摘要:
A substrate processing method is used to polish a substrate. The substrate processing method includes rotating a substrate 13 by a motor 12, polishing a first surface of a peripheral portion of the substrate 13 by pressing a polishing surface of a polishing mechanism 20 against the first surface, determining a polishing end point of the first surface by monitoring a polished state of the first surface, stopping the polishing according to the determining the polishing end point, determining a polishing time spent for the polishing, determining a polishing time for a second surface of the peripheral portion based on the polishing time of the first surface, and polishing the second surface for the determined polishing time.
摘要:
By using a vulcanized rubber composition containing a rubber component composed of at least any one of a natural rubber, a modified natural rubber and a synthetic rubber, and chemically modified microfibril cellulose, it is possible to provide a vulcanized rubber composition that is environmentally conscious and that exhibits excellent rupture characteristics and a low energy loss, and a pneumatic tire that is excellent in rolling resistance property, steering stability and durability.
摘要:
A semiconductor device fabricating method includes forming a thin film at a top surface of a substrate; polishing a back surface of said substrate; and after the polishing of the back surface, polishing said thin film as formed at the top surface of said substrate.
摘要:
A polishing liquid is provided, which includes abrasive grains and a surfactant. The abrasive grains contain a first colloidal silica having an average primary particle diameter of 45-80 nm and a second colloidal silica having an average primary particle diameter of 10-25 nm. The weight w1 of the first colloidal silica and the weight w2 of the second colloidal silica satisfy the relationship represented by the following expression 1. 0.63≦w1/(w1+w2)≦0.83 Expression 1
摘要:
There is proposed a polishing method. The method includes feeding a slurry onto a polishing pad, press-contacting a semiconductor substrate held on a polishing head with the polishing pad, the semiconductor substrate having an organic film thereon, and chemically mechanically polishing the organic film by repeating a sequence of rotation and halt of rotation of the polishing pad and the polishing head.
摘要:
Disclosed is a semiconductor device comprising a semiconductor substrate, a first insulating film formed above the semiconductor substrate, Cu wiring buried in the first insulating film, a second insulating film formed above the Cu wiring, and a discontinuous film made of at least one metal selected from the group consisting of Ti, Al, W, Pd, Sn, Ni, Mg and Zn, or a metal oxide thereof and interposed at an interface between the Cu wiring and the second insulating film.
摘要:
An aqueous dispersion for chemical mechanical polishing is provided, which includes water and a resin particle. The resin particles accompany with a projection having a curvature radius ranging from 10 nm to 1.65 μm on a surface. The maximum length of the resin particles is not more than 5 μm and is 2.5 to 25 times as large as the curvature radius.
摘要:
A semiconductor device fabricating method includes forming a thin film at a top surface of a substrate; polishing a back surface of said substrate; and after the polishing of the back surface, polishing said thin film as formed at the top surface of said substrate.
摘要:
A method of manufacturing a semiconductor device using a polishing slurry for CMP of Cu, which includes a first complexing agent containing a heterocyclic compound which is capable of forming a water-insoluble complex with Cu, and a second complexing agent containing a heterocyclic compound which is capable of forming a slightly water-soluble or water-soluble complex with Cu to thereby provide at least one extra ligand subsequent to formation of the complex.
摘要:
A substrate holding mechanism, a substrate polishing apparatus and a substrate polishing method have functions capable of minimizing the amount of heat generated during polishing of a substrate to be polished and of effectively cooling the substrate holding part of the substrate holding mechanism and also capable of effectively preventing the polishing solution and polishing dust from adhering to the outer peripheral portion of the substrate holding part and drying out thereon. The substrate holding mechanism (top ring 1) has a mounting flange 2, a support member 6, and a retainer ring 3. A substrate W to be polished is held on the lower side of the support member 6 surrounded by the retainer ring 3, and the substrate W is pressed against a polishing surface. The mounting flange 2 is provided with a flow passage 26 contiguous with at least the retainer ring 3. A temperature-controlled gas supplied through the flow passage 26 to cool the mounting flange 2, the support member 6 and the retainer ring 3. The retainer ring 3 is provided with a plurality of through-holes 3a communicating with the flow passage 26 to spray the gas flowing through the flow passage 26 onto the polishing surface of a polishing table.