This Digital Electronics course is specially designed for students who want to enter the field of Embedded Systems, VLSI, and other branches of Computer Science. It is also helpful for working professionals. This Digital Electronics is a unique course in the online marketplace.
Prof. Hitesh Dholakiya is an Electronics and Communication Design Engineer with over 15 years of experience in the core Electronics/Electrical domain as well as in the Antenna/RF/Communication field. With a passion for teaching and a wealth of industry knowledge, Prof. Hitesh Dholakiya is dedicated to helping students achieve their academic and professional&nbsp;goals in the Electronics domain.
This course on Digital Electronics applies to many branches of Degree/Diploma Engineering such as Electrical, EC, Computer, IT, and Instrumentation. After completing this Digital Electronics course students will be able to understand from basic to advance level concepts of Digital Electronics which will be a stepping stone for starting many lucrative career fields.
This Digital Electronics course is also helpful in many competitive examinations and not only that it will also be helpful in interviews.
&nbsp;
This course on Digital Electronics covers the following chapters.
1. Number Representations in&nbsp;Digital Electronics
2. Boolean Algebra in Digital Electronics
3. Logic Gates in Digital Electronics 
4. Combinatorial circuits of Digital Electronics
5. Karnaugh Map in Digital Electronics 
6. Logic Families of Digital Electronics
7. Sequential Circuits of Digital Electronics 
8. Memory, ADC, and DAC in Digital Electronics 
9. Practical Session of Digital Electronics Circuits on Multisim
&nbsp;
Topic wise Detailed Syllabus of Digital Electronics is as follows:
1. Number Representations in&nbsp;Digital Electronics: 
Binary, hex, octal, decimal, BCD, integer, and floating-point- numbers, code coversion etc.
2. Boolean Algebra in Digital Electronics: 
Laws of Boolean Algebra, SOP, POS, Dual and Self Dual of Boolean equation, Minterms, Maxterms, Quine McCluskey Technique, etc.
3. Logic Gates in Digital Electronics: 
AND, OR, NOT, XOR, XNOR, NAND, NOR Gates and Circuit implementation using universal gates.
4. Combinatorial circuits of Digital Electronics: 
Minimization of functions using Boolean identities and many other circuits like Multiplexer, Demultiplexer, Adder, Subtractor, Decoder, Encoder, Carry look ahead adder, Even Parity Generator and Odd Parity Generator, Priority Encoder, etc.
5. Karnaugh Map in Digital Electronics: 
IK-map basics, Implicants, Prime Implicants and Essential Prime, 3,4,5 and 6 variable K Map, Quine McCluskey Minimization Technique
6. Logic Families of Digital Electronics: 
DTL, RTL, TTL, CMOS, Boolean Function Implementations, Stick Diagram of Boolean Function, CMOS Transmission Gate, etc.
7. Sequential Circuits of Digital Electronics: 
Clock and Triggering by clock in Sequential circuit, Latch, Flip Flops, Master Slave Flip Flop, Counters, Shift Registers, State Machines, Mealy State Machine and Moore State Machine
8. Memory, ADC, and DAC in Digital Electronics: 
ROM, RAM, PLA, PAL, Digital to Analog Converter and Analog to Digital Converter
9. Practical Session of Digital Electronics Circuits on Multisim:
Practicals on Logic gates, Adder, Code conversion, Comparator, Flip flop, Counter, Register, etc.
Enroll now and take the first step toward mastering Digital Electronics core concepts! Join Our Community of students who have transformed their careers with our expert-led&nbsp;course on Digital Electronics!&nbsp;
See you in the Digital Electronics: Master Digital Logic Design Concept course! You&#39;re going to love it!
All the best...

Computer Network plays a vital role in connecting devices and facilitating communication and information sharing among them. This Computer Network course provides a comprehensive understanding of the fundamental concepts, protocols, and technologies that form the foundation of modern computer networks.
Prof. Hitesh Dholakiya is a seasoned computer scientist with over 15 years of experience in the field of Computer Networks. With a passion for teaching and a wealth of industry knowledge, Prof. Hitesh Dholakiya is dedicated to helping students achieve their academic and professional&nbsp;goals in Computer Networks.
This Computer Network course is specially designed for engineering students who want to understand how exactly computer Network works and is also helpful for working professionals. This Computer Network is a unique course in the online marketplace.
This course on Computer Network is beneficial to students of various branches such as Computer Science, Computer Engineering, Electronics, and Communication Engineering, IT Engineering as well as students from the Science and Diploma stream.
This&nbsp; Computer Network course serves as a valuable resource for both university students and working professionals alike, offering comprehensive insights into the fundamentals of computer networks.
&nbsp;
This course on Computer Networks covers the following chapters.
1. Computer Network Fundamentals
2. OSI Model
3. Data Link Layer of Computer Network
4. Error Detection and Correction
5. LAN Protocols
6. Network Devices of Computer Network
7. Network Layer
8. Transport Layer
9. Application Layer
&nbsp;
Topic wise Detailed Syllabus of Computer Networks is as follows.
1. Computer Network Fundamentals:
Computer Network Basics, Types of Data Communication in Computer Network, Types of Casting in Computer Network, Peer to Peer Network Vs Client Server Network, Types of Computer Network, Topologies of Computer Network, Hybrid Topology of Computer Network.
2. OSI Model:
Basics of OSI Model, OSI Model Details, Comparison of TCP and UDP, Comparison of OSI Model and TCP/IP Model, Transmission Medium in Computer Network, IP Address, MAC Address and Port Address.
3. Data Link Layer of Computer Network:
Data Link Layer Basics, Transmission Delay &amp; Propagation Delay, Stop &amp; Wait ARQ Protocol, Capacity of Channel in Computer Network, Sliding Window Protocol, Go Back N ARQ Protocol, Selective Repeat ARQ Protocol, Comparison of Sliding Window Protocol, Go Back N ARQ Protocol and Selective Repeat ARQ Protocol, Media Access Protocols, Channelization Protocols: FDMA, TDMA, CDMA, Polling Protocol, Reservation Protocol, Token Passing Protocol, Pure ALOHA, Slotted ALOHA, CSMA - Carrier Sense Multiple Access, CSMA/CD - Carrier Sense Multiple Access Collision Detection, Back off Algorithm for CSMA/CD, CSMA/CA - Carrier Sense Multiple Access Collision Avoidance.
4. Error Detection and Correction:
VRC - Vertical Redundancy Check &amp; LRP - Longitudinal Redundancy Parity, Checksum, CRC - Cyclic Redundancy Check, Hamming Code for Error Correction and Error Detection, Minimum Hamming Distance, Error Detection Capabilities &amp; Error Correction Capabilities.
