mhurhangee/ep-ind-claims huggingface dataset:
A method of detecting a burst error condition on an associated network, said method comprising: measuring an interval value between each pair of continuous received packets; recording said measured interval values in a series of memory elements (308, 310, 312, 314, 316) wherein each interval value is stored in a first memory element of said series of memory elements (308, 310, 312, 314, 316) and shifted along said series of memory elements (310, 312, 314, 316) when each new interval value is recorded; summing a first portion of said recorded interval values and providing a first sum to a first comparator for comparison to a first pre-configured period and detecting a first burst error condition when said first sum is greater than said first pre-configured period; and summing a second portion of said recorded interval values and providing a second sum to a second comparator for comparison to a second pre-configured period and detecting a second burst error condition when said second sum is less than said second pre-configured period. measuring an interval value between each pair of continuous received packets; recording said measured interval values in a series of memory elements (308, 310, 312, 314, 316) wherein each interval value is stored in a first memory element of said series of memory elements (308, 310, 312, 314, 316) and shifted along said series of memory elements (310, 312, 314, 316) when each new interval value is recorded; summing a first portion of said recorded interval values and providing a first sum to a first comparator for comparison to a first pre-configured period and detecting a first burst error condition when said first sum is greater than said first pre-configured period; and summing a second portion of said recorded interval values and providing a second sum to a second comparator for comparison to a second pre-configured period and detecting a second burst error condition when said second sum is less than said second pre-configured period.
Apparatus for processing incoherent plastics with a process fluid, said apparatus comprising: - a container extended vertically with an internal volume configured to contain the incoherent plastics; - a process fluid outlet chamber arranged above said internal volume and separated from said internal volume by a diaphragm impermeable to the process fluid and provided with one or more openings for the outlet of the process fluid from said internal volume; - for each of said one or more openings, a tubular body open at the top at the respective opening and at least partially permeable to the process fluid so as to allow the process fluid to exit from said internal volume through the respective opening; - a tubular wall which is impermeable to the process fluid, and which defines a passage for the inlet of the incoherent plastics in said internal volume, said outlet chamber being internally delimited by said tubular wall; - means for generating a flow of the process fluid inside said internal volume towards said outlet chamber; characterized in that said tubular body extends below said diaphragm inside said internal volume. - a container extended vertically with an internal volume configured to contain the incoherent plastics; - a process fluid outlet chamber arranged above said internal volume and separated from said internal volume by a diaphragm impermeable to the process fluid and provided with one or more openings for the outlet of the process fluid from said internal volume; - for each of said one or more openings, a tubular body open at the top at the respective opening and at least partially permeable to the process fluid so as to allow the process fluid to exit from said internal volume through the respective opening; - a tubular wall which is impermeable to the process fluid, and which defines a passage for the inlet of the incoherent plastics in said internal volume, said outlet chamber being internally delimited by said tubular wall; - means for generating a flow of the process fluid inside said internal volume towards said outlet chamber;
Tool (110; 210) for indirect electrohydraulic draw-forming, characterized in that it comprises: - a body (113; 213) having a tubular cylindrical area (113a; 213a), - a chamber (115; 215) intended to be filled with a liquid, - two electrodes (116a, 116b; 216a, 216b), each of the electrodes having a portion arranged in the chamber (115; 215), - a punch (111; 211), characterized in that the tool further comprises: - a piston (114; 214) mounted so as to slide in a sealed manner within the cylindrical area and sealingly defining the chamber (115; 215), and in that the punch (111; 211) is carried by the piston (114; 214) on a face thereof that is opposite to the chamber (114b; 214a). - a body (113; 213) having a tubular cylindrical area (113a; 213a), - a chamber (115; 215) intended to be filled with a liquid, - two electrodes (116a, 116b; 216a, 216b), each of the electrodes having a portion arranged in the chamber (115; 215), - a punch (111; 211), - a piston (114; 214) mounted so as to slide in a sealed manner within the cylindrical area and sealingly defining the chamber (115; 215), and in that the punch (111; 211) is carried by the piston (114; 214) on a face thereof that is opposite to the chamber (114b; 214a).
