mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for determining the presence of a microorganism in a sample, the apparatus comprising: a container lid having a plurality of sets of downward projecting walls; a container tray adapted to receive a sample and to be assembled with the container lid in a first position and a second position; and a plurality of rods projecting upwardly from the cartridge tray and a plurality of vent apertures formed in the container lid, wherein the vent apertures are adapted to receive the respective rods, and allow the rods to advance into the vent apertures, the rods being dimensioned to seal the respective vent apertures when fully advanced therein; wherein, when in the first position, compartments defined by the sets of downward projecting walls in the container lid are open to each other thereby permitting the sample to flow from compartment to compartment within the container tray; wherein, when in the second position, the compartments are sealed off from each other, each sample portion being confined to its respective compartment, each compartment being defined by one set of downward projecting walls, the container lid from which the downward projecting walls extend, and the cartridge tray. a container lid having a plurality of sets of downward projecting walls; a container tray adapted to receive a sample and to be assembled with the container lid in a first position and a second position; and a plurality of rods projecting upwardly from the cartridge tray and a plurality of vent apertures formed in the container lid, wherein the vent apertures are adapted to receive the respective rods, and allow the rods to advance into the vent apertures, the rods being dimensioned to seal the respective vent apertures when fully advanced therein; wherein, when in the first position, compartments defined by the sets of downward projecting walls in the container lid are open to each other thereby permitting the sample to flow from compartment to compartment within the container tray; wherein, when in the second position, the compartments are sealed off from each other, each sample portion being confined to its respective compartment, each compartment being defined by one set of downward projecting walls, the container lid from which the downward projecting walls extend, and the cartridge tray.
A displacement sensor system mounted to a door, door frame, window or window frame, comprising: an analyzing sensor for, in response to being activated, determining a range to a measuring point, wherein the analyzing sensor is a range measurement sensor configured to transmit infrared light to measure the range from the analyzing sensor to the measuring point, and the measuring point is a frame member adjacent to the door or the window when the system is mounted on a door or window respectively, or a part of a door or a window when the system is mounted on a door frame or window frame respectively; and a trigger sensor for determining a movement of the door relative to the door frame, or a movement of the window relative to the window frame, and activating the analyzing sensor in response to determining the movement. an analyzing sensor for, in response to being activated, determining a range to a measuring point, wherein the analyzing sensor is a range measurement sensor configured to transmit infrared light to measure the range from the analyzing sensor to the measuring point, and the measuring point is a frame member adjacent to the door or the window when the system is mounted on a door or window respectively, or a part of a door or a window when the system is mounted on a door frame or window frame respectively; and a trigger sensor for determining a movement of the door relative to the door frame, or a movement of the window relative to the window frame, and activating the analyzing sensor in response to determining the movement.
An audio signal processing method, comprising: receiving a plurality of downmix signals including a first downmix signal and a second downmix signal; receiving first metadata for a first object signal group corresponding to the first downmix signal; receiving second metadata for a second object signal group corresponding to the second downmix signal; generating object signals belonging to the first object signal group using the first downmix signal and the first metadata; and generating object signals belonging to the second object signal group using the second downmix signal and the second metadata, wherein each of the metadata comprises location information of an object corresponding to an object signal belonging to each of the corresponding object signal group, and; wherein when the object is a dynamic object the location of which is time-varying, the location information of the object represents a location value relative to a previous location value of the object. receiving a plurality of downmix signals including a first downmix signal and a second downmix signal; receiving first metadata for a first object signal group corresponding to the first downmix signal; receiving second metadata for a second object signal group corresponding to the second downmix signal; generating object signals belonging to the first object signal group using the first downmix signal and the first metadata; and generating object signals belonging to the second object signal group using the second downmix signal and the second metadata, wherein each of the metadata comprises location information of an object corresponding to an object signal belonging to each of the corresponding object signal group, and; wherein when the object is a dynamic object the location of which is time-varying, the location information of the object represents a location value relative to a previous location value of the object.
A use of a surface coated with at least one laser-induced graphene layer in an aqueous medium for combating or controlling biofouling or controlling microorganisms in said aqueous medium.
