mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for receiving a signal, the apparatus comprising: a multicast gateway configured to receive the signal from a multicast server, wherein the signal corresponds to a multicast service meant to be distributed over multiple heterogeneous networks; and a content playback configured to display the multicast service included in the signal, wherein the signal includes a multicast transport session carrying the service, wherein the service is processed based on a User Datagram Protocol/Internet Protocol, UDP/IP, a Generic Stream Encapsulation, GSE, protocol, and a physical layer protocol, wherein the signal includes Logical Layer Control, LLC, information which is based on the GSE protocol, wherein the LLC information includes a multicast descriptor, wherein the multicast descriptor includes source address information, destination address information, source UDP port information, and destination UDP port information. a multicast gateway configured to receive the signal from a multicast server, wherein the signal corresponds to a multicast service meant to be distributed over multiple heterogeneous networks; and a content playback configured to display the multicast service included in the signal, wherein the signal includes a multicast transport session carrying the service, wherein the service is processed based on a User Datagram Protocol/Internet Protocol, UDP/IP, a Generic Stream Encapsulation, GSE, protocol, and a physical layer protocol, wherein the signal includes Logical Layer Control, LLC, information which is based on the GSE protocol, wherein the LLC information includes a multicast descriptor, wherein the multicast descriptor includes source address information, destination address information, source UDP port information, and destination UDP port information.
A dual-unit pack comprising: a first blister pack positioned on a formable film having a first cavity with at least one protrusion ; a second blister pack positioned on the same formable film having a second cavity with at least one protrusion ; and a folding region positioned in between the first blister pack and second blister pack , wherein the folding region has a line of weakness which intersects the protrusions of the first blister pack and the second blister pack ; and wherein a backing seals the first cavity and the second cavity ; wherein the second cavity has at least two protrusions ; wherein the protrusion is the narrow extension channels positioned at the proximal end of each cavity , which may be any suitable dimension for discharging a consumer product retained inside the cavity once the line of weakness is snapped. a first blister pack positioned on a formable film having a first cavity with at least one protrusion ; a second blister pack positioned on the same formable film having a second cavity with at least one protrusion ; and a folding region positioned in between the first blister pack and second blister pack , wherein the folding region has a line of weakness which intersects the protrusions of the first blister pack and the second blister pack ; and wherein a backing seals the first cavity and the second cavity ; wherein the second cavity has at least two protrusions ; wherein the protrusion is the narrow extension channels positioned at the proximal end of each cavity , which may be any suitable dimension for discharging a consumer product retained inside the cavity once the line of weakness is snapped.
A rendering method comprising: executing, by a processor of a graphics rendering device, operations comprising: determining the amount of change between acceleration structures of first and second adjacent frames among frames within a frame output interval and designating the first and second frames as frames in a same frame group based on the amount of change; if the first and second frames are in the same frame group: performing first primary ray tracing of a first primary ray for the first frame; performing second primary ray tracing of a second primary ray, from a viewpoint at the same position as that of the first primary ray, for the second frame using the result of the first ray tracing; rendering, based on the first primary ray tracing, a first region of the first frame using a ray tracing core of the processor; rendering, based on the second primary ray tracing, a region of the second frame that is at a location identical to that of the first region, using the ray tracing core ; and thereafter rendering remaining regions of the first and second frames; otherwise, if the first and second frames are not in the same frame group, performing rendering of the second frame without using ray tracing results of the first frame. determining the amount of change between acceleration structures of first and second adjacent frames among frames within a frame output interval and designating the first and second frames as frames in a same frame group based on the amount of change; if the first and second frames are in the same frame group: performing first primary ray tracing of a first primary ray for the first frame; performing second primary ray tracing of a second primary ray, from a viewpoint at the same position as that of the first primary ray, for the second frame using the result of the first ray tracing; rendering, based on the first primary ray tracing, a first region of the first frame using a ray tracing core of the processor; rendering, based on the second primary ray tracing, a region of the second frame that is at a location identical to that of the first region, using the ray tracing core ; and thereafter rendering remaining regions of the first and second frames; performing first primary ray tracing of a first primary ray for the first frame; performing second primary ray tracing of a second primary ray, from a viewpoint at the same position as that of the first primary ray, for the second frame using the result of the first ray tracing; rendering, based on the first primary ray tracing, a first region of the first frame using a ray tracing core of the processor; rendering, based on the second primary ray tracing, a region of the second frame that is at a location identical to that of the first region, using the ray tracing core ; and thereafter rendering remaining regions of the first and second frames; otherwise, if the first and second frames are not in the same frame group, performing rendering of the second frame without using ray tracing results of the first frame.
