Abstract: A high-pressure sensor device has a pressure sensor element and an electric circuit, in particular in the form of a semiconductor component, the pressure sensor element having a membrane deformable under the effect of pressure, and a functional layer, which experiences a change in its electrical properties when deformed, and which has at least one electric terminal area, and the design and the manufacturing process being simplified in particular by the fact that the semiconductor component is directly connected to the electric terminal area via a solder layer.

Abstract: A method for the production of a multi-layer identity card of plastic. The card to be produced comprises at least one card core layer printed on at least one side and on the printed side of the card core layer, a covering layer is applied.

Abstract: A sensor system includes a sensor element and a body. A number of electrical contact points with which contact may be created via electrical contact elements are provided on one side of the sensor element. Electrically conductive insertion parts are introduced into the body made of a non-conductive material and create a contact with the electrical contact points of the sensor element when the sensor element and the body are mechanically joined together.

Abstract: An improvement applicable to a method for the production of a multi-layer identity card of plastic wherein the card comprises one or more card core layers bonded under the action of pressure and heat and printed on either side or on opposite sides with a covering layer applied to the printed side or sides of the card core. In accordance with the improvement a thermoplastic polymer adhesive is applied between and in direct contact with each covering layer and the respective printed side of the card core, the thermoplastic adhesive coating possessing at least one additive that increases the friction between the covering layer and the printed card core during lamination so as to prevent displacement of the printed card core in relation to the covering layer or layers.

Abstract: A high-pressure sensor device has a pressure sensor element and an electric circuit, in particular in the form of a semiconductor component, the pressure sensor element having a membrane deformable under the effect of pressure, and a functional layer, which experiences a change in its electrical properties when deformed, and which has at least one electric terminal area, and the design and the manufacturing process being simplified in particular by the fact that the semiconductor component is directly connected to the electric terminal area via a solder layer.

Abstract: A carrier device for magnetizable substrates, such as stainless steel substrates, which is suitable for processing thin-film substrates in particular. The carrier device includes at least one magnetized base element having at least one receptacle for a substrate.

Abstract: A micromechanical pressure sensor and a method for producing a micromechanical pressure sensor. This pressure sensor has at least one membrane and a measuring element situated on the membrane. A pressure applied at the membrane or a pressure differential applied at the different sides of the membrane results in deformation of the membrane. Simultaneous with the deformation of the membrane, the measuring element is subjected to elastic elongation and/or compression. In a piezo-sensitive component, such elastic elongation and/or compression generates a measured variable in the measuring element, which represents the applied pressure or the applied pressure differential at the membrane. It is provided in this context that the measuring element have at least partially a NiCr(Si) layer. Due to an at least partial crystallization in the production of the micromechanical pressure sensor, this NiCr(Si) layer has more advantageous piezoelectrical characteristics than an amorphous NiCr(Si) layer.

Abstract: A sensor system includes a sensor element and a body. A number of electrical contact points with which contact may be created via electrical contact elements are provided on one side of the sensor element. Electrically conductive insertion parts are introduced into the body made of a non-conductive material and create a contact with the electrical contact points of the sensor element when the sensor element and the body are mechanically joined together.

Abstract: Proposed is a method for manufacturing a thin-layer component, in particular a thin-layer, high-pressure sensor, as well as a thin-layer component, where a resistive layer for forming measuring elements, in particular strain gauges, is deposited on an electrically non-conductive surface of a diaphragm layer, a contact-layer system for electrically contacting the measuring elements being deposited on the measuring elements in such a manner, that regions of the measuring elements are situated between each region of the contact-layer system and the diaphragm layer. This is used to provide, in particular, a high-pressure sensor, in which the capacitances of the contacts of the contact-layer system are designed to be symmetric.

Abstract: A micromechanical pressure sensor and a method for producing a micromechanical pressure sensor. This pressure sensor has at least one membrane and a measuring element situated on the membrane. A pressure applied at the membrane or a pressure differential applied at the different sides of the membrane results in deformation of the membrane. Simultaneous with the deformation of the membrane, the measuring element is subjected to elastic elongation and/or compression. In a piezo-sensitive component, such elastic elongation and/or compression generates a measured variable in the measuring element, which represents the applied pressure or the applied pressure differential at the membrane. It is provided in this context that the measuring element have at least partially a NiCr(Si) layer. Due to an at least partial crystallization in the production of the micromechanical pressure sensor, this NiCr(Si) layer has more advantageous piezoelectrical characteristics than an amorphous NiCr(Si) layer.

Abstract: A substrate having a collar, which features a marking. The substrate, in particular a thin-layer substrate, may be processed in a process having at least one micromechanical process step. In this context, given at least one micromechanical process step the successful performance of the process step is a function of the fixation of the substrate in a first position. This first position is understood as a relative position of the substrate in space. The marking on the collar advantageously allows the substrate to be aligned with regard to the first position.

Abstract: An improvement applicable to a method for the production of a multi-layer identity card of plastic wherein the card comprises one or more card core layers bonded under the action of pressure and heat and printed on either side or on opposite sides with a covering layer applied to the printed side or sides of the card core. In accordance with the improvement a thermoplastic polymer adhesive is applied between and in direct contact with each covering layer and the respective printed side of the card core, the thermoplastic adhesive coating possessing at least one additive that increases the friction between the covering layer and the printed card core during lamination so as to prevent displacement of the printed card core in relation to the covering layer or layers.

Abstract: A method for the production of a multi-layer identity card of plastic. The card to be produced comprises at least one card core layer printed on at least one side and on the printed side of the card core layer, a covering layer is applied.

Abstract: A method for the production of a multi-layer identity card of plastic. The card to be produced comprises at least one card core layer printed on at least one side and on the printed side of the card core layer, a covering layer is applied.

Abstract: Proposed is a method for manufacturing a thin-layer component, in particular a thin-layer, high-pressure sensor, as well as a thin-layer component, where a resistive layer for forming measuring elements, in particular strain gauges (30), is deposited on an electrically non-conductive surface of a diaphragm layer (10, 20), a contact-layer system (41) for electrically contacting the measuring elements being deposited on the measuring elements in such a manner, that regions of the measuring elements (30) are situated between each region of the contact-layer system and the diaphragm layer (10, 20). This is used to provide, in particular, a high-pressure sensor, in which the capacitances of the contacts of the contact-layer system are designed to be symmetric.

Abstract: The invention relates to a method for producing a multi-layer document card, especially an identity card made of plastic, comprising several layers. Said card comprises a card core with at least one card core layer, a protective layer on at least one side of said card core, and adhesive layers between the individual card layers. The card core is printed on either on one or two sides.

Abstract: A manufacturing method for a thin-layer component, in particular a thin-layer high-pressure sensor, having a substrate on which the at least one functional layer to be patterned is to be deposited in the steps, preparing the substrate; depositing the functional layer on the substrate; and patterning the functional layer via a laser processing step, the laser processing step being selective with respect to the substrate.

Abstract: The invention relates to an adhesive joint which connects a body made of a first material to a plastic body. The adhesive joint is formed by an adhesive laminate which includes a flexible core layer made of acrylate and outer layers made of hot-melt adhesive which respectively adjoin the first body and the plastic body, and a transition layer is respectively arranged between the outer layers and the core layer.

Abstract: A manufacturing method for a thin-layer component, in particular a thin-layer high-pressure sensor, having a substrate on which the at least one functional layer to be patterned is to be deposited in the steps, preparing the substrate; depositing the functional layer on the substrate; and patterning the functional layer via a laser processing step, the laser processing step being selective with respect to the substrate.