mhurhangee/ep-ind-claims huggingface dataset:
A method for improving reporting of operational data from a wind turbine during operation thereof; said method comprising the steps of: i) controlling the operation of said wind turbine by using a control system; ii) in respect of a predetermined time segment allowing one or more sensors (S 1, S 2, S 3,..., S N) to sense one or more parameter values representing the magnitude of power production of said wind turbine and allowing said sensors to transmit said one or more parameter values to said control system; iii) from said one or more parameter values transmitted to said control system in step ii), allowing said control system to determine a total production of energy within said time segment; iv) from said one or more parameter values transmitted to said control system, allowing said control system to determine an accumulated value, representing an accumulated production of energy by said wind turbine until the end of said specific time segment; v) allowing said control system to transmit, to a monitoring system, data determined in step iii) and iv); vi) repeat steps i) - v) in respect of subsequent time segments; vii) in respect of a time span comprising several of said time segments, allowing said monitoring system to assess the reliability of data relating to the total production of energy in a specific time segment of said time span, and optionally allowing said monitoring system to correct such data in case such information is assessed as being unreliable, thereby obtaining corrected data relating to an estimated total production of energy in respect of one or more specific time segments within said time span. i) controlling the operation of said wind turbine by using a control system; ii) in respect of a predetermined time segment allowing one or more sensors (S 1, S 2, S 3,..., S N) to sense one or more parameter values representing the magnitude of power production of said wind turbine and allowing said sensors to transmit said one or more parameter values to said control system; iii) from said one or more parameter values transmitted to said control system in step ii), allowing said control system to determine a total production of energy within said time segment; iv) from said one or more parameter values transmitted to said control system, allowing said control system to determine an accumulated value, representing an accumulated production of energy by said wind turbine until the end of said specific time segment; v) allowing said control system to transmit, to a monitoring system, data determined in step iii) and iv); vi) repeat steps i) - v) in respect of subsequent time segments; vii) in respect of a time span comprising several of said time segments, allowing said monitoring system to assess the reliability of data relating to the total production of energy in a specific time segment of said time span, and optionally allowing said monitoring system to correct such data in case such information is assessed as being unreliable, thereby obtaining corrected data relating to an estimated total production of energy in respect of one or more specific time segments within said time span.
A refrigerator, comprising: a body having a plurality of cooling compartments (110, 120) separated from each other by a partition; and a machine room defined by the partition and located in a lower region of only one of the plurality of cooling compartments (110, 120), the machine room receiving predetermined elements required to operate the cooling compartments (110, 120) and comprises a flow passage extending from a front side to a rear side of the body, to allow the movement of air, the flow passage comprises: an air suction portion provided in at least one of a front surface of the body and a front position of a lower surface of the body; and an air discharge portion provided in at least one of a rear surface of the body and a rear position of the lower surface of the body, the flow passage comprises a fan device, a condenser, and a compressor being successively arranged in the flow passage starting from the air suction portion toward the air discharge portion, wherein the condenser has a predetermined length, a predetermined width, and a thickness smaller than the length and the width, and a partial region of the flow passage is arranged to receive the fan device and the condenser and has a height larger than the thickness of the condenser and smaller than the length and the width of the condenser, wherein the fan device is a radial-flow fan having an axial direction coinciding with a height direction of the body, wherein the condenser is installed such that a relatively wider plane face of the condenser is laid on the bottom of the flow passage, characterized in that the machine room comprises: an electric element chamber to receive predetermined electric elements; and a bypass structure to communicate the flow passage with the electric element chamber, so as to allow a part of the air moving in the flow passage to be bypassed into the electric element chamber. a body having a plurality of cooling compartments (110, 120) separated from each other by a partition; and a machine room defined by the partition and located in a lower region of only one of the plurality of cooling compartments (110, 120), an air suction portion provided in at least one of a front surface of the body and a front position of a lower surface of the body; and an air discharge portion provided in at least one of a rear surface of the body and a rear position of the lower surface of the body, an electric element chamber to receive predetermined electric elements; and a bypass structure to communicate the flow passage with the electric element chamber, so as to allow a part of the air moving in the flow passage to be bypassed into the electric element chamber.
