mhurhangee/patent-ind-claim-en huggingface dataset:
A method of fabricating an organic light emitting device, comprising: (a) depositing a first organic layer over a first electrode ; (b) depositing a second organic layer over and in physical contact with the first organic layer , wherein the second organic layer comprises a small molecule emissive material, the second organic layer is a patterned layer deposited by solution processing, the first organic layer is insoluble in the solution used to deposit the second organic layer , and the first organic layer comprises a cross-linked material; (c) depositing a second electrode over the second organic layer ; and (d) depositing a third organic layer over the first electrode prior to depositing the first organic layer wherein the second organic layer is deposited via ink-jet printing and comprises three distinct small molecule emissive materials, patterned into three distinct regions capable of emitting first, second and third spectra of light, respectively. (a) depositing a first organic layer over a first electrode ; (b) depositing a second organic layer over and in physical contact with the first organic layer , wherein the second organic layer comprises a small molecule emissive material, the second organic layer is a patterned layer deposited by solution processing, the first organic layer is insoluble in the solution used to deposit the second organic layer , and the first organic layer comprises a cross-linked material; the second organic layer comprises a small molecule emissive material, the second organic layer is a patterned layer deposited by solution processing, the first organic layer is insoluble in the solution used to deposit the second organic layer , and the first organic layer comprises a cross-linked material; (c) depositing a second electrode over the second organic layer ; and (d) depositing a third organic layer over the first electrode prior to depositing the first organic layer wherein the second organic layer is deposited via ink-jet printing and comprises three distinct small molecule emissive materials, patterned into three distinct regions capable of emitting first, second and third spectra of light, respectively.
A receiver circuit , comprising: one receiver antenna configured to receive a plurality of RF signals transmitted from a transmitter circuit comprising two or more transmit antennas for calculating a measured angle of departure (AOD); an RF chain configured to generate a plurality of digitized samples of the received RF signals; and a controller configured to receive the digitized samples, to calculate a plurality of additional samples, and to calculate AoD of the RF signals based on the digitized samples and the additional samples, wherein a first set of the additional samples is calculated by oversampling a first set of the digitized samples and a second set of the additional samples is calculated by oversampling a second set of the digitized samples, the first set of the digitized samples are samples of the RF signals taken at a plurality of first sample times, the second set of the digitized samples are samples of the RF signals taken at a plurality of second sample times, and each of the first sample times is different from each of the second sample times, each of the first set of the additional samples corresponds with one of the second sample times and each of the second set of the additional samples corresponds with one of the first sample times; and the controller is further configured to calculate the measured AoD for each one of the first sample times and second sample times based on the digitized samples taken at the same sample time and the additional samples corresponding to the same sample time. one receiver antenna configured to receive a plurality of RF signals transmitted from a transmitter circuit comprising two or more transmit antennas for calculating a measured angle of departure (AOD); an RF chain configured to generate a plurality of digitized samples of the received RF signals; and a controller configured to receive the digitized samples, to calculate a plurality of additional samples, and to calculate AoD of the RF signals based on the digitized samples and the additional samples, wherein a first set of the additional samples is calculated by oversampling a first set of the digitized samples and a second set of the additional samples is calculated by oversampling a second set of the digitized samples, the first set of the digitized samples are samples of the RF signals taken at a plurality of first sample times, the second set of the digitized samples are samples of the RF signals taken at a plurality of second sample times, and each of the first sample times is different from each of the second sample times, each of the first set of the additional samples corresponds with one of the second sample times and each of the second set of the additional samples corresponds with one of the first sample times; and the controller is further configured to calculate the measured AoD for each one of the first sample times and second sample times based on the digitized samples taken at the same sample time and the additional samples corresponding to the same sample time.
