Multi-cavity bulletproof power supply wall column shell

Abstract

The utility model relates to a multi-cavity bulletproof power supply wall column shell which not only can be used for building frontier defense barracks and sentries in a three-dimensional manner, but also has a bulletproof function and a power supply charging and power supply function, and the bulletproof wall column shell is divided into a plurality of layers of battery cavities from top to bottom. The upper end of the battery cavity is provided with a battery anode plug-in conductive rail or a battery cathode plug-in conductive rail, the lower end of the battery cavity is provided with a battery cathode plug-in conductive groove or a battery anode plug-in conductive groove, and the batteries are inserted into the battery cavity and are transversely connected in parallel and longitudinally connected in series; the bulletproof wall column shell is provided with a charging jack and a power supply output jack, and the anodes and the cathodes in the multiple layers of battery cavities are respectively connected with the anodes and the cathodes in the charging jack and the power supply output jack through wires arranged in the bulletproof wall column shell.

Description

Technical Field

[0001] The utility model relates to a multi-cavity bulletproof power wall column shell which can be used as a wall column for building border defense barracks and sentry posts, has a bulletproof function, and can quickly plug and repair the battery in the bulletproof power wall column shell under the premise that one or several batteries are damaged. It belongs to the field of manufacturing special building building materials. Background Art

[0002] All prior patents of the applicant have the patent number 2022103860146 and the name "Military Bulletproof Intelligent House and Manufacturing Method", including a house. The wall columns of the house are bulletproof and heat-insulating wall columns, and rechargeable batteries are arranged inside the bulletproof and heat-insulating wall columns; the wall panels of the house are bulletproof and heat-insulating wall panels, and the inner side of the bulletproof and heat-insulating panel is an electric heating heating surface; the roof is a bulletproof roof, and a solar charging panel or a wind energy generator is installed on the surface of the bulletproof roof. The power output end of the solar charging panel or the wind energy generator is connected to the power supply end of the rechargeable battery in the bulletproof and heat-insulating wall column through a wire and a charger. The power output end of the rechargeable battery is connected to the power input terminal of the temperature and humidity infrared induction controller through a power cord. One control switch in the temperature and humidity infrared induction controller is connected to the power supply end of the graphene electric heating film in the bulletproof and heat-insulating wall panel, one is connected to the power supply end of the graphene electric heating film in the bulletproof and heat-insulating wall column, and one is connected to the power supply end of the humidifier. The signal output ends of the temperature sensor, the humidity sensor, the infrared sensor and the pressure sensor are connected to the signal input end of the temperature and humidity infrared induction controller. The temperature and humidity infrared induction controller has a built-in alarm; the door frame and door of the house are bulletproof door frames and bulletproof doors; the window of the house is a bulletproof glass window; an uneven quick-installation connection structure is arranged between the bulletproof door frame and the bulletproof and heat-insulating wall column; one or more layers of aramid III woven fabrics in the bulletproof and heat-insulating wall panel are cured by a high-strength, high-tenacity and high-hardness water-based resin powder to form a sandwich panel. The flame-retardant heat-insulating fiber layer is compounded on one side of the bulletproof panel through a resistance adhesive, and the graphene electric heating film is compounded on the flame-retardant heat-insulating fiber layer through an insulating adhesive; one or more layers of aramid III woven fabrics in the quick-installation wall column shell of the bulletproof and heat-insulating wall are coated and cured by a high-strength, high-tenacity and high-hardness water-based resin powder to form a bulletproof column shell. The flame-retardant heat-insulating fiber layer is compounded inside the bulletproof column shell through a resistance adhesive, and the graphene electric heating film is compounded on the flame-retardant heat-insulating fiber layer through an insulating adhesive. The rechargeable battery is located inside the bulletproof column shell; a temperature sensor is arranged on the rechargeable battery shell inside the quick-installation wall column shell. The signal input end of the temperature sensor is connected to the signal input end of the temperature and humidity infrared induction controller. The signal output end of the temperature and humidity infrared induction controller is connected to the signal input end of the actuator. The signal output end of the actuator controls the conduction or power-off of the power supply of the graphene electric heating film.

[0003] Although the above bulletproof and heat-insulating column shell has the functions of bulletproof and heat insulation, once the bulletproof and heat-insulating column shell is penetrated and the battery inside is damaged, the power supply function will be lost. Summary of the Invention

[0004] Design purpose: To avoid the deficiencies of the prior art, on the basis of the background technology of the bulletproof and heat-insulating wall column shell, through the improvement of the bulletproof wall column shell, the longitudinal direction of the bulletproof wall column shell is divided into multiple battery chambers by partition plates, which not only improves the support strength of the bulletproof wall column shell, but also enables multiple batteries to be connected in parallel within the same battery chamber, and multiple longitudinal battery chambers to achieve the longitudinal series connection of the batteries therein. Moreover, on the premise that one or more batteries in a certain battery chamber are damaged, the power plug-in wire can quickly resume normal operation.

