mhurhangee/patent-ind-claim-en huggingface dataset:
A method for collaboratively captioning media in a captioning system, the media including video and audio, the method comprising: • receiving a first annotation as a caption in a first language for a media segment from a first device; characterized in that the method comprises: • the captioning system transmitting the first annotation to a second device; • rendering the first annotation as the caption in the first language for the media segment at the second device; • receiving a second annotation, via the captioning system, as the caption in the first language for the media segment from the second device; • performing an analysis on the first and second annotations to automatically select the first or second annotation as the caption in the first language for the media segment, wherein automatically selecting the first or second annotation comprises comparing the first and second annotations to an automatic machine translation of the audio of the media segment and selecting the annotation most similar to the machine translation; and • in response to a request from a third device to stream the media, streaming the video, the audio, and the selected annotation to the third device. • receiving a first annotation as a caption in a first language for a media segment from a first device; • the captioning system transmitting the first annotation to a second device; • rendering the first annotation as the caption in the first language for the media segment at the second device; • receiving a second annotation, via the captioning system, as the caption in the first language for the media segment from the second device; • performing an analysis on the first and second annotations to automatically select the first or second annotation as the caption in the first language for the media segment, wherein automatically selecting the first or second annotation comprises comparing the first and second annotations to an automatic machine translation of the audio of the media segment and selecting the annotation most similar to the machine translation; and • in response to a request from a third device to stream the media, streaming the video, the audio, and the selected annotation to the third device.
A method for simultaneously transferring a plurality of semiconductor device die from a wafer tape having a first side and a second side to a product substrate having a circuit trace thereon, the plurality of semiconductor device die being disposed on the first side of the wafer tape, the method comprising: securing the wafer tape via a first frame ; clamping the product substrate via a second frame such that the circuit trace is disposed facing the plurality of semiconductor device die on the wafer tape; disposing a transfer element adjacent the second side of the wafer tape, a single tip end (T) of the transfer element having a footprint sized so as to span across a group of semiconductor device die of the plurality of semiconductor device die, the tip end being the furthest distal end of the transfer element and the group of semiconductor device die includes more than one semiconductor device die; and actuating the transfer element to move the transfer element to a die transfer position at which the transfer element presses on the second side of the wafer tape to press each semiconductor device die of the group of semiconductor device die on the wafer tape into contact with the circuit trace on the product substrate, thereby transferring the group of semiconductor device die simultaneously onto the product substrate. securing the wafer tape via a first frame ; clamping the product substrate via a second frame such that the circuit trace is disposed facing the plurality of semiconductor device die on the wafer tape; disposing a transfer element adjacent the second side of the wafer tape, a single tip end (T) of the transfer element having a footprint sized so as to span across a group of semiconductor device die of the plurality of semiconductor device die, the tip end being the furthest distal end of the transfer element and the group of semiconductor device die includes more than one semiconductor device die; and actuating the transfer element to move the transfer element to a die transfer position at which the transfer element presses on the second side of the wafer tape to press each semiconductor device die of the group of semiconductor device die on the wafer tape into contact with the circuit trace on the product substrate, thereby transferring the group of semiconductor device die simultaneously onto the product substrate.
A post-processing device comprising: a post-processing unit configured to perform post-processing of a recording medium on which recording is performed by using water-based ink; a mounting unit on which the recording medium subjected to post-processing in the post-processing unit is mountable; a deformation suppressing unit configured to suppress deformation of the recording medium caused by a predetermined parameter related to recording processing with respect to the recording medium, in the mounting unit; and a control unit configured to control the deformation suppressing unit, characterized in that the control unit is configured to communicate with a printer control unit that controls the recording process, and to control the deformation suppressing unit based on a suppressing intensity which is derived by the printer control unit based on the predetermined parameter, and wherein information related to recording data for performing recording on the recording medium is included in the predetermined parameter. a post-processing unit configured to perform post-processing of a recording medium on which recording is performed by using water-based ink; a mounting unit on which the recording medium subjected to post-processing in the post-processing unit is mountable; a deformation suppressing unit configured to suppress deformation of the recording medium caused by a predetermined parameter related to recording processing with respect to the recording medium, in the mounting unit; and a control unit configured to control the deformation suppressing unit, characterized in that the control unit is configured to communicate with a printer control unit that controls the recording process, and to control the deformation suppressing unit based on a suppressing intensity which is derived by the printer control unit based on the predetermined parameter, and wherein information related to recording data for performing recording on the recording medium is included in the predetermined parameter.
