KR20220058827A - Emergency survival breathing automation device - Google Patents

Abstract

The present invention relates to an emergency survival breathing automation device, which has a purpose to provide an emergency survival breathing automation device which automatically and repeatedly pressurizes a breathing bag built into the body and transmits inhalation through a mask and a hose connected to a patient, and depending on the patient's condition and condition, the number of respirations and optimal respiration volume are preset, allowing a user to select a number of respiration conditions, and it is possible to easily operate even by non-professionals at disaster sites or daily life to increase the patient's oxygen absorption rate by blocking rebreathing of exhalation, and thus has excellent portability.

Description

Emergency survival breathing automation device

The present invention relates to an automatic emergency survival breathing apparatus, and in more detail, automatically and repeatedly pressurizing the breathing bag built into the body, and delivered by inhalation through a mask and a hose connected to the patient, depending on the patient's condition and condition. The number of respirations and the optimal respiration rate are set in advance, allowing the user to select a number of breathing conditions, and blocking the rebreathing of the exhalation to increase the patient's oxygen absorption rate. It also relates to an automated emergency survival breathing apparatus that can be easily operated and has excellent portability.

As is well known, in general, a ventilator is a means of artificially supplying a mixed gas of oxygen and air to a patient in order to maintain life until emergency and inpatient recovery in a specialized medical institution or hospital.

In the event of an emergency at a disaster site or daily life, the most important thing to protect life is to keep breathing. Recently, due to an infectious disease situation, contact with a patient also has a very high risk of infection, so contact with the existing respiratory maintenance device is inevitable, which is also emerging as a problem with the existing device.

In addition, since the shortage of professional manpower for artificial respiration at emergency sites for breathing maintenance is a social problem, research on automatic breathing maintenance devices for emergency survival at disaster sites is continuously being made.

A general manual ventilator is a respiratory assist device mainly used to provide artificial respiration to a patient in an emergency situation such as CPR or acute respiratory failure or in a surgical environment that requires general anesthesia.

However, when a user using a manual ventilator manually applies pressure to the air bag to make artificial respiration, the method of applying pressure differs depending on the user, and the method of applying pressure is different depending on the user. Since the amount of air supplied through the airway is not constant, it is a difficult task to continuously control and provide a constant respiration rate.

Moreover, there is the inconvenience that the medical staff must continuously pressurize the air bag to supply air by the patient's side, and in case of an emergency, it was not possible to maintain breathing suitable for the patient's condition due to the shortage of manpower, and the age and body of the patient There was the inconvenience of having to have a standardized manual ventilator Bag Valve Mask according to the condition and health condition.

Recently, due to COVID-19, the use of the manual ventilator Bag Valve Mask has increased rapidly. Due to the nature of the infectious disease, it is necessary to keep a distance from the patient and to comply with strict quarantine and quarantine rules, so the existing manual ventilator Bag Valve The mask had a problem that it could not be operated from a distance from the patient, and it came to a state that appeared due to a shortage of medical personnel at the relief site or emergency hospital.

Therefore, countries around the world are trying to develop an automated device for the manual ventilator Bag Valve Mask, but until now, only research and development for use in medical institutions has been conducted, so it is not realistic in disaster sites and emergency situations. It is being developed so that it can be used only in spaces and places where normal medical activities can be carried out in the current state. There is a shortage of technical resources.

In addition, the existing ventilator is composed of a structure that re-breathing the exhalation when the patient breathes. There was a fatal problem.

On the other hand, the existing automatic ventilator composed of a large device has a problem in that the operation panel for operating the equipment is configured on the side of the housing, so the visibility for operation is not good, so that it interferes with faster operation in an emergency situation.

The present invention has been made in view of the circumstances of the prior art, and automatically and repeatedly pressurizes the breathing bag built into the body, and is delivered by inhalation through the mask and hose connected to the patient, and according to the patient's condition and condition. The number of respirations and the optimal respiration rate are set in advance, allowing the user to select a number of breathing conditions, and blocking the rebreathing of the exhalation to increase the patient's oxygen absorption rate. It is an object of the present invention to provide an automatic emergency survival breathing apparatus that can be easily operated and has excellent portability.

