mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a cochlear implant electrode array, comprising the steps of: positioning a contact array assembly (200, 200b, 200c, 200d, 200e, 200f), which includes at least one carrier (202, 202b, 202c, 202e, 202f) and a plurality of electrically conductive contacts (114, 114b, 114c, 114d) on the at least one carrier, in a mold (400, 400b, 400c, 400d); removing at least a portion of the at least one carrier from the mold without removing the plurality of electrically conductive contacts from the mold; and introducing resilient material into the mold after the at least a portion of the at least one carrier has been removed from the mold to form a flexible body (112, 112b, 112c, 112d). positioning a contact array assembly (200, 200b, 200c, 200d, 200e, 200f), which includes at least one carrier (202, 202b, 202c, 202e, 202f) and a plurality of electrically conductive contacts (114, 114b, 114c, 114d) on the at least one carrier, in a mold (400, 400b, 400c, 400d); removing at least a portion of the at least one carrier from the mold without removing the plurality of electrically conductive contacts from the mold; and introducing resilient material into the mold after the at least a portion of the at least one carrier has been removed from the mold to form a flexible body (112, 112b, 112c, 112d).
A charging adapter, wherein the charging adapter is mountable on a headtube of a light electric vehicle, the charging adapter comprises an RFID tag readable and recognizable by an RFID reader of an electric scooter charging station of the light electric vehicle, and two electrical contacts for receiving electric power from the electric scooter charging station, characterised in that said two electrical contacts are arranged on sides of the headtube and the RFID tag, which RFID tag is configured to face the travelling direction of the light electric vehicle, when the charging adapter is mounted on the headtube.
Arrangement for producing samples for an X-ray fluorescence analysis, having a furnace that is constructed as a desk-top unit and incorporates a sealed interior space that can be heated up to at least 900 °C, and having a pot that is disposed in the furnace and that has a holding capacity of some cm 3 and that can receive the sample material to be melted, a support stand that is disposed in the furnace to hold the pot, and having a collecting pan that is disposed underneath the pot and that is dimensioned to receive the sample material held in the pot, where the pot is disposed mix-movably in the furnace so that the sample material held in the pot can be thoroughly mixed by the movements of the pot, and where the pot is tiltably disposed in the furnace so that the sample material held in the pot can be filled into the collecting pan from the pot through the tilting movement of the pot, characterised in that the support stand is placed in the furnace unfastened.
A device for gripping a treatment tool of a handpiece, the device comprising: a rotatable spindle and a coil spring that is set in the spindle and rotatable integrally with the spindle, the coil spring being compressed between a pressing member and a step in the spindle, the treatment tool insertable from a tip of the spindle into the coil spring being gripped by an inner diameter surface of a grip portion of the coil spring, wherein: the coil spring has an inconstant natural frequency, and wherein the coil spring includes the grip portion in a partial region thereof, and the grip portion has a smaller inner diameter than that of other regions (282, 283), and wherein the device further comprises a compression mechanism that includes the pressing member installed between a rear end of the spindle and the coil spring, the compression mechanism being operable to press the pressing member from the rear end of the spindle to axially compress the coil spring, and wherein the inner diameter of the coil spring is increased when the coil spring is compressed. the coil spring has an inconstant natural frequency, and wherein the coil spring includes the grip portion in a partial region thereof, and the grip portion has a smaller inner diameter than that of other regions (282, 283), and wherein the device further comprises a compression mechanism that includes the pressing member installed between a rear end of the spindle and the coil spring, the compression mechanism being operable to press the pressing member from the rear end of the spindle to axially compress the coil spring, and wherein the inner diameter of the coil spring is increased when the coil spring is compressed.
A method of forming a plurality of individual film products (80, 80', 180, 180', 260, 365), comprising the steps of: (a) providing a reservoir (30, 130, 340) housing a film forming matrix; (b) providing a plurality of individual volumetric pumps (50, 50', 150, 150', 350) in association with said reservoir (30, 130, 340); (c) providing a plurality of orifices (70, 70', 170, 170', 360), wherein each orifice is associated with an individual volumetric pump (50, 50', 150, 150', 350); (d) providing a feed line (40, 140, 345) which feeds the film forming matrix from the reservoir (30, 130, 340) to the volumetric pumps (50, 50', 150, 150', 350) in a parallel fashion, thus allowing each volumetric pump to be fed with film forming matrix on a substantially equal basis; and (e) dispensing a predetermined amount of said film forming matrix from each of said volumetric pumps (50, 50', 150, 150', 350) through an orifice (70, 70', 170, 170', 360) associated therewith; wherein each pump dispenses a plurality of individual wet film products (80, 80', 180, 180', 260, 365) onto a substrate (20, 120, 210, 320) in a lane. (a) providing a reservoir (30, 130, 340) housing a film forming matrix; (b) providing a plurality of individual volumetric pumps (50, 50', 150, 150', 350) in association with said reservoir (30, 130, 340); (c) providing a plurality of orifices (70, 70', 170, 170', 360), wherein each orifice is associated with an individual volumetric pump (50, 50', 150, 150', 350); (d) providing a feed line (40, 140, 345) which feeds the film forming matrix from the reservoir (30, 130, 340) to the volumetric pumps (50, 50', 150, 150', 350) in a parallel fashion, thus allowing each volumetric pump to be fed with film forming matrix on a substantially equal basis; and (e) dispensing a predetermined amount of said film forming matrix from each of said volumetric pumps (50, 50', 150, 150', 350) through an orifice (70, 70', 170, 170', 360) associated therewith; wherein each pump dispenses a plurality of individual wet film products (80, 80', 180, 180', 260, 365) onto a substrate (20, 120, 210, 320) in a lane.
