Gate case and manufacturing method

Abstract

The embodiment of the invention provides a gate machine case and a manufacturing method, and relates to the technical field of pedestrian path gate machines. The gate case comprises an integrated bent framework and a device box, the integrated bent framework is an integrated framework which is formed by bending a long straight profile with a preset length in the same plane for multiple times and comprises an upper beam framework, a first side framework and a second side framework. The first side edge framework and the second side edge framework extend downwards by a preset height from the two ends of the upper beam framework in the length direction respectively and then are connected to the mounting plane so as to support the upper beam framework; the preset height is greater than the height of the gate machine core; the top surface of the upper beam framework is used for mounting a gate display assembly, and the bottom surface is used for mounting a machine core; the device box is installed on the bottom face of the upper beam framework and used for installing a gate control assembly. According to the gate machine case provided by the embodiment of the invention, the number of abutted seams is remarkably reduced, almost no abutted seam exists in the appearance from a main view angle, and the overall structural strength of the gate machine can be improved.

Description

Technical Field

[0001] This application relates to the technical field of pedestrian access gates, and particularly to a gate machine chassis and a manufacturing method thereof. Background Art

[0002] Currently, common gate machines include: a chassis, a movement, a gate, and a control component, etc.; among them, the movement, the gate, and the control component are installed on the chassis, and the gate is located between two chassis, and the opening and closing of the gate are controlled by the control component.

[0003] Among them, the gate machine skeleton of the gate machine usually consists of a "mouth"-shaped outer skeleton composed of 2 vertical outer side barrels and 2 upper and lower outer cross beams and an inner skeleton that connects and strengthens them. This kind of gate machine needs to be externally processed to splice the vertical side barrels and the upper and lower cross beams to form the gate machine skeleton. That is, through screw splicing or welding, the originally unconnected vertical side barrels and the upper and lower cross beams are spliced to form the gate machine skeleton.

[0004] However, multiple splicing of the vertical side barrels and the upper and lower cross beams by screw splicing or welding will consume a large amount of processing man-hours. Moreover, for the gate machine skeleton formed by splicing multiple parts by external processing means, there will inevitably be multiple external splicing seams at the splicing positions. The existence of multiple external splicing seams will lead to a weakening of the overall structural strength of the gate machine, and most importantly, as a high-end machine, the splicing feeling is strong and it is not beautiful. Summary of the Invention

[0005] The purpose of the embodiments of this application is to provide a gate machine chassis and a manufacturing method thereof to improve the overall structural strength of the gate machine.

[0006] The specific technical solutions are as follows:

[0007] This application provides a gate machine chassis, which includes: an integrally bent skeleton and a device box;

[0008] The integrally bent skeleton is an integrally bent skeleton formed by repeatedly bending a long straight profile with a preset length in the same plane, and includes an upper beam skeleton, a first side skeleton, and a second side skeleton;

[0009] The first side skeleton and the second side skeleton extend downward from both ends of the upper beam skeleton in the length direction by a preset height and then are connected to the installation plane to support the upper beam skeleton; the preset height is greater than the height of the gate machine movement;

[0010] The top surface of the upper beam skeleton is used to install the gate machine display component;

[0011] The device box is installed on the bottom surface of the upper beam skeleton along the length direction of the upper beam skeleton and is used to install the gate machine control component and the gate machine movement.

[0012] The present application also provides a method for manufacturing a gate machine chassis, the method comprising:

[0013] Produce long straight profiles and device boxes with preset lengths;

[0014] The long straight profile comprises: an integrally formed first profile bottom plate and first profile side plates on opposite sides of the first profile bottom plate; the first profile bottom plate and the first profile side plates on both sides form a cover body mounting groove; a mounting step is provided on the top of the cover body mounting groove;

[0015] Two lower tooling support blocks are respectively installed on both sides of the profile side plate; the lower tooling support blocks partially fill the guide grooves on both sides of the width direction of the first profile bottom plate, and the other part is attached to the profile side plate;

[0016] Install tooling filling blocks in the undercut grooves located on both sides of the cover body installation groove, respectively, so that each tooling filling block is attached to the side wall of the undercut groove;

[0017] An upper tooling support block is installed in the cover body installation groove; so that the two ends of the upper tooling support block are attached to the top of the profile side plate, the installation step, the top of the guide groove protruding from the cover body installation groove, and the tooling filling block;

[0018] The long straight profile is bent multiple times in the same plane to form an integrated bent frame including an upper beam frame, a first side frame and a second side frame;

[0019] The device box is installed on the bottom surface of the upper beam frame along the length direction of the upper beam frame.

[0020] Beneficial effects of the embodiments of the present application:

[0021] The embodiment of the present application provides a gate chassis and a manufacturing method, wherein a long straight profile is bent into a frame having an upper beam frame, a first side frame, and a second side frame. Since the integral bent frame is integrally formed from a complete profile, no external processing such as screw splicing or welding is required, thereby effectively improving the structural strength of the integral bent frame, and further improving the overall structural strength of the gate. In addition, since the integral bent frame 1 is integrally formed, the structural strength is relatively large, so that under the same strength requirements, the overall size of the gate is thinner and smaller.

[0022] Meanwhile, since the integrally bent skeleton does not require external processing such as screw splicing or welding, the number of seams between the upper beam skeleton, the first side skeleton, and the second side skeleton is significantly reduced, and external seams are hardly observable from the main perspective. This makes it difficult for impurities such as dust and steam in the external environment to enter the interior of the integrally bent skeleton. Thus, it effectively improves the problem that impurities in the external environment enter the turnstile, resulting in short circuits of internal electronic devices of the turnstile and even shortening the service life of the turnstile.

[0023] Of course, it is not necessary for any product or method implementing this application to achieve all of the above-mentioned advantages simultaneously. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] To more clearly illustrate the technical solutions in the embodiments of the present application or the prior art, the following will briefly introduce the drawings required for use in the description of the embodiments or the prior art. Obviously, the drawings in the following description are only some embodiments of the present application, and those of ordinary skill in the art can also obtain other embodiments based on these drawings.

[0025] Figure 1a Structural schematic diagram of the turnstile housing provided by the embodiment of the present application;

[0026] Figure 1b For Figure 1a exploded view of the turnstile housing shown;

[0027] Figure 2a Structural schematic diagram of the integrally bent skeleton with an open cross-section adopted by the embodiment of the present application;

[0028] Figure 2b For Figure 2a cross-sectional view of the integrally bent skeleton shown in the AA direction;

[0029] Figure 2c Structural schematic diagram of the integrally bent skeleton with a fully enclosed cross-section adopted by the embodiment of the present application;

[0030] Figure 2d For Figure 2c cross-sectional view of the integrally bent skeleton shown in the BB direction;

[0031] Figure 3a Bottom view of the top cover;

[0032] Figure 3b Structural schematic diagram of the side cover;

[0033] Figure 4a Cross-sectional view of the device box near the first side skeleton;

[0034] Figure 4b Cross-sectional view of the device box near the second side skeleton;

[0035] Figure 5a Schematic diagram of the structure of the first sub-device gate or the second sub-device gate;

[0036] Figure 5b Exploded view of the device box near the first side frame;

[0037] Figure 5c Exploded view of the device box near the second side frame;

[0038] Figure 5d Cross-sectional view of the device box installed on the integrally bent frame;

[0039] Figure 5e Partial structural schematic diagram of the turnstile chassis provided by the present application without the movement installed;

[0040] Figure 5f Partial structural schematic diagram of the turnstile chassis provided by the present application with the movement installed;

[0041] Figure 5g Schematic diagram of the structure of the L-shaped device mounting plate;

[0042] Figure 5h Side view of the L-shaped device mounting plate;

[0043] Figure 6a Cross-sectional view of the device box after installing the baffle;

[0044] Figure 6b Bottom view of the device box during disassembly and assembly;

[0045] Figure 6c Front view of the device box during disassembly and assembly;

[0046] Figure 7a For Figure 2a Partial enlarged view of M1 in

[0047] Figure 7b For Figure 2a Partial enlarged view of M2 in

[0048] Figure 8a Partial cross-sectional view after the top cover is installed on the integrally bent frame;

[0049] Figure 8b Assembly relationship diagram of the side cover and the integrally bent frame;

[0050] Figure 8c Partial cross-sectional view of the cooperation between the slot plate and the slot;

[0051] Figure 9a For Figure 3b Partial enlarged view of M3 in

[0052] Figure 9b Partial enlarged view after the side cover and the top cover are installed;

[0053] Figure 9c Schematic structural view of the fixed connection between the side cover and the top cover;

[0054] Figure 9d is Figure 9c Cross-sectional view of;

[0055] Figure 10 Schematic structural view of the bottom cross beam installed on the integrally bent skeleton;

[0056] Figure 11a Schematic structural view of the lower cover of the turnstile installed on the integrally bent skeleton;

[0057] Figure 11b is Figure 11a Partial cross-sectional view of;

[0058] Figure 11c Schematic structural view of the first installation sink or the second installation sink;

[0059] Figure 12a Schematic structural view of the first sub-lower cover door and the second sub-lower cover door;

[0060] Figure 12b Schematic structural view of the lower cover door;

[0061] Figure 13a Schematic structural view of the L-shaped installation box;

[0062] Figure 13b Schematic structural view of the L-shaped installation box installed on the integrally bent skeleton;

[0063] Figure 13c Schematic structural view of the fixed connection between the L-shaped installation box and the lower cover of the turnstile;

[0064] Figure 13d Schematic structural view when the L-shaped installation box is fixedly connected to the bottom cross beam;

[0065] Figure 13e is Figure 13d Schematic structural view from another perspective;

[0066] Figure 13f Schematic structural view of the installation box fixing plate installed on the integrally bent skeleton;

[0067] Figure 13g Cross-sectional view of the fixed connection between the L-shaped installation box and the installation box fixing plate;

[0068] Figure 14 Schematic structural view of another integrally bent skeleton provided by the present application;

[0069] Figure 15a Flow chart of the manufacturing method of the turnstile provided in this application;

[0070] Figure 15b Schematic diagram of the bending process of the integrally bent skeleton provided in this application;

[0071] Figure 15c Cross-sectional view of the tooling support for the integrally bent skeleton.

