mhurhangee/ep-ind-claims huggingface dataset:
An elevator car position measurement system (300, 500) for an elevator system (200, 400) comprising an elongate tension member operably connected to an elevator car and configured to move the elevator car within the hoistway, the elevator car position measurement system (300, 500) comprising: a pulse generator configured for transmitting a pulse along the elongate tension member; a detector unit configured to receive the pulse from the pulse generator after the pulse has been transmitted along a length of the elongate tension member and to record a time at which the pulse is received; wherein one of the pulse generator and the detector unit is configured to be arranged to move within the hoistway dependent on a position of the elevator car within the hoistway such that, in use, a length of the elongate tension member along which the pulse is transmitted changes dependent on a position of the elevator car within the hoistway, and wherein the elevator car position measurement system (300, 500) is configured to calculate the length of the elongate tension member along which the pulse is transmitted based on the recorded time, and determine the position of the elevator car within the hoistway based on the determined length. a pulse generator configured for transmitting a pulse along the elongate tension member; a detector unit configured to receive the pulse from the pulse generator after the pulse has been transmitted along a length of the elongate tension member and to record a time at which the pulse is received; wherein one of the pulse generator and the detector unit is configured to be arranged to move within the hoistway dependent on a position of the elevator car within the hoistway such that, in use, a length of the elongate tension member along which the pulse is transmitted changes dependent on a position of the elevator car within the hoistway, and wherein the elevator car position measurement system (300, 500) is configured to calculate the length of the elongate tension member along which the pulse is transmitted based on the recorded time, and determine the position of the elevator car within the hoistway based on the determined length.
A compound represented by the following formula or a pharmaceutically acceptable salt thereof: [Formula 1] A-Y wherein A represents a structure represented by the following formula: wherein R 11 and R 12 are the same or different and each represent a hydrogen atom or a halogen atom, R 2 represents a hydrogen atom or C 1-6 alkyl, ring E represents pyrrole, furan, pyrazole, imidazole, isoxazole, oxazole, isothiazole, triazole, oxadiazole, tetrazole, pyridine, pyridazine, pyrimidine, or pyrazine, R 31 and R 32 are the same or different and each represent a hydrogen atom, cyano, C 1-6 alkyl, C 1-6 alkoxy, or mono-C 1-6 alkylamino, and W represents a single bond, the formula -NH-, the formula -O-, or the formula - CONH-, and Y represents a hydrogen atom or any structure of the following formulas: wherein Z 1 represents any structure of the following formula group: Z 3 represents a structure of the following formula [4-a]: L 2, L 2 ', L 2 ", and L 2 '" are the same or different and each represent any structure of the following formula group: and A', A", and A'" each represent the same structure as the structure represented by A. A represents a structure represented by the following formula: wherein R 11 and R 12 are the same or different and each represent a hydrogen atom or a halogen atom, R 2 represents a hydrogen atom or C 1-6 alkyl, ring E represents pyrrole, furan, pyrazole, imidazole, isoxazole, oxazole, isothiazole, triazole, oxadiazole, tetrazole, pyridine, pyridazine, pyrimidine, or pyrazine, R 31 and R 32 are the same or different and each represent a hydrogen atom, cyano, C 1-6 alkyl, C 1-6 alkoxy, or mono-C 1-6 alkylamino, and W represents a single bond, the formula -NH-, the formula -O-, or the formula - CONH-, and R 11 and R 12 are the same or different and each represent a hydrogen atom or a halogen atom, R 2 represents a hydrogen atom or C 1-6 alkyl, ring E represents pyrrole, furan, pyrazole, imidazole, isoxazole, oxazole, isothiazole, triazole, oxadiazole, tetrazole, pyridine, pyridazine, pyrimidine, or pyrazine, R 31 and R 32 are the same or different and each represent a hydrogen atom, cyano, C 1-6 alkyl, C 1-6 alkoxy, or mono-C 1-6 alkylamino, and W represents a single bond, the formula -NH-, the formula -O-, or the formula - CONH-, and Y represents a hydrogen atom or any structure of the following formulas: wherein Z 1 represents any structure of the following formula group: Z 3 represents a structure of the following formula [4-a]: L 2, L 2 ', L 2 ", and L 2 '" are the same or different and each represent any structure of the following formula group: and A', A", and A'" each represent the same structure as the structure represented by A. Z 1 represents any structure of the following formula group: Z 3 represents a structure of the following formula [4-a]: L 2, L 2 ', L 2 ", and L 2 '" are the same or different and each represent any structure of the following formula group: and A', A", and A'" each represent the same structure as the structure represented by A.
