Abstract: Described are advanced communication computers that include a processor, at least one network adaptor connected to the processor, wherein the at least one network adaptor comprises a separate processor, at least one remote network connected to the at least one network adaptor, and at least one remote server connected to the at least one remote network. The processor is configured to identify an expected performance level of the at least one network adaptor, collect actual performance data from the at least one processor, and compare the actual performance data to the expected performance level to identify issues with signal condition, network traffic, interference, and other similar metrics.

Abstract: A connecting element with a screw-in element and a contact element. The screw-in element is pin-shaped and extends along a longitudinal axis, has a thread on its first free end, a drive profile and a reception on its second free end, wherein the contact element is arranged in the reception with its first free end and has a connecting pin on its second free end that extends beyond the screw-in element in the direction of the longitudinal axis, wherein the contact element has a spring that is arranged between the screw-in element and the connecting pin.

Abstract: A data storage device includes a case and a connector housed within the case. The connector includes a first connection interface having a plurality of connection fingers and a second connection interface having a plurality of springs. The case is positionable within a data storage device port such that the data storage device is completely disposed within the data storage device port when used.

Abstract: A housing of a centrifuge having an abutment for a ground on which the housing sits, as well as to a centrifuge. The housing is divided into two parts, i.e. a first housing and a second housing which is connected to the first housing via a pivot bearing, with at least one energy absorber being arranged between the first housing and the second housing, which energy absorber will counteract the forces, in particular the torques, generated in the event of a crash and will absorb the energy of the crash so as to prevent at least the part of the second housing which rests on the ground from moving relative to the ground, which pivot bearing allows the first housing to rotate relative to the second housing against the action of the one or plural energy absorber(s) which is/are separate from the pivot bearing.

Abstract: A worktable for a laboratory automation system can include a worktop with a level surface and a support profile for supporting the worktop, bent from a metal sheet The support profile can include a facing edge, and an underside of the worktop can lie directly on the facing edge. The support profile can include at least one reception lug. The worktable can include a bolt-shaped fastener for attaching the worktop on the support profile. The bolt-shaped fastener can project through the worktop and be received in the reception lug.

Abstract: A connecting element with a screw-in element and a contact element. The screw-in element is pin-shaped and extends along a longitudinal axis, has a thread on its first free end, a drive profile and a reception on its second free end, wherein the contact element is arranged in the reception with its first free end and has a connecting pin on its second free end that extends beyond the screw-in element in the direction of the longitudinal axis, wherein the contact element has a spring that is arranged between the screw-in element and the connecting pin.

Abstract: A data storage device includes a case and a connector housed within the case. The connector includes a first connection interface having a plurality of connection fingers and a second connection interface having a plurality of springs. The case is positionable within a data storage device port such that the data storage device is completely disposed within the data storage device port when used.

Abstract: The invention concerns pipette tips for connecting to a pipette tube of a pipetting device are used for taking up and discharging fluids. The pipette tip is in the shape of an elongated tube forming a pipette body that has an opening at one end and is designed for connecting to the pipette tube at the other end. The pipette tip has a first electrode as a volume measuring electrode of a measuring capacitor and a second electrode as an immersion detector electrode. The first electrode is located on an outer surface of the pipette body or is embedded in the pipette body, and the second electrode is located at least partially on an inner surface of the pipette body.

Abstract: A housing of a centrifuge having an abutment for a ground on which the housing sits, as well as to a centrifuge. The housing is divided into two parts, i.e. a first housing and a second housing which is connected to the first housing via a pivot bearing, with at least one energy absorber being arranged between the first housing and the second housing, which energy absorber will counteract the forces, in particular the torques, generated in the event of a crash and will absorb the energy of the crash so as to prevent at least the part of the second housing which rests on the ground from moving relative to the ground, which pivot bearing allows the first housing to rotate relative to the second housing against the action of the one or plural energy absorber(s) which is/are separate from the pivot bearing.

Abstract: A helicopter may include a hybrid engine system including an internal combustion engine (e.g., a turbine engine) and an electric engine. The internal combustion engine and the electric engine being coupled to the rotor system and configured to separately or collectively operate the rotor system in response to a triggering event. In one aspect, a method for operating a rotor system of a helicopter may include receiving an indicator of a triggering event and actuating a non-active engine, one of the internal combustion engine or the electric engine, in response to receiving the triggering event.

