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43 results about "Bioterrorism Agents" patented technology

Bioterrorism is terrorism involving the intentional release or dissemination of biological agents. These agents are bacteria, viruses, fungi, or toxins, and may be in a naturally occurring or a human-modified form, in much the same way in biological warfare.

Air decontamination devices

Air decontamination method and device designed for bioterrorism, nerve gas, toxic mold, small pox, Ebola, anthrax and other agents require built in air sampling, rapid filter changes and the ability to use a mobile, transportable and connectable system in positive mode to push contaminates away or in negative mode to contain a toxin from spreading. This application combines features in respirators, industrial and hospital grade air filtration with the ability to provide air testing to guide the connection of the device with other treatment modules or existing HVAC and other equipment. With this new flexibility, ozone, UV, absorption, Thermal destruction, filters and liquid chemical neutralization can be manually or automatically adapted for emergency response to both daily airborne contamination and military grade terrorist threats of airborne contamination. The air decontamination units may be used to decontaminate the air after industrial and medical contaminations and terrorist biological, chemical and radiological attacks, for example. Mobile isolation units, and methods of decontaminating rooms, are disclosed, as well as Well as infection control and emergency response usage as an emergency clean air supply when connected to escape hoods, decon tents, or containment barriers to protect structures from homes to business from outside toxic agents. The unit can be powered by normal AC, 120 volts or 240 or be adapted to battery or field power supply units.
Owner:西奥多・A・M・阿尔茨

Method for determining the specific growth rate of distinct microbial populations in a non-homogeneous system

The present invention pertains to a molecular biology-based method and kit for measuring the specific growth rate (or cell doubling time) of distinct microbial populations. The method and kit can be used to analyze mixed culture samples that have been exposed to chloramphenicol or other protein synthesis inhibitors for defined times. In a preferred embodiment, the method of the invention (also referred to herein as FISH-RiboSyn) is an in situ method that utilizes fluorescence in situ hybridization (FISH) with probes that target: (1) the 5′ or 3′ end of precursor 16S rRNA; or (2) the interior region of both precursor 16S rRNA and mature 16S rRNA. Images can be captured for a defined exposure time and the average fluorescent intensity for individual cells can be determined. The rate of increase of the whole cell fluorescent intensity is used to determine the specific growth rate. The method of the invention can be attractive for rapidly measuring the specific growth rate (or cell doubling time) of distinct microbial populations within a mixed culture in industries such as environmental systems (water and wastewater treatment systems), bioremediation (optimization of conditions for microbial growth), public health (identification of rapidly growing infectious microbes), and homeland security (identification of rapidly growing bioterrorism agents).
Owner:UNIV OF SOUTH FLORIDA

Method for determining the specific growth rate of distinct microbial populations in a non-homogeneous system

The present invention pertains to a molecular biology-based method and kit for measuring the specific growth rate (or cell doubling time) of distinct microbial populations. The method and kit can be used to analyze mixed culture samples that have been exposed to chloramphenicol or other protein synthesis inhibitors for defined times. In a preferred embodiment, the method of the invention (also referred to herein as FISH-RiboSyn) is an in situ method that utilizes fluorescence in situ hybridization (FISH) with probes that target: (1) the 5′ or 3′ end of precursor 16S rRNA; or (2) the interior region of both precursor 16S rRNA and mature 16S rRNA. Images can be captured for a defined exposure time and the average fluorescent intensity for individual cells can be determined. The rate of increase of the whole cell fluorescent intensity is used to determine the specific growth rate. The method of the invention can be attractive for rapidly measuring the specific growth rate (or cell doubling time) of distinct microbial populations within a mixed culture in industries such as environmental systems (water and wastewater treatment systems), bioremediation (optimization of conditions for microbial growth), public health (identification of rapidly growing infectious microbes), and homeland security (identification of rapidly growing bioterrorism agents).
Owner:UNIV OF SOUTH FLORIDA

Nanoparticle probes for detecting ribosome inactivating protein, manufacturing method thereof and use thereof

The invention provides nanoparticle probes for detecting ribosome inactivating protein, a manufacturing method thereof and use thereof. In the nanoparticle probes, nanoparticles with bioaffinity serving as a matrix can be combined with a target protein antibody after undergoing surface modification, and the interference of physical absorption is eliminated; and a monoclonal antibody of rat anti-human immunoglobulin IgG serving as a capture antibody is used to be coupled with a target ribosome inactivating protein through the specific interacting force between the antibody and the antigen. Thenanoparticle probes for detecting the ribosome inactivating protein of the invention combine the high concentrating capability of the nanoparticles with large specific surface area with the high antigen selectivity of the monoclonal antibody, so the sensitivity and specificity of the detection of the ribosome inactivating protein are improved. The nanoparticle probes of the invention comprehensively use nano technology and immunity technology and are applied to the detection of the target ribosome inactivating protein in the fields of food safety, anti-bioterrorism and the like. In addition, the nanoparticle probes have the advantages of quickness, convenient carrying, specific trace detection and the like.
Owner:NAT INST OF METROLOGY CHINA
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