Project

PROJECT NAME

A floating picnic platform built under $100.

DIY river-ready pontoon built from 55-gallon HDPE barrels and a reinforced frame, designed to carry a full picnic table and multiple passengers.

Why

I wanted a way to turn a cheap, rough river float into a full picnic experience, under strict budget and material constraints.

  • Goal: what “success” looked like.
  • Constraints: budget, tools, material availability, deadlines.
  • Users: who this was built for (you, friends, a client, a class).

What

At a high level, this project is a [device/system] that does X for Y, while satisfying Z constraints.

Key requirements

  • Requirement 1 (e.g., must safely support 4 adults and a table).
  • Requirement 2 (e.g., must stay under $100 in materials).
  • Requirement 3 (e.g., must be buildable with basic shop tools).

Schematic & Plan

The design started with a simple plan that balanced weight distribution, stability, and ease of assembly.

Schematic / plan (placeholder):

Drop schematic or layout image here

Component Selection

Each component was chosen to balance performance, cost, and ease of integration.

Major components

  • Component / material 1 — why you picked it over alternatives.
  • Component / material 2 — tradeoffs and reasoning.
  • Component / material 3 — reliability, availability, or safety considerations.

Bill of Materials (BOM)

The build was kept within budget by reusing materials where possible and choosing cost-effective components.

# Item Specification Qty Cost
1 Example part Size / rating / part number x1 $0.00
2 Example part 2 Details here x4 $0.00
Total $0.00

How

With the design locked and parts in hand, the build moved through fabrication, assembly, and testing.

Build process

  1. Step 1: prepare materials / cut stock / initial wiring.
  2. Step 2: assemble main structure / PCB / frame.
  3. Step 3: integrate components and perform basic checks.
  4. Step 4: final assembly, sealing, and safety checks.

Testing & Results

The system was tested in realistic conditions to verify stability, performance, and safety.

  • Test scenario 1 and what you observed.
  • Test scenario 2: edge cases, overloads, or failure modes.
  • Final outcome: did it meet or exceed the original “Why”.

What I'd Do Next

With more time and budget, I would iterate on durability and user experience, and explore how to turn this into a repeatable build.