Skip to content
AINNA NeuralOps Industrial
AINNA · NEURALOPS · GOVERNED ROBOTICS

Governed robotics at the industrial edge.

Sensors, vision and C&I stay local. Recommendations pass a safety gateway before the robot moves.

Detached industrial intelligence sits beside the cell — not in a distant cloud — so perception, memory and reviewable recommendations remain available when the network does not.

Robotics laboratory
Offline-first cell Safety gateway No direct actuation
  1. Sensors
  2. Vision
  3. Edge
  4. C&I gateway
  5. Robot cell
SIMULATED CELL · NO ACTUATOR CONTROL GATEWAY STANDBY
Architectural simulation · motion is illustrative
02 · INDUSTRIAL PROBLEM

The cell has data. It often lacks local context.

A robot, cobot or AMR can run a deterministic cycle and still sit beside disconnected vision, manuals and maintenance history. Cloud round-trips do not belong on the motion path.

01

Robot cell without local context

Encoders and I/O exist. Fixture history, vision offset and last maintenance state often live somewhere else.

02

Vision disconnected from control

Cameras can see a miss-pick while the controller continues a programmed path because perception never entered the cell policy.

03

PLC without reviewable reasoning

Deterministic control must stay authoritative. That still leaves a gap for local, auditable recommendations beside the cell.

04

Cloud-dependent motion support

If perception or memory wait on a WAN path, the cell loses context the moment the plant is segmented or offline.

03 · FIVE-LAYER ARCHITECTURE

Signal upward. Governed motion downward.

Click a layer to inspect it on the robot cell. AI recommendations must pass approved control policy before the robot controller, PLC or DCS may move equipment.

MEASUREMENT + CONTEXT ↑
↓ RECOMMENDATION → APPROVED POLICY → ROBOT CONTROLLER / PLC

On the cellSelect a layer to see which part of the robot cell it owns.

AI does not replace deterministic safety-critical control. AI / Detached Agent → Recommendation → Approved Control Policy → PLC / DCS / Robot Controller → PID / Sequence / Interlock / Safety → Physical Equipment
04 · ROBOT CELL

The cell is the surface. The gateway is the law.

NeuralOps Robotics sits beside robot, cobot, AMR and autonomous-equipment cells. Perception and memory are local. Motion remains behind the safety gateway. Use the misalignment walkthrough for a six-beat sales pass that ends on HOLD.

SIMULATED CELL · NO ACTUATOR CONTROL GATEWAY STANDBY
Perception feeds the cell. The safety gateway decides whether the robot controller may move.
Architectural simulation · motion is illustrative
01

Perceive beside the fixture

RGB, thermal, torque and I/O stay on the cell node. The agent receives validated summaries, not a raw 30 FPS dump to the cloud.

02

Recommend, do not actuate

The detached robotics agent can request an inspection, a hold or a normal cycle. It cannot write a joint command.

03

Permit only through policy

The safety gateway, PLC and robot controller remain authoritative. A HOLD keeps the motion path closed.

04

Keep fleet context local

AMR dock windows, cell memory and maintenance history remain available if headquarters or cloud drop away.

Robot Technician Vision QC Predictive Maintenance Robot Cell Manager AMR Intelligence Operator Assistant
Need motion planning, cobot zones, fleet congestion or energy feasibility?

Those simulators live in the robotics laboratory. This page stays the industrial entry and cell story.

Open robotics laboratory
05 · PERCEPTION FOR THE CELL

Machine perception with local engineering context.

Model families are architectural examples, not exclusive dependencies. Robot vision is the primary feed into the cell.

EDGE AT SOURCE

Process close to the sensor

Illustrative raw streams such as vibration at high sample rates are reduced to RMS, peak, dominant frequency and an equipment state on the node.

Transmit intelligence, not an unnecessary raw flood.
RGB + THERMAL + TORQUE

Weak signals, stronger cell context

A part can look normal in RGB while a joint is hot or a pick is offset. Fusion is a simulated example, not a validated failure-prediction claim.

Vision offset +1.8 mm Joint 3 thermal 93°C Torque +11%
CELL VISION

Robot vision first

Pose and object context on the fixture. Quality, PPE and safety observations remain advisory unless a site policy already owns them.

