mhurhangee/ep-ind-claims huggingface dataset:
A power supply unit for an aerosol inhaler, the power supply unit comprising: a power supply that is able to discharge power to a load for generating an aerosol from an aerosol generation source; and a control unit that is configured to determine whether the power supply which is being charged has reached a predetermined charge state lower than a fully charged state, and complete charging of the power supply in a case of determining that the power supply has reached the predetermined charge state, wherein the control unit includes a first control unit and a second control unit which individually determine whether the power supply has reached the predetermined charge state based on a plurality of conditions for determining that the power supply has reached the predetermined charge state, and complete the charging of the power supply, the first control unit is a circuit for performing control on the charging of the power supply, and the second control unit is a circuit for performing control on discharge of power of the power supply to the load. a power supply that is able to discharge power to a load for generating an aerosol from an aerosol generation source; and a control unit that is configured to determine whether the power supply which is being charged has reached a predetermined charge state lower than a fully charged state, and complete charging of the power supply in a case of determining that the power supply has reached the predetermined charge state, wherein the control unit includes a first control unit and a second control unit which individually determine whether the power supply has reached the predetermined charge state based on a plurality of conditions for determining that the power supply has reached the predetermined charge state, and complete the charging of the power supply, the first control unit is a circuit for performing control on the charging of the power supply, and the second control unit is a circuit for performing control on discharge of power of the power supply to the load.
Use of a lubricating grease composition for reducing oil bleeding or increasing shear stability in a mass flywheel wherein the lubricating grease composition comprises: (i) at least 30 wt.% of a base oil, based on the total weight of the lubricating composition, the base oil having a density in the range of from 800 to 1000 Kg/m 3; and (ii) from 2 to 20% by weight of a diurea compound, based on the total weight of the lubricating composition, the urea compound having a density in the range of from 850 to 1050 Kg/m 3; wherein the difference in the densities of the base oil (i) and the diurea compound (ii) is less than 50 Kg/m 3, and wherein the diurea compound is obtained by reacting a diisocyanate and a mixture of monoamines, the mixture of monoamines comprising a C 6 -C 10 aliphatic amine and a C 14 -C 20 aliphatic amine. (i) at least 30 wt.% of a base oil, based on the total weight of the lubricating composition, the base oil having a density in the range of from 800 to 1000 Kg/m 3; and (ii) from 2 to 20% by weight of a diurea compound, based on the total weight of the lubricating composition, the urea compound having a density in the range of from 850 to 1050 Kg/m 3;
A light-emitting device comprising: - a light-emitting diode comprising - an active layer; - an insulation layer formed on the active layer and having a side surface; - a pad (108, 109) electrically connected to the active layer; - a metal bump (111, 112) formed on the pad (108, 109); and characterized in that: - a wavelength conversion layer is covering the side surface and having a sidewall; and - a reflective insulation layer is covering the side wall. - a light-emitting diode comprising - an active layer; - an insulation layer formed on the active layer and having a side surface; - a pad (108, 109) electrically connected to the active layer; - a metal bump (111, 112) formed on the pad (108, 109); - a wavelength conversion layer is covering the side surface and having a sidewall; and - a reflective insulation layer is covering the side wall.
A mesh fixation device comprising: a plurality of elongate members, each elongate member comprising: a plurality of longitudinally extending support members (22, 24), each support member connected to an adjacent support member by a plurality of connecting members, the elongate member defining at least one opening extending therethrough between adjacent support members and adjacent connecting members; a plurality of legs extending from each support member, the plurality of legs adapted for insertion through a mesh and into a body tissue to secure the mesh to the body tissue, wherein each elongate member is removably attached to an adjacent elongate member through an attachment joint. a plurality of longitudinally extending support members (22, 24), each support member connected to an adjacent support member by a plurality of connecting members, the elongate member defining at least one opening extending therethrough between adjacent support members and adjacent connecting members; a plurality of legs extending from each support member, the plurality of legs adapted for insertion through a mesh and into a body tissue to secure the mesh to the body tissue, wherein each elongate member is removably attached to an adjacent elongate member through an attachment joint.
