mhurhangee/ep-ind-claims huggingface dataset:
A coaxial, dual rotor system comprising: a first rotor assembly disposed at a rotor axis; a first rotor quill shaft operably connected to the first rotor assembly at the rotor axis to drive rotation of the first rotor assembly about the rotor axis; a nonrotating static mast extending along the rotor axis inside of the first rotor quill shaft; a second rotor assembly disposed at the rotor axis; and a second rotor quill shaft operably connected to the second rotor assembly to drive rotation of the second rotor assembly about the rotor axis, the second rotor quill shaft coaxial with the first rotor quill shaft; characterized in that the second rotor quill shaft is disposed inside of the static mast; and a second rotor bearing is disposed between the second rotor assembly and the static mast to transfer loads from the second rotor assembly to the static mast. a first rotor assembly disposed at a rotor axis; a first rotor quill shaft operably connected to the first rotor assembly at the rotor axis to drive rotation of the first rotor assembly about the rotor axis; a nonrotating static mast extending along the rotor axis inside of the first rotor quill shaft; a second rotor assembly disposed at the rotor axis; and a second rotor quill shaft operably connected to the second rotor assembly to drive rotation of the second rotor assembly about the rotor axis, the second rotor quill shaft coaxial with the first rotor quill shaft; characterized in that the second rotor quill shaft is disposed inside of the static mast; and a second rotor bearing is disposed between the second rotor assembly and the static mast to transfer loads from the second rotor assembly to the static mast.
SPIM (selective plane illumination microscopy) microscope, having: an illumination source transmitting an illumination light beam (5, 41) from a y-direction onto an object to be imaged; a camera capturing fluorescence light and/or reflected light emitted in the z-direction as a first detection direction from an object, wherein the z-direction extends substantially perpendicularly to the y-direction, and an x-scanner producing a light sheet by sequentially scanning the illumination light beam (5, 41) in an x-direction, wherein the x-direction extends substantially perpendicularly to the y-direction and to the z-direction and the light sheet is accordingly built sequentially in a plane defined by the x-direction and y-direction; characterized by an illumination optical unit having a zoom optical unit that is arranged in the beam path of the illumination light beam (5, 41) and by means of which the focal length of the illumination light beam (5, 41) is variable and/or the numerical aperture of the zoom optical unit is increasable to illuminate a thin plane and to reduce the utilizable extent of the light sheet; and by the sequential recording of image sequences along the y-direction to attain increased resolution along the z-direction. an illumination source transmitting an illumination light beam (5, 41) from a y-direction onto an object to be imaged; a camera capturing fluorescence light and/or reflected light emitted in the z-direction as a first detection direction from an object, wherein the z-direction extends substantially perpendicularly to the y-direction, and an x-scanner producing a light sheet by sequentially scanning the illumination light beam (5, 41) in an x-direction, wherein the x-direction extends substantially perpendicularly to the y-direction and to the z-direction and the light sheet is accordingly built sequentially in a plane defined by the x-direction and y-direction; characterized by an illumination optical unit having a zoom optical unit that is arranged in the beam path of the illumination light beam (5, 41) and by means of which the focal length of the illumination light beam (5, 41) is variable and/or the numerical aperture of the zoom optical unit is increasable to illuminate a thin plane and to reduce the utilizable extent of the light sheet; and by the sequential recording of image sequences along the y-direction to attain increased resolution along the z-direction.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, BS, configuration information including a plurality of scheduling request, SR, configurations, wherein the plurality of SR configurations include a first SR configuration including a first maximum number of SR transmissions and a second SR configuration including a second maximum number of SR transmissions; identifying an SR to transmit to the BS corresponding to the first SR configuration or the second SR configuration among the plurality of SR configurations; in case that a first SR counter for the first SR configuration is smaller than the first maximum number of SR transmissions, or a second SR counter for the second SR configuration is smaller than the second maximum number of SR transmissions, incrementing the first SR counter or the second SR counter corresponding to the identified SR and transmitting the identified SR to the BS; and in case that the first SR counter is not smaller than the first maximum number of SR transmissions, or the second SR counter is not smaller than the second maximum number of SR transmissions, performing a random access procedure. receiving, from a base station, BS, configuration information including a plurality of scheduling request, SR, configurations, wherein the plurality of SR configurations include a first SR configuration including a first maximum number of SR transmissions and a second SR configuration including a second maximum number of SR transmissions; identifying an SR to transmit to the BS corresponding to the first SR configuration or the second SR configuration among the plurality of SR configurations; in case that a first SR counter for the first SR configuration is smaller than the first maximum number of SR transmissions, or a second SR counter for the second SR configuration is smaller than the second maximum number of SR transmissions, incrementing the first SR counter or the second SR counter corresponding to the identified SR and transmitting the identified SR to the BS; and in case that the first SR counter is not smaller than the first maximum number of SR transmissions, or the second SR counter is not smaller than the second maximum number of SR transmissions, performing a random access procedure.
