mhurhangee/patent-ind-claim-en huggingface dataset:
An optical fiber having a structure uniform in a longitudinal direction, the optical fiber comprising: a core including a silica glass containing an alkali metal element; and a cladding including a silica glass and surrounding the core in a cross-section perpendicular to the longitudinal direction, wherein a refractive index of the cladding is lower than a refractive index of the core , the cladding includes, in the cross-section, an inner cladding layer having a circular ring shape and including the inner circumferential surface of the cladding , and an outer cladding layer having a circular ring shape and including the outer circumferential surface of the cladding , the inner cladding layer has a radial thickness of 5 μm or more and 30 μm or less, the outer cladding layer has a radial thickness of 27 μm or more and 53 μm or less, the inner cladding layer contains fluorine, the inner and outer cladding layers have refractive indexes different from each other, the outer cladding layer includes a local maximum portion where a residual stress, which is a tensile stress, becomes local maximum, and characterized in that a radial distance between the local maximum portion and the inner circumferential surface of the outer cladding layer is 10 μm or less. a core including a silica glass containing an alkali metal element; and a cladding including a silica glass and surrounding the core in a cross-section perpendicular to the longitudinal direction, wherein a refractive index of the cladding is lower than a refractive index of the core , the cladding includes, in the cross-section, an inner cladding layer having a circular ring shape and including the inner circumferential surface of the cladding , and an outer cladding layer having a circular ring shape and including the outer circumferential surface of the cladding , the inner cladding layer has a radial thickness of 5 μm or more and 30 μm or less, the outer cladding layer has a radial thickness of 27 μm or more and 53 μm or less, the inner cladding layer contains fluorine, the inner and outer cladding layers have refractive indexes different from each other, the outer cladding layer includes a local maximum portion where a residual stress, which is a tensile stress, becomes local maximum, and characterized in that a radial distance between the local maximum portion and the inner circumferential surface of the outer cladding layer is 10 μm or less.
A modular floatation collar for aquaculture applications, the modular floatation collar comprising: a first segment of the modular floatation collar comprising a frame having a recessed compartment and further comprising a removable decking covering the recessed compartment; a second segment of the modular floatation collar comprising a frame and further comprising a removable decking covering the recessed compartment; a floatation unit ; and a pivotal connection between said segments around a horizontal pivoting axis, each end of each said segment is provided with a respective one of universal connectors forming said pivotal connection and each side of each said segment is provided with a respective one of the universal connectors to allow the segment to be connected to an adjacent segment either linearly along a common axis or orthogonally at a right angle; characterized in that the first segment of the modular floatation collar and the second segment of the modular floatation collar are both mounted on the floatation unit, and the floatation unit extends between the first segment of the modular floatation collar and the second segment of the modular floatation collar. a first segment of the modular floatation collar comprising a frame having a recessed compartment and further comprising a removable decking covering the recessed compartment; a second segment of the modular floatation collar comprising a frame and further comprising a removable decking covering the recessed compartment; a floatation unit ; and a pivotal connection between said segments around a horizontal pivoting axis, each end of each said segment is provided with a respective one of universal connectors forming said pivotal connection and each side of each said segment is provided with a respective one of the universal connectors to allow the segment to be connected to an adjacent segment either linearly along a common axis or orthogonally at a right angle; characterized in that the first segment of the modular floatation collar and the second segment of the modular floatation collar are both mounted on the floatation unit, and the floatation unit extends between the first segment of the modular floatation collar and the second segment of the modular floatation collar.
A geometrically complex intravaginal ring (IVR), the IVR comprising: a three dimensional ring structure comprising a body forming an inner diameter and an outer diameter; a plurality of geometrically shaped unit cells, the unit cells comprising a macroscopic and/or microscopic architecture, forming geometric shapes wherein the plurality of geometrically shaped unit cells together form the body of the ring structure, wherein the IVR comprises one or more types of geometrically shaped unit cells, wherein each type of geometrically shaped unit cell varies in size, shape, configuration, surface area and/or three dimensional geometry; and an active compound; wherein the macroscopic architecture and/or microscopic architecture of the geometrically shaped unit cells is configured to control a loading capacity of the active compound within or on the IVR, a diffusion rate of the active compound from the IVR, a surface area of the IVR, a fractional volume of the IVR, and/or a mechanical property of the IVR, wherein a shape, size, and/or surface area of the IVR is fabricated by 3D printing; and wherein the active compound is incorporated into the IVR during or after 3D printing. a three dimensional ring structure comprising a body forming an inner diameter and an outer diameter; a plurality of geometrically shaped unit cells, the unit cells comprising a macroscopic and/or microscopic architecture, forming geometric shapes wherein the plurality of geometrically shaped unit cells together form the body of the ring structure, wherein the IVR comprises one or more types of geometrically shaped unit cells, wherein each type of geometrically shaped unit cell varies in size, shape, configuration, surface area and/or three dimensional geometry; and an active compound; wherein the macroscopic architecture and/or microscopic architecture of the geometrically shaped unit cells is configured to control a loading capacity of the active compound within or on the IVR, a diffusion rate of the active compound from the IVR, a surface area of the IVR, a fractional volume of the IVR, and/or a mechanical property of the IVR, wherein a shape, size, and/or surface area of the IVR is fabricated by 3D printing; and wherein the active compound is incorporated into the IVR during or after 3D printing.
