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CN-122013958-A - String patterns and string assemblies for forming surfaces with less repetitive designs and shapes at the trigonometric junctions of string patterns

CN122013958ACN 122013958 ACN122013958 ACN 122013958ACN-122013958-A

Abstract

The modular pattern and the segment assemblies form surfaces with less repetitive designs and shapes at the triangular intersections of the modular patterns. Each model, when located at the first direction angle, has the same perimeter composed of 3 outer curve contours. The outer curve profile includes a concave side having a removed first region shape that is added to an adjacent convex side that is capable of seamless engagement with the concave sides of other tiles. Each modular model has 3 different interior top surface portions that protrude inward from the 3 outer curve profiles to the 3 inner curve profiles, which is different from the design of the other modular models. The 3 different interior surface portions are configured to form a surface with a less repeating shape at the triangular intersection between the 3 string patterns, with one pattern at a first orientation angle, a second pattern rotated 120 degrees, and a third pattern rotated 240 degrees.

Inventors

  • BARBIERI GIOVANNI

Assignees

  • 乔瓦尼·巴尔别里

Dates

Publication Date
20260512
Application Date
20250801
Priority Date
20250124

Claims (20)

  1. 1. A modular model of a surface segment for forming a segment assembly to form a surface of less repetitive design and shape at a triangular intersection of the modular model, the modular model comprising: A limited number of 4 to 6 modular models, each having a top surface, a bottom surface and a perimeter with 6 sides, 3 pairs of connected sides of the 6 sides having 3 outer curve profiles when each modular model is at a first orientation angle; Wherein each of the 3 outer curve profiles comprises a concave side having the shape of the first region removed from the concave side and an adjacent convex side having the shape of the first region added to the convex side; Wherein the convex side of one splice model is in seamless engagement with the corresponding concave side of the other splice; Each modular pattern has 3 distinct and mutually corresponding interior top surface portions projecting inwardly from 3 outer curve profiles to 3 pairs of connected interior sides having 3 inner curve profiles connected at interior locations of each modular pattern; wherein each of the 3 different interior surface portions of each of the limited number of modular models is different from the 3 different interior surface portions of the other modular models of the limited number of modular models, and Wherein the mutually corresponding surface portions of the 3 different interior surface portions of each of the finite number of modular models are configured to form a surface with little duplication of shape at the triangular intersections between the 3 modular models of the finite number of modular models, wherein the first modular model is at a first orientation angle, the second modular model is rotated 120 degrees relative to the first orientation angle, and the third modular model is rotated 240 degrees relative to the first orientation angle.
  2. 2. The modular model of claim 1, wherein each triangular junction is a junction comprising three corners of three different modular models of a limited number of modular models, the junction having a corresponding outer curve profile, or a 1/3 irregularity of the edges of the segments of the three different modular models.
  3. 3. The modular model of claim 1, further comprising a tile assembly having a limited number of randomly ordered sequences of columns and rows interconnected at respective male and female sides such that no gaps are formed between the respective male and female sides; Wherein the sequence includes a first modular pattern disposed at a first orientation angle and each modular pattern rotated one of 120 degrees or 240 degrees relative to the first orientation angle and connected to the first modular pattern.
  4. 4. The modular model of claim 3, wherein the random order sequence is a random order of each of the limited number of modular models.
  5. 5. The modular model of claim 1 wherein the 3 different separation patterns of each of the limited number of modular models are different from the 3 different separation patterns of the other modular models of the limited number of modular models; Wherein the mutually corresponding separation patterns of the 3 different separation patterns of each of the limited number of string patterns are configured to form a surface with few redesigns at the triangular intersections.
  6. 6. The modular model of claim 1, wherein the 3 different interior surface portions of each limited number of modular models have 3 different colors, wherein the 3 colors of each modular model of the limited number of modular models are the same 3 colors; wherein the three identical 3 colors of each of the limited number of modular models are mutually corresponding colors configured to form a surface with few redesigns at the triangle intersection.
  7. 7. The modular model of claim 1, wherein the sequence comprises a triangular intersection between 3 modular models of the limited number of modular models, wherein a first modular model is located at a first orientation angle, a second modular model is rotated 120 degrees relative to the first orientation angle, and a third modular model is rotated 240 degrees relative to the first orientation angle.
  8. 8. The modular segment of claim 1 wherein each junction has a mutually corresponding one of 3 different interior surface portions of the first, second and third modular segments, and wherein the junction has the same color as the same one of the first, second and third modular segments.
  9. 9. The modular model of claim 1, wherein each modular model comprises one of wood, plywood, solid wood, wood shaving/chipboard, paper, plastic, linoleum, plywood, composite, tile, marble, or ceramic, and further comprising a tile surface formed from a plurality of tiles of the modular model, wherein the assembly is attached to one surface of a wall, ceiling, table, or floor, and the assembly comprises an adhesive that attaches the modular model to the surface.
