Westphal, Mussgnug & Partner Patentanwälte mbB

A wireless device sends, to an AMF, a registration request message comprising a capability of a UAS, an identity of the wireless device, and a CAA level UAV identifier. The wireless device receives, from the AMF, an accept message, for the registration request message, indicating that a UAS UAV authentication and/or authorization (UUAA) of the wireless device is pending. The wireless device sends, to the AMF, an uplink NAS transport message comprising a DNN associated with the UAS, and a first request for a first PDU session establishment associated with the DNN, receives a downlink NAS message, comprising a cause value indicating that the UAS is not allowed, and a payload container comprising the first request, and sends a second request for a second PDU session associated with the UAS, wherein the sending is based on the wireless device receiving a configuration update message indicating a successful UUAA result.

A method comprises receiving, by a wireless device, one or more configuration parameters indicating: one or more first quality of service (QoS) flows being enabled for a bit rate query, one or more first QoS flow identifiers (QFIs) indicating one or more identities of the one or more first QoS flows, and one or more first protocol data unit (PDU) session identifiers (IDs) associated with the one or more first QoS flows. The method further comprises, based on the one or more configuration parameters indicating the one or more first QoS flows being enabled for the bit rate query, triggering the bit rate query for the one or more first QoS flows, and based on the bit rate query being triggered for the one or more first QoS flows, transmitting a first rate control medium access control (MAC) control element (CE) for the one or more first QoS flows.

The present disclosure relates to an aerosol-generating apparatus, a control method, a control device and a readable storage medium. The aerosol-generating apparatus includes an atomization cavity configured to accommodate an aerosol-forming substrate, a microwave assembly configured to feed microwaves into the atomization cavity, and an isolating member. The isolating member is disposed in the atomization cavity, and divides the atomization cavity into an accommodating cavity and a resonant cavity, the accommodating cavity is configured to accommodate the aerosol-forming substrate. The control method includes: controlling the microwave assembly to sweep in a microwave frequency range and search for a target microwave frequency in the microwave frequency range; determining a presence state of the aerosol-forming substrate in the atomization cavity according to a numerical relationship between the target microwave frequency and a set frequency range; and controlling a running state of the microwave assembly according to the presence state of the aerosol-forming substrate.

Basisdose (10) für eine modulare Netzwerkvorrichtung (1), mit folgenden Merkmalen: - ein erstes Gehäuse (12), das eine Vorderseite (13) und eine Rückseite (14) aufweist, - ein zweites Gehäuse (25), wobei an oder in dem zweiten Gehäuse (25) eine Platine (35) zumindest teilweise angeordnet ist und die Platine (35) erste Kontaktelemente (36), - ein Ladestück (40), welches zum Aufnehmen von Enden von Leitungsadern eines Anschlusskabels (110) vorgesehen ist, - wobei die ersten Kontaktelemente (36) der Platine (35) zur Aufnahme des Ladestücks (40) eingerichtet und vorgesehen sind, - wobei das zweite Gehäuse (25) zumindest teilweise in dem ersten Gehäuse (12) angeordnet ist, - wobei das zweite Gehäuse (25) ein Steckgesicht (26) mit einer Steckrichtung (27) aufweist, in welches ein Gegenverbinder (105) einführbar ist, - wobei die Steckrichtung (27) des zweiten Gehäuses (25) mindestens annähernd orthogonal zur Vorderseite (13) des ersten Gehäuses (12) ist.

Systems and methods are herein provided for generation of video data based on previously recorded video data. In one example, a method for generating in-vehicle sensor data comprises obtaining recorded data from one or more in-vehicle sensors positioned in a first vehicle, wherein the recorded data is annotated to indicate one or more landmarks of a subject; determining a current sensor position of the one or more in-vehicle sensors when the recorded data was obtained; obtaining a three-dimensional (3D) model of a second vehicle; determining a target sensor position for newly generated sensor data; generating, based on the recorded data, the current sensor position, the 3D model, and the target sensor position, new sensor data; and outputting the new sensor data to a display device.

A shield assembly arranged around an acoustic sensor may include an outer shell extending from an outer apex to a base and forming a dome-shape, the outer shell defining at least one perforation to allow air to flow therethrough, and an inner shell extending from an inner apex to the base inside of the outer shell, the inner shell creating a channel between the outer shell, inner shell, and base to receive airflow at the at least one perforation, wherein the at least one perforation and channel redirect air to protect a microphone arranged within the inner shell from external airflow and preserving sound pressure measurement integrity.

A loudspeaker includes a speaker enclosure, first and second speaker drivers housed within the speaker enclosure, and first and second acoustic transmission lines housed within the speaker enclosure. The first and second acoustic transmission lines are respectively associated with the first and second speaker drivers and are a conjoined pair of acoustic transmission lines. The loudspeaker may be arranged within a structure of an assembly. The assembly may be a vehicle seat with the structure being a head rest or an upper portion of the vehicle seat.

A data processing method and a control device are provided. The method of the present disclosure is directed to a loudspeaker system including a plurality of loudspeakers. By collecting locally measured distance information from respective loudspeakers and determining a real-time spatial layout of the loudspeaker system based on the distance information, automatic layout calibration of the loudspeaker system is achieved. Subsequently, according to the layout of the loudspeaker system, and in combination with an actual orientation of a user and spatial position-related data indicative of a position of a sound source in audio content to be played, corresponding data in the audio content is assigned to corresponding loudspeakers, thereby utilizing playback by the respective loudspeakers to collectively achieve spatial audio rendering, providing an immersive sound experience for the user. The method of the present disclosure does not require additional layout calibration processing, and thus can achieve real-time layout determination without user awareness and can automatically adjust audio playback of the loudspeakers according to changes in the real-time orientation of the user, thereby achieving user orientation-adaptive spatial audio rendering.

The present invention provides a microphone module, comprising: a housing; a microphone unit disposed in the housing and located at the bottom of the housing; a top sound hole area located at the top of the housing; a first windproof net covering the top sound hole area; a windproof cotton unit disposed between the top sound hole area 5 and the microphone unit; and a second windproof net disposed between the windproof cotton unit and the microphone unit. The present invention also provides a wearable device, including the microphone module as described above. This invention provides a microphone module with excellent windproof and noise-reducing functions, which can ensure clear call quality in windy weather with wind speeds of up to 9 m/s or even 11 m/s. In addition, the microphone module is small and modular, and can be embedded in wearable devices of any shape.

A dual compression driver includes a first motor assembly at a first end including a first annular magnet and a first pole piece having a central conduit, a front phasing plug disposed coaxially below the first motor assembly and including a first plurality of apertures, a second motor assembly at a second end, and a rear phasing plug disposed coaxially above the second motor assembly and including a second plurality of apertures. A central insert is received in the central conduit and mounted to the rear phasing plug, an inner surface of the first pole piece and an outer surface of the central insert forming an annular pathway terminating at an annular exit inboard from the first annular magnet. Acoustical signals from the first and second plurality of apertures merge between the front and rear phasing plugs and radiate radially inward to the annular pathway and through the annular exit.