Interlaced embodiments can be produced in a variety of ways. Consider, for example, the simplest embodiment to which the analogy to interlocking rings has been made. To produce such an interlaced structure, the first and second components can be die cut as monolithic elements. One of the two components can then be cut, interlaced with the uncut component, and the cut can then be repaired, for example, with adhesive or some other appropriate means. As an alternative method for producing the simplest interlaced embodiment, one component can be die cut monolithically, and the second component can be die cut with an element, or a portion of an element missing. For example, the second component could be die cut with one of the two required elongated connectors being absent. The missing second elongated connector could be provided as a separate die cut element, complete with adhesive. Following interlacing of the first component with the partial second component, the interlaced structure could be completed by attaching the separately supplied missing elongated connector. Neither of the interlaced device production methods discussed above is adaptable to a computer-controlled, mass production, manufacturing technique. Such methods have, however, been developed, publicly disclosed and incorporated herein by reference. Given this disclosure, one of skill in the art can develop and implement computer-controlled methods for production of interlaced embodiments of the two component medical device of the present disclosure. A non-interlaced alternative design has been referred to as the “key-hole” design. In this design, for example, the two components of the two-component medical device are separately produced. In a preferred method, they are produced through a die cut process as monolithic components. Each of the two monolithic components comprise a adhesive-backed anchoring member, elongated connector(s) and a pulling element. The elongated connector(s) of the first component are centrally located in the assembled and applied device. The elongated connectors of the second component are spaced apart thereby creating a void, or “key-hole” through which the pulling element and elongated connector(s) of the first element are inserted. Following insertion and rotation of the first and second components into a common plane, the two components are mated in a “key-hole” arrangement and the two-component device is in condition for application. In preferred embodiments, the adhesive-backed anchoring members, elongated connectors and pulling elements are produced from a substantially inelastic polymeric material. Alternatively, they may be produced from an elastic material which is reinforced with an inelastic structural component thereby rendering the device substantially inelastic. For example, such • Sheet Stock