mhurhangee/ep-ind-claims huggingface dataset:
A reducer applicable to an opening of a container and identifying a seat comprising a bottom and a lateral flank that define a concavity intended for housing a portion of a syringe doser; said bottom comprising an opening suitable for allowing the passage of a fluid present in the container; said reducer comprising a passage intended for enabling the air to enter the container to compensate for the depressurisation induced in the container by the aspiration of the fluid by the syringe doser; said passage being outside said concavity, traversing the reducer and being suitable for placing the inside and outside of the container in fluid communication; said passage comprising an inlet section for the entry of the air into said passage and an outlet section for the exit of the air from said passage; said outlet section for the exit of the air from said passage being intended to terminate in the container; said seat defining an axial insertion/extraction direction for inserting/extracting the syringe doser with respect to said concavity; a first and a second imaginary plane (41, 42) are defined that are orthogonal to said axial direction and pass respectively through a mouth to insert the syringe doser into the concavity and the outlet section of said passage; the bottom being interposed between the first and second imaginary plane (41, 42); characterised in that the reducer is a single monolithic body. said reducer comprising a passage intended for enabling the air to enter the container to compensate for the depressurisation induced in the container by the aspiration of the fluid by the syringe doser; said passage being outside said concavity, traversing the reducer and being suitable for placing the inside and outside of the container in fluid communication; said passage comprising an inlet section for the entry of the air into said passage and an outlet section for the exit of the air from said passage; said outlet section for the exit of the air from said passage being intended to terminate in the container; said seat defining an axial insertion/extraction direction for inserting/extracting the syringe doser with respect to said concavity; a first and a second imaginary plane (41, 42) are defined that are orthogonal to said axial direction and pass respectively through a mouth to insert the syringe doser into the concavity and the outlet section of said passage; the bottom being interposed between the first and second imaginary plane (41, 42); characterised in that the reducer is a single monolithic body.
An apparatus for generating short strong current pulses in a coil such that the coil produces magnetic field pulses which, according to the principle of electromagnetic induction, cause electrical currents for stimulation in body tissue which trigger an action potential for stimulating nerve and/or muscle cells, wherein the coil is configured to be positioned close to the body tissue to be stimulated so that a generated magnetic field permeates the body tissue; wherein the apparatus includes at least one capacitor for storing and outputting the energy required for the magnetic field pulses and a suitable charging circuit for charging said at least one capacitor; and wherein the apparatus comprises a power generation unit arranged to generate a freely selectable time behaviour of the current through the coil during the current pulse and wherein the apparatus is arranged to control an optimized time behaviour of the current through the coil such that the electric field induced by the coil in the tissue results in a current the time behaviour of which is matched to the dynamic charge transport phenomena of the nerve fibres, in order to reduce a required field strength or field energy for inductive stimulation of the nerve and/or muscle cells or in order to optimize selective stimulation of only one cell type of a plurality of target structures of cell tissue closely adjacent to each other at a time, characterized in that for generating the time behaviour of the coil current, a modular multilevel converter is used, which consists of a plurality of individual modules that can be controlled independently of each other. wherein the coil is configured to be positioned close to the body tissue to be stimulated so that a generated magnetic field permeates the body tissue; wherein the apparatus includes at least one capacitor for storing and outputting the energy required for the magnetic field pulses and a suitable charging circuit for charging said at least one capacitor; and wherein the apparatus comprises a power generation unit arranged to generate a freely selectable time behaviour of the current through the coil during the current pulse and wherein the apparatus is arranged to control an optimized time behaviour of the current through the coil such that the electric field induced by the coil in the tissue results in a current the time behaviour of which is matched to the dynamic charge transport phenomena of the nerve fibres, in order to reduce a required field strength or field energy for inductive stimulation of the nerve and/or muscle cells or in order to optimize selective stimulation of only one cell type of a plurality of target structures of cell tissue closely adjacent to each other at a time, characterized in that for generating the time behaviour of the coil current, a modular multilevel converter is used, which consists of a plurality of individual modules that can be controlled independently of each other.
