mhurhangee/ep-ind-claims huggingface dataset:
An electrolytic eluent generator comprising: an electrolyte reservoir including: a chamber containing an aqueous electrolyte solution including an electrolyte and a surfactant; and a first electrode; an eluent generation chamber including a second electrode, and an ion exchange connector including: an ion exchange membrane stack, and a compression block, wherein the surfactant is either: (i) an anionic surfactant and the ion exchange membrane stack has a net negative charge and is configured to allow cation flow through and to block anions and bulk liquid flow; or (ii) a cationic surfactant and the ion exchange membrane stack has a net positive charge and is configured to allow anion flow through and to block cations and bulk liquid flow. an electrolyte reservoir including: a chamber containing an aqueous electrolyte solution including an electrolyte and a surfactant; and a first electrode; a chamber containing an aqueous electrolyte solution including an electrolyte and a surfactant; and a first electrode; an eluent generation chamber including a second electrode, and an ion exchange connector including: an ion exchange membrane stack, and a compression block, wherein the surfactant is either: (i) an anionic surfactant and the ion exchange membrane stack has a net negative charge and is configured to allow cation flow through and to block anions and bulk liquid flow; or (ii) a cationic surfactant and the ion exchange membrane stack has a net positive charge and is configured to allow anion flow through and to block cations and bulk liquid flow. an ion exchange membrane stack, and a compression block, wherein the surfactant is either: (i) an anionic surfactant and the ion exchange membrane stack has a net negative charge and is configured to allow cation flow through and to block anions and bulk liquid flow; or (ii) a cationic surfactant and the ion exchange membrane stack has a net positive charge and is configured to allow anion flow through and to block cations and bulk liquid flow.
An electromechanical shock absorber for dampening vibrations generated during rotation of drum of a washing machine, said absorber comprising; a tubular body and a piston telescopically movable with respect to said tubular body, a first clamp and a second clamp disposed within the tubular body and rotatably connected to each other at their first ends (20a,21a), one or more friction elements located in between the piston and the two clamps (20,21) for producing, during operation, frictional dampening when said piston moves telescopically with respect to said body, a motor attached to the second end of said second clamp, a cylindrical squeeze nut rotatably located in a bearing hole on the second end of the first clamp, an actuation shaft attached to said motor at its first end and engaged to the squeeze nut at its second end, characterized in that, the shock absorber further comprises, a window which is formed on said tubular body and through which the second ends (20b, 21b) of the first and second clamps (20,21) protrudes outside said tubular body such that the first and second clamps (20,21) are installed directly on the piston and are movable with respect to each other within the peripheral limits (25a,25b) of said window, wherein the second clamp is equipped, at its second end, with a motor holder for fixing said motor.
A terminal comprising: a receiving section configured to receive a specific synchronization signal block among one or more synchronization signal blocks included in a burst for discovery in a spectrum in which a channel access procedure is performed; and a control section configured to acquire a master information block in the specific synchronization signal block, wherein the burst includes the one or more synchronization signal blocks, one or more physical downlink shared channel, PDSCHs, and one or more control resource sets, CORESETs, for scheduling the one or more PDSCHs, each synchronization signal block includes a synchronization signal and a physical broadcast channel, and each PDSCH includes a system information block, and characterized by, the control section is configured to determine an index related to quasi co-location relation relationship of the specific synchronization signal block, based on the master information block and based on a demodulation reference signal in the specific synchronization signal block. a receiving section configured to receive a specific synchronization signal block among one or more synchronization signal blocks included in a burst for discovery in a spectrum in which a channel access procedure is performed; and a control section configured to acquire a master information block in the specific synchronization signal block, wherein the burst includes the one or more synchronization signal blocks, one or more physical downlink shared channel, PDSCHs, and one or more control resource sets, CORESETs, for scheduling the one or more PDSCHs, each synchronization signal block includes a synchronization signal and a physical broadcast channel, and each PDSCH includes a system information block, and characterized by, the control section is configured to determine an index related to quasi co-location relation relationship of the specific synchronization signal block, based on the master information block and based on a demodulation reference signal in the specific synchronization signal block.
Turbine housing for a supercharger, comprising an inlet opening, a turbine seat and a race extending from said inlet opening to said turbine seat, said race comprising a first spiral chamber which mouth into said turbine seat and a second spiral chamber which mouth into said turbine seat, wherein the first spiral chamber and the second spiral chamber mouth in parallel with each other in a first angular segment (β) of the turbine seat and along the entire length of said first angular segment (β), and wherein the A/R-ratio of the first spiral chamber is smaller than the common A/R-ratio of the first spiral chamber and the second spiral chamber, characterised in that the axial height of the mouth into the turbine seat of the second spiral chamber in said first angular segment (β) is bigger in the end of the first angular segment (β) than in the beginning thereof, seen in a flow direction.
