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Technical capabilities

Research, engineering and technology development

Capabilities in computational engineering, scientific R&D, emerging technologies, invention development and digital architecture

Integrated engineering, materials, electronics and digital-design visualization

Computational engineering

Engineering decisions supported by transparent computation

Work may combine fluid, thermal, structural, electromagnetic, circuit, battery and power-system models. Each engagement begins by fixing the technical question, available inputs, operating envelope and acceptance criteria.

Computational fluid, thermal and structural engineering analysis

Defined services

Computational work packages

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Multiphysics Product Qualification

Understand how a product behaves when fluid, thermal and structural effects interact

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Thermal & Flow Optimisation

Find where thermal or hydraulic performance is being lost, then optimise it

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Computational Materials & Process R&D

Reduce the experimental search space before committing laboratory and pilot resources

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Battery & BESS Optimisation

Size and operate storage around defined battery behaviour, project conditions and system objectives

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Microgrid & Power-System Optimisation

Optimise distributed energy while respecting the electrical system within which it must operate

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Electronics, RF & Electromagnetic Qualification

Find electromagnetic, signal-integrity, parasitic and thermal risks before hardware reaches production

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Scientific R&D

Computation that sharpens the research question

Scientific models can reduce the search space, expose uncertainty and direct experimental effort toward the most informative next step. Computational predictions remain distinct from experimental validation.

Materials, molecular and microfluidic scientific research visualization

Materials and interfaces

Screening, electronic and atomistic studies, phase stability, coatings, interfaces and property-led candidate selection.

Processes and reactions

Thermodynamic, kinetic, transport and process-system analysis used to narrow experimental and operating choices.

Energy research

Storage, conversion, thermal systems, electrochemistry, fuels and integrated energy questions.

Research-use life sciences

Computational work for research questions in biological and molecular systems, not medical diagnosis, treatment or clinical decision-making.

Scientific machine learning

Data-led models connected to physical assumptions, uncertainty and a defined scientific decision.

Cross-disciplinary studies

Problems that sit between established disciplines and require a deliberately integrated model.

Frontier research

Research in emerging technologies

Current areas include fusion energy, quantum science, AI research, propulsion systems, robotics and aerospace

Conceptual quantum research system

Fusion energy

Plasma systems, magnets, materials, thermal loads, power systems and supporting controls.

Quantum science

Computation, sensing, communications, devices, cryogenic systems and control interfaces.

AI research

Scientific machine learning, intelligent control and data-led discovery tied to defined technical questions.

Propulsion systems

Thermal, electric and plasma propulsion, supporting power, materials, controls and performance models.

Robotics

Sensing, perception, autonomy, manipulation, mobility and operation in precise or difficult environments.

Aerospace & space

Aerodynamics, vehicle systems, spacecraft subsystems, sensing, power, communications and space-environment effects.

Inventions & licensing

Develop the technology and the evidence around it

Tri-Lotus works on its own R&D and with inventors, researchers, startup founders and technology users on intellectual property and new technologies. Terms and licensing structures are considered individually.

Precision prototype progressing from digital concept to developed technology
  1. Identify

    Define the technical proposition, intended use and evidence already available.

  2. Develop

    Advance the concept through analysis, modelling and structured technical work.

  3. Qualify

    Build evidence appropriate to the technology’s present stage and intended decision.

  4. Protect

    Organise technical material to support appropriate intellectual-property advice and filings.

  5. License

    Develop a licensing structure suited to the technology, counterparty and intended use.

Digital architecture & BIM

Digital models structured for project decisions

Work may include computational design studies, BIM model development, structured information, coordination support and environmental or engineering analysis where the necessary basis is available.

Parametric building and BIM model with environmental airflow

Computational design

Option studies and parameter-led design exploration for a defined brief.

BIM and information

Model development, structured information and agreed coordination outputs.

Analytical support

Relevant environmental or engineering analysis where inputs and boundaries can be established.

Statutory architectural services, professional seals, local approvals and construction supervision are not implied and remain with appropriately licensed professionals.

Start with the technical question

Share the objective, available information, constraints and the decision the work must support

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