Other

Ident Technology Ag

Epic Semiconductors Inc

Microchip Technology Germany Gmbh

R2z Innovations Inc.

Microchip Technology Germany Gmbh II & Co. Kg

Wolfgang Richter

Faranak Zadeh

Stefan Donat

Peter Rosenbeck

Roland Aubauer

An ion-jet electron-entangled pathogens analyzer imprinted on a test strip resembles the functionality of a scanning tunneling microscope as a hand-held device, to quickly detect pathogens in water and food products on their bioelectrical signature. The use of such a device does not require special training or preparation. The test strip consists of an integrated circuit which gets energized and communicates over a weak alternating electric field provided by a matchbox-sized base station, which also contains a trained machine learning module of bioelectrical pathogen signatures. The base station connects wirelessly to smart devices or networks for further processing or recording the measurement results in a blockchain. The base station can be worn as a smartwatch or attached to processing machines, transportation vehicles, warehouses, shelves and grocery stores.

System for detecting pathogens in products

Disclosed is a system for interacting with polyisoprene based products to enhance sensing features. The system includes a hub unit and one or more electronic circuitries operably configured with the polyisoprene based product. The hub unit includes a controller for contactless powering and communicating data with the polyisoprene based product, a generator for generating a frequency, a resonator for increasing voltage level of the frequency, a first electrode for emitting the alternating electric field, a second electrode for receiving the alternating electric field from the polyisoprene based product, an analog digital converter connected to the second electrode to digitize information received from the polyisoprene based product under the influence of the alternating electric field. The one or more electronic circuitries senses the condition of the polyisoprene based product and communicates further to the hub unit for processing and communicating processed information over a communication network.

System for interacting with polyisoprene based products to enhance sensing features

Disclosed is a system for allowing a user to control electrical items. The system includes self-powered contactless one or more switches for controlling the electronic items, and a hub unit capacitively coupled to identify the user operating the one or more switches. The hub unit includes a frequency generator, a first impedance unit, a controller, a first electrode, a modulator, and an interface unit. The switch includes a second electrode, a rectifier, a buffer, a second impedance unit, a logic block, a shift register, and a second modulator. The user interacts with the second electrode to operate the connected electrical items. The interaction results in the change of a variable payload data. The controller identifies the interaction on decoding the change in the variable payload data and further the controller operates the connected electrical items.

Electronic smart switch

Disclosed is a system for allowing users to capacitively interact with objects using gestures in an environment. The system includes a smart sense unit for communicating gesture information and a smart sensing master unit is capacitively coupled to the smart sense unit for identifying the received gesture information and identification information from the smart sense unit to operate the object. The gestures may either be 2D, 3D, multiple 2D or 3D gestures from different users or different body parts. The smart sense unit identifies the change in a provided electric field caused by the user and the object and converts into a digital value. The smart sense unit further identifies the location of the object and the user and further communicates the information to the smart sensing master unit. The smart sensing master unit identifies the gesture and the identification information to interact with the object on receiving the impedance changes forked out from a resonator.

System for interacting with objects using gestures in an environment

Disclosed is a system which extends NFC near field communication over a user's skin by converting electromagnetic signals into modulated alternating electric fields and vice versa. A modified patch is attached to an NFC device, which gets energized from its electromagnetic resonance which may contain data. The patch uses the energy to create an alternating electric field which couples into and spreads over a user's skin. The user may approach or touch objects which then get energized by the alternating electric field. The objects have a tag which modulates the electric field with data back over the user's skin to the patch, which then demodulates the data to modulate the NFC communication of the NFC device for further processing.

System for extending the range of near field communication of an electronic device to communicate with an object over a user skin

Disclosed is a system operably connected to a packaging body for controlling a game device console. The system includes a hub unit coupled to the gaming device console and an electronic circuitry communicating with the hub unit. The hub unit includes generator, first convertor, a first electrode, a first switching unit, a first detection unit and a hub controller. The electronic circuitry includes a second electrode, a floating electrode, a second converter, a buffer and a second detection unit for detecting change in electric-field percentage value for playing a game on the gaming device console. The hub controller receives the unique command for a specified electric-field percentage value. Further, the hub controller facilitates in selecting the right game move for playing a game on the gaming device console.

