mhurhangee/ep-ind-claims huggingface dataset:
Ventilation device, of the type comprising a fan having a case housing an impeller which rotates about an axis of rotation (Z-Z), said case having a gaseous fluid inlet through which the gaseous fluid is to flow into the fan, substantially parallel to the axis of rotation (Z-Z), and a gaseous fluid outlet through which the gaseous fluid is to be expelled, the ventilation device comprising, upstream of said gaseous fluid inlet, a gaseous fluid circulation circuit comprising a main duct and diverting means for diverting the flow of gaseous fluid, such that: - the main duct extends along a direction of flow which forms a non-zero angle with the axis of rotation (Z-Z), and - the diverting means are arranged between the main duct and the gaseous fluid inlet of the fan and are capable of diverting a flow of gaseous fluid substantially parallel to said direction of flow, coming from the main duct, in order to orient it substantially parallel to the axis of rotation (Z-Z) at said gaseous fluid inlet, characterised in that the diverting means comprise a deflector in the form of a dome, preferably of substantially hemispherical shape, which covers the gaseous fluid inlet of the case, the case having a substantially circular shape in a cutting plane perpendicular to the axis of rotation (Z-Z), and the deflector in the form of a dome has a dimension, in the direction of the axis of rotation (Z-Z), which is smaller than the diameter of the case in said cutting plane. - the main duct extends along a direction of flow which forms a non-zero angle with the axis of rotation (Z-Z), and - the diverting means are arranged between the main duct and the gaseous fluid inlet of the fan and are capable of diverting a flow of gaseous fluid substantially parallel to said direction of flow, coming from the main duct, in order to orient it substantially parallel to the axis of rotation (Z-Z) at said gaseous fluid inlet, characterised in that the diverting means comprise a deflector in the form of a dome, preferably of substantially hemispherical shape, which covers the gaseous fluid inlet of the case, the case having a substantially circular shape in a cutting plane perpendicular to the axis of rotation (Z-Z), and the deflector in the form of a dome has a dimension, in the direction of the axis of rotation (Z-Z), which is smaller than the diameter of the case in said cutting plane.
A sheet conveyor comprising: a conveyance belt configured to rotate to convey a sheet on which a liquid has been applied in a conveyance direction; a guide configured to guide the sheet to the conveyance belt, a position of the guide being variable in the conveyance direction; the sheet conveyor characterised by another guide disposed upstream of the guide in the conveyance direction, said another guide configured to guide the sheet to the guide, wherein a downstream end of said another guide in the conveyance direction is disposed directly above an upstream end of the guide in the conveyance direction. a conveyance belt configured to rotate to convey a sheet on which a liquid has been applied in a conveyance direction; a guide configured to guide the sheet to the conveyance belt, a position of the guide being variable in the conveyance direction; the sheet conveyor characterised by another guide disposed upstream of the guide in the conveyance direction, said another guide configured to guide the sheet to the guide, wherein a downstream end of said another guide in the conveyance direction is disposed directly above an upstream end of the guide in the conveyance direction.
A water output device comprising: a housing mechanism; a water purification mechanism, which comprises a water purifier located within the housing mechanism; a refrigeration mechanism, which comprises a compressor located within the housing mechanism; a tank assembly, which comprises a first tank mechanism configured for providing hot water, and second tank mechanism configured for providing ice water and soda water; the first tank mechanism comprises a hot water tank in communication with the water purifier; the second tank mechanism comprises a ice water tank in communication with the water purifier, a soda water tank located within the ice water tank, a water pump in communication with the ice water tank and the soda water tank respectively, and a cooling pipe spirally extended into the ice water tank; wherein the cooling pipe is connected to the compressor; the ice water tank comprises an air inlet pipeline for passing carbon dioxide gas; the hot water tank, the ice water tank, and the soda water tank comprises water output pipelines, respectively; the water pump is configured for drawing the water from the ice water tank into the soda water tank; characterized in that the air inlet pipeline comprises a first balancing valve, and the water output pipeline comprises a second balancing valve. a housing mechanism; a water purification mechanism, which comprises a water purifier located within the housing mechanism; a refrigeration mechanism, which comprises a compressor located within the housing mechanism; a tank assembly, which comprises a first tank mechanism configured for providing hot water, and second tank mechanism configured for providing ice water and soda water; the first tank mechanism comprises a hot water tank in communication with the water purifier; the second tank mechanism comprises a ice water tank in communication with the water purifier, a soda water tank located within the ice water tank, a water pump in communication with the ice water tank and the soda water tank respectively, and a cooling pipe spirally extended into the ice water tank; wherein the cooling pipe is connected to the compressor; the ice water tank comprises an air inlet pipeline for passing carbon dioxide gas; the hot water tank, the ice water tank, and the soda water tank comprises water output pipelines, respectively; the water pump is configured for drawing the water from the ice water tank into the soda water tank; characterized in that the air inlet pipeline comprises a first balancing valve, and the water output pipeline comprises a second balancing valve.
