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KR20170014146A - System for forcing advance withdrawal of people from hazardous gas discharging facility and method for controling the system - Google Patents

System for forcing advance withdrawal of people from hazardous gas discharging facility and method for controling the system Download PDF

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Publication number
KR20170014146A
KR20170014146A KR1020150107009A KR20150107009A KR20170014146A KR 20170014146 A KR20170014146 A KR 20170014146A KR 1020150107009 A KR1020150107009 A KR 1020150107009A KR 20150107009 A KR20150107009 A KR 20150107009A KR 20170014146 A KR20170014146 A KR 20170014146A
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gas
signal
discharge
odorant
pressure
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KR1020150107009A
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Korean (ko)
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KR101739733B1 (en
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김용한
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(주)케이엠에스
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    • AHUMAN NECESSITIES
    • A62LIFE-SAVING; FIRE-FIGHTING
    • A62CFIRE-FIGHTING
    • A62C2/00Fire prevention or containment
    • AHUMAN NECESSITIES
    • A62LIFE-SAVING; FIRE-FIGHTING
    • A62CFIRE-FIGHTING
    • A62C2/00Fire prevention or containment
    • A62C2/06Physical fire-barriers
    • A62C2/24Operating or controlling mechanisms
    • A62C2/241Operating or controlling mechanisms having mechanical actuators and heat sensitive parts
    • AHUMAN NECESSITIES
    • A62LIFE-SAVING; FIRE-FIGHTING
    • A62CFIRE-FIGHTING
    • A62C3/00Fire prevention, containment or extinguishing specially adapted for particular objects or places
    • AHUMAN NECESSITIES
    • A62LIFE-SAVING; FIRE-FIGHTING
    • A62DCHEMICAL MEANS FOR EXTINGUISHING FIRES OR FOR COMBATING OR PROTECTING AGAINST HARMFUL CHEMICAL AGENTS; CHEMICAL MATERIALS FOR USE IN BREATHING APPARATUS
    • A62D3/00Processes for making harmful chemical substances harmless or less harmful, by effecting a chemical change in the substances
    • A62D3/30Processes for making harmful chemical substances harmless or less harmful, by effecting a chemical change in the substances by reacting with chemical agents
    • GPHYSICS
    • G08SIGNALLING
    • G08BSIGNALLING OR CALLING SYSTEMS; ORDER TELEGRAPHS; ALARM SYSTEMS
    • G08B21/00Alarms responsive to a single specified undesired or abnormal condition and not otherwise provided for
    • G08B21/02Alarms for ensuring the safety of persons
    • G08B21/12Alarms for ensuring the safety of persons responsive to undesired emission of substances, e.g. pollution alarms
    • G08B21/14Toxic gas alarms
    • GPHYSICS
    • G08SIGNALLING
    • G08BSIGNALLING OR CALLING SYSTEMS; ORDER TELEGRAPHS; ALARM SYSTEMS
    • G08B3/00Audible signalling systems; Audible personal calling systems
    • G08B3/10Audible signalling systems; Audible personal calling systems using electric transmission; using electromagnetic transmission

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  • Health & Medical Sciences (AREA)
  • Business, Economics & Management (AREA)
  • Emergency Management (AREA)
  • General Health & Medical Sciences (AREA)
  • Toxicology (AREA)
  • Physics & Mathematics (AREA)
  • Public Health (AREA)
  • General Physics & Mathematics (AREA)
  • Engineering & Computer Science (AREA)
  • Mechanical Engineering (AREA)
  • Electromagnetism (AREA)
  • Environmental & Geological Engineering (AREA)
  • Chemical & Material Sciences (AREA)
  • Chemical Kinetics & Catalysis (AREA)
  • General Chemical & Material Sciences (AREA)
  • Fire-Extinguishing By Fire Departments, And Fire-Extinguishing Equipment And Control Thereof (AREA)

Abstract

The system for evacuating a toxic gas discharge facility according to embodiments of the present invention generates a toxic gas emission signal based on a sensor detection signal received from sensors or a manual operation signal received from a manual operation switch, A main control unit for generating and outputting an odorant emission signal at the time of generation of the emission signal and outputting a delayed toxic gas emission signal after delaying the toxic gas emission signal for a predetermined delay time immediately after generation thereof, A gas pressure type activation section for detecting the manual opening of the activated or poisonous gas storage containers and outputting the gas release operation detection signal, and a discharge valve for the high pressure gas, The signal is released in response to the signal or gas emission operation detection signal so that the odorant is discharged from the nozzle And an adsorbent discharge device operable to discharge the adsorbent.

Description

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a system and method for evacuation of toxic gases,

The present invention relates to a toxic gas discharge facility, and more particularly, to a personal safety device for a toxic gas discharge facility.

Facilities that emit toxic gases as needed in enclosed spaces are widely deployed in industry and require workers to enter the workplace before they can evacuate before the toxic gas is released, The case has never ceased.

Such gas release facilities are typically gas-fired automatic fire-extinguishing facilities. The gas-based automatic fire extinguishing system discharges a large amount of non-combustible gas such as carbon dioxide gas, nitrogen gas and halon gas at a time in a large amount, thereby reducing the oxygen concentration in the air or absorbing heat, .

Gas-based automatic fire extinguishing equipment can minimize secondary damage compared to water-based fire-extinguishing equipment used in water, and has high adaptability to electric fires. It can be used in automobile related facilities, factories, power plants, computer rooms, communication facilities, museums, , And libraries.

However, gas-fired automatic fire extinguishing systems have potential safety issues in that most of the digestion gases are at high risk of suffocation or poisoning. Indeed, accidental or malfunctioning discharge of fire extinguishing gas is constantly causing damage to victims who are unable to identify the situation or evacuate for other reasons. Especially, carbon dioxide gas can cause dyspnea and vomiting even if the concentration is low, about 5% ~ 10%, causing visual impairment and loss of consciousness. Especially dangerous because 20% concentration can cause central nerve paralysis and death within 1 minute . In addition, at the moment of release, noise, cold air, dry ice, and white fog caused by tremendous pressure can interfere with escape, and after several tens of seconds of release, it is fatal because it is colorless and odorous even at high concentrations.

At present, gas-based automatic fire extinguishing facilities such as carbon dioxide are controlled by the related regulations such as "Technical standards for receiver type approval and product inspection", and the control function of the control panel is "to activate the acoustic alarm device by receiving the signal from the passive starter or detector , Release or delay of the extinguishing agent, etc. However, the drug release delay time should be within 30 seconds after the alarm sound is emitted, and the device capable of adjusting the delay time can easily determine the indication of the adjusted time Must be. " "Each protected area should be provided with an alarm indicating the operation of the acoustic alarm and the operation of the detector, as well as an alarm such as a bell, buzzer, etc., which operate in conjunction with the indicator, indicating the operation of the sound system and the operation of the detector You can use both. " "For manual starters, an indicator shall be provided to indicate the switch and its operation." "An indicator should be provided to indicate the release of the extinguishing agent." And so on.

However, since acoustic alarms are usually part of an automatic fire detection system, they concentrate on general fire alarms that do not know the location of the outbreak, rather than a warning of an immediate release at a particular location, It may not be recognized that the urgency of delay time is only about 30 seconds. Light source alarms are difficult to pay attention to, unless you look at the direction in which there are many square and light source alarms.

On the other hand, according to the "Fire Safety Standard for Carbon Dioxide Fire Extinguishing System (NFSC 106)", the fire extinguishing system should be designed and arranged so as to emit the total amount of fire extinguishing agent within one minute in the global emission system and within 30 seconds in the local emission system. In addition, the above standard specifies that an automatic closing device should be provided if there is an opening or a vent, and that it should have the function of closing the opening before the emission of carbon dioxide.

Therefore, once the fire extinguishing agent begins to release, it is practically impossible to prevent the casualties of personnel who have not evacuated before.

Thus, there is a need for a means for semi-forcibly evacuating personnel prior to gas release in a toxic gas release facility and for recognizing the presence of toxic gases in the unventilated state after release of the gas.

SUMMARY OF THE INVENTION It is an object of the present invention to provide a system and method for evacuating a toxic gas discharge facility.

The object of the present invention is to provide a method and apparatus for releasing a malodorant before a toxic gas is discharged from a toxic gas discharge facility, And to provide a guidance system and method.

SUMMARY OF THE INVENTION It is an object of the present invention to provide a pre-evacuation induction system capable of inducing voluntary evacuation to a resident in a toxic gas discharge scheduled area by simultaneously generating sound or mist, And a method therefor.

SUMMARY OF THE INVENTION It is an object of the present invention to provide a system and method for advance evacuation of a gas system automatic fire extinguishing system.

A problem to be solved by the present invention is to provide a pre-departure warning device and method capable of inducing voluntarily evacuation of a person staying in a digestion gas discharge planned area by first discharging an antiseptic agent before discharge of the digestive gas in the gas- .

A problem to be solved by the present invention is to provide an automatic gas-fired automatic fire extinguishing system that discharges an odorant and simultaneously generates sound or mist in the gas-based automatic fire extinguishing system to discharge volatile gases And to provide a guidance system and method.

The solution to the problem of the present invention is not limited to those mentioned above, and other solutions not mentioned can be clearly understood by those skilled in the art from the following description.

The evacuation guidance system of the toxic gas release facility according to an embodiment of the present invention

A method for generating and outputting a toxic gas emission signal based on a sensor detection signal received from sensors or a manual operation signal received from a manual operation switch and delaying the toxic gas emission signal for a predetermined delay time immediately after generation, A main control unit for outputting a gas emission signal;

A gas pressure type activation section for detecting the manual activation of the starting gas storage container or the manual opening of the toxic gas storage containers and outputting the gas discharge operation detection signal;

An evacuation induction control unit for generating an evacuation agent emission signal in response to generation of the toxic gas emission signal or reception of the gas emission operation detection signal; And

A discharge valve of a storage container for an odorant, which is disposed in a toxic gas discharge scheduled area and stores a high-pressure gas, a liquid or powdery malodorant and a high-pressure inert gas, is opened in accordance with the above- And an adsorbent discharge device operable to discharge from the nozzle connected to the discharge valve by expansion of the high pressure inert gas.

According to one embodiment, the adsorbent discharge device

An odorant storage container for storing a high-pressure gas, a liquid or powder-like odorant and a high-pressure inert gas;

An actuator capable of opening the discharge valve of the storage container of the additive agent electrically or by pneumatic pressure in accordance with the injector discharge signal; And

And may include a nozzle designed to release the anti-odor agent with a predetermined direction and a discharge speed.

According to one embodiment, the anti-

Wherein the discharge valve is located at the uppermost or lowermost portion of the storage container for the odor agent, and a high-pressure gas, liquid or powdery The deodorant is densely packed and the inert gas is concentrated on the upper portion of the internal storage space. When the discharge valve is opened, the deodorant is discharged from the storage container of the odorant through the discharge valve by a pressure difference between the inert gas and the atmospheric pressure. .

