mhurhangee/patent-ind-claim-en huggingface dataset:
An internal recycle reactor for catalytic inerting that is a monolithic body comprising: a motive fluid duct having an outlet orifice ; a suction chamber comprising a suction chamber inlet ; and a fuel inlet ; a mixing region configured to receive separate gaseous fluids from the motive fluid outlet orifice , the suction chamber inlet and the fuel inlet to produce a gaseous mixture ; a reactor section comprising a catalyst , wherein the reactor section is configured to receive the gaseous mixture from the mixing region ; an outlet configured to deliver an exhaust gas from the reactor section; and a recycle passage fluidly connecting the outlet to the suction chamber inlet and configured to deliver a portion of the exhaust gas to the suction chamber through the suction chamber inlet . a motive fluid duct having an outlet orifice ; a suction chamber comprising a suction chamber inlet ; and a fuel inlet ; a mixing region configured to receive separate gaseous fluids from the motive fluid outlet orifice , the suction chamber inlet and the fuel inlet to produce a gaseous mixture ; a reactor section comprising a catalyst , wherein the reactor section is configured to receive the gaseous mixture from the mixing region ; an outlet configured to deliver an exhaust gas from the reactor section; and a recycle passage fluidly connecting the outlet to the suction chamber inlet and configured to deliver a portion of the exhaust gas to the suction chamber through the suction chamber inlet .
Measuring probe for the measurement of the thickness of thin layers, having a housing and having at least one sensor element which is mounted with at least one spring element to be flexible with respect to the housing and has a spherical positioning cap pointing towards the measuring surface of an object of measurement against the touchdown direction and in the longitudinal axis thereof, wherein an attenuating device is provided on the housing which acts in the touchdown direction of the at least one sensor element before the sensor element is fitted onto the measuring surface of the object of measurement and attenuates the touchdown movement of the at least one sensor element in the direction of the measuring surface of the object of measurement , characterised in that the attenuating device has a touchdown foot which protrudes in the touchdown direction compared to the spherical positioning cap of the at least one sensor element , so during approaching of the measuring probe at least the touchdown foot touches onto the measuring surface .
A flexible sensor , comprising: a first conductive layer ; and a second conductive layer ; said first conductive layer and said second conductive layer define a sensing region for determining a mechanical interaction; wherein said first conductive layer comprises a first substrate having a plurality of conductive rows printed thereon; said second conductive layer comprises a second substrate having a plurality of conductive columns printed thereon; said first conductive layer and said second conductive layer are constrained by a constraining means along a first edge and a second edge of said sensor, said constraining means maintaining said first conductive layer and said second conductive layer together; and characterised in that : movement of said first conductive layer and said second conductive layer perpendicular to each other is permitted in said sensing region such that said first conductive layer and said second conductive layer are configured to slide over each other in said sensing region when said sensor is flexed or bent. a first conductive layer ; and a second conductive layer ; said first conductive layer and said second conductive layer define a sensing region for determining a mechanical interaction; wherein said first conductive layer comprises a first substrate having a plurality of conductive rows printed thereon; said second conductive layer comprises a second substrate having a plurality of conductive columns printed thereon; said first conductive layer and said second conductive layer are constrained by a constraining means along a first edge and a second edge of said sensor, said constraining means maintaining said first conductive layer and said second conductive layer together; and characterised in that : movement of said first conductive layer and said second conductive layer perpendicular to each other is permitted in said sensing region such that said first conductive layer and said second conductive layer are configured to slide over each other in said sensing region when said sensor is flexed or bent.
