mhurhangee/ep-ind-claims huggingface dataset:
Device for carrying out a signal-processing observation of a measuring signal which is associated with the respiratory activity of a person, having a conveying device for conveying the respiratory gas, a measuring device for generating a signal indicative with respect to the respiratory gas flow, a regulating device for regulating the respiratory gas pressure to a predefined setpoint, a pressure preset device for presetting the setpoint pressure and a signal processing device which is configured such that it generates an evaluation result within the context of the signal-processing observation of the measuring signal indicative of the respiratory gas flow, which allows a differentiation between obstructive and central respiratory disorders, characterized in that the inspiratory time (Ix) and the expiratory time (Ex) are recorded for successive breaths, wherein the relationship between inspiratory time (Ix) and expiratory time (Ex) is recorded, wherein an evaluation signal is generated by an observation of the temporal change of this relationship which provides information as to whether impending or already existing respiratory disorders are obstructive and/or central, wherein evaluation results are generated from a comparative evaluation of successively occurring changes in the properties of the first derivative of the flow of respiratory gas, in the region of the respiratory phase change, which provide information as to whether a respiratory disorder phase is impending.
Anti-vehicle device intended to slow or even stop the movement of a land vehicle, the device having a front face intended to face the vehicle, and comprising a frame which has at least: - a first part comprising a structure disposed in a substantially vertical manner in an arrangement corresponding to a substantially frontal plane and defining a width of the frame, and configured to be struck by a part of a vehicle along at least one component perpendicular to the frontal plane of the arrangement, the face of the first part that is intended to be struck by a vehicle defining the front face of the device, - a second part comprising a structure configured to interact with the lower face of the vehicle striking the first part, this second part being disposed in the lower part of the first part and comprising at least one substantially rectilinear structure, disposed at the front face of the device and oriented along an axis that intersects the frontal plane of the first part, - a third part, positioned at the junction between the first part and the second part, bearing a tilt interface, at least one portion of the lower face of the second part and/or of the third part being associated with a friction interface configured to adhere to the surface of the ground on which the anti-vehicle device rests, characterized in that the friction interface is realized by at least one wheel fixed in rotation with the frame of the device. - a first part comprising a structure disposed in a substantially vertical manner in an arrangement corresponding to a substantially frontal plane and defining a width of the frame, and configured to be struck by a part of a vehicle along at least one component perpendicular to the frontal plane of the arrangement, the face of the first part that is intended to be struck by a vehicle defining the front face of the device, - a second part comprising a structure configured to interact with the lower face of the vehicle striking the first part, this second part being disposed in the lower part of the first part and comprising at least one substantially rectilinear structure, disposed at the front face of the device and oriented along an axis that intersects the frontal plane of the first part, - a third part, positioned at the junction between the first part and the second part, bearing a tilt interface,
A method, comprising: - determining a first word based on a state of a system and/or based on a physical quantity detected by a sensor, - forming a first word group comprising the first word and a second word, - associating the first word group with a first basic sparse vector, - updating a co-occurrence matrix by modifying combination vectors of the co-occurrence matrix, said updating comprising: - using a vocabulary to associate the first word with a first combination vector of the co-occurrence matrix, - using the vocabulary to associate the second word with a second combination vector of the co-occurrence matrix, - modifying the first combination vector of the co-occurrence matrix by forming a linear combination of the first basic sparse vector and the first combination vector of the co-occurrence matrix, - modifying the second combination vector of the co-occurrence matrix by forming a linear combination of the first basic sparse vector and the second combination vector of the co-occurrence matrix, wherein the method further comprises: - determining a query vector by using the vocabulary to associate a query word with a combination vector of the co-occurrence matrix, - calculating differences between the query vector and the combination vectors of the co-occurrence matrix, - determining one or more prediction words by selecting from the vocabulary based on the calculated differences, and - starting and/or stopping one or more applications and/or setting an operating mode based on one or more of the determined prediction words. - determining a first word based on a state of a system and/or based on a physical quantity detected by a sensor, - forming a first word group comprising the first word and a second word, - associating the first word group with a first basic sparse vector, - updating a co-occurrence matrix by modifying combination vectors of the co-occurrence matrix, said updating comprising: - using a vocabulary to associate the first word with a first combination vector of the co-occurrence matrix, - using the vocabulary to associate the second word with a second combination vector of the co-occurrence matrix, - modifying the first combination vector of the co-occurrence matrix by forming a linear combination of the first basic sparse vector and the first combination vector of the co-occurrence matrix, - modifying the second combination vector of the co-occurrence matrix by forming a linear combination of the first basic sparse vector and the second combination vector of the co-occurrence matrix, - determining a query vector by using the vocabulary to associate a query word with a combination vector of the co-occurrence matrix, - calculating differences between the query vector and the combination vectors of the co-occurrence matrix, - determining one or more prediction words by selecting from the vocabulary based on the calculated differences, and - starting and/or stopping one or more applications and/or setting an operating mode based on one or more of the determined prediction words.