According to one embodiment, the nozzle may include a sounding board that generates noise at least in the audible frequency band while emitting the adulterant.

According to one embodiment,

At least one component selected from the group consisting of sulfur compounds, nitrogen compounds, aldehydes, hydrocarbons, fatty acids and natural aromatics,

The sulfur compounds may be selected from the group consisting of hydrogen sulfide, methyl sulfide, ethyl sulfide, methyl ethyl sulfide, methyl mercaptan, ethyl mercaptan, tertiary butyl mercaptan, isopropyl mercaptan, normal profil mercaptan, sec butylmercaptan, ≪ / RTI > hydrothiophene,

The nitrogen compound is selected from amines including ammonia, ethylamine, methylamine, or trimethylamine, and indole derivatives including benzopyrrole and sucrose,

The aldehydes are selected from acetaldehyde, propionaldehyde, n-butylaldehyde, i-butylaldehyde, n-valeraldehyde and i-valeraldehyde,

The hydrocarbons are selected from ethyl acetate, methyl ethyl ketone, methyl isobutyl ketone, styrene, xylene and butyl acetate,

The fatty acids are selected from propionic acid, n-valeric acid and i-valeric acid,

Natural orientations include: Wintergreen, Peppermint, Rosemary, Lavender, Chamomile, Jasmine, Rooibos, Lemon Grass, Lemon Balm, Lemon Verbena, Clockwise, Borage, Clara Sage, Anika, Spathom, Dill, Hibiscus, Mint, apple mint, penny royal mint, basil, bergamot, suntornna, saibori, sage, sentied geranium, stevia, marrow, oregano, Italian parsley, chives, catnip, time, pansy, pot marigold, It can be selected from Hibhuri, Histophora, Heli Optrod, Eucalyptus, Juniper Berry and Clove Bird.

According to one embodiment, the evacuation induction control section may be operable to generate an alarm activation signal capable of emitting a warning sound or driving a warning light, in accordance with the generation of the toxic gas emission signal or the reception of the gas emission operation detection signal .

According to one embodiment, the device for releasing the odorant comprises:

And to release the discharge valve of the container for storing an anti-odor agent in accordance with the injector discharge signal or the gas discharge operation detection signal.

According to one embodiment, the gas pressure actuated portion

And to generate the gas release operation detection signal by a pressure switch that detects the gas pressure at the time of valve opening of the starter gas storage container or at the time of opening the collecting pipe valve of the toxic gas storage containers.

A method of inducing evacuation of a toxic gas release facility according to another aspect of the present invention comprises:

Manual activation of the main control unit and the starting gas storage container that generates the toxic gas emission signal based on the sensor detection signal received from the sensors or the manual operation signal received from the manual operation switch or the manual opening of the toxic gas storage containers is detected And a gas pressure type starting part for outputting a gas release operation detection signal,

An adsorbent discharging device, which is disposed in a toxic gas discharge scheduled area and contains an odorant storage container, a discharge valve and a nozzle for storing a high-pressure gas, liquid or powder-like odorant and high-pressure inert gas,

Receiving an odorant emission signal generated at the time of generation of the toxic gas emission signal at the main control unit or at the time of receiving the gas emission operation detection signal from the gas pressure type activation unit; And

And discharging the odorant from the nozzle connected to the discharge valve by expansion of the high-pressure inert gas by opening the discharge valve of the odorant storage container in accordance with the odorant discharge signal.

According to another aspect of the present invention, there is provided a system for evacuating a gas system automatic fire extinguishing system,

A fire detection signal received from a fire detector disposed in a fire extinguishing gas discharge area, a fire report signal received from a transmitter, or a manual operation signal received from a manual operation, A fire receiving unit for outputting a delayed fire extinguishing gas emission signal after a delay of a predetermined delay time from immediately after generation of the fire extinguishing gas emission signal;

A gas pressure type activation section for detecting the manual activation of the starting gas storage container or the manual opening of the digestion gas storage containers and outputting a gas release operation detection signal;

An evacuation induction control unit for generating an evacuation signal according to generation of the extinguishing gas emission signal or reception of the gas emission operation detection signal; And

A discharge valve of a storage container for an odorant agent, which stores a high-pressure gas, a liquid or powder-like odorant and a high-pressure inert gas, which is disposed in the predetermined area for discharging the extinguishing gas, To discharge from the nozzle connected to the discharge valve by the expansion of the inert gas of the adsorbent.

According to one embodiment, the adsorbent discharge device

An odorant storage container for storing a high-pressure gas, a liquid or powder-like odorant and a high-pressure inert gas;

An actuator capable of opening the discharge valve of the storage container of the additive agent electrically or by pneumatic pressure in accordance with the injector discharge signal; And

And may include a nozzle designed to release the anti-odor agent with a predetermined direction and a discharge speed.

According to one embodiment, the anti-

Wherein the discharge valve is located at the uppermost or lowermost portion of the storage container for the odor agent, and a high-pressure gas, liquid or powdery The deodorant is densely packed and the inert gas is concentrated on the upper portion of the internal storage space. When the discharge valve is opened, the deodorant is discharged from the storage container of the odorant through the discharge valve by a pressure difference between the inert gas and the atmospheric pressure. .

According to one embodiment, the nozzle may include a sounding board that generates noise at least in the audible frequency band while emitting the adulterant.

According to one embodiment,

At least one component selected from the group consisting of sulfur compounds, nitrogen compounds, aldehydes, hydrocarbons, fatty acids and natural aromatics,

The sulfur compounds may be selected from the group consisting of hydrogen sulfide, methyl sulfide, ethyl sulfide, methyl ethyl sulfide, methyl mercaptan, ethyl mercaptan, tertiary butyl mercaptan, isopropyl mercaptan, normal profil mercaptan, sec butylmercaptan, ≪ / RTI > hydrothiophene,

The nitrogen compound is selected from amines including ammonia, ethylamine, methylamine, or trimethylamine, and indole derivatives including benzopyrrole and sucrose,

The aldehydes are selected from acetaldehyde, propionaldehyde, n-butylaldehyde, i-butylaldehyde, n-valeraldehyde and i-valeraldehyde,

The hydrocarbons are selected from ethyl acetate, methyl ethyl ketone, methyl isobutyl ketone, styrene, xylene and butyl acetate,

The fatty acids are selected from propionic acid, n-valeric acid and i-valeric acid,

Natural orientations include: Wintergreen, Peppermint, Rosemary, Lavender, Chamomile, Jasmine, Rooibos, Lemon Grass, Lemon Balm, Lemon Verbena, Clockwise, Borage, Clara Sage, Anika, Spathom, Dill, Hibiscus, Mint, apple mint, penny royal mint, basil, bergamot, suntornna, saibori, sage, sentied geranium, stevia, marrow, oregano, Italian parsley, chives, catnip, time, pansy, pot marigold, It can be selected from Hibhuri, Histophora, Heli Optrod, Eucalyptus, Juniper Berry and Clove Bird.

According to one embodiment, the evacuation induction control section may be operable to generate an alarm activation signal capable of emitting a warning sound or driving a warning light, in accordance with the generation of the extinguishing gas emission signal or the reception of the gas emission operation detection signal .

According to one embodiment, the device for releasing the odorant can operate to open the discharge valve of the container for storing the odorant according to the odorant discharge signal or the gas discharge operation detection signal.

According to one embodiment, the gas pressure type starting portion is provided by a pressure switch that detects the gas pressure at the time of valve opening of the starter gas storage container or at the time of opening the collecting pipe valve of the fire extinguishing gas storage containers, Lt; / RTI >

Another method of inducing evacuation of a gas system automatic fire extinguishing system according to another aspect of the present invention comprises

A fire receiving unit that generates a fire extinguishing gas emission signal based on a fire detection signal received from fire detectors disposed in the fire extinguishing gas discharge area, a fire report signal received from a transmitter, or a manual operation signal received from a manual operation unit, And a gas pressure type starting part for detecting the manual opening of the gas storage container for the gas storage container or the manual opening of the digestion gas storage containers and outputting the gas discharge operation detection signal,

An adsorbent discharging device including an adsorbent storage container, a discharge valve, and a nozzle, disposed in the digestive gas discharge scheduled area, for storing an adsorbent of high pressure gas, liquid or powder form and an inert gas of high pressure,

Receiving an odorant emission signal generated at the time of generating the extinguishing gas emission signal at the fire receiving unit or at the time of receiving the gas discharge operation detection signal from the gas pressure type activation unit; And

And discharging the odorant from the nozzle connected to the discharge valve by expansion of the high-pressure inert gas by opening the discharge valve of the odorant storage container in accordance with the odorant discharge signal.

According to the pre-departure guidance system and method of the present invention, it is possible to induce voluntary retirement of a person staying in a toxic gas release area by first discharging the poison agent before the toxic gas is discharged from the toxic gas release facility.

According to the pre-departure guidance system and method of the present invention, the poisonous agent is released before the gas is released from the poisonous gas release facility, and at the same time the sound or the mist is generated, Lt; / RTI >

According to the pre-retirement guidance system and method of the gas-type automatic fire extinguishing system of the present invention, it is possible to induce voluntary retirement to the personnel staying in the fire-fighting gas release planned area by first discharging the retention agent in the gas-based automatic fire extinguishing system.

According to the pre-retirement guidance system and method of the gas-type automatic fire extinguishing system of the present invention, it is possible to prevent the occupant who is staying in the fire-fighting gas release area It can lead to voluntary eviction.

The effects of the present invention are not limited to those mentioned above, and other effects not mentioned can be clearly understood by those skilled in the art from the following description.

1 is a schematic diagram illustrating a system for evacuating a toxic gas discharge facility according to an embodiment of the present invention.
2 is a schematic diagram illustrating an internal structure of a container for storing odorant agent for a system for evacuating a toxic gas according to an embodiment of the present invention.
3 is a schematic diagram illustrating an internal structure of an odorant storage container of another type for a evacuation guidance system of a toxic gas discharge facility according to an embodiment of the present invention.
FIG. 4 is a flowchart illustrating a method of inducing advancement of a toxic gas discharge facility according to an embodiment of the present invention.
5 is a schematic view illustrating a system for evacuating a toxic gas discharge facility according to another embodiment of the present invention.
FIG. 6 is a flowchart illustrating an evacuation method of a toxic gas discharge facility according to another embodiment of the present invention.
7 is a schematic diagram illustrating a system for evacuating a gas system automatic fire extinguishing system according to another embodiment of the present invention.
FIG. 8 is a flowchart illustrating a method of inducing advance evacuation of a gas system automatic fire extinguishing system according to another embodiment of the present invention.
9 is a schematic diagram illustrating a system for evacuating a gas system automatic fire extinguishing system according to another embodiment of the present invention.
10 is a flowchart illustrating a method of guiding the evacuation of a gas system automatic fire extinguishing system according to another embodiment of the present invention.