Abstract: Described are advanced communication computers that include a processor, at least one network adaptor connected to the processor, wherein the at least one network adaptor comprises a separate processor, at least one remote network connected to the at least one network adaptor, and at least one remote server connected to the at least one remote network. The processor is configured to identify an expected performance level of the at least one network adaptor, collect actual performance data from the at least one processor, and compare the actual performance data to the expected performance level to identify issues with signal condition, network traffic, interference, and other similar metrics.

Abstract: A data storage device includes a case and a connector housed within the case. The connector includes a first connection interface having a plurality of connection fingers and a second connection interface having a plurality of springs. The case is positionable within a data storage device port such that the data storage device is completely disposed within the data storage device port when used.

Abstract: The present disclosure relates to an enhanced intrauterine device. Some aspects may involve a body, at least one arm, at least one connector, a communication circuit, and a removal mechanism. The body may be inserted in a uterus. The at least one arm may in a first position extend radially from the body and in a second position be detached from the body. The at least one connector may link the at least one arm to the body such that the at least one arm remains linked to the body in both the first position and second position. The communication circuit may couple to at least one of the body and the at least one arm for responding to a first signal by transmitting a second signal. The removal mechanism may couple to body and may include a magnetic portion for removing the intrauterine device from the uterus.

Abstract: A device for measuring and recording body functions can include a first patch and a second patch. The first patch be applied to a user and include an electrocardiogram (“EKG”) sensor and a first communication circuit. The EKG sensor can be for recording electrical activity data of a heart of the user. The first communication circuit can be communicatively coupled to the EKG sensors for transmitting the electrical activity data. The second patch can be communicatively coupled to the first patch and include a processing device and a second communication circuit. The processing device can be for performing an analysis of the electrical activity data. The second communication circuit can be communicatively coupled to the first communication circuit for receiving the electrical activity data and communicatively coupled to the processing device for transmitting the analysis to a second device.

Abstract: A hearing instrument microphone device incudes at least two microphone sound ports (or sound inlets), a pressure difference microphone in communication with at least two of the sound ports and a pressure microphone in communication with at least one of the sound ports, wherein the acoustic centers of the pressure difference microphone and the pressure microphone essentially coincide.

Abstract: Described are submersible assemblies including a support structure comprising a pair of flotation devices and a cabin pivotally coupled to the support structure between the pair of flotation devices having an outer enclosure encapsulating an inner cabin, wherein the cabin is configured to rotate between a raised position above a surface of a body of water and a submerged position, wherein at least a portion of the cabin is below the surface of the body of water, and wherein the inner cabin is configured to maintain substantially the same attitude as the support structure when the cabin rotates between the raised position and the submerged position.

Abstract: A method of processing a signal in a hearing instrument includes calculating a coherence between two microphone signals or microphone combination signals having different directional characteristics, determining an attenuation from the coherence, and applying the attenuation to the signal.

Abstract: Method of controlling a hearing instrument comprising at least one hearing device, the method comprising determination of an acoustic environment at least partially by means of calculating the complex coherence of signals from either a pressure microphone and a particle velocity transducer; a pair of pressure microphones in a single hearing device; or a pair of pressure microphones, one situated in each of a pair of hearing devices. This enables finer determination of acoustic environments, thus improving the hearing experience for the wearer of the hearing instrument. The invention further relates to a corresponding hearing instrument.

Abstract: The apparatus (1) is used for forming a ball of yarn. It contains a container (2) having an internal volume (21) which is outwardly bounded in the vertical direction partially by an internal wall (31) and in the horizontal direction completely by the internal wall (31). The internal wall (31) has an inlet opening (41) through which the yarn is injectable into the internal volume (21) by means of an air flow. The internal wall (31) is rigid. The internal volume (21) has a downwardly open outlet opening (22) for a yarn ball formed in the internal volume (21). A lower part (33) of the internal wall (31) is inclined downwardly towards the outlet opening (22). By virtue of the rigid construction, the apparatus is simple and cost-effective. Possible problems with moving parts are avoided.

Abstract: Described are submersible assemblies including a support structure comprising a pair of flotation devices and a cabin pivotally coupled to the support structure between the pair of flotation devices having an outer enclosure encapsulating an inner cabin, wherein the cabin is configured to rotate between a raised position above a surface of a body of water and a submerged position, wherein at least a portion of the cabin is below the surface of the body of water, and wherein the inner cabin is configured to maintain substantially the same attitude as the support structure when the cabin rotates between the raised position and the submerged position.