5. LAN Protocols:
Framing, Ethernet LAN Protocol - IEEE 802.3, Wireless LAN Protocol - IEEE 802.11, Token Ring LAN Protocol - IEEE 802.5, Examples on CSMA Protocols, Examples on Flow Control Protocols.
6. Network Devices of Computer Network:
Repeater, Hub, Bridge, Switch, Router and Brouter, Comparison of Repeater Hub Bridge Switch Router and Brouter, Network Segment, Collision Domain &amp; Broadcast Domain, Spanning Tree Protocol.
7. Network Layer:
Network Layer Basics, Why to do logical Addressing even Physical Addressing Exists in Computer Network, Classful Addressing of IP Address, Subnetting in Computer Networks, Classes Inter-Domain Routing - CIDR, Subnet Masking, Supernetting in Computer Networks, IPV4 Frame Format, Fragmentation in Computer Networks, IPV4 Broadcasting, Localhost and Loopback, ARP - Address Resolution Protocol, RARP - Reverse Address Resolution Protocol, BOOTP - Bootstrap Protocol, DHCP - Dynamic Host Configuration Protocol, Public IP and Privet IP, NAT - Network Address Translation, ICMP - Internet Control Message Protocol, Routing in Computer Network, Non Adaptive Routing, Distance Vector Routing, Link State Routing, Circuit Switching, Packet Switching and Message Switching in Computer Network, IPV6, IPV6 Casting, IPV6 Frame Format, Examples on Network Layer, Examples on Network Layer Protocols.
8. Transport Layer:
Transport Layer Basics, TCP Frame Format, Port Number &amp; Network Socket, Sequence Number &amp; Acknowledgment Number in TCP, Wrap Around Time and Life Time in TCP, Header Length and Checksum in TCP, TCP Connections, PSH URG RST Urgent Pointer, and Option Field in TCP, Flow Control in TCP Protocol, Sliding Window Protocol in TCP, Retransmission in TCP, Congestion Control in TCP, Timers in TCP, Basic Algorithm for Timeout Timer in TCP, Jacobson&#39;s Algorithm for Timeout Timer in TCP, Karn&#39;s Modification of Timeout Timer in TCP, Silly Window Syndrome and It&#39;s Solution in TCP, Congestion Control using Traffic Shaping in TCP, Leaky Bucket Algorithm, Token Bucket Algorithm, UDP - User Datagram Protocol, UDP Segment Header, UDP Frame Format.
9. Application Layer:
Application Layer Basics, DNS - Domain Name System, SMTP POP and IMAP in Computer Network, HTTP/HTTPs - Hyper Text Transfer Protocol, FTP SFTP and TFTP - File Transfer Protocols, Examples on Application Layer Protocols.
Enroll now and take the first step toward mastering Computer Network core concepts! Join Our Community of students who have transformed their careers with our expert-led&nbsp;course on Computer Networks!&nbsp;
See you in the Computer Network: A Core Fundamentals of Computer Networking course! You&#39;re going to love it!
Thank you...

Computer Architecture and Organization is concerned with the structure and behavior of digital computers. The main objective of this Computer Architecture and Organization subject is to understand the overall basic computer hardware structure, including the peripheral devices.
Prof. Hitesh Dholakiya is a seasoned computer scientist with over 15 years of experience in the field of Computer Architecture and Organization. With a passion for teaching and a wealth of industry knowledge, Prof. Hitesh Dholakiya is dedicated to helping students achieve their academic and professional&nbsp;goals in Computer Architecture and Organization.
This Computer Architecture and Organization course is specially designed for engineering students who want to understand how exactly computer architecture works and is also helpful for working professionals. This Computer Architecture and Organization is a unique course in the online marketplace.
This course is beneficial to the students of various branches such as Degree, Diploma, and Science Students.
This course on Computer Architecture and Organization covers the following Chapters.
1. Computer Architecture
2. Instructions of Computer
3. Control Unit of Computer Architecture
4. Pipeline in Computer Architecture and Organization
5. Execution Unit of Computer Architecture
6. System Bus of Computer Architecture
7. Memory Organization in Computer Architecture
8. IO Organization of Computer Architecture
&nbsp;
Topic wise Detailed Syllabus of Computer Architecture and Organization is as follows:
1. Computer Architecture:
Computer Architecture, Von Neumann Architecture, Harvard Architecture, Comparison of Von Neumann and Harvard Architecture, Flynn&#39;s Classification, RISC and CISC Architecture, Little Endian and Big Endian Computer, Memory Interfacing examples, Registers of computer, Registers organization in computer, Common Bus Access in Computer, Examples on Registers of Computer
2. Instructions of Computer:
Instruction Formats, Examples on Instruction Formats, Instruction Cycle, Timing and Flowchart of Instruction cycle, State Transition Diagram of Instruction cycle, Types of Instructions, Addressing Modes in Computer, Examples on Addressing Modes in Computer, Examples in Instruction Execution.
3. Control Unit of Computer Architecture:
CPU Execution Time, Average CPI of CPU and MIPS, Examples on CPU Performance, CPU Performance Parameters, Amdahl&#39;s Law, Micro Operations of Instruction, Hardwired Control Unit, Wilkes Design for Microprogrammed Control Unit, Microprogrammed Control Unit, Comparison of Hardwired Control Unit and Microprogrammed Control Unit, Nano Programming, Microinstruction Format, Examples on Microinstruction Format, Examples on Control Unit, Registers Organization in RISC Processor
4. Pipeline in Computer Architecture and Organization:
Pipelining in Computer, Parameter of Pipelining, Structural Hazards in Pipelining, Data Hazards in Pipelining, Control Hazards in Pipelining, Examples of Pipelining, Examples of Pipelining Hazards, CPI and Speed up in Pipelining with Hazards.
5. Execution Unit of Computer Architecture:
Signed Data Representation and Range of Signed Numbers in Computer, Examples on Number Representation, Normalization of Floating Point Number, IEEE 754 Single Precision Floating Point Number Representation, IEEE 754 Double Precision Floating Point Number Representation, Extreme Cases of Floating Point Representation in IEEE 754 Format, Examples on Floating Point Numbers, Half Adder and Full Adder, Ripple Carry Adder, Carry Look Ahead Adder, 4 bits Adder Subtractor, Booth&#39;s Algorithm, Examples on Booth&#39;s Algorithm, Restoring Division Algorithm, Non-Restoring Division Algorithm.
6. System Bus of Computer Architecture:
System Bus basics, System Bus direction and interfacing with peripherals of computer, Bus Contention and Bus Arbitration techniques, Daisy Chain, Polling &amp; Independent Request Bus Contention Methods.
