mhurhangee/ep-ind-claims huggingface dataset:
Vaporiser device for water, wherein - the vaporiser device includes a water tank having an outer wall, - a heating device is provided on the outer wall, - an inner partitioning wall is provided within the water tank, the wall extending spaced from the outer wall and defining an interior area in the water tank, - an exterior area is formed between inner partitioning wall and outer wall, - the water tank has a water inlet and a vapor outlet, - the water tank has at least one passage channel for water flow between the interior area and the exterior area, - the passage channel on the inner partitioning wall and through the inner partitioning wall is provided as at least one passage opening for the water down below on the inner partitioning wall or in a lower region of the inner partitioning wall, characterized in that - the inner partitioning wall extends largely in a straight line in the horizontal direction and has a tubular shape in the type of a lying tube, - the at least one passage channel is provided in the lower region of the inner partitioning wall. - the vaporiser device includes a water tank having an outer wall, - a heating device is provided on the outer wall, - an inner partitioning wall is provided within the water tank, the wall extending spaced from the outer wall and defining an interior area in the water tank, - an exterior area is formed between inner partitioning wall and outer wall, - the water tank has a water inlet and a vapor outlet, - the water tank has at least one passage channel for water flow between the interior area and the exterior area, - the passage channel on the inner partitioning wall and through the inner partitioning wall is provided as at least one passage opening for the water down below on the inner partitioning wall or in a lower region of the inner partitioning wall, - the inner partitioning wall extends largely in a straight line in the horizontal direction and has a tubular shape in the type of a lying tube, - the at least one passage channel is provided in the lower region of the inner partitioning wall.
Method of operating a wind power plant including a step of: operating the wind power plant at an current parameter schedule (P current (v)) performing a wind prediction of wind data (V w) for a time frame (ΔT) extending to a future time T, characterized by the method steps of: determining a desired fatigue load level (F desired) of a wind power plant component at the future time T, and during operation of said power plant generating an updated parameter schedule (P desired (v)) to provide the desired fatigue load level (F desired) at time T if exposed to the predicted wind conditions (V w (t)) during said time frame (ΔT). operating the wind power plant at an current parameter schedule (P current (v)) performing a wind prediction of wind data (V w) for a time frame (ΔT) extending to a future time T, characterized by the method steps of: determining a desired fatigue load level (F desired) of a wind power plant component at the future time T, and during operation of said power plant generating an updated parameter schedule (P desired (v)) to provide the desired fatigue load level (F desired) at time T if exposed to the predicted wind conditions (V w (t)) during said time frame (ΔT). determining a desired fatigue load level (F desired) of a wind power plant component at the future time T, and during operation of said power plant generating an updated parameter schedule (P desired (v)) to provide the desired fatigue load level (F desired) at time T if exposed to the predicted wind conditions (V w (t)) during said time frame (ΔT).
A network allocation vector -NAV-setting method in a wireless communications system, wherein the method comprises: receiving, by a receiving node, a physical layer protocol data unit -PPDU-sent by a transmitting node, wherein the PPDU is from an Overlapping Basic Service Set -OBSS-; determining, by the receiving node, whether the receiving node satisfies a condition of allowing simultaneous transmission; and if the condition of allowing simultaneous transmission is satisfied, keeping a current NAV value unchanged; or if the condition of allowing simultaneous transmission is not satisfied, decoding the received PPDU to obtain a duration field, and determining whether the value of the duration field is greater than the current NAV, and updating the current NAV if the value of the duration field is greater than the current NAV, or skipping updating the current NAV if the value of the duration field is not greater than the current NAV. receiving, by a receiving node, a physical layer protocol data unit -PPDU-sent by a transmitting node, wherein the PPDU is from an Overlapping Basic Service Set -OBSS-; determining, by the receiving node, whether the receiving node satisfies a condition of allowing simultaneous transmission; and if the condition of allowing simultaneous transmission is satisfied, keeping a current NAV value unchanged; or if the condition of allowing simultaneous transmission is not satisfied, decoding the received PPDU to obtain a duration field, and determining whether the value of the duration field is greater than the current NAV, and updating the current NAV if the value of the duration field is greater than the current NAV, or skipping updating the current NAV if the value of the duration field is not greater than the current NAV.
