mhurhangee/ep-ind-claims huggingface dataset:
An elevator hoisting machine braking apparatus comprising: a rotating body that is rotated relative to a hoisting machine main body; a braking apparatus main body that comprises: a movable body; and an electromagnetic actuator that is mounted onto the hoisting machine main body, on which an adjusting threaded aperture is disposed, and that displaces the movable body in a direction of contact with and separation from the rotating body; an adjusting collar that is screwed into the adjusting threaded aperture, and that is disposed between the hoisting machine main body and the electromagnetic actuator; and a mounting device that mounts the electromagnetic actuator to the hoisting machine main body in a state in which the hoisting machine main body bears the adjusting collar, wherein a position of the braking apparatus main body relative to the hoisting machine main body is adjusted in a direction in which a distance between the electromagnetic actuator and the rotating body changes by adjusting an amount of thread engagement of the adjusting collar in the adjusting threaded aperture, the elevator hoisting machine braking apparatus being characterized by a guiding portion that guides the adjusting collar, that is displaced relative to the electromagnetic actuator together with adjustment of the amount of thread engagement of the adjusting collar in the adjusting threaded aperture, is disposed on the electromagnetic actuator. a rotating body that is rotated relative to a hoisting machine main body; a braking apparatus main body that comprises: a movable body; and an electromagnetic actuator that is mounted onto the hoisting machine main body, on which an adjusting threaded aperture is disposed, and that displaces the movable body in a direction of contact with and separation from the rotating body; a movable body; and an electromagnetic actuator that is mounted onto the hoisting machine main body, on which an adjusting threaded aperture is disposed, and that displaces the movable body in a direction of contact with and separation from the rotating body; an adjusting collar that is screwed into the adjusting threaded aperture, and that is disposed between the hoisting machine main body and the electromagnetic actuator; and a mounting device that mounts the electromagnetic actuator to the hoisting machine main body in a state in which the hoisting machine main body bears the adjusting collar, wherein a position of the braking apparatus main body relative to the hoisting machine main body is adjusted in a direction in which a distance between the electromagnetic actuator and the rotating body changes by adjusting an amount of thread engagement of the adjusting collar in the adjusting threaded aperture, the elevator hoisting machine braking apparatus being characterized by a guiding portion that guides the adjusting collar, that is displaced relative to the electromagnetic actuator together with adjustment of the amount of thread engagement of the adjusting collar in the adjusting threaded aperture, is disposed on the electromagnetic actuator.
Coupling accessory (1, 15) for electrical conductor carrier trays, intended to link together two or more electrical conductor carrier trays made up of a base part and a lid part, wherein said base part of the tray is formed by a bottom wall, plain or perforated, and two perpendicular walls opposite one another, and said lid part of the tray is formed by a plain bottom wall and two tabs fitting on the walls of base part of tray, said coupling accessory (1, 15) comprising a base part (2, 16) and a lid part (3, 17) which can be coupled together and form as a whole, at least, a coupling mouth (4, 4A) for the coupling to the outer perimeter contour of the end of one of said electrical conductor trays, there being formed in said coupling mouth (4, 4A) a depressed overlapping area with a continuous straight U-shaped section whereby said coupling mouth (4, 4A) covers the end of said fitted tray, said depressed overlapping area forming with the rest of said base part (2, 16) and/or said lid part (3, 17) a transverse step serving as an insertion end stop for said tray, characterised in that said base part (2, 16) is provided, on each side of central part of said depressed overlapping area, with a through attachment groove and, on points of the top edge of the sides of said base part (2, 16), near said transverse step and outside said depressed overlapping area, with a mortise for a snap fitting tenon arranged in a corresponding manner on said lid part (3, 17).
A brushless motor, comprising: a) a stator; b) a rotor adapted to rotate with respect to the stator; the rotor comprising a motor shaft (20, 120) which defines an axis of rotation of the rotor; wherein the rotor is supported by a single bearing device which is closer to one end of the motor shaft than to the other end along a longitudinal direction of the motor shaft; wherein adjacent to said other end of the motor shaft there are arranged magnets (22, 122) on the motor shaft; wherein there are two or more said magnets arranged along the longitudinal direction which are separated by an isolating ring; and wherein a balancing ring is arranged on the motor shaft between the magnets and the bearing device. a) a stator; b) a rotor adapted to rotate with respect to the stator; the rotor comprising a motor shaft (20, 120) which defines an axis of rotation of the rotor; wherein the rotor is supported by a single bearing device which is closer to one end of the motor shaft than to the other end along a longitudinal direction of the motor shaft; wherein adjacent to said other end of the motor shaft there are arranged magnets (22, 122) on the motor shaft; wherein there are two or more said magnets arranged along the longitudinal direction which are separated by an isolating ring; and wherein a balancing ring is arranged on the motor shaft between the magnets and the bearing device. wherein the rotor is supported by a single bearing device which is closer to one end of the motor shaft than to the other end along a longitudinal direction of the motor shaft; wherein adjacent to said other end of the motor shaft there are arranged magnets (22, 122) on the motor shaft; wherein there are two or more said magnets arranged along the longitudinal direction which are separated by an isolating ring; and wherein a balancing ring is arranged on the motor shaft between the magnets and the bearing device.
