mhurhangee/ep-ind-claims huggingface dataset:
Injection molded article comprising at least 60 wt.-% of a heterophasic propylene copolymer (HECO), said heterophasic propylene copolymer (HECO) comprises (a) a matrix being a polypropylene, said polypropylene comprises at least three polypropylene fractions, and, the three polypropylene fractions, and differ from each other by the melt flow rate MFR 2 (230 °C) measured according to ISO 1133 and at least one of the three polypropylene fractions, and has a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 1.0 to 20.0 g/10min, and (b) an elastomeric propylene copolymer dispersed in said matrix, wherein (i) said heterophasic propylene copolymer (HECO) has a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 of equal or more than 20.0 g/10min, and (ii) the amorphous phase of the xylene cold soluble fraction of the heterophasic propylene copolymer (HECO) has an intrinsic viscosity measured according to ISO 1628-1 (at 135 °C in decaline) of equal or higher than 2.0 dl/g, wherein the injection molded article is a housing or a pail. (a) a matrix being a polypropylene, said polypropylene comprises at least three polypropylene fractions, and, the three polypropylene fractions, and differ from each other by the melt flow rate MFR 2 (230 °C) measured according to ISO 1133 and at least one of the three polypropylene fractions, and has a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 1.0 to 20.0 g/10min, and (b) an elastomeric propylene copolymer dispersed in said matrix, wherein (i) said heterophasic propylene copolymer (HECO) has a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 of equal or more than 20.0 g/10min, and (ii) the amorphous phase of the xylene cold soluble fraction of the heterophasic propylene copolymer (HECO) has an intrinsic viscosity measured according to ISO 1628-1 (at 135 °C in decaline) of equal or higher than 2.0 dl/g, wherein the injection molded article is a housing or a pail. (i) said heterophasic propylene copolymer (HECO) has a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 of equal or more than 20.0 g/10min, and (ii) the amorphous phase of the xylene cold soluble fraction of the heterophasic propylene copolymer (HECO) has an intrinsic viscosity measured according to ISO 1628-1 (at 135 °C in decaline) of equal or higher than 2.0 dl/g,
Process for manufacturing a polyethylene homo- or copolymer by conducting high-pressure polymerization of ethylene, optionally in combination with one or more co-monomers, in a tubular reactor, wherein tert-amyl peroxyisobutyrate is used as polymerization initiator.
An apparatus comprising: an optical fiber having a cladding, the cladding having a refractive index of n 1; a glass block (110, 210) comprising a channel in which the optical fiber resides, the glass block (110, 210) having a refractive index of n 3 such that n 3 ≧n 1; a housing located external to the glass block (110, 210); and a thermal compound in contact with the glass block, characterized in that: the housing is a metal housing, the metal housing having a thermal conductivity that is greater than approximately 200 W/m· °C; in that the thermal compound is a light-absorbing thermal compound, and in that the thermal compound is located at a glass-metal interface between the glass block (110, 210) and the metal housing. an optical fiber having a cladding, the cladding having a refractive index of n 1; a glass block (110, 210) comprising a channel in which the optical fiber resides, the glass block (110, 210) having a refractive index of n 3 such that n 3 ≧n 1; a housing located external to the glass block (110, 210); and a thermal compound in contact with the glass block, characterized in that: the housing is a metal housing, the metal housing having a thermal conductivity that is greater than approximately 200 W/m· °C; in that the thermal compound is a light-absorbing thermal compound, and in that the thermal compound is located at a glass-metal interface between the glass block (110, 210) and the metal housing. the housing is a metal housing, the metal housing having a thermal conductivity that is greater than approximately 200 W/m· °C; in that the thermal compound is a light-absorbing thermal compound, and in that the thermal compound is located at a glass-metal interface between the glass block (110, 210) and the metal housing.
