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OUR EXPERTISE AND EQUIPMENT AT YOUR SERVICE

SMart Home Lab

Smart Home Lab

Facilities
 

  • Simulation of six homes (including whitegoods and different types of home batteries) that exchange electrical and thermal energy with each other via a ‘Smart Energy Grid’
     

  • Community batteries
     

  • (Bidirectional) charging infrastructure for electric vehicles
     

  • An energy network that interconnects all systems
     

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Our services
 

Development of multiple scenarios and analysis of the optimal timing, application, and interaction of various technologies. For example, linking solar panels to an electric vehicle or a home battery, or to washing machines or a heat pump, and charging the community battery when electricity prices are low
 

What has it been used for?

InterConnect

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Contact:
Thierry Coosemans

Core Facility materials

Core Facility ‘Materials Characterization’

Facilities
 

The following equipment is part of the Core Facility:
 

For bulk spectroscopy:

  • Confocal Raman Spectroscopy

  • Fourier Transform Infrared Spectroscopy

  • X-ray Fluoressence Spectrometer
     

For surface sensitive spectroscopy:

  • X-ray Photelectron Spectroscopy (XPS)

  • Field Emission Auger Electron Spectroscopy
     

For isotope analysis:

  • Attom ES

  • Plasma 3

  • Triple-Quadrupole Inductively Coupled Plasma Mass Spectrometer (ICP-QQQ), coupled with excimer-based nanosecond laser ablation (LA) and high-performance liquid chromatography (HPLC).
     

For microscopy:

  • (Field Emmission) Secondary Electron Spectroscopy

  • Atomic Force Microscopy
     

For thermal analysis:

  • Thermogravimetric analysis (TGA)

  • Differential Scanning Calorimetry (DSC)

  • Thermal activity monitor (TAM)
     

Further specifications of this equipment can be found on https://matchar.research.vub.be/
 

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Our services
 

The facility provides a collection of analytical tools, backed by long standing expertise of the participating research groups, enabling the characterization of all types of materials, going from organic (such as polymers, biological tissue, bones-teeth) to inorganic materials (metals, ceramics, rocks, water…) and any composites and hybrid interfaces thereof.

We can provide insights from the macro- to the nanoscale, focusing on bulk and individual phases as well as surface properties and compositional mapping at high-resolution.
 

What has it been used for?

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Contact:
Svend Bram

Smart Village Lab

Smart Village Lab

Facilities
 

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Our services
 

In the Smart Village Lab (part of Green Energy Park), you can fully engage with energy and climate initiatives. It features a CO2-neutral, realistic testing ground within an existing work and residential environment, unique in Europe.
 

What has it been used for?

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Contact:
Cedric De Cauwer

Smart Charging Lab

Smart Charging Lab

Facilities
 

  • A collection of chargers (fast, semi-fast, slow), including bidirectional testers
     

  • 20 public plugs (mode 1, 2 and 3)

    • 2 - 3.6kW AC

    • 7kW AC

    • 22kW AC
       

  • 2 indoor charge boxes (mode 3)
     

  • 1 fast charger (mode 4)

    • 50kW CHAdeMO
       

  • Vehicle and charging emulators

  • All standardized communication protocols

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Our services

 

The Smart Charging Lab focuses on the testing and development of advanced charging solutions for electric vehicles. We conduct on- and off-board charging infrastructure testing, ensuring seamless integration with plug-in electric vehicles. Our lab enables grid-to-vehicle and vehicle-to-grid operation testing, optimising energy flow between vehicles and the power grid. Additionally, we work on the development of smart charging algorithms to enhance efficiency, reduce costs, and support sustainable energy management.

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What has it been used for?
BAT4EVER

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Contact:
Cedric De Cauwer

Power electronics and Reliability Lab

Power Electronics and Reliability Lab

Facilities
 

  • Dynamic double pulse tester for semiconductors characterization
     

  • Power cycling tester & thermal impedance measurement device
     

  • Mission-profile-based testing facility for motor drives and grid
     

  • Mission-profile data logger with high-precision sensorics
     

  • EMC test cabinet & magnetic component characterization device

  • Thermal imaging, accurate
    efficiency, and postmortem device

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Our services
 


The Power Electronics & Reliability Lab offers advanced testing solutions to ensure the durability and efficiency of semiconductor devices and power electronic systems. Our capabilities include Accelerated Lifetime Testing (ALT) in compliance with IEC 60749-34, Simultaneous Performance Testing (SPT) for up to 12 semiconductor switches, and Double Pulse Testing (DPT) for Si, SiC, and GaN technologies. We conduct Mission Profile Testing (MPT) on power electronics and control systems up to 250 kW, alongside pre-compliance EMC testing with temperature cycling. Additionally, we provide postmortem analysis after power cycling to assess long-term reliability. Our cloud-connected software framework ensures seamless integration and data accessibility for enhanced reliability assessment.

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What has it been used for?

