Module splicing structure

Abstract

A module splicing structure comprises to-be-spliced modules (C), a connecting component (A), a reinforcing accessory (B), and functional accessories (D, E, G). The to-be-spliced modules (C) are provided with holes or troughs. The connecting component (A) is inserted into the holes or the troughs of two adjacent to-be-spliced modules (C). The shape of the whole or partial cross section of the connecting component (A) inserted into the to-be-spliced modules (C) is the same as the shape of the cross sections of the holes or the troughs of the to-be-spliced modules (C). Connected by the connecting component (A), multiple to-be-spliced modules (C) are spliced into a whole structure or a building. The structure is applied to the field of engineering construction, and can be assembled, disassembled and maintained conveniently and quickly.

1 . A module splicing structure, comprising to-be-spliced modules and a connecting component, wherein the to-be-spliced modules are provided with holes or troughs, the connecting component is inserted into the holes or the trough of the two adjacent to-be-spliced modules, and the shape of the whole or partial cross section of the connecting component inserted into the to-be-spliced modules is the same as the shape of the cross sections of the holes or the troughs of the to-be-spliced modules;
 the connecting component has a non-circular cross section.   
     
     
         2 . The module splicing structure of  claim 1 , wherein:
 each of the to-be-spliced modules is provided with convex, concave and convex-concave connection structures; the maximum surface projection shape after removing the convex, concave and convex-concave connection structures is a triangle, a square, a rectangle, a diamond, a parallelogram, a trapezoid, a pentagon, a hexagon, a heptagon, an octagon, an enneagon or a closed curve; and the convex, concave and convex-concave connection structures of each of the to-be-spliced modules are equipped with holes, the contour of each hole is a plane solid or curved solid prism or bevel, and the section shape of each hole is a triangle, a square, a rectangle, a diamond, a parallelogram, a trapezoid, a star, a pentagon, a hexagon, a heptagon, an octagon, an enneagon or a closed curve;   the contour of the connecting component is a plane solid or curved solid prism or bevel, and the shape of the cross section of the connecting component is a triangle, a square, a rectangle, a diamond, a parallelogram, a trapezoid, a star, a pentagon, a hexagon, a heptagon, an octagon, an enneagon or a closed curve;   the shape of the cross section of the connecting component is the same as the section shape of the holes of the convex, concave and convex-concave connection structures of the to-be-spliced modules; and   the convex connection structure of each of the to-be-spliced modules is inserted into the concave connection structure of the two adjacent to-be-spliced modules or between the two convex connection structures, and the connecting component is inserted into the hole of a connection structure of the two adjacent to-be-spliced modules.   
     
     
         3 . The module splicing structure of  claim 1 , wherein:
 the maximum surface projection shape of each of the to-be-spliced modules is a rectangle and a square, slope angles and holes are formed at four sides of each of the to-be-spliced modules, and the contour of each hole is a plane solid or curved solid prism or bevel, the section shape of each hole is a triangle, a square, a rectangle, a diamond, a parallelogram, a trapezoid, a star, a pentagon, a hexagon, a heptagon, an octagon, an enneagon or a closed curve;   the contour of the connecting component is a plane solid or curved solid prism, and the shape of the cross section of the connecting component is a triangle, a square, a rectangle, a diamond, a parallelogram, a trapezoid, a star, a pentagon, a hexagon, a heptagon, an octagon, an enneagon or a closed curve; the shape of the cross section of the connecting component is the same as the section shape of the holes of the to-be-spliced modules; and the connecting component is inserted into the hole of the adjacent to-be-spliced modules.   
     
     
         4 . The module splicing structure of  claim 1 , wherein:
 the maximum projection shape of each of the to-be-spliced modules is a rectangle and a square, and the four corners or the back of each of the to-be-spliced modules are provided with troughs, and the contour of each trough is a cuboid, a cube, a quadrangular prism or a hexagonal prism, and an octagonal prism, and the section of each trough has a rectangular shape, a square shape, a parallelogram shape and a trapezoidal shape or is wedge-shaped and is T-shaped;   the contour of the connecting component is a cuboid, a cube, a quadrangular prism, an octagonal prism or a dodecagonal prism, and the cross section thereof is H-shaped or I-shaped; and the shape of the cross section of the portion that the connecting component is inserted into the trough of the splicing module is the same as the section shape of the trough of the splicing module; and the connecting component is inserted into the trough of the adjacent to-be-spliced modules to connect the adjacent to-be-spliced modules or the lower portion of the connecting component connects the adjacent to-be-spliced modules through a track fixed on a fixing surface.   
     
