Abstract: The invention concerns a process and a connecting arrangement for producing a chip card, wherein a semiconductor chip on a module is fitted in an opening in a card carrier with the attainment of an electrical and mechanical connection. In accordance with the invention, in place of connections which were hitherto necessary involving a force-locking relationship and/or involving the materials being bonded together, recourse is made to inductive and/or capacitive coupling between the module and the IC-card. For that purpose the module and the card correspondingly have coils and/or capacitive coupling surfaces for signal transmission purposes.

Abstract: The smart card has a card body and a plurality of contact areas exposed on a flat surface of the card body. The contact areas are fabricated from electrically conductive material and are electrically connected to contact terminals, which are assigned to an electronic circuit formed on the semiconductor substrate of a semiconductor chip. The contact areas are fabricated as a structured coating on a main surface of the semiconductor chip. The semiconductor chip, after fabrication with the contact areas is inserted and fixed in a receptacle opening in the card body of the smart card in such a way that the contact areas extend essentially flush with the outer face of the card body. In order to ensure sufficiently high mechanical flexibility, the thickness of the silicon substrate of the chip is preferably less than about 100 &mgr;m.

Abstract: A housing for a semiconductor sensor configuration, in which a sensor and an evaluation logic are integrated in a semiconductor body is disclosed. The housing has a base body upon which the semiconductor body is applied and a cover that encloses the semiconductor body in the base body. The cover is directly set on the base body of the housing and contains a membrane and/or labyrinth.

Abstract: The smart card module has a supporting plate which has a first contact plane and a semiconductor chip and electrically conductive connections between the semiconductor chip and the first contact plane. Apart from the first contact plane, the smart card module has, on the reverse side of the supporting plate, another connection plane that is also electrically connected to the semiconductor chip. The other connection plane may be used, for example, for turning on a built-in induction coil inside the chip body for contactless data transfer. The invention relates also to a combined smart card for contacting and contactless data transfer, which contains the smart card module. A manufacturing process is specified with a given sequence of process steps leading to the production of the smart card module.

Abstract: A carrier element for a semiconductor chip, in particular to be built into smart cards. The carrier element has a substrate that carries the chip and a stiffening sheet which also carries the chip and has a recess for receiving the chip and its connection leads therein. An edge of the recess is provided with a frame formed integrally from the sheet.

Abstract: A circuit configuration includes a planar carrier which has at least two contact lugs. A semiconductor chip which is disposed on the carrier is electrically conductively connected to the insulated contact lugs of the carrier. At least two of the contact lugs are used to connect the semiconductor chip to two ends of a coil. The two contact lugs have different lengths, so that none of the coil ends has to cross the coil winding.

Abstract: An antenna coil, in particular for a contactless smart card, includes coil turns formed of thin conductor tracks having first and second ends. The first end of a respective one of the conductor tracks is electrically conductively connected to the second end of an adjacent one of the conductor tracks. The conductor tracks include first and last conductor tracks, and the first end of the first conductor track and the second end of the last conductor track form coil connections. The conductor tracks are disposed in parallel on a flexible, non-conductive carrier strip. The carrier strip has bends and forms a polygon containing the connected ends of the conductor tracks. The bends are guided through approximately 180.degree., and the coil turns lie approximately in the same plane.

Abstract: A chip cover for complete or partial covering of electrical, electronic, optoelectronic and/or electromechanical components includes an activator capable of fully or partially destroying the electrical, electronic, optoelectronic and/or electromechanical components of the chip when activated. The activator can be activated by an attempt to remove the chip cover from the chip. In this way it is possible to reliably prevent reverse engineering and/or manipulation of the chip.

Abstract: A method for producing a smart card module includes bonding one end of a thin wire onto a first contact zone of a semiconductor chip. The wire is guided in a plurality of turns forming an antenna coil. The wire is bonded onto a second contact area of the semiconductor chip. The wire turns of the antenna coil and the semiconductor chip are placed on a carrier body.

Abstract: A pressure difference sensor having a semiconductor measuring diaphragm clamped between two bearing parts of insulating material thereby forming two inner chambers is described. Each of the bearing parts holds a flat electrode on its inside. An internal, pressurized, equalization chamber is provided in the clamping region of the pressure difference sensor and extends into both bearing parts around the inner chambers. The equalization chamber compensates for static pressure influences on the accuracy of the measurement of the sensor. A method for producing the sensor is also described.