A method for determining a measurement setting for measuring a parameter of interest from a target structure on a substrate; the method comprising: obtaining first position difference data describing a difference between a position of a first representative target structure and a position of one or more first features relating to a product structure; obtaining optical metrology data relating to optical measurements of said target structure and further relating to a plurality of different measurement settings; and determining said measurement setting from said first position difference data and said optical metrology data such that a measured feature position value obtained from an optical measurement of said target structure using the determined measurement setting is expected to represent a position of said one or more first features. obtaining first position difference data describing a difference between a position of a first representative target structure and a position of one or more first features relating to a product structure; obtaining optical metrology data relating to optical measurements of said target structure and further relating to a plurality of different measurement settings; and determining said measurement setting from said first position difference data and said optical metrology data such that a measured feature position value obtained from an optical measurement of said target structure using the determined measurement setting is expected to represent a position of said one or more first features.
An ablation catheter comprising: an inner tube comprising a length, a distal end, and a longitudinal axis; a plurality of needles extending from the distal end of the inner tube and biased away from the longitudinal axis; an outer sheath slideably moveable relative to the inner tube to surround at least a portion of the length of the inner tube and its extending needles; and a radio frequency energy source electrically connected to the plurality of needles, characterised in that at least one of the needles comprises a distal portion, a proximal portion, and a hinge between the distal and proximal portions, and wherein the distal portion of the needle is biased outwardly relative to the proximal portion of the needle and the longitudinal axis. an inner tube comprising a length, a distal end, and a longitudinal axis; a plurality of needles extending from the distal end of the inner tube and biased away from the longitudinal axis; an outer sheath slideably moveable relative to the inner tube to surround at least a portion of the length of the inner tube and its extending needles; and a radio frequency energy source electrically connected to the plurality of needles, characterised in that at least one of the needles comprises a distal portion, a proximal portion, and a hinge between the distal and proximal portions, and wherein the distal portion of the needle is biased outwardly relative to the proximal portion of the needle and the longitudinal axis.
A switch machine for operating a railroad switch with two switch points (A1,A2) at intersecting railroad rails, said switch machine comprising: a housing mounted between said two switch points; two operating rods (4,5), each one of said operating rods having an inner end within said housing and an outer end extending from said housing for repositioning one of said switch points, each one of said operating rods and its associated switch point establishing an angle therebetween for the application of lateral force to the switch point to move the switch point; a shifting mechanism within said housing, said shifting mechanism being engageable to said inner end of each one of said operating rods, said shifting mechanism being adapted to simultaneously shift said operating rods between two positions relative to said housing, resulting in simultaneous repositioning of said two switch points (A1,A2); and a connector assembly connecting each one of said extending operating rod ends to its associated switch point (A1,A2), said connector assembly having freedom of movement in the horizontal direction extending substantially parallel to the switch point and being pivotable about a vertical axis to allow said angle between said operating rod (4,5) and said associated switch point (A1,A2) to change as said associated switch point is repositioned; whereby said switch machine is adapted to move said switch points (A1,A2) by extending and retracting said operating rods (4,5) by the application of said force acting substantially along the longitudinal axes of said operating rods. a housing mounted between said two switch points; two operating rods (4,5), each one of said operating rods having an inner end within said housing and an outer end extending from said housing for repositioning one of said switch points, each one of said operating rods and its associated switch point establishing an angle therebetween for the application of lateral force to the switch point to move the switch point; a shifting mechanism within said housing, said shifting mechanism being engageable to said inner end of each one of said operating rods, said shifting mechanism being adapted to simultaneously shift said operating rods between two positions relative to said housing, resulting in simultaneous repositioning of said two switch points (A1,A2); and a connector assembly connecting each one of said extending operating rod ends to its associated switch point (A1,A2), said connector assembly having freedom of movement in the horizontal direction extending substantially parallel to the switch point and being pivotable about a vertical axis to allow said angle between said operating rod (4,5) and said associated switch point (A1,A2) to change as said associated switch point is repositioned; whereby said switch machine is adapted to move said switch points (A1,A2) by extending and retracting said operating rods (4,5) by the application of said force acting substantially along the longitudinal axes of said operating rods.
