mhurhangee/patent-ind-claim-en huggingface dataset:
A microchannel plate comprising: a. a substrate comprising a plate of glass fibers defining a plurality of pores (104; 180) extending from a top surface of the substrate to a bottom surface of the substrate , the plurality of pores (104; 180) having reduced lead-glass on an outer surface that forms a first emissive layer ; b. a top electrode positioned on the top surface of the substrate ; c. a bottom electrode positioned on the bottom surface of the substrate ; d. a barrier layer formed on top of the first emissive layer ; and e. a second emissive layer formed over the barrier layer , the second emissive layer having a different material composition than the first emissive layer and being configured to achieve at least one of an increase in secondary electron emission efficiency and a decrease in gain degradation as a function of time compared to the microchannel plate without the second emissive layer; wherein: the second emissive layer is formed with atomic layer deposition; and the barrier layer forms a barrier between the first emissive layer and the second emissive layer . a. a substrate comprising a plate of glass fibers defining a plurality of pores (104; 180) extending from a top surface of the substrate to a bottom surface of the substrate , the plurality of pores (104; 180) having reduced lead-glass on an outer surface that forms a first emissive layer ; b. a top electrode positioned on the top surface of the substrate ; c. a bottom electrode positioned on the bottom surface of the substrate ; d. a barrier layer formed on top of the first emissive layer ; and e. a second emissive layer formed over the barrier layer , the second emissive layer having a different material composition than the first emissive layer and being configured to achieve at least one of an increase in secondary electron emission efficiency and a decrease in gain degradation as a function of time compared to the microchannel plate without the second emissive layer;
A method, performed in an electronic device, for activating a voice assistant application, the voice assistant application being an application configured to recognize a speech command and performing the function associated with the speech command, the method comprising: receiving an input sound stream including an activation keyword for activating the voice assistant application and a portion following the activation keyword which may include at least a portion of a speech command indicative of a function of the voice assistant application; detecting the activation keyword from the input sound stream; in response to detecting the activation keyword, initiating buffering, in a buffer memory, of a portion of the input sound stream including at least a portion following the activation keyword; and after initiating buffering, verifying whether to activate the voice assistant application based on the buffered portion of the input sound stream, and if activation of the voice assistant application is verified, activating the voice assistant application to perform the function of the voice assistant application. receiving an input sound stream including an activation keyword for activating the voice assistant application and a portion following the activation keyword which may include at least a portion of a speech command indicative of a function of the voice assistant application; detecting the activation keyword from the input sound stream; in response to detecting the activation keyword, initiating buffering, in a buffer memory, of a portion of the input sound stream including at least a portion following the activation keyword; and after initiating buffering, verifying whether to activate the voice assistant application based on the buffered portion of the input sound stream, and if activation of the voice assistant application is verified, activating the voice assistant application to perform the function of the voice assistant application.
A medical instrument comprising: - a memory for storing machine executable instructions ; - a processor for controlling the medical instrument, wherein execution of the machine executable instructions cause the processor to: - receive three dimensional medical image data descriptive of a subject , wherein the three dimensional medical image data comprises voxels; - receive a segmentation of the three dimensional medical image data, wherein the segmentation divides the three dimensional image data into non-tumor voxels and tumor voxels ; - choose a center point of the tumor voxels; - divide the tumor voxels into multiple groups using a set of orthogonal planes , wherein the center point is within each of the orthogonal planes; - calculate at least one group radiomic feature selected from a set of radiomic features for each of the multiple voxel groups; - compute a statistical measure for each of the at least one group radiomic feature; - calculate a scalar value by calculating the sum of each statistical measure multiplied by a predetermined group weighting value , wherein the predetermined group weighting value is unique for each statistical measure; and - provide a signal using a signaling interface device if the scalar value is above a predetermined threshold . - a memory for storing machine executable instructions ; - a processor for controlling the medical instrument, wherein execution of the machine executable instructions cause the processor to: - receive three dimensional medical image data descriptive of a subject , wherein the three dimensional medical image data comprises voxels; - receive a segmentation of the three dimensional medical image data, wherein the segmentation divides the three dimensional image data into non-tumor voxels and tumor voxels ; - choose a center point of the tumor voxels; - divide the tumor voxels into multiple groups using a set of orthogonal planes , wherein the center point is within each of the orthogonal planes; - calculate at least one group radiomic feature selected from a set of radiomic features for each of the multiple voxel groups; - compute a statistical measure for each of the at least one group radiomic feature; - calculate a scalar value by calculating the sum of each statistical measure multiplied by a predetermined group weighting value , wherein the predetermined group weighting value is unique for each statistical measure; and - provide a signal using a signaling interface device if the scalar value is above a predetermined threshold .
