mhurhangee/patent-ind-claim-en huggingface dataset:
A quasiparticle for sintering comprising, at least, iron ore raw material, limestone-based raw material, and solid fuel-based raw material, each being used to produce sintered ore for blast furnaces, wherein the iron ore raw material forms a core of the quasiparticle, and the limestone-based raw material and the solid fuel-based raw material are coated on the circumference of the core, and wherein the core formed of the iron ore raw material contains high-alkaline iron ore having an alkali metal content of 0.05 mass% or more and general iron ore having an alkali metal content of less than 0.05 mass%, wherein the iron ore raw material contains the high-alkaline iron ore having an alkali metal content of 0.05 mass% or more in an amount of 20 mass% or more. wherein the iron ore raw material forms a core of the quasiparticle, and the limestone-based raw material and the solid fuel-based raw material are coated on the circumference of the core, and wherein the core formed of the iron ore raw material contains high-alkaline iron ore having an alkali metal content of 0.05 mass% or more and general iron ore having an alkali metal content of less than 0.05 mass%, wherein the iron ore raw material contains the high-alkaline iron ore having an alkali metal content of 0.05 mass% or more in an amount of 20 mass% or more.
A system for evaluating a stream of sensor data that have been formed by means of at least one sensor for a plurality of value documents and describe physical properties of the value documents , preferably in real time, comprising at least two evaluation units (64; 88) and a data bus , wherein each of the evaluation units (64; 88) has - a first interface for receiving the sensor data stream or part of the sensor data stream with the sensor data, - a second interface for transferring at least part of the sensor data stream, - a third interface for receiving and/or transferring evaluation data, - a working memory (RAM), - at least one processor (CPU) connected to the working memory (RAM) for evaluating the sensor data in the working memory (RAM), and - a relaying device (FPGA_B; FPGA_B') connected to the first and the second interface as well as directly or indirectly to the working memory (RAM) for receiving a sensor data stream received via the first interface , at least partial relaying to the second interface and the at least partial relaying to the processor (CPU) and/or for storing at least part of the sensor data of the sensor data stream in the working memory (RAM), wherein respectively the third interface is connected to the processor (CPU) and/or the working memory (RAM), and wherein the data bus is respectively connected to the third interfaces , characterized in that the sensor data stream received via the first interface from the relay device can be relayed by the relaying device at least partly to the second interface, and be relayed by the latter to a next evaluation unit. - a first interface for receiving the sensor data stream or part of the sensor data stream with the sensor data, - a second interface for transferring at least part of the sensor data stream, - a third interface for receiving and/or transferring evaluation data, - a working memory (RAM), - at least one processor (CPU) connected to the working memory (RAM) for evaluating the sensor data in the working memory (RAM), and - a relaying device (FPGA_B; FPGA_B') connected to the first and the second interface as well as directly or indirectly to the working memory (RAM) for receiving a sensor data stream received via the first interface , at least partial relaying to the second interface and the at least partial relaying to the processor (CPU) and/or for storing at least part of the sensor data of the sensor data stream in the working memory (RAM), wherein respectively the third interface is connected to the processor (CPU) and/or the working memory (RAM), and wherein the data bus is respectively connected to the third interfaces , characterized in that the sensor data stream received via the first interface from the relay device can be relayed by the relaying device at least partly to the second interface, and be relayed by the latter to a next evaluation unit.
Elastic diaper element comprising an elastic layer and a layer of nonwoven, wherein the elastic element has connecting regions between the elastic layer and the layer of nonwoven , and the connecting regions have an orientation in a preferred direction, wherein the layer of nonwoven is corrugated in the unstretched state of the diaper element, in order to provide areas as a reserve for enabling stretching characterized in that the connecting regions have interruptions in their orientation, the interruptions being interruptions in relation to the total area of the connecting regions of more than 5 percent and/or of less than 90 percent by area.
