mhurhangee/ep-ind-claims huggingface dataset:
An amino pyran ring derivative represented by general formula or a stereoisomer, or a pharmaceutically acceptable salt thereof: wherein V is selected from: Ar is selected from 2,5-difluorophenyl or 2,4,5-trifluorophenyl; R 4 is -S(=O) 2 -R 8; R 8 is selected from C 1-2 alkyl, 3- to 6-membered heterocycloalkyl, or C 3-6 cycloalkyl; wherein the alkyl, heterocycloalkyl, or cycloalkyl is optionally further substituted with 0 to 5 fluorine atoms, and the heterocycloalkyl has 1 to 3 atoms or groups selected from N, O or S(=O) 2. V is selected from: Ar is selected from 2,5-difluorophenyl or 2,4,5-trifluorophenyl; R 4 is -S(=O) 2 -R 8; R 8 is selected from C 1-2 alkyl, 3- to 6-membered heterocycloalkyl, or C 3-6 cycloalkyl;
A method of decoding video from a bitstream of encoded video using a video decoder, the video including a picture partitioned into blocks, the method comprising: determining an activity rank for a block, based on a block size of the block and an intra-coding mode for the block; calculating a normalization value based on the activity rank divided by an average activity rank determined over a plurality of previously-decoded blocks; and dequantizing a set of decoded quantized coefficients for the block using a quantization step size adjusted by the normalization value, wherein each combination of block size and intra-coding mode has an associated activity rank and determining comprises indexing a look-up table of activity ranks using the block size and the intra-coding mode to read the associated activity rank. determining an activity rank for a block, based on a block size of the block and an intra-coding mode for the block; calculating a normalization value based on the activity rank divided by an average activity rank determined over a plurality of previously-decoded blocks; and dequantizing a set of decoded quantized coefficients for the block using a quantization step size adjusted by the normalization value, wherein each combination of block size and intra-coding mode has an associated activity rank and determining comprises indexing a look-up table of activity ranks using the block size and the intra-coding mode to read the associated activity rank.
A code modification circuit arranged to receive a descrambling and despreading code at a first input pair thereof and a pilot derotation code at a second input pair thereof, and characterised in that the code modification circuit is arranged to combine the codes to form a combined code for input to a correlator, wherein the correlator is arranged to recover data or a pilot signal from the input combined code; and wherein the code modification circuit further comprises a circuit for adding a -π/4 (1-j) rotation to the descrambling and despreading code to simplify all further de-rotation operations.
A polypeptide for use in treating a disease or disorder of energy homeostasis, wherein said disease or disorder is obesity, dyslipidemia, diabetes, insulin resistance, hyperglycemia or metabolic syndrome, and wherein the polypeptide is selected from the group consisting of: (a) a polypeptide comprising an amino acid sequence encoded by a nucleic acid molecule having the nucleic acid sequence as depicted in SEQ ID NO: 2 or the nucleic acid sequence comprising nucleic acid residues 67-648 in SEQ ID NO: 2; (b) a polypeptide comprising an amino acid sequence as depicted in SEQ ID NO: 16 or an amino acid sequence comprising amino acids 23-215 in SEQ ID NO: 16; (c) a polypeptide comprising an amino acid sequence encoded by a nucleic acid molecule hybridizing under stringent conditions to the complementary strand of a nucleic acid molecule as defined in (a) and encoding a functional polypeptide, wherein the function comprises the ability to induce differentiation or conversion of white adipocytes and/or preadipocytes to brown adipocytes; and (d) a polypeptide having at least 40% identity to the polypeptide of any one of (a) to (c), whereby said polypeptide is functional, wherein the function comprises the ability to induce differentiation or conversion of white visceral adipocytes and/or preadipocytes to brown adipocytes. (a) a polypeptide comprising an amino acid sequence encoded by a nucleic acid molecule having the nucleic acid sequence as depicted in SEQ ID NO: 2 or the nucleic acid sequence comprising nucleic acid residues 67-648 in SEQ ID NO: 2; (b) a polypeptide comprising an amino acid sequence as depicted in SEQ ID NO: 16 or an amino acid sequence comprising amino acids 23-215 in SEQ ID NO: 16; (c) a polypeptide comprising an amino acid sequence encoded by a nucleic acid molecule hybridizing under stringent conditions to the complementary strand of a nucleic acid molecule as defined in (a) and encoding a functional polypeptide, wherein the function comprises the ability to induce differentiation or conversion of white adipocytes and/or preadipocytes to brown adipocytes; and (d) a polypeptide having at least 40% identity to the polypeptide of any one of (a) to (c), whereby said polypeptide is functional, wherein the function comprises the ability to induce differentiation or conversion of white visceral adipocytes and/or preadipocytes to brown adipocytes.
