JP3197304U - Risk management device - Google Patents

Abstract

A risk management apparatus capable of performing risk management over a long period of time is provided. A risk management device that exposes a danger, and maintains a separated state of an electrode part, an electrolyte solution, and an electrode part and the electrolyte solution under normal conditions, and performs electrolysis when a predetermined event occurs. And an electrolytic solution charging unit 16 that enables charging of the liquid into the electrode unit. By using the chemical reaction (oxidation / reduction reaction) of this battery, the danger is revealed and notified to the surroundings via the transmitter 18. [Selection] Figure 1

Description

  The present invention relates to a risk management device for revealing danger.

  Every day, great damage is caused by events such as natural disasters and man-made disasters such as major earthquakes and abnormal weather. It is preferable to avoid such damage, but in reality, it is almost impossible to detect and manage all dangers in advance.

  If some danger occurs chronically and there is a possibility that damage will occur as a result of a predetermined event, a risk management device is required to make the chronic danger manifest.

JP 2011-142047 A

  However, many danger management devices require a power source, and when the power source is a battery, its life is always a problem. In addition, a power source obtained from a commercial power source also has a circuit life, and regular maintenance is necessary to ensure a stable and normal power source, resulting in maintenance costs. In particular, when many risk management devices are provided, the maintenance cost is enormous.

  Even when regular maintenance is performed, the life of the battery of the danger management device may expire at a timing different from the maintenance timing. At this time, when a large natural disaster or the like occurs, the danger management device does not operate, and it becomes impossible to prevent damage in advance.

  In view of the above problems, an object of the present invention is to provide a risk management device capable of performing risk management over a long period of time.

  The present invention maintains an electrode portion, an electrolytic solution, and the separated state of the electrode portion and the electrolytic solution in a normal state, and allows the electrolytic solution to be introduced into the electrode portion when a predetermined event occurs. A liquid charging unit; and a transmitter that transmits a wireless medium generated based on a current generated as a result of the oxidation / reduction reaction when an oxidation / reduction reaction occurs when the electrolytic solution contacts the electrode unit; A risk management device that exposes danger via the wireless medium, wherein the electrode portion includes a positive electrode portion and a negative electrode portion of a battery, and the transmitting portion includes the positive electrode portion side and the negative electrode portion. A load section electrically connected to the section side, and an output section, and the load section includes a circuit for generating the wireless medium based on a current generated as a result of the oxidation / reduction reaction. The output unit outputs the wireless medium generated by the load unit. Having a circuit for.

  According to the present invention, since the separated state of the electrode part and the electrolytic solution is maintained by the electrolytic solution charging unit in normal times, the wear of the apparatus and parts is small. For this reason, even if the apparatus is installed for a long time, it is possible to prevent the product life from being exhausted. On the other hand, when a predetermined event occurs, the electrolytic solution is introduced into the electrode portion by the electrolytic solution introduction unit. Thereby, it starts as a battery for the first time. By utilizing the chemical reaction (oxidation / reduction reaction) of this battery, it becomes possible to make the danger manifest and inform the surroundings.

  In addition, by adopting a configuration having a transmitter that transmits as a physical means the electrical energy generated by the chemical reaction of the electrode when the electrolyte is charged into the electrode, the electrolyte when the electrolyte is charged into the electrode Electric energy generated by the chemical reaction of the electrode unit is transmitted from the transmitter unit as a physical means. Thereby, danger can be easily alert | reported with respect to the periphery.

  In addition, the electrolytic solution charging unit accommodates the electrolytic solution and has a storage unit that is at least partially destroyed when a predetermined event occurs, so that when the predetermined event occurs, At least a portion is destroyed, the electrolyte leaks out, and can be charged to the electrode part. Thereby, in normal times, the electrolytic solution is confined in the storage portion and contact with the electrode portion can be avoided, and when a predetermined event occurs, the electrolytic solution can come into contact with the electrode portion.

  In addition, the storage unit adopts a configuration including a storage unit main body and a part to be destroyed that is destroyed when a predetermined energy acts when a predetermined event occurs provided in the storage unit main body. When a predetermined event occurs, the to-be-destructed part provided in the storage unit body receives predetermined energy and is destroyed. Thereby, electrolyte solution contacts reliably with respect to an electrode part.