A method for laser brazing a first member to a second member using a laser brazing head having first means for providing a first laser beam and second means for providing a second laser beam, the method comprising the steps of: a. arranging said first member in contact with said second member such that a junction is formed therebetween; b. providing a filler material in the vicinity of said junction, characterized in that the method further comprises the step of c. passing said laser brazing head along said junction such that said first laser beam melts said filler material to at least partially fill said junction to form a brazed joint, and said second laser beam effects a post heat treatment of said brazed joint, whereby the energy per unit area provided by the first laser beam is greater than or equal to the energy per unit area provided by the second laser beam. a. arranging said first member in contact with said second member such that a junction is formed therebetween; b. providing a filler material in the vicinity of said junction, characterized in that the method further comprises the step of c. passing said laser brazing head along said junction such that said first laser beam melts said filler material to at least partially fill said junction to form a brazed joint, and said second laser beam effects a post heat treatment of said brazed joint,
A method for determining a local frequency in a wireless communication system, the method comprising: identifying frequency bands in use for communication; identifying, based on a first frequency band being in use for communication, a first subcarrier located at the center of the first frequency band among multiple subcarriers constituting the first frequency band; determining the local frequency based on a starting frequency of the first frequency band and an ending frequency of the first frequency band when no subcarrier is arranged in a direct current, DC, component of the first frequency band; and determining the frequency between the first subcarrier and a second subcarrier closest to the first subcarrier as the local frequency when a subcarrier is arranged in the DC component of the first frequency band. identifying frequency bands in use for communication; identifying, based on a first frequency band being in use for communication, a first subcarrier located at the center of the first frequency band among multiple subcarriers constituting the first frequency band; determining the local frequency based on a starting frequency of the first frequency band and an ending frequency of the first frequency band when no subcarrier is arranged in a direct current, DC, component of the first frequency band; and determining the frequency between the first subcarrier and a second subcarrier closest to the first subcarrier as the local frequency when a subcarrier is arranged in the DC component of the first frequency band.
Method for controlling the feed of threads of a system with several thread feeders (VC, ATC) with a pre-determined thread tension to workstations (A1, A2, A3,... A16) of a textile machine, wherein the thread tension of at least one thread of a thread feeder is regulated to a reference value (Mref) by a tensioning unit of the thread feeder, wherein at least one thread feeder with a tensioning unit is operated as a master thread feeder and at least one further thread feeder as a slave thread feeder, wherein the thread tension of the thread of the slave thread feeder(s) is/are controlled via the tensioning unit of the master thread feeder or the slave thread feeders of the master thread feeders with a setpoint controller, wherein the threads of the thread feeders (VC, ATC), which each have a storage body and a braking device in the thread path downstream from the storage body, are each drawn off from the storage body by the workstation of the textile machine, wherein the thread tensioning of the respective thread of the thread feeder (VC, ATC) is adjusted by a adjusting device of the braking device and the adjusting device is controlled with a braking signal, wherein the braking signal is adjusted by the respective tensioning unit of the master thread feeder for regulating the thread tension of the thread of the master thread feeder(s), wherein, to the thread feeders (VC, ATC) of the system, specific data (spD) are each allocated, wherein the specific data (spD) comprises an allocation of values of a braking force determining the thread tension to values of the braking signal, and the thread tension of the thread(s) of the slave thread feeder(s) is controlled in that the setpoint controller calculates a setpoint value for the braking force for the slave thread feeder(s) from the value(s) of the braking signal of the master thread feeder(s) and presets this to the slave thread feeder(s).
