mhurhangee/ep-ind-claims huggingface dataset:
A process for the production of a soft bakery product with a moisture content of at least 11%, which can be stored at room temperature, while keeping its softness characteristics substantially unchanged, optionally packaged in a wrapper of food-grade plastic material without introducing a modified atmosphere, comprising the steps of: a) providing a semi-finished product obtained from a flour-based leavened dough; b) baking said semi-finished product in an oven, obtaining a bakery product having a moisture content of between 10% and 35% by weight of the total weight of said bakery product; c) injecting a hydroalcoholic solution into said bakery product, in an amount such as to bring about an increase of at least 10% of the moisture content of said bakery product and in a weight ratio comprised between 1:7 and 1:40 with respect to said bakery product, wherein said hydroalcoholic solution is a solution of ethyl alcohol in water with an amount of ethyl alcohol of between 1% and 35% by weight of the total weight of the solution. a) providing a semi-finished product obtained from a flour-based leavened dough; b) baking said semi-finished product in an oven, obtaining a bakery product having a moisture content of between 10% and 35% by weight of the total weight of said bakery product; c) injecting a hydroalcoholic solution into said bakery product, in an amount such as to bring about an increase of at least 10% of the moisture content of said bakery product and in a weight ratio comprised between 1:7 and 1:40 with respect to said bakery product, wherein said hydroalcoholic solution is a solution of ethyl alcohol in water with an amount of ethyl alcohol of between 1% and 35% by weight of the total weight of the solution.
A conductive textile characterized by comprising: a base cloth; and a conductive film disposed on the base cloth, wherein the conductive film comprises: a polyurethane resin, wherein the polyurethane resin comprises a molecular structure represented by formula, formula, wherein k, n1, n2, n3, n4, n5, n6, m1, and m2 are positive integers, and (k+m1+m2+4):(n1+n2+n3+n4+m1 ×n5+m2×n6) is between 10:5 and 10:7; and a silver-comprising conductor, wherein a content of the silver-comprising conductor is 55 parts by weight to 80 parts by weight, and a content of the polyurethane resin is 8 parts by weight to 12 parts by weight. a base cloth; and a conductive film disposed on the base cloth, wherein the conductive film comprises: a polyurethane resin, wherein the polyurethane resin comprises a molecular structure represented by formula, formula, wherein k, n1, n2, n3, n4, n5, n6, m1, and m2 are positive integers, and (k+m1+m2+4):(n1+n2+n3+n4+m1 ×n5+m2×n6) is between 10:5 and 10:7; and a silver-comprising conductor, wherein a content of the silver-comprising conductor is 55 parts by weight to 80 parts by weight, and a content of the polyurethane resin is 8 parts by weight to 12 parts by weight. formula, wherein k, n1, n2, n3, n4, n5, n6, m1, and m2 are positive integers, and (k+m1+m2+4):(n1+n2+n3+n4+m1 ×n5+m2×n6) is between 10:5 and 10:7; and a silver-comprising conductor, wherein a content of the silver-comprising conductor is 55 parts by weight to 80 parts by weight, and a content of the polyurethane resin is 8 parts by weight to 12 parts by weight.
Apparatus for forming an imbricated stream of flat, flexible objects along a transporting path, wherein successive objects have an overlap length (Ü), characterized in that the apparatus has a first suction and transporting apparatus having a first means for generating a negative pressure by means of a whirlwind for the suction attachment of at least one object, wherein the first means are arranged within a housing which has a suction opening, and having at least one transporting belt, in that the apparatus has a second suction and transporting apparatus having second means for generating a negative pressure by means of a whirlwind for the suction attachment of at least one object, wherein the second means are arranged within a housing which has a suction opening, and having at least one transporting belt, in that the first suction and transporting apparatus and the second suction and transporting apparatus are arranged on different sides of the transporting path, in that the first suction and transporting apparatus and the second suction and transporting apparatus are offset in relation to one another in the direction of the transporting path by a length and are spaced apart from one another by a distance in the direction transverse to the transporting path, wherein the first suction and transporting apparatus, which is arranged upstream of the second suction and transporting apparatus, as seen in the transporting direction, is arranged above the transporting path, whereas the second suction and transporting apparatus is arranged beneath the transporting path, and in that the second, downstream suction and transporting apparatus, as seen in the direction of the transporting path, is inclined in relation to the direction of the transporting path by an angle (α), wherein the angle (α) is approximately 0° to 30°.
