mhurhangee/ep-ind-claims huggingface dataset:
An infrared-reflective film mounting body, comprising: a plurality of frames; an infrared-reflective film, comprising: a substrate film having two main surfaces composed of one of a polyolefin film and polycycloolefin; and an infrared-reflective layer formed on one main surface of the substrate film, a surface of the formed infrared-reflective layer faces either of air, nitrogen gas, inert gas or a vacuum, and the other main surface of the substrate film faces either of air, nitrogen gas, inert gas or a vacuum; a plurality of transparent glass plates (16; 18) or a plurality of transparent plastic plates (16; 18), the plurality of transparent glass plates (16; 18) or the plurality of transparent plastic plates (16; 18) are respectively fixed to the plurality of frames with respective voids interposed between the transparent glass plates (16; 18) or the transparent plastic plates (16; 18) and the infrared-reflective film, the respective voids are filled with air, nitrogen gas or inert gas, alternatively the voids are a vacuum, respectively, the infrared-reflective film is arranged in the voids so as not to be in contact with the transparent glass plates (16; 18) or the transparent plastic plates (16; 18), and a plurality of edges of the infrared-reflective film are fixed to the frames. a plurality of frames; an infrared-reflective film, comprising: a substrate film having two main surfaces composed of one of a polyolefin film and polycycloolefin; and an infrared-reflective layer formed on one main surface of the substrate film, a surface of the formed infrared-reflective layer faces either of air, nitrogen gas, inert gas or a vacuum, and the other main surface of the substrate film faces either of air, nitrogen gas, inert gas or a vacuum; a substrate film having two main surfaces composed of one of a polyolefin film and polycycloolefin; and an infrared-reflective layer formed on one main surface of the substrate film, a surface of the formed infrared-reflective layer faces either of air, nitrogen gas, inert gas or a vacuum, and the other main surface of the substrate film faces either of air, nitrogen gas, inert gas or a vacuum; a plurality of transparent glass plates (16; 18) or a plurality of transparent plastic plates (16; 18), the plurality of transparent glass plates (16; 18) or the plurality of transparent plastic plates (16; 18) are respectively fixed to the plurality of frames with respective voids interposed between the transparent glass plates (16; 18) or the transparent plastic plates (16; 18) and the infrared-reflective film, the respective voids are filled with air, nitrogen gas or inert gas, alternatively the voids are a vacuum, respectively, the infrared-reflective film is arranged in the voids so as not to be in contact with the transparent glass plates (16; 18) or the transparent plastic plates (16; 18), and a plurality of edges of the infrared-reflective film are fixed to the frames.
A composition comprising: RNA lipoplex particles comprising: RNA, and at least one cationic lipid and at least one additional lipid, sodium chloride at a concentration of from 5 mM to 7.5 mM, a stabilizer at a concentration of 10% weight by volume percent (% w/v) or less, and a buffer, wherein the at least one cationic lipid comprises 1,2-di-O-octadecenyl-3-trimethylammonium propane (DOTMA) and the at least one additional lipid comprises 1,2-di-(9Z-octadecenoyl)-sn-glycero-3-phosphoethanolamine (DOPE) and wherein the stabilizer is sucrose at a concentration from 5 to 10% (w/v). RNA lipoplex particles comprising: RNA, and at least one cationic lipid and at least one additional lipid, RNA, and at least one cationic lipid and at least one additional lipid, sodium chloride at a concentration of from 5 mM to 7.5 mM, a stabilizer at a concentration of 10% weight by volume percent (% w/v) or less, and a buffer, wherein the at least one cationic lipid comprises 1,2-di-O-octadecenyl-3-trimethylammonium propane (DOTMA) and the at least one additional lipid comprises 1,2-di-(9Z-octadecenoyl)-sn-glycero-3-phosphoethanolamine (DOPE) and wherein the stabilizer is sucrose at a concentration from 5 to 10% (w/v).
