A wireless system network for managing a fleet of wildfire defense system trailers deployed on a wood-building construction job-sites located in a wildfire urban interface (WUI) region to reduce the risk of construction project damage, destruction and loss due to wildfire. The wireless system network includes a distribution of system components, namely: a fleet of mobile construction job-site wildfire defense system trailers deployed and used on wood home and building construction job-sites anywhere within the WUI region, for the purpose of managing and delivering environmentally-clean liquid fire inhibiting chemical, by way of spraying operations, to the exterior surfaces of wood and other combustible surfaces present at home construction and other building job-sites, long before the arrival of hot flying embers from a wildfire and/or wildfire storm so as to reduce and/or mitigate damage and/or destruction of property by wildfire; and a GPS-based tracking system for tracking the location of each mobile construction job-site wildfire defense system trailer deployed and used on a wood home and building construction job-site anywhere within the WUI region.

A wildfire defense system trailer and method of installing an automated sprinkler-based wildfire defense system on a home construction site before the starting of the construction phase of a home building project in a wildfire urban interface (WUI) region. The first commissioned automated sprinkler-based wildfire defense system will continue in operation all during the home building construction phase, and will only be decommissioned from operation, and removed from the premises (including the job-site wildfire defense system trailer being removed from the property) when construction of the wood home building project is totally completed, and the wood home building is ready for occupation. At the same time when the first system is decommissioned, a second permanently-installed automated sprinkler-based wildfire defense system is installed within the new home construction, independent from the first system, and ready for commissioning to provide a new proactive measure of defense against a wildfire storm occurring after home building construction has been completed, thereby protecting all wood and combustible surfaces on the home and surrounding property, and preventing fire ignition and flame spread until the wildfire storm passes through the WUI region. By virtue of the present invention, it is now possible to significantly reduce the risk of wood home building construction projects occurring within a wildfire urban interface (WUI) region, and better support the underwriting of home construction and ownership insurance policies within such regions.

A trailer-based wildfire defense spraying system for automatically spraying a wood-building construction job-site with environmentally-clean liquid fire inhibitor before arrival of wildfire remotely-detected in a wildfire urban interface (WUI) region. The trailer-mounted wildfire defense spraying system includes: a trailer framework provided with wheels; an adjustable stand mechanism adapted for coupling to a hitch mounted on the rear frame of a truck or tractor provided with an engine and drive train for pulling the trailer to its home construction job-site destination(s); a cabin enclosure mounted on the trailer having a rear hinged door/loading ramp for loading and unloading equipment and supplies stored inside the cabin; and a sheltered interior volume for storing diverse kinds of equipment, and supplies of liquid wildfire inhibitor. The sheltered interior volume includes: (i) a storage tank mounted on the trailer for storing a quantity of liquid fire inhibitor to be sprayed by sprinkler heads over the home construction job-site and the wood building under construction when a sprinkler system is installed and deployed on the home construction job-site; (ii) an electrically-driven hydraulic pump system mounted on the trailer; (iii) a spray pump system controller mounted on the trailer; (iv) a battery power supply mounted on the trailer for driving electric hydraulic pump system under the electrically-driven hydraulic pump system; and (vi) a set of sprinkler heads for mounted on the home construction job-site, and fluid connection to the trailer-supported pumping system and said storage tank, and supported about the ground at different heights, including as high as a flag pole sprinkler, as required to spray liquid fire inhibitor over the top and sides of a wood building under construction and job-site premises and property.

A wildfire elimination system removably connected to at least a portion of a building, the wildfire elimination system including a fire deterrent dispenser device to dispense at least one fire retardant therefrom to eliminate a fire, a plurality of sensors connected to the fire deterrent dispenser device to detect a presence of a fire within a predetermined distance at least one of the plurality of sensors and automatically control the fire deterrent dispenser device based on the presence of the fire, a fire retardant storage container connected to the fire deterrent dispenser device to store the at least one fire retardant therein, and an extraction device connected to the fire retardant storage container to extract the at least one fire retardant from the fire retardant storage container using at least one extraction tool.

The plurality of sensors may include at least one exterior heat sensor removably connected to at least a portion of an exterior of the building and configured to detect another temperature level based on another predetermined temperature level that indicates a fire near the building is imminent. The wildfire elimination system may further include a fire resistant pipe comprising a plurality of apertures, the fire resistant pipe disposed within at least a portion of the building to dispense the at least one fire retardant from the plurality of apertures in response to at least one of the plurality of sensors detecting the fire within the building.

