Automated Fuel Cell Catalyst Discovery and Optimization


The cutting edge Process Development Workstation Technology allows scientists to truly mimic
the final industrial production process and provides all the flexibility to optimize integrated reaction sequences, even if a complex configuration of reactors and feed vessels required.

Robustness and ease-of-use by design

The leading technology in overhead gravimetric dispensing / dosing (patented) combined with our quality by design reactor and process excellence, and our user-friendly software, allow you to accelerate, standardize and digitalize your fuel cell catalysts and membrane discovery as well as optimization workflows.

Key advantages

  • Decrease in cost per experiment up to 90+ %.
  • Increase in productivity by a factor of 10+.
  • Up to 36 experiments per run on an AUTOPLANT, up to 6 experiments per run on a MULTIPLANT.
  • Independent control of all process parameters in each reactor.
  • Independent and precise temperature and stirring control in each reactor.
  • Up to 8 independent gas and liquid feeds per reactor.
  • Gravimetric solid and viscous liquid dispensing.
  • 4-Needle Head for volumetric liquid handling and sampling.
  • Feeding and sampling under reaction conditions.
  • Cleaning in place (e.g. automated cleaning, inserts).
  • Dispensed amount, stirrer speed, temperature, pressure, time..., and other data are stored in a read only log file
  • Easy access to data with a convenient interface to pull results into Excel or
    virtually any other software.
  • Interface to DOE.

Enhance your efficiency and productivity with our workflow solutions!
Technical details

Chemspeed’s MULTIPLANT / AUTOPLANT AUTOCAL deck modularity allows the user to execute
and perform a variety of calorimetry workflows in a fully or semi-automated fashion.

Reaction preparation

  • Preparation of metal salt solutions and combinatorial mixtures thereof.
  • Preparation of homogeneous suspensions of carbon powder and aqueous reducing agent in parallel reactors.
  • Addition of liquid reagents and solutions.

Catalyst preparation optimization in tank reactor:

  • Variation of feeding rates / ratios.
  • Stirrer speed / geometry.
  • Temperature profiles.
  • Refluxing.
  • Hydrogen pressure (optional).
  • Up to 36 fuel cell catalysts per run.


  • Filtration and washing.
  • Evaporation to dryness.
  • Mixing with Nafion solution and electrolyte to prepare catalyst ink.
  • Reformatting into output vials or microtiter-plates.


  • Defined particle sizes by applying a dip-in sonifier probe.
  • Dip in titanium sonifier probe.
  • 100 W total power output.
  • Dynamic rinse station
  • Testing:
    • Option for integrated galvanostat / potentiostat.