mhurhangee/patent-ind-claim-en huggingface dataset:
An antistatic agent (Z), comprising: a block polymer (A) having a block of a polyamide (a) and a block of a hydrophilic polymer (b) as structure units; and an amide-forming monomer (c), wherein a weight ratio of the amide-forming monomer (c) to the block polymer (A), i.e., amide-forming monomer (c)/block polymer (A), is 2/98 to 12/88. a block polymer (A) having a block of a polyamide (a) and a block of a hydrophilic polymer (b) as structure units; and an amide-forming monomer (c), wherein a weight ratio of the amide-forming monomer (c) to the block polymer (A), i.e., amide-forming monomer (c)/block polymer (A), is 2/98 to 12/88.
An expandable device for treating a nasal, an otic, or a throat condition comprising a drug coating on an external surface thereof, and having a low-profile configuration and an expanded configuration, wherein the drug coating comprises a corticosteroid and an excipient, the excipient comprising a poly(vinyl pyrrolidone), a polysorbate, a poly(ethylene glycol), or a combination thereof, and wherein the external surface is a plasma treated surface that allows transfer of the drug coating to a target tissue site over multiple expansions of the expandable device.
A method comprising: receiving , at a block device interface, an instruction to write data, the instruction comprising a memory location of the data; characterised in that the method further comprises: copying the data to pinned memory; performing , by a vector processor, one or more invertible transforms on the data; and writing the data from the pinned memory to one or more storage devices asynchronously; wherein the pinned memory of the data corresponds to a location in pinned memory, the pinned memory being accessible by the vector processor and one or more other processors. receiving , at a block device interface, an instruction to write data, the instruction comprising a memory location of the data; characterised in that the method further comprises: copying the data to pinned memory; performing , by a vector processor, one or more invertible transforms on the data; and writing the data from the pinned memory to one or more storage devices asynchronously; wherein the pinned memory of the data corresponds to a location in pinned memory, the pinned memory being accessible by the vector processor and one or more other processors. copying the data to pinned memory; performing , by a vector processor, one or more invertible transforms on the data; and writing the data from the pinned memory to one or more storage devices asynchronously; wherein the pinned memory of the data corresponds to a location in pinned memory, the pinned memory being accessible by the vector processor and one or more other processors.
Door of a vehicle comprising a wall intended to come into contact with a body side of the vehicle , the wall extending in a generally vertical and longitudinal plane of extension, the wall having an inner face and an outer face that is connected to the inner face by an end face , the door comprising, on an upper portion of the inner face , a first receiving zone for a primary seal that is arranged at least partially on the perimeter of an opening of the body side intended to be closed by the door and a second receiving zone for a secondary seal that is arranged at least partially on a side roof rail of the body side, the first receiving zone and the second receiving zone extending substantially in a longitudinal direction (L) and at a distance from one another, the door comprising an inter-door seal that extends primarily in a vertical direction (V), the inter-door seal being arranged at least partially on a joining zone between the inner face of the wall and the end face of the door , the door being characterized in that the inter-door seal comprises a tubular portion delimiting therein an internal fluid discharge duct , and in that an upper end of the inter-door seal is arranged between the first receiving zone and the second receiving zone , the upper end delimiting an orifice opening into the internal duct , the upper end of the inter-door seal being scoop-shaped, and in that the inter-door seal comprises a retaining element for the joining zone between the inner face of the wall and the end face of the wall , the inter-door seal comprising a first portion that extends in the vertical direction (V) and bears the retaining element , the first portion forming a stop designed to be in contact with an additional door, and a second portion that extends in the vertical direction (V) and bears the tubular portion of the inter-door seal , the second portion extending at least partially in front of the end face .
Fuel system for a vehicle, where the fuel system comprises a first fuel pump , a second fuel pump and a fuel tank , where the capacity of the first fuel pump is lower than the capacity of the second fuel pump , where the fuel system comprises a first jet pump adapted to transfer fuel from a second chamber of the fuel tank to a first chamber of the fuel tank , characterised in that the second fuel pump is adapted to be engaged to transfer fuel from the second chamber to the first chamber in dependency of a signal from a fuel level sensor, where the flow from the second fuel pump drives the first jet pump .
