mhurhangee/patent-ind-claim-en huggingface dataset:
A method for use by a system including a processor and a memory, the memory having at least one unique identifier (UID) identifying a corresponding at least one content elements, for generation and distribution of at least one encoded content transport stream, the method comprising: obtaining, using the processor, metadata and the at least one UID from the memory, the at least one UID identifying a corresponding at least one content element; generating, using the processor, a recipient specific list (RSL) using the metadata and the at least one UID, wherein the RSL is a playlist of media content, and wherein the RSL includes at least a commercial scheduling metadata corresponding to at least a commercial content; creating, using the processor, at least one content transport stream using the RSL, the at least one content transport stream including the metadata and the corresponding at least one content element, wherein the metadata includes at least one of a name and a location of an affiliate that receives the at least one encoded transport stream; encoding, using the processor, the at least one content transport stream to generate the at least one encoded content transport stream; and distributing, using the processor, the at least one encoded content transport stream through at least one network path to the affiliate for decoding into video content and/or audio content and further distribution by the affiliate to consumers of the affiliate. obtaining, using the processor, metadata and the at least one UID from the memory, the at least one UID identifying a corresponding at least one content element; generating, using the processor, a recipient specific list (RSL) using the metadata and the at least one UID, wherein the RSL is a playlist of media content, and wherein the RSL includes at least a commercial scheduling metadata corresponding to at least a commercial content; creating, using the processor, at least one content transport stream using the RSL, the at least one content transport stream including the metadata and the corresponding at least one content element, wherein the metadata includes at least one of a name and a location of an affiliate that receives the at least one encoded transport stream; encoding, using the processor, the at least one content transport stream to generate the at least one encoded content transport stream; and distributing, using the processor, the at least one encoded content transport stream through at least one network path to the affiliate for decoding into video content and/or audio content and further distribution by the affiliate to consumers of the affiliate.
An end pressure plate for at least one of an electrolyser stack and an electrolyser module comprising a load transfer plate for maintaining even pressure over the faces of a plurality of structural plates, and a backing plate for supporting load transferred from said load transfer plate, wherein either one face of said load transfer plate is flat and is in contact with an opposing face of the adjacent of said plurality of structural plates (10a-d); and, the opposite face of said load transfer plate includes a convex domed surface in contact with an opposing face of said backing plate ; or both faces of said load transfer plate are flat and one of said faces of said load transfer plate is in contact with an opposing face of the adjacent of said plurality of structural plates; the opposite face of said load transfer plate is in contact with an opposing face of said backing plate ; and, said opposing face of said backing plate includes a convex domed surface .
A metal workpiece comprising a surface and an identifier marked on said surface, wherein the identifier has a plurality of cells each having a corresponding cell size, the identifier having a plurality of bright cells corresponding to a first binary value and a plurality of dark cells corresponding to a second binary value different from the first binary value, and being characterised in that : each one of the plurality of dark cells includes a center portion being recessed relative to the surface thereby leaving a recess bounded by a peripheral wall in the corresponding dark cell , the recess having a depth of at least 100 microns and having an opening with a width ranging between 400 microns and 1750 microns and representing between 30 percent and 99 percent of the corresponding cell size such that the corresponding dark cell appears dark to an optical reader, the depth, the width and the corresponding cell size of the corresponding dark cell providing a shot blast resistance to the laser-marked identifier. and being characterised in that : each one of the plurality of dark cells includes a center portion being recessed relative to the surface thereby leaving a recess bounded by a peripheral wall in the corresponding dark cell , the recess having a depth of at least 100 microns and having an opening with a width ranging between 400 microns and 1750 microns and representing between 30 percent and 99 percent of the corresponding cell size such that the corresponding dark cell appears dark to an optical reader, the depth, the width and the corresponding cell size of the corresponding dark cell providing a shot blast resistance to the laser-marked identifier.
Bus user, particularly a Profibus user, comprising a configuration switch to set a specific configuration of the bus user from multiple configurations that can be set, wherein the configuration switch has at least multiple different RC combinations that can be selected, wherein each RC combination has at least a specific characteristic variable that is assigned to one of the configurations that can be set and wherein, to set the specific configuration, a specific RC combination can be selected from the multiple RC combinations, in such a way that the specific configuration to be set is determined using the specific characteristic variable via an output signal at an output of the configuration switch , wherein said output signal comprises the specific characteristic variable of the selected RC combination .
