Rod Electrodes

Matlabs offers a flexible selection of disc working electrodes featuring glassy carbon (1–20 mm), gold (0.5–6 mm), and platinum (0.5–6 mm) variants and many more. Ideal for techniques like cyclic voltammetry and differential pulse voltammetry, these discs provide a polished, inert surface conducive to high‑fidelity signal transduction. Available in a variety of sizes, they are suitable for low‑concentration analyses or high-current electrolysis experiments. Custom diameter options and tailored material selection ensure compatibility with potentiostats, rotating ring/disk setups, and custom cell geometries. Designed for seamless integration with standard electrode holders, they are widely used in laboratory research, sensor development, and corrosion studies.

MatLabs offers L‑type working electrodes in glassy carbon or gold, with diameters of 2–5 mm. The distinctive L‑shape enables the working electrode surface to align parallel to the reference probe, improving spatial access and minimizing IR drop. This geometry is especially advantageous in cells with tight spacing or where precise potential control is vital. Materials are chosen for electrochemical stability, and custom sizes or coatings are available upon request. L‑type electrodes are invaluable in micro‑voltametric setups, Spectro electrochemical cells, and compact testing vessels requiring efficient reference-electrode access.

Our plate working electrodes feature durable rectangular geometries in glassy carbon or platinum, across dimensional options from 10×10×0.1 mm to 30×30×0.5 mm. Their flat, expansive surfaces make them invaluable for studies in corrosion, battery materials, and sensor screening. The sturdy design ensures compatibility with flow cells and planar test fixtures. Material choice, glassy carbon for chemical robustness and platinum for high conductivity, makes them adaptable to diverse experimental requirements. These electrodes suit applications where uniform current distribution and reproducible surface area are critical.

Renewable carbon paste electrodes (2-5mm diameter) with modifiable surface for biosensing & trace analysis. Cost-effective, fouling-resistant design perfect for analytical applications.

Silver/Silver Chloride Electrode provides stable, mercury-free +0.197 V vs SHE potentials in saturated KCl. Durable, refillable, ideal for corrosion, sensors & electrochemical research needing reliable reference standards.

Silver Wire Pseudo Reference Electrode

Non-aqueous Ag/Ag+ Reference Electrode, ideal for organic electrochemistry, provides stable, reproducible potentials in water-free conditions. Perfect for electrosynthesis and molecular studies with daily calibration recommended.

Saturated Calomel Electrode (SCE) ensures stable, reproducible reference potential for precise electrochemical measurements in labs, using mercury, calomel, and saturated KCl.

This double-junction Saturated Calomel Electrode features a second salt bridge that limits ion crossover, ideal for low-chloride and fouling-prone systems with stable SCE potential.

Hg/HgO Reference Electrode

The Hg/Hg2SO4 reference electrode is a specialized electrochemical solution for chloride-free applications with acidic stability. This mercury/mercurous sulfate electrode provides reliable measurements for research/industrial use.

Reversible Hydrogen Electrode

The platinum wire electrode is used as the counter electrode/auxiliary electrode for electrochemical measurement dealing with half-cell reaction. Pt wire counter electrode is often used with our cell stand for experiments in electrochemical analysis.

Details of Graphite Rod Counter Electrode (We can also make this in copper, stainless steel, glassy carbon, nickel etc)

This electrode contains a coiled platinum wire fused in a glass tube. It is used as counter/auxiliary electrode in many electrochemical measurements involving three-electrode cell systems. Coiled Platinum electrodes are available in two sizes and are compatible with all electrochemical cell systems.

Platinum plate electrodes can usually be used as auxiliary/counter electrodes for various electrochemical measurements in three-electrode cell-system. Platinum is the first choice for counter electrode for many electrochemical applications due to its inertness and stability in different electrolyte. Compared to mesh and wire-type, platinum plate electrode has higher surface area to match and support the current generated on the working electrode in any chemical reactions. Due to platinum plate electrode’s resistance to oxidation, it is an excellent choice for anode in several electrochemical processes, such as the electrolysis of an acetate salt to give ethane and carbon dioxide. It is also used in several industrial application like cathodic protection and electroplating. Their stability in harsh environment provides accurate results.

This electrode is used a s counter/auxiliary electrode for electrochemical measurements in half-cell reactions. This electrode contains a platinum mesh attached with platinum wire mounted in a glass tube.

