mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for scalable network buffer management, at least a portion of the method being performed by a computing device comprising at least one processor, the method comprising: receiving, via a client connection to a client, data to be transmitted to a cloud storage service; buffering the data in at least one data buffer; determining that the data will not be transmitted to the cloud storage service within a timeout period for the client connection; delaying reception of additional data from the client connection for a portion of the timeout period; before the timeout period has elapsed, buffering data from the client connection in at least one secondary data buffer; maintaining an additional cloud service connection to the cloud storage service; determining that the additional data will not be received via the client connection within a cloud service connection timeout period for the cloud service connection; transmitting at least a portion of the data to the cloud storage service using the cloud service connection to the cloud storage service before the cloud service connection timeout period for the cloud service connection has elapsed, wherein: the at least one secondary data buffer is smaller in allocated memory size than the allocated memory size of the at least one data buffer, and the at least one secondary data buffer amounts to 5-10 percent of total buffer memory. receiving, via a client connection to a client, data to be transmitted to a cloud storage service; buffering the data in at least one data buffer; determining that the data will not be transmitted to the cloud storage service within a timeout period for the client connection; delaying reception of additional data from the client connection for a portion of the timeout period; before the timeout period has elapsed, buffering data from the client connection in at least one secondary data buffer; maintaining an additional cloud service connection to the cloud storage service; determining that the additional data will not be received via the client connection within a cloud service connection timeout period for the cloud service connection; transmitting at least a portion of the data to the cloud storage service using the cloud service connection to the cloud storage service before the cloud service connection timeout period for the cloud service connection has elapsed, wherein: the at least one secondary data buffer is smaller in allocated memory size than the allocated memory size of the at least one data buffer, and the at least one secondary data buffer amounts to 5-10 percent of total buffer memory. the at least one secondary data buffer is smaller in allocated memory size than the allocated memory size of the at least one data buffer, and the at least one secondary data buffer amounts to 5-10 percent of total buffer memory.
A playback device comprising: a line-in connector for receiving a first audio signal; a processor for determining whether the first audio signal is present at the line-in connector, the processor being configured such that: responsive to determining that the first audio signal is present at the line-in connector, the processor (i) causes playback of a second audio signal being played by the playback device to cease, and (ii) causes the playback device to play the first audio signal; responsive to receiving an instruction to stop the playback device from playing the first audio signal while the audio signal is still present in the line-in connector, the processor causes the playback device to stop playing the first audio signal, and responsive to determining that the first audio signal is no longer present at the line-in connector, the processor is configured to arm the playback device such that a subsequent presence of the first audio signal at the line-in connector causes the playback device to play the first audio signal. a line-in connector for receiving a first audio signal; a processor for determining whether the first audio signal is present at the line-in connector, the processor being configured such that: responsive to determining that the first audio signal is present at the line-in connector, the processor (i) causes playback of a second audio signal being played by the playback device to cease, and (ii) causes the playback device to play the first audio signal; responsive to receiving an instruction to stop the playback device from playing the first audio signal while the audio signal is still present in the line-in connector, the processor causes the playback device to stop playing the first audio signal, and responsive to determining that the first audio signal is no longer present at the line-in connector, the processor is configured to arm the playback device such that a subsequent presence of the first audio signal at the line-in connector causes the playback device to play the first audio signal. responsive to determining that the first audio signal is present at the line-in connector, the processor (i) causes playback of a second audio signal being played by the playback device to cease, and (ii) causes the playback device to play the first audio signal; responsive to receiving an instruction to stop the playback device from playing the first audio signal while the audio signal is still present in the line-in connector, the processor causes the playback device to stop playing the first audio signal, and responsive to determining that the first audio signal is no longer present at the line-in connector, the processor is configured to arm the playback device such that a subsequent presence of the first audio signal at the line-in connector causes the playback device to play the first audio signal.