A pipette tip , comprising: a sample collection part having a capillary tube formed in a longitudinal direction for introducing samples; and a barrel body having a sample storage chamber which communicates with the capillary tube through a stepped portion and stores the samples, wherein the stepped portion has an inclination angle with the capillary tube of equal to or greater than 45°, characterized in that the capillary tube includes: a first capillary tube formed in a front opening; and a second capillary tube having a smaller cross-sectional area from that of the first capillary tube and communicating therewith and with the stepped portion. a sample collection part having a capillary tube formed in a longitudinal direction for introducing samples; and a barrel body having a sample storage chamber which communicates with the capillary tube through a stepped portion and stores the samples, wherein the stepped portion has an inclination angle with the capillary tube of equal to or greater than 45°, characterized in that the capillary tube includes: a first capillary tube formed in a front opening; and a second capillary tube having a smaller cross-sectional area from that of the first capillary tube and communicating therewith and with the stepped portion. a first capillary tube formed in a front opening; and a second capillary tube having a smaller cross-sectional area from that of the first capillary tube and communicating therewith and with the stepped portion.
A computer-implemented method for manipulating three-dimensional modeled objects of an assembly in a three-dimensional scene comprising the steps of: - displaying a three-dimensional bounding box (BB) encompassing at least one three-dimensional object, a face of the surface of the bounding box (BB) comprising a plurality of interactive areas (SAA, SCA) which are parts of the face; - hovering pointing means (PM) on the bounding box (BB); and - if at least one face of the surface of the bounding box (BB) is displayed such that its interactive areas (SAA, SCA) are not accessible for the pointing means (PM), displaying, in the plane comprising said face not accessible by the pointing means (PM), a surface (WS) with the interactive areas (SAA, SCA), the surface being wider than the face, that allows accessibility of said interactive areas (SAA, SCA). - displaying a three-dimensional bounding box (BB) encompassing at least one three-dimensional object, a face of the surface of the bounding box (BB) comprising a plurality of interactive areas (SAA, SCA) which are parts of the face; - hovering pointing means (PM) on the bounding box (BB); and - if at least one face of the surface of the bounding box (BB) is displayed such that its interactive areas (SAA, SCA) are not accessible for the pointing means (PM), displaying, in the plane comprising said face not accessible by the pointing means (PM), a surface (WS) with the interactive areas (SAA, SCA), the surface being wider than the face, that allows accessibility of said interactive areas (SAA, SCA).
A combustor comprising: a combustion chamber that burns fuel with air; and a first fuel nozzle that is configured to supply the fuel and the air through different paths into the combustion chamber from upstream of the combustion chamber and thereby constituting a diffusive combustion burner, wherein the combustor further includes a fuel injection hole which is formed in a liner wall surface of the combustion chamber at a downstream side from the first fuel nozzle in the direction of flow of a burned gas, and which is adapted to supply a reductant into the combustion chamber in such a manner that the reductant reduces NOx that is generated by the combustion of the fuel supplied from the first fuel nozzle ; and an air hole that is adapted to supply air into the combustion chamber at a downstream side of the fuel injection hole in the direction of flow of the burned gas. a combustion chamber that burns fuel with air; and a first fuel nozzle that is configured to supply the fuel and the air through different paths into the combustion chamber from upstream of the combustion chamber and thereby constituting a diffusive combustion burner, wherein the combustor further includes a fuel injection hole which is formed in a liner wall surface of the combustion chamber at a downstream side from the first fuel nozzle in the direction of flow of a burned gas, and which is adapted to supply a reductant into the combustion chamber in such a manner that the reductant reduces NOx that is generated by the combustion of the fuel supplied from the first fuel nozzle ; and an air hole that is adapted to supply air into the combustion chamber at a downstream side of the fuel injection hole in the direction of flow of the burned gas.
