IoT, Edge & Digital Twins
Connect assets, understand operations and act in real time.
Build secure connected ecosystems that turn operational data into monitoring, prediction, control and new services.
The problems this solves
What usually brings people here
If one of these sounds like your situation, this is the right page.
Our equipment tells us it has failed, not that it is about to.
Maintenance is reactive. Unplanned downtime is expensive and the data needed to predict it is either not collected or not reaching anyone.
Operational data never reaches the people who could act on it.
Sensors and control systems produce data that stays trapped in OT networks, disconnected from the enterprise systems where decisions get made.
We cannot see what is happening across sites.
Each facility reports differently, on different cadences, so comparison and fleet-level decisions are impossible.
Connecting equipment raises security concerns we cannot answer.
Bridging operational and IT networks introduces risk that needs a designed answer — segmentation, identity, update paths — not an assurance.
Capabilities
What we actually do
IoT strategy and architecture
Connectivity, data flow, security and integration design before hardware is committed.
Sensors, gateways and connectivity
Device selection, protocol translation and resilient connectivity for constrained environments.
Telemetry and streaming pipelines
High-volume ingestion, buffering and time-series storage designed for the query patterns that matter.
Edge computing and edge AI
On-device inference and local processing where latency, bandwidth or resilience demands it.
Device lifecycle management
Provisioning, identity, configuration, secure over-the-air update and decommissioning.
Predictive maintenance
Condition monitoring and failure prediction tied to maintenance planning rather than to a dashboard.
Digital twins
Asset and process models fed by operational data, used for monitoring, simulation and scenario testing.
IoT security
Device identity, network segmentation, encrypted transport and monitoring across the OT/IT boundary.
How it fits together
From a machine to a decision somebody acts on
Operational data is worthless until it is comparable. Each tier below exists to make the one above it possible, and the value is only realized in the last one.
01
Physical assets
Where the data starts
- Machines and lines
- Vehicles and fleet
- Facilities
- Instruments
- Sensors
02
Edge
Where it becomes usable
- Gateways
- Protocol translation
- Local compute
- Buffering
- Store and forward
03
Platform
Where it becomes comparable
- Time-series store
- Streaming
- Asset and context model
- Quality rules
- Historian integration
04
Twin and analytics
Where it becomes a prediction
- Asset state
- Condition monitoring
- Simulation
- Failure prediction
- Scenario testing
05
Operations
Where it has to land to count
- A maintenance decision
- A schedule change
- A control action
- An engineering change
How we approach it
Principles we hold to
Instrument before you model
Connectivity and data quality determine everything downstream. We establish what can actually be measured, at what frequency and with what reliability, before designing analytics or twins on top of it.
Treat OT/IT as an interface, not a join
The boundary between operational and enterprise networks is designed explicitly — unidirectional flow where the use case allows, per-device identity, segmentation and a tested update path.
Prove value on one asset class
A single line, fleet or asset type first, with a measurable baseline. Scaling a pattern that works beats piloting several that nobody committed to.
Outcomes
What you should end up with
- Improved asset utilization, reliability, safety and service innovation.
- Maintenance planned from condition rather than from a calendar.
- Consistent operational visibility across sites and fleets.
- A connectivity architecture with a defensible security position.
Where this usually starts
A short working session on your situation — what you are trying to change, what is in the way, and whether this is the capability that addresses it.
Evidence
What changes, and how you would know
Two different things belong here. One is the structural change this capability makes, which we can describe today. The other is a client outcome, which publishes only when a client has approved it in writing with a timeframe and a baseline.
Client outcomes for IoT, Edge & Digital Twins
Proof pending approvalA published outcome here will carry the client's written approval, the timeframe it was measured over and the baseline it was measured against. Until all three exist, this section says so rather than showing a figure you could not check.
Questions
Frequently asked
- What is a digital twin, in practical terms?
- A model of a physical asset or process kept synchronized with it by operational data. Its value is that questions can be asked of the model instead of the asset — how a change would affect throughput, when a component will reach a threshold, what a failure would cost. Without live data it is a simulation, not a twin.
- When does processing need to happen at the edge rather than in the cloud?
- When latency, bandwidth or resilience requires it. Control decisions needing sub-second response, high-frequency sensor data too expensive to transmit in full, and sites that must keep operating through a connectivity outage all justify edge processing. Otherwise centralized processing is simpler to operate and update.
- How do you connect operational technology without increasing security risk?
- By treating the OT/IT boundary as a designed interface rather than a network join: unidirectional data flow where possible, per-device identity and certificates, network segmentation, encrypted transport, and a tested secure update path. The risk is manageable but it must be architected rather than assured.
Discuss a connected operations initiative
Tell us what you are trying to change. Someone who does this work reads every request and connects you with the right capability team.










