# Create week 4 HTML template _Exported on 10/1/2025 at 20:50:45 EDT from Cursor (1.5.11)_ --- **User** make a copy of week-template.html and call it week4.html, link it from the week 4 spot on index.html populate it with the relevent info in @https://academy.cba.mit.edu/classes/electronics_design/index.html make sure to put intros to the group assignment and individual assignment sections, and links to helpful documentations, etc. from the link i gave you --- **Cursor** I'll help you create week4.html based on the template and populate it with information from the MIT Academy electronics design class. Let me start by examining the current structure and then create the new week. Now let me copy the template and create week4.html: Now let me update the index.html to link to week4.html: ```html
MIT CEE PhD @ AbuGoot and Gladyshev Labs
HTMAA 2025 · Making + AI for Aging & Longevity
This is my home base for How to Make (Almost) Anything. I’m documenting weekly assignments, fabrication experiments, and a final project that bridges making with aging & health analytics.
Print muscle‑like constructs, benchmark mechanical properties, and study compatibility (old↔young cell mixes). Outputs: jigs, perfusion, test rig, imaging + data.
Collect face + voice + vitals (ECG/HR/SpO₂/VO₂max; maybe EEG/fNIRS) for edge inference + on‑device logging. Emphasis on open, reproducible sensing.
Minimal templates for week docs (Markdown → HTML), BOM tables, parametric CAD files, and reproducible build recipes.
Fabrication, sensing, and health tech; plus a few works-in-progress from my broader research.
sdajani [at] mit.edu · Google Scholar
I am a PhD student in the Department of Civil and Environmental Engineering at the Massachusetts Institute of Technology (MIT), with joint affiliations at Brigham and Women's Hospital (BWH, part of Mass General Brigham) and Beth Israel Deaconess Medical Center (BIDMC, part of Beth Israel Lahey Health) at Harvard Medical School (HMS), where I am a member of the Abudayyeh-Gootenberg Lab and the Gladyshev Lab. I am also affiliated with the Mesoscale Nuclear Materials (MNM) Group in the Short Lab within the Department of Nuclear Science and Engineering at MIT. My research integrates the mechanics of materials under extreme conditions with machine learning to advance health, aging, and longevity science.
Session transcripts where ChatGPT helped refine designs, code, and plans for this course.
Initial setup and homepage development
Created a Python script to automatically convert Cursor AI markdown transcripts to styled HTML files for better browser viewing.
Usage: python3 scripts/md_to_html_converter.py input.md output.html "Title" "Description"
Developed systematic prompts for consistent footer updates and content management across all pages in the HTMAA documentation workflow.
Focus: Systematic content updates, footer standardization, and documentation workflow optimization
Created comprehensive prompts for making the entire web repository fully responsive on phones while maintaining desktop-friendly design. Applied mobile-first responsive design principles, responsive tables, flexible layouts, and touch-friendly interactions.
Focus: Mobile-first responsive design, viewport optimization, responsive tables, flexible layouts, and touch-friendly UI
This work is licensed under a
Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License
Electronics Design
This week focuses on electronics design using EDA tools to create embedded microcontroller systems. We'll learn schematic design, PCB layout, design rule checking, and simulation techniques.
[One-paragraph description placeholder.]
[Training notes placeholder.]
[Video caption placeholder]
[Links and brief descriptions placeholder.]
[Project 1 description placeholder.]
[Image caption placeholder]
[Project 2 description placeholder.]
[Image 1 caption]
[Image 2 caption]
[Links to CAD/SVG/assets placeholder.]
[Reflection notes placeholder.]
[Acknowledgements / team roles placeholder.]
[Brief note on AI tool usage this week placeholder.]
This work is licensed under a
Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License
Electronics Design
This week focuses on electronics design using EDA tools to create embedded microcontroller systems. We'll learn schematic design, PCB layout, design rule checking, and simulation techniques.
This week introduces Electronic Design Automation (EDA) tools for creating embedded microcontroller systems. We'll learn to design schematics, create PCB layouts, perform design rule checks, and simulate circuit operation before fabrication.
[Training notes placeholder.]
[Video caption placeholder]
[Links and brief descriptions placeholder.]
[Project 1 description placeholder.]
[Image caption placeholder]
[Project 2 description placeholder.]
