mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator comprising: a display part for displaying information; and a control part for controlling the display part , wherein the display part comprises a first display part for displaying information related to an additional function except for a cooling function, and a second display part for displaying temperature information related to the cooling function, characterized in that the first and the second display parts are separated from each other, in that the first display part is a touch screen which displays a plurality of screens , in that the screens comprise a first screen and a second screen , the first and second screens being separated by a boundary, in that the first screen displays date information , time information , smart grid function on/off information of a smart grid function, in that the second screen displays one or more selection parts for selecting the additional function, in that the first and second screens are vertically or horizontally arrayed, in that when a boundary between the first screen and the second screen , or an upper portion of the second screen is touched and pulled down, or when the smart grid function on/off information is selected, a smart grid information screen for selecting an on or off state of the smart grid function is displayed, and in that when the smart grid function is turned on, the refrigerator is operated based on energy information. a display part for displaying information; and a control part for controlling the display part , wherein the display part comprises a first display part for displaying information related to an additional function except for a cooling function, and a second display part for displaying temperature information related to the cooling function, characterized in that the first and the second display parts are separated from each other, in that the first display part is a touch screen which displays a plurality of screens , in that the screens comprise a first screen and a second screen , the first and second screens being separated by a boundary, in that the first screen displays date information , time information , smart grid function on/off information of a smart grid function, in that the second screen displays one or more selection parts for selecting the additional function, in that the first and second screens are vertically or horizontally arrayed, in that when a boundary between the first screen and the second screen , or an upper portion of the second screen is touched and pulled down, or when the smart grid function on/off information is selected, a smart grid information screen for selecting an on or off state of the smart grid function is displayed, and in that when the smart grid function is turned on, the refrigerator is operated based on energy information.
A method for machining a workpiece using a cutting tool attached to a spindle , the method comprising: (a) defining an initial tool path of the cutting tool relative to a workpiece using part definition data; (b) causing the cutting tool to cut along the defined initial tool path relative to the workpiece ; (c) receiving sensor data representing machining process conditions during said cutting along the defined initial tool path; (d) processing the sensor data to determine a value of a machining process force parameter; and (e) causing the cutting tool to cut along a modified tool path relative to the workpiece , wherein operations (b) through (e) are performed by a computer system ; and causing the cutting tool to cut along a modified tool path relative to the workpiece changes the radial cutting depth during machining of the workpiece and ensures that values of the machining process force parameter does not exceed a machining process force constraint (a) defining an initial tool path of the cutting tool relative to a workpiece using part definition data; (b) causing the cutting tool to cut along the defined initial tool path relative to the workpiece ; (c) receiving sensor data representing machining process conditions during said cutting along the defined initial tool path; (d) processing the sensor data to determine a value of a machining process force parameter; and (e) causing the cutting tool to cut along a modified tool path relative to the workpiece ,
An ink delivery system for an inkjet printer comprising: an intermediary ink tank comprising: a first ink chamber having an ink inlet port and an ink outlet port ; a second ink chamber having a gas port open to atmosphere, the first ink chamber having a smaller volume than the second ink chamber ; and a diffusion tube interconnecting the first and second ink chambers; an ink supply reservoir connected to the ink inlet port ; an inkjet printhead having a printhead inlet port connected to the ink outlet port ; and a control system coordinating with the intermediary ink tank for controlling an ink pressure of ink delivered to the printhead, characterized in that the intermediary ink tank is positioned below the printhead . an intermediary ink tank comprising: a first ink chamber having an ink inlet port and an ink outlet port ; a second ink chamber having a gas port open to atmosphere, the first ink chamber having a smaller volume than the second ink chamber ; and a diffusion tube interconnecting the first and second ink chambers; a first ink chamber having an ink inlet port and an ink outlet port ; a second ink chamber having a gas port open to atmosphere, the first ink chamber having a smaller volume than the second ink chamber ; and a diffusion tube interconnecting the first and second ink chambers; an ink supply reservoir connected to the ink inlet port ; an inkjet printhead having a printhead inlet port connected to the ink outlet port ; and a control system coordinating with the intermediary ink tank for controlling an ink pressure of ink delivered to the printhead,