A laundry treating apparatus comprising: a cabinet; a laundry receiving space provided in the cabinet and providing a predetermined space for accommodating laundry; a laundry introduction opening provided in a front surface of the cabinet and communicating with the laundry receiving space; a door coupled to the cabinet and configured to open and close the laundry receiving space; a supply unit configured to supply at least one of air and steam or vapors to the laundry receiving space; and a presser configured to reinforce creases of pants or unfold wrinkles of pants, and characterized in that the presser includes: a housing provided on the laundry receiving space; a housing chamber provided in the housing and providing a space in which pants are secured thereto and pants are accommodated therein; a housing door rotatably coupled to the housing and configured to open and close the housing chamber; a pants-supporting part provided in any one of the housing and the housing door to secure pants thereto; a pants-pressing part provided in the other of the housing and the housing door; and a housing guide configured to withdraw the housing from the laundry receiving space through the laundry introduction opening. a cabinet; a laundry receiving space provided in the cabinet and providing a predetermined space for accommodating laundry; a laundry introduction opening provided in a front surface of the cabinet and communicating with the laundry receiving space; a door coupled to the cabinet and configured to open and close the laundry receiving space; a supply unit configured to supply at least one of air and steam or vapors to the laundry receiving space; and a presser configured to reinforce creases of pants or unfold wrinkles of pants, and characterized in that the presser includes: a housing provided on the laundry receiving space; a housing chamber provided in the housing and providing a space in which pants are secured thereto and pants are accommodated therein; a housing door rotatably coupled to the housing and configured to open and close the housing chamber; a pants-supporting part provided in any one of the housing and the housing door to secure pants thereto; a pants-pressing part provided in the other of the housing and the housing door; and a housing guide configured to withdraw the housing from the laundry receiving space through the laundry introduction opening. a housing provided on the laundry receiving space; a housing chamber provided in the housing and providing a space in which pants are secured thereto and pants are accommodated therein; a housing door rotatably coupled to the housing and configured to open and close the housing chamber; a pants-supporting part provided in any one of the housing and the housing door to secure pants thereto; a pants-pressing part provided in the other of the housing and the housing door; and a housing guide configured to withdraw the housing from the laundry receiving space through the laundry introduction opening.
An antigen-binding molecule which is capable of binding to HER3 for use in a method of treating or preventing a cancer in a subject, wherein the cancer comprises cells having an NRG gene fusion mutation resulting in increased expression of a ligand for HER3, and wherein the antigen-binding molecule comprises: (i) a heavy chain variable region incorporating the following CDRs: HC-CDR1 having the amino acid sequence of SEQ ID NO:41 HC-CDR2 having the amino acid sequence of SEQ ID NO:45 HC-CDR3 having the amino acid sequence of SEQ ID NO:48; and (ii) a light chain variable region incorporating the following CDRs: LC-CDR1 having the amino acid sequence of SEQ ID NO:88 LC-CDR2 having the amino acid sequence of SEQ ID NO:92 LC-CDR3 having the amino acid sequence of SEQ ID NO:95. (i) a heavy chain variable region incorporating the following CDRs: HC-CDR1 having the amino acid sequence of SEQ ID NO:41 HC-CDR2 having the amino acid sequence of SEQ ID NO:45 HC-CDR3 having the amino acid sequence of SEQ ID NO:48; and HC-CDR1 having the amino acid sequence of SEQ ID NO:41 HC-CDR2 having the amino acid sequence of SEQ ID NO:45 HC-CDR3 having the amino acid sequence of SEQ ID NO:48; and (ii) a light chain variable region incorporating the following CDRs: LC-CDR1 having the amino acid sequence of SEQ ID NO:88 LC-CDR2 having the amino acid sequence of SEQ ID NO:92 LC-CDR3 having the amino acid sequence of SEQ ID NO:95. LC-CDR1 having the amino acid sequence of SEQ ID NO:88 LC-CDR2 having the amino acid sequence of SEQ ID NO:92 LC-CDR3 having the amino acid sequence of SEQ ID NO:95.