A method for inspecting goods comprising the steps of: obtaining an X-ray transmission image and a HSCODE of inspected goods; processing the transmission image to obtain a region of interest; retrieving from a model library a model created based on the HSCODE, in accordance with the HSCODE of the inspected goods; and determining whether there are any goods not registered in a customs declaration that are contained in the region of interest based on the model, wherein each template in the model comprises a feature vector, and when the number of templates in the model is smaller than a predetermined number, a feature vector of a new sample is recorded directly as a template, or when the number of templates in the model reaches the predetermined number, a feature vector of a new sample that matches the model is not used as a template, and a weight of the template having the highest similarity with the sample is increased, or when a feature vector of a new sample does not match any template in the model, the template having the lowest weight is replaced with the feature vector of the new sample. obtaining an X-ray transmission image and a HSCODE of inspected goods; processing the transmission image to obtain a region of interest; retrieving from a model library a model created based on the HSCODE, in accordance with the HSCODE of the inspected goods; and determining whether there are any goods not registered in a customs declaration that are contained in the region of interest based on the model, wherein each template in the model comprises a feature vector, and when the number of templates in the model is smaller than a predetermined number, a feature vector of a new sample is recorded directly as a template, or when the number of templates in the model reaches the predetermined number, a feature vector of a new sample that matches the model is not used as a template, and a weight of the template having the highest similarity with the sample is increased, or when a feature vector of a new sample does not match any template in the model, the template having the lowest weight is replaced with the feature vector of the new sample.
Apparatus for heating and transporting a glass melt, comprising a feeder channel enclosed by side walls (4, 5) and a top for transporting a glass melt from an inlet region to an outlet region of the feeder channel and comprising heating means for heating the glass melt in the feeder channel, where the heating means comprise lances (13a, 13b, 13c, 13d, 13e, 13f) for a fuel and lances (16a, 16b, 16c, 16d, 16e, 16f) for an oxidant, which lances (13a, 13b, 13c, 13d, 13e, 13f, 16a, 16b, 16c, 16d, 16e, 16f) open, viewed in the flow direction of the glass melt, at a distance from one another into the feeder channel, characterized in that the lances (13a, 13b, 13c, 13d, 13e, 13f) for the fuel and/or the lances (16a, 16b, 16c, 16d, 16e, 16f) for the oxidant are equipped at least partly with exit openings directed in the flow direction or opposite to the flow direction of the glass melt.
A pharmaceutical composition comprising a pharmaceutically acceptable excipient and a compound of Formula: wherein, n is 0, 1, 2, or 3; wherein each R 1 is independently C 1 -C 4 alkyl, C 1 -C 4 alkoxy, C 1 -C 4 thioalkyl, fluoro, trifluoroalkyl, or chloro, or preferrably each R 1 is independently methyl, ethyl, methoxy, thiomethyl, trifluoromethyl, fluoro or chloro, or more preferrably R 1 is not at the ortho-position; and wherein R 2 is phenyl or phenyl substituted with one or more fluoro, or R 2 is benzyl or benzyl substituted with methyl, halo, or a combination thereof. n is 0, 1, 2, or 3; wherein each R 1 is independently C 1 -C 4 alkyl, C 1 -C 4 alkoxy, C 1 -C 4 thioalkyl, fluoro, trifluoroalkyl, or chloro, or preferrably each R 1 is independently methyl, ethyl, methoxy, thiomethyl, trifluoromethyl, fluoro or chloro, or more preferrably R 1 is not at the ortho-position; and wherein R 2 is phenyl or phenyl substituted with one or more fluoro, or R 2 is benzyl or benzyl substituted with methyl, halo, or a combination thereof.
A method of forming a duct, comprising: providing a preform having a recess formed therein; heating a duct formation element (30, 30') to a temperature above a melting temperature of a material of the preform (20, 20A, 20B), wherein an outer contour of the duct formation element (30, 30') corresponds to an inner contour of the duct to be formed at least in part(s); and moving the heated duct formation element (30; 30') and/or the preform relative to each other, so that the heated duct formation element (30; 30') moves into the recess in a direction of inward movement at least in part(s), wherein the material of the preform is at least partially melted in a region around the recess and is at least partially displaced by the duct formation element (30; 30'), wherein at least part of the duct to be formed is formed in this way, and wherein, to form at least part of the duct to be formed by the duct formation element (30; 30'), the material of the preform is melted exclusively in an adjacent region of the recess, whereas remaining regions of the preform remain in a solid state. providing a preform having a recess formed therein; heating a duct formation element (30, 30') to a temperature above a melting temperature of a material of the preform (20, 20A, 20B), wherein an outer contour of the duct formation element (30, 30') corresponds to an inner contour of the duct to be formed at least in part(s); and moving the heated duct formation element (30; 30') and/or the preform relative to each other, so that the heated duct formation element (30; 30') moves into the recess in a direction of inward movement at least in part(s), wherein the material of the preform is at least partially melted in a region around the recess and is at least partially displaced by the duct formation element (30; 30'), wherein at least part of the duct to be formed is formed in this way, and wherein, to form at least part of the duct to be formed by the duct formation element (30; 30'), the material of the preform is melted exclusively in an adjacent region of the recess, whereas remaining regions of the preform remain in a solid state.