An optical member comprising: a light guide plate; and an optical sheet on a first surface of the light guide plate, wherein the optical sheet comprises: an adhesive layer and an optical pattern in contact with a first surface of the adhesive layer, wherein the optical pattern comprises a first pattern extending in a first direction, wherein the first pattern comprises a base portion and a pattern portion protruding from the base portion, wherein the optical pattern is coupled with the first surface of the light guide plate via the adhesive layer, and characterized in that said optical pattern comprises a plurality of second patterns having a concave shape recessed from the surface of the pattern portion of the first pattern. a light guide plate; and an optical sheet on a first surface of the light guide plate, wherein the optical sheet comprises: an adhesive layer and an optical pattern in contact with a first surface of the adhesive layer, wherein the optical pattern comprises a first pattern extending in a first direction, wherein the first pattern comprises a base portion and a pattern portion protruding from the base portion, wherein the optical pattern is coupled with the first surface of the light guide plate via the adhesive layer, and characterized in that said optical pattern comprises a plurality of second patterns having a concave shape recessed from the surface of the pattern portion of the first pattern. an adhesive layer and an optical pattern in contact with a first surface of the adhesive layer, wherein the optical pattern comprises a first pattern extending in a first direction, wherein the first pattern comprises a base portion and a pattern portion protruding from the base portion, wherein the optical pattern is coupled with the first surface of the light guide plate via the adhesive layer, and characterized in that said optical pattern comprises a plurality of second patterns having a concave shape recessed from the surface of the pattern portion of the first pattern.
An aerosol-generating device comprising a heating element; a dosing assembly comprising: a cutting mechanism disposed in a cutting region and configured to cut a portion from an aerosol-generating article received by the aerosol-generating device, the cutting mechanism comprising: a punch cutter comprising a hollow core surrounded by a blade; or a first blade with a first cutting direction and a second blade with a second cutting direction; or a blade grid; and a transfer mechanism configured to transfer a cut portion of the aerosol-generating article from the cutting region to the heating element. a heating element; a dosing assembly comprising: a cutting mechanism disposed in a cutting region and configured to cut a portion from an aerosol-generating article received by the aerosol-generating device, the cutting mechanism comprising: a punch cutter comprising a hollow core surrounded by a blade; or a first blade with a first cutting direction and a second blade with a second cutting direction; or a blade grid; and a transfer mechanism configured to transfer a cut portion of the aerosol-generating article from the cutting region to the heating element. a cutting mechanism disposed in a cutting region and configured to cut a portion from an aerosol-generating article received by the aerosol-generating device, the cutting mechanism comprising: a punch cutter comprising a hollow core surrounded by a blade; or a first blade with a first cutting direction and a second blade with a second cutting direction; or a blade grid; and a punch cutter comprising a hollow core surrounded by a blade; or a first blade with a first cutting direction and a second blade with a second cutting direction; or a blade grid; and a transfer mechanism configured to transfer a cut portion of the aerosol-generating article from the cutting region to the heating element.
Method for determining measurement parameters for a coordinate measuring device by way of a control device, comprising: - obtaining a plurality of measurement results, which were acquired by real or simulated measurement of a plurality of workpieces of the same type; - ascertaining at least one region of the workpieces that is critical for the measurement on the basis of the measurement results; and - determining at least one measurement parameter of the coordinate measuring device for measuring the critical region; characterized in that a sensor type used, and in particular a measurement uncertainty of the sensor type, is taken into account in the ascertainment of a critical region, and/or a workpiece region is ascertained as a critical region if a predetermined error pattern is ascertained in this workpiece region. - obtaining a plurality of measurement results, which were acquired by real or simulated measurement of a plurality of workpieces of the same type; - ascertaining at least one region of the workpieces that is critical for the measurement on the basis of the measurement results; and - determining at least one measurement parameter of the coordinate measuring device for measuring the critical region; a sensor type used, and in particular a measurement uncertainty of the sensor type, is taken into account in the ascertainment of a critical region, and/or a workpiece region is ascertained as a critical region if a predetermined error pattern is ascertained in this workpiece region.
