mhurhangee/ep-ind-claims huggingface dataset:
A packet transmission method, wherein the method comprises: receiving, by a first device, a first packet from a second device, wherein the first packet comprises a primary scheduling identifier, and the primary scheduling identifier is used to identify that the second device has permission to select a first path; determining, by the first device, the first path used to transmit the first packet according to the first packet; and sending, by the first device, a second packet to the second device by using the first path, wherein the second packet comprises a following identifier, and the following identifier is used to identify that the first device sends a packet by using a transmission path selected by a device other than the first device. receiving, by a first device, a first packet from a second device, wherein the first packet comprises a primary scheduling identifier, and the primary scheduling identifier is used to identify that the second device has permission to select a first path; determining, by the first device, the first path used to transmit the first packet according to the first packet; and sending, by the first device, a second packet to the second device by using the first path, wherein the second packet comprises a following identifier, and the following identifier is used to identify that the first device sends a packet by using a transmission path selected by a device other than the first device.
A method for a voice assistant device which can be triggered to switch from a sleep mode to a wake-up mode using a trigger word, the method comprising: receiving, by the voice assistant device, at least one voice input from a user during the wake-up mode of the voice assistance device; identifying, by the voice assistant device, intent associated with the at least one voice input from the user; characterised by determining, by the voice assistant device, a probability of issuance of a subsequent voice input from the user based on at least one of the intent, historic data and one or more contextual factors; determining, by the voice assistant device, an extended wake-up duration of the voice assistant device, when the probability is greater than a predefined threshold value; and extending, by the voice assistant device, a duration of the wake-up mode of the voice assistant device to the extended wake-up duration to receive the subsequent voice input from the user. receiving, by the voice assistant device, at least one voice input from a user during the wake-up mode of the voice assistance device; identifying, by the voice assistant device, intent associated with the at least one voice input from the user; characterised by determining, by the voice assistant device, a probability of issuance of a subsequent voice input from the user based on at least one of the intent, historic data and one or more contextual factors; determining, by the voice assistant device, an extended wake-up duration of the voice assistant device, when the probability is greater than a predefined threshold value; and extending, by the voice assistant device, a duration of the wake-up mode of the voice assistant device to the extended wake-up duration to receive the subsequent voice input from the user.
A fluid reservoir including a neck that defines an opening in which a stopper is engaged, the reservoir being characterized in that the stopper is movable by sliding in the neck between a high closed initial position in which the stopper hermetically closes the opening of the neck, and a low open final position in which at least one feed passage puts the inside of the reservoir into communications with the outside.
An atrial appendage closure device configured, in use, to collapse a left atrial appendage of a heart, comprising: an occluding portion having a first surface and a second surface opposite the first surface, the occluding portion being moveable between a retracted position and a deployed position; and an anchoring portion having a first end connected to the second surface of the occluding portion and a second end positioned away from the second surface of the occluding portion, wherein the anchoring portion is configured to be directly secured to an interior remote wall of the left atrial appendage; wherein the anchoring portion is configured, in use, to be pulled towards the occluding portion such that the sides of the left atrial appendage are pushed outward to collapse the left atrial appendage and keep the left atrial appendage completely collapsed. an occluding portion having a first surface and a second surface opposite the first surface, the occluding portion being moveable between a retracted position and a deployed position; and an anchoring portion having a first end connected to the second surface of the occluding portion and a second end positioned away from the second surface of the occluding portion, wherein the anchoring portion is configured to be directly secured to an interior remote wall of the left atrial appendage;
An apparatus for the cleaning of crankcase gas from an internal combustion engine, the apparatus comprising a centrifugal rotor which is arranged to rotate about a rotational axis and adapted for the cleaning of the crankcase gas in a separation chamber, the centrifugal rotor comprising a drive shaft extending into a drive chamber of the apparatus, wherein a turbine is connected to the drive shaft and a nozzle is arranged to receive pressurized liquid from the combustion engine and to direct the pressurized liquid in a jet from a nozzle opening against the turbine for rotation of the centrifugal rotor, the apparatus being configured with an adapter element such that the apparatus is mountable onto the combustion engine, the adapter element comprising an abutment surface which is arranged to abut against a corresponding abutment surface on the combustion engine, the abutment surface of the adapter element having a drive liquid opening that is arranged to receive the pressurized liquid from a supply opening in the abutment surface of the combustion engine, and the adapter element comprising a drive liquid passage connecting the drive liquid opening with the nozzle, characterized in that the nozzle is integrally formed in one piece with the adapter element with a nozzle passage having a conical shape which converges in the flow direction towards the nozzle opening, in that the conical shape of the nozzle passage converges at least along a major longitudinal portion of the nozzle passage, and in that the nozzle passage comprises a minor longitudinal portion having a cylindrical shape at the nozzle opening, wherein the minor longitudinal portion is several times shorter than the major longitudinal portion having the conical shape.