A compound which is a benzimidazole of formula: wherein: X is a 5-membered heteroaryl group selected from the following: R 1 is a group which is unsubstituted or substituted and is selected from C-linked 4- to 6-membered heterocyclyl; C 3 -C 6 cycloalkyl; C 1 -C 6 alkyl which is unsubstituted or substituted by C 6 -C 10 aryl, 5- to 12-membered N-containing heteroaryl, C 3 -C 6 cycloalkyl, OH, -OC R' or OR' wherein R' isunsubstituted C 1 -C 6 alkyl; and a spiro group of the following formula: Y is -CH 2 -, -CH 2 CH 2 - or -CH 2 CH 2 CH 2 -; n is 0 or 1; and R 2 is a group selected from C 6 -C 10 aryl, C 5 -C 6 heteroaryl, C 3 -C 6 cycloalkyl and C 5 -C 6 cycloalkenyl, wherein the group is unsubstituted or substituted and wherein C 6 -C 10 aryl is optionally fused to a 5- or 6-membered heterocyclic ring; or a pharmaceutically acceptable salt thereof. X is a 5-membered heteroaryl group selected from the following: R 1 is a group which is unsubstituted or substituted and is selected from C-linked 4- to 6-membered heterocyclyl; C 3 -C 6 cycloalkyl; C 1 -C 6 alkyl which is unsubstituted or substituted by C 6 -C 10 aryl, 5- to 12-membered N-containing heteroaryl, C 3 -C 6 cycloalkyl, OH, -OC R' or OR' wherein R' isunsubstituted C 1 -C 6 alkyl; and a spiro group of the following formula: Y is -CH 2 -, -CH 2 CH 2 - or -CH 2 CH 2 CH 2 -; n is 0 or 1; and R 2 is a group selected from C 6 -C 10 aryl, C 5 -C 6 heteroaryl, C 3 -C 6 cycloalkyl and C 5 -C 6 cycloalkenyl, wherein the group is unsubstituted or substituted and wherein C 6 -C 10 aryl is optionally fused to a 5- or 6-membered heterocyclic ring; or a pharmaceutically acceptable salt thereof.
A method for scheduling inference workloads over a distributed pool of edge network resources, comprising: - dispatching by a scheduler (100, 100') streams of queries (120, 120') from a set of sources (110, 110') running a plurality of applications, each query representing a request to perform an inference task which is served using a deep neural network, DNN, agent; characterized in that the scheduler (100, 100') dispatches the streams of queries (120, 120') having a data size and a data rate, according to a model variant (V1, V2,..., VM) of a geographically distributed cloud-edge network comprising computing clusters (C1, C2,..., CN), the model variant (V1, V2,..., VM) based on: i) each geographical position of the clusters (C1, C2,..., CN) and ii) a maximum end-to-end latency in the cloud-edge network to the scheduler (100, 100'), a minimum accuracy to serve the queries (120, 120'), and the data size and data rate of the streams of queries (120, 120'); and the DNN agent uses a reinforcement learning policy that estimates a probability distribution of each available action that cumulatively maximizes a reward and determining a subsequent action to be taken by the agent based on the estimated probability, wherein each available action is defined by a set of scheduling policies available in the edge network and the reward is defined as a ratio of queries that are served successfully by the DNN agent. - dispatching by a scheduler (100, 100') streams of queries (120, 120') from a set of sources (110, 110') running a plurality of applications, each query representing a request to perform an inference task which is served using a deep neural network, DNN, agent; characterized in that the scheduler (100, 100') dispatches the streams of queries (120, 120') having a data size and a data rate, according to a model variant (V1, V2,..., VM) of a geographically distributed cloud-edge network comprising computing clusters (C1, C2,..., CN), the model variant (V1, V2,..., VM) based on: i) each geographical position of the clusters (C1, C2,..., CN) and ii) a maximum end-to-end latency in the cloud-edge network to the scheduler (100, 100'), a minimum accuracy to serve the queries (120, 120'), and the data size and data rate of the streams of queries (120, 120'); and the DNN agent uses a reinforcement learning policy that estimates a probability distribution of each available action that cumulatively maximizes a reward and determining a subsequent action to be taken by the agent based on the estimated probability, wherein each available action is defined by a set of scheduling policies available in the edge network and the reward is defined as a ratio of queries that are served successfully by the DNN agent.