Composition for use as an active fluid in a continuous glucose sensor comprising: a lectin, the lectin being Concanavalin A (ConA); a lectin-binding molecule having a molecular weight of 10-100 kDa, the lectin-binding molecule being dextran; at least one chloride salt of a divalent metal ion chosen from MgCl 2, CaCl 2 and MnCl 2 or a combination thereof, the composition being characterized by: the concentration of ConA is 1-1.5 mM based on the monomer concentration and the concentration of dextran is 1-1.5 mM wherein the continuous glucose sensor is: - measuring the changes in the concentrations of glucose in fluids in vitro or in vivo by detecting osmotic pressure differences, and - tracking glucose concentrations continuously through the recording of osmotic pressure, for measuring glucose concentrations in vitro or in vivo. a lectin, the lectin being Concanavalin A (ConA); a lectin-binding molecule having a molecular weight of 10-100 kDa, the lectin-binding molecule being dextran; at least one chloride salt of a divalent metal ion chosen from MgCl 2, CaCl 2 and MnCl 2 or a combination thereof, the composition being characterized by: the concentration of ConA is 1-1.5 mM based on the monomer concentration and the concentration of dextran is 1-1.5 mM wherein the continuous glucose sensor is: - measuring the changes in the concentrations of glucose in fluids in vitro or in vivo by detecting osmotic pressure differences, and - tracking glucose concentrations continuously through the recording of osmotic pressure, for measuring glucose concentrations in vitro or in vivo. - measuring the changes in the concentrations of glucose in fluids in vitro or in vivo by detecting osmotic pressure differences, and - tracking glucose concentrations continuously through the recording of osmotic pressure, for measuring glucose concentrations in vitro or in vivo.
Method for producing highly viscous emulsion explosive in a manner that is safe to handle using the gassing method, comprising the steps of producing an emulsion matrix of high viscosity, wherein the emulsion matrix has a viscosity of more than 60,000 mPas, preferably more than 80,000 mPas, particularly preferably more than 100,000 mPas; conveying the emulsion matrix of high viscosity through a conveying system using a lubrication medium, wherein the lubrication medium contains a gassing agent; mixing the emulsion matrix of high viscosity with the lubrication medium at the end of the conveying system; subsequently emulsifying the conveyed mixture of emulsion matrix of high viscosity and lubrication medium to form the highly viscous emulsion explosive.
A variable valve mechanism for an internal combustion engine, the variable valve mechanism characterized by comprising: a control shaft configured to be displaced in an axial direction of the control shaft, the control shaft being configured to change a maximum lift amount of an engine valve of the internal combustion engine according to displacement of the control shaft in the axial direction; and a cam (530; 630) including a cam surface of the cam (530; 630), the cam surface configured to abut with the control shaft, the cam (530; 630) being configured to displace the control shaft in the axial direction due to rotation of the cam (530; 630), the cam surface including change zones and retention zones (530a, 530b, 530c; 630a, 630b, 630c), the cam surface in the change zones being configured to change the maximum lift amount along with the rotation of the cam (530; 630), the cam surface in the retention zones (530a, 530b, 530c; 630a, 630b, 630c) being configured to retain the maximum lift amount along with the rotation of the cam (530; 630), respective lengths of the retention zones (530a, 530b, 530c; 630a, 630b, 630c) in a rotation direction of the cam (530; 630) being set such that respective length of the retention zones (530a, 530b, 530c; 630a, 630b, 630c) in the rotation direction increases as the maximum lift amount retained by the retention zones (530a, 530b, 530c; 630a, 630b, 630c) increases a control shaft configured to be displaced in an axial direction of the control shaft, the control shaft being configured to change a maximum lift amount of an engine valve of the internal combustion engine according to displacement of the control shaft in the axial direction; and a cam (530; 630) including a cam surface of the cam (530; 630), the cam surface configured to abut with the control shaft, the cam (530; 630) being configured to displace the control shaft in the axial direction due to rotation of the cam (530; 630), the cam surface including change zones and retention zones (530a, 530b, 530c; 630a, 630b, 630c), the cam surface in the change zones being configured to change the maximum lift amount along with the rotation of the cam (530; 630), the cam surface in the retention zones (530a, 530b, 530c; 630a, 630b, 630c) being configured to retain the maximum lift amount along with the rotation of the cam (530; 630), respective lengths of the retention zones (530a, 530b, 530c; 630a, 630b, 630c) in a rotation direction of the cam (530; 630) being set such that respective length of the retention zones (530a, 530b, 530c; 630a, 630b, 630c) in the rotation direction increases as the maximum lift amount retained by the retention zones (530a, 530b, 530c; 630a, 630b, 630c) increases
A method for providing mapping, data management and analysis, comprising: receiving at a server a user request for creation of a map with a desired Gaussian aggregation and desired color map parameters; loading vector data at the server comprising location data, the location data comprising at least one attribute; rasterizing the vector data to create image data composed of pixels; converting the image data to a certain scale grayscale image; performing a convolution operation on the grayscale image data to provide an aggregation of the data using a kernel radius; applying the convolution results to a color ramp; creating the map for the location data based on the color ramp and the convolution results and providing the map to the user; receiving a user request to zoom in on the map; performing a convolution operation on the grayscale image data to provide an aggregation of the data using a kernel radius wherein the kernel radius is adjusted in accordance with the desired zoom level; applying the convolution results to a color ramp; and, creating the map for the location data based on the color ramp and the convolution results and providing the map to the user. receiving at a server a user request for creation of a map with a desired Gaussian aggregation and desired color map parameters; loading vector data at the server comprising location data, the location data comprising at least one attribute; rasterizing the vector data to create image data composed of pixels; converting the image data to a certain scale grayscale image; performing a convolution operation on the grayscale image data to provide an aggregation of the data using a kernel radius; applying the convolution results to a color ramp; creating the map for the location data based on the color ramp and the convolution results and providing the map to the user; receiving a user request to zoom in on the map; performing a convolution operation on the grayscale image data to provide an aggregation of the data using a kernel radius wherein the kernel radius is adjusted in accordance with the desired zoom level; applying the convolution results to a color ramp; and, creating the map for the location data based on the color ramp and the convolution results and providing the map to the user.
