mhurhangee/ep-ind-claims huggingface dataset:
A method for assessing performance impact of a power upgrade of one or more wind turbines (2, 3, 4) of a wind farm, the method comprising the steps of: - dividing at least some of the wind turbines (2, 3, 4) of the wind farm into a group of target wind turbines and a group of reference wind turbines, - operating the wind turbines (2, 3, 4) of the wind farm, while obtaining locally measured wind speeds at each of the wind turbines (2, 3, 4), - for each of the target wind turbines, generating a transfer function establishing a relationship between the locally measured wind speed at the target wind turbine and the locally measured wind speeds at each of the reference wind turbines, - performing a power upgrade of each of the target wind turbines, - operating the wind turbines (2, 3, 4) of the wind farm, while obtaining locally measured wind speeds, at least at the reference wind turbines, - obtaining power performance data for each of the reference wind turbines, within one or more wind speed intervals, based on locally measured wind speeds at the reference wind turbines, - obtaining power performance data for each of the target wind turbines, within the one or more wind speed intervals, based on estimated wind speeds obtained by means of locally measured wind speeds at each of the reference wind turbines and the previously generated transfer functions for each of the target wind turbines, - comparing the obtained power performance data for the reference wind turbines and for the target wind turbines, and - assessing a performance impact of the power upgrade, based on the comparison. - dividing at least some of the wind turbines (2, 3, 4) of the wind farm into a group of target wind turbines and a group of reference wind turbines, - operating the wind turbines (2, 3, 4) of the wind farm, while obtaining locally measured wind speeds at each of the wind turbines (2, 3, 4), - for each of the target wind turbines, generating a transfer function establishing a relationship between the locally measured wind speed at the target wind turbine and the locally measured wind speeds at each of the reference wind turbines, - performing a power upgrade of each of the target wind turbines, - operating the wind turbines (2, 3, 4) of the wind farm, while obtaining locally measured wind speeds, at least at the reference wind turbines, - obtaining power performance data for each of the reference wind turbines, within one or more wind speed intervals, based on locally measured wind speeds at the reference wind turbines, - obtaining power performance data for each of the target wind turbines, within the one or more wind speed intervals, based on estimated wind speeds obtained by means of locally measured wind speeds at each of the reference wind turbines and the previously generated transfer functions for each of the target wind turbines, - comparing the obtained power performance data for the reference wind turbines and for the target wind turbines, and - assessing a performance impact of the power upgrade, based on the comparison.
A method of manufacturing an implantable medical device, comprising: inserting a mold insert into a molding tool and molding a member onto an interior surface within an interior cavity of the mold insert; inserting an elongate medical device body into an interior lumen of the member; undermolding the elongate medical device body directly to the member, causing the medical device body material to thermally bond with the member; and removing the mold insert from the member. inserting a mold insert into a molding tool and molding a member onto an interior surface within an interior cavity of the mold insert; inserting an elongate medical device body into an interior lumen of the member; undermolding the elongate medical device body directly to the member, causing the medical device body material to thermally bond with the member; and removing the mold insert from the member.
Mechanical assembly for the connection between a first modular element and a second modular element of telescopic poles for practicing sport, spare time activities and the like, said first modular element having a first diameter and said second modular element having a second diameter, lower than said first diameter and being slidingly coupled with said first modular element in such a way as to axially protrude from said first modular element at an end of said first modular element, said mechanical assembly comprising: - a grasping device (2; 51), fixed to said first modular element at said end and presenting on its outer surface (2a; 51a) a linear guide (10; 53) along which said cursor slides; - a cursor operable by the user, axially movable along said first modular element and cooperating with an elastically yielding portion (7; 52), belonging to said grasping device (2; 51) and protruding from said end of said first modular element, in order to set said elastically yielding portion (7; 52) between a rest position, in which said elastically yielding portion (7; 52) is released and said second modular element is free to slide with respect to said first modular element, and an operating position, in which said elastically yielding portion (7; 52) is compressed by said cursor in such a way to block the movement of said second modular element with respect to said first modular element, characterized in that said linear guide (10; 53) presents first end-of-stroke means for retaining said cursor always at least partially superimposed on said grasping device (2; 51). - a grasping device (2; 51), fixed to said first modular element at said end and presenting on its outer surface (2a; 51a) a linear guide (10; 53) along which said cursor slides; - a cursor operable by the user, axially movable along said first modular element and cooperating with an elastically yielding portion (7; 52), belonging to said grasping device (2; 51) and protruding from said end of said first modular element, in order to set said elastically yielding portion (7; 52) between a rest position, in which said elastically yielding portion (7; 52) is released and said second modular element is free to slide with respect to said first modular element, and an operating position, in which said elastically yielding portion (7; 52) is compressed by said cursor in such a way to block the movement of said second modular element with respect to said first modular element,
