Nanomanufacturing System

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Ning Xi - One of the best experts on this subject based on the ideXlab platform.

  • automated Nanomanufacturing System to assemble carbon nanotube based devices
    The International Journal of Robotics Research, 2009
    Co-Authors: Ning Xi, Carmen Kar Man Fung, Jiangbo Zhang, Hongzhi Chen, Uchechukwu C Wejinya
    Abstract:

    In this paper we report the design and implementation of a novel automated manufacturing System for carbon nanotube (CNT)-based nanodevices, which integrates a new dielectrophoretic (DEP) microchamber into a robotic-based deposition workstation. The microchamber has been fabricated to separate and select CNTs with the desired electronic property by using DEP force. Moreover, a series of tools for mass-producing consistent nanodevices has been developed with the CNT deposition workstation, such as computer-controllable micromanipulators and a micro-active nozzle. Detailed experimental studies of the CNT separation and deposition processes have been performed on both single-walled carbon nanotubes (SWCNTs) and multi-walled carbon nanotubes (MWCNTs). Preliminary results show that CNTs could be manipulated to multiple pairs of microelectrodes repeatedly. Consistent I-V characteristics and CNT formations of the fabricated devices were obtained. The yield of semi-conducting CNTs was also increased by using our System. Therefore, by using the proposed CNT separation and deposition System, CNT-based nanodevices with specific and consistent electronic properties can be manufactured automatically and effectively.

  • Planning and Control for Automated Nanorobotic Assembly
    Proceedings of the 2005 IEEE International Conference on Robotics and Automation, 2005
    Co-Authors: Heping Chen, Ning Xi, Jiangbo Zhang, Guangyong Li, M. Prokos
    Abstract:

    Nanomanufacturing using Atomic Force Microcopy has been widely investigated. Most of nanomanipulation schemes go through the scan-design-manipulation-scan cycle manually which is time consuming and inefficient. Automated AFM tip path planning is desirable for Nanomanufacturing, but does not receive much attention. In this paper, a CAD guided automated Nanomanufacturing System is presented. Based on the CAD model of a nanostructure, the manipulation paths for both nanoparticles and nanorods are generated automatically. A local scanning method is developed to compensate for the random drift that may cause the failure of the nano-assembly. The experimental results demonstrate that the developed algorithm can be employed to manufacture nanostructures efficiently. The research work opens a door to the CAD guided automated Nanomanufacturing.

  • ICRA - Planning and Control for Automated Nanorobotic Assembly
    Proceedings of the 2005 IEEE International Conference on Robotics and Automation, 2005
    Co-Authors: Heping Chen, Ning Xi, Jiangbo Zhang, Guangyong Li, M. Prokos
    Abstract:

    Nanomanufacturing using Atomic Force Microcopy has been widely investigated. Most of nanomanipulation schemes go through the scan-design-manipulation-scan cycle manually which is time consuming and inefficient. Automated AFM tip path planning is desirable for Nanomanufacturing, but does not receive much attention. In this paper, a CAD guided automated Nanomanufacturing System is presented. Based on the CAD model of a nanostructure, the manipulation paths for both nanoparticles and nanorods are generated automatically. A local scanning method is developed to compensate for the random drift that may cause the failure of the nano-assembly. The experimental results demonstrate that the developed algorithm can be employed to manufacture nanostructures efficiently. The research work opens a door to the CAD guided automated Nanomanufacturing.

  • Automated nano-assembly of nanoscale structures
    4th IEEE Conference on Nanotechnology 2004., 2004
    Co-Authors: Heping Chen, Ning Xi, Guangyong Li, Jingbo Zhang, A. Saeed
    Abstract:

    Nanoscale products have many potential applications. The complexity of Nanomanufacturing requires to position, manipulate and assemble nanoobjects to form asymmetric patterns. The atomic force microscopy has been proven to be a powerful technique for Nanomanufacturing. Typical manual nanomanipulation using an atomic force microscope (AFM) is time-consuming and inefficient. Automated AFM tip path planning is desirable for Nanomanufacturing, but does not receive much attention. In this paper, a CAD-guided automated Nanomanufacturing System is developed to manufacture a nanostructure/nanodevice based on the CAD model of the nanostructure/nanodevice. The System is implemented to manipulate nanoobjects to manufacture nanostructures automatically.

Uchechukwu C Wejinya - One of the best experts on this subject based on the ideXlab platform.