A method for drying cell-free adipose tissue extract in a hydrogel comprising nanofibrillar cellulose, the method comprising - providing a hydrogel comprising nanofibrillar cellulose, - providing cell-free adipose tissue extract comprising a mixture of bioactive substances, - providing polyethylene glycol, - providing trehalose, - mixing the hydrogel, the cell-free adipose tissue extract, the polyethylene glycol and the trehalose to obtain a mixture, and - freeze drying the mixture to obtain a dried cell-free adipose tissue extract in a dried hydrogel comprising nanofibrillar cellulose. - providing a hydrogel comprising nanofibrillar cellulose, - providing cell-free adipose tissue extract comprising a mixture of bioactive substances, - providing polyethylene glycol, - providing trehalose, - mixing the hydrogel, the cell-free adipose tissue extract, the polyethylene glycol and the trehalose to obtain a mixture, and - freeze drying the mixture to obtain a dried cell-free adipose tissue extract in a dried hydrogel comprising nanofibrillar cellulose.
A computer-implemented non-invasive method for assessing the presence and severity of liver fibrosis in a subject, said method comprising: 1) performing at least 3 binary logistic regressions on at least one variable selected from the group consisting of biomarkers, clinical markers, qualitative markers, data obtained by a physical method of diagnosis, scores of fibrosis tests, descriptors of at least one image of the liver tissue of the subject previously obtained by an imaging method, and mathematical combinations thereof, wherein the binary logistic regressions are performed on the same variable(s) but are each directed to a different single diagnostic target, said diagnostic target being a stage or a combination of stages of a fibrosis reference classification, thereby obtaining at least 3 scores; 2) combining the at least 3 scores obtained in step 1) in a multiple linear regression to obtain a new multi-targeted score useful for assessing the presence and severity of liver fibrosis in the subject; and 3) sorting the multi-targeted score obtained in step 2) in a classification of liver fibrosis stages, thereby determining to which liver fibrosis stage the subject belongs based on his/her multi-targeted score. 1) performing at least 3 binary logistic regressions on at least one variable selected from the group consisting of biomarkers, clinical markers, qualitative markers, data obtained by a physical method of diagnosis, scores of fibrosis tests, descriptors of at least one image of the liver tissue of the subject previously obtained by an imaging method, and mathematical combinations thereof, wherein the binary logistic regressions are performed on the same variable(s) but are each directed to a different single diagnostic target, said diagnostic target being a stage or a combination of stages of a fibrosis reference classification, thereby obtaining at least 3 scores; 2) combining the at least 3 scores obtained in step 1) in a multiple linear regression to obtain a new multi-targeted score useful for assessing the presence and severity of liver fibrosis in the subject; and 3) sorting the multi-targeted score obtained in step 2) in a classification of liver fibrosis stages, thereby determining to which liver fibrosis stage the subject belongs based on his/her multi-targeted score.
A roller or drum for supporting and/or guiding diamond wires for multi-wire machines for cutting blocks of artificial or natural stone, comprising: rotating support organs of the roller or drum on a pivot or axis of support; a covering made from soft material equipped with grooves (7, 9) for housing, supporting and guiding closed loop adjacent diamond wires; characterized in that the roller or drum is subdivided into at least two sections (2, 3, 4, 32 or 42) of roller or drum constituting at least two parts of roller or drum, to support and guide a number of adjacent diamond wires equal to or more than two per part of roller or drum; correspondingly, and in that each section has its respective part of roller or drum equipped with supporting and rotating organs for each part which are independent and rotatably connected to a supporting axis or pivot of the roller or drum.