[0072] Reference numerals:

[0073] Integrally bent skeleton 1, turnstile display component 10, upper beam skeleton 11, L-shaped positioning plate 111, upper beam bending part 112, upper beam straight part 113, top cover positioning hole 1131, second side cover connection hole 1132, non-loosening screw 1133, first side skeleton 12, first installation sinking groove 121, second side skeleton 13, second installation sinking groove 131, bottom cross beam 14, bottom beam mounting plate 141, first bottom beam mounting hole 1411, first bottom skeleton 15, second bottom skeleton 16; device box 2, L-shaped device mounting plate 21, device mounting bottom plate 211, baffle mounting guide groove 2111, device box fixing block 2112, first movement avoidance groove 2113, device mounting side plate 212, upper fixing plate 2121, device door 22, device door bottom plate 221, device door side plate 222, device box positioning groove 2221, first sub-device door 223, second sub-device door 224; first profile bottom plate 31, guide groove 311, first profile side plate 32, cover mounting groove 33, mounting step 331, card slot plate 332, profile top plate 34, reinforcing rib 35, second profile bottom plate 36, second profile side plate 37; cover body 4, top cover 41, top cover fixing part 411, top cover positioning part 4111, first side cover connection hole 4112, side cover 42, side cover straight part 421, card slot 4211, side cover bending part 422, side cover connecting part 4221, rib position bump 4222; turnstile lower cover 5, lower cover mounting plate 51, second movement avoidance groove 511, lower cover door 52, first sub-lower cover door 521, second sub-lower cover door 522, baffle accommodating hole 53; L-shaped mounting box 6, mounting box bottom plate 61, bottom beam limiting plate 611, mounting box side plate 62, lower cover fixing plate 621, lower cover fixing hole 6211, second bottom beam mounting hole 622, first mounting box fixing hole 623; mounting box fixing plate 7, second mounting box fixing hole 71; gate assembly 8, gate 81, turnstile movement 82, upper air switch cover 83, lower air switch cover 84, movement back plate 85; lower tooling support block 91, tooling filling block 92, upper tooling support block 93; baffle 100. Detailed implementation mode

[0074] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present application. Obviously, the described embodiments are only a part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those of ordinary skill in the art based on the present application belong to the scope of protection of the present application.

[0075] In the related art, to make an integrated chassis skeleton, only the upper and lower cross beams and the left and right side barrels can be welded and polished, and then the appearance can be repaired by patching and wire drawing, and the position can be sprayed, and then forced to be welded together. There will also be grinding transition marks in the splicing transition area of this conventional welding process, with large deformation and high shaping costs, resulting in too high cost and extremely low cost performance. The present application can select aluminum profiles as materials and adopt an integrated bending technology that is low-cost and environmentally friendly. Just bending a single aluminum profile can form a complete skeleton for the appearance of the turnstile, with high strength, no need for an internal skeleton, and a strong sense of unity in appearance. This process can make the turnstile extremely slender and lightweight. And thinness and miniaturization are important trends in modern consumer products. This case provides an idea for the design of new turnstiles in the industry.

[0076] The present application provides a turnstile chassis, as Figure 1a and Figure 1b shown, Figure 1a is a schematic structural diagram of the turnstile chassis provided by the embodiment of the present application, Figure 1b is Figure 1a the exploded view of the turnstile chassis shown. The turnstile chassis includes: an integrated bending skeleton 1 and a device box 2; the integrated bending skeleton 1 is an integrated skeleton formed by bending a long straight profile with a preset length multiple times in the same plane, including an upper beam skeleton 11, a first side skeleton 12, and a second side skeleton 13; the first side skeleton 12 and the second side skeleton 13 extend downward from both ends of the length direction of the upper beam skeleton 11 by a preset height and then are connected to the installation plane to support the upper beam skeleton 11; the preset height is greater than the height of the turnstile movement 82; as Figure 3a shown, the top surface of the upper beam skeleton 11 is used to install the turnstile display component 10; the device box 2 is installed on the bottom surface of the upper beam skeleton 11 along the length direction of the upper beam skeleton 11 and is used to install the turnstile control component and the turnstile movement 82.

[0077] In this embodiment, refer to Figure 1bA long straight profile is bent into a framework with an upper beam framework 11, a first side framework 12, and a second side framework 13. Since the integrally bent framework 1 is integrally formed from a complete profile, external processing such as screw splicing or welding is not required, thereby effectively improving the structural strength of the integrally bent framework 1 and further enhancing the overall structural strength of the turnstile. Moreover, due to the integrally formed integrally bent framework 1 having relatively high structural strength, under the same strength requirements, the overall size of the turnstile can be made thinner and smaller.

[0078] Meanwhile, since the integrally bent framework 1 does not require external processing such as screw splicing or welding, the number of seams between the upper beam framework 11, the first side framework 12, and the second side framework 13 is significantly reduced, and almost no external seams can be observed from the main perspective. This makes it difficult for impurities such as dust and steam in the external environment to enter the interior of the integrally bent framework 1. Thus, it effectively improves the problem that impurities in the external environment enter the turnstile, causing short circuits in the internal electronic components of the turnstile and even shortening the service life of the turnstile.

[0079] In some embodiments of the present application, as Figure 2a and Figure 2b shown, Figure 2a is a schematic structural diagram of an integrally bent framework with an open cross-section according to an embodiment of the present application, Figure 2b is Figure 2a a cross-sectional view of the integrally bent framework shown in the AA direction. The long straight profile with a preset length is a first long straight profile, and the first long straight profile includes: a first profile bottom plate 31 integrally formed and first profile side plates 32 on opposite sides of the first profile bottom plate; the first profile bottom plate 31 and the first profile side plates 32 on both sides form a cover body installation groove 33. As Figure 3a and Figure 3b shown, Figure 3a is a bottom view of the top cover, Figure 3b is a schematic structural diagram of the side cover. The turnstile chassis further includes: a cover body 4, including a top cover 41 and two side covers 42, which are respectively used to cover the top surface of the upper beam framework 11 and the outer sides of the first side framework 12 and the second side framework 13; the turnstile display component 10 is installed on the top cover 41; an installation step 331 is provided at the top of the cover body installation groove 33; the installation step 331 of the cover body installation groove 33 at the position of the upper beam framework 11 is used to install the top cover 41; the installation step 331 of the cover body installation groove 33 at the positions of the first side framework 12 and the second side framework 13 is used to install the two side covers 42.

[0080] In this embodiment, as Figure 2bAs shown, the long straight profile has a cover body mounting groove 33. Therefore, the integrally bent skeleton 1 formed by bending the long straight profile also has the same cover body mounting groove 33. On both sides of the top of the cover body mounting groove 33, there are mounting steps 331. The side of the top cover 41 and the two side covers 42 facing the integrally bent skeleton 1 can be embedded into the mounting steps 331 in the cover body mounting groove 33 to achieve screwless splicing or welding fit. The gate display component 10 has functions such as WIFI, SUB1G remote control (a remote control technology using the 2.4GHz frequency band for wireless communication), NFC, palm vein, card swiping, and two-dimensional code.

[0081] Since the top of the cover body mounting groove 33 of the integrally bent skeleton 1 is open, when the cover body 4 of the gate chassis is damaged, the cover body 4 can be removed for timely replacement, effectively reducing the maintenance cost.

[0082] In the related art, taking aluminum profiles as an example, in order to reduce the deformation at the bending part of the integrally bent aluminum profiles, the cross-section of the aluminum profiles needs to be designed as a simple conventional cross-section (such as an L-shaped cross-section, a square tube aluminum profile, or a C-shaped or round tube cross-section), and it is required that in the bending direction, the total thickness of the aluminum material needs to be kept below 20mm (the thickness in this embodiment is 32.5mm) to control the deformation amount generated under natural bending within 1mm. If the deformation amount needs to be completely controlled to obtain a smaller deformation, it is also necessary to cut out a preset process groove at the local part of the aluminum profile with a thickness greater than 20mm so that there is no material extrusion during bending. And after the bending process is completed, it is also necessary to polish and spray the position where the process groove is cut out to remove the cutting marks. The above processing process will cause a significant increase in the processing cost of the product.

