mhurhangee/ep-ind-claims huggingface dataset:
A wireless transmission method, comprising: sending, by a compression device, a first data packet according to a compression parameter of an Ethernet frame; sending, by the compression device, a second data packet after receiving Y feedback packets of the first data packets representing acknowledgement, ACK; wherein the second data packet is a compressed data packet of the first data packet; wherein the compression parameter comprises a first index, wherein the first index is used for determining a first compression object, and wherein the first compression object at least comprises: a type field, a length field and a virtual local area network, VLAN, field; wherein the second data packet comprises: a sub-path ID, used to identify a context index or identifier that can be mapped to different data packets of the header compression configuration or object; and a packet compression indication, used to indicate whether the second data packet is a compressed data packet or an uncompressed data packet. sending, by a compression device, a first data packet according to a compression parameter of an Ethernet frame; sending, by the compression device, a second data packet after receiving Y feedback packets of the first data packets representing acknowledgement, ACK; wherein the second data packet is a compressed data packet of the first data packet; wherein the compression parameter comprises a first index, wherein the first index is used for determining a first compression object, and wherein the first compression object at least comprises: a type field, a length field and a virtual local area network, VLAN, field; wherein the second data packet comprises: a sub-path ID, used to identify a context index or identifier that can be mapped to different data packets of the header compression configuration or object; and a packet compression indication, used to indicate whether the second data packet is a compressed data packet or an uncompressed data packet. a sub-path ID, used to identify a context index or identifier that can be mapped to different data packets of the header compression configuration or object; and a packet compression indication, used to indicate whether the second data packet is a compressed data packet or an uncompressed data packet.
A method for the correction of a measured value curve by the elimination of periodically occurring measurement artefacts for a measured value curve representing the motion of a compactor roller of a soil compactor, comprising the actions: a) provision of a measured value curve representing a periodically repeating event, b) division of the measured value curve into period-measured value curves (M P) allocated to a plurality of successive periods of the periodically repeating event, wherein the action b) comprises an action b2) for the subtraction of a period-measured value curve mean value (M PM) determined for each period-measured value curve (M P) from the allocated period-measured value curve (M P) for the provision of displaced period-measured value curves (M PLV). c) based on the period-measured value curves allocated to the plurality of periods, determination of a mean period-measured value curve (M mP), d) formation of a difference between the period-measured value curves (M P) allocated to the plurality of periods, and the mean period-measured value curve (M mP) for the provision of the difference-period-measured value curves (M PD) allocated in each case to the periods, e) based on the difference period-measured value curves (M PD), determination of a corrected measured value curve (M K) for the plurality of successive periods of the periodically repeating event, wherein the action e) comprises an action e1) for the determination of back-displaced difference-period-measured value curves by adding the difference-period-measured value curve (M PD) each with the period-measured value curve mean (M PM) determined for the allocated period in the action b2). a) provision of a measured value curve representing a periodically repeating event, b) division of the measured value curve into period-measured value curves (M P) allocated to a plurality of successive periods of the periodically repeating event, wherein the action b) comprises an action b2) for the subtraction of a period-measured value curve mean value (M PM) determined for each period-measured value curve (M P) from the allocated period-measured value curve (M P) for the provision of displaced period-measured value curves (M PLV). c) based on the period-measured value curves allocated to the plurality of periods, determination of a mean period-measured value curve (M mP), d) formation of a difference between the period-measured value curves (M P) allocated to the plurality of periods, and the mean period-measured value curve (M mP) for the provision of the difference-period-measured value curves (M PD) allocated in each case to the periods, e) based on the difference period-measured value curves (M PD), determination of a corrected measured value curve (M K) for the plurality of successive periods of the periodically repeating event, wherein the action e) comprises an action e1) for the determination of back-displaced difference-period-measured value curves by adding the difference-period-measured value curve (M PD) each with the period-measured value curve mean (M PM) determined for the allocated period in the action b2).
A method, comprising identifying at least one beacon opportunity at a wireless network device, said at least one beacon opportunity being a time instant in which beacons are transmittable; selecting an available beacon channel randomly from a plurality of beacon channels in a beacon slot, said beacon slot being a flexibly allocated frequency resource; and transmitting at least one beacon signal in the selected beacon channel, said beacon channel being multiplexed with a plurality of other beacon channels in an orthogonal frequency-division multiplexing beacon frame during the identified at least one beacon opportunity such that said beacon channels are transmittable at said time instant, wherein the at least one beacon signal is concentrated in the beacon slot. identifying at least one beacon opportunity at a wireless network device, said at least one beacon opportunity being a time instant in which beacons are transmittable; selecting an available beacon channel randomly from a plurality of beacon channels in a beacon slot, said beacon slot being a flexibly allocated frequency resource; and transmitting at least one beacon signal in the selected beacon channel, said beacon channel being multiplexed with a plurality of other beacon channels in an orthogonal frequency-division multiplexing beacon frame during the identified at least one beacon opportunity such that said beacon channels are transmittable at said time instant, wherein the at least one beacon signal is concentrated in the beacon slot.