A device for dispensing a cosmetic product comprising: - a dispensing nozzle; - a mechanism for dispensing a dose of a cosmetic product via the dispensing nozzle, from a capsule of a cosmetic preparation ready to be dispensed; characterised in that it further incorporates means for the aerial diffusion of an aromatherapy composition, and in that it comprises: - means for receiving disposable capsules of cosmetic preparation ready to be dispensed and/or of aromatherapy composition for aerial diffusion, the reception means including a first housing for cosmetic product capsules, and a second housing for aromatherapy composition capsules; - common electronic means for triggering the dispensing mechanism and the diffusion means; - means for reading identification codes that may be carried by capsules inserted into the reception means; - electronic means for managing the dispensing of a cosmetic product and the aerial diffusion of an aromatherapy composition, the electronic management means being coupled to the means for reading identification codes so that during the insertion of a capsule of a cosmetic product and a capsule of an aromatherapy composition, the reading means read the identification codes carried by each of the capsules, allowing the electronic means for managing the dispensing of the cosmetic product and the aerial diffusion of the aromatherapy composition to determine how the distribution and diffusion are to be achieved. - a dispensing nozzle; - a mechanism for dispensing a dose of a cosmetic product via the dispensing nozzle, from a capsule of a cosmetic preparation ready to be dispensed; - means for receiving disposable capsules of cosmetic preparation ready to be dispensed and/or of aromatherapy composition for aerial diffusion, the reception means including a first housing for cosmetic product capsules, and a second housing for aromatherapy composition capsules; - common electronic means for triggering the dispensing mechanism and the diffusion means; - means for reading identification codes that may be carried by capsules inserted into the reception means; - electronic means for managing the dispensing of a cosmetic product and the aerial diffusion of an aromatherapy composition, the electronic management means being coupled to the means for reading identification codes so that during the insertion of a capsule of a cosmetic product and a capsule of an aromatherapy composition, the reading means read the identification codes carried by each of the capsules, allowing the electronic means for managing the dispensing of the cosmetic product and the aerial diffusion of the aromatherapy composition to determine how the distribution and diffusion are to be achieved.
A rotation angle detection device comprising: a plurality of sensors (71, 72, 73) used to detect a rotation angle of a rotary body (8; 9); a sampling unit that samples an output signal from each of the sensors at prescribed timings; and a computation unit that computes the rotation angle of the rotary body (8; 9) with use of a plurality of the output signals from at least two sensors among the plurality of the sensors (71, 72, 73) the output signals of each at least two sensors being sampled at a prescribed number of different timings, the prescribed number being two or more, wherein where X is the number of multiple expressions obtained by mathematizing each of the plurality of the output signals used by the computation unit to compute the rotation angle of the rotary body and Y is the number of unknown quantities included in the multiple expressions, a condition that Y is greater than X is satisfied, and the computation unit is configured to compute the rotation angle of the rotary body (8;9) by solving simultaneous equations constituted of the multiple expressions after setting Y equal to or smaller than X on an assumption that multiple different unknown quantities of a prescribed kind among the unknown quantities included in the multiple expressions are equal to each other. a plurality of sensors (71, 72, 73) used to detect a rotation angle of a rotary body (8; 9); a sampling unit that samples an output signal from each of the sensors at prescribed timings; and a computation unit that computes the rotation angle of the rotary body (8; 9) with use of a plurality of the output signals from at least two sensors among the plurality of the sensors (71, 72, 73) the output signals of each at least two sensors being sampled at a prescribed number of different timings, the prescribed number being two or more, wherein where X is the number of multiple expressions obtained by mathematizing each of the plurality of the output signals used by the computation unit to compute the rotation angle of the rotary body and Y is the number of unknown quantities included in the multiple expressions, a condition that Y is greater than X is satisfied, and the computation unit is configured to compute the rotation angle of the rotary body (8;9) by solving simultaneous equations constituted of the multiple expressions after setting Y equal to or smaller than X on an assumption that multiple different unknown quantities of a prescribed kind among the unknown quantities included in the multiple expressions are equal to each other.
A process of water extraction by forward osmosis comprising: a) a membrane module comprising a membrane; said membrane comprising a polyamide thin film composite layer comprising immobilized aquaporin water channels and a support layer, and said membrane having a feed side and a non-feed side; and wherein the non-feed side of the membrane functions as draw side; b) an aqueous source solution in fluid communication with the feed side of the membrane; c) an aqueous draw solution in fluid communication with the draw side of the membrane, the aqueous draw solution being a concentrated plant nutrient draw solution. a) a membrane module comprising a membrane; said membrane comprising a polyamide thin film composite layer comprising immobilized aquaporin water channels and a support layer, and said membrane having a feed side and a non-feed side; and wherein the non-feed side of the membrane functions as draw side; b) an aqueous source solution in fluid communication with the feed side of the membrane; c) an aqueous draw solution in fluid communication with the draw side of the membrane, the aqueous draw solution being a concentrated plant nutrient draw solution.
A method of determining components of a flowing heterogeneous milk sample comprising obtaining a sample of heterogeneous milk; measuring mid-infrared attenuation values of the sample and calculating in a data processing unit an indication of the component of interest in the sample from the measured mid-infrared attenuation values characterised in that the method further comprises flowing the sample of heterogeneous milk; concurrently interacting mid-infrared radiation with the flowing heterogeneous milk sample in a measurement region and subsequently measuring the mid-infrared attenuation values a plurality of times for a same one or more wavebands of the interacted radiation transmitted through the flowing heterogeneous milk sample as the sample of heterogeneous milk is flowed with a flow rate selected such that at least a portion of the sample of heterogeneous milk in the measurement region is exchanged for each of the plurality of times; and averaging the measured attenuation values.