mhurhangee/ep-ind-claims huggingface dataset:
A nasal drop support device configured to support use of a nasal drop device by a user, comprising: a camera configured to capture an image of the face of the user who puts the nasal drop device in the nose; a processor configured to calculate, based on the image captured by the camera, a current relative angle between a reference line indicating the facial posture of the user and a reference line indicating the posture of the nasal drop device, and generate suitability information indicating whether or not the deviation degree between the relative angle and a target angle is within an allowable range; a notification portion configured to notify the user of the content of the suitability information; a communication portion configured to transmit the suitability information to the nasal drop device; and an acceleration sensor configured to detect a tilt angle of the camera with respect to a vertical direction as first angle information, wherein the communication portion is configured to receive, from the nasal drop device, second angle information indicating a tilt angle of the nasal drop device with respect to the vertical direction; the nasal drop support device being characterized in that the processor is configured to detect, as third angle information, a tilt angle between the reference line indicating the facial posture of the user and a reference line indicating the posture of the nasal drop support device, by analyzing the image captured by the camera and the first angle information, and calculate the relative angle based on the second angle information and the third angle information. a camera configured to capture an image of the face of the user who puts the nasal drop device in the nose; a processor configured to calculate, based on the image captured by the camera, a current relative angle between a reference line indicating the facial posture of the user and a reference line indicating the posture of the nasal drop device, and generate suitability information indicating whether or not the deviation degree between the relative angle and a target angle is within an allowable range; a notification portion configured to notify the user of the content of the suitability information; a communication portion configured to transmit the suitability information to the nasal drop device; and an acceleration sensor configured to detect a tilt angle of the camera with respect to a vertical direction as first angle information, wherein the communication portion is configured to receive, from the nasal drop device, second angle information indicating a tilt angle of the nasal drop device with respect to the vertical direction; the nasal drop support device being characterized in that the processor is configured to detect, as third angle information, a tilt angle between the reference line indicating the facial posture of the user and a reference line indicating the posture of the nasal drop support device, by analyzing the image captured by the camera and the first angle information, and calculate the relative angle based on the second angle information and the third angle information.
Method for processing a first request, sent by a first client entity, to distribute an item of content, said method comprising the following steps implemented by a processing device: - a first step of acquiring a location region in which the client entity is located from an address of said entity; - a second step of acquiring selection information for at least one selection of a content distribution network from among a plurality of content distribution networks made previously for processing a second request, sent by a second client entity located in said location region, to distribute said item of content, said selection information comprising an identifier of the selected distribution network and a time stamp of said previous selection; - for said acquired network identifier, a step of determining an item of data representative of a probability of presence of said item of content in a cache memory of said network as a function of the time that has elapsed since the time stamp, said item of data being used to select a distribution network for distributing the item of content to the first client entity. - a first step of acquiring a location region in which the client entity is located from an address of said entity; - a second step of acquiring selection information for at least one selection of a content distribution network from among a plurality of content distribution networks made previously for processing a second request, sent by a second client entity located in said location region, to distribute said item of content, said selection information comprising an identifier of the selected distribution network and a time stamp of said previous selection; - for said acquired network identifier, a step of determining an item of data representative of a probability of presence of said item of content in a cache memory of said network as a function of the time that has elapsed since the time stamp, said item of data being used to select a distribution network for distributing the item of content to the first client entity.
