Device integration with ceiling structure

Abstract

The application discloses a device integrated ceiling structure, relates to the technical field of integrated ceiling, and comprises an inner device layer, a node locking mechanism and a quasi-state layer. The inner device layer comprises a corrugated gauge plate, a device plate and a module joint plate. The corrugated gauge plate forms a corrugated structure distributed along the width direction and is provided with a notch one at both ends and both sides, and the notch one is open to the outside. A section between the notches one on both sides of the corrugated gauge plate is concave downward and forms a cable trench with a narrowed upper part and a widened lower part. The corrugated gauge plate is arranged in multiple and along the width direction. Two limiting plates are arranged on two plate surfaces of the module joint plate in the vertical and thickness directions respectively, and the two limiting plates on one side of the module joint plate are distributed upward and downward and form a limiting groove in the middle. The application has the effects of reducing the adaptation complexity of customized products and construction scenes and improving product compatibility.

Description

Technical Field

[0001] This application relates to the field of integrated ceiling technology, and in particular to an integrated ceiling structure for equipment. Background Technology

[0002] In building structures, equipment integration strips refer to facilities structures used to integrate fire sprinklers, lighting fixtures, various sensors, air conditioning vents and related cables, optimizing the layout of the ceiling space on each floor.

[0003] Equipment integration strips offer advantages such as aesthetics, neatness, and ease of centralized management for users. However, for construction companies, the integrated functions on these strips are diverse, and many customers have different choices depending on the application in office areas, shopping malls, cinemas, and entertainment venues. This results in high customization requirements for functions, specifications, and styles, leading to a high product customization rate, long component processing cycles, increased difficulty in multi-disciplinary collaboration on-site, and a potential increase in project costs. Therefore, this application proposes a new technical solution. Summary of the Invention

[0004] To reduce the complexity of adapting customized products to construction scenarios and improve product compatibility, this application provides an integrated equipment structure with a suspended ceiling.

[0005] This application provides an integrated equipment structure with a suspended ceiling, employing the following technical solution:

[0006] An integrated equipment structure with a suspended ceiling includes an inner equipment layer, a node locking mechanism, and a mimicry layer. The inner equipment layer includes a corrugated guide plate, an equipment plate, and a module connector plate. The corrugated guide plate forms a corrugated structure distributed along the width direction and has notches at both ends and on both sides, with the notches being open to the outside. A section of the corrugated guide plate located between the notches on both sides is recessed and forms a cable trench that is wider at the bottom and narrower at the top when viewed from the end. There are multiple corrugated guide plates arranged along the width direction.

[0007] The two plates of the module connector plate in the vertical and thickness directions are respectively provided with two limiting plates. The two limiting plates on one side of the module connector plate are distributed vertically and vertically and form a limiting groove in the middle. The end of the corrugated gauge plate is used to insert into the limiting groove.

[0008] The device board has several device windows, and the end of the device board is used to insert a limiting groove;

[0009] The node locking mechanism includes a cover, which is mounted on the module connector plate and the corrugated gauge plate extends from the end of the cover. The cover and the module connector plate are detachably connected and a functional channel is provided on the outside of the corrugated gauge plate.

[0010] The mimicry layer includes a mimicry sheet, which is fixed to the lower part of the functional channel and / or the lower part of the corrugated gauge plate.

[0011] Optionally, the module connector plate includes a scheduling plate, a movable rod, a fixed rod, and a nut. There are two scheduling plates, and one scheduling plate has multiple horizontally extending and arranged slots. The number of movable rods is less than or equal to the number of slots. The movable rod passes through the corresponding slot and is threaded to the nut at both ends. The end of the movable rod facing the other scheduling plate is ball-jointed to the fixed rod, and the fixed rod is fixed to the other scheduling plate. The limiting groove is provided on the scheduling plate.

[0012] Optionally, the scheduling plate has several slots two below the limiting groove along the width direction of the corrugated plate, and a cable connector is inserted through the slots two; a conductive plate is provided above the slots two on the scheduling plate, the conductive plate is embedded in the scheduling plate with its upper end exposed and its lower end exposed in the slots two; the scheduling plate and the cover are insulated structures, and multiple conductive polar blocks are provided on the cover along the length direction.