A method for preparing an upcoming Surface Mount Technology job by redistributing bin load units in an automated Surface Mount Device warehouse, where said automated SMD warehouse is configured to obtain information related to upcoming SMT jobs from an SMT information database, said automated SMD warehouse comprising at least one actuator configured to automatically store and retrieve bins within said automated Surface Mount Device warehouse, the method characterized by: - automatically redistributing, by the use of said actuator, bin load units comprised in bins, each of said bins comprising a plurality of slots or compartments each configured for carrying/holding a bin load unit and wherein each bin load unit comprises or constitutes a component tape reel, in said automated Surface Mount Device warehouse based on at least one of SMT job related information received or retrieved from said SMT information database and predetermined rules for optimizing presentation of bins and/or bin load units at a port of said automated Surface Mount Device warehouse, and wherein said step of automatically redistributing is performed within said automated Surface Mount Device warehouse by redistributing bin load units within a stored bin or between two or more stored bins during idle periods when the automated Surface Mount Device warehouse is not occupied with storing or retrieving bins. - automatically redistributing, by the use of said actuator, bin load units comprised in bins, each of said bins comprising a plurality of slots or compartments each configured for carrying/holding a bin load unit and wherein each bin load unit comprises or constitutes a component tape reel, in said automated Surface Mount Device warehouse based on at least one of SMT job related information received or retrieved from said SMT information database and predetermined rules for optimizing presentation of bins and/or bin load units at a port of said automated Surface Mount Device warehouse, and wherein said step of automatically redistributing is performed within said automated Surface Mount Device warehouse by redistributing bin load units within a stored bin or between two or more stored bins during idle periods when the automated Surface Mount Device warehouse is not occupied with storing or retrieving bins.
A method of forming a mechanically stabilized superconducting wire, the method comprising: providing a plurality of monofilaments each comprising a core comprising Nb and, surrounding the core, a cladding comprising Cu; providing a stabilizing element comprising a core and, surrounding the core, a cladding comprising Cu; fabricating a plurality of composite filaments by, for each composite filament, (i) assembling a plurality of the monofilaments into a monofilament stack, (ii) surrounding the monofilament stack with a cladding comprising Cu, (iii) reducing a diameter of the clad monofilament stack, and (iv) altering a cross-sectional shape of the clad monofilament stack; assembling a plurality of the composite filaments and the stabilizing element into a composite stack, wherein the stabilizing element extends through a radial dimension of the composite stack; surrounding the composite stack with a cladding comprising Cu; and reducing a diameter of the clad composite stack to form a wire characterized in that the core of the stabilizing element comprises Ta-3W alloy. providing a plurality of monofilaments each comprising a core comprising Nb and, surrounding the core, a cladding comprising Cu; providing a stabilizing element comprising a core and, surrounding the core, a cladding comprising Cu; fabricating a plurality of composite filaments by, for each composite filament, (i) assembling a plurality of the monofilaments into a monofilament stack, (ii) surrounding the monofilament stack with a cladding comprising Cu, (iii) reducing a diameter of the clad monofilament stack, and (iv) altering a cross-sectional shape of the clad monofilament stack; assembling a plurality of the composite filaments and the stabilizing element into a composite stack, wherein the stabilizing element extends through a radial dimension of the composite stack; surrounding the composite stack with a cladding comprising Cu; and reducing a diameter of the clad composite stack to form a wire characterized in that the core of the stabilizing element comprises Ta-3W alloy.
