mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a ventilation device, the ventilation device having a radial fan for conveying air, which has a radial fan rotor and an electronically commutated electric motor for driving the radial fan rotor and has a fan characteristic curve (1, 2, 3, 4, 5) according to which the radial fan effects a specific pressure difference (Δp) across the radial fan at a specific volumetric flow conveyed by the radial fan, wherein in constant operation of the radial fan with at least one constant operating parameter a constant operation characteristic curve is present and a maximum pressure difference (Δp max) results at a minimum volumetric flow and a maximum volumetric flow (V max) results at a minimum pressure difference, wherein a power consumption of the electric motor and/or a current consumption of the electric motor and/or a rotational speed of the electric motor and/or a duty cycle for pulse-width modulated control of the radial fan is used as the constant operating parameter, the radial fan being operated in at least one operating mode by changing the fan characteristic curve in such a way that the fan characteristic curve (3, 4, 5) differs from the constant operation characteristic curve, so that a limiting pressure difference which is present at minimum volumetric flow is smaller than the maximum pressure difference (Δ pmax), characterized in that, in the at least one operating mode, in the case of a pressure difference between the minimum pressure difference and an intermediate pressure difference, an actual volumetric flow conveyed by the radial fan is regulated to a setpoint volumetric flow using the rotational speed of the electric motor as a control variable and, in the case of a pressure difference between the intermediate pressure difference and the maximum pressure difference, with the pressure difference increasing starting from the intermediate pressure difference, the rotational speed is kept constant or is reduced so that the limiting pressure difference is smaller than the maximum pressure difference.
A user posture support device to support a user in a pre-determined posture, comprising: a base comprising a first memory foam layer, a second memory foam layer and a sensor layer, wherein the sensor layer comprises multiple pressure sensors and is disposed in between the first memory foam layer and the second memory foam layer; multiple compressible cells disposed on the first memory foam layer of the base, wherein the multiple compressible cells comprise a first compressible cell and a second compressible cell; and a pressure control device configured, based on inputs from at least one pressure sensor of the multiple pressure sensors, to: inflate and/or deflate the first compressible cell at a first contact area of the user; and inflate and/or deflate the second compressible cell at a second contact area of the user. a base comprising a first memory foam layer, a second memory foam layer and a sensor layer, wherein the sensor layer comprises multiple pressure sensors and is disposed in between the first memory foam layer and the second memory foam layer; multiple compressible cells disposed on the first memory foam layer of the base, wherein the multiple compressible cells comprise a first compressible cell and a second compressible cell; and a pressure control device configured, based on inputs from at least one pressure sensor of the multiple pressure sensors, to: inflate and/or deflate the first compressible cell at a first contact area of the user; and inflate and/or deflate the second compressible cell at a second contact area of the user. inflate and/or deflate the first compressible cell at a first contact area of the user; and inflate and/or deflate the second compressible cell at a second contact area of the user.
Cocurrent fixed-bed gasifier for producing a product gas from pourable biomass particles, comprising a gasifier vessel, a feed conduit for the biomass particles in the upper region of the gasifier vessel, a grating located in the lower region of the gasifier vessel for supporting the biomass particles, an air feed conduit for introducing combustion air into the gasifier vessel, a product gas offtake leading out from the region under the grating of the gasifier vessel for discharging the product gas from the gasifier vessel, and a tubular gasifier component which projects into the gasifier vessel, where the tubular gasifier component has an open end which is arranged in the gasifier vessel, where the tubular gasifier component has a closed end which projects out of the gasifier vessel or ends flush with the upper side of the gasifier vessel, where the internal diameter (d) of the tubular gasifier component is smaller than the internal diameter of the gasifier vessel, where the tubular gasifier component is arranged in the gasifier vessel in such a way that a spacing (h) remains between the open end of the tubular gasifier component and the grating, and where the feed conduit for the biomass particles opens into the closed end of the tubular gasifier component, characterized in that the air feed conduit opens into the closed end of the tubular gasifier component.
