Abstract: A method for forming a silicon-containing insulation film on a substrate by plasma polymerization includes: introducing a reaction gas comprising (i) a source gas consisting of a silicon-containing hydrocarbon linear compound containing at least one vinyl group (Si-vinyl compound), and (ii) an additive gas, into a reaction chamber where a substrate is placed; and applying radio-frequency power to the gas to cause plasma polymerization, thereby depositing an insulation film on the substrate.
Abstract: A plasma CVD apparatus for forming a thin film on a wafer having diameter Dw and thickness Tw, includes: a vacuum chamber; a shower plate; a top plate; a top mask portion for covering a top surface peripheral portion of the wafer; and a side mask portion for covering a side surface portion of the wafer. The side mask portion has an inner diameter of Dw+?, and the top mask portion is disposed at a clearance of Tw+? between a bottom surface of the top mask portion and a wafer-supporting surface of the top plate, wherein ? is more than zero, and ? is more than zero.
Type:
Application
Filed:
September 15, 2005
Publication date:
March 22, 2007
Applicants:
ASM JAPAN K.K., SAMSUNG ELECTRONICS CO., LTD.
Abstract: A recipe operation system includes (i) at least one recipe comprised of multiple operation steps arranged in order; and (ii) a recipe execution program including a subroutine which is called every time steps are changed, to select a next step to be executed from the steps arranged in order. The steps are executed in order different from the arranged order, and at least one step is repeated.
Abstract: A plasma CVD film formation apparatus includes: a reaction chamber; a shower plate installed inside the reaction chamber; and a susceptor for placing a wafer thereon installed substantially parallel to and facing the shower plate. The shower plate has a surface facing the susceptor, which is configured using a convex shape toward a center as a basic shape and overlaying at least one equation thereon, and the susceptor supports the wafer at a peripheral portion and at a position between a central portion and the peripheral portion.
Abstract: A method for depositing a thin film on a substrate by plasma CVD includes: providing a vacuum chamber including a showerhead and a susceptor entirely facing the showerhead in parallel, placing a substrate on the susceptor entirely within the inner portion; and applying an RF power between the showerhead and the susceptor to deposit a thin film on the substrate. The susceptor includes an inner portion and a peripheral portion that is defined as any portion enclosing the inner portion and defines an electrically effective distance from the showerhead greater than that defined by the inner portion.
Type:
Application
Filed:
October 12, 2006
Publication date:
February 8, 2007
Applicant:
ASM JAPAN K.K.
Inventors:
Naoto Tsuji, Ryo Kawaguchi, Atsuki Fukazawa, Rei Tanaka
Abstract: A method for forming a low-dielectric-constant thin film includes forming on a substrate placed on a susceptor a thin film having a dielectric constant of 2.7 or higher and a modulus of 5 GPa or less by plasma CVD using an organosilicon gas and an additive gas such as CnH2n+2O in the absence of oxidizing gas at a susceptor temperature of lower than 350° C.; and curing the thin film with UV irradiation, thereby decreasing the dielectric constant by at least 10% and increasing the modulus by at least 200%.
Abstract: A method for forming an insulation film having filling property on a semiconductor substrate by plasma reaction includes: vaporizing a silicon-containing hydrocarbon having a Si—O bond compound to provide a source gas; introducing the source gas and a carrier gas without an oxidizing gas into a reaction space for plasma CVD processing; and forming an insulation film constituted by Si, O, H, and optionally C or N on a substrate by plasma reaction using a combination of low-frequency RF power and high-frequency RF power in the reaction space. The plasma reaction is activated while controlling the flow of the reaction gas to lengthen a residence time, Rt, of the reaction gas in the reaction space.
Abstract: A method of treating a low-dielectric constant film includes: depositing a low-dielectric constant film on a substrate, which is structured by Si—C bond and has a first leakage current; and emitting ultraviolet (UV) light to the film until the film has a second leakage current which is ½ or less of the first leakage current.
Abstract: A silicon-containing insulation film is formed on a substrate by plasma reaction using a reaction gas including (i) a source gas comprising a silicon-containing hydrocarbon compound containing multiple cross-linkable groups, (ii) a cross-linking gas, and (iii) an inert gas, into a reaction chamber where a substrate is placed. The insulation film is then exposed to electron beam radiation, thereby increasing mechanical strength of the film without substantial alternation of its dielectric constant.
Abstract: A silicon-containing insulation film is formed on a substrate by plasma polymerization by introducing a reaction gas comprising (i) a source gas comprising a silicon-containing hydrocarbon compound containing at least one vinyl group (Si-vinyl compound), and (ii) an additive gas, into a reaction chamber where a substrate is placed; and applying radio-frequency power to the gas to cause plasma polymerization, thereby depositing an insulation film on the substrate.
