mhurhangee/ep-ind-claims huggingface dataset:
Test plug block for slipping onto a modular terminal block, with a plurality of interconnected test plugs and two fastening parts which are located on either side of the plurality of test plugs and which are connected to one another via a handle, wherein the fastening parts each have a housing with a plug-in section which can be plugged into a receiving section which is made in the clip housing of a mounting clip of the modular terminal block, characterized in that the plug-in section of at least one fastening part has at least two latching elements (12, 13) which with corresponding opposed latching elements of the mounting clip together fix a first latching position and a second latching position of the fastening part in the mounting clip, the two latching positions being arranged behind one another in the slip-on direction of the test plug block, so that the test plug block can be latched both in its position completely slipped onto the terminal block as well as in a second, partially pulled-out position, that, in the housing of at least one fastening part, an unlocking element is movably arranged which can be moved by a rotary motion of the handle out of a base position into a first unlocking position and by a second rotary motion of the handle into another unlocking position, wherein in the first unlocking position, the locking between the latching element and the opposed latching element of the first latching position and in the second unlocking position, the locking between the latching element and the opposed latching element of the second latching position are released by the unlocking element, and that at least one fastening part has at least one limiting element which limits the possible rotation of the handle relative to the housing.
An electronic cigarette filler, comprising a rectangular sheet-like member having a plurality of cuts in a surface thereof, the electronic cigarette filler being characterized in that: assuming that the longitudinal direction of an electronic cigarette is represented as first direction, and an in-plane direction perpendicular thereto is represented as second direction, the cuts include first cuts and second cuts, wherein the first cuts are made along the first direction from one side of the sheet-like member that extends in the second direction, and the second cuts are made along the first direction from another side of the sheet-like member, and the first cuts and the second cuts are arranged alternately in the second direction, wherein the cuts are made to a depth that does not penetrate the sheet-like member. assuming that the longitudinal direction of an electronic cigarette is represented as first direction, and an in-plane direction perpendicular thereto is represented as second direction, the cuts include first cuts and second cuts, wherein the first cuts are made along the first direction from one side of the sheet-like member that extends in the second direction, and the second cuts are made along the first direction from another side of the sheet-like member, and the first cuts and the second cuts are arranged alternately in the second direction,
A mobile unit for separating manure masses into a wet phase and a dry phase, comprising: a separating device configured for receiving manure masses as an input and providing an output by separating the manure masses into a wet phase and a dry phase; an inlet through which the manure masses to be separated enter the mobile unit; a liquid outlet through which the wet phase of the manure masses is transported out from the mobile unit; a sanitation device configured for sanitizing at least the separating device, wherein the sanitation device comprises at least one temperature measuring sensor configured to measure the temperature of at least one of the separating device, the inlet and the liquid outlet; a housing being provided with at least one wheel, wherein the separating device and the sanitation device are arranged inside said housing; and a controller configured to: receive temperature measurement from the at least one temperature measuring sensor; and in response thereto control the temperature of at least one of the separating device, the inlet and the liquid outlet so that a desired temperature is obtained for a predetermined period of time. a separating device configured for receiving manure masses as an input and providing an output by separating the manure masses into a wet phase and a dry phase; an inlet through which the manure masses to be separated enter the mobile unit; a liquid outlet through which the wet phase of the manure masses is transported out from the mobile unit; a sanitation device configured for sanitizing at least the separating device, wherein the sanitation device comprises at least one temperature measuring sensor configured to measure the temperature of at least one of the separating device, the inlet and the liquid outlet; a housing being provided with at least one wheel, wherein the separating device and the sanitation device are arranged inside said housing; and a controller configured to: receive temperature measurement from the at least one temperature measuring sensor; and in response thereto control the temperature of at least one of the separating device, the inlet and the liquid outlet so that a desired temperature is obtained for a predetermined period of time. receive temperature measurement from the at least one temperature measuring sensor; and in response thereto control the temperature of at least one of the separating device, the inlet and the liquid outlet so that a desired temperature is obtained for a predetermined period of time.
