mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: determining, with a plurality of agent nodes structured to communicate asynchronously in a distributed system, a first set of iterations including an iteration determined by each of the plurality of agent nodes; determining, with a first agent node of the plurality of agent nodes, a local vector clock; receiving, with the first agent node, a first iteration of the first set of iterations and a remote vector clock determined based on the first iteration; updating, with the first agent node, the local vector clock based on the received remote vector clock; and determining, with the first agent node, a first iteration of a second set of iterations based on the first set of iterations after determining all iterations of the first set of iterations have been received based on the local vector clock, wherein the local vector clock includes a plurality of elements, wherein a first element of the local vector clock corresponds to a number of iterations determined with the first agent node. determining, with a plurality of agent nodes structured to communicate asynchronously in a distributed system, a first set of iterations including an iteration determined by each of the plurality of agent nodes; determining, with a first agent node of the plurality of agent nodes, a local vector clock; receiving, with the first agent node, a first iteration of the first set of iterations and a remote vector clock determined based on the first iteration; updating, with the first agent node, the local vector clock based on the received remote vector clock; and determining, with the first agent node, a first iteration of a second set of iterations based on the first set of iterations after determining all iterations of the first set of iterations have been received based on the local vector clock,
A power receiving device comprising: a ferrite member including a plurality of mutually spaced, split pieces of ferrite (91, 92A, 92B1, 92B2); a power receiving coil disposed on a side of a lower surface of said ferrite member; and a power receiving capacitor disposed on a side of an upper surface of said ferrite member, said power receiving capacitor having a closed loop circuit including a first wiring connection and a second wiring connection, and a plurality of capacitor elements (118A, 118B) connected in parallel between said first wiring connection and said second wiring connection, when said power receiving capacitor and said ferrite member are seen from therebelow, said closed loop circuit being located within the region covered by said split pieces of ferrite and being located inside the power receiving coil. a ferrite member including a plurality of mutually spaced, split pieces of ferrite (91, 92A, 92B1, 92B2); a power receiving coil disposed on a side of a lower surface of said ferrite member; and a power receiving capacitor disposed on a side of an upper surface of said ferrite member, said power receiving capacitor having a closed loop circuit including a first wiring connection and a second wiring connection, and a plurality of capacitor elements (118A, 118B) connected in parallel between said first wiring connection and said second wiring connection, when said power receiving capacitor and said ferrite member are seen from therebelow, said closed loop circuit being located within the region covered by said split pieces of ferrite and being located inside the power receiving coil.
A digital signal processing circuit for use in an optical receiver for receiving an optical signal that carries a first data signal and a second data signal, wherein the second data signal is superimposed on the first data signal, a symbol rate of the second data signal is lower than a symbol rate of the first data signal, and wherein said optical signal is modulated in frequency, phase or polarization according to the second data signal the digital signal processing circuit comprising: a detecting unit configured to detect a frequency of the optical signal when said optical signal is modulated in frequency according to the second data signal, a phase of the optical signal when said optical signal is modulated in phase according to the second data signal and polarisation of the optical signal when said optical signal is modulated in polarization according to the second data signal using a digital signal based on the optical signal, and to output state information representing the detected frequency, phase or polarization of the optical signal accordingly a state control unit configured to process the digital signal on the basis of the state information in order to recover the first data signal; and further comprising a recovery unit configured to recover the second data signal on the basis of the state information.
