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Robin Garg
Exhaustive course spanning across 6+ hours of on-demand video lectures.
Comprises of 4 major sub-sections:
Need of UPF and UPF Basics (~1 hour 1 min)
+ VLSI Design Phases+ RTL Simulation Vs Power Aware UPF Simulation+ UPF Basics
UPF Power Aware Design (~2 hours 51 mins)
+ Power Domains+ Supply Nets/Ports – Power Supply Network+ Supply Sets – Power Supply Network+ Power Switches+ Power State Table+ Level Shifters+ Isolation Cells+ Input Vs Output Isolation Cells+ Retention Cells+ Flat UPF Vs Hierarchical UPF+ UPF Evolution 1.0 Vs 2.0 Vs 2.1 Vs 3.0
Read more
Exhaustive course spanning across 6+ hours of on-demand video lectures.
Comprises of 4 major sub-sections:
Need of UPF and UPF Basics (~1 hour 1 min)
+ VLSI Design Phases+ RTL Simulation Vs Power Aware UPF Simulation+ UPF Basics
UPF Power Aware Design (~2 hours 51 mins)
+ Power Domains+ Supply Nets/Ports – Power Supply Network+ Supply Sets – Power Supply Network+ Power Switches+ Power State Table+ Level Shifters+ Isolation Cells+ Input Vs Output Isolation Cells+ Retention Cells+ Flat UPF Vs Hierarchical UPF+ UPF Evolution 1.0 Vs 2.0 Vs 2.1 Vs 3.0
Read more
Exhaustive course spanning across 6+ hours of on-demand video lectures.
Comprises of 4 major sub-sections:
Need of UPF and UPF Basics (~1 hour 1 min)
+ VLSI Design Phases+ RTL Simulation Vs Power Aware UPF Simulation+ UPF Basics
UPF Power Aware Design (~2 hours 51 mins)
+ Power Domains+ Supply Nets/Ports – Power Supply Network+ Supply Sets – Power Supply Network+ Power Switches+ Power State Table+ Level Shifters+ Isolation Cells+ Input Vs Output Isolation Cells+ Retention Cells+ Flat UPF Vs Hierarchical UPF+ UPF Evolution 1.0 Vs 2.0 Vs 2.1 Vs 3.0
UPF Power Aware Verification (~2 hours 4 mins)
+ Popular Power Saving Techniques+ Static Verification+ Dynamic Verification 1 – Controlling Power Supplies+ Dynamic Verification 2 – Simstate Modelling+ Dynamic Verification 3 – Power Coverage+ Dynamic Verification 4 – Low Power Assertions
Miscellaneous Concepts (~11* mins)
+ Instrumentation Vs Instantiation+ Hard Macros and Liberty Files
* New lectures might be added based upon popular user feedback and request.
Register for this course and see more details by visiting:
OpenCourser.com/course/k6xjmc/upf
What's inside
Learning objectives
- What does upf mean and why is it required?
- Upf low power design
- Upf low power verification
- Learn a new skill that will help prepare for a job in the semiconductor industry
- What does upf mean and why is it required?
- Upf low power design
- Upf low power verification
- Learn a new skill that will help prepare for a job in the semiconductor industry
Syllabus
Introduction
Need of UPF and UPF basics
VLSI Design Phases
RTL Simulation Vs Power Aware UPF Simulation
Read more
Syllabus
Introduction
Need of UPF and UPF basics
VLSI Design Phases
RTL Simulation Vs Power Aware UPF Simulation
Read more
Traffic lights
Traffic lights
Read about what's good
what should give you pause and
possible dealbreakers
Covers UPF evolution from version 1.0 to 3.0, which helps learners understand the progression and current standards in power-aware design
Explores static and dynamic verification techniques, which are essential for ensuring the reliability of low-power designs
Details power domains, supply nets/ports, and power switches, which are fundamental concepts in power-aware design
Discusses level shifters and isolation cells, which are crucial components for managing voltage levels and preventing leakage in low-power circuits
Requires familiarity with VLSI design phases, which may necessitate prior coursework or experience in the field
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Reviews summary
Upf power aware design and verification fundamentals
According to students, this course provides a solid introduction to UPF Power Aware Design and Verification, covering fundamental concepts essential for the semiconductor industry. Many appreciate that the content covers key VLSI design phases and power saving techniques. However, some students note that the course lacks depth on advanced topics and wish there were more practical examples or hands-on labs to apply learned concepts. There are also comments regarding the clarity and pacing of certain sections, indicating they can be confusing for those without significant prior knowledge, suggesting it is not ideal for absolute beginners in VLSI/EDA. Despite these critiques, most find it a useful starting point for understanding UPF.
