mhurhangee/ep-ind-claims huggingface dataset:
A set of a façade element and a lifting rail, wherein the façade element comprises a frame and façade material (14; 15), wherein the frame is provided to surround and hold the façade material (14; 15), said frame having an upper side with a length, wherein an elongate recess for receiving a lifting rail is extending at least along a major part of the length of the upper side of the frame, said recess having an undercut portion adjacent to the opening of the recess, said undercut portion being formed by a hollow space in said frame and being configured to receive an engagement portion of said lifting rail, said recess with the undercut portion being adapted for receiving said lifting rail in a locking engagement characterized in that said lifting rail comprises a L-shaped engagement portion, a shoulder and a locking mechanism (24, 60), which are adapted to be received by and in locking engagement with the elongate recess of the façade element, such that when the lifting rail is in an engaged state the L-shaped engagement portion is inserted in the recess of the frame and the shoulder rests on an upper side surface at one side of the recess and the locking mechanism (24, 60) rests on an upper side surface at another side of the recess.
A system comprising: an engine cover configured to cover a side-facing rotorcraft engine (120, 280), the engine cover having an opening and inside edges (203, 205) defining a front end and a back end of the opening; and an ice protection member comprising a first part and a second part, the first part extending in a first direction from the back end to the front end, the second part extending upwards to the opening and mounted on the inside edge of the engine cover defining the back end of the opening, an area of the first part of the ice protection member is smaller than an area of the opening, wherein the ice protection member is configured to partially cover the opening to prevent ice having a particular size from entering into the engine (120, 280) and to allow air flow downstream into the engine (120, 280). an engine cover configured to cover a side-facing rotorcraft engine (120, 280), the engine cover having an opening and inside edges (203, 205) defining a front end and a back end of the opening; and an ice protection member comprising a first part and a second part, the first part extending in a first direction from the back end to the front end, the second part extending upwards to the opening and mounted on the inside edge of the engine cover defining the back end of the opening, an area of the first part of the ice protection member is smaller than an area of the opening, wherein the ice protection member is configured to partially cover the opening to prevent ice having a particular size from entering into the engine (120, 280) and to allow air flow downstream into the engine (120, 280).
A thermal transfer sheet in which a dyestuff layer or a transcriptive protective layer is formed on one surface of a substrate and a back face layer is formed on another surface of the substrate, wherein the back face layer comprises: a resin of which weight-average molecular weight (Mw) is more than 15,000; a polyester resin of which weight-average molecular weight (Mw) is not more than 15,000; a lubricant ingredient; and wherein the polyester resin is contained at an amount range of 3 % by weight to 40 % by weight on the basis of the total solid content weight of the back face layer. a resin of which weight-average molecular weight (Mw) is more than 15,000; a polyester resin of which weight-average molecular weight (Mw) is not more than 15,000; a lubricant ingredient; and
A method for starting a smart contract, applied in a blockchain node, the method comprising: running a timing start logic included in a chain code, the timing start logic configured to determine a start moment of a target smart contract, and start the target smart contract when a current moment reaches the start moment, wherein the timing start logic is further configured to, in response to a new block being detected in a blockchain, determine, according to a relationship between a time stamp included in the new block and the start moment, whether a current time reaches the start moment, and wherein when a difference between the time stamp and the start moment falls within a predetermined duration threshold, the timing start logic determines that the target smart contract is to be started. running a timing start logic included in a chain code, the timing start logic configured to determine a start moment of a target smart contract, and start the target smart contract when a current moment reaches the start moment, wherein the timing start logic is further configured to, in response to a new block being detected in a blockchain, determine, according to a relationship between a time stamp included in the new block and the start moment, whether a current time reaches the start moment, and wherein when a difference between the time stamp and the start moment falls within a predetermined duration threshold, the timing start logic determines that the target smart contract is to be started.
A method for securing a semiconductor device, comprising: receiving a first opcode command for a chip; obfuscating the first opcode command as a second opcode command; generating a key based on a physically unclonable function of the chip; and controlling transfer of the first opcode command obfuscated as the second opcode command and the key for storage in the chip, wherein the first opcode command obfuscated as the second opcode command has a same syntax as the second opcode command and performs a different function from the second opcode command and wherein the key includes a value indicating a type of obfuscation performed to obfuscate the first opcode command as the second opcode command. receiving a first opcode command for a chip; obfuscating the first opcode command as a second opcode command; generating a key based on a physically unclonable function of the chip; and controlling transfer of the first opcode command obfuscated as the second opcode command and the key for storage in the chip, wherein the first opcode command obfuscated as the second opcode command has a same syntax as the second opcode command and performs a different function from the second opcode command and wherein the key includes a value indicating a type of obfuscation performed to obfuscate the first opcode command as the second opcode command.
