Modular smart curtain power supply track

Abstract

The present invention relates to the technical field of electric curtains, and in particular to a modular smart curtain power supply track comprising track units, coupling units, a power supply unit, and a tail bracket unit. The power supply unit comprises a power supply main box and isolated conductor rails. The isolated conductor rails are inserted into the interior of drive racks in the length direction thereof and each abut against a lateral-connection locking mechanism so as to prevent the isolated conductor rails from becoming loose. A transverse locking mechanism and a longitudinal locking mechanism are provided between the track units and the power supply main box. In the present invention, each track unit is formed by lateral track assemblies and a drive rack that are locked together by means of lateral-connection locking mechanisms; lateral track units are joined one to another by means of a lateral track coupling mechanism and a rack coupling mechanism; the tail bracket unit is used to finely adjust the length of the curtain track in order to form a curtain track of a predetermined length; and finally, the power supply unit and the track units are locked together by means of the transverse locking mechanism and the longitudinal locking mechanism to supply power to the track, thereby forming a power supply track. This eliminates the need for multiple corrections and cuts, improving installation efficiency and reducing logistics costs.

Description

A modular smart curtain power track Technical Field

[0001] This invention relates to the field of electric curtain technology, and more particularly to a modular intelligent curtain power supply track. Background Technology

[0002] Currently, existing curtain track systems typically employ an on-site measurement and custom cutting installation method. First, the actual dimensions of the window or installation location must be measured at the installation site. Then, based on the measurement results, a track material slightly longer than the actual requirement is selected and cut on-site or in a warehouse to fit the specific size requirements.

[0003] However, manual measurement is susceptible to environmental, tool, and operator experience factors, often resulting in dimensional deviations. This leads to the track not meeting installation requirements after the initial cutting, necessitating secondary or even multiple corrective cuttings. Such repetitive operations not only waste materials but also require multiple trips between the installation site and the warehouse or processing point, significantly reducing installation efficiency. Furthermore, existing tracks often employ a one-piece long rod structure, which, even after cutting, is typically still quite long, placing high demands on transportation vehicles, handling routes, and storage space, increasing logistical difficulties and costs. Summary of the Invention

[0004] The technical problem to be solved by this invention is: in order to solve the problem that the existing curtain tracks usually adopt on-site measurement and custom cutting, which leads to material waste and requires multiple trips between the installation site and the warehouse or processing point, which greatly reduces installation efficiency and increases logistics difficulty and cost, a splicing intelligent curtain power supply track is provided.

[0005] To solve the above-mentioned technical problems, the present invention adopts the following technical solution: a splicing intelligent curtain power supply track, comprising: a track unit having a plurality of such units arranged sequentially along its length, each track unit including a drive rack, a side rail assembly having a mounting cavity for mounting the drive rack, and a side locking mechanism for locking the side rail assembly to the drive rack; a docking unit located between two adjacent track units, including a side rail docking mechanism for locking two adjacent side rail assemblies and a rack docking mechanism for locking two adjacent drive racks; a power supply unit including a power supply unit housing and a sliding contact line electrically connected to the power supply unit housing, the sliding contact line being inserted inside the drive rack along its length and abutting against the side locking mechanism to prevent it from loosening, the power supply unit housing having an insertion hole for inserting a track unit located at the first end, and a lateral locking mechanism for locking the two laterally and a longitudinal locking mechanism for locking the two longitudinally between the track unit and the power supply unit housing; and a tail frame unit movably mounted on a track unit located at the tail end.

[0006] Furthermore, the track unit located at the first end among the track units is the first end track unit, and the lateral locking mechanism includes a side wing protruding from the transmission rack in the first end track unit along the width direction and a wing groove formed from the recess in the insertion hole for the side wing to be engaged to restrict its lateral disengagement.

[0007] Furthermore, the longitudinal locking mechanism includes a locking hook disposed on the first end track unit and a fixing seat protruding from the insertion hole and allowing the locking hook to pass over and hook to it to restrict its longitudinal disengagement.

