mhurhangee/patent-ind-claim-en huggingface dataset:
A friction material for a disc brake pad, which is manufactured by forming a Non-Asbestos-Organic (NAO) friction material composition that does not contain a copper component but contains a binder, a fiber base, an organic friction modifier, an inorganic friction modifier, and a lubricant, wherein said friction material composition contains 5 - 9 weight % of the binder relative to the entire amount of the friction material composition, 1 - 4 weight % of a silicone rubber modified phenol resin as a part of the binder relative to the entire amount of the friction material composition, 1 - 4 weight % of a cashew dust as the organic friction modifier relative to the entire amount of the friction material composition, 0.5 - 3 weight % of a fused silica with an average particle diameter of 15 - 40μm as the inorganic friction modifier relative to the entire amount of the friction material composition, and 0.1 - 2 weight % of an electromelting zirconium silicate beads with an average particle diameter of 10 - 30μm as the inorganic friction modifier relative to the entire amount of the friction material composition. 5 - 9 weight % of the binder relative to the entire amount of the friction material composition, 1 - 4 weight % of a silicone rubber modified phenol resin as a part of the binder relative to the entire amount of the friction material composition, 1 - 4 weight % of a cashew dust as the organic friction modifier relative to the entire amount of the friction material composition, 0.5 - 3 weight % of a fused silica with an average particle diameter of 15 - 40μm as the inorganic friction modifier relative to the entire amount of the friction material composition, and 0.1 - 2 weight % of an electromelting zirconium silicate beads with an average particle diameter of 10 - 30μm as the inorganic friction modifier relative to the entire amount of the friction material composition.
A permission reuse method, applied to a distributed system, wherein the distributed system comprises a first device and a second device, the first device comprises a plurality of applications, and the method comprises: sending, by the first device, control information to the second device, wherein the control information comprises a first device identifier of the first device, user identifiers of the plurality of applications, and permission information of the plurality of applications, permission information of an application is used to indicate an object in the first device that the application has permission to access, and the object in the first device comprises a software or hardware resource in the first device; receiving, by the second device, the control information, and creating a first virtual identity based on the control information, wherein the first virtual identity comprises the first device identifier of the first device and the user identifiers of the plurality of applications; and storing, by the second device, the first virtual identity, the permission information of the plurality of applications, and a correspondence between the first virtual identity and the permission information of the plurality of applications. sending, by the first device, control information to the second device, wherein the control information comprises a first device identifier of the first device, user identifiers of the plurality of applications, and permission information of the plurality of applications, permission information of an application is used to indicate an object in the first device that the application has permission to access, and the object in the first device comprises a software or hardware resource in the first device; receiving, by the second device, the control information, and creating a first virtual identity based on the control information, wherein the first virtual identity comprises the first device identifier of the first device and the user identifiers of the plurality of applications; and storing, by the second device, the first virtual identity, the permission information of the plurality of applications, and a correspondence between the first virtual identity and the permission information of the plurality of applications.
Electronic device for measuring electric quantities, comprising: an analog-digital conversion module configured to receive an analog signal (S M (t)) to be measured and a reference analog signal (S R (t)), said analog-digital conversion module being configured to digitally convert, alternately and according to a switching frequency, time portions of said analog signal (S M (t)) to be measured alternated with time portions of said reference analog signal ( S R (t) ), for supplying respective first (D SM ) and second pluralities (D SR ) of digital values, said switching frequency being greater than a frequency associated to undesired fluctuations of the gain of the analog-digital conversion module ; a digital processing module configured to: - calculate a first mean amplitude (A1) of the first plurality of digital values and a second mean amplitude (A2) of the second plurality of digital values; the first and second mean amplitudes being proportional to a mean gain value of the analog-digital conversion module ; - supply a ratio value (V RT ) of the first mean amplitude to the second mean amplitude, representative of a measured amplitude of the analog signal ( S M (t) ) to be measured. an analog-digital conversion module configured to receive an analog signal (S M (t)) to be measured and a reference analog signal (S R (t)), said analog-digital conversion module being configured to digitally convert, alternately and according to a switching frequency, time portions of said analog signal (S M (t)) to be measured alternated with time portions of said reference analog signal ( S R (t) ), for supplying respective first (D SM ) and second pluralities (D SR ) of digital values, said switching frequency being greater than a frequency associated to undesired fluctuations of the gain of the analog-digital conversion module ; a digital processing module configured to: - calculate a first mean amplitude (A1) of the first plurality of digital values and a second mean amplitude (A2) of the second plurality of digital values; the first and second mean amplitudes being proportional to a mean gain value of the analog-digital conversion module ; - supply a ratio value (V RT ) of the first mean amplitude to the second mean amplitude, representative of a measured amplitude of the analog signal ( S M (t) ) to be measured. - calculate a first mean amplitude (A1) of the first plurality of digital values and a second mean amplitude (A2) of the second plurality of digital values; the first and second mean amplitudes being proportional to a mean gain value of the analog-digital conversion module ; - supply a ratio value (V RT ) of the first mean amplitude to the second mean amplitude, representative of a measured amplitude of the analog signal ( S M (t) ) to be measured.