  • automated Nanomanufacturing System to assemble carbon nanotube based devices
    The International Journal of Robotics Research, 2009
    Co-Authors: Ning Xi, Carmen Kar Man Fung, Jiangbo Zhang, Hongzhi Chen, Uchechukwu C Wejinya
    Abstract:

    In this paper we report the design and implementation of a novel automated manufacturing System for carbon nanotube (CNT)-based nanodevices, which integrates a new dielectrophoretic (DEP) microchamber into a robotic-based deposition workstation. The microchamber has been fabricated to separate and select CNTs with the desired electronic property by using DEP force. Moreover, a series of tools for mass-producing consistent nanodevices has been developed with the CNT deposition workstation, such as computer-controllable micromanipulators and a micro-active nozzle. Detailed experimental studies of the CNT separation and deposition processes have been performed on both single-walled carbon nanotubes (SWCNTs) and multi-walled carbon nanotubes (MWCNTs). Preliminary results show that CNTs could be manipulated to multiple pairs of microelectrodes repeatedly. Consistent I-V characteristics and CNT formations of the fabricated devices were obtained. The yield of semi-conducting CNTs was also increased by using our System. Therefore, by using the proposed CNT separation and deposition System, CNT-based nanodevices with specific and consistent electronic properties can be manufactured automatically and effectively.

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

  • automated Nanomanufacturing System to assemble carbon nanotube based devices
    The International Journal of Robotics Research, 2009
    Co-Authors: Ning Xi, Carmen Kar Man Fung, Jiangbo Zhang, Hongzhi Chen, Uchechukwu C Wejinya
    Abstract:

    In this paper we report the design and implementation of a novel automated manufacturing System for carbon nanotube (CNT)-based nanodevices, which integrates a new dielectrophoretic (DEP) microchamber into a robotic-based deposition workstation. The microchamber has been fabricated to separate and select CNTs with the desired electronic property by using DEP force. Moreover, a series of tools for mass-producing consistent nanodevices has been developed with the CNT deposition workstation, such as computer-controllable micromanipulators and a micro-active nozzle. Detailed experimental studies of the CNT separation and deposition processes have been performed on both single-walled carbon nanotubes (SWCNTs) and multi-walled carbon nanotubes (MWCNTs). Preliminary results show that CNTs could be manipulated to multiple pairs of microelectrodes repeatedly. Consistent I-V characteristics and CNT formations of the fabricated devices were obtained. The yield of semi-conducting CNTs was also increased by using our System. Therefore, by using the proposed CNT separation and deposition System, CNT-based nanodevices with specific and consistent electronic properties can be manufactured automatically and effectively.

  • Planning and Control for Automated Nanorobotic Assembly
    Proceedings of the 2005 IEEE International Conference on Robotics and Automation, 2005
    Co-Authors: Heping Chen, Ning Xi, Jiangbo Zhang, Guangyong Li, M. Prokos
    Abstract:

    Nanomanufacturing using Atomic Force Microcopy has been widely investigated. Most of nanomanipulation schemes go through the scan-design-manipulation-scan cycle manually which is time consuming and inefficient. Automated AFM tip path planning is desirable for Nanomanufacturing, but does not receive much attention. In this paper, a CAD guided automated Nanomanufacturing System is presented. Based on the CAD model of a nanostructure, the manipulation paths for both nanoparticles and nanorods are generated automatically. A local scanning method is developed to compensate for the random drift that may cause the failure of the nano-assembly. The experimental results demonstrate that the developed algorithm can be employed to manufacture nanostructures efficiently. The research work opens a door to the CAD guided automated Nanomanufacturing.

  • ICRA - Planning and Control for Automated Nanorobotic Assembly
    Proceedings of the 2005 IEEE International Conference on Robotics and Automation, 2005
    Co-Authors: Heping Chen, Ning Xi, Jiangbo Zhang, Guangyong Li, M. Prokos
    Abstract:

    Nanomanufacturing using Atomic Force Microcopy has been widely investigated. Most of nanomanipulation schemes go through the scan-design-manipulation-scan cycle manually which is time consuming and inefficient. Automated AFM tip path planning is desirable for Nanomanufacturing, but does not receive much attention. In this paper, a CAD guided automated Nanomanufacturing System is presented. Based on the CAD model of a nanostructure, the manipulation paths for both nanoparticles and nanorods are generated automatically. A local scanning method is developed to compensate for the random drift that may cause the failure of the nano-assembly. The experimental results demonstrate that the developed algorithm can be employed to manufacture nanostructures efficiently. The research work opens a door to the CAD guided automated Nanomanufacturing.

