Maucher Jenkins

A computer-implemented method of determining a position, in particular a pose, of a platform, preferably an aircraft, the method comprising: receiving an input image of a portion of a surface, preferably the surface of the earth, the input image captured from a position of the platform; receiving a georeferenced reference representation of the portion; based on the reference representation, generating a synthetic image of the portion; determining a homography matrix between the synthetic image and the input image; and determining the position, in particular the pose of the platform based on the homography matrix.

Es wird eine autonom fahrende Flugzeugbrücke (4) vorgeschlagen, die in der Lage ist, auf Basis einer komplexen Sensorik (9, 11) eine Flugzeugtür (2) eines in einer Parkposition (16) abgestellten Flugzeugs (1) selbsttätig anzufahren und dabei die Umgebung mittels eines LIDAR-Sensorsystems (9) und mit Hilfe eines Kamerasystems (11) wahrzunehmen .

An apparatus and a method for audio applications. The apparatus comprising a memory and a processor, the processor is configured to receive a first audio signal, receive metadata associated with the first audio signal, create a first profile associated with the first audio signal, the first profile comprising a plurality of adjustable audio parameters, and process the first audio signal with the plurality of adjustable audio parameters of the first profile. The processor is further configured to send the processed first audio signal with the first profile to one or more playback devices. The processor is further configured to receive, from one or more sensors, one or more first user inputs, analyse the one or more first user inputs, and adjust one or more of the plurality of audio parameters of the first profile based on the analysis, the metadata, or a combination of the analysis and the metadata. The processor is further configured to process the first audio signal with the adjusted first profile, and send the processed first audio signal with the adjusted first profile to the one or more channels.

The present disclosure relates to methods for training and using a neural network for calculating a 3D dose distribution in water from measured beam profiles for use in radiotherapy. The present disclosure also relates to a detector system (300) comprising a profile detector (302) and a computing system (304) configured to perform the methods.

In at least one embodiment, an audio system (100) including an audio arrangement (110), a power management circuit (106), and at least one controller (104) is provided. The audio arrangement (110) is programmed to transmit an audio output signal via at least one loudspeaker (130) in response to an audio input signal. The power management circuit (106) includes at least one first switch (107) being operably coupled to at least one battery (112). The power management circuit (106) is configured to transmit a voltage from the at least one battery (112) to the audio arrangement (110) to power the audio arrangement (110) to transmit the audio output signal. The at least one controller (104) is programmed to selectively activate the at least one first switch (107) to charge a capacitor (108) to a predetermined charge level to prevent an in-rush of current from being delivered to the electronics of the audio arrangement (110) while the at least one battery (112) experiences a fault condition.

A plasma energization equipment is adapted for solving the problem of exhaust gas emissions within the conventional processing equipment. The equipment includes a furnace body, a heating module and a gas flow guiding device. The furnace body has an internal processing space and a gas collection channel. The heating module is arranged on the furnace body. The gas flow guiding device is arranged in the internal processing space. The gas flow guiding device has a first tube and a second tube. The first and second tubes each have a hollow internal space and are respectively provided with multiple first through holes and multiple second through holes. The first tube is sleeved over the second tube, allowing gas to flow from the internal processing space through the multiple first through-holes, the multiple second through-holes, the hollow space inside the first tube and the hollow space inside the second tube, and subsequently into the gas collection channel. Through said configuration of this invention, the equipment effectively facilitates the discharge of exhaust gas from the furnace body.

Es wird ein sanitäres Einsetzelement (1) vorgeschlagen, mit einem oder aus einem in einem Betrieb trinkwasserführendem Bestandteil (2), wobei der Bestandteil (2) aus Polyketon (3) ist

Zur Verbesserung der Möglichkeiten für realistische Brandschutzübungen wird eine neuartige Vorrichtung vorgeschlagen, die in Form einer Attrappe (4) eines mobilen elektronischen Geräts ausgestaltet ist und dabei in der Lage ist, eine autonom brennende Übungsflamme (2) über einen Übungszeitraum zu unterhalten, während ein Übender die Attrappe (4) im Raum umher trägt, um das Löschen eines Brands zu üben, so als sei das simulierte elektronische Gerät aufgrund eines Akkumulator-Brands im Innern in Brand geraten (Figur 1).

A damper (10) with a damper housing, said damper housing comprising a piston (12) operable to move within the damper housing, and a piston rod (14) operable to engage with said piston (12). The damper housing further including damping fluid operable to be urged from a first side of the piston (12) to a second side of the piston (12) via a bore (18). A closure element (28) located in said bore (18) and movable from a first limit to a second limit with respect to the piston (12), wherein resistance to movement of the damping fluid is reduced as the closure element (28) moves from the first limit to the second limit.

A chip module includes a packaging substrate, a system-on-chip disposed on a surface of the packaging substrate, a laser emission chip disposed on the system-on-chip and configured to emit laser signals, and at least two receiving chips disposed on the system-on-chip. The receiving chips include a first receiving chip configured to receive echo laser signals and a second receiving chip configured to receive visible light signals. A cover is disposed on the packaging substrate, wherein the cover and the packaging substrate jointly enclose to form an installation cavity, the system-on-chip, the laser emission chip, the first receiving chip, and the second receiving chip are all located within the installation cavity. The cover is provided with a first region for laser signals to pass through, a second region for echo laser signals to pass through, and a third region for visible light signals to pass through.