A method for producing microfibrillated cellulose with paper burst strength enhanced attributes for the production of a paper product, comprising: (a) processing at a first location an aqueous composition of microfibrillated cellulose into a first processed microfibrillated cellulose product, characterized by a fibre steepness of from 20 to 50, and/or (ii) a fibre d 50 of at least about 50 μm (b) dewatering the first processed microfibrillated cellulose; (c) transporting the dewatered processed microfibrillated cellulose, and optionally inorganic particulate material, to a second location; and (d) further processing at the second location the first processed microfibrillated cellulose, and optional inorganic particulate material, by subjecting an aqueous suspension comprising the microfibrillated cellulose and optionally inorganic particulate material to high shear, wherein the high shear is generated, at least in part, by a moving shearing element, to improve the attributes of the microfibrillated cellulose for the production of paper, and wherein the term "high shear" means a shear rate of from about 20,000 s -1 to about 120,000 s -1; wherein the first processed microfibrillated cellulose product is obtained by a process comprising microfibrillating a fibrous substrate comprising cellulose in an aqueous environment in the presence of a grinding medium, and optionally in the presence of inorganic material, selected from an alkaline earth metal carbonate or sulphate, such as calcium carbonate, for example, natural calcium carbonate and/or precipitated calcium carbonate, magnesium carbonate, dolomite, gypsum, a hydrous kandite clay such as kaolin, halloysite or ball clay, an anhydrous (calcined) kandite clay such as metakaolin or fully calcined kaolin, talc, mica, perlite and diatomaceous earth, and magnesium hydroxide, and aluminium trihydrate, and combinations thereof. (a) processing at a first location an aqueous composition of microfibrillated cellulose into a first processed microfibrillated cellulose product, characterized by a fibre steepness of from 20 to 50, and/or (ii) a fibre d 50 of at least about 50 μm (b) dewatering the first processed microfibrillated cellulose; (c) transporting the dewatered processed microfibrillated cellulose, and optionally inorganic particulate material, to a second location; and (d) further processing at the second location the first processed microfibrillated cellulose, and optional inorganic particulate material, by subjecting an aqueous suspension comprising the microfibrillated cellulose and optionally inorganic particulate material to high shear, wherein the high shear is generated, at least in part, by a moving shearing element, to improve the attributes of the microfibrillated cellulose for the production of paper, and wherein the term "high shear" means a shear rate of from about 20,000 s -1 to about 120,000 s -1;
An apparatus comprising: a first heat exchange apparatus; a second heat exchange apparatus; a first flow path between the first and second heat exchange apparatus; a compressor (22, 24) in the first flow path; a second flow path between the first and second heat exchange apparatus; a buffer/desiccant unit in the second flow path and comprising: a vessel having a first port and a second port; a foraminate conduit at least partially within the vessel; a desiccant at least partially surrounding a first portion of the conduit; and at least one valve positioned to switch the apparatus between: a first mode in which refrigerant flows from the second heat exchange apparatus to the first heat exchange apparatus along the second flow path; a second mode in which refrigerant flows from the first heat exchange apparatus to the second heat exchange apparatus along the second flow path; characterised by further comprising: a pressure-actuated valve along a second portion of the conduit. a first heat exchange apparatus; a second heat exchange apparatus; a first flow path between the first and second heat exchange apparatus; a compressor (22, 24) in the first flow path; a second flow path between the first and second heat exchange apparatus; a buffer/desiccant unit in the second flow path and comprising: a vessel having a first port and a second port; a foraminate conduit at least partially within the vessel; a desiccant at least partially surrounding a first portion of the conduit; and at least one valve positioned to switch the apparatus between: a first mode in which refrigerant flows from the second heat exchange apparatus to the first heat exchange apparatus along the second flow path; a second mode in which refrigerant flows from the first heat exchange apparatus to the second heat exchange apparatus along the second flow path; characterised by further comprising: a pressure-actuated valve along a second portion of the conduit. a vessel having a first port and a second port; a foraminate conduit at least partially within the vessel; a desiccant at least partially surrounding a first portion of the conduit; and at least one valve positioned to switch the apparatus between: a first mode in which refrigerant flows from the second heat exchange apparatus to the first heat exchange apparatus along the second flow path; a second mode in which refrigerant flows from the first heat exchange apparatus to the second heat exchange apparatus along the second flow path; characterised by further comprising: a pressure-actuated valve along a second portion of the conduit. a first mode in which refrigerant flows from the second heat exchange apparatus to the first heat exchange apparatus along the second flow path; a second mode in which refrigerant flows from the first heat exchange apparatus to the second heat exchange apparatus along the second flow path; characterised by further comprising: a pressure-actuated valve along a second portion of the conduit. a pressure-actuated valve along a second portion of the conduit.
