mhurhangee/ep-ind-claims huggingface dataset:
A building technology device, for example an LED driver, comprising: a first control unit and a second control unit, wherein the first control unit is configured to execute a software, and wherein the second control unit is configured to execute a further software, in particular an embedded software of the building technology device; an interface unit arranged between the first control unit and the second control unit; wherein the interface unit comprises at least one external interface (107, 113) which is connectable to an external device; and wherein the at least one external interface (107, 113) is adapted to facilitate a selective communication between the external device and the first control unit and independently between the external device and the second control unit. a first control unit and a second control unit, wherein the first control unit is configured to execute a software, and wherein the second control unit is configured to execute a further software, in particular an embedded software of the building technology device; an interface unit arranged between the first control unit and the second control unit; wherein the interface unit comprises at least one external interface (107, 113) which is connectable to an external device; and wherein the at least one external interface (107, 113) is adapted to facilitate a selective communication between the external device and the first control unit and independently between the external device and the second control unit.
Semi-finished wire for an Nb 3 Sn superconducting wire, wherein the semi-finished wire comprises - a multiplicity of elements containing Nb which are packed against each other, wherein the elements containing Nb each have a rod containing Nb and an enclosure containing Cu surrounding the rod, - a structure containing Sn, - and a matrix containing Cu, in which the structure containing Sn is disposed and on and/or in which the elements containing Nb are disposed, characterized in that the enclosures containing Cu of the elements containing Nb contain Sn, wherein the content of Sn in the enclosures containing Cu of the elements containing Nb is maximally 4 % by weight. - a multiplicity of elements containing Nb which are packed against each other, wherein the elements containing Nb each have a rod containing Nb and an enclosure containing Cu surrounding the rod, - a structure containing Sn, - and a matrix containing Cu, in which the structure containing Sn is disposed and on and/or in which the elements containing Nb are disposed,
Method for feeding yarns or threads including metal wires to a textile machine at a constant tension, or to a machine processing the metal wire, said feeding taking place discontinuously, that is with sequences of stages in which the yarn moves with at least a first and at least a second condition of feeding or take-up by the machine which differ from each other, said conditions following each other in time, said feeding being performed by a yarn feeder device having tension detection means, yarn accumulator means driven by its own electric motor and control means connected to such tension detection means and accumulator means and capable of acting on such accumulator means on the basis of a tension value obtained from said tension detection means, provision being made for a compensator device associated with said feeder device acting together with the yarn coming from said accumulator means before acting together with said tension detection means, said compensator device being able to compensate for changes in the feed or take-up conditions of the yarn at the transition between each first and each second feed or take-up condition following upon the first, this enabling the control means for the feeder device to act on the accumulator means to alter its action on the yarn and maintain the value of the tension detected by the tension detection means constant over time and equal to a set value, said constant tension also being maintained during the stage of changing the feed conditions thanks to the interaction between said yarn and said compensator device, the compensator device including movable compensating means supporting a body capable of acting together with the yarn at one free end, said movable compensating means being able to move from a predetermined resting position in the feed direction of yarn when the yarn passes from a condition of lesser take-up to a condition of greater take-up, but moving in the opposite direction when the yarn passes from a condition of greater take-up to a condition of lesser take-up, said compensating means returning to the resting position at the end of such change in take-up, characterised in that provision is made to control the movement of said compensating means through its own corresponding electric motor directly and rigidly attached to said compensating means and capable of directly controlling the movement of said compensating means, said compensating means being a rigid arm, the compensating arm being controlled according to the set or detected tension of the yarn and the position measured during each stage in which it is fed to the textile machine.
Method for cleaning a polymer melt, in which volatile foreign substances and solid foreign substances are removed from the polymer melt, wherein the polymer melt is pressed through a filter element into a vacuum of a vacuum chamber, wherein the solid foreign substances are taken up by the filter element and wherein the volatile foreign substances are collected in the vacuum chamber, and wherein the polymer melt is guided within the vacuum chamber on an outlet face of the filter element, characterized in that the filter element is formed at least from a hollow-cylindrical filter candle projecting into the vacuum chamber.
