75 results about "Wild Fires" patented technology

The present invention relates to the use of ionic liquids as flame retardants. The compounds of the invention may be used as flame retardants in various materials without causing damage to the environment and or health of humans or animals. Ionic liquid flame retardants maybe applied alone or in combination with traditional flame retardants. Ionic liquid flame retardants can be applied to finish textile, plastic, leather, paper, rubber or as wild fire flame retardants.

Aerial dispersion systems that may be employed to allow rapid and temporary conversion of aircraft for aerial dispersion purposes, such as aerial fire-fighting. The aerial dispersion systems may be implemented using modular components that may be configured for compatibility with conventional cargo loading and unloading systems of modern aircraft, including side-loading cargo systems of wide body passenger and cargo aircraft having high lift capacities. The aerial dispersion systems may be rapidly installed in a large fleet of high capacity aircraft in response to a wildfire or other rapidly-developing emergency such as an oil spill, chemical or biological contamination incident, building or refinery fire, etc. After use, the aircraft of the fleet may be rapidly de-modified and returned to original condition. The aerial dispersion systems may be operated with a fleet of aircraft in a coordinated manner, for example, as part of an aerial firefighting formation having multiple aircraft sharing information and / or common control.

A disclosed fire retardant application structure includes an elongated tube comprised of material that is water-porous throughout on one side of the tube and material that is water-impermeable on the remainder of the tube. A disclosed wildfire monitoring and service system includes a satellite-image monitoring computer that is programmed to display a composite map image defining locations of wildfires observed by satellite and multiple separate structures. The system also includes a wireless transmission subsystem that is capable of transmitting a signal from the central location to each of the structures selectively, and, at each of the structures, a fire-retardant application subsystem. Each of the application systems is directed at exterior surfaces of its respective structure and is responsive to a select signal that is transmitted through the transmission system. Variations and methods are also disclosed.

A Self-Sustaining Compressed Air Foam System that utilizes a vacuum proportioning blending console, delivering pre-determined amounts of fire pre-suppressant / suppressant foam concentrate with ratios from 0.01% to 6% and water when used in concert with a vacuum dispensing closure for tight head pails dispensing said foam concentrate that is plumbed to either an air operated pump or solar powered electric pump on the inlet side producing a pre-suppressant foam solution. A second blender / mixer / agitator conjoins an inert pressurized gas or air at the outlet of the pump variables to produce the finished pre-suppressant / suppressant foam product for various applications including structure protection in wild fire events. A special nozzle can be used as the applicator that reduces pressure / velocity of the finished foam to allow the user to work in confined areas and / or in areas that are normally out of reach of the foam stream projected.

A system for dispensing a liquid from an aircraft to extinguish a fire has a container located in a body of the aircraft for storing the liquid to extinguish the fire. A boom is coupled to an exterior section of the body of the aircraft and to the container. The boom has a hollow interior section and a plurality of openings formed on a bottom section of the boom. The openings are used for dispensing the liquid from the container. A pump is coupled to the container and the boom for dispensing the liquid from the container and out through the boom. A rotating mechanism is coupled to the boom for rotating the boom.

A universal, fluid transfer, Q-D coupling assembly for connecting water supply hoses to fire-fighter's wild-fire backpack tanks comprising a two or three-part combination: #1) a ⅝″ female member having an axially-slideable detent collar and an internal, spring-biased fluid shut off flap, and #2) a male nozzle / reducer / collar member having a detent engaging groove. A ball valve is connected to element #2, either integral as #2A, or as a separate assembly element #3. Both elements #2 and #3 have a female threaded collar that receives the nominal 1″ male fitting of a garden hose. The parts can be supplied as a kit. Element #2 is a unitary fitting combining a hydraulic-sized, male Q-D nozzle, a reducer section and a standard garden hose-sized, female internally-threaded fixed collar. This element is preferably supplied with an integral ball valve intermediate the reducer portion and the female collar.

The present invention describes systems and methods which provide a moisture barrier that douses or diffuses buoyant burning debris, particularly hot embers, from a bush and / or brush fire (e.g., wildfires). By strategic placement of the devices and / or apparatus as disclosed, a method of preventing the destruction of dwellings and roof-containing structures by exploiting heat convection is provided.

The present invention relates to the use of ionic liquids as flame retardants. The compounds of the invention may be used as flame retardants in various materials without causing damage to the environment and or health of humans or animals. Ionic liquid flame retardants maybe applied alone or in combination with traditional flame retardants. Ionic liquid flame retardants can be applied to finish textile, plastic, leather, paper, rubber, or as wild fire flame retardants.