A system comprising: a plurality of network devices of a network, wherein the network is a Software Defined-Wide Area Network; a controller, wherein the controller is configured to: receive, from the plurality of network devices of the network, one or more metrics of the plurality of network devices, wherein the one or more metrics are associated with an application or application-group; compute, based on the one or more metrics received from the plurality of network devices, a recommended service level agreement, SLA, metric for the application or application-group; and send the recommended SLA metric to each of the plurality of network devices to cause each of the plurality of network devices to compute an intent-based SLA metric used to select a path to send traffic from the application or application-group, wherein the intent-based SLA metric is computed based on the recommended SLA metric and an intent model that defines a tolerance level to apply the recommended SLA metric. a plurality of network devices of a network, wherein the network is a Software Defined-Wide Area Network; a controller, wherein the controller is configured to: receive, from the plurality of network devices of the network, one or more metrics of the plurality of network devices, wherein the one or more metrics are associated with an application or application-group; compute, based on the one or more metrics received from the plurality of network devices, a recommended service level agreement, SLA, metric for the application or application-group; and send the recommended SLA metric to each of the plurality of network devices to cause each of the plurality of network devices to compute an intent-based SLA metric used to select a path to send traffic from the application or application-group, wherein the intent-based SLA metric is computed based on the recommended SLA metric and an intent model that defines a tolerance level to apply the recommended SLA metric. receive, from the plurality of network devices of the network, one or more metrics of the plurality of network devices, wherein the one or more metrics are associated with an application or application-group; compute, based on the one or more metrics received from the plurality of network devices, a recommended service level agreement, SLA, metric for the application or application-group; and send the recommended SLA metric to each of the plurality of network devices to cause each of the plurality of network devices to compute an intent-based SLA metric used to select a path to send traffic from the application or application-group, wherein the intent-based SLA metric is computed based on the recommended SLA metric and an intent model that defines a tolerance level to apply the recommended SLA metric.
Pressure container having - a container body, wherein an end region having an opening is formed in one piece with the container body at an upper end of the container body, and - a fastening structure for a valve, which fastening structure is formed on the inside of a wall (2.1) which surrounds the opening of the end region, characterized in that the valve is arranged in the opening, and at least two outflow openings, which are arranged in particular situated opposite one another, are formed for the valve in the wall (2.1) that surrounds this opening of the end region. - a container body, wherein an end region having an opening is formed in one piece with the container body at an upper end of the container body, and - a fastening structure for a valve, which fastening structure is formed on the inside of a wall (2.1) which surrounds the opening of the end region,
Integrated formwork wall, including: - two skins (2; 3) arranged one (2; 3) facing the other (3; 2), substantially parallel, and spaced apart so as to define between them an internal volume of wall; - means for connecting these two skins (2; 3) to each other; - at least one element movable between a retracted position and an extended position, designed to connect this wall to another similar and juxtaposed wall, and including a first portion extending inside the internal volume of this wall as well as a second portion, which, on the one hand and in the extended position of the movable element, extends laterally and externally relative to this wall, in the extension of the internal volume of this wall, and intended to extend inside the internal volume of this other wall and, on the other hand and in the retracted position of the movable element, extends at least partly inside the internal volume of this wall; - at least one organ designed for mounting such a mobile element in rotation on one of said means for connecting the two skins (2; 3) of the wall, between a retracted position and an extended position of this movable element; - wherein it includes, on the one hand, at least one means for driving said at least one movable element in rotation, from a retracted position and into an extended position of this movable element and, on the other hand, a means for limiting the rotation of the movable element driven into its extended position by the means for driving such a movable element. - two skins (2; 3) arranged one (2; 3) facing the other (3; 2), substantially parallel, and spaced apart so as to define between them an internal volume of wall; - means for connecting these two skins (2; 3) to each other; - at least one element movable between a retracted position and an extended position, designed to connect this wall to another similar and juxtaposed wall, and including a first portion extending inside the internal volume of this wall as well as a second portion, which, on the one hand and in the extended position of the movable element, extends laterally and externally relative to this wall, in the extension of the internal volume of this wall, and intended to extend inside the internal volume of this other wall and, on the other hand and in the retracted position of the movable element, extends at least partly inside the internal volume of this wall; - at least one organ designed for mounting such a mobile element in rotation on one of said means for connecting the two skins (2; 3) of the wall, between a retracted position and an extended position of this movable element; - wherein it includes, on the one hand, at least one means for driving said at least one movable element in rotation, from a retracted position and into an extended position of this movable element and, on the other hand, a means for limiting the rotation of the movable element driven into its extended position by the means for driving such a movable element.
