mhurhangee/patent-ind-claim-en huggingface dataset:
A laundry cleaning composition comprising: i. from 0.0010 wt.% to 50 wt.% of at least one cationic polymer selected from the group consisting of poly acrylamidopropyl trimethyl ammonium chloride (PolyAPTAC), polydiallyl dimethyl ammonium chloride (polyDADMAC), copolymers of polyAPTAC, copolymers of polyDADMAC, terpolymers of polyAPTAC, and/or terpolymers of polyDADMAC; ii. from 0.01 wt.% to 50 wt.% of at least one non-ionic surfactant, which is - a linear alkoxylated or aryloxylated alcohol having a carbon chain of 6 to 30 carbon atoms, or - a linear ethoxylated alcohol having a carbon chain length of C 12 to C 15 ; iii. from 0.001 wt.% to 5 wt.% of at least one enzyme; and iv. optionally, from 0.01 wt.% to 25 wt.% of at least one laundry or cleaning additive, wherein said composition is capable of exhibiting color wash fastness and/or color maintenance and exhibits - color maintenance or color wash fastness of 95% to 99% for 3 wash cycles, in either case measured in accordance with ASTM Method D-4265; or - color wash fastness or color maintenance of 97% for 3 wash cycles, in either case measured in accordance with ASTM Method D-4265. i. from 0.0010 wt.% to 50 wt.% of at least one cationic polymer selected from the group consisting of poly acrylamidopropyl trimethyl ammonium chloride (PolyAPTAC), polydiallyl dimethyl ammonium chloride (polyDADMAC), copolymers of polyAPTAC, copolymers of polyDADMAC, terpolymers of polyAPTAC, and/or terpolymers of polyDADMAC; ii. from 0.01 wt.% to 50 wt.% of at least one non-ionic surfactant, which is - a linear alkoxylated or aryloxylated alcohol having a carbon chain of 6 to 30 carbon atoms, or - a linear ethoxylated alcohol having a carbon chain length of C 12 to C 15 ; - a linear alkoxylated or aryloxylated alcohol having a carbon chain of 6 to 30 carbon atoms, or - a linear ethoxylated alcohol having a carbon chain length of C 12 to C 15 ; iii. from 0.001 wt.% to 5 wt.% of at least one enzyme; and iv. optionally, from 0.01 wt.% to 25 wt.% of at least one laundry or cleaning additive, - color maintenance or color wash fastness of 95% to 99% for 3 wash cycles, in either case measured in accordance with ASTM Method D-4265; or - color wash fastness or color maintenance of 97% for 3 wash cycles, in either case measured in accordance with ASTM Method D-4265.
Cutting length display apparatus for an in particular portable power tool (12a; 12b; 12c), having at least one display unit (16a; 16b; 16c), comprising at least one movably mounted display element (14a; 14b; 14c), for displaying at least one position of a cutting edge of a machining tool (18a; 18b; 18c) on a workpiece (20a; 20b; 20c) to be machined in dependence on a set cutting depth of the machining tool (18a; 18b; 18c), characterized by a cable system unit (22a; 22b; 22c), which is provided for changing a pose of the display element (14a; 14b; 14c) in dependence on the set cutting depth of the machining tool (18a; 18b; 18c).
A medical device connector shield , comprising: an elongate hollow cylindrical body that extends along a longitudinal axis (a-a); a distal cap portion that extends along the longitudinal axis (a-a) wherein a proximal end of the distal cap portion is connected to a distal end of the elongate hollow cylindrical body , wherein the distal cap portion includes a distal face and a sidewall extending between the distal face and the proximal end, and a wire management port defined in the distal cap portion and configured such that one or more leads can pass through, characterized in that the wire management port is disposed off-axis with respect to the longitudinal axis (a-a) and is defined in the sidewall of the distal cap portion . an elongate hollow cylindrical body that extends along a longitudinal axis (a-a); a distal cap portion that extends along the longitudinal axis (a-a) wherein a proximal end of the distal cap portion is connected to a distal end of the elongate hollow cylindrical body , wherein the distal cap portion includes a distal face and a sidewall extending between the distal face and the proximal end, and a wire management port defined in the distal cap portion and configured such that one or more leads can pass through, characterized in that the wire management port is disposed off-axis with respect to the longitudinal axis (a-a) and is defined in the sidewall of the distal cap portion .