For the embodiments of the invention disclosed herein, specific structural and functional descriptions are set forth for the purpose of describing an embodiment of the invention only, and it is to be understood that the embodiments of the invention may be practiced in various forms, The present invention should not be construed as limited to the embodiments described in Figs.

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings. The same reference numerals are used for the same constituent elements in the drawings and redundant explanations for the same constituent elements are omitted.

1 is a schematic diagram illustrating a system for evacuating a toxic gas discharge facility according to an embodiment of the present invention.

Referring to FIG. 1, the evacuation guidance system 10 of the toxic gas emitting facility 100 includes a main controller 11 for generating and outputting a toxic gas emission signal, toxic gas storage containers 101 for storing toxic gas, A gas pressure type activation section 12 for opening the gas adsorption device 12 and an adsorbent discharge device 13 for discharging the adsorbent.

Specifically, the main control unit 11 generates a toxic gas emission signal based on a sensor detection signal received from the sensors 14 or a manual operation signal received from the manual operation switch 15, and generates a toxic gas emission signal And outputs a delayed toxic gas emission signal after delaying the toxic gas emission signal for a predetermined delay time immediately after the generation of the toxic gas emission signal.

The delay of the main control unit 11 for a predetermined delay time without directly outputting the toxic gas emission signal is intended to give a time to evacuate the personnel staying in the workplace where the toxic gas is expected to be released soon.

Toxic gas storage containers 101 store high pressure, toxic gases and are typically designed to release all of the storage in as little as 30 to 60 seconds depending on the facility when the valve is opened. Therefore, the delay time set in the main control unit 11 is a substantially unique time when the personnel can evacuate.

The gas pressure type activation section 12 opens the starting gas storage container 121 in accordance with the toxic gas emission signal to open the toxic gas storage containers 101 or according to the manual start of the operator, The starting gas compressed and stored in the gas storage container 121 opens the valves of the toxic gas storage containers 101 so that the toxic gases stored in the toxic gas storage containers 101 are discharged through the piping 102 Lt; / RTI >

A portion of the starting gas discharged from the starting gas storage container 121 or a part of the toxic gas discharged from the toxic gas storage containers 101 through the pipe 102 drives the pressure switch 122, An operation detection signal can be generated.

To this end, the gas pressure type activation section 12 includes a pressure switch 122 for sensing the gas pressure at the time of valve opening of the starting gas storage container 121 or opening of the collecting pipe of the toxic gas storage containers 101 To generate a gas release motion detection signal.

Normally, the gas pressure type activation section 12 uses the pressure of the stored gas as a power source to open the valves of the gas storage containers, so that no separate electrical power source is required. Conversely, without depending on the electric power source, the gas pressure type activation section 12 can open the valves of the gas storage containers by using the pressure of the stored gas as a power source to release the gas as needed. However, since the main control unit 11 must be able to identify the operation result of the gas pressure type activation unit 12, the pressure switch 122 that receives power from the main control unit 11 is connected to the gas pressure type activation unit 12 Can be mounted.

With this configuration, the gas pressure type activation section 12 can be operated by the operator manually or by using the pressure switch 122 at the very early stage when the toxic gas is released, So that it is possible to generate a gas release operation detection signal according to manual opening of the gas container for starting or toxic gas discharge.

The adsorbent discharge device 13 may include an adsorbent storage container 131, an actuator 132, a discharge valve 133 and a nozzle 134.

The adsorbent discharging device 13 is disposed in the toxic gas discharge scheduled area and has a discharge valve (not shown) for storing the malodorant in high pressure gas, liquid or powder form and the high pressure inert gas, 133 in response to an odorant discharge signal or a gas discharge operation detection signal so that the odorant is discharged from the nozzle 134 connected to the discharge valve 133 by the expansion of the high pressure inert gas.

On the other hand, the additive agent may comprise at least one component selected from the group consisting of sulfur compounds, nitrogen compounds, aldehydes, hydrocarbons, fatty acids and natural aromatics.

More specifically, the sulfur compounds may be selected from the group consisting of hydrogen sulfide, methyl sulfide, ethyl sulfide, methyl ethyl sulfide (MES), methyl mercaptan, methyl mercaptan, , Ethyl Mercaptan), Tertiray-Butyl Mercaptan, Isopropyl Mercaptan, normal-Propyl Mercaptan, sec-Butyl Mercaptan, , Furfuryl Mercaptan, and tetrahydrothiophene (THT).

Nitrogen compounds include amines including Ammonia, Ethylamine, Methylamine or Trimethylamine, and Indole derivatives such as Benzopyrrole and Skatole. (Indole family).

The aldehydes may be selected from the group consisting of acetaldehyde, propionaldehyde, n-butyraldehyde, i-butyraldehyde, n-valeraldehyde, i-valerdealdehyde, i-Valeraldehyde).

The hydrocarbons may be selected from the group consisting of ethyl acetate, methyl ethyl ketone, methyl isobutyl ketone, styrene, xylene, and butylacetate ≪ / RTI >

The fatty acids may be selected from the group comprising propionic acid, n-valeric acid and i-valeric acid.

Natural orientations include Wintergreen, Peppermint, Rosemary, Lavender, Chamomile, Jasmine, Rooibos, Lemongrass, Lemon Balm, , Lemon Verbena, Blue Passion Flower, Borage, Clarysage, Arnica, Spatium, Dill, Hibiscus, It is also known as Digitalis, Marjoram, Spear Mint, Apple Mint, Pennyroyal Mint, Basil, Bergamot, Santolina, Savory, Sage, Scented Geranium, Stevia, Mallow, Oregano, Italian Parsley, Chives, Catnip, Thyme, Pansy, Pot Marigold, Fennel, Feverfew, Hyssop, Heliotrope, , Eucalyptus, Juniper Berry, and Clove Bud.

Depending on the embodiment, the additive may be selected from the group consisting of ethylmercaptan, tertiary butylmercaptan, tetrahydrothiophene, methylethylsulfide, ammonia, amines, indoles, propionic acid , n-valeric acid, i-valeric acid, and the like.

Some odor components of the exemplified odorants cause odors or discomfort that can be felt when decaying onions, eggs, fish, etc., and produce strong olfactory stimuli within a short time of less than one second, especially at low concentrations.

Some of the naturally-occurring ingredients of the exemplified odoriferous ingredients can be used in fragrances, perfumes, or drinking tea at low concentrations, and can have a discomfort or strong vigorous ventilation effect depending on the concentration.

Exemplary contaminant ingredients include, but are not limited to, degree of irritation and human response, human health, minimum detection concentration, olfactory fatigue, environmental toxicity, ignitability, explosion hazard, corrosiveness, metal reactivity, stability, density and weight, color, The properties such as points and commercial procurement costs are all different. Thus, the odorant according to embodiments of the present invention may be formulated in combination with the odor components or natural directional components exemplified by need and use.

The odorant storage container 131 may store a high-pressure gas, a liquid or powder-like odorant, and a high-pressure inert gas.

The actuator 132 can be implemented as a solenoid or a pneumatic cylinder and can open the discharge valve 133 of the sorbent storage container 131 electrically or by pneumatic pressure in accordance with an additive discharge signal or a gas discharge operation detection signal have.

The nozzle 134 may be designed to be capable of releasing the adsorbent with a predetermined direction and speed of discharge.

According to the embodiment, the nozzle 134 may be implemented including a noise plate that generates intentional noise in the audible frequency band while emitting the odorant.

The system 10 for evacuating a toxic gas according to an embodiment of the present invention generates an odorant emission signal immediately when a toxic gas emission signal is generated during normal operation and emits an odorant agent with a strong pressure By spreading, the strong odor of the odorant spreading in the workplace makes it impossible for the worker to proceed further, immediately to find out the fresh air, and to forcibly evacuate the personnel remaining in the workplace before the toxic gas is released.

In addition, the evacuation guidance system 10 of the toxic gas emission facility 100 according to an embodiment of the present invention may be operated manually when there is no toxic gas emission signal during abnormal operation, when toxic gas is released due to a failure or an accident Workers can emit toxic gas at the earliest possible time, and workers can detect the toxic gas emission even sooner, and after the toxic gas is ventilated, the presence of toxic gas can be noticed.

Further, the advance retirement guidance system 10 of the toxic gas release facility 100 according to the embodiment of the present invention does not need to change the existing piping structure or shape.

According to an embodiment, the evacuation guidance system 10 of the toxic gas release facility 100 may be implemented without the gas pressure type evacuation section 12 and the gas release operation detection signal.

In this case, the main control unit 11 of the evacuation guidance system 10 of the toxic gas emission facility 100 detects the sensor detection signal received from the sensors 14 or the manual operation signal received from the manual operation switch 15 And generates and outputs an odorant emission signal according to the generation of the toxic gas emission signal. After delaying the toxic gas emission signal for a predetermined delay time from the generation of the toxic gas emission signal, the delayed toxic gas emission signal Can be output.

The device 13 for discharging the odorant is disposed in the toxic gas discharge area, and the discharge valve 133 of the odorant storage container 131 for storing the high-pressure gas, liquid or powder-like odorant and high- And may be opened in response to an adsorbent release signal to cause the deodorant to exit from the nozzle 134 connected to the discharge valve 133 by the expansion of the high pressure inert gas.

FIG. 2 is a schematic view illustrating an internal structure of an anti-odor storage container according to an embodiment of the present invention.

Referring to FIG. 2, as an embodiment for storing the gaseous or liquid odorant, the odorant storage container 131 is vertically erected and a discharge valve 133 is located at the top of the storage container. Therefore, due to the relative specific gravity relationship between the inert gas and the additive agent, the high-pressure gas or the liquid-phase deodorant is densely packed in the lower portion of the internal storage space of the sorbent storage vessel 131, have.

The inner pipe 135 extends from the lowermost end of the internal storage space of the odorant storage container 131 to the discharge valve 133 so that the inert gas and the atmospheric pressure outside the nozzle 134 The deodorant can be transferred to the discharge valve 133 through the inner pipe 135 by the pressure difference between the pressure and the pressure.

3 is a schematic diagram illustrating an internal structure of an odorant storage container of another type for a evacuation guidance system of a toxic gas discharge facility according to an embodiment of the present invention.

Referring to FIG. 3, an odorant storage container 131 'has an inverted erected shape, and a discharge valve 133 is disposed at the lowermost part, as an embodiment for storing an odorant in powder form. The deodorant in the form of powder is densely packed in the lower part of the internal storage space of the odorant storage container 131 'and the inert gas may be concentrated in the upper part of the internal storage space. When the discharge valve 133 is opened, the deodorant in powder form can be discharged directly through the discharge valve 133 by the pressure difference between the inert gas and the atmospheric pressure outside the nozzle 134.

FIG. 4 is a flowchart illustrating a method of inducing advancement of a toxic gas discharge facility according to an embodiment of the present invention.