A method of at least partially deghosting recorded seismic s-waves, wherein recorded seismic data is provided, wherein said recorded seismic data has been recorded at a receiver located beneath the Earth's surface, and wherein said recorded seismic data comprises s-wave data, the method comprising: finding a model of the Earth's crust for use in deghosting the recorded seismic data using the s-wave data, wherein the model comprises at least one region (11, 12, 16), and wherein the model comprises the Earth's surface and the location of the receiver; wherein the model is at least partially defined by parameters comprising the s-wave reflection coefficient of the Earth's surface, the s-wave reflection coefficient at any boundary/ies between adjacent regions (11, 12), the s-wave velocity, the attenuation factor and/or density of the at least one region, characterised in that the method further comprises: calculating modelled s-wave data from the model; optimising the model by comparing notches in the frequency spectrum of the s-wave data and the modelled s-wave data; calculating an impulse response using the optimised model; inverting the impulse response to compute a deghosting operator that, when applied to the s-wave data, at least partially deghosts the s-wave data; and applying the deghosting operator to the s-wave data to at least partially deghost the s-wave data. finding a model of the Earth's crust for use in deghosting the recorded seismic data using the s-wave data, wherein the model comprises at least one region (11, 12, 16), and wherein the model comprises the Earth's surface and the location of the receiver; wherein the model is at least partially defined by parameters comprising the s-wave reflection coefficient of the Earth's surface, the s-wave reflection coefficient at any boundary/ies between adjacent regions (11, 12), the s-wave velocity, the attenuation factor and/or density of the at least one region, characterised in that the method further comprises: calculating modelled s-wave data from the model; optimising the model by comparing notches in the frequency spectrum of the s-wave data and the modelled s-wave data; calculating an impulse response using the optimised model; inverting the impulse response to compute a deghosting operator that, when applied to the s-wave data, at least partially deghosts the s-wave data; and applying the deghosting operator to the s-wave data to at least partially deghost the s-wave data. calculating modelled s-wave data from the model; optimising the model by comparing notches in the frequency spectrum of the s-wave data and the modelled s-wave data; calculating an impulse response using the optimised model; inverting the impulse response to compute a deghosting operator that, when applied to the s-wave data, at least partially deghosts the s-wave data; and applying the deghosting operator to the s-wave data to at least partially deghost the s-wave data.
A heavy load carrier out of plastic with a pallet shaped bottom part and with circumferentially arranged side walls which limit a transport volume between them for receiving goods, in particular of bulk goods, with the bottom part having a discharge opening and with a hopper-like element being arranged above the bottom part inside the load carrier, the outlet opening of the element being aligned with the discharge opening of the bottom part and with a locking device being provided for opening and closing at least one of the openings (10, 16), characterized in that the bottom part is raised at the edges and/or provides one or more collars stacked thereon, that the side walls are foldable or stackable with the bottom part which is raised at the edges or connected in a foldable or stackable manner with the stacked collar, and that the hopper-like element is an insertion element which is insertable into the inside of the heavy load carrier, with the hopper-like element having a height which is lower than the bottom element that is raised at the edges and/or the bottom part and the collars stacked thereon.
A water-dispersed pressure-sensitive adhesive composition for surface protection sheets, with the composition comprising an acrylic polymer and a crosslinking agent, wherein the acrylic polymer is obtained by emulsion polymerization of a starting monomer mixture that satisfies the following: comprising as a monomer A1 an alkyl acrylate with 6 to 9 alkyl carbons in an amount of 40 % by weight or more of the total monomer content; comprising as a monomer A2 an alkyl (meth)acrylate having a homopolymer glass transition temperature of -50°C or higher and being represented by the next general formula: CH 2 =C(R 1)COOR 2 wherein in the formula, R 1 is a hydrogen atom or a methyl group, and R 2 is an alkyl group with 4 to 20 carbon atoms, wherein the homopolymer glass transition temperature is determined according to methods identified in the description, and wherein the total amount of monomers A1 and A2 accounts for 50 to 99.9 % by weight of all monomers; and comprising as a monomer B a carboxy group-containing monomer, with the monomer B accounting for 0.1 to 5 % by weight of all monomers; with the emulsion polymerization being carried out in the presence of a surfactant S AP, which is an anionic surfactant having a group selected from a 1-propenyl or a 2-propenyl group. comprising as a monomer A1 an alkyl acrylate with 6 to 9 alkyl carbons in an amount of 40 % by weight or more of the total monomer content; comprising as a monomer A2 an alkyl (meth)acrylate having a homopolymer glass transition temperature of -50°C or higher and being represented by the next general formula: CH 2 =C(R 1)COOR 2 wherein in the formula, R 1 is a hydrogen atom or a methyl group, and R 2 is an alkyl group with 4 to 20 carbon atoms, wherein the homopolymer glass transition temperature is determined according to methods identified in the description, and wherein the total amount of monomers A1 and A2 accounts for 50 to 99.9 % by weight of all monomers; and comprising as a monomer B a carboxy group-containing monomer, with the monomer B accounting for 0.1 to 5 % by weight of all monomers; with the emulsion polymerization being carried out in the presence of a surfactant S AP, which is an anionic surfactant having a group selected from a 1-propenyl or a 2-propenyl group.
