this disclosure of the invention is submitted in furtherance of the constitutional purposes of the u . s . patent laws “ to promote the progress of science and useful arts ” ( article 1 , section 8 ). generally speaking this invention relates to the prevention , control and extinguishing of fires in confined spaces . the disclosed breathable fire safety control device , shown as 1000 in the appended figures , facilitates safety during an emergency by reducing harmful smoke gases while aiding to extinguish fires in an enclosed space . since it is known that the air we breath consists of two major types of gases , nitrogen ( at about 78 %) and oxygen ( at about 21 %), a device and method that uses oxygen reduced air to extinguish fire is described herein . as shown in fig1 a , 1 b , and 1 c the inventive fire safety control system 1000 receives unprocessed air 10 from the atmosphere , treats the air 10 within the device 1000 and releases cooled , oxygen - reduced air 44 ( termed cora hereinafter ). as can be gleaned from the above mentioned figures , unprocessed air 10 from the atmosphere enters the housing 100 of the system 100 with the aid of flow currents created by input fan 12 . housing 1000 contains the major components of the system 1000 , including the input and output fans ( 12 and 28 , respectively ), the gas combustion chamber 22 , and a series of air cooling radiators 24 . the input fan 12 then forces the air 10 into a gas combustion chamber 22 . the combustion chamber 22 receives a flammable gas contained in an external gas source such as a gas tank 14 . the flammable gas is delivered to the chamber 22 by way of a fuel line 16 coupled at one end to the chamber 22 and at the other end to the tank 14 . once the gas enters the chamber 22 , a gas valve 18 creates a spark which in turn produces a controlled gas flame 20 within the chamber 22 . any suitable flammable gas known in the art such as propane , or methane , for example , may be stored inside tank 14 . the process of the burning flame 20 inside of chamber 22 reduces the oxygen { o 2 } content of the air 10 . the o 2 is consumed in the combustion process and lowers the oxygen content to within a range of 12 % to 15 % to thereby produce oxygen reduced air 23 . although lowering the oxygen level of air below 12 % would make it increasingly more effective for fire control , the air becomes less breathable which would not be desirable for fire - fighting personnel . the oxygen reduced air 23 must then be cooled from about 1000 ° f . down to about 90 ° f . the process of cooling the oxygen reduced air 23 is performed by a series of air cooling radiators 24 . oxygen reduced air 23 enters the radiators 24 and is forced through the radiators 24 by way of negative air pressure created by the flow from input fan 12 and the output fan 28 . the input and output fans , 12 and 28 , respectively , are configured such that 100 , 000 cubic feet of air per minute is forced in and out of the system 1000 . the average household room contains roughly one thousand cubic feet of air , thus this system 1000 can fill an average room with cora 44 several times within a few minutes . a cooling fluid is circulated through the air cooling radiators 24 by way of pipes 25 . the radiators 24 reduce the temperature of the oxygen reduced air 23 , thereby producing cora 44 . output fan 28 then forces this cora 44 out of the system 1000 thereby providing breathable , cooled , oxygen - reduced air , cora 44 for use against flames . herein , over 99 % of the extinguishing gas cora 44 is normal air , leaving no room for harmful amounts of impurities such as carbon monoxide , thus enhancing the safety for any fire - fighting personnel . several ways of cooling the fluid circulating through the radiators may be employed , as described below . in fig1 a , the fire safety control system 1000 employs the use of an external cooling fluid , such as water . piping 31 connected to an external water source 31 transfers water into an input duct 31 a , which allows cooling fluid to enter the series of air cooling radiators 24 . as the oxygen - reduced air 23 is cooled within the radiators 24 , the cooling fluid exits the radiators 24 at an output duct 39 a . the output duct 39 a is coupled to piping 39 to allow cooling fluid to exit to an external drainage means 40 . herein , pipings 31 and 39 along with water source 32 and drainage means 40 provide an open - ended provision for external cooling fluid circulation . such open - ended cooling may be easily adapted for use with a home or building connected to public water supply or ground water supply . fig1 b illustrates a closed - loop circulation of cooling fluid that is transferred from a cooling unit 30 to air cooling radiators 24 . a coolant reservoir 36 houses a suitable coolant known in the art , such as but not limited to glycol alcohol or water , for example . the coolant fluid is then transferred by way of piping 34 to a fluid pump 35 . fluid pump 35 pumps coolant fluid into the air cooling radiators 24 through input duct 31 a . after circulating through the series of radiators 