mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for communication with a base station, configured to: generate an indicator of channel conditions for the apparatus, and select transmitting the indicator to the base station using a first physical channel if the first physical channel is available and select transmitting the indicator to the base station using a second physical channel if the first physical channel is not available, wherein the first physical channel is scheduled by a scheduler in the base station, wherein a plurality of channels are multiplexed together on to the first physical channel, the indicator being allocated to a first channel of the plurality of channels and uplink data being allocated to a second channel of the plurality of channels, and wherein the second channel employs a retransmission scheme for the uplink data. generate an indicator of channel conditions for the apparatus, and select transmitting the indicator to the base station using a first physical channel if the first physical channel is available and select transmitting the indicator to the base station using a second physical channel if the first physical channel is not available, wherein the first physical channel is scheduled by a scheduler in the base station, wherein a plurality of channels are multiplexed together on to the first physical channel, the indicator being allocated to a first channel of the plurality of channels and uplink data being allocated to a second channel of the plurality of channels, and wherein the second channel employs a retransmission scheme for the uplink data.
Method for operating a gas burner, wherein during burner-on phases a gas/air mixture having a defined mixing ratio of gas and air is provided to a burner chamber of the gas burner for combusting the gas/air mixture within the burner chamber, wherein the gas/air mixture is provided by mixing an air flow sucked in by a fan with a gas flow, and wherein the defined mixing ratio of the gas/air mixture is controlled by comparing an actual value of a signal provided by an electrical or electronic sensor coupled to a gas duct with a nominal value for the signal provided by the electrical or electronic sensor and by generating a control variable for a gas valve assigned to the gas duct on basis of the control deviation between the actual value and the nominal value, wherein the actual value provided by the electrical or electronic sensor corresponds to a pressure ratio between the gas pressure in the gas duct and the air pressure at a reference point, characterized in that the mixing ratio of the gas/air mixture is changed depending on the speed of the fan, whereby the variation of the mixing ratio of the gas/air mixture as a function of the fan speed is allowed only at defined operating conditions of the gas burner, namely if the variation of the fan speed is lower than a variation threshold for a time period being greater than a time threshold, and wherein if the defined operating conditions are not fulfilled, the variation of the mixing ratio of the gas/air mixture as a function of the fan speed is blocked.
Method for supplying propulsive and/or non-propulsive power in a helicopter architecture comprising an on-board power supply network, a main traction system (5a, 5b) coupled to a mechanical transmission system (11a to 11d, 40) which drives propulsion members (41, 4) during flight, wherein a system for converting mechanical/electrical energy (6, 6a, 6b, 7, 8, 8a, 8b) coupled to the mechanical transmission system (11a to 11d, 40) and/or to the main traction system (5a, 5b) provides non-propulsive power to the on-board power supply network, the method consisting of coupling, by means of energy conversion, an additional auxiliary engine (3, 10, 30) to the on-board network, in order to provide said network, on the ground, with non-propulsive power, as well as to the main traction system (5a, 5b) for its start-up, and in order to be able to provide, during flight, non-propulsive power to the on-board network, in addition to and ultimately instead of the drawing-off carried out on the mechanical transmission system (11a to 11d, 40) and/or the main traction system (5a, 5b), the auxiliary engine (3, 10, 30) additionally being capable of also providing electrical energy to a dedicated traction system (7, 8a) on the mechanical transmission system (11a to 11d, 40) in order to increase or partially provide the propulsive power.
An apparatus comprising: a memory configured for storing instructions; and a control unit configured for executing the instructions to: detect a real object of interest within an image of real space; detect an orientation and a position of the real object; generate a modified image, the generating comprising: determine a region of the image of real space based on the detected orientation and position of the real object; display a virtual object in the region of the image of the real space; move the virtual object within the region of the image of the real space based on a detected user input; and display the modified image. a memory configured for storing instructions; and a control unit configured for executing the instructions to: detect a real object of interest within an image of real space; detect an orientation and a position of the real object; generate a modified image, the generating comprising: determine a region of the image of real space based on the detected orientation and position of the real object; display a virtual object in the region of the image of the real space; move the virtual object within the region of the image of the real space based on a detected user input; and display the modified image. detect a real object of interest within an image of real space; detect an orientation and a position of the real object; generate a modified image, the generating comprising: determine a region of the image of real space based on the detected orientation and position of the real object; display a virtual object in the region of the image of the real space; move the virtual object within the region of the image of the real space based on a detected user input; and display the modified image. determine a region of the image of real space based on the detected orientation and position of the real object; display a virtual object in the region of the image of the real space; move the virtual object within the region of the image of the real space based on a detected user input; and display the modified image.
