mhurhangee/patent-ind-claim-en huggingface dataset:
Reservoir assembly having a body defining an inner cavity , the reservoir being adapted to be arranged in a fuel injection equipment of an internal combustion engine, the pressurized fuel being received and stored in said inner cavity prior to be delivered toward fuel injectors, the reservoir assembly is arranged so that when pressure in the inner cavity increases and reaches a predetermined first threshold (P1), the available volume of the reservoir for storing said pressurized fuel increases above the volume initially occupied by the inner cavity and wherein, the reservoir assembly further comprises a second inner cavity defined in the body and a valve opening a fluid communication (C) between the first inner cavity and the second inner cavity when the pressure in the first inner cavity increases and reaches the predetermined first threshold (P1) and characterized in that , the first inner cavity and the second inner cavity are coaxially arranged, the second inner cavity comprising a tube coaxially arranged inside the first cavity .
Method for identifying, diagnosing, servicing and repairing a vehicle in a workshop, comprising the steps: connecting a first vehicle test device at a first workstation ; setting up a communication link to a first vehicle test device and a central diagnostic server device arranged on a central workshop server and a data acquisition software component ; connecting a mobile communication interface to the vehicle ; setting up a communication link at the first workstation to a first vehicle test device and the mobile communication interface ; acquiring clear identification data for the vehicle with the first vehicle test device and storing identification data for the vehicle in the mobile communication interface via the central diagnostic server device which is arranged on the central workshop server ; carrying out first tests on the vehicle with the first vehicle test device and/or the mobile communication interface ; disconnecting the first vehicle test device from the vehicle ; connecting a second vehicle test device to the vehicle and reading out the identification data from the mobile communication interface via the central diagnostic server device into the second vehicle test device at a second workstation ; and carrying out second tests at the vehicle with the second vehicle test device and/or the mobile communication interface which is connected to the vehicle . connecting a first vehicle test device at a first workstation ; setting up a communication link to a first vehicle test device and a central diagnostic server device arranged on a central workshop server and a data acquisition software component ; connecting a mobile communication interface to the vehicle ; setting up a communication link at the first workstation to a first vehicle test device and the mobile communication interface ; acquiring clear identification data for the vehicle with the first vehicle test device and storing identification data for the vehicle in the mobile communication interface via the central diagnostic server device which is arranged on the central workshop server ; carrying out first tests on the vehicle with the first vehicle test device and/or the mobile communication interface ; disconnecting the first vehicle test device from the vehicle ; connecting a second vehicle test device to the vehicle and reading out the identification data from the mobile communication interface via the central diagnostic server device into the second vehicle test device at a second workstation ; and carrying out second tests at the vehicle with the second vehicle test device and/or the mobile communication interface which is connected to the vehicle .
A process for producing aldehydes, comprising contacting an olefin, with hydrogen and carbon monoxide in the presence of a catalyst composition to produce aldehydes, wherein the catalyst composition comprises a rhodium source and a tetradentate ligand, said tetradentate ligand comprising the following structure: R= aryl, arylalkyl, alkyl-substituted-aryl, hydrocarbyl alkyl, R optionally being substituted with heteroatom and other functional groups, R' = aryl, arylalkyl, alkyl-substituted-aryl, hydrocarbyl alkyl, R' optionally being substituted with heteroatom and other functional groups, R" = H, aryl, tertiary-butyl and heteratom and other functional groups, Heteroatom and other functional groups = F, thioethers, aryl or alkyl ethers, esters bound through the single oxygen bond, CF 3 , carboxylic acid esters, carboxylic amides and alkali metal salts of sulfonic acid, P= Phosphorus Atom. R= aryl, arylalkyl, alkyl-substituted-aryl, hydrocarbyl alkyl, R optionally being substituted with heteroatom and other functional groups, R' = aryl, arylalkyl, alkyl-substituted-aryl, hydrocarbyl alkyl, R' optionally being substituted with heteroatom and other functional groups, R" = H, aryl, tertiary-butyl and heteratom and other functional groups, Heteroatom and other functional groups = F, thioethers, aryl or alkyl ethers, esters bound through the single oxygen bond, CF 3 , carboxylic acid esters, carboxylic amides and alkali metal salts of sulfonic acid, P= Phosphorus Atom.