An elbow prosthesis comprising: a humeral component comprising a humeral stem and a humeral condyle body , the humeral condyle body being provided with a bicondylar portion comprising distally extending and spaced apart condyle portions ; and an ulnar component comprising an ulnar stem , an ulnar body and an ulnar bearing , the ulnar bearing and the condyle portions being configured for reciprocal articulation about an hinging axis in an articulation condition; wherein the ulnar body and the ulnar bearing are configured for reciprocal coupling in a coupled condition, further wherein the ulnar body is releasably connectable to the ulnar stem , thereby establishing modularity of the ulnar component ; and wherein the ulnar stem is provided with an end portion having an ulnar extending body mating with an ulnar seat provided in the ulnar body ; characterised in that said ulnar extending body and said ulnar seat are provided each with an asymmetric double-curved shape; wherein said asymmetric double-curved shape is delimited by an asymmetric double-curved outer peripheral profile ; wherein said peripheral profile is defined by two spaced circumferences with different diameters, joined by a joining surface profile. a humeral component comprising a humeral stem and a humeral condyle body , the humeral condyle body being provided with a bicondylar portion comprising distally extending and spaced apart condyle portions ; and an ulnar component comprising an ulnar stem , an ulnar body and an ulnar bearing , the ulnar bearing and the condyle portions being configured for reciprocal articulation about an hinging axis in an articulation condition; wherein the ulnar body and the ulnar bearing are configured for reciprocal coupling in a coupled condition, further wherein the ulnar body is releasably connectable to the ulnar stem , thereby establishing modularity of the ulnar component ; and wherein the ulnar stem is provided with an end portion having an ulnar extending body mating with an ulnar seat provided in the ulnar body ; characterised in that said ulnar extending body and said ulnar seat are provided each with an asymmetric double-curved shape; wherein said asymmetric double-curved shape is delimited by an asymmetric double-curved outer peripheral profile ; wherein said peripheral profile is defined by two spaced circumferences with different diameters, joined by a joining surface profile.
An abrasive saw chain comprising: a drive link including an upper surface; a cutting element coupled to the upper surface of the drive link , the cutting element having a lower surface extending across a width of the abrasive saw chain , the cutting element configured to cut aggregate material or pipe; and a tie strap coupled to the drive link , characterized in that the tie strap includes an upper surface to contact and support the lower surface of the cutting element when the tie strap and the drive link are under load substantially perpendicular to a long axis of the tie strap , wherein there is a gap between the upper surface of the tie strap and the lower surface of the cutting element when the tie strap and the drive link are not under load substantially perpendicular to a long axis of the tie strap and wherein the upper surface of the tie strap contacts the lower surface of the cutting element when the tie strap and the drive link are under load substantially perpendicular to the long axis of the tie strap . a drive link including an upper surface; a cutting element coupled to the upper surface of the drive link , the cutting element having a lower surface extending across a width of the abrasive saw chain , the cutting element configured to cut aggregate material or pipe; and a tie strap coupled to the drive link , characterized in that the tie strap includes an upper surface to contact and support the lower surface of the cutting element when the tie strap and the drive link are under load substantially perpendicular to a long axis of the tie strap , wherein there is a gap between the upper surface of the tie strap and the lower surface of the cutting element when the tie strap and the drive link are not under load substantially perpendicular to a long axis of the tie strap and wherein the upper surface of the tie strap contacts the lower surface of the cutting element when the tie strap and the drive link are under load substantially perpendicular to the long axis of the tie strap .
Biotin for use thereof in the treatment of a demyelinating neuropathy, wherein said demyelinating neuropathy is chosen in the group consisting of demyelinating neuropathy associated with immunoglobulin M (IgM) monoclonal gammopathy and antibodies against myelin-associated glycoprotein (MAG), typical chronic inflammatory demyelinating polyradiculoneuropathy, atypical chronic inflammatory demyelinating polyradiculoneuropathy, Charcot Marie Tooth la disease and Guillain-Barre syndrome.
Use of a label gene sequence in the preparation of an H9 avian influenza vaccine strain which differentiates influenza A virus infection from vaccination, the label gene sequence containing a DNA sequence for coding an influenza B virus NA protein extracellular region amino acid sequence; alternatively, the label gene sequence containing a DNA sequence for coding the extracellular region amino acid sequence in influenza B virus NA gene, or containing a sequence having at least 90% homology, or at least 92% homology, or at least 95% homology, or at least 98% homology with the DNA sequence; alternatively, the label gene sequence is a DNA sequence for coding influenza B virus NA protein; alternatively, the label gene sequence is a DNA sequence of influenza B virus NA gene, or a sequence having at least 90% homology, or at least 92% homology, or at least 95% homology, or at least 98% homology with the DNA sequence. alternatively, the label gene sequence containing a DNA sequence for coding the extracellular region amino acid sequence in influenza B virus NA gene, or containing a sequence having at least 90% homology, or at least 92% homology, or at least 95% homology, or at least 98% homology with the DNA sequence; alternatively, the label gene sequence is a DNA sequence for coding influenza B virus NA protein; alternatively, the label gene sequence is a DNA sequence of influenza B virus NA gene, or a sequence having at least 90% homology, or at least 92% homology, or at least 95% homology, or at least 98% homology with the DNA sequence.