A method for producing a traffic area or road traffic area, particularly in the course of restoring or retrofitting an already existing traffic area (existing roadway), wherein at least one precast concrete slab is deposited on an installation substructure, wherein a plurality of installation elements are encased in the precast concrete slab, wherein the installation elements respectively have on the one hand at least one filling channel, which extends through the precast concrete slab and serves for filling or pressing in a grouting material, and on the other hand at least one adjusting element for the height adjustment of the precast concrete slab, wherein the height adjustment is carried out with the adjusting elements after depositing the precast concrete slab on the installation substructure by respectively adjusting the vertical distance a of the precast concrete slab from the installation substructure, and wherein grouting material is pressed into the intermediate space between the precast concrete slab and the installation substructure through the filling channels, characterized in that at least one grouting material channel and preferably at least two grouting material channels for distributing the grouting material are provided in the underside of a precast concrete slab facing the installation substructure, wherein a mixture of at least two components is used as grouting material, and wherein one component is an organic polymer and one component is an inorganic silicon compound. wherein the height adjustment is carried out with the adjusting elements after depositing the precast concrete slab on the installation substructure by respectively adjusting the vertical distance a of the precast concrete slab from the installation substructure, and wherein grouting material is pressed into the intermediate space between the precast concrete slab and the installation substructure through the filling channels, characterized in that at least one grouting material channel and preferably at least two grouting material channels for distributing the grouting material are provided in the underside of a precast concrete slab facing the installation substructure, wherein a mixture of at least two components is used as grouting material, and wherein one component is an organic polymer and one component is an inorganic silicon compound.
A computer-implemented method for assessing and managing network security for an industrial control system network, comprising: retrieving topology data and network traffic data with a processor, wherein the topology data is indicative of every device of the network; retrieving, via the processor, network flow data from a plurality of network data collectors (300, 228, 232, 236, 240); the plurality of network data collectors (300, 228, 232, 236, 240) passively collecting information, including network flow data, directly from network zones via packet captures without intrusive probing operations; generating, via the processor, an attack tree based on the topology data and the network flow data; updating, by the processor, a customer model database with the attack tree and the topology data; outputting, by the processor, a security assessment based on the attack tree and the topology data; and the plurality of network data collectors (300, 228, 232, 236, 240) allowing information to pass in only one direction. retrieving topology data and network traffic data with a processor, wherein the topology data is indicative of every device of the network; retrieving, via the processor, network flow data from a plurality of network data collectors (300, 228, 232, 236, 240); the plurality of network data collectors (300, 228, 232, 236, 240) passively collecting information, including network flow data, directly from network zones via packet captures without intrusive probing operations; generating, via the processor, an attack tree based on the topology data and the network flow data; updating, by the processor, a customer model database with the attack tree and the topology data; outputting, by the processor, a security assessment based on the attack tree and the topology data; and the plurality of network data collectors (300, 228, 232, 236, 240) allowing information to pass in only one direction.
A signal sending method for use in a CDMA system, wherein the CDMA system adopting quick power control QPC technology and automatic gain control AGC technology, comprising: setting transmit power of a UE after an uplink power amplifier PA of the user equipment UE is turned off, wherein the set transmit power of the UE is less than maximum output power of the uplink PA; and sending a signal at the set transmit power of the UE when the PA is started. setting transmit power of a UE after an uplink power amplifier PA of the user equipment UE is turned off, wherein the set transmit power of the UE is less than maximum output power of the uplink PA; and sending a signal at the set transmit power of the UE when the PA is started.
An apparatus for processing a blister tube having a plurality of blister bags (210, 211, 212), in particular for separating blister bags (210, 211, 212) of a medicament blister tube, the apparatus having a guide element and a separating element which is arranged on the guide element in a translationally movable manner and is intended for severing the blister tube at least in regions, the separating element having at least one circular blade, a first drive device being provided for driving a translational movement of the separating element, in particular along the guide element, characterized in that a second drive means for driving the circular blade in a rotational movement is provided, the apparatus having a transport apparatus for conveying at least one blister bag (210, 211, 212) of the blister tube, the transport apparatus having a first transport roller pair with a first transport roller and a second transport roller, and a second transport roller pair with a third transport roller and a fourth transport roller, at least one transport roller (172a, 172b) of the first transport roller pair and at least one transport roller (174a, 174b) of the second transport roller pair being drivable independently of one another, the separating element being arranged between the first transport roller pair and the second transport roller pair.
