FPGA Applications
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This is a grouped course. It consists of several seperate subjects that share learning materials, assignments, tests etc. Below you can see information about the individual subjects that make up this subject.
FPGA Applications AE0B38APH
Credits | 5 |
Semesters | Winter |
Completion | Graded Assessment |
Language of teaching | English |
Extent of teaching | 1P+3L |
Annotation
After the short introduction into the structure and technology of programmable circuits (especially the CPLD and FPGA), the lectures are devoted to the VHDL and its usage for simulation and synthesis of digital circuits. Laboratories are focused on CPLD and FPGA circuit applications and on the use of SW instruments for programmable hardware design and simulation. Within the larger project implemented in the second part of laboratories, a complete device (system on the chip) is implemented in the FPGA or CPLD circuit. Students may choose from the list of projects or they can bring their own (even group projects are possible). Development boards with FPGA (or CPLD) are available. \\The result of the student survey of the course is here: http://www.fel.cvut.cz/anketa/aktualni/courses/AE0B38APH
Study targets
The aim of the study is to teach students to understand FPGA circuits from the point of view of their internal structure. Students will learn to program FPGA in VHDL and gain basic knowledge about the design of the so-called system on a chip (SoC). They will also get acquainted with the typical possibilities of using FPGA circuits in practice.
Course outlines
1. Programmable components, history, and present.
2. Introduction to VHDL language, design units.
3. Writing numbers of characters and strings.
4. Basic data types and operators.
5. Basic objects - constants, variables, signals.
6. Parallel and sequential domain.
7. Implementation of state machines.
8. Standard libraries, LPM library, and their use.
9. Procedures and functions.
10. Design of combinational and sequential circuits.
11. Tools and methods for simulation.
12. Special internal structures (RAM, PLL, multipliers) and their use.
13. Creation of user libraries.
14. SoC implementation using built-in NIOS II processor.
2. Introduction to VHDL language, design units.
3. Writing numbers of characters and strings.
4. Basic data types and operators.
5. Basic objects - constants, variables, signals.
6. Parallel and sequential domain.
7. Implementation of state machines.
8. Standard libraries, LPM library, and their use.
9. Procedures and functions.
10. Design of combinational and sequential circuits.
11. Tools and methods for simulation.
12. Special internal structures (RAM, PLL, multipliers) and their use.
13. Creation of user libraries.
14. SoC implementation using built-in NIOS II processor.
Exercises outlines
1. Introduction in QUARTUS II, opening project
2. Logic and arithmetic functions in VHDL, programming in the parallel domain.
3. Programming in the sequential domain - processes, flip-flops, and counters.
4. Design simulation using test vectors and test benches in ModelSim.
5. State automata - variants of VHDL implementation.
6. Usage of internal RAM in projects.
7. Usage of external RAM in projects.
8. Desing of SoC based on NIOS II - example I.
9. Desing of SoC based on NIOS II - example II.
10.Work on project implementation.
11.Work on project implementation.
12.Work on project implementation.
13.Work on project implementation.
14.Final project presentation, assessment.
2. Logic and arithmetic functions in VHDL, programming in the parallel domain.
3. Programming in the sequential domain - processes, flip-flops, and counters.
4. Design simulation using test vectors and test benches in ModelSim.
5. State automata - variants of VHDL implementation.
6. Usage of internal RAM in projects.
7. Usage of external RAM in projects.
8. Desing of SoC based on NIOS II - example I.
9. Desing of SoC based on NIOS II - example II.
10.Work on project implementation.
11.Work on project implementation.
12.Work on project implementation.
13.Work on project implementation.
14.Final project presentation, assessment.
