|
|
Appendix B
Inventory of Chemical and Biological Defense Technology, with Gap
and Overlap Analysis
|
|
Personal
Protective Equipment |
|
|
07-Oct-98
| Type |
Product |
Location/PI |
| Breathing |
| |
RP51A Respirator canister |
Cabot Safety Products |
| |
PBE (Protective Breathing Equipment) |
Essex PB&R Corp. |
| |
SCU (Self-Contained Unit) |
Essex PB&R Corp. |
| |
VRU (Victim Rescue Unit) |
Essex PB&R Corp. |
| |
Plus 10 Filter Breathing Unit |
Essex PB&R Corp. |
| |
Escape hood/mask for VIPs |
Fume Free, Inc |
| |
QuickMask Respiratory Protective Escape Device |
Fume-Free, Inc. |
| |
FRENZY AIR 5000 breathing apparatus |
Giat Industries (France) |
| |
Respiratory protection filter kits |
Giat Industries |
| |
SPIROMATIC 90 |
Giat Industries |
| |
Recirculation Filter Blower |
ILC Dover, Inc. |
| |
CAPS (Civilian Adult Protective System) |
Israel Ministry of Defense Export Organization (SIBAT) |
| |
CHIPS (Chemical Infant Protective System) |
Israel Ministry of Defense Export Organization (SIBAT) |
| |
Children Hood Blower System |
Israel Ministry of Defense Export Organization (SIBAT) |
| |
Advanced Crew Member Blower System |
Israel Ministry of Defense Export Organization (SIBAT) |
| |
Portable Blower Infant Protective Crib |
Israel Ministry of Defense Export Organization (SIBAT) |
| |
M17 series masks |
MSA Defense Products |
| |
Respirator canister Model 800375 |
MSA Safety Products |
| |
ESP Mask Communication System |
MSA Safety Products |
| |
Escort (SCBA) Escape Self Contained Breathing Apparatus |
Racal |
| |
Respirator Canister Model 456-00-07R 06 |
Racal |
| |
Disposable respirators |
Racal |
| |
Respirator canister Model 110100 |
Survivair |
| |
M-40A1 series masks |
Tradeways (Md) |
| |
Method for filtering CB agents from airflow in confined
space |
TSWG (R&D only) |
| |
First responders mask (FIRM) |
TSWG (R&D only) |
| Clothing |
| |
Mark IV permeable NBC Suit |
ADI (UK) |
| |
Remploy Tyvek F-M(ilitary) ensemble |
ADI |
| |
JLIST (Joint Service Lightweight integrated NBC protective
suit technology) |
CBDCOM (R&D only) |
| |
STEPO (Self-contained toxic environment protective
outfit) |
Chemfab Corp (NH) |
| |
Biomimetic materials |
DARPA/Molecular Geodesics (R&D only) |
| |
Man-in-Simulant Test Program |
Dugway Proving Grounds (R&D only) |
| |
Low-cost protective suits |
Geomet Technologies |
| |
Field Marking Kits |
Giat Industries |
| |
TOM suit kit |
Giat Industries |
| |
Gastight suit for internal breathing apparatus |
Giat Industries |
| |
UNISCAPH gastight suit for external BA |
Giat Industries |
| |
Cool Vest Personal Cooling Garment |
ILC Dover, Inc. |
| |
Chemturion: Reusable Level A Suit |
ILC Dover, Inc. |
| |
Ready 1 Limited Use Level A Suit |
ILC Dover, Inc. |
| |
Cooling Vests |
Kappler Protective Apparel and Fabrics |
| |
Responder CSM Garments |
Kappler Protective Apparel and Fabrics |
| |
Pressure test kits |
Kappler Protective Apparel and Fabrics |
| |
Chemical Protective Overgarment |
Marine Corps Systems Command (R&D only) |
| |
Functionally Tailored Fibers and Fabrics |
Natick RDEC (R&D only) |
| |
Firefighters Integrated protective Suit - Combat (FISC) |
Natick RDEC (R&D only) |
| |
Advanced Lightweight Chemical Protection |
Natick RDEC (R&D only) |
| |
Level B Suit |
Responder-Geomet |
| |
Level A Suit |
Responder-Geomet |
| |
SARATOGA-Pyjama Chemical Protective Undergarment |
Tex-Shield, Inc (NJ) |
| |
CW-66 Chemical Protective Flight Coverall |
U.S. Air Force |
| |
(BDO) Battledress overgarment |
Winfield International (NY) |
| Clothing and Breathing |
| |
Domestic Preparedness Civilian PPE Testing Program |
CBDCOM (R&D only) |
| |
(CBPSS) Chemical Biological Protective Shelter System |
Engineered Air Systems (Mo) |
| |
Individual Protective Kit |
Giat Industries |
| |
Rescue and Lifting Kit |
Giat Industries |
| |
Ventilated casualty bag |
Giat Industries |
| |
Ventilated casualty hood |
Giat Industries |
| |
ILC Dover Transportable Collective Protection System |
ILC Dover |
| |
M20A1 SCPE (Simplified Collective Protection System) |
ILC Dover, Inc. |
| |
Improvements to existing C/B Bomb suit |
Tech Escort Unit (R&D only) |
| |
Expedient Hazard Reduction System |
TSWG (R&D only) |
| |
ILC Dover Transportable Collective Protection System |
ILC Dover |
| |
Protection assessment test system |
U.S. Army (R&D only) |
|
|
30-Sep-98
| Availability |
Product |
Source or Laboratory/PI |
| Commercial |
| |
ACAMS Automated Continuous Air Monitoring System |
ABB Process Analytics |
| |
Remote molecular air quality monitoring system (FTIR) |
AIL Diversified Products Group |
| |
Nerve agent vapor detector (NAVD) |
Anachemia Canada Inc. |
| |
Paper, Chemical Agent Liquid Detectors, 3-WAY |
Anachemia Canada Inc. |
| |
C2 chemical agent detector kit |
Anachemia Canada Inc. |
| |
CUB 800 |
Bear Instruments, Inc. |
| |
Infrared Detector for Gas Chromatograph |
Biorad, Digilab Division |
| |
Transform spectrometer |
Bomem Inc. |
| |
TYPE 1306 Toxic-Gas Monitor |
Bruel and Kjaer Instruments |
| |
TYPE 1302 multigas monitor |
Bruel and Kjaer Instruments |
| |
Rapid Alarm and Identification Device (AID-1) |
Bruel and Kjaer Instruments |
| |
Chemical Surety Chamber and Lab |
Calspan Corporation |
| |
Automatic Liquid Agent Detector (ALAD) System |
Calspan Corporation |
| |
Miniature Chemical Agent Monitor (MINICAM) |
CMS Research Corporation |
| |
Detector tubes |
Draeger |
| |
Continuous Chemical Agents Sensor (CHASE) |
Elbit-Ati Instruments |
| |
4100 vapor detector |
Electronic Sensor Technology |
| |
Improved Chemical Agent Monitor (ICAM-APD) |
Environmental Technologies |
| |