Drive train of a vehicle, in particular a mobile work machine, having an internal combustion engine and having a working hydraulics system driven by the internal combustion engine , wherein the working hydraulics system comprises work functions of the work machine and has at least one hydraulic pump which is driven by the internal combustion engine and which is operable as a pump and as a motor, wherein, during pump operation, the hydraulic pump draws pressure medium by way of a suction side out of a vessel and conveys said pressure medium into a conveying line that leads to the working hydraulics system , and wherein, during motor operation, pressure medium can be supplied to the hydraulic pump at the suction side from a pressure medium accumulator , characterized in that the drive train has a feed pump which is driven by the internal combustion engine and which provides a supply to a feed circuit , wherein the feed circuit has a feed pressure line to which consumers of the feed circuit are connected, wherein the feed pump is operable as a pump and as a motor and, during pump operation, draws pressure medium by way of a suction side out of the vessel and conveys said pressure medium into the feed pressure line , which leads to the feed circuit , wherein, during motor operation, pressure medium can be supplied to the feed pump at the suction side from the pressure medium accumulator , wherein provision is made of a first electrically actuatable control valve for controlling the connection of the pressure medium accumulator to the suction side of the hydraulic pump , and of a second electrically actuatable control valve for controlling the connection of the pressure medium accumulator to the suction side of the feed pump .
A thyristor , comprising: a semiconductor layer having a first conductivity type and a first doping concentration; a carrier injection layer on the semiconductor layer, the carrier injection layer having the first conductivity type and a second doping concentration that is lower than the first doping concentration; a drift layer on the carrier injection layer, the drift layer having the second conductivity type; a buffer layer having the second conductivity type between the carrier injection layer and the drift layer, wherein the carrier injection layer and the buffer layer form a p-n junction; a base layer having the first conductivity type on the drift layer; an anode region having the second conductivity type on the base layer; and a cathode contact on the semiconductor layer and an anode contact on the anode region, characterized in that a thickness of the carrier injection layer and the second doping concentration are selected to reduce minority carrier injection by the carrier injection layer in response to an increase in operating temperature of the thyristor. a semiconductor layer having a first conductivity type and a first doping concentration; a carrier injection layer on the semiconductor layer, the carrier injection layer having the first conductivity type and a second doping concentration that is lower than the first doping concentration; a drift layer on the carrier injection layer, the drift layer having the second conductivity type; a buffer layer having the second conductivity type between the carrier injection layer and the drift layer, wherein the carrier injection layer and the buffer layer form a p-n junction; a base layer having the first conductivity type on the drift layer; an anode region having the second conductivity type on the base layer; and a cathode contact on the semiconductor layer and an anode contact on the anode region, characterized in that a thickness of the carrier injection layer and the second doping concentration are selected to reduce minority carrier injection by the carrier injection layer in response to an increase in operating temperature of the thyristor.
An apparatus for cooling an electronic component comprising: a heat-absorbing base ; and a heat-dissipating body connected to the heat-absorbing base , wherein the heat-dissipating body comprises a heat-dissipating static feature and a first heat-dissipating dynamic feature , wherein the first heat-dissipating dynamic feature is configured to be repositioned about the heat-dissipating static feature to increase a surface cooling area of the heat-dissipating body , wherein the apparatus is further comprises a first set of thermosiphons connecting the first heat-dissipating dynamic feature with the heat-dissipating static feature , wherein the first set of thermosiphons is characterized by being configured to expand to cause the first heat-dissipating dynamic feature to rotate about the heat-dissipating static feature to increase the surface cooling area of the heat-dissipating body . a heat-absorbing base ; and a heat-dissipating body connected to the heat-absorbing base , wherein the heat-dissipating body comprises a heat-dissipating static feature and a first heat-dissipating dynamic feature , wherein the first heat-dissipating dynamic feature is configured to be repositioned about the heat-dissipating static feature to increase a surface cooling area of the heat-dissipating body , wherein the apparatus is further comprises a first set of thermosiphons connecting the first heat-dissipating dynamic feature with the heat-dissipating static feature , wherein the first set of thermosiphons is characterized by being configured to expand to cause the first heat-dissipating dynamic feature to rotate about the heat-dissipating static feature to increase the surface cooling area of the heat-dissipating body .