A method of video coding for a three-dimensional or multi-view video encoding or decoding system, the method comprising: receiving input data associated with a current block in a dependent view; determining a selected three-dimensional coding tool, wherein the three-dimensional coding tool utilizes a derived disparity vector, in the following also referred to as DV,, where the derived DV for the current block is obtained from one or more neighboring block of the current block; determining the availability of the derived DV, wherein it is determined that the derived DV is not available if no DV is obtained from the one or more neighboring blocks of the current block or if no first inter-view reference picture in a first view associated with any obtained DV is in a reference picture list of the current block; applying the selected three-dimensional coding tool to the current block using the derived DV if the derived DV is available; characterized by: if the derived DV is not available, applying the selected three-dimensional coding tool to the current block using a default DV, wherein the default DV is set to point to an inter-view reference picture in one reference picture list of the current block. receiving input data associated with a current block in a dependent view; determining a selected three-dimensional coding tool, wherein the three-dimensional coding tool utilizes a derived disparity vector, in the following also referred to as DV,, where the derived DV for the current block is obtained from one or more neighboring block of the current block; determining the availability of the derived DV, wherein it is determined that the derived DV is not available if no DV is obtained from the one or more neighboring blocks of the current block or if no first inter-view reference picture in a first view associated with any obtained DV is in a reference picture list of the current block; applying the selected three-dimensional coding tool to the current block using the derived DV if the derived DV is available;
A device comprising, a substrate having a surface wherein the substrate comprises an integrated circuit chip, an array of sensors on the substrate surface wherein the sensors are coupled to electronics of the integrated circuit chip and individually addressable through the integrated circuit chip, an immobilized polymerase attached to a surface of a sensor region of a sensor of the array of sensors and complexed with a DNA molecule to be sequenced comprising a hybridized DNA primer, the sensor having a surface-attached electron acceptor or electron donor, a photo sensitizer labeled nucleotide bound to the immobilized polymerase and being complementary to the next base of the DNA molecule to be sequenced, an array of light harvesting antennas on the substrate surface wherein the light harvesting antennas are associated with the array of sensors such that at least one antenna is capable of localizing energy from light illuminating the antenna into a sensor region on the substrate surface for each of the sensors of the array of sensors, wherein at least four antennas are capable of localizing light illuminating the substrate surface into the sensor region of the sensor of the array of sensors, wherein the photosensitizer labeled nucleotide is configured to transfer electrons to the surface-attached electron acceptor and/or electron donor when being excited by being exposed to localized light from the at least four antennas; wherein the sensor is configured to detect the electron transfer.
Device for carrying out a method for conserving an extracorporeal blood treatment device which has a dialysis liquid system with a means for attachment of a sterile filter, which has a first and second appliance-side attachment piece for attachment of a first and second filter-side attachment piece of a sterile filter, and a third appliance-side attachment piece for attachment of a third filter-side attachment piece of the sterile filter, characterized in that the device has a first attachment piece for attachment to the first appliance-side attachment piece, and a second attachment piece for attachment to the second appliance-side attachment piece of the blood treatment device, and also a third attachment piece for attachment to the third appliance-side attachment piece of the blood treatment device, wherein the first and second attachment pieces (20A, 20B) are connected to each other by a first connection line, and the third attachment piece is closed in a sterile manner, and a venting means (23, 24, 25) is provided.
A particle comprising a fusion protein, wherein the fusion protein comprises: at least one NANP repeat (SEQ ID NO: 7), and the C-terminus of the CS protein from Plasmodium falciparum comprising the sequence: the sequence or a sequence with 90%, 95%, 98% or more sequence identity therewith, and a hepatitis B surface antigen, and wherein the particle comprises no free hepatitis B surface antigen protein. at least one NANP repeat (SEQ ID NO: 7), and the C-terminus of the CS protein from Plasmodium falciparum comprising the sequence: the sequence or a sequence with 90%, 95%, 98% or more sequence identity therewith, and a hepatitis B surface antigen, and wherein the particle comprises no free hepatitis B surface antigen protein.