APD2000 Hand-held CW/radiation detector/monitor |
Environmental Technologies |
| |
Miniature Chemical Agent Detector (ICAD) |
Environmental Technologies |
| |
Chemical Agent Monitor (CAM) |
Environmental Technologies |
| |
Detalac Automatic Detector of Nerve gas agents |
Giat Industries |
| |
Environmental Vapor Monitor (EVM) |
Graseby Dynamics Ltd (UK) |
| |
Point Chemical Agent Detector (GID-3) |
Graseby Dynamics |
| |
HP 6890 Plus Gas Chromatograph |
Hewlett-Packard |
| |
HP 2350 Atomic Emission Detector |
Hewlett-Packard Co. |
| |
HP 5973 MSD |
Hewlett-Packard Co. |
| |
Improved Chemical Agent Monitor (ICAM) |
Intellitec (Florida) |
| |
M8A1 automatic chemical agent alarm (M43A1 and M42 ) |
Intellitec (Florida) |
| |
AN/KAS-1 Chemical Warfare Directional Detector
(standoff) |
Intellitec (Florida) |
| |
M21 Remote sensing chemical agent alarm (RSCAAL) |
Intellitec (Florida) |
| |
Nerve Agent Immobilized-Enzyme Alarm and Detector
(NAIAD) |
Jasmin Simtec Limited |
| |
SAW MiniCAD miniature chemical agent detector |
Microsensor Systems, Inc. |
| |
CW Sentry |
Microsensor Systems, Inc., |
| |
RCAD II Monitor |
Microsensor Systems, Inc., |
| |
EKHO |
Mine Safety Appliances Co. |
| |
Field MINICAMS (FM-2000) |
OI Analytical, Inc |
| |
Phemtochem Ion Mobility Spectrometer, Model 110 |
PCP Inc. |
| |
API 365 |
Pe Sciex |
| |
Microchromatography |
PerSeptive Biosystems, Inc. |
| |
AP2C Family of Chemical Agent Detectors |
Proengin S.A. (France) |
| |
MINIRAE Plus |
Rae Systems |
| |
Direct-Reading Tubes |
Sensidyne |
| |
M90D1-A Chemical detector |
Sensor Application Inc (VA) |
| |
Scentograph Plus II with AID/RCD Detector |
Sentex Systems Inc. |
| |
Scentoscreen (Gas Chromatograph) with Argon Ionization
Detector |
Sentex Systems Inc. |
| |
SCX-20 VOC Monitor |
Spectrex Corporation |
| |
Dual Flame Photometric Detector |
SRI Instruments Inc. |
| |
TestMate portable blood cholinesterase test system |
TestMate, Inc |
| |
Miran Sapphire |
The Foxboro Company |
| |
Chemical agent point detection system for ships (CPDS) |
Tradeways Ltd (MD) |
| |
M8 Chemical detection paper |
Tradeways Ltd (VA) |
| |
M9 Chemical detection paper |
Tradeways Ltd (VA) |
| |
M256A1 Chemical detection kit |
Truetech Inc (NY) |
| |
M272 Water testing kit |
Truetech Inc (NY) |
| |
M18A2 Chemical detection kit |
Truetech, Inc (NY) |
| |
SATURN |
Varian Chromatography Systems |
| |
Portable GC/MS systems: SpectraTrak and CADIS |
Viking Instruments Corporation |
| |
Mass-Spec-On-Chip (MSOC) |
Westinghouse Electronic System |
| Field testing |
| |
FBI Fly-away Laboratory |
Unknown |
| |
Nonintrusive interrogation of closed containers |
Battelle Columbus |
| |
CB mass spectrometer (CBMS I) |
Bruker Instruments |
| |
Air Transportable Modular Analytical Laboratory
(MODLAB) |
CBDCOM |
| |
XM22 Advanced Chemical Agent Detector/alarm (ACADA) |
ERDEC/Nowack |
| |
SOF Chemical Agent Detector w low false positives |
Graseby |
| |
GI-MINI Miniature Chemical Warfare Detector/Monitor |
Graseby Dynamics |
| |
Rugged, portable GC-MS for CW agents |
LLNL |
| |
Multipurpose integrated chemical agent alarm (MICAD) |
Lockheed Martin |
| |
Shipboard Automatic Liquid Agent Detector (SALAD) |
Naval Sea Systems Command |
| |
Improved Point Detection System (IPDS) |
Naval Sea Systems Command |
| |
SAWRHINO (nerve and vesicant agents) |
NRL/Veneskey |
| |
LabChip applications to ChE and immunoassays of selected CBW
agents |
ORNL/Ramsey |
| |
Bruker Ims Point Chemical Detector (PCD) |
Bruker Saxonia Analytik (Germany) |
| |
Minitube Air Sampling System (MASS) |
Canadian Centre for Advanced Instrumentation |
| |
Chemical Agent Detection System II (CADS II) |
Scientific Instrumentation Limited (Canada) |
| |
Laser Remote Detector |
Research Institute 070 BRNO (Czech Republic) |
| |
MARK 1 Detector Kit Chemical Agent Residual Vapor (RVD) |
Richmond Packaging (UK) Limited |
| U.S. Government |
| |
Contract Labs |
EPA Envir Response Team Center (NJ) (Lafornara) |
| |
TAGA 6000E MS/MS-triple quadrapole |
EPA Envir Response Team Center (NJ) (Lafornara) |
| |
Mobile lab |
EPA Envir Response Team Center (NJ) (Lafornara) |
| Laboratory Research |
| |
Canine detection of low level CW |
Auburn: Lackland AFB |
| |
Wearable dosimeter indicating cumulative exposure |
CWC Treaty Lab |
| |
Miniature GC-IMS |
DARPA (Technispan) G. Spangler |
| |
Joint service lightweight standoff chemical agent detector
(JSLSCAD) |
JPOBD |
| |
Joint Service Chemical Agent Detector (JCAD) |
JPOCD |
| |
Joint Service Chemical Warning and Identification
LIDAR |
JPOCD |
| |
Miniaturized liquid chromatography |
M.D. Porter, Iowa StateUniversity |
| |
Micro-mass spectrometer for containment gas monitoring |
M.P. Sinha, Imaging and Spectrometry Systems
Technology |
| |
Neuron Chip |
NRL/F. Ligler |
| |
Micro unmanned chemical and biological sensor vehicle |
NRL/R. Foch |
| |
CB mass spectrometer Block 2 (CBMS II) |
Oak Ridge National Laboratory |
| |
Advanced Ion-trap mass spectrometry |
ORNL/S. McLuckey |
| |
Capillary electrophoretic methods for monitoring spacecraft
water |
NASA/R.L. Sauer |
| |
Enzyme-FET |
Sandia National Lab/Thomas |
| |
Parallel Micro Separations-based Detection (PMSD) |
SNL/Vitko |
| |
Noninvasive methemoglobin measurement |
USAMRMC |
| Military |
| |
GS/MS detection of chlorovinylarsenous acid (from Lewisite)
in urine |
USAMRMC |
| |
GS/MS detection of phosphonic acids (from GA,VX) in patient
fluids |
USAMRMC |
|
|
13-Oct-98
| Availability |
Product |
Source |
| Operational |
| |
Associate |
Carter-Melloy Corp |
| |
National Electronic Telecommunication-System for Surveillance
