mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing an anhydrous crystalline form of (1aS,5aS)-2-(4-oxy-pyrazin-2-yl)-1a,2,5,5a-tetrahydro-1H-2,3-diaza-cyclopropa[a]pentalene-4-carboxylic acid ( -1-hydroxymethyl-2,2-dimethyl-propyl)-amide comprising the steps of: 1) crystallizing (1aS,5aS)-2-(4-oxy-pyrazin-2-yl)-1a,2,5,5a-tetrahydro-1H-2,3-diaza-cyclopropa[a]pentalene-4-carboxylic acid ( -1-hydroxymethyl-2,2-dimethylpropyl)-amide from a crystallizing mixture to obtain a crystalline form of (1aS,5aS)-2-(4-oxy-pyrazin-2-yl)-1a,2,5,5a-tetrahydro-1H-2,3-diaza-cyclopropa[a]pentalene-4-carboxylic acid ( -1-hydroxymethyl-2,2-dimethyl-propyl)-amide in said crystallizing mixture, wherein said crystallizing mixture comprises acetonitrile and water; and 2) isolating said crystalline form of (1aS,5aS)-2-(4-oxy-pyrazin-2-yl)-1a,2,5,5a-tetrahydro-1H-2,3-diaza-cyclopropa[a]pentalene-4-carboxylic acid ( -1-hydroxymethyl-2,2-dimethyl-propyl)-amide from said crystallizing mixture to obtain said anhydrous crystalline form of (1aS,5aS)-2-(4-oxy-pyrazin-2-yl)-1a,2,5,5a-tetrahydro-1H-2,3-diaza-cyclopropa[a]pentalene-4-carboxylic acid ( -1-hydroxymethyl-2,2-dimethyl-propyl)-amide. 1) crystallizing (1aS,5aS)-2-(4-oxy-pyrazin-2-yl)-1a,2,5,5a-tetrahydro-1H-2,3-diaza-cyclopropa[a]pentalene-4-carboxylic acid ( -1-hydroxymethyl-2,2-dimethylpropyl)-amide from a crystallizing mixture to obtain a crystalline form of (1aS,5aS)-2-(4-oxy-pyrazin-2-yl)-1a,2,5,5a-tetrahydro-1H-2,3-diaza-cyclopropa[a]pentalene-4-carboxylic acid ( -1-hydroxymethyl-2,2-dimethyl-propyl)-amide in said crystallizing mixture, wherein said crystallizing mixture comprises acetonitrile and water; and 2) isolating said crystalline form of (1aS,5aS)-2-(4-oxy-pyrazin-2-yl)-1a,2,5,5a-tetrahydro-1H-2,3-diaza-cyclopropa[a]pentalene-4-carboxylic acid ( -1-hydroxymethyl-2,2-dimethyl-propyl)-amide from said crystallizing mixture to obtain said anhydrous crystalline form of (1aS,5aS)-2-(4-oxy-pyrazin-2-yl)-1a,2,5,5a-tetrahydro-1H-2,3-diaza-cyclopropa[a]pentalene-4-carboxylic acid ( -1-hydroxymethyl-2,2-dimethyl-propyl)-amide.
A machine-implemented method, comprising the steps of: receiving, from a requestor, a request to perform a file system operation, conforming to a stateful protocol, on a file as a resource, wherein said request is to be processed at a database server of a database management system, wherein said request includes first state identification data, wherein said resource is maintained in a database of said database management system, and wherein said database server is storing the resource in one or more columns of a table, and includes a lookup mechanism that stores state information associated with state identification data; retrieving, by said database server, using said lookup mechanism, state information associated with said first state identification data, wherein said state information reflects all stateful operations previously performed on said resource, said one or more previously performed stateful operations including one or more operations of (i) opening a file, or (ii) closing a file, or (iii) obtaining a lock on an open file; processing said request in said database server using said state information; updating, in response to processing said request, the state information of said resource in the lookup mechanism to specify an updated operational state of the resource after the file system operation has been performed on the resource, and creating second state identification data that identifies the updated state information; and transmitting said second state identification data to said requestor.