A method of forming a memory cell, the method comprising: forming a metal-insulator-metal ("MIM") stack by: forming a first conductive carbon layer; forming a silicon-containing carbon switching layer above the first conductive carbon layer; and forming a second conductive carbon layer above the silicon-containing carbon switching layer; and forming a steering element coupled to the MIM stack; wherein the silicon-containing carbon switching layer comprises less than 10 at% hydrogen; and wherein forming the silicon-containing carbon switching layer over the first conductive carbon layer comprises sputtering a graphite target to form a carbon layer and implanting silicon into the carbon layer. forming a metal-insulator-metal ("MIM") stack by: forming a first conductive carbon layer; forming a silicon-containing carbon switching layer above the first conductive carbon layer; and forming a second conductive carbon layer above the silicon-containing carbon switching layer; and forming a first conductive carbon layer; forming a silicon-containing carbon switching layer above the first conductive carbon layer; and forming a second conductive carbon layer above the silicon-containing carbon switching layer; and forming a steering element coupled to the MIM stack; wherein the silicon-containing carbon switching layer comprises less than 10 at% hydrogen; and wherein forming the silicon-containing carbon switching layer over the first conductive carbon layer comprises sputtering a graphite target to form a carbon layer and implanting silicon into the carbon layer.
An apparatus for measuring a characteristic of a sample, the apparatus comprising: a sample measurement apparatus, comprising: a light source configured to illuminate the sample; a sample chamber; a detector configured to receive light from the sample; and a centrifuge tube, characterized in that the centrifuge tube holds the sample chamber, the detector, and the light source within the centrifuge tube, and the centrifuge tube is sized to be received within a swing bucket of a centrifuge, wherein a force is applied to the sample when the centrifuge tube is rotated by a centrifuge, the apparatus being configured for monitoring the sample during rotation by the centrifuge. a sample measurement apparatus, comprising: a light source configured to illuminate the sample; a sample chamber; a detector configured to receive light from the sample; and a centrifuge tube, characterized in that the centrifuge tube holds the sample chamber, the detector, and the light source within the centrifuge tube, and the centrifuge tube is sized to be received within a swing bucket of a centrifuge, a light source configured to illuminate the sample; a sample chamber; a detector configured to receive light from the sample; and a centrifuge tube, characterized in that the centrifuge tube holds the sample chamber, the detector, and the light source within the centrifuge tube, and the centrifuge tube is sized to be received within a swing bucket of a centrifuge, wherein a force is applied to the sample when the centrifuge tube is rotated by a centrifuge, the apparatus being configured for monitoring the sample during rotation by the centrifuge.
Bathing water treatment system comprising a pool with an overflow channel for collecting bathing water and a equalizing pool for receiving surge water, wherein a first circuit leads from the overflow channel into the equalizing pool and from there via a first pump back to the pool, wherein the first circuit taps bathing water in the overflow channel at a first level, characterized in that a second circuit leads from the overflow channel via a second pump back to the pool, wherein the second circuit taps bathing water in the overflow channel at a second level, and in that the first level is higher than the second level.
