Education access · In progress

Rural Physics Initiative

An early-stage effort to design low-cost experiment kits and supporting materials for schools with limited laboratory access.

01 / Personal context

Why access became a design question.

I was born in a rural area near Nanping and now study in Xiamen. During visits home, I noticed that students often encountered physics experiments mainly as textbook procedures rather than hands-on experiences.

The long-term goal is to design low-cost experiment kits and supporting digital materials that can work within real school constraints.

02 / Current status

A research foundation, with early local conversations.

The completed work forms a research foundation for a possible pilot. School implementation, a finished kit, and student-outcome evidence remain future milestones.

I also conducted preliminary conversations with three to four friends from Nanping about their experiences with physics learning and school experiments. These conversations provide exploratory local context rather than representative evidence for Nanping schools as a whole.

Completed

  • Desktop research record
  • Eight-source evidence matrix
  • Source-verification report
  • Research log
  • Draft interview, questionnaire, and observation instruments
  • Preliminary conversations with three to four friends from Nanping
  • Digital activity finder and comparison tool
  • Text-only activity-pack export with blank observation sheets

Next evidence required

  • Confirmed school partnership
  • Teacher co-design
  • Validated bill of materials
  • Safety review
  • Completed physical kit prototype
  • Field pilot
  • Student outcome evidence

03 / Working digital materials

Start with what is already on the table.

A preparation tool and printable observation prompts turn the research into materials that can be reviewed before a field pilot.

I built a digital preparation tool that starts with the materials a learner already has. It helps users find activities, compare up to three experiments, and prepare a text-only pack for offline reading or printing.

The pack keeps material lists, instructions, safety reminders, and blank observation prompts together. The prompts ask learners to make a prediction, record what they change and keep the same, and describe what their observations do—and do not—support.

These are working software materials, not a completed physical kit or a school pilot. These examples come from a local test session and a sample export in September 2026; they contain no actual student responses and do not demonstrate learning outcomes. Matching materials is not a safety approval, and external reference links still need an internet connection.

04 / Kit design principles

Design the conditions before designing the kit.

No locally validated bill of materials, safety review, completed physical kit prototype, or field-pilot evidence has yet been verified. These principles define the work that must come first.

01

Start with local evidence

Validate needs through consented, anonymized interviews, surveys, and observation before finalizing a kit.

02

Co-design with teachers

Treat teacher usability, curriculum fit, supervision, and maintenance as core design requirements.

03

Keep the setup realistic

Favor accessible materials, clear instructions, offline support, and repeatable measurements.

04

Claim only what is tested

Separate the planned intervention from completed work, and define success before a pilot begins.

05 / From research to pilot

A staged path that earns each next claim.

The sequence keeps consent, anonymity, teacher ownership, and feasibility ahead of scale.

Proposed validation path — concept only
  1. 01Research
  2. 02Local validation
  3. 03Teacher co-design
  4. 04Small pilot
  5. 05Revise

06 / Next responsible milestone

Validate one local need before a small pilot.

Validate local needs with one teacher partner, then co-design and safety-review one low-cost experiment before a small pilot.