(NETSS) |
CDC |
| |
Public Health Lab Information System |
CDC |
| |
Communicable Disease Surveillance Center (CDSC) |
England/Wales |
| |
Salm-Net |
European Union |
| |
ProMed (Program for Monitoring Emerging Diseases) |
FASEB |
| |
National Antimicrobial Resistance Monitoring System
(NARMS) |
FDA/CDC/USDA |
| |
GIDEON (Global Infectious Disease Epidemiology Network) |
Gideon USA |
| |
Canadian Bacterial Disease Network (CBDN) |
NCE |
| |
Air Force Global Surveillance |
U.S. Air Force |
| |
WHO Weekly Epidemiological Record (WER) |
WHO |
| |
Outbreak |
WWW |
| |
Emerging Infectious Disease Initiative |
CDC |
| Planned |
| |
Global Emerging Infections Surveillance and Response System
(DoD-GEIS) |
DoD |
| |
Global Public Health Intelligence |
Health Canada |
|
|
Symptom-Based
Diagnosis Systems |
|
|
30-Sep-98
| Availability |
Product |
Source |
| Operational |
| |
Associate |
Carter-Melloy Corp |
| |
NBC indicator symptom matrix |
Defense Protective Services/M. Dougherty |
| |
Global Infectious Disease and Epidemiology Network |
Gideon, USA |
| Planned |
| |
Emergindex |
Micromedex, Inc. |
| |
Drugdex |
Micromedex, Inc. |
| |
Poisindex |
Micromedex, Inc. |
|
|
Biological Agent
Detection |
|
|
13-Oct-98
| Availability |
Product |
Source or Laboratory/PI |
| Commercial |
| |
LIfeChip High-Density Nucleic Acid Microarrays |
Affymetrix, Inc. |
| |
Profile 1 Bioluminometer |
Environmental Technologies |
| |
SMART Biological Warfare Detection Tickets |
Environmental Technologies |
| |
Biological integrated detection system (BIDS) |
Environmental Technologies |
| |
LightCycler (LC32) Thermal cycler microvolume
fluorimeter |
Idaho Technology |
| |
SpinCon High-volume Portable Air Sampler |
Midwest Research Institute (MRI) |
| Field tests |
| |
PathoSeq bacterial gene sequence library |
Affymetrix, Inc. |
| |
Modification of NMRI handheld BW tickets |
Battelle/NMRI |
| |
CB mass spectrometer (CBMS I) |
Bruker Instruments |
| |
Biological Microchips for Field Analysis of
Microorganisms |
DARPA (ANL, A. Mirzabekov) |
| |
Mini Mass Spectrometer for Biodetection |
DARPA (JHU/APL, W. Bryden) |
| |
16S Ribosomal RNA Hierarchical Analysis |
DARPA (Northwestern U.) Stabl |
| |
Miniature Environmental Air Sampler Using Aerogel |
DARPA (PSR, Inc.) UVA, C. Daitch, P. Norris |
| |
Hierarchical Analysis of Unknown Biological Samples |
Duke Univ./Wilson |
| |
Simultaneous immunoPCR and genomic PCR |
DuPont/Ebersole |
| |
ALERT Lateral Flow Immunoassay Tickets |
ERDEC/Emanuel and Valdes |
| |
Integrated Virus Detection System |
ERDEC/Wick and EnVirion, L.C. |
| |
High speed chemical analysis of DNA by TOF-MS |
GeneTrace Systems |
| |
Interim biological agent detector (IBAD) |
JPOBD |
| |
Compact DNA-based Bacterial Identification by Flow
Cytometry |
LANL/B. Marrone |
| |
Antibiotic Resistance Detection |
LANL/Jackson; N. Ariz. U./Keil |
| |
BW Genetic Sequencing |
LANL/Jackson; LLNL; Duke/Wilson |
| |
Self-assembling thin film biosensors |
LBNL/Charych |
| |
Improved methods to isolate and process DNA from environmental
samples |
LLNL/Carrano; LANL/Kuske |
| |
Miniature PCR-based Bioagent Detector |
LLNL/Marriella |
| |
Marine Corps Unit Biological Detector |
MARCORSYSCOM/Bryce |
| |
DNA Dipstick |
Molecular Tools, Inc./Boyce-Jacino |
| |
Handheld Assay SMART Tickets |
NMRI/Churilla |
| |
Automated Programmable |
Nanogen, Inc. Electronic Matrix APEX microchip |
| |
Rapid PCR assays for BW detection |
NMRI/Long and identification |
| |
Single Particle Fluoresence Counter |
NRL/Eversole |
| |
Anaylate 2000 Fiberoptic waveguide biodetector |
NRL/Ligler |
| |
LabChip applications to ChE and immunoassays of selected CBW
agents |
ORNL/Ramsey |
| |
Long range biological standoff detection system (XM94) |
Schwartz Electro-Optics |
| |
Chem/Bio Sentry System |
Tech Escort Unit |
| Laboratory |
| |
FBI Fly-away Laboratory |
Unknown |
| |
Liquid phase piezoelectric immunosensors |
A.A. Suleiman, Southern U. |
| |
Joint biological point detection system (JBPDS) |
CBDCOM |
| |
Nanoscale DNA |
CuraGen Corp. |
| |
Advanced Diagnostics Program |
DARPA |
| |
Unmanned Aerial Vehicle-Borne Hybrid Optical Sensor |
DARPA (Electro-Optics, Inc.) P. Titterton |
| |
Novel Biodetection by Spore-specific Phosphorescen |
DARPA (IIT Research Inst.) K. Rajan |
| |
Next Generation, Integrated Biosensor Research |
DARPA (Pacific Sierra) UVA, C. Daitch, P. Norris |
| |
Smart Aerogels for Application in Biowarfare |
DARPA (PSR, Inc.) UVA, C. Daitch, P. Norris |
| |
Upconverting Phosphor Flow Cytometer |
DARPA (SRI, J. Carrico) |
| |
Upconverting Phosphor Compact |
DARPA (SRI, J. Carrico) Handheld Biosensor |
| |
Novel Antibody Reagents (Immunoplastics) for Sensors |
DARPA (U. of TX, G. Georgiou) |
| |
Structure-based Ligands to Capture Microorganisms |
DARPA (U. of Ala., Birm)L. DeLucas |
| |
Capture of Pathogenic Microbes |
DARPA (Utah State U.) L. Powers |
| |
Pathogenic Microbe Sensor Technology |
DARPA (Utah State U.) B. Weimer |
| |
Rapid methods of detecting BW agents on food |
FDA; U. of Md. |
| |
Rapid bacterial testing for spacecraft water |
G.A. McFeters, Montana State U. |
| |
Microbial monitoring based on quantitative PCR |
G.H. Cassell, U. of Alabama, Birmingham |
| |
MALDI-MS for identifying intact whole bacteria |
Joint Inst Food Safety and Appl Nutrition/Musser |
| |
Joint Biological Remote Early Warning System (JBREWS) |
JPOBD |
| |
Simultaneous monitoring of multiple bacteria in
spacecraft |
M.D. Eggers, Genometrix, Inc. |
| |
IGEN PCR Biosensor Assay |
NMRI/Churilla |
| |
Recombinant antibodies for BW Agents |
NMRI/Churilla |
| |
