mhurhangee/ep-ind-claims huggingface dataset:
A gasification reactor comprising a gasification chamber with a gas injection system arranged in its lower part for injecting gas into the gasification chamber, said gas injection system comprising a gas injection grid and means for the continuous extraction of ashes that build up in the gasification chamber on the grid, characterized in that these means for extracting ashes comprise - a scraping arm assembled such that it rotates about an axis of rotation normal to the grid and extending a certain distance over the grid; - operating means for operating the scraping arm according to a direction of rotation; and - an ash collection container with a bottom arranged at a level below the grid and sides laterally enveloping the grid, a passage being determined between the contour of said grid and the sides of the container for driving the ashes that are emptied from the grid to the bottom of the container, the scraping arm having a leading section configured in the shape of a spiral with the center in the axis of rotation generating, as it moves with respect to the grid, lateral movement of the ash built up on the grid beyond the contour thereof to be emptied into the bottom of the container by gravity. - a scraping arm assembled such that it rotates about an axis of rotation normal to the grid and extending a certain distance over the grid; - operating means for operating the scraping arm according to a direction of rotation; and - an ash collection container with a bottom arranged at a level below the grid and sides laterally enveloping the grid, a passage being determined between the contour of said grid and the sides of the container for driving the ashes that are emptied from the grid to the bottom of the container,
A laparoscopic port site closure device, which is in a tube shape for being introduced into a port site, comprising: a tubular body provided with needle guides that guide insertion of a needle; wings mounted to a lower portion of the tubular body such that the wings are opened and closed through a cam method by an operating stick penetrating through the tubular body configured to operate the wings by being pushed to open the wings pulled to close the wings, the laparoscopic port site closure device further comprising: a replaceable cartridge provided on a lower end of the tubular body to be detachably combined with the operating stick, wherein the cartridge is provided with the wings capable of being opened by operating the operating stick, and provided with a compartment for receiving surgical suture therein, characterized in that the laparoscopic port site closure device is configured such that opposites ends of the surgical suture in the compartment are mounted on the wings in mounting holes, such that the ends of the surgical suture are pulled out of a patient's body by being caught by a suture slot of a needle passed through the needle guides that is pierced into the patient's body from outside. a replaceable cartridge provided on a lower end of the tubular body to be detachably combined with the operating stick, wherein the cartridge is provided with the wings capable of being opened by operating the operating stick, and provided with a compartment for receiving surgical suture therein, characterized in that the laparoscopic port site closure device is configured such that opposites ends of the surgical suture in the compartment are mounted on the wings in mounting holes, such that the ends of the surgical suture are pulled out of a patient's body by being caught by a suture slot of a needle passed through the needle guides that is pierced into the patient's body from outside.
Package for holding a urinary catheter, the package comprising a vessel positioned in an inner volume of the package, the vessel being tubular in shape with a first and second opening allowing the urinary catheter to be movably arranged in an inner volume of the vessel; an enveloping housing entirely enclosing the urinary catheter when packaged, characterized in that the enveloping housing comprises at least three tubular parts (2, 3, 6) for accommodating the urinary catheter, wherein a first and second straight part (2, 3) of the at least three tubular parts (2, 3, 6) are of a hard plastic material, and a third part is of a flexible material; an inner lumen of the third part interconnecting inner lumens of the first and second straight part (2, 3); a cap for providing access to an inner volume of the package, and the first straight part being closed off at a bottom end thereof and the second straight part being closeable by the cap and comprising the vessel.
