mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a liquid developer, wherein the developer comprises toner particles comprising a resin and a pigment, wherein the toner particles are dispersed in an insulating liquid, wherein the resin comprises a resin H having a softening point - as measured according to the descripton - of 100°C or higher and a resin L having a softening point - as measured according to the description - of 93°C or lower, wherein the resin H is a composite resin HC of a polyester resin and a styrenic resin, and the resin L is a composite resin LC of a polyester resin and a styrenic resin, wherein the composite resin HC and the composite resin LC are each a resin in which a polyester resin and a styrenic resin are chemically bonded via a dually reactive monomer, the method comprising: step 1: melt-kneading a resin comprising a resin H and a resin L and a pigment, and pulverizing a kneaded product obtained, to provide toner particles; step 2: adding a dispersant to the toner particles obtained in the step 1, and dispersing the toner particles in an insulating liquid to provide a dispersion of toner particles; and step 3: subjecting the dispersion of toner particles obtained in the step 2 to wet-milling, to provide a liquid developer. step 1: melt-kneading a resin comprising a resin H and a resin L and a pigment, and pulverizing a kneaded product obtained, to provide toner particles; step 2: adding a dispersant to the toner particles obtained in the step 1, and dispersing the toner particles in an insulating liquid to provide a dispersion of toner particles; and step 3: subjecting the dispersion of toner particles obtained in the step 2 to wet-milling, to provide a liquid developer.
A washing machine, comprising: an inner drum being a closed container during washing after an opening is fastened by a lid; the inner drum is provided with at least a hole, and a centrifugal valve; wherein the inner drum is provided with a water guide channel where water drained from the hole can be led to a water collection disk; the water guide channel extends at least partially in a direction deviating from an axis of rotation of the inner drum and has an inclined part inclined relative to the axis of rotation of the inner drum; the water guide channel is provided with the centrifugal valve for controlling on and off of the water guide channel; the centrifugal valve is installed at the inclined part of the water guide channel; the centrifugal valve comprises a valve core being movably installed in the water guide channel, and blocking a cross-section of the water guide channel correspondingly in an initial position; and an elastic member being clamped between the valve core and the water guide channel to limit movement of the valve core and providing a force for the valve core to reset to the initial position; after the inner drum rotating at a set speed, the valve core of the centrifugal valve is driven by centrifugal force and moves along an inner wall of the inclined part of the water guide channel to open the water guide channel correspondingly. an inner drum being a closed container during washing after an opening is fastened by a lid; the inner drum is provided with at least a hole, and a centrifugal valve; wherein the inner drum is provided with a water guide channel where water drained from the hole can be led to a water collection disk; the water guide channel extends at least partially in a direction deviating from an axis of rotation of the inner drum and has an inclined part inclined relative to the axis of rotation of the inner drum; the water guide channel is provided with the centrifugal valve for controlling on and off of the water guide channel; the centrifugal valve is installed at the inclined part of the water guide channel; the centrifugal valve comprises a valve core being movably installed in the water guide channel, and blocking a cross-section of the water guide channel correspondingly in an initial position; and an elastic member being clamped between the valve core and the water guide channel to limit movement of the valve core and providing a force for the valve core to reset to the initial position; a valve core being movably installed in the water guide channel, and blocking a cross-section of the water guide channel correspondingly in an initial position; and an elastic member being clamped between the valve core and the water guide channel to limit movement of the valve core and providing a force for the valve core to reset to the initial position; after the inner drum rotating at a set speed, the valve core of the centrifugal valve is driven by centrifugal force and moves along an inner wall of the inclined part of the water guide channel to open the water guide channel correspondingly.
An optical fiber amplifier with high Brillouin threshold comprising: - an amplifying optical fiber comprising a core and a cladding, wherein said amplifying optical fiber is suitable for the amplification of a signal beam propagating in said core; - means for coupling a signal beam in an input end of said amplifying optical fiber, - means for coupling a laser pump beam for the pumping of said amplifying optical fiber, - a structure (330, 340) comprising a deformable part around which at least one part of said amplifying optical fiber is wound in the form of coils, said coils being in contact with a surface of said deformable part, the rubbing of said optical fiber on said surface causing during the deformation of said deformable part an elongation of said amplifying optical fiber according to an elongation profile varying from one coil to the next. - an amplifying optical fiber comprising a core and a cladding, wherein said amplifying optical fiber is suitable for the amplification of a signal beam propagating in said core; - means for coupling a signal beam in an input end of said amplifying optical fiber, - means for coupling a laser pump beam for the pumping of said amplifying optical fiber, - a structure (330, 340) comprising a deformable part around which at least one part of said amplifying optical fiber is wound in the form of coils, said coils being in contact with a surface of said deformable part, the rubbing of said optical fiber on said surface causing during the deformation of said deformable part an elongation of said amplifying optical fiber according to an elongation profile varying from one coil to the next.