DNA Detection via Current- Rectifying Oligonucleotides |
Northwestern U./Mirkin |
| |
Force Amplified Biological Sensor (FABS) |
NRL/Colton |
| |
A Multiplexed Immunosensor based on Lateral Force
Microscopy |
NRL/Gaber |
| |
Automated Multiagent Sensor |
NRL/Ligler |
| |
Neuron Chip |
NRL/Ligler |
| |
Micro unmanned chemical and biological sensor vehicles |
NRL/R.Foch |
| |
CB mass spectrometer Block 2 (CBMS II) |
Oak Ridge National Laboratory |
| |
Recombinant antibodies specific to Bacillus anthracis
spores |
ONR/LLNL (Leighton) |
| |
Advanced Ion-trap mass spectrometry |
ORNL/McLuckey |
| |
Bioaerosol Detector System based on Aerogel |
Pacific-Sierra Research Corp |
| |
UV Fluoresence Detection of BW Agents on Surfaces |
Sandia NL/Thomas |
| |
Parallel Micro Separations-based Detection (PMSD) |
SNL/Vitko, Thomas |
| |
Taqman PCR-based BW assays |
USAMRIID |
| |
Automated Nucleic Acid Extractor |
USAMRIID/Xohox, Inc |
| |
Deployable diagnostic kit for biowarfare agents |
USAMRMC |
|
|
30-Sep-98
| Availability |
Product |
Source/Location |
| Commercial |
| |
M11, M13 Man-portable decontamination application
systems |
All-Bann Enterprises/Tradeways Ltd (MD) |
| |
M12 Powered vehicle-mounted multipurpose decontaminating
apparatus |
All-Bann Enterprises/Tradeways Ltd (MD) |
| |
DS2P Decon solution |
All-Bann Enterprises/Tradeways Ltd (MD) |
| |
M17 Lightweight decontamination system (Sanator) |
Engineered Air Systems (MO) |
| |
Emergency Response Equipment Package |
HAZ/MAT DQE Inc (IN) |
| |
Hospital-based Decontamination Equipment Package |
HAZ/MAT DQE Inc (IN) |
| |
Transportable Decontamination Systems |
Modec Inc. (Denver) |
| |
Decontamination Kit No. 2 |
Tradeways Ltd |
| |
M291 Decontamination kit for individual equipment |
Tradeways Ltd |
| |
M258 Skin decontamination kit |
Tradeways Ltd |
| |
STB super tropical bleach |
Unknown |
| Field tests |
| |
XM21/XM22 Modular decontamination system |
CBDCOM |
| |
Wound decon systems |
USAMRIID |
| |
Mediclean Spray/Suction Units |
Karcher (Germany) |
| Research |
| |
Non-toxic, non-corrosive enzyme- based foam decon
system |
Arthur D. Little/Altus Biologics |
| |
Sorbent decontamination system |
CBDCOM |
| |
Sensitive equipment decontamination |
CBDCOM |
| |
Biomimetic materials |
DARPA/Molecular Geodesics, Inc. (D. Ingber) |
| |
Molecular decoys |
DARPA/U. of Michigan (Baker) |
| |
Enzymatic Decontamination |
ERDEC/DeFrank |
| |
Solid state absorber/oxidizers for CW decon |
LANL/Earl |
| |
Ozone based methods for CW decon of equipment |
LANL/Earl |
| |
Fenton chemistry (peroxides) for CW and BW decon |
LANL/Earl |
| |
Low temperature plasma jet |
LANL/Earl |
| |
Oxidizing solutions for CW decon of equipment and
property |
LLNL |
| |
Gel carrier for vertical surfaces |
LLNL/Raber |
| |
Surfactant-based Decontamination Solution |
ONR/NSWC Dahlgren (Brown) |
| |
Quaternary Ammonium Complex Decontaminant |
ONR/NSWC Dahlgren (Cronce) |
| |
Chemical/UV decontamination method |
Optimetrics, Inc |
| |
Hydrolyzing foams |
Sandia National Lab/Zelikoff |
| |
Corona discharge air purification technology |
SRI International |
| |
Fixed site decontamination system |
U.S. Marines |
| |
Lightweight portable decontamination system |
U.S. Marines |
|
|
Chemical Agent
Treatments |
|
|
07-Oct-98
| Agent |
Treatment |
Source |
Availability |
| Cyanide |
| |
Amyl nitrite+sodium nitrite+sodium thiosulphate |
Pasadena |
Commercial |
| |
alpha adrenergic antagonists |
Other |
Commercial |
| |
Superactivated charcoal |
Other |
Commercial |
| |
4-dimethylaminophenol (4-DMAP) |
Germany |
Foreign |
| |
Kelocyanor (dicobalt EDTA) |
Germany |
Foreign |
| |
Hydroxocobalamin (vitamin B12a) |
France |
Foreign |
| |
Stroma-free hemoglobin |
USAMRICD |
IND |
| |
p-aminooctanoylphenone (PAOP) |
USAMRICD |
Preclinical |
| |
p-aminoheptanophenone (PAHP) |
USAMRICD |
Preclinical |
| |
p-aminopropiophenone (PAPP) |
USAMRICD |
Preclinical |
| |
8-aminoquinoline derivatives |
Other (Steinhaus et al.) |
Preclinical |
| |
Alpha-ketoglutaric acid |
Indian Defense R&D Establishment |
Preclinical |
| Nerve agents |
| |
Pralidoxime chloride (2-PAM) |
Meridian Med Tech; Quad Pharm; Wyeth |
Commercial |
| |
Diazepam |
Abbott, Lederle, Parke-Davis, others |
Commercial |
| |
Pyridostigmine bromide |
ICN Pharmaceuticals |
Commercial |
| |
Atropine |
Meridian Med Tech: Kalli DuPhar; 3M-Reiker |
Commercial |
| |
Obidoxime |
Czech Republic military |
Foreign |
| |
Reactive topical skin protectants |
USAMRICD |
Preclinical |
| |
Methanesulphate salt of |
UK pralidoxime |
Preclinical |
| |
Nicotine hydroxamic acid methiodine |
USAMRICD |
Preclinical |
| |
Monoisonitroacetone (MINA) |
USAMRICD |
Preclinical |
| |
Butyrylcholinesterases (horse, human, mutants) |
USAMRICD |
Preclinical |
| |
Acetylcholinesterase |
USAMRICD |
Preclinical |
| |
Catalytic monoclonal antibodies |
USAMRICD |
Preclinical |
| |
Memantine |
USAMRICD |
Preclinical |
| |
NMDA receptor blockers |
USAMRICD |
Preclinical |
| |
Pro-2-PAM |
Unknown |
Preclinical |
| |
H series of oximes |
Czech Republic military and others |
Preclinical |
| |
Carboxylesterase |
USAMRICD |
Preclinical |
| Phosgene |
| |
Oxygen+ventilation+bronchodilators |
Other |
Commercial |
| |
Aminophylline |
Other |
Commercial |
| |
Hexamethylene tetramine (HMT) |
Other |
Commercial |
| |
Corticosteroids |
Other |
Preclinical |
| |
Cysteine (and N-acetylcysteine) |
USAMRICD |
Preclinical |
| Vesicants |
| |
Soap and water |
Other |
Commercial |
| |
Hypochlorite solution (<1%) |
Chlorox |
Commercial |
| |
British Anti-Lewisite (dimercaprol) |
Becton Dickinson Microbiology Systems |
