mhurhangee/patent-ind-claim-en huggingface dataset:
A system of controlling a vehicle speed of a vehicle with an engine , the system comprising: a gear shift selector operable by a user of the vehicle to be set in one of a plurality of positions; a sensor configured to measure an incline position of the vehicle; an electronic memory configured to store a plurality of vehicle target speeds that each correspond to both one of the plurality of positions of the gear shift selector and one of a plurality of incline positions of the vehicle; and a controller communicatively coupled to the electronic memory and the sensor, the controller configured to: receive a signal from the gear shift selector indicating a set position of the plurality of positions, receive a signal from the sensor indicating the incline position of the vehicle, identify a requested vehicle target speed of the plurality of target speeds that corresponds to the set position of the gear shift selector and the incline position of the vehicle, and generate at least one of an engine torque request and a brake torque request to control the vehicle speed to equal the requested vehicle target speed. a gear shift selector operable by a user of the vehicle to be set in one of a plurality of positions; a sensor configured to measure an incline position of the vehicle; an electronic memory configured to store a plurality of vehicle target speeds that each correspond to both one of the plurality of positions of the gear shift selector and one of a plurality of incline positions of the vehicle; and a controller communicatively coupled to the electronic memory and the sensor, the controller configured to: receive a signal from the gear shift selector indicating a set position of the plurality of positions, receive a signal from the sensor indicating the incline position of the vehicle, identify a requested vehicle target speed of the plurality of target speeds that corresponds to the set position of the gear shift selector and the incline position of the vehicle, and generate at least one of an engine torque request and a brake torque request to control the vehicle speed to equal the requested vehicle target speed. receive a signal from the gear shift selector indicating a set position of the plurality of positions, receive a signal from the sensor indicating the incline position of the vehicle, identify a requested vehicle target speed of the plurality of target speeds that corresponds to the set position of the gear shift selector and the incline position of the vehicle, and generate at least one of an engine torque request and a brake torque request to control the vehicle speed to equal the requested vehicle target speed.
An apparatus, comprising configuration informing means adapted to inform a terminal device on one or more resource pools (S50) comprised by a set of resource pools, wherein each of the resource pools comprises respective one or more resource units, and each of the resource units is defined by at least one of a respective frequency band, a respective time period, and a respective coding space, control means adapted to control the terminal device such that, when the terminal device wants to perform a contention based transmission (S60), the contention based transmission may be performed on at least one of the resource pools of the set, and tag providing means adapted to provide, for at least one of the resource pools of the set, a respective tag to the terminal device, wherein each of the tags comprises information on at least one of a channel condition of the respective resource pool, a load status of the respective resource pool, and an expected capacity of the respective resource pool. configuration informing means adapted to inform a terminal device on one or more resource pools (S50) comprised by a set of resource pools, wherein each of the resource pools comprises respective one or more resource units, and each of the resource units is defined by at least one of a respective frequency band, a respective time period, and a respective coding space, control means adapted to control the terminal device such that, when the terminal device wants to perform a contention based transmission (S60), the contention based transmission may be performed on at least one of the resource pools of the set, and tag providing means adapted to provide, for at least one of the resource pools of the set, a respective tag to the terminal device, wherein each of the tags comprises information on at least one of a channel condition of the respective resource pool, a load status of the respective resource pool, and an expected capacity of the respective resource pool.
A vacuum pump comprising: an inlet port ; a motor ; a rotating body rotatably driven by the motor, comprising a rotary blade cylindrical portion ; a stator located facing the rotating body, comprising a thread groove spacer ; an outlet port for exhausting a gas that has been sucked in through the inlet port; and a gas exhaust passage connecting a downstream space of the rotating body to the outlet port and being formed in a flow channel of the gas, and the rotating body extending in an inner circumferential side of the gas exhaust passage in a radial direction of the rotating body, wherein the rotary blade cylindrical portion or the thread groove spacer covers the opening of a cylindrical hole serving as the gas exhaust passage, wherein the thread groove spacer serving as a gas exhaust passage forming member or a base member serving as a gas exhaust passage forming member forms the cylindrical hole , wherein no blind portion exists at an opening edge of the gas exhaust passage in the downstream space side when the gas exhaust passage forming member that forms the gas exhaust passage is viewed from at least either of an upper side or an oblique upper side, or from at least either of a lower side or an oblique lower side. an inlet port ; a motor ; a rotating body rotatably driven by the motor, comprising a rotary blade cylindrical portion ; a stator located facing the rotating body, comprising a thread groove spacer ; an outlet port for exhausting a gas that has been sucked in through the inlet port; and a gas exhaust passage connecting a downstream space of the rotating body to the outlet port and being formed in a flow channel of the gas, and the rotating body extending in an inner circumferential side of the gas exhaust passage in a radial direction of the rotating body, wherein the rotary blade cylindrical portion or the thread groove spacer covers the opening of a cylindrical hole serving as the gas exhaust passage, wherein the thread groove spacer serving as a gas exhaust passage forming member or a base member serving as a gas exhaust passage forming member forms the cylindrical hole , wherein no blind portion exists at an opening edge of the gas exhaust passage in the downstream space side when the gas exhaust passage forming member that forms the gas exhaust passage is viewed from at least either of an upper side or an oblique upper side, or from at least either of a lower side or an oblique lower side.