Detection method for detecting the yaw rate h and/or the heading H of an object vehicle based on sensor data of a radar sensor mounted on an ego-vehicle, wherein the sensor data are retrieved in the form of a range R to range rate r spectrum from the radar sensor, characterized in that the detection method comprises the following two steps of determining: - Determining two clusters C1, C2 of spectrum cells or recognition points within the range R to range rate r spectrum, wherein the spectrum cells or recognition points of the first cluster C1 have an intensity value above an intensity-threshold and are arranged on a first linear stretch st1 and the spectrum cells or recognition points of the second cluster have an intensity value above the intensity-threshold and are arranged on a second linear stretch st1; - Determining a first slope gradient g1 for the spectrum cells or recognition points in the first cluster C1 and a second slope gradient g2 for the spectrum cells or recognition points in the second cluster C2, wherein the slope gradients are defined as a ratio of a range difference dR to a range rate difference dr among the spectrum cells or recognition points in the respective cluster C1, C2; and performing at least one of following two calculations: - calculating the yaw rate h of the object vehicle based on a function of the first slope gradient g1 and the second slope gradient g2, i.e. h = f(g1, g2), in particular according to the following formula: h = ± 1 g 1 × g 2; - calculating the heading H of the object vehicle based on a function of the first slope gradient g1 and the second slope gradient g2, i.e. H = f(g1, g2), in particular according to the formula: H = ± arctan g 1 g 2. - Determining two clusters C1, C2 of spectrum cells or recognition points within the range R to range rate r spectrum, wherein the spectrum cells or recognition points of the first cluster C1 have an intensity value above an intensity-threshold and are arranged on a first linear stretch st1 and the spectrum cells or recognition points of the second cluster have an intensity value above the intensity-threshold and are arranged on a second linear stretch st1; - Determining a first slope gradient g1 for the spectrum cells or recognition points in the first cluster C1 and a second slope gradient g2 for the spectrum cells or recognition points in the second cluster C2, wherein the slope gradients are defined as a ratio of a range difference dR to a range rate difference dr among the spectrum cells or recognition points in the respective cluster C1, C2; - calculating the yaw rate h of the object vehicle based on a function of the first slope gradient g1 and the second slope gradient g2, i.e. h = f(g1, g2), in particular according to the following formula: h = ± 1 g 1 × g 2; - calculating the heading H of the object vehicle based on a function of the first slope gradient g1 and the second slope gradient g2, i.e. H = f(g1, g2), in particular according to the formula: H = ± arctan g 1 g 2.
A compound of formula (XVIIB): or a stereoisomer or a pharmaceutically acceptable salt, solvate, ester, or tautomer thereof; wherein: Z isCH orN; R 1 is selected from hydrogen, methyl, fluoro, chloro, bromo, CF 3, or cyano; R 2 is -OCF 3, -OCHF 2, -OCF 2 CF 3, -OCH 2 CHF 2, -OCH 2 CF 3, cyclopropoxy, methoxy, -OCD 3, ethoxy, or isopropoxy; R 3 is N(R 10)C 2-6 alkyl-NR 10 R 10; R 4a and R 4b are each independently H, halo, -C 1-6 alkyl, or -C 1-6 haloalkyl; R 4c is cyano, -C(=O)NR 8 R 9 or -NR 8 R 9; R 4N is H, -C 1-6 alkyl, or -CD 3; R 8 and R 9 are independently H, -CD 3, C 1-6 alkyl, C 3-8 cycloalkyl, C 3-8 cycloalkyl-(C 1-3 alkyl)-, C 1 -C 6 acyl, phenyl, monocyclic heteroaryl, or monocyclic heterocyclyl; and R 8 and R 9 may be further independently substituted with up to three substituents chosen from hydroxyl, C 1-6 alkoxy, oxo, thiono, cyano or halo; and each R 10 is independently H, -CD 3, or C 1-6 alkyl; or alternatively, two R 10 on the same N atom to which they are both attached, form a heterocyclic ring of 5-6 members, containing up to one other heteroatom selected from O, S, or NR 11; and each R 11 is independently hydrogen or C 1 -C 6 alkyl, which is optionally substituted with up to three substituents selected from hydroxyl, oxo, thiono, cyano and halo. Z isCH orN; R 1 is selected from hydrogen, methyl, fluoro, chloro, bromo, CF 3, or cyano; R 2 is -OCF 3, -OCHF 2, -OCF 2 CF 3, -OCH 2 CHF 2, -OCH 2 CF 3, cyclopropoxy, methoxy, -OCD 3, ethoxy, or isopropoxy; R 3 is N(R 10)C 2-6 alkyl-NR 10 R 10; R 4a and R 4b are each independently H, halo, -C 1-6 alkyl, or -C 1-6 haloalkyl; R 4c is cyano, -C(=O)NR 8 R 9 or -NR 8 R 9; R 4N is H, -C 1-6 alkyl, or -CD 3; R 8 and R 9 are independently H, -CD 3, C 1-6 alkyl, C 3-8 cycloalkyl, C 3-8 cycloalkyl-(C 1-3 alkyl)-, C 1 -C 6 acyl, phenyl, monocyclic heteroaryl, or monocyclic heterocyclyl; and R 8 and R 9 may be further independently substituted with up to three substituents chosen from hydroxyl, C 1-6 alkoxy, oxo, thiono, cyano or halo; and each R 10 is independently H, -CD 3, or C 1-6 alkyl; or alternatively, two R 10 on the same N atom to which they are both attached, form a heterocyclic ring of 5-6 members, containing up to one other heteroatom selected from O, S, or NR 11; and each R 11 is independently hydrogen or C 1 -C 6 alkyl, which is optionally substituted with up to three substituents selected from hydroxyl, oxo, thiono, cyano and halo.
