mhurhangee/patent-ind-claim-en huggingface dataset:
Signal processing apparatus for processing a measurement signal in a motor vehicle, wherein the measurement signal relates to a time-variant measured variable having successive measured values, wherein the signal processing apparatus is designed with an integrated measurement sensor, particularly an angle sensor, comprising: a first signal processing device for computing the time-variant measured variable from the measurement signal, wherein the measurement sensor is connected upstream of the first signal processing device and is designed to provide the measurement signal; a second signal processing device for processing the time-variant measured variable in order to obtain a processed measured variable; a third signal processing device for computing a rate of change of the time-variant measured variable, wherein the third signal processing device is designed to output a supplementary measurement signal that indicates the rate of change; and a communication interface that is designed to combine the processed measured variable and the supplementary measurement signal to form a compiled transmission signal and to transmit the compiled transmission signal. a first signal processing device for computing the time-variant measured variable from the measurement signal, wherein the measurement sensor is connected upstream of the first signal processing device and is designed to provide the measurement signal; a second signal processing device for processing the time-variant measured variable in order to obtain a processed measured variable; a third signal processing device for computing a rate of change of the time-variant measured variable, wherein the third signal processing device is designed to output a supplementary measurement signal that indicates the rate of change; and a communication interface that is designed to combine the processed measured variable and the supplementary measurement signal to form a compiled transmission signal and to transmit the compiled transmission signal.
A sulfur-containing compound, comprising a lithium (Li) element, a phosphorus (P) element, a sulfur (S) element, and a halogen (X) element, having a peak A at the position of 2θ = 21.3° ± 1.0°, a peak B at the position of 27.8° ± 1.0°, and a peak C at the position of 30.8° ± 0.5°, and having at least two peaks (referred to as "peak D" and "peak E" respectively) in a range of 2θ = 25.0° or more and 26.0° or less,_in an X-ray diffraction pattern measured by an X-ray diffraction apparatus (XRD) using CuKal rays, wherein the sulfur-containing compound is represented by a general formula of Li a PS b X c (X is at least one of F, Cl, Br, and I, a is in a range of 3.0 or more and 6.0 or less, b is in a range of 3.5 or more and 4.8 or less, and c is in a range of 0.1 or more and 3.0 or less).
An insertion system comprising: an ear ventilation tube having a distal end and a proximal end with at least one proximal member ; a hollow sheath member including a distal end having a cutting edge configured to make an incision in a tympanic membrane , a proximal end , and a slot including a distal end and a proximal end , wherein the distal end of the slot is in communication with the distal end of the hollow sheath member , the hollow sheath member is configured to at least partially surround the ear ventilation tube so that one of the proximal members extends through the slot and the hollow sheath member is configured to be inserted through the incision in the tympanic membrane such that a portion of the ear ventilation tube is located in the incision to maintain an opening in the tympanic membrane ; a rod member including a distal end, wherein the distal end of the rod member is located within the hollow sheath member and is configured to be adjacent the proximal end of the ear ventilation tube ; and an actuator coupled to the hollow sheath member and configured to retract the hollow sheath member from around the ear ventilation tube by sliding it over and along a length of the rod member , while the rod member remains fixed in place, thereby allowing the ear ventilation tube to remain inserted in the tympanic membrane during retraction of the hollow sheath member . an ear ventilation tube having a distal end and a proximal end with at least one proximal member ; a hollow sheath member including a distal end having a cutting edge configured to make an incision in a tympanic membrane , a proximal end , and a slot including a distal end and a proximal end , wherein the distal end of the slot is in communication with the distal end of the hollow sheath member , the hollow sheath member is configured to at least partially surround the ear ventilation tube so that one of the proximal members extends through the slot and the hollow sheath member is configured to be inserted through the incision in the tympanic membrane such that a portion of the ear ventilation tube is located in the incision to maintain an opening in the tympanic membrane ; a rod member including a distal end, wherein the distal end of the rod member is located within the hollow sheath member and is configured to be adjacent the proximal end of the ear ventilation tube ; and an actuator coupled to the hollow sheath member and configured to retract the hollow sheath member from around the ear ventilation tube by sliding it over and along a length of the rod member , while the rod member remains fixed in place, thereby allowing the ear ventilation tube to remain inserted in the tympanic membrane during retraction of the hollow sheath member .