Method for performing beamforming on a beam of incoming signals received via a plurality of antenna paths, comprising the steps of: - generating a local oscillator signal; - performing in each antenna path the steps of: performing a first phase shifting operation with an adjustable phase shift on the respective incoming signal, mixing the output of said first phase shifting operation with said local oscillator signal, thereby obtaining a baseband signal, performing a second phase shifting operation on said baseband signal, whereby said second phase shifting operation has a lower resolution than said first phase shifting operation and whereby said first phase shifting operation is performed with a fine step in a first phase shifting range and said second phase shifting operation is performed with a coarse step in a second phase shifting range larger than said first phase shifting range, said coarse step being substantially equal to the size of said first phase shifting range; - combining the outputs of the second phase shifting operations from the plurality of antenna paths. - generating a local oscillator signal; - performing in each antenna path the steps of: performing a first phase shifting operation with an adjustable phase shift on the respective incoming signal, mixing the output of said first phase shifting operation with said local oscillator signal, thereby obtaining a baseband signal, performing a second phase shifting operation on said baseband signal, whereby said second phase shifting operation has a lower resolution than said first phase shifting operation and whereby said first phase shifting operation is performed with a fine step in a first phase shifting range and said second phase shifting operation is performed with a coarse step in a second phase shifting range larger than said first phase shifting range, said coarse step being substantially equal to the size of said first phase shifting range; - combining the outputs of the second phase shifting operations from the plurality of antenna paths. performing a first phase shifting operation with an adjustable phase shift on the respective incoming signal, mixing the output of said first phase shifting operation with said local oscillator signal, thereby obtaining a baseband signal, performing a second phase shifting operation on said baseband signal, whereby said second phase shifting operation has a lower resolution than said first phase shifting operation and whereby said first phase shifting operation is performed with a fine step in a first phase shifting range and said second phase shifting operation is performed with a coarse step in a second phase shifting range larger than said first phase shifting range, said coarse step being substantially equal to the size of said first phase shifting range; - combining the outputs of the second phase shifting operations from the plurality of antenna paths.
A method in a radio base station or radio network controller, which method is for use in a Wideband Code Division Multiple Access, WCDMA, radio system and for detecting that a message has been correctly formed by layer 2 from parts generated by a single User Equipment, UE, in an idle state and transmitted on an Enhanced Dedicated CHannel, E-DCH, characterized by: - obtaining said message and a checksum regarding layer 3 of the message, and - checking said correctness of the message formed by layer 2 based on the checksum regarding layer 3. - obtaining said message and a checksum regarding layer 3 of the message, and - checking said correctness of the message formed by layer 2 based on the checksum regarding layer 3.
A filter substrate trough element for draining and purifying surface water, comprising a first trough body with a filter substrate arranged in an inlet chamber as well as a drainage chamber which is separated beneath the filter substrate from the inlet chamber by an intermediate plane, wherein the drainage chamber is formed by a separate second trough body which is sealed on the inlet side by a trough base of the first trough body, which trough base forms the intermediate plane and is permeable to water at least in some sections, characterized in that a vertically upright overflow pipe is associated with the inlet chamber of the first trough body, and the trough base of the first trough body is connected via a receiver for a trough cover of the second trough body to the same, wherein the second trough body comprises a lateral outlet.
A system for treating movement disorders, characterized by comprising: a plurality of electrodes, configured to probe a first region of a brain of a patient with movement disorders and collect a central nervous signal of the patient; a closed-loop controller coupled to the electrodes; an electrical signal generator coupled to the closed-loop controller, configured to generate a stimulation; and a stimulator coupled to the electrical signal generator, configured to deliver the stimulation to a second region of the brain of the patient, characterised in that said controller is configured to identify an oscillation episode of the central nervous signal in the range of from about 3 Hz to about 20 Hz in the central nervous signal. a plurality of electrodes, configured to probe a first region of a brain of a patient with movement disorders and collect a central nervous signal of the patient; a closed-loop controller coupled to the electrodes; an electrical signal generator coupled to the closed-loop controller, configured to generate a stimulation; and a stimulator coupled to the electrical signal generator, configured to deliver the stimulation to a second region of the brain of the patient, characterised in that said controller is configured to identify an oscillation episode of the central nervous signal in the range of from about 3 Hz to about 20 Hz in the central nervous signal.
