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Aerospace &
Aviation Inspection

The Videtex Tri-Spectrum Configuration delivers White + 365 nm + 405 nm UV fluorescence in a single 3.9 mm probe — detecting structural cracks via ASTM E1417 FPI and microbial biofilm contamination in one inspection pass. No second instrument. No second mobilization.

3.9 mm

Lead probe diameter

3-in-1

White + 365 nm + 405 nm

7 Days

MIC detection window

15 Days

Delivery lead time

The Problem With Standard Inspection

Every Aerospace Borescope Looks Forward.
Biofilm Grows on the Wall.

A direct-view borescope travels down the lumen of a tube and illuminates the space ahead. It is designed to detect obstructions, debris, and gross contamination in the path of flow. It is not designed — and physically cannot — illuminate the wall surface it is traveling along.

Microbial biofilm colonizes wall surfaces, not the lumen. The EPS matrix that anchors biofilm to the substrate is optically transparent under white light. The result: standard borescopy misses the contamination that causes 20% of aerospace corrosion costs — not because of inspector error, but because of a fundamental geometry mismatch between the inspection tool and the inspection target.

Read the full geometry gap analysis

Direct-View Borescope

Standard industry baseline

Illuminates lumen ahead of probe
Cannot illuminate wall surface
Biofilm EPS transparent under white light
Misses early-stage MIC colonization

Videtex 3.9 mm Side-View + Tri-Spectrum

Aerodetex configuration

Side-view optics illuminate wall surface directly
405 nm UV excites biofilm autofluorescence
365 nm UV for ASTM E1417 FPI crack detection
White light for gross visual inspection
Single pass — three detection modalities

Aerospace Inspection Challenges

Four Problems Standard Inspection Cannot Solve

Microbially Influenced Corrosion

Biofilm colonization in fuel tanks, potable water lines, and hydraulic systems accelerates electrochemical corrosion by up to 100× within 14 days. Standard white-light borescopy cannot detect early-stage biofilm — it is optically transparent under broadband illumination.

Regulatory Compliance Pressure

FAA AC 43.13, ASTM E1417, and MIL-STD-6866 mandate fluorescent penetrant inspection for critical structural components. Emerging guidance on potable water and fuel system hygiene is tightening inspection requirements across commercial and defense fleets.

The Geometry Gap

Direct-view borescopes travel down the lumen of a tube and illuminate the space ahead — not the wall surface they are traveling along. Biofilm grows on walls, not in the lumen. A direct-view scope physically cannot illuminate the surface where the contamination lives.

Access Geometry Constraints

Aircraft fuel tank access ports, hydraulic manifold inspection points, and potable water distribution lines impose strict diameter constraints. Most aerospace inspection ports are designed for 3.5–4.5 mm probes — the exact range of the Videtex 3.9 mm lead probe.

The Aerodetex Solution

One Probe. Three Detection Modalities.

Tri-Spectrum Configuration

White broadband + 365 nm UV-A + 405 nm UV-A in a single probe. The 405 nm channel excites biofilm autofluorescence. The 365 nm channel drives ASTM E1417 fluorescent penetrant visualization. White light provides gross visual context.

White: gross visual inspection
365 nm: ASTM E1417 FPI
405 nm: biofilm autofluorescence

3.9 mm Lead Probe

The 3.9 mm probe is the lead aerospace configuration — sized for standard aircraft inspection access ports, with side-view optics that illuminate the wall surface rather than the lumen. IP67-rated for use with wet fluorescent penetrants.

3.9 mm diameter — standard access port fit
Side-view optics — wall surface illumination
IP67 waterproof — FPI compatible
120° field of view
15-day delivery

VS-P Fleet Configuration

One VS-P display unit per maintenance bay. Interchangeable probe diameters from 1.8 mm to 6.0 mm cover every access geometry in the fleet — from micro-plumbing to main fuel tank inspection — on a single procurement line item.

1.8 mm — narrow pass-through access
3.9 mm — standard aerospace lead probe
4.5 mm — wide-bore hydraulic lines
6.0 mm — main fuel tank access

Aerospace Applications

Six Fluid System Inspection Categories

Fuel Tank Inspection

Biofilm detection on tank wall surfaces (405 nm UV)
MIC early-stage identification before structural damage
ASTM E1417 fluorescent penetrant crack detection (365 nm UV)
Sump and drain area contamination assessment

Airframe & Structural

Wing spar and rib corrosion detection
Fuselage frame and stringer inspection
Landing gear component crack detection via FPI
Control surface assembly verification

Turbine Engine Inspection

Turbine blade crack detection (365 nm FPI)
Combustion chamber hot-section evaluation
Compressor section surface examination
Nozzle guide vane integrity assessment

Potable Water Systems

Biofilm detection in distribution lines (405 nm UV)
FAA AC 120-95A compliance documentation
Tank and manifold contamination mapping
Post-service verification of decontamination effectiveness

Hydraulic Systems

Hydraulic line interior contamination detection
Actuator bore and manifold inspection
Seal seat surface condition assessment
Post-repair cleanliness verification

Spacecraft & Defense

ECLSS water recovery system biofilm detection
Propellant line and pressurant system inspection
MIL-STD-6866 FPI for structural components
Condensate and wastewater system contamination mapping

Compliance & Standards

Aligned With the Standards That Govern Your Program

StandardScopeAerodetex Relevance
ASTM E1417Liquid penetrant examination — the primary standard for FPI in aerospace NDT365 nm UV illumination required for fluorescent penetrant visualization
FAA AC 43.13-1BAcceptable methods for aircraft inspection and repairVisual inspection baseline; UV fluorescence addresses the biofilm detection gap
FAA AC 120-95APotable water system maintenance and inspectionBiofilm detection and decontamination verification requirements
MIL-STD-6866Inspection, liquid penetrant — military specification365 nm UV-A illumination for defense platform FPI compliance
ISO 3452-1Non-destructive testing — penetrant testingInternational FPI standard; 365 nm UV-A illumination requirement
NASA MORDMicrobial monitoring requirements for spacecraft water systemsTotal bacteria count baseline; UV fluorescence provides earlier biofilm detection

Benefits for Aerospace Professionals

What Changes When You Can See the Wall

Single-Pass Dual Detection

White + 365 nm + 405 nm illumination in one probe. Detect structural cracks via ASTM E1417 FPI and biofilm contamination via UV autofluorescence in a single inspection pass — no second instrument, no second mobilization.

Within the 7-Day Window

Vanhoof et al. (2024) established that MIC corrosion current density increases 100× between day 1 and day 14. The Tri-Spectrum Configuration detects biofilm autofluorescence at the earliest colonization stage — before the damage curve goes exponential.

Fleet-Scale Economics

The VS-P interchangeable probe system puts one display unit per maintenance bay with a full diameter range (1.8–6.0 mm). One procurement line item covers the full inspection program — from micro-plumbing access to main fuel tank inspection.

Regulatory Defensibility

IP67-rated, ASTM E1417-aligned, with full documentation output. Every inspection produces a timestamped image record with wavelength metadata — the audit trail required for FAA and EASA compliance documentation.

Ready to Detect What Standard
Inspection Is Missing?

Schedule a demonstration with our aerospace inspection team. We will show you exactly what Tri-Spectrum UV fluorescence reveals in your specific fluid system geometry — and what your current inspection protocol is missing.