mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for dividing light input into a plurality of light outputs, comprising: a first beam splitter configured to divide the light input into a first part and a second part , a first polarization beam splitter configured to provide from the first part a first polarized part and a second polarized part , wherein the first polarized part is for providing a first output and the second polarized part for providing a second output , at least one polarization altering device configured to alter the polarization of light in the second part , and at least one second polarization beam splitter configured to receive light altered by respective at least one polarization altering device and provide therefrom at least one third polarized part for providing at least one third output (4', 6', 4", 6"); wherein the at least one second polarization beam splitter is configured to provide at least one fourth output (4', 6', 4", 6"), and characterized in that the apparatus comprises at least one light deflecting device configured to direct the light in the second polarized part produced by the first polarization beam splitter , and at least one fourth polarized part (4', 6', 4", 6") produced by the at least one second polarization beam splitter to be in parallel with the first polarized part at the respective outputs of the apparatus. a first beam splitter configured to divide the light input into a first part and a second part , a first polarization beam splitter configured to provide from the first part a first polarized part and a second polarized part , wherein the first polarized part is for providing a first output and the second polarized part for providing a second output , at least one polarization altering device configured to alter the polarization of light in the second part , and at least one second polarization beam splitter configured to receive light altered by respective at least one polarization altering device and provide therefrom at least one third polarized part for providing at least one third output (4', 6', 4", 6"); wherein the at least one second polarization beam splitter is configured to provide at least one fourth output (4', 6', 4", 6"), and characterized in that the apparatus comprises at least one light deflecting device configured to direct the light in the second polarized part produced by the first polarization beam splitter , and at least one fourth polarized part (4', 6', 4", 6") produced by the at least one second polarization beam splitter to be in parallel with the first polarized part at the respective outputs of the apparatus.
An antifouling composition comprising Cu(ETFAA) 2 and one or more biocidal agent selected from the group consisting of copper 2-pyridinethiol-1-oxide (copper pyrithione, CuPT), zinc 2-pyridinethiol-1-oxide (zinc pyrithione, ZnPT), 4,5-dichloro-2-n-octyl-4-isothiazolin-3-one (DCOIT), cuprous oxide (Cu 2 O), zinc oxide (ZnO), 4-bromo-2-(4-chlorophenyl)-5-(trifluoromethyl)-1H-pyrrole-3-carbonitrile (tralopyril), zinc ethane-1,2-diylbis(dithiocarbamate) (zineb), zinc N,N-dimethylcarbamodithioate (ziram), 3-(3,4-dichlorophenyl)-1,1-dimethylurea (diuron), copper(I) thiocyanate (CuSCN), 4-[1-(2,3-dimethylphenyl)ethyl]-1H-imidazole (medetomidine), triazines, fluanids and 2,4,5,6-tetrachloroisophthalonitrile (chlorothalonil).
A system operable to automatically control a vehicle to operate in accordance with a target speed value, the system being further operable automatically to, in dependence at least in part on a determination that a wheel of the axle is rotating faster than another wheel of the axle by more than a prescribed amount: apply a brake to a wheel of an axle to reduce a difference in speed between respective wheels of said axle , and subsequently controlling cross-axle locking means of an axle of the vehicle to cause an increase in resistance to relative rotation of wheels of the axle whilst maintaining controlling the vehicle to operate in accordance with the target speed value. apply a brake to a wheel of an axle to reduce a difference in speed between respective wheels of said axle , and subsequently controlling cross-axle locking means of an axle of the vehicle to cause an increase in resistance to relative rotation of wheels of the axle whilst maintaining controlling the vehicle to operate in accordance with the target speed value.
Method for the analysis of spatial and temporal information of samples by means of optical microscopy, comprising the following steps: a) choosing the field of view in a sample; b) scanning the sample in the axial direction by applying an electrical control signal, such that the electrical signal has a first frequency, to an electrically tunable liquid lens placed in the detection path, performing a sequential acquisition, at a first acquisition frequency which is higher than the first frequency of the electrical signal, of a stack of images placed on different in-focus planes; c) processing the stack of images for identifying the position of one or more regions of interest in the three-dimensional space under examination of the sample; d) scanning the sample in the axial direction by further applying the electrical signal, such that the electrical signal has a second frequency, to the tunable lens, performing a sequential acquisition, at a second acquisition frequency which is lower than the second frequency of the electrical signal, of a temporal series of images with extended depth of field; e) calculating the mean intensity of each region of interest for each image of the temporal series. a) choosing the field of view in a sample; b) scanning the sample in the axial direction by applying an electrical control signal, such that the electrical signal has a first frequency, to an electrically tunable liquid lens placed in the detection path, performing a sequential acquisition, at a first acquisition frequency which is higher than the first frequency of the electrical signal, of a stack of images placed on different in-focus planes; c) processing the stack of images for identifying the position of one or more regions of interest in the three-dimensional space under examination of the sample; d) scanning the sample in the axial direction by further applying the electrical signal, such that the electrical signal has a second frequency, to the tunable lens, performing a sequential acquisition, at a second acquisition frequency which is lower than the second frequency of the electrical signal, of a temporal series of images with extended depth of field; e) calculating the mean intensity of each region of interest for each image of the temporal series.
