Abstract: A nozzle flow stirring pipe includes a pipe body and a nozzle. The pipe body is cylindrical and includes an inner pipe member and an outer pipe member. The inner pipe member has a liquid-extracting channel. The outer pipe member fits around the inner pipe member. A reflow channel is defined between an inner wall of the outer pipe member and an outer wall of the inner pipe member. The nozzle is disposed at one end of the pipe body. The inner pipe member is penetratingly disposed at the nozzle and exposed from below. The nozzle has a plurality of liquid-ejecting pores in communication with one end of the reflow channel.

Abstract: A material mixing and supplying system is provided. The material mixing and supplying system includes a feeding module, at least three mixing and supplying barrels, a supply module, and a control unit, wherein the three mixing and supplying barrels are capable of mixing and supplying the mixed material. The supplying time of the mixed material is greater than a sum of the feeding time and the mixing time. A total operation number of the at least three mixing and supplying barrels is determined by a set amount of mixed material to be supplied by the material mixing and supplying system, and a total time to finish supplying the set amount of mixed material is determined by the total operation number.

Abstract: A lid opening component, a lid opening device, and a suction system are disclosed. The suction system includes the lid opening device and a suction assembly, wherein the lid opening device includes a positioning assembly and a lid opening assembly having the lid opening components, and the lid opening component includes a needle holder, a plurality of unpowered needles, and a drive part. The suction system identifies the locations of a container and its lids through the positioning assembly of the lid opening device, opens the container's lids by fitting the unpowered needles of the lid opening components in with the surfaces of the container's lids and rotating the lid opening components of the lid opening assembly, and by moving the suction assembly to the openings of the container, draws out the content in the container through the suction assembly.

Abstract: A quick connector assembly and a quick connector device are disclosed. The quick connector assembly includes a first base, a first fluid interface assembly and a valve assembly. The valve assembly regulates whether a fluid flows through the quick connector assembly or not, and thereby sealing the flow of the fluid at both sides of the quick connector assembly. The quick connector assembly and the quick connector device in an embodiment of the present disclosure can regulate the flow of the fluid effectively and provide better barriers to keep concurrent flows separated and isolated. Especially, the quick connector device can be used in slurry delivery system which has fluid being abrasive fluid or solid contained liquid.

Abstract: A rotary bucket mixing device is disclosed. The rotary bucket mixing device includes a main body, a rotating disk assembly, a power gear assembly and a first idler assembly. The power gear assembly receives a power to drive the rotating disk assembly to rotate and thereby rotating a mixing bucket disposed on a supporting assembly of the rotating disk assembly and mixing the contents in the mixing bucket. The first idler assembly controls a rotational speed. The rotary bucket mixing device of the present disclosure provides a better support to the mixing bucket and therefore the safety during the mixing process is enhanced.

Abstract: A liquid withdrawal system includes a base, at least one motion-enhancing element, a plurality of grip elements and a clamp. The base has a load-carrying surface and a rotational axis. The rotational axis is perpendicular to the load-carrying surface. The base is rotatable relative to the rotational axis. The motion-enhancing element is disposed on the load-carrying surface. The clamp is disposed opposite the load-carrying surface. The base and clamp jointly define a receiving space. The receiving space is adapted to receive a liquid barrel. The grip elements are movably connected to the base and symmetrically positioned relative to the base.

Abstract: An atomizing system is provided to connect a liquid supply zone and a gas supply zone. In the atomizing system, a first pipeline is connected between the liquid supply zone and a first treatment tank, a second pipeline is connected between the first treatment tank and a second treatment tank, a third pipeline is connected between the gas supply zone and the second treatment tank. The end of each of the nozzles is connected to the other end of the third pipeline. The liquid supplied from the liquid supply zone is flowed into the second treatment tank through the second pipeline, the gas supplied from the gas supply zone is flowed into the second treatment tank through the nozzles, so that the liquid contacts the gas in the second treatment tank to produce the atomized liquid.