7. Memory Organization in Computer Architecture:
Memory Organization in Computer, Locality of Reference, Spatial Locality and Temporal Locality, Average Access Time and Access Speed of Memory, Examples of Average Access Time and Access Speed of Memory, Cache Memory Organization, Examples of Cache Memory Organization, Direct Address Mapping in Cache Memory, Examples on Direct Address Mapping in Cache Memory, Fully Associative Address Mapping in Cache Memory, Examples on Fully Associative Address Mapping in Cache Memory, Set Associative Address Mapping in Cache Memory, Examples on Set Associative Address Mapping in Cache Memory, Replacement Strategies in Cache Memory, Examples on Replacement Strategies in Cache Memory, Updation Techniques in Cache Memory, Write Through Updation Technique in Cache Memory, Write Back Updation Technique in Cache Memory, Multi Level Cache Memory, Types of Misses in Cache Memory, Examples on Mapping of Cache Memory, Examples on Multi-Level Cache Memory, Examples on Conflict Misses in Cache Memory.
8. IO Organization of Computer Architecture:
Input Output Organization, Programmed IO, Interrupt Driven IO, Direct Memory Access - DMA, Examples on DMA.
&nbsp;
The course on Computer Architecture and Organization delves into the foundational principles governing the design and functionality of computer systems. Students will explore the intricate relationship between hardware and software, understanding how computer components interact to execute instructions.
Emphasis is placed on critical thinking and problem-solving skills, empowering students to analyze and optimize computer systems for efficiency and performance.
This entire course on Computer Architecture and Organization is covered in very simple English language so that it is very easy to grasp core concepts for all class.
By the end of the course, participants will have a comprehensive understanding of Computer Architecture and Organization, equipping them with essential knowledge for future endeavors in the field of computing.
Enroll now and take the first step toward mastering Computer Architecture and Organization core concepts! Join Our Community of students who have transformed their careers with our expert-led&nbsp;course on Computer Architecture and Organization!&nbsp;
All the best...

The Internet of Things- IoT is a dynamic field introducing students to the interconnected world of smart devices. It involves embedding sensors and connectivity into everyday objects, allowing them to communicate and share data. So, if you want to enter the IoT world, this would be the stepping stone and is also helpful for working professionals.
Prof. Hitesh Dholakiya is an Electronics and Communication Design Engineer with over 15 years of experience in the core Electronics/Electrical domain as well as in the Antenna/RF/Communication field. He has taught many subjects related to&nbsp; Embedded systems and the Internet of Things- IoT during his tenure of teaching. With a passion for teaching and a wealth of industry knowledge, Prof. Hitesh Dholakiya is dedicated to helping students achieve their academic and professional&nbsp;goals in the Internet of Things- IoT domain.
This Internet of Things- IoT is a unique course in the online marketplace. This course covers all the basic to advanced terminology regarding IoT. After completing this course on the Internet of Things- IoT, students can broadly understand IoT. It also covers the programming part using Raspberry Pi. This Internet of Things- IoT course will comprehensively cover study branches such as Diploma Engineering, Degree Engineering, and Science graduate students.
&nbsp;
This course on the Internet of Things- IoT covers the following topics.
1. IoT Fundamentals
2. IoT Security 
3. Internet Protocol in IoT
4. IoT Technology 
5. IoT Protocols 
6. Serial Communication Protocols 
7. IoT Devices and Applications
8. Raspberry Pi Practicals
&nbsp;
Topic wise Detailed Syllabus of IoT- Internet of Things is as follows:
1. IoT Fundamentals:
IoT Introduction, IoT Components, Advantages and Disadvantages of IoT, IoT Statistics, IoT Characteristics, M2M Network, IoT and M2M differences, IoT Reference model by CISCO, IoT Architecture, Physical Design of IoT, IoT Functional Block Diagram, Communication Models used in IoT, Communication APIs in IoT, IoT Levels or IoT Deployment Templets, IoT Functional Stack, IoT Operating Systems, Sensors in IoT, Gateway in IoT, Challenges in IoT.
2. IoT Security:
IoT Security Problems, Elements of IoT Security, IoT Security Challenges, IoT Tomography, Layer Attacker Model, IoT Security Architecture, Best Practices for IoT Security, and Emerging Trends in IoT Systems.
3. Internet Protocol in IoT:
What is IP Addressing, IPV4, IPV6, IPV4 and IPV6 comparison, IP Suits for IoT.
4. IoT Technology:
Wireless Sensor Networks - WSN, Cloud Computing Networks, Fog Computing Networks, Big Data Analytics, Embedded Systems in IoT, Internet of Things and Cyber-Physical Systems, Web of Things, IoT Cloud with Nimbits, Machine Learning.
5. IoT Protocols:
NB-IoT, LoRaWAN, IEEE 802.15.4, 6LOWPAN, ZigBee, ZigBee and 6LOWPAN differences, SDN - Software Defined Networking, NFV - Network Function Virtualization, RFID - Radio Frequency Identification, NFC - Near Field Communication, RPL Protocol - Routing Protocol for Low Power and Lossy Network, MAC Protocols for Sensor Network, CoAP - Constrained Application Protocol, MQTT - Message Queuing Telemetry Transport, Comparison CoAP and MQTT, XMPP - Extensible Messaging and Presence Protocol, AMQP - Advanced Message Queuing Protocol, HTTP and HTTPS.
6. Serial Communication Protocols:
I2C Protocol, SPI Protocol, I2C Protocol Vs SPI Protocol, USB, RS 232 Serial Communication Protocol, UART Protocol.
7. IoT Devices and Applications:
Arduino in IoT, Raspberry Pi in IoT, Arduino, and Raspberry Pi comparison, IoT Applications.
8. Raspberry Pi Practicals:
Raspberry Pi 4 Basics, Introduction and Specifications, Headless Setup of Raspberry Pi 4, Raspberry Pi 4 Basics settings, Print Statement using Python in Raspberry Pi 4, LED blinking using Python in Raspberry Pi 4, Push Button Operation using Python in Raspberry Pi 4, User Input using Python in Raspberry Pi 4, Buzzer Operation using Python in Raspberry Pi 4, LDR sensor Operation using Python in Raspberry Pi 4, PIR Sensor Operation using Python in Raspberry Pi 4, Ultrasonic Distance Sensor Operation using Python in Raspberry Pi 4, Motor Operation using Python in Raspberry Pi 4, Blue Dot Control Robot using Python in Raspberry Pi 4
If you&#39;re unfamiliar with IoT, there&#39;s no need to fret!
You don&#39;t need prior knowledge about the Internet of Things- IoT. We&#39;ll start from scratch and cover everything comprehensively. So, even if you&#39;re unsure about the purpose of IoT, we&#39;ve got you covered.
