mhurhangee/ep-ind-claims huggingface dataset:
A respiratory therapy device comprising: a mouthpiece defining a longitudinal axis and having an end port; a housing connected to the mouthpiece and having a top surface, wherein at least a portion of the top surface is longitudinally spaced from the end port and defines a viewing surface adapted to be visible to a user when the end port is disposed in a mouth of the user; and a feedback array disposed on the viewing surface, wherein the feedback array extends diagonally across the viewing surface and the feedback array is substantially linear, the feedback array comprises a plurality of spaced apart lights (917, 919, 921, 923, 925), in particular LEDs, the plurality of lights comprises a first endmost light positioned closest to the end port and a second endmost light positioned furthest from the end port, and the first endmost light is adapted to be illuminated in a first color indicating a user input that is below a predetermined acceptable range, the second endmost light is adapted to be illuminated in a second color indicating the user input is above the predetermined acceptable range, and at least one of the plurality of lights (919, 921, 923) positioned between the first and second endmost lights (917, 925) is adapted to be illuminated in a third color indicating the user input is within the predetermined acceptable range. a mouthpiece defining a longitudinal axis and having an end port; a housing connected to the mouthpiece and having a top surface, wherein at least a portion of the top surface is longitudinally spaced from the end port and defines a viewing surface adapted to be visible to a user when the end port is disposed in a mouth of the user; and a feedback array disposed on the viewing surface, wherein the feedback array extends diagonally across the viewing surface and the feedback array is substantially linear, the feedback array comprises a plurality of spaced apart lights (917, 919, 921, 923, 925), in particular LEDs, the plurality of lights comprises a first endmost light positioned closest to the end port and a second endmost light positioned furthest from the end port, and the first endmost light is adapted to be illuminated in a first color indicating a user input that is below a predetermined acceptable range, the second endmost light is adapted to be illuminated in a second color indicating the user input is above the predetermined acceptable range, and at least one of the plurality of lights (919, 921, 923) positioned between the first and second endmost lights (917, 925) is adapted to be illuminated in a third color indicating the user input is within the predetermined acceptable range.
A turbomachine with a longitudinal axis, comprising two, respectively upstream and downstream, coaxial outer propellers, at least some of the blades of the upstream propeller comprising at least one internal air circulation chimney that communicates on the one hand with air-bleeding orifices in the boundary layers of the blades, and communicates on the other hand with air outflow orifices on the radially outer end thereof, characterised in that the air-bleeding orifices open at the orifice inlets on the suction sides of the blades, the inlets of the air-bleeding orifices being radially arranged only in an area contained between 10% and 45% of the radial dimension of the blades, measured above and from the radial height of the blades for which the tangent of the leading edge of the blades is orthogonal to the longitudinal axis, the inlets of the air-bleeding orifices being arranged only in an area contained between 0% and 30% of the local chord of the blades, measured at the level of said inlets and from the leading edges of the blades.
An adapter bracket (200, 500) configured to be mounted within a carrier device, which comprises: a receiving space (210, 510) configured to receive a storage module, the storage module being a solid state drive, SSD, card; a first wall element (220, 520) located at a first side of the receiving space (210, 510), and a second wall element (230, 530) located opposite of the first wall element (220, 520); characterized in that the adapter bracket (200, 500) further comprises: a plurality of receiving elements (211, 511) located between the first wall element (220, 520) and the second wall element (230, 530), wherein the receiving elements (211, 511) are configured to receive a securing element to attach the storage module; wherein the receiving elements (211, 511) are located in different positions to correspond to SSD cards with different sizes; wherein the first wall element (220, 520) comprises at least one hook element, the second wall element (230, 530) comprises at least one hook element, and the storage module is inserted in the adapter bracket (200, 500) in a normal direction and is secured by the at least one hook element of the first wall element (220, 520) and the at least one hook element of the second wall element (230, 530). a receiving space (210, 510) configured to receive a storage module, the storage module being a solid state drive, SSD, card; a first wall element (220, 520) located at a first side of the receiving space (210, 510), and a second wall element (230, 530) located opposite of the first wall element (220, 520); characterized in that the adapter bracket (200, 500) further comprises: a plurality of receiving elements (211, 511) located between the first wall element (220, 520) and the second wall element (230, 530), wherein the receiving elements (211, 511) are configured to receive a securing element to attach the storage module; wherein the receiving elements (211, 511) are located in different positions to correspond to SSD cards with different sizes; wherein the first wall element (220, 520) comprises at least one hook element, the second wall element (230, 530) comprises at least one hook element, and the storage module is inserted in the adapter bracket (200, 500) in a normal direction and is secured by the at least one hook element of the first wall element (220, 520) and the at least one hook element of the second wall element (230, 530). a plurality of receiving elements (211, 511) located between the first wall element (220, 520) and the second wall element (230, 530), wherein the receiving elements (211, 511) are configured to receive a securing element to attach the storage module; wherein the receiving elements (211, 511) are located in different positions to correspond to SSD cards with different sizes; wherein the first wall element (220, 520) comprises at least one hook element, the second wall element (230, 530) comprises at least one hook element, and the storage module is inserted in the adapter bracket (200, 500) in a normal direction and is secured by the at least one hook element of the first wall element (220, 520) and the at least one hook element of the second wall element (230, 530).