  10. 10. The modular model of claim 1, wherein the limited number of modular models further comprises arm splash spots of a fourth color extending inwardly from three corners between the three outer curve profiles to form a three arm decorative zone at some intersections of the first, second and third modular models.
  11. 11. The modular pattern of claim 10 wherein the 3 different interior surface portions of the limited number of modular patterns are configured to form a flower pattern at each intersection, and wherein the three-armed decorative zone is configured to form a flower center pistil pattern in a portion of the flower pattern.
  12. 12. The modular model of claim 1 wherein the 3 different interior surface portions each have a different thickness, and wherein the junction has the same thickness in the 3 different interior surface portions of the first, second and third modular models, and Wherein the same 3 thicknesses of each of the finite number of modular models correspond to one another in thickness configured to form a surface with few redesigns at the triangular intersections.
  13. 13. A modular model for forming a modular assembly to form a surface with a reduced number of repeating designs and shapes at the triangular intersection of the modular model, the modular model comprising: A limited number of 4 to 6 modular models, each having a top surface, a bottom surface and a perimeter with 6 sides, 4 of the sides being hexagonal sides when each modular model is at a first orientation angle, 1 pair of connected sides having 1 outer curve profile; Wherein the 1 outer curve profile comprises a concave side having the shape of the first region removed from the concave side and an adjacent convex side having the shape of the first region added to the convex side; Wherein the convex side of one splice model is in seamless engagement with the corresponding concave side of the other splice; Each modular model has 1 distinct inner top surface portion projecting inwardly from 1 outer curve profile to 1 pair of connected inner sides having 1 inner curve profile connected at an inner location LOC of each modular model; Wherein 1 different interior surface portion of each of the limited number of modular models is different from 1 different interior surface portion of the other of the limited number of modular models, and Wherein the 1 different interior surface portion of each of the finite number of modular models is configured to form a surface with fewer repetitions of shape at the triangular intersection between the 3 modular models of the finite number of modular models, wherein the first modular model is at a first orientation angle, the second modular model is rotated 120 degrees relative to the first orientation angle, and the third modular model is rotated 240 degrees relative to the first orientation angle.
  14. 14. The modular model of claim 13, wherein each triangular junction is a junction comprising three corners of three different modular models of the limited number of modular models.
  15. 15. The modular model of claim 13 wherein 1 different interior surface portion has at least 1 different separation pattern, wherein 1 different separation pattern for each of the limited number of modular models is different from 1 different separation patterns for other modular models of the limited number of modular models, Wherein the 1 different separation pattern of each of the limited number of modular models is configured to form a surface with little redesign at the trigonometric intersection.
  16. 16. The modular model of claim 13, wherein 1 different interior surface portion of each limited number of modular models has 3 different colors, wherein the 3 different colors of each modular model of the limited number of modular models are the same 3 colors; Wherein the 3 different colors of each of the limited number of modular models are configured to form a surface with little redesign at the triangle intersection.
  17. 17. The modular model of claim 16, wherein the 3 different colors of each of the limited number of modular models are randomly selected, and Wherein 3 different colors of the limited number of string patterns are configured to form a flower pattern at each intersection.
  18. 18. A modular model for forming a modular assembly to form a surface with less duplication of design and shape at the triangular intersection of the modular model, the modular model comprising: a limited number of 4 to 6 modular models, each having a top surface, a bottom surface and a perimeter with 6 sides, 3 pairs of connected sides having 3 external bevel shapes when each modular model is at a first orientation angle; Wherein each of the 3 exterior bevel shapes includes a concave side having the shape of the first region removed from the concave side and an adjacent convex side having the shape of the first region added to the convex side; Wherein the convex side of one splice model is in seamless engagement with the corresponding concave side of the other splice; Each modular pattern has 3 different mutually corresponding interior top surface portions that project inwardly from 3 exterior bevel shapes to 3 pairs of connected interior side edges having 3 interior bevel shapes that connect at interior locations of each modular pattern; Wherein each of the 3 different interior surface portions of each of the limited number of modular models is different from the 3 different interior surface portions of the other modular models of the limited number of modular models, and Wherein the mutually corresponding surface portions of the 3 different interior surface portions of each of the finite number of modular models are configured to form a surface with little duplication of shape at the triangular intersections between the 3 modular models of the finite number of modular models, wherein the first modular model is at a first orientation angle, the second modular model is rotated 120 degrees relative to the first orientation angle, and the third modular model is rotated 240 degrees relative to the first orientation angle.
  19. 19. The modular model of claim 18 wherein the bevel shape is comprised of 2 to 6 linear segments forming a bevel at each intersection and Wherein each triangle intersection is one intersection of three corners including three different ones of a limited number of modular models.
  20. 20. The modular model of claim 18, wherein said limited number of modular models are configured to form an assembly having surfaces with less repeated bevel shapes at intersections by utilizing paired bevel sides of connected linear segments at the intersections.

