mhurhangee/ep-ind-claims huggingface dataset:
Drilling, reaming, milling, or polishing tool (10, 40, 60, 80, 100, 120, 150) for machining workpieces, comprising a basic element with a clamping section (82, 136, 154) and with a tool head (12, 42, 62, 84, 102, 122, 156) that comprises a cutting area having at least one cutting edge (14, 22, 46, 48, 68, 96, 112, 116, 134, 138, 158, 162), where said tool head comprises at least one coolant duct (24, 52, 66, 88, 106, 126, 164) for feeding a cooling and lubricating fluid into said cutting area, characterized in that one or more partial surface sections of said cutting area with any contour shape form at least one hardened area (26, 54, 72, 90, 114, 130, 166) which covers and/or limits said coolant duct (24, 52, 66, 88, 106, 126, 164) and is surface-hardened, such that said partial surface section(s) are formed as thin webs in a flute (20, 50, 70, 98, 110, 132, 160) of the cutting area between the outer face of said tool head (12, 42, 62, 84, 102, 122, 156) and said coolant duct (24, 52, 66, 88, 106, 126, 164), and in the interior a high toughness of the original material is maintained, where the one or more resistant partial surface section(s) of said cooling duct (24, 52, 66, 88, 106, 126, 164) have a higher surface hardness than the other metallic surface areas of said tool head (12, 42, 62, 84, 102, 122, 156).
Brine injection system with a plurality of needles, which are inserted into a product and through which brine is injected into the product, wherein brine which does not end up in the product is collected and recycled, wherein during recycling, the brine flows through a filter, wherein the filter comprises a filter element, along which the unfiltered brine flows and through which the filtered brine (12 passes and which holds back residues in the unfiltered brine, characterized in, that filter element is at least locally curved and that the permeability of the filter element varies with the flow-length of the brine along the filter element.
A control system for controlling operation of a floating wind turbine, the floating wind turbine including a wind turbine generator coupled to a support tower, said control system comprising: an inclination sensor configured to collect wind turbine tower inclination data including an inclination angle and an inclination direction; a processor communicatively coupled to said inclination sensor and configured to receive the wind turbine tower inclination data and to determine at least one operating parameter control value based at least partially on the wind turbine tower inclination data; and a wind direction sensor (50,52) configured to provide wind direction data to said processor, wherein said processor is further configured to adjust wind turbine operation based at least partially on the operating parameter control value, wherein adjusting wind turbine operation comprises adjusting at least one of a blade pitch, a generator torque, and a nacelle yaw based at least partially on the operating parameter control value and the wind direction, wherein adjusting at least one of the blade pitch and the generator torque comprises adjusting the blade pitch and the generator torque when the inclination direction is not perpendicular to the measured wind direction, wherein adjusting the nacelle yaw comprises adjusting the nacelle yaw when the tower inclination direction is neither perpendicular to the measured wind direction nor parallel to the measured wind direction. an inclination sensor configured to collect wind turbine tower inclination data including an inclination angle and an inclination direction; a processor communicatively coupled to said inclination sensor and configured to receive the wind turbine tower inclination data and to determine at least one operating parameter control value based at least partially on the wind turbine tower inclination data; and a wind direction sensor (50,52) configured to provide wind direction data to said processor, wherein said processor is further configured to adjust wind turbine operation based at least partially on the operating parameter control value, wherein adjusting wind turbine operation comprises adjusting at least one of a blade pitch, a generator torque, and a nacelle yaw based at least partially on the operating parameter control value and the wind direction, wherein adjusting at least one of the blade pitch and the generator torque comprises adjusting the blade pitch and the generator torque when the inclination direction is not perpendicular to the measured wind direction, wherein adjusting the nacelle yaw comprises adjusting the nacelle yaw when the tower inclination direction is neither perpendicular to the measured wind direction nor parallel to the measured wind direction.
