mhurhangee/patent-ind-claim-en huggingface dataset:
A powder formulation comprising particles of tolterodine or a tolterodine-related compound selected from (R)-N, N-diisopropyl-3-(2-hydroxy-5-hydroxymethylphenyl)-3-phenylpropanamine, (S)-N, N-diisopropyl-3-(2-hydroxy-5-methylphenyl)-3-phenylpropanamine, (S)-N, N-diisopropyl-3-(2-hydroxy-5-hydroxymethylphenyl)-3-phenylpropanamine, (R, S)-N, N-diisopropyl-3-(2-hydroxy-5-methylphenyl)-3-phenylpropanamine, and (2-[ -3-(di(propan-2-yl)amino)-1-phenylpropyl]-4-(hydroxymethyl)phenyl] 2-methylpropanoate), or a pharmaceutically acceptable salt thereof, said particles being obtainable by supercritical anti-solvent (SAS) precipitation and having a D 50 of 4 μm or less and a D 90 of 10 μm or less.
A polyester resin, wherein a diol which constitutes a primary repeat unit of the polyester is 1,4-butanediol, and a diacid which constitutes the primary repeat unit of the polyester is a mixture of a conjugated dicarboxylic acid and a non-conjugated dicarboxylic acid, wherein the non-conjugated dicarboxylic acid is adipic acid or sebacic acid, and the conjugated dicarboxylic acid is terephthalic acid, 1,4-phenylenediacetic acid, 2,5-furandicarboxylic acid or 1,3-butadiene-1,4-dicarboxylic acid, characterized in that , a structure of the polyester resin satisfies a relation as follows: S δ hydrogen on conjugated carbon chain /S δ hydrogen on saturated carbon chain 1.2-2. 4 = 0.1 to 0.35; wherein said S δ hydrogen on conjugated carbon chain is a total area of a peak integration of hydrogen on a conjugated carbon chain in a 1H NMR spectra, and said S δ hydrogen on saturated carbon chain 1.2-2.4 is a total area of a peak integration of hydrogen on a saturated carbon chain and with a chemical shift between 1.2-2.4 ppm in the 1H NMR spectra, wherein a testing method of the 1H NMR spectra is: after dissolving a sample with chloroform-d and carrying out a test at room temperature of 25°C and wherein the testing method of the 1H NMR spectra using a German Bruker DRX-400 nuclear magnetic resonance spectrometer. S δ hydrogen on conjugated carbon chain /S δ hydrogen on saturated carbon chain 1.2-2. 4 = 0.1 to 0.35; wherein said S δ hydrogen on conjugated carbon chain is a total area of a peak integration of hydrogen on a conjugated carbon chain in a 1H NMR spectra, and said S δ hydrogen on saturated carbon chain 1.2-2.4 is a total area of a peak integration of hydrogen on a saturated carbon chain and with a chemical shift between 1.2-2.4 ppm in the 1H NMR spectra, wherein a testing method of the 1H NMR spectra is: after dissolving a sample with chloroform-d and carrying out a test at room temperature of 25°C and wherein the testing method of the 1H NMR spectra using a German Bruker DRX-400 nuclear magnetic resonance spectrometer.
