mhurhangee/patent-ind-claim-en huggingface dataset:
Process for producing tyres provided with auxiliary components, comprising: a) forming a green tyre on a forming drum; b) arranging an expandable vulcanisation chamber that is at least partially self-releasing; c) shaping, moulding and vulcanising the green tyre by using said expandable vulcanisation chamber in a manner so as to obtain a finished tyre; d) making an auxiliary component adhere on a first portion of a radially inner surface of the tyre; wherein shaping, moulding and vulcanising the green tyre comprises: c1) selecting at least one green tyre every n green tyres , where n is an integer; c2) coating at least one second portion of the radially inner surface of said at least one selected green tyre with a composition A comprising A1 at least one release agent and/or lubricant and A2 at least one fluorescent material; wherein said second portion on the green tyre corresponds with a portion on the finished tyre not superimposed on said first portion; c3) selecting at least one vulcanised tyre every m vulcanised tyres, where m is an integer; c4) verifying, on said vulcanised tyre, the possible presence of said composition A by means of detection of the fluorescent material on said first portion of radially inner surface of the tyre. a) forming a green tyre on a forming drum; b) arranging an expandable vulcanisation chamber that is at least partially self-releasing; c) shaping, moulding and vulcanising the green tyre by using said expandable vulcanisation chamber in a manner so as to obtain a finished tyre; d) making an auxiliary component adhere on a first portion of a radially inner surface of the tyre; c1) selecting at least one green tyre every n green tyres , where n is an integer; c2) coating at least one second portion of the radially inner surface of said at least one selected green tyre with a composition A comprising A1 at least one release agent and/or lubricant and A2 at least one fluorescent material; wherein said second portion on the green tyre corresponds with a portion on the finished tyre not superimposed on said first portion; c3) selecting at least one vulcanised tyre every m vulcanised tyres, where m is an integer; c4) verifying, on said vulcanised tyre, the possible presence of said composition A by means of detection of the fluorescent material on said first portion of radially inner surface of the tyre.
A method of a terminal in a wireless communication system, the method comprising: receiving configuration information on a shortened transmission time interval, sTTI; and transmitting uplink control information on a short physical uplink control channel, SPUCCH, wherein, in case that the uplink control information is transmitted on sTTls corresponding to sTTI index n and sTTI index n+1 and uplink sTTls include 2 or 3 symbols, two frequency resources are configured for frequency hopping, and wherein a frequency resource of a last symbol of the sTTI corresponding to sTTI index n and a frequency resource of a first symbol of the sTTI corresponding to sTTI index n+1 are the same. receiving configuration information on a shortened transmission time interval, sTTI; and transmitting uplink control information on a short physical uplink control channel, SPUCCH, wherein, in case that the uplink control information is transmitted on sTTls corresponding to sTTI index n and sTTI index n+1 and uplink sTTls include 2 or 3 symbols, two frequency resources are configured for frequency hopping, and wherein a frequency resource of a last symbol of the sTTI corresponding to sTTI index n and a frequency resource of a first symbol of the sTTI corresponding to sTTI index n+1 are the same.
Level crossing safety system with safety devices and with a level crossing controller for controlling any safety devices , wherein the level crossing controller can be switched independently of one another by at least one track circuit and at least one wheel sensor , wherein the track circuit is embodied as an audio frequency track circuit with data transfer function and the wheel sensor is arranged upstream of the track circuit in the direction of the level crossing , wherein the wheel sensor is connected to the transmitter of the track circuit by way of a signal line so that the passage of the vehicle of the wheel sensor is forwarded to the level crossing controller as a switch-on signal.
An apparatus for compression of untyped data comprising: a graphical processing unit, GPU, including a data compression pipeline , the data compression pipeline including: a data port coupled with one or more shader cores , wherein the data port is configured to, for 3D typed data, perform a conversion to shader format for pixel data, wherein the data port is further configured to allow transfer of untyped data without format conversion, and a 3D compression/decompression unit for compression and storage of untyped data to a memory subsystem and decompression of untyped data from the memory subsystem , whereby 3D compression blocks that are conventionally utilized for 3D typed data are applied to untyped data, wherein the memory allocation of the untyped data is to be determined by software, and wherein a GPU driver is to determine whether the untyped data is to be compressed. a data port coupled with one or more shader cores , wherein the data port is configured to, for 3D typed data, perform a conversion to shader format for pixel data, wherein the data port is further configured to allow transfer of untyped data without format conversion, and a 3D compression/decompression unit for compression and storage of untyped data to a memory subsystem and decompression of untyped data from the memory subsystem , whereby 3D compression blocks that are conventionally utilized for 3D typed data are applied to untyped data, wherein the memory allocation of the untyped data is to be determined by software, and wherein a GPU driver is to determine whether the untyped data is to be compressed.
