Gunzelmann, Rainer

The present disclosure relates to a method M, in an aircraft guidance and/or navigation system S, to guide an aircraft AC towards or from a landing site LS using measurements, onboard the aircraft, of one or more unique artificial magnetic fields MF1, MF2, MFN assigned to a vicinity V of the landing site. The present disclosure also relates to a magnetic ground infrastructure MGI in the aircraft guidance and/or navigation system S, to guide the aircraft AC towards or from the landing site LS, the magnetic ground infrastructure comprising one or more emitters E1, E2, EN assigned to the vicinity V of the landing site, each emitter being adapted to generate a respective unique artificial magnetic field MF1, MF2, MFN. The present disclosure also relates to the aircraft AC in the aircraft guidance and/or navigation system S, to guide the aircraft towards or from the landing site LS, the aircraft comprising one or more magnetometers MM1, MM2, MMN adapted to detect the one or more unique artificial magnetic fields MF1, MF2, MFN assigned to the vicinity V of the landing site; and a navigation system NS adapted to calculate a relative or an absolute position of the aircraft in relation to the landing site, based on detection result of the one or more magnetometers.

A utility model relates to a roller brush, a cleaning head and cleaning equipment. The roller brush includes a brush shaft and a cleaning cloth, the cleaning cloth is wound around the brush shaft, an outer wall of the cleaning cloth has a fluff layer, and a gram weight of the cleaning cloth is A, in which 700g/m²≤A≤800g/m². The roller brush of the utility model can reduce the water stains remained during a cleaning process, and has a good effect on dirt capture, which is beneficial for improving the cleaning effect.

Es wird ein Sonde (10) für ein zumindest teilweise in Öl befindliches elektrisches Betriebsmittel beschrieben, wobei die Sonde (10) eine Leiterplatte (11) mit einem oder mehreren Sensorelement(en) (A1 - A6), und einen auf der Leiterplatte integrierten Multiplexer und/oder Demultiplexer (15), der zur Steuerung eines Signalflusses von und zu den Sensorelementen (A1 - A6) konfiguriert ist, umfasst. Ferner wird ein Messsystem umfassend eine Sonde (10) und eine Signaleinheit (300), die dazu eingerichtet ist, ein elektrisches Signal an den Multiplexer und/oder Demultiplexer (15) zu senden und/oder ein elektrisches Signal von dem Multiplexer und/oder Demultiplexer (15) zu empfangen, beschrieben.

A two-dimensional image pickup device picks up an image of an image pickup target specimen on a stage. The focusing device changes a distance between the objective lens and the stage. A control unit acquires a specific parameter that is used for picking up an image of the image pickup target specimen and selected according to a type of the image pickup target specimen from among a plurality of parameters, each of which is used for picking up an image of each of a plurality of types of specimens. The control unit controls the stage, the two-dimensional image pickup device, and the focusing device on the basis of the specific parameter to acquire an image of the image pickup target specimen in each of a plurality of planes at different heights from the stage at each of a plurality of positions in a plane parallel to the stage.

The present disclosure provides a method and device for wireless communications, comprising receiving a first signaling and transmitting a first signal; herein, whether the first signaling is used for determining a first time window is used for determining whether the first signal is used for determining a second time window, a start time of the first time window in time domain is a first start time and an end time of the first time window in time domain is a first end time, a start time of a second time window in time domain is a second start time and an end time of the second time window in time domain is a second end time, and neither the first end time nor the second end time is equal to an infinity; a first data radio bearer group is associated with the first time window and the second time window; a first time window and a second time window are reasonably configured in the present disclosure and are associated with a Protocol Data Unit (PDU) session, increasing the flexibility of the system.

This disclosure relates to a train type recognition system and method, wherein the train type recognition system comprises a first imaging device, which is arranged at a first side of a traveling path of the train and is configured to capture an image toward the traveling path; a first detection device, which is in signal connection with the first imaging device and is configured to detect whether the image captured by the first imaging device contains at least part of an image of the train, and record arrival or departure time of the train when detecting that the image contains at least part of an image of the train; a train speed acquisition device, which acquires a train speed; an adjustment device, which is in signal connection with the train speed acquisition device and adjusts a line rate of the first imaging device according to the train speed; and a recognition device, which is in signal connection with the first imaging device and recognizes a train type according to the image captured by the first imaging device.

Es werden ein Verfahren (100) und eine Vorrichtung für Gasnetze beschrieben. Das Verfahren (100) umfasst die Verfahrensschritte Aufnehmen (110) von Daten betreffend die Gasnetze, Berechnen (120), basierend auf den Daten betreffend die Gasnetze, von technischen Verbrauchsfaktoren für jedes Gasnetz (40), Vergleichen (130) der technischen Verbrauchsfaktoren und Ausgeben (140) eines Vergleichsergebnisses der technischen Verbrauchsfaktoren.

Embodiments described herein provide systems and methods for secure and efficient user authentication across a variety of computing devices, such as desktops, laptops, smartphones, and tablets across operating systems such as Windows, MacOS, iOS, Android, and iPadOS. The system incorporates an authenticator application configured to communicate with internal or external user identifier scanners, such as RFID/NFC readers, fingerprint scanners, facial recognition cameras, and QR/Barcode scanners, using transport protocols like USB, BLE, or NFC. The authenticator application serves as a third-party passkey provider by interfacing with platform WebAuthn APIs, enabling WebAuthn-based authentication for native applications, browsers, and services, or alternatively as a browser extension, intercepting WebAuthn API calls directly within a browser environment. An authentication server, accessible over a network, verifies user identities by mapping unique identifiers to stored authenticators and requesting additional authentication factors as needed, such as a security PIN. Upon successful authentication, the server transmits passkeys and a session token to the authenticator application, enabling it to handle further authentication requests locally. The system supports advanced session management for shared device environments, allowing configurable passkey storage with options for one-time, time-based, or shift-based expiration, automatically clearing passkeys upon session completion. This design delivers a versatile, secure, and seamless authentication experience across diverse user environments.

A lifting-and-lowering assembly includes a mounting seat (135), a distance sensing module (12), and a drive control module (13), and the distance sensing module is liftably and lowerably arranged at the mounting base. The distance sensing module includes a sensing body (121) and a movable body (122) that is movably connected to the sensing body, and the movable body has a first triggering structure (1221), and the sensing body has a protective switch (1222) located in a movement path of the first triggering structure. The drive control module is assembled on the mounting seat and includes a control main board, a drive motor (131), and an adapting member (133) that is in transmission connection to the drive motor.

The disclosure provides a method and a device for wireless communication. A first signaling is received, the first signaling including a first identifier and a second identifier; and a first signal is transmitted; wherein the first signaling is used for determining a first time-frequency resource set and a second time-frequency resource set, the first time-frequency resource set and the second time-frequency resource set are associated to the first identifier and the second identifier respectively, the first time-frequency resource set and the second time-frequency resource set are both used for random access. Through reasonably associating the second identifier to the second time-frequency resources in K1 cells, with the first node transmitting K2 candidate cells to facilitate random access, the disclosure improves the rate of successful access.