[0008] Furthermore, the transmission rack has a conductive cavity inside for mounting and confining the sliding contact line, and each sliding contact line has a stationary contact and a movable contact that is elastically set and used for conductive contact with the stationary contact at both ends; a stationary spring is installed in the power supply main unit, and an elastic spring is installed in the transmission rack of the first end track unit for electrically connecting the stationary spring to the sliding contact line.

[0009] Furthermore, the transmission rack within the first end track unit protrudes to form an end boss for limiting the sliding contact line, and the end boss is for the elastic spring to overlap and has a positioning recess for positioning the elastic spring.

[0010] Furthermore, the transmission rack in the first track unit has a mounting groove for the locking hook to be rotatably mounted, and the mounting groove is equipped with an elastic element for pressing the locking hook against the fixed seat to longitudinally lock the first track unit and the power supply main unit.

[0011] Furthermore, among the several track units, the one located at the tail end is the tail end track unit. Either the transmission rack and the tail frame unit in the tail end track unit are provided with an elastic buckle, and the other is provided with an insertion hole for the elastic buckle to be inserted to limit the position of the tail frame unit.

[0012] Furthermore, the side rail assembly includes two opposing side rail units that enclose the aforementioned mounting cavity. The side-connection locking mechanism includes side-connection latches located on the transmission rack and the side rail units, respectively, and side-connection holes into which the side-connection latches engage. And / or, the side-connection locking mechanism further includes side-connection bosses located at the ends of the transmission rack and the side rail units, respectively, and side-connection grooves into which the side-connection bosses engage.

[0013] Furthermore, the transmission rack in the first track unit protrudes to form a docking part for docking with the corresponding side rail unit, and the docking part and the side rail unit respectively have a docking post protruding and a docking hole for the docking post to be inserted.

[0014] Furthermore, the side rail docking mechanism includes a connecting piece protruding from one end of the side rail unit, a connecting groove recessed at the other end of the side rail unit for the connecting piece to be engaged, a connecting buckle elastically disposed on the connecting piece, and a snap-fit ​​groove recessed in the connecting groove for the connecting buckle to be engaged; the rack docking mechanism includes a rack docking protrusion protruding from one end of the drive rack and a rack docking recess recessed at the other end of the drive rack for the rack docking protrusion to be engaged.

[0015] The beneficial effects of this invention are as follows: This invention uses a side-locking mechanism to lock the side rail assembly and the transmission rack to form a track unit, and uses a side rail docking mechanism and a rack docking mechanism to splice the side rail units in sequence. The length of the curtain track is finely adjusted by the tail frame unit to form a curtain track of a predetermined length. Finally, the power supply unit and the track unit are locked by a horizontal locking mechanism and a vertical locking mechanism to supply power to the track and form a power supply track. This eliminates the need for multiple corrections and cuts, improves installation efficiency, and reduces logistics costs. Attached Figure Description

