mhurhangee/ep-ind-claims huggingface dataset:
A soluble microneedle comprising crosslinked hyaluronic acid; and sugar, wherein the sugar is comprised in an amount of 10 to 50 % by weight based on the total weight of the microneedle, and the sugar and crosslinked hyaluronic acid are comprised at a weight ratio of 1: 0.0001 to 0.1 (sugar: crosslinked hyaluronic acid), and wherein the crosslinked hyaluronic acid and sugar are comprised with a material forming a microneedle. crosslinked hyaluronic acid; and sugar, wherein the sugar is comprised in an amount of 10 to 50 % by weight based on the total weight of the microneedle, and the sugar and crosslinked hyaluronic acid are comprised at a weight ratio of 1: 0.0001 to 0.1 (sugar: crosslinked hyaluronic acid), and wherein the crosslinked hyaluronic acid and sugar are comprised with a material forming a microneedle.
A polymerized rosin compound, comprising: a rosin dimer component comprising: a bifunctional rosin dimer component represented by formula: ROOC-X-COOR, wherein X represents a rosin dimer residue derived from resin acid having conjugated double bonds, and R represents hydrogen, an alkyl group of 1 to 5 carbon atoms, or a benzyl group, the rosin dimer component having a content of the bifunctional rosin dimer component of 80% by weight or more, the polymerized rosin compound having a content of the rosin dimer component of 80% by weight or more, wherein the polymerized rosin compound contains at least one component selected from: a rosin trimer or higher oligomer component, a monofunctional rosin dimer component having one functional group represented by formula: ROOC-, wherein R represents hydrogen, an alkyl group of 1 to 5 carbon atoms, or a benzyl group, and a functional group-free rosin dimer component free of functional group represented by formula: ROOC-, wherein R represents hydrogen, an alkyl group of 1 to 5 carbon atoms, or a benzyl group. a rosin dimer component comprising: a bifunctional rosin dimer component represented by formula: ROOC-X-COOR, wherein X represents a rosin dimer residue derived from resin acid having conjugated double bonds, and R represents hydrogen, an alkyl group of 1 to 5 carbon atoms, or a benzyl group, the rosin dimer component having a content of the bifunctional rosin dimer component of 80% by weight or more, a bifunctional rosin dimer component represented by formula: ROOC-X-COOR, wherein X represents a rosin dimer residue derived from resin acid having conjugated double bonds, and R represents hydrogen, an alkyl group of 1 to 5 carbon atoms, or a benzyl group, wherein X represents a rosin dimer residue derived from resin acid having conjugated double bonds, and R represents hydrogen, an alkyl group of 1 to 5 carbon atoms, or a benzyl group, the rosin dimer component having a content of the bifunctional rosin dimer component of 80% by weight or more, the polymerized rosin compound having a content of the rosin dimer component of 80% by weight or more, a rosin trimer or higher oligomer component, a monofunctional rosin dimer component having one functional group represented by formula: ROOC-, wherein R represents hydrogen, an alkyl group of 1 to 5 carbon atoms, or a benzyl group, wherein R represents hydrogen, an alkyl group of 1 to 5 carbon atoms, or a benzyl group, and a functional group-free rosin dimer component free of functional group represented by formula: ROOC-, wherein R represents hydrogen, an alkyl group of 1 to 5 carbon atoms, or a benzyl group. wherein R represents hydrogen, an alkyl group of 1 to 5 carbon atoms, or a benzyl group.