A method for performing, by a user equipment, UE, a tracking area update, TAU, procedure in a wireless communication system, the method comprising: transmitting a TAU request message to a mobility management entity, MME; receiving a TAU accept message from the MME; and starting a predetermined timer if a first active flag not being set in the TAU request message, wherein the first active flag is used for a request for maintaining a non-access stratum, NAS, signaling connection between the UE and the MME after completion of the TAU procedure, wherein when the predetermined timer expires, the NAS signaling connection between the UE and the MME is released by the UE, and wherein when the UE uses signaling optimization to enable a delivery of user data through a control plane via the MME, and the UE does not have pending user data to be transmitted through a user plane and has pending user data to be transmitted through the control plane via the MME, then the first active flag is set in the TAU request message. transmitting a TAU request message to a mobility management entity, MME; receiving a TAU accept message from the MME; and starting a predetermined timer if a first active flag not being set in the TAU request message, wherein the first active flag is used for a request for maintaining a non-access stratum, NAS, signaling connection between the UE and the MME after completion of the TAU procedure, wherein when the predetermined timer expires, the NAS signaling connection between the UE and the MME is released by the UE, and wherein when the UE uses signaling optimization to enable a delivery of user data through a control plane via the MME, and the UE does not have pending user data to be transmitted through a user plane and has pending user data to be transmitted through the control plane via the MME, then the first active flag is set in the TAU request message.
Device for the production or repair of a blade for a gas turbine, said device comprising: - a holding device for holding a blade or an aerofoil of a blade; - a lowering mechanism for lowering the blade or the aerofoil; - a container for receiving powder and for receiving the blade or the aerofoil; - a heating device; and - a laser or electron beam source, characterised in that the heating device is formed as an induction coil for localized, direct inductive heating of the blade or of the aerofoil and is configured and arranged in the container in such a way that the blade or the aerofoil is inductively heated in the region of a powder layer to be generated or of a powder layer. - a holding device for holding a blade or an aerofoil of a blade; - a lowering mechanism for lowering the blade or the aerofoil; - a container for receiving powder and for receiving the blade or the aerofoil; - a heating device; and - a laser or electron beam source,
An electro hydrostatic actuator comprising: a hydraulic pump (106; 206) driven by an electric motor to supply hydraulic fluid to a hydraulic actuator; the hydraulic pump (106; 206) comprising an inlet and an outlet for the hydraulic fluid and an active flow path arranged therebetween such that, in an active mode of operation when the hydraulic pump (106; 206) is driven by the electric motor, the hydraulic fluid is actively drawn in through the inlet and exhausted out through the outlet; characterised in that the hydraulic pump (106; 206) further comprises a bypass flow path (148, 150; 260) arranged to open between the inlet and outlet of the hydraulic pump such that, in a damping mode of operation when the hydraulic pump (106; 206) is not driven by the electric motor, the bypass flow path (148, 150; 260) is arranged to allow hydraulic fluid to pass through the hydraulic pump (106; 206) along the bypass flow path (148, 150; 260) between the inlet and outlet of the hydraulic pump. a hydraulic pump (106; 206) driven by an electric motor to supply hydraulic fluid to a hydraulic actuator; the hydraulic pump (106; 206) comprising an inlet and an outlet for the hydraulic fluid and an active flow path arranged therebetween such that, in an active mode of operation when the hydraulic pump (106; 206) is driven by the electric motor, the hydraulic fluid is actively drawn in through the inlet and exhausted out through the outlet; characterised in that the hydraulic pump (106; 206) further comprises a bypass flow path (148, 150; 260) arranged to open between the inlet and outlet of the hydraulic pump such that, in a damping mode of operation when the hydraulic pump (106; 206) is not driven by the electric motor, the bypass flow path (148, 150; 260) is arranged to allow hydraulic fluid to pass through the hydraulic pump (106; 206) along the bypass flow path (148, 150; 260) between the inlet and outlet of the hydraulic pump.