Not suitable for absolute beginners in VLSI.
"This isn't for absolute beginners in VLSI; you need some prior knowledge."
"Assumes familiarity with certain design and EDA tool concepts."
"Prospective students should know this isn't an entry-level course into the field itself."
Explores core UPF design and verification topics.
"The dynamic verification sections were particularly helpful for my job."
"Liked the coverage of power state tables, isolation, and retention cells."
"It touched upon most critical aspects needed for a basic UPF flow understanding."
Builds a strong base for UPF concepts.
"This course gave me a great introduction to UPF concepts and terminology."
"I felt it helped me understand the basics of power aware design flows."
"The initial sections cover the fundamental topics well for someone new to UPF."
Some advanced topics are not covered in detail.
"Felt some advanced power topics were rushed over or only briefly mentioned."
"Could use more in-depth coverage on optimization techniques or specific tool flows."
"As an experienced engineer, I found it a bit basic in parts."
Some sections are confusing or inconsistent.
"I found some explanations difficult to follow without constantly pausing."
"The pacing felt off in certain modules, some too fast, some too slow."
"Had to rewatch some lectures multiple times to grasp the concept fully."
Could benefit from hands-on lab exercises.
"I really wish there were more hands-on lab exercises to practice syntax and flows."
"The theoretical explanations were fine, but practical application is needed."
"More coding examples or lab setups would greatly improve the learning."
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 UPF Power Aware Design & Verification with these
activities:
Review VLSI Design Principles
Show steps
Solidify your understanding of VLSI design principles to better grasp the complexities of UPF and power-aware design.
Browse courses on
VLSI Design
Show steps
-
Review key concepts like CMOS transistors and logic gates.
-
Study different VLSI design methodologies.
-
Practice solving VLSI design problems.
Read 'Low Power Design Methodologies' by Rabaey and Pedram
Show steps
Gain a deeper understanding of low-power design methodologies to enhance your comprehension of UPF concepts.
View
Power Aware Design Methodologies
on Amazon
Show steps
-
Read the chapters related to power management and optimization.
-
Take notes on key concepts and techniques.
-
Attempt the exercises at the end of each chapter.
Simulate Power Domains
Show steps
Practice simulating different power domain configurations to solidify your understanding of UPF power domain concepts.
Show steps
-
Set up a simulation environment with different power domains.
-
Simulate power domain transitions and observe the behavior.
-
Analyze the simulation results and identify potential issues.
Four other activities
Expand to see all activities and additional details
Show all seven activities
Create a UPF Design Checklist
Show steps
Develop a checklist to ensure that all necessary steps are taken during UPF design and verification.
Show steps
-
List all the important considerations for UPF design.
-
Organize the considerations into a checklist format.
-
Review and refine the checklist based on your learning.
Read 'Power Management Integrated Circuits' by Elnozahy
Show steps
Deepen your understanding of power management ICs to complement your knowledge of UPF.
View
Putting Knowledge to Work
on Amazon
Show steps
-
Focus on chapters related to power converters and regulators.
-
Study the different types of power management ICs.
-
Understand the design considerations for power management ICs.
Design a Power-Aware System
Show steps
Apply your knowledge of UPF to design a power-aware system, reinforcing your understanding of the concepts.
Show steps
-
Choose a suitable system architecture.
-
Implement UPF constructs for power management.
-
Verify the power-aware design through simulation.
Present a UPF Case Study
Show steps
Prepare and deliver a presentation on a real-world UPF case study to demonstrate your understanding of the topic.
Show steps
-
Research a relevant UPF case study.
-
Prepare a presentation outlining the design and verification process.
-
Present the case study to your peers or colleagues.
Review VLSI Design Principles
Show steps
Solidify your understanding of VLSI design principles to better grasp the complexities of UPF and power-aware design.
Browse courses on
VLSI Design
Show steps
Show steps
Show steps
- Review key concepts like CMOS transistors and logic gates.
- Study different VLSI design methodologies.
- Practice solving VLSI design problems.
Read 'Low Power Design Methodologies' by Rabaey and Pedram
Show steps
Gain a deeper understanding of low-power design methodologies to enhance your comprehension of UPF concepts.