A method of manufacturing an electrolytic capacitor comprising at least that a) on a porous body at least comprising a porous electrode body of an electrode material, and a dielectric covering the surface of said electrode material, a dispersion A) is applied, which contains at least particles B) of an electrically conductive polythiophene which is optionally substituted, and a dispersant D), the dispersion A) containing water as dispersant D), the polythiophene being a cationic polythiophene, b) and for forming a solid electrolyte which completely or partially covers the dielectric surface, the dispersion agent D) is at least partially removed, characterised in that - for dispersion A) the integral of the viscosity, which is represented as a function of the solids content, in the integration range from 0.4% solids to 5% solids is less than 1500 mPas×%, wherein the viscosity is determined by a rheometer in mPas at 20°C and a shear rate of 100 s -1 and the solids content is determined in percent, and - the particles B) of the conductive polymer in dispersion A) have an average diameter of 1-100 nm. a) on a porous body at least comprising a porous electrode body of an electrode material, and a dielectric covering the surface of said electrode material, a dispersion A) is applied, which contains at least particles B) of an electrically conductive polythiophene which is optionally substituted, and a dispersant D), the dispersion A) containing water as dispersant D), the polythiophene being a cationic polythiophene, b) and for forming a solid electrolyte which completely or partially covers the dielectric surface, the dispersion agent D) is at least partially removed, characterised in that - for dispersion A) the integral of the viscosity, which is represented as a function of the solids content, in the integration range from 0.4% solids to 5% solids is less than 1500 mPas×%, wherein the viscosity is determined by a rheometer in mPas at 20°C and a shear rate of 100 s -1 and the solids content is determined in percent, and - the particles B) of the conductive polymer in dispersion A) have an average diameter of 1-100 nm. - for dispersion A) the integral of the viscosity, which is represented as a function of the solids content, in the integration range from 0.4% solids to 5% solids is less than 1500 mPas×%, wherein the viscosity is determined by a rheometer in mPas at 20°C and a shear rate of 100 s -1 and the solids content is determined in percent, and - the particles B) of the conductive polymer in dispersion A) have an average diameter of 1-100 nm.
An ablation tip electrode assembly comprising: an inner core member having a distal end, a proximal end and a longitudinal axis, wherein the inner core member comprises a thermal insulator having a reduced thermal conductivity; an outer shell surrounding the inner core member, the outer shell having a distal end and a proximal end, wherein the outer shell comprises an electrically conductive material; and an irrigation port in at least one of the inner core member and the outer shell, wherein the inner core member and the outer shell define a space therebetween, and wherein the inner core member includes a channel located on an outer surface of the inner core member, the channel configured to receive a thermal sensor. an inner core member having a distal end, a proximal end and a longitudinal axis, wherein the inner core member comprises a thermal insulator having a reduced thermal conductivity; an outer shell surrounding the inner core member, the outer shell having a distal end and a proximal end, wherein the outer shell comprises an electrically conductive material; and an irrigation port in at least one of the inner core member and the outer shell, wherein the inner core member and the outer shell define a space therebetween, and wherein the inner core member includes a channel located on an outer surface of the inner core member, the channel configured to receive a thermal sensor.
A method comprising: establishing, at a second device, a connection to a first device through a first network; selecting, at the second device, a third device among at least one device which is connected to the first device through a second network different from the first network and is detected through the first device; and transmitting, at the second device, a request to the first device, wherein the request requests that the third device perform a function of the third device. establishing, at a second device, a connection to a first device through a first network; selecting, at the second device, a third device among at least one device which is connected to the first device through a second network different from the first network and is detected through the first device; and transmitting, at the second device, a request to the first device, wherein the request requests that the third device perform a function of the third device.
A high strength hot rolled steel sheet with excellent bendability, which has a composition consisting of, in terms of mass%, C at 0.05 to 0.15%, Si at 0.2 to 1.2%, Mn at 1.0 to 2.0%, P at not more than 0.04%, S at not more than 0.0030%, Al at 0.005 to 0.10%, N at not more than 0.005% and Ti at 0.03 to 0.13%, and optionally one, or two or more selected from Cu at 0.01 to 0.20%, Ni at 0.01 to 0.50%, Nb at 0.005 to 0.10%, V at 0.002 to 0.50%, Mo at 0.02 to 0.50% and Cr at 0.03 to 0.50% and optionally one or both selected from Ca at 0.0003 to 0.005% and REM at 0.0003 to 0.0100%, the balance being Fe and inevitable impurities, includes surface regions having an area fraction of bainite of less than 80% and an area fraction of a ferrite phase with a grain diameter of 2 to 15 μm of not less than 10%, the surface regions extending from front and back surfaces of the steel sheet each to a depth of 1.5 to 3.0% relative to a total sheet thickness, as well as an inner region as the remaining inner portion of the steel sheet other than the surface regions having an area fraction of a bainite phase of more than 95%, and has a tensile strength of not less than 780 MPa.
