mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for a pressure-based detection of a clot in an extracorporeal blood circuit, comprising: a cyclically operating pump (B) for conveying the fluid located in the extracorporeal circuit, a pressure sensor (P) which is arranged to determine the current pressure development over time in the fluid conveyed by the pump (B) in a current conveying cycle of the pump (B), a memory in which at least one reference pressure development is stored which is based on at least one pressure development over time which was determined in a conveying cycle of the pump (B) preceding the current conveying cycle of the pump (B), and an evaluation unit (E) which is configured such that it compares the current pressure development with the reference pressure development over a corresponding time, wherein the apparatus detects a clot based on this detection. a cyclically operating pump (B) for conveying the fluid located in the extracorporeal circuit, a pressure sensor (P) which is arranged to determine the current pressure development over time in the fluid conveyed by the pump (B) in a current conveying cycle of the pump (B), a memory in which at least one reference pressure development is stored which is based on at least one pressure development over time which was determined in a conveying cycle of the pump (B) preceding the current conveying cycle of the pump (B), and an evaluation unit (E) which is configured such that it compares the current pressure development with the reference pressure development over a corresponding time, wherein the apparatus detects a clot based on this detection.
An environmentally-friendly fiber straw structure, comprising a straw body made of an environmentally-friendly fiber material, the straw body having an inlet and an outlet at two ends thereof and a circular section having a circular cross-section between the inlet and the outlet, characterised in that J from the circular section to the outlet a first tapered section is formed at a first inclination so that the cross-section of the outlet has an approximately elliptical shape; wherein when in use, the mouth of a user sucks the outlet of the straw body for drinking a beverage, the first tapered section corresponds in shape to the mouth, thereby avoiding rotation of the straw body, reducing a gap between the mouth and the straw body and improving suction comfort. J from the circular section to the outlet a first tapered section is formed at a first inclination so that the cross-section of the outlet has an approximately elliptical shape; wherein when in use, the mouth of a user sucks the outlet of the straw body for drinking a beverage, the first tapered section corresponds in shape to the mouth, thereby avoiding rotation of the straw body, reducing a gap between the mouth and the straw body and improving suction comfort.
Method for producing a reference frequency Δf using a first optical resonator (3a; 24) and a second optical resonator , wherein the first resonator (3a; 24) has a first resonator mode with a first frequency f1 and the second resonator has a second resonator mode with a second frequency f2, wherein the frequencies of the two resonator modes are functions of an operating parameter BP, in particular of a temperature, and take on the values f1 and f2 at a set value BP 0 of the operating parameter, so that f1(BP 0 ) = f1 and f2(BP 0 ) = f2, wherein light of the first frequency f1 is stabilized at the first frequency f1 by means of the first resonator, and light of the second frequency f2 is stabilized at the second frequency f2 by means of the second resonator, and wherein the difference between the stabilized frequencies f1 and f2, Δf = |f1 - f2|, is determined, in order to obtain the stabilized reference frequency Δf characterized in that the resonators (3a; 24, 25) are designed so that the first derivative of the frequencies f1(BP), f2(BP) with respect to BP, or at least a difference quotient around BP 0 , corresponds up to a deviation of a maximum of ±0.1%.
A water supply and kneading system for green sand, comprising: a weighing hopper that stores green sand that has been weighed; a kneading machine that kneads the green sand and water; a sand loading means for releasing the green sand in the weighing hopper into the kneading machine , or shutting off the release of the green sand; a water supply device that supplies water to the green sand in the kneading machine ; a moisture sensor that comprises a pair of rod-like electrodes and measures a moisture content of the green sand stored in the weighing hopper by measuring an electric potential difference between the electrodes , wherein the electrodes comprise a measurement section for electrical contact with the green sand; a kneading control device that controls the amount of water supplied by the water supply device and controls the sand loading means on the basis of an output of the moisture sensor ; and characterized in that a moisture sensor support device is provided on top of the weighing hopper , each of the pair of electrodes being suspended downward from the moisture sensor support device so as to be embedded in the green sand while spaced apart in a horizontal direction, wherein the pair of electrodes are caused to be freely spaced apart in a horizontal direction, and freely raised and lowered in an up-down direction. a weighing hopper that stores green sand that has been weighed; a kneading machine that kneads the green sand and water; a sand loading means for releasing the green sand in the weighing hopper into the kneading machine , or shutting off the release of the green sand; a water supply device that supplies water to the green sand in the kneading machine ; a moisture sensor that comprises a pair of rod-like electrodes and measures a moisture content of the green sand stored in the weighing hopper by measuring an electric potential difference between the electrodes , wherein the electrodes comprise a measurement section for electrical contact with the green sand; a kneading control device that controls the amount of water supplied by the water supply device and controls the sand loading means on the basis of an output of the moisture sensor ; and characterized in that a moisture sensor support device is provided on top of the weighing hopper , each of the pair of electrodes being suspended downward from the moisture sensor support device so as to be embedded in the green sand while spaced apart in a horizontal direction, wherein the pair of electrodes are caused to be freely spaced apart in a horizontal direction, and freely raised and lowered in an up-down direction.