A method for reducing energy requirements of a CO 2 capture system, the method comprising: contacting a flue gas stream with a CO 2 lean absorbent stream in an absorber, thereby removing CO 2 from the flue gas and providing a CO 2 rich absorbent stream; heating a first portion of the CO 2 rich absorbent stream using heat from the CO 2 lean absorbent stream, and providing the heated first portion of the CO 2 rich absorbent stream to a regenerator; providing a second portion of the CO 2 rich absorbent stream to the regenerator, wherein the heated first portion is hotter than the second portion and the heated first portion is provided to the regenerator at a lower elevation in the regenerator relative to that of the second portion; and separating a gaseous CO 2 from the heated first portion prior to providing the heated first portion to the regenerator, characterized in that, the method further comprises: compressing the gaseous CO 2 and providing the compressed gaseous CO 2 to the regenerator at a lower elevation in the regenerator near the bottom of the regenerator. contacting a flue gas stream with a CO 2 lean absorbent stream in an absorber, thereby removing CO 2 from the flue gas and providing a CO 2 rich absorbent stream; heating a first portion of the CO 2 rich absorbent stream using heat from the CO 2 lean absorbent stream, and providing the heated first portion of the CO 2 rich absorbent stream to a regenerator; providing a second portion of the CO 2 rich absorbent stream to the regenerator, wherein the heated first portion is hotter than the second portion and the heated first portion is provided to the regenerator at a lower elevation in the regenerator relative to that of the second portion; and separating a gaseous CO 2 from the heated first portion prior to providing the heated first portion to the regenerator, characterized in that, the method further comprises: compressing the gaseous CO 2 and providing the compressed gaseous CO 2 to the regenerator at a lower elevation in the regenerator near the bottom of the regenerator. compressing the gaseous CO 2 and providing the compressed gaseous CO 2 to the regenerator at a lower elevation in the regenerator near the bottom of the regenerator.
Use of a solvent composition to improve the stability of polymer solutions, wherein the polymer solution is a polysulphone, polyethersulphone or polyphenylsulphone solution, preferably a polysulphone solution, the solvent composition comprising a mixture of at least one molecule having at least one sulphoxide function and at least one molecule having at least one amide function where the nitrogen atom carries a hydrogen atom (-NH-C -), the molecule carrying an amide function not being epsilon-caprolactam, and said composition containing one or more polyethersulphones in an amount less than 1% by weight based on the total weight of the composition. the solvent composition comprising a mixture of at least one molecule having at least one sulphoxide function and at least one molecule having at least one amide function where the nitrogen atom carries a hydrogen atom (-NH-C -), the molecule carrying an amide function not being epsilon-caprolactam, and
A dispenser pump for dispensing product from a container, the dispenser pump comprising a pump body which has a top opening and comprises a pump cylinder portion defining a pump chamber and an inlet to the pump chamber; a plunger which has a head, a stem and a piston, the piston being at a lower end of the stem and in said pump chamber, the stem projecting out through said top opening of the pump body, the plunger being reciprocable relative to the pump body in a pumping stroke between an extended position and a retracted position to alter the volume of the pump chamber; a pump outlet structure providing a discharge channel extending from the pump chamber to a discharge opening of the pump, the pump being a movable-nozzle pump having the discharge channel and discharge opening comprised in the plunger; a pump spring urging the plunger towards the extended position relative to the pump body; the structure of said pump also defining a vent path for admitting air into a said container to compensate for the volume of product dispensed in use, said vent path being defined through said pump from an exterior vent opening, where air is admitted, to a clearance between the plunger stem and pump body outside the pump chamber, and thence to an interior vent opening, said interior vent opening being defined through or around an edge of a cylinder wall of said pump body to lead to the interior of said container; said pump body comprising a collar portion and the vent path leading through a vent gap defined between the collar portion and the stem or piston of the plunger, and the plunger and said pump body collar having respectively a plunger seal portion and a collar seal portion, said seal portions (4,9) being complementarily-shaped and disposed so as to meet when the plunger reaches the extended position and to seal against one another to form a vent path seal at the vent gap, blocking the vent path in the extended position; the pump body comprising a cylinder body member having a lower portion defining said pump chamber, and a tubular insert housing projecting down inside the cylinder body member below said interior vent opening so as to occupy an upper portion of the cylinder body member, the insert housing at its lower end providing a support for the lower end of the pump spring, with the plunger stem inside the insert housing with clearance between them, the insert housing having a floor with a central opening through which the plunger stem passes and which comprises said collar portion and collar seal portion, part of said vent path before said vent gap being provided by said clearance between the plunger stem and the insert housing and part of said vent path after said vent gap being provided by clearance between the outside of the insert housing and the inside of a wall of the cylinder body member.