Enroll now and take the first step toward mastering the Internet of Things- IoT core concepts! Join Our Community of students who have transformed their careers with our expert-led&nbsp;course on the Internet of Things- IoT!&nbsp;
See you in the IoT: From Basics to Cutting-Edge Concepts of IoT course! You&#39;re going to love it!
&nbsp;
All the best...

This Basic Electronics Fundamentals course is specially designed for students who want to clear basic to advanced Fundamentals of Electronics field. It is also useful for working professionals. It forms the foundation to enter into fields like Embedded Systems, VLSI, Instrumentations etc. This Basic Electronics Fundamentals course covers almost all universities&#39; syllabus. This is a unique course in the online marketplace.
Prof. Hitesh Dholakiya is an Electronics and Communication Design Engineer with over 15 years of experience in the core Electronics/Electrical domain as well as in the Antenna/RF/Communication field. With a passion for teaching and a wealth of industry knowledge, Prof. Hitesh Dholakiya is dedicated to helping students achieve their academic and professional&nbsp;goals in the Electronics domain.
This Basic Electronics Fundamentals course applies to many branches of Degree, Diploma, and Science Students. After completing this course on Basic Electronics Fundamentals students will be able to understand basic to advanced-level concepts of Basic Electronics which will be a stepping stone for starting many lucrative career fields.
&nbsp;
This Basic Electronics Fundamentals course covers the following Chapters:
&nbsp;
1. PN Junction Applications in Electronics
2. BJT (Bipolar Junction Transistor) Applications in Electronics
3. AC Analysis of BJT
4. FET(Field Effect Transistor) in Electronics
5. MOSFET Transistor in Electronics
6. Practical Session on different Electronics Components
&nbsp;
Detailed Syllabus of Basic Electronics Fundamentals course covers the following topics:
&nbsp;
1. PN Junction Applications in Electronics: 
Energy Bands and Classifications of Solid Materials, Types of Semiconductor Materials, PN Junction Diode, VI Characteristics of PN Junction Diode, Dynamic Resistance of Diode, Effect of Temperature in PN Junction, Diode Testing and Diode Quality verification, Ideal Diode and Practical Diode Approximation, Diode Ratings, Half Wave Rectifier, Parameters of Half Wave Rectifier, Full Wave Rectifier, Parameters of Full Wave Rectifier, Comparison of Half Wave Rectifier and Full Wave Rectifier, Filters in Rectifier, Capacitor Filter, Inductor Filter, Pi Filter and T Filter in Rectifier, Linear and Nonlinear Wave Shaping Circuit, Clipper Circuits, Examples of Clipper Circuits, Clamper Circuits, Examples of Clamper Circuits, Zener Diode, Zener Diode as Voltage Regulator, Examples of Zener Diode.
&nbsp;
2. BJT (Bipolar Junction Transistor) Applications in Electronics: 
BJT, BJT Operational Regions, BJT Working, Common Base Configuration of BJT, Common Emitter Configuration of BJT, Relationship of Alpha, Beta and Gamma of BJT, DC Load Line of BJT, Bias Stabilization of BJT, Stability Factor of BJT, Fixed Bias of BJT, Emitter Bias of BJT, Collector Feedback Bias of BJT, Voltage Divider Bias of BJT, Examples of Transistor Biasing, Transistor as Switch.
&nbsp;
3. AC Analysis of BJT: 
Coupling Capacitor with Transistor, AC Analysis of BJT, AC Load Line of BJT, Hybrid Parameters of BJT, re Model of BJT, Hybrid Pi Model of BJT, Common Emitter Amplifier using BJT, Examples of BJT, Darlington Pair of BJT.
&nbsp;
4. FET(Field Effect Transistor) in Electronics: 
Comparison of FET and BJT, JFET Working, JFET Output Characteristics, JFET Transfer Characteristics, JFET as Voltage Controlled Resistor, Parameters of JFET, Examples of JFET.
&nbsp;
5.MOSFET Transistor in Electronics:
MOSFET, IV Characteristics of MOSFET, Channel Length Modulation of MOSFET, Small Signal Model of MOSFET, Transconductance and Drain Resistance of MOSFET, Body Effect in MOSFET, Examples of MOSFET, Examples of IC Technology.
&nbsp;
6. Practical Session on different Electronics Components: 
Practical session on various Electronics Components such as Diode, BJT, FET, Clipper in Multisim Software will enhance theoretical aspects of the course.
&nbsp;
Enroll now and take the first step toward mastering Basic Electronics Fundamentals core concepts! Join Our Community of students who have transformed their careers with our expert-led&nbsp;course on Basic Electronics Fundamentals!&nbsp;
See you in the Basic Electronics Fundamentals course! You&#39;re going to love it!
All the best...
&nbsp;

This Electronics Devices and Circuits (EDC) / Solid State Devices course is specially designed for students who want to clear basic to advanced fundamentals of Electronics. It is also helpful for working professionals. It forms the foundation to enter into the fields like Embedded Systems, VLSI, Instrumentations, etc. This course covers almost all universities&#39; syllabus. This Electronics Devices and Circuits (EDC) / Solid State Devices is a unique course in the online marketplace.
Prof. Hitesh Dholakiya is an Electronics Devices and Circuits (EDC) / Solid State Devices with over 15 years of experience in the core Electronics/Electrical domain as well as in the Antenna/RF/Communication field. With a passion for teaching and a wealth of industry knowledge, Prof. Hitesh Dholakiya is dedicated to helping students achieve their academic and professional&nbsp;goals in the Electronics Devices and Circuits (EDC) / Solid State Devices domain.
This course on Electronics Devices and Circuits (EDC) / Solid State Devices applies to many branches of Degree/Diploma/Science. After completing this course on Electronics Devices and Circuits (EDC) / Solid State Devices students will be able to understand basic to advanced-level concepts of electronic devices and various electronic circuits which will be a stepping stone for starting many lucrative career fields.
&nbsp;
This Electronics Devices and Circuits (EDC) / Solid State Devices course covers the following topics.
