mhurhangee/ep-ind-claims huggingface dataset:
A skinning apparatus, comprising: an axial skinning manifold to apply a uniform cement skin to an outer peripheral surface of a porous ceramic, the manifold comprising: a curved adaptive pipe comprising a length to flow cement in a circumferential direction, an inlet (120, 130) to accept cement at a first position of the length, and an adaptive opening along the length to emit cement, a land disposed along the length of the adaptive pipe comprising a land channel at the adaptive opening to accept the cement, the land channel extending from the adaptive opening to an inner circumference land opening to equilibrate cement pressure along the land opening and dispose the cement on the outer peripheral surface of the porous ceramic; and a source of motive force (102, 104) to controllably urge the porous ceramic into and through the manifold; characterized in that the land channel comprises a varied thickness that varies from a first thickness proximate the first position to a second thickness greater than the first thickness at a second position spaced apart from the first position, and/or the land comprises a varied length from the adaptive opening to the land opening that varies from a first length proximate the first position to a second length less than the first length at a second position spaced apart from the first position. a curved adaptive pipe comprising a length to flow cement in a circumferential direction, an inlet (120, 130) to accept cement at a first position of the length, and an adaptive opening along the length to emit cement, a land disposed along the length of the adaptive pipe comprising a land channel at the adaptive opening to accept the cement, the land channel extending from the adaptive opening to an inner circumference land opening to equilibrate cement pressure along the land opening and dispose the cement on the outer peripheral surface of the porous ceramic; and a source of motive force (102, 104) to controllably urge the porous ceramic into and through the manifold; characterized in that the land channel comprises a varied thickness that varies from a first thickness proximate the first position to a second thickness greater than the first thickness at a second position spaced apart from the first position, and/or the land comprises a varied length from the adaptive opening to the land opening that varies from a first length proximate the first position to a second length less than the first length at a second position spaced apart from the first position.
A method for fabricating back-drilled holes on a PCB, the method comprising: forming through-holes on a PCB; forming a metal layer with a preset thickness on inner walls of the through-holes; filling resin in the through-holes in which the metal layer is formed; back-drilling the through-holes filled with the resin; and removing metal scraps remained in the through-holes. forming through-holes on a PCB; forming a metal layer with a preset thickness on inner walls of the through-holes; filling resin in the through-holes in which the metal layer is formed; back-drilling the through-holes filled with the resin; and removing metal scraps remained in the through-holes.
A moving head light fixture (101; 201; 701; 801) comprising: - a base (103; 203); - a yoke (105; 205; 705; 805) connected rotatable to said base (103; 203), where at least one actuator rotates said yoke (105; 205; 705; 805) around a yoke axis (141; 241), said yoke (105; 205; 705; 805) comprises at least one yoke shell configured to enclose at least one yoke element; - a head (109; 209; 709; 809) connected rotatable to said yoke (105; 205; 705; 805), where at least one actuator rotates said head (109; 209; 709; 809) around a head axis (143; 243), said head (109; 209; 709; 809) comprises at least one beam light source arranged in a head housing, said beam light source generating a light beam (115; 215) exiting said head housing through a light beam window in said head housing; wherein said moving head light fixture (101; 201; 701; 801) comprises at least one pixel light source (119; 719) configured to illuminate: - a part of the inside of said head housing; and - a part of the inside of said yoke shell; wherein the parts of said head housing and said yoke shell that are illuminated by said pixel light source (119; 719) form an illuminating part formed in a transparent material allowing light from said pixel light source (119; 719) to pass through said illuminating part and said illuminating part is rotationally symmetric in relation to said yoke axis (141; 241); characterized in that said illuminating part formed in said yoke shell is rotationally symmetric in relation to said head axis (143; 243). - a base (103; 203); - a yoke (105; 205; 705; 805) connected rotatable to said base (103; 203), where at least one actuator rotates said yoke (105; 205; 705; 805) around a yoke axis (141; 241), said yoke (105; 205; 705; 805) comprises at least one yoke shell configured to enclose at least one yoke element; - a head (109; 209; 709; 809) connected rotatable to said yoke (105; 205; 705; 805), where at least one actuator rotates said head (109; 209; 709; 809) around a head axis (143; 243), said head (109; 209; 709; 809) comprises at least one beam light source arranged in a head housing, said beam light source generating a light beam (115; 215) exiting said head housing through a light beam window in said head housing; - a part of the inside of said head housing; and - a part of the inside of said yoke shell;
Vessel for the heat treatment of pathogenic liquids in batches that is intended to be filled to a predetermined level while leaving a compression dome, characterized in that it comprises at least one pressurized steam injector pointed toward the inside of the heat treatment vessel with at least one component parallel to the axis of revolution of the heat treatment vessel and positioned so as to immerse in the liquid contaminated by pathogenic agents when the heat treatment vessel is filled to the predetermined level with the liquid contaminated by pathogenic agents and pointed toward the inside of the heat treatment vessel, with at least one tangential component so as to heat the liquid to be decontaminated and to create a cyclonic movement of the liquid contaminated by pathogenic agents to be decontaminated in order to make it possible to homogenize the temperature of the liquid to be decontaminated without a movable mechanical element.