Referring to FIG. 4, the evacuation guidance method of the toxic gas emission facility 100 includes a sensor detection signal received from the sensors 14 or a toxic gas generated based on a manual operation signal received from the manual operation switch 15 The manual operation of the main control unit 11 and the startup gas storage container 121 for outputting the emission signal as an adsorbent emission signal or the manual opening of the toxic gas storage containers 101 and outputting the gas emission operation detection signal The method of guiding the evacuation of the toxic gas emitting facility 100 including the gas pressure activated section 12 starts at the following step S41.

In step S41, an odorant storage container 131, a discharge valve 133, and a nozzle (not shown) disposed in the toxic gas discharge scheduled area and storing the high-pressure gas, liquid or powder- 134) can receive an adsorbent emission signal from the main control unit (11).

In the step S42, the adsorbent discharge device 13 can receive the gas discharge operation detection signal from the gas pressure type activation section 12.

In the step S43, the odorant discharge device 13 opens the discharge valve 133 of the odorant storage container 131 in accordance with the odorant discharge signal or the gas discharge operation detection signal, It can be discharged from the nozzle 134 connected to the discharge valve 133 to the outside.

5 is a schematic view illustrating a system for evacuating a toxic gas discharge facility according to another embodiment of the present invention.

Referring to FIG. 5, the evacuation guidance system 50 of the toxic gas emission facility 500 of FIG. 5 is different from the evacuation induction control system 56 of the evacuation induction system 10 of the toxic gas emission facility 100 of FIG. ). The main control unit 51, the gas pressure type activation unit 52 and the odor eliminator device (not shown) constituting the evacuation guidance system 50 of the toxic gas emission facility 500 of FIG. 5, 53 are substantially similar to the main control portion 11, the gas pressure type activation portion 12 and the odorant discharge device 13 constituting the evacuation guidance system 10 of the toxic gas emission facility 100 of FIG. And thus redundant description will be omitted.

Specifically, the advance retirement induction system 50 of the toxic gas release facility 500 includes a main control unit 51, a gas pressure type activation unit 52, a retirement induction control unit 56, can do.

The main control unit 51 generates and outputs a toxic gas emission signal based on a sensor detection signal received from the sensors 54 or a manual operation signal received from the manual operation switch 55. Immediately after generating the toxic gas emission signal It is possible to output a delayed toxic gas emission signal after a delay for a predetermined delay time.

The gas pressure type activation section 52 can detect the manual operation of the starting gas storage container 521 or the manual opening of the toxic gas storage containers 501 and output the gas discharge operation detection signal.

The odor agent discharging device 53 is disposed in the toxic gas discharging area and includes a discharge valve 533 of the odor agent storage container 531 storing the high pressure gas, liquid or powder type odorant and the high pressure inert gas The deodorizer may be operated in response to an odorant discharge signal received at the retirement induction control unit 56 so that the deodorant is discharged from the nozzle 534 connected to the discharge valve 533 by expansion of the high pressure inert gas.

The retirement induction control unit 56 can generate an injector discharge signal upon receipt of a toxic gas emission signal or a gas emission operation detection signal.

According to the embodiment, the evacuation guidance system 50 of the toxic gas emitting facility 500 may further include a warning sound generating device 57 or a warning lamp driving device 58.

In this case, the retirement induction control unit 56 can additionally generate an alarm activation signal upon receipt of the toxic gas emission signal or the gas emission operation detection signal.

The warning sound generating device 57 can emit a warning sound to the workplace in accordance with the warning activation signal and the warning light driving device 58 can drive the warning light in the workplace in accordance with the warning activation signal.

According to an embodiment, the evacuation guidance system 50 of the toxic gas release facility 500 may be implemented without the gas pressure activated section 52 and the gas release operation detection signal.

In this case, the main control unit 51 of the evacuation guidance system 50 of the toxic gas emission facility 500 detects the sensor detection signal received from the sensors 54 or the manual operation signal received from the manual operation switch 55 And outputs the delayed toxic gas emission signal after delaying the toxic gas emission signal for a predetermined delay time immediately after the generation of the toxic gas emission signal.

The retirement induction control unit 56 can generate an injecting agent emission signal upon receipt of the toxic gas emission signal.

The odor agent discharge device 53 opens the odor agent storage container 531 in accordance with the odor agent discharge signal so that the odor agent is discharged from the nozzle 534 connected to the discharge valve 533 by expansion of the high pressure inert gas Can operate.

FIG. 6 is a flowchart illustrating an evacuation method of a toxic gas discharge facility according to another embodiment of the present invention.

Referring to FIG. 6, the evacuation guiding method of the toxic gas emitting facility 500 is based on a sensor detection signal received from the sensors 54 or a manual operation signal received from the manual operation switch 55, A gas pressure type activation section 52 for detecting the manual activation of the main control section 51 and the startup gas storage container 521 for generating the gas release operation detection signal and the manual release of the toxic gas storage containers 501, ) Of the toxic gas release facility 500, starting at step S61.

In step S61, an odorant storage container 531, a discharge valve 533, and a nozzle (not shown) are disposed in the toxic gas discharge scheduled area and store the high-pressure gas, liquid or powder- 534 can receive a toxic gas emission signal from the main control unit 51. [

In step S62, the gas release operation detection signal may be received from the gas pressure type activation section 52. [

In step S63, an odorant emission signal may be generated upon receipt of a toxic gas emission signal or a gas emission operation detection signal.

In step S64, the discharge valve 533 of the odor agent storage container 531 is opened in accordance with the odor agent discharge signal, whereby the odor agent is supplied to the nozzle 534 connected to the discharge valve 533 by expansion of the high- ). ≪ / RTI >

7 is a schematic diagram illustrating a system for evacuating a gas system automatic fire extinguishing system according to another embodiment of the present invention.

The advance retirement induction system 70 of the gas system automatic fire extinguishing system 700 includes a fire receiving board 71 for generating and outputting a fire extinguishing gas emission signal, a gas for opening fire extinguishing gas storage containers 701 for storing fire extinguishing gas, A pressure activated section 72 and an odorant releasing device 73 that emits an odorant.

More specifically, the fire receiving unit 71 receives the fire detection signal received from the fire detectors 74, the fire report signal received from the transmitter 79, or the manual operation signal received from the manual operation box 75, And outputs at least one of the extinguishing gas emission signal or the gas emission interlocking signal as an adiabatic agent emission signal and delays the extinguishing gas emission signal for a predetermined delay time immediately after the generation of the extinction gas emission signal It is possible to output a delayed fire extinguishing gas emission signal.

According to the embodiment, the gas discharge interlocking signal of the fire receiver 71 may be one of a gas discharge lamp driving signal, an acoustic alarm device driving signal, an automatic closing device driving signal, and a ventilator driving signal.

The fire receiver 71 delays and outputs the fire extinguishing gas emission signal for a predetermined delay time without outputting it immediately, so as to give the evacuation time for the personnel staying in the workplace where the fire extinguishing gas is scheduled to be released soon.

The fire extinguishing gas storage containers 701 store extinguishing gases including high-pressure carbon dioxide gas, and are normally designed to release all of the stored amount of time in a time of about 30 seconds to 60 seconds depending on equipment when the valve is opened. Thus, the delay time set in the fire receiver 71 is a substantially unique time at which personnel can evacuate.

The gas pressure type activation section 72 opens the starting gas storage container 721 according to the fire extinguishing gas emission signal to open the fire extinguishing gas storage containers 701 or according to the manual operation of the operator, The starting gas compressed and stored in the gas storage container 721 opens the valves of the digestive gas storage containers 701 so that the digestive gases stored in the digestive gas storage containers 701 are exhausted through the pipe 702 to the workplace Lt; / RTI >

A portion of the extinguishing gas discharged from the starting gas storage container 721 through the pipe 702 from the part of the starting gas discharged from the gas storage container 721 or the digestive gas storage containers 701 drives the pressure switch 722, An operation detection signal can be generated.

Specifically, the gas pressure type activation section 72 includes a pressure switch 722 for sensing the gas pressure at the time of valve opening of the starting gas storage container 721 or at the time of opening the collecting pipe valve of the fire extinguishing gas storage containers 701 To generate a gas release motion detection signal.

Normally, the gas pressure type activation section 72 uses the pressure of the stored gas as a power source to open the valves of the gas storage containers, so that no separate electrical power source is required. Conversely, without depending on the electric power source, the gas pressure type activation section 72 can open the valves of the gas storage containers using the pressure of the stored gas as a power source to release the gas as needed. However, since the fire reception unit 71 must be able to identify the operation result of the gas pressure type activation unit 72, the pressure switch 722 supplied with power from the fire reception unit 71 is connected to the gas pressure type activation unit 72 Can be mounted.

Using this configuration, the gas pressure type activation section 72 can be operated by the pressure switch 722 at the initial stage of the discharge of the extinguishing gas even when the operator manually intends to start the fire extinguishing operation, Whereby it is possible to generate a gas release operation detection signal in accordance with the manual opening of the starting gas container or the discharge of the extinguishing gas.

The adsorbent discharge device 73 may include an adsorbent storage container 731, an actuator 732, a discharge valve 733, and a nozzle 734. [

The odorant discharging device 73 is disposed in the area where the extinguishing gas is to be discharged and includes a discharge valve 733 of the odorant storage container 731 for storing the high pressure gas, liquid or powdery odorant and the high pressure inert gas It may be opened in response to an odorant discharge signal or a gas discharge operation detection signal so that the odorant is discharged from the nozzle 734 connected to the discharge valve 733 by the expansion of the high pressure inert gas.

On the other hand, the additive agent may comprise at least one component selected from the group consisting of sulfur compounds, nitrogen compounds, aldehydes, hydrocarbons, fatty acids and natural aromatics.

More specifically, the sulfur compounds may be selected from the group consisting of hydrogen sulfide, methyl sulfide, ethyl sulfide, methyl ethyl sulfide, methyl mercaptan, ethyl mercaptan, tertiary butyl mercaptan, isopropyl mercaptan, Lt; / RTI > caprylic acid, limer capan and tetrahydrothiophene.

The nitrogen compound may be selected from amines including ammonia, ethylamine, methylamine, or trimethylamine, and indole derivatives including benzopyrrole or sucrose.

The aldehydes may be selected from acetaldehyde, propionaldehyde, n-butylaldehyde, i-butylaldehyde, n-valeraldehyde and i-valeraldehyde.

The hydrocarbons may be selected from ethyl acetate, methyl ethyl ketone, methyl isobutyl ketone, styrene, xylene and butyl acetate.

The fatty acids may be selected from propionic acid, n-valeric acid and i-valeric acid.