A method for wireless communications for a first user equipment (115, 115a, 115b), UE, comprising: transmitting, to a set of UEs (115, 115a, 115b), an indication of a first semi-static traffic pattern between the first UE and a second UE, wherein the first semi-static traffic pattern indicates a pattern for transmission or reception between the first UE and the second UE using a beam pair during a time period; receiving, from one or more UEs (115, 115a, 115b) of the set of UEs (115, 115a, 115b), a response indicating one or more semi-static traffic patterns for the time period, the one or more semi-static traffic patterns corresponding to the first semi-static traffic pattern during the time period; and transmitting, to a third UE of the one or more UEs (115, 115a, 115b), an indication of selection of a second semi-static traffic pattern for communication between the first UE and the third UE during the time period. transmitting, to a set of UEs (115, 115a, 115b), an indication of a first semi-static traffic pattern between the first UE and a second UE, wherein the first semi-static traffic pattern indicates a pattern for transmission or reception between the first UE and the second UE using a beam pair during a time period; receiving, from one or more UEs (115, 115a, 115b) of the set of UEs (115, 115a, 115b), a response indicating one or more semi-static traffic patterns for the time period, the one or more semi-static traffic patterns corresponding to the first semi-static traffic pattern during the time period; and transmitting, to a third UE of the one or more UEs (115, 115a, 115b), an indication of selection of a second semi-static traffic pattern for communication between the first UE and the third UE during the time period.
A loop member for a surface fastener, comprising a loop layer and a base material layer; wherein the loop layer comprises a short fiber nonwoven material; the base material layer comprises a short fiber nonwoven material, and is calendared; the ratio of the average fiber fineness of the fibers in the loop layer and the average fiber fineness of the fibers in the base material layer as expressed by [average fiber fineness of fibers in the loop layer]/[average fiber fineness of fibers in the base material layer] is 1.5 to 30, and the thickness of the base material layer is 15 μm to 100 μm.
A method for an operation of a control device in a contents sharing network, the method comprising: determining whether the control device is connected to the network; in response to the control device being connected to the network, searching for at least one device connected to the network; determining at least one service available among a plurality of services provided through the network; in response to the search and the determination, when a plurality of devices are discovered through the search and a plurality of services are determined, displaying an indicator indicating an existence and a number of the plurality of devices discovered through the search and an existence and a number of the plurality of determined services; detecting a selection of the indicator; displaying a list of the discovered devices and a list of the determined services; detecting a selection of one of the displayed devices; detecting a selection of one of the displayed services; and communicating with the selected device through the network, wherein the communicating with the selected device comprises: providing the selected service to the selected device through the network. determining whether the control device is connected to the network; in response to the control device being connected to the network, searching for at least one device connected to the network; determining at least one service available among a plurality of services provided through the network; in response to the search and the determination, when a plurality of devices are discovered through the search and a plurality of services are determined, displaying an indicator indicating an existence and a number of the plurality of devices discovered through the search and an existence and a number of the plurality of determined services; detecting a selection of the indicator; displaying a list of the discovered devices and a list of the determined services; detecting a selection of one of the displayed devices; detecting a selection of one of the displayed services; and communicating with the selected device through the network, wherein the communicating with the selected device comprises: providing the selected service to the selected device through the network.
Ladder assembly for a work vehicle, said ladder assembly comprising a pair of lateral support elements spaced apart with respect to a longitudinal axis of said vehicle and a plurality of steps laterally comprised by and secured to said lateral support elements, said ladder assembly is characterized in that said steps comprise a step portion configured to be stepped by the user and a pair of lateral portions extending from at least part of said step portion along a vertical axis perpendicular to said longitudinal axis and defining a lower edge opposite to said step portion, and said lower edge of said lateral portions is connected via a welding to said lateral support elements, and said lateral portions defining a minimum gap with respect to said lateral support elements and extending inclined from said step portion with respect to said vertical axis. said ladder assembly is characterized in that said steps comprise a step portion configured to be stepped by the user and a pair of lateral portions extending from at least part of said step portion along a vertical axis perpendicular to said longitudinal axis and defining a lower edge opposite to said step portion, and said lower edge of said lateral portions is connected via a welding to said lateral support elements, and said lateral portions defining a minimum gap with respect to said lateral support elements and extending inclined from said step portion with respect to said vertical axis.
