Polyic Gmbh & Co Kg

Leonhard Kurz Stiftung & Co Kg

Siemens Aktiengesellschaft

Burg Design Gmbh

Andreas Ullmann

Walter Fix

Alexander Friedrich Knobloch

Manfred Walter

Merlin Welker

Wolfgang Clemens

Haymo Katschorek

Markus Bohm

Thomas Herbst

Jurgen Krumm

Mathias Maul

Ludwig Brehm

Henning Rost

Adolf Bernds

Markus Böhm

Norbert Laus

Markus Lorenz

Werner Reinhart

Matthias Heinrich

Jurgen Ficker

Dietmar Zipperer

Mathias Gruber

Andrey Alekseev

Toblias Menger

Jasmin Wörle

Beate Reinhart, Legal Representative

Jürgen Ficker

Ronan Martin

Erwann Guillet

Peter Bonzani

Christoph Fenzl

Stefanie Heidl

Karin Salzmann

A method for producing a multilayer body and a multilayer body, wherein the method includes: providing a single-layered or multi-layered substrate with a first surface and a second surface, providing one or more sensor films which each have at least one sensor area and have a first surface and a second surface facing away from the first surface, applying the one or more sensor films to the second surface of the substrate such that the first surface of the respective sensor film rests on the second surface of the substrate at least in areas, thermoforming a series of layers comprising the substrate and the one or more sensor films applied to the second surface of the substrate such that, during the thermoforming, on the first surface of the substrate a surface relief is formed which is determined by the shaping, of one or more of the one or more sensor films.

Method for producing a multilayer body and a multilayer body

A layer electrode for touchscreens, in particular one which is suitable for the construction of capacitive touchscreens, wherein the detection accuracy of the touchscreen is virtually independent of an increase in the number of electrode arrays in the touchscreen. This is achieved in that, within the transparent field of view of the touchscreen, conductivity centres are formed through first electrode arrays which are connected directly to supply lines into the edge region and to a controller.

Layer electrode for touch screen

The invention relates to a capacitive sensor element with a plurality of sensor fields, as they correspond for example to the arrangement on a touch screen. This capacitive sensor element comprises at least one multilayer body made up of two structured electrically conductive layers and an insulating layer in between. The invention provides a layout with redundant conductive strips for an arrangement of crossing conductive strips, through which the requirement for register accuracy in the two-layer lamination of layer electrodes is reduced, in particular with respect to connecting the connections to the plugs in the edge area of a module using a corresponding sensor element.

Capacitive sensor element and method for the production thereof

The invention relates to a film body, a method for the back-injection molding of a film body and a back-injection molding tool therefor. In particular, the invention relates to a method for the back-injection molding of layer electrodes () for producing touch-sensitive sensors for example for touch screens. Parts of the layer electrode (), which after the back-injection molding should still be able to move freely, are covered by a sacrificial film () before and during the back-injection molding.

Foil body, method for back-injection molding a foil body and back-injection molding tool

The invention relates to a layer electrode for touchscreens, in particular one which is suitable for the construction of capacitive touchscreens. In the case of a growing number of pixels within the layer electrode, various possibilities are proposed for reducing the loss of surface area within an outer electrode array due to the passage of supply lines to inner electrode arrays. For this it is proposed to change the shape of the electrode arrays, the shape of the galvanic isolations between the electrode arrays and finally the arrangement of the supply lines for the electrode arrays.

Layer electrode for touchscreens

A film () which has at least one electric or electronic functional layer (), wherein at least one electric and/or electronic component is provided in a functional area of the functional layer (), and wherein at least one electrical connection is provided in a contact area of the at least one functional layer (), which electrical contact is galvanically coupled to at least one component, wherein the film () has a contact flap which provides at least one part of the contact area ('), has a further layer (&#x2033;), in a thickness of at least 300 nm and preferably at least 1 &#x3bc;m, particularly preferably of at least 7 &#x3bc;m, on the functional layer () at least in a transition area () between the functional area () and the contact area (), which comprises at least a partial area of the contact flap. Alternatively, in a transition area the flap can taper away from the functional area.

