Master's Degree in Continuing Education in Mechatronics Engineering
PRESENTATION
Objectives
• Analyze the functionality of sensors and transducers for accurate data acquisition in mechatronic systems. • Design signal conditioning architectures, optimizing amplification and filtering for industrial applications. • Integrate principles of digital logic and multiplexing for efficient signal management in advanced control environments. • Implement artificial intelligence algorithms, including pathfinding and fuzzy logic, to optimize autonomous systems. • Develop solutions based on genetic algorithms and neural networks to solve complex problems in engineering and robotics. • Lead the design and implementation of industrial automation and control projects, applying a comprehensive approach to mechatronics. • Evaluate and select advanced mechatronic technologies to improve production processes and drive industrial innovation. • Manage the integration of mechanical, electronic, and computer subsystems to develop smart products and solutions.
Methodology
At Educa PHAROS, we use a highly practical methodology focused on the direct application of knowledge in the student’s professional environment, combining theoretical content with real-world cases, digital tools, and support from a team of specialized instructors.
Program
- What is mechatronics?
- Mechatronics: Pros vs. Cons
- The Role of the Mechatronics Professional
- The Design Process
- The Importance of Systems in Mechatronics
- Sensors and Transducers: Introduction
- Displacement, Position, and Proximity
- Speed and Movement
- Strength
- Fluid Pressure
- Fluid Flow
- Fluid Level
- Temperature
- Light
- Introduction to Signal Conditioning
- Operational amplifier
- Signal Filtering
- Wheatstone Bridge
- Pulse Modulation
- Introduction to Digital Signals
- Analog signal
- Digital signal
- Analog Signals vs. Digital Signals
- Signal Converters
- Data Acquisition
- Digital Signal Processing
- Multiplexers: Introduction
- The Concept of Digital Logic
- Logic Gates
- Basic Logic Gates
- Combinational Logic Gates
- Artificial Intelligence: An Introduction
- Intelligence in Living Beings
- Artificial Intelligence
- Areas of Application
- The field of mechatronics
- The Possibilities of Artificial Intelligence
- Mechatronics and Artificial Intelligence
- What is a polygon expert system?
- Structure of an Expert System
- Inference: Types
- Building Expert Systems
- Introduction to Fuzzy Logic
- Fuzzy Sets and Degrees of Membership
- Operators on Fuzzy Sets
- Creating Rules
- Fuzzification and defuzzification
- Introduction to Route Planning
- Paths and Graphs
- Exhaustive and "intelligent" route-finding algorithms"
- Implementation
- What are genetic algorithms?
- Biological and Artificial Evolution
- Election of Representatives
- Assessment, Selection, and Survival
- Reproduction: Crossover and Mutation
- Areas of Application
- Introduction to Neural Networks
- Biological origin
- The Formal Neuron
- Perceptron
- Feed-forward networks
- Learning
- Other networks
- Concept of Automation
- Types of Automation
- Main Areas of Application
- Types of Industrial Processes
- Sequential Controllers
- Introduction to Boolean Algebra
- Digital Operation of a System
- Basic Logical Operations
- Operations in Boolean Algebra
- Important Theorems in Boolean Algebra
- Functions in Boolean Algebra
- Truth Table for a Logical Function
- Performing Logical Functions
- Introduction to Combinational Circuits
- Decoders
- Encoders
- Multiplexers
- Demultiplexers
- Binary Comparators
- Semi-adder circuit
- Definition of a Programmable Logic Controller
- Programmed Systems. Basic Programming
- Representation of Inputs and Outputs
- Programming Open and Close Contacts
- Basic STEP 7 and KOP Instructions
- Programming in FUP format
- Implementing KOP programs based on the wiring diagram
- Programming with Timers
- Programming with Counters
- Analysis of pneumatic, hydraulic, mechanical, electrical, and electronic automation systems