Device for forming turbulence in a liquid from solid/liquid mixtures, characterized in that it comprises at least one woven fabric of synthetic monofilament formed as a single body by co-molding on at least one face of at least one support of plastic material provided with through holes , in which said woven fabric is incorporated into the thickness of said support thus forming a single body, said co-molding operation being carried out by injecting, under pressure on said woven fabric , the molten polymer forming said support , leaving open the areas of the woven fabric which are located in correspondence with the holes of the support and through which the liquid to be subjected to the formation of turbulence is passed, in which the positioning of the woven fabric meshes with respect to said holes in the support , and therefore the openings for formation of the turbulence, are kept uniform and constant over the entire surface of said device through which the liquid phase passes.
A method for identifying a stx2 gene in a sample, said method comprising: a) contacting said sample with a pair of amplification oligomers, each member of said pair of amplification oligomers having a length of about 15 to about 25 contiguous nucleotides, said pair of amplification oligomers comprising an oligomer pair selected from the group consisting of (i) a first oligomer having at least 90% sequence identity to SEQ ID NO:33 and a second oligomer having at least 90% sequence identity to SEQ ID NO:34; (ii) a first oligomer having at least 90% sequence identity to SEQ ID NO:40 and a second oligomer having at least 90% sequence identity to SEQ ID NO:41; and (iii) a first oligomer having at least 90% sequence identity to SEQ ID NO: 36 and a second oligomer having at least 90% sequence identity to SEQ ID NO: 37; b) amplifying nucleic acid in said sample with said pair of amplification oligomers to obtain an amplification product; and c) determining the sequence of said amplification product or detecting said amplification product using a detection probe. a) contacting said sample with a pair of amplification oligomers, each member of said pair of amplification oligomers having a length of about 15 to about 25 contiguous nucleotides, said pair of amplification oligomers comprising an oligomer pair selected from the group consisting of (i) a first oligomer having at least 90% sequence identity to SEQ ID NO:33 and a second oligomer having at least 90% sequence identity to SEQ ID NO:34; (ii) a first oligomer having at least 90% sequence identity to SEQ ID NO:40 and a second oligomer having at least 90% sequence identity to SEQ ID NO:41; and (iii) a first oligomer having at least 90% sequence identity to SEQ ID NO: 36 and a second oligomer having at least 90% sequence identity to SEQ ID NO: 37; (i) a first oligomer having at least 90% sequence identity to SEQ ID NO:33 and a second oligomer having at least 90% sequence identity to SEQ ID NO:34; (ii) a first oligomer having at least 90% sequence identity to SEQ ID NO:40 and a second oligomer having at least 90% sequence identity to SEQ ID NO:41; and (iii) a first oligomer having at least 90% sequence identity to SEQ ID NO: 36 and a second oligomer having at least 90% sequence identity to SEQ ID NO: 37; b) amplifying nucleic acid in said sample with said pair of amplification oligomers to obtain an amplification product; and c) determining the sequence of said amplification product or detecting said amplification product using a detection probe.
A control system , comprising a processor configured to: receive a first dataset associated with a power properties of a rotating load device (14; 24) coupled to a switching device, wherein the first dataset is received while the rotating load device is rotating, wherein the processor is configured to receive the first dataset by pulsing power to the rotating load device and receiving the first dataset from a sensor ; determine frequency properties based on the power properties; determine a switching profile to control moving a first armature of three armatures in the switching device based on the frequency properties, wherein the switching profile is configured to control movement of the first armature between a first position and a second position, and wherein the switching profile comprises a firing angle for moving the first armature with respect to an electrical waveform, a second armature, and a third armature; and control a current provided to a coil of the switching device based on the switching profile, wherein the coil is configured to cause the first armature to move. determine frequency properties based on the power properties; determine a switching profile to control moving a first armature of three armatures in the switching device based on the frequency properties, wherein the switching profile is configured to control movement of the first armature between a first position and a second position, and wherein the switching profile comprises a firing angle for moving the first armature with respect to an electrical waveform, a second armature, and a third armature; and control a current provided to a coil of the switching device based on the switching profile, wherein the coil is configured to cause the first armature to move.
