referring now to the drawings , fig1 shows a perspective view of an electric hair remover 10 showing a power plug 12 , which is plugged in to provide power to the electric hair remover 10 . an ac - dc adapter ( not shown ) converts ac power to dc power for the power plug 12 . the handle 14 of the electric hair remover 10 contains a electric motor 16 , which drives a gear box 18 , as shown in fig1 . the handle 14 also has an on / off switch 20 , which turns power on and off to the electric motor 16 . the head 22 of the electric hair remover 10 has a circular shape and has a circular base 24 , which rotates when the on / off switch 20 is turned on . fig2 is a side view of the electric hair remover 10 showing an abrasive pad 26 removably attached by hooks 28 and loops 30 to the circular base 24 , as shown in fig3 , which is an enlargement of the circled portion of fig2 . in fig3 the loops 30 are shown on the abrasive pad 26 and the hooks 28 are shown on the circular base 24 , but the hooks could be located on the abrasive pad and the loops on the circular base , as desired . the abrasive pad has fine grit on its surface . fig4 a is a bottom perspective view of the electric hair remover 10 showing the abrasive pad 26 attached to the circular base 24 . fig4 b shows the direction of rotation of the abrasive pad 26 when the on / off switch 20 is turned on . the direction of rotation is continual in the same direction and the speed of rotation can be controlled using speed control 32 , which controls the speed of the electric motor 16 , as shown in fig1 . the electric motor rotates the circular base 24 via the gearbox 18 . fig4 c is a diagram showing the abrasive pad 26 rotating in alternating directions . switch 36 is provided to select between continual rotation in one direction or rotation in alternating directions . alternating rotation helps lift the hair to allow it to be easier to abrade . the electric motor 16 rotations are electronically controlled and can be selected to rotate in the alternating directions via switch 36 shown in fig1 . fig5 is a diagram showing the abrasive pad 26 partially removed from the circular base 28 . fig6 a is a bottom perspective view of an electric hair remover 40 having an inner circular abrasive pad 42 removably attached to an inner circular base 44 , as shown in fig1 . fig6 b also shows another outer ring abrasive pad 46 surrounding and concentric with the inner circular abrasive pad 42 and removably attached to an outer ring base 48 , which is surrounding and concentric to the inner circular base 44 . when the on / off switch 20 is turned on , the direction of rotation of the inner circular abrasive pad 42 and the outer ring abrasive pad 46 is shown in fig6 b . the rotation of the inner circular base 44 and the outer ring base 48 are driven from gearbox 52 via shafts 60 and 62 , respectively , as shown in fig1 . to further improve the operation of the electric hair remover , the speed of rotation of the inner circular base 44 and the outer ring base 48 can be controlled via speed controls 54 and 56 , respectively . varying the speed of rotations can be implemented in a number of ways . the most common configuration is to switch between gear ratios in the gearbox 52 to accomplish different speeds . another method is to provide two electric motors 50 with separate drive shafts 64 and 66 , which can be controlled to spin at different rates . the drive shafts via gearbox 52 drive the inner circular base 44 and the outer ring base 48 , respectively . this latter method has the advantage of finer speed control because the electric motors 50 are electronically controlled . fig6 c is a diagram showing altering directions of rotation of the inner circular abrasive pad 42 and the outer ring abrasive pad 46 . switch 36 is provided to select between continual rotation in one direction or rotation in alternating directions , which is implemented by electronic control of the electric motor 50 , which can be quickly reversed . as described above , alternating rotation helps lift the hair to allow it to be easier to abrade . as in the continual rotation in one direction , the speed of alternating rotation of the inner circular base 44 and the outer ring base 48 can be controlled via speed controls 54 and 56 , respectively . again , controlling the speed of the alternating rotations can be implemented by either switching between gear ratios in the gearbox 52 or by providing two electric motors 50 with two separate drive shafts 64 and 66 , which via gearbox 52 , drive the inner circular base 44 and the outer ring base 48 , respectively . this latter method has the advantage of finer speed control because the electric motors 50 are electronically controlled . fig7 is a diagram showing the inner circular abrasive pad 42 partially removed from the inner circular base . likewise , fig8 is a diagram showing the outer ring abrasive pad 46 partially removed from the outer ring base 48 . fig9 a is a bottom perspective view of an electric hair remover 40 having three circular abrasive pads 82 , 84 , and 86 removably attached to three circular bases 72 , 74 , and 76 , as shown in fig1 . when the on / off switch 20 is turned on , the direction of rotation of the three circular abrasive pads 82 , 84 , and 86 is shown in fig9 b . the rotation of the three circular bases 72 , 74 , and 76 are driven from gearbox 122 via shafts 102 , 104 and 106 , respectively , as shown in fig1 . the speed of rotation of the three circular bases 72 , 74 , and 76 can be controlled via speed controls 92 , 94 and 96 , respectively . varying the speed of rotations can be implemented in a number of ways . the most common method of varying the speed of rotations is to switch between gear ratios in the gearbox 122 to accomplish different speeds . another method is to provide three electric motors 120 with three separate drive shafts 112 , 114 and 116 , which can spin at different rates and which via gearbox 122 drive the three circular bases 72 , 74 , and 76 , respectively . this method has the advantage of finer electronic speed control . fig9 c is a diagram showing alternating directions of rotation of the three circular abrasive pads 82 , 84 , and 86 . switch 36 is provided to select between continual rotation in one direction or rotation in alternating directions , which is implemented by electronic control of the electric motor 120 , which can be quickly reversed . as described above , alternating rotation helps lift the hair to allow it to be easier to abrade . as in the continual rotation in one direction , the speed of alternating rotation of the three circular abrasive pads 82 , 84 , and 86 can be controlled via speed controls 92 , 94 and 96 , respectively . again , varying the speed of the alternating rotations can be implemented by either switching between gear ratios in the gearbox 122 or by providing three electric motors 120 with three separate drive shafts 112 , 114 , and 116 , which can be controlled to spin at different rates . this has the advantage of finer electronic speed control by controlling electric motor 120 . fig1 is a diagram showing circular pad 84 partially removed from circular base 74 . while the present invention is described herein with reference to illustrative embodiments for particular applications , it should be understood that the invention is not limited thereto . those having ordinary skill in the art and access to the teachings provided herein will recognize additional modifications , applications , and embodiments within the scope of the present invention and additional fields in which the present invention would be of significant utility . it is therefore intended by the appended claims to cover any and all such applications , modifications and embodiments within the scope of the present invention .
an electrical device removes body and facial hair and dead skin cells by buffing and abrading by rotating motion . the electrical hair removing device has one , two or three abrasive surfaces for pressing against hairy skin to exfoliate the skin and abrade the hair by automatic and continual electronically controlled rotational movement in the same direction . hooks and loops removably attach each abrasive surface to a circular base driven in rotation . the two or three abrasive surfaces can be controlled to rotate at different speeds . the two or three abrasive surfaces can also be controlled to rotate in alternating directions and at different speeds .