A composition comprising an isolated antibody fragment, wherein the antibody fragment is a Fab of the IgGl isotype comprising a truncated hinge region that terminates with residue D 221 (EU numbering).
A beamstop arrangement for an x-ray-optical system having a vacuum housing and at least one beamstop adjustable in an xy plane perpendicular to a z direction for optimum setting of the ratio of useful radiation reaching a surface to interfering radiation of an x-ray beam in the z direction, wherein the beamstop arrangement comprises a plurality of beamstops of differing size and/or geometry, which are arranged on an exchanging mount, which is installed on a carriage displaceable in the xy plane by means of a drive unit having at least two positioning motors, characterized in that the carriage having the exchanging mount is arranged in vacuum and the positioning motors of the drive unit are arranged in a region having room pressure, wherein the carriage and the movable exchanging mount are located within the vacuum housing whereas the positioning motors are arranged at room pressure outside on the housing, and in that the positioning motors transmit the drive movement of the carriage via positioning elements, in particular tappets, from the room pressure region into the vacuum, wherein seals are provided on the vacuum housing at the transition region between room pressure and vacuum, by means of which the positioning elements are sealed. that the carriage having the exchanging mount is arranged in vacuum and the positioning motors of the drive unit are arranged in a region having room pressure, wherein the carriage and the movable exchanging mount are located within the vacuum housing whereas the positioning motors are arranged at room pressure outside on the housing, and in that the positioning motors transmit the drive movement of the carriage via positioning elements, in particular tappets, from the room pressure region into the vacuum, wherein seals are provided on the vacuum housing at the transition region between room pressure and vacuum, by means of which the positioning elements are sealed.
A process for the preparation of a compound comprising at least one cyclic monothiocarbonate group, wherein a salt, formed of an acidic compound with at least one acidic hydrogen atom and a base, is reacted with a compound of formula wherein one of the groups R 1 to R 4 is a group of formula -A-X with A representing an alkylene group with 1 to 10 carbon atoms and X representing a halide, the remaining groups R 1 to R 4 independently from each other represent hydrogen or an organic group with 1 to 50 carbon atoms, and wherein the acidic compound is hydrogen sulfide or an organic compound with at least one group selected from a hydroxy group, a thiol group, an imide group, or a carboxylic acid group. with A representing an alkylene group with 1 to 10 carbon atoms and X representing a halide, the remaining groups R 1 to R 4 independently from each other represent hydrogen or an organic group with 1 to 50 carbon atoms, and wherein the acidic compound is hydrogen sulfide or an organic compound with at least one group selected from a hydroxy group, a thiol group, an imide group, or a carboxylic acid group.
A method of fabricating a transducer, comprising: depositing a first piezoelectric layer on a substrate; depositing an intervening layer on the first piezoelectric layer, wherein the intervening layer is a layer of molybdenum; obtaining information indicative of a first vertical stress of the first piezoelectric layer; determining a second vertical stress that offsets the first vertical stress such that a combination of the first and second vertical stresses is a substantially zero deflection of the transducer; selecting a bias power that produces the second vertical stress; and depositing, using the selected bias power, the second piezoelectric layer on the intervening layer. depositing a first piezoelectric layer on a substrate; depositing an intervening layer on the first piezoelectric layer, wherein the intervening layer is a layer of molybdenum; obtaining information indicative of a first vertical stress of the first piezoelectric layer; determining a second vertical stress that offsets the first vertical stress such that a combination of the first and second vertical stresses is a substantially zero deflection of the transducer; selecting a bias power that produces the second vertical stress; and depositing, using the selected bias power, the second piezoelectric layer on the intervening layer.
