mhurhangee/patent-ind-claim-en huggingface dataset:
A welding-type power supply, comprising: - an input circuit , disposed to receive input power and provide a rectified input; - a dual boost preregulator disposed to receive the rectified input; - a welding-type output power circuit disposed to receive power from a positive bus and a negative bus and provide welding-type output power; and - a controller connected to control the dual boost preregulator ; wherein the controller is connected to control the welding-type output power circuit , and the dual boost preregulator provides bus power to the positive bus and the negative bus. - an input circuit , disposed to receive input power and provide a rectified input; - a dual boost preregulator disposed to receive the rectified input; - a welding-type output power circuit disposed to receive power from a positive bus and a negative bus and provide welding-type output power; and - a controller connected to control the dual boost preregulator ;
Method for estimating a coefficient of friction of a hydraulic brake system in a motor vehicle, comprising the steps: a) setting a braking torque on a wheel or an axle of the motor vehicle by means of an actuator system which has a higher control precision than the hydraulic brake system; b) measuring the deceleration of the wheel or axle induced by the braking torque; c) determining the transmission ratio between the braking torque and the deceleration of the wheel or axle; d) applying a set braking torque to the wheel or axle of the motor vehicle via the hydraulic brake system; e) measuring the deceleration of the wheel or axle induced by the braking torque; f) estimating the actual braking torque on the basis of the inverse of the transmission ratio between the braking torque and the deceleration of the wheel or axle, as determined in step c); g) calculating the actual coefficient of friction of the hydraulic brake system. a) setting a braking torque on a wheel or an axle of the motor vehicle by means of an actuator system which has a higher control precision than the hydraulic brake system; b) measuring the deceleration of the wheel or axle induced by the braking torque; c) determining the transmission ratio between the braking torque and the deceleration of the wheel or axle; d) applying a set braking torque to the wheel or axle of the motor vehicle via the hydraulic brake system; e) measuring the deceleration of the wheel or axle induced by the braking torque; f) estimating the actual braking torque on the basis of the inverse of the transmission ratio between the braking torque and the deceleration of the wheel or axle, as determined in step c); g) calculating the actual coefficient of friction of the hydraulic brake system.
A seal assembly (120; 200; 300; 400) for a nacelle , comprising: a static structure (124; 204; 304; 404); a door (98; 100; 101; 250; 350) configured to translate relative to the static structure (124...404); and a seal (122; 202; 302; 402) disposed in a seal envelope (123; 206; 306; 406) defined, at least, partially by the door (98...350), the seal (122... 402) comprising a compressible material (128; 208; 308; 408), wherein the seal (122... 402) is configured to form a first sealing interface (146; 226; 336; 436) with at least one of a surface (144; 224) of a seal interface section (142; 222) of the static structure (124; 204) or a surface (334; 434) of a radially inward extending wall (330; 430) of the door (250; 350), characterised in that : the door (98... 350) translates to a closed position by translating in a radially inward direction ; and the seal (122... 402) is configured such that a width (W) of the compressible material (128...408) decreases as the door (98...350) translates to the closed position, the width (W) of the compressible material (128... 408) being measured in a direction perpendicular to the radially inward direction of motion of the door (98... 350). a static structure (124; 204; 304; 404); a door (98; 100; 101; 250; 350) configured to translate relative to the static structure (124...404); and a seal (122; 202; 302; 402) disposed in a seal envelope (123; 206; 306; 406) defined, at least, partially by the door (98...350), the seal (122... 402) comprising a compressible material (128; 208; 308; 408), wherein the seal (122... 402) is configured to form a first sealing interface (146; 226; 336; 436) with at least one of a surface (144; 224) of a seal interface section (142; 222) of the static structure (124; 204) or a surface (334; 434) of a radially inward extending wall (330; 430) of the door (250; 350), characterised in that : the door (98... 350) translates to a closed position by translating in a radially inward direction ; and the seal (122... 402) is configured such that a width (W) of the compressible material (128...408) decreases as the door (98...350) translates to the closed position, the width (W) of the compressible material (128... 408) being measured in a direction perpendicular to the radially inward direction of motion of the door (98... 350). the door (98... 350) translates to a closed position by translating in a radially inward direction ; and the seal (122... 402) is configured such that a width (W) of the compressible material (128...408) decreases as the door (98...350) translates to the closed position, the width (W) of the compressible material (128... 408) being measured in a direction perpendicular to the radially inward direction of motion of the door (98... 350).
