mhurhangee/ep-ind-claims huggingface dataset:
A device (300, 740, 830, 965, 1020) comprising: a torch (120, 160, 180, 305, 335, 365) comprising alumina; an oscillator (315, 345, 375); a capacitive device (110, 155, 170, 310, 340, 370) external to and around at least a portion of the torch (120, 160, 180, 305, 335, 365) and contacting an outer surface of the torch (120, 160, 180, 305, 335, 365), the capacitive device (110, 155, 170, 310, 340, 370) configured to provide radio frequency energy to the torch (120, 160, 180, 305, 335, 365) to sustain a capacitively coupled plasma in the torch (120, 160, 180, 305, 335, 365), wherein the capacitive device (110, 155, 170, 310, 340, 370) comprises an electrode comprising a wire coil (110, 340) comprising a plurality of coil windings which contact each other and the outer surface of the torch (120, 160, 180, 305, 335, 365), wherein the capacitive device (110, 155, 170, 310, 340, 370) comprises a first end and a second end, wherein the capacitive device (110, 155, 170, 310, 340, 370) is electrically coupled to the oscillator (315, 345, 375) at the first end of the wire coil, and characterised by an additional capacitive device (320, 350, 380) comprising a plate electrode Z configured to provide radio frequency energy to the torch (120, 160, 180, 305, 335, 365). a torch (120, 160, 180, 305, 335, 365) comprising alumina; an oscillator (315, 345, 375); a capacitive device (110, 155, 170, 310, 340, 370) external to and around at least a portion of the torch (120, 160, 180, 305, 335, 365) and contacting an outer surface of the torch (120, 160, 180, 305, 335, 365), the capacitive device (110, 155, 170, 310, 340, 370) configured to provide radio frequency energy to the torch (120, 160, 180, 305, 335, 365) to sustain a capacitively coupled plasma in the torch (120, 160, 180, 305, 335, 365), wherein the capacitive device (110, 155, 170, 310, 340, 370) comprises an electrode comprising a wire coil (110, 340) comprising a plurality of coil windings which contact each other and the outer surface of the torch (120, 160, 180, 305, 335, 365), wherein the capacitive device (110, 155, 170, 310, 340, 370) comprises a first end and a second end, wherein the capacitive device (110, 155, 170, 310, 340, 370) is electrically coupled to the oscillator (315, 345, 375) at the first end of the wire coil, and characterised by an additional capacitive device (320, 350, 380) comprising a plate electrode Z configured to provide radio frequency energy to the torch (120, 160, 180, 305, 335, 365).
A gas burner, in particular for a cooking appliance, of the type that comprises: - a cup associated with supply means (11, 12) for supplying gas to said burner; - a burner body associated with said cup and comprising a Venturi effect chamber; - a flame divider associated with said burner body and comprising a plurality of first apertures to allow the gas to escape, which are so realized as to generate a flame that propagates outwards from the burner in a substantially axial direction with respect to an axis (A-A) of the burner, a compartment being obtained between the burner body and the flame divider to allow the gas to flow from the chamber to said plurality of first apertures, wherein said first apertures are so realized as to extend substantially parallel to the axis (A-A) of the burner and as to have an elongated shape when viewed from above and wherein said compartment comprises: - a substantially straight first section, said first section being positioned horizontally on top of the Venturi effect chamber; - a third section substantially directed upwards, in particular towards the flame divider; characterized in that said compartment further comprises a second section substantially directed downwards, in particular towards the cup. - a cup associated with supply means (11, 12) for supplying gas to said burner; - a burner body associated with said cup and comprising a Venturi effect chamber; - a flame divider associated with said burner body and comprising a plurality of first apertures to allow the gas to escape, which are so realized as to generate a flame that propagates outwards from the burner in a substantially axial direction with respect to an axis (A-A) of the burner, a compartment being obtained between the burner body and the flame divider to allow the gas to flow from the chamber to said plurality of first apertures, - a substantially straight first section, said first section being positioned horizontally on top of the Venturi effect chamber; - a third section substantially directed upwards, in particular towards the flame divider;
An liquid inkjet print device comprising a conveyor system which comprises a conveyor belt, linked on two or more pulleys: - to carry a rigid or flexible sheet with successive distance movements in a conveying direction by a drive system: and wherein the drive system comprises: a) a driving mean to drive and control a first linear movement system b) a first belt gripper that has a first engaging mean to engage the conveyor belt when the first belt gripper is moved by the first linear movement system from a home position to an end position and that has a first releasing mean to release the conveyor belt when the first belt gripper is moved by the first linear movement system from the end position to the home position; c) a second belt gripper that has a second releasing mean to release the conveyor belt when the first belt gripper is moved by the