An antenna housing for an antenna, the antenna housing comprising: - a body, comprising - an opening in a main radiation direction of the antenna, and - a rim surrounding the opening, - a cover sheet, arranged on the rim of the body, configured to cover the opening, and - a tension arrangement (68, 127), configured to provide tension to the cover sheet towards the rim of the body, wherein the tension arrangement (68, 127) comprises: - a non-elastic tension element (65, 120), configured to provide the tension to the cover sheet towards the rim of the body, and - an elastic sealing element (66, 126, 131, 141, 151, 161, 171, 181, 191), configured to provide a seal between the cover sheet and the rim of the body, wherein the non-elastic tension element (65, 120) comprises at least one holding element (122, 650), configured to fixedly hold an edge of the cover sheet with regard to the rim of the body, and wherein the non-elastic tension element (65, 120) comprises at least one deformation element (121, 651), configured to deform the cover sheet between the at least one holding element (122, 650) and the elastic sealing element (66, 126, 131, 141, 151, 161, 171, 181, 191), thereby providing the tension to the cover sheet. - a body, comprising - an opening in a main radiation direction of the antenna, and - a rim surrounding the opening, - an opening in a main radiation direction of the antenna, and - a rim surrounding the opening, - a cover sheet, arranged on the rim of the body, configured to cover the opening, and - a tension arrangement (68, 127), configured to provide tension to the cover sheet towards the rim of the body, - a non-elastic tension element (65, 120), configured to provide the tension to the cover sheet towards the rim of the body, and - an elastic sealing element (66, 126, 131, 141, 151, 161, 171, 181, 191), configured to provide a seal between the cover sheet and the rim of the body,
A device (1, 30, 40, 50, 60) for denuding a vein comprising a vein denuding head operatively attached to an elongated catheter member and configured for transluminal delivery and deployment in the vein, the vein denuding head comprising a helical coil that is self-adjustable from an uncoiled delivery configuration suitable for transluminal delivery within the catheter member to a coiled deployed configuration that in use has a diameter greater than the vein being denuded so that it circumferentially engages an inner lumen of the vein, wherein the helical coil has a vein inner lumen facing surface that is roughened to provide circumferential engagement between the roughened surface and the inner lumen of the vein without rotation of the helical coil to irreversibly damage and circumferentially denude the inner lumen of the vein when the helical coil, is moved axially along the vein in the coiled deployed configuration, and in which the helical coil in its deployed configuration is configured to self-adjust to varying diameter of a vein as it travels along a vein.
Method for controlling the electrical moment of a wind turbine by closed-loop control in the event of a grid fault, comprising the following steps: a. discovering a fall in voltage that is outside the limits of normal operation; characterized in that the method has the further steps of: b. initializing a moment ramp; c. comparing a target value of a moment closed-loop controller (26, 27) with the moment ramp; d. selecting the lesser value from step c. as a moment setpoint value; and e. setting the electrical moment of the wind turbine on the basis of the moment setpoint value. a. discovering a fall in voltage that is outside the limits of normal operation; b. initializing a moment ramp; c. comparing a target value of a moment closed-loop controller (26, 27) with the moment ramp; d. selecting the lesser value from step c. as a moment setpoint value; and e. setting the electrical moment of the wind turbine on the basis of the moment setpoint value.
Base unit for releasably fixing workpiece supports, which each comprise at least one clamping bolt, wherein the base unit comprises the following: a base plate, a cover plate, which is provided with cover plate through-openings through each of which a clamping bolt of a workpiece support is able to pass, a fixing element, by means of which at least one clamping bolt of a workpiece support is fixable to the base unit when the fixing element is located in a working position, and a movement device for moving the fixing element from a rest position into the working position and/or from the working position into the rest position, characterized in that the fixing element is provided with fixing element through-openings through each of which a clamping bolt of a workpiece support is able to pass, wherein the fixing element comprises resiliently held clamping frames on each of which at least one fixing element through-opening is arranged, wherein each clamping frame is held on a basic body of the fixing element by means of one or more resiliently elastic arms. a base plate, a cover plate, which is provided with cover plate through-openings through each of which a clamping bolt of a workpiece support is able to pass, a fixing element, by means of which at least one clamping bolt of a workpiece support is fixable to the base unit when the fixing element is located in a working position, and a movement device for moving the fixing element from a rest position into the working position and/or from the working position into the rest position, characterized in that the fixing element is provided with fixing element through-openings through each of which a clamping bolt of a workpiece support is able to pass, wherein the fixing element comprises resiliently held clamping frames on each of which at least one fixing element through-opening is arranged, wherein each clamping frame is held on a basic body of the fixing element by means of one or more resiliently elastic arms.