An agricultural crop baler comprising: a baling chamber configured to receive severed crop material and in which the material is formed into a bale; a crop pickup upstream from the baling chamber to collect severed crop material and direct a flow of crop material toward the baling chamber; characterised in that the agricultural crop baler further comprises an adjustable partition mechanism located between the crop pickup and the baling chamber to control the flow of crop material from the crop pickup to the baling chamber, said partition mechanism including a wall assembly that at least partly defines a crop passage extending along a crop-flow direction between the crop pickup and the baling chamber, and said wall assembly including a shiftable wall that is shiftable transversely to the crop-flow direction to adjustably vary the crop passage and thereby the flow of crop material to the baling chamber. a baling chamber configured to receive severed crop material and in which the material is formed into a bale; a crop pickup upstream from the baling chamber to collect severed crop material and direct a flow of crop material toward the baling chamber; characterised in that the agricultural crop baler further comprises an adjustable partition mechanism located between the crop pickup and the baling chamber to control the flow of crop material from the crop pickup to the baling chamber, said partition mechanism including a wall assembly that at least partly defines a crop passage extending along a crop-flow direction between the crop pickup and the baling chamber, and said wall assembly including a shiftable wall that is shiftable transversely to the crop-flow direction to adjustably vary the crop passage and thereby the flow of crop material to the baling chamber.
User equipment, comprising mode switching means (120, 220) adapted to switch, autonomously or based on a command from a base station of a communication system to which the user equipment belongs, the user equipment from a high data rate mode to a low data rate mode; measuring means (130, 230) adapted to measure a downlink reference signal received on a downlink from the base station; feedback preparing means (140, 240) adapted to prepare a feedback based on the measurement by the measuring means (130, 230); encoding means (150, 250) adapted, if the user equipment is in the low data rate mode, to jointly encode uplink data to be transmitted on an uplink to the base station and the feedback, thus obtaining encoded data; modulating means (160, 260) adapted to modulate the encoded data; and providing means (170, 270) adapted to provide the modulated encoded data for being sent on the uplink. mode switching means (120, 220) adapted to switch, autonomously or based on a command from a base station of a communication system to which the user equipment belongs, the user equipment from a high data rate mode to a low data rate mode; measuring means (130, 230) adapted to measure a downlink reference signal received on a downlink from the base station; feedback preparing means (140, 240) adapted to prepare a feedback based on the measurement by the measuring means (130, 230); encoding means (150, 250) adapted, if the user equipment is in the low data rate mode, to jointly encode uplink data to be transmitted on an uplink to the base station and the feedback, thus obtaining encoded data; modulating means (160, 260) adapted to modulate the encoded data; and providing means (170, 270) adapted to provide the modulated encoded data for being sent on the uplink.
Apparatus for producing an N-layer optical information carrier comprising: - an injection moulding unit (10, 10') for producing a carrier body with a first information layer, - a first embossing unit for producing a second information layer, wherein an embossing unit comprises at least one applicator device for the lacquer forming the information layer, an imprinting device with which the information is transferred into the lacquer, a hardening device which can also throughout be a constituent part of the imprinting device, a metallizing device, an application and hardening device for the covering lacquer, and which furthermore has an inlet via which information carriers can be received into the embossing unit, wherein the embossing unit furthermore has an output unit via which the coated information carriers are discharged, wherein the apparatus is assigned further (n-2) embossing units (20, 20') for producing a further information layer each, wherein "n" is greater than two, and the respective units (10, 20; 10',20') are linked to one another so that the n-layer information carrier is produced in an inline production, and that the further (n-2) embossing units can be coupled to and uncoupled from the apparatus, wherein the further embossing units (20, 20') each have an inlet and an output unit, characterized in that at least one uncoupled embossing unit can be coupled to a further injection moulding unit so that a further independent apparatus is thus formed for producing a multi-layered information carrier. - an injection moulding unit (10, 10') for producing a carrier body with a first information layer, - a first embossing unit for producing a second information layer, wherein an embossing unit comprises at least one applicator device for the lacquer forming the information layer, an imprinting device with which the information is transferred into the lacquer, a hardening device which can also throughout be a constituent part of the imprinting device, a metallizing device, an application and hardening device for the covering lacquer, and which furthermore has an inlet via which information carriers can be received into the embossing unit, wherein the embossing unit furthermore has an output unit via which the coated information carriers are discharged, wherein the apparatus is assigned further (n-2) embossing units (20, 20') for producing a further information layer each, wherein "n" is greater than two, and the respective units (10, 20; 10',20') are linked to one another so that the n-layer information carrier is produced in an inline production, and that the further (n-2) embossing units can be coupled to and uncoupled from the apparatus, wherein the further embossing units (20, 20') each have an inlet and an output unit, characterized in that at least one uncoupled embossing unit can be coupled to a further injection moulding unit so that a further independent apparatus is thus formed for producing a multi-layered information carrier.
