35. The golf club fitting apparatus recited in claim 30, the prescription parameters comprising: a shaft flex inference, where in said shaft flex inference comprises the union of a first shaft frequency and a second shaft frequency, wherein said first shaft frequency comprises the intersection of said SPEED parameter and said TEMPO parameter, and wherein said second shaft frequency comprise the intersection of said SPEED parameter and said FACE ANGLE parameter; a club head loft inference, wherein said club head loft inference comprises the union of a first loft parameter and a second loft parameter, wherein said first loft parameter comprises the intersection of said SPEED parameter and said DYNAMIC LOFT parameter, and wherein said second loft parameter comprises the intersection of said DYNAMIC LOFT parameter and said TRAJECTORY parameter; a lie angle inference, wherein said lie angle inference comprises the union of a club shaft length parameter and an effective lie angle parameter, said club shaft length parameter comprising the intersection of said DYNAMIC LIE parameter and said HEIGHT parameter plus the intersection of said SHOT CHOICE parameter and said SHAFT TYPE parameter, and wherein said effective lie angle comprises said DYNAMIC LIE parameter plus an effective lie angle parameter for a club used to gather said input data; an offset inference, wherein said offset inference comprises the union of said NET ROTATION parameter and said FACE ANGLE parameter, and wherein aid NET ROTATION parameter comprises the union of said HEIGHT parameter and said ROTATION parameter; a bounce angle inference, wherein said bounce angle inference comprises the intersection of said DYNAMIC LOFT parameter and said TRAJECTORY parameter; a swing weight inference, wherein said swing weight inference comprises the union of a first swing weight parameter and a second swing weight parameter, wherein said first swing weight parameter comprises the intersection of said HEIGHT parameter and said TEMPO parameter, and wherein said second swing weight parameter comprise the intersection of said SPEED parameter and said TEMPO parameter; a shaft weight inference, wherein said shaft weight inference comprises W', wherein W'=(((wt.sub.x .times.W1)+(wt.sub.y .times.W2)+(wt.sub.z .times.W3)).div.100), and wherein W1 comprises the intersection of said of said LENGTH parameter and said swing weight inference, and wherein W2 comprises the intersection of said SPEED parameter and said TEMPO parameter, and wherein W3 comprises the intersection of said SPEED parameter and said DYNAMIC LOFT parameter; a bend point inference, wherein said bend point inference comprises the intersection of said SPEED parameter and said DYNAMIC LOFT parameter; a shaft torque inference, wherein said shaft torque inference comprises the intersection of said SPEED date block with the union of said NET ROTATION parameter and said FACE ANGLE parameter; and a grip size inference, wherein said grip size inference comprises the union of a first grip size parameter and a second grip size parameter, wherein said first grips size parameter comprises the intersection of said HEIGHT parameter and said ROTATION parameter, and wherein said second grip size parameter comprises the intersection of said FACE ANGLE parameter and said ROTATION parameter; a frequency gradient inference, wherein said frequency gradient inference comprise the union of a first frequency gradient parameter and a second frequency gradient parameter, wherein said first frequency gradient parameter comprises the intersection of said SPEED parameter and said DYNAMIC LIFT parameter, and wherein said second frequency gradient parameter comprises the intersection of said DYNAMIC LOFT parameter and said TRAJECTORY parameter; a loft gradient inference, wherein said loft gradient inference comprises the union of a first loft gradient parameter and a second loft gradient parameter, wherein said first loft gradient parameter comprises the intersection of said SPEED parameter and said DYNAMIC LOFT parameter, and wherein said second loft gradient parameter comprises the intersection of a parameter comprising a union of said DYNAMIC LOFT parameter and said TRAJECTORY parameter; and a lie gradient inference, wherein said lie gradient inference comprises the union of a first lie gradient parameter and a second lie gradient parameter, wherein said first lie gradient parameter comprises the intersection of said DYNAMIC LIE parameter and said NET ROTATION parameter, said NET ROTATION parameter comprising an intersection of said HEIGHT and said ROTATION parameters, and wherein said second lie gradient parameter comprise the intersection of said SPEED parameter and said NET ROTATION parameter.
30. A golf club fitting apparatus, comprising: a data input interface means for receiving input data; a memory to perform program instructions; an output display; and a processor coupled to said data input interface, said memory, and said output display, said processor being programmed to perform method steps comprising: receiving machine readable input data from an input data source, wherein said input data comprises measurements of parameters for a plurality of swings of a single golf club; normalizing said input data to eliminate aberrant input data; choosing parameters; analyzing the interrelationship of at least two of said chosen parameters to determine inferences therefrom; prescribing golf club chemistries based upon said inferences; said chosen parameters comprising: a SPEED parameter represented by a SPEED data block, wherein said SPEED data block contains measurements of the golf club head speed at the point of impact with a golf ball; a TEMPO parameter represented by a TEMPO data block, wherein said TEMPO data block contains measurements of the time required for the club head to travel from the address position to its impact point with the golf ball; a FACE ANGLE parameter represented by a FACE ANGLE data block, wherein said FACE ANGLE data block contains measurements of the club head face relative to the club head's swing path at the point of impact with the golf ball; a DYNAMIC LOFT parameter represented by a DYNAMIC LOFT data block, wherein said DYNAMIC LOFT data block contains measurements of the actual loft imparted on a golf ball by the club head face at the point of impact with the golf ball, wherein said measurement is taken relative to the ground plane upon which the golfer is standing; a TRAJECTORY parameter represented by a TRAJECTORY data block, wherein said TRAJECTORY data block contains measurements reflecting the club head's vector relative to the ground plane upon which the golfer is standing; a DYNAMIC LIE parameter represented by a DYNAMIC LIE data block, wherein said DYNAMIC data block contains measurements reflecting the test club's indigenous lie angle and the test club's dynamic lie angle at the point of impact; a ROTATION parameter represented by a ROTATION data block, wherein said ROTATION data block contains measurements reflecting the delta from the test club head's static position and the test club head's dynamic position measured as a rotation of the club head about said club shaft's longitudinal axis; and a HEIGHT parameter represented by a HEIGHT data block, wherein said HEIGHT data block contains measurements of the test golfer's physical height.