Commercial |
| |
M258A1 Decon kit |
Tradeways, Ltd. (MD) |
Commercial |
| |
Nitric oxide synthase inhibitors |
Canadian Defence Research Establishment |
Preclinical |
| |
Dexamethasone/heparin/promethazine combos |
Other |
Preclinical |
|
|
Biological Agent
Treatments |
|
|
07-Oct-98
| Agent |
Treatment |
Source |
Availability |
| Anthrax |
| |
Ciprofloxacin |
Bayer |
Commercial |
| |
Anthrax Vaccine |
Michigan Biological Products |
Commercial |
| |
Doxycycline |
Parke-Davis; Pfizer; Lederle |
Commercial |
| |
Biostructure Mapping by STEM, Cryo-EM, EELS, and SPM: Anthrax
Toxin |
Brookhaven NL/Furlong |
Preclinical |
| |
Structure-based Drug Design for Microorganism-associated
Proteins |
DARPA/UAB (DeLucas) |
Preclinical |
| |
Anthrax Toxin Structure and Function |
NIDR/Leppla |
Preclinical |
| |
Control of Protective Antigen Synthesis by B.
anthracis. |
UTex Health Ctr Houston/Koehler |
Preclinical |
| Bacteria |
| |
Novel Broad Spectrum Antimicrobial Agents |
DARPA/Isis Pharmaceuticals (D. Ecker) |
Preclinical |
| |
Novel Broad Spectrum Antimicrobial Agents-Gene
Expression |
DARPA/ SmithKline Beecham (M. Rosenberg) |
Preclinical |
| |
Novel Targets of Pathogen Vulnerability |
DARPA/Stanford U. (L. Shapiro) |
Preclinical |
| |
Sequential Auto Vaccination by Stem Cells |
OSIRIS Therapeutics (D. Marshak) |
Preclinical |
| Brucella |
| |
Rifampin (Rifadin) |
Merrell Dow Pharmaceuticals |
Commercial |
| |
Recombinant Brucella Vaccine Development |
(USSR)/Noskov; USAMRIID/Friedlander |
Preclinical |
| |
Immunogenicity of Recombinant Brucella Abortus Proteins |
LSU Med Ctr/Roop |
Preclinical |
| C. Botulinum |
| |
Immune globulin from human donors |
(Frankovich and Arnon) |
IND |
| |
Vaccine (toxoids A-E) |
CDC |
IND |
| |
Trivalent botulinum antitoxin (A,B,E) |
CDC |
IND |
| |
Horse antibotulism serum (globulin) |
USAMRIID |
IND |
| |
Botulinum Vaccine |
USAMRIID |
IND |
| |
Mechanism of Botulinum Toxin Action |
Thomas Jefferson Univ./Simpson |
Preclinical |
| |
Aminopyridines (3,4-diaminopyridine)1 |
USAMRIID |
Preclinical |
| |
Monoclonal antibodies |
USAMRIID |
Preclinical |
| |
Recombinant vaccines |
USAMRIID |
Preclinical |
| |
Chimer of botulinum toxin receptor-binding protein |
USAMRIID |
Preclinical |
| Dengue |
| |
Functional Analysis of Dengue Virus Antigens NS3 and
NS5 |
UKansas Med Center/Padmanabhan |
Preclinical |
| |
Mechanisms of Immunopathology in Dengue Hemorrhagic
Fever |
UMass Med Ctr/Ennis |
Preclinical |
| Ebola |
| |
Immunologic and Epidemiologic Studies of Emerging
Viruses |
Scripps Res Inst/Buchmeier |
Preclinical |
| EEE |
| |
EEE Vaccine |
Unknown |
IND |
| |
Acute Alphavirus Encephalitis |
Johns Hopkins SPH/Griffin |
Preclinical |
| Lassa |
| |
Immunologic and Epidemiologic Studies of Emerging
Viruses |
Scripps Res Inst/Buchmeier |
Preclinical |
| |
Molecular Basis of Arenavirus Virulence |
U Wisconsin/Salvato |
Preclinical |
| Multiple |
| |
Naked DNA/gene gun vaccines |
USAMRIID |
Preclinical |
| |
Multiagent replicon vaccines |
USAMRIID |
Preclinical |
| Plague |
| |
Plague Vaccine |
Greer |
Commercial |
| |
Streptomycin |
Lilly; Pfizer |
Commercial |
| |
Doxycycline |
Parke-Davis; Pfizer; Lederle |
Commercial |
| |
Plasmid PCD-Encoded Virulence Determinants in Plague |
U Kentucky/Straley |
Preclinical |
| |
Mechanism of Bacterial Metastasis in Plague |
UMass Med Sch/Goguen |
Preclinical |
| Q-Fever |
| |
Tetracyclines |
Numerous drug companies |
Commercial |
| |
Q-Vax |
Australian product |
Foreign |
| |
Q-Fever Vaccine |
IND 610 |
IND |
| |
Pathogenic Roles of Coxiella burnetti Surface Proteins |
Texas A&M/Samuel |
Preclinical |
| |
Surface Change and Virulence in Coxiella burnetti |
Wash. State Univ./Mallavia |
Preclinical |
| Ricin |
| |
alpha deglycosylated A chain as antigen |
USAMRIID |
IND |
| |
Antiricin rabbit antibodies |
USAMRIID |
Preclinical |
| |
Formalin treated toxoid |
USAMRIID |
Preclinical |
| |
Toxoid in galactide-glycolyde |
USAMRIID |
Preclinical |
| SEB |
| |
Staphylococcal Toxins |
Kansas State/ Iandolo |
Preclinical |
| |
Immunosuppressive Action of Staphylococcal Enterotoxins |
Temple Univ Sch of Med/Rogers |
Preclinical |
| Smallpox |
| |
Cidofovir (Vistide) |
Giliad Pharm |
Commercial |
| |
Smallpox Vaccine (Dryvax) |
Wyeth |
Commercial |
| |
Smallpox Vaccine (DoD) |
USAMRIID |
IND |
| |
Vaccinia DNA Replication: Genetics and Molecular
Biology |
Cornell Univ Med Coll/Traktman |
Preclinical |
| |
Viral Inhibition of Host Defenses |
Duke Univ Med School/Pickup |
Preclinical |
| T-2 Mycotoxin |
| |
M238A1 skin decon kit |
USAMRICD |
|
| |
Multi Shield TSP barrier cream |
Interpro, Inc (Mass) |
Commercial |
| |
Superactive activated charcoal |
Other |
Commercial |
| |
Corticosteroids (systemic) |
Other |
Commercial |
| |
XE-555 resin (M291 decon kit) |
Tradeways Ltd (MD) |
Commercial |
| |
Mycotoxin with carrier protein |
USAMRIID |
Preclinical |
| |
BN52021 |
USAMRIID |
Preclinical |
| |
Prophylactic enzyme induction |
USAMRIID |
Preclinical |
| |
Despeciated monoclonal anti-idiotype antibody |
USAMRIID |
Preclinical |
| Toxins |
| |
Red Blood Cell Pathogen Defense-Destruction |
DARPA/Boston U (M. Bitensky) |
Preclinical |
| |
Polyvalent Inhibitors of Microorganisms, Viruses, and
Toxins |
DARPA/Harvard U (G. Whitesides) |
Preclinical |
| |
Structural Biology of Bacterial Toxins |
DARPA/Los Alamos National Lab (G. Gupta) |
Preclinical |
| |
Intracellular Sensors of Virulence |
DARPA/U. of Michigan (R. Kopelman, et al.) |
Preclinical |
| |
Instant Immunization |
DARPA/U.TX- South Western Med. Ctr. (S. Johnston) |
Preclinical |
| |
Red Blood Cell Pathogen Defense-Decoy |