A method for manufacturing a breathable shoe consisting of a first step of forming a membrane-including unitary upper assembly comprising a breathable or perforated insole joined by means of stitches, made according to the Strobel method, to the edges of a breathable upper so as to form a sack, and at least one membrane made of a material which is waterproof and breathable, said first step comprising directly attaching said breathable upper to said membrane in a downward region, said unitary upper assembly wrapping around the foot insertion region, and a second step comprising associating a protective element made of a material which is resistant to hydrolysis, water-repellent, breathable or perforated to said membrane and mutually attaching said unitary upper assembly to a sole (16; 216) made of perforated elastomer, such mutual attaching occurring by joining through a perimetrical seal said unitary upper assembly to said sole (16; 216), said protective element being arranged below said at least one membrane in a region between the upper part of said sole (16; 216) and its internal part which is adjacent to the ground contact surface.
An aerosol generating device comprising: a heater configured to generate aerosol by heating an aerosol generating substance; and a controller configured to control power supplied to the heater, wherein the controller is configured to control the power supplied to the heater differently in a first stage, a second stage, and a third stage, wherein the stages are partitioned according to a temperature of the heater; characterized in that the controller is further configured to: calculate a control reference ratio based on at least two stages from among the first stage, the second stage, and the third stage, and control the power supplied to the heater based on the calculated control reference ratio. a heater configured to generate aerosol by heating an aerosol generating substance; and a controller configured to control power supplied to the heater, wherein the controller is configured to control the power supplied to the heater differently in a first stage, a second stage, and a third stage, wherein the stages are partitioned according to a temperature of the heater; calculate a control reference ratio based on at least two stages from among the first stage, the second stage, and the third stage, and control the power supplied to the heater based on the calculated control reference ratio.
Use of adenosine diphosphate -glucose pyrophosphorylase (AGPase) for pyrosequencing a nucleic acid molecule, wherein the sequencing comprises converting PPi to ATP in a DNA sequencing based on a detection of base incorporation by a release of PPi.
Hydrophobic polymer obtainable by a method comprising: a) preparing a mixture of monomers and/or polymers thereby forming a polymeric mixture; and b) crosslinking said polymeric mixture in the presence of one or more lower oligosaccharides, preferably di- or trisaccharides, at a pH between 1.5 and 6 and a temperature of 60°C to 160°C thereby providing a crosslinked polymeric mixture; wherein: 1) in step (a) a compound selected from the group consisting of polyisobutylene, hydroxymethylfural and 2,5-dimethylfuran is added to the polymeric mixture; or 2) after step (b) a compound selected from the group consisting of polyisobutylene, hydroxymethylfural and 2,5-dimethylfuran is contacted with the crosslinked polymeric mixture. a) preparing a mixture of monomers and/or polymers thereby forming a polymeric mixture; and b) crosslinking said polymeric mixture in the presence of one or more lower oligosaccharides, preferably di- or trisaccharides, at a pH between 1.5 and 6 and a temperature of 60°C to 160°C thereby providing a crosslinked polymeric mixture; wherein: 1) in step (a) a compound selected from the group consisting of polyisobutylene, hydroxymethylfural and 2,5-dimethylfuran is added to the polymeric mixture; or 2) after step (b) a compound selected from the group consisting of polyisobutylene, hydroxymethylfural and 2,5-dimethylfuran is contacted with the crosslinked polymeric mixture. 1) in step (a) a compound selected from the group consisting of polyisobutylene, hydroxymethylfural and 2,5-dimethylfuran is added to the polymeric mixture; or 2) after step (b) a compound selected from the group consisting of polyisobutylene, hydroxymethylfural and 2,5-dimethylfuran is contacted with the crosslinked polymeric mixture.
A method of fabricating an electrochromic stack, the method comprising: forming a cathodically coloring layer comprising a cathodically coloring material; and forming an anodically coloring layer comprising nickel-tungsten-niobium-oxide; wherein the nickel-tungsten-niobium-oxide has an atomic ratio of Ni:(W+Nb) that is between 1.5:1 and 3:1, and an atomic ratio of W:Nb that is between 0.2:1 and 1:1, and wherein the anodically coloring layer is amorphous. forming a cathodically coloring layer comprising a cathodically coloring material; and forming an anodically coloring layer comprising nickel-tungsten-niobium-oxide; wherein the nickel-tungsten-niobium-oxide has an atomic ratio of Ni:(W+Nb) that is between 1.5:1 and 3:1, and an atomic ratio of W:Nb that is between 0.2:1 and 1:1, and wherein the anodically coloring layer is amorphous.
