TWI738690B - Multipurpose modular bit assembly - Google Patents

Abstract

A multi-purpose bit assembly is shown and described herein. The tool assembly may comprise one or more body members. A body member may comprise a magnet, a main body and a bit. The main body may comprise various sides, one or more of which may include one or more apertures on its surface and one or more bits protruding therefrom. The bit may include a bit body and a bit head. The body members may include differently configured bits. Bits may be inserted in to the apertures to connect the body members. The bit assembly may comprise one or more attachment members. An attachment member may attach two or more bits together.

Description

Multifunctional modular component and its integrated structure

The present invention relates to a component and its integrated structure. More specifically, the modular component and its integrated structure include one or more attachable body elements.

Manual and electric tools have become more and more sophisticated and specialized to meet various needs in modern life. However, although these tools are very useful, most tools still have many headaches. Many traditional tools are designed for specific or specialized purposes.

These specialized tools are used to perform a wide range of different tasks, but on the other hand, the number of tools required to perform these tasks is usually shocking and expensive. In addition, when the user tries to locate each tool and switch tools back and forth, switching between tools can be tedious, time-consuming, and frustrating. When users have to carry a large number of tools, access to tools is limited, or cannot maintain close proximity to all tools necessary to perform a specific task, switching or replacing tools can be particularly frustrating.

It is often the case that workers will need to install and/or disassemble fasteners of different types and sizes in rapid succession, and this situation frequently occurs when many workers do not have or are far away from the supply of tools such as tool boxes. In addition, workers may need to access other tools such as squares, spirit levels, and rulers. These additional tools complicate the problems of traditional tools in the application.

For these and other reasons, there is clearly a need to improve the tool set in the present invention.

The following presents an overview of the present invention to provide a basic understanding of some aspects of the present invention. This summary neither intends to identify the key or decisive elements of all the embodiments, nor does it intend to define any limitations of the embodiments or claims. In addition, this summary may provide a brief overview of some aspects that may be described in more detail in other parts of the invention.

Disclosed is a multifunctional modular component and its integrated structure, which have various embodiments, compared with traditional tools, can provide multiple functions and improve work efficiency and utilization. In one embodiment, the assembly and its integrated structure may include one or more body elements. The body element may include a body, which may have many faces. One or more faces may include one or more pores. In another aspect, the one or more surfaces may include one or more component heads disposed on the surface. The component head may include one or more component head bodies and one or more component head ends. In one aspect, one or more component heads may be selectively disassembled. By inserting the assembly head of the body element into the aperture of another body element, the body elements can be engaged with each other. In one embodiment, the assembly and its integrated structure may include one or more body elements, which may include end body elements. The body element of each end portion may include a plurality of end surfaces, one or more surfaces may have one or more apertures, and at least one surface may have a fixed surface. The components can be configured into various shapes by adding, removing, or combining body elements or end body elements in different ways. In one embodiment, the assembly is made linear. In another aspect, it can be made into L, S, Z, T shapes.

In at least one embodiment, the body element with the component head may include a polygonal prism. One or more sides of the polygonal prism may include one or more pores, and the surface has one or more component heads. Furthermore, in an embodiment, the body element of the polygonal prism may be hexagonal. At least In one aspect, the body element may be a cylinder, and one or more side surfaces of the body element may include one or more apertures and one or more component heads.

In one embodiment, one or more pores on the surface of the main body may be polygonal. For example, the polygonal pores may be hexagons. In at least one embodiment, one or more pores on the surface of the main body may be circular. In one aspect, one or more surfaces of the main body may also include one or more triangular pores or protrusions.

In at least one embodiment, the assembly head body may include a polygonal prism. The polygonal component head body may be inserted and embedded in a hole having a corresponding polygonal shape. It should be noted that the polygonal component head body may be hexagonal. In an embodiment, the component head end may include a component head such as a screwdriver tip or a tapered end, a component head of a writing tool tip, a component head of a cosmetic tool tip, a component head of a toy tip, and lighting The component head of the terminal, such as 3C products such as flash memory drive or similar hardware tool terminal.

According to an embodiment, the body element at the end of the component integration structure may include a polygonal prism. The surface of one or more sides of the polygonal prism may contain one or more pores. For example, the body element at the end of the polygon may be a hexagon. In at least one aspect, the body element at the end may also include a cylinder, and one or more of its side surfaces may include one or more pores.

In one aspect, the component integration structure may include one or more attachment elements, which can be connected via one or more apertures on the body element and used to connect those body elements and other body elements.

The component integration structure can be used to meet various needs, which may be achieved by using different component heads arranged on the body element. The assembly heads on the integrated structure of the assembly head There may be different component heads, which can provide different functions. The body components may have different marks or configurations to identify the component heads on them.

In at least one embodiment, the component integration structure may include 16 body elements, which can be divided into two groups. Each group can contain 8 body elements, including two end body elements. In each group, at least one body element may include a double-head assembly head detachable thereon.

The following description and drawings disclose various example aspects. Some improvements and novel aspects can be clearly identified, while others are self-explanatory and partly visible in the drawings.

100: body component

110: main body

111 ₁ ~111 ₈ : Noodles

112: Assembled Pore

114: Pore

115: height or length

116: cavity

117: length

120: Gasket

122: Porosity

130: Magnet

131 ₁ : Top side

131 ₂ : bottom side

132: Pore

140: component header

142: Component head body

144: Component head end head

146: Component head base

148: Pin

152: Cavity

160: Chamber

162: Lower Chamber

164: upper chamber

170: round groove

172: Cross-section length

174: Cross section length

176: Cross section length

180: (three) angle bolt

184, 188: (three) corner pores

200: body component

210: main body

211 ₁ : Remote

211 ₂ : Near-end

211 ₃ : First side

211 ₄ : Second side

212: Assembled Pore

214: Pore

240: component head

242: Component head body

244: component head

246: Edge

260: Chamber

262: lower chamber

264: Upper Chamber

266: Chamber Opening

270: Attaching components

272: Circumference

274: Circumference

280: (Three) Angle Bolt

284, 288: (three) corner pores

300: component integration structure

310: body component

312: remote

316: Subject

318: Porosity

320: body component

322: remote

324: Proximal

326: Subject

328: Pore

330: component head

332: Component head body

340: component header

342: Component head body

344: Component head end head

366: Chamber Opening

380: (three) angle bolt

384, 388: (three) corner pores

400: body component

410: Subject

412: Assembled Pore

414: Proximal

416: remote

460: Chamber

500: body component

510: Subject

514: Proximal

516: remote

540: component header

600: Component integration structure

610: body components

620: The first body element

622: second body element

624: third body element

626: The fourth body element

628: Fifth body element

630: Noodles

632: face

634: Noodles

636: Noodle

638: Noodles

640: Edge

642: edge

644: edge

646: edge

648: edge

650: component header

700: component integration structure

710: body component

712: body component

714: body component

716: body component

800: component integration structure

802: The first body component group

804: The second body component group

810: body component

820: body component

830: body component

840: component head

900: Component integration structure

902: The first body component group

904: The second body component group

906: The third body component group

910: body components

930: body components

940: body component

950: body component

952: component header

1010: power tools

1020: body component

1022: component header

1100: body components

1110: main body

1120: component head

1122: Component head end head

1124: Component head end head

It should be noted that the drawings only depict exemplary embodiments of the present invention, and therefore should not be regarded as limiting the scope of the present invention, because the present invention may allow other equally effective embodiments.

Figure 1 shows an exploded view of the body components.

Figure 2 shows the wireframe of the assembled body components.

Figure 3 shows a side view of the body element.

Figure 4 shows another side view of the body element.

Figure 5 shows a top view of the body element.

Figure 6 shows a bottom view of the body element.

Figure 7 is a perspective view of the main body element.

Figure 8 is a perspective view of the attachment element connected to the body element.

Figure 9 is a perspective view of two body elements connected together.

Fig. 10 is a perspective view of the body element without the end portion of the body element.

