mhurhangee/patent-ind-claim-en huggingface dataset:
Method for coating a steel sheet or steel strip, to which an aluminum-based coat is applied in a hot-dip process, the surface of the coat being freed from a naturally occurring aluminum oxide layer and then transition metals or transition metal compounds being deposited on the freed surface of the coat in order to form a top layer, characterized in that the top layer is deposited as a planar deposit and having a layer weight-based on iron-in the range of 7 to 25 mg/m 2 , preferably 10 to 15 mg/m 2 , the transition metals or the transition metal compounds comprising at least one chemical element from the group of titanium, vanadium, chromium, manganese, or iron and/or the compounds thereof and the transition metals or the transition metal compounds predominantly or almost completely comprising iron or the compounds thereof.
A hinge arrangement adapted to be located at an end portion of a bonnet of a vehicle , said hinge arrangement having a longitudinal direction (x), a transverse direction (y) and a vertical direction (z), said hinge arrangement being transitable between a normal state and a deployed state, said hinge arrangement comprising - a hinge portion adapted to be attached, directly or indirectly, to a body of said vehicle , - a bracket portion adapted to be attached, directly or indirectly, to said bonnet , - a deployment guiding arrangement , and - a lifting member , said hinge portion comprising a first member , a second member and a first pivot axis (A1) providing a hinged connection between said first member and said second member , characterized by said deployment guiding arrangement comprising a multi-link connection between said bracket portion and said first member of said hinge portion , wherein said deployment guiding arrangement comprises a first arm , a second arm and a third arm , the first arm is pivotally connected to the first member at a first end by a second pivot axis (A2), wherein an opposite second end of the first arm is pivotally connected to the bracket portion at a third pivot axis (A3), the second arm is pivotally connected at a first end to the first member of the hinge portion , the third arm pivotally connecting a second opposite end of said second arm to said first arm , said bracket portion being arranged to be in a fixed position relative to said first member during movement in said hinged connection (A1), said lifting member being arranged at an angle (α) less than 45° to a plane spanned by said longitudinal direction (x) and said transverse direction (y) of said hinge arrangement , said bracket portion being arranged to be translationally displaced as a whole at least in said vertical direction (z) in relation to said first member of said hinge portion by means of said lifting member acting on said deployment guiding arrangement during said transition of said hinge arrangement between said normal state and said deployed state, said deployment guiding arrangement being adapted to control said transition and said hinged connection (A1) being inactive during said transition. - a hinge portion adapted to be attached, directly or indirectly, to a body of said vehicle , - a bracket portion adapted to be attached, directly or indirectly, to said bonnet , - a deployment guiding arrangement , and - a lifting member ,
A powdered composition [composition (C), hereinafter] suitable for producing a simulant composition of an explosive compound, said composition (C) has an effective atomic number [Zeff, hereinafter] between 6.5 and 7.5 and comprises, relative to the total weight of the composition (C), a) at least 25.0 % by weight (wt. %) and at most 75.0 wt. % of solid particles of at least one inert organic compound [compound (OR), hereinafter], having a general formula (I): [R 1 -FG] x M x+ (I) wherein FG is a functional group selected from the group consisting of carboxylate group, a sulfate group, a sulfonate group, a benzylsulfonate ether groups, a phosphate group, an isethionate group, a sulphosuccinate group, an acyl citrate group, an acyl taurate group, an sarcosinate group, an amino carboxylate group; and wherein M is a metal M selected from the group consisting of alkali metals, alkali-earth metals and transition metals and x is 1, 2 or 3; and R 1 is hydrocarbon radicals comprising from 6 to 24 carbon atoms; and b) at least 25.0 % by weight (wt. %) and at most 75.0 wt. % of solid particles of at least one inert compound comprising at least C, H and O elements [compound (I), hereinafter] wherein said compound (I) has a density of below 2.4 g/cm 3 and a melting point of at least 40 oC. a) at least 25.0 % by weight (wt. %) and at most 75.0 wt. % of solid particles of at least one inert organic compound [compound (OR), hereinafter], having a general formula (I): [R 1 -FG] x M x+ (I) wherein FG is a functional group selected from the group consisting of carboxylate group, a sulfate group, a sulfonate group, a benzylsulfonate ether groups, a phosphate group, an isethionate group, a sulphosuccinate group, an acyl citrate group, an acyl taurate group, an sarcosinate group, an amino carboxylate group; and wherein M is a metal M selected from the group consisting of alkali metals, alkali-earth metals and transition metals and x is 1, 2 or 3; and R 1 is hydrocarbon radicals comprising from 6 to 24 carbon atoms; and b) at least 25.0 % by weight (wt. %) and at most 75.0 wt. % of solid particles of at least one inert compound comprising at least C, H and O elements [compound (I), hereinafter] wherein said compound (I) has a density of below 2.4 g/cm 3 and a melting point of at least 40 oC.