In order to achieve the above object, according to a preferred embodiment of the present invention, an upper case 4 having an upper case receiving part 50 therein; a lower case 8 provided with a lower case accommodating part 48 therein, a pressure operation part 46 and an arm bu bag seating groove 44 for seating the arm bu bag (Ambu-Bag: 20); a pressure operation unit 46 mounted inside the lower case 8 to automatically press the arm bag (Ambu-Bag: 20) accommodated in the arm bag seating groove 44; a control panel 22 which is inclinedly mounted in a groove formed on one side of the lower case 8 and allows the user to select and operate a condition corresponding to a target patient; A manual ventilator set 100 accommodated in the upper case receiving unit 50 or the lower case receiving unit 48, and comprising an Ambu-Bag 20, a hose 52, and a mask 58. constituted; In the lower case 8, cutouts 12 are formed on the front and rear surfaces of the wall where the arm bu bag seating groove 44 is formed, so that a part of the arm bu bag (Ambu-Bag: 20) is exposed to the outside and its operating state There is provided an automatic emergency survival breathing apparatus, characterized in that the operator can visually confirm.

Preferably, the lower case receiving portion 48 is provided with an automatic emergency survival respiration device characterized in that the battery 54 and the adapter 56 are further accommodated.

Preferably, the mask 58 has an emergency survival respiration, characterized in that a separate exhalation shutoff valve 59 is configured in the mask connector 55 connected to the hose 52 to prevent the patient from breathing carbon dioxide. Automation is provided.

Preferably, the control panel 22 includes a power button 24; Target setting buttons (26a, 26b, 26c) for selecting when the target patient is a child, an elderly person, or an adult; a respiration rate operation button 26d capable of manually manipulating the respiration rate; first, second, and third LEDs (28a, 28b, 28c) selectively lit to visually indicate the selection state of the target setting button (26a, 26b, 26c); a memory unit 40 for storing motor rotational speed data mapped to a respiration amount and a respiration cycle according to the target setting buttons (26a, 26b, 26c); Emergency survival respiration automation, characterized in that it has a control unit 42 for controlling the operation of the pressurization operation unit 46 according to the setting of the target setting button (26a, 26b, 26c) and the respiration frequency operation button (26d) A device is provided.

Preferably, it is mounted on a predetermined part of the arm bu bag seating groove 44 and emits light so that the operation state of the arm bu bag (Ambu-Bag: 20) can be visually checked when the pressing operation part 46 is operated at night. There is provided an emergency survival respiration automation device, characterized in that the irradiated dark buback LED (32) is further configured.

Preferably, the pressing operation unit 46 includes a bag pressing motor 36 operated by a DC power supply to generate a rotational force for pressing the Ambu-Bag 20; a rotating plate 39 mounted on and rotated on the motor shaft 36a of the back pressing motor 36, the eccentric shaft 39a protruding from the front thereof; and a crank unit (60) that receives the rotational force of the bag pressing motor (36) and presses the Ambu-Bag (20); The crank part 60 has one end coupled to the eccentric shaft 39a to rotate, and the other end of the crankshaft 62 coupled to the connecting rod 66; Emergency survival, characterized in that one end is coupled to the crankshaft 62, and the other end is composed of a connecting rod 66 coupled to a press head 70 for pressing the Ambu-Bag (20). A breathing automation device is provided.

Preferably, the mask 58 is further provided with a bacterial filter 57 for blocking the inflow of bacteria or bacteria during the patient's inhalation breathing in the mask connector 55 connected to the hose 52; The armbubag 20 is provided with an automatic emergency survival respiration apparatus, characterized in that it further includes an auxiliary pressurizing bag 25 that can be manually pressurized by an operator to inject air into the armbubag 20 .

Preferably, the lower case 8 has an LCD 27 that displays the operation state of the control panel 22 on its side so that the operator can quickly recognize the breathing operation information applied to the patient. An emergency survival breathing automation device is provided.

