Infineon Technologies Ag

Siemens Aktiengesellschaft

Qimonda Ag

Holger Woerner

Edward Fuergut

Michael Bauer

Jens G Pohl

Simon Jerebic

Robert-Christian Hagen

Bernd Goller

Peter Strobel

Rainer Steiner

Hermann Vilsmeier

Christian Stuempfl

Bernhard Zuhr

Ulrich Bachmaier

Carsten Von Koblinski

Gerald Ofner

Irmgard Escher-Poeppel

Stefan Wein

Robert Christian Hagen

Thomas Kalin

Harry Hedler

Georg Ernst

Bernd Rakow

Josef Thumbs

Bernd Roemer

Christian Birzer

Herman Vilsmeier

Bernhard Schaetzler

Hermann Vllsmeler

A semiconductor stack and a semiconductor base device with a wiring substrate and an intermediate wiring board for a semiconductor device stack is disclosed. In one embodiment, a semiconductor chip is arranged between the intermediate wiring board and the wiring substrate, which is electrically connected by way of the wiring substrate on the one hand to external contacts on the underside of the wiring substrate and on the other hand to contact terminal areas in the edge regions of the wiring substrate. The intermediate wiring board has angled-away external flat conductors, which are electrically connected in the contact terminal areas of the wiring board. Furthermore, on the upper side of the intermediate wiring board, arranged on the free ends of the internal flat conductors are external contact terminal areas, which correspond in size and arrangement to external contacts of a semiconductor device to be stacked.

Semiconductor device stack and method for its production

An external contact material for external contacts of a semiconductor device and a method for producing the same are described. The external contact material includes a lead-free solder material. Provided in the solder material is a filler which forms a plurality of gas pores and/or has plastic particles which are arranged in the volume of the solder material.

External contact material for external contacts of a semiconductor device and method of making the same

The invention relates to a semiconductor device with a semiconductor chip and a rewiring layer, the semiconductor chip being embedded in a housing plastics composition by its rear side contact. The active top side of the semiconductor chip forms a coplanar overall top side with the top side of the housing plastics composition. The rear side contact is led to the overall top side via a flat conductor sheet tape, so that the rear side contact of the semiconductor chip can be accessed from the overall top side.

Semiconductor device with semiconductor chip and rewiring layer and method for producing the same

A semiconductor component includes a plastic housing including: plastic outer surfaces; lower outer contact surfaces arranged on an underside of the housing; upper outer contact surfaces arranged on a top side of the housing that is opposite the underside; and outer interconnects electrically connecting the lower outer contact surfaces to the upper outer contact surfaces, the outer interconnects including a layer of solder arranged on conduction paths along an outer contour of the housing.

Semiconductor component with plastic housing, and process for producing the same

A sensor component and a panel used for the production thereof is disclosed. The sensor component has, in addition to a sensor chip with a sensor region, a rear side and passive components. These are embedded jointly in a plastics composition, in such a way that their respective electrodes can be wired from an overall top side of a plastic plate.

Sensor component and panel used for the production thereof

A device including a housing for a semiconductor chip is disclosed. One embodiment provides a plurality of leads. A first lead forms an external contact element at a first housing side and extends at the first housing side into the housing in the direction of an opposite second housing side. The length of the first lead within the housing is greater than half the distance between the first and the second housing side.

Device including a housing for a semiconductor chip including leads extending into the housing

A wiring substrate of a semiconductor component includes: an underside with a wiring structure; a top side with cutouts; a rubber-elastic material arranged in the cutouts; and external contact pads arranged on the rubber-elastic material and configured to be coupled to external contacts. A method for producing a wiring substrate of this type, involves pressing the rubber-elastic material pads into a precursor of a polymer plastic during the production process.

