Abstract: An ultrasonic welding device includes a sonotrode with a sonotrode surface, a lateral slide with a lateral slide surface, a touching element with a touching surface and an insertion chamber for inserting joining parts. The insertion chamber is defined in a first axial direction (y) on a first side by the sonotrode surface and in a second axial direction (x) on a second side by the lateral slide surface and on a third side opposing the second side by the touching surface. Furthermore, the ultrasonic welding device includes a first receiving element with a first stop edge and a second receiving element with a second stop edge. The first receiving element and the second receiving element are arranged to be movable in relation to each other between a starting position and an end position.

Abstract: An ultrasonic welding device includes a sonotrode, an anvil, a touching element, a lateral slide, a stop element and a receiving chamber in which joining partners are received and which is defined by bordering components of the ultrasonic welding device. The receiving chamber is defined on a first side by the sonotrode and on a second side by the anvil. The receiving chamber is further defined on a third side by the touching element and on a fourth side by the lateral slide. The receiving chamber is further defined on a fifth side, extending transverse to the first to fourth sides, by the stop element. The first stop element is electrically conductive on its surface directed toward the receiving chamber in order to form a first electrode.

Abstract: An ultrasonic welding device includes a sonotrode with a sonotrode surface, a lateral slide with a lateral slide surface, a touching element with a touching surface and an insertion chamber for inserting joining parts. The insertion chamber is defined in a first axial direction (y) on a first side by the sonotrode surface and in a second axial direction (x) on a second side by the lateral slide surface and on a third side opposing the second side by the touching surface. Furthermore, the ultrasonic welding device includes a first receiving element with a first stop edge and a second receiving element with a second stop edge. The first receiving element and the second receiving element are arranged to be movable in relation to each other between a starting position and an end position.

Abstract: An ultrasonic welding device includes a sonotrode, an anvil, a touching element, a lateral slide, a stop element and a receiving chamber in which joining partners are received and which is defined by bordering components of the ultrasonic welding device. The receiving chamber is defined on a first side by the sonotrode and on a second side by the anvil. The receiving chamber is further defined on a third side by the touching element and on a fourth side by the lateral slide. The receiving chamber is further defined on a fifth side, extending transverse to the first to fourth sides, by the stop element. The first stop element is electrically conductive on its surface directed toward the receiving chamber in order to form a first electrode.

Abstract: A system and a corresponding method for assisting selective hearing are provided. The system includes a detector for detecting an audio source signal portion of one or more audio sources by using at least two received microphone signals of a hearing environment. In addition, the system includes a position determiner for allocating position information to each of the one or more audio sources. In addition, the system includes an audio type classifier for assigning an audio source signal type to the audio source signal portion of each of the one or more audio sources. In addition, the system includes a signal portion modifier for varying the audio source signal portion of at least one audio source of the one or more audio sources depending on the audio signal type of the audio source signal portion of the at least one audio source so as to obtain a modified audio signal portion of the at least one audio source. In addition, the system includes a signal generator.

Abstract: The invention describes a locking device for a fuelling or charging recess, and a fuelling or charging recess, wherein the locking device has a locking pin (12) that has a locking section (14) on one end and can be translationally and rotationally moved for locking. The locking pin (12) has, on the locking section (14), a first holder (16) in which a pressure piece (20) is received that provides a tolerance compensation over the long term. A fuelling or charging recess having a locking device (10) of this kind further has a recess body, a lever arm and a tank filling pipe or charging module, wherein in an opening of the recess body, a tank filling pipe or charging module is inserted and the lever arm is pivotally mounted.

Abstract: The method comprises: the reverse transcription of the template RNA, the amplification and high-throughput sequencing of the cDNAs obtained in this way, the mapping of the sequenced cDNAs/reads to the reference genome using computerized alignment methods, a computerized evaluation of the mapping results with regard to the reverse transcription event pattern (the RT signature) at the nucleotide positions and feeding the digitalised data of the RT signatures into a computerized machine learning based classification system. Reverse transcription is carried out in parallel reaction batches with different reverse transcriptases and/or under different reaction conditions. The evaluation of the mapping results with regard to the RT signature is carried out using the events ‘arrest’ and/or ‘readthrough with mismatch’ and/or ‘readthrough with sequence gap(s)’. RT signature data obtained using the parallel reaction batches are fed into the classification system.

Abstract: A device for determining room-optimized transfer functions for a listening room serving for room-optimized post-processing of audio signals in spatial production, is configured to analyze room acoustics of the listening room and to determine, based on the analysis of the room acoustics, the room-optimized transfer functions for the listening room where the spatial reproduction by means of a binaural close-range sound transducer is to take place. The spatial reproduction of the audio signals by means of the binaural close-range sound transducer may then be emulated using known head-related transfer functions und using the room-optimized transfer functions, wherein a room to be synthesized may be emulated based on the head-related transfer functions, and wherein the listening room may be emulated based on the room-optimized transfer functions.

Abstract: Disclosed herein is a method and an arrangement for the control of measuring systems such as a mass spectrometer or nuclear magnetic resonance (NMR) instrument, the control being based on an online data analysis of the current measurements. Depending on the measurement experiment, the combined result of the data analysis can have either a direct influence on the next measurement or result in a dynamically organized sequence of measurements. The measuring systems may be controlled by establishing a database that comprises information on the objects to be measured, the measurement data which can be detected during the measurement experiments using the measuring systems, and information regarding the relationships between or among items of the measurement data.

Abstract: A device for determining room-optimized transfer functions for a listening room serving for room-optimized post-processing of audio signals in spatial production, is configured to analyze room acoustics of the listening room and to determine, based on the analysis of the room acoustics, the room-optimized transfer functions for the listening room where the spatial reproduction by means of a binaural close-range sound transducer is to take place. The spatial reproduction of the audio signals by means of the binaural close-range sound transducer may then be emulated using known head-related transfer functions und using the room-optimized transfer functions, wherein a room to be synthesized may be emulated based on the head-related transfer functions, and wherein the listening room may be emulated based on the room-optimized transfer functions.

Abstract: Disclosed herein is a method and an arrangement for the control of measuring systems such as a mass spectrometer or nuclear magnetic resonance (NMR) instrument, the control being based on an online data analysis of the current measurements. Depending on the measurement experiment, the combined result of the data analysis can have either a direct influence on the next measurement or result in a dynamically organized sequence of measurements. The measuring systems may be controlled by establishing a database that comprises information on the objects to be measured, the measurement data which can be detected during the measurement experiments using the measuring systems, and information regarding the relationships between or among items of the measurement data.

Abstract: Connected in a water circuit for cooling or heating gaseous fuel in a fuel system for a gas turbine plant is a gas/liquid separation apparatus which serves to separate gases contained in the water from the water, and to detect them. The container of the separation apparatus is split up by a partition into a water entry chamber and a water exit chamber. The incoming water flow is split up in the water entry chamber into an upward-flowing and a downward-flowing water flow. Located above the water is a gas-filled space into which gas bubbles disperse. The upward-flowing water flows over an overflow weir, and the downward-flowing water flows into the water exit chamber through openings in the lower region of the partition. The separation apparatus thus includes a calm, free water level in the water entry chamber, and an irrotational flow from the water exit chamber.