Method for non-invasively measuring the pulse wave velocity of a measurement person, i.e. the speed of propagation of pressure waves in the blood of the arterial system of the measurement person, with the steps: - Inserting and/or attaching a pressure measuring device in an ear or in or at another suitable location of the body of the measurement person, - generating a pulse wave by artificially stimulating the arterial system of the measurement person by actuating an actuator, - measuring a temporal pressure curve in the auditory canal or at the other suitable location of the body of the measuring person by the pressure measuring device, - determining, by means of a determining device, the start time of the generation of the pulse wave at a pulse wave generation location in or on the body of the measurement person, which is different from the location of the pressure measuring device of the measurement person and which is at a known distance, measured in the arterial vascular system of the measurement person, from the location of the pressure measuring device, from the temporal pressure curve, - determining, by means of a further determining device, the time of arrival at which the pulse wave reaches the pressure measuring device, from the temporal pressure curve, - determining, by means of a further determining device, the pulse wave speed, in particular from the difference between the time of arrival and the start time as well as from the distance between the location of the pressure measuring device and the pulse wave generation location. - Inserting and/or attaching a pressure measuring device in an ear or in or at another suitable location of the body of the measurement person, - generating a pulse wave by artificially stimulating the arterial system of the measurement person by actuating an actuator, - measuring a temporal pressure curve in the auditory canal or at the other suitable location of the body of the measuring person by the pressure measuring device, - determining, by means of a determining device, the start time of the generation of the pulse wave at a pulse wave generation location in or on the body of the measurement person, which is different from the location of the pressure measuring device of the measurement person and which is at a known distance, measured in the arterial vascular system of the measurement person, from the location of the pressure measuring device, from the temporal pressure curve, - determining, by means of a further determining device, the time of arrival at which the pulse wave reaches the pressure measuring device, from the temporal pressure curve, - determining, by means of a further determining device, the pulse wave speed, in particular from the difference between the time of arrival and the start time as well as from the distance between the location of the pressure measuring device and the pulse wave generation location.
A biological fiber composite dressing (1, 2), comprising: a cloth membrane (10, 20) having a first surface layer (10a, 20a) and an opposing second surface layer (10b, 20b), wherein the cloth membrane comprises cloth membrane fibers; and a biological fiber membrane (12, 22) formed by bacteria of the genus Gluconacetobacter, wherein the biological fiber membrane (12, 22) has a third surface layer and an opposing fourth surface layer, and wherein the fourth surface layer is combined with the first surface layer (10a, 20a), and the fourth surface layer comprises a plurality of biological fibers being wound and combined with the cloth membrane fibers extending therealong, wherein the biological fiber membrane (12, 22) further comprises a three-dimensional reticular structure bound between the third surface layer and the fourth surface layer, and wherein the density of the three-dimensional reticular structure is smaller than the density of the third surface layer and the fourth surface layer, and the three-dimensional reticular structure extends to the interior of the first surface layer (10a, 20a) of the cloth membrane (10, 20) from the fourth surface layer, and the three-dimensional reticular structure has a plurality of backbone fibers parallel to each other and a plurality of inter-layer fibers interwoven at any two of adjacent backbone fibers. a cloth membrane (10, 20) having a first surface layer (10a, 20a) and an opposing second surface layer (10b, 20b), wherein the cloth membrane comprises cloth membrane fibers; and a biological fiber membrane (12, 22) formed by bacteria of the genus Gluconacetobacter, wherein the biological fiber membrane (12, 22) has a third surface layer and an opposing fourth surface layer, and wherein the fourth surface layer is combined with the first surface layer (10a, 20a), and the fourth surface layer comprises a plurality of biological fibers being wound and combined with the cloth membrane fibers extending therealong, wherein the biological fiber membrane (12, 22) further comprises a three-dimensional reticular structure bound between the third surface layer and the fourth surface layer, and wherein the density of the three-dimensional reticular structure is smaller than the density of the third surface layer and the fourth surface layer, and the three-dimensional reticular structure extends to the interior of the first surface layer (10a, 20a) of the cloth membrane (10, 20) from the fourth surface layer, and the three-dimensional reticular structure has a plurality of backbone fibers parallel to each other and a plurality of inter-layer fibers interwoven at any two of adjacent backbone fibers.
