Course syllabus
010913245-65 วิศวกรรมความแม่นยำ (Precision Engineering)
Course Syllabus
Data entry : Asst.Prof. Dr.Pipat Phaisalpanumas
1. Course number and name
010913245-65 วิศวกรรมความแม่นยำ (Precision Engineering)
2. Credits and contact hours
3(3-0-6)
3. Instructor’s or course coordinator’s name
Asst.Prof. Dr.Pipat Phaisalpanumas
4. Text book, title, author, and year
- Instruction Material of Precision Engineering.
- Basics of Precision Engineering, Richard Leach and Stuart T. Smith, Taylor & Francis Group, LLC, 2018.
5. Specific course information
- brief description of the content of the course (catalog description)
Fundamental of precision engineering theory; evolutions of precision engineering; concepts and design of precision engineering; principles of accuracy and precise measurement; advanced measurement and repeatability; error factors; principles of effective test and analysis for machines and tools; creativity and techniques for machine design and development tools for precision; mechanical and chemical polishing processes at nanometer scale; measure nanometer scale; case study of application of engineering precision in manufacturing process; using high-precision machine tools to increase productivity in industry. - prerequisites or co-requisites
- indicate whether a required, elective, or selected elective (as per Table 5-1) course in the program
Elective :
6. Specific goals for the course
- specific outcomes of instruction (e.g. The student will be able to explain the significance of current research about a particular topic.)
- CLO1 Acquiring technical knowledge and skills: To develop a deep understanding of the technical principles and practices involved in the field. This includes gaining knowledge in areas such as design, manufacturing processes, metrology and quality control.
- CLO2 Enhancing problem-solving abilities: To analyze complex problems and develop innovative solutions. To improve problem-solving skills and become adept at identifying and addressing challenges in various precision engineering applications.
- CLO3 Exploring cutting-edge technologies: To understand the latest technological advancements and explore how they can be applied to industrial problems.
- CLO4 Pursuing a career in precision engineering: To indicate the position for opportunities in industries such as aerospace, automotive, medical devices and electronics.
- CLO5 Contributing to research and innovation.
- explicitly indicate which of the student outcomes listed in Criterion 3 or any other outcomes are addressed by the course.
ABET Student Outcome (SO) Listed in Criterion 3 Performance indicator SO1 an ability to identify, formulate, and solve complex engineering problems by applying principles of engineering, science, and mathematics. - PI-1.1 Identify the problem and identify key issues/variables
- PI-1.2 Formulate an appropriate model of a system or process
- PI-1.3 Show solution procedure (or Solving methods)
SO6 an ability to develop and conduct appropriate experimentation, analyze and interpret data, and use engineering judgment to draw conclusions. - PI-6.1 Design an Experiment Plan (How to answer the Driving Question?) and Identify the factors and response variable
- PI-6.2 Acquire data on appropriate variables
- PI-6.3 Interpret experimental data and results with respect to appropriate theoretical models
- PI-6.4 Validate the model; Explain observed differences between model and experiment (bad model, bad measurements, noise, etc.) and draw conclusions
7. Brief list of topics to be covered
| Week | Topic | Details | Activities |
|---|---|---|---|
| 1 | Introduction to Precision Engineering - Overview of precision engineering principles and concepts - Importance of precision engineering in various industries | ||
| 2 | Metrology and Measurement Techniques - Introduction to metrology and its significance in precision engineering - Measurement techniques: contact and non-contact methods - Measurement instruments: calipers, micrometers, profilometers, etc. | ||
| 3 | Metrology and Measurement Techniques - Introduction to metrology and its significance in precision engineering - Measurement techniques: contact and non-contact methods - Measurement instruments: calipers, micrometers, profilometers, etc. | ||
| 4 | Tolerance Analysis and Design for Manufacturability - Tolerance analysis: understanding tolerances and their impact on product quality - Design for manufacturability: principles and strategies for precision engineering | ||
| 5 | Manufacturing Processes - Overview of advanced manufacturing processes used in precision engineering - CNC machining, laser cutting, EDM, microfabrication, etc. - Process optimization and quality control | ||
| 6 | Manufacturing Processes - Overview of advanced manufacturing processes used in precision engineering - CNC machining, laser cutting, EDM, microfabrication, etc. - Process optimization and quality control | ||
| 7 | Precision Machining and Tooling - Principles of precision machining: turning, milling, grinding, etc. - Tooling considerations: cutting tools, fixtures, jigs, and dies - Surface finish and dimensional control techniques | ||
| 8 | Precision Machining and Tooling - Principles of precision machining: turning, milling, grinding, etc. - Tooling considerations: cutting tools, fixtures, jigs, and dies - Surface finish and dimensional control techniques | ||
| 9 | Materials and Material Selection - Properties of materials used in precision engineering - Material selection criteria for specific applications - Heat treatment and surface engineering techniques | ||
| 10 | Materials and Material Selection - Properties of materials used in precision engineering - Material selection criteria for specific applications - Heat treatment and surface engineering techniques | ||
| 11 | Precision Assembly and Automation - Principles of precision assembly techniques - Automation in precision engineering: robotics and control systems - Assembly line design and optimization | ||
| 12 | Precision Assembly and Automation - Principles of precision assembly techniques - Automation in precision engineering: robotics and control systems - Assembly line design and optimization | ||
| 13 | Quality Assurance and Statistical Process Control - Introduction to quality assurance in precision engineering - Statistical process control methods for monitoring and improving quality - Six Sigma and lean manufacturing concepts | ||
| 14 | Case Studies and Project Work - Analysis of real-world case studies in precision engineering - Hands-on projects to apply precision engineering principles - Presentation and documentation of project work | ||
| 15 | Case Studies and Project Work - Analysis of real-world case studies in precision engineering - Hands-on projects to apply precision engineering principles - Presentation and documentation of project work |
8. Course Assessment
| Course assessment | Weight score (%) | Assessment tools | Date |
|---|---|---|---|
| Assignment and Quiz | 30 | quiz, assignment | |
| Group Project | 30 | group discussion | |
| Final examination | 40 | final examination |
The grading table
| Grading | Rank |
|---|---|
| >= 80% | A |
| 73% - 79.99% | B+ |
| 66% - 72.99% | B |
| 59% - 65.99% | C+ |
| 52% - 58.99% | C |
| 46% - 51.99% | D+ |
| 40% - 45.99% | D |
| 0% - 39.99% | F |
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