mhurhangee/ep-ind-claims huggingface dataset:
Bend-nesting tool of bottlenecks, including: - a matrix forming, on one edge, a supporting surface of the outlet(s); - a moving blade with a contact surface of one of the embouti edges intended to be moved along the support surface of the matrix in order to bend that edge; - a gage intended to be mounted on the blade for the positioning of the said blade in relation to the supporting surface of the matrix, the gage comprising: - a first hold (112 1) configured to extend along the contact surface of the blade and to contact the support surface when moving the blade along the support surface of the matrix in the absence of the clutch(s), and - a second hold (112 2) configured to contact a lateral surface of the edge of the matrix, characterized that the second hold (112 2) is located, following the direction of movement of the moving blade, at the front of the first hold (112 1). - a matrix forming, on one edge, a supporting surface of the outlet(s); - a moving blade with a contact surface of one of the embouti edges intended to be moved along the support surface of the matrix in order to bend that edge; - a gage intended to be mounted on the blade for the positioning of the said blade in relation to the supporting surface of the matrix, the gage comprising: - a first hold (112 1) configured to extend along the contact surface of the blade and to contact the support surface when moving the blade along the support surface of the matrix in the absence of the clutch(s), and - a second hold (112 2) configured to contact a lateral surface of the edge of the matrix, characterized that the second hold (112 2) is located, following the direction of movement of the moving blade, at the front of the first hold (112 1).
Compositions crosslinkable by condensation reaction, producible using organosilicon compounds having at least two silanol groups and having a viscosity, determined in accordance with the method specified in the description, of 10 3 to 10 6 mPas at 25°C, and mixtures containing organosilicon compounds of the formula R 6 R 7 N-CR 1 2 SiR a (OR 2) 3-a, in which R denotes identical or different monovalent hydrocarbon radicals, R 1 denotes identical or different monovalent hydrocarbon radicals or a hydrogen atom, R 2 may be identical or different and denotes monovalent, optionally substituted hydrocarbon radicals, R 6 may be identical or different and denotes monovalent, optionally substituted hydrocarbon radicals or a hydrogen atom, R 7 may be identical or different and denotes monovalent, optionally substituted hydrocarbon radicals, where R 6 and R 7 can also form a ring which may optionally be interrupted by heteroatoms, and a is equal to 0 or 1, and/or the partial hydrolysates thereof, component, selected from compounds of the formula R 5 OH, in which R 5 may be identical or different and denotes monovalent, optionally substituted hydrocarbon radicals, and optionally catalyst. organosilicon compounds having at least two silanol groups and having a viscosity, determined in accordance with the method specified in the description, of 10 3 to 10 6 mPas at 25°C, and mixtures containing organosilicon compounds of the formula R 6 R 7 N-CR 1 2 SiR a (OR 2) 3-a, in which R denotes identical or different monovalent hydrocarbon radicals, R 1 denotes identical or different monovalent hydrocarbon radicals or a hydrogen atom, R 2 may be identical or different and denotes monovalent, optionally substituted hydrocarbon radicals, R 6 may be identical or different and denotes monovalent, optionally substituted hydrocarbon radicals or a hydrogen atom, R 7 may be identical or different and denotes monovalent, optionally substituted hydrocarbon radicals, where R 6 and R 7 can also form a ring which may optionally be interrupted by heteroatoms, and a is equal to 0 or 1, and/or the partial hydrolysates thereof, component, selected from compounds of the formula R 5 OH, in which R 5 may be identical or different and denotes monovalent, optionally substituted hydrocarbon radicals, and optionally catalyst. R denotes identical or different monovalent hydrocarbon radicals, R 1 denotes identical or different monovalent hydrocarbon radicals or a hydrogen atom, R 2 may be identical or different and denotes monovalent, optionally substituted hydrocarbon radicals, R 6 may be identical or different and denotes monovalent, optionally substituted hydrocarbon radicals or a hydrogen atom, R 7 may be identical or different and denotes monovalent, optionally substituted hydrocarbon radicals, where R 6 and R 7 can also form a ring which may optionally be interrupted by heteroatoms, and a is equal to 0 or 1, and/or the partial hydrolysates thereof, component, selected from compounds of the formula R 5 OH, in which R 5 may be identical or different and denotes monovalent, optionally substituted hydrocarbon radicals, and optionally catalyst.
