mhurhangee/ep-ind-claims huggingface dataset:
A lubrication system for turbocharger(s) to ensure continuous lubrication of bearings and shaft of the turbocharger with lubricant retention during start and shut down of turbocharger-associated systems comprising a turbine housing, a compressor housing, and a bearing housing disposed between the turbine and compressor housings, with the turbine housing and compressor housings held on either side by a connecting means, a turbine wheel mounted on a shaft in a turbine housing wherein the shaft extends through the bearing housing into the compressor housing, a compressor wheel in the compressor housing mounted at the distal end of the shaft and is supported in the bearing housing, a pair of floating journal bearings on either end of the bearing housing to support the rotating shaft, seals at the both ends of bearing housing near the floating journal bearings to prevent the entry of the exhaust gas and compressed air into the bearing housing and to further absorb any axial thrust load, which comes on the rotating shaft, a non return valve or one way valve in the oil inlet pipe line with opening and / or closing pressure less than the oil pressure during the idle running of an engine, an oil outlet line so constructed to retain sufficient quantity of lubricating oil thereby allowing adequate lubrication of the shaft & bearings after engine / vehicle shutdown wherein one end of the oil outlet pipe is connected to the turbocharger oil outlet and the oil outlet pipe extending downwards and then is bent upwards with the next inflection point at a level around the center of the shaft with the other end of the oil outlet pipe ending below the turbocharger in the oil sump.
A signaling transmission method, comprising: determining (S 110), by a master base station, whether to adopt a separate transmitting manner for transmitting signaling data on a signaling radio bearer, SRB, by a terminal; wherein the separate transmitting manner indicates simultaneously transmitting the signaling data on both the master base station and a secondary base station; and transmitting (S 120), by the master base station, instruction information to the terminal for instructing the terminal whether to transmit the signaling data on the SRB in the separate transmitting manner; wherein the instruction information comprises the following parameters: an SRB identifier, radio link control, RLC, configuration information of the master base station, and logical channel configuration information of the master base station. determining (S 110), by a master base station, whether to adopt a separate transmitting manner for transmitting signaling data on a signaling radio bearer, SRB, by a terminal; wherein the separate transmitting manner indicates simultaneously transmitting the signaling data on both the master base station and a secondary base station; and transmitting (S 120), by the master base station, instruction information to the terminal for instructing the terminal whether to transmit the signaling data on the SRB in the separate transmitting manner; wherein the instruction information comprises the following parameters: an SRB identifier, radio link control, RLC, configuration information of the master base station, and logical channel configuration information of the master base station.
A method being performed in a device-to-device, D2D, enabled device for transmitting discovery signals for enabling D2D communication establishment in a cellular communication system, the method comprising assigning (1502, 1504, 2050, 2070), by the D2D enabled device, a time in a periodic time schedule and at least a subcarrier among a plurality of subcarriers for D2D communication based on a dynamic rule for spreading timing and/or subcarrier selection for the discovery signal transmission, characterised by that the dynamic rule comprises a function of one or more identifiers provided by the communication system wherein timing assignment for the D2D enabled device is determined by the function, and wherein the identifiers provided by the communication system on which the function determines timing comprises at least one of carrier frequency, network identity, and cell identity; and the method comprises transmitting (1506, 2060, 2080) the discovery signal by the D2D enabled device according to the time and subcarrier assignment.
A method of manufacturing a piston, comprising the steps of: heating an upper joining surface of an upper piston part and a lower joining surface of a lower piston part by induction; bringing the heated joining surfaces (30, 32) toward one another and allowing the heated joining surfaces (30, 32) to contact one another; rotating one of the piston parts (26, 28); and applying pressure to at least one of the piston parts (26, 28) during the rotating step to form a weld between the upper piston part and the lower piston part characterized in that the step of rotating one of the piston parts (26, 28) includes rotating the one of the piston parts (26, 28) in a first direction while the heated joining surfaces (30, 32) contact one another; the step of applying the pressure includes increasing the pressure to a maximum pressure level and applying the maximum pressure level while rotating the one piston part in a second direction opposite the first direction. heating an upper joining surface of an upper piston part and a lower joining surface of a lower piston part by induction; bringing the heated joining surfaces (30, 32) toward one another and allowing the heated joining surfaces (30, 32) to contact one another; rotating one of the piston parts (26, 28); and applying pressure to at least one of the piston parts (26, 28) during the rotating step to form a weld between the upper piston part and the lower piston part characterized in that the step of rotating one of the piston parts (26, 28) includes rotating the one of the piston parts (26, 28) in a first direction while the heated joining surfaces (30, 32) contact one another; the step of applying the pressure includes increasing the pressure to a maximum pressure level and applying the maximum pressure level while rotating the one piston part in a second direction opposite the first direction.
