mhurhangee/ep-ind-claims huggingface dataset:
A component transducer for sensing a torque component (Mx, My, Mz); with an element made of piezoelectric crystal material comprises element surfaces, which element comprises element surfaces; wherein a force component (Fx, Fy, Fz) generates electric polarization charges on said element surfaces; wherein the torque component (Mx, My, Mz) to be sensed consists of at least one pair having force components (+Fx, -Fx; +Fy, -Fy; +Fz, -Fz), said components (+Fx, -Fx; +Fy, -Fy; +Fz, -Fz) of a pair having a same axis of action and opposite directions of action; wherein the element senses said force components (+Fx, -Fx; +Fy, -Fy; +Fz, -Fz) of a pair separately; wherein the element consists of element segments (21a, 21b); wherein said element segments (21a, 21b) are arranged with opposite directions of polarization to opposite directions of action of said force components (+Fx, -Fx; +Fy, -Fy; +Fz, -Fz) of a pair so that a first element segment senses a first force component (+Fx, +Fy, +Fz) of the pair; and a second element segment senses a second force component (-Fx, -Fy, -Fz) of the pair; characterized in that the force components (+Fx, -Fx; +Fy, -Fy; +Fz, -Fz) of a pair either are normal force components (+Fz, -Fz) or shear force components (+Fx, -Fx; +Fy, -Fy); wherein the element segments (21a, 21b) are arranged in a plane perpendicular to the axis of action of said normal force components (+Fz, -Fz) or in a plane of the axis of action of the shear force components (+Fx, -Fx; +Fy, - Fy); and wherein the element segments (21a, 21b) sense a longitudinal effect of normal force components (+Fz, -Fz) of a pair, or the element segments (21a, 21b) sense a shear effect of shear force components (+Fx, -Fx; +Fy, -Fy) of a pair.
Non-transitory storage media including computer program instructions which, when executed by a processor, cause the processor to carry out a method for on-line determining an indicator indicative of stress using individual heart beat ECG features of data acquired from an individual subject, comprising: obtaining a data sample of each heart beat individually from the acquired data; calculating a set of fiducial heart beat features from each said data sample of an individual heart beat; classifying each data sample as indicative of stressed or not-stressed, using a pretrained classifier which was previously trained using the same fiducial heart beat features from previously acquired reference data samples each from individual heart beats of said individual subject; and determining the indicator of stress as detected when at least one data sample of an individual heart beat is classified as indicative of stressed, wherein the fiducial heart beat features comprise RT, ST, QR, STc, RR, QRS, QTc, STinterval and QTinterval, and wherein the pretrained classifier is a Linear Support Vector Machine, a Kernel Support Vector Machine (K-SVM), a K-Nearest Neighbor (K-NN), or a Random Forest classifier. obtaining a data sample of each heart beat individually from the acquired data; calculating a set of fiducial heart beat features from each said data sample of an individual heart beat; classifying each data sample as indicative of stressed or not-stressed, using a pretrained classifier which was previously trained using the same fiducial heart beat features from previously acquired reference data samples each from individual heart beats of said individual subject; and determining the indicator of stress as detected when at least one data sample of an individual heart beat is classified as indicative of stressed, wherein the fiducial heart beat features comprise RT, ST, QR, STc, RR, QRS, QTc, STinterval and QTinterval, and wherein the pretrained classifier is a Linear Support Vector Machine, a Kernel Support Vector Machine (K-SVM), a K-Nearest Neighbor (K-NN), or a Random Forest classifier.
An alloy composition for constructing an arc-resistant shield positioned in a vacuum switchgear chamber, the alloy composition comprising: a first. component selected from the group consisting of pure copper, copper alloy, a chemically compatible element to copper, and mixtures thereof; a second component selected from the group consisting of stainless steel, niobium, molybdenum, vanadium, ferrochrome in a form of pre-alloyed powder, carbide, and alloys and mixtures thereof; a melting range of 100°C or greater between a solidus temperature and a liquidus temperature; the solidus temperature of 900°C or greater; a multi-phase microstructure; and an ability to form a smooth surface when rapidly cooled following arc melting, wherein pure chromium is excluded as a component of the alloy composition. a first. component selected from the group consisting of pure copper, copper alloy, a chemically compatible element to copper, and mixtures thereof; a second component selected from the group consisting of stainless steel, niobium, molybdenum, vanadium, ferrochrome in a form of pre-alloyed powder, carbide, and alloys and mixtures thereof; a melting range of 100°C or greater between a solidus temperature and a liquidus temperature; the solidus temperature of 900°C or greater; a multi-phase microstructure; and an ability to form a smooth surface when rapidly cooled following arc melting, wherein pure chromium is excluded as a component of the alloy composition.