A phosphor-containing phenol-formaldehyde resin compound, comprising a compound with the general formula represented by formula (I): wherein Y is -CH 2 - or -CH 2 -O-CH 2 -, and Y in different units are the same or different; Z is R is H, a C1-C10 alkyl group, a C6-C18 aromatic group, wherein R 1 is H, a C1-C10 alkyl group, a C6-C18 aromatic group, and R 1 in different units are the same or different, and R in different units are the same or different; p is 0-2; q is 0-3; a is an integer greater than or equal to 1; b is an integer greater than or equal to 0; m is 0-6; X is wherein Y is -CH 2 - or -CH 2 -O-CH 2 -, and Y in different units are the same or different; Z is R is H, a C1-C10 alkyl group, a C6-C18 aromatic group, wherein R 1 is H, a C1-C10 alkyl group, a C6-C18 aromatic group, and R 1 in different units are the same or different, and R in different units are the same or different; p is 0-2; q is 0-3; a is an integer greater than or equal to 1; b is an integer greater than or equal to 0; m is 0-6; X is
Implantable electrical contact assembly comprising at least one electrode body assembly otherwise completely made of a biocompatible, electrically insulating material, with at least one electrode surface directly or indirectly surrounded by the biocompatible, electrically insulating material wherein the electrode body assembly comprises a stack-shaped layered composite, characterised in that the stack-shaped layered composite envisages at least one diffusion barrier layer with a gold layer attached to an iridium layer , in that the stack-shaped layered composite is otherwise completely covered with an SiC layer with the exception of at least one area of the surface of the iridium layer directed away from the layered composite and in that the SiC layer comprises a SiC layer surface which is directed away from the stack-shaped layered composite on which the biocompatible, electrically insulating material direct or indirectly abuts.
A computer-implemented method, comprising: accessing, by a computer system, first manipulation data of a first robotic manipulator of a plurality of robotic manipulators (110; 210) about how at least one object of an object type has been manipulated, the object type associated with an attribute that is common to objects of the object type and that impacts manipulations of the object type; generating, by the computer system, a first profile associated with manipulating the object type based at least in part on the first manipulation data; receiving, by the computer system from at least one of the plurality of robotic manipulators, a change to the attribute associated with the object type; determining, by the computer system, that a first set of the objects comprises the attribute unchanged and that a second set of the objects comprises the attribute changed; generating, by the computer system, a second profile associated with manipulating at least one object of the second set of the objects based at least in part on the change to the attribute; selecting, by the computer system, a portion of the first profile and a portion of the second profile based at least in part on one of the plurality of robotic manipulators; and transmitting, by the computer system, the portion of the first profile and the portion of the second profile to one of the plurality of robotic manipulators, for manipulating, by the one of the plurality of robotic manipulators, an object of the object type using the portion of the first profile or the portion of the second profile. accessing, by a computer system, first manipulation data of a first robotic manipulator of a plurality of robotic manipulators (110; 210) about how at least one object of an object type has been manipulated, the object type associated with an attribute that is common to objects of the object type and that impacts manipulations of the object type; generating, by the computer system, a first profile associated with manipulating the object type based at least in part on the first manipulation data; receiving, by the computer system from at least one of the plurality of robotic manipulators, a change to the attribute associated with the object type; determining, by the computer system, that a first set of the objects comprises the attribute unchanged and that a second set of the objects comprises the attribute changed; generating, by the computer system, a second profile associated with manipulating at least one object of the second set of the objects based at least in part on the change to the attribute; selecting, by the computer system, a portion of the first profile and a portion of the second profile based at least in part on one of the plurality of robotic manipulators; and transmitting, by the computer system, the portion of the first profile and the portion of the second profile to one of the plurality of robotic manipulators, for manipulating, by the one of the plurality of robotic manipulators, an object of the object type using the portion of the first profile or the portion of the second profile.