A vehicle security system for a vehicle, in particular a commercial vehicle, having a brake system, comprising a parking brake, wherein the parking brake can be switched between a driving position and a braking position, wherein the vehicle security system is configured to secure the vehicle after an accident, and comprises a control unit, which is configured to determine an accident of the vehicle and to switch the parking brake of the vehicle into the braking position when an accident of the vehicle has been ascertained, characterized by a sensor unit for collecting and providing first vehicle data, which represent a rotary location of the vehicle, wherein the control unit is configured to carry out the ascertaining of the accident based on the first vehicle data. wherein the vehicle security system is configured to secure the vehicle after an accident, and comprises a control unit, which is configured to determine an accident of the vehicle and to switch the parking brake of the vehicle into the braking position when an accident of the vehicle has been ascertained, characterized by a sensor unit for collecting and providing first vehicle data, which represent a rotary location of the vehicle, wherein the control unit is configured to carry out the ascertaining of the accident based on the first vehicle data.
A mixture comprising a first chemical and a second chemical, wherein said first chemical has the chemical structure of Formula I and said second chemical has the chemical structure of Formula II: wherein: n 1 is 2 to 4; n 2 is 1 to 3; n 1 is greater than n 2 R 1 and R 3 are independently selected from C 1 -C 16 alkyl, C 1 -C 3 hydroxy- or methoxy-alkyl and; R 2 and R 4 are independently selected from a structure of Formula III wherein: R 5 is C 7 -C 23 alkyl, mono-alkenyl, di-alkenyl, tri-alkenyl, hydroxyl-alkyl, or hydroxyl-alkenyl, and mixtures thereof. n 1 is 2 to 4; n 2 is 1 to 3; n 1 is greater than n 2 R 1 and R 3 are independently selected from C 1 -C 16 alkyl, C 1 -C 3 hydroxy- or methoxy-alkyl and; R 2 and R 4 are independently selected from a structure of Formula III wherein: R 5 is C 7 -C 23 alkyl, mono-alkenyl, di-alkenyl, tri-alkenyl, hydroxyl-alkyl, or hydroxyl-alkenyl, and mixtures thereof.
A tablet that rapidly disintegrates in the oral cavity comprising a compressed blend of: rapidly dispersing microgranules prepared by granulating a sugar alcohol or a saccharide or a mixture thereof, with a disintegrant, wherein the sugar alcohol and the saccharide are characterized by an average particle size less than 30 micrometers, and a taste-masked microcapsule containing at least one drug, the microcapsule being prepared by granulating a pharmaceutically acceptable formulation comprising at least one drug in a therapeutically effective amount and at least one polymeric binder selected from hydroxypropyl methylcellulose with a viscosity of 100 mPa·s (100 cps) or more and water soluble modified starch and that improves resilience of the microgranules, wet milling the granulated mass, and microencapsulating the milled granules to provide taste-masked microcapsules. rapidly dispersing microgranules prepared by granulating a sugar alcohol or a saccharide or a mixture thereof, with a disintegrant, wherein the sugar alcohol and the saccharide are characterized by an average particle size less than 30 micrometers, and a taste-masked microcapsule containing at least one drug, the microcapsule being prepared by granulating a pharmaceutically acceptable formulation comprising at least one drug in a therapeutically effective amount and at least one polymeric binder selected from hydroxypropyl methylcellulose with a viscosity of 100 mPa·s (100 cps) or more and water soluble modified starch and that improves resilience of the microgranules, wet milling the granulated mass, and microencapsulating the milled granules to provide taste-masked microcapsules.
A system, comprising: an endoscope including a scope and an image sensor, the image sensor being configured to capture medical image data that includes effective image portion data and a mechanical vignetting portion data, the mechanical vignetting portion data of the medical image data being generated due to mechanical vignetting caused by a difference in the image sensor which generates the medical image data and the scope; and circuitry configured to determine evaluation information from image data which is from the effective image portion data, and execute a control process to at least partially control an autofocus processing on the endoscope on the basis of the evaluation information, wherein: the circuitry is configured to determine the evaluation information from only the medical image data which is from the effective image portion data without using the mechanical vignetting portion data. an endoscope including a scope and an image sensor, the image sensor being configured to capture medical image data that includes effective image portion data and a mechanical vignetting portion data, the mechanical vignetting portion data of the medical image data being generated due to mechanical vignetting caused by a difference in the image sensor which generates the medical image data and the scope; and circuitry configured to determine evaluation information from image data which is from the effective image portion data, and execute a control process to at least partially control an autofocus processing on the endoscope on the basis of the evaluation information, wherein: the circuitry is configured to determine the evaluation information from only the medical image data which is from the effective image portion data without using the mechanical vignetting portion data.