Film and body with such a film

A plastic film for a multi-modal input device has conductors that link a touch module and an operating element. Such input devices, for example, are in consoles of motor vehicles, dishwashers, washing machines, telephones, or the like. Touch modules and operating element modules are interconnected by the layout of conductors in the form of a geometrically distorted electrical matrix on a single plastic film which forms a carrier for a combined input device. The conductors are electrically insulated from each other, but capacitively coupled to crossover points in the electrical matrix, the crossover points dividing the matrix into at least two areas. Strip conductors extend from the matrix at an edge area of the matrix of the touch module and connected to the operating elements forming a geometrically distorted matrix of conductors on the plastic film.

Plastic film having lines for a multi-modal input device and method for producing

Disclosed is a plastic film and to a touch module produced therefrom. The module is constructed from two conductive layers with an insulation layer in between, as are used in capacitive touch pads and/or touch screens, for example. The problem of connecting the respective x or y sensors across two planes in a cost-effective manner employs foldable sensor planes in the plastic film suitable for mass production. The connections and conductor tracks are concentrated on one plane on a sensor side wherein the sensor planes are arranged on flexible materials. The registering of the two planes relative to each other is simplified via a secure mechanical connection of the two planes via a fold in the film.

Plastic film and touch sensor

In a multi-layer body with a carrier and at least one conduction layer first areas and second areas are galvanically isolated from each other by third areas. In the third area sections are omitted from conductor traces and replaced by replacement pieces. The multi-layer body thereby has an optically homogeneous effect (e.g. is uniformly transparent or uniformly reflective).

Multi-layer body

Transparent electrically conductive functional layer, production process and use thereof. The invention concerns a transparent electrically conductive functional layer, in particular a laminate body. The invention makes it possible for the first time to produce thin conductive functional layers for use in resistive touch screens, for example in a printing process. By way of example with a coverage of 5% and adequate conductivity the functional layer still works at 95% transparent for the human eye.

Electrical functional layer construction, production method and use thereof

A touchpad apparatus extends, without having to be covered by a cover, up to an outer housing edge of an operating device. In two possible cases, not only touchpads and connections between the touchpads in the touchpad area are formed by patterns of conductive strips which cannot be resolved by the human eye, but also contact connection lines which connect contact elements to each other at two sides of the touchpad area.

Multilayer body forming display apparatus touchpad

A multi-layer body has a transparent first area which comprises a plurality of touch panels in the first area with a carrier substrate transparent in the first area, and a partially electrically conductive first layer transparent at least in the first area. The first layer has, in the first area, electrically conductive transmission areas, receiving areas and connection areas each formed by a pattern of electrically conductive, non-transparent tracks whose width in the first area is such that the electrically conductive transmission areas, receiving areas and connection areas are transparent. One of the electrically conductive transmission areas and one of the electrically conductive receiving areas are in each touch panel in the first layer and galvanically separated from each other on both sides of a gap separating them, wherein n transmission areas of different touch panels in the first layer are electrically connected to each other and to a contact area outside the first area in the first layer via one of the electrically conductive connection areas of the first layer, and m receiving areas of different touch panels in the first layer are electrically connected to each other and to a contact area formed outside the first area in the first layer via one of the electrically conductive connection areas formed in the first layer, wherein n&#x2267; and m&#x2267;2.

Capacitively operating touch panel device

There is described a structure () that is disposed on an electrically non-conductive, electrostatically chargeable strip-type carrier film () and that has electrically conductive and/or semiconducting structural elements, which structure has at least one structural region () protected against electrostatic voltage flashover. The at least one structural region () protected against electrostatic voltage flashover is connected to a protective conductor track () and/or surrounded by a protective conductor track ('), which is realized such that it discharges an electrostatic charge and/or shields the protected structural region ().

Overvoltage protection for electrically conductive structures

A multi-layer body for providing a touch panel functionality has a plurality of areas of surface which have a different size defined by corresponding electrically conductive elements; in particular, larger areas of surface are arranged more in a central area of the entirety of the area of surface and smaller areas of surface are arranged more further toward an edge of the body.

Capacitive touch panel device

The invention relates to a layered body, in particular one with two sheets of electric functional layers, as well as a use of this layered body for example in a touch screen with improved resolution. By changing the grid structure at the intersection areas a moir&#xe9; effect can be avoided by superimposition of the patterns.

Growing community of inventors

Zirndorf, Germany

Andreas Ullmann