A cleaning composition comprising: at least two anionic surfactants, wherein the at least two anionic surfactants comprise a linear alkylbenzene sulfonate (LAS) and a sodium lauryl ether sulfate (SLES), wherein the LAS and the SLES are present in the cleaning composition in a total amount combined of 1%-2% by weight and wherein a weight ratio of LAS:SLES is 3:1 to 1:1 or 6:1 to 4:1; an ionic agent in an amount of 0.01% to 0.125% by weight; a nonionic surfactant in an amount of at least 0.45% by weight, and a fragrance, wherein the ionic agent is selected from metal chlorides, hydroxides, phosphates, iminodisuccinates and citrates. at least two anionic surfactants, wherein the at least two anionic surfactants comprise a linear alkylbenzene sulfonate (LAS) and a sodium lauryl ether sulfate (SLES), wherein the LAS and the SLES are present in the cleaning composition in a total amount combined of 1%-2% by weight and wherein a weight ratio of LAS:SLES is 3:1 to 1:1 or 6:1 to 4:1; an ionic agent in an amount of 0.01% to 0.125% by weight; a nonionic surfactant in an amount of at least 0.45% by weight, and a fragrance, wherein the ionic agent is selected from metal chlorides, hydroxides, phosphates, iminodisuccinates and citrates.
An ethylene-1-hexene copolymer having: a weight average molecular weight, measured with PS standard using a gel permeation chromatography-FTIR (GPC-FTIR), of 50,000 to 150,000, a molecular weight distribution (Mw/Mn), measured with PS standard using a gel permeation chromatography-FTIR (GPC-FTIR), of 2 to 5, a density, measured according to ASTM 1505, of 0.910 to 0.940 g/cm 3 , MFRR(MI 10 /MI 2.16 ), measured at a temperature of 190°C according to ASTM 1238, of 10 to 20, and a C 1 value of 30,000 to 300,000 and a C 2 value of -0.30 to -0.60 when a graph of complex viscosity (η*[Pa.s]) at the frequency (ω[rad/s]) of 0.05 to 500 rad/s is fitted to the following Equation 1: y = c 1 x c 2 a plateau delta value in Van Gurp Palmen plot satisfies the following Equation 2: − 0.02 × Mw / 10 4 + 0.76 ≤ plateau delta ≤ − 0.02 × Mw / 10 4 + 1.36 , wherein the complex viscosity at different frequencies is calculated with a dynamic frequency sweep at 190°C using advanced rheometric expansion system, wherein the dynamic frequency sweep is measured by using a 25 mm parallel plate in the form of a disc and power law fitting is carried out by using a TA orchestrator program. a weight average molecular weight, measured with PS standard using a gel permeation chromatography-FTIR (GPC-FTIR), of 50,000 to 150,000, a molecular weight distribution (Mw/Mn), measured with PS standard using a gel permeation chromatography-FTIR (GPC-FTIR), of 2 to 5, a density, measured according to ASTM 1505, of 0.910 to 0.940 g/cm 3 , MFRR(MI 10 /MI 2.16 ), measured at a temperature of 190°C according to ASTM 1238, of 10 to 20, and a C 1 value of 30,000 to 300,000 and a C 2 value of -0.30 to -0.60 when a graph of complex viscosity (η*[Pa.s]) at the frequency (ω[rad/s]) of 0.05 to 500 rad/s is fitted to the following Equation 1: y = c 1 x c 2 a plateau delta value in Van Gurp Palmen plot satisfies the following Equation 2: − 0.02 × Mw / 10 4 + 0.76 ≤ plateau delta ≤ − 0.02 × Mw / 10 4 + 1.36 , wherein the complex viscosity at different frequencies is calculated with a dynamic frequency sweep at 190°C using advanced rheometric expansion system, wherein the dynamic frequency sweep is measured by using a 25 mm parallel plate in the form of a disc and power law fitting is carried out by using a TA orchestrator program.