FIG. 11 is a perspective view of the body element including the body element at the end.

Figure 12 shows a side view of an integrated structure with exposed component heads and a plurality of body elements configured in a linear shape.

FIG. 13 shows a side view of a body element with two end portions and a plurality of body elements that do not have a bare component head and are configured into a linear integrated structure.

Figure 14 shows a side view of an integrated structure in which multiple body elements are configured into an L shape.

Figure 15 shows a side view of a Z-shaped integrated structure composed of multiple body elements.

Figure 16 shows a side view of the integrated structure of a set of body components configured to be connected to an electric tool.

Figure 17 shows a side view of the body element including the detachable double-head assembly head.

Reference will now be made to exemplary embodiments, where examples are illustrated in the drawings. It should be understood that other embodiments can be utilized, and structural and functional changes can be made to them. In addition, the features of the various embodiments may be combined or modified. Likewise, the following description is only presented in an illustrative manner, and should not limit the various substitutions and modifications that can be made to the illustrated embodiment in any way. In the present invention, a large number of specific details provide an in-depth understanding of the main body of the present invention. It should be understood that aspects of the present invention can be practiced through other embodiments, and not necessarily all aspects described therein.

As used herein, "example" and "exemplary" refer to examples or illustrations. The term "example" or "exemplary" does not refer to the key or preferred aspect of the embodiment. The word "or" is intended to include rather than exclude, unless the context dictates otherwise. As an example, the sentence "A uses B or C" includes any inclusive permutation combination (for example, A uses B, A uses C, or A uses both B and C). On the other hand, the word "a" generally means "one or more" unless the context dictates otherwise.

The various embodiments disclosed herein relate to a multifunctional modular component integration structure, which may include one or more body elements. The body element may include different shapes, such as polygonal or Cylindrical. The body element may include one or more faces, and the surface of the one or more faces may include one or more pores. The body element may further include one or more component heads. It is possible to selectively remove one or more component heads. For example, the first assembly head and the second assembly head can be detached from the body element. In another example, the first assembly head can be detached, but the second assembly head is fixed on the body element and cannot be detached. The component head may include one or more component head bodies and/or one or more component head ends. In one embodiment, the body element may include a portion for connecting the body element and another body element. In one embodiment, the component integration structure may include one or more attachment elements that are connected to the body element and used to connect different body elements such as magnetic attachment elements. In one aspect, the component integration structure may include one or more body elements, and a body element including ends. For example, the body element of the end portion may be similar to other body elements, but the first side may lack a component head and/or the second side may lack a hole for accommodating the body element. In the embodiment, by adding, removing or combining the body and/or the body elements of the end, the component integration structure can be configured into various shapes to meet various functional requirements. By using a body element with a specific component head, the component integration structure can also be used for different purposes.

In the following detailed description of different embodiments of the present invention, terms such as "top", "bottom", "top view", "side view" and the like are used from time to time. It should be noted that these descriptive terms are used only to simplify the description. As mentioned above, in different embodiments of the present invention, the body element may include a variety of shapes, some of which may not have traditional top, bottom, front, back, or similar parts. In some instances, in order to describe specific drawings or for brevity, "top", "bottom", "front" or similar terms are used. In these cases, replace the reference top, bottom, etc. with the first side and second side, etc. These terms refer to the relative positions as shown in the figure. Therefore, in the embodiment, other surfaces such as top and bottom are referred to. For example, depending on the desired vantage point and/or embodiment, the top side may be referred to as the bottom side or similar designations.

Turning to FIG. 1 and FIG. 2, there are body elements 100 according to various aspects of the present invention. Fig. 1 is an exploded view of the main body element 100, and Fig. 2 is a block diagram of the main body element 100 after assembly. The body element 100 may include a main body 110, a spacer 120, a magnet 130 and/or a component head 140. In one aspect, as described therein, the body element 100 is coupled to or contained in the component integration structure. For the purpose of illustration, although the embodiments may refer to a component integration structure or multiple component integration structures, it should be noted that the embodiments may not include tools and/or be used as tools. For example, embodiments include toys, cosmetic tools, or other integrated structures.

In one aspect, the body element 100 is assembled to form the main body 110 with a cavity 116 therein. The cavity 116 can accommodate at least a part of the gasket 120, the magnet 130 and/or the assembly head 140. For example, the base 146 of the component head 140 is disposed in the cavity 116, and once inserted or accommodated in the cavity 116, the inserted component will be fixed thereon. For example, the cavity 116 is molded. In another aspect, at least a part of the spacer 120, the magnet 130, and/or the component head 140 is formed (for example, three-dimensional printing, chemical deposition, etc.) or molded into the main body 110. It should be noted that the body element 100 can be formed or assembled according to other suitable methods. It should be further noted that the different components of the body element 100 may include a monolithic configuration and/or may be attachable (for example, detachable or non-detachable) assembled. In addition, it should be noted that the body element 100 may include a different number of components. For example, the body element 100 includes a different number of spacers (for example, 0, 2, 3, etc.). The body element 100 also includes more than one component head.

The component head 140 includes a component head body 142, a component head base 146 and a component head end 144. The assembly head body 142 can extend from the assembly head base 146 to the assembly head end 144. The assembly head head 144 can extend from the proximal end (for example, the proximal end of the assembly head body 142) to the distal end (the distal end of the assembly head base 146). In one aspect, the assembly head 144 includes suitable The component head selected for the purpose. For example, the assembly head 144 includes a screwdriver assembly head and the like as described therein. It should be noted that the component head 144 may include components such as cone component heads, hexagonal component heads, writing tools, cosmetic tools, toys, lighting (light emitting diodes (LED)), keys, brushes, flash memory, etc. Drivers or other types of component heads. In another aspect, the component head 144 may be operably connected to other types of component heads. For example, a hexagonal component head can be attached to a screwdriver component head or other suitable component head. The assembly head body 142 may include a pin 148. As described therein, when the body element 100 is connected to another body element, the pin 148 can be configured to lock the assembly head body 142. When the component head body 142 and the component head base 146 are generally illustrated as hexagonal prisms, it should be noted that the component head body 142 and the component head base 146 may include other shapes.

In one aspect, the cross-sectional length 174 of the component head 144 may be approximately the same length as the cross-sectional length 172 of the component head body 142 or less than the latter. In another aspect, the cross-sectional length 172 of the component head body 142 may be approximately the same length as the cross-sectional length 176 of the component head base 146 or less than the latter. For example, the cross-sectional length 174 of the component head 144 is smaller than the cross-sectional length 172 of the component head body 142, which is smaller than the cross-sectional length 176 of the component head base 146. In one aspect, increasing the cross-sectional length (e.g., from the component head 144 to the component head base 146) helps to change (e.g., improve) the structural integrity. For example, the longer cross-sectional length 176 of the component head base 146 may allow the component head base 146 to serve as an anchor or a counterweight to fix the component head 140 with the main body 110.

In at least one embodiment, the assembly head 140 may include more than one assembly head end head. For example, the component head 140 may include two component heads. When the component head 140 includes more than one component head, it may include the same number of component head bodies as the number of component heads. The head of each component head may be arranged on an independent component head body and extend from the proximal end of the component head body to the distal end of the component head body. For example, the component head 140 includes a component head base and Two component head bodies. The two component head bodies are arranged on different surfaces of the component head base. One of the assembly head bodies may extend from the base of the assembly head to a head of the assembly head. The body of another component head may extend from the base of the component head to the head of another component head. In one aspect, the component head 140 may include less than the number of heads. In addition, at least two component heads share one component head body. When a component head 140 with more than one component head is assembled into the main body 110, one or more of the component heads will be inserted into the main body 110 and fixed on it. In an embodiment, the assembly head 140 can be detached from the main body 110. In addition, by inserting the different component heads of the component head 140 to the main body 110, the component head 140 can be assembled into the main body 110, so that each component head can be exposed and used.

