Zero Defects, Maximum Reliability
In the competitive world of white goods, reliability and appearance are non-negotiable. TR2’s AI-driven computer vision systems inspect every unit with precision—detecting surface scratches, assembly gaps, color inconsistencies, or missing components in real time. This ensures only defect-free appliances reach the customer, reducing returns and warranty costs, while enhancing brand trust. From washing machines to ovens, manufacturers gain full control over quality—batch after batch.
Flawless Packaging, Guaranteed Performance
Packaging is more than a container—it’s protection, compliance, and brand identity. TR2’s computer vision systems inspect every package in real time, detecting deformations, misalignments, incorrect labeling, seal defects, or printing issues before they cause delays or recalls. By catching anomalies early, manufacturers ensure functional and aesthetic consistency across all units. The result? Reliable packaging that protects your product, satisfies your customers, and passes inspection—every time.
Perfect Prints, Every Run
In high-volume printing, even minor misalignments or ink defects can compromise quality and increase waste. TR2’s computer vision systems monitor printing processes in real time—detecting color shifts, registration errors, smudges, missing text, or artifacts with pixel-level precision. By identifying issues as they occur, TR2 enables immediate corrective action, reduces reprints, and ensures visual consistency across batches. Whether it’s packaging, labels, or branded materials, your print output stays sharp, accurate, and compliant from the first to the last unit.
Labels that Stick and Meet Standards
Incorrect or misaligned labels can lead to recalls, compliance issues, and brand damage. TR2’s computer vision systems verify label presence, position, orientation, content, and print quality in real time—at any line speed. From barcode legibility to expiration dates and logo placement, our AI-powered inspections catch errors before they reach the customer. The result? Higher packaging reliability, full traceability, and flawless presentation across your product lines.
15-20% false detections on reflective surfaces, 25-30% errors on occluded objects
no cross-robot transferability, require physical segregation (~30% extra space)
68% of operators fear job replacement, 42% of managers report personnel resistance
Our methodology is built around traceability, conservative assumptions and reproducible measurement protocols.
1) Evidence categories
All metrics and statements are assigned to one of the following evidence types:
Public benchmarks (external sources). Used for sector context, typical ranges and state-of-practice comparisons. These sources are linked directly next to the claim and listed in the references section.
Examples: industry adoption reports, EU studies, peer-reviewed research articles, standards and technical guidelines.
Measured results (pilot or operational data). Used for technical KPIs and operational performance (e.g., throughput, setup time, runtime frequency). Measured results are supported by a clear test protocol, measurement conditions and a definition of the metric.
Engineering estimates (planning assumptions). Used when a value is indicative and not directly measurable upfront (e.g., order-of-magnitude productivity loss due to downtime). Estimates are explicitly labelled as such, include assumptions and are updated once measured data becomes available.
2) Metric definitions (to avoid ambiguity)
Every metric is reported with a written definition and scope. For example:
Setup / reconfiguration time is defined as the sum of the steps required to deploy or adapt a system, such as:
calibration procedures
workspace/scene configuration
end-effector parameterisation
component onboarding and validation run
Each step is timed separately so totals are reproducible and comparable.
Runtime performance (e.g., “≥1 Hz”) is defined as end-to-end processing frequency under the target deployment constraints. It is measured using system timestamps and profiling logs, not by theoretical compute estimates.
Perception quality (e.g., segmentation, detection) is reported with standard KPIs (e.g., IoU, precision/recall), plus robustness checks across varying lighting, motion and clutter conditions.
3) Measurement protocol and reproducibility
For any measured KPI, we apply a consistent protocol:
Test conditions are documented: hardware class, sensor configuration, runtime constraints and software version.
Repeatability is ensured: measurements are repeated across multiple runs and, where relevant, multiple change events.
Statistics are reported: at minimum, we publish the number of repetitions (n), median/mean and a range (min–max or standard deviation).
Edge cases are included: performance is tested under realistic disturbances (occlusion, conveyor motion, lighting changes) when applicable.
4) How we use linked sources correctly
External sources are used to establish context and baseline ranges, not to “prove” internal results. We apply the following rule:
If a linked source reports a metric in a comparable setting, we use it to justify plausibility and order-of-magnitude.
If a claim is a precise percentage or absolute number, we only present it if the linked source explicitly supports that exact figure.
Otherwise, we use qualitative wording (“a large share”, “commonly”, “often”) or a bounded range (“typically X–Y”) and keep the statement conservative.
5) How we derive productivity and downtime impacts
Claims about productivity impact due to reconfiguration or downtime are derived transparently from:
Downtime per change event (measured or conservatively estimated)
Change frequency (observed or documented in operational planning)
Available production time (shift pattern assumptions)
A typical calculation is expressed as a bounded range rather than a single point:
Indicative impact (%) = (downtime per week) / (available production time per week)
If the input values are estimates, the output is presented as an order-of-magnitude range and updated once measurement data is available.
6) Transparency and updates
Wherever feasible, we provide:
direct links to public sources
a short “how measured” note for internal KPIs
a clear distinction between measured values and estimates
As additional measurements become available, estimates are replaced by measured results while retaining traceability (i.e., what changed and why).