A reception device for receiving wireless power, the reception device comprising: a power reception circuit configured to wirelessly receive power from a transmission device , rectify the received power, and output the rectified power; a charger configured to process the rectified power received from the power reception circuit and charge a battery of the reception device or output the rectified power to a system of the reception device ; and a control circuit configured to, when an event for changing an input current limit of the charger is detected, gradually change the input current limit of the charger by stepping up or stepping down the input current limit to one or more intermediary values until the input current limit reaches a predetermined value, characterised in that the control circuit is further configured to when the event for changing the input current limit of the charger corresponds to an abrupt change of an input current of the charger or an abrupt change of an output current of the charger over a first time period, the input current of the charger is gradually changed over a second time period longer than the first time period, such that connection between the reception device and the transmission device is maintained. a power reception circuit configured to wirelessly receive power from a transmission device , rectify the received power, and output the rectified power; a charger configured to process the rectified power received from the power reception circuit and charge a battery of the reception device or output the rectified power to a system of the reception device ; and a control circuit configured to, when an event for changing an input current limit of the charger is detected, gradually change the input current limit of the charger by stepping up or stepping down the input current limit to one or more intermediary values until the input current limit reaches a predetermined value, characterised in that the control circuit is further configured to when the event for changing the input current limit of the charger corresponds to an abrupt change of an input current of the charger or an abrupt change of an output current of the charger over a first time period, the input current of the charger is gradually changed over a second time period longer than the first time period, such that connection between the reception device and the transmission device is maintained.
A coated article including a coating supported by a glass substrate , the coating comprising: first and second infrared IR reflecting layers comprising silver , the first IR reflecting layer being located closer to the glass substrate than is the second IR reflecting layer ; a first contact layer located over and directly contacting the first IR reflecting layer comprising silver ; a dielectric layer comprising silicon nitride located over and directly contacting the first contact layer ; a second contact layer located over and directly contacting the layer comprising silicon nitride ; the second IR reflecting layer comprising silver located over and directly contacting the second contact layer ; a third contact layer located over and directly contacting the second IR reflecting layer ; another dielectric layer comprising silicon nitride located over and directly contacting the third contact layer ; a layer comprising zirconium oxide located over and directly contacting the another dielectric layer comprising silicon nitride ; wherein the second IR reflecting layer comprising silver is thicker than the first IR reflecting layer comprising silver ; wherein each of the first and second IR reflecting layers comprising silver is at least twice as thick as the layer comprising zirconium oxide ; and wherein the coated article has a visible transmission, measured monolithically, of no greater than 60%.
Method for suppressing noise in a dual-clutch gearbox , having two partial gearboxes and at least two synchronization devices for each partial gearbox , for a motor vehicle, wherein a respective shaft of the respective partial gearbox can be synchronized with a respective idler gear , arranged on the respective shaft and associated with the respective synchronization device , of the respective partial gearbox by means of the respective synchronization device , wherein, in order to suppress noise, one synchronization device of the at least two synchronization devices of one of the partial gearboxes is operated, while the one partial gearbox is activated, the other partial gearbox is deactivated and an idler gear , which is associated with the at least one other synchronization device of the at least two synchronization devices of the one partial gearbox , is connected in a rotationally fixed manner to the shaft of the one partial gearbox , characterized in that the operation of the one synchronization device of the at least two synchronization devices of the one partial gearbox is monitored in order to prevent simultaneous engagement of two gears of the one partial gearbox , wherein the simultaneous engagement of two gears is prevented by limiting the shift travel of the one synchronization device of the at least two synchronization devices and wherein the shift travel is monitored by a shift travel measurement.
A method of modifying an identity badge of a user , comprising: determining whether a location of the user of the identity badge is in a special area in which a photograph of the user is not to be displayed: displaying a symbol/icon on the identity badge of the user in response to determining that the location of the user is in a special area in which a photograph of the user is not to be displayed; and alternately displaying a photograph of the user on the identity badge of the user in response to determining that the location of the user is not in a special area in which a photograph of the user is not to be displayed; wherein determining whether a location of the user is in a special area includes initially determining the gender of other users in the area prior to designating the area as a special area. determining whether a location of the user of the identity badge is in a special area in which a photograph of the user is not to be displayed: displaying a symbol/icon on the identity badge of the user in response to determining that the location of the user is in a special area in which a photograph of the user is not to be displayed; and alternately displaying a photograph of the user on the identity badge of the user in response to determining that the location of the user is not in a special area in which a photograph of the user is not to be displayed; displaying a symbol/icon on the identity badge of the user in response to determining that the location of the user is in a special area in which a photograph of the user is not to be displayed; and alternately displaying a photograph of the user on the identity badge of the user in response to determining that the location of the user is not in a special area in which a photograph of the user is not to be displayed; wherein determining whether a location of the user is in a special area includes initially determining the gender of other users in the area prior to designating the area as a special area.