A wind turbine generator comprising: a tower part; a plurality of wind turbine parts each including a rotor, blades provided on the rotor, and a power generator that generates power by a rotational force of the rotor; a support member that is connected to the tower part and supports the wind turbine part; and an auxiliary member in the form of a backup wire (21,31) not normally under tension and having one end connected to the tower part and the other end connected to the support member, characterized in that the support member includes a connection part connected to the tower part, a first elongated member having one end side connected to the connection part and the other end side supporting the wind turbine part, a first coupling member having one end side connected to the one end side of the first elongated member and the other end side provided above the first elongated member, and a linear first wire member having one end connected to the other end side of the first coupling member and the other end connected to the other end side of the first elongated member, and the auxiliary member (21, 31) is configured so as to prevent falling of the first elongated member when the support member has become unable to support the wind turbine part. a tower part; a plurality of wind turbine parts each including a rotor, blades provided on the rotor, and a power generator that generates power by a rotational force of the rotor; a support member that is connected to the tower part and supports the wind turbine part; and an auxiliary member in the form of a backup wire (21,31) not normally under tension and having one end connected to the tower part and the other end connected to the support member, characterized in that the support member includes the auxiliary member (21, 31) is configured so as to prevent falling of the first elongated member when the support member has become unable to support the wind turbine part.
Device for extracting volatile components from a sample (3; 19), comprising: a) a sample vessel for receiving the sample (3; 19), wherein the sample vessel is closed in a gas-tight manner; b) a discharge line and a supply line, which protrude into the sample vessel, wherein the supply line has a first valve with which a flow of gas through the supply line can be throttled and/or interrupted; c) a pump with a suction opening and an output opening; d) a first fluid line, which fluidically connects the discharge line to the suction opening of the pump; characterized in that e) a second fluid line fluidically connects the supply line to the output opening of the pump, such that sample vessel, supply line, discharge line and pump form a closed gas circuit, wherein a trap element (10; 20) with at least one sorption material is fluidically connected to the first fluid line or the second fluid line. a) a sample vessel for receiving the sample (3; 19), wherein the sample vessel is closed in a gas-tight manner; b) a discharge line and a supply line, which protrude into the sample vessel, wherein the supply line has a first valve with which a flow of gas through the supply line can be throttled and/or interrupted; c) a pump with a suction opening and an output opening; d) a first fluid line, which fluidically connects the discharge line to the suction opening of the pump; characterized in that e) a second fluid line fluidically connects the supply line to the output opening of the pump, such that sample vessel, supply line, discharge line and pump form a closed gas circuit, wherein a trap element (10; 20) with at least one sorption material is fluidically connected to the first fluid line or the second fluid line.
A method for updating a sleep identifier in a broadband wireless access communication system having a sleep mode and an awake mode, the sleep mode having a listening interval, wherein an initial sleep identifier is uniquely allocated by a base station to a mobile station when the mobile station is instructed to enter the sleep mode, the method being characterized by: determining, by the base station, if it is necessary to update a current sleep identifier of the mobile station in the sleep mode; and identifying, by the base station, a sleep identifier to be allocated to the mobile station, if it is necessary to update the current sleep identifier of the mobile station; generating, by the base station, a message including the current sleep identifier and the identified sleep identifier; and transmitting, by the base station, the message to the mobile station. determining, by the base station, if it is necessary to update a current sleep identifier of the mobile station in the sleep mode; and identifying, by the base station, a sleep identifier to be allocated to the mobile station, if it is necessary to update the current sleep identifier of the mobile station; generating, by the base station, a message including the current sleep identifier and the identified sleep identifier; and transmitting, by the base station, the message to the mobile station.
A touch-type input device comprising: a touch panel including a panel surface, wherein the panel surface includes a grid sensor pattern including drive electrodes and detection electrodes insulated from the drive electrodes, and intersections of the drive electrodes and the detection electrodes function as capacitors (C1, C2); and a controller that uses baselines respectively corresponding to the capacitors (C1, C2), wherein the controller is configured to: apply a drive signal to the drive electrodes to detect touching of the panel surface of the touch panel based on the baselines and changes in capacitances of the capacitors (C1, C2); characterised in that the controller is further configured to: update the baselines when the capacitances of the capacitors (C1, C2) of the touch panel all remain within a predetermined capacitance range over a predetermined period, which indicates that changes in temperature and/or humidity of the ambient environment affect the entire panel surface of the touch panel over the predetermined period. a touch panel including a panel surface, wherein the panel surface includes a grid sensor pattern including drive electrodes and detection electrodes insulated from the drive electrodes, and intersections of the drive electrodes and the detection electrodes function as capacitors (C1, C2); and a controller that uses baselines respectively corresponding to the capacitors (C1, C2), wherein the controller is configured to: apply a drive signal to the drive electrodes to detect touching of the panel surface of the touch panel based on the baselines and changes in capacitances of the capacitors (C1, C2); characterised in that the controller is further configured to: update the baselines when the capacitances of the capacitors (C1, C2) of the touch panel all remain within a predetermined capacitance range over a predetermined period, which indicates that changes in temperature and/or humidity of the ambient environment affect the entire panel surface of the touch panel over the predetermined period.
