TWM514660U - Emergency kit equipped with air battery - Google Patents

Description

Emergency rescue device equipped with air battery

An emergency rescue device, in particular, an emergency rescue device equipped with an air battery.

Emergency rescue devices provide the necessary treatment in an emergency. Most of them are equipped with various kinds of first-aid supplies such as physiological saline, syrup, and bandages that can treat wounds. In addition to the various medical supplies for the first-aid treatment of wounds in the above-mentioned wounds, there are also emergency lighting devices such as flashlights.

All of the above lighting devices need to be powered to emit light. Generally, in order to facilitate the use, the power source is provided by an electrochemical battery. At present, the types of electrochemical cells that are widely used are lithium ion batteries and nickel-hydrogen batteries, and recently, polymer lithium batteries with higher efficiency have been developed.

The above electrochemical cell utilizes the redox principle of chemical reaction to generate electrical energy, and the structure generally comprises a cathode electrode (positive electrode), an anode electrode (negative electrode), and an aqueous electrolyte solution. The cathode electrode and the anode electrode are usually separated by a separate layer. At this time, ions formed by the conversion of the cathode electrode are transferred to the anode electrode via the aqueous electrolyte solution. When the battery is discharged, the cathode electrode is reduced and the anode electrode is oxidized, and then water and electrons are released to supply electric energy. During discharge of the battery, the cathode electrode continuously releases oxygen, while the anode electrode Constantly oxidized. Since the conventional disposable electrochemical cell is a closed airtight system, the life of the electrochemical cell is terminated when the cathode electrode gradually releases all available oxygen or the anode electrode is completely oxidized. And based on its reaction mechanism, even if it is not used, its reaction still occurs; therefore, after being placed for a long time, its power is often lost due to continuous discharge. Although there have been studies to improve the active materials contained in the electrochemical cells, it is hoped that the life of the battery can be prolonged without increasing the volume. However, such closed airtight systems have always been limited by the inability to replenish active materials from the outside, and thus cannot greatly improve performance. If this electrochemical cell is applied to an emergency rescue device, there is a risk that there will be no electricity available in an emergency.

Therefore, there is an urgent need to develop a power supply device that can replace the above-mentioned disposable electrochemical battery in order to meet the urgent need for electric power in emergency rescue.

In order to solve the above problem, the power is extremely vulnerable in emergency rescue. The present invention provides an emergency rescue device equipped with an air battery. By using a salt solution that can be obtained anywhere (such as the physiological saline or sea water, river water, etc. originally provided in the emergency rescue device) and the outside air, the air battery can react to provide sustainable power. The air battery is configured to the lighting device to provide emergency lighting, and the lighting device can be further provided with a USB interface to supply power to an external device or provide emergency charging.

To achieve the above object, the present invention provides an emergency rescue device equipped with an air battery, comprising a lighting device, a container and a voltage converting device. The illumination device is illuminated by the air battery and includes a fill slot. The container is pre-filled with one of several volumes of saline solution. When used, will The brine solution in the vessel is filled in the filling tank to cause the brine solution to react with the air battery to generate electricity. The voltage conversion device is disposed in the illumination device and electrically connected to the air battery to provide at least one output voltage.

The above saline solution may be a physiological saline solution, or may be taken from a seawater, a stream, a lake water, a pond water, a ditch water or a bottle of water. The physiological saline concentration can be from 0.9% to 10%.

The emergency rescue device may further include a bag body. The bag body can be used for illuminating devices and containers, and can be made of plastic material and can be reused. The bag body is evacuated to preserve the brine solution in the container for a long time. The lighting device can be housed in the bag to provide illumination in the water. The bag body is waterproof and can be provided.