&nbsp;
1. Energy Bands and Semiconductors
2. PN Junction
3. Special Diodes in Electronics
4. BJT
5. BJT AC Analysis
6. MOSCAP
7. MOSFET
8. Electronics Experiments
&nbsp;
So, go through this entire Electronics Devices and Circuits (EDC) / Solid State Devices course step by step and I am pretty sure that you will get thorough knowledge about this course. Detailed Syllabus of Electronics Devices and Circuits (EDC) / Solid State Devices course is as follows:
&nbsp;
1. Energy Bands and Semiconductors:
Energy Bands and Classification of Solid Materials, Types of Semiconductor Materials, Drift Current and Diffusion Current, Mass Action Law, Examples of Semiconductor Materials, Examples of Drift Current and Diffusion Current, Examples of Conductivity and Resistivity, Einstein Relation in Semiconductor, Examples of Einstein Relation in Semiconductor, Fermi Dirac Distribution in Semiconductor, Electron Concentration in Conduction band and Holes Concentration in Valance Band, Intrinsic Concentration in Semiconductor, Drift Velocity and Free Velocity, Fermi Energy Level in Intrinsic Semiconductor, Fermi Energy Level in Extrinsic Semiconductor, Hall Effect in Semiconductor, Examples of Hall Effect in Semiconductor, Energy &amp; Wavelength for Generation and Recombination, Examples of Energy &amp; Wavelength for Generation and Recombination, Generation and recombination due to uniform illumination, Examples of Generation and recombination, Energy Band Diagram, Examples of Energy Band Diagram, Continuity Equation, Direct Bandgap and Indirect Bandgap Semiconductor.
2. PN Junction: 
PN Junction in Equilibrium, Energy Band Diagram of PN Junction, Cut in Voltage of PN Junction, Electric Field of PN Junction, Depletion Width of PN Junction, Examples of PN Junction, PN Junction under forward bias, PN Junction under reverse bias, Ideal Diode &amp; Practical Diode, Diode Ratings, Diode Testing and Diode Quality Verification, Effect of Temperature in PN Junction, Examples of Diode Circuits, PN Junction Capacitance, Examples of PN Junction Capacitance, PN Junction Switching Characteristics.
3. Special Diodes: 
LED - Light Emitting Diode, Examples of LED, Varactor Diode, Tunnel Diode, Examples of Tunnel Diode, Photo Diode, Solar Cell, Examples of Solar Cell.
4. BJT: 
BJT Parameters under Equilibrium, BJT Operation Regions, BJT Applications &amp; BJT Base Width, BJT in Active Region, BJT Carrier Distributions in Different Modes, Ebers Moll Model of BJT, Early Effect, Common Base Configuration of BJT, Common Emitter Configuration of BJT, Punch Through in BJT, Examples of BJT.
5. BJT AC Analysis: 
Coupling Capacitor with Transistor, AC Analysis of BJT, AC Load Line of BJT, Hybrid Parameters of BJT, re Model of BJT, Hybrid Pi Model of BJT, Common Emitter Amplifier using BJT, Examples of BJT, Darlington Pair of BJT.
6. MOSCAP:
MOSCAP, MOS Capacitor, Ideal MOSCAP, Flat Band Voltage in MOSCAP, MOSCAP under External Bias, MOSCAP under Accumulation Mode, MOSCAP under Depletion Mode, MOSCAP under Inversion Mode, Threshold Voltage of MOSCAP, Inversion Charge of MOSCAP, CV Characteristics of MOSCAP, Examples of MOSCAP.
7. MOSFET:
MOSFET, IV Characteristics of MOSFET, Channel Length Modulation of MOSFET, Small Signal Model of MOSFET, Transconductance and Drain Resistance of MOSFET, Body Effect in MOSFET, Examples of MOSFET, Examples of IC Technology.
8. Electronics Experiments:
Use of Function Generator in MULTISIM, VI Characteristics of PN Junction Diode in MULTISIM, Zener Diode Characteristics in MULTISIM, Half wave Rectifier in MULTISIM, Full wave Rectifier in MULTISIM, Bridge Rectifier in MULTISIM, Logic GATEs in MULTISIM, Clipper Circuits in MULTISIM, Common Emitter Characteristics of BJT in MULTISIM, Frequency Response of Common Emitter Amplifier in MULTISIM, FET Characteristics in MULTISIM
Enroll now and take the first step toward mastering Electronics Devices and Circuits (EDC) / Solid State Devices core concepts! Join Our Community of students who have transformed their careers with our expert-led&nbsp;course on Electronics Devices and Circuits (EDC) / Solid State Devices!&nbsp;
See you in the Electronics Devices and Circuits (EDC) / Solid State Devices course! You&#39;re going to love it!
All the best...

Welcome to the world of Analog Electronics! In this course on Electronic Devices and Circuits, we&#39;ll delve into the fundamental principles and applications of analog circuits. From operational amplifiers to filters, oscillators, and more, you&#39;ll explore the intricate world of analog electronics, gaining the skills to design, analyze, and troubleshoot a variety of circuits essential for modern electronics.
Prof. Hitesh Dholakiya is an Electronics and Communication Design Engineer with over 15 years of experience in the core Electronics/Electrical domain as well as in the Antenna/RF/Communication field. With a passion for teaching and a wealth of industry knowledge, Prof. Hitesh Dholakiya is dedicated to helping students achieve their academic and professional&nbsp;goals in the Analog Electronics domain.
This Analog Electronics course is specially designed for students who want to clear basic to advanced fundamentals of Analog Electronics. It is also useful for working professionals. It forms the foundation for entering fields like Embedded Systems, VLSI, Instrumentations, etc. This Analog Electronics course covers almost all universities&#39; syllabus. This Analog Electronics is a unique course in the online marketplace.
This Analog Electronics course applies to Degree, Diploma, and Science Students. After completing this course students will be able to understand basic to advanced-level concepts of Analog Electronics such as OP-AMP, PLL, VCO, Voltage Regulators, etc. which will be a stepping stone for starting many lucrative career fields.
&nbsp;
This course on Analog Electronics covers the following Chapters.
&nbsp;
1. Diode Circuits in Analog Electronics
2. BJT Circuits in Analog Electronics
3. Operational Amplifier in Analog Electronics
4. 555 Timer in Analog Electronics
5. Phase Lock Loop (PLL) in Analog Electronics
6. Voltage Controlled Oscillator (VCO) in Analog Electronics
7. Fixed Voltage Regulators and Adjustable Voltage Regulators in Analog Electronics
&nbsp;
Topic wise Detailed Syllabus of Analog Electronics is as follows:
1. Diode Circuits in Analog Electronics:
Energy Bands and Classifications of Solid Materials, Types of Semiconductor Materials, PN Junction Diode, VI Characteristics of PN Junction Diode, Dynamic Resistance of Diode, Effect of Temperature in PN Junction, Diode Testing and Diode Quality verification, Ideal Diode and Practical Diode Approximation, Diode Ratings, Half Wave Rectifier, Parameters of Half Wave Rectifier, Full Wave Rectifier, Parameters of Full Wave Rectifier, Comparison of Half Wave Rectifier and Full Wave Rectifier, Filters in Rectifier, Capacitor Filter, Inductor Filter, Pi Filter and T Filter in Rectifier, Linear and Nonlinear Wave Shaping Circuit, Clipper Circuits, Examples of Clipper Circuits, Clamper Circuits, Examples of Clamper Circuits, Zener Diode, Zener Diode as Voltage Regulator, Examples of Zener Diode.