Abstract: A mixing apparatus includes a first and a second feeding tube, a first and a second atomizing/refining dose control device, and a reaction chamber. The first and second feeding tubes are arranged in a multi-sleeves manner. The first and second atomizing/refining dose control devices are respectively disposed on terminal ends of the first and second feeding tubes. The reaction chamber accommodates the first and second feeding tubes and the first and second atomizing/refining dose control devices and has a liquid dose mixing wall. The first and second feeding tubes respectively receive a first and a second liquid dose. The first and second atomizing/refining dose control devices respectively atomize or refine the first and second liquid doses and spray the atomized or refined first and second liquid doses on a surface of the liquid dose mixing wall, so as to mix the first and second liquid doses.

Abstract: An injection mixer is provided, which includes an injection module, a valve seat module, and an adjusting module. The injection module may be disposed to penetrate one end of a bucket container. The valve seat module may be disposed at the end of the injection module, and the valve seat module may be disposed with at least one fluid supply channel and at least one outlet channel. The adjusting module may be disposed at the valve seat module to penetrate therethrough. The adjusting module may be movably connected to the injection module. When the adjusting module is driven to move the injection module towards or away from the valve seat module, an annular protrusion may approach or move away from the inner wall of the bucket container, and a size of the predetermined gap may be reduced or increased.

Abstract: A separating device for separating an electronic main body from a substrate bonded thereto comprises a platform, a conveying section, a dissolving section, a cleaning section, and a first partition plate. The conveying section is disposed on the platform for moving the electronic main body and the substrate forward. The dissolving section is disposed on the platform for spraying a solvent onto the bonded electronic main body and substrate. The cleaning section is also disposed on the platform for cleaning the electronic main body. The first partition plate is located between the dissolving section and the cleaning section and has at least one first slot, which allows only the electronic main body but not the substrate to pass therethrough, so that the electronic main body is separated from the substrate at the first partition plate. A method for separating the electronic main body and the substrate is also provided.

Abstract: A method of vacuum holes formation on carrier film of chemical mechanical polishing machine; the formed vacuum is to fit the dimension and position of vacuum hole on the wafer carrier of the chemical mechanical polishing machine. The present invention is that providing a formed plate and a mold for fixing and positioning, and then adjusting to produce the best laser parameters, thus forming vacuum hole of need of carrier film on chemical polishing machine via laser machine.

Abstract: A method for forming dresser of chemical mechanical polishing pad, firstly to make a stainless steel bottom seat. Then preparing metal welding powder and organic glue, mixing the aforesaid metal welding powder, organic glue and adequate ratio of water to welding thick liquid and uniformly distributing or pasting it on the aforesaid dresser bottom seat to form the sintering layer. The aforesaid metal welding material includes the active metal with diamond can form metal carbonate. Then using the computer visual inspection system to proceed the diamond powder distribution, uniformly distributing them for 60 to 2500 grains per square centimeter. Proceeding the sintering process to make the friction layer of chemical mechanical polishing pad dresser.

Abstract: Chemical-mechanical polishing apparatus includes three subassemblies, a top subassembly which is non-rotating but which has a lower section which forms a shell about a center and a lower subassembly both of which rotate within the shell. The system also includes a slurry dispensing system which is embedded in the shell and which is operative to supply slurry just in front of the advancing edge of a wafer being polished by the system. The slurry dispensing system includes a tube with holes arranged 180 degrees about the shell of the non-rotating subassembly which is also operative to retain the wafer in contact with the (rotating) pad covered platen with which it is in contact.

Abstract: Chemical-mechanical polishing apparatus includes a pad reconditioning mechanism which comprises nested conical tubes which overly the pad. The outer tube has an array of holes in it much like the head of an electric razor and is rotated about its axis by being in contact with the rotating pad. The inner cone is stationary and has a longitudinal, downward-facing slot. An air stream from the narrow end of the inner cone towards the wide end carries particle-laden slurry to the wide end for removal or recycling. The nested cones are arranged like a detachable bridge with the narrow end secured to a non-rotating center core and the wide end secured to the top of the table in which the (now annular) platen rotates.