ELM Laboratory

Designing the future for humanity.

Research and design across energy, connected electronics, intelligent systems and knowledge.

Explore the laboratory

From materials
to systems.

Understand the parts. Give them a purpose. Consider how they work together.

Explore three connected scales of technology.

Materials, energy and electronics.

A material's strength, a cell's chemistry and a circuit's architecture set the possibilities and limits of a design.

Studio macro illustration of adjacent silicon dies with rainbow-like reflections across their fine surface patterns
AI-generated macro study of a patterned silicon wafer.
In focus

Form and material shape one another.

Materials and mechanics

A material has to work within a physical form: carrying loads, transferring heat and surviving repeated use. Geometry, joining methods and manufacturing choices shape its behavior alongside the material itself.

Cells and energy storage

A battery's usefulness depends on more than its stored energy. The cell, its thermal conditions, protective electronics and physical arrangement have to suit the work expected of it. Chemistry becomes a question about the behavior of a complete device.

Microelectronics

Processors, application-specific chips and sensing circuits place different demands on power, computation and physical space. Their architecture influences how a device reads its surroundings, processes information and responds.

Explore the research directions

Putting capability to work.

A solution starts with a need. Hardware, software and the way people use them come together to make a task easier to understand and carry out.

The need

Understand the request.

Bring together

Context and choice.

The outcome

A deliberate action.

From a practical need to a useful outcome. Select a subject to explore.
In focus

Clear choices help people act with understanding.

Human control

Before a person approves an action, they need to understand what is being requested and what will happen next. Clear information and deliberate choices make that control usable in everyday work.

Connected workflows

Work often moves between applications, information and people. Bringing the right context into each handoff helps a task continue without losing its meaning or responsibility.

Assisted work

An assistant becomes useful when relevant context and suitable tools come together around a task. The work it prepares should remain understandable, reviewable and within the scope a person has chosen.

See the principles behind the design

Designing the whole operation.

Equipment, software, information and people depend on one another. Design follows those relationships through ordinary work, change and recovery.

Equipment, information, decisions and action. Feedback connects the result to the next decision.

Illustrative relationships. Select a context to follow a different path.
In focus

A measurement becomes part of a decision.

Manufacturing

A measurement becomes more useful when it can be connected to a material, a process step and a result. Bringing machine events, traceability and operator decisions together helps make production understandable and easier to improve.

Energy

A storage system has to suit its load, available supply and operating conditions. Cells, power conversion, monitoring and control are parts of one arrangement. Their behavior matters during both ordinary use and interruption.

Enterprise IT

An enterprise workflow may span existing applications, shared information and several teams. Their responsibilities and handoffs need to be clear, including how changes are introduced and failures are recovered.

Banking

A customer request may pass through identity checks, several services and a record that must remain consistent. System design concerns the whole path, including what happens when one part cannot respond.

Explore selected work

Experience at every scale informs the next design.

Understanding that carries forward.

Every design carries assumptions, trade-offs and lessons. Keeping the reasoning alongside the result allows the next person to maintain it, question it and improve it.

That continuity matters alongside the hardware and software.

The technologies supporting the work

Questions, principles, practice.

Questions before products.

The areas of inquiry behind the work, from energy and electronics to intelligent systems.

Research directions

How technology should behave.

Human judgment, useful friction and the choices that shape everyday use.

Design principles

From inquiry into practice.

Earlier designs and explorations in operations, telemetry, traceability and connected devices.

Selected work