DOW-UAP-D119 — Biomaterials: Medical Device Survey
This reference surveys biomaterials used to interface with living systems. It covers biocompatibility, sensors, implants, tissue engineering, drug delivery, titanium, and dialysis while emphasizing that material choice depends on the clinical application.
- File
- Document · Release 06
- Date
- Jan 7, 2010
- Location
- Las Vegas, Nevada
- Extent
- 32 pages
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Probed Assessment
A broad medical-materials reference focused on established device uses and the application-specific nature of biocompatibility.
Key takeaways
- Biomaterials include metals, polymers, ceramics, glasses, carbons, and composites used with biological systems.
- The report reviews both established devices and tissue-engineering or drug-delivery approaches.
- Titanium and semipermeable dialysis membranes illustrate different application-specific material choices.
Why it matters
It supplies a broad technical baseline for how material selection changes across biomedical-device uses.
Corroboration
The released reference substantiates the survey’s technical framing; it is not a clinical efficacy review for any individual device.
Open questions
- • How have the cited biomaterial applications changed since the report’s publication?
Probed separates this editorial assessment from the source claims below. It summarizes what the released artifact supports; it is not independent verification.
Official Description from War.gov
This document is a Defense Intelligence Reference Document (DIRD), a technical reference format used by the Defense Intelligence Agency (DIA) to capture baseline knowledge on a specific topic for later analytic use. DIRDs are best understood as reference and synthesis products rather than as original research. It is one of 38 DIRDs produced under the Advanced Aerospace Weapon System Applications Program (AAWSAP) between 2009 and 2011. Because AAWSAP’s scope permitted a broad range of supporting topics, not every DIRD in the series directly concerns aerospace systems or future threat assessment. The following summary reflects the DIRD’s scope and framing at the time of writing and should not be read as implying current validation of the concepts discussed. This DIRD is a broad survey of biomaterials, including metals, polymers, ceramics, glasses, and composites designed to interact with living tissue, and argues that their value depends mainly on biocompatibility, reliability, and careful matching of material properties to specific medical uses. The report reviews major application areas including biosensors, implants, cardiovascular devices, contact lenses, drug delivery systems, tissue constructs, titanium devices, and dialysis membranes, emphasizing that no single biomaterial works best in every setting. Its overall conclusion is that biomaterials are already foundational to a large medical-device industry and save or improve millions of lives, but that progress tends to be slow because safety testing is stringent; as a result, most advances come from improved ways of applying established materials such as silicone, Teflon, biodegradable polymers, ceramics, and titanium in new devices and clinical settings rather than from radically new substances.
Preserved verbatim as source metadata. This wording is separate from Probed’s file-specific description and assessment.
File Context
Related entities
Tracker findings
Biomaterials span six material classes
The report defines biomaterials as metals, ceramics, polymers, glasses, carbons, and composites intended to interface with biological systems.
Biomaterials support biosensor interfaces
The report reviews biomaterials used in biosensors and describes their role in sensing biological conditions.
Tissue engineering combines cells and matrices
The tissue-engineering discussion identifies harvested cells, signaling molecules, and three-dimensional matrices as key ingredients.
Titanium pairs strength with compatibility
Titanium is described as desirable for biomaterial applications because of its strength, inertness, and biological compatibility.
Dialysis relies on semipermeable membranes
The dialysis section describes waste transport across a semipermeable membrane by diffusion and size-based separation.
Release provenance
- Release
- Release 06
- Official ID
- release-06-file-024-dow-uap-d119-aawsap-dird-biomaterials-january-2010
- Cleared
- Sep 18, 2026
Referenced Timeline
Defense Intelligence Reference Document dated
The cover page dates the D119 technical reference document.
Source Claims
Claims are attributed to the released source and remain distinct from Probed’s assessment and tracker findings.
The report defines biomaterials as metals, ceramics, polymers, glasses, carbons, and composites intended to interface with biological systems.
Biomaterials are metals, ceramics, polymers, glasses, carbons, and composite materials intended to interface with biological systems.
Biocompatibility is presented as a central consideration in selecting materials that contact biological systems.
BIOCOMPATIBILITY Biocompatibility is an important issue in biomedical implants and sensors.
The report reviews biomaterials used in biosensors and describes their role in sensing biological conditions.
Biosensors Implantable biosensors for the human body place some of the greatest functional demands on biomaterials.
Silicone materials are discussed among biomedical polymers used in products and implants.
silicones attracted notoriety in 1995 when a class-action lawsuit against Dow Corning, Inc., brought a huge settlement resulting from the supposed dangers of silicone breast implants.
Polylactide is described as a thermoplastic with biomedical applications derived from renewable resources.
polylactide, is a thermoplastic, long-chained organic material derived from renewable resources, such as corn starch (in the United States) or sugarcanes (in the rest of the world).
The tissue-engineering discussion identifies harvested cells, signaling molecules, and three-dimensional matrices as key ingredients.
three-dimensional matrices.
The report reviews fluoropolymer materials including Teflon in the context of biomedical uses.
Teflon allows it to be used as a flexible patch material for other blood-contacting surfaces, in addition to blood vessels.
Titanium is described as desirable for biomaterial applications because of its strength, inertness, and biological compatibility.
Titanium metal has qualities of strength, inertness, and a biological compatibility that make it desirable as a biomaterial.
The dialysis section describes waste transport across a semipermeable membrane by diffusion and size-based separation.
Dialysis works on the principles of natural diffusion of metabolic waste products in the blood across a semipermeable membrane.
Source Material & Evidence
Research Map
Lines appear only when two entities share a row-level source claim or dated timeline event. Unconnected nodes remain visible without implying a relationship.