A method of de-toxicating a fly ash powder contaminated with a toxic gas, wherein de-toxicating comprises at least partially removing the toxic gas from the contaminated fly ash powder, and the method comprises the steps of: - providing a stripper assembly; - transporting the contaminated fly ash powder from the source to the stripper assembly; - stripping at least part of the toxic gas from a batch load of the contaminated fly ash powder in the stripper assembly; wherein the provided stripper assembly comprises two or more stripper vessels and wherein transporting the contaminated fly ash powder from the source to the stripper assembly includes: - selecting one or more of the stripper vessels; and - transporting the contaminated fly ash powder to the selected one or more stripper vessels, wherein the transport is gravity-driven. - providing a stripper assembly; - transporting the contaminated fly ash powder from the source to the stripper assembly; - stripping at least part of the toxic gas from a batch load of the contaminated fly ash powder in the stripper assembly; - selecting one or more of the stripper vessels; and - transporting the contaminated fly ash powder to the selected one or more stripper vessels, wherein the transport is gravity-driven.
A transmission method of Uplink Control Information, UCI, performed by a terminal, characterized in that, the method comprises: selecting one of a plurality of first UCIs as a target UCI, when there are a plurality of transmissions of the first UCIs, a plurality of Physical Uplink Control Channels, PUCCH, respectively carrying the first UCI do not overlap in time domain, and all of the plurality of PUCCHs carrying the first UCI overlap with a PUCCH carrying a second UCI in time domain; multiplexing the target UCI and the second UCI. selecting one of a plurality of first UCIs as a target UCI, when there are a plurality of transmissions of the first UCIs, a plurality of Physical Uplink Control Channels, PUCCH, respectively carrying the first UCI do not overlap in time domain, and all of the plurality of PUCCHs carrying the first UCI overlap with a PUCCH carrying a second UCI in time domain; multiplexing the target UCI and the second UCI.
A computer-implemented method of processing geophysical data acquired from a subsurface region, the method comprising: receiving geophysical data acquired from a subsurface region; determining data points of the geophysical data which have high sensitivity to an anomaly, the anomaly representing an anomaly of the subsurface region; performing an inversion based on said geophysical data, wherein during inversion focusing towards the anomaly is achieved by increasing the weight of said data points, wherein increasing the weight of data points is achieved by defining a covariance matrix C -1 that is a function of α F, wherein F is a focusing matrix and α is a constant to control the focusing strength, and increasing α F for said data points, wherein said data points are identified, and the focusing matrix F is constructed, by comparing simulated geophysical data generated by forward modelling of two models of the subsurface region, wherein the two models are identical except for the anomaly; and determining from the inversion at least one model of the distribution of a physical property in the subsurface region. receiving geophysical data acquired from a subsurface region; determining data points of the geophysical data which have high sensitivity to an anomaly, the anomaly representing an anomaly of the subsurface region; performing an inversion based on said geophysical data, wherein during inversion focusing towards the anomaly is achieved by increasing the weight of said data points, wherein increasing the weight of data points is achieved by defining a covariance matrix C -1 that is a function of α F, wherein F is a focusing matrix and α is a constant to control the focusing strength, and increasing α F for said data points, defining a covariance matrix C -1 that is a function of α F, wherein F is a focusing matrix and α is a constant to control the focusing strength, and increasing α F for said data points, wherein said data points are identified, and the focusing matrix F is constructed, by comparing simulated geophysical data generated by forward modelling of two models of the subsurface region, wherein the two models are identical except for the anomaly; and determining from the inversion at least one model of the distribution of a physical property in the subsurface region.
