mhurhangee/patent-ind-claim-en huggingface dataset:
Tyre , wherein the tyre is rotatable in a direction of rotation about an axis of rotation , having a tread and a tyre inner layer and an overlapping region , wherein the overlapping region is such a region of the tyre in which the tyre inner layer overlaps, and wherein the overlapping region has a first geometrical centre line , and having a plane of symmetry , wherein the axis of rotation is aligned perpendicular to the plane of symmetry and intersects the plane of symmetry at a midpoint , and having an electromagnetic transmitting and receiving device , wherein the electromagnetic transmitting and receiving device is arranged in an attachment region of the tyre , wherein the attachment region has a second geometrical centre line , wherein the first geometrical centre line intersects the plane of symmetry at a first point of intersection and the second geometrical centre line intersects the plane of symmetry at a second point of intersection , wherein a first connecting line leads from the first point of intersection to the midpoint and a second connecting line leads from the second point of intersection to the midpoint , wherein the second geometrical centre line like the first geometrical centre line runs at right angles to the direction of rotation , characterized in that the first connecting line and the second connecting line include an angle of 160° to 200°.
A dual or combined tag device for use with vessels for carrying a fluid medium, the tag device comprising an ultra-high frequency, UHF, tag means operable at an ultra-high frequency and a near-field communication, NFC, tag means, which device comprises: a UHF integrated circuit for the UHF tag means, which UHF tag means comprises a UHF resonant loop associated with the UHF integrated circuit ; an antenna for receiving or collecting radio energy, which is connected to the UHF integrated circuit ; an NFC integrated circuit for the NFC tag means operable at a radiofrequency lower than ultra-high frequency; and an inductive coil for forming a tuned circuit with a capacitance in the NFC integrated circuit , characterised in that the inductive coil further acts as a capacitive pad connected to the UHF integrated circuit and configured for capacitive coupling with a fluid medium carried or to be carried by the vessel, wherein the antenna is connected to the UHF resonant loop , which loop is connected to the inductive coil , wherein, in use, the inductive coil forming an NFC transponder tuned circuit provides a second function as the UHF capacitive coupling means via the vessel wall and into the fluid thereby creating a substantial current flow through the UHF chip resulting in enhanced UHF range without adversely affecting the operation of the NFC transponder. a UHF integrated circuit for the UHF tag means, which UHF tag means comprises a UHF resonant loop associated with the UHF integrated circuit ; an antenna for receiving or collecting radio energy, which is connected to the UHF integrated circuit ; an NFC integrated circuit for the NFC tag means operable at a radiofrequency lower than ultra-high frequency; and an inductive coil for forming a tuned circuit with a capacitance in the NFC integrated circuit ,
Process for transforming a feedstock comprising at least one sugar into 5-hydroxymethylfurfural, in which said feedstock is placed in contact with one or more catalysts of the homogeneous sulfonic acid family in the presence of at least one polar aprotic solvent whose dipole moment expressed in Debyes (D) is greater than 2.00, chosen from pyridine, 2-butanone, acetone, acetic anhydride, N,N,N',N'-tetramethylurea, benzonitrile, acetonitrile, methyl ethyl ketone, propionitrile, hexamethylphosphoramide, nitrobenzene, nitromethane, N,N-dimethylformamide, N,N-dimethylacetamide, sulfolane, N-methylpyrrolidone, dimethyl sulfoxide and propylene carbonate, taken alone or as a mixture, at a temperature of between 30°C and 200°C, and at a pressure of between 0.1 MPa and 10 MPa, in which said catalysts are chosen from the compounds of general formula in which R is chosen from • halogen groups, • linear or branched, cyclic or non-cyclic alkyl groups comprising from 1 to 20 carbon atoms which may or may not be substituted with at least one substituent chosen from: ∘ an oxo group, ∘ halogen groups, and ∘ fused or non-fused aryl groups, which may or may not be substituted with halogen groups and/or linear or branched, cyclic or non-cyclic alkyl groups including from 1 to 20 carbon atoms, • aryl groups comprising from 6 to 14 carbon atoms which may or may not be substituted with at least one substituent chosen from: ∘ linear or branched, cyclic or non-cyclic alkyl groups comprising from 1 to 20 carbon atoms which may or may not be substituted with at least one halogenated group or with at least one nitro group, ∘ halogenated groups, and ∘ a nitro group. • halogen groups, • linear or branched, cyclic or non-cyclic alkyl groups comprising from 1 to 20 carbon atoms which may or may not be substituted with at least one substituent chosen from: ∘ an oxo group, ∘ halogen groups, and ∘ fused or non-fused aryl groups, which may or may not be substituted with halogen groups and/or linear or branched, cyclic or non-cyclic alkyl groups including from 1 to 20 carbon atoms, ∘ an oxo group, ∘ halogen groups, and ∘ fused or non-fused aryl groups, which may or may not be substituted with halogen groups and/or linear or branched, cyclic or non-cyclic alkyl groups including from 1 to 20 carbon atoms, • aryl groups comprising from 6 to 14 carbon atoms which may or may not be substituted with at least one substituent chosen from: ∘ linear or branched, cyclic or non-cyclic alkyl groups comprising from 1 to 20 carbon atoms which may or may not be substituted with at least one halogenated group or with at least one nitro group, ∘ halogenated groups, and ∘ a nitro group. ∘ linear or branched, cyclic or non-cyclic alkyl groups comprising from 1 to 20 carbon atoms which may or may not be substituted with at least one halogenated group or with at least one nitro group, ∘ halogenated groups, and ∘ a nitro group.