An end effector , comprising: a blade having a cutting edge configured to dissect and coagulate tissue and a back edge, wherein the back edge of the blade is positioned opposite to the cutting edge of the blade, and the blade is configured to couple to an ultrasonic waveguide and configured to vibrate at ultrasonic frequency to dissect and coagulate the tissue; a shielded portion enclosing the back edge of the blade, wherein the shielded portion is configured to cover parts of the side of the blade ; and a high-friction surface coupled to the shielded portion and positioned between the shielded portion and the back edge of the blade, wherein a space is defined between the high-friction surface and the back edge of the blade when the end effector is configured into a dissecting configuration; wherein, when the end effector is configured into a sealing configuration, the high-friction surface contacts the back edge of the blade and is configured to generate heat by frictionally coupling the ultrasonic vibrations of the blade to the high-friction surface, and wherein the shielded portion is configured to coagulate tissue by coupling heat from the high-friction surface to the tissue, the end effector further comprising at least one low-friction surface coupled to the shielded portion and positioned alongside a lateral edge of the blade, the low-friction surface configured to permit ultrasonic vibration of the blade upon contacting the low-friction surface based on a lateral movement of the blade. a blade having a cutting edge configured to dissect and coagulate tissue and a back edge, wherein the back edge of the blade is positioned opposite to the cutting edge of the blade, and the blade is configured to couple to an ultrasonic waveguide and configured to vibrate at ultrasonic frequency to dissect and coagulate the tissue; a shielded portion enclosing the back edge of the blade, wherein the shielded portion is configured to cover parts of the side of the blade ; and a high-friction surface coupled to the shielded portion and positioned between the shielded portion and the back edge of the blade, wherein a space is defined between the high-friction surface and the back edge of the blade when the end effector is configured into a dissecting configuration;
A pneumatic tire comprising a belt layer and a carcass layer, wherein a rubber composition for belts constituting the belt layer contains: per 100 parts by mass of a diene rubber containing a natural rubber, from 0.3 to 1.5 parts by mass of cobalt borate neodecanoate and from 4.5 to 7.0 parts by mass of sulfur; wherein a rubber composition for carcasses constituting the carcass layer contains: carbon black and SC parts by mass of sulfur per 100 parts by mass of a diene rubber; wherein the rubber composition for belts contains SB parts by mass of the sulfur, and a ratio (SB/SC) of the compounded content of the sulfur of the rubber composition for belts (SB) to the compounded content of the sulfur of the rubber composition for carcasses (SC) is from 2.0 to 3.0; wherein a dynamic storage modulus (E') at 20°C of the rubber composition for belts is from 13 to 18 MPa; wherein a ratio (MB/MC) of a 100% tensile stress (MB) of the rubber composition for belts to a 100% tensile stress of the rubber composition for carcasses (MC) is from 1.5 to 2.5, wherein the dynamic storage modulus (E') at a temperature of 20°C is measured in accordance with JIS K 6394 under conditions at an initial strain of 10%, a dynamic strain of ±2%, and a frequency of 20 Hz, using a viscoelastic spectrometer, and wherein a tensile test is performed according to JIS K 6251 to measure a tensile stress (MB, MC) at 100% deformation. per 100 parts by mass of a diene rubber containing a natural rubber, from 0.3 to 1.5 parts by mass of cobalt borate neodecanoate and from 4.5 to 7.0 parts by mass of sulfur; wherein a rubber composition for carcasses constituting the carcass layer contains: carbon black and SC parts by mass of sulfur per 100 parts by mass of a diene rubber; wherein the rubber composition for belts contains SB parts by mass of the sulfur, and a ratio (SB/SC) of the compounded content of the sulfur of the rubber composition for belts (SB) to the compounded content of the sulfur of the rubber composition for carcasses (SC) is from 2.0 to 3.0; wherein a dynamic storage modulus (E') at 20°C of the rubber composition for belts is from 13 to 18 MPa; wherein a ratio (MB/MC) of a 100% tensile stress (MB) of the rubber composition for belts to a 100% tensile stress of the rubber composition for carcasses (MC) is from 1.5 to 2.5, wherein the dynamic storage modulus (E') at a temperature of 20°C is measured in accordance with JIS K 6394 under conditions at an initial strain of 10%, a dynamic strain of ±2%, and a frequency of 20 Hz, using a viscoelastic spectrometer, and wherein a tensile test is performed according to JIS K 6251 to measure a tensile stress (MB, MC) at 100% deformation.