Method of laser treatment of a metal substrate for a watch component, by means of a laser source (4, 8, 10) intended to emit pulses with durations equal to or less than one picosecond and arranged to define an incident laser beam which is mobile relative to said substrate and to carry out a treatment of the latter in order to selectively blacken at least one portion thereof, comprising the steps consisting of: - providing a metal substrate comprising a portion to be treated, - implementing a first laser treatment operation aimed at scanning said portion to be treated with an incident laser beam, in accordance with a first set of predefined parameters, adapted to blacken said portion to be treated by creating microstructures and nanostructures over essentially its entire surface, characterized in that the method further comprises the steps consisting of: - implementing a second laser treatment operation aimed at scanning said portion to be treated with an incident laser beam, in accordance with a second set of predefined parameters, different from said first set of predefined parameters and adapted to smooth the surface of said portion to be treated, by reducing the roughness of said portion to be treated by at least 40%, preferably by at least 50%, - implementing a third laser treatment operation aimed at scanning said portion to be treated with an incident laser beam, according to a third set of predefined parameters, similar to said first set of predefined parameters and adapted to blacken said portion to be treated by recreating microstructures and nanostructures over substantially its entire surface. - providing a metal substrate comprising a portion to be treated, - implementing a first laser treatment operation aimed at scanning said portion to be treated with an incident laser beam, in accordance with a first set of predefined parameters, adapted to blacken said portion to be treated by creating microstructures and nanostructures over essentially its entire surface, - implementing a second laser treatment operation aimed at scanning said portion to be treated with an incident laser beam, in accordance with a second set of predefined parameters, different from said first set of predefined parameters and adapted to smooth the surface of said portion to be treated, by reducing the roughness of said portion to be treated by at least 40%, preferably by at least 50%, - implementing a third laser treatment operation aimed at scanning said portion to be treated with an incident laser beam, according to a third set of predefined parameters, similar to said first set of predefined parameters and adapted to blacken said portion to be treated by recreating microstructures and nanostructures over substantially its entire surface.
A method for signal processing, comprising: down converting at least a first RF signal on a first path in a first frequency band to provide a first IF signal comprising a first I component signal and a first Q component signal; down converting at least a second RF signal on second path in a second frequency band to provide a second IF signal comprising a second I component signal and a second Q component signal, wherein the first IF signal and the second IF signals are interspersed in the frequency domain, the first frequency band being different from the second frequency band; combining the first I component signal and the first Q component signal using a first polyphase filter to provide a third IF signal; combining the second I component signal and the second Q component signal using a second polyphase filter to provide a fourth IF signal; and combining at least part of the third IF signal and the fourth IF signal to provide a combined signal on an output signal path for reception by a digital processing circuit. down converting at least a first RF signal on a first path in a first frequency band to provide a first IF signal comprising a first I component signal and a first Q component signal; down converting at least a second RF signal on second path in a second frequency band to provide a second IF signal comprising a second I component signal and a second Q component signal, wherein the first IF signal and the second IF signals are interspersed in the frequency domain, the first frequency band being different from the second frequency band; combining the first I component signal and the first Q component signal using a first polyphase filter to provide a third IF signal; combining the second I component signal and the second Q component signal using a second polyphase filter to provide a fourth IF signal; and combining at least part of the third IF signal and the fourth IF signal to provide a combined signal on an output signal path for reception by a digital processing circuit.
An apparatus for calculating a bank angle value of a banking vehicle, the apparatus comprising: an inertial measurement unit, the inertial measurement unit including a processor and at least one motion sensor (82, 84, 86) operatively coupled to the processor; the processor programmed to: sample yaw rate data at a predetermined rate, the yaw rate data provided by the at least one motion sensor (82, 84, 86); characterized in that the processor is further programmed to: compare the yaw rate data to a predefined minimum yaw rate and a predefined maximum yaw rate, and when the yaw rate data is between the predefined minimum yaw rate and the predefined maximum yaw rate, set a bank angle value to zero; and when the yaw rate data is not between the predefined minimum yaw rate and the predefined maximum yaw rate, calculate the bank angle value based on roll rate data provided by the at least one motion sensor (82, 84, 86). an inertial measurement unit, the inertial measurement unit including a processor and at least one motion sensor (82, 84, 86) operatively coupled to the processor; the processor programmed to: sample yaw rate data at a predetermined rate, the yaw rate data provided by the at least one motion sensor (82, 84, 86); characterized in that the processor is further programmed to: compare the yaw rate data to a predefined minimum yaw rate and a predefined maximum yaw rate, and when the yaw rate data is between the predefined minimum yaw rate and the predefined maximum yaw rate, set a bank angle value to zero; and when the yaw rate data is not between the predefined minimum yaw rate and the predefined maximum yaw rate, calculate the bank angle value based on roll rate data provided by the at least one motion sensor (82, 84, 86). compare the yaw rate data to a predefined minimum yaw rate and a predefined maximum yaw rate, and when the yaw rate data is between the predefined minimum yaw rate and the predefined maximum yaw rate, set a bank angle value to zero; and when the yaw rate data is not between the predefined minimum yaw rate and the predefined maximum yaw rate, calculate the bank angle value based on roll rate data provided by the at least one motion sensor (82, 84, 86).
