mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising a processor , a memory , and communication circuitry , the apparatus being connected to a network via its communication circuitry, the apparatus further comprising computer-executable instructions stored in the memory of the apparatus which, when executed by the processor of the apparatus, cause the apparatus to perform operations comprising: upon entering a cell of the network, receiving a first set of system information broadcast within the cell, the first set of system information comprising information for initial access to the network and information concerning availability of at least one other set of system information; storing the received first set of system information in the memory; determining, based on the stored first set of system information, to acquire the at least one other set of system information; sending, to the cell, based on the stored information concerning availability of the at least one other set of system information, a message requesting the at least one other set of system information; and receiving, from the cell, the at least one other set of system information. upon entering a cell of the network, receiving a first set of system information broadcast within the cell, the first set of system information comprising information for initial access to the network and information concerning availability of at least one other set of system information; storing the received first set of system information in the memory; determining, based on the stored first set of system information, to acquire the at least one other set of system information; sending, to the cell, based on the stored information concerning availability of the at least one other set of system information, a message requesting the at least one other set of system information; and receiving, from the cell, the at least one other set of system information.
A concentrated expanded neural stem cell population for use in a method of treating a spasticity, rigidity or muscular hyperactivity condition comprising the introduction of a therapeutically effective amount of said population to at least one area of a recipient spinal cord, wherein said concentrated expanded neural stem cell population is obtainable by a method comprising: a) expanding at least one isolated neural stem cells obtained directly from isolated mammalian tissue in vitro in a dispersed adherent culture to form an expanded population of neural stem cells, wherein expanding the isolated neural stem cells comprises: (i) providing at least one extracellular protein to a culture vessel, wherein the extracellular protein includes 0.1 μg/mL to 1mg/mL of poly-D-lysine and 0.1 μg/mL to 1 mg/ml fibronectin; (ii) culturing the dissociated neural stem cells in said culture vessel in the absence of serum; (iii) adding to the culture vessel at least one growth factor; and (iv) passaging the cultured cells prior to confluence; and b) concentrating the expanded population; wherein: (i) the cell expansion exceeds thirty cell doublings without differentiating; and (ii) the neural stem cells are multipotential, with the capacity to differentiate into neurons, astrocytes or oligodendrocytes. a) expanding at least one isolated neural stem cells obtained directly from isolated mammalian tissue in vitro in a dispersed adherent culture to form an expanded population of neural stem cells, wherein expanding the isolated neural stem cells comprises: (i) providing at least one extracellular protein to a culture vessel, wherein the extracellular protein includes 0.1 μg/mL to 1mg/mL of poly-D-lysine and 0.1 μg/mL to 1 mg/ml fibronectin; (ii) culturing the dissociated neural stem cells in said culture vessel in the absence of serum; (iii) adding to the culture vessel at least one growth factor; and (iv) passaging the cultured cells prior to confluence; and b) concentrating the expanded population; (i) the cell expansion exceeds thirty cell doublings without differentiating; and (ii) the neural stem cells are multipotential, with the capacity to differentiate into neurons, astrocytes or oligodendrocytes.
A method performed by a terminal for transmitting a channel state information, CSI, report in a wireless communication system, the method comprising: receiving, from a base station, information on an uplink subcarrier space size and information on a downlink subcarrier space size; identifying a CSI reference resource in a first downlink slot which precedes a second downlink slot by a time offset, wherein the second downlink slot corresponds to an uplink slot for a CSI reporting; receiving, from the base station, a CSI reference signal, CSI-RS, on the identified CSI reference resource; and transmitting, to the base station on a physical uplink control channel, PUCCH, the CSI report for the received CSI-RS in the uplink slot based on the uplink subcarrier space size, wherein the time offset is a smallest value greater than or equal to a positive integer identified based on the downlink subcarrier space size, in case that the CSI reporting is a periodic CSI reporting. receiving, from a base station, information on an uplink subcarrier space size and information on a downlink subcarrier space size; identifying a CSI reference resource in a first downlink slot which precedes a second downlink slot by a time offset, wherein the second downlink slot corresponds to an uplink slot for a CSI reporting; receiving, from the base station, a CSI reference signal, CSI-RS, on the identified CSI reference resource; and transmitting, to the base station on a physical uplink control channel, PUCCH, the CSI report for the received CSI-RS in the uplink slot based on the uplink subcarrier space size, wherein the time offset is a smallest value greater than or equal to a positive integer identified based on the downlink subcarrier space size, in case that the CSI reporting is a periodic CSI reporting.