A method for conditioning a sleep environment, comprising: receiving an indication that a user is on a sleep surface; and after receiving the indication that the user is on the sleep surface, setting at least a portion of the sleep surface to a first temperature for a first period of time, the first period of time being less than a total period of time the user is expected to be asleep on the sleep surface during a sleep session, wherein the first temperature is based on a stored first value indicating the first temperature, storing an indication of amount of time for which the user is in a slow wave sleep stage during the first period of time; subsequently setting the portion of the sleep surface to a different temperature, for at least a second period of time; determining that an amount of time the user is in a slow wave sleep stage in the second period of time with the sleep surface set to the different temperature is greater than the amount of time the user is in the slow wave sleep stage during the first period of time; and in response to the determination regarding the amounts of time the user is in the slow wave sleep stage, setting the first value to a value reflecting the different temperature. receiving an indication that a user is on a sleep surface; and after receiving the indication that the user is on the sleep surface, setting at least a portion of the sleep surface to a first temperature for a first period of time, the first period of time being less than a total period of time the user is expected to be asleep on the sleep surface during a sleep session, wherein the first temperature is based on a stored first value indicating the first temperature, storing an indication of amount of time for which the user is in a slow wave sleep stage during the first period of time; subsequently setting the portion of the sleep surface to a different temperature, for at least a second period of time; determining that an amount of time the user is in a slow wave sleep stage in the second period of time with the sleep surface set to the different temperature is greater than the amount of time the user is in the slow wave sleep stage during the first period of time; and in response to the determination regarding the amounts of time the user is in the slow wave sleep stage, setting the first value to a value reflecting the different temperature.
A process for preparing an ethylene polymer in a suspension polymerization in a polymerization reactor or a series of polymerization reactors comprising polymerizing ethylene or copolymerizing ethylene and one or more C 3 -C 12 -1-alkenes at temperatures of from 40 to 150°C and pressures of from 0.1 to 20 MPa in the presence of a polymerization catalyst and forming a suspension of ethylene polymer particles in a suspension medium comprising a hydrocarbon diluent, transferring the suspension of ethylene polymer particles into a solid-liquid separator, in which the suspension is separated in ethylene polymer particles and mother liquor, transferring a part of the mother liquor into a work-up section comprising an evaporation unit for producing a wax-depleted portion of the mother liquor, wherein a protic agent is added to the part of the mother liquor which is transferred into the work-up section, and recycling at least a part of the wax-depleted portion of the mother liquor to the polymerization reactor or the series of polymerization reactors. polymerizing ethylene or copolymerizing ethylene and one or more C 3 -C 12 -1-alkenes at temperatures of from 40 to 150°C and pressures of from 0.1 to 20 MPa in the presence of a polymerization catalyst and forming a suspension of ethylene polymer particles in a suspension medium comprising a hydrocarbon diluent, transferring the suspension of ethylene polymer particles into a solid-liquid separator, in which the suspension is separated in ethylene polymer particles and mother liquor, transferring a part of the mother liquor into a work-up section comprising an evaporation unit for producing a wax-depleted portion of the mother liquor, wherein a protic agent is added to the part of the mother liquor which is transferred into the work-up section, and recycling at least a part of the wax-depleted portion of the mother liquor to the polymerization reactor or the series of polymerization reactors.
