KyperX researches integrated energy and industrial systems and develops concepts for their application. The work examines how electricity, storage, hydrogen, equipment, materials and production capacity interact, and how those relationships affect technical performance and economics, with lower emissions as a development objective.
System Architecture
Energy and industrial system architecture
Electricity can serve equipment directly, move through storage, or be converted into an input such as hydrogen. Each pathway requires different infrastructure and operating conditions.
Renewable / grid electricity
Three routes to the process
Direct load
Storage
Electrolysis → hydrogen
Industrial process
Material / product
Three pathways from the same electricity. Motion shows direction only.
Topics
Energy and industrial systems in brief
A short summary of each topic. Technical detail, development programs, insights and project enquiries are on KyperX Energy, the dedicated energy and industry site.
Renewable Electricity
Industrial demand and electricity supply
Generation capacity alone does not define an industrial energy system. Demand shape, continuity, operating hours and grid conditions set what supply must support. KyperX has examined renewable and grid electricity against industrial loads.
A battery’s energy capacity does not define the duty it can serve. Power, usable energy, duration, recharge opportunity, losses and demand timing all matter. KyperX has investigated these relationships using industrial-load and electricity-price scenarios.
Hydrogen demand sets electricity requirements, while electrolyser performance and operating conditions set the infrastructure needed to produce it. KyperX has examined this relationship for hydrogen-based iron reduction.
Increasing one process’s capacity does not necessarily increase the useful output of the whole system. KyperX has examined equipment sizing, capacity relationships, resource utilisation, sourcing and capital requirements as connected questions.
Electricity supply, hydrogen, feed materials and production equipment are evaluated together. Three development areas set the configuration and its operating basis; Green Iron & Steel is the pathway that combines them.
01
Renewable Electricity & Energy Storage
KyperX evaluates renewable generation, battery and other energy-storage technologies, grid supply and electricity-system configurations for energy-intensive industrial applications.
ObjectiveIdentify electricity configurations that can support industrial operations reliably and at a commercially credible delivered cost.
How it is evaluated
Starting point
The work starts with the industrial load rather than with a preferred generation technology. Its operating schedule, power requirement, continuity needs and tolerance for variability shape the supply options that should be considered. Renewable production, grid connection, firm supply and storage are then evaluated as parts of one configuration.
Storage
In integrated industrial configurations, battery storage is a core element: it charges from renewable and grid supply and supplies the whole system through the same electricity line. Its capacity and duration depend on the operating strategy, price patterns, recharge conditions, efficiency, usable energy, equipment life and the firmness of other supply.
02
Hydrogen
KyperX evaluates hydrogen production, storage and supply as parts of an industrial energy system. Electrolysers are assessed in relation to electricity availability, hydrogen demand, operating flexibility and the process the hydrogen will ultimately serve.
ObjectiveDevelop hydrogen arrangements that satisfy a defined industrial duty at a commercially credible cost.
How it is evaluated
Supply route
The work examines whether hydrogen should be produced on site, supplied externally or supported by storage. It also considers the direct electricity demands of the industrial process alongside the electricity required for hydrogen production.
Current application
Hydrogen-based iron reduction is a major application of interest. In this context, electrolyser capacity, hydrogen-storage requirements, reduction-process demand and electricity infrastructure must be configured together.
03
Industrial Systems
KyperX investigates industrial production pathways in which material characteristics, process technology, energy demand and commercial performance must be evaluated together.
ObjectiveIdentify production configurations capable of combining suitable inputs, productive equipment, effective energy use and a competitive cost structure.
How it is evaluated
Production route
The work considers whether a feed material is compatible with a proposed process, what preparation it requires and how those choices affect downstream equipment and product requirements. Equipment capacity, process interfaces, resource utilisation, infrastructure and energy inputs are examined across the complete production route.
Current application
Iron and steel are a current major interest. This includes suitable iron-bearing resources, feed preparation and beneficiation requirements, hydrogen-based reduction and electric steelmaking.
04 · Pathway
Green Iron & Steel
Combines 010203
KyperX is investigating an Australia-focused pathway connecting suitable iron-bearing feed, renewable electricity, hydrogen-based direct reduction and electric-arc-furnace steelmaking.
The ambition is not limited to replacing one conventional process with a lower-emission alternative. The complete configuration must be capable of competing internationally on cost, product quality and supply reliability.
What has to fit together
Electricity supplyaffects hydrogen cost and equipment utilisation
Hydrogen production and storagemust align with the reduction process
Feed characteristics and preparationmust suit the selected reduction route
Electric steelmakingmust produce material that meets the intended product requirements
Current stage: Concept & preliminary analysis
Program objectiveThe objective is to determine the technical and commercial conditions under which an integrated Australian green iron-and-steel configuration could compete with conventional production. Competitiveness and emissions performance remain objectives that must be demonstrated through project-specific evaluation.
Electricity
Battery storage
Supplies the whole system
Electrolysis → hydrogen
Process equipment
Material route
Magnetite feed
Prep + pellets
Hydrogen DRI
EAF + refining
Cast + finish
Steel
Configuration relationships only. Alternative ironmaking routes are not shown as interchangeable components.
Most of the delivered cost of hydrogen-based steel is set before any ore is reduced: by how electricity is bought, firmed and stored, and by how hard the capital-intensive plant behind it is allowed to run.