An apparatus comprising: a grid primitive generator configured to generate a grid primitive comprising a plurality of adjacent interconnected primitives; a bitmask generator configured to generate a bitmask associated with the grid primitive , the bitmask comprising a plurality of bitmask values, each mask value associated with a primitive of the grid primitive ; and a ray tracing engine comprising traversal and intersection hardware logic configured to perform traversal and intersection operations in which rays are traversed through a hierarchical acceleration data structure and intersections between the rays and one or more of the adjacent interconnected primitives identified, wherein the ray tracing engine is configured to read the bitmask to determine a first set of primitives from the grid primitive on which to perform the traversal and intersection operations and a second set of primitives from the grid primitive on which the traversal and intersection operations will not be performed, and the traversal and intersection hardware logic is configured to perform a plurality of ray-primitive intersection tests in parallel on a plurality of the first set of primitives. a grid primitive generator configured to generate a grid primitive comprising a plurality of adjacent interconnected primitives; a bitmask generator configured to generate a bitmask associated with the grid primitive , the bitmask comprising a plurality of bitmask values, each mask value associated with a primitive of the grid primitive ; and a ray tracing engine comprising traversal and intersection hardware logic configured to perform traversal and intersection operations in which rays are traversed through a hierarchical acceleration data structure and intersections between the rays and one or more of the adjacent interconnected primitives identified, wherein the ray tracing engine is configured to read the bitmask to determine a first set of primitives from the grid primitive on which to perform the traversal and intersection operations and a second set of primitives from the grid primitive on which the traversal and intersection operations will not be performed, and the traversal and intersection hardware logic is configured to perform a plurality of ray-primitive intersection tests in parallel on a plurality of the first set of primitives.
A vehicle comprising: - a chassis which has a longitudinal axis (A2) and which is supported by wheels ; - a cab mounted on the chassis ; - a trailer pivotally connected to the chassis , the trailer having a longitudinal axis (A50); - a camera monitoring system which includes a camera arranged on a supporting arm mounted on the cab , for providing a captured image of an area located rearward of the cab ; - at least one lighting assembly mounted on the cab ; the lighting assembly includes at least one light source configured to project a picture rearward of the cab , the picture forming a mark on a functional face of the trailer , said mark being detectable by the camera , and being representative of an angle (α) between the trailer longitudinal axis (A50) and the chassis longitudinal axis (A2); characterized in that vehicle further comprises a wind deflecting assembly comprising at least two side deflector panels , each side deflector panel having a front edge linked to a rear portion of a corresponding cab side wall and a rear edge , and extending vertically over at least part of the height of the corresponding cab side wall rear portion, the lighting assembly being mounted on a side deflector panel . - a chassis which has a longitudinal axis (A2) and which is supported by wheels ; - a cab mounted on the chassis ; - a trailer pivotally connected to the chassis , the trailer having a longitudinal axis (A50); - a camera monitoring system which includes a camera arranged on a supporting arm mounted on the cab , for providing a captured image of an area located rearward of the cab ; - at least one lighting assembly mounted on the cab ; the lighting assembly includes at least one light source configured to project a picture rearward of the cab , the picture forming a mark on a functional face of the trailer , said mark being detectable by the camera , and being representative of an angle (α) between the trailer longitudinal axis (A50) and the chassis longitudinal axis (A2); characterized in that vehicle further comprises a wind deflecting assembly comprising at least two side deflector panels , each side deflector panel having a front edge linked to a rear portion of a corresponding cab side wall and a rear edge , and extending vertically over at least part of the height of the corresponding cab side wall rear portion, the lighting assembly being mounted on a side deflector panel .
A process for preparing 3-methylthiopropionaldehyde, comprising the steps of a) providing a liquid stream comprising methyl mercaptan and/or the hemi thioacetal formed from 3-methylthiopropionaldehyde and methyl mercaptan, b) providing an acrolein comprising vapor stream , wherein the major part of said stream is acrolein, and the pressure of said stream is lower than atmospheric pressure, c) introducing the liquid stream comprising methyl mercaptan and/or the hemi thioacetal formed from 3-methylthiopropionaldehyde and methyl mercaptan of step a) and the acrolein comprising vapor stream of step b) into a reaction unit by means of a vapor-liquid mixing device , and d) reacting acrolein with methyl mercaptan and/or the hemi thioacetal formed from 3-methylthiopropionaldehyde and methyl mercaptan in the reaction unit of step c) to give a 3-methylthiopropionaldehyde comprising product mixture. a) providing a liquid stream comprising methyl mercaptan and/or the hemi thioacetal formed from 3-methylthiopropionaldehyde and methyl mercaptan, b) providing an acrolein comprising vapor stream , wherein the major part of said stream is acrolein, and the pressure of said stream is lower than atmospheric pressure, c) introducing the liquid stream comprising methyl mercaptan and/or the hemi thioacetal formed from 3-methylthiopropionaldehyde and methyl mercaptan of step a) and the acrolein comprising vapor stream of step b) into a reaction unit by means of a vapor-liquid mixing device , and d) reacting acrolein with methyl mercaptan and/or the hemi thioacetal formed from 3-methylthiopropionaldehyde and methyl mercaptan in the reaction unit of step c) to give a 3-methylthiopropionaldehyde comprising product mixture.