View
Power Aware Design Methodologies
on Amazon
Show steps
Show steps
Show steps
- Read the chapters related to power management and optimization.
- Take notes on key concepts and techniques.
- Attempt the exercises at the end of each chapter.
Simulate Power Domains
Show steps
Practice simulating different power domain configurations to solidify your understanding of UPF power domain concepts.
Show steps
Show steps
Show steps
- Set up a simulation environment with different power domains.
- Simulate power domain transitions and observe the behavior.
- Analyze the simulation results and identify potential issues.
Four other activities
Expand to see all activities and additional details
Show all seven activities
Create a UPF Design Checklist
Show steps
Develop a checklist to ensure that all necessary steps are taken during UPF design and verification.
Show steps
Show steps
Show steps
- List all the important considerations for UPF design.
- Organize the considerations into a checklist format.
- Review and refine the checklist based on your learning.
Read 'Power Management Integrated Circuits' by Elnozahy
Show steps
Deepen your understanding of power management ICs to complement your knowledge of UPF.
View
Putting Knowledge to Work
on Amazon
Show steps
Show steps
Show steps
- Focus on chapters related to power converters and regulators.
- Study the different types of power management ICs.
- Understand the design considerations for power management ICs.
Design a Power-Aware System
Show steps
Apply your knowledge of UPF to design a power-aware system, reinforcing your understanding of the concepts.
Show steps
Show steps
Show steps
- Choose a suitable system architecture.
- Implement UPF constructs for power management.
- Verify the power-aware design through simulation.
Present a UPF Case Study
Show steps
Prepare and deliver a presentation on a real-world UPF case study to demonstrate your understanding of the topic.
Show steps
Show steps
Show steps
- Research a relevant UPF case study.
- Prepare a presentation outlining the design and verification process.
- Present the case study to your peers or colleagues.
Career center
Learners who complete UPF Power Aware Design & Verification will develop knowledge and skills
that may be useful to these careers:
Low Power Design Engineer
Low Power Design Engineer
A Low Power Design Engineer focuses on designing integrated circuits that consume minimal power. This role includes techniques such as clock gating, power gating, and voltage scaling, to optimize energy efficiency. This course provides foundational knowledge of UPF low power design. Power domains, supply nets and ports, power switches, and power state tables are important concepts covered in the course. An understanding of level shifters and isolation and retention cells helps one become an effective Low Power Design Engineer.
Verification Engineer
Verification Engineer
A Verification Engineer validates the correctness and functionality of hardware designs. This often involves creating test plans, developing test environments, and running simulations to identify bugs and ensure the design meets specifications. This course provides a comprehensive understanding of UPF power aware verification. The material on static and dynamic verification, controlling power supplies, simstate modeling, and power coverage is particularly relevant. Learning about low power assertions also prepares you to excel as a Verification Engineer.
RTL Design Engineer
RTL Design Engineer
An Register Transfer Level Design Engineer is responsible for designing digital circuits using hardware description languages. These engineers focus on the functional behavior of the circuit. This course provides a comparison between register transfer level simulation versus power aware UPF simulation. An understanding of power saving techniques and assertions helps an RTL Design Engineer succeed. Coverage of instrumentation versus instantiation may also be relevant.
VLSI Design Engineer
VLSI Design Engineer
A Very Large Scale Integration Design Engineer is responsible for designing and implementing integrated circuits. Tasks can include architecture definition, logic design, circuit simulation, and layout. This course provides an overview of VLSI design phases and dives into advanced concepts like power aware design and verification. The material on flat versus hierarchical UPF and UPF evolution is most relevant for a VLSI Design Engineer. Exposure to the concepts covered in this course can help you succeed as a VLSI Design Engineer.
Circuit Design Engineer
Circuit Design Engineer
A Circuit Design Engineer designs and analyzes electronic circuits. The role involves selecting components, simulating circuit behavior, and optimizing performance. This course may be valuable, particularly the modules on power domains, supply nets and ports, and power switches. An understanding of these topics helps one better design circuits. As a Circuit Design Engineer, the the power aware verification techniques can help you succeed.
Digital Design Engineer
Digital Design Engineer
A Digital Design Engineer designs and implements digital circuits and systems. This involves using hardware description languages to create logic designs, simulate their behavior, and synthesize them into physical layouts. For a Digital Design Engineer, this course provides an overview of the digital design phases and dives into power aware considerations. The sections on level shifters, isolation cells, and retention cells could prove useful. This prepares the Digital Design Engineer for more advanced work.