A circumferential shroud assembly mounted to a casing, the assembly comprising; a plurality of arcuate shroud segments collectively forming the circumferential shroud, each segment comprising a circumferentially extending wall and a channel extending radially outwardly from the wall, the channel configured to be receivable in a hole passing through the casing and having, at an end distal to the wall, a first connector; a fastener having a head and a shank, the shank configured to be received in the channel and having a second connector configured to engage with the first connector of the channel; characterised in that it further comprises a first spacer configured to receive the channel and a second spacer configured to receive the shank and sit adjacent the head of the fastener, the spacers (8, 9) to be arranged, in use, either side of the casing, and a retainer for holding the first spacer against a radially inwardly facing surface of the casing.
A compound having the structure of Formula: or pharmaceutically acceptable salt, thereof, wherein: X is CH 2 or C; R 1 is -NR 2 R 3; R 2 is-H or-CH 3; R 3 is selected from the group consisting of: X is CH 2 or C; R 1 is -NR 2 R 3; R 2 is-H or-CH 3; R 3 is selected from the group consisting of:
A pyrotechnic composition comprising a fuel, an oxidizer, flow and rate control agents, and oleoresin capsicum, wherein the composition is formed by making a first mixture including the fuel and the oxidiser, making a second mixture including the oleoresin capsicum, blending together the first mixture and the second mixture to form a smoke composition, and drying and granulating the smoke composition.
A portable device for amplifying an axial force applied to a tool comprising: - means for linking the device to a user; - means for guiding the tool in translation along a longitudinal axis; - means for actuating the tool along the longitudinal axis comprising a drum provided with a motor and a rope rigidly connected to the tool and forming at least one turn around the drum; - means for controlling the actuating means for applying an assistance force to the tool in response to an actuating force provided by the user via a control unit; wherein the means for linking to the user and the means for guiding the tool in translation allow the tool to rotate freely about the longitudinal axis and about at least one axis (Z, Y) extending in a plane which is normal to the longitudinal axis. - means for linking the device to a user; - means for guiding the tool in translation along a longitudinal axis; - means for actuating the tool along the longitudinal axis comprising a drum provided with a motor and a rope rigidly connected to the tool and forming at least one turn around the drum; - means for controlling the actuating means for applying an assistance force to the tool in response to an actuating force provided by the user via a control unit;
A system for use in a borehole, comprising: an electric submersible pumping system having a submersible pump powered by a submersible motor coupled with a motor protector; a power cable coupled to the submersible motor; at least one colorimetric sensor comprising a colorimetric array having a given pattern of colors disposed within the electric submersible pumping system to detect a substance indicative of well fluid entering an interior of the submersible motor; a control system for processing data from the at least one sensor; and a communication line connecting the at least one sensor with the control system. an electric submersible pumping system having a submersible pump powered by a submersible motor coupled with a motor protector; a power cable coupled to the submersible motor; at least one colorimetric sensor comprising a colorimetric array having a given pattern of colors disposed within the electric submersible pumping system to detect a substance indicative of well fluid entering an interior of the submersible motor; a control system for processing data from the at least one sensor; and a communication line connecting the at least one sensor with the control system.
An adeno-associated virus vector for forming GABAergic neurons in a striatum of a living mammal's brain comprising (i) a human glial fibrillary acidic protein (GFAP) promoter or a neuron-glial antigen 2 promoter, (ii) a first nucleic acid sequence encoding a NeuroD1 polypeptide having an amino acid sequence with at least 85% sequence identity to the amino acid sequence set forth in SEQ ID NO: 1, and (iii) a second nucleic acid sequence encoding a Dlx2 polypeptide having an amino acid sequence with at least 85% sequence identity to SEQ ID NO: 2. (i) a human glial fibrillary acidic protein (GFAP) promoter or a neuron-glial antigen 2 promoter, (ii) a first nucleic acid sequence encoding a NeuroD1 polypeptide having an amino acid sequence with at least 85% sequence identity to the amino acid sequence set forth in SEQ ID NO: 1, and (iii) a second nucleic acid sequence encoding a Dlx2 polypeptide having an amino acid sequence with at least 85% sequence identity to SEQ ID NO: 2.