The emergency rescue device may further comprise a filtering device for filtering the brine solution completed by the reaction with the air battery. The brine solution can be recirculated to react with the air battery after filtration, or it can produce a reclaimed water for emergency drinking. A lighting module can be mounted on the lighting device, and the radio module includes a speaker disposed on the lighting device. The emergency rescue device may further comprise a satellite positioning module (GPS) or a tracking module electrically connected to the voltage conversion device. The voltage conversion device provides an output voltage outwardly via a USB interface disposed on the illumination device.

In the above emergency rescue device, the illuminating device comprises an insulating casing, a partition is formed in the insulating casing, the filling groove is disposed in the insulating casing with respect to the spacing portion, and a plurality of vent holes are arranged on the insulating casing, and the vent holes are obliquely penetrated And formed in parallel.

The air battery includes an anode electrode member and a cathode electrode member. The anode electrode member includes a central support portion and a peripheral conductive portion that is adhered to one of the central support portions. The anode electrode member is disposed in the filling groove and partially exposed The spacer is for conduction. The cathode electrode member is disposed in the filling groove and adjacent to the positions of the vent holes. The central support portion and the peripheral conductive portion may be bonded by an electric welding method, a spot welding method, a casting method, a dip plating method, a spray coating method, an ultrasonic welding method, or a rolling composite method. The central support portion and the peripheral conductive portion may further comprise an adhesive layer, and the adhesive layer is bonded to the central support portion and the peripheral conductive portion. The adhesive layer can be a glue layer, a magnetic adsorption layer, an organic film layer or a nano-adsorption layer.

In the above air battery, a permeable membrane layer may be further included, which is coated outside the anode electrode member. The center support portion may be made of iron or cobalt, and the outer conductive portion may be made of magnesium. The cathode electrode member may include a first pole piece, a second pole piece and a conductive portion. The first pole piece is placed relatively close to the insulative housing and is breathable but impervious to water. The second pole piece is disposed relatively close to the permeable membrane layer. The conductive portion is disposed between the first pole piece and the second pole piece. The conductive portion is electrically connected to the first pole piece and the second pole piece.

The emergency rescue device may further include a light emitting module assembled with the spacer. The illumination module can use an inorganic LED light source or an organic LED light source. The lighting module comprises a circuit board electrically connected to the voltage conversion device, and the circuit board is configured with a boosting IC to provide an output voltage of 5V.

In the above lighting device, the spacer is provided with a female screw cap made of stainless steel, and one end of the central support portion can be screwed to the female screw cap. The anode electrode member is electrically connected to one of the negative electrodes of the light-emitting module through the female screw cap, and the cathode electrode member is electrically connected to one of the positive electrodes of the light-emitting module through a copper plate. The anode electrode member is electrically connected to the female screw cap and the negative electrode of the light emitting module through an elastic member.

100‧‧‧Air battery

110‧‧‧Anode electrode parts

111‧‧‧Center Support

111a‧‧‧ surface

111b‧‧ thread

112‧‧‧External Conductive Department

112a‧‧‧Oxidation Department

120‧‧‧permeable membrane

130‧‧‧Cathode electrode parts

131‧‧‧First depolarizer

132‧‧‧Electrical Department

133‧‧‧Second pole piece

140‧‧‧ Ontology

141‧‧‧Insulated casing

142‧‧‧ accommodating space

143‧‧‧vents

150‧‧‧Removable tank

151‧‧‧Aqueous electrolyte solution

300‧‧‧Lighting device

400‧‧‧Emergency rescue device

410‧‧‧Lighting device

411‧‧‧Insulated housing

4111‧‧‧Flexible parts

4112‧‧‧ copper sheet

413‧‧‧Interval

414‧‧‧fill slot

415‧‧‧ vents

416‧‧‧Voltage conversion device

417‧‧‧Lighting Module

418‧‧‧Female screw cap

418a‧‧‧ internal thread

419‧‧‧Circuit board

420‧‧‧ container

421‧‧‧Saline solution

430‧‧‧ bag body

440‧‧‧Filter device

152‧‧‧ openings

200‧‧‧Lighting module

500‧‧‧Satellite Positioning Module

600‧‧‧USB interface

610‧‧‧ caps

FIG. 1 is a schematic diagram of an emergency rescue device according to an embodiment of the present invention.