A balance for air resistance testing, wherein, it comprises: 2N dual-hole beam sensors and an upper plate, wherein N is a positive integer; the 2N dual-hole beam sensors are arranged beneath the upper plate and fixed to the upper plate; each said dual-hole beam sensor comprises a beam, an upper hole and a lower hole, wherein the upper hole and the lower hole are arranged along the longitudinal direction of the beam, the upper hole is arranged at the upper part of the beam, and the lower hole is arranged at the lower part of the beam, wherein the dual-hole beam sensor further comprises a first strain gauge (R 1), a second strain gauge (R 2), a third strain gauge (R 3) and a fourth strain gauge (R 4); the first strain gauge (R 1) and the third strain gauge (R 3) are arranged on the outer side of the lower part of the beam, and the first strain gauge (R 1) and the third strain gauge (R 3) are arranged symmetrically with respect to the lower hole; the second strain gauge (R 2) and the fourth strain gauge (R 4) are arranged on the outer side of the upper part of the beam, and the second strain gauge (R 2) and the fourth gauge (R 4) are arranged symmetrically with respect to the upper hole, such that reading strain of the dual-hole beam sensor is only generated by the force in the flow direction, wherein said upper and lower are oriented relative to the direction of the gravitational force, characterized in that the upper hole and the lower hole are both circular holes. sensors and an upper plate, wherein N is a positive integer; the 2N dual-hole beam sensors are arranged beneath the upper plate and fixed to the upper plate; each said dual-hole beam sensor comprises a beam, an upper hole and a lower hole, wherein the upper hole and the lower hole are arranged along the longitudinal direction of the beam, the upper hole is arranged at the upper part of the beam, and the lower hole is arranged at the lower part of the beam, wherein the dual-hole beam sensor further comprises a first strain gauge (R 1), a second strain gauge (R 2), a third strain gauge (R 3) and a fourth strain gauge (R 4); the first strain gauge (R 1) and the third strain gauge (R 3) are arranged on the outer side of the lower part of the beam, and the first strain gauge (R 1) and the third strain gauge (R 3) are arranged symmetrically with respect to the lower hole; the second strain gauge (R 2) and the fourth strain gauge (R 4) are arranged on the outer side of the upper part of the beam, and the second strain gauge (R 2) and the fourth gauge (R 4) are arranged symmetrically with respect to the upper hole, such that reading strain of the dual-hole beam sensor is only generated by the force in the flow direction, wherein said upper and lower are oriented relative to the direction of the gravitational force, characterized in that the upper hole and the lower hole are both circular holes.
An airfoil assembly comprising: a central spar extending along a first direction; a blade skin positioned around the central spar to define an airfoil that has a pressure side and a suction side extending in a second direction, the second direction being perpendicular to the first direction, the pressure side and the suction side extending between a leading edge and a trailing edge, wherein at least one cavity is defined between the blade skin and the central spar; and a support structure positioned at least partially within the at least one cavity, the support structure comprising: a foam; and a foam reinforcement structure embedded within the foam characterised in that the foam reinforcement structure comprises a plurality of structural support members, and wherein at least one of the plurality of structural support members extends between the leading edge of the airfoil and an upstream edge of the central spar or between a downstream edge of the central spar and the trailing edge of the airfoil. a central spar extending along a first direction; a blade skin positioned around the central spar to define an airfoil that has a pressure side and a suction side extending in a second direction, the second direction being perpendicular to the first direction, the pressure side and the suction side extending between a leading edge and a trailing edge, wherein at least one cavity is defined between the blade skin and the central spar; and a support structure positioned at least partially within the at least one cavity, the support structure comprising: a foam; and a foam reinforcement structure embedded within the foam a foam; and a foam reinforcement structure embedded within the foam characterised in that the foam reinforcement structure comprises a plurality of structural support members, and wherein at least one of the plurality of structural support members extends between the leading edge of the airfoil and an upstream edge of the central spar or between a downstream edge of the central spar and the trailing edge of the airfoil.
A panel comprising a consolidated stack, said stack comprising first and second layers, whereby the first layers comprise drawn polyethylene fibers and optionally a binder, and the second layers comprise drawn polyethylene tapes, whereby at least one of the first and/or second layers comprise a woven fabric of the drawn polyethylene fibers and/or the drawn polyethylene tapes, respectively, whereby the total areal density of second layers is between 1% and 50% of the total areal density of the stack.
A method, comprising: detecting implementation of at least one all-digital, AD capable Customer Premises Equipment, CPE; and enabling an AD mode associated with an AD enabled Digital Subscriber Line, DSL, linecard that supports at least the AD mode and another mode that supports DSL and legacy baseband service, characterized in that the act of detecting includes detecting CPE signature circuitry associated with the AD capable CPE, the CPE signature circuitry indicating compatibility with the AD mode of the AD enabled DSL linecard, wherein the act of detecting the CPE signature circuitry is performed by line testing functionality associated with the AD enabled DSL linecard. detecting implementation of at least one all-digital, AD capable Customer Premises Equipment, CPE; and enabling an AD mode associated with an AD enabled Digital Subscriber Line, DSL, linecard that supports at least the AD mode and another mode that supports DSL and legacy baseband service, characterized in that the act of detecting includes detecting CPE signature circuitry associated with the AD capable CPE, the CPE signature circuitry indicating compatibility with the AD mode of the AD enabled DSL linecard, wherein the act of detecting the CPE signature circuitry is performed by line testing functionality associated with the AD enabled DSL linecard.
