Micro-facsimile single bodies and framing dislocation moving facsimile plate composed of micro-facsimile single bodies

Abstract

The utility model relates to a micro-framing copying single body and a framing dislocation moving copying plate composed of the same. An existing comic copying plate is fixed in structure, cannot be divided and lacks copying use performance in a micro-size state. A light guide plate and a bottom supporting plate in a micro-amplitude copying single body are square plates, the bottom supporting plate is horizontally arranged, the light guide plate is horizontally arranged on the top face of the bottom supporting plate, a regulation and control part is arranged on the bottom supporting plate and electrically connected with the light guide plate, a containing groove is machined in the bottom face of the bottom supporting plate, a first connector is arranged in the containing groove, and a second connector is arranged in the containing groove. The first connector is connected with the end of the flexible battery strip in an inserted mode, the flexible battery strip is electrically connected with the adjusting and controlling piece through the first connector, a first inserting and connecting part is arranged on one side of the bottom supporting plate, and a second inserting and connecting part is arranged on the other side of the bottom supporting plate. A plurality of small-amplitude copying monomers in the framing dislocation moving copying plate are detachably connected to form a total copying screen body, and every two adjacent small-amplitude copying monomers in the wide-amplitude copying screen body are connected through a double-end telescopic battery strip.

Description

Technical Field

[0001] The utility model particularly relates to a micro-copying unit and a framing staggered movable copying plate composed of the unit. Background Art

[0002] Manga copying is a method of learning manga drawing techniques that involves copying existing manga artwork to better understand and master the original artist's style and techniques. By copying, you can learn how to depict elements such as characters, scenes, expressions, and movements, and gradually improve your own drawing skills.

[0003] The training process of comic copying can be achieved mainly through the following methods, specifically:

[0004] 1. Choose a suitable original: Choose a comic book that you like and find valuable to copy. Make sure the original has clear lines and details so that you can better learn and imitate.

[0005] 2. Prepare drawing tools: Prepare drawing tools suitable for copying, such as pencils, charcoal pencils, markers, digital tablets, etc. Choose the tools that suit you according to your personal preferences and habits.

[0006] 3. Analyze the original work: Before you begin copying, carefully observe the original work and analyze its elements and techniques. Pay attention to the thickness, depth, direction of the lines, and the treatment of shadows.

[0007] 4. Step-by-step copying: Choose a part of the original painting, such as the head, body, or background, and begin copying it step by step. Don't rush to finish at the beginning. Try to copy the basic shapes and lines of the original first, and then gradually add details and shadows.

[0008] 5. Compare and Adjust: During the copying process, constantly compare your work with the original to check for differences. Adjust your lines and shading as needed to better imitate the style and technique of the original.

[0009] 6. Repeated practice: Copying is a skill that requires repeated practice. Through constant practice and adjustment, you can gradually improve your painting skills and gradually develop your own style and techniques.

[0010] It's important to note that copying is only one method of learning comic drawing techniques, not the only one. Besides copying, one can also learn and improve their drawing skills by taking drawing courses, reading relevant books, and watching instructional videos. At the same time, remember to maintain creativity and imagination, and strive to innovate and develop based on copying. While copying is essential, as the comic production process develops drawing styles with offset and variable amplitude, operators have also received corresponding training and practice. However, conventional copying boards have a fixed structure and fixed copying area, lacking the ability to provide secondary amplitude modulation and positional movement. This makes it difficult to develop copying structures that support variable amplitude offset or extended offset drawing techniques, and thus lacks the appropriate tools for adapting to new comic illustration formats. Furthermore, wide-format copying structures have limited guidance for copying small images, and there are no suitable tools for copying small images. Furthermore, there is a lack of training or practical tools for multi-offset comic layouts. Utility Model Content

[0011] In order to overcome the defects of the prior art, a micro-copying unit and a frame-shifting movable copying plate composed thereof are provided to solve the above problems.

[0012] A micro-copying unit includes a light guide plate, a base plate and an adjustment control unit. The light guide plate and the base plate are both square plates. The base plate is horizontally arranged, the light guide plate is horizontally arranged on the top surface of the base plate, the adjustment control is arranged on the bottom surface of the base plate, the adjustment control is electrically connected to the light guide plate, a placement groove for matching with a flexible battery strip is processed on the bottom surface of the base plate, a first connector is provided in the placement groove, the first connector is plug-connected to the end of the flexible battery strip, and the flexible battery strip is electrically connected to the adjustment control unit through the first connector, a first plug-in portion is provided on one side of the base plate, and a second plug-in portion is provided on the other side of the base plate.

