mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication comprising: identifying a first transmission time interval, TTI, with a first duration that includes two or more symbol periods and a second TTI with a second duration that is less than the first duration; identifying a first search space for monitoring for first control information associated with the first TTI; determining, based at least in part on the first search space, a second search space for monitoring for second control information associated with the second TTI; and monitoring at least the second search space for the second control information; wherein the first control information comprises first downlink control information, DCI, having a first DCI size and a first DCI format, and the second control information comprises second DCI having a second DCI size and a second DCI format, and wherein one or more of the first DCI size and the second DCI size or the first DCI format and the second DCI format is different; wherein the first DCI size is larger than the second DCI size. identifying a first transmission time interval, TTI, with a first duration that includes two or more symbol periods and a second TTI with a second duration that is less than the first duration; identifying a first search space for monitoring for first control information associated with the first TTI; determining, based at least in part on the first search space, a second search space for monitoring for second control information associated with the second TTI; and monitoring at least the second search space for the second control information; wherein the first control information comprises first downlink control information, DCI, having a first DCI size and a first DCI format, and the second control information comprises second DCI having a second DCI size and a second DCI format, and wherein one or more of the first DCI size and the second DCI size or the first DCI format and the second DCI format is different; wherein the first DCI size is larger than the second DCI size.
A system for delivering fluid to a wound therapy dressing, the system comprising: a pump comprising a vacuum port, the vacuum port adapted to be in fluid communication with the wound therapy dressing characterised in that the pump comprises a positive pressure port and in that the system comprises; an expandable member in fluid communication with the positive pressure port, wherein the expandable member is configured to exert a force on fluid within a fluid reservoir to expel fluid from the fluid reservoir, the fluid reservoir adapted to be in fluid communication with the wound therapy dressing; and a valve in fluid communication with the positive pressure port and the expandable member, wherein positive pressure from the positive pressure port is provided to the expandable member through the valve, and wherein the valve is configured to vent pressure to atmosphere. a pump comprising a vacuum port, the vacuum port adapted to be in fluid communication with the wound therapy dressing characterised in that the pump comprises a positive pressure port and in that the system comprises; an expandable member in fluid communication with the positive pressure port, wherein the expandable member is configured to exert a force on fluid within a fluid reservoir to expel fluid from the fluid reservoir, the fluid reservoir adapted to be in fluid communication with the wound therapy dressing; and a valve in fluid communication with the positive pressure port and the expandable member, wherein positive pressure from the positive pressure port is provided to the expandable member through the valve, and wherein the valve is configured to vent pressure to atmosphere.
A method comprising: receiving a binaural speech signal recorded by earpods worn by a user; dividing the binaural speech signal into frames; applying a time-frequency transform to each frame; computing features of the frames based on a time-frequency representation; classifying, by a classifier, each frame as self speech or external speech, based at least in part on a first subset of the features, wherein self speech is speech of the user, and external speech is speech from other people than the user; computing a dissimilarity function based on a second subset of the features; segmenting the signal at peaks of the dissimilarity function; for each segment, determining a respective overall class among self speech or external speech by aggregating classifier data of the frames belonging to the segment; and processing each segment with a speech enhancement chain whose settings are based on determined overall class for such segment. receiving a binaural speech signal recorded by earpods worn by a user; dividing the binaural speech signal into frames; applying a time-frequency transform to each frame; computing features of the frames based on a time-frequency representation; classifying, by a classifier, each frame as self speech or external speech, based at least in part on a first subset of the features, wherein self speech is speech of the user, and external speech is speech from other people than the user; computing a dissimilarity function based on a second subset of the features; segmenting the signal at peaks of the dissimilarity function; for each segment, determining a respective overall class among self speech or external speech by aggregating classifier data of the frames belonging to the segment; and processing each segment with a speech enhancement chain whose settings are based on determined overall class for such segment.
