mhurhangee/patent-ind-claim-en huggingface dataset:
A rail vehicle comprising a running gear comprising a first wheel set , a second wheel set , a first traction motor for driving the first wheel set , a second traction motor for driving the second wheel set , the first traction motor being provided with a first cooling inlet , the second traction motor being provided with a second cooling inlet , wherein the rail vehicle comprises a traction motor cooling system comprising: - a fan unit comprising a first fan provided with a first fan outlet , a second fan provided with a second fan outlet , and - a ducting comprising a first duct connecting the first fan outlet with the first cooling inlet and a second duct for connecting the second fan outlet with the second cooling inlet , the first duct being provided with a first duct inlet and a first duct outlet , the second duct being provided with a second duct inlet and a second duct outlet , wherein the first duct and the second duct are pneumatically independent from one another, the first duct inlet is connected to the first fan outlet and the second duct inlet is connected to the second fan outlet , characterised in that the second duct has two parallel branches and an inlet branch between the second duct inlet and the two parallel branches , a portion of the first duct being located between the two parallel branches . - a fan unit comprising a first fan provided with a first fan outlet , a second fan provided with a second fan outlet , and - a ducting comprising a first duct connecting the first fan outlet with the first cooling inlet and a second duct for connecting the second fan outlet with the second cooling inlet , the first duct being provided with a first duct inlet and a first duct outlet , the second duct being provided with a second duct inlet and a second duct outlet , wherein the first duct and the second duct are pneumatically independent from one another, the first duct inlet is connected to the first fan outlet and the second duct inlet is connected to the second fan outlet ,
A plated steel sheet for hot press use characterized by being a plated steel sheet for hot press use which consists of a steel sheet, an Al plating layer which is formed on one surface or both surfaces of said steel sheet, and a surface coating layer which is formed on said Al plating layer, wherein the chemical composition of said Al plating layer contains 50 wt-% or more Al, and said surface coating layer consists of one or more Zn compounds and a binder, wherein at least one Zn compound is selected from the group consisting of Zn hydroxide, Zn acetate, Zn citrate, Zn oxalate, Zn oleate, Zn salts of hydroxyl acids, and Zn gluconate; whereby the Zn compounds optionally further contain one or both of Zn sulfate and Zn nitrate, wherein, as the content of said Zn compounds, the one or both of Zn sulfate and Zn nitrate are contained in respectively 10 mass% or less; and the binder contains at least one of a resin ingredient, silane coupling agent and silica, and the contents of the resin ingredient, silane coupling agent, silica, and other binder ingredients in the surface coating are, by mass ratio to the total amount of the Zn compounds, together 5 to 30%.
A method for semi-persistent channel state information report transmission, wherein the method comprises: receiving, by a wireless device from a base station , a first message comprising configuration parameters for semi-persistent, SP, channel state information, CSI, reporting, wherein the configuration parameters comprise: at least one indication of a resource configuration of a reference signal; and an SP CSI skip indicator indicating whether SP CSI reporting can be skipped if SP CSI report transmission overlaps in time with an uplink channel transmission; receiving, by the wireless device, a second message indicating an activation for SP CSI reporting; transmitting, by the wireless device, during a first time period, and based on the reference signal, a first SP CSI report; and skipping, by the wireless device and based on the SP CSI skip indicator and a scheduled transmission of a second SP CSI report overlapping in time with a scheduled transmission of an uplink channel, transmission of the second SP CSI report. receiving, by a wireless device from a base station , a first message comprising configuration parameters for semi-persistent, SP, channel state information, CSI, reporting, wherein the configuration parameters comprise: at least one indication of a resource configuration of a reference signal; and an SP CSI skip indicator indicating whether SP CSI reporting can be skipped if SP CSI report transmission overlaps in time with an uplink channel transmission; at least one indication of a resource configuration of a reference signal; and an SP CSI skip indicator indicating whether SP CSI reporting can be skipped if SP CSI report transmission overlaps in time with an uplink channel transmission; receiving, by the wireless device, a second message indicating an activation for SP CSI reporting; transmitting, by the wireless device, during a first time period, and based on the reference signal, a first SP CSI report; and skipping, by the wireless device and based on the SP CSI skip indicator and a scheduled transmission of a second SP CSI report overlapping in time with a scheduled transmission of an uplink channel, transmission of the second SP CSI report.