A device for separating supports for vacuum insulated glazing, comprising a base , a vibrator , a separation chamber assembly , a separation actuator, a feed tube , and a drive device, wherein the drive device is provided at a side of the base and connected to the separation actuator wherein the drive device is adapted to push the separation actuator to make reciprocating movements, and the separation chamber assembly, the separation actuator and the feed tube are sequentially provided at another side of the base from top to bottom; the vibrator is provided on the separation chamber assembly; the separation chamber assembly is provided with a feed inlet, an accommodation cavity, and a dispensing outlet, the feed inlet is communicated with the accommodation cavity, the dispensing outlet is communicated with the feed tube, and the separation chamber assembly is inclinedly arranged with respect to a horizontal plane; the separation actuator passes through the separation chamber assembly, and is provided at a lower portion of the accommodation cavity in a reciprocatingly movable manner; an upper edge of the separation actuator at a side close to the dispensing outlet is provided with a recess capable of accommodating one support; and during reciprocating movements of the separation actuator, the accommodation cavity is communicated with the dispensing outlet via the recess of the separation actuator.
An apparatus to illuminate a sample , said apparatus comprising: a sample plane having an illumination region for receiving the sample thereon; an excitation unit having a light source configured to generate an excitation light; a lens unit, having a double sided lens array element with a first micro lens array in opposite orientation with a second micro lens array, where the first and the second micro lens arrays comprise a plurality of lenses arranged in two dimension arrangements, configured to receive the excitation light and generate an illumination light that is directed towards the illumination region; and a first focusing unit providing a fixed optical magnification of 40X or less and configured to project the illumination light onto the illumination region; wherein the lens unit is configured to produce a homogeneous illumination light to be projected on the illumination region of the sample plane with a high illumination efficiency; and wherein the illumination region is at least 0.5 mm 2 and/or wherein the illumination region is at least 2 times larger than the size of emittance area of the light source . a sample plane having an illumination region for receiving the sample thereon; an excitation unit having a light source configured to generate an excitation light; a lens unit, having a double sided lens array element with a first micro lens array in opposite orientation with a second micro lens array, where the first and the second micro lens arrays comprise a plurality of lenses arranged in two dimension arrangements, configured to receive the excitation light and generate an illumination light that is directed towards the illumination region; and a first focusing unit providing a fixed optical magnification of 40X or less and configured to project the illumination light onto the illumination region; wherein the lens unit is configured to produce a homogeneous illumination light to be projected on the illumination region of the sample plane with a high illumination efficiency; and wherein the illumination region is at least 0.5 mm 2 and/or wherein the illumination region is at least 2 times larger than the size of emittance area of the light source .
A thermoplastic resin having a constituent unit represented by the following general formula (I): wherein R 1 represents a hydrocarbon group containing 1 to 6 carbon atoms, and R 2 and R 3 each independently represent a hydrogen atom or a methyl group.
Start-stop method for an internal combustion engine of a motor vehicle , wherein the method comprises: shutting down the internal combustion engine ; closing a throttle device ; maintaining a negative pressure applied during shutdown in an intake pipe portion between the throttle device and a cylinder (3a-c), wherein the negative pressure in the intake pipe is built up by a wake-up operation of the internal combustion engine during the shutdown process (MZ Ab ); starting the internal combustion engine , wherein the negative pressure during a starting process (MZst) following a standby state (MZ Sb ) of the internal combustion engine is maintained by means of the closed throttle device ; operating the internal combustion engine when the throttle device is at least partially open. shutting down the internal combustion engine ; closing a throttle device ; maintaining a negative pressure applied during shutdown in an intake pipe portion between the throttle device and a cylinder (3a-c), wherein the negative pressure in the intake pipe is built up by a wake-up operation of the internal combustion engine during the shutdown process (MZ Ab ); starting the internal combustion engine , wherein the negative pressure during a starting process (MZst) following a standby state (MZ Sb ) of the internal combustion engine is maintained by means of the closed throttle device ; operating the internal combustion engine when the throttle device is at least partially open.