FIG. 2 is a schematic exploded view of one of the illumination devices disposed in the emergency rescue device of FIG. 1.

Figure 3 is a cross-sectional view of the lighting device according to Figure 2.

FIG. 4 is a schematic view showing another embodiment of the lighting device according to FIG. 2.

FIG. 5 is a schematic structural view of an anode electrode member of an air battery used in a lighting device according to another embodiment of the present invention.

Fig. 6 is a view showing another shape of the anode electrode member according to Fig. 5.

Fig. 7 is a view showing another embodiment of the structure of the anode electrode member according to Fig. 5.

Fig. 8 is a view showing the state of use of the anode electrode member according to Fig. 5.

FIG. 9 is a schematic exploded view of the air battery structure according to another embodiment of the present invention.

Figure 10 is a cross-sectional view showing the combination of the air batteries according to Figure 9.

Figure 11 is a schematic exploded view showing an illumination device of an air battery of Figure 9.

Figure 12 is a schematic view showing the combination of the lighting device according to Figure 11.

The embodiments of the present invention are disclosed in the following drawings, and for the sake of clarity, the details of the invention will be described in the following description. However, it should be understood that these practical details are not intended to limit the novel. That is to say, in some embodiments of the present invention, these practical details are not necessary. In addition, some of the conventional structures and elements are shown in the drawings in a simplified schematic manner in order to simplify the drawings.

The air battery used in the emergency rescue device of the present invention operates in a similar manner to a general electrochemical battery, and generates electricity by using a redox reaction. However, the air battery is generally provided with a vent hole for the outside air to pass through the cathode electrode, and then the oxygen in the air is used to generate a conversion reaction at the cathode electrode to generate hydrogen hydroxide ions, and the hydroxide ions generate an oxidation reaction at the anode electrode (sacrificial anode). Water and electrons are generated during the reaction to provide electrical energy. Because air batteries use inexhaustible air as a source of reaction, they can significantly extend battery life and have a fairly high energy-to-volume ratio. If it can be combined with an emergency rescue device, it will greatly expand the range of applications of emergency rescue devices.

Please refer to Figures 1 to 4 together. FIG. 1 is a schematic diagram of an emergency rescue device 400 according to an embodiment of the present invention. FIG. 2 is a schematic exploded view of one of the illumination devices 410 disposed in the emergency rescue device 400 of FIG. 1 . FIG. 3 is a cross-sectional view of the illumination device 410 according to FIG. 2. FIG. 4 is a schematic view showing another embodiment of the lighting device 410 according to FIG. 2 .

The emergency rescue device 400 basically includes a lighting device 410, a container 420, and a bag body 430.

The illumination device 410 is illuminated by an air battery 100 and includes a fill slot 414.

The container 420 is prefilled with a salt solution 421 of a number of volumes. At the time of use, the brine solution 421 in the vessel 420 is filled in the filling tank 414, and the brine solution 421 is sealed in the filling tank 414 with a cap 610 to cause the brine solution 421 to react with the air battery 100 to generate electricity.

The illuminating device 410 is provided with a voltage converting device 416, and the voltage converting device 416 is electrically connected to the air battery 100 to provide at least one output voltage.

In a preferred embodiment, the saline solution 421 is a physiological saline solution having a concentration of 0.9% to 10%. In the present embodiment, the physiological saline is medical grade saline, and in addition to providing a wound for cleaning and disinfecting, it can also provide reaction with the air battery 100 to generate electricity. In the remaining cases, if a normal emergency condition is encountered and physiological saline cannot be obtained, the saline solution 421 can also be taken from a seawater, a stream, a lake, a pond water, a ditch water or a bottle of water. . Thereby, the utility of the ready-to-use effect can be achieved, so that the air battery 100 of the embodiment can provide continuous power, and solve the problem that the power of the general disposable battery disappears due to being placed for too long.