A system for automated adjustment of a pressure set by a ventilation device, comprising a pressure detection arrangement for detecting a transpulmonary pressure at the end of an expiration phase (Ptp_ee) and/or a transpulmonary pres - sure at the end of an inspiration phase (Ptp ei), characterised by a means for automated adjustment of the pressure set by the ventilation de - vice on the basis of the transpulmonary pressure detected at the end of the expiration phase (Ptp_ee) and/or the transpulmonary pressure detected at the end of the inspiration phase (Ptp_ei), wherein the system is configured to automatically adjust a positive end-expi - ratory pressure (PEEP) set by the ventilation device on the basis of the transpulmonary pressure detected at the end of the expiration phase (PTP_ee); and/ or configured to automatically adjust a maximum airway pressure (Paw_max) set by the ventilation device on the basis of the transpulmonary pressure detected at the end of the inspiration phase (Ptp_ei), the transpulmonary pressure at the end of the expiration phase (Ptp_ee) and the positive end-expiratory pressure (PEEP); wherein the system is designed to determine the positive end-expiratory pressure in a subsequent breathing cycle (PEEP_n+1) in accordance with a deviation of the transpulmonary pressure at the end of an expiration phase (Ptp_ee_n) detected in m preceding breathing cycles from a normalized transpulmonary pressure at the end of an expiration phase (Ptp_ee_ideal), and/or to determine the maximum airway pressure in a subsequent breath - ing cycle (Paw_max_n+1) on the basis of a difference between an airway pressure at the end of an inspiration phase (Paw_ei_n) detected in m pre - ceding breathing cycles and a positive end-expiratory pressure (PEEP_n) applied in m preceding breathing cycles, with m ≥ 1.
A fuel cell module comprising a fuel cell stack formed by stacking electrolyte electrode assemblies and separators alternately in a stacking direction, the electrolyte electrode assemblies each including an anode, a cathode, and an electrolyte interposed between the anode and the cathode, a fuel gas channel for supplying a fuel gas along an electrode surface of the anode being formed on one surface of the separator and an oxygen-containing gas channel for supplying an oxygen-containing gas along an electrode surface of the cathode being formed on the other surface of the separator and a fuel gas inlet for supplying the fuel gas into the fuel gas channel being formed in the separator, wherein the fuel cell stack has the electrolyte electrode assembly at one end in the stacking direction, and has the separator at another end in the stacking direction; an end separator is provided at the one end in the stacking direction, adjacent to the electrolyte electrode assembly, wherein the end separator has a structure substantially similar to that of the separator to supply the oxygen-containing gas to the oxygen-containing gas channel but the fuel gas inlet is not formed in the end separator; and a load absorption member corresponding to the electrolyte electrode assembly in the stacking direction and having a shape similar to that of the electrolyte electrode assembly is provided at the other end in the stacking direction, adjacent to the separator.
Valve assembly having a plurality of valves for spraying devices for agricultural technology, wherein the valves each include a valve body, which is capable of assuming at least one enable position and one disable position relative to a valve seat, an electric motor for moving the valve seat and/or the valve body into the enable position and the disable position, and an electric energy storage device for providing electric energy for the electric motor, wherein a voltage converter is provided and configured, in a first operation mode, to convert a first voltage provided by the energy storage device into a second, higher voltage to be applied to the electric motor during moving the valve body and/or the valve seat and characterized in that the voltage converter is configured, in a second operation mode, to charge the energy storage device with low power input.
Device for the defined acceleration of a projectile, with at least one hollow body comprising an adjusting chamber and a projectile chamber behind one another in the direction of acceleration and a. the adjusting chamber comprises an adjusting cylinder with an end piece and an adjusting screw with a thread attached to the end piece, as well as an adjusting block arranged movably in the adjusting cylinder for tensing a spring inside the adjusting cylinder, b. the projectile chamber, arranged in front of the adjusting chamber in the direction of acceleration, for projecting a projectile, comprises a projectile holder with the projectile, a stopper with a cavity, as well as a movable release pin, and the projectile holder in the projectile chamber and the adjusting block in the adjusting chamber are connected to each other via the spring and the position of the adjusting cylinder in the adjusting chamber can be varied by means of the adjusting screw along the imagined central axis running inside the cavity. a. the adjusting chamber comprises an adjusting cylinder with an end piece and an adjusting screw with a thread attached to the end piece, as well as an adjusting block arranged movably in the adjusting cylinder for tensing a spring inside the adjusting cylinder, b. the projectile chamber, arranged in front of the adjusting chamber in the direction of acceleration, for projecting a projectile, comprises a projectile holder with the projectile, a stopper with a cavity, as well as a movable release pin, and
A user terminal that communicates using a plurality of CGs including a first cell group, CG, and a second CG, comprising: a PHY layer processing section configured to control transmission power of a PRACH, Physical Random Access Channel, in each CG; and a MAC layer processing section configured to control retransmission of the PRACH, wherein when total transmission power of PRACHs of the plurality of CGs that are transmitted in an overlapping manner exceeds allowable maximum transmission power, the PHY layer processing section is configured to control so as to preferentially allocate transmission power to the PRACH of the first CG, and characterized in that based on notification which is reported from the PHY layer processing section when total transmission power of PRACHs of the plurality of CGs that are transmitted in an overlapping manner exceeds allowable maximum transmission power, the MAC layer processing section is configured to control power-ramping in retransmission of the PRACH of the second CG. a PHY layer processing section configured to control transmission power of a PRACH, Physical Random Access Channel, in each CG; and a MAC layer processing section configured to control retransmission of the PRACH, wherein when total transmission power of PRACHs of the plurality of CGs that are transmitted in an overlapping manner exceeds allowable maximum transmission power, the PHY layer processing section is configured to control so as to preferentially allocate transmission power to the PRACH of the first CG, and characterized in that based on notification which is reported from the PHY layer processing section when total transmission power of PRACHs of the plurality of CGs that are transmitted in an overlapping manner exceeds allowable maximum transmission power, the MAC layer processing section is configured to control power-ramping in retransmission of the PRACH of the second CG.