A monoblock implant for fusing a cervical motion segment , comprising: an interbody portion configured to be positioned between superior and inferior vertebral bodies, of the cervical motion segment, with a first side of the interbody portion facing a first uncinate joint (482 ) of the cervical motion segment and a second side of the interbody portion facing a second uncinate joint (482 ) of the cervical motion segment; a first wing (420 ) extending away from the first side to extend into the first uncinate joint; and a second wing (420 ) extending away from the second side to extend into the second uncinate joint; characterized by the interbody portion including a superior interbody surface configured to face the superior vertebral body and an inferior interbody surface configured to face the inferior vertebral body, maximum distance between the superior and inferior interbody surfaces defining an axial extent of the interbody portion in an axial dimension, each of the first (420 ) and second wings (420 ) being oriented at an oblique angle to the axial extent to reach beyond the superior interbody surface for a distance in the axial dimension ; and wherein the distance by which each of the first and second wings extends beyond the superior interbody surface decreases along an anterior-to-posterior direction. an interbody portion configured to be positioned between superior and inferior vertebral bodies, of the cervical motion segment, with a first side of the interbody portion facing a first uncinate joint (482 ) of the cervical motion segment and a second side of the interbody portion facing a second uncinate joint (482 ) of the cervical motion segment; a first wing (420 ) extending away from the first side to extend into the first uncinate joint; and a second wing (420 ) extending away from the second side to extend into the second uncinate joint; characterized by the interbody portion including a superior interbody surface configured to face the superior vertebral body and an inferior interbody surface configured to face the inferior vertebral body, maximum distance between the superior and inferior interbody surfaces defining an axial extent of the interbody portion in an axial dimension, each of the first (420 ) and second wings (420 ) being oriented at an oblique angle to the axial extent to reach beyond the superior interbody surface for a distance in the axial dimension ; and wherein the distance by which each of the first and second wings extends beyond the superior interbody surface decreases along an anterior-to-posterior direction.
An aqueous lithium ion secondary battery including an anode , a cathode , and an aqueous electrolyte solution , the anode comprising an anode active material composite of an anode active material and polytetrafluoroethylene , wherein the polytetrafluoroethylene is arranged over a surface of the anode active material , the anode active material composite contains 10 mass% to 80 mass% of the anode active material , and 20 mass% to 90 mass% of the polytetrafluoroethylene and peaks of the polytetrafluoroethylene at around 1150 cm -1 and at around 1210 cm -1 are observed in FT-IR measurement of the anode active material composite , but a peak of the polytetrafluoroethylene at around 729 cm -1 is not observed in Raman spectroscopy measurement of the anode active material composite . the anode comprising an anode active material composite of an anode active material and polytetrafluoroethylene , wherein the polytetrafluoroethylene is arranged over a surface of the anode active material , the anode active material composite contains 10 mass% to 80 mass% of the anode active material , and 20 mass% to 90 mass% of the polytetrafluoroethylene and peaks of the polytetrafluoroethylene at around 1150 cm -1 and at around 1210 cm -1 are observed in FT-IR measurement of the anode active material composite , but a peak of the polytetrafluoroethylene at around 729 cm -1 is not observed in Raman spectroscopy measurement of the anode active material composite .
A medical device configured to perform an endovascular therapy, the device comprising: an elongate manipulation member comprising a distal end portion; and an expandable member comprising a proximal end portion and a mesh, the proximal end portion being coupled with the distal end portion of the elongate manipulation member , the mesh having a plurality of cells in a tubular configuration and being compressible to a collapsed configuration for delivery to an endovascular treatment site through a catheter and being self-expandable from the collapsed configuration to an expanded configuration; characterized in that the mesh comprises a structural cathodic metal exposed along an outward-facing surface and an anodic metal covering substantially all of an inward-facing surface of the structural cathodic metal , and the anodic metal and the cathodic metal each forming a fraction of a total surface area of the mesh. an elongate manipulation member comprising a distal end portion; and an expandable member comprising a proximal end portion and a mesh, the proximal end portion being coupled with the distal end portion of the elongate manipulation member , the mesh having a plurality of cells in a tubular configuration and being compressible to a collapsed configuration for delivery to an endovascular treatment site through a catheter and being self-expandable from the collapsed configuration to an expanded configuration; characterized in that the mesh comprises a structural cathodic metal exposed along an outward-facing surface and an anodic metal covering substantially all of an inward-facing surface of the structural cathodic metal , and the anodic metal and the cathodic metal each forming a fraction of a total surface area of the mesh.
An organofluorine coating on a major surface of a substrate, wherein the organofluorine coating has a composition of 5 at% to 15 at% oxygen and 30 at% to 50 at% fluorine, wherein the major surface of the substrate comprises protruding or recessed structures with a density of 10 structures per mm 2 to 10,000 structures per mm 2 , and wherein the coating overlies and conforms to the structures.
A method of wireless communication by a user equipment, UE, comprising: receiving a transmission of at least one of a plurality of first synchronization signals; receiving at least one repeat transmission of the at least one of the plurality of first synchronization signals, wherein the transmission and the at least one repeat transmission are received in a same synchronization signal block, wherein each synchronization signal block corresponds to a respective direction of a beam of a base station ; and receiving at least one of a plurality of second synchronization signals by receiving the at least one of the plurality of second synchronization signals after receiving the transmission of the at least one of the plurality of first synchronization signals and before receiving the at least one repeat transmission of the at least one of the plurality of first synchronization signals. receiving a transmission of at least one of a plurality of first synchronization signals; receiving at least one repeat transmission of the at least one of the plurality of first synchronization signals, wherein the transmission and the at least one repeat transmission are received in a same synchronization signal block, wherein each synchronization signal block corresponds to a respective direction of a beam of a base station ; and receiving at least one of a plurality of second synchronization signals by receiving the at least one of the plurality of second synchronization signals after receiving the transmission of the at least one of the plurality of first synchronization signals and before receiving the at least one repeat transmission of the at least one of the plurality of first synchronization signals.