Figure 17 shows a body element 1100 including a detachable component head. As shown in FIG. 17, the body element 1100 includes a main body 1110 and a component head 1120. The component head 1120 includes a double-head component head and/or can be detached from the main body 1110. For example, when the component head 1124 is worn, the component head 1120 can be detached and can be reconnected to the main body 1110 by inserting the component head 1124 into the main body 1110. After that, the head 1122 of the assembly is exposed and used. It is also possible to disassemble the head 1122 of the component head and replace it with another component head as a whole.

The main body 110 includes a polygonal prism with N faces, where N is a number herein. For example, the main body 110 includes a hexagonal prism, a right prism, or the like. It should be noted that the main body 110 includes other shapes or configurations such as a cone shape, an hourglass shape, an irregular shape, an ergonomic configuration shape, or the like. It should be further noted that when the main body 110 includes a polygonal prism, it may include a plurality of well-defined edges, as shown in FIG. 1. In one aspect, the edge of the main body 110 may be chamfered, chamfered, tapered, or the like. In at least one embodiment, the main body 110 may substantially include a cylindrical shape. According to one embodiment, the master The body 110 includes a plurality of clamping structures formed on or in the surface of the body. For example, the main body 110 includes ribs or ridges, which enable a user to conveniently hold the main body 110. The main body 110 may be made of different materials such as metal, plastic, glass, rubber, stone, or wood. For example, the main body 110 may be made of aluminum alloy. In one aspect, the main body 110 includes a handle of the main body element and/or a part of a handle of an integrated component structure.

In one embodiment, the body element 100 includes one or more faces, one or more of which includes one or more pores. For example, body 110 includes 8 planes _1111--8. For brevity, the face 111 ₁ may refer to the top face 111 ₁ , and the face 111 ₂ may refer to the bottom face 111 ₂ . Side 111 ₁₆ includes assembly aperture 112. The shape and size of the assembly aperture 112 are appropriate, and can accommodate the component head 144 and/or other components (such as attachment components). For example, the assembly aperture 112 is generally circular or conical, and is sized to accommodate the head 144 of the component. In another aspect, the assembly aperture 112 is made of a certain size, so that the assembly head body 142 cannot be inserted into the assembly aperture 112. In at least one embodiment, the face 111 ₃ may include pores 114. The size and shape of the aperture 114 are suitable and can accommodate a part of another body element, such as the component head body of the body element. For example, the shape of the aperture 114 is a hexagon and includes an inner circumference, and its size and shape are similar to the circumference of the assembly head body 142. In at least one embodiment, one or more surfaces of the main body 110 are located at a distance between the aperture 114 and the outer edge of the lower chamber 162, and are provided with one or more (three) corner apertures (as shown in Fig. 1 and Fig. 1). At least triangular polygonal pores shown in Figure 2), such as (three) corner pores 184 and 188. Furthermore, in one embodiment, one or more surfaces of the main body 110 are located at a distance from the outer edge of an upper chamber 164, and are provided with one or more (three) corner bolts 180 (as shown in Figure 1 and Figure 1). 2 shown in the figure). It should be noted that the (three) corner apertures 184 and 188 can be used to accommodate the (three) corner bolt 180, and when two or more body elements are connected to each other, they can be tightly engaged. The engagement between the (three) corner hole 184 or 188 and the (three) corner bolt 180 further fixes the component integration structure, and due to the close engagement relationship of the lifting, the holes 114 and the upper and lower chambers 164, 162 are connected to each other. Each (three) corner hole 184, 188 and the (three) corner bolt 180 have a certain distance between them, so that a moment can be formed during the rotating operation, so as to reduce the bearing force of the hole 114 and the upper and lower chambers 164, 162 This prevents the relative slippage phenomenon that may occur between the body element 100 and the main body 110. It should be noted that the pores and plugs include other suitable shapes.

In one aspect, the assembly aperture 112 and the aperture 114 are substantially coaxial with each other. In another aspect, the assembly aperture 112 and the aperture 114 intersect the cavity 160 of the _{bottom surface 111 2.} For example, the assembly head body 142 can be inserted into the aperture 114 so that the assembly head end 144 extends through the assembly aperture 112. In another aspect, the height or length 115 of the exposed portion of the component head 140 (such as the component head body 142 and the component head end head 144) is substantially the same as or less than the length 117 of the coaxial assembly aperture 112 or the aperture 114. For example, the exposed part of the component head (for example, a component head similar to the component head 140) can be inserted through the aperture 114 and the assembly aperture 112, so that the distal end of the assembly head does not extend into the assembly aperture 112. out. It should be noted that the precise size (such as shape, size, etc.) of the assembly aperture 112 and the aperture 114 may at least partially depend on the desired size of the assembly head 144 and assembly head body 142. Within the scope and spirit of the present invention, other shapes such as circular pores and triangular pores can be used.

The gasket 120 is made of nylon, rubber, or any other suitable material. In one aspect, the gasket 120 includes a material that can be compressed. In one example, the gasket 120 can be compressed in the configuration so that a part of the component head 140 is flush _{with the upper end surface 111 11.} For example, the assembly head base 146 is inserted into the cavity 116. Adjust the component head base 146 so that the component head base 146 and the upper end surface 111 _{11 are} flush or on the same plane. The magnet 130 can be configured into various shapes. In one embodiment, as shown in FIG. 1, the magnet 130 may include a frame-like shape such as a circle. In one aspect, the magnet 130 may include a south pole and a north pole. For example, towards the top side 131 of the magnet ₁ includes a north pole 130 and magnet 130 toward the bottom side ₁₃₁₂ includes a south pole or vice versa. The magnet 130 can adsorb the component head 140. It should be noted that the attraction force to the assembly head 140 is smaller than the attraction force to the magnet 130.

The gasket 120 and the magnet 130 may include apertures 122 and 132. In another aspect, the assembly head base 146 includes a cavity 152. When forming the body element 100, the apertures 122/132 and the cavity 152 are generally aligned or coaxial with each other and/or the cavity 160 located on the bottom surface. The pores 122/132 and the cavity 152 form a cavity 160. The chamber is defined by a lower chamber 162 and an upper chamber 164, which generally include apertures 122/132 and a cavity 152. In one aspect, the circumference of the lower chamber 162 is substantially greater than the circumference of the upper chamber 164. For example, the shape and size of the lower cavity 162 can accommodate the component head body 142, and the size and shape of the upper cavity 164 can accommodate the component head 144. For example, the size and shape of the cavity can respectively accommodate the component head 144 and the component head body 142, thereby achieving tight engagement.

The gasket 120 includes a deformable material. For example, the assembly head 140 includes a circular groove 170. When the assembly head 140 is pushed through the cavity 160, the gasket 120 is deformed due to the assembly head 144. When the component head 144 reaches the final position through the upper chamber 164, the gasket 120 is snapped or snapped into the circular groove 170. Once connected, when the user pulls away the body element, the gasket 120 will come out of the circular groove 170. In one aspect, the gasket 120 and the circular groove 170 make the connection safe or adjustable (e.g., improved).

According to various disclosed aspects, FIG. 3 is a side view of an exemplary embodiment of the body element 200. The body element 200 includes a main body 210 and a component head 240. The component head 240 may include a component head body 242, a component head base and/or a component head end 244. The different components of the body element 200 include a monolithic configuration and/or can be configured separately. For example, the component head 240 and the main body 210 can be a single-piece configuration or can be separately configured and can be assembled with a ground (for example, detachable or non-detachable). It should be noted that as reference As described in the components of the body element 100, the components of the body element 200 generally include similar parts and/or functions. For example, the body element 200 includes a magnet similar to the magnet 130. In another aspect, the main body 210 includes a portion similar to the main body 110. For example, the main body 210 includes a chamber 260, as shown in FIG. 6, which is composed of an upper chamber and a lower chamber.