A high voltage discharge protective device, for an RF device having a signal port, comprising: a blocking capacitor arranged at the signal port of the RF device, the blocking capacitor comprising a main body and two leads, opposite ends of the leads being secured to the main body and a circuit board, the bottom portion of the main body being bare to form an exposed portion, the exposed portion being spaced apart from the circuit board to form an interval; the circuit board for mounting the blocking capacitor; and a metal conductor being grounded and being partially bare; wherein the metal conductor is disposed within the interval and corresponds to the exposed portion of the blocking capacitor, such that when the passing voltage within the blocking capacitor reaches a predetermined value, the exposed portion of the blocking capacitor sparkly discharges to the metal conductor; characterized in that, the blocking capacitor includes a coating layer, two electrodes, and a dielectric medium, the electrodes are secured to opposite sides of the dielectric medium, each of the leads are electrically connected to one of the electrodes, the upper portion of the electrodes and dielectric medium are coated by the coating layer, with the bottom portion of the electrodes and the dielectric medium being exposed. a blocking capacitor arranged at the signal port of the RF device, the blocking capacitor comprising a main body and two leads, opposite ends of the leads being secured to the main body and a circuit board, the bottom portion of the main body being bare to form an exposed portion, the exposed portion being spaced apart from the circuit board to form an interval; the circuit board for mounting the blocking capacitor; and a metal conductor being grounded and being partially bare; wherein the metal conductor is disposed within the interval and corresponds to the exposed portion of the blocking capacitor, such that when the passing voltage within the blocking capacitor reaches a predetermined value, the exposed portion of the blocking capacitor sparkly discharges to the metal conductor; characterized in that, the blocking capacitor includes a coating layer, two electrodes, and a dielectric medium, the electrodes are secured to opposite sides of the dielectric medium, each of the leads are electrically connected to one of the electrodes, the upper portion of the electrodes and dielectric medium are coated by the coating layer, with the bottom portion of the electrodes and the dielectric medium being exposed.
A medical device for applying a cinch to a suture, the medical device comprising: an elongated shaft including a proximal region and a distal region, the distal region defining a lumen having a lumen diameter, and a distally facing end surface; an outer cinch member defining a bore and having an outer surface defining a shoulder, the shoulder having a proximally facing shoulder surface and having a shoulder diameter greater than the lumen diameter, wherein the outer cinch member includes a proximal portion that is proximal of the shoulder, the outer cinch member having a first configuration wherein the proximal portion is disposed within the lumen and is engaged with the distal region of the elongate shaft with a frangible bond and a gap is defined between the proximally facing shoulder surface and the distally facing end surface; an elongated inner shaft extending through and longitudinally movable within the lumen and the bore and including a distal end section; and an inner cinch member engaged with the distal end section of the elongated inner shaft, the inner cinch member configured to engage the outer cinch member and including at least a segment configured to fit within the bore. an elongated shaft including a proximal region and a distal region, the distal region defining a lumen having a lumen diameter, and a distally facing end surface; an outer cinch member defining a bore and having an outer surface defining a shoulder, the shoulder having a proximally facing shoulder surface and having a shoulder diameter greater than the lumen diameter, wherein the outer cinch member includes a proximal portion that is proximal of the shoulder, the outer cinch member having a first configuration wherein the proximal portion is disposed within the lumen and is engaged with the distal region of the elongate shaft with a frangible bond and a gap is defined between the proximally facing shoulder surface and the distally facing end surface; an elongated inner shaft extending through and longitudinally movable within the lumen and the bore and including a distal end section; and an inner cinch member engaged with the distal end section of the elongated inner shaft, the inner cinch member configured to engage the outer cinch member and including at least a segment configured to fit within the bore.
A radar antenna device having an antenna arrangement that is accommodated in a housing and is provided with a radar-transparent protective plate for being separated with respect to a furnace atmosphere formed within a furnace chamber, said protective plate being disposed on the housing, characterized in that a radar-transparent limp material layer comprising pores is disposed as a shield at a distance upstream of the protective plate in such a manner that a space which is separated by the material layer is formed with respect to the furnace chamber, a fluid line opening into said space for applying a fluid flow to the material layer.
A combination of Compound A (mirdametinib), or a pharmaceutically acceptable salt form thereof, and Compound B (lifirafenib), or a pharmaceutically acceptable salt form thereof for use in treating a patient having a solid tumor, wherein compound A and compound B are each to be administered in a therapeutically effective amount.
A vibration generation system comprising: a vibrator configured to be fitted to a human body for use; a variable filter configured to extract a signal of a predefined frequency range from an input music signal; a driver configured to drive the vibrator based on the signal of the frequency range extracted by the variable filter; a user operation interface configured to adjust the predefined frequency range and to adjust a time difference between a sound wave of the music signal transmitted to an ear of the human body and the vibration of the music signal transmitted from the vibrator to a bone of the human body; and a frequency determination interface configured to determine the predefined frequency range, based on the music signal. a vibrator configured to be fitted to a human body for use; a variable filter configured to extract a signal of a predefined frequency range from an input music signal; a driver configured to drive the vibrator based on the signal of the frequency range extracted by the variable filter; a user operation interface configured to adjust the predefined frequency range and to adjust a time difference between a sound wave of the music signal transmitted to an ear of the human body and the vibration of the music signal transmitted from the vibrator to a bone of the human body; and a frequency determination interface configured to determine the predefined frequency range, based on the music signal.
