mhurhangee/patent-ind-claim-en huggingface dataset:
A method for use in connection with delivering assets to users of a broadcast network, said broadcast network primarily involving synchronized distribution of broadcast content to multiple users, said method comprising: receiving a request for dissemination of an asset via said broadcast network, said request defining one or more dissemination parameters relating to a desired level of dissemination of said asset, said dissemination parameters specifying an audience size and audience classification for said asset; causing said asset to be delivered via Customer Premise Equipment (CPE) devices to network users of a plurality of channels to aggregate said network users across said plurality of channels of said broadcast network to satisfy the dissemination parameters; receiving reports from each CPE device; and aggregating reports from said CPE devices to verify actual asset delivery to said users via said CPE devices and determine an actual audience size for said asset; said delivery via each CPE device comprising, for a given CPE: storing said asset, together with metadata identifying said audience classification, in a storage space of the given CPE; selecting said asset based on classification parameters of at least one of said network users associated with the given CPE; identifying, by the given CPE, a break of programming; and inserting said asset into said break. receiving a request for dissemination of an asset via said broadcast network, said request defining one or more dissemination parameters relating to a desired level of dissemination of said asset, said dissemination parameters specifying an audience size and audience classification for said asset; causing said asset to be delivered via Customer Premise Equipment (CPE) devices to network users of a plurality of channels to aggregate said network users across said plurality of channels of said broadcast network to satisfy the dissemination parameters; receiving reports from each CPE device; and aggregating reports from said CPE devices to verify actual asset delivery to said users via said CPE devices and determine an actual audience size for said asset; said delivery via each CPE device comprising, for a given CPE: storing said asset, together with metadata identifying said audience classification, in a storage space of the given CPE; selecting said asset based on classification parameters of at least one of said network users associated with the given CPE; identifying, by the given CPE, a break of programming; and inserting said asset into said break. storing said asset, together with metadata identifying said audience classification, in a storage space of the given CPE; selecting said asset based on classification parameters of at least one of said network users associated with the given CPE; identifying, by the given CPE, a break of programming; and inserting said asset into said break.
A computer-implemented method for lifelong learning in the field of computer vision, the method comprising: receiving a new task in a sequence of tasks for a machine learning model to perform, the machine learning model trained to perform an existing task; for the new task, searching the best network architecture for the machine learning model by network transformation based AutoML without access to data of the existing task using a multi-task weight consolidation approach to learn a discriminative weights subset by incorporating inherent correlations between the new task and the existing task to provide an adapted machine learning model having an expanded network architecture size; and using the adapted machine learning model to perform both the existing task and the new task, wherein the existing task and the new task comprise tasks relating to at least one of image classification, image segmentation, object detection and other computer vision tasks. receiving a new task in a sequence of tasks for a machine learning model to perform, the machine learning model trained to perform an existing task; for the new task, searching the best network architecture for the machine learning model by network transformation based AutoML without access to data of the existing task using a multi-task weight consolidation approach to learn a discriminative weights subset by incorporating inherent correlations between the new task and the existing task to provide an adapted machine learning model having an expanded network architecture size; and using the adapted machine learning model to perform both the existing task and the new task, wherein the existing task and the new task comprise tasks relating to at least one of image classification, image segmentation, object detection and other computer vision tasks.
A stator for an outer rotor type motor, comprising: a stator core including a plurality of split cores arranged in an annular shape, wherein the split cores each include a yoke portion and a tooth portion protruding from the yoke portion in a radial direction of the stator core , wherein the yoke portions of adjoining split cores are connected to each other at joint surfaces of the adjoining split cores, and the joint surfaces are provided with a fitting portion that extends along an axial direction of the stator core from an upper end surface to a lower end surface of the stator core , wherein the fitting portion is provided with a crimped portion (44 A to 44 G), characterized in that on one joint surface of the yoke portion of one split core , a joint-surface side end of the fitting portion is positioned radially inward from a center (P1) of the joint surface between a radially outer end and a radially inner end of the joint surface , and the magnetic flux density in the fitting portion is lower than the magnetic flux density in a region, located on the radially outer side of the fitting portion of the joint surface . a stator core including a plurality of split cores arranged in an annular shape, wherein the split cores each include a yoke portion and a tooth portion protruding from the yoke portion in a radial direction of the stator core , wherein the yoke portions of adjoining split cores are connected to each other at joint surfaces of the adjoining split cores, and the joint surfaces are provided with a fitting portion that extends along an axial direction of the stator core from an upper end surface to a lower end surface of the stator core , wherein the fitting portion is provided with a crimped portion (44 A to 44 G), characterized in that on one joint surface of the yoke portion of one split core , a joint-surface side end of the fitting portion is positioned radially inward from a center (P1) of the joint surface between a radially outer end and a radially inner end of the joint surface , and the magnetic flux density in the fitting portion is lower than the magnetic flux density in a region, located on the radially outer side of the fitting portion of the joint surface .