A method of laying a pipeline in the bed of a body of water, the method comprising the steps of: - advancing a digging assembly along a pipeline laid along a path on the bed of the body of water; - digging a trench along the path in the bed of the body of water by means of the digging assembly, so a portion of pipeline settles onto the bottom of the trench; characterised by the steps of - acquiring, by means of the digging assembly, data (H, L; R) related to the bathymetric profile of the portion of pipeline laid on the bottom of the trench; - comparing the acquired data (H, L; R) with a set of permissible values; and - emitting an error signal (E1, E2) when the acquired data (H, L; R) does not fall within the set of permissible values. - advancing a digging assembly along a pipeline laid along a path on the bed of the body of water; - digging a trench along the path in the bed of the body of water by means of the digging assembly, so a portion of pipeline settles onto the bottom of the trench; characterised by the steps of - acquiring, by means of the digging assembly, data (H, L; R) related to the bathymetric profile of the portion of pipeline laid on the bottom of the trench; - comparing the acquired data (H, L; R) with a set of permissible values; and - emitting an error signal (E1, E2) when the acquired data (H, L; R) does not fall within the set of permissible values.
An apparatus for forming a cosmetic product, in particular a lipstick mine, the apparatus comprising: a flexible mold; and a flexible core adapted to be moved into the flexible mold and to be at least partially arranged in a first position in the flexible mold and to be arranged in a second position outside the flexible mold, wherein the flexible core is formed from an elastomer. a flexible mold; and a flexible core adapted to be moved into the flexible mold and to be at least partially arranged in a first position in the flexible mold and to be arranged in a second position outside the flexible mold, wherein the flexible core is formed from an elastomer.
A method performed by at least one first apparatus, the method comprising: - obtaining an image of at least a part of a surface of a consignment unit; - deriving a representation of the at least a part of the surface from the image, the representation comprising a set of values respectively representing a corresponding set of height levels of corresponding sections of the at least a part of the surface; - generating a string of characters based on the representation of the at least a part of the surface, the string of characters comprising at least a first portion representative of the set of height levels of the corresponding sections of the at least a part of the surface and a second portion generated based on a function of the representation and/or of the first portion of the string of characters; and - associating information representing the string of characters with shipping information of the consignment unit. - obtaining an image of at least a part of a surface of a consignment unit; - deriving a representation of the at least a part of the surface from the image, the representation comprising a set of values respectively representing a corresponding set of height levels of corresponding sections of the at least a part of the surface; - generating a string of characters based on the representation of the at least a part of the surface, the string of characters comprising at least a first portion representative of the set of height levels of the corresponding sections of the at least a part of the surface and a second portion generated based on a function of the representation and/or of the first portion of the string of characters; and - associating information representing the string of characters with shipping information of the consignment unit.
A compound pharmaceutical composition, comprising pharmaceutical active ingredients and pharmaceutically accepted carrier, wherein the pharmaceutical active ingredients are quercetin-3-O-β-D-glucuronide, isoquercitrin and quercetin, characterized in that the pharmaceutical active ingredients consist of quercetin-3-O-β-D-glucuronide, isoquercitrin and quercetin at a molar ratio of 1.1-2.4:1.3-3.3: 1.2-3.1.
A multifunctional signal transceiver, comprising a housing, and an antenna assembly and a circuit assembly provided in the housing, wherein the antenna assembly at least comprises a first antenna for receiving a TV signal, a second antenna for receiving and sending a mobile communication signal, and a third antenna for receiving and sending a WIFI signal; the first antenna, the second antenna, and the third antenna are arranged in the housing successively from top to bottom, wherein the circuit assembly at least comprises a 4G mobile communication signal processing module connected with the second antenna, characterized in that the 4G mobile communication signal processing module is also connected with the third antenna, whereby the 4G mobile communication signal processing module comprises a same frequency combiner, a 4G-mobile-signal-to-WIFI module, and a 4G mobile signal magnification module, wherein the same frequency combiner at least comprises one input end and two output ends, wherein the input end is electrically connected with the second antenna. the two output ends are respectively electrically connected with the 4G-mobile-signal -to-WIFI module and the 4G mobile signal magnification module, and the 4G mobile signal-to-WIFI module is electrically connected with the third antenna. the antenna assembly at least comprises a first antenna for receiving a TV signal, a second antenna for receiving and sending a mobile communication signal, and a third antenna for receiving and sending a WIFI signal; the first antenna, the second antenna, and the third antenna are arranged in the housing successively from top to bottom, wherein the circuit assembly at least comprises a 4G mobile communication signal processing module connected with the second antenna, characterized in that the 4G mobile communication signal processing module is also connected with the third antenna, whereby the 4G mobile communication signal processing module comprises a same frequency combiner, a 4G-mobile-signal-to-WIFI module, and a 4G mobile signal magnification module, wherein the same frequency combiner at least comprises one input end and two output ends, wherein the input end is electrically connected with the second antenna. the two output ends are respectively electrically connected with the 4G-mobile-signal -to-WIFI module and the 4G mobile signal magnification module, and the 4G mobile signal-to-WIFI module is electrically connected with the third antenna.