- Components and Their Functions: Mechanical, Electrical, Hydraulic, Pneumatic
- Manipulators
- Tools
- Flexible Manufacturing Systems (CIM)
- Mathematical models
- Mechanical Systems
- Electrical Systems
- Fluid Systems
- Thermal Systems
- Introduction to Dynamic Systems Modeling
- Answers
- Types of Tickets
- First-Order Systems
- Second-Order Systems
- Mechatronics Systems: Identification
- Introduction to the Transfer Function
- Laplace Transform
- First-Order Systems
- Second-Order Systems
- Other systems
- LTI Systems: Frequency Analysis
- Determination of the Frequency Response
- Bode Plots
- Performance and Stability
- Types of processes: continuous and discrete
- Key Concepts
- Control Modes
- Process Controllability
- Introduction to Actuation Systems
- Pneumatic and Hydraulic Systems
- Compressed Air Treatment
- Energy Sources
- Valves: Fundamental Concepts
- Cylinders
- Servo Valves and Proportional Control Valves
- Valves for Process Control
- Rotary Actuators
- Mechanical Systems
- Types of Movement
- Drivetrains
- Cams
- Gears
- Tensioner
- Belt and Drive Chains
- Bearings
- Electrical Systems
- Mechanical switches
- Solid-state switches
- Solenoids
- CD drives
- AC motors
- Stepper Motors
- Control
- IS Microprocessor Systems
- Microcontrollers
- Applications in Mechatronics
- Schedule
- Languages
- Instruction Sets
- Assembly Language Programs
- Subroutines
- Lookup Tables
- Embedded Systems
- Mechatronics: Why the C Programming Language?
- Program Structure
- Flow Control and Cycles
- Arrangements
- Pointers
- Program Development
- Introduction to Interfaces
- Input/Output Routing
- Interface Requirements
- Interface Adapters for Peripheral Devices
- Serial Communications Interface
- Examples of Interface-Based Coupling
- Programmable Logic Controllers
- Basic Structure of a PLC
- Input/Output Processing
- Ladder Diagram Programming
- List of Instructions
- Interlocking and Internal Relays
- Sequencing
- Timers and Counters
- Slip Records
- Master and Jump Controls
- Data Management
- Analog Input/Output
- History of Robotics
- Mobile Robotics
- Humanoid Robotics
- State of the Art in Robotic Systems.
- Software and IT Technology in Robotic Construction
- The Future of Robotics and Automation in Construction.
- What is space robotics?
- Problems in Space Robotics
- Main Areas of Research
- What Are Intelligent Transportation Systems?
- Related Technologies
- Applications
- Intelligent Transportation Technologies
- Aircraft Knowledge (General)
- Classification of RPAs
- Airworthiness
- Registration
- Aircraft Cell
- Powertrain
- Onboard Equipment
- Aircraft Control System
- Instruments at the control station.
- Security Systems
- Concepts
- Algorithms
- Tasks You Can Perform Independently
- Problems in Autonomous Robotics
- History
- Domestic Robots in Science Fiction
- Personal Robots Today
- Market
- Concept and History
- Fundamentals of Modern Robotics
- Mobile platforms
- Expected Growth in the Robotics Industry
- Limitations of Current Robotics
- Robotics
- Artificial Intelligence
- Objectives of Artificial Intelligence
- History of Artificial Intelligence
- Programming language: the language of robots
- Research and Development in the Field of Artificial Intelligence
- Robotics and Artificial Intelligence
- Introduction
- Robotics and Benefits
- Industrial Robotics
- The Future of Robotics
- Robotics and New Technologies
- Trends
- The Evolution of Robotics
- The Future of Robotics
- Robotics in Engineering and Industry
- Natural and Artificial Intelligence
- Artificial Intelligence and Cybernetics
- Autonomy in Robotics
- Expert Systems
- Virtual agents with computer-generated facial animations
- News
- Robotics Applied to Humans: Bionics
- A Historical Overview of Prosthetics
- Prosthetic Design in the 20th Century
- Recent Research and Development in Hand Design
- Prosthetic Systems
- Use of Smart Materials in Prosthetics
- Introduction
- Current Situation and Future Trends
- Objectives
- Methodology and Structure
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