M. Prokos - One of the best experts on this subject based on the ideXlab platform.

  • Planning and Control for Automated Nanorobotic Assembly
    Proceedings of the 2005 IEEE International Conference on Robotics and Automation, 2005
    Co-Authors: Heping Chen, Ning Xi, Jiangbo Zhang, Guangyong Li, M. Prokos
    Abstract:

    Nanomanufacturing using Atomic Force Microcopy has been widely investigated. Most of nanomanipulation schemes go through the scan-design-manipulation-scan cycle manually which is time consuming and inefficient. Automated AFM tip path planning is desirable for Nanomanufacturing, but does not receive much attention. In this paper, a CAD guided automated Nanomanufacturing System is presented. Based on the CAD model of a nanostructure, the manipulation paths for both nanoparticles and nanorods are generated automatically. A local scanning method is developed to compensate for the random drift that may cause the failure of the nano-assembly. The experimental results demonstrate that the developed algorithm can be employed to manufacture nanostructures efficiently. The research work opens a door to the CAD guided automated Nanomanufacturing.

  • ICRA - Planning and Control for Automated Nanorobotic Assembly
    Proceedings of the 2005 IEEE International Conference on Robotics and Automation, 2005
    Co-Authors: Heping Chen, Ning Xi, Jiangbo Zhang, Guangyong Li, M. Prokos
    Abstract:

    Nanomanufacturing using Atomic Force Microcopy has been widely investigated. Most of nanomanipulation schemes go through the scan-design-manipulation-scan cycle manually which is time consuming and inefficient. Automated AFM tip path planning is desirable for Nanomanufacturing, but does not receive much attention. In this paper, a CAD guided automated Nanomanufacturing System is presented. Based on the CAD model of a nanostructure, the manipulation paths for both nanoparticles and nanorods are generated automatically. A local scanning method is developed to compensate for the random drift that may cause the failure of the nano-assembly. The experimental results demonstrate that the developed algorithm can be employed to manufacture nanostructures efficiently. The research work opens a door to the CAD guided automated Nanomanufacturing.

Heping Chen - One of the best experts on this subject based on the ideXlab platform.

  • Planning and Control for Automated Nanorobotic Assembly
    Proceedings of the 2005 IEEE International Conference on Robotics and Automation, 2005
    Co-Authors: Heping Chen, Ning Xi, Jiangbo Zhang, Guangyong Li, M. Prokos
    Abstract:

    Nanomanufacturing using Atomic Force Microcopy has been widely investigated. Most of nanomanipulation schemes go through the scan-design-manipulation-scan cycle manually which is time consuming and inefficient. Automated AFM tip path planning is desirable for Nanomanufacturing, but does not receive much attention. In this paper, a CAD guided automated Nanomanufacturing System is presented. Based on the CAD model of a nanostructure, the manipulation paths for both nanoparticles and nanorods are generated automatically. A local scanning method is developed to compensate for the random drift that may cause the failure of the nano-assembly. The experimental results demonstrate that the developed algorithm can be employed to manufacture nanostructures efficiently. The research work opens a door to the CAD guided automated Nanomanufacturing.

  • ICRA - Planning and Control for Automated Nanorobotic Assembly
    Proceedings of the 2005 IEEE International Conference on Robotics and Automation, 2005
    Co-Authors: Heping Chen, Ning Xi, Jiangbo Zhang, Guangyong Li, M. Prokos
    Abstract:

    Nanomanufacturing using Atomic Force Microcopy has been widely investigated. Most of nanomanipulation schemes go through the scan-design-manipulation-scan cycle manually which is time consuming and inefficient. Automated AFM tip path planning is desirable for Nanomanufacturing, but does not receive much attention. In this paper, a CAD guided automated Nanomanufacturing System is presented. Based on the CAD model of a nanostructure, the manipulation paths for both nanoparticles and nanorods are generated automatically. A local scanning method is developed to compensate for the random drift that may cause the failure of the nano-assembly. The experimental results demonstrate that the developed algorithm can be employed to manufacture nanostructures efficiently. The research work opens a door to the CAD guided automated Nanomanufacturing.

  • Automated nano-assembly of nanoscale structures
    4th IEEE Conference on Nanotechnology 2004., 2004
    Co-Authors: Heping Chen, Ning Xi, Guangyong Li, Jingbo Zhang, A. Saeed
    Abstract:

    Nanoscale products have many potential applications. The complexity of Nanomanufacturing requires to position, manipulate and assemble nanoobjects to form asymmetric patterns. The atomic force microscopy has been proven to be a powerful technique for Nanomanufacturing. Typical manual nanomanipulation using an atomic force microscope (AFM) is time-consuming and inefficient. Automated AFM tip path planning is desirable for Nanomanufacturing, but does not receive much attention. In this paper, a CAD-guided automated Nanomanufacturing System is developed to manufacture a nanostructure/nanodevice based on the CAD model of the nanostructure/nanodevice. The System is implemented to manipulate nanoobjects to manufacture nanostructures automatically.