A porous nanofiber filtration medium for removing retroviruses from a liquid sample, giving a retrovirus Log Reduction Value (LRV) when assayed against PR772 bacteriophage of greater than 6, the medium comprising: a porous nanofiber mat formed by electrospinning nylon, the mat having a thickness from 1 μm to 500 μm; a porosity from 80% to 95%;a water permeability at 0.69 bar differential pressure of greater than 1450 LMH/bar (100 LMH/psi) and an average fiber diameter of 25-30nm.
A pneumatic tire comprising: an innerliner; and a tie rubber, a rubber composition for an innerliner constituting the innerliner including from 25 to 75 parts by mass of a carbon black having a nitrogen adsorption specific surface area from 25 to 95 m 2 /g, the nitrogen adsorption specific surface area being measured in accordance with JIS K6217-2, from 1 to 13 parts by mass of a resin, and from 0.1 to 1.8 parts by mass of zinc oxide, per 100 parts by mass of a diene rubber containing from 50 to 100 parts by mass of halogenated butyl rubber, and a dynamic storage modulus at -45°C of the rubber composition is not greater than 600 Mpa, the dynamic storage modulus at -45°C being measured in accordance with JIS K6394 under conditions including an initial strain of 10%, a dynamic strain of ±2%, a frequency of 20 Hz, and a temperature of -45°C, wherein a ratio HS T /HS IL of a rubber hardness HS T of a rubber composition for a tie rubber constituting the tie rubber to a rubber hardness HS IL of the rubber composition for an innerliner is not less than 1.1. an innerliner; and a tie rubber, a rubber composition for an innerliner constituting the innerliner including
A roofing panel for interconnection with one or more additional roofing panels, the roofing panel comprising: a PV cell coupled to an inverter , and wireless power transfer circuitry for: receiving power from another roofing panel, and transmitting power to one or more of: another roofing panel, the AC grid, an AC inverter, wherein the wireless power transfer circuitry comprises receiving circuitry comprising an inductor in a first coil region and a rectifier , and the wireless power transfer circuitry comprises transmitting circuitry comprising an inductor in a second coil region coupled to the inverter and the receiving circuitry, and wherein the roofing panel can be interconnected with one or more additional said roofing panels such that the first coil region of a first roofing panel aligns with and creates a physical coupling to a corresponding second coil region of an adjacent roofing panel so that the inductors inductively couple to transfer power from one roofing panel to the other. a PV cell coupled to an inverter , and wireless power transfer circuitry for: receiving power from another roofing panel, and transmitting power to one or more of: another roofing panel, the AC grid, an AC inverter, wherein the wireless power transfer circuitry comprises receiving circuitry comprising an inductor in a first coil region and a rectifier , and the wireless power transfer circuitry comprises transmitting circuitry comprising an inductor in a second coil region coupled to the inverter and the receiving circuitry, and wherein the roofing panel can be interconnected with one or more additional said roofing panels such that the first coil region of a first roofing panel aligns with and creates a physical coupling to a corresponding second coil region of an adjacent roofing panel so that the inductors inductively couple to transfer power from one roofing panel to the other. receiving power from another roofing panel, and transmitting power to one or more of: another roofing panel, the AC grid, an AC inverter, another roofing panel, the AC grid, an AC inverter, wherein the wireless power transfer circuitry comprises receiving circuitry comprising an inductor in a first coil region and a rectifier , and the wireless power transfer circuitry comprises transmitting circuitry comprising an inductor in a second coil region coupled to the inverter and the receiving circuitry, and wherein the roofing panel can be interconnected with one or more additional said roofing panels such that the first coil region of a first roofing panel aligns with and creates a physical coupling to a corresponding second coil region of an adjacent roofing panel so that the inductors inductively couple to transfer power from one roofing panel to the other.
