Abstract: A production line for producing components to a high standard of cleanliness and sealed and protected in that state includes a loading device, a cleaning device, a detecting device, a pasting device, a heat-sealing device, a packing device, and transfer devices of the production line. The production line automatically processes the components for obtaining components with the high cleanliness. By the processes of protective film pasting, heat-sealing, and packing, the components may be further protected from subsequent pollution. A method for producing components with a high cleanliness applied to the production line is also disclosed.

Abstract: A mechanism for polishing includes a polishing member, an eccentric member coupled to the polishing member, and a driving member coupled to the eccentric member. The driving member drives the eccentric member to rotate to move the polishing member to reciprocate in the one-dimensional direction, so that when a relative position between the polishing mechanism and the workpiece is fixed, the polishing member polishes a workpiece by translating a polishing surface. A method for the polishing process, applied by a polishing device, is also disclosed. By using the polishing mechanism, the entirety of the polishable surface of the workpiece can be covered, and collapsed edges of the workpiece are avoided.

Abstract: A dispensing device includes a dispensing mechanism and a calibration mechanism coupled to the dispensing mechanism. The calibration mechanism includes a control unit. The control unit is configured to detect a position difference between a dispensing needle and a reference coordinate in a direction. The dispensing mechanism is configured to adjust the dispensing needle in the direction according to the position difference.

Abstract: A production line for producing components to a high standard of cleanliness and sealed and protected in that state includes a loading device, a cleaning device, a detecting device, a pasting device, a heat-sealing device, a packing device, and transfer devices of the production line. The production line automatically processes the components for obtaining components with the high cleanliness. By the processes of protective film pasting, heat-sealing, and packing, the components may be further protected from subsequent pollution. A method for producing components with a high cleanliness applied to the production line is also disclosed.

Abstract: A mechanism for polishing includes a polishing member, an eccentric member coupled to the polishing member, and a driving member coupled to the eccentric member. The driving member drives the eccentric member to rotate to move the polishing member to reciprocate in the one-dimensional direction, so that when a relative position between the polishing mechanism and the workpiece is fixed, the polishing member polishes a workpiece by translating a polishing surface. A method for the polishing process, applied by a polishing device, is also disclosed. By using the polishing mechanism, the entirety of the polishable surface of the workpiece can be covered, and collapsed edges of the workpiece are avoided.

Abstract: A dispensing device includes a dispensing mechanism and a calibration mechanism coupled to the dispensing mechanism. The calibration mechanism includes a control unit. The control unit is configured to detect a position difference between a dispensing needle and a reference coordinate in a direction. The dispensing mechanism is configured to adjust the dispensing needle in the direction according to the position difference.

Abstract: Pneumatic machining device includes a fixing plate, a hollow piston shell, a piston group, a machining tool, a first sealing group, and a second sealing group. The piston shell is fixed to the fixing plate and coupled to a first external pressure source and second external pressure source to feed gas into the piston shell to drive the piston group and the machining tool, respectively. The piston group and the first and second sealing groups are received inside the piston shell. The piston group is driven by the first external pressure source to move away from the fixing plate. The first and second sealing groups divide the piston shell into a number of chambers for controlling a gas pressure. The machining tool is coupled to the piston group and extends out of the piston shell to machine a workpiece as the piston group moves away from the fixing plate.

Abstract: Pneumatic machining device includes a fixing plate, a hollow piston shell, a piston group, a machining tool, a first sealing group, and a second sealing group. The piston shell is fixed to the fixing plate and coupled to a first external pressure source and second external pressure source to feed gas into the piston shell to drive the piston group and the machining tool, respectively. The piston group and the first and second sealing groups are received inside the piston shell. The piston group is driven by the first external pressure source to move away from the fixing plate. The first and second sealing groups divide the piston shell into a number of chambers for controlling a gas pressure. The machining tool is coupled to the piston group and extends out of the piston shell to machine a workpiece as the piston group moves away from the fixing plate.

Abstract: A pressure detection device includes a pressure detector, a bearing member, at least two guiding rods passing through the bearing member and connecting with the pressure detector, at least two elastic elements sleeving on the at least one guiding rod and resisting between the bearing member and the pressure detector for transferring forces from the bearing member to the pressure detector.

Abstract: A multi-process automatic machine system is configured to machine different surfaces of a workpiece. The multi-process automatic machine system includes at least two first robots, at least two first machining devices, and at least one transfer table positioned between the at least two first robots. Each first machining device is positioned adjacent to one of the at least two first robots. One of the at least two first robots is configured to translationally move the workpiece to the at least one transfer table after the first machining surface being machined. The at least one transfer table is configured to rotate the workpiece. Another one of the at least two first robots is configured to translationally move the workpiece from the at least one transfer table to the corresponding one of the at least two first machining device.

Abstract: A pressure detection device includes a connection seat, a pressure transducer connected to the connection seat, and an overload protection member connected to the connection seat. The pressure transducer includes a housing and a detection sleeve received in the housing. The housing is mounted on the connection seat. The overload protection member is positioned above the detection sleeve. A buffering space is formed between the overload protection member and the detection sleeve, so that the overload protection member can bear an amount of exerted pressure when being overloaded.

Abstract: A pressure detection device includes a supporting member, a pressure sensor, a force transmission member, and a limiting member. The supporting member includes a receiving portion and a mounting portion protruding from an end of the receiving portion. The pressure sensor is fixedly received in the receiving portion of the supporting member. The force transmission member includes a main body received in the mounting portion, a transmission portion and an assembly portion protruding from opposite ends of the main body, the transmission portion fixedly extending through the pressure sensor. The limiting member extends through the assembly portion and is fixedly connected to the mounting portion of the supporting member, thereby preventing the force transmission member from rotating. The assembly portion of the force transmission member protrudes from the supporting member, and abuts against an end of the supporting member.

Abstract: A pressure detection device includes a connection seat, a pressure transducer connected to the connection seat, and an overload protection member connected to the connection seat. The pressure transducer includes a housing and a detection sleeve received in the housing. The housing is mounted on the connection seat. The overload protection member is positioned above the detection sleeve. A buffering space is formed between the overload protection member and the detection sleeve, so that the overload protection member can bear an amount of exerted pressure when being overloaded.

Abstract: A pressure detection device includes a pressure detector, a bearing member, at least two guiding rods passing through the bearing member and connecting with the pressure detector, at least two elastic elements sleeving on the at least one guiding rod and resisting between the bearing member and the pressure detector for transferring forces from the bearing member to the pressure detector.

Abstract: A manipulator includes a main portion and an acquisition assembly. The acquisition assembly is disposed on the main portion for acquiring a hollow workpiece. The acquisition assembly includes a support body and two positioning members disposed on the support body. The positioning members are sliably connected to the support body. The positioning members are movably away from the axis of the support body to acquire the hollow workpiece.