Robot Vision

pose + object context · small VLM / Qwen-VL where justified

Defect Detection

custom CV / segmentation · small VLM / Qwen-VL where justified

Thermal Hotspot

thermal detection model · small VLM / Qwen-VL where justified

Quality Inspection

rule + vision fusion · small VLM / Qwen-VL where justified

Object Detection

YOLO / compact detector · small VLM / Qwen-VL where justified

PPE Detection

vision policy observation · small VLM / Qwen-VL where justified

Human / Machine Interaction

zone and activity context · small VLM / Qwen-VL where justified

Safety Observation

advisory observation only · small VLM / Qwen-VL where justified

06 · CONTROL & SAFETY GATEWAY

Supervisory intelligence beside deterministic control.

The robot controller, PLC, DCS and safety system remain the only path to physical motion. NeuralOps stops at a reviewable recommendation.

RGB / IR Torque VIB-101 Cell I/O
DETACHED AGENT · ADVISORY SAFETY GATEWAY PLC / DCS / ROBOT CONTROLLER PID · Sequence · Interlock · Joint / AMR

Deterministic control

PLC, DCS, SIS, PID, sequence, permissive, interlock and robot controller remain authoritative.

AI supervisory intelligence

Correlates history, condition and manuals, then proposes a reviewable recommendation. No browser-to-PLC path.

Instrument still becomes context

A transmitter such as PT-101 can carry health, drift and calibration age into the cell agent. Values on this page are simulated.

07 · AGENT HIERARCHY

Summaries move upward. The cell stays first.

Instrument and equipment agents still exist. The robot cell and fleet agents are the primary operational surface on this page.

Instrument Agent validated transmitter / I/O summary
Equipment Agent pump, drive or tool context
Robot Cell Agent vision + torque + fixture + policy
Fleet / AMR Agent dock, route and local battery context
Plant Agent validated summary + provenance
Engineering Agent review queue, not actuation
EQUIPMENT CONTEXT

Supporting assets stay local

A pump or drive beside the cell can still expose health, anomaly score and an approved inspection workflow. That context feeds the cell. It does not replace the robotics agent.

CELL MEMORY

TCP, fixture and cycle history

Repeatability drift, last fixture check and thermal trend stay on the edge node so a hold request has evidence without a cloud round-trip.

08 · ROUTING & OFFLINE CELL

Expensive reasoning only when required. Motion never waits on the WAN.

Smart routing

Cell camera 30 FPS Fast vision model Normal cycle?
YESLog locally
NOSmall VLM → detached agent → RAG + history → hold or inspect request

Cloud loss does not stop the cell

CELLHQCLOUD
INTERNET: CONNECTED
Local vision PLC / robot controller Cell memory Safety gateway Anomaly flags Operator dashboard

Reconnection performs controlled selective synchronisation, not uncontrolled raw-data dumping. The local cycle does not require the cloud.

09 · PRODUCT FAMILY

Robotics is the product surface. The stack stays underneath.

ROBOT

NeuralOps Robotics

Robot, cobot, AMR, drone and autonomous-equipment intelligence beside a safety gateway.

  • Cell perception and fixture memory stay on the edge node.
  • Recommendations enter approved policy before the robot controller.
  • Fleet and AMR context remain available when the WAN does not.
VISION

NeuralOps EdgeVision

RGB, infrared, thermal vision and multi-modal sensor fusion for the cell.

SENSE

NeuralOps EdgeSense

Sensor intelligence, TinyML, instrumentation and condition monitoring.

CONTROL

NeuralOps Control Intelligence

PLC, DCS, SCADA and C&I supervisory analysis beside deterministic control.

10 · INDUSTRIES

Cells first. Other industrial constraints stay available.

Capability remains architecture-defined and subject to site engineering. Featured verticals are where robots, cobots or AMRs are the visible surface.

More industrial contexts
05 Manufacturing Manufacturing & Advanced Industry

Machine health and adaptive quality context. Capability remains architecture-defined and subject to site engineering.

06 Semiconductor Manufacturing & Advanced Industry

Tool health and thermal process context. Capability remains architecture-defined and subject to site engineering.

07 Aerospace Manufacturing & Advanced Industry

Asset genealogy and controlled maintenance support. Capability remains architecture-defined and subject to site engineering.

