Hon Hai Precision Industry Co., Ltd.

Hong-fu Jin Precision Industry (shenzhen) Co., Ltd.

Shenzhen Jingjiang Yunchuang Technology Co., Ltd.

Ji Zhun Precision Industry (hui Zhou) Co., Ltd.

Fine Tech Corporation

Hong Fu Precision Industry (shenzhen) Co., Ltd.

Ji Zhun Precision Industry (hui Zhou) Co., Lt

Jun-Qi Li

Qing Wen Liu

Xiao-Bo Yuan

Yi-Min Jiang

Takeo Nakagawa

Tang-Quan Chen

Li-Feng Zhan

Xue-Qin Zhang

Juka Oh

Kun-Lin Zou

Xiao-Gen Li

Man Wang

Ya-Li Sun

Shang-Hua Hao

Shang-Ming Huang

Guo-Han Yue

Mu-Chi Hsu

Long Xu

Xian-He Li

Chi-Lu Chih

A method for structuring transmissible data of various types with universal applicability as between devices of various types includes a data content, a first data header, and a second data header. The first data header signifies numerical data or control/command data. The second data header is a description of a data group to which the collected data belongs. The data further can include a third data header configured to describe production process information of the data. The data further can include a fourth data header to describe a product type, an industrial field, a company name, and a company address.

Data transmission method for creating data structure facilitating data transmission and reception

A glass production apparatus producing continuously curved glass for covers and containers includes a crucible, a calender device, a cutting device, a molding device, and a crystallizing device. The crucible melts glass raw material and outputs a glass melt to calender device. The calender device rolls and presses the glass melt to prepare a glass belt with a preset temperature. The cutting device cuts the glass belt with the preset temperature into glass members. The molding device include at least one molding mold and a manipulator. Each of the at least one molding mold curves at least one portion of the glass member with the preset temperature to prepare a curved glass member. The manipulator transfers the curved glass member to the crystallizing device, the crystallizing device crystallizes the curved glass member to prepare a curved crystalline glass member. A method for manufacturing such glass is also provided.

Glass production apparatus and method for manufacturing glass

A production apparatus making continuously curved crystalline glass as a cover or container includes a melting device, a drainage device, a molding device, and a crystallizing device. The melting device melts glass raw material to form a glass melt. The drainage device drains the glass melt to the molding device. The molding device includes a rotating table and a plurality of molding molds thereon. Each molding mold can be moved toward or away from the drainage device by the rotating table. Each molding mold has a molding cavity. At least one part of the molding cavity includes a plane, and at least one part of the molding cavity includes a curved surface to extrude the glass melt with such different surface forms. The crystallizing device crystallizes the curved glass member to achieve the curved crystallized glass member. A method for manufacturing such glass is also provided.

Apparatus for production of curved glass and method for manufacturing same

A 5G-based communication method for an industrial apparatus can be implemented in industrial apparatus during manufacturing operations, and a microprocessor. The industrial apparatus can collect data sets concerning itself, generate a 5G signal containing the data sets, and send the 5G signal to the microprocessor. The microprocessor determines a communication channel for the microprocessor according to the identification of the industrial apparatus in the data set, and can find a data processing rule, a data storage rule, and a data emission rule corresponding to the communication channel in a relationship table. The data is processed accordingly enabling a safe, efficient, and convenient transmission of data sets between the microprocessor and the industrial apparatus.

5G-based communication method for industrial apparatus and microprocessor for 5G-based communication

A milling cutter is configured to process an edge of a workpiece to a required profile. The required profile includes a first portion and a second portion coupled to the first portion. The milling cutter includes a shank having a central axis, at least one first cutting edge, and at least one second cutting edge. The first cutting edge is configured to rotate around the central axis of the shank along a first rotation path to process the first portion of the predetermined profile, and the second cutting edge is configured to rotate around the central axis of the shank along a second rotation path to process the second portion of the predetermined profile. The first rotation path is different from, and connected to the second rotation path.

Milling cutter

A pressure casting machine can be configured to mold a molten material into a workpiece. The pressure casting machine can include a vacuum chamber and a pressure casting mechanism coupled to the vacuum chamber. The vacuum chamber can include a processing section having a top wall and a bottom wall opposite to the top wall, a first gate configured to seal the processing section, and a first vacuum pump coupled to the processing section. The pressure casting mechanism can include a first driver positioned adjacent to the top wall, a first core received in the processing section and coupled to the first driver, a second core received in the processing section, and a plurality of pushing members received in the processing section. The second core can be coupled to the bottom wall and opposite to the first core. The pushing members can be coupled to the top wall.

Pressure casting machine

A frame for a hydraulic apparatus includes at least two supporting pillars parallel to each other, a supporting assembly mounted on the at least two supporting pillars, and a link mechanism mounted on the supporting assembly and coupling the core plate to the adjustable die plate. The supporting assembly includes a fixed die plate, an adjustable die plate slidably, and a core plate. The fixed die plate includes a periphery sidewall and a surface perpendicular to the periphery sidewall, the fixed die plate defines a ring-shaped indentation in the surface and extending along a circumferential direction of the fixed die plate, the fixed die plate further defines at least two first through openings interconnected with the ring-shaped indentation and cut through the periphery sidewall.