[0016] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0017] Figure 1 is a split view of the present invention; Figure 2 is a structural schematic diagram of the present invention without the power supply main unit; Figure 3 is a structural schematic diagram of the first-end track unit from a first-view perspective in the present invention; Figure 4 is a structural schematic diagram of the first-end track unit from a second-view perspective in the present invention; Figure 5 is a cross-sectional view of the present invention; Figure 6 is a structural schematic diagram of the transmission rack of the first-end track unit in the present invention; Figure 7 is a structural schematic diagram of the side rail assembly and transmission rack before assembly in the present invention; Figure 8 is a structural schematic diagram of the side rail assembly and transmission rack after assembly in the present invention; Figure 9 is a structural schematic diagram of the transmission rack after a portion has been cut off in the present invention; Figure 10 is a structural schematic diagram of the end boss and positioning recess in the present invention; Figure 11 is a structural schematic diagram of the locking hook and elastic element in the present invention; Figure 12 is a structural schematic diagram of the splicing of two adjacent track units in the present invention; Figure 13 is a structural schematic diagram of the track unit in the present invention; Figure 14 is an assembly schematic diagram of the track unit and tail frame unit in the present invention; Figure 15 is a schematic diagram of the cooperation between the moving caster and the caster mounting hole in the present invention; Figure 16 is a structural schematic diagram of the static spring and the elastic spring in the present invention; Figure 17 is a structural schematic diagram of the track unit and the power supply main unit before assembly in the present invention; Figure 18 is a schematic diagram of the assembled track unit and power supply chassis of the present invention; In the figure: 100, track unit; 100a, first-end track unit; 100b, last-end track unit; 1, transmission rack; 101, side wing; 102, locking hook; 1021, rotating arm; 1022, hook; 103, conductive cavity; 104, end boss; 105, positioning recess; 106, mounting groove; 107, elastic element; 108, embedding hole; 109, side locking buckle; 110, side boss; 111, docking part; 112, docking hole; 113, rack docking protrusion; 114, rack docking recess; 115, rack side; 116, rack side groove; 117, guide hole; 118. 119. Protruding strip; 120. Pressure block; 121. Connecting screw; 122. Overlapping platform; 123. Block buckle; 124. Guide hole; 125. Hanging wheel mounting hole; 2. Side rail assembly; 2a. Side rail unit; 201. Side connection hole; 202. Side connection groove; 203. Connecting post; 204. Connecting piece; 205. Connecting groove; 206. Connecting buckle; 207. Buckle groove; 208. Rail side groove; 209. Rail side edge; 210. Separation hole; 211. Side rail connecting protrusion; 212. Side rail connecting recess; 3. Power supply unit; 301. Power supply main unit box; 302. Sliding contact line; 3021. Column; 3022. Extension body; 303. Socket; 304. Wing groove; 305. Fixing base; 306. Stationary contact; 307. Moving contact; 308. Stationary spring; 309. Elastic spring; 4. Tail frame unit; 401. Elastic buckle; 5. Moving casters. Detailed Implementation

[0018] The invention will now be described in further detail with reference to the accompanying drawings. These drawings are simplified schematic diagrams, illustrating only the basic structure of the invention in a schematic manner. Therefore, they only show the components relevant to the invention, and the orientations and references (e.g., up, down, left, right, etc.) are only used to aid in the description of the features in the drawings. Therefore, the following specific embodiments are not intended to be limiting, and the scope of the claimed subject matter is defined solely by the appended claims and their equivalents.

[0019] As shown in Figures 1-18, a modular smart curtain power supply track includes: a track unit 100, having a plurality of units arranged sequentially along its length, each track unit 100 including a drive rack 1, a side rail assembly 2 having an mounting cavity for mounting the drive rack 1, and a side locking mechanism for locking the side rail assembly 2 to the drive rack 1; the length of each track unit 100 may be equal or unequal, and the drive rack 1 has a plurality of spaced teeth along its length; a docking unit, located between two adjacent track units 100, including a side rail docking mechanism for locking two adjacent side rail assemblies 2 and a rack docking mechanism for locking two adjacent drive racks 1; the docking unit also has a plurality of units, and the plurality of docking units can sequentially splice the plurality of track units 100 to form a curtain track of arbitrary length; The power supply unit 3 includes a power supply housing 301 and a sliding contact line 302 electrically connected to the power supply housing 301. The sliding contact line 302 is inserted inside the transmission rack 1 along its length and abuts against a side locking mechanism to prevent it from loosening. The power supply housing 301 has a socket 303 for inserting the track unit 100 located at the first end. The track unit 100 and the power supply housing 301 are provided with a lateral locking mechanism for locking them laterally and a longitudinal locking mechanism for locking them longitudinally. The power supply housing 301 can supply power to the sliding contact line 302 to open or close the curtain through the traction unit. Each transmission rack 1 has at least two sliding contact lines 302, which can be powered by DC or AC. When the track units 100 are spliced, the sliding contact lines 302 inside them are also connected in sequence. The tail frame unit 4 is movably installed on the track unit 100 located at the tail end. The two are plugged into each other. The tail frame unit 4 has a socket for inserting the track unit 100. During installation, the side rail assembly 2 and the transmission rack 1 are first locked together using the side locking mechanism to form a track unit 100. Then, the sliding contact line 302, which corresponds to the length of the track unit 100, is inserted into the transmission rack 1 to form an electric track unit. Several electric track units are then assembled sequentially through the docking unit to form a curtain track of a predetermined length. Finally, the track unit 100 at the first end is inserted into the socket 303 of the power supply unit 301, and the power supply unit 301 and the track unit 100 inserted therein are separated by the horizontal locking mechanism and the vertical locking mechanism. The track unit 100 at the last end is then connected to the tail frame unit 4, and the track length is finely adjusted by adjusting the position of the tail frame unit 4.This invention utilizes a side-locking mechanism to lock the side rail assembly 2 and the transmission rack 1 to form a track unit 100. The side rail unit is then sequentially spliced ​​using a side rail docking mechanism and a rack docking mechanism. The length of the curtain track is finely adjusted using a tail frame unit 4 to form a curtain track of a predetermined length. Finally, a horizontal locking mechanism and a vertical locking mechanism are used to lock the power supply unit 3 and the track unit 100 to supply power to the track and form a power supply track. This eliminates the need for multiple corrections and cuts, improving installation efficiency and reducing logistics costs.