Valve arrangement, comprising a first and a second working connection (1; 2) which can be connected to a pneumatic drive, and a first and a second directional valve (4, 29; 12) which are each electro-pneumatically pilot-controlled, in which one or both directional valves (4, 29; 12) is or are arranged upstream of the working connections (1; 2) for acting upon and venting same, the preliminary stages (7; 13) of the two directional valves (4, 29; 12) being designed to be automatically resetting and the second directional valve being designed to alternately assume a rest position and a switching position, and the preliminary stage (7, 7') of the first directional valve (4, 29) having an external control connection (8; 8') which can be acted upon by means of the second directional valve in the switching position thereof and can be vented by means of said valve in the rest position thereof, characterized in that the second directional valve, as a resetting device for a main stage, has an air spring which can be acted upon and vented externally by means of the first directional valve (4, 29), and a change in state between acting on or venting the air spring of the second directional valve, after the first directional valve (4, 29) has assumed a switching position, only takes place depending on the change in the switching state of the first directional valve (4, 29), and a change in state between acting or venting at one of the two working connections (1; 2), after acting or venting which previously took place when the second directional valve assumed the switching position, only takes place depending on the second directional valve assuming the rest position.
Pharmaceutical composition for use in treating or preventing either one or both of an inflammatory disease and an autoimmune disease, wherein the pharmaceutical composition comprises soluble Fcγ receptor (FcγR) as active ingredient; and wherein the pharmaceutical composition is designed for administering a first dose of a therapeutically effective amount of soluble FcγR, followed by a safety period of several weeks, followed by a subsequent treatment cycle of at least two further administrations, wherein said therapeutically effective amount is effective to treat or prevent said disease in said patient.
A method of scanning with a laser system, the method comprising the steps of: generating femtosecond seed pulses by an oscillator (100, 100'); stretching a duration of the seed pulses by a stretcher (200, 200'); amplifying stretched seed pulses by an amplifier (300, 300') into laser pulses with a regenerative amplifier comprising end mirrors (321, 322, 323, 324); compensating a group delay dispersion of the laser pulses in the range of 5,000 - 20,000 fs 2 with a dispersion compensator between said end-mirrors of the amplifier; outputting the amplified laser pulses from the amplifier by an electro-optical modulator; compressing the amplified stretches laser pulses into femtosecond laser pulses with a compressor; focusing the laser pulses to a focus spot in a target region with a scanning laser delivery system; scanning the focus spot with a scanning speed in the target region with the scanning laser delivery system; changing the scanning speed by a processor of the scanning laser delivery system; and adjusting the repetition rate according to the changed scanning speed with a repetition-rate controller; wherein the laser system is configured to output a laser beam with a repetition rate with a range of 10kHz to 20 MHz, and, to output the laser beam with an output power greater than 0.1 W. generating femtosecond seed pulses by an oscillator (100, 100'); stretching a duration of the seed pulses by a stretcher (200, 200'); amplifying stretched seed pulses by an amplifier (300, 300') into laser pulses with a regenerative amplifier comprising end mirrors (321, 322, 323, 324); compensating a group delay dispersion of the laser pulses in the range of 5,000 - 20,000 fs 2 with a dispersion compensator between said end-mirrors of the amplifier; outputting the amplified laser pulses from the amplifier by an electro-optical modulator; compressing the amplified stretches laser pulses into femtosecond laser pulses with a compressor; focusing the laser pulses to a focus spot in a target region with a scanning laser delivery system; scanning the focus spot with a scanning speed in the target region with the scanning laser delivery system; changing the scanning speed by a processor of the scanning laser delivery system; and adjusting the repetition rate according to the changed scanning speed with a repetition-rate controller; wherein the laser system is configured to output a laser beam with a repetition rate with a range of 10kHz to 20 MHz, and, to output the laser beam with an output power greater than 0.1 W.
A method for performing enhanced service routing at a Diameter signaling router, DSR, the method comprising: receiving, at a Diameter application executing on a Diameter message processor located within the DSR, a Diameter message that requires a service; determining, by the Diameter application executing on the Diameter message processor located within the DSR and using service routing data, at least one service provider for performing the service associated with the Diameter message, wherein the service routing data includes service capability information provided by a plurality of service providers; and sending the Diameter message or a portion of the Diameter message to the at least one service provider for performing the service. receiving, at a Diameter application executing on a Diameter message processor located within the DSR, a Diameter message that requires a service; determining, by the Diameter application executing on the Diameter message processor located within the DSR and using service routing data, at least one service provider for performing the service associated with the Diameter message, wherein the service routing data includes service capability information provided by a plurality of service providers; and sending the Diameter message or a portion of the Diameter message to the at least one service provider for performing the service.