[0083] At the same time, when bending profiles with a greater thickness, the amount of deformation generated is large, and integrally bent profiles are usually used in the curtain wall aluminum profile skeleton in the construction industry or bent chair legs. Usually, no corresponding cover body is provided for cooperation at the bending part of the profile or the bending part is located in a place that users do not pay attention to. In this application, the bending position is set near the gate panel that interacts with the user's hand, and higher requirements are placed on deformation and aesthetics. Moreover, the cross-section of the integrally bent skeleton 1 provided in this application is not a conventional simple cross-section, but a cross-section with a complex opening similar to an inverted trapezoid bend. Therefore, it is particularly important to design the tooling during the bending process and use the cover body 4 to cooperate with the integrally bent skeleton 1.

[0084] In this embodiment, the integrally bent framework 1 adopted can use aluminum profiles as the profiles of the integrally bent framework. The cross-section of the integrally bent framework 1 is set as an open cross-section with one side open. The length of the aluminum profile can be 3.4 m, and the thickness can be 32.5 mm (the thickness can be thicker, considering aesthetics of being strong rather than too thin). Moreover, it can be integrally formed by bending, having better structural strength and reducing external joints. During actual production, other types of materials can be selected, and different lengths and thicknesses can be chosen. Different cross-sectional shapes can also be selected, for example, profiles with closed cross-sections or profiles with other special-shaped cross-sections. As long as the integrally bent formation of the integrally bent framework can be achieved.

[0085] In some embodiments of the present application, there is also provided the bent hanging framework 1 with a closed cross-section as described above, as Figure 2c and Figure 2d shown, Figure 2c is a schematic structural diagram of the integrally bent framework with a fully closed cross-section adopted in the embodiment of the present application, Figure 2d and Figure 2c is a cross-sectional view of the integrally bent framework shown in the BB direction. The long straight profile with a preset length is the second long straight profile, and the second long straight profile includes: a second profile bottom plate 36 integrally formed, second profile side plates 37 on both opposite sides of the bottom plate, and a profile top plate 34; the second profile bottom plate 36, the second profile side plates 37, and the profile top plate 34 enclose a ticket gate display component accommodation area; the profile top plate 34 is provided with display component mounting holes for mounting the ticket gate display component 10.

[0086] In this embodiment, as Figure 2d shown, the long straight profile has a closed cross-section, so that the profile top plate 34 of the integrally bent framework 1 formed by bending the long straight profile can be integrally formed with the integrally bent framework 1, thereby providing protection for the ticket gate chassis.

[0087] During actual production, the integrally bent framework 1 with an open cross-section or the integrally bent framework 1 with a closed cross-section can be selected according to actual needs. The other structures of the two integrally bent frameworks 1 are the same. Below, taking the integrally bent framework 1 with an open cross-section as an example, the ticket gate provided by the present application will be described.

[0088] In some embodiments of the present application, as Figure 2a , Figure 2b , Figure 4a and Figure 4b shown, Figure 4a is a cross-sectional view of the device box near the first side framework; Figure 4bCross-sectional view of the device box near the second side frame. The long straight profile with a preset length is the first long straight profile; on both sides of the first profile bottom plate 31 in the width direction, two parallel guiding grooves 311 are formed, and each guiding groove 311 is arranged along the length direction of the first profile bottom plate 31; the openings of the two guiding grooves 311 are located on the side of the first profile bottom plate 31 facing away from the cover 4; the device box 2 includes an L-shaped device mounting plate 21 and a device door 22; the L-shaped device mounting plate 21 includes a device mounting bottom plate 211 and a device mounting side plate 212; wherein, the outer edge of the device mounting side plate 212 is inserted into a guiding groove 311 and moves along the guiding groove 311 to the lower part of the upper beam frame 11; the device mounting bottom plate 211 is fixedly connected to the first side frame 12 and the second side frame 13 respectively through two device box fixing blocks 2112 arranged at both ends of the device mounting bottom plate 211; the device door 22 includes a device door bottom plate 221 and a device door side plate 222; the device door bottom plate 221 is fixedly connected to the device mounting bottom plate 211; the outer edge of the device door side plate 222 is inserted into the other guiding groove 311 and moves along the guiding groove 311 to the lower part of the upper beam frame 11, and cooperates with the L-shaped device mounting plate 21 to accommodate devices.

[0089] In this embodiment, as Figure 2a and Figure 2b shown, on the planes on both sides of the first profile bottom plate 31 in the width direction, the side facing the opening is recessed to form two parallel guiding grooves 311. The device mounting side plate 212 of the L-shaped device mounting plate 21 and the device door side plate 222 of the device door 22 can be respectively inserted into the two guiding grooves 311 and move to the lower part of the upper beam frame 11. Both ends of the device mounting bottom plate 211 of the L-shaped device mounting plate 21 and both ends of the device door bottom plate 221 of the device door 22 are attached to the first side frame 12 and the second side frame 13, so as to realize the airtight installation of the device box 2. The L-shaped device mounting plate 21 and the device door 22 can cooperate with each other, so that the L-shaped device mounting plate 21, the device door 22 and the integrally bent frame 1 enclose the device box 2 to accommodate devices.

[0090] At the same time, as Figure 4a shown, one side of the device box fixing blocks 2112 located at both ends of the L-shaped device mounting plate 21 is attached to the first side frame 12 or the second side frame 13 and fixedly connected to the first side frame 12 or the second side frame 13 it is attached to. The other side is attached to the device mounting bottom plate 211 of the L-shaped device mounting plate 21 and fixedly connected to it. So that the device box 2 can be fixed to the integrally bent frame 1 through the device box fixing blocks 2112.

[0091] In some implementations of the present application, as Figures 5a to 5c shown, Figure 5a is the structural schematic diagram of the first sub-device door or the second sub-device door.Figure 5b Explosion view of the device box near the first side frame Figure 5c Explosion view of the device box near the second side frame. On the device mounting side plate 212 of the L-shaped device mounting plate 21, there is an upper fixing plate 2121 extending towards the device door 22; the upper fixing plate 2121 and the top of the device mounting side plate 212 form a stepped structure; the top of the upper fixing plate 2121 is fixedly connected to the bottom of the first profile bottom plate 31 of the upper beam frame 11. On the device door side plate 222 of the device door 22, there is an extension extending towards the inner side of the L-shaped device mounting plate 21, and the extension is open towards the side of the upper beam frame 11 to form a device box positioning groove 2221; on the side of the first profile bottom plate 31 of the upper beam frame 11 away from the upper beam frame 11, there is an L-shaped positioning plate 111 extending downward; the horizontal plate of the L-shaped positioning plate 111 is fixedly connected to the bottom of the first profile bottom plate 31, and the vertical plate of the L-shaped positioning plate 111 is inserted into the device box positioning groove 2221 to position the device door 22 and the upper beam frame 11.

[0092] In this embodiment, the upper fixing plate 2121 is located on the side of the device mounting side plate 212 of the L-shaped device mounting plate 21 facing the device door 22, and the upper fixing plate 2121 and the first profile bottom plate 31 of the upper beam frame 11 can be fixedly connected by rivets. The rivets used for connection and the device box 2 and the top cover 41 cover the connection position, and the connection position is not communicated with the external environment of the turnstile chassis, which can effectively improve the problem that impurities in the external environment enter the turnstile, resulting in short circuit of the internal electronic devices of the turnstile and even shortening the service life of the turnstile. The device box positioning groove 2221 is located on the side of the device door side plate 222 of the device door 22 facing the L-shaped device mounting plate 21, and can cooperate with the L-shaped positioning plate 111 of the first profile bottom plate 31 of the upper beam frame 11, so as to provide positioning for the installation of the device door 22.

[0093] At the same time, as Figure 5d shown, Figure 5d Cross-sectional view of the device box installed on the integrally bent frame. An elastic member is provided between the L-shaped positioning plate 111 of the upper beam frame 11 and the device door side plate 222. The elastic member can compact the L-shaped positioning plate 111 and the device door side plate 222, further improving the stability between the two. And, due to the compaction between the L-shaped positioning plate 111 and the device door side plate 222, the adaptive deformation of the device box 2 can be reduced, thereby improving the service life of the turnstile chassis.

[0094] In the actual production process, the device door 22 can also be replaced by other structures. For example, a glass cover plate can be inserted into the guiding groove 311 and cooperate with the L-shaped device mounting plate 21 to form the device box 2. Other structures can also be selected according to actual needs as long as they can form the device box 2 with the L-shaped device mounting plate 21.

[0095] In some embodiments of the present application, such as Figure 5e and Figure 5f shown, Figure 5e is a schematic structural view of the turnstile chassis provided by the present application when the movement is not installed, Figure 5f is a schematic structural view of the turnstile chassis provided by the present application when the movement is installed. The device door 22 includes: a first sub-device door 223 and a second sub-device door 224; a first side frame 12 and a second side frame 13, and a movement backplane 85 is arranged at the middle position; the movement backplane 85 extends downward from the upper beam frame 11 and is used for installing the turnstile movement 82; the first sub-device door 223 and the second sub-device door 224 are respectively installed on both sides of the movement backplane 85; the L-shaped device mounting plate 21 cooperates with the first sub-device door 223 and the second sub-device door 224 at the same time; the device door 22 forms a first accommodation space with the first sub-device door 223 and a second accommodation space with the second sub-device door 224.

