Spectro-UV EagleEye™ EEX-1000 Head-Mounted UV-A Inspection Lamp
| Brand | Spectro-UV |
|---|---|
| Origin | USA |
| Manufacturer Type | Authorized Distributor |
| Product Category | Imported |
| Model | EagleEye™ EEX-1000 |
| Price Range | USD 1,400 – 7,200 (FOB) |
| Light Source Type | UV-A LED (365 nm peak) + White LED (Dual-Mode) |
| Illumination Mode | External (Hand-Free, Head-Worn) |
| UV-A Intensity (at 38 cm) | ≥15,000 µW/cm² |
| UV-A Beam Diameter (at 38 cm) | 11.4 cm (4.5 in) |
| Power Supply | Rechargeable 3.7 V, 3000 mAh Li-ion Battery |
| Continuous UV-A Runtime | 5 hours |
| White Light Runtime | N/A (mode-dependent) |
| Compliance | ASTM E3022-18, ISO 3059:2012, AITM6-1001 Issue 15, RRES 90061:2014 |
| Visible Light Emission | ≤21.5 lux (at working distance) |
| Spectral FWHM | ≤15 nm @ 365 nm |
| Current Ripple | <5% |
| Thermal Cutoff Protection | Yes |
| EMC Certification | Per unit + model-specific test report |
Overview
The Spectro-UV EagleEye™ EEX-1000 is a precision-engineered, head-mounted UV-A inspection lamp designed for high-reliability non-destructive testing (NDT) in regulated industrial environments. It operates on the principle of fluorescence excitation using narrowband ultraviolet radiation centered at 365 nm — a wavelength optimized for maximum sensitivity with standard fluorescent penetrants and magnetic particle suspensions while minimizing visible light interference. Unlike broadband mercury-vapor or xenon-based UV sources, this device employs solid-state UV-A LEDs with a spectral full width at half maximum (FWHM) of ≤15 nm, ensuring compliance with the stringent spectral purity requirements of ASTM E3022-18 and ISO 3059:2012. Its head-worn configuration eliminates operator fatigue during prolonged inspections and enables true hands-free operation in confined spaces, overhead structures, or complex geometries typical in aerospace component verification and turbine blade maintenance.
Key Features
- Compliant UV-A output: ≥15,000 µW/cm² at 38 cm — exceeds minimum thresholds specified in ASTM E3022-18 (≥2,000 µW/cm²) and AITM6-1001 Issue 15 (≥1,200 µW/cm²)
- Dual-mode optical engine: Instant toggle between high-intensity UV-A (365 nm) and bright white light (EagleEye II), supporting both fluorescent indication visualization and post-inspection documentation without equipment changeover
- Optimized beam uniformity: Delivers ≥1,000 µW/cm² across a minimum 11.4 cm (4.5 in) diameter at 38 cm — validated per ASTM E3022 Annex A2 for spatial irradiance homogeneity
- Low ambient visible emission: ≤21.5 lux at operational distance — meets ASTM E3022 visibility limits and ensures optimal contrast during fluorescent interpretation under controlled darkroom conditions
- Robust thermal management system: Active current regulation and over-temperature cutoff prevent LED spectral drift and intensity degradation during extended runtime
- Rechargeable lithium-ion power: Integrated 3.7 V / 3000 mAh battery supports up to 5 hours of continuous UV-A operation; field-swappable and CE/FCC/UL-certified
Sample Compatibility & Compliance
The EEX-1000 is validated for use with all commercially available fluorescent penetrants and wet/dry magnetic particle formulations compliant with AMS 2644, ASTM E1417, and ISO 3452 series standards. Its spectral output satisfies the mandatory 360–370 nm bandpass, peak tolerance (365 ± 5 nm), and FWHM constraints defined in ASTM E3022-18, ISO 3059:2012, RRES 90061:2014, and Airbus AITM6-1001 Issue 15. Each unit undergoes individual photometric calibration and receives a traceable Certificate of Conformance, including measured irradiance profile, spectral distribution, and visible light leakage data. The lamp is certified for use in FAA Part 145 repair stations, EASA Part 145 facilities, and ISO 9001-certified manufacturing lines requiring documented metrological traceability.
Software & Data Management
While the EEX-1000 operates as a standalone optical instrument without embedded firmware or connectivity, its design supports full integration into auditable quality workflows. All calibration reports and conformance documentation are provided in PDF format with embedded metadata (date, serial number, test lab ID) compatible with electronic document management systems (EDMS) used in GMP/GLP environments. For laboratories maintaining FDA 21 CFR Part 11 compliance, Spectro-UV provides optional IQ/OQ protocols and validation templates aligned with ASTM E3022 Annex B. Battery charge cycles, usage logs, and recalibration intervals can be tracked manually or via third-party CMMS platforms.
Applications
- Aerospace NDT: Crack detection on turbine disks, wing spars, and composite layups per Boeing D6-17487 and Airbus AITM6-1001
- Power generation: Surface flaw identification on steam turbine blades, generator rotors, and nuclear fuel cladding
- Automotive: Weld seam inspection of aluminum chassis components and cast iron engine blocks
- Rail transport: Axle and bogie frame integrity verification under EN 1369 and UIC 801-1
- Defense: Munitions casing, helicopter rotor hub, and naval propulsion system inspection per MIL-STD-2132
FAQ
Does the EEX-1000 require annual recalibration?
Yes — ASTM E3022-18 mandates periodic verification of UV-A irradiance and spectral output. Spectro-UV recommends recalibration every 12 months or after 200 operational hours, whichever occurs first.
Can the lamp be used in explosive atmospheres (ATEX/IECEx zones)?
No — the EEX-1000 is not intrinsically safe certified. It is intended for use in general industrial environments only.
Is the battery replaceable by the end user?
Yes — the 3.7 V / 3000 mAh Li-ion module is field-replaceable using standard Torx tools; replacement batteries are supplied with full UN38.3 transport certification.
What documentation accompanies each unit?
Each lamp ships with a Certificate of Conformance, photometric test report, spectral distribution chart, EU Declaration of Conformity, and ASTM E3022 alignment statement.
How does the EEX-1000 differ from the EK-3000XX model?
The EEX-1000 delivers higher UV-A intensity (15,000 vs. 4,500 µW/cm²), longer runtime (5 hrs vs. 75 min), larger beam coverage (11.4 cm vs. 14 cm at lower intensity), and exclusive compliance with Airbus AITM6-1001 Issue 15’s most recent revision.

