mhurhangee/ep-ind-claims huggingface dataset:
A wireless communication method, comprising: transmitting, by a terminal device, first information to a network device, the first information being uplink information in a random access procedure triggered by Beam Failure Recovery, BFR; receiving, by the terminal device, first instruction information transmitted by the network device, the first instruction information instructing the terminal device to skip monitoring of Physical Downlink Control Channel, PDCCH; and determining, by the terminal device, whether to skip monitoring of PDCCH based on the first instruction information, characterized in that, wherein said determining, by the terminal device, whether to skip monitoring of PDCCH based on the first instruction information comprises: determining, by the terminal device, whether to skip monitoring of PDCCH based on a time interval between the terminal device transmitting the first information and the terminal device receiving the first instruction information and a first time length, the first time length being determined based on Round-Trip Time, RTT, of signal transmission between the terminal device and the network device. transmitting, by a terminal device, first information to a network device, the first information being uplink information in a random access procedure triggered by Beam Failure Recovery, BFR; receiving, by the terminal device, first instruction information transmitted by the network device, the first instruction information instructing the terminal device to skip monitoring of Physical Downlink Control Channel, PDCCH; and determining, by the terminal device, whether to skip monitoring of PDCCH based on the first instruction information, characterized in that, wherein said determining, by the terminal device, whether to skip monitoring of PDCCH based on the first instruction information comprises: determining, by the terminal device, whether to skip monitoring of PDCCH based on a time interval between the terminal device transmitting the first information and the terminal device receiving the first instruction information and a first time length, the first time length being determined based on Round-Trip Time, RTT, of signal transmission between the terminal device and the network device.
A liquid-crystalline medium, comprising - one or more pleochroic compounds, - one or more compounds of formula I in which R 1 denotes H, unfluorinated alkyl or unfluorinated alkoxy having 1 to 17 C atoms or unfluorinated alkenyl, unfluorinated alkenyloxy or unfluorinated alkoxyalkyl having 2 to 15 C atoms, n denotes 0 or 1, and independently of one another, denote or or alternatively denotes - one or more compounds of formula III in which R 3 denotes H, unfluorinated alkyl or unfluorinated alkoxy having 1 to 17 C atoms or unfluorinated alkenyl, unfluorinated alkenyloxy or unfluorinated alkoxyalkyl having 2 to 15 C atoms, one of Z 31 and Z 32 denotes trans- CH=CH -, trans -CF=CF- or -C=C-, and the other one denotes trans -CH=CH-, trans- CF=CF- or a single bond, and independently of one another, denote or or alternatively denotes and optionally - one or more polymerisable mesogenic compounds. - one or more pleochroic compounds, - one or more compounds of formula I in which R 1 denotes H, unfluorinated alkyl or unfluorinated alkoxy having 1 to 17 C atoms or unfluorinated alkenyl, unfluorinated alkenyloxy or unfluorinated alkoxyalkyl having 2 to 15 C atoms, n denotes 0 or 1, and independently of one another, denote or or alternatively denotes R 1 denotes H, unfluorinated alkyl or unfluorinated alkoxy having 1 to 17 C atoms or unfluorinated alkenyl, unfluorinated alkenyloxy or unfluorinated alkoxyalkyl having 2 to 15 C atoms, n denotes 0 or 1, and - one or more compounds of formula III in which R 3 denotes H, unfluorinated alkyl or unfluorinated alkoxy having 1 to 17 C atoms or unfluorinated alkenyl, unfluorinated alkenyloxy or unfluorinated alkoxyalkyl having 2 to 15 C atoms, one of Z 31 and Z 32 denotes trans- CH=CH -, trans -CF=CF- or -C=C-, and the other one denotes trans -CH=CH-, trans- CF=CF- or a single bond, and independently of one another, denote or or alternatively denotes and optionally R 3 denotes H, unfluorinated alkyl or unfluorinated alkoxy having 1 to 17 C atoms or unfluorinated alkenyl, unfluorinated alkenyloxy or unfluorinated alkoxyalkyl having 2 to 15 C atoms, one of Z 31 and Z 32 denotes trans- CH=CH -, trans -CF=CF- or -C=C-, and the other one denotes trans -CH=CH-, trans- CF=CF- or a single bond, and - one or more polymerisable mesogenic compounds.