[0013] Optionally, a conductive sheet is provided between any two adjacent polarity blocks, and the end of the conductive sheet is easily torn to connect with the polarity block. Each conductive sheet has the same resistance value or varies in order along the arrangement sequence, and the conductive sheet is located on the outer wall of the cover.

[0014] Optionally, a safety connector is also included, comprising a tube body and a conductive molten metal, an electrode plate, and a spring within the tube body. The tube body is insulated and one end is used to fit around the polarity block, while the other end faces upward or is bent to the side. The molten metal rests on the upper part of the polarity block and is used to melt after an abnormal overload of the circuit. The electrode plate rests on the molten metal, and one end of the spring is fixed to the upper part of the electrode plate, while the other end is fixed to the inner wall of the tube body. The end of the electrode plate away from the molten metal is used for connecting external cables. A through hole is provided on the side wall of the tube body to the side of the molten metal.

[0015] Optionally, the lower end of the tube extends outward to form a side plate, and a positioning hole is provided on the side plate; the diameter of the tube is smaller than the thickness of the scheduling plate; the node locking mechanism also includes a notched buckle with a notch on the upper part of the end, the notched buckle is fastened to the cover from below and the upper end edge can press against the side plate of the tube.

[0016] Optionally, an arc plate is provided above the corrugated gauge plate. The arc plate has an arc center at the bottom and the two sides of the arc plate extend outward to form a locking plate. The lower surface of the locking plate has a sub-corrugated structure that adapts to the corrugations of the corrugated gauge plate. The upper surface of the locking plate is inclined downward and extends out of the corrugated gauge plate and folds downward.

[0017] Optionally, one of the two limiting plates constituting the limiting groove has an L-shaped end, and the vertical section of the L-shaped limiting plate has a three-slot hole. The three-slot hole on the limiting plate corresponding to the adjusting plate for mounting the movable rod is vertical and is passed through by the movable rod, and contacts the nut on the outer wall. An internally threaded bolt is provided on the adjusting plate for mounting the fixed rod. The internally threaded bolt penetrates the corresponding adjusting plate and is threadedly connected to the fixed rod. The three-slot hole on the limiting plate corresponding to the adjusting plate for mounting the internally threaded bolt is vertical and is passed through by the internally threaded bolt.

[0018] In summary, this application includes the following beneficial technical effects: by utilizing a highly adaptable modular design, it meets the design requirements of multiple specifications and sizes and high compatibility. Furthermore, the non-enclosed design of the corrugated plate as the main body improves the heat dissipation performance of integrated lighting fixtures and other equipment, reduces heat accumulation, reduces equipment aging and safety hazards, helps to reduce the complexity of adapting customized products to construction scenarios, reduces installation costs, and reduces the risk of construction delays. Attached Figure Description

[0019] Figure 1 This is a three-dimensional structural diagram of a section of the present application;

[0020] Figure 2 This is a structural schematic diagram of the node locking mechanism region in this application;

[0021] Figure 3 This is a structural schematic diagram of the module connector plate area in this application;

[0022] Figure 4 This is a schematic diagram of the longitudinal section structure of the casing area in this application;

[0023] Figure 5 yes Figure 4 Enlarged view of part A in the middle.

[0024] Explanation of reference numerals in the attached drawings: 1. Inner equipment layer; 11. Corrugated gauge plate; 111. Cable trench; 12. Equipment plate; 13. Module connector plate; 131. Scheduling plate; 1311. Slot hole one; 1312. Slot hole two; 132. Movable rod; 133. Fixed rod; 134. Nut; 2. Node locking mechanism; 21. Cover; 3. Mimicry layer; 31. Mimicry sheet; 32. Fireproof plate; 4. Limiting plate; 41. Limiting groove; 5. Cable connector; 51. Polar block; 52. Conductive sheet; 6. Safety connector; 61. Pipe body; 62. Melt; 63. Spring; 7. Notched buckle; 8. Arc plate; 9. Internal threaded bolt. Detailed Implementation

[0025] The following is in conjunction with the appendix Figure 1-5 This application will be described in further detail.

[0026] This application discloses an integrated equipment structure with a suspended ceiling.