A method of providing biomarker for early detection of Alzheimer's Disease, comprising: training a processor using magnetic resonance imaging images containing the anatomical structure of Hippocampus and Mini-Mental State Examination (MMSE) data as a training data set, and the training comprising acts of: proceeding an MRI image preprocessing to determine volume of a Hippocampus of each MRI images, and segmenting the Hippocampus into sections, wherein the segmentations of the Hippocampus are alveus, parasubiculum, presubiculum, subiculum, CA1, CA2/3, CA4, GC-DG, HATA, fimbria, molecular layer, Hippocampus fissure and Hippocampus tail; building a 3 Dimensions Hippocampus model and determining surface areas for each section of each Hippocampus in MRI images; determining a Ratio of Principal Curvature for each section of each Hippocampus; and selecting candidate parameters as inputs to iteratively train an iterative neural network in the processor, wherein the candidate parameters comprise the volume of Hippocampus, the surface areas and the RPC of sections of Hippocampus, and scores of MMSE data. proceeding an MRI image preprocessing to determine volume of a Hippocampus of each MRI images, and segmenting the Hippocampus into sections, wherein the segmentations of the Hippocampus are alveus, parasubiculum, presubiculum, subiculum, CA1, CA2/3, CA4, GC-DG, HATA, fimbria, molecular layer, Hippocampus fissure and Hippocampus tail; building a 3 Dimensions Hippocampus model and determining surface areas for each section of each Hippocampus in MRI images; determining a Ratio of Principal Curvature for each section of each Hippocampus; and selecting candidate parameters as inputs to iteratively train an iterative neural network in the processor, wherein the candidate parameters comprise the volume of Hippocampus, the surface areas and the RPC of sections of Hippocampus, and scores of MMSE data.
Method of executing a secure application in an NFC device, the method comprising steps during which: a contactless link is established between a first NFC device and a second NFC device, the first NFC device transmits by the contactless link an identifier of a secure processor of the first NFC device, the second NFC device transmits by the contactless link an application identifier (APID) of an application installed in the first NFC device, the secure processor transmits by the contactless link first authentication data allowing the authentication of the secure processor of the first NFC device, and the second NFC device transmits to an application server (ASRV) the first authentication data, the application server transmits to an authentication server (HSRV) the first authentication data and second authentication data allowing for the authentication of the application corresponding to the application identifier, the authentication server verifies the authentication data and authorizes a transaction during the execution of the application only if the secure processor and the application are authenticated. a contactless link is established between a first NFC device and a second NFC device, the first NFC device transmits by the contactless link an identifier of a secure processor of the first NFC device, the second NFC device transmits by the contactless link an application identifier (APID) of an application installed in the first NFC device, the secure processor transmits by the contactless link first authentication data allowing the authentication of the secure processor of the first NFC device, and the second NFC device transmits to an application server (ASRV) the first authentication data, the application server transmits to an authentication server (HSRV) the first authentication data and second authentication data allowing for the authentication of the application corresponding to the application identifier, the authentication server verifies the authentication data and authorizes a transaction during the execution of the application only if the secure processor and the application are authenticated.
A mixing element for a static mixer for installation into a tubular mixer housing, wherein the mixing element has a longitudinal axis along which a plurality of installation bodies (1, 101) are arranged behind one another, wherein a first installation body has a first wall element which extends in the direction of the longitudinal axis and has a first side wall and a second side wall which is arranged opposite the first side wall, wherein a deflection element is arranged adjacent to the first wall element and the deflection element has a deflection surface extending in the transverse direction to the first wall element at both sides of the wall element, the deflection surface comprising a first, second and third part deflection surface, wherein the first part deflection surface, the second part deflection surface and a first opening is provided in the deflection surface at the side facing the first side wall of the first wall element, the first opening being provided between the first and second part deflection surfaces, wherein a second and a third wall element (8, 9) are arranged adjacent to the first opening, wherein the second and third wall elements (8, 9) extend in the direction of the longitudinal axis and each have an inner wall (81, 91) and an outer wall (82, 92) which extend substantially in the direction of the longitudinal axis and each of the inner walls (81, 91) and outer walls (82, 92) include an angle between 20° and 160° with the first or second side walls (3, 4) of the first wall element, wherein the first opening is arranged between the inner walls (81, 91) of the second and third wall elements (8, 9) and a second opening is arranged outside the outer wall of the second wall element, and a third opening is arranged outside the outer wall of the third wall element, wherein the second and third openings (13, 14) are provided in the deflection surface at the side which faces the second side wall of the first wall element and the third part deflection surface is formed between the second and third openings (13, 14), wherein a first wall element of a second installation body adjoins the second and third wall elements (8, 9), wherein the first installation body is connected to the second installation body via a common bar element (15, 16, 17, 18), characterized in that in addition to the named deflection element, a separation element (27, 28, 29, 30, 31) is provided which is connected to the bar element (15, 16, 17, 18), with the separation element (27, 28, 29, 30, 31) being formed as a projection which extends from an inner wall of the mixer housing transversely to its longitudinal axis of the mixer housing into a mixing space (20, 120).