Method for producing a value document and/or a security document having a data transmission device, wherein the data transmission device comprises at least one antenna structure and at least one electronic component, comprising the following method steps: - providing a support element (1, 1a, 1b, 1c, 1d), - placing an antenna structure onto the support element (1, 1a, 1b, 1c), characterised by the following further method steps: - placing an electronic component onto the support element (1, 1a, 1b), - generating a fluoroscopic image of a region of the data transmission device, in which at least one portion of the antenna structure and the electronic component are at least partially arranged, - determining at least one image region in which at least one portion of the antenna structure or a part of the portion of the antenna structure is imaged, - determining at least one image region in which the electronic component or a part of the electronic component is imaged, - image-based determining of a position and/or orientation of the antenna structure relative to the electronic component, wherein the image-based determining of the relative position and/or orientation designates a determination of the relative position and/or orientation in an image coordinate system, - evaluating a quality criterion depending on the position and/or orientation. - providing a support element (1, 1a, 1b, 1c, 1d), - placing an antenna structure onto the support element (1, 1a, 1b, 1c), - placing an electronic component onto the support element (1, 1a, 1b), - generating a fluoroscopic image of a region of the data transmission device, in which at least one portion of the antenna structure and the electronic component are at least partially arranged, - determining at least one image region in which at least one portion of the antenna structure or a part of the portion of the antenna structure is imaged, - determining at least one image region in which the electronic component or a part of the electronic component is imaged, - image-based determining of a position and/or orientation of the antenna structure relative to the electronic component, wherein the image-based determining of the relative position and/or orientation designates a determination of the relative position and/or orientation in an image coordinate system, - evaluating a quality criterion depending on the position and/or orientation.
A method of decoding an audio signal in a decoding apparatus, comprising: extracting a downmix signal from a bitstream including first spatial information for generating a multi-channel signal having at least three channels from the downmix signal and second spatial information for generating a two-channel signal from the downmix signal, wherein the downmix signal is a mono signal; extracting from the bitstream the first spatial information or the second spatial information, wherein the first spatial information is extracted if the decoding apparatus is able to generate both multi-channel signal and two-channel signal and a user selects multi-channel generation, and the second spatial information is extracted if the decoding apparatus is able to generate both multi-channel signal and two-channel signal and a user selects two-channel generation; decoding the downmix signal; generating the two-channel signal using the decoded downmix signal and the second spatial information, and not using the first spatial information, when a user has selected two-channel signal generation, wherein the two-channel signal is generated by upmixing the decoded downmix signal using a signal transforming unit; or generating the multi-channel signal using the decoded downmix signal and the first spatial information, and not using the second spatial information, when a user has selected multi-channel signal generation, wherein the multi-channel signal is generated by upmixing the decoded downmix signal using a plurality of signal transforming units. extracting a downmix signal from a bitstream including first spatial information for generating a multi-channel signal having at least three channels from the downmix signal and second spatial information for generating a two-channel signal from the downmix signal, wherein the downmix signal is a mono signal; extracting from the bitstream the first spatial information or the second spatial information, wherein the first spatial information is extracted if the decoding apparatus is able to generate both multi-channel signal and two-channel signal and a user selects multi-channel generation, and the second spatial information is extracted if the decoding apparatus is able to generate both multi-channel signal and two-channel signal and a user selects two-channel generation; decoding the downmix signal; generating the two-channel signal using the decoded downmix signal and the second spatial information, and not using the first spatial information, when a user has selected two-channel signal generation, wherein the two-channel signal is generated by upmixing the decoded downmix signal using a signal transforming unit; or generating the multi-channel signal using the decoded downmix signal and the first spatial information, and not using the second spatial information, when a user has selected multi-channel signal generation, wherein the multi-channel signal is generated by upmixing the decoded downmix signal using a plurality of signal transforming units.
A method of making a garment material, comprising: providing a substrate formed of yarn and having interstices through it; applying to the substrate a polymeric material with fibres suspended therein, the fibers having a length in the range 0.01 mm to 0.04 mm; coagulating at least some of the polymeric material onto the substrate to form a composite layer of the polymeric material and fibres. providing a substrate formed of yarn and having interstices through it; applying to the substrate a polymeric material with fibres suspended therein, the fibers having a length in the range 0.01 mm to 0.04 mm; coagulating at least some of the polymeric material onto the substrate to form a composite layer of the polymeric material and fibres.
A fastening means for detachably fastening and positioning an additional compaction module on a drafting unit of a spinning machine, wherein the compaction module has a carrier, which is provided with at least one suction channel, which is connected to suction inserts of compaction elements which are movably mounted on the carrier, characterized in that the fastening means is formed by two clamping elements which are fastened spaced apart from one another on the spinning machine and each of which has retaining means (54, M) for ensuring fixed and positioned fastening on the spinning machine, and each of which is provided with a first receiving slot which is open on one side and has a retaining section by means of which a retaining element that is fastened on the carrier forms a positive-fitting clamped connection.