[0027] Reference Figures 1-4 The integrated equipment with ceiling structure includes an inner equipment layer 1, a node locking mechanism 2, and a mimicry layer 3. The inner equipment layer 1 constitutes the main structure. The node locking mechanism 2 gathers and fixes the components of the inner equipment layer 1 and provides a structure for installing this application to the ceiling. The mimicry layer 3 is a user-facing surface structure that can be decorated with patterns such as pasting, drawing, and printing according to decorative needs. At the same time, the mimicry layer 3 also serves to reduce the probability of dust entering the inside of this application and provides certain fireproof reinforcement.

[0028] Reference Figure 1 and Figure 2 The inner equipment layer 1 includes a corrugated guide plate 11, an equipment plate 12, and a module connector plate 13. The corrugated guide plate 11 is a corrugated thin plate structure, which can be made of alloy plates such as aluminum alloy plates. The corrugated guide plate 11 is elongated, with the corrugated structure arranged along the width direction. Symmetrical open notches are provided at both ends of the corrugated guide plate 11, and it has the following two usage modes:

[0029] Mode 1: The corrugated gauge plate 11 is used as a whole. This mode is suitable for equipment integration with design requirements without ventilation vents. Multiple corrugated gauge plates 11 are spliced ​​along the width direction, and the module connector plate 13 is inserted into the non-notch position at the end to form a complete unit.

[0030] Mode 2: It is mainly suitable for scenarios with ventilation requirements, specifically:

[0031] During processing, the two sides of the corrugated gauge plate 11 are symmetrically cut to form notches. Then, the corrugated gauge plate 11 is supported by a concave lower die, and stamped by a lower arc-shaped punch to form a concave flat plate between the two notches. Afterwards, the two notches can be brought together according to design requirements to form a cable groove 111 that is wider at the bottom and narrower at the top. Multiple corrugated gauge plates 11 are arranged along the width direction, and because the lateral notches are separated from each other, air can circulate vertically.

[0032] The purpose of the above settings is:

[0033] 1) According to the above settings, the corrugated gauge plate 11 is supported by the remaining corrugated structure. It is known that the length of the integrated belt will not be too small. Even with the modular design, the corrugated gauge plate 11 has a certain length. Therefore, if it is not a corrugated structure but a flat plate structure, the bending strength is too small and it is easy to bend downward.

[0034] Note that this corrugated structure design is also related to other subsequent settings, which will be explained in detail later.

[0035] 2) As can be seen from the forming steps of the corrugated gauge plate 11 in Mode 2, its structure can be obtained by simply supplementing the production steps and facilities, using the initial structure in Mode 1, and the component processing difficulty is low; moreover, the width of the corrugated gauge plate 11 in Mode 2 can be adjusted according to actual needs by bringing the two lateral notches together or separating, so as to better meet the design requirements of various integrated belt specifications and sizes.

[0036] 3) The cable trench 111, which is wider at the bottom and narrower at the top, can be used to guide airflow, making the airflow from the air conditioning vents above smoother and more evenly distributed.

[0037] 4) It is known that the equipment integration strip integrates various electrical components, so cables need to be laid. The cable trench 111 formed by the recess in the middle of the corrugated plate 11 is not closed, and the space inside the trench is adjustable. The power supply object is located at the end of the corrugated plate 11 according to the current design, so it can be used to place various cables, making the wiring simpler. At the same time, the bottom-wide and top-narrow style can not only restrain the cables to a certain extent, but the cable trench 111 can also be used to protect the cables.

[0038] Reference Figure 3 and Figure 4 The module connector plate 13 is vertically or vertically corrugated plate 11. Two limiting plates 4 are installed on the front and rear surfaces of the module connector plate 13 respectively. The two limiting plates 4 located on the same side are distributed vertically and form a limiting groove 41 in the middle.

[0039] When in use, the end of the corrugated gauge plate 11, that is, the section facing the notch, is inserted into the two limiting grooves 41 to achieve initial installation. This installation method allows for the assembly of integrated belts with different width requirements by simply inserting the appropriate number of corrugated gauge plates 11 into the limiting grooves 41. During installation, the excessively long module connector plate 13 is cut off, reducing the difficulty of on-site installation and improving on-site installation efficiency.