An electronic device (100,200,300,400,500,600,700,800,900), comprising: a substrate (110,210,310,410,510,611,711,811); a first light-emitting element (120,220,320,420,520,620,720,820) disposed on the substrate and configured to emit a blue light, wherein the first light-emitting element comprises a first semiconductor layer (121,221,321,421,521) and a first ohmic contact electrode (161,261,361,461,561,861) in contact with the first semiconductor layer; and a second light-emitting element (130,230,330,430,530,630,730,830) disposed on the substrate and configured to emit green or red light, wherein the second light-emitting element comprises a second semiconductor layer (131,231,331,431,531) and a second ohmic contact electrode (162,262,362,462,562,862) in contact with the second semiconductor layer, wherein a first ratio of an area of the first ohmic contact electrode and an area of the first semiconductor layer is different from a second ratio of an area of the second ohmic contact electrode and an area of the second semiconductor layer, characterized in that the first ratio is greater than the second ratio. a substrate (110,210,310,410,510,611,711,811); a first light-emitting element (120,220,320,420,520,620,720,820) disposed on the substrate and configured to emit a blue light, wherein the first light-emitting element comprises a first semiconductor layer (121,221,321,421,521) and a first ohmic contact electrode (161,261,361,461,561,861) in contact with the first semiconductor layer; and a second light-emitting element (130,230,330,430,530,630,730,830) disposed on the substrate and configured to emit green or red light, wherein the second light-emitting element comprises a second semiconductor layer (131,231,331,431,531) and a second ohmic contact electrode (162,262,362,462,562,862) in contact with the second semiconductor layer, wherein a first ratio of an area of the first ohmic contact electrode and an area of the first semiconductor layer is different from a second ratio of an area of the second ohmic contact electrode and an area of the second semiconductor layer, characterized in that the first ratio is greater than the second ratio.
A method for forming on a substrate a patterned n + a-Si:H layer and a patterned p + a-Si:H layer, the patterned n + a-Si:H layer and the patterned p + a-Si:H layer being interdigitated and electrically isolated from each other, the method comprising: - forming a patterned p + a-Si:H layer on the substrate, the patterned p + a-Si:H layer covering first regions of the substrate surface and leaving second regions of the substrate surface exposed; - depositing a first intrinsic a-Si:H layer on the substrate and on said patterned p + a-Si:H layer; - depositing an n + a-Si:H layer on the first intrinsic a-Si:H layer; - providing a patterned masking layer covering the n + a-Si:H layer at least in the second regions; and - selectively removing the n + a-Si:H layer and the first intrinsic a-Si:H layer in regions not covered by the masking layer, selective to said underlying p + a-Si:H layer, thereby leaving the underlying p + a-Si:H layer substantially unaffected, wherein selectively removing the n + a-Si:H layer and the first intrinsic a-Si:H layer comprises performing an etching step in a diluted TMAH solution. - forming a patterned p + a-Si:H layer on the substrate, the patterned p + a-Si:H layer covering first regions of the substrate surface and leaving second regions of the substrate surface exposed; - depositing a first intrinsic a-Si:H layer on the substrate and on said patterned p + a-Si:H layer; - depositing an n + a-Si:H layer on the first intrinsic a-Si:H layer; - providing a patterned masking layer covering the n + a-Si:H layer at least in the second regions; and - selectively removing the n + a-Si:H layer and the first intrinsic a-Si:H layer in regions not covered by the masking layer, selective to said underlying p + a-Si:H layer, thereby leaving the underlying p + a-Si:H layer substantially unaffected,
