Abstract: A polishing composition includes abrasive particles, a pyrrolidone containing a hydrophilic group, a dispersing agent, a first dishing inhibitor including polyacrylic acid, and a second dishing inhibitor including a non-ionic polymer.

Abstract: A slurry composition for chemical mechanical polishing, the slurry composition including ceramic polishing particles; a dispersion agent; a pH control agent and an additive having affinity with silicon nitride.

Abstract: A slurry composition for chemical mechanical polishing, the slurry composition including ceramic polishing particles; a dispersion agent; a pH control agent and an additive having affinity with silicon nitride.

Abstract: A method of fabricating an integrated circuit device may include forming a polishing stop layer and a semiconductor layer on a substrate, and selectively polishing the semiconductor layer from a surface which simultaneously exposes the polishing stop layer and the semiconductor layer, by using a slurry composition including a compound composition and polishing particles. The compound composition may include a sulfonate compound and a terminal amine group-including compound.

Abstract: Provided is a substrate processing system and a substrate processing method. The substrate processing system includes a polishing part for performing a Chemical Mechanical Polishing (CMP) process on a substrate, a cleaning part for cleaning the substrate on which the polishing process is performed, and a substrate transferring part for transferring the substrate to the cleaning part before polishing the substrate in the polishing part. The substrate may be preparatorily cleaned in the cleaning part before the polishing process, and then enters the polishing part.

Abstract: A substrate processing system comprising a polishing part, a pre-cleaning region, and a cleaning part. The polishing part performs a Chemical Mechanical Polishing (CMP) process on a substrate. The pre-cleaning region is prepared in the polishing part and allows pre-cleaning performed on the substrate having undergone the polishing process. The cleaning part cleans the substrate pre-cleaned in the pre-cleaning region.

Abstract: A method of fabricating an integrated circuit device may include forming a polishing stop layer and a semiconductor layer on a substrate, and selectively polishing the semiconductor layer from a surface which simultaneously exposes the polishing stop layer and the semiconductor layer, by using a slurry composition including a compound composition and polishing particles. The compound composition may include a sulfonate compound and a terminal amine group-including compound.

Abstract: Provided are a substrate cleaning apparatus and method and a brush assembly used therein. The substrate cleaning apparatus for contact-cleaning a substrate includes a cleaning brush rotatably disposed in a cylindrical shape and having an outer circumferential surface contacting the substrate to clean the substrate. Here, the cleaning brush includes a plurality of pressure chambers expanding by a fluid pressure and disposed along a longitudinal direction of a rotation axis rotating at a central portion of the cleaning brush, and the plurality of pressure chambers are individually expandable to allow a portion of the outer circumferential surface to protrude in a radial direction and thus contact-clean a portion of the substrate.

Abstract: The present invention relates to a polishing slurry composition. A polishing slurry composition according to a first aspect of the present invention comprises abrasive particles and an oxidant, polishes tungsten having a thickness of 10-1,000 ?, and improves the topography of tungsten. Additionally, the polishing slurry composition according to a second aspect of the present invention comprises: at least two abrasive particles among first abrasive particles, second abrasive particles and third abrasive particles; and an oxidant, wherein the primary particle size of the first abrasive particles is 20 nm or more and less than 45 nm, the primary particle size of the second abrasive particles is 45 nm or more and less than 130 nm, and the primary particle size of the third abrasive particles is 130 nm or more and less than 250 nm.

Abstract: An abrasive particle-dispersion layer composite and a polishing slurry composition including the abrasive particle-dispersion layer composite are provided. The abrasive particle-dispersion layer composite includes abrasive particles, a first dispersant that is at least one cationic compound among an amino acid, an organic acid, polyalkylene glycol and a high-molecular polysaccharide coupled to a glucosamine compound, and a second dispersant that is a cationic polymer including at least two ionized cations in a molecular formula.

Abstract: An additive composition and a positive polishing slurry composition including the additive composition are provided. The additive composition includes a cationic compound, an organic acid, a nonionic compound, and a pH adjuster.