A continuous cycle bottling line for containers of thermoplastic material, comprising: - at least one moulding unit for making parisons of thermoplastic material from the thermoplastic material in its raw form; - at least one blow-moulding unit configured to receive the parisons and to blow-mould them in such a way as to make containers designed to be filled; - at least one filling unit configured to receive the containers from the blow-moulding unit and to fill them with liquid or semi-liquid food products; - a parison thermal conditioning structure configured to receive the parisons from the moulding unit and to heat and cool the parisons; - an automatic storage system internally defining a controlled atmosphere, configured to contain the parisons and connected to the thermal conditioning structure to receive and feed parisons from and to the thermal conditioning structure, wherein the thermal conditioning structure comprises at least one cooling module, connected downstream of the parison moulding unit to receive parisons to be cooled and to the storage system to transfer the cooled parisons, and at least one heating module connected to the storage system to receive previously stored parisons to be heated and connected upstream of the blow-moulding unit in order to feed it with heated parisons, characterized in that it comprises a pressurization system configured to generate an overpressure at least inside the following parts of the line, compared to the atmosphere outside the line: the storage system, the at least one blow-moulding unit and connections between the thermal conditioning structure and the storage system, and in that the at least one heating module and the at least one cooling module of the thermal conditioning structure have a plurality of shutters configured to occlude the opening at the end of each parison, so that the interior of the parison remains closed when the parison is inside the heating and cooling module (8,9). - at least one moulding unit for making parisons of thermoplastic material from the thermoplastic material in its raw form; - at least one blow-moulding unit configured to receive the parisons and to blow-mould them in such a way as to make containers designed to be filled; - at least one filling unit configured to receive the containers from the blow-moulding unit and to fill them with liquid or semi-liquid food products; - a parison thermal conditioning structure configured to receive the parisons from the moulding unit and to heat and cool the parisons; - an automatic storage system internally defining a controlled atmosphere, configured to contain the parisons and connected to the thermal conditioning structure to receive and feed parisons from and to the thermal conditioning structure,
A solid cosmetic composition comprising (i) an outer layer comprising (a) a hard vegetable butter in an amount of 10 to 45 wt.% based on the outer layer, and (b) a soft vegetable butter in an amount of 55 to 80 wt.% based on the outer layer; and (ii) an inner core which is (a) a soft vegetable butter composition; (b) a fondant; or (c) a liquid cosmetic, wherein the hard vegetable butter is a high saturated vegetable butter having greater than 60 wt% saturated fatty acids based on total fatty acid content of the high saturated vegetable butter, wherein the soft vegetable butter is a low saturated vegetable butter having less than 60 wt% saturated fatty acids based on total fatty acid content of the low saturated vegetable butter, and wherein "solid" means that the cosmetic composition can substantially sustain its physical shape when unsupported by external means, and wherein the solid cosmetic composition is solid at room temperature and remains substantially solid at up to a temperature of 30°C. (i) an outer layer comprising (a) a hard vegetable butter in an amount of 10 to 45 wt.% based on the outer layer, and (b) a soft vegetable butter in an amount of 55 to 80 wt.% based on the outer layer; and (a) a hard vegetable butter in an amount of 10 to 45 wt.% based on the outer layer, and (b) a soft vegetable butter in an amount of 55 to 80 wt.% based on the outer layer; (ii) an inner core which is (a) a soft vegetable butter composition; (b) a fondant; or (c) a liquid cosmetic, wherein the hard vegetable butter is a high saturated vegetable butter having greater than 60 wt% saturated fatty acids based on total fatty acid content of the high saturated vegetable butter, wherein the soft vegetable butter is a low saturated vegetable butter having less than 60 wt% saturated fatty acids based on total fatty acid content of the low saturated vegetable butter, and wherein "solid" means that the cosmetic composition can substantially sustain its physical shape when unsupported by external means, and wherein the solid cosmetic composition is solid at room temperature and remains substantially solid at up to a temperature of 30°C. (a) a soft vegetable butter composition; (b) a fondant; or (c) a liquid cosmetic,
An installation for treating CO2 from a CO2-emitting industrial plant, the installation comprising a CO2 filter, a duct or other chamber in which the CO2 filter is installed, the duct or chamber having an inlet which, in use, receives a flow of CO2-containing gases from the industrial plant and an outlet, whereby in use a flow of CO2-containing gases passes through the duct or chamber, through the CO2 filter and out via said outlet, wherein the CO2 filter comprises slabs or other bodies or pieces, or gravel or another crushed form, of peridotite mafic igneous rock.
A process for preparing a flexible polyurethane foam, comprising A. forming a reaction mixture including at least one polyol that has a hydroxyl equivalent weight of 800 or more, water, an alkali metal carboxylate salt a polyisocyanate and at least one tertiary amine, tin carboxylate or tetravalent tin catalyst, wherein the reaction mixture is devoid of a halogenated or phosphorus-containing flame retardant and B. subjecting the reaction mixture to conditions sufficient to cause the reaction mixture to expand and cure to form a polyurethane foam having a density of from 28.8 to 64 kg/m 3 (1.8 to 4 pounds per cubic foot) and which exhibits a value of at least 40% on the ASTM D 3574 ball rebound test, wherein the polyisocyanate is a diphenylmethane diisocyanate and/or polymethylene polyphenylisocyanate, which is modified to contain at least 20% by weight of biuret-containing oligomers that have three or more isocyanate groups. A. forming a reaction mixture including at least one polyol that has a hydroxyl equivalent weight of 800 or more, water, an alkali metal carboxylate salt a polyisocyanate and at least one tertiary amine, tin carboxylate or tetravalent tin catalyst, wherein the reaction mixture is devoid of a halogenated or phosphorus-containing flame retardant and B. subjecting the reaction mixture to conditions sufficient to cause the reaction mixture to expand and cure to form a polyurethane foam having a density of from 28.8 to 64 kg/m 3 (1.8 to 4 pounds per cubic foot) and which exhibits a value of at least 40% on the ASTM D 3574 ball rebound test, wherein the polyisocyanate is a diphenylmethane diisocyanate and/or polymethylene polyphenylisocyanate, which is modified to contain at least 20% by weight of biuret-containing oligomers that have three or more isocyanate groups.