     
         5 . The module splicing structure of  claim 1 , wherein:
 each of the to-be-spliced modules is a pipeline connection accessory component such as a pipeline type and an elbow, and the section shape thereof is a circle, an ellipse, a square, a rectangle, other polygons or a closed curve; and the to-be-spliced modules are equipped with troughs, the contour of each trough is a curved solid, and the section of each trough is T-shaped, L-shaped, fan-shaped, hammer-shaped, arrow-shaped and wedge-shaped or has a closed curve shape;   the contour of the connecting component is a curved solid, the connecting component has a symmetrical cross section shape, and the cross section of the connecting component is I-shaped, concave, eight-shaped and H-shaped, and has a double arrow shape, a double wedge shape or a closed curve shape; and   the shape of a half of the symmetrical cross section of the connecting component is the same as the section shape of the trough of the splicing module, and the connecting component is inserted into the trough of the adjacent to-be-spliced modules.   
     
     
         6 . The module splicing structure of  claim 1 , wherein:
 each of the to-be-spliced modules is provided with a concave connection structure; the maximum surface projection shape after removing the concave connection structure is a triangle, a square, a rectangle, a diamond, a parallelogram, a trapezoid, a pentagon, a hexagon, a heptagon, an octagon, an enneagon or a closed curve; and the to-be-spliced modules are equipped with troughs, the contour of each trough is a curved solid, and the section of each trough is T-shaped, L-shaped, fan-shaped, hammer-shaped, arrow-shaped and wedge-shaped or has a closed curve shape;   the contour of the connecting component is a curved solid, the connecting component has a symmetrical cross section shape, and the cross section of the connecting component is I-shaped, concave, eight-shaped and H-shaped, and has a double arrow shape, a double wedge shape or a closed curve shape; and   the shape of a half of the symmetrical cross section of the connecting component is the same as the section shape of the trough of the splicing module, and the connecting component is inserted into the trough of the adjacent to-be-spliced modules.   
     
     
         7 . The module splicing structure of  claim 2 , wherein:
 the connecting component is installed in the hole of the splicing module at two sides of the concave connection structure, a spring locking mechanism is arranged in a direction vertical to the connecting component, two pits are provided at a collision part between the connecting component and a locking pin of the spring locking mechanism, and when the connecting component is fully inserted into and fully withdrawn from the adjacent to-be-spliced modules, the locking pin of the spring locking mechanism is inserted into the pit under a spring thrust, and the connecting component is in a locking state; the convex connection structure of one of the two adjacent to-be-spliced modules is inserted into the concave connection structure of the other one thereof; and two to-be-spliced modules are connected together in the hole formed by inserting the connection component into the two adjacent to-be-spliced modules.   
     
     
         8 . The module splicing structure of  claim 2 , wherein:
 the connecting component is installed on a side chute at a splicing module side opposite to the convex structure, a slider that slides left and right along the chute is arranged at the root of the connecting component, the spring locking mechanism is arranged on the slider in a direction vertical to the connecting component, two pits are arranged at a collision part between the bottom of the side chute at the splicing module side and the locking pin of the spring locking mechanism, and when the connecting component is fully inserted into and fully withdrawn from the adjacent to-be-spliced modules, the locking pin of the spring locking mechanism is inserted into the pit under a spring thrust, and the connecting component is in a locking state; and two to-be-spliced modules are connected together in the hole formed by inserting the connection component into the convex connection structure of the two adjacent to-be-spliced modules.   
     
     
         9 . The module splicing structure of  claim 1 , wherein:
 the connecting component is connected into a grid for increasing structural strength;   the splicing module or the connecting component is equipped with a through hole through which a rope, a steel cable, a clamp and a bolt pass, and the rope, the steel cable, the clamp and the bolt are fixed at two ends of the splicing module or the connecting component; and   the splicing module is equipped with a fluid flow path, the fluid flow path is connected through the connection accessory, and liquid or gas is circulated between the connected to-be-spliced modules through the fluid flow path.   
     
     
         10 . The module splicing structure of  claim 1 , wherein:
 when the shape of the cross section of the connecting component is an equilateral triangle, the connection angle between the two adjacent to-be-spliced modules is 120 or 240 degrees;   when the shape of the cross section of the connecting component is a square, the connection angle between the two adjacent to-be-spliced modules is 90, 180 or 270 degrees;   when the shape of the cross section of the connecting component is a regular pentagon, the connection angle between the two adjacent to-be-spliced modules is 72, 144, 216 or 288 degrees;   when the shape of the cross section of the connecting component is a regular hexagon, the connection angle between the two adjacent to-be-spliced modules is 60, 120, 180, 240 or 300 degrees;   when the shape of the cross section of the connecting component is a regular heptagon, the connection angle between the two adjacent to-be-spliced modules is 51.4, 102.8, 154.2, 205.6, 257 or 308.4 degrees;   when the shape of the cross section of the connecting component is a regular octagon, the connection angle between the two adjacent to-be-spliced modules is 45, 90, 135, 180, 225, 270 or 315 degrees; and   when the shape of the cross section of the connecting component is a regular enneagon, the connection angle between the two adjacent to-be-spliced modules is 40, 80, 120, 160, 200, 240, 280 or 320 degrees.