[0040] The module connector plate 13 can be plugged into both the front and rear corrugated gauge plates 11 to form a longer integrated belt, or it can be plugged into the front and rear corrugated gauge plates 11 and the equipment plate 12 respectively to meet the design requirements of different functions in different areas of the integrated belt.

[0041] Reference Figure 2 and Figure 4 The equipment panel 12 can be a flat plate with several equipment windows, such as lighting fixture windows and fire sprinkler windows, through which the lighting fixtures and fire sprinklers protrude. If the equipment is not protruding, it can be hidden above the corrugated plate 11 or inside the equipment window.

[0042] Viewed from the side of the corrugated plate 11, the equipment plate 12 is a rectangular shape with an upward opening, and the opening edge is turned outward to form a plug-in portion for inserting into the limiting groove 41. This structure facilitates installation and provides more ample space inside the equipment plate 12 to accommodate various needs, such as larger cameras. After the equipment is installed, the top of the equipment plate 12 can be sealed with a cover plate for safety protection.

[0043] Reference Figure 2 and Figure 3 The node locking mechanism 2 includes a cover 21, which has a downward-opening U-shape at one end. The cover 21 covers the module connector plate 13 and is detachably connected. The corrugated plate 11 extends from the end of the cover 21. The cover 21 can also be used to shield the top of the equipment plate 12.

[0044] It should be noted that the cover 21 has functional channels on the outer side of multiple side-by-side corrugated gauge plates 11, meaning that the inner width of the cover 21 has extra space, and this extra space is called the functional channel. The inner wall of the functional channel away from the corrugated gauge plate 11 has a lateral structural groove. In use, the functional channels can be used to install light strips, long light groups, edge decorative strips, etc., and the lateral structural groove can work with the corrugated gauge plate 11 to initially fix the above structures.

[0045] Reference Figure 4 The mimicry layer 3 includes a mimicry sheet 31, which is fixed to the lower part of the functional channel and / or the corrugated plate 11.

[0046] Usage: The lower surface of the mimicry sheet 31 can be decorated with graphics, colors, etc. If the corrugated gauge plate 11 does not need to be exposed, it can be placed under the corrugated gauge plate 11 and hung on several corrugated gauge plates 11 using the pre-fixed hooks on the upper part of the mimicry sheet 31. If the area of ​​the corrugated gauge plate 11 needs to be exposed for ventilation and the functional channel does not need to be exposed, it can be fixed to the lower opening of the functional channel with screws or adhesive.

[0047] It should be noted that a fireproof board 32 is placed or fixed on top of the mimicry layer 3. The fireproof board 32 can be made of fireproof cotton or other fire-retardant materials. If there are hooks on the top of the mimicry sheet 31, the hooks will penetrate the fireproof material. Understandably, although the mimicry sheet 31 can be a thin sheet, the weight will inevitably increase after adding the fireproof board 32. Therefore, the corrugated gauge plate 11 needs to have a corrugated shape and a recessed cable groove 111 to resist downward pull.

[0048] Reference Figure 3 In one embodiment of this application, in order to enable the device to bend, that is, to allow two adjacent segments to form an angle to meet more customization needs, the above-mentioned module connector plate 13 is configured to include a scheduling plate 131, a movable rod 132, a fixed rod 133 and a nut 134.

[0049] There are two scheduling plates 131 distributed front and back. Each scheduling plate 131 has multiple horizontally extending and arranged slots 1311. The number of movable rods 132 is no more than the number of slots 1311. The movable rods 132 pass through the corresponding slots 1311 and are threaded to nuts 134 at both ends, i.e., a double nut fixing structure.

[0050] The movable rod 132 is ball-jointed to a fixed rod 133 at one end facing the other scheduling plate 131, and the fixed rod 133 is fixed to the other scheduling plate 131. The limiting groove 41 used to insert the corrugated gauge plate 11 and the equipment plate 12 is provided on the scheduling plate 131.

[0051] According to the above configuration, each movable rod 132 can be adjusted in length between the two scheduling plates 131, angle with the fixed rod 133, and position relative to the scheduling plate 131 through which it is passed. This allows the two scheduling plates 131 to be set parallel or at an angle, connecting the two integrated strips on both sides of the module connector plate 13 in various configurations. This not only allows the integrated strip to bend, but also reduces costs by only needing to replace the casing 21 with the corresponding corner when converting from a straight integrated strip to an integrated strip with a corner.

