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Dr. Kim Newman Frey
The complexity of digital logic designs requires understanding of large scale devices such as Field Programmable Gate Arrays (FPGAs) to realize solutions. Implementation in discrete components is nearly impossible to realize and debug due to the growing complexity of solutions. Integration of processor capability into one platform enables reduction in size and conservation of power with improved microelectronic hardware. The focus of this specialization is the practical use of Soft Processors with emphasis on testing and debugging in applications of video.
Hands on bring up of DE10-Lite board with expansion into the use of...
Read more
The complexity of digital logic designs requires understanding of large scale devices such as Field Programmable Gate Arrays (FPGAs) to realize solutions. Implementation in discrete components is nearly impossible to realize and debug due to the growing complexity of solutions. Integration of processor capability into one platform enables reduction in size and conservation of power with improved microelectronic hardware. The focus of this specialization is the practical use of Soft Processors with emphasis on testing and debugging in applications of video.
Hands on bring up of DE10-Lite board with expansion into the use of...
Read more
The complexity of digital logic designs requires understanding of large scale devices such as Field Programmable Gate Arrays (FPGAs) to realize solutions. Implementation in discrete components is nearly impossible to realize and debug due to the growing complexity of solutions. Integration of processor capability into one platform enables reduction in size and conservation of power with improved microelectronic hardware. The focus of this specialization is the practical use of Soft Processors with emphasis on testing and debugging in applications of video.
Hands on bring up of DE10-Lite board with expansion into the use of the VGA output interface is provided. Focus on the use of the NIOS II processor to control Video IP for generation of test pattern output after reviewing the sample test pattern demonstration in Verilog. Review of the manual for the implementation of Video IP for display of signals using the Avalon-ST streaming protocol is covered. Tools for the design of systems are provided which include the System Console and TCL scripts for evaluation of board and processor interfaces with custom project, and an embedded Logic Analyzer for probing of signal values to characterize performance and state transition. A traffic light controller and thunderbird tail lights are used to provide hands-on examples.
Register for this course and see more details by visiting:
OpenCourser.com/course/6q97bw/expanded
Good to know
Good to know
Know what's good ,
what to watch for , and
possible dealbreakers
Focuses on use case implementation on the DE10-Lite board with VGA output interface, video IP generation, and system console evaluation
Provides hands-on experience with hardware and embedded systems design, benefiting engineering and computer science students
Covers practical use of Soft Processors for video applications, building practical skills in systems engineering
Requires familiarity with Verilog and logic circuit design principles, indicating a suitable level for intermediate learners
Involves utilization of System Console and TCL scripts for evaluation, assuming learners have prior knowledge or are willing to acquire it
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Reviews summary
Intro to fpga and nios ii
This course provides a thorough introduction to FPGA and NIOS II with hands-on examples.
Engaging, valuable hands-on projects
"Cool intro into FPGA design, NIOS II subsystem, consisting of valuable and interesting hands-on-s!"
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 Expanded FPGA Training with NIOS II with these
activities:
Review basic digital logic concepts
Show steps
Strengthen foundation in basic digital logic concepts to enhance comprehension of the more advanced topics covered in the course.
Browse courses on
Digital Logic
Show steps
-
Revisit textbooks, lecture notes, or online resources on digital logic fundamentals
-
Solve practice problems to reinforce understanding
Practice writing Verilog code
Show steps
Develop proficiency in writing Verilog code, a skill that is crucial for designing digital logic circuits.
Show steps
-
Review basic Verilog syntax and semantics
-
Start practicing with simple coding exercises
-
Gradually increase the complexity of the exercises
Participate in a study group with classmates to discuss course concepts
Show steps
Enhance understanding through collaborative learning and peer-to-peer discussions.
Show steps
-
Form a study group with classmates who share similar interests and schedules
-
Meet regularly to discuss course concepts, share insights, and work through problems together
Four other activities
Expand to see all activities and additional details
Show all seven activities
Follow tutorials on FPGA design using DE10-Lite board
Show steps
Gain practical experience with FPGA design using the DE10-Lite board, which is used in the course for implementing digital logic circuits.
Browse courses on
FPGA Design
Show steps
-
Find online tutorials or video courses on FPGA design using DE10-Lite board
-
Follow the tutorials step-by-step, implementing the designs on your own DE10-Lite board
-
Troubleshoot any issues that arise during the implementation process
Contribute to open-source projects related to digital logic design
Show steps
Gain practical experience and contribute to the digital logic design community by collaborating on open-source projects.