The output current in an electrochemical system is obtained across working electrode and counter electrode, on application of voltage across the working electrode and the reference electrode. The platinum gauze electrode acts a counter/auxiliary electrode with high exposed surface area for the occurrence of the electrocatalytic process.

Suitable for plate specimen with thickness:< 1mm.(customized cliping thickness is acceptable)

Suitable for plate specimen with thickness:< 1mm.(customized clipping thickness is acceptable)

Suitable for plate specimen with thickness:< 1mm.(customized clipping thickness is acceptable)

Suitable for plate specimen with thickness:< 1mm.(customized clipping thickness is acceptable)

GC Rotating Disk Electrode (RDE) The Glassy Carbon Rotating Disk Electrode (GC RDE) from ScienceGears is designed for high-precision kinetic and mechanistic electrochemical studies under controlled hydrodynamic conditions. The inert and smooth glassy carbon surface ensures excellent reproducibility, low background current, and chemical stability across a wide potential window, making it ideal for both aqueous and non-aqueous systems.

Au Rotating Disk Electrode (RDE)

Au Rotating Disk Electrode (RDE)

GC–Pt Rotating Ring-Disk Electrode (RRDE)

Pt–Pt Rotating Ring-Disk Electrode (RRDE)

GC–GC Rotating Ring-Disk Electrode (RRDE)

Au–Au Rotating Ring-Disk Electrode (RRDE)

Metal Bipolar-plate MEA Electrolytic Cell (Titanium) Built around high-purity metal plates (typically titanium), this MEA cell emphasizes electrical/thermal conductivity and mechanical strength for sustained operation at elevated current densities. Standard active areas include 10×10, 20×20, 30×30, and 50×50 mm with serpentine or parallel channels; gold-plated copper collectors are available in selected configurations to reduce contact resistance. Hardware options include double O-ring sealing and ports for temperature monitoring or heating, enabling tightly controlled test conditions for alkaline AEM electrolysis, PEM studies, and CO2RR. The modular architecture supports swapping channel plates or materials (e.g., nickel variants for specific chemistries) to align with durability and corrosion-resistance goals. This platform is ideal for researchers comparing catalyst layer performance across load cycles or optimizing water/gas management under practical current densities.

Bipolar-plate MEA Electrolytic Cell (Graphite) This MEA test fixture uses isostatic graphite flow plates to deliver chemical stability and uniform current distribution across the active area. Standard flow field sizes include 10×10, 20×20, 30×30, and 50×50 mm, with custom geometries available to match your study. Serpentine and multi-channel options support systematic evaluation of mass transport, pressure drop, and water management. Designed for reproducible compression and sealing, the cell accommodates PEM or AEM membranes for a broad range of studies. Typical applications include electrochemical CO2 reduction (catalyst screening, selectivity mapping) and alkaline anion exchange membrane water electrolysis. The robust frame and gasketing approach help minimize leakage and ohmic loss, while modular plates allow quick reconfiguration between experiments. Pair the cell with a potentiostat/galvanostat and gas handling to build a flexible, lab-scale platform for advanced electrocatalysis research.

Visual Membrane Electrode Electrolytic Cell This visual MEA cell integrates optical windows on both anode and cathode sides for in-situ observation and high-speed imaging—ideal for diagnosing gas evolution, flooding, and channel utilization under realistic operating conditions. The bipolar and guard plates are fabricated from high-purity titanium for conductivity and structural rigidity. Standard flow-field sizes span 10×10 to 50×50 mm, with common geometries including serpentine (cathode) and multi-parallel (anode) to probe distribution effects. The assembly provides stable compression of PEM/AEM membranes and leak-tight sealing for reproducible measurements across load cycles. Use it to correlate electrochemical performance with visible two-phase flow, bubble dynamics, and transport phenomena—accelerating optimization of catalyst layers, GDLs, and operating protocols.

Interchangeable-Channel MEA Electrolytic Cell Designed for rapid flow-field experimentation, this MEA cell uses high-purity PTFE bipolar plates for exceptional corrosion resistance. Researchers can interchange channel geometries—commonly serpentine—to study mass-transport and flooding behavior under identical operating conditions. Standard active areas include 10×10, 20×20, 30×30, and 50×50 mm, supported by titanium clamping hardware for strength and durability. The sealing design is optimized for repeatable compression of PEM or AEM membranes, and the modular plate system enables fast reconfiguration without compromising leak-tightness. Ideal for CO2RR, water electrolysis, and general electrocatalysis, the cell provides a flexible platform to screen catalysts, gaskets, and diffusion layers while keeping the cell body constant.