A treatment machine comprising: a casing ; a tub moveably mounted within the casing; a drum rotatably mounted within the tub; a door for loading a substrate into the drum , wherein the door is mounted to the casing and operable between open and closed configurations: wherein the treatment machine is configured to dispense solid particles into the drum and to extract solid particles from the drum ; and wherein the treatment machine further comprises a baffle ; the baffle comprising: a tub connector portion connecting the baffle to the tub of the treatment machine; a door contacting portion that contacts the door of the treatment machine when the door is in a closed configuration; a barrier extending between the tub connector portion and the door contacting portion ; and wherein the barrier is inclined so solid particles are diverted by the barrier into the drum of the treatment machine a casing ; a tub moveably mounted within the casing; a drum rotatably mounted within the tub; a door for loading a substrate into the drum , wherein the door is mounted to the casing and operable between open and closed configurations: wherein the treatment machine is configured to dispense solid particles into the drum and to extract solid particles from the drum ; and wherein the treatment machine further comprises a baffle ; the baffle comprising: a tub connector portion connecting the baffle to the tub of the treatment machine; a door contacting portion that contacts the door of the treatment machine when the door is in a closed configuration; a barrier extending between the tub connector portion and the door contacting portion ; and wherein the barrier is inclined so solid particles are diverted by the barrier into the drum of the treatment machine
A method performed by a terminal in a wireless communication system, the me thod comprising: identifying a portion of a second part of channel state information, CSI part 2, to be transmitted based on a priority of each of a plurality of CSIs in the CSI part 2; mapping a first part of the CSI, CSI part 1, and the identified portion of the CSI part 2 to bits of uplink control information, UCI; and transmitting, to a base station (101-103), the mapped UCI on a physical uplink shared channel, PUSCH, wherein the CSI part 1 includes a rank indicator, RI, and a channel quality indicator, CQI, and wherein the CSI part 2 includes a precoding matrix index, PMI, wherein a priority of a CSI report corresponding to one or more subband CSI in the CSI part 2 is determined based on a serving cell index, and wherein a priority of a CSI report corresponding to one or more subband CSI with a larger serving cell index is lower than a priority of CSI report corresponding to one or more subband CSI with a lower serving cell index. identifying a portion of a second part of channel state information, CSI part 2, to be transmitted based on a priority of each of a plurality of CSIs in the CSI part 2; mapping a first part of the CSI, CSI part 1, and the identified portion of the CSI part 2 to bits of uplink control information, UCI; and transmitting, to a base station (101-103), the mapped UCI on a physical uplink shared channel, PUSCH, wherein the CSI part 1 includes a rank indicator, RI, and a channel quality indicator, CQI, and wherein the CSI part 2 includes a precoding matrix index, PMI, wherein a priority of a CSI report corresponding to one or more subband CSI in the CSI part 2 is determined based on a serving cell index, and wherein a priority of a CSI report corresponding to one or more subband CSI with a larger serving cell index is lower than a priority of CSI report corresponding to one or more subband CSI with a lower serving cell index.
Method of operating at least one adaptable airflow regulating system of at least one rotor blade of a wind turbine connected to a utility grid , the method comprising: receiving information regarding a grid disturbance; adapting, in particular during a disturbance duration, the airflow regulating system based on the information , while the wind turbine stays connected to the utility grid , wherein controlling the airflow regulating system comprises: moving position and/or orientation of at least one aerodynamically active surface of the airflow regulating system relative to an airfoil portion of the rotor blade, wherein adapting the airflow regulating system is further based on an operating point of the wind turbine, characterized in that at a first operating point where a setting change of the airflow regulating system has more impact on the lift of the rotor blade , a setting of the airflow regulating system is changed to a smaller degree than at a second operating point where a setting change has less impact on the lift of the rotor blade . receiving information regarding a grid disturbance; adapting, in particular during a disturbance duration, the airflow regulating system based on the information , while the wind turbine stays connected to the utility grid , moving position and/or orientation of at least one aerodynamically active surface of the airflow regulating system relative to an airfoil portion of the rotor blade, wherein adapting the airflow regulating system is further based on an operating point of the wind turbine, characterized in that at a first operating point where a setting change of the airflow regulating system has more impact on the lift of the rotor blade , a setting of the airflow regulating system is changed to a smaller degree than at a second operating point where a setting change has less impact on the lift of the rotor blade .
