A bank branch security environment monitoring device

Abstract

The utility model discloses a bank branch security environment monitoring device, the structure of which includes a fixed door, a door frame, a monitoring machine, and a security door. The fixed door is fixedly installed in the door frame frame, and two security doors are symmetrically distributed. The security door includes a rotating shaft, a connecting strip, a shaking body, a handle, a built-in grid, and a security glass. The rotation and return of the rotating shaft will drive the connecting strip to stretch and retract. When the connecting part is pulled, it is in a straight state. When the connecting part is rotated, it is in a bendable loose state. The unfixed parts connected to the two sides of the shaking body will shake with the inertia of the connecting strip. The pulling body inside the built-in grid will pull the toughness strip to pull the rotating shaft. The elastic block will drive the reflective layer to move while the solid body bears the inertial force. The reflective layer is distributed inside the built-in grid. When light is irradiated on the surface of the reflective layer, it will be refracted to the vicinity. It will continuously block the peripheral vision and prevent the peripheral from being peeped for a long time.

Description

Technical Field

[0001] The utility model belongs to the field of security environment monitoring, and more specifically, especially relates to a bank branch security environment monitoring device. Background Art

[0002] Bank branches are important places where more business is handled and where there are many people. Their internal security systems are relatively complete. Important items inside bank branches need to be transported by escort vehicles. The escort vehicles are parked outside the gates and are equipped with security personnel to guard and escort the important items inside.

[0003] Based on the above, the author of the utility model has found that the existing bank branch security environment monitoring device has the following main shortcomings, such as:

[0004] The loading box of the escort vehicle is opposite to the bank's door, which is convenient for its personnel to transport items. The door is open, and the original protective glass of the door is useless. Security personnel are solely responsible for preventing people from approaching.

[0005] Therefore, it is necessary to propose a bank branch security environment monitoring device. Utility Model Content

[0006] In order to solve the problem that the loading box of the escort vehicle is opposite to the bank's door, which is convenient for its personnel to transport items, the door is open and the original protective glass of the door is ineffective, so the security personnel are solely responsible for preventing people around from approaching.

[0007] The purpose and effect of the bank branch security environment monitoring device of the utility model are achieved by the following specific technical means:

[0008] Its structure includes a fixed door, a door frame, a monitoring machine, and a security door. The fixed door is fixedly installed in the door frame frame, the monitoring machine is fixed above the door frame, the security door is hingedly connected to the door frame frame, and the security door is provided with two and symmetrically distributed.

[0009] The security door includes a rotating shaft, a connecting strip, a swinging body, a handle, a built-in grid, and a security glass. The swinging body is connected to the connecting strip at both ends. The connecting strip can be tightened and loosened according to the size of the connecting external force. The swinging body will stretch and change together with the connecting strip. The handle is fixed to the outer surface of the built-in grid. The security glass and the built-in grid are integrated and placed on the outer surface. One end of the connecting strip is connected to the rotating shaft, and the other end of the connecting strip away from the rotating shaft is fixed to the inside of the side of the built-in grid. The rotation and return of the rotating shaft will drive the connecting strip to stretch and retract. The connecting strip itself is elastic and is in a straight state when the connecting part is pulled, and is in a bendable loose state when the connecting part is rotated. The middle end of the swinging body is fixed to the connecting strip, and the unfixed parts connected to the two sides of the swinging body will swing with the inertia of the connecting strip.

[0010] As a further improvement of the present invention, the built-in grid includes a vent and an outer shell. The vent runs through the side of the outer shell. The vent is located on the side of a connecting strip. Connecting strips are fixed at the upper and lower ends of the outer shell. The internal space of the outer shell can be connected to the vent. The connecting strips are evenly installed in sequence, with five groups distributed horizontally in each group, and a total of ten groups on both sides.