[0052] Based on the above, the cooperation between this application and cable trench 111 is configured as follows:

[0053] Reference Figure 1 and Figure 3 The scheduling plate 131 has several slots 1312 below the limiting groove 41 along the width direction of the corrugated gauge plate 11. In this embodiment, the number of slots is the same as that of the corrugated gauge plate 11. A cable connector 5 is inserted through each slot 1312. The cable connector 5 can be a flat metal tube or other tube structures. Example:

[0054] The hollow double-layer tube serves as the main body, with an inner metal layer and an outer plastic layer of the same material as the cable sheath. The two ends of the double-layer tube are threaded with special-shaped nuts, which are located on both sides of the dispatching plate 131. The end of the special-shaped nut facing the dispatching plate 131 is a flared mouth. The end of the double-layer tube is split and the outer wall forms a conical surface corresponding to the flared mouth of the special-shaped nut. The exposed metal section of the cable end can be inserted into the double-layer tube and clamped or directly passed through the clamp.

[0055] According to the above settings, when one side of the module connector plate 13 is the corrugated plate 11 and the other side is the equipment plate 12, the cable can be put into the cable trench 111 and then connected to the cable connector 5; then, between the two dispatching plates 131, one cable connector 5 is connected to multiple cable connectors 5 on the opposite side through the middle wire, and then power is supplied to multiple electrical appliances on the equipment plate 12.

[0056] Therefore, not only is the wiring simple, but the integrated tape design for corners can also accommodate the wiring parts, which is simple and can be protected in the middle. In addition, the wiring changes during maintenance and modification are also relatively convenient.

[0057] Reference Figure 3 and Figure 4 In another embodiment of this application, a conductive plate is disposed above the second slot 1312 on the scheduling plate 131. The conductive plate is embedded in the scheduling plate 131 with its upper end exposed. The conductive plate protrudes along the length of the upper part of the scheduling plate 131, and its lower end is exposed in the second slot 1312, forming a railing-like shape with multiple vertical bars below a horizontal bar. The scheduling plate 131 and the cover 21 are insulated structures, and multiple conductive polar blocks 51 are uniformly embedded in the cover 21 along its length. Note that the length of the cover 21 refers to the direction of the internal channel.

[0058] How to use:

[0059] The outer insulation layer of the cable connector 5 is removed from the middle, allowing the inner metal to contact the lower end of the conductive plate. Therefore, the lower end of the conductive plate is preferably folded in a Z-shape or similar manner. The fixed cable connector 5 is positioned below it, pushing and pressing it to ensure effective contact. The metal wire stripped from the cable end is inserted into the cable connector 5. The inner metal layer of the cable connector 5 can be recessed for better contact with the cable wire. After the housing 21 is installed, the conductive plate in the control plate 131 contacts one of the upper polarity blocks 51. Therefore, energizing this polarity block 51 will energize the lower cable connector 5, and the cable connector 5, in conjunction with the cable, will then supply power to various electrical components.

[0060] It should be noted that the above is preferred for DC power supply scenarios. The two dispatch boards 131 of a module connector board 13 are matched with positive and negative wiring. If it is AC power, the conductive plate on a dispatch board 131 needs to be broken into three parts, corresponding to three cable connectors 5 and three polarity blocks 51, to correspond to the live wire, neutral wire and ground wire respectively. In some scenarios, the ground wire can be connected by a separate cable.

[0061] According to the above settings, when powering the integrated strip, it is not necessary to run a pull cable from a relatively far position such as the beginning and end of the integrated strip to the electrical components on the equipment board 12 each time. Power can be directly connected from the node locking mechanism 2, or from the cover 21 through the polarity block 51, which can reduce the cable length requirement. Moreover, it can be combined with the module connector board 13 and the cable connector 5 to form a convenient one-to-many power supply structure, and efficiently connect and wire the power.