The assembly head body 242 includes various shapes. In one aspect, the assembly head body 242 is a polygonal prism with M faces, and M is a number herein. As shown in FIGS. 3 to 8, the assembly head body 242 includes a hexagonal prism. It should be noted that the component head body 242 includes any shape such as a cylindrical shape, a conical shape, an hourglass shape, a spiral shape, an ergonomic configuration shape, an irregular shape, or other similar shapes. In one aspect, the shape is determined according to the tool and/or the specific application of the desired configuration. In another aspect, the assembly head body 242 includes an edge 246. The edge 246 may be drum-shaped, chamfered, chamfered, tapered, or the like.

The assembly head 240 can _{extend or protrude from the distal end 211 1} (for example, the top or top surface) of the main body 210. The component head 240 is inserted into a cavity of another body element (for example, similar to the cavity 260), and in this way, the component head body 242 and the component head end 244 are configured. Similarly, the cavity 260 is configured to accommodate at least a part of the component head 240. For example, the cavity 260 includes a shape that generally corresponds to the shape of the assembly head body 242. In one aspect, the chamber opening 260 may comprise a chamber 266, which is provided on the proximal end ₂₁₁₂ of the body 210 (e.g., bottom end or bottom). The cavity opening 266 includes a shape that is similar to the shape of the assembly head body 242. For example, the chamber opening 266 includes a hexagonal aperture that faces the lower chamber 262. The lower chamber 262 includes a polygonal prism shape, which is similar to the shape of the assembly head body 242. In another aspect, the size of the lower chamber 262 and/or the chamber opening 266 is approximately equal to or larger than the circumference of the assembly head body 242. For example, when the assembly head body 242 is inserted into the cavity 260, the assembly head body 242 axially pushes the lower chamber 262. In another aspect, the component head 244 is inserted into the upper cavity 264 so that the exposed part of the component head 240 is completely covered by the cavity 260. When fully inserted, the distal end of the head assembly contacts the proximal end ₂₁₁₂ and / or parallel thereto.

In at least one embodiment, the body 210 includes multiple faces. Said body first face _2,113,210 comprises the first surface 210 of the body. For example, the main body 210 includes a hexagonal prism or other shapes as described above. In at least one embodiment, the main body 210 includes a plurality of edges. In one aspect, the edge of the main body 210 is well-defined. In another aspect, it is chamfered, chamfered or tapered. The first surface ₂₁₁₃ includes an aperture 214. ₂₁₁₃ along the first face, the aperture 214 disposed at different positions. In one aspect, the aperture 214 is disposed proximally of the proximal end _2112. In another aspect, the aperture 214 is thus arranged to be lower than the upper chamber 264 and/or to intersect the lower chamber. As mentioned, the pores 214 include hexagonal openings (ie, polygonal pores). It should be noted that the aperture 214 includes other shapes as described therein. ₄ includes a second surface 211 of the aperture 212 is assembled. The assembly aperture 212 generally includes a cylindrical opening, and the aperture 214 is coaxial and/or orthogonal to the cavity 260. In one aspect, the aperture assembly 212 disposed adjacent to the proximal end 211 _2, 264 such as below the upper chamber. The circumference or circumference of the assembly aperture 212 is substantially smaller than the circumference of the aperture 214. For example, the assembly head 240 can be inserted into the aperture 214. In one example, a user can insert a component head (for example, component head 240) into the aperture 214. The user can press the assembly head so that the assembly head 240 is completely inserted therein. When fully inserted therein, the assembly head body 242 can be disposed in the aperture 214 (and/or at least a part of the lower chamber 262). The assembly head 244 may be disposed in the assembly aperture 212 (and/or at least a part of the lower chamber 262).

In another example, the user can insert the assembly head 240 into the assembly aperture 212. The appropriate size of the assembly aperture 212 can accommodate the component head 244 and/or another Components (e.g., attachment elements shown in Figure 8). In another aspect, the assembly hole 212 can be further configured so that the assembly head body 242 cannot be inserted into the assembly hole 212. For example, the circumference of the assembly aperture 212 is smaller than the circumference of the assembly head body 242, but greater than or substantially equal to the circumference of the assembly head 244.

It should be noted that the main body 210 includes different numbers of pores and/or different shapes of pores. In another aspect, the aperture has a shape different from that of the component head body 242 and/or the component head 244. As an example, the assembly head body 242 includes a hexagonal prism shape and one aperture of the other body element includes a rectangle. The pores are arranged on the same surface or different surfaces of the main body 210. It should be noted that the different assembly apertures 212 generally include the same, similar or different shapes. In another aspect, the assembly apertures 212 generally include the same, similar or different sizes.

In at least one embodiment, the body 210 includes one or more triangular apertures or plugs. The triangular holes or bolts can be arranged on different surfaces of the main body 210. As shown in FIG. 3, the first cam surface 211 includes _three apertures 284. Along the first surface _2113, the triangular apertures 284 may be disposed at different positions. It should be noted that the triangular holes and bolts can be arranged on different faces of the main body 210.

In one aspect, there are more than one pores or plugs on one surface of the main body 210. For example, 6, 6 (c) the angle of aperture 288 is provided on the proximal end of the FIG _2112. 6 (c) the angle of aperture 288 is provided to uniformly surrounding the proximal end _2112. It should be noted that the porosity is not uniformly provided in the periphery of a proximal end _2112, and in its various positions. In FIGS. 3 to 5, the surface of the surface includes 6 (three) corner bolts 280. When the head 240 is inserted through the assembly to the chamber 260, 200 is connected to the body members together, said body member on the proximal end ₂₁₁₂ of (iii) angle aperture 288 accommodates the distal end of the body member 211 further ₁ on the (three) corner bolt 280. When the component head 240 is inserted into the aperture 214, the same effect will be produced. The (three) corner aperture 284 on the first face 211 ₃ can accommodate the (three) corner plug 280 on the _{distal end 211 11.} After connecting two or more body elements, the (three) corner apertures 284, 288 and (three) corner plug 280 of the component integrated structure can also produce the aforementioned (three) corner apertures 184, 188 and (three) corners. The pin 180 reduces the resistance of the aperture 214 and the upper and lower chambers 264, 262 to stabilize and slip off the force.

It should be noted that the shape of the triangular aperture (for example, the triangular aperture 284) and the triangular plug (for example, the triangular plug 280) may be designed to be not triangular. It includes any suitable shape. It should be further noted that different pores/plugs generally include the same, similar or different shapes. In another aspect, the pores/plugs generally include the same, similar or different sizes. In one embodiment, the aperture 284 includes a shape and size that does not intersect the cavity 260. In another aspect, the aperture 288 includes a shape and size that does not intersect the aperture 214 or 212 or the cavity 260.

The assembly head 244 is selected from various types of heads, which are related to specific uses. As shown in FIGS. 3 to 8, the component head 244 includes a Phillips screw component head. According to the embodiment, the assembly head 244 may be the assembly head of the tapered end, the assembly head of the writing tool end, the assembly head of the lighting (light emitting diode (LED)) end, and the cosmetics end. Component head of head, component head of toy terminal, electronic (flash memory drive, computer/communication/consumer electronics (3C) products, etc.) component head or similar terminal component head. In an embodiment of a component head that includes an LED or other electronic terminal, the main body 210 includes a power source such as a battery.

In at least one embodiment, the body element 200 may include an identifier, which may indicate the characteristics of the assembly head 240. The identifier may include shape, color, and/or printing mark, etching mark, anti-counterfeiting mark, mark attached to the body element 200, text and pattern mark, or other similar marks. For example, when multiple body components are connected to the component integration structure, it is difficult for the user to determine the type of component head included in the multiple body components. The user must disassemble the body components one by one in order to find the type of component head they are looking for. In at least one embodiment, it should be specifically selected to make the body 210 material in order to identify, indicate or distinguish the component head 240. For example, wood or plastic is used to make a body element with a writing instrument assembly head. Also, when the component head on the body element is a hardware tool component head, metal should be used. In one aspect, the color of the body component 200 can be used to configure and identify a specific component head 240 on the body component. For example, when the component head 244 is a cosmetic component head or crayons, the main body 210 and/or the component head body 242 and the component head 244 have the same or similar colors. Furthermore, in one aspect, the main body 210 is completely transparent and/or partially transparent, so that when the assembly head 240 is inserted into the aperture of another body element, the assembly head 240 is visible.

