Fibre-based floating ecological modules in a real waterbody
FIELD RECORDS / 现场案例

See how the system
works in the field.

These photographs document planting, deployment and in-use conditions—showing how the system enters a waterbody and establishes a real starting point for observation and care.

REAL SITES

A case is not a finished image. It is a process that can keep being observed.

The photographs below come from actual planting and waterbody sites. We state only what the images support and do not infer unmeasured ecological or water-quality outcomes.

Field team planting and preparing fibre-based floating modules
01

Field planting

Planting, fibre-based modules and connections are organised and checked before deployment.

Established floating ecological modules in a real waterbody
02

The system in water

Once deployed, plant growth, module condition and the relationship to the bank can be observed over time.

Close view of fibre-based floating modules at a field site
03

Growth and care

Close observation helps identify plant condition, module edges, connections and maintenance needs.

Note: these field records document materials, planting, deployment and observable condition. Any conclusion about biodiversity, water quality or environmental performance still requires a project-specific baseline, method and continuing evidence.

WHY RETHINK FLOATING ISLANDS

The question is not only whether it floats, but what happens across its working life.

Some common hollow-plastic modules can quickly form a planted surface, but weathering, local damage, water ingress, maintenance and eventual recovery need to be considered from the start.

New modules condition of a conventional plastic floating island

New modules

Sealed plastic chambers provide buoyancy, while a regular grid enables rapid assembly.

In use condition of a conventional plastic floating island

In use

Sun, changing water levels and maintenance activity continue to act on modules and connections.

Weathering and damage condition of a conventional plastic floating island

Weathering and damage

Surface weathering or local damage can affect appearance, connections and future care.

Water ingress condition of a conventional plastic floating island

Water ingress

A damaged chamber may take on water and lose buoyancy, making recovery more difficult.

Persistence and recovery condition of a conventional plastic floating island

Persistence and recovery

Plastic that is not recovered may persist or fragment, creating a risk of secondary pollution.

The photographs are arranged by visible condition to explain possible lifecycle issues. They are not a time series of one installation, and they do not imply that every conventional floating island follows the same outcome.

ANOTHER MATERIAL PATH

Consider buoyancy, the planting interface and future care as one system.

neofloat.eco explores the natural buoyancy of plant-fibre substrates, combining protection, modular connections and replaceable construction to slow material decline and retain a maintenance pathway. The substrate also provides a continuous root interface and a lower profile at the water's edge.

These are design intentions, not guarantees of service life or ecological outcome. Performance depends on material testing, site conditions and continued observation.

Explore the material strategy↗