mhurhangee/ep-ind-claims huggingface dataset:
A sanding device, comprising: a housing; a drive shaft configured to rotate relative to the housing, a first coupling part connected directly or indirectly to the drive shaft and provided with a first crown gear; a sanding plate provided with a second coupling part for matching with the first coupling part, wherein the second coupling part is provided with a second crown gear for facing and engaging with the first crown gear, the sanding device being characterised by: first clamping means configured to clamp the sanding plate and the first coupling part; so that the sanding plate is capable of being removed; the sanding device further comprises an adapter part which is arranged between the first crown gear and the second crown gear and provided on both sides with a crown gear; wherein teeth of the crown gears on both sides of the adapter part are offset relative to each other; and the crown gears on both sides of the adapter part comprise a differing number of teeth, wherein when the first clamping means clamps the sanding plate and the first coupling part, the second crown gear and the first crown gear are engaged through the crown gears on both side of the adapter. a housing; a drive shaft configured to rotate relative to the housing, a first coupling part connected directly or indirectly to the drive shaft and provided with a first crown gear; a sanding plate provided with a second coupling part for matching with the first coupling part, wherein the second coupling part is provided with a second crown gear for facing and engaging with the first crown gear, the sanding device being characterised by: first clamping means configured to clamp the sanding plate and the first coupling part; so that the sanding plate is capable of being removed; the sanding device further comprises an adapter part which is arranged between the first crown gear and the second crown gear and provided on both sides with a crown gear; wherein teeth of the crown gears on both sides of the adapter part are offset relative to each other; and the crown gears on both sides of the adapter part comprise a differing number of teeth, wherein when the first clamping means clamps the sanding plate and the first coupling part, the second crown gear and the first crown gear are engaged through the crown gears on both side of the adapter. first clamping means configured to clamp the sanding plate and the first coupling part; so that the sanding plate is capable of being removed; the sanding device further comprises an adapter part which is arranged between the first crown gear and the second crown gear and provided on both sides with a crown gear; wherein teeth of the crown gears on both sides of the adapter part are offset relative to each other; and the crown gears on both sides of the adapter part comprise a differing number of teeth, wherein when the first clamping means clamps the sanding plate and the first coupling part, the second crown gear and the first crown gear are engaged through the crown gears on both side of the adapter.
A method for producing an organized subset from a multitude of measurements, wherein each measurement is a value or a set of values that describe characteristics of an assumed target, and wherein said multitude of measurements has been obtained by processing a received electromagnetic signal, the method comprising: - arranging the multitude of measurements to a ranked order according to a measurement-specific value, the magnitude of which is assumed to correlate with a reliability of the measurement, - initially designating all individual measurements in said multitude of measurements as not being associated with a target, - calculating an initial a posteriori probability density for different models k and their corresponding model parameters θ (k) associated with the designated measurements, - picking from said multitude of measurements a measurement that is not associated with a target, - selecting from said multitude of measurements a candidate correlating measurement, - calculating a probability density reflective of the picked measurement and the candidate correlating measurement being associated with a same target, - as a response to the calculated probability density being indicative of higher probability than the initial a posteriori probability density, marking the picked measurement and the candidate correlating measurement as being associated with the same target, - repeating the steps of picking, selecting, calculating and marking for the remaining measurements not associated with a target, and - outputting, as the organized subset, those measurements that have been marked as being associated with the same target. - arranging the multitude of measurements to a ranked order according to a measurement-specific value, the magnitude of which is assumed to correlate with a reliability of the measurement, - initially designating all individual measurements in said multitude of measurements as not being associated with a target, - calculating an initial a posteriori probability density for different models k and their corresponding model parameters θ (k) associated with the designated measurements, - picking from said multitude of measurements a measurement that is not associated with a target, - selecting from said multitude of measurements a candidate correlating measurement, - calculating a probability density reflective of the picked measurement and the candidate correlating measurement being associated with a same target, - as a response to the calculated probability density being indicative of higher probability than the initial a posteriori probability density, marking the picked measurement and the candidate correlating measurement as being associated with the same target, - repeating the steps of picking, selecting, calculating and marking for the remaining measurements not associated with a target, and - outputting, as the organized subset, those measurements that have been marked as being associated with the same target.
