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Ezeuko Emmanuel
This is a practical course, that will teach you how to design your first project on FPGA [UART - universal asynchronous transmitter and receiver.]
It explains how the vdhl code was designed. and will teach you how it was simulated , and how to trace the signals for debugging using Logism.
The course is divided into three sections: the receiver, the baud generator and transmitter.
This a 12 video course. each module teaching about a particular part of the design.
a lot of visuals, arrows, pictures were used to make the tutorials easy to understand.
Read more
This is a practical course, that will teach you how to design your first project on FPGA [UART - universal asynchronous transmitter and receiver.]
It explains how the vdhl code was designed. and will teach you how it was simulated , and how to trace the signals for debugging using Logism.
The course is divided into three sections: the receiver, the baud generator and transmitter.
This a 12 video course. each module teaching about a particular part of the design.
a lot of visuals, arrows, pictures were used to make the tutorials easy to understand.
Read more
This is a practical course, that will teach you how to design your first project on FPGA [UART - universal asynchronous transmitter and receiver.]
It explains how the vdhl code was designed. and will teach you how it was simulated , and how to trace the signals for debugging using Logism.
The course is divided into three sections: the receiver, the baud generator and transmitter.
This a 12 video course. each module teaching about a particular part of the design.
a lot of visuals, arrows, pictures were used to make the tutorials easy to understand.
kindly use the logism circuit file while watching the tutorial for easy understanding.
if my english is too fast please use the subtitle files attached.
You will design a uart transmitter and receiver . You will be able to design a transceiver by the end of the course. You will get the VHDL scripts and the logism circuit. subsequent courses will teach other serial communication protocols spi, i2c , encryption algorithm includng aes, sha Basic knowledge of vdhl is required.
View upcoming projects at projectfpga.
While on the course please download the attached files, and check links for downloads. they include logism circuit files, vhdl script. etc.
No hardware is required just your pc.
It was kept brief and straight to the point.
Register for this course and see more details by visiting:
OpenCourser.com/course/i11fnv/practical
What's inside
Learning objectives
- Simulate fpga design using logism.
- Design uart receiver on fpga with vhdl code, and simulate on logism
- Design uart transmitter on fpga with vhdl code, and simulate on logism
- Learn how to simulate and design fpga circuits in logism
- Design uart transceiver on fpga with vhdl code, and simulate on logism
- Simulate fpga design using logism.
- Design uart receiver on fpga with vhdl code, and simulate on logism
- Design uart transmitter on fpga with vhdl code, and simulate on logism
- Learn how to simulate and design fpga circuits in logism
- Design uart transceiver on fpga with vhdl code, and simulate on logism
Syllabus
The UART transmitter
Basic requirements of the UART Protocol
Course introduction
UART requirements
Read more
Syllabus
The UART transmitter
Basic requirements of the UART Protocol
Course introduction
UART requirements
Read more
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Reviews summary
Practical fpga design: uart project
According to students, this course offers a practical, hands-on approach to designing a UART transceiver using VHDL and simulating with Logisim. Learners appreciate the step-by-step guidance and the provision of all necessary VHDL scripts and Logisim files, which significantly aids in following along and practicing. Many find the course valuable for solidifying their understanding of FPGA design flow through a real-world example. However, a recurring point noted by some is that the instructor's English accent can be difficult to follow at times, potentially requiring reliance on subtitles.
Course assumes some prior VHDL experience.
"Basic knowledge of vdhl is required."
"Requires basic VHDL as stated."
Simulates design without needing hardware.
"No hardware is required just your pc."
"Learned how to simulate the design in Logisim."
"Logisim simulation was easy to follow."
Design process is broken down clearly.
"The step-by-step approach to designing the UART transceiver is very clear."
"The course is divided into three sections: the receiver, the baud generator and transmitter."
"The sections are well-divided."
Includes essential VHDL scripts and Logisim files.
"Providing the VHDL and Logisim files is a huge plus. I had basic VHDL knowledge and found this very practical."
"You will get the VHDL scripts and the logism circuit."
"Files provided are very useful."
Emphasizes hands-on UART project design.
"This is a practical course, that will teach you how to design your first project on FPGA [UART..."
