Abstract:
The invention relates to a device for applying an electronic component having terminal faces, to a substrate, also having terminal faces, wherein the component is removed from a feeding device by means of an application device. An application device subsequently positions the component on the substrate in such a manner that the component terminal faces which extend from a contact side of the component up to a component rear side and the substrate terminal faces are in an overlapping position. A direct application of laser energy subsequently contacts the terminal faces to the component terminal faces. The application device has a contact nozzle with a component accommodating area for accommodating the component. The contact nozzle has a vacuum opening coupled to a vacuum duct and an emission opening for applying laser radiation to the component. The emission opening includes two emission windows which are spaced apart from one another by a component contact surface and each of the two emission windows is assigned to one of the terminal faces of the component. The component contact surface is formed by two front surfaces of two support bars which are arranged so as to be located opposite one another and which are embodied in the vacuum duct.
Abstract:
A method and device for alternately contacting two wafer-like component composite arrangements, in which the two component composite arrangements, provided with contact metallizations on their opposing contact surfaces, are brought into a coverage position with their contact metallizations to form contact pairs, in which position the contact metallizations to be joined together are pressed against one another, the contact metallizations being contacted by exposing the rear of one of the component composite arrangements to laser radiation, the wavelength of the laser radiation being selected as a function of the degree of absorption of the component composite arrangement , so that a transmission of the laser radiation through the component composite arrangement exposed to the laser radiation at the rear is essentially suppressed or an absorption of the laser radiation takes place essentially in the contact metallizations of one or both component composite arrangements.
Abstract:
A method for the production of a soldered joint between at least two contact partners (22, 23) of a bonding arrangement (21), with a formed piece of solder material (27) being arranged at a distance to the bonding arrangement. The formed piece of solder material is at least partially melted off. The at least partially melted off formed piece of solder material being thrust against a bonding arrangement in such a way that both bonding partners are wetted in a bonding area to establish an electrically conductive bonding.
Abstract:
A method for the production of a soldered joint between at least two contact partners (22, 23) of a bonding arrangement (21), with a formed piece of solder material (27) being arranged at a distance to the bonding arrangement. The formed piece of solder material is at least partially melted off. The at least partially melted off formed piece of solder material being thrust against a bonding arrangement in such a way that both bonding partners are wetted in a bonding area to establish an electrically conductive bonding.
Abstract:
A method is provided for producing a substrate arrangement. The process includes the preparation of a substrate and bringing connecting surfaces of the substrate into contact with inner contacts of a wiring layer, the application of contact material to outer contacts of the wiring layer defining an outer connecting surface arrangement to form base contact bumps (31) and the application of joining material to the base contact bumps to form contact bump tops joined to the base contact bumps, wherein the joining material is applied as joining material moldings (35) and the contact bump tops are formed by at least partial melting of the joining material moldings by the action of laser energy.
Abstract:
An electronic contacting method for contacting a chip having a plurality of conductive contact areas, which are not provided with an additional metallization layer, a carrier substrate is provided, which has a first surface having arranged thereon a plurality of conductive connecting sections. A non-conductive adhesive layer is arranged on the first surface of the carrier substrate and subsequently, the carrier substrate is aligned with a chip to be contacted in such away that a plurality of conductive contact areas on said chip to be contacted is in alignment with the connecting sections on the first surface of said carrier substrate. Then the carrier substrate is connected to the chip to be contacted by means of the adhesive layer in such a way that the connecting sections of the carrier substrate and the contact areas of the chip abut on one another by means of pressure contact, without any intermetallic connection being established.
Abstract:
A method of attaching an electronic component to a surface of a plate-shaped support member has as a first step the step of applying the electronic component to the surface of the support member, a solder being arranged between the electronic component and the support member. Following this, a glass fiber or a glass fiber bundle is applied to the surface of the plate-shaped support member located opposite the electronic component. Finally, a laser pulse is conducted through the glass fiber or glass fiber bundle for melting the solder so as to establish a punctiform electrical and mechanical connection between the support member and the electronic component in this way.
Abstract:
Method and apparatus for bonding a contact element (17) on a substrate (20), in which the contact element is held by a connecting device designed, in particular, as a bonding head (11) and the contact element or the substrate or both are loaded with thermal energy, whereinthe contact element rests on the substrate when loaded with energy and a relative movement takes place between the contact element and the substrate,reference energy issuing from an emission surface (28) and transmitted to the contact element (17) is measured during the relative movement as a reference value for the quality of the relative position of the contact element (17), andthe relative movement and the energy loading are interrupted when an adequate reference value is measured.
Abstract:
A process and apparatus is available for producing a bonded metal coating.older material constructed so as to form a solder material shaped body (18) is transported by means of an energy transfer device (13), which is guided in a capillary tube (12) and which acts in the manner of a stamp, towards a bonding surface (24) of a substrate (25). The solder material then is acted upon by energy by means of the energy transfer device (13) for shaping and connection to the bonding surface (24).
Abstract:
The invention relates to a test contact arrangement (15) for testing semiconductor components, comprising at least one test contact (10) which is arranged in a test contact frame (13) and is designed in the type of a cantilever arm and which has a fastening base (12) and a contact arm (30) which is provided with a contact tip (11) and which is connected to the fastening base, wherein the fastening base is inserted with a fastening projection (16) thereof into a frame opening (14) of the test contact frame in such a manner that a lower edge (17) of the fastening projection is essentially aligned flush with a lower side (18) of the test contact frame.