Fall protection device for safeguarding a worker who is secured to a lifeline during operations on a roof of a building , comprising: - at least one elongate upright on which the lifeline is arranged, whereby the at least one elongate upright extends from the ground upward in a position of use to a level higher than the roof and along a wall of the building , and - a toppling prevention device which extends from the upright substantially transversely thereof, characterised in that, - the toppling prevention device has at least two arms extending transversely and in opposite directions from the upright ; - wherein said arms lie substantially in a transverse plane extending transversely relative to the upright and are configured to extend substantially parallel to the wall ; and - wherein the opposite arms are configured to engage around respective opposite side edges of the wall along which the upright is disposed to engage said wall there between. - at least one elongate upright on which the lifeline is arranged, whereby the at least one elongate upright extends from the ground upward in a position of use to a level higher than the roof and along a wall of the building , and - a toppling prevention device which extends from the upright substantially transversely thereof, characterised in that, - the toppling prevention device has at least two arms extending transversely and in opposite directions from the upright ; - wherein said arms lie substantially in a transverse plane extending transversely relative to the upright and are configured to extend substantially parallel to the wall ; and - wherein the opposite arms are configured to engage around respective opposite side edges of the wall along which the upright is disposed to engage said wall there between.
A tire comprising an annular tire frame composed of a plurality of kinds of resin materials, wherein a resin contained as a main component in a resin material constituting a side portion of the tire frame, which side portion is to be located on an inner side in a vehicle width direction when the tire is mounted on a vehicle, has a melting point of 140°C or higher, or does not have a melting point and has a glass transition point of 40°C or higher, characterized in that an Asker D hardness Ho of the side portion of the tire frame, which side portion is to be located on an outer side in the vehicle width direction when the tire is mounted on the vehicle, is lower than an Asker D hardness Hi of the side portion of the tire frame, which side portion is to be located on the inner side in the vehicle width direction when the tire is mounted on the vehicle, wherein the Asker D hardness is determined by measuring the hardness of an outer surface of each side portion of the tire frame, in a tire axial direction, using an Asker D hardness tester, under the conditions of a temperature of 25°C and at a load of 5 kg. wherein a resin contained as a main component in a resin material constituting a side portion of the tire frame, which side portion is to be located on an inner side in a vehicle width direction when the tire is mounted on a vehicle, has a melting point of 140°C or higher, or does not have a melting point and has a glass transition point of 40°C or higher, characterized in that an Asker D hardness Ho of the side portion of the tire frame, which side portion is to be located on an outer side in the vehicle width direction when the tire is mounted on the vehicle, is lower than an Asker D hardness Hi of the side portion of the tire frame, which side portion is to be located on the inner side in the vehicle width direction when the tire is mounted on the vehicle, wherein the Asker D hardness is determined by measuring the hardness of an outer surface of each side portion of the tire frame, in a tire axial direction, using an Asker D hardness tester, under the conditions of a temperature of 25°C and at a load of 5 kg.
Biopolymer-based food casing which has an impregnation on the side facing the food, characterized in that the impregnation is composed of at least one hydrophobic, synthetic, organic polymer selected from the group consisting of polystyrene, styrene/(meth)acrylate copolymers, styrene/maleate copolymers, styrene/butadiene copolymers, polyurethanes, polyacrylonitriles, polyisoprene, polyacrylamide, poly(meth)acrylates, polyvinylpyrrolidone, polyvinylidene chloride, ethylene/vinyl acetate copolymers, polyvinyl acetate, polyvinyl alcohol and optionally N-substituted polyvinylamines, and anionic or cationic promoters, corresponding to the charge of the hydrophobizing polymers, wherein the hydrophobizing polymers are in each case modified with cationic, anionic or amphiphilic groups, the impregnation comprises 0.1 to 3.0 g/m 2 of hydrophobizing polymers and the proportion of the promoters is 0.1 to 4.0 % by weight, based on the weight of the hydrophobic polymers.