A gas turbine engine (1; 101) comprising a turbine shaft (2; 102) rotatable about an axis, a centrifugal compressor (4; 104) and a radial turbine (14; 114) each mounted to the shaft for rotation therewith about the axis, and a plurality of combustion chambers (10; 110) in an air/gas flow path between the compressor and the turbine, the combustion chambers being spaced circumferentially about the axis of the turbine shaft, each combustion chamber being elongate in the direction of air/gas flow through the combustion chamber and curved in the longitudinal direction, the combustion chambers being aligned with their longitudinal axes curving about the axis of the turbine shaft; a diffuser (6; 106) located circumferentially about an outer diameter of the compressor wheel, the diffuser configured to direct air radially outwardly, a circumferentially extending air flow buffer channel (62; 162) for receiving compressed air from the diffuser and fluidly connected with an inlet end of each of the combustion chambers, a nozzle (12; 112) located circumferentially about an outer diameter of the turbine for directing exhaust gas onto the turbine, an exhaust gas flow buffer channel (82; 182) extending circumferentially about the nozzle, the exhaust gas flow buffer channel being fluidly connected with an outlet end of each of the combustion chambers and with the nozzle, the engine being characterised in that the combustion chambers are located radially outboard of the nozzle.
Method of operating a user equipment in a radio access network, the user equipment, UE, being configured with a UE-specific configuration for transmitting signaling on a physical channel, the UE further having a cell-specific configuration for transmitting signaling on the physical channel, wherein the method comprises transmitting signaling, representing a msg3 of a random access procedure, on the physical channel based on the cell-specific configuration ignoring the UE-specific configuration, characterized by that ignoring the UE-specific configuration is based on a parameter indicating a transform precoder to be used for transmitting the signaling.
A sensor-equipped part, comprising a metal body; a first channel extending into and ending in the metal body; a second channel extending into the metal body and connecting to the first channel at a junction near the end of the first channel; a sensor disposed in the first channel; and a curable material in its cured state holding the sensor in place in the first channel, wherein the second channel is configured to allow the curable material to be introduced through the junction into the first channel. a metal body; a first channel extending into and ending in the metal body; a second channel extending into the metal body and connecting to the first channel at a junction near the end of the first channel; a sensor disposed in the first channel; and a curable material in its cured state holding the sensor in place in the first channel, wherein the second channel is configured to allow the curable material to be introduced through the junction into the first channel.
A method of controlling the impurities in a cyclosporin A eye gel, which are determined by high performance liquid chromatography, wherein the chromatographic conditions are as follows: the detection wavelength is 210-230 nm; the flow rate is 0.8-1 ml/min; the mobile phase is: THF-water-phosphoric acid, the chromatographic column has octadecylsilane-bonded silica gel as a filler, characterized in that the column temperature is 60-68° C; and the volume ratio of the mobile phase THF-water-phosphoric acid is 400:600:1.58. the detection wavelength is 210-230 nm; the flow rate is 0.8-1 ml/min; the mobile phase is: THF-water-phosphoric acid, the chromatographic column has octadecylsilane-bonded silica gel as a filler, characterized in that the column temperature is 60-68° C; and the volume ratio of the mobile phase THF-water-phosphoric acid is 400:600:1.58.
A dual polarized dipole antenna comprising: a first dipole and a second dipole, said first and second dipoles being substantially planar, wherein said first dipole comprises a first groove and said second dipole comprises a second groove, and said first dipole is inserted into said second groove, or vice versa, so as to join said first and second dipoles together to form a dual polarized dipole antenna; and a conductive parasitic cap element attached to said first and second dipoles configured to secure said first and second dipoles to each other. a first dipole and a second dipole, said first and second dipoles being substantially planar, wherein said first dipole comprises a first groove and said second dipole comprises a second groove, and said first dipole is inserted into said second groove, or vice versa, so as to join said first and second dipoles together to form a dual polarized dipole antenna; and a conductive parasitic cap element attached to said first and second dipoles configured to secure said first and second dipoles to each other.