A multi-stage back pressure regulator comprising: a first stage including a gas-charged regulator device having an inlet configured to receive a fluid, the gas-charged regulator device comprises a gas-charged bellows; and an isolation bellows positioned to separate the gas-charged bellows from the fluid; and a second stage including a spring-loaded regulator device having an outlet in fluid communication with the inlet, wherein the gas-charged regulator and the spring-loaded regulator are configured to direct the fluid to the outlet. a first stage including a gas-charged regulator device having an inlet configured to receive a fluid, the gas-charged regulator device comprises a gas-charged bellows; and an isolation bellows positioned to separate the gas-charged bellows from the fluid; and a second stage including a spring-loaded regulator device having an outlet in fluid communication with the inlet, wherein the gas-charged regulator and the spring-loaded regulator are configured to direct the fluid to the outlet.
Spacecraft comprising: - a body, - a surface of revolution of one piece with said body, characterized in that the spacecraft comprises a heat engine positioned at the center of the surface of revolution, in that said surface of revolution comprises a first portion forming a concentrator for solar radiation in the direction of said heat engine and a second portion coaxial with the first portion and such that the first portion and the second portion forms each with respect to the other a solar radiation concentrator of the Cassegrain type, one focal point of which is located at the heat engine. - a body, - a surface of revolution of one piece with said body,
A fingerprint identification apparatus applied to an electronic device having a display screen, wherein the fingerprint identification apparatus comprises: a support plate used to fixedly connect with a middle frame of the electronic device, wherein the middle frame comprises a light-transmitting opening, an inverted step structure is formed at an edge of the light-transmitting opening, the upper surface of the support plate and a step surface of the inverted step structure are fixedly connected, and the support plate is disposed in an accommodating space formed by the inverted step structure; and at least one fingerprint sensor chip disposed on an upper surface of the support plate and disposed under the display screen through the support plate; wherein the at least one fingerprint sensor chip is configured to receive a fingerprint detecting signal returned by reflection or scattering via a human finger on the display screen, wherein the fingerprint detecting signal is used to detect fingerprint information of the finger; wherein the middle frame is a frame of the electronic device that is disposed between the display screen and an battery and is used for carrying various components therein, and wherein the support plate is a rigid stiffening plate, and an area of the rigid stiffening plate is larger than an area of the optical fingerprint sensor chip component located above the rigid stiffening plate to form an edge connection portion at an edge of the rigid stiffening plate, and an upper surface of the edge connection portion and the step surface of the inverted step structure are fixedly connected by a double-sided adhesive. a support plate used to fixedly connect with a middle frame of the electronic device, wherein the middle frame comprises a light-transmitting opening, an inverted step structure is formed at an edge of the light-transmitting opening, the upper surface of the support plate and a step surface of the inverted step structure are fixedly connected, and the support plate is disposed in an accommodating space formed by the inverted step structure; and at least one fingerprint sensor chip disposed on an upper surface of the support plate and disposed under the display screen through the support plate; wherein the at least one fingerprint sensor chip is configured to receive a fingerprint detecting signal returned by reflection or scattering via a human finger on the display screen, wherein the fingerprint detecting signal is used to detect fingerprint information of the finger; wherein the middle frame is a frame of the electronic device that is disposed between the display screen and an battery and is used for carrying various components therein, and wherein the support plate is a rigid stiffening plate, and an area of the rigid stiffening plate is larger than an area of the optical fingerprint sensor chip component located above the rigid stiffening plate to form an edge connection portion at an edge of the rigid stiffening plate, and an upper surface of the edge connection portion and the step surface of the inverted step structure are fixedly connected by a double-sided adhesive.
Household dishwasher with a wash container for cleaning dishes, glasses, flatware or similar items to be cleaned, wherein the wash container is able to be closed by a door that can be displaced to open it, wherein at least one intake opening (12, 13) for air present in the wash container and a suction unit (17, 18), downstream of the intake opening (12, 13), of at least one suction apparatus are assigned to the wash container, and wherein at least one intake opening (12, 13) transitions into a chamber (20, 21) present in the dishwasher for condensing moisture in the air taken in, wherein the at least one intake opening (12, 13) is only accessible for air and/or steam exiting from the wet chamber of the wash container when the door is open.
A magnetic screen printing ink or flexographic ink having a binder and magnetically alignable, platelet-shaped magnetic pigments that are characterized by the parameters inherent color, coercive field strength, remanence and NIR remission, characterized in that the screen printing ink or flexographic ink includes at least two different magnetically alignable, platelet-shaped magnetic pigments that differ significantly in at least one of the characteristic parameters, especially in that the magnetic pigments exhibit an inherent color having a visually different hue, a coercive field strength that differs by a factor of 1.5 or more, a remanence that differs by a factor of 1.5 or more and/or an integral NIR remission differing by 10% or more in a sub-region having a width of 50 nm, the sub-region lying in the wavelength range from 800 nm to 1,500 nm.