A method for preparing a compound of formula I, [Chem 1] CH 3 XCH 2 CH 2 C(NH 2 )COOH (I) where X represents S or Se, by catalytic conversion of a compound of formula II [Chem 2] CH 3 XCH 2 CH 2 C(Y)CN (II) where X represents S or Se and Y represents NH 2 or OH, characterized in that , when Y represents NH 2 , the conversion is performed in the presence of water and of at least one catalyst comprising at least alumina, titanium dioxide or a mixture thereof, and when Y represents OH, the conversion is performed in the presence of water, of at least one catalyst comprising at least alumina, titanium dioxide, zirconia or a mixture thereof, and of NH 3 or of an ammonium salt. where X represents S or Se, by catalytic conversion of a compound of formula II [Chem 2] CH 3 XCH 2 CH 2 C(Y)CN (II) where X represents S or Se and Y represents NH 2 or OH, characterized in that , when Y represents NH 2 , the conversion is performed in the presence of water and of at least one catalyst comprising at least alumina, titanium dioxide or a mixture thereof, and when Y represents OH, the conversion is performed in the presence of water, of at least one catalyst comprising at least alumina, titanium dioxide, zirconia or a mixture thereof, and of NH 3 or of an ammonium salt.
A hydraulic unit comprising: a hydraulic pump ; a motor that is configured to drive the hydraulic pump ; an oil cooler that is configured to cool hydraulic oil discharged from the hydraulic pump ; a cooling fan that supplies cooling air to the motor and the oil cooler ; and a shroud that is provided between the cooling fan and the oil cooler , wherein the oil cooler includes a pair of headers , and a heat exchange unit that is provided between the pair of headers ; and a controller that controls the motor , wherein the controller includes a drive circuit that is configured to drive the motor , and heat sink that cools the drive circuit ; characterized in that the controller is disposed adjacent to the motor ; the shroud includes a wall section that covers at least one of the pair of headers : and the shroud includes a guide section that is configured to guide part of the cooling air blown out from the cooling fan toward the heat sink . a hydraulic pump ; a motor that is configured to drive the hydraulic pump ; an oil cooler that is configured to cool hydraulic oil discharged from the hydraulic pump ; a cooling fan that supplies cooling air to the motor and the oil cooler ; and a shroud that is provided between the cooling fan and the oil cooler , wherein the oil cooler includes a pair of headers , and a heat exchange unit that is provided between the pair of headers ; and a controller that controls the motor , wherein the controller includes a drive circuit that is configured to drive the motor , and heat sink that cools the drive circuit ; a drive circuit that is configured to drive the motor , and heat sink that cools the drive circuit ; characterized in that the controller is disposed adjacent to the motor ; the shroud includes a wall section that covers at least one of the pair of headers : and the shroud includes a guide section that is configured to guide part of the cooling air blown out from the cooling fan toward the heat sink .
A curing composition for epoxy resin system, comprising a curing agent component comprising: a first tertiary amine compound represented by the formula: wherein R1 and R2 each comprise an organic functional group having from 1-6 carbon atoms, and R3 comprises an alkyl group, having a backbone of 2-18 carbon atoms; and a second amine compound having one or more primary amine groups, one or more secondary amine groups, or combinations thereof, wherein the stoichiometic ratio of the -NH bonds of the second amine compound to the epoxy groups of the epoxy resin component is from 1:20 to 21:20 and the molar ratio of the second amine compound to the first amine compound is from 0.01:1 to 100:1. a first tertiary amine compound represented by the formula: wherein R1 and R2 each comprise an organic functional group having from 1-6 carbon atoms, and R3 comprises an alkyl group, having a backbone of 2-18 carbon atoms; and a second amine compound having one or more primary amine groups, one or more secondary amine groups, or combinations thereof, wherein the stoichiometic ratio of the -NH bonds of the second amine compound to the epoxy groups of the epoxy resin component is from 1:20 to 21:20 and the molar ratio of the second amine compound to the first amine compound is from 0.01:1 to 100:1.
Method for sealing a building joint by introducing a sealing tape consisting of an at least partially open-celled, elastically recoverable foam material into the building joint, wherein the sealing tape can expand from a compressed state into a partially or fully relaxed state because of the elastic recovery of the foam material and is provided with a means which influences the expansion and wherein to enable or assist the expansion of the sealing tape , a heating element is introduced separately from the sealing tape into the building joint, characterised in that the heating element is formed like a tape and has surface joining means for application in the building joint and is applied to a foam material layer which is separate from the foam material of the sealing element, wherein the heating element has a carrier layer for one or more heating-up elements and is joined to one of the joint walls and the sealing tape has on the underside a self-adhesive layer which is covered by a cover strip , and after removal of the cover strip is adhered directly on the heating element with the self-adhesive layer in the building joint.