[0011] As a further improvement of the present invention, the shaking body includes a reflective layer, a middle solid, a fixed block, a spring block, and a buffer block. The buffer block is fitted between two spring blocks. The buffer block can withstand inertia to be squeezed and stretched to achieve a buffering effect. The spring block and the fixed block are integrated. The outer layer of the spring block is wrapped with the reflective layer and can keep it in a certain state. The middle solid connection is fixed to the connecting strip as a whole. The reflective layer will swing according to the external force, and the hardness of the internal spring block itself will maintain the approximate state of the reflective layer.

[0012] As a further improvement of the present invention, the connecting strip includes a tough strip and a pulling body. The tough strip and the pulling body are integrated. The pulling body assists the tough strip in being fixed on the inner side of the built-in grid. The tough strip can be deformed by external force and has its own resilience. When the external force is lost, it will rebound to its original position.

[0013] As a further improvement of the utility model, the toughness strip includes a rubber block, a rubber strip, an outer protective layer, and a fixing port. The rubber block and the rubber strip are integrated, and the outer protective layer is wrapped around the outside of the rubber block and the rubber strip. The outer protective layer can play a certain protective and restrictive role inside. The fixing port is fixed to the rubber block. The rubber block is connected by two layers and can play a better bending and deformation role. The rubber strip can stretch and assist in the retraction of the rubber block when it is bent and deformed.

[0014] As a further improvement of the present invention, the rotating shaft includes a central shaft, a resistance bar, and a protrusion. The resistance bar is embedded in the outer surface of the protrusion. The protrusion fits the central shaft. The resistance bar is made of rubber material and can increase the friction force on the object that is in contact with the outside. The protrusion supports the contacting part according to its own shape.

[0015] As a further improvement of the present invention, the reflective layer includes a transparent protective layer and a bonding layer. The transparent protective layer is in bonding with the reflective layer and the bonding layer. The reflective layer is made of laser paper and can refract light. The transparent protective layer is a transparent layer that allows light to reach the next layer smoothly.

[0016] Compared with the prior art, the utility model has the following beneficial effects:

[0017] 1. The pulling body inside the built-in grid will pull the toughness bar to pull the rotating shaft, and the external airflow will enter the built-in grid through the vents inside the outer shell. The bullet will drive the reflective layer to move while the solid body is subjected to the inertial force. The reflective layer is distributed inside the built-in grid. During the swaying process, the light shining on the surface of the reflective layer will be refracted to the vicinity, which will continue to block the surrounding vision and prevent long-term peeping from the surrounding. The multi-level light refraction is prone to produce other visual phenomena such as dislocation, so as to play a short-distance security role.

[0018] 2. The bumps and resistance strips on the surface of the central axis act as a thrust. When the connecting strip is stretched and pulled back, the protruding shape of the bumps resists it, making the connecting strip more firmly stretched. The reflective layer is a laser layer that can refract light, so it can better intercept the refracted light and have a multi-directional refraction effect on multiple groups of distributed connecting strips, so that it can better block this section of the route and avoid long-term peeping from the outside world. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 The utility model is a structural schematic diagram of a bank branch security environment monitoring device.

[0020] Figure 2 The utility model is a schematic diagram of the internal structure of a security door viewed from above.

[0021] Figure 3 It is a three-dimensional structural schematic diagram of a built-in grid of the utility model.

[0022] Figure 4 It is a schematic diagram of the internal structure of a rocking body in the front view of the utility model.

[0023] Figure 5 The utility model is a front view schematic diagram of the internal structure of a connecting strip.

[0024] Figure 6 This is a schematic diagram of the internal structure of a toughness strip according to the utility model from the front view.

[0025] Figure 7 It is a three-dimensional structural schematic diagram of a rotary shaft of the utility model.

[0026] Figure 8 The utility model is a schematic diagram of the side cut layer structure of a reflective layer.