[0062] Reference Figure 4In another embodiment of this application, considering the risk of electric shock caused by water flowing through the openings between the two lower control plates 131, the upper part of the cover 21 should be closed. This makes it difficult to determine which polarity block 51 on the cover 21 is in contact with the conductive plate in the lower control plate 131 after it is closed. Therefore, it is further configured as follows:

[0063] A conductive sheet 52 is provided between any two adjacent polarity blocks 51. The end of the conductive sheet 52 and the polarity block 51 are easily connected by tearing, for example, by a point-break structure connection. The conductive sheet 52 is a thin sheet. Each conductive sheet 52 has the same resistance value or the order changes along the arrangement direction. The conductive sheet 52 is located on the outer wall of the cover 21.

[0064] According to the above settings, when the staff installs the equipment, they can: first, temporarily apply a small test current to the cable pulled out from the corresponding cable connector 5 on the scheduling plate 131 below the cover 21, then perform current detection on the polarity blocks 51 at the beginning and end positions on the cover 21, calculate the current resistance value using Ohm's law, and then calculate which polarity block 51 the conductive plate on the scheduling plate 131 contacts, thus obtaining the position of the scheduling plate 131.

[0065] Example: Ignoring the resistance of the cable, conductive plate, cable connector 5, and polarity block 51, with the same 5V voltage, the current is measured to be 0.1A, so the calculated resistance is 50Ω; the resistance of each of the dummy conductive pieces 52 is the same and 10Ω, so there should be 50 / 10 = 5 conductive pieces in between, that is, the 6th polarity block 51 is in contact with the conductive plate.

[0066] The conductive sheet 52 is removed after the position of the scheduling plate 131 is determined, which is why it is an easy-to-tear structure. After determining the position of the scheduling plate 131 under the cover 21, screws can be used to fix the two together.

[0067] In another embodiment of this application, the lower part of the polar block 51 may be flush with the inner wall of the cover 21, but the upper part may protrude from the upper part of the cover 21.

[0068] Reference Figure 5 The device is equipped with a safety connector 6, which includes a tube body 61, a conductive molten metal 62, an electrode plate, and a spring 63. The tube body 61 can be made of insulating materials such as plastic, with one end used to fit around the polar block 51, and the other end facing upwards or bent to the side. The molten metal 62 rests on the upper part of the polar block 51. It is a metal block that does not reach its melting point when energized with the standard current, but reaches its melting point after abnormal overload of the circuit. The electrode plate rests on the molten metal 62, and one end of the spring 63 is fixed to the upper part of the electrode plate, and the other end is fixed to the inner wall of the tube body 61. A conductive metal wire is led out from the end of the electrode plate away from the molten metal 62 for external wiring. A through hole is provided on the side wall of the tube body 61 on the side of the molten metal 62, and a protective rim is formed on the upper part of the outer edge of the through hole.

[0069] Based on the above settings, on the one hand, the polarity block 51 in use can be safely isolated, and wiring is easier, avoiding the inconvenience of wiring by means of soldering; on the other hand, the electrical appliances on the integrated strip can be protected, and the circuit can be disconnected in time when short circuit or overload occurs.

[0070] Furthermore, the lower end of the tube 61 extends outward to form a side plate, and a positioning hole is provided on the side plate; the diameter of the tube 61 is smaller than the thickness of the scheduling plate 131.

[0071] When in use, the operator can screw in the tube 61 to fix it to the cover 21 through the positioning hole; at the same time, because the tube 61 is used above the scheduling plate 131, the scheduling plate 131 and the cover 21 can also be fixed when the screw is driven in.

[0072] Understandably, if the scheduling plate 131 were simply fixed in this way, mainly relying on screws, loose screws could easily lead to circuit failures. Therefore, the node locking mechanism 2 also includes a notched retainer 7 with a notch at the top. After the scheduling plate 131 is in place, the notched retainer 7 is fastened onto the cover 21 from below, and its upper edge can press against the side plate of the tube body 61, thus locking it even when the screws pass through. The notched retainer 7 can be made of metal plate or fireproof material.