Deflecting device for a safety belt in a motor vehicle, having a belt deflecting element (46; 146; 246; 346), which is configured to deflect a safety belt (31; 131) introduced from a first direction into a second direction, wherein - the belt deflecting element (46; 146; 246; 346) is formed on a moulded part (43; 143; 343), - at least one belt run-on element (45; 145; 245; 345) is provided on the moulded part (43; 143; 343), said belt run-on element (45; 145; 245; 345) directing the safety belt (31; 131) introduced onto the moulded part (43; 143; 343) towards the belt deflecting element (46; 146; 246; 346) , - the width of the belt run-on element (45; 145; 245; 345) corresponds to 1 to 1.5 times the width of the belt webbing (32; 132; 232; 332) of the safety belt (31; 131), - the width of the belt deflecting element (46; 146; 246; 346) corresponds to 2 to 5 times the width of the belt webbing (32; 132; 232; 332), - the moulded part (43; 143; 343) is formed from a metal sheet, - the moulded part (43; 143; 343) is a deep-drawn part, - the belt run-on element (45; 145; 245; 345) is formed at a first edge (41; 141; 241) of the moulded part (43; 143; 343), and - the belt deflecting element (46; 146; 246; 346) is formed at a second edge (42; 142; 242; 342a; 342b; 342c) of the moulded part (43; 143; 343). - the belt deflecting element (46; 146; 246; 346) is formed on a moulded part (43; 143; 343), - at least one belt run-on element (45; 145; 245; 345) is provided on the moulded part (43; 143; 343), said belt run-on element (45; 145; 245; 345) directing the safety belt (31; 131) introduced onto the moulded part (43; 143; 343) towards the belt deflecting element (46; 146; 246; 346) , - the width of the belt run-on element (45; 145; 245; 345) corresponds to 1 to 1.5 times the width of the belt webbing (32; 132; 232; 332) of the safety belt (31; 131), - the width of the belt deflecting element (46; 146; 246; 346) corresponds to 2 to 5 times the width of the belt webbing (32; 132; 232; 332), - the moulded part (43; 143; 343) is formed from a metal sheet, - the moulded part (43; 143; 343) is a deep-drawn part, - the belt run-on element (45; 145; 245; 345) is formed at a first edge (41; 141; 241) of the moulded part (43; 143; 343), and - the belt deflecting element (46; 146; 246; 346) is formed at a second edge (42; 142; 242; 342a; 342b; 342c) of the moulded part (43; 143; 343).
A solid electrolyte comprising Li 7-a PS 6-a Ha a , wherein Ha represents a halogen, and "a" satisfies 0.2 < a ≤ 1.8, Li 7-a PS 6-a Ha a having an argyrodite-type crystal structure, and Li 3 PS 4 , wherein, in an X-ray diffraction (XRD) pattern obtained through measurement by an X-ray diffraction method, the ratio of the peak intensity of a peak appearing at a position in a range of diffraction angle 2θ = 26.0° to 28.8° derived from Li 3 PS 4 , relative to the peak intensity of a peak appearing at a position in a range of diffraction angle 2θ = 24.9° to 26.3° derived from the argyrodite-type crystal structure, is 0.04 to 0.3.
A method for producing a rim block cage , the rim block cage comprising a housing for accommodating a hygiene product, and a hanger of a length (L) that adjoins the housing and is intended for attachment to an edge of a toilet bowl , wherein the hanger has an end facing the housing and an end facing away from the housing , wherein, starting from its end facing away from the housing , the hanger is wound up into a spiral spring , wherein the length (L) corresponds to a fully unwound state between the end facing the housing and the end facing away from the housing, wherein the hanger is produced by laminating a stretched film and an unstretched film, wherein the method comprises the following steps: - placing a stretched film and an unstretched film on top of one another; - punching out of the film composite the desired shape of the hanger ; - carrying out heat activation, preferably by heat introduced during lamination, as a result of which the stretched film contracts and forms the spiral spring in the composite with the unstretched film; - connecting the hanger to the housing . - placing a stretched film and an unstretched film on top of one another; - punching out of the film composite the desired shape of the hanger ; - carrying out heat activation, preferably by heat introduced during lamination, as a result of which the stretched film contracts and forms the spiral spring in the composite with the unstretched film; - connecting the hanger to the housing .
A transport device configured to be used in a recording device , the transport device comprising: a transport belt having a support surface configured to support a medium , and configured to transport the medium supported by the support surface, a cleaning roller including an absorbent member configured to absorb cleaning liquid, and configured to clean the support surface as the absorbent member comes into contact with the support surface, a supply unit configured to supply the cleaning liquid to the cleaning roller, a drive unit configured to rotate the cleaning roller, and a squeeze member configured to contact the absorbent member and to squeeze the absorbent member as the cleaning roller rotates in a state in which the squeeze member is in contact with the absorbent member, wherein the supply unit is configured to be switched between a supply state in which the cleaning liquid is supplied to the cleaning roller and a non-supply state in which the cleaning liquid is not supplied to the cleaning roller, and the squeeze member is configured to squeeze the absorbent member as the cleaning roller rotates while the supply unit is in the non-supply state for promoting drying of the absorbent member. a transport belt having a support surface configured to support a medium , and configured to transport the medium supported by the support surface, a cleaning roller including an absorbent member configured to absorb cleaning liquid, and configured to clean the support surface as the absorbent member comes into contact with the support surface, a supply unit configured to supply the cleaning liquid to the cleaning roller, a drive unit configured to rotate the cleaning roller, and a squeeze member configured to contact the absorbent member and to squeeze the absorbent member as the cleaning roller rotates in a state in which the squeeze member is in contact with the absorbent member, wherein the supply unit is configured to be switched between a supply state in which the cleaning liquid is supplied to the cleaning roller and a non-supply state in which the cleaning liquid is not supplied to the cleaning roller, and the squeeze member is configured to squeeze the absorbent member as the cleaning roller rotates while the supply unit is in the non-supply state for promoting drying of the absorbent member.