Device (V), in particular oil sump, preferably for an engine, a piston machine and/or a transmission arrangement, having a housing element for the formation of a side wall structure (1.1) and for holding an operating fluid and having a heat exchanger for heat exchange with the operating fluid, said heat exchanger being suppliable with water-comprising temperature control fluid and having a heat exchange element (1.2), wherein the heat exchange element (1.2) forms at least one through-flow duct (B) for the through flow of the operating fluid and at least one through-flow duct (T) for the through flow of the temperature control fluid, wherein the heat exchange element (1.2) comprises a wave or up-and-down structure, with the result that, on the one hand, the at least one through-flow duct (B) for the operating fluid and, on the other hand, the at least one through-flow duct (T) for the temperature control fluid are formed, wherein at least one opening (1.3), via which operating fluid can be fed to the at least one through-flow duct (B) for the operating fluid, is formed within the housing element , wherein a bottom element is arranged above the heat exchange element (1.2), between the side wall structure (1.1), within the housing element , the device is characterized in that the bottom element is movable, in order to close the at least one opening (1.3) and/or in order to form a bypass opening , in such a way that operating fluid can be discharged while bypassing the at least one through-flow duct (B) for the operating fluid.
A method of dicing a wafer of light emitting devices, the wafer comprising: a transparent layer ; a light emitting device layer comprising a plurality of light emitting devices separated by dielectric ; and a wavelength converting layer disposed between the transparent layer and the light emitting device layer; the method comprising: cutting a first portion of a thickness of the wafer in a first cutting process; and cutting the remaining thickness of the wafer in a second cutting process; wherein only one of the first cutting process and the second cutting process comprises using an ablation laser to cut the dielectric between the light emitting devices and the remaining cutting process comprises either mechanical sawing with a wide, resin-bonded diamond grit blade or using sub-surface laser scribing and die break singulation. a transparent layer ; a light emitting device layer comprising a plurality of light emitting devices separated by dielectric ; and a wavelength converting layer disposed between the transparent layer and the light emitting device layer; the method comprising: cutting a first portion of a thickness of the wafer in a first cutting process; and cutting the remaining thickness of the wafer in a second cutting process; wherein only one of the first cutting process and the second cutting process comprises using an ablation laser to cut the dielectric between the light emitting devices and the remaining cutting process comprises either mechanical sawing with a wide, resin-bonded diamond grit blade or using sub-surface laser scribing and die break singulation. cutting a first portion of a thickness of the wafer in a first cutting process; and cutting the remaining thickness of the wafer in a second cutting process; wherein only one of the first cutting process and the second cutting process comprises using an ablation laser to cut the dielectric between the light emitting devices and the remaining cutting process comprises either mechanical sawing with a wide, resin-bonded diamond grit blade or using sub-surface laser scribing and die break singulation.
