mhurhangee/ep-ind-claims huggingface dataset:
A method for identifying an Application Detection Control, ADC, function mode, the method being applicable to a scenario where a roaming UE accesses a visited network from a visited location, characterized in that the method comprises: when a Visit Policy and Charging Rules Function, V-PCRF, creates an S9 session, informing, by the V-PCRF, a Home Policy and Charging Rules Function, H-PCRF, of an ADC function mode supported by a visited network; and determining, by the H-PCRF, whether to provide an ADC rule to the visited network in accordance with the ADC function mode supported by the visited network. when a Visit Policy and Charging Rules Function, V-PCRF, creates an S9 session, informing, by the V-PCRF, a Home Policy and Charging Rules Function, H-PCRF, of an ADC function mode supported by a visited network; and determining, by the H-PCRF, whether to provide an ADC rule to the visited network in accordance with the ADC function mode supported by the visited network.
Beam guide for guiding a laser beam from a driver laser device in the direction of a target position for generating EUV radiation comprising: a device for increasing or decreasing the beam diameter of the laser beam, having: a first off-axis parabolic mirror having a first convex curved reflecting surface and a second off-axis parabolic mirror having a second concave curved reflecting surface, a moving device configured to change a distance (A, A') between the first and the second reflecting surfaces (15a, 16a) in order to change an opening angle (α) of the laser beam, and at least one displaceable redirection mirror (9, 10) for compensating for a beam offset of the laser beam when the at least one parabolic mirror (15, 16) is displaced, wherein the at least one redirection mirror (9, 10) is coupled for movement with the at least one parabolic mirror (15, 16) for conjoined displacement, characterized in that the moving device is configured to shift the at least one parabolic mirror over a distance of at least 10 mm along a displacement axis, and wherein the movement coupling is configured to displace the redirection mirror in a linear manner in a direction that deviates from the displacement axis, which direction runs perpendicular to the beam direction of the laser beam that is reflected at the second parabolic mirror. a first off-axis parabolic mirror having a first convex curved reflecting surface and a second off-axis parabolic mirror having a second concave curved reflecting surface, a moving device configured to change a distance (A, A') between the first and the second reflecting surfaces (15a, 16a) in order to change an opening angle (α) of the laser beam, and at least one displaceable redirection mirror (9, 10) for compensating for a beam offset of the laser beam when the at least one parabolic mirror (15, 16) is displaced, wherein the at least one redirection mirror (9, 10) is coupled for movement with the at least one parabolic mirror (15, 16) for conjoined displacement, characterized in that the moving device is configured to shift the at least one parabolic mirror over a distance of at least 10 mm along a displacement axis, and wherein the movement coupling is configured to displace the redirection mirror in a linear manner in a direction that deviates from the displacement axis, which direction runs perpendicular to the beam direction of the laser beam that is reflected at the second parabolic mirror.