A computer-implemented method for operating an autonomous vehicle, comprising: receiving driving environment data of the autonomous vehicle, wherein the driving environment data includes a route segment; segmenting the route segment into a plurality of route sub-segments; assigning a specific driving scenario to each of the plurality of route sub-segments along which the autonomous vehicle is travelling, wherein each specific driving scenario is included in a set of driving scenarios; wherein the specific driving scenario is assigned utilizing map and route information included in the driving environment data to determine a specific area on a map, with which the route sub segment is associated, characterized in the specific area including an urban area, a highway area, a parking lot area or an unmapped area, wherein the set of driving scenarios includes an urban scenario, a highway scenario, a parking lot scenario, and an unmapped scenario; assigning a first motion planning algorithm according to a first assigned driving scenario included in the set of driving scenarios; invoking the first motion planning algorithm to generate a first set of trajectories; and controlling the autonomous vehicle based on the first set of trajectories. receiving driving environment data of the autonomous vehicle, wherein the driving environment data includes a route segment; segmenting the route segment into a plurality of route sub-segments; assigning a specific driving scenario to each of the plurality of route sub-segments along which the autonomous vehicle is travelling, wherein each specific driving scenario is included in a set of driving scenarios; wherein the specific driving scenario is assigned utilizing map and route information included in the driving environment data to determine a specific area on a map, with which the route sub segment is associated, characterized in the specific area including an urban area, a highway area, a parking lot area or an unmapped area, wherein the set of driving scenarios includes an urban scenario, a highway scenario, a parking lot scenario, and an unmapped scenario; assigning a first motion planning algorithm according to a first assigned driving scenario included in the set of driving scenarios; invoking the first motion planning algorithm to generate a first set of trajectories; and controlling the autonomous vehicle based on the first set of trajectories.
Portable electric tool comprising: a body of substantially tubular shape; an actuator at least partially engaged in the body, said actuator comprising a fixing element secured to the body and an operating element displaceable relative to said fixing element, a transmission member connecting said operating element of the actuator to a movable member of the tool, in which said body is formed from an integral part that cannot be disassembled, laterally surrounding said actuator, said fixing element comprising a collar, said tool comprises a removable sleeve, wherein said body has a first opening at a front end of the tool through which said transmission member passes, wherein said body has a second opening closed by said removable sleeve, which is arranged to secure said actuator to the body, wherein said removable sleeve is arranged to be screwed into said body and to rest on the rear face of said collar, in order to secure said actuator to the body, wherein a first portion of said actuator is laterally surrounded by said tool body and a second portion of said actuator is laterally surrounded by said removable sleeve.
An ink composition for use in digital offset printing, comprising: at least one component selected from the group consisting of a curable monomer and a curable oligomer; an optional dispersant; an optional photoinitiator; and at least one non-radiation curable additive, wherein the non-radiation curable additive is a detergent or an emulsifying agent, or wherein the non-radiation curable additive functions as a detergent or emulsifying agent when in the presence of a cleaning fluid, and wherein the non-radiation curable additive is a solid at a temperature of from 20 °C to 40 °C; characterised in that the non-radiation curable additive is polyethylene glycol, behenyl behenate or polycaprolactone-block-polytetrahydrofuran-block-polycaprolactone. at least one component selected from the group consisting of a curable monomer and a curable oligomer; an optional dispersant; an optional photoinitiator; and at least one non-radiation curable additive, wherein the non-radiation curable additive is a detergent or an emulsifying agent, or wherein the non-radiation curable additive functions as a detergent or emulsifying agent when in the presence of a cleaning fluid, and wherein the non-radiation curable additive is a solid at a temperature of from 20 °C to 40 °C; characterised in that the non-radiation curable additive is polyethylene glycol, behenyl behenate or polycaprolactone-block-polytetrahydrofuran-block-polycaprolactone.
Use of the individual fluorescence decay times of the intrinsic fluorescence (auto-fluorescence) of polymers for the detection thereof, preferably for the detection thereof for homogeneous sorting for recycling.
