Here’s the full prompt you can hand to Codex: Build a complete GitHub Pages website for a Grade 12 Physics Passion Project (PPP). The site will be hosted at itsdanielsultan.github.io/Physics-Website/. Build it as a static HTML/CSS/JS site with no frameworks. Modern sans-serif font stack (Inter, Roboto, Helvetica Neue, Arial). Clean, minimal design. No serif fonts. No em dashes anywhere in the text. No AI-sounding words (delve, tapestry, vibrant, landscape, realm, robust, seamless, leverage, harness, foster, underscore, illuminate, facilitate, pivotal, crucial, comprehensive, intricate). Write in first person as a Grade 12 student named Daniel Sultan. Vary sentence lengths. Short sentences mixed with longer ones. No stock transitions (Furthermore, Moreover, Additionally, Indeed, It is important to note). Justified text. The site needs a navigation bar with links to: Home, Post 1, Post 2, Post 3, Post 4, Post 5, Post 6, Conferencing. PAGE: Home / Index Simple landing page. Title: “Physics Passion Project” with subtitle “Daniel Sultan | SPH4UO | Grade 12 Physics | The Woodlands SS”. Brief intro: “This website tracks my process from brainstorming passions to building and testing a working electromagnetic crane. Each post documents a stage of the project.” Link to each post below. PAGE: Post 1 — Brainstorming Passions This page already exists and is live. Recreate it with the same content. Title: “Post #1: Brainstorming Passions” Intro: “This is my first process-journal post. I listed five passions and explained my personal connection to each one, focusing on what genuinely interests me before narrowing to a final project topic.” Five passions, each with a heading, a paragraph of personal connection, and a physics angle: 1. Urban Design and Cities — “I think a lot about how cities are built and how design shapes daily life. Once I started noticing road layouts, sidewalks, and transit, I could not stop. I pay attention to how Mississauga feels to move through and how small design changes could make it more walkable and social.” Physics angle: traffic flow, forces in transportation, energy use in mobility. 2. Technology and the Future of Automation — “I am interested in how technology changes society, especially automation like self-driving systems and AI tools. I like thinking about how these systems will affect jobs, safety, and how people move around. I keep asking whether these changes will make life meaningfully better or just faster.” Physics angle: sensor systems, motion prediction, reaction time, collision dynamics. 3. Fitness and Strength Training — “I am interested in how the body adapts to training. Lifting and improving strength feels measurable and satisfying. I like seeing progress over time and understanding why certain movements work better than others. It makes me think about discipline, consistency, and how small improvements stack.” Physics angle: biomechanics, lever arms, torque, power output. 4. Public Policy and Incentive Systems — “I enjoy thinking about systems that change behavior. Ticketing systems, reporting tools, and incentive programs interest me because they combine human psychology with structure. I like asking whether rules are designed to solve a real problem or just exist by habit.” Physics angle: policy choices around safety, transportation behavior, risk reduction. 5. Building Projects and Problem Solving — “I enjoy building things, whether through coding or planning ideas in detail. Starting with nothing and creating something that works is deeply satisfying. I like troubleshooting and refining ideas until they are coherent, useful, and testable.” Physics angle: prototyping, testing variables, collecting data, iterating designs. Include a “Search-Based Confirmation” section with these external links confirming real-world relevance: - CDC Community Design Strategies: https://www.cdc.gov/physical-activity/php/strategies/increasing-physical-activity-through-community-design-prevention-strategies.html - EPA Smart Growth and Transportation: https://www.epa.gov/smartgrowth/smart-growth-and-transportation - NHTSA Automated Vehicles Safety: https://www.nhtsa.gov/vehicle-safety/automated-vehicles-safety - OECD Employment Outlook 2023: https://www.oecd.org/en/publications/oecd-employment-outlook-2023_08785bba-en.html - CDC Adult Physical Activity Guidelines: https://www.cdc.gov/physical-activity-basics/guidelines/adults.html - OECD Behavioural Science: https://www.oecd.org/en/topics/behavioural-science.html - NGSS Engineering Design Appendix: https://www.nextgenscience.org/sites/ngss/files/Appendix%20I%20-%20Engineering%20Design%20in%20NGSS%20-%20FINAL_V2.pdf PAGE: Post 2 — Driving Questions Title: “Post #2: Driving Questions” Intro: “After brainstorming, I picked two passions to develop driving questions for: Building Projects and Problem Solving, and Technology and the Future of Automation. I wrote questions on my own first, then used AI to refine them.” Passion 1: Building Projects and Problem Solving Original DQ 1: “How does the number of wire coils around an iron core affect the lifting force of an electromagnet powered by a 6V battery?” Original DQ 2: “What design factors determine whether a small-scale electromagnetic crane can reliably lift and release metal objects?” Passion 2: Technology and the Future of Automation Original DQ 3: “How do automated systems in scrapyards use electromagnets to sort different metals?” Original DQ 4: “What role does electromagnetism play in the sensors and actuators used in modern automation?” AI Refinement Chart (3 columns, 4 rows minimum as required by rubric): First Draft Critique Revised Version (with AI) How does the number of wire coils around an iron core affect the lifting force of an electromagnet powered by a 6V battery? Focused on one variable but doesn’t mention the crane application or controlled release How does the number of coil turns on an iron-core solenoid affect the magnetic lifting force of a small-scale electromagnetic crane powered by a 6V DC battery? What design factors determine whether a small-scale electromagnetic crane can reliably lift and release metal objects? Too broad, doesn’t name specific variables to test What specific design variables (coil count, core material, circuit control) determine the maximum lifting force and release reliability of a small-scale electromagnetic crane? How do automated systems in scrapyards use electromagnets to sort different metals? Descriptive, doesn’t encourage experimentation How does the controllability of an electromagnet (on/off switching) compare to a permanent magnet for sorting ferrous from non-ferrous metals in a scrapyard setting? What role does electromagnetism play in the sensors and actuators used in modern automation? Too broad for a single project How does varying the input voltage to a solenoid-based actuator affect its response time and force output? AI Disclosure: “I prompted Dia AI with my original questions and asked it to make them more specific, testable, and connected to a physical product I could build. The AI suggested naming specific variables (coil count, core material, circuit control) instead of saying ‘design factors,’ and recommended framing the question around a measurable outcome (lifting force in grams/Newtons). The core idea stayed mine. The AI helped tighten the wording.” Selected Driving Question: “How can the design of a small-scale electromagnetic crane, including coil count, core material, and circuit control, be optimized to maximize lifting force and allow reliable pickup and release of metal objects?” PAGE: Post 3 — Topic Selection and Feedback Title: “Post #3: Topic Selection” Content: “After reviewing my driving questions, I chose to build an electromagnetic crane. This falls under my ‘Building Projects and Problem Solving’ passion. I picked it because it connects directly to testable physics (B = μ₀μᵣnI, F ∝ B²), I can build a physical product, and it has clear real-world applications (scrapyard cranes, recycling separators, MRI machines, maglev trains).” “My teacher, Mr. Sharma, confirmed the topic was appropriate during our first conference. The feedback was to make sure I had a measurable experiment, not just a demo. That pushed me to design the three-coil comparison test where I varied the number of wraps and measured lifting force on a scale.” “I also got peer feedback suggesting I explain why the iron core matters so much. That led me to research magnetic permeability and include it as a key concept on my trifold.” PAGE: Post 4 — Plan of Action (Gantt Chart) Title: “Post #4: Plan of Action” Include a Gantt chart (build it as an HTML table with colored cells or a visual timeline) showing: Task Week 1 Week 2 Week 3 Research electromagnets and crane design ██ Buy materials (6V battery, wire, bolts, popsicle sticks, switch) ██ Build crane frame from popsicle sticks ██ Wind copper wire coils around bolts (3 different configurations) ██ Wire toggle switch and connect battery ██ Test lifting force with digital scale (3 coils) ██ Document results, take photos ██ Build trifold with printed sections and images ██ Prepare presentation ██ Use colored bars or filled cells to show the timeline visually. PAGE: Post 5 — Build Process and Evidence Title: “Post #5: Build and Testing” This is the proof page. Include: Materials list: - 6V Energizer lantern battery (alkaline, model 529) - Insulated copper wire - 3 steel bolts (4 inches each) and 1 steel nail (5 inches) - Popsicle sticks (crane frame) - Toggle switch - Hot glue - Digital kitchen scale (Taylor brand) - Ferrous test objects: washers, nuts, small bolts Build process description: “I wound insulated copper wire around steel bolts in three configurations: 50 turns (1 wrap), 100 turns (2 wraps), and 150 turns (3 wraps). I also made a 50-turn coil on a longer 5-inch nail to test the effect of core length. Wire ends were secured with hot glue. The crane frame was