A remotely deployable fire protection device for remotely deploying a fire resistant panel between a structure and a fire includes a housing that is fire resistant. Each of opposing ends of a shaft is rotationally coupled to a respective one of opposite ends of the housing. A panel that is flexible and fire resistant has a top edge coupled to the shaft. A base is coupled to a bottom edge of the panel. A lock, operationally coupled to the shaft, is positioned in the housing proximate to a respective one of the opposite ends. An actuator, coupled to the housing proximate to the lock and operationally coupled to the lock, comprises a communicator for remote deployment of the panel. A plurality of mounting brackets is coupled to the housing. A cable with a first terminus coupled to the actuator is available for manual deployment of the panel.

The embodiments herein provide a fireproof barrier shield comprising the panels combined together to form a fireproof blanket placed on the building structure to protect the structure from flying embers, radiant heat and fire accidents. The panel comprises an inner heat retardant layer an outer heat reflective layer secured together using a heat resistant adhesive glue or thread. Each panel has several slots for receiving a fastener for combining the panels. The straps comprising a buckle and a belt are provided for securing the fireproof blanket to the ground using screw type anchors or stakes. The buckle is made of heat conductive material and the strap is made of fireproof threads. The perforated channels with brass or aluminum hose fittings are sewn to the inner layer to allow the water flow. The shield comprises a third layer arranged as an outer layer or an inner layer.

A fire prevention system for a building. The fire protection system has an inlet duct having an interior end and an exterior end. An air handler is disposed at the interior end of the inlet duct to provide air from outside the building to the air handler. A flame arrester is located at the exterior end of the inlet duct to prevent burning embers from entering the inlet duct. The fire protection system also includes an interior duct system for distributing air from the air handler through the building. Distribution vents in the interior duct system allow flow of air from the interior duct system to the interior of the building to raise the pressure in the building above the outside pressure. Exhaust vents to allow flow of air out of the building. Also, a method for fire prevention for a building exposed to a fire.

The precision aerial firefighting and deluge system for helicopters and unmanned aerial systems is a device to attack fires inaccessible to firefighters due to altitude or other obstructions by streaming water or other fire retardant into or onto a specific location on the ground, on the water, or at altitude. The system employs a medium or heavy lift helicopter or unmanned aerial systems one or more tanks or bladders for water and/or fire retardant chemicals, a compressed air foam system, a pump, rigid plumbing lines for outflow of water/fire retardant; a rigid, telescopic boom that extends beyond rotor tip path plane, flexible lines/hoses inside boom; a crew switched electronic boom controller, a boom management system, a flange adapter, an electric, variable direction, crew-controlled fire monitor, a drop-hose, and a dart with inertial feathers.

A fire protection device for use in isolating a building structure having several sides from an external fire includes a plurality of folded fire-resistant protective covers and a releasing mechanism. Each protective cover has dimensions large enough to cover one of the several sides of the building structure. The protective covers are composed of knit, woven or nonwoven textiles composed of flame resistant fibers including cotton, polyester, polyamide, viscose, themoset fibers, inorganic fibers and carbon fibers with a fabric areal weight between 20 grams per square meter to 300 grams per square meter. The textiles are impregnated with a fire resistant material which absorbs heat, such as aluminum trihydrate (ATH) or other hydrated metal salts, borates, silicates, phosphates, bromides and chlorides, moisture absorbing polymers such as poly-acrylates and starch derivatives so that the amount of impregnated material is less than 50% of the fabric weight. The releasing mechanism releases each protective cover.

The present invention relates to a method of providing fire safety of a car park, comprising the steps of: a. scanning an underside of a vehicle from underneath prior to entering the car park using a first scanning means; b. transmitting scanned data to an evaluation unit; and c. transmitting a command from the evaluation unit to a car park entry control means, and subsequently allowing or denying entry of the scanned vehicle into the car park. In step a., at least one parameter selected from mechanical damage to the underside of the vehicle and temperature of the underside of the vehicle is obtained to generate the scanned data. In step b., the data is compared with reference data and/or previously stored data. Based on said comparison, the evaluation unit determines whether the scanned vehicle is at least partially electrically powered and, subsequently, whether at least one of said parameters exceeds a threshold value for mechanical damage and/or temperature of the underside of the vehicle, thereby generating the command to the car park entry control means. If the scanned vehicle is at least partially electrically powered and the mechanical damage and/or the temperature of the underside of the vehicle is above the threshold value, said command is to deny entry of the scanned vehicle into the car park. If the scanned vehicle has mechanical damage and temperature of the underside of the vehicle below the threshold value, said command is to allow entry of the scanned vehicle into the car park. The present invention further relates to a system for providing fire safety of a car park.