A soldering apparatus for performing soldering, comprising a blowing unit that supplies gas to an object, wherein the blowing unit includes a case including a first blowing chamber, a fan housed in the first blowing chamber to blow the gas in a centrifugal direction, a first baffle plate, and a heater that heats the gas or a cooling unit that cools the gas, the case includes a first wall that faces the fan in an axial direction of the fan, a second wall that faces the first wall, and an inner wall connecting the first wall and the second wall, and the first wall, the second wall and the inner wall define the first blowing chamber, characterized in that in the first wall, a first blowing port is formed, the first baffle plate is disposed in the first blowing chamber to guide part of the gas blown from the fan to the first blowing port the first baffle plate includes a first edge and a second edge located on a side opposite to the first edge, and extends from the second edge located at a position via a space from the second wall in the axial direction, in a direction away from the second wall, and the first baffle plate extends from the second edge in the axial direction, in the direction away from the second wall, to reach at least the first blowing port. a blowing unit that supplies gas to an object, wherein the blowing unit includes a case including a first blowing chamber, a fan housed in the first blowing chamber to blow the gas in a centrifugal direction, a first baffle plate, and a heater that heats the gas or a cooling unit that cools the gas, the case includes a first wall that faces the fan in an axial direction of the fan, a second wall that faces the first wall, and an inner wall connecting the first wall and the second wall, and the first wall, the second wall and the inner wall define the first blowing chamber, characterized in that in the first wall, a first blowing port is formed, the first baffle plate is disposed in the first blowing chamber to guide part of the gas blown from the fan to the first blowing port the first baffle plate includes a first edge and a second edge located on a side opposite to the first edge, and extends from the second edge located at a position via a space from the second wall in the axial direction, in a direction away from the second wall, and the first baffle plate extends from the second edge in the axial direction, in the direction away from the second wall, to reach at least the first blowing port.
A method for initiating a communication interface in a wireless communication system, the method comprising at a home eNB, HeNB: discovering a neighbor eNB node at the HeNB, characterized by: receiving, via a network message in response to discovering the neighbor eNB node, an address indication associated with the neighbor eNB node for configuration of the communication interface, wherein the address indication is included in an X2 gateway, X2-GW, transport network layer, TNL address field in a self-organizing network, SON, configuration transfer message; and determining whether to initiate one of a direct communication interface or an indirect communication interface for communication with the neighbor eNB node based on the address indication, comprising determining to initiate an indirect communication interface for communication with the neighbor eNB node if the address indication is the transport network layer, TNL, address of the neighbor eNB node. receiving, via a network message in response to discovering the neighbor eNB node, an address indication associated with the neighbor eNB node for configuration of the communication interface, wherein the address indication is included in an X2 gateway, X2-GW, transport network layer, TNL address field in a self-organizing network, SON, configuration transfer message; and determining whether to initiate one of a direct communication interface or an indirect communication interface for communication with the neighbor eNB node based on the address indication, comprising determining to initiate an indirect communication interface for communication with the neighbor eNB node if the address indication is the transport network layer, TNL, address of the neighbor eNB node.
A system for performing a medical procedure in a region of interest of a patient, the system comprising: an interventional medical device insertable into the region of interest; and a sensor (302, 500, 600, 700, 800) attached to a portion of the interventional medical device, the sensor (302, 500, 600, 700, 800) being configured to convert an ultrasonic wave from an ultrasound imaging probe to a corresponding electrical radio frequency signal; and characterized by: a wireless receiver (501, 701) configured to be disposed outside the region of interest; wherein the wireless receiver (501, 701) is configured to receive the corresponding RF signal, enabling determination of a location of the sensor (302, 500, 600, 700, 800) within the region of interest. an interventional medical device insertable into the region of interest; and a sensor (302, 500, 600, 700, 800) attached to a portion of the interventional medical device, the sensor (302, 500, 600, 700, 800) being configured to convert an ultrasonic wave from an ultrasound imaging probe to a corresponding electrical radio frequency signal; and characterized by: a wireless receiver (501, 701) configured to be disposed outside the region of interest; wherein the wireless receiver (501, 701) is configured to receive the corresponding RF signal, enabling determination of a location of the sensor (302, 500, 600, 700, 800) within the region of interest. a wireless receiver (501, 701) configured to be disposed outside the region of interest; wherein the wireless receiver (501, 701) is configured to receive the corresponding RF signal, enabling determination of a location of the sensor (302, 500, 600, 700, 800) within the region of interest.
