Enhanced Neptune Cylinders Microplastic Filtration Simulation

Simulation Parameters

5 L/min
250

Simulation Status

Elapsed time: 0:00
Total microplastics: 0
Captured microplastics: 0
Total efficiency: 0%

Microplastic Types

Cylinder Configuration

Efficiency Test Settings

Test Results

Efficiency test not started. Click "Run Test" button to start a test.

Cylinder Properties

0.7
40 px
160 px
8

Material Selection

Water Properties

20°C
7.0
35 ppt

Environmental Conditions

0 days

Flow Direction and Turbulence

Low

Flow Control Elements

Single Row

Capture Mechanisms

Physical Entrapment
40%
Chemical Adsorption
30%
Biofilm Capture
20%
Hydrodynamic Effects
10%

Physical Entrapment: The natural porous and fibrous structure of Posidonia oceanica fibers enables mechanical trapping of microplastics.

Chemical Adsorption: Hydroxyl, carboxyl, and phenolic groups on the fiber surface capture microplastics through electrostatic attraction.

Biofilm Capture: Over time, a microbial layer forms on the fiber surface, enhancing microplastic retention with its adhesive properties.

Hydrodynamic Effects: Turbulence and flow patterns created during water movement increase the probability of microplastic capture.

Captured Microplastic Distribution

Capture Mechanism Distribution

Biofilm Development

Total Efficiency

This simulation demonstrates the microplastic capture mechanisms based on the physical and chemical properties of Posidonia oceanica (seagrass) fibers.

The simulation is designed in accordance with information from the paper "Sustainable Exploitation of Posidonia oceanica Sea Balls (Egagropili): A Review".

Real-Time Efficiency Chart