An analysis method comprising: irradiating, with laser light, an analysis substrate made of a resin material and having a reaction region on which detection target substances and nanoparticles of a metal compound for labeling the detection target substances are captured; extracting, as a substrate signal level (DL), a signal level generated when receiving reflected light from a non-reaction region in the analysis substrate at which the reaction region is not formed; receiving reflected light from the reaction region to generate a light reception level signal (JS); extracting a nanoparticle detection signal (KS) having a higher signal level than the substrate signal level (DL) from the light reception level signal (JS) of the reflected light from the reaction region ; and detecting the nanoparticles in accordance with the extracted nanoparticle detection signal (KS), wherein the nanoparticles have a complex refractive index n - ki, where an extinction coefficient k of an imaginary part ki is 0.3 or smaller and a refractive index n of a real part is in a range of 2.1 to 2.5, or where an extinction coefficient k of an imaginary part ki is 0.2 or smaller and a refractive index n of a real part is in a range of 2.1 to 2.6. irradiating, with laser light, an analysis substrate made of a resin material and having a reaction region on which detection target substances and nanoparticles of a metal compound for labeling the detection target substances are captured; extracting, as a substrate signal level (DL), a signal level generated when receiving reflected light from a non-reaction region in the analysis substrate at which the reaction region is not formed; receiving reflected light from the reaction region to generate a light reception level signal (JS); extracting a nanoparticle detection signal (KS) having a higher signal level than the substrate signal level (DL) from the light reception level signal (JS) of the reflected light from the reaction region ; and detecting the nanoparticles in accordance with the extracted nanoparticle detection signal (KS),
An intermediate intake-type diaphragm (OG) in which an introduction flow channel, an intermediate suction flow channel, and a curved flow channel are defined, the introduction flow channel extending from a radially outer side of an axial line (O) to a radially inner side to guide a first fluid (G1) toward an impeller rotating about the axial line (O), the intermediate suction flow channel being adjacent to the introduction flow channel and extending from the radially outer side of the axial line (O) to the radially inner side to guide a second fluid (G2) toward the impeller , the curved flow channel being connected to downstream sides of the introduction flow channel and the intermediate suction flow channel and extending so that an inner surface is curved from a position of connection with the introduction flow channel toward one side in the direction of the axial line (O), and the curved flow channel guides the first fluid (G1) and the second fluid (G2) toward the impeller , the intermediate intake-type diaphragm (OG) comprising: a flow-regulating vane (542;543) that is provided in the introduction flow channel to regulate the first fluid (G1) to flow along the radial direction; and a partition wall that partitions the introduction flow channel and the intermediate suction flow channel in the direction of the axial line (O), wherein a radially inner end portion of the partition wall is located further on a radially inner side than a radially outer end portion of the flow-regulating vane (542;543) and further on a radially outer side than a boundary between the introduction flow channel and the curved flow channel characterized in that a guide vane (632;633) configured to regulate the second fluid (G2) to flow along the radial direction is provided in the intermediate suction flow channel, and a position in the radial direction of first a radially inner end portion (632c;633c) of the guide vane (632;633) is different from a position in the radial direction of a second radially inner end portion (542c;543c) of the of the flow-regulating vane (542;543). a flow-regulating vane (542;543) that is provided in the introduction flow channel to regulate the first fluid (G1) to flow along the radial direction; and a partition wall that partitions the introduction flow channel and the intermediate suction flow channel in the direction of the axial line (O), wherein a radially inner end portion of the partition wall is located further on a radially inner side than a radially outer end portion of the flow-regulating vane (542;543) and further on a radially outer side than a boundary between the introduction flow channel and the curved flow channel characterized in that a guide vane (632;633) configured to regulate the second fluid (G2) to flow along the radial direction is provided in the intermediate suction flow channel, and a position in the radial direction of first a radially inner end portion (632c;633c) of the guide vane (632;633) is different from a position in the radial direction of a second radially inner end portion (542c;543c) of the of the flow-regulating vane (542;543).
A light emitting device comprising a cathode , a first organic layer containing a compound having a cross-linkable group and a phosphorescent transition metal complex, a second organic layer containing a crosslinked body of the same compound as said compound having a cross-linkable group, and an anode in this order, characterised in that the ratio of said compound having a cross-linkable group contained in said first organic layer is 2 to 10% by mass with respect to the total mass of said first organic layer.