Natural orientations include: Wintergreen, Peppermint, Rosemary, Lavender, Chamomile, Jasmine, Rooibos, Lemon Grass, Lemon Balm, Lemon Verbena, Clockwise, Borage, Clara Sage, Anika, Spathom, Dill, Hibiscus, Mint, apple mint, penny royal mint, basil, bergamot, suntornna, saibori, sage, sentied geranium, stevia, marrow, oregano, Italian parsley, chives, catnip, time, pansy, pot marigold, It can be selected from Hibhuri, Histophora, Heli Optrod, Eucalyptus, Juniper Berry and Clove Bird.

Depending on the embodiment, the additive may be selected from the group consisting of ethylmercaptan, tertiary butylmercaptan, tetrahydrothiophene, methylethylsulfide, ammonia, amines, propionic acid, n- Valeric acid, valeric acid, valeric acid, i-valeric acid, and the like.

The odorant storage container 731 can store a high-pressure gas, a liquid or powder-like odorant, and a high-pressure inert gas.

The actuator 732 may be implemented as a solenoid or a pneumatic cylinder and may be opened electrically or by pneumatic pressure in accordance with an odorant discharge signal or a gas discharge operation detection signal in the discharge valve 733 of the odorant storage container 731 have.

The nozzle 734 can be designed to emit an odorant having a predetermined direction and a discharge speed.

According to an embodiment, the nozzle 734 may be implemented including a noise plate that generates intentional noise in the audible frequency band while emitting the odorant.

On the other hand, a gas smell warning device has been proposed in which a cylinder containing an anti-odor solution has been conventionally inserted into a gas discharge pipe, and an odoriferous agent is mixed and discharged when the gas is discharged.

However, since the gas olfaction warning device discharges the odorant together with the extinguishing gas, the effect of the olfactory warning can not be expected before the gas is discharged. However, the odor of the odorant enters the fire area after the completion of the discharge of the extinguishing gas It can only warn the existence of fire extinguishing gas.

Further, such a conventional gas smell warning device requires additional work to cut out the gas discharge pipe and insert the odorant storage container.

On the other hand, the advance retirement induction system 70 of the gas system automatic fire extinguishing system 700 according to an embodiment of the present invention generates an extraneous agent discharge signal as soon as the extinguishing gas discharge signal is generated in normal operation, By releasing and spreading the pesticide, the strong odor of the odorant spreading in the workplace makes it impossible for the worker to proceed further, immediately to find the fresh air and to escape, and to forcibly evacuate the personnel remaining in the workplace before the discharge of the digestion gas .

In addition, the evacuation guidance system 70 of the gas-fired automatic fire extinguishing system 700 according to the embodiment of the present invention may be configured such that the manual evacuation without the extinguishing gas emission signal in an abnormal operation, Even in case of fire extinguishing gas, it is possible to emit an insecticide in the early stage, so workers can detect the fire extinguishing gas even a little sooner, and after fire extinguishing gas can be informed of existence of fire extinguishing gas.

Further, the evacuation guidance system 70 of the gas system automatic fire extinguishing system 700 according to an embodiment of the present invention does not need to change the existing piping structure or shape.

According to the embodiment, the evacuation guidance system 70 of the gas system automatic fire extinguishing system 700 may be implemented without the gas pressure type evacuation unit 72 and the gas release operation detection signal.

In this case, the fire reception panel 71 of the advance evacuation guidance system 70 of the gas system automatic fire extinguishing system 700 receives the fire detection signal received from the fire detectors 74, the fire notification signal received from the transmitter 79 Or manually operated from the manual operation box 75, generates and outputs an odorant discharge signal according to the generation of the extinguishing gas discharge signal, and immediately after generating the extinguishing gas discharge signal It is possible to output a delayed digestion gas emission signal after a delay for a predetermined delay time.

The odorant discharging device 73 is disposed in the area where the extinguishing gas is to be discharged and includes a discharge valve 733 of the odorant storage container 731 for storing the high pressure gas, liquid or powdery odorant and the high pressure inert gas And may be opened in response to an adsorbent release signal to cause the deodorant to be released from the nozzle 734 connected to the discharge valve 733 by the expansion of the high pressure inert gas.

In an embodiment for storing a gaseous or liquid odorant, the odorant storage container 731 may be applied in a vertically erected form and a discharge valve 733 is located at the top of the storage container. Accordingly, due to the relative weight ratio between the inert gas and the additive agent, the high-pressure gas or the liquid-type deodorant is densely packed in the lower portion of the internal storage space of the odorant storage container 731, have.

On the other hand, the inner pipe 735 extends from the lowermost end of the internal storage space of the odorant storage container 731 to the discharge valve 733 so that when the discharge valve 733 is opened, the inert gas and the atmospheric pressure The deodorant can be delivered to the discharge valve 734 via the inner pipe 735. [

In the embodiment for storing the powdery type of gaseous agent, the gaseous agent storage container 731 is in an inverted form and the discharge valve 733 can be located at the lowermost part. The deodorant in the form of powder is densely packed in the lower part of the internal storage space of the odorant storage container 731 and the inert gas may be concentrated in the upper part of the internal storage space. The deodorant in powder form can be immediately discharged through the discharge valve 733 by the pressure difference between the inert gas and the atmospheric pressure outside the nozzle 734 when the discharge valve 733 is opened.

FIG. 8 is a flowchart illustrating a method of guiding the advance of evacuation of the gas system automatic fire extinguishing system according to an embodiment of the present invention.

Referring to FIG. 8, the method of guiding the evacuation of the gas system automatic fire extinguishing system 700 includes a fire detection signal received from the fire detectors 74, a fire report signal received from the transmitter 79, And the gas fire extinguishing agent discharge signal and the gas discharge interlocking signal generated based on the manual operation signal received from the gas supply source And a gas pressure type activation section (72) for detecting a manual release of the digestion gas storage containers (701) and outputting a gas release operation detection signal, the method comprising the steps of: It starts in step S81.

In step S81, an odorant storage container 731, a discharge valve 733, and a nozzle (not shown), which are disposed in the digestion gas discharge reserved area and store the high-pressure gas, liquid or powder- 734 may receive an antiseptic release signal from the fire reaction unit 71. The anti-

In step S82, the adsorbent discharge device 73 may receive the gas discharge operation detection signal from the gas pressure type activation section 72. [

In the step S83, the odor agent discharging device 73 opens the discharge valve 733 of the odorant storage container 731 in accordance with the odorant discharge signal or the gas discharge operation detecting signal, It can be discharged to the outside from the nozzle 734 connected to the discharge valve 733. [

9 is a schematic diagram illustrating a system for evacuating a gas system automatic fire extinguishing system according to another embodiment of the present invention.

Referring to FIG. 9, the evacuation guidance system 90 of the gas system automatic fire extinguishing system 900 of FIG. 9 is different from the evacuation induction system 70 of the gas system automatic fire extinguishing system 700 of FIG. (96). Except for the description that has been explicitly described, the fire reconnaissance unit 91, the gas pressure type activation unit 92, and the odorant discharge device 92 constituting the evacuation guidance system 90 of the gas system automatic fire extinguishing system 900 of FIG. The gas pressure actuating section 72 and the odorant discharge device 73 constituting the advance evacuation induction system 70 of the gas system automatic fire extinguishing system 700 of FIG. And thus redundant description will be omitted.

More specifically, the advance retirement induction system 90 of the gas system automatic fire extinguishing system 900 includes a fire reaction unit 91, a gas pressure type activation unit 92, a retirement induction control unit 96, .

Specifically, the fire re- ception unit 91 performs fire extinguishing based on a fire detection signal received from the fire detectors 94, a fire report signal received from the transmitter 99, or a manual operation signal received from the manual operation box 95 A gas discharge signal and a gas discharge interlocking signal and outputs at least one of the extinguishing gas discharge signal or the gas discharge interlocking signal as an adsorbent discharge signal, delays the extinguishing gas discharge signal for a predetermined delay time immediately after generation, It is possible to output a digestion gas emission signal.

According to an embodiment, the gas release interlock signal of the fire receiver 91 may be one of a gas emission indicator drive signal, an acoustic alarm drive signal, an automatic shutoff drive signal, or a ventilator drive signal.

The gas pressure type activation section 92 can detect the manual activation of the starting gas storage container 921 or the manual opening of the digestion gas storage containers 901 and output the gas emission operation detection signal.

The odorant discharging device 93 is disposed in the area where the extinguishing gas is discharged and has a discharge valve 933 of the odorant storage container 931 for storing the high pressure gas, liquid or powder type of the odorant and the high pressure inert gas The deodorizer may be operated in response to an odorant discharge signal received at the retirement induction control unit 96 so that the deodorant is discharged from the nozzle 934 connected to the discharge valve 933 by expansion of the high pressure inert gas.

In an embodiment for storing a gaseous or liquid odorant, the odorant storage vessel 931 can be applied in a vertically erected form and a discharge valve 933 is located at the top of the storage vessel. Accordingly, due to the relative weight ratio between the inert gas and the additive agent, the high-pressure gas or liquid-state deodorant is concentrated in the lower portion of the internal storage space of the sorbent storage container 931 and the inert gas is concentrated in the upper portion of the internal storage space have.

On the other hand, the inner pipe 935 extends from the lowermost end of the internal storage space of the container 931 to the discharge valve 933 so that when the discharge valve 933 is opened, the inert gas and the atmospheric pressure The deodorant can be delivered to the discharge valve 934 via the inner pipe 935. [

In the embodiment for storing the powdery type of the odorant, the odorant storage container 931 is in an inverted form and the discharge valve 933 can be located at the lowermost part. The deodorant in a powder form is densely packed in the lower part of the internal storage space of the odorant storage container 931 and the inert gas may be concentrated in the upper part of the internal storage space. The deodorant in powder form can be immediately discharged through the discharge valve 933 by the pressure difference between the inert gas and the atmospheric pressure outside the nozzle 934 when the discharge valve 933 is opened.

The retirement induction control unit 96 can generate an ingress agent release signal upon receipt of the extinguishing gas emission signal or the gas emission operation detection signal.

According to the embodiment, the evacuation guidance system 90 of the gas system automatic fire extinguishing system 900 may further include a warning sound generating device 97 or a warning light driving device 98.

In this case, the retirement induction control unit 96 may further generate an alarm activation signal upon receipt of the fire-extinguishing gas emission signal or the gas emission operation detection signal.

The warning sound generating device 97 can emit a warning sound to the workplace in accordance with the warning activation signal and the warning lamp driving device 98 can drive the warning lamp in the workplace in accordance with the warning activation signal.

According to an embodiment, the evacuation guidance system 90 of the gas system automatic fire extinguishing system 900 may be implemented without the gas pressure type evacuation unit 92 and the gas release operation detection signal.

In this case, the fire reception panel 91 of the evacuation guidance system 90 of the gas-fired automatic fire extinguishing system 900 receives a fire detection signal received from the fire detectors 94, a fire notification signal received from the transmitter 99 , Or a manual operation signal received from the manual operation box 95, and generates a fire extinguishing gas emission signal and a gas emission interlocking signal based on a manual operation signal received from the manual operation box 95, delays the fire extinguishing gas emission signal for a predetermined delay time immediately after generation, A signal can be output.

