mhurhangee/patent-ind-claim-en huggingface dataset:
A method by a user equipment, UE, in a wireless communication system, the method comprising: receiving information for configuring Bandwidth part, BWP, for a cell; receiving information for configuring at least one Control Resource Set, CORESET, for the BWP; receiving information for configuring a plurality of search space sets associated with the at least one CORESET; monitoring a first search space set among the plurality of search space sets, based on a first periodicity of the first search space set; receiving, via a first time unit, a Group Common - Physical Downlink Control Channel, GC-PDCCH, including information related to a second search space set among the plurality of search space sets; and monitoring, from a second time unit, the second search space set based on the GC-PDCCH, based on a second periodicity of the second search space set, wherein the second search space set is different from the first search space set, and wherein the second time unit is after at least one time unit from the first time unit. receiving information for configuring Bandwidth part, BWP, for a cell; receiving information for configuring at least one Control Resource Set, CORESET, for the BWP; receiving information for configuring a plurality of search space sets associated with the at least one CORESET; monitoring a first search space set among the plurality of search space sets, based on a first periodicity of the first search space set; receiving, via a first time unit, a Group Common - Physical Downlink Control Channel, GC-PDCCH, including information related to a second search space set among the plurality of search space sets; and monitoring, from a second time unit, the second search space set based on the GC-PDCCH, based on a second periodicity of the second search space set, wherein the second search space set is different from the first search space set, and wherein the second time unit is after at least one time unit from the first time unit.
An optical scanning device comprising: - a reflector having a reflection surface on which light is reflected; and a drive beam having one end and the other end, the one end being fixed as a fixed end, and the other end being connected as a drive end to the reflector through a link beam , - the drive beam including - a beam body having a width in a first direction and extending in a second direction crossing the first direction, and - a piezoelectric portion formed to be in contact with the beam body , wherein the piezoelectric portion is partitioned by grooves to include a plurality of piezoelectric bodies , the grooves including a plurality of first grooves that extend in the first direction and that are spaced apart from each other in the second direction, and the piezoelectric bodies are disposed to be reduced in length in the second direction as the piezoelectric bodies approach the fixed end, and the piezoelectric bodies are disposed to be reduced in length in the second direction as the piezoelectric bodies approach the drive end. - a reflector having a reflection surface on which light is reflected; and a drive beam having one end and the other end, the one end being fixed as a fixed end, and the other end being connected as a drive end to the reflector through a link beam , - the drive beam including - a beam body having a width in a first direction and extending in a second direction crossing the first direction, and - a piezoelectric portion formed to be in contact with the beam body , wherein the piezoelectric portion is partitioned by grooves to include a plurality of piezoelectric bodies , the grooves including a plurality of first grooves that extend in the first direction and that are spaced apart from each other in the second direction, and the piezoelectric bodies are disposed to be reduced in length in the second direction as the piezoelectric bodies approach the fixed end, and the piezoelectric bodies are disposed to be reduced in length in the second direction as the piezoelectric bodies approach the drive end.
A rubber composition for run flat tires, comprising: a rubber component; a low-molecular weight conjugated diene-based polymer having a weight average molecular weight of 10,000 to 40,000 as expressed in terms of polystyrene, which is measured by gel permeation chromatography, in an amount of 1 to 10 parts by mass based on 100 parts by mass of the rubber component; and a vulcanization accelerator, with a mass ratio of the content of the vulcanization accelerator to the content of the low-molecular weight conjugated diene-based polymer (vulcanization accelerator/low-molecular weight conjugated diene-based polymer) being 1 to 3.5. a rubber component; a low-molecular weight conjugated diene-based polymer having a weight average molecular weight of 10,000 to 40,000 as expressed in terms of polystyrene, which is measured by gel permeation chromatography, in an amount of 1 to 10 parts by mass based on 100 parts by mass of the rubber component; and a vulcanization accelerator, with a mass ratio of the content of the vulcanization accelerator to the content of the low-molecular weight conjugated diene-based polymer (vulcanization accelerator/low-molecular weight conjugated diene-based polymer) being 1 to 3.5.