Locking module of an arming system provided with an accumulation means configured to release a mechanical energy when switching from an armed state to a disarmed state, the module comprising: - a lever pivot-linked around a first pivot shaft , and which comprises a first end and a second end , the second end comprising a surface, called bearing surface , which has a width, called bearing width, the accumulation means being able to exert a thrust force on the first end when it is in the armed state; - a lock element configured to adopt either one of two positions called, respectively, first position and second position, the first position corresponding to a position for which the bearing surface is bearing against a contact surface of the lock element so as to oppose any rotation of the lever due to the thrust force and to maintain the accumulation means in the armed state, the second position corresponding to a retraction of the contact surface so as to allow the accumulation means to switch from the armed state to the unarmed state; the module being characterised in that a shoe , made of a metal strip and fixed to the lever , is interposed between the bearing surface and the contact surface when the bearing surface bears against the contact surface , a surface portion of the shoe , called secondary surface , being in contact with the contact surface , said secondary surface having a width, called the shoe width, greater than the bearing width. - a lever pivot-linked around a first pivot shaft , and which comprises a first end and a second end , the second end comprising a surface, called bearing surface , which has a width, called bearing width, the accumulation means being able to exert a thrust force on the first end when it is in the armed state; - a lock element configured to adopt either one of two positions called, respectively, first position and second position, the first position corresponding to a position for which the bearing surface is bearing against a contact surface of the lock element so as to oppose any rotation of the lever due to the thrust force and to maintain the accumulation means in the armed state, the second position corresponding to a retraction of the contact surface so as to allow the accumulation means to switch from the armed state to the unarmed state;
Method for synchronizing a first audio stream played back in the form of a sound signal by a playback device in proximity to a terminal with an alternative audio stream received by the terminal, the method comprising the steps of: - Capture of a part of the sound signal, - Obtainment of a first datum representative of at least a part of the captured sound signal, - Playback of the alternative audio stream received by the terminal, the method being characterized in that the terminal also receives a control stream representative of the first audio stream played back on the playback device, the control stream and the alternative audio stream being synchronized according to a same time reference, and in that it comprises the following steps: - Emission , to the playback device, of a command to pause reading of the first stream, - Detection of the first datum in the control stream, and When the first datum is detected in the control stream: - Emission , to the playback device, of a command to resume reading of the first stream. - Capture of a part of the sound signal, - Obtainment of a first datum representative of at least a part of the captured sound signal, - Playback of the alternative audio stream received by the terminal, - Emission , to the playback device, of a command to pause reading of the first stream, - Detection of the first datum in the control stream, and - Emission , to the playback device, of a command to resume reading of the first stream.
A method for converting an original ammonia plant to a converted ammonia plant comprising: installing a secondary ammonia synthesis loop for reacting a feed stream to form ammonia, wherein a portion of a purge gas taken from an ammonia recovery unit in a primary ammonia synthesis loop is supplied as feed to the secondary ammonia synthesis loop, wherein the secondary ammonia synthesis loop comprises a cold wall synthesis reactor in fluid communications with a chiller unit , wherein the cold wall synthesis reactor comprises an inner shell disposed within an outer shell and a reaction zone disposed within the inner shell , wherein a space is formed between the inner shell and the outer shell , wherein the reaction zone comprises one or more catalyst beds in indirect heat exchange with the space , and wherein the catalyst bed includes at least one catalyst; introducing the feed stream into the reaction zone through a first inlet ; discharging an effluent from the reaction zone through a first outlet to the chiller unit , wherein the first inlet , the reaction zone , and the first outlet provide a first plenum through the outer shell ; cooling the effluent in the chiller unit ; introducing the cooled effluent from the chiller unit through a second inlet into the space formed between the inner shell and the outer shell of the cold wall reactor ; discharging the cooled effluent from the space through a second outlet ; and feeding at least a portion of the cooled effluent from the cold wall reactor to a second ammonia recovery unit . installing a secondary ammonia synthesis loop for reacting a feed stream to form ammonia, wherein a portion of a purge gas taken from an ammonia recovery unit in a primary ammonia synthesis loop is supplied as feed to the secondary ammonia synthesis loop, wherein the secondary ammonia synthesis loop comprises a cold wall synthesis reactor in fluid communications with a chiller unit , wherein the cold wall synthesis reactor comprises an inner shell disposed within an outer shell and a reaction zone disposed within the inner shell , wherein a space is formed between the inner shell and the outer shell , wherein the reaction zone comprises one or more catalyst beds in indirect heat exchange with the space , and wherein the catalyst bed includes at least one catalyst; introducing the feed stream into the reaction zone through a first inlet ; discharging an effluent from the reaction zone through a first outlet to the chiller unit , wherein the first inlet , the reaction zone , and the first outlet provide a first plenum through the outer shell ; cooling the effluent in the chiller unit ; introducing the cooled effluent from the chiller unit through a second inlet into the space formed between the inner shell and the outer shell of the cold wall reactor ; discharging the cooled effluent from the space through a second outlet ; and feeding at least a portion of the cooled effluent from the cold wall reactor to a second ammonia recovery unit .