"Exactly what I needed - a hands-on project to solidify my understanding of FPGA design flow, specifically for UART."
"Excellent practical project. The structure is logical. Helped me grasp the UART protocol implementation in VHDL."
Instructor's English is sometimes hard to follow.
"though his English accent is sometimes a bit challenging to follow."
"the instructor's English is difficult to understand in places, making it hard to follow along without subtitles."
"My only minor complaint is the audio clarity/accent in some videos."
Activities
Be better prepared
before
your course. Deepen your understanding
during
and
after
it. Supplement your coursework and achieve mastery of the topics covered
in Practical FPGA project design [UART] with these
activities:
Review VHDL Fundamentals
Show steps
Strengthen your understanding of VHDL syntax and concepts. This will make it easier to follow the VHDL code examples in the course and design your own UART implementation.
Browse courses on
VHDL
Show steps
-
Review basic VHDL syntax and data types.
-
Practice writing simple VHDL modules.
Practice with Logisim
Show steps
Familiarize yourself with Logisim's interface and features. This will allow you to simulate and debug the UART design effectively.
Show steps
-
Create basic logic circuits in Logisim.
-
Simulate and debug circuits using Logisim's tools.
Read 'FPGA Prototyping by VHDL Examples'
Show steps
Study practical VHDL examples for FPGA implementation. This will help you understand the coding style and design techniques used in the course.
View
FPGA Prototyping by VHDL Examples
on Amazon
Show steps
-
Read the chapters related to digital design fundamentals.
-
Study the VHDL code examples provided in the book.
Four other activities
Expand to see all activities and additional details
Show all seven activities
Implement basic logic gates in VHDL
Show steps
Reinforce your understanding of VHDL by implementing basic logic gates. This will solidify your knowledge of VHDL syntax and simulation.
Show steps
-
Write VHDL code for AND, OR, NOT, XOR gates.
-
Simulate the gates in Logisim to verify functionality.
Extend the UART design
Show steps
Enhance the UART design by adding features like parity checking or flow control. This will deepen your understanding of UART protocol and VHDL design.
Show steps
-
Research parity checking and flow control mechanisms.
-
Implement the chosen feature in VHDL.
-
Simulate and test the extended UART design.
Document your UART design
Show steps
Create a detailed documentation of your UART design, including VHDL code, simulation results, and explanations. This will improve your communication and documentation skills.
Show steps
-
Write a description of the UART design and its functionality.
-
Include VHDL code snippets with comments.
-
Add simulation results and explanations.
Read 'Digital Design and Computer Architecture'
Show steps
Study digital design principles and computer architecture. This will provide a broader context for understanding FPGA design.
View
Digital Design and Computer Architecture
on Amazon
Show steps
-
Read the chapters related to logic gates and sequential circuits.
-
Study the examples of digital design implementations.
Review VHDL Fundamentals
Show steps
Strengthen your understanding of VHDL syntax and concepts. This will make it easier to follow the VHDL code examples in the course and design your own UART implementation.
Browse courses on
VHDL
Show steps
Show steps
Show steps
- Review basic VHDL syntax and data types.
- Practice writing simple VHDL modules.
Practice with Logisim
Show steps
Familiarize yourself with Logisim's interface and features. This will allow you to simulate and debug the UART design effectively.
Show steps
Show steps
Show steps
- Create basic logic circuits in Logisim.
- Simulate and debug circuits using Logisim's tools.
Read 'FPGA Prototyping by VHDL Examples'
Show steps
Study practical VHDL examples for FPGA implementation. This will help you understand the coding style and design techniques used in the course.
View
FPGA Prototyping by VHDL Examples
on Amazon
Show steps
Show steps
Show steps
- Read the chapters related to digital design fundamentals.
- Study the VHDL code examples provided in the book.
Four other activities
Expand to see all activities and additional details
Show all seven activities
Implement basic logic gates in VHDL
Show steps
Reinforce your understanding of VHDL by implementing basic logic gates. This will solidify your knowledge of VHDL syntax and simulation.
Show steps
Show steps
Show steps
- Write VHDL code for AND, OR, NOT, XOR gates.
- Simulate the gates in Logisim to verify functionality.