A fiber reinforced thermoplastic resin molded article comprising inorganic fibers, organic fibers, and a thermoplastic resin, the inorganic fibers being carbon fibers the fiber reinforced thermoplastic resin molded article comprising 5 to 45 parts by weight of the inorganic fibers, 1 to 45 parts by weight of the organic fibers, and 10 to 94 parts by weight of the thermoplastic resin, based on 100 parts by weight of a total of the inorganic fibers, the organic fibers, and the thermoplastic resin, the inorganic fibers in the fiber reinforced thermoplastic resin molded article having a weight average fiber length (L wa) of 0.05 mm or more and 2.5 mm or less, the organic fibers having a weight average fiber length (L wb) of more than 4 mm and 20 mm or less, and the weight average fiber length (L wa) of the inorganic fibers and the weight average fiber length (L wb) of the organic fibers satisfying following inequality: 8 < L wb / L wa ≤ 30, wherein the weight average fiber length is determined as described in the description. the fiber reinforced thermoplastic resin molded article comprising 5 to 45 parts by weight of the inorganic fibers, 1 to 45 parts by weight of the organic fibers, and 10 to 94 parts by weight of the thermoplastic resin, based on 100 parts by weight of a total of the inorganic fibers, the organic fibers, and the thermoplastic resin, the inorganic fibers in the fiber reinforced thermoplastic resin molded article having a weight average fiber length (L wa) of 0.05 mm or more and 2.5 mm or less, the organic fibers having a weight average fiber length (L wb) of more than 4 mm and 20 mm or less, and the weight average fiber length (L wa) of the inorganic fibers and the weight average fiber length (L wb) of the organic fibers satisfying following inequality: 8 < L wb / L wa ≤ 30,
A method for diagnosing at least one electrical line by reflectometry measurements, said electrical line being in use within a given frequency band, the diagnosis being carried out by analysis of the reflectogram of said line, said method comprising in particular the following steps: - configuring the signal to be injected in said line, a complete injection signal having a digital spectrum formed from components weighted by a set of coefficients, the coefficients of the components included within said frequency band being attenuated in a preliminary step, resulting in an incomplete digital spectrum being obtained; - in a next step, the analog signal composed from said incomplete digital spectrum is injected into the electrical line; - in a next step, the echo corresponding to said injected signal is recovered by sampling measurements of said echo; - in a next step, the digital spectrum ( Y cancel) of said echo is calculated; the method being characterized in that - in a next step, the digital spectrum ( Ŷ full) of the echo of the complete analog signal if the latter had been injected is estimated, the k th component ( Ŷ fullk) of the estimated complete digital spectrum being equal to the k th component ( Y cancelk) of the digital spectrum of the echo received multiplied by the ratio ( ξk) between the k th component ( X fullk) of the digital spectrum of the complete injection signal over the k th component ( X cancelk) of the incomplete digital spectrum; - in a next step,, the measurement of the reflectogram of said line is obtained based on the estimated complete digital spectrum ( Ŷ full). - configuring the signal to be injected in said line, a complete injection signal having a digital spectrum formed from components weighted by a set of coefficients, the coefficients of the components included within said frequency band being attenuated in a preliminary step, resulting in an incomplete digital spectrum being obtained; - in a next step, the analog signal composed from said incomplete digital spectrum is injected into the electrical line; - in a next step, the echo corresponding to said injected signal is recovered by sampling measurements of said echo; - in a next step, the digital spectrum ( Y cancel) of said echo is calculated; - in a next step, the digital spectrum ( Ŷ full) of the echo of the complete analog signal if the latter had been injected is estimated, the k th component ( Ŷ fullk) of the estimated complete digital spectrum being equal to the k th component ( Y cancelk) of the digital spectrum of the echo received multiplied by the ratio ( ξk) between the k th component ( X fullk) of the digital spectrum of the complete injection signal over the k th component ( X cancelk) of the incomplete digital spectrum; - in a next step,, the measurement of the reflectogram of said line is obtained based on the estimated complete digital spectrum ( Ŷ full).