A cutter head for excavating hard rock materials in rock face, comprising a carrier that is attachable to a cutter arm of a cutter apparatus , and a drive shaft rotatably supported by the carrier , the drive shaft being rotatable about a drive axis and comprising a support portion for mounting disc cutters; a plurality of disc cutters mounted on the support portion and configured to perform undercutting against the rock face; each disc cutter is rotatable about a respective support axis , the disc cutters are attached on the support portion substantially in a manner that the support axes of the disc cutters extend to intersect with one another at the drive axis at an intersection point and lie within a common conical surface; characterized in that the drive shaft comprising at one end the support portion for mounting disc cutters; wherein the disc cutters are of the same configuration in structure. a carrier that is attachable to a cutter arm of a cutter apparatus , and a drive shaft rotatably supported by the carrier , the drive shaft being rotatable about a drive axis and comprising a support portion for mounting disc cutters; a plurality of disc cutters mounted on the support portion and configured to perform undercutting against the rock face; each disc cutter is rotatable about a respective support axis , the disc cutters are attached on the support portion substantially in a manner that the support axes of the disc cutters extend to intersect with one another at the drive axis at an intersection point and lie within a common conical surface; characterized in that the drive shaft comprising at one end the support portion for mounting disc cutters; wherein the disc cutters are of the same configuration in structure.
A scroll-type fluid machine comprising: a fixed scroll ; an orbiting scroll that faces the fixed scroll and makes orbiting movement; a casing that is provided radially outside of the orbiting scroll ; a drive shaft that drives the orbiting scroll ; an orbiting bearing that supports the drive shaft with respect to the orbiting scroll ; a self-rotation preventing mechanism that prevents self-rotation of the orbiting scroll , and a piping configured to supply lubricant to the orbiting bearing and/or to the self-rotation preventing mechanism said piping having a grease nipple having a proximal end directed to the piping and a distal end opposite to the proximal end, wherein the orbiting scroll is provided with a boss plate that is attached to the drive shaft , wherein said boss plate is provided on a surface of the orbiting scroll on an opposite side of a surface facing the fixed scroll and wherein the piping is provided on the boss plate , characterized in that the distal end of the grease nipple of the piping faces an opening part provided between the casing and the fixed scroll or an opening part provided on the fixed scroll or the casing , wherein the opening part opens in a direction parallel to the boss plate . a fixed scroll ; an orbiting scroll that faces the fixed scroll and makes orbiting movement; a casing that is provided radially outside of the orbiting scroll ; a drive shaft that drives the orbiting scroll ; an orbiting bearing that supports the drive shaft with respect to the orbiting scroll ; a self-rotation preventing mechanism that prevents self-rotation of the orbiting scroll , and a piping configured to supply lubricant to the orbiting bearing and/or to the self-rotation preventing mechanism said piping having a grease nipple having a proximal end directed to the piping and a distal end opposite to the proximal end, wherein the orbiting scroll is provided with a boss plate that is attached to the drive shaft , wherein said boss plate is provided on a surface of the orbiting scroll on an opposite side of a surface facing the fixed scroll and wherein the piping is provided on the boss plate , characterized in that the distal end of the grease nipple of the piping faces an opening part provided between the casing and the fixed scroll or an opening part provided on the fixed scroll or the casing , wherein the opening part opens in a direction parallel to the boss plate .