A device for determining an occupancy rate of a conveying means , the device comprising at least one first and one second detecting means , which both comprise a sender for sending detecting waves and a receiver for receiving the detecting waves, adjusting means which is configured to adjust the position of the at least two detecting means relative to the conveying means such that the at least two detecting means detect, after detecting freight conveyed by the conveying means , the conveying means without conveyed freight, or vice versa, wherein the adjusting means is configured to adjust the position of the at least two detecting means relative to the conveying means by moving the at least two detecting means transverse to a conveying direction (TR) of freight conveyed by the conveying means until one detecting means of the detecting means detects freight conveyed by the conveying means and the other detecting means of the detecting means detects the conveying means without conveyed freight, and determining means which is configured to determine a current occupancy rate of the conveying means with freight on the basis of the position of at least one of the detecting means , wherein the position was adjusted by the adjusting means relative to the conveying means .
A drain valve button bracket with a directed push button, comprising: a bracket , for being arranged on a drain valve in a circumferential limiting manner, that is in a manner limiting rotation in the circumferential direction; a push button main body , having an accommodating cavity and in threaded connection with the bracket; a push button component, slidably arranged in the accommodating cavity and rotatable relative to the push button main body ; a compression bar , arranged on the bracket in the circumferential limiting manner, in circumferential limiting fit with the push button component; characterized by further comprising a connecting sleeve , an upper part of which is arranged in the push button main body in an axially movable manner, capable of rotating with the push button main body and rotatably connected with the push button component; and in that the compression bar , is in threaded connection with the connecting sleeve ; and in that the connecting sleeve is configured to drive the compression bar to move along the axial direction so as to be capable of driving the drain valve to open to drain water, when the push button component is operated. a bracket , for being arranged on a drain valve in a circumferential limiting manner, that is in a manner limiting rotation in the circumferential direction; a push button main body , having an accommodating cavity and in threaded connection with the bracket; a push button component, slidably arranged in the accommodating cavity and rotatable relative to the push button main body ; a compression bar , arranged on the bracket in the circumferential limiting manner, in circumferential limiting fit with the push button component; characterized by further comprising a connecting sleeve , an upper part of which is arranged in the push button main body in an axially movable manner, capable of rotating with the push button main body and rotatably connected with the push button component; and in that the compression bar , is in threaded connection with the connecting sleeve ; and in that the connecting sleeve is configured to drive the compression bar to move along the axial direction so as to be capable of driving the drain valve to open to drain water, when the push button component is operated.
A patch sensor adapted to transmit one or more signals to a medical device , the patch sensor comprising: a transducer array adapted to transmit ultrasound waves and receive echo information to thereby generate a received echo signal; a processing system defining: a first processing pathway adapted to process the received echo signal to generate a first signal carrying a first type of medical data derived from the received echo signal; and a second processing pathway adapted to process the received echo signal to generate a second signal carrying a second, different type of medical data derived from the received echo signal, the second signal occupying a greater bandwidth than the first signal; and a communications module adapted to transmit one or more signals to the medical device, the communications module being operable in: a first communication mode, in which the communications module transmits only the first signal to the medical device; and a second communication mode, in which the communications module transmits at least the second signal to the medical device, wherein the first type of medical data is physiological data and the second type of medical data is ultrasound imaging data. a transducer array adapted to transmit ultrasound waves and receive echo information to thereby generate a received echo signal; a processing system defining: a first processing pathway adapted to process the received echo signal to generate a first signal carrying a first type of medical data derived from the received echo signal; and a second processing pathway adapted to process the received echo signal to generate a second signal carrying a second, different type of medical data derived from the received echo signal, the second signal occupying a greater bandwidth than the first signal; and a first processing pathway adapted to process the received echo signal to generate a first signal carrying a first type of medical data derived from the received echo signal; and a second processing pathway adapted to process the received echo signal to generate a second signal carrying a second, different type of medical data derived from the received echo signal, the second signal occupying a greater bandwidth than the first signal; and a communications module adapted to transmit one or more signals to the medical device, the communications module being operable in: a first communication mode, in which the communications module transmits only the first signal to the medical device; and a second communication mode, in which the communications module transmits at least the second signal to the medical device, wherein the first type of medical data is physiological data and the second type of medical data is ultrasound imaging data. a first communication mode, in which the communications module transmits only the first signal to the medical device; and a second communication mode, in which the communications module transmits at least the second signal to the medical device, wherein the first type of medical data is physiological data and the second type of medical data is ultrasound imaging data.