In one embodiment, the mark includes a mark or the like, which facilitates the desired application. For example, when the body element 200 is used as a tool, the mark includes a measurement mark similar to a ruler. In another aspect, the mark includes a conversion table, graph, or similar mark.

It should be noted that the body element 200 may include a mark capable of identifying the component head 240. In one example, when the component head 244 is a screwdriver component head, the body element 200 includes a mark that can identify the type of screwdriver component head fixed on it, for example, "+" indicates a cross component head or " -" indicates the standard flat head assembly head. It should be noted that the mark is printed, embossed, etched, attached or provided on or in the body element 200. In another example, the mark may include a value that can identify the characteristic of the component head 240. For example, the marking may include the size (eg, diameter, circumference, etc.) of the component head, which includes the component head end 244.

FIG. 5 shows a top view of the body element 200 according to the various aspects. In Figure 5, the X axis of the assembly head 240 is perpendicular to the distal end 211 ₁ . In at least one embodiment, the head assembly 240 of the X-axis and the distal end ₂₁₁₁ to a non-90 ° angle, for example in acute or obtuse angle. As shown in FIG. 5, the head assembly 240 is located in the third position of the center of _a distal end 211. It should be noted that the head assembly 240 disposed at a position on the distal end _2111, which is not in the center position of the distal end. It should further be noted that the distal end ₂₁₁₁ includes a regular shape may not include the center.

FIG. 6 shows a bottom view of the main body element 200. In at least one embodiment, the proximal end ₂₁₁₂ and distal end ₂₁₁₁ substantially parallel. In another aspect, the plurality of body surface ₂₁₁₂ is substantially the proximal end and / or the distal end of the vertical _2,111,210. It should be noted that a proximal end ₂₁₁₂ and distal end ₂₁₁₁ are not parallel. For example, the proximal end ₂₁₁₂ distal end ₂₁₁₁ or in one of the X-axis an angle other than 90 degrees, while the other end is perpendicular to the X axis. As shown in FIG. 6, the proximal end ₂₁₁₂ includes a chamber opening 266. In at least one embodiment, the chamber opening 266 provided substantially at the central position of the proximal end _2112. In one aspect, the proximal end ₂₁₁₂ is configured as porosity (e.g. 0,2, 3, etc.) comprise a different number or a different shape, location and pore / or sizes. For example, the proximal end ₂₁₁₂ includes a plurality of triangular apertures 288. It should be noted that the body member 200 includes a body member and an end surface portion ₂₁₁₂ substantially without any voids present in a plane.

FIG. 7 is a three-dimensional view of the body element 200. The relative position and positioning of different components of the body element 200 can be viewed from Fig. 7. The body element 200 includes a main body 210 and a component head 240. The main body 210 includes various shapes. In Figure 7, the main body 210 is a hexagonal prism. The surface of one or more side surfaces of the main body 210 includes one or more pores. In Fig. 7, the proximal end ₂₁₁₂ includes a chamber opening 266 and 6 (c) aperture 288 angle. ₄ includes a second surface 211 and aperture 212 assembly. These pores include the same or different shapes and/or sizes. For example, in Figure 7, the assembly aperture 212 is circular, and the chamber opening 266 is hexagonal. The aperture can accommodate the assembly head of another body element or may be used to connect the body element 200 with another body element in another way. For example, the cavity opening 266 in FIG. 7 can accommodate a component head of another body element, and the component head body is hexagonal. One surface of the main body 210 may include a component head 240 protruding therefrom. It should be noted that the main body 210 may include more than one component head disposed on one or more faces thereof.

FIG. 8 is a perspective view of the body element 200 including or coupled with the attachment element 270. In an embodiment, the component integration structure includes a plurality of body elements and one or more attachment elements 270. The attachment element 270 can be used to connect the body element and/or to adsorb (for example, fix) an object. In one aspect, the attachment element 270 is a plug or other insert that can be inserted into the aperture of the body element 200, such as the assembly aperture 212 (as described), the aperture 214 or the like. The attachment element has various shapes such as a polygonal shape and a cylindrical shape. The attachment element 270 can be attached or coupled to the body element 200. In another aspect, the attachment element 270 has a circumference 272, which is similar in shape to the circumference 274 of the assembly aperture 212, and has approximately the same length, which is greater or less than the latter. The attachment element 270 may be connected to the aperture via a mechanical sleeve. For example, the user can insert the attachment element 270 into the assembly aperture 212. The attachment element 270 can axially press the circumference 274 of the assembly aperture 212 to achieve close contact or tight engagement, so as to fix the attachment element 270 in the assembly aperture 212. It should be noted that the attachment element 270 can be fixed to the body element via different mechanisms, for example via wires, wedges, pins, magnets or the like. In another example, the attachment element 270 can attach two bodies/end body elements through the use of clamps, screws, etc. It should be further noted that the attachment element 270 is not a separate element. It is a non-detachable component of the body element 200. For example, it is a protruding part, and the body element 200 is connected via an aperture on the body element at the end of the other body.

By connecting the attachment element 270 to the second body element, the body element 200 can be attached to another body element. In at least one embodiment, the attachment element 270 can be attached to one or more of the connected body elements by inserting the attachment element into the aperture of the body element. As an example, the attachment element 270 can be inserted into the assembly aperture 212 as shown in FIG. 8. It should be noted that when connected, the attachment element 270 will produce a full or just-inserted indication sound, such as an audible or cleverly designed click sound.

In one example, the attachment element 270 can connect the body element 200 and/or other body elements at an angle other than 90 degrees or in a straight line. For example, a plurality of attachment elements 270 may be configured in an "A frame" shape. This allows the user to use the component integration structure as a compass for drawing curves (such as circles) or measuring angles. In one aspect, the main body 210 includes a mark that allows the user to determine the angle based on the relative position of the main body.

According to an embodiment, the attachment element 270 may be completely inserted into the assembly aperture 212 so that at least a part of the attachment element 270 is disposed in the cavity (for example, the cavity 260). This places the body element 200 and/or the cavity 260 in a locked configuration, thereby blocking the assembly head 240 from being inserted into the cavity 260. In one aspect, for example, via the assembly head of another body element, the user can push the attachment element 270 out of the cavity 260 to unlock the body element 200 and/or the cavity 260.

The attachment element 270 includes a magnet. In an embodiment, the attachment element 270 includes a magnet, and the magnet is used to fix the attachment element 270 in the aperture and/or fix the body element 200 to another body element. For example, the attachment element 270 can adsorb a magnet element of another body element (for example, a component head, a magnet provided therein, etc.). In another aspect, the user uses magnets to fix and adsorb objects. For example, the user can attach screws, bolts, nails or other objects with metallic properties to the attachment element 270. This provides a convenient location for users to store hardware tools. It should be noted that the user can also connect a metal object to the main body 210 via the magnetic force of an internal magnet (for example, the magnet 130). It should be noted that the attachment element 270 may be attached to positions inside and outside the aperture of the body element 200. For example, when the attachment element 270 and the body element 200 both include magnetic materials, the attachment element 270 can be attached to the main body 210 and the assembly head body of the main body/end body element. 242 or the head 244 of the component head end. It should be further noted that the attachment element 270 includes a magnetic or non-magnetic material. For example, the attachment element 270 includes various materials, such as plastic Material, metal, wood, glass or other materials. In another aspect, the attachment element 270 is configured in a different shape, such as a cylindrical shape, a polygonal shape, an irregular shape, or the like. In one example, the attachment element 270 includes a shape and size corresponding to the aperture, so that the two can be connected.