The retirement induction control unit 96 can generate an extinct agent release signal upon receipt of the extinguishing gas emission signal or the gas emission interlocking signal.

The odor agent discharge device 93 opens the odor agent storage container 931 in accordance with the odor agent discharge signal so that the odor agent is discharged from the nozzle 934 connected to the discharge valve 933 by expansion of the high pressure inert gas Can operate.

10 is a flowchart illustrating a method of inducing advance evacuation of a gas system automatic fire extinguishing system according to another embodiment of the present invention.

10, the method of guiding the evacuation of the gas system automatic fire extinguishing system 900 may include a fire detection signal received from the fire detectors 94, a fire notification signal received from the transmitter 99, The manual operation of the manually operated or fire extinguishing gas storage containers 901 of the fire receiving table 91 and the starting gas storage container 921 that generate the extinguishing gas emission signal and the gas emission interlocking signal based on the manual operation signal And a gas pressure type activation section (92) for detecting the opening and outputting a gas release operation detection signal. The method starts with the next step (S101).

In step S101, an odorant storage container 931, a discharge valve 933, and a nozzle (not shown), which are disposed in the digestion gas discharge reserved area and store the high-pressure gas, liquid or powder- 934 can receive a fire extinguishing gas emission signal or a gas emission interlocking signal from the fire receiving unit 91. [

In step S102, the adsorbent discharge device 93 may receive the gas discharge operation detection signal from the gas pressure type activation section 92. [

In step S103, the odorant discharge device 93 may generate an odorant discharge signal in response to receipt of the extinguishing gas discharge signal, the gas discharge interlock signal, or the gas discharge operation detection signal.

In step S104, the odor agent discharge device 93 opens the discharge valve 933 of the odorant storage container 931 in accordance with the odor agent discharge signal, thereby causing the odor agent to flow into the discharge valve 933 by the expansion of the high- (934) connected to the nozzle (933).

It is to be understood that both the foregoing general description and the following detailed description of the present invention are exemplary and explanatory and are intended to provide further explanation of the invention as claimed. It will be understood that variations and specific embodiments which may occur to those skilled in the art are included within the scope of the present invention.

100, 500 Toxic gas emission facility
101, 501 Toxic gas storage containers
102, 502 piping
10, 50 advance eviction system
11, 51 main control unit
12, 52 Gas pressure type activation section
121, 521 Manned gas storage container
122, 522 Pressure switch
13, 53 Paint disposal device
131, 531 Additive storage container
132, 532 Actuator
133, 533 discharge valve
134, 534 nozzle
14, 54 sensor
15, 55 Manual operation switch
56 Evacuation induction control section
57 Beep sound generator
58 Warning light drive unit
100, 500 Toxic gas emission facility
101, 501 Toxic gas storage containers
102, 502 piping
70, 90 advance retirement induction system
71, 91 Main control unit
72, 92 Gas pressure type activation section
721, 921 Manned gas storage container
722, 922 Pressure switch
73, 93 Inoculant release device
731, 931 Additive storage container
732, 932 Actuator
733, 933 discharge valve
734, 934 nozzle
74, 94 Fire detector
75, 95 Manual operation
96 evacuation induction control section
97 Beep sound generator
98 Warning light drive unit
99 transmitter

Claims (49)