A filter element for filtering a fluid comprising a filter medium pack extending along a longitudinal axis from a first end to a second end and having: an axial inlet side at said first end for receiving unfiltered fluid, and a circumferential side forming a radial boundary of the filter medium pack; and wherein said filter medium pack is configured for insertion into a housing so as to enclose or partly enclose said circumferential side of the filter medium pack with an outer sidewall of the housing; characterized in that said filter element comprises a bridge seal arrangement for sealingly bridging a gap between the radial boundary of the filter medium pack and the outer sidewall of the housing, said bridge seal arrangement having: a first collar-shaped portion comprising a first circumferential sealing surface sealingly coupled to said circumferential side of the filter medium pack or sealingly coupled to a border of said axial inlet side; and a second collar-shaped portion coupled with said first collar-shaped portion, and wherein said second collar-shaped portion comprises a second circumferential sealing surface configured for encircling and sealingly cooperating with the outer sidewall of the housing; wherein said bridge seal arrangement is configured for allowing a movement of said second collar-shaped portion with respect to said first collar-shaped portion from an un-sealed position to a sealed position and vice-versa; and wherein said bridge seal arrangement is configured such that said second circumferential sealing surface is forming a radially outward-facing circumferential surface and a radially inward-facing circumferential surface when said second collar-shaped portion is positioned in respectively said un-sealed and said sealed position. an axial inlet side at said first end for receiving unfiltered fluid, and a circumferential side forming a radial boundary of the filter medium pack; and wherein said filter medium pack is configured for insertion into a housing so as to enclose or partly enclose said circumferential side of the filter medium pack with an outer sidewall of the housing; a first collar-shaped portion comprising a first circumferential sealing surface sealingly coupled to said circumferential side of the filter medium pack or sealingly coupled to a border of said axial inlet side; and a second collar-shaped portion coupled with said first collar-shaped portion, and wherein said second collar-shaped portion comprises a second circumferential sealing surface configured for encircling and sealingly cooperating with the outer sidewall of the housing; wherein said bridge seal arrangement is configured for allowing a movement of said second collar-shaped portion with respect to said first collar-shaped portion from an un-sealed position to a sealed position and vice-versa; and wherein said bridge seal arrangement is configured such that said second circumferential sealing surface is forming a radially outward-facing circumferential surface and a radially inward-facing circumferential surface when said second collar-shaped portion is positioned in respectively said un-sealed and said sealed position.
A wound closure system comprising: (a) a plurality of skin anchors mechanically attachable to external skin tissue around a periphery of a wound; (b) a line extending between the skin anchors, the line slidably engaged with each skin anchor; and (c) a biasing member that provides tension on the line to draw all of the skin anchors toward each other and the wound, characterised in that the biasing member comprises a constant-force spring. (a) a plurality of skin anchors mechanically attachable to external skin tissue around a periphery of a wound; (b) a line extending between the skin anchors, the line slidably engaged with each skin anchor; and (c) a biasing member that provides tension on the line to draw all of the skin anchors toward each other and the wound,
Sorber (2, 22) having a sorbent which is in direct contact with heating surfaces (4, 24) of a heating means, which surfaces heated the sorbent during a static desorption, wherein the heating surfaces (4, 24) are embedded in an electrically non-insulating manner in relation to the sorbent, and wherein an electrical insulation layer is incorporated between the sorbent and the sorber housing, wherein, for the purpose of bringing about circulation of air through the sorbent, a blower is also provided, and wherein a machine controller is also provided, wherein the machine controller is designed to switch on the heating means such that the sorbent is heated by way of direct static heat supply without forced movement of air for the purpose of desorbing the sorbent, wherein the machine controller is also designed to stop the heating means after a preset heating duration has elapsed and to start the blower for the purpose of post-aeration beginning then.
A method for stabilizing power output in a wind turbine, comprising: tracking a rate of change in an external reference; computing a feed-forward pitch angle adjustment based on a product of a compensation term in an existing pitch controller and the rate of change in the external reference, wherein the compensation term is a ratio of a change in pitch angle ΔΘ to a change in power output ΔP of the wind turbine, wherein ΔΘ is based on a change in the power coefficient ΔCp of the wind turbine, and wherein ΔCp is a function of a current pitch angle of rotor blades of the wind turbine, rotor speed of the wind turbine, and wind speed; computing, in the existing pitch controller, a feed-back pitch angle adjustment based on a measured generator speed; and combining the feed-forward pitch angle adjustment and the feed-back angle adjustment; and sending the feed-forward pitch angle adjustment to the wind turbine to adjust a pitch angle of rotor blades. computing a feed-forward pitch angle adjustment based on a product of a compensation term in an existing pitch controller and the rate of change in the external reference, wherein the compensation term is a ratio of a change in pitch angle ΔΘ to a change in power output ΔP of the wind turbine, wherein ΔΘ is based on a change in the power coefficient ΔCp of the wind turbine, and wherein ΔCp is a function of a current pitch angle of rotor blades of the wind turbine, rotor speed of the wind turbine, and wind speed; computing, in the existing pitch controller, a feed-back pitch angle adjustment based on a measured generator speed; and combining the feed-forward pitch angle adjustment and the feed-back angle adjustment; and sending the feed-forward pitch angle adjustment to the wind turbine to adjust a pitch angle of rotor blades.