Polyic Gmbh & Co Kg

Wincor Nixdorf International Gmbh

Alexander Friedrich Knobloch

Andreas Ullmann

Walter Fix

Merlin Welker

Wolfgang Clemens

Adolf Bernds

Henning Rost

Eduard Weis

Jurgen Krumm

Jürgen Ficker

Jasmin Wörle

In various embodiments, there is provided a method of using an automated teller machine, wherein the ATM is coupled to a mobile phone of a user of the ATM via a Bluetooth low energy connection; a first string representative of what operating capabilities the ATM currently provides to the user is sent from the ATM to the mobile phone of the user via the Bluetooth low energy connection; and from the mobile phone, the first string is read to the user using a text-to-speech function, wherein based on the reading of the first string, the user knows what operating options the user currently has to use the ATM and can then use the ATM.

Method of using an automated teller machine, method of operating an automated teller machine, automated teller machine, method of operating a mobile phone, and a mobile phone

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 multi-layer film body comprises a plastic substrate strip conveyed in a first direction in a roll-to-roll process for printing electronic organic components on the substrate. A first electrically conducting layer is on the substrate, a semiconductor layer is on the first layer, an insulator layer is on the semiconductor layer and a second electrically conducting layer is on the insulator layer, the layers comprising a first interconnection assembly portion and a second electronic assembly portion successively positioned in the first direction, each portion comprising a central zone and a respective conductor tract input zone and conductor tract output zone bordering the respective central zones, the input, central and output zones of each portion each comprising parallel conductor tracts in the first conducting layer. Electrical connectors in the second conducting layer interconnect selected ones of the conductor tracts in the two portions. Regions of the semiconductor and insulating layers in the second portion are juxtaposed with electrodes formed from the first and second conducting layers in the central zone, forming organic electronic components comprising one or more of transistors, diodes, resistors and capacitors. The conductive tracts of the input zone of the first portion and the conductive tracts of the output zone of the second portion form the component inputs and outputs.

Organic electronic circuit

An electronic circuit includes at least two organic components interconnected by conductor tracks and having a common carrier substrate. The components and the conductor tracks are formed from layer portions. An uppermost layer portion, remote from the carrier substrate, of the electronic circuit is of a patterned configuration comprising an electrically conducting material. The patterned uppermost layer portion on its side remote from the carrier substrate is provided with at least one protective layer arranged in congruent relationship with the uppermost layer portion. The at least two organic components include at least one first component of a first component type and at least one second component of a second component type different therefrom. Components of the same component type are respectively protected by a protective layer of the same composition and/or the same structure corresponding to that component type and differing from one another according to the corresponding component type.

Electronic circuit

The invention relates to an electronic circuit and to a method for the manufacture of an electronic circuit comprising at least two electronic components on a common flexible substrate, wherein the at least two electronic components in each case have at least one electrical functional layer composed of identical functional layer material. The electrical functional layers are formed from identical functional layer material and from layer regions of a layer formed in strip-type fashion on the substrate.

Electronic circuit with elongated strip layer and method for the manufacture of the same

An electronic component comprises a plurality of layers at least two of which comprise predominantly organic functional materials with improved through-plating through certain of the layers. The through-plating is formed in one embodiment by a disruption element on a first lower layer which results in a void in the subsequently applied layers, which void is filled with a material which may be conductive to form the through plating. In a second embodiment, the through plating is formed on the first lower layer prior to the subsequent application of the other layers, in the form of a free-standing truncated frusto-conical raised portion, and forms a disruption or non-welting element for the subsequently applied other layers, formed on the first lower layer and which are engaged with and surround the through plating after their application.

Electronic component comprising predominantly organic functional materials and a method for the production thereof

The invention relates to a method for producing an electronic component on a surface of a substrate with the electronic component having, seen at right angles to the surface of the substrate, at least two electrical functional layers which are arranged one above the other and such that they overlap at least in a surface area F, with the at least two electrical functional layers on the substrate being structured directly or indirectly using a continuous process, with a first electrical functional layer of the at least two electrical functional layers being structured such that a first length/width dimension of the first electrical functional layer parallel to the surface of the substrate and in a relative movement direction of the substrate is at least 5 &#x3bc;m longer/wider, preferably more than 1 mm longer/wider, than a length/width dimension of the surface area F in the relative movement direction and parallel to the surface of the substrate.

Method for producing an electronic component

An organic electronic module has a clock generator having n organic switching elements connected in series. The output of the nth organic switching element is connected to the input of the first organic switching element. The outputs of two or more organic switching elements are connected to respective inputs of a first electronic circuit of the electronic module tapping off two or more clock signals such that a first clock signal for a first electronic circuit is tapped from the output of a first one of the switching elements and a second clock signal, phase-shifted with respect to the first clock signal, for the first electronic circuit is tapped from the output of a second switching element different than the first switching element.

Organic clock generator

A multilayer composite body has an electronic function, in particular, an electronic subassembly comprising a plurality of organic electronic components, such as transistors, diodes, capacitors and so on, having at least one common layer, e.g., a semiconductor layer and/or insulation layer, wherein the common layer may be superfluous in one or more of the components. There thus is provided a structure of an entire subassembly such as an RFID tag, wherein the entire tag with all of its components is implemented in one production process.

Multilayer composite body having an electronic function

In order to increase the viscosity of semiconductive polymers in solution, they are mixed with non-semiconductive polymers.

Polymer mixtures for printed polymer electronic circuits

The invention relates to an electronic module having two or more organic circuit elements connected together to give a logic circuit, said organic circuit elements being made up of organic components, in particular organic field effect transistors. The logic circuit comprises at least one filter module (), which has an input () connected to one of the organic logic circuit elements, and an output (), and is designed to filter out from the signals present at the input () the spurious signals generated by different signal propagation times in the organic components of the logic circuit elements, and to provide a regenerated binary signal at the output ().

Electronic module with organic logic circuit elements

A switching element for polymer electronic devices is constructed from organic materials.

Mechanical control elements for organic polymer electronic devices

Disclosed are conductive polymer solutions employed for the production of organic electronic components, which solutions are particularly useful for printing an organic element of an electronic component. To this end, particles of carbon black and graphite are used in the form of microplatelets in the polymer solutions. The components may include organic transistors and circuits, organic diodes, organic-based capacitors, organic photovoltaic cells, organic sensors and actuators, and combinations thereof.

Growing community of inventors

Neunkirchen, Germany

Alexander Friedrich Knobloch