mhurhangee/ep-ind-claims huggingface dataset:
Burner (56, 64, 84) having a central burner axis and a premix passage (60, 68, 92) enclosing the burner axis at least in sections, the premix passage being bounded radially outward by a wall, being capable of being flowed through during operation by compressor air, and being used to mix fuel and air, there being arranged in the premix passage a burner lance (58, 72, 94) or burner hub and a number of fuel injectors (79, 79a, 79b, 98, 100) which extend from the burner lance or burner hub in the direction of the wall and comprise fuel nozzles (80, 80a, 80b) fluidically connected to a fuel feed arrangement at least partially contained by the burner lance or burner hub, characterized in that the fuel feed arrangement comprises at least one fluidic oscillator (24a, 24b, 85) having an interaction chamber, an input of the interaction chamber being connected to a fuel channel of the fuel feed arrangement, and a first output channel of the interaction chamber extending at least to a first fuel nozzle and a second output channel extending at least to a second fuel nozzle, the fluidic oscillator comprising one feedback line (38, 38a, 38b) per output channel (86, 88), the feedback line opening with one of its ends into the respective output channel in the region downstream of the at least one fuel nozzle and with the other end into an input region of the interaction chamber.
An apparatus for granulating material comprising ash, the apparatus comprising: a granulation drum configured to granulate material by rotating, wherein the granulation drum comprises an input for receiving the material and an output for outputting the material; and a rotation member comprising at least one blade, the rotation member being disposed at least partially within the granulation drum, wherein at least a portion of the at least one blade is arranged at an angle with respect to a rotation axis of the rotation member such that, when the rotation member rotates, the at least one blade moves the material towards the output of the granulation drum, and wherein the apparatus further comprising: at least one layer disposed at least partially on the inner surface of the granulation drum, wherein the at least one layer is hangably attached to the granulation drum such that at least a portion of the at least one layer may drop into a hanging position when said portion is above a rotation axis of the granulation drum. a granulation drum configured to granulate material by rotating, wherein the granulation drum comprises an input for receiving the material and an output for outputting the material; and a rotation member comprising at least one blade, the rotation member being disposed at least partially within the granulation drum, wherein at least a portion of the at least one blade is arranged at an angle with respect to a rotation axis of the rotation member such that, when the rotation member rotates, the at least one blade moves the material towards the output of the granulation drum, and wherein the apparatus further comprising: at least one layer disposed at least partially on the inner surface of the granulation drum, wherein the at least one layer is hangably attached to the granulation drum such that at least a portion of the at least one layer may drop into a hanging position when said portion is above a rotation axis of the granulation drum.
A solid oxide fuel cell for generating variable electric power within a rated output power comprising: a fuel cell module furnished with multiple fuel cell units; a fuel supply device for supplying fuel to the fuel cell module; an oxidant gas supply device for supplying oxidant gas to the fuel cell module; and a controller for controlling the amount of fuel supplied from the fuel supply device; and an operating state recording device for recording fuel cell module's past operating states; wherein the controller is furnished with a degradation determining circuit for determining degradation of the fuel cell module, and a fuel correction circuit for correcting operating condition based on the degradation determination performed by this degradation determining circuit; when the fuel cell module is determined to have degraded, the fuel correction circuit is adapted to execute an increasing correction mode for increasing the amount of fuel supplied to the fuel cell module so that the fuel cell module's rated output power, which is its maximum output power, is maintained, and the fuel correction circuit is adapted to execute a decreasing correction mode for decreasing the rated output power so that the fuel supply amount is reduced; wherein the solid oxide fuel cell has a mode selection device for selecting the increasing correction mode or the decreasing correction mode; and wherein the mode selection device automatically selects the increasing correction mode or the decreasing correction mode based on the fuel cell module's past operating states recorded in the operating state recording device. a fuel cell module furnished with multiple fuel cell units; a fuel supply device for supplying fuel to the fuel cell module; an oxidant gas supply device for supplying oxidant gas to the fuel cell module; and a controller for controlling the amount of fuel supplied from the fuel supply device; and an operating state recording device for recording fuel cell module's past operating states; wherein the controller is furnished with a degradation determining circuit for determining degradation of the fuel cell module, and a fuel correction circuit for correcting operating condition based on the degradation determination performed by this degradation determining circuit; when the fuel cell module is determined to have degraded, the fuel correction circuit is adapted to execute an increasing correction mode for increasing the amount of fuel supplied to the fuel cell module so that the fuel cell module's rated output power, which is its maximum output power, is maintained, and the fuel correction circuit is adapted to execute a decreasing correction mode for decreasing the rated output power so that the fuel supply amount is reduced; wherein the solid oxide fuel cell has a mode selection device for selecting the increasing correction mode or the decreasing correction mode; and wherein the mode selection device automatically selects the increasing correction mode or the decreasing correction mode based on the fuel cell module's past operating states recorded in the operating state recording device.
