mhurhangee/ep-ind-claims huggingface dataset:
A coreless paper roll rewinding machine using air flow to assist the start of winding, comprising a rewinding upper roller and a rewinding lower roller which are parallel to each other, a piece of paper is wound on the rewinding upper roller and passes through a roller gap between the rewinding upper roller and the rewinding lower roller, characterized in that an air pipe is arranged above the rewinding lower roller and adapted to output a downward airflow; the roller gap between the rewinding upper roller and the rewinding lower roller is no more than 10 mm; a plurality of air flow channels are arranged in a roller body of the rewinding upper roller, the plurality of air flow channels are arranged spaced apart along a circumference of the roller body; each air flow channel is interconnected with a set of air suction holes; a set of air suction holes which is interconnected with the same air flow channel is arranged in one or more rows on the surface of the roller body; each row of air suction holes is arranged along the latitude direction of the roller body; respective rows of air suction holes are arranged spaced apart along the circumference of the roller body; an air suction cover is arranged in a position close to the end portion of the rewinding upper roller; as the rewinding upper roller rotates, when a certain row of the air suction holes on the surface of the rewinding upper roller is gradually closing toward the roller gap between the rewinding upper roller and the rewinding lower roller, the air flow channel in the roller body, which is interconnected with the row of air suction holes, is rotated to a region where it interconnects with an exhaust opening of the air suction cover; when a certain row of the air suction holes on the surface of the rewinding upper roller are gradually rotating away from the roller gap between the rewinding upper roller and the rewinding lower roller, the air flow channel in the roller body which is interconnected with the row of air suction holes is rotated to a region where it deviates from the exhaust opening of the air suction cover.
An electronic device comprising: a motor; the electronic device characterised in further comprising a memory configured to store first frequency information associated with a sound that is generated when the motor is driven, wherein the first frequency information represents eigenfrequency of the electronic device when the motor is driven and second frequency information associated with vibration and noise that occur according to the impact of various surrounding environments where the electronic device is installed or intended to be installed, wherein the second frequency information represents eigenfrequency of the various surrounding environments; and a processor configured to control the motor to be driven by avoiding a driving speed corresponding to the first frequency information and the second frequency information stored in the memory. a motor; the electronic device characterised in further comprising a memory configured to store first frequency information associated with a sound that is generated when the motor is driven, wherein the first frequency information represents eigenfrequency of the electronic device when the motor is driven and second frequency information associated with vibration and noise that occur according to the impact of various surrounding environments where the electronic device is installed or intended to be installed, wherein the second frequency information represents eigenfrequency of the various surrounding environments; and a processor configured to control the motor to be driven by avoiding a driving speed corresponding to the first frequency information and the second frequency information stored in the memory.
A method of cultivating a plant comprising a step of irradiating a plant with a red light and a step of irradiating a plant with a blue light, wherein the red light-irradiation step and the blue light irradiation step are independently carried out for a predetermined period of time under cultivation conditions such that the concentration of carbon dioxide in a cultivation atmosphere at the blue light irradiation step is higher than that at the red light irradiation step.
A card connector comprising: a base; a shielding sleeve made of electrically conductive material connected to the base, the base and the shielding sleeve defining a first direction for inserting a card and a second direction opposite to the first direction for extracting the card from the card connector; a shielding tray for receiving the card, the shielding tray being electrically conductive and being movable relative to the base in the first direction or the second direction, wherein the card connector is operable to electrically connect to the card if the card reaches a position of insertion along the first direction, a finger-shaped portion arranged on an end of the shielding tray in the first direction and operable to prevent the card from further moving in the first direction in response to the shielding tray reaching the position of insertion, and characterized in that the card connector further comprises an indented portion arranged on the end of shielding tray and operable to facilitate a movement of the card relative to the shielding tray in the second direction, the movement of the card being caused by a force applied on the card. a base; a shielding sleeve made of electrically conductive material connected to the base, the base and the shielding sleeve defining a first direction for inserting a card and a second direction opposite to the first direction for extracting the card from the card connector; a shielding tray for receiving the card, the shielding tray being electrically conductive and being movable relative to the base in the first direction or the second direction, wherein the card connector is operable to electrically connect to the card if the card reaches a position of insertion along the first direction, a finger-shaped portion arranged on an end of the shielding tray in the first direction and operable to prevent the card from further moving in the first direction in response to the shielding tray reaching the position of insertion, and characterized in that the card connector further comprises an indented portion arranged on the end of shielding tray and operable to facilitate a movement of the card relative to the shielding tray in the second direction, the movement of the card being caused by a force applied on the card.
