TY - JOUR
T1 - Haptic controlled three degree-of-freedom microgripper system for assembly of detachable surface-micromachined MEMS
AU - Vijayasai, Ashwin P.
AU - Sivakumar, Ganapathy
AU - Mulsow, Matthew
AU - Lacouture, Shelby
AU - Holness, Alex
AU - Dallas, Tim E.
N1 - Funding Information:
The authors acknowledge support from the Welch Foundation ( D-1651 ) and the National Science Foundation ( EEC – 0648761 ) for supporting this work. The authors would like to thank Phil Cruzan and Kim Zinsmeyer, Department of Physics, Texas Tech University, for construction of the three-axis assembly; SEM/TEM images provide by Charles Linch, Texas Tech University Health Sciences Center Imaging Center.
PY - 2012/6
Y1 - 2012/6
N2 - In this work, we describe the implementation of a three degree-of-freedom meso to microscale manipulation system for handling MEMS and micro-objects. A number of commercially available hardware components have been integrated to produce this system. Microgrippers, with an operational range of 0-100 μm, were used as the end-effector for the manipulation system. Three-axis control of the microgripper's position was obtained using micromanipulators coupled to stepper motors. For each of the three linear axes, a total travel of ∼24 mm, with ∼0.5 μm/step size, was achieved. A haptic was used as the primary human interface to the system to control the actuation of the microgripper and control its position. To demonstrate the functionality of the system, the microgripper was used to manipulate micro-objects and to pick and place a surface-micromachined microgripper. The micro-objects included ∼100 μm diameter polysilicon chess pieces that were moved around a microscale polysilicon chessboard (∼ 1 mm × 1 mm). A microgripper was taken off the substrate it was fabricated on and assembled on a printed-circuit board. The assembled surface-micromachined microgripper was demonstrated in handling another microgripper. The entire system is interfaced by LabVIEW software.
AB - In this work, we describe the implementation of a three degree-of-freedom meso to microscale manipulation system for handling MEMS and micro-objects. A number of commercially available hardware components have been integrated to produce this system. Microgrippers, with an operational range of 0-100 μm, were used as the end-effector for the manipulation system. Three-axis control of the microgripper's position was obtained using micromanipulators coupled to stepper motors. For each of the three linear axes, a total travel of ∼24 mm, with ∼0.5 μm/step size, was achieved. A haptic was used as the primary human interface to the system to control the actuation of the microgripper and control its position. To demonstrate the functionality of the system, the microgripper was used to manipulate micro-objects and to pick and place a surface-micromachined microgripper. The micro-objects included ∼100 μm diameter polysilicon chess pieces that were moved around a microscale polysilicon chessboard (∼ 1 mm × 1 mm). A microgripper was taken off the substrate it was fabricated on and assembled on a printed-circuit board. The assembled surface-micromachined microgripper was demonstrated in handling another microgripper. The entire system is interfaced by LabVIEW software.
KW - Detachable-MEMS
KW - Haptic
KW - MEMS
KW - Micro-assembly
KW - Micro-positioner
KW - Microgripper
KW - Surface-micromachining
UR - http://www.scopus.com/inward/record.url?scp=84860377314&partnerID=8YFLogxK
U2 - 10.1016/j.sna.2012.03.035
DO - 10.1016/j.sna.2012.03.035
M3 - Article
AN - SCOPUS:84860377314
SN - 0924-4247
VL - 179
SP - 328
EP - 336
JO - Sensors and Actuators, A: Physical
JF - Sensors and Actuators, A: Physical
ER -