mhurhangee/ep-ind-claims huggingface dataset:
A method for use in a source base station (1002, 1102, 1202) for supporting a handover of a terminal (1001, 1101, 1201) from the source base station (1002, 1102, 1202) to a target base station (1004, 1104, 1204), the method comprising the following steps: Sending, by the source base station (1002, 1102, 1202), to an assisting base station (1003, 1103, 1203), a request for assisting the handover; Receiving, by the source base station (1002, 1102, 1202), in response to the request for assisting, from the assisting base station (1003, 1103, 1203), a configuration of a connection between the terminal (1001, 1101, 1201) and the assisting base station (1003, 1103, 1203), which configuration includes a RRC reconfiguration indication for the terminal (1001, 1101, 1201), Sending, by the source base station (1002, 1102, 1202), the configuration received, from the assisting base station (1003, 1103, 1203), to the terminal (1001, 1101, 1201) for configuration of the connection between the terminal (1001, 1101, 1201) and the assisting base station (1003, 1103, 1203); and Communicating handover control information between the terminal (1001, 1101, 1201) and the source base station (1002, 1102, 1202) via the assisting base station (1003, 1103, 1203). Sending, by the source base station (1002, 1102, 1202), to an assisting base station (1003, 1103, 1203), a request for assisting the handover; Receiving, by the source base station (1002, 1102, 1202), in response to the request for assisting, from the assisting base station (1003, 1103, 1203), a configuration of a connection between the terminal (1001, 1101, 1201) and the assisting base station (1003, 1103, 1203), which configuration includes a RRC reconfiguration indication for the terminal (1001, 1101, 1201), Sending, by the source base station (1002, 1102, 1202), the configuration received, from the assisting base station (1003, 1103, 1203), to the terminal (1001, 1101, 1201) for configuration of the connection between the terminal (1001, 1101, 1201) and the assisting base station (1003, 1103, 1203); and Communicating handover control information between the terminal (1001, 1101, 1201) and the source base station (1002, 1102, 1202) via the assisting base station (1003, 1103, 1203).
A mobile telecommunications terminal with RFID functionality, comprising a telecommunications interface for achieving wireless communication with a communications network; a user interface for the input/output of data from/to a user; a data processing unit for controlling the telecommunications interface, the user interface, and basic functions of the mobile telecommunications terminal; an RFID transponder circuit connected directly to the data processing unit, and an RFID memory unit for storing an activation signal recognition algorithm for recognizing an RFID activation signal, RFID parameter data, and an RFID password data transmission algorithm for transmission of the RFID parameter data, wherein, using the activation signal recognition algorithm and the RFID password data transmission algorithm, the data processing unit activates the RFID transponder circuit in such a way that, in response to the RFID activation signal, the RFID parameter data are sent, and wherein the data processing unit is configured to generate an RFID transponder emulator, together with the RFID transponder circuit, by using the algorithms.
A system for tracking a velocity of an object, comprising: a first tracking device aimed so that a first field of view of the first tracking device covers at least a portion of a target volume (106, 108) into which the object is to be launched from a launch location; and a processor configured to: determine, based on data received from the first tracking device, a velocity value of the object at each of a plurality of time points to generate a velocity curve as a function of time; identify transition points in the velocity curve as points at which a change in one of the velocity value of the object and a derivative of the velocity curve is greater than a set threshold; and separate the velocity curve into a plurality of segments, wherein each segment is identified as one of a bouncing state, a sliding state and a rolling state based in part on a slope of the velocity curve of the segment, wherein the transition points are points at which the object transitions from a first one of the bouncing state and the sliding state to a second one of the bouncing state, the sliding state and a rolling state. a first tracking device aimed so that a first field of view of the first tracking device covers at least a portion of a target volume (106, 108) into which the object is to be launched from a launch location; and a processor configured to: determine, based on data received from the first tracking device, a velocity value of the object at each of a plurality of time points to generate a velocity curve as a function of time; identify transition points in the velocity curve as points at which a change in one of the velocity value of the object and a derivative of the velocity curve is greater than a set threshold; and separate the velocity curve into a plurality of segments, wherein each segment is identified as one of a bouncing state, a sliding state and a rolling state based in part on a slope of the velocity curve of the segment, wherein the transition points are points at which the object transitions from a first one of the bouncing state and the sliding state to a second one of the bouncing state, the sliding state and a rolling state. determine, based on data received from the first tracking device, a velocity value of the object at each of a plurality of time points to generate a velocity curve as a function of time; identify transition points in the velocity curve as points at which a change in one of the velocity value of the object and a derivative of the velocity curve is greater than a set threshold; and separate the velocity curve into a plurality of segments, wherein each segment is identified as one of a bouncing state, a sliding state and a rolling state based in part on a slope of the velocity curve of the segment, wherein the transition points are points at which the object transitions from a first one of the bouncing state and the sliding state to a second one of the bouncing state, the sliding state and a rolling state.