A continuous flow production method for the preparation of organic peroxides direct from alcohols or alkanes, comprising: feeding reaction substrate, oxidant and an condensation agent into inlets of an integrated continuous flow reactor; and obtaining an organic peroxide by oxidative condensation and workup; wherein the organic peroxides are selected from the group consisting of carboxylate peroxide, carbonate peroxide, and ketal peroxide; the reaction substrate is alcohol or alkane; in the production of carboxylate peroxide and carbonate peroxide, the condensation agent is an alkaline solution and acyl compound; in the production of ketal peroxide, the condensation agent is an acidic solution and a condensation raw material, and the condensation raw material is alcohol or ketone; the general formula of a production process in the integrated continuous flow reactor is as follows: wherein, A 1 is alcohol or alkane; A 2 is selected from the group consisting of acyl chloride, chloroformate, alcohol and ketone, oxidant is selected from the group consisting of hydrogen peroxide and oxygen; C is selected from the group consisting of carboxylate peroxide, carbonate peroxide and ketal peroxide. feeding reaction substrate, oxidant and an condensation agent into inlets of an integrated continuous flow reactor; and obtaining an organic peroxide by oxidative condensation and workup; wherein the organic peroxides are selected from the group consisting of carboxylate peroxide, carbonate peroxide, and ketal peroxide; the reaction substrate is alcohol or alkane; in the production of carboxylate peroxide and carbonate peroxide, the condensation agent is an alkaline solution and acyl compound; in the production of ketal peroxide, the condensation agent is an acidic solution and a condensation raw material, and the condensation raw material is alcohol or ketone; the general formula of a production process in the integrated continuous flow reactor is as follows: wherein, A 1 is alcohol or alkane; A 2 is selected from the group consisting of acyl chloride, chloroformate, alcohol and ketone, oxidant is selected from the group consisting of hydrogen peroxide and oxygen; C is selected from the group consisting of carboxylate peroxide, carbonate peroxide and ketal peroxide.
A liquid composition comprising an organic liquid diluent, one or more active ingredients, and at least one hydroxyalkyl methylcellulose wherein hydroxyalkoxyl groups are classified into a fraction and a fraction, wherein fraction represents the sum of all molar fractions of substituted hydroxyalkoxyl groups having hydroxyl groups substituted further with methoxyl groups and fraction represents the sum of all molar fractions of unsubstituted hydroxyalkoxyl groups having hydroxyl groups not substituted further with methoxyl groups and wherein the ratio fraction /fraction is at least 0.30.
A method of encrypting an executable image, comprising the steps of: flagging sections of the executable image to be encrypted using commands in source files and compiling said executable image so as to generate object files, linking one or more of said executable images using a linker to produce a final executable image, fix-up processing further comprising the steps of passing said linked executable image to a post-linker encryption engine to encrypt a relocation fix-up table and sections of executable image flagged for encryption, such that at load time the executable image can be decrypted, relocated and executed, whereby the step of decrypting the fix-up table is combined with the step of fix up processing. flagging sections of the executable image to be encrypted using commands in source files and compiling said executable image so as to generate object files, linking one or more of said executable images using a linker to produce a final executable image, fix-up processing further comprising the steps of passing said linked executable image to a post-linker encryption engine to encrypt a relocation fix-up table and sections of executable image flagged for encryption, such that at load time the executable image can be decrypted, relocated and executed, whereby the step of decrypting the fix-up table is combined with the step of fix up processing.
A solar spectrum-like LED structure, comprising: a negative electrode (1, 21, 31) for a three-dimensional integrated package, the negative electrode for a three-dimensional integrated package is a three-dimensional structure comprising a plurality of planes; a plurality of LED chips (2, 22, 32), the plurality of LED chips are installed on the plurality of planes of the negative electrode for the three-dimensional integrated package, each plane is correspondingly installed with one LED chip; a plurality of resistors, one end of each of the plurality of resistors is separately connected to the light emitting surface of the LED chips, and the other end of each of the plurality of resistors is connected to the positive electrode, wherein the negative electrode (1, 21, 31) for a three-dimensional integrated package is a structure designed based on semi-cylindrical surface having a plurality of planes thereon, the lines from the center point of each plane to the center of the designed semi-cylindrical surface are separately perpendicular to each of the corresponding planes, the plurality of LED chips (2, 22, 32) are separately installed on the each plane, and each plane is correspondingly installed with one LED chip, characterized in that, the computational formula of the design radius of the structure designed based on semi-cylindrical surface is as follows: Ra = 1 2 L + M / sin 90 ° n wherein, L is the size of the edge of LED chip, M is the spacing between the LED chips, n is the number of the LED chips, and Ra is the design radius of the electrode designed based on semi-cylindrical surface. a negative electrode (1, 21, 31) for a three-dimensional integrated package, the negative electrode for a three-dimensional integrated package is a three-dimensional structure comprising a plurality of planes; a plurality of LED chips (2, 22, 32), the plurality of LED chips are installed on the plurality of planes of the negative electrode for the three-dimensional integrated package, each plane is correspondingly installed with one LED chip; a plurality of resistors, one end of each of the plurality of resistors is separately connected to the light emitting surface of the LED chips, and the other end of each of the plurality of resistors is connected to the positive electrode, wherein the negative electrode (1, 21, 31) for a three-dimensional integrated package is a structure designed based on semi-cylindrical surface having a plurality of planes thereon, the lines from the center point of each plane to the center of the designed semi-cylindrical surface are separately perpendicular to each of the corresponding planes, the plurality of LED chips (2, 22, 32) are separately installed on the each plane, and each plane is correspondingly installed with one LED chip, characterized in that, the computational formula of the design radius of the structure designed based on semi-cylindrical surface is as follows: Ra = 1 2 L + M / sin 90 ° n wherein, L is the size of the edge of LED chip, M is the spacing between the LED chips, n is the number of the LED chips, and Ra is the design radius of the electrode designed based on semi-cylindrical surface.