[0096] In this embodiment, the number of device doors 22 is two. Among them, the first sub-device door 223 and the second sub-device door 224 are respectively located on both sides of the movement backplane 85, and a gap capable of accommodating the turnstile movement 82 is formed therebetween. Such as Figure 5g shown, Figure 5g is a schematic structural view of the L-shaped device mounting plate. The number of L-shaped device mounting plates 21 is one, and it can cooperate with the first sub-device door 223 and the second sub-device door 224 at the same time to respectively form two accommodation spaces.

[0097] In some embodiments of the present application, such as Figure 5b , Figure 5c , Figure 5g and Figure 5h shown, Figure 5h is a side view of the L-shaped device mounting plate. On the device mounting bottom plate 211 of the L-shaped device mounting plate 21, a baffle mounting guide groove 2111 is arranged on the side away from the upper beam frame 11; on the baffle mounting guide groove 2111, an opening is arranged on the side away from the device mounting bottom plate 211 for installing the baffle 100; at the position corresponding to the turnstile movement 82 on the device mounting bottom plate 211 of the L-shaped device mounting plate 21, a first movement avoidance groove 2113 is arranged for accommodating the turnstile movement 82 and the movement backplane 85.

[0098] In this embodiment, such as Figure 6a shown, Figure 6a is a cross-sectional view of the device box after the baffle is installed. The baffle mounting guide groove 2111 on the device mounting bottom plate 211 of the L-shaped device mounting plate 21 can enable the baffle 100 to be inserted, so as to form a fixation. On the device mounting bottom plate 211 of the L-shaped device mounting plate 21, a first movement avoidance groove 2113 is arranged, and the turnstile movement 82 and the movement backplane 85 can be installed therein.

[0099] For the device box 2 in the above embodiments, aluminum profiles with local stiffeners and a thickness of 1.5 mm can be selected. In terms of width, the L-shaped device mounting plate 21 and the device door 22 can be inserted into the guiding groove 311 and form a fit. In terms of length, as Figure 4a and Figure 4b shown, there is no contact between the outer edge of the device box 2 inserted into the guiding groove 311 and the inner wall of the guiding groove 311, and there is a certain distance between the two, so as to facilitate the disassembly of the device box 2 and avoid the arc mismatch caused by bending deformation.

[0100] At the same time, after the device box 2 is inserted into the guiding groove 311, it can be compacted with the integrally bent skeleton 1. And because aluminum profiles with local stiffeners and a thickness of 1.5 mm are selected, after the device box 2 is inserted into the guiding groove 311, it can adaptively deform and can deform synchronously with the integrally bent skeleton 1. This makes the gap between the two smaller, thus effectively improving the problem that impurities in the external environment enter the turnstile, causing short circuits of the internal electronic devices of the turnstile and even shortening the service life of the turnstile.

[0101] As Figure 6b and Figure 6c shown, Figure 6b is the bottom view when the device box is disassembled and assembled, Figure 6c is the front view when the device box is disassembled and assembled. During the installation process, the L-shaped device mounting plate 21 and the device box 2 can be inserted into the guiding groove 311 so that there is a large space between their two ends and the inner wall of the guiding groove 311. After the two are moved below the upper beam skeleton 11, the L-shaped device mounting plate 21 can be fixed to the integrally bent skeleton 1 through the upper fixing plate 2121 and the device box fixing block 2112, and the device box 2 is matched with the L-shaped device mounting plate 21 to form the device box 2.

[0102] During the disassembly process, taking the device door 22 as an example, as Figure 6c shown, one end of the device door 22 can be first moved a certain distance towards the inner wall of the guiding groove 311 so that the other end of the device door 22 can be separated from the integrally bent skeleton 1 or a certain gap is generated between the device door 22 and the turnstile movement mechanism 82. Then the device door 22 is moved downward as a whole and one end is tilted downward to be separated from the integrally bent skeleton 1. The disassembly process of the L-shaped device mounting plate 21 is similar to that of the device door 22 and will not be elaborated here.

[0103] In some implementations of the present application, as Figure 4a and Figure 4bAs shown, the upper beam skeleton 11 has upper beam bending portions 112 at both ends in the length direction, and the area between the two upper beam bending portions 112 is the upper beam straight portion 113; the first side skeleton 12 and the second side skeleton 13 extend downward from the two upper beam bending portions 112 by a preset height and then are connected to the installation plane. As Figure 6a As shown, the top cover 41 is embedded in the installation step 331 of the upper beam straight portion 113 of the upper beam skeleton 11; the two side covers 42 are both bent from a long straight profile to form a side cover straight portion 421 and a side cover bending portion 422 extending downward from one end of the side cover straight portion 421; the side cover bending portions 422 of the two side covers 42 are respectively embedded in the installation steps 331 of the upper beam bending portions 112 at both ends of the upper beam skeleton 11; the side cover straight portions 421 of the two side covers 42 are respectively embedded in the installation steps 331 of the first side skeleton 12 and the second side skeleton 13; both ends of the top cover 41 are fixedly connected to the side cover bending portions 422 of the two side covers 42 respectively.

[0104] In this embodiment, the top cover 41 is embedded in the upper beam straight portion 113 of the upper beam skeleton 11, and both sides of the bottom of the top cover 41 are respectively arranged in contact with the installation step 331. The side cover straight portions 421 of the two side covers 42 are respectively embedded in the first side skeleton 12 and the second side skeleton 13. Moreover, the side cover 42 faces the integrated bending skeleton 1, and is in contact with the installation step 331 of the first side skeleton 12 or the second side skeleton 13. The side cover bending portions 422 of the two side covers 42 are designed to be similar in shape to the upper beam bending portions 112 of the upper beam skeleton 11, so that the arcs of the two are similar, enabling the side cover bending portions 422 to cooperate with the upper beam bending portions 112, so that the side cover bending portions 422 of the two side covers 42 are respectively embedded in the upper beam bending portions 112 at both ends of the upper beam skeleton 11, and the inner side of the upper beam bending portion 112 is in contact with the installation step 331.

[0105] The width of the cover body 4 is designed to be similar in shape to the cover body installation groove 33, which can make both sides of the top cover 41 and the side covers 42 be in contact with the first profile side plate 32 of the integrated bending skeleton 1. Thus, the gap between the cover body 4 and the integrated bending skeleton 1 is small, effectively improving the problem that impurities in the external environment enter the turnstile, resulting in short - circuit of the internal electronic devices of the turnstile and even shortening the service life of the turnstile.

[0106] At the same time, the top cover 41 can select glass with a length of 1.3 m and capable of cooperating with the upper beam skeleton 11 as the material. Moreover, multiple functional modules can be fixed to the top cover 41 by gluing to achieve the integration of the turnstile functions.

[0107] In some implementations of the present application, as Figures 7a to 8b shown, Figure 7a is Figure 2a the partial enlarged view of M1 in Figure 7b is Figure 2aPartial enlarged view of M2 in the middle Figure 8a It is a partial cross-sectional view after the top cover and the integrally bent skeleton are installed Figure 8b It is an assembly relationship diagram of the side cover and the integrally bent skeleton. On the upper beam straight part 113 of the upper beam skeleton 11, top cover positioning holes 1131 are provided at both ends close to the two upper beam bending parts 112; on the top cover 41, top cover fixing parts 411 are provided at both ends close to the upper beam bending part 112; below the top cover fixing part 411, a top cover positioning part 4111 is provided for cooperation with the top cover positioning hole 1131; in the cover body installation grooves 33 of the first side skeleton 12 and the second side skeleton 13, a plurality of card slot plates 332 are provided; the plurality of card slot plates 332 are arranged at intervals along the extension direction of the cover body installation groove 33; on the side cover straight part 421 of the two side covers 42, a plurality of card slots 4211 are provided on the side facing the integrally bent skeleton 1; the plurality of card slots 4211 are used for one-to-one cooperation with the plurality of card slot plates 332.

[0108] In this embodiment, both ends of the top cover 41 can be inserted into the top cover positioning holes 1131 at both ends of the upper beam straight part 113 through the top cover positioning parts 4111 below the top cover fixing parts 411, so that the top cover 41 is positioned on the upper beam skeleton 11. After the top cover positioning part 4111 and the top cover positioning hole 1131 are matched, the displacement of the top cover 41 along the length direction of the upper beam straight part 113 can be restricted.

[0109] As Figure 8c shown Figure 8c It is a partial cross-sectional view of the cooperation between the card slot plate and the card slot. The two side covers 42 can be fixedly cooperated with the card slot plates 332 on the first side skeleton 12 and the second side skeleton 13 respectively through the card slots 4211 on the side cover straight part 421. After the card slots 4211 and the card slot plates 332 are matched, the displacement of the side cover straight part 421 of the side cover 42 along the thickness direction of the first side skeleton 12 or the second side skeleton 13 can be restricted.

