Electronics In Biomedical Engineering: Theory & Repair

Master Electronics & Biomed Engineering: Troubleshoot, Repair Medical Devices & Develop Solutions for Healtcare

What you'll learn

Analyze and design electronic circuits for biomedical applications.

Understand the principles and operation of various biomedical instruments.

Troubleshoot and diagnose issues in electronic systems and medical devices.

Repair and maintain medical equipment while adhering to safety guidelines.

Apply digital electronics knowledge to program and control medical devices.

Process and analyze biomedical signals using appropriate techniques.

Identify and classify medical devices based on their functionalities and risks.

Integrate electronics and biomedical concepts to develop innovative solutions.

Communicate effectively with engineers and healthcare professionals in the field.

Undertake hands-on projects, applying theoretical knowledge to practical applications.

Requirements

No experience is needed just some passion and determination.

To get the full benefit of the course, you will need to follow along and build the circuits. Thus, access to arduino, breadboards, power supplies, tools, parts, etc

Computer pc or mac …. any version of windows or os capable of running various design tools used in this course such as arduino

Description

The course "Electronics in Biomedical Engineering: Theory & Repair" provides a comprehensive and immersive learning experience for individuals interested in the intersection of electronics and biomedical engineering. The content covers a range of essential topics, starting with the fundamentals of electronics components and circuits, ensuring students grasp the core principles.Moving forward, the course delves into the applications of electronics in biomedical instrumentation. Students will explore how various medical devices function, enabling accurate measurement and monitoring of vital signs and bioelectric signals. They will gain an understanding of sensors, transducers, and amplifiers used in medical devices and how to optimize their performance.A key focus of the course is troubleshooting methodologies. Students will learn structured approaches to diagnose and rectify malfunctions in electronic systems and medical devices. Practical skills will be honed in repairing and maintaining medical equipment, adhering to safety protocols to ensure proper functionality and patient well-being.The course also introduces students to the concept of digital electronics and microcontrollers. They will discover how these components play a vital role in medical device development, allowing for precise control and automation.Biomedical signal processing is another crucial aspect of the course, where students will learn how to analyze and process bioelectric signals. Understanding signal processing techniques will enable them to extract valuable information from biomedical signals, crucial for medical diagnosis and research.Furthermore, the course presents an overview of medical device technology and classifications. Students will become familiar with the regulatory framework and safety standards guiding the design and use of medical devices.In addition to theoretical knowledge, the course emphasizes practical application. Students will engage in hands-on projects, integrating electronics and biomedical engineering principles to create innovative solutions for healthcare challenges.In summary, "Electronics in Biomedical Engineering: Theory & Repair" equips students with a diverse skill set, empowering them to excel in biomedical electronics. Whether pursuing careers in the medical device industry, healthcare settings, or research, students will be well-prepared to make a positive impact in this rapidly evolving field.

Overview

Section 1: Introduction

Lecture 1 Introduction to the Course

Section 2: Introduction to Electronics : Basic electronics knowledge

Lecture 2 what is electricity ?

Lecture 3 Voltage, current and resistance

Lecture 4 AC wave, DC wave and the frequency

Section 3: Introduction to Electronics : Basic electronic components and their properties

Lecture 5 Resistor

Lecture 6 Voltage divider (UPDATED LECTURE)

Lecture 7 LDR

Lecture 8 Diode

Lecture 9 Zener diode

Lecture 10 LED

Lecture 11 LED-current limitting resistor (UPDATED LECTURE)

Lecture 12 7 segment display (UPDATED LECTURE)

Lecture 13 IR LED

Lecture 14 Capacitor

Lecture 15 Bypass Capacitor (UPDATED LECTURE)

Lecture 16 Transistor as a switch

Lecture 17 IC chips

Lecture 18 Relay

Lecture 19 Transformer

Section 4: Introduction to Electronics: Circuit analysis techniques

Lecture 20 Circuit analysis techniques content

Lecture 21 Circuit analysis techniques

Section 5: Digital Electronics: Analog to Digital Converters

Lecture 22 Digital Vs. Analog Signals

Lecture 23 The Duty cycle

Lecture 24 ADC (analog to digital converter)

Lecture 25 1) Staircase ADC

Lecture 26 2) Flash ADC

Lecture 27 3) Pipeline ADC

Lecture 28 4) SAR ADC

Lecture 29 5) Delta-Sigma ADC

Section 6: Digital Electronics: Microprocessors and microcontrollers (Arduino)

Lecture 30 What are Microprocessors and microcontrollers ??

Lecture 31 What is arduino ??

