# Create final project HTML links _Exported on 10/1/2025 at 20:52:10 EDT from Cursor (1.5.11)_ --- **User** make a copy of week-template.html and call it finalproject.html, make it link from index.html from the final project week and from the final project cards, also make it link from week0.html ill think of how to structure the page later --- **Cursor** I'll help you create a copy of the week template and set up the necessary links. Let me start by creating the todo list and then implementing the changes. Let me first read the week template to understand its structure, then copy it and update the necessary files. Now I'll create the finalproject.html file by copying the week template and updating the necessary links in the other files. ```html
Bioprinting & Aging Biomarker Device · HTMAA 2025
[Project highlights and key achievements placeholder.]
[Project introduction placeholder - describing the bioprinting and aging biomarker device project.]
[Design process documentation placeholder.]
[Video caption placeholder]
[Fabrication process documentation placeholder.]
[Testing and validation documentation placeholder.]
[Links and brief descriptions placeholder.]
[Bioprinting component description placeholder.]
[Image caption placeholder]
[Aging biomarker device 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 for this project placeholder.]
This work is licensed under a
Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License
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
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
Course Introduction & Setup · HTMAA 2025
Course orientation and initial project exploration, including safety training completion and initial concept development for the final project.
Initial concept sketch for final project - exploring bioprinting rejuvenated tissue and aging biomarker devices
Welcome to How to Make (Almost) Anything! This week focuses on course orientation, safety training, and setting up the foundation for the semester ahead.
Initial concept sketches for the final project - exploring ideas for bioprinting rejuvenated tissue and aging biomarker devices.
Early ideation and planning takeaways for the final project and weekly milestones.
Acknowledgements for the help I received this week from my classmates and instructors.
Thank you to Alfonso for providing helpful Fusion office hours and guidance on CAD modeling techniques.
Thank you to Dan Gilbert for assistance with the CBA shop facilities and equipment access.
Had extensive discussions with Tolga Durak about accessing the SHED bioprinter for potential final project work. Tolga provided detailed guidance on the BRR (Biological Research Registration) process through MIT's CAB/ESCRO committee, including requirements for MIT PI involvement, research proposal structure, and timeline considerations. He explained that the bioprinter is currently limited to approved research projects due to existing commitments, and that any access would need to be scheduled around three ongoing research projects. Prof. Gershenfeld agreed to serve as the MIT PI for the proposal, and I'm working through the BRR forms to submit the necessary documentation for committee review.
Transparent documentation of AI assistance used in this week's work, following course guidelines for ethical AI usage.
This week's webpage development was assisted by Cursor AI to create the initial page structure, styling, and content organization. The AI helped with HTML/CSS implementation and responsive design patterns.
Cursor AI assisted with organizing webpage sections, cleaning up HTML structure, and updating content for both week 0 and week 1 pages. The AI helped with code refactoring, section reorganization, and maintaining consistent styling across pages.
This work is licensed under a
Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License
Course Introduction & Setup · HTMAA 2025
Course orientation and initial project exploration, including safety training completion and initial concept development for the final project.
Initial concept sketch for final project - exploring bioprinting rejuvenated tissue and aging biomarker devices
Welcome to How to Make (Almost) Anything! This week focuses on course orientation, safety training, and setting up the foundation for the semester ahead.
Initial concept sketches for the final project - exploring ideas for bioprinting rejuvenated tissue and aging biomarker devices.
Early ideation and planning takeaways for the final project and weekly milestones.
Acknowledgements for the help I received this week from my classmates and instructors.
Thank you to Alfonso for providing helpful Fusion office hours and guidance on CAD modeling techniques.
Thank you to Dan Gilbert for assistance with the CBA shop facilities and equipment access.
Had extensive discussions with Tolga Durak about accessing the SHED bioprinter for potential final project work. Tolga provided detailed guidance on the BRR (Biological Research Registration) process through MIT's CAB/ESCRO committee, including requirements for MIT PI involvement, research proposal structure, and timeline considerations. He explained that the bioprinter is currently limited to approved research projects due to existing commitments, and that any access would need to be scheduled around three ongoing research projects. Prof. Gershenfeld agreed to serve as the MIT PI for the proposal, and I'm working through the BRR forms to submit the necessary documentation for committee review.
Transparent documentation of AI assistance used in this week's work, following course guidelines for ethical AI usage.
This week's webpage development was assisted by Cursor AI to create the initial page structure, styling, and content organization. The AI helped with HTML/CSS implementation and responsive design patterns.
Cursor AI assisted with organizing webpage sections, cleaning up HTML structure, and updating content for both week 0 and week 1 pages. The AI helped with code refactoring, section reorganization, and maintaining consistent styling across pages.
This work is licensed under a
Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License
Bioprinting & Aging Biomarker Device · HTMAA 2025
[Project highlights and key achievements placeholder.]