Method for an enhanced and an adaptive mobility management within a mobile communication network, wherein at least a first user equipment and a second user equipment are attached to the mobile communication network, wherein the mobile communication network comprises at least a core network and an access network, wherein the access network comprises a plurality of radio cells (10, 11), one radio cell among the plurality of radio cells (10, 11) being the serving cell of both the first user equipment and the second user equipment, wherein - while the first user equipment and the second user equipment are, during an initial time interval, in an idle mode, respectively - the method comprises at least the steps performed by the mobile communication network of: -- in a first step - upon a first mobile terminated service targeting the first user equipment - a first paging operation is performed targeting the first user equipment, and -- in a second step, either during the first step or subsequent to the first step, - upon a second mobile terminated service targeting the second user equipment - a second paging operation is performed targeting the second user equipment, wherein the first paging operation is performed - during the initial time interval - in a first paging area, and the second paging operation is performed - during the initial time interval - in a second paging area, the first paging area being defined as corresponding to a first set of radio cells - comprising the serving cell - specific of the first user equipment, and the second paging area being defined as corresponding to a second set of radio cells - comprising the serving cell - specific of the second user equipment, wherein the mobile communication network defines the paging areas assigned to the first and second user equipments such that a mandatory overlap between the first paging area and the second paging area is restricted to the serving cell, wherein the first paging area and the second paging area differ from each other depending on current mobility needs and a speed of the first user equipment and the second user equipment. -- in a first step - upon a first mobile terminated service targeting the first user equipment - a first paging operation is performed targeting the first user equipment, and -- in a second step, either during the first step or subsequent to the first step, - upon a second mobile terminated service targeting the second user equipment - a second paging operation is performed targeting the second user equipment, wherein the first paging operation is performed - during the initial time interval - in a first paging area, and the second paging operation is performed - during the initial time interval - in a second paging area, the first paging area being defined as corresponding to a first set of radio cells - comprising the serving cell - specific of the first user equipment, and the second paging area being defined as corresponding to a second set of radio cells - comprising the serving cell - specific of the second user equipment,
A method for use by an apparatus of a communications network system, the method comprising: providing a bandwidth part with a subcarrier spacing of 3.75 kHz; determining a resource allocation granularity for the bandwidth part; and performing resource allocation of allocating resource blocks of the bandwidth part based on the determined resource allocation granularity, wherein the resource allocation granularity comprises at least one of a first granularity of assigning one or more adjacent subcarriers of 3.75 kHz for a user equipment, a second granularity of assigning one or more adjacent groups of X subcarriers of 3.75 kHz for a user equipment, X being a positive integer and 2≤X≤11, and a third granularity of assigning one or more full physical resource blocks each comprising 12 subcarriers of 3.75 kHz for a user equipment, wherein the first granularity supports up to A reference signals per allocated resource or per symbol, the second granularity supports up to B reference signals per allocated resource or per symbol, and the third granularity supports up to C reference signals per allocated resource or per symbol, and wherein A<B, B<C and A<C. providing a bandwidth part with a subcarrier spacing of 3.75 kHz; determining a resource allocation granularity for the bandwidth part; and performing resource allocation of allocating resource blocks of the bandwidth part based on the determined resource allocation granularity, wherein the resource allocation granularity comprises at least one of a first granularity of assigning one or more adjacent subcarriers of 3.75 kHz for a user equipment, a second granularity of assigning one or more adjacent groups of X subcarriers of 3.75 kHz for a user equipment, X being a positive integer and 2≤X≤11, and a third granularity of assigning one or more full physical resource blocks each comprising 12 subcarriers of 3.75 kHz for a user equipment, wherein the first granularity supports up to A reference signals per allocated resource or per symbol, the second granularity supports up to B reference signals per allocated resource or per symbol, and the third granularity supports up to C reference signals per allocated resource or per symbol, and wherein A<B, B<C and A<C.