Extend the UART design
Show steps
Enhance the UART design by adding features like parity checking or flow control. This will deepen your understanding of UART protocol and VHDL design.
Show steps
Show steps
Show steps
- Research parity checking and flow control mechanisms.
- Implement the chosen feature in VHDL.
- Simulate and test the extended UART design.
Document your UART design
Show steps
Create a detailed documentation of your UART design, including VHDL code, simulation results, and explanations. This will improve your communication and documentation skills.
Show steps
Show steps
Show steps
- Write a description of the UART design and its functionality.
- Include VHDL code snippets with comments.
- Add simulation results and explanations.
Read 'Digital Design and Computer Architecture'
Show steps
Study digital design principles and computer architecture. This will provide a broader context for understanding FPGA design.
View
Digital Design and Computer Architecture
on Amazon
Show steps
Show steps
Show steps
- Read the chapters related to logic gates and sequential circuits.
- Study the examples of digital design implementations.
Career center
Learners who complete Practical FPGA project design [UART] will develop knowledge and skills
that may be useful to these careers:
FPGA Engineer
FPGA Engineer
An FPGA Engineer designs, develops, and tests digital circuits using field-programmable gate arrays. This course helps an aspiring FPGA engineer by teaching practical design, simulation, and debugging skills using VHDL code and Logism, specifically in the context of UART communication. The course's hands-on approach to designing a UART transceiver, including receiver, baud generator, and transmitter, provides foundational experience for tackling complex FPGA projects. This course also teaches debugging by tracing signals using Logism.
Circuit Designer
Circuit Designer
A Circuit Designer creates electronic circuits for various applications. This course helps a circuit designer by giving them practical experience in designing a UART transceiver. The use of VHDL to design the transmitter, receiver and baud generator, as well as the use of Logism to simulate and debug circuits directly adds to the skills of a circuit designer. This course's hands-on nature and focus on a widely used communication protocol can greatly enhance the skills of an aspiring circuit designer.
Embedded Systems Engineer
Embedded Systems Engineer
An Embedded Systems Engineer designs and develops software and hardware for embedded systems. This course helps an embedded systems engineer learn about serial communication protocols such as UART, a common component in embedded devices. The course's design of a UART transceiver from the ground up using VHDL code, along with the simulation of this design and debugging using Logism, provides the practical experience that helps build a strong base in hardware-software interaction. An Embedded Systems Engineer learns about hardware design via this course, as well as simulation and debugging.
Digital Design Engineer
Digital Design Engineer
A Digital Design Engineer designs and tests digital circuits. This course helps a digital design engineer learn by providing hands-on experience designing a UART transceiver using VHDL. The course teaches the design of a receiver, baud generator and transmitter, as well as simulation using Logism. Debugging skills are also built with signal tracing. The course helps aspiring digital designers understand the crucial aspects of digital communication which is a key component of digital design. Skills obtained here are directly applicable to various digital design fields.
Hardware Engineer
Hardware Engineer
A Hardware Engineer designs and tests electronic hardware. This course helps a hardware engineer learn about UART communication protocol, which is fundamental to hardware interaction. The course covers design by way of VHDL code, and it provides experience with logic simulation and debugging using Logism. The course's explanation of how a UART transmitter and receiver works helps to build a strong grasp of digital circuit design, which is necessary for many hardware engineering tasks. A future Hardware Engineer learns about circuit design and simulation with this course.
Computer Engineer
Computer Engineer
A Computer Engineer designs computer hardware and software. This course helps a computer engineer learn the basics of hardware design through hands-on experience by building and simulating a UART transceiver with VHDL and Logism. The course deepens an understanding of fundamental digital components and helps one learn about digital communication protocols. This practical knowledge of hardware design, simulation, and debugging can be valuable to any computer engineer.
VLSI Design Engineer
VLSI Design Engineer
A VLSI Design Engineer is involved in the design and development of integrated circuits at the chip level. This course will help a VLSI Design Engineer learn about designing digital communication hardware by way of building and simulating a UART transceiver using VHDL and Logism. This course helps with foundational knowledge of circuit design and simulation, which is an aspect of VLSI design. The course also provides hands-on experience in building and testing digital communication, which helps in creating larger integrated circuits.