08 Medical Devices Manufacturing & Advanced Industry

Inspection evidence and equipment monitoring. Capability remains architecture-defined and subject to site engineering.

09 Cement Manufacturing & Advanced Industry

Kiln, mill and conveyor condition context. Capability remains architecture-defined and subject to site engineering.

10 Steel & Metal Manufacturing & Advanced Industry

Drive, furnace and rolling-line intelligence. Capability remains architecture-defined and subject to site engineering.

11 Paper & Pulp Manufacturing & Advanced Industry

Web, roll and rotating-equipment monitoring. Capability remains architecture-defined and subject to site engineering.

12 Textile Manufacturing & Advanced Industry

Motor, loom and quality observation. Capability remains architecture-defined and subject to site engineering.

13 Printing & Packaging Manufacturing & Advanced Industry

Registration, defect and line-state intelligence. Capability remains architecture-defined and subject to site engineering.

14 Oil & Gas Energy & Utilities

Rotating equipment and process anomaly context. Capability remains architecture-defined and subject to site engineering.

15 Petrochemical Energy & Utilities

C&I correlation and maintenance reasoning. Capability remains architecture-defined and subject to site engineering.

16 Power Generation Energy & Utilities

Turbine, pump and auxiliary-system intelligence. Capability remains architecture-defined and subject to site engineering.

17 Renewable Energy Energy & Utilities

Distributed inverter and asset health. Capability remains architecture-defined and subject to site engineering.

18 Water Treatment Energy & Utilities

Pump, chemical and water-quality context. Capability remains architecture-defined and subject to site engineering.

19 Wastewater Energy & Utilities

Aeration, flow and equipment monitoring. Capability remains architecture-defined and subject to site engineering.

20 Utilities Energy & Utilities

Local asset intelligence and selective synchronisation. Capability remains architecture-defined and subject to site engineering.

21 Chemical Processing Energy & Utilities

Controlled process intelligence beside deterministic control. Capability remains architecture-defined and subject to site engineering.

24 Smart City Infrastructure & Mobility

Distributed local infrastructure intelligence. Capability remains architecture-defined and subject to site engineering.

25 Railway Infrastructure & Mobility

Trackside, rolling-stock and depot monitoring. Capability remains architecture-defined and subject to site engineering.

26 Airports Infrastructure & Mobility

Baggage, facilities and airside equipment context. Capability remains architecture-defined and subject to site engineering.

27 Construction Infrastructure & Mobility

Fleet, safety observation and equipment health. Capability remains architecture-defined and subject to site engineering.

28 Telecommunications Infrastructure & Mobility

Edge-site power and environmental monitoring. Capability remains architecture-defined and subject to site engineering.

29 Marine Infrastructure & Mobility

Vessel machinery and onboard detached assistance. Capability remains architecture-defined and subject to site engineering.

30 Shipping Infrastructure & Mobility

Fleet asset memory and selective synchronisation. Capability remains architecture-defined and subject to site engineering.

31 Agriculture Agriculture & Environment

Pump, climate and machinery intelligence. Capability remains architecture-defined and subject to site engineering.

32 Plantation Agriculture & Environment

Distributed field equipment and processing assets. Capability remains architecture-defined and subject to site engineering.

33 Forestry Agriculture & Environment

Remote equipment and environmental observation. Capability remains architecture-defined and subject to site engineering.

34 Environmental Monitoring Agriculture & Environment

Local sensing and offline data continuity. Capability remains architecture-defined and subject to site engineering.

35 Aquaculture Agriculture & Environment

Water quality, aeration and feeding equipment. Capability remains architecture-defined and subject to site engineering.

36 Fisheries Agriculture & Environment

Cold-chain and vessel equipment context. Capability remains architecture-defined and subject to site engineering.

37 Disaster Management Agriculture & Environment

Offline sensing and local situational support. Capability remains architecture-defined and subject to site engineering.

40 Logistics Logistics & Supply Chain

Fleet, hub and handling equipment context. Capability remains architecture-defined and subject to site engineering.

41 Cold Chain Logistics & Supply Chain

Temperature integrity and refrigeration health. Capability remains architecture-defined and subject to site engineering.

42 Distribution Facilities Logistics & Supply Chain

Dock, conveyor and energy-system monitoring. Capability remains architecture-defined and subject to site engineering.