An occlusion device (10, 110, 210, 310) comprising: a microcoil having a relaxed configuration comprising a plurality of open loop portions (18, 18a-f) interposed between a plurality of closed loop portions (16, 16a-g, characterized in that each open loop portion (18, 18a-f) is formed of a plurality of individual open loops. a microcoil having a relaxed configuration comprising a plurality of open loop portions (18, 18a-f) interposed between a plurality of closed loop portions (16, 16a-g, characterized in that each open loop portion (18, 18a-f) is formed of a plurality of individual open loops.
Spacer for triple insulating glazing units comprising at least one polymeric main body comprising a first pane contact surface (2.1) and a second pane contact surface (2.2) running parallel thereto, one first glazing interior surface (3.1), one second glazing interior surface (3.2), and one outer surface, wherein - a groove for accommodating a pane runs parallel to the first pane contact surface (2.1) and the second pane contact surface (2.2) between the first glazing interior surface (3.1) and the second glazing interior surface (3.2), - at least one tongue is situated above the first glazing interior surface (3.1) and/or the second glazing interior surface (3.2), - at least one lateral flank of the groove comprises the tongue, characterized in that - the tongue and the polymeric main body are formed in one piece. - a groove for accommodating a pane runs parallel to the first pane contact surface (2.1) and the second pane contact surface (2.2) between the first glazing interior surface (3.1) and the second glazing interior surface (3.2), - at least one tongue is situated above the first glazing interior surface (3.1) and/or the second glazing interior surface (3.2), - at least one lateral flank of the groove comprises the tongue, - the tongue and the polymeric main body are formed in one piece.
Method for operating a pump assembly having at least one first pump serving a base load and at least one second pump serving a peak load, which is connected up as required and is operated in parallel with the at least one first pump, the pump assembly being controlled to a predefined control characteristic curve (19, 39) in such a way that the power consumed is minimal, characterized in that the pump assembly is operated on the basis of an upper and a lower limiting value (n_o, n_u) of an operating variable (n_sync) either with at least two pumps (2a, 2b) or with at least one pump switched off, wherein, starting from synchronous operation of the pumps (2a, 2b) at an operating point (11, 13) at which the pumps (2a, 2b) are operated with the same rotational speed (n_sync) and/or power, a. in a first step, the value of at least one operating variable (n_sync) of the pump assembly is stored as a reference value (n_ref), b. in a second step, the volume flow delivered by the second pump is reduced, c. in a third step (26, 27), depending on the reaction of the controlled first pump, the operating point (11, 13) is allocated to a load range (15, 16, 17), and d. in a fourth step (31, 32a), the upper or lower limiting value (n_o, n_u) is replaced by the reference value (n_ref). a. in a first step, the value of at least one operating variable (n_sync) of the pump assembly is stored as a reference value (n_ref), b. in a second step, the volume flow delivered by the second pump is reduced, c. in a third step (26, 27), depending on the reaction of the controlled first pump, the operating point (11, 13) is allocated to a load range (15, 16, 17), and d. in a fourth step (31, 32a), the upper or lower limiting value (n_o, n_u) is replaced by the reference value (n_ref).
A flexible tank having a closed form wherein liquid can be stored and which can carry liquid from one location to the other by means of a vehicle, the flexible tank, in use, being positioned within a container with a container door, the flexible tank comprising a lower compartment and an upper compartment for carrying liquid, the upper compartment having smaller width and length than the lower compartment, configured so that in use, the upper compartment does not contact the lateral walls and the door of the container and the upper compartment is positioned upon the lower compartment and so that a liquid transfer between the upper compartment and the lower compartment is partially prevented; an inner layer defining the lower compartment and the upper compartment, the inner layer comprising a lower part and an upper part fixed to each other so as to define the lower compartment and the upper compartment respectively, an outer layer enclosing said inner layer, and at least one connection member fixed at two ends thereof to the lateral surfaces of the lower compartment and the upper compartment to substantially stabilize the lower and the upper compartments (21, 22).