[0020] In some examples, the first track unit 100 located at the head of the plurality of track units 100 is the head track unit 100a. The lateral locking mechanism includes a side wing 101 protruding from the transmission rack 1 in the width direction of the head track unit 100a and a wing groove 304 recessed from the insertion hole 303 for the side wing 101 to be engaged to restrict its lateral disengagement. The number of side wings 101 can be one, two, or three, etc. In this embodiment, there are two side wings 101 and they are symmetrically distributed to form a pair. There are also two wing grooves 304. The two side wings 101 correspond one-to-one with the two wing grooves 304, and each side wing 101 is engaged in its corresponding wing groove 304.

[0021] In some examples, the longitudinal locking mechanism includes a hook 102 disposed on the first end track unit 100a and a fixed seat 305 protruding from the insertion hole 303 and for the hook 102 to pass over and hook to restrict its longitudinal disengagement. The hook 102 is located on the transmission rack 1 and has a guide ramp and a locking plane. The guide ramp facilitates the hook 102 passing over the fixed seat 305, and the locking plane is used to abut against the fixed seat 305 to lock the fixed seat 305.

[0022] In some examples, the transmission rack 1 has a conductive cavity 103 inside for mounting and confining the sliding contact line 302. Each sliding contact line 302 has a stationary contact 306 at both ends and a movable contact 307 that is elastically set and used for conductive contact with the stationary contact 306. The stationary contact 306 is embedded in the mounting hole formed on the end face of the sliding contact line 302 and does not protrude from the end face of the sliding contact line 302. The movable contact 307 is elastically mounted in the mounting hole of the sliding contact line 302 and protrudes from the end face of the sliding contact line 302. When the track unit 100 is docked, the movable contact 307 of two adjacent sliding contact lines 302 makes elastic contact with the stationary contact 306 to transmit current. Specifically, the sliding contact line 302 includes a column 3021 with a slot and an extension 3022 extending from the slot to both sides. The conductive cavity 103 has a protrusion 118 extending into the slot to define the circumference of the column 3021 and a plurality of pressure blocks 119 spaced along the length of the column 3021 and used to abut against the extension 3022. The transmission rack 1, the protrusion 118 and the pressure blocks 119 surround to form the conductive cavity 103. The pressure blocks 119 in the same conductive cavity 103 are divided into two groups. A notch is left between the two opposing pressure blocks 119 for the column 3021 to extend out. The column 3021 extends out of the notch and makes conductive contact with the conductive part of the traction unit. A stationary spring 308 is installed inside the power supply main unit 301. An elastic spring 309 is installed inside the transmission rack 1 in the first end track unit 100a to electrically connect the stationary spring 308 and the sliding contact line 302. The stationary spring 308 is installed on the wall of the socket 303. The elastic spring 309 is elastically installed inside the transmission rack 1, with one end electrically connected to the sliding contact line 302 and the other end extending out of the transmission rack 1 and electrically connected to the stationary spring 308. This achieves sequential conduction of the stationary spring 308, the elastic spring 309, and the sliding contact line 302. The elastic spring 309 serves as a bridge between the power supply input terminal and the sliding contact line 302 to conduct current, and can input DC or AC power.