A combination of a fluid temperature control apparatus with a machine tool, wherein the apparatus is arranged to adjust the temperature of a fluid being supplied to the machine tool to maintain the fluid at a setpoint temperature at a first location which is downstream of the apparatus, and the apparatus comprises: a temperature control assembly for adjusting the temperature of the fluid as it passes through the assembly, the assembly having a fluid inlet for receiving a flow of the fluid and a fluid outlet for outputting the fluid; a fluid conduit arrangement which is coupled to the fluid outlet to carry the fluid to the machine tool; a first temperature sensor for outputting a first temperature signal responsive to the temperature of the fluid at the first location; and a controller configured to receive the first temperature signal and control the temperature control assembly with reference to the first temperature signal so as to maintain the fluid at the setpoint temperature at the first location, characterised in that the temperature control assembly comprises at least one thermoelectric temperature control device (48,50), and the temperature control assembly includes a thermal exchanger which forms part of a fluid path between the fluid inlet and the fluid outlet, is thermally coupled to the at least one thermoelectric temperature control device, and defines a first set of channels in the fluid path between the fluid inlet and the fluid outlet, and the fluid path is divided between the first set of channels. a temperature control assembly for adjusting the temperature of the fluid as it passes through the assembly, the assembly having a fluid inlet for receiving a flow of the fluid and a fluid outlet for outputting the fluid; a fluid conduit arrangement which is coupled to the fluid outlet to carry the fluid to the machine tool; a first temperature sensor for outputting a first temperature signal responsive to the temperature of the fluid at the first location; and a controller configured to receive the first temperature signal and control the temperature control assembly with reference to the first temperature signal so as to maintain the fluid at the setpoint temperature at the first location, characterised in that the temperature control assembly comprises at least one thermoelectric temperature control device (48,50), and the temperature control assembly includes a thermal exchanger which forms part of a fluid path between the fluid inlet and the fluid outlet, is thermally coupled to the at least one thermoelectric temperature control device, and defines a first set of channels in the fluid path between the fluid inlet and the fluid outlet, and the fluid path is divided between the first set of channels.
An in vitro method for detecting endometrial cancer or predicting the risk of developing endometrial cancer in a subject, comprising the step of measuring the expression level of at least one miRNA selected from the group consisting of miR660, miR28-3p, miR29a, miR30a*, miR30b, miR30e, miR451, miR3613-5p and miR4487 in the test sample of the subject, wherein a higher expression level of at least one of the following miRNA in the test sample, relative to the expression level of at least one corresponding miRNA in an endometrial cancer-free sample, is indicative of the subject having endometrial cancer or has a risk of developing endometrial cancer: miR660, miR28-3p, miR29a, miR30a*, miR30b, miR30e, or miR451, and wherein in a lower expression level of at least one of the following miRNA in the test sample, relative to the expression level of at least one corresponding miRNA in an endometrial cancer-free sample, is indicative of the subject having endometrial cancer or has a risk of developing endometrial cancer: miR-3613-5P or miR4487.
A process for preparing a bis-quinophthalone pigment of Formula, said process comprising the following steps; wherein X 1, X 2, X 3 and X 4 are independently H or halogen preferably Cl or Br; R 2 is substituent selected from the group consisting of H, C 1 - C 20 straight or branched chain alkyl substituents, aromatic substituents, aliphatic substituents, and combinations thereof, i. condensing a compound of Formula in presence of monochlorobenzene and benzoic acid at a temperature in the range of 90°C to 250°C. wherein R 2 is a substituent selected from the group consisting of H, C 1 - C 20 straight or branched chain alkyl substituents, aromatic substituents, aliphatic substituents and combinations thereof, with substituted phthalic anhydride of Formula wherein X 1, X 2, X 3 and X 4 are independently H or halogen, preferably Cl or Br, to obtain crude bis-quinophthalone compound of Formula; and ii. pigmenting crude bis-quinophthalone compound to obtain a bis-quinophthalone pigment of formula. wherein X 1, X 2, X 3 and X 4 are independently H or halogen preferably Cl or Br; R 2 is substituent selected from the group consisting of H, C 1 - C 20 straight or branched chain alkyl substituents, aromatic substituents, aliphatic substituents, and combinations thereof, i. condensing a compound of Formula in presence of monochlorobenzene and benzoic acid at a temperature in the range of 90°C to 250°C. wherein R 2 is a substituent selected from the group consisting of H, C 1 - C 20 straight or branched chain alkyl substituents, aromatic substituents, aliphatic substituents and combinations thereof, with substituted phthalic anhydride of Formula wherein X 1, X 2, X 3 and X 4 are independently H or halogen, preferably Cl or Br, to obtain crude bis-quinophthalone compound of Formula; and ii. pigmenting crude bis-quinophthalone compound to obtain a bis-quinophthalone pigment of formula.