  In addition, a predetermined event occurs by adopting a configuration having a mass part that is provided in the storage unit main body or the to-be-destructed part and destroys at least a part of the storage unit main body or the to-be-destructed part. When this occurs, an inertial force is generated by the mass portion provided in the storage portion main body or the portion to be destroyed. And this inertia force acts on a storage part main body or a to-be-destructed part, and at least one part is destroyed. Thereby, electrolyte solution contacts reliably with respect to an electrode part.

  In addition, by adopting a configuration in which the storage unit body or the part to be destroyed is connected to the structure, at least a part of the storage unit body or the part to be destroyed is received by a force from the structure when a predetermined event occurs. Is destroyed. Thereby, electrolyte solution contacts reliably with respect to an electrode part.

  In addition, a melting part that is provided in the storage unit body or the part to be destroyed and melts when a predetermined event occurs and destroys at least a part of the storage part body or the part to be destroyed is adopted as one form of the thermal destruction part. Thus, when a predetermined event occurs, the melting part melts and at least a part of the storage part main body or the part to be destroyed is destroyed. Thereby, electrolyte solution contacts reliably with respect to an electrode part.

  Further, a thermal deformation part that is provided in the storage unit main body or the part to be destroyed and deforms by heat when a predetermined event occurs and destroys at least a part of the storage part main body or the part to be destroyed is a form of the heat destruction part By using this, when a predetermined event occurs, the thermal deformation portion is deformed by heat, and at least a part of the storage portion main body or the portion to be destroyed is destroyed. Thereby, electrolyte solution contacts reliably with respect to an electrode part.

  In addition, by using a battery of a magnesium alloy and copper, which is a pair of materials constituting the battery, and a metal pair battery in which other electrons move in one direction, the battery can be easily obtained at a low cost and predetermined It is possible to start reliably when the event occurs.

It is a conceptual diagram of the danger management apparatus of one Embodiment of this invention. It corresponds to the 1st example of the danger management device of one embodiment of the present invention, and is a conceptual diagram in the state where the risk is not actualized. It corresponds to the 1st example of the danger management device of one embodiment of the present invention, and is a conceptual diagram in the state where the risk became obvious. It corresponds to the 2nd example of the danger management device of one embodiment of the present invention, and is a conceptual diagram in the state where the risk is not actualized. It corresponds to the 2nd example of the danger management device of one embodiment of the present invention, and is a conceptual diagram in the state where the risk became obvious. It corresponds to the 3rd example of the danger management device of one embodiment of the present invention, and is a conceptual diagram in the state where the risk is not actualized. It corresponds to the 3rd example of the danger management device of one embodiment of the present invention, and is a conceptual diagram in the state where the risk became obvious. It corresponds to 4th Example of the danger management apparatus of one Embodiment of this invention, and is a conceptual diagram in the state in which the risk is not materialized. It corresponds to the 4th example of the danger management device of one embodiment of the present invention, and is a conceptual diagram in the state where the risk became obvious.

  A risk management device and a risk management method according to an embodiment of the present invention will be described with reference to the drawings.

  As shown in FIG. 1, the risk management device 10 according to an embodiment makes a risk manifest by using a chemical reaction (for example, oxidation / reduction reaction) of a battery.

  The risk management device 10 maintains the separated state of the electrode unit 12, the electrolyte solution 14, and the electrode unit 12 and the electrolyte solution 14 at normal times, and causes the electrolyte solution 14 to flow to the electrode unit 12 when a predetermined event occurs. And a transmitter 18 for transmitting electrical energy generated by a chemical reaction (for example, oxidation / reduction reaction) of the electrode 12 as a physical means.

  The electrode unit 12 includes, for example, a positive electrode unit 20, a negative electrode unit 22, and a separator 24 disposed between the positive electrode unit 20 and the negative electrode unit 22.

  The positive electrode part 20 is composed of a positive electrode current collector 26. The positive electrode current collector 26 includes, for example, a positive electrode active material (a material that receives electrons) 26A and a conductive material 26B.

  The negative electrode part 22 includes a negative electrode current collector 28. The negative electrode current collector 28 is composed of, for example, a negative electrode active material (a material that emits electrons) 28A. The negative electrode current collector 28 may include other conductive materials (not shown) in addition to the negative electrode active material (material that emits electrons) 28A.

  The separator 24 is disposed between the positive electrode portion 20 and the negative electrode portion 22 in a state where they are appropriately in contact with each other. The separator 24 serves to prevent a short circuit between the positive electrode portion 20 side and the negative electrode portion 22 side, and to suck up the electrolyte solution 14 and hold the electrolyte solution 14.