A combustion heater comprising: a heating plate (118, 318); a layout plate (120, 320) disposed opposite to the heating plate (118, 318); an annular outer circumferential wall interposed between the heating plate (118, 318) and the layout plate (120, 320); a partition plate disposed between the heating plate (118, 318) and the layout plate (120, 320); a combustion chamber disposed inside the outer circumferential wall along the outer circumferential wall; an inflow passage configured to flow fuel gas into the combustion chamber using the layout plate (120, 320) and the partition plate as a lateral wall thereof; and an outflow passage configured to discharge exhaust gas from the combustion chamber to an outside of the combustion heater using the heating plate (118, 318) and the partition plate as a lateral wall thereof, and to preheat the fuel gas using heat of the exhaust gas via the partition plate, characterised in that one of the heating plate (118, 318) and the layout plate (120, 320) is configured so that concave grooves (350a, 350b) are formed in a thickness direction of the heating plate (118, 318) or the layout plate (120, 320) so as to be equal in the distance from the outer circumferential wall. a heating plate (118, 318); a layout plate (120, 320) disposed opposite to the heating plate (118, 318); an annular outer circumferential wall interposed between the heating plate (118, 318) and the layout plate (120, 320); a partition plate disposed between the heating plate (118, 318) and the layout plate (120, 320); a combustion chamber disposed inside the outer circumferential wall along the outer circumferential wall; an inflow passage configured to flow fuel gas into the combustion chamber using the layout plate (120, 320) and the partition plate as a lateral wall thereof; and an outflow passage configured to discharge exhaust gas from the combustion chamber to an outside of the combustion heater using the heating plate (118, 318) and the partition plate as a lateral wall thereof, and to preheat the fuel gas using heat of the exhaust gas via the partition plate, characterised in that one of the heating plate (118, 318) and the layout plate (120, 320) is configured so that concave grooves (350a, 350b) are formed in a thickness direction of the heating plate (118, 318) or the layout plate (120, 320) so as to be equal in the distance from the outer circumferential wall.
A method for providing a multi-angle service by a display apparatus, the method comprising: receiving a multi-angle image signal in which a single content is picked up from a plurality of different angles; displaying a first image signal picked up from a first angle among the plurality of angles according to the received multi-angle image signal; transmitting the displayed first image signal to a mobile device according to a user command; receiving a control signal from the mobile device corresponding to detected rotation of the mobile device if the mobile device is rotated; transmitting to the mobile device another image signal picked up from another angle corresponding to the condition of the mobile device being rotated among the plurality of angles. receiving a multi-angle image signal in which a single content is picked up from a plurality of different angles; displaying a first image signal picked up from a first angle among the plurality of angles according to the received multi-angle image signal; transmitting the displayed first image signal to a mobile device according to a user command; receiving a control signal from the mobile device corresponding to detected rotation of the mobile device if the mobile device is rotated; transmitting to the mobile device another image signal picked up from another angle corresponding to the condition of the mobile device being rotated among the plurality of angles.
A delivery support method executed by a processor and a storage medium to support a delivery process by a delivery vehicle for articles that needs to be kept cool in a delivery box, the method comprising: reading a cold insulation analysis model (Ma) from the storage medium to analyze a cooling time (tc) according to an arrangement pattern (Pp) of the articles in the delivery box; and outputting optimum data (Do) in which the cooling time and the arrangement pattern are optimized by the cold insulation analysis model to which a delivery condition of the article is input, wherein the outputting of the optimum data includes outputting the optimum data of the arrangement pattern that achieves a target time (tct) that is a target of the cooling time by the cold insulation analysis model in which the target time is input as the delivery condition. reading a cold insulation analysis model (Ma) from the storage medium to analyze a cooling time (tc) according to an arrangement pattern (Pp) of the articles in the delivery box; and outputting optimum data (Do) in which the cooling time and the arrangement pattern are optimized by the cold insulation analysis model to which a delivery condition of the article is input, wherein the outputting of the optimum data includes outputting the optimum data of the arrangement pattern that achieves a target time (tct) that is a target of the cooling time by the cold insulation analysis model in which the target time is input as the delivery condition.