A method of producing a laminated board for use in the production of large displays, show-cards, graphic panels and the like, wherein the laminated board is produced to have the same construction both across and along the machine direction by: embossing first and second plies (21, 22) to produce first embossed projections extending from first sides of the first and second plies; placing adhesive on the first embossed projections on the first side of each of the first and second embossed plies; bringing the first and second plies (21, 22) together such that the first embossed projections on the first and second embossed plies (21, 22) are arranged with a predetermined alignment; applying pressure to the first side of each of the first and second embossed plies (21, 22) to cause the first and second embossed plies to adhere together to form a composite ply; and adhering first and second flat outer plies (15, 16) of printable quality onto first and second sides of the composite ply. embossing first and second plies (21, 22) to produce first embossed projections extending from first sides of the first and second plies; placing adhesive on the first embossed projections on the first side of each of the first and second embossed plies; bringing the first and second plies (21, 22) together such that the first embossed projections on the first and second embossed plies (21, 22) are arranged with a predetermined alignment; applying pressure to the first side of each of the first and second embossed plies (21, 22) to cause the first and second embossed plies to adhere together to form a composite ply; and adhering first and second flat outer plies (15, 16) of printable quality onto first and second sides of the composite ply.
A mass spectrometry process for analyzing substance mixtures using a triple quuadrupole massspectrometer, said substance mixtures being ionized before the analysis, which comprises the following steps: a) selecting at least one mass/charge quotient (m/z) of ions formed by ionization in a first analytical quadrupole of the mass spectrometer, b) fragmenting the ion(s) selected under (a) by applying an acceleration voltage in a further following quadrupole which is filled with a collision gas and functions as a collision chamber, c) selecting and analyzing a mass/charge quotient of a fragment ion formed by the fragmentation (b) in a further downstream quadrupole, the process steps (a) to (c) being run through at least once, and d) analyzing the mass/charge quotients of all ions present in the substance mixture as a result of the ionization, the quadrupole being filled with collision gas but no acceleration voltage being applied during the analysis; and the steps (a) to (c) and step (d) may also be carried out in reverse sequence. a) selecting at least one mass/charge quotient (m/z) of ions formed by ionization in a first analytical quadrupole of the mass spectrometer, b) fragmenting the ion(s) selected under (a) by applying an acceleration voltage in a further following quadrupole which is filled with a collision gas and functions as a collision chamber, c) selecting and analyzing a mass/charge quotient of a fragment ion formed by the fragmentation (b) in a further downstream quadrupole, the process steps (a) to (c) being run through at least once, and d) analyzing the mass/charge quotients of all ions present in the substance mixture as a result of the ionization, the quadrupole being filled with collision gas but no acceleration voltage being applied during the analysis;
A system for cleaning a door handle by utilising the kinetic energy of opening a door, comprising: a cable comprising a multi-link chain fixed to a door frame and a transmission assembly wherein the linear displacement of said cable is converted to potential energy in response to movement of said door; means for rotating (10, 11, 12) a drive roller to co-operate with the door handle to rotate and to clean said door handle, only when the door handle is released and the door is closing, wherein the means for rotating comprises a worm, bevel or helical gear; characterized in that a friction braking mechanism is adapted to cooperate with said means for rotating (10, 11, 12) such that when a user applies a force to the door handle the rotation of the handle stops. a cable comprising a multi-link chain fixed to a door frame and a transmission assembly wherein the linear displacement of said cable is converted to potential energy in response to movement of said door; means for rotating (10, 11, 12) a drive roller to co-operate with the door handle to rotate and to clean said door handle, only when the door handle is released and the door is closing, wherein the means for rotating comprises a worm, bevel or helical gear; characterized in that a friction braking mechanism is adapted to cooperate with said means for rotating (10, 11, 12) such that when a user applies a force to the door handle the rotation of the handle stops.