Machining head for a processing device, in particular for processing workpieces, preferably panel-formed workpieces, the workpieces preferably consisting at least partially of wood, wood-based materials, wood substitute materials, plastic or a combination thereof, comprising: a base body, at least one processing unit for holding a tool, a bearing device by means of which the processing unit is attached moveably to the base body, and a clamping device by means of which the processing unit is fixable and supportable relative to the base body, wherein the clamping device has a first clamping element provided on the base body side and a second clamping element provided on the processing unit side, and the two clamping elements (21, 22) are configured in such a way that they can be brought into a clamping state, at least in one defined position of the processing unit, characterised in that the clamping device has a holder body in which the first clamping element is mounted so as to be moveable in a translational manner in a closing direction (X, Y) of the first clamping element, wherein the holder body is mounted in a floating manner in a direction perpendicular to the closing direction (X, Y) of the first clamping element. a base body, at least one processing unit for holding a tool, a bearing device by means of which the processing unit is attached moveably to the base body, and a clamping device by means of which the processing unit is fixable and supportable relative to the base body, wherein the clamping device has a first clamping element provided on the base body side and a second clamping element provided on the processing unit side, and the two clamping elements (21, 22) are configured in such a way that they can be brought into a clamping state, at least in one defined position of the processing unit, characterised in that the clamping device has a holder body in which the first clamping element is mounted so as to be moveable in a translational manner in a closing direction (X, Y) of the first clamping element, wherein the holder body is mounted in a floating manner in a direction perpendicular to the closing direction (X, Y) of the first clamping element.
Method of manufacturing a permanent magnet comprising at least one rare earth element, wherein - a conversion of the at least one rare earth element into an inerted compound is carried out in at least two steps, wherein - in at least a first conversion step, hydrogenation of the rare earth element is carried out, wherein - in at least one second conversion step, the hydrogenated rare earth element is partially dehydrogenated completely into a hydride which is more stable to carbon and oxygen, wherein - a raw material comprising the at least one rare earth element is provided, wherein - the raw material is mixed with a binder material, wherein a mixture is formed, wherein - the at least one first conversion step is performed before or after formation of the mixture, wherein - the mixture is processed in a metal powder injection moulding process, wherein a green body is obtained, wherein - the at least one second conversion step is carried out prior to thermal debinding of the green body, wherein - thermal debinding of the green body is performed, wherein - reconversion of the inerted compound to the rare earth element is carried out by complete dehydrogenation after thermal debinding, wherein - the debinded green body is sintered. - a conversion of the at least one rare earth element into an inerted compound is carried out in at least two steps, wherein - in at least a first conversion step, hydrogenation of the rare earth element is carried out, wherein - in at least one second conversion step, the hydrogenated rare earth element is partially dehydrogenated completely into a hydride which is more stable to carbon and oxygen, wherein - a raw material comprising the at least one rare earth element is provided, wherein - the raw material is mixed with a binder material, wherein a mixture is formed, wherein - the at least one first conversion step is performed before or after formation of the mixture, wherein - the mixture is processed in a metal powder injection moulding process, wherein a green body is obtained, wherein - the at least one second conversion step is carried out prior to thermal debinding of the green body, wherein - thermal debinding of the green body is performed, wherein - reconversion of the inerted compound to the rare earth element is carried out by complete dehydrogenation after thermal debinding, wherein - the debinded green body is sintered.