A pneumatic tire, in which a tire sealant composition is used having a cured product of the curable composition as a sealant, said tire sealant composition comprising a curable composition comprising the following components A to C: A: an alkoxysilyl-modified polyisobutylene; B: one or more polymers having a number average molecular weight of 50,000 or less, the polymers being selected from the group consisting of polybutene, polyisobutylene, polyisobutylene butadiene, polypentene, and polyisopentene; and C: one or more resins selected from the group consisting of C5 resin, C9 resin, C5-C9 resin, dicyclopentadiene resin, rosin resin, alkylphenol resin, and terpene phenol resin; wherein the component B is included in an amount of 50 parts by mass to 120 parts by mass per 100 parts by mass of the component A, and wherein the component C is included in an amount of 10 parts by mass to 20 parts by mass per 100 parts by mass of the component A. A: an alkoxysilyl-modified polyisobutylene; B: one or more polymers having a number average molecular weight of 50,000 or less, the polymers being selected from the group consisting of polybutene, polyisobutylene, polyisobutylene butadiene, polypentene, and polyisopentene; and C: one or more resins selected from the group consisting of C5 resin, C9 resin, C5-C9 resin, dicyclopentadiene resin, rosin resin, alkylphenol resin, and terpene phenol resin;
A method for operating an electronic device having a keyboard, the method comprising: receiving a password input for password creation; storing the received password input and data related to at least one selected language used during a password creation, the data being an identifier of the at least one selected language in effect on the electronic device keyboard at the time of the password creation; selecting a first character mapping (340, 341, 440, 540, 541, 640) based on the stored data related to the at least one selected language; associating the password input with the first character mapping appropriate to the at least one selected language used during password creation to allow subsequent presentation of a password entry prompt that is based on the at least one selected language used during password creation; determining, at the time of presenting by the electronic device a prompt for password entry, that a default device language of the electronic device is different to the at least one selected language used during password creation, the default device language being a language that the electronic device defaults to when presenting instructions or information on a user interface of the device and having a second character mapping which is different to the first character mapping, applying the first character mapping to the keyboard; and receiving a password input for password entry using the first character mapping. receiving a password input for password creation; storing the received password input and data related to at least one selected language used during a password creation, the data being an identifier of the at least one selected language in effect on the electronic device keyboard at the time of the password creation; selecting a first character mapping (340, 341, 440, 540, 541, 640) based on the stored data related to the at least one selected language; associating the password input with the first character mapping appropriate to the at least one selected language used during password creation to allow subsequent presentation of a password entry prompt that is based on the at least one selected language used during password creation; determining, at the time of presenting by the electronic device a prompt for password entry, that a default device language of the electronic device is different to the at least one selected language used during password creation, the default device language being a language that the electronic device defaults to when presenting instructions or information on a user interface of the device and having a second character mapping which is different to the first character mapping, applying the first character mapping to the keyboard; and receiving a password input for password entry using the first character mapping.
A low-reflection coated glass sheet comprising: a glass sheet; and a low-reflection coating formed on at least a portion of one principal surface of the glass sheet, the low-reflection coating comprising a binder containing silica as a main component, fine silica particles bound by the binder, and fine titania particles bound by the binder, characterized in that the low-reflection coating satisfies the following relationships when the content of the fine silica particles in the low-reflection coating, the content of the fine titania particles in the low-reflection coating, and the content of the silica of the binder in the low-reflection coating are defined as C SP mass%, C TP mass%, and C Binder mass%, respectively: 30 mass% < C SP < 68 mass%; 12 mass% ≤ C TP < 50 mass%; 20 mass% < C Binder < 43.75 mass%; C TP /C Binder ≥ 0.6; C Binder < 25 mass% in the case of C SP ≥ 55 mass%; and C TP > 20 mass% in the case of C SP < 55 mass%, and the low-reflection coated glass sheet has a transmittance gain of 2.0% or more, the transmittance gain being determined by subtracting an average light transmittance of the glass sheet unprovided with the low-reflection coating in the wavelength range of 380 nm to 850 nm from an average light transmittance of the low-reflection coated glass sheet in the wavelength range of 380 nm to 850 nm. a glass sheet; and a low-reflection coating formed on at least a portion of one principal surface of the glass sheet, the low-reflection coating comprising a binder containing silica as a main component, fine silica particles bound by the binder, and fine titania particles bound by the binder, characterized in that the low-reflection coating satisfies the following relationships when the content of the fine silica particles in the low-reflection coating, the content of the fine titania particles in the low-reflection coating, and the content of the silica of the binder in the low-reflection coating are defined as C SP mass%, C TP mass%, and C Binder mass%, respectively: 30 mass% < C SP < 68 mass%; 12 mass% ≤ C TP < 50 mass%; 20 mass% < C Binder < 43.75 mass%; C TP /C Binder ≥ 0.6; C Binder < 25 mass% in the case of C SP ≥ 55 mass%; and C TP > 20 mass% in the case of C SP < 55 mass%, and 30 mass% < C SP < 68 mass%; 12 mass% ≤ C TP < 50 mass%; 20 mass% < C Binder < 43.75 mass%; C TP /C Binder ≥ 0.6; C Binder < 25 mass% in the case of C SP ≥ 55 mass%; and C TP > 20 mass% in the case of C SP < 55 mass%, and the low-reflection coated glass sheet has a transmittance gain of 2.0% or more, the transmittance gain being determined by subtracting an average light transmittance of the glass sheet unprovided with the low-reflection coating in the wavelength range of 380 nm to 850 nm from an average light transmittance of the low-reflection coated glass sheet in the wavelength range of 380 nm to 850 nm.