A positive electrode material comprising: a Li-ion positive electrode material having a nominal stoichiometry of: Li 1+y/2 Co 1-x-y-z-d Si z Fe x M y M' d (PO 4) 1+y/2 where M is a trivalent cation selected from at least one of Cr, Ti, Al, Mn, Ni, V, Sc, La and/or Ga, M' is a divalent cation selected from at least one of Mn, Ni, Zn, Sr, Cu, Ca and/or Mg, y is within a range of 0 < y ≤ 0.10, x is within a range of 0 ≤ x ≤ 0.20, z is within a range of 0 < z ≤ 0.10 and d is within a range of 0 ≤ d ≤ 0.20.
A curtain wire fastening system onto a window frame comprising at both ends of the curtain wire an elongated mounting bracket fixed respectively onto the right and left vertical frame part of the window frame, wherein one end of the mounting bracket is intended to be fastened behind the corresponding outer lateral edge of the window frame and at the other end of the mounting bracket a fixing element is formed for fastening the end of the curtain wire, characterized by that, a cover element comprising a cavity is placed around the end of the mounting bracket comprising the fixing element so that inside said cavity the end of said elongated mounting bracket is located, comprising the fixing element for fastening said end of the curtain wire and said end of the curtain wire attached to said fixing element.
A piercing method using hydroforming comprising inserting a metal pipe into a split mold (2, 3) having a primary pierce punch able to be moved perpendicular to an axis of said inserted metal pipe or in a slanted direction, having a front part narrower than a center part, and having around said front part a nut having an inside diameter larger than an outside diameter of said front part and smaller than an outside diameter of said center part of the primary pierce punch; wherein a secondary punch is provided around the front part of said primary pierce punch and at an intermediate part between said nut and the center part of said primary pierce punch, and the split mold (2, 3) is provided with a hole structured to change in inside diameter in three stages being a front part, center part, and rear part becoming narrower in inside diameter the further downward and the inside diameter of the center part of the hole of the split mold (2, 3) and the outside diameter of the center part of the primary pierce punch become substantially equal and the secondary pierce punch has an outside diameter substantially equal to the inside diameter of the front part and the height of the secondary pierce punch together with the height of the nut is made the same as the depth of the front part of the hole of the split mold (2, 3) and the center part of the hole of the split mold (2, 3) has a depth larger than a height of the center part of the primary pierce punch, and the inside diameter of the rear part is larger than the outside diameter of a rear end of the primary pierce punch; applying to said metal pipe an internal pressure and pipe axial direction pushing force or an internal pressure for hydroforming; making said primary pierce punch advance to pierce part of said metal pipe by a front part of said primary pierce punch; then making said nut advance while pushing said center part of the primary pierce punch arranged behind said nut; pushing the surroundings of the pierced hole by said nut to the inner surface side of said metal pipe and embedding said nut in the metal pipe.
A method comprising: at a network function, NF, repository function, NRF, for use in a mobile network, performing a service discovery function which includes receiving a discovery request from a network function, NF, discovering one or more NF instances (310, 312) based on at least one of a service, application, or subscription requirement obtained according to the discovery request, and responding to the discovery request with the one or more discovered NF instances; and performing a function for obtaining segment route, SR, path information from a SR path computation entity, SR-PCE, which includes receiving SR path information (1008, 1010, 1012) associated with each SR path (1022, 1024, 1026) of a plurality of SR paths between respective pairs of NF instances (1004, 1006) which are candidate pairs for session communication, and storing the SR path information for each SR path in association with at least one of the NF instances of the respective candidate pair, wherein discovering the one or more NF instances is based on identifying that an NF instance is associated with SR path information of an SR path that accords to the at least one service, application, or subscription requirement obtained according to the discovery request. performing a service discovery function which includes receiving a discovery request from a network function, NF, discovering one or more NF instances (310, 312) based on at least one of a service, application, or subscription requirement obtained according to the discovery request, and responding to the discovery request with the one or more discovered NF instances; and performing a function for obtaining segment route, SR, path information from a SR path computation entity, SR-PCE, which includes receiving SR path information (1008, 1010, 1012) associated with each SR path (1022, 1024, 1026) of a plurality of SR paths between respective pairs of NF instances (1004, 1006) which are candidate pairs for session communication, and storing the SR path information for each SR path in association with at least one of the NF instances of the respective candidate pair, wherein discovering the one or more NF instances is based on identifying that an NF instance is associated with SR path information of an SR path that accords to the at least one service, application, or subscription requirement obtained according to the discovery request.