A heat dissipation module, comprising: a heat sink set; and a first fan and a second fan disposed adjacent to each other on the heat sink set, wherein a projection of an area covered by the first fan during rotation on a plane where the heat sink set is located partially overlaps with a projection of an area covered by the second fan during rotation on the plane where the heat sink set is located, and a rotating direction of the first fan is different from a rotating direction of the second fan, wherein each of the first fan and the second fan comprises a plurality of blades, the blades of the first fan and the blades of the second fan are located on the same plane, and a shape of an end of each blade of the first fan is complementary to a shape of an end of each blades of the second fan, the heat dissipation module being characterized in that the end of each blade of the first fan comprises an upper notch and a lower protrusion located below the upper notch, and the end of each blade of the second fan comprises a lower notch having a shape corresponding to the lower protrusion and an upper protrusion having a shape corresponding to the upper notch located above the lower notch. a heat sink set; and a first fan and a second fan disposed adjacent to each other on the heat sink set, wherein a projection of an area covered by the first fan during rotation on a plane where the heat sink set is located partially overlaps with a projection of an area covered by the second fan during rotation on the plane where the heat sink set is located, and a rotating direction of the first fan is different from a rotating direction of the second fan, wherein each of the first fan and the second fan comprises a plurality of blades, the blades of the first fan and the blades of the second fan are located on the same plane, and a shape of an end of each blade of the first fan is complementary to a shape of an end of each blades of the second fan, the heat dissipation module being characterized in that the end of each blade of the first fan comprises an upper notch and a lower protrusion located below the upper notch, and the end of each blade of the second fan comprises a lower notch having a shape corresponding to the lower protrusion and an upper protrusion having a shape corresponding to the upper notch located above the lower notch.
A getter material comprising powders of at least one non-evaporable getter alloy having high gas sorption efficiency, particularly for hydrogen, carbon oxide and nitrogen, characterized in that said alloy powders comprise as compositional elements titanium and silicon and at least one additional metallic element selected among vanadium, iron and aluminum and have an atomic percentage composition of said elements which can vary within the following ranges: a. titanium from 60 to 85 at.%; b. silicon from 1 to 20 at.%; c. the sum of vanadium, iron and aluminum from 10 to 30 at.%. a. titanium from 60 to 85 at.%; b. silicon from 1 to 20 at.%; c. the sum of vanadium, iron and aluminum from 10 to 30 at.%.
Crane comprising a supporting structure which is a component of a latticework construction of a mast or crane girder, in particular of a jib, or of a bracing construction of the crane, wherein the supporting structure comprises a first supporting element and a second supporting element connected to the first supporting element, wherein the second supporting element is produced from a fibre composite material, in particular CFRP or GFRP, characterised in that the first supporting element is connected to the second supporting element via a connecting element which has projections which, for fastening to the second supporting element, project into the fibre composite material of the second supporting element so that the connecting element is form-fittingly connected to the second supporting element.
Extrusion apparatus intended for the manufacture of a coextruded profiled element P for tyres, produced from rubber compounds of various compositions, comprising a profiling device arranged at the outlet of at least two flow channels (34, 35) for rubbery compounds of different composition, characterized in that the said channels receive the compounds from positive-displacement contrarotating twin-screw extruders (10, 20), the screw flights interpenetrating and having conjugated profiles.
A magnetic sensor comprising: an element array including a plurality of tunnel magnetoresistive elements respectively having a fixed magnetic layer, a free magnetic layer, and an insulation layer provided between the fixed magnetic layer and the free magnetic layer, the elements respectively for varying the tunnel resistance of the insulation layer by effect of an external magnetic field; and an electric circuit configured to apply in use a voltage to a plurality of the tunnel magnetoresistive elements forming the element array, wherein the voltage to be applied to each tunnel magnetoresistive element is equal to or higher than 0.1 mV and equal to or lower than 20 mV. an element array including a plurality of tunnel magnetoresistive elements respectively having a fixed magnetic layer, a free magnetic layer, and an insulation layer provided between the fixed magnetic layer and the free magnetic layer, the elements respectively for varying the tunnel resistance of the insulation layer by effect of an external magnetic field; and an electric circuit configured to apply in use a voltage to a plurality of the tunnel magnetoresistive elements forming the element array, wherein the voltage to be applied to each tunnel magnetoresistive element is equal to or higher than 0.1 mV and equal to or lower than 20 mV.