[0013] A split-frame staggered mobile copy board, comprising a micro-copy unit as described in Specific Embodiments 1, 2, 3, 4, 5, 6, 7 or 8, including a plurality of micro-copy units and a plurality of double-ended telescopic battery strips, wherein the plurality of micro-copy units are detachably connected to form a total copy screen, and adjacent micro-copy units in a wide-frame copy screen are connected by a double-ended telescopic battery strip;

[0014] Each micro-copying unit includes a light guide plate, a bottom support plate and an adjustment control. The light guide plate and the bottom support plate are both square plates. The bottom support plate is arranged horizontally, the light guide plate is arranged horizontally on the top surface of the bottom support plate, the adjustment control is arranged on the bottom support plate, and the adjustment control is electrically connected to the light guide plate. A placement groove is processed on the bottom surface of the bottom support plate, and a first joint is arranged in the placement groove. The first joint is a circular joint, and the first joint includes a circular base and two power-connecting columns. The circular base is arranged in the placement groove, and two power-connecting columns are arranged vertically and side by side in the circular base. A limiting protrusion is processed on the bottom of the circular base, and the limiting protrusion is located between the two power-connecting columns.

[0015] A first plug-in portion is provided on one side of the bottom support plate, and a second plug-in portion is provided on the other side of the bottom support plate. One side of the bottom support plate of a micro-copying unit is plugged into and matched with the second plug-in portion of the bottom support plate of another micro-copying unit through the first plug-in portion, and the light guide plate of one micro-copying unit is magnetically connected to the light guide plate of another adjacent micro-copying unit.

[0016] Each double-head telescopic battery strip includes a telescopic band and two flexible battery strips. The two flexible battery strips are detachably connected with a telescopic band. Each flexible battery strip includes a strip-shaped flexible battery body and a second connector. A second connector that cooperates with the first connector is provided on one end of the strip-shaped flexible battery body. The second connector includes a circular protrusion, a limiting protrusion and two power connection holes. A circular groove is processed on the circular protrusion, and two power connection holes are provided in the circular groove. Each power connection hole is plugged into and matched with the power connection column. A limiting protrusion is provided between the two power connection holes, and the limiting protrusion is plugged into and matched with the limiting protrusion.

[0017] The beneficial effects of the present invention are:

[0018] The micro-copying unit in the utility model forms a tiny copying structure with full copying position through the cooperation between the light guide plate, the bottom support plate and the adjustment control unit. The adjustment control unit and the bottom support plate cooperate with each other to achieve stable support and post-regulation of the light guide plate without occupying too much copying area. The micro-copying unit can be used independently to achieve repeated copying effects of cartoon forms of tiny images, starting from practical operation and training of the use of cartoon forms of tiny images.

[0019] The utility model comprises a plurality of micro-copying units and a plurality of double-headed telescopic battery strips, which are composed of a partitioned staggered mobile copying board. The partitioned self-staggered mobile copying board structure can realize the overall staggered layout and regular layout of multiple small cartoon images. A variety of staggered or regular arrangement states are formed by changing the relative positions of the plurality of micro-copying units, which are adapted to different specific practical operations and training requirements. At the same time, each micro-copying unit is connected by a double-headed telescopic battery strip whose length can be adjusted telescopically, so as to realize a stable power supply process under different staggered positions between two micro-copying units. The power supply mode is not limited by the staggered position and the adaptation environment, and a reasonable operation process of layout first and corresponding power supply is realized, which can meet the fast and required copying needs in different environments. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 This is a schematic diagram of the main structure of the micro-copying unit in the present invention;

[0021] Figure 2 It is a rear view structural diagram of the micro-copying unit in the present invention;

[0022] Figure 3 is a schematic diagram of the three-dimensional structure of the first joint;

[0023] Figure 4 This is a schematic diagram of the top view of the micro-copying unit in the present invention;

[0024] Figure 5 This is a schematic diagram of the structure of the micro-copying unit in the present invention when viewed from above;

[0025] Figure 6 Schematic diagram of the three-dimensional structure of the self-limiting plug-in board;

[0026] Figure 7 It is a schematic diagram of the rear view structure of two micro-copying monomers connected;

[0027] Figure 8 It is a schematic diagram of the three-dimensional structure of the double-headed telescopic battery bar;

[0028] Figure 9 A first rear-view structural diagram showing the connection relationship between a plurality of micro-copying monomers;

[0029] Figure 10 A rear structural diagram illustrating the connection between multiple micro-copy units and a double-ended retractable battery strip;

[0030] Figure 11 A schematic diagram of the main structure showing the connection relationship between multiple micro-copying units;

[0031] Figure 12 A second rear-view structural diagram showing the connection relationship between a plurality of micro-copying monomers;

[0032] Figure 13 A second rear-view structural diagram showing a plurality of micro-copying units in a staggered connection relationship;

[0033] Figure 14 A rear view structural diagram showing a staggered connection between multiple micro-copy units and a double-ended telescopic battery strip;

[0034] Figure 15 This is a schematic diagram of the second rear-view structure in which multiple micro-copy units are in another staggered connection relationship, and the two double-headed telescopic battery bars are removed from the figure.