A formed body producing method comprising: an accumulating step of accumulating a mixture including fiber and starch, a humidifying step of providing the accumulated mixture with water, and a forming step of obtaining a formed body by heating and pressurizing the mixture provided with water, wherein a gelatinization temperature of the starch is 60°C or lower. an accumulating step of accumulating a mixture including fiber and starch, a humidifying step of providing the accumulated mixture with water, and a forming step of obtaining a formed body by heating and pressurizing the mixture provided with water, wherein a gelatinization temperature of the starch is 60°C or lower.
A method for forming a passivating electrical contact to a crystalline semiconductor substrate , the method comprising: depositing an initial intrinsic amorphous silicon-containing layer on a surface of the crystalline semiconductor substrate ; depositing a first metal layer on the initial intrinsic amorphous silicon-containing layer ; and performing an annealing process at a temperature in the range between 70°C and 200°C, thereby inducing a silicidation reaction between at least part of the first metal layer and part of the initial intrinsic amorphous silicon-containing layer and forming a metal silicide layer in electrical contact with the crystalline semiconductor substrate , wherein, after forming the metal silicide layer , a remaining part of the initial intrinsic amorphous silicon-containing layer is present between the crystalline semiconductor substrate and the metal silicide layer . depositing an initial intrinsic amorphous silicon-containing layer on a surface of the crystalline semiconductor substrate ; depositing a first metal layer on the initial intrinsic amorphous silicon-containing layer ; and performing an annealing process at a temperature in the range between 70°C and 200°C, thereby inducing a silicidation reaction between at least part of the first metal layer and part of the initial intrinsic amorphous silicon-containing layer and forming a metal silicide layer in electrical contact with the crystalline semiconductor substrate , wherein, after forming the metal silicide layer , a remaining part of the initial intrinsic amorphous silicon-containing layer is present between the crystalline semiconductor substrate and the metal silicide layer .
A quantization module quantizing a line spectral frequency, LSF, coefficient of a speech or audio signal comprising: a first quantizer comprising a trellis coded vector quantizer configured to quantize an error vector between a prediction vector of a current stage and an N-dimension sub-vector of the current stage, where N is a natural number greater than or equal to 2; an intra-frame predictor configured to generate the prediction vector of the current stage by using a quantized N-dimension sub-vector of a previous stage and a prediction matrix of the current stage, wherein the prediction matrix is a prediction coefficient having NXN matrix format; and a second quantizer comprising a vector quantizer configured to quantize a quantization error vector which corresponds to a difference between a quantized N-dimension sub-vector of the current stage and the N-dimension sub-vector, wherein the N-dimension sub-vector quantized by the quantization module is obtained by removing a predefined mean value from the LSF coefficient, and wherein the quantized N-dimension sub-vector of the current stage is obtained by adding the quantized error vector of the current stage and the prediction vector of the current stage. a first quantizer comprising a trellis coded vector quantizer configured to quantize an error vector between a prediction vector of a current stage and an N-dimension sub-vector of the current stage, where N is a natural number greater than or equal to 2; an intra-frame predictor configured to generate the prediction vector of the current stage by using a quantized N-dimension sub-vector of a previous stage and a prediction matrix of the current stage, wherein the prediction matrix is a prediction coefficient having NXN matrix format; and a second quantizer comprising a vector quantizer configured to quantize a quantization error vector which corresponds to a difference between a quantized N-dimension sub-vector of the current stage and the N-dimension sub-vector, wherein the N-dimension sub-vector quantized by the quantization module is obtained by removing a predefined mean value from the LSF coefficient, and wherein the quantized N-dimension sub-vector of the current stage is obtained by adding the quantized error vector of the current stage and the prediction vector of the current stage.