A scheduling information transmission method, performed in a communications system that comprises at least two levels of dedicated channels used for downlink control, wherein the dedicated channels at the at least two levels are corresponding to different time-frequency resources, and the method comprises: • allocating a level-one dedicated channel and a level-two dedicated channel to a target terminal device; • sending indication information of the level-one dedicated channel by using a preset first time-frequency resource; • sending indication information of a third time-frequency resource to the target terminal device by using the level-one dedicated channel, and sending indication information of the level-two dedicated channel to the target terminal device by using the third time-frequency resource, wherein the third time-frequency resource belongs to a time-frequency resource of a physical downlink data channel PDSCH; and • sending dedicated scheduling information for the target terminal device to the target terminal device by using the level-two dedicated channel. • allocating a level-one dedicated channel and a level-two dedicated channel to a target terminal device; • sending indication information of the level-one dedicated channel by using a preset first time-frequency resource; • sending indication information of a third time-frequency resource to the target terminal device by using the level-one dedicated channel, and sending indication information of the level-two dedicated channel to the target terminal device by using the third time-frequency resource, wherein the third time-frequency resource belongs to a time-frequency resource of a physical downlink data channel PDSCH; and • sending dedicated scheduling information for the target terminal device to the target terminal device by using the level-two dedicated channel.
An Escherichia coli which can produce O-acetylhomoserine, characterized in that: a) the Escherichia coli contains a gene from Deinococcus sp. or Mycobacterium sp. which encodes a polypeptide having homoserine O-acetyltransferase activity; and b) the Escherichia coli overexpresses a gene encoding a polypeptide having aspartokinase or homoserine dehydrogenase activity or expresses a gene encoding a mutated aspartokinase or homoserine dehydrogenase polypeptide such that aspartokinase or homoserine dehydrogenase activity is enhanced. a) the Escherichia coli contains a gene from Deinococcus sp. or Mycobacterium sp. which encodes a polypeptide having homoserine O-acetyltransferase activity; and b) the Escherichia coli overexpresses a gene encoding a polypeptide having aspartokinase or homoserine dehydrogenase activity or expresses a gene encoding a mutated aspartokinase or homoserine dehydrogenase polypeptide such that aspartokinase or homoserine dehydrogenase activity is enhanced.
Individual-segment rotor comprising - an axis of rotation and - a plurality of laminated core segments which are arranged around the axis of rotation, wherein each laminated core segment in each case is radially fastened to a separate flexural support and - all of the flexural supports are radially retained by at least one fastening ring (14, 14', 19), characterised in that the fastening ring (14, 14', 19) presses the flexural supports radially outwardly, wherein all of the laminated core segments are positively retained in the radial direction on a sleeve, the relative permeability thereof being below 5. - an axis of rotation and - a plurality of laminated core segments which are arranged around the axis of rotation, - all of the flexural supports are radially retained by at least one fastening ring (14, 14', 19),
An image capture apparatus comprising: rotational shake detection means for detecting a rotational shake of said image capture apparatus; translation component correction amount calculation means (201 - 205) for calculating, based on the rotational shake output from said rotational shake detection means, a first correction amount for correcting a translation component of image blur in a captured image due to the shake; perspective component correction amount calculation means (260, 212, 271) for calculating a second correction amount for correcting a perspective component of the image blur; and correction means for correcting the image blur using the first correction amount and the second correction amount, characterized in that the second correction amount is calculated using the first correction amount. rotational shake detection means for detecting a rotational shake of said image capture apparatus; translation component correction amount calculation means (201 - 205) for calculating, based on the rotational shake output from said rotational shake detection means, a first correction amount for correcting a translation component of image blur in a captured image due to the shake; perspective component correction amount calculation means (260, 212, 271) for calculating a second correction amount for correcting a perspective component of the image blur; and correction means for correcting the image blur using the first correction amount and the second correction amount, characterized in that the second correction amount is calculated using the first correction amount.
