mhurhangee/patent-ind-claim-en huggingface dataset:
A control apparatus for a hybrid vehicle, comprising: an engine that transmits motive power to a driving wheel of the vehicle ; a clutch disposed on a power transmission pathbetween the engine and the driving wheel ; an electric motor that transmits motive power to the driving wheel on the driving wheel side with respect to the clutch ; and an arithmetic unit that calculates a first target power before engagement of the clutch upon changeover from a first traveling mode wherein the vehicle is driven by the electric motor to a second traveling mode wherein the vehicle is driven by the engine , the first target power being for driving the vehicle by the engine after the engagement of the clutch , characterised by further comprising an engine controlling unit that controls output motive power of the engine to a second target power before the engagement of the clutch , the second target power being set higher than the first target power calculated by the arithmetic unit . an engine that transmits motive power to a driving wheel of the vehicle ; a clutch disposed on a power transmission pathbetween the engine and the driving wheel ; an electric motor that transmits motive power to the driving wheel on the driving wheel side with respect to the clutch ; and an arithmetic unit that calculates a first target power before engagement of the clutch upon changeover from a first traveling mode wherein the vehicle is driven by the electric motor to a second traveling mode wherein the vehicle is driven by the engine , the first target power being for driving the vehicle by the engine after the engagement of the clutch , characterised by further comprising an engine controlling unit that controls output motive power of the engine to a second target power before the engagement of the clutch , the second target power being set higher than the first target power calculated by the arithmetic unit .
A vehicle wiper blade including at least one wiper rubber intended to come to bear on a glazed surface and at least one bending member housed in a support , the wiper rubber being retained by the support , the bending member being configured to generate a curvature of the wiper blade , the bending member being in the form of a longitudinally extending strip, the strip including, seen in cross section, an intermediate portion disposed between two lateral portions of the strip, the first thickness of the intermediate portion is less than a second thickness of at least one of the lateral portions , the intermediate portion of the bending member being delimited by a first face that has a concave profile seen from the exterior of the bending member , the bending member including at least one transition regularly and progressively disposed between the intermediate portion and at least one of the lateral portions , at least one lateral portion of the bending member including a longitudinal edge surface of the strip, two tops and two chamfers that connect each top to the longitudinal edge surface .
An I/O device comprising a duplex terminal block assembly (120c2), the I/O device having an I/O base with at least two ports (P3, P4) for receiving at least a portion of a terminal block assembly and for supporting at least two I/O modules , wherein the at least two I/O modules include a first I/O module and a second I/O module coupled to the duplex terminal block assembly (120c2) in parallel, the duplex terminal block assembly comprising: a terminal block base portion (TBB1) having connectors for coupling with the I/O base of the I/O device; and a terminal block (TB) extending from the terminal block base portion and having connectors for connecting to an associated field device (FD); wherein the terminal block base portion has a width (W2) that is twice the width (W1) of the terminal block such that it is at least partially received in each of the at least two ports when installed in the I/O base; and wherein the terminal block is centered along the width (W2) of the terminal block base portion and the duplex terminal block assembly (120c2) includes conductive structures for electrically coupling each of the at least two I/O modules in parallel to the connectors, wherein the I/O device comprises a third I/O module and a simplex terminal block assembly (120c1) electrically coupled to the third I/O module, wherein the simplex terminal block assembly has a width that is half the width of the duplex terminal block assembly. a terminal block base portion (TBB1) having connectors for coupling with the I/O base of the I/O device; and a terminal block (TB) extending from the terminal block base portion and having connectors for connecting to an associated field device (FD); wherein the terminal block base portion has a width (W2) that is twice the width (W1) of the terminal block such that it is at least partially received in each of the at least two ports when installed in the I/O base; and wherein the terminal block is centered along the width (W2) of the terminal block base portion and the duplex terminal block assembly (120c2) includes conductive structures for electrically coupling each of the at least two I/O modules in parallel to the connectors, wherein the I/O device comprises a third I/O module and a simplex terminal block assembly (120c1) electrically coupled to the third I/O module, wherein the simplex terminal block assembly has a width that is half the width of the duplex terminal block assembly.
A biopsy site marker, comprising: a carrier and a marker element disposed within the carrier, wherein the carrier includes a first portion, a second portion, and a third portion disposed between the first portion and the second portion, wherein the first portion and the second portion both include a first marker material , wherein the third portion includes a second marker material , characterised in that the first marker material and the second marker material each being configured to expand in the presence of moisture, and that the first marker material is configured to expand at a rapid rate relative to the second marker material in the presence of moisture. the first marker material and the second marker material each being configured to expand in the presence of moisture, and that the first marker material is configured to expand at a rapid rate relative to the second marker material in the presence of moisture.
