2024/5, Trimester 1, Blended,
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Occurrence: | 001 |
Primary mode of delivery: | Blended |
Location of delivery: | MERCHISTON |
Partner: | |
Member of staff responsible for delivering module: | Simon Smith Bize |
Module Organiser: | |
Student Activity (Notional Equivalent Study Hours (NESH)) |
Mode of activity | Learning & Teaching Activity | NESH (Study Hours) | NESH Description |
Face To Face | Centrally Time Tabled Examination | 3 | Individual written exam covering the Learning Outcomes of the module. |
Online | Guided independent study | 155 | Guided independent study of the material, references and access to the laboratory outside practical sessions. |
Face To Face | Lecture | 22 | Classroom lectures covering new material for all Learning Outcomes. |
Face To Face | Practical classes and workshops | 20 | Practical sessions in the laboratory, including industry-grade mobile and manipulator robots to be programmed by the student. |
| Total Study Hours | 200 | |
| Expected Total Study Hours for Module | 200 | |
Assessment |
Type of Assessment | Weighting % | LOs covered | Week due | Length in Hours/Words | Description |
Project - Practical | 60 | 3~4 | Week 13 | HOURS= 1000word/10mins | Group work implementing a solution for an industrial robotic task designing and programming the solution on the simulated and physical robots [M1, M3, M12, M16]. The task includes the use and selection of industrial standards for robot operation and software design [M5, M13]. The solution must comply with safety standards in mechanical and software safety [M10]. Assessment includes a 10 minutes video demonstrating the system and its use cases [60%]. Short report of maximum 1000 words [40%] including explanation of the algorithms. |
Centrally Time Tabled Examination | 40 | 1~2~3~4 | Exam Period | HOURS= 3 hours | The exam covers a number of topics including the use of engineering principle equations for the mathematical modeling/control of Robotic systems, including system modeling and system control[M1, M2, M3]. Different control algorithms and their limitations for the robotic arm will be examined[M1, M2, M3]. The exam also covers fundamental knowledge of robotic classification and orientation [M1, M2, M3, M13]. The exam covers the design of solutions and understanding of the theory of robotics using and choosing sensors, actuators and control in industrial standards [M3, M5]. |
Component 1 subtotal: | 60 | | |
Component 2 subtotal: | 40 | | | | |
Module subtotal: | 100 | | | | |