A compound of Formula: wherein R 1, R 3 are independently from each other selected from H and linear or branched C 1 -C 6 -alkyl, R 2 is selected from chloro and linear or branched C 1 -C 6 -alkyl or C 3 -C 7 cycloalkyl, R 4 is F or H, and R 5 is A or CH 2 CH 2 R 7, wherein A is selected from the following groups: wherein R 6 is H, CH 3, CH 2 CH 2 R or CH(CH 2 R) 2, CH 2 CR 3, CH 2 -cyclopropyl, CH 2 CN, CH 2 CHF 2, R 6' is CH 2 CH 2 R' or CH(CH 2 R') 2, CH 2 CR 3, CH 2 CO 2 R 1, R 6" is F, OH, OCH 3, NH 2, N(CH 3) 2, N(R 1) 2, CO 2 R 1, R 6"' is CH 2 CH 2 R or CH(CH 2 R) 2, CH 2 CR 3, CH 2 -cyclopropyl, CH 2 CN, CH 2 CHF 2, R is H, CN, OH, OCH 3, Cl, F, CHF 2, CH 3, CF 3, CH 2 CH 3 or cyclopropyl, R' is CN, OH, OCH 3, Cl, CHF 2, CH 3, CF 3 or cyclopropyl, and R 7 is selected from the following groups: wherein R a and R b are each independently H, F, CH 3, OCH 3, OH or 1-pyrrolidinyl and at least one of R a and R b denotes F, CH 3, OCH 3, OH or 1-pyrrolidinyl, and/or tautomers, salts, solvates, stereoisomers, diastereomers and enantiomers thereof; with the proviso that the following compounds and are excluded. R 1, R 3 are independently from each other selected from H and linear or branched C 1 -C 6 -alkyl, R 2 is selected from chloro and linear or branched C 1 -C 6 -alkyl or C 3 -C 7 cycloalkyl, R 4 is F or H, and R 5 is A or CH 2 CH 2 R 7, wherein A is selected from the following groups: R 6 is H, CH 3, CH 2 CH 2 R or CH(CH 2 R) 2, CH 2 CR 3, CH 2 -cyclopropyl, CH 2 CN, CH 2 CHF 2, R 6' is CH 2 CH 2 R' or CH(CH 2 R') 2, CH 2 CR 3, CH 2 CO 2 R 1, R 6" is F, OH, OCH 3, NH 2, N(CH 3) 2, N(R 1) 2, CO 2 R 1, R 6"' is CH 2 CH 2 R or CH(CH 2 R) 2, CH 2 CR 3, CH 2 -cyclopropyl, CH 2 CN, CH 2 CHF 2, R is H, CN, OH, OCH 3, Cl, F, CHF 2, CH 3, CF 3, CH 2 CH 3 or cyclopropyl, R' is CN, OH, OCH 3, Cl, CHF 2, CH 3, CF 3 or cyclopropyl, and R 7 is selected from the following groups: wherein R a and R b are each independently H, F, CH 3, OCH 3, OH or 1-pyrrolidinyl and at least one of R a and R b denotes F, CH 3, OCH 3, OH or 1-pyrrolidinyl, and/or tautomers, salts, solvates, stereoisomers, diastereomers and enantiomers thereof; with the proviso that the following compounds and are excluded.
