GCRI · Advanced Industry and Robotics

Robotics in industry

Robotics and automation is the technology this platform stewards for the network. It covers the design, control, safety and integration of robots in production, logistics and inspection, and how they work alongside people.

02Application

What robotics and automation does here.

Robotics and automation design machines that sense, decide and act in physical environments. They are used in manufacturing, logistics, inspection and disaster response, and change patterns of operational risk and labour. In industry and robotics, work and skills and trade, resources and supply chains, automation can reduce human exposure to hazardous tasks and speed recovery operations. It also concentrates dependence on software, sensors and supply chains. The canonical description is on the STEM Commons.

Robot cell risk assessment

Each robot application is assessed for hazards from motion, tools and maintenance, and safeguards are chosen and verified against robot safety standards before operation.

Vision-guided handling

Machine vision lets robots handle variable parts. Performance is tested across part variations, lighting and wear, with failure modes documented.

Collaborative workstation design

Shared workstations are designed with force, speed and separation limits and ergonomic layouts, and validated with the workers who use them.

03Monitor

Verification and test.

The screen a team would use to follow this method: its measures, states and decisions. Names are examples and values are illustrative.

Verification and test

Industry and robotics · Robotics in industry · Run R-3272

Test campaignGCRI · Advanced Industry and Robotics

Requirements coverage

REQ-01 safe stop3333Covered
REQ-07 fault detection69Gaps
REQ-12 timing2618Covered

Method card

Method
Robotics and automation
Standard
traceability matrix
Reviewer
independent
Label
MODELLED

Findings by severity

050100count, illustrativeLowMediumHighCritical
Verification and test: the screen’s structure, terms and states for Industry and robotics.Example names and illustrative values; a design, not a record or a live system.
04Data

What the method consumes.

Datasets and records used by robotics and automation on this platform, with the role each plays and the label its values carry. Sources are listed in the source register.

DataRoleLabel
Robot specificationsCapabilitiesDECLARED
Safety validation recordsVerificationOBSERVED
Incident reportsFailure modesREPORTED
05Simulator

A shock through an input-output economy.

A loss of output in one sector propagates through the technical coefficients to its suppliers and customers, and recovers at the rate you set; the coefficients are teaching values, not national accounts. Teaching model with stated illustrative values, not a prediction.

Controls

Sector hit first (position in the list)
0
Size of the shock
30% of its output
Duration of the shock
30 days
Recovery rate
0.08 per day
Days simulated
180 days

Readouts

Output lost over the run
0.92% of a year’s output
Total over direct (multiplier)
1.59 times
Most affected other sector
Trade
Its peak inoperability
3.9%
Numbers, methods and sources
SectorPeak inoperability (%)Output weight (%)
Agriculture29.8827.3
Energy0.2315.2
Manufacturing0.5317.0
Transport and ports3.6817.1
Trade3.8910.7
Services0.4812.7

Methods

  1. Input-output analysis Leontief (1936); Miller and Blair (2009), Input-Output Analysis, Cambridge University Press
  2. Inoperability input-output model Haimes and Jiang (2001), Journal of Infrastructure Systems 7
  3. Dynamic inoperability and recovery Lian and Haimes (2006), Systems Engineering 9
  4. Uncertainty fan (parameter Monte Carlo) Spiegelhalter, Pearson and Short (2011), Visualising uncertainty about the future, Science 333
  5. One-at-a-time sensitivity (tornado) Saltelli and others (2008), Global Sensitivity Analysis: The Primer, Wiley

Data

The model runs on the teaching values set by the controls. To calibrate it for a place, read it against these admitted layers and series, which this page’s map can draw:

  • Seaports Natural Earth
  • Maritime chokepoints Nexus (named straits and canals at their published coordinates)
  • Railways Natural Earth
  • Major roads Natural Earth
A shock through an input-output economy. Illustrative teaching model: it runs on the values set by the controls, not on measured data. Methods: Input-output analysis (Leontief (1936); Miller and Blair (2009), Input-Output Analysis, Cambridge University Press); Inoperability input-output model (Haimes and Jiang (2001), Journal of Infrastructure Systems 7); Dynamic inoperability and recovery (Lian and Haimes (2006), Systems Engineering 9).
06Validation

How results are checked.

Systems are validated through simulation, staged field trials and conformance to functional safety standards. Operational monitoring checks performance after deployment.

CheckHow it is done
Standards verificationSafety functions are verified against applicable standards
Field performanceVision and handling are tested under production conditions
Worker feedbackCollaborative designs are reviewed with users

Robots may behave unpredictably in unstructured environments not covered by testing. Interaction with people raises safety and liability questions.

07Methods and evidence

How robotics in industry is modelled, measured and tested.

The model, its assumptions, its data and its uncertainty, in the form a scientist or engineer would check. Structures follow published methods. The values drawn are illustrative, not findings.

System model

The couplings between the systems in robotics in industry: signs of influence, a reinforcing and a balancing loop, and cross-links where stress jumps.

++−++IndustryWorkTradeCommunitiesEconomyR reinforcingB balancing
Causal loop diagram from the page’s systems; signs show the direction of influence. Illustrative structure for a system dynamics or network model, not estimated couplings.
FAIR guiding principles · GO FAIR and FORCE11W3C PROV · World Wide Web ConsortiumGuidance on consistent treatment of uncertainties · IPCCCEOS Analysis Ready Data · Committee on Earth Observation Satellites
09Stewardship

Who maintains the method.

Advanced Industry and Robotics stewards robotics and automation for the Consortium and reviews how it is applied across platforms.

10Questions

Questions and answers.

What are the limits of robotics and automation in this field?
Robots may behave unpredictably in unstructured environments not covered by testing. Interaction with people raises safety and liability questions.
How are results checked?
Systems are validated through simulation, staged field trials and conformance to functional safety standards. Operational monitoring checks performance after deployment.
Are the values on this page real?
The data names, roles and checks are real descriptions of practice. The canvas shows a design of the method’s use, not a run; no result is reported here.
Where else is this method applied?
The canonical method page lists every platform that applies it.
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