An ultrasound guidance apparatus (1501; 1502), comprising: at least one processor (1501; 1510) configured to guide capture of an ultrasound image containing a target anatomical view of a subject based on analysis of another ultrasound image; wherein: the at least one processor is configured to obtain an image of an ultrasound device being used by an operator, and generate, using the obtained image of the ultrasound device, an augmented reality interface to guide the operator to capture the ultrasound image containing the target anatomical view; the apparatus further comprises a display (1503; 1508) coupled to the at least one processor and configured to display the augmented reality interface to the operator; and the at least one processor is configured to generate the augmented reality interface at least in part by overlaying at least one instruction indicating how the operator is to reposition the ultrasound device onto the image of the ultrasound device to form a composite image. the at least one processor is configured to obtain an image of an ultrasound device being used by an operator, and generate, using the obtained image of the ultrasound device, an augmented reality interface to guide the operator to capture the ultrasound image containing the target anatomical view; the apparatus further comprises a display (1503; 1508) coupled to the at least one processor and configured to display the augmented reality interface to the operator; and the at least one processor is configured to generate the augmented reality interface at least in part by overlaying at least one instruction indicating how the operator is to reposition the ultrasound device onto the image of the ultrasound device to form a composite image.
An article comprising an elbow comprising at least two sections that are hingedly attached to one another by means of a hinging joint so that the first section can move in a plane with respect to the second section , wherein the sections define a passageway through the elbow through which a dispensing straw can extend where the passageway extends all the way through the two sections and perpendicularly through the hinging joint attaching them, wherein the elbow is characterized by the elbow being movable along a length of a dispensing straw to provide versatility in the dimensions of sections of straw on either side of the elbow .
A sample mounting plate comprising one or more sample mounting spots for mounting a sample thereon, the sample mounting plate comprising: a substrate having a conductive surface formed to be a rough surface; and an insulating film that is layered on the conductive surface of the substrate , at least a surface of the insulating film being insulative, characterized in that the insulating film is formed with a thickness so that the insulating film is formed with gaps due to asperities of the rough surface and the conductive surface of the substrate is partially exposed through the gaps at least in the sample mounting spots . a substrate having a conductive surface formed to be a rough surface; and an insulating film that is layered on the conductive surface of the substrate , at least a surface of the insulating film being insulative, characterized in that the insulating film is formed with a thickness so that the insulating film is formed with gaps due to asperities of the rough surface and the conductive surface of the substrate is partially exposed through the gaps at least in the sample mounting spots .
An antenna structure comprising: a radiating element dielectric substrate and a radiating-element layer comprising patterned conductive material, wherein the patterned conductive material is disposed on the radiating-element dielectric substrate , the patterned conductive material comprising a plurality of patch antennas; a ground layer comprising conductive material; and a feed-line layer comprising conductive material, wherein the feed-line layer is disposed adjacent the ground layer opposite the radiating-element dielectric substrate , wherein the radiating-element dielectric substrate comprises a plurality of thru-holes between the radiating-element layer and the ground layer and characterized in that the radiating-element layer (402; 502) further comprises a plurality of thru-holes connected to the thru-holes of the radiating-element dielectric substrate ( . a radiating element dielectric substrate and a radiating-element layer comprising patterned conductive material, wherein the patterned conductive material is disposed on the radiating-element dielectric substrate , the patterned conductive material comprising a plurality of patch antennas; a ground layer comprising conductive material; and a feed-line layer comprising conductive material, wherein the feed-line layer is disposed adjacent the ground layer opposite the radiating-element dielectric substrate , wherein the radiating-element dielectric substrate comprises a plurality of thru-holes between the radiating-element layer and the ground layer and characterized in that the radiating-element layer (402; 502) further comprises a plurality of thru-holes connected to the thru-holes of the radiating-element dielectric substrate ( .
Wind turbine , comprising a tower , a nacelle which is rotatable connected to the tower , a yaw motor for rotating the nacelle relatively to the tower , a yaw brake which is configured to fix the nacelle relatively to the tower and which is configured to be brought from an open position into a brake position and vice versa, wherein the yaw brake is pre-tensioned into the brake position, a switch which is electrically connected to the yaw motor and the yaw brake and which is configured to be brought from an open state into a closed state and vice versa, wherein, when the switch is brought from the closed state into the open state a power supply to the yaw brake and the yaw motor is interrupted and the yaw brake goes into the brake position by releasing at least partially the pre-tension.