A system comprising: a gateway located at a first location; wherein the gateway comprises a connection management component, the connection management component configured to automatically establish a wireless coupling with an existing security system installed at the first location, the existing security system including security system components, wherein the connection management component is configured to form a security network that integrates communications and functions of the security system components into the security network via the wireless coupling; and a security server at a second location different from the first location, wherein security server is coupled to the gateway; wherein the gateway is configured to request and receive protocol information of the existing security system from the security server, to store the protocol information and to use the protocol information received to discover the security system components of the existing security system a gateway located at a first location; wherein the gateway comprises a connection management component, the connection management component configured to automatically establish a wireless coupling with an existing security system installed at the first location, the existing security system including security system components, wherein the connection management component is configured to form a security network that integrates communications and functions of the security system components into the security network via the wireless coupling; and a security server at a second location different from the first location, wherein security server is coupled to the gateway; wherein the gateway is configured to request and receive protocol information of the existing security system from the security server, to store the protocol information and to use the protocol information received to discover the security system components of the existing security system
A cooking oven comprising a cooking chamber and a water intake that feeds water to a steam generator , that provides water steam to the inside of said cooking chamber , wherein the cooking oven also comprises a sterilizer located between the water intake and the steam generator , which sterilizes the water that reaches said steam generator , characterized in that the cooking oven also comprises an electrovalve located between the water intake and the sterilizer , and a control unit connected to the electrovalve , the sterilizer and the steam generator , wherein said sterilizer is an ultraviolet radiation emitter, a gamma radiation emitter, or a chemical disinfectant product injector.
A luminance characteristics generation method, comprising: for each of frames included in a video: determining (S32) a value as first luminance characteristics (DY100), the value being obtained by dividing the number of pixels having luminances less than or equal to a first luminance among all pixels included in the frame by the number of all the pixels included in the frame, the first luminance characteristics (DY100) being dynamic metadata that indicate time-series luminance characteristics of the video, and outputting (S33) the first luminance characteristics (DY100) determined in the determining of the value to a memory ; the method further comprising: generating dynamic metadata for each scene of the video by calculating an average value or the maximum value using the dynamic metadata temporarily stored in memory corresponding to frames of as much as one scene; and recording video data including the video and the generated luminance dynamic metadata for each scene, said video data being later received by a display device, which uses the luminance dynamic metadata for tone mapping the displayed images according to a luminance of the video that changes temporally. determining (S32) a value as first luminance characteristics (DY100), the value being obtained by dividing the number of pixels having luminances less than or equal to a first luminance among all pixels included in the frame by the number of all the pixels included in the frame, the first luminance characteristics (DY100) being dynamic metadata that indicate time-series luminance characteristics of the video, and outputting (S33) the first luminance characteristics (DY100) determined in the determining of the value to a memory ; generating dynamic metadata for each scene of the video by calculating an average value or the maximum value using the dynamic metadata temporarily stored in memory corresponding to frames of as much as one scene; and recording video data including the video and the generated luminance dynamic metadata for each scene, said video data being later received by a display device, which uses the luminance dynamic metadata for tone mapping the displayed images according to a luminance of the video that changes temporally.
A polycarbonate polyol composition comprising an epoxide CO 2 copolymer characterized in that the copolymer has: an Mn, as determined by gel permeation chromatography, between 800 g/mol and 4,000 g/mol, greater than 90% carbonate linkages, and at least 90% of the end groups are hydroxyl groups; wherein the polycarbonate polyol composition comprises polymer chains denoted P 1 having the formula T-Y-A-(Y-T) n wherein: each -T is a polycarbonate chain having a formula independently selected from the group consisting of: wherein: E is an optionally substituted C 2 unit derived from an epoxide, where E may represent a monomer unit derived from one type of epoxide, or a mixture of two or more types of epoxide, and p ranges from 5 to 10,000 each -Y group is independently a functional group capable of initiating chain growth of epoxide CO 2 copolymers and each Y group may be the same or different, -A- comprises a polymer chain or oligomer selected from the group consisting of polyolefins, polyethers, polyesters, polycarbonate