  Although it does not specifically limit as the separator 24, For example, a polyethylene fiber, a polypropylene fiber, glass fiber, a resin nonwoven fabric, a glass nonwoven fabric, a filter paper etc. can be used.

  The lead wire 20A connected to the terminal on the positive electrode portion 20 side and the lead wire 22A connected to the terminal on the negative electrode portion 22 side prevent the inflow and outflow of electrons due to the reduction reaction and oxidation reaction that occur in the positive electrode portion 20 and the negative electrode portion 22. This is an area provided for outputting to the transmitter 18 in the form of current.

The electrolytic solution 14 has a role of eluting ions generated on the negative electrode part 22 side and supplying water (H ₂ O) that reacts with oxygen to the positive electrode part 20 side. As the electrolytic solution 14, an acidic, alkaline, or neutral aqueous solution can be used. For example, at least one selected from the group consisting of a sodium chloride aqueous solution, a sodium hydroxide aqueous solution, a sodium hydrogen carbonate aqueous solution, and a sodium percarbonate aqueous solution can be used. Alternatively, an aqueous solution of fluoride, an aqueous solution containing halogen, or the like can be used. Alternatively, an aqueous solution of polyvalent carboxylic acid as disclosed in JP 2010-182435 A can be used. As the electrolytic solution 14, for example, water or salt water can be used.

  The electrolytic solution charging unit 16 maintains the separated state of the electrode unit 12 and the electrolytic solution 14 in a normal state and enables the electrolytic solution 14 to be charged into the electrode unit 12 when a predetermined event occurs. . The electrolytic solution charging unit 16 stores the electrolytic solution 14 and has a storage unit 34 that is at least partially destroyed when a predetermined event occurs. For this reason, in normal times, the electrolyte solution 14 does not contact the electrode portion 12, and each component such as the electrode portion 12 is not consumed. When a predetermined event occurs, at least a part of the storage portion 34 is destroyed and the electrolytic solution 14 stored inside leaks out and contacts the electrode portion 12. The detailed configuration of the electrolytic solution charging unit 16 will be described later.

  Here, “normal” means a time other than when a predetermined event occurs. The “predetermined event” is, for example, a natural disaster such as an earthquake, storm, heavy snow, heavy rain, flood, storm surge, etc., or a predetermined acceleration or the like in the application of external force from a user (human). Means a situation that acts on

  In particular, in a configuration in which the battery is activated by application of external force from the user (human), the risk management device 10 can be operated at a timing convenient for the user.

  The transmitting unit 18 includes a load unit 30 connected to the lead wire 20A on the positive electrode unit 20 side and the lead wire 22A on the negative electrode unit 22 side, and an output unit 32. The load unit 30 receives inflow and outflow of electrons due to the reduction reaction or oxidation reaction occurring in the positive electrode unit 20 or the negative electrode unit 22 in the form of current, and generates physical means based on the current generated by the oxidation / reduction reaction. Circuit. The output unit 32 includes a circuit for outputting the physical means generated by the load unit 30. Thereby, the transmission part 18 can transmit the electrical energy produced by the chemical reaction (for example, oxidation / reduction reaction) of the electrode part 12 as a physical means.

  Note that the load unit 30 and the output unit 32 are not limited to being configured separately, and may be a single circuit, for example.

  The “physical means” means, for example, a medium generated by using an electric current generated by an oxidation / reduction reaction of a battery. For example, the medium is output to the outside using a wireless medium. Here, the wireless medium generally means radio waves, infrared rays, visible light, sound waves, ultrasonic waves, X-rays, etc., and those excluding the sound waves and ultrasonic waves are called electromagnetic waves. Included in physical means.

Here, a battery can be used for the risk management apparatus 10, and a “magnesium battery” can be used as an example of the battery. A “magnesium battery” is, for example, a magnesium-air battery, which uses oxygen in the air as a positive electrode active material (a material that receives electrons) and magnesium as a negative electrode active material (a material that emits electrons). is there. Magnesium in the negative electrode part 22 emits electrons and becomes magnesium ions and is eluted in the electrolytic solution. On the other hand, in the positive electrode part 20, oxygen and water receive electrons and become hydroxide ions. When the battery is viewed as a whole, an electromotive force is generated between the _two electrodes as magnesium hydroxide (Mg (OH) ₂ ) is generated from magnesium, oxygen, and water. By using a so-called magnesium battery as the battery, it can be easily obtained at low cost, and the battery can be reliably activated when a predetermined event occurs.

