mhurhangee/ep-ind-claims huggingface dataset:
Siloxane composition X, which can be polymerized or crosslinked by means of dehydrogenative condensation, comprising: - at least one organosiloxane monomer, oligomer and/or polymer B having, per molecule, at least one =SiH reactive unit; - at least one organosiloxane monomer, oligomer and/or polymer C having, per molecule, at least one =SiOH reactive unit; - a catalytic composition Y ' comprising: a) a catalytically effective amount of at least one polycondensation catalyst A which is a carbene of formula below: with: - the symbol X being chosen from the group consisting of the following atoms or groups: -O-, -S-, -N - and -P -with R being a C 1 -C 30 group, - R 1, R 2 and R 3 being identical or different, optionally substituted, C 1 -C 30 groups optionally comprising one or more atoms chosen from the group consisting of: S, P, Si, N and O, and - the symbols X, R 1, R 2 and R 3 taken in pairs can form a 5-, 6- or 7-membered ring, and b) at least one solvent comprising at least one alcohol G. - optionally at least one polyorganosiloxane resin D; and - optionally at least one filler E. - at least one organosiloxane monomer, oligomer and/or polymer B having, per molecule, at least one =SiH reactive unit; - at least one organosiloxane monomer, oligomer and/or polymer C having, per molecule, at least one =SiOH reactive unit; - a catalytic composition Y ' comprising: a) a catalytically effective amount of at least one polycondensation catalyst A which is a carbene of formula below: with: - the symbol X being chosen from the group consisting of the following atoms or groups: -O-, -S-, -N - and -P -with R being a C 1 -C 30 group, - R 1, R 2 and R 3 being identical or different, optionally substituted, C 1 -C 30 groups optionally comprising one or more atoms chosen from the group consisting of: S, P, Si, N and O, and - the symbols X, R 1, R 2 and R 3 taken in pairs can form a 5-, 6- or 7-membered ring, and b) at least one solvent comprising at least one alcohol G. a) a catalytically effective amount of at least one polycondensation catalyst A which is a carbene of formula below: with: - the symbol X being chosen from the group consisting of the following atoms or groups: -O-, -S-, -N - and -P -with R being a C 1 -C 30 group, - R 1, R 2 and R 3 being identical or different, optionally substituted, C 1 -C 30 groups optionally comprising one or more atoms chosen from the group consisting of: S, P, Si, N and O, and - the symbols X, R 1, R 2 and R 3 taken in pairs can form a 5-, 6- or 7-membered ring, and - the symbol X being chosen from the group consisting of the following atoms or groups: -O-, -S-, -N - and -P -with R being a C 1 -C 30 group, - R 1, R 2 and R 3 being identical or different, optionally substituted, C 1 -C 30 groups optionally comprising one or more atoms chosen from the group consisting of: S, P, Si, N and O, and - the symbols X, R 1, R 2 and R 3 taken in pairs can form a 5-, 6- or 7-membered ring, and b) at least one solvent comprising at least one alcohol G. - optionally at least one polyorganosiloxane resin D; and - optionally at least one filler E.
A sample container carrier for carrying a sample container along an automation track in an in-vitro diagnostics system, comprising: - a holding portion for receiving and holding a sample container, the holding portion defining a top of the sample container carrier; - a base portion supporting the holding portion and defining a bottom of the sample container carrier; and - a data carrier containing identifying electronic information, the data carrier comprising an antenna for wireless data communication with a reader device of the in-vitro diagnostics system to read the identifying information, wherein the data carrier is arranged on the holding portion adjacent to the top of the sample container carrier with the antenna extending in a direction along an outer circumference of the holding portion, characterized in that the base portion comprises a metallic material or a permanent magnet configured to interact with a dynamic magnetic field generated by an electromagnetic arrangement of a transport mechanism of an automation track for moving the sample container carrier along a transportation lane in a transport plane by means of magnetic forces. - a holding portion for receiving and holding a sample container, the holding portion defining a top of the sample container carrier; - a base portion supporting the holding portion and defining a bottom of the sample container carrier; and - a data carrier containing identifying electronic information, the data carrier comprising an antenna for wireless data communication with a reader device of the in-vitro diagnostics system to read the identifying information, wherein the data carrier is arranged on the holding portion adjacent to the top of the sample container carrier with the antenna extending in a direction along an outer circumference of the holding portion,