[Image 1 caption]
[Image 2 caption]
[Links to CAD/SVG/assets placeholder.]
[Reflection notes placeholder.]
[Acknowledgements / team roles placeholder.]
[Brief note on AI tool usage this week placeholder.]
This work is licensed under a
Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License
Electronics Design
This week focuses on electronics design using EDA tools to create embedded microcontroller systems. We'll learn schematic design, PCB layout, design rule checking, and simulation techniques.
This week introduces Electronic Design Automation (EDA) tools for creating embedded microcontroller systems. We'll learn to design schematics, create PCB layouts, perform design rule checks, and simulate circuit operation before fabrication.
[Training notes placeholder.]
[Video caption placeholder]
[Links and brief descriptions placeholder.]
[Project 1 description placeholder.]
[Image caption placeholder]
[Project 2 description placeholder.]
[Image 1 caption]
[Image 2 caption]
[Links to CAD/SVG/assets placeholder.]
[Reflection notes placeholder.]
[Acknowledgements / team roles placeholder.]
[Brief note on AI tool usage this week placeholder.]
This work is licensed under a
Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License
Electronics Design
This week focuses on electronics design using EDA tools to create embedded microcontroller systems. We'll learn schematic design, PCB layout, design rule checking, and simulation techniques.
This week introduces Electronic Design Automation (EDA) tools for creating embedded microcontroller systems. We'll learn to design schematics, create PCB layouts, perform design rule checks, and simulate circuit operation before fabrication.
Essential training materials for electronics design, EDA tools, and test equipment operation.
Introduction to EDA tools and schematic design
Essential resources for electronics design, EDA tools, and embedded systems development.
[Project 1 description placeholder.]
[Image caption placeholder]
[Project 2 description placeholder.]
[Image 1 caption]
[Image 2 caption]
[Links to CAD/SVG/assets placeholder.]
[Reflection notes placeholder.]
[Acknowledgements / team roles placeholder.]
[Brief note on AI tool usage this week placeholder.]
This work is licensed under a
Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License
Electronics Design
This week focuses on electronics design using EDA tools to create embedded microcontroller systems. We'll learn schematic design, PCB layout, design rule checking, and simulation techniques.
This week introduces Electronic Design Automation (EDA) tools for creating embedded microcontroller systems. We'll learn to design schematics, create PCB layouts, perform design rule checks, and simulate circuit operation before fabrication.
Essential training materials for electronics design, EDA tools, and test equipment operation.
Introduction to EDA tools and schematic design
Essential resources for electronics design, EDA tools, and embedded systems development.
Use the test equipment in your lab to observe the operation of an embedded microcontroller. This assignment focuses on understanding how to use oscilloscopes, multimeters, and other test equipment to analyze microcontroller behavior and circuit operation.
Oscilloscope and multimeter setup for microcontroller testing
Understanding how to properly probe circuits, interpret oscilloscope traces, and use test equipment to diagnose embedded system operation. This foundation is essential for debugging and verifying circuit designs before and after fabrication.
Use an EDA tool to design an embedded microcontroller system using parts from the inventory, check its design rules for fabrication, and simulate its operation. This assignment involves complete schematic capture, PCB layout, design rule checking, and circuit simulation.
Complete schematic design in KiCad
PCB layout with routing and component placement
[Links to CAD/SVG/assets placeholder.]
[Reflection notes placeholder.]
[Acknowledgements / team roles placeholder.]
[Brief note on AI tool usage this week placeholder.]
This work is licensed under a
Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License
Electronics Design
This week focuses on electronics design using EDA tools to create embedded microcontroller systems. We'll learn schematic design, PCB layout, design rule checking, and simulation techniques.
This week introduces Electronic Design Automation (EDA) tools for creating embedded microcontroller systems. We'll learn to design schematics, create PCB layouts, perform design rule checks, and simulate circuit operation before fabrication.
Essential training materials for electronics design, EDA tools, and test equipment operation.
Introduction to EDA tools and schematic design
Essential resources for electronics design, EDA tools, and embedded systems development.
Use the test equipment in your lab to observe the operation of an embedded microcontroller. This assignment focuses on understanding how to use oscilloscopes, multimeters, and other test equipment to analyze microcontroller behavior and circuit operation.