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Contact:
Omar Hegazy

Lighting Technology Lab

Facilities
 

  • 150 m² lab for artificial sky (5.4m height)
     

  • Fully equipped(day)light office laboratory
     

  • Automated BRDF LAB (collaboration with INDI)
     

  • Mobile Spectrometer & Photometer

Our services
 

In the Smart Village Lab (part of Green Energy Park), you can fully engage with energy and climate initiatives. It features a CO2-neutral, realistic testing ground within an existing work and residential environment, unique in Europe.
 

What has it been used for?

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Contact:
Valéry Jacobs

Lighting
EV&AV

Electric & Autonomous Vehicle Lab

We have in-house infrastructure to test electric and hybrid electric vehicles:

  • Vehicle dyno-roll bench (200km/h)

    • Up to 100 kW

    • Automated ONE-axis vehicle roll bench
       

  • Automated test bench for electric two-wheelers
     

  • 2 mobile data –acquisition systems for on-road testing of vehicles (CompactRio)
     

  • 200 GPS-based vehicle data-loggers
     

  • Datron speed measurement device
     

  • 2 Electric Vehicles (Nissan Leaf and BMW i3-Rex)
     

  • 2 Plug-in Hybrid Electric Vehicles (Volvo V60 and Mitsubishi Outlander)
     

  • 4 e-Karts
     

  • 1 Formula Race Electric Car

Our services

 

The Electric & Autonomous Vehicle Lab specialises in advanced testing and monitoring of electric and hybrid vehicles. We conduct detailed roller bench and on-road testing, providing in-depth insights into vehicle performance. Our GPS and CAN-based data loggers enable real-time vehicle and fleet monitoring for efficiency analysis. With access to a range of electric and hybrid vehicles, along with their historical data, we facilitate performance and behaviour benchmarking. Additionally, we support the testing of electric and plug-in hybrid vehicles across a variety of real-world use cases.

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What has it been used for?

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Contact:
Joeri van Mierlo

Battery Innovation Center Lab

Battery Innovation Center Lab

For the thorough characterization of newly developed batteries, the Battery Innovation Center has deployed a state-of-the-art battery test lab (300 battery test channels, 12 climate chambers and 3 climate rooms, 42 impedance spectroscopy channels, thermal imaging equipment, a thermal management platform and a dSpace), containing several test stations allowing to test cells as well as battery modules.
 

Additionally, a dry room has been built with a dew point of -60°C, that can handle a dew point of -55°C while two people are working in it.

The lab is also equipped with a glove box and an in situ XRD.

Our services

 

The Battery Innovation Centre is well equipped and organized for lifetime and ageing testing and thermal characterization of batteries.

We offer our infrastructure to conduct all kinds of standardized or custom-defined battery tests:

  • Battery fabrication for proof of concept: prototype fabrication and upscaling

  • Physio-chemical testing of battery electrodes

  • Cycling and aging, internal resistance through HPPC, high current pulse testing, drive cycle testing, fast charging testing

  • Electrochemical impedance spectroscopy

  • Mechanical pressure application and testing on cells

  • Customized testing profiles, data acquisition and logging, state estimation, and electro-thermal control development

This can be done across a wide range of controlled temperatures on every cell form factor, including cylindrical, pouch, and prismatic

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What has it been used for?

BAT4EVER​

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Contact:

Maitane Berecibar

Solid Porous Materials Lab

Solid Porous Materials Lab

  • Unique, high-throughput measurement setups, often custom- designed for non-standard test conditions:

    • Ar and N2 porosimetry, He pycnometry, Hg porosimetry (low/high-P), Scanning Electron Microscope (SEM), Fourier Transform Infrared (FTIR)-microscopy, Thermogravimetric Analysis (TGA), Zero-Length-Column (ZLC) to study diffusion, inverse-pulse-GC to study low coverage adsorption thermodynamics, etc.
       

    • Isotherm/breakthrough: fully automated 20-column device for liquid frontal analysis, six gravimetric & volumetric setups, with integrated calorimeters, for gas/vapor adsorption, custom-adjusted for various and extreme conditions
       

  • State-of-the-art equilibrium and breakthrough modelling tools & software: COMSOL Multiphysics, Langmuir & IAST models, Matlab, Aspen, VisualBasic, inhouse coding for equilibrium, kinetic, and dynamic column modelling, etc.
     

  • Semi-automated material fabrication: chemical preparation lab, ovens, autoclaves, glovebox, pellet strength tests, gram-to-kg-scale structuring (pellets, monoliths, coating on sponges, metals, laminates, hollow fibers,…), automated milling, kneading & extrusion devices, sophisticated shaping dies, 3D-printer and high precision CNC-milling robots for prototyping

Our services

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We specialize in the characterization of solid porous materials, providing in-depth insights into adsorption, diffusion, and structural properties. In addition, we develop (hybrid) material structures with optimized properties tailored for chemical separations and purifications.

  • Advanced experimental and modelling-based characterization of porous materials (zeolites, MOFs, AC, CMS, hybrids, etc.)

  • Design for multi-functionality, including kinetics & heat effects, ppm-selectivity, electrified heating compatibility, durability

  • Formulation and shaping into structured material prototypes (laminates, foams, honeycombs, monoliths, coatings, etc.)

 

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What has it been used for?