A method for processing traces from multiple data sources in a computing system, the traces individually including data representing multiple events with corresponding timestamps, the method comprising: receiving a user command to align a first event from a first trace to a second event from a second trace, the first trace having a first anchor event temporally aligned with a second anchor event of the second trace; in response to receiving the user command, setting a time in a timestamp of the first anchor event as a base time; calculating first and second differences between times in timestamps of the first and second events relative to the base time, respectively; deriving a ratio between the first difference and the second difference; and scaling time intervals between adjacent events of the second trace using the derived ratio such that the second event from the second trace is temporally aligned with the first event of the first trace while the first and second anchor events remain temporally aligned; and outputting, on a display of the computing system, graphical interface elements each corresponding to the events in the first and second traces according to the scaled time intervals along a single timeline, the graphical interface elements corresponding to the first and second anchor events and the first and second events are represented on the display as being temporally aligned, respectively. receiving a user command to align a first event from a first trace to a second event from a second trace, the first trace having a first anchor event temporally aligned with a second anchor event of the second trace; in response to receiving the user command, setting a time in a timestamp of the first anchor event as a base time; calculating first and second differences between times in timestamps of the first and second events relative to the base time, respectively; deriving a ratio between the first difference and the second difference; and scaling time intervals between adjacent events of the second trace using the derived ratio such that the second event from the second trace is temporally aligned with the first event of the first trace while the first and second anchor events remain temporally aligned; and outputting, on a display of the computing system, graphical interface elements each corresponding to the events in the first and second traces according to the scaled time intervals along a single timeline, the graphical interface elements corresponding to the first and second anchor events and the first and second events are represented on the display as being temporally aligned, respectively.
An intervertebral implant with a support portion (1.1) and with a proximal contact portion (1.3) adjoined thereto in the longitudinal direction, wherein an upper side (1.6) and a lower side (1.7) are formed symmetrically relative to a horizontal center plane (L-Q), characterized in that a concave transition area is formed between the support portion (1.1) and the contact portion (1.3), that the height of the support portion (1.1) between the transition area to the contact portion (1.3) and a distal end face (1.2) remote from the contact portion (1.3) is greater than the height at the transition area and at the distal end face (1.2) and that the greatest height is formed in the middle between the transition area to the contact area (1.3) and the distal end face (1.2) remote therefrom.
A method of wireless communication by a user equipment, LTE, comprising: transmitting, by the LTE to a base station, a transmission configuration indication, TCI, report indicating associations between a plurality of TCIs and one or more UE panels of the UE; receiving, from the base station in response to the TCI report, a TCI configuration message indicating a first set of TCI of the plurality of TCIs for a physical downlink control channel, PDCCH, transmission; and skip monitoring, based at least in part on the TCI configuration message, a control resource set, CORESET, associated with a second set of TCI of the plurality of TCIs. transmitting, by the LTE to a base station, a transmission configuration indication, TCI, report indicating associations between a plurality of TCIs and one or more UE panels of the UE; receiving, from the base station in response to the TCI report, a TCI configuration message indicating a first set of TCI of the plurality of TCIs for a physical downlink control channel, PDCCH, transmission; and skip monitoring, based at least in part on the TCI configuration message, a control resource set, CORESET, associated with a second set of TCI of the plurality of TCIs.
A color prediction model construction method for constructing a color prediction model for predicting a color of a patch in a color chart including a plurality of first type patches obtained by applying an ink on a base material with ink densities of a plurality of levels, the color prediction model construction method comprising: a teaching data acquisition step (S100, S200) of acquiring a plurality of pieces of teaching data including spectral characteristics of a reference patch that is a prescribed patch in the color chart and color values of a color prediction target patch in the color chart, the color prediction target patch being at least one patch among patches in the color chart excluding patches having a maximum ink density or a minimum ink density among the plurality of first type patches; and a learning step (S110, S210) of performing machine learning by a neural network that takes the spectral characteristics of the reference patch as input data and takes the color values of the color prediction target patch as output data, using the plurality of pieces of teaching data. a teaching data acquisition step (S100, S200) of acquiring a plurality of pieces of teaching data including spectral characteristics of a reference patch that is a prescribed patch in the color chart and color values of a color prediction target patch in the color chart, the color prediction target patch being at least one patch among patches in the color chart excluding patches having a maximum ink density or a minimum ink density among the plurality of first type patches; and a learning step (S110, S210) of performing machine learning by a neural network that takes the spectral characteristics of the reference patch as input data and takes the color values of the color prediction target patch as output data, using the plurality of pieces of teaching data.
A method of manufacturing a cable assembly comprising: providing a core; wrapping a conductive shield element about the core; forming a sheath by applying an insulating sheath layer to encompass the shield element; removing the core from the sheath; and inserting a multi-wire cable component into the sheath, characterized in that said cable component comprises a plurality of wires having intermediate portions between first and second ends unconnected to each other except at their ends and said shield loosely encompasses all the wires. providing a core; wrapping a conductive shield element about the core; forming a sheath by applying an insulating sheath layer to encompass the shield element; removing the core from the sheath; and inserting a multi-wire cable component into the sheath, characterized in that said cable component comprises a plurality of wires having intermediate portions between first and second ends unconnected to each other except at their ends and said shield loosely encompasses all the wires.