A compound of formula or a pharmaceutically acceptable salt, solvate, hydrate, polymorph or stereoisomer thereof, wherein, T is -C*H(R 1)-P-Q; R 1 is C 1 -C 6 alkyl; P is heteroaryl ring; Q is unsubstituted or substituted aryl or heteroaryl ring; and P is attached to Q via carbon-carbon link; and R 3 is hydrogen or fluorine. T is -C*H(R 1)-P-Q; R 1 is C 1 -C 6 alkyl; P is heteroaryl ring; Q is unsubstituted or substituted aryl or heteroaryl ring; and P is attached to Q via carbon-carbon link; and R 3 is hydrogen or fluorine.
A crystalline form of a compound having the formula: wherein the compound is a sesquihydrate; and wherein the crystalline form is crystalline Form A characterized by x-ray powder diffraction peaks at 2Θ angles (± 0.2°) 9.9°, 15.8°, and 22.6°.
A radio frequency ("RF") power amplifier circuit, comprising: a power amplifier coupled to receive and amplify an RF input signal to generate an RF output signal; a power amplifier controller including an amplitude control loop arranged to determine an amplitude correction signal indicative of an amplitude difference between an amplitude of the RF input signal and an attenuated amplitude of the RF output signal; and an adjustable matching network coupled to an output of the power amplifier, and arranged to receive a first portion of the amplitude correction signal, the first portion of the amplitude correction signal being a portion of the amplitude correction signal in a first frequency range, the amplitude control loop arranged to control the adjustable matching network to adjust a load line of the power amplifier based on the first portion of the amplitude correction signal. a power amplifier coupled to receive and amplify an RF input signal to generate an RF output signal; a power amplifier controller including an amplitude control loop arranged to determine an amplitude correction signal indicative of an amplitude difference between an amplitude of the RF input signal and an attenuated amplitude of the RF output signal; and an adjustable matching network coupled to an output of the power amplifier, and arranged to receive a first portion of the amplitude correction signal, the first portion of the amplitude correction signal being a portion of the amplitude correction signal in a first frequency range, the amplitude control loop arranged to control the adjustable matching network to adjust a load line of the power amplifier based on the first portion of the amplitude correction signal.
An electrode interface (20, 50, 60, 70) for a prosthetic assembly comprising a prosthetic liner and a prosthetic socket, the electrode interface comprising: an electrode configured to be secured to the liner (12, 122) with an electrical conduit arranged to transfer an electrical potential from an interior side (96, 126) of the prosthetic liner to an exterior side (98, 128) of the prosthetic liner, wherein the electrode defines an inner portion configured to cover a predetermined surface area of the interior side of the liner, an outer portion and a connecting portion (38, 40) connecting the inner portion to the outer portion, wherein the interior side of the prosthetic liner has a body portion defined by an elastomeric material and the electrical conduit is configured to extend from an inner portion of the electrode on the interior side of the prosthetic liner to the exterior side of the body portion along which extends a textile layer (94, 124) of the liner, wherein the inner portion, the outer portion and the connecting portion are defined by a conductive textile, characterized in that the outer portion is configured to cover a predetermined surface area of the exterior side of the liner, the connecting portion (38, 40) is sized and configured to a width of the prosthetic liner (12, 122), wherein the outer portion of the electrode is configured to extend along the exterior side of the body portion and to be flush with said textile layer (94, 124) of the liner (12, 122), and be exposed along the textile layer (94, 124). wherein the electrode defines an inner portion configured to cover a predetermined surface area of the interior side of the liner, an outer portion and a connecting portion (38, 40) connecting the inner portion to the outer portion, wherein the interior side of the prosthetic liner has a body portion defined by an elastomeric material and the electrical conduit is configured to extend from an inner portion of the electrode on the interior side of the prosthetic liner to the exterior side of the body portion along which extends a textile layer (94, 124) of the liner, wherein the inner portion, the outer portion and the connecting portion are defined by a conductive textile, characterized in that the outer portion is configured to cover a predetermined surface area of the exterior side of the liner, the connecting portion (38, 40) is sized and configured to a width of the prosthetic liner (12, 122), wherein the outer portion of the electrode is configured to extend along the exterior side of the body portion and to be flush with said textile layer (94, 124) of the liner (12, 122), and be exposed along the textile layer (94, 124).