System for controlling a gaming device console

Disclosed is a contactless powered and operated self-organizing sensing co-processor system for interacting with an object and one or more peripheral units. The system communicates with a communicating device over a communication network. It includes a hub for providing a modulated alternating electric field with variable frequency and releases routing instructions and further communicates data with the communicating device and one or more nanoCloud processors, wherein at least one of the one or more nanoCloud processors interact with the object and the hub. The nanoCloud processor includes a coupling electrode, an energy convertor, a bi-directional communication unit, a pulser, a counter, plurality of registers, a hardware interpreter, a sequencing circuit, an analog digital switch matrix, and a floating electrode; wherein the hardware interpreter creates an inherent artificial intelligence relation to determine the changes on the object by analyzing combinations of the routing instructions and the value stored in the register with the change in the electric field level. Then, the hardware interpreter uses successive approximation to command the sequencing circuit on detecting the level and timing of dynamic changes in the electric charges on the object. The hardware interpreter sends the processed digital result to the bi-directional communication unit.

Inherent artificial intelligence contactless and self-organizing sensing co-processor system interacting with objects and peripheral units

Disclosed is an electronic game board system communicating at least one game-play-data to an external device. The system includes a contactless communication unit (CCU), an electronic game board and one or more play items. The contactless communication unit communicates with the external device, and further provides alternating electric field. The electronic game board includes plurality of the play fields to receive the alternating electric field, wherein the playfields serially interconnected with each other. The play item capacitively transmits the game play data to the contactless communication unit. The contactless communication unit generates a processed-game-play-data defining a status of the play item placed on the play field, and the contactless communication unit further transmits the processed-game-play-data to the external device.

Electronic game board system communicating at least one game-play-data

Disclosed is a system for interacting with a cell and further communicating over a communication network is provided. The system includes a controller, a frequency generator, a first electrode, and a cell-chip circuitry. The frequency generator provides modulated alternating electric field with variable frequency. The controller releases routing instructions and further communicates through the communication network. The first electrode receives alternating electric field charges from the controller. The cell-chip circuitry is capacitively coupled to the first electrode. The cell-chip circuitry includes a second electrode, a harvester, a processor, a pulser, an analog switch matrix, a bi-directional communication unit, a pit, an inherent artificial intelligence interpreter, a analyzer, a nano needle, a third electrode. The cell-chip circuitry measures the field strength of the received charges from the harvester and generates pulsed intervals depending upon the field strength. The cell-chip circuitry further measures and communicates data with the controller through the e-field. The pit receives the cell. The cell reacts to the e-field. The inherent artificial intelligence interpreter performs successive approximation to monitor the reaction on the cell inside the pit on receiving instructions from the controller. The analyzer measures analog values of the e-field on the cell under the command of the inherent artificial intelligence interpreter; the analyzer communicates data to the bi-directional communication unit. The nano needle is inserted in the pit for bi-directionally communicating the e-field on the cell, and the third electrode is configured to provide space for the pit and floats against the ground.

System for interacting with a cell

Disclosed is a system and a method for charging and managing power of at least a rechargeable battery pack of an electronic equipment. The system includes a charging section, a battery section and a monitoring section. The charging section provides a capacitively coupled AC power. The battery section receives the capacitively coupled AC power, and further charges the rechargeable battery pack by converting the received AC power into DC power. The monitoring section that monitors the charge status of the battery section and releases command data to the charging section for charging the rechargeable battery pack. Further the charging section provides the AC power to start the charging operation of the rechargeable battery pack, on receiving command data from the monitoring section.