Although the body element may be connected or connected to other body elements as generally described in the embodiment, it should be noted that the body element may be attached to other systems or devices. For example, the body element 200 is configured to connect to an electric drill. In an example, the assembly head on the electric drill can be inserted into the cavity 260 so that the body element 200 is connected to the electric drill. In another aspect, the protruding part extending from the body element 200 realizes the connection with the electric drill. In another aspect, when the body element 200 includes two assembly heads, one assembly head is connected to an external electric drill, and the other assembly head is used for its designated purpose or used to connect other body elements.

Figure 16 shows the integrated structure of the components connected to the external electric drill. As shown in Figure 16, the body element 1020 can be attached to the power tool 1010 by inserting the assembly head 1022 of the body element 1020 into the receiving opening of the power tool 1010, and it is the same as the body element described above ( For example, the body element 100) has similar characteristics (not shown in Figure 16). It should be noted that the body element 1020 can be attached to other body elements to extend the length of the tool. It should be noted that the body element 1020 may be attached to an external system or device via any other suitable mechanism. It should be noted that the body element 1020 may be attached to other objects or owners, such as electric toothbrushes, drill presses, writing tools or similar devices.

According to various disclosed aspects, FIG. 9 shows a side view of the component integration structure 300. The component integration structure 300 includes a first body element 310 and a second body element 320. With reference to body elements (such as the body element 200) described in other figures, the first and second body elements 310 and 320 generally include similar aspects. It should be noted that the component integration structure 300 includes a different number of body elements and/or body elements of different configurations. For example, the component integration structure 300 includes a hexagonal body element and/or a cylindrical shape The body component. In one aspect, the first and second body elements 310 and 320 include the same or similar body elements. The two body elements (310 and 320) are substantially similar except that they include different component heads and/or different pores (for example, the positions or sizes of the pores are different). For example, the first body element 310 includes an assembly head 330 extending from the distal end 312. The component head 330 may include a component head body 332 and a component head (not shown in the figure). As shown, the assembly head of the first body element 310 is inserted into the cavity opening 366 on the proximal end 324 of the second body element 320. The second body element 320 includes a component head 340 extending from the distal end 322 and includes a component head body 342 and a component head 344. The component head head 344 is a cross-shaped screw component head, which has a specific size. The component heads of the component head 330 include different component heads or similar component heads (for example, cross-shaped screw component heads of different sizes, flat head screw component heads, etc.).

According to an embodiment, the body element 310 and the body element 320 are coupled together. For example, the assembly head 330 of the body element 310 can be inserted into the cavity of the body element 320. In one aspect, the cavity opening 366 opens toward the cavity. The shape and size of the cavity and/or the cavity opening 366 are configured to accommodate the component head 330. For example, the shape of the head body 332 is similar to the shape of the cavity. In one aspect, the assembly head 330 (and/or the magnet in the main body 316) can adsorb the magnet in the main body 326. When connected, the attraction force of the magnet fixes the body elements 310 and 320. In another aspect, the distal end 312 of the body element 310 includes one or more (three) angle plugs 380. The proximal end 324 of the body element 320 includes one or more (three) corner apertures 388. These (three) corner pores 388 cannot intersect the pores 328. When the body elements 310 and 320 are connected, the (three) corner aperture 388 on the proximal end 324 can accommodate the (three) corner bolt 380 on the distal end 312, and the assembly integration structure 300 is further fixed to achieve the aforementioned (3) Corner apertures 184, 188 and (3) Corner bolt 180. It should be noted that the apertures on the proximal end 324 and the distal end 312 The and/or plug has a suitable shape and size. In addition, a (three) corner hole 384 of a shape and size suitable for the (three) corner plug 380 is also provided on the side of the body elements (310 and 320).

It should be noted that the body element can be attached using different connection mechanisms. In one embodiment, through the use of magnetic force, mechanical socketing (for example, the assembly head body 332 can axially press the cavity of the body element 320), threaded elements (for example, the assembly head body 332 is threaded and the cavity includes a suitable female thread Components), clamps, pins or the like (for example, as shown in Figure 1 and Figure 2) can be used to connect different body components). It should be further noted that through an audible or cleverly designed click sound, the body elements 310 and 320 can indicate complete connection and/or disconnection.

In another aspect, the body elements 310 and 320 each include hexagonal prism bodies 316 and 326. The main bodies 316 and 326 include one or more pores. For example, the main body 316 includes an aperture 318 and the main body 326 includes an aperture 328. The pores 318 and 328 include hexagonal pores. The aperture 318 is provided on the proximal side of the distal end 312. In another aspect, the aperture 328 is provided on the proximal side of the proximal end 324. It should be noted that the main body 316 and the main body 326 include different numbers of pores and/or different configurations of pores. In another aspect, the aperture 318 and/or the aperture 328 have a shape and size corresponding to the body element assembly head. As shown in Figure 9, the aperture 318 includes a hexagon. The assembly head body 342 includes a hexagonal prism. In one aspect, the circumference of the head body 342 is slightly smaller than or equal to the circumference of the aperture 318. It should be noted that the receiving aperture and the inserted component head include different shapes, such as a straight prism and a hexagonal prism. In this case, the shape and size of the aperture 318 and the component head body 342 are specially configured so that the component head 340 can be inserted into the aperture 318. It should be noted that via different means, the body element can indicate a suitable connection, such as a visual engagement or a cleverly designed or audible click. The component integration structure 300 includes various structures or shapes according to the number of components constituting the body, their respective configurations and their connection modes. In Figure 9, two The body elements 310 and 320 form a straight-line end-to-end design. In one aspect, at least one body element is an end body element.

FIG. 10 shows a three-dimensional view of the main body element 400 according to the various aspects described above. As described therein, in at least one embodiment, the body element 400 includes an end body element or a cover with an integrated component structure. The body element 400 is similar to other body elements (such as the body elements 100, 200, etc.) and/or includes similar components. For example, the body element 400 includes a polygonal (for example, hexagonal) body 410. In another aspect, the body element 400 may include a magnet (for example, similar to the magnet 130) and/or various other components, which are not shown for simplicity. Like the body element described herein, the main body 410 of the body element 400 includes various shapes. For example, the main body 410 includes a shape such as a polygonal prism, a cylinder, a cone (or a part thereof), an irregular shape, or the like.

In one aspect, the body element 400 is different from other body elements (such as the body element 200) because the distal end 416 includes a plane or surface that does not include the component head. For example, the body element 400 does not have a component head part (such as component heads 140, 240, 340, etc.). In another aspect, the surface of one or more sides of the body element 400 includes one or more pores. As mentioned, the body element 400 may include an assembly aperture 412. The assembly aperture 412 can be used to connect the body element 400 to another body element. The body element 400 may include a proximal end 414 that includes an opening toward the cavity 460. In one aspect, the cavity 460 can accommodate a component head of another body element. In one embodiment, the removable assembly head of the body element (such as the body element 200) can be detached from the body and can be connected to the body element 400 by inserting the assembly head into the aperture of the body element 400, for example. Thereby, the body element 400 is converted into another body element on which the component head is arranged.

As an example, the user wishes to cover or cover the exposed component head of the body element. For example, component heads include well-defined edges, writing utensils, or other component head shapes, and the user wants Cover the assembly head to protect the user and/or the assembly head. The user connects the body element to cover or cover the exposed component head. In another aspect, since the magnet is disposed in the main body of the body element 400, the body element 400 can be used as a magnetic tool. For example, the body element 400 can be used to post instructions on a metal surface. The body element 400 can also be used to adsorb small metal objects, such as clamps, to prevent loss or find them easily.