A mobile agricultural planting machine , comprising: ground engaging elements that carry the machine over a field; a valve configured to be controlled with a pulsed control signal, the valve comprising an inlet end configured to be connected to a source of liquid to be applied to the field and an outlet end; a pump pumping the liquid from the source to the valve; and an application assembly comprising: a proximal end connected to the outlet end of the valve ; a distal end through which pulses of the liquid pass to be applied to the field; and a conduit extending between the proximal end and the distal end the conduit comprising: a first hose section comprising a first inner diameter, the first hose section defining a first section of the conduit, characterized in that the conduit further comprises a second hose section comprising a second inner diameter, smaller than the first inner diameter, the second hose section defining a second section of the conduit, the second section of the conduit lengthening the pulses of the liquid. ground engaging elements that carry the machine over a field; a valve configured to be controlled with a pulsed control signal, the valve comprising an inlet end configured to be connected to a source of liquid to be applied to the field and an outlet end; a pump pumping the liquid from the source to the valve; and an application assembly comprising: a proximal end connected to the outlet end of the valve ; a distal end through which pulses of the liquid pass to be applied to the field; and a conduit extending between the proximal end and the distal end the conduit comprising: a first hose section comprising a first inner diameter, the first hose section defining a first section of the conduit, characterized in that the conduit further comprises a second hose section comprising a second inner diameter, smaller than the first inner diameter, the second hose section defining a second section of the conduit, the second section of the conduit lengthening the pulses of the liquid. a proximal end connected to the outlet end of the valve ; a distal end through which pulses of the liquid pass to be applied to the field; and a conduit extending between the proximal end and the distal end the conduit comprising: a first hose section comprising a first inner diameter, the first hose section defining a first section of the conduit, characterized in that the conduit further comprises a second hose section comprising a second inner diameter, smaller than the first inner diameter, the second hose section defining a second section of the conduit, the second section of the conduit lengthening the pulses of the liquid. a first hose section comprising a first inner diameter, the first hose section defining a first section of the conduit, characterized in that the conduit further comprises a second hose section comprising a second inner diameter, smaller than the first inner diameter, the second hose section defining a second section of the conduit, the second section of the conduit lengthening the pulses of the liquid.
A device for driving an endodontic file head of an endodontic device and for operating a remote pump, the device comprising: - a gear for the connection with the endodontic file head ; - a drive shaft for rotating the gear and for rotating at least one magnet ; - a first cylindrical element surrounding the drive shaft ; - a rotatable magnet holding means surrounding the first cylindrical element ; - at least one magnet fixed in the rotatable magnet holding means ; - a coil surrounding the rotatable magnet holding means ; - a second cylindrical element surrounding the coil ; characterized in that the device further comprises - a central processing unit ; - an inner encoder on the central processing unit for measuring the velocity of the drive shaft ; - a transmitter ; - an antenna for sending a signal to a remote pump ;and - at least one sleeve interlinked with the drive shaft for moving the drive shaft by a motorized power handle . - a gear for the connection with the endodontic file head ; - a drive shaft for rotating the gear and for rotating at least one magnet ; - a first cylindrical element surrounding the drive shaft ; - a rotatable magnet holding means surrounding the first cylindrical element ; - at least one magnet fixed in the rotatable magnet holding means ; - a coil surrounding the rotatable magnet holding means ; - a second cylindrical element surrounding the coil ; - a central processing unit ; - an inner encoder on the central processing unit for measuring the velocity of the drive shaft ; - a transmitter ; - an antenna for sending a signal to a remote pump ;and - at least one sleeve interlinked with the drive shaft for moving the drive shaft by a motorized power handle .
Process for preparing an aromatic amine by hydrogenating an aromatic nitro compound, comprising the steps of (I) providing a tetraamminecopper salt-based impregnated catalyst comprising a metal or metal oxide on a support as hydrogenation catalyst, where at least metallic or oxidic copper is present and the molar proportion of Cu based on all metals present is in the range from 0.75 to 1, and where the carrier comprises shaped silicon dioxide bodies or shaped silicon carbide bodies; (II) optionally activating the hydrogenation catalyst by treating with hydrogen in the absence of the aromatic nitro compound; (III) reacting the aromatic nitro compound with hydrogen in the presence of the optionally activated hydrogenation catalyst to obtain the aromatic amine. (I) providing a tetraamminecopper salt-based impregnated catalyst comprising a metal or metal oxide on a support as hydrogenation catalyst, where at least metallic or oxidic copper is present and the molar proportion of Cu based on all metals present is in the range from 0.75 to 1, and where the carrier comprises shaped silicon dioxide bodies or shaped silicon carbide bodies; (II) optionally activating the hydrogenation catalyst by treating with hydrogen in the absence of the aromatic nitro compound; (III) reacting the aromatic nitro compound with hydrogen in the presence of the optionally activated hydrogenation catalyst to obtain the aromatic amine.