Water softening device, comprising a. a filter which is configured to decrease hardness of a first stream of raw water to produce a second stream of water with decreased hardness, b. a first sensor configured to measure an electrical conductivity and/or an electrical resistance of the first stream, c. a second sensor configured to measure an electrical conductivity and/or an electrical resistance of the second stream, and d. optionally a third sensor for detecting a water flow through the filter, wherein e. the filter comprises an ion exchange resin, which is operated in H + -mode, and which is buffered with at least one salt selected from the group of a potassium salt (K +), a sodium salt (Na +) and a lithium salt (Li +), f. the device comprises an electronic control unit which is connected to the first sensor, to the second sensor and optionally, if the device comprises the third sensor, to the third sensor, and which comprises an internal data memory and a data processing unit, and g. the device is configured to determine a ratio between the measured electrical conductivity and/or resistance of the second stream and the measured electrical conductivity and/or resistance of the first stream and use the ratio as an indicator for the exhaustion state of the filter. a. a filter which is configured to decrease hardness of a first stream of raw water to produce a second stream of water with decreased hardness, b. a first sensor configured to measure an electrical conductivity and/or an electrical resistance of the first stream, c. a second sensor configured to measure an electrical conductivity and/or an electrical resistance of the second stream, and d. optionally a third sensor for detecting a water flow through the filter, wherein e. the filter comprises an ion exchange resin, which is operated in H + -mode, and which is buffered with at least one salt selected from the group of a potassium salt (K +), a sodium salt (Na +) and a lithium salt (Li +), f. the device comprises an electronic control unit which is connected to the first sensor, to the second sensor and optionally, if the device comprises the third sensor, to the third sensor, and which comprises an internal data memory and a data processing unit, and g. the device is configured to determine a ratio between the measured electrical conductivity and/or resistance of the second stream and the measured electrical conductivity and/or resistance of the first stream and use the ratio as an indicator for the exhaustion state of the filter.
A method for allocating energy costs in a collective building including a plurality of individual premises and at least one collective heat management device, the method being applicable to all the individual premises of the collective building and comprising determining an amount of thermal energy supplied by the at least one collective heat management device, to at least one individual premises of the collective building, over a given period, said determination, carried out by one or more processors, including the use of, - a simulation model, - a plurality of ambient temperature values of the collective building, the plurality of ambient temperature values of the collective building including a plurality of temperatures of the individual premises, - one or more values of temperatures outside the collective building, - a volume of the individual premises, and - at least one heat loss coefficient of the individual premises, and - the calculation of the at least one heat loss coefficient of the individual premises on the basis of the simulation model characterized in that the simulation model is a thermal simulation model of the collective building which virtually represents the collective building and which takes into account, for each individual premises, a geometry of the individual premises and a composition of the walls of the individual premises, as well as the heat exchange between various premises of the collective building; and in that the method uses a plurality of temperatures of premises or common spaces of the collective building which are adjacent to the individual premises. - a simulation model, - a plurality of ambient temperature values of the collective building, the plurality of ambient temperature values of the collective building including a plurality of temperatures of the individual premises, - one or more values of temperatures outside the collective building, - a volume of the individual premises, and - at least one heat loss coefficient of the individual premises, and - the calculation of the at least one heat loss coefficient of the individual premises on the basis of the simulation model characterized in that the simulation model is a thermal simulation model of the collective building which virtually represents the collective building and which takes into account, for each individual premises, a geometry of the individual premises and a composition of the walls of the individual premises, as well as the heat exchange between various premises of the collective building; and in that the method uses a plurality of temperatures of premises or common spaces of the collective building which are adjacent to the individual premises.
Screw to be screwed into a drill hole in a porous material, the screw comprising a. a core with i. an insert end and ii. a longitudinal center axis, b. a tapping thread being formed in one piece with the core and extending along a tapping thread portion (A SG) arranged at the insert end to cut a thread into the material, c. a preloading portion (A VG) formed in one piece with the core to preload the screw in the material, characterized by d. a force decoupling portion (A KE) arranged along the longitudinal center axis between the tapping thread portion (A SG) and the preloading portion (A KE), the force decoupling portion (A KE) having a smooth surface such that the screw is decoupled from the porous material in the force decoupling portion (A KE) and from a curable adhesive material that may be provided between the material and the screw. a. a core with i. an insert end and ii. a longitudinal center axis, i. an insert end and ii. a longitudinal center axis, b. a tapping thread being formed in one piece with the core and extending along a tapping thread portion (A SG) arranged at the insert end to cut a thread into the material, c. a preloading portion (A VG) formed in one piece with the core to preload the screw in the material, characterized by d. a force decoupling portion (A KE) arranged along the longitudinal center axis between the tapping thread portion (A SG) and the preloading portion (A KE), the force decoupling portion (A KE) having a smooth surface such that the screw is decoupled from the porous material in the force decoupling portion (A KE) and from a curable adhesive material that may be provided between the material and the screw.