Each reaction formula in the positive electrode part 20 and the negative electrode part 22 is as follows.
Positive electrode part: O ₂ + 2H ₂ O + 4e ⁻ → 4OH ⁻
Negative electrode portion: 2Mg → 2Mg2 ⁺⁺ 4e ⁻
Entire battery: 2Mg + O ₂ + 2H ₂ O → 2Mg (OH) ₂ ↓

Furthermore, the following side reaction is considered to have occurred.
Mg + 2H ₂ O → Mg ²⁺ + 2OH ⁻ + 2H ₂ ↑

  The positive electrode portion 20 has a role of supplying electrons to oxygen in the air. The material of the positive electrode part 20 is not particularly limited as long as it is a conductive material. For example, a carbonaceous material such as activated carbon, carbon fiber, or carbon felt, or a metal material such as iron or copper is used. Can do. As the material of the positive electrode part 20, it is particularly preferable to use carbon powder from the viewpoint of a large contact area with oxygen in the air and excellent current collection efficiency. In FIG. 1, as an example, a copper net is used for the positive electrode active material 26A, and activated carbon is used for the conductive material 26B.

  You may attach the wire etc. which consist of electroconductive materials, such as copper, with respect to the surface by the side of the positive electrode part 20 which contact | connects air. Thereby, it is possible to increase the contact area of oxygen and the positive electrode part 20, and can further improve the current collection efficiency in the positive electrode part 20 of a battery.

  The negative electrode active material 28A of the negative electrode part 22 is made of, for example, a magnesium alloy. The magnesium alloy is an alloy containing magnesium (Mg) as a main component, for example, an alloy containing 50% by weight or more of magnesium. As the magnesium alloy, for example, Mg—Al, Mg—Mn, Mg—Zn, Mg—Al—Zn, Mg—Zn—Zr, etc. are known, and moreover, aluminum (Al) It is also possible to use a magnesium alloy containing calcium (Ca).

  Elements other than aluminum and calcium may be added to the magnesium alloy. For example, other elements such as Zn, Mn, Si, Cu, Li, Na, K, Fe, Ni, Ti, and Zr may be added. These elements can be added at a ratio of, for example, 1% by weight or less with respect to the entire magnesium alloy. In particular, Zn can be added at a ratio of, for example, 2% by weight or less with respect to the entire magnesium alloy.

  The shape of the magnesium alloy used as the negative electrode portion 22 is not particularly limited, and for example, a magnesium alloy processed into a plate shape, a granular shape, or a powder shape can be used.

  In the magnesium battery, for example, a magnesium alloy containing aluminum (Al) and calcium (Ca) can be used. A magnesium alloy having such a composition has appropriate reactivity and is excellent as a battery material. Moreover, the magnesium alloy of such a composition has the capability to suppress combustion (ability to suppress reaction), and is highly valuable as an industrial material. The magnesium alloy can exhibit excellent performance as a battery material due to the synergistic effect of these conflicting characteristics.

A magnesium alloy containing aluminum and calcium usually has a multilayer structure composed of two phases of a metallic Mg phase (solid solution) and a compound phase (Al ₂ Ca). Because the compound phase is relatively inert, the alloy is less reactive macroscopically. This is confirmed by experience. Moreover, when this multiphase structure is sufficiently fine, the corrosion reaction (dissolution reaction) becomes uniform as a whole and proceeds gently. This is also presumed to play a role in the reactivity and the reaction suppressing ability. That is, it is thought that the reaction suppression by the highly reactive mother phase and the inert second phase of the magnesium alloy greatly contributes to the excellent performance as the negative electrode material of the battery.

  In addition, the arrangement | sequence of the positive electrode part 20, the separator 24, and the negative electrode part 22 which are shown in FIG. 1 shows an example, and is not specifically limited.

  The battery used for the risk management apparatus 10 is not limited to a magnesium battery. For example, it is possible to use a battery including a metal pair that is a pair of substances constituting the battery and a metal pair in which other electrons move in one direction, such as copper, zinc and copper.

  Next, consider places / locations to which the risk management apparatus according to an embodiment of the present invention is applied. For example, there are buildings, vehicles (planes, ships, trains), social infrastructure, and natural objects. Examples of social infrastructure include bridges, tunnels, and dams. Natural objects include bedrock, river beds, harbor areas, construction sites, and so on.