A hybrid fiber cord comprising: a nylon yarn having a first length, a first twist number between 240 and 550 Twists Per Meter (6 and 14 Twists Per Inch), a first denier between 840 and 1890 (933 and 2100 dtex), and a first elongation at break; and an aramid yarn having a second length greater than the first length, a second twist number equal to the first twist number, a second denier higher than the first denier, and a second elongation at break that is less than the first elongation at break, wherein the nylon yarn and the aramid yarn have a same twist direction, wherein the second length is between 105% and 120% of the first length, and wherein the hybrid fiber cord has a third elongation at break that is greater than the second elongation at break. a nylon yarn having a first length, a first twist number between 240 and 550 Twists Per Meter (6 and 14 Twists Per Inch), a first denier between 840 and 1890 (933 and 2100 dtex), and a first elongation at break; and an aramid yarn having a second length greater than the first length, a second twist number equal to the first twist number, a second denier higher than the first denier, and a second elongation at break that is less than the first elongation at break, wherein the nylon yarn and the aramid yarn have a same twist direction, wherein the second length is between 105% and 120% of the first length, and wherein the hybrid fiber cord has a third elongation at break that is greater than the second elongation at break.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a first synchronization signal/physical broadcast channel, SS/PBCH, block in a first transmission window; receiving, from the base station, a second SS/PBCH block in a second transmission window, wherein each of the first transmission window and the second transmission window is set in units of half frames; identifying a quasi-co-located, QCL, relationship between the first SS/PBCH block and the second SS/PBCH block based on a first index associated with the first SS/PBCH block, a second index associated with the second SS/PBCH block and a value associated with a number of SS/PBCH blocks; and performing cell detection based on the first SS/PBCH block, the second SS/PBCH block, and the identified QCL relationship, wherein the identifying of the QCL relationship between the first SS/PBCH block and the second SS/PBCH block comprises: in case that a result of a modulo operation between the first index associated with the first SS/PBCH block and the value associated with the number of SS/PBCH blocks is same as a result of a modulo operation between the second index associated with the second SS/PBCH block and the value associated with the number of SS/PBCH blocks, determining the QCL relationship between the first SS/PBCH block and the second SS/PBCH block. receiving, from a base station, a first synchronization signal/physical broadcast channel, SS/PBCH, block in a first transmission window; receiving, from the base station, a second SS/PBCH block in a second transmission window, wherein each of the first transmission window and the second transmission window is set in units of half frames; identifying a quasi-co-located, QCL, relationship between the first SS/PBCH block and the second SS/PBCH block based on a first index associated with the first SS/PBCH block, a second index associated with the second SS/PBCH block and a value associated with a number of SS/PBCH blocks; and performing cell detection based on the first SS/PBCH block, the second SS/PBCH block, and the identified QCL relationship, wherein the identifying of the QCL relationship between the first SS/PBCH block and the second SS/PBCH block comprises: in case that a result of a modulo operation between the first index associated with the first SS/PBCH block and the value associated with the number of SS/PBCH blocks is same as a result of a modulo operation between the second index associated with the second SS/PBCH block and the value associated with the number of SS/PBCH blocks, determining the QCL relationship between the first SS/PBCH block and the second SS/PBCH block. in case that a result of a modulo operation between the first index associated with the first SS/PBCH block and the value associated with the number of SS/PBCH blocks is same as a result of a modulo operation between the second index associated with the second SS/PBCH block and the value associated with the number of SS/PBCH blocks, determining the QCL relationship between the first SS/PBCH block and the second SS/PBCH block.
A layered copper-containing oxide material, wherein the layered copper-containing oxide material has a general chemical formula of Na 0.68+a Ni b Cu c M d Mn e O 2+δ , wherein, Ni, Cu and Mn are transition metal elements, and M is an element that performs doping and substitution on transition metal complexation; Ni, Cu, Mn and M respectively form octahedral structures together with six oxygen atoms that are most adjacent thereto, and the multiple octahedral structures have arrangements with common edges and constitute transition metal layers; alkali metal ions Na + are located between every two of the transition metal layers; M is specifically one or more of Mg 2+ , Mn 2+ , Zn 2+ , Co 2+ , Al 3+ , B 3+ , Cr 3+ , Mn 3+ , Co 3+ , V 3+ , Zr 4+ , Ti 4+ , Sn 4+ , Mo 4+ , Ru 4+ , Nb 4+ , Sb 5+ , Nb 5+ , Mo 6+ , and Te 6+ ; a valence of M is m, wherein m is specifically univalence, bivalence, trivalence, tetravalence, pentavalence or sexavalence; a, b, c, d, e and δ are respectively molar percentages occupied by corresponding elements; and relationships between a, b, c, d, e, δ, and m meet (0.68+a)+2(b+c)+md+4e=2(2+δ), and also meet b+c+d+e=1, wherein -0.08≤a≤0.08; 0<b≤0.38; 0<c≤0.38; 0≤d<0.36; 0<e≤0.7; and -0.02<δ<0.02.