[0035] In the figure: 1-light guide plate; 2-bottom support plate; 3-adjustment control; 4-placement slot;

[0036] 5-first connector; 5-1-round base; 5-2-electrical column; 5-3-limiting protrusion;

[0037] First plug-in portion; 6-1 - strip-shaped groove; 6-2 - first ridge; 6-3 - second ridge; 6-4 - clamping and positioning gap;

[0038] Second plug-in portion; 7-1-strip plate; 7-2-first short groove; 7-3-second short groove;

[0039] Flexible battery strip; 8-1-strip-shaped flexible battery body; 8-2-second connector; 8-2-1-circular protrusion; 8-2-2-limiting groove; 8-2-3-power connection hole;

[0040] Magnetic suction strip; 10-micro-copying unit; 11-total copying screen; 20-double-head telescopic battery strip; 21-telescopic belt. DETAILED DESCRIPTION

[0041] The following describes the embodiments of the present invention through specific examples. Those skilled in the art will readily understand the other advantages and benefits of the present invention from the disclosure herein. The present invention may also be implemented or applied through various other specific embodiments, and the details in this specification may be modified or altered based on different perspectives and applications without departing from the spirit of the present invention.

[0042] Specific implementation method 1: Combination Figure 1 、 Figure 2 、 Figure 3 、 Figure 4 、 Figure 5 、 Figure 6 、 Figure 7 、 Figure 8 、 Figure 9 、 Figure 10 、 Figure 11 、 Figure 12 、 Figure 13 、 Figure 14 and Figure 15 This embodiment describes a micro-copying unit 10 comprising a light guide plate 1, a base plate 2, and an adjustment control 3. Both the light guide plate 1 and the base plate 2 are square plates. The base plate 2 is positioned horizontally, and the light guide plate 1 is positioned horizontally on the top surface of the base plate 2. The light guide plate 1 is a conventional self-luminous plate, with an outer cover made of acrylic or other similar materials, and light beads or light strips arranged within. The operating principle of the light guide plate 1 is the same as that of conventional light guide plates. The adjustment control 3 is arranged on the bottom support plate 2, and the adjustment control 3 is electrically connected to the light guide plate 1. A placement groove 4 that matches the flexible battery strip 8 is processed on the bottom surface of the bottom support plate 2, and a first connector 5 is provided in the placement groove 4. The first connector 5 is plug-connected to the end of the flexible battery strip 8, and the flexible battery strip 8 is electrically connected to the adjustment control 3 through the first connector 5. The adjustment control 3 is essentially an existing control panel, which can adjust the light guide plate 1 to turn on and off. An electrical control unit, a controller or drive board is provided inside it, and a start or shut down operation button is arranged on its outer wall. The operation button is connected to the controller or drive board and is used for start and shut down operations under power supply conditions. The lamp beads or light strips in the light guide plate 1 can be specifically connected by connecting the positive pole of the lamp beads or light strips in the light guide plate 1 to the positive pole of the controller or drive board, and connecting the negative pole of the lamp beads or light strips in the light guide plate 1 to the negative pole of the controller or drive board. The connection method is the existing electrical control connection method.

[0043] In this embodiment, a first plug-in portion 6 is provided on one side of the bottom support plate 2, and a second plug-in portion 7 is provided on the other side of the bottom support plate 2. When multiple micro-copy units 10 are used, one side of a micro-copy unit 10 is plugged into and matched with the second plug-in portion 7 of another adjacent micro-copy unit 10 via the first plug-in portion 6, thereby achieving a connection between the two micro-copy units 10. The other side of the micro-copy unit 10 is plugged into and connected with the first plug-in portion 6 of a third adjacent micro-copy unit 10 via the second plug-in portion 7, thereby achieving a stable and fixed connection process between the micro-copy unit 10 and the third micro-copy unit 10.

[0044] Specific embodiment 2: This embodiment is a further limitation of specific embodiment 1. In this embodiment, the first plug-in portion 6 is a self-limiting slot, and the self-limiting slot includes a strip groove 6-1, multiple first ridges 6-2 and multiple second ridges 6-3. The length direction of the strip groove 6-1 is in the same direction as the length direction of the bottom support plate 2. Multiple first ridges 6-2 are arranged in sequence on the inner wall of one side of the strip groove 6-1 along the length direction of the strip groove 6-1, and multiple second ridges 6-3 are arranged in sequence on the inner wall of the other side of the strip groove 6-1 along the length direction of the strip groove 6-1. The length direction of the first ridge 6-2 is the same as the groove depth direction of the strip groove 6-1, and the length direction of the second ridge 6-3 is the same as the groove depth direction of the strip groove 6-1. The number of first ridges 6-2 and second ridges 6-3 is the same, and each first ridge 6-2 is correspondingly provided with a second ridge 6-3. A clamping positioning gap 6-4 is formed between each first ridge 6-2 and its corresponding second ridge 6-3.

