Abstract:
A swash plate type compressor for compressing a refrigerant of an air conditioning system incorporating therein a rotating swash plate made of an aluminum alloy, one or more compressor pistons reciprocating in a cylinder block for effecting compression of the refrigerant, and an operative engagement means which is between the swash plate and the piston or pistons. The operative engagement means is made of a carbon steel material and a flattened face of the operative engagement means contacting the aluminum alloy swash plate consisting of a cementation treatment layer formed in the carbon steel material of the operative engagement means.
Abstract:
A composite blade (26) comprises a three-dimensional arrangement of reinforcing fibres (58) and a matrix material (60) infiltrated around the three-dimensional arrangement of woven reinforcing fibres (60). The three-dimensional arrangement of woven reinforcing fibres (58) defines a plurality of cavities (56) within the aerofoil (28). The composite blade (26) comprises an aerofoil portion (38) and a root portion (36). The aerofoil portion (38) comprises a leading edge (44), a trailing edge (46), a concave pressure surface wall (50), a convex suction surface wall (52) and a tip (48). The aerofoil portion (36) comprises a plurality of webs (54) extending between, and being secured to, the concave pressure surface wall (50) and the convex suction surface wall (52) to produce a Warren girder structure. The three-dimensional arrangement of woven reinforcing fibres (58) are arranged to produce the concave pressure surface wall (50), the convex suction surface wall (52) and the plurality of webs (54). The matrix material (60) is an organic resin and the reinforcing fibres (58) comprise carbon fibres.
Abstract:
A composite blade (26) comprises a three-dimensional arrangement of reinforcing fibres (58) and a matrix material (60) infiltrated around the three-dimensional arrangement of woven reinforcing fibres (60). The three-dimensional arrangement of woven reinforcing fibres (58) defines a plurality of cavities (56) within the aerofoil (28). The composite blade (26) comprises an aerofoil portion (38) and a root portion (36). The aerofoil portion (38) comprises a leading edge (44), a trailing edge (46), a concave pressure surface wall (50), a convex suction surface wall (52) and a tip (48). The aerofoil portion (36) comprises a plurality of webs (54) extending between, and being secured to, the concave pressure surface wall (50) and the convex suction surface wall (52) to produce a Warren girder structure. The three-dimensional arrangement of woven reinforcing fibres (58) are arranged to produce the concave pressure surface wall (50), the convex suction surface wall (52) and the plurality of webs (54). The matrix material (60) is an organic resin and the reinforcing fibres (58) comprise carbon fibres.
Abstract:
In order to increase the anti-seizing properties of a swash plate which is a sliding component of a swash plate type compressor, a copper alloy is sprayed onto the swash plate and the following texture/composition controls are performed as required: (a) to produce a mixed texture of a dissolved texture into which atomized bronze powder is dissolved during spraying and an atomized texture into which the same bronze powder is not dissolved, (b) to add no or a small amount of Pb to the dissolved texture, (c) to add Sn, P, Al, Ag, Si, Mn, Cr, Ni, Zn, Pb and/or Bi to copper, (d) to add a hard material to a copper alloy, and (e) to form an intermediate layer comprising an Ni alloy or the like between the sprayed layer and a substrate.
Abstract:
A composite blade (26) comprises a three-dimensional arrangement of reinforcing fibres (58) and a matrix material (60) infiltrated around the three-dimensional arrangement of woven reinforcing fibres (60). The three-dimensional arrangement of woven reinforcing fibres (58) defines a plurality of cavities (56) within the aerofoil (28). The composite blade (26) comprises an aerofoil portion (38) and a root portion (36). The aerofoil portion (38) comprises a leading edge (44), a trailing edge (46), a concave pressure surface wall (50), a convex suction surface wall (52) and a tip (48). The aerofoil portion (36) comprises a plurality of webs (54) extending between, and being secured to, the concave pressure surface wall (50) and the convex suction surface wall (52) to produce a Warren girder structure. The three-dimensional arrangement of woven reinforcing fibres (58) are arranged to produce the concave pressure surface wall (50), the convex suction surface wall (52) and the plurality of webs (54). The matrix material (60) is an organic resin and the reinforcing fibres (58) comprise carbon fibres.
Abstract:
PROBLEM TO BE SOLVED: To provide a component made of a composite material, to which coating is applied for protection from oxidation. SOLUTION: The coating for the protection is formed by applying a composition comprising a mixture of boride powder composed mainly of TiB 2 , at least one vitreous refractory oxide powder constituted mainly of a mixture of borosilicate glass and a binder containing a ceramic-precursor resin on a component made of the composite material, curing the resin at ≤400°C, heat-treating at ≥600°C and successively transforming the resin into a ceramic by first exposure of the coated component to the high temperature. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a Ni-based single crystal alloy with which the solidifying crack at the time of casting a large wing does not occur, and the sufficient strength in the crystal grain boundary to secure the reliance during using is provided and to further higher temperature of combustion gas, while having the excellent high temperature strength as the same range as the conventional single crystal alloy, the further excellent oxidizing resistant characteristic is provided, too. SOLUTION: The Ni-based single crystal alloy has the composition composed by wt.% of 0.06-0.09% C, 0.016-0.035% B, 0.2-0.4% Hf, 0-0.02% Zr, 6.5-8.5% Cr, 0.4-1.0% Mo, 5.5-9.5% W, 1.2-3.1% Re, 8-10% Ta, 0.3-1.0% Nb, 0-0.4% Ti, 4.7-5.4% Al, 0.5-5.0% Co, 0.1-5% Fe and the balance substantially Ni. COPYRIGHT: (C)2009,JPO&INPIT