A communications cable , comprising: a cable core comprising a plurality of twisted pairs of conductors ; and a metal foil tape disposed between the cable core and a jacket of the communications cable, the metal foil tape comprising a plurality of cuts that create a plurality of discontinuous regions in a metal layer of the metal foil tape; wherein the metal foil tape is wrapped longitudinally around the cable core such that the discontinuous regions overlap to form a plurality of overlapping regions, the overlapping regions producing capacitances connected in series, thereby reducing an overall capacitance between the overlapping discontinuous regions, characterized in that the plurality of cuts form a Y-shape cut having a first straight cut starting at one side of the metal foil tape and two cuts branching off of the first straight cut at opposite angles near a second side of the metal foil tape. a cable core comprising a plurality of twisted pairs of conductors ; and a metal foil tape disposed between the cable core and a jacket of the communications cable, the metal foil tape comprising a plurality of cuts that create a plurality of discontinuous regions in a metal layer of the metal foil tape; wherein the metal foil tape is wrapped longitudinally around the cable core such that the discontinuous regions overlap to form a plurality of overlapping regions, the overlapping regions producing capacitances connected in series, thereby reducing an overall capacitance between the overlapping discontinuous regions, characterized in that the plurality of cuts form a Y-shape cut having a first straight cut starting at one side of the metal foil tape and two cuts branching off of the first straight cut at opposite angles near a second side of the metal foil tape.
A device for feeding an electromagnetic alternating field, which is generated by a microwave transmitter , into a cooking chamber of a microwave oven, wherein the electromagnetic alternating field is transmitted in a power flow direction by means of a transmission device from the microwave transmitter to a plurality of feed points of the cooking chamber , at which the power, which is generated by the microwave transmitter , is fed into the cooking chamber , wherein the transmission device has at least one waveguide and a coupling element , which is coupled to the waveguide , wherein the coupling element , which is embodied as power distributor, connects the microwave transmitter to a plurality of waveguides , characterized in that the coupling element is a coupling pin, which has a plurality of arms.
A refrigerant compressor comprising: an electric component ; and a compression component which is driven by the electric component and compresses a refrigerant, wherein at least one of slide members included in the compression component is made of an iron-based material, and an oxide coating film is provided on a slide surface of the iron-based material, the oxide coating film including a first portion containing at least fine crystals , a second portion , and a third portion , characterized in that the second portion contains columnar grains , and the third portion contains layered grains , the first portion has a crystal grain size in a range of 0.001 to 1μm, and the crystal grain size of the first portion is smaller than the crystal grain size of the second portion . an electric component ; and a compression component which is driven by the electric component and compresses a refrigerant, wherein at least one of slide members included in the compression component is made of an iron-based material, and an oxide coating film is provided on a slide surface of the iron-based material, the oxide coating film including a first portion containing at least fine crystals , a second portion , and a third portion , the second portion contains columnar grains , and the third portion contains layered grains , the first portion has a crystal grain size in a range of 0.001 to 1μm, and the crystal grain size of the first portion is smaller than the crystal grain size of the second portion .
A liftgate having an overmolded fastening point comprising a metal reinforcement overmolded with a polymer and having a compression limiter portion molded in, wherein the compression limiter portion includes a tubular portion for receiving a fastener encapsulated during overmolding, characterized in that the compression limiter portion further includes overmolded gusset ribs extending therefrom during the overmolding process such that the molding process is used to connect and position the gusset ribs of the compression limiter portion .
Apparatus for straightening protruding wire ends of enamelled copper wires of a coil arrangement of electric motors, characterized by a clamping apparatus for clamping the wire ends at a distance from the free ends thereof, and a straightening apparatus for straightening the free ends of the wire ends protruding beyond the clamping apparatus .
