Proposed capability · subject to evidence gates
Research precision, navigation and safe human control without pretending a robot is a surgeon.
The technical case remains rigorous while the public meaning stays clear and inspectable.
A future research environment could evaluate kinematics, registration, sensing, haptics, teleoperation, latency, ergonomics, image guidance and failure recovery using synthetic phantoms and isolated research systems.
The admissible question would be engineering performance in a declared simulation context, not clinical superiority. Current robot-assisted surgical systems remain controlled by trained clinicians; autonomy, intended use and evidence must not be overstated.
A surgical robot does not decide to operate. A trained clinician controls the system, and every movement, image and failure response needs to be understood.
This proposed laboratory would use synthetic models to study accuracy and human control. It would not treat patients or claim that a research result proves clinical benefit.
Can a surgeon-controlled research system follow a defined path on a synthetic phantom while remaining within declared position, force, latency and recovery limits?
Decision useDetermine whether one engineering concept merits redesign, further simulation, specialist medical-device development or a stop decision.
The Jacobian connects joint motion to tool motion. The impedance expression describes one way to relate position and velocity error to commanded force; neither demonstrates clinical safety or effectiveness.
ẋ = J(q)q̇ · F = K(xd - x) + B(ẋd - ẋ)Every system would need justified demand, competent operators, utilities, safety controls, maintenance and an accountable intended use.
Evaluate teleoperation and tool-motion concepts in an isolated test environment.
Study input ergonomics, scaling and force-feedback hypotheses.
Measure interaction forces against a calibrated synthetic reference.
Quantify reference, tool and target position in a declared coordinate system.
Provide repeatable non-biological test tasks for navigation, manipulation and imaging.
A robotics safety lead, medical-device engineer and appropriately qualified clinical adviser define the task, limits and meaning of results.
No system may operate on a person or animal, select treatment, extend its task, suppress an alarm or claim autonomous surgery, clinical safety or clinical effectiveness.
An engineering evidence package covering task definition, calibration, accuracy, force, latency, human factors, faults and unresolved medical-device requirements.
Stop when calibration, force limits, registration, operator control, fail-safe behaviour, intended use or regulatory ownership is inadequate.
Shared governance connects Glasgow and Hyderabad. Climate, infrastructure, demand and regional value keep their designs materially different.
The campus expression is a planning hypothesis only. It does not represent a secured site, approved design, funded programme, partner commitment or operating capability.
The campus expression is a planning hypothesis only. It does not represent a secured site, approved design, funded programme, partner commitment or operating capability.
A controlled phantom test of one engineering claim.
A calibration, performance and failure-mode evidence package, not certification.
A governed platform for human-machine intervention research.
A scoped research study with rights, safety and disclosure terms.
Repeatable evaluation of feedback, ergonomics and task measurement.
A fit-for-purpose comparison without clinical competence claims.
Future intent is not current performance. Every measure requires a defined workflow, boundary and accountable record.
Illustrative proposed experiment envelope. This is not performed work, a protocol, an installed capability, a service offer, a validated method or evidence of an operating laboratory. No GMP, GLP, manufacturing-licence, clinical or regulatory-readiness status is claimed. Any future work described here is simulation- and phantom-based only; no human, animal, cadaveric or clinical activity is represented.
Simulation and synthetic phantoms only at the proposed stage
Machinery risk assessment, guarding, interlocks and emergency stop
Medical-device intended-use and responsible manufacturer explicitly defined before any later route
Human-factors and cybersecurity review
No clinical, patient, animal or cadaveric activity
No clinical-performance percentage or superiority claim without applicable evidence
These sources inform the proposed programme. They do not prove VARUNÉ capability, affiliation, performance, compliance or regulatory acceptance.
Explains current surgeon-controlled systems, cleared uses, training and evidence cautions.
CaveatFDA information does not authorise a VARUNÉ system or support a general clinical-benefit claim.
Open primary sourceProvides a systematic framework for discussing degrees of assistance and autonomy in cleared systems.
CaveatThe review covers a defined jurisdiction and period and does not establish safety for a future system.
Open primary sourceSupports governance, mapping, measurement and management of AI risks across a defined context of use.
CaveatThe voluntary framework is not a validation certificate or sector-specific regulatory authorisation.
Open primary sourceA conversation or published concept does not create a partnership, service, installed capability, programme commitment or authority to use another organisation’s name.