Industrial roll or industrial wheel for use in an industrial installation, wherein the industrial roll or the industrial wheel comprises: (i) a stiff, cylindrical roll core or wheel core that is provided at its lateral surface with a surface that is subject to wear; (ii) a data logger applied to said roll core or said wheel core or said surface provided with (a) a sensor for monitoring information with respect to the operation of said industrial roll or said industrial wheel or said surface, (b) a processor for processing said information, (c) tangible non-volatile memory for storing said information, (d) a wireless network interface for sending and receiving data comprising said information, (e) program data stored in said memory for driving said processor, (f) preferably, an indicator for displaying a part of said data, such as e.g. a LED indicator or an audio source and (g) a battery or equivalent energy source for feeding (a) and/or (b) and/or (c) and/or (d) and/or (f), wherein said data comprise roll and wheel related data, such as e.g. a unique serial number and/or dimensions for identification of the industrial roll or the industrial wheel, and wherein said data logger is adapted for sending said roll and wheel related data and said monitored information also if the industrial roll or the industrial wheel is not mounted. (i) a stiff, cylindrical roll core or wheel core that is provided at its lateral surface with a surface that is subject to wear; (ii) a data logger applied to said roll core or said wheel core or said surface provided with (a) a sensor for monitoring information with respect to the operation of said industrial roll or said industrial wheel or said surface, (b) a processor for processing said information, (c) tangible non-volatile memory for storing said information, (d) a wireless network interface for sending and receiving data comprising said information, (e) program data stored in said memory for driving said processor, (f) preferably, an indicator for displaying a part of said data, such as e.g. a LED indicator or an audio source and (g) a battery or equivalent energy source for feeding (a) and/or (b) and/or (c) and/or (d) and/or (f), (a) a sensor for monitoring information with respect to the operation of said industrial roll or said industrial wheel or said surface, (b) a processor for processing said information, (c) tangible non-volatile memory for storing said information, (d) a wireless network interface for sending and receiving data comprising said information, (e) program data stored in said memory for driving said processor, (f) preferably, an indicator for displaying a part of said data, such as e.g. a LED indicator or an audio source and (g) a battery or equivalent energy source for feeding (a) and/or (b) and/or (c) and/or (d) and/or (f),
Nut comprising a body having a through-hole having at least one tapped interior portion configured to enable the nut to be screwed onto a shank in operation and a cylindrical pivoting portion having an axis of pivoting (A36, A36'), the nut comprising a washer having a pivoting portion configured to cooperate with the pivoting portion of the body so that the washer can pivot relative to the body , and a through-hole comprising a first plain interior portion (42.1) having an axis (A42.1), the pivoting portion of the washer having an axis of pivoting (A44, A44') that is eccentric with respect to the axis (A42.1) of the first interior portion (42.1) of the washer and/or the tapped interior portion of the body having an axis of screw-fastening (A34) that is eccentric with respect to the axis of pivoting (A36, A36') of the pivoting portion of the body , the first interior portion (42.1) of the washer comprising a cross section that is such that, when a shank is screwed into the tapped interior portion in operation, the first interior portion (42.1) does not interfere with the shank in at least one first angular position of the washer and does interfere with the shank in at least one second angular position of the washer , the pivoting portions of the body and of the washer being coaxial in operation, characterized in that the pivoting portion of the body is threaded or tapped and in that the pivoting portion of the washer is tapped or threaded so as to enable the washer to be screwed onto the body .
An electronic device comprising: a plurality of electronic components mounted into the electronic device ; a processor operatively connected to the electronic components ; and a memory storing instructions that, when executed by the processor , cause the electronic device to: classify a plurality of areas of the electronic device into a plurality of prediction areas , wherein the plurality of prediction areas is classified based on predetermined characteristics of whether an area of the electronic device includes an electronic component and whether a current of the electronic component is measured; configure a virtual thermistor corresponding to each of the plurality of prediction areas , based on the classification of the plurality of prediction areas , wherein the virtual thermistor is configured as a virtualized sensor for predicting temperature; collect information on each of the plurality of prediction areas , based on the virtual thermistor; and manage temperature for each of the plurality of prediction areas , based on the collected information. a plurality of electronic components mounted into the electronic device ; a processor operatively connected to the electronic components ; and a memory storing instructions that, when executed by the processor , cause the electronic device to: classify a plurality of areas of the electronic device into a plurality of prediction areas , wherein the plurality of prediction areas is classified based on predetermined characteristics of whether an area of the electronic device includes an electronic component and whether a current of the electronic component is measured; configure a virtual thermistor corresponding to each of the plurality of prediction areas , based on the classification of the plurality of prediction areas , wherein the virtual thermistor is configured as a virtualized sensor for predicting temperature; collect information on each of the plurality of prediction areas , based on the virtual thermistor; and manage temperature for each of the plurality of prediction areas , based on the collected information. classify a plurality of areas of the electronic device into a plurality of prediction areas , wherein the plurality of prediction areas is classified based on predetermined characteristics of whether an area of the electronic device includes an electronic component and whether a current of the electronic component is measured; configure a virtual thermistor corresponding to each of the plurality of prediction areas , based on the classification of the plurality of prediction areas , wherein the virtual thermistor is configured as a virtualized sensor for predicting temperature; collect information on each of the plurality of prediction areas , based on the virtual thermistor; and manage temperature for each of the plurality of prediction areas , based on the collected information.