A support and guide structure for an articulated link conveyor, the support and guide structure comprising: - at least two guides (14A, 14B, 14C, 14D, 14E, 14F, 14G) distinct and arranged at a predefined distance from each other, said guides (14A, 14B, 14C, 14D, 14E, 14F, 14G) being oriented according to respective development axis (X1, X2, X3, X4, X5, X6, X7) and defining respective sliding surfaces for a sliding path of the articulated link conveyor; - at least one support component developing on a respective plane, said support component comprising at least one first surface and at least one second surface opposite to each other, wherein said guides (14A, 14B, 14C, 14D, 14E, 14F, 14G) protrude from said first surface to define at least one sliding channel delimited by side walls of contiguous pairs of said guides (14A, 14B, 14C, 14D, 14E, 14F, 14G) and by at least one portion of said first surface, said at least one sliding channel allowing to house at least one portion of the articulated links of the conveyor, the support and guide structure being characterized in that it comprises at least one housing (24; 24A, 24B; 24C, 24D) extending for at least half the length of said support component along a direction parallel to said development axis (X1, X2, X3, X4, X5, X6, X7), said housing (24; 24A, 24B; 24C, 24D) containing at least one respective reinforcing element (26A, 26B, 26C, 26D, 26E, 26F, 26G) to limit the deformation of at least said support component along a direction perpendicular to said plane, wherein each reinforcing element (26A, 26B, 26C, 26D, 26E, 26F, 26G) has a cross-sectional shape which is compatible with the cross-sectional shape of the respective housing (24; 24A, 24B; 24C, 24D) and wherein each reinforcing element (26A, 26B, 26C, 26D, 26E, 26F, 26G) is manufactured with a material having a hardness, defined as resistance to permanent deformation, which is greater than the hardness of the materials said guides (14A, 14B, 14C, 14D, 14E, 14F, 14G) and said support component are manufactured with. - at least two guides (14A, 14B, 14C, 14D, 14E, 14F, 14G) distinct and arranged at a predefined distance from each other, said guides (14A, 14B, 14C, 14D, 14E, 14F, 14G) being oriented according to respective development axis (X1, X2, X3, X4, X5, X6, X7) and defining respective sliding surfaces for a sliding path of the articulated link conveyor; - at least one support component developing on a respective plane, said support component comprising at least one first surface and at least one second surface opposite to each other, wherein said guides (14A, 14B, 14C, 14D, 14E, 14F, 14G) protrude from said first surface to define at least one sliding channel delimited by side walls of contiguous pairs of said guides (14A, 14B, 14C, 14D, 14E, 14F, 14G) and by at least one portion of said first surface, said at least one sliding channel allowing to house at least one portion of the articulated links of the conveyor,
Method for providing a user interface, in particular in a vehicle, wherein: - graphic data of a user interface are generated and output; wherein a standard mode or a configuration mode may be activated for the user interface; wherein, - when the standard mode is activated, the user interface comprises a direct access area; and, - when the configuration mode is activated, the user interface comprises a configuration area, wherein - the configuration area comprises a plurality of program icons (21.1 to 21.14), each of which is associated with an application program; - - wherein an additional gesture is detected for a program icon (21.1 to 21.14), the additional gesture comprising an association of the program icon (21.1 to 21.14) with a position of the direct access area; and - based on the additional gesture, a direct access object that is associated with the application program of the program icon (21.1 to 21.14) is generated for the direct access area and is arranged in the direct access area based on the additional gesture, wherein - a displacement animation for the associated program icon (21.1 to 21.14) is generated when the additional gesture is detected, wherein - the displacement animation comprises a movement of the program icon (21.1 to 21.14) along a displacement trajectory, characterized in that - a continuous reduction of the program icon (21.1 to 21.14) is effected during the movement along at least a portion of the displacement trajectory, and - an operating intention is detected when the standard mode is activated, wherein the direct access area is displayed or hidden depending on the operating intention. - graphic data of a user interface are generated and output; wherein a standard mode or a configuration mode may be activated for the user interface; wherein, - when the standard mode is activated, the user interface comprises a direct access area; and, - when the configuration mode is activated, the user interface comprises a configuration area, wherein - the configuration area comprises a plurality of program icons (21.1 to 21.14), each of which is associated with an application program; - - wherein an additional gesture is