The bag body 430 can be used for arranging the lighting device 410 and the container 420. The bag body 430 can be made of plastic material and can be reused. The bag body 430 is evacuated to preserve the salt solution 421 in the container 420 for a long time.

In one example, the illumination device 410 can also be housed within the bag 430 for illumination on water or water. At this time, the bag body 430 has air therein for the reaction of the air battery 100. Moreover, the bag body 430 can float on the water surface or dive in the water, and also provides a waterproof effect.

The above-mentioned emergency rescue device 400 may further include a filtering device 440 for filtering the salt water solution 421 which is completed by reacting with the air battery 100. The brine solution 421 can be recycled to be reacted with the air battery 100 after filtration, or can produce a reclaimed water for emergency drinking. An embodiment of the filter device 440 described above may use a filter paper. Thereby, after the reaction of the brine solution 421 is completed, the filter paper can be filtered through the filter paper and the filtered brine solution can be recycled.

By configuring the lighting device 410 using the air battery 100, the emergency rescue device 400 of the present invention can greatly expand the application range to obtain more complete functions. For example, a radio module can be mounted on the illumination device 410. In the group (not shown), the radio module includes a speaker disposed on the illumination device 410, and can receive various rescue messages and play to the user of the emergency rescue device 400.

Please refer to FIG. 4 for another possible embodiment. The voltage conversion device 416 provides an output voltage outwardly via a USB interface 600 disposed on the illumination device 410. At this time, a satellite positioning module (GPS) 500 or a tracking module can be electrically connected to the USB interface to obtain the required power, so that the emergency rescue device user can be tracked and positioned.

Various applications of the emergency rescue device 400 of the present invention have been disclosed above. Next, the structure in which the illuminating device 410 and the air battery 100 are combined with each other will be disclosed. Please refer to FIGS. 2 and 3 for continued reference.

The illumination device 410 includes an insulative housing 411 that is formed in the insulative housing 411 and defines a spacer portion 413. The filling groove 414 is disposed in the insulating case 411 in close proximity to the partition portion 413, and a plurality of vent holes 415 are disposed in the insulating case 411. The vents 415 may be formed obliquely through and arranged in parallel (eg, a louver pane) to protect the air battery 100 from external forces.

The air battery 100 includes an anode electrode member 110 and a cathode electrode member 130. The anode electrode member 110 includes a central support portion 111 and a peripheral conductive portion 112 bonded to one of the central support portions 111. The anode electrode member 110 is disposed in the filling groove 414 and partially exposed to the partition portion 413 for conducting electricity. The cathode electrode member 130 is disposed in the filling groove 414 at a position close to the vent hole 415. In one example, the center support portion 111 may be made of iron or cobalt, and the outer conductive portion 112 may be made of magnesium. The central support portion 111 and the peripheral conductive portion 112 may be bonded by an electric welding method, a spot welding method, a casting method, a dip plating method, a spray coating method, an ultrasonic welding method, or a rolling composite method. In one example, the center support portion 111 is made of a stainless steel core, so that the salt solution 421 can be prevented from being rusted, and the extraction is difficult. The periphery of the cathode electrode member 130 may be further covered with a plastic isolation layer to enhance the reaction efficiency of the cathode electrode member 130.

The illumination device 410 is configured with a light emitting module 417 to provide a light source. The light-emitting module 417 is assembled by fitting the spacer 413. The illumination module 417 can use an inorganic LED light source or an organic LED light source.

The spacer 413 is provided with a female screw cap 418 made of stainless steel, and one end of the central support portion 111 can be screwed to the female screw cap 418. More specifically, the female screw cap 418 is provided with an internal thread 418a, and the central support portion 111 is provided with a thread 111b at one end. Accordingly, the center support portion 111 can be screwed to the female screw cap 418 in a rotatable manner. It is advantageous to replace the new product after the reaction of the anode electrode member 110 of the air battery 100 is completed.