A controlled-impedance cable termination comprising: (a) a plate composed of an electrically-conductive material and having a face surface and a device surface; (b) at least one signal through hole in the plate extending between the face surface and the device surface; (c) an insulating plug within each of the at least one signal through hole, the insulating plug extending between the face surface and the device surface and having a signal through aperture with a signal block opening in the face surface and a signal device opening in the device surface; characterized in that the controlled-impedance cable termination further comprises: (d) an electrically-conductive, compliant, skewed-coil signal contact captured within each of the at least one signal through apertures, the signal contact having a coil of conductive, inherently elastic wire with a pair of oppositely extending leads, the leads extending in a direction angled from the coil axis such that, during compression, the coil loops are electrically shorted together while they slide along each other, the signal contact having a signal block contact point extending from the signal block opening and a signal device contact point extending from the signal device opening. (a) a plate composed of an electrically-conductive material and having a face surface and a device surface; (b) at least one signal through hole in the plate extending between the face surface and the device surface; (c) an insulating plug within each of the at least one signal through hole, the insulating plug extending between the face surface and the device surface and having a signal through aperture with a signal block opening in the face surface and a signal device opening in the device surface;
Suture package comprising - a tray-shaped base member with a central portion and with a peripheral wall portion and - a cover member configured to attach to the base member with an inner track wall and with an upper wall extending radially out from the inner track wall at an upper end thereof, wherein a suture channel is formed between the upper wall and the peripheral wall portion, characterized in that a rim of the peripheral wall portion is provided with a plurality of teeth each having a sloped edge at a rear side in a direction of winding for supporting a movement of a suture or a thread winding finger in a direction of winding. - a tray-shaped base member with a central portion and with a peripheral wall portion and - a cover member configured to attach to the base member with an inner track wall and with an upper wall extending radially out from the inner track wall at an upper end thereof,
Sampling device for taking a sample of a product from a flexible container, comprising: an attachment portion which is intended to be attached to an outer surface of the container and defines a passage; a sample collection chamber which is closed off from an external environment at least after the attachment portion has been attached to the container and in which a sample collection element is accommodated, wherein the sampling device is configured such that, after attachment the attachment portion to the container, the sample collection element can be passed through the passage so that an end portion of the sample collection element facing the outer surface pierces the outer surface of the container to collect the sample; a protective element which at least partially covers the end portion of the sample collection element in order to prevent unintentional damage to the outer surface and/or the sampling device, the protective element being adjustable on and/or detachable from the sample collection element in such a way that the end portion is exposed for piercing the outer surface; characterized in that the sample collection chamber is formed by a flexible foil, which on the one hand is attached to the attachment portion and on the other hand is directly or indirectly closed off, and the flexible foil, after the attachment portion is attached to the outer surface of the container, allows the protective element to be released/adjusted for guiding the sample collection element through the passage and piercing the outer surface. an attachment portion which is intended to be attached to an outer surface of the container and defines a passage; a sample collection chamber which is closed off from an external environment at least after the attachment portion has been attached to the container and in which a sample collection element is accommodated, wherein the sampling device is configured such that, after attachment the attachment portion to the container, the sample collection element can be passed through the passage so that an end portion of the sample collection element facing the outer surface pierces the outer surface of the container to collect the sample; a protective element which at least partially covers the end portion of the sample collection element in order to prevent unintentional damage to the outer surface and/or the sampling device, the protective element being adjustable on and/or detachable from the sample collection element in such a way that the end portion is exposed for piercing the outer surface; characterized in that the sample collection chamber is formed by a flexible foil, which on the one hand is attached to the attachment portion and on the other hand is directly or indirectly closed off, and the flexible foil, after the attachment portion is attached to the outer surface of the container, allows the protective element to be released/adjusted for guiding the sample collection element through the passage and piercing the outer surface.
Housing, comprising a slide-in compartment for receiving a module, the slide-in compartment comprising a receiving opening, a compartment base and a roof, wherein the compartment base and the roof are configured as identical components, wherein at least one side wall is provided, which has two guide webs, wherein a guide web is for acting as a guide counter-element for the module and wherein a lower guide web is assigned to or facing the compartment base and an upper guide web is assigned to or facing the roof, wherein the side wall is assigned a wall strip on the compartment base side and that the side wall is assigned a wall strip on the roof side, wherein a wall strip is for acting as a guide counter-element for the module, characterized in that each wall strip receives two spring elements, which extend in the direction of the interior of the slide-in compartment, and wherein the spring elements are for compensating for lateral tolerance of the module.