A system for monitoring a pilot of an aircraft, in order to detect an incapacitation of the pilot, the aircraft being equipped with at least one piloting device which can be manually actuated by the pilot, characterized in that the system includes: - the piloting device, - at least one pressure sensor (62, 65) so as to generate an elementary indicator when a pressure exerted by the pilot on the piloting device is adapted to the use of this piloting device, the pressure sensor integrating: a capacitive pressure sensor (11, 12) mounted on a surface of the piloting device, and, a modeling module (51 to 59), the modeling module being adapted to compute the elementary indicator, from the signal delivered by the capacitive pressure sensor, by implementing a contact model that depends on the nature of the piloting device, - a computing unit programmed for processing the elementary indicator delivered by the pressure sensor and for determining a current state of the pilot and, when said current state corresponds to an incapacitation of the pilot, for issuing an alarm (ALARM). - the piloting device, - at least one pressure sensor (62, 65) so as to generate an elementary indicator when a pressure exerted by the pilot on the piloting device is adapted to the use of this piloting device, the pressure sensor integrating: a capacitive pressure sensor (11, 12) mounted on a surface of the piloting device, and, a modeling module (51 to 59), the modeling module being adapted to compute the elementary indicator, from the signal delivered by the capacitive pressure sensor, by implementing a contact model that depends on the nature of the piloting device, a capacitive pressure sensor (11, 12) mounted on a surface of the piloting device, and, a modeling module (51 to 59), the modeling module being adapted to compute the elementary indicator, from the signal delivered by the capacitive pressure sensor, by implementing a contact model that depends on the nature of the piloting device, - a computing unit programmed for processing the elementary indicator delivered by the pressure sensor and for determining a current state of the pilot and, when said current state corresponds to an incapacitation of the pilot, for issuing an alarm (ALARM).
A chemically pure polymorph of Nor-UDCA, wherein the total amount of chemical impurities is less than 0.5%, based on the total weight of the Nor-UDCA, and at least 60% of the polymorph particles have a size < 10 μm, and wherein said polymorph is characterized by XRPD peaks at 11.9, 14.4, 15.3, 15.8, and 16.6 ± 0.2 degrees of 2-theta, and wherein no amorphous Nor-UDCA in said polymorph is detectable by XRPD.
A computer-readable medium having embodied thereon instructions comprised by a virtual user interface framework for using a virtual user interface for a virtual composite device to present a communication wherein the virtual composite device represents capabilities available through multiple user devices associated with the virtual composite device, each of the multiple user devices is associated with presentation capabilities and with a network by which the user device communicates, the virtual user interface associated with a user includes preferences for using one of the multiple user devices to present the type of communication that was received, and the instructions, when executed, cause a processor to: receive a communication associated with a user by the virtual user interface framework, based on a message type of the communication that is received and the preferences included in the virtual user interface directed to the user, determining one of the multiple user devices that is capable of receiving the communication on which to present the communication, and transmitting the communication from the virtual user interface framework to the determined one of the multiple user devices over the network associated with the one of the multiple user devices receive a communication associated with a user by the virtual user interface framework, based on a message type of the communication that is received and the preferences included in the virtual user interface directed to the user, determining one of the multiple user devices that is capable of receiving the communication on which to present the communication, and transmitting the communication from the virtual user interface framework to the determined one of the multiple user devices over the network associated with the one of the multiple user devices
A system for observing a contest comprising: - a plurality of sport participants, each having a GPS receiver for determining a participant position and a radio for transmitting said position and - a base station for receiving said participant positions and having a radio for transmitting said participant positions, - a plurality of portable devices (20, 120, 220) accompanying respective spectators each portable including a radio for receiving participant positions and a graphics display (22, 122, 244), characterised in that each portable device (20, 120,220) includes a GPS-receiver for determining spectator's positions, and in that the graphics display (22, 122, 244) displays to the spectator different views of the contest, wherein at least one of the views on the display (22, 122, 244) is the view from the spectator's position to a first participant position. - a plurality of sport participants, each having a GPS receiver for determining a participant position and a radio for transmitting said position and - a base station for receiving said participant positions and having a radio for transmitting said participant positions, - a plurality of portable devices (20, 120, 220) accompanying respective spectators each portable including a radio for receiving participant positions and a graphics display (22, 122, 244),