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E-Monoliths for electrified CO2 capture: Electrical swing adsorption on 3D-printed activated carbon monoliths for CO2 capture from biogas - Vrije Universiteit Brussel,
 

E-Laminates for electrified CO2 capture: Steel fiber-zeolite composite laminates for carbon capture via induction swing adsorption - Vrije Universiteit Brussel,
 

E-MOFs for Biogas upgrading: Strategic Fast Induction Heating to Combat Hysteresis Barriers in a Flexible MOF for Rapid CO2 Desorption in Biogas Upgrading - Vrije Universiteit Brussel
 

Clathrates for Methane storage: Enabling hydrate-based methane storage under mild operating conditions by periodic mesoporous organosilica nanotubes - Vrije Universiteit Brussel
 

Ba-ETS-4 adsorbents for Methane production: Maximizing methane production in adsorptive nitrogen removal from natural gas: The impact of dehydration temperature on Ba-ETS-4 separation performance - Vrije Universiteit Brussel

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Contact:
Marleen Claeys
 

Sustainable Separations Lab

Facilities

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  • Multiple setups for gas and vapor phase breakthrough separation experiments with various specific designs, e.g.:

    • to work with monoliths at very high gas velocities and steam regeneration

    • to study adsorption/desorption cycles with Joule, induction or microwave heating

    • to study organic vapors

    • to operate at elevated pressure (till 30 bar)

    • to study removal of ppm-traces from gases with laser detection
       

  • Several large pilot-scale multi-column swing adsorption units (up to 7kg adsorbent per column), with online monitoring, automated process control and simulation software, to study and demonstrate air separation, biogas upgrading, and direct air capture
     

  • Custom-built experimental setups for challenging applications: e.g., own workshop, CNC-milling robots for precision manufacturing of experimental components, experience with wide ranges of high/low P/T, and industrial flowrates

  • Mobile container-sized PSA/VPSA pilot units
     

  • Computing cluster & tools for cyclic swing to full process modelling: Matlab, AspenTech, VisualBasic, SimaPro, machine-learning tools and computing cluster, in-house coding for modeling of cyclic swings and full process conceptualization, TEA, LCA, energy & process optimization

Our services
 

We specialize in adsorption-based separation technologies, combining adsorption expertise and process design to develop customized solutions for industrial separation challenges, including carbon capture, renewable fuels, and waste valorization.

  • Selecting and optimizing adsorbents for industrial applications.

  • Modelling & simulation of adsorption and separation processes

  • Process development & scale-up (from lab to pilot scale)

  • Experimental validation under industrial conditions

  • Scalability, technoeconomic, and lifecycle assessments

Training programs (with experimental units & modelling tools

 

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What has it been used for?

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Electrification: Advancements and challenges in electric heating for enhanced temperature swing adsorption processes - Vrije Universiteit Brussel
 

CO2 capture: Performance study of an electrified temperature vacuum swing adsorption cycle for post combustion carbon capture - Vrije Universiteit Brussel
 

Rapid temperature swing adsorption using microwave regeneration for carbon capture - Vrije Universiteit Brussel
 

Biomethane: Techno-economic Analysis of Vacuum Pressure Swing Adsorption Process for a Sustainable Upgrading of Biogas - Vrije Universiteit Brussel
 

Biobutanol: Critical impacts of energy targeting on the sustainability of advanced biobutanol separation - Vrije Universiteit Brussel
 

Contact:
Marleen Claeys
 

Sustainable separations lab
GHz-THz Lab

GHz-THz Lab

Facilities

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  • Vector Network Analyzer:

    • Desktop VNA operating in the 10 MHz to 70 GHz

    • Portable VNA operating in the 2 to 40 GHz
       

  • Oscilloscopes:

    • Real-time oscilloscope with bandwidth of 110 GHz

    • Sampling Oscilloscope with bandwidth up to 85 GHz
       

  • Portable Transient radar system for NDT 
     

  • Imaging systems
     

  • Other instruments: large bandwidth BWO sources, mm-wave narrow-band stand-alone prototype systems, spectrum analyzer FSEM, Digital Lock-in Amplifier, precision mechanics, etc.

Our services
 

GHz-THz measurement infrastructure has a pivotal role in multiple disciplines:
 

  • Nondestructive testing of materials and multi-layer structures:

    • Buildings: status and renovation issues, humidity, density, porosity

    • Processes: curing, ageing, recycling, self-healing

    • Novel nano-materials designs

  • Nondestructive Real-Time monitoring of carbon capture in materials such as cements and special absorbers

  • Study of meta-materials: modelling and design of single and multi-layer Left Handed Materials, including symmetric and asymmetric split ring resonators, derivation of equivalent circuits and investigations of ultra-sensitive thin film sensors for all kind of materials, etc.

  • Dielectric Spectroscopy of materials in the GHz-THz range

 

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What has it been used for?

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Some examples of the already studied material systems:

  • Construction materials: textile-reinforced cements, bricks, concrete, glass, rubber, PVC, wood, thermal insulation materials

  • Carbon capture phenomena in different materials.

  • Carbon-based nano-materials: graphene, CNT, etc.
     

Contact:
Johan Stiens
 

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