The light emitting module 417 also includes a circuit board 419. The circuit board 419 is electrically connected to the voltage conversion device 416, and the circuit board is configured with a boost IC to make the output voltage of the voltage conversion device 416 up to 5V, which can supply power to a higher voltage external device or provide charging.

A plurality of organic LEDs or inorganic LEDs are mounted on the circuit board 419 for use as a light source. At the same time, the power provided by the air battery 100 is received by the circuit board 419. The connection mode is as follows: the anode electrode member 110 of the air battery 100 is electrically connected to one of the negative electrodes of the light-emitting module 417 through the female screw cap 418, and the cathode electrode member 130 is electrically connected to the positive electrode of the light-emitting module 417 through a copper plate 4112. . More specifically, the anode electrode member is electrically connected to the negative electrode of the female screw cap 418 and the light emitting module 417 through an elastic member 4111. The positive and negative electrodes of the light-emitting module 417 are formed through the contacts on the circuit board 419; and the contacts on the circuit board correspond to the organic LED or the inorganic LED light source. The elastic member 4111 can use a spring or a spring piece or the like. There are no special restrictions.

The above disclosed disclosure is applied to the assembled structure of the lighting device 410 and the air battery 100 in the emergency rescue device 400. However, the air battery 100 of the present invention can extend its application range. In the following, an additional application mode of the air battery 100 of the present invention will be described by way of example, so that the effect can be more effectively achieved in an emergency.

FIG. 5 is a schematic structural view of an anode electrode member 110 of an air battery 100 used in accordance with another embodiment of the present invention. The anode electrode member 110 includes a central support portion 111 and a peripheral conductive portion 112. The peripheral conductive portion 112 is adhered and coated on one surface 111a of the central support portion 111. The peripheral conductive portion 112 serves as an anodizing reaction for the air battery, and may be made of aluminum, magnesium, zinc, iron, cobalt or an alloy of the foregoing elements. The central support portion 111 provides support for fixing the peripheral conductive portion 112 during the oxidation reaction, and the material thereof may be metal or non-metal. In an embodiment, when the central support portion 111 is made of a metal material, the adhesion to the peripheral conductive portion 112 may be, for example, electric welding, spot welding, casting, immersion plating, spray coating, rolling and rolling, or the like.

FIG. 6 is a schematic view showing another shape of the anode electrode member 110 according to FIG. 5. In the present invention, the shape of the anode electrode member 110 is not particularly limited, and may be a cylindrical shape or a solid cylindrical shape. In Fig. 2, the central support portion 111 and the peripheral conductive portion 112 of the anode electrode member 110 are each in the shape of a rectangular column.

FIG. 7 is a schematic view showing another embodiment of the structure of the anode electrode member 110 according to FIG. 5. In Fig. 7, an adhesive layer 113 is provided between the central support portion 111 of the anode electrode member 110 and the peripheral conductive portion 112. The adhesive layer 113 can be a glue layer, a magnetic adsorption layer, an organic film layer or a nano-adsorption layer, the purpose of which is to fasten the peripheral conductive portion 112 during the oxidation reaction. The surface 111a of the central support portion 111 is fitted to prevent the peripheral conductive portion 112 from being peeled off due to the gradual oxidation reaction.

FIG. 8 is a schematic view showing another application state of the anode electrode member 110 according to FIG. 5. The anode electrode member 110 of the present invention is used as a sacrificial anode in an air battery. The conventional sacrificial anode means that the metal used for the sacrificial anode (aluminum, magnesium, zinc, iron, cobalt or an alloy of the foregoing elements, etc.) is continuously oxidized during the discharge of an air battery, resulting in the constant use of the sacrificial anode. Metal oxides are generated and consumed. In the conventional air battery, the entire sacrificial anode is a single integrally formed metal member. As the air battery is used for a longer period of time, the sacrificial anode will be continuously oxidized. During the oxidation process, the metal properties of the sacrificial anode form a metal oxide, which causes a change in material properties, which in turn causes the sacrificial anode to form cracks. This peeling phenomenon will affect the operation of the entire air battery and reduce the life of the air battery.