A computer-implemented method for training an artificial intelligence module for an advanced driver assistance system for obtaining a depth model of a scene, the method comprising the steps of: acquiring multiple sets of training data, each set of training data comprising a camera image of the scene taken by a camera of a vehicle in the visible optical range, a depth image of the scene taken by a flash LIDAR sensor of the vehicle , and depth measurement data of the scene, wherein the depth measurement data are obtained by combining images of a plurality of flash LIDAR sensors ; and training the artificial intelligence module for the advanced driver assistance system with the multiple sets of training data, wherein the camera image and the depth image are used as input for the artificial intelligence module , wherein the artificial intelligence module is trained for outputting the depth model of the scene, wherein the depth measurement data are used as ground truth for the depth model, wherein the images of the plurality of flash LIDAR sensors are combined in order to obtain the depth measurement data of the scene from a perspective of the flash LIDAR sensor of the vehicle , wherein the obtained depth measurement data of the scene comprise a higher resolution than each of the images of the plurality of flash LIDAR sensors , and wherein the depth model of the scene comprises a higher resolution than the depth image of the scene of the flash LIDAR sensor . acquiring multiple sets of training data, each set of training data comprising a camera image of the scene taken by a camera of a vehicle in the visible optical range, a depth image of the scene taken by a flash LIDAR sensor of the vehicle , and depth measurement data of the scene, wherein the depth measurement data are obtained by combining images of a plurality of flash LIDAR sensors ; and a camera image of the scene taken by a camera of a vehicle in the visible optical range, a depth image of the scene taken by a flash LIDAR sensor of the vehicle , and depth measurement data of the scene, wherein the depth measurement data are obtained by combining images of a plurality of flash LIDAR sensors ; and training the artificial intelligence module for the advanced driver assistance system with the multiple sets of training data, wherein the camera image and the depth image are used as input for the artificial intelligence module , wherein the artificial intelligence module is trained for outputting the depth model of the scene, wherein the depth measurement data are used as ground truth for the depth model, wherein the images of the plurality of flash LIDAR sensors are combined in order to obtain the depth measurement data of the scene from a perspective of the flash LIDAR sensor of the vehicle , wherein the obtained depth measurement data of the scene comprise a higher resolution than each of the images of the plurality of flash LIDAR sensors , and wherein the depth model of the scene comprises a higher resolution than the depth image of the scene of the flash LIDAR sensor .
A comminution filter adjusted to be used in a device comprising a first housing part and a second housing part for comminuting bulk goods, with a displacement element featuring holes and a swivel element that can be swivelled from a filter position into a holding position, characterised in that the swivel element comprises a surface that can be accessed in the holding position and used as a working platform; the swivel element swivels into the holding position by displacing the displacement element from a working position into a maintenance position; and the swivel element features a projection that can slide along a guide configured on the second housing part when said element is swivelled from the filter position into the holding position.
A puncture device guide , comprising: a body member configured to fixedly attach to an ultrasound probe ; a slide member slidingly received within the body member ; and a cradle member slidingly received within the slide member and longitudinally fixed relative to the body member , wherein the cradle member is configured to receive a puncture device therein, and wherein longitudinal movement of the slide member causes radial movement of the cradle member relative to the body member . a body member configured to fixedly attach to an ultrasound probe ; a slide member slidingly received within the body member ; and a cradle member slidingly received within the slide member and longitudinally fixed relative to the body member , wherein the cradle member is configured to receive a puncture device therein, and wherein longitudinal movement of the slide member causes radial movement of the cradle member relative to the body member .
A light curtain for detecting objects in a surveillance area, having an arrangement of transmitters emitting light beams and receivers receiving light beams , wherein, when the surveillance area is free, the light beams of the transmitters pass through the surveillance area and are each guided to an associated receiver , and wherein, when an object is detected in the monitoring area, the beam path of the light beams of at least one transmitter is at least partially interrupted, and with an evaluation unit in which an object detection signal is generated as a function of the reception signals of the receivers , characterised in that light beams with different beam profiles are provided, and in that , in an alignment mode, received signals from receivers are determined as a measure of the alignment quality of the light curtain , wherein light beams with non-circular beam profiles are provided and wherein light beams with different horizontal or vertical or obliquely orientated beam profiles are provided, and wherein levels of received signals generated by light beams with the same beam profiles are summed or averaged.
An information processing apparatus comprising: a control unit configured to perform, in a case where a first standby mode is set, control such that a first packet detection threshold value, which is used in a normal standby state, and a second packet detection threshold value, which is used in a low power standby state and which is larger than the first packet detection threshold value and indicates a lower packet detection probability than the first packet detection threshold value, are switched to change packet detection conditions, the first and second packet detection threshold values being compared with a reception level of a packet.