A control panel component for a clothes processing machine, comprising a panel body and an electronic member mounted on a back of the panel body, wherein a protection cover is fixedly mounted on the panel body, and the electronic member is accommodated between the panel body and the protection cover, wherein a first seal member is disposed between the protection cover and the panel body, characterized in that the protection cover is made of plastic, and a ventilation slot running through the panel body is provided in an area of the panel body covered by the protection cover.
A printing control device that causes a printing device including a printing head linearly crossing over a print medium to perform multipass printing by scanning a region more than once, the printing control device comprising: a plurality of color conversion tables (LUT3, LUT2, LUT1, LUTO); a head motion data acquisition unit that acquires position data on the printing head; and a color conversion unit that uses, in multipass printing, the position data on the printing head to select one or more of the color conversion tables to be used for color conversion and performs color conversion; characterized in that: the head motion data acquisition unit acquires a scanning path of the printing head according to which the printing head does not always move from edge to edge of the print medium and the position data in multipass printing and the color conversion unit selects one or more of the color conversion tables to be used for color conversion on the basis of the scanning path of the printing head and the position data. a plurality of color conversion tables (LUT3, LUT2, LUT1, LUTO); a head motion data acquisition unit that acquires position data on the printing head; and a color conversion unit that uses, in multipass printing, the position data on the printing head to select one or more of the color conversion tables to be used for color conversion and performs color conversion; characterized in that: the head motion data acquisition unit acquires a scanning path of the printing head according to which the printing head does not always move from edge to edge of the print medium and the position data in multipass printing and the color conversion unit selects one or more of the color conversion tables to be used for color conversion on the basis of the scanning path of the printing head and the position data.
A disposable fluid pump (10a, 10b, 10c, 10d, 10e, 10f) comprising: a housing including first and second faces (16, 18) and a sidewall extending between the first and second faces (16, 18), the housing defining a chamber and an inlet and an outlet in fluid communication with the chamber; and an impeller rotatably mounted within the chamber and including a plurality of flexible vanes, wherein one of the first and second faces (16, 18) of the housing defines an opening, and the impeller includes a rigid hub associated with the flexible vanes and defining a socket accessible through said opening and configured to receive a shaft for rotation of the impeller within the chamber, wherein the rigid hub includes a shaft portion that extends outside of the chamber, through the opening defined in one of the housing faces (16, 18). a housing including first and second faces (16, 18) and a sidewall extending between the first and second faces (16, 18), the housing defining a chamber and an inlet and an outlet in fluid communication with the chamber; and one of the first and second faces (16, 18) of the housing defines an opening, and the impeller includes a rigid hub associated with the flexible vanes and defining a socket accessible through said opening and configured to receive a shaft for rotation of the impeller within the chamber, wherein the rigid hub includes a shaft portion that extends outside of the chamber, through the opening defined in one of the housing faces (16, 18).
A stable suspension concentrate formulation for inhibition of fungal growth comprising: from 25 % ± 2.5% to 48 % ± 4.8% w/w natamycin; from 0.1 % ± 0.01 % to 10 % ± 1% w/w of an anionic surfactant, wherein the anionic surfactant is sodium lignosulfonate; and water, wherein the natamycin is present as particles that on average are less than 11 microns in diameter and the formulation has a viscosity of less than 1400 mPa·s at 21 degrees Celsius. from 25 % ± 2.5% to 48 % ± 4.8% w/w natamycin; from 0.1 % ± 0.01 % to 10 % ± 1% w/w of an anionic surfactant, wherein the anionic surfactant is sodium lignosulfonate; and water, wherein the natamycin is present as particles that on average are less than 11 microns in diameter and the formulation has a viscosity of less than 1400 mPa·s at 21 degrees Celsius.