Device comprising: a receiver configured to receive a multi-layered video signal composed of a sequence of packets each of which comprises a layer identification syntax element structure composed of a base layer-ID field and an extension layer-ID field ; a layer identification extender configured to read, for a predetermined portion of the multi-layered video signal comprising a plurality of packets, a syntax element from the multi-layered video signal, indicating the maximum value of the extension layer-ID field of the packets comprised by the predetermined portion of the multi-layered video signal, for each of the packets within the predetermined portion of the multi-layered video signal, determine the layer ID for the respective packet based on the layer identification syntax element structure, determine a maximum number of layers within the predetermined portion of the multi-layered video signal based on the maximum value, and determine at least one characteristic for each of the maximum number of layers by iteratively parsing a layer characterizing syntax portion of the multi-layered video signal a number of times equal to the maximum number of layers, wherein the device is configured to obtain a bit length of the extension layer-ID field from an extra syntax element in the bit stream. a receiver configured to receive a multi-layered video signal composed of a sequence of packets each of which comprises a layer identification syntax element structure composed of a base layer-ID field and an extension layer-ID field ; a layer identification extender configured to read, for a predetermined portion of the multi-layered video signal comprising a plurality of packets, a syntax element from the multi-layered video signal, indicating the maximum value of the extension layer-ID field of the packets comprised by the predetermined portion of the multi-layered video signal, for each of the packets within the predetermined portion of the multi-layered video signal, determine the layer ID for the respective packet based on the layer identification syntax element structure, determine a maximum number of layers within the predetermined portion of the multi-layered video signal based on the maximum value, and determine at least one characteristic for each of the maximum number of layers by iteratively parsing a layer characterizing syntax portion of the multi-layered video signal a number of times equal to the maximum number of layers, wherein the device is configured to obtain a bit length of the extension layer-ID field from an extra syntax element in the bit stream.
. A facemask comprising a substrate , wherein a dried residue of an aqueously applied coating composition is present on at least one surface of said substrate, the coating having a thickness of from about 50 to about 250 nanometers and the coating composition consisting essentially of organic polymers, nanoparticles and a surfactant, wherein the substrate is transparent, and wherein the substrate forms a visor or shield of the facemask, characterized in that in the coating composition the nanoparticles are present in an amount between 15 and 20 wt%.
A chemically-strengthened glass sheet comprising: a smooth first side; and a rough second side, wherein the compressive stress values of the smooth first side and the rough second side are substantially in equipoise, and the difference between the compressive stress values of the smooth first side and the rough second side is less than 2%, and wherein the smooth first side has an RMS roughness less than 10 nm and the rough second side has an RMS roughness greater than 50 nm. a smooth first side; and a rough second side,
Sanitary device seat, comprising a ring- or U-shaped seat body and at least one capacitive element adapted to provide a sensing signal processible to a seat occupancy information, wherein the capacitive element is arranged directly on the surface of the seat body and covered by an overlay coating the seat body , whereby the capacitive element is fixed by in-mold-decoration at the seat body and optionally fixed by the coating.
An information processing system comprising: a processor configured to: in a case where a plurality of images included in print data are to be distributed to and rasterized by a processing system and to be printed as raster images on one or more image forming apparatuses , the processing system including at least one of a plurality of physically independent processing apparatuses and a plurality of processing apparatuses virtually configured in at least one physical apparatus: transmit the print data to each of the processing apparatuses ; characterized in that the processor is further configured to: for each of the raster images created by rasterizing a subset of the plurality of images by each of the processing apparatuses , acquire an actual measurement value of the processing time required for rasterization and predict the value of the transfer time for transferring the raster image to the image forming apparatus ; for each of unprocessed images that is not rasterized among the plurality of images, predict, for each of the processing apparatuses , the value of the total time obtained by summing the processing time and the transfer time, based on the actual measurement value of the processing time and the predicted value of the transfer time; assign the unprocessed images to the plurality of processing apparatuses for rasterizing, such that the difference between predicted values of the total time for respective processing apparatuses is within a predetermined range; and cause the respective processing apparatuses to transfer all the raster images of the print data to the one or more image forming apparatuses . for each of the raster images created by rasterizing a subset of the plurality of images by each of the processing apparatuses , acquire an actual measurement value of the processing time required for rasterization and predict the value of the transfer time for transferring the raster image to the image forming apparatus ; for each of unprocessed images that is not rasterized among the plurality of images, predict, for each of the processing apparatuses , the value of the total time obtained by summing the processing time and the transfer time, based on the actual measurement value of the processing time and the predicted value of the transfer time; assign the unprocessed images to the plurality of processing apparatuses for rasterizing, such that the difference between predicted values of the total time for respective processing apparatuses is within a predetermined range; and cause the respective processing apparatuses to transfer all the raster images of the print data to the one or more image forming apparatuses .