[0110] In some implementations of this application, as Figures 9a to 9d shown Figure 9a is Figure 3b Partial enlarged view of M3 in the middle Figure 9b Partial enlarged view after the side cover and the top cover are installed Figure 9c It is a structural schematic diagram of the side cover and the top cover fixedly connected Figure 9d is Figure 9cCross-sectional view. On the top cover fixing part 411 of the top cover 41, a first side cover connection hole 4112 is further provided; on the side cover bending part 422 of each side cover 42, below the end connected to the top cover 41, a side cover connecting piece 4221 is provided; the side cover connecting piece 4221 passes through the first side cover connection hole 4112 to fixedly connect the side cover 42 and the top cover 41. On the upper beam straight part 113 of the upper beam skeleton 11, a second side cover connection hole 1132 is further provided; the bottom of the side cover connecting piece 4221 has a fixing opening; below the upper beam straight part 113 of the upper beam skeleton 11, a non-loosening screw 1133 is provided; the non-loosening screw 1133 passes through the second side cover connection hole 1132 and cooperates with the fixing opening of the side cover connecting piece 4221 to fixedly connect the side cover 42, the top cover 41 and the upper beam skeleton 11.

[0111] In this embodiment, the side cover connecting piece 4221 of the side cover 42 can pass through the first side cover connection hole 4112 on the top cover fixing part 411 of the top cover 41, so that the side cover 42 can be pressed on the top cover fixing part 411 of the top cover 41, thereby realizing the strong correlation fixation between the top cover 41 and the side cover 42.

[0112] The non-loosening screw 1133 below the upper beam straight part 113 passes through the second side cover connection hole 1132 of the upper beam skeleton 11 and cooperates with the fixing opening of the side cover connecting piece 4221, so that the non-loosening screw 1133 is fixedly connected to the side cover connecting piece 4221, and the displacement of the top cover 41 and the side cover bending part 422 of the side cover 42 along the thickness direction of the integrated bending skeleton 1 can be restricted. In this way, both the side cover 42 and the top cover 41 can be fixedly installed on the integrated bending skeleton 1, thereby enhancing the strong correlation fixation between the top cover 41 and the side cover 42.

[0113] During the installation process, as Figure 8b shown, first press the side cover bending part 422 of the side cover 42 on the top cover fixing part 411 of the top cover 41, and through the cooperation of the side cover connecting piece 4221 and the first side cover connection hole 4112, a fixation is formed between the side cover 42 and the top cover 41. During the cooperation process, the top cover 41 and the side cover 42 can be positioned by the positioning pins on both sides of the side cover connecting piece 4221 of the side cover bending part 422 and the positioning holes on both sides of the first side cover connection hole 4112. Then, slide the side cover 42 from top to bottom so that the slot plate 332 is inserted into the slot 4211. At this time, there is a preset gap between the slot plate 332 and the slot 4211, and it can slide freely before the side cover 42 is completely installed. Moreover, the non-loosening screw 1133 below the upper beam straight part 113 of the upper beam skeleton 11 passes through the second side cover connection hole 1132 and cooperates with the fixing opening of the side cover connecting piece 4221 to complete the initial fixation between the cover body 4 and the integrated bending skeleton 1.

[0114] After the initial fixation is completed, press the side cover bending part 422 of the side cover 42 to make the side cover bending part 422 adaptively deform to achieve automatic positioning. After the cover body 4 is embedded in the cover body installation groove 33 of the integrally bent skeleton, tighten the non-loosening screw 1133 to complete the installation of the cover body 4.

[0115] In actual production, a lamp hole can also be provided on the top cover 41 to install an indicator light.

[0116] In some embodiments of the present application, as Figure 10 shown, Figure 10 is a schematic structural diagram of the bottom cross beam installed on the integrally bent skeleton. At the bottom of the integrally bent skeleton 1, a bottom cross beam 14 is provided; one end of the bottom cross beam 14 is fixedly connected to the bottom of the first side skeleton 12, and the other end is fixedly connected to the bottom of the second side skeleton 13.

[0117] In this embodiment, both ends of the bottom cross beam 14 are fixedly connected to the first side skeleton 12 and the second side skeleton 13 respectively. The bottom cross beam 14 can provide a pulling force or a pushing force towards the middle position of the integrally bent skeleton 1 for the first side skeleton 12 and the second side skeleton 13 to reduce the deformation of the integrally bent skeleton 1.

[0118] In some embodiments of the present application, as Figure 11a and Figure 11b shown, Figure 11a is a schematic structural diagram of the lower cover of the turnstile installed on the integrally bent skeleton, Figure 11b is Figure 11a a partial cross-sectional view. The bottom cross beam 14 is provided with a groove structure at the bottom for accommodating the sensor device; the lower cover 5 of the turnstile is installed between the first side skeleton 12 and the second side skeleton 13; the first end of the lower cover 5 of the turnstile is matched with the bottom of the first side skeleton 12; the second end of the lower cover 5 of the turnstile is matched with the bottom of the second side skeleton 13; the lower cover 5 of the turnstile covers the upper part of the bottom cross beam 14.

[0119] In this embodiment, the bottom cross beam 14 is provided with a groove structure at the bottom to accommodate the sensor device. Both ends of the lower cover 5 of the turnstile are also fixedly connected to the first side skeleton 12 and the second side skeleton 13 respectively. So that the lower cover 5 of the turnstile can cover the bottom cross beam 14 to provide protection for the bottom cross beam 14.

[0120] In some embodiments of the present application, as Figures 11a to 11c shown, Figure 11cIt is a schematic structural diagram of the first installation sink or the second installation sink. On one side of the bottom cross beam 14 installed on the first side frame 12, a first installation sink 121 is provided at the bottom; on one side of the bottom cross beam 14 installed on the second side frame 13, a second installation sink 131 corresponding to the position of the first installation sink 121 is provided at the bottom; the first installation sink 121 and the second installation sink 131 are respectively located between two guiding grooves 311 on the first side frame 12 and the second side frame 13; the lower cover 5 of the turnstile includes: a lower cover mounting plate 51 and a lower cover door 52; the first end of the lower cover mounting plate 51 is embedded in the first installation sink 121, and the second end is embedded in the second installation sink 131; the first end of the lower cover door 52 is embedded in the first installation sink 121, and the second end is embedded in the second installation sink 131; the lower cover door 52 cooperates with the lower cover mounting plate 51 to cover the bottom cross beam 14.

[0121] In this embodiment, the first installation sink 121 and the second installation sink 131 are respectively designed to be shaped like the two ends of the lower cover mounting plate 51 and the lower cover door 52, so that the two ends of the lower cover mounting plate 51 can be respectively inserted into the first installation sink 121 and the second installation sink 131. The lower cover mounting plate 51 and the lower cover door 52 are respectively located on both sides of the bottom cross beam 14 along the length direction, and the two ends of the lower cover mounting plate 51 are respectively inserted into the first installation sink 121 and the second installation sink 131. Moreover, the lower cover mounting plate 51 and the lower cover door 52 are fixedly combined to form the lower cover 5 of the turnstile. Since the first installation sink 121 and the second installation sink 131 are respectively located between the two guiding grooves 311 on the first side frame 12 and the second side frame 13, after the lower cover mounting plate 51 and the lower cover door 52 are installed, it will not affect the installation or disassembly of the device box 2.

[0122] In some implementations of the present application, as Figure 12a and Figure 12b shown, Figure 12a It is a schematic structural diagram of the first sub-lower cover door and the second sub-lower cover door, Figure 12b It is a schematic structural diagram of the lower cover door. The lower cover door 52 includes: a first sub-lower cover door 521 and a second sub-lower cover door 522; in the middle position between the first side frame 12 and the second side frame 13, a movement backplane 85 is provided; the movement backplane 85 extends downward from the upper beam frame 11 and is used for installing the turnstile movement 82; the first sub-lower cover door 521 and the second sub-lower cover door 522 are respectively installed on both sides of the movement backplane 85; the lower cover door 52 cooperates with both the first sub-lower cover door 521 and the second sub-lower cover door 522 at the same time; the lower cover door 52 forms a third accommodation space with the first sub-lower cover door 521 and a fourth accommodation space with the second sub-lower cover door 522; at the position corresponding to the turnstile movement 82 at the top of the lower cover mounting plate 51, a second movement avoidance groove 511 is provided for accommodating the turnstile movement 82 and the movement backplane 85.

[0123] In this embodiment, the number of the lower cover doors 52 is two. Among them, the first sub-lower cover door 521 and the second sub-lower cover door 522 are respectively located on both sides of the movement backplane 85, and a gap capable of accommodating the turnstile movement 82 is formed therebetween. The number of the lower cover mounting plates 51 is one, and it can cooperate with the first sub-lower cover door 521 and the second sub-lower cover door 522 at the same time to respectively form two accommodating spaces. The second movement avoidance groove 511 at the top of the lower cover mounting plate 51 can mount the turnstile movement 82 and the movement backplane 85 therein.

[0124] Meanwhile, as Figure 1a and Figure 11a shown, a plurality of opening structures are provided at the tops of the lower cover mounting plate 51 and the lower cover door 52; the plurality of opening structures of the lower cover mounting plate 51 cooperate with the opening structures at the corresponding positions on the lower cover door 52 to form a baffle accommodating hole 53 for mounting the baffle 100.

