Design and Analysis of a Compliant Parallel Pan-Tilt Platform

Typeset version

 

TY  - JOUR
  - Jingjun Yu, Dengfeng Lu, Guangbo Hao
  - 2015
  - February
  - Meccanica
  - Design and Analysis of a Compliant Parallel Pan-Tilt Platform
  - Published
  - Scopus: 6 ()
  - Compliant parallel mechanism, Pan-tilt, Flexure hinge, Joint damping
  - In combination of the advantages of both parallel mechanisms and compliant mechanisms, a compliant parallel mechanism with two rotational DOFs (degrees of freedom) is designed to meet the requirement of a lightweight and compact pan-tilt platform. Firstly, two commonly-used design methods i.e. direct substitution and FACT (Freedom and Constraint Topology) are applied to design the configuration of the pan-tilt system, and similarities and differences of the two design alternatives are compared. Then inverse kinematic analysis of the candidate mechanism is implemented by using the pseudo-rigid-body model (PRBM), and the Jacobian related to its differential kinematics is further derived to help designer realize dynamic analysis of the 8R compliant mechanism. In addition, the mechanism’s maximum stress existing within its workspace is tested by finite element analysis. Finally, a method to determine joint damping of the flexure hinge is presented, which aims at exploring the effect of joint damping on actuator selection and real-time control. To the authors’ knowledge, almost no existing literature concerns with this issue.
  - http://www.springer.com/physics/classical+continuum+physics/journal/11012
  - 10.1007/s11012-015-0116-1
DA  - 2015/02
ER  - 
@article{V288085695,
   = {Jingjun Yu,  Dengfeng Lu and  Guangbo Hao },
   = {2015},
   = {February},
   = {Meccanica},
   = {Design and Analysis of a Compliant Parallel Pan-Tilt Platform},
   = {Published},
   = {Scopus: 6 ()},
   = {Compliant parallel mechanism, Pan-tilt, Flexure hinge, Joint damping},
   = {{In combination of the advantages of both parallel mechanisms and compliant mechanisms, a compliant parallel mechanism with two rotational DOFs (degrees of freedom) is designed to meet the requirement of a lightweight and compact pan-tilt platform. Firstly, two commonly-used design methods i.e. direct substitution and FACT (Freedom and Constraint Topology) are applied to design the configuration of the pan-tilt system, and similarities and differences of the two design alternatives are compared. Then inverse kinematic analysis of the candidate mechanism is implemented by using the pseudo-rigid-body model (PRBM), and the Jacobian related to its differential kinematics is further derived to help designer realize dynamic analysis of the 8R compliant mechanism. In addition, the mechanism’s maximum stress existing within its workspace is tested by finite element analysis. Finally, a method to determine joint damping of the flexure hinge is presented, which aims at exploring the effect of joint damping on actuator selection and real-time control. To the authors’ knowledge, almost no existing literature concerns with this issue.}},
   = {http://www.springer.com/physics/classical+continuum+physics/journal/11012},
   = {10.1007/s11012-015-0116-1},
  source = {IRIS}
}
AUTHORSJingjun Yu, Dengfeng Lu, Guangbo Hao
YEAR2015
MONTHFebruary
JOURNAL_CODEMeccanica
TITLEDesign and Analysis of a Compliant Parallel Pan-Tilt Platform
STATUSPublished
TIMES_CITEDScopus: 6 ()
SEARCH_KEYWORDCompliant parallel mechanism, Pan-tilt, Flexure hinge, Joint damping
VOLUME
ISSUE
START_PAGE
END_PAGE
ABSTRACTIn combination of the advantages of both parallel mechanisms and compliant mechanisms, a compliant parallel mechanism with two rotational DOFs (degrees of freedom) is designed to meet the requirement of a lightweight and compact pan-tilt platform. Firstly, two commonly-used design methods i.e. direct substitution and FACT (Freedom and Constraint Topology) are applied to design the configuration of the pan-tilt system, and similarities and differences of the two design alternatives are compared. Then inverse kinematic analysis of the candidate mechanism is implemented by using the pseudo-rigid-body model (PRBM), and the Jacobian related to its differential kinematics is further derived to help designer realize dynamic analysis of the 8R compliant mechanism. In addition, the mechanism’s maximum stress existing within its workspace is tested by finite element analysis. Finally, a method to determine joint damping of the flexure hinge is presented, which aims at exploring the effect of joint damping on actuator selection and real-time control. To the authors’ knowledge, almost no existing literature concerns with this issue.
PUBLISHER_LOCATIONhttp://www.springer.com/physics/classical+continuum+physics/journal/11012
ISBN_ISSN
EDITION
URL
DOI_LINK10.1007/s11012-015-0116-1
FUNDING_BODY
GRANT_DETAILS