Assembly, comprising: a light rail (12") provided with one or more conductive tracks which conduct electric current; an adapter (14") mountable in the rail (12") and provided with an electrical contact configured to engage on the conductive track of the light rail, wherein the adapter (14") is provided with clamping means in the rail for fixedly clamping the adapter; a tube socket (22") for arranging on the adapter and provided with at least one electrical connection; a light-emitting diode tube (LED tube) which is provided with two contacts configured to fit into the tube socket; and a further light rail mutually adjacent to the light rail (12"), wherein the tube socket (22") is arranged rotatably on the adapter (14") and the LED tube is arranged between the mutually adjacent light rails (12", 12'''). a light rail (12") provided with one or more conductive tracks which conduct electric current; an adapter (14") mountable in the rail (12") and provided with an electrical contact configured to engage on the conductive track of the light rail, wherein the adapter (14") is provided with clamping means in the rail for fixedly clamping the adapter; a tube socket (22") for arranging on the adapter and provided with at least one electrical connection; a light-emitting diode tube (LED tube) which is provided with two contacts configured to fit into the tube socket; and a further light rail mutually adjacent to the light rail (12"), wherein the tube socket (22") is arranged rotatably on the adapter (14") and the LED tube is arranged between the mutually adjacent light rails (12", 12''').
A kit including a cranial drill system comprising a first drilling element and a second drilling element, the second drilling element for drilling into the skull, wherein the second drilling element comprises a guide which during drilling with the second element can extend into and is a close fit in an opening formed by the first drilling element; and characterised in that the kit further comprises an implantable instrument for locating within the opening in the skull formed using the cranial drill system such that the implantable instrument is implanted into the brain, the cranial drill system arranged to form the opening with a profile corresponding to a profile of the implantable instrument.
A complex grease comprising: a. preformed calcium acetate from 0.25 wt % to 5 wt %; b. an overbased calcium sulphonate detergent from 10 wt % to 30 wt %; and c. an oil of lubricating viscosity. a. preformed calcium acetate from 0.25 wt % to 5 wt %; b. an overbased calcium sulphonate detergent from 10 wt % to 30 wt %; and c. an oil of lubricating viscosity.
A method of control of an electric machine coupled to rotating machinery, the electric machine comprising a rotor and a stator, wherein the method comprises: sensing one or more parameters indicative of one or more resonance conditions of the rotating machinery; comparing the sensed parameter to a predetermined threshold to determine whether the rotating machinery is operating at the resonance condition; the method being characterized by: where the rotating machinery is determined to be operating at the resonance condition, adjusting a magnetic field of one or both of the rotor and the stator to provide a predetermined torque to the rotating machine, to modulate the stiffness of the rotational machinery, and thereby move the resonance condition away from the current rotating machinery conditions, using at least integral control to control the magnetic field of the electric machine, and modulating the integral gain values to adjust the stiffness of the electric machine. sensing one or more parameters indicative of one or more resonance conditions of the rotating machinery; comparing the sensed parameter to a predetermined threshold to determine whether the rotating machinery is operating at the resonance condition; the method being characterized by: where the rotating machinery is determined to be operating at the resonance condition, adjusting a magnetic field of one or both of the rotor and the stator to provide a predetermined torque to the rotating machine, to modulate the stiffness of the rotational machinery, and thereby move the resonance condition away from the current rotating machinery conditions, using at least integral control to control the magnetic field of the electric machine, and modulating the integral gain values to adjust the stiffness of the electric machine.
