STUDY, FABRICATION, AND EVALUATION OF SOFT ROBOTIC MODEL RECTANGULAR FIBER REINFORCED ACTUATOR
Robots are smart machines that have been designed and programmed to help humans in various fields, such as manufacturing, logistics, transportation, to health. However, mechanical robots made of hard materials hinder the development and use of robots on fragile objects. In addition, mechanical ro...
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Format: | Final Project |
Language: | Indonesia |
Online Access: | https://digilib.itb.ac.id/gdl/view/67893 |
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Institution: | Institut Teknologi Bandung |
Language: | Indonesia |
Summary: | Robots are smart machines that have been designed and programmed to help
humans in various fields, such as manufacturing, logistics, transportation, to
health. However, mechanical robots made of hard materials hinder the
development and use of robots on fragile objects. In addition, mechanical robots
cannot be used in environments that require high security of robot-human
interaction. This is what underlies the development of soft robots who made of soft
materials. One of the mechanisms for moving soft robot actuators is called flexible
fluidic actuator (FFAs). In this mechanism, the soft robot actuator is driven by a
fluid. FFAs have several types of actuator models. One of the most popular models
is fiber reinforced. The movement of the fiber reinforced actuator is influenced by
the choice of material and the design parameters used. Given that the ability to
move is one of the most important things in soft robotics, in this research called
“Study, Fabrication, and Evaluation of Soft Robotic Model Rectangular Fiber
Reinforced Actuator”, a study, fabrication, and evaluation is carried out on the
effect of material selection and design parameters on the movement ability of the
actuator.
A fabrication process will be carried out to produce actuators with variations in
the use of materials and design parameters in accordance with research needs.
Furthermore, an evaluation of the movement capabilities of all actuators that have
been made is carried out. This study gives a new option for alternative extensible
layer material, the criteria for selecting a strain limiting layer material to produce
a good actuator movement ability, and the effect of the design parameters on the
number of turns and wall thickness on the actuator movement ability. |
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