Method for computing a feasible rates region in a network using a random access MAC protocol and comprising nodes (NEi) having links therebetween, during network operation, the feasible rates region being a set of rates that can be simultaneously sustained by the network, characterized in that it comprises the steps of i) determining, for each link, a primary extreme point corresponding to a maximum output rate when said link transmits alone at a maximum input rate, each primary extreme point of a link corresponding to a maximum output rate achieved when said link transmits alone at a maximum input rate, and ii) determining secondary extreme points, which capture partial interference when at least two links transmit simultaneously, by combining said primary extreme points with an interference model, said primary and secondary extreme points defining a boundary of a feasible rates region, said method further comprising the steps of: - measuring by network-layer broadcast probes online packet loss rate experienced by the random access MAC protocol, - filtering out by a channel loss rate estimator collisions induced by cross-traffic into said measured packet loss rate in order to produce a channel loss rate, and - providing a capacity representation relating said maximum output rate to said channel loss rate. i) determining, for each link, a primary extreme point corresponding to a maximum output rate when said link transmits alone at a maximum input rate, each primary extreme point of a link corresponding to a maximum output rate achieved when said link transmits alone at a maximum input rate, and ii) determining secondary extreme points, which capture partial interference when at least two links transmit simultaneously, by combining said primary extreme points with an interference model, said primary and secondary extreme points defining a boundary of a feasible rates region, - measuring by network-layer broadcast probes online packet loss rate experienced by the random access MAC protocol, - filtering out by a channel loss rate estimator collisions induced by cross-traffic into said measured packet loss rate in order to produce a channel loss rate, and - providing a capacity representation relating said maximum output rate to said channel loss rate.
A method for the nanoscale etching of a layer of Ge 1-x Sn x on a carrier for a FET transistor, x being the concentration of tin and being substantially lower than 30%, the etching method being characterised in that it comprises: - a step of removing the chemical or native oxide from the tin; and - a step of plasma-etching said layer of Ge 1-x Sn x with a mixture comprising dichlorine, Cl 2, and dinitrogen, N 2, and under an etching pressure lower than or equal to 50 mTorr, preferably lower than or equal to 10 mTorr, which corresponds to 1.333 Pa; said removal step being anterior to said plasma-etching step. - a step of removing the chemical or native oxide from the tin; and - a step of plasma-etching said layer of Ge 1-x Sn x with a mixture comprising dichlorine, Cl 2, and dinitrogen, N 2, and under an etching pressure lower than or equal to 50 mTorr, preferably lower than or equal to 10 mTorr, which corresponds to 1.333 Pa; said removal step being anterior to said plasma-etching step.
A printing method for printing using an inkjet head, the printing method comprising: a screen preparing step of preparing a screen in mesh-like shape; an ink discharging step of drawing an image on the screen by discharging ink droplets from the inkjet head onto one side of the screen; characterized by a viscosity increasing step of enhancing a viscosity of an ink on the screen; an ink push-in step of pushing in the ink, whose viscosity is enhanced in the viscosity increasing step, from the one side toward the other side of the screen, the ink push-in step including pushing in the ink while a medium that is subject to printing and the other side of the screen are in contact to attach the ink with enhanced viscosity to the medium; and an ink fixing step of fixing the ink attached to the medium to the medium. a screen preparing step of preparing a screen in mesh-like shape; an ink discharging step of drawing an image on the screen by discharging ink droplets from the inkjet head onto one side of the screen; characterized by a viscosity increasing step of enhancing a viscosity of an ink on the screen; an ink push-in step of pushing in the ink, whose viscosity is enhanced in the viscosity increasing step, from the one side toward the other side of the screen, the ink push-in step including pushing in the ink while a medium that is subject to printing and the other side of the screen are in contact to attach the ink with enhanced viscosity to the medium; and an ink fixing step of fixing the ink attached to the medium to the medium.