A method used to control a torque-converting and/or speed-converting variable-speed transmission, which has an input shaft and an output shaft and at least two gear ratios, each of which is assigned at least one changeable gear pair, - wherein shifting elements act on sliding sleeves that are connected to the gear pairs or to the gearwheels of the gear pairs and are able to change these, - wherein the shifting elements are in engagement with a shift drum , which is bringable into defined angular positions and rotatable between these angular positions, - wherein the shift drum is coupled with an electric-motor direct drive , which rotates the shift drum and brings it into the particular defined angular positions in order to change gear ratios, - and wherein, upon activating or deactivating a gear ratio and upon changing gear ratios of the variable-speed transmission, the rotations of the shift drum are coordinated with the particular rotational speeds of the gearwheels to be brought out of or into engagement with the sliding sleeves , - wherein in each case at least the rotational energies of the gearwheels in question and/or of gear pairs in meshing engagement therewith are taken into account at the same time. - wherein shifting elements act on sliding sleeves that are connected to the gear pairs or to the gearwheels of the gear pairs and are able to change these, - wherein the shifting elements are in engagement with a shift drum , which is bringable into defined angular positions and rotatable between these angular positions, - wherein the shift drum is coupled with an electric-motor direct drive , which rotates the shift drum and brings it into the particular defined angular positions in order to change gear ratios, - and wherein, upon activating or deactivating a gear ratio and upon changing gear ratios of the variable-speed transmission, the rotations of the shift drum are coordinated with the particular rotational speeds of the gearwheels to be brought out of or into engagement with the sliding sleeves , - wherein in each case at least the rotational energies of the gearwheels in question and/or of gear pairs in meshing engagement therewith are taken into account at the same time.
A polyolefin composition comprising (A) a polyolefin, (B) carbon black in an amount of 0.25 to 1.0 wt% based on the weight of the polyolefin composition, and (C) an optical brightener in an amount of 0.001 to 0.1 wt% based on the weight of the polyolefin composition. (A) a polyolefin, (B) carbon black in an amount of 0.25 to 1.0 wt% based on the weight of the polyolefin composition, and (C) an optical brightener in an amount of 0.001 to 0.1 wt% based on the weight of the polyolefin composition.
A user equipment comprising: receiving circuitry configured to receive, from a base station apparatus , a radio resource control, RRC, message including first information indicating an index of a downlink bandwidth part, DL BWP, in a primary cell, the receiving circuitry configured to receive, from the base station apparatus , a RRC message comprising second information indicating an index of an uplink bandwidth part, UL BWP, in the primary cell, and transmitting circuitry configured to perform, based on an initiation of a random access procedure, the random access procedure, wherein: in a case that physical random access channel, PRACH, resources are not configured for an active UL BWP in the primary cell, the random access procedure is performed on a DL BWP in the primary cell and an UL BWP in the primary cell, an index of the DL BWP defined as "0", an index of the UL BWP defined as "0", and in a case that PRACH resources are configured for the active UL BWP in the primary cell, the random access procedure is performed on a DL BWP linked with the active UL BWP in the primary cell and the active UL BWP in the primary cell, the DL BWP being linked with the active UL BWP based on the index of the DL BWP indicated by the first information and the index of the UL BWP indicated by the second information. receiving circuitry configured to receive, from a base station apparatus , a radio resource control, RRC, message including first information indicating an index of a downlink bandwidth part, DL BWP, in a primary cell, the receiving circuitry configured to receive, from the base station apparatus , a RRC message comprising second information indicating an index of an uplink bandwidth part, UL BWP, in the primary cell, and transmitting circuitry configured to perform, based on an initiation of a random access procedure, the random access procedure, wherein: in a case that physical random access channel, PRACH, resources are not configured for an active UL BWP in the primary cell, the random access procedure is performed on a DL BWP in the primary cell and an UL BWP in the primary cell, an index of the DL BWP defined as "0", an index of the UL BWP defined as "0", and in a case that PRACH resources are configured for the active UL BWP in the primary cell, the random access procedure is performed on a DL BWP linked with the active UL BWP in the primary cell and the active UL BWP in the primary cell, the DL BWP being linked with the active UL BWP based on the index of the DL BWP indicated by the first information and the index of the UL BWP indicated by the second information.