A negative electrode plate, comprising a negative electrode current collector and active material layers disposed on at least one surface of the negative electrode current collector, wherein the active material layers comprise a first active material layer and a second active material layer disposed on a surface of the first active material layer, wherein the first active material layer is arranged between the negative electrode current collector and the second active material layer, the first active material layer comprises a first active material, the second active material layer comprises a second active material, and the active material layers satisfy α × CW 2 ≤ CW 1, wherein α is a relative factor of layer spacings, wherein α = d 2 d 1 and 1 ≤ α ≤ 1.12; d 1 is a layer spacing corresponding to a d002 peak of the first active material, in units of nm; d 2 is a layer spacing corresponding to a d002 peak of the second active material, in units of nm; CW 1 is mass per unit area of the first active material layer disposed on the negative electrode current collector, in units of g/m 2; and CW 2 is mass per unit area of the second active material layer disposed on the negative electrode current collector, in units of g/m 2, wherein the layer spacing d1 corresponding to the d002 peak of the first active material is within a range of 0.335-0.3362 nm, and the layer spacing d2 corresponding to the d002 peak of the second active material is within a range of 0.3356-0.38 nm, and wherein the mass per unit area CW1 of the first active material layer disposed on the negative electrode current collector is within a range of 80-200 g/m2, and the mass per unit area CW2 of the second active material layer disposed on the negative electrode current collector is within a range of 10-110 g/m2, wherein the first active material is a natural graphite material or an artificial graphite material. α is a relative factor of layer spacings, wherein α = d 2 d 1 and 1 ≤ α ≤ 1.12; d 1 is a layer spacing corresponding to a d002 peak of the first active material, in units of nm; d 2 is a layer spacing corresponding to a d002 peak of the second active material, in units of nm; CW 1 is mass per unit area of the first active material layer disposed on the negative electrode current collector, in units of g/m 2; and CW 2 is mass per unit area of the second active material layer disposed on the negative electrode current collector, in units of g/m 2, wherein the layer spacing d1 corresponding to the d002 peak of the first active material is within a range of 0.335-0.3362 nm, and the layer spacing d2 corresponding to the d002 peak of the second active material is within a range of 0.3356-0.38 nm, and wherein the mass per unit area CW1 of the first active material layer disposed on the negative electrode current collector is within a range of 80-200 g/m2, and the mass per unit area CW2 of the second active material layer disposed on the negative electrode current collector is within a range of 10-110 g/m2, wherein the first active material is a natural graphite material or an artificial graphite material.
A process to prepare a polyester polymer comprising: - a ring-opening polymerization of a cyclic oligomer composition comprising a cyclic polyester oligomer having furanic units, characterized in that the ring-opening polymerization is carried out in the presence of a plasticizer, wherein the plasticizer is one or more selected from the group consisting of a supercritical fluid, optionally-substituted phenyl ether, an ionic liquid, an optionally-substituted xylene, a polyether, and their mixtures. - a ring-opening polymerization of a cyclic oligomer composition comprising a cyclic polyester oligomer having furanic units, characterized in that the ring-opening polymerization is carried out in the presence of a plasticizer, wherein the plasticizer is one or more selected from the group consisting of a supercritical fluid, optionally-substituted phenyl ether, an ionic liquid, an optionally-substituted xylene, a polyether, and their mixtures.
A method of mapping speed of row units of a planter traveling through a field, comprising: displaying on a monitor screen an area of a field traveled by the planter; and, detecting a ground speed of each row unit of the planter; characterised in that the method further comprises graphically representing as a row speed map on the monitor screen the detected ground speed of each row unit on the displayed area of the field traveled by the planter. displaying on a monitor screen an area of a field traveled by the planter; and, detecting a ground speed of each row unit of the planter; characterised in that the method further comprises graphically representing as a row speed map on the monitor screen the detected ground speed of each row unit on the displayed area of the field traveled by the planter.
A combination therapy consisting of (a) dimethyl fumarate and/or monomethyl fumarate and (b) glatiramer acetate, for use in treating a subject having multiple sclerosis.
An apparatus for positioning an orthopedic implant, the apparatus comprising: an orthopedic implant; a flexible substrate, which is formed into a three-dimensional shape and is coupled to a predefined location on the orthopedic implant; at least first and second field-generating coils formed in the flexible substrate, such that in the 3D shape the first and second field-generating coils have first and second respective axes that are not parallel to one another; and circuitry, which is mounted on the flexible substrate and electrically connected to the at least first and second field-generating coils, and which is configured to drive the at least first and second field-generating coils with respective signals. an orthopedic implant; a flexible substrate, which is formed into a three-dimensional shape and is coupled to a predefined location on the orthopedic implant; at least first and second field-generating coils formed in the flexible substrate, such that in the 3D shape the first and second field-generating coils have first and second respective axes that are not parallel to one another; and circuitry, which is mounted on the flexible substrate and electrically connected to the at least first and second field-generating coils, and which is configured to drive the at least first and second field-generating coils with respective signals.
