This is a modular diffractometer with DAVINCI plug-and-play architecture, enabling rapid configuration changes for phase identification and quantification analysis, and residual stress, texture, and crystallite size and micro strain studies. It is equipped with a LYNXEYE XE-T detector, TWIN optics, a Mo x-ray tube, and a HIGHTEMP temperature chamber (maximum T 1200oC) for in-situ study under air, vacuum, or gas. The large-scale, multifunctional X-ray diffractometer provides a comprehensive view of material structure. It supports advanced analyses such as phase identification and quantification, residual stress measurement, texture characterization, crystallite size and microstrain evaluation, and the study of structural changes as a function of temperature.

The E40-PEM is a modular acidic PEM electrolyzer that tests systems with configurable cell and stack operations (up to 6V and 110A). It has integrated gas and water management, temperature control, and automated safety interlocks. It produces hydrogen and oxygen by splitting water using electricity — essential for renewable hydrogen research.

The E40-AEM is a modular alkaline AEM electrolyzer that tests systems with configurable cell areas and stack operations (up to 8V and 100A). It has integrated gas and water management, temperature control, and automated safety interlocks. It produces hydrogen and oxygen by splitting water using electricity — essential for renewable hydrogen research.

These are fully-integrated test stands for single-cell fuel cells, supporting up to a 100W load and 80A. They provide automated flow, temperature, and humidification control with data acquisition and safety interlocks. They simulate real-world operating conditions for hydrogen fuel cells to evaluate efficiency and durability.

The G60 PEM Fuel Cell Test Station is a fully-integrated test stand for single-cell and stack fuel cells, supporting up to a 650W load and125A. They provide automated flow, temperature, and humidification control with data acquisition and safety interlocks. They simulate real-world operating conditions for hydrogen fuel cells to evaluate efficiency and durability.

This is a multi-channel battery tester (±5 V, ±10 A, 96 channels) with 11400 VA 3-phase power, thermocouple inputs, MITS Pro control software, and EIS integration via Gamry 1010E. It provides precision charge and discharge cycling and impedance testing for electrochemical cells. It automatically charges and discharges batteries and records performance data to study lifetime and efficiency.

The Confocal Microscope uses a triple scan approach, where laser confocal scanning, focus variation, and white light interferometry measurement methods are used, so that high-accuracy measurement and analysis can be performed on any target like electrocatalysts. It has a resolution of 0.01 nm and can scan areas up to 50 × 50 mm (1.97″ × 1.97″), allowing for measurement of the overall shape of the target while still maintaining high-resolution for analysis of minute surface features. It is a highly versatile surface profiler that uses a combination of lasers and light to perform non-contact, high-resolution 3D measurements of an object's surface for quality control, failure analysis, and research in manufacturing and materials science.

The FlexiCoat is an automated and programmable ultrasonic coating system designed for precise thin-coating applications in mid-to-high-volume production. It utilizes ultrasonic spray nozzle technology and features 3-axis motion control. This system offers versatility with various nozzle types and liquid delivery options, making it suitable for the fabrication of electrodes used in energy generation and storage systems, including water electrolyzers, fuel cells, and CO2 electrolyzers. An automated programmable system utilizes ultrasonic spray technology to apply very thin, uniform coatings with high precision for electrode catalyst layer fabrication, covering areas up to 40 x 45 cm².

The D8 DISCOVER is a research-grade multipurpose XRD system supporting reflectometry, grazing incidence diffraction (GID/GISAXS), reciprocal-space mapping, and high throughput XRD. It integrates a vertical goniometer, IµS microfocus source, a EIGER2 R 500K detector, and a laser-video microscope. It is a versatile, high-throughput diffractometer used to probe crystal structures, thin films, and nanomaterials in 2D.

The D8 QUEST is a compact single-crystal XRD system featuring a PHOTON II-7 detector, Cu Kα source, a multi-axis goniometer (<7 µm sphere of confusion), and an APEX5 SHELXTL suite for structure solution. It determines the exact 3D arrangement of atoms in crystals — vital for understanding new compounds and catalysts.

The Biotage Flash Chromatography is a dual-channel flash chromatography system (4 solvent lines, 2 column lines) that supports both normal- and reverse-phase separations up to 30 bar and 300 mL min⁻¹. It has an integrated UV/Vis detector (190–800 nm), a 15″ touchscreen interface, QR/RFID rack tracking, and a five-year warranty. Optional Spektra software provides full-spectrum “lambda-all” detection with baseline correction and wavelength focusing for compounds with poor UV absorbance. It is a self-contained purification workstation that automatically separates and collects chemical compounds from reaction mixtures, using programmable solvent gradients and UV detection.

