2025/6, Trimester 2, In Person,
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Occurrence: | 001 |
Primary mode of delivery: | In Person |
Location of delivery: | MERCHISTON |
Partner: | |
Member of staff responsible for delivering module: | Stathis Tingas |
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 | 2 | The exam evaluates students’ understanding of core mathematical and engineering principles and their ability to apply this knowledge to the solution of complex problems. Through a series of timed questions, students will be expected to formulate and analyse mathematical models, drawing justified conclusions based on first principles and logical reasoning. |
Face To Face | Tutorial | 33 | The tutorial sessions offer a hands-on learning experience where students apply the concepts introduced during lectures to solve problems and deepen their understanding. In these small-group or interactive sessions, students work through exercises, receive individualized guidance, and engage in discussions to clarify doubts and strengthen their problem-solving skills. Tutorials emphasize active learning and provide an opportunity for students to practice mathematical techniques. |
Online | Guided independent study | 132 | Guided independent study allows students to consolidate their learning at their own pace. Through recommended readings, practice exercises, and supplementary resources, students can explore module topics in greater depth, reinforcing their understanding and preparing for assessments. |
Face To Face | Lecture | 33 | The lecture sessions are designed to provide a comprehensive understanding of the core mathematical concepts and techniques covered in the module. These sessions focus on delivering theoretical knowledge, including detailed explanations, worked examples, and demonstrations of practical applications relevant to engineering. The structured delivery of material ensures that students build a strong conceptual foundation while connecting mathematical principles to real-world engineering challenges. |
| 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 |
Report | 50 | 1~2 | Week 7 | , WORDS= 1000 words | The coursework provides students with an opportunity to apply comprehensive mathematical and statistical knowledge to the solution of practical engineering problems [M1]. Students are required to formulate and analyse these problems, reaching substantiated conclusions through the use of first principles and appropriate mathematical reasoning [M2]. In preparing their reports, students will select and apply suitable computational and analytical techniques to model engineering scenarios, including discussion of the limitations and assumptions inherent in their chosen methods [M3]. |
Centrally Time Tabled Examination | 50 | 1~2~3~4~5 | Exam Period | HOURS= 2 hours | The exam evaluates students’ understanding of core mathematical and engineering principles and their ability to apply this knowledge to the solution of complex problems [M1]. Through a series of timed questions, students will be expected to formulate and analyse mathematical models, drawing justified conclusions based on first principles and logical reasoning [M2]. The exam further assesses students’ proficiency in selecting and employing appropriate analytical techniques for problem-solving and requires them to recognise and discuss the limitations of their chosen approaches [M3]. |
Component 1 subtotal: | 50 | | |
Component 2 subtotal: | 50 | | | | |
Module subtotal: | 100 | | | | |