A handover method, applied to a terminal, and the method comprising: receiving a handover command transmitted by a target cell of a network side through a source cell, wherein the handover command comprises bandwidth access information of the target cell, and the bandwidth access information is information of a determined bandwidth part configured to access the target cell; characterized in that, the method further comprises: accessing the target cell on the BWP to enable the terminal to be switched from the source cell to the target cell by sending a random access request for accessing the target cell to the network side through the BWP and completing a random access process; wherein the bandwidth access information is as follows: an explicit indication configured to indicate the BWP which can be used by the terminal to access the target cell. receiving a handover command transmitted by a target cell of a network side through a source cell, wherein the handover command comprises bandwidth access information of the target cell, and the bandwidth access information is information of a determined bandwidth part configured to access the target cell; characterized in that, the method further comprises: accessing the target cell on the BWP to enable the terminal to be switched from the source cell to the target cell by sending a random access request for accessing the target cell to the network side through the BWP and completing a random access process; wherein the bandwidth access information is as follows: an explicit indication configured to indicate the BWP which can be used by the terminal to access the target cell. accessing the target cell on the BWP to enable the terminal to be switched from the source cell to the target cell by sending a random access request for accessing the target cell to the network side through the BWP and completing a random access process; wherein the bandwidth access information is as follows: an explicit indication configured to indicate the BWP which can be used by the terminal to access the target cell.
An oral care composition comprising: (a) a zinc ion source, wherein the composition comprises from 0.1 to 2.0 weight % zinc oxide and from 0.20 to 1.0 weight % zinc citrate; and (b) at least two active ingredients, wherein said active ingredients are selected from the following: bisabolol; citral; carvacrol; thymol; and an extract of oregano, wherein the active compound from said extract of oregano is selected from carvacrol, thymol, limonene, pinene, p-cymene, caryophyllene, and mixtures thereof; and an extract of rosemary, wherein the active compound from said extract of rosemary is selected from α-pinene, β-pinene, borneol, bornyl acetate, camphor, camphene, 1,8-cineole, limonene, and mixtures thereof. (a) a zinc ion source, wherein the composition comprises from 0.1 to 2.0 weight % zinc oxide and from 0.20 to 1.0 weight % zinc citrate; and (b) at least two active ingredients, wherein said active ingredients are selected from the following: bisabolol; citral; carvacrol; thymol; and an extract of oregano, wherein the active compound from said extract of oregano is selected from carvacrol, thymol, limonene, pinene, p-cymene, caryophyllene, and mixtures thereof; and an extract of rosemary, wherein the active compound from said extract of rosemary is selected from α-pinene, β-pinene, borneol, bornyl acetate, camphor, camphene, 1,8-cineole, limonene, and mixtures thereof.
A method for determining the viscosity of a fuel/water or a water/fuel emulsion in a fuel line having the step: - measuring the viscosity of the emulsion using a first measurement method, characterized by the further steps: - measuring the water content of the emulsion, - determining the viscosity of the emulsion by assigning the measured value measured using the first measurement method to a value, predetermined using a second measurement method, for an emulsion having a water content corresponding to the measured water content, assigning taking place in table form or by means of a correction factor, the viscosity being accurately determined experimentally under laboratory conditions using the second measurement method having a higher measuring accuracy relative to the first measurement method. - measuring the viscosity of the emulsion using a first measurement method, characterized by the further steps: - measuring the water content of the emulsion, - determining the viscosity of the emulsion by assigning the measured value measured using the first measurement method to a value, predetermined using a second measurement method, for an emulsion having a water content corresponding to the measured water content, assigning taking place in table form or by means of a correction factor, the viscosity being accurately determined experimentally under laboratory conditions using the second measurement method having a higher measuring accuracy relative to the first measurement method.