first linear movement system from the home position to the end position and that has a second engaging mean to engage the conveyor belt when the first belt gripper is moved by the first linear movement system from the end position to the home position; and wherein the engage-zone of the first belt gripper and the second belt gripper is at the edge of the conveyor belt; and wherein the drive system comprises an encoder system on the first linear movement system with means for returning the position of the first belt gripper and returning the distances of the successive distance movements of the flexible sheet or rigid sheet on the conveyor belt and wherein the fault tolerances of the encoder system is between 16 and 0.01 micrometer. - to carry a rigid or flexible sheet with successive distance movements in a conveying direction by a drive system: and a) a driving mean to drive and control a first linear movement system b) a first belt gripper that has a first engaging mean to engage the conveyor belt when the first belt gripper is moved by the first linear movement system from a home position to an end position and that has a first releasing mean to release the conveyor belt when the first belt gripper is moved by the first linear movement system from the end position to the home position; c) a second belt gripper that has a second releasing mean to release the conveyor belt when the first belt gripper is moved by the first linear movement system from the home position to the end position and that has a second engaging mean to engage the conveyor belt when the first belt gripper is moved by the first linear movement system from the end position to the home position; and
A power semiconductor module, comprising: a base plate; a Si chip comprising a Si substrate, the Si chip attached to the base plate; a first metal preform pressed with a first press pin against a side of the Si chip; a wide bandgap material chip comprising a wide bandgap substrate and a semiconductor switch provided in the wide bandgap substrate, the wide bandgap material chip attached to the base plate; a second metal preform pressed with a second press pin against a side of the wide bandgap material chip; wherein the Si chip and the wide bandgap material chip are connected in parallel via the base plate and via the first press pin and the second press pin; wherein the first metal preform is made of a material adapted for forming a permanent conducting path through the Si chip by forming an alloy with the Si substrate, when heated by an overcurrent; wherein the second metal preform, which is made of a material with a higher melting point than the material of the first metal preform, is adapted for forming an at least temporary conducting path through the wide bandgap material chip, when heated by an overcurrent. a base plate; a Si chip comprising a Si substrate, the Si chip attached to the base plate; a first metal preform pressed with a first press pin against a side of the Si chip; a wide bandgap material chip comprising a wide bandgap substrate and a semiconductor switch provided in the wide bandgap substrate, the wide bandgap material chip attached to the base plate; a second metal preform pressed with a second press pin against a side of the wide bandgap material chip; wherein the Si chip and the wide bandgap material chip are connected in parallel via the base plate and via the first press pin and the second press pin; wherein the first metal preform is made of a material adapted for forming a permanent conducting path through the Si chip by forming an alloy with the Si substrate, when heated by an overcurrent; wherein the second metal preform, which is made of a material with a higher melting point than the material of the first metal preform, is adapted for forming an at least temporary conducting path through the wide bandgap material chip, when heated by an overcurrent.
A method of packaging an elastomeric article, comprising: providing an elastomeric article comprising an antiozonant; placing the elastomeric article in a package; removing oxygen from within the package to form a reduced-oxygen environment inside the package, by exposing the package to a vacuum pressure of lower than 320 mbar; sealing the package to provide the elastomeric article within the reduced-oxygen environment inside the package; and sterilizing the elastomeric article using a process comprising radiation sterilization, wherein the elastomeric article exhibits a reduced level of degradation, and wherein the degradation is exhibited by holes in the elastomeric article, surface cracking, surface discoloration, and combinations thereof, and wherein the antiozonant comprises an anionic wax emulsion. providing an elastomeric article comprising an antiozonant; placing the elastomeric article in a package; removing oxygen from within the package to form a reduced-oxygen environment inside the package, by exposing the package to a vacuum pressure of lower than 320 mbar; sealing the package to provide the elastomeric article within the reduced-oxygen environment inside the package; and sterilizing the elastomeric article using a process comprising radiation sterilization, wherein the elastomeric article exhibits a reduced level of degradation, and wherein the degradation is exhibited by holes in the elastomeric article, surface cracking, surface discoloration, and combinations thereof, and wherein the antiozonant comprises an anionic wax emulsion.