A pressure vessel comprising: a first wall defining a container ; a second wall surrounding the container defining a cavity between the first wall and the second wall; a vent in the second wall providing fluid communication between the cavity and an outside of the second wall ; and a plurality of fire suppression elements positioned within the cavity configured to prevent flame from propagating through the cavity while providing thermal conductivity between the first wall and the second wall ; wherein the plurality of fire suppression elements form barrier passages in the cavity ; and wherein the barrier passages further comprise: a width extending in a first direction (x); and a length extending in a second direction (y), and wherein the width ranges from 0.0127 millimeters - 6.35 millimeters (0.0005 inches - 0.25 inches). a first wall defining a container ; a second wall surrounding the container defining a cavity between the first wall and the second wall; a vent in the second wall providing fluid communication between the cavity and an outside of the second wall ; and a plurality of fire suppression elements positioned within the cavity configured to prevent flame from propagating through the cavity while providing thermal conductivity between the first wall and the second wall ; wherein the plurality of fire suppression elements form barrier passages in the cavity ; and wherein the barrier passages further comprise: a width extending in a first direction (x); and a length extending in a second direction (y), and wherein the width ranges from 0.0127 millimeters - 6.35 millimeters (0.0005 inches - 0.25 inches). a width extending in a first direction (x); and a length extending in a second direction (y), and wherein the width ranges from 0.0127 millimeters - 6.35 millimeters (0.0005 inches - 0.25 inches).
Footwear comprising a bottom part comprising a sole and an integral rear upper section, and a separate top part comprising a front upper section, the parts being releasably connected to each other by a releasable fastener, wherein each part provides a fastener half and each fastener half has a start and an end, whereby the rear upper section of the bottom part includes a heel cap portion, the top part comprises two ends at a rear part thereof and the ends are connected by a strap positioned between the start and end of the top half fastener, a movable flap is provided and extends over the inside surface of at least part of the heel cap portion and the releasable fastener is a zipper fastener, in which each fastener half has a zipper track with a plurality of teeth, and the number of teeth on the halves is exactly the same.
A blood handling device comprising: a syringe (1(a)) with a syringe tube for taking a blood sample, and a container (1(b)) releasably connected to the syringe, with a chamber and a fluid passageway between the syringe and the chamber , a connector interfacing between the syringe (1(a)) and the container (1(b)), said connector having said fluid passageway , and said connector comprises a first part (21(a)) forming a base for the syringe, and a second part (21(b)) arranged to connect to the container (1(b)) or to a cannula, wherein the syringe tube and the container have an inner wall configured to activate fibrinogen to fibrin conversion, and thus to separate blood fractions and to form a fibrin clot upon contacting said blood sample with said tube and said container during centrifugation. a syringe (1(a)) with a syringe tube for taking a blood sample, and a container (1(b)) releasably connected to the syringe, with a chamber and a fluid passageway between the syringe and the chamber , a connector interfacing between the syringe (1(a)) and the container (1(b)), said connector having said fluid passageway , and said connector comprises a first part (21(a)) forming a base for the syringe, and a second part (21(b)) arranged to connect to the container (1(b)) or to a cannula, wherein the syringe tube and the container have an inner wall configured to activate fibrinogen to fibrin conversion, and thus to separate blood fractions and to form a fibrin clot upon contacting said blood sample with said tube and said container during centrifugation.
A method for managing the compilation of source code in parallel, comprising: by a parser , accessing the source code , identifying classes contained within the source code, and generating a plurality of Abstract Syntax Trees (130; 215), the plurality of Abstract Syntax Trees being generated in parallel and corresponding to the identified classes; adding further semantic information to each of the plurality of Abstract Syntax Trees to form a plurality of enriched Abstract Syntax Trees; splitting , based on class names of the identified classes, the enriched Abstract Syntax Trees to different modules that form an assembly ; creating a compilation thread for each module and allocating the different compilation threads to available processors for performing parallel compilation for each of the different modules and for generating executable code for each of the modules. by a parser , accessing the source code , identifying classes contained within the source code, and generating a plurality of Abstract Syntax Trees (130; 215), the plurality of Abstract Syntax Trees being generated in parallel and corresponding to the identified classes; adding further semantic information to each of the plurality of Abstract Syntax Trees to form a plurality of enriched Abstract Syntax Trees; splitting , based on class names of the identified classes, the enriched Abstract Syntax Trees to different modules that form an assembly ; creating a compilation thread for each module and allocating the different compilation threads to available processors for performing parallel compilation for each of the different modules and for generating executable code for each of the modules.
