mhurhangee/ep-ind-claims huggingface dataset:
A system, comprising: a cathode comprising a cathode tube; a thermionic emitter installed at least partially within the cathode tube; and a heater surrounding the cathode tube and configured to heat the thermionic emitter, characterized in that the heater is a graphite heater being in a shape of a hollow circular cylinder, the graphite heater comprising: a first end; a second end opposite the first end; a plurality of hollow ceramic insulating tubes that each run from the first end to the second end; and a heater wire that runs through each of the hollow ceramic insulating tubes, the heater wire configured to be resistively heated by an electrical current passed through the heater wire. a cathode comprising a cathode tube; a thermionic emitter installed at least partially within the cathode tube; and a heater surrounding the cathode tube and configured to heat the thermionic emitter, characterized in that the heater is a graphite heater being in a shape of a hollow circular cylinder, the graphite heater comprising: a first end; a second end opposite the first end; a plurality of hollow ceramic insulating tubes that each run from the first end to the second end; and a heater wire that runs through each of the hollow ceramic insulating tubes, the heater wire configured to be resistively heated by an electrical current passed through the heater wire. a first end; a second end opposite the first end; a plurality of hollow ceramic insulating tubes that each run from the first end to the second end; and a heater wire that runs through each of the hollow ceramic insulating tubes, the heater wire configured to be resistively heated by an electrical current passed through the heater wire.
A floor rail for a sliding door system having at least one sliding door element, which extends in a sliding door plane, the floor rail having a guide receiving means to receive a guide counter piece of the sliding door element for guiding the sliding door element in a sliding door direction along the sliding door plane, further having an attachment section for attaching the floor rail to a floor section, wherein the floor rail has a base element, on which the attachment section is arranged, and also has a guide element, on which the guide receiving means is arranged, wherein the base element has an arrangement section and the guide element has a counter arrangement section for arranging the guide element on the base element so as to be adjustable at least partially in a direction transverse to the sliding door plane, characterized in that the guide receiving means has roller guide surfaces for guiding a guide counter piece formed as a roller element and sliding guide surfaces for guiding a guide counter piece formed as a sliding element, wherein the roller guide surfaces and sliding guide surfaces are arranged at a right angle to one another, whereby the entire guide receiving means has an omega-like shape as a whole and wherein the guide element is formed shorter in relation to the sliding door direction than the base element such that, after the guide element is mounted on the base element, at least at one end of the floor rail, an insertion aid is provided for the guide counter piece of the sliding door element.
A CRIg variant comprising an amino acid substitution at one or more amino acid positions selected from the group consisting of positions 8, 14, 18, 42, 44, 45, 60, 64, 86, 99, 105, and 110 in the amino acid sequence of SEQ ID NO: 2, which has at least 2-fold increased binding affinity to C3b over native sequence human CRIg of SEQ ID NO: 2, and/or which is at least a 2-fold more potent inhibitor of the alternative complement pathway than native sequence human CRIg of SEQ ID NO: 2.
An image data processing method for performing the following steps 1 to 5 for handling a product in which a specific image is applied to a specific article, the method comprising: (step 1) a step of converting image data corresponding to the image to generate image data, wherein variables of the image data to be converted and amount of conversion are set according to characteristics of the image and a type of the article; (step 2) a step of converting image data corresponding to the article to generate image data corresponding to a surface state of a region of the article on which the image is printed, by using both the conversion to grayscale image data and the blurring of the image data; (step 3) a step of generating image data by synthesizing the image data and the image data; (step 4) a step of converting a value corresponding to one or more of hue, brightness, chroma, transparency, and sharpness of the image data to generate image data; and (step 5) a step of generating image data corresponding to the product by synthesizing the image data and the image data. (step 1) a step of converting image data corresponding to the image to generate image data, wherein variables of the image data to be converted and amount of conversion are set according to characteristics of the image and a type of the article; (step 2) a step of converting image data corresponding to the article to generate image data corresponding to a surface state of a region of the article on which the image is printed, by using both the conversion to grayscale image data and the blurring of the image data; (step 3) a step of generating image data by synthesizing the image data and the image data; (step 4) a step of converting a value corresponding to one or more of hue, brightness, chroma, transparency, and sharpness of the image data to generate image data; and (step 5) a step of generating image data corresponding to the product by synthesizing the image data and the image data.