[0027] In the figure: fixed door-1, door frame-2, monitoring machine-3, security door-4, rotating shaft-001, connecting strip-002, shaking body-003, handle-004, built-in grid-005, security glass-006, vent-11, outer shell-12, reflective layer-b01, middle solid-b02, fixed block-b03, elastic block-b04, buffer block-b05, toughness strip-a1, pulling body-a2, rubber block-w1, rubber strip-w2, outer protective layer-w3, fixing port-w4, central axis-511, resistance strip-512, bump-513, transparent protective layer-e01, bonding layer-e02. DETAILED DESCRIPTION

[0028] The utility model is further described below in conjunction with the accompanying drawings:

[0029] Embodiment 1:

[0030] As attached Figure 1 To Attachment Figure 6 As shown:

[0031] The utility model provides a bank branch security environment monitoring device, which structure includes a fixed door 1, a door frame 2, a monitoring machine 3, and a security door 4. The fixed door 1 is fixedly installed in the frame of the door frame 2, the monitoring machine 3 is fixed above the door frame 2, the security door 4 is hingedly connected in the frame of the door frame 2, the security door 4 is provided with two and symmetrically distributed, and the monitoring machine 3 performs real-time monitoring of the line of sight within a certain range.

[0032] The security door 4 includes a rotating shaft 001, a connecting strip 002, a shaking body 003, a handle 004, a built-in grid 005, and a security glass 006. The shaking body 003 is connected to the connecting strip 002 at both ends. The connecting strip 002 can be tightened and loosened according to the size of the connecting external force. The shaking body 003 will be stretched and changed together with the connecting strip 002. The handle 004 is fixed to the outer surface of the built-in grid 005. The security glass 006 is integrated with the built-in grid 005 and is placed on the outer surface. One end of the connecting strip 002 is connected to the rotating shaft 001, and the other end of the connecting strip 002 away from the rotating shaft 001 is connected to the built-in grid The inside of the side of 005 is fixed, the rotation and return of the rotating shaft 001 will drive the connecting strip 002 to stretch and retract, the connecting strip 002 itself is elastic, and is in a straight state when the connecting part is pulled, and is in a bendable loose state when the connecting part rotates. The middle end of the rocking body 003 is fixed to the connecting strip 002, and the unfixed parts connected to the two sides of the rocking body 003 will rock with the inertia of the connecting strip 002. The connecting strip 002 is fixed to the inside of the side of the built-in grid 005 on both sides with the rotating shaft 001 as the central axis, which plays a certain balancing role. The built-in grid 005 limits the activity space of the inner parts.

[0033] Among them, the built-in grid 005 includes a vent 11 and an outer shell 12. The vent 11 runs through the side of the outer shell 12. The vent 11 is located on the side of the connecting strip 002. The connecting strip 002 is fixed at the upper and lower ends of the outer shell 12. The internal space of the outer shell 12 can be connected with the vent 11. The connecting strips 002 are evenly installed in sequence, with five groups distributed horizontally in each group, and a total of ten groups on both sides. The vents 11 are evenly distributed vertically so that their internal space is connected to the outside.

[0034] Among them, the shaking body 003 includes a reflective layer b01, a middle solid b02, a fixed block b03, a spring block b04, and a buffer block b05. The buffer block b05 is fitted between two spring blocks b04. The buffer block b05 can withstand inertia to be squeezed and stretched to achieve a buffering effect. The spring block b04 and the fixed block b03 are integrated. The outer layer of the spring block b04 wraps the reflective layer b01 and can keep it in a certain state. The middle solid b02 is connected as a whole and fixed to the connecting strip 002. The reflective layer b01 will swing according to the external force. The hardness of the internal spring block b04 itself will maintain the approximate state of the reflective layer b01. The middle solid b02 is a cylindrical shape. The fixed block b03 is connected to the reflective layer b01 so that it is connected to the middle solid b02.

[0035] Among them, the toughness strip a1 and the pulling body a2 are integrated, and the pulling body a2 assists the toughness strip a1 to be fixed on the inner side of the built-in grid 005. The toughness strip a1 can be deformed by external force, and it has its own resilience. When the external force is lost, it will rebound to its original position. The end of the toughness strip a1 connected to the pulling body a2 is a small concave section with four parts, which can shake and rebound to a greater extent when it loses the external pulling force. The pulling body a2 can appropriately transition and buffer the force on the toughness strip a1.