  For example, in the case of a building, an earthquake or storm occurs and the house shakes greatly, but after the earthquake or storm passes, the house is not damaged. However, an excessive load may act on the structural member of the house at the timing when the maximum acceleration is generated, and a crack may be generated inside the structural member. In such a case, there is clearly a risk, but it cannot usually be determined. Therefore, if it is left as it is, the risk increases. It is preferable to install the risk management device 10 of the present invention so that the electrolyte charging unit 16 is located at a mechanically important point (for example, a place where the maximum acceleration occurs) in such a structural member of the house.

  For example, in the case of heavy snow, heavy snow accumulates on the roof of the house. Even if it snows, static load continues to act on the house for a certain period of time. There are cases where houses collapse when heavy snow falls overnight. Moreover, even if it does not collapse, the durability of the house is weakened by repeating such a situation every year. Even though I thought there was no problem last year, the durability of the house has actually declined, and there is a possibility that it will collapse with less snow than last year. Therefore, if it is left as it is, the risk increases. In such a house, the relative change between the structure that supports the roof load and the structure that does not support the load is displaced by the load. Even if this displacement is slight, the force acting on it increases. When the displacement exceeds a predetermined value, it is preferable to install the risk management device 10 of the present invention so that the electrolytic solution charging unit 16 is located at a point where this force acts.

  For example, in the case of heavy rains, floods, and storm surges, these damages are significant. For example, even if there is no direct damage to the house, water may pass through the invisible channel and enter the floor and stay there. In addition, water inside the soil may be introduced into the house by capillary action. If left as it is, the house will be the same as when it is built on the pond, and the room will be highly humid, which will encourage the growth of mold and termites. Therefore, if it is left as it is, the risk increases. It is preferable to install the risk management device 10 of the present invention so that the electrolytic solution charging unit 16 is located at a point where such natural water can be used as the electrolytic solution.

  For example, in the case of bridges, there are many such as road bridges and railway bridges. The bridge girder and abutment of these bridges are often fixed with bolts or the like. In the case of a road bridge, a large load is applied as a large vehicle passes, and the bolt may be damaged. Therefore, if it is left as it is, the risk increases. In such a case, it is preferable to install the risk management device 10 of the present invention so that the electrolytic solution charging unit 16 is positioned at a point that receives a force from the bridge structure.

  According to the risk management device 10 and the risk management method of the above embodiment, risk management can be executed over a long period of time with a simple configuration and low cost. In addition, an accident or the like can be prevented in advance by notifying the surroundings of the state in which the danger has become apparent.

  Next, each embodiment of the risk management device 10 of the present invention will be described.

(First embodiment)
A first embodiment will be described.

  In the first embodiment, as shown in FIGS. 2 and 3, the storage portion 34 is provided in the storage portion main body 36 and the storage portion main body 36 by a predetermined energy when a predetermined event occurs. And a portion to be destroyed 38 to be destroyed.

  The storage unit main body 36 is formed in a hollow shape, and is configured so that the electrolytic solution 14 can be stored therein.

  The to-be-destructed portion 38 is provided separately or integrally with the storage portion main body 36 and is formed in a hollow shape. Then, the electrolytic solution 14 can remain inside the portion to be destroyed 38. The strength of the to-be-destructed portion 38 is set to such a strength that the portion to be destroyed is destroyed when receiving energy accompanying a predetermined event.

  Here, the strength of the to-be-destructed portion 38 is set to be smaller than the strength of the storage portion main body 36, for example. Specifically, the thickness dimension of the to-be-destructed portion 38 is set to be smaller than the thickness dimension of the storage portion main body 36, or a stress concentration portion (crack, groove, etc.) is formed in a part of the to-be-destructed portion 38. It may be formed. Or the material of the to-be-destructed part 38 may be formed with the material of lower intensity | strength than the material of the accommodating part main body 36. FIG.

  2 and 3, the neck portion whose diameter dimension of the to-be-destructed portion 38 is smaller than the diameter size of the storage portion main body 36 is adopted as the to-be-destructed portion 38, but the present invention is limited to this configuration. is not.

  The electrode unit 12 is located inside the electrolyte bath 40. The transmitter 18 is preferably disposed at a position where the electrolytic solution 14 does not contact when a predetermined event occurs (for example, outside the electrolytic solution tank 40).