Electromagnetically excitable coil which is formed in each case by winding at least one electrical conductor which comprises graphene and/or carbon nanotubes, wherein the at least one electrical conductor is designed as a conductor strip, characterized in that the at least one electrical conductor is wound in such a way that its conductor cross section is folded and/or bent over a certain length.
Rotary jet nozzle assembly for pressure cleaning devices, comprising: - a housing extended along a first longitudinal axis (X) between an inlet and an outlet of a washing liquid, defining therein a containment chamber of the washing liquid in fluid communication with the inlet ; - a support rotating within the containment chamber and about the first longitudinal axis (X) due to the effect of the washing liquid coming from the inlet ; - a nozzle body extended along a second longitudinal axis (Y) inclined with respect to the first longitudinal axis (X) and traversed by a delivery duct , the delivery duct opening upstream on the containment chamber and opening downstream in a delivery opening arranged, in use, at the outlet of the housing , the nozzle body being associated with the support and driven in rotation thereby; - wherein said support comprises a turbine hit and driven in rotation by at least a part of the washing liquid coming from the inlet of said housing ; - wherein said housing comprises therein at least one main passage and at least one by-pass passage which connect said inlet to the containment chamber , wherein said at least one main passage and said at least one by-pass passage open to distinct areas of the containment chamber , the sole washing liquid passing through said main passage hitting the turbine and driving it in rotation; characterized in that said support is rotatably mounted on a pin integral to the housing which extends along said first longitudinal axis (X), said turbine comprising a blading which surrounds said pin ; said at least one main passage opening to a first area interposed between said pin and said blading , said at least one by-pass passage opening to a second area arranged between said blading and a side wall of said housing . - a housing extended along a first longitudinal axis (X) between an inlet and an outlet of a washing liquid, defining therein a containment chamber of the washing liquid in fluid communication with the inlet ; - a support rotating within the containment chamber and about the first longitudinal axis (X) due to the effect of the washing liquid coming from the inlet ; - a nozzle body extended along a second longitudinal axis (Y) inclined with respect to the first longitudinal axis (X) and traversed by a delivery duct , the delivery duct opening upstream on the containment chamber and opening downstream in a delivery opening arranged, in use, at the outlet of the housing , the nozzle body being associated with the support and driven in rotation thereby; - wherein said support comprises a turbine hit and driven in rotation by at least a part of the washing liquid coming from the inlet of said housing ; - wherein said housing comprises therein at least one main passage and at least one by-pass passage which connect said inlet to the containment chamber , wherein said at least one main passage and said at least one by-pass passage open to distinct areas of the containment chamber , the sole washing liquid passing through said main passage hitting the turbine and driving it in rotation;
An assembly comprising: a main housing having an internal chamber therein; an electric motor disposed in the internal chamber of the main housing and comprising (i) a stator fixedly positioned in the internal chamber of the main housing , and (ii) a rotor positioned within the stator ; a hydraulic pump positioned in the main housing and at least partially within the rotor of the electric motor , wherein the hydraulic pump is configured to receive fluid from an inlet port and provide fluid flow to an outlet port , wherein the hydraulic pump comprises a pump shaft rotatably coupled to the rotor of the electric motor , wherein the hydraulic pump is a gear pump comprising: (i) a pump housing disposed within the internal chamber of the main housing and at least partially within the rotor , (ii) a pump ring gear disposed within the pump housing , and (iii) a pump pinion coupled to the pump shaft and disposed within the pump ring gear , such that external teeth of the pump pinion are configured to engage with internal teeth of the pump ring gear ; a controller housing coupled to the main housing ; and a motor controller comprising one or more circuit boards disposed within the controller housing and configured to generate electric current to drive the electric motor . a main housing having an internal chamber therein; an electric motor disposed in the internal chamber of the main housing and comprising (i) a stator fixedly positioned in the internal chamber of the main housing , and (ii) a rotor positioned within the stator ; a hydraulic pump positioned in the main housing and at least partially within the rotor of the electric motor , wherein the hydraulic pump is configured to receive fluid from an inlet port and provide fluid flow to an outlet port , wherein the hydraulic pump comprises a pump shaft rotatably coupled to the rotor of the electric motor , wherein the hydraulic pump is a gear pump comprising: (i) a pump housing disposed within the internal chamber of the main housing and at least partially within the rotor , (ii) a pump ring gear disposed within the pump housing , and (iii) a pump pinion coupled to the pump shaft and disposed within the pump ring gear , such that external teeth of the pump pinion are configured to engage with internal teeth of the pump ring gear ; a controller housing coupled to the main housing ; and a motor controller comprising one or more circuit boards disposed within the controller housing and configured to generate electric current to drive the electric motor .
