 . a ring gear 14 supports a series of tentacles 16 . decorative ear pieces such as shown at 18 on the left side of the simulated octopus p are provided to enhance the visual effect . further to enhance the visual effect , simulated suckers 20 are provided on the tentacles 16 . fig2 shows a substantially circular base platform 22 includes an upper surface 23 and lower surface 23 &# 39 ;, and . base platform 22 supports a battery compartment 24 housing batteries 26 best shown in fig4 . the battery compartment 24 includes a removable cap 28 to lock the batteries 26 therein . an on / off 29 is located on the lower surface 23 &# 39 ;. the base platform 22 supports a transmission 30 which may be of any typical forward - reverse transmission utilizing a combination of varying sizes and shapes of gears and cams ( not shown ) but illustrated in the provisional application aforementioned . secured to the shell 12 is a speaker or light or combination of speaker and light 32 . the speaker or light or combination speaker and light 32 are connected by wires ( not shown ) to the source of power , batteries 26 . bolts 34 are provided in sleeves 36 and 38 for clamping the shells 10 and 12 together . the base platform 22 through the transmission 30 and battery compartment 24 supports upper and lowers slot forming members 40 , 42 , 44 and 46 , shown in fig4 . shells 10 and 12 are provided with flanges 48 and 50 as best shown in fig4 which engaged the slots 52 and 54 of the slot forming members 40 , 42 , 44 and 46 so that when the shells 10 and 12 are bolted together , they will be held by the support platform 22 , but allowed to move vertically relative to support platform 22 in the slots 52 and 54 as will be here - and - after described . tension springs 56 and 58 maintain the shells 10 and 12 in the upward position in the slots 52 and 54 under normal conditions . as best shown in fig2 a reverse spring loaded micro - switch 60 is provided on the base support 22 . plates 62 and 64 are fixed to the shells 10 and 12 . beneath plates 62 and 64 is a pressure plunger 66 which engages the pin 68 of the micro - switch 60 when the shells 10 and 12 are downwardly depressed by manually pushing downward on the shells or by utilizing a stick or the like to push down on the shells 10 or 12 . motor m , best shown in fig2 includes means ( not shown ) for driving the pinion 70 and in slot 71 , the friction drive wheel 72 . slot 71 is centrally positioned in the base platform 22 ( fig2 and 6 ). ring gear 74 is engaged by the pinion 70 . the ring gear 14 includes pins 76 which support the appendages , namely the tentacles 16 . an upper annular plate 78 forms a part of the ring gear 14 and is secured thereto by screws 80 best shown in fig4 . plate 78 is mounted on the periphery of base platform 22 . the tentacles 16 swing freely on pins 76 in slots 82 as best shown in fig1 . referring now to fig3 a solenoid s may be provided in the housing h for depressing the pressure plunger 66 against the micro - switch pin 68 to reverse drive of the ring gear 14 . it is to be noted that the friction drive wheel 72 has its plane transverse to the plane of the face on shell 10 ; namely , the eyes 2 , 4 and the beak 6 . to operate the simulated octopus p or other simulated devices on surface x utilizing the invention as set out , the on / off a turns the power on from the power source 26 to the motor m . it may also turn on the light display and audio or combination of both 32 . in the mechanical version just described , pushing down on the housing h will cause transmission 30 to mechanically reverse through mechanical linkages well known by a cam operation . using a transmitter tm , and activating the on / off a and the on / off b , the reverse mechanism control rmc will cause the motor m to drive in a reverse direction and therefore the transmission 30 to reverse the friction drive wheel 72 as well as the pinion 70 so that the ring gear will reverse direction and the device will change direction of travel . the unit is also controlled by a speed control through an on / off c from the transmitter tm , which can either slow down or increase the speed of the motor m as desired . a time control tc can be used to maintain a direction of travel for a set period . the gear train in housing h can be so designed as to include a segment gear or a cam mechanism ( not shown ) to change the direction of travel of the friction drive 72 as well as the pinion 70 . this can also be controlled by the on / off c which will permit change in the speed control sc through the transmitter tm . it will now be obvious that various actions of the simulated octopus p can be worked out depending upon the gearing in the reverse mechanism rm and speed control sc , and time control tc relative to the transmission 30 or motor m drive . to be more specific in the operation , when motor m is turned on , friction wheel 72 and pinion 70 will rotate in the same direction . the pinion 70 will drive the ring gear 14 in a rotational direction at a speed determined by the speed control , thus moving the octopus p in a first rotary direction because of a tilt of the base platform 22 and frictional engagement with the surface x on which the octopus p is placed . when housing h is depressed creating tension on the springs 56 and 58 , the drive motor m will be reversed causing the pinion 70 and friction wheel 72 to rotate in reverse direction . the pinion 70 , now rotating in a second direction , will cause the ring gear 14 to rotate in the reverse direction to which it was initially . the speed of the rotation will dependent upon the speed control sp and for a period of time which is set byte reverse mechanism control rmc and the time control tc . while this invention has been described as having preferred design , it is understood that it is capable of further modification , uses and / or adaptations following in general the principle of the invention and including such departures from the present disclosure as come within known or customary practice in the art to which the invention pertains , and as may be applied to the essential features set forth , and fall within the scope of the invention or the limits of the appended claims .
a motor driven surface engaging multi directional and surface translating amusement device which simulates a creature of the sea or land , or a robot which has forward , reverse or rotational movement across a surface and which forward and reverse movement may be interval - cycling timed including forward - reverse speed control .