Frame for hydraulic apparatus

A frame for hydraulic apparatus includes at least three supporting pillars, a supporting assembly mounted on the supporting pillars and including a fixed die plate fixed to the supporting pillars, an adjustable die plate slidably fixed to the at least three supporting pillars and a core plate slidably fixed to the at least three supporting pillars and located between the fixed die plate and the adjustable die plate and a link mechanism mounted on the supporting assembly and coupling the core plate to the adjustable die plate. The fixed die plate, the core plate and the adjustable die plate each have a periphery sidewall, and include a first protrusion protruded from the periphery sidewall and extended along a circumferential direction thereof, and define an indentation adjacent to the first protrusion and further define a plurality of openings on the first protrusion interconnected with the indentation.

A method of making a Zr-rich amorphous alloy article includes providing a Zr-rich master alloy made of an Zr&#x2014;Cu&#x2014;Al&#x2014;Ni&#x2014;Nb alloy, in which the purity of the raw Zr is substantially in a range of 98% to 99.9%; providing a vacuum induction furnace, and melting the Zr-rich master alloy in the furnace at a temperature in a range of 1100 degrees Celsius to 1200 degrees Celsius; cooling the master alloy to a temperature in a range from 800 degrees Celsius to 900 degrees Celsius in 30 min to 40 min; casting the master alloy into ingots, and then cooling the ingots to a temperature in a range from 200 degrees Celsius to 350 degrees Celsius; and die casting the alloy ingots to obtain Zr-rich amorphous alloy articles with thicknesses in a range of 0.5 mm to 2 mm. A Zr-rich amorphous alloy article made by the above-mentioned method is further provided.

Method of making Zr-rich amorphous alloy article

An exemplary brittle non-metallic workpiece () is made by the laser beam (), a cutting surface () of the brittle non-metallic workpiece has no micro cracks. A method for making the brittle non-metallic workpiece includes: focusing a laser beam on the brittle non-metallic substrate to form an elliptic beam spot; driving the laser beam to move along a predetermined curved cutting path, making a center of a major axis of the elliptic beam spot intersecting along the predetermined curved cutting path and the major axis being tangent to the predetermined curved cutting path at the intersecting point; a coolant stream following the elliptic beam spot to move, thus producing a crack in the brittle non-metallic substrate corresponding to the predetermined curved cutting path; separating the brittle non-metallic substrate along the crack. A laser cutting device () for making the same is also provided.

Brittle nonmetallic workpiece and method and device for making same

An exemplary measuring device () for measuring aspects of objects includes a first contour measuring probe (), a second contour measuring probe () and a processor (). The first contour measuring probe () has a first tip extension () and a first displacement sensor (). The first tip extension () is slidable in a first direction. The first displacement sensor () is used to sense a displacement of the first tip extension (). The second contour measuring probe () has a second tip extension () and a second displacement sensor. The second tip extension () is slidable in the first direction. The second displacement sensor is used to sense a displacement of the second tip extension (). The processor () is electrically connected to the first displacement sensor () and the second displacement sensor respectively.

Measuring device for measuring aspects of objects

An exemplary contour measuring probe includes a guide (), a movable rack, a counter-balancing mechanism, a linear measuring scale (), and a displacement sensor (). The movable rack comprises a tip extension () for touching a surface of an object. The tip extension () is pushed to move towards the object under a gravitational force acting on the movable rack. The counter-balancing mechanism is configured to partially counter balance the gravitational force acting on the movable rack. The linear measuring scale () displays values of displacements of the tip extension (). The displacement sensor () detects and reads the displacement values displayed by the linear measuring scale ().

Contour measuring probe

An exemplary contour measuring method for measuring aspects of objects includes: (1) providing a measuring device including two contour measuring probes and a processor, the contour measuring probe having a tip extension and a displacement sensor used to sense a displacement of the tip extension, the processor being electrically connected to the displacement sensors; (2) driving two tip extensions to contact two opposite surfaces of an object respectively; (3) driving the two tip extensions to move and contacting the two opposite surfaces of the object respectively, while the displacement sensors sending the displacement information on the tip extensions to the processor; (4) computing a cross-section of the object by the processor according to the displacement information on the tip extensions; (5) repeating the step (3) and (4), the processor computing a plurality of cross-sections of the object, the cross-sections compiled to obtain aspects of object.

Contour measuring method for measuring aspects of objects

An exemplary measuring device includes a standard element, a first contour measuring probe, and a controller. The standard element has a first standard plane opposite to a measured object. The first contour measuring probe has a tip extension. The controller is electrically connected to the first contour measuring probe. The tip extension contacts the first standard plane during a measuring process. In addition, a method for using the measuring device is also provided.

Measuring device and method for using the same

An exemplary base includes a first elastic element, a second elastic, two first adjustable spacers and two second adjustable spacers. The first elastic element includes two first spaced plates and a first connecting element for connecting the two first spaced plates. The second elastic element includes two second spaced plates and a second connecting element for connecting the two second spaced plates. The first connecting element and the second connecting element are not in a plane. Two first adjustable spacers connect the two first spaced plates and adjust a distance between the two first spaced plates. Two second adjustable spacers connect the two second spaced plates and adjust a distance between the two second spaced plates.

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Shenzhen, China

Jun-Qi Li