[0125] In some implementations of the present application, as Figures 13a to 13d shown, Figure 13a is a schematic structural diagram of an L-shaped mounting box, Figure 13b is a schematic structural diagram of the L-shaped mounting box mounted on the integrally bent skeleton, Figure 13c is a schematic structural diagram of the L-shaped mounting box fixedly connected to the turnstile lower cover, Figure 13d is a schematic structural diagram when the L-shaped mounting box is fixedly connected to the bottom cross beam. Two L-shaped mounting boxes 6 are respectively fixedly installed on one side of the first side skeleton 12 and the second side skeleton 13 for mounting the bottom cross beam 14; the two L-shaped mounting boxes 6 are arranged inside the first installation sink 121 and the second installation sink 131; each L-shaped mounting box 6 includes: a mounting box bottom plate 61 and a mounting box side plate 62; both sides of the mounting box bottom plate 61 have bottom beam limit plates 611 perpendicular to the mounting box bottom plate 61; both ends of the bottom cross beam 14 are respectively installed between the two bottom beam limit plates 611 on the two L-shaped mounting boxes 6 and fixedly connected to the L-shaped mounting box 6; at the top of each mounting box side plate 62, there is a lower cover fixing plate 621 extending towards the other mounting box side plate 62; the two lower cover fixing plates 621 are respectively fixedly connected to the connecting ends of the lower cover mounting plate 51 and the lower cover door 52.

[0126] In this embodiment, the two L-shaped mounting boxes 6 are respectively fixedly installed on the first side skeleton 12 and the second side skeleton 13. Since the L-shaped mounting boxes 6 are arranged inside the first installation sink 121 and the second installation sink 131, the lower cover mounting plate 51 and the lower cover door 52 can cover the two L-shaped mounting boxes 6.

[0127] Meanwhile, the spaced area formed between the two bottom beam limiting plates 611 of the L-shaped mounting box 6 is used for mounting the bottom cross beam 14. During installation, the bottom cross beam 14 is inserted into the spaced area and fixedly connected to the L-shaped mounting box 6. The two bottom beam limiting plates 611 can provide a positioning function for the installation of the bottom cross beam 14. Both ends of the lower cover 5 of the turnstile are fixedly installed on the lower cover fixing plates 621 of the two L-shaped mounting boxes 6 respectively, thereby realizing the fixed connection between the lower cover 5 of the turnstile and the L-shaped mounting box 6.

[0128] Through the L-shaped mounting box 6, the fixed installation of both the lower cover 5 of the turnstile and the bottom cross beam 14 relative to the integrally bent skeleton 1 can be realized simultaneously.

[0129] In some embodiments of the present application, as Figure 13a 、 Figure 13c and Figure 13e shown, Figure 13e is Figure 13d a structural schematic diagram from another perspective. The lower cover fixing plates 621 of each L-shaped mounting box 6 are respectively fixedly connected to the lower cover mounting plate 51 and the lower cover door 52 by screws; on the bottom cross beam 14, bottom beam mounting plates 141 are respectively arranged at both ends connected to the first side skeleton 12 and the second side skeleton 13; the two bottom beam mounting plates 141 are both parallel to the mounting box side plate 62; the bottom beam mounting plate 141 and the mounting box side plate 62 are fixedly connected by screws.

[0130] Specifically, each lower cover fixing plate 621 of the L-shaped mounting box 6 is provided with two lower cover fixing holes 6211; the two lower cover fixing holes 6211 are respectively fixedly connected to the lower cover mounting plate 51 and the lower cover door 52 by screws; on the bottom cross beam 14, bottom beam mounting plates 141 are respectively arranged at both ends connected to the first side skeleton 12 and the second side skeleton 13; the two bottom beam mounting plates 141 are both parallel to the mounting box side plate 62; each bottom beam mounting plate 141 is provided with a first bottom beam mounting hole 1411; at the position corresponding to the first bottom beam mounting hole 1411 on the mounting box side plate 62 of each L-shaped mounting box 6, a second bottom beam mounting hole 622 is provided; the bottom cross beam 14 is fixedly installed on the mounting box side plate 62 by screws passing through the first bottom beam mounting hole 1411 and the second bottom beam mounting hole 622.

[0131] In some embodiments of the present application, as Figure 13f and Figure 13g shown, Figure 13f is a structural schematic diagram of the mounting box fixing plate installed on the integrally bent skeleton, Figure 13gA cross-sectional view of the fixed connection between the L-shaped mounting box and the mounting box fixing plate. The turnstile chassis further includes: two mounting box fixing plates 7; the two mounting box fixing plates 7 are respectively arranged in the cover mounting grooves 33 of the first side frame 12 and the second side frame 13, at positions corresponding to each L-shaped mounting box 6; wherein, one mounting box fixing plate 7, the first side frame 12 and one mounting box side plate 62 are fixedly connected in sequence by screws; the other mounting box fixing plate 7, the second side frame 13 and the other mounting box side plate 62 are fixedly connected in sequence by screws.

[0132] Specifically, as Figure 13a shown, on the mounting box side plate 62, there is also provided: a first mounting box fixing hole 623; on the mounting box fixing plate 7, there is provided a second mounting box fixing hole 71 corresponding to the second bottom beam mounting hole 622 and the first mounting box fixing hole 623; a part of the screws pass through the first mounting box fixing hole 623, the integrally bent skeleton 1 and the second mounting box fixing hole 71, and another part of the screws pass through the first bottom beam mounting hole 1411, the second bottom beam mounting hole 622, the integrally bent skeleton 1 and the second mounting box fixing hole 71, so as to fixedly install the L-shaped mounting box 6, the bottom cross beam 14 and the mounting box fixing plate 7 on the integrally bent skeleton 1.

[0133] In some embodiments of the present application, there is also provided another integrally bent skeleton 1, as Figure 14 shown, Figure 14 is a schematic structural view of another integrally bent skeleton provided by the present application. One end of the first side frame 12 of the integrally bent skeleton 1, which is far from the upper beam frame 11, is bent towards the second side frame 13; after bending, the end of the first side frame 12, which is far from the upper beam frame 11, extends towards the second side frame 13 to form a first bottom frame 15; one end of the second side frame 13 of the integrally bent skeleton 1, which is far from the upper beam frame 11, is bent towards the first side frame 12; after bending, the end of the second side frame 13, which is far from the upper beam frame 11, extends towards the first side frame 12 to form a second bottom frame 16; the sides of the first bottom frame 15 and the second bottom frame 16, which are far from the upper beam frame 11, are installed on the installation plane.

[0134] In this embodiment, the first side frame 12 and the second side frame 13 are further bent to form the first bottom frame 15 and the second bottom frame 16.

[0135] In the actual production process, other integrally bent skeletons 1 with different shapes can also be selected according to actual needs, such as trapezoids and triangles, etc., as long as it can ensure integral molding, the number of seams is significantly reduced, and the seams caused by welding or screws are hardly observable from the main perspective.

[0136] In some embodiments of the present application, as Figure 2b 、Figure 2d , Figure 3b and Figure 9a As shown in Figure 2d , Figure 3b and Figure 9a , in the integrally bent framework 1, a plurality of reinforcing ribs 35 are arranged in the area between two guiding grooves 311, and the plurality of reinforcing ribs 35 are arranged at intervals; on the side cover bending part 422 of each side cover 42, on the side facing the upper beam bending part 112, a plurality of rib position bumps 4222 arranged in an array are provided.

[0137] In this embodiment, in the integrally bent framework 1, by arranging a plurality of spaced reinforcing ribs 35, the structural strength of the integrally bent framework 1 can be effectively improved. At the same time, since the reinforcing ribs 35 protrude from the integrally bent framework 1 and are in direct contact with the external environment. During the operation of the turnstile, the reinforcing ribs 35 can also act as heat dissipation fins to dissipate heat from the overall turnstile chassis, thereby increasing the service life of the turnstile.

[0138] As Figure 3b and Figure 9a shown, the side cover bending part 422 of the side cover 42 has rib position bumps 4222, and the rib position bumps 4222 can improve the structural strength of the side cover bending part 422 of the side cover 42. At the same time, since the plurality of rib position bumps 4222 are arranged in an array and have intervals therebetween, the side cover bending part 422 of the side cover 42 can undergo adaptive deformation, further reducing the gap between the side cover 42 and the integrally bent framework 1 after installation, and effectively improving the problem that impurities in the external environment enter the turnstile, resulting in short - circuit of the internal electronic devices of the turnstile and even shortening the service life of the turnstile.

[0139] This application also provides a turnstile, as Figure 1a and Figure 1b shown. The turnstile includes the turnstile chassis, turnstile movement, turnstile display component 10, turnstile control component and gate component 8 in any one of the above - mentioned embodiments; the gate component 8 includes a gate 81; the gate 81 is installed at the middle position between the first side - edge framework 12 and the second side - edge framework 13 through the turnstile movement 82. A movement backplane 85 is arranged at the middle position between the first side - edge framework 12 and the second side - edge framework 13; the gate component 8 further includes: an upper air switch cover 83 and a lower air switch cover 84; the upper air switch cover 83 and the lower air switch cover 84 are installed on the movement backplane 85 along the height direction; the upper air switch cover 83 and the lower air switch cover 84 are arranged at intervals; the turnstile movement 82 is installed in the interval area between the upper air switch cover 83 and the lower air switch cover 84 and is used to drive the gate 81 to open and close; on one side of the upper air switch cover 83 facing the first side - edge framework 12 or facing the second side - edge framework 13, an identity authentication module is provided for identifying user identity information and controlling the movement 82 to drive the gate 81 to open and close.