An information processing apparatus, comprising: a designating module configured to designate a user selected object as a target object from a dictionary in which a feature amount for recognizing said target object is stored; an acquisition module configured to acquire an image captured by photographing an object that is held by the user; a calculation module configured to compare the feature amount of the object contained in the image acquired by the acquisition module with the feature amount of the object designated by the designating module to calculate a similarity degree there between; an updating module configured to update a list (T1, T2) associated with the designated target object, according to the similarity degree calculated by the calculation module; an output module configured to output an electronic file to present the information stored in the list (T1, T2) updated by the updating module; and a storage module to store the updated list (T1, T2), characterized in that the dictionary stores, for each object in the dictionary, the feature amount for recognizing the object; and the output module outputs the electronic file presenting the image acquired by the acquisition module and the similarity degree calculated by the calculation module that are stored in an associated manner in the updated list (T1, T2) associated with the designated target object. a designating module configured to designate a user selected object as a target object from a dictionary in which a feature amount for recognizing said target object is stored; an acquisition module configured to acquire an image captured by photographing an object that is held by the user; a calculation module configured to compare the feature amount of the object contained in the image acquired by the acquisition module with the feature amount of the object designated by the designating module to calculate a similarity degree there between; an updating module configured to update a list (T1, T2) associated with the designated target object, according to the similarity degree calculated by the calculation module; an output module configured to output an electronic file to present the information stored in the list (T1, T2) updated by the updating module; and a storage module to store the updated list (T1, T2), characterized in that the dictionary stores, for each object in the dictionary, the feature amount for recognizing the object; and the output module outputs the electronic file presenting the image acquired by the acquisition module and the similarity degree calculated by the calculation module that are stored in an associated manner in the updated list (T1, T2) associated with the designated target object.
Method for manufacturing a packaging steel from a cold-rolled steel sheet made of an unalloyed or low-alloyed steel with a carbon content of less than 0.1 wt% and the following upper limits for the percentage by weight of the alloying constituents: - N: max. 0.02%, - Mn: max. 0.4%, - Si: max. 0.04%, - Al: max. 0.1%, - Cr: max. 0.1%, - P: max. 0.03%, - Cu: max. 0.1%, - Ni: max. 0.1%, - Sn: max. 0.04%, - Mo: max. 0.04%, - V: max. 0.04%, - Ti: max. 0.05%, - Nb: max. 0.05%, - B: max. 0.005%, - other alloying constituents, including impurities: max. 0.05%, - remainder iron, characterised in that the steel sheet is firstly coated with a metallic coating and then recrystallization annealed with a heat-up rate of more than 75 K/s to temperatures above the Acl temperature of the steel so that the metallic coating is melted on, and the coated and annealed steel sheet is finally quenched with a cooling rate of at least 100 K/s, through which a multi-phase structure is produced in the steel which comprises ferrite and at least one of the structure constituents martensite, bainite and/or residual austenite. - N: max. 0.02%, - Mn: max. 0.4%, - Si: max. 0.04%, - Al: max. 0.1%, - Cr: max. 0.1%, - P: max. 0.03%, - Cu: max. 0.1%, - Ni: max. 0.1%, - Sn: max. 0.04%, - Mo: max. 0.04%, - V: max. 0.04%, - Ti: max. 0.05%, - Nb: max. 0.05%, - B: max. 0.005%, - other alloying constituents, including impurities: max. 0.05%, - remainder iron,
A method of detecting a fault condition in an excitation system of an exciterless synchronous machine comprising a stator; and a rotor provided with a field winding, wherein the rotor has an excitation system including: excitation coils configured to harvest energy in a gap between the stator and the rotor, diodes forming diode rectifiers configured to rectify current from respective excitation coils to obtain a rectified current, a smoothing capacitor configured to smooth the rectified current to obtain a smoothed current, and a power converter configured to be fed with the smoothed current and to energise the field winding, characterized in that the method comprises: obtaining a measurement of at least one of a first electrical parameter and a second electrical parameter, measured between the diode rectifiers and the power converter, and determining whether a fault condition is present in at least one of a diode and the smoothing capacitor, wherein the determining of the fault condition in one of the diodes is based on the measurement of the first electrical parameter and/or the second electrical parameter, and wherein the determining of the fault condition of the smoothing capacitor is based on the measurement of the second electrical parameter. obtaining a measurement of at least one of a first electrical parameter and a second electrical parameter, measured between the diode rectifiers and the power converter, and determining whether a fault condition is present in at least one of a diode and the smoothing capacitor, wherein the determining of the fault condition in one of the diodes is based on the measurement of the first electrical parameter and/or the second electrical parameter, and wherein the determining of the fault condition of the smoothing capacitor is based on the measurement of the second electrical parameter.
An isolated polypeptide inhibitor of Sulf1 isoform, Sulf1a, having a sequence which has at least 80% sequence identity, and preferably at least 89% sequence identity, to the sequence of human Sulf1a provided in Figure 1 (SEQ ID No: 2) over its entire length and which lacks sulfatase activity and lacks the ability to bind to the surface of a cell; wherein the lack of sulfatase activity is caused by a substitution of the amino acid corresponding to cysteine-87 and/or cysteine-88 of human Sulf1a.