Show steps
-
Identify open-source projects related to digital logic design that align with your interests
-
Start contributing to the projects by reporting bugs, suggesting improvements, or writing code
Create a presentation on a specific digital logic design project
Show steps
Solidify understanding of digital logic design concepts by explaining them to others through a presentation.
Show steps
-
Choose a specific digital logic design project that you have worked on
-
Prepare a presentation that explains the project's objectives, design methodology, implementation details, and results
-
Present your work to your classmates or colleagues, explaining the project in clear and concise terms
Design and implement a simple digital logic circuit using the NIOS II processor
Show steps
Apply knowledge of digital logic design and NIOS II processor to a hands-on project, reinforcing understanding and developing practical skills.
Show steps
-
Define the specifications and requirements for your digital logic circuit
-
Design the circuit using appropriate digital logic gates and components
-
Implement the design using the NIOS II processor on the DE10-Lite board
-
Test and debug the circuit to ensure it meets the specifications
Review basic digital logic concepts
Show steps
Strengthen foundation in basic digital logic concepts to enhance comprehension of the more advanced topics covered in the course.
Browse courses on
Digital Logic
Show steps
Show steps
Show steps
- Revisit textbooks, lecture notes, or online resources on digital logic fundamentals
- Solve practice problems to reinforce understanding
Practice writing Verilog code
Show steps
Develop proficiency in writing Verilog code, a skill that is crucial for designing digital logic circuits.
Show steps
Show steps
Show steps
- Review basic Verilog syntax and semantics
- Start practicing with simple coding exercises
- Gradually increase the complexity of the exercises
Participate in a study group with classmates to discuss course concepts
Show steps
Enhance understanding through collaborative learning and peer-to-peer discussions.
Show steps
Show steps
Show steps
- Form a study group with classmates who share similar interests and schedules
- Meet regularly to discuss course concepts, share insights, and work through problems together
Four other activities
Expand to see all activities and additional details
Show all seven activities
Follow tutorials on FPGA design using DE10-Lite board
Show steps
Gain practical experience with FPGA design using the DE10-Lite board, which is used in the course for implementing digital logic circuits.
Browse courses on
FPGA Design
Show steps
Show steps
Show steps
- Find online tutorials or video courses on FPGA design using DE10-Lite board
- Follow the tutorials step-by-step, implementing the designs on your own DE10-Lite board
- Troubleshoot any issues that arise during the implementation process
Contribute to open-source projects related to digital logic design
Show steps
Gain practical experience and contribute to the digital logic design community by collaborating on open-source projects.
Show steps
Show steps
Show steps
- Identify open-source projects related to digital logic design that align with your interests
- Start contributing to the projects by reporting bugs, suggesting improvements, or writing code
Create a presentation on a specific digital logic design project
Show steps
Solidify understanding of digital logic design concepts by explaining them to others through a presentation.
Show steps
Show steps
Show steps
- Choose a specific digital logic design project that you have worked on
- Prepare a presentation that explains the project's objectives, design methodology, implementation details, and results
- Present your work to your classmates or colleagues, explaining the project in clear and concise terms
Design and implement a simple digital logic circuit using the NIOS II processor
Show steps
Apply knowledge of digital logic design and NIOS II processor to a hands-on project, reinforcing understanding and developing practical skills.
Show steps
Show steps
Show steps
- Define the specifications and requirements for your digital logic circuit
- Design the circuit using appropriate digital logic gates and components
- Implement the design using the NIOS II processor on the DE10-Lite board
- Test and debug the circuit to ensure it meets the specifications
Career center
Learners who complete Expanded FPGA Training with NIOS II will develop knowledge and skills
that may be useful to these careers:
Digital Logic Designer
Digital Logic Designer
A Digital Logic Designer designs, develops, and tests digital logic circuits. Digital logic circuits are used in a wide variety of applications, including computers, smartphones, and digital cameras. This course can help you build a strong foundation in digital logic design, which is essential for a successful career as a Digital Logic Designer. Specifically, the course's focus on the NIOS II processor, which is commonly used in digital logic circuits, will be particularly valuable.
Computer Architect
Computer Architect
A Computer Architect designs, develops, and tests computer architectures. Computer architectures are the blueprint for how computers are built and how they work. Computer Architects work in a variety of industries, including electronics, telecommunications, and aerospace. This course can help you build a strong foundation in computer architecture, which is essential for a successful career as a Computer Architect. Specifically, the course's focus on the NIOS II processor, which is commonly used in computer architectures, will be particularly valuable.