The automatic emergency survival respiration apparatus according to the present invention has a compact and simple structure, can easily pressurize the air bag, pressurize the air bag with a certain force, control the number of respirations, and can be used for adults, children and the elderly. Respiratory volume suitable for the World Health Organization WHO standard can be customized according to the physical condition of the person, and anyone can operate it easily even if it is not a medical professional. , equipped with lamps and markings and functions that meet international relief standards so that the physical condition of the patient can be identified from a distance at the disaster site, and can be worn on the shoulder and waist, so it is convenient for transportation It is very easy to mount on a mobile bed. It can be stored and used as a necessity for survival until medical staff arrives in public places, general homes, and traffic accident sites.

In addition, in the automatic emergency survival respiration apparatus according to the present invention, a separate exhalation shutoff valve is configured in the connector connecting the mask and the hose to provide air with high oxygen saturation to the patient, and the operation panel for operating the equipment is inclined to the side. It has the advantage of making it possible to operate faster in an emergency by forming excellent visibility for operation.

1 is a perspective view showing an external appearance of an automatic emergency survival breathing apparatus according to an embodiment of the present invention;
Figure 2 is a perspective view showing an open state of the upper case of the automatic emergency survival breathing apparatus according to an embodiment of the present invention;
3 is a view showing a state in which a mask, a hose, and an arm bubag are mounted to be breathing in an automatic emergency survival breathing apparatus according to an embodiment of the present invention;
4 and 5 are views showing the connection state of the arm bag, the hose, and the mask included in the automatic emergency survival breathing apparatus according to an embodiment of the present invention, and the additional connection state of the auxiliary pressurized bag;
Figure 6 is a block diagram showing the circuit configuration of the automatic emergency survival breathing apparatus according to an embodiment of the present invention;
Figure 7a, 7b is a view showing a pressurizing operation unit configured in the emergency survival respiration automation device according to an embodiment of the present invention;
Figures 8a, 8b, 8c, 8d is a view showing the operating state of the automatic emergency survival breathing apparatus according to an embodiment of the present invention.

Hereinafter, the present invention will be described in detail with reference to the drawings.

Figure 1 is a perspective view showing the external appearance of an automatic emergency survival respiration apparatus according to an embodiment of the present invention, Figure 2 is a perspective view showing an open state of the upper case of the automatic emergency survival respiration apparatus according to an embodiment of the present invention , FIG. 3 is a view showing a state in which a mask, a hose, and an arm bubag are mounted in an automatic emergency survival breathing apparatus in accordance with an embodiment of the present invention to be able to breathe, FIGS. Figure 6 shows the circuit configuration of the automatic emergency survival breathing apparatus according to an embodiment of the present invention. One block configuration diagram, Figures 7a, 7b is a view showing a pressure operation unit configured in the emergency survival breathing automatic device according to an embodiment of the present invention.

Referring to this, the automatic emergency survival respiration apparatus 2 according to an embodiment of the present invention automatically and repeatedly pressurizes the breathing bag built into the body, and is delivered by inhalation through the mask and hose connected to the patient, and the patient Specialist at disaster sites or daily life that allows the user to select a number of preset breathing conditions for the number of respirations and optimal respiration volume according to the state and condition of It is a device that can be easily operated even by the general public, not an agent, and has excellent portability.

In more detail, the automatic emergency survival respiration apparatus (2) according to an embodiment of the present invention includes an upper case (4) having an upper case housing unit (50) therein; A lower case 8 provided with a lower case receiving part 48, a pressurizing operation part 46, and an armbubag seating groove 44 for seating the armbu-bag (Ambu-Bag: 20) therein is composed of a body and , The upper case 4 and the lower case 8 are configured to be able to be opened and closed by a hinge.

In addition, in the upper case 4 and the lower case 8, an upper case cover 6 and a lower case cover 10 are attached to the front and rear surfaces, respectively, and a predetermined portion of the upper case cover 6 is It consists of a brand name or emergency medical logo.

In addition, the waist wearing belt 18 and the shoulder wearing belt 14 are configured to be coupled to predetermined portions on both sides of the lower case 8 by the belt lower loop 16 .