A method for transmitting only Uplink Control Information, UCI, without uplink data on a Physical Uplink Shared Channel, PUSCH, in a wireless access system supporting Carrier Aggregation, CA, of a plurality of component carriers, the plurality of component carriers comprising one primary component carrier and one or more secondary component carriers, the method comprising; receiving a Physical Downlink Control Channel, PDCCH, signal including Downlink Control Information, DCI, format 4 from a Base Station, BS, where the DCI format 4 is used for scheduling a PUSCH in multi-antenna port mode; determining Channel State Information, CSI, of the one primary component carrier and a part of the one or more secondary component carriers as UCI to be transmitted, wherein the part of the one or more secondary component carriers is determined according to a number of information bits for the UCI to be transmitted; allocating resources for transmitting the determined UCI based on the DCI format 4; calculating a number Q' of code symbols for transmitting the determined UCI according to: Q ′ = min ⌈ O ⋅ M sc PUSCH ⋅ N symb PUSCH ⋅ β offset PUSCH O CQI − MIN ⌉, 4 ⋅ M sc PUSCH where O denotes a number of Hybrid Automatic Repeat reQuest Acknowledgment, HARQ-ACK, bits or Rank Indicator, RI, bits, M sc PUSCH denotes a scheduled bandwidth for PUSCH transmission in a current subframe, N symb PUSCH denotes a number of Single Carrier Frequency Division Multiplexing Access, SC-FDMA, symbols in the current subframe carrying the PUSCH, β offset PUSCH denotes an offset value for PUSCH transmission, O CQI-MIN denotes a number of Channel Quality Indication, CQI, bits including Cyclic Redundancy Check, CRC, bits on an assumption of rank 1; channel-encoding the determined UCI based on the calculated number of code symbols; mapping the channel-encoded UCI to the allocated resources; interleaving the channel-encoded UCI by multiplexing the UCI without uplink data; and transmitting only the channel-encoded UCI without the uplink data on the PUSCH to the BS, wherein the part of the one or more secondary component carriers is determined in an ascending order of channel qualities of the one or more secondary component carriers, according to the number of information bits for the UCI to be transmitted.
A poly(ethyleneterephthalate) drawn fiber comprising a polymer including 90 mol% or more of poly(ethyleneterephthalate), and having a melt viscosity, measured and confirmed using a rheometer of RHEO-TESTER 2000, of 320 to 450 Pa·s (3200 to 4500 poise) at 290°C at a shear rate of 1000 s -1, wherein the poly(ethyleneterephthalate) drawn fiber has a total fineness of 1111.11 to 4444.44 dtex (1000 to 4000 denier), and a monofilament fineness of 2 to 3.89 dtex (1.8 to 3.5 denier), wherein its tensile strength is 6.3 g/dtex (7.0 g/d) or more, its intermediate elongation is 4.0 to 6.5%, its breaking elongation is 10.0 to 20.0% under a load of 4.05 g/dtex (4.5 g/d), (both measured under a load of 4.05 dtex (4.5 g/d) using a universal strength tester in accordance with standard ASTM D885), wherein its L/S value defined as the following Equation is 2.1 kg/% to 3.5 kg/% after heat treatment at a temperature of 180°C under an initial load of 0.018 g/dtex (0.02 g/d) for 2 minutes: L / S = LASE kg / shrinkage rate % wherein LASE (kg) represents Load at Specific Elongation when elongation of the drawn fiber is 5%, after heat treatment for 2 minutes, and shrinkage rate (%) represents a dry heat shrinkage rate measured while the drawn fiber is maintained at the temperature of 180°C without the initial load, after heat treatment for 2 minutes.
A power management system comprising: a smart socket (400A,400B) to meter a power consumption of an electric device (500A,500B) by connecting to the electric device (500A,500B), and be assigned a code; and a power management apparatus which communicates with the smart socket (400A,400B), characterized in that the power management apparatus displays a message that invites the user to input a code image of a the smart socket (400A,400B) and information of an electric device (500A,500B) to be coupled to the smart socket (400A,400B) in a registration mode of the smart socket (400A.400B), obtains a code image of the smart socket (400A,400B) in response to the message, and pairs a code of the smart socket (400A,400B) with the electric device information, wherein the power management apparatus receives power consumption information of the electric device (500A,500B) from the smart socket (400A,400B), and determines whether the electric device (500A,500B) coupled to the smart socket (400A,400B) is changed on the basis of power consumption information of the electric device (500A,500B). a smart socket (400A,400B) to meter a power consumption of an electric device (500A,500B) by connecting to the electric device (500A,500B), and be assigned a code; and a power management apparatus which communicates with the smart socket (400A,400B), characterized in that the power management apparatus displays a message that invites the user to input a code image of a the smart socket (400A,400B) and information of an electric device (500A,500B) to be coupled to the smart socket (400A,400B) in a registration mode of the smart socket (400A.400B), obtains a code image of the smart socket (400A,400B) in response to the message, and pairs a code of the smart socket (400A,400B) with the electric device information, wherein the power management apparatus receives power consumption information of the electric device (500A,500B) from the smart socket (400A,400B), and determines whether the electric device (500A,500B) coupled to the smart socket (400A,400B) is changed on the basis of power consumption information of the electric device (500A,500B).