A pipe lifter for carrying one or more pipes including an extendable elongate member, wherein the pipe lifter comprises: two sets of two laterally extending arms on each side of the elongate two or more support members attachable to the laterally extending arms, each of said support members is shaped to be positionable within an end of the one or more pipes; and a hydraulic or pneumatic ram operationally configured to extend and shorten the length of the elongate member, wherein in use the support members attached to opposing laterally extending arms are positioned to be substantially opposing each other and the length of the elongate member is adjusted so that the pipe is secured with the support members in each end of the pipe; and characterised in that each of the laterally extending arms is pivotally fixed to the elongate member and moveable between a folded position where the arm is adjacent and parallel with the elongate member and an operational position where the arm extends laterally substantially at ninety degrees with respect to the elongate member. two sets of two laterally extending arms on each side of the elongate two or more support members attachable to the laterally extending arms, each of said support members is shaped to be positionable within an end of the one or more pipes; and a hydraulic or pneumatic ram operationally configured to extend and shorten the length of the elongate member, wherein in use the support members attached to opposing laterally extending arms are positioned to be substantially opposing each other and the length of the elongate member is adjusted so that the pipe is secured with the support members in each end of the pipe; and characterised in that each of the laterally extending arms is pivotally fixed to the elongate member and moveable between a folded position where the arm is adjacent and parallel with the elongate member and an operational position where the arm extends laterally substantially at ninety degrees with respect to the elongate member.
A water-absorbing agent comprising 50% by weight to 100% by weight of a polyacrylic acid (salt)-based water-absorbing resin and satisfying all of the following physical properties (a) to (e): (a) a weight average particle diameter is 300 μm or more and less than 400 μm, as determined in accordance with the method disclosed in US 7,638,570 B2; (b) a proportion of particles with a particle diameter of 600 μm or more and less than 850 um is less than 10 weight%; (c) an average gap radius is 100 μm or more and less than 180 μm, as determined in accordance with the method disclosed in the description; (d) a centrifuge retention capacity is 28 g/g or more and less than 34 g/g, as determined in accordance with ERT 441.2-02; and (e) an absorption against pressure under a load of 4.83 kPa is 24 g/g or more, as determined in accordance with ERT 442.2-02. (a) a weight average particle diameter is 300 μm or more and less than 400 μm, as determined in accordance with the method disclosed in US 7,638,570 B2; (b) a proportion of particles with a particle diameter of 600 μm or more and less than 850 um is less than 10 weight%; (c) an average gap radius is 100 μm or more and less than 180 μm, as determined in accordance with the method disclosed in the description; (d) a centrifuge retention capacity is 28 g/g or more and less than 34 g/g, as determined in accordance with ERT 441.2-02; and (e) an absorption against pressure under a load of 4.83 kPa is 24 g/g or more, as determined in accordance with ERT 442.2-02.
A continuous process for producing ammonium sulfate crystals, wherein said process comprises: i) feeding to a series of crystallization sections, which crystallization sections are heat integrated in series, a solution of ammonium sulfate; ii) crystallizing ammonium sulfate crystals from said solution of ammonium sulfate; iii) purging a fraction of the solution of ammonium sulfate from each of said crystallization sections; and iv) discharging ammonium sulfate crystals from each crystallization section, characterized in that: a fraction of said solution of ammonium sulfate is purged from at least one crystallization section to at least one other crystallization section. i) feeding to a series of crystallization sections, which crystallization sections are heat integrated in series, a solution of ammonium sulfate; ii) crystallizing ammonium sulfate crystals from said solution of ammonium sulfate; iii) purging a fraction of the solution of ammonium sulfate from each of said crystallization sections; and iv) discharging ammonium sulfate crystals from each crystallization section, characterized in that: a fraction of said solution of ammonium sulfate is purged from at least one crystallization section to at least one other crystallization section. a fraction of said solution of ammonium sulfate is purged from at least one crystallization section to at least one other crystallization section.
Measuring device for the detection of at least one measured value of a fluid medium, comprising a measuring tube with a measuring apparatus which is arranged on and/or in the former, and a control and/or processing device which is arranged outside the measuring tube, the measuring apparatus being connected to the control and/or processing device via one or more cable connections which runs/run outside the measuring tube to the control and/or processing device, the measuring tube being enclosed at least in sections with a thermally insulating casing which is applied at least in sections in a positively locking manner to, or with a defined gap from, the outer side of the measuring tube, characterized in that the one or more cable connections is/are received in the casing in one or more ducts (12, 13) configured on the inner side of the casing.