Since various types of variables can occur at the disaster site, depending on the patient's condition, if there is no medical bed, it is necessary to support the patient to move. It was developed in consideration of convenience and mobility so that it can be used in close contact with the patient, and the shoulder strap and waist belt can be conveniently applied and used according to the topography and conditions of the disaster site.

On the other hand, the automatic emergency survival respiration apparatus (2) according to an embodiment of the present invention is mounted inside the lower case (8) and accommodated in the armbubag seating groove (44) Ambu-Bag (20). a pressure operation unit 46 for automatic pressurization; It is mounted on a predetermined part on one side of the lower case 8 and comprises a control panel 22 for the user to select and operate the condition corresponding to the target patient.

At this time, the control panel 22 is mounted on a slanted surface in a groove formed in a predetermined part on one side of the lower case 8, so that when the user selects and operates the condition corresponding to the target patient, the visibility is excellent, so that faster operation is possible is well composed.

On the other hand, the upper case receiving part 50 accommodates an arm bag (Ambu-Bag: 20) and a hose 52, and the lower case receiving part 48 is connected to the hose 52 and worn by the patient. A mask 58, a battery 54 and an adapter 56 are housed therein.

That is, the automatic emergency survival breathing apparatus 2 according to an embodiment of the present invention allows a medical staff or a general public to open the upper case 4 and the lower case 8 in an emergency situation in which a patient occurs, and the upper case The arm bag (Ambu-Bag: 20) and the hose 52 stored in the receiving part 50 are drawn out, and the arm bag (Ambu-Bag: 20) is seated in the arm bag seating groove 44, and the number of the lower case The mask 58 accommodated in the payment 48 is coupled to the hose 52, put on the patient's mouth, and the control panel 22 is operated to operate.

That is, the manual ventilator set 100 is accommodated in the upper case accommodating part 50 or the lower case accommodating part 48, and comprising an Ambu-Bag 20, a hose 52, and a mask 58. ) is composed of

Then, the pressure operation unit 46 configured in the automatic emergency survival breathing apparatus 2 according to an embodiment of the present invention automatically maps the input value set by the user to the Ambu-Bag (20). ), it becomes possible to inject stable air into the patient.

At this time, in the lower case 8, cutouts 12 are formed on the front and rear surfaces of the wall surface where the arm bag seating groove 44 is formed, so that a part of the arm bag (Ambu-Bag: 20) is exposed to the outside. It is designed so that the operator can visually check the operating state.

On the other hand, the control panel 22 includes a power button 24; When the target patient is a child, the elderly and an adult, the target setting button 26a, 26b, 26c is configured to be exposed to a predetermined part of the lower case 8, and the target setting button 26a, 26b, 26c The first, second, and third LEDs 28a, 28b, and 28c that are selectively turned on to visually indicate the user's selection state are mounted on a predetermined part inside the .

The target setting buttons 26a, 26b, and 26c can be operated easily by anyone without expertise by using the symbols presented in the emergency medical guidelines by the 『WHO World Health Organization』 separately according to the patient's physical condition.

On the other hand, the indication mark is yellow for children, green for the elderly, and blue for adults as the symbol. Another red switch is installed so that if an abnormality occurs during use due to an unexpected accident, it is accompanied by a warning lamp. It is installed so that anyone can identify it from a distance, and when used in the field or in a designated indoor where electricity can be supplied, an indicator lamp is added to notify the remaining amount of the battery and the state of charge so that emergency situations can be handled easily and quickly. was installed with

In addition, the control panel 22 is further configured with a respiration frequency manipulation button 26d capable of manually manipulating the respiration frequency, and a basic memory preset by selection of the target setting buttons 26a, 26b, 26c Although the respiratory cycle of the set value is automatically operated, if additional manipulation is required according to the patient's condition, the arm bag 20 may be controlled to operate faster than the default value through the respiration frequency manipulation button 26d You can also control it to work.

In addition, the control panel 22 includes a memory unit 40 for storing the motor rotational speed data mapped to the respiration amount and respiration cycle according to the target setting buttons (26a, 26b, 26c); and a control unit 42 for controlling the operation of the pressing operation unit 46 according to the setting of the target setting buttons 26a, 26b, and 26c and the operation of the respiration frequency operation button 26d.