VLSI Design Engineer
VLSI Design Engineer
A VLSI Design Engineer designs, develops, and tests Very Large Scale Integration (VLSI) circuits. VLSI circuits are integrated circuits that contain millions or even billions of transistors. VLSI circuits are used in a wide variety of applications, including computers, smartphones, and digital cameras. This course can help you build a strong foundation in VLSI design, which is essential for a successful career as a VLSI Design Engineer. Specifically, the course's focus on the NIOS II processor, which is commonly used in VLSI circuits, will be particularly valuable.
ASIC Design Engineer
ASIC Design Engineer
An ASIC Design Engineer designs, develops, and tests Application-Specific Integrated Circuits (ASICs). ASICs are custom-designed integrated circuits that are used in a wide variety of applications, including smartphones, digital cameras, and medical devices. This course can help you build a strong foundation in ASIC design, which is essential for a successful career as an ASIC Design Engineer. Specifically, the course's focus on the NIOS II processor, which is commonly used in ASICs, will be particularly valuable.
FPGA Engineer
FPGA Engineer
An FPGA Engineer designs, implements, and tests Field Programmable Gate Arrays (FPGAs). FPGAs are semiconductor devices that can be programmed to perform a variety of tasks, making them ideal for use in a wide range of applications, including digital signal processing, image processing, and telecommunications. This course can help you build a strong foundation in FPGA design and implementation, which is essential for a successful career as an FPGA Engineer. Specifically, the course's focus on the NIOS II processor, which is commonly used in FPGA-based systems, will be particularly valuable.
Digital Signal Processing Engineer
Digital Signal Processing Engineer
A Digital Signal Processing Engineer designs, develops, and tests digital signal processing systems. Digital signal processing systems are used in a wide variety of applications, including audio processing, image processing, and telecommunications. This course can help you build a strong foundation in digital signal processing, which is essential for a successful career as a Digital Signal Processing Engineer. Specifically, the course's focus on the NIOS II processor, which is commonly used in digital signal processing systems, will be particularly valuable.
Image Processing Engineer
Image Processing Engineer
An Image Processing Engineer designs, develops, and tests image processing systems. Image processing systems are used in a wide variety of applications, including medical imaging, remote sensing, and surveillance. This course can help you build a strong foundation in image processing, which is essential for a successful career as an Image Processing Engineer. Specifically, the course's focus on the NIOS II processor, which is commonly used in image processing systems, will be particularly valuable.
Embedded Systems Engineer
Embedded Systems Engineer
An Embedded Systems Engineer designs, develops, and tests embedded systems, which are computer systems that are embedded within larger mechanical or electrical systems. Embedded systems are used in a wide variety of applications, including automotive, medical, and industrial automation. This course can help you build a strong foundation in embedded systems design, which is essential for a successful career as an Embedded Systems Engineer. Specifically, the course's focus on the NIOS II processor, which is commonly used in embedded systems, will be particularly valuable.
Telecommunications Engineer
Telecommunications Engineer
A Telecommunications Engineer designs, develops, and tests telecommunications systems. Telecommunications systems are used to transmit voice, data, and video over long distances. This course can help you build a strong foundation in telecommunications, which is essential for a successful career as a Telecommunications Engineer. Specifically, the course's focus on the NIOS II processor, which is commonly used in telecommunications systems, will be particularly valuable.
Hardware Engineer
Hardware Engineer
A Hardware Engineer designs, develops, and tests hardware components, such as printed circuit boards (PCBs), integrated circuits (ICs), and other electronic devices. Hardware Engineers work in a variety of industries, including electronics, telecommunications, and aerospace. This course can help you build a strong foundation in hardware design, which is essential for a successful career as a Hardware Engineer.
Biomedical Engineer
Biomedical Engineer
A Biomedical Engineer designs, develops, and tests biomedical devices and systems. Biomedical Engineers work in a variety of industries, including the medical device industry, the pharmaceutical industry, and the government. This course may be useful for a Biomedical Engineer who wants to learn more about FPGA design and implementation. Specifically, the course's focus on the NIOS II processor, which is commonly used in biomedical applications, may be particularly valuable.
Civil Engineer
Civil Engineer
A Civil Engineer designs, develops, and tests civil infrastructure, such as roads, bridges, and buildings. Civil Engineers work in a variety of industries, including the construction industry, the government, and the private sector. This course may be useful for a Civil Engineer who wants to learn more about FPGA design and implementation. Specifically, the course's focus on the NIOS II processor, which is commonly used in civil engineering applications, may be particularly valuable.