A grain fortification process comprising the steps of: feeding raw food grains into a fortification reactor ; degassing the said raw food grain by subjecting the said fortification reactor to a preset degassing condition; adding a homogenized fortification solution in the said fortification reactor via a homogenizer ; subjecting the said degassed raw food grains to an adsorption process to produce a fortified food grain, wherein the said adsorption process comprises adsorption of the said homogenized fortification solution by the said degassed raw food grain inside the fortification reactor under a predefined controlled ambient adsorption conditions; and extracting the said fortified food grain from the said fortification reactor , characterized in that said adsorption process comprises filling micro pores of the raw food grains by a homogenized fortification solution having molecular size of less than 2 nanometer (nm) in diameter, wherein said micro pores are less than 2 nm in diameter, and thereafter filling meso pores of the raw food grains by a homogenized fortification solution having molecular size of 2-5 nm in diameter, wherein said meso pores are 2-5 nm in diameter. feeding raw food grains into a fortification reactor ; degassing the said raw food grain by subjecting the said fortification reactor to a preset degassing condition; adding a homogenized fortification solution in the said fortification reactor via a homogenizer ; subjecting the said degassed raw food grains to an adsorption process to produce a fortified food grain, wherein the said adsorption process comprises adsorption of the said homogenized fortification solution by the said degassed raw food grain inside the fortification reactor under a predefined controlled ambient adsorption conditions; and extracting the said fortified food grain from the said fortification reactor , characterized in that said adsorption process comprises filling micro pores of the raw food grains by a homogenized fortification solution having molecular size of less than 2 nanometer (nm) in diameter, wherein said micro pores are less than 2 nm in diameter, and thereafter filling meso pores of the raw food grains by a homogenized fortification solution having molecular size of 2-5 nm in diameter, wherein said meso pores are 2-5 nm in diameter.
A sheeted article providing at least one identification band comprising: a face layer having an upper surface and a lower surface and defining at least one identification band , the at least one identification band having a first region proximate a first end , and a second region defined by a second end and a strap extending between the first and second end ; a liner layer ; a release material disposed on the liner layer in an area corresponding to the first region of the band ; a first adhesive overlying the release material ; a second adhesive disposed on the liner extending along at least a majority in an area corresponding to the second region of the band , the second adhesive being chosen from a hot melt adhesive; and a deadener disposed on the second adhesive ; wherein upon removal of the identification band from the sheeted article , the first region of the identification band comprises the first adhesive. a face layer having an upper surface and a lower surface and defining at least one identification band , the at least one identification band having a first region proximate a first end , and a second region defined by a second end and a strap extending between the first and second end ; a liner layer ; a release material disposed on the liner layer in an area corresponding to the first region of the band ; a first adhesive overlying the release material ; a second adhesive disposed on the liner extending along at least a majority in an area corresponding to the second region of the band , the second adhesive being chosen from a hot melt adhesive; and a deadener disposed on the second adhesive ; wherein upon removal of the identification band from the sheeted article , the first region of the identification band comprises the first adhesive.
A lens, which is a spectacle lens comprising a lens substrate including a blue light absorbing compound, and a first multilayer film including a metal layer having a film thickness of 1.0-10.0 nm, wherein (i) the blue light cut ratio (C b ) is ≥ 35.0%, calculated as C b = 1-τ b , wherein τ b is a weighted transmittance of blue light harmful to eyes and is calculated by the equation τ b = ∫ 380 nm 500 nm τ λ ⋅ WB λ ⋅ dλ ∫ 380 nm 500 nm WB λ ⋅ dλ wherein τ(λ) is the transmittance at the wavelength λ nm measured by a spectrophotometer, and WB(λ) is a weighting function and is calculated by the equation WB λ = E Sλ λ ⋅ B λ wherein E sλ (λ) is the spectral irradiance of sunlight, and B(λ) is a blue light hazard function; E sλ (λ), B(λ) and WB(λ) being described in Annex B of JIS T 7333:2005 and, when used for calculation, measurement with a spectrophotometer is performed over at least the range of 380-500 nm at intervals (pitch) of 1-5 nm. (ii) the average reflectance in the wavelength range of 400-500 nm, measured as an arithmetic average of the reflectance on the object-side surface or the eyeball-side surface, respectively, using a spectrophotometer from the object side of the lens, - is 15.00-25.00% on the object-side surface, and - is < 2.00% on the eyeball-side surface. (i) the blue light cut ratio (C b ) is ≥ 35.0%, calculated as C b = 1-τ b , wherein τ b is a weighted transmittance of blue light harmful to eyes and is calculated by the equation τ b = ∫ 380 nm 500 nm τ λ ⋅ WB λ ⋅ dλ ∫ 380 nm 500 nm WB λ ⋅ dλ wherein τ(λ) is the transmittance at the wavelength λ nm measured by a spectrophotometer, and WB(λ) is a weighting function and is calculated by the equation WB λ = E Sλ λ ⋅ B λ wherein E sλ (λ) is the spectral irradiance of sunlight, and B(λ) is a blue light hazard function; E sλ (λ), B(λ) and WB(λ) being described in Annex B of JIS T 7333:2005 and, when used for calculation, measurement with a spectrophotometer is performed over at least the range of 380-500 nm at intervals (pitch) of 1-5 nm. (ii) the average reflectance in the wavelength range of 400-500 nm, measured as an arithmetic average of the reflectance on the object-side surface or the eyeball-side surface, respectively, using a spectrophotometer from the object side of the lens, - is 15.00-25.00% on the object-side surface, and - is < 2.00% on the eyeball-side surface. - is 15.00-25.00% on the object-side surface, and - is < 2.00% on the eyeball-side surface.