[0005] Design scheme: To achieve the above design purpose. On the basis of the background technology, the present utility model has the following features: 1. The design that the bulletproof wall column shell is divided into multiple battery chambers from top to bottom is one of the technical features of the present utility model. The purpose of this design is as follows: First, when the bulletproof wall column shell is designed as multiple chambers, the battery partition plate between the chambers can connect the bulletproof wall column wall panels on both sides into one body, enhancing the strength and support force of the bulletproof wall column shell, and at the same time longitudinally forming multiple battery chambers. Second, since the battery partition plate between the battery chambers is the common electrode part of the upper and lower battery chambers, in terms of structural design, one side of the battery partition plate is a conductive rail or conductive groove for plugging the positive electrode of the battery, and the other side of the battery partition plate is a conductive groove or conductive rail for plugging the negative electrode of the battery. When multiple batteries are inserted into the same battery chamber, they form a parallel connection of multiple batteries; when multiple batteries are respectively inserted into each battery chamber, they form a series connection between the battery (groups), that is, the batteries are connected in series through the common electrode part of the battery partition plate to achieve the series connection between the upper and lower batteries. 2. The design of the power plug-in holes on the battery partition plate is the second technical feature of the present utility model. The purpose of this design is as follows: During actual use, in case the bulletproof power wall column shell is damaged by a stray bullet or an explosive, causing some or several layers of batteries in the bulletproof power wall column to be damaged and unable to supply power normally, at this time, only a wire with plugs at both ends needs to be inserted into the power plug-in holes on the upper and lower battery partition plates of the damaged battery chamber, that is, bypassing the damaged battery, to enable the normal operation of the series-connected battery power supply circuit and charging circuit. 3. The design that the battery plug-in conductive rail and the battery plug-in conductive groove in the battery chamber are of a dovetail groove structure is the third technical feature of the present utility model. The purpose of this design is as follows: When the conductive rail and conductive groove for contacting and conducting electricity with the battery in the battery chamber of the present utility model are of a dovetail groove structure, the positive and negative electrodes of the battery that match them are also of a dovetail groove structure. The greatest advantage of this design is that it not only increases the contact area between the positive and negative electrodes of the battery and the positive and negative electrodes in the battery chamber, but also because there is an elastic conductive sheet in the dovetail groove, the elastic conductive sheet can force the battery to reliably contact the positive and negative dovetail grooves in the battery chamber, ensuring the reliability of conduction. At the same time, the dovetail groove structure can also achieve the quick parallel connection of multiple batteries in the same battery chamber and facilitate the quick replacement of the battery.

[0006] Technical solution: A multi-chamber bulletproof power supply wall column shell. The bulletproof power supply wall column shell is composed of multiple bulletproof battery chambers from top to bottom. The upper end of the bulletproof battery chamber is a battery positive electrode plugging conductive rail or a battery positive electrode plugging conductive groove, and the lower end of the bulletproof battery chamber is a battery negative electrode plugging conductive groove or a battery negative electrode plugging conductive rail. The multiple bulletproof battery chambers are separated by a battery spacer, and a conductive jack is provided in the middle of the battery spacer. The charging and power supply positive jack and negative jack are respectively connected to the positive end of the first bulletproof battery chamber and the negative end of the last bulletproof battery chamber. The bulletproof battery chamber is provided with a battery chamber cover.

[0007] Compared with the background technology, the present invention has two advantages. First, the design that the bulletproof power supply wall column shell is divided into multiple battery chambers by spacers from top to bottom not only effectively improves the compressive strength of the bulletproof power supply wall column shell, but also realizes the horizontal parallel connection, vertical series connection and rapid replacement of multiple batteries. Second, when the battery in the battery chamber is damaged, the damaged battery is short-circuited by using a double-plug power connection wire, avoiding the defect that when one or more layers of batteries in the series battery pack are damaged, the entire bulletproof power supply wall column shell cannot work properly. Brief description of the drawings

[0008] Figure 1 It is a schematic diagram of a multi-chamber bulletproof power supply wall column shell (the cover is not drawn).

[0009] Figure 2 It is a schematic diagram of the structure of a storage battery.