A braided part connection structure comprising: a shielded cable comprising an insulated wire and a braided part having a tubular shape covering the insulated wire along a longitudinal direction of the braided part connection structure; and a shield member into which the insulated electrical wire is inserted, having a tubular shape and electrically connected and fixed to the braided part , wherein the shield member includes a braided part joining portion , wherein the braided part covers the braided part joining portion and is welded to a welding portion characterized in that the braided part joining portion has a plurality of openings arranged at intervals along a circumferential direction of the shield member in a portion of the shield member in the longitudinal direction, and the welding portion is formed in the braided part joining portion between two openings adjacent to each other in the circumferential direction. a shielded cable comprising an insulated wire and a braided part having a tubular shape covering the insulated wire along a longitudinal direction of the braided part connection structure; and a shield member into which the insulated electrical wire is inserted, having a tubular shape and electrically connected and fixed to the braided part , wherein the shield member includes a braided part joining portion , wherein the braided part covers the braided part joining portion and is welded to a welding portion characterized in that
A pharmaceutical composition comprising valproic acid, or a pharmaceutically acceptable salt thereof, for use in treating or preventing a pathological condition associated with excess fibrin deposition and/or thrombus formation, wherein said treatment comprises administering the composition to a patient such that the maximum plasma concentration (Cmax) of valproic acid, or a salt and/or metabolite thereof, in the patient occurs during a time period that is from 02:00 to 07:00 hours, wherein the treatment comprises administering the composition to a patient during a time period determined based on the release profile of the composition in order to provide the required plasma concentration of valproic acid, or a salt and/or metabolite thereof.
Process for preparing a metal containing layer, the process comprising (i) at least one step of co-vaporization, at a pressure which is lower than 10 -2 Pa, of a) at least one first metal selected from Li, Na, K, Rb and Cs and b) at least one second metal selected Mg, Zn, Hg, Cd and Te from a metal alloy provided in a first vaporization source which is heated to a temperature between 100 °C and 600 °C, and (ii) at least one subsequent step of deposition of the first metal on a surface having a temperature which is below the temperature of the first vaporization source, wherein in step (i), the alloy is provided at least partly in form of a homogeneous phase comprising the first metal and the second metal; and step (i) further comprises co-vaporization, at a pressure which is lower than 10 -2 Pa, of at least one covalent matrix compound from a covalent matrix material provided in a second vaporization source, wherein the second vaporization source is heated to a temperature between 100 °C and 600 °C; and wherein, in step (ii), the at least one covalent matrix compound is co-deposited on the surface having a temperature which is below the temperature of the first vaporization source and below the temperature of the second vaporization source. (i) at least one step of co-vaporization, at a pressure which is lower than 10 -2 Pa, of a) at least one first metal selected from Li, Na, K, Rb and Cs and b) at least one second metal selected Mg, Zn, Hg, Cd and Te from a metal alloy provided in a first vaporization source which is heated to a temperature between 100 °C and 600 °C, and a) at least one first metal selected from Li, Na, K, Rb and Cs and b) at least one second metal selected Mg, Zn, Hg, Cd and Te (ii) at least one subsequent step of deposition of the first metal on a surface having a temperature which is below the temperature of the first vaporization source, wherein in step (i), the alloy is provided at least partly in form of a homogeneous phase comprising the first metal and the second metal; and step (i) further comprises co-vaporization, at a pressure which is lower than 10 -2 Pa, of at least one covalent matrix compound from a covalent matrix material provided in a second vaporization source, wherein the second vaporization source is heated to a temperature between 100 °C and 600 °C; and wherein, in step (ii), the at least one covalent matrix compound is co-deposited on the surface having a temperature which is below the temperature of the first vaporization source and below the temperature of the second vaporization source.