A method of making a composition, wherein said method comprises: providing a shaped support; incorporating a metal-containing solution into said shaped support to provide a metal-incorporated support; drying said metal-incorporated support so as to provide a dried metal-incorporated support having a volatiles content in the range of from 1 to 20 wt % LOI, as measured after exposure to air at 482°C for a period of two hours; incorporating a chelating agent into said dried metal-incorporated support to thereby provide a chelant treated metal-incorporated support, wherein said chelating agent is selected from the group of compounds consisting of: aminocarboxylic acids; polyamines; aminoalcohols; oximes, and polyethyleneimines; drying said chelant treated metal-incorporated support to provide a dried chelant treated metal-incorporated support having a volatiles content in the range of from 1-20 wt% LOI, as measured after exposure to air at 482°C for a period of two hours; and incorporating a polar additive into said dried chelant treated metal-incorporated support to thereby provide an additive impregnated composition, wherein the polar additive is selected from the group of amide compounds, tetramethylurea, octylamine or diethyleneglycol. providing a shaped support; incorporating a metal-containing solution into said shaped support to provide a metal-incorporated support; drying said metal-incorporated support so as to provide a dried metal-incorporated support having a volatiles content in the range of from 1 to 20 wt % LOI, as measured after exposure to air at 482°C for a period of two hours; incorporating a chelating agent into said dried metal-incorporated support to thereby provide a chelant treated metal-incorporated support, wherein said chelating agent is selected from the group of compounds consisting of: aminocarboxylic acids; polyamines; aminoalcohols; oximes, and polyethyleneimines; drying said chelant treated metal-incorporated support to provide a dried chelant treated metal-incorporated support having a volatiles content in the range of from 1-20 wt% LOI, as measured after exposure to air at 482°C for a period of two hours; and incorporating a polar additive into said dried chelant treated metal-incorporated support to thereby provide an additive impregnated composition, wherein the polar additive is selected from the group of amide compounds, tetramethylurea, octylamine or diethyleneglycol.
A compound represented by the following structural formula: or a pharmaceutically acceptable salt thereof, wherein: R a is -F, methoxy, methyl or ethyl; R 4 is -H or methyl; and R 6 is -CH=CH-(optionally substituted phenyl), wherein the phenyl in -CH=CH-(phenyl) is optionally substituted with one or more substituents independently selected from the group consisting of halogen, C 1-6 alkyl, C 1-6 haloalkyl, (C 1-6 aminoalkyl), (C 1-6 alkylamino)C 1-6 alkyl, (phenyl)C 1-6 alkyl, amino, C 1-6 alkylamino, C 1-6 dialkylamino, -(CH 2) 0-3 - N -piperidinyl, -(CH 2) 0-3 - N -morpholinyl, -(CH 2) 0-3 - N -pyrrolidinyl, -(CH 2) 0-3 - N -piperazinyl and -(CH 2) 0-3 - N -oxazepanyl, wherein the N -piperazinyl is optionally N'-substituted with C 1-6 alkyl or C 1-6 acyl. R a is -F, methoxy, methyl or ethyl; R 4 is -H or methyl; and R 6 is -CH=CH-(optionally substituted phenyl), wherein the phenyl in -CH=CH-(phenyl) is optionally substituted with one or more substituents independently selected from the group consisting of halogen, C 1-6 alkyl, C 1-6 haloalkyl, (C 1-6 aminoalkyl), (C 1-6 alkylamino)C 1-6 alkyl, (phenyl)C 1-6 alkyl, amino, C 1-6 alkylamino, C 1-6 dialkylamino, -(CH 2) 0-3 - N -piperidinyl, -(CH 2) 0-3 - N -morpholinyl, -(CH 2) 0-3 - N -pyrrolidinyl, -(CH 2) 0-3 - N -piperazinyl and -(CH 2) 0-3 - N -oxazepanyl, wherein the N -piperazinyl is optionally N'-substituted with C 1-6 alkyl or C 1-6 acyl.