A secondary battery comprising an electrode assembly, wherein the electrode assembly comprises: a first electrode in which a first notching part is provided; a second electrode in which a second notching part is provided; a first separator interposed between the first electrode and the second electrode ; and a second separator disposed on a lower portion of the second electrode , wherein each of the first and second notching parts is provided in plurality, and the plurality of first or second notching parts are disposed to be spaced apart from each other in a width direction in addition to a longitudinal direction of the first or second electrode wherein the electrode assembly is folded in the width direction in a state in which the first electrode , the first separator , the second electrode , and the second separator are sequentially stacked and folded and bent through the first and second notching parts , wherein a first electrode tab is disposed on one end of the first electrode , a second tab is disposed on the other end of the second electrode , and when the folded electrode assembly is bent, the first and second electrode tabs meet to face each other. a first electrode in which a first notching part is provided; a second electrode in which a second notching part is provided; a first separator interposed between the first electrode and the second electrode ; and a second separator disposed on a lower portion of the second electrode , wherein each of the first and second notching parts is provided in plurality, and the plurality of first or second notching parts are disposed to be spaced apart from each other in a width direction in addition to a longitudinal direction of the first or second electrode wherein the electrode assembly is folded in the width direction in a state in which the first electrode , the first separator , the second electrode , and the second separator are sequentially stacked and folded and bent through the first and second notching parts , wherein a first electrode tab is disposed on one end of the first electrode , a second tab is disposed on the other end of the second electrode , and when the folded electrode assembly is bent, the first and second electrode tabs meet to face each other.
A control system for a tractor fitted with two or more axles which carry wheels having pneumatic tyres and which is set up to pull an implement or trailer, the system having a display means for displaying to a tractor operator tractor performance parameters and having sensors to determine the current pull force (F) applied to the implement or trailer and the current tractor ground speed (V), the system also having a processing unit which determines and advises the tractor operator via the display means ; characterised in that the system includes a sensor that determines the current wheel load, and in that the processing unit determines and advises to the tractor operator via the display means as to an optimum weight of the tractor using a predetermined ratio of pull force /tractor weight and also the required load on each axle to achieve a predetermined optimum ratio between axle loads.
Method for determining a backup altitude (ZstdBKUP) of an aircraft (AC), comprising the following steps, which are implemented repetitively and automatically: - a first computing step (E1), implemented by a first computational module , consisting in computing a first static pressure (PsGPS) from an altitude (ZGPIRS) determined by a geolocation module ; - a receiving step (E2), implemented by a reception module , consisting in receiving a second static pressure (PstatENG) determined by a static pressure sensor ; - a second computing step (E3), implemented by a second computational module , consisting in computing a static pressure difference (ZGPIRS_Barocorrection) between the second static pressure (PstatENG) and the first static pressure (PsGPS); - a filtering step (E4), implemented by a filtering module , consisting in filtering the static pressure difference (ZGPIRS_Barocorrection); - a third computing step (E5), implemented by a third computational module , consisting in computing the backup altitude (ZstdBKUP) from the static pressure difference (ZGPIRS_Barocorrection) filtered in the filtering step (E4) and from the first static pressure (PsGPS) computed in the first computing step (E1); - a sending step (E6), implemented by a sending module , consisting in delivering the computed backup altitude (ZstdBKUP) to a user device . - a first computing step (E1), implemented by a first computational module , consisting in computing a first static pressure (PsGPS) from an altitude (ZGPIRS) determined by a geolocation module ; - a receiving step (E2), implemented by a reception module , consisting in receiving a second static pressure (PstatENG) determined by a static pressure sensor ; - a second computing step (E3), implemented by a second computational module , consisting in computing a static pressure difference (ZGPIRS_Barocorrection) between the second static pressure (PstatENG) and the first static pressure (PsGPS); - a filtering step (E4), implemented by a filtering module , consisting in filtering the static pressure difference (ZGPIRS_Barocorrection); - a third computing step (E5), implemented by a third computational module , consisting in computing the backup altitude (ZstdBKUP) from the static pressure difference (ZGPIRS_Barocorrection) filtered in the filtering step (E4) and from the first static pressure (PsGPS) computed in the first computing step (E1); - a sending step (E6), implemented by a sending module , consisting in delivering the computed backup altitude (ZstdBKUP) to a user device .
