mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing ethylene and/or other olefins by steam cracking, in which one or more crackers are loaded with a paraffin-containing feed and a crude gas is extracted from the one or more crackers , wherein the crude gas is subjected at least in part to a treatment comprising a crude gas compression and a thermal separation using a C2 refrigerant and a C3 refrigerant, wherein a crude gas compressor (CGC) is used for the crude gas compression , wherein the C2 refrigerant is compressed using a C2 refrigerant compressor (ERC), and wherein the C3 refrigerant is compressed using a C3 refrigerant compressor (PRC), characterized in that the crude gas compressor (CGC) comprises two serial compressor trains, and in that each of these compressor trains, the C2 refrigerant compressor (ERC) and the C3 refrigerant compressor (PRC) are each operated at least in part using electric drives (M), which have at least partially identical performance features, are each supplied with power via frequency converters (FU), and are provided as structurally identical variable-speed drives, wherein each of the serial compressor trains of the crude gas compression , the C2 refrigerant compressor (ERC) and the C3 refrigerant compressor (PRC) are matched to one another in terms of their torque.
A network node configured to communicate with a plurality of wireless devices, WD , the network node comprising: processing circuitry configured to select an index indicating a set of parameters of a plurality of sets of parameters, a set of parameters including at least one frequency priority, the selecting being based at least in part on one of a registered slice and a service, the index usable to configure at least one WD of a first group of WDs to select a frequency priority based at least in part on the selected index; and a radio interface in communication with the processing circuitry, the radio interface configured to transmit the selected index to the at least one WD of the first group of WDs . processing circuitry configured to select an index indicating a set of parameters of a plurality of sets of parameters, a set of parameters including at least one frequency priority, the selecting being based at least in part on one of a registered slice and a service, the index usable to configure at least one WD of a first group of WDs to select a frequency priority based at least in part on the selected index; and a radio interface in communication with the processing circuitry, the radio interface configured to transmit the selected index to the at least one WD of the first group of WDs .
A method of providing blanket gas for use in one or more oil storage tanks comprising at least the steps of; (a) recovering VOC from the one or more oil storage tanks as a recovered VOC stream; (b) compressing the recovered VOC stream to provide a compressed recovered VOC stream; (c) separating the compressed recovered VOC stream to provide at least a liquefied volatile organic compounds (LVOC) stream and an uncondensed VOC stream; (d) compressing the uncondensed VOC stream to provide a compressed VOC stream; (e) heating at least a portion of the compressed VOC stream to provide a warmer compressed VOC stream; (f) reducing the pressure of the warmer compressed VOC stream to provide a decompressed VOC stream; and (g) providing the decompressed VOC stream as blanket gas to one or more oil storage tanks; and (h) vapourising a portion of the liquefied volatile organic compounds (LVOC) stream to provide blanket gas for use in one or more oil storage tanks. (a) recovering VOC from the one or more oil storage tanks as a recovered VOC stream; (b) compressing the recovered VOC stream to provide a compressed recovered VOC stream; (c) separating the compressed recovered VOC stream to provide at least a liquefied volatile organic compounds (LVOC) stream and an uncondensed VOC stream; (d) compressing the uncondensed VOC stream to provide a compressed VOC stream; (e) heating at least a portion of the compressed VOC stream to provide a warmer compressed VOC stream; (f) reducing the pressure of the warmer compressed VOC stream to provide a decompressed VOC stream; and (g) providing the decompressed VOC stream as blanket gas to one or more oil storage tanks; and (h) vapourising a portion of the liquefied volatile organic compounds (LVOC) stream to provide blanket gas for use in one or more oil storage tanks.
A walk behind mower including a driven wheel rotatably supported by a body frame , an electric motor for selectively driving the driven wheel, a clutch provided in a power transmission path between the electric motor and the driven wheel, a clutch actuating mechanism interposed between the electric motor and the clutch for selectively engaging the clutch, and a control unit for selectively supplying electric power from a power source to the electric motor according to a command from an operation switch ; wherein the clutch actuating mechanism includes a cam mechanism for engaging the clutch, characterized in that the cam mechanism engages the clutch by using a force transmitted to an input end of the clutch in the power transmission path when the electric motor is being driven in a normal rotational direction for propelling the mower forward; and the control unit is configured to drive the electric motor in a reverse rotational direction for a prescribed period of time or by a prescribed angle before stopping supplying electric current to the electric motor when a command to stop supplying electric current to the electric motor is received from the operation switch.
A liquid formulation comprising from 1% (w/w) to 10% sirolimus or a pharmaceutically acceptable salt thereof for use in a method of treating persistent intraretinal or subretinal edema due to exudative AMD in a human subject, the method comprising: administering an effective amount of said liquid formulation to the human subject by intravitreal injection to treat persistent intraretinal or subretinal edema, wherein the human subject has persistent intraretinal or subretinal edema due to exudative AMD despite previous intravitreal treatment with an anti-VEGF monoclonal antibody or VEGF-binding fragment thereof, and the effective amount of the liquid formulation comprises from 200 to 900 μg sirolimus. administering an effective amount of said liquid formulation to the human subject by intravitreal injection to treat persistent intraretinal or subretinal edema, wherein the human subject has persistent intraretinal or subretinal edema due to exudative AMD despite previous intravitreal treatment with an anti-VEGF monoclonal antibody or VEGF-binding fragment thereof, and the effective amount of the liquid formulation comprises from 200 to 900 μg sirolimus.
A connecting device for connecting a flexible first container to a dimensionally stable second container having a filling opening , wherein a connecting piece is provided being configured to be fitted to surround an opening of the first container , and wherein the connecting piece can be variably fastened to the filling opening by means of a fastening element , wherein the connecting piece comprises a substantially circular clamp ring and a holding pin for connecting to the fastening element , wherein the holding pin is arranged running in a radially outward direction along the circumference of the clamp ring , characterized in that the fastening element comprises a fastening wing , a resilient spring member , and a latching wing , and that the fastening element has a latching region arranged on the latching wing for engagement of the holding pin .
Light module for a headlight of a motor vehicle, the light module having a light-emitting unit and projection optics having an optical axis and at least one projection lens which images the light emitted by the light-emitting unit as a resulting light distribution of the light module on a roadway in front of the motor vehicle, characterized in that the light-emitting unit has a plurality of punctiform light sources (10a-10e) arranged in a matrix-like manner, each of which emits light with a Lambertian radiation characteristic, and a lens having a concavely curved exit