The Evidence Base for
Aerospace Biofilm Detection
Primary research, NASA technical reports, defense studies, and Aerodetex white papers — the complete evidence base behind the 7-day detection window and the regulatory gap that defines the market.
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Featured Resources
MIC in Aluminum Alloy Aircraft Fuel Tanks
2024 Peer-Reviewed Quantification Study
The landmark 2024 study establishing that biofilm-driven MIC in AA2024-T3 aluminum alloy accelerates by two orders of magnitude on day 7 of colonisation — the foundational evidence for the 7-day detection window. Published in Materials (MDPI), PMID 39063815.
Source: Materials (MDPI) — PMID 39063815
Microbial Sampling and Biofilm in ISS ECLSS
NASA ICES 2024 Conference Paper
NASA ICES 2024 paper documenting biofilm incidents in ISS Environmental Control and Life Support Systems, including the 2004 Elektron oxygen generator failure, 2010 water recovery system blockage, and 2018 HEPA filter colonisation. Explicitly states real-time biofilm detection has never been performed aboard ISS.
Source: NASA NTRS — ICES-2024-112
Biofilms in Aerospace Fluid Systems: Strategic Analysis
Aerodetex Research Summary & Market Strategy — 2026
Aerodetex internal research synthesis covering the biofilm detection gap across commercial aviation, military aerospace, and spacecraft life support. Includes the 7-day MIC threshold ROI model, regulatory anticipation framework, use-case prioritisation matrix, and third-party validation study roadmap. The definitive positioning document for the Aerodetex platform.
Source: Aerodetex / Videtex
All Resources
MIC in Aluminum Alloy Aircraft Fuel Tanks
2024 Peer-Reviewed Quantification Study
The landmark 2024 study establishing that biofilm-driven MIC in AA2024-T3 aluminum alloy accelerates by two orders of magnitude on day 7 of colonisation — the foundational evidence for the 7-day detection window. Published in Materials (MDPI), PMID 39063815.
Source: Materials (MDPI) — PMID 39063815
Microbial Sampling and Biofilm in ISS ECLSS
NASA ICES 2024 Conference Paper
NASA ICES 2024 paper documenting biofilm incidents in ISS Environmental Control and Life Support Systems, including the 2004 Elektron oxygen generator failure, 2010 water recovery system blockage, and 2018 HEPA filter colonisation. Explicitly states real-time biofilm detection has never been performed aboard ISS.
Source: NASA NTRS — ICES-2024-112
Microbially Influenced Corrosion in Military Aircraft
DTIC Overview — Fuel, Hydraulic & Water Systems
U.S. Department of Defense technical overview of MIC in military aircraft fuel tanks, hydraulic systems, and potable water systems. Documents the $1.6B annual USAF aviation corrosion cost with MIC estimated at 20% of total. Covers Pseudomonas, Cladosporium resinae, and SRB contamination patterns.
Source: DTIC — ADA413907
EPA Aircraft Drinking Water Rule — Enforcement Findings
The Regulatory Trigger: 100% Non-Compliance
EPA 2004 enforcement findings that established 100% of sampled commercial aircraft water systems were non-compliant with drinking water standards. The enforcement action that led to the 2009 FAA Aircraft Drinking Water Rule (ADWR) — the first and only federal mandate addressing aircraft water microbiology.
Source: U.S. Environmental Protection Agency
Biofilms in Aerospace Fluid Systems: Strategic Analysis
Aerodetex Research Summary & Market Strategy — 2026
Aerodetex internal research synthesis covering the biofilm detection gap across commercial aviation, military aerospace, and spacecraft life support. Includes the 7-day MIC threshold ROI model, regulatory anticipation framework, use-case prioritisation matrix, and third-party validation study roadmap. The definitive positioning document for the Aerodetex platform.
Source: Aerodetex / Videtex
Videtex UV Fluorescence Probe — Technical Specification
Full Specification Sheet for Aerospace Applications
Complete technical specification for the Videtex UV fluorescence endoscope probe family (2.0mm, 4.0mm, 6.0mm, 8.0mm). Covers dual-wavelength UV illumination (365nm / 405nm), fluorescence detection sensitivity, working length, articulation range, IP67 rating, and compatibility with aviation fuel, hydraulic fluid (MIL-PRF-5606, MIL-PRF-83282), and potable water systems.
Source: Aerodetex / Videtex
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