An exchange comprising: notification control means configured to transmit, when the exchange enters an operating state, a notification request message including first identification information for identifying the exchange to a server apparatus, and request the server apparatus to transmit a notification for making a predetermined application installed in a communication terminal registered in the server apparatus register the predetermined application in the exchange; and terminal control means configured to receive a first registration request message including second identification information for identifying the communication terminal from the predetermined application, register the second identification information in the exchange, and register the predetermined application in the exchange, wherein when the first registration request message is received, the notification control means is further configured to determine whether or not the second identification information is registered in the server apparatus, and when the second identification information is not registered in the server apparatus, the notification control means is further configured to transmit a second registration request message including the first identification information and the second identification information to the server apparatus. notification control means configured to transmit, when the exchange enters an operating state, a notification request message including first identification information for identifying the exchange to a server apparatus, and request the server apparatus to transmit a notification for making a predetermined application installed in a communication terminal registered in the server apparatus register the predetermined application in the exchange; and terminal control means configured to receive a first registration request message including second identification information for identifying the communication terminal from the predetermined application, register the second identification information in the exchange, and register the predetermined application in the exchange, wherein when the first registration request message is received, the notification control means is further configured to determine whether or not the second identification information is registered in the server apparatus, and when the second identification information is not registered in the server apparatus, the notification control means is further configured to transmit a second registration request message including the first identification information and the second identification information to the server apparatus.
A cylindrical secondary battery comprising: a jelly-roll type electrode assembly in which a first electrode, a second electrode and a separator interposed between the two electrodes are wound together; a center pin inserted to penetrate the central portion of the jelly-roll type electrode assembly; a can accommodating the electrode assembly and the center pin; a cap assembly coupled to an upper opening of the can to seal the can; and a gasket interposed between the can and the cap assembly, characterized in that a first electrode tape is attached to a first surface of an uncoated portion of the first electrode and to one surface of the separator opposite to the first surface of the uncoated portion at a core of the jelly-roll type electrode assembly, the first electrode tape includes a polymeric resin film having a melting point of at least 130 °C made of at least one polymer selected from the group consisting of polyethylene terephthalate, polyacrylonitrile, polymethyl methacrylate, polyamide, polystyrene, polytetrafluoroethylene, polytetramethylene terephthalate, polyvinyl alcohol, polyvinylcarbazole, polyvinyl chloride, polyvinylidene chloride and polyvinylidene fluoride, and the first electrode tape comprises one or two adhesive layers on both surfaces of the polymeric resin film. a jelly-roll type electrode assembly in which a first electrode, a second electrode and a separator interposed between the two electrodes are wound together; a center pin inserted to penetrate the central portion of the jelly-roll type electrode assembly; a can accommodating the electrode assembly and the center pin; a cap assembly coupled to an upper opening of the can to seal the can; and a gasket interposed between the can and the cap assembly, characterized in that a first electrode tape is attached to a first surface of an uncoated portion of the first electrode and to one surface of the separator opposite to the first surface of the uncoated portion at a core of the jelly-roll type electrode assembly, the first electrode tape includes a polymeric resin film having a melting point of at least 130 °C made of at least one polymer selected from the group consisting of polyethylene terephthalate, polyacrylonitrile, polymethyl methacrylate, polyamide, polystyrene, polytetrafluoroethylene, polytetramethylene terephthalate, polyvinyl alcohol, polyvinylcarbazole, polyvinyl chloride, polyvinylidene chloride and polyvinylidene fluoride, and the first electrode tape comprises one or two adhesive layers on both surfaces of the polymeric resin film.
An induction heating cooker comprising a mains filtering circuit, a diode bridge rectifier providing the alternative current received from the mains to be converted to direct current, a filtering circuit that cleans the voltage signal delivered by the diode bridge rectifier from high frequency noises, a power switch that drives the voltage received from the filtering circuit to high frequency voltage, an induction coil connected in series to the end of the power switch, providing the ferromagnetic cooking container placed thereon to be heated with the magnetic field generated and a resonant capacitor connected parallel to the induction coil, wherein at least one additional capacitor (8, 108) is connected parallel to the induction coil and wherein a switch (9, 109) is connected in series to each additional capacitor (8, 108), characterized by a voltage detecting circuit, one end connected to the collector point prior to the power switch and that measures the voltage at the collector point and a control unit that compares the voltage at the collector point measured by the voltage detecting circuit with a voltage upper limit value (Vu) and a voltage lower limit value (Va) prerecorded in its memory by the producer, that activates or deactivates the additional capacitors (8, 108) if the voltage at the collector point is around the voltage upper limit value (Vu) and the voltage lower limit value (Va) in that the control unit activates at least one of the switches (9, 109) and thus provides current to be conducted through at least one of the additional capacitors (8, 108) when the voltage measured at the collector point gets closer to the voltage upper limit value (Vu) and deactivates at least one of the switches (9, 109) and thus provides to cut off the current conducted through at least one of the additional capacitors (8, 108) when the voltage measured at the collector point gets closer to the voltage lower limit value (Va).