A thermosetting powder coating composition comprising: an unsaturated resin comprising ethylenic unsaturations, that is an unsaturated polymer having i) and ii): i) a theoretical number average molecular weight (M n) of at least 200 and at most 20000 Da, and ii) ethylenic unsaturations which are cis - or trans -configured reactive carbon-carbon double bond unsaturations and do not include aromatic unsaturations, carbon-carbon triple bonds, carbon-heteroatom unsaturations; and wherein the UR is selected from the group consisting of polyester resins, acrylic resins, polyurethanes, epoxy resins, polyamides, polyesteramides, polycarbonates, polyureas and mixtures thereof; and a thermal radical initiator comprising a first thermal radical initiator, wherein, the first thermal radical initiator is a methyl-substituted benzoyl peroxide. an unsaturated resin comprising ethylenic unsaturations, that is an unsaturated polymer having i) and ii): i) a theoretical number average molecular weight (M n) of at least 200 and at most 20000 Da, and ii) ethylenic unsaturations which are cis - or trans -configured reactive carbon-carbon double bond unsaturations and do not include aromatic unsaturations, carbon-carbon triple bonds, carbon-heteroatom unsaturations; and wherein the UR is selected from the group consisting of polyester resins, acrylic resins, polyurethanes, epoxy resins, polyamides, polyesteramides, polycarbonates, polyureas and mixtures thereof; and i) a theoretical number average molecular weight (M n) of at least 200 and at most 20000 Da, and ii) ethylenic unsaturations which are cis - or trans -configured reactive carbon-carbon double bond unsaturations and do not include aromatic unsaturations, carbon-carbon triple bonds, carbon-heteroatom unsaturations; and wherein the UR is selected from the group consisting of polyester resins, acrylic resins, polyurethanes, epoxy resins, polyamides, polyesteramides, polycarbonates, polyureas and mixtures thereof; and a thermal radical initiator comprising a first thermal radical initiator, wherein, the first thermal radical initiator is a methyl-substituted benzoyl peroxide.
A rotor shaft for a high speed motor, the rotor shaft comprising: a shaft body configured for rotational displacement during operation of the high speed motor, the shaft body being constructed from a steel material; and a coating secured to at least a portion of an outer surface of the shaft body, the coating configured to carry an induced electrical current for the rotational displacement of the shaft body, the coating being an alloy material, the alloy material of the coating and the steel material of the shaft body being dissimilar materials, characterized in that the coating is solution heat treated prior to being secured to the shaft body such that ductility and plasticity of the coating is improved, and in that the coating is heat treated after being secured to the shaft body such that the loss of a core property of the steel material of the rotor body blank is minimized. a shaft body configured for rotational displacement during operation of the high speed motor, the shaft body being constructed from a steel material; and a coating secured to at least a portion of an outer surface of the shaft body, the coating configured to carry an induced electrical current for the rotational displacement of the shaft body, the coating being an alloy material, the alloy material of the coating and the steel material of the shaft body being dissimilar materials, characterized in that the coating is solution heat treated prior to being secured to the shaft body such that ductility and plasticity of the coating is improved, and in that the coating is heat treated after being secured to the shaft body such that the loss of a core property of the steel material of the rotor body blank is minimized.
A current converter of the forward converter type for converting a three-phase primary voltage (U1, U2, U3) into a plurality of secondary voltages (ud1... udn), which comprises at least three transformer secondary windings (7, 8, 9), wherein the current converter on its primary side comprises at least three transformers (T1, T2, T3) with respectively two primary windings (1,2; 3,4; 5,6;) wound in opposite directions and respectively at least one secondary winding (7, 8, 9), and two electronic switches (S1, S2) are provided, wherein respectively the first switch controls a primary winding (1, 3, 5) of the three transformers (T1, T2, T3) via a set of diodes (D1.1... D1.6) and wherein the second switch respectively controls another primary winding (2, 4, 6) of the three transformers (T1, T2, T3) via a second set of diodes (D2.1... D2.6), characterized in that the secondary side is designed for operating three UV gas discharge lamps of identical construction in a star connection.
Light-guiding device for a lighting and/or signalling device comprising a guide, configured to transmit the light emitted by a light source (12, 13), and an opaque part positioned opposite said guide to intercept the light being propagated in said guide, characterized in that said opaque part is situated inside said guide, in a zone exhibiting a break along said guide, said break being an angle forming a sharp edge, and in that said opaque part is prolonged outside of the guide.