A construction machine, comprising: a lower traveling body; an upper rotating body mounted on said lower traveling body rotatably around a vertical axis; a cabin installed on one of left or right sides of an upper frame constructing said upper rotating body; and a boom whose base end is attached to said upper frame by a boom foot pin on the inner side of said upper frame to said cabin; various devices installed on said upper frame, the devices being installed on the laterally opposite side of said upper frame to said cabin in a state that a pin insertion and removal space sufficient for inserting and removing said boom foot pin in the axial direction is ensured, a side cover for covering a side surface part on the laterally opposite side of said upper frame to said cabin; a front cover for covering a front surface and an upper surface of the laterally opposite side to said cabin, wherein said pin insertion and removal space is formed within a device chamber covered by both said side cover and said front cover, and characterized in that the construction machine further comprises a pin guide for guiding said boom foot pin in the insertion and removal direction, the pin guide being provided in said pin insertion and removal space, and a bracket provided in said pin insertion and removal space; wherein said pin guide, a side cover attachment portion for attaching said side cover and a front cover attachment portion for attaching said front cover are provided in said bracket. a lower traveling body; an upper rotating body mounted on said lower traveling body rotatably around a vertical axis; a cabin installed on one of left or right sides of an upper frame constructing said upper rotating body; and a boom whose base end is attached to said upper frame by a boom foot pin on the inner side of said upper frame to said cabin; various devices installed on said upper frame, the devices being installed on the laterally opposite side of said upper frame to said cabin in a state that a pin insertion and removal space sufficient for inserting and removing said boom foot pin in the axial direction is ensured, a side cover for covering a side surface part on the laterally opposite side of said upper frame to said cabin; a front cover for covering a front surface and an upper surface of the laterally opposite side to said cabin, wherein said pin insertion and removal space is formed within a device chamber covered by both said side cover and said front cover, and characterized in that the construction machine further comprises a pin guide for guiding said boom foot pin in the insertion and removal direction, the pin guide being provided in said pin insertion and removal space, and a bracket provided in said pin insertion and removal space; wherein said pin guide, a side cover attachment portion for attaching said side cover and a front cover attachment portion for attaching said front cover are provided in said bracket.
A method of identifying an individual having a renal cell carcinoma who may benefit from treatment with an anti-cancer therapy comprising bevacizumab and atezolizumab; wherein the individual has not been previously treated for the renal cell carcinoma and the method comprises determining the expression level of CD8A, IFNG, PRF1, EOMES and PD-L1 in a sample from the individual, wherein an expression level of CD8A, IFNG, PRF1, EOMES and PD-L1 in the sample that is at or above a reference expression level of CD8A, IFNG, PRF1, EOMES and PD-L1 identifies the individual as one who may benefit from treatment with bevaziumab and atezolizumab.
A host cell comprising a first exogenous nucleic acid sequence encoding a membrane protein and a second exogenous nucleic acid encoding a nanobody that specifically binds to an extracellular or an intracellular conformational epitope of said membrane protein, each under the control of a promoter.
A coating comprising a shell structure, wherein said shell structure comprises: - a first layer comprising one or more affinity molecules for capturing a specific target biomolecule in a sample, wherein the one or more affinity molecules are conjugated to a non-affine spacer molecule, wherein the non-affine spacer molecules comprise a molecule selected from the group consisting of peptides, nucleic acids, dendrimers, dendrons, polyethylene glycol, or a mixture thereof, - wherein the bioconjugation has been performed such that more than one non-affine spacer molecule is coupled to the affinity molecule, - a second layer, which is coupled to the first layer, comprising non-affine spacer molecules and - multivalent binding molecules with multiple binding sites, such as streptavidin, Wherein first and second layer further comprise an interaction partner, such as biotin, bound to said non affine-spacer molecules, for interacting with the multivalent binding molecules, wherein a mesh of non-affine spacer molecules is formed by the interaction of the multivalent binding molecules and interaction partners, wherein said one or more affinity molecules are embedded within the coating structure and wherein said mesh generates a steric hindrance for non-specific molecules, and wherein the first layer is to be coupled to a particle surface, a flat surface, matrix, or a nanoparticle surface - a first layer comprising one or more affinity molecules for capturing a specific target biomolecule in a sample, wherein the one or more affinity molecules are conjugated to a non-affine spacer molecule, wherein the non-affine spacer molecules comprise a molecule selected from the group consisting of peptides, nucleic acids, dendrimers, dendrons, polyethylene glycol, or a mixture thereof, - wherein the bioconjugation has been performed such that more than one non-affine spacer molecule is coupled to the affinity molecule, - a second layer, which is coupled to the first layer, comprising non-affine spacer molecules and - multivalent binding molecules with multiple binding sites, such as streptavidin,
A preprocessing device comprising: a container holding section configured to hold a plurality of containers including a separation container with a separating layer through which a specific component in a sample is separated and a collection container for collecting a sample extracted by the separating layer; a filtration section configured to separate a sample by the separating layer by applying pressure to a sample in the separation container; and a transport section configured to transport a container held by the container holding section from a predetermined transport position, wherein the container holding section holds the plurality of containers in an annular or arch-shaped holding region formed on an outer circumference of the filtration section, and sequentially moves the plurality of containers to the transport position by shifting the plurality of containers in a circumferential direction of the holding region. a container holding section configured to hold a plurality of containers including a separation container with a separating layer through which a specific component in a sample is separated and a collection container for collecting a sample extracted by the separating layer; a filtration section configured to separate a sample by the separating layer by applying pressure to a sample in the separation container; and a transport section configured to transport a container held by the container holding section from a predetermined transport position, wherein the container holding section holds the plurality of containers in an annular or arch-shaped holding region formed on an outer circumference of the filtration section, and sequentially moves the plurality of containers to the transport position by shifting the plurality of containers in a circumferential direction of the holding region.