Method of calibrating an adjustable mechanical pointer gauge for measuring a physical quantity, for example a pressure gauge, characterized in that, the method comprises determining the positions of at least two pointer elements (14A, 14B) of an calibration pointer device at at least two different calibration values of the physical quantity, wherein the positions of each pointer element (14A, 14B) are determined using a single electric sensor, wherein at a first calibration value the determination of the position of the calibration pointer device is made by determining the position of the first pointer element and at a second calibration value the determination of the position of the calibration pointer device is made by determining the position of the second pointer element that is fixed to the first pointer element and displaced relative to the first pointer element along the direction of movement of the calibration pointer device and, if necessary, adjusting the mechanical pointer gauge based on the determined positions of the at least two pointer elements (14A, 14B), wherein the calibration pointer device is configured to replace a measurement pointer device.
The non-therapeutic use of a urolithin for improving cognitive function, improving or maintaining mental performance, improving or maintaining mood, or managing stress in generally healthy individuals, wherein the urolithin is urolithin A.
A method for calibrating a multimodality tomographic radiological imaging apparatus comprising: acquiring imaging data using the multimodality tomographic radiological imaging apparatus; updating a calibration (42, 52) based on current information about the multimodality tomographic radiological imaging apparatus to generate an up-to-date calibration; calibrating the imaging data using the up-to-date calibration to generate calibrated imaging data; and reconstructing the calibrated imaging data to generate an image, characterised in that the acquiring is performed by an active imaging modality of the multimodality tomographic radiological imaging apparatus and the updating comprises: selecting a configuration-specific calibration update corresponding to a configuration of an imaging modality of the tomographic radiological imaging apparatus that is idle or parked at the time of the acquiring; and adjusting calibration parameters of the calibration (42, 52) for the active imaging modality in accordance with the configuration-specific calibration update for the idle or parked imaging modality to generate the up-to-date calibration. acquiring imaging data using the multimodality tomographic radiological imaging apparatus; updating a calibration (42, 52) based on current information about the multimodality tomographic radiological imaging apparatus to generate an up-to-date calibration; calibrating the imaging data using the up-to-date calibration to generate calibrated imaging data; and reconstructing the calibrated imaging data to generate an image, characterised in that the acquiring is performed by an active imaging modality of the multimodality tomographic radiological imaging apparatus and the updating comprises: selecting a configuration-specific calibration update corresponding to a configuration of an imaging modality of the tomographic radiological imaging apparatus that is idle or parked at the time of the acquiring; and adjusting calibration parameters of the calibration (42, 52) for the active imaging modality in accordance with the configuration-specific calibration update for the idle or parked imaging modality to generate the up-to-date calibration.
A display device comprising: a display; a first communication circuit configured to receive first content from a broadcast receiving device; a second communication unit configured to receive second content from an external server (300, 500); and a processor electrically connected with the first communication circuit and the second communication unit, wherein the processor is configured to: determine whether a first volume image (220, 230, 240) applied by the broadcast receiving device is contained in the received first content while outputting the received second content, the first volume image (220, 230, 240) comprising at least one of a volume level image representing volume level information and a mute image representing a mute state; and when the processor determines that the first volume image (220, 230, 240) is contained in the received first content, overlay the first volume image or an alternative volume image corresponding to the first volume image on the received second content, and display the first volume image (220, 230, 240) or the alternative volume image corresponding to the first volume image (220, 230, 240) overlaid on the received second content on the display. a display; a first communication circuit configured to receive first content from a broadcast receiving device; a second communication unit configured to receive second content from an external server (300, 500); and a processor electrically connected with the first communication circuit and the second communication unit, wherein the processor is configured to: determine whether a first volume image (220, 230, 240) applied by the broadcast receiving device is contained in the received first content while outputting the received second content, the first volume image (220, 230, 240) comprising at least one of a volume level image representing volume level information and a mute image representing a mute state; and when the processor determines that the first volume image (220, 230, 240) is contained in the received first content, overlay the first volume image or an alternative volume image corresponding to the first volume image on the received second content, and display the first volume image (220, 230, 240) or the alternative volume image corresponding to the first volume image (220, 230, 240) overlaid on the received second content on the display. determine whether a first volume image (220, 230, 240) applied by the broadcast receiving device is contained in the received first content while outputting the received second content, the first volume image (220, 230, 240) comprising at least one of a volume level image representing volume level information and a mute image representing a mute state; and when the processor determines that the first volume image (220, 230, 240) is contained in the received first content, overlay the first volume image or an alternative volume image corresponding to the first volume image on the received second content, and display the first volume image (220, 230, 240) or the alternative volume image corresponding to the first volume image (220, 230, 240) overlaid on the received second content on the display.