Woodwelding Ag

Stryker Trauma Gmbh

Spinewelding Ag

Stryker European Holdings I LLC

Festo Se &co. Kg

Bernafon Ag

Tetra Laval Holdings & Finance S.a.

Stryker European Operations Holdings LLC

Inter Ikea Systems B.v.

Universitât Bern

Creaholic S.a.

Hilti Aktiengesellschaft

Luciole Medical Ag

Swisscom Mobile Ag

Joulia Ag

Marcel Aeschlimann

Laurent Torriani

Jörg Mayer

Mario Lehmann

Antonino Lanci

Philipp Seiler

Urs Weber

Christopher Rast

Elmar Mock

Andrea Müller

Colin W Clinch

Stephanie Mehl

Milica Berra

Thomas Knecht

Klaus Dorawa

Andreas Wenger

Christoph Rusch

Manuel Schwager

Samuel Malzach

Hansen A Yuan

Yves Stephane Crozet

Vinzenz Andreas Burgherr

Frank Martin Phillips

Adam John Edelhauser

Christoph Dworzak

Markus Mast

Ulrich Berlemann

Stéphane Gillieron

Alfons Riek

Kyle Craig Pilgeram

Stephanie Goebel-Mehl

Andrea Mueller

Martin Sigrist

Muthumariappan Sankaran

Michael D Baycura

Janick Stucki

Heinrich Walt

Kurt Stoll

Joakim Kvist

Andre Klopfenstein

Patricia Poschner

Hans Klingel

Christian Schmid

Christoph Berger

Christophe Léchot

Stephen Hochschuler

Håkan Käll

Olivier Thierry Guenat

Carole Chapelat

Kilian Iannucci

Curt-Michael Stoll

Ivo Aschwanden

Martin Helmer

Judith Wimmer

Peter Barmettler

Richard Lum

Mario Weiss

Loïc Sottas

Markus Hugo Muser

Juerg Hans Froehlich

Gary Cooper

Leif Pudewills

Urs Graf

Olaf Schadoffsky

Dirk Baumann

Jurg Clavadetscher

André Klopfenstein

Alexander Sollberger

Jean-Claude Frely

Michael Oberle

Jürg Hans Fröhlich

Jean-Claude Frély

Reto Schmid

Lisa Ballou

Jürg Clavadetscher

Heinz Koester

Aymeric Niederhauser

J&uuml;rg Clavadetscher

Nihat Dizdar

Pontus Håkansson

Markus Andreas Muller

Yann Schaeffer

Rafael Luca Zuber

Naomi Bitmead

Alexandra Krause

Markus Andreas Müller

Thomas Binggeli

Dominic Isenschmid

Andreas Zbären

Philip Seiler

Joerg Mayer

Heinz Koster

A culturing membrane comprising a support provided by a mesh with holes filled with extracellular matrix proteins, as well as a method of producing a culturing membrane made of components found in a basal membrane, comprising the steps of using a mesh having holes; and providing a solution with the components found in the basal membrane on the mesh.

Cell culturing system and method

A method for supporting designing and operation of a robotic system includes operating a computer-based Inventory configured to operate in a robotic system having Hardware Modules to perform a task, the Inventory including Hardware Module Descriptions including a unique identifier, a description of physical characteristics, a current status and historical data the Hardware Module. The method including the steps of

Method for operating a computer-based inventory of hardware modules of a robotic system

A tool for implementing a correction plan in an external fixation frame having a plurality of adjustment elements or screws, for example, generally includes a driver, a motor, a controller, and a processor. The driver is adapted to engage and rotate each of the screws. The motor is coupled the driver and adapted to rotate the driver. The controller is connected to the motor and configured to control operation of the motor. The processor adapted configured to: receive correction plan data; receive identification data including information for identifying at least one of the plurality of screws; determine movement of at least one of the plurality of the screws based on the correction plan data and the identification data; and send signals indicative of the determined movement to the controller in order to rotate at least one of the plurality of screws according to a predetermined correction plan.

Methods and systems for adjusting an external fixation frame

A method for cell stimulation by mechanical energy as well as a method for determining a subject specific set of treatment parameters for acoustic wave stimulation and a method for validating a set of treatment parameters for acoustic wave stimulation. The method for determining a subject specific set of treatment parameters includes generating subject specific data, which includes measuring a geometric property of a body portion, and determining a target field distribution in the body portion. The method for validating a set of treatment parameters for acoustic wave stimulation includes determining a target field distribution of an acoustic field in a body portion, receiving a related set of treatment parameters for at least one transducer, generating a subject specific 3D model of the body portion, and determining a difference between the target field distribution and a field distribution determined in the subject specific 3D model.

Treatment parameters for acoustic wave stimulation

A production cell includes: at least one robot arranged to handle products; at least one buffer area for intermediate storage of products inside the production cell; a vision system with cameras arranged to determine, based on images from the cameras, the identity and the location of objects in the production cell a plurality of production modules, each production module comprising at least one Hardware Module configured to process products; and a plurality of module attachment locations, each module attachment location being configured to connect with an interface section of a production module through at least a physical connection and a power connection.

Production cell

A cell culturing system includes a docking station, a handling unit, a culturing module and an actuation layer. The culturing module has a culturing well and a culturing membrane separating the culturing well in an apical culturing chamber and a basal culturing chamber. The handling unit removably accommodates the culturing module and the actuation layer. The docking station has a coupling structure for removably holding the handling unit in a predefined position and an actuation feeding channel, wherein, when the handling unit is held by the coupling structure in the predefined position, a first end of the actuation feeding channel is connected to the actuation bore and a second end of the actuation feeding channel is connected to a connector.