A device (1a..1i) for destroying a casting core of a cast workpiece and/or for removing parts of a casting core adhering to the workpiece , wherein the device (1a..1i) comprises at least one hammer, wherein the at least one hammer is a hydraulic hammer (2, 2a..2f), wherein a clamping device for a workpiece is formed, said clamping device being arranged in the effective region of the at least one hydraulic hammer (2, 2a..2f) or being movable there, characterized in that the clamping device is coupled to a vibrator device or is arranged thereon, and that the clamping device is mounted so as to be rotatable about a horizontal axis of rotation (D), wherein the device (1a..1i) is designed such that the workpiece can be simultaneously rotated, caused to vibrate and processed using the at least one hydraulic hammer (2, 2a..2f).
Shoe for a human foot, comprising an outsole which is disposed on the lower side of the shoe, a shoe body which for receiving the foot is disposed above the outsole , and a bearing face for the lower side of the foot, wherein the bearing face has a functional portion which is disposed between the rear end of the bearing face and a ball of the foot region of the bearing face , wherein, when a first sub-region of the functional portion is under stress, a second sub-region of the functional portion is displaced upwards relative to the shoe body , characterized in that the shoe has an intermediate sole which in the second sub-region of the functional portion has an elastic material , wherein the elastic material is capable of expanding more in the longitudinal direction than in the transverse direction.
A composition comprising an engineered transferrin-binding peptide, wherein the engineered transferrin-binding peptide comprises a sequence having: a) at least 90% sequence identity with SEQ ID NO: 67, or a fragment thereof comprising at least 29 amino acid residues; b) at least 90% sequence identity with any one of SEQ ID NO: 37, SEQ ID NO: 202, SEQ ID NO: 172, or SEQ ID NO: 171, or a fragment thereof comprising at least 29 amino acid residues; c) at least 90% sequence identity with any one of SEQ ID NO: 32, SEQ ID NO: 2, SEQ ID NO: 167, SEQ ID NO: 137, or SEQ ID NO: 136, or a fragment thereof comprising at least 29 amino acid residues; or d) at least 95% sequence identity with any one of SEQ ID NO: 36, SEQ ID NO: 1, or a fragment thereof comprising at least 29 amino acid residues. a) at least 90% sequence identity with SEQ ID NO: 67, or a fragment thereof comprising at least 29 amino acid residues; b) at least 90% sequence identity with any one of SEQ ID NO: 37, SEQ ID NO: 202, SEQ ID NO: 172, or SEQ ID NO: 171, or a fragment thereof comprising at least 29 amino acid residues; c) at least 90% sequence identity with any one of SEQ ID NO: 32, SEQ ID NO: 2, SEQ ID NO: 167, SEQ ID NO: 137, or SEQ ID NO: 136, or a fragment thereof comprising at least 29 amino acid residues; or d) at least 95% sequence identity with any one of SEQ ID NO: 36, SEQ ID NO: 1, or a fragment thereof comprising at least 29 amino acid residues.
Method for changing the steering characteristics of a steer-by-wire steering system comprising a steering column , a steering actuator and a feedback actuator as a function of a power degradation of the steering actuator , the feedback actuator being set up to apply a steering resistance torque to the steering column , comprising the following steps: Determining a degradation factor representing the power degradation of the steering actuator ; Calculation of an additional steering resistance torque based on the determined degradation factor ; Applying a steering resistance torque to the steering column based on the calculated additional steering resistance torque , taking into account the power degradation of the steering actuator . Determining a degradation factor representing the power degradation of the steering actuator ; Calculation of an additional steering resistance torque based on the determined degradation factor ; Applying a steering resistance torque to the steering column based on the calculated additional steering resistance torque , taking into account the power degradation of the steering actuator .
A compound of Formula (I) which is a compound selected from the group consisting of the following compounds: and or a pharmaceutically acceptable salt form thereof. which is a compound selected from the group consisting of the following compounds: and or a pharmaceutically acceptable salt form thereof.
Composite materials having very high wear resistance and consisting of a cast iron-based alloy incorporating regions at least of hard-substance particles, the hard-substance particles being at least partly surrounded by a binder phase and being at least partly joined to one another via the binder phase, and the binder phase is different from the cast iron-based alloy, and in the cast iron-based alloy there are precipitates of carbon, characterized in that lamelliform or lamellar precipitates of carbon are present solely in the region of the hard-substance particles and/or of the binder phase around the hard-substance particles at a maximum distance from the hard-substance particle surface of 10 mm.