An optical connector ferrule and a boot (B), the optical connector ferrule comprising adhesive reservoirs having shapes of stepped grooves provided at corners in outer edges of an opening of an insertion opening portion having a shape of a rectangular opening of a main body of the ferrule, wherein the main body of the ferrule comprises the insertion opening portion provided on a rear end side surface of the ferrule main body , optical fiber core wire insertion holes (B) provided on a front end side surface of the ferrule main body , and being configured to have a distal end portion of an optical fiber core wire (F) inserted into a deep portion of the insertion opening portion such that the distal end portion of the fiber core wire (F) is exposed outwardly; the boot (B), having substantially a shape of a square tube and configured to have the optical fiber core wire (F) at a distal end, wherein the boot (B) is inserted into the insertion opening portion and supported by the ferrule, the optical connector ferrule further comprising an adhesive filling window formed on an upper surface of the main body of the ferrule, and being configured to have an adhesive (V) filled therein to fix the optical fiber core wire (F) from a side of the deep portion of the insertion opening portion to a side of each rear end opening of the optical fiber core wire (F) insertion holes, wherein the adhesive reservoirs are configured to store an adhesive (V) injected from the adhesive filling window and leaking out from a gap between the boot (B) and the insertion opening portion .
A laminated substrate for an organic LED element, comprising: a translucent substrate ; a scattering layer , including glass and a solid scattering material, provided on the translucent substrate and having a thickness of 30 μm or less; and an electrode provided on the scattering layer , wherein no covering layer including glass is provided between the scattering layer and the electrode , characterized in that the glass of the scattering layer includes, as represented by mol percentage based on the following oxides, 15% to 60% of B 2 O 3 , 20% to 45% of ZnO, 5% to 37% of Bi 2 O 3 , 2 to 14% of SiO 2 , 0 to 15% of Al 2 O 3 , 0 to 20% of P 2 O 5 , 0 to 5% of ZrO 2 , 0 to 10% of Gd 2 O 3 , 0 to 10% of TiO 2 , a total of 0 to 20% of alkaline earth metal oxides, and includes substantially no alkali metal oxide, and SiO 2 /Bi 2 O 3 (value obtained by dividing SiO 2 -content by Bi 2 O 3 -content) is less than 1.1, and P 2 O 5 /ZnO (a value obtained by dividing P 2 O 5 -content by ZnO-content) is less than 0.48. a translucent substrate ; a scattering layer , including glass and a solid scattering material, provided on the translucent substrate and having a thickness of 30 μm or less; and an electrode provided on the scattering layer , wherein no covering layer including glass is provided between the scattering layer and the electrode , characterized in that the glass of the scattering layer includes, as represented by mol percentage based on the following oxides, 15% to 60% of B 2 O 3 , 20% to 45% of ZnO, 5% to 37% of Bi 2 O 3 , 2 to 14% of SiO 2 , 0 to 15% of Al 2 O 3 , 0 to 20% of P 2 O 5 , 0 to 5% of ZrO 2 , 0 to 10% of Gd 2 O 3 , 0 to 10% of TiO 2 , a total of 0 to 20% of alkaline earth metal oxides, and includes substantially no alkali metal oxide, and SiO 2 /Bi 2 O 3 (value obtained by dividing SiO 2 -content by Bi 2 O 3 -content) is less than 1.1, and P 2 O 5 /ZnO (a value obtained by dividing P 2 O 5 -content by ZnO-content) is less than 0.48.
A method of producing an alkalized cocoa material, comprising the steps of: (a) mixing a cocoa material selected from cocoa beans, cocoa nibs, and mixtures thereof, an alkalizing agent, and water to a total moisture content of 10 to 35 % by weight; and (b) reacting the mixture of step (a) at a pressure of up to 12 bar and a temperature of 85 to 180°C, for 10 to 500 min; wherein step (b) is performed under continuous air flow of between 250 and 2000 ml/min/kg of cocoa material. (a) mixing a cocoa material selected from cocoa beans, cocoa nibs, and mixtures thereof, an alkalizing agent, and water to a total moisture content of 10 to 35 % by weight; and (b) reacting the mixture of step (a) at a pressure of up to 12 bar and a temperature of 85 to 180°C, for 10 to 500 min;
A surface treatment method for treating a surface of a SiC substrate after performing a mechanical processing, the SiC substrate made of, at least in the surface thereof, single crystal SiC, the method including; providing a SiC substrate having undergone mechanical processing causing a modified layer referred to as latent scratches in which the crystallinity is changed; and heating and etching the SiC substrate under Si atmosphere and under a condition that the temperature is 1800°C or more and 2000°C or less and an inert gas pressure around the SiC substrate is 0.01 Pa or more and 1 Pa or less, which leads to removal of the latent scratches.