An abnormality determination device that is configured to determine an abnormality of an inducer used for a pump, wherein the inducer is used only for a predetermined use time per operation of the pump, the abnormality determination device comprising: a pressure acquisition unit configured to acquire a pressure response indicating the temporal change of a pressure measured by a pressure sensor provided at an input side of the inducer ; a stress-response acquisition unit configured to acquire a stress response indicating a temporal change in stress applied to the inducer , wherein the stress-response acquisition unit is configured to convert the pressure response into the stress response using a transfer function that is designed to define the relation between pressure measured by the pressure sensor and the stress applied to the inducer ; an accumulated-fatigue-damage-degree calculation unit configured to calculate an accumulated fatigue-damage degree of the inducer based on the stress response; a lifetime-consumption-rate calculation unit configured to calculate a lifetime consumption rate that is a changing rate of the accumulated fatigue-damage degree with respect to time; and a determination unit configured to determine the abnormality of the inducer based on the accumulated fatigue-damage degree and the lifetime consumption rate. a pressure acquisition unit configured to acquire a pressure response indicating the temporal change of a pressure measured by a pressure sensor provided at an input side of the inducer ; a stress-response acquisition unit configured to acquire a stress response indicating a temporal change in stress applied to the inducer , wherein the stress-response acquisition unit is configured to convert the pressure response into the stress response using a transfer function that is designed to define the relation between pressure measured by the pressure sensor and the stress applied to the inducer ; an accumulated-fatigue-damage-degree calculation unit configured to calculate an accumulated fatigue-damage degree of the inducer based on the stress response; a lifetime-consumption-rate calculation unit configured to calculate a lifetime consumption rate that is a changing rate of the accumulated fatigue-damage degree with respect to time; and a determination unit configured to determine the abnormality of the inducer based on the accumulated fatigue-damage degree and the lifetime consumption rate.
A high-strength cold-rolled steel sheet having excellent ductility consisting of: by wt %, carbon C: 0.1% to 0.3%, silicon Si: 0.1% to 2.0%, aluminum Al: 0.005% to 1.5%, manganese Mn: 1.5% to 3.0%, phosphorus P: 0.04% or less and excluding 0%, sulfur S: 0.015% or less and excluding 0%, nitrogen N: 0.02% or less and excluding 0%, optionally at least one selected from the group consisting of titanium Ti: 0.005% to 0.1%, niobium Nb: 0.005% to 0.1%, vanadium V: 0.005% to 0.1%, zirconium Zr: 0.005% to 0.1%, and tungsten W: 0.005% to 0.5%, optionally at least one selected from the group consisting of molybdenum Mo: 1% or less and excluding 0%, nickel Ni: 1% or less and excluding 0%, copper Cu: 0.5% or less and excluding 0%, and chromium Cr: 1% or less and excluding 0%, optionally at least one selected from the group consisting of antimony Sb: 0.04% or less and excluding 0%, calcium Ca: 0.01% or less and excluding 0%, bismuth Bi: 0.1% or less and excluding 0%, and boron B: 0.01% or less and excluding 0%, and a remainder of iron Fe and inevitable impurities, wherein a sum of Si and Al by wt% satisfies 1.0% or more, and wherein a microstructure comprises: by area fraction, 5% or less of polygonal ferrite having a minor axis to major axis ratio of 0.4 or greater, 70% or less and excluding 0% of acicular ferrite having a minor axis to major axis ratio of 0.4 or less, 25% or less and excluding 0% of acicular retained austenite, and a remainder of martensite. by wt %, carbon C: 0.1% to 0.3%, silicon Si: 0.1% to 2.0%, aluminum Al: 0.005% to 1.5%, manganese Mn: 1.5% to 3.0%, phosphorus P: 0.04% or less and excluding 0%, sulfur S: 0.015% or less and excluding 0%, nitrogen N: 0.02% or less and excluding 0%, optionally at least one selected from the group consisting of titanium Ti: 0.005% to 0.1%, niobium Nb: 0.005% to 0.1%, vanadium V: 0.005% to 0.1%, zirconium Zr: 0.005% to 0.1%, and tungsten W: 0.005% to 0.5%, optionally at least one selected from the group consisting of molybdenum Mo: 1% or less and excluding 0%, nickel Ni: 1% or less and excluding 0%, copper Cu: 0.5% or less and excluding 0%, and chromium Cr: 1% or less and excluding 0%, optionally at least one selected from the group consisting of antimony Sb: 0.04% or less and excluding 0%, calcium Ca: 0.01% or less and excluding 0%, bismuth Bi: 0.1% or less and excluding 0%, and boron B: 0.01% or less and excluding 0%, and a remainder of iron Fe and inevitable impurities, wherein a sum of Si and Al by wt% satisfies 1.0% or more, and wherein a microstructure comprises: by area fraction, 5% or less of polygonal ferrite having a minor axis to major axis ratio of 0.4 or greater, 70% or less and excluding 0% of acicular ferrite having a minor axis to major axis ratio of 0.4 or less, 25% or less and excluding 0% of acicular retained austenite, and a remainder of martensite.