FIG. 11 is a body element 500 according to various disclosed aspects. In at least one embodiment, the body element 500 includes an end portion or plug element of a component integration structure. For example, the body element 500 may be coupled to another body element to close or cover the exposed cavity. In one aspect, as described in the embodiments, the body element 500 includes similar aspects or components. For example, the body element 500 includes a body 510, which includes a polygonal prism shape (for example, a hexagon, etc.) or other shapes. The main body 510 includes a component head 540 extending from the distal end 516. In another aspect, the main body 510 includes a proximal end 514 opposite to the distal end 516. The proximal end 514 may include a generally flat surface. According to one embodiment, the proximal end 514 includes a solid surface. In one example, the proximal end 514 does not include an aperture. For example, a user can couple the body element 500 to another body element (such as the body element 200) through the assembly head 540 and the cavity of another body element.

It should be noted that the distal end 416 of the body member 400 and the proximal end 514 of the body member 500 include other components, which are not shown here for readability. For example, the main body 510 includes a cavity filled with a material or component, such as a magnet, so that the proximal end 514 is generally flat. In another aspect, the body element 400 includes a filling chamber that includes various materials, such as magnets, so that the distal end 416 is generally flat. According to another example, the distal end 416 and/or the proximal end 514 include LED lights or other components disposed thereon.

As described with reference to the drawings, FIGS. 12 to 14 illustrate various component integration structures, each of which includes the body element as described with reference to FIGS. 1 to 11. Figures 12 to 14 show that each Since the component integration structure, it should be noted that the figure includes the same component integration structure configured in different configurations. In another aspect, as shown, although the component integration structure has various body elements, the component integration structure includes a different number of body elements. For example, the component integration structure includes j groups of body protection elements, where j is a number. According to an embodiment, the body element is similar to the elements shown in Figures 1 to 11 and/or described in other parts of the present invention. For example, the component integration structure may include a hexagonal body element, a cylindrical body element, a ribbed body element, or the like. It should be further noted that the embodiments of the components and their integrated structures can be assembled into various configurations (not shown for readability).

Turning to FIG. 12, a component integration structure 600 is shown. The component integration structure 600 includes a plurality of body elements 610, which can be attached and placed in a linear shape. For example, the plurality of body elements 610 includes a first body element 620, a second body element 622, a third body element 624, a fourth body element 626, and a fifth body element 628. Each of the plurality of body elements 610 includes faces 630, 632, 634, 636, and 638. In another aspect, each of the plurality of body elements 610 includes edges 640, 642, 644, 646, and 648, respectively. It should be noted that the edges 640, 642, 644, 646, and 648 and other edges of the component integration structure include sharp or non-beveled edges. In one aspect, one or more edges are chamfered, chamfered, or tapered.

The body element 610 can be connected by inserting the assembly head of the body element into the cavity of another body element. For example, the assembly head of the first body element 620 can be inserted into the aperture of the second body element 622. The assembly head of the second body element 622 can be inserted into the cavity of the third body element 624 and the like. It should be noted that the body element 610 may be connected via other available methods, such as using attachment elements. In one aspect, by changing the number of connected body elements 610, the user can change the length of the component integration structure 600. For example, based on a better or specific application, the user can adjust the ontology element The number of pieces 610. In one example, the user can select the number of body elements, so that the user can use the component integration structure 600 in various difficult-to-reach places.

On the other hand, the user can select a specific body element to be placed in the position of the body element 628, thereby exposing the required component head 650. According to an embodiment, the respective component heads of the body element 610 have different shapes, designs or similar specifications. For example, the body element 620 includes a flat head screw assembly head, the body element 622 includes a writing instrument tool head, and the body element 624 includes a hexagon screw assembly head. In other examples, the at least one body element includes other component heads such as a marker pen, eyebrow pencil, lipstick, knife, and the like. It should be noted that the component heads have a common shape and design. For example, the user can change the size or configuration of the component integration structure 600 based on the application, but each component head must be the same.

According to at least one embodiment, multiple body elements 610 can be configured such that when the body element 610 is assembled, at least two of the faces 630, 632, 634, 636, or 638 are in the same plane. In another aspect, at least two of the edges 640, 642, 644, 646, or 648 are substantially aligned. The alignment of the surfaces and/or edges can facilitate the use of the component integration structure 600 as a straight edge (such as a ruler), a level, or the like. The alignment also allows the component integration structure 600 to be placed flat on the surface.

FIG. 13 shows an exemplary embodiment of a component integration structure 700. As shown in FIG. The component integration structure 700 includes a plurality of body elements 710, which are configured in a substantially straight line. For example, the body element 710 can be inserted into the cavity of another body element 710. As shown, the component integration structure 700 includes a plurality of body elements 716 disposed between the body elements 712 and the body elements 714 at both ends. In one aspect, the body element 712 generally includes an end or cover element (such as the body element 400). In another aspect, the body element 714 includes an end or cover element (such as the body element 500). Although the body elements 712 and 714 are referred to as end body elements. It should be noted that the body elements 712 and 714 can be further connected to other components or The body component. However, at least for readability, the body element 712 or 714 may be referred to as an end body element.

The body elements 712 and 714 at the ends can be attached to the ends of the component integration structure 700. By knowing the body element at the end to the end, the assembly head of the assembly integration structure 700 is closed or prevented from being exposed. In some embodiments, one or more body elements of the component integration structure 700 include sharp metal component heads such as component heads, needles, and knives. Connecting the body elements 712 and 714 at the ends to the component integration structure 700 having these component heads can provide additional protection for the use of the component integration structure 700. Furthermore, in some embodiments, the assembly head of one or more body elements 710 of the assembly integration structure 700 includes a specific material, and if it lacks necessary protection, it will be quickly worn out or deteriorated in quality. For example, writing utensils such as pens, markers, lipsticks, and cosmetics will dry up once they are exposed. It will contaminate the surfaces it touches and cause cleaning problems. In this case, the body element at the end provides additional protection for the tool and prolongs its service life.

It should be noted that the linear configuration of the component integration structure 700 facilitates the use of the component integration structure 700 as a straight edge (such as a ruler), a level, or the like. It should be further noted that at least one 1 of the component integration structure 700 includes a leveling mechanism, such as a bubble level, arranged in or on it. In one example, the user can set the body element 710 including a bubble level at the center of the assembly integration structure 700 to perform measurement.

FIG. 14 shows an exemplary embodiment of the component integration structure 800 according to the various aspects described above. The component integration structure 800 includes a plurality of body components, such as a first body component group 802 and a second body component group 804. The first and second body element groups 802 and 804 can be attached and configured in an L shape. The L-shaped component integration structure can be formed through various methods. For example, as shown, when the body element 830 is connected to the body element 820 to form a right-angle joint, as described therein, the assembly head of the body element 830 can be inserted into the body element Inside the specific pores of the piece 820. In one aspect, the user can use the L shape as a right angle to check or measure angles, align objects, draw right angles, or similar purposes. It should be further noted that the aperture on the body element can be configured, so that the component integration structure 800 can be configured at an angle other than 90 degrees (for example, 45 degrees, etc.).

In another aspect, when the assembly head of the body element 830 is connected to the body element 820 (for example, via a void), the magnet element in the body element 820 can adsorb the assembly head of the body element 830. In one aspect, the attraction force of the magnet can control or fix the body element 830 in a position. In another aspect, as described therein, a mechanical socket can fix the body element 830 and the body element 820. Furthermore, in one aspect, the triangular (or other suitable shape) apertures and bolts on the respective faces of the body elements 820 and 830 connected together can provide an additional fixing mechanism.

According to the embodiment, other methods such as using attachment elements can also be used to assemble the L-shaped component integration structure 800. The component integration structure 800 includes a body element, and its end may include different component heads. As shown in FIG. 14, the end of the assembly head 840 of the body element 810 includes a screw assembly head, thereby forming an L-shaped screw assembly head assembly integration structure. In another example, the assembly head 840 of the body element 810 may further include hardware tools, such as hammers, drills, needles, or the like. In the L-shaped component integration structure 800, regardless of the type of component head included in the body element 810, the component integration structure 800 provides a handle for the user to conveniently hold the component integration structure 800. In one example, the user can set the position of the component integration structure 800 so that the component head 840 can be used. The user can hold the first body element group 802 in his hand, and rotate or rotate the assembly head 840 by rotating the second body element group 804 in an activated manner. In one aspect, this can use the component integration structure 800 as a hand drill.

