fig1 , 2 , and 3 show a shoe sole 10 constructed from an elastically deformable material . the sole has a base surface 12 that is substantially smooth and flat with a front portion of the base 14 corresponding to the toe area of the sole and a rear portion 16 corresponding to the heel area of the sole . molded as an integral part of the sole are projections 18 , 20 , 22 , 24 , 26 , 28 , 30 which extend beyond the base surface 12 in varying shapes , contours , and heights . fig1 shows , at the front portion of the sole 4 , five small projections 18 , 20 , 22 , 24 , and 26 . the size , shape , and location of the projections correspond to the bottom tips of the toes of a human foot . other large projections 28 , 30 cover a substantial part of the sole 10 , from the heel area to the area of the sole corresponding to the ball of the foot . the projections are not necessarily uniform in the heights 24 a , 28 a , 37 a and 34 a by which they extend from the base surface 12 , as seen cross - sectionally in fig5 . the height of any projection varies in relation to the variation in the three - dimensional anatomy of the human foot . the variation in projection height can also be based on the respective magnitude of force applied to the respective areas of the sole during walking or athletic activity . for example , the projection height 28 a at the heel is greater than the projection height 34 a at the instep . this variation in projection height , based on the anatomy of the foot , results in some areas on the outer sole where little or no projection occurs , leaving gaps and recesses 32 , 36 as shown in fig1 . these recessed areas 32 , 36 correspond to the areas of a human foot that do not necessarily directly contact the ground when a person is standing , such as the instep , and the areas between and behind the toes . these recessed areas of the human foot are very important to the acts of walking or running , however , because they allow the toes to grip the ground or floor surface when force is applied when walking , thereby creating superior traction . similarly , the recesses 32 , 36 in the invented sole allow the ground - engaging projections to adequately deform based on the force or stress applied by the wearer of the shoe . this deformation also supplies superior traction and a more natural feel for the wearer of the shoe . fig4 shows an enlarged view of the outer surface of the projections corresponding to a little toe 18 , and a volar surface of large projection 38 on the base 12 . integrally formed on all ground - engaging outer surfaces of all projections are a plurality of small ridges 40 that simulate the characteristic footprint of human skin . these small ridges , which are similar to dermal ridges , allow the ground - engaging surfaces of the elastically deformable sole to better grip the walking platform thereby creating superior traction . the best mode of carrying out the invention is accomplished where the gripping and traction surface is an integral part of the shoe sole 10 , which is constructed of an elastically deformable material that is common to athletic shoes , such as rubber , pvc , polyurethane , or any suitable synthetic elastomeric substance . the shoe sole can be formed as a single layer , where the sole is cast or injection molded directly to the upper part of the shoe to integrally incorporate all of the features of the gripping pattern , including the base , projections , recesses , and ridges . alternatively , the sole can be formed as a laminate having two or more layers , wherein the outer layer of the sole is cast or injection molded to integrally incorporate all of the features of the gripping pattern , including the base , projections , recesses , and ridges . fig6 is an inner perspective side view of a right bootie 90 having a gripping surface pattern embodying the present invention , wherein the bootie has a unitary outer sole 10 formed by integrally bonding a very flexible rubbery layer imbued with the natural grip to an inner sole ( not shown ), where the inner sole is a layer of conformable fabric impregnated material . four of the five small projections 18 , 20 , 24 , and 26 are shown . the middle toe 22 is not visible from this view . the large projections , the heel 28 and the ball 30 and the small projections are on base 12 . fig7 is an enlarged substantially plan view of a portion of the invention shown in fig1 , illustrating the complexity of small ridges which faithfully reproduces the dermal ridges which make up the surface texture of the skin of a human foot . the area shown in fig7 is the area of the ball 30 of the foot . note that the small ridges comprising the outer surface of the outer sole mimic the dermal ridges that form the skin pattern of the human foot to further improve traction . the small ridges can generally be categorized into five shapes , where a shape is optimized to either permit angular rotation or to increase traction , and the shape generally has some associated regional specificity . the five categories are lateral traction , backward traction , forward traction , forward pivoting and rearward pivoting . lateral traction ridges 39 increases resistance to lateral slippage , forward traction ridges 40 increases resistance to backward slippage , backward traction ridges 41 increases resistance to forward slippage , and forward pivoting ridges 31 enables angular rotation on the ball of the foot . the rearward pivoting ridges 45 , as seen in fig1 which enable angular rotation on the heel of the foot , are less specifically defined . in general , maximum resistance to slippage is attained when the small ridges are aligned substantially perpendicular to the direction of the force , and minimum resistance to slippage is attained when the dermal ridges are aligned along the direction of the force . therefore , at pivot points , such as the ball 30 of the human foot , the small ridges like dermal ridges are substantially concentric rings 31 . from inspection of fig1 , lateral traction is enhanced when the dermal ridges 39 have a slightly angular orientation from the midline . the orientation is a composite to reduce lateral slippage and backward slippage . the dermal ridges on the toes 18 , 20 , 22 , 24 , and 26 are oriented with primarily with traction ridges and some component of lateral ridges . the dermal ridges just