A routing control system located in an L3VPN, Layer 3 Virtual Private Network, service network connected to a plurality of user networks (NW-a, NW-b, NW-c), comprising: a system controller; a master routing server adapted to distribute new route information to each of communication nodes (20, 10) in said L3VPN service network; and a slave routing server, characterized in that: said master routing server includes a plurality of logical controllers, each of said logical controllers is associated with one of said plurality of user networks to perform routing control for the associated user network, and said system controller has at least one monitor for monitoring a load state of said master routing server and the system controller is adapted to migrate at least one logical controller selected out of said plurality of logical controllers operating on said master routing server from the master routing server to said slave routing server when the load state has satisfied a predetermined condition, so that in said migrated logical controller the slave routing server inherits routing control for a particular user network associated with the migrated logical controller by activating the migrated logical controller. a system controller; a master routing server adapted to distribute new route information to each of communication nodes (20, 10) in said L3VPN service network; and a slave routing server, characterized in that: said master routing server includes a plurality of logical controllers, each of said logical controllers is associated with one of said plurality of user networks to perform routing control for the associated user network, and said system controller has at least one monitor for monitoring a load state of said master routing server and the system controller is adapted to migrate at least one logical controller selected out of said plurality of logical controllers operating on said master routing server from the master routing server to said slave routing server when the load state has satisfied a predetermined condition, so that in said migrated logical controller the slave routing server inherits routing control for a particular user network associated with the migrated logical controller by activating the migrated logical controller. said master routing server includes a plurality of logical controllers, each of said logical controllers is associated with one of said plurality of user networks to perform routing control for the associated user network, and said system controller has at least one monitor for monitoring a load state of said master routing server and the system controller is adapted to migrate at least one logical controller selected out of said plurality of logical controllers operating on said master routing server from the master routing server to said slave routing server when the load state has satisfied a predetermined condition, so that in said migrated logical controller the slave routing server inherits routing control for a particular user network associated with the migrated logical controller by activating the migrated logical controller.
A fusing device for thermally fusing a developer image transferred onto a recording sheet, comprising: a tubular fusing film; a heating element disposed inside the fusing film; a nip plate disposed in such a manner as to contact with an inner surface of the fusing film and to allow the fusing film to slide along the nip plate; a reflecting plate configured to reflect radiant heat from the heating element in a direction toward the nip plate; a backup member configured to nip the fusing film with the nip plate to thereby form a nip portion for the recording sheet between the fusing film and the backup member; and a stay (160; 260) configured to support both end portions of the nip plate located in positions upstream and downstream, respectively, with respect to a recording sheet conveyance direction, characterized in that the stay (160; 260) has a U-shaped cross section and has end surfaces, wherein the reflecting plate has flange portions extending along the recording sheet conveyance direction, and each of the flange portions is held and supported between the nip plate and a corresponding one of the end surfaces of the stay (160; 260) by being contacted by the nip plate and the corresponding one of the end surfaces. a tubular fusing film; a heating element disposed inside the fusing film; a nip plate disposed in such a manner as to contact with an inner surface of the fusing film and to allow the fusing film to slide along the nip plate; a reflecting plate configured to reflect radiant heat from the heating element in a direction toward the nip plate; a backup member configured to nip the fusing film with the nip plate to thereby form a nip portion for the recording sheet between the fusing film and the backup member; and a stay (160; 260) configured to support both end portions of the nip plate located in positions upstream and downstream, respectively, with respect to a recording sheet conveyance direction,
Method Skin treatment device comprising: - a body comprising a housing (21, 22) forming a gripping area, - electrical supply means arranged in the body, - at least one treatment head comprising massage means - means (26, 31') for manoeuvring the massage means actuated by an electric motor which is connected to the electrical supply means, - at least one light source, - at least one light guide having a projection surface configured to receive the light emitted by the at least one light source and to project at least one light beam toward an area on the skin, characterised in that said at least one light guide comprises a face opposite the projection surface, the opposite face comprising distribution means configured to distribute the light along the projection surface, and in that at least one massage means has an area for contact with the skin to be massaged, the area being configured to transmit the light and consisting of a thermoplastic elastomer material having a light transmission of between 0.8 and 0.9 for light with a wavelength of 590 nm or 630 nm. - a body comprising a housing (21, 22) forming a gripping area, - electrical supply means arranged in the body, - at least one treatment head comprising massage means - means (26, 31') for manoeuvring the massage means actuated by an electric motor which is connected to the electrical supply means, - at least one light source, - at least one light guide having a projection surface configured to receive the light emitted by the at least one light source and to project at least one light beam toward an area on the skin,
A compound represented by the following Chemical Formula 1, or apharmaceutically acceptable salt thereof: wherein: A is a benzene ring, or a pyridine ring, X is CO, or CHOH, R 1 is hydrogen, or C 14 hydroxyalkyl, R 2 is phenyl, pyrazolyl, pyridin-2-onyl, pyrrolidinyl, or thiazolyl, wherein R 2 is unsubstituted or substituted by one or two substituents each independently selected from the group consisting of C 14 alkyl, C 14 alkoxy, C 14 haloalkyl, halogen and cyano, and R 3 is hydrogen, or C 14 alkyl. A is a benzene ring, or a pyridine ring, X is CO, or CHOH, R 1 is hydrogen, or C 14 hydroxyalkyl, R 2 is phenyl, pyrazolyl, pyridin-2-onyl, pyrrolidinyl, or thiazolyl, wherein R 2 is unsubstituted or substituted by one or two substituents each independently selected from the group consisting of C 14 alkyl, C 14 alkoxy, C 14 haloalkyl, halogen and cyano, and R 3 is hydrogen, or C 14 alkyl.