An epicyclic gear train defining a central longitudinal axis, the epicyclic gear train comprising a central sun gear, an outer ring gear, and a number of planet gears which are mounted to a planet carrier (40; 140), the planet gears rotating about respective planet gear axes, the planet gears disposed in meshed engagement with the central sun gear and the outer ring gear, the planet carrier (40; 140) including first and second carrier plates (48a, 48b; 148a, 148b), the first and second carrier plates (48a, 48b; 148a, 148b) being parallel to each other and axially spaced apart to support the planet gears therebetween at aligned gear mounting points (57, 59) on each of the first and second carrier plates (48a, 48b; 148a, 148b), the planet carrier (40; 140) having center links (50; 150) extending radially outward relative to the longitudinal axis and axially disposed between the carrier plates (48a, 48b; 148a, 148b), characterised in that: the planet carrier (40; 140) includes a centrally disposed torque transfer coupling (44; 144) concentric with the longitudinal axis, a torque transmission point (54; 154) at an axial end of the torque transfer coupling (44; 144), the first and second carrier plates (48a, 48b; 148a, 148b) extending radially from the torque transfer coupling (44; 144), the first and second carrier plates (48a, 48b; 148a, 148b) connected to the torque transfer coupling (44; 144) only by the center links (50; 150), the first carrier plate (48a; 148a) being closer to the torque transmission point (54; 154) than the second carrier plate (48b; 148b), and the second carrier plate (48b; 148b) having a stiffness that is greater than that of the first carrier plate (48a; 148a).
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a radio resource control, RRC, release message to transit the terminal in an RRC connected state to an RRC inactive state, wherein the RRC release message includes a configuration of configured uplink resources for a small data transmission, SDT, wherein the SDT is a procedure for data transmission while the terminal is in the RRC inactive state, and wherein the configuration includes a first configuration of at least one configured uplink resource for a normal uplink, NUL, and a second configuration of at least one configured uplink resource for a supplementary uplink, SUL; selecting an uplink carrier for the SDT among the NUL or the SUL, based on a first reference signal received power, RSRP, threshold associated with SUL selection; selecting a synchronization signal block, SSB, among SSBs, based on a second RSRP threshold associated with SSB selection for the SDT, wherein the SSB includes a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a physical broadcast channel, PBCH, block, and wherein the SSBs are associated with at least one configured uplink resource for the SDT; and transmitting, to the base station, uplink data on the selected uplink carrier using a configured uplink resource associated with the selected SSB. receiving, from a base station, a radio resource control, RRC, release message to transit the terminal in an RRC connected state to an RRC inactive state, wherein the RRC release message includes a configuration of configured uplink resources for a small data transmission, SDT, wherein the SDT is a procedure for data transmission while the terminal is in the RRC inactive state, and wherein the configuration includes a first configuration of at least one configured uplink resource for a normal uplink, NUL, and a second configuration of at least one configured uplink resource for a supplementary uplink, SUL; selecting an uplink carrier for the SDT among the NUL or the SUL, based on a first reference signal received power, RSRP, threshold associated with SUL selection; selecting a synchronization signal block, SSB, among SSBs, based on a second RSRP threshold associated with SSB selection for the SDT, wherein the SSB includes a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a physical broadcast channel, PBCH, block, and wherein the SSBs are associated with at least one configured uplink resource for the SDT; and transmitting, to the base station, uplink data on the selected uplink carrier using a configured uplink resource associated with the selected SSB.