An integrated circuit for executing an encryption algorithm using an encryption key by receiving an input data to be encrypted, the integrated circuit comprising: an encryption module to execute the encryption algorithm using an encryption key; and a plurality of encryption key modules (321, 322) to provide different encryption keys, wherein the encryption module comprises: an encryption key module selector to select one of the plurality of encryption key modules (321, 322), and an encryption unit to execute the encryption algorithm using an encryption key provided by the selected encryption key module (321, 322), characterised in that the encryption module further comprises a plurality of standard cells, wherein the plurality of encryption key modules (321, 322) is disposed at random positions among layouts of the plurality of standard cells included in the encryption module, and wherein at least a portion of the plurality of encryption key modules are dummy encryption key modules that do not provide encryption keys. an encryption module to execute the encryption algorithm using an encryption key; and a plurality of encryption key modules (321, 322) to provide different encryption keys, wherein the encryption module comprises: an encryption key module selector to select one of the plurality of encryption key modules (321, 322), and an encryption unit to execute the encryption algorithm using an encryption key provided by the selected encryption key module (321, 322), an encryption key module selector to select one of the plurality of encryption key modules (321, 322), and an encryption unit to execute the encryption algorithm using an encryption key provided by the selected encryption key module (321, 322), characterised in that the encryption module further comprises a plurality of standard cells, wherein the plurality of encryption key modules (321, 322) is disposed at random positions among layouts of the plurality of standard cells included in the encryption module, and wherein at least a portion of the plurality of encryption key modules are dummy encryption key modules that do not provide encryption keys.
A method of operating an apparatus associated with a user equipment comprising: in response to selection of a transport block to be transmitted through a wireless channel at a data rate, performing at least the following: selecting a size for a data unit that can be scheduled for transmission; identifying one of a plurality of potential transport blocks (410-1 to 410-N), the identified potential transport block having a corresponding transport block size that holds at least the selected size of the data unit and the transport block size of the selected transport block; determining whether the identified potential transport block is available for transmission; and transmitting to a base station a request for an increase in the data rate in response to the identified potential transport block being available for transmission. in response to selection of a transport block to be transmitted through a wireless channel at a data rate, performing at least the following: selecting a size for a data unit that can be scheduled for transmission; identifying one of a plurality of potential transport blocks (410-1 to 410-N), the identified potential transport block having a corresponding transport block size that holds at least the selected size of the data unit and the transport block size of the selected transport block; determining whether the identified potential transport block is available for transmission; and transmitting to a base station a request for an increase in the data rate in response to the identified potential transport block being available for transmission. selecting a size for a data unit that can be scheduled for transmission; identifying one of a plurality of potential transport blocks (410-1 to 410-N), the identified potential transport block having a corresponding transport block size that holds at least the selected size of the data unit and the transport block size of the selected transport block; determining whether the identified potential transport block is available for transmission; and transmitting to a base station a request for an increase in the data rate in response to the identified potential transport block being available for transmission.
An inking system for an intaglio printing machine, said inking system comprising at least a duct (1; 10) for inking the surface of an selective inking cylinder (5; 13; 34, 35, 36, 37) having engravings directly engraved in the surface thereof or carrying an engraved plate with engravings, which selective inking cylinder in turn inks the surface of a plate cylinder (16; 23; 28; 39) of the intaglio printing machine via a chablon roller (17; 21; 24; 40, 41, 42, 43) having reliefs (18; 22; 25), the engravings of said selective inking cylinder (5; 13; 34, 35, 36, 37) and the reliefs (18; 22; 25) of said chablon roller (17; 21; 24; 40, 41, 42, 43) corresponding to engravings (27; 38) to be inked on said plate cylinder (16; 23; 28; 39), characterized in that said chablon roller (17; 24; 40, 41, 42, 43) indirectly inks the surface of said plate cylinder (16; 28; 39) via a collector cylinder (19; 26; 44), said inking system further comprises a wiping system (8, 9) for wiping the surface of said selective inking cylinder and recuperating the wiped ink in the duct (1; 10).
