Prehension is achieved by force producing and form matching elements. The term “gripper” is also used in cases where no actual grasping, but rather holding of the object as in vacuum suction where the retention force can act on a point, line or surface [1]. In another study, a new prosthetic hand is being tested at the Orthopedic University Hospital in Heidelberg Grip which functions almost like a natural hand. It can hold a credit card, use a keyboard with the index finger, and lift a bag weighing up to 20 kg. It's the world's first commercially available prosthetic hand that can move each finger separately and has an outstanding range of grip configurations. The “i-LIMB Hand” is controlled by a unique, highly intuitive control system that uses a traditional two input “Myoelectric” (muscle signal) to open and close the hand’s [2]. The construction of the artificial hand gripper which is each individual powered finger can be quickly removed by simply removing one screw. Thus, the developed prosthetics can easily swap out fingers which require servicing and therefore patients can return to their everyday lives after a short visit to the clinic [3-4]. A three fingered, multi jointed robot gripper for experimental use is presented. The mechanics as well as the control architecture is designed for this special purpose. The gripper system provides the basic means in terms of position and force control to perform experiments about grasping and object motion in a useful way. The gripper can be used to develop and evaluate different approaches of stable grasping and object manipulation. Results of the control of the gripper on joint level, the Cartesian behavior of the fingers and some experiences with the grasping and manipulation experiments using the presented system are reported [5]. Touch Bionics is a leading developer of advanced upper-limb prosthetics (ULP). One of the two products now commercially available from this company, are the “i-LIMB Hand”, is a first to market prosthetic device with five individually powered digits [6-7]. The proposed artificial arm looks and acts like a real human arm and represents a generational advance in bionics and patient care. This paper is the latest research from the author’s previous papers, where the development of an Artificial Hand Gripper (AHG) was successfully developed and tested [8-10]. The aim of this research is to assist handicap individual in providing them with an enhanced version prosthetics that is economical and affordable.