Selected work
Complex problems. Integrated products. Measurable results.
From a focused prototype or short run to assembled equipment combining machined hardware, electronics, and software, the scope follows the problem.
PROJECT / 01
IMAGE PLACEHOLDER · 1200 × 900 PX · CROP 4:3
Suggested image
Completed diagnostic, simulation, and emulation unit shown at a three-quarter angle with enclosure, connectors, indicators, and controls visible.
ACCESSOne non-invasive connection point
MONITORLive data capture and interpretation
EMULATEKnown conditions reproduced for guided fault isolation
Integrated product development · diagnostics · simulation
A field-ready diagnostic, simulation, and emulation system that turned days of troubleshooting into hours.
A technical team needed a faster way to diagnose a complex electromechanical control system. The system combined multiple sensors, distributed wiring, a control computer, and controlled outputs while also monitoring operating speed and hydraulic pressure to confirm that each function occurred under the correct conditions.
After studying the system, ncKraft identified a single, non-invasive point of entry as the safest and most useful approach. We researched existing acquisition hardware before developing anything custom and selected DATAQ modules to capture the raw signals.
The finished product required the entire unit to be developed as one system: enclosure and assembly design, machined interface components, electronic integration, operator controls, data acquisition, software, and functional testing.
What we built
- A robust field assembly with a purpose-built enclosure, machined interface hardware, connectors, LED feedback, and discrete controls
- Integrated data-acquisition electronics and wiring organized around a single service connection
- Software that graphs live data, simulates and emulates defined input conditions, interprets system response, and flags abnormal behavior
Result: Troubleshooting that could take days was reduced to as little as three hours. The completed capability also attracted additional projects involving similar system faults.
PROJECT / 02
QUESTIONFit, appearance, motion, or material behavior?
METHODFDM, resin, machining, laser, or casting
LEARNINGEvidence for the next design decision
Prototype to learn
Choose the fastest prototype that answers the right question.
The most detailed prototype is not always the most useful. The right method depends on what needs to be learned before more time and material are committed.
Approach
- Define the decision the prototype must support
- Select a process based on fit, detail, strength, surface, and timing
- Document what changed so the next revision starts from evidence
What this establishes: useful physical feedback without treating every early iteration like a final production part.
PROJECT / 03
BASELINEApproved geometry and acceptance criteria
CONTROLSetup, workholding, sequence, and checks
RUNRepeatable parts with realistic scheduling
Prototype to production
Turn an approved part into a controlled short run.
Moving beyond the first acceptable part requires more than repeating the same toolpath. Setup, inspection points, handling, and schedule all become part of the result.
Approach
- Confirm the approved revision and measurable acceptance criteria
- Plan repeatable workholding, tool sequence, and in-process checks
- Set a quantity and delivery plan appropriate for one-machine production
What this establishes: a disciplined bridge between prototype approval and practical small-batch production.
Need one deliverable or help solving the complete problem?
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