A computer-based method of modeling a geophysical system, comprising: defining a geophysical model of an area of the earth; defining a domain for the model including a physical domain and a parameter domain; defining a sparse domain for the model, wherein the sparse domain has a sparse parameter domain that is a subset of the parameter domain; determining a geophysical basis of the geophysical system; computing a sparse model result based on the sparse domain and the geophysical basis; resolving a model result from the sparse model result by interpolation; obtaining a perturbation response of the geophysical system; and defining a model error by comparing the model result to the perturbation response. defining a geophysical model of an area of the earth; defining a domain for the model including a physical domain and a parameter domain; defining a sparse domain for the model, wherein the sparse domain has a sparse parameter domain that is a subset of the parameter domain; determining a geophysical basis of the geophysical system; computing a sparse model result based on the sparse domain and the geophysical basis; resolving a model result from the sparse model result by interpolation; obtaining a perturbation response of the geophysical system; and defining a model error by comparing the model result to the perturbation response.
A method for On/Off Key, OOK, communication, the method comprising: detecting , by a matched filter , an average symbol energy of an OOK modulated sequence; and performing , by a bit synchronization matched filter , bit synchronization for the OOK modulated sequence in response to the detected average symbol energy; characterized by : correlating, by the bit synchronization matched filter , a known signal or template with an output from the matched filter and generating a corresponding output; determining, by a bit-grid determiner , a bit boundary for the OOK modulated sequence based on the output generated by the bit synchronization matched filter ; generating, by a bit slicer , bits from the OOK modulated sequence based on the bit boundary determined by the bit-grid determiner and the output of the matched filter . detecting , by a matched filter , an average symbol energy of an OOK modulated sequence; and performing , by a bit synchronization matched filter , bit synchronization for the OOK modulated sequence in response to the detected average symbol energy; characterized by : correlating, by the bit synchronization matched filter , a known signal or template with an output from the matched filter and generating a corresponding output; determining, by a bit-grid determiner , a bit boundary for the OOK modulated sequence based on the output generated by the bit synchronization matched filter ; generating, by a bit slicer , bits from the OOK modulated sequence based on the bit boundary determined by the bit-grid determiner and the output of the matched filter . correlating, by the bit synchronization matched filter , a known signal or template with an output from the matched filter and generating a corresponding output; determining, by a bit-grid determiner , a bit boundary for the OOK modulated sequence based on the output generated by the bit synchronization matched filter ; generating, by a bit slicer , bits from the OOK modulated sequence based on the bit boundary determined by the bit-grid determiner and the output of the matched filter .
Latch for a motor vehicle, in particular a hood latch, comprising a locking mechanism having a catch and at least one pawl , a locking bolt , and an ejector which interacts with the locking bolt , it being possible for the locking bolt to be brought into a lift-off position (A) by means of the ejector , and having at least one electrically operable means for moving the locking bolt from the lift-off position (A) into a closed position (HR), a drive lever , and a closure lever , the drive lever interacting with the closure lever , it being possible to establish a connection between the drive lever and the catch by means of the closure lever only after a securing position (S) has been reached, and the electrically operable means being used to pivot the drive lever , characterized in that the drive lever can be brought into engagement with the ejector .