A sidelink logical channel, SL LCH, multiplexing method, wherein a terminal multiplexes data of SL LCHs with similar or same communication ranges into a same transport block and the method comprises: determining, by the terminal, a first SL LCH, wherein the first SL LCH is an SL LCH that meets a first preset condition in at least one SL LCH, and wherein the first preset condition comprises: a priority of an SL LCH is a first priority; allocating, by the terminal, a resource to data of the first SL LCH; when a remaining resource of transmission resources is more than zero, determining, by the terminal based on a communication range in distance of the first SL LCH, a second SL LCH that meets a second preset condition in the at least one SL LCH, wherein the first SL LCH and the second SL LCH are different; and allocating, by the terminal, a resource to data of the second SL LCH, wherein the multiplexing method further comprises: when the remaining resource of the transmission resources is more than zero, and a third SL LCH is configured for the terminal, allocating, by the terminal, a resource to data of the third SL LCH, wherein the third SL LCH does not meet the second preset condition, and a priority of the third SL LCH is higher than a priority of at least one of the first SL LCH and all SL LCHs that meet the second preset condition in the at least one SL LCH. determining, by the terminal, a first SL LCH, wherein the first SL LCH is an SL LCH that meets a first preset condition in at least one SL LCH, and wherein the first preset condition comprises: a priority of an SL LCH is a first priority; allocating, by the terminal, a resource to data of the first SL LCH; when a remaining resource of transmission resources is more than zero, determining, by the terminal based on a communication range in distance of the first SL LCH, a second SL LCH that meets a second preset condition in the at least one SL LCH, wherein the first SL LCH and the second SL LCH are different; and allocating, by the terminal, a resource to data of the second SL LCH, wherein the multiplexing method further comprises: when the remaining resource of the transmission resources is more than zero, and a third SL LCH is configured for the terminal, allocating, by the terminal, a resource to data of the third SL LCH, wherein the third SL LCH does not meet the second preset condition, and a priority of the third SL LCH is higher than a priority of at least one of the first SL LCH and all SL LCHs that meet the second preset condition in the at least one SL LCH. when the remaining resource of the transmission resources is more than zero, and a third SL LCH is configured for the terminal, allocating, by the terminal, a resource to data of the third SL LCH, wherein the third SL LCH does not meet the second preset condition, and a priority of the third SL LCH is higher than a priority of at least one of the first SL LCH and all SL LCHs that meet the second preset condition in the at least one SL LCH.
An information processing device for performing setting related to a motor , comprising: a generation unit which generates a plurality of pieces of motor information for designating each of a plurality of motors for driving a same control target on the basis of reception of a predetermined user operation; and an assignment unit which assigns each of the generated plurality of pieces of motor information to any one of a plurality of axes defining a predetermined coordinate system, a providing unit which provides a user interface through which a setting related to the generated plurality of pieces of motor information is received, wherein the user interface is configured to receive a setting of a number of motors, and the generation unit generates as many pieces of motor information as the number of motors on the basis of reception of the predetermined user operation, wherein the user interface is configured to display the generated plurality of pieces of motor information and is configured to display an axis assigned to each piece of motor information in parallel with each piece of motor information , characterised by that the user interface is configured to designate an axis assigned to each of a plurality of pieces of motor information in a predetermined first candidate group when a number of types of axes assigned to the plurality of pieces of motor information is less than a predetermined number, and is configured to set an axis that has already been assigned to each piece of motor information to a second candidate group and is configured to designate an axis assigned to each piece of motor information in the second candidate group when the number of types of axes assigned to the plurality of pieces of motor information is equal to or greater than the predetermined number, so that types of selectable axes are limited to the second candidate group from the first candidate group in response to the number of types of axes that have already been assigned. a generation unit which generates a plurality of pieces of motor information for designating each of a plurality of motors for driving a same control target on the basis of reception of a predetermined user operation; and an assignment unit which assigns each of the generated plurality of pieces of motor information to any one of a plurality of axes defining a predetermined coordinate system, a providing unit which provides a user interface through which a setting related to the generated plurality of pieces of motor information is received, wherein the user interface is configured to receive a setting of a number of motors, and the generation unit generates as many pieces of motor information as the number of motors on the basis of reception of the predetermined user operation,
A method for handling a request for registration by a User Equipment, UE, to a cellular network, performed by a network node of the cellular network, the geographical coverage of the cellular network being divided into a plurality of tracking areas, each tracking area having a respective identifier, the method comprising: receiving at the network node, a registration request message originating from the UE via an access node of the cellular network; and communicating by the network node to the UE, a registration rejection message that is in response to the registration request message, the registration rejection message including the identifier for each of one or more tracking areas to which the registration rejection message applies, wherein the registration request message indicates the identifier for each of one or more tracking areas to which the registration request message applies and the registration rejection message includes the identifier for each of multiple tracking areas to which the registration rejection message applies. receiving at the network node, a registration request message originating from the UE via an access node of the cellular network; and communicating by the network node to the UE, a registration rejection message that is in response to the registration request message, the registration rejection message including the identifier for each of one or more tracking areas to which the registration rejection message applies, wherein the registration request message indicates the identifier for each of one or more tracking areas to which the registration request message applies and the registration rejection message includes the identifier for each of multiple tracking areas to which the registration rejection message applies.