A method for extinguishing a fire in an environment with a temperature less than or equal to -10°C, comprising at least one step of dispensing an extinguishing agent by means of a fire extinguisher comprising at least: - one body defining a storage chamber containing the extinguishing agent, - one gas generator configured to pressurize the extinguishing agent in order to dispense it outside the body through an exit opening, the exit opening being equipped with a misting nozzle, and the extinguishing agent having a solidification temperature less than -10°C, the saturating vapor concentration of the extinguishing agent taken at - 10°C and 1 bar being less than the extinguishing concentration of the extinguishing agent determined according to the ISO 14520 standard, 3 rd edition published in december 2015, for a heptane fire at 1 bar, and wherein the misting nozzle generates liquid droplets of extinguishing agent with a size less than or equal to 50 μm at -10°C. - one body defining a storage chamber containing the extinguishing agent, - one gas generator configured to pressurize the extinguishing agent in order to dispense it outside the body through an exit opening, the exit opening being equipped with a misting nozzle, and the extinguishing agent having a solidification temperature less than -10°C, the saturating vapor concentration of the extinguishing agent taken at - 10°C and 1 bar being less than the extinguishing concentration of the extinguishing agent determined according to the ISO 14520 standard, 3 rd edition published in december 2015, for a heptane fire at 1 bar, and wherein the misting nozzle generates liquid droplets of extinguishing agent with a size less than or equal to 50 μm at -10°C.
A compound of the formula or mesomeric forms thereof: wherein mCat+ or mAn- is an organic or inorganic positively/negatively charged counterion and m is an integer 0-3; p is an integer 1-2; q is an integer 1-5; alk is a chain of 1-5 carbon atoms optionally containing one or more double or triple bonds; Y is O; Z is OH; n is 1; X is OH or O - or an amide or ester conjugate thereof; each of Ra 1 and Ra 2 is independently H, SO 3 -, sulfonamide, halogen, or a further ring fused to an adjacent carbon atom; and each of Rc 1 and Rc 2 is independently alkyl or substituted alkyl, wherein at least one of Ra 1 or Ra 2 is SO 3 -, or Ra 1 or Ra 2 is a further ring fused to an adjacent carbon atom, the further ring having an SO 3 -, or Rc 1 or Rc 2 is an alkyl sulfonic acid group. wherein mCat+ or mAn- is an organic or inorganic positively/negatively charged counterion and m is an integer 0-3; p is an integer 1-2; q is an integer 1-5; alk is a chain of 1-5 carbon atoms optionally containing one or more double or triple bonds; Y is O; Z is OH; n is 1; X is OH or O - or an amide or ester conjugate thereof; each of Ra 1 and Ra 2 is independently H, SO 3 -, sulfonamide, halogen, or a further ring fused to an adjacent carbon atom; and each of Rc 1 and Rc 2 is independently alkyl or substituted alkyl, wherein at least one of Ra 1 or Ra 2 is SO 3 -, or Ra 1 or Ra 2 is a further ring fused to an adjacent carbon atom, the further ring having an SO 3 -, or Rc 1 or Rc 2 is an alkyl sulfonic acid group.
A process for applying a chromized layer on a substrate comprising the steps of: applying an overlay coating to a portion of the substrate, and contacting a different portion of the substrate and the overlay with a gas containing gaseous chromium wherein the gaseous chromium is generated from a chromium source and an activator so as to deposit the chromized layer on the different portion of the substrate.
A production method for a rubber composition for tires, the method comprising: a base kneading step of kneading a rubber component, silica, a silane coupling agent, and a water-soluble acidic substance, and then feeding and kneading a basic substance; and a finish kneading step of feeding a vulcanizing material to a kneaded product obtained in the base kneading step, and kneading the resultant mixture, wherein the basic substance is a guanidine. a base kneading step of kneading a rubber component, silica, a silane coupling agent, and a water-soluble acidic substance, and then feeding and kneading a basic substance; and a finish kneading step of feeding a vulcanizing material to a kneaded product obtained in the base kneading step, and kneading the resultant mixture, wherein the basic substance is a guanidine.
A chuck with a chuck body having a conically tapered centering hole holding a clamping element provided with a screwthread, an angle drive having a threaded ring that engages with the screwthread and is axially nondisplaceable relative to the chuck body and coaxial to the clamping element and that can be driven by a drive gear that is rotatable about a drive axis that is not parallel to the chuck axis, characterized in that a gear sleeve that is coaxial to the chuck axis and is provided with an aperture for a drive tool radially secures the angle drive in a gear seat.