A communication method, comprising: receiving(S101) uplink data from user equipment by using a first transmission parameter set when a time interval from a current moment to a latest moment at which uplink timing information is sent to the user equipment is less than or equal to a first time interval; or receiving (S102) uplink data from user equipment by using a second transmission parameter set when a time interval from a current moment to a latest moment at which uplink timing information is sent to the user equipment is greater than the first time interval, wherein a transmission parameter comprised in the first transmission parameter set is different from that comprised in the second transmission parameter set, and wherein the receiving uplink data from user equipment by using a first transmission parameter set comprises: receiving (S201) the uplink data from the user equipment based on a quantity of first retransmissions; or the receiving (S202) uplink data from user equipment by using a second transmission parameter set comprises: receiving the uplink data from the user equipment based on a quantity of second retransmissions, wherein the quantity of the first retransmissions is less than the quantity of the second retransmissions. receiving(S101) uplink data from user equipment by using a first transmission parameter set when a time interval from a current moment to a latest moment at which uplink timing information is sent to the user equipment is less than or equal to a first time interval; or receiving (S102) uplink data from user equipment by using a second transmission parameter set when a time interval from a current moment to a latest moment at which uplink timing information is sent to the user equipment is greater than the first time interval, wherein a transmission parameter comprised in the first transmission parameter set is different from that comprised in the second transmission parameter set, and wherein the receiving uplink data from user equipment by using a first transmission parameter set comprises: receiving (S201) the uplink data from the user equipment based on a quantity of first retransmissions; or the receiving (S202) uplink data from user equipment by using a second transmission parameter set comprises: receiving the uplink data from the user equipment based on a quantity of second retransmissions, wherein the quantity of the first retransmissions is less than the quantity of the second retransmissions.
Oligonucleotides (i) having the sequence of SEQ ID NO 3, or (ii) having a nucleotide sequence complementary to the nucleotide sequence of SEQ ID NO 3, or (iii) having, in reading direction 5' -> 3', a nucleotide sequence having an opposite reading direction to the nucleotide sequence of SEQ ID NO 3: cgaacccc*w ccwyc 15 SEQ ID NO 3, wherein w represents a or t, y represents c or t; und * represents an insert "c". (i) having the sequence of SEQ ID NO 3, or (ii) having a nucleotide sequence complementary to the nucleotide sequence of SEQ ID NO 3, or (iii) having, in reading direction 5' -> 3', a nucleotide sequence having an opposite reading direction to the nucleotide sequence of SEQ ID NO 3: cgaacccc*w ccwyc 15 SEQ ID NO 3, wherein w represents a or t, y represents c or t; und * represents an insert "c". w represents a or t, y represents c or t; und * represents an insert "c".
A rolling bearing comprising: an inner ring having a radially inner surface , an outer ring having a radially outer surface , and rolling elements disposed between the inner ring and the outer ring , wherein at least one of the radially inner surface of the inner ring and the radially outer surface of the outer ring is covered with a coating layer , wherein the coating layer comprises a coating layer composite composed of a plurality of layers, wherein a surface layer of the plurality of layers is composed of an anti-creep film having lubricity, and wherein at least one of the plurality of layers excluding the surface layer is composed of an insulating film having electrical insulation properties, characterized in that the insulating film is a calcined film containing at least one of a ceramic material, an epoxy-based resin and a polyamideimide-based resin. an inner ring having a radially inner surface , an outer ring having a radially outer surface , and rolling elements disposed between the inner ring and the outer ring , wherein at least one of the radially inner surface of the inner ring and the radially outer surface of the outer ring is covered with a coating layer , wherein the coating layer comprises a coating layer composite composed of a plurality of layers, wherein a surface layer of the plurality of layers is composed of an anti-creep film having lubricity, and wherein at least one of the plurality of layers excluding the surface layer is composed of an insulating film having electrical insulation properties, characterized in that the insulating film is a calcined film containing at least one of a ceramic material, an epoxy-based resin and a polyamideimide-based resin.
A method of wireless communication at a scheduling entity , comprising: mapping (802; 904) a physical downlink control channel, PDCCH, across multiple transmission configuration indication, TCI, states, the PDCCH comprising a first set of control channel elements, CCEs, mapped to a first TCI state and a remaining set of CCEs mapped to a second TCI state; encoding (804; 906) the PDCCH to produce an encoded PDCCH, wherein each of the first set of CCEs and the remaining set of CCEs are encoded according to a common mother polar code; and transmitting (806; 908) each of a first portion of the encoded PDCCH and a second portion of the encoded PDCCH to a scheduled entity, wherein the first portion of the encoded PDCCH comprises the first set of CCEs, and wherein the second portion of the encoded PDCCH comprises the remaining set of CCEs. mapping (802; 904) a physical downlink control channel, PDCCH, across multiple transmission configuration indication, TCI, states, the PDCCH comprising a first set of control channel elements, CCEs, mapped to a first TCI state and a remaining set of CCEs mapped to a second TCI state; encoding (804; 906) the PDCCH to produce an encoded PDCCH, wherein each of the first set of CCEs and the remaining set of CCEs are encoded according to a common mother polar code; and transmitting (806; 908) each of a first portion of the encoded PDCCH and a second portion of the encoded PDCCH to a scheduled entity, wherein the first portion of the encoded PDCCH comprises the first set of CCEs, and wherein the second portion of the encoded PDCCH comprises the remaining set of CCEs.