A method for preparing a compound of Formula 1 wherein R 1 is NHR 3 or OR 4; R 2 is CH 3 or Cl; R 3 is H, C 1 -C 4 alkyl, cyclopropyl, cyclopropylcyclopropyl, cyclopropylmethyl or methylcyclopropyl; and R 4 is H or C 1 -C 4 alkyl; comprising contacting a compound of Formula 2 wherein X is Br or Cl; with a metal cyanide reagent, a copper salt reagent, an iodide salt reagent and at least one compound of Formula 3 wherein each R 5, R 6, R 7, R 8 and R 9 is independently H, C 1 -C 12 alkyl or NR 10 R 11; and each R 10 and R 11 is independently H or C 1 -C 6 alkyl; or a pair of R 10 and R 11 attached to the same nitrogen are taken together as -CH 2 CH 2 CH 2 -, -CH 2 CH 2 CH 2 CH 2 -, -CH 2 (CH 2) 3 CH 2 - or -CH 2 CH 2 OCH 2 CH 2 -, each optionally substituted with up to 4 substituents independently selected from C 1 -C 4 alkyl; provided that when X is Cl, then R 2 is methyl. R 1 is NHR 3 or OR 4; R 2 is CH 3 or Cl; R 3 is H, C 1 -C 4 alkyl, cyclopropyl, cyclopropylcyclopropyl, cyclopropylmethyl or methylcyclopropyl; and R 4 is H or C 1 -C 4 alkyl; each R 5, R 6, R 7, R 8 and R 9 is independently H, C 1 -C 12 alkyl or NR 10 R 11; and each R 10 and R 11 is independently H or C 1 -C 6 alkyl; or a pair of R 10 and R 11 attached to the same nitrogen are taken together as -CH 2 CH 2 CH 2 -, -CH 2 CH 2 CH 2 CH 2 -, -CH 2 (CH 2) 3 CH 2 - or -CH 2 CH 2 OCH 2 CH 2 -, each optionally substituted with up to 4 substituents independently selected from C 1 -C 4 alkyl;
A channel contention method for a non-simultaneous transmit and receive, STR, non-access point, AP, multi-link device, MLD, wherein the method comprises: after data transmission on a first link is completed or after a block acknowledgment corresponding to data is received on the first link, performing, by a first non-AP station, STA, of a first MLD, clear channel assessment CCA detection on a second link in a first time period, wherein a start moment corresponding to the first time period is the same as a moment at which the data transmission on the first link is completed; and when the CCA detection on the second link fails, performing, by the first non-AP STA, channel contention on the second link based on a second time period; characterized in that the performing channel contention on the second link based on a second time period comprises: if the CCA detection on the second link fails and no start of a physical layer protocol data unit PPDU is detected, starting to perform channel contention on the second link after the second time period from the moment at which failure of CCA detection changes to success. after data transmission on a first link is completed or after a block acknowledgment corresponding to data is received on the first link, performing, by a first non-AP station, STA, of a first MLD, clear channel assessment CCA detection on a second link in a first time period, wherein a start moment corresponding to the first time period is the same as a moment at which the data transmission on the first link is completed; and when the CCA detection on the second link fails, performing, by the first non-AP STA, channel contention on the second link based on a second time period; characterized in that the performing channel contention on the second link based on a second time period comprises: if the CCA detection on the second link fails and no start of a physical layer protocol data unit PPDU is detected, starting to perform channel contention on the second link after the second time period from the moment at which failure of CCA detection changes to success.