A downhole signalling system for electrical signalling, in a well installation having metallic structure, between a first, downhole, location and a second location which is remote from the first location, comprising a first unit provided at the first location, a second unit provided at the second location which unit is arranged to at least one of apply signals to and receive signals from the metallic structure, a first magnetic material toroid provided around downhole metallic tubing of the metallic structure and located at a third location between and spaced from the first location and the second location, and a winding wound around the magnetic material toroid , wherein the winding is connected to a cable which runs alongside the metallic tubing away from the toroid and towards the first unit and the first unit is arranged to at least one of apply signals to and receive signals from the metallic tubing via the cable and the magnetic material toroid to allow signalling between the first and second units , wherein the downhole signalling system comprises a second magnetic material toroid carrying a respective winding , the second toroid being provided around respective downhole metallic tubing of the metallic structure and located at a fourth location between and spaced from the first location and the third location, and the cable is connected to the winding of the second magnetic material toroid so that the first and second magnetic material toroids , the respective windings and the cable form passive relay apparatus with signals being picked up from the metallic tubing by one of the toroids and reapplied to the metallic tubing by the other of the toroids , the system being characterized in that the metallic structure comprises a portion with two runs of metallic tubing running one within the other and forming an annulus therebetween and the cable runs , for at least part of its length, within the annulus; and the first and second magnetic material toroids are located in the annulus.
A method for communicating in a wireless communication network, the method comprising: generating , at a first communication device, a trigger frame to trigger a contention-based uplink orthogonal frequency multiple access, OFDMA, transmission by multiple second communication devices, wherein the trigger frame is configured to indicate a length of the contention-based uplink OFDMA transmission, a transmission power of the trigger frame, and a target receive power of the contention-based uplink OFDMA transmission; transmitting , with the first communication device, the trigger frame to the multiple second communication devices using the transmission power indicated in the trigger frame; and receiving , at the first communication device, the contention-based uplink OFDMA transmission, wherein the contention-based uplink OFDMA transmission is of the length indicated in the trigger frame. generating , at a first communication device, a trigger frame to trigger a contention-based uplink orthogonal frequency multiple access, OFDMA, transmission by multiple second communication devices, wherein the trigger frame is configured to indicate a length of the contention-based uplink OFDMA transmission, a transmission power of the trigger frame, and a target receive power of the contention-based uplink OFDMA transmission; transmitting , with the first communication device, the trigger frame to the multiple second communication devices using the transmission power indicated in the trigger frame; and receiving , at the first communication device, the contention-based uplink OFDMA transmission, wherein the contention-based uplink OFDMA transmission is of the length indicated in the trigger frame.
An assembly for expanding the range of Massive Multiple-Input Multiple-Output, MIMO, radio systems to shaded areas , comprising: an outer antenna which is arranged outside a shaded area within the radio range of a base station ; an inner antenna which is arranged within the shaded area within the radio range of at least one wireless communication device ; a transmission module which is configured to generate an excitation signal and radiate it via the outer antenna to the base station , wherein the excitation signal is configured to excite the base station to form a Massive MIMO beam in the direction of the outer antenna ; and a radio signal transmitter which is configured to transmit a radio signal of the base station received by the outer antenna via the inner antenna to the wireless communication device , wherein the radio signal transmitter together with the outer antenna and the inner antenna forms a passive repeater which is configured to expand the Massive MIMO beam received by the outer antenna together with the radio signal into the shaded area . an outer antenna which is arranged outside a shaded area within the radio range of a base station ; an inner antenna which is arranged within the shaded area within the radio range of at least one wireless communication device ; a transmission module which is configured to generate an excitation signal and radiate it via the outer antenna to the base station , wherein the excitation signal is configured to excite the base station to form a Massive MIMO beam in the direction of the outer antenna ; and a radio signal transmitter which is configured to transmit a radio signal of the base station received by the outer antenna via the inner antenna to the wireless communication device , wherein the radio signal transmitter together with the outer antenna and the inner antenna forms a passive repeater which is configured to expand the Massive MIMO beam received by the outer antenna together with the radio signal into the shaded area .
A rotor for a rotary piston and cylinder device, the device comprising a rotor and a stator which define an annular cylinder space, and the rotor comprising at least one piston which extends into the cylinder space, and the device comprising a shutter disc which is arranged to partition the cylinder space and to allow passage of the piston, characterised in that at least part of an outer surface of the rotor is a substantially frusto-conical shaped surface, wherein the outer surface comprises a surface which is opposite to that surface of the rotor which in part defines the cylinder space.