Abstract:
A conductive sheet, a conductive strip, and an electrical connector for a vehicle are disclosed. The conductive sheet includes a conductive sheet body, the conductive sheet body is a flat ribbon structure, and the conductive sheet body satisfies the following condition:
ω is the width of the conductive sheet body, measured in mm. δ represents the thickness of the conductive sheet body, measured in mm. represents a standard conductivity percentage of a pure copper material, and has a value of 100% IACS. represents a conductivity percentage of the conductive sheet body, measured in % IACS. k is 1.07% IACS/mm2. The conductivity percentage of the conductive sheet body is 55% IACS to 80% IACS.
Abstract:
A disclosed electroconductive member includes a substrate and a cover layer covering the entire surfaces of the substrate and containing zinc, manganese, and cobalt. The cover layer has a zirconium content of 5000 ppm or less on an oxide basis. A disclosed cell stack includes a plurality of SOFCs that are electrically connected with the electroconductive member. A disclosed cell module includes the cell stack accommodated in a container. A disclosed cell module storage device includes the cell module and an accessories to operate the cell module that are accommodated in the exterior case.
Abstract:
The invention relates to a device (30) for connecting electrical components (20, 22) with a power supply (42). The invention is characterised in that the device (30) is formed by a three-dimensionally bent wire (32), in which contact regions (36) are formed at least at the ends thereof, and preferably also between same. In comparison to known devices that generate a connection with power rails or via contact plates, the device according to the invention is substantially easier and more cost-effective to produce and can be three-dimensionally deformed virtually as desired.
Abstract:
Provided is an aluminum alloy wire rod having a high strength and flexibility, and less occurrence of a wire break even if subjected to a severe bending, such as 180°. An aluminum alloy wire rod of the present invention has a composition comprising 0.1-1.0 mass% Mg; 0.1-1.0 mass% Si; 0.01-1.40 mass% Fe; 0.000-0.100 mass% Ti; 0.000-0.030 mass% B; 0.00-1.00 mass% Cu; 0.00-0.50 mass% Ag; 0.00-0.50 mass% Au; 0.00-1.00 mass% Mn; 0.00-1.00 mass% Cr; 0.00-0.50 mass% Zr; 0.00-0.50 mass% Hf; 0.00-0.50 mass% V; 0.00-0.50 mass% Sc; 0.00-0.50 mass% Sn; 0.00-0.50 mass% Co; 0.00-0.50 mass% Ni; and the balance being Al and inevitable impurities, and an area fraction of a region in which an angle formed by a longitudinal direction of the aluminum alloy wire rod and direction of a crystal is within 20° is greater than or equal to 20 % and less than or equal to 65 %.
Abstract:
Provided is an aluminum alloy conductor wire used as a conductor of an electrical wiring structure that has improved crimping reliability while ensuring an excellent strength. An aluminum alloy conductor wire having a composition comprising Mg: 0.1 mass% to 1.0 mass%, Si: 0.1 mass% to 1.20 mass%, Fe: 0.01 mass% to 1.40 mass%, Ti: 0 mass% to 0.100 mass%, B: 0 mass% to 0.030 mass%, Cu: 0 mass% to 1.00 mass%, Ag: 0 mass% to 0.50 mass%, Au: 00 mass% to 0.50 mass%, Mn: 0 mass% to 1.00 mass%, Cr: 0 mass% to 1.00 mass%, Zr: 0 mass% to 0.50 mass%, Hf: 0 mass% to 0.50 mass%, V: 0 mass% to 0.50 mass%, Sc: 0 mass% to 0.50 mass%, Co: 0 mass% to 0.50 mass%, Ni: 0 mass% to 0.50 mass%, and the balance: Al and inevitable impurities, where Ti, B, Cu, Ag, Au, Mn, Cr, Zr, Hf, V, Sc, Co and Ni are arbitrary additive components of which at least one component may be contained or none of the components may be contained. A density of a compound having a particle size of 0.5 to 5.0 µm and containing Fe is 1 to 300 particles/10000 µm 2 .