Accordingly, one of the features of the present invention is that the conventionally formed sacrificial anode (i.e., the anode electrode member 110 of the present invention) is divided into two parts, a central support portion 111 and a peripheral conductive portion 112. Moreover, the center support portion 111 and the peripheral conductive portion 112 are made of different materials. The peripheral conductive portion 112 mainly functions to participate in an electrochemical reaction, and therefore the material thereof may be a material that can react with an aqueous electrolyte solution such as aluminum, magnesium, zinc, iron, or an alloy of the foregoing elements. The central support portion 111 mainly functions to support the fixed peripheral conductive portion 112 to prevent the peripheral conductive portion 112 from being peeled off due to continuous oxidation.

Furthermore, in the foregoing embodiment (please refer to FIGS. 5 and 7), at least two methods of bonding the central support portion 111 and the peripheral conductive portion 112 are disclosed. In Fig. 5, the central support portion 111 and the peripheral conductive portion 112 are formed by electric welding, spot welding, casting, dip plating, spray coating, rolling composite or ultrasonic welding. In the seventh embodiment, an adhesive layer 113 is added between the central support portion 111 and the peripheral conductive portion 112 for bonding the central support portion 111 and the peripheral conductive portion 112; the adhesive layer 113 can be a glue layer. a magnetic adsorption layer, an organic film layer or a nano-adsorption layer. In the first aspect, the peripheral conductive portion 112 is oxidized even when the use time is increased by the bonding force between the different materials of the central support portion 111 and the peripheral conductive portion 112. However, the support by the bonding force is fixed. Slows cracking after oxidation and prevents flaking. In the second aspect described above, the peripheral conductive portion 112 can be closely adhered to the central support portion 111 by the adhesion of the adhesive layer 113, so that the peripheral conductive portion 112 is oxidized and cracked without being peeled off. Therefore, in the above two modes, in the eighth drawing, even if the peripheral conductive portion 112 has partially reacted to form the oxidized portion 112a and cracks are generated, the oxidized portion 112a can still closely adhere to the central support portion 111 without being peeled off. When the second method is used, since the adhesion of the adhesive layer 113 is utilized, the material of the center support portion 111 can be changed more. For example, a non-metal material such as an insulator can be used.

Please refer to FIG. 9 and FIG. 10 . FIG. 9 is a schematic exploded view of the air battery 100 according to another embodiment of the present invention. Figure 10 is a cross-sectional view showing the combination of the air battery 100 according to Figure 9. The air battery 100 in this embodiment has a similar structure but is not completely identical to the air battery 100 used in the emergency rescue device 400 in the foregoing embodiment. Because it is used in different situations.

The air battery 100 includes a body 140, an anode electrode member 110, a permeable membrane layer 120, a cathode electrode member 130, and a detachable tank body 150.

The body 140 includes an insulating housing 141 , an accommodating space 142 , and a plurality of vent holes 143 . The accommodating space 142 is formed in the insulating housing 141, and A plurality of vent holes 143 are formed in the insulating case 141.

The anode electrode member 110 includes a central support portion 111 and a peripheral conductive portion 112. The peripheral conductive portion 112 is adhered and coated on one surface 111a of the central support portion 111. The anode electrode member 110 is disposed in the accommodating space 142 and partially exposed outside the body 140 for conducting electricity.

The permeable membrane layer 120 is coated on the outside of the anode electrode member 110 and partially exposed to the body 140. The permeable membrane layer 120 is made of a liquid absorbing material, and the liquid type is not limited to water.