An electrical connection box in which a circuit board is housed inside a case having an upper case and a lower case, and in which a connector provided projecting from the circuit board is arranged inside an opening portion formed in the lower case and is exposed to the outside of the case, the opening portion being shaped as an elongated rectangle that pierces through a bottom face of the lower case, the connector being provided with a covering plate portion that spreads out parallel to the circuit board, and a gap between the connector and the opening portion in the lower case being blocked by the covering plate portion.
Battery for a motor vehicle, with a number of battery cells forming a stack, wherein a self-rigid separator is arranged between any two adjacent battery cells, which electrically insulates the two cells from one another, with each battery cell being enclosed by two separators (14, 16), in which, in a gap that is formed between the two end faces of the separators (14, 16) that enclose each battery cell, a foam sealant is arranged to form a seal, whereby the separators (14, 16), in combination with the foam sealant, form a closed bottom plate and at least one closed side wall adjoining the bottom plate, whereby the stack of battery cells is arranged in a mounting frame enclosing at least one side wall, whereby the battery cells in the stack are arranged pressed against one another and whereby pressure on the stack is maintained by external boundary walls, characterised in that the gap in the stack subjected to pressure is externally accessible.
A lamination process for producing a composite laminate sheet comprising a plurality of sections which can be separated into individual cards, comprising the steps of: selectively applying one or more security, functional or decorative features or layers on a surface of an intermediate film (1,C) or foil layer for each of the plurality of sections, prior to lamination; feeding the intermediate film or foil layer having the one or more security, functional or decorative features or layers for each of the plurality of sections to a laminating nip (3,5); feeding a sheet (4,D) of core substrate stock to the laminating nip; registering the sheet of core substrate stock and the intermediate film or foil layer; laminating the sheet of core substrate stock and the intermediate film or foil layer in register to produce the composite laminate sheet, and additionally applying at least one print layer or at least one protective overlay layer to an outer surface of the intermediate film or foil layer, wherein the at least one security, functional or decorative feature or layer for each of the plurality of sections are buried within the construction. selectively applying one or more security, functional or decorative features or layers on a surface of an intermediate film (1,C) or foil layer for each of the plurality of sections, prior to lamination; feeding the intermediate film or foil layer having the one or more security, functional or decorative features or layers for each of the plurality of sections to a laminating nip (3,5); feeding a sheet (4,D) of core substrate stock to the laminating nip; registering the sheet of core substrate stock and the intermediate film or foil layer; laminating the sheet of core substrate stock and the intermediate film or foil layer in register to produce the composite laminate sheet, and additionally applying at least one print layer or at least one protective overlay layer to an outer surface of the intermediate film or foil layer, wherein the at least one security, functional or decorative feature or layer for each of the plurality of sections are buried within the construction.