A measuring system for monitoring a plurality of containers, in particular ship containers, comprising a frame, at least one cable head computer, at least one tensioned retaining element, as well as a plurality of temperature sensors arranged in a sensor cable, wherein at least one temperature sensor of the sensor cable is assignable to each of the containers, the sensor cable is connected to the at least one cable head computer, and the at least one cable head computer is designed to receive measurements from the temperature sensors and to evaluate said measurements, wherein the sensor cable is fastened to the at least one tensioned retaining element, in particular a rope, wherein the at least one retaining element is fastened to the frame in at least one point.
A method of a network element functioning as a controller (110, 120) for a split architecture network, the method for assigning flow monitoring tasks to a set of switches (130A, 130B, 130C; 140A, 140B, 140C, 140D) in the network to optimize network-wide flow monitoring by maximizing the number of monitored flows and reducing overhead of the flow monitoring, each of the switches sampling to flows as directed by the controller, wherein each of the switches samples the flows by monitoring a subset of the flows and recording measurements of the subset of the flows and each of the flows traverses the network via a path defined by one of a set of (Origin, Destination) ("OD") pairs, wherein the Origin is an ingress one of the switches from which the flow enters the network and the Destination is an egress one of the switches from which the flow exits the network, the method comprising the steps of: receiving, by the controller, an input including an estimated traffic volume for each of the paths defined by each of the OD pairs; calculating, for all of the switches and all of the paths, sampling fractions that maximize the number of the flows sampled by the switches, wherein a sampling fraction for a given switch and a given path is defined as the number of flows that pass through the given switch and the given path and are sampled by the given switch divided by a total number of the flows that pass through the given path, the calculating being based on the estimated traffic volume and subject to a bandwidth constraint and a memory constraint of the switches; receiving a request to set up a new flow to traverse one of the paths in the network; and assigning the new flow for monitoring to one of the switches that are located on the one of the paths, based on the sampling fraction for the assigned switch and the one of the paths, the bandwidth constraint and the memory constraint. receiving, by the controller, an input including an estimated traffic volume for each of the paths defined by each of the OD pairs; calculating, for all of the switches and all of the paths, sampling fractions that maximize the number of the flows sampled by the switches, wherein a sampling fraction for a given switch and a given path is defined as the number of flows that pass through the given switch and the given path and are sampled by the given switch divided by a total number of the flows that pass through the given path, the calculating being based on the estimated traffic volume and subject to a bandwidth constraint and a memory constraint of the switches; receiving a request to set up a new flow to traverse one of the paths in the network; and assigning the new flow for monitoring to one of the switches that are located on the one of the paths, based on the sampling fraction for the assigned switch and the one of the paths, the bandwidth constraint and the memory constraint.
A method of providing a covering element (10',10") with a connection element (20',20") for covering a hinge part of a roof window comprising the steps of: a) engraving an interior surface of the covering element to provide an engraved surface (11', 11") with at least one cavity by subjecting the covering element to a laser beam at a polar angle, α1; and b) attaching the connection element to the covering element by introducing an anchor portion (25,25',25") of the connection element into the least one cavity. a) engraving an interior surface of the covering element to provide an engraved surface (11', 11") with at least one cavity by subjecting the covering element to a laser beam at a polar angle, α1; and b) attaching the connection element to the covering element by introducing an anchor portion (25,25',25") of the connection element into the least one cavity.
Apparatus (200, 250) for layer-wise additive manufacturing of a complex three-dimensional component, comprising: a bed with a material powder; a measurement device (202, 252) for continuously monitoring quality indicators during the manufacture of the component with at least one laser (204, 254) for the locally delimited melting of a topmost layer of the material powder in a melting zone and at least one optical sensor (206, 218, 256) for the primary capturing of the quality indicators in the region of the melting zone, wherein the optical sensor (206, 256) is integrated in a guidance system (214, 264) of the at least one laser (204, 254) for spatially positioning the laser (204, 254) in relation to the component, wherein the laser radiation emitted by the at least one laser is deflectable onto the material powder of the topmost layer of the bed using a semi-transparent mirror and measurement radiation scattered by the material powder is feedable to the at least one optical sensor after the deflection-free passage through the mirror; and a processing cell which is filled with an inert gas atmosphere and at least partially surrounds the measurement device (30, 202, 252) and the bed. a bed with a material powder; a measurement device (202, 252) for continuously monitoring quality indicators during the manufacture of the component with at least one laser (204, 254) for the locally delimited melting of a topmost layer of the material powder in a melting zone and at least one optical sensor (206, 218, 256) for the primary capturing of the quality indicators in the region of the melting zone, wherein the optical sensor (206, 256) is integrated in a guidance system (214, 264) of the at least one laser (204, 254) for spatially positioning the laser (204, 254) in relation to the component, wherein the laser radiation emitted by the at least one laser is deflectable onto the material powder of the topmost layer of the bed using a semi-transparent mirror and measurement radiation scattered by the material powder is feedable to the at least one optical sensor after the deflection-free passage through the mirror; and a processing cell which is filled with an inert gas atmosphere and at least partially surrounds the measurement device (30, 202, 252) and the bed.