Method for operating an externally excited electric machine, in particular synchronous machine, in which method - a variable which characterizes a rotor temperature (Temp_Rotor) and/or a stator temperature are determined, and - an exciter current (I_E) and stator currents (I_U, I_V, I_W) for the electric machine are specified, at least in predefinable operating ranges, as a function of the variable which characterizes the rotor temperature (Temp_Rotor) and/or the stator temperature, - wherein in a first operating range in which the rotor temperature (Temp_Rotor) and/or the stator temperature are/is below a predefinable first limiting value, the exciter current (I_E) and the stator currents (I_U, I_V, I_W) are specified in a way which is optimized in terms of efficiency for a predefined working point of the electric machine, which is defined by a torque and a rotational speed, independently of the rotor temperature (Temp_Rotor) and/or the stator temperature; and - in a second operating range in which the rotor temperature (Temp_Rotor) and/or the stator temperature are/is above the first limiting value but below a predefinable second limiting value, the exciter current (I_E) and the stator current (I_U, I_V, I_W) of the electric machine are specified as a function of the variable which characterizes the rotor temperature (Temp_Rotor) and/or the stator temperature, without at the same time reducing a maximum permissible power (P_Max) of the electric machine. - a variable which characterizes a rotor temperature (Temp_Rotor) and/or a stator temperature are determined, and - an exciter current (I_E) and stator currents (I_U, I_V, I_W) for the electric machine are specified, at least in predefinable operating ranges, as a function of the variable which characterizes the rotor temperature (Temp_Rotor) and/or the stator temperature, - wherein in a first operating range in which the rotor temperature (Temp_Rotor) and/or the stator temperature are/is below a predefinable first limiting value, the exciter current (I_E) and the stator currents (I_U, I_V, I_W) are specified in a way which is optimized in terms of efficiency for a predefined working point of the electric machine, which is defined by a torque and a rotational speed, independently of the rotor temperature (Temp_Rotor) and/or the stator temperature; and - in a second operating range in which the rotor temperature (Temp_Rotor) and/or the stator temperature are/is above the first limiting value but below a predefinable second limiting value, the exciter current (I_E) and the stator current (I_U, I_V, I_W) of the electric machine are specified as a function of the variable which characterizes the rotor temperature (Temp_Rotor) and/or the stator temperature, without at the same time reducing a maximum permissible power (P_Max) of the electric machine.
A mounting device for an elongate member, comprising: an elongate housing having an elongate axis; an internal passageway passing through the elongate housing parallel to the elongate axis; an elongate sleeve located within the internal passageway and being configured for longitudinal movement along the passageway; a plurality of ball-receiving recesses in the wall of the internal passageway, each recess having a ball-guiding surface inclined to the longitudinal axis; a plurality of apertures in the sleeve; a ball located in each of the ball-receiving recesses and engaged with a respective aperture in the sleeve, the balls and the apertures being configured to allow the balls to project partially through the apertures but to prevent balls from passing through; biasing means configured to bias the sleeve in a direction to urge the balls to project radially inwardly through their respective apertures in the sleeve and into the internal passageway; and characterised by guide means for guiding a mandrel into the internal passageway, wherein the guide means is connected to, and moves with, the sleeve. an elongate housing having an elongate axis; an internal passageway passing through the elongate housing parallel to the elongate axis; an elongate sleeve located within the internal passageway and being configured for longitudinal movement along the passageway; a plurality of ball-receiving recesses in the wall of the internal passageway, each recess having a ball-guiding surface inclined to the longitudinal axis; a plurality of apertures in the sleeve; a ball located in each of the ball-receiving recesses and engaged with a respective aperture in the sleeve, the balls and the apertures being configured to allow the balls to project partially through the apertures but to prevent balls from passing through; biasing means configured to bias the sleeve in a direction to urge the balls to project radially inwardly through their respective apertures in the sleeve and into the internal passageway; and characterised by guide means for guiding a mandrel into the internal passageway, wherein the guide means is connected to, and moves with, the sleeve.
Azeotropic composition comprising from 76% to 79% by weight of HFO-1234yf, from 12% to 15% by weight of HFC-152a and from 7% to 9% by weight of HFC-134a, relative to the total weight of the composition, said composition having a boiling point between -40.00°C and 70.00°C, at a pressure between 0.5 and 21.0 bar abs (± 0.5%).
A device for use in performing an assay comprising: a substrate comprising a channel; at least one optical element comprising: a substantially planar base; an upper surface opposite the base comprising a curved portion; the base comprising a portion which forms an input port for receiving light and a light guide portion 515 substantially parallel to the base; an output port substantially perpendicular to the base and provided at an end of the light guide portion for delivering light to the channel, wherein said curved portion is arranged to direct light received at the input port into the light guide portion by internal reflection and a detection port optically coupled to the channel through which light emitted from the channel is detected. a substrate comprising a channel; at least one optical element comprising: a substantially planar base; an upper surface opposite the base comprising a curved portion; the base comprising a portion which forms an input port for receiving light and a light guide portion 515 substantially parallel to the base; an output port substantially perpendicular to the base and provided at an end of the light guide portion for delivering light to the channel, wherein said curved portion is arranged to direct light received at the input port into the light guide portion by internal reflection and a detection port optically coupled to the channel through which light emitted from the channel is detected. a substantially planar base; an upper surface opposite the base comprising a curved portion; the base comprising a portion which forms an input port for receiving light and a light guide portion 515 substantially parallel to the base; an output port substantially perpendicular to the base and provided at an end of the light guide portion for delivering light to the channel, wherein said curved portion is arranged to direct light received at the input port into the light guide portion by internal reflection and a detection port optically coupled to the channel through which light emitted from the channel is detected.