A hollow needle for piercing a closure of a sample container, said hollow needle comprising a cylindrical hollow profile extending along a longitudinal axis and having a tip (2;20) provided at a first end thereof, said hollow needle having a first section comprising said tip (2;20) and said hollow needle having a second section having a larger diameter than said first section, characterized in that a transition between the first section and the second section comprises at least one cutting edge extending from the first section to the second section, wherein each cutting edge being formed by two flanks (31,32) adjacent thereto.
A cosmetic or dermatological composition comprising a compound selected from the group consisting of: or a pharmaceutically acceptable salt thereof; wherein the composition is a lotion, cream or gel, wherein a lotion contains from 1 % to 20% of emollient(s) and from 50% to 90% of water, and wherein a cream contains from 5% to 50% of emollient(s) and from 45% to 85% of water, and wherein a gel is an aqueous, alcohol, alcohol/water, or oil gel using a suitable gelling agent(s).
A process for producing steam in a segregated steam system in a hydrogen production facility, the process comprising: (a) heating boiler feed water by indirect heat exchange with a reformate; (b) heating water condensate formed from the reformate by indirect heat exchange with a first portion of the heated boiler feed water from step (a); (c) passing the water condensate from step (b) to a first steam drum for producing steam for a reformer feed gas mixture; and (d) passing a second portion (86") of the boiler feed water from step (a) to a second steam drum for producing steam for export. (a) heating boiler feed water by indirect heat exchange with a reformate; (b) heating water condensate formed from the reformate by indirect heat exchange with a first portion of the heated boiler feed water from step (a); (c) passing the water condensate from step (b) to a first steam drum for producing steam for a reformer feed gas mixture; and (d) passing a second portion (86") of the boiler feed water from step (a) to a second steam drum for producing steam for export.
A transceiver, wherein the transceiver is configured to select, responsive to a reported position of a mobile terminal (103 1), one communication matrix out of a plurality of communication matrices for communication with the mobile terminal (103 1); wherein each of the communication matrices is associated with a different one of a plurality of locations (107 1 to 107 4) of a cell served by the transceiver; wherein the plurality of communication matrices are channel covariance matrices or second-order statistics matrices or dominant direction slowly varying channel matrices; characterized in that the transceiver is configured to select, responsive to a reported position of a further mobile terminal (103 2) located in a different location of the cell than the mobile terminal (103 1), one further communication matrix out of the plurality of communication matrices; wherein the transceiver is configured to select an antenna beam for communicating with the mobile terminal (103 1) using the selected communication matrix and the selected further communication matrix.
A perforated film (1, 1A, 1B) provided with holes, wherein each of the holes is disposed on an intersection of a first cut provided on a first virtual line extending along a first direction and a second cut provided on a second virtual line extending along a second direction, characterized in that the first direction is different from a width direction (B, TD) and a direction (A, MD) orthogonal to the width direction.
An inkjet printing fluid set for printing on textile, the fluid set comprising: a) an aqueous pretreatment composition comprising an ink-aggregating agent, wherein said ink-aggregating agent is one or more members selected from a cationic polymer, a multivalent metal salt, an organic acid, and mixtures thereof; and b) an aqueous inkjet ink comprising a colorant and a first polymeric binder, wherein the colorant is a mixture of a pigment and a disperse dye, and the first polymeric binder is one or more members selected from the group consisting of polyester polyol based waterborne polyurethane, polycarbonate polyol based waterborne polyurethane, polyester-carbonate polyol based waterborne polyurethane, acrylic emulsion polymer, styrene acrylic emulsion polymer, vinyl acetate-ethylene copolymer dispersion, and mixtures thereof. a) an aqueous pretreatment composition comprising an ink-aggregating agent, wherein said ink-aggregating agent is one or more members selected from a cationic polymer, a multivalent metal salt, an organic acid, and mixtures thereof; and b) an aqueous inkjet ink comprising a colorant and a first polymeric binder, wherein the colorant is a mixture of a pigment and a disperse dye, and the first polymeric binder is one or more members selected from the group consisting of polyester polyol based waterborne polyurethane, polycarbonate polyol based waterborne polyurethane, polyester-carbonate polyol based waterborne polyurethane, acrylic emulsion polymer, styrene acrylic emulsion polymer, vinyl acetate-ethylene copolymer dispersion, and mixtures thereof.
