Research vision

Make scientific software work together.

The vision is a scientific ecosystem in which researchers and AI systems can discover trusted software, execute explicit operations, inspect results and preserve the evidence without hiding how the work was performed.

ReliableInspectableReproducibleInteroperable
The vision

Six principles for scientific AI that can be trusted.

The initiative is built around a simple progression: understand the scientific question, connect the right tools, prove what happened, preserve the evidence, respect the measurement boundary and build broader interoperability only when the underlying operations are explicit and inspectable.

Principle 0101

Understand

Translate a scientific question into explicit analysis intent, data requirements and constraints.

Principle 0202

Connect

Expose specialized bioimaging capabilities through typed and discoverable interfaces.

Principle 0303

Prove

Record parameters, tool versions, inputs, outputs and validation evidence so a workflow can be inspected.

Principle 0404

Preserve

Keep provenance attached to computation so datasets, configurations and results remain traceable across a research workflow.

Principle 0505

Measure

Keep segmentation, quantification and scientific measurement grounded in explicit computational tools and validation procedures.

Principle 0606

Interoperate

Build broader agent and tool interoperability only after scientific operations are explicit, inspectable and reproducible.

Scientific boundary

AI orchestrates. Scientific software measures.

The language model is positioned as a planning and interface component. It does not become the measurement engine.

Agent layer

What an agent can do

Interpret a research question, identify suitable operations, coordinate a workflow and explain the resulting evidence.

Scientific layer

What an agent must not replace

The scientific software that performs segmentation, measurement, visualization and other domain specific computation.

The sequence

Evidence comes before abstraction.

A rigorous scientific workflow establishes measurable operations before those operations are exposed through a broader interoperability layer.

01

Scientific question

Define the problem and its measurable claims.

02

Controlled experiment

Fix data roles, configuration and evaluation protocol.

03

Failure evidence

Diagnose where and why a method fails.

04

Robustness

Evaluate interventions against a frozen baseline.

05

Interoperability

Expose proven operations through explicit interfaces.

The standard

Science first. Software second. Claims last.

Every capability should be measurable, reproducible and inspectable. The architecture can become broader as the evidence becomes stronger.