A level sensor assembly configured to be inserted in a tank for measuring physical properties indicative of a quality of a urea solution such as AdBlue or DEF, where at least a portion of said level sensor assembly is adapted to be inserted in the urea solution in the tank, said level sensor assembly comprises: - a header unit adapted to be mounted in an aperture of the tank, - heating tubes inserted in the tank for heating or thawing the urea solution in the tank, and one or more tubes for suction of urea solution from the tank, said tubes (20,22) being connected to the header unit, and - a level sensor (24,26) for measuring level of urea solution in the tank, - a detachable urea quality sensor (UQS, 30) is installed in the header unit, said UQS sensor being at least partly submerged in a liquid pool of urea solution in the header unit, characterised in that - the liquid pool in the header unit comprises a compressible and/or expanding bottom, wherein - the bottom comprises one or more elastic cups (34a,34b) made of elastic material, said elastic cups (34a,34b) are expandable during formation of ice in the liquid pool and retractable when the ice melts, or - the bottom comprises one or more elastic cups (34a,34b) made of compressible material, said elastic cups (34a,34b) are compressible during formation of ice in the liquid pool and expandable when the ice melts. - a header unit adapted to be mounted in an aperture of the tank, - heating tubes inserted in the tank for heating or thawing the urea solution in the tank, and one or more tubes for suction of urea solution from the tank, said tubes (20,22) being connected to the header unit, and - a level sensor (24,26) for measuring level of urea solution in the tank, - a detachable urea quality sensor (UQS, 30) is installed in the header unit, said UQS sensor being at least partly submerged in a liquid pool of urea solution in the header unit, characterised in that - the liquid pool in the header unit comprises a compressible and/or expanding bottom, wherein - the bottom comprises one or more elastic cups (34a,34b) made of elastic material, said elastic cups (34a,34b) are expandable during formation of ice in the liquid pool and retractable when the ice melts, or - the bottom comprises one or more elastic cups (34a,34b) made of compressible material, said elastic cups (34a,34b) are compressible during formation of ice in the liquid pool and expandable when the ice melts.
A device for holding tools during an intervention procedure, the device comprising: a holder body in fixed attachment at a distal end of a shape-sensing fiber optic fiber tether, characterized in that the device further comprises: a plurality of tools (22, 40A, 40B, 40C) stored in said holder body, one of the plurality of tools being deployed through and held by said holder body in coupled alignment with said shape-sensing fiber optic fiber. a holder body in fixed attachment at a distal end of a shape-sensing fiber optic fiber tether, characterized in that the device further comprises: a plurality of tools (22, 40A, 40B, 40C) stored in said holder body, one of the plurality of tools being deployed through and held by said holder body in coupled alignment with said shape-sensing fiber optic fiber. a plurality of tools (22, 40A, 40B, 40C) stored in said holder body, one of the plurality of tools being deployed through and held by said holder body in coupled alignment with said shape-sensing fiber optic fiber.
A stanchion for a commercial vehicle superstructure, having a stanchion main body and at least one holding device for a load-securing device, the holding device being fixedly connected to the stanchion main body and having two profile legs arranged parallel to one another, the holding device having a plurality of accommodating means for at least one fixing device of the load-securing device, which are arranged at different height positions of the holding device, characterised in that the accommodating means are formed on or in the profile legs, and wherein two holding devices are provided on opposite sides of the stanchion main body.
A method performed by a network node for linear chirp detection, the method comprising: Obtaining a first number, N, of samples of a signal; Dividing samples into at least a first group and a second group, the first group comprising a second number, D, of the samples of the signal, the second group comprising a third number, N-D, of the samples of the signal; performing a correlation between the first group of samples and the second group of samples to generate a resultant group of samples of the signal, within the resultant group of samples, identifying a peak value in the frequency domain; and based on at least one property associated with the peak value, determining whether there is a linear chirp within the signal. Obtaining a first number, N, of samples of a signal; Dividing samples into at least a first group and a second group, the first group comprising a second number, D, of the samples of the signal, the second group comprising a third number, N-D, of the samples of the signal; performing a correlation between the first group of samples and the second group of samples to generate a resultant group of samples of the signal, within the resultant group of samples, identifying a peak value in the frequency domain; and based on at least one property associated with the peak value, determining whether there is a linear chirp within the signal.
A signal transmission method, applied to a first access network device, comprising: receiving a first quality of service, QoS, parameter and a second QoS parameter from a core network device, wherein an air interface rate required by the first QoS parameter is less than an air interface rate required by the second QoS parameter; and sending a first indication to the core network device, wherein the first indication is used to indicate a QoS parameter selected by the first access network device from the first QoS parameter and the second QoS parameter. receiving a first quality of service, QoS, parameter and a second QoS parameter from a core network device, wherein an air interface rate required by the first QoS parameter is less than an air interface rate required by the second QoS parameter; and sending a first indication to the core network device, wherein the first indication is used to indicate a QoS parameter selected by the first access network device from the first QoS parameter and the second QoS parameter.