Apparatus for producing a three-dimensional object by spray deposition, having: a spray nozzle; a first line arranged to channel a first flow of spray material entrained in a carrier gas to the spray nozzle; and a second line arranged to channel a second flow of gas to the spray nozzle; and wherein the first and second flows merge to cause the spray material to be propelled from the spray nozzle to a substrate to create the three-dimensional object; and wherein the apparatus comprises pressure and temperature sensors for gas in the first line, the sensors configured to communicate readings to an electronic controller configured to, in response to the readings, cause adjustments to the pressure and temperature of the gas in the first line such that pressure and temperature parameters of only the first flow are controlled in real time to provide the spray material with desired spray characteristics as it leaves the spray nozzle. a spray nozzle; a first line arranged to channel a first flow of spray material entrained in a carrier gas to the spray nozzle; and a second line arranged to channel a second flow of gas to the spray nozzle; and
A method for mounting a heat exchanger consisting primarily of a serpentine including a plurality of turns, arranged inside a tube, the method including the following steps: a) there are provided: the tube, the serpentine; a comb including a bar and a plurality of parallel teeth, perpendicular to the bar; characterized in that there are further provided a pin and two supports (40A, 40B), capable of being positioned at the ends of the comb and to hold the comb so as to allow a rotation thereof around an axis of the bar; b) a first of said two supports is positioned and attached to an inner wall of the tube; c) the comb is positioned in the tube by holding the comb in such a manner that it is folded against said wall; d) the serpentine is put in place; e) after steps b) and c), the comb is pivoted so that its teeth are radially oriented in the tube and axially block the turns of the serpentine; g) the second of said supports is positioned and is attached to the inner wall of the tube; h) the pin is attached to the comb and/or to the supports so as to constitute a blocking device preventing all the turns or a portion of the turns passing between said teeth to move away from the bar. a) there are provided: the tube, the serpentine; a comb including a bar and a plurality of parallel teeth, perpendicular to the bar; characterized in that there are further provided a pin and two supports (40A, 40B), capable of being positioned at the ends of the comb and to hold the comb so as to allow a rotation thereof around an axis of the bar; the tube, the serpentine; a comb including a bar and a plurality of parallel teeth, perpendicular to the bar; characterized in that there are further provided a pin and two supports (40A, 40B), capable of being positioned at the ends of the comb and to hold the comb so as to allow a rotation thereof around an axis of the bar; b) a first of said two supports is positioned and attached to an inner wall of the tube; c) the comb is positioned in the tube by holding the comb in such a manner that it is folded against said wall; d) the serpentine is put in place; e) after steps b) and c), the comb is pivoted so that its teeth are radially oriented in the tube and axially block the turns of the serpentine; g) the second of said supports is positioned and is attached to the inner wall of the tube; h) the pin is attached to the comb and/or to the supports so as to constitute a blocking device preventing all the turns or a portion of the turns passing between said teeth to move away from the bar.
A certificate management system, comprising a plurality of certificate center servers, a plurality of blockchain nodes and a plurality of terminals, wherein a plurality of service institutions deploy their own certificate center servers respectively, each certificate center server is configured to manage a certificate of a terminal served by the service institution corresponding to the certificate center server, the service institution corresponding to the certificate center server is a service institution deploying the certificate center server, the plurality of blockchain nodes are configured with a same blockchain, and the blockchain is used for storing fingerprint information of a certificate of a terminal served by each service institution; each certificate center server is configured to register or update the certificate for the terminal served by the service institution corresponding to the certificate center server, obtain fingerprint information of the certificate based on at least one piece of signature information of the certificate, and send the fingerprint information to any blockchain node, wherein the fingerprint information is used for verifying whether the certificate is tampered with; the blockchain node is configured to store the fingerprint information to the blockchain when receiving the fingerprint information; wherein the certificate management system further comprises a general certificate center server, configured to manage the certificates of each certificate center server and each blockchain node, determine whether to authorize a network device to become a certificate center server. each certificate center server is configured to register or update the certificate for the terminal served by the service institution corresponding to the certificate center server, obtain fingerprint information of the certificate based on at least one piece of signature information of the certificate, and send the fingerprint information to any blockchain node, wherein the fingerprint information is used for verifying whether the certificate is tampered with; the blockchain node is configured to store the fingerprint information to the blockchain when receiving the fingerprint information; wherein the certificate management system further comprises a general certificate center server, configured to manage the certificates of each certificate center server and each blockchain node, determine whether to authorize a network device to become a certificate center server.