Teaching Responsibility
LJMU Schools involved in Delivery:
LJMU Partner Taught
Learning Methods
Lecture
Practical
Tutorial
Workshop
Module Offerings
5501ICBTMT-APR-PAR
5501ICBTMT-JAN-PAR
5501ICBTMT-SEP_NS-PAR
Aims
This unit will develop learners’ understanding of robots and the skills needed to program them for a range of industrial applications.
Learning Outcomes
1.
Explain the fundamentals of Robotics.
2.
Demonstrate ability to programme a Robot.
3.
Design a robot cell and plan its implementation.
4.
Analyse the applications of Industrial Robots.
Module Content
Outline Syllabus:Manipulator elements: electrical and fluid drive systems such as harmonic, cycloidal, shaft, rod, screw, belt, chain; sensors such as absolute and incremental encoders, potentiometers, resolvers, tachometers; brakes; counterbalance devices
Control elements: CPU; system and user memory; interface modules; power modules
Intelligence: relating to proximity, range, position, force, temperature, sound and gas
Sources of error or malfunction: environmental contamination such as smoke, arc-flash, dirt, fluids, heat; parallax; wear; data corruption; accessibility; sensitivity; accuracy; design
Programming methods: task programming; manual data input; teach programming; explicit programming; goal-directed programming
Facilities: conditional loops; datum shifts; location shifts; interrupts; peripheral communications; TCP offsets; canned cycles; macros
Industrial tasks: such as welding; assembly; machining; gluing; surface coating; machine loading
Setting up and executing the program: program/location input; start-up inter-locking; program testing; fine-tuning; automatic operation
Design parameters: layout; cycle times; control; accessibility; error detection; component specification; protection of the robot and peripherals, future developments; hazard analysis such as human, robot design, robot operation, workplace layout, hardware failure, control system failure, control system malfunction, software failure, external equipment failure, external sensor failure; guarding; fencing; intrusion monitoring; safe system of work; restriction mechanisms
Selection criteria: accuracy; repeatability; velocity; range; operation cycle time; load-carrying capacity; life expectancy; reliability; maintenance requirements; control and play-back; cost; memory; fitness for purpose; working envelope
Design: station configuration; parts presentation; fixtures; parts recognition; sensors; cell services; safety interlocks; end effector design; flexibility
Implementation factors: company familiarisation; planning; robot manufacturer back-up; economic analysis and ethical implications; installations scheduling; training