DARPA/UVA (R. Taylor) |
Preclinical |
| Tularemia |
| |
Streptomycin |
Lilly; Pfizer |
Commercial |
| |
Tularemia Vaccine |
Unknown |
IND |
| VEE |
| |
C-84 VEE Vaccine |
USAMRIID |
IND |
| |
TC-83 VEE Vaccine |
USAMRIID |
IND |
| |
Structure-based Drug Design for Microorganism-associated
Proteins |
DARPA/UAB (DeLucas) |
Preclinical |
| |
Molecular Evolution of Guanarito Virus |
Southwest Fnd for Med Res/Rico-Hess |
Preclinical |
| |
In-vitro Construction of Attenuated VEE Virus Mutants |
UNC Chapel Hill/Johnston |
Preclinical |
| Virus |
| |
Ribavirin (Virazole) |
ICN Pharmaceuticals |
Commercial |
| |
Developmental Proteins to Prevent Human Injury from
Pathogens |
DARPA/enVision (E. Barnea) |
Preclinical |
| |
Super Immune Cells |
DARPA/Harvard Med School (D. Scadden) |
Preclinical |
| |
Novel Bacteriophage Therapies for Vibrio Cholerae
Infection |
DARPA/Harvard U. (J. Meklanos) |
Preclinical |
| |
Invasive (Intra-cellular) Antibodies |
DARPA/Scripps Research Inst. (P. Ghazal) |
Preclinical |
| |
Heat Shock Protein-Peptide Complexes as Anti-Viral
Agents |
DARPA/U. of Connecticut (P. Srivastava) |
Preclinical |
| |
Structure-based Design of Acute Countermeasures to
Viruses |
DARPA/U. of TX at Galveston (R. Shope) |
Preclinical |
| |
Prevention of Virus Assembly in Host Cells |
DARPA/U. of Wisconsin (S. Kornguth) |
Preclinical |
| |
Cytotoxic T Cell Responses to Virus Infection |
Scripps Research Inst./Whitton |
Preclinical |
| |
Glycyrrhizic acid derivatives |
USSR/Pokrovsky; USAMRIID/Huggins |
Preclinical |
| |
Monkeypox Virus Genome Sequencing |
USSR/ Shchelkunov; USAMRIID/Jarling |
Preclinical |
| WEE |
| |
WEE Vaccine |
Unknown |
IND |
|
|
Prevention and
Treatment of Psychological Effects |
|
|
07-Oct-98
| Source/Location |
Product |
Focus |
Availability |
| American Psychiatric Assoc |
Disaster Psychiatry Web Site |
Multiple |
Open Literature (www) |
| |
Committee on Psychological Responses to Disaster |
Multiple |
Open Literature (www) |
| American Psychological Assoc |
Disaster Response Network |
Multiple |
Open Literature (www) |
| American Red Cross |
Disaster Mental Health Services |
Multiple |
(Training, short-term intervention) |
| Department of Veterans Affairs |
On-line Publications, database |
Victims |
Open Literature (www) |
| |
National Center for PTSD |
Victims |
Open Literature (www) |
| Disaster Mental Health Institute |
Training, consultation, interventions |
Multiple |
Fee-for-Service |
| International Critical Incident Stress Foundation
(Mitchell) |
Critical Incident Stress Debriefing training, network of
providers |
Workers |
Fee-for-Service |
| International Society for Traumatic Stress
Studies |
Web Site, journal on stress and coping |
Victims |
Open Literature (www) |
| National Research Council |
Studies on Risk Communication, 1989, 1996 |
Community |
Open Literature (www) |
| Rutgers Center for Environmental Communication
(Chess) |
Studies, advice to governments and industry on dealing with
public concern |
Community |
Fee-for-Service |
| Substance Abuse and Mental Health Services Admin
(Flynn) |
FEMA Crisis Counseling Assistance and Training Program
(CCP) |
Victims |
Federal Response Plan |
| U of Delaware Disaster Research Center (Nigg) |
Disaster Recovery as a Social Process and similar
studies |
Multiple |
Open Literature (www) |
| Uniformed Services Univ of Health Sciences
(Norwood) |
Center for Stress Studies--Studies, advice on stress and coping
in military |
Multiple |
Open Literature (www) |
| Uniformed Services Univ of Health Sciences (Ursano)
|
Psychiatry Dept.--Studies, advice on stress and coping in
military situations |
Multiple |
Open Literature (www) |
| Walter Reed Army Institute of Research (Belenky) |
Studies, advice on stress and coping in military
situations |
Multiple |
Open Literature (www) |
|
|
30-Sep-98
| Availability |
Product/Model |
Agent Type |
Source |
| Beta testing |
| |
BWD Incident Repository |
Bio |
DARPA/Oracle (S. Kennedy) |
| |
BWDAD (Biological Warfare Defense Anchor Desk) |
Bio |
DARPA/SAIC (R. Goodwin) |
| |
BITLAS (Biological integration team large area simulation
model) |
Bio |
OptiMetrics, Inc. |
| |
Accelerated Consequences Management |
C/B |
DARPA (J. Silva) |
| |
GRIP (Global Response Incident Planner) |
C/B |
DARPA/BBN (M. Callaghan) |
| |
Field Inventory Survey Tool |
C/B |
DARPA/BBN (M. Callaghan) |
| |
Casualty Triage Tag |
C/B |
DARPA/Ellora Software (J. Bachant) |
| |
MMTandE (Military Medical Training and Evaluation) |
C/B |
DARPA/Michigan S.U. (J. Downs); U of TX (S. Hufnagel);
SAIC |
| |
EMCR (Electronic Medical Care Record Repository) |
C/B |
DARPA/Oracle (S. Kennedy) |
| |
Essential Medical Data Set |
C/B |
DARPA/Oracle (S. Kennedy) |
| |
CODA (Chemical/biological Operational Decision Aid) |
C/B |
DARPA/Pacific -Sierra Research |
| |
COC (Command Operations Center of the Future) |
C/B |
DARPA/ScrenPro (J. Mantock) |
| |
AAHAWS (Automated atmospheric hazard assessment/warning
system) |
C/B |
Mevatec Corp/ENSR Consulting |
| Operational |
| |
HASCAL/SCIPUFF (Hazard Assessment System for Consequence
Analysis) |
C/B |
Defense Special Weapons Agency |
| |
CATS/WMD (Consequences Assessment Tool Set) |
C/B |
Defense Special Weapons Agency |
| |
NBC Warn (Nuclear, biological, and chemical warning and
reporting network software) |
C/B |
OptiMetrics, Inc. |
| |
ALOHA |
Chem |
EPA |
| Planned |
| |
Pgm for Response Options and Technology Enhancements for
Terrorism in Subways |
C/B |
Argonne National Lab (Policastro) |
| |
Urban Transport of CW/BW Aerosols |
C/B |
Lawrence Livermore (Ermak, Imbro); McArthur Found.