&nbsp;
2. BJT Circuits in Analog Electronics:
BJT, BJT Operational Regions, BJT Working, Common Base Configuration of BJT, Common Emitter Configuration of BJT, Relationship of Alpha, Beta and Gamma of BJT, DC Load Line of BJT, Bias Stabilization of BJT, Stability Factor of BJT, Fixed Bias of BJT, Emitter Bias of BJT, Collector Feedback Bias of BJT, Voltage Divider Bias of BJT, Examples of Transistor Biasing, Transistor as Switch.
&nbsp;
3. Operational Amplifier in Analog Electronics:
Introduction to Operational Amplifier, Parameters of Operational Amplifier, Examples of Parameters of Operational Amplifier, Characteristics of Ideal Operational Amplifier, Feedback in Operational Amplifier, Virtual Short and Virtual Ground Concept in Operational Amplifier, Inverting Amplifier and Non-Inverting Amplifier using Operational Amplifier, Voltage Follower using Operational Amplifier, Summing Averaging and Scaling using Operational Amplifier, Summing using Differential Operational Amplifier, Subtractor using Differential Operational Amplifier, Circuit Design from Equation using Operational Amplifier, 741 IC of Operational Amplifier, Examples of Operational Amplifier Circuits, V to I Converter using Operational Amplifier, I to V Converter using Operational Amplifier, Differentiator using Operational Amplifier, Examples of Differentiator using Operational Amplifier, Integrator using Operational Amplifier, Examples of Integrator using Operational Amplifier, Monostable Multivibrator using Operational Amplifier, Pulse width Derivation of Monostable Multivibrator using Operational Amplifier, Astable Multivibrator using Operational Amplifier, Frequency Derivation of Astable Multivibrator using Operational Amplifier, Designing of Multivibrator using Operational Amplifier, Bistable Multivibrator using Operational Amplifier, Triangular wave generator using Operational Amplifier, Sample and Hold Circuit using Operational Amplifier, Peak Detector using Operational Amplifier, Comparator using Operational Amplifier, Schmitt Trigger using Operational Amplifier, Instrumentation Amplifier using Operational Amplifier, Designing of Instrumentation Amplifier using Operational Amplifier, Precision Rectifier using Operational Amplifier, Log Amplifier using Operational Amplifier, Antilog Amplifier using Operational Amplifier, Clipper Circuits using Operational Amplifier, Active Filters using Operational Amplifier, First Order Butterworth Low Pass Filter using Operational Amplifier, First Order Butterworth High Pass Filter using Operational Amplifier, Designing of First Order Butterworth Low Pass Filter and High Pass Filter using Operational Amplifier, Wide Band Pass Filter using Operational Amplifier, Narrow Band Pass Filter using Operational Amplifier, Wide Band Stop Filter using Operational Amplifier, Narrow Band Stop Filter using Operational Amplifier, RC Phase Shift Oscillator using Operational Amplifier, Designing of RC Phase Shift Oscillator using Operational Amplifier, Wein Bridge Oscillator using Operational Amplifier, Designing of Wein Bridge Oscillator using Operational Amplifier, Designing of Oscillator using Operational Amplifier, Designing of Schmitt Trigger using Operational Amplifier, Designing of Integrator using Operational Amplifier, Designing of Filters using Operational Amplifier, Solved Examples of Operational Amplifier.
&nbsp;
4. 555 Timer in Analog Electronics:
555 Timer IC, Astable Multivibrator using 555 Timer IC, Monostable Multivibrator using 555 Timer IC, Bistable Multivibrator using 555 Timer IC, Designing of Multivibrator using 555 Timer IC.
&nbsp;
5. Phase Lock Loop (PLL) in Analog Electronics:
Phase Lock Loop - PLL, Phase Lock Loop IC - PLL IC - 565 IC
&nbsp;
6. Voltage Controlled Oscillator (VCO) in Analog Electronics:&nbsp;
Voltage Controlled Oscillator - VCO, Voltage Controlled Oscillator IC - VCO IC - 566 IC.
&nbsp;
7. Fixed Voltage Regulators and Adjustable Voltage Regulators in Analog Electronics:
Fixed Voltage Regulator, Adjustable Voltage Regulator.
Enroll now and take the first step toward mastering Analog Electronics&#39; core concepts! Join Our Community of students who have transformed their careers with our expert-led&nbsp;course on Analog Electronics!&nbsp;
See you in the Analog Electronics course! You&#39;re going to love it!
All the best...

Welcome to the comprehensive course on Circuit Analysis &amp; Network Theory, where we delve deep into the fundamental principles and advanced techniques essential for understanding and analyzing electrical circuits. From basic network theory to intricate AC analysis parameters, this course on Circuit Analysis &amp; Network Theory offers a meticulous exploration of every aspect.
Prof. Hitesh Dholakiya is an Electronics and Communication Design Engineer with over 15 years of experience in the core Electronics/Electrical domain as well as in the Antenna/RF/Communication field. With a passion for teaching and a wealth of industry knowledge, Prof. Hitesh Dholakiya is dedicated to helping students achieve their academic and professional&nbsp;goals in the Circuit Analysis &amp; Network Theory domain.
After completing this course on Circuit Analysis &amp; Network Theory students can be able to solve basic to advanced circuit problems. This Circuit Analysis &amp; Network Theory course comprehensively covers all the concepts of Circuit Theory for major branches like Electronics and Communication, Electrical, Instrumentation Engineering, Hardware Engineering, Circuit Designer, and many others.
This course on Circuit Analysis &amp; Network Theory covers the following topics with ample supportive examples in great detail.
1 Fundamentals of Network Theory
2 Equivalent Resistance in Circuit Analysis
3 Dot convention in Circuit Analysis
4 Mesh Analysis and Nodal Analysis in Electrical Network
5 Source Transformation in Circuit Analysis
6 Thevenin Theorem in Electrical Network
7 Norton&#39;s Theorem in Electrical Network
8 Millman&#39;s Theorem&nbsp;in Electrical Network
9 Maximum Power Transfer Theorem&nbsp;in Electrical Network
10 Super Position Theorem&nbsp;in Electrical Network
11 KVL, KCL, Nodal, and Mesh in Electrical Network
12 Power in DC Sources&nbsp;in Electrical Network
13 Reciprocity Theorem&nbsp;in Electrical Network
14 Transient Response with Time analysis in Circuit and Network
15 Initial and final conditions in Circuit and Network
16 Laplace transform in Electrical Network
17 Two Port Network in Electrical Network
18 Graph Theory in Electrical Network
19 Phasor Diagram in Electrical Network
20 Power In AC Circuits 
21 AC Analysis Parameters in Electrical Network
&nbsp;
Explore every facet of DC and AC circuit analysis with meticulous attention to detail.