An oil-free screw compressor comprising: a compressor main unit having a pair of male and female screw rotors that are disposed horizontally, with shafts (26, 38) of the screw rotors being supported by bearings (27, 39, 40); an oil supply tank that stores oil; an oil supply line that supplies the oil in the oil supply tank to oil injection portions, such as the bearings (27, 39, 40) and the like of the compressor main unit; and an oil recovery line that collects the oil supplied to the oil injection portions such as the bearings (27, 39, 40) and the like from the compressor main unit to the oil supply tank, and shaft-sealing portions (28, 41) that are placed on two sides of a compressor chamber of the screw rotors in an axial direction thereof, and prevent the oil supplied to the oil injection portions, such as the bearings (27, 39, 40) and the like, from being mixed into the compressor chamber of the screw rotors, as well as preventing a process gas from leaking from the compressor chamber; and a supply process gas communication line that allows the suction port of the compressor main unit and an upper portion of the oil supply tank to communicate with each other; and an inside/outside shaft-sealing portion that separates the inside of the compressor main unit from the atmospheric air, characterized in that the screw compressor further comprises a suction port return line that allows the shaft-sealing portion on the discharge side of the compressor chamber and a suction port of the compressor main unit to have pressure-communication with each other. a compressor main unit having a pair of male and female screw rotors that are disposed horizontally, with shafts (26, 38) of the screw rotors being supported by bearings (27, 39, 40); an oil supply tank that stores oil; an oil supply line that supplies the oil in the oil supply tank to oil injection portions, such as the bearings (27, 39, 40) and the like of the compressor main unit; and an oil recovery line that collects the oil supplied to the oil injection portions such as the bearings (27, 39, 40) and the like from the compressor main unit to the oil supply tank, and shaft-sealing portions (28, 41) that are placed on two sides of a compressor chamber of the screw rotors in an axial direction thereof, and prevent the oil supplied to the oil injection portions, such as the bearings (27, 39, 40) and the like, from being mixed into the compressor chamber of the screw rotors, as well as preventing a process gas from leaking from the compressor chamber; and a supply process gas communication line that allows the suction port of the compressor main unit and an upper portion of the oil supply tank to communicate with each other; and an inside/outside shaft-sealing portion that separates the inside of the compressor main unit from the atmospheric air, characterized in that the screw compressor further comprises a suction port return line that allows the shaft-sealing portion on the discharge side of the compressor chamber and a suction port of the compressor main unit to have pressure-communication with each other.
A method of operating a cold glue applicator having application means connected to a glue reservoir by means of which application means cold glue can be applied to a target material, said method comprising the steps of: - generating moist air by means of a moist air generating device, and - feeding the generated moist air as inflow air to the application means, which are thus flowed against externally by the inflow air, wherein an inflow temperature, namely the temperature of the inflow air, is set to a temperature value above the dew point temperature of the inflow air by means of a temperature adjusting device, characterized in that the moist air generating device comprises an ultrasonic evaporator, namely an open water bath which is set into high-frequency oscillation during operation by means of an ultrasonic transducer, whereby water is propelled out of the surface layer of the water bath in very small droplets and is evaporated very quickly in the air supplied, i.e. in the supply air, due to the large surface area of the droplets relative to their volume, and the temperature adjusting device has a water bath cooler (36"), by means of which a water bath is cooled in such a way that a generation temperature, namely the temperature at which the moist air is generated, is set such that the inflow air has the inflow temperature. said method comprising the steps of: - generating moist air by means of a moist air generating device, and - feeding the generated moist air as inflow air to the application means, which are thus flowed against externally by the inflow air, - generating moist air by means of a moist air generating device, and - feeding the generated moist air as inflow air to the application means, which are thus flowed against externally by the inflow air, wherein an inflow temperature, namely the temperature of the inflow air, is set to a temperature value above the dew point temperature of the inflow air by means of a temperature adjusting device, characterized in that the moist air generating device comprises an ultrasonic evaporator, namely an open water bath which is set into high-frequency oscillation during operation by means of an ultrasonic transducer, whereby water is propelled out of the surface layer of the water bath in very small droplets and is evaporated very quickly in the air supplied, i.e. in the supply air, due to the large surface area of the droplets relative to their volume, and the temperature adjusting device has a water bath cooler (36"), by means of which a water bath is cooled in such a way that a generation temperature, namely the temperature at which the moist air is generated, is set such that the inflow air has the inflow temperature.