A system for the transmission of in vivo arterial pressure, the system comprising an implantable internal cardiac pressure monitor having: a pressure sensor whereby in vivo arterial pressure data is collected; a wireless transmitter , whereby said in vivo arterial pressure data is transmitted to be received disposed externally to a patient in which said system is disposed; a stent body proximate to said pressure sensor, said stent body having an integral antenna; a radio frequency power reception system , whereby power is supplied to said system; and a remote monitor of in vivo arterial pressure communicating with said wireless transmitter; wherein the power reception system comprises power storage, whereby the pressure data is collected continuously at a predetermined frequency; characterized in that said stent body having an integral antenna doubles as an antenna for wireless telemetry of the pressure data and for wireless power supply to the radio frequency power reception and storage system allowing for using it as both a radiating antenna and structural support. a pressure sensor whereby in vivo arterial pressure data is collected; a wireless transmitter , whereby said in vivo arterial pressure data is transmitted to be received disposed externally to a patient in which said system is disposed; a stent body proximate to said pressure sensor, said stent body having an integral antenna; a radio frequency power reception system , whereby power is supplied to said system; and a remote monitor of in vivo arterial pressure communicating with said wireless transmitter; wherein the power reception system comprises power storage, whereby the pressure data is collected continuously at a predetermined frequency; characterized in that said stent body having an integral antenna doubles as an antenna for wireless telemetry of the pressure data and for wireless power supply to the radio frequency power reception and storage system allowing for using it as both a radiating antenna and structural support.
Process for making a coated electrode active material wherein said process comprises the following steps: (a) providing a particulate electrode active material according to general formula Li 1+x TM 1-x O 2 , wherein TM is a combination of Ni, Co and, optionally, Mn, and, optionally, at least one metal selected from Mg, Al, Ba, Ti and Zr, and x is in the range of from zero to 0.2, wherein at least 15 mole-% of the transition metal of TM is Ni, (b) treating said electrode active material with a compound of M1, wherein M 1 is selected from Li, Al, B, Mg, Si, Sn, and from transition metals, or a combination of at least two of the foregoing, wherein said compound of M 1 does not act as a cathode active material on its own, (c) optionally, removing compound of M 1 which is not deposited on said particulate electrode active material, (d) performing a post-treatment by heating the material obtained after the step (b) or step (c), if applicable, at a temperature from 250 to 950°C in a fluidized bed. (a) providing a particulate electrode active material according to general formula Li 1+x TM 1-x O 2 , wherein TM is a combination of Ni, Co and, optionally, Mn, and, optionally, at least one metal selected from Mg, Al, Ba, Ti and Zr, and x is in the range of from zero to 0.2, wherein at least 15 mole-% of the transition metal of TM is Ni, (b) treating said electrode active material with a compound of M1, wherein M 1 is selected from Li, Al, B, Mg, Si, Sn, and from transition metals, or a combination of at least two of the foregoing, wherein said compound of M 1 does not act as a cathode active material on its own, (c) optionally, removing compound of M 1 which is not deposited on said particulate electrode active material, (d) performing a post-treatment by heating the material obtained after the step (b) or step (c), if applicable, at a temperature from 250 to 950°C in a fluidized bed.
A method for selectively detecting and quantifying IN-105 in a biological matrix in the presence of any human insulin or co-administered insulin, including insulin Glargine, wherein the biological matrix is whole blood, blood serum, blood plasma, urine, fermentation broth or buffer, wherein the method comprising the steps of: i. labelling a known amount of IN-105 by a stable isotope to form a labelled IN-105; ii. introducing the labelled IN-105 to the biological matrix; and iii. analysing the biological matrix for intact IN-105 by liquid phase chromatography-tandem mass spectrometry (LC-MS/MS), wherein IN-105 has the following structure: i. labelling a known amount of IN-105 by a stable isotope to form a labelled IN-105; ii. introducing the labelled IN-105 to the biological matrix; and iii. analysing the biological matrix for intact IN-105 by liquid phase chromatography-tandem mass spectrometry (LC-MS/MS),
An apparatus for measuring the acoustic reflex that presents and records at least two probe tones of different frequencies simultaneously in an ear canal of a human, comprising a) a probe with at least one speaker and at least one microphone , adapted to be placed in an ear canal of a human; b) means for signal generation and presentation via said at least one speaker of at least two probe tones of different frequencies simultaneously; c) means for recording back said at least two probe tones via said at least one microphone and band pass filters tuned to the probe frequencies; and d) means for evaluation of said recorded probe tones for amplitudes and / or phases to detect an acoustic reflex and/or artifacts, wherein the means for evaluation, a processor and means for digital-analog conversion and means for analog-digital conversion perform signal generation, recording and evaluation of the method according any of claims 10 to 18. a) a probe with at least one speaker and at least one microphone , adapted to be placed in an ear canal of a human; b) means for signal generation and presentation via said at least one speaker of at least two probe tones of different frequencies simultaneously; c) means for recording back said at least two probe tones via said at least one microphone and band pass filters tuned to the probe frequencies; and d) means for evaluation of said recorded probe tones for amplitudes and / or phases to detect an acoustic reflex and/or artifacts, wherein the means for evaluation, a processor and means for digital-analog conversion and means for analog-digital conversion perform signal generation, recording and evaluation of the method according any of claims 10 to 18.