A method of manufacturing an organic light emitting device, comprising the steps of: (a) forming an insulating layer on a lower electrode; (b) etching the insulating layer to form an opening (32a, 32b) ranging from an upper surface of the insulating layer to the lower electrode so that an overhang structure is formed, wherein the insulating layer is a silicon insulating layer, and the etching of the insulating layer is performed by using dry etching, (c) forming a conductive layer (50a, 50b) on an upper surface of the lower electrode in the opening (32a, 32b) and a surface of the insulating layer other than the overhang structure; (d) forming an organic material layer on the conductive layer formed on the upper surface of the lower electrode in the opening; and (e) forming an upper electrode on an upper surface of the conductive layer disposed on the surface of the insulating layer and an upper surface of the organic material layer, characterized in that the overhang structure formed in step (b) has a lowermost circumference larger than an uppermost circumference and the method further comprising: forming an oxide film on the lower electrode before step (a); and dry etching the oxide film after the dry etching of the silicon insulating layer in step (b). (a) forming an insulating layer on a lower electrode; (b) etching the insulating layer to form an opening (32a, 32b) ranging from an upper surface of the insulating layer to the lower electrode so that an overhang structure is formed, wherein the insulating layer is a silicon insulating layer, and the etching of the insulating layer is performed by using dry etching, (c) forming a conductive layer (50a, 50b) on an upper surface of the lower electrode in the opening (32a, 32b) and a surface of the insulating layer other than the overhang structure; (d) forming an organic material layer on the conductive layer formed on the upper surface of the lower electrode in the opening; and (e) forming an upper electrode on an upper surface of the conductive layer disposed on the surface of the insulating layer and an upper surface of the organic material layer, forming an oxide film on the lower electrode before step (a); and dry etching the oxide film after the dry etching of the silicon insulating layer in step (b).
An electronic biosensor, comprising: a housing configured for hand-held manipulation by a clinician relative to a patient; a transducer supported by the housing and configured to sense a manifestation of acoustic energy produced by matter of biological origin; an output device configured to output a signal comprising signal information produced by the transducer; a processor disposed in the housing; a sensor; and power management circuitry disposed in the housing and coupled to the processor and the sensor, the power management circuitry comprising detection circuitry configured to detect a plurality of features of a signal produced by the sensor, wherein said plurality of features comprises a transient portion of the sensor signal and a non-transient portion of the sensor signal, the power management circuitry implementing conditional power management logic by which the power management circuitry discriminates between indications of intended use and unintended use of the biosensor by the clinician using the plurality of sensor signal features, the power management circuitry and the processor cooperating to control power supplied to biosensor components based on the plurality of sensor signal features, wherein the transient portion of the sensor signal is indicative of sensor proximity to a body surface of a clinician; and wherein the non-transient portion represents a persistent portion of the sensor signal. a housing configured for hand-held manipulation by a clinician relative to a patient; a transducer supported by the housing and configured to sense a manifestation of acoustic energy produced by matter of biological origin; an output device configured to output a signal comprising signal information produced by the transducer; a processor disposed in the housing; a sensor; and power management circuitry disposed in the housing and coupled to the processor and the sensor, the power management circuitry comprising detection circuitry configured to detect a plurality of features of a signal produced by the sensor, wherein said plurality of features comprises a transient portion of the sensor signal and a non-transient portion of the sensor signal, the power management circuitry implementing conditional power management logic by which the power management circuitry discriminates between indications of intended use and unintended use of the biosensor by the clinician using the plurality of sensor signal features, the power management circuitry and the processor cooperating to control power supplied to biosensor components based on the plurality of sensor signal features, wherein the transient portion of the sensor signal is indicative of sensor proximity to a body surface of a clinician; and wherein the non-transient portion represents a persistent portion of the sensor signal.