(Stanford/Wilkening) |
| |
CBW Environment/Challege and Mobile Force Operability Modeling
and Simulation |
C/B |
NSWC Dahlgren |
|
|
A wide variety of
sources were used in assembling the above inventory. The initial meeting
of the committee in July of 1997 provided an overview of important
organizations and R&D programs within the federal government.
Follow-up with the briefers provided a more detailed list of projects
and points of contact for technical information. The Office of Emergency
Preparedness shared information on promising technology from its files,
and of course the committee members themselves contributed both personal
contacts and specific information from their own files and experience.
The World Wide Web provided much information about both relevant
commercial products and R&D activity, and the following databases
were accessed and searched: National Technical Information Service,
Defense Technical Information Center, Federal Research in Progress,
Federal Conference Papers, Medline, MedStar, HSRProj.
Although we are still
actively seeking additional information on many of the technologies
already located, information on the products in the above inventory was
distilled from a ProCite database of more than 430 records and entered
into a series of databases, a description of which constitutes this gap
and overlap analysis. In the process, we eliminated most products or
R&D that did not explicitly address military chemical or biological
agents or appear to be sufficiently generic in nature to encompass those
agents without a major change. Exceptions were made only in categories
in which there were very few or no products or R&D explicitly
directed at chemical and biological weapons. We also excluded technology
represented in our database by only a single experiment, journal
article, or SBIR contract (i.e., we focus on products and R&D
programs).
The overall
organization of the inventory roughly parallels that of the interim
report: Separate sections address detection (in the environment, and in
patient fluids), detection of a covert attack in a population
(Epidemiology), protection, decontamination, treatment, psychological
effects, and computer software. The inventory has no sections on
pre-incident intelligence or safe and effective patient extraction,
because we uncovered no relevant products or research (we recognize that
there is a great deal of intelligence activity devoted to prevention of
terrorism, but our task is to address consequence management--our
inclusion of a pre-incident intelligence section in the interim report
was solely to make the point that whatever the readiness of the civilian
medical community, any pre-incident warning will amplify effectiveness
manyfold). An additional difference from the interim report organization
is a section on computer models. The inventory includes a source for the
products or the laboratory and PI performing the research, and a
judgment about the product's state of development (availability).
|
|
With 173 entries in the
detector database, it became more manageable to divide the database into
those detection devices intended for biological agents and those
intended for chemical agents (there are 7 devices intended for both
biological and chemical agents and these were included in each separate
database).
|
|
Most of the funding for
biodetection devices comes from the Department of Defense (56%), with
18% from commercial ventures. DoE, FDA, NASA, and TSWG account for the
remaining 26%. With only 6 (out of 73) devices commercially available,
92% are in either the field testing stage (40%) or still in the
laboratory (52%).
Where they are used.
There are only 17 devices in the database that are explicitly
intended for diagnostic purposes, that is, detecting biological agent in
fluid or tissue samples from a patient. Most (85%) current devices are
designed to detect biohazards in the environment (liquid, air, surface,
or other). Seven devices in the inventory are designed to detect agent
in either patients or the environment, and numerous others aimed at
environmental monitoring or detection could be adapted to patient
diagnostics, but not without considerable additional research.
What is needed.
The most prevalent medium needed is liquid (44%), although 18
devices are designed to detect agent in the air. Twelve devices utilize
either liquid or air samples. Twenty-eight items (40%) provide numeric
estimates of agent concentration. A third (33%) of the biodetection
devices do not provide a quantitative estimate of the pathogen detected,
and another 27% of the devices provide no information whatsoever about
quantification.
Speed and
portability. According to the inventory, device portability is
evenly distributed among hand-held, carriable by man, truck-loaded, or
fixed. However, much of the newest research focuses on miniaturization
of detectors. Fifty-nine percent of the devices in the inventory will
provide results in a matter of minutes. Eight devices (11%) can or will
detect agent in a matter of seconds.
How they work.
There are basically two types of technology needed in a biodetection
device: (1) detection technology and (2) reporting technology. Detection
technology refers to the mechanism by which the device differentiates
the target from other organisms or molecules. Reporting technology
refers to the transduction mechanism that makes the detection event
apparent to a human observer. Thirty percent of the devices in the
inventory depend upon nucleic acid hybridization for detection, while
23% use antibody/antigen binding. The remaining devices use chemical
reactions, the composition of agent (size, charge, mass),
ligand/receptor binding, or more than one of these technologies.
Forty-one percent of the reporting technology is optical, with other
devices using technologies based on charge, color, mass, electrochemical
reaction, or some combination.
|
|
There are 100 entries
in the chemical detector inventory. Twenty-eight percent of the entries
are funded by the Department of Defense and 56% by commercial companies.
Other funders include DoE, EPA, NASA, and TSWG. Chemical detection
devices are much more developed than their biological counterparts; 60%
of the items in the inventory are commercially available, with only 13%
still in the field testing stage and 16% in the laboratory. It is also
worth noting that there are three commercial devices that are designed
specifically for a civilian market.
Where they are
used. The overwhelming majority (96%) of the chemical agent
detectors are intended to detect agent in the environment, with only 4%
designed to detect agent in patients.
What is needed.
Forty-two percent of the devices provide a numerical estimate of agent
concentration, but 47% only indicate the presence or absence of agent.
