mhurhangee/ep-ind-claims huggingface dataset:
A gesture-based control system comprising: a data funnel coupled to a processor, wherein the data funnel collates a plurality of input data types from a plurality of sources (S1, S2,.., SY), wherein the input data is semantically uncorrelated three-space data of an instantaneous spatial and geometric state of an object in a frame of reference of the object, wherein the plurality of sources comprise disparate sources, wherein the data funnel collates the plurality of input data types from the plurality of sources into a single stream of spatiotemporal data by spatially seaming and temporally aligning the input data from each of the plurality of sources to form a single data stream; a gesture engine coupled to the data funnel, wherein the gesture engine generates gestural events from the spatiotemporal data using a plurality of gesture descriptions, wherein the gesture engine represents the gestural events in a protoevent comprising data that is a detailed description of the gestural event using a data format that is application-neutral; and a distributor coupled to the gesture engine, wherein the distributor provides access to the gestural events by at least one event consumer via corresponding protoevents that are provided to the at least one event consumer in a frame of reference of the at least one event consumer. a data funnel coupled to a processor, wherein the data funnel collates a plurality of input data types from a plurality of sources (S1, S2,.., SY), wherein the input data is semantically uncorrelated three-space data of an instantaneous spatial and geometric state of an object in a frame of reference of the object, wherein the plurality of sources comprise disparate sources, wherein the data funnel collates the plurality of input data types from the plurality of sources into a single stream of spatiotemporal data by spatially seaming and temporally aligning the input data from each of the plurality of sources to form a single data stream; a gesture engine coupled to the data funnel, wherein the gesture engine generates gestural events from the spatiotemporal data using a plurality of gesture descriptions, wherein the gesture engine represents the gestural events in a protoevent comprising data that is a detailed description of the gestural event using a data format that is application-neutral; and a distributor coupled to the gesture engine, wherein the distributor provides access to the gestural events by at least one event consumer via corresponding protoevents that are provided to the at least one event consumer in a frame of reference of the at least one event consumer.
A method performed by a user equipment, UE, configured as a coordinating user equipment for a user equipment-coordination set, UECS, of UEs connected by a local wireless network in a wireless communications network, the method comprising the coordinating user equipment: selecting a first subset of UEs in the UECS to jointly receive downlink signals; selecting a second subset of UEs in the UECS to jointly transmit uplink signals, the UEs included in the second subset of UEs not overlapping with the UEs included in the first subset of UEs; transmitting an indication that the UECS is capable of full-duplex communication to a network entity (121, 602); receiving, from the network entity (121, 602), a resource grant for a target UE in the UECS; receiving uplink data to transmit to the network entity (121, 602); receiving, from the first subset of UEs, demodulated and sampled downlink data, the demodulated and sampled downlink data jointly received by the first subset of UEs concurrently with joint transmission of modulated and coded uplink data by the second subset of UEs; combining the samples received from each UE in the first subset of UEs; and jointly processing the combined samples to provide decoded data using the received modulated and coded uplink data to cancel crosstalk of uplink signals for the transmitted uplink data from downlink signals for the received downlink data. selecting a first subset of UEs in the UECS to jointly receive downlink signals; selecting a second subset of UEs in the UECS to jointly transmit uplink signals, the UEs included in the second subset of UEs not overlapping with the UEs included in the first subset of UEs; transmitting an indication that the UECS is capable of full-duplex communication to a network entity (121, 602); receiving, from the network entity (121, 602), a resource grant for a target UE in the UECS; receiving uplink data to transmit to the network entity (121, 602); receiving, from the first subset of UEs, demodulated and sampled downlink data, the demodulated and sampled downlink data jointly received by the first subset of UEs concurrently with joint transmission of modulated and coded uplink data by the second subset of UEs; combining the samples received from each UE in the first subset of UEs; and jointly processing the combined samples to provide decoded data using the received modulated and coded uplink data to cancel crosstalk of uplink signals for the transmitted uplink data from downlink signals for the received downlink data.
A trim-to-fit compression garment apparatus for treating a condition of a patient's limb, the apparatus comprising: material having properties of short stretch, with maximum elasticity of 15-100% such that the garment provides a compression level that falls within the range of 8-50 mmHg when applied on a resting supine limb at or near end-stretch, the material forming a plurality of bands wrappable about the limb, and attachment mechanisms to connect the ends of the plurality of bands; markings showing where to trim at least one band of the plurality of bands in order to fit a smaller size limb; characterized in that the marking comprising an indicia system drawn on, sewn in, or otherwise associated with the at least one band and telling a user where to cut the at least one band for a given circumference in order to get the correct band length for a desired compression; wherein the markings provide a compressed scale.