A lightning current transmission system between the blades and the nacelle of a wind turbine comprising: - a metal band located at the root of each blade that receives lighting currents from one or more blade lightning current conductors located inside of each blade ; - a metal ring located at the nacelle that transmits lightning currents to one or more lightning current conductors to drive them to earth; - a lightning current transmission element for transmitting lightning currents from the metal band of each blade to the metal ring comprising a conductive portion , an insulating portion and supporting means to be joined to the rotor hub ; - the metal band of each blade and the metal ring are configured with protruding parts extended towards the lightning current transmission element ; - the conductive portion of the lightning current transmission element comprises first and second receptors mounted on a base plate at different heights and oriented in a direction pointing, respectively, to the protruding parts of the metal band and the metal ring ; characterised in that : - the base plate is configured with a pair of slotted holes placed at different heights and circular holes located in front of their centers; - the receptors are configured with a slotted hole ; and - each receptor (47. 47') is mounted in the base plate with first fasteners positioned on a circular hole of the base plate and on an end of the slotted hole of the receptor and with second fasteners positioned on a suitable position of the slotted holes (43, 43'; 49, 49') of the base plate and the receptors (41; 47, 47'). - a metal band located at the root of each blade that receives lighting currents from one or more blade lightning current conductors located inside of each blade ; - a metal ring located at the nacelle that transmits lightning currents to one or more lightning current conductors to drive them to earth; - a lightning current transmission element for transmitting lightning currents from the metal band of each blade to the metal ring comprising a conductive portion , an insulating portion and supporting means to be joined to the rotor hub ; - the metal band of each blade and the metal ring are configured with protruding parts extended towards the lightning current transmission element ; - the conductive portion of the lightning current transmission element comprises first and second receptors mounted on a base plate at different heights and oriented in a direction pointing, respectively, to the protruding parts of the metal band and the metal ring ; - the base plate is configured with a pair of slotted holes placed at different heights and circular holes located in front of their centers; - the receptors are configured with a slotted hole ; and - each receptor (47. 47') is mounted in the base plate with first fasteners positioned on a circular hole of the base plate and on an end of the slotted hole of the receptor and with second fasteners positioned on a suitable position of the slotted holes (43, 43'; 49, 49') of the base plate and the receptors (41; 47, 47').
Apparatus for storing and supplying capsules to machines for preparing infused beverages, comprising: - a storage chamber which develops - around a longitudinal axis (X-X) and is shaped to contain said capsules in a random arrangement; - a discharge conveyor placed downstream of said storage chamber and in communication with an infusion assembly of a machine for preparing an infused beverage; - a movement device to move the capsules inside said storage chamber , which is provided with a motor , a rotating shaft driven to rotate by said motor and a rotating member designed to move the capsules inside said storage chamber ; - a rotatably-mounted orientation device configured to direct the longitudinal axis (Y-Y) of the capsules towards a substantially horizontal position, - a screen-like element arranged downstream of said orientation device , comprising a first opening shaped to allow the passage of a capsule to the discharge conveyor only if the longitudinal axis (Y-Y) of the capsule is arranged along a substantially horizontal direction; characterized in that it further comprises: - a separating element arranged inside the storage chamber so that to longitudinally divide the inner volume of the storage chamber ; - said discharge conveyor being configured so as to not modify the orientation of the longitudinal axis of the capsule exiting from said screen-like element to said infusion assembly of said machine. - a storage chamber which develops - around a longitudinal axis (X-X) and is shaped to contain said capsules in a random arrangement; - a discharge conveyor placed downstream of said storage chamber and in communication with an infusion assembly of a machine for preparing an infused beverage; - a movement device to move the capsules inside said storage chamber , which is provided with a motor , a rotating shaft driven to rotate by said motor and a rotating member designed to move the capsules inside said storage chamber ; - a rotatably-mounted orientation device configured to direct the longitudinal axis (Y-Y) of the capsules towards a substantially horizontal position, - a screen-like element arranged downstream of said orientation device , comprising a first opening shaped to allow the passage of a capsule to the discharge conveyor only if the longitudinal axis (Y-Y) of the capsule is arranged along a substantially horizontal direction; - a separating element arranged inside the storage chamber so that to longitudinally divide the inner volume of the storage chamber ; - said discharge conveyor being configured so as to not modify the orientation of the longitudinal axis of the capsule exiting from said screen-like element to said infusion assembly of said machine.
A nucleic acid molecule for use in a method of spinal trans-parenchymal infection for treating a neurodegenerative disorder in a subject comprising administering the nucleic acid molecule to the subpial space of a subject, wherein the step of administering comprises: (a) exposing a spinal segment of a vertebra of the subject; (b) creating a pial opening within the spinal segment; (c) advancing a catheter through the pial opening and into subpial space; and (d) delivering the nucleic acid molecule to the subpial space of the subject. (a) exposing a spinal segment of a vertebra of the subject; (b) creating a pial opening within the spinal segment; (c) advancing a catheter through the pial opening and into subpial space; and (d) delivering the nucleic acid molecule to the subpial space of the subject.