A computer-readable conflict management program that is to be executed by a computer, the conflict management program comprising instructions for performing the steps of: receiving a task execution request; registering an active task in an active task list; detecting which of a plurality of operating states the active task is in; detecting for a task conflict by referencing the active task list when the task execution request is received in the execution request reception step; determining the state to which a task designated by the task execution request should switch and the state to which a task registered in the active task list should switch in accordance with predetermined conditions responsive to the detected operating state of the active task when a task conflict is detected in the conflict detection step; and respectively placing the task designated by the task execution request and the task registered in the active task list in the states determined in the transition state determination step. receiving a task execution request; registering an active task in an active task list; detecting which of a plurality of operating states the active task is in; detecting for a task conflict by referencing the active task list when the task execution request is received in the execution request reception step; determining the state to which a task designated by the task execution request should switch and the state to which a task registered in the active task list should switch in accordance with predetermined conditions responsive to the detected operating state of the active task when a task conflict is detected in the conflict detection step; and respectively placing the task designated by the task execution request and the task registered in the active task list in the states determined in the transition state determination step.
An apparatus comprising: an approximately planar submount; a plurality of light emitting diode dies (132a, 132b) mounted on the submount, wherein the distance between the individual light emitting diode dies, from center to center, is defined by X LED such that the individual light emitting diode dies are separated from each other by a space; and a single integral lens system comprising a plurality of lens elements (138a, 138b), with an individual lens element for each of the plurality of light emitting diode dies, wherein the single integral lens system is positioned over the plurality of light emitting diode dies and bonded to the submount by an encapsulant such that each lens element is aligned with a respective light emitting diode die, wherein the distance between the individual lens elements, from center to center, is defined by X lens, characterized in that the single integral lens system is configured to focus the light emitted from the light emitting diode dies on a target at a predefined distance, the distance X LED between the individual light emitting diode dies, the distance X lens between the individual lens elements, and the alignment of the single integral lens system to the underlying light emitting diode dies is configured to produce a desired light distribution on the target, and the distance X lens is greater than the distance X LED. an approximately planar submount; a plurality of light emitting diode dies (132a, 132b) mounted on the submount, wherein the distance between the individual light emitting diode dies, from center to center, is defined by X LED such that the individual light emitting diode dies are separated from each other by a space; and a single integral lens system comprising a plurality of lens elements (138a, 138b), with an individual lens element for each of the plurality of light emitting diode dies, wherein the single integral lens system is positioned over the plurality of light emitting diode dies and bonded to the submount by an encapsulant such that each lens element is aligned with a respective light emitting diode die, wherein the distance between the individual lens elements, from center to center, is defined by X lens, characterized in that the single integral lens system is configured to focus the light emitted from the light emitting diode dies on a target at a predefined distance, the distance X LED between the individual light emitting diode dies, the distance X lens between the individual lens elements, and the alignment of the single integral lens system to the underlying light emitting diode dies is configured to produce a desired light distribution on the target, and the distance X lens is greater than the distance X LED.
A hydraulic control device of a vehicle including a mechanical pump configured to discharge oil by driving of an engine, a hydraulic route configured to supply the oil discharged by the mechanical pump to a clutch, a clutch pressure control valve provided on the hydraulic route and configured to control a clutch pressure serving as a hydraulic pressure supplied to the clutch, and a manual valve provided on a downstream side of the clutch pressure control valve of the hydraulic route and configured to switch a hydraulic pressure supply to the clutch depending on a shift operation of the vehicle, the hydraulic control device comprising: an accumulator configured to accumulate the oil supplied by the mechanical pump and supply the accumulated oil to the clutch by discharging the accumulated oil; the accumulator is connected to the hydraulic route on an upstream side of the clutch pressure control valve by a first oil passage in a communicable manner; characterized in that the accumulator is connected to the hydraulic route on a downstream side of the manual valve by a second oil passage in a communicable manner; and a connection control means is configured to control the connection between the accumulator and the hydraulic route so that the accumulator is in communication with one of the first oil passage and the second oil passage. an accumulator configured to accumulate the oil supplied by the mechanical pump and supply the accumulated oil to the clutch by discharging the accumulated oil; the accumulator is connected to the hydraulic route on an upstream side of the clutch pressure control valve by a first oil passage in a communicable manner; characterized in that the accumulator is connected to the hydraulic route on a downstream side of the manual valve by a second oil passage in a communicable manner; and a connection control means is configured to control the connection between the accumulator and the hydraulic route so that the accumulator is in communication with one of the first oil passage and the second oil passage.