[0140] In this embodiment, there is a rotation gap between the upper surface and the lower surface of the gate movement 82 and the upper open cover 83 and the lower open cover 84, respectively, so that the gate movement 82 can rotate freely. The movement back plate 85 can serve as a movement skeleton to provide support for the gate assembly 8 and can also serve as an appearance decoration.

[0141] When the gate assembly 8 is in a closed state, the gate 81 is perpendicular to the extension direction of the upper beam frame 11 ; when the gate assembly 8 is in an open state, the gate 81 is parallel to the extension direction of the upper beam frame 11 .

[0142] The present application also provides a method for manufacturing a gate machine chassis, such as Figure 15a , Figure 15b and Figure 15c As shown, Figure 15a A flowchart of a method for manufacturing a gate provided in this application, Figure 15b A schematic diagram of the bending process of the integrated bending frame provided in this application, Figure 15c This is a cross-sectional view of a tooling support for an integral bending frame. The manufacturing method includes:

[0143] S100, manufacturing a long straight profile with a preset length and a device box 2; the long straight profile includes: an integrally formed first profile bottom plate 31 and first profile side plates 32 on opposite sides of the first profile bottom plate 31; the first profile bottom plate 31 and the first profile side plates 32 on both sides form a cover body installation groove 33; the top of the cover body installation groove 33 is provided with an installation step 331;

[0144] S200, two lower tooling support blocks 91 are respectively installed on both sides of the profile side plate 32; the lower tooling support block 91 partially fills the guide groove 311, and the other part is attached to the profile side plate 32;

[0145] S300, respectively installing tooling filling blocks 92 in the undercut grooves on both sides of the cover body installation groove 33, so that each tooling filling block 92 is attached to the side wall of the undercut groove;

[0146] S400, install the upper tooling support block 93 in the cover body mounting groove 33; so that the two ends of the upper tooling support block 93 are attached to the top of the profile side plate 32, the installation step 331, the guide groove 311 protruding from the top of the cover body mounting groove 33 and the tooling filling block 92.

[0147] S500, bending the long straight profile multiple times in the same plane to form an integrated bent frame 1 including an upper beam frame 11, a first side frame 12 and a second side frame 13;

[0148] S600 , installing the device box 2 on the bottom surface of the upper beam frame 11 along the length direction of the upper beam frame 11 .

[0149] In this embodiment, a long straight profile with a preset length is first made to reduce the difficulty of processing. A long straight profile is bent into a frame having an upper beam frame 11, a first side frame 12, and a second side frame 13. Since the integral bent frame 1 is integrally formed from a complete profile, no external processing such as screw splicing or welding is required, thereby effectively improving the structural strength of the integral bent frame 1, and further improving the overall structural strength of the gate.

[0150] At the same time, since the one-piece bending frame 1 does not require external processing such as screw splicing or welding, the number of joints between the upper beam frame 11, the first side frame 12 and the second side frame 13 is significantly reduced, and the existence of external joints is almost invisible from the main perspective. It is difficult for impurities such as dust and steam in the external environment to enter the interior of the one-piece bending frame 1. This effectively improves the problem of impurities in the external environment entering the gate, causing short circuits in the internal electronic devices of the gate, and even shortening the service life of the gate. Before the long straight profile is bent, the tooling support for the bending of the long straight profile can effectively improve the deformation of the cross section of the one-piece bending frame 1 caused by the bending.

[0151] In some embodiments of the present application, the manufacturing process of the long straight profile with a preset length includes:

[0152] A long straight plate-shaped substrate with a preset length is provided; the thickness of the plate-shaped substrate is not less than the thickness of the cross-sections of the upper beam frame 11 , the first side frame 12 and the second side frame 13 .

[0153] The long straight plate-shaped substrate is machined to form a long straight profile having a cover body installation groove 33 and a guide groove 311 ; a mounting step 331 is provided at the top of the cover body installation groove 33 .

[0154] Specifically, in this step, the long straight plate-shaped substrate can be machined to form an integrally formed first profile bottom plate 31 and first profile side plates 32 on opposite sides of the first profile bottom plate 31; the first profile bottom plate 31 and the first profile side plates 32 on both sides form a cover body mounting groove 33; a mounting step 331 is formed at the top of the cover body mounting groove 33; two guide grooves 311 are formed along both sides of the width direction of the profile bottom plate 31, and the notches of the two guide grooves 311 are located on the side of the profile bottom plate 31 facing away from the cover body 4;

[0155] On both sides of the cover body installation groove 33 , the installation steps 331 , the profile side plates 32 and the guide groove 311 protrude outward from the cover body installation groove 33 to form an undercut groove.

[0156] Thus, the above-mentioned step of installing the device box 2 on the bottom surface of the upper beam frame 11 along the length direction of the upper beam frame 11 may include:

[0157] The device box 2 is installed on the bottom surface of the upper beam skeleton 11 along the length direction of the upper beam skeleton 11 based on the guiding groove 311;

[0158] In addition, after bending the long straight profile multiple times in the same plane to form the integrated bent skeleton 1 including the upper beam skeleton 11, the first side skeleton 12, and the second side skeleton 13, the cover body 4 can also be installed in the cover body installation groove 33 of the integrated bent skeleton 1 based on the installation step 331.

[0159] The technical effects in this embodiment are the same as those in the foregoing embodiments, and will not be elaborated here too much.

[0160] It should be noted that in this article, relational terms such as first and second are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any actual relationship or order between these entities or operations. Moreover, the term "comprising", "including" or any other variant thereof is intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements not only includes those elements, but also includes other elements not expressly listed, or also includes elements inherent to such process, method, article or device. Without further limitation, an element defined by the phrase "including a..." does not exclude the presence of additional identical elements in the process, method, article or device including the said element.

[0161] Each embodiment in this specification is described in a related manner. The same or similar parts between the embodiments can be referred to each other, and the differences between each embodiment and other embodiments are emphasized. In particular, for the system embodiment, since it is basically similar to the method embodiment, the description is relatively simple, and the relevant parts can be referred to the description of the method embodiment.

[0162] The above are only the preferred embodiments of the present application and are not intended to limit the protection scope of the present application. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present application are included in the protection scope of the present application.

Claims

1. A ticket gate housing, characterized in that, Including: An integrally bent framework (1) and a device box (2); The integrally bent framework (1) is an integral framework formed by bending a long straight profile with a preset length multiple times in the same plane, and includes an upper beam framework (11), a first side framework (12) and a second side framework (13); The first side framework (12) and the second side framework (13) extend downward from both ends of the upper beam framework (11) in the length direction by a preset height and then are connected to the installation plane to support the upper beam framework (11); the preset height is greater than the height of the turnstile movement (82); The top surface of the upper beam framework (11) is used for installing the turnstile display component (10); The device box (2) is installed on the bottom surface of the upper beam framework (11) along the length direction of the upper beam framework (11) and is used for installing the turnstile control component and the turnstile movement (82).

2. The turnstile chassis according to claim 1, wherein The long straight profile with a preset length is a first long straight profile, and the first long straight profile includes: a first profile bottom plate (31) integrally formed and first profile side plates (32) on both opposite sides of the first profile bottom plate (31); the first profile bottom plate (31) and the first profile side plates (32) on both sides form a cover body installation groove (33); The turnstile chassis further includes: a cover body (4), including a top cover (41) and two side covers (42), which are respectively used for covering the top surface of the upper beam framework (11) and the outer sides of the first side framework (12) and the second side framework (13); the turnstile display component (10) is installed on the top cover (41); An installation step (331) is provided at the top of the cover body installation groove (33); The installation step (331) of the cover body installation groove (33) located at the upper beam framework (11) is used for installing the top cover (41); The installation step (331) of the cover body installation groove (33) located at the first side framework (12) and the second side framework (13) is used for installing the two side covers (42); or, The long straight profile with a preset length is a second long straight profile, and the second long straight profile includes: a second profile bottom plate (36) integrally formed, second profile side plates (37) on both sides of the bottom plate, and a profile top plate (34); the second profile bottom plate (36), the second profile side plates (37) and the profile top plate (34) enclose a turnstile display component accommodation area; the profile top plate (34) is provided with display component installation holes for installing the turnstile display component (10); One end of the first side framework (12) of the integrally bent framework (1) away from the upper beam framework (11) is bent towards the second side framework (13); after bending, the end of the first side framework (12) away from the upper beam framework (11) extends towards the second side framework (13) to form a first bottom framework (15); The second side frame (13) of the integrally bent frame (1) is bent towards the first side frame (12) at one end away from the upper beam frame (11); after bending, the second side frame (13) extends towards the first side frame (12) at one end away from the upper beam frame (11) to form a second bottom frame (16). One sides of the first bottom frame (15) and the second bottom frame (16) away from the upper beam frame (11) are mounted on the installation plane.