A turbomachine comprising an annular combustion chamber, comprising a radially inner wall and a radially outer wall, these walls exhibiting a symmetry of revolution with respect to the axis of the turbomachine, and being connected at their upstream ends by an annular chamber end wall equipped with fuel-injection means, wherein the turbomachine comprises suspension means for suspending the upstream end of the combustion chamber from an outer casing, these means comprising at least one link rod articulated at its ends to a wall of the combustion chamber and to the outer casing, the downstream end of the combustion chamber being connected to an inner casing or outer casing by flexible connections or mounts (32,76).
A compact, spring-actuated stapler, comprising: a housing; a handle disposed toward a top of the housing; a power spring mounted at a rear of the housing and includes a center arm and outer arms, the arms co-extensive and extending from the rear of the housing toward a front of the housing, wherein the power spring is pivotably linked to a striker at the front of the housing; a rest shape of the power spring includes the power spring arms being substantially co-planar; and a deflected shape of the power spring includes the center arm being bent downward, and the outer arms in the deflected shape being bent upward in relation to the center arm. a housing; a handle disposed toward a top of the housing; a power spring mounted at a rear of the housing and includes a center arm and outer arms, the arms co-extensive and extending from the rear of the housing toward a front of the housing, wherein the power spring is pivotably linked to a striker at the front of the housing; a rest shape of the power spring includes the power spring arms being substantially co-planar; and a deflected shape of the power spring includes the center arm being bent downward, and the outer arms in the deflected shape being bent upward in relation to the center arm.
A method for forming a stack of thin-walled packages, wherein all of said thin-walled packages in the stack are of the same shape and size, and each thin-walled package has a lower surface with a length (l x) extending in an x-direction and a length (l y) extending in a y-direction of an x-y plane, said stack comprising two or more distinct layers of thin-walled packages, wherein each layer is of the same size with an horizontal extension in the x-direction and in the y-direction of an x-y plane and a vertical extension in a z-direction perpendicular to the x-y plane, said method comprising the steps of: a) arranging a layer of three or more packages in a side-by-side configuration with said lower surfaces of said packages in a plane parallel to the x-y plane, b) arranging a subsequent layer of three or more packages on top of a previously arranged layer in a side-by-side configuration with said lower surfaces of said packages in said subsequent layer arranged in a plane parallel to the x-y plane and with said subsequent layer being offset in relation to said previous layer in the x-direction and/or in the y-direction such that the center point (C i) of the smallest rectangle that can be drawn around said subsequent layer in the x-y plane is offset a distance d x in the x-direction and/or a distance d y in the y-direction in relation to the center point (C 0) of the smallest rectangle that can be drawn around said first layer (L 0) in the x-y plane, said method being characterised by the step of: c) repeating step b) one or more times wherein each subsequent layer (L i) is arranged on top of a previous layer and wherein the offset distances d x in the x-direction and/or a distance d y in the y-direction are the same for all subsequent layers and said offset direction are shifted in each repetition of step b). a) arranging a layer of three or more packages in a side-by-side configuration with said lower surfaces of said packages in a plane parallel to the x-y plane, b) arranging a subsequent layer of three or more packages on top of a previously arranged layer in a side-by-side configuration with said lower surfaces of said packages in said subsequent layer arranged in a plane parallel to the x-y plane and with said subsequent layer being offset in relation to said previous layer in the x-direction and/or in the y-direction such that the center point (C i) of the smallest rectangle that can be drawn around said subsequent layer in the x-y plane is offset a distance d x in the x-direction and/or a distance d y in the y-direction in relation to the center point (C 0) of the smallest rectangle that can be drawn around said first layer (L 0) in the x-y plane, c) repeating step b) one or more times wherein each subsequent layer (L i) is arranged on top of a previous layer and wherein the offset distances d x in the x-direction and/or a distance d y in the y-direction are the same for all subsequent layers and said offset direction are shifted in each repetition of step b).