A method for autonomous and adaptive data security by processing data, comprising: executing on a processor a cognitive data file, the cognitive data file being a computer file comprising autonomous security means embedded in data for securing the data, wherein the processor is configured to perform steps comprising: establishing an initial dormant state for the data from a plurality of states including dormant, active, and moving; monitoring for a state change event of the data to an active or moving state; logging the state change event and data structure fields into memory along with metadata describing the data state, wherein the metadata contains at least data creator information, current user information, and current data environment information; establishing an indication of degree of trust of a data instantiation based on said state change event and data structure fields, wherein the degree of trust includes at least one of a degree of certainty or level of confidence that the data instantiation is permitted; determining and applying security requirements to permit a user access to contents of the data instantiation based on the degree of trust of the data instantiation; and managing and controlling the computational environment of said data based on the security requirements. establishing an initial dormant state for the data from a plurality of states including dormant, active, and moving; monitoring for a state change event of the data to an active or moving state; logging the state change event and data structure fields into memory along with metadata describing the data state, wherein the metadata contains at least data creator information, current user information, and current data environment information; establishing an indication of degree of trust of a data instantiation based on said state change event and data structure fields, wherein the degree of trust includes at least one of a degree of certainty or level of confidence that the data instantiation is permitted; determining and applying security requirements to permit a user access to contents of the data instantiation based on the degree of trust of the data instantiation; and managing and controlling the computational environment of said data based on the security requirements.
A thermoplastic resin composition comprising: 100 parts by weight of a thermoplastic resin comprising 20 wt% to 50 wt% of a rubber-modified vinyl graft copolymer and 50 wt% to 80 wt% of an aromatic vinyl copolymer; a heat stabilizer comprising 0.05 to 2 parts by weight of a phenol-based heat stabilizer and 0.05 to 2 parts by weight of a phosphorus-based heat stabilizer; and 0.3 to 10 parts by weight of zinc oxide having an average particle size of 0.5 μm to 3 μm, as measured using a particle size analyzer, and a BET specific surface area of 1 m 2 /g to 10 m 2 /g, as measured by a nitrogen gas adsorption method using a BET analyzer. 100 parts by weight of a thermoplastic resin comprising 20 wt% to 50 wt% of a rubber-modified vinyl graft copolymer and 50 wt% to 80 wt% of an aromatic vinyl copolymer; a heat stabilizer comprising 0.05 to 2 parts by weight of a phenol-based heat stabilizer and 0.05 to 2 parts by weight of a phosphorus-based heat stabilizer; and 0.3 to 10 parts by weight of zinc oxide having an average particle size of 0.5 μm to 3 μm, as measured using a particle size analyzer, and a BET specific surface area of 1 m 2 /g to 10 m 2 /g, as measured by a nitrogen gas adsorption method using a BET analyzer.
High power flat saw having a large diameter saw blade, said flat saw comprising a motor and a blade shaft drive, wherein said blade shaft drive comprises a first pulley and a second pulley and a belt, said second pulley being directly connected to a blade shaft, said first pulley having a smaller diameter than the diameter of said second pulley, and wherein said drive further comprises a variable belt tensioner arranged to apply a variable force to said belt, wherein the first pulley is directly connected to a power take out shaft being an extension of a crankshaft/rotor of said motor, wherein said first and said second pulleys are directly rotationally connected by the belt, wherein the belt is a low profile poly V belt, and wherein the variable belt tensioner of the blade shaft drive comprises a resilient member, said belt tensioner further comprises a rotatable idler pulley for contact with the belt and a pivot arm connecting the idler pulley to the resilient member, where the reduction ratio of the blade shaft drive from the power take out shaft to the blade shaft is in the range of between 1:3.6 and 1:1.5, preferably approximately 1:2 for a blade diameter of approximately 760 mm, and where the variable belt tensioner is adapted to harmonize the tension in the belt during different load conditions.