A dual-band antenna, comprising a conductive plane, a smooth curved-surface assembly that is joined onto the conductive plane, and a feed pin that is connected to the smooth curved-surface assembly, wherein the conductive plane is configured to function as a first antenna, for receiving and sending a radio frequency signal of a first frequency band; and the smooth curved-surface assembly is configured to function as a second antenna, for receiving and sending a radio frequency signal of a second frequency band; wherein the smooth curved-surface assembly is a surface of revolution that uses a two-dimensional curve in a plane perpendicular to the conductive plane as a generatrix; characterized in that the generatrix of the surface of revolution is determined by an equation z = H (2 x / D) n, wherein n is an order of the symmetrical surface of revolution and n > 1, H is a vertical distance from the conductive plane to a bottom of the surface of revolution at z=0, D is a diameter of an opening of the surface of revolution at z = H, 0 ≤ x ≤ D / 2 and 0≤ z ≤ H.
A method for preparing an analytical sample for analyzing a glycan contained in a sample, comprising: performing a first reaction so that when sialic acid is linked to the glycan, sialic acid of a first linkage type that is at least one of a α2,3-sialic acid, α2,8-sialic acid, and α2,9-sialic acid is lactonized and modification different from lactonization is performed on sialic acid of a second linkage type that is a α2,6-sialic acid; performing a second reaction to ring-open a lactone formed in the first reaction; and performing the first reaction again. performing a first reaction so that when sialic acid is linked to the glycan, sialic acid of a first linkage type that is at least one of a α2,3-sialic acid, α2,8-sialic acid, and α2,9-sialic acid is lactonized and modification different from lactonization is performed on sialic acid of a second linkage type that is a α2,6-sialic acid; performing a second reaction to ring-open a lactone formed in the first reaction; and performing the first reaction again.
An emitter (10, 20, 30) comprising: first and second heaters (5a, 5b) generating heat by energization; an electron source comprising a first material emitting an electron by being heated by the first and second heaters (5a, 5b); and an intermediate member (2, 2a, 2b, 3) interposed between the electron source, and the first and second heaters (5a, 5b), the intermediate member (2, 2a, 2b, 3) comprising a second material lower in thermal conductivity than the first material, wherein the first material is a rare earth boride or a precious metal-rare earth alloy, and the second material is glassy carbon, and wherein a length of a shortest path of the intermediate member (2, 2a, 2b, 3) passing from the heater (5a, 5b) to the electron source is 100 μm or more. first and second heaters (5a, 5b) generating heat by energization; an electron source comprising a first material emitting an electron by being heated by the first and second heaters (5a, 5b); and an intermediate member (2, 2a, 2b, 3) interposed between the electron source, and the first and second heaters (5a, 5b), the intermediate member (2, 2a, 2b, 3) comprising a second material lower in thermal conductivity than the first material, wherein the first material is a rare earth boride or a precious metal-rare earth alloy, and the second material is glassy carbon, and wherein a length of a shortest path of the intermediate member (2, 2a, 2b, 3) passing from the heater (5a, 5b) to the electron source is 100 μm or more.
A polynucleotide of any one selected from the group consisting of (a) to (d) below: (a) a polynucleotide comprising the nucleotide sequence of SEQ ID NO: 1 or 4 and encoding a protein having a glycerol-3-phosphate acyltransferase activity; (b) a polynucleotide encoding a protein consisting of the amino acid sequence of SEQ ID NO: 2 and having a glycerol-3-phosphate acyltransferase activity; (c) a polynucleotide encoding a protein consisting of an amino acid sequence wherein 1 to 70 amino acids are deleted, substituted, inserted and/or added in the amino acid sequence of SEQ ID NO: 2, and having a glycerol-3-phosphate acyltransferase activity; and (d) a polynucleotide encoding a protein having an amino acid sequence having at least 90% homology to the amino acid sequence of SEQ ID NO: 2, and having a glycerol-3-phosphate acyltransferase activity. (a) a polynucleotide comprising the nucleotide sequence of SEQ ID NO: 1 or 4 and encoding a protein having a glycerol-3-phosphate acyltransferase activity; (b) a polynucleotide encoding a protein consisting of the amino acid sequence of SEQ ID NO: 2 and having a glycerol-3-phosphate acyltransferase activity; (c) a polynucleotide encoding a protein consisting of an amino acid sequence wherein 1 to 70 amino acids are deleted, substituted, inserted and/or added in the amino acid sequence of SEQ ID NO: 2, and having a glycerol-3-phosphate acyltransferase activity; and (d) a polynucleotide encoding a protein having an amino acid sequence having at least 90% homology to the amino acid sequence of SEQ ID NO: 2, and having a glycerol-3-phosphate acyltransferase activity.