An optical coupler (100, 300), comprising: a waveguide structure (102, 302) comprising: a first waveguide layer (110, 220, 310) including a first pair of waveguides (116, 118; 230, 232; 312, 314) that extend from an input end of the optical coupler and along a first portion of the first waveguide layer (110, 220, 310), wherein the first pair of waveguides (116, 118; 230, 232; 312, 314) each widen toward an output end of the optical coupler and along a second portion of the first waveguide layer (110, 220, 310) such that the first pair of waveguides (116, 118; 230, 232; 312, 314) merge into a single waveguide (119, 316); and a second waveguide layer (120, 250, 320) separated from the first waveguide layer (110, 220, 310) in a direction perpendicular to the plane of said first waveguide layer (110,220,310), the second waveguide layer (120, 250, 320) including a second pair of waveguides (126, 128; 260, 262; 322, 324) that extend from the input end and along a first portion of the second waveguide layer (120, 250, 320), wherein the second pair of waveguides (126, 128; 260, 262; 322, 324) each narrow toward the output end and along a second portion of the second waveguide layer (120, 250, 320) to separate distal tips (127, 129) at the output end; wherein the waveguide structure (102, 302) is configured to couple an optical fiber at the input end of the optical coupler to an integrated photonics platform at the output end, such that the waveguide structure (102, 302) is able to match an integrated photonics mode to a fiber mode supported by the optical fiber. a first waveguide layer (110, 220, 310) including a first pair of waveguides (116, 118; 230, 232; 312, 314) that extend from an input end of the optical coupler and along a first portion of the first waveguide layer (110, 220, 310), wherein the first pair of waveguides (116, 118; 230, 232; 312, 314) each widen toward an output end of the optical coupler and along a second portion of the first waveguide layer (110, 220, 310) such that the first pair of waveguides (116, 118; 230, 232; 312, 314) merge into a single waveguide (119, 316); and a second waveguide layer (120, 250, 320) separated from the first waveguide layer (110, 220, 310) in a direction perpendicular to the plane of said first waveguide layer (110,220,310), the second waveguide layer (120, 250, 320) including a second pair of waveguides (126, 128; 260, 262; 322, 324) that extend from the input end and along a first portion of the second waveguide layer (120, 250, 320), wherein the second pair of waveguides (126, 128; 260, 262; 322, 324) each narrow toward the output end and along a second portion of the second waveguide layer (120, 250, 320) to separate distal tips (127, 129) at the output end; wherein the waveguide structure (102, 302) is configured to couple an optical fiber at the input end of the optical coupler to an integrated photonics platform at the output end, such that the waveguide structure (102, 302) is able to match an integrated photonics mode to a fiber mode supported by the optical fiber.
A method for a wireless communications network, the method comprising: receiving activity data for a plurality of cells; determining dominant paths of mobility for each of a plurality of cells based on the activity data; predicting a future network condition based on the dominant paths; and allocating network resources based on the predicted future network condition; wherein the activity data includes handover information for the plurality of cells; wherein the handover information includes: identities of cells from which user equipment was handed-in to a target cell of the plurality of cells; identities of one or more cells to which user equipment was handed-out from the target cell; a quantity of hand-in events to the target cell within a time period; and a quantity of hand-out events from the target cell within the time period. receiving activity data for a plurality of cells; determining dominant paths of mobility for each of a plurality of cells based on the activity data; predicting a future network condition based on the dominant paths; and allocating network resources based on the predicted future network condition; wherein the activity data includes handover information for the plurality of cells; wherein the handover information includes: identities of cells from which user equipment was handed-in to a target cell of the plurality of cells; identities of one or more cells to which user equipment was handed-out from the target cell; a quantity of hand-in events to the target cell within a time period; and a quantity of hand-out events from the target cell within the time period. identities of cells from which user equipment was handed-in to a target cell of the plurality of cells; identities of one or more cells to which user equipment was handed-out from the target cell; a quantity of hand-in events to the target cell within a time period; and a quantity of hand-out events from the target cell within the time period.