A high voltage valve arrangement comprising a high voltage valve unit comprising a plurality of vertically arranged valve layers ; an external electric shield structure arranged around an outer surface of each valve layer ; a grounding system , the grounding system comprising an extendable grounding device on a lateral side of the high voltage valve unit and configured to be remotely extended in a vertical direction from a withdrawn position (W) to an extended position (E), wherein the extendable grounding device establishes electric connection with the electric shield structure when it is extended from the retracted position (W); and a plurality of guide elements , each guide element being assigned and electrically connected to a respective one of the electric shield structures , whereby the guide element assigned to the electric shield structure of one of the valve layers is slightly shifted in a horizontal direction in view of the guide element assigned to the electric shield structure of a consecutive valve layer , to ensure that the extendable grounding device establishes electric contact with each guide element and thus with each electric shield structure on its way to the extended position (E).
A compound, or pharmaceutically acceptable acid addition salt thereof, for use in a method of treating an individual diagnosed with or suspected of having a cryptosporidium infection or prophylaxis in an individual who is at risk of having a cryptosporidium infection, wherein the compound has the following structure: wherein R 4 is selected from the group consisting of hydrogen atom, C 1 -C 9 alkyl group, and C 1 -C 6 haloalkyl group; and R 5 is selected from the group consisting of: R 4 is selected from the group consisting of hydrogen atom, C 1 -C 9 alkyl group, and C 1 -C 6 haloalkyl group; and R 5 is selected from the group consisting of:
An adhesive comprising a polyurethane and 0.0001 to 0.1 mol of carbodiimide groups per 100 g of polyurethane, wherein the polyurethane contains 0.0001 to 0.1 mol of hydroxysilane or alkoxysilane groups (silane groups for short) per 100 g of polyurethane.
Method for the contactless and nondestructive determination of the layer thickness of paint layers on motor vehicle parts , comprising the following steps: - Providing a motor vehicle part , wherein the motor vehicle part is comprised of or includes an electrically conductive material, with a first layer of paint applied to the motor vehicle part , comprising a first layer thickness (d1), and with at least one further layer of paint , applied to the first layer of paint , comprising a further layer thickness (d2, d3, d4), wherein at least the further layer of paint is optically opaque; - Determining the layer thickness (d2, d3, d4) of all further layers of paint by means of optical coherence tomography, by means of an apparatus , which is implemented to carry out an optical coherence tomography, and which comprises a measuring device for carrying out a dielectric, a capacitive or a magnetic inductive measurement of the layer thickness; - Determining the overall layer thickness (dges) of the layers of paint by means of a dielectric, a capacitive or a magnetic inductive measurement of the layer thickness using the measuring device ; - Determining the layer thickness of the first layer of paint by subtracting the thickness of all further layers of paint from the overall layer thickness (dges); - wherein the apparatus comprises at least one radiation source for providing electromagnetic radiation and the electromagnetic radiation provides a wave length (λ) from 100 to 15×10 3 nm and, in particular 380 to 800 nm, for carrying out the optical coherence tomography. - Providing a motor vehicle part , wherein the motor vehicle part is comprised of or includes an electrically conductive material, with a first layer of paint applied to the motor vehicle part , comprising a first layer thickness (d1), and with at least one further layer of paint , applied to the first layer of paint , comprising a further layer thickness (d2, d3, d4), wherein at least the further layer of paint is optically opaque; - Determining the layer thickness (d2, d3, d4) of all further layers of paint by means of optical coherence tomography, by means of an apparatus , which is implemented to carry out an optical coherence tomography, and which comprises a measuring device for carrying out a dielectric, a capacitive or a magnetic inductive measurement of the layer thickness; - Determining the overall layer thickness (dges) of the layers of paint by means of a dielectric, a capacitive or a magnetic inductive measurement of the layer thickness using the measuring device ; - Determining the layer thickness of the first layer of paint by subtracting the thickness of all further layers of paint from the overall layer thickness (dges); - wherein the apparatus comprises at least one radiation source for providing electromagnetic radiation and the electromagnetic radiation provides a wave length (λ) from 100 to 15×10 3 nm and, in particular 380 to 800 nm, for carrying out the optical coherence tomography.