A method performed by a first network node (110, 300) of a wireless communication network, the first network node being arranged for wireless communication with a wireless communication device, the method comprising: - triggering sending of a message from the first network node to the wireless communication device, the message comprising instructions related to measurements by the wireless communication device on a signal received by the wireless communication device from a network node (110; 120) of the wireless communication network, the instructions comprising a first measurement condition and a second measurement condition and that both the first measurement condition and the second measurement condition have to be fulfilled for the wireless communication device to report at least one of the measurements to the wireless communication network, wherein the first measurement condition is related to a cell level measurement and the second measurement condition is related to beam level measurement information. - triggering sending of a message from the first network node to the wireless communication device, the message comprising instructions related to measurements by the wireless communication device on a signal received by the wireless communication device from a network node (110; 120) of the wireless communication network, the instructions comprising a first measurement condition and a second measurement condition and that both the first measurement condition and the second measurement condition have to be fulfilled for the wireless communication device to report at least one of the measurements to the wireless communication network,
A system for generating an output signal comprising a high frequency component from an input audio signal comprising a low frequency component using a transposition order T, comprising: an analysis window unit configured to apply an analysis window of a length of L A samples, thereby extracting a frame of the input signal; an analysis transformation unit of order M and having a frequency resolution Δ f configured to transform the L A samples into M complex coefficients; a nonlinear processing unit (643,644, 650), configured to alter the phase of the complex coefficients by using the transposition order T; a synthesis transformation unit of order M and having a frequency resolution Q Δ f, configured to transform the altered coefficients into M time domain samples; wherein Q is a frequency resolution factor smaller than or equal to the transposition order T; and a synthesis window unit configured to apply a synthesis window of a length of L s samples to the M time domain samples, thereby generating a frame of the output signal; wherein L A is equal to L S and M is greater than or equal to ( QL A +L s) / 2. an analysis window unit configured to apply an analysis window of a length of L A samples, thereby extracting a frame of the input signal; an analysis transformation unit of order M and having a frequency resolution Δ f configured to transform the L A samples into M complex coefficients; a nonlinear processing unit (643,644, 650), configured to alter the phase of the complex coefficients by using the transposition order T; a synthesis transformation unit of order M and having a frequency resolution Q Δ f, configured to transform the altered coefficients into M time domain samples; wherein Q is a frequency resolution factor smaller than or equal to the transposition order T; and a synthesis window unit configured to apply a synthesis window of a length of L s samples to the M time domain samples, thereby generating a frame of the output signal;
Aerosol-generating article having a longitudinal extension, the article comprising aerosol-forming substrate (20,21) extending along the longitudinal extension and susceptor material (30,31) extending along the longitudinal extension, wherein the aerosol-forming substrate and the susceptor material are coextruded to form an extrudate having a same cross-sectional shape along a length of the extrudate, wherein the aerosol-forming substrate (20,21) and the susceptor material (30,31) are hollow-shaped, forming a hollow extrudate.