A method executable in a communication device, the method comprising: automatically receiving location information of a mobile device on an ongoing basis; displaying on a display of the communication device a graphic representation of a location of the mobile device on a map at a given resolution; determining a specified distance as a distance that corresponds to a pixel of the display at the given resolution; determining whether location information of the mobile device is needed; and if location information of the mobile device is needed, transmitting a message indicating the specified distance and that an update of location information of the mobile device is needed only if the mobile device travels the specified distance; and if location information of the mobile device is not needed, transmitting a message indicating that location information of the mobile device is not needed. automatically receiving location information of a mobile device on an ongoing basis; displaying on a display of the communication device a graphic representation of a location of the mobile device on a map at a given resolution; determining a specified distance as a distance that corresponds to a pixel of the display at the given resolution; determining whether location information of the mobile device is needed; and if location information of the mobile device is needed, transmitting a message indicating the specified distance and that an update of location information of the mobile device is needed only if the mobile device travels the specified distance; and if location information of the mobile device is not needed, transmitting a message indicating that location information of the mobile device is not needed.
A media processing method for adaptive streaming, comprising: acquiring a Media Presentation, MP, timeline alignment event message carried in a media segment, wherein the MP timeline alignment event message comprises: a presentation time delta, presentation_time_delta, field, configured to provide time for the MP timeline alignment event; determining an aligned media segment according to the MP timeline alignment event message, wherein the aligned media segment is a media segment of which a Media Presentation Time, MPT, in an MP timeline is aligned to an external timeline, wherein determining the aligned media segment according to the MP timeline alignment event message comprises: if a value of the presentation_time_delta field in the MP timeline alignment event message is set to a predetermined value, determining the media segment to be aligned to the external timeline; and calculating one or more MPTs of one or more media segments in an MP timeline alignment event after a mapping between the MP timeline and the external timeline has been established. acquiring a Media Presentation, MP, timeline alignment event message carried in a media segment, wherein the MP timeline alignment event message comprises: a presentation time delta, presentation_time_delta, field, configured to provide time for the MP timeline alignment event; determining an aligned media segment according to the MP timeline alignment event message, wherein the aligned media segment is a media segment of which a Media Presentation Time, MPT, in an MP timeline is aligned to an external timeline, wherein determining the aligned media segment according to the MP timeline alignment event message comprises: if a value of the presentation_time_delta field in the MP timeline alignment event message is set to a predetermined value, determining the media segment to be aligned to the external timeline; and calculating one or more MPTs of one or more media segments in an MP timeline alignment event after a mapping between the MP timeline and the external timeline has been established.
A method comprising: sending a signal from a sensor element to a modulator, the sensor element having a proof mass providing a proof mass indication to the modulator and a plurality of pairs of electrodes and the modulator having a single-bit quantizer electrically connected to a digital accumulator, receiving output information at the accumulator, sent from the single-bit quantizer, wherein the output information corresponds to the signal sent from the sensor element; converting, by the accumulator, the output information received at the accumulator to a multi-bit feedback signal; and sending the multi-bit feedback signal in a primary feedback loop from the accumulator to an input of the sensor element, the multi-bit feedback signal being usable to control the plurality of pairs of electrodes, and sending a single-bit feedback signal in a secondary feedback loop from the single-bit quantizer to a point between the output of sensor element and the quantizer. sending a signal from a sensor element to a modulator, the sensor element having a proof mass providing a proof mass indication to the modulator and a plurality of pairs of electrodes and the modulator having a single-bit quantizer electrically connected to a digital accumulator, receiving output information at the accumulator, sent from the single-bit quantizer, wherein the output information corresponds to the signal sent from the sensor element; converting, by the accumulator, the output information received at the accumulator to a multi-bit feedback signal; and sending the multi-bit feedback signal in a primary feedback loop from the accumulator to an input of the sensor element, the multi-bit feedback signal being usable to control the plurality of pairs of electrodes, and sending a single-bit feedback signal in a secondary feedback loop from the single-bit quantizer to a point between the output of sensor element and the quantizer.