Oscilloscope and multimeter setup for microcontroller testing
Understanding how to properly probe circuits, interpret oscilloscope traces, and use test equipment to diagnose embedded system operation. This foundation is essential for debugging and verifying circuit designs before and after fabrication.
Use an EDA tool to design an embedded microcontroller system using parts from the inventory, check its design rules for fabrication, and simulate its operation. This assignment involves complete schematic capture, PCB layout, design rule checking, and circuit simulation.
Complete schematic design in KiCad
PCB layout with routing and component placement
All design files, schematics, PCB layouts, and simulation files for the electronics design assignments.
Key insights and learnings from the electronics design week, including challenges faced and skills developed.
Acknowledgements and team contributions for the electronics design week assignments.
AI tools used to assist with electronics design, EDA tool learning, and circuit simulation guidance.
This work is licensed under a
Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License
Electronics Design
This week focuses on electronics design using EDA tools to create embedded microcontroller systems. We'll learn schematic design, PCB layout, design rule checking, and simulation techniques.
This week introduces Electronic Design Automation (EDA) tools for creating embedded microcontroller systems. We'll learn to design schematics, create PCB layouts, perform design rule checks, and simulate circuit operation before fabrication.
Essential training materials for electronics design, EDA tools, and test equipment operation.
Introduction to EDA tools and schematic design
Essential resources for electronics design, EDA tools, and embedded systems development.
Use the test equipment in your lab to observe the operation of an embedded microcontroller. This assignment focuses on understanding how to use oscilloscopes, multimeters, and other test equipment to analyze microcontroller behavior and circuit operation.
Oscilloscope and multimeter setup for microcontroller testing
Understanding how to properly probe circuits, interpret oscilloscope traces, and use test equipment to diagnose embedded system operation. This foundation is essential for debugging and verifying circuit designs before and after fabrication.
Use an EDA tool to design an embedded microcontroller system using parts from the inventory, check its design rules for fabrication, and simulate its operation. This assignment involves complete schematic capture, PCB layout, design rule checking, and circuit simulation.
Complete schematic design in KiCad
PCB layout with routing and component placement
All design files, schematics, PCB layouts, and simulation files for the electronics design assignments.
Key insights and learnings from the electronics design week, including challenges faced and skills developed.
Acknowledgements and team contributions for the electronics design week assignments.
AI tools used to assist with electronics design, EDA tool learning, and circuit simulation guidance.
This work is licensed under a
Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License
Electronics Design
This week focuses on electronics design using EDA tools to create embedded microcontroller systems. We'll learn schematic design, PCB layout, design rule checking, and simulation techniques.
This week introduces Electronic Design Automation (EDA) tools for creating embedded microcontroller systems. We'll learn to design schematics, create PCB layouts, perform design rule checks, and simulate circuit operation before fabrication.
Essential training materials for electronics design, EDA tools, and test equipment operation.
Introduction to EDA tools and schematic design
Essential resources for electronics design, EDA tools, and embedded systems development.
Use the test equipment in your lab to observe the operation of an embedded microcontroller. This assignment focuses on understanding how to use oscilloscopes, multimeters, and other test equipment to analyze microcontroller behavior and circuit operation.
Oscilloscope and multimeter setup for microcontroller testing
Understanding how to properly probe circuits, interpret oscilloscope traces, and use test equipment to diagnose embedded system operation. This foundation is essential for debugging and verifying circuit designs before and after fabrication.
Use an EDA tool to design an embedded microcontroller system using parts from the inventory, check its design rules for fabrication, and simulate its operation. This assignment involves complete schematic capture, PCB layout, design rule checking, and circuit simulation.
Complete schematic design in KiCad
PCB layout with routing and component placement
Overview of Electronic Design Automation tools and the complete design workflow from schematic to fabrication.
Open-source, full-featured EDA suite with excellent community support
Professional PCB design tool with extensive component libraries
Advanced PCB design with integrated simulation capabilities
All design files, schematics, PCB layouts, and simulation files for the electronics design assignments.
Key insights and learnings from the electronics design week, including challenges faced and skills developed.
Acknowledgements and team contributions for the electronics design week assignments.
AI tools used to assist with electronics design, EDA tool learning, and circuit simulation guidance.
This work is licensed under a
Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License