[0045] The mating structure corresponding to the first plug-in portion 6 is the second plug-in portion 7, and the second plug-in portion 7 is a self-limiting plug-in plate. The width of the self-limiting plug-in plate is matched with the groove depth of the self-limiting slot. The self-limiting plug-in plate includes a strip plate body 7-1, and the strip plate body 7-1 is plugged into and matched with the strip groove 6-1. One side of the strip plate body 7-1 is processed with a first short groove 7-2 which is arranged in a one-to-one correspondence with the first convex ridge 6-2, and the other side of the strip plate body 7-1 is processed with a second short groove 7-3 which is arranged in a one-to-one correspondence with the second convex ridge 6-3.

[0046] In this embodiment, the plug-in matching mode of the first plug-in portion 6 and the second plug-in portion 7 can achieve a stable and lasting non-deviating effect in any connection state, ensuring that the relative positions between the two micro-copy units 10 are in a stable connection state.

[0047] Specific embodiment three: This embodiment is a further limitation of specific embodiment one or two. In this embodiment, the power supply of the light guide plate 1 is provided by a flexible battery strip 8. The flexible battery strip 8 includes a strip-shaped flexible battery body 8-1 and a second connector 8-2. The strip-shaped flexible battery body 8-1 is an existing flexible strip-shaped lithium battery. Its working principle is the same as that of the existing flexible strip-shaped lithium battery. A second connector 8-2 that cooperates with the first connector 5 is provided on one end of the strip-shaped flexible battery body 8-1. The second connector 8-2 includes a circular protrusion 8-2-1, a limiting groove 8-2-2 and two power connection holes 8-2-3. The circular protrusion 8- A circular groove is processed on 2-1, and two power connection holes 8-2-3 are arranged in the circular groove. Each power connection hole 8-2-3 is plugged into the power connection column 5-2. A limiting groove 8-2-2 is set between the two power connection holes 8-2-3. The limiting groove 8-2-2 is plugged into the limiting protrusion 5-3. The two power connection holes 8-2-3 are respectively the connection holes of the positive and negative poles of the strip-shaped flexible battery body 8-1. The power connection hole 8-2-3 where the positive pole of the strip-shaped flexible battery body 8-1 is located is connected to the positive pole of the light strip in the light guide plate 1, and the power connection hole 8-2-3 where the negative pole of the strip-shaped flexible battery body 8-1 is located is connected to the negative pole of the light strip in the light guide plate 1.

[0048] Specific embodiment four: This embodiment is a further limitation of specific embodiments one, two or three. In this embodiment, a magnetic suction strip 9 is provided on the light guide plate 1. The magnetic suction strip 9 is an existing metal sheet with magnetism. The magnetic suction strip 9 is fixedly connected to the outer wall of the light guide plate 1. When the bottom support plate 2 is connected to other bottom support plates 2 through the first plug-in portion 6 and the second plug-in portion 7, the light guide plate 1 can also be connected to the magnetic suction strips 9 of other light guide plates 1 through its own matching magnetic suction strip 9. The connection method facilitates rapid attraction and disassembly and separation. The mutual cooperation between the first plug-in portion 6, the second plug-in portion 7 and the magnetic suction strip 9 can realize the cooperation and connection process of multiple micro-copying units 10 with multiple detachable structures from bottom to top.

[0049] Specific embodiment 5: This embodiment is a further limitation of specific embodiment 4. The first connector 5 is a circular connector. The first connector 5 includes a circular base 5-1 and two power posts 5-2. The circular base 5-1 is set in the placement groove 4. Two power posts 5-2 are vertically arranged in parallel in the circular base 5-1. The bottom of the circular base 5-1 is processed with a limiting protrusion 5-3. The limiting protrusion 5-3 is located between the two power posts 5-2. The two power posts 5-2 are respectively the positive pole power post and the negative pole power post.

[0050] Specific embodiment six: This embodiment is a further limitation of specific embodiments one, two, three, four or five. The placement slot 4 is a long strip-shaped slot, one end of the placement slot 4 is a circular arc end, and the other end of the placement slot 4 is an open end. The structural form of the placement slot 4 can adapt to the shape of the flexible battery strip 8 itself, realize the adaptation and installation process of the strip shape, and realize the rapid installation and connection power supply process. The placement slot 4 of this structural form is suitable for the use of a single micro-copying unit 10, and is also suitable for the splicing of two micro-copying units 10. It can flexibly and quickly realize the copying process of one or two micro-copying units 10 in a small state.