An endoscopic biopsy assembly comprising: a biopsy forceps device, having a movable jaw having: a distal arm and a lever arm , and a stationary jaw having a distal portion and a proximal arm, wherein the movable jaw is pivotally connected to the stationary jaw at a pivot ; a connector; a catheter extending proximally from the movable jaw and the stationary jaw of the biopsy forceps device; a suction device operatively connected to the catheter; a suction tubing disposed within the catheter and distally extending beyond the pivot , wherein the suction tubing is disposed within the movable jaw and the stationary jaw with each jaw in a closed position; and a wire having a distal end connected to the lever arm of the movable jaw and a proximal end connected to an actuation handle , and having a length at least partially disposed within the catheter , such that the wire extends from the actuation handle, through the connector, and into the catheter, characterized in that the lever arm of the moveable jaw is rearward of the pivot when the moveable jaw is closed, wherein movement of the movable jaw in the open direction is prohibited at a fully open position by a ledge on the stationary jaw , and wherein a longitudinal axis of the lever arm is substantially perpendicular to a length of the catheter when the movable jaw contacts the ledge . a biopsy forceps device, having a movable jaw having: a distal arm and a lever arm , and a stationary jaw having a distal portion and a proximal arm, wherein the movable jaw is pivotally connected to the stationary jaw at a pivot ; a distal arm and a lever arm , and a stationary jaw having a distal portion and a proximal arm, wherein the movable jaw is pivotally connected to the stationary jaw at a pivot ; a connector; a catheter extending proximally from the movable jaw and the stationary jaw of the biopsy forceps device; a suction device operatively connected to the catheter; a suction tubing disposed within the catheter and distally extending beyond the pivot , wherein the suction tubing is disposed within the movable jaw and the stationary jaw with each jaw in a closed position; and a wire having a distal end connected to the lever arm of the movable jaw and a proximal end connected to an actuation handle , and having a length at least partially disposed within the catheter , such that the wire extends from the actuation handle, through the connector, and into the catheter, characterized in that the lever arm of the moveable jaw is rearward of the pivot when the moveable jaw is closed, wherein movement of the movable jaw in the open direction is prohibited at a fully open position by a ledge on the stationary jaw , and wherein a longitudinal axis of the lever arm is substantially perpendicular to a length of the catheter when the movable jaw contacts the ledge .