A process for preparing nanoparticles, comprising at least one bio-resorbable polyester, in the form of a powder with a Z-Average particle size D z in the range of 1 to 450 nm, with a polydispersity index PDI in the range of 0.01 to 0.5, by emulsion-solvent extraction or emulsion-solvent evaporation and application of ultrasonic sound comprising the steps a) to f): a) providing an organic phase (OP), comprising a solvent or a solvent mixture S1, comprising one or more organic solvent(s), comprising 0.1 to 55 % by weight of the at least one bio-resorbable polyester, in a first container, b) providing an aqueous phase (AP), comprising a solvent or solvent mixture S2, comprising water, and an emulsion stabilizing agent, in a second container, c) providing streams of the organic phase (OP) and of the aqueous phase (AP) and joining the streams to a joint stream, d) passing the joint stream through an ultrasonic sound flow-through cell under sonication with a power input of 20 to 50 W per cm 3 joint stream, to result in an emulsion appearing at the outlet of the ultrasonic sound flow-through cell, e) removal of the solvents or solvent mixture(s) S1 and S2 by evaporation or by mixing the emulsion with an excess amount of an aqueous extraction phase (EP) to form a combined phase, resulting in the removal of the solvent or solvent mixture S1 from the emulsion and in the formation of nanoparticles, f) obtaining the nanoparticles comprising the at least one bio-resorbable polyester from the evaporated or from the combined extraction phase by concentration and drying to obtain a polymer powder with a Z-Average particle size D z in the range of 1 to 450 nm and with a polydispersity index PDI in the range of 0.01 to 0.5. a) providing an organic phase (OP), comprising a solvent or a solvent mixture S1, comprising one or more organic solvent(s), comprising 0.1 to 55 % by weight of the at least one bio-resorbable polyester, in a first container, b) providing an aqueous phase (AP), comprising a solvent or solvent mixture S2, comprising water, and an emulsion stabilizing agent, in a second container, c) providing streams of the organic phase (OP) and of the aqueous phase (AP) and joining the streams to a joint stream, d) passing the joint stream through an ultrasonic sound flow-through cell under sonication with a power input of 20 to 50 W per cm 3 joint stream, to result in an emulsion appearing at the outlet of the ultrasonic sound flow-through cell, e) removal of the solvents or solvent mixture(s) S1 and S2 by evaporation or by mixing the emulsion with an excess amount of an aqueous extraction phase (EP) to form a combined phase, resulting in the removal of the solvent or solvent mixture S1 from the emulsion and in the formation of nanoparticles, f) obtaining the nanoparticles comprising the at least one bio-resorbable polyester from the evaporated or from the combined extraction phase by concentration and drying to obtain a polymer powder with a Z-Average particle size D z in the range of 1 to 450 nm and with a polydispersity index PDI in the range of 0.01 to 0.5.
Calibration device for calibrating the measuring means (120-122) of an NO delivery apparatus , said measuring means (120-122) comprising an NO sensor, an NO 2 sensor and an O 2 sensor, said calibration device comprising a gas intake line comprising, arranged in series: - a valve for controlling the circulation of gas in the gas intake line , - a precision regulator configured to deliver a predefined fixed pressure in the gas intake line , - a calibrated orifice device , and - a venturi device comprising a main body defining an internal volume and comprising: • a gas inlet orifice fluidically connected to the calibrated orifice device in order to allow gas from the calibrated orifice device to enter the internal volume , • a gas intake orifice fluidically connected to the atmosphere (A) in order to allow air to enter the internal volume , • an exhaust orifice fluidically connected to the atmosphere (A), for discharging some of the gas contained in the internal volume to the atmosphere (A), and • an outlet port for supplying at least some of the gas contained in the internal volume to an NO delivery apparatus . - a valve for controlling the circulation of gas in the gas intake line , - a precision regulator configured to deliver a predefined fixed pressure in the gas intake line , - a calibrated orifice device , and - a venturi device comprising a main body defining an internal volume and comprising: • a gas inlet orifice fluidically connected to the calibrated orifice device in order to allow gas from the calibrated orifice device to enter the internal volume , • a gas intake orifice fluidically connected to the atmosphere (A) in order to allow air to enter the internal volume , • an exhaust orifice fluidically connected to the atmosphere (A), for discharging some of the gas contained in the internal volume to the atmosphere (A), and • an outlet port for supplying at least some of the gas contained in the internal volume to an NO delivery apparatus . • a gas inlet orifice fluidically connected to the calibrated orifice device in order to allow gas from the calibrated orifice device to enter the internal volume , • a gas intake orifice fluidically connected to the atmosphere (A) in order to allow air to enter the internal volume , • an exhaust orifice fluidically connected to the atmosphere (A), for discharging some of the gas contained in the internal volume to the atmosphere (A), and • an outlet port for supplying at least some of the gas contained in the internal volume to an NO delivery apparatus .