A method of generating a stereoscopic image registration and color balance evaluation display comprising the steps of: plotting corresponding left and right pixels of a stereoscopic video signal, the stereoscopic video signal having a left image from which the left pixels are plotted and a right image from which the right pixels are plotted, as a two-dimensional histogram representing a particular video color or luminance component of the stereoscopic video signal; and presenting the resulting two-dimensional histogram as a diamond display arrangement on a display screen for viewing by a user; wherein the plotting step comprises: generating for the left and right pixels the particular video color or luminance component; comparing the left and right pixels in the particular video color or luminance component to produce sum and difference values; and inputting the sum and difference values to respective orthogonal coordinates of a Cartesian plot to produce the two-dimensional histogram; wherein a deviation from a vertical line in the two-dimensional histogram is indicative of a mismatch between corresponding left and right pixels of the stereoscopic video signal. plotting corresponding left and right pixels of a stereoscopic video signal, the stereoscopic video signal having a left image from which the left pixels are plotted and a right image from which the right pixels are plotted, as a two-dimensional histogram representing a particular video color or luminance component of the stereoscopic video signal; and presenting the resulting two-dimensional histogram as a diamond display arrangement on a display screen for viewing by a user; wherein the plotting step comprises: generating for the left and right pixels the particular video color or luminance component; comparing the left and right pixels in the particular video color or luminance component to produce sum and difference values; and inputting the sum and difference values to respective orthogonal coordinates of a Cartesian plot to produce the two-dimensional histogram; wherein a deviation from a vertical line in the two-dimensional histogram is indicative of a mismatch between corresponding left and right pixels of the stereoscopic video signal. generating for the left and right pixels the particular video color or luminance component; comparing the left and right pixels in the particular video color or luminance component to produce sum and difference values; and inputting the sum and difference values to respective orthogonal coordinates of a Cartesian plot to produce the two-dimensional histogram; wherein a deviation from a vertical line in the two-dimensional histogram is indicative of a mismatch between corresponding left and right pixels of the stereoscopic video signal.
A cell comprising: an intermediate layer containing CeO 2 with which a rare earth element (excluding Ce) forms a solid solution; a first electrode layer, the intermediate layer and the first electrode layer being disposed in this order on a surface of one side of a solid electrolyte layer containing Zr, and the first electrode layer comprises at least one of a LaMnO 3 -based oxide, a LaFeO 3 -based oxide, and a LaCoO 3 -based oxide; and a second electrode layer disposed on a surface on another side opposite the surface of the one side of the solid electrolyte layer, wherein the intermediate layer comprises a first layer located closer to the solid electrolyte layer and a second layer disposed on the first layer and located closer to the first electrode layer, and a mass concentration of the rare earth element of the first layer is greater than a mass concentration of the rare earth element of the second layer, wherein the rare earth elements of the first layer and the second layer are the same, and/or a molar concentration of the rare earth element of the first layer is greater than a molar concentration of the rare earth element of the second layer. an intermediate layer containing CeO 2 with which a rare earth element (excluding Ce) forms a solid solution; a first electrode layer, the intermediate layer and the first electrode layer being disposed in this order on a surface of one side of a solid electrolyte layer containing Zr, and the first electrode layer comprises at least one of a LaMnO 3 -based oxide, a LaFeO 3 -based oxide, and a LaCoO 3 -based oxide; and a second electrode layer disposed on a surface on another side opposite the surface of the one side of the solid electrolyte layer, wherein the intermediate layer comprises a first layer located closer to the solid electrolyte layer and a second layer disposed on the first layer and located closer to the first electrode layer, and a mass concentration of the rare earth element of the first layer is greater than a mass concentration of the rare earth element of the second layer, wherein the rare earth elements of the first layer and the second layer are the same, and/or a molar concentration of the rare earth element of the first layer is greater than a molar concentration of the rare earth element of the second layer.
At least one bacterial strain having antioxidant properties belonging to a species selected from among: - Bifidobacterium lactis BS 05 (ID 1666) deposited by Probiotical SpA, Novara (Italy) with the DSMZ in Germany on 13.10.2009 and having the deposit number DSM 23032, - Lactobacillus acidophilus LA 06 (ID 1683) deposited by Probiotical SpA, Novara (Italy) with the DSMZ in Germany on 13.10.2009 and having the deposit number DSM 23033, and - Lactobacillus brevis LBR01 (ID 1685) deposited by Probiotical SpA, Novara (Italy) with the DSMZ in Germany on 13.10.2009 and having the deposit number DSM 23034 for use in the treatment of oxidative stress. - Bifidobacterium lactis BS 05 (ID 1666) deposited by Probiotical SpA, Novara (Italy) with the DSMZ in Germany on 13.10.2009 and having the deposit number DSM 23032, - Lactobacillus acidophilus LA 06 (ID 1683) deposited by Probiotical SpA, Novara (Italy) with the DSMZ in Germany on 13.10.2009 and having the deposit number DSM 23033, and - Lactobacillus brevis LBR01 (ID 1685) deposited by Probiotical SpA, Novara (Italy) with the DSMZ in Germany on 13.10.2009 and having the deposit number DSM 23034 for use in the treatment of oxidative stress.