Method of manufacturing a test probe for the non-destructive testing of a given workpiece by means of ultrasonic sound, wherein the test probe comprises a single element ultrasonic transducer and a delay line body, and wherein the test probe is provided for angularly intromitting ultrasonic sound into the workpiece, with the following steps: a. Calculating a geometry of both the single element ultrasonic transducer and the delay line body under the constraint of providing a test probe configured to provide an ultrasonic field, which is rotationally symmetric to its central beam after coupling into the workpiece; b. Providing a single element ultrasonic transducer with said geometry; c. Providing a delay line body with said geometry, comprising a first surface area for attaching the ultrasonic transducer and a second surface area for attaching the delay line body to the workpiece, wherein the first surface area is non-planar; d. Attaching the ultrasonic transducer to the first surface area of the delay line body to provide an acoustic coupling between the ultrasonic transducer and the delay line body. a. Calculating a geometry of both the single element ultrasonic transducer and the delay line body under the constraint of providing a test probe configured to provide an ultrasonic field, which is rotationally symmetric to its central beam after coupling into the workpiece; b. Providing a single element ultrasonic transducer with said geometry; c. Providing a delay line body with said geometry, comprising a first surface area for attaching the ultrasonic transducer and a second surface area for attaching the delay line body to the workpiece, wherein the first surface area is non-planar; d. Attaching the ultrasonic transducer to the first surface area of the delay line body to provide an acoustic coupling between the ultrasonic transducer and the delay line body.
A device for handling selectively a first capsule having a first flange and a second capsule having a second flange having a dimension that is greater than a dimension of said first flange, such device comprising: - a first part and a second part that are relatively movable from a transfer position for inserting and/or removing such capsule (2a,2b) to an extraction position for extracting such capsule (2a,2b); and - a third part for guiding such capsule (2a,2b) to inbetween the first and second parts (10,20) when in the transfer position, characterised in that, for guiding such capsule (2a,2b) to inbetween the first and second parts (10,20) in the transfer position, the third part has: - a first portion for engaging with and guiding the first flange of said first capsule; and - a second portion for engaging with and guiding the second flange of said second capsule, the third part being so configured that: - the first portion is bypassed by said second flange when said second capsule is guided to inbetween the first and second parts (10,20) in the transfer position; and - the second portion is bypassed by said first flange when said first capsule is guided to inbetween the first and second parts (10,20) in the transfer position, optionally the first portion having a first flange engagement and guiding arrangement dimensioned for said first flange and the second portion having a second flange engagement and guiding arrangement dimensioned for said second flange, the second arrangement being for instance of larger dimension than the first arrangement. - a first part and a second part that are relatively movable from a transfer position for inserting and/or removing such capsule (2a,2b) to an extraction position for extracting such capsule (2a,2b); and - a third part for guiding such capsule (2a,2b) to inbetween the first and second parts (10,20) when in the transfer position, - a first portion for engaging with and guiding the first flange of said first capsule; and - a second portion for engaging with and guiding the second flange of said second capsule, the third part being so configured that: - the first portion is bypassed by said second flange when said second capsule is guided to inbetween the first and second parts (10,20) in the transfer position; and - the second portion is bypassed by said first flange when said first capsule is guided to inbetween the first and second parts (10,20) in the transfer position,
A method for improving a winding process of a textile machine, comprising - a machine controller, - a capacitive yarn sensor, - an optical yarn quality monitor, in particular an optical yarn clearer, and - a yarn connecting device, in particular a splicing device, - wherein a yarn is wound onto a bobbin and - the yarn is analyzed with regard to its length, quality, and/or speed and - the yarn is cut if necessary in order to clear a quality defect, in particular by means of a yarn clearer, and - two yarn ends are connected to one another by means of the yarn connecting device after the quality defect has been removed, characterized in that the yarn - is analyzed with regard to foreign material, yarn speed, and yarn length by means of the capacitive yarn sensor, - is analyzed with regard to the yarn body and the yarn characteristic by means of the optical yarn quality monitor, in particular the optical yarn clearer, - the yarn is subsequently optionally cleared and - data of the capacitive yarn sensor • with regard to the foreign material and the yarn speed are provided to the yarn quality monitor, in particular the yarn clearer, and • with regard to the yarn length and the yarn speed are provided to the machine controller, in particular a central controller, section controller, and/or work station controller. - a machine controller, - a capacitive yarn sensor, - an optical yarn quality monitor, in particular an optical yarn clearer, and - a yarn connecting device, in particular a splicing device, - wherein a yarn is wound onto a bobbin and - the yarn is analyzed with regard to its length, quality, and/or speed and - the yarn is cut if necessary in order to clear a quality defect, in particular by means of a yarn clearer, and - two yarn ends are connected to one another by means of the yarn connecting device after the quality defect has been removed, - is analyzed with regard to foreign material, yarn speed, and yarn length by means of the capacitive yarn sensor, - is analyzed with regard to the yarn body and the yarn characteristic by means of the optical yarn quality monitor, in particular the optical yarn clearer, - the yarn is subsequently optionally cleared and - data of the capacitive yarn sensor • with regard to the foreign material and the yarn speed are provided to the yarn quality monitor, in particular the yarn clearer, and • with regard to the yarn length and the yarn speed are provided to the machine controller, in particular a central controller, section controller, and/or work station controller. • with regard to the foreign material and the yarn speed are provided to the yarn quality monitor, in particular the yarn clearer, and • with regard to the yarn length and the yarn speed are provided to the machine controller, in particular a central controller, section controller, and/or work station controller.