Abstract: A method of detecting abnormal operation of a plasma process, includes: (i) detecting a potential Vpp1 between an upper electrode and a lower electrode disposed parallel to each other in a reaction camber at a time T1 after the plasma process begins in the reaction chamber; (ii) detecting a Vpp2 between the upper electrode and the lower electrode at a time T2 after T1; (iii) comparing Vpp1 and Vpp2 to obtain an operation value; and (iv) determining abnormal operation if the operation value is within a predetermined range.
Abstract: Chemical vapor deposition processes result in films having low dielectric constants when suitable chemical precursors are utilized. Preferred chemical precursors include siloxanes, (fluoroalkyl)fluorosiloxanes, (fluoroalkyl)silanes, (alkyl)fluorosilanes, (fluoroalkyl)fluorosilanes, alkylsiloxysilanes, alkoxysilanes, alkylalkoxysilanes, silylmethanes, alkoxysilylmethanes, alkylalkoxysilylmethanes, alkoxymethanes, alkylalkoxymethanes, and mixtures thereof. The precursors are particularly suited to thermal CVD for producing low dielectric constant films at relatively low temperatures, particularly without the use of additional oxidizing agents. Such films are useful in the microelectronics industry.
Abstract: A method for forming a low dielectric constant film includes the steps of: introducing reaction gas comprising an organo Si gas and an inert gas into a reactor of a capacitively-coupled CVD apparatus; adjusting a size of fine particles being generated in the vapor phase to a nanometer order size as a function of a plasma discharge period inside the reactor; and depositing fine particles generated on a substrate being placed between upper and lower electrodes inside the reactor while controlling a temperature gradient between the substrate and the upper electrode at about 100° C./cm or less.
Type:
Application
Filed:
May 27, 2005
Publication date:
November 30, 2006
Applicants:
ASM JAPAN K.K., Kyushu University, National University Corporation
Abstract: To deposit silicon onto a substrate, there is introduced into a reaction zone a gas including source gases of silicon, carbon, nitrogen and an inert gas. An electric field is generated using low and high frequency RF power to produce a plasma discharge in the reaction zone to cause the deposition. The average power on the substrate is substantially constant. A ratio of low frequency RF power to total RF power is less than about 0.5.
Abstract: A method for forming an insulation film having filling property on a semiconductor substrate by plasma reaction includes: vaporizing a silicon-containing hydrocarbon having a Si—O bond compound to provide a source gas; introducing the source gas and a carrier gas without an oxidizing gas into a reaction space for plasma CVD processing; and forming an insulation film constituted by Si, O, H, and optionally C or N on a substrate by plasma reaction using a combination of low-frequency RF power and high-frequency RF power in the reaction space. The plasma reaction is activated while controlling the flow of the reaction gas to lengthen a residence time, Rt, of the reaction gas in the reaction space.
Abstract: An operation method of a recipe control process in which multiple processing targets are processed continuously in a processing apparatus using recipes that specify a set of control parameters specifying the processing conditions of processing targets. The method comprises the steps of: (I) specifying correction coefficients to correct at least one of the parameters' values for each processing target, separately from the recipes, and (II) performing the recipe control process for multiple processing targets and applying the correction coefficients to each processing target to adjust the parameters' values.
Abstract: A CVD apparatus comprising an optical unit detecting the mass of contaminants adhering to an inner surface of a CVD reactor by irradiating an inner surface of the reactor with light having monochromaticity through an optical window provided on an inner wall of the reactor and receiving its reflected light is provided.
Abstract: A method of forming a film having a low dielectric constant, comprises the steps of: placing a substrate between an upper electrode and a lower electrode inside a reaction chamber, introducing a silicon-containing hydrocarbon compound source gas, an additive gas, and an inert gas into a space between the upper and lower electrodes by controlling a gas flow ratio, generating a plasma by applying RF power to the space between the upper and lower electrodes in a state in which an interval between the upper electrode and the substrate is narrower in the vicinity of a center of the substrate than that in the vicinity of its periphery, and forming a film having a low dielectric constant on the substrate at a deposition rate of less than approx. 790 nm/min by controlling a flow rate of the process gas.
Abstract: For example, by providing MMF software 10, 11 transferring data using a memory-mapped file respectively in a semiconductor manufacturing apparatus 1 and in an input signal analyzing system 8, data transfer load placed on control software 4 and analyzing software 9 is reduced. Additionally, in the MMF software 10, by inserting counter information in the memory-mapped file and by observing the information by the MMF software 11, communication abnormality is detected.
Abstract: A wafer transfer apparatus includes: (A) a mini environment that connects to a wafer storage part and a load lock chamber and is equipped with a transfer robot inside, in order to transfer wafers between the wafer storage part and load lock chamber in the presence of air flows; and (B) a cooling stage that opens and connects to the mini environment from the outside of the mini environment in the vicinity of the connection port on the load lock chamber, in order to temporarily hold a wafer so that the wafer cooled by the air taken in from the mini environment.