An information processing apparatus comprising: a data acquiring unit that acquires a content including a plurality of component streams; and a file generating unit that sets content random access point information indicating random access points of the content on a basis of random access points of the component streams of the content acquired by the data acquiring unit; wherein the file generating unit generates a content file in which the content RAP information is stored in a metadata area of the file; wherein the content is video codec based point cloud compression (V-PCC) content, and the content file is an ISOBMFF-compliant file; wherein the content includes a plurality of component streams that is included in a point cloud frame as the component streams, and in a case where decoding time stamps (DTSs) of samples of the respective component streams included in the point cloud frame match, the file generating unit sets the content RAP information indicating that a first position, at which the component streams that have been encoded all have a random access point, is a random access point of the content and stores the content RAP information that has been set in a sample entry that is included in the content file. a data acquiring unit that acquires a content including a plurality of component streams; and a file generating unit that sets content random access point information indicating random access points of the content on a basis of random access points of the component streams of the content acquired by the data acquiring unit; wherein the file generating unit generates a content file in which the content RAP information is stored in a metadata area of the file; wherein the content is video codec based point cloud compression (V-PCC) content, and the content file is an ISOBMFF-compliant file; wherein the content includes a plurality of component streams that is included in a point cloud frame as the component streams, and in a case where decoding time stamps (DTSs) of samples of the respective component streams included in the point cloud frame match, the file generating unit sets the content RAP information indicating that a first position, at which the component streams that have been encoded all have a random access point, is a random access point of the content and stores the content RAP information that has been set in a sample entry that is included in the content file.
Peptide compound having the following formula II: R 1 - n -R 2 wherein: - AA is an amino acid; - n = 4, wherein the AA can be different and the bonds being of peptidic or peptoidic type; - R 1 is H or an acyl or sulfonyl group selected from a biotinoyl group or a group having an alkyl, aryl, aralkyl, sugar or alkoxy 1 to 24 carbon atom chain, said chain being linear, branched or cyclic, saturated or unsaturated, hydroxylated or non-hydroxylated, sulfur-containing or non-sulfur-containing; - R 2 is OH or a -O-R 7 group or a -NR 8 R 9 group, R 7, R 8 et R 9 being independently from each other a hydrogen, an alkyl, aryl, aralkyl, acyl, sulfonyl, sugar or alkoxy of 1 to 24 carbon atoms chain, said chain being linear, branched or cyclic, saturated or unsaturated, hydroxylated or non-hydroxylated, sulfur-containing or non-sulfur-containing; wherein the compound is selected from: R 1 -K-MO2-MO2-K-R 2 (SEQ ID NO 29), R 1 -K-MO2-Ava-K-R 2 (SEQ ID NO 30), R 1 -K-Ava-MO2-K-R 2 (SEQ ID NO 31), R 1 -MO2-K-Ava-K-R 2 (SEQ ID NO 32), R 1 -K-MO2-F-K-R 2 (SEQ ID NO 33), R 1 -MO2-T-F-K-R 2 (SEQ ID NO 36), R 1 -K-T-M02-K-R 2 (SEQ ID NO 34), R 1 -K-T-F-MO2-R 2 (SEQ ID NO 35), R 1 -G-MO2-Q-P-R 2 (SEQ ID NO 41), R 1 -K-F-MO2-K-R 2 (SEQ ID NO 38), R 1 -K-T-MO2-F-R 2 (SEQ ID NO 39), R 1 -K-MO2-T-K-R 2 (SEQ ID NO 