An apparatus (92; 180) for providing therapy to tissue comprising a flexible shaft with a distal end and a proximal end, and a planar therapy structure, wherein the planar therapy structure is coupled with the distal end of the flexible shaft, wherein the planar therapy structure comprises an expansion chamber (104; 182) coupled with the distal end of the flexible shaft, comprising an expansion chamber end wall (106; 184) at a proximal end of the expansion chamber , an inlet (94; 192) to receive a pressurized coolant from a supply line (132; 190), and an outlet (96; 194) to receive a de-pressurized coolant from the expansion chamber (104; 182), and a plurality of openings (108; 188) to provide the pressurized coolant to the expansion chamber (104; 182), wherein the inlet (94; 192) and the outlet (96; 194) pass through the expansion chamber end wall (94; 192), and the plurality of openings (108; 188) are coupled with the inlet (94; 192) and are inside the expansion chamber (104; 182). a flexible shaft with a distal end and a proximal end, and a planar therapy structure, wherein the planar therapy structure is coupled with the distal end of the flexible shaft, wherein the planar therapy structure comprises an expansion chamber (104; 182) coupled with the distal end of the flexible shaft, comprising an expansion chamber end wall (106; 184) at a proximal end of the expansion chamber , an inlet (94; 192) to receive a pressurized coolant from a supply line (132; 190), and an outlet (96; 194) to receive a de-pressurized coolant from the expansion chamber (104; 182), and a plurality of openings (108; 188) to provide the pressurized coolant to the expansion chamber (104; 182), wherein the inlet (94; 192) and the outlet (96; 194) pass through the expansion chamber end wall (94; 192), and the plurality of openings (108; 188) are coupled with the inlet (94; 192) and are inside the expansion chamber (104; 182). an expansion chamber (104; 182) coupled with the distal end of the flexible shaft, comprising an expansion chamber end wall (106; 184) at a proximal end of the expansion chamber , an inlet (94; 192) to receive a pressurized coolant from a supply line (132; 190), and an outlet (96; 194) to receive a de-pressurized coolant from the expansion chamber (104; 182), and an expansion chamber end wall (106; 184) at a proximal end of the expansion chamber , an inlet (94; 192) to receive a pressurized coolant from a supply line (132; 190), and an outlet (96; 194) to receive a de-pressurized coolant from the expansion chamber (104; 182), and a plurality of openings (108; 188) to provide the pressurized coolant to the expansion chamber (104; 182), wherein the inlet (94; 192) and the outlet (96; 194) pass through the expansion chamber end wall (94; 192), and the plurality of openings (108; 188) are coupled with the inlet (94; 192) and are inside the expansion chamber (104; 182).
An electronic device , wherein the electronic device comprises a detection circuit , a conversion circuit , a transmitter , a receiver , a central processing unit, CPU , a charging circuit , and a battery, wherein the detection circuit is configured to detect a value of a voltage between positive and negative electrodes of the battery; the CPU is configured to generate instruction information according to the value of the voltage between the positive and negative electrodes of the battery; the transmitter is configured to send the instruction information to a charger connected to the electronic device , so as to instruct the charger to output an output voltage that has a voltage value being K or K ∗ (1+x%) times the value of the voltage between the positive and negative electrodes of the battery to the conversion circuit via the receiver; the receiver is configured to receive the output voltage and the output current transmitted from the charger, wherein the receiver is electrically connected to the charger; the conversion circuit is configured to: convert the output voltage received by the receiver into 1/K times of the output voltage, and convert an output current received by the receiver into K times of the output current, wherein the conversion circuit is a conversion circuit with a fixed conversion ratio, the conversion coefficient K is a constant value, and K is any real number greater than 1, x is of a range from 1 to 10, and the charging circuit is configured to charge the battery with 1/ K times the output voltage and K times the output current. the detection circuit is configured to detect a value of a voltage between positive and negative electrodes of the battery; the CPU is configured to generate instruction information according to the value of the voltage between the positive and negative electrodes of the battery; the transmitter is configured to send the instruction information to a charger connected to the electronic device , so as to instruct the charger to output an output voltage that has a voltage value being K or K ∗ (1+x%) times the value of the voltage between the positive and negative electrodes of the battery to the conversion circuit via the receiver; the receiver is configured to receive the output voltage and the output current transmitted from the charger, wherein the receiver is electrically connected to the charger; the conversion circuit is configured to: convert the output voltage received by the receiver into 1/K times of the output voltage, and convert an output current received by the receiver into K times of the output current, wherein the conversion circuit is a conversion circuit with a fixed conversion ratio, the conversion coefficient K is a constant value, and K is any real number greater than 1, x is of a range from 1 to 10, and the charging circuit is configured to charge the battery with 1/ K times the output voltage and K times the output current.
An antibody, antibody fragment or binding molecule that binds to trimeric tau and does not bind monomeric tau, fibrillar tau or non-disease associated forms of tau, wherein the antibody, antibody fragment or binding molecule comprises the sequence of SEQ ID NO:1 or SEQ ID NO:9 or a sequence having at least 95% sequence identity to the sequence of SEQ ID NO:1 or SEQ ID NO:9.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving a system information block, SIB, including configuration information on at least one reference signal, RS, resource set; receiving downlink control information, DCI, associated with a paging-radio network temporary identification, P-RNTI, the DCI indicating at least one available RS resource set among the at least one RS resource set; and receiving an RS based on the at least one available RS resource set indicated by the DCI. receiving a system information block, SIB, including configuration information on at least one reference signal, RS, resource set; receiving downlink control information, DCI, associated with a paging-radio network temporary identification, P-RNTI, the DCI indicating at least one available RS resource set among the at least one RS resource set; and receiving an RS based on the at least one available RS resource set indicated by the DCI.