A method for analyzing devices on a network comprising: receiving, at a core or access network device, at least one packet from a Customer Premises Equipment, CPE,, from a device located behind the CPE; determining identity metadata that describes information about a subscriber and the subscriber's network session associated with the at least one packet; applying device tracking by analyzing a network layer and transport layer of the at least one packet to derive device identification information; performing correlation procedures at an application layer protocol of the at least one packet to associate the at least one packet with the device identification information; determining (225, 230) a device associated with the at least one packet based on the device tracking and correlation; and classifying the device with metadata that describes the device based on the identity metadata and device tracking and correlation associated with the at least one packet. receiving, at a core or access network device, at least one packet from a Customer Premises Equipment, CPE,, from a device located behind the CPE; determining identity metadata that describes information about a subscriber and the subscriber's network session associated with the at least one packet; applying device tracking by analyzing a network layer and transport layer of the at least one packet to derive device identification information; performing correlation procedures at an application layer protocol of the at least one packet to associate the at least one packet with the device identification information; determining (225, 230) a device associated with the at least one packet based on the device tracking and correlation; and classifying the device with metadata that describes the device based on the identity metadata and device tracking and correlation associated with the at least one packet.
Method of preparing a haemostatic patch comprising a porous layer based on oxidized cellulose and a neutralized film based on chitosan, said film comprising a free face and a face fixed on one of the faces of the porous layer, comprising the following step: - a°) preparing a porous layer based on oxidized cellulose, characterized in that said method further comprises the following steps: - b°) preparing a film based on chitosan starting from an acidic aqueous solution of chitosan, - c°) fixing the film obtained in b°) on one face of the porous layer, - d°) neutralizing the film obtained in b°), - where step c°) of fixation is carried out before the neutralizing step d°), - the neutralizing step d°) comprising application on the free face of the film of a neutralizing composition consisting of an ethanol/water/ammonium hydroxide mixture in the proportions 80/16/14 by weight. - a°) preparing a porous layer based on oxidized cellulose, characterized in that said method further comprises the following steps: - b°) preparing a film based on chitosan starting from an acidic aqueous solution of chitosan, - c°) fixing the film obtained in b°) on one face of the porous layer, - d°) neutralizing the film obtained in b°), - where step c°) of fixation is carried out before the neutralizing step d°), - the neutralizing step d°) comprising application on the free face of the film of a neutralizing composition consisting of an ethanol/water/ammonium hydroxide mixture in the proportions 80/16/14 by weight.
Motor vehicle wheel suspension having an X-spring device, the X-spring device comprising: on each wheel side, a first leaf spring and a second leaf spring made of fiber-reinforced plastics material, which are arranged one above the other and are brought together at a relevant first end (11a, 12a) at a first fastening device for support on the vehicle body side, the first leaf spring having a second fastening device at the second end thereof for support on the wheel side, and the second leaf spring being supportable on the vehicle body side at the second end thereof, the second leaf spring forming an arcuate portion toward the second end thereof, which portion is curved away from the first leaf spring in such a way that the side of the second leaf spring initially pointing toward the first leaf spring points away from the first leaf spring in the further course toward the second end of the second leaf spring, characterized in that the arcuate portion at the second end of the second leaf spring extends over an arc angle in the range of 150 to 190°. on each wheel side, a first leaf spring and a second leaf spring made of fiber-reinforced plastics material, which are arranged one above the other and are brought together at a relevant first end (11a, 12a) at a first fastening device for support on the vehicle body side, the first leaf spring having a second fastening device at the second end thereof for support on the wheel side, and the second leaf spring being supportable on the vehicle body side at the second end thereof, the second leaf spring forming an arcuate portion toward the second end thereof, which portion is curved away from the first leaf spring in such a way that the side of the second leaf spring initially pointing toward the first leaf spring points away from the first leaf spring in the further course toward the second end of the second leaf spring, characterized in that the arcuate portion at the second end of the second leaf spring extends over an arc angle in the range of 150 to 190°.