37), R 1 -MO2-G-H-K-R 2 (SEQ ID NO 42), MO2 being a dioxygenated methionine and Ava being the 5-amino valeric acid. - AA is an amino acid; - n = 4, wherein the AA can be different and the bonds being of peptidic or peptoidic type; - R 1 is H or an acyl or sulfonyl group selected from a biotinoyl group or a group having an alkyl, aryl, aralkyl, sugar or alkoxy 1 to 24 carbon atom chain, said chain being linear, branched or cyclic, saturated or unsaturated, hydroxylated or non-hydroxylated, sulfur-containing or non-sulfur-containing; - R 2 is OH or a -O-R 7 group or a -NR 8 R 9 group, R 7, R 8 et R 9 being independently from each other a hydrogen, an alkyl, aryl, aralkyl, acyl, sulfonyl, sugar or alkoxy of 1 to 24 carbon atoms chain, said chain being linear, branched or cyclic, saturated or unsaturated, hydroxylated or non-hydroxylated, sulfur-containing or non-sulfur-containing; R 1 -K-MO2-MO2-K-R 2 (SEQ ID NO 29), R 1 -K-MO2-Ava-K-R 2 (SEQ ID NO 30), R 1 -K-Ava-MO2-K-R 2 (SEQ ID NO 31), R 1 -MO2-K-Ava-K-R 2 (SEQ ID NO 32), R 1 -K-MO2-F-K-R 2 (SEQ ID NO 33), R 1 -MO2-T-F-K-R 2 (SEQ ID NO 36), R 1 -K-T-M02-K-R 2 (SEQ ID NO 34), R 1 -K-T-F-MO2-R 2 (SEQ ID NO 35), R 1 -G-MO2-Q-P-R 2 (SEQ ID NO 41), R 1 -K-F-MO2-K-R 2 (SEQ ID NO 38), R 1 -K-T-MO2-F-R 2 (SEQ ID NO 39), R 1 -K-MO2-T-K-R 2 (SEQ ID NO 37), R 1 -MO2-G-H-K-R 2 (SEQ ID NO 42), MO2 being a dioxygenated methionine and Ava being the 5-amino valeric acid.
A micro-reactor comprising multiple microfluidic circuits, characterised in that the micro-reactor comprises: (i) a device for producing multiple fluid flows at substantially uniform rates and suitable for distributing fluids to the multiple microfluidic circuits, which device includes: a manifold having a first inlet port and a second inlet port, each inlet port arranged to provide fluid transfer from the inlet port to a respective annular channel (4, 5, 6, 34); the microfluidic circuits being arranged to receive multiple fluid flows from the device for producing multiple fluid flows at substantially uniform rates and suitable for distributing fluids to the multiple microfluidic circuits; and (ii) a distribution element having a first aperture set (12, 13, 14) and a second aperture set (12, 13, 14) therein, each aperture set including at least one aperture (12a-j, 13a-j, 14a-j) and being arranged to be in fluid communication with one of the channels such that fluid is permitted to flow from the channel through an aperture to a respective fluid outlet for delivery of fluid flow to a microfluidic circuit. (i) a device for producing multiple fluid flows at substantially uniform rates and suitable for distributing fluids to the multiple microfluidic circuits, which device includes: a manifold having a first inlet port and a second inlet port, each inlet port arranged to provide fluid transfer from the inlet port to a respective annular channel (4, 5, 6, 34); the microfluidic circuits being arranged to receive multiple fluid flows from the device for producing multiple fluid flows at substantially uniform rates and suitable for distributing fluids to the multiple microfluidic circuits; and a manifold having a first inlet port and a second inlet port, each inlet port arranged to provide fluid transfer from the inlet port to a respective annular channel (4, 5, 6, 34); (ii) a distribution element having a first aperture set (12, 13, 14) and a second aperture set (12, 13, 14) therein, each aperture set including at least one aperture (12a-j, 13a-j, 14a-j) and being arranged to be in fluid communication with one of the channels such that fluid is permitted to flow from the channel through an aperture to a respective fluid outlet for delivery of fluid flow to a microfluidic circuit.