detected for a program icon (21.1 to 21.14), the additional gesture comprising an association of the program icon (21.1 to 21.14) with a position of the direct access area; and - based on the additional gesture, a direct access object that is associated with the application program of the program icon (21.1 to 21.14) is generated for the direct access area and is arranged in the direct access area based on the additional gesture, wherein - a displacement animation for the associated program icon (21.1 to 21.14) is generated when the additional gesture is detected, wherein - the displacement animation comprises a movement of the program icon (21.1 to 21.14) along a displacement trajectory, - a continuous reduction of the program icon (21.1 to 21.14) is effected during the movement along at least a portion of the displacement trajectory, and - an operating intention is detected when the standard mode is activated, wherein the direct access area is displayed or hidden depending on the operating intention.
A method (800, 1000) at a relay station configured for wireless communication between a first station and the relay station and a second station and the relay station, comprising: estimating link quality based on a transmission received from the first station; generating first channel quality information, CQI, based on the estimating link quality; sending the first CQI for the first station, to the first station; receiving second CQI, for a relay station, from the second station, the second CQI being different from the first CQI; receiving data sent by the first station according to a first transmission schedule determined by the first station, the first transmission schedule comprising an allocation of radio resources based on the first CQI; identifying a second transmission schedule for transmissions to the second station based on the second CQI, the second transmission schedule comprising an allocation of radio resources to the second station based on the second CQI; and sending the data to the second station using the allocated radio resources based on the second transmission schedule based on the second CQI. estimating link quality based on a transmission received from the first station; generating first channel quality information, CQI, based on the estimating link quality; sending the first CQI for the first station, to the first station; receiving second CQI, for a relay station, from the second station, the second CQI being different from the first CQI; receiving data sent by the first station according to a first transmission schedule determined by the first station, the first transmission schedule comprising an allocation of radio resources based on the first CQI; identifying a second transmission schedule for transmissions to the second station based on the second CQI, the second transmission schedule comprising an allocation of radio resources to the second station based on the second CQI; and sending the data to the second station using the allocated radio resources based on the second transmission schedule based on the second CQI.
A ventilator-implemented method for detecting Auto-PEEP during pressure ventilation, the method comprising: collecting data associated with ventilatory parameters; processing the collected ventilatory parameter data, wherein processing the collected ventilatory parameter data includes deriving ventilatory parameter data from the collected ventilatory parameter data; analyzing the processed ventilatory parameter data, characterized in that analyzing the processed ventilatory parameter data comprises: receiving one or more predetermined thresholds associated with the processed ventilatory parameter data; and detecting whether the processed ventilatory parameter data breaches the one or more predetermined thresholds; and further characterized in that the method further comprises the steps of: determining that Auto-PEEP is implicated upon detecting that the processed ventilatory data breaches the one or more predetermined thresholds; and issuing a smart prompt (510, 610, 702, 706, 802, 806) when Auto-PEEP is implicated. collecting data associated with ventilatory parameters; processing the collected ventilatory parameter data, wherein processing the collected ventilatory parameter data includes deriving ventilatory parameter data from the collected ventilatory parameter data; analyzing the processed ventilatory parameter data, characterized in that analyzing the processed ventilatory parameter data comprises: receiving one or more predetermined thresholds associated with the processed ventilatory parameter data; and detecting whether the processed ventilatory parameter data breaches receiving one or more predetermined thresholds associated with the processed ventilatory parameter data; and detecting whether the processed ventilatory parameter data breaches the one or more predetermined thresholds; and determining that Auto-PEEP is implicated upon detecting that the processed ventilatory data breaches the one or more predetermined thresholds; and issuing a smart prompt (510, 610, 702, 706, 802, 806) when Auto-PEEP is implicated.