built from popsicle sticks with the electromagnet hanging from the boom. A toggle switch controls the circuit.” Experiment method: “I placed ferrous metal objects on a digital kitchen scale and tared it to zero. I lowered each electromagnet until it contacted the objects, flipped the toggle switch, and read the scale. The negative reading on the scale represented the magnetic lifting force in grams.” Results data table: Coil Configuration Turns (N) Core Length N/L (turns/m) Predicted Lift Measured Lift Force (N) 3-wrap, 4” bolt 150 0.102 m 1471 106 g (baseline) 106 g 1.04 2-wrap, 4” bolt 100 0.102 m 980 ~47 g 47 g 0.46 1-wrap, 5” nail 50 0.127 m 394 ~7.5 g ~20 g 0.20 Analysis of the 1-wrap deviation: “The 1-wrap coil on the 5-inch nail lifted ~20 g, well above the predicted 7.5 g. Three factors explain this: the longer nail has more iron mass for domain alignment, the nail tip concentrates magnetic flux at the contact point, and residual magnetism from earlier tests may have contributed.” Include placeholder image spots for: photos of the crane, the three coils, the scale readings during each test, the battery, the toggle switch, the test objects. PAGE: Post 6 — Conclusion and Reflection Title: “Post #6: Conclusion” “I built a working electromagnetic crane and tested how coil count affects lifting force. The results confirmed the physics: more coils produce a stronger magnetic field, and lifting force scales with B squared.” “The 3-wrap coil (150 turns) lifted 106 g. The 2-wrap coil (100 turns) lifted 47 g. The ratio between them (2.26×) matched the theoretical prediction of 2.25× almost exactly, validating B = μ₀μᵣ(N/L)I for this setup.” “The 1-wrap coil on the longer 5-inch nail produced a surprise: it lifted ~20 g instead of the predicted 7.5 g. This taught me that the simplified solenoid formula doesn’t account for core mass, tip geometry, or residual magnetism. Real electromagnetic engineering requires empirical testing alongside theoretical models.” “If I were to improve this project, I would use a variable power supply instead of a battery (to control current precisely), use thicker-gauge wire (to reduce I²R losses), and test more coil configurations (to map the full relationship between N and F). I would also add a proper rotating base and crank mechanism to make the crane more functional.” “This project connects to all four units in SPH4U: dynamics (lifting force, F = mg), energy (W = mgh, electrical to magnetic to mechanical), fields (solenoid magnetic field, B = μ₀μᵣnI), and even waves (oscillating current produces electromagnetic radiation). The same physics powers junkyard cranes, MRI machines, maglev trains, and electric motors.” PAGE: Conferencing Title: “Conferencing Log” Three entries: Entry 1: - Date: February 2026 - Issue: “What topic should I pick for the PPP?” - Discussion: “Mr. Sharma reviewed my five passions and suggested I focus on something I could build and test, not just research. We discussed the electromagnetic crane idea and he approved it as long as I included a measurable experiment.” - Next Steps: “Develop driving questions and finalize the crane design.” Entry 2: - Date: March 2026 - Issue: “Is a simple demo enough, or do I need quantitative data?” - Discussion: “Mr. Sharma said a demo alone wouldn’t score well. I needed to design an experiment with data I could analyze. He suggested varying one thing (like coil count) and measuring the result.” - Next Steps: “Plan the three-coil comparison experiment and figure out how to measure lifting force.” Entry 3: - Date: May 2026 - Issue: “How should I present the results on the trifold?” - Discussion: “We discussed the trifold layout. Mr. Sharma recommended including both predicted and measured values to show I understand the theory, not just the results. He also said to include real-world applications to cover the society/environment success criterion.” - Next Steps: “Build the trifold with data table, theoretical predictions vs measured results, and application section.” DESIGN REQUIREMENTS - Mobile responsive - Navigation bar on every page with links to all pages - Color scheme: dark red accent (#C0392B) on white background, dark text (#1a1a1a) - Font: Inter, Roboto, Helvetica Neue, Arial, sans-serif (system fonts, no external font loading) - Code blocks or formula boxes for physics equations with light red background (#FDECEA) - Tables with dark header rows and alternating row colors - Image placeholders (dashed border gray boxes with labels) where photos will go later - Footer on every page: “Physics Passion Project | Daniel Sultan | SPH4UO” - Clean, not flashy. No animations. No parallax. No gradients. Looks like a student built it with care, not like a template. That’s the complete prompt. Copy the whole thing and hand it to Codex. It has every piece of content, every data point, every rubric requirement, and the design spec. Codex should be able to build the full site from this without asking you anything.