A process for producing a hydrocarbon fraction which can be used as diesel fuel or as a component of diesel fuel, starting from a mixture of biological origin containing esters of fatty acids, and possibly containing free fatty acids, which comprises the following steps: 1) subjecting the mixture of biological origin to hydrodeoxygenation with hydrogen in the presence of a hydrodeoxygenation catalyst; 2) subjecting the mixture resulting from step to hydroisomerization, after possible purification treatment, said hydroisomerization being effected in the presence of hydrogen and of a catalytic system which comprises: a) a carrier of acid nature comprising a completely amorphous micro-mesoporous silico-alumina having a SiO 2 /Al 2 O 3 molar ratio ranging from 30 to 500, a surface area higher than 500 m 2 /g, a pore volume ranging from 0.3 to 1.3 ml/g, an average pore diameter lower than 40 Å, b) a metallic component containing one or more metals of group VIII, possibly mixed with one or more metals of group VIB. 1) subjecting the mixture of biological origin to hydrodeoxygenation with hydrogen in the presence of a hydrodeoxygenation catalyst; 2) subjecting the mixture resulting from step to hydroisomerization, after possible purification treatment, said hydroisomerization being effected in the presence of hydrogen and of a catalytic system which comprises: a) a carrier of acid nature comprising a completely amorphous micro-mesoporous silico-alumina having a SiO 2 /Al 2 O 3 molar ratio ranging from 30 to 500, a surface area higher than 500 m 2 /g, a pore volume ranging from 0.3 to 1.3 ml/g, an average pore diameter lower than 40 Å, b) a metallic component containing one or more metals of group VIII, possibly mixed with one or more metals of group VIB. a) a carrier of acid nature comprising a completely amorphous micro-mesoporous silico-alumina having a SiO 2 /Al 2 O 3 molar ratio ranging from 30 to 500, a surface area higher than 500 m 2 /g, a pore volume ranging from 0.3 to 1.3 ml/g, an average pore diameter lower than 40 Å, b) a metallic component containing one or more metals of group VIII, possibly mixed with one or more metals of group VIB.
A tip for an intraoral scanner, comprising: a housing body having an optical arrangement through which images are transferred to an imaging module of the intraoral scanner, at least one aperture including at least one pre-scanning nozzle adapted to provide air streams for cleaning a region of a tooth prior to its scanning by said optical arrangement and at least one sub-gingival exposing nozzle (2, 3) adapted to cause air streams to diffuse around the entire periphery of said tooth after the cleaning and during the actual scanning of said region, said tip being characterized by a buffering wall located between said pre-scanning nozzle and said optical arrangement for preventing oral particles spread due to pressurized air provided by said pre-scanning nozzle from reaching said optical arrangement during the cleaning.
Thermoforming packaging machine comprising a top film forming station for forming a top film, where said top film forming station comprises a lifting mechanism, a traverse system, a forming tool upper part and a forming tool lower part, where said forming tool upper part and said forming tool lower part are disposed above a lower film transportation plane, characterized in that said lifting mechanism is disposed below said lower film transport plane, where said forming tool upper part and said forming tool lower part are connected via said traverse system to said lifting mechanism.
A solid electrolyte material consisting essentially of Li, Ti, Al, M, and F, wherein M is at least one selected from the group consisting of Zr and Mg, the solid electrolyte material is represented by a following composition formula: Li 6-(4-x-(4-a)y)b (Ti 1-x-y Al x M y) b F 6 Formula here, a represents the valence of M, and 0 < x < 1, 0 < y < 1, 0 < (x + y) < 1, and 0.8 ≤ b ≤ 1.5 are satisfied. M is at least one selected from the group consisting of Zr and Mg, the solid electrolyte material is represented by a following composition formula: Li 6-(4-x-(4-a)y)b (Ti 1-x-y Al x M y) b F 6 Formula here, a represents the valence of M, and 0 < x < 1, 0 < y < 1, 0 < (x + y) < 1, and 0.8 ≤ b ≤ 1.5 are satisfied.