24 , the coolant fluid then exits through output duct 39 a to piping 39 into a fluid cooling radiator device 38 . this cooling radiator device 38 significantly cools the coolant fluid and this cooled fluid is transferred by way of piping 37 into the coolant reservoir 36 . the fluid pump 35 provides the appropriate force to circulate the coolant fluid throughout the cooling unit 30 . fig1 c shows an embodiment employing both a cooling unit 30 in conjunction with external water source 32 and drainage means 40 . in such an embodiment , the coolant fluid may be water taken from the external water source 32 that is cooled by the cooling unit 30 , as described above . after a fire control process is completed , the circulated water may be removed by way of piping 39 out to external drainage means 40 . fig2 illustrates the present invention as used within a housing structure 50 such as a home or building environment . herein , the fire safety control device 1000 may be incorporated into a climate control system such as a heating and air conditioning unit . herein , cora 44 is circulated to cover every cubic inch of interior space traveling throughout the internal conduits between walls and exiting vents . at the onset of a fire or excessive smoke , the system 1000 can be configured to automatically turn on and begin the processing of air . the system may be hard - wired to a smoke detector ( not shown ) which may trigger the system 1000 to start . such a smoke detector may be incorporated into a modified hvac . upon prompted operation of the fire control system 1000 , external unprocessed air 10 from the atmosphere 10 is brought into the system 1000 and processed ( as described above ). the system 1000 outputs cora 44 which is then circulated throughout the structure 50 by the hvac system . an alternate power source , such as , for example , a battery or generator , may be used in the event that the normal power of the structure 50 becomes unavailable due to fire . the hvac unit also has provisions to output the dangerous , hot , smoke - filled air 48 out of the structure 50 . in the event of an inception of a fire , the modified hvac is configured with appropriate hardware and / or software to begin circulating cora 44 within structure 50 . these provisions may also include additional conduits and ducts ( not shown ) adapted to the structure 50 and incorporated into the hvac system to expel the hot , smoke - filled air 48 away from structure 50 . fig3 shows an embodiment of the fire safety control system 2000 in use as a mobile unit . herein , a fire safety vehicle 60 houses the system 2000 . the mobile system 2000 is connected to gas tank 14 and cooling means , such as a cooling unit 30 , or external water and drainage sources . attached to the system 2000 is a cora transmission conduit 80 which transfers cora 44 to a housing structure 50 on fire . in the instant embodiment , a hyper - powered output fan 28 a may be employed to sufficiently force cora 44 through conduit 80 onto a burning structure 50 . the conduit 80 may be attached to any existing window or hole in the structure 50 . or alternatively may be attached directly to a vent 55 to force cora 44 through the heating and a / c conduits within a structure 50 in a strategic manner . fig4 shows another embodiment employing the fire control system 2000 as a mobile unit in conjunction with a fire safety vehicle 60 . however , in this embodiment , a fire - resistant tarp 85 is connected to cora transmission conduit 80 to encircle a burning structure 50 . tarp 85 may be fire - retarded in several ways , including having layers of internal materials coated or impregnated with substances which deter fire . however , tarp 85 is not intended to be a limiting , definite structure , but rather an exemplary device illustrating an enclosing means that can surround a burning structure 50 . since other modifications and changes varied to fit particular operating requirements and environment will be apparent to those skilled in the art , the invention is not considered limited to the example chosen for purposes of disclosure , and covers all changes and modifications which do not constitute a departure from the true spirit and scope of the invention . having thus described the invention , what is desired to be protected by letters patent is presented in the subsequent appended claims .
the present invention features a portable , modular on - site breathable fire control system which can make an unlimited amount of cooled , oxygen - depleted air that can still be consumed by humans while extinguishing fire and reducing smoke . this system may be incorporated into an already existing heating and a / c unit for enhanced fire safety in a home or building . the system may also be used as a mobile unit attached to a fire safety vehicle wherein a transmission conduit transfers the processed air directly to the area on fire . additionally , a fire - resistant tarp - like structure of sufficient size may be used to enclose a burning structure while the process air is transmitted thereto via a transmission conduit .