A method for operating an inverter , the method having the following steps: - by means of a switching unit of the inverter , applying an AC voltage to a phase line in which a filter inductor is arranged, - determining characteristic values of a coil current (i L ) and a coil voltage (u L ) of the filter inductor in the region of a plurality of measurement points, wherein at least two measurement points are together located on at least one flank of a current ripple, - determining, from the characteristic values, a first value of the inductance (L(l Ly )) of the filter inductor for a first value of the coil current (l Ly ), - determining at least one further value of the inductance of the filter inductor for at least one further value of the coil current, - determining at least one inductance profile of the filter inductor with respect to the coil current, using the determined first value of the inductance (L(l Ly )) of the filter inductor, and using the at least one further determined value of the inductance of the filter inductor , wherein the inductance profile describes a dependency of the values of the inductance (L(l Ly )) of the filter inductor on the coil current, - controlling the switching unit of the inverter , by means of a control unit , to generate an alternating current in the phase line , wherein at least one parameter of the control is continuously adapted to the momentary value of the inductance according to a determined current-dependent inductance profile , wherein the inductance profile is determined before the inverter is first put into operation, and optionally additionally at scheduled intervals before a, or before each, startup of the inverter . - by means of a switching unit of the inverter , applying an AC voltage to a phase line in which a filter inductor is arranged, - determining characteristic values of a coil current (i L ) and a coil voltage (u L ) of the filter inductor in the region of a plurality of measurement points, wherein at least two measurement points are together located on at least one flank of a current ripple, - determining, from the characteristic values, a first value of the inductance (L(l Ly )) of the filter inductor for a first value of the coil current (l Ly ), - determining at least one further value of the inductance of the filter inductor for at least one further value of the coil current, - determining at least one inductance profile of the filter inductor with respect to the coil current, using the determined first value of the inductance (L(l Ly )) of the filter inductor, and using the at least one further determined value of the inductance of the filter inductor , wherein the inductance profile describes a dependency of the values of the inductance (L(l Ly )) of the filter inductor on the coil current, - controlling the switching unit of the inverter , by means of a control unit , to generate an alternating current in the phase line , wherein at least one parameter of the control is continuously adapted to the momentary value of the inductance according to a determined current-dependent inductance profile ,
A method , performed by a first device , of wireless communication, comprising: measuring , interference on a wireless channel; identifying an interfering device for the wireless channel based on the measured interference; predicting an impact to a data rate over the wireless channel when at least one of an interference cancelation operation or a joint detection operation is performed; generating at least one channel side information feedback message based on the measured interference on the wireless channel, wherein the at least one channel side information feedback message indicates the interfering device for the wireless channel, a correlation of the measured interference from the interfering device with time or frequency, and a correlation of a residual interference from the interfering device with time or frequency based at least in part on the predicted impact; and transmitting the at least one channel side information feedback message to a second device . measuring , interference on a wireless channel; identifying an interfering device for the wireless channel based on the measured interference; predicting an impact to a data rate over the wireless channel when at least one of an interference cancelation operation or a joint detection operation is performed; generating at least one channel side information feedback message based on the measured interference on the wireless channel, wherein the at least one channel side information feedback message indicates the interfering device for the wireless channel, a correlation of the measured interference from the interfering device with time or frequency, and a correlation of a residual interference from the interfering device with time or frequency based at least in part on the predicted impact; and transmitting the at least one channel side information feedback message to a second device .
A method for removing micro-bubbles from fluid in a fluid sensor in order to increase ultrasonic signal transmission, the fluid sensor being associated with a medical device, the method comprising: attaching a flow restrictor to a fluid outlet of the fluid sensor , the fluid sensor comprising: a fluid channel , a fluid inlet at a first end of the fluid channel configured to couple to an outlet of an administrable fluid source, and the fluid outlet at a second end of the fluid channel ; delivering fluid from the administrable fluid source to the fluid channel through the fluid inlet ; pressurizing the fluid in the fluid channel between the fluid inlet and the flow restrictor to wet an interior surface of the fluid channel with the fluid; applying a varying pressure to the fluid in the fluid channel between the fluid inlet and the flow restrictor ; and removing the flow restrictor from the fluid outlet, wherein the flow restrictor comprises an outlet having an inner diameter that changes in response to the varying pressure applied to the fluid in the fluid channel, the method comprising creating a perturbative flow of the fluid in the fluid channel. attaching a flow restrictor to a fluid outlet of the fluid sensor , the fluid sensor comprising: a fluid channel , a fluid inlet at a first end of the fluid channel configured to couple to an outlet of an administrable fluid source, and the fluid outlet at a second end of the fluid channel ; a fluid channel , a fluid inlet at a first end of the fluid channel configured to couple to an outlet of an administrable fluid source, and the fluid outlet at a second end of the fluid channel ; delivering fluid from the administrable fluid source to the fluid channel through the fluid inlet ; pressurizing the fluid in the fluid channel between the fluid inlet and the flow restrictor to wet an interior surface of the fluid channel with the fluid; applying a varying pressure to the fluid in the fluid channel between the fluid inlet and the flow restrictor ; and removing the flow restrictor from the fluid outlet, wherein the flow restrictor comprises an outlet having an inner diameter that changes in response to the varying pressure applied to the fluid in the fluid channel, the method comprising creating a perturbative flow of the fluid in the fluid channel.