A plasma CVD device comprising a plasma CVD electrode unit and a substrate-holding mechanism in a vacuum chamber, wherein the plasma CVD electrode unit comprises: an anode; a cathode facing the anode at a distance; and a first gas supply nozzle arranged to supply a gas through a plasma-generation space between the anode and the cathode, the substrate-holding mechanism being provided at a position to contact in use the gas passing through the plasma-generation space, wherein a gas-supply directional length of the anode and a gas-supply directional length of the cathode are longer than a distance between the anode and cathode characterised in that the plasma CVD electrode unit further comprises a second gas supply nozzle arranged to supply another gas without passing through the plasma-generation space, and the second gas supply nozzle is provided in a space (19A, 19B) between the cathode and the substrate-holding mechanism. an anode; a cathode facing the anode at a distance; and a first gas supply nozzle arranged to supply a gas through a plasma-generation space between the anode and the cathode, the substrate-holding mechanism being provided at a position to contact in use the gas passing through the plasma-generation space, wherein a gas-supply directional length of the anode and a gas-supply directional length of the cathode are longer than a distance between the anode and cathode characterised in that the plasma CVD electrode unit further comprises a second gas supply nozzle arranged to supply another gas without passing through the plasma-generation space, and the second gas supply nozzle is provided in a space (19A, 19B) between the cathode and the substrate-holding mechanism. wherein a gas-supply directional length of the anode and a gas-supply directional length of the cathode are longer than a distance between the anode and cathode characterised in that the plasma CVD electrode unit further comprises a second gas supply nozzle arranged to supply another gas without passing through the plasma-generation space, and the second gas supply nozzle is provided in a space (19A, 19B) between the cathode and the substrate-holding mechanism.
An image decoding apparatus comprising: an acquiring unit configured to acquire subsample information from a file including encoded data of image data and management information of the encoded data, in which the subsample information of an image of the image data is arranged, the subsample information including hint information used as a reference for decoding processing of a subsample, which is a partial region which can be independently decoded; an encoded data generating unit configured to generate encoded data of the subsample from the encoded data included in the file based on the subsample information acquired by the acquiring unit; and a decoding unit configured to decode the encoded data of the subsample generated by the encoded data generating unit, wherein the acquiring unit acquires subsample information including a hint data type indicating a type of hint information included in the subsample information, a sample count indicating the number of continuous samples associated with the subsample information, and the hint information, characterized by the hint information including a level indicating a degree of load of decoding processing of the subsample, and the level being used as a reference for determining whether or not the decoding unit can decode the subsample, the subsample is a tile (Tile) in high efficiency video coding (HEVC), and an mcts_tier_flag and mcts_level_idc are extensionally added to an HEVC Decoder Configuration Record to indicate the level. an acquiring unit configured to acquire subsample information from a file including encoded data of image data and management information of the encoded data, in which the subsample information of an image of the image data is arranged, the subsample information including hint information used as a reference for decoding processing of a subsample, which is a partial region which can be independently decoded; an encoded data generating unit configured to generate encoded data of the subsample from the encoded data included in the file based on the subsample information acquired by the acquiring unit; and a decoding unit configured to decode the encoded data of the subsample generated by the encoded data generating unit, wherein the acquiring unit acquires subsample information including a hint data type indicating a type of hint information included in the subsample information, a sample count indicating the number of continuous samples associated with the subsample information, and the hint information, characterized by the hint information including a level indicating a degree of load of decoding processing of the subsample, and the level being used as a reference for determining whether or not the decoding unit can decode the subsample, the subsample is a tile (Tile) in high efficiency video coding (HEVC), and an mcts_tier_flag and mcts_level_idc are extensionally added to an HEVC Decoder Configuration Record to indicate the level.