[0023] In some examples, the transmission rack 1 in the first end track unit 100a protrudes to form an end boss 104 for limiting the sliding contact line 302. When the sliding contact line 302 abuts against the end boss 104, the sliding contact line 302 is installed in place. Furthermore, the end boss 104 provides a mounting recess 105 for the elastic spring 309 to overlap, and a positioning recess 105 is formed thereon for positioning the elastic spring 309. The positioning recess 105 can limit the elastic spring 309 from shifting along the width direction of the track unit 100. One end of the elastic spring 309 near the sliding contact line 302 is embedded in the positioning recess 105 and extends towards the sliding contact line 302. The extended part is bent from the end boss 104 to form a bent part. The bent part is attached to the side of the end boss 104 (i.e., the contact surface between the end boss 104 and the sliding contact line 302) and makes conductive contact with the sliding contact line 302. The elastic spring 309 and the sliding contact line 302 are locked together by the connecting screw 120 to form a conductive whole, forming a conductive path. The end of the transmission rack 1 has a guide hole 117 for the connecting screw 120 to enter. The connecting screw 120 can be accurately positioned by entering through the guide hole 117.

[0024] In some examples, the drive rack 1 in the first end track unit 100a has a mounting groove 106 for the locking hook 102 to be rotatably mounted, and the mounting groove 106 is provided with an elastic element 107 for pressing the locking hook 102 against the fixed seat 305 to longitudinally lock the first end track unit 100a and the power supply main unit 301. The elastic element 107 can be a compression spring. The drive rack 1 has an inlet hole 123 that communicates with the mounting groove 106 and allows the elastic element 107 to enter, and a compression spring mounting hole for mounting the elastic element 107. First, the spring element enters the compression spring mounting hole from the inlet hole 123 and the mounting groove 106, and then the compression spring is pressed to make room for the locking hook 102 to enter.

[0025] The locking hook 102 includes a rotating arm 1021 and a hook portion 1022. An overlapping platform 121 for the end of the rotating arm 1021 to overlap and a blocking buckle 122 that confines the rotating arm 1021 to the overlapping platform 121 are formed within the insertion hole 303. The overlapping platform 121 has an arc-shaped notch. Each locking hook 102 corresponds to two overlapping platforms 121 and two blocking buckles 122. A movable cavity for the rotating arm 1021 to move is formed between each overlapping platform 121 and its corresponding blocking buckle 122. The hook portion 1022 protrudes to form an abutment portion for abutting against the elastic element 107. The two ends of the rotating arm 1021 along its axial direction have semi-circular chamfered angles to facilitate entry into the movable cavity and prevent slippage. A hanging wheel mounting hole 124 is formed within the transmission rack 1 for the insertion of the movable hanging wheel 5. The movable hanging wheel 5 enters or exits the track through the hanging wheel mounting hole 124.

[0026] In some examples, the track unit 100 located at the tail end of the plurality of track units 100 is the tail end track unit 100b. Either the transmission rack 1 or the tailstock unit 4 in the tail end track unit 100b is provided with an elastic buckle 401, and the other is provided with an insertion hole 108 for the elastic buckle 401 to be inserted to define the position of the tailstock unit 4. The elastic buckle 401 and the insertion hole 108 can have a one-to-many or many-to-one relationship. In this embodiment, the elastic buckle 401 is located on the tailstock unit 4 and there is only one elastic buckle 401. The insertion hole 108 is located on the transmission rack 1. The rack 1 has multiple mounting holes 108 arranged sequentially along the length of the rack 1. The tailstock unit 4 has a groove for mounting an elastic buckle 401. The elastic buckle 401 includes a spring piece and a buckle body protruding from the spring piece. One end of the spring piece is connected to the groove wall, and the other end is suspended to form an elastic mechanism. The buckle body matches the shape of the mounting hole 108, and can be, but is not limited to, square, round, etc. The tailstock unit 4 can be fixed at different positions of the track unit 100 by embedding the buckle body into the mounting holes 108 at different positions.

[0027] In some examples, the side rail assembly 2 includes two opposing side rail units 2a, which together form the aforementioned mounting cavity. The side locking mechanism includes side latches 109 located on the transmission rack 1 and the side rail unit 2a, respectively, and side holes 201 for the side latches 109 to engage. There are multiple side latches 109 and side holes 201, which are spaced apart along the length of the track unit 100. They correspond one-to-one, and each side latch 109 engages in its corresponding side hole 201.