[0051] Specific embodiment seven: This embodiment is a further limitation of specific embodiments one, two, three, four or five, and the placement groove 4 is a trapezoidal groove. The placement groove 4 of this structural form is a right-angled trapezoid, and the positions of its two right-angled sides are both the first edge opening and the second edge opening, wherein the maximum length of the first edge opening is four-fifths of the length of the bottom support plate 2, and the maximum length of the second edge opening is two-thirds of the width of the bottom support plate 2, so as to adapt to the condition of no misalignment and provide a rotational space position for the assembly of the flexible battery strip 8. Specifically, when multiple micro-copying units 10 are misaligned, the flexible battery strip 8 can rotate in the placement groove 4, and the shape of the placement groove 4 is conducive to providing a rotational space position for the flexible battery strip 8 to turn.

[0052] Specific implementation method eight: combination Figures 1 to 14 This embodiment describes a frame-by-frame staggered mobile copy board comprising a plurality of micro-copy units 10 and a plurality of double-ended telescopic battery strips 20. The plurality of micro-copy units 10 are detachably connected to form a total copy screen 11. Two adjacent micro-copy units 10 in the wide-format copy screen 11 are connected via a double-ended telescopic battery strip 20.

[0053] Each micro-copying unit 10 includes a light guide plate 1, a base plate 2, and an adjustment control 3. Both the light guide plate 1 and the base plate 2 are square plates. The base plate 2 is horizontally arranged, and the light guide plate 1 is horizontally arranged on the top surface of the base plate 2. The light guide plate 1 is a conventional self-luminous plate body, with an outer cover made of acrylic or other similar plates, and a light bead or light strip arranged inside. The operating principle of the light guide plate 1 is the same as that of existing light guide plates. The adjustment control 3 is arranged on the bottom support plate 2, and the adjustment control 3 is electrically connected to the light guide plate 1. A placement groove 4 that matches the flexible battery strip 8 is processed on the bottom surface of the bottom support plate 2, and a first connector 5 is provided in the placement groove 4. The first connector 5 is plug-connected to the end of the flexible battery strip 8, and the flexible battery strip 8 is electrically connected to the adjustment control 3 through the first connector 5. The adjustment control 3 is essentially an existing control panel, which can adjust the light guide plate 1 to turn on and off. An electrical control unit, a controller or drive board is provided inside it, and a start or shut down operation button is arranged on its outer wall. The operation button is connected to the controller or drive board and is used for start and shut down operations under power supply conditions. The lamp beads or light strips in the light guide plate 1 can be specifically connected by connecting the positive pole of the lamp beads or light strips in the light guide plate 1 to the positive pole of the controller or drive board, and connecting the negative pole of the lamp beads or light strips in the light guide plate 1 to the negative pole of the controller or drive board. The connection method is the existing electrical control connection method.

[0054] Among them, a first plug-in portion 6 is provided on one side of the bottom support plate 2, and a second plug-in portion 7 is provided on the other side of the bottom support plate 2. When multiple micro-copying units 10 are used in combination, one side of a micro-copying unit 10 is plugged into and matched with the second plug-in portion 7 of another adjacent micro-copying unit 10 through the first plug-in portion 6, thereby realizing the connection between the two micro-copying units 10, and the other side of the micro-copying unit 10 is plugged into and connected with the first plug-in portion 6 of the third adjacent micro-copying unit 10 through the second plug-in portion 7, thereby realizing a stable and non-displacement connection process between the micro-copying unit 10 and the third micro-copying unit 10.

[0055] In this embodiment, the first plug-in portion 6 is a self-limiting slot, which includes a strip groove 6-1, a plurality of first ridges 6-2 and a plurality of second ridges 6-3. The length direction of the strip groove 6-1 is in the same direction as the length direction of the bottom support plate 2. The plurality of first ridges 6-2 are arranged in sequence on the inner wall of one side of the strip groove 6-1 along the length direction of the strip groove 6-1, and the plurality of second ridges 6-3 are arranged in sequence on the inner wall of the other side of the strip groove 6-1 along the length direction of the strip groove 6-1. The length direction of the first ridge 6-2 is the same as the groove depth direction of the strip groove 6-1, and the length direction of the second ridge 6-3 is the same as the groove depth direction of the strip groove 6-1. The number of first ridges 6-2 and second ridges 6-3 is the same, and each first ridge 6-2 is correspondingly provided with a second ridge 6-3. A clamping positioning gap 6-4 is formed between each first ridge 6-2 and its corresponding second ridge 6-3.

[0056] The mating structure corresponding to the first plug-in portion 6 is the second plug-in portion 7, and the second plug-in portion 7 is a self-limiting plug-in plate. The width of the self-limiting plug-in plate is matched with the groove depth of the self-limiting slot. The self-limiting plug-in plate includes a strip plate body 7-1, and the strip plate body 7-1 is plugged into and matched with the strip groove 6-1. One side of the strip plate body 7-1 is processed with a first short groove 7-2 which is arranged in a one-to-one correspondence with the first convex ridge 6-2, and the other side of the strip plate body 7-1 is processed with a second short groove 7-3 which is arranged in a one-to-one correspondence with the second convex ridge 6-3.