A lock device , comprising: a housing ; a pair of rods disposed slidably in a linear direction relative to the housing , and switched between a lock position separated from each other, and a release position approaching each other; and an operating member allowing each rod to be switched from the lock position to the release position by turning from an initial state to an operating state, wherein the lock device allows an opening and closing member to engage with or disengage from a main member through the rods and comprises the housing ; the rod ; the operating member ; characterized by a connection member urging the rods in a connected state in a direction of separating the rods away from each other; and an urging member disposed between the housing and the operating member , and serving as a swaying resistance of the operating member when the operating member is switched from the operating state to the initial state through an urging force of the connection member. a housing ; a pair of rods disposed slidably in a linear direction relative to the housing , and switched between a lock position separated from each other, and a release position approaching each other; and an operating member allowing each rod to be switched from the lock position to the release position by turning from an initial state to an operating state, wherein the lock device allows an opening and closing member to engage with or disengage from a main member through the rods and comprises the housing ; the rod ; the operating member ; characterized by a connection member urging the rods in a connected state in a direction of separating the rods away from each other; and an urging member disposed between the housing and the operating member , and serving as a swaying resistance of the operating member when the operating member is switched from the operating state to the initial state through an urging force of the connection member.
A guardrail terminal , comprising: a feeder chute having a horizontal width ; an impact head ; and a throat positioned between the feeder chute and the impact head , the throat including at least one deflector extending horizontally from an interior wall of the throat for folding a guardrail during collision or impact, the deflector extending a first width from the interior wall of the throat at a first end and second width greater than the first width from the interior wall of the throat at a second end upstream from the first end, characterized in - the throat having at its entrance the horizontal width of the feeder chute and having a flared region widening to a final width and length with a flare rate, - wherein the throat with the at least one deflector is configured to flatten into a nearly straight beam and then to fold in half into a relatively narrow V-shape a W-shaped guardrail beam, or the throat with the at least one deflector is configured to continuously squeeze the W-shaped guardrail beam into a narrow U- shape. a feeder chute having a horizontal width ; an impact head ; and a throat positioned between the feeder chute and the impact head , the throat including at least one deflector extending horizontally from an interior wall of the throat for folding a guardrail during collision or impact, the deflector extending a first width from the interior wall of the throat at a first end and second width greater than the first width from the interior wall of the throat at a second end upstream from the first end, characterized in - the throat having at its entrance the horizontal width of the feeder chute and having a flared region widening to a final width and length with a flare rate, - wherein the throat with the at least one deflector is configured to flatten into a nearly straight beam and then to fold in half into a relatively narrow V-shape a W-shaped guardrail beam, or the throat with the at least one deflector is configured to continuously squeeze the W-shaped guardrail beam into a narrow U- shape. - the throat having at its entrance the horizontal width of the feeder chute and having a flared region widening to a final width and length with a flare rate, - wherein the throat with the at least one deflector is configured to flatten into a nearly straight beam and then to fold in half into a relatively narrow V-shape a W-shaped guardrail beam, or the throat with the at least one deflector is configured to continuously squeeze the W-shaped guardrail beam into a narrow U- shape.
A component cooling device comprising: a circuit board , the circuit board having an upper side and a lower side facing away from the upper side ; and at least one electronic component and at least one hollow circuit board opening for a gaseous cooling medium for cooling the component, characterised in that on the lower side of the circuit board is provided a guide which forms a flow channel that has at least one inlet and at least one outlet which is formed by the at least one circuit board opening , for at least one convection flow of the cooling medium, wherein the flow channel is delimited by the guide and a region of the lower side of the circuit board .