A method of predicting the survival outcome of a human subject having mantle cell lymphoma, which method comprises: determining a survival predictor score of the subject by (a) isolating RNA gene expression product from a formalin-fixed and paraffin-embedded (FFPE) biopsy sample from the subject; (b) obtaining gene expression data from the RNA gene expression product, wherein the gene expression data comprises signal values that represent expression levels for each gene of Table 1; and (c) determining a survival predictor score from the gene expression data, wherein the survival predictor score is determined by calculating a multiplication product for each gene of Table 1, wherein the multiplication product is the mathematical product of the log transformation of the signal value of a gene with a coefficient value for that gene, the coefficient value for the gene listed in Table 1, and summing the multiplication products; and classifying the subject as belonging to one of the following groups based on the survival predictor score: (i) good prognosis, (ii) intermediate prognosis, and (iii) poor prognosis. determining a survival predictor score of the subject by (a) isolating RNA gene expression product from a formalin-fixed and paraffin-embedded (FFPE) biopsy sample from the subject; (b) obtaining gene expression data from the RNA gene expression product, wherein the gene expression data comprises signal values that represent expression levels for each gene of Table 1; and (c) determining a survival predictor score from the gene expression data, wherein the survival predictor score is determined by calculating a multiplication product for each gene of Table 1, wherein the multiplication product is the mathematical product of the log transformation of the signal value of a gene with a coefficient value for that gene, the coefficient value for the gene listed in Table 1, and summing the multiplication products; and (a) isolating RNA gene expression product from a formalin-fixed and paraffin-embedded (FFPE) biopsy sample from the subject; (b) obtaining gene expression data from the RNA gene expression product, wherein the gene expression data comprises signal values that represent expression levels for each gene of Table 1; and (c) determining a survival predictor score from the gene expression data, wherein the survival predictor score is determined by classifying the subject as belonging to one of the following groups based on the survival predictor score: (i) good prognosis, (ii) intermediate prognosis, and (iii) poor prognosis.
A polycrystalline silicon washing apparatus (1 or 31) comprising: a plurality of acid baths (2 to 6) each of which is filled with an acid and into which polycrystalline silicon is sequentially immersed; liquid transferring units which are provided between adjacent acid baths among the acid baths (2 to 6); an acid supply unit (13 or 14) which is provided in at least a last acid bath; and a liquid discharge system which is connected to a first acid bath, wherein the acid baths (2 to 6) are connected to each other by the liquid transferring units, each of the liquid transferring units transfers the acid in a later acid bath (3 to 6) of two adjacent acid baths (2 to 6) to a former acid bath (2 to 5) among the plurality of acid baths (2 to 6), the temperatures of the acids in the acid baths (2 to 6) are set such that the temperature of the acid in the later acid bath (3 to 6) of adjacent acid baths (2 to 6) is equal to or lower than that of the former acid bath (2 to 5), and the temperature of the acid in the last acid bath is set to be lower than that of the acid in the first acid bath. a plurality of acid baths (2 to 6) each of which is filled with an acid and into which polycrystalline silicon is sequentially immersed; liquid transferring units which are provided between adjacent acid baths among the acid baths (2 to 6); an acid supply unit (13 or 14) which is provided in at least a last acid bath; and a liquid discharge system which is connected to a first acid bath, wherein the acid baths (2 to 6) are connected to each other by the liquid transferring units, each of the liquid transferring units transfers the acid in a later acid bath (3 to 6) of two adjacent acid baths (2 to 6) to a former acid bath (2 to 5) among the plurality of acid baths (2 to 6), the temperatures of the acids in the acid baths (2 to 6) are set such that the temperature of the acid in the later acid bath (3 to 6) of adjacent acid baths (2 to 6) is equal to or lower than that of the former acid bath (2 to 5), and the temperature of the acid in the last acid bath is set to be lower than that of the acid in the first acid bath.
A control system configured for use with a microscopy arrangement for adapting an illumination intensity for illuminating a subject to be viewed with a microscope, the microscopy arrangement comprising the microscope, an illumination source for illuminating the subject, and a pupil capturing system for acquiring information relating to a pupil diameter (d) of a user's eye, the control system being configured to: receive information relating to an actual value of the pupil diameter (d) of the eye of the user of the microscope, determine, based on the information relating to the actual value of the pupil diameter (d), a control value for the illumination intensity, and to adapt, by means of controlling the illumination source, the illumination intensity based on the control value. the microscopy arrangement comprising the microscope, an illumination source for illuminating the subject, and a pupil capturing system for acquiring information relating to a pupil diameter (d) of a user's eye, the control system being configured to: receive information relating to an actual value of the pupil diameter (d) of the eye of the user of the microscope, determine, based on the information relating to the actual value of the pupil diameter (d), a control value for the illumination intensity, and to adapt, by means of controlling the illumination source, the illumination intensity based on the control value. receive information relating to an actual value of the pupil diameter (d) of the eye of the user of the microscope, determine, based on the information relating to the actual value of the pupil diameter (d), a control value for the illumination intensity, and to adapt, by means of controlling the illumination source, the illumination intensity based on the control value.