Unsealed glass electrochemical cell with PTFE lid and gas inlet/outlet ports

Sealed Electrochemical Cell

PTFE Electrolytic Cell – all-PTFE reactor with sealed lid for inert electrochemical applications

Jacketed Sealed Glass Cell – double-wall glass cell with PTFE lid

5-Port Electrolytic Cell – glass cell with five PTFE ports for electrodes and gas lines

Jacketed 5-Port Electrolytic Cell – double-wall glass reactor with five ports and PTFE seals

Turnkey MEA Complete Package — All Components Included

Open-Access Dual-Compartment Glass Membrane Cell

Gas-Tight Dual-Compartment Glass Membrane Cell

Temperature-Controlled Dual-Compartment Glass Membrane Cell

Gas-Tight Jacketed Glass PEC Cell with Quartz Window

Three-Chamber H-Cell – Gas-Tight Electrochemical Cell

A full set Electrode Polishing Kit This complete Electrode Polishing Kit streamlines surface renewal for disk-type working electrodes, helping you recover clean, reproducible electrochemical responses prior to CV, LSV, DPV and EIS. The set includes two 100 × 100 mm glass bases for flat, stable polishing; three alumina grades (1.0 µm, 0.3 µm and 0.05 µm, 20 g each) to execute a reliable coarse-to-fine sequence; five velvet and five microcloth pads to match abrasive step and finish; plus five 2000# and five 3000# abrasive papers for initial corrective work on stubborn films or scratches. Following an industry-standard workflow, users typically begin (only when needed) with very fine paper, then step through 1.0 µm → 0.3 µm → 0.05 µm alumina, rinsing well and using separate pads at every stage to avoid cross-contamination. This approach is widely recommended to maintain planarity and achieve mirror-like finishes on glassy carbon, platinum and gold electrodes, supporting consistent electron-transfer kinetics and low background currents. Applications span electrocatalysis (HER/OER, CO2RR), corrosion studies, battery and fuel-cell R&D, and electrochemical sensing—any workflow where surface state drives kinetics and data quality. The kit pairs well with standard disk electrodes (including RDE/RRDE tips) from leading suppliers and fits seamlessly into routine lab maintenance.

It is a metal structure that protects the interference of external electric field and electromagnetic waves with the experiments carried inside the cage. The outer body of the cell is grounded. For doing the experiment the electrochemical cell has to be placed in the center of the cage. Those are experiments that deal with low currents or high frequencies, and experiments where very precise (and accurate) measurements are required, Faradays cage can be used.

Nafion 115 Proton Exchange Membrane – 127 µm

Nafion 117 Proton Exchange Membrane – 183 µm

Flat corrosion cell with modular borosilicate chamber and PTFE/stainless parts. Supports planar metal coupons. Multi-port top allows reference and counter electrodes, gas inlet, optimized for reproducible EIS/dc measurements.​

Localized corrosion cell for coatings: seals defined test areas on metal sheets, available in 50 ml and other volumes. Supports rapid paint studies and inhibitor screening with reference/counter electrode ports.

Jacketed flat corrosion cell enables precise, temperature-controlled tests on planar coupons. Multi-port design fits reference, counter, and gas electrodes. Ideal for DC polarization and EIS studies.

The Battery Test Cell is a reusable electrochemical platform for in-situ analysis of rechargeable battery materials. It replicates coin/pouch environments with precision sealing enabling charge-discharge cycling, impedance testing and OCP monitoring.

The Solid State Battery Test Cell evaluates solid-state electrolytes and electrodes under controlled mechanical pressure. Stainless steel with PEEK/PTFE insulation and screw-nut compression supports φ16mm stacks, EIS, charge–discharge and in-situ te.

The Zinc Air Battery Test Cell enables metal-air system research using zinc anodes and ambient oxygen cathodes. Stainless steel with PTFE/PEEK insulation, air inlet, and O-ring sealing supports φ16mm electrodes for ORR/OER catalyst and cycle testing.

Spectroelectrochemical Cell – quartz cuvette-style cell with transparent optical windows and electrode ports

In-Situ Raman Spectroelectrochemical Cell

In-situ Raman Spectroelectrochemical Cell; Optical Window dia.:25mm