Fire-fighting device configured for tunnels, comprising: - at least one main extinguishing fluid line, - at least two sectional lines connected to the main extinguishing fluid line, wherein - the sectional lines are allocated to a longitudinal section (A, B, C) of a tunnel and - a control device connected a fire localisation device, wherein the control device connects the main extinguishing fluid line to a limited selection of the sectional lines depending on a fire localisation, characterized in that - the sectional lines are allocated to one of at least two transverse sections (a, b, c) subdividing the longitudinal section (A, B, C), respectively, and - the fire localisation device allocates a localised fire to a transverse section (a, b, c). - at least one main extinguishing fluid line, - at least two sectional lines connected to the main extinguishing fluid line, wherein - the sectional lines are allocated to a longitudinal section (A, B, C) of a tunnel and - a control device connected a fire localisation device, wherein the control device connects the main extinguishing fluid line to a limited selection of the sectional lines depending on a fire localisation, characterized in that - the sectional lines are allocated to one of at least two transverse sections (a, b, c) subdividing the longitudinal section (A, B, C), respectively, and - the sectional lines are allocated to one of at least two transverse sections (a, b, c) subdividing the longitudinal section (A, B, C), respectively, and - the fire localisation device allocates a localised fire to a transverse section (a, b, c).
A device disposed in the roof region of two articulately connected vehicle parts for limiting the rolling motion of the vehicle parts relative to each other, wherein the device comprises two brackets (10, 20), wherein each respective bracket is disposed in the roof area of a respective vehicle part, wherein a coupling arm can be disposed between the brackets, wherein the coupling arm is fastened to each bracket by a pivot bearing (19a, 29a) with a vertical axis, characterized in that at least one pivot bearing (19a, 29a) is designed as a spherical bearing, wherein the device for limiting the rolling motion comprises a traction element disposed between the brackets, wherein the traction element is held on each bracket by a bearing support (15, 25), wherein the distance between the bearing supports (15, 25) is smaller than the distance between the pivot bearings (19a, 29a) for receiving the coupling arm, wherein the traction element comprises at least one separate spring element, which can be pressed against a limit stop during a rolling motion of the vehicles relative to each other.
A key generation method, comprising: determining, by a secondary base station, a key parameter corresponding to a data radio bearer, DRB; sending, by the secondary base station, the key parameter to user equipment corresponding to the DRB, whereby the user equipment generates a user plane key according to the key parameter and a basic key generated by the user equipment; receiving, by the secondary base station, a basic key generated by the master base station and sent by the master base station; wherein the basic key generated by the user equipment and the basic key generated by the master base station are the same; and generating, by the secondary base station, the user plane key according to the key parameter and the basic key generated by the master base station; wherein the user plane key generated by the user equipment and the user plane key generated by the secondary base station are the same. determining, by a secondary base station, a key parameter corresponding to a data radio bearer, DRB; sending, by the secondary base station, the key parameter to user equipment corresponding to the DRB, whereby the user equipment generates a user plane key according to the key parameter and a basic key generated by the user equipment; receiving, by the secondary base station, a basic key generated by the master base station and sent by the master base station; wherein the basic key generated by the user equipment and the basic key generated by the master base station are the same; and generating, by the secondary base station, the user plane key according to the key parameter and the basic key generated by the master base station; wherein the user plane key generated by the user equipment and the user plane key generated by the secondary base station are the same.