43 Data Centre Buildings & Facilities

Cooling, power and equipment anomaly context. Capability remains architecture-defined and subject to site engineering.

44 Smart Buildings Buildings & Facilities

HVAC and facilities intelligence. Capability remains architecture-defined and subject to site engineering.

45 Facilities Management Buildings & Facilities

Asset memory and maintenance coordination. Capability remains architecture-defined and subject to site engineering.

46 Retail Buildings & Facilities

Refrigeration and site equipment monitoring. Capability remains architecture-defined and subject to site engineering.

47 Hotels & Resorts Buildings & Facilities

Plant-room and facilities assistance. Capability remains architecture-defined and subject to site engineering.

48 Healthcare Facilities Buildings & Facilities

Critical-facility equipment context without clinical claims. Capability remains architecture-defined and subject to site engineering.

49 Laboratories Research & Critical Operations

Instrument health and local knowledge support. Capability remains architecture-defined and subject to site engineering.

50 Education / Training Research & Critical Operations

Safe simulated industrial learning environments. Capability remains architecture-defined and subject to site engineering.

51 Research Centres Research & Critical Operations

Edge experimentation and equipment memory. Capability remains architecture-defined and subject to site engineering.

52 Secure Facilities Research & Critical Operations

Segmented local operation and controlled synchronisation. Capability remains architecture-defined and subject to site engineering.

11 · INTERACTIVE LIVE DEMO

Simulated robot cell interface.

Default scenario is a governed cell cycle. Use Misalignment walkthrough for a one-shot sales beat: scan, fuse, hold request, no motion grant. Values are simulated. There is no live plant connection and no actuator control.

SIMULATED DEMO DATA · NO LIVE PLANT CONNECTION · NO ACTUATOR CONTROL
SIMULATED CELL · NO ACTUATOR CONTROL GATEWAY STANDBY
Joint temperatures inside the simulated envelope
Cycle time (s)0
Repeatability (mm)0
Joint 3 (°C)0
Torque (%)0
TCP / fixture offset (mm)0
Drive current (%)0
Cell health (%)0
Anomaly score0

Normal Cycle

RGB:

Reasoning:

Recommended action:

Production context:

NeuralOps Robot Cell Demo

12 · DIGITAL TWIN / SYSTEM MAP

Select an asset. The robot cell is the default.

ROBOT AMR CAMERA CONVEYOR PUMP VALVE MOTOR TANK SENSORS
13 · GOVERNANCE · STACK · WHY DETACHED

Controlled intelligence, segmented operation.

No certification claim is made. Architectural examples are not a deployment claim.

AI ADVISORY
NO DIRECT ACTUATION
Segmentation Least Privilege Encrypted Communications Role-Based Access Audit Logs Local Operation Controlled Actuation Secure Sync Deterministic Safety AI Advisory Boundary
No browser-to-PLC command path. No direct actuator API. Recommendations enter an approved engineering workflow before deterministic control. The robot moves only if the controller and safety system already allow it.

Local cycle

Perception and memory stay beside the cell. Potential architectural benefit, subject to site design.

No cloud on the motion path

WAN loss is not itself a reason for the controller to stop a permitted local sequence.

Hold on vision fail

Low-confidence perception can request a hold. The gateway and controller remain authoritative.

Offline continue

Selective synchronisation waits. Raw cell video is not dumped on reconnect.

Embedded

TinyML directly in a sensor or device.

Edge Node

One dedicated edge computer per machine or cell.

Cell

One detached node for a robot cell and nearby assets.

Plant

Plant-level intelligence aggregation.

Hybrid

Selective HQ or cloud synchronisation.

Conventional

Robot cellRaw streamsCloudAIResponseController

NeuralOps

Robot cellLocal perception + memoryReviewable recommendationSafety gatewayRobot controller

Robotics

ROS 2Robot ControllerCobotAMR / AGVAutonomous Systems

AI

TinyMLSLMVLMComputer VisionAnomaly DetectionPredictive ModellingSensor Fusion

Industrial

PLCDCSRTUSCADAOPC UAMQTTModbusHARTIO-LinkCANEtherCAT

Edge

MCUIndustrial PCNVIDIA JetsonEdge GatewaySTM32ESP32
AINNA
CLICK ME
Rotating Earth

Site Sections

No section data available yet.

Sites with documented sections will appear here.