3. The turnstile chassis according to claim 2, wherein the long straight profile with a preset length is a first long straight profile. On both sides in the width direction of the first profile bottom plate (31), two parallel guiding grooves (311) are formed, and each guiding groove (311) is arranged along the length direction of the first profile bottom plate (31); the openings of the two guiding grooves (311) are located on the side of the first profile bottom plate (31) facing away from the cover body (4). The device box (2) includes an L-shaped device mounting plate (21) and a device door (22); the L-shaped device mounting plate (21) includes a device mounting bottom plate (211) and a device mounting side plate (212); wherein, the outer edge of the device mounting side plate (212) is inserted into one of the guiding grooves (311) and moves along the guiding groove (311) to the lower part of the upper beam frame (11); the device mounting bottom plate (211) is fixedly connected to the first side frame (12) and the second side frame (13) respectively through two device box fixing blocks (2112) arranged at both ends of the device mounting bottom plate (211). The device door (22) includes a device door bottom plate (221) and a device door side plate (222); the device door bottom plate (221) is fixedly connected to the device mounting bottom plate (211). The outer edge of the device door side plate (222) is inserted into the other guiding groove (311) and moves along the guiding groove (311) to the lower part of the upper beam frame (11) to cooperate with the L-shaped device mounting plate (21) to accommodate devices.

4. The turnstile chassis according to claim 3, wherein On the device mounting side plate (212) of the L-shaped device mounting plate (21), an upper fixing plate (2121) extending towards the device door (22) is provided; the upper fixing plate (2121) and the top of the device mounting side plate (212) form a stepped structure. The top of the upper fixing plate (2121) is fixedly connected to the bottom of the first profile bottom plate (31) of the upper beam frame (11); and / or On the device door side plate (222) of the device door (22), an extending portion extending towards the inner side of the L-shaped device mounting plate (21) is provided, and the extending portion is open towards the side of the upper beam frame (11) to form a device box positioning groove (2221). On one side of the first profile bottom plate (31) of the upper beam framework (11) away from the upper beam framework (11), there is an L-shaped positioning plate (111) extending downward; the horizontal plate of the L-shaped positioning plate (111) is fixedly connected to the bottom of the first profile bottom plate (31), and the vertical plate of the L-shaped positioning plate (111) is inserted into the device box positioning groove (2221) to position the device door (22) and the upper beam framework (11).

5. The turnstile chassis according to claim 3, wherein The device door (22) includes: a first sub-device door (223) and a second sub-device door (224); In the middle position between the first side framework (12) and the second side framework (13), there is a movement mechanism back plate (85); the movement mechanism back plate (85) extends downward from the upper beam framework (11) and is used for installing the turnstile movement mechanism (82); The first sub-device door (223) and the second sub-device door (224) are respectively installed on both sides of the movement mechanism back plate (85); The L-shaped device mounting plate (21) cooperates with the first sub-device door (223) and the second sub-device door (224) at the same time; the device door (22) forms a first accommodation space with the first sub-device door (223) and a second accommodation space with the second sub-device door (224); On one side of the device mounting bottom plate (211) of the L-shaped device mounting plate (21) away from the upper beam framework (11), there is a baffle mounting guide groove (2111); the baffle mounting guide groove (2111) is open on one side away from the device mounting bottom plate (211) and is used for installing the baffle (100); At the position of the device mounting bottom plate (211) of the L-shaped device mounting plate (21) corresponding to the turnstile movement mechanism (82), there is a first movement mechanism avoidance groove (2113) for accommodating the turnstile movement mechanism (82) and the movement mechanism back plate (85).

6. The turnstile chassis according to claim 3, wherein Both ends of the upper beam framework (11) in the length direction have upper beam bending parts (112), and the area between the two upper beam bending parts (112) is the upper beam straight part (113); the first side framework (12) and the second side framework (13) respectively extend downward by a preset height along the two upper beam bending parts (112) and then are connected to the installation plane; The top cover (41) is embedded in the installation step (331) of the upper beam straight part (113) of the upper beam framework (11). The two side covers (42) are each formed by bending a long straight profile, forming a side cover long straight portion (421) and a side cover bent portion (422) extending downward along one end of the side cover long straight portion (421); the side cover bent portions (422) of the two side covers (42) are respectively embedded in the installation steps (331) of the upper beam bent portions (112) at both ends of the upper beam skeleton (11); the side cover long straight portions (421) of the two side covers (42) are respectively embedded in the installation steps (331) of the first side skeleton (12) and the second side skeleton (13). Both ends of the top cover (41) are fixedly connected to the side cover bent portions (422) of the two side covers (42) respectively.

7. The turnstile chassis according to claim 6, wherein In the integrated bent skeleton (1), a plurality of reinforcing ribs (35) are arranged in the region between the two guiding grooves (311), and the plurality of reinforcing ribs (35) are arranged at intervals. On the side of each side cover bent portion (422) of each side cover (42) facing the upper beam bent portion (112), a plurality of rib position bumps (4222) arranged in an array are provided; and / or On the upper beam long straight portion (113) of the upper beam skeleton (11), top cover positioning holes (1131) are provided at both ends close to the two upper beam bent portions (112). On the top cover (41), top cover fixing portions (411) are provided at both ends close to the upper beam bent portion (112); below the top cover fixing portions (411), top cover positioning members (4111) are provided for cooperating with the top cover positioning holes (1131). In the cover body installation grooves (33) of the first side skeleton (12) and the second side skeleton (13), a plurality of card slot plates (332) are provided; the plurality of card slot plates (332) are arranged at intervals along the extending direction of the cover body installation groove (33). On the side of the side cover long straight portions (421) of the two side covers (42) facing the integrated bent skeleton (1), a plurality of card slots (4211) are provided; the plurality of card slots (4211) are used for corresponding cooperation with the plurality of card slot plates (332) one by one.

8. The turnstile chassis according to claim 3, wherein At the bottom of the integrated bent skeleton (1), a bottom cross beam (14) is provided; the first end of the bottom cross beam (14) is fixedly connected to the bottom of the first side skeleton (12), and the second end is fixedly connected to the bottom of the second side skeleton (13). The turnstile chassis further includes: a turnstile lower cover (5). The bottom of the bottom cross beam (14) is provided with a groove structure for accommodating sensor components. The turnstile lower cover (5) is installed between the first side skeleton (12) and the second side skeleton (13); the first end of the turnstile lower cover (5) is matched with the bottom of the first side skeleton (12); the second end of the turnstile lower cover (5) is matched with the bottom of the second side skeleton (13). The turnstile lower cover (5) covers the upper part of the bottom cross beam (14).

9. The gate machine chassis according to claim 8, characterized in that: One side of the bottom crossbeam (14) is mounted on the first side frame (12), and a first mounting recessed groove (121) is provided at the bottom; One side of the bottom crossbeam (14) is mounted on the second side frame (13), and a second mounting recessed groove (131) corresponding to the position of the first mounting recessed groove (121) is provided at the bottom; The gate machine chassis also includes: two L-shaped installation boxes (6); The two L-shaped installation boxes (6) are respectively fixedly installed on the first side frame (12) and the second side frame (13) on one side where the bottom cross beam (14) is installed; the two L-shaped installation boxes (6) are arranged on the inner sides of the first installation sink groove (121) and the second installation sink groove (131); Each of the L-shaped installation boxes (6) comprises: an installation box bottom plate (61) and an installation box side plate (62); both sides of the installation box bottom plate (61) are provided with bottom beam limit plates (611) perpendicular to the installation box bottom plate (61); both ends of the bottom cross beam (14) are respectively installed between the two bottom beam limit plates (611) on the two L-shaped installation boxes (6), and are fixedly connected to the L-shaped installation boxes (6); The top of each of the installation box side plates (62) is provided with a lower cover fixing plate (621) extending toward another of the installation box side plates (62); the two lower cover fixing plates (621) are respectively fixedly connected to the lower cover mounting plate (51) and the connecting end of the lower cover door (52) of the gate lower cover (5).

10. A method for manufacturing a gate machine chassis, characterized in that: Producing a long straight profile and a device box (2) with a preset length; The long straight profile comprises: an integrally formed first profile bottom plate (31) and first profile side plates (32) on opposite sides of the first profile bottom plate (31); the first profile bottom plate (31) and the first profile side plates (32) on both sides form a cover body installation groove (33); a mounting step (331) is provided at the top of the cover body installation groove (33); Two lower tooling support blocks (91) are respectively installed on both sides of the profile side plate (32); the lower tooling support blocks (91) partially fill the guide grooves (311) on both sides of the first profile bottom plate (31) in the width direction, and the other part is attached to the profile side plate (32); Install tooling filling blocks (92) in the undercut grooves located on both sides of the cover body installation groove (33) respectively, so that each tooling filling block (92) is attached to the side wall of the undercut groove; An upper tooling support block (93) is installed in the cover body installation groove (33); so that the two ends of the upper tooling support block (93) are attached to the top of the profile side plate (32), the installation step (331), the top of the portion of the guide groove (311) protruding from the cover body installation groove (33), and the tooling filling block (92); The long straight profile is bent multiple times in the same plane to form an integrally bent skeleton (1) including an upper beam skeleton (11), a first side skeleton (12), and a second side skeleton (13). The device box (2) is installed on the bottom surface of the upper beam skeleton (11) along the length direction of the upper beam skeleton (11).

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