Tool device for calibrating the toothing run-in and/or toothing run-out of a toothing on a metallic workpiece by forming, comprising: - a workpiece receptacle , for receiving the workpiece ; - an axially movable die , which can be brought into engagement with the toothing on the workpiece and which on the one hand supports the toothing on the workpiece and on the other hand predefines the shape of the toothing to be set at the toothing run-in and/or toothing run-out during the calibrating operation; characterized - in that the tool device has at least one axially movable upsetting ring , by means of which the toothing run-in and/or toothing run-out on the workpiece can be calibrated by an upsetting operation, and in that the die and the upsetting ring are jointly fastened to an axially movable punch and are jointly moved in order to carry out a calibrating operation. - a workpiece receptacle , for receiving the workpiece ; - an axially movable die , which can be brought into engagement with the toothing on the workpiece and which on the one hand supports the toothing on the workpiece and on the other hand predefines the shape of the toothing to be set at the toothing run-in and/or toothing run-out during the calibrating operation; - in that the tool device has at least one axially movable upsetting ring , by means of which the toothing run-in and/or toothing run-out on the workpiece can be calibrated by an upsetting operation, and in that the die and the upsetting ring are jointly fastened to an axially movable punch and are jointly moved in order to carry out a calibrating operation.
A catalyst for preparing 1,5-pentanediol by hydrogenolysis of tetrahydrofurfuryl alcohol, characterized in that : said catalyst comprises a supporter, an active component supported on the supporter, and a promoter supported on the supporter; wherein, the supporter is a polystyrene grafted with a nitrogen-containing ligand or a silica gel grafted with a nitrogen-containing ligand; said active component is any one or more of the metal elements Rh, Ir, Pt, Pd, Ru and Au; said promoter is any one or more of the metal elements Re, Mo, W, V, Nb, Ta, Mn, and Sn; wherein said polystyrene grafted with a nitrogen-containing ligand has the following structural formula: wherein, m = 500~2,000, n = 200 ~1,000, preferably m = 800~1500, n=300~800; and wherein said silica gel grafted with a nitrogen-containing ligand has the following structural formula: wherein, x = 5,000~10,000, y = 200~1,000, preferably x = 6,000~8,000, y=300~800. said catalyst comprises a supporter, an active component supported on the supporter, and a promoter supported on the supporter; wherein, the supporter is a polystyrene grafted with a nitrogen-containing ligand or a silica gel grafted with a nitrogen-containing ligand; said active component is any one or more of the metal elements Rh, Ir, Pt, Pd, Ru and Au; said promoter is any one or more of the metal elements Re, Mo, W, V, Nb, Ta, Mn, and Sn; wherein said polystyrene grafted with a nitrogen-containing ligand has the following structural formula: wherein, m = 500~2,000, n = 200 ~1,000, preferably m = 800~1500, n=300~800; and wherein said silica gel grafted with a nitrogen-containing ligand has the following structural formula: wherein, x = 5,000~10,000, y = 200~1,000, preferably x = 6,000~8,000, y=300~800.