A process for producing a fibrous ballistic resistant composite, said process comprising the steps of: a) providing a high tenacity extended chain polyethylene fiber having a tenacity of at least 33 g/denier at ambient room temperature and a molecular weight of at least 500,000, wherein said fiber has fiber surfaces and wherein said surfaces are at least partially covered by a fiber surface finish or wherein said fiber is substantially free of a fiber surface finish; b) where said fiber surfaces are at least partially covered by a fiber surface finish, removing at least a portion of the fiber surface finish from the fiber surfaces such that the fiber surface finish is substantially or completely removed from the surfaces of the fibers; c) subjecting the high tenacity fiber to a plasma treatment wherein a plurality of fibers are plasma treated with plasma energy flux of 100 Watts/0.093m 2 /min (100 W/ft 2 /min) or less within a chamber maintained at atmospheric pressure under conditions effective to modify the high tenacity fiber; thereby producing a modified, high tenacity fiber which has been modified by a plasma treatment, which modified high tenacity fiber has a tenacity of at least 33 g/denier at ambient room temperature; and d) forming a fibrous ballistic resistant composite from a plurality of said fibers and a polymeric binder material at least partially coated on at least some of said modified, high tenacity fibers. a) providing a high tenacity extended chain polyethylene fiber having a tenacity of at least 33 g/denier at ambient room temperature and a molecular weight of at least 500,000, wherein said fiber has fiber surfaces and wherein said surfaces are at least partially covered by a fiber surface finish or wherein said fiber is substantially free of a fiber surface finish; b) where said fiber surfaces are at least partially covered by a fiber surface finish, removing at least a portion of the fiber surface finish from the fiber surfaces such that the fiber surface finish is substantially or completely removed from the surfaces of the fibers; c) subjecting the high tenacity fiber to a plasma treatment wherein a plurality of fibers are plasma treated with plasma energy flux of 100 Watts/0.093m 2 /min (100 W/ft 2 /min) or less within a chamber maintained at atmospheric pressure under conditions effective to modify the high tenacity fiber; thereby producing a modified, high tenacity fiber which has been modified by a plasma treatment, which modified high tenacity fiber has a tenacity of at least 33 g/denier at ambient room temperature; and d) forming a fibrous ballistic resistant composite from a plurality of said fibers and a polymeric binder material at least partially coated on at least some of said modified, high tenacity fibers.
Use of an organophosphorus compound in a thermoplastic matrix for producing a thermoplastic part that makes it possible to prevent, to lessen or to reduce the degradation of the surface appearance of a metal part located in contact with or in the vicinity of the thermoplastic part.
An antibacterial device comprising a substrate and an antibacterial coating or antibacterial surface being provided on a surface or a part of a surface of the substrate, wherein said antibacterial coating/surface comprises Angstrom scale flakes, the Angstrom scale flakes being arranged in a standing position on said surface, and attached to the surface via edge sides thereof, wherein the Angstrom scale flakes are graphene or graphite flakes, having a thickness in the range of 0.34-3.4 nm (1-10 atom layers), extending from the surface with a height in the range 5-500 nm, and wherein the distance between any adjacent Angstrom scale flakes is less than 10 μm.
A total internal reflection lens, comprising: a light output portion; and a first base coupled to said light output portion, wherein said first base comprises: a cavity for receiving a light emitting diode; and an undercut adjacent to said cavity, wherein said undercut forms an inner member of said base that is a substantially same shape as said light output portion and achieves total internal reflection of light emitted from the LED towards the base, and characterised in that a shape of the undercut appears to be a continuation of the shape of the light output portion. a light output portion; and a first base coupled to said light output portion, wherein said first base comprises: a cavity for receiving a light emitting diode; and an undercut adjacent to said cavity, wherein said undercut forms an inner member of said base that is a substantially same shape a cavity for receiving a light emitting diode; and an undercut adjacent to said cavity, wherein said undercut forms an inner member of said base that is a substantially same shape as said light output portion and achieves total internal reflection of light emitted from the LED towards the base, and characterised in that a shape of the undercut appears to be a continuation of the shape of the light output portion.