Electrochemical technologies.
Realise Labs develops physical electrochemical technologies, using its modelling and engineering capabilities to design, optimise and validate real-world systems. All hardware work is in development and validation — no commercial readiness, TRL, efficiency or capacity claims are made.
Discuss our hardware development →Hydrogen, reactors and systems.
Electrochemical reactors
Reactor concepts designed and screened against physics-based models before fabrication.
Hydrogen technologies
Cell and stack level development work rooted in electrolyser engineering experience.
Ammonia production technologies
Electrochemical routes to ammonia — in development and validation.
Electrolyser systems
System-level integration, balance of plant and operating strategy.
Prototype development
Physical builds derived from optimised design envelopes, not scaled-up lab geometry.
Experimental validation
Test campaigns designed to confirm or correct model predictions.
Scale-up and industrialisation
Manufacturability, process windows and reliability studied in parallel with development.
Developing electrochemical routes for ammonia production.
Realise Labs is developing an electrochemical technology platform for ammonia production. It represents the physical hardware side of the company and its ambition to move beyond engineering software into proprietary deep-tech products. The technology is being developed and validated.
Schematic placeholder — reactor imagery to be added
Conceptual illustration of the target architecture. Technology in development.
Development status
Early-stage development and experimental validation.
Media
Reserved for prototype photographs, video and technical diagrams.
Experimental data
Reserved for validated experimental results as they become available.
Roadmap
Model → prototype → validate → iterate, with industrialisation studied in parallel.
[ Prototype photos ]
Bench cells, rigs and reactor targets.
Reserved frames for prototype photography and bench imagery. Content is published only once the corresponding hardware exists and has been documented.
Photo pending — cell assembly
Click to expandFig. 01 · Bench cell, exploded view
Photo pending — test rig
Click to expandFig. 02 · Test rig and instrumentation
Render pending — reactor module
Click to expandFig. 03 · Reactor module, target architecture
Render pending — process skid
Click to expandFig. 04 · Balance of plant, target layout
[ Experimental results ]
Empty axes. Honest data.
Axes are defined; datasets are intentionally empty. No measured performance, efficiency or production-rate figures are claimed at this stage.
Dataset pending
Plot 01 · Current density vs. applied potential
Dataset pending
Plot 02 · Selectivity vs. operating window
Dataset pending
Plot 03 · Faradaic efficiency vs. cycle
Dataset pending
Plot 04 · Stability map over time
Current density
mA / cm²
Pending measurement
Applied potential
V vs. ref
Pending measurement
Faradaic efficiency
%
Pending measurement
Stability window
h
Pending measurement
[ Development milestones ]
Phase by phase. Evidence first.
An honest view of where the work stands. Phases advance only when experimental evidence supports the step — no TRL, readiness or commercial availability is claimed.
Phase 01
OngoingPhysics and modelling
Reaction pathways, transport limitations and cell architecture explored in physics-based models.
Phase 02
In progressBench-scale cell
Small-format electrochemical cell built to probe model assumptions under controlled conditions.
Phase 03
PlannedExperimental validation
Structured test campaigns to confirm or correct predictions. No performance figures published yet.
Phase 04
PlannedPrototype reactor
Integrated reactor derived from validated design envelopes, with balance of plant defined.
Phase 05
Not startedIndustrialisation study
Manufacturability, process windows and reliability assessed in parallel with development.
Status last reviewed on publication. Figures, images and datasets appear here as they are produced and verified.