Scientific Basis of Engineering

Program Overview

Through a combination of online and in-person sessions, participants gain knowledge in mechanics, electronics, computer science, and signal processing. The program prepares individuals for careers in various engineering fields, including mechanical, electrical, electronic, and computer engineering.

Program Outline

Objectives:

Upon successful completion of the program, participants will be able to:

• Explain the fundamental principles of applied mechanics.
• Solve basic mechanical problems using force applications.
• Select appropriate tools for basic mechanical tasks.
• Explain electric and magnetic fields and their governing laws.
• Explain basic analog and digital electronic components, circuits, and systems.
• Explain basic amplifier circuits for linear and non-linear applications.
• Describe basic factors influencing signal quality and explain signal processing and manipulation.
• Explain the architecture of microprocessors and programmable devices.
• Describe the basic principles of interfacing a device to a microprocessor/programmable device and write simple programs.
• Interpret basic circuit diagrams, recognizing common configurations.

Description:

The program is delivered primarily online, with in-person sessions during commencement week. The content is divided into modules covering various aspects of engineering science, including mechanics, electronics, and computer science. Participants engage in interactive learning through lectures, seminars, tutorials, and practical classes.

Outline:

Content:

The Scientific Basis of Engineering curriculum typically comprises the following modules:

• Basic Mechanics: Covers fundamental concepts of force, mass, acceleration, work, energy, power, moments, Hooke's Law, friction, bending of beams, torsion of shafts, simple harmonic motion, and rigid body dynamics.
• Electronics: Explores concepts of electricity and magnetism, SI units, conductors, insulators, semiconductor theory, circuit components, elementary analog circuits, feedback, stability, noise, basic transducer theory, motors, and elementary digital systems.
• Signal Processing and Manipulation: Examines factors influencing signal quality, signal processing, and manipulation techniques.
• Microprocessors and Programmable Devices: Delves into the architecture of microprocessors and programmable devices, interfacing principles, and basic programming skills.
• Circuit Interpretation: Develops skills in interpreting basic circuit diagrams and recognizing common configurations.

Structure:

The program is delivered over approximately eight months, with a combination of online and in-person sessions. Participants typically have up to three days of contact time at UWE Bristol campus during commencement week, including laboratory workshops, lectures, and tutorials. Additional online learning includes synchronous and asynchronous lectures, tutorials, discussions, quizzes, and collaborative group work.

Assessment:

Assessment Methods:

The program utilizes a multifaceted approach to assessment, including:

• Written Exam: Unseen or open-book written exams, or in-class tests.
• Coursework: Written assignments, essays, reports, dissertations, portfolios, or projects.
• Practical Exam: Oral assessments, presentations, or practical skills assessments.

Teaching:

Teaching Methods:

The program employs a variety of interactive teaching methods, including:

• Lectures: Providing foundational knowledge and introducing key concepts.
• Seminars: Facilitating discussions and deeper understanding of subject matter.
• Project Supervision: Providing individual guidance and feedback on project work.
• Demonstrations: Illustrating practical applications of theoretical concepts.
• Practical Classes and Workshops: Engaging in hands-on activities to reinforce learning.
• Fieldwork: Applying theoretical knowledge to real-world scenarios.
• External Visits: Gaining insights into industry practices and real-world applications.
• Work-Based Learning: Experiential learning opportunities in relevant workplace settings.
• Supervised Time in Studio/Workshop: Accessing specialized facilities for practical learning.

Independent Learning:

Participants also engage in independent learning through:

• Reading essential materials.
• Preparing for case studies.
• Completing assignments.
• Participating in online discussions.

Careers:

Potential Career Paths:

The Scientific Basis of Engineering program can prepare participants for various career paths in different engineering-related fields, including:

• Mechanical Engineering
• Electrical Engineering
• Electronic Engineering
• Computer Engineering
• Systems Engineering
• Robotics
• Automation
• Control Systems
• Instrumentation

Career Opportunities:

Graduates may find employment in various industries, including:

• Manufacturing
• Automotive
• Aerospace
• Energy
• Electronics
• Communications
• Software Development
• Research and Development

Career Outcomes:

The program aims to equip participants with the necessary knowledge and skills to pursue successful careers in engineering and related fields. The specific career outcomes for graduates will vary depending on their individual career aspirations and chosen paths.

Other:

Study Facilities:

Participants have access to UWE Bristol's exceptional facilities, including well-equipped laboratories, workshops, and libraries.

Contact Information:

Telephone: +44 (0)117 32 8115