Abstract: An abrasive particle-dispersion layer composite and a polishing slurry composition including the abrasive particle-dispersion layer composite are provided. The abrasive particle-dispersion layer composite includes abrasive particles, a first dispersant that is at least one anionic compound among a copolymer with a functional group of a resonance structure, a carboxyl group-containing polymer and a carboxyl group-containing organic acid, a second dispersant that is at least one cationic compound among an amino acid, an organic acid, polyalkylene glycol and a high-molecular polysaccharide coupled to a glucosamine compound, and a third dispersant that is a cationic polymer including at least two ionized cations in a molecular formula.

Abstract: The present invention relates to a method for preparing a slurry composition and a slurry composition prepared thereby, and has advantages of reducing scratches and residual particles, which are considered to be one of the biggest factors contributing to the decline in yield due to macroparticles and aggregated particles, while maintaining a high polishing rate, in a semiconductor CMP process. Furthermore, the present invention can achieve excellent results in the application to various patterns required in the ultra-large scale integration semiconductor process, the wafer non-uniformity (WIWNU) exhibiting a polishing rate, polishing selectivity, and polishing uniformity, which meet the needs, and the micro-scratch minimization.

Abstract: A polishing composition includes abrasive particles, a pyrrolidone containing a hydrophilic group, a dispersing agent, a first dishing inhibitor including polyacrylic acid, and a second dishing inhibitor including a non-ionic polymer.

Abstract: A polishing slurry composition is provided. The polishing slurry composition includes at least two types of abrasive particles among first abrasive particles, second abrasive particles, and third abrasive particles, and an oxidizer. A peak-to-valley roughness Rpv decreases when a contact area between the abrasive particles and a tungsten-containing film increases.

Abstract: A slurry composition for polishing tungsten is provided. The slurry composition for polishing tungsten may include a water-soluble polymer, abrasive particles and an etching adjuster.

Abstract: An atomic deposition apparatus is provided for simultaneously loading/unloading a plurality of substrates. The atomic deposition apparatus which may load/unload the plurality of substrates when transmitting the plurality of substrates to a process module, includes a loading/unloading module for loading/unloading a substrate, a process module including a plurality of process chambers for simultaneously receiving a plurality of substrates and performing a deposition process, each of the plurality of process chambers including a gas spraying unit having an exhaust portion by which an exhaust gas is drawn in from inside the process chamber and the drawn in gas is exhausted above the process chamber, and a transfer module including a transfer robot provided between the loading/unloading module and the process module, the transfer robot being adopted for simultaneously holding the plurality of substrates while transporting the substrate.

Abstract: Provided is a membrane assembly of a carrier head in a chemical-mechanical polishing apparatus. The membrane assembly includes a main membrane and a circular ring. The main membrane has a wafer contacting surface in contact with a wafer while a chemical-mechanical polishing process is being performed. The circular ring is disposed at an edge portion of the main membrane and receives an air pressure to downwardly apply the air pressure to the main membrane at the edge portion.

Abstract: Provided are a substrate cleaning apparatus and method and a brush assembly used therein. The substrate cleaning apparatus for contact-cleaning a substrate includes a cleaning brush rotatably disposed in a cylindrical shape and having an outer circumferential surface contacting the substrate to clean the substrate. Here, the cleaning brush includes a plurality of pressure chambers expanding by a fluid pressure and disposed along a longitudinal direction of a rotation axis rotating at a central portion of the cleaning brush, and the plurality of pressure chambers are individually expandable to allow a portion of the outer circumferential surface to protrude in a radial direction and thus contact-clean a portion of the substrate.

Abstract: The invention relates to a chemical mechanical polishing system, comprising: at least one polishing platens rotatably installed with a platen pad mounted on its upper surface; a guide rail disposed along a predetermined path; a substrate carrier unit including a rotary union to downwardly press a substrate during a polishing process, the substrate carrier unit moving along the guide rail with loading the substrate; and a docking unit installed to be docked to the substrate carrier unit so as to supply air pressure to the rotary union which downwardly presses the substrate held by the substrate carrier unit, when the substrate carrier unit is positioned over the polishing platen, whereby even though the substrate carrier unit is moved to consecutively polish the substrate on the plural polishing platens, it substantially removes a phenomenon of the twisting of air pressure supply tubes due to the movement of the substrate carrier unit.