[0028] In this embodiment, the side latch 109 is located on the transmission rack 1, and the side hole 201 is located on the side rail unit 2a. When the side latch 109 on the transmission rack 1 is subjected to force and deforms, it can be locked into the side hole 201 on the side rail unit 2a. Then, the side latch 109 resets and hooks the side rail unit 2a to prevent the two from separating. However, when the side rail is under excessive load or force, the side latch 109 may undergo elastic deformation and separate from the transmission rack 1. After the sliding contact line 302 is inserted into the conductive cavity 103 of the transmission rack 1, it is located in the direction of deformation of the side latch 109. The side latch 109 has no space to deform, thereby preventing the side latch 109 from deforming and firmly locking the side rail unit 2a.

[0029] Preferably, the side-mounted locking mechanism further includes: a rack side 115 extending from the transmission rack 1 along its width direction to both sides; a track side groove 208 formed on one side of the two side rail units 2a that are close to each other for the rack side 115 to be engaged; a track side 209 extending from the side rail unit 2a toward the transmission rack 1; and a rack side groove 116 located on the transmission rack 1 and opening toward the track side 209 for it to be engaged.

[0030] As the rack side 115 engages with the track side groove 208, the track side 209 also engages with the rack side groove 116 to form a cross lock. Furthermore, the rack side 115, track side groove 208, track side 209, and rack side groove 116 all extend along the length of the track unit 100, ensuring that the transmission rack 1 and the side rail unit 2a are engaged throughout their entire length, thereby improving the connection strength between the two.

[0031] Preferably, the side-connection locking mechanism further includes a side-connection boss 110 located at the end of the transmission rack 1 and the end of the side rail unit 2a, and a side-connection groove 202 for the side-connection boss 110 to be engaged. When the transmission rack 1 and the side rail unit 2a are assembled, the side-connection boss 110 and the side-connection groove 202 are first aligned and inserted. During the process, the elastic side-connection latch 109 is engaged in the side-connection hole 201 to lock the transmission rack 1 and the side rail unit 2a.

[0032] In some examples, the transmission rack 1 in the first track unit 100a protrudes to form a docking part 111 for docking with its corresponding side rail assembly 2. After docking, the outer surfaces of the two are flush. The docking part 111 and the side rail respectively have protruding docking posts 203 and recessed docking holes 112 for the docking posts 203 to be inserted into. The side wing 101 is located on the docking part 111. The number of docking posts 203 and docking holes 112 are corresponding, and each docking post 203 is inserted into its corresponding docking hole 112 to accurately position the transmission rack 1 and the side rail assembly 2. The shape of the docking posts 203 and docking holes 112 can be, but is not limited to, rectangular or circular shapes.

[0033] In some examples, the side rail docking mechanism includes a connecting piece 204 protruding from one end of the side rail unit 2a, a connecting groove 205 recessed at the other end of the side rail unit 2a for the connecting piece 204 to be engaged, a connecting buckle 206 elastically disposed on the connecting piece 204, and a fastening groove 207 recessed in the connecting groove 205 for the fastening buckle 206 to be engaged; each side rail unit 2a includes an upper side, a lower side, and a side side for connecting the upper side and the lower side to form a "U"-shaped structure. The upper side protrudes downward to form an upper stop bar, and the lower side protrudes upward to form a lower stop bar. The upper stop bar, the lower stop bar, and the side side enclose the connecting groove 205, and the side side forms the bottom of the connecting groove 205. The fastening groove 207 is formed by the recessed bottom of the connecting groove 205; the connecting buckle 206 is elastically mounted on the connecting piece 204. The specific structure may be: the connecting piece 206 is elastically disposed on the connecting piece 204. The connecting piece 204 has a groove, one end of the connecting buckle 206 is fixed to the groove wall, and the other end is suspended. The connecting buckle 206 protrudes towards the fastening groove 207 to form a protrusion for embedding into the fastening groove 207. The side rail unit 2a has a separation hole 210 corresponding to the fastening groove 207, which communicates with the fastening groove 207. When the curtain track is disassembled, a tool can be inserted into the fastening groove 207 through the separation hole 210 to push the connecting buckle 206 out of the fastening groove 207 so that the two are unlocked. At this time, the connecting piece 204 can be withdrawn from the connecting hole.