A rotary electric machine (200, 202) comprising: a stator core provided with a plurality of slots; stator windings of a plurality of phases (U, V, W) provided with a plurality of wave-wound winding coils (U11-U16, U21-U26, V11-V16, V21V26, W11-W16, W21-W26), each having a slot conductor inserted into each slot of the stator core and included in any one of a plurality of layers and a jumper conductor that connects the same side ends of the slot conductors inserted into different slots to form a coil end; and a rotor rotatably supported to the stator core by interposing a vacancy, wherein the winding coils (U11-U16, U21-U26, V11-V16, V21-V26, W11-W16, W21-W26) include a first winding coil having a first jumper conductor as the jumper conductor and a second winding coil having a second jumper conductor as the jumper conductor, the first jumper conductor connects the slot conductors to each other by striding the slots with a slot pitch of "Np = N" in one of the coil ends and striding the slots with a slot pitch of "Np = N" in the other coil end, where "N" denotes the number of slots per pole, the second jumper conductor connects the slot conductors to each other by striding the slots with a slot pitch of "Np = N + 1" in one of the coil ends and striding the slots with a slot pitch of "Np = N - 1" in the other coil end, where "N" denotes the number of slots per pole, and the stator winding has a plurality of slot conductor groups (U, V, W) having a plurality of slot conductors of the same phase. a stator core provided with a plurality of slots; stator windings of a plurality of phases (U, V, W) provided with a plurality of wave-wound winding coils (U11-U16, U21-U26, V11-V16, V21V26, W11-W16, W21-W26), each having a slot conductor inserted into each slot of the stator core and included in any one of a plurality of layers and a jumper conductor that connects the same side ends of the slot conductors inserted into different slots to form a coil end; and a rotor rotatably supported to the stator core by interposing a vacancy, wherein the winding coils (U11-U16, U21-U26, V11-V16, V21-V26, W11-W16, W21-W26) include a first winding coil having a first jumper conductor as the jumper conductor and a second winding coil having a second jumper conductor as the jumper conductor, the first jumper conductor connects the slot conductors to each other by striding the slots with a slot pitch of "Np = N" in one of the coil ends and striding the slots with a slot pitch of "Np = N" in the other coil end, where "N" denotes the number of slots per pole, the second jumper conductor connects the slot conductors to each other by striding the slots with a slot pitch of "Np = N + 1" in one of the coil ends and striding the slots with a slot pitch of "Np = N - 1" in the other coil end, where "N" denotes the number of slots per pole, and the stator winding has a plurality of slot conductor groups (U, V, W) having a plurality of slot conductors of the same phase.
A process for reducing the content of oxygen, present as copper oxide, in molten metallic copper, which is obtained in a manner known per se and subjected to a copper refining process, wherein - carbon monoxide produced from carbon dioxide in a solid oxide electrolysis cell (SOEC) stack is added during the refining process to remove the oxygen according to the equation CuO + CO -> Cu + CO 2 whereby the purity of the metallic copper is increased, and - the gas from the SOEC stack is compressed and added to the copper melt through an injection system that disperses the reducing gas in small bubbles throughout the copper melt to maximize the gas/solid contact surface. - carbon monoxide produced from carbon dioxide in a solid oxide electrolysis cell (SOEC) stack is added during the refining process to remove the oxygen according to the equation CuO + CO -> Cu + CO 2 whereby the purity of the metallic copper is increased, and - the gas from the SOEC stack is compressed and added to the copper melt through an injection system that disperses the reducing gas in small bubbles throughout the copper melt to maximize the gas/solid contact surface.
A proximity detection device comprising: a range estimation circuit configured to estimate the distance between the device and an object in an image scene, the range estimation circuit comprising: - one or more photodetectors configured to generate events in response to one or more optical pulses received from the object of the scene against which the optical pulses reflect; - a readout circuit configured to sample one or more output signals from the one or more photodetectors at regular intervals throughout a detection period; and - a pulse transmission circuit (116, 118, 102) configured to transmit into the scene a first optical pulse (P1, P2) having a first pulse duration and a second optical pulse (P2, P1) having a second pulse duration, wherein the proximity detection device is characterised by the pulse transmission circuit being configured such that each of the first and second optical pulses at least partially occurs during the detection period, and such that the second pulse duration is at least 50 percent longer than the first pulse duration. - one or more photodetectors configured to generate events in response to one or more optical pulses received from the object of the scene against which the optical pulses reflect; - a readout circuit configured to sample one or more output signals from the one or more photodetectors at regular intervals throughout a detection period; and - a pulse transmission circuit (116, 118, 102) configured to transmit into the scene a first optical pulse (P1, P2) having a first pulse duration and a second optical pulse (P2, P1) having a second pulse duration,
Transport system for transporting rolling material between at least two mutually spaced-apart processing lines (10, 10'; 20), wherein the transport system comprises at least two ferries (30, 30'; 34, 34') for transporting the rolling material, wherein the ferries (30, 30'; 34, 34') are so designed and can be oriented in aligned orientation with respect to one another that devices are provided by means of which the rolling material is transferrable from one ferry (30, 30') to at least one further ferry (34, 34'), wherein the ferries (30, 30'; 34, 34') are movable perpendicularly to the processing lines (10, 10'; 20), wherein the ferries (30, 30'; 34, 34') are designed so that the rolling material is transferrable between the two processing lines (10, 10'; 20), and wherein the at least two ferries (30, 30'; 34, 34') are movable between the two processing lines (10, 10'; 20) at the same time and oppositely to one another, characterised in that the at least two ferries (30, 30') are so arranged that they are respectively movable only between a processing line (10, 10') and a transfer position (320, 320') lying in the middle region between the processing lines (10, 10'; 20), wherein the rolling material can be transferred from one ferry to another ferry in the middle between two mutually spaced apart processing lines, and the devices for transfer of the rolling material are electrically driven transport rollers for transporting the rolling material at least in the case of transfer from one ferry (30, 30') to another ferry (34, 34').