[0010] Figure 3 It is Figure 1 The circuit connection schematic diagram in Figure 1 (The virtual heart indicates that it is not drawn in

[0011] Figure 4 It is a schematic diagram of a double-plug power connection wire. Detailed implementation manners

[0012] Example 1: Refer to the attached Figures 1-4 . A multi-chamber bulletproof power supply wall column shell. The bulletproof power supply wall column shell 1 is composed of multiple bulletproof battery chambers 2 from top to bottom. The upper end of the bulletproof battery chamber 2 is a battery positive electrode plugging conductive rail 5 or a battery positive electrode plugging conductive groove, and the lower end of the bulletproof battery chamber 2 is a battery negative electrode plugging conductive groove 6 or a battery negative electrode plugging conductive rail. The multiple bulletproof battery chambers are separated by a battery spacer, and a conductive jack 3 is provided in the middle of the battery spacer. The charging and power supply positive jack 4 and negative jack 7 are respectively connected to the positive end of the first bulletproof battery chamber and the negative end of the last bulletproof battery chamber. The bulletproof battery chamber is provided with a battery chamber cover.

[0013] The function of the conductive jack 3 is as follows: when a certain layer of battery in the bulletproof power supply wall column shell is damaged, as long as one end of the double-plug connecting power cord 8 is inserted into the conductive jack 3 in the battery spacer plate above the damaged battery cavity, and the other end is inserted into the conductive jack 3 in the battery spacer plate below the damaged battery cavity, it is equivalent to short-circuiting the damaged battery (the current bypasses the damaged battery in the battery cavity), so that the series-connected battery pack can resume normal operation.

[0014] The charging and power supply positive jack 4 and the negative jack 7 are respectively connected to the positive end of the front bulletproof battery cavity and the negative end of the rear bulletproof battery cavity. The batteries are respectively located in the bulletproof battery cavities 2, and the bulletproof battery cavities 2 are provided with battery cavity covers. The battery cavity cover is elastically inserted and matched with the periphery of the battery cavity opening.

[0015] The multiple batteries are horizontally inserted into the battery cavities to form a parallel connection of multiple batteries, thereby increasing the battery capacity. The number of batteries in the multiple layers of battery cavities is the same. The positive electrode of the battery is a plug-in conductive groove or a plug-in conductive rail and is matched with the plug-in conductive rail 5 or the plug-in conductive groove in the battery cavity. The negative electrode of the battery is a plug-in conductive rail or a plug-in conductive groove and is matched with the plug-in conductive groove 7 or the plug-in conductive rail in the battery cavity. The plug-in conductive rail and the plug-in conductive groove are of a dovetail groove structure. An elastic conductive sheet is provided in the plug-in conductive groove.

[0016] The batteries in the bulletproof battery cavity 2 are charged by a solar panel or a wind turbine through a charging circuit. The charging circuit, the power supply circuit, and the power supply voltage range adaptation circuit are all well-known prior arts and will not be described here.

[0017] It should be understood that: although the above embodiments have made a relatively detailed verbal description of the design concept of the present invention, these verbal descriptions are only simple verbal descriptions of the design concept of the present invention, rather than limitations on the design concept of the present invention. Any combination, addition or modification that does not exceed the design concept of the present invention falls within the protection scope of the present invention.

Claims

1. A multi-cavity bulletproof power supply wall column housing, characterized by: The bulletproof power supply wall column shell (1) is composed of multiple layers of bulletproof battery cavities (2) from top to bottom. The upper end of the bulletproof battery cavity (2) is a battery positive electrode plug-in conductive rail (5) or a battery positive electrode plug-in conductive groove. The lower end of the bulletproof battery cavity (2) is a battery negative electrode plug-in conductive groove (6) or a battery negative electrode plug-in conductive rail. The multiple layers of bulletproof battery cavities are divided by battery spacers and a conductive socket (3) is provided in the middle of the battery spacers. The charging and power supply positive electrode socket (4) and the negative electrode socket (7) are connected to the positive end of the bulletproof battery cavity at the head end and the negative end of the bulletproof battery cavity at the tail end respectively. The bulletproof battery cavity is provided with a battery cavity cover.

2. The multi-cavity bulletproof power supply wall column housing according to claim 1 is characterized by: The bulletproof battery cavity (2) can be used to insert multiple batteries laterally.

3. The multi-cavity bulletproof power supply wall column housing according to claim 1 is characterized by: The plug-in conductive rail and the plug-in conductive groove are dovetail tenon and groove structures.

4. The multi-cavity bulletproof power supply wall column housing according to claim 1 is characterized by: An elastic conductive sheet is provided in the plug-in conductive slot.

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