An optical device comprising an active liquid crystal element (10,120) having an active liquid crystal layer including a liquid crystal compound and capable of switching between first and second oriented states, wherein the active liquid crystal element includes two base layers disposed opposite to each other and the active liquid crystal layer existing between the two base layers, a polarizer, and a hard coating layer having a thickness of 2μm or more is formed on at least one side of the base layers; characterized in that the optical device further comprises two outer substrates disposed opposite to each other and an adhesive film, wherein the active liquid crystal element and the polarizer are sequentially disposed between the two outer substrates, the adhesive film is present between the outer substrate and the active liquid crystal element, between the active liquid crystal element and the polarizer, between the polarizer and the outer substrate, and on the sides of the active liquid crystal element and the polarizer, and the active liquid crystal element and the polarizer are encapsulated by the adhesive film between the two outer substrates. crystal layer including a liquid crystal compound and capable of switching between first and second oriented states, wherein the active liquid crystal element includes two base layers disposed opposite to each other and the active liquid crystal layer existing between the two base layers, a polarizer, and a hard coating layer having a thickness of 2μm or more is formed on at least one side of the base layers; characterized in that the optical device further comprises two outer substrates disposed opposite to each other and an adhesive film, wherein the active liquid crystal element and the polarizer are sequentially disposed between the two outer substrates, the adhesive film is present between the outer substrate and the active liquid crystal element, between the active liquid crystal element and the polarizer, between the polarizer and the outer substrate, and on the sides of the active liquid crystal element and the polarizer, and the active liquid crystal element and the polarizer are encapsulated by the adhesive film between the two outer substrates.
A fault current limiting control and protection coordination method for a converter of a flexible direct current transmission system operating in an islanding state, characterized in that: coordinating a value of an output current of the converter with a set operating value for an AC line overcurrent protection, wherein: once a fault of a connected AC system is detected, a current output command limit Imax for the converter is set equal to a value for an AC line overcurrent protection section III; a set value for an AC line overcurrent protection section I is set smaller than a set value for a converter bridge arm overcurrent protection section I; the converter bridge arm overcurrent protection section I is set considering an instantaneous overload capability of the converter; a set value for a proximal AC line overcurrent protection section II is set larger than a set value for a converter bridge arm overcurrent protection section II, and a delay for the proximal AC line overcurrent protection section II is shorter than a delay for the converter bridge arm overcurrent protection section II and the converter bridge arm overcurrent protection section II works as a backup; a set value for a distal AC line overcurrent protection section II is set smaller than the set value for the converter bridge arm overcurrent protection section II, and the converter bridge arm overcurrent protection section II is used as a remote backup.
A fire or overheat detection device comprising: a tube extending from a first end to a second end, wherein the first end is closed; a diaphragm connected to the second end; a gas disposed inside the tube; and a light source; characterized by a first lens aligned with the light source; a second lens aligned with the first lens, wherein the first lens is between the light source and the second lens; a first mirror of a Fabry-Perot interferometer between the first lens and the second lens; a second mirror of the Fabry-Perot interferometer between the first mirror and the second lens; an image sensor, wherein the second lens is between the second mirror and the image sensor; and a linkage member connected to the second mirror and to the diaphragm. a tube extending from a first end to a second end, wherein the first end is closed; a diaphragm connected to the second end; a gas disposed inside the tube; and a light source; characterized by a first lens aligned with the light source; a second lens aligned with the first lens, wherein the first lens is between the light source and the second lens; a first mirror of a Fabry-Perot interferometer between the first lens and the second lens; a second mirror of the Fabry-Perot interferometer between the first mirror and the second lens; an image sensor, wherein the second lens is between the second mirror and the image sensor; and a linkage member connected to the second mirror and to the diaphragm.
Method for the management of a motor vehicle comprising at least one driving engine having an output shaft which is coupled with the drive train of the vehicle and drives same, the management method including a step of switching from a first configuration in which at least one accessory separate from the drive train is coupled with, and driven by, said output shaft, to a second temporary configuration in which said at least one accessory is disconnected from said output shaft, the management method being characterized in that the second configuration is implemented during a phase for increasing the torque output by said at least one driving engine.