An isothermal titration micro calorimetry system, comprising: a microcalorimeter with a sample cell and a reference cell, the sample cell is accessible via a sample cell stem and the reference cell is accessible via a reference cell stem; and characterized by an automatic pipette assembly comprising a syringe with a titration needle arranged to be inserted into the sample cell for supplying titrant and a fill port at an upper section of the syringe, providing fluidic contact with the syringe cavity when the plunger is positioned above the fill port, the pipette assembly comprising an activator for driving a plunger in the syringe, a fill port connection unit comprising a connection member configured to connect to the fill port thereby enabling fluid to transfer into the cavity of the syringe, a pipette translation unit comprising a pipette arm that is supported for rotation about an axis, supports the pipette assembly at its other end and is further arranged to move the pipette assembly vertically, the pipette translation unit being arranged to place the pipette assembly in position for titration, washing and filling operations; a wash station for the titrant needle; and a cell fluidics system for dispensing and withdrawing liquid in the sample cell; and a cell preparation unit arranged to perform operations for replacing the sample liquid in the sample cell when the pipette assembly is placed in another position than the position for titration, the cell preparation unit comprising a cell arm that is supported for rotation about an axis, supporting a cell cannula connected to the cell fluidics system. a microcalorimeter with a sample cell and a reference cell, the sample cell is accessible via a sample cell stem and the reference cell is accessible via a reference cell stem; and characterized by an automatic pipette assembly comprising a syringe with a titration needle arranged to be inserted into the sample cell for supplying titrant and a fill port at an upper section of the syringe, providing fluidic contact with the syringe cavity when the plunger is positioned above the fill port, the pipette assembly comprising an activator for driving a plunger in the syringe, a fill port connection unit comprising a connection member configured to connect to the fill port thereby enabling fluid to transfer into the cavity of the syringe, a pipette translation unit comprising a pipette arm that is supported for rotation about an axis, supports the pipette assembly at its other end and is further arranged to move the pipette assembly vertically, the pipette translation unit being arranged to place the pipette assembly in position for titration, washing and filling operations; a wash station for the titrant needle; and a cell fluidics system for dispensing and withdrawing liquid in the sample cell; and a cell preparation unit arranged to perform operations for replacing the sample liquid in the sample cell when the pipette assembly is placed in another position than the position for titration, the cell preparation unit comprising a cell arm that is supported for rotation about an axis, supporting a cell cannula connected to the cell fluidics system.
A mounting device for mounting a connector to a cable, in particular a shielded high-voltage cable, wherein the connector comprises a connector housing as well as a contact carrier, which is latchable at a given position within the connector housing with at least one latching element (24, 26), wherein the mounting device comprises - a retainer for the connector housing with the contact carrier inset therein in a pre-mounting position, - a counter bearing with a pressure pin for pushing the contact carrier into the connector housing from the pre-mounting position to a final mounting position, characterised by: - a feed for automatic relative displacement of the retainer and the counter bearing against each other, - a force measuring unit measuring a mounting force exerted during the relative displacement, - an evaluation unit via which the measured mounting force is checked as to whether it lies within a given tolerance range as well as - an output unit for output of a control signal. - a retainer for the connector housing with the contact carrier inset therein in a pre-mounting position, - a counter bearing with a pressure pin for pushing the contact carrier into the connector housing from the pre-mounting position to a final mounting position, characterised by: - a feed for automatic relative displacement of the retainer and the counter bearing against each other, - a force measuring unit measuring a mounting force exerted during the relative displacement, - an evaluation unit via which the measured mounting force is checked as to whether it lies within a given tolerance range as well as - an output unit for output of a control signal.
A method for forming a fibrous preform comprising: superposing a first fibrous layer aligned in a machine direction with an additional fibrous layer aligned in an acute angle to the machine direction; needling the first fibrous layer and the additional fibrous layer together at a needle density of between approximately 60 and 65 needle punches per square centimeter to form a first combined fibrous mat; superposing an additional combined fibrous mat with the first combined fibrous mat; needling the first combined fibrous mat and the additional combined fibrous mat at a needle density of between approximately 45 and 55 needle punches per square centimeter to form the fibrous preform comprising oxidized polyacrylonitrile fibers extending in multiple directions and having pores extending therethrough, wherein a fiber volume ratio of the fibrous preform is between about 30% fiber volume and about 35% fiber volume; compressing the fibrous preform; and carbonizing the fibrous preform by heating the fibrous preform to convert fibers of the fibrous preform into carbon fibers, wherein the fiber volume ratio of the fibrous preform after the carbonizing is between about 20% to 24% fiber volume. superposing a first fibrous layer aligned in a machine direction with an additional fibrous layer aligned in an acute angle to the machine direction; needling the first fibrous layer and the additional fibrous layer together at a needle density of between approximately 60 and 65 needle punches per square centimeter to form a first combined fibrous mat; superposing an additional combined fibrous mat with the first combined fibrous mat; needling the first combined fibrous mat and the additional combined fibrous mat at a needle density of between approximately 45 and 55 needle punches per square centimeter to form the fibrous preform comprising oxidized polyacrylonitrile fibers extending in multiple directions and having pores extending therethrough, wherein a fiber volume ratio of the fibrous preform is between about 30% fiber volume and about 35% fiber volume; compressing the fibrous preform; and carbonizing the fibrous preform by heating the fibrous preform to convert fibers of the fibrous preform into carbon fibers, wherein the fiber volume ratio of the fibrous preform after the carbonizing is between about 20% to 24% fiber volume.
