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PROJECT № 08 · Product Design · Marine In Progress

Kayak Live Well System

A novel sub-hull live well system designed for kayak fishing applications. CAD design and additive-manufacture-ready files. Full project details to follow once delivery completes.

Kayak Live Well System
§ Specification
Client
Confidential — international engagement
Sector
Product Design · Marine
Location
Australia
Year
2026
Duration
In progress
Engagement Value
On request
§ Role

Novel CAD design and 3D-print-ready file delivery for a sub-hull live well system that mounts beneath a kayak. Hydrodynamic optimisation, water-circulation geometry, and additive-manufacture preparation.

§ Outputs
  • Parametric CAD model, full assembly
  • Hydrodynamic flow analysis
  • Water-circulation geometry, inlet/outlet design
  • 3D-print-ready STL & 3MF files
  • Material specification for additive manufacture
  • Mounting & integration drawings
§ Case Note
In Progress

This project is currently active. Full details, including final imagery, performance metrics, and the named client, will be published here once the engagement completes.

A live well is a circulating-water enclosure used in fishing to keep bait or catch alive during a trip. Standard implementations sit on the deck of a vessel, taking up valuable space and shifting the boat’s centre of gravity. This engagement is a re-think of that constraint: a live well that mounts beneath the kayak hull, sub-surface, drawing fresh water naturally as the kayak moves.

The design challenge

Putting a live well under the hull introduces three new engineering problems at once. First, hydrodynamics, the form must add minimal drag at typical paddling speeds. Second, water circulation, the inlet and outlet geometry must drive consistent flow without requiring a pump. Third, mounting, the live well must attach without compromising hull integrity and must release cleanly for transport and storage.

Approach

CAD design is parametric from the start, with the form driven by a small set of high-leverage parameters: hull-clearance offset, paddle-speed flow rate, internal volume, and mount footprint. The output is a 3D-print-ready file pack suitable for direct additive manufacture in marine-grade polymer.

Status

The project is currently in active design. Full case-study details, including imagery, performance data, and client name, will be published here once the engagement completes.

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