Here are the detailed topics covered in every Chapter of Circuit Analysis &amp; Network Theory course.
Certainly! Here&#39;s a restructured version of the Circuit Analysis &amp; Network Theory course outline for better readability and organization:
&nbsp;
1. Fundamentals of Network Theory
&nbsp; &nbsp;- Introduction to Network Theory
&nbsp; &nbsp;- Network Synthesis and Applications
&nbsp; &nbsp;- Ideal and Practical Sources
&nbsp; &nbsp;- Classification of Networks
&nbsp; &nbsp;- Electric Charge, Current, EMF, and Potential
&nbsp; &nbsp;- Battery Selection for Circuits
&nbsp; &nbsp;- Power and Energy
&nbsp; &nbsp;- Kirchhoff&#39;s Laws
&nbsp; &nbsp;- Duality Principle
&nbsp; &nbsp;- Voltage and Current Divider Rules
&nbsp; &nbsp;- Basic Electrical Elements: Resistor, Inductor, and Capacitor
2. Equivalent Resistance in Circuit Analysis
&nbsp; &nbsp;- Delta to Star Conversion
&nbsp; &nbsp;- Star to Delta Conversion
&nbsp; &nbsp;- Equivalent Resistance Examples
&nbsp; &nbsp;- Symmetry and Equipotential Nodes in Equivalent Resistance
3. Dot convention in Circuit Analysis
&nbsp; &nbsp;- Electrical Parameters of Inductor
&nbsp; &nbsp;- Dot Convention and Polarity Identification
&nbsp; &nbsp;- Equivalent Inductor in Series and Parallel
&nbsp; &nbsp;- Examples using Dot Convention
4. Mesh Analysis and Nodal Analysis in Electrical Network
&nbsp; &nbsp;- Mesh Analysis and Supermesh Analysis
&nbsp; &nbsp;- Nodal Analysis and Supernode Analysis
&nbsp; &nbsp;- Examples using Mesh and Nodal Analysis
5. Source Transformation in Circuit Analysis
&nbsp; &nbsp;- Source Transformation
&nbsp; &nbsp;- Network Manipulation Rules
&nbsp; &nbsp;- Examples
6. Thevenin&#39;s Theorem in Electrical Network
&nbsp; &nbsp;- Thevenin&#39;s Theorem and Examples
&nbsp; &nbsp;- Thevenin&#39;s Theorem with Dependent Sources
&nbsp; &nbsp;- Thevenin&#39;s Theorem with Independent Sources
7. Norton&#39;s Theorem in Electrical Network
&nbsp; &nbsp;- Norton&#39;s Theorem and Examples
&nbsp; &nbsp;- Norton&#39;s Theorem with Dependent Sources
&nbsp; &nbsp;- Norton&#39;s Theorem with Independent Sources
8. Millman&#39;s Theorem in Electrical Network
&nbsp; &nbsp;- Millman&#39;s Theorem and Examples
9. Maximum Power Transfer Theorem in Electrical Network
&nbsp; &nbsp;- Maximum Power Transfer Theorem
&nbsp; &nbsp;- Examples
10. Superposition Theorem in Electrical Network
&nbsp; &nbsp; - Superposition Theorem and Examples
11. KVL, KCL Nodal and Mesh Analysis in Network Theory
&nbsp; &nbsp; - Examples of KVL, KCL, Nodal, and Mesh Analysis
12. Power in DC Sources
&nbsp; &nbsp; - Power Concepts and Examples
13. Reciprocity Theorem in Network Theory
&nbsp; &nbsp; - Reciprocity Theorem and Examples
14. Transient Response with Time analysis in Circuit and Network
&nbsp; &nbsp; - Transient Response of RL and RC Circuits
&nbsp; &nbsp; - Examples
15. Initial and final conditions in Circuit and Network
&nbsp; &nbsp; - Initial and Final Conditions in Circuits
&nbsp; &nbsp; - Examples
16. Laplace transform in Electrical Network
&nbsp; &nbsp; - Laplace Transform Properties and Formulas
&nbsp; &nbsp; - Transient Response and Equivalent Impedance
&nbsp; &nbsp; - Applications and Transfer Function
17. Two Port Network in Electrical Network
&nbsp; &nbsp; - Parameters and Properties
&nbsp; &nbsp; - Conversion and Examples
18. Graph Theory in Electrical Network
&nbsp; &nbsp; - Applications and Terminologies
&nbsp; &nbsp; - Incidence Matrix and Equations
&nbsp; &nbsp; - Examples
19. Phasor Diagram in Electrical Network
&nbsp; &nbsp; - Phasor Diagrams for Circuits
&nbsp; &nbsp; - Examples
20. Power in AC Circuits
&nbsp; &nbsp; - Power Concepts and Triangles
&nbsp; &nbsp; - Examples
21. AC Analysis Parameters in Electrical Network
&nbsp; &nbsp; - Resonance, Bandwidth, and Quality Factor
&nbsp; &nbsp; - Examples
Enroll now and take the first step toward mastering Circuit Analysis &amp; Network Theory! Join Our Community of students who have transformed their careers with our expert-led&nbsp;course on Circuit Analysis &amp; Network Theory!&nbsp;
So, Get ready to embark on a transformative journey into the heart of Electrical and Electronics Engineering. See you in the Circuit Analysis &amp; Network Theory course! You&#39;re going to love it!
Thank You...

This Control Systems course covers all the basic fundamentals of Control System Engineering.
Here Prof. Hitesh Dholakiya has covered all the topics of Control Systems/Control System Engineering with the following outlines:
1. Introduction to Control Systems: 
Open Loop System, Closed Loop System, Comparison of Open Loop System and Closed Loop System, Feedback in Control System, Effects of Feedback in Control System.
2. Transfer Function of Control Systems: 
Basics of Transfer Function, Transfer Function from Differential Equation, Transfer Function of RC &amp; RL Circuits (High Pass Filter and Low Pass Filter), Transfer Function and Oder of System, Transfer Function of Electrical Network.
3. Block Diagram of Control Systems: 
Basics of Block Diagram, Block Diagram Reduction Rules, Examples of Block Diagram Reduction Rules.
4. Signal Flow Graph of Control Systems: 
Terminologies and Rules of Signal Flow Graph, Mason Gain Formula of Signal Flow Graph, Mason Gain Formula Solved Examples, Block Diagram to Signal Flow Graph Conversion.