[0057] In this embodiment, the plug-in matching mode of the first plug-in portion 6 and the second plug-in portion 7 can achieve a stable and lasting non-deviating effect in any connection state, ensuring that the relative positions between the two micro-copy units 10 are in a stable connection state.

[0058] During the specific connection, one side of the bottom support plate 2 of one micro-copying unit 10 is plugged into the second plug-in portion 7 of the bottom support plate 2 of another micro-copying unit 10 through the first plug-in portion 6. A magnetic suction strip 9 is provided on each light guide plate 1, and the magnetic suction strip 9 is fixedly connected to the outer wall of the light guide plate 1.

[0059] The light guide plate 1 of one micro-copying unit 10 is magnetically connected to the magnetic suction strip 9 on the light guide plate 1 of another adjacent micro-copying unit 10 via the magnetic suction strip 9;

[0060] Each double-headed telescopic battery strip 20 includes a telescopic band 21 and two flexible battery strips 8. A telescopic band 21 is arranged between the two flexible battery strips 8. The two ends of the telescopic band 21 are respectively fixedly connected or detachably connected to the two flexible battery strips 8. The detachable connection method is a plug-in connection. The flexible battery strip 8 can be provided with a socket, and the end of the telescopic band 21 is correspondingly provided with a plug-in plate, which is convenient for disassembly to facilitate the use of the flexible battery strip 8 alone, and can also be assembled to realize the power supply process of the two micro-copying units 10.

[0061] When the two ends of the retractable belt 21 are respectively fixedly connected to the two flexible battery strips 8, the connection method is stable and durable, and can be integrated and connected. The connection method is inseparable. When it comes to powering a single micro-copying unit 10, only one flexible battery strip 8 needs to be started, and the other one is kept in standby use.

[0062] In addition, the stretchable belt 21 is an existing elastic corrugated belt or other existing flexible elastic belt body, which can realize its own elastic changes, so that its own length is extended or shortened, thereby driving the relative distance between the two flexible battery strips 8 to be different, and is suitable for the power supply process between two adjacent micro-copying units 10 in different offset positions.

[0063] Each flexible battery strip 8 includes a strip-shaped flexible battery body 8-1 and a second connector 8-2. A second connector 8-2 that cooperates with the first connector 5 is provided on one end of the strip-shaped flexible battery body 8-1. The second connector 8-2 includes a circular protrusion 8-2-1, a limiting groove 8-2-2 and two power connection holes 8-2-3. A circular groove is processed on the circular protrusion 8-2-1, and two power connection holes 8-2-3 are provided in the circular groove. Each power connection hole 8-2-3 is plugged into and matched with the power connection column 5-2. A limiting groove 8-2-2 is provided between the two power connection holes 8-2-3, and the limiting groove 8-2-2 is plugged into and matched with the limiting protrusion 5-3.

[0064] In this embodiment, the first plug-in portion 6 is a self-limiting slot, which includes a strip groove 6-1, a plurality of first ridges 6-2 and a plurality of second ridges 6-3. The length direction of the strip groove 6-1 is the same as the length direction of the bottom support plate 2. The plurality of first ridges 6-2 are arranged in sequence on the inner wall of one side of the strip groove 6-1 along the length direction of the strip groove 6-1, and the plurality of second ridges 6-3 are arranged in sequence on the inner wall of the other side of the strip groove 6-1 along the length direction of the strip groove 6-1. The length direction of the first ridge 6-2 is the same as the groove depth direction of the strip groove 6-1, and the length direction of the second ridge 6-3 is the same as the groove depth direction of the strip groove 6-1. Each first ridge 6-2 is correspondingly provided with a second ridge 6-3, and a clamping positioning gap 6-4 is formed between each first ridge 6-2 and its corresponding second ridge 6-3.

[0065] In this embodiment, the second plug-in portion 7 is a self-limiting plug-in plate, which includes a strip plate body 7-1. The strip plate body 7-1 is plugged into the strip groove 6-1. One side of the strip plate body 7-1 is processed with a first short groove 7-2 which corresponds to the first ridge 6-2, and the other side of the strip plate body 7-1 is processed with a second short groove 7-3 which corresponds to the second ridge 6-3.

[0066] In this embodiment, the plug-in matching structures of the first connector 5 and the second connector 8-2 are correspondingly arranged. The plug-in matching between the two can make the power supply process more stable, and the plugged-in state is firm and stable and not easy to separate.

[0067] In this embodiment, the side edges of the placement groove 4 can be processed with elastic convex strips to block the two sides of the flexible battery strip 8, so that the flexible battery strip 8 can be buckled into it, ensuring the stability of the flexible battery strip 8 in the placement groove 4, which is beneficial to the stable connection between the first connector 5 and the second connector 8-2, and is also convenient for disassembly.

