Aerospace
Precision process control, full traceability and evidence for a regulated supply chain.
- Scope
- Ground to Cloud
- Approach
- Retrofit first
- Base
- Bangalore, India
The brief
What this sector asks of a control system
Aerospace manufacture is low volume, high consequence, and heavily documented. We build control and data capture where the record is part of the deliverable — process parameters proven and retained, operations locked to an approved sequence, and traceability that holds for the decades a part stays in service.
Every engagement starts the same way: we walk the floor, read the existing drawings, and write down what is actually installed before anyone proposes a platform. The sector decides the priorities — the plant decides the design.
Constraints we engineer around
What we bring
Disciplines we lead with in aerospace
The same engineering team carries the work from the panel to the dashboard, so nothing is lost at a handover between vendors.
In detail
What shapes the work here
The constraints that decide how a system for this sector gets engineered.
The record outlives the machine
A part may be in service for decades, and the evidence behind it has to remain readable and attributable for that whole period. That makes data format, retention and export as much a design decision as the control itself.
We design against that horizon rather than against the current system's lifetime, because a record trapped in an obsolete database is effectively lost.
Locked to the approved process
Where a process is qualified, running outside its parameters is a non-conformance regardless of the result. Control enforces the approved window, records deviations, and makes an override a deliberate, attributed act.
Systems that let a parameter be adjusted quietly cannot support the quality case built on top of them.
Low volume does not mean simple
High-mix, low-volume work means frequent changeover, more manual steps and more opportunity for the wrong configuration. Guided sequence and verification at each operation is what keeps that from becoming a scrap event on a very expensive part.
The economics differ from mass production: the cost of one wrong part justifies verification that a high-volume line would not bother with.
Typical scope
What we are brought in to do
- Process parameter control with enforced approved windows
- Operation sequencing with step-level verification
- Serial traceability designed for decades of retention
- Deviation and override recording with attribution
- Test and inspection data capture against each unit
Engineering constraints
- Retention
- Readable across decades
- Process
- Approved window enforced
- Mix
- Verification at every operation
Common questions
- Do you hold aerospace quality approvals?
- We do not claim any certification we do not hold. We engineer to the requirements your quality system defines and produce the records it needs — the approval relationship stays yours.
- How do you handle data retention over that horizon?
- By keeping exports in open, documented formats and not making the record dependent on one vendor's database remaining available. That constraint shapes the design from the start.
- Can existing machines be brought under this control?
- Often, though enforcement depends on what the machine exposes. Where a parameter cannot be read back, we say so rather than implying a control that is not real.
Elsewhere
