Infineon Technologies Ag

Alexander Von Glasow

Armin Fischer

Helmut Horst Tews

Hans-Joachim Barth

Erdem Kaltalioglu

Peter Baumgartner

Philipp Riess

Thomas Benetik

Erwin Ruderer

Jochen Von Hagen

Markus Schwerd

Johann Helneder

Wolfgang Walter

Heinrich Körner

Hans-Gerd Jetten

Semiconductor devices and methods of manufacture thereof are disclosed. In one embodiment, a capacitor plate includes a plurality of first parallel conductive members, and a plurality of second parallel conductive members disposed over the plurality of first parallel conductive members. A first base member is coupled to an end of the plurality of first parallel conductive members, and a second base member is coupled to an end of the plurality of second parallel conductive members. A connecting member is disposed between the plurality of first parallel conductive members and the plurality of second parallel conductive members, wherein the connecting member includes at least one elongated via.

Capacitor having a plurality of parallel conductive members

A semiconductor device includes a semiconductor chip. External connection pads and further pads are disposed over a surface of the semiconductor chip. Selected ones of the further pads are electrically connected to one another so as to activate selected functions within the semiconductor chip.

Integrated circuit with pads connected by an under-bump metallization and method for production thereof

A device and method are provided for detecting stress migration properties of a semiconductor module mounted in a housing. A stress migration test (SMT) structure is formed in the semiconductor module. An integrated heating (IH) device is formed within or in direct proximity to the SMT structure. The SMT structure includes a first interconnect region in a first interconnect layer, a second interconnect region in a second interconnect layer, and a connecting region electrically connecting the interconnect regions through a first insulating layer. The IH device includes a heating interconnect region through which a heating current flows. The heating interconnect region is within or outside the first or second interconnect region or connecting region. When the heating current is applied, a measurement voltage is applied to the SMT structure, and a current through the SMT structure is measured to detect stress migration properties of the semiconductor module.

Method for detecting stress migration properties

Semiconductor devices and methods of manufacture thereof

Integrated circuit with additional mini-pads connected by an under-bump metallization and method for production thereof

Device for detecting stress migration properties

One or more embodiments are related to a semiconductor structure, comprising: a semiconductor chip having a final metal layer; a dielectric layer disposed over the final metal layer; and a conductive layer deposed over the dielectric layer, the dielectric layer being between the final metal layer and the conductive layer.

Semiconductor device with capacitor

An integrated test circuit arrangement is provided that contains integrated test structures, at least one integrated heating element, an integrated detection unit, an integrated supply unit, and a control unit. The integrated detection unit detects at least one physical property for each of the test structures. The integrated supply unit supplies each of the test structures with a current or a voltage in switchable fashion independently of one another. The control unit is connected to outputs of the detection unit on an input side and controls the supply unit dependent on the detection results.

Integrated test circuit arrangement and test method

An integrated circuit arrangement having a metallization layer, an interconnect dielectric, electrically conductive interconnect intermediate material, electrically conductive connecting sections, connecting section dielectric between the connecting sections, and connecting section intermediate material. The metallization layer contains electrically conductive interconnects between which the interconnect dielectric is disposed. The electrically conductive interconnect intermediate material is arranged between a side area of an interconnect and the interconnect dielectric. The electrically conductive connecting sections in each case form a section of an electrically conductive connection to or from an interconnect and the connecting section dielectric is between the connecting sections. The connecting section intermediate material is arranged in each case between a connecting section and the connecting section dielectric and/or between a connecting section and an interconnect. The interconnect intermediate material and the connecting section intermediate material make contact with one another at at least one connection.

Integrated circuit arrangement with intermediate materials and associated components

An integrated circuit includes an electric resistor trace, a substrate and a thermally conductive structure arranged above or below the electric resistor trace for dissipating heat from the electric resistor trace to the substrate. The present invention is based on the finding that by introducing the additional thermally conductive structure, despite the introduction of this additional thermally conductive structure requiring space at first, due to the significantly increased heat conductivity to the substrate, a smaller overall chip area for implementing integrated resistors can be obtained.

Growing community of inventors

Deisenhofen, Germany

Alexander Von Glasow