Material for a shoe upper, in particular for soccer shoes, comprising: a. an inner polyurethane layer; b. an outer polyurethane layer; c. wherein the inner polyurethane layer and the outer polyurethane layer comprise thermoset polyurethane; and d. a textile reinforcing layer (20, 35, 37) which is arranged between the inner polyurethane layer and the outer polyurethane layer; e. wherein the textile reinforcing layer (20, 35, 37) comprises apertures (36, 38, 41) and the inner polyurethane layer and the outer polyurethane layer are connected to each other through the apertures (36, 38, 41) of the textile reinforcing layer (20, 35, 37); and characterised in that the apertures (36, 38, 41) each comprise an area ranging from 0.25 mm 2 - 9 mm 2. a. an inner polyurethane layer; b. an outer polyurethane layer; c. wherein the inner polyurethane layer and the outer polyurethane layer comprise thermoset polyurethane; and d. a textile reinforcing layer (20, 35, 37) which is arranged between the inner polyurethane layer and the outer polyurethane layer; e. wherein the textile reinforcing layer (20, 35, 37) comprises apertures (36, 38, 41) and the inner polyurethane layer and the outer polyurethane layer are connected to each other through the apertures (36, 38, 41) of the textile reinforcing layer (20, 35, 37); and
Process for yarn spinning, wherein • a yarn runs between a yarn feeding means towards a yarn picking means, through; ∘ tension means comprising a cursor that is coupled to a bobbin rail connected to the yarn picking means, ∘ twisting means wherein the twisting means comprises the bobbin rail having a diameter DB and, ∘ guiding means, • the said yarn picking means being connected to driving means to rotate the yarn picking means at a predetermined speed, • a stretch of balloon is generated in a point located within the distance LB which corresponds to the distance between the guiding means and the twisting means, characterized in that, during the yarn spinning process, the distance LB is 5 to 25 times the diameter DB of the twisting means, such that at least a hyperboloid structure forming at least two stretches of balloon consecutive to each other is created without recourse to apparatus elements along the distance LB. • a yarn runs between a yarn feeding means towards a yarn picking means, through; ∘ tension means comprising a cursor that is coupled to a bobbin rail connected to the yarn picking means, ∘ twisting means wherein the twisting means comprises the bobbin rail having a diameter DB and, ∘ guiding means, ∘ tension means comprising a cursor that is coupled to a bobbin rail connected to the yarn picking means, ∘ twisting means wherein the twisting means comprises the bobbin rail having a diameter DB and, ∘ guiding means, • the said yarn picking means being connected to driving means to rotate the yarn picking means at a predetermined speed, • a stretch of balloon is generated in a point located within the distance LB which corresponds to the distance between the guiding means and the twisting means,
A method of preparing an SOI substrate having a backside roughened, comprising the steps of: etching 10 nm or more of a surface of a silicon film of an SOI substrate; sandblasting the backside of the SOI substrate with protective tape attached to the etched surface of the silicon film, the backside being the other side of the SOI substrate from the etched surface; removing the protective tape after the sandblasting; and polishing and cleaning a silicon film surface from which the protective tape has been removed. etching 10 nm or more of a surface of a silicon film of an SOI substrate; sandblasting the backside of the SOI substrate with protective tape attached to the etched surface of the silicon film, the backside being the other side of the SOI substrate from the etched surface; removing the protective tape after the sandblasting; and polishing and cleaning a silicon film surface from which the protective tape has been removed.
A method for granting medium access to a node in a wireless mesh network, the network comprising a plurality of nodes, and the method comprising each node of the plurality of nodes performing the steps of - determining the number of nodes of the wireless mesh network in its carrier sense range, - distributing the minimum number of nodes in the carrier sense range of any node in the wireless mesh network, - determining, based on the determined number of nodes in its carrier sense range and on the distributed minimum number of nodes, a medium access rate to be used, the medium access rate determining how often the node senses the medium in order to transmit data throughout the wireless mesh network wherein the medium access rate is determined according to the rule: nodes with few nodes in their carrier sense range set the access rate to a relatively lower value than nodes with many nodes in their carrier sense range. - determining the number of nodes of the wireless mesh network in its carrier sense range, - distributing the minimum number of nodes in the carrier sense range of any node in the wireless mesh network, - determining, based on the determined number of nodes in its carrier sense range and on the distributed minimum number of nodes, a medium access rate to be used, the medium access rate determining how often the node senses the medium in order to transmit data throughout the wireless mesh network
A system for producing a hardenable mass, preferably bone substitute and/or bone reinforcing material or bone cement or similar material, the system comprising a device for producing the hardenable mass and a screw device; wherein the device for producing the hardenable mass includes a mixing means and a mixing container, said mixing container having a mixing space in which at least one powder and at least one liquid component (5, 6) are mixed to produce the hardenable mass and in which a piston means is provided to discharge the hardenable mass from said mixing space, wherein the screw device is adapted to be connected to the mixing container, wherein the screw device includes a nut-like member and a screw-like member which is adapted to be screwed into the nut-like member and wherein the screw-like member is adapted to be located on an operating handle or similar forming part of a mixing means such that the screw-like member can move the piston means in a direction by screwing said screw-like member into the nut-like member by means of the operating handle, thereby discharging the hardenable mass from the mixing space; characterized in that the nut-like member is adapted to be located on the mixing container such that said screw device is non-rotatable relative to the mixing container and that the screw-like member is adapted to be located on an operating handle or similar forming part of a mixing means such that the operating handle and the screw-like member are nonrotatably connected to each other.