[0034] Preferably, the side rail docking mechanism further includes a side rail docking protrusion 211 formed by the protrusion of one end of the side rail unit 2a and a side rail docking recess 212 formed by the recess of the other end of the side rail unit 2a for the side rail docking protrusion 211 to be inserted into. The side rail docking protrusion 211 and the side rail docking recess 212 are matched in shape and correspond in number. The number can be, but is not limited to, one or two.

[0035] The rack and pinion docking mechanism includes a rack and pinion docking protrusion 113 formed by protruding from one end of the transmission rack 1 and a rack and pinion docking recess 114 formed by recessing from the other end of the transmission rack 1 for the rack and pinion docking protrusion 113 to be engaged. The rack and pinion docking protrusion 113 and the rack and pinion docking recess 114 are matched in shape and correspond in number. The number can be, but is not limited to, one or two.

[0036] Working principle: During assembly, firstly, the side connecting boss 110 and the side connecting groove 202 are aligned and inserted. During the process, the rack side 115 is inserted into the track side groove 208, and the track side 209 is also inserted into the rack side groove 116. The side connecting buckle 109 is inserted into the side connecting hole 201 to lock the transmission rack 1 and the side rail unit 2a located on one side. Then, the sliding contact line 302 is inserted into the conductive cavity 103. The protrusion 118 in the guide cavity limits the circumferential movement of the sliding contact line 302. At the same time, the sliding contact line 302 located in the deformation direction of the side connecting buckle 109 occupies the deformation space of the side connecting buckle 109, so that the side connecting buckle 109 can be firmly locked to the side rail unit 2a. Repeat the above steps to lock the transmission rack 1 and the side rail unit 2a located on the other side. At this time, the transmission rack 1, the side rail assembly 2 with its corresponding length, and the sliding contact line 302 are assembled to form the track unit 100. Then, multiple track units 100 are sequentially spliced ​​to form a curtain track of a predetermined length. During the process, the rack docking protrusions 113 and rack docking recesses 114 of the two transmission racks 1 are aligned and inserted, and the side rail docking protrusions 211 and side rail docking recesses 212 on the two side rail units 2a are aligned and inserted. At the same time, the connecting piece 204 of one side rail unit 2a is inserted into the connecting groove 205 of the other side rail unit 2a, and the connecting buckle 206 on the connecting piece 204 is embedded in the buckle groove 207 in the connecting groove 205 to lock the two adjacent side rail units 2a. Finally, insert the first track unit 100a into the socket 303 of the power supply unit 301, and use the side wings 101 and wing grooves 304 to lock them laterally, while using the locking hooks 102 and the fixing base 305 to lock them longitudinally. At this time, the stationary contact piece in the power supply unit 301, the elastic contact piece in the transmission rack 1, and the sliding contact line 302 are connected to conduct electricity in sequence. Then, use the buckles to install the tail frame unit 4 onto the tail track unit 100b to form a complete curtain track.

[0037] Based on the above-described preferred embodiments of the present invention, and through the foregoing description, those skilled in the art can make various changes and modifications without departing from the inventive concept. The technical scope of this invention is not limited to the contents of the specification, but must be determined according to the scope of the claims.

Claims

1. A modular smart curtain power supply track, characterized in that: The track unit (100) has a plurality of track units arranged sequentially along its length. Each track unit (100) includes a drive rack (1), a side rail assembly (2) having a mounting cavity for mounting the drive rack (1), and a side locking mechanism for locking the side rail assembly (2) to the drive rack (1). The docking unit, located between two adjacent track units (100), includes a side rail docking mechanism for locking two adjacent side rail assemblies (2) and a rack docking mechanism for locking two adjacent transmission racks (1). The power supply unit (3) includes a power supply main unit (301) and a sliding contact line (302) electrically connected to the power supply main unit (301). The sliding contact line (302) is inserted inside the transmission rack (1) along its length and abuts against the side locking mechanism to prevent it from loosening. The power supply main unit (301) has a socket (303) for inserting the track unit (100) located at the head end. The track unit (100) and the power supply main unit (301) are provided with a lateral locking mechanism for locking the two laterally and a longitudinal locking mechanism for locking the two longitudinally. The tail frame unit (4) is movably mounted on the track unit (100) located at the tail end.