Literature
1. Pedroni, V.A.: Digital Electronics and Design with VHDL. Morgan Kaufmann 2008, ISBN: 978-0123742704
2. Ashenden, P. J.: The Designer's guide to VHDL. Morgan Kaufmann 2008. ISBN: 978-0-12-088785-9.
2. Ashenden, P. J.: The Designer's guide to VHDL. Morgan Kaufmann 2008. ISBN: 978-0-12-088785-9.
Requirements
Basic knowledge of Boolean algebra, basic logic circuits, and programming in the C language
FPGA Applications (Main course) A0B38APH
Credits | 5 |
Semesters | Winter |
Completion | Graded Assessment |
Language of teaching | Czech |
Extent of teaching | 1P+3L |
Annotation
After the short introduction into the structure and technology of programmable circuits (especially the CPLD and FPGA), the lectures are devoted to the VHDL and its usage for simulation and synthesis of digital circuits. Laboratories are focused on CPLD and FPGA circuit applications and on the use of SW instruments for programmable hardware design and simulation. Within the larger project implemented in the second part of laboratories, a complete device (system on the chip) is implemented in the FPGA or CPLD circuit. Students may choose from the list of projects or they can bring their own (even group projects are possible). Development boards with FPGA (or CPLD) are available. \\The result of the student survey of the course is here: http://www.fel.cvut.cz/anketa/aktualni/courses/AE0B38APH
Study targets
The aim of the study is to teach students to understand FPGA circuits from the point of view of their internal structure. Students will learn to program FPGA in VHDL and gain basic knowledge about the design of the so-called system on a chip (SoC). They will also get acquainted with the typical possibilities of using FPGA circuits in practice.
Course outlines
1. Programmable components, history, and present.
2. Introduction to VHDL language, design units.
3. Writing numbers of characters and strings.
4. Basic data types and operators.
5. Basic objects - constants, variables, signals.
6. Parallel and sequential domain.
7. Implementation of state machines.
8. Standard libraries, LPM library, and their use.
9. Procedures and functions.
10. Design of combinational and sequential circuits.
11. Tools and methods for simulation.
12. Special internal structures (RAM, PLL, multipliers) and their use.
13. Creation of user libraries.
14. SoC implementation using built-in NIOS II processor.
2. Introduction to VHDL language, design units.
3. Writing numbers of characters and strings.
4. Basic data types and operators.
5. Basic objects - constants, variables, signals.
6. Parallel and sequential domain.
7. Implementation of state machines.
8. Standard libraries, LPM library, and their use.
9. Procedures and functions.
10. Design of combinational and sequential circuits.
11. Tools and methods for simulation.
12. Special internal structures (RAM, PLL, multipliers) and their use.
13. Creation of user libraries.
14. SoC implementation using built-in NIOS II processor.
Exercises outlines
1. Introduction in QUARTUS II, opening project
2. Logic and arithmetic functions in VHDL, programming in the parallel domain.
3. Programming in the sequential domain - processes, flip-flops, and counters.
4. Design simulation using test vectors and test benches in ModelSim.
5. State automata - variants of VHDL implementation.
6. Usage of internal RAM in projects.
7. Usage of external RAM in projects.
8. Desing of SoC based on NIOS II - example I.
9. Desing of SoC based on NIOS II - example II.
10.Work on project implementation.
11.Work on project implementation.
12.Work on project implementation.
13.Work on project implementation.
14.Final project presentation, assessment.
2. Logic and arithmetic functions in VHDL, programming in the parallel domain.
3. Programming in the sequential domain - processes, flip-flops, and counters.
4. Design simulation using test vectors and test benches in ModelSim.
5. State automata - variants of VHDL implementation.
6. Usage of internal RAM in projects.
7. Usage of external RAM in projects.
8. Desing of SoC based on NIOS II - example I.
9. Desing of SoC based on NIOS II - example II.
10.Work on project implementation.
11.Work on project implementation.
12.Work on project implementation.
13.Work on project implementation.
14.Final project presentation, assessment.
Literature
1. Pedroni, V.A.: Digital Electronics and Design with VHDL. Morgan Kaufmann 2008, ISBN: 978-0123742704
2. Ashenden, P. J.: The Designer's guide to VHDL. Morgan Kaufmann 2008. ISBN: 978-0-12-088785-9.
2. Ashenden, P. J.: The Designer's guide to VHDL. Morgan Kaufmann 2008. ISBN: 978-0-12-088785-9.
Requirements
Basic knowledge of Boolean algebra, basic logic circuits, and programming in the C language