A mechanical reduction gear for a turbomachine , in particular for an aircraft, said reduction gear comprising: - a sun gear having an axis (X) of rotation, - a ring gear which extends around the sun gear , - planet gears which are in mesh with the sun gear and the ring gear and which are held by a planet carrier , each planet gear comprising a first toothing with an average diameter D1 for the meshing with the sun gear , and a second toothing with an average diameter D2, different from D1, for the meshing with the ring gear , each of the first and second toothings comprising herringbone teeth (82d1, 82d2, 84d1, 84d2), characterized in that the first and second toothings of each planet gear are symmetrical with respect to a plane (H) perpendicular to said axis (X) and passing through the middle of the planet gear , and in that the herringbone of the first toothing is formed by upstream teeth (82d1) of the first toothing separated from downstream teeth (82d2) of the first toothing by being arranged on either side of the plane (H), and the upstream teeth (84d1) of the second toothing are separated from the downstream teeth (84d2) of the second toothing by the first toothing . - a sun gear having an axis (X) of rotation, - a ring gear which extends around the sun gear , - planet gears which are in mesh with the sun gear and the ring gear and which are held by a planet carrier , each planet gear comprising a first toothing with an average diameter D1 for the meshing with the sun gear , and a second toothing with an average diameter D2, different from D1, for the meshing with the ring gear , each of the first and second toothings comprising herringbone teeth (82d1, 82d2, 84d1, 84d2),
A fan control system (X) comprising: a first sensor (A5); a second sensor (B7); a reversible flow (RF) fan ; and a controller , wherein the first sensor is provided in a first room (A), and is configured to acquire a measured value of atmospheric pressure for the first room, the second sensor is provided in a second room (B) adjacent to the first room, and is configured to acquire a measured value of atmospheric pressure for the second room, and wherein the reversible flow fan is placed at a boundary between the first and second rooms and is configured to output an reversible flow fan rotation signal (SG2) regarding its rotational speed and rotational direction, and the controller is configured to receive the measured values from each of the first and second sensors and the reversible flow fan rotational signal from the reversible flow fan and, with reference to received measured values and the rotational speed and rotational direction of the reversible flow fan based on received reversible flow fan rotation signal, to control the rotational speed and rotational direction of the reversible flow fan in such a manner that the measured values of the first and second sensors are the same. a first sensor (A5); a second sensor (B7); a reversible flow (RF) fan ; and a controller , wherein the first sensor is provided in a first room (A), and is configured to acquire a measured value of atmospheric pressure for the first room, the second sensor is provided in a second room (B) adjacent to the first room, and is configured to acquire a measured value of atmospheric pressure for the second room, and wherein the reversible flow fan is placed at a boundary between the first and second rooms and is configured to output an reversible flow fan rotation signal (SG2) regarding its rotational speed and rotational direction, and the controller is configured to receive the measured values from each of the first and second sensors and the reversible flow fan rotational signal from the reversible flow fan and, with reference to received measured values and the rotational speed and rotational direction of the reversible flow fan based on received reversible flow fan rotation signal, to control the rotational speed and rotational direction of the reversible flow fan in such a manner that the measured values of the first and second sensors are the same.
A tire, comprising: a pair of opposing bead portions ; a pair of opposing sidewall portions , each sidewall portion connected with a bead portion; a crown portion connected between opposing sidewall portions; a pair of bead core positioned within each bead portion, each bead core comprising a carbon fiber composite characterized by having a centerline (CL) and a radius r s from the centerline (CL) and extending circumferentially around an axis of rotation of the tire with a radius R D , wherein the carbon fiber composite is under a strain ε of 0.1 percent or less, where strain ε is determined according to ε = r s / R D ∗ 100 . a pair of opposing bead portions ; a pair of opposing sidewall portions , each sidewall portion connected with a bead portion; a crown portion connected between opposing sidewall portions; a pair of bead core positioned within each bead portion, each bead core comprising a carbon fiber composite characterized by having a centerline (CL) and a radius r s from the centerline (CL) and extending circumferentially around an axis of rotation of the tire with a radius R D , wherein the carbon fiber composite is under a strain ε of 0.1 percent or less, where strain ε is determined according to ε = r s / R D ∗ 100 .