A method of producing a collagen membrane comprising the steps of: (i) isolating a collagen-containing tissue and incubating same in an ethanol solution, preferably an ethanol solution comprising greater than 70% ethanol; (ii) incubating the collagen-containing tissue from step (i) in a first solution comprising an inorganic salt and an anionic surfactant in order to denature non-collagenous proteins contained therein; (iii) incubating the collagen-containing tissue produced in step (ii) in a second solution comprising an inorganic acid until the collagen in said tissue is denatured; and (iv) incubating the collagen-containing tissue produced in step (iii) in a third solution comprising an inorganic acid with simultaneous mechanical stimulation for sufficient time to enable the collagen bundles in said collagen-containing tissue to align; wherein the mechanical stimulation comprises applying tension cyclically to the collagen-containing tissue. (i) isolating a collagen-containing tissue and incubating same in an ethanol solution, preferably an ethanol solution comprising greater than 70% ethanol; (ii) incubating the collagen-containing tissue from step (i) in a first solution comprising an inorganic salt and an anionic surfactant in order to denature non-collagenous proteins contained therein; (iii) incubating the collagen-containing tissue produced in step (ii) in a second solution comprising an inorganic acid until the collagen in said tissue is denatured; and (iv) incubating the collagen-containing tissue produced in step (iii) in a third solution comprising an inorganic acid with simultaneous mechanical stimulation for sufficient time to enable the collagen bundles in said collagen-containing tissue to align; wherein the mechanical stimulation comprises applying tension cyclically to the collagen-containing tissue.
Electron Beam curable compositions comprising alcohol containing substances, which are essentially free of ethylenically unsaturated groups, wherein the alcohol is selected from the group consisting of propylene glycol, trimethylolpropane, glycerol, diethylene glycol, triethylene glycol, tetraethylene glycol, dipropylene glycol, tripropylene glycol, poly(ethylene glycol), poly(propylene glycol), ethoxylated trimethylolpropane, propoxylated trimethylolpropane, ethoxylated pentaerythritol, propoxylated pentaerythritol, ethoxylated ditrimethylolpropane, propoxylated ditrimethylolpropane, ethoxylated dipentaerythritol, propoxylated dipentaerythritol, and combinations thereof, wherein the compositions further comprise one or more ethylenically unsaturated monomers, and wherein the concentration of monofunctional monomer is less than 20% by weight of the total composition.
A method for managing a wireless network, comprising; among wireless devices configuring the wireless network, determining a first wireless device to be disassociated from the wireless network, based on a response to a determination that the wireless network has no capability to accept a second wireless device having requested association to said wireless network, wherein determining the first wireless device further comprises transmitting device information request messages to the wireless devices configuring said wireless network; based on the device information messages received from the wireless devices configuring said wireless network, selecting the first wireless device that can join another wireless network; transmitting a disassociation request message to the first wireless device which is to be disassociated from the wireless network; and after disassociating the first wireless device, the association request of the second wireless device is approved and the second wireless device is associated with the wireless network.
A method for transmission of a media stream embedded in a control stream based on H.248, wherein the media stream is a Real-time Transport Protocol, RTP, stream, comprising: receiving, by a media gateway, MG, from a media gateway controller, MGC, an indication of embedding the media stream in a control stream for transmission; wherein the indication is a signal or event for incoming data of the media stream, and the signal or event indicates that the incoming data of the MG needs to be sent to the MG via the MGC; wherein the signal and the event are descriptors included by commands between the MGC and the MG; and performing, by the MG, transmission of the control stream that embeds media stream data via the MGC according to the indication; wherein the step of performing transmission of the control stream that embeds media stream data via the MGC according to the indication comprises: obtaining, by the MG, the incoming data of the media stream from the signal or event sent by the MGC. receiving, by a media gateway, MG, from a media gateway controller, MGC, an indication of embedding the media stream in a control stream for transmission; wherein the indication is a signal or event for incoming data of the media stream, and the signal or event indicates that the incoming data of the MG needs to be sent to the MG via the MGC; wherein the signal and the event are descriptors included by commands between the MGC and the MG; and performing, by the MG, transmission of the control stream that embeds media stream data via the MGC according to the indication; wherein the step of performing transmission of the control stream that embeds media stream data via the MGC according to the indication comprises: obtaining, by the MG, the incoming data of the media stream from the signal or event sent by the MGC.