mhurhangee/patent-ind-claim-en huggingface dataset:
Process for the functionalization of a rubber polymer, comprising reacting the rubber polymer with at least one source of nitrene or carbene, in the presence of a catalyst of formula Tp x Ag, wherein Tp x represents a tris(pyrazolyl)borate ligand.
A composition comprising at least one free perfume oil which is contained in the composition in an amount of from 10 to 95 wt.% based on the total weight, and at least one encapsulated perfume oil which is in the form of a capsule slurry, the capsule slurry being contained in the composition in an amount of from 2 to 90 wt.% based on the total weight, characterized in that the composition comprises at least one stabilizer selected from the group consisting of alk(en)ylsulfosuccinamates according to formula I, where R is C 8 to C 18 alkyl or C 8 to C 18 alkenyl and where M + is Na + , K + or NH 4 + ; the at least one stabilizer being contained in the composition in an amount of from 0.05 to 10 wt.% based on the total weight. where R is C 8 to C 18 alkyl or C 8 to C 18 alkenyl and where M + is Na + , K + or NH 4 + ; the at least one stabilizer being contained in the composition in an amount of from 0.05 to 10 wt.% based on the total weight.
A cartridge (200; 300) for a vaporizer device, the cartridge (200; 300) comprising: a reservoir housing (204; 304); at least one inner container (202; 302) disposed within the reservoir housing (204; 304), the at least one container (202; 302) configured to hold a vaporizable material; and a vaporization chamber (208; 308) in communication with the reservoir housing (204; 304) and including at least one wicking element (210; 310) configured to draw the vaporizable material from the at least one inner container (202; 302) to the vaporization chamber (208; 308) to be vaporized by a heating element, the wicking element (210; 310) is formed of one or more porous materials; wherein the at least one inner container (202; 302) is substantially sealed to the at least one wicking element (210; 310), and wherein the at least one inner container (202; 302) is configured to collapse as the vaporizable material is withdrawn therefrom, characterized by the cartridge (200; 300) further comprising: at least one vent extending through a wall of the reservoir housing (204; 304), the at least one vent allowing ambient air to pass therethrough and into the reservoir housing (204; 304) such that a pressure equilibrium is substantially maintained within the reservoir housing (204; 304) as the vaporizable material is being withdrawn from the at least one inner container (202; 302). a reservoir housing (204; 304); at least one inner container (202; 302) disposed within the reservoir housing (204; 304), the at least one container (202; 302) configured to hold a vaporizable material; and a vaporization chamber (208; 308) in communication with the reservoir housing (204; 304) and including at least one wicking element (210; 310) configured to draw the vaporizable material from the at least one inner container (202; 302) to the vaporization chamber (208; 308) to be vaporized by a heating element, the wicking element (210; 310) is formed of one or more porous materials; wherein the at least one inner container (202; 302) is substantially sealed to the at least one wicking element (210; 310), and wherein the at least one inner container (202; 302) is configured to collapse as the vaporizable material is withdrawn therefrom, characterized by the cartridge (200; 300) further comprising: at least one vent extending through a wall of the reservoir housing (204; 304), the at least one vent allowing ambient air to pass therethrough and into the reservoir housing (204; 304) such that a pressure equilibrium is substantially maintained within the reservoir housing (204; 304) as the vaporizable material is being withdrawn from the at least one inner container (202; 302).