A method for use in an additive manufacturing process, comprising: generating an energy beam; directing the energy beam towards beam shaping optics that shape the energy beam to provide a shaped energy beam; patterning the shaped energy beam two-dimensionally using an energy patterning unit; and handling a rejected patterned energy from the energy patterning unit using an energy handling unit, which directs the rejected patterned energy to one or more image relay (228A, 228B, 228C) that transfer the rejected patterned energy to one or more of: an electricity generator, a thermal energy system, and an energy dump. generating an energy beam; directing the energy beam towards beam shaping optics that shape the energy beam to provide a shaped energy beam; patterning the shaped energy beam two-dimensionally using an energy patterning unit; and handling a rejected patterned energy from the energy patterning unit using an energy handling unit, which directs the rejected patterned energy to one or more image relay (228A, 228B, 228C) that transfer the rejected patterned energy to one or more of: an electricity generator, a thermal energy system, and an energy dump. an electricity generator, a thermal energy system, and an energy dump.
A graphene-nanomaterial composite, comprising: a graphene stacked structure including a plurality of graphene films stacked on one another; a nanomaterial between the plurality of graphene films and bonded to at least one of the plurality of graphene films by a covalent bond; wherein the covalent bond includes at least one selected from an ester group, an ether group, a carbonyl group, an amide group, a carbonate anhydride group, and an acid anhydride group; and wherein the nanomaterial is a carbon-based nanomaterial and includes at least one selected from carbon nanotubes, carbon nanoparticles, carbon nanowires, carbon nanofibers, graphite, activated carbon, soft carbon including carbon calcined at a low temperature, hard carbon including carbon calcined at a high temperature, pitch carbide, mesophase pitch carbide, and calcined cokes. a graphene stacked structure including a plurality of graphene films stacked on one another; a nanomaterial between the plurality of graphene films and bonded to at least one of the plurality of graphene films by a covalent bond; wherein the covalent bond includes at least one selected from an ester group, an ether group, a carbonyl group, an amide group, a carbonate anhydride group, and an acid anhydride group; and wherein the nanomaterial is a carbon-based nanomaterial and includes at least one selected from carbon nanotubes, carbon nanoparticles, carbon nanowires, carbon nanofibers, graphite, activated carbon, soft carbon including carbon calcined at a low temperature, hard carbon including carbon calcined at a high temperature, pitch carbide, mesophase pitch carbide, and calcined cokes.
An inductor-capacitor, LC, (10, 20, 30, 40) oscillator with an embedded second harmonic filter, comprising: a first transistor and a second transistor; a first part-one inductor (L 11) and a second part-one inductor (L 12), wherein a first end of the first part-one inductor (L 11) and a first end of the second part-one inductor (L 12) are coupled to gate terminals of the second transistor and the first transistor, respectively; a part-one capacitor (C 1), coupled between the first end of the first part-one inductor (L 11) and the first end of the second part-one inductor (L 12); a part-two inductor (L 2), coupled between a second end of the first part-one inductor (L 11) and a second end of the second part-one inductor (L 12); and at least one part-two capacitor (C 2), coupled to drain terminals of the first transistor and the second transistor; wherein at least the part-two inductor (L 2) and the at least one part-two capacitor (C 2) constitute a second harmonic filter to block or weaken second harmonic signals. a first transistor and a second transistor; a first part-one inductor (L 11) and a second part-one inductor (L 12), wherein a first end of the first part-one inductor (L 11) and a first end of the second part-one inductor (L 12) are coupled to gate terminals of the second transistor and the first transistor, respectively; a part-one capacitor (C 1), coupled between the first end of the first part-one inductor (L 11) and the first end of the second part-one inductor (L 12); a part-two inductor (L 2), coupled between a second end of the first part-one inductor (L 11) and a second end of the second part-one inductor (L 12); and at least one part-two capacitor (C 2), coupled to drain terminals of the first transistor and the second transistor; wherein at least the part-two inductor (L 2) and the at least one part-two capacitor (C 2) constitute a second harmonic filter to block or weaken second harmonic signals.