[0073] Reference Figure 1 In another embodiment of this application, considering that most of the current corrugated gauge plate 11 is exposed, although water falling into the cable trench 111 of the corrugated gauge plate 11 can be discharged from the trench port, long-term use is prone to dust accumulation and affects heat dissipation, etc. Therefore, an arc plate 8 is provided above the corrugated gauge plate 11. The end of the arc plate 8 is viewed as having the arc center at the bottom and the two sides of the arc plate 8 extend outward to form a locking plate. The lower plate surface of the locking plate forms a sub-corrugated structure that adapts to the corrugations of the corrugated gauge plate 11, and the upper plate surface of the locking plate is inclined downward. The locking plate extends out of the corrugated gauge plate 11 and folds downward.

[0074] Based on the above settings:

[0075] 1) The cable trench 111 can be closed from above, reducing the chance of dust accumulation in the cable trench 111; it can also prevent air from entering the cable trench 111 when the integrated strip is used as a ventilation opening, reducing ventilation obstruction.

[0076] When ventilating, if the cable is in the cable trench 111, although it is not advisable to blow air directly on it, the heat conduction of the arc plate 8 and the cable trench 111 can be used to accelerate heat dissipation and reduce safety hazards.

[0077] 2) After the arc plate 8 is placed on the corrugated gauge plate 11, it can engage and lock the left and right sides of the corrugated gauge plate 11, thereby improving the structural stability.

[0078] Furthermore, the aforementioned limiting groove 41 has a structure that can be increased vertically, specifically:

[0079] Reference Figure 4 Of the two limiting plates 4 constituting the limiting groove 41, the upper limiting plate 4 is L-shaped at one end, and the vertical section of the L-shaped limiting plate 4 has a three-slot hole. The three-slot hole on the adjusting plate 131 for mounting the movable rod 132 is vertical and passes through the movable rod 132, contacting the nut 134 on the outer wall; an internal threaded bolt 9 passes through the adjusting plate 131 for mounting the fixed rod 133, and the internal threaded bolt 9 penetrates the corresponding adjusting plate 131 and is threadedly connected to the fixed rod 133. The three-slot hole on the adjusting plate 131 for mounting the internal threaded bolt 9 is vertical and passes through the internal threaded bolt 9. The lower surface of the L-shaped limiting plate 4 forms a sub-corrugated structure that adapts to the corrugated pattern plate 11.

[0080] According to the above settings, firstly, the L-shaped limiting plate 4 can be raised and lowered, which makes it easier to insert the corrugated gauge plate 11. Moreover, its position is automatically locked by the nut 134 when the scheduling plate 131 is installed, without the need for additional operation. Secondly, the secondary corrugated structure at the lower part of the L-shaped limiting plate 4 can engage the corrugated gauge plate 11, preventing the two sides of the corrugated gauge plate 11 from separating or coming together, and preventing the corrugated gauge plate 11 from moving left and right, further improving the structural stability.

[0081] Furthermore, multiple laterally derived corrugated locking sections can be retained in the lateral notch of the corrugated plate 11. During installation, the corrugated locking sections of two adjacent corrugated plates 11 can overlap and lock each other to reduce vibration during ventilation applications.

[0082] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. An integrated equipment structure with a suspended ceiling, characterized in that: The system includes an inner equipment layer (1), a node locking mechanism (2), and a mimicry layer (3). The inner equipment layer (1) includes a corrugated guide plate (11), an equipment plate (12), and a module connector plate (13). The corrugated guide plate (11) forms a corrugated structure distributed along the width direction and has a notch at both ends and on both sides, with the notch open to the outside. A section of the corrugated guide plate (11) between the notches on both sides is recessed and forms a cable trench (111) that is wider at the bottom and narrower at the top when viewed from the end. There are multiple corrugated guide plates (11) and they are arranged along the width direction. The module connector plate (13) has two limiting plates (4) respectively on its two vertical and thickness surfaces. The two limiting plates (4) on one side of the module connector plate (13) are distributed vertically and form a limiting groove (41) in the middle. The end of the corrugated gauge plate (11) is used to insert into the limiting groove (41). The device plate (12) has several device windows, and the end of the device plate (12) is used to insert the limiting groove (41). The node locking mechanism (2) includes a cover (21), which is mounted on the module connector plate (13) and the corrugated gauge plate (11) extends from the end of the cover (21). The cover (21) and the module connector plate (13) are detachably connected and a functional channel is provided on the outside of the corrugated gauge plate (11). The mimicry layer (3) includes a mimicry sheet (31), which is fixed to the lower part of the functional channel and / or the lower part of the corrugated plate (11); The module connector plate (13) includes a scheduling plate (131), a movable rod (132), a fixed rod (133), and a nut (134). There are two scheduling plates (131), and each scheduling plate (131) has multiple horizontally extending and arranged slots (1311). The number of movable rods (132) is less than or equal to the number of slots (1311). The movable rod (132) passes through the corresponding slot (1311) and is threaded to the nut (134) at both ends. The end of the movable rod (132) facing the other scheduling plate (131) is ball-jointed to the fixed rod (133). The fixed rod (133) is fixed to the other scheduling plate (131). The limiting groove (41) is provided on the scheduling plate (131).

