Abstract: A hand-held unit serves to feed an implant, in particular a stent, and to release the implant, and comprises a housing that has a housing opening and a connection section for attaching an outer catheter layer of a catheter to the housing and for guiding a release element from an interior of the housing into the catheter so that the release element is movable relative to the outer catheter layer, and an actuation wheel that is rotatably supported in the housing and that can be actuated through the housing opening in order to effect a rotary movement of the actuation wheel, wherein the actuation wheel has a receiver for a pulling element so that the actuation wheel exerts a pulling force on the release element via the pulling element during a rotary movement of the actuation wheel in a release direction, wherein the receiver is designed as helical to roll up the pulling element by means the receiver.

Abstract: A hand-held unit serves to feed an implant, in particular a stent, and to release the implant by means of a release element. The hand-held unit comprises a housing that has a housing opening and a connection section for attaching an outer catheter layer of a catheter to the housing and for guiding the release element from an interior of the housing into the catheter so that the release element is movable relative to the outer catheter layer. The hand-held unit further comprises a transmission element that is connected to the release element in order to transmit a movement of the transmission element to the release element, and an actuation element that is rotatably or displaceably supported in the housing and that can be actuated from outside the housing through the housing opening, wherein a movement of the actuation element causes a movement of the transmission element.

Abstract: A surgical staple insertion system for compressing bone fragments includes a staple and an insertion tool. The staple has first and second legs and an elastically deformable bridge monolithically formed with the first and second legs. In a relaxed configuration, the free ends of the first and second legs are positioned closer to one another than are portions of the first and second legs connected to the bridge. The insertion tool retains the bridge in an elastically deformed configuration with the legs positioned relatively farther apart from one another during at least portion of the step of implantation of the staple. Then, the insertion tool is released from the staple so that the bone fragments between the legs are subject to compression.

Abstract: A surgical staple insertion system for compressing bone fragments includes a staple and an insertion tool. The staple has first and second legs and an elastically deformable bridge monolithically formed with the first and second legs. In a relaxed configuration, the free ends of the first and second legs are positioned closer to one another than are portions of the first and second legs connected to the bridge. The insertion tool retains the bridge in an elastically deformed configuration with the legs positioned relatively farther apart from one another during at least portion of the step of implantation of the staple. Then, the insertion tool is released from the staple so that the bone fragments between the legs are subject to compression.

Abstract: A surgical staple insertion system for compressing bone fragments includes a staple and an insertion tool. The staple has first and second legs and an elastically deformable bridge monolithically formed with the first and second legs. In a relaxed configuration, the free ends of the first and second legs are positioned closer to one another than are portions of the first and second legs connected to the bridge. The insertion tool retains the bridge in an elastically deformed configuration with the legs positioned relatively farther apart from one another during at least portion of the step of implantation of the staple. Then, the insertion tool is released from the staple so that the bone fragments between the legs are subject to compression.

Abstract: The present invention relates to a stent for transluminal implantation into hollow organs, in particular into blood vessels, ureters, esophagi, the colon, the duodenum, the airways or the biliary tract, comprising an at least substantially tubular body that extends along a longitudinal direction and that can be converted from a compressed state having a first cross-sectional diameter into an expanded state having an enlarged second cross-sectional diameter, wherein the stent comprises a stent body composed of a biostable material, characterized in that the stent body comprises a plurality of stent sections, preferably annular stent sections, that are in particular separate from one another, and the stent has a support structure that connects the stent sections to one another, wherein the support structure is formed from a bioresorbable material or comprises a bioresorbable material.

Abstract: The invention relates to a stent for transluminal implantation into hollow organs, in particular into blood vessels, ureters, esophagi, the colon, the duodenum, the airways or the biliary tract, comprising an at least substantially tubular body that extends along a longitudinal direction and that can be converted from a compressed state having a first cross-sectional diameter into an expanded state having an enlarged second cross-sectional diameter. The stent in accordance with the invention is characterized in that the tubular body comprises an inner body and an outer body, with the outer body surrounding the inner body at least regionally, with the outer body completely running around at least one section of the inner body, and the outer body is formed from a bioresorbable material or comprises a bioresorbable material.

Abstract: An intervertebral implant includes: a body with an upper wall configured to engage a first vertebral end plate and a lower wall configured to engage a second vertebral end plate, and a load transmitting part configured to transmit load between the upper wall and the lower wall; and the load transmitting part is configured to assume a compressed condition in which a distance between the upper wall and the lower wall defines a first height of the implant and an expanded condition in which the distance between the upper wall and the lower wall defines a second height of the implant that is greater than the first height; and the load transmitting part is attached to the upper wall at at least two first connecting locations and is attached to the lower wall at at least two second connecting locations and has substantially an X-shape in a front view of the implant; and the implant is made of a material that exhibits shape memory properties that permit the implant to remain in the compressed condition without outsid

Abstract: A surgical staple insertion system for compressing bone fragments includes a staple and an insertion tool. The staple has first and second legs and an elastically deformable bridge monolithically formed with the first and second legs. In a relaxed configuration, the free ends of the first and second legs are positioned closer to one another than are portions of the first and second legs connected to the bridge. The insertion tool retains the bridge in an elastically deformed configuration with the legs positioned relatively farther apart from one another during at least portion of the step of implantation of the staple. Then, the insertion tool is released from the staple so that the bone fragments between the legs are subject to compression.