A method for generating and outputting a toxic gas emission signal based on a sensor detection signal received from sensors or a manual operation signal received from a manual operation switch and delaying the toxic gas emission signal for a predetermined delay time immediately after generation, A main control unit for outputting a gas emission signal;
A gas pressure type activation section for detecting the manual activation of the starting gas storage container or the manual opening of the toxic gas storage containers and outputting the gas discharge operation detection signal;
An evacuation induction control unit for generating an evacuation agent emission signal in response to generation of the toxic gas emission signal or reception of the gas emission operation detection signal; And
A discharge valve of a storage container for an odorant, which is disposed in a toxic gas discharge scheduled area and stores a high-pressure gas, a liquid or powdery malodorant and a high-pressure inert gas, is opened in accordance with the above- And an adsorbent discharge device operable to discharge from the nozzle connected to the discharge valve by expansion of the high pressure inert gas.
[Claim 2] The apparatus according to claim 1,
An odorant storage container for storing a high-pressure gas, a liquid or powder-like odorant and a high-pressure inert gas;
An actuator capable of opening the discharge valve of the storage container of the additive agent electrically or by pneumatic pressure in accordance with the injector discharge signal; And
And a nozzle designed to release an odorant agent in a predetermined direction and at a discharge rate.
[3] The container according to claim 2,
Wherein the discharge valve is located at the uppermost or lowermost portion of the storage container for the odor agent, and a high-pressure gas, liquid or powdery The deodorant is densely packed and the inert gas is concentrated on the upper portion of the internal storage space. When the discharge valve is opened, the deodorant is discharged from the storage container of the odorant through the discharge valve by a pressure difference between the inert gas and the atmospheric pressure. Wherein the pre-departure guidance system of the toxic gas release facility is characterized in that the pre-
[3] The container according to claim 2,
Wherein the discharge valve is located at the lowermost part of the storage container for the odorant, the deodorant in powder form is densely packed in the lower part of the internal storage space of the storage container, the inert gas is densely packed in the upper part of the internal storage space, Wherein the deodorant is discharged through the discharge valve by a pressure difference between the inert gas and the atmospheric pressure when the valve is opened.
The nozzle according to claim 2,
And a sounding plate for generating noise in at least an audible frequency band during the emission of the odorant.
[3] The gas turbine engine of claim 2,
Is operative to generate the gas release action detection signal by a pressure switch that senses the gas pressure at the time of valve opening of the starter gas storage container or at the time of opening the collecting container valve of the toxic gas storage containers Advance evacuation system of the facility.
7. The method according to any one of claims 1 to 6,
The inerting agent may be selected from the group consisting of ethylmercaptan (EM), tertiary butylmercaptan (TBM), isopropylmercaptan, n-propylmercaptan, sec-butylmercaptan, tetrahydrothiophene (THT) , At least one component selected from the group consisting of ammonia, amines, propionic acid, n-valeric acid, i-valeric acid. Evacuation guidance system for toxic gas release facility.
7. The method according to any one of claims 1 to 6,
Wherein the additive comprises at least one component selected from the group consisting of sulfur compounds, nitrogen compounds, aldehydes, hydrocarbons, fatty acids and natural aromatics,
The sulfur compounds may be selected from the group consisting of hydrogen sulfide, methyl sulfide, ethyl sulfide, methyl ethyl sulfide, methyl mercaptan, ethyl mercaptan, tertiary butyl mercaptan, isopropyl mercaptan, normal profil mercaptan, ≪ / RTI > hydrothiophene,
The nitrogen compound is selected from amines including ammonia, ethylamine, methylamine, or trimethylamine, and indole derivatives including benzopyrrole and sucrose,
The aldehydes are selected from acetaldehyde, propionaldehyde, n-butylaldehyde, i-butylaldehyde, n-valeraldehyde and i-valeraldehyde,
The hydrocarbons are selected from ethyl acetate, methyl ethyl ketone, methyl isobutyl ketone, styrene, xylene and butyl acetate,
The fatty acids are selected from propionic acid, n-valeric acid and i-valeric acid,
Natural orientations include: Wintergreen, Peppermint, Rosemary, Lavender, Chamomile, Jasmine, Rooibos, Lemon Grass, Lemon Balm, Lemon Verbena, Clockwise, Borage, Clara Sage, Anika, Spathom, Dill, Hibiscus, Mint, apple mint, penny royal mint, basil, bergamot, suntornna, saibori, sage, sentied geranium, stevia, marrow, oregano, Italian parsley, chives, catnip, time, pansy, pot marigold, Wherein the system is selected from the group consisting of a volatile organic solvent, a hydrogen peroxide, a hydrogen peroxide, a hydrogen peroxide, a hydrogen peroxide, a hydrogen peroxide, a eucalyptus, a juniper berry and a clovebird.
Generates a toxic gas emission signal based on a sensor detection signal received from the sensors or a manual operation signal received from a manual operation switch, generates and outputs an odorant emission signal according to the generation of the toxic gas emission signal, A main control unit for outputting a delayed toxic gas emission signal after a delay of a predetermined delay time from immediately after generation of the gas emission signal; And
A discharge valve of an odorant storage container for storing a high pressure gas, a liquid or powder type of an odorant and a high pressure of an inert gas is disposed in the toxic gas discharge scheduled area and is opened in accordance with the odorant discharge signal, And an injector discharge device operable to discharge from the nozzle connected to the discharge valve by expansion of the inert gas of the injector discharge device.
The device according to claim 9,
An odorant storage container for storing a high-pressure gas, a liquid or powder-like odorant and a high-pressure inert gas;
An actuator capable of opening the discharge valve of the storage container of the additive agent electrically or by pneumatic pressure in accordance with the injector discharge signal; And
And a nozzle designed to release an odorant agent in a predetermined direction and at a discharge rate.
[Claim 11] The anti-odor agent storage container according to claim 10,
Wherein the discharge valve is located at the top of the storage container for the odor agent, and the high-pressure gas or the deodorant in the form of liquid is concentrated in the lower part of the internal storage space of the storage container of the odor agent by the relative weight- Wherein the inert gas is densely packed in an upper portion of the internal storage space and extends from the lowermost end of the internal storage space to the discharge valve so that when the discharge valve is opened, And an internal piping capable of being transferred to the discharge valve.
[Claim 11] The anti-odor agent storage container according to claim 10,
Wherein the discharge valve is located at the lowermost part of the storage container for the odorant, the deodorant in powder form is densely packed in the lower part of the internal storage space of the storage container, the inert gas is densely packed in the upper part of the internal storage space, Wherein the deodorant is discharged through the discharge valve by a pressure difference between the inert gas and the atmospheric pressure when the valve is opened.
11. The system of claim 10, wherein the nozzles include a sounding plate that generates intentional noise in an audible frequency band during emission of the odorant. The method according to any one of claims 9 to 13,
The additive may be selected from the group consisting of ethylmercaptan, tertiary butylmercaptan, isopropylmercaptan, n-propylmercaptan, sec-butylmercaptan, tetrahydrothiophene, methylethylsulfide, ammonia, amines, propionic acid, n- i-valeric acid, and at least one component selected from the group consisting of i-valeric acid.
The method according to any one of claims 9 to 13,
Wherein the additive comprises at least one component selected from the group consisting of sulfur compounds, nitrogen compounds, aldehydes, hydrocarbons, fatty acids and natural aromatics,
The sulfur compounds may be selected from the group consisting of hydrogen sulfide, methyl sulfide, ethyl sulfide, methyl ethyl sulfide, methyl mercaptan, ethyl mercaptan, tertiary butyl mercaptan, isopropyl mercaptan, normal profil mercaptan, ≪ / RTI > hydrothiophene,
The nitrogen compound is selected from amines including ammonia, ethylamine, methylamine, or trimethylamine, and indole derivatives including benzopyrrole and sucrose,
The aldehydes are selected from acetaldehyde, propionaldehyde, n-butylaldehyde, i-butylaldehyde, n-valeraldehyde and i-valeraldehyde,
The hydrocarbons are selected from ethyl acetate, methyl ethyl ketone, methyl isobutyl ketone, styrene, xylene and butyl acetate,
The fatty acids are selected from propionic acid, n-valeric acid and i-valeric acid,
Natural orientations include: Wintergreen, Peppermint, Rosemary, Lavender, Chamomile, Jasmine, Rooibos, Lemon Grass, Lemon Balm, Lemon Verbena, Clockwise, Borage, Clara Sage, Anika, Spathom, Dill, Hibiscus, Mint, apple mint, penny royal mint, basil, bergamot, suntornna, saibori, sage, sentied geranium, stevia, marrow, oregano, Italian parsley, chives, catnip, time, pansy, pot marigold, Wherein the system is selected from the group consisting of a volatile organic solvent, a hydrogen peroxide, a hydrogen peroxide, a hydrogen peroxide, a hydrogen peroxide, a hydrogen peroxide, a eucalyptus, a juniper berry and a clovebird.
A method for generating and outputting a toxic gas emission signal based on a sensor detection signal received from sensors or a manual operation signal received from a manual operation switch and delaying the toxic gas emission signal for a predetermined delay time immediately after generation, A main control unit for outputting a gas emission signal; And
A gas pressure type activation section for detecting the manual activation of the starting gas storage container or the manual opening of the toxic gas storage containers and outputting the gas discharge operation detection signal;
An evacuation induction control unit for generating an evacuation agent emission signal upon receipt of the toxic gas emission signal or the gas emission operation detection signal; And
A discharge valve of a storage container for an odorant, which is disposed in a toxic gas discharge scheduled area and stores a high-pressure gas, a liquid or powdery malodorant and a high-pressure inert gas, is opened in accordance with the above- And an adsorbent discharge device operable to discharge from the nozzle connected to the discharge valve by expansion of the high pressure inert gas.
[Claim 16] The method according to claim 16,
Generating a warning activation signal capable of driving to emit a warning sound upon receipt of the toxic gas emission signal or the gas emission operation detection signal,
The evacuation guidance system
Further comprising a warning sound generating device for emitting a warning sound according to the warning activation signal.
[Claim 17] The method according to claim 17,
Generating a warning activation signal capable of driving a warning lamp upon receipt of the toxic gas emission signal or the gas emission operation detection signal,
The evacuation guidance system
Further comprising a warning light device for driving the warning light according to the warning activation signal.
A method for generating and outputting a toxic gas emission signal based on a sensor detection signal received from sensors or a manual operation signal received from a manual operation switch and delaying the toxic gas emission signal for a predetermined delay time immediately after generation, A main control unit for outputting a gas emission signal; And
An evacuation induction control unit for generating an evacuation signal according to the reception of the toxic gas emission signal; And
A discharge valve of an odorant storage container for storing a high pressure gas, a liquid or powder type of an odorant and a high pressure of an inert gas is disposed in the toxic gas discharge scheduled area and is opened in accordance with the odorant discharge signal, And an injector discharge device operable to discharge from the nozzle connected to the discharge valve by expansion of the inert gas of the injector discharge device.
[Claim 19] The method according to claim 19,
Generating a warning activation signal capable of driving to emit a warning sound upon receipt of the toxic gas emission signal or the gas emission operation detection signal,
The evacuation guidance system
Further comprising a warning sound generating device for emitting a warning sound according to the warning activation signal.
[Claim 19] The method according to claim 19,
Generating a warning activation signal capable of driving a warning lamp upon receipt of the toxic gas emission signal or the gas emission operation detection signal,
The evacuation guidance system
Further comprising a warning light device for driving the warning light according to the warning activation signal.
A main control unit for outputting a toxic gas emission signal generated based on a sensor detection signal received from sensors or a manual operation signal received from a manual operation switch, And a gas pressure type starting part for detecting a manual opening of the containers and outputting a gas release operation detection signal,
An adsorbent discharging device, which is disposed in a toxic gas discharge scheduled area and contains an odorant storage container, a discharge valve and a nozzle for storing a high-pressure gas, liquid or powder-like odorant and high-pressure inert gas,
Receiving the injector emission signal from the main control unit;
Receiving the gas discharge operation detection signal from the gas pressure type activation section; And
Discharging the odorant from the nozzle connected to the discharge valve by expansion of the high-pressure inert gas by opening the discharge valve of the odorant storage container in accordance with the odorant discharge signal or the gas discharge operation detection signal A method of evacuation of a toxic gas release facility.
Manual activation of the main control unit and the starting gas storage container that generates the toxic gas emission signal based on the sensor detection signal received from the sensors or the manual operation signal received from the manual operation switch or the manual opening of the toxic gas storage containers is detected And a gas pressure type starting part for outputting a gas release operation detection signal,
An adsorbent discharging device, which is disposed in a toxic gas discharge scheduled area and contains an odorant storage container, a discharge valve and a nozzle for storing a high-pressure gas, liquid or powder-like odorant and high-pressure inert gas,
Receiving the toxic gas emission signal from the main control unit;
Receiving the gas discharge operation detection signal from the gas pressure type activation section;
Generating an odorant emission signal upon receipt of the toxic gas emission signal or the gas emission operation detection signal; And
Discharging the odorant from the nozzle connected to the discharge valve by expansion of the high pressure inert gas by opening the discharge valve of the odorant storage container in accordance with the odorant discharge signal, Induction method.
A fire extinguishing gas emission signal and a gas emission interlocking signal are generated based on a fire detection signal received from the fire detectors disposed in the fire extinguishing gas discharge area, a fire report signal received from a transmitter, or a manual operation signal received from a manual operation And outputs at least one of the extinguishing gas discharge signal or the gas discharge interlocking signal as an odorant discharge signal and outputs a delayed extinguishing gas discharge signal after delaying the extinguishing gas discharge signal for a predetermined delay time Fire receiver; And
A gas pressure type activation section for detecting the manual activation of the starting gas storage container or the manual opening of the digestion gas storage containers and outputting the gas discharge operation detection signal; And
A discharge valve of a storage container for an odorant agent, which stores the high-pressure gas, the liquid or powder-like odorant and the high-pressure inert gas, is disposed in the fire extinguishing gas discharge scheduled area, And an odor absorber releasing device operable to open the odor absorber so as to discharge the odor absorber from the nozzle connected to the discharge valve by expansion of the high pressure inert gas.
27. The device according to claim 24,
An odorant storage container for storing a high-pressure gas, a liquid or powder-like odorant and a high-pressure inert gas;
An actuator capable of opening the discharge valve of the container for storing the odorant agent electrically or pneumatically according to the injector discharge signal or the gas discharge operation detection signal; And
And a nozzle designed to discharge an anti-fouling agent with a predetermined direction and a discharge speed.