Power Integrity Engineer
Power Integrity Engineer
A Power Integrity Engineer analyzes and optimizes the power distribution network in electronic systems. This role ensures that devices receive stable and reliable power. Given the focus on power, this course provides an introduction to UPF power aware design and verification. The discussion on supply nets and ports and dynamic verification may be relevant. Familiarity with power saving techniques can help you perform your duties as a successful Power Integrity Engineer.
Application Engineer
Application Engineer
An Applications Engineer provides technical support and assistance to customers using a company's products. This includes troubleshooting issues, developing application notes, and conducting training sessions. This course provides insight into the practical aspects of low power design and verification using UPF. Understanding the needs of UPF and power saving techniques may be particularly helpful. The details on static and dynamic verification will also benefit an Application Engineer.
System on a Chip Designer
System on a Chip Designer
A System on a Chip Designer integrates various components, such as processors, memory, and peripherals, onto a single chip. Responsibilities include architecture design, logic implementation, and verification. This course may be useful. The lectures on UPF power aware design and verification provide a foundation for understanding power management in complex systems. The discussion on power domains and power state tables may be most relevant to a System on a Chip Designer.
Hardware Engineer
Hardware Engineer
A Hardware Engineer designs, develops, and tests computer hardware components and systems. This can involve working with processors, memory, storage devices, and other peripherals. This course may be useful to a Hardware Engineer. The lectures on power aware design and verification can help in understanding the power-related aspects of hardware components. Topics such as power domains and power saving techniques may be of particular value. The study of UPF basics also helps a Hardware Engineer.
Semiconductor Device Engineer
Semiconductor Device Engineer
A Semiconductor Device Engineer designs and develops semiconductor devices such as transistors, diodes, and integrated circuits. Responsibilities including device fabrication, testing, and characterization. The study of instrumentation versus instantiation can be a useful consideration for a Semiconductor Device Engineer. This course may be useful, as it provides an introduction to UPF and its application in the semiconductor industry. Learning about low power design can help the Semiconductor Device Engineer in designing energy effiicent circuits
EDA Tool Developer
EDA Tool Developer
An Electronic Design Automation Tool Developer creates and maintains software tools used for designing and verifying electronic systems. This course may be most helpful to an Electronic Design Automation Tool Developer. One gains an understanding of UPF, its evolution, and its applications in power aware design and verification. This knowledge may be invaluable in the development of new and improved EDA tools. Exposure to the concepts covered in this course can help you succeed as a EDA Tool Developer.
Technical Trainer
Technical Trainer
A Technical Trainer delivers training programs to employees or customers on technical topics related to a company's products or services. This course provides a strong understanding of UPF, low power design, and verification. The course structure, divided into clear sub-sections, helps a Technical Trainer organize and present information effectively. Familiarity with the material in this course can help a Technical Trainer succeed.
Technical Writer
Technical Writer
A Technical Writer creates documentation such as user manuals, guides, and specifications for technical products or processes. This course provides a solid foundation in UPF based design and verification. Understanding the need for UPF, its basics, and its application in various design phases is valuable for a Technical Writer. The insights into power saving techniques and verification methods can greatly enhance the accuracy and completeness of the documentation created by a Technical Writer.
Firmware Engineer
Firmware Engineer
A Firmware Engineer develops low-level software that controls hardware devices. This course may be useful, as it provides context and knowledge of UPF based design and verification. The modules on popular power saving techniques, simstate modeling, and low power assertions can be particularly helpful. The details on hard macros and liberty files may benefit a Firmware Engineer.
For more career information including salaries, visit:
OpenCourser.com/course/k6xjmc/upf
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
UPF Power Aware Design & Verification.
Provides a comprehensive overview of low-power design techniques at various levels of abstraction, from architectural to circuit level. It valuable resource for understanding the underlying principles and methodologies used in UPF. This book is commonly used as a textbook at academic institutions and by industry professionals. It adds more depth to the course by providing detailed explanations and practical examples of low-power design techniques.
Provides a detailed overview of power management integrated circuits, which are essential for implementing UPF designs. It covers various topics such as voltage regulators, power converters, and battery management systems. This book useful reference tool for understanding the practical aspects of power management in integrated circuits. It adds more breadth to the course by providing insights into the hardware implementation of power management techniques.
For more information about how these books relate to this course, visit:
OpenCourser.com/course/k6xjmc/upf
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