A Hardware Module for a robotic system includes at least one sensor for measuring an internal property of the Hardware Module, a communication unit for communicating with other Hardware Modules, a data storage unit and an embedded controller. The embedded controller is configured to collect collected data, the collected data including: status data representing the current status of the Hardware Module; and operating data representing usage of the Hardware Module wherein at least part of the collected data is determined from sensor data from the at least one sensor, and the embedded controller is configured to perform at least one of: storing the collected data on the data storage unit; and transmitting the collected data via the communication unit.

Hardware module for a robotic system, and mechanical coupling

A tool for implementing a correction plan in an external fixation frame having a plurality of adjustment elements or screws, for example, generally includes a driver, a motor, a controller, and a processor. The driver is adapted to engage and rotate each of the screws. The motor is coupled the driver and adapted to rotate the driver. The controller is connected to the motor and configured to control operation of the motor. The a processor adapted configured to: receive correction plan data; receive identification data including information for identifying at least one of the plurality of screws; determine movement of at least one of the plurality of the screws based on the correction plan data and the identification data; and send signals indicative of the determined movement to the controller in order to rotate at least one of the plurality of screws according to a predetermined correction plan.

An implant or endoprosthesis suitable to be implanted in human or animal tissue includes two (or more than two) parts to be joined in situ. Each one of the parts includes a joining location, the two joining locations facing each other when the device parts are positioned for being joined together, wherein one of the joining locations includes a material which is liquefiable by mechanical vibration and the other one of the joining locations includes a material which is not liquefiable by mechanical vibration and a structure (e.g. undercut cavities or protrusions) suitable for forming a positive fit connection with the liquefiable material. The joining process is effected by pressing the two device parts against each other and by applying ultrasonic vibration to one of the device parts when the two parts are positioned relative to each other such that the two joining locations are in contact with each other.

Device to be implanted in human or animal tissue and method for implanting and assembling the device

An EEG headpiece includes an array of electrode pins, each electrode pin extending between a proximal end, formed by a proximal end face, and a distal end and including a conducting electrode and a thermoplastic material. The thermoplastic material is arranged at least around a periphery of the electrode pin or is pressable from a hollow space to the periphery. Each electrode pin is equipped for the transmission of energy, especially mechanical vibration energy, from the proximal end face to the thermoplastic material to liquefy at least portions of the thermoplastic material from a solid state to a flowable state, whereby the thermoplastic material is capable of flowing into structures of a tissue portion surrounding the periphery and of forming, after re-solidification of the thermoplastic material, an anchoring of the electrode pin in the tissue portion.

Medical device, apparatus, and surgical method

A spine stabilization device having an interbody spacer shaped to be inserted between a vertebral body of an upper vertebra and a vertebral body of a lower vertebra. The device further includes a fixation device to be inserted after placement of the interbody spacer, the fixation device having a support portion securing the interbody spacer against escaping from between the vertebral bodies into a ventral direction. The support portion rests against a portion of an anterior surface of the interbody spacer, and includes an anchor. The anchor has an anchoring material portion that is inserted, in a liquid state, into cancellous bone tissue of at least one of the vertebral bodies of the upper and lower vertebra, to thereby infiltrate the cancellous bone tissue, and to harden thereafter so as to fix the support portion to the vertebral body.

Spine stabilization device, and method and kit for its implantation

A profile body of a not liquefiable material is used as a connecting element between a first object and a second object. The profile body may especially be metallic and/or may be bendable. The profile body, in contrast to a conventional wire, however, has a shape defining a first and a second undercut. The method includes embedding the profile body in the second object so that the second undercut is within material of the second object, and embedding the profile body within material of the first object so that the first undercut is within the first object, and wherein at least embedding of the profile body in the first object is caused by mechanical energy impinging on the first object and/or on the second object while the first object and the second object are pressed against each other.

Bonding objects together

A method of implanting a contact implant includes providing the contact implant, providing a plurality of anchoring implants having a plurality of through openings, placing the contact implant at an implantation location, and introducing a first one of the anchoring implants through a first of the plurality of through openings. Mechanical oscillations are applied, along a first axis, to the first one of the anchoring implants, thereby causing thermoplastic material of the implant to liquefy and interpenetrate portions of the tissue. A second one of the anchoring implants is introduced through a second one of the through openings to bring it in contact with the live tissue. Mechanical oscillations are applied, along a second axis, to the second one of the anchoring implants to cause thermoplastic material to be liquefied. The first and first and second axes are at a nonzero angle to each other.

Method of implanting a contact implant

A joining element has an anchoring portion for in-depth anchoring in the object and a head portion arranged proximally of the anchoring portion with respect to an insertion axis. The head portion has a lateral outer surface that has a structure that is well-defined, especially within tight tolerances. The joining element is positioned relative to an object of a non-liquefiable material such that the anchoring portion reaches into an opening of the object or is placed adjacent a mouth thereof. Then, the joining element is pressed towards a distal direction, to press the anchoring portion into the opening, while mechanical vibration energy is coupled into the joining element by a tool, in an amount and for a time sufficient for liquefaction of a portion of the thermoplastic material to cause interpenetration of the thermoplastic material into structures of the object.

Anchoring a joining element in an object

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Ligerz, Switzerland

Marcel Aeschlimann