The present invention describes systems and methods which provide a moisture barrier that douses or diffuses buoyant burning debris, particularly hot embers, from a bush and / or brush fire (e.g., wildfires). By strategic placement of the devices and / or apparatus as disclosed, a method of preventing the destruction of dwellings and roof-containing structures by exploiting heat convection is provided.

A large size fire blanket folded in one pack is provided and delivered to the area of wild fire over the air by manned or unmanned aircrafts. Being deployed over the air to the wild fire area, the fire blanket attached to aircrafts is unfolding above the fire by stretching it out with aircrafts slowly moving apart until fire blanket is fully unfolded. After that the aircrafts starts simultaneous landing and covering with fire blanket the affected area. In result the fire blanket cuts off oxygen flow to the fire area and extinguish fire therefore. To prevent “hot air balloon” effect, the fire blanket has multiple perforations equally spread along the surface.

The invention employs a blower of the type used by commercial landscapers. The device has an engine mounted on a frame. Shoulder straps attached to the frame allow the user to wear the device on his back leaving the hands of the operator free to operate other tools such as a chain saw or perform other tasks. Also, wearing the device on the back makes it easier to transport the device over long distances to the source of the fire or backfire to be started.The device's blower generates a stream of air at high speeds. This stream of air can be used to feed a fire when the air is directed at a fire. When used to extinguish a fire, air from the blower is tapped from a point 180 degrees removed from the blower output and mixed with exhaust from the engine. This mixture is diverted through a Y-shaped valve into the airstream coming out of the blower. When the device is used to start backfires a fire is started. The airstream, without the mixture of air and engine exhaust can be used to both encourage the propagation of the fire and direct the fire towards the main wild fire. The ability to quickly spread the backfire in the proper direction is imperative because a sudden change in wind direction or other weather conditions could cause the backfire to become as big a problem as the original fire.

A collapsible wild fire fighting water bucket made from pliable material and suspended from an aircraft to be lowered into an open body of water for filling. A weighted Rim Opening Device holds the bucket top open for filling and facilitates a tipping over action during filling. The buckets open top being free of any centrally located supports. The bucket is equipped with a tubular extension which forms a discharge port for dumping water. The tubular extension being releasably supported under water inside the bucket under tension. Purse lines running through openings in the tubular extension and resilient sealing lips bring sealing lips into abutment sealing the discharge port of the tubular extension.Suspension lines suspend the bucket from the aircraft and a releasable support, releasably supports the free end of the tubular extension within the bucket body extending upwardly from the openings to close the discharge port. The releasable support cooperates with the openings to allow the tubular extension to be rapidly lowered so as to extend downwardly from the bottom to open the discharge port for dumping the water. The purse lines cooperate with the releasable support to lift and lower the tubular extension. The buckets also are equipped with emergency extractor Jump Seats, secured to the inside wall of the bucket to be used for dire straits emergency extraction of wild fire ground crews trapped by fire storm.

A fire retardant delivery system for protection from wildfire is provided. The system includes a retardant tank for storing a fire retardant and a carrier tank for storing a carrier for the fire retardant. Alternatively, the system includes a fire retardant tank fluidly coupled with a carrier provided from a suitable source. The retardant tank and the carrier joined in a tank arrangement. A supply of a motive source is in fluid communication with the tank arrangement. An activation system disperses the supply of the motive source into the tank arrangement so that the fire retardant and the carrier are mixed into a fire retardant and carrier mixture after actuation of the activation system. At least one distribution nozzle delivers the fire retardant and carrier mixture to a desired area.

A wild fire protection system is provided. The system is positioned about a building or buildings to be protected, and has a number of fire suppression distributors such as water spraying devices. A plurality of fire sensors are in computerized communication with the distributors and activate them once a fire is sensed. The system is configured to hold back an oncoming wildfire far enough from the building to prevent its damage, and to prevent the spread of the wildfire near the building.

A system and method for detecting and managing wildfires is described. The system and method deploy a plurality of fixed sensors in an area to be monitored. Each fixed sensor is operable to detect ambient conditions in the vicinity of the fixed sensor and to relay that information to a central control center. A plurality of mobile sensors are deployed with responders, where each mobile sensor is capable of detecting ambient conditions near the respective responder and conditions of the responder. The plurality of mobile sensors are in communication with the central control center. The system then determines attributes of the wildfire from the collective data from the plurality of fixed sensors and the plurality of mobile sensors and coordinates the activity of responders in response to the wildfire using the collective data.