A method of preparing a blended complex culture of microorganisms comprising: a) taking at least two portions of an initial complex culture comprising at least 5 different microorganisms; b) culturing each of the portions under conditions which enrich each portion in one or more microorganisms to obtain a cultivated portion, wherein each portion is cultured under a different culture condition(s) compared with the other portion(s) such that each cultivated portion imparts a different functionality; and c) formulating a blended complex culture comprising at least one of said cultivated portions, by either c1) mixing or blending at least 2 of the cultivated portions or c2) mixing or blending at least one of the cultivated portions with a different complex culture or cultivated portion thereof. a) taking at least two portions of an initial complex culture comprising at least 5 different microorganisms; b) culturing each of the portions under conditions which enrich each portion in one or more microorganisms to obtain a cultivated portion, wherein each portion is cultured under a different culture condition(s) compared with the other portion(s) such that each cultivated portion imparts a different functionality; and c) formulating a blended complex culture comprising at least one of said cultivated portions, by either c1) mixing or blending at least 2 of the cultivated portions or c2) mixing or blending at least one of the cultivated portions with a different complex culture or cultivated portion thereof.
An apparatus for analyzing a breathing gas flowing along a breathing tubing for subject breathing, the breathing gas comprising breathing cycles having different phases, liquid particles adapted to be delivered at times depending on the phase of the breathing cycle or continuously into the breathing gas, the apparatus comprising: a gas sample supplier adapted to adjust gas sample supply from the breathing gas; and a gas analyzer adapted to receive the gas sample adjusted by said gas sample supplier and adapted to measure a gas sample property of the breathing gas; an indicator for producing a signal indicative of the breathing cycle or the delivery timing of the liquid supplier; the apparatus also comprising a processing unit adapted to receive a signal indicative of one of the phase of the breathing cycle and the delivery timing of the liquid particles from the indicator, said processing unit being adapted to control said gas sample supplier based on the signal received by said processing unit to limit access of liquid particles with the gas sample towards said gas analyzer; and characterized in that said gas sample supplier is adapted to decrease sample flow rate under control of said processing unit during an inspiration phase compared to the mean supplying rate during the expiration phase to limit access of liquid particles with the gas sample towards said gas analyzer. a gas sample supplier adapted to adjust gas sample supply from the breathing gas; and a gas analyzer adapted to receive the gas sample adjusted by said gas sample supplier and adapted to measure a gas sample property of the breathing gas; an indicator for producing a signal indicative of the breathing cycle or the delivery timing of the liquid supplier; the apparatus also comprising a processing unit adapted to receive a signal indicative of one of the phase of the breathing cycle and the delivery timing of the liquid particles from the indicator, said processing unit being adapted to control said gas sample supplier based on the signal received by said processing unit to limit access of liquid particles with the gas sample towards said gas analyzer; and characterized in that said gas sample supplier is adapted to decrease sample flow rate under control of said processing unit during an inspiration phase compared to the mean supplying rate during the expiration phase to limit access of liquid particles with the gas sample towards said gas analyzer.
A particle measuring head with a measuring region into which a fluid which is to be measured can be introduced, at least a first light guidance device with which light can be guided, changing its main beam direction, into the measuring region, wherein the light can be guided by the first light guidance device in a first direction into the measuring region, and at least a second light guidance device with which light can be guided away, changing its main beam direction, out of the measuring region, wherein the light can be guided away through the second light guidance device out of a second direction out of the measuring region, wherein the first light guidance device has at least one optical waveguide and at least one mirror and/or a prism, wherein the light which is guided into the measuring region passes through the optical waveguide and thereafter is deflected via the mirror and/or the prism into the measuring region, wherein the second light guidance device has at least one optical waveguide, characterised in that the light guided away out of the measuring region is first deflected by the mirror and/or the prism out of the measuring region into the optical waveguide of the second light guidance device, and then passes through this optical waveguide, in that the mirror or the prism is embodied as a ring, which runs around the measuring region, with an inclined, metallised inner surface which faces the measuring region, wherein light from the first light guidance device is beamed via at least one aperture into the measuring region and/or light from the measuring region enters via at least one aperture into the second light guidance device.