[0036] Among them, the toughness strip a1 includes a rubber block w1, a rubber strip w2, an outer protective layer w3, and a fixing port w4. The rubber block w1 and the rubber strip w2 are integrated, and the outer protective layer w3 is wrapped around the outside of the rubber block w1 and the rubber strip w2. The outer protective layer w3 can play a certain protective and restrictive role in the inside. The fixing port w4 is fixed to the rubber block w1. The rubber block w1 is connected by two layers and can play a better bending deformation role. The rubber strip w2 can stretch and assist in the retraction of the rubber block w1 when it is bent and deformed. The outer protective layer w3 follows the internal part to deform, and the inner side of the outer protective layer w3 is in an arc state, which can better guide the connecting part to perform bending and limiting.

[0037] The specific usage and function of this embodiment are as follows:

[0038] In the utility model, when the escort vehicle of a bank branch stops at the door, the monitoring machine 3 is used to monitor the top of the bank branch, and the security personnel pull open the security door 4 to connect the passage with the escort vehicle, and the two sides are shielded by the security door 4. When the security door 4 is pulled open by the handle 004, the security door 4 will have a mutually adsorbed and fixed effect with the ground suction on the ground, and the pulling body a2 inside the built-in grid 005 will pull the toughness bar a1 to pull the rotating shaft 001. During the rotation of the rotating shaft 001, the originally tight connection bar 002 will return to a relaxed state, and the external airflow will enter the built-in grid 005 through the vent 11 inside the shell 12. 5, thereby blowing the reflective layer b01 on the connecting strip 002. When the reflective layer b01 is fixed to the connecting strip 002 by the middle solid b02, it will shake along with the shaking of the connecting strip 002. The spring b04 will drive the reflective layer b01 to move while the middle solid b02 is subjected to the inertial force. The bending generated during the movement is buffered and returned to its original position by the buffer block b05. The reflective layer b01 is distributed inside the built-in grid 005. During the shaking process, the light irradiated on the surface of the reflective layer b01 will be refracted to the vicinity, which will continuously block the peripheral vision and prevent the peripheral from being peeped for a long time.

[0039] Embodiment 2:

[0040] As attached Figure 7 To Attachment Figure 8 As shown:

[0041] Among them, the rotating shaft 001 includes a central axis 511, a resistance bar 512, and a protrusion 513. The resistance bar 512 is embedded in the outer surface of the protrusion 513. The protrusion 513 fits the central axis 511. The resistance bar 512 is made of rubber material and can increase the friction force on the object in contact with the outside. The protrusion 513 supports the contacting part according to its own shape. Three protrusions 513 are arranged on each side, and a total of six on both sides, and the two sides are symmetrically distributed.

[0042] Among them, the reflective layer b01 includes a transparent protective layer e01 and a bonding layer e02. The transparent protective layer e01 is in a bonding state with the reflective layer b01 and the bonding layer e02. The reflective layer b01 is made of laser paper and can refract light. The transparent protective layer e01 is a transparent layer that allows light to reach the next layer smoothly. The transparent protective layer e01 can provide protection and wear resistance for the inner layer.

[0043] The specific usage and function of this embodiment are as follows:

[0044] In the utility model, when the rotating shaft 001 is pulled by an external force, in order to prevent the connecting strip 002 from being wrapped around the rotating shaft 001 for a long time and thus forming a bond, the protrusion 513 and the resistance strip 512 on the surface of the central axis 511 act as a thrust, and the resistance strip 512 can increase the friction and push the connecting strip 002. When the connecting strip 002 is stretched and pulled back, the protruding shape of the protrusion 513 itself can resist it, so that the connecting strip 002 can be stretched more firmly. The reflective layer b01 on the surface of the rocking body 003 is protected by a transparent protective layer e01. The reflective layer b01 is a laser layer that can refract light, so that it can better intercept the refracted light and have a multi-directional refraction effect on multiple groups of distributed connecting strips 002.

[0045] Utilizing the technical solution described in the utility model, or those skilled in the art designing similar technical solutions inspired by the technical solution of the utility model to achieve the above-mentioned technical effects, all fall within the protection scope of the utility model.