A workpiece support member (30, 30A, 30B, 300, 400) for a thermal processing machine, the workpiece support member being installed on a workpiece support table to support a workpiece to be thermally processed, comprising: a base member (31, 34, 310, 410) formed of a plate-like member in a horizontally long shape, and provided with a plurality of protruding supporting member attachment parts (311-317, 413, 414, 417, 418) at predetermined distance intervals on an upper part thereof; and a supporting member (33a, 33b, 33c, 33d, 33e, 35a, 35b, 35c, 35d, 35e, 321-323, 421, 422) formed of a plate-like member in a horizontally long shape, and installed in an attachable and removable state with a lower side thereof fitted alternately to a front surface and a rear surface in a front-rear direction, when the horizontally long direction is taken as the left-right direction, of each of the adjacent supporting member attachment parts (311-317, 413, 414, 417, 418) of the base member (31, 34, 310, 410). a base member (31, 34, 310, 410) formed of a plate-like member in a horizontally long shape, and provided with a plurality of protruding supporting member attachment parts (311-317, 413, 414, 417, 418) at predetermined distance intervals on an upper part thereof; and a supporting member (33a, 33b, 33c, 33d, 33e, 35a, 35b, 35c, 35d, 35e, 321-323, 421, 422) formed of a plate-like member in a horizontally long shape, and installed in an attachable and removable state with a lower side thereof fitted alternately to a front surface and a rear surface in a front-rear direction, when the horizontally long direction is taken as the left-right direction, of each of the adjacent supporting member attachment parts (311-317, 413, 414, 417, 418) of the base member (31, 34, 310, 410).
Method for operating a modular battery storage system which comprises a group of n rechargeable energy storage modules, wherein • a switch is assigned to each of the individual n energy storage modules, by means of which switch the respective energy storage module can be activated and deactivated, and • the n energy storage modules can be connected to one another by means of the switches in such a way that the individual voltages U individual of activated energy storage modules can be added up to form a total voltage U total, and • the group of n energy storage modules comprises energy storage modules of different types and the method comprises the following steps: a. At least one power value is ascertained for each of the n energy storage modules, b. A total voltage U tot (t) which changes over time is produced by way of at least two energy storage modules from the group being activated with a time overlap but over activation periods of different length, and c. One of the activation periods of different length is assigned to each of the at least two energy storage modules depending on the ascertained at least one power value. • a switch is assigned to each of the individual n energy storage modules, by means of which switch the respective energy storage module can be activated and deactivated, and • the n energy storage modules can be connected to one another by means of the switches in such a way that the individual voltages U individual of activated energy storage modules can be added up to form a total voltage U total, and • the group of n energy storage modules comprises energy storage modules of different types a. At least one power value is ascertained for each of the n energy storage modules, b. A total voltage U tot (t) which changes over time is produced by way of at least two energy storage modules from the group being activated with a time overlap but over activation periods of different length, and c. One of the activation periods of different length is assigned to each of the at least two energy storage modules depending on the ascertained at least one power value.
A method for modifying the structural and/or optical characteristics of tissue in situ, comprising: introducing a fixing solution comprising paraformaldehyde into the circulatory system of a subject, thereby forming fixed tissue within the subject; introducing a hydrogel monomer solution comprising acrylamide and a phosphate buffered saline into the circulatory system of the subject, thereby forming hydrogel-treated tissue within the subject, and introducing a solution comprising PBS into the circulatory system of the subject, thereby forming PBS-washed tissue, wherein the subject is a nonhuman primate, a farm animal or a domesticated mammal, or a laboratory animal, and wherein the hydrogel monomer solution comprises from 1% to 20 % acrylamide. introducing a fixing solution comprising paraformaldehyde into the circulatory system of a subject, thereby forming fixed tissue within the subject; introducing a hydrogel monomer solution comprising acrylamide and a phosphate buffered saline into the circulatory system of the subject, thereby forming hydrogel-treated tissue within the subject, and introducing a solution comprising PBS into the circulatory system of the subject, thereby forming PBS-washed tissue, wherein the subject is a nonhuman primate, a farm animal or a domesticated mammal, or a laboratory animal, and wherein the hydrogel monomer solution comprises from 1% to 20 % acrylamide.
An interface for use in a local device, said interface comprising: a transmitter portion programmably configurable to at least three data rates; a receiver portion programmably configurable to said at least three data rates; and an automatic speed negotiation module operatively connected to said transmitter portion and said receiver portion to configure said transmitter portion and said receiver portion for communication with a remote device at a single data rate that is a best available one of said at least three data rates; characterised in that said automatic speed negotiation module is adapted to adjust said transmitter data path width and said receiver data path width, to adjust a frequency of said transmitter data path and said receiver data path, and to perform oversampling, wherein the automatic speed negotiation module performs at least one of the adjustments or said oversampling to configure said transmitter portion and said receiver portion to said best available one of said at least three data rates. a transmitter portion programmably configurable to at least three data rates; a receiver portion programmably configurable to said at least three data rates; and an automatic speed negotiation module operatively connected to said transmitter portion and said receiver portion to configure said transmitter portion and said receiver portion for communication with a remote device at a single data rate that is a best available one of said at least three data rates; characterised in that said automatic speed negotiation module is adapted to adjust said transmitter data path width and said receiver data path width, to adjust a frequency of said transmitter data path and said receiver data path, and to perform oversampling, wherein the automatic speed negotiation module performs at least one of the adjustments or said oversampling to configure said transmitter portion and said receiver portion to said best available one of said at least three data rates.