polyethers and polyoxymethylene; and n is an integer between 1 and 10 inclusive; wherein the polymer composition includes more than 97% chains of type P 1 ; preferably, wherein the polymer composition includes more than 99% chains of type P 1 . an Mn, as determined by gel permeation chromatography, between 800 g/mol and 4,000 g/mol, greater than 90% carbonate linkages, and at least 90% of the end groups are hydroxyl groups; wherein the polycarbonate polyol composition comprises polymer chains denoted P 1 having the formula T-Y-A-(Y-T) n wherein: each -T is a polycarbonate chain having a formula independently selected from the group consisting of: wherein: E is an optionally substituted C 2 unit derived from an epoxide, where E may represent a monomer unit derived from one type of epoxide, or a mixture of two or more types of epoxide, and p ranges from 5 to 10,000 each -Y group is independently a functional group capable of initiating chain growth of epoxide CO 2 copolymers and each Y group may be the same or different, -A- comprises a polymer chain or oligomer selected from the group consisting of polyolefins, polyethers, polyesters, polycarbonate polyethers and polyoxymethylene; and n is an integer between 1 and 10 inclusive; wherein the polymer composition includes more than 97% chains of type P 1 ; preferably, wherein the polymer composition includes more than 99% chains of type P 1 . E is an optionally substituted C 2 unit derived from an epoxide, where E may represent a monomer unit derived from one type of epoxide, or a mixture of two or more types of epoxide, and p ranges from 5 to 10,000 each -Y group is independently a functional group capable of initiating chain growth of epoxide CO 2 copolymers and each Y group may be the same or different, -A- comprises a polymer chain or oligomer selected from the group consisting of polyolefins, polyethers, polyesters, polycarbonate polyethers and polyoxymethylene; and n is an integer between 1 and 10 inclusive; wherein the polymer composition includes more than 97% chains of type P 1 ; preferably, wherein the polymer composition includes more than 99% chains of type P 1 .
A process for the production of N -Boc-2-amino-3,3-dimethylbutyric acid by a reaction of tert -Leucine with di- tert -butyl-dicarbonate, the process comprising (i) contacting the tert- Leucine with di- tert -butyl-dicarbonate in an aqueous medium, optionally comprising a first organic solvent, in the presence of an inorganic base, (ii) optionally removing the first organic solvent, (iii) optionally extracting the resulting N -Boc-2-amino-3,3-dimethylbutyric acid with a second organic solvent, (iv) isolating the product by precipitation from the reaction mixture at acidic pH, and (v) optionally reuse the first and/or second organic solvents recovered from step (ii) and/or step (iv) for a next production cycle.
An adaptive lighting system for a mirror component configured to show a mirror image of a user at a mirror surface, the adaptive lighting system comprising - a plurality of individually controllable light sources (111..119) for being positioned at positions at or near at least a portion of a circumference of the mirror surface or for being positioned behind a half translucent mirror surface, wherein said light sources (111..119) are arranged to emit, in use, light towards a head of the user being in front of the mirror surface, - a sensor for detecting a relative orientation of the head of the user with respect to the mirror surface, the sensor being configured to provide a sensor signal indicating whether the head of the user is turned into a specific direction with respect to the mirror surface, the specific direction comprises at least one of: the head is turned in an upwards or downwards direction with respect to the mirror surface, the head is turned in a left sideward or a right sideward direction and the head is arranged towards the mirror surface, where the adaptive lighting system further comprises - a controller being configured to generate control signals (121..129) for the plurality of individually controllable light sources (111..119) on the basis of the sensor signal if the sensor signal indicates that the head is turned left sidewards, upwards, right sidewards and/or downwards, characterized in that the controller being configured to generate the control signals (121..129) to obtain a lower emission of light by light sources closest to the eyes of the user. - a plurality of individually controllable light sources (111..119) for being positioned at positions at or near at least a portion of a circumference of the mirror surface or for being positioned behind a half translucent mirror surface, wherein said light sources (111..119) are arranged to emit, in use, light towards a head of the user being in front of the mirror surface, - a sensor for detecting a relative orientation of the head of the user with respect to the mirror surface, the sensor being configured to provide a sensor signal indicating whether the head of the user is turned into a specific direction with respect to the mirror surface, the specific direction comprises at least one of: the head is turned in an upwards or downwards direction with respect to the mirror surface, the head is turned in a left sideward or a right sideward direction and the head is arranged towards the mirror surface, where the adaptive lighting system further comprises - a controller being configured to generate control signals (121..129) for the plurality of individually controllable light sources (111..119) on the basis of the sensor signal if the sensor signal indicates that the head is turned left sidewards, upwards, right sidewards and/or downwards, characterized in that the controller being configured to generate the control signals (121..129) to obtain a lower emission of light by light sources closest to the eyes of the user.