A device for managing end-to-end connections of a network within a central network management entity, the network including a plurality of end-to-end connections, wherein queues are assigned to the end-to-end connections, wherein each of the queues includes a data flow having data packets to be transmitted collectively, the device comprising: a state unit for providing a current status of a quality of service parameter of a queue to which a new data flow is to be allocated, a resource allocation unit for allocating the new data flow to the queue based on a threshold for the quality of service parameter for the queue and the current status of the quality of service parameter of the queue , and a routing unit for routing the data packets of the new data flow based on the allocation, characterized in that a plurality of queues is assigned to an end-to-end connection, wherein each of the queues has a different priority, and the resource allocation unit is adapted to compare the threshold for the quality of service parameter and the worst-case value of the quality of service parameter of the queue to which the new data flow is to be allocated and is adapted to compare the threshold for the quality of service parameter and the worst-case value of the quality of service parameter of each queue having a lower priority than the queue to which the new data flow is to be allocated. a state unit for providing a current status of a quality of service parameter of a queue to which a new data flow is to be allocated, a resource allocation unit for allocating the new data flow to the queue based on a threshold for the quality of service parameter for the queue and the current status of the quality of service parameter of the queue , and a routing unit for routing the data packets of the new data flow based on the allocation, characterized in that a plurality of queues is assigned to an end-to-end connection, wherein each of the queues has a different priority, and the resource allocation unit is adapted to compare the threshold for the quality of service parameter and the worst-case value of the quality of service parameter of the queue to which the new data flow is to be allocated and is adapted to compare the threshold for the quality of service parameter and the worst-case value of the quality of service parameter of each queue having a lower priority than the queue to which the new data flow is to be allocated.
A method for constructing a multi-story building, comprising: assembling a plurality of wall trusses , each comprising a moment frame, consisting of a plurality of vertical members (101 - 105), adjacent ones of which are interconnected at the top and bottom by horizontal beams (111 - 114, 121 - 124), connected to a respective side of the vertical members (101 - 105), wherein at least two vertical members of the wall truss comprise hollow columns; and for at least two floors of the multi-story building: stacking additional wall trusses on top of the existing wall trusses installed for the floor below, inserting a mating member (341 - 349) into the hollow columns (301 - 309, 311-319) of at least two of the vertical members for each wall truss and additional wall truss , where the mating member (341 - 349) extends into both the hollow columns (301 - 309) of each wall truss and the hollow columns (311 - 319) of the additional wall truss . stacking additional wall trusses on top of the existing wall trusses installed for the floor below, inserting a mating member (341 - 349) into the hollow columns (301 - 309, 311-319) of at least two of the vertical members for each wall truss and additional wall truss , where the mating member (341 - 349) extends into both the hollow columns (301 - 309) of each wall truss and the hollow columns (311 - 319) of the additional wall truss .
A memory , comprising: a memory cell ; at least one bitline (BL, BLB) coupled to the memory cell; a sense amplifier coupled to the at least one bitline; a timing circuit configured to enable the sense amplifier during a read operation; a control circuit configured to enable the sense amplifier independent of the timing circuit in a stress test operation for an extended time period longer than a period for the read operation and using a predetermined state to determine whether the sense amplifier changes states during the extended enabling period while the memory cell is not accessed; and a voltage adjustment circuit configured to set the sense amplifier to the predetermined state for the stress test operation during the enabling of the sense amplifier; a pull-up circuit configured to pull up the at least one bitline while the sense amplifier is enabled by the control circuit to pre-charge the at least one bitline during the read or during the stress test operation, the pull-up circuit comprising a precharge circuit configured to precharge the at least one bitline for the read operation or the stress test operation. a memory cell ; at least one bitline (BL, BLB) coupled to the memory cell; a sense amplifier coupled to the at least one bitline; a timing circuit configured to enable the sense amplifier during a read operation; a control circuit configured to enable the sense amplifier independent of the timing circuit in a stress test operation for an extended time period longer than a period for the read operation and using a predetermined state to determine whether the sense amplifier changes states during the extended enabling period while the memory cell is not accessed; and a voltage adjustment circuit configured to set the sense amplifier to the predetermined state for the stress test operation during the enabling of the sense amplifier; a pull-up circuit configured to pull up the at least one bitline while the sense amplifier is enabled by the control circuit to pre-charge the at least one bitline during the read or during the stress test operation, the pull-up circuit comprising a precharge circuit configured to precharge the at least one bitline for the read operation or the stress test operation.
