are fabricated such that they intersect at predetermined positions the pressure may be sensed at such intersecting positions according to the above discussed principle and therefore both pressure and positions may be determined as the predetermined positions are known the structures shown in fig1 are correspond to typical coordination systems so that the pressure position mapping fabric sensors may be coordinated with a computer system more easily however other intersecting schemes are also possible provided that the positions of the intersecting points can be determined fig1 shows an enlarged view of the orthogonal intersecting system due to the large number of intersections the intersecting points are relatively stable this is important as this represents a design recoverable structure that the contacting points can be disconnected after the recovery of the deformation as discussed earlier the pressure applied to the intersecting points may be measured in terms of the change in the contacting resistance at the intersecting points a particularly preferred embodiment of the pressure position fabric sensor of this invention is shown in fig1 the sensing yarns the pressuring sensing fabrics as described above interlaces with the insulating fabrics accordingly the overall structural stability of the fabric sensor is enhanced these two orthogonally interlaced systems in the pressure sensor are not limited to fabrics very thin fabric structures such as rope like belt like lace like etc fabricated by crocheting braiding knitting can also be employed to increase the sensitivity mechanical properties stability etc in the pressure fabric sensor of fig1 two systems i e weft and warp yarns thin fabrics are woven orthogonally which create the regularly distributed yarns multi contacting regions in the fabric plane the conductive fabrics used for either one of the warp and weft parts are arranged in parallel.