An information processing apparatus, comprising: a control unit configured to acquire information regarding a marker portion shown in a tomographic image of an eye which is subjected to a surgical operation through a surgical tool including a resin portion including the marker portion; wherein the marker portion includes a particular geometric pattern; and wherein the marker portion includes a first marker and a second marker , and the first marker and the second marker are arranged in the resin portion such that when the surgical tool is rotated around an axis along a longitudinal direction of the surgical tool, a distance between the first marker and the second marker in the longitudinal direction varies in accordance with the rotation in a tomographic image along the longitudinal direction and/or an angle between the first marker and the second marker around the axis varies in accordance with the rotation in the tomographic image along a direction orthogonal to the length direction; and wherein the control unit is configured to detect a position or rotation angle (Θ) around the axis (X) of the surgical tool on a basis of the information regarding the marker portion. a control unit configured to acquire information regarding a marker portion shown in a tomographic image of an eye which is subjected to a surgical operation through a surgical tool including a resin portion including the marker portion; wherein the marker portion includes a particular geometric pattern; and wherein the marker portion includes a first marker and a second marker , and the first marker and the second marker are arranged in the resin portion such that when the surgical tool is rotated around an axis along a longitudinal direction of the surgical tool, a distance between the first marker and the second marker in the longitudinal direction varies in accordance with the rotation in a tomographic image along the longitudinal direction and/or an angle between the first marker and the second marker around the axis varies in accordance with the rotation in the tomographic image along a direction orthogonal to the length direction; and wherein the control unit is configured to detect a position or rotation angle (Θ) around the axis (X) of the surgical tool on a basis of the information regarding the marker portion.
A method of transferring image data from a first terminal to a second terminal connected via a communication network , the method comprising: displaying on a screen of the first terminal a screen image generated by a processor executed application; a processor executing a communication client to: establish a communication event between the first and second terminals; and display at the first terminal an interactive selection frame ; a user at the first terminal actuating the selection frame to select at least one object displayed on the screen to be shared with the second terminal , wherein the at least one object selected by the selection frame is displayed on a screen of the second terminal by transferring image data over the communication network in the established communication event; the method characterised in that : the communication client accesses data defining displayed object dimensions stored in an operating system of the first terminal and adjusts the selection frame based on those dimensions such that the boundary of the selection frame is automatically sized to fit the boundary of the object selected to be shared. displaying on a screen of the first terminal a screen image generated by a processor executed application; a processor executing a communication client to: establish a communication event between the first and second terminals; and display at the first terminal an interactive selection frame ; a user at the first terminal actuating the selection frame to select at least one object displayed on the screen to be shared with the second terminal , wherein the at least one object selected by the selection frame is displayed on a screen of the second terminal by transferring image data over the communication network in the established communication event; the method characterised in that : the communication client accesses data defining displayed object dimensions stored in an operating system of the first terminal and adjusts the selection frame based on those dimensions such that the boundary of the selection frame is automatically sized to fit the boundary of the object selected to be shared. establish a communication event between the first and second terminals; and display at the first terminal an interactive selection frame ; a user at the first terminal actuating the selection frame to select at least one object displayed on the screen to be shared with the second terminal , wherein the at least one object selected by the selection frame is displayed on a screen of the second terminal by transferring image data over the communication network in the established communication event; the method characterised in that : the communication client accesses data defining displayed object dimensions stored in an operating system of the first terminal and adjusts the selection frame based on those dimensions such that the boundary of the selection frame is automatically sized to fit the boundary of the object selected to be shared.
A co-current contactor , comprising: an annular support ring configured to maintain the co-current contactor in-line within a pipe , a plurality of radial blades extending from the annular support ring , wherein the annular support ring comprises a hollow channel and a plurality of liquid channels configured to allow a liquid stream to flow into and through the plurality ofradial blades a central gas entry cone supported by the plurality of radial blades and configured to allow a gas stream to flow into the co-current contactor, characterized by injection orifices disposed on the radial blades so that liquid flowing through the plurality of radial blades may flow out of the injection orifices ; and in that the central gas entry cone is configured to allow a first portion of the gas stream to flow through the central gas entry cone and through gas exit slots included in the plurality ofradial blades , and a second portion of the gas stream to flow around the central gas entry cone between the plurality of radial blades to thereby shear the liquid stream flowing out of the injection orifices into liquid droplets and entrain the liquid droplets in the first and second portion of the gas stream. an annular support ring configured to maintain the co-current contactor in-line within a pipe , a plurality of radial blades extending from the annular support ring , wherein the annular support ring comprises a hollow channel and a plurality of liquid channels configured to allow a liquid stream to flow into and through the plurality ofradial blades a central gas entry cone supported by the plurality of radial blades and configured to allow a gas stream to flow into the co-current contactor, characterized by injection orifices disposed on the radial blades so that liquid flowing through the plurality of radial blades may flow out of the injection orifices ; and in that the central gas entry cone is configured to allow a first portion of the gas stream to flow through the central gas entry cone and through gas exit slots included in the plurality ofradial blades , and a second portion of the gas stream to flow around the central gas entry cone between the plurality of radial blades to thereby shear the liquid stream flowing out of the injection orifices into liquid droplets and entrain the liquid droplets in the first and second portion of the gas stream.