A method of producing a rubber, comprising: a) (co)polymerizing: - at least one conjugated diene monomer, - optionally at least one vinylaromatic monomer, and - a vinyl-silicon compound, in the presence of a functionalizing lithium initiator, and b) modifying the obtained (co)polymer by a polyfunctional silicon-containing agent, wherein the functionalizing lithium initiator is obtained by reacting an organolithium compound, a secondary amine and a conjugated diene. a) (co)polymerizing: - at least one conjugated diene monomer, - optionally at least one vinylaromatic monomer, and - a vinyl-silicon compound, in the presence of a functionalizing lithium initiator, and - at least one conjugated diene monomer, - optionally at least one vinylaromatic monomer, and - a vinyl-silicon compound, in the presence of a functionalizing lithium initiator, and b) modifying the obtained (co)polymer by a polyfunctional silicon-containing agent,
A process cartridge comprising: (i) a first unit including a photosensitive drum and a positioning portion ; (ii) a second unit movable relative to said first unit , said second unit including, (ii-i) a rotatable developing roller for developing an electrostatic latent image formed on said photosensitive drum , (ii-ii) a rotatable member having an axis in a position deviated from an axis of said developing roller , (ii-iii) a coupling member provided on said rotatable member , and (ii-iv) a driving force receiving portion , provided on said coupling member and movable relative to said rotatable member in a direction crossing the axis of said driving force receiving portion , for receiving a driving force to be transmitted to said developing roller , and (ii-v) a supporting portion for rotatably supporting said driving force receiving portion so as to be movable together with said driving force receiving portion relative to said rotatable member in the direction crossing the axis of said driving force receiving portion ; wherein said first unit includes a positioning portion ; the process cartridge further comprising (iii) an urging portion for urging said driving force receiving portion and said supporting portion toward said positioning portion , wherein said positioning portion is capable of positioning said driving force receiving portion through contacting said supporting portion , wherein a point of contact between said positioning portion and said supporting portion is outside an outer periphery of said photosensitive drum on a plane perpendicular to the axis of said photosensitive drum . (i) a first unit including a photosensitive drum and a positioning portion ; (ii) a second unit movable relative to said first unit , said second unit including, (ii-i) a rotatable developing roller for developing an electrostatic latent image formed on said photosensitive drum , (ii-ii) a rotatable member having an axis in a position deviated from an axis of said developing roller , (ii-iii) a coupling member provided on said rotatable member , and (ii-iv) a driving force receiving portion , provided on said coupling member and movable relative to said rotatable member in a direction crossing the axis of said driving force receiving portion , for receiving a driving force to be transmitted to said developing roller , and (ii-v) a supporting portion for rotatably supporting said driving force receiving portion so as to be movable together with said driving force receiving portion relative to said rotatable member in the direction crossing the axis of said driving force receiving portion ; wherein said first unit includes a positioning portion ; the process cartridge further comprising (iii) an urging portion for urging said driving force receiving portion and said supporting portion toward said positioning portion ,
Vehicle for delivering inflammable fluid, in particular liquefied fluid such as hydrogen, comprising a tractor unit and a tank mounted on a support towed by the tractor unit , the vehicle comprising a fluid circuit connected to the tank for filling and/or draining fluid, the fluid circuit comprising a set of pneumatic valves , the vehicle further comprising an electrical circuit comprising at least one electrical component of the support towed by the tractor unit , the vehicle comprising an electricity source detachably connected to the electrical circuit via at least one port for connecting to a connection interface , characterized in that the connection interface comprises a cover that can move between a first position blocking access to the connection port(s) to prevent the electrical connection between the electricity source and the electrical circuit , and a second position not blocking access to the connection port(s) to enable the electrical connection between the electricity source and the electrical circuit , the vehicle further comprising a switch connected to the fluid circuit and switchable between a first state enabling the operation of the set of pneumatic valves of the fluid circuit to allow filling or draining, and a second state preventing the operation of the set of pneumatic valves of the fluid circuit to prevent filling or draining, and in that , in its first position, the movable cover switches the switch or allows it to be switched to its first state, and in that when the movable cover is in its second position, the switch is automatically switched to its second state.
Breath sensing device for a portable electronic device, in particular a portable telecommunication device or a wearable device, the breath sensing device comprising: - an acoustic wave sensing means , in particular a microphone , and - a gas sensing means sensitive to at least one type of molecule, and - a first and second breath sensing means respectively configured to measure a gas flow, wherein the acoustic wave sensing means , the gas sensing means and the first breath sensing means are arranged such that they are accessible to a breath of a user, whereas the second breath sensing means is arranged away from the first breath sensing means so that the second breath sensing means is isolated from a breath of a user, the breath sensing device further comprising a signal analyzing means : for determining the difference between signals received from the first and second breath sensing means and for integrating the difference of the signals received from the first and the second breath sensing means over a predetermined time frame to determine a signal proportional to the gas volume of the breath. - an acoustic wave sensing means , in particular a microphone , and - a gas sensing means sensitive to at least one type of molecule, and - a first and second breath sensing means respectively configured to measure a gas flow, wherein the acoustic wave sensing means , the gas sensing means and the first breath sensing means are arranged such that they are accessible to a breath of a user, whereas the second breath sensing means is arranged away from the first breath sensing means so that the second breath sensing means is isolated from a breath of a user, the breath sensing device further comprising a signal analyzing means : for determining the difference between signals received from the first and second breath sensing means and for integrating the difference of the signals received from the first and the second breath sensing means over a predetermined time frame to determine a signal proportional to the gas volume of the breath. for determining the difference between signals received from the first and second breath sensing means and for integrating the difference of the signals received from the first and the second breath sensing means over a predetermined time frame to determine a signal proportional to the gas volume of the breath.