A method of manufacturing a magnet from a hard magnetic material formed of material powders made of a R-Fe-N compound containing a light rare earth element as R, or material powders made of a Fe-N compound, the method characterized by comprising: a forming step of forming a compact in which a density of the hard magnetic material powders differs between an outer face side portion and an inside portion of the compact such that a rate of progress of powder bonding due to microwave heating is higher in the inside portion of the compact than in the outer face side portion of the compact when an outer face of the compact is irradiated with microwaves, by using multiple types of the hard magnetic material powders having different particle sizes to form the compact such that the hard magnetic material powders are arranged in the compact such that that the density of the hard magnetic material powders is higher in the inside portion of the compact than in the outer face side portion of the compact; and a microwave heating step of irradiating the outer face of the compact with the microwaves in an oxidative atmosphere to bond the hard magnetic material powders by forming oxide films on the hard magnetic material powders. a forming step of forming a compact in which a density of the hard magnetic material powders differs between an outer face side portion and an inside portion of the compact such that a rate of progress of powder bonding due to microwave heating is higher in the inside portion of the compact than in the outer face side portion of the compact when an outer face of the compact is irradiated with microwaves, by using multiple types of the hard magnetic material powders having different particle sizes to form the compact such that the hard magnetic material powders are arranged in the compact such that that the density of the hard magnetic material powders is higher in the inside portion of the compact than in the outer face side portion of the compact; and a microwave heating step of irradiating the outer face of the compact with the microwaves in an oxidative atmosphere to bond the hard magnetic material powders by forming oxide films on the hard magnetic material powders.
An active material for battery comprising a monoclinic complex oxide which is expressed by the general formula Li x M1M2 2 O (7±δ), wherein M1 is at least one element selected from the group consisting of Ti, Zr, Si, and Sn, M2 is at least one element selected from the group consisting of Nb, V, Ta, Bi, and Mo, 0 ≤ x ≤ 5, and 0 ≤ 5 ≤ 0.3, and has symmetry belonging to the space group C2/m in International tables Vol. A No. 12, characterized in that one element of the M2 or M1 being maldistributed in the occupied 2a and 4i sites in a crystal of the monoclinic complex oxide.
A method for providing location information, the method comprising: storing first near-field communication data obtained by reading a first NFC tag at a first location, wherein the first NFC data comprises location information of the first NFC tag and login credentials for accessing a Wi-Fi router; reading a second NFC tag at a second location to obtain location information of the second NFC tag and login credentials for accessing the Wi-Fi router; obtaining map data for an area encompassing the first and second locations, wherein obtaining the map data comprises downloading the map data from a map server by connecting to the Wi-Fi router to access the map server; and displaying a map showing the first location and the second location. storing first near-field communication data obtained by reading a first NFC tag at a first location, wherein the first NFC data comprises location information of the first NFC tag and login credentials for accessing a Wi-Fi router; reading a second NFC tag at a second location to obtain location information of the second NFC tag and login credentials for accessing the Wi-Fi router; obtaining map data for an area encompassing the first and second locations, wherein obtaining the map data comprises downloading the map data from a map server by connecting to the Wi-Fi router to access the map server; and displaying a map showing the first location and the second location.
A method for transmitting, by a predetermined base station, interference cancellation information, the method comprising: estimating a symbol error rate or a packet error rate in an edge area of a cell controlled by the predetermined base station based on feedback information which is received from a terminal located in the edge area of the cell; determining a probability indicator that indicates a probability of cancelling inter-cell interference in the edge area of the cell by comparing the symbol error rate or the packet error rate with a threshold; transmitting information on the probability indicator to an adjacent cell controlled by a neighbor base station which is adjacent to the predetermined base station, and performing scheduling for the terminal based on the probability indicator when the probability indicator is received from the neighbor base station. estimating a symbol error rate or a packet error rate in an edge area of a cell controlled by the predetermined base station based on feedback information which is received from a terminal located in the edge area of the cell; determining a probability indicator that indicates a probability of cancelling inter-cell interference in the edge area of the cell by comparing the symbol error rate or the packet error rate with a threshold; transmitting information on the probability indicator to an adjacent cell controlled by a neighbor base station which is adjacent to the predetermined base station, and performing scheduling for the terminal based on the probability indicator when the probability indicator is received from the neighbor base station.