A system for performing pneumatic control of a microflluidic device, comprising: a pneumatic connector , the pneumatic connector comprising a housing having a plurality of channels passing through, each channel further comprising a filter ; and a pneumatic controller , the pneumatic controller comprising an interface ; wherein the plurality of channels are each in communication with the interface of the pneumatic controller , the pneumatic controller configured to supply variable pressure to each of said plurality of channels through said interface . a pneumatic connector , the pneumatic connector comprising a housing having a plurality of channels passing through, each channel further comprising a filter ; and a pneumatic controller , the pneumatic controller comprising an interface ; wherein the plurality of channels are each in communication with the interface of the pneumatic controller , the pneumatic controller configured to supply variable pressure to each of said plurality of channels through said interface .
A terminal apparatus comprising: a reception unit configured to monitor a Narrow Band Physical Downlink Control Channel, NB-PDCCH; and a medium access control layer processing unit configured to perform a DRX functionality that controls monitoring of the NB-PDCCH, wherein the medium access control layer processing unit starts a downlink HARQ RTT timer in a case that the NB-PDCCH indicates a downlink transmission, starts an uplink HARQ RTT timer in a case that the NB-PDCCH indicates an uplink transmission, starts a drx-InactivityTimer in a case that the downlink HARQ RTT timer expires, stops the drx-InactivityTimer in a case that the NB-PDCCH indicates the downlink transmission, starts the drx-InactivityTimer in a case that the uplink HARQ RTT timer expires, and stops the drx-InactivityTimer in a case that the NB-PDCCH indicates the uplink transmission. a reception unit configured to monitor a Narrow Band Physical Downlink Control Channel, NB-PDCCH; and a medium access control layer processing unit configured to perform a DRX functionality that controls monitoring of the NB-PDCCH, wherein the medium access control layer processing unit starts a downlink HARQ RTT timer in a case that the NB-PDCCH indicates a downlink transmission, starts an uplink HARQ RTT timer in a case that the NB-PDCCH indicates an uplink transmission, starts a drx-InactivityTimer in a case that the downlink HARQ RTT timer expires, stops the drx-InactivityTimer in a case that the NB-PDCCH indicates the downlink transmission, starts the drx-InactivityTimer in a case that the uplink HARQ RTT timer expires, and stops the drx-InactivityTimer in a case that the NB-PDCCH indicates the uplink transmission. starts a downlink HARQ RTT timer in a case that the NB-PDCCH indicates a downlink transmission, starts an uplink HARQ RTT timer in a case that the NB-PDCCH indicates an uplink transmission, starts a drx-InactivityTimer in a case that the downlink HARQ RTT timer expires, stops the drx-InactivityTimer in a case that the NB-PDCCH indicates the downlink transmission, starts the drx-InactivityTimer in a case that the uplink HARQ RTT timer expires, and stops the drx-InactivityTimer in a case that the NB-PDCCH indicates the uplink transmission.
A thermal transfer image-receiving sheet comprising a receiving layer on a substrate, wherein the thermal transfer image-receiving sheet is provided with a perforation capable of being folded and torn off; and the maximum resistance value is 0.5 N/cm or more and 1.0 N/cm or less as measured when the thermal transfer image-receiving sheet is folded along the perforation while one end side of the thermal transfer image-receiving sheet is being secured, and a predetermined force is being continuously applied to the other end side of the thermal transfer image-receiving sheet, the one end side and the other end side being situated across the perforation.
An apparatus for treating human skin, comprising: an outer housing including a graspable portion ; an applicator head ; a cartridge connected to the applicator head, the cartridge comprising a nozzle located in the applicator head; an image capture device that captures images of the human skin through an opening in the applicator head; a processor that analyzes the images of the human skin to identify skin deviations; and a sealing assembly comprising a support portion and characterized by a resiliently deformable sealing element supported by the support portion at a location within the applicator head, the sealing assembly having a closed configuration where the sealing element is sealed against the nozzle and an open configuration where the sealing element is removed outward away from the nozzle in a composition delivery direction to expose the nozzle for operation. an outer housing including a graspable portion ; an applicator head ; a cartridge connected to the applicator head, the cartridge comprising a nozzle located in the applicator head; an image capture device that captures images of the human skin through an opening in the applicator head; a processor that analyzes the images of the human skin to identify skin deviations; and a sealing assembly comprising a support portion and characterized by a resiliently deformable sealing element supported by the support portion at a location within the applicator head, the sealing assembly having a closed configuration where the sealing element is sealed against the nozzle and an open configuration where the sealing element is removed outward away from the nozzle in a composition delivery direction to expose the nozzle for operation.