Aerospace Engineer
Aerospace Engineer
An Aerospace Engineer designs, develops, and tests aircraft, spacecraft, and other aerospace vehicles. Aerospace Engineers work in a variety of industries, including the aerospace industry, the defense industry, and the government. This course may be useful for an Aerospace Engineer who wants to learn more about FPGA design and implementation. Specifically, the course's focus on the NIOS II processor, which is commonly used in aerospace applications, may be particularly valuable.
Chemical Engineer
Chemical Engineer
A Chemical Engineer designs, develops, and tests chemical processes and systems. Chemical Engineers work in a variety of industries, including the chemical industry, the pharmaceutical industry, and the food industry. This course may be useful for a Chemical Engineer who wants to learn more about FPGA design and implementation. Specifically, the course's focus on the NIOS II processor, which is commonly used in chemical engineering applications, may be particularly valuable.
Automotive Engineer
Automotive Engineer
An Automotive Engineer designs, develops, and tests automobiles. Automotive Engineers work in a variety of industries, including the automotive industry, the defense industry, and the government. This course may be useful for an Automotive Engineer who wants to learn more about FPGA design and implementation. Specifically, the course's focus on the NIOS II processor, which is commonly used in automotive applications, may be particularly valuable.
For more career information including salaries, visit:
OpenCourser.com/course/6q97bw/expanded
Reading list
We've selected 12 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
Expanded FPGA Training with NIOS II.
This classic textbook provides a comprehensive overview of computer architecture, covering topics such as computer organization, instruction set architectures, pipelining, and memory hierarchies. It valuable resource for students and practitioners who want to gain a deeper understanding of the underlying principles of computer hardware.
Provides a practical guide to FPGA prototyping using Verilog HDL. It covers topics such as FPGA architecture, Verilog syntax, and design techniques. It valuable resource for students and practitioners who want to learn how to use FPGAs for prototyping digital systems.
Save
Provides a comprehensive overview of advanced FPGA design. It covers topics such as FPGA architecture, high-level synthesis, and physical design. It valuable resource for students and practitioners who want to learn how to design complex FPGA systems.
Provides a comprehensive overview of embedded systems design using FPGAs. It covers topics such as FPGA architecture, embedded processor systems, and hardware/software co-design. It valuable resource for students and practitioners who want to learn how to design embedded systems using FPGAs.
Save
This textbook provides a comprehensive introduction to Verilog HDL. It covers topics such as Verilog syntax, data types, operators, and modules. It valuable resource for students and practitioners who want to learn how to use Verilog HDL for digital design.
Provides a comprehensive introduction to SystemVerilog for verification. It covers topics such as SystemVerilog syntax, data types, operators, and modules. It valuable resource for students and practitioners who want to learn how to use SystemVerilog for verification.
Provides a comprehensive overview of digital signal processing with field programmable gate arrays (FPGAs). It covers topics such as FPGA architecture, digital signal processing algorithms, and FPGA implementation techniques. It valuable resource for students and practitioners who want to learn how to use FPGAs for digital signal processing.
Save
Provides a concise introduction to VLSI design. It covers topics such as VLSI technology, circuit design, and layout. It valuable resource for students and practitioners who want to learn the basics of VLSI design.
Provides a comprehensive overview of field-programmable gate arrays (FPGAs). It covers topics such as FPGA architecture, design tools, and applications. It valuable resource for students and practitioners who want to learn more about FPGAs.
Provides a comprehensive overview of digital systems design with FPGAs and CPLDs. It covers topics such as digital logic, FPGA and CPLD architecture, and design techniques. It valuable resource for students and practitioners who want to learn how to design digital systems with FPGAs and CPLDs.
Save
This textbook provides a comprehensive introduction to digital design, covering topics such as Boolean algebra, combinational circuits, sequential circuits, and programmable logic devices. It valuable resource for students and practitioners who want to learn the basics of digital design.
Provides a comprehensive overview of FPGA-based system design. It covers topics such as FPGA architecture, design tools, and applications. It valuable resource for students and practitioners who want to learn more about FPGA-based system design.
For more information about how these books relate to this course, visit:
OpenCourser.com/course/6q97bw/expanded
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Time
18 hours
Via
Coursera
Institution
University of Colorado Boulder
Instructor
Dr. Kim Newman Frey
Good to know
Focuses on use case implementation on the DE10-Lite board with VGA output interface, video IP generation, and system console evaluation
Provides hands-on experience with hardware and embedded systems design, benefiting engineering and computer science students
Covers practical use of Soft Processors for video applications, building practical skills in systems engineering
Requires familiarity with Verilog and logic circuit design principles, indicating a suitable level for intermediate learners
Involves utilization of System Console and TCL scripts for evaluation, assuming learners have prior knowledge or are willing to acquire it
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