A secondary battery comprising two or more electrode groups stacked in a first direction, each of the electrode groups comprising negative electrodes and positive electrodes , the negative electrodes and the positive electrodes are alternately stacked in the first direction, each of the negative electrodes comprising a negative electrode tab , each of the positive electrodes comprising a positive electrode tab , wherein the negative electrode tabs of one of the electrode groups and the positive electrode tabs of the other electrode group are arranged in rows in the first direction at one end, in a second direction that intersects with the first direction, of a stack in which the electrode groups are stacked, and the negative electrode tabs of one of the electrode groups and the positive electrode tabs of the other electrode group are electrically connected in series by a connector , and one of the positive electrode tabs of one of the electrode groups and the negative electrode tabs of the other electrode group is disposed at the other end in the second direction, and the other of the positive electrode tabs of one of the electrode groups and the negative electrode tabs of the other electrode group is disposed, at one end in the second direction, at a position different from those of the negative electrode tabs of one of the electrode groups and the positive electrode tabs of the other electrode group that are connected in series, characterized in that each of the electrode groups has one of either the negative electrode tabs or the positive electrode tabs disposed, on an edge in the second direction, in the middle of a third direction that intersects with the first direction and the second direction, and the others of the negative electrode tabs and the positive electrode tabs are respectively disposed at both ends in the third direction on the above edge, and the dimension in the third direction of the tab disposed in the middle is the same as the total dimension in the third direction of a pair of tabs disposed at both ends.
A method of producing a composite animation live captured image sequence, the method comprising: capturing a live action sequence of action scenes with one or a plurality of television or digital video film cameras, which action scenes comprise a stand-in for an animated feature, each live action sequence comprising a plurality of sequential time-coded image frames from a corresponding television or digital video film camera; generating, concurrently with the live action sequence, at least capture configuration data associated with a configuration of the stand-in, the capture configuration data being generated from data from one or more sensors disposed upon the stand-in independently of the capturing of the live action sequence, the capture configuration data being time-coded; generating positioning data associated with the stand-in within each of a plurality of said captured image frames of each live action sequence, wherein the positioning data is particular to the television or digital video film camera from which the data is generated; producing, using at least the capture configuration data and the positioning data, a computer-generated animation (or animated sequence) for combining with the captured image sequence to produce composite image sequence comprising an animated feature in place of the stand-in; and combining the computer-generated animation with the captured image sequence utilizing the positioning data and capture configuration data to locate and configure the animation in each frame of the composite. capturing a live action sequence of action scenes with one or a plurality of television or digital video film cameras, which action scenes comprise a stand-in for an animated feature, each live action sequence comprising a plurality of sequential time-coded image frames from a corresponding television or digital video film camera; generating, concurrently with the live action sequence, at least capture configuration data associated with a configuration of the stand-in, the capture configuration data being generated from data from one or more sensors disposed upon the stand-in independently of the capturing of the live action sequence, the capture configuration data being time-coded; generating positioning data associated with the stand-in within each of a plurality of said captured image frames of each live action sequence, wherein the positioning data is particular to the television or digital video film camera from which the data is generated; producing, using at least the capture configuration data and the positioning data, a computer-generated animation (or animated sequence) for combining with the captured image sequence to produce composite image sequence comprising an animated feature in place of the stand-in; and combining the computer-generated animation with the captured image sequence utilizing the positioning data and capture configuration data to locate and configure the animation in each frame of the composite.
A computer implemented method for operating a control system to form a travelling path for a vehicle , the control system comprising an electronic control unit (ECU) and a first and a second side facing sensor arranged at the vehicle , the first and a second sensor having a non-overlapping field of view , the ECU arranged in communication with the first and a second sensor , wherein the method comprises the steps of: - receiving (S1), at the ECU , a first sequence of data from the first sensor and a corresponding second sequence of data from the second sensor , wherein the first and the second sequence of data from the sensors is arranged as three-dimensional point clouds respectively providing a representation of a left (L) and a right (R) hand side of the vehicle , the method characterized in that it further comprises the steps of: - correlating (S2), by the ECU , the first and the second sequence of data to form a third sequence of data, the third sequence of data providing a 3D representation of an area between first and the second sensor , - selecting (S3), by the ECU , a portion of the third sequence of data representing a traversable area for the vehicle , and - forming (S4), by the ECU , the travelling path for the vehicle based on the selected portion of the third sequence of data. - receiving (S1), at the ECU , a first sequence of data from the first sensor and a corresponding second sequence of data from the second sensor , wherein the first and the second sequence of data from the sensors is arranged as three-dimensional point clouds respectively providing a representation of a left (L) and a right (R) hand side of the vehicle , the method characterized in that it further comprises the steps of: - correlating (S2), by the ECU , the first and the second sequence of data to form a third sequence of data, the third sequence of data providing a 3D representation of an area between first and the second sensor , - selecting (S3), by the ECU , a portion of the third sequence of data representing a traversable area for the vehicle , and - forming (S4), by the ECU , the travelling path for the vehicle based on the selected portion of the third sequence of data.