A patient monitor capable of measuring at least two physiological parameters, the patient monitor comprising a display capable of displaying a measured value of a first physiological parameter of body tissue of a monitored patient in a first display area or displaying a measured value of a second physiological parameter of the body tissue in a second display area where the first display area and the second display area comprise at least some common display area capable of displaying information, wherein in the common display area, the display of one of the measured values of the first and second physiological parameters is replaced with the other of the measured values based on an occurrence of an event, the event being the measured value of one of the first and second physiological parameters approaching one or more threshold values indicative of a worsening state of the monitored patient.
A light-emitting device composed of a lower electrode which is laid on a substrate, an organic layer including at least an emission layer which is laid on said lower electrode, and an upper electrode transparent to light which is laid on said organic layer, characterized in that said lower electrode is of laminate structure consisting of a metallic material layer and a layer of buffering thin film which is formed on said metallic material layer, said buffering thin film consisting of any oxide of the metallic material constituting the metallic material layer, said oxide having a higher conductivity than the organic layer, and in that the buffering thin film is 8 to 10 nm thick.
Mobile platform designed for diagnosing metallic walls, moving in two mutually perpendicular directions, vertical and horizontal, comprising a superior module, a top frame, a main motor, a gear and a main crawler with adhering means arranged on each part of the crawler, the motor being located in a basket rigidly attached to the superior module and being connected to the gear on an output shaft of which the wheels of the main crawler are mounted, the crawler comprising components to which the adhering means are flexibly attached, characterised in that the adhering means are in form of electromagnets supplied by a busbar, and in that the top frame is equipped with six motors (7, 9) and attached to the superior module with a bolted connection, the bolts being mounted on the shafts of four of the motors acting to lift and lower the top frame perpendicularly to the wall surface, while two remaining motors enable movement of the top frame in parallel to the wall surface.
Micromechanical rotation rate sensor comprising at least one substrate, wherein the base surface of the substrate is oriented parallel to the x-y plane of a Cartesian coordinate system, at least two seismic masses (1, 1a, 1b) and in each case at least one suspension spring element (10, 11) for suspending the seismic masses (1, 1a, 1b) from the substrate, wherein the at least two seismic masses (1, 1a, 1b) are coupled to one another by means of at least one coupling bar (2, 2a, 2b), and at least one of the suspension spring elements comprises at least two bar sections, which, in the undeflected state, are oriented essentially parallel to one another or are at an angle of less than 45° with respect to one another, and one or more connecting sections, which connect the bar sections to one another, characterized in that the bar sections can be displaced relative to one another in their longitudinal direction.
A method for wireless communications, comprising: identifying devices to receive spatially steered data frames during a transmission opportunity, TXOP, the data frames being included in a multi-user frame; transmitting, during the TXOP, request to send, RTS, information to the identified devices; receiving clear to send, CTS, responses from the identified devices, wherein the CTS responses include an indication of one or more frequency bands available for transmission; determining a bandwidth configuration for the multi-user frame based on the CTS responses, the bandwidth configuration indicating one or more frequency bands that are available during at least a portion of the TXOP and including selecting a smallest bandwidth configuration indicated by the CTS responses; and transmitting, during the TXOP, the multi-user frame to the identified devices in accordance with the bandwidth configuration, wherein transmitting the multi-user frame includes transmitting, concurrently, spatially steered data frames to the identified devices. identifying devices to receive spatially steered data frames during a transmission opportunity, TXOP, the data frames being included in a multi-user frame; transmitting, during the TXOP, request to send, RTS, information to the identified devices; receiving clear to send, CTS, responses from the identified devices, wherein the CTS responses include an indication of one or more frequency bands available for transmission; determining a bandwidth configuration for the multi-user frame based on the CTS responses, the bandwidth configuration indicating one or more frequency bands that are available during at least a portion of the TXOP and including selecting a smallest bandwidth configuration indicated by the CTS responses; and transmitting, during the TXOP, the multi-user frame to the identified devices in accordance with the bandwidth configuration, wherein transmitting the multi-user frame includes transmitting, concurrently, spatially steered data frames to the identified devices.