Lecture 32 Types of Arduino boards

Lecture 33 Sitting up and start programming ( blink project )

Lecture 34 Using variables

Lecture 35 Using digital pins

Lecture 36 Using analog pins

Lecture 37 Serial monitor

Lecture 38 If statement

Lecture 39 For loop

Lecture 40 Dimmable LED

Lecture 41 ECG explaination

Lecture 42 ECG (Electrocardiogragh) a biomedical project using arduino

Section 7: Circuit Design and Analysis: Operational amplifiers and their applications

Lecture 43 Op amp introduction

Lecture 44 The characteristics of operational amplifier

Lecture 45 OP-AMP GAIN

Lecture 46 The Bandwidth of Operational Amplifier

Lecture 47 The Effect of Input-Offset Voltage on Output Voltage of Operational Amplifiers

Lecture 48 Feedback Equation and stability

Lecture 49 Cascade circuit of operational amplifier

Lecture 50 Some Examples on Op-Amp

Lecture 51 Introduction to Operational Amplifier Applications

Lecture 52 Understanding Comparators: Operation and Examples

Lecture 53 Summing Amplifiers: Combining Signals with Precision

Lecture 54 Summing amplifier (Digital to Analog Converter)

Lecture 55 Differential amplifier

Lecture 56 Low Pass Filters with Integrating Op-Amp: Signal Smoothing and Integration

Lecture 57 High Pass Filters with Differentiating Op-Amp: Signal Edge Detection and Differe

Section 8: Circuit Design and Analysis: Filters and their design

Lecture 58 what are filters ? and there types

Lecture 59 Low-Pass Filters

Lecture 60 High-Pass Filters

Lecture 61 Band-Pass Filters

Lecture 62 Band-Stop Filters (Notch Filters)

Section 9: Simple Biomedical project based on previous lectures

Lecture 63 Understanding working principles of heartbeat Sensor for the project

Lecture 64 Using proteus 8 pro in simulating and designing the circuits

Lecture 65 Designing the project and simulate it using proteus

Lecture 66 Using Breadboard in connecting the circuit

Section 10: Circuit Design and Analysis: Advanced circuit analysis techniques

Lecture 67 AC Analysis

Lecture 68 Transient Analysis

Lecture 69 AC Power Analysis

Lecture 70 Frequency Response

Section 11: Applications of Advanced Circuit Analysis in Biomedical Engineering

Lecture 71 Some Examples of Applications of Circuit Analysis in Biomedical Engineering

Section 12: Circuit Design and Analysis: Power supplies and voltage regulation

Lecture 72 Introduction to Power Supplies

Lecture 73 Types of Power Supplies

Lecture 74 Designing Simple Linear Power Supply Circuit

Lecture 75 Voltage Regulators and Their Types

Lecture 76 Designing the circuit of the switching regulator

Lecture 77 Medical Device Power Requirements & Considerations

Section 13: Biomedical Instrumentation

Lecture 78 Introduction to Biomedical Instrumentation

Lecture 79 Sensors and transducers used in medical devices

Lecture 80 Applications of Transducers in Biomedical Engineering

Lecture 81 Amplifiers and signal conditioning techniques for biomedical signals

Section 14: Electrodes and bioelectric signals (ECG, EEG, EMG, etc.)

Lecture 82 Sources of Biomedical Signals and Origin of Bioelectric Signals

Lecture 83 ECG & EEG

Lecture 84 EMG, EOG & ERG

Lecture 85 Electrode-Tissue Interface and Motion Artifacts in Biopotential Measurements

Lecture 86 Exploring Electrode Types and Innovations in ECG Monitoring

Lecture 87 Electrodes in Electrophysiological Recordings

Section 15: Medical Device Technology

Lecture 88 Overview of medical devices and their classifications

Lecture 89 Safety regulations and standards in medical device design

Lecture 90 A medical device design and development guide by Mindsailors

Section 16: Working principles of commonly used elecronic medical equipment

Lecture 91 ECG (Electrocardiogragh)

Lecture 92 Physiological Background about the heart

Lecture 93 Pulse Oximeter

Lecture 94 More about pulse oximetry

Lecture 95 Sphygmomanometer

Lecture 96 More about Sphygmomanometer

Lecture 97 Endoscope

Lecture 98 Defibrillator

Section 17: Introduction to electronic measurement tools

Lecture 99 Digital Multimeter (DMM)

Lecture 100 Oscilloscope

Lecture 101 Function Generator

Lecture 102 Logic Analyzer

Lecture 103 Spectrum Analyzer

Lecture 104 LCR Meter

Section 18: Troubleshooting and Repairing Medical Devices

Lecture 105 Introduction to troubleshooting methodologies

Lecture 106 Common issues in medical devices and their diagnosis

Lecture 107 Intro to PCB (Printed Circuit Board)

Lecture 108 What are PCBs ?? (Documentary)

Lecture 109 PCB ( Printed Circuit Board ) Explained

Lecture 110 Repairing techniques for electronic components and circuit boards

Section 19: Project Work

Lecture 111 Working Principle Of EMG

Lecture 112 The Circuit and the designing of the EMG

Electronics and Biomedical Engineering Students,Electronics Technicians,Innovators and Entrepreneurs,Electronics Enthusiasts,Anyone who has a passion for this field or wants to start working in this field of work,Beginner at electronic engineering want to combin electronics with biomedicine to develop new medical technologies.