A crosslinkable rubber composition based on at least one elastomer, the composition comprising other ingredients which include a crosslinking system and a thermoplastic polymeric phase which has at least one melting temperature Tm and which is dispersed in said at least one elastomer in the form of nodules, the crosslinkable composition comprising the product: a) of a melt reaction by thermomechanical working of a reaction mixture comprising said at least one elastomer and said other ingredients, with the exception of the crosslinking system, to obtain a precursor mixture of the crosslinkable composition, then b) of mechanical working of said precursor mixture with prior addition of the crosslinking system to obtain the crosslinkable composition, wherein: - the nodules have a weight-average greatest transverse dimension of between 10 nm and 10 μm, - said reaction comprises heating of the reaction mixture up to a maximum compounding temperature Ta which is greater than the highest of said at least one melting temperature Tm of the thermoplastic polymeric phase and which is maintained for a holding time, and - the crosslinking system comprises sulfur when said at least one elastomer is unsaturated and said thermoplastic polymeric phase comprises saturated polymer chains, and comprises a peroxide when said at least one elastomer is saturated. a) of a melt reaction by thermomechanical working of a reaction mixture comprising said at least one elastomer and said other ingredients, with the exception of the crosslinking system, to obtain a precursor mixture of the crosslinkable composition, then b) of mechanical working of said precursor mixture with prior addition of the crosslinking system to obtain the crosslinkable composition, - the nodules have a weight-average greatest transverse dimension of between 10 nm and 10 μm, - said reaction comprises heating of the reaction mixture up to a maximum compounding temperature Ta which is greater than the highest of said at least one melting temperature Tm of the thermoplastic polymeric phase and which is maintained for a holding time, and - the crosslinking system comprises sulfur when said at least one elastomer is unsaturated and said thermoplastic polymeric phase comprises saturated polymer chains, and comprises a peroxide when said at least one elastomer is saturated.
A method for providing a registration plate, preferably a motor vehicle licence plate, with at least one data carrier which can be read contactlessly, wherein the at least one data carrier is gripped by a handling device in a targeted manner, and the or the respective data carrier is positioned in a receptacle, provided for this purpose, of a plate body or of a material web for the formation of plate bodies of the registration plate, characterized in that the position of the or each of the data carriers held by the handling device is determined by a measuring or imaging device, wherein before the handling device fits the plate body or the material web for the formation of plate bodies with the respective data carrier, the position of the plate body or of the material web and/or of the receptacle in or on the plate body or of the material web is determined by at least one measuring or imaging device, and the plate body or the material web is then fitted with at least one data carrier on the basis of the obtained position of the data carrier on the handling device.
An apparatus of a user equipment, UE, configured to operate in a high speed train, HST, environment, the apparatus comprising: one or more processors configured to: identify the UE is operating in the HST environment; configure the UE in a radio resource control connected, RRC_Connected, mode; decode network assistant information for the UE operating in the HST environment, wherein the network assistant information includes: a number of cells to be measured in the RRC_Connected mode while operating in the HST environment, wherein the number of cells is included in a maxCellsMeasHST parameter, wherein the maxCellsMeasHST parameter is a subset of a maximum cells to be measured, maxCellsMeas, and the measurement of the subset increases a cell detection speed at the UE; and, memory coupled to the one or more processors and configured to store the maxCellsMeasHST parameter; wherein the one or more processors are configured to encode the one or more channel quality measurements in a measurement object EUTRA, MeasObjectEUTRA, information element; and wherein the network assistant information further comprises a MeasObjectEUTRA information element that includes an HST cell identification indicator, cellIDIndHST operable to indicate a cell identification, ID, of a target cell that the UE will select for handover, wherein the cellIDIndHST includes a Boolean to indicate that a detection procedure of a target cell identification, ID, will be skipped to eliminate a time used to search for a physical cell ID, PCID, of the target cell that the UE will select for handover. identify the UE is operating in the HST environment; configure the UE in a radio resource control connected, RRC_Connected, mode; decode network assistant information for the UE operating in the HST environment, wherein the network assistant information includes: a number of cells to be measured in the RRC_Connected mode while operating in the HST environment, wherein the number of cells is included in a maxCellsMeasHST parameter, wherein the maxCellsMeasHST parameter is a subset of a maximum cells to be measured, maxCellsMeas, and the measurement of the subset increases a cell detection speed at the UE; and,
Final transmission for agricultural and industrial motor vehicles, comprising: - a differential assembly comprising a support structure and a differential that transmits an incoming motion to an intermediate transmission shaft; - a transfer unit comprising a final shaft that receives the motion of said intermediate transmission shaft and transmits it to a respective driving wheel; whereby it comprises a toothed output wheel integral to said intermediate transmission shaft which engages respectively with an internally toothed crown wheel integral to said final shaft and with an intermediate toothed wheel and further comprises at least one toothed support wheel which engages with said internally toothed crown wheel and with said intermediate toothed wheel, said toothed support wheel and said intermediate toothed wheel being rotatably supported on said support structure, characterized in that said intermediate wheel is coaxial with said crown wheel. - a differential assembly comprising a support structure and a differential that transmits an incoming motion to an intermediate transmission shaft; - a transfer unit comprising a final shaft that receives the motion of said intermediate transmission shaft and transmits it to a respective driving wheel;
An extruded foam formed from a composition comprising: from 1 to 99 wt% of a silicone-functionalized polyethylene comprising a reaction product of the polymerization of ethylene and (meth)acrylic ester functionalized polydimethylsiloxane; and a physical blowing agent; wherein the foam has a density of less than or equal to 0.200 g/cm 3 as measured in accordance with ASTM D1622-88 at 25 °C. from 1 to 99 wt% of a silicone-functionalized polyethylene comprising a reaction product of the polymerization of ethylene and (meth)acrylic ester functionalized polydimethylsiloxane; and a physical blowing agent; wherein the foam has a density of less than or equal to 0.200 g/cm 3 as measured in accordance with ASTM D1622-88 at 25 °C.