A machine for making capsules of the type comprising a container and a dose of product inserted in the container, said machine comprising a feed system for feeding at least a first container along a feed path in a direction of feed, said feed system comprising at least a first seat for said first container, said machine comprising at least one filling station (9, 10, 11, 12) positioned along the feed path and comprising at least one filling unit for supplying a dose of said product into said first container, said machine comprising at least one detecting station (14, 15, 16, 17) positioned along said feed path downstream of said filling station (9, 10, 11, 12) according to said direction of feed and comprising a detecting sensor operating at said first seat, said detecting sensor being designed to detect a first significant parameter of said product supplied into said first container, the system comprising an endless belt, trained around at least one pulley, having an axis of rotation; the belt having an inside face directed towards the axis of rotation and an outside face directed towards the side opposite the axis; said feed system comprising a plurality of brackets each comprising at least said first seat for said first container, each bracket comprising a first arm connected to the face of the belt and extending in parallel with the axis; each bracket comprising a second arm extending from the first arm having a plurality of seats each designed to receive and support a respective container; said machine being characterized in that said detecting sensor is a microwave sensor and said first parameter is the moisture or the density of the dose of product supplied into said first container; said detecting sensor comprises a cylindrical resonator positioned above said first seat in said detecting station (14, 15, 16, 17) and comprising a cavity opposite said first seat, said detecting station (14, 15, 16, 17) comprising a lifting device, located on the opposite side of the resonator relative to the arm, operating at said first seat, positioned below said bracket and movable between a lowered position and a raised position, said lifting device being designed to at transfer said first container from said first seat into said cavity and vice versa.
A support material for use with a digital manufacturing system, the support material comprising: a first copolymer comprising: a plurality of carboxyl monomer units, each comprising a carboxyl group; a plurality of phenyl monomer units, each comprising a phenyl group; and a plurality of ester monomer units, each comprising a carboxylate ester group; and a second copolymer comprising a plurality of epoxy-terminated carboxylate ester groups; and wherein the support material is soluble in an aqueous solution, and is continuous filament strands. a first copolymer comprising: a plurality of carboxyl monomer units, each comprising a carboxyl group; a plurality of phenyl monomer units, each comprising a phenyl group; and a plurality of ester monomer units, each comprising a carboxylate ester group; and a plurality of carboxyl monomer units, each comprising a carboxyl group; a plurality of phenyl monomer units, each comprising a phenyl group; and a plurality of ester monomer units, each comprising a carboxylate ester group; and a second copolymer comprising a plurality of epoxy-terminated carboxylate ester groups; and wherein the support material is soluble in an aqueous solution, and is continuous filament strands.
A substituted macrocyclic compound, which is a macrocyclic compound represented by formula, or a crystal form, a pharmaceutically acceptable salt, a stereoisomer, a hydrate or a solvate thereof, wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12, R 13, R 14, R 15, R 16, and R 17 are each independently hydrogen, deuterium, or halogen; provided that at least one of R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12, R 13, R 14, R 15, R 16, and R 17 is deuterium. wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12, R 13, R 14, R 15, R 16, and R 17 are each independently hydrogen, deuterium, or halogen; provided that at least one of R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12, R 13, R 14, R 15, R 16, and R 17 is deuterium.