FIG. 15 shows an exemplary embodiment of the component integration structure 900 according to the various aspects. The component integration structure includes a plurality of body components, such as a first body component group 902, a second body component group 904, and a third body component group 906. The component integration structure 900 can be attached and configured into a Z shape. Rudi The L-shaped component integration structure shown in FIG. 14 can assemble the Z-shaped component integration structure 900 by connecting the body elements on the end of the first body element group 902 to the body elements on the end of the second body element group 904. For example, as shown in FIG. 15, the body member 910 of the first body member group 902 may be attached to the body member of the second body member group 904, and the body member 930 of the second body member group 904 may be attached to the third body member. The body element 940 of the body element group 906. In an embodiment, the Z-shaped component integration structure 900 can be assembled via different connecting mechanisms. For example, it can be connected by inserting the assembly head of the body element of the first body element group 902 into the aperture of another body element of the second body element group 904. It should be noted that other connection methods such as the use of attachment elements can also be used.

As described with reference to the component integration structure shown in other drawings (such as Figure 12, Figure 14, etc.), the component integration structure 900 includes a body element 950 at the end, which has different component heads. Meet different purposes. For example, as shown in FIG. 15, the body element 950 includes a component head, that is, the component head 952 in one aspect, the component integration structure 900 can be used as a hand drill. For example, the user can hold the first body element group 902 in an appropriate position, and then rotate or rotate the assembly head 952 by rotating the second body element group 904 and/or the third body element group 906 in an activated manner. By tightly holding the first body element group 902, the user can rotate the body element 902.

In at least one embodiment, the component integration structure includes 6 body elements. The 6 body elements can be divided into two groups, and each group includes 8 body elements. In one aspect, each group may include two body elements, which include the end body elements. Further in one aspect, in one of the groups, each body element includes a magnet, which has the same north and south poles. For example, each body element of one group includes a magnet, and the upward facing one is the north pole, and the downward facing one is the south pole. The body elements in the other group include opposite north and south poles. For example, each body element of the other group includes a magnet, with the south pole facing upwards and the north pole facing downwards.

The content described above includes examples of this specification. Of course, in order to describe this practical description, it is impossible to describe every conceivable combination of elements or methods, but those of ordinary skill in the art will recognize that many further combinations and permutations of this practical description are possible. Therefore, this practical specification intends to include all replacements, modifications and changes that fall within the spirit and scope of the scope of the appended patent application. In addition, the term "including" is used in the specific description or the scope of the patent application. This term is intended to be inclusive in a similar way to the term "including". When used as a transition word in the scope of the patent application, it should be interpreted as "including" .

100: body component

110: main body

111 ₁ ~111 ₈ : Noodles

112: Assembled Pore

114: Pore

115: height or length

116: cavity

117: length

120: Gasket

122: Porosity

130: Magnet

131 ₁ : Top side

131 ₂ : bottom side

132: Pore

140: component header

142: Component head body

144: Component head end head

146: Component head base

148: Pin

152: Cavity

160: Chamber

162: Lower Chamber

164: upper chamber

170: round groove

172: Cross-section length

174: Cross section length

176: Cross section length

180: (three) angle bolt

184: (three) corner pores

188: (three) corner pores

Claims (20)

A modular component includes a body element, the body element includes a main body, a component head extending from a distal end of the main body, and a cavity formed by at least a part of the main body; the cavity includes An opening on a proximal end of the main body, wherein the cavity is engaged via the opening at the proximal end to accommodate a component head of another body element, and the cavity matches at least a part of the structure of the component head, The body element is rotated synchronously with the other body element; at least one surface of the main body has at least one aperture, and at least one surface of the main body has at least one bolt to communicate with the surface of the other body element. The pores are engaged, and the pores engaged are distributed on the surface of the proximal end of the main body and adjacent to the opening. The modular component described in item 1 of the scope of patent application, wherein the component head includes a component head end head and a component head body. The modular assembly described in the second item of the scope of patent application, wherein the assembly head includes a screwdriver assembly head, a cone assembly head, a writing appliance assembly head, a lighting assembly head, a toy assembly head or a cosmetic appliance assembly head At least one of them. According to the second item of the scope of patent application, the modular component, wherein the component head body includes a hexagonal prism shape. The modular component according to claim 1, wherein the main body includes at least one of a polygonal prism shape and a cylindrical shape. The modular assembly described in the first item of the patent application, wherein the main body includes a magnet configured to adsorb the assembly head of the other body element. The modular component according to the first item of the scope of patent application, wherein the pores on the surface of the proximal end of the main body are triangular pores. In the modular assembly described in the first item of the scope of patent application, the outer periphery of the main body has a polygonal aperture. According to the modular assembly described in item 8 of the scope of patent application, the outer peripheral surface of the main body has at least one assembly aperture, and the assembly aperture on the outer peripheral surface of the main body is approximately coaxial with the polygonal aperture. The modular component according to the first item of the patent application, wherein the main body includes an identifier indicating the characteristics of the component head, and the identifier includes at least one of a color, a shape, or a mark. A structure integrated with modular components, comprising: a plurality of body elements, the plurality of body elements including a first body element and a second body element, wherein the first body element includes a main body, the main body includes at least A cavity, the at least one cavity includes an opening; and the second body element includes at least one assembly head protruding from the side of the second body, wherein the cavity of the first body element passes through the The opening is engaged to accommodate the assembly head of the second body element, and at least one surface of the main body of the first body element is engaged with at least one surface of the main body of the second body element, The first body element is coupled to the second body element so as to be attachable; the cavity is matched with at least a part of the structure of the assembly head, so that the first body element and the second body element Synchronously rotating, the surface where the main body of the first body element and the main body of the second body element are joined is provided with at least one bolt and at least one hole engaged with the bolt, and the hole The assembly head of the second body element is located on a different axis. According to the modular component integration structure described in claim 11, the first body element further includes a component head having a shape different from that of the component head of the second body. According to the modular component integration structure described in claim 11, the first body element further includes a magnet configured to adsorb the component head of the second body in the chamber. In the modular component integration structure described in claim 11, the first body element further includes a component head protruding therefrom, and the second body element further includes a cavity. The modular component integration structure described in claim 11 further includes at least one attachment element coupled to at least one of the plurality of body elements. The modular component integration structure described in claim 11, wherein the first side surface of the main body of the first body element includes a first aperture, and the second body element of the first body element The side surface includes a second aperture, wherein the assembly head of the second body element is configured to be inserted into at least a part of the first aperture and at least a part of the second aperture. According to the modular component integration structure described in claim 11, wherein the first body element and the second body element are further configured to pass through a magnet, a screw element, a pin, or the second body The assembly head of the component is mechanically socketed in at least one of the cavities of the first body, and can be coupled to the ground. A modular assembly integrated structure, comprising: a plurality of body elements, each of the body elements includes: a main body including a magnet; At least one of the formed cavities, the cavity includes an opening on a proximal end of the main body; wherein the configuration of the plurality of body elements is to remove the assembly head of one of the body elements from the other body The opening of the element is inserted into the cavity of the other body element to be coupled together, and the cavity is matched with at least a part of the structure of the assembly head, so that one of the body elements The member rotates synchronously with the other body element, and the surface of the main body of one of the body elements and the main body of the other body element is respectively provided with at least one bolt and at least An aperture, the aperture of the same body element and the component head are located on different axes. The modular component integration structure described in claim 18, wherein the plurality of body elements are further configured to be coupled into at least one of a linear design, an L-shape, an S-shape, a Z-shape, or a T-shape . The modular module integration structure described in the 18th patent application, wherein at least one of the main bodies includes a hexagon, at least a part of the module head includes a hexagon, and at least a part of the chamber Including hexagons.

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