The cathode electrode member 130 is disposed outside the permeable membrane layer 120, and the cathode electrode member 130 is disposed at a position relative to the vent hole 143 in the accommodating space 142. The cathode electrode member 130 includes a first pole piece 131, a conductive portion 132, and a second pole piece 133. The first pole piece 131 has a gas permeable but watertight property. The conductive portion 132 is disposed between the first and second pole pieces 131 and 133 and electrically connected to the first and second pole pieces 131 and 133 for electrical conduction.

The detachable tank 150 is filled with an aqueous electrolyte solution 151 having an opening 152 for the anode electrode member 110 exposed to the body 140 and the permeable membrane layer 120 to be placed therein and in contact with the aqueous electrolyte solution 151.

In the operation of the air battery 100, first, the electrolyte aqueous solution 151 contained in the detachable tank 150 is adsorbed and filled between the anode electrode member 110 and the cathode electrode member 130 by the absorption of the permeable membrane layer 120. The aqueous electrolyte solution 151 may be potassium hydroxide (KOH) or physiological saline. At this time, after the outside air enters through the vent hole 143, the oxygen in the air forms hydroxide ions, and contacts the anode electrode member 110 through the transport of the electrolyte aqueous solution 151, causing the peripheral conductive portion 112 of the anode electrode member 110 to undergo an oxidation reaction. Original cathode The air oxygen in the vicinity of the electrode member 130 produces a reduction reaction. Electrons are generated during the oxidation-reduction reaction to generate electrical energy.

Referring to FIG. 11 and FIG. 12, FIG. 11 is a schematic exploded view of an illumination device 300 of an air battery 100 to which the present invention is applied. FIG. 12 is a schematic diagram showing the combination of the illumination device 300 according to FIG. The illumination device 300 includes a light emitting module 200 and an air battery 100. The light emitting module 300 can be an organic light emitting diode module or an inorganic light emitting diode module. The light emitting module 200 is electrically connected to the air battery 100. The connecting method is electrically connected to the cathode electrode member 130 and the anode electrode member 110 of the air battery 100 by positive and negative electrodes (not shown) of the light emitting module 200, and the cathode electrode member is electrically connected. 130 has a protruding conductive portion 132 for conducting electricity. The permeable membrane layer 120 and the anode electrode member 110 are placed in an opening 152 of the detachable tank 150 and contact the aqueous electrolyte solution 151 to complete the desired electrochemical reaction; the insulating casing 140 can be designed as a cylindrical or other solid. The column is fitted to the opening 152 in cooperation. It is worth mentioning that the present invention does not use a conventional method of storing the aqueous electrolyte solution 151 in a closed tank, but using a detachable tank 150. Thus, when the electrolyte aqueous solution 151 is exhausted, the detachable tank body 150 can be removed and refilled. Moreover, the detachable tank body 150 can be selected, for example, as a common treasure bottle, so that the use effect can be achieved.

In summary, the present invention provides an emergency rescue device 400 equipped with an air battery 100. By utilizing the characteristics of the air battery 100, the demand for emergency power can be provided at any time, and the problem that the power of the disposable electrochemical battery disappears due to being placed for a long time is solved. Furthermore, the air battery 100 can be further assembled to the lighting device 410, and the lighting device 410 can provide power to the external device to expand the application range of the emergency rescue device 400.

Although the present invention has been disclosed in the above embodiments, it is not intended to limit the present invention, and the present invention can be modified and retouched without departing from the spirit and scope of the present invention. The scope is subject to the definition of the scope of the patent application attached.

400‧‧‧Emergency rescue device

410‧‧‧Lighting device

420‧‧‧ container

421‧‧‧Saline solution

430‧‧‧ bag body

440‧‧‧Filter device

Claims (24)