A ceramic circuit board (100, 101, 102, 103) comprising: a ceramic substrate; and metal layers (2a, 2b) provided to both surfaces of the ceramic substrate and comprising Al and/or Cu, at least one of the metal layers (2a, 2b) forming a metal circuit, characterized in that a measurement value α1 of a linear thermal expansion coefficient of the ceramic circuit board (100, 101, 102, 103) at 25°C to 150°C is 5 × 10 -6 to 9 × 10 -6 /K, and a ratio α1/α2 of the measurement value α1 to a theoretical value α2 of the linear thermal expansion coefficient at 25°C to 150°C is 0.7 to 0.95, the theoretical value α2 is calculated from the following expression: α 2 = ∑ α i ⋅ E i ⋅ V i / ∑ E i ⋅ V i wherein α represents the thermal expansion coefficient, E represents the Young's modulus, V represents the volume fraction, and the subscript i represents each material component in the complex of the ceramic circuit board. a ceramic substrate; and metal layers (2a, 2b) provided to both surfaces of the ceramic substrate and comprising Al and/or Cu, at least one of the metal layers (2a, 2b) forming a metal circuit, characterized in that a measurement value α1 of a linear thermal expansion coefficient of the ceramic circuit board (100, 101, 102, 103) at 25°C to 150°C is 5 × 10 -6 to 9 × 10 -6 /K, and a ratio α1/α2 of the measurement value α1 to a theoretical value α2 of the linear thermal expansion coefficient at 25°C to 150°C is 0.7 to 0.95, the theoretical value α2 is calculated from the following expression: α 2 = ∑ α i ⋅ E i ⋅ V i / ∑ E i ⋅ V i wherein α represents the thermal expansion coefficient, E represents the Young's modulus, V represents the volume fraction, and the subscript i represents each material component in the complex of the ceramic circuit board.
A sensor system, comprising: a planar T-resonator, which includes a conductor having a feedline coupled to a stub and a ground plane; and an oscillator having an input coupled to the planar T-resonator and an output, wherein the oscillator has a negative resistance within a predetermined frequency range and an input phase of the oscillator is approximately equal to a phase of the planar T-resonator over a majority of the predetermined frequency range, wherein the planar T-resonator is applied to a surface of a container, wherein the sensor system is configured to determine a characteristic of fluid in the container based on an obtained resonance frequency, wherein the characteristic of the fluid is a level of the fluid in the container or a concentration of the fluid in the container, wherein the feedline of the planar T-resonator includes a first port terminated by a load and a second port coupled to the input of the oscillator, wherein the feedline of the planar T-resonator includes at least a first pair of symmetrical branches (704 1, 704 2) and a second pair of symmetrical branches (706 1, 706 2) coupled to the stub. a planar T-resonator, which includes a conductor having a feedline coupled to a stub and a ground plane; and an oscillator having an input coupled to the planar T-resonator and an output, wherein the oscillator has a negative resistance within a predetermined frequency range and an input phase of the oscillator is approximately equal to a phase of the planar T-resonator over a majority of the predetermined frequency range, wherein the planar T-resonator is applied to a surface of a container, wherein the sensor system is configured to determine a characteristic of fluid in the container based on an obtained resonance frequency, wherein the characteristic of the fluid is a level of the fluid in the container or a concentration of the fluid in the container, wherein the feedline of the planar T-resonator includes a first port terminated by a load and a second port coupled to the input of the oscillator, wherein the feedline of the planar T-resonator includes at least a first pair of symmetrical branches (704 1, 704 2) and a second pair of symmetrical branches (706 1, 706 2) coupled to the stub.
Method for automatedly aligning a stand for a microscope, wherein the stand for the microscope comprises controllable positioning means for positioning the microscope with respect to translational degrees of freedom and controllable orienting means for orienting the microscope with respect to rotatory degrees of freedom, the method comprising the step: a) Defining a target point to be observed by the microscope, when the microscope is at a position and an orientation, wherein the target point is located within a coordinate range accessible by the stand, and wherein the microscope is aligned with the target point at the position and the orientation; the method characterized by further comprising the steps: b) Stabilizing the microscope at a user determined, different position in an automated manner by means of the controllable positioning means of the stand; c) Adjusting an orientation of the microscope, for realignment of the microscope, at the user determined, different position to the defined target point in an automated manner using the controllable orienting means of the stand. a) Defining a target point to be observed by the microscope, when the microscope is at a position and an orientation, wherein the target point is located within a coordinate range accessible by the stand, and wherein the microscope is aligned with the target point at the position and the orientation; b) Stabilizing the microscope at a user determined, different position in an automated manner by means of the controllable positioning means of the stand; c) Adjusting an orientation of the microscope, for realignment of the microscope, at the user determined, different position to the defined target point in an automated manner using the controllable orienting means of the stand.