Device for treating a string of sausages consisting of a number of sausages arranged one behind the other, with a sausage casing of an organic material, which in the region between two sausages has a twist, wherein at least two microwave applicators (3, 4) each with at least one assigned microwave generating unit (22, 23, 24, 25) are provided for generating microwave radiation to be supplied to the microwave applicators (3, 4), wherein the microwave generating units (22, 23, 24, 25) can be separately activated with regard to the output of the microwave radiation generated, characterized in that the microwave applicators (3, 4) are respectively assigned a separate transporting unit (5, 6), in each case comprising two conveyor belts (7, 8, 9, 10), lying one over the other and running in a circulating manner, for transporting the string of sausages through the microwave applicators (3, 4), wherein the microwave applicators (3, 4) with their assigned transporting units (5, 6) are arranged one behind the other, wherein the transporting units (5, 6) can also be activated separately with regard to the respective transporting speed.
A universal IC tag comprising: a first metal sheet (M 1) extending in x and y directions, the x-direction being perpendicular to the y-direction; a slot formed in said first metal sheet (M 1) with a length in the y-direction shorter than a width of said first metal sheet (M 1); an IC a second metal sheet (M 2) arranged in parallel to said first metal sheet (M 1) via an insulating sheet, wherein: said slot radiates radio wave; further comprising a third metal sheet (M 3) and a fourth metal sheet (M 4), wherein said first and second metal sheets (M 1, M 2) are short-circuited by said third and fourth metal sheets (M 3, M 4) at both ends in the x-direction of the first and second metal sheets (M 1, M 2), and a theoretical impedance at said slot in said first metal sheet (M 1) toward said second metal sheet (M 2) is configured to be infinite, wherein the IC is arranged in said slot a transmission line is formed by said first metal sheet (M 1) and said second metal sheet (M 2); said first and second metal sheets (M 1, M 2) are short-circuited apart 1/4 wave electric length from the center of said slot. a first metal sheet (M 1) extending in x and y directions, the x-direction being perpendicular to the y-direction; a slot formed in said first metal sheet (M 1) with a length in the y-direction shorter than a width of said first metal sheet (M 1); an IC a second metal sheet (M 2) arranged in parallel to said first metal sheet (M 1) via an insulating sheet, wherein: said slot radiates radio wave; further comprising a third metal sheet (M 3) and a fourth metal sheet (M 4), wherein said first and second metal sheets (M 1, M 2) are short-circuited by said third and fourth metal sheets (M 3, M 4) at both ends in the x-direction of the first and second metal sheets (M 1, M 2), and a theoretical impedance at said slot in said first metal sheet (M 1) toward said second metal sheet (M 2) is configured to be infinite, wherein the IC is arranged in said slot a transmission line is formed by said first metal sheet (M 1) and said second metal sheet (M 2); said first and second metal sheets (M 1, M 2) are short-circuited apart 1/4 wave electric length from the center of said slot. said slot radiates radio wave; further comprising a third metal sheet (M 3) and a fourth metal sheet (M 4), wherein said first and second metal sheets (M 1, M 2) are short-circuited by said third and fourth metal sheets (M 3, M 4) at both ends in the x-direction of the first and second metal sheets (M 1, M 2), and a theoretical impedance at said slot in said first metal sheet (M 1) toward said second metal sheet (M 2) is configured to be infinite, wherein the IC is arranged in said slot a transmission line is formed by said first metal sheet (M 1) and said second metal sheet (M 2); said first and second metal sheets (M 1, M 2) are short-circuited apart 1/4 wave electric length from the center of said slot.