A battery powered tool extending in a longitudinal direction (Z), comprising a tool body and a battery pack , which battery pack is arranged on the tool body and adapted to power the tool, characterized in that the tool body is provided with a through aperture adapted to receive the battery pack , such that when the battery pack is mounted in the through aperture, the tool body surrounds the battery pack such that the battery pack is surrounded by a surrounding part of the tool body .
A method of diluting a sample in a liquid chromatography system, the method comprising: loading a sample into a first fluid channel ; separating a flow of a mobile phase of a liquid chromatography system at an injection valve into a first flow in the first fluid channel and a second flow in a second fluid channel , the first flow and the second flow having a first flow rate and a second flow rate, respectively, wherein the flow of the mobile phase in the first fluid channel displaces the sample in the first fluid channel ; and combining the sample exiting the first fluid channel and the flow of mobile phase exiting the second fluid channel at a location of injection into the system flow to thereby generate a diluted sample in the system flow, wherein a dilution ratio of the diluted sample is responsive to the first flow rate and the second flow rate. loading a sample into a first fluid channel ; separating a flow of a mobile phase of a liquid chromatography system at an injection valve into a first flow in the first fluid channel and a second flow in a second fluid channel , the first flow and the second flow having a first flow rate and a second flow rate, respectively, wherein the flow of the mobile phase in the first fluid channel displaces the sample in the first fluid channel ; and combining the sample exiting the first fluid channel and the flow of mobile phase exiting the second fluid channel at a location of injection into the system flow to thereby generate a diluted sample in the system flow, wherein a dilution ratio of the diluted sample is responsive to the first flow rate and the second flow rate.
A drive device having an electric motor, wherein the electric motor has a stator iron core with stator windings, which core is received in a stator frame , wherein the stator frame has openings passing through axially, therefore in the rotor shaft axial direction, wherein the stator frame is surrounded by a housing , in particular a tubular housing and/or a pot-shaped housing , of the drive device, in particular radially surrounded, wherein the housing is spaced apart from the stator frame , so that an airflow, in particular a circulating airflow, is formable within the housing , wherein the openings guide the airflow through in an axial direction and the airflow is guided back in the opposite direction in the spaced-apart region between stator frame part and housing , characterised in that the drive device has a gear unit driven by the electric motor, wherein a worse heat conductor is used for the housing than for the stator frame .
Z r A refrigerator comprising: an ice maker configured to generate ice; an ice bucket comprising an ice storage space configured to store the ice being generated from the ice maker, and an ice crushing space formed at a front of the ice storage space , the ice crushing space provided with a lower portion having a discharge hole ; an auger configured to deliver the ice stored in the ice storage space to the ice crushing space ; at least one rotary blade coupled to the auger so as to rotate together with the auger; at least one fixed blade configured to crush ice in cooperation with the at least one rotary blade; and an opening/closing member configured to rotate on a hinge shaft , and configured to close a portion of the discharge hole to discharge ice being crushed or open the discharge hole to discharge uncrushed ice, characterized in that the opening/closing member comprises a cover portion protruding from one end of the opening/closing member to prevent the uncrushed ice from being discharged through the discharge hole in a state that the opening/closing member closes the portion of the discharge hole, and wherein the cover portion is located at a region between the ice storage space and a fixed blade of the at least one fixed blade, disposed at a nearest position to the ice storage space .