A decompression resistant electrical conductor splice for use in joining two armored electrical cables (8, 9; 88, 89), the splice comprising: a plurality of electrical crimp sockets; a plurality of segmented elastomeric sleeves (2A, 2B, 2C; 56), each sleeve providing a longitudinal opening through the sleeve for receiving one of said plurality of electrical crimp sockets, a protective covering extending in use between said two armored electrical cables (8, 9; 88, 89) to be spliced together, said protective covering, in use, covering the sleeves and preventing lateral circumferential expansion of each sleeve upon decompression; and an epoxy sealant being provided, in use, between ends of each of the segmented sleeves and each cable to restrain the sleeves from movement within the protective covering upon decompression; characterised by each crimp socket having a detent on a circumferential surface, and each sleeve having a circumferential ridge for engaging said detent, and the splice further comprising a layer of dielectric grease being provided between each elastomeric sleeve and the outer surface of each electrical crimp socket to facilitate longitudinal placement of the crimp socket in the interior of the sleeve. a plurality of electrical crimp sockets; a plurality of segmented elastomeric sleeves (2A, 2B, 2C; 56), each sleeve providing a longitudinal opening through the sleeve for receiving one of said plurality of electrical crimp sockets, a protective covering extending in use between said two armored electrical cables (8, 9; 88, 89) to be spliced together, said protective covering, in use, covering the sleeves and preventing lateral circumferential expansion of each sleeve upon decompression; and an epoxy sealant being provided, in use, between ends of each of the segmented sleeves and each cable to restrain the sleeves from movement within the protective covering upon decompression; characterised by each crimp socket having a detent on a circumferential surface, and each sleeve having a circumferential ridge for engaging said detent, and the splice further comprising a layer of dielectric grease being provided between each elastomeric sleeve and the outer surface of each electrical crimp socket to facilitate longitudinal placement of the crimp socket in the interior of the sleeve.
A toy assembly, comprising: a housing; an inner object inside the housing; and a breakout mechanism that is associated with the housing and that is operable to break the housing to expose the inner object, wherein the breakout mechanism is powered by a motor that is within the housing and the motor is actuatable from outside the housing, characterised in that the breakout mechanism includes a hammer, positioned in association with the inner object, wherein the motor is operatively connected to the hammer to drive the hammer to impact and break the housing from inside the housing. a housing; an inner object inside the housing; and a breakout mechanism that is associated with the housing and that is operable to break the housing to expose the inner object, wherein the breakout mechanism is powered by a motor that is within the housing and the motor is actuatable from outside the housing, characterised in that the breakout mechanism includes a hammer, positioned in association with the inner object, wherein the motor is operatively connected to the hammer to drive the hammer to impact and break the housing from inside the housing.
A retractor comprising: a spool, a guide being rotatable around at least a portion of a circumference of said spool, and a belt being wound about said spool and being passable through a guide opening in said guide.
A procedure for defining a rotor balancing strategy to reduce mass eccentricity imbalances produced by a first rotor module which in use is attached to one or more further rotor modules to form a spool of a gas turbine engine, the procedure including the steps of: providing a computer model which predicts the vibration amplitude at a given axial position along the spool when the spool is rotated at a given rotational speed; using the model to predict respective vibration amplitudes at the given axial position for different axial positions of a unit unbalance applied to the spool; plotting the predicted vibration amplitudes as data points on a graph of vibration amplitude against axial position of the applied unit unbalance; using the graph to identify axial positions which are more or less likely to contribute to flexing of the spool at the given rotational speed when mass is added or removed from the first rotor module to reduce imbalances at the axial positions; and defining a rotor balancing strategy based on the identification of those axial positions. providing a computer model which predicts the vibration amplitude at a given axial position along the spool when the spool is rotated at a given rotational speed; using the model to predict respective vibration amplitudes at the given axial position for different axial positions of a unit unbalance applied to the spool; plotting the predicted vibration amplitudes as data points on a graph of vibration amplitude against axial position of the applied unit unbalance; using the graph to identify axial positions which are more or less likely to contribute to flexing of the spool at the given rotational speed when mass is added or removed from the first rotor module to reduce imbalances at the axial positions; and defining a rotor balancing strategy based on the identification of those axial positions.
A hybrid vehicle comprising an engine, a rotary machine configured to control a rotation speed (Ne) of the engine, and a control device configured to perform a shifting control to change the rotation speed of the engine as in stepped shifting, wherein when the engine is started and caused to make a transition from a stopped state into an operating state, the control device performs an operation control of the rotary machine and an output control of the engine to increase the rotation speed of the engine so that the rotation speed of the engine reaches a target engine rotation speed (Netgt) after the transition of the engine into the operating state, determined by the shifting control, characterized in that: during increasing the rotation speed of the engine, when suppression conditions further including a condition that a vehicle speed is equal to or lower than a predetermined vehicle speed, and a condition that an output request amount by a driver is smaller than a predetermined output request amount, are satisfied, the control device makes an increase rate of the rotation speed of the engine smaller until a predetermined time elapses from an initiation of starting of the engine as compared with when the suppression conditions are not satisfied.