A method of manufacturing metal to glass, metal to metal, and metal to ceramic connections, characterized by said connections being produced with a mixture comprising a base glass powder and a metal oxide powder having a grain size of 5 μm or less, wherein the base glass powder is selected from the group consisting of alumosilicates, alkali earth alumoborosilicates and phosphate glasses, and wherein prior to applying the base-glass powder together with the metal oxide on the metal surface, the metal surface is coated with a metallic coating or a transition-metal oxide coating, wherein the bonding is provided at a temperature of from 400°C to 1100°C, at a pressure between 0.1 kPa and 1000 kPa, and for a time of from 0.1 to 10 hours; and wherein the metal oxide powder is selected from the group consisting of boron oxide, magnesium oxide, sodium oxide, potassium oxide, vanadium oxide, manganese oxide, nickel oxide, cobalt oxide, molybdenum oxide and copper oxide.
A computer implemented method for processing 3D scanned data to manufacture a dental prosthesis, comprising: acquiring image data from a target object (10, 20), on which a structure (31, 35) for prosthesis treatment is installed, through a 3D scanner; acquiring the shape information (33, 37) of the structure (31, 35) from the image data; comparing the shape information (33, 37) of the scanned structure (31, 35), acquired in the acquiring of the image data, to reference data (32, 36) for the structure (31, 35); and aligning the locations of the reference data (32, 36) and the shape information (33, 37) of the scanned structure (31, 35), on the basis of the comparison result, wherein the reference data (32, 36) and the shape information (33, 37) of the scanned structure (31, 35) are coupled and formed as corrected data (34, 38), and wherein a scan error is displayed as a plurality of predetermined patterns or colors on the surface of the image data. acquiring image data from a target object (10, 20), on which a structure (31, 35) for prosthesis treatment is installed, through a 3D scanner; acquiring the shape information (33, 37) of the structure (31, 35) from the image data; comparing the shape information (33, 37) of the scanned structure (31, 35), acquired in the acquiring of the image data, to reference data (32, 36) for the structure (31, 35); and aligning the locations of the reference data (32, 36) and the shape information (33, 37) of the scanned structure (31, 35), on the basis of the comparison result, wherein the reference data (32, 36) and the shape information (33, 37) of the scanned structure (31, 35) are coupled and formed as corrected data (34, 38), and wherein a scan error is displayed as a plurality of predetermined patterns or colors on the surface of the image data.
Compound of formula (M 1-x-y-z-w-e A x B y C 2z D 2w) Si 1-z-w-e Al 2e O 3 where M is at least one cation selected from the group consisting of Ca, Sr and Ba; A and B are different from each other and are selected from Pb 2+, Mn 2+, Yb 2+, Sm 2+, Eu 2+, Dy 2+ or Ho 2+; C and D are identically or differently at each occurrence, a trivalent cation and are selected form the groups consisting of Sc 3+, Y 3+, La 3+, Ce 3+, Pr 3+, Nd 3+, Pm 3+, Sm 3+, Eu 3+, Gd 3+, Tb 3+, Dy 3+, Ho 3+, Er 3+, Tm 3+, Yb 3+, Lu 3+, and Bi 3+; 0 ≤ x ≤ 0.3, 0 ≤ y ≤ 0.3, 0 ≤ z ≤ 0.3 and 0 ≤ w ≤ 0.3; 0.0001 ≤ e ≤ 0.2; wherein at least two of the indices x, y, z and w are > 0. M is at least one cation selected from the group consisting of Ca, Sr and Ba; A and B are different from each other and are selected from Pb 2+, Mn 2+, Yb 2+, Sm 2+, Eu 2+, Dy 2+ or Ho 2+; C and D are identically or differently at each occurrence, a trivalent cation and are selected form the groups consisting of Sc 3+, Y 3+, La 3+, Ce 3+, Pr 3+, Nd 3+, Pm 3+, Sm 3+, Eu 3+, Gd 3+, Tb 3+, Dy 3+, Ho 3+, Er 3+, Tm 3+, Yb 3+, Lu 3+, and Bi 3+; 0 ≤ x ≤ 0.3, 0 ≤ y ≤ 0.3, 0 ≤ z ≤ 0.3 and 0 ≤ w ≤ 0.3; 0.0001 ≤ e ≤ 0.2;