A method of performing a sizing analysis, the method comprising: (a) providing a sizing ladder, wherein the sizing ladder contains components of a known size and relates component size to migration time, wherein separated components are identified as peaks; (b) providing a concentration for each peak in the sizing ladder; (c) separating a sample into a plurality of components in a fractionation device by electrophoresis; (d) computing a sample concentration up to a migration time (ti) of each ladder peak (i); characterized in that the method comprises: (e) normalizing the sample concentration up to the migration time (ti) to a sizing ladder concentration up to the migration time (ti) using the formula C N i = C S t i / C L i where C S (t i) is the cumulative sample concentration up to the time t i C L (i) is the sum of the ladder peak concentrations up to the i th ladder peak; (f) correcting the sizing ladder peak (i) migration time using the formula t ∗ i = f t i, C N, p 1, p 2 p 3,... p n where f is a function of ti, C N, and any number of specified parameters (p n); (g) repeating steps (c) through (f) for each component of the plurality of components; and (h) performing a sizing analysis of the plurality of components disposed in the fractionation device using the corrected ladder peak migration times. (a) providing a sizing ladder, wherein the sizing ladder contains components of a known size and relates component size to migration time, wherein separated components are identified as peaks; (b) providing a concentration for each peak in the sizing ladder; (c) separating a sample into a plurality of components in a fractionation device by electrophoresis; (d) computing a sample concentration up to a migration time (ti) of each ladder peak (i); characterized in that the method comprises: (e) normalizing the sample concentration up to the migration time (ti) to a sizing ladder concentration up to the migration time (ti) using the formula C N i = C S t i / C L i where C S (t i) is the cumulative sample concentration up to the time t i C L (i) is the sum of the ladder peak concentrations up to the i th ladder peak; where C S (t i) is the cumulative sample concentration up to the time t i C L (i) is the sum of the ladder peak concentrations up to the i th ladder peak; (f) correcting the sizing ladder peak (i) migration time using the formula t ∗ i = f t i, C N, p 1, p 2 p 3,... p n where f is a function of ti, C N, and any number of specified parameters (p n); (g) repeating steps (c) through (f) for each component of the plurality of components; and (h) performing a sizing analysis of the plurality of components disposed in the fractionation device using the corrected ladder peak migration times.
A climbing product whose sections are extendable comprising: a base section having a first base rail and a second base rail in parallel and spaced relationship with the first base rail and base rungs attached to and between the first and second base rails; a fly section having a first fly rail and a second fly rail in parallel and spaced relationship with the first fly rail and fly rungs attached to and between the first and second fly rails, the fly section in sliding engagement with the base section; and a lock assembly having a lock fly portion directly attached to the fly section, the lock fly portion directly engages with the base section to lock the base section with the fly section, the lock fly portion has a plunger, the lock fly portion disengages from the base portion by moving the plunger, wherein the lock assembly 28 includes a lock base portion directly attached to the base section, the lock fly portion directly engages with the lock base portion to lock the fly section to the base section, the lock fly portion disengages from the lock base portion by moving the plunger, characterized in that the lock base portion includes a socket disposed in one of the base rungs, and the lock fly portion includes a flip lock (36, 36.) which fits into the socket to lock the fly section to the base section so the fly section cannot move downwards relative to the base section when the fly section is locked to the base section, the flip lock (36, 36.) disposed in one of the fly rungs. a base section having a first base rail and a second base rail in parallel and spaced relationship with the first base rail and base rungs attached to and between the first and second base rails; a fly section having a first fly rail and a second fly rail in parallel and spaced relationship with the first fly rail and fly rungs attached to and between the first and second fly rails, the fly section in sliding engagement with the base section; and a lock assembly having a lock fly portion directly attached to the fly section, the lock fly portion directly engages with the base section to lock the base section with the fly section, the lock fly portion has a plunger, the lock fly portion disengages from the base portion by moving the plunger, wherein the lock assembly 28 includes a lock base portion directly attached to the base section, the lock fly portion directly engages with the lock base portion to lock the fly section to the base section, the lock fly portion disengages from the lock base portion by moving the plunger, characterized in that the lock base portion includes a socket disposed in one of the base rungs, and the lock fly portion includes a flip lock (36, 36.) which fits into the socket to lock the fly section to the base section so the fly section cannot move downwards relative to the base section when the fly section is locked to the base section, the flip lock (36, 36.) disposed in one of the fly rungs.
A method for reducing the resistivity of a carbon nanotube nonwoven sheet, the method comprising: providing a carbon nanotube nonwoven sheet comprising a plurality of carbon nanotubes; applying pressure to the carbon nanotube nonwoven sheet to reduce air voids between carbon nanotubes within the carbon nanotube nonwoven sheet, and heating the carbon nanotube nonwoven sheet, wherein the steps of applying pressure to the carbon nanotube nonwoven sheet and heating the carbon nanotube nonwoven sheet occur simultaneously. providing a carbon nanotube nonwoven sheet comprising a plurality of carbon nanotubes; applying pressure to the carbon nanotube nonwoven sheet to reduce air voids between carbon nanotubes within the carbon nanotube nonwoven sheet, and heating the carbon nanotube nonwoven sheet, wherein the steps of applying pressure to the carbon nanotube nonwoven sheet and heating the carbon nanotube nonwoven sheet occur simultaneously.