in front 40 of the ball 30 are substantially pure forward traction ridges . these ridges 40 undergo elongation minimizing backward slippage . the dermal ridges to the rear 41 of the ball 30 are substantially pure backward traction ridges . the ridges 41 undergo elongation minimizing forward slippage . the ridges concentrated at the ball of the foot 30 are substantially of the pure forward pivoting type , wherein the ridges are substantially concentric rings that are angularly aligned with the rotation , and are therefore less susceptible to distortion . these naturally occurring patterns are of a human appendage , and as such are non - uniform anatomical features cannot be geometrically characterized . the center of heel 28 is similar to the ball 30 , except that the weight is shifted to the rear , therein enabling rearward pivoting . the rear pivoting ridges are only partially defined for angular rotation . fig9 is a side view of an athletic shoe having an outer sole that is a laminate embodying the present invention . the outer sole 10 is comprised of an external layer 116 having a base 112 with projections and an underlying support layer 113 a . the support layer 113 a is a relatively stiffer layer with projections that correspond to the supporting bones in a foot , and in a similar fashion , where the bones of toes are covered with a dermal layer , likewise the stiffer layer 113 a is covered with a more pliable layer 112 . the major projections of the laminate outer sole 110 are the heel 128 and the ball and the surrounding area 138 . the minor projections at the front of the outer sole 114 correspond to the toes 118 , 120 , 122 and 124 of a human foot . the big toe is not visible in fig9 . the projections in the stiffer layer and the superimposed projections in the flexible layer form a surface having traction characteristics that are similar to a human foot . the outer sole 10 has the outward appearance of the shoe illustrated in fig2 . the projections originating in the relatively stiffer layer act similar to bones , and enable force to be move directionally precise ; that in a sense act somewhat like prosthetic projections of the bones of the foot . fig1 is a cross - sectional view of the laminate sole taken along sectional line 10 — 10 of fig9 illustrating a stiffer layer 113 a with support projections , wherein the stiffer layer is covered with an elastically deformable layer having a natural grip outer surface . the cross - sectional view illustrates the laminate 10 . as can be seen in fig1 , the relative thickness of the flexible layer 112 is nearly constant at the major projections 137 and 128 , as well as at the minor projections , 124 and 122 , and the recessed areas , 132 and 134 , as indicated by the ( respectively double arrows 122 a , 124 a , 128 a , 132 a , 134 a and 137 a ). the stiff layer 113 a above the projections is proportionately thicker so that the total thickness is comparable to those projections shown in fig5 for the unitary sole , and indicated by 22 a , 24 a , 28 a and 37 a . the shoe sole 10 illustrated in fig1 depicts an outer sole 4 with a base 12 with at least one hand print 13 . the outer sole 4 has a forward hand print 13 ′ and rearward hand print 13 ″. the shoe sole 10 shown in fig1 is a composite of projections 26 ( big toe ), 24 , 22 , 20 and 18 ( toes ) and large projection 30 . the rear of the base 12 has a portion of a footprint taken from the ball 31 of the foot ( fig7 ). in the area corresponding to the arch , the base 12 of the outer sole 4 has a small representation of a hand print 13 . referring to fig1 , which is plan view of a pair of sandals 200 . the outer soles 4 of the sandals have multiple hand prints 13 from the palm side of a human hand , wherein the natural grip of the human hand , is reproduced substantially exactly in the external surface of the outer sole 4 . the outer sole 4 is a unitary sole , wherein the natural grip is a coextensive surface that is integral to the unitary sole 10 . fig1 is similar to fig1 , albeit the outer soles of the sandals 200 have multiple footprints 11 integral to the outer sole 4 . the present invention can be applied not only to footwear to be worn by humans , but also to any application where gripping traction is required , such as on gloves , tools , legs , arm members of automated machinery or robots . the development of technologically advanced machinery capable of carrying out mechanical tasks continues to expand . the invented gripping and traction pattern can be attached to any element of a device or machine in which superior gripping ability or traction is desired . fig8 is an isometric view of a mechanical gripping device 71 , where the surface texture of the rubber fascia plates 72 , have the texture of a human foot . the dermal ridges are selected to prevent slippage , and are incorporated into the facial surface texture of the plate . the specific type of ridges are selected to improve gripping ( resistance to slippage ) in at least one direction . the mechanical gripping device 71 shown in fig8 has one or more articulating jaws 70 , where a jaw is inner fitted with an elastically deformable and compressible material , such as rubber used in shoe soles . the gripping and traction pattern can be formed of any material suitable for use on the article to which it is to be attached ; for example , the pattern for use on the sole of a shoe can be made of leather . from the foregoing , it is readily apparent that i have invented a surface or pattern which enhances the gripping or traction of articles to which it is formed or attached , namely footwear , handwear , and mechanical gripping or traction devices , and which provides a more natural and comfortable feel for the wearer . similarly , i have invented an improved surface for the gripping or traction portion of a shoe , glove , or mechanical gripping device which provides superior gripping ability and a natural feel . it is to be understood that the foregoing description and specific embodiments are merely illustrative of the best mode of the invention and the principles thereof , and that various modifications and additions may be made to the apparatus by those skilled in the art , without departing from the spirit and scope of this invention , which is therefore understood to be limited only by the scope of the appended claims .