  The electrolytic solution charging unit 16 is located, for example, above the electrolytic solution tank 40, and when a part of the storage unit 34 is destroyed, the electrolytic solution 14 stored in the storage unit 34 is replaced with the electrolytic solution tank 40. It is comprised so that it may be supplied inside. For this reason, when the electrolytic solution 14 is supplied into the electrolytic solution tank 40, the electrode unit 12 is submerged in the electrolytic solution 14. At this time, it starts as a battery, an oxidation / reduction reaction occurs in the electrode part 12, a current flows, and a physical means transmits from the transmitting part 18.

  According to the first embodiment, the electrolyte solution 14 is stored in the storage portion 34 and is not in contact with the electrode portion 12 in normal times. At this time, even if the normal operation continues for a long period of time, the electrode portion 12 and other parts do not wear out, so that the lifetime does not decrease.

  On the other hand, when a predetermined event such as a natural disaster occurs, the danger management device 10 receives maximum acceleration, and predetermined energy acts on the storage unit 34. The predetermined energy is energy generated under the influence of a predetermined event, for example, fluid energy during heavy rain or flood, powder energy generated by collision of powder during heavy snow, and the like.

  At this time, the to-be-destructed part 38 of the storage part 34 is set to be easily destroyed, and therefore easily destroyed when receiving energy. When at least a part of the to-be-destructed portion 38 is destroyed, the electrolyte solution 14 stored in the inside leaks out. The electrolytic solution 14 is supplied to the electrolytic solution tank 40. And the electrolyte solution 14 accumulates inside the electrolyte solution tank 40, and the electrode part 12 is immersed. As a result, the battery is activated, an oxidation / reduction reaction occurs in the electrode part 12 and a current flows, and the physical means is transmitted from the transmitting part 18 to the outside.

  As a result, not only the surroundings but also a remote third party can be notified that the risk has been realized, and it becomes possible to deal with the risk.

(Second embodiment)
A second embodiment will be described. In addition, about the structure which overlaps with 1st Example, the same code | symbol is attached | subjected and description is abbreviate | omitted suitably.

  In the second embodiment, as shown in FIGS. 4 and 5, the storage portion 34 is provided in the storage portion main body 36 and the storage portion main body 36 by a predetermined energy when a predetermined event occurs. The to-be-destructed part 38 to be destroyed and the mass part 42 provided in the accommodating part main body 36 or the to-be-destructed part 38 are provided.

  The mass part 42 is a weight part having a predetermined mass. The mass portion 42 destroys at least a part of the storage portion main body 36 or the to-be-destructed portion 38 when a predetermined event occurs. The mass part 42 is preferably provided in the part to be destroyed 38.

  The mass part 42 is made of, for example, an elastic body such as metal or rubber, resin, wood, or the like.

  According to the second embodiment, as in the first embodiment, the electrolyte solution 14 does not come into contact with the electrode portion 12 in normal times. For this reason, the product life does not decrease.

  On the other hand, when a predetermined event such as a natural disaster occurs, the danger management device 10 receives the maximum acceleration, and the mass portion 42 generates an inertial force. At least a part of the storage unit main body 36 or the to-be-destructed part 38 is destroyed by receiving the energy by the inertial force. As a result, the electrolytic solution 14 leaks out of the storage portion 34 and accumulates in the electrolytic solution tank 40. And an electric current generate | occur | produces and a physical means transmits from the transmission part 18. FIG.

  In particular, by providing the mass portion 42, a large amount of energy can be imparted to the storage portion main body 36 or the to-be-destructed portion 38 as much as an inertia force is generated. As a result, destruction of the storage portion 34 is ensured, and the chemical reaction of the battery can be promoted when a predetermined event occurs. Furthermore, by providing the mass part 42 in the part 38 to be destroyed, the storage part 34 is more easily destroyed.

(Third embodiment)
A third embodiment will be described. In addition, about the structure which overlaps with 1st Example, the same code | symbol is attached | subjected and description is abbreviate | omitted suitably.

  In the third embodiment, as shown in FIGS. 6 and 7, the storage portion 34 is provided in the storage portion main body 36 and the storage portion main body 36 by a predetermined energy when a predetermined event occurs. And a portion to be destroyed 38 to be destroyed.

  A structure 44 is mechanically connected to the storage unit main body 36 or the part to be destroyed 38. The structure 44 corresponds to, for example, a bridge structural member or a house structural member. In particular, a configuration in which the structure 44 is connected to the portion to be destroyed 38 is preferable.