A method for transmitting system information, comprising: acquiring , by a base station, a preset modification period of enhanced system information, wherein the enhanced system information is system information on which enhanced transmission needs to be performed, wherein the enhanced system information is system information that is transmitted repeatedly in multiple pre-defined subframe locations in a period of time configured by a physical broadcast channel or another enhanced system information, and the modification period of the enhanced system information is N times greater than a modification period of non-enhanced system information, wherein the non-enhanced system information is system information that is transmitted, based on scheduling by using a control channel, in a system information window, and N is an integer greater than one; notifying, by the base station, a terminal of a configured time-sequence location; and transmitting , by the base station, to the terminal the enhanced system information in the modification period of the enhanced system information according to the configured time-sequence location. acquiring , by a base station, a preset modification period of enhanced system information, wherein the enhanced system information is system information on which enhanced transmission needs to be performed, wherein the enhanced system information is system information that is transmitted repeatedly in multiple pre-defined subframe locations in a period of time configured by a physical broadcast channel or another enhanced system information, and the modification period of the enhanced system information is N times greater than a modification period of non-enhanced system information, wherein the non-enhanced system information is system information that is transmitted, based on scheduling by using a control channel, in a system information window, and N is an integer greater than one; notifying, by the base station, a terminal of a configured time-sequence location; and transmitting , by the base station, to the terminal the enhanced system information in the modification period of the enhanced system information according to the configured time-sequence location.
A method of preparing fungal entomopathogenic microsclerotia composition from a culture of microsclerotia comprising: a) mixing the microsclerotia with an alginate salt solution to form a mixture of the microsclerotia and the alginate salt solution; and b) adding the mixture to a multivalent cation solution to form an alginate bead encapsulating the microsclerotia; wherein the microsclerotia in the alginate bead have enhanced stability; and wherein the fungal entomopathogenic microsclerotia comprises at least one strain selected from the group consisting of: (i) the fungal entomopathogen deposited as Patent Deposit No. NRRL 67073; (ii) the fungal entomopathogen deposited as Patent Deposit No. NRRL 67074; and (iii) the fungal entomopathogen deposited as Patent Deposit No. NRRL 67075. a) mixing the microsclerotia with an alginate salt solution to form a mixture of the microsclerotia and the alginate salt solution; and b) adding the mixture to a multivalent cation solution to form an alginate bead encapsulating the microsclerotia; wherein the microsclerotia in the alginate bead have enhanced stability; and wherein the fungal entomopathogenic microsclerotia comprises at least one strain selected from the group consisting of: (i) the fungal entomopathogen deposited as Patent Deposit No. NRRL 67073; (ii) the fungal entomopathogen deposited as Patent Deposit No. NRRL 67074; and (iii) the fungal entomopathogen deposited as Patent Deposit No. NRRL 67075. wherein the microsclerotia in the alginate bead have enhanced stability; and wherein the fungal entomopathogenic microsclerotia comprises at least one strain selected from the group consisting of: (i) the fungal entomopathogen deposited as Patent Deposit No. NRRL 67073; (ii) the fungal entomopathogen deposited as Patent Deposit No. NRRL 67074; and (iii) the fungal entomopathogen deposited as Patent Deposit No. NRRL 67075. (i) the fungal entomopathogen deposited as Patent Deposit No. NRRL 67073; (ii) the fungal entomopathogen deposited as Patent Deposit No. NRRL 67074; and (iii) the fungal entomopathogen deposited as Patent Deposit No. NRRL 67075.
A method for receiving data at a user equipment, UE, in wireless communications, comprising: monitoring , at the UE, a common search space of a control channel for scheduling first data resources of a first transmission time interval, TTI; determining that the control channel schedules second data resources for the UE based on a second TTI and based at least in part on determining a value of one or more bits of a downlink control indicator, DCI, in the common search space; and processing data received over the second data resources based on the second TTI, wherein a first duration of the first TTI is greater than a second duration of the second TTI, wherein the monitoring comprises monitoring a common search space of the control channel. monitoring , at the UE, a common search space of a control channel for scheduling first data resources of a first transmission time interval, TTI; determining that the control channel schedules second data resources for the UE based on a second TTI and based at least in part on determining a value of one or more bits of a downlink control indicator, DCI, in the common search space; and processing data received over the second data resources based on the second TTI, wherein a first duration of the first TTI is greater than a second duration of the second TTI, wherein the monitoring comprises monitoring a common search space of the control channel.