[Project introduction placeholder - describing the bioprinting and aging biomarker device project.]
[Design process documentation placeholder.]
[Video caption placeholder]
[Fabrication process documentation placeholder.]
[Testing and validation documentation placeholder.]
[Links and brief descriptions placeholder.]
[Bioprinting component description placeholder.]
[Image caption placeholder]
[Aging biomarker device 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 for this project placeholder.]
This work is licensed under a
Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License
Bioprinting & Aging Biomarker Device · HTMAA 2025
[Project highlights and key achievements placeholder.]
[Project introduction placeholder - describing the bioprinting and aging biomarker device project.]
[Design process documentation placeholder.]
[Video caption placeholder]
[Fabrication process documentation placeholder.]
[Testing and validation documentation placeholder.]
[Links and brief descriptions placeholder.]
Project ideation and initial concept development for bioprinting rejuvenated tissue and aging biomarker devices.
[Week 0 progress and contributions to final project placeholder]
Version control, laser cutting, and vinyl cutting techniques applied to final project components.
[Week 1 progress and contributions to final project placeholder]
Electronics basics and embedded programming for the aging biomarker device components.
[Week 2 progress and contributions to final project placeholder]
3D scanning and printing techniques for bioprinting components and device housings.
[Week 3 progress and contributions to final project placeholder]
EDA and schematic design for the aging biomarker device electronics.
[Week 4 progress and contributions to final project placeholder]
PCB fabrication, debugging, and assembly for the biomarker device.
[Week 5 progress and contributions to final project placeholder]
CAM and milling for precision components and device housings.
[Week 6 progress and contributions to final project placeholder]
Sensors and embedded architectures for data collection in the biomarker device.
[Week 7 progress and contributions to final project placeholder]
Actuators and system integration for the biomarker device outputs.
[Week 8 progress and contributions to final project placeholder]
Forming and resin techniques for bioprinting molds and device components.
[Week 9 progress and contributions to final project placeholder]
Kits and mechanical design for the bioprinting and biomarker device systems.
[Week 10 progress and contributions to final project placeholder]
BLE, Wi-Fi, and communication protocols for the biomarker device connectivity.
[Week 11 progress and contributions to final project placeholder]
UI and application development for the biomarker device interface.
[Week 12 progress and contributions to final project placeholder]
Final orders and wildcard week activities for project completion.
[Week 13 progress and contributions to final project placeholder]
[Links to CAD/SVG/assets placeholder.]
[Reflection notes placeholder.]
[Acknowledgements / team roles placeholder.]
[Brief note on AI tool usage for this project placeholder.]
This work is licensed under a
Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License
Bioprinting & Aging Biomarker Device · HTMAA 2025
[Project highlights and key achievements placeholder.]
[Project introduction placeholder - describing the bioprinting and aging biomarker device project.]
[Design process documentation placeholder.]
[Video caption placeholder]
[Fabrication process documentation placeholder.]
[Testing and validation documentation placeholder.]
[Links and brief descriptions placeholder.]
Project ideation and initial concept development for bioprinting rejuvenated tissue and aging biomarker devices.
[Week 0 progress and contributions to final project placeholder]
Version control, laser cutting, and vinyl cutting techniques applied to final project components.
[Week 1 progress and contributions to final project placeholder]
Electronics basics and embedded programming for the aging biomarker device components.
[Week 2 progress and contributions to final project placeholder]
3D scanning and printing techniques for bioprinting components and device housings.
[Week 3 progress and contributions to final project placeholder]
EDA and schematic design for the aging biomarker device electronics.
[Week 4 progress and contributions to final project placeholder]
PCB fabrication, debugging, and assembly for the biomarker device.
[Week 5 progress and contributions to final project placeholder]
CAM and milling for precision components and device housings.
[Week 6 progress and contributions to final project placeholder]
Sensors and embedded architectures for data collection in the biomarker device.
[Week 7 progress and contributions to final project placeholder]
Actuators and system integration for the biomarker device outputs.
[Week 8 progress and contributions to final project placeholder]
Forming and resin techniques for bioprinting molds and device components.
[Week 9 progress and contributions to final project placeholder]
Kits and mechanical design for the bioprinting and biomarker device systems.
[Week 10 progress and contributions to final project placeholder]
BLE, Wi-Fi, and communication protocols for the biomarker device connectivity.
[Week 11 progress and contributions to final project placeholder]
UI and application development for the biomarker device interface.
[Week 12 progress and contributions to final project placeholder]
Final orders and wildcard week activities for project completion.
[Week 13 progress and contributions to final project placeholder]
[Links to CAD/SVG/assets placeholder.]
[Reflection notes placeholder.]
[Acknowledgements / team roles placeholder.]
[Brief note on AI tool usage for this project placeholder.]
This work is licensed under a
Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License