Abstract: A substrate treatment apparatus is provided. The apparatus may include a process chamber configured to have an internal space, a substrate supporting member disposed in the process chamber to support a substrate, a first supplying port configured to supply a supercritical fluid to a region of the internal space located below the substrate, a second supplying port configured to supply a supercritical fluid to other region of the internal space located over the substrate, and an exhaust port configured to exhaust the supercritical fluid from the process chamber to an exterior region.

Abstract: The present inventive concepts provide metal etchant compositions and methods of fabricating a semiconductor device using the same. The metal etchant composition includes an organic peroxide in a range of about 0.1 wt % to about 20 wt %, an organic acid in a range of about 0.1 wt % to about 70 wt %, and an alcohol-based solvent in a range of about 10 wt % to about 99.8 wt %. The metal etchant composition may be used in an anhydrous system.

Abstract: A method of manufacture and fluid supply system for treating a substrate is provided. The fluid supply system for treating a substrate may include a substrate dry part supplying a dry fluid to dry a rinse solution doped on a substrate; a dry fluid separation part retrieving a mixed fluid that the dry fluid and the rinse solution are mixed with each other during a dry process of the substrate from the substrate dry part and separating the dry fluid from the mixed fluid; and a dry fluid supply part resupplying the dry fluid separated from the dry fluid separation part to the substrate dry part.

Abstract: A substrate treating method may include jetting a fluid containing an abrasive onto a substrate, and polishing the substrate using the jetted fluid.

Abstract: Provided is a substrate treating apparatus including a housing; a plurality of opening-and-closing members configured to provide a driving force for opening and closing the housing; a fluid storing member supplying a fluid to the opening-and-closing members; and a fluid distribution unit connected to the fluid storing member via a supply conduit to distribute the fluid supplied from the fluid storing member to the opening-and-closing members. The fluid distribution unit includes a distribution conduit diverging from the supply conduit and connected to a corresponding one of the opening-and-closing members; and a fluid distribution member provided at a junction between the supply conduit and the distribution conduit.

Abstract: A substrate treatment apparatus is provided. The apparatus may include a process chamber configured to have an internal space, a substrate supporting member disposed in the process chamber to support a substrate, a first supplying port configured to supply a supercritical fluid to a region of the internal space located below the substrate, a second supplying port configured to supply a supercritical fluid to other region of the internal space located over the substrate, and an exhaust port configured to exhaust the supercritical fluid from the process chamber to an exterior region.

Abstract: A method of manufacturing a semiconductor device includes: forming a pattern on a surface of a semiconductor substrate; placing the substrate on a platform of a substrate treatment apparatus; rotating the wafer while applying a cleaning liquid from a first nozzle and a wetting liquid from a second nozzle to treat a first region on the surface of the substrate; vertically changing the distance of the second nozzle together with the first nozzle with respect to the platform; after the vertical change, rotating the wafer while applying the cleaning liquid from the first nozzle and the wetting liquid from the second nozzle to treat a second region on the surface of the substrate; and forming a semiconductor device from the treated substrate.

Abstract: A method of manufacture and fluid supply system for treating a substrate is provided. The fluid supply system for treating a substrate may include a substrate dry part supplying a dry fluid to dry a rinse solution doped on a substrate; a dry fluid separation part retrieving a mixed fluid that the dry fluid and the rinse solution are mixed with each other during a dry process of the substrate from the substrate dry part and separating the dry fluid from the mixed fluid; and a dry fluid supply part resupplying the dry fluid separated from the dry fluid separation part to the substrate dry part.

Abstract: A method of manufacture and fluid supply system for treating a substrate is provided. The fluid supply system for treating a substrate may include a substrate dry part supplying a dry fluid to dry a rinse solution doped on a substrate; a dry fluid separation part retrieving a mixed fluid that the dry fluid and the rinse solution are mixed with each other during a dry process of the substrate from the substrate dry part and separating the dry fluid from the mixed fluid; and a dry fluid supply part resupplying the dry fluid separated from the dry fluid separation part to the substrate dry part.

