Proof
- Since 2015
- shipping production software across healthcare, fintech, logistics, and retail
- RaftLabs delivery record
- 4.9/5
- average client rating across delivered projects
- Clutch, verified reviews
- Fixed price
- scope and cost agreed in writing before any development starts
- Every RaftLabs engagement
The cost of poor quality runs an estimated 10 to 20 percent of sales for a typical manufacturer once scrap, rework, warranty, and recall are counted (ASQ, cost-of-quality research). Most of that cost is decided in the minutes between a defect starting and someone catching it.
Manual inspection is consistent at the start of a shift and drifts by hour eight. Sampling catches defects in aggregate, but a defective unit keeps shipping until the batch crosses its rejection threshold, hours after the root cause began. AI visual inspection checks every unit at line speed. Accuracy holds regardless of shift length, and real-time defect data reaches your SPC system while the process can still be corrected.
Capabilities
What we build
01Computer vision defect detection
Detection models matched to your inspection task, trained on your own defect taxonomy with confidence-scored thresholds tuned to your quality cost model.
- Built with
- YOLOv8 · EfficientNet
02Inline inspection integration
GigE Vision camera and lighting design specified for your defect types, with TensorRT inference triggering the reject gate within the inter-unit gap.
- Built with
- Basler · NVIDIA Jetson
03Defect classification and severity grading
Defect-type and severity-grade classification beyond pass/fail, with every rejection archived with a cropped image for root-cause and retraining use.
Real-time defect data feeding P-charts, Cpk/Ppk metrics, and Western Electric rule-based drift detection, replacing the end-of-shift tally sheet.
- Built with
- InfinityQS · Minitab
05Rejection workflow automation
Automatic reject/rework/scrap routing with reason codes populated into your ERP's quality notifications, plus batch-hold workflows at threshold breach.
06Quality analytics dashboard
Floor-level real-time status and management-level cross-line trend and Pareto analysis, correlating defect rate with production parameters.
How we work
From scope to a live first inspection point
- Week 1
01Inspection and defect-taxonomy scoping
We map your inspection line speed, current defect types, and defect escape cost. You leave week 1 with a written scope document and a fixed-price quote.
- Weeks 2-5
02Data collection and hardware design
Camera, lighting, and inference hardware specified, with a structured image-collection phase for model training.
- Weeks 4-12
03Model training and integration
Detection models trained and validated, with SPC and QMS integration built in parallel.
- Final 2-3 weeks
04Commissioning at full line speed
Validated at production throughput with your quality team before go-live.
Every inspection model sits on one dial. Turn the confidence threshold up and you catch fewer real defects. Those false negatives are the units that reach a customer. Turn it down and you scrap or rework good parts. Those false positives burn margin on the line. The two failures cost different amounts, and the right setting depends on your numbers, not a vendor default.
We calibrate that threshold against your quality cost model. A safety-critical automotive part weights a missed defect far heavier than a false reject, so the dial moves toward over-flagging and a human reviews the borderline calls. A high-volume consumer good on thin margins cannot absorb the rework, so the balance shifts the other way. Either way we track false positive rate next to detection rate, because a model that hits 99 percent detection while wrongly rejecting good parts can cost more than the defects it catches.
We train models on your defect classes, not a generic library. Each class needs enough labelled examples to tell a real flaw from normal process variation, and the rare defects are the hard part: you might see one cracked weld in ten thousand units. For those we combine collected fails, targeted augmentation, and anomaly detection that flags anything outside the learned-good distribution. Inference runs at the edge on the line, so a network outage never stops inspection, and a human-review queue handles low-confidence calls and feeds every correction back into the next training round.
Why us
Why manufacturers choose RaftLabs
01Senior engineers build what they scope
The engineers who assess your inspection line also build the solution. No bait-and-switch, no offshore handoff after the contract is signed.
02Fixed price before development starts
We scope the work, calculate the cost, and lock it in writing before any development starts.
03Shipping production software since 2015
Real engagements across SaaS, fintech, healthcare, and logistics, not every one published as a named case study. Our AI work spans computer-vision OCR, real-time edge inference, and image models in production.
04Designed to your line speed, not the other way around
Throughput impact during inspection is treated as a design failure, not an acceptable tradeoff.
05False positive rate tracked, not just detection rate
Threshold tuning balances catching defects against unnecessary rework cost.
Proof
The closest system we have shipped