The Experts below are selected from a list of 327 Experts worldwide ranked by ideXlab platform

Etienne Burdet - One of the best experts on this subject based on the ideXlab platform.

  • Micro-robotics & MEMS based fabrication techniques for scaffold based tissue engineering
    Macromolecular Bioscience, 2005
    Co-Authors: Han Zhang, Franck Chollet, A N Poo, Dietmar Hutmacher, Etienne Burdet
    Abstract:

    Scaffold based tissue engineering strategies use cells, biomolecules and a scaffold to promote the repair and regeneration of tissues. Although scaffold-based tissue engineering approaches are being actively developed, most are still experimental, and it is not yet clear what defines an ideal scaffold/cell construct. Solid free form fabrication (SFF) techniques can precisely Control Matrix architecture (size, shape, interconnectivity, branching, geometry and orientation). The SFF methods enable the fabrication of scaffolds with various designs and material compositions, thus providing a Control of mechanical properties, biological effects and degradation kinetics. This paper reviews the application of micro-robotics and MEMS-based fabrication techniques for scaffold design and fabrication. It also presents a novel robotic technique to fabricate scaffold/cell constructs for tissue engineering by the assembly of microscopic building blocks.

  • microrobotics and mems based fabrication techniques for scaffold based tissue engineering
    Macromolecular Bioscience, 2005
    Co-Authors: Han Zhang, Dietmar W Hutmacher, Franck Chollet, A N Poo, Etienne Burdet
    Abstract:

    Scaffold based tissue engineering strategies use cells, biomolecules and a scaffold to promote the repair and regeneration of tissues. Although scaffold-based tissue engineering approaches are being actively developed, most are still experimental, and it is not yet clear what defines an ideal scaffold/cell construct. Solid free form fabrication (SFF) techniques can precisely Control Matrix architecture (size, shape, interconnectivity, branching, geometry and orientation). The SFF methods enable the fabrication of scaffolds with various designs and material compositions, thus providing a Control of mechanical properties, biological effects and degradation kinetics. This paper reviews the application of micro-robotics and MEMS-based fabrication techniques for scaffold design and fabrication. It also presents a novel robotic technique to fabricate scaffold/cell constructs for tissue engineering by the assembly of microscopic building blocks.

Han Zhang - One of the best experts on this subject based on the ideXlab platform.

  • Micro-robotics & MEMS based fabrication techniques for scaffold based tissue engineering
    Macromolecular Bioscience, 2005
    Co-Authors: Han Zhang, Franck Chollet, A N Poo, Dietmar Hutmacher, Etienne Burdet
    Abstract:

    Scaffold based tissue engineering strategies use cells, biomolecules and a scaffold to promote the repair and regeneration of tissues. Although scaffold-based tissue engineering approaches are being actively developed, most are still experimental, and it is not yet clear what defines an ideal scaffold/cell construct. Solid free form fabrication (SFF) techniques can precisely Control Matrix architecture (size, shape, interconnectivity, branching, geometry and orientation). The SFF methods enable the fabrication of scaffolds with various designs and material compositions, thus providing a Control of mechanical properties, biological effects and degradation kinetics. This paper reviews the application of micro-robotics and MEMS-based fabrication techniques for scaffold design and fabrication. It also presents a novel robotic technique to fabricate scaffold/cell constructs for tissue engineering by the assembly of microscopic building blocks.

  • microrobotics and mems based fabrication techniques for scaffold based tissue engineering
    Macromolecular Bioscience, 2005
    Co-Authors: Han Zhang, Dietmar W Hutmacher, Franck Chollet, A N Poo, Etienne Burdet
    Abstract:

    Scaffold based tissue engineering strategies use cells, biomolecules and a scaffold to promote the repair and regeneration of tissues. Although scaffold-based tissue engineering approaches are being actively developed, most are still experimental, and it is not yet clear what defines an ideal scaffold/cell construct. Solid free form fabrication (SFF) techniques can precisely Control Matrix architecture (size, shape, interconnectivity, branching, geometry and orientation). The SFF methods enable the fabrication of scaffolds with various designs and material compositions, thus providing a Control of mechanical properties, biological effects and degradation kinetics. This paper reviews the application of micro-robotics and MEMS-based fabrication techniques for scaffold design and fabrication. It also presents a novel robotic technique to fabricate scaffold/cell constructs for tissue engineering by the assembly of microscopic building blocks.

A N Poo - One of the best experts on this subject based on the ideXlab platform.

  • Micro-robotics & MEMS based fabrication techniques for scaffold based tissue engineering
    Macromolecular Bioscience, 2005
    Co-Authors: Han Zhang, Franck Chollet, A N Poo, Dietmar Hutmacher, Etienne Burdet
    Abstract:

    Scaffold based tissue engineering strategies use cells, biomolecules and a scaffold to promote the repair and regeneration of tissues. Although scaffold-based tissue engineering approaches are being actively developed, most are still experimental, and it is not yet clear what defines an ideal scaffold/cell construct. Solid free form fabrication (SFF) techniques can precisely Control Matrix architecture (size, shape, interconnectivity, branching, geometry and orientation). The SFF methods enable the fabrication of scaffolds with various designs and material compositions, thus providing a Control of mechanical properties, biological effects and degradation kinetics. This paper reviews the application of micro-robotics and MEMS-based fabrication techniques for scaffold design and fabrication. It also presents a novel robotic technique to fabricate scaffold/cell constructs for tissue engineering by the assembly of microscopic building blocks.

  • microrobotics and mems based fabrication techniques for scaffold based tissue engineering
    Macromolecular Bioscience, 2005
    Co-Authors: Han Zhang, Dietmar W Hutmacher, Franck Chollet, A N Poo, Etienne Burdet
    Abstract:

    Scaffold based tissue engineering strategies use cells, biomolecules and a scaffold to promote the repair and regeneration of tissues. Although scaffold-based tissue engineering approaches are being actively developed, most are still experimental, and it is not yet clear what defines an ideal scaffold/cell construct. Solid free form fabrication (SFF) techniques can precisely Control Matrix architecture (size, shape, interconnectivity, branching, geometry and orientation). The SFF methods enable the fabrication of scaffolds with various designs and material compositions, thus providing a Control of mechanical properties, biological effects and degradation kinetics. This paper reviews the application of micro-robotics and MEMS-based fabrication techniques for scaffold design and fabrication. It also presents a novel robotic technique to fabricate scaffold/cell constructs for tissue engineering by the assembly of microscopic building blocks.

Franck Chollet - One of the best experts on this subject based on the ideXlab platform.

  • Micro-robotics & MEMS based fabrication techniques for scaffold based tissue engineering
    Macromolecular Bioscience, 2005
    Co-Authors: Han Zhang, Franck Chollet, A N Poo, Dietmar Hutmacher, Etienne Burdet
    Abstract:

    Scaffold based tissue engineering strategies use cells, biomolecules and a scaffold to promote the repair and regeneration of tissues. Although scaffold-based tissue engineering approaches are being actively developed, most are still experimental, and it is not yet clear what defines an ideal scaffold/cell construct. Solid free form fabrication (SFF) techniques can precisely Control Matrix architecture (size, shape, interconnectivity, branching, geometry and orientation). The SFF methods enable the fabrication of scaffolds with various designs and material compositions, thus providing a Control of mechanical properties, biological effects and degradation kinetics. This paper reviews the application of micro-robotics and MEMS-based fabrication techniques for scaffold design and fabrication. It also presents a novel robotic technique to fabricate scaffold/cell constructs for tissue engineering by the assembly of microscopic building blocks.

  • microrobotics and mems based fabrication techniques for scaffold based tissue engineering
    Macromolecular Bioscience, 2005
    Co-Authors: Han Zhang, Dietmar W Hutmacher, Franck Chollet, A N Poo, Etienne Burdet
    Abstract:

    Scaffold based tissue engineering strategies use cells, biomolecules and a scaffold to promote the repair and regeneration of tissues. Although scaffold-based tissue engineering approaches are being actively developed, most are still experimental, and it is not yet clear what defines an ideal scaffold/cell construct. Solid free form fabrication (SFF) techniques can precisely Control Matrix architecture (size, shape, interconnectivity, branching, geometry and orientation). The SFF methods enable the fabrication of scaffolds with various designs and material compositions, thus providing a Control of mechanical properties, biological effects and degradation kinetics. This paper reviews the application of micro-robotics and MEMS-based fabrication techniques for scaffold design and fabrication. It also presents a novel robotic technique to fabricate scaffold/cell constructs for tissue engineering by the assembly of microscopic building blocks.

Kestutis Pyragas - One of the best experts on this subject based on the ideXlab platform.

  • Continuous pole placement method for time-delayed feedback Controlled systems
    European Physical Journal B, 2014
    Co-Authors: Viktoras Pyragas, Kestutis Pyragas
    Abstract:

    Continuous pole placement method is adapted to time-periodic states of systems with time delay. The method is applied for finding an optimal Control Matrix in the problem of stabilization of unstable periodic orbits of dynamical systems via time-delayed feedback Control algorithm. The optimal Control Matrix ensures the fastest approach of a perturbed system to the stabilized orbit. An application of the pole placement method to systems with time delay meets a fundamental problem, since the number of the Floquet exponents is infinity, while the number of Control parameters is finite. Nevertheless, we show that several leading Floquet exponents can be efficiently Controlled. The method is numerically demonstrated for the Lorenz system, which until recently has been considered as a system inaccessible for the standard time-delayed feedback Control due to the odd-number limitation. The proposed optimization method is also adapted for an extended time-delayed feedback Control algorithm and numerically demonstrated for the Rossler system.

  • Time-delayed feedback Control design beyond the odd-number limitation.
    Physical Review E, 2013
    Co-Authors: Kestutis Pyragas, Viktor Novičenko
    Abstract:

    : We present an algorithm for a time-delayed feedback Control design to stabilize periodic orbits with an odd number of positive Floquet exponents in autonomous systems. Due to the so-called odd-number theorem such orbits have been considered as unControllable by time-delayed feedback methods. However, this theorem has been refuted by a counterexample and recently a corrected version of the theorem has been proved. In our algorithm, the Control Matrix is designed using a relationship between Floquet multipliers of the systems Controlled by time-delayed and proportional feedback. The efficacy of the algorithm is demonstrated with the Lorenz and Chua systems.