A non-oriented electrical steel sheet consisting of: C: more than 0.001 to 0.005 mass%; S: more than 0.0005 to 0.003 mass%; N: more than 0.001 to 0.003 mass%; Si: 2.0 mass% or more and less than 4.5 mass%; Al: 0.15 mass% or more and less than 2.5 mass%; and Cr: 0.3 mass% or more and less than 5.0 mass%; Mn: 0.2 to 1.5 mass%; optionally at least one selected from the group of Sn, Cu, Ni and Sb with an amount of 0.20% or less and a balance being composed of Fe and inevitable impurities; and a Cr oxide layer having a thickness of not less than 0.01 μm and not more than 0.5 μm on a surface side, wherein Expression 1 and Expression 2 below are further satisfied, and a sheet thickness of the non-oriented electrical steel sheet is 0.1 mm to 0.35 mm, 10 mass % ≦ 2 Si + 2 Al + Cr < 15 mass % 2 Al + Cr / 2 Si − 10 t 2 ≦ 0.35 where [Si], [Al], and [Cr] represent the Si content, the Al content, and the Cr content (mass%) of the non-oriented electrical steel sheet respectively, and t represents a sheet thickness (mm) of the non-oriented electrical steel sheet. C: more than 0.001 to 0.005 mass%; S: more than 0.0005 to 0.003 mass%; N: more than 0.001 to 0.003 mass%; Si: 2.0 mass% or more and less than 4.5 mass%; Al: 0.15 mass% or more and less than 2.5 mass%; and Cr: 0.3 mass% or more and less than 5.0 mass%; Mn: 0.2 to 1.5 mass%; optionally at least one selected from the group of Sn, Cu, Ni and Sb with an amount of 0.20% or less and a balance being composed of Fe and inevitable impurities; and a Cr oxide layer having a thickness of not less than 0.01 μm and not more than 0.5 μm on a surface side, wherein Expression 1 and Expression 2 below are further satisfied, and a sheet thickness of the non-oriented electrical steel sheet is 0.1 mm to 0.35 mm, 10 mass % ≦ 2 Si + 2 Al + Cr < 15 mass % 2 Al + Cr / 2 Si − 10 t 2 ≦ 0.35 where [Si], [Al], and [Cr] represent the Si content, the Al content, and the Cr content (mass%) of the non-oriented electrical steel sheet respectively, and t represents a sheet thickness (mm) of the non-oriented electrical steel sheet.
A method for changing translucent property of zirconia dental materials, characterized in that the method comprises the steps of: Preparation: preparing a solution of a soluble yttrium salt in water or in alcohol-water with a concentration of 10∼73wt%; Dipping I: dipping a pre-sintered zirconia material in the soluble yttrium salt solution for 0.5∼30 minutes; Drying: allowing the zirconia material to dry; Sintering: sintering the dried zirconia material in a high temperature box resistance furnace at 1400∼1600°C for 2 hours to obtain a final product of a zirconia material comprising tetragonal and cubic phases with gradient translucency. Preparation: preparing a solution of a soluble yttrium salt in water or in alcohol-water with a concentration of 10∼73wt%; Dipping I: dipping a pre-sintered zirconia material in the soluble yttrium salt solution for 0.5∼30 minutes; Drying: allowing the zirconia material to dry; Sintering: sintering the dried zirconia material in a high temperature box resistance furnace at 1400∼1600°C for 2 hours to obtain a final product of a zirconia material comprising tetragonal and cubic phases with gradient translucency.