Design and analysis of three-axis cantilever type force sensor

Author:

Jawale Hemant P.,Jaiswal Ankur,Bhasme Kapil N.

Abstract

Purpose The force sensing is used in robotic assembly tasks. The sensors developed are much advanced and costly. The force transducers are generally configured and deployed at the wrist of the robotic arm. The purpose of this paper is to describe the concept of an elastic transducer to make available cost-effective force sensor with simple construction and analysis. Design/methodology/approach The analytical formulation is developed herewith for one-, two- and three-axis elastic cantilever configuration. The force to be measured can be calculated analytically using derived strain expressions. The strains are estimated using proposed formulation, further crosschecked through FEA approach. The analytical method for strain estimation using moment equations is presented along with validation using finite element method (FEM) tool (ANSYS 15.0) with the case study. Findings The derivation of expressions for force components from strains is developed. The resulting formulation found to confirm the estimated strains from analytical methods closely to the FEM results. Theoretically, it is possible to find contact forces and angle of force on stationary force platform. It is found that the magnitude of estimated contact forces is within 1 per cent deviations. Research limitations/implications The mathematical modeling and FEA simulation of the three-axis force sensor under elastic (no deformation) conditions. Originality/value These sensors are ranging from simple crossbar structure to Stewart platform type. The subsequent development in this field pertains to performance enhancement such as accuracy and cross-sensitivity. The basic structure of the sensor has not changed drastically. The major problem, as discussed by many authors, is a complex interdependence of six components and intricate geometrical structure. Derivation of expressions for force components from strains is a breakthrough contribution by the authors. The analytical treatment for finding the strains is aimed in this paper.

Publisher

Emerald

Subject

Electrical and Electronic Engineering,Mechanical Engineering,Mechanics of Materials,Geotechnical Engineering and Engineering Geology,Civil and Structural Engineering

Reference27 articles.

1. Six‐axis force sensor evaluation and a new type of optimal frame truss design for robotic applications;Journal of Robotic Systems,1989

2. Teleoperated 3-DOF micromanipulation system with force feedback capability: design and experiments;Industrial Robot: The International Journal of Robotics Research and Application,2008

3. Hybrid position/force control of 6-dof hydraulic parallel manipulator using force and vision;Industrial Robot: An International Journal,2016

4. Shape optimal design and force sensitivity evaluation of six-axis force sensors;Sensors and Actuators A: Physical,1997

5. Development, calibration and testing of three axis force sensor,2016

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