An electric switch comprising: a frame ; a first stationary contact stationary fixed to the frame , and adapted to be connected to a power supply; a roll element adapted to rotate relative to the frame around a rotation axis between a first position and second position; a rotating contact stationary fixed to the roll element , and comprising a first contact portion such that in the first position of the roll element the first contact portion is electrically conductively connected to the first stationary contact , and in the second position of the roll element the rotating contact is disconnected from the first stationary contact , wherein electrically conductive connection between the first contact portion of the rotating contact and the first stationary contact is adapted to be closed and opened in a first contact zone ; and an arc extinguisher plate system for extinguish electric arcs inside the frame , the arc extinguisher plate system comprising at least one first arc extinguisher plate for extinguishing an electric arc generated during an opening event between the first stationary contact and the first contact portion of the rotating contact , characterized in that the at least one first arc extinguisher plate is fixed to the roll element . a frame ; a first stationary contact stationary fixed to the frame , and adapted to be connected to a power supply; a roll element adapted to rotate relative to the frame around a rotation axis between a first position and second position; a rotating contact stationary fixed to the roll element , and comprising a first contact portion such that in the first position of the roll element the first contact portion is electrically conductively connected to the first stationary contact , and in the second position of the roll element the rotating contact is disconnected from the first stationary contact , wherein electrically conductive connection between the first contact portion of the rotating contact and the first stationary contact is adapted to be closed and opened in a first contact zone ; and an arc extinguisher plate system for extinguish electric arcs inside the frame , the arc extinguisher plate system comprising at least one first arc extinguisher plate for extinguishing an electric arc generated during an opening event between the first stationary contact and the first contact portion of the rotating contact , characterized in that the at least one first arc extinguisher plate is fixed to the roll element .
A device for reducing secondary airflow in a gas turbine , the device comprising: an inter-stage sealing member located between a plurality of first turbine buckets attached to a first rotor disk and a plurality of second turbine buckets attached to a second rotor disk , the first rotor disk and the second rotor disk being rotatable about a central axis, the inter-stage sealing member being a circumferentially segmented structure including a plurality of segments and a sealing feature disposed between each of the plurality of segments; and an inter-stage rotor disk coupled to and supporting the sealing member in a fixed position relative to the first rotor disk and the second rotor disk; wherein the inter-stage sealing member is configured to contact the plurality of first buckets and the plurality of second buckets in a sealing engagement. an inter-stage sealing member located between a plurality of first turbine buckets attached to a first rotor disk and a plurality of second turbine buckets attached to a second rotor disk , the first rotor disk and the second rotor disk being rotatable about a central axis, the inter-stage sealing member being a circumferentially segmented structure including a plurality of segments and a sealing feature disposed between each of the plurality of segments; and an inter-stage rotor disk coupled to and supporting the sealing member in a fixed position relative to the first rotor disk and the second rotor disk; wherein the inter-stage sealing member is configured to contact the plurality of first buckets and the plurality of second buckets in a sealing engagement.
A sealing strip for sealing joints , preferably in the construction sector, in particular for sealing joints between windows or doors and masonry , said sealing strip having an elongated and preferably wedge-shaped base body , which is delimited by two preferably symmetrical cheek sides and at least one front side , and is made of a deformable material, which is a foam, wherein the sealing strip comprises at least one structural element , which preferably extends over the majority of the length of the sealing strip , is at least partially arranged in or on the base body , and is made of a dimensionally stable material, by which the sealing strip can be mechanically loaded and can be pressed into the joint , and wherein on at least one cheek side , preferably on both cheek sides , an adhesive layer is arranged.
Plastics line with at least one layer consisting of the following components: (A) 70-94 weight percent of a polyamide selected from the group consisting of: polyamide 516, polyamide 616, polyamide 1016, or mixtures thereof; (B) 4-20 weight percent impact modifier; (C) 2-15 weight percent of plasticiser; (D) 0-5 weight percent of additives different from (B) and (C), wherein the sum of (A)-(D) is 100 weight percent, and with the proviso that said layer does not contain polyamide 6. (A) 70-94 weight percent of a polyamide selected from the group consisting of: polyamide 516, polyamide 616, polyamide 1016, or mixtures thereof; (B) 4-20 weight percent impact modifier; (C) 2-15 weight percent of plasticiser; (D) 0-5 weight percent of additives different from (B) and (C),