A printing method for printing using an inkjet head , the printing method comprising: a screen preparing step (S102) of preparing a screen in mesh-like shape; an ink discharging step (S104) of drawing an image on the screen by discharging ink droplets from the inkjet head onto one side of the screen ; characterized by a viscosity increasing step (S106) of enhancing a viscosity of an ink on the screen ; an ink push-in step (S108) of pushing in the ink, whose viscosity is enhanced in the viscosity increasing step (S106), from the one side toward the other side of the screen , the ink push-in step (S108) including pushing in the ink while a medium that is subject to printing and the other side of the screen are in contact to attach the ink with enhanced viscosity to the medium ; and an ink fixing step (S110) of fixing the ink attached to the medium to the medium . a screen preparing step (S102) of preparing a screen in mesh-like shape; an ink discharging step (S104) of drawing an image on the screen by discharging ink droplets from the inkjet head onto one side of the screen ; characterized by a viscosity increasing step (S106) of enhancing a viscosity of an ink on the screen ; an ink push-in step (S108) of pushing in the ink, whose viscosity is enhanced in the viscosity increasing step (S106), from the one side toward the other side of the screen , the ink push-in step (S108) including pushing in the ink while a medium that is subject to printing and the other side of the screen are in contact to attach the ink with enhanced viscosity to the medium ; and an ink fixing step (S110) of fixing the ink attached to the medium to the medium .
Method for feeding material into a rotary shaper device in a pneumatic pipe transport system for material, which method comprises the step of conducting the material along a feeder channel to the rotary shaper device , in which case the material (w) to be handled is conducted into the rotary shaper device and/or through it by the aid of at least partly the suction and/or a pressure difference of the pneumatic pipe transport system, characterized in that in the method the material (w) is impacted on in the feeder channel with several guide means , which guide means extend in the feeder channel a distance from a wall of the feeder channel, and which guide means are arranged distributed on the rim of the feeder channel and configured to reduce the undesirable rotation of the material (w) in the feeder channel.
A breath powered dry powder inhaler configured to deliver particles to the pulmonary circulation of a subject, comprising: a mouthpiece air conduit having an inlet , an outlet ; and a container configured to have a relatively cup-like shape with two relatively flat and parallel sides, a relatively rounded bottom and an interior surface defining an internal volume for containing the particles, the container having an air inlet and being reconfigurable within the inhaler between a powder containment position in which communication to the internal volume is restricted and a powder dosing configuration in which one or more dispensing ports communicate the internal volume with the mouthpiece air conduit, the inlet and the dispensing port or ports forming an air passage through the internal volume to the mouthpiece air conduit to allow an air flow to enter the internal volume and exit from the internal volume to the flow passage; the container being configured so that air entering the air inlet is directed across the dispensing port or ports within the internal volume to meter the medicament leaving the inhaler so that the rate of discharge of powder is controlled, and wherein airflow in the container can tumble substantially perpendicular to the dispensing port or ports flow direction and mix and fluidize particles when present in the internal volume prior to exiting through the dispensing port or ports. a mouthpiece air conduit having an inlet , an outlet ; and a container configured to have a relatively cup-like shape with two relatively flat and parallel sides, a relatively rounded bottom and an interior surface defining an internal volume for containing the particles, the container having an air inlet and being reconfigurable within the inhaler between a powder containment position in which communication to the internal volume is restricted and a powder dosing configuration in which one or more dispensing ports communicate the internal volume with the mouthpiece air conduit, the inlet and the dispensing port or ports forming an air passage through the internal volume to the mouthpiece air conduit to allow an air flow to enter the internal volume and exit from the internal volume to the flow passage; the container being configured so that air entering the air inlet is directed across the dispensing port or ports within the internal volume to meter the medicament leaving the inhaler so that the rate of discharge of powder is controlled, and wherein airflow in the container can tumble substantially perpendicular to the dispensing port or ports flow direction and mix and fluidize particles when present in the internal volume prior to exiting through the dispensing port or ports.
A molding tool for injection molding of a mat seal for an electric connector, comprising: a first mold with a first cavity , a second mold with a second cavity , and a mold cavity formed by said first cavity and said second cavity for forming the mat seal , at least one insert with a plurality of receiving chambers , each receiving chamber receives a core reaching into the mold cavity for forming a first passageway through the mat seal , characterized in that said at least one insert projects into the mold cavity for forming a cavity in a face of the mat seal . a first mold with a first cavity , a second mold with a second cavity , and a mold cavity formed by said first cavity and said second cavity for forming the mat seal , at least one insert with a plurality of receiving chambers , each receiving chamber receives a core reaching into the mold cavity for forming a first passageway through the mat seal , characterized in that said at least one insert projects into the mold cavity for forming a cavity in a face of the mat seal .