A method of connecting a terminal to a substrate for forming a power semiconductor module by using ultrasound welding, wherein the terminal comprises a first connection area being located at a terminal foot, the terminal further comprises a second connection area being located opposite to the first connection area at the terminal foot, the substrate comprises a third connection area, and the method comprises the following steps: a) Bringing the first connection area in contact to the third connection area; b) Connecting the terminal to the substrate by acting on the second connection area with an ultrasound welding tool; c) Smoothening the second connection area by performing a smoothening step after having performed step b); and d) Connecting at least one electrical connection to the second connection area after having performed step c). the terminal comprises a first connection area being located at a terminal foot, the terminal further comprises a second connection area being located opposite to the first connection area at the terminal foot, the substrate comprises a third connection area, and the method comprises the following steps: a) Bringing the first connection area in contact to the third connection area; b) Connecting the terminal to the substrate by acting on the second connection area with an ultrasound welding tool; c) Smoothening the second connection area by performing a smoothening step after having performed step b); and d) Connecting at least one electrical connection to the second connection area after having performed step c). a) Bringing the first connection area in contact to the third connection area; b) Connecting the terminal to the substrate by acting on the second connection area with an ultrasound welding tool; c) Smoothening the second connection area by performing a smoothening step after having performed step b); and d) Connecting at least one electrical connection to the second connection area after having performed step c).
Cutting device for harvesting stalk material, comprising a frame, a cutting device base, a multi-part cutter bar arranged on the front of the cutting device, the cutter bar parts (34a, 34b) of which are arranged so as to be colinear with one another and are driven so as to oscillate transversely to the direction of travel, cutter blades fastened to the cutter bar parts (34a, 34b) which interact with stationary or moving counter blades connected to the frame, a drive unit for driving the multi-part cutter bar, and conveying members for removing the cut stalk material, a transmission housing being arranged behind the cutter bar parts (34a, 34b), in which transmission housing a drive shaft terminates in the transmission housing in a first plane, the drive shaft driving, via an angular gear, a toothed wheel connected for conjoint rotation to an eccentric shaft mounted so as to be fixed in place in the transmission housing, which toothed wheel is arranged in a second plane above or below the drive shaft plane, at least two eccentric discs being arranged one above the other in a third and fourth plane on the eccentric shaft in the transmission housing, and each eccentric disc being assigned to an eccentric lever in the plane of the relevant associated eccentric disc, which eccentric lever is connected to a pivot lever that is connected for conjoint rotation to an pivot shaft mounted so as to be fixed in place, and a crank arm being connected for conjoint rotation to the pivot shaft, the pivoting movement of which crank arm is transmitted to a cutter bar part (34a, 34b) via a connecting element, characterised in that the eccentric discs, the drive shaft and the toothed wheel are arranged one above the other.
A method for estimating parameters of a battery equivalent circuit model, the battery equivalent circuit model including a first resistor, a second resistor connected in series to the first resistor and a capacitor connected in parallel to the second resistor, the method comprising: setting a parameter estimation condition including a specific temperature, a specific state of charge and a specific constant current; reading a pulse discharge profile corresponding to the parameter estimation condition from a plurality of pre-stored pulse discharge profiles, wherein the pulse discharge profile includes a first number of terminal voltages sequentially measured from a battery having the specific SOC in a predetermined cycle while the battery is discharged with the specific constant current from an open-circuit voltage corresponding to the specific SOC to a lower limit of discharge voltage at the specific temperature; determining a threshold voltage between the OCV and the lower limit of discharge voltage from the pulse discharge profile; extracting a second number of terminal voltages between the OCV and the threshold voltage from the first number of terminal voltages; and estimating a resistance value of the first resistor and a resistance value of the second resistor based on the OCV, the specific constant current and the second number of terminal voltages. setting a parameter estimation condition including a specific temperature, a specific state of charge and a specific constant current; reading a pulse discharge profile corresponding to the parameter estimation condition from a plurality of pre-stored pulse discharge profiles, wherein the pulse discharge profile includes a first number of terminal voltages sequentially measured from a battery having the specific SOC in a predetermined cycle while the battery is discharged with the specific constant current from an open-circuit voltage corresponding to the specific SOC to a lower limit of discharge voltage at the specific temperature; determining a threshold voltage between the OCV and the lower limit of discharge voltage from the pulse discharge profile; extracting a second number of terminal voltages between the OCV and the threshold voltage from the first number of terminal voltages; and estimating a resistance value of the first resistor and a resistance value of the second resistor based on the OCV, the specific constant current and the second number of terminal voltages.