2. The modular intelligent curtain power supply track according to claim 1, characterized in that: The first track unit (100a) is located at the first end of the track units (100). The lateral locking mechanism includes a side wing (101) protruding from the transmission rack (1) in the first track unit (100a) in the width direction and a wing groove (304) recessed from the insertion hole (303) for the side wing (101) to be engaged to restrict its lateral disengagement.

3. The modular intelligent curtain power supply track according to claim 2, characterized in that: The longitudinal locking mechanism includes a hook (102) disposed on the first end track unit (100a) and a fixing seat (305) protruding from the insertion hole (303) and allowing the hook (102) to pass through and hook to it to restrict its longitudinal disengagement.

4. The modular intelligent curtain power supply track according to claim 2, characterized in that: The transmission rack (1) has a conductive cavity (103) inside for mounting and confining the sliding contact line (302), and each sliding contact line (302) has a stationary contact (306) and a movable contact (307) that is elastically set and used for conductive contact with the stationary contact (306) at both ends. The power supply unit (301) is equipped with a stationary spring (308), and the transmission rack (1) in the first end track unit (100a) is equipped with an elastic spring (309) for electrically connecting the stationary spring (308) to the sliding contact line (302).

5. A modular intelligent curtain power supply track according to claim 4, characterized in that: The transmission rack (1) in the first end track unit (100a) has a protruding end boss (104) for limiting the sliding contact line (302), and the end boss (104) is for the elastic spring (309) to overlap and has a recessed positioning recess (105) for positioning the elastic spring (309).

6. The modular intelligent curtain power supply track according to claim 3, characterized in that: The transmission rack (1) in the first end track unit (100a) has a mounting groove (106) for the locking hook (102) to be rotatably mounted, and the mounting groove (106) is provided with an elastic element (107) for pressing the locking hook (102) against the fixed seat (305) to longitudinally lock the first end track unit (100a) and the power supply main unit (301).

7. The modular intelligent curtain power supply track according to claim 1, characterized in that: Among the several track units (100), the one located at the tail end is the tail end track unit (100b). The tail end track unit (100b) has an elastic buckle (401) on either the transmission rack (1) or the tail frame unit (4), and the other has an insertion hole (108) for the elastic buckle (401) to be inserted to limit the position of the tail frame unit (4).

8. The modular intelligent curtain power supply track according to claim 1, characterized in that: The side rail assembly (2) includes two oppositely arranged side rail units (2a), which together form the above-mentioned mounting cavity. The side connection locking mechanism includes side connection latches (109) located on the transmission rack (1) and the side rail unit (2a) respectively, and a side connection hole (201) for the side connection latches (109) to be engaged. And / or, the side-mounted locking mechanism further includes a side-mounted boss (110) located at the end of the transmission rack (1) and the end of the side rail unit (2a) respectively, and a side-mounted groove (202) into which the side-mounted boss (110) is engaged.

9. A modular intelligent curtain power supply track according to claim 2, characterized in that: The transmission rack (1) inside the first end track unit (100a) has a protruding docking part (111) for docking with the corresponding side rail unit (2a), and the docking part (111) and the side rail unit (2a) respectively have protruding docking posts (203) and recessed docking holes (112) for the docking posts (203) to be inserted into.

10. A modular smart curtain power supply track according to claim 1, characterized in that: The side rail docking mechanism includes a connecting piece (204) protruding from one end of the side rail unit (2a), a connecting groove (205) recessed at the other end of the side rail unit (2a) for the connecting piece (204) to be inserted, a connecting buckle (206) elastically disposed on the connecting piece (204), and a snap-fit ​​groove (207) recessed in the connecting groove (205) for the connecting buckle (206) to be inserted. The rack docking mechanism includes a rack docking protrusion (113) formed by the protrusion of one end of the transmission rack (1) and a rack docking recess (114) formed by the recess of the other end of the transmission rack (1) for the rack docking protrusion (113) to be engaged.

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