A moving unit, comprising: a pair of guide tracks laid on a fixed portion in parallel to each other; a plurality of moving blocks comprising at least two moving blocks assembled to each guide track of the pair of guide tracks, the plurality of moving blocks being freely movable along the pair of guide tracks; and a movable body fixed to the plurality of moving blocks and freely movable on the fixed portion, wherein the pair of guide tracks comprises a plurality of track rails each having a guide surface formed along a longitudinal direction of each of the plurality of track rails, wherein the plurality of moving blocks each comprise contact elements configured to travel on the guide surface, characterized in that the plurality of track rails are arranged in series with their end portions connected to each other, the contact elements are configured to travel on the guide surface while passing across joint clearances each being formed between the plurality of track rails arranged in series, and, when one of the plurality of moving blocks is positioned at any one of the plurality of joint clearances formed on the pair of guide tracks, another of the plurality of moving blocks is prevented from being positioned at another of the plurality of joint clearances. a pair of guide tracks laid on a fixed portion in parallel to each other; a plurality of moving blocks comprising at least two moving blocks assembled to each guide track of the pair of guide tracks, the plurality of moving blocks being freely movable along the pair of guide tracks; and a movable body fixed to the plurality of moving blocks and freely movable on the fixed portion, wherein the pair of guide tracks comprises a plurality of track rails each having a guide surface formed along a longitudinal direction of each of the plurality of track rails, wherein the plurality of moving blocks each comprise contact elements configured to travel on the guide surface, characterized in that the plurality of track rails are arranged in series with their end portions connected to each other, the contact elements are configured to travel on the guide surface while passing across joint clearances each being formed between the plurality of track rails arranged in series, and, when one of the plurality of moving blocks is positioned at any one of the plurality of joint clearances formed on the pair of guide tracks, another of the plurality of moving blocks is prevented from being positioned at another of the plurality of joint clearances.
Bushing of an electrical conductor through a wall which separates two regions from each other, the conductor extending through a passage in the wall, with spacing therefrom, there extending in a preferably substantially coaxial manner through the passage a sleeve which is electrically insulated and hermetically sealed with respect to the passage and the electrical conductor extending through the sleeve, characterised in that the electrical conductor is connected to the sleeve in a hermetically sealing manner, preferably in a materially integral manner, by means of soft or hard soldering over the entire length of the sleeve.
A method for producing carbon-coated lithium metal phosphate comprising - providing a solution containing purified lithium bicarbonate, - reacting the lithium bicarbonate in the solution with metal ions, phosphate ions and a carbon source to produce a solid precipitate; - separating the solids from the solution by solid-liquid separation; and - heat treating the solids to provide a carbon coated lithium metal phosphate. - providing a solution containing purified lithium bicarbonate, - reacting the lithium bicarbonate in the solution with metal ions, phosphate ions and a carbon source to produce a solid precipitate; - separating the solids from the solution by solid-liquid separation; and - heat treating the solids to provide a carbon coated lithium metal phosphate.
Deflectometry sensor system, wherein a reference plate is provided for calibrating and/or checking the deflectometry sensor system, wherein the deflectometry sensor system is configured to carry out a method according to any one of claims 7 to 14, wherein the deflectometry sensor system comprises an image production device and a detection device, wherein the detection device comprises a plurality of detection elements, whereby a larger field of vision is produced, wherein the reference plate corresponds to the size of the field of vision, wherein the reference plate has a reflective surface, wherein in order to check at least one system parameter of the deflectometry sensor system the reflective surface is provided with a predefined pattern which comprises markings, and wherein the predefined pattern which comprises markings is constructed in such a manner that the predefined pattern comprises a plurality of marking groups and for each detection element of the detection device a marking group is provided for recording images.
Kit for growing shellfish, comprising: a sheet-like substrate for supporting the shellfish while they grow, and a carrier for carrying shellfish, arranged to be integrated with the sheet-like substrate so that after integration of the carrier with the substrate the shellfish are supported by said substrate, wherein connection elements (8, 9, 11) are provided to connect the carrier to the sheet-like substrate, characterized in that, the sheet-like substrate is provided with the connection element, in that the connection element comprises a receiving means for receiving the carrier, and in that the receiving means comprises a compartment, preferably a tunnel-shaped structure. a sheet-like substrate for supporting the shellfish while they grow, and a carrier for carrying shellfish, arranged to be integrated with the sheet-like substrate so that after integration of the carrier with the substrate the shellfish are supported by said substrate,