A hot-rolled steel sheet cut in unsteady portions at a longitudinal head end and a longitudinal tail end in cutting after rough rolling, having a width of 1,200 mm to 2,300 mm, a thickness of 13 mm to 25.4 mm, and at least an API standard X65-grade strength, and to be used in a state of being unwound after having been wound around a coil, wherein at least a longitudinal end corresponding to start of unwinding includes a portion at a widthwise center recessed inwards in a longitudinal direction with respect to two widthwise ends, projection sizes of the two widthwise ends with respect to the recessed portion at the widthwise center are 20 mm to 295 mm, and a sum of widths of projecting portions at the two widthwise ends is 1/4 to 1/2 of the width of the sheet.
Process for continuous production of C4-C10 diols from C3-C9 aldehydes comprising the process steps of: a. base-catalyzed addition of formaldehyde onto C3-C9 aldehydes to obtain the corresponding hydroxyaldehydes and b. subsequent hydrogenation of the hydroxyaldehydes to afford the corresponding diols, characterized in that the hydrogenation of the hydroxyaldehydes is performed continuously in the liquid phase over a Raney cobalt catalyst in the presence of hydrogen without workup of the reaction mixture from the process step a). a. base-catalyzed addition of formaldehyde onto C3-C9 aldehydes to obtain the corresponding hydroxyaldehydes and b. subsequent hydrogenation of the hydroxyaldehydes to afford the corresponding diols,
Umbrella with a holding device for fastening the umbrella in a releasable manner on the clothing of a person using the umbrella, wherein the umbrella has at least a handle, an umbrella shaft and a fastening means which is mounted on the umbrella shaft, characterized in that - at least one freely movable holding body is arranged in a releasable manner on or in the handle of the umbrella, - wherein the handle and the freely movable holding body, which is arranged at least on a vertically extending connecting region of the handle, comprise a magnetic connection for fastening the handle in a releasable manner on the clothing that is able to be arranged between handle and holding body, and - the fastening means, for the purpose of producing a second holding point of the umbrella shaft on the clothing above the handle, is guided and fastened so as to be releasable and displaceable on the umbrella shaft. - at least one freely movable holding body is arranged in a releasable manner on or in the handle of the umbrella, - wherein the handle and the freely movable holding body, which is arranged at least on a vertically extending connecting region of the handle, comprise a magnetic connection for fastening the handle in a releasable manner on the clothing that is able to be arranged between handle and holding body, and - the fastening means, for the purpose of producing a second holding point of the umbrella shaft on the clothing above the handle, is guided and fastened so as to be releasable and displaceable on the umbrella shaft.
A rotary-style blow-fill-seal, BFS, manufacturing system, comprising: a BFS mold comprising two cooperatively matched mold halves, each mold half defining a plurality of vacuum cavities; a mold holder coupled to each mold half, the mold holders each comprising (i) a first vacuum port in communication with a first subset of the plurality of vacuum cavities of the respective mold half and (ii) a second vacuum port in communication with a second subset of the plurality of vacuum cavities of the respective mold half; and a vacuum slider in communication with the mold holder, the vacuum slider comprising two vacuum slots, each vacuum slot being operable to (i) be engaged with the first vacuum port of a respective mold holder at a first time in a rotary BFS cycle and (i) be engaged with the second vacuum port of a respective mold holder at a second time in the rotary BFS cycle. a BFS mold comprising two cooperatively matched mold halves, each mold half defining a plurality of vacuum cavities; a mold holder coupled to each mold half, the mold holders each comprising (i) a first vacuum port in communication with a first subset of the plurality of vacuum cavities of the respective mold half and (ii) a second vacuum port in communication with a second subset of the plurality of vacuum cavities of the respective mold half; and a vacuum slider in communication with the mold holder, the vacuum slider comprising two vacuum slots, each vacuum slot being operable to (i) be engaged with the first vacuum port of a respective mold holder at a first time in a rotary BFS cycle and (i) be engaged with the second vacuum port of a respective mold holder at a second time in the rotary BFS cycle.