A cosmetic and/or healthcare brush for applying a cosmetic and/or healthcare mass onto the hair or skin, preferably eyelashes , comprising: (i) a core section of at least two mutually-twisted together wire segments , (ii) a bristle section comprising bristles secured between said two mutually-twisted together wire segments , wherein the bristles flare outwardly in various directions from the core section , at least a portion of the bristles end in a tapered end-section , and the bristles have an outer portion made of a first, softer material and an inner portion made of a second, harder material wherein the cross-sections of the bristles vary in shape lengthwise along the bristle , wherein at least a portion of the bristles have recesses , wherein the bristle cross-section is non-cylindrical within and adjacent to the region of the recess , and wherein the recesses on a bristle are located substantially opposed to one another so as to confer the bristle with a substantially hour glass or dumbbell (DB) shaped cross-section in the region of the bristle containing said recesses . (i) a core section of at least two mutually-twisted together wire segments , (ii) a bristle section comprising bristles secured between said two mutually-twisted together wire segments , wherein the bristles flare outwardly in various directions from the core section , at least a portion of the bristles end in a tapered end-section , and the bristles have an outer portion made of a first, softer material and an inner portion made of a second, harder material wherein the cross-sections of the bristles vary in shape lengthwise along the bristle , wherein at least a portion of the bristles have recesses , wherein the bristle cross-section is non-cylindrical within and adjacent to the region of the recess , and wherein the recesses on a bristle are located substantially opposed to one another so as to confer the bristle with a substantially hour glass or dumbbell (DB) shaped cross-section in the region of the bristle containing said recesses .
A method for providing application data, the method comprising: receiving, at a network node , at least one application identifier, App-ID, associated with a plurality of user equipments, UEs, ; requesting, by the network node , to receive notifications of updates to application data associated with the at least one App-ID; determining a location of each of the plurality of UEs upon receiving a notification of updated application data associated with the at least one App-ID; requesting, by the network node , a broadcast entity to perform a broadcast of the updated application data associated with the at least one App-ID, wherein the network node is configured to delay scheduling the broadcast until a predefined number of UEs among the plurality of UEs are within a geographical area that allows the broadcast to be used for delivering the updated application data, wherein said predefined number is greater than one; and sending, by the network node to the plurality of UEs , configuration data for receiving application data from the broadcast entity . receiving, at a network node , at least one application identifier, App-ID, associated with a plurality of user equipments, UEs, ; requesting, by the network node , to receive notifications of updates to application data associated with the at least one App-ID; determining a location of each of the plurality of UEs upon receiving a notification of updated application data associated with the at least one App-ID; requesting, by the network node , a broadcast entity to perform a broadcast of the updated application data associated with the at least one App-ID, wherein the network node is configured to delay scheduling the broadcast until a predefined number of UEs among the plurality of UEs are within a geographical area that allows the broadcast to be used for delivering the updated application data, wherein said predefined number is greater than one; and sending, by the network node to the plurality of UEs , configuration data for receiving application data from the broadcast entity .
A chip-scale package for an optical sensor semiconductor device, comprising: - a semiconductor substrate with a main surface , - an optical sensor element integrated in the substrate at the main surface , - a filter element arranged above the sensor element , and - a glass wafer arranged above the main surface , so that the filter element is arranged between the main surface and the glass wafer , the thickness (t) of the glass wafer in the direction perpendicular to the main surface being less than 200 μm, wherein - an intermediate layer covering an entire area opposite the main surface is arranged between the filter element and the glass wafer , and - the glass wafer is directly attached to the intermediate layer , which is selected to be suitable for bonding, characterized in that - a passivation layer is arranged between the sensor element and the filter element , - a further passivation layer is arranged on the passivation layer , - the further passivation layer is recessed in the area above the sensor element , - the filter element is arranged on a planarizing layer filling a recess of the further passivation layer , - a further planarizing layer is arranged on the level of the filter element , and - a thin layer portion of the further planarization layer is left on the filter element , between the filter element and the intermediate layer . - a semiconductor substrate with a main surface , - an optical sensor element integrated in the substrate at the main surface , - a filter element arranged above the sensor element , and - a glass wafer arranged above the main surface , so that the filter element is arranged between the main surface and the glass wafer , the thickness (t) of the glass wafer in the direction perpendicular to the main surface being less than 200 μm, wherein - an intermediate layer covering an entire area opposite the main surface is arranged between the filter element and the glass wafer , and - the glass wafer is directly attached to the intermediate layer , which is selected to be suitable for bonding, characterized in that - a passivation layer is arranged between the sensor element and the filter element , - a further passivation layer is arranged on the passivation layer , - the further passivation layer is recessed in the area above the sensor element , - the filter element is arranged on a planarizing layer filling a recess of the further passivation layer , - a further planarizing layer is arranged on the level of the filter element , and - a thin layer portion of the further planarization layer is left on the filter element , between the filter element and the intermediate layer .