A hybrid compact, near- and far-field test range system for providing several wavefronts at different frequency bands within a quiet test zone in which an antenna set of devices under test are placed, using three different test approaches (CATR, NFTF and DFF) in a simultaneous manner, and comprising: - An anechoic chamber with a door , wheels and absorbing material covering the internal side of its walls, ceilings, door and floor. - A curved reflector with a lateral compact-antenna-test-range primary feed source antenna set with one or several primary feed source antenna elements of either the singe- or dual-polarized circular waveguide corrugated antenna horn type or the printed array type, and its CATR-primary-feed support tower . - An antenna set under test (AUT) or devices under test DUT) of either the gNodeB type or the User Equipment type, with its AUT/DUT tower and turntable support and positioning structure , located at a quiet test zone and capable of providing roll, elevation and azimuth rotation. - A direct far-field (DFF) and near-field-to-far-field (NFTF) secondary feed source antenna set , with its DFF/NFTF support tower and with one or several primary feed source antenna elements of either of the single- or dual-polarized circular waveguide corrugated antenna horn type or the printed array type, with their apertures pierced at the center of the curved reflector and optionally caped by metal pieces or placed in front of the reflector. - A set of electric cables , Radiofrequency cables , Ethernet cables and Fiber Optic cables . - A signal analyzer equipment located either inside or outside of the chamber. - An anechoic chamber with a door , wheels and absorbing material covering the internal side of its walls, ceilings, door and floor. - A curved reflector with a lateral compact-antenna-test-range primary feed source antenna set with one or several primary feed source antenna elements of either the singe- or dual-polarized circular waveguide corrugated antenna horn type or the printed array type, and its CATR-primary-feed support tower . - An antenna set under test (AUT) or devices under test DUT) of either the gNodeB type or the User Equipment type, with its AUT/DUT tower and turntable support and positioning structure , located at a quiet test zone and capable of providing roll, elevation and azimuth rotation. - A direct far-field (DFF) and near-field-to-far-field (NFTF) secondary feed source antenna set , with its DFF/NFTF support tower and with one or several primary feed source antenna elements of either of the single- or dual-polarized circular waveguide corrugated antenna horn type or the printed array type, with their apertures pierced at the center of the curved reflector and optionally caped by metal pieces or placed in front of the reflector. - A set of electric cables , Radiofrequency cables , Ethernet cables and Fiber Optic cables . - A signal analyzer equipment located either inside or outside of the chamber.
A capacitive-coupled radio frequency identification, RFID, tag comprising: a semiconductor substrate having a first planar surface and a second planar surface distal from the first planar surface; a metallic pad formed on the first planar surface of the semiconductor substrate; a circuit formed on the semiconductor substrate and electrically connected to the metallic pad and the second planar surface of the semiconductor substrate, the circuit being configured to respond to a radio frequency, RF, input signal by providing a data signal encoded by varying an impedance between the metallic pad and the second planar surface of the semiconductor substrate; and a metallic plate on a side of the capacitive-coupled RFID tag opposite the first planar surface such that the metallic pad and the metallic plate are on opposite sides of the capacitive-coupled RFID tag, wherein the metallic plate extends beyond at least one edge of the metallic pad and/or the semiconductor substrate. a semiconductor substrate having a first planar surface and a second planar surface distal from the first planar surface; a metallic pad formed on the first planar surface of the semiconductor substrate; a circuit formed on the semiconductor substrate and electrically connected to the metallic pad and the second planar surface of the semiconductor substrate, the circuit being configured to respond to a radio frequency, RF, input signal by providing a data signal encoded by varying an impedance between the metallic pad and the second planar surface of the semiconductor substrate; and a metallic plate on a side of the capacitive-coupled RFID tag opposite the first planar surface such that the metallic pad and the metallic plate are on opposite sides of the capacitive-coupled RFID tag, wherein the metallic plate extends beyond at least one edge of the metallic pad and/or the semiconductor substrate.