A method of processing a solar cell device on which a front wiring is to be formed, the method comprising: detecting at least one inconsistency (14, 16) at a surface of a semiconductor substrate having a solar cell active region formed therein, wherein an inconsistency means any surface defect, non-planar surface feature or other surface irregularity that can cause shorting and/or increase resistance of a front wiring if the front wiring is formed thereon compared to the resistance of the wiring if the inconsistency were not present; determining a deposition pattern for forming the front wiring based on a location of the at least one inconsistency; and selectively depositing a material on the substrate according to the deposition pattern, wherein selectively depositing the material comprises selectively depositing a conductive line that circumvents the at least one inconsistency so that the conductive line is positioned proximate to, but not over, the at least one inconsistency and that is thus configured to avoid the at least one inconsistency, the conductive line forming a portion of the front wiring on the solar cell device. detecting at least one inconsistency (14, 16) at a surface of a semiconductor substrate having a solar cell active region formed therein, wherein an inconsistency means any surface defect, non-planar surface feature or other surface irregularity that can cause shorting and/or increase resistance of a front wiring if the front wiring is formed thereon compared to the resistance of the wiring if the inconsistency were not present; determining a deposition pattern for forming the front wiring based on a location of the at least one inconsistency; and selectively depositing a material on the substrate according to the deposition pattern, wherein selectively depositing the material comprises selectively depositing a conductive line that circumvents the at least one inconsistency so that the conductive line is positioned proximate to, but not over, the at least one inconsistency and that is thus configured to avoid the at least one inconsistency, the conductive line forming a portion of the front wiring on the solar cell device.
A capacitive sensor device comprising a transmitter electrode (304; 404; 504; 614) coupled with an output of a driver (326; 444; 544; 610) and a receiver stage (602; 604; 606) having an output coupled with an input of the driver, wherein the receiver stage (602; 604; 606) comprises: a receiver electrode (304; 404; 504; 612); and a loop filter (322, 324, 330; 422, 424, 430; 522, 524, 530) configured to: issue a capacitance measurement upon activation of electrical oscillation of a feedback circuit formed by the transmitter electrode (304; 404; 504; 614), the driver (326; 444; 544; 610) and the receiver stage (602; 604; 606), wherein oscillation depends on a capacitive coupling between the transmitter electrode (304; 404; 504; 614) and the receiver electrode (304; 404; 504; 614). a receiver electrode (304; 404; 504; 612); and a loop filter (322, 324, 330; 422, 424, 430; 522, 524, 530) configured to: issue a capacitance measurement upon activation of electrical oscillation of a feedback circuit formed by the transmitter electrode (304; 404; 504; 614), the driver (326; 444; 544; 610) and the receiver stage (602; 604; 606), wherein oscillation depends on a capacitive coupling between the transmitter electrode (304; 404; 504; 614) and the receiver electrode (304; 404; 504; 614).