Instrumentation Engineer
Instrumentation Engineer
An Instrumentation Engineer designs and maintains instruments and control systems. This course may be useful for an instrumentation engineer who wants to understand the hardware aspects of instrumentation systems. The course teaches designing and simulating a UART transceiver, which is often used in instrumentation for communication. The course provides valuable practical experience, and this experience helps the Instrumentation Engineer better understand the design of instrumentation systems.
Product Development Engineer
Product Development Engineer
A Product Development Engineer is involved in the design and development of new products. This course may be useful to a Product Development Engineer who needs to have a basic understanding of hardware components in products. The course teaches VHDL design of a UART transceiver, and shows how to simulate and debug this circuit using Logism, which can inform product design choices. This course helps to provide the practical knowledge of digital communication which Product Development Engineers may need to succeed.
Verification Engineer
Verification Engineer
A Verification Engineer ensures the proper functioning of hardware and software through testing and debugging. This course may be useful to a verification engineer who wants deeper knowledge of the underlying hardware. The course covers the simulation of VHDL designs using Logism, and includes signal tracing for debugging. It focuses specifically on the design of a UART transceiver which helps establish a foundation in digital communication. The skills developed by this course, including simulation and debugging, directly align with the verification engineer's tasks.
Robotics Engineer
Robotics Engineer
A Robotics Engineer designs, builds, and tests robots. This course may be useful to a robotics engineer because it teaches about serial communication using UART. The course also gives an understanding of how to design a UART transmitter and receiver using VHDL and Logism. The simulation and debugging of digital circuits using Logism can give a more well-rounded understanding about how hardware integrates into robotic systems. The practical skills in circuit design and debugging can be helpful in robotics development.
Electrical Engineer
Electrical Engineer
An Electrical Engineer designs, develops, and tests electrical systems and components. This course may be useful to a Electrical Engineer. The course covers the design and simulation of a UART transceiver using VHDL, which is a crucial component in many electrical systems. The course's practical design focus and use of Logism helps in learning digital circuit design and debugging. An Electrical Engineer might find the understanding of serial communication and digital circuit design useful in their practice of electrical engineering.
Firmware Engineer
Firmware Engineer
A Firmware Engineer develops low-level software for embedded systems. This course may be useful to a firmware engineer by providing a deep understanding of the hardware side of communications and the simulation of a UART transceiver. The knowledge of VHDL design and Logism simulation taught in this course can help a firmware engineer more effectively interact with hardware components. This foundational understanding of communication protocols and the related hardware can help in developing firmware.
Systems Engineer
Systems Engineer
A Systems Engineer manages the complete lifecycle of complex systems. This course may be useful to a systems engineer who needs to understand the hardware components of a system, specifically regarding digital communication. The course gives practical experience in designing, simulating, and debugging a UART transceiver using VHDL and Logism. The course's focus on how to create a UART transmitter and receiver, and how to debug them, helps a Systems Engineer to better understand the lower levels of complex systems.
Automation Engineer
Automation Engineer
An Automation Engineer designs and implements automated systems. This course may be useful to an automation engineer who wants to learn about hardware communication protocols. The course covers the design, simulation, and debugging of a UART transceiver, which is a key communication component in many automation systems. This course helps an automation engineer in understanding hardware communication, and may be helpful in designing automated systems.
For more career information including salaries, visit:
OpenCourser.com/course/i11fnv/practical
Reading list
We've selected two books
that we think will supplement your
learning. Use these to
develop background knowledge, enrich your coursework, and gain a
deeper understanding of the topics covered in
Practical FPGA project design [UART].
Provides practical examples of VHDL code for FPGA designs. It covers various digital design concepts and demonstrates how to implement them on FPGAs using VHDL. While not specifically focused on UART, it offers valuable insights into VHDL coding style and FPGA design techniques. It useful reference for understanding the VHDL code provided in the course.
Provides a comprehensive overview of digital design principles and computer architecture. It covers topics such as logic gates, combinational and sequential circuits, and memory systems. While it doesn't focus specifically on UART, it provides a solid foundation in digital design concepts that are essential for understanding and implementing FPGA projects. It is more valuable as additional reading to provide a broader context.
For more information about how these books relate to this course, visit:
OpenCourser.com/course/i11fnv/practical
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