An anti-vehicle device for assembling a modular anti-vehicle barrier designed to be freely arranged resting on an upper surface of the ground, the anti-vehicle device comprises: a tubular support element, which extends along a vertical reference axis, a regular polygonal shaped base, which is designed to support said tubular element, fastening means for connecting said base to other bases of other adjacent anti-vehicle devices thus forming with the same a single body which constitutes a base of said anti-vehicle barrier, friction means which, in installed condition of the device, are interposed between said base and the upper resting surface of the ground and are structured to counter by friction movement of the anti-vehicle barrier on the upper surface of the ground, a ballast which is designed to be coupled, in an easily removable manner, to said tubular support element for adjusting the weight and/or the height of said anti-vehicle barrier, the anti-vehicle modular device is characterised in that: said ballast comprises a weight bar structured for being easily inserted in and extracted from said tubular support element. a tubular support element, which extends along a vertical reference axis, a regular polygonal shaped base, which is designed to support said tubular element, fastening means for connecting said base to other bases of other adjacent anti-vehicle devices thus forming with the same a single body which constitutes a base of said anti-vehicle barrier, friction means which, in installed condition of the device, are interposed between said base and the upper resting surface of the ground and are structured to counter by friction movement of the anti-vehicle barrier on the upper surface of the ground, a ballast which is designed to be coupled, in an easily removable manner, to said tubular support element for adjusting the weight and/or the height of said anti-vehicle barrier,
Method for updating firmware for components (IM, PM, CPU, HMI) of an industrial automation system, wherein a respective number of versions (1.0, 1.1, 1.2, 1.3) of the respective firmware is available in a respective different release state for the components (IM, PM, CPU, HMI), and wherein compatibility relationships (OK, NOK) exist between at least some versions (1.0, 1.1, 1.2, 1.3) of the firmware of different components (IM, PM, CPU, HMI), wherein a device for updating the firmware of some or all of the components (IM, PM, CPU, HMI) of the industrial automation system is provided, wherein there is provision that, in a first step, for a number, preferably all, of the components (IM, PM, CPU, HMI), the compatibility relationships (OK, NOK) between the various versions (1.0, 1.1, 1.2, 1.3) of the firmware of the respective components (IM, PM, CPU, HMI) under consideration are stored in each case in pairs in a memory device of the device, that, in a second step, information about the versions (1.0, 1.1, 1.2, 1.3), currently being used in the components (IM, PM, CPU, HMI), of the respective firmware is stored in a or the memory device of the device, that, in a third step, the stored compatibility information and the information about the versions (1.0, 1.1, 1.2, 1.3) currently being used is used to determine the components (IM, PM, CPU, HMI) to be updated and the respective versions (1.0, 1.1, 1.2, 1.3), able to be used in this case, of the respective firmware, and that, in a fourth step, the components (IM, PM, CPU, HMI) to be updated are updated automatically with firmware in the respectively determined version, characterized in that, prior to the fourth step, a functional simulation of at least part of the automation system is performed taking into consideration the constellation, planned by the update, of the firmware.
A composition comprising a beta-tricalcium phosphate (β-TCP) and a β-TCP binding peptide comprising the amino acid sequence LLADTTHHRPWT (SEQ ID NO: 1), wherein the β-TCP is non-covalently bound to a concatenated multimer comprising two, three, four, five, six, seven, eight, nine, ten, eleven, twelve, thirteen, fourteen, fifteen, sixteen, seventeen, eighteen, nineteen, or twenty repeats of β-TCP binding peptides.
A system for calibrating radio frequency test chambers comprising: an antenna array with a plurality of antenna elements (11 1,11 2,...,11 N) arranged in a three dimensional configuration, a plurality of power measuring units (12 1,12 2,...,12 N) downstream to the plurality of antenna elements (11 1,11 2,...,11 N), and a processing unit, wherein the plurality of power measuring units (12 1,12 2,...,12 N) are configured to measure an incident power from each of the antenna elements (11 1,11 2,...,11 N) corresponding to an incident test signal, wherein the processing unit is configured to determine the antenna elements (11 1,11 2,...,11 N) with highest power in order to identify the incident direction of the test signal, and wherein the processing unit is further configured to analyze the power distribution of the test signal in order to calculate a calibration. an antenna array with a plurality of antenna elements (11 1,11 2,...,11 N) arranged in a three dimensional configuration, a plurality of power measuring units (12 1,12 2,...,12 N) downstream to the plurality of antenna elements (11 1,11 2,...,11 N), and a processing unit, wherein the plurality of power measuring units (12 1,12 2,...,12 N) are configured to measure an incident power from each of the antenna elements (11 1,11 2,...,11 N) corresponding to an incident test signal, wherein the processing unit is configured to determine the antenna elements (11 1,11 2,...,11 N) with highest power in order to identify the incident direction of the test signal, and wherein the processing unit is further configured to analyze the power distribution of the test signal in order to calculate a calibration.