A method of operating a wireless network to communicate with a wireless transmit/receive unit, WTRU, the method comprising: receiving by a controlling radio network controller, CRNC, via a base station of a target cell a cell update message sent from the WTRU, the cell update message including an indication that the WTRU supports communications over an Enhanced Dedicated Channel, E-DCH, in a CELL_FACH state; transmitting by the CRNC, via the base station, a cell update confirm message to the WTRU, the cell update confirm message including a new assigned enhanced radio network temporary identifier, E-RNTI; and receiving an E-DCH transmission from the WTRU when the WTRU is in the CELL_FACH state and after the WTRU has received the new assigned E-RNTI, wherein E-DCH transmission is temporarily suspended during the cell reselection and resumed after the reselection. receiving by a controlling radio network controller, CRNC, via a base station of a target cell a cell update message sent from the WTRU, the cell update message including an indication that the WTRU supports communications over an Enhanced Dedicated Channel, E-DCH, in a CELL_FACH state; transmitting by the CRNC, via the base station, a cell update confirm message to the WTRU, the cell update confirm message including a new assigned enhanced radio network temporary identifier, E-RNTI; and receiving an E-DCH transmission from the WTRU when the WTRU is in the CELL_FACH state and after the WTRU has received the new assigned E-RNTI, wherein E-DCH transmission is temporarily suspended during the cell reselection and resumed after the reselection.
A multiport antenna , having at least two antenna motifs formed by circular symmetry and having a sectorial radiation pattern with a first polarisation P1 , which are mutually interconnected by two radial conductive parts (200 r1 , 200 r2 ) that they share and which have at least two ports , characterised in that the two motifs are composed of two shapes having one and the same centre, a first, outer circle with a diameter a and a second, inner circle with a diameter b, connected by at least two radial conductive parts , the number of which is equal to the number of horizontal motifs of the antenna, a motif with polarisation P1 is formed by a first portion of the first circle and a first portion of the second circle , the two portions being connected by a first conductive part (200 r1 ), said motif having at least one load and at least one port positioned opposite the load, and in that it has at least one motif with a second polarisation P2 that is different from the first polarisation P1, said motif has a first portion and a second portion , the two portions being connected by at least one radial conductive part (200 r1 ) shared with the motifs having the first polarisation P1, said motif with the second polarisation P2 has a port and a load positioned opposite a port, for one and the same motif. a first, outer circle with a diameter a and a second, inner circle with a diameter b, connected by at least two radial conductive parts , the number of which is equal to the number of horizontal motifs of the antenna, a motif with polarisation P1 is formed by a first portion of the first circle and a first portion of the second circle , the two portions being connected by a first conductive part (200 r1 ), said motif having at least one load and at least one port positioned opposite the load, and in that it has at least one motif with a second polarisation P2 that is different from the first polarisation P1, said motif has a first portion and a second portion , the two portions being connected by at least one radial conductive part (200 r1 ) shared with the motifs having the first polarisation P1, said motif with the second polarisation P2 has a port and a load positioned opposite a port, for one and the same motif.
A method performed by a first terminal in a wireless communication system, the method comprising: identifying a number of symbols for physical sidelink shared channel, PSSCH, transmission and a number of symbols for PSSCH demodulation reference signal, DMRS; transmitting, to a second terminal, sidelink control information, SCI, for scheduling the PSSCH transmission, the SCI including DMRS pattern information identified based on the number of symbols for the PSSCH DMRS; and transmitting, to the second terminal, the PSSCH DMRS at a position identified based on the SCI, wherein a symbol index of the position at which the PSSCH DMRS is transmitted is identified by one of a plurality of index groups included in a first index group for a number of symbols for a physical sidelink control channel, PSCCH, through which the SCI is transmitted being 2 and a second index group for the number of symbols for the PSCCH through which the SCI is transmitted being 3, and wherein, in case that a number of symbols of the PSSCH DMRS is 2, the first index group includes , , and and the second index group includes , , and . identifying a number of symbols for physical sidelink shared channel, PSSCH, transmission and a number of symbols for PSSCH demodulation reference signal, DMRS; transmitting, to a second terminal, sidelink control information, SCI, for scheduling the PSSCH transmission, the SCI including DMRS pattern information identified based on the number of symbols for the PSSCH DMRS; and transmitting, to the second terminal, the PSSCH DMRS at a position identified based on the SCI, wherein a symbol index of the position at which the PSSCH DMRS is transmitted is identified by one of a plurality of index groups included in a first index group for a number of symbols for a physical sidelink control channel, PSCCH, through which the SCI is transmitted being 2 and a second index group for the number of symbols for the PSCCH through which the SCI is transmitted being 3, and wherein, in case that a number of symbols of the PSSCH DMRS is 2, the first index group includes , , and and the second index group includes , , and .