Wiring substrate of a semiconductor component comprising rubber-elastic pads embedded in said wiring substrate and method for producing the same

A semiconductor structure includes: a carrier plate; a thermosensitive adhesive coupled to a top surface of the carrier plate, which is removable from the carrier plate at a predetermined, defined temperature at which the thermosensitive adhesive loses its adhesive action; semiconductor chips having active top surfaces and back surfaces, where the active top surfaces include contact surfaces disposed on the thermosensitive adhesive; and a plastic embedding compound on the carrier plate, in which the semiconductor chips are embedded.

Semiconductor structure with a plastic housing and separable carrier plate

A smart card for contact data transmission includes a card body and a smart card module which is fitted in the card body. The smart card module includes a semiconductor chip with an active upper surface, a plastic housing compound that surrounds the semiconductor chip and includes at least one surface that is coplanar with the active upper surface of the semiconductor chip, a first dielectric layer that is arranged on the plastic housing compound surface and on the active upper surface of the semiconductor chip, one or more interposer metallization levels, which are isolated via further dielectric layers and are connected to the active upper surface of the semiconductor chip, and external contact surfaces. The external contact surfaces are formed on the outermost interposer level and facilitate contact data transmission. The smart card module uses no bonding wires and has a very small physical volume.

Smart card, smart card module, and a method for production of a smart card module

A biosensor that has a smart card configuration includes a semiconductor chip including a bioactive structure and contact areas disposed on a first side of the semiconductor chip, and a rewiring substrate including contact pads, external contact areas and rewiring lines that electrically connect the contact pads to the external contact areas. The rewiring substrate covers a portion of the first side of the semiconductor chip without covering the bioactive structure, such that the rewiring substrate overlaps the contact areas of the semiconductor chip and the contact pads and the contact areas are aligned with and electrically connect to each other. In addition, a measuring apparatus is configured to receive the biosensor and conduct measurements of a fluid medium that is delivered into the measuring apparatus.

Biosensor with smart card configuration

A semiconductor device with a wiring substrate as a stacking element for a semiconductor device stack is described herein. The wiring substrate includes a plastic frame of a first plastic compound and a central region of a second plastic compound. A semiconductor chip is embedded with its back side and its edge sides in the second plastic compound, the active upper side of the semiconductor device being in a coplanar area with the first and second plastic compounds.

Semiconductor device with a wiring substrate and method for producing the same

A semiconductor component includes a thin semiconductor chip and a wiring substrate that carries the semiconductor chip on its upper side and includes external contacts on its underside and/or its edge sides. The semiconductor chip is preferably produced from monocrystalline silicon having a thickness d&#x2266;25 &#x3bc;m.

Semiconductor component with a thin semiconductor chip and a stiff wiring substrate, and methods for producing and further processing of thin semiconductor chips

One embodiment of the invention relates to an electronic component having stacked semiconductor chips, and to a panel for production of the component. In one case, the stack has a flat conductor structure with a chip island on which a stacked semiconductor chip is arranged, while a first semiconductor chip is located underneath it. The chip island is surrounded by flat conductors which have contact pillars. These contact pillars have pillar contact pads which, together with the active upper face of the first semiconductor chip and the upper face areas of a plastic encapsulation compound form a coplanar overall upper face.

Electronic component and a panel

A semiconductor component includes a media channel and at least the following components: a semiconductor chip on a wiring substrate, electric connecting elements disposed between the semiconductor chip and the wiring substrate, and a plastic housing mass that embeds these components. The media channel is impressed into the plastic housing mass and extends along the interfaces between the plastic housing mass and the components. The media channel is produced by applying a sacrificial polymer including a media channel structure to the components before embedding the components in the plastic housing mass. The sacrificial polymer is then destroyed after the components are embedded, thereby forming the media channel.

Method for manufacturing semiconductor component with a media channel

The invention relates to a method for applying rewiring to a panel. For this purpose, a panel is provided which has a coplanar overall upper side of an upper side of a plastic compound and the upper sides of semiconductor chips. The method provides a rewiring layer with implementation of external contacts and rewiring lines which, by means of a two-stage exposure step, compensates for position errors of the semiconductor chips in the component positions of the panel.

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Wuppertal, Germany

Holger Woerner