A method of wireless communication at a base station, capable of millimeter wave, mmWave, communication, comprising: indicating to a plurality of user equipments, UEs , a first waveform via synchronization signal, SS, blocks for a broadcast channel using locations of the SS blocks within a time slot; and indicating to the plurality of UEs a second waveform for at least one signaling channel, via the broadcast channel, wherein the first waveform is same as or different from the second waveform. indicating to a plurality of user equipments, UEs , a first waveform via synchronization signal, SS, blocks for a broadcast channel using locations of the SS blocks within a time slot; and indicating to the plurality of UEs a second waveform for at least one signaling channel, via the broadcast channel, wherein the first waveform is same as or different from the second waveform.
An apparatus for feeding yarn to a textile machine, comprising at least one stack of feeders (F1, F2, F3), each of which is provided with a motorized yarn winding reel adapted to draw the yarn from a spool in order to feed it to a textile machine, said feeders (F1, F2, F3) being all connected electronically on a primary communication channel in order to communicate bidirectionally with a central control unit (CU), characterized in that each one of said feeders (F1, F2, F3) is provided with electronic interconnection means (RXF, TXF) adapted to provide a secondary communication channel which locally interconnects the feeders (F1, F2, F3) of the stack to one another, and is programmed to communicate its own identification code (ID1, ID2, ID3) to the yarn feeder that follows it in the stack by means of said secondary communication channel , said electronic interconnection means being arranged on two opposite interfacing surfaces of said yarn feeder , which are adapted to mutually abut with the yarn feeders in a stacked configuration .
A process of preparing a solid dispersion of decoquinate, comprising the steps of: combining 5% to 30% by weight of decoquinate with 60% to 90% by weight of a polymeric carrier material, and 0% to 10% of a surfactant to form a composition; mixing said composition homogeneously and processing said composition in segmented screws and barrels of a twin-screw extruder with preset temperatures in each segment for pharmaceutical hot melt extrusion and adjusting the melting temperature so that decoquinate is effectively mixed with the polymeric carrier material as an excipient at the molecular level while the thermal decomposition of decoquinate and excipients is avoided; and extruding said composition to form an extrudate wherein said decoquinate in said extrudate is in an amorphous state. combining 5% to 30% by weight of decoquinate with 60% to 90% by weight of a polymeric carrier material, and 0% to 10% of a surfactant to form a composition; mixing said composition homogeneously and processing said composition in segmented screws and barrels of a twin-screw extruder with preset temperatures in each segment for pharmaceutical hot melt extrusion and adjusting the melting temperature so that decoquinate is effectively mixed with the polymeric carrier material as an excipient at the molecular level while the thermal decomposition of decoquinate and excipients is avoided; and extruding said composition to form an extrudate wherein said decoquinate in said extrudate is in an amorphous state.
Method of generating THz radiation, comprising the steps of - generating optical input radiation with an input radiation source device , - irradiating a first conversion crystal device with the optical input radiation, wherein the first conversion crystal device is arranged in a single pass configuration and a multi-line frequency spectrum is provided by the optical input radiation in the first conversion crystal device , and - generating the THz radiation having a THz frequency in the first conversion crystal device in response to the optical input radiation by an optical-to-THz-conversion process including cascaded difference frequency generation using the multi-line frequency spectrum, characterized in that - the multi-line frequency spectrum is self-generated via cascaded optical parametric amplification, wherein - the optical input radiation generated with the input radiation source device comprises a first radiation component and a second radiation component including optical frequencies separated by the THz frequency of the THz radiation to be generated, wherein the first radiation component and the second radiation component irradiate the first conversion crystal device with a mutual spatial and temporal overlap along the beam path through the first conversion crystal device and the multi-line frequency spectrum is provided by beating frequencies derived from the optical frequencies of the first and second radiation components. - generating optical input radiation with an input radiation source device , - irradiating a first conversion crystal device with the optical input radiation, wherein the first conversion crystal device is arranged in a single pass configuration and a multi-line frequency spectrum is provided by the optical input radiation in the first conversion crystal device , and - generating the THz radiation having a THz frequency in the first conversion crystal device in response to the optical input radiation by an optical-to-THz-conversion process including cascaded difference frequency generation using the multi-line frequency spectrum, characterized in that - the multi-line frequency spectrum is self-generated via cascaded optical parametric amplification, wherein - the optical input radiation generated with the input radiation source device comprises a first radiation component and a second radiation component including optical frequencies separated by the THz frequency of the THz radiation to be generated, wherein the first radiation component and the second radiation component irradiate the first conversion crystal device with a mutual spatial and temporal overlap along the beam path through the first conversion crystal device and the multi-line frequency spectrum is provided by beating frequencies derived from the optical frequencies of the first and second radiation components.