A control method for a vehicle that has a motive power source mounted thereon and has the motive power source enabled by wireless communication between a portable device and an on-vehicle communication device to operate, the control method comprising: controlling a state of power supply from a power source to the motive power source and an on-vehicle electric device according to the switching of a power source position of a power source position-switching device by an occupant, detecting the power source position; and controlling electric power from the power source such that the electric power is supplied to the on-vehicle electric device, when the detected power source position is in an accessory position in which the electric power from the power source is to be supplied to the on-vehicle electric device, characterized in that in a case where a predetermined communication state between the on-vehicle communication device and the portable device is established in which the portable device is estimated to be in a compartment of the vehicle after a state in which the power source position is in the accessory position has continued for a first predetermined time period, said control method stops power supply from the power source to the on-vehicle electric device when a second predetermined time period elapses after a time at which the predetermined communication state is established. controlling a state of power supply from a power source to the motive power source and an on-vehicle electric device according to the switching of a power source position of a power source position-switching device by an occupant, detecting the power source position; and controlling electric power from the power source such that the electric power is supplied to the on-vehicle electric device, when the detected power source position is in an accessory position in which the electric power from the power source is to be supplied to the on-vehicle electric device, characterized in that in a case where a predetermined communication state between the on-vehicle communication device and the portable device is established in which the portable device is estimated to be in a compartment of the vehicle after a state in which the power source position is in the accessory position has continued for a first predetermined time period, said control method stops power supply from the power source to the on-vehicle electric device when a second predetermined time period elapses after a time at which the predetermined communication state is established.
Device for removing core samples from sediment formations, having a carrier tool and having a sample-receiving housing which is mounted on the carrier tool and which delimits a sample-receiving space and which comprises a cutting geometry or a cutting shoe on a leading end, wherein the sample-receiving housing comprises a closure, that the closure comprises a spherical, half-shell-shaped closure body, characterized in that the closure body is displaceable between a first opened position and a second closed position, in that the closure body forms a concave bottom of the sample-receiving space in the first open position and which encloses a core sample in the second closed position, in that the sample-receiving space has a spring-mounted bottom plate which is sealed on the edge side with respect to at least one boundary wall of the sample-receiving space and which, together with the closure body, forms a cavity for enclosing the core sample, with the result that an air-tight closure of the sample-receiving space can be established.
A computer implemented method to in-line script dependencies, the method comprising: extracting test code resources addressed in language defining a test web page, wherein test code resources may be testing code that can be executed when a test page is read by a test engine during a test; placing markers identifying a location of each extracted test code resource within the language defining the test page; iteratively loading external resources referenced by a path of each test code resource, the external resources being separate from the test code resources; analyzing each test code resource to identify one or more dynamically added dependencies; and replacing each marker with external resources and dependencies that reference their respective marker to generate updated language defining an updated test page (160, 162), wherein each step is performed using one or more processors. extracting test code resources addressed in language defining a test web page, wherein test code resources may be testing code that can be executed when a test page is read by a test engine during a test; placing markers identifying a location of each extracted test code resource within the language defining the test page; iteratively loading external resources referenced by a path of each test code resource, the external resources being separate from the test code resources; analyzing each test code resource to identify one or more dynamically added dependencies; and replacing each marker with external resources and dependencies that reference their respective marker to generate updated language defining an updated test page (160, 162), wherein each step is performed using one or more processors.