A pharmaceutical composition comprising a plurality of timed pulsatile release and rapid release particles, wherein: the TPR particles each comprise a core coated with a TPR layer; the core comprises a weakly basic, poorly soluble drug and a pharmaceutically acceptable organic acid separated from each other by a sustained release layer; the RR particles each comprise the weakly basic, poorly soluble drug, granulated in the presence of a pharinaceutically acceptable polymeric binder, a pharmaceutically acceptable organic acid, and at least one excipient. the TPR particles each comprise a core coated with a TPR layer; the core comprises a weakly basic, poorly soluble drug and a pharmaceutically acceptable organic acid separated from each other by a sustained release layer; the RR particles each comprise the weakly basic, poorly soluble drug, granulated in the presence of a pharinaceutically acceptable polymeric binder, a pharmaceutically acceptable organic acid, and at least one excipient.
A method of detecting at least one telephone number referred to as a "soliciting" number, that is being used for soliciting telephone calls to at least one telephone number, referred to as a "target" number, said method comprising a "detection" stage comprising the following steps: - sending a telephone call by means of at least one robot using at least one "test" telephone number, the telephone call being sent to at least one previously-detected target number; - receiving at least one message at said test number; and - for at least one received message: ▪ detecting a telephone number contained in said telephone message and storing said number as a target number when said number is a new number; and ▪ storing the telephone number that sent said message as a soliciting number when said number is a new number; said method including at least one new iteration of said detection stage using at least one new target number detected during said detection step. - sending a telephone call by means of at least one robot using at least one "test" telephone number, the telephone call being sent to at least one previously-detected target number; - receiving at least one message at said test number; and - for at least one received message: ▪ detecting a telephone number contained in said telephone message and storing said number as a target number when said number is a new number; and ▪ storing the telephone number that sent said message as a soliciting number when said number is a new number; ▪ detecting a telephone number contained in said telephone message and storing said number as a target number when said number is a new number; and ▪ storing the telephone number that sent said message as a soliciting number when said number is a new number;
A method of determining the geographical position of a rail vehicle on a rail route having a number of known stopping locations (S1, S2, S3,...) which are separated by known distances (d 1, d 2, d 3...), the method comprising steps of: - recording a linear speed signal of the vehicle; - processing the linear speed signal to: • identify a plurality of preceding stationary periods (SP L, SP L-1, SP L-2...) when vehicle speed equals zero, including a last stationary period; and • calculate the distance travelled between the plurality of preceding stationary periods; - comparing the calculated distances with the known distances (d 1, d 2, d 3...) between stopping locations, to find a matching sequence that correlates the last identified stationary period (SP L) to a corresponding one of the known stopping locations (S1, S2, S3,...) and identifies the direction of travel of the rail vehicle; and - determining the geographical position of the rail vehicle by processing a portion (v p) of the speed signal recorded since the last identified stationary period (SP L) to calculate the distance travelled from the corresponding stopping location (S1, S2, S3,...). - recording a linear speed signal of the vehicle; - processing the linear speed signal to: • identify a plurality of preceding stationary periods (SP L, SP L-1, SP L-2...) when vehicle speed equals zero, including a last stationary period; and • calculate the distance travelled between the plurality of preceding stationary periods; • identify a plurality of preceding stationary periods (SP L, SP L-1, SP L-2...) when vehicle speed equals zero, including a last stationary period; and • calculate the distance travelled between the plurality of preceding stationary periods; - comparing the calculated distances with the known distances (d 1, d 2, d 3...) between stopping locations, to find a matching sequence that correlates the last identified stationary period (SP L) to a corresponding one of the known stopping locations (S1, S2, S3,...) and identifies the direction of travel of the rail vehicle; and - determining the geographical position of the rail vehicle by processing a portion (v p) of the speed signal recorded since the last identified stationary period (SP L) to calculate the distance travelled from the corresponding stopping location (S1, S2, S3,...).