  According to the third embodiment, for example, when vibration energy acts due to an earthquake or the like, energy (for example, maximum acceleration or the like) from the structure 44 acts on the storage portion main body 36 or the portion to be destroyed 38. Thereby, at least a part of the storage unit main body 36 or the part to be destroyed 38 is destroyed, and the electrolyte solution 14 leaks out of the storage unit 34 and accumulates in the electrolyte solution tank 14. And an electric current generate | occur | produces and a physical means transmits from the transmission part 18. FIG.

  In particular, since the powerful energy from the structure 44 acts on the storage unit main body 36 or the to-be-destructed part 38 of the storage unit 34, the storage unit main body 36 or the to-be-destructed part 38 is reliably broken. This will ensure that risks are materialized. In particular, since the structure 44 is connected to the destroyed portion 38, the storage portion 34 is more easily destroyed.

(Fourth embodiment)
A fourth embodiment will be described. In addition, about the structure which overlaps with 1st Example, the same code | symbol is attached | subjected and description is abbreviate | omitted suitably.

  In the fourth embodiment, as shown in FIGS. 8 and 9, the storage portion 34 is provided in the storage portion main body 36 and the storage portion main body 36 by a predetermined energy when a predetermined event occurs. It has the to-be-destructed part 38 to be destroyed, and the thermal destruction part 46 provided in the accommodating part main body 36 or the to-be-destructed part 38.

  As an example of the thermal destruction part 46, a melting part is applied. In this configuration, the material for the thermal destruction part 46 is selected such that the melting point of the thermal destruction part 46 is lower than the melting points of the storage unit body 36 and the part to be destroyed 38. Thereby, in the accommodating part 34, the heat destruction part 46 melt | dissolves earlier than any other site | parts.

  According to the fourth embodiment, for example, when thermal energy is applied in a fire or the like, the thermal destruction part 46 provided in at least a part of the storage part 34 is first melted. As a result, the electrolytic solution 14 leaks out of the storage portion 34 and accumulates in the electrolytic solution tank 40. And an electric current generate | occur | produces and a physical means transmits from the transmission part 18. FIG. By providing the thermal destruction part 46 in this way, destruction of the storage part 34 can be promoted when a predetermined event occurs.

  In addition, as the thermal destruction part 46, you may employ | adopt a heat deformation part, such as not only a melting | fusing part but bimetal or a shape memory alloy which deform | transforms by positive provision of a thermal energy or a temperature change. In a configuration that employs a thermally deformable portion such as a bimetal or a shape memory alloy, at least a part of the storage portion 34 is destroyed due to thermal deformation thereof, and the electrolytic solution 14 inside the storage portion 34 moves to the outside of the storage portion 34. Leakage will start the battery.

  As described above, a plurality of embodiments are assumed for the electrolyte solution charging unit 16. Each of the above-described embodiments is only an example, and the present invention is naturally not limited to the contents of these embodiments.

DESCRIPTION OF SYMBOLS 10 Risk management apparatus 12 Electrode part 14 Electrolyte solution 16 Electrolyte injection | throwing-in part 18 Transmitter part 20 Positive electrode part 22 Negative electrode part 24 Separator 26 Positive electrode collector 26A Positive electrode active material 26B Conductive material 28 Negative electrode collector 28A Negative electrode active material 30 Load Section 32 Output section 34 Storage section 36 Storage section main body 38 Destructed section 40 Electrolyte tank 42 Mass section 44 Structure 46 Thermal breakdown section

Claims (1)

An electrode part;
An electrolyte,
Maintaining the separated state of the electrode part and the electrolyte solution in a normal state, and an electrolyte solution charging part capable of charging the electrolyte solution into the electrode part when a predetermined event occurs,
A transmitter for transmitting a wireless medium generated based on an electric current generated as a result of the oxidation / reduction reaction, when an oxidation / reduction reaction occurs when the electrolyte solution contacts the electrode unit;
Have
A risk management device that exposes danger via the wireless medium,
The electrode part has a positive electrode part and a negative electrode part of a battery,
The transmitter has a load part electrically connected to the positive electrode part side and the negative electrode part side, and an output part,
The load unit has a circuit for generating the wireless medium based on a current generated as a result of the oxidation / reduction reaction,
The risk management apparatus, wherein the output unit includes a circuit for outputting the wireless medium generated by the load unit.

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