In the case of children and the elderly, whose lung area is relatively small compared to adults, and whose breathing volume is not large, the pressing force of the pressing operation part 46 of the Ambu-Bag 20 is small, whereas that of an adult with a large lung area. In this case, since the respiration volume is large, the pressing force of the pressing operation unit 46 of the Ambu-Bag 20 is set in the memory unit 40 to be relatively large compared to children and the elderly.

On the other hand, it is mounted on a predetermined part of the arm bu bag seating groove 44 and irradiates light so that the operation state of the arm bu bag (Ambu-Bag: 20) can be visually checked when the pressing operation part 46 is operated at night. The dark-back LED (32) is further configured.

In addition, the lower case 8 has an LCD 27 that displays the operation state of the control panel 22 on its side so that the operator can quickly recognize the breathing operation information applied to the patient. Even if the operator makes a mistake in operating the button on the control panel 22, the button operation error is not recognized by checking the patient's condition, but the operator can directly check the operation information through the LCD 27, so the button can be operated accurately You can check in real time what you have done.

In addition, the mask 58 configured in the automatic emergency survival breathing apparatus 2 according to an embodiment of the present invention is a separate exhalation in the mask connector 55 connected to the hose 52, as shown in FIG. A shut-off valve 59 is configured to prevent the patient from breathing carbon dioxide.

The exhalation blocking valve 59 formed in the mask connector 55 is a valve having a built-in check valve to separate the exhalation path into a path different from the inhalation path and prevent the exhalation from flowing into the inhalation path again.

In addition, the mask connector 55 has a bacterial filter 57 for blocking the inflow of bacteria or bacteria during the patient's inhalation respiration adjacent to the exhalation blocking valve 59 .

In addition, as shown in FIG. 5 , the arm bag 20 is further provided with an auxiliary pressurizing bag 25 that can be manually pressurized by an operator to inject air into the arm bag 20 , the battery Even when the power is completely exhausted, it is possible to provide a constant pneumatic pressure to the arm bubag 20 .

In addition, the pressurization operation unit 46 configured in the automatic emergency survival breathing apparatus 2 according to an embodiment of the present invention is operated by DC power to generate the rotational force of the Ambu-Bag (20) pressurization. a bag press motor 36; a rotating plate 39 mounted on and rotated on the motor shaft 36a of the back pressing motor 36, the eccentric shaft 39a protruding from the front thereof; and a crank unit (60) that receives the rotational force of the bag pressing motor (36) and presses the Ambu-Bag (20); The crank part 60 has one end coupled to the eccentric shaft 39a to rotate, and the other end of the crankshaft 62 coupled to the connecting rod 66; One end thereof is coupled to the crankshaft 62 , and the other end includes a connecting rod 66 coupled to a press head 70 for pressing the Ambu-Bag 20 .

The crankshaft 62 and the connecting rod 66 are rotatably coupled by a first connector 64 , and the connecting rod 66 and the press head 70 are rotated by a second connector 68 . possibly linked.

At this time, the press head 70 has been treated to prevent slipping on the contact surface in contact with the Ambu-Bag 20 in order to increase the efficiency of pressing, and since this is a well-known and common technique, detailed description is omitted. decide to do

The function and operation of the automatic emergency survival respiration apparatus according to an embodiment of the present invention of the above configuration will be described in detail with reference to the accompanying drawings.

Figures 8a, 8b, 8c, 8d is a view showing the operating state of the automatic emergency survival breathing apparatus according to an embodiment of the present invention.

First, in an emergency situation in which a patient occurs, a medical staff or a general public opens the upper case 4 and the lower case 8 and is accommodated in the upper case storage unit 50 Ambu-Bag (Ambu-Bag: 20) and the hose 52 are pulled out, the Ambu-Bag 20 is seated in the arm-bag seating groove 44, and the mask 58 accommodated in the lower case accommodating part 48 is attached to the hose 52. After binding to the patient, put it on the patient's mouth, and operate the control panel 22 to operate.

At this time, the control panel 22 of the present invention is inclinedly mounted in a groove formed in a predetermined part on one side of the lower case 8, so that the control panel 22 is mounted on the side when the operator looks down from the top to the bottom. Visibility is very good compared to the previous time, so that faster and more accurate button operation is possible.

