
Learn partitioning strategies for efficient hardware software co-design, balancing performance, power, and cost, guided by profiling tools and high level synthesis to real-world examples.
Explore how high level synthesis converts C/C++ code into rtl hardware. Apply directives like pipeline, unroll, and array repartitioning to optimize resources, throughput, and power.
Explore how abstraction layers improve hw/sw co-design by using transaction level modeling, streaming, and handshake protocols to boost modularity, verification, and system efficiency.
Apply Amdahl's law to guide co-design and selective hardware acceleration, profiling workloads like DCT and motion estimation on an FPGA to optimize throughput, power, and memory; verify outcomes.
Unify hardware and software verification for hybrid systems using co-simulation and emulation to validate timing, functionality, and cross-domain interactions in safety-critical domains.
Explore design space exploration to balance performance, power, and cost in HW/SW co-design, using Pareto frontier, pruning, and heuristic search to drive data-driven, optimal choices.
learn to balance non-recurring engineering and unit costs through lifecycle cost estimation, exploring asics, fpgas, and software options to optimize timing, break-even points, and total cost of ownership.
Master embedded systems through a structured, hardware and software co-development path with guided, hands-on projects. Think before coding, build real production-ready systems, and advance your career in a high-demand field.
Why This Course?
Modern embedded systems demand smarter design — not just faster code or better hardware. This course empowers you with the concepts and tools to co-develop systems where software and hardware work in perfect harmony.
If you're tired of hitting bottlenecks in system performance, power usage, or cost — it's time to step back and redesign the way you design.
What You'll Learn
By the end of this course, you'll be able to:
Apply effective partitioning strategies to split functionality across hardware and software
Understand and utilize High-Level Synthesis (HLS) workflows
Use interface abstraction layers to simplify integration
Predict system behavior using performance estimation techniques
Apply verification methods for HW/SW integration
Explore multiple system design options through design space exploration
Perform lifecycle cost modeling to make budget-conscious design decisions
Who Should Take This Course
This course is ideal for:
Embedded systems engineers seeking deeper co-design fluency
Hardware or software developers transitioning into system-level design
Computer engineering students aiming for career-ready skills
Designers working on FPGA, ASIC, or SoC projects
If you work in system integration or performance-critical applications — this course will help you design with clarity and confidence.
What Makes This Course Different?
Rather than teaching isolated tools, we walk you through the real-world co-design process — from functional partitioning to lifecycle cost modeling.
You’ll get:
Clear visuals and walkthroughs to clarify abstract concepts
A focus on decision-making trade-offs, not just theory
A progressive learning journey designed for both engineers and students
Course Structure Overview
Section 1: Foundations of HW/SW Co-Design
Understand partitioning methods and HLS to move from concept to circuit.
Section 2: Interfaces that Make Systems Work
Master interface abstraction to simplify system integration.
Section 3: Design Smarter: Testing & Optimization
Evaluate system behavior, verify operation, and streamline performance.
Section 4: Design Exploration and Cost Analysis
Explore design options and model cost across the system lifecycle.
Requirements
No prior experience with hardware–software co-design is required
A basic understanding of embedded systems or digital electronics is helpful
Familiarity with computing concepts (CPUs, memory, tasks) is recommended
No software tools or hardware are needed—this course focuses on theory and design concepts
This course is ideal for both students and professionals ready to explore system-level thinking.
Instructor
This course is created by the Educational Engineering Team, led by Eng. Ashraf, a seasoned Mechatronics Engineer, author, and educator with over 13 years of hands-on experience in embedded systems and electronics.
With more than 250,000 learners worldwide and over 100+ technical courses, Ashraf and the team specialize in making complex engineering concepts practical, structured, and beginner-friendly. Their teaching style is known for clear explanations, real-world relevance, and step-by-step blueprints that simplify even the most advanced topics.
The Educational Engineering Team brings together deep industry knowledge and a passion for empowering students with practical skills in embedded systems, microcontrollers, PCB design, and now—hardware–software co-development.
FAQ
Q: Do I need prior knowledge of HDL or FPGA design?
A: No, this course is concept-focused and does not require HDL programming.
Q: Is this a tool-specific course?
A: No. Concepts apply broadly across industry tools like Vivado HLS, Altium, etc.
Q: Will I get a certificate of completion?
A: Yes, you will receive a certificate once you complete the course.
Design smarter. Integrate better. Optimize faster.
Enroll now and start building systems that are efficient by design — not by accident.