314 results about "Custom-fit" patented technology

The present invention provides modular intraluminal tubular prostheses, particularly stents and stent-grafts, for the treatment of disease conditions, particularly aneurysms. Modular sections of the prostheses, or "prosthetic modules," may be selectively combined to form a composite prosthesis having characteristics which are tailored to the specific requirements of the patient. Each prosthetic module preferably includes one or more standard interface ends for engaging another module, the module / module interface typically comprising ends which overlap and / or lock within a predetermined axial range. Advantageously, the axial length, cross-section, perimeter, resilient expansive force, axial flexibility, liner permeability, liner extensibility, radial conformability, liner / tubal wall sealing and anchoring, and other prosthetic characteristics may be varied along the axis of the composite prosthesis, and also along the axis of each prosthetic module. The modules are preferably individually introduced into a lumen system of a patient body so that the composite prosthesis is assembled in situ. Ideally, selection of appropriate prosthetic modules and the flexibility of the interface overlap range provides a custom fit intraluminal prosthesis which provides a therapy tailored to the individual patient's needs.

The present invention provides modular intraluminal tubular prostheses, particularly stents and stent-grafts, for the treatment of disease conditions, particularly aneurysms. Modular sections of the prostheses, or "prosthetic modules," may be selectively combined to form a composite prosthesis having characteristics which are tailored to the specific requirements of the patient. Each prosthetic module preferably includes one or more standard interface ends for engaging another module, the module / module interface typically comprising ends which overlap and / or lock within a predetermined axial range. Advantageously, the axial length, cross-section, perimeter, resilient expansive force, axial flexibility, liner permeability, liner extensibility, radial conformability, liner / tubal wall sealing and anchoring, and other prosthetic characteristics may be varied along the axis of the composite prosthesis, and also along the axis of each prosthetic module. The modules are preferably individually introduced into a lumen system of a patient body so that the composite prosthesis is assembled in situ. Ideally, selection of appropriate prosthetic modules and the flexibility of the interface overlap range provides a custom fit intraluminal prosthesis which provides a therapy tailored to the individual patient's needs.

Systems and methods are provided for designing and producing a custom-fit prosthesis. According to one embodiment, a mold is produced from which a custom-fit implant may be directly or indirectly manufactured. Medical image data representing surrounding portions of a patient's anatomy to be repaired by surgical implantation of the custom-fit implant are received. Then, three-dimensional surface reconstruction is performed based on the medical image data. Next, the custom-fit implant is designed based on the three-dimensional surface reconstruction and a positive or negative representation of a two-part mold is created with a void in the shape of the custom-fit implant by subtracting a representation of the custom-fit implant from a representation of a mold. Finally, the two-part mold is output from which the custom-fit implant may be directly manufactured; or an implant is directly output. Alternatively, an intermediate mold is created from which a two-part mold may be directly manufactured.

An article useful for atraumatic care and / or closure of wounds, as well as for repairing torn or ripped fabric is provided. The article comprises a substrate having opposing first and second major surfaces, a plurality of raised anchoring members disposed across the first major surface, and an optional adhesive pre-mounted adjacent the second major surface. A separate adhesive could also be used to mount the article to the desired underlying surface to be repaired. The substrate is a flexible and conformal continuous web that can be cut into pieces to custom fit the wound or fabric opening. Using the anchoring members and a thread, the pieces can be drawn together to correspondingly draw the tissue or fabric on either side(s) of the opening together, thereby closing the opening without piercing or suturing / sewing together the underlying tissue or fabric. Methods for the atraumatic care and / or closure of wounds, as well as for repairing torn or ripped fabric are also provided, including kits to facilitate the same.

Cage systems that improve upon the prior art in various ways. In the preferred embodiments, devices are radiolucent, with markers, thereby allowing visualization of placement without excessive obscuration. Devices according to the invention eliminate multiple steps, instruments and trays, while being capable of a custom fit. The devices according to the invention permit easier and greater access to end plate surface area, and can be used with autografts, allografts, and biologics.

A process for designing and fabricating a custom-fit implant, comprising: a) processing medical image data of a patient's pathologically defective or anatomically deformed area having a symmetrical part to construct a three-dimensional (3D) digital model; b) forming a mirror image of the left or right side of the three-dimensional (3D) digital model based on its axis of symmetry depending on which side the pathologically defective or anatomically deformed area is; c) overlying the mirror image on the original image to form a composite image with a non-overlapping area wherein the implant will be fitted; d) generating a digital implant by cutting off the non-overlapping area of the mirror image; e) designing mounting points between the digital implant and the pathologically defective or anatomically deformed area where the implant is mounted thereon; f) building a positive and a negative mold based on the digital implant to fabricate a custom-fit implant.

An orthotic device is provided, including an orthosis body adapted to be wrapped around the torso of a wearer of the device, the orthosis body having at least two segments in juxtaposed relationship. Means are provided at free end portions of the at least two segments to releasably secure the free end portions to one another. At least two cables are provided, each cable operatively connected to the at least two segments. At least two sets of pulleys are mounted on the at least two segments with each cable operatively connected to the at least two segments running through a pulley on each of the at least two segments in alteration, shortening of each cable pulling the at least two segments together and tightening the orthotic device with the aid of a mechanical advantage dependent upon the number of pulleys mounted on each of the at least two segments.

A back brace is designed to custom fit a wearer in a multitude of different configurations. First, the back brace could have a lumbar support that is split into upper and lower sections that are connected to a flexible joint, allowing the lumbar support to bend towards the spine of the user. The lumbar support is also generally split into left and right sections that are drawn towards one another while the joint bends towards the lumbar curve, This allows the back brace to conform to the lumbar curve of the wearer as a custom fit. Second, the brace could have optional extenders that alter the support length, width, and height of lumbar and lateral supports about the wearer. Third, the brace could have reinforcement support mechanisms that alter the rigidity of various lumbar and lateral supports about the wearer.