A method for forming a field-effect transistor sensor, the method comprising: a. providing a substrate having a substrate region comprising a gate dielectric and optionally a nanocavity , b. providing a sacrificial element over the substrate region , c. providing one or more layers over the sacrificial element , d. opening an access to the sacrificial element through the one or more layers , and e. selectively removing the sacrificial element , thereby opening a sensor cavity over the substrate region , characterized in that the sacrificial element provided in step b is removable by a peroxide-based wet-etching at a temperature of 40°C or below, the one or more layers have a combined thickness of at least 100 nm over the sacrificial element , and the sacrificial element is removed in step e by a peroxide-based wet-etching at a temperature of 40°C or below, further characterized in that during step e, an intermediate obtained after step d comprises an exposed material selected from Al, Al 2 O 3 , Ti and Ti x O y and wherein step e is performed selectively with respect to said material. a. providing a substrate having a substrate region comprising a gate dielectric and optionally a nanocavity , b. providing a sacrificial element over the substrate region , c. providing one or more layers over the sacrificial element , d. opening an access to the sacrificial element through the one or more layers , and e. selectively removing the sacrificial element , thereby opening a sensor cavity over the substrate region , characterized in that the sacrificial element provided in step b is removable by a peroxide-based wet-etching at a temperature of 40°C or below, the one or more layers have a combined thickness of at least 100 nm over the sacrificial element , and the sacrificial element is removed in step e by a peroxide-based wet-etching at a temperature of 40°C or below, further characterized in that during step e, an intermediate obtained after step d comprises an exposed material selected from Al, Al 2 O 3 , Ti and Ti x O y and wherein step e is performed selectively with respect to said material.
Crimping pliers force sensor comprising a) a transfer body comprising a contact surface for a die back of a die half , b) a supporting body which comprises a mounting portion for mounting the supporting body to a pliers part of the crimping pliers and c) at least one piezoelectric film arranged between the transfer body and the supporting body , characterized in that d) the transfer body and the supporting body comprise protrusions having longitudinal axes extending parallel to the crimping axis and recesses providing a guidance between the transfer body and the supporting body and by which da) the transfer body and the supporting body are guided in a transversal plane which is oriented transverse to the crimping force and db) a degree of freedom for a relative movement between the transfer body and the supporting body in the direction of the crimping force is provided. a) a transfer body comprising a contact surface for a die back of a die half , b) a supporting body which comprises a mounting portion for mounting the supporting body to a pliers part of the crimping pliers and c) at least one piezoelectric film arranged between the transfer body and the supporting body , da) the transfer body and the supporting body are guided in a transversal plane which is oriented transverse to the crimping force and db) a degree of freedom for a relative movement between the transfer body and the supporting body in the direction of the crimping force is provided.
A C-gripper for handling a load , consisting of - an upper strut , a vertical strut and a support strut , on or at which the load can be arranged, wherein - the upper strut and the vertical strut are rigidly connected to one another, - the support strut is connected in a rotatably mounted manner to the vertical strut , so that a clear dimension (h) of a mouth of the C-gripper can be modified, - the vertical strut is telescopable, - the telescopable vertical strut is locked by means of a holding device , and - the rotatably mounted support strut is locked by means of at least one non-rigid loading means which, displaced relative to the vertical strut in the direction of the mouth of the C-gripper , is arranged at the upper strut and the support strut . - an upper strut , a vertical strut and a support strut , on or at which the load can be arranged, wherein - the upper strut and the vertical strut are rigidly connected to one another, - the support strut is connected in a rotatably mounted manner to the vertical strut , so that a clear dimension (h) of a mouth of the C-gripper can be modified, - the vertical strut is telescopable, - the telescopable vertical strut is locked by means of a holding device , and - the rotatably mounted support strut is locked by means of at least one non-rigid loading means which, displaced relative to the vertical strut in the direction of the mouth of the C-gripper , is arranged at the upper strut and the support strut .
Chopping and distributing device , comprising a straw chopper and a distributing device arranged downstream of the straw chopper , which comprises two throwing fans arranged next to one another, which each have a rotor rotating about a vertical axis , which rotate in opposite directions during operation, wherein each throwing fan has a material inlet region facing the straw chopper and a material outlet region facing away from the straw chopper , wherein between the throwing fans there is a guide region in the form of a substantially circular arc and a material outlet region facing away from the straw chopper , essentially circular arc-shaped material inlet region and a material outlet region facing away from the straw chopper , a guide element being arranged between the throwing fans , which extends in sections in the longitudinal direction of the distribution device , characterised in that the guide element has a first essentially wedge-shaped guide section in the material inlet region of the throwing fans , which, starting from the material inlet region , widens in the longitudinal direction of the guide element as far as a transition region , and in that the guide element has a second, essentially wedge-shaped guide section which, starting from the transition region , tapers in the direction of the material outlet region , wherein the transition region of the guiding element is arranged at a distance from the vertical axes in an imaginary plane extending transversely to the longitudinal axis of the guiding element and the distance of the imaginary plane from the vertical axes corresponds at least to the radius of the runners , wherein the rotors are provided with a plurality of radially orientated blades which project vertically from a circular base plate of the rotor .