A baseplate supporting pin, comprising a pin body , wherein the baseplate supporting pin further comprises a heating device built in the pin body , a first control unit electrically connected to the heating device for controlling the heating device ; a temperature sensing device arranged within the pin body for sensing a temperature of a region around the baseplate supporting pin; and a second control unit signalingly coupled to the first control unit and the temperature sensing device respectively, for sending control signals to the first control unit based on temperature signals received from the temperature sensing device so as to control the heating device ; wherein the temperature sensing device is arranged to be adjacent to the top end of the pin body to be contacted, in use, by the baseplate and located at a periphery of the top end.
An eyeglass prescription method, comprising: making a subjective refraction of a person to determine information about the person's vision, wherein making the subjective refraction of the person comprises making a subjective refraction of one or both of the person's eyes and wherein the subjective refraction includes determining a first value for sphere of one or both of the person's eyes; making an objective refraction of the person to determine information about the person's vision, wherein the objective refraction includes determining a second value for sphere of one or both of the person's eyes; calculating a prescription for the person based on the information about the person's vision determined by the subjective refraction and the objective refraction, wherein calculating the prescription comprises determining a prescription value for sphere of one or both of the person's eyes from the first value for sphere of one or both of the person's eyes and the second value for sphere of one or both of the person's eyes, wherein the prescription value for sphere is an average value resulting from the first and second value for sphere or the prescription value for sphere is an average value that includes different weighing of the first and second values for sphere.and outputting the prescription. making a subjective refraction of a person to determine information about the person's vision, wherein making the subjective refraction of the person comprises making a subjective refraction of one or both of the person's eyes and wherein the subjective refraction includes determining a first value for sphere of one or both of the person's eyes; making an objective refraction of the person to determine information about the person's vision, wherein the objective refraction includes determining a second value for sphere of one or both of the person's eyes; calculating a prescription for the person based on the information about the person's vision determined by the subjective refraction and the objective refraction, wherein calculating the prescription comprises determining a prescription value for sphere of one or both of the person's eyes from the first value for sphere of one or both of the person's eyes and the second value for sphere of one or both of the person's eyes, wherein the prescription value for sphere is an average value resulting from the first and second value for sphere or the prescription value for sphere is an average value that includes different weighing of the first and second values for sphere.and outputting the prescription.
A method for precisely positioning and processing textiles or fitting pieces , comprising the following method steps: - supplying by machine or by hand a first oriented and/or positioned fitting piece to a device or a station of the device , - supplying the first fitting piece in a transport direction to a processing station for processing the fitting piece or to a fixing device, where a processing step is performed, - verifying the orientation and/or positioning of the processed fitting piece , with markings of the fitting piece that are provided on the surface of the fitting piece or in the fabric of the fitting piece being detected by sensors and the actual marking course being compared to a marking course setpoint, - determining correction values or correction setpoints and providing a correction setpoint when the actual marking course differs from the marking course setpoint, - transmitting the correction value or the correction setpoint to a correction station , - correcting manually or automatically the orientation of subsequent fitting pieces using the correction station according to the correction values or according to the correction setpoint, with the detected marking course being brought at least approximately in correspondence to the marking course setpoint, - optionally, repeating individual or several method steps. - supplying by machine or by hand a first oriented and/or positioned fitting piece to a device or a station of the device , - supplying the first fitting piece in a transport direction to a processing station for processing the fitting piece or to a fixing device, where a processing step is performed, - verifying the orientation and/or positioning of the processed fitting piece , with markings of the fitting piece that are provided on the surface of the fitting piece or in the fabric of the fitting piece being detected by sensors and the actual marking course being compared to a marking course setpoint, - determining correction values or correction setpoints and providing a correction setpoint when the actual marking course differs from the marking course setpoint, - transmitting the correction value or the correction setpoint to a correction station , - correcting manually or automatically the orientation of subsequent fitting pieces using the correction station according to the correction values or according to the correction setpoint, with the detected marking course being brought at least approximately in correspondence to the marking course setpoint, - optionally, repeating individual or several method steps.