An automated fire detection system includes a distributed network of standalone sensor units having mulifunctional capability to detect wildfires at their earliest stage. Multiple modes of verification are employed, including thermal imaging, spectral analysis, near infrared and long-wave infrared measurements, measurements of the presence and / or concentration of smoke, and sensing local temperature and humidity and wind speed and direction. A dedicated algorithm receives all data from the network and determines the location of flames from the imaging sensors, combined with the smoke, temperature, humidity, and wind measurements at every dispersed device.

The present invention describes systems and methods which provide a moisture barrier that douses or diffuses buoyant burning debris, particularly hot embers, from a bush and / or brush fire (e.g., wildfires). By strategic placement of the devices and / or apparatus as disclosed, a method of preventing the destruction of dwellings and roof-containing structures by exploiting heat convection is provided.

The invention comprises a portable and field deployable firefighting position indicator used to mark a resource, call for aid, and / or to mark a fire retardant drop location. The field deployable position indicator comprises a global positioning system receiver and a transmitter linked to a central controller via an aircraft and / or a low earth orbit satellite, where the central controller gathers resource information to aid in command and control of firefighting resource in fire suppression. Further, drop ball communicators are used to transmit localized information, such as weather to the main controller and / or to call for emergency aid from nearby resources and / or from the main controller.

A flexible, frangible bladder for the receipt of water and / or fire retardant, the bladder of sufficient size to contain a sufficient amount of such water and / or fire retardant, the bladder being positionable in a retaining member positioned on an aircraft, the retaining member selectively moveable so as to release the bladder onto a desired location in a wild fire, the bladder bursting upon impact, and spreading the water and / or fire retardant.

A remote fire detection system includes a plurality of sensor nodes, each comprising a smoke sensor, a temperature sensor, a gas sensor, and a processor having inputs coupled to the outputs of the sensors. The processor processes the sensor signals to generate at least one of smoke, temperature, or gas metric information, and determines a unique time window within a reporting period. A transmitter transmits report generated by the processor during the unique time window within the reporting period. A personnel node includes a location processor that generates location information of the personnel node and a transmitter that transmits the location information. A gateway node includes a receiver that receives reports generated by the plurality of sensor nodes during the unique time window within the reporting period. A processor generates a waveform comprising synchronization pulses during the reporting period and processing the received reports generated by the plurality of sensor nodes to generate an uplink message in response to the at least some of the sensor metric information. A transmitter transmits the waveform and the uplink message. A server node receives the uplink message and determines a probability of a fire at a location based on sensor metric information of the received uplink message.

The invention comprises an integrated and distributed wildfire fighting system used in gathering information related to firefighting resources, developing a strategic plan, and / or communicating directions to and / or between resources. Communicators linked to positions of natural resources, personnel, and / or equipment are used to communicate identification, position, capability, and / or status of individual resources to a main controller via satellite and / or aircraft. The communicators additionally facilitate communication between personnel, teams of personnel, levels in a firefighting hierarchy, and / or with automated equipment. Further, drop ball communicators are used to transmit localized information, such as weather, a fire-retardant drop request, and / or a call for emergency aid to nearby resources, an aircraft, and / or to a main controller.

A distributed system detects and tracks wildfires using a fleet of automobiles as remote sensing systems. An individual vehicles includes a plurality of sensing subsystems each collecting and evaluating a respective environmental parameter for various autonomous functions such as collision avoidance, lane-keeping, and climate control. Each sensing subsystem analyzes a respective environmental parameter to detect a respective fire-related trigger. A fire response module in the vehicle responds to a respective fire-related trigger from one of the sensing subsystems by fusing data from a plurality of the sensing subsystems. The fire response module uses the fused data to detect whether there is a fire-related event. A wireless communication module communicates with a remote fire response center, and transmits the fused data to the fire response center when a fire-related event is detected. The response center sends notices and detour information for a confirmed fire incident to the wireless communication module.