A method of making a multiple alloy, multi-section welded turbine rotor, characterized in providing a forged multiple alloy rotor section having a monolithic structure, the rotor section comprising a first alloy having a first alloy composition and second alloy having a second alloy composition different from the first alloy composition, a first weld face comprising the first alloy on a first end and a second weld face comprising the second alloy on an opposed second end; providing (120, 130) a first rotor section comprising the first alloy composition and a second rotor section comprising the second alloy composition; welding the first rotor section to the first weld face; and welding the second rotor section to the second weld face.
Lance for a hybrid burner of a combustor of a gas turbine, - having a central inner passage for a liquid fuel, - having an outer passage, coaxially enclosing the inner passage, for a gaseous fuel, - having a plurality of radially arranged outer nozzles branching off radially from the outer passage, - having a plurality of inner nozzles which branch off radially from the inner passage and which each extend coaxially inside one of the outer nozzles, characterized in that a distributor section is arranged upstream of the outer nozzles in the outer passage and has a plurality of radially arranged, coaxially extending through-openings for the gaseous fuel, these through-openings each having an opening width which is larger in the circumferential direction than in the radial direction. - having a central inner passage for a liquid fuel, - having an outer passage, coaxially enclosing the inner passage, for a gaseous fuel, - having a plurality of radially arranged outer nozzles branching off radially from the outer passage, - having a plurality of inner nozzles which branch off radially from the inner passage and which each extend coaxially inside one of the outer nozzles,
A combustor comprising: a first tube which is configured such that fuel and air can be supplied from an opening formed in a distal end thereof; and a second tube to which the fuel and air are supplied from the opening of the first tube, wherein the second tube is configured such that the distal end of the first tube is inserted into an inner circumferential side of a proximal end thereof, wherein the first tube includes a first tube main body and a ring part forming the distal end of the first tube, and the ring part has a main body of a tubular shape and a plurality of protrusions on an outer circumferential surface of the main body and protruding radially outward, characterized in that the plurality of protrusions are integrally formed with the main body on the outer circumferential surface of the main body, and when viewed in an axial direction along an axis of the first tube, the outer circumferential surface of the main body being machined to a polygonal cross-sectional shape within a range within which the protrusions are formed. a first tube which is configured such that fuel and air can be supplied from an opening formed in a distal end thereof; and a second tube to which the fuel and air are supplied from the opening of the first tube, wherein the second tube is configured such that the distal end of the first tube is inserted into an inner circumferential side of a proximal end thereof, wherein the first tube includes a first tube main body and a ring part forming the distal end of the first tube, and the ring part has a main body of a tubular shape and a plurality of protrusions on an outer circumferential surface of the main body and protruding radially outward, characterized in that the plurality of protrusions are integrally formed with the main body on the outer circumferential surface of the main body, and when viewed in an axial direction along an axis of the first tube, the outer circumferential surface of the main body being machined to a polygonal cross-sectional shape within a range within which the protrusions are formed.
A cooking appliance comprising a casing having an upper opening; a grill grid (13,50) arranged in said upper opening of said casing; a heating assembly comprising at least one heating element arranged within said casing, said heating element being connectable to an energy source; and a cooling system (16,25,51,52) comprising a source of cooling fluid (25,30,31,41,41a,41b,51,52) for cooling said grill grid (13,50), characterized in that said grill grid (13,50) comprises a hollow tube assembly (26,28,39,53,54) connectable to said cooling system (16,25,51,52), said hollow tube assembly comprising essentially parallel hollow tubes (26,53) extending between a bottom water tank (25,51) arranged on one side said grill grid (13,50) and a top water tank (25,52) arranged on an opposite side of said grill grid (13,50), said essentially parallel hollow tubes being configured as first tubes which rise from said bottom water tank to said top water tank, and at least two second tubes extend horizontally between said bottom water tank and said top water tank. a casing having an upper opening; a grill grid (13,50) arranged in said upper opening of said casing; a heating assembly comprising at least one heating element arranged within said casing, said heating element being connectable to an energy source; and a cooling system (16,25,51,52) comprising a source of cooling fluid (25,30,31,41,41a,41b,51,52) for cooling said grill grid (13,50), characterized in that said grill grid (13,50) comprises a hollow tube assembly (26,28,39,53,54) connectable to said cooling system (16,25,51,52), said hollow tube assembly comprising essentially parallel hollow tubes (26,53) extending between a bottom water tank (25,51) arranged on one side said grill grid (13,50) and a top water tank (25,52) arranged on an opposite side of said grill grid (13,50), said essentially parallel hollow tubes being configured as first tubes which rise from said bottom water tank to said top water tank, and at least two second tubes extend horizontally between said bottom water tank and said top water tank.