A method for supporting establishment of dual connectivity for a wireless device, wherein the wireless device is connected to a first network element via a second network element of a wireless communication network, the second network element and the wireless device communicating over a first wireless link, wherein network functions serving the wireless device are split between the first network element and the second network element, the method being performed in the wireless device and comprising: - transmitting a request for a connection to a third network element being a candidate network element for establishing dual connectivity, the request being transmitted to the third network element over a second wireless link, and - transmitting an identifier of the wireless device to the third network element, for enabling the establishment of dual connectivity for the wireless device, characterized by: - transmitting information identifying the first network element to the third network element, such that the third network element can establish connectivity to the first network element. - transmitting a request for a connection to a third network element being a candidate network element for establishing dual connectivity, the request being transmitted to the third network element over a second wireless link, and - transmitting an identifier of the wireless device to the third network element, for enabling the establishment of dual connectivity for the wireless device, characterized by: - transmitting information identifying the first network element to the third network element, such that the third network element can establish connectivity to the first network element. - transmitting information identifying the first network element to the third network element, such that the third network element can establish connectivity to the first network element.
A receiver of GNSS positioning signals comprising: - N-plets (210, 21n) of signal processing channels, each signal processing channel (211, 212, 213) in an N-plet configured to acquire and track positioning signals emitted by a satellite on N different carriers, and comprising tracking circuits (2111, 2112) configured for tracking code and carrier signals at a given frequency of one of the N carriers, said tracking producing an output comprising values of a propagation distance between the receiver and the satellite at the given frequency; - one or more filtering circuits configured for calculating a predicted pseudo-range value and a predicted phase value for the satellite at the output of an observation model; the receiver being characterized in that: - N is an integer equal to or higher than two; - said observation model: ∘ receives as input a measurement vector comprising the propagation distance values output of the tracking circuits of the N-plets of signal processing channels and produces its output using a state vector comprising a receiver position value, a receiver clock value, code and phase biases for the receiver, and carrier phase ambiguities, each of the carrier phase ambiguities characterizing a combination of carriers selected from the N different carriers; and ∘ does not receive as input measurements sent from a reference receiver. - N-plets (210, 21n) of signal processing channels, each signal processing channel (211, 212, 213) in an N-plet configured to acquire and track positioning signals emitted by a satellite on N different carriers, and comprising tracking circuits (2111, 2112) configured for tracking code and carrier signals at a given frequency of one of the N carriers, said tracking producing an output comprising values of a propagation distance between the receiver and the satellite at the given frequency; - one or more filtering circuits configured for calculating a predicted pseudo-range value and a predicted phase value for the satellite at the output of an observation model; - N is an integer equal to or higher than two; - said observation model: ∘ receives as input a measurement vector comprising the propagation distance values output of the tracking circuits of the N-plets of signal processing channels and produces its output using a state vector comprising a receiver position value, a receiver clock value, code and phase biases for the receiver, and carrier phase ambiguities, each of the carrier phase ambiguities characterizing a combination of carriers selected from the N different carriers; and ∘ does not receive as input measurements sent from a reference receiver. ∘ receives as input a measurement vector comprising the propagation distance values output of the tracking circuits of the N-plets of signal processing channels and produces its output using a state vector comprising a receiver position value, a receiver clock value, code and phase biases for the receiver, and carrier phase ambiguities, each of the carrier phase ambiguities characterizing a combination of carriers selected from the N different carriers; and ∘ does not receive as input measurements sent from a reference receiver.
A bio-polyol composition, comprising: a polyol and a surface modified lignin, wherein a surface of the surface modified lignin is coated or adsorbed with a modifier and the modifier is coated or adsorbed to the surface of the surface modified lignin via a physical bonding, and a particle size of the surface modified lignin ranges between 1-100 μm, wherein the surface modified lignin is obtained by mixing a lignin and the modifier and performing a dispersing and grinding process to cover the modifier on a surface of the lignin, wherein a lignin of the surface modified lignin includes lignin sulfonate, alkali lignin, or a mixture thereof.