Abstract: The present inventive concepts provide metal etchant compositions and methods of fabricating a semiconductor device using the same. The metal etchant composition includes an organic peroxide in a range of about 0.1 wt % to about 20 wt %, an organic acid in a range of about 0.1 wt % to about 70 wt %, and an alcohol-based solvent in a range of about 10 wt % to about 99.8 wt %. The metal etchant composition may be used in an anhydrous system.

Abstract: A substrate treating method may include jetting a fluid containing an abrasive onto a substrate, and polishing the substrate using the jetted fluid.

Abstract: A semiconductor device includes a storage node contact on a substrate, and a lower electrode on the storage node contact, a lower sidewall of the lower electrode being covered by a contact residue of a same material as the storage node contact.

Abstract: A method of manufacturing a semiconductor device includes: forming a pattern on a surface of a semiconductor substrate; placing the substrate on a platform of a substrate treatment apparatus; rotating the wafer while applying a cleaning liquid from a first nozzle and a wetting liquid from a second nozzle to treat a first region on the surface of the substrate; vertically changing the distance of the second nozzle together with the first nozzle with respect to the platform; after the vertical change, rotating the wafer while applying the cleaning liquid from the first nozzle and the wetting liquid from the second nozzle to treat a second region on the surface of the substrate; and forming a semiconductor device from the treated substrate.

Abstract: The present inventive concepts provide metal etchant compositions and methods of fabricating a semiconductor device using the same. The metal etchant composition includes an organic peroxide in a range of about 0.1 wt % to about 20 wt %, an organic acid in a range of about 0.1 wt % to about 70 wt %, and an alcohol-based solvent in a range of about 10 wt % to about 99.8 wt %. The metal etchant composition may be used in an anhydrous system.

Abstract: An apparatus for treating a substrate includes a spin chuck supporting a substrate, a nozzle movably disposed on the spin chuck, the nozzle providing droplets of a treatment liquid onto a surface of the substrate, and a nozzle arm moving the nozzle above the spin chuck, wherein the nozzle arm moves the nozzle horizontally along the surface of the substrate, and vertically with respect to the surface of the substrate, wherein the nozzle arm moves the nozzle between an edge of the substrate and a center of the substrate, the nozzle moving away from the surface of the substrate while approaching toward the center of the substrate, and wherein droplets provided onto the center of the substrate have a smaller vertical spacing than that of droplets provided onto the edge of the substrate.

Abstract: Substrate treatment systems are provided. The substrate treatment systems may include a treating device configured to treat a substrate with a supercritical fluid, and a supplying device configured to supply the supercritical fluid to the treating device. The treating device may include a supercritical process zone in which the substrate is treated with the supercritical fluid, and a pre-supercritical process zone in which the supercritical fluid is expanded and then provided into the supercritical process zone to create a supercritical state in the supercritical process zone.

Abstract: A substrate treating apparatus including a support member configured to support a substrate container configured to surround an upper portion of the support member, a nozzle member including at least one nozzle, which is configured to spray a treating solution onto the substrate disposed on the support member, and a treating solution supply unit connected to the nozzle and configured to supply the treating solution to the nozzle through a main tube may be provided.

Abstract: A substrate treating apparatus includes a fluid supply unit to supply a fluid to a chamber. The substrate is dried in the chamber using the fluid in a supercritical state. The fluid supply unit includes a storing tank to store the fluid and a conversion tank connected to the storing tank through a connection tube and to the chamber through a supply tube. The conversion tank includes a heater to heat the fluid.

Abstract: A semiconductor device includes a storage node contact on a substrate, and a lower electrode on the storage node contact, a lower sidewall of the lower electrode being covered by a contact residue of a same material as the storage node contact.

Abstract: Provided is a substrate treating apparatus including a housing; a plurality of opening-and-closing members configured to provide a driving force for opening and closing the housing; a fluid storing member supplying a fluid to the opening-and-closing members; and a fluid distribution unit connected to the fluid storing member via a supply conduit to distribute the fluid supplied from the fluid storing member to the opening-and-closing members. The fluid distribution unit includes a distribution conduit diverging from the supply conduit and connected to a corresponding one of the opening-and-closing members; and a fluid distribution member provided at a junction between the supply conduit and the distribution conduit.