Abstract:
There is provided a bonding material capable of forming a bonding body under an inert gas atmosphere such as a nitrogen atmosphere, and capable of exhibiting a bonding strength that endures a practical use even if not a heat treatment is applied thereto at a high temperature, which is the bonding material containing silver nanoparticles coated with a fatty acid having a carbon number of 8 or less and having an average primary particle size of 1nm or more and 200nm or less, and silver particles having an average particle size of 0.5µm or more and 10µm or less, and an organic material having two or more carboxyl groups.
Abstract:
In a transmission-engine unit, a transmission (2) is mounted on a first spacer (18, 19, 24, 25, 51, 52, 74) while an engine is mounted on a second spacer (6, 7, 8, 22, 51, 52, 74). Both spacers are welded to a profiled tube (32), an engine rocker, or a base frame. A compensating element (42, 54) is inserted into at least one spacer (18, 19, 52, 74) before said spacer is welded to the profiled tube (32) in order to align the transmission (2) with the engine (1). The welded seam (57) connects the spacer (52, 74) to the profiled tube (32) and bridges the compensating element (42, 54).
Abstract:
Provided is a method of welding laminated metal foils that can prevent blowholes and spatter from being formed. It is a method of welding laminated metal foils sandwiched between a pair of metal plates to the pair of metal plates. The method of welding laminated metal foils sandwiched between a pair of metal plates to the pair of metal plates includes locally pressing and crimping the laminated metal foils sandwiched between the pair of metal plates at a welding point in a laminating direction, and welding the crimped pair of metal plates and laminated metal foils at the welding point.
Abstract:
A laser welding method includes a welding process of irradiating a multiple laser beam (LB) so as to weld together a first member (11) and a second member (12) at a boundary (BD). The multiple laser beam (LB) includes a first beam (L1) that is advanced while forming a first molten pool (11KM) in which the first member (11) is melted, a second beam (L2) that is advanced while forming a second molten pool (12PM) in which the second member (12) is melted, and a main beam (LM) that is advanced subsequently to the first beam (L1) and the second beam (L2) and irradiated to an integrated molten pool (14M) formed by integration of the first molten pool (11KM) and the second molten pool (12PM). The first beam (L1) and the second beam (L2) do not swing, while the main beam (LM) swings with respect to the boundary (BD).
Abstract:
A conductive composition includes a mono-acid hybrid that includes an unprotected, single reactive group. The mono-acid hybrid may include substantially non-reactive groups elsewhere such that the mono-acid hybrid is functional as a chain terminator. Methods and devices using the compositions are also disclosed.
Abstract:
The invention relates to a method for producing a multi-layer assembly. The method according to the invention comprises at least the following steps: providing a donor substrate (2) for removing a solid layer (4), in particular a wafer; producing modifications (12), in particular by means of laser beams (10), in the donor substrate (2) in order to specify a crack course; providing a carrier substrate (6) for holding the solid layer (4); bonding the carrier substrate (6) to the donor substrate (2) by means of a bonding layer (8), wherein the carrier substrate (6) is provided for increasing the mechanical strength of the solid layer (4) for the further processing, which solid layer is to be removed; arranging or producing a stress-producing layer (16) on the carrier substrate (6); thermally loading the stress-producing layer (16) in order to produce stresses in the donor substrate (2), wherein a crack is triggered by the stress production, which crack propagates along the specified crack course in order to remove the solid layer (4) from the donor substrate (2) such that the solid layer (4) is removed together with the bonded carrier substrate (6).
Abstract:
A welded metal component includes: a first component (1); a second component (2) that is stacked on the first component (1) and that is made of a material different from the first component; and at least one welded part (3) that passes through the second component (2) so as to reach the first component (1), wherein a proportion of an intermetallic compound present in the at least one welded part is from 15% to 60%, and the intermetallic compound includes a metal element that constitutes the first component, and a metal element that constitutes the second component. Further disclosed is a battery (5) comprising the above welded metal component, wherein the second component serves as a bus bar (12), and the first component (1, 11A) serves as an electrode for the battery.