2. The integrated equipment structure with suspended ceiling according to claim 1, characterized in that: The scheduling plate (131) has several slots (1312) below the limiting groove (41) along the width direction of the corrugated gauge plate (11), and a cable connector (5) is provided through the slots (1312); a conductive plate is provided above the slots (1312) of the scheduling plate (131), the conductive plate is embedded in the scheduling plate (131) and its upper end is exposed, and its lower end is exposed in the slots (1312); the scheduling plate (131) and the cover (21) are insulated structures, and multiple conductive polar blocks (51) are provided on the cover (21) along the length direction.

3. The integrated ceiling structure for equipment according to claim 2, characterized in that: A conductive sheet (52) is provided between any two adjacent polar blocks (51). The end of the conductive sheet (52) is easily torn to connect with the polar block (51). Each conductive sheet (52) has the same resistance value or changes in the order of arrangement. The conductive sheet (52) is located on the outer wall of the cover (21).

4. The integrated ceiling structure for equipment according to claim 3, characterized in that: It also includes a safety connector (6), which includes a tube (61) and a conductive melt (62), an electrode plate and a spring (63) in the tube (61). The tube (61) is insulated and one end is used to fit the polarity block (51), and the other end is facing upward or bent to the side. The melt (62) rests on the upper part of the polarity block (51) and is used to melt after the circuit is abnormally overloaded. The electrode plate rests on the melt (62), and one end of the spring (63) is fixed to the upper part of the electrode plate and the other end is fixed to the inner wall of the tube (61). The end of the electrode plate away from the melt (62) is used to connect external cables. The side wall of the tube (61) is provided with a through hole on the side of the melt (62).

5. The integrated ceiling structure for equipment according to claim 4, characterized in that: The lower end of the tube (61) extends outward to form a side plate, and a positioning hole is provided on the side plate; the diameter of the tube (61) is smaller than the thickness of the scheduling plate (131); the node locking mechanism (2) also includes a notched buckle (7) with a notch on the upper part of the end, the notched buckle (7) is fastened to the cover (21) from below and the upper end edge can be pressed on the side plate of the tube (61).

6. The integrated ceiling structure of the equipment according to claim 1, characterized in that: An arc plate (8) is provided above the corrugated gauge plate (11). The arc plate (8) has an arc center at the bottom and the two sides of the arc plate (8) extend outward to form a locking plate. The lower plate surface of the locking plate has a sub-corrugated structure adapted to the corrugations of the corrugated gauge plate (11). The upper plate surface of the locking plate is inclined downward. The locking plate extends out of the corrugated gauge plate (11) and folds downward.

7. The integrated equipment structure with suspended ceiling according to claim 6, characterized in that: The upper limit plate (4) of the two limit plates (4) constituting the limit groove (41) is L-shaped at one end, and the vertical section of the L-shaped limit plate (4) is provided with a three-slot hole. The three-slot hole on the limit plate (4) corresponding to the adjustment plate (131) for installing the movable rod (132) is vertical and is passed through by the movable rod (132), and contacts the nut (134) on the outer wall. The adjustment plate (131) for installing the fixed rod (133) is provided with an internal thread bolt (9). The internal thread bolt (9) penetrates the corresponding adjustment plate (131) and is threadedly connected to the fixed rod (133). The three-slot hole on the limit plate (4) corresponding to the adjustment plate (131) for installing the internal thread bolt (9) is vertical and is passed through by the internal thread bolt (9).

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