Iris Ant provides four AI AOI models across two major series:
| Series | Model | Type | Accuracy | Target Applications |
|---|---|---|---|---|
| Inline Series | T7 | Single Lane | 10 μm | High-volume single-lane inline full inspection |
| Inline Series | T7D | Dual Lane | 10 μm | High-throughput dual-lane inline full inspection |
| Offline Series | T3 Pro | Offline | 15 μm | Small-to-medium batch, multi-variety rapid changeover |
| Offline Series | T5 Pro | Offline | 10 μm | Precision components and high-accuracy inspection |
Selection Recommendation: Choose T7/T7D for 100% inline production line inspection. Select T3 Pro or T5 Pro for sampling or low-to-medium volume production. T5 Pro features higher accuracy, making it suitable for micro-packages and fine-pitch IC inspection.
Inline AOI (T7 / T7D): Integrates directly into SMT assembly lines, operating synchronously with screen printers and pick-and-place machines for 24/7 uninterrupted real-time inspection. Ideal for high-volume, short-takt-time production lines.
Offline AOI (T3 Pro / T5 Pro): Deployed independently without occupying main line footprint. Perfect for small-to-medium batch sizes, multi-product line changes, and new product introduction (NPI) verification.
Selection Criteria: Choose Inline if your priority is throughput maximization and full automation. Choose Offline if you require flexible deployment and frequent product switching.
Yes. The Iris Ant SF-2 series 3D SPI is designed for SMT assembly lines to perform 100% 3D volumetric measurement on printed solder paste, accurately measuring volume, area, height, and offset.
Core Technology: Utilizes Programmable Structured Light Module (PSLM) technology with zero mechanical wear. Achieves a repeatability precision of <10% (6 Sigma), supports 0201 micro-component inspection, features built-in SPC analytical tools, enables 5-minute programming and 3-minute line changeover, and includes lifetime free software updates.
| Comparison Dimension | Traditional AOI | Iris Ant AI AOI |
|---|---|---|
| Programming Method | Manual framing and threshold tuning; requires experienced engineers | AI automatic component identification and parameter generation |
| Programming Time | 3 to 5 hours | 5 minutes |
| Operation Barrier | Requires dedicated AOI programming engineers | Operators learn in 30 minutes |
| Optimization Mode | Fixed algorithms, non-iterative | Continuous learning; accuracy improves over time |
| False Alarm Rate | High; risk of missed defect escapes | Reduced by up to 80% |
| Data Security | Often requires cloud uploads | 100% fully local deployment |
Traditional AOI relies on rigid RGB thresholds and fixed rules, leading to heavy false alarms and escapes when handling identical background colors, marking interference, or complex DIP solder joint classification.
Iris Ant AI AOI leverages multi-dimensional feature extraction and deep learning models to resolve:
Not at all. Iris Ant AI AOI operates on a 100% local deployment model. All model training and real-time inspection take place on your factory's local server or industrial PC. Core process intelligence and proprietary product designs never leave your facility or get uploaded to vendor cloud servers.
Yes. The 80% false alarm rate reduction is validated by real-world SMT production line data through three technical mechanisms:
Operation is straightforward and completed in 4 simple steps within 5 minutes:
No specialized AOI programming engineers are required. Operators can run the system proficiently after 30 minutes of basic training.
The system supports flexible programming methodologies:
Equipment state directly impacts detection accuracy. On-site data indicates that over 70% of misjudgments stem from hardware condition rather than algorithms.
Recommended Maintenance Schedule:
Replacement Thresholds for Key Consumables: LED Light Source: ~12,000 hours | PU Squeegee: ~600k strokes (Steel: ~1.2M strokes) | Glass Stage: ~18 months.
When a board is flagged as NG, operators must manually verify each red-highlighted region on screen:
Using the industry-standard Golden Board Verification Method:
Note: Solder paste on SPI NG samples must remain in production-equivalent condition to ensure meaningful test reference data.
| Production Requirement | Recommended Model |
|---|---|
| High-volume single-lane inline full inspection | T7 |
| High-throughput dual-lane inline full inspection | T7D |
| Small-to-medium batch / high variety / sampling inspection | T3 Pro |
| Precision components / high-accuracy inspection | T5 Pro |
Traditional AOI program setup takes 3 to 5 hours during product changeover, whereas AI AOI reduces it to 5 minutes, minimizing line downtime drastically.
Quantifiable Financial Benefits:
Complementary deployment is highly recommended. SPI and AOI address distinct inspection stages across SMT lines:
| Equipment Type | Inspection Stage | Inspection Focus |
|---|---|---|
| SPI | Post-Solder Paste Printing | Paste thickness, area, volume, offset, and bridging |
| Pre-Reflow AOI | Post-Placement / Pre-Reflow | Component displacement, missing parts, wrong parts, polarity |
| Post-Reflow AOI | Post-Reflow Soldering | Solder joint quality, bridging, cold solder, tombstoning |
| X-Ray Inspection | Post-Reflow Soldering | Hidden solder joint defects (e.g., BGA, QFN voids) |
Data Correlation Value: Correlating SPI data with AOI defect results validates whether SPI thresholds are set correctly and reveals whether SPI alerts represent true process risks.
Step 1: Check Hardware First Before Adjusting Algorithms. Over 70% of sudden misjudgments originate from hardware condition anomalies.
Troubleshooting Checklist:
Resolution Steps:
Preventive Action: Regularly clean track rails and inspect conveyor belt tension and alignment.
Troubleshooting Steps:
Tools / Fiducial Tool menu.Common Causes & Solutions:
SPC data generated by SPI/AOI systems serves as a critical asset for SMT process control, enabling manufacturers to:
Core Value: Transforms quality control from reactive post-inspection to proactive drift prevention before physical defects occur.