[0068] Embodiment 9: This embodiment is a further limitation of Embodiment 8. The placement groove 4 is a long strip-shaped groove body. One end of the placement groove 4 is an arc end, and the other end is an open end. The structural form of the placement groove 4 can adapt to the shape of the flexible battery strip 8 itself, realizing the fitting installation process of the strip shape and the rapid installation and connection power supply process. The placement groove 4 with this structural form is suitable for the single use of the micro-copying monomer 10, and is also suitable for the splicing use of two micro-copying monomers 10, and can flexibly and quickly realize the copying process of one or two micro-copying monomers 10 in a small state.

[0069] Embodiment 10: This embodiment is a further limitation of Embodiment 8. The placement groove 4 is a trapezoidal groove. The placement groove 4 with this structural form is a right trapezoid, and the positions of its two right-angled sides are both open positions, which are used to provide a rotation space position for the assembly of the flexible battery strip 8 under the condition of no misalignment. Specifically, in the state where multiple micro-copying monomers 10 are arranged in a staggered manner, the flexible battery strip 8 can rotate in the placement groove 4, and the shape of the placement groove 4 is conducive to providing a rotation space position for the turning of the flexible battery strip 8.

[0070] Combined with Figures 1 to 15 As shown, the utility model can form a staggered connection method of two to ten pieces according to specific use requirements and copying requirements. The top surface of the light guide plate 1 in each micro-copying monomer 10 is a copying surface, and multiple copying surfaces are spliced to form a regular total copying screen body 11 or an irregular-shaped total copying screen body 11. The shape of the regular total copying screen body 11 is long strip-shaped, square or rectangular, and the irregular-shaped total copying screen body 11 is a U-shaped with a concave middle and convex ends, and can also be Z-shaped, T-shaped or other shapes.

[0071] In the utility model, the regulating member 3 can also be provided with a connecting wire head for directly connecting to a power supply for use, providing multiple optional power supply methods in the case of single use or having a fixed power supply.

[0072] The process of using the micro-copying monomer 10 alone in the utility model:

[0073] The flexible battery strip 8 is buckled in the placement groove 4, the regulating member 3 is started, and the light guide plate 1 emits light to form a copying operation mode in a small picture format state on its top surface, and the corresponding copying operation of a small picture can be carried out.

[0074] The process of using the sub-frame misaligned moving copying board in the utility model:

[0075] The positional relationship between multiple micro-copying monomers 10 is adjusted accordingly according to the requirements of copying or cartoon layout, and the relative position of other adjacent micro-copying monomers 10 is limited and fixed through the first plug-in part 6 and the second plug-in part 7 in each micro-copying monomer 10. After the relative positions of multiple micro-copying monomers 10 are fixed, a double-headed telescopic battery bar 20 is connected between the two placement grooves 4 on the back of two adjacent micro-copying monomers 10. Since the position of the double-headed telescopic battery bar 20 itself is adjustable, it can be stretched or shortened to a corresponding length, thereby ensuring that the two connectors 8-2 in the double-headed telescopic battery bar 20 are respectively connected to the first connector 5 close to it, and then the adjustment control unit 3 of the micro-copying monomer 10 is started as needed. The micro-copying monomers 10 can be started to emit light at the same time, or one or more of them can be selected to emit light according to needs to form a copying use state with intermittent lighting or a copying use state with full-screen lighting.

Claims

1. A micro-copying monomer, characterized by: The invention comprises a light guide plate (1), a bottom support plate (2) and an adjustment control (3), wherein the light guide plate (1) and the bottom support plate (2) are both square plates, the bottom support plate (2) is arranged horizontally, the light guide plate (1) is arranged horizontally on the top surface of the bottom support plate (2), the adjustment control (3) is arranged on the bottom surface of the bottom support plate (2), the adjustment control (3) is electrically connected to the light guide plate (1), a placement groove (4) matched with the flexible battery strip (8) is processed on the bottom surface of the bottom support plate (2), a first connector (5) is arranged in the placement groove (4), the first connector (5) is plug-connected to the end of the flexible battery strip (8), the flexible battery strip (8) is electrically connected to the adjustment control (3) through the first connector (5), a first plug-in portion (6) is arranged on one side of the bottom support plate (2), and a second plug-in portion (7) is arranged on the other side of the bottom support plate (2).