An emergency rescue device comprising: an air battery; an illumination device that is illuminated by the air battery, the illumination device further comprising a filling tank; a container pre-filled with a saline solution of a plurality of volumes, wherein In use, the brine solution in the container is filled in the filling tank to react the brine solution with the air battery to generate electricity; and a voltage conversion device is disposed in the lighting device and electrically connected to the The air battery provides at least one output voltage. The emergency rescue device according to claim 1, wherein the saline solution is a physiological saline solution, and the physiological saline solution has a concentration of 0.9% to 10%. The emergency rescue device of claim 1, wherein the saline solution is taken from a seawater, a stream, a lake, a pond water, a ditch water or a bottle of water. The emergency rescue device of claim 1, further comprising a bag body for vacuuming the illumination device and the container, wherein the bag body is made of plastic material and can be reused. The emergency rescue device of claim 4, wherein the lighting device is housed in the bag for providing illumination in the water, and the bag is waterproof. The emergency rescue device of claim 1, further comprising a filtering device for filtering the brine solution completed by the reaction with the air battery, the brine solution being recirculated and reacting with the air battery or generating a Reclaimed water for emergency drinking. The emergency rescue device of claim 1, wherein the lighting device is provided with a radio module, and the radio module comprises a speaker disposed on the lighting device. The emergency rescue device of claim 1, further comprising: a satellite positioning module (GPS) or a tracking module electrically connected to the voltage conversion device. The emergency rescue device of claim 1, wherein the voltage conversion device provides the output voltage outward by a USB interface disposed on the illumination device. The emergency rescue device of claim 1, wherein the illumination device comprises an insulative housing, wherein a spacer is formed in the insulative housing, the filling slot is disposed in the insulative housing relative to the spacer, and is disposed on the insulative housing There are a plurality of vent holes which are formed by obliquely penetrating and parallel arrangement. The emergency rescue device of claim 10, wherein the air battery comprises: an anode electrode member comprising a central support portion and a peripheral conductive portion adhered to the central support portion, wherein the anode electrode member is disposed Filling the trench and partially exposed to the spacer for conduction; and a cathode electrode member disposed in the filling groove and adjacent to the positions of the vent holes. The emergency rescue device of claim 11, wherein the air battery further comprises a permeable membrane layer covering the anode electrode member. The emergency rescue device of claim 11, wherein the central support portion is made of iron or cobalt. The emergency rescue device of claim 11, wherein the peripheral conductive portion is made of magnesium. The emergency rescue device of claim 12, wherein the cathode electrode member comprises: a first pole piece disposed opposite to the insulative housing, which is permeable but impervious to water; and a second pole piece disposed on The conductive layer is electrically connected to the first and second pole pieces. The conductive portion is electrically connected to the first and second pole pieces. The conductive portion is electrically connected to the first and second pole pieces. . The emergency rescue device of claim 11, wherein the illumination device further comprises a light emitting module, and the light emitting module is assembled with the spacer. The emergency rescue device of claim 16, wherein the lighting module is used An inorganic LED light source or an organic LED light source. The emergency rescue device of claim 16, wherein the spacer is provided with a female screw cap made of stainless steel, and one end of the central support portion can be screwed to the female screw cap. The emergency rescue device of claim 17, wherein the lighting module comprises a circuit board electrically connected to the voltage converting device, and the circuit board is configured with a boosting IC to provide the output voltage of 5V. The emergency rescue device of claim 18, wherein the anode electrode member is electrically connected to one of the negative electrodes of the light-emitting module through the female screw cap, and the cathode electrode member is electrically connected to the positive electrode of the light-emitting module through a copper plate. . The emergency rescue device of claim 20, wherein the anode electrode member is electrically connected to the female screw cap and the negative electrode of the light emitting module through an elastic member. The emergency rescue device of claim 11, wherein the central support portion and the peripheral conductive portion are bonded by electric welding, spot welding, casting, immersion plating, spray coating, ultrasonic welding or rolling composite . The emergency rescue device of claim 11, wherein the central support portion and the peripheral conductive portion further comprise an adhesive layer, and the adhesive layer is adhered to the central support portion and the peripheral conductive portion. The emergency rescue device of claim 11, wherein the adhesive layer is a glue layer, a magnetic adsorption layer, an organic film layer or a nano-adsorption layer.