26. The antifouling agent storage container of claim 25,
Wherein the discharge valve is located at the top of the storage container for the odor agent, and the high-pressure gas or the deodorant in the form of liquid is concentrated in the lower part of the internal storage space of the storage container of the odor agent by the relative weight- Wherein the inert gas is concentrated on the upper portion of the internal storage space and extends from the lowermost end of the internal storage space to the discharge valve so that when the discharge valve is opened, And an internal piping capable of being transferred to the discharge valve.
26. The antifouling agent storage container of claim 25,
Wherein the discharge valve is located at the lowermost part of the storage container for the odorant, the deodorant in powder form is densely packed in the lower part of the internal storage space of the storage container, the inert gas is densely packed in the upper part of the internal storage space, Wherein the deodorant is directly discharged through the discharge valve by a pressure difference between the inert gas and the atmospheric pressure when the valve is opened.
26. The system of claim 25, wherein the nozzle comprises a sounding plate that produces an intentional noise in the audible frequency band during emission of the adulterant. 26. The fuel cell system according to claim 25, wherein the gas pressure-
Is operative to generate the gas discharge operation detection signal by a pressure switch which detects the gas pressure at the time of valve opening of the starting gas storage container or at the time of opening the collecting pipe valve of the fire extinguishing gas storage containers A system of advance evacuation of fire extinguishing facilities.
27. The method of claim 24, wherein the gas release interlock signal
A gas discharge lamp driving signal, an acoustic alarm device driving signal, an automatic closing device driving signal, and a ventilation device driving signal.
The method of any one of claims 24 to 30,
The additive may be selected from the group consisting of ethylmercaptan, tertiary butylmercaptan, isopropylmercaptan, n-propylmercaptan, sec-butylmercaptan, tetrahydrothiophene, methylethylsulfide, ammonia, amines, propionic acid, n- i-valeric acid, and at least one component selected from the group consisting of i-valeric acid.
The method of any one of claims 24 to 30,
Wherein the additive comprises at least one component selected from the group consisting of sulfur compounds, nitrogen compounds, aldehydes, hydrocarbons, fatty acids and natural aromatics,
The sulfur compounds may be selected from the group consisting of hydrogen sulfide, methyl sulfide, ethyl sulfide, methyl ethyl sulfide, methyl mercaptan, ethyl mercaptan, tertiary butyl mercaptan, isopropyl mercaptan, normal profil mercaptan, ≪ / RTI > hydrothiophene,
The nitrogen compound is selected from amines including ammonia, ethylamine, methylamine, or trimethylamine, and indole derivatives including benzopyrrole and sucrose,
The aldehydes are selected from acetaldehyde, propionaldehyde, n-butylaldehyde, i-butylaldehyde, n-valeraldehyde and i-valeraldehyde,
The hydrocarbons are selected from ethyl acetate, methyl ethyl ketone, methyl isobutyl ketone, styrene, xylene and butyl acetate,
The fatty acids are selected from propionic acid, n-valeric acid and i-valeric acid,
Natural orientations include: Wintergreen, Peppermint, Rosemary, Lavender, Chamomile, Jasmine, Rooibos, Lemon Grass, Lemon Balm, Lemon Verbena, Clockwise, Borage, Clara Sage, Anika, Spathom, Dill, Hibiscus, Mint, apple mint, penny royal mint, basil, bergamot, suntornna, saibori, sage, sentied geranium, stevia, marrow, oregano, Italian parsley, chives, catnip, time, pansy, pot marigold, Wherein the system is selected from the group consisting of a volatile organic solvent, a hydrogen peroxide, a hydrogen peroxide, a hydrogen peroxide, a hydrogen peroxide, a hydrogen peroxide, a eucalyptus, a juniper berry and a clovebird.
A fire extinguishing gas emission signal and a gas emission interlocking signal are generated based on a fire detection signal received from the fire detectors disposed in the fire extinguishing gas discharge area, a fire report signal received from a transmitter, or a manual operation signal received from a manual operation And outputs at least one of the extinguishing gas discharge signal or the gas discharge interlocking signal as an odorant discharge signal and outputs a delayed extinguishing gas discharge signal after delaying the extinguishing gas discharge signal for a predetermined delay time Fire receiver; And
A discharge valve of a storage container for an odorant agent, which stores the high-pressure gas, liquid or powder-like odorant and the high-pressure inert gas, is opened in accordance with the odorant discharge signal, And an inhalant release device operable to discharge from the nozzle connected to the discharge valve by expansion of the high pressure inert gas.
34. The device of claim 33,
An odorant storage container for storing a high-pressure gas, a liquid or powder-like odorant and a high-pressure inert gas;
An actuator capable of opening the discharge valve of the container for storing the odorant agent electrically or pneumatically according to the injector discharge signal or the gas discharge operation detection signal; And
And a nozzle designed to discharge an anti-fouling agent with a predetermined direction and a discharge speed.
35. The container according to claim 34, wherein the anti-
Wherein the discharge valve is located at the top of the storage container for the odor agent, and the high-pressure gas or the deodorant in the form of liquid is concentrated in the lower part of the internal storage space of the storage container of the odor agent by the relative weight- Wherein the inert gas is concentrated on the upper portion of the internal storage space and extends from the lowermost end of the internal storage space to the discharge valve so that when the discharge valve is opened, And an internal piping capable of being transferred to the discharge valve.
35. The container according to claim 34, wherein the anti-
Wherein the discharge valve is located at the lowermost part of the storage container for the odorant, the deodorant in powder form is densely packed in the lower part of the internal storage space of the storage container, the inert gas is densely packed in the upper part of the internal storage space, Wherein the deodorant is directly discharged through the discharge valve by a pressure difference between the inert gas and the atmospheric pressure when the valve is opened.
35. The system of claim 34, wherein the nozzle comprises a sounding plate that produces intentional noise in the audible frequency band during emission of the adulterant. 34. The method of claim 33, wherein the gas release interlock signal
A gas discharge lamp driving signal, an acoustic alarm device driving signal, an automatic closing device driving signal, and a ventilation device driving signal.
38. The method of any one of claims 33-38,
The additive may be selected from the group consisting of ethylmercaptan, tertiary butylmercaptan, isopropylmercaptan, n-propylmercaptan, sec-butylmercaptan, tetrahydrothiophene, methylethylsulfide, ammonia, amines, propionic acid, n- i-valeric acid, and at least one component selected from the group consisting of i-valeric acid.
38. The method of any one of claims 33-38,
Wherein the additive comprises at least one component selected from the group consisting of sulfur compounds, nitrogen compounds, aldehydes, hydrocarbons, fatty acids and natural aromatics,
The sulfur compounds may be selected from the group consisting of hydrogen sulfide, methyl sulfide, ethyl sulfide, methyl ethyl sulfide, methyl mercaptan, ethyl mercaptan, tertiary butyl mercaptan, isopropyl mercaptan, normal profil mercaptan, ≪ / RTI > hydrothiophene,
The nitrogen compound is selected from amines including ammonia, ethylamine, methylamine, or trimethylamine, and indole derivatives including benzopyrrole and sucrose,
The aldehydes are selected from acetaldehyde, propionaldehyde, n-butylaldehyde, i-butylaldehyde, n-valeraldehyde and i-valeraldehyde,
The hydrocarbons are selected from ethyl acetate, methyl ethyl ketone, methyl isobutyl ketone, styrene, xylene and butyl acetate,
The fatty acids are selected from propionic acid, n-valeric acid and i-valeric acid,
Natural orientations include: Wintergreen, Peppermint, Rosemary, Lavender, Chamomile, Jasmine, Rooibos, Lemon Grass, Lemon Balm, Lemon Verbena, Clockwise, Borage, Clara Sage, Anika, Spathom, Dill, Hibiscus, Mint, apple mint, penny royal mint, basil, bergamot, suntornna, saibori, sage, sentied geranium, stevia, marrow, oregano, Italian parsley, chives, catnip, time, pansy, pot marigold, Wherein the system is selected from the group consisting of a volatile organic solvent, a hydrogen peroxide, a hydrogen peroxide, a hydrogen peroxide, a hydrogen peroxide, a hydrogen peroxide, a eucalyptus, a juniper berry and a clovebird.
A fire detection signal received from a fire detector disposed in a fire extinguishing gas discharge area, a fire report signal received from a transmitter, or a manual operation signal received from a manual operation, and a gas discharge interlock signal A fire receiving unit for outputting the fire extinguishing gas emission signal delayed for a predetermined delay time immediately after generation of the fire extinguishing gas emission signal, and then outputting a delayed fire extinguishing gas emission signal;
A gas pressure type activation section for detecting the manual activation of the starting gas storage container or the manual opening of the digestion gas storage containers and outputting the gas discharge operation detection signal;
An evacuation induction control unit for generating an evacuation device emission signal according to receipt of at least one of the extinguishing gas emission signal, the gas emission interlocking signal or the gas emission operation detection signal; And
A discharge valve of a storage container for an odorant agent, which stores a high-pressure gas, a liquid or powder-like odorant and a high-pressure inert gas, which is disposed in the predetermined area for discharging the extinguishing gas, Wherein the at least one of the at least one inlet and the at least one outlet is connected to the exhaust valve.
42. The method according to claim 41,
And generates a warning sound signal upon receipt of the extinguishing gas emission signal or the gas emission operation detection signal
The evacuation guidance system
Further comprising a warning sound generating device for emitting a warning sound according to the warning sound signal.
42. The method according to claim 41,
And to generate a warning light signal upon receipt of the extinguishing gas emission signal or the gas emission operation detection signal
The evacuation guidance system
Further comprising a warning light device for driving a warning lamp in accordance with the warning light signal.
A fire detection signal received from a fire detector disposed in a fire extinguishing gas discharge area, a fire report signal received from a transmitter, or a manual operation signal received from a manual operation, and a gas discharge interlock signal A fire receiving unit for outputting the fire extinguishing gas emission signal delayed for a predetermined delay time immediately after generation of the fire extinguishing gas emission signal, and then outputting a delayed fire extinguishing gas emission signal;
An evacuation induction control unit for generating an evacuation agent emission signal according to receipt of one of the extinguishing gas emission signal or the gas emission interlocking signal; And
A discharge valve of a storage container for an odorant agent, which stores a high-pressure gas, a liquid or powder-like odorant and a high-pressure inert gas, which is disposed in the predetermined area for discharging the extinguishing gas, Wherein the at least one of the at least one inlet and the at least one outlet is connected to the exhaust valve.
47. The method according to claim 44,
Generating a warning activation signal capable of driving to emit a warning sound upon receipt of the toxic gas emission signal or the gas emission operation detection signal,
The evacuation guidance system
Further comprising a warning sound generating device for emitting a warning sound according to the warning activation signal.
47. The method according to claim 44,
Generating a warning activation signal capable of driving a warning lamp upon receipt of the toxic gas emission signal or the gas emission operation detection signal,
The evacuation guidance system
Further comprising a warning lamp device for driving a warning lamp according to the warning activation signal.
A fire detection signal received from a fire detector disposed in a fire extinguishing gas discharge area, a fire report signal received from a transmitter, or a manual operation signal received from a manual operation, and a gas discharge interlock signal And outputs a delayed fire extinguishing gas emission signal after delaying the fire extinguishing gas emission signal for a predetermined delay time after the generation of the fire extinguishing gas emission signal and detecting manual opening of passive fire extinguishing gas storage containers or manual opening of fire extinguishing gas storage containers And a gas pressure type starter for outputting a gas release operation detection signal,
An evacuation induction control unit for generating an evacuation agent emission signal according to receipt of at least one of a digestion gas emission signal, a gas emission interlocking signal, or a gas emission operation detection signal; And
A discharge valve of a storage container for an odorant agent, which stores a high-pressure gas, a liquid or powder-like odorant and a high-pressure inert gas, which is disposed in the predetermined area for discharging the extinguishing gas, And an inhaler discharge device operable to discharge from the nozzle connected to the discharge valve by expansion of the inert gas of the atmospheric gas.
A fire detection signal received from a fire detector disposed in a fire extinguishing gas discharge area, a fire report signal received from a transmitter, or a fire extinguishing gas emission signal generated based on a manual operation signal received from a manual operation and a gas discharge interlock signal And a gas pressure type starting part for detecting the manual opening of the gas storage container for starting or the manual opening of the digestion gas storage containers and outputting the gas discharge operation detection signal, As a method of inducing advance evacuation of a fire extinguishing system,
An adsorbent discharging device including an adsorbent storage container, a discharge valve, and a nozzle, disposed in the digestive gas discharge scheduled area, for storing an adsorbent of high pressure gas, liquid or powder form and an inert gas of high pressure,
Receiving the antiseptic release signal from the fire receiver;
Receiving the gas discharge operation detection signal from the gas pressure type activation section; And
Opening the discharge valve of the container for storing the odorant agent according to the extinguishing gas discharge signal, the gas discharge interlocking signal or the gas discharge operation detecting signal, the nozzle is connected to the nozzle connected to the discharge valve by expansion of the high- And discharging the gas-based automatic fire extinguishing system.
A fire extinguishing gas emission signal and a gas emission interlocking signal are generated based on a fire detection signal received from the fire detectors disposed in the fire extinguishing gas discharge area, a fire report signal received from a transmitter, or a manual operation signal received from a manual operation And a gas pressure type starting unit for detecting manual opening of the fire receiving box and the starting gas storage container or manual opening of the fire extinguishing gas storage containers and outputting a gas discharge operation detecting signal,
An adsorbent discharging device including an adsorbent storage container, a discharge valve, and a nozzle, disposed in the digestive gas discharge scheduled area, for storing an adsorbent of high pressure gas, liquid or powder form and an inert gas of high pressure,
Receiving the extinguishing gas emission signal or the gas emission interlocking signal from the fire receiving unit;
Receiving the gas discharge operation detection signal from the gas pressure type activation section;
Generating an odorant emission signal according to receipt of the extinguishing gas emission signal, the gas emission interlocking signal or the gas emission operation detection signal; And
Discharging the odorant from the nozzle connected to the discharge valve by expansion of the high-pressure inert gas by opening the discharge valve of the odor agent storage container in accordance with the odorant discharge signal, How to evict eviction.
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CN110604893A (en) * 2019-10-18 2019-12-24 杭州新纪元消防科技有限公司 Perfluorohexanone extinguishing device

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JP2006293628A (en) * 2005-04-08 2006-10-26 Nippon Mmi Technology Kk Alarm apparatus
KR101263166B1 (en) * 2011-05-18 2013-05-10 정종백 Small genades typed fire extinguisher having a function of beep

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CN110604893A (en) * 2019-10-18 2019-12-24 杭州新纪元消防科技有限公司 Perfluorohexanone extinguishing device

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