A power conversion device, comprising: an AC rotating machine having saliency, and including a multi-phase winding of three phases or more; a DC power supply configured to output a DC voltage; a voltage command calculation part configured to calculate voltage commands based on a control command from an outside for the AC rotating machine; a switching signal generation part configured to output switching signals corresponding to at least two voltage vectors on both sides of an axis having a larger inductance out of d and q axes of the AC rotating machine, and corresponding to the voltage commands; a power conversion part configured to carry out, based on the switching signals, one or both of an operation of converting the DC voltage from the DC power supply to an AC voltage and supplying the AC voltage to the AC rotating machine during a power running operation, and an operation of converting an electromotive force of the AC rotating machine to DC power and supplying the DC power to the DC power supply during a regeneration operation; a current detection part configured to detect a bus current, which is a current flowing between the DC power supply and the power conversion part; and a phase current calculation part configured to calculate, based on the detected bus current, a phase current flowing through the multi-phase winding of the AC rotating machine, wherein the current detection part is configured to detect the bus current when the switching signals corresponding to the at least two voltage vectors are output. an AC rotating machine having saliency, and including a multi-phase winding of three phases or more; a DC power supply configured to output a DC voltage; a voltage command calculation part configured to calculate voltage commands based on a control command from an outside for the AC rotating machine; a switching signal generation part configured to output switching signals corresponding to at least two voltage vectors on both sides of an axis having a larger inductance out of d and q axes of the AC rotating machine, and corresponding to the voltage commands; a power conversion part configured to carry out, based on the switching signals, one or both of an operation of converting the DC voltage from the DC power supply to an AC voltage and supplying the AC voltage to the AC rotating machine during a power running operation, and an operation of converting an electromotive force of the AC rotating machine to DC power and supplying the DC power to the DC power supply during a regeneration operation; a current detection part configured to detect a bus current, which is a current flowing between the DC power supply and the power conversion part; and a phase current calculation part configured to calculate, based on the detected bus current, a phase current flowing through the multi-phase winding of the AC rotating machine, wherein the current detection part is configured to detect the bus current when the switching signals corresponding to the at least two voltage vectors are output.
A sequencing-by-synthesis (SBS) system comprising: a detection apparatus including an array of magnetically-responsive sensors, each of the magnetically-responsive sensors including at least two ferromagnetic layers and a non-magnetic layer that separates the two ferromagnetic layers, each of the magnetically-responsive sensors forming at least one of a giant magnetoresistance (GMR) sensor or a tunnel magnetoresistance (TMR) sensor, the magnetically-responsive sensors being positioned adjacent to corresponding designated spaces within a chamber and configured to detect magnetic particles from the corresponding designated spaces; the detection apparatus including a plurality of nanowells separated by interstitial spaces, wherein the designated spaces comprise a hydrophilic layer within either the nanowells or the interstitial spaces and a plurality of nucleic acid template strand located within the designated spaces; a readout circuit communicatively coupled to the magnetically-responsive sensors, wherein the readout circuit is configured to transmit signals that correspond to electrical resistances of the magnetically-responsive sensors; and a fluidic-control system is configured to flow reagents through the chamber for conducting an SBS protocol, the reagents including a plurality of types of nucleotides, wherein the readout circuit is configured to transmit the signals after each incorporation event. a detection apparatus including an array of magnetically-responsive sensors, each of the magnetically-responsive sensors including at least two ferromagnetic layers and a non-magnetic layer that separates the two ferromagnetic layers, each of the magnetically-responsive sensors forming at least one of a giant magnetoresistance (GMR) sensor or a tunnel magnetoresistance (TMR) sensor, the magnetically-responsive sensors being positioned adjacent to corresponding designated spaces within a chamber and configured to detect magnetic particles from the corresponding designated spaces; the detection apparatus including a plurality of nanowells separated by interstitial spaces, wherein the designated spaces comprise a hydrophilic layer within either the nanowells or the interstitial spaces and a plurality of nucleic acid template strand located within the designated spaces; a readout circuit communicatively coupled to the magnetically-responsive sensors, wherein the readout circuit is configured to transmit signals that correspond to electrical resistances of the magnetically-responsive sensors; and a fluidic-control system is configured to flow reagents through the chamber for conducting an SBS protocol, the reagents including a plurality of types of nucleotides, wherein the readout circuit is configured to transmit the signals after each incorporation event.