A method, for metering activities of an application in a data processing system, wherein said data processing system comprises resource nodes distributed across a network and configured to perform activities executed as actors in the respective resource nodes; and wherein the actors are entities in accordance with an actor model executing actions reacting to input, and the actors being controlled by one or more runtimes in the data processing system, the method characterized by comprising: - tracing (S1), by a runtime, information related to activities executed by actors controlled by the runtime, wherein the information defines which actions have been executed and the number of times that the actions have been executed, - generating (S2) and tracing metadata associated with the activities, wherein the metadata comprises at least the physical locations on which the actors are deployed; - metering (S3), by the runtime, the operation of the application based on the part of the traced information including the metadata, which is related to activities of actors being used by the metered application; and - reporting (S4) the information including the associated metadata related to activities executed by actors controlled by the runtime to a runtime manager. - tracing (S1), by a runtime, information related to activities executed by actors controlled by the runtime, wherein the information defines which actions have been executed and the number of times that the actions have been executed, - generating (S2) and tracing metadata associated with the activities, wherein the metadata comprises at least the physical locations on which the actors are deployed; - metering (S3), by the runtime, the operation of the application based on the part of the traced information including the metadata, which is related to activities of actors being used by the metered application; and - reporting (S4) the information including the associated metadata related to activities executed by actors controlled by the runtime to a runtime manager.
Motorized luggage comprising: a frame enclosed in part by an outer shell , the frame defining an internal storage compartment, the internal storage compartment accessible through the outer shell by opening a first zippered flap of the outer shell, front wheels along the bottom face of the frame, wherein the front wheels are connected to a first axle , the first axle is connected to a steering shaft, wherein the steering shaft is rotatably connected to the frame and the position of the steering shaft controls an orientation of the front wheel; a retractable handlebar received by the steering shaft, wherein the retractable handlebar may be telescopingly moved from a stored configuration to a driving configuration, wherein in the stored configuration the handlebar is retracted and enclosed by a second zippered flap of the outer shell, wherein in the driving configuration, the handlebar is extended above the top face of the frame, a rear set of wheels connected by a second axle , wherein the second axle is operatively coupled to the frame; and an electric motor mounted on the frame, wherein the electric motor drives the rear wheels; and further including a retractable pull handle movable between a retracted configuration and an extended configuration, wherein the retractable pull handle extends out from a rear face of the frame when in the extended configuration. a frame enclosed in part by an outer shell , the frame defining an internal storage compartment, the internal storage compartment accessible through the outer shell by opening a first zippered flap of the outer shell, front wheels along the bottom face of the frame, wherein the front wheels are connected to a first axle , the first axle is connected to a steering shaft, wherein the steering shaft is rotatably connected to the frame and the position of the steering shaft controls an orientation of the front wheel; a retractable handlebar received by the steering shaft, wherein the retractable handlebar may be telescopingly moved from a stored configuration to a driving configuration, wherein in the stored configuration the handlebar is retracted and enclosed by a second zippered flap of the outer shell, wherein in the driving configuration, the handlebar is extended above the top face of the frame, a rear set of wheels connected by a second axle , wherein the second axle is operatively coupled to the frame; and an electric motor mounted on the frame, wherein the electric motor drives the rear wheels; and further including a retractable pull handle movable between a retracted configuration and an extended configuration, wherein the retractable pull handle extends out from a rear face of the frame when in the extended configuration.
Method for processing a downmix audio signal derived in a matrix compatible way and for processing first parametric data describing a first portion of a multi-channel signal, wherein for a second portion of the multi-channel signal no parametric data or second parametric data is processed, the second parametric data requiring less information units than the first parametric data when describing an identical portion of the multi-channel signal, the method comprising: deriving an intermediate signal from the downmix audio signal using a first deriving rule depending on the first parametric data for deriving a first portion of the intermediate signal , the first portion of the intermediate signal corresponding to the first portion of the multi-channel audio signal, the downmix audio signal being in a QMF, Quadrature Mirror Filterbank, representation; and deriving a second portion of the intermediate signal using a second deriving rule, the second deriving rule using the second parametric data or no parametric data, wherein the first portion is a time portion or a frequency portion, and wherein the first parametric data comprise one or more spatial audio parameters chosen from the following list of spatial audio parameters: ICC (inter-channel correlation), CLD (channel level difference), and CPC (channel prediction coefficient) . deriving an intermediate signal from the downmix audio signal using a first deriving rule depending on the first parametric data for deriving a first portion of the intermediate signal , the first portion of the intermediate signal corresponding to the first portion of the multi-channel audio signal, the downmix audio signal being in a QMF, Quadrature Mirror Filterbank, representation; and deriving a second portion of the intermediate signal using a second deriving rule, the second deriving rule using the second parametric data or no parametric data, wherein the first portion is a time portion or a frequency portion, and wherein the first parametric data comprise one or more spatial audio parameters chosen from the following list of spatial audio parameters: ICC (inter-channel correlation), CLD (channel level difference), and CPC (channel prediction coefficient) .