System for generating power and capacitively charging and monitoring a battery pack

Disclosed is a system for enhancing features of a living organism and further communicating the features with an external device. The system includes a flexible printed circuit implanted under the skin of a living organism and a host placed in proximity of the living organism for powering the flexible printed circuit implant wirelessly utilizing alternating charges. The living organism generates biological signals. The host further includes a memory unit connected to a controller for storing media data and operating instructions, a first electrode for emitting alternating charges with variable frequency, a second electrode floats against the ground; and an interface which wirelessly communicates with an external device. The flexible printed circuit includes a third electrode which mirrors said alternating charges received from the first electrode, and an energy convertor for changing the alternating charges to DC power. The flexible printed circuit includes a bi-directional communication unit to communicate signals with a modem for modulating and demodulating the generated modulated alternating frequency, and an analog I/O unit which processes biological signals received from the bi-directional communication unit. An electro-mechanic coupler enhances the biological signals, further the electro-mechanic coupler generates mechanical waves utilizing a fixed structure of said living organism. Further, the coupler converts mechanical waves into electrical signals and furthermore communicates the electrical signals containing processed biological signals with an analog I/O unit, and further the electro-mechanic coupler emits and receives alternating charges. Further, the analog I/O unit processes the electrical signals and communicates the information to the bi-directional communication unit.

System implantable under skin of a living organism

The invention refers to an input device for computer system. The invention is based on the task of creating solutions to make it possible to considerably simplify mouse-based input operations in the use of computers. This task is solved in accordance with the invention by a computer mouse with a housing and a movement detector to generate control data which as such correlate with the movement of the housing along the X or Y axis, and a hand detector to generate control data which as such correlate with the position and/or the finger gestures of a hand in relation to the housing before the computer mouse is touched. This makes it advantageously possible to carry out input operations to an even better degree with a computer mouse, in particular cursor controls, in a way that can be intuitively and easily mastered.

Input device, particularly computer mouse

Disclosed is a system for interacting with one or more containers placed near a conducting surface. The system sends the information of content inside the container in relation to an action caused by a user over the communication network. The system includes a controller; a frequency generator; a first electrode; an electronic circuitry including a convertor, an e-filed strength meter, an I/O interface and a bi-directional communication unit; a second electrode and a media unit. The controller generates a unique identification code for each container. The controller communicates through the communication network. The frequency generator provides a modulated alternating electric with variable frequency. The first electrode floats in the air inside the container and mirrors charges received from the frequency generator through the conducting surface and the content. The convertor converts alternating charges into DC energy received from the first electrode. The e-filed strength meter measures changes in the alternating charges on the container. The I/O interface generates input and output signals on receiving the change in the alternating charges from e-field strength meter and the bi-directional communication unit to communicate the changes in the electric field strength from the e-field strength meter to the controller. The second electrode is coupled to the converter and is attached to the cap of the container and further floats against the ground. The media unit stores and communicates media data related to the container over the communication network on receiving the field strength signal along with the unique ID number from the controller.

System for interacting with a container and the related content placed near a conducting surface

A system attached to an object for communicating the object information to communication devices. The system includes an electronic circuitry to communicate an identification-information, and a hub section coupled to the communication device to power the electronic circuitry and further receives the identification-information transmitted from the electronic circuitry. The electronic circuitry may be embedded in a single chip/printed decal/flexible polymer foil. The hub section includes a generator, a first converter, a first switching unit, a first electrode, a first detection unit, and a hub controller. The electronic circuitry includes a second electrode, a floating electrode, a second converter, a buffer, a second detection unit, a modulation unit, and an analog processing unit. The hub controller authenticates the electronic circuitry on receiving the modulated identification-information; further the hub controller communicates the object information to the electronic circuitry and the communication devices based on the modulated identification-information.

System and a method for communicating user interaction data to one or more communication devices

Disclosed is a system and a method for remotely interacting with an item in an electric field affected environment for communicating with a computing device. The system includes a host connected to an alternating current source of the environment, and one or more client units for interacting with each item of the environment. The host receives the command from the computing device, and further the host sends the command data via modulated electric field to the client unit. The client unit includes a sensing element to the sense the condition of the item, based on the command data received from the host, and the client unit further sends the feedback data to the computing device via the host controller. The client unit further includes acting elements for notifying the condition of the item.

Growing community of inventors

Starnberg, Germany

Wolfgang Richter