A method for boundary detection in speech, comprising: a) determining an auditory spectrum for an input window of sound; b) extracting a plurality of multi-scale features from the auditory spectrum, wherein each multi-scale feature is extracted using a separate two-dimensional spectro-temporal receptive filter; c) generating a plurality of feature maps corresponding to the plurality of multi-scale features, wherein the feature maps represent local temporal and spatial discontinuities; d) extracting an auditory gist vector from each of the feature maps, wherein each auditory gist vector is determined by dividing its corresponding feature map into an m-by-n grid of sub-regions and calculating statistics for each sub-region; e) obtaining a cumulative gist vector using each auditory gist vector extracted from the plurality of feature maps; and f) detecting one or more boundaries corresponding to the beginning or the end of a syllable nucleus in the input window of sound by mapping the cumulative gist vector to one or more syllable boundaries using a machine learning algorithm. a) determining an auditory spectrum for an input window of sound; b) extracting a plurality of multi-scale features from the auditory spectrum, wherein each multi-scale feature is extracted using a separate two-dimensional spectro-temporal receptive filter; c) generating a plurality of feature maps corresponding to the plurality of multi-scale features, wherein the feature maps represent local temporal and spatial discontinuities; d) extracting an auditory gist vector from each of the feature maps, wherein each auditory gist vector is determined by dividing its corresponding feature map into an m-by-n grid of sub-regions and calculating statistics for each sub-region; e) obtaining a cumulative gist vector using each auditory gist vector extracted from the plurality of feature maps; and f) detecting one or more boundaries corresponding to the beginning or the end of a syllable nucleus in the input window of sound by mapping the cumulative gist vector to one or more syllable boundaries using a machine learning algorithm.
A method for preparing a granulated aromatic plant product consisting of aromatic plants and osmotic agent, wherein said aromatic plants account for at least 0.5 w/w% dry matter up to 48 w/w% dry matter of the product and are encapsulated in the said osmotic agents, and said product having a granulated form, the method comprising steps of: - milling fresh aromatic plants; - mixing the above obtained aromatic plant with osmotic agent under moisture up to 30 % and temperature of -10 to 65 degrees C, so as to form a viscous mixture; - granulating the obtained mixture to obtain the granules; - drying the granules to have a moisture content of 0.5 to 5.0 %; wherein said osmotic agent is sodium chloride or MSG or a mixture thereof; and wherein said aromatic plants comprised in the final product have a peroxidase or polyphenoloxydase activity which is at least 15 % of their corresponding fresh aromatic plants. - milling fresh aromatic plants; - mixing the above obtained aromatic plant with osmotic agent under moisture up to 30 % and temperature of -10 to 65 degrees C, so as to form a viscous mixture; - granulating the obtained mixture to obtain the granules; - drying the granules to have a moisture content of 0.5 to 5.0 %;
A method for utilizing a Diameter proxy agent to communicate short message service, SMS, messages in a Diameter network, the method comprising: at a Diameter proxy agent located in a first network: receiving, from an SMS service center via a Diameter interface, a mobile subscriber location information request message directed to a home subscriber server, HSS, (120, 122, 124), wherein the mobile subscriber location information request message is associated with a recipient mobile subscriber; querying a number portability database to determine whether the recipient mobile subscriber has been ported to a foreign network or ported into the first network; in response to determining the recipient mobile subscriber has been ported to the foreign network or is owned by the foreign network, forwarding the mobile subscriber location information request message to the foreign network; and in response to determining the recipient mobile subscriber has not been ported to the foreign network or has been ported into the first network, forwarding the request message to an HSS (120, 122, 124) associated with the recipient mobile subscriber in the first network. receiving, from an SMS service center via a Diameter interface, a mobile subscriber location information request message directed to a home subscriber server, HSS, (120, 122, 124), wherein the mobile subscriber location information request message is associated with a recipient mobile subscriber; querying a number portability database to determine whether the recipient mobile subscriber has been ported to a foreign network or ported into the first network; in response to determining the recipient mobile subscriber has been ported to the foreign network or is owned by the foreign network, forwarding the mobile subscriber location information request message to the foreign network; and in response to determining the recipient mobile subscriber has not been ported to the foreign network or has been ported into the first network, forwarding the request message to an HSS (120, 122, 124) associated with the recipient mobile subscriber in the first network.
Method of raindrop detection on a windscreen by capturing images on said windscreen, including a step of edge detection in an area of interest of said captured images, characterized in that said method further comprises a step of scaling the captured images pixels in function of the ambient light level passing through said windscreen before detecting edges, the scaling step converting the intensity of each pixel in function of a target mean and a target standard deviation of the pixels distribution of said area of interest.