An energy source system for a vehicle , comprising: - a lithium-ion battery comprising a plurality of cells (C1-C6) coupled in series with one another and configured to be coupled to an alternator of the vehicle ; and - one or more ultracapacitors coupled in series with one another and configured to be coupled to starting components of the vehicle , wherein the battery and the one or more ultracapacitors are coupled to one another in a parallel arrangement, and wherein a combined voltage of the battery cells is matched with a combined voltage of the one or more ultracapacitors ; characterized by a control system configured to recharge the one or more ultracapacitors via the lithium-ion battery following a discharge of the one or more ultracapacitors , wherein the control system includes first management and control circuitry and second management and control circuitry that during operation direct a current flow only from the lithium-ion battery to the one or more ultracapacitors . - a lithium-ion battery comprising a plurality of cells (C1-C6) coupled in series with one another and configured to be coupled to an alternator of the vehicle ; and - one or more ultracapacitors coupled in series with one another and configured to be coupled to starting components of the vehicle , wherein the battery and the one or more ultracapacitors are coupled to one another in a parallel arrangement, and wherein a combined voltage of the battery cells is matched with a combined voltage of the one or more ultracapacitors ;
Bicycle component for an at least partially muscle-powered bicycle , comprising a seat post device adjustable between at least two positions , comprising at least two support members telescopically movable relative to one another in an axial direction, namely, a first support member and a second support member , and comprising at least one anti-twist protection with at least one clamping element non-rotatably interlinking the support members and displaceably received in a guiding groove , so that rotational movement of the first support member relative to the second support member can be at least partially blocked, and that the anti-twist protection comprises at least one spline device with at least one spline unit that can be urged against the clamping element in the axial direction, characterized in that by pressing the clamping element and the spline unit together, the clamping element and the spline unit or the spline unit can be moved relative to the guiding groove in the peripheral direction. and that the anti-twist protection comprises at least one spline device with at least one spline unit that can be urged against the clamping element in the axial direction, characterized in that by pressing the clamping element and the spline unit together, the clamping element and the spline unit or the spline unit can be moved relative to the guiding groove in the peripheral direction.
A subsea installation for heating (2; 2') for a two-phase liquid/gas effluent circulating inside a subsea casing, comprising a plurality of heated pipe sections (4-1 to 4-6; 4'-1 to 4'-12) which are connected successively to one another by curved pipe sections (6-1 to 6-5; 6'-1 to 6'-11) to form a heating coil, each heated pipe section being inclined with respect to the horizontal at an angle ( α ) comprised between 2 and 10° to promote a distributed flow regime of the two-phase effluent and being provided with an induction heating system , the heating installation comprising a frame , the heating coil being assembled on the frame which is formed by an assembly of vertical and horizontal tubes, each section of heated pipe being inclined relative to the horizontal tubes of the frame by the angle ( α ) comprised between 2 and 10°.
A system for providing three dimensional printing production quality prediction, comprising: logic to: scan a region of interest associated with a layer of a plurality of parts during printing to obtain an input for the region of interest, wherein the input for the region of interest is captured using images from sensors; compute an input metric associated with the layer based on the input; and in response to a production print job, predict a likelihood of a part of the plurality of parts to satisfy a quality specification by inputting the input metric to at least one machine learning function comprising at least one output, wherein the at least one output is determined in response to an initial set of print jobs by mechanically testing at least a portion of the plurality of parts, wherein the at least one machine learning function is trained during the initial set of print jobs. scan a region of interest associated with a layer of a plurality of parts during printing to obtain an input for the region of interest, wherein the input for the region of interest is captured using images from sensors; compute an input metric associated with the layer based on the input; and in response to a production print job, predict a likelihood of a part of the plurality of parts to satisfy a quality specification by inputting the input metric to at least one machine learning function comprising at least one output, wherein the at least one output is determined in response to an initial set of print jobs by mechanically testing at least a portion of the plurality of parts, wherein the at least one machine learning function is trained during the initial set of print jobs.
A cell module assembly comprising: a plurality of cell modules arranged at a predetermined interval; a pack structure comprising a pack tray that supports the plurality of cell modules and in which a passage is formed, at least one first venting hole is formed in each of the plurality of cell modules , and a second venting hole matched to the at least one first venting hole and communicating with the passage is formed in the pack tray , further comprising a heat sink located between the plurality of cell modules and the pack tray and contacting the plurality of cell modules , wherein a third venting hole matched to the at least one first venting hole and the second venting hole is formed in the heat sink , wherein the pack tray comprises a first plate contacting the heat sink and a second plate located under the first plate , wherein the passage is formed due to a gap between the first plate and the second plate , and wherein the second venting hole is formed in the first plate . a plurality of cell modules arranged at a predetermined interval; a pack structure comprising a pack tray that supports the plurality of cell modules and in which a passage is formed, at least one first venting hole is formed in each of the plurality of cell modules , and a second venting hole matched to the at least one first venting hole and communicating with the passage is formed in the pack tray , further comprising a heat sink located between the plurality of cell modules and the pack tray and contacting the plurality of cell modules , wherein a third venting hole matched to the at least one first venting hole and the second venting hole is formed in the heat sink , wherein the pack tray comprises a first plate contacting the heat sink and a second plate located under the first plate , wherein the passage is formed due to a gap between the first plate and the second plate , and wherein the second venting hole is formed in the first plate .