Claims

1. A bank branch security environment monitoring device, comprising a fixed door (1), a door frame (2), a monitoring machine (3), and a security door (4), wherein the fixed door (1) is fixedly installed in the frame of the door frame (2), the monitoring machine (3) is fixed above the door frame (2), and the security door (4) is hingedly connected to the frame of the door frame (2), characterized in that: The security door (4) comprises a rotating shaft (001), a connecting strip (002), a shaking body (003), a handle (004), a built-in grid (005), and a security glass (006). The shaking body (003) is connected to the connecting strip (002) at both ends. The connecting strip (002) can be tightened or loosened according to the size of the connecting external force. The shaking body (003) will be stretched and changed together with the connecting strip (002). The handle (004) is fixed to the outer surface of the built-in grid (005). The security glass (006) and the built-in grid (006) are connected to each other. 5) is integrated and arranged on the outer surface, one end of the connecting strip (002) is connected to the rotating shaft (001), and the other end of the connecting strip (002) away from the rotating shaft (001) is fixed to the inside of the side of the built-in grid (005), and the rotation and return of the rotating shaft (001) will drive the connecting strip (002) to stretch and retract, and the connecting strip (002) itself has elasticity, and is in a straight state when the connecting part is pulled, and is in a bendable loose state when the connecting part is rotated, and the middle end of the shaking body (003) is fixed to the connecting strip (002).

2. A bank branch security environment monitoring device according to claim 1, characterized in that: The built-in grid (005) comprises a vent (11) and an outer shell (12); the vent (11) runs through the side of the outer shell (12); the vent (11) is located on the side of the connecting strip (002); the connecting strip (002) is fixed at the upper and lower ends of the outer shell (12); and the internal space of the outer shell (12) can communicate with the vent (11).

3. A bank branch security environment monitoring device according to claim 1, characterized in that: The shaking body (003) includes a reflective layer (b01), a middle solid (b02), a fixed block (b03), a spring block (b04), and a buffer block (b05); the buffer block (b05) is fitted between two spring blocks (b04); the buffer block (b05) can withstand inertia to be squeezed and stretched to achieve a buffering effect; the spring block (b04) and the fixed block (b03) are integrated; the outer layer of the spring block (b04) is wrapped with the reflective layer (b01) and can keep it in a certain state; the middle solid (b02) is connected as a whole and fixed to the connecting strip (002).

4. A bank branch security environment monitoring device according to claim 1, characterized in that: The connecting strip (002) includes a tough strip (a1) and a pulling body (a2), wherein the tough strip (a1) and the pulling body (a2) are integrated, and the pulling body (a2) assists the tough strip (a1) in being fixed to the inner side of the built-in grid (005). The tough strip (a1) can be deformed by external force and has its own resilience, and will rebound to its original position when the external force is lost.

5. A bank branch security environment monitoring device according to claim 4, characterized in that: The toughness strip (a1) comprises a rubber block (w1), a rubber strip (w2), an outer protective layer (w3), and a fixing port (w4); the rubber block (w1) and the rubber strip (w2) are integrated; the outer protective layer (w3) is wrapped around the outside of the rubber block (w1) and the rubber strip (w2); the outer protective layer (w3) can play a certain protective and restrictive role inside; the fixing port (w4) is fixed to the rubber block (w1); the rubber block (w1) is connected by two layers, and can play a better bending deformation role.

6. A bank branch security environment monitoring device according to claim 1, characterized in that: The rotary shaft (001) comprises a central shaft (511), a resistance bar (512), and a convex block (513); the resistance bar (512) is embedded in the outer surface of the convex block (513); the convex block (513) fits the central shaft (511); and the resistance bar (512) is made of rubber material and can increase friction against an object that contacts the outside.

7. The bank branch security environment monitoring device according to claim 3, characterized in that: The reflective layer (b01) includes a transparent protective layer (e01) and a bonding layer (e02). The transparent protective layer (e01) is bonded to the reflective layer (b01) and the bonding layer (e02). The reflective layer (b01) is made of laser paper and can refract light.

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