A method of controlling an inkjet printing device comprising one or more print heads each print head comprising a plurality of nozzles, a sensor for detecting printing media deformations located such that printing media travels under said sensor before travelling under the one or more print heads, and a scanner located such that printing media travels under said scanner after travelling under the one or more print heads, the the method comprising the steps of: a) detecting media deformations using the sensor; b) if deformations are detected in the printing media, inhibiting printing; c) if printing is inhibited in step b), sensing a pressure wave in the liquid in the plurality of ducts of the plurality of nozzles of one or more of the print heads , while the printing media travels under the one or more print heads resulting in a plurality of sensed pressure waves; and d) inferring from the plurality of sensed pressure waves which nozzles of the plurality of nozzles enter in contact with the deformed printing media while the printing media travels under the one or more print heads; and e) scanning the parts of the image printed by the nozzles that have been determined in step d) to have entered in contact with the deformed printing media during a subsequent printing of the inhibited printing job. a) detecting media deformations using the sensor; b) if deformations are detected in the printing media, inhibiting printing; c) if printing is inhibited in step b), sensing a pressure wave in the liquid in the plurality of ducts of the plurality of nozzles of one or more of the print heads , while the printing media travels under the one or more print heads resulting in a plurality of sensed pressure waves; and d) inferring from the plurality of sensed pressure waves which nozzles of the plurality of nozzles enter in contact with the deformed printing media while the printing media travels under the one or more print heads; and e) scanning the parts of the image printed by the nozzles that have been determined in step d) to have entered in contact with the deformed printing media during a subsequent printing of the inhibited printing job.
An apparatus for supporting a payload , the apparatus comprising: a payload mount configured to mechanically couple to the payload , wherein the payload mount includes a detection module configured to detect a spatial disposition of the payload ; a first support member coupled to the payload mount and configured to rotate the payload mount relative to the first support member ; and a flexible member electrically coupling the first support member and the payload mount , wherein a length of the flexible member winds around a portion of the first support member or the payload mount , such that the length winds up around the portion when the payload mount is rotated in a first direction and unwinds from the portion when the payload mount is rotated in a second direction; wherein the flexible member is configured to receive data indicative of the spatial disposition of the payload from the detection module for transmission of the data to a controller. a payload mount configured to mechanically couple to the payload , wherein the payload mount includes a detection module configured to detect a spatial disposition of the payload ; a first support member coupled to the payload mount and configured to rotate the payload mount relative to the first support member ; and a flexible member electrically coupling the first support member and the payload mount , wherein a length of the flexible member winds around a portion of the first support member or the payload mount , such that the length winds up around the portion when the payload mount is rotated in a first direction and unwinds from the portion when the payload mount is rotated in a second direction; wherein the flexible member is configured to receive data indicative of the spatial disposition of the payload from the detection module for transmission of the data to a controller.
A dialysate regenerator , comprising: a purification means ; at least one reversible retainer comprising an ion reservoir; a dialysate flow path comprising a dialysate inlet for receiving a dialysate, and a dialysate outlet for dispensing the dialysate; a pump connected to the dialysate flow path and configured to generate a flow of the dialysate from the dialysate inlet via the reversible retainer and the purification means to the dialysate outlet , wherein a direction of the dialysate flow path through the reversible retainer is reversible; characterized in that the at least one reversible retainer is positioned upstream of the purification means in a first direction of the dialysate flow path and positioned downstream of the purification means in a second direction of the dialysate flow path, wherein the second direction of the dialysate flow path through the reversible retainer is reverse to the first direction of the dialysate flow path through the reversible retainer ; or characterized in that the dialysate regenerator comprises a first reversible retainer upstream of the purification means and a second reversible retainer downstream of the purification means . a purification means ; at least one reversible retainer comprising an ion reservoir; a dialysate flow path comprising a dialysate inlet for receiving a dialysate, and a dialysate outlet for dispensing the dialysate; a pump connected to the dialysate flow path and configured to generate a flow of the dialysate from the dialysate inlet via the reversible retainer and the purification means to the dialysate outlet , wherein a direction of the dialysate flow path through the reversible retainer is reversible; characterized in that the at least one reversible retainer is positioned upstream of the purification means in a first direction of the dialysate flow path and positioned downstream of the purification means in a second direction of the dialysate flow path, wherein the second direction of the dialysate flow path through the reversible retainer is reverse to the first direction of the dialysate flow path through the reversible retainer ; or characterized in that the dialysate regenerator comprises a first reversible retainer upstream of the purification means and a second reversible retainer downstream of the purification means .