Then, the pressure operation unit 46 configured in the automatic emergency survival breathing apparatus 2 according to an embodiment of the present invention automatically maps the input value set by the user to the Ambu-Bag (20). ), it becomes possible to inject stable air into the patient.

When the user selects a button corresponding to a patient through the control panel 22, for example, since the patient will be any one of a child, an elderly person, and an adult, when the user operates any one target setting button, the corresponding LED 28a, 28b and 28c) are turned on.

In that state, the bag pressing motor 36 rotates, so that the rotating plate 39 configured in the shape as shown in FIG. 8A is synchronized with the rotational force of the bag pressing motor 36 to rotate as shown in FIG. 8B do.

For convenience of description, it is assumed that the rotating plate 39 rotates counterclockwise.

Then, the crankshaft 62 gradually pushes the connecting rod 66 in the direction of the Ambu-Bag 20 by the eccentric shaft 39a of the rotating plate 39, and the rotating plate ( When 39) is further rotated, as shown in FIG. 8C , the crankshaft 62 and the connecting rod 66 completely overlap in the direction of the Ambu-Bag 20 .

This time point is the point at which the press head 70 presses the Ambu-Bag 20 the most.

After that point, when the rotating plate 39 is further rotated, as shown in FIG. 8D , the crankshaft 62 gradually moves the connecting rod 66 to the opposite direction to the Ambu-Bag (20). As a result, the press head 70 is separated from the Ambu-Bag 20 .

As the above-described FIGS. 8a, 8b, 8c, and 8d are repeatedly performed, the Ambu-Bag (20) continues to be pressurized and depressurized. As described above, the lung area is relatively small compared to adults, so the respiratory rate is In the case of small children and the elderly, the pressing force of the pressing operation part 46 of the Ambu-Bag 20 is small, whereas in the case of an adult with a large lung area, the breathing volume is large, so it is relatively suitable for children and the elderly. In comparison, the bag pressing motor 36 rotates according to a preset rotation speed with a large pressing force of the pressing operation unit 46 of the Ambu-Bag 20 .

In addition, the control panel 22 is further configured with a respiration frequency manipulation button 26d capable of manually manipulating the respiration frequency, and a basic memory preset by selection of the target setting buttons 26a, 26b, 26c Although the respiration cycle of the set value is automatically operated, if additional manipulation is required according to the condition of the patient, the rotation speed of the bag press motor 36 can be adjusted through the respiration frequency manipulation button 26d, and as a result, the arm bu bag (20) may be controlled to operate faster or may be controlled to operate slower than the default.

In addition, the lower case 8 has an LCD 27 that displays the operation state of the control panel 22 on its side so that the operator can quickly recognize the breathing operation information applied to the patient. Even if the operator makes a mistake in operating the button on the control panel 22, the button operation error is not recognized by checking the patient's condition, but the operator can directly check the operation information through the LCD 27, so the button can be operated accurately You can check in real time what you have done.

On the other hand, the mask 58 worn by the patient is configured with a separate exhalation shutoff valve 59 to separate the path of exhalation into a path different from that of inhalation so as to prevent the patient from breathing carbon dioxide, and the exhalation is resumed. A check valve is operated to prevent it from entering the inhalation path.

In addition, the patient can breathe the filtered optimal air through the bacterial filter 57 configured to the mask connector 55 to block the inflow of bacteria or bacteria during the patient's inhalation breathing.

In addition, as shown in FIG. 5 , the arm bag 20 is further provided with an auxiliary pressurizing bag 25 that can be manually pressurized by an operator to inject air into the arm bag 20 , the battery Even when the power is completely exhausted, it is possible to provide a constant pneumatic pressure to the arm bubag 20 .

On the other hand, the automatic emergency survival breathing apparatus according to an embodiment of the present invention is not limited to the above-described embodiment, but various changes are possible within the scope not departing from the technical gist thereof.