A method of transmitting channel state information, CSI, measurement resource information by a base station, comprising: determining a first subframe set and a second subframe set, in which CSI measurement will be performed, among a plurality of downlink subframes; transmitting information indicating subframes belonging to the first subframe set or the second subframe set among the plurality of downlink subframes, to a terminal; and receiving the CSI of each of the first subframe set and the second subframe set from the terminal, wherein a subframe belonging to the first subframe set and a subframe belonging to the second subframe set do not overlap, and wherein some of the plurality of subframes do not belong to either of the first subframe set and the second subframe set. determining a first subframe set and a second subframe set, in which CSI measurement will be performed, among a plurality of downlink subframes; transmitting information indicating subframes belonging to the first subframe set or the second subframe set among the plurality of downlink subframes, to a terminal; and receiving the CSI of each of the first subframe set and the second subframe set from the terminal, wherein a subframe belonging to the first subframe set and a subframe belonging to the second subframe set do not overlap, and wherein some of the plurality of subframes do not belong to either of the first subframe set and the second subframe set.
A method of processing an audio signal for replay on an audio device, the audio signal encoded as a mid channel and a side channel, the method comprising: transmitting the side channel to a first signal pathway, wherein the first signal pathway includes a first full-band dynamic range compressor and outputs a processed side channel as a first signal pathway output; transmitting the mid channel to a second signal pathway and performing a spectral decomposition of the mid channel into a plurality of sub-band signals; processing the plurality of sub-band signals by: providing each sub-band signal to a respective dynamic range compressor, DRC, and compressing the sub-band signal; combining the plurality of sub-band signals into a processed mid channel; and outputting the processed mid channel as a second signal pathway output; and recombining the first and second signal pathway outputs and encoding the recombination into a processed left audio signal (L OUT) and a processed right audio signal (R OUT). transmitting the side channel to a first signal pathway, wherein the first signal pathway includes a first full-band dynamic range compressor and outputs a processed side channel as a first signal pathway output; transmitting the mid channel to a second signal pathway and performing a spectral decomposition of the mid channel into a plurality of sub-band signals; processing the plurality of sub-band signals by: providing each sub-band signal to a respective dynamic range compressor, DRC, and compressing the sub-band signal; combining the plurality of sub-band signals into a processed mid channel; and outputting the processed mid channel as a second signal pathway output; and recombining the first and second signal pathway outputs and encoding the recombination into a processed left audio signal (L OUT) and a processed right audio signal (R OUT). providing each sub-band signal to a respective dynamic range compressor, DRC, and compressing the sub-band signal; combining the plurality of sub-band signals into a processed mid channel; and outputting the processed mid channel as a second signal pathway output; and recombining the first and second signal pathway outputs and encoding the recombination into a processed left audio signal (L OUT) and a processed right audio signal (R OUT).
A centralizer, comprising: a first body portion (202, 502); a second body portion (204, 504); a plurality of bow springs connecting the first body portion (202, 502) to the second body portion (204, 504); and one or more expandable elements coupled to the first body portion (202, 502) and the second body portion (204, 504), characterized in that the one or more expandable elements extend, along their entire length, substantially straight between the first body portion (202, 502) and the second body portion (204,504). a first body portion (202, 502); a second body portion (204, 504); a plurality of bow springs connecting the first body portion (202, 502) to the second body portion (204, 504); and one or more expandable elements coupled to the first body portion (202, 502) and the second body portion (204, 504),
An active energy ray-curable offset printing ink composition comprising: a compound having an ethylenically unsaturated bond; a photopolymerization initiator; a colorant; and an extender pigment, wherein the extender pigment has a median diameter of 1.0 to 2.0 μm measured by laser diffractometry; and wherein the extender pigment is contained in a content of 0.5% to 5% by mass. a compound having an ethylenically unsaturated bond; a photopolymerization initiator; a colorant; and an extender pigment, wherein the extender pigment has a median diameter of 1.0 to 2.0 μm measured by laser diffractometry; and wherein the extender pigment is contained in a content of 0.5% to 5% by mass.