A microfluidic cartridge for detecting biomolecules in a sample solution, having - a detection chamber to which the sample solution is suppliable through a feed channel, and from which the analyzed sample solution is drainable through an outlet channel, - a CMOS-based microchip that comprises a sensor area arranged in the detection chamber, and a contact area that is fluid-tightly separated from the detection chamber, which contact area is fluid-tightly separated from the detection chamber by means of a rubber ring or a circumferential casting compound ring, - the sensor area of the microchip including an array of functionalized test sites for electrochemically detecting biomolecules in the sample solution, and - each test site in the sensor area being furnished with its own sigma-delta modulator for the analog-to-digital conversion of electrical signals produced at the test sites upon electrochemical detection. - a detection chamber to which the sample solution is suppliable through a feed channel, and from which the analyzed sample solution is drainable through an outlet channel, - a CMOS-based microchip that comprises a sensor area arranged in the detection chamber, and a contact area that is fluid-tightly separated from the detection chamber, which contact area is fluid-tightly separated from the detection chamber by means of a rubber ring or a circumferential casting compound ring, - the sensor area of the microchip including an array of functionalized test sites for electrochemically detecting biomolecules in the sample solution, and - each test site in the sensor area being furnished with its own sigma-delta modulator for the analog-to-digital conversion of electrical signals produced at the test sites upon electrochemical detection.
A carriage assembly for a crop accumulator for coupling to an agricultural baler mechanism of a baler, the carriage assembly comprising: a bale carriage; and a bale sliding mechanism operable along the bale carriage in a direction generally normal to the direction of travel, the bale sliding mechanism comprising: a pusher; and a plurality of movement devices (60, 62) drivingly coupled to the pusher, the plurality of movement devices (60, 62) being coupled to the bale carriage, the plurality of movement devices (60, 62) comprising a first movement device and a second movement device, the first and second movement devices (60, 62) operating in opposite directions to each other as the pusher is moved, characterized in that the pusher is configured to move in a linear direction at a pusher speed that is faster than a speed at which the first and second movement devices (60, 62) move. a bale carriage; and a bale sliding mechanism operable along the bale carriage in a direction generally normal to the direction of travel, the bale sliding mechanism comprising: a pusher; and a plurality of movement devices (60, 62) drivingly coupled to the pusher, the plurality of movement devices (60, 62) being coupled to the bale carriage, the plurality of movement devices (60, 62) comprising a first movement device and a second movement device, the first and second movement devices (60, 62) operating in opposite directions to each other as the pusher is moved, characterized in that the pusher is configured to move in a linear direction at a pusher speed that is faster than a speed at which the first and second movement devices (60, 62) move. a pusher; and a plurality of movement devices (60, 62) drivingly coupled to the pusher, the plurality of movement devices (60, 62) being coupled to the bale carriage, the plurality of movement devices (60, 62) comprising a first movement device and a second movement device, the first and second movement devices (60, 62) operating in opposite directions to each other as the pusher is moved, characterized in that the pusher is configured to move in a linear direction at a pusher speed that is faster than a speed at which the first and second movement devices (60, 62) move.
A method, comprising: forming a shallow trench in a first region of a substrate; forming a dielectric layer filling the shallow trench and covering the substrate, the dielectric layer having a substantially planar surface over and across the shallow trench; forming a deep trench in a second region within the first region of the substrate, the deep trench extending from and penetrating through the dielectric layer; and forming a filler structure laterally surrounded by the dielectric layer in the shallow trench and a sidewall of the deep trench, the filler structure having a filler seam formed along a vertical middle section of the filler structure, wherein the filler seam of the filler structure will not be subjected to further etching, thereby avoiding cone formation. forming a shallow trench in a first region of a substrate; forming a dielectric layer filling the shallow trench and covering the substrate, the dielectric layer having a substantially planar surface over and across the shallow trench; forming a deep trench in a second region within the first region of the substrate, the deep trench extending from and penetrating through the dielectric layer; and forming a filler structure laterally surrounded by the dielectric layer in the shallow trench and a sidewall of the deep trench, the filler structure having a filler seam formed along a vertical middle section of the filler structure, wherein the filler seam of the filler structure will not be subjected to further etching, thereby avoiding cone formation.