There are four items in the inventory that will indicate a "High" or
"Low" concentration of agent.
Speed and
portability. Ninety-two percent of the chemical detection devices in
the inventory are able to provide information about agents within
minutes or seconds (43% and 49%, respectively). Fifty-one percent are
hand-held devices, 10% can be moved by one man, 12% can be moved by
truck to the site of a suspected attack, and 23% are fixed in one
location (e.g., a ship or a laboratory).
How they
work. The detector technology used by 24% of these devices depends
upon a chemical reaction. Other technologies used in the detection
process are: agent composition (mass, charge, or size) absorption,
ligand/receptor binding, mass (mass spectrometry, piezoelectric, surface
acoustic wave, or multiple technologies). For the reporting phase of the
sources, technologies include: charge (1%), color (12%), electrochemical
(8%), atomic emission spectrum (1%), photo-acoustic (2%), surface
acoustic wave (7%), or some combination or hybrid (8%) of these
technologies.
|
|
Recognition of
Signs and Symptoms in Patients (Diagnosis) |
|
|
There are six products
in this database. Three (the NBC indicator symptom matrix, Associates
diagnostic software, and the Global Infectious Disease and Epidemiology
Index [GIDEON]) are fully operational. The three Micromedex products
(Poisindex, Drugdex, and Emergindex) are databases in use in poison
centers and hospitals. Poisindex and Drugdex provide information on
poisonous chemicals and drugs, while Emergindex is used for emergencies
of unknown etiology. Only Emergindex is currently structured to provide
diagnostic and treatment information based on signs and symptoms, but
Micromedex is attempting to reengineer the other two databases to make
this possible. At present, they require chemical or drug names as input.
The NBC indicator
symptom matrix assumes that one of the traditional military chemical
weapons is involved, and simply facilitates differential diagnosis among
them. The other databases are larger in scope, but include some or all
of the chemical or biological weapon agents.
|
|
The products in this
database are potentially relevant in identifying outbreaks of disease in
populations (as opposed to individual patients). There are 15 entries,
12 of which are operational at this time, the Emerging Infectious
Disease Initiative of the CDC, which is a long-term project just getting
under way, and the Global Public Health Intelligence of Health Canada,
and the DoD's Global Emerging Infections Surveillance and Response
System (DoD-GEIS) are two recently announced initiatives to be started
in the near future.
|
|
Personal Protective
Equipment |
|
|
There are 63 entries in
the personal protective equipment database. Of these, the vast majority
(86%) of these products are designed to protect against both chemical
and biological agents (8 are for chemicals only and one is for
biological agents only). Many of the products are commercially available
(44%), but 3 items are unique to the military. Also represented is
equipment from 18 other countries. The U.S. Department of Defense (17
entries) and the multi-agency Technical Support Working Group (6
entries) sponsor laboratory research or field testing in this area. The
type of equipment is evenly divided between protective clothing and
breathing apparatus (both at 41%), with 11 entries that offer both types
of protection.
|
|
Seventy-eight percent
of the 33 products in this database involve strictly chemical
decontamination. The remaining products are designed to decontaminate
either biological agents alone (13%), or both biological and chemical
agents together (9%). Only 10 (31%) are commercially available. Three of
these 10 items are focused on decontamination of people, 4 on equipment
or materiel decon, and 3 might be used for decon of either people or
inanimate objects. Twenty-two entries (69%) are currently in research
and development, which is largely funded by government agencies. The
Department of Defense funds 50%, the Department of Energy 32%, and the
multiagency Technical Services Working Group 9% of the decontamination
products listed as in research or field testing. Only 4 of the 22
R&D items in the inventory are focused on biological agent
decontamination; 2 items pertain to both chemical and biological agents;
and 13 focus on chemical agents. Thirty-six percent of the products
being researched are potentially applicable to human decontamination;
the remainder focus solely on decon of inanimate objects.
|
|
Of the 128 treatment
products in the inventory, 88 (69%) are intended for biological agents,
leaving 40 (32%) for the treatment of chemical agents. Funding for
treatment research is provided largely by DoD (43%) and commercial
institutions (34%). NIH accounts for 18% of the funding, leaving only 5%
of the funding from the Public Health Service.
|
|
The biological agents
for which at least one treatment is being tested or is already available
are: anthrax, brucella, C. botulinum, dengue, Ebola, EEE, Lassa,
plague, Q-fever, ricin, SEB, smallpox, T-2 mycotoxin, tularemia, VEE,
and WEE. Other entries involve broader treatments of more than one
bacteria, virus, or toxin. Treatments for viruses, C. botulinum,
and T-2 mycotoxin account for 35% of the treatment entries in the
inventory (13%, 12%, and 10%, respectively)
Despite the abundant
research on treatments of biological agents, most (65%) are in the
preclinical stage of development. There are 13 (15%) INDs and 16 (19%)
commercially available treatment products. There are 5 INDs for C.
botulinum treatments, 1 for EEE, 1 for Q-fever, 1 for ricin, and 1
for smallpox. With the exception of tularemia, which has only one
commercially available product and none in development, all of the
agents listed above have at least one preclinical product under
investigation. As might be expected, given the research status of most
of the entries, there is no evidence or only partial evidence of
efficacy in 53% of the treatment products. There is evidence of efficacy
in animals in 21% of the entries, but only 3 (4%) entries with proven
efficacy in humans.
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The chemical agents
considered for this inventory are: cyanide, nerve agents, phosgene, and
vesicants. Out of the 40 treatment products in the inventory, 43% are
for nerve agents, 30% for cyanide, 15% for vesicants, and 12% for
phosgene. There is currently only one IND and it is for a cyanide
treatment. As in biological treatments, most (53%) treatment products
for chemical agents are in the preclinical stage of development;
however, 35% of the chemical agent treatments are commercially available
in the United States. There is animal evidence of efficacy in 68% of the
entries, and 8 (20%) proven treatments in humans. The remaining products
have no evidence or only partial evidence of efficacy.
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This is a unique
section of the inventory because the committee was unable to identify
any "products" specifically connected with chemical or biological
terrorism. The inventory thus focuses on information and resources
regarding the psychological effects and treatment of trauma and
disasters in general. There are 16 entries ranging from Web sites, to
current studies, to publications. One entry focuses solely on rescue and
health care workers; 4 solely on trauma victims themselves; and 2 focus
on community-wide effects. The remaining seven include more than one of
the above in their scope--usually victims and workers. Unfortunately,
there is a dearth of information and resources about specific
populations of victims such as the elderly, children, the disabled, and
other special groups outside of the average adult male and female.
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The 20 items in this
database fall in two main categories: (1) information about agent
transport, and (2) information about incident management. There are 10
models in each category. Most (13) are in beta testing, 4 are available
for use at this time or are being used for purposes other than assisting
authorities plan for responding to chemical or biological terrorism, and
three are in the planning stage. The Department of Defense is funding 15
products, DoE 3, EPA 1, and 1 is funded by a commercial organization.
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