System for environmental control of an aircraft cabin, comprising: - a device for bleeding compressed air from at least one supercharger of the aircraft engine, - an air cycle turbine engine comprising at least one supercharger and a turbine which are mechanically coupled together, said supercharger comprising an air inlet connected to said device for bleeding compressed air from at least one supercharger by means of a duct referred to as a bleed duct, and said turbine comprising an air outlet connected to the cabin by a duct referred to as a cabin inlet duct, in order to be able to supply the cabin with air at a controlled pressure and temperature, characterised in that it further comprises: - a blading which has a variable injection cross section and is mounted on said turbine of said air cycle turbine engine so as to be able to modify, on command, the flow rate of air supplying an air inlet of said turbine, - a second supercharger mounted on said air cycle turbine engine and comprising an air inlet connected to a device for bleeding outside air and an outlet in fluid communication with said cabin inlet duct. - a device for bleeding compressed air from at least one supercharger of the aircraft engine, - an air cycle turbine engine comprising at least one supercharger and a turbine which are mechanically coupled together, said supercharger comprising an air inlet connected to said device for bleeding compressed air from at least one supercharger by means of a duct referred to as a bleed duct, and said turbine comprising an air outlet connected to the cabin by a duct referred to as a cabin inlet duct, in order to be able to supply the cabin with air at a controlled pressure and temperature, - a blading which has a variable injection cross section and is mounted on said turbine of said air cycle turbine engine so as to be able to modify, on command, the flow rate of air supplying an air inlet of said turbine, - a second supercharger mounted on said air cycle turbine engine and comprising an air inlet connected to a device for bleeding outside air and an outlet in fluid communication with said cabin inlet duct.
A negative pressure wound therapy system with exudate level detection through photoelectric total internal reflection or respectively through ultrasonic total internal reflection comprising: a negative pressure wound therapy device comprising a negative pressure source and a controller; a fluid collection canister for collecting exudates, wherein a side wall of the fluid collection canister protrudes outward to form a protrusion, an angle θ formed by two planes where two opposite sides of the protrusion are located respectively is greater than 97.2 degrees and smaller than 180 degrees; and at least one detecting module, comprising: a transmitting unit arranged at one side of the protrusion, wherein the transmitting unit is adapted to transmit an electromagnetic wave or ultrasonic wave signal to the fluid collection canister; a receiving unit arranged at the other side of the protrusion, wherein the receiving unit is adapted to receive the electromagnetic wave or ultrasonic wave signal refracted by the fluid collection canister; and a detection control unit, adapted to determine, according to a determination of whether the receiving unit receives the electromagnetic wave or ultrasonic wave signal, whether there exist exudates where the detecting unit is located. a negative pressure wound therapy device comprising a negative pressure source and a controller; a fluid collection canister for collecting exudates, wherein a side wall of the fluid collection canister protrudes outward to form a protrusion, an angle θ formed by two planes where two opposite sides of the protrusion are located respectively is greater than 97.2 degrees and smaller than 180 degrees; and at least one detecting module, comprising: a transmitting unit arranged at one side of the protrusion, wherein the transmitting unit is adapted to transmit an electromagnetic wave or ultrasonic wave signal to the fluid collection canister; a receiving unit arranged at the other side of the protrusion, wherein the receiving unit is adapted to receive the electromagnetic wave or ultrasonic wave signal refracted by the fluid collection canister; and a detection control unit, adapted to determine, according to a determination of whether the receiving unit receives the electromagnetic wave or ultrasonic wave signal, whether there exist exudates where the detecting unit is located. a transmitting unit arranged at one side of the protrusion, wherein the transmitting unit is adapted to transmit an electromagnetic wave or ultrasonic wave signal to the fluid collection canister; a receiving unit arranged at the other side of the protrusion, wherein the receiving unit is adapted to receive the electromagnetic wave or ultrasonic wave signal refracted by the fluid collection canister; and a detection control unit, adapted to determine, according to a determination of whether the receiving unit receives the electromagnetic wave or ultrasonic wave signal, whether there exist exudates where the detecting unit is located.