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Interactive Research Demos

Interactive Research Demos

Transform static research papers into interactive, explorable models. Experience how MESSAI converts traditional publications into dynamic tools for understanding and discovery.

9
Interactive Models
9
Research Papers
50+
Parameters to Explore
Review Paper

An Overview of Microbial Fuel Cell Technology for Sustainable Electricity Production

Wilgince Apollon (2023)

Membranes

Comprehensive review of MFC technology with performance analysis across different configurations and materials.

Max Power Density2,203 mW/m²
Key Features:
System comparisonMaterial analysisEconomic modeling
Explore Interactive Model
Modeling

Modelling and simulation of two-chamber microbial fuel cell

Yingzhi Zeng, Yeng Fung Choo, Byung-Hong Kim, Ping Wu (2010)

Journal of Power Sources

Mathematical modeling of two-chamber MFC with Butler-Volmer kinetics and mass balance equations.

Max Power Density2.4 W/m²
Key Features:
Mathematical modelingDynamic simulationParameter optimization
Explore Interactive Model
Scale-up Study

Stretched 1000-L microbial fuel cell

R. Rossi, O.A.H. Jones, J. Hall, B.E. Logan (2021)

Journal of Power Sources

Large-scale MFC with 64 units in a stretched configuration, achieving highest energy efficiency (12.1%) for municipal wastewater treatment with self-healing capabilities.

Max Power Density200 mW/m³
Key Features:
1000L scaleSelf-healing system18-month operation
Explore Interactive Model
Enhanced Demo

Compost Solid-phase MFC with Graphene Electrodes

Research Team (2020)

Presipitasi

Enhanced extraction demo showcasing comprehensive data from solid-phase MFC using graphene and graphite electrodes with organic compost substrate.

Max Power Density185.2 mW/m²
Key Features:
Graphene electrodesSolid-phase operation30-day timeline
Explore Interactive Model
Microfluidic

Numerical study on microfluidic fuel cells with different types of micro-channels

J.L. Hao, T.Z. Wu, X. Zeng (2010)

Journal of Power Sources

COMSOL Multiphysics 3D modeling revealing 3.7× fuel utilization improvement through tapered channel design.

Max Power Density0.96 mW/cm²
Key Features:
Tapered optimizationFlow dynamics5 channel types
Explore Interactive Model
Breakthrough

High power density redox-mediated Shewanella microbial flow fuel cells

Leyuan Zhang, Yucheng Zhang, Yang Liu, et al. (2024)

Nature Communications

Revolutionary biofilm-free MFC design with flowing planktonic bacteria achieving 10× power increase.

Max Power Density3.52 W/m²
Key Features:
Flow-through designRedox mediatorsNo biofilm
Explore Interactive Model
Nanomaterials

Nickel silicide nanowire anodes for microbial fuel cells

Mohammad Hosseini, Sarah Chen, David Kim, et al. (2025)

Scientific Reports

Nanostructured nickel silicide electrodes achieving 2.5× power density improvement through enhanced electron transfer.

Max Power Density320 mW/cm²
Key Features:
Nanowire arraysEnhanced biofilm interfaceHigh conductivity
Explore Interactive Model
Bioreactor

Continuous Oxygen Supply in Pump-less Micro-Bioreactor Based on Microfluidics

Mohana Marimuthu, Sanghyo Kim (2015)

BioChip Journal

Pump-less perfusion chip with modified siphon achieving optimal oxygen delivery for 21-day fibroblast culture.

Max Power Density10 μL/min
Key Features:
No pumps21-day cultureLinear O₂ gradient
Explore Interactive Model
Electrode Materials

Hydrogel-derived materials for microbial fuel cell

Jahangir Alom (2007)

Journal of Power Sources

Advanced hydrogel-derived electrode materials achieving exceptional power density of 2,400 mW/m² through optimized material properties.

Max Power Density2,400 mW/m²
Key Features:
Hydrogel materialsHigh power densityMaterial optimization
Explore Interactive Model

Why Interactive Research Models?

Transform how researchers engage with scientific literature through hands-on exploration.

Explore Beyond Data

Test parameter combinations not covered in the original research. Discover new insights through interactive exploration.

Validate & Reproduce

Reproduce paper results with the same parameters. Build confidence in research findings through verification.

Learn by Doing

Understand complex systems through hands-on interaction. Perfect for education and knowledge transfer.

Ready to Explore Research Like Never Before?

Join researchers worldwide who are discovering new insights through interactive models.