2. The micro-copying monomer according to claim 1, characterized in that: The first plug-in portion (6) is a self-limiting slot, which includes a strip groove (6-1), a plurality of first ridges (6-2) and a plurality of second ridges (6-3). The length direction of the strip groove (6-1) is in the same direction as the length direction of the bottom support plate (2). The plurality of first ridges (6-2) are sequentially arranged on the inner wall of one side of the strip groove (6-1) along the length direction of the strip groove (6-1). The plurality of second ridges (6-3) are sequentially arranged on the inner wall of the other side of the strip groove (6-1) along the length direction of the strip groove (6-1). The length direction of the first ridges (6-2) is the same as the groove depth direction of the strip groove (6-1). The length direction of the second ridges (6-3) is the same as the groove depth direction of the strip groove (6-1). Each first ridge (6-2) is correspondingly provided with a second ridge (6-3). A clamping positioning gap (6-4) is formed between each first ridge (6-2) and its corresponding second ridge (6-3).

3. The micro-copying monomer according to claim 2, characterized in that: The second plug-in portion (7) is a self-limiting plug-in plate, which comprises a strip-shaped plate body (7-1) that is plugged into and matched with the strip-shaped groove (6-1). One side of the strip-shaped plate body (7-1) is processed with a first short groove (7-2) that is arranged in a one-to-one correspondence with the first ridge (6-2), and the other side of the strip-shaped plate body (7-1) is processed with a second short groove (7-3) that is arranged in a one-to-one correspondence with the second ridge (6-3).

4. The micro-copying monomer according to claim 1, characterized in that: A magnetic attraction strip (9) is provided at each end of the light guide plate (1).

5. The micro-copying monomer according to claim 1, characterized in that: The first connector (5) is a circular connector, comprising a circular base (5-1) and two power connection columns (5-2). The circular base (5-1) is arranged in the placement groove (4), and the two power connection columns (5-2) are arranged vertically and side by side in the circular base (5-1). A limiting protrusion (5-3) is processed on the bottom of the circular base (5-1), and the limiting protrusion (5-3) is located between the two power connection columns (5-2).

6. A micro-copying monomer according to claim 1, 2, 3, 4 or 5, characterized in that: The placement groove (4) is a long strip-shaped groove body, one end of the placement groove (4) is an arc end, and the other end of the placement groove (4) is an open end.

7. A micro-copying monomer according to claim 1, 2, 3, 4 or 5, characterized in that: The placement groove (4) is a trapezoidal groove.

8. A framing staggered movable copying plate, comprising a micro-copying monomer according to claim 1, 2, 3, 4, 5, 6 or 7, characterized in that: The invention comprises a plurality of micro-copying monomers (10) and a plurality of double-ended telescopic battery strips (20), wherein the plurality of micro-copying monomers (10) are detachably connected to form a total copying screen (11), and two adjacent micro-copying monomers (10) in the wide copying screen (11) are connected via a double-ended telescopic battery strip (20); Each micro-copying unit (10) includes a light guide plate (1), a bottom support plate (2) and an adjustment control unit (3), wherein the light guide plate (1) and the bottom support plate (2) are both square plates, the bottom support plate (2) is arranged horizontally, the light guide plate (1) is arranged horizontally on the top surface of the bottom support plate (2), the adjustment control unit (3) is arranged on the bottom support plate (2), and the adjustment control unit (3) is electrically connected to the light guide plate (1), a placement groove (4) is processed on the bottom surface of the bottom support plate (2), a first connector (5) is arranged in the placement groove (4), the first connector (5) is a circular connector, the first connector (5) includes a circular base (5-1) and two power connection columns (5-2), the circular base (5-1) is arranged in the placement groove (4), two power connection columns (5-2) are vertically arranged in parallel in the circular base (5-1), a limiting protrusion (5-3) is processed on the bottom of the circular base (5-1), and the limiting protrusion (5-3) is located between the two power connection columns (5-2); A first plug-in portion (6) is provided on one side of the bottom support plate (2), and a second plug-in portion (7) is provided on the other side of the bottom support plate (2). One side of the bottom support plate (2) of one micro-copying unit (10) is plugged into and matched with the second plug-in portion (7) of the bottom support plate (2) of another micro-copying unit (10) via the first plug-in portion (6). The light guide plate (1) of one micro-copying unit (10) is magnetically connected to the light guide plate (1) of another adjacent micro-copying unit (10). Each double-head telescopic battery strip (20) comprises a telescopic band (21) and two flexible battery strips (8), the two flexible battery strips (8) being detachably connected with the telescopic band (21), each flexible battery strip (8) comprising a strip-shaped flexible battery body (8-1) and a second connector (8-2), one end of the strip-shaped flexible battery body (8-1) being provided with a second connector (8-2) that matches the first connector (5), the second connector (8-2) comprising a circular protrusion (8-2-1), a limiting groove (8-2-2) and two power connection holes (8-2-3), the circular protrusion (8-2-1) being processed with a circular groove, the circular groove being provided with two power connection holes (8-2-3), each power connection hole (8-2-3) being plugged into and matched with a power connection column (5-2), a limiting groove (8-2-2) being provided between the two power connection holes (8-2-3), the limiting groove (8-2-2) being plugged into and matched with the limiting protrusion (5-3).

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