English-Medium Instruction
Course Objectives
This course introduces various aspects of mobile robot technology, from core algorithms to mechanical design. It aims to equip students with the ability to design and implement robots capable of autonomous navigation and task execution in real-world environments.
Course syllabus
The course covers three major areas: theory, practice, and presentation.
Theory
Perception: Principles of sensors and information acquisition
Localization and Mapping: Self-localization and environment mapping
Path Planning: Automatic generation of safe and efficient trajectories
Motion Control: Precise and steady execution of robot movements
Practice
Implementation and simulation on various types of mobile robots
(aerial, ground, surface, underwater)
Problem- and project-based learning, focusing on teamwork and practical application
Presentation
Academic writing and publication: Learning to write scholarly papers in English (IEEE format)
Organizing and presenting project outcomes to develop comprehensive research and reporting skills
This course provides a comprehensive introduction to intelligent control systems, covering algorithms, system mechanisms, and applications. It aims to equip students with the ability to design intelligent systems capable of perception, learning, reasoning, and optimization under incomplete information.
Core Competency of Intelligent Systems: Handling Uncertainty
Course Syllabus
The course is divided into three major parts: theory, practice, and presentation.
Theory
Soft Computing (Three Key Branches of AI)
Reasoning Intelligence (Fuzzy Logic): Simulation ➡︎ Decision Making
Learning Intelligence (Neural Networks): Modeling ➡︎ Error Reduction
Evolutionary Intelligence (Genetic Algorithms): Optimization ➡︎ Adaptability
Practice
Application in mobile robots (aerial, ground, surface, underwater) and simulation environments
Problem- and project-based learning: Emphasis on teamwork and practical skills
Presentation
Academic writing in English (IEEE paper format)
Organizing and presenting project outcomes to cultivate comprehensive research and reporting abilities
Course Goals
This course centers on artificial intelligence (with a focus on learning intelligence: machine learning, deep learning, reinforcement learning, etc.), integrating AI methods into mobile robot perception and control. All theories and methods are explained and discussed through practical mobile robot application cases, paired with hands-on exercises. Students will use real robots for implementation and evaluation.
Course Outline: Theory - Practice - Publication
Theory
Learn core concepts of artificial intelligence
Focus on learning intelligence (machine learning, deep learning, reinforcement learning)
Apply AI methods to typical mobile robot perception and control tasks
Practice
Implement and simulate on mobile robots
Robot application platforms: aerial, ground, surface, underwater
Problem-based and project-based learning (centered on projects and practical problems, emphasizing teamwork and application skills)
Publication
Learn academic English writing (IEEE paper format)
Organize and publish project outcomes, developing comprehensive research and reporting abilities
Course Goals
This course focuses on visual servo control, combining visual perception, reasoning, and control for application in servo mobile robots.
Learning content includes:
Visual perception and cognition: supporting autonomous navigation tasks
Localization, mapping, and path planning
Behavior control: target searching, obstacle avoidance, trajectory tracking, and formation keeping
Course Summary
Theory
Learn visual servo control concepts (vision-based navigation)
Understand the application of visual perception in autonomous navigation of mobile robots
Practice
Implement visual servo control on mobile robots or in simulation environments
Robot application platforms: aerial, ground, surface, underwater
Problem-based and project-based learning (focused on projects and practical issues, emphasizing teamwork and application skills)
Publication
Learn academic English writing (IEEE paper format)
Organize and publish project results, cultivating comprehensive research and reporting abilities
Teaching Features
全英語授課課程獲頒 『優化 EMI 教學技巧』獎項
All courses integrate English-Medium Instruction (EMI) with custom-designed English writing materials, cultivating students’ skills in writing papers that conform to IEEE conference formats and enhancing their academic English expression and publication abilities.
Course content and training are aligned with international academic and industry needs. Through final project paper competitions, outstanding works are submitted to IEEE international conferences, providing a comprehensive academic training pathway from learning to international publication.
All courses are fully implemented using dual modes: Problem-Based Learning (PBL) and Project-Based Learning (PjBL), with structured design for classroom tasks, mid-term, and final reports.
Through this learning approach, students can effectively enhance teamwork, critical thinking, and innovation capabilities, and apply theoretical knowledge to practical projects, thereby improving overall learning outcomes.
The teaching plan “Robotics Applications of Artificial Intelligence—Problem and Project-Based Learning Model” won Second Prize.
Second Prize
Robotics Applications of Artificial Intelligence—Problem and Project-Based Learning Model
Awardees | Kueiying Chang, Minfan Lee
New Taipei Municipal Sanchong Commercial and Industrial Vocational High School
National Taiwan University of Science and Technology
Design Concept
This course is dedicated to cultivating students’ understanding of the fundamental concepts and principles of artificial intelligence, inspiring their enthusiasm for exploring emerging information technology and developing a global perspective. It also emphasizes the importance of communication, coordination, and teamwork.
Using Problem-Based Learning (PBL), instructors pose real-life scenario questions in each class, and students enhance their learning by solving these problems.
Adopting Project-Based Learning (PjBL), students work in teams to choose topics of interest or practical relevance, collaborating to complete a tangible product or solution.
By leveraging NTUST’s extensive resources, students gain early exposure to AI applications in robotics. Through team organization and discussion, students apply AI technologies to solve real-life challenges and complete self-designed project implementations, thereby fostering confidence and practical ability.