An assembly for a turbine engine, the assembly comprising: a shell ; and a heat shield attached to the shell with a cooling cavity extending between the heat shield and the shell , the heat shield defining a plurality of cooling apertures and an indentation in a side of the heat shield opposite the cooling cavity , wherein the cooling apertures are fluidly coupled with the cooling cavity , characterised in that an outlet of a first of the cooling apertures is located adjacent or on an edge of the indentation . a shell ; and a heat shield attached to the shell with a cooling cavity extending between the heat shield and the shell , the heat shield defining a plurality of cooling apertures and an indentation in a side of the heat shield opposite the cooling cavity , wherein the cooling apertures are fluidly coupled with the cooling cavity , characterised in that an outlet of a first of the cooling apertures is located adjacent or on an edge of the indentation .
A total station comprising a center unit rotationally mounted on a base for rotation about a first axis and a second axis , the center unit including: a reflecting optical element rotationally mounted in the center unit for rotation about the first axis and the second axis, wherein the rotation of the reflecting optical element determines positions scanned at a surface of a target by the total station in a scanning mode; a radiation source adapted to emit light to be output along an output light beam path from the total station via light reflection against the reflecting optical element; a receiver adapted to receive light entering the total station along an input light beam path via light reflection against the reflecting optical element, a control unit adapted to control the respective rotations of the center unit and the reflecting optical element such that an angular displacement of the input and output light beam paths about either one of the first axis and the second axis as a function of time results in a stair-like profile, and an electronic distance measurement, EDM, unit adapted to determine a distance to a position at the target based on a signal representative of light received at the receiver during a flat portion of the stair-like profile. a reflecting optical element rotationally mounted in the center unit for rotation about the first axis and the second axis, wherein the rotation of the reflecting optical element determines positions scanned at a surface of a target by the total station in a scanning mode; a radiation source adapted to emit light to be output along an output light beam path from the total station via light reflection against the reflecting optical element; a receiver adapted to receive light entering the total station along an input light beam path via light reflection against the reflecting optical element, a control unit adapted to control the respective rotations of the center unit and the reflecting optical element such that an angular displacement of the input and output light beam paths about either one of the first axis and the second axis as a function of time results in a stair-like profile, and an electronic distance measurement, EDM, unit adapted to determine a distance to a position at the target based on a signal representative of light received at the receiver during a flat portion of the stair-like profile.
A process for preparing a compound of Formula comprising the steps of a) contacting a compound of Formula with a base and a first solvent to obtain a solution wherein the molar ratio of base to compound of Formula is at least 0.7; b) addition of hydrazine to obtain a compound of Formula c) optionally adding a second solvent and/or partially removing the first solvent; and d) heating the reaction mixture to a temperature above 190° C to obtain the compound of Formula , wherein step (b) and (c) are optionally performed concurrently; and wherein R 1 -R 7 are hydrogen, R 8 and R 9 are independently hydrogen or C 1 -C 8 alkyl; and X is a counter acid; and wherein the first solvent and the second solvent is triethylene glycol. a) contacting a compound of Formula with a base and a first solvent to obtain a solution wherein the molar ratio of base to compound of Formula is at least 0.7; b) addition of hydrazine to obtain a compound of Formula c) optionally adding a second solvent and/or partially removing the first solvent; and d) heating the reaction mixture to a temperature above 190° C to obtain the compound of Formula , wherein step (b) and (c) are optionally performed concurrently; and wherein
Tong system for connecting a drilling rod element with a stationary drilling rod element or for separating a drilling rod element from a stationary drilling rod element , wherein the tong system comprises at least two mutually facing clamping blocks moveable by means of a drive unit which are intended for fixing the tong system to the stationary drilling rod element and which have a gripping surface on a gripping side, characterized in that at least one clamping block comprises movable means with a centring contour for adjusting the tong system relative to the stationary drilling rod element , in that the or each means intended for adjusting the tong system relative to the stationary drilling rod element has a central notch and two lateral lugs as a centring contour and in that the or each means intended for adjusting the tong system relative to the stationary drilling rod element is resiliently mounted and is translationally moveable relative to the clamping block and the gripping surface .