A pattern forming method characterized in that a curable organopolysiloxane composition is applied on a substrate using a microdroplet application device wherein the curable organopolysiloxane composition comprises: an alkenyl group-containing organopolysiloxane having a viscosity at 25°C of from 10 to 100,000 mPa·s in an amount of 100 parts by mass, the viscosity at 25°C being the kinematic viscosity of component alone as measured using, for example, a rotational viscometer; an organohydrogenpolysiloxane in an amount such that there are from 0.2 to 5 mol silicon-bonded hydrogen atoms in component per mol of alkenyl groups in component; a hydrosilylation reaction catalyst in a catalytic amount; a functional filler with an average particle size of from 0.01 to 10 μm as measured by a laser diffraction/scattering method in an amount of from 2.5 to 20.0 parts by mass; one or more types of adhesion promoter; and a hydrosilylation reaction inhibitor and the curable organopolysiloxane composition is characterized in that the viscosity at a strain rate of 1,000 (1/s) is 2.0 Pa·s or less and the viscosity at a strain rate of 0.1 (1/s) is at least 50.0 times the viscosity at a strain rate of 1,000 (1/s), where viscosity is measured by the method disclosed in the description. an alkenyl group-containing organopolysiloxane having a viscosity at 25°C of from 10 to 100,000 mPa·s in an amount of 100 parts by mass, the viscosity at 25°C being the kinematic viscosity of component alone as measured using, for example, a rotational viscometer; an organohydrogenpolysiloxane in an amount such that there are from 0.2 to 5 mol silicon-bonded hydrogen atoms in component per mol of alkenyl groups in component; a hydrosilylation reaction catalyst in a catalytic amount; a functional filler with an average particle size of from 0.01 to 10 μm as measured by a laser diffraction/scattering method in an amount of from 2.5 to 20.0 parts by mass; one or more types of adhesion promoter; and a hydrosilylation reaction inhibitor and
Method for producing an injection anchor in the ground, wherein - a bore is created in the ground, - a hardening material for forming an anchor foot is injected by means of an injection member at least in a partial region of the bore, and - after partial, not yet complete, hardening of the material a post-grouting medium is introduced under pressure into a region of the anchor foot via a post-grouting member, by which medium the not yet completely hardened anchor foot is broken up, characterised in that an automatic post-grouting machine is connected to the post-grouting member, by which machine the post-grouting medium for breaking up the not yet hardened anchor foot is automatically introduced into the post-grouting member at a freely specifiable time. - a bore is created in the ground, - a hardening material for forming an anchor foot is injected by means of an injection member at least in a partial region of the bore, and - after partial, not yet complete, hardening of the material a post-grouting medium is introduced under pressure into a region of the anchor foot via a post-grouting member, by which medium the not yet completely hardened anchor foot is broken up,
Device for medical analyses with cellular impedance signal processing, comprising a memory arranged to receive pulse data sets, each pulse data set comprising impedance value data that are associated each time with a time marker, these data together representing a curve of cellular impedance values that are measured as a cell passes through a polarised opening, characterised in that it further comprises a calculator arranged to process a pulse data set by determining a rotation value indicating whether the cell from which this pulse data set has been obtained has undergone a rotation during its passage through the polarised opening, and a classifier arranged to provide the calculator with a given pulse data set, and to use the resulting rotation value to classify the given pulse data set in a rotation pulse data set group or a rotationless pulse data set group.
Apparatus for selecting a desired switch position from a multiplicity of switch positions, wherein a switch position is dependent on a position of at least one detent pin relative to a detent cam, having the following features: a carrier component, which is arrangeable under an operator control surface and which is rotatable relative to the detent pin about a shaft, for an operator control element, wherein the detent cam is formed in the carrier component, characterized in that a Maltese-cross gearing structure is formed into the carrier component; and in that the apparatus has a drive device which is in engagement with the Maltese-cross gearing structure and which is designed to rotate the carrier component with the detent cam relative to the detent pin about the shaft in a manner dependent on the desired switch position. a carrier component, which is arrangeable under an operator control surface and which is rotatable relative to the detent pin about a shaft, for an operator control element, wherein the detent cam is formed in the carrier component, characterized in that a Maltese-cross gearing structure is formed into the carrier component; and in that the apparatus has a drive device which is in engagement with the Maltese-cross gearing structure and which is designed to rotate the carrier component with the detent cam relative to the detent pin about the shaft in a manner dependent on the desired switch position.