Cleaning appliance for the cleaning of cleaning stock, the cleaning appliance being set up in order to act with at least one cleaning fluid upon the cleaning stock in at least one cleaning chamber, the cleaning appliance having at least one fluid tank for storing the cleaning fluid, the cleaning appliance having a suction-extraction device for the section-extraction of moist air from the cleaning chamber, the cleaning appliance having at least one heat recovery device, the heat recovery device being set up in order to extract heat from the moist air, characterized in that the heat recovery device has at least one Peltier element, the Peltier element having a heat-absorption side and a waste-heat side, the waste-heat side being in thermal contact with a fluid heating device, the fluid heating device being in contact with a first cooling fluid and being set up in order to heat the latter, and the cleaning appliance being set up, further, in order to use the first cooling fluid for a cleaning process, the heat recovery device having, furthermore, at least one second fluid heat exchanger, a second cooling fluid flowing through the second fluid heat exchanger and the second cooling fluid being in thermal contact in at least one fluid cooling device with the heat-absorption side of the Peltier element.
A semiconductor device (100/200/500) comprising: a drain electrode (112/212); a source electrode (110/210); a channel (108/208) contacting the drain electrode (112/212) and the source electrode (110/210), wherein the channel (108/208) is formed from an amorphous form of Zn x In 2y O x+3y; a gate electrode (104/204); and a gate dielectric (106/206) positioned between the gate electrode (104/204) and the channel (108/208), wherein the gate dielectric includes a number of alternating interior layers of AlO x and TiO y, respectively, wherein AlO x includes aluminum-oxide and TiO y includes titanium oxide, sandwiched between outer layers formed of Al 2 O 3. a drain electrode (112/212); a source electrode (110/210); a channel (108/208) contacting the drain electrode (112/212) and the source electrode (110/210), wherein the channel (108/208) is formed from an amorphous form of Zn x In 2y O x+3y; a gate electrode (104/204); and a gate dielectric (106/206) positioned between the gate electrode (104/204) and the channel (108/208), wherein the gate dielectric includes a number of alternating interior layers of AlO x and TiO y, respectively, wherein AlO x includes aluminum-oxide and TiO y includes titanium oxide, sandwiched between outer layers formed of Al 2 O 3.
Method for printing in a printing device digitally to a substrate, preferably a preprocessed substrate, comprising: • a step of digitally printing to the substrate in a printing station of the printing device; • a step of controlling the printing station with a controlling means; • a step of recording in the controlling means a source digital file FN1 representative of the substrate; • a step of recording in the controlling means a digital file FN3 representative of the digital print to be produced on the substrate; • a step of analyzing the substrate by means of a device X in order to attribute thereto digital values, said device X being located in the printing device; • a step of recording in the controlling means a digital file FN2 representative of the substrate analyzed by means of the device X and of acquiring corresponding digital data; characterized in that it also comprises • a step of splitting (mesh generation) with a splitting means the files FN1 and FN2; • a step of comparing and recording in the controlling means differences between the file FN1 and the file FN2; • a step of correcting, by means of a correcting means forming part of the controlling means, the file FN3 with the differences between the file FN1 and the file FN2; and • a step of recording in the controlling means a digital file FN3-CORR delivered by the means for correcting the file FN3, the step of printing digitally to the substrate in a printing station being the last step, said last step being controlled by the controlling means by means of the file FN3-CORR. • a step of digitally printing to the substrate in a printing station of the printing device; • a step of controlling the printing station with a controlling means; • a step of recording in the controlling means a source digital file FN1 representative of the substrate; • a step of recording in the controlling means a digital file FN3 representative of the digital print to be produced on the substrate; • a step of analyzing the substrate by means of a device X in order to attribute thereto digital values, said device X being located in the printing device; • a step of recording in the controlling means a digital file FN2 representative of the substrate analyzed by means of the device X and of acquiring corresponding digital data; characterized in that it also comprises • a step of splitting (mesh generation) with a splitting means the files FN1 and FN2; • a step of comparing and recording in the controlling means differences between the file FN1 and the file FN2; • a step of correcting, by means of a correcting means forming part of the controlling means, the file FN3 with the differences between the file FN1 and the file FN2; and • a step of recording in the controlling means a digital file FN3-CORR delivered by the means for correcting the file FN3,