A nonaqueous electrolyte secondary battery comprising a positive electrode and a negative electrode comprising at least one negative electrode active material selected from the group consisting of Si, a Si oxide and carbon, wherein the positive electrode comprises a positive electrode active material comprising an oxide capable of absorbing and releasing lithium and a transition metal oxide, the transition metal oxide being represented by Li 2 MO 2 (wherein M is at least one of Cu and Ni) and including a square-planar coordination MO 4 structure, the square-planar coordination MO 4 structure forming a one-dimensional chain which shares an edge formed by two opposing oxygen atoms, wherein a relation Z ≤ Y is satisfied provided that Y represents a first charge capacity of the negative electrode, and Z represents a first charge capacity of the positive electrode, characterized in that a relation 2γ ≤ α is satisfied provided that α represents an amount of Li corresponding to a first irreversible capacity of the negative electrode active material, and γ represents an amount of Li released during a first charge by the transition metal oxide, wherein, with respect to the charge and discharge performance of the negative electrode, the capacitance characteristics are verified between 1.5 V and 0.02 V with a model cell using metallic lithium as a counter electrode, and the value of the first charge capacity thereof is defined as Y, wherein, with respect to the charge and discharge performance of the positive electrode, the capacitance characteristics are verified between 4.3 V and 3.0 V with a model cell using metallic lithium as a counter electrode, and the value of the first charge capacity thereof is defined as Z, wherein, with respect to the charge and discharge performance of the negative electrode active material, the capacitance characteristics are verified between 1.5 V and 0.02 V with a model cell using metallic lithium as a counter electrode, and the irreversible capacity is calculated from the difference between the capacity which can be charged to the negative electrode active material at the first charge and the capacity discharged at the next discharge; and the amount of Li corresponding to the calculated irreversible capacity is defined as α, and wherein, with respect to the γ, the amount of Li released during the first charge of the transition metal oxide represented by Li 2 MO 2 (wherein M = Cu, Ni) is measured by verifying the capacitance characteristics between 4.3 V and 3.0 V with a model cell using metallic lithium as a counter electrode.
A dynamic range compression device comprising: a saturation detection circuit configured to detect saturation of each color data for each pixel depending on whether a value of the each color data for each pixel in a frame image converted from color data corresponding to a first luminance dynamic range to color data corresponding to a second luminance dynamic range exceeds a predetermined saturation value or not; and a data distribution circuit configured to calculate a data amount necessary for a pixel in which saturation is detected to maintain a luminance value in a state of not being saturated and to distribute and output the calculated data amount to other non-saturated color data which is not saturated other than saturated color data in which saturation is detected, in the pixel in which saturation is detected, wherein the data distribution circuit is further configured to calculate the data amount from data corresponding to a difference of the other non-saturated color data up to the predetermined saturation value and distributes the calculated data amount to the other non-saturated color data, and the dynamic range compression device further comprises a blend circuit configured to blend color data of the each pixel of the second luminance dynamic range and color data of the non-saturated color to which the data amount calculated by the data distribution circuit is distributed, for each color of the each pixel based on a set blend parameter. a saturation detection circuit configured to detect saturation of each color data for each pixel depending on whether a value of the each color data for each pixel in a frame image converted from color data corresponding to a first luminance dynamic range to color data corresponding to a second luminance dynamic range exceeds a predetermined saturation value or not; and a data distribution circuit configured to calculate a data amount necessary for a pixel in which saturation is detected to maintain a luminance value in a state of not being saturated and to distribute and output the calculated data amount to other non-saturated color data which is not saturated other than saturated color data in which saturation is detected, in the pixel in which saturation is detected, wherein the data distribution circuit is further configured to calculate the data amount from data corresponding to a difference of the other non-saturated color data up to the predetermined saturation value and distributes the calculated data amount to the other non-saturated color data, and the dynamic range compression device further comprises a blend circuit configured to blend color data of the each pixel of the second luminance dynamic range and color data of the non-saturated color to which the data amount calculated by the data distribution circuit is distributed, for each color of the each pixel based on a set blend parameter.
A method of controlling transmission in a communication network, the method comprising: a communication device (10, 100-1, 100-2) detecting that one or more carriers are free; after expiry of a backoff time period starting when detecting that the one or more carriers are free, the communication device (10, 100-1, 100-2) performing a transmission on the one or more carriers, the transmission being synchronized to start in a same subframe with a further transmission on the one or more carriers by at least one other communication device (10, 100-1, 100-2); and the communication device (10, 100-1, 100-2) receiving control information for synchronizing the transmission with the further transmission. a communication device (10, 100-1, 100-2) detecting that one or more carriers are free; after expiry of a backoff time period starting when detecting that the one or more carriers are free, the communication device (10, 100-1, 100-2) performing a transmission on the one or more carriers, the transmission being synchronized to start in a same subframe with a further transmission on the one or more carriers by at least one other communication device (10, 100-1, 100-2); and the communication device (10, 100-1, 100-2) receiving control information for synchronizing the transmission with the further transmission.