A method for controlling a power transfer rate in to and/or out of a vehicle energy storage device (114,115) to affect a current state of charge of the energy storage device (114,115) during a vehicle mission, the mission comprising a plurality of future power transfer opportunities, the method comprising: controlling the power transfer rate into the vehicle energy storage device (114,115) from a generator disposed on board the vehicle; and adjusting the power transfer rate based on an estimated duration of a future power transfer opportunity, wherein it is determined if there is any flexibility in the battery current level of the energy storage device in the operating charging or discharging phase, which means determining if, when applying the maximum charging current profile, which is the default charging current profile for the computed maximum SOC change in the current charging phase, whether the target ending SOC will be overshot or not, and - if there is flexibility in the battery current level of the energy storage device, then the current profile is adjusted to a sub-maximal current profile to avoid overshooting the target SOC, - if there is no flexibility in the battery current level of the energy storage device, then the unadjusted current profile, that is, the default maximum charging current profile, is used in the charging or discharging phase of the current mission phase, so as to optimise life and capacity of the energy storage device. controlling the power transfer rate into the vehicle energy storage device (114,115) from a generator disposed on board the vehicle; and adjusting the power transfer rate based on an estimated duration of a future power transfer opportunity, wherein it is determined if there is any flexibility in the battery current level of the energy storage device in the operating charging or discharging phase, which means determining if, when applying the maximum charging current profile, which is the default charging current profile for the computed maximum SOC change in the current charging phase, whether the target ending SOC will be overshot or not, and - if there is flexibility in the battery current level of the energy storage device, then the current profile is adjusted to a sub-maximal current profile to avoid overshooting the target SOC, - if there is no flexibility in the battery current level of the energy storage device, then the unadjusted current profile, that is, the default maximum charging current profile, is used in the charging or discharging phase of the current mission phase, so as to optimise life and capacity of the energy storage device. - if there is flexibility in the battery current level of the energy storage device, then the current profile is adjusted to a sub-maximal current profile to avoid overshooting the target SOC, - if there is no flexibility in the battery current level of the energy storage device, then the unadjusted current profile, that is, the default maximum charging current profile, is used in the charging or discharging phase of the current mission phase,
Brake assist device (1; 101) for a motor vehicle comprising a master cylinder, a control rod, a mobile unit (5; 105) and a valve body (20; 120) receiving a plunger (14; 114), in which - the unit is a hollow cylinder designed to be moved in translation by a gear motor, via a worm screw and a reducing gear, - the plunger is designed to be moved in translation by the rod linked to a brake pedal intended to be actuated by a driver, - at its end opposite the rod, the valve body comprises a feeler (21; 121) designed to press on a reaction disk of the master cylinder so as to increase a hydraulic pressure in the master cylinder, this increase controlling the braking, - a plunger position sensor comprises a detector fixed onto an immobile part of the vehicle and a target (24; 124) driven by the unit (5, 105), - a control unit designed to compute a position of the valve body (20, 120) and to control the feeler (21, 121) as a function of this position, characterized in that - the sensor is a Hall effect sensor designed to measure the speed and the amplitude of displacement of the plunger, - the control unit is also designed to - compute an angular indexing of a rotor of the gear motor and to use a predetermined gear ratio of the reducing gear to deduce therefrom the position of the valve body (20, 120), - compare the position of the plunger (14, 114) and the position of the valve body (20, 120), and - control the gear motor as a function of the comparison and of the speed of displacement. - the unit is a hollow cylinder designed to be moved in translation by a gear motor, via a worm screw and a reducing gear, - the plunger is designed to be moved in translation by the rod linked to a brake pedal intended to be actuated by a driver, - at its end opposite the rod, the valve body comprises a feeler (21; 121) designed to press on a reaction disk of the master cylinder so as to increase a hydraulic pressure in the master cylinder, this increase controlling the braking, - a plunger position sensor comprises a detector fixed onto an immobile part of the vehicle and a target (24; 124) driven by the unit (5, 105), - a control unit designed to compute a position of the valve body (20, 120) and to control the feeler (21, 121) as a function of this position, characterized in that - the sensor is a Hall effect sensor designed to measure the speed and the amplitude of displacement of the plunger, - the control unit is also designed to - compute an angular indexing of a rotor of the gear motor and to use a predetermined gear ratio of the reducing gear to deduce therefrom the position of the valve body (20, 120), - compare the position of the plunger (14, 114) and the position of the valve body (20, 120), and - control the gear motor as a function of the comparison and of the speed of displacement. - compute an angular indexing of a rotor of the gear motor and to use a predetermined gear ratio of the reducing gear to deduce therefrom the position of the valve body (20, 120), - compare the position of the plunger (14, 114) and the position of the valve body (20, 120), and - control the gear motor as a function of the comparison and of the speed of displacement.