The VSP-P1 Nanoprinter is an automated system for localized deposition of metallic nanostructured films using spark-generated nanoparticles (1–20 nm). It enables controlled patterning of conductive materials via aerosol impaction printing and integrates four VSP-G1 nanoparticle generators. It prints ultra-small particles directly onto surfaces, letting scientists “print” materials like catalysts or sensors at the nanoscale without chemicals.

The D2 PHASER is an all-in-one benchtop XRD with an integrated PC and LYNXEYE detector. It enables qualitative and quantitative phase analysis and crystallinity determination with a minimal footprint and low operation power (300 W). It has a table-top, user-friendly X-ray diffractometer located on the synthesis lab bench, enabling researchers with minimal training to obtain instant feedback on phase identification to guide the next step in reaction setup.

The 3Flex is a fully automated three-port physisorption (single-port chemisorption) analyzer (ECR model) for active surface area, pore size distribution, adsorption capacity, heat of adsorption, metal dispersion, or acid/base site characterization in materials; It includes a high-temperature furnace (up to 1100 °C) for chemisorption and MicroActive software for method development. It determines how much gas a material can adsorb, revealing surface area and pore structure — critical for catalysts and adsorbents.

The ASAP 2420 is a six-station, high-vacuum, automated analyzer for surface area and pore distribution (3.5 – 5000 Å). It performs isotherm analyses to obtain BET and Langmuir surface areas along with BJH and DFT pore size analyses. It has 12 degas ports and a Smart Dosing System that reduce analysis time. It measures how gases stick to materials to calculate their internal surface area and pore sizes.

This BreakThrough Analyzer is a dynamic vapor/gas adsorption analyzer with multiple MFC-controlled gas lines and a patented blending valve. It supports multi-component adsorption, breakthrough curves, and kinetic studies. It allows scientists to watch gases flow through materials to see how fast and how much is adsorbed.

The HVPA II is a static volumetric adsorption analyzer that measures isotherms up to 200 bar. It has a stainless-steel manifold, dual pressure transducers (200 bar + 1000 Torr), and a servo-controlled dosing system. It tests how materials store gases like hydrogen, CO2, or hydrocarbons like methane under high pressure.

The Smart VacPrep is a modular six-port vacuum and gas-flow preparation system used for outgassing porous samples prior to adsorption analysis. The Smart VacPrep automates heating, evacuation, and cooling cycles with independent port control, and the VacPrep and FlowPrep provide manual and flow-based degassing options. It prepares samples by gently heating and removing moisture and contaminants, so adsorption tests yield accurate results.

This Breakthrough Analyzer is a modular, automated breakthrough system with interchangeable 2–20 cm³ beds, ≤50 bar operation, 300 °C heating, and a mass spectrometer interface for real-time gas composition analysis. It tests how well materials capture or release gases. That information is then used to evaluate filters, AWH, and CO2 capture materials.

The IGA-100 measures adsorption and desorption equilibria and the kinetics of gases and vapors from 10⁻⁶ mbar to 20 bar and 77 K – 500 °C. It includes a microbalance (0.1 µg resolution), multi-range pressure transducers, and a 500 °C furnace. It weighs how much gas or vapor is adsorbed by materials — revealing their storage or separation capabilities.

The IGASorp is a thermostated gravimetric water vapor adsorption analyzer controlling 0–100% RH using feedback-regulated laminar flow. It has a 0.1 µg balance resolution, ±1% RH accuracy, and temperature control to 80 °C (350 °C optional). It determines how materials adsorb water vapor — important for humidity sensitivity and stability studies.

The G4 ICARUS measures carbon and sulfur concentrations using an HF induction furnace and HighSense™ UV detectors. It features a ZoneProtect™ self-cleaning furnace and an automatic gas dryer for high throughput. It determines how much carbon and sulfur are in solid materials such as metals or ceramics.

The G8 GALILEO is an inert-gas fusion analyzer for oxygen, nitrogen, and hydrogen in solids. It integrates automatic furnace cleaning, a sample loader, and a HighSense detector for O/N/H quantification. It measures trace gases trapped in materials to understand purity and processing.

This is a dual workstation (4-glove) glovebox system (2440 × 750 × 900 mm internal volume) designed for safe handling of air- and moisture-sensitive materials. It features an integrated purification loop, O₂/H₂O sensors (<1 ppm), automatic regeneration, and a modular pass-through antechamber. The sealed chamber filled with inert gas (argon or nitrogen) allows scientists to handle chemicals that are damaged by air or moisture.

The SWAVE Synthesis Platform is a fully integrated robotic plant for unattended chemical synthesis that supports reaction heating, dosing, stirring, and sampling under inert or pressurized conditions. It is equipped with modular robotic tools for solid and liquid handling, temperature and pressure control, and automated data logging. It enables parallel reaction screening and scale-up across synthetic campaigns. It is a robotic “mini-factory” that performs chemistry automatically — mixing, heating, filtering, and recording results — without human intervention.