A modular, variable electronic power system for generating unipolar or bipolar electrical pulses, comprising: - one or more electrical pulse generation modules, wherein said modules are connectable in series or in parallel, such that the output voltage and/or current of the pulses is respectively the sum of the individual output voltages and/or currents of each module; - a charging unit for powering the pulse generation modules; and - a control unit for controlling the generation modules and the charging unit; wherein the generation modules are coupled to the charging unit by means of an isolation transformer, said charging unit being connected to the primary side of the transformer, and the generation modules connected to a secondary side of the transformers; the system characterized in that - each generation module comprises an AC/DC rectifier connected to an output of the secondary side of the transformer, and a DC/AC inverter having a bridge configuration connected to the output of said AC/DC rectifier for generating the electrical output pulses or pulse trains; and in that - the charging unit comprises a DC/DC converter connected to an DC/AC inverter, wherein said DC/AC inverter is connected to the primary side of the transformer. - one or more electrical pulse generation modules, wherein said modules are connectable in series or in parallel, such that the output voltage and/or current of the pulses is respectively the sum of the individual output voltages and/or currents of each module; - a charging unit for powering the pulse generation modules; and - a control unit for controlling the generation modules and the charging unit; - each generation module comprises an AC/DC rectifier connected to an output of the secondary side of the transformer, and a DC/AC inverter having a bridge configuration connected to the output of said AC/DC rectifier for generating the electrical output pulses or pulse trains; and in that - the charging unit comprises a DC/DC converter connected to an DC/AC inverter, wherein said DC/AC inverter is connected to the primary side of the transformer.
A rotor hub for a tiltrotor aircraft, the rotor hub being adapted to couple to a mast of the tiltrotor aircraft, the rotor hub comprising: a first configuration of two or more yokes arranged in a first plane about the mast of the tiltrotor aircraft and having substantially equal angular spacing therebetween; and a second configuration of an equal number of yokes as the first configuration, the equal number of yokes being arranged in a second plane about the mast of the tiltrotor aircraft and having substantially equal angular spacing therebetween; wherein the second plane is substantially parallel to and axially offset from the first plane; and characterized in that each of the yokes in the first and second configurations has an inner end and an outer end and a portion of the inner end of each yoke in the first configuration overlaps with the inner end of a portion of each azimuthally adjacent yoke in the second configuration a first configuration of two or more yokes arranged in a first plane about the mast of the tiltrotor aircraft and having substantially equal angular spacing therebetween; and a second configuration of an equal number of yokes as the first configuration, the equal number of yokes being arranged in a second plane about the mast of the tiltrotor aircraft and having substantially equal angular spacing therebetween; wherein the second plane is substantially parallel to and axially offset from the first plane; and characterized in that each of the yokes in the first and second configurations has an inner end and an outer end and a portion of the inner end of each yoke in the first configuration overlaps with the inner end of a portion of each azimuthally adjacent yoke in the second configuration
A method for collaborative spectrum sensing in a cognitive radio network, comprising: a first vehicle generating a request for assistance on sensing availability of a channel; and the first vehicle broadcasting in a cognitive radio network the request and position information of the first vehicle; the first vehicle receiving a plurality of sensing messages from other vehicles within the cognitive radio network which sensing messages are generated in response to the request, where a sensing message comprises a sensing result of availability of the channel and a piece of position information of a vehicle which broadcasts the sensing message, where broadcasting of the plurality of sensing messages is controlled based on position information of vehicles within the cognitive radio network; and determining whether the channel is available based on the plurality of sensing messages. a first vehicle generating a request for assistance on sensing availability of a channel; and the first vehicle broadcasting in a cognitive radio network the request and position information of the first vehicle; the first vehicle receiving a plurality of sensing messages from other vehicles within the cognitive radio network which sensing messages are generated in response to the request, where a sensing message comprises a sensing result of availability of the channel and a piece of position information of a vehicle which broadcasts the sensing message, where broadcasting of the plurality of sensing messages is controlled based on position information of vehicles within the cognitive radio network; and determining whether the channel is available based on the plurality of sensing messages.