A cooling apparatus comprising: a) a fan having a central axis and rotatable blades which connect to a fan ring at their tips, the fan ring having an inner diameter D2; b) a stationary cylindrical ring concentric about an axis and surrounding the fan ring; c) a Coanda ring which i) is concentric about said axis; ii) is adjacent the cylindrical ring; iii) comprises an inner surface of revolution about the axis, which surface has A) an inner diameter D1 near the cylindrical ring; B) an inner diameter (R1, R2) which increases as axial distance from the cylindrical ring increases; and d) a radial array of stator vanes which is i) concentric about the axis; characterised in that the radial array of stator vanes is located ii) adjacent to, and entirely downstream of the Coanda Ring. a) a fan having a central axis and rotatable blades which connect to a fan ring at their tips, the fan ring having an inner diameter D2; b) a stationary cylindrical ring concentric about an axis and surrounding the fan ring; c) a Coanda ring which i) is concentric about said axis; ii) is adjacent the cylindrical ring; iii) comprises an inner surface of revolution about the axis, which surface has A) an inner diameter D1 near the cylindrical ring; B) an inner diameter (R1, R2) which increases as axial distance from the cylindrical ring increases; and i) is concentric about said axis; ii) is adjacent the cylindrical ring; iii) comprises an inner surface of revolution about the axis, which surface has A) an inner diameter D1 near the cylindrical ring; B) an inner diameter (R1, R2) which increases as axial distance from the cylindrical ring increases; and A) an inner diameter D1 near the cylindrical ring; B) an inner diameter (R1, R2) which increases as axial distance from the cylindrical ring increases; and d) a radial array of stator vanes which is i) concentric about the axis; characterised in that the radial array of stator vanes is located ii) adjacent to, and entirely downstream of the Coanda Ring. i) concentric about the axis; characterised in that the radial array of stator vanes is located ii) adjacent to, and entirely downstream of the Coanda Ring.
Large-size OSB panel with a length of at least 7.0 m, characterised - in that the panel has increased mechanical-technological properties, - in that the panel has a width of at least 2.60 m and - in that the compressive strength in the panel plane in the longitudinal direction is ≥ 24 N/mm 2, wherein the thickness of the panel is at least 28 mm, wherein the panel contains a percentage of binder of 6 to 18 % calculated as solid binder based on the dry mass of wood, and wherein paraffin and/or wax has been added to reduce the swelling properties such that the percentage in the panel is between 0.5 and 1 % calculated as solid based on the dry mass of wood. - in that the panel has increased mechanical-technological properties, - in that the panel has a width of at least 2.60 m and - in that the compressive strength in the panel plane in the longitudinal direction is ≥ 24 N/mm 2, wherein the thickness of the panel is at least 28 mm, wherein the panel contains a percentage of binder of 6 to 18 % calculated as solid binder based on the dry mass of wood, and wherein paraffin and/or wax has been added to reduce the swelling properties such that the percentage in the panel is between 0.5 and 1 % calculated as solid based on the dry mass of wood.
An aerosol-type invertible valve mechanism having a valve acting section (2a, 3) that shifts, based on an operation mode setting operation, from a previous closed state to an open state to inject contents in a container body to an outer space region and a contents passage section in an invertible use mode, having an upright and an inverted mode, that communicates with the valve acting section (2a, 3), wherein: the contents passage section includes: an upright inflow passage of the contents; an inverted inflow passage of the contents; a shared invertible passage that is formed at the downstream side from a common outflow hole for the upright inflow passage and the inverted inflow passage and that communicates with the valve acting section (2a, 3); and a moving valve that is provided at the common outflow hole side of the inverted inflow passage and that allows, by the falling action by its own weight in the respective upright and inverted modes, the inverted inflow passage in the inverted mode to communicate with the shared invertible passage, the moving valve has a lower end that is provided at an upper position on an extended straight line at the contents outflow side of the upright inflow passage that is separated from the upper end of the common outflow hole by a distance, characterized in that the distance is of at least 3.5mm. an upright inflow passage of the contents; an inverted inflow passage of the contents; a shared invertible passage that is formed at the downstream side from a common outflow hole for the upright inflow passage and the inverted inflow passage and that communicates with the valve acting section (2a, 3); and a moving valve that is provided at the common outflow hole side of the inverted inflow passage and that allows, by the falling action by its own weight in the respective upright and inverted modes, the inverted inflow passage in the inverted mode to communicate with the shared invertible passage, the moving valve has a lower end that is provided at an upper position on an extended straight line at the contents outflow side of the upright inflow passage that is separated from the upper end of the common outflow hole by a distance, characterized in that the distance is of at least 3.5mm.