A tetrazolium compound represented by formula: wherein, R 1 and R 2 each independently is hydrogen or a C 1-6 alkoxyl (provided that R 1 and R 2 are not hydrogen at the same time), R 3 is hydrogen or nitro, R 4 is hydrogen, nitro or a C 1-6 alkoxyl and X - is an anion; at least one of R 3 and R 4 is nitro; and an absorption wavelength region of the formazan dye which is produced by reduction of the tetrazolium compound is from 400 nm to 420 nm. wherein, R 1 and R 2 each independently is hydrogen or a C 1-6 alkoxyl (provided that R 1 and R 2 are not hydrogen at the same time), R 3 is hydrogen or nitro, R 4 is hydrogen, nitro or a C 1-6 alkoxyl and X - is an anion; at least one of R 3 and R 4 is nitro; and an absorption wavelength region of the formazan dye which is produced by reduction of the tetrazolium compound is from 400 nm to 420 nm.
A unit of a restoring spring and guide clip for a disc brake for a motor vehicle brake system, wherein the unit of a restoring spring and guide clip comprises a restoring spring which is configured to engage the brake lining arrangement of the disc brake and to bias the brake lining arrangement under elastic deformation into a starting position, and wherein the restoring spring can be plastically deformed in order to compensate for brake lining wear, wherein the unit of a restoring spring and guide clip further comprises a guide clip which is configured to guide the brake lining support of the brake lining arrangement and which is configured to be accommodated in a receiving region of the brake support, characterized in that the unit of restoring spring and guide clip is manufactured by shaping a flat component, wherein the restoring spring and the guide clip are manufactured in each case by shaping an, in the flat state, substantially elongate portion (44, 46) of the flat component, wherein the respective longitudinal axes (L 1, L 2) of the elongate portions (44, 46) run substantially parallel to one another.
Method for preparing a cable formed of carbon nanotubes, comprising decomposing at least one carbon precursor compound and at least one precursor compound of a catalyst on a porous substrate (43, 64), in which method, continuously: - a first gas stream comprising a precursor of a catalyst is brought into contact with a porous substrate (43, 64); - a second gas stream including at least one carbon precursor is brought into contact with said porous substrate (43, 64); - said porous substrate is heated to a temperature leading to the deposition of catalyst particles and the catalytic growth of a carbon nanotube bundle, and preferably comprised between 500°C and 1000°C. - a first gas stream comprising a precursor of a catalyst is brought into contact with a porous substrate (43, 64); - a second gas stream including at least one carbon precursor is brought into contact with said porous substrate (43, 64); - said porous substrate is heated to a temperature leading to the deposition of catalyst particles and the catalytic growth of a carbon nanotube bundle, and preferably comprised between 500°C and 1000°C.
An image acquisition system, comprising: a first imaging modality device being an endoscope configured to acquire images to enable selection of an area of interest from a subject from at least one position; a second imaging modality device being an X-ray imaging system configured to acquire images of the area of interest of the subject from a plurality of poses selected based upon the at least one position of the endoscope and an image of said area of interest acquired using the endoscope, and in accordance with criteria to provide a best pose or poses, wherein the position of the endoscope is computed based on a scout image acquired using the X-ray imaging system in case the endoscope is visible in said scout image, or based on said scout scan and preoperative images in case the endoscope is not visible in the scout scan; and a planning module stored in memory and configured to determine at least one trajectory that permits the best pose or poses of the second imaging modality device to be achieved to acquire, in cooperation with the first imaging modality device, an image or images of the subject. a first imaging modality device being an endoscope configured to acquire images to enable selection of an area of interest from a subject from at least one position; a second imaging modality device being an X-ray imaging system configured to acquire images of the area of interest of the subject from a plurality of poses selected based upon the at least one position of the endoscope and an image of said area of interest acquired using the endoscope, and in accordance with criteria to provide a best pose or poses, wherein the position of the endoscope is computed based on a scout image acquired using the X-ray imaging system in case the endoscope is visible in said scout image, or based on said scout scan and preoperative images in case the endoscope is not visible in the scout scan; and a planning module stored in memory and configured to determine at least one trajectory that permits the best pose or poses of the second imaging modality device to be achieved to acquire, in cooperation with the first imaging modality device, an image or images of the subject.