A battery with a temperature control function, comprising: a battery body; and a film heater with a temperature sensor arranged so as to cover at least a part of the surface of the battery body, wherein the film heater with a temperature sensor includes: an insulating film ; one of a temperature sensor portion (TS) and a heater wire formed on the insulating film ; and the other of the temperature sensor portion (TS) and the heater wire formed through an insulating layer on the one other than the other, wherein the heater wire is patterned on the insulating film or the insulating layer , and the temperature sensor portion (TS) has a thin film thermistor portion made of a thermistor material patterned directly under or above the heating region of the heater wire and on the insulating film or the insulating layer , and a pair of pattern electrodes formed at least on or under the thin film thermistor portion . a battery body; and a film heater with a temperature sensor arranged so as to cover at least a part of the surface of the battery body, wherein the film heater with a temperature sensor includes: an insulating film ; one of a temperature sensor portion (TS) and a heater wire formed on the insulating film ; and the other of the temperature sensor portion (TS) and the heater wire formed through an insulating layer on the one other than the other, wherein the heater wire is patterned on the insulating film or the insulating layer , and the temperature sensor portion (TS) has a thin film thermistor portion made of a thermistor material patterned directly under or above the heating region of the heater wire and on the insulating film or the insulating layer , and a pair of pattern electrodes formed at least on or under the thin film thermistor portion . an insulating film ; one of a temperature sensor portion (TS) and a heater wire formed on the insulating film ; and the other of the temperature sensor portion (TS) and the heater wire formed through an insulating layer on the one other than the other, wherein the heater wire is patterned on the insulating film or the insulating layer , and the temperature sensor portion (TS) has a thin film thermistor portion made of a thermistor material patterned directly under or above the heating region of the heater wire and on the insulating film or the insulating layer , and a pair of pattern electrodes formed at least on or under the thin film thermistor portion .
Communication control device for a subscriber station of a serial bus system , having a communication control module for generating a transmission signal (TxD_PRT) for controlling communication between the subscriber station and at least one other subscriber station (10; 20; 30) of the bus system , in which bus system at least a first communication phase and a second communication phase are used to exchange messages (45; 46) between subscriber stations of the bus system in a frame for a message (45; 46), a first connection for transmitting, in an operating mode of the first communication phase of a frame , the transmission signal (TxD_PRT) to a transmitting/receiving device (12; 32) configured to transmit the transmission signal (TxD) to a bus of the bus system , a second connection for receiving, in the operating mode of the first communication phase of the frame , a digital received signal (RxD) from the transmitting/receiving device (12; 32), and an operating mode switching module for switching the transmission direction of the first and second connections in the second communication phase of the frame to the same direction for differential signal transmission via the first and second connections . a communication control module for generating a transmission signal (TxD_PRT) for controlling communication between the subscriber station and at least one other subscriber station (10; 20; 30) of the bus system , in which bus system at least a first communication phase and a second communication phase are used to exchange messages (45; 46) between subscriber stations of the bus system in a frame for a message (45; 46), a first connection for transmitting, in an operating mode of the first communication phase of a frame , the transmission signal (TxD_PRT) to a transmitting/receiving device (12; 32) configured to transmit the transmission signal (TxD) to a bus of the bus system , a second connection for receiving, in the operating mode of the first communication phase of the frame , a digital received signal (RxD) from the transmitting/receiving device (12; 32), and an operating mode switching module for switching the transmission direction of the first and second connections in the second communication phase of the frame to the same direction for differential signal transmission via the first and second connections .
A computer implemented method for processing a 3D fetal ultrasound image, the method comprising: (110; 118) obtaining a 3D fetal ultrasound image; detecting the spine within the image; determining a first reference axis (z) based on the spine orientation and location within the image; determining a second reference axis (x), perpendicular to the first reference axis (z), based on the fetal torso orientation with respect to the detected spine; and updating the 3D fetal ultrasound image using the first and second reference axes; wherein the determining of the second reference axis (x) comprises: extracting a set of planes , each orthogonal to the first reference axis or locally orthogonal to the spine; detecting an elliptical or circular form of the abdomen or thorax of the fetus in each plane ; and determining the second reference axis (x) based on an orientation vector in each plane between the spine and the center of the elliptical form. (110; 118) obtaining a 3D fetal ultrasound image; detecting the spine within the image; determining a first reference axis (z) based on the spine orientation and location within the image; determining a second reference axis (x), perpendicular to the first reference axis (z), based on the fetal torso orientation with respect to the detected spine; and updating the 3D fetal ultrasound image using the first and second reference axes; wherein the determining of the second reference axis (x) comprises: extracting a set of planes , each orthogonal to the first reference axis or locally orthogonal to the spine; detecting an elliptical or circular form of the abdomen or thorax of the fetus in each plane ; and determining the second reference axis (x) based on an orientation vector in each plane between the spine and the center of the elliptical form. extracting a set of planes , each orthogonal to the first reference axis or locally orthogonal to the spine; detecting an elliptical or circular form of the abdomen or thorax of the fetus in each plane ; and determining the second reference axis (x) based on an orientation vector in each plane between the spine and the center of the elliptical form.