Abstract:
The invention relates to an electrical functional component (01) having at least one electrically conductive conductor track (02), wherein at least one contact pin (03) is fitted to the conductor track (02), it being possible for a functionally complementary contact element, in particular in a plug or a holder, to make contact with said contact pin, and wherein a contact zone is provided between the conductor track (02) and the contact pin (03), said contact zone electrically conductively connecting the conductor track (02) and the contact pin (03) to one another, wherein the electrically conductive contact zone is formed in the manner of an annular, cold-pressure-welded transition zone (11), wherein the surface material of the conductor track (02) and/or the surface material of the contact pin (03) have/has at least one cold deformation zone (12, 14) in the transition zone (11), and wherein there is a welding zone (13) on or in at least one cold deformation zone (12, 14) at least in regions, the contact pin (03) and the conductor track (02) being electrically conductively cohesively connected to one another in said welding zone.
Abstract:
Provided is an aluminum alloy wire rod that has a low 0.2% yield strength (YS) to tensile strength (TS) while ensuring a good balance between tensile strength, elongation and conductivity. An aluminum alloy wire rod of the present invention has a composition comprising Mg: 0.10-1.0 mass%, Si: 0.10-1.20 mass%, Fe: 0.01-1.40 mass%, Ti: 0.000-0.100 mass%, B: 0.000-0.030 mass%, Cu: 0.00-1.00 mass%, Ag: 0.00-0.50 mass%, Au: 0.00-0.50 mass%, Mn: 0.00-1.00 mass%, Cr: 0.00-1.00 mass%, Zr: 0.00-0.50 mass%, Hf: 0.00-0.50 mass%, V: 0.00-0.50 mass%, Sc: 0.00-0.50 mass%, Co: 0.00-0.50 mass%, Ni: 0.00-0.50 mass%, and the balance: Al and incidental impurities, Mg/Si mass ratio being 0.4 to 0.8. The aluminum alloy wire rod has a tensile strength of 200 MPa or above, an elongation of 13% or above, a conductivity of 47% IACS, and a ratio (YS/TS) of 0.2% yield strength (YS) to the tensile strength (TS) of 0.7 or less.
Abstract:
A carbon nanotube film includes an assembly of a plurality of carbon nanotubes, wherein the plurality of carbon nanotubes includes one or more carbon nanotubes having at least partially collapsed structures. A method for producing a carbon nanotube film includes forming a carbon nanotube film by removing a solvent from a carbon nanotube dispersion liquid containing the solvent, a dispersant, and a plurality of carbon nanotubes including one or more carbon nanotubes having at least partially collapsed structures.
Abstract:
Embodiments of the present disclosure disclose a main bus-bar. The main bus-bar consists of a first elongated flat portion and a second elongated flat portion. A longitudinal side of the first elongated flat portion and a longitudinal side of the second elongated flat portion are arranged to be joined with each other at a predetermined angle. The thickness of each of said the first elongated flat portion and the second elongated flat portion is non-uniform. With embodiments of the present disclosure, the skin effect and proximity effect caused by current carried in the main bus-bar can be reduced greatly. Embodiments of the present disclosure also disclose a transfer connector, a bus-bar assembly and a bus-bar system.
Abstract:
Plural pairs of connection plates (21) are placed circumferentially around a plurality of circularly-arranged electromagnets (2, 3, 4), in which the plural pairs are each a pair of two connection plates placed with a gap therebetween in a radial direction and are arranged in a longitudinal direction of the connection plates. Further, at a portion where one (21a) of the two connection plates forming a pair (21a, 21c) and one (21b) of the adjacent two connection plates forming another pair are connected to each other, an end portion (22a) of the one of the two connection plates forming the pair and an end portion (22b) of the one of the two connection plates forming the another pair, are configured to be bent in the radial direction so that these end portions (22a, 22b) are both apart from the other one (21a, 21b) of the two connection plates forming the pair, whereby the connection plates in the pair and the connection plates in the another pair are serially connected. Further, using an intermediate fixation plate (24) and a clamping plate (25), all of the connection plates (21) are placed at a position higher than an installation base level.