Aseptic closing cap for liquid containers comprising a main body, provided with a threaded ring, to be associated with a neck of a container, from which a tubular projection extends coupled with an upper cap, in which a step extends from an inner wall of said projection defining a through hole that is controlled by a flow control element or shutter, towards the top of side walls of which at least one opening for the liquid to pass through is formed, said flow control element being monolithic and coaxial with respect to said upper cap, which has a tubular structure and is able to slide axially along said projection from a raised position, closing off said through hole by the sealing of said flow control element against said wall, to a lowered position opening up said hole for the liquid to pass through, elastic elements being arranged between said main body and said upper cap that at rest keep said upper cap in raised closed position, characterised in that said main body foresees an annular plane from which an annular lip extends upwards to define a housing for a downward-facing final extension of the upper cap.
A method for enrichment, isolation, detection and/or analysis of atrial and/or ventricular cardiomyocytes from a sample comprising cardiomyocytes, the method comprising the steps a) contacting said sample i) with an antigen-binding fragment specific for the CD49e antigen coupled to a fluorophore, thereby stronger labeling (CD49e high) the ventricular cardiomyocytes of said sample than the atrial cardiomyocytes (CD49e low) of said sample, or ii) with an antigen-binding fragment specific for the CD49f antigen coupled to a fluorophore, thereby stronger labeling (CD49f high) the atrial cardiomyocytes of said sample than the ventricular cardiomyocytes (CD49f low) of said sample, b) contacting said sample with an agent which allows specific labeling of cardiomyocytes, thereby co-labeling the cardiomyocytes, wherein said agent is an antigen-binding fragment specific for a cardiomyocyte cell surface marker coupled to a fluorophore or a dye specific for mitochondria, c) enriching, isolating, detecting and/or analysing said co-labeled cells by determining a level of CD49e and/or CD49f protein expression on the cell surface of said co-labeled cells, wherein CD49e high or CD49f low expression is indicative of ventricular cardiomyocytes and CD49e low or CD49f high expression is indicative of atrial cardiomyocytes. a) contacting said sample i) with an antigen-binding fragment specific for the CD49e antigen coupled to a fluorophore, thereby stronger labeling (CD49e high) the ventricular cardiomyocytes of said sample than the atrial cardiomyocytes (CD49e low) of said sample, or ii) with an antigen-binding fragment specific for the CD49f antigen coupled to a fluorophore, thereby stronger labeling (CD49f high) the atrial cardiomyocytes of said sample than the ventricular cardiomyocytes (CD49f low) of said sample, i) with an antigen-binding fragment specific for the CD49e antigen coupled to a fluorophore, thereby stronger labeling (CD49e high) the ventricular cardiomyocytes of said sample than the atrial cardiomyocytes (CD49e low) of said sample, or ii) with an antigen-binding fragment specific for the CD49f antigen coupled to a fluorophore, thereby stronger labeling (CD49f high) the atrial cardiomyocytes of said sample than the ventricular cardiomyocytes (CD49f low) of said sample, b) contacting said sample with an agent which allows specific labeling of cardiomyocytes, thereby co-labeling the cardiomyocytes, wherein said agent is an antigen-binding fragment specific for a cardiomyocyte cell surface marker coupled to a fluorophore or a dye specific for mitochondria, c) enriching, isolating, detecting and/or analysing said co-labeled cells by determining a level of CD49e and/or CD49f protein expression on the cell surface of said co-labeled cells, wherein CD49e high or CD49f low expression is indicative of ventricular cardiomyocytes and CD49e low or CD49f high expression is indicative of atrial cardiomyocytes.
A method for producing a plurality of implants from a previously removed human or animal cornea, the method comprising the following steps: - depositing the cornea in a holding device including first and second plates (1, 2) transparent to the laser beam emitted by a laser source, the cornea being positioned between the first and second plates (1, 2) to apply mechanical stress to the anterior and posterior faces of the cornea, - cutting, using the laser beam, the cornea contained in the holding device to obtain a cut cornea, the cutting step comprising generating gas bubbles to form contours of the plurality of implants, - detaching each implant from the cut cornea, - decellularizing each detached implant to obtain decellularized implants, - lyophilizing each decellularized implant to obtain lyophilized implants, - sterilizing each lyophilized implant to obtain sterilized implants, - packaging each sterilized implant to obtain packaged implants. - depositing the cornea in a holding device including first and second plates (1, 2) transparent to the laser beam emitted by a laser source, the cornea being positioned between the first and second plates (1, 2) to apply mechanical stress to the anterior and posterior faces of the cornea, - cutting, using the laser beam, the cornea contained in the holding device to obtain a cut cornea, the cutting step comprising generating gas bubbles to form contours of the plurality of implants, - detaching each implant from the cut cornea, - decellularizing each detached implant to obtain decellularized implants, - lyophilizing each decellularized implant to obtain lyophilized implants, - sterilizing each lyophilized implant to obtain sterilized implants, - packaging each sterilized implant to obtain packaged implants.