A mineral material processing method comprising: processing mineral material in a mineral material processing plant ; cooling in a cooler of the processing plant at least one of: heat generated in heat sources of the processing plant; and fuel used in a motor of the processing plant; cooling the cooler with a blower; directing wetting water to the mineral material for binding dust generated in the processing; transferring to the wetting water heat of at least one heat source of the processing plant and/or heat of the fuel before using the wetting water for dust binding ; and directing the wetting water in a flow direction before the dust binding to a first heat exchanger for receiving heat in the wetting water. processing mineral material in a mineral material processing plant ; cooling in a cooler of the processing plant at least one of: heat generated in heat sources of the processing plant; and fuel used in a motor of the processing plant; cooling the cooler with a blower; directing wetting water to the mineral material for binding dust generated in the processing; transferring to the wetting water heat of at least one heat source of the processing plant and/or heat of the fuel before using the wetting water for dust binding ; and directing the wetting water in a flow direction before the dust binding to a first heat exchanger for receiving heat in the wetting water.
An extrusion die comprising a substrate body having a multilayer coating, the substrate body being made of a steel material that has long-term heat resistance at an extrusion operating temperature in the range between 400 °C and 950 °C and is intended for interacting with ductile extrusion metal in the form of a hot work steel and comprising a single-layer or multilayer coating deposited by a CVD process and comprising at least one metal, preferably at least titanium, and carbon and nitrogen, the ratio between carbon and nitrogen in the at least one layer of the coating deposited at a CVD average temperature in the range between 700 °C and 950 °C being C/N>1, in relation to a ratio in atomic percentage, and the at least one layer of the coating deposited at a CVD average temperature in the range between 700 °C and 950 °C having a columnar and/or stalky structure with a plurality of structural sections provided with a grain orientation that lie adjacent to one another and are aligned parallel to one another and perpendicular to the substrate surface and an upper cover layer being provided on the coating, the upper cover layer reducing an abrasion acting by the extrusion process and the upper cover layer being applied at a CVD process temperature above 950 °C.
A method, comprising: reading PHY card configuration data stored on a PHY card (104; 104a) including a PHY card identifier, ID, the PHY card (104; 104a) installed in a computer platform (100; 100a; 400; 500) including at least one port and configured to support Physical layer functionality associated with at least one communication protocol stacks and to communicate with a Media Access Control, MAC, block configured to support MAC layer functionality for the at least one communication protocol stack, the MAC block implemented in an integrated circuit, IC, component in the computer platform (100; 100a; 400; 500) that is separate from the PHY card (104; 104a); comparing the PHY card ID to a list of valid PHY card IDs to determine whether the PHY card (104; 104a) is a valid PHY card, wherein a valid PHY card ID is a PHY card ID in the list of PHY card IDs stored in PHY configuration data that is stored in non-volatile memory included in the IC component ; and if the PHY card (104; 104a) is determined to be a valid PHY card, configuring the PHY card (104; 104a) to implement Physical layer functionality associated with the at least one communication protocol stack for at least one port , wherein the method further comprises: storing a PHY configuration script for at least one PHY card (104; 104a); selecting a PHY configuration script based on the PHY card ID that is read; and executing the PHY configuration script to configure the PHY card (104; 104a). reading PHY card configuration data stored on a PHY card (104; 104a) including a PHY card identifier, ID, the PHY card (104; 104a) installed in a computer platform (100; 100a; 400; 500) including at least one port and configured to support Physical layer functionality associated with at least one communication protocol stacks and to communicate with a Media Access Control, MAC, block configured to support MAC layer functionality for the at least one communication protocol stack, the MAC block implemented in an integrated circuit, IC, component in the computer platform (100; 100a; 400; 500) that is separate from the PHY card (104; 104a); comparing the PHY card ID to a list of valid PHY card IDs to determine whether the PHY card (104; 104a) is a valid PHY card, wherein a valid PHY card ID is a PHY card ID in the list of PHY card IDs stored in PHY configuration data that is stored in non-volatile memory included in the IC component ; and if the PHY card (104; 104a) is determined to be a valid PHY card, configuring the PHY card (104; 104a) to implement Physical layer functionality associated with the at least one communication protocol stack for at least one port , wherein the method further comprises: storing a PHY configuration script for at least one PHY card (104; 104a); selecting a PHY configuration script based on the PHY card ID that is read; and executing the PHY configuration script to configure the PHY card (104; 104a). storing a PHY configuration script for at least one PHY card (104; 104a); selecting a PHY configuration script based on the PHY card ID that is read; and executing the PHY configuration script to configure the PHY card (104; 104a).