Process for producing colloidal quantum dots comprising i) a core comprising zinc selenide ii) optionally one or more shells grown onto the core and comprising zinc selenide iii) at least one shell of a passivating material, applied to the core and/or to the last shell, the colloidal quantum dots being cadmium-free, which comprises: a) providing a raw solution which comprises at least one zinc carboxylate and an organic solvent selected from hydrocarbons having a boiling point of at least 250°C at standard pressure, b) providing at least one selenium source, c) providing at least one sulfur source, d) contacting the raw solution comprising at least one zinc carboxylate from step a) with at least one selenium source from step b), e) optionally contacting the reaction solution obtained from step d) at least one further time, with at least one further selenium source from step b), and f) contacting the reaction solution obtained from step d) and/or step e) with at least one sulfur source from step c), wherein the colloidal quantum dots are produced in a one-pot process and the particle size in steps d) and e) is defined via the stoichiometric ratio of the raw solution comprising at least one zinc carboxylate from step a) and the selenium source from step b) and/or via the number of growth steps in step e). i) a core comprising zinc selenide ii) optionally one or more shells grown onto the core and comprising zinc selenide iii) at least one shell of a passivating material, applied to the core and/or to the last shell, a) providing a raw solution which comprises at least one zinc carboxylate and an organic solvent selected from hydrocarbons having a boiling point of at least 250°C at standard pressure, b) providing at least one selenium source, c) providing at least one sulfur source, d) contacting the raw solution comprising at least one zinc carboxylate from step a) with at least one selenium source from step b), e) optionally contacting the reaction solution obtained from step d) at least one further time, with at least one further selenium source from step b), and f) contacting the reaction solution obtained from step d) and/or step e) with at least one sulfur source from step c),
A stent graft assembly comprising: i. a first prosthesis comprising a tubular main body formed of biocompatible graft material having a proximal end portion, a distal end portion and lumen extending therebetween; ii. a first leg extending from the distal end portion of the main body; iii. at least one fenestration formed in the tubular main body; iv. an internal tubular branch extending proximally from the at least one fenestration into the lumen of the main body; b. a second prosthesis comprising a tubular body of biocompatible graft material having a proximal end portion and a distal end portion ; c. wherein the distal end portion of the second prosthesis is configured to sealingly engage the proximal end portion of the main body of the first prosthesis characterised in that the second prosthesis comprises a scalloped fenestration formed in the graft material at the distal end portion, wherein the scalloped fenestration is aligned with the internal tubular branch when the first and second prostheses are sealingly engaged. i. a first prosthesis comprising a tubular main body formed of biocompatible graft material having a proximal end portion, a distal end portion and lumen extending therebetween; ii. a first leg extending from the distal end portion of the main body; iii. at least one fenestration formed in the tubular main body; iv. an internal tubular branch extending proximally from the at least one fenestration into the lumen of the main body; b. a second prosthesis comprising a tubular body of biocompatible graft material having a proximal end portion and a distal end portion ; c. wherein the distal end portion of the second prosthesis is configured to sealingly engage the proximal end portion of the main body of the first prosthesis characterised in that the second prosthesis comprises a scalloped fenestration formed in the graft material at the distal end portion, wherein the scalloped fenestration is aligned with the internal tubular branch when the first and second prostheses are sealingly engaged. b. a second prosthesis comprising a tubular body of biocompatible graft material having a proximal end portion and a distal end portion ; c. wherein the distal end portion of the second prosthesis is configured to sealingly engage the proximal end portion of the main body of the first prosthesis characterised in that the second prosthesis comprises a scalloped fenestration formed in the graft material at the distal end portion, wherein the scalloped fenestration is aligned with the internal tubular branch when the first and second prostheses are sealingly engaged.