A method for controlling translocation of a target polymer molecule through a nanopore, the target polymer molecule including a sequential plurality of polymer subunits along a target polymer molecule length, comprising: reversibly binding a clamp to a plurality of sequential polymer subunits along the target polymer molecule length; disposing the target polymer molecule and reversibly bound clamp in an ionic solution that is in fluidic communication with the nanopore, the nanopore having an aperture diameter less than an outer diameter of the clamp; applying a constant translocation force across the nanopore to induce travel of the target polymer molecule in the ionic solution into the nanopore until the clamp on the target polymer molecule abuts the nanopore aperture and stops further travel of the target polymer molecule into the nanopore; characterized by applying a control pulse comprising at least one of a voltage control pulse across the nanopore and a thermal control pulse at the nanopore, the control pulse having a control pulse duration that steps the clamp along the target polymer molecule by one polymer subunit in a direction opposite that of travel into the nanopore, with no fuel provided to the clamp, to step the target polymer molecule further into the nanopore by one polymer subunit; and repeatedly applying the control pulse to cause a sequential plurality of polymer subunits of the target polymer molecule to translocate through the nanopore. reversibly binding a clamp to a plurality of sequential polymer subunits along the target polymer molecule length; disposing the target polymer molecule and reversibly bound clamp in an ionic solution that is in fluidic communication with the nanopore, the nanopore having an aperture diameter less than an outer diameter of the clamp; applying a constant translocation force across the nanopore to induce travel of the target polymer molecule in the ionic solution into the nanopore until the clamp on the target polymer molecule abuts the nanopore aperture and stops further travel of the target polymer molecule into the nanopore; characterized by applying a control pulse comprising at least one of a voltage control pulse across the nanopore and a thermal control pulse at the nanopore, the control pulse having a control pulse duration that steps the clamp along the target polymer molecule by one polymer subunit in a direction opposite that of travel into the nanopore, with no fuel provided to the clamp, to step the target polymer molecule further into the nanopore by one polymer subunit; and repeatedly applying the control pulse to cause a sequential plurality of polymer subunits of the target polymer molecule to translocate through the nanopore.
A composition comprising amorphous -N-(3-(6-isopropoxypyridin-3-yl)-1H-indazol-5-yl)-1-(2-(4-(4-(1-methyl-1H-1,2,4-triazol-3-yl)phenyl)-3,6-dihydropyridin-1 -yl)-2-oxoethyl)-3-(methylthio)pyrrolidine-3-carboxamide and hypromellose acetate succinate grade M.
Polypropylene having (a) a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 of at least 20 g/10min; and (b) a complex viscosity ratio eta*(0.05rad/sec)/eta*(300rad/sec) of at least 20.0 measured by dynamic rheology according to ISO 6271-10 at 200°C. (a) a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 of at least 20 g/10min; and (b) a complex viscosity ratio eta*(0.05rad/sec)/eta*(300rad/sec) of at least 20.0 measured by dynamic rheology according to ISO 6271-10 at 200°C.