Pharmaceutical composition for the treatment and prevention of coronavirus whose formulation contains as ingredients non-hydrolyzed collagen as a surfactant with degreasing properties in addition to natural plants in the form of lyophilized powders of aqueous extracts characterized in that it comprises Dandelion (Taraxacum officinale), Anamú (Petiveria Alliacea), Epazote (Dysphania ambrosioides), Oregano (Origanum vulgare), star anise (Lllicium verun), together with preservatives, wherein the composition for its administration in the form of tea or infusion is formulated in a bag or sack of porous paper, silk or nylon to be dissolved in a rate of hot water is comprising: Non-hydrolyzed collagen 30% dandelion extract (Taraxacum officinale) 15% anamu extract (Anamau Petiveria) 15% Epazote extract (Dysphania ambrosioides) 17% Oregano extract (Origanum vulgare) 15% Star anise extract (Lllicium verun) 7.50% Sodium benzoate (Soda Benzoate) 0.25% Potassium sorbate 0.25%
A hearing aid comprising a hearing aid housing with a connector socket and an earpiece connector with a connector plug , and where the connector socket and the connector plug are configured such that the connector plug is releasably attached in the connector socket for connecting the connector to the hearing aid housing , and wherein the connector plug comprises a connector plug body having a separate deadbolt slidably arranged in the connector plug body , and wherein the connector plug comprises a spring configured for providing a spring force and the separate deadbolt comprises a release knob configured such that it allows that a user, by manipulating the release knob , can slide the separate deadbolt in a direction against the force of the spring ; wherein the connector socket comprises a rear undercut arranged outside the rear end of the connector plug when it is attached in the connector socket , and where the separate deadbolt has one or more projections arranged such that it can be moved in the connector plug body between a retracted position where the one or more projections are retracted into the connector plug body and an extended position where the one or more projections extends from the rear end of the connector plug body and into engagement with the rear undercut in the connector socket .
A system for the circulation of a mixture of gas and liquid in annular spaces of rotating machines, comprising a pump , coupled to a rotor of a motor through its shaft, said rotor surrounded by a stator forming an annular space between said rotor and said stator , said system further comprising an ejector , wherein the pump is provided with a gas-extraction unit , the ejector comprises a converging nozzle , which is provided with a motive fluid inlet and a narrowing at its outlet, said motive fluid inlet of said converging nozzle being connected to a discharge line of said pump through a first pipe , said ejector being further provided with a perpendicular suction inlet , said suction inlet being connected to said gas-extraction unit through a second pipe , said converging nozzle and said suction inlet both being interconnected to a throat where the mixture of motive fluid and gas coming from said gas-extraction unit occurs, said throat being continued by a diffuser where the mixture of motive fluid and gas is pressurized; and said system further comprising the fact that: - said gas-extraction unit of said pump is configured to extract the gas from a process fluid of a process line connected to an inlet of said pump to pump the process fluid towards said discharge line , said process fluid circulating in the process line being a mixture of gas and liquid; - said annular space is connected to a discharge of said ejector through a third pipe , the fluid discharged by said ejector and circulating in the annular space being a mixture of gas and liquid; and - said annular space is connected to said process line upstream of said pump through a fourth pipe . - said gas-extraction unit of said pump is configured to extract the gas from a process fluid of a process line connected to an inlet of said pump to pump the process fluid towards said discharge line , said process fluid circulating in the process line being a mixture of gas and liquid; - said annular space is connected to a discharge of said ejector through a third pipe , the fluid discharged by said ejector and circulating in the annular space being a mixture of gas and liquid; and - said annular space is connected to said process line upstream of said pump through a fourth pipe .
A vapor compression system , comprising: - a first conduit fluidly coupling a liquid collection portion of a condenser and an evaporator , wherein the first conduit is configured to direct a first flow of refrigerant from the condenser to a first inlet of the evaporator ; and - a second conduit fluidly coupling the liquid collection portion of the condenser and the evaporator , wherein the second conduit is configured to direct a second flow of refrigerant from the condenser to a second inlet of the evaporator via gravitational force, and wherein the first inlet is disposed above the second inlet relative to a vertical dimension of the evaporator . - a first conduit fluidly coupling a liquid collection portion of a condenser and an evaporator , wherein the first conduit is configured to direct a first flow of refrigerant from the condenser to a first inlet of the evaporator ; and - a second conduit fluidly coupling the liquid collection portion of the condenser and the evaporator ,
An input and output device for industrial use with a frame which is sealed around the circumference with a continuous central recess in which an input/output unit is set in, wherein the frame is assembled from a plurality of individual frame sections which are connected to one another at the corners in order to form the frame , characterized in that the frame sections are firmly bonded at the adjoining connecting surfaces using a glued joint in that an adhesive gap in the range of 0.05 mm to 0.2 mm formed between two adjoining frame sections is filled with adhesive and the adhesive, as a joining agent , forms a bonding layer which is fully sealed in the area of an external front face and an external circumferential surface of the frame in order to form a fully sealed external front face of the frame and a fully sealed external circumferential surface of the frame .