A method for receiving a specific communication service data using a plurality of frequency bands each of which can be used to provide individual communication service, the method comprising: receiving, by a communication device, a control channel through at least one of the plurality of frequency bands available to the specific communication service, the control channel comprising control information about a plurality of data channels; and receiving, by the communication device, the plurality of data channels comprising the specific communication service data through two or more of the plurality of frequency bands based on the control information of the control channel, wherein the control information about the plurality of data channels includes at least one of information about which frequency bands are used to transmit the plurality of data channels and information about a configuration of the data channels, characterized in that the control information about the plurality of data channel is acquired by performing scanning on the plurality of frequency bands, wherein the scanning is performed based on information on which of the plurality of frequency bands the scanning can be performed and on which of the plurality of frequency bands the scanning cannot be performed. receiving, by a communication device, a control channel through at least one of the plurality of frequency bands available to the specific communication service, the control channel comprising control information about a plurality of data channels; and receiving, by the communication device, the plurality of data channels comprising the specific communication service data through two or more of the plurality of frequency bands based on the control information of the control channel, wherein the control information about the plurality of data channels includes at least one of information about which frequency bands are used to transmit the plurality of data channels and information about a configuration of the data channels, characterized in that the control information about the plurality of data channel is acquired by performing scanning on the plurality of frequency bands, wherein the scanning is performed based on information on which of the plurality of frequency bands the scanning can be performed and on which of the plurality of frequency bands the scanning cannot be performed.
A photoactivating device for deployment in a washing machine for activating one or more photoactive components in a laundry treatment composition, comprising: - a light source configured for emission of light for activation of the one or more photoactive components, - a controller, and - a motion sensing unit, wherein the controller is configured to control the light source responsive to the signals received from the motion sensing unit, and - optionally wherein photoactivating device further comprises: - a body defining a cavity for receiving and retaining the laundry treatment composition, and - an opening to the cavity configured for receiving the laundry treatment composition; characterized in that the controller is configured to reduce light emitted by the light source when signals of motion sensing unit correspond to: - a spin cycle of the washing machine, optionally wherein a centrifugal acceleration measured by the motion sensing unit is at least 80 m/sec 2. - a light source configured for emission of light for activation of the one or more photoactive components, - a controller, and - a motion sensing unit, wherein the controller is configured to control the light source responsive to the signals received from the motion sensing unit, and - optionally wherein photoactivating device further comprises: - a body defining a cavity for receiving and retaining the laundry treatment composition, and - an opening to the cavity configured for receiving the laundry treatment composition; - a spin cycle of the washing machine, optionally wherein a centrifugal acceleration measured by the motion sensing unit is at least 80 m/sec 2.
A method for increasing bud formation in mini rhizomes or mini stem cuttings, comprising the steps of: (i) micro-propagation of plant material from a vegetatively reproducing plant followed by multiplication to produce plantlets; (ii) contacting the plantlets or a part thereof from step (i) with at least one plant hormone; (iii) exposing the plantlets after step (ii) above to a temporary abiotic and mechanical stress, wherein said temporary stress comprises non-continuous exposure to any one or more stresses at intermittent periods between non-stress periods and wherein said abiotic stress comprises any one or more of: (a) an osmotic stress; (b) a temperature stress; (c) a nutrient stress; or (d) an oxidative stress and wherein said mechanical stress comprises cutting back of aboveground parts to a point just above a node; (iv) growing the plantlets and harvesting mini rhizomes or mini stem cuttings therefrom weighing less than about 25g; and (v) encapsulating the mini rhizomes or mini stem cuttings produced from step (iv) in a plant growth medium. (i) micro-propagation of plant material from a vegetatively reproducing plant followed by multiplication to produce plantlets; (ii) contacting the plantlets or a part thereof from step (i) with at least one plant hormone; (iii) exposing the plantlets after step (ii) above to a temporary abiotic and mechanical stress, wherein said temporary stress comprises non-continuous exposure to any one or more stresses at intermittent periods between non-stress periods and wherein said abiotic stress comprises any one or more of: (a) an osmotic stress; (b) a temperature stress; (c) a nutrient stress; or (d) an oxidative stress and wherein said mechanical stress comprises cutting back of aboveground parts to a point just above a node; (iv) growing the plantlets and harvesting mini rhizomes or mini stem cuttings therefrom weighing less than about 25g; and (v) encapsulating the mini rhizomes or mini stem cuttings produced from step (iv) in a plant growth medium.