An electrical connector is presented herein. The electrical connector includes an insulator that is formed of a dielectric material and defines a cavity extending therethrough. The cavity has a plurality of cylindrical sections. A first cylindrical section of the plurality of cylindrical sections has a diameter that is larger than a diameter of adjoining second and third cylindrical sections of the plurality of cylindrical sections on each side of the first cylindrical section. The insulator is preferably formed using an additive manufacturing process, such as stereolithography, digital light processing, fused deposition modeling, fused filament fabrication, selective laser sintering, selecting heat sintering, multi-jet modeling, multi-jet fusion, electronic beam melting, laminated object manufacturing, or 3D printing.

A separable high-voltage connector assembly which can miniaturize a size by individually separating each first pin of a connector mounted on a board to form multiple small connectors and simplify a process and prevent an error that connectors are incorrectly inserted into each other by forming an inserting connector through fastening and assembling each of individually separated second pins.

A separable high-voltage connector assembly which can miniaturize a size by individually separating each first pin of a connector mounted on a board to form multiple small connectors and simplify a process and prevent an error that connectors are incorrectly inserted into each other by forming an inserting connector through fastening and assembling each of individually separated second pins.

The invention relates to a multi-way connector (4) for electrically contacting electrical assemblies (2, 3). The multi-way connector (4) comprises a connector body (5) having a first connection surface (6) and having a second connection surface (7). The multi-way connector (1) also comprises a plurality of electrical contact elements (8), which extend through the connector body (5) at least from the first connection surface (6) to the second connection surface (7). The contact elements (8) form contact sections (9) in the region of the connection surfaces (6, 7) for electrically contacting corresponding counter contact elements (10) of the respective associated assembly (2, 3). The contact sections (9) on at least one of the connection surfaces (6, 7) can be mechanically secured to the respective associated counter contact elements (10). According to the invention, the connector body (5) has multiple foil elements (11) that are stacked on one another and connected to one another. A respective two of the foil elements (11) form a foil pair (12). At least one of the contact elements (8) runs between the two stacked foil elements (11) of at least one of the foil pairs (12).

The invention relates to a multi-way connector (4) for electrically contacting electrical assemblies (2, 3). The multi-way connector (4) comprises a connector body (5) having a first connection surface (6) and having a second connection surface (7). The multi-way connector (1) also comprises a plurality of electrical contact elements (8), which extend through the connector body (5) at least from the first connection surface (6) to the second connection surface (7). The contact elements (8) form contact sections (9) in the region of the connection surfaces (6, 7) for electrically contacting corresponding counter contact elements (10) of the respective associated assembly (2, 3). The contact sections (9) on at least one of the connection surfaces (6, 7) can be mechanically secured to the respective associated counter contact elements (10). According to the invention, the connector body (5) has multiple foil elements (11) that are stacked on one another and connected to one another. A respective two of the foil elements (11) form a foil pair (12). At least one of the contact elements (8) runs between the two stacked foil elements (11) of at least one of the foil pairs (12).

Disclosed herein is an electrical outlet cutting jig that includes a ruler and a body having a lower perimeter, wherein the body includes a first channel defined along a first axis of the body. The body also includes a first level indicator and a second level indicator orthogonal to the first level indicator to enable a user to align the cutting jig correctly. The first channel is configured to receive the ruler such that a lower surface of the ruler is flush with the lower perimeter of the body and such that the ruler can slide within the first channel. The ruler enables the user to position the body of the cutting jig at a predetermined distance from a location, such as a door frame, floor, skirting board, or the like.

Disclosed herein is an electrical outlet cutting jig that includes a ruler and a body having a lower perimeter, wherein the body includes a first channel defined along a first axis of the body. The body also includes a first level indicator and a second level indicator orthogonal to the first level indicator to enable a user to align the cutting jig correctly. The first channel is configured to receive the ruler such that a lower surface of the ruler is flush with the lower perimeter of the body and such that the ruler can slide within the first channel. The ruler enables the user to position the body of the cutting jig at a predetermined distance from a location, such as a door frame, floor, skirting board, or the like.

An electronic device with a recognizable shell is provided. At least a portion of the recognizable shell is manufactured by a method including mixing a plastic material and a color material to obtain a mixture material, increasing an environment temperature of the mixture material to a preheating temperature lower than the plastic material melting point, increasing the environment temperature above the preheating temperature, increasing the environment temperature to a temperature 5 to 10 degrees above the plastic material melting point; increasing the environment temperature above the color material melting point, injecting the mixture material in a mold cavity of a mold, maintaining the mold in under a molding pressure, and obtaining the cooled mixture material as the portion. A manufacturing method for recognizable covering plate is also provided.

An electronic device with a recognizable shell is provided. At least a portion of the recognizable shell is manufactured by a method including mixing a plastic material and a color material to obtain a mixture material, increasing an environment temperature of the mixture material to a preheating temperature lower than the plastic material melting point, increasing the environment temperature above the preheating temperature, increasing the environment temperature to a temperature 5 to 10 degrees above the plastic material melting point; increasing the environment temperature above the color material melting point, injecting the mixture material in a mold cavity of a mold, maintaining the mold in under a molding pressure, and obtaining the cooled mixture material as the portion. A manufacturing method for recognizable covering plate is also provided.

Provided is a cable connector which includes: a housing; and a cable holder capable of holding one end side of the cable. The cable holder includes at least three first to third engagement portions on each of opposing outer side surfaces, in a direction along a lead-out direction where the cable held on the one end side by the cable holder is led out from the cable holder, the first engagement portion is placed on a side far from the cable lead-out side of the cable holder, the second engagement portion is placed on a side near the lead-out side, and the third engagement portion is placed between the first engagement portion and the second engagement portion, the housing includes at least three first to third corresponding engagement portions capable of engaging respectively with the first to third engagement portions, on each of opposing inner side surfaces, it is configured in such a manner that, upon the first to third engagement portions engaging with the first to third corresponding engagement portions, respectively, the cable holder is capable of being placed at least at a first engagement position and a second engagement position with respect to the housing, at the first engagement position, the first and second engagement portions are in engagement with the first and second corresponding engagement portions, respectively, while the third engagement portion has not yet engaged with the third corresponding engagement portion, and at the second engagement position, all the first to third engagement portions are in engagement with the first to third corresponding engagement portions, respectively.