5. Mathematical Modeling of Mechanical System: 
Mathematical Modelling of Mechanical System, Mechanical System, Electrical System, Force Voltage Analogy, Force Current Analogy, Torque Voltage Analogy, Torque Current Analogy, Examples of Mathematical Modelling of Mechanical System.
6. Time &amp; Frequency Response Analysis of Control Systems: 
Test Signals, Steady State Error, Static Error Constants, Steady State Error with Unit Step Input, Unit Ramp Input and Unit Parabolic Input, Order and Type of System, Time Response Analysis, Unit Impulse Response of 1st Order System, Unit Step Response of 1st Order System, Unit Ramp Response of 1st Order System, Nature of Roots with 2nd Order System, Unit Step Response of 2nd Order System with Under-Damped, Critically Damped, and Over Damped System, Rise Time, Peak Time, Maximum Peak Overshoot, Settling Time, Initial and Final Value Theorem, Frequency Response Analysis, Resonance Frequency, Resonance Peak, and Bandwidth of 2nd Order System, Examples of Time Response &amp; Frequency Response Analysis.
7. Routh Stability of Control Systems: 
Stability Criteria of Control System, Routh Stability Criteria of Control System with Special Case I, II, and Oscillatory Conditions.
8. Root Locus of Control Systems: 
Root Locus Basics and Rules, Root Locus Examples.
9. PID Controllers in Control Systems: 
Proportional Controllers, Integral Controllers, Derivative Controllers, PI, PD and PID Controllers.
10. Polar Plot of Control Systems: 
Basics, Procedure, Advantages, Stability, and Parameters of Polar Plot, Examples of Polar Plot.
11. Nyquist Plot of Control Systems: 
Basics, Procedure, Advantages, Stability, and Parameters of Nyquist Plot, Examples of Nyquist Plot.
12. Bode Plot of Control Systems: 
Basics, Procedure, Advantages, Stability, and Parameters of Bode Plot, Examples of Bode Plot.
13. State Space Analysis of Control Systems: 
Basics, Applications, Advantages, Representation, Terms, and Equations of State Space Analysis, State Space Analysis for MIMO System, State Space Analysis to Identify Transfer Function, State Space Analysis for Differential Equations, State Space Analysis for Electrical Systems, State Space Analysis for Signal Flow Graph, Controllability and Observability by Kalman&#39;s Test using State Space Analysis.
14. Compensator in Control Systems: 
Introduction to Compensator, Lag Compensator, Lead Compensator, Lag-Lead Compensator, Effects of Lag Compensator and Effects of Lead Compensator, Examples of Compensator.
By the end of this course, you&#39;ll have the knowledge and skills to design, analyze, and implement control systems effectively. Enroll today and start mastering the core principles of Control Systems/Control System Engineering! 
See you in the course. 
Thank You.

This playlist includes videos related to Signals and Systems and it covers all the basic fundamentals of Signals and Systems.
Here Prof. Hitesh Dholakiya has covered all the topics of Signals and Systems with the following outlines:&nbsp;
1. Introduction to Signals: 
Basics and Applications of Signals, Classifications of Signals, Standard Signals {Impulse, Step, Ramp, Signum, Rectangular, Sinc and Sampling}, Operations on Signals {Time Shifting, Time Folding, Time Scaling &amp; Arithmetic Operations}, Plot of Signal from the Function, Even and Odd Signals, Identification of Even and Odd Components of Signals, Periodicity of Signals, Energy and Power of Signals.
2. Introduction to Systems: 
Basics and Applications of Systems, Classifications of Systems, Linear and Non-Linear Systems, Time Invariant and Time Variant Systems, LTI and LTV Systems, Static and Dynamic Systems, Causal and Non-Causal Systems, Invertible and Non-Invertible Systems, Stable and Unstable Systems, Impulse Response of Systems.
3. Convolution: 
Basics and Properties of Convolution, Limits of Convolution, Area of Convoluted Signal, Convolution of Continuous Time Signals, Convolution by Slide and Shift Method, Convolution by Image Method, Convolution Examples, Linear Convolution, Circular Convolution, Deconvolution, Long Division Method of Deconvolution. &nbsp;&nbsp;
4. Laplace Transform: 
Basics and Applications of Laplace Transform, Laplace Transform Vs Fourier Transform, Properties of Laplace Transform, ROC of Laplace Transform, Examples of ROC and Laplace Transform, Unilateral Laplace Transform, Laplace Transform of Standard Signals, Examples of Laplace Transform, Impulse Response of the system using Laplace Transform, Initial and Final Conditions using Laplace Transform.
5. Z Transform: 
Basics and Properties of Z Transform, Relation of Z Transform with DTFT, Z Transform of Discrete Sequence, Examples of Z Transform, Z Transform of Standard Signals, Examples of Z Transform, Initial and Final Value Theorem using Z Transform, ROC of Z Transform, Examples of ROC and Z Transform, Causality and Stability using Z Transform, Long Division Method for Inverse Z Transform, Direct Method or Partial Fraction Method for Inverse Z Transform, Residue Method for Inverse Z Transform, Examples of Properties of Z Transform, Transfer Function and Impulse Response by Z Transform.
6. Fourier Series: 
Fourier Series Vs Fourier Transform, Fourier Series Coefficient Derivation, Types of Fourier Series {Exponential, Trigonometric and Polar Fourier Series}, Properties of Fourier Series, Relation between Trigonometric and Exponential Fourier Series, Examples of Fourier Series Coefficient, Fourier Series Coefficients from Symmetry, DC Component of Fourier Series, Fundamental Component and Harmonics of Fourier Series, Examples of Trigonometric Fourier Series, Examples of Exponential Fourier Series. 
 
7. Fourier Transform: 
Basics of Fourier Transform, Derivation of Fourier Transform, Fourier Transform of Rectangular Pulse, Fourier Transform of Impulse Signal, Fourier Transform of DC Signal, Fourier Transform of Cosine Signal, Fourier Transform of Unit Step Signal, Fourier Transform of Shifted Unit Step Signal, Fourier Transform of Two-Sided Exponential Signal, Properties of Fourier Transform, Linearity Property of Fourier Transform, Time Shifting Property of Fourier Transform, Frequency Shifting Property of Fourier Transform, Differentiation and Integration Properties of Fourier Transform, Time Scaling Property of Fourier Transform, Multiplication and Convolution Properties of Fourier Transform, Duality Property of Fourier Transform, Distortion Less Transmission of Signal, Fourier Transform Solved Examples. 
 
8. Correlation: 
Correlation Basics, Types, Applications, Properties of Correlation, Correlation Solved Examples, Auto Correlation Solved Examples, Cross Correlation Solved Examples, Parseval&#39;s Theorem for Energy Signal and Energy Spectral Density. 
See you in the course. 
Thank You.

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