An insert for a compression fitting between a first fluid conduit and a second fluid conduit , said compression fitting comprising at least first and second compression-inducing parts (18, 6 and 8, 20, or 34, 44) respectively cooperating with or being provided as part of said first and second fluid conduits and both connecting said conduits together and inducing a compression between them, wherein said first and second fluid conduits or their respective compression-inducing parts are provided with first and second contact surfaces respectively which are disposed to the interior of the compression fitting when the conduits are connected together and which define openings of the fluid carrying bores of first and second fluid conduits respectively, said insert being sized so as to be capable of being received entirely within the compression fitting and being of generally complementary cross-sectional shape to that of said fluid conduit contact surfaces, said insert having a body which surrounds and defines a bore through the insert which, in use, is substantially aligned with the bores of the conduits, said body being provided with or consisting essentially of a flange of material adapted to be clamped within the compression fitting between said first and second contact surfaces, Characterised in that Said insert is formed from a non-auxetic material and is provided with at least first and second seating surfaces, said first seating surface being provided on one, inner side of said flange and said second seating surface being provided on an alternate, outer side thereof, each of said seating surfaces being inclined relative to a longitudinal axis of the insert, and arranged such that the first and second contact surfaces come into contact with a respective one of the first and second seating surfaces at first and second contact regions as the compression fitting is tightened, said insert thus being compressed therein to the extent that, on one side of at least one contact region, the extent to which the insert deforms as a result of the compression applied thereto is different to the deformation which occurs on the other side of said contact region, each of said contact regions being continuous so as to create complete fluid seals on each of the said seating surfaces.
A treatment process for treatment of a waste feed stream with oxidizable chemical oxygen demand (COD), wherein the process comprises: a. feeding the feed stream through a tubular reactor (R-1301) with exothermic oxidation reactions at line velocities and sufficient salt dilution to avoid precipitation, in which a plurality of injection points (V-10 to V-14) inject inline oxygen and quench water to control exothermic oxidation reactions in the reactor, wherein: the retention time in the reactor is in the range of 8 mins to 30 mins, a pump (P-1401A/B) pumps high pressure quench water to the quench water injection points (V-10, V-12) along the length of the reactor, quenching the reactor temperature before more oxygen is injected, driving the reaction to completion, reactor heating is performed by one or more heat exchangers having a tube-in-tube configuration, the outer tube carrying a pressurized heat transfer medium, the temperature in the reactor (R-1301) is in the range of 220 °C to 360 °C, the pressure in the reactor is in the range of 90 Bar to 170 Bar, b. performing heat recovery (E-1102, E-1101) from a reactor effluent stream, and c. a gas/liquid separator separating (S-1501) the effluent stream to provide a gas safe for discharge and a treated liquid effluent stream. a. feeding the feed stream through a tubular reactor (R-1301) with exothermic oxidation reactions at line velocities and sufficient salt dilution to avoid precipitation, in which a plurality of injection points (V-10 to V-14) inject inline oxygen and quench water to control exothermic oxidation reactions in the reactor, wherein: the retention time in the reactor is in the range of 8 mins to 30 mins, a pump (P-1401A/B) pumps high pressure quench water to the quench water injection points (V-10, V-12) along the length of the reactor, quenching the reactor temperature before more oxygen is injected, driving the reaction to completion, reactor heating is performed by one or more heat exchangers having a tube-in-tube configuration, the outer tube carrying a pressurized heat transfer medium, the temperature in the reactor (R-1301) is in the range of 220 °C to 360 °C, the pressure in the reactor is in the range of 90 Bar to 170 Bar, the retention time in the reactor is in the range of 8 mins to 30 mins, a pump (P-1401A/B) pumps high pressure quench water to the quench water injection points (V-10, V-12) along the length of the reactor, quenching the reactor temperature before more oxygen is injected, driving the reaction to completion, reactor heating is performed by one or more heat exchangers having a tube-in-tube configuration, the outer tube carrying a pressurized heat transfer medium, the temperature in the reactor (R-1301) is in the range of 220 °C to 360 °C, the pressure in the reactor is in the range of 90 Bar to 170 Bar, b. performing heat recovery (E-1102, E-1101) from a reactor effluent stream, and c. a gas/liquid separator separating (S-1501) the effluent stream to provide a gas safe for discharge and a treated liquid effluent stream.