The SWING Synthesis Platform is a compact workstation integrating multiple robotic tools for gravimetric solid and liquid dispensing, crimping and uncrimping, and includes microwave digestion with AutoSuite control software for drag-and-drop workflow design. It performs precise small-scale experiments automatically — adding powders and liquids, heating reactions, and recording data — to accelerate discovery of new materials.

The FLEX synthesis platform is a large-format robotic platform (SWING XL) supporting multiple interchangeable robotic tools, including solid and liquid handling, pH measurement, filtration, screw-capping, and barcode tracking. It integrates parallel synthesis packages (up to 100 bar), reactor modules, and gravimetric dosing (0.1 mg). It is controlled via the AutoSuite SWING interface for fully unattended operation. It is a larger robotic workstation that prepares, reacts, and processes dozens of samples simultaneously, improving precision and repeatability in materials synthesis.

The PowderDose is a patented overhead gravimetric that dispenses units (GDU-Pfd) for automated solid handling with sub-milligram accuracy. It enables the precise addition of powders directly into reactors or vials under inert conditions. It accurately weighs and adds even tiny amounts of powder automatically — essential for reproducible chemistry and materials development.

Our 8-station rotary reactor system is capable of operations up to 250 °C. It supports high-shear mixing via high RPM tumbling. It allows scientists to mix or react multiple samples simultaneously at a high temperature — like running eight small chemical reactors at once.

The Carbolite Gero Furnace is a single-zone horizontal tube furnace (Ø100 mm × 600 mm hot zone) with an EPC3016 programmable controller and a RCA 75 ID × 86 OD × 1400 mm work tube for controlled-atmosphere operation up to 1600 °C. It is used to heat materials to very high temperatures under controlled gas atmospheres.

The WaveDriver 200 bi-potentiostat is a dual-channel electrochemical workstation supporting EIS, CV, pulse, and corrosion methods via AfterMath software. It allows for precision control of potential/current for two electrodes simultaneously. Researchers can precisely control and measure how materials conduct electricity and mechanisms in electrochemical reactions, which is useful for studying batteries, catalysts, and sensors.

This is a modular electrochemical workstation combining the EnergyLab XM potentiostat and BOOST 6V 100A booster for DC and EIS measurements up to ±100 A and 6V. It has a frequency range of 10 µHz–50 kHz, floating design, and a ±0.1 % accuracy, enabling impedance and pulse testing of low-impedance cells. It measures how energy materials and electrochemical systems behave under electrical stress — key for testing batteries, electrolyzers, and corrosion resistance.

Paired with an SP-300 potentiostat (±10 V applied, ±500 mA, 10 μHz-7 MHz frequency), the Scanning Droplet Cell runs localized electrochemical characterization, direct current area scans, and alternating current area scans. The closed-loop stage can travel 11 cm in each x-y-z direction at a minimum speed of 0.2 μm/s and maximum speed of 10,000 μm/s. The setup includes a 500 μm PEEK flow head (Ag/AgCl reference electrode, Pt counter electrode, aperture 0.196 mm²) and a peristaltic dual-channel pump for through-flow and refresh during scans at flow rates between 0.0063-6.3 mL/min. It is a movable electrochemical droplet cell for rapid, localized testing that can map activity and stability across films or arrays without building full devices.

The D2 PHASER is an all-in-one benchtop XRD with an integrated PC and LYNXEYE detector. It enables qualitative and quantitative phase analysis and crystallinity determination with a minimal footprint and low operation power (300 W). It has a table-top, user-friendly X-ray diffractometer located on the synthesis lab bench, enabling researchers with minimal training to obtain instant feedback on phase identification to guide the next step in reaction setup.

The WaveDriver 200 bi-potentiostat is a dual-channel electrochemical workstation supporting EIS, CV, pulse, and corrosion methods via AfterMath software. It allows for precision control of potential/current for two electrodes simultaneously. Researchers can precisely control and measure how materials conduct electricity and mechanisms in electrochemical reactions, which is useful for studying batteries, catalysts, and sensors.

This is a modular electrochemical workstation combining the EnergyLab XM potentiostat and BOOST 6V 100A booster for DC and EIS measurements up to ±100 A and 6V. It has a frequency range of 10 µHz–50 kHz, floating design, and a ±0.1 % accuracy, enabling impedance and pulse testing of low-impedance cells. It measures how energy materials and electrochemical systems behave under electrical stress — key for testing batteries, electrolyzers, and corrosion resistance.

The D2 PHASER is an all-in-one benchtop XRD with an integrated PC and LYNXEYE detector. It enables qualitative and quantitative phase analysis and crystallinity determination with a minimal footprint and low operation power (300 W). It has a table-top, user-friendly X-ray diffractometer located on the synthesis lab bench, enabling researchers with minimal training to obtain instant feedback on phase identification to guide the next step in reaction setup.