Description

String patterns and string assemblies for forming surfaces with less repetitive designs and shapes at the trigonometric junctions of string patterns Copyright and business appearance statement The disclosure of this patent document contains material which is subject to partial copyright protection. This patent document may show and/or describe matters pertaining to or likely to be the commercial appearance of the entitlement. The copyright and commercial appearance owners are not objection to the facsimile reproduction by anyone of the patent disclosure, as it appears in the patent and trademark office patent file or records, but otherwise reserves all copyright and commercial appearance rights whatsoever. Information of related application The priority of provisional patent application 63/694,011, filed on 9/12 of 2024, entitled "surface having a never repeated design and shape", is hereby incorporated by reference in its entirety. Background Technical Field The invention relates to a limited number of modular models (tile models) that form a surface with less repetitive designs and shapes at their tri-angular intersections (at triangular intersections) and to tile assemblies (tile assemblages) of these modular models. Related art To date, it has not been possible to lay down walls or floors of ceramic tiles, marble or other materials by combining different shapes or designs at the triangle intersections with a limited number of modular models, which are rarely repeated or almost never repeated. The global floor and covering markets are replete with increasingly similar designs that are sometimes tedious and easily duplicated, which in some cases have to be in an unfortunate but necessary form to achieve specific production costs to ensure sales feasibility. The continued search for practical solutions, creating new works in very attractive and completely unique designs and realizing them at reasonable cost, is an effective way for enterprises to stand out in the market and win survival in professional behavior not only in the market but also in employees and households in the first place. After numerous attempts and experiments, new developments have been made in unique tile designs. Now, by the presently disclosed less than ten segments or modular models, less repetitive and aesthetically pleasing designs can be manufactured at lower cost. Drawings Figures 1A-1H depict a limited number of four modular models that can be used to form a modular assembly with surfaces of less repetitive design and shape formed at the triangular intersections of the modular models. Figures 2A-2B depict a limited number of four modular models with arm splatter that can be used to form a tile assembly with less repetitive design and shape surfaces formed at the triangle intersections of the modular models (e.g., triangles may include or be 1/3 of the irregular portion intersections of the same intersections of the modular models). Figures 3A-3B depict a limited number of four modular models having a peripheral outer curve profile and shape of the inner top surface portion that can be used to form a tile assembly with surfaces of less repetitive design and shape formed at the triangular intersections of the modular models. Figures 4A-4C depict a limited number of three modular models that can be used to form a tile assembly with few repeating geometric designs formed at the trigonometric intersection of the modular models. Figures 5A-5D depict a limited number of six modular models that can be used to form a modular assembly with little duplication of design and shape at the trigonometric intersection of the modular models. Fig. 6A-6B depict a limited number of six different thickness modular models that can be used to form a tile assembly or combination to form a surface with less repetitive tile thickness designs and shapes at the triangular intersections of the modular models. In this specification, elements appearing in the drawing are given a three-digit reference identifier (three-DIGIT REFERENCE designators), in which the most significant digit (the most SIGNIFICANT DIGIT) is the drawing number and the two least significant digits (2 least significant digits) are the particular identification of the element. Elements not described in connection with the figures may be presumed to have the same characteristics and functions as elements previously described with the same least significant digit reference identifier. Detailed description of the drawings The present invention relates to a limited number of modular models, and tiles of these models that can be used in a tile assembly or installation, which can form surfaces with less repetitive shape designs and/or shapes at their triangular intersections. For example, using only 3, 4, 5, or 6 modular models herein for simple standard industrial production, less repetitive and aesthetically pleasing tile surface effects can be achieved at more reasonable cost as compared to o