Abstract: A surgical staple insertion system for compressing bone fragments includes a staple and an insertion tool. The staple has first and second legs and an elastically deformable bridge monolithically formed with the first and second legs. In a relaxed configuration, the free ends of the first and second legs are positioned closer to one another than are portions of the first and second legs connected to the bridge. The insertion tool retains the bridge in an elastically deformed configuration with the legs positioned relatively farther apart from one another during at least portion of the step of implantation of the staple. Then, the insertion tool is released from the staple so that the bone fragments between the legs are subject to compression.

Abstract: A surgical staple insertion system for compressing bone fragments includes a staple and an insertion tool. The staple has first and second legs and an elastically deformable bridge monolithically formed with the first and second legs. In a relaxed configuration, the free ends of the first and second legs are positioned closer to one another than are portions of the first and second legs connected to the bridge. The insertion tool retains the bridge in an elastically deformed configuration with the legs positioned relatively farther apart from one another during at least portion of the step of implantation of the staple. Then, the insertion tool is released from the staple so that the bone fragments between the legs are subject to compression.

Abstract: Devices, instruments, assemblies, and systems for holding and inserting staples and staples for compressing bones or bone fragments. The staple insertion assembly including a staple holder and a staple. The staple holder including a first and second end with a gripping portion at the first end, at least one slot extending from second end toward first end, and a receiving portion at the second end. The receiving portion with at least one staple contact portion, a first recessed region positioned adjacent to the at least one staple contact portion on a first side and a second recessed region positioned adjacent to the at least one staple contact portion on a second side, and a first engagement member positioned adjacent to the first recessed region and a second engagement member positioned adjacent to the second recessed region. Methods for using the assemblies to compress bones or bone fragments are also disclosed.

Abstract: A surgical staple insertion system for compressing bone fragments includes a staple and an insertion tool. The staple has first and second legs and an elastically deformable bridge monolithically formed with the first and second legs. In a relaxed configuration, the bridge is curved such that a central region of the bridge is directed away from the first and second legs, and free ends of the first and second legs are positioned closer to one another than are portions of the first and second legs connected to the bridge. The bridge includes engagement portions at each of its first and second end sections that extend away from each other. The insertion tool includes an end defining a cavity configured to receive the engagement portions at the end sections of the bridge to retain the bridge in a deformed configuration with the first and second legs retained parallel to each other.

Abstract: A tubular prosthesis having at least two helical loops or discrete loops, linked by a bridge, includes at least two regular struts connected by a regular inflection point forming a regular gap between the regular struts and at least two stagger struts connected by a stagger inflection point forming a stagger gap wherein the regular gap has a size different from the stagger gap.

Abstract: A surgical staple insertion system for compressing bone fragments includes a staple and an insertion tool. The staple has first and second legs and an elastically deformable bridge monolithically formed with the first and second legs. In a relaxed configuration, the free ends of the first and second legs are positioned closer to one another than are portions of the first and second legs connected to the bridge. The insertion tool retains the bridge in an elastically deformed configuration with the legs positioned relatively farther apart from one another during at least portion of the step of implantation of the staple. Then, the insertion tool is released from the staple so that the bone fragments between the legs are subject to compression.

Abstract: A surgical staple insertion system for compressing bone fragments includes a staple and an insertion tool. The staple has first and second legs and an elastically deformable bridge monolithically formed with the first and second legs. In a relaxed configuration, the free ends of the first and second legs are positioned closer to one another than are portions of the first and second legs connected to the bridge. The insertion tool retains the bridge in an elastically deformed configuration with the legs positioned relatively farther apart from one another during at least portion of the step of implantation of the staple. Then, the insertion tool is released from the staple so that the bone fragments between the legs are subject to compression.

Abstract: A surgical staple insertion system for compressing bone fragments includes a staple and an insertion tool. The staple has first and second legs and an elastically deformable bridge monolithically formed with the first and second legs. In a relaxed configuration, the bridge is curved such that a central region of the bridge is directed away from the first and second legs, and free ends of the first and second legs are positioned closer to one another than are portions of the first and second legs connected to the bridge. The bridge includes engagement portions at each of its first and second end sections that extend away from each other. The insertion tool includes an end defining a cavity configured to receive the engagement portions at the end sections of the bridge to retain the bridge in a deformed configuration with the first and second legs retained parallel to each other.

Abstract: Devices, instruments, assemblies, and systems for holding and inserting staples and staples for compressing bones or bone fragments. The staple insertion assembly including a staple holder and a staple. The staple holder including a first and second end with a gripping portion at the first end, at least one slot extending from second end toward first end, and a receiving portion at the second end. The receiving portion with at least one staple contact portion, a first recessed region positioned adjacent to the at least one staple contact portion on a first side and a second recessed region positioned adjacent to the at least one staple contact portion on a second side, and a first engagement member positioned adjacent to the first recessed region and a second engagement member positioned adjacent to the second recessed region. Methods for using the assemblies to compress bones or bone fragments are also disclosed.