A pacemaker fixation device, comprising: a ring-shaped stent having opposing first and second ends; and at least one contractible member arranged at the first end of the ring-shaped stent , the contractible member comprising a connecting element and a plurality of contractible elements , the plurality of contractible elements disposed along a circumferential direction of the ring-shaped stent , all the contractible elements having first ends converging at and connected to the connecting element , the connecting element configured for detachable connection with an external mechanism, all the contractible elements having second ends connected to the first end of the ring-shaped stent , the first ends of the contractible elements arranged external to the first end of the ring-shaped stent in an axial direction of the ring-shaped stent , the contractible member configured to cooperate with the external mechanism to be contracted and folded when retracted by the external mechanism, which in turn contracts and folds the ring-shaped stent , characterized in that : the ring-shaped stent comprises a body and at least one fixation member , each fixation member disposed at a respective one of a first end and/or an opposing second end of the body , the fixation member comprising a plurality of support struts arranged along the circumferential direction of the ring-shaped stent , all the support struts having first ends connected to the body and second ends connected to the contractible member , the fixation member arranged external to the body . a ring-shaped stent having opposing first and second ends; and at least one contractible member arranged at the first end of the ring-shaped stent , the contractible member comprising a connecting element and a plurality of contractible elements , the plurality of contractible elements disposed along a circumferential direction of the ring-shaped stent , all the contractible elements having first ends converging at and connected to the connecting element , the connecting element configured for detachable connection with an external mechanism, all the contractible elements having second ends connected to the first end of the ring-shaped stent , the first ends of the contractible elements arranged external to the first end of the ring-shaped stent in an axial direction of the ring-shaped stent , the contractible member configured to cooperate with the external mechanism to be contracted and folded when retracted by the external mechanism, which in turn contracts and folds the ring-shaped stent , characterized in that : the ring-shaped stent comprises a body and at least one fixation member , each fixation member disposed at a respective one of a first end and/or an opposing second end of the body , the fixation member comprising a plurality of support struts arranged along the circumferential direction of the ring-shaped stent , all the support struts having first ends connected to the body and second ends connected to the contractible member , the fixation member arranged external to the body .
A curable composition comprising a polymer (A) including a structural unit represented by the following general formula (I), and a polythiol compound (B) having at least two thiol groups in one molecule: wherein R 1 , R 2 and R 3 each independently represent a hydrogen atom, an alkyl group having 1 to 18 carbon atoms, an alkenyl group having 2 to 18 carbon atoms or an aralkyl group having 7 to 18 carbon atoms, R 4 represents a hydrogen atom or a methyl group, and n is an arbitrary integer equal to or greater than 0, and wherein at least one of R 1 , R 2 and R 3 is one of the above groups having one or more carbon atoms and/or n is an integer equal to or greater than 1.
Non-aqueous gel writing ink comprising a solvent, a coloring agent and a gelling agent, wherein the gelling agent is a mixture of silica particles and of a fatty acid amide wax, advantageously of hydrophilic silica particles and of a fatty acid amide wax.
A display device (DD) comprising: a display module (DM); and a support plate (PLT) disposed below the display module (DM) and including a first support plate (PLT1), a second support plate (PLT2), and a first folding plate (FPT1) disposed between the first support plate (PLT1) and the second support plate (PLT2), wherein the first folding plate (FPT1) includes: a curved portion (CSP); a first reverse curvature portion (ICV1) disposed between the first support plate (PLT1) and the curved portion (CSP); and a second reverse curvature portion (ICV2) disposed between the second support plate (PLT2) and the curved portion (CSP), wherein a plurality of first openings (OP1) is defined in the curved portion (CSP), characterized in that a plurality of first grooves (GV1) is defined on a rear surface of the first reverse curvature portion (ICV1), and a plurality of second grooves (GV2) is defined on a rear surface of the second reverse curvature portion (ICV2), so that a stiffness of the first reverse curvature portion (ICV1) is different from a stiffness of the second reverse curvature portion (ICV2). a display module (DM); and a support plate (PLT) disposed below the display module (DM) and including a first support plate (PLT1), a second support plate (PLT2), and a first folding plate (FPT1) disposed between the first support plate (PLT1) and the second support plate (PLT2), wherein the first folding plate (FPT1) includes: a curved portion (CSP); a first reverse curvature portion (ICV1) disposed between the first support plate (PLT1) and the curved portion (CSP); and a second reverse curvature portion (ICV2) disposed between the second support plate (PLT2) and the curved portion (CSP), a curved portion (CSP); a first reverse curvature portion (ICV1) disposed between the first support plate (PLT1) and the curved portion (CSP); and a second reverse curvature portion (ICV2) disposed between the second support plate (PLT2) and the curved portion (CSP), wherein a plurality of first openings (OP1) is defined in the curved portion (CSP), characterized in that a plurality of first grooves (GV1) is defined on a rear surface of the first reverse curvature portion (ICV1), and a plurality of second grooves (GV2) is defined on a rear surface of the second reverse curvature portion (ICV2), so that a stiffness of the first reverse curvature portion (ICV1) is different from a stiffness of the second reverse curvature portion (ICV2).