A sticker with IC tag comprising: an antenna portion ; and an IC chip coupled to the antenna portion and having a function of communicating through the antenna portion, the sticker with IC tag being installable on a covered container , characterized in that , the sticker with IC tag further comprises a disconnection detection portion , which is constituted by a ring conductor, the disconnection detection portion being installable so as to stretch across both a cover portion and a container body , the IC chip being connected to the disconnection detection portion and having a function of detecting on and off of the disconnection detection portion using the resistance of the disconnection detection circuit other than antenna terminals wherein, the antenna portion comprises an impedance adjustment circuit or a loop circuit for antenna, wherein the impedance adjustment circuit being used for impedance matching of the antenna characteristics, the cover portion being a metal heat shrinkable cap, the sticker with IC tag being installed so that at least a portion of the impedance adjustment circuit or at least a portion of the loop circuit for antenna does not coincide with the metal heat shrinkable cap. the sticker with IC tag further comprises a disconnection detection portion , which is constituted by a ring conductor, the disconnection detection portion being installable so as to stretch across both a cover portion and a container body , the IC chip being connected to the disconnection detection portion and having a function of detecting on and off of the disconnection detection portion using the resistance of the disconnection detection circuit other than antenna terminals wherein, the antenna portion comprises an impedance adjustment circuit or a loop circuit for antenna, wherein the impedance adjustment circuit being used for impedance matching of the antenna characteristics, the cover portion being a metal heat shrinkable cap, the sticker with IC tag being installed so that at least a portion of the impedance adjustment circuit or at least a portion of the loop circuit for antenna does not coincide with the metal heat shrinkable cap.
A method for determining a likelihood of recurrence of renal cell carcinoma for a patient with renal cell carcinoma comprising: (a) measuring, in a renal cell carcinoma sample obtained from the patient, a level of an RNA transcript of at least CCL5; (b) normalizing the level of the RNA transcript of CCL5 to obtain a normalized RNA expression level; and (c) determining a likelihood of recurrence of renal cell carcinoma for the patient based on the normalized expression level of the genes, wherein increased normalized RNA expression level of CCL5 is correlated with a reduced risk of a recurrence of renal cell carcinoma. (a) measuring, in a renal cell carcinoma sample obtained from the patient, a level of an RNA transcript of at least CCL5; (b) normalizing the level of the RNA transcript of CCL5 to obtain a normalized RNA expression level; and (c) determining a likelihood of recurrence of renal cell carcinoma for the patient based on the normalized expression level of the genes,
A workpiece transfer apparatus for a furnace, comprising: a robot comprising an arm and a controller, a carrier attached to the arm and having a placement surface for carrying a workpiece into and/or out of a furnace, a sensor for detecting an arrival of an object at a specific position, the sensor being coupled to the controller, and the controller is configured to: i) cause the robot to move the carrier so that the arrival of the distal end of the carrier at the specific position is detectable by the sensor, ii) determine a droop amount of the distal end of the carrier heated by the furnace on the basis of the position of the carrier at the time when the sensor detects the arrival of the distal end of the carrier at the specific position, iii) determine an adjusted handover position of the carrier on the basis of the determined droop amount of the carrier, the adjusted handover position including at least one of an adjusted height and an adjusted angle of the placement surface of the carrier, and iv) cause the robot to move the carrier to the adjusted handover position for handover of a workpiece. a robot comprising an arm and a controller, a carrier attached to the arm and having a placement surface for carrying a workpiece into and/or out of a furnace, a sensor for detecting an arrival of an object at a specific position, the sensor being coupled to the controller, and the controller is configured to: i) cause the robot to move the carrier so that the arrival of the distal end of the carrier at the specific position is detectable by the sensor, ii) determine a droop amount of the distal end of the carrier heated by the furnace on the basis of the position of the carrier at the time when the sensor detects the arrival of the distal end of the carrier at the specific position, iii) determine an adjusted handover position of the carrier on the basis of the determined droop amount of the carrier, the adjusted handover position including at least one of an adjusted height and an adjusted angle of the placement surface of the carrier, and iv) cause the robot to move the carrier to the adjusted handover position for handover of a workpiece. i) cause the robot to move the carrier so that the arrival of the distal end of the carrier at the specific position is detectable by the sensor, ii) determine a droop amount of the distal end of the carrier heated by the furnace on the basis of the position of the carrier at the time when the sensor detects the arrival of the distal end of the carrier at the specific position, iii) determine an adjusted handover position of the carrier on the basis of the determined droop amount of the carrier, the adjusted handover position including at least one of an adjusted height and an adjusted angle of the placement surface of the carrier, and iv) cause the robot to move the carrier to the adjusted handover position for handover of a workpiece.
Crystalline form 1 of the compound of formula I: wherein, the X-ray powder diffraction pattern of the crystalline form 1 has characteristic peaks at the diffraction angle 2θ of 4.3±0.2°, 8.6±0.2° and 12.9±0.2°, and the X-ray powder diffraction patterns were all measured using Kα spectrum of the Cu target.