Method for welding a first workpiece to a second workpiece by means of a laser, comprising the steps of: - irradiating the first workpiece with a beam of pulsed laser radiation, wherein the first workpiece consists of a semiconductor material which is transparent at the wavelength of the laser radiation, so that the beam enters the first workpiece through an entrance surface and leaves it through an exit surface, the geometric focus of the beam being positioned in the plane of the exit surface; - determining a delocalization of the focus caused by nonlinear interaction of the laser radiation with the semiconductor material; - placing the second workpiece against the first workpiece; and - again irradiating the first workpiece with the laser beam of pulsed laser radiation, the focus of the laser radiation being positioned along the beam direction taking into account the determined delocalization so that the intensity maximum is located in the plane of the exit surface forming the interface of the two workpieces (11, 12), whereby the first workpiece is welded to the second workpiece. - irradiating the first workpiece with a beam of pulsed laser radiation, wherein the first workpiece consists of a semiconductor material which is transparent at the wavelength of the laser radiation, so that the beam enters the first workpiece through an entrance surface and leaves it through an exit surface, the geometric focus of the beam being positioned in the plane of the exit surface; - determining a delocalization of the focus caused by nonlinear interaction of the laser radiation with the semiconductor material; - placing the second workpiece against the first workpiece; and - again irradiating the first workpiece with the laser beam of pulsed laser radiation, the focus of the laser radiation being positioned along the beam direction taking into account the determined delocalization so that the intensity maximum is located in the plane of the exit surface forming the interface of the two workpieces (11, 12), whereby the first workpiece is welded to the second workpiece.
Strapping device having at least one drive motor, further having at least one drive roller for a strap fed from a strap supply, as well as having at least one tensioning roller for tensioning the strap around the goods to be strapped, and having a closing unit for connecting the strap ends of the strap around the goods, wherein a pivotable link is provided, which applies at least one counter-roller (5a, 6a) to the drive roller for driving the strap or to the tensioning roller for tensioning the strap, and wherein the drive motor drives both the drive roller and the tensioning roller, characterized in that - the link carries at least two counter-rollers (5a, 6a), namely a drive counter-roller and a tensioning counter-roller, furthermore in that - the drive motor acts on the tensioning roller via a gear and on the drive roller with the interposition of a shaft bearing sleeve, and in that - the link is rotatably mounted on a flange, wherein - the drive motor, the gear and the shaft bearing sleeve are respectively connected to the flange parallel to one another and predominantly vertically upright. - the link carries at least two counter-rollers (5a, 6a), namely a drive counter-roller and a tensioning counter-roller, furthermore in that - the drive motor acts on the tensioning roller via a gear and on the drive roller with the interposition of a shaft bearing sleeve, and in that - the link is rotatably mounted on a flange, wherein - the drive motor, the gear and the shaft bearing sleeve are respectively connected to the flange parallel to one another and predominantly vertically upright.
A deterioration determination apparatus, comprising: a deformation information obtainment unit configured to obtain information on deformations of a suction portion occurring when the suction portion sequentially holds a plurality of objects having different masses by suction, which suction portion is configured to hold an object by suction with negative pressure and elastically deforms by the negative pressure; and a deterioration determination unit configured to determine whether or not the suction portion has deteriorated, depending on whether or not the deformations of the suction portion occurring when the suction portion sequentially holds the plurality of objects by suction are within normal ranges set for the respective objects. a deformation information obtainment unit configured to obtain information on deformations of a suction portion occurring when the suction portion sequentially holds a plurality of objects having different masses by suction, which suction portion is configured to hold an object by suction with negative pressure and elastically deforms by the negative pressure; and a deterioration determination unit configured to determine whether or not the suction portion has deteriorated, depending on whether or not the deformations of the suction portion occurring when the suction portion sequentially holds the plurality of objects by suction are within normal ranges set for the respective objects.
Leakage detection device for a double walled fluid pipe having a drainage jacket surrounding a high pressure pipe, comprising: - at least one fluid inlet duct for connection to the drainage jacket of the fluid pipe; - at least one fluid outlet duct for connection to a leakage conduit; - at least one valve device for control of the flow of leakage fluid through the fluid outlet duct, the valve device having a spring loaded valve body which can be shifted against a force of a reset spring by the pressure of the drainage fluid entering the fluid inlet duct, wherein a first end position of the valve body corresponds to a minimal leakage amount and a second end position corresponds to maximal leakage amount of the high pressure pipe, characterised in that the valve body comprises at least one throttle passage for flow connection of the fluid inlet duct and the fluid outlet duct, wherein in each shifting position of the valve body the throttle passage is flow connected to the fluid inlet duct and to the fluid outlet duct. - at least one fluid inlet duct for connection to the drainage jacket of the fluid pipe; - at least one fluid outlet duct for connection to a leakage conduit; - at least one valve device for control of the flow of leakage fluid through the fluid outlet duct, the valve device having a spring loaded valve body which can be shifted against a force of a reset spring by the pressure of the drainage fluid entering the fluid inlet duct, wherein a first end position of the valve body corresponds to a minimal leakage amount and a second end position corresponds to maximal leakage amount of the high pressure pipe, characterised in that the valve body comprises at least one throttle passage for flow connection of the fluid inlet duct and the fluid outlet duct, wherein in each shifting position of the valve body the throttle passage is flow connected to the fluid inlet duct and to the fluid outlet duct.