A compound represented by one of the following Chemical Formulae 15 to 27, wherein the compound is used for an organic optoelectronic device: wherein, in the Chemical Formulae 15 to 27, Z is N-L 4 -R b , L 1 and L 4 are independently, a single bond, a substituted or unsubstituted C6 to C30 arylene group, a substituted or unsubstituted C2 to C30 heterocyclic group, or a combination thereof, and wherein the R 1 and R b are independently a group selected from substituted or unsubstituted groups listed in the following Group II: wherein, in Group II, R and R' are independently hydrogen, deuterium, a substituted or unsubstituted C1 to C30 alkyl group, a substituted or unsubstituted C6 to C30 aryl group, a substituted or unsubstituted C2 to C30 heteroaryl group, or a combination thereof, and * is a linking point.. one of the following Chemical Formulae 15 to 27, wherein the compound is used for an organic optoelectronic device: wherein, in the Chemical Formulae 15 to 27, Z is N-L 4 -R b , L 1 and L 4 are independently, a single bond, a substituted or unsubstituted C6 to C30 arylene group, a substituted or unsubstituted C2 to C30 heterocyclic group, or a combination thereof, and wherein the R 1 and R b are independently a group selected from substituted or unsubstituted groups listed in the following Group II: wherein, in Group II, R and R' are independently hydrogen, deuterium, a substituted or unsubstituted C1 to C30 alkyl group, a substituted or unsubstituted C6 to C30 aryl group, a substituted or unsubstituted C2 to C30 heteroaryl group, or a combination thereof, and * is a linking point..
Transfer device for self-propelled carriages on an elevated railway-like track network , wherein the track network has at least one track element and at least one crossing, turning or end point, wherein the transfer device has an adjustably arranged carrier unit (25a to 25d) and a portal-like carrier structure (10; 10a; 10b), wherein a self-propelled carriage can be transferred from the at least one track element to the adjustably arranged carrier unit (25a to 25d) in the region of the track network , wherein the carrier unit (25a to 25d) is arranged to be linearly movable in the region of the portal-like carrier structure (10; 10a; 10b), in particular parallel to the end section of the at least one stretching element facing the carrier unit (25a to 25d), characterised in that the carrier unit (25a to 25d) has a profile section (30; 30a) for guiding a support arm (3; 3a) of the carriage .
A hemostatic powder comprising a chitosan salt of an organic acid together with at least one inert material, wherein the at least one inert material comprises one or more of the group consisting of: cellulose, fumed silica, sand, clay, alginate, micro crystalline cellulose, oxidised regenerated cellulose, polyethylglycol, guar gum, xanthan gum, chitosan, chitosan derivatives, chitin, sucrose, lactose, pectin, carboxymethylcellulose, ground corn meal, collagen, gelataine, polyvinylalcohol, acrylic acid, crosslinked acrylic acid-based polymers, barium sulphate, starch.
A method of producing a stable retroviral packaging cell line, comprising: (a) introducing a nucleic acid vector comprising a non-mammalian origin of replication, one or a plurality of recombination sites(s) and the ability to hold at least 25 kilobases (kb) of DNA selected from: a bacterial artificial chromosome (BAC), a yeast artificial chromosome (YAC), a P1-derived artificial chromosome, a fosmid or a cosmid comprising retroviral nucleic acid sequences encoding: gag and pol proteins, and an env protein obtained from or derived from a virus selected from a Vesiculovirus, Lyssavirus, Arenavirus, Alphavirus, Filovirus, Coronavirus, Respirovirus, Hepacivirus, Influenzavirus and Nucleopolyhedrovirus, wherein each of the nucleic acid sequences has its own promoter within the nucleic acid vector, into a culture of mammalian host cells; and (b) selecting within the culture for a mammalian host cell which has the nucleic acid sequences encoded on the vector integrated into an endogenous chromosome of the mammalian host cell. (a) introducing a nucleic acid vector comprising a non-mammalian origin of replication, one or a plurality of recombination sites(s) and the ability to hold at least 25 kilobases (kb) of DNA selected from: a bacterial artificial chromosome (BAC), a yeast artificial chromosome (YAC), a P1-derived artificial chromosome, a fosmid or a cosmid comprising retroviral nucleic acid sequences encoding: gag and pol proteins, and an env protein obtained from or derived from a virus selected from a Vesiculovirus, Lyssavirus, Arenavirus, Alphavirus, Filovirus, Coronavirus, Respirovirus, Hepacivirus, Influenzavirus and Nucleopolyhedrovirus, wherein each of the nucleic acid sequences has its own promoter within the nucleic acid vector, into a culture of mammalian host cells; and gag and pol proteins, and an env protein obtained from or derived from a virus selected from a Vesiculovirus, Lyssavirus, Arenavirus, Alphavirus, Filovirus, Coronavirus, Respirovirus, Hepacivirus, Influenzavirus and Nucleopolyhedrovirus, (b) selecting within the culture for a mammalian host cell which has the nucleic acid sequences encoded on the vector integrated into an endogenous chromosome of the mammalian host cell.