An exhalation valve comprising: a diaphragm for opening and closing an outlet of an exhalation flow path for guiding exhaled air to outside air; a back chamber that is provided on an opposite side of the exhalation flow path in the diaphragm and forms a space together with the diaphragm; a pump unit (25, 51, 61) for adjusting an air pressure inside the back chamber by performing feeding and discharging of air to and from the back chamber; and a control unit for controlling an operation of the pump unit (25, 51, 61), wherein the diaphragm uses a difference between an air pressure inside the exhalation flow path and the air pressure inside the back chamber to close the outlet when the air pressure inside the exhalation flow path is lower than the air pressure inside the back chamber, and to open the outlet when the air pressure inside the exhalation flow path is higher than the air pressure inside the back chamber, characterized in that the pump unit (25, 51, 61) is provided to a circumference of the back chamber. a diaphragm for opening and closing an outlet of an exhalation flow path for guiding exhaled air to outside air; a back chamber that is provided on an opposite side of the exhalation flow path in the diaphragm and forms a space together with the diaphragm; a pump unit (25, 51, 61) for adjusting an air pressure inside the back chamber by performing feeding and discharging of air to and from the back chamber; and a control unit for controlling an operation of the pump unit (25, 51, 61), wherein the diaphragm uses a difference between an air pressure inside the exhalation flow path and the air pressure inside the back chamber to close the outlet when the air pressure inside the exhalation flow path is lower than the air pressure inside the back chamber, and to open the outlet when the air pressure inside the exhalation flow path is higher than the air pressure inside the back chamber, characterized in that the pump unit (25, 51, 61) is provided to a circumference of the back chamber.
An illumination system (10, 20, 30, 50), comprising: a flexible substrate (104, 204, 304, 504, 604); a plurality of light-emitting diodes ("LEDs") (102, 202, 302, 502) disposed along one or more axes of the flexible substrate; a plurality of sensors (110, 210, 310) configured to provide one or more signals indicative of a shape formed by the flexible substrate; and a controller (106, 206, 306) communicably coupled with the plurality of LEDs and the plurality of sensors, wherein the controller is configured to: detect one or more lengths of the flexible substrate along the one or more axes based on the one or more signals provided by the plurality of sensors; and energize one or more LEDs of the plurality of LEDs to emit light having one or more lighting properties selected based on the detected one or more lengths. a flexible substrate (104, 204, 304, 504, 604); a plurality of light-emitting diodes ("LEDs") (102, 202, 302, 502) disposed along one or more axes of the flexible substrate; a plurality of sensors (110, 210, 310) configured to provide one or more signals indicative of a shape formed by the flexible substrate; and a controller (106, 206, 306) communicably coupled with the plurality of LEDs and the plurality of sensors, wherein the controller is configured to: detect one or more lengths of the flexible substrate along the one or more axes based on the one or more signals provided by the plurality of sensors; and energize one or more LEDs of the plurality of LEDs to emit light having one or more lighting properties selected based on the detected one or more lengths. detect one or more lengths of the flexible substrate along the one or more axes based on the one or more signals provided by the plurality of sensors; and energize one or more LEDs of the plurality of LEDs to emit light having one or more lighting properties selected based on the detected one or more lengths.
Mechanism for an office chair, having a spring mechanism that has at least one spring element, said spring mechanism being operatively connected to a backrest support of the office chair and determining the pivoting resistance of the backrest support during pivoting from a starting position into a pivoted position, having a movable functional element that is operatively connected to the spring mechanism, having a movable actuating element that is operatively connected to the functional element, the position of said actuating element being altered during pivoting of the backrest support, wherein the actuating element has a supporting and/or guide track for the functional element, the position of which on the supporting and/or guide track is altered during a change in position of the actuating element during pivoting of the backrest support, and having a movable control arm (31, 31') for the coupling connection of the functional element to a further structural element (39; 52, 54) of the mechanism, wherein the control arm (31, 31') determines the type of change in position of the functional element on the supporting and/or guide track during pivoting of the backrest support, characterized in that the control arm (31, 31') is connected to the further, non-variable-position structural element (39; 52, 54) of the mechanism at various locations on the structural element (39; 52, 54) in a variable location, wherein the control arm (31, 31') can be supported at various locations on the further structural element (39; 52, 54) and/or be connected to the structural element (39; 52, 54) at these locations.