4: upper case, 8: lower case,
12: incision, 20: Ambu-Bag,
22: control panel, 24: power button,
26a, 26b, 26c: Target setting button, 27: LCD,
36: back pressure motor, 40: memory unit,
42: control unit, 44: armbubag seating groove,
46: pressure operation unit, 57: bacterial filter,
58: mask, 59: exhalation shutoff valve,
60: crank.

Claims (8)

an upper case 4 having an upper case accommodating part 50 therein;
a lower case 8 provided with a lower case accommodating part 48 therein, a pressure operation part 46 and an arm bu bag seating groove 44 for seating the arm bu bag (Ambu-Bag: 20);
a pressure operation unit 46 mounted inside the lower case 8 to automatically press the arm bag (Ambu-Bag: 20) accommodated in the arm bag seating groove 44;
a control panel 22 which is inclinedly mounted in a groove formed on one side of the lower case 8 and allows the user to select and operate a condition corresponding to a target patient;
A manual ventilator set 100 accommodated in the upper case receiving unit 50 or the lower case receiving unit 48, and comprising an Ambu-Bag 20, a hose 52, and a mask 58. composed;
In the lower case 8, cutouts 12 are formed on the front and rear surfaces of the wall where the arm bu bag seating groove 44 is formed, so that a part of the arm bu bag (Ambu-Bag: 20) is exposed to the outside and its operating state Emergency survival respiration automation device, characterized in that the operator can check with the naked eye. The method of claim 1,
The automatic emergency survival breathing apparatus, characterized in that the battery 54 and the adapter 56 are further accommodated in the lower case receiving portion 48. The method of claim 1,
The mask 58 is an emergency survival respiration automation device, characterized in that a separate exhalation shutoff valve 59 is configured in the mask connector 55 connected to the hose 52 to prevent the patient from breathing carbon dioxide. The method of claim 1,
The control panel 22 includes a power button 24;
Target setting buttons (26a, 26b, 26c) for selecting when the target patient is a child, an elderly person, or an adult;
a respiration rate operation button 26d capable of manually manipulating respiration rates;
first, second, and third LEDs (28a, 28b, 28c) selectively lit to visually indicate the selection state of the target setting button (26a, 26b, 26c);
a memory unit 40 for storing motor rotational speed data mapped to a respiration amount and a respiration cycle according to the target setting buttons (26a, 26b, 26c);
Emergency survival respiration automation, characterized in that it has a control unit 42 for controlling the operation of the pressurization operation unit 46 according to the setting of the target setting button (26a, 26b, 26c) and the respiration frequency operation button (26d) Device. The method of claim 1,
An arm part that is mounted on a predetermined part of the arm part bag seating groove 44 and irradiates light so that the operating state of the arm part bag (Ambu-Bag: 20) can be visually checked when the pressure operation part 46 is operated at night. Emergency survival respiration automation device, characterized in that the back LED (32) is further configured. The method of claim 1,
The pressing operation unit 46 is operated by a DC power supply, and the bag pressing motor 36 for generating a rotational force for pressing the Ambu-Bag (20);
a rotating plate 39 mounted on a motor shaft 36a of the back press motor 36 and rotated, and an eccentric shaft 39a protruding from the front thereof;
and a crank unit 60 that receives the rotational force of the bag pressing motor 36 and presses the Ambu-Bag 20;
The crank part 60 has one end coupled to the eccentric shaft 39a to rotate, and the other end of the crankshaft 62 coupled to the connecting rod 66;
Emergency survival, characterized in that one end is coupled to the crankshaft 62, and the other end is composed of a connecting rod 66 coupled to a press head 70 for pressing the Ambu-Bag (20). breathing automation. The method of claim 1,
The mask 58 is further provided with a bacterial filter 57 for blocking the inflow of bacteria or bacteria during the patient's inhalation breathing in the mask connector 55 connected to the hose 52;
The automatic emergency survival respiration apparatus, characterized in that the armbubag (20) further includes an auxiliary pressurizing bag (25) that can be manually pressurized by an operator to inject air into the armbubag (20). The method of claim 1,
The lower case 8 has an LCD 27 that displays the operation state of the control panel 22 on its side so that the operator can quickly recognize the breathing operation information applied to the patient. Survival breathing automation.

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