A rapid deploy method and system fir protecting a building against damage by an approaching wildfire includes rapidly deploying a durable ember-resistant cover over at least a portion of the building as wildfire approaches, and optionally deploying a temporary fire-suppression wall, configured to stop or deflect or slow winds, and reduce heat and repel embers of an approaching wildlife. Advantageously, the durable fire-suppression wall, optionally built with a number of mobile wall sub-units, is designed to be transported by a single user. Each mobile wall sub-unit optionally includes a vertical wall section and a flared base section designed to provide a solid base and hold an internal tank configured to store a fire-suppression substance. A spray assembly positioned on each sub-unit is designed to spray the fire-suppression substance. The over-the-building cover, optionally comprised of stainless-steel wire mesh fabric, may be placed over the building without contemporaneous wall deployment if exigent circumstances.

An apparatus, system and method for fire suppression and containment is provided in accordance with one embodiment of the invention. A conduit with a plurality of nozzle connections, in various configurations to create specific fire suppressant discharge patterns. Each conduit can be operated individually or connected to another conduit by a predetermined length of hose forming a contiguous system, traversing large areas of land. The invention and components form a multipurpose fire suppression apparatus. The system can be operated remotely or manually. An alternative embodiment can be installed in residential, commercial and industrial applications. Each system can be custom designed based upon environmental engineering requirements and system application—with regard to conduit diameters, material composition, shape, length and nozzle design without leaving the core design. The system components can also incorporate sensors, monitoring devices, robotics (i.e. RM all terrain vehicle) satellite imaging and wireless technology.

The invention discloses bacillus subtilis capable of preventing tobacco wildfire and angular leaf spot. The collection number of the bacillus subtilis NYJ-02 is CGMCC No.4555. The invention also provides a bacterial agent prepared by the bacillus subtilis NYJ-02 and a preparation method thereof. The bacillus subtilis NYJ-02 is biocontrol bacteria, the strain and the fungicide of the bacillus subtilis have stronger restraint function to the tobacco wildfire and the angular leaf spot, and thus, the bacillus subtilis has a good biopesticide development prospect.

The invention discloses a sterilization composition, a sterilization pesticide and the application of the sterilization composition or the sterilization pesticide. The sterilization composition consists of kasugamycin and cuppric nonyl phenolsulfonate, and the weight ratio of the kasugamycin to the cuppric nonyl phenolsulfonate is 1:40 to 40:1, preferably 1:20 to 20:1. The composition serving as an active ingredient and acceptable auxiliary components in the pesticide form the sterilization pesticide in form of microemulsion, wettable powder and the like. When the sterilization composition or the sterilization pesticide is applied to the prevention and control of cucumber bacterial angular leaf spots, rice bacterial leaf blight and tobacco wildfire, a remarkable synergistic effect can be achieved, the application amount of each single dosage can be effectively reduced, a lasting period can be prolonged, and the generation of pesticide resistance of pathogenic microorganisms can be retarded; and the sterilization composition, the sterilization pesticide and the application have remarkable popularization value.

A Wildfire Early Detection System uses Aerial Video Clips of surveilled areas—obtained through a Network of Hardware components including UAVs and Tethered Aerostats equipped with a Camera and an AI-enabled Embedded Computer—and an Aerial Training Dataset, digitally combining variations of Smoke-Plume-Clips with variations of Background-Clips in nine different positions in the first frame of said Background-Clips with a relative size to the background calculated by perspective and programmed to follow the background to stay apparently “static” in the same place relative to the background for all the remaining frames of the Clip. A Computer-Vision Algorithm trained with that Aerial Training Dataset is used to recognize early fire Plumes of Smoke in those Aerial Video Clips with use of a Multiplication-free Neural Network for Wildfire detection, an AddNet based Discriminator CNN, a GANs used as both event detectors and smoke-plume scene synthesis and Block-based detection.

Several embodiments of a wildfire and structure fire containment system by means of a fire-resistant Mesh Sheet (13). Said Mesh Sheet (13) is held aloft by a fire resistant Balloon (11) or Balloons (21) which are filled with a lighter-than-air material comprising gas, plasma, liquid, solid, or a combination. Propellants (10) are attached to said Balloon (11) or Balloons (21). A fire resistant Base or Anchor (16) is along the bottom edge of said Mesh Sheet (13). One or more additional said Mesh Sheets (13) can be attached horizontally using a Lip (32) and Channel (31) system. Additional said Mesh Sheets (13) can be added to vertically extend the embodiment to higher elevations. A Flap (14) exists covering an opening on the bottom section of the Mesh Sheet (13). Various electronic cameras, heat sensors, wind sensors, and other electronic and digital devices can be attached.