An apparatus (510, 515) comprising: a transceiver configured to transmit information to a user equipment, UE, and receive information from the UE through an access point; and at least one processor coupled to the transceiver, wherein the at least one processor is configured to: transmit a response indicating a service provider associated with the access point; and generate and provide to the UE at least one portion of a management object, MO, the portion including a field indicating whether the access point is trusted. a transceiver configured to transmit information to a user equipment, UE, and receive information from the UE through an access point; and at least one processor coupled to the transceiver, wherein the at least one processor is configured to: transmit a response indicating a service provider associated with the access point; and generate and provide to the UE at least one portion of a management object, MO, the portion including a field indicating whether the access point is trusted. transmit a response indicating a service provider associated with the access point; and generate and provide to the UE at least one portion of a management object, MO, the portion including a field indicating whether the access point is trusted.
A container, comprising: an outer box; a polygonal liner located within the outer box and having a plurality of vertical walls; and a continuous length of wire within the polygonal liner forming a plurality of layers, characterized in that each of the layers is comprised of a series of wire loops arrayed polygonally along the vertical walls of the polygonal liner. an outer box; a polygonal liner located within the outer box and having a plurality of vertical walls; and a continuous length of wire within the polygonal liner forming a plurality of layers, characterized in that each of the layers is comprised of a series of wire loops arrayed polygonally along the vertical walls of the polygonal liner.
A coating for a submerged structure, said coating comprising at least one bio-hydrolysable polymer comprising at least one sugar hydrolysable by a β-glucosidase enzyme.
An imaging system, comprising: - an imaging detector to capture an image of human tissue; - a compression paddle situated apart from the imaging detector; and - a magnification stand configured to rotate between a first position and a second position, wherein the magnification stand is situated between the compression paddle and the imaging detector in the first position such that the human tissue can be compressed between the magnification stand and the compression paddle, and wherein the magnification stand is rotated to the second position in which the second position is generally perpendicular to the first position. - an imaging detector to capture an image of human tissue; - a compression paddle situated apart from the imaging detector; and - a magnification stand configured to rotate between a first position and a second position, wherein the magnification stand is situated between the compression paddle and the imaging detector in the first position such that the human tissue can be compressed between the magnification stand and the compression paddle, and wherein the magnification stand is rotated to the second position in which the second position is generally perpendicular to the first position.
A method of operating a wireless electronic device that supports multiple radio access technologies, comprising: determining a data rate efficiency value associated with a currently active radio access technology in the wireless electronic device, wherein the data rate efficiency value associated with the currently active radio access technology is based on a ratio of a data rate for the currently active radio access technology to a power consumption value for the currently active radio access technology; determining a data rate efficiency value associated with an alternative radio access technology in the wireless electronic device wherein the data rate efficiency value associated with the alternative active radio access technology is based on a ratio of a data rate for the alternative active radio access technology to a power consumption value for the alternative active radio access technology; and in response to determining that the data rate efficiency value for the alternative radio access technology is greater than the data rate efficiency value for the current radio access technology, switching the alternate radio access technology into use in conveying wireless data for the wireless electronic device in place of the currently active radio access technology. determining a data rate efficiency value associated with a currently active radio access technology in the wireless electronic device, wherein the data rate efficiency value associated with the currently active radio access technology is based on a ratio of a data rate for the currently active radio access technology to a power consumption value for the currently active radio access technology; determining a data rate efficiency value associated with an alternative radio access technology in the wireless electronic device wherein the data rate efficiency value associated with the alternative active radio access technology is based on a ratio of a data rate for the alternative active radio access technology to a power consumption value for the alternative active radio access technology; and in response to determining that the data rate efficiency value for the alternative radio access technology is greater than the data rate efficiency value for the current radio access technology, switching the alternate radio access technology into use in conveying wireless data for the wireless electronic device in place of the currently active radio access technology.
A polyphenylene sulfide resin composition, comprising: (a) 25 to 75 % by weight of a base resin comprising 95 % by weight or more of a polyphenylene sulfide resin; (b) 0.1 to 10 % by weight of a laser direct structuring LDS additive, wherein the LDS additive is a copper-containing oxide; (c) 0.1 to 5 % by weight of a plating seed generation promoter, wherein the plating seed generation promotor is a polyol containing 4 or more hydroxyl groups; (d) 10 to 60 % by weight of a glass fiber; and (e) 0 to 40 % by weight of a mineral filler. (a) 25 to 75 % by weight of a base resin comprising 95 % by weight or more of a polyphenylene sulfide resin; (b) 0.1 to 10 % by weight of a laser direct structuring LDS additive, wherein the LDS additive is a copper-containing oxide; (c) 0.1 to 5 % by weight of a plating seed generation promoter, wherein the plating seed generation promotor is a polyol containing 4 or more hydroxyl groups; (d) 10 to 60 % by weight of a glass fiber; and (e) 0 to 40 % by weight of a mineral filler.