A method for distressing an object, the method comprising: suspending polysaccharide particles in a gas, creating a suspension; and projecting the suspension onto a surface of the object; wherein the polysaccharide particles have a Mohs hardness of at least 1.5; and wherein said object is selected from the group consisting of furniture, a fabric and a garment. suspending polysaccharide particles in a gas, creating a suspension; and projecting the suspension onto a surface of the object; wherein the polysaccharide particles have a Mohs hardness of at least 1.5; and wherein said object is selected from the group consisting of furniture, a fabric and a garment.
A process for forming a glass product, the process comprising: providing a containment system; locating a mixture in said containment system, wherein said step of locating said mixture in said containment system comprises the step of locating at least one layer of reinforcement, adapted to mechanically interlock with said mixture when heated; said mixture substantially comprising glass fragments of a size greater than about 3 mm; applying at least one heating process and at least one cooling process to said mixture, wherein the at least one heating process comprises a first heating process of heating said mixture to a soaking temperature being a temperature between 800°C and 950°C such that said glass fragments slump to form the product and so as to form at least one zone of partial devitrification on the product. providing a containment system; locating a mixture in said containment system, wherein said step of locating said mixture in said containment system comprises the step of locating at least one layer of reinforcement, adapted to mechanically interlock with said mixture when heated; said mixture substantially comprising glass fragments of a size greater than about 3 mm; applying at least one heating process and at least one cooling process to said mixture, wherein the at least one heating process comprises a first heating process of heating said mixture to a soaking temperature being a temperature between 800°C and 950°C such that said glass fragments slump to form the product and so as to form at least one zone of partial devitrification on the product.
A photonic measurement system including two or more light sources ; at least two analysis chambers ; a first set of fiber optic cables that guides light produced by the two or more light sources to a selector/mapper ; a second set of fiber optic cables ; said selector/mapper being arranged to bundle optical fibers of the first set of fiber optic cables and to map the optical fibers of each cable of the first set of the fiber optic cables to the fiber optic cables of the second set of fiber optic cables ; said second set of fiber optic cables being arranged to guide the light simultaneously to each of the at least two analysis chambers ; a third set of fiber optic cables that guide light from the respective analysis chambers to a detector ; the detector configured to produce signals corresponding to intensities of light guided to the detector from respective cables of the third set of fiber optic cables; a processing sub-system that processes signals provided by the detector; and a system controller that controls the two or more light sources and the analysis chambers to operate a selected analysis chamber to perform a sample analysis and controls the processing sub-system to process the signals associated with the selected analysis chamber as measurement signals.
A kit for targeted medical imaging and/or therapeutics, comprising at least one Pre-targeting Probe and at least one Effector Probe, wherein the Pre-targeting Probe comprises a Primary Targeting Moiety and a first Bio-orthogonal Reactive Group, and wherein the Effector Probe comprises an Effector Moiety, such as a label or a pharmaceutically active compound, and a second Bio-orthogonal Reactive Group, wherein either of the first and second Bio-orthogonal Reactive Groups is a dienophile and the other of the first and second Bio-orthogonal Reactive Groups is a diene, wherein the dienophile is a trans -cyclooctene moiety, said moiety being an all-carbon monoalkenylene eight-membered ring or a or heterocyclic monoalkenylene eight-membered ring, said trans -cyclooctene moiety comprising, onto the ring, at least two exocyclic bonds fixed in the same plane, and comprising at least one linkage, optionally via a spacer, to the Pre-targeting Probe or the Effector Probe, wherein the at least two exocylic bonds fixed in the same plane are selected from the group consisting of (a) the single bonds of a fused cyclopropyl ring, (b) the single bonds of a fused cyclobutyl ring, (c) the hybridized bonds of a fused aromatic ring, (d) an exocyclic double bond to an oxygen, and (e) an exocyclic double bond to a carbon.
A multi-function tool comprising: a case having a top side, a bottom side, a front side, a back side, a right side, and a left side; a drive ratchet installed in a ratchet cavity formed in the case, the drive ratchet comprising a fitting exposed at the top side of the case and further comprising a toggle switch exposed at the bottom side of the case, wherein manipulation of the toggle switch changes direction of the drive ratchet, and wherein the fitting is configured to receive sockets and a bar extension for the sockets; a threading die held within a die cavity formed in the case, the threading die comprising cutting threads to form or repair external threads; a file attached to the case such that at least a portion of a working surface of the file is exposed; a wrench retaining feature integrally formed in the case, the wrench retaining feature configured to secure a wrench to the case in a removable manner; characterized by a plurality of socket retaining features integrally formed in the case, each of the socket retaining features configured to secure a respective socket to the case in a removable manner; a bar extension retaining feature integrally formed in the case, the bar extension retaining feature configured to secure a bar extension to the case in a removable manner; and a mount arm removably attached to the case, the mount arm configured to hold a mobile device in place on the case in an orientation intended to support a camera function of the mobile device. a case having a top side, a bottom side, a front side, a back side, a right side, and a left side; a drive ratchet installed in a ratchet cavity formed in the case, the drive ratchet comprising a fitting exposed at the top side of the case and further comprising a toggle switch exposed at the bottom side of the case, wherein manipulation of the toggle switch changes direction of the drive ratchet, and wherein the fitting is configured to receive sockets and a bar extension for the sockets; a threading die held within a die cavity formed in the case, the threading die comprising cutting threads to form or repair external threads; a file attached to the case such that at least a portion of a working surface of the file is exposed; a wrench retaining feature integrally formed in the case, the wrench retaining feature configured to secure a wrench to the case in a removable manner; characterized by a plurality of socket retaining features integrally formed in the case, each of the socket retaining features configured to secure a respective socket to the case in a removable manner; a bar extension retaining feature integrally formed in the case, the bar extension retaining feature configured to secure a bar extension to the case in a removable manner; and a mount arm removably attached to the case, the mount arm configured to hold a mobile device in place on the case in an orientation intended to support a camera function of the mobile device.
A cyclin dependent kinase (CDK) inhibitor for use in a method of treating a subject having a squamous cell carcinoma of the head and neck (HNSCC), wherein the method comprises administering to the subject the CDK inhibitor, and wherein the administration is responsive to a determination that the subject is negative for a human papillomavirus HPV (HPV-), and wherein the CDK inhibitor is chosen from Indisulam, AZD5438, SNS-032, SCH 727965, JNJ-7706621, indirubin, Seliciclib, LEE011, LY-2835219, PD 0332991, BAY1000394, ZK-304709, NC381, Milciclib, or ON123300. wherein the administration is responsive to a determination that the subject is negative for a human papillomavirus HPV (HPV-), and wherein the CDK inhibitor is chosen from Indisulam, AZD5438, SNS-032, SCH 727965, JNJ-7706621, indirubin, Seliciclib, LEE011, LY-2835219, PD 0332991, BAY1000394, ZK-304709, NC381, Milciclib, or ON123300.
A binder composition for an electrochemical device comprising: a polymer including a nitrile group-containing monomer unit and an alkylene structural unit; and a group 13 element, wherein the group 13 element is aluminum, and when an iodine value of the polymer, measured according to JIS K6235 , is taken to be I, in units of g/100 g, and the concentration of the group 13 element, measured by ICP atomic emission spectroscopy (ICP-AES), is taken to be M, in units of ppm, a relationship formula: 0.1 ≤ M / I ≤ 150 is satisfied. the group 13 element is aluminum, and when an iodine value of the polymer, measured according to JIS K6235 , is taken to be I, in units of g/100 g, and the concentration of the group 13 element, measured by ICP atomic emission spectroscopy (ICP-AES), is taken to be M, in units of ppm, a relationship formula: 0.1 ≤ M / I ≤ 150 is satisfied.
A biopsy system driver , comprising: a motor having a rotatable output shaft ; a support structure ; a drive shaft rotatably coupled to the support structure , the drive shaft comprising or otherwise being operatively connected to the motor output shaft such that activation of the motor rotates the drive shaft ; an elongate lead screw coupled to the drive shaft such that rotation of the drive shaft rotates the lead screw about an axis of the lead screw ; and a biopsy instrument drive member threadably coupled to the lead screw such that rotation of the lead screw causes axial translation of one of the lead screw and the biopsy instrument drive member relative to the other one and to the support structure , the biopsy instrument drive member comprising an outer cannula drive member and an inner cannula drive member ; characterized in that the biopsy system driver further comprises an elongate cam (60; 200) configured to releasably and operatively couple to the outer cannula drive member and the inner cannula drive member to control axial movement thereof; and the lead screw is axially translatable relative to the drive shaft and to the support structure . a motor having a rotatable output shaft ; a support structure ; a drive shaft rotatably coupled to the support structure , the drive shaft comprising or otherwise being operatively connected to the motor output shaft such that activation of the motor rotates the drive shaft ; an elongate lead screw coupled to the drive shaft such that rotation of the drive shaft rotates the lead screw about an axis of the lead screw ; and a biopsy instrument drive member threadably coupled to the lead screw such that rotation of the lead screw causes axial translation of one of the lead screw and the biopsy instrument drive member relative to the other one and to the support structure , the biopsy instrument drive member comprising an outer cannula drive member and an inner cannula drive member ; characterized in that the biopsy system driver further comprises an elongate cam (60; 200) configured to releasably and operatively couple to the outer cannula drive member and the inner cannula drive member to control axial movement thereof; and the lead screw is axially translatable relative to the drive shaft and to the support structure .