The Experts below are selected from a list of 26991 Experts worldwide ranked by ideXlab platform

Alexis Maurel - One of the best experts on this subject based on the ideXlab platform.

  • considering lithium ion battery 3d printing via thermoplastic Material Extrusion and polymer powder bed fusion
    Additive manufacturing, 2021
    Co-Authors: Alexis Maurel, Matti Haukka, Eric Macdonald, Lauri Kivijarvi, Hyeonseok Kim, Elmeri Lahtinen, Michel Armand, Aurelie Cayla
    Abstract:

    Abstract In this paper, the ability to 3D print lithium-ion batteries through Pmnbspace thermoplastic Material Extrusion and polymer powder bed fusion is considered. Focused on the formulation of positive electrodes composed of polypropylene, LiFePO4 as active Material, and conductive additives, advantages and drawbacks of both additive manufacturing technologies, are thoroughly discussed from the electrochemical, electrical, morphological and mechanical perspectives. Based on these preliminary results, strategies to further optimize the electrochemical performances are proposed. Through a comprehensive modeling study, the enhanced electrochemical suitability at high current densities of various complex three-dimensional lithium-ion battery architectures, in comparison with classical two-dimensional planar design, is highlighted. Finally, the direct printing capability of the complete lithium-ion battery by means of multi-Materials printing options processes is examined.

  • considering lithium ion battery 3d printing via thermoplastic Material Extrusion and polymer powder bed fusion
    Additive manufacturing, 2020
    Co-Authors: Alexis Maurel, Matti Haukka, Eric Macdonald, Lauri Kivijarvi, Elmeri Lahtine, Hyeonseok Kim, Aurelie Cayla
    Abstract:

    Abstract In this paper, the ability to 3D print lithium-ion batteries through thermoplastic Material Extrusion and polymer powder bed fusion is considered. Focused on the formulation of positive electrodes composed of polypropylene, LiFePO4 as active Material, and conductive additives, advantages and drawbacks of both additive manufacturing technologies, are thoroughly discussed from the electrochemical, electrical, morphological and mechanical perspectives. Based on these preliminary results, strategies to further optimize the electrochemical performances are proposed. Through a comprehensive modeling study, the enhanced electrochemical suitability at high current densities of various complex three-dimensional lithium-ion battery architectures, in comparison with classical two-dimensional planar design, is highlighted. Finally, the direct printing capability of the complete lithium-ion battery by means of multi-Materials printing options processes is examined.

Aurelie Cayla - One of the best experts on this subject based on the ideXlab platform.

  • considering lithium ion battery 3d printing via thermoplastic Material Extrusion and polymer powder bed fusion
    Additive manufacturing, 2021
    Co-Authors: Alexis Maurel, Matti Haukka, Eric Macdonald, Lauri Kivijarvi, Hyeonseok Kim, Elmeri Lahtinen, Michel Armand, Aurelie Cayla
    Abstract:

    Abstract In this paper, the ability to 3D print lithium-ion batteries through Pmnbspace thermoplastic Material Extrusion and polymer powder bed fusion is considered. Focused on the formulation of positive electrodes composed of polypropylene, LiFePO4 as active Material, and conductive additives, advantages and drawbacks of both additive manufacturing technologies, are thoroughly discussed from the electrochemical, electrical, morphological and mechanical perspectives. Based on these preliminary results, strategies to further optimize the electrochemical performances are proposed. Through a comprehensive modeling study, the enhanced electrochemical suitability at high current densities of various complex three-dimensional lithium-ion battery architectures, in comparison with classical two-dimensional planar design, is highlighted. Finally, the direct printing capability of the complete lithium-ion battery by means of multi-Materials printing options processes is examined.

  • considering lithium ion battery 3d printing via thermoplastic Material Extrusion and polymer powder bed fusion
    Additive manufacturing, 2020
    Co-Authors: Alexis Maurel, Matti Haukka, Eric Macdonald, Lauri Kivijarvi, Elmeri Lahtine, Hyeonseok Kim, Aurelie Cayla
    Abstract:

    Abstract In this paper, the ability to 3D print lithium-ion batteries through thermoplastic Material Extrusion and polymer powder bed fusion is considered. Focused on the formulation of positive electrodes composed of polypropylene, LiFePO4 as active Material, and conductive additives, advantages and drawbacks of both additive manufacturing technologies, are thoroughly discussed from the electrochemical, electrical, morphological and mechanical perspectives. Based on these preliminary results, strategies to further optimize the electrochemical performances are proposed. Through a comprehensive modeling study, the enhanced electrochemical suitability at high current densities of various complex three-dimensional lithium-ion battery architectures, in comparison with classical two-dimensional planar design, is highlighted. Finally, the direct printing capability of the complete lithium-ion battery by means of multi-Materials printing options processes is examined.

Hyeonseok Kim - One of the best experts on this subject based on the ideXlab platform.

  • considering lithium ion battery 3d printing via thermoplastic Material Extrusion and polymer powder bed fusion
    Additive manufacturing, 2021
    Co-Authors: Alexis Maurel, Matti Haukka, Eric Macdonald, Lauri Kivijarvi, Hyeonseok Kim, Elmeri Lahtinen, Michel Armand, Aurelie Cayla
    Abstract:

    Abstract In this paper, the ability to 3D print lithium-ion batteries through Pmnbspace thermoplastic Material Extrusion and polymer powder bed fusion is considered. Focused on the formulation of positive electrodes composed of polypropylene, LiFePO4 as active Material, and conductive additives, advantages and drawbacks of both additive manufacturing technologies, are thoroughly discussed from the electrochemical, electrical, morphological and mechanical perspectives. Based on these preliminary results, strategies to further optimize the electrochemical performances are proposed. Through a comprehensive modeling study, the enhanced electrochemical suitability at high current densities of various complex three-dimensional lithium-ion battery architectures, in comparison with classical two-dimensional planar design, is highlighted. Finally, the direct printing capability of the complete lithium-ion battery by means of multi-Materials printing options processes is examined.

  • considering lithium ion battery 3d printing via thermoplastic Material Extrusion and polymer powder bed fusion
    Additive manufacturing, 2020
    Co-Authors: Alexis Maurel, Matti Haukka, Eric Macdonald, Lauri Kivijarvi, Elmeri Lahtine, Hyeonseok Kim, Aurelie Cayla
    Abstract:

    Abstract In this paper, the ability to 3D print lithium-ion batteries through thermoplastic Material Extrusion and polymer powder bed fusion is considered. Focused on the formulation of positive electrodes composed of polypropylene, LiFePO4 as active Material, and conductive additives, advantages and drawbacks of both additive manufacturing technologies, are thoroughly discussed from the electrochemical, electrical, morphological and mechanical perspectives. Based on these preliminary results, strategies to further optimize the electrochemical performances are proposed. Through a comprehensive modeling study, the enhanced electrochemical suitability at high current densities of various complex three-dimensional lithium-ion battery architectures, in comparison with classical two-dimensional planar design, is highlighted. Finally, the direct printing capability of the complete lithium-ion battery by means of multi-Materials printing options processes is examined.

Eric Macdonald - One of the best experts on this subject based on the ideXlab platform.

  • considering lithium ion battery 3d printing via thermoplastic Material Extrusion and polymer powder bed fusion
    Additive manufacturing, 2021
    Co-Authors: Alexis Maurel, Matti Haukka, Eric Macdonald, Lauri Kivijarvi, Hyeonseok Kim, Elmeri Lahtinen, Michel Armand, Aurelie Cayla
    Abstract:

    Abstract In this paper, the ability to 3D print lithium-ion batteries through Pmnbspace thermoplastic Material Extrusion and polymer powder bed fusion is considered. Focused on the formulation of positive electrodes composed of polypropylene, LiFePO4 as active Material, and conductive additives, advantages and drawbacks of both additive manufacturing technologies, are thoroughly discussed from the electrochemical, electrical, morphological and mechanical perspectives. Based on these preliminary results, strategies to further optimize the electrochemical performances are proposed. Through a comprehensive modeling study, the enhanced electrochemical suitability at high current densities of various complex three-dimensional lithium-ion battery architectures, in comparison with classical two-dimensional planar design, is highlighted. Finally, the direct printing capability of the complete lithium-ion battery by means of multi-Materials printing options processes is examined.

  • considering lithium ion battery 3d printing via thermoplastic Material Extrusion and polymer powder bed fusion
    Additive manufacturing, 2020
    Co-Authors: Alexis Maurel, Matti Haukka, Eric Macdonald, Lauri Kivijarvi, Elmeri Lahtine, Hyeonseok Kim, Aurelie Cayla
    Abstract:

    Abstract In this paper, the ability to 3D print lithium-ion batteries through thermoplastic Material Extrusion and polymer powder bed fusion is considered. Focused on the formulation of positive electrodes composed of polypropylene, LiFePO4 as active Material, and conductive additives, advantages and drawbacks of both additive manufacturing technologies, are thoroughly discussed from the electrochemical, electrical, morphological and mechanical perspectives. Based on these preliminary results, strategies to further optimize the electrochemical performances are proposed. Through a comprehensive modeling study, the enhanced electrochemical suitability at high current densities of various complex three-dimensional lithium-ion battery architectures, in comparison with classical two-dimensional planar design, is highlighted. Finally, the direct printing capability of the complete lithium-ion battery by means of multi-Materials printing options processes is examined.

Lauri Kivijarvi - One of the best experts on this subject based on the ideXlab platform.

  • considering lithium ion battery 3d printing via thermoplastic Material Extrusion and polymer powder bed fusion
    Additive manufacturing, 2021
    Co-Authors: Alexis Maurel, Matti Haukka, Eric Macdonald, Lauri Kivijarvi, Hyeonseok Kim, Elmeri Lahtinen, Michel Armand, Aurelie Cayla
    Abstract:

    Abstract In this paper, the ability to 3D print lithium-ion batteries through Pmnbspace thermoplastic Material Extrusion and polymer powder bed fusion is considered. Focused on the formulation of positive electrodes composed of polypropylene, LiFePO4 as active Material, and conductive additives, advantages and drawbacks of both additive manufacturing technologies, are thoroughly discussed from the electrochemical, electrical, morphological and mechanical perspectives. Based on these preliminary results, strategies to further optimize the electrochemical performances are proposed. Through a comprehensive modeling study, the enhanced electrochemical suitability at high current densities of various complex three-dimensional lithium-ion battery architectures, in comparison with classical two-dimensional planar design, is highlighted. Finally, the direct printing capability of the complete lithium-ion battery by means of multi-Materials printing options processes is examined.

  • considering lithium ion battery 3d printing via thermoplastic Material Extrusion and polymer powder bed fusion
    Additive manufacturing, 2020
    Co-Authors: Alexis Maurel, Matti Haukka, Eric Macdonald, Lauri Kivijarvi, Elmeri Lahtine, Hyeonseok Kim, Aurelie Cayla
    Abstract:

    Abstract In this paper, the ability to 3D print lithium-ion batteries through thermoplastic Material Extrusion and polymer powder bed fusion is considered. Focused on the formulation of positive electrodes composed of polypropylene, LiFePO4 as active Material, and conductive additives, advantages and drawbacks of both additive manufacturing technologies, are thoroughly discussed from the electrochemical, electrical, morphological and mechanical perspectives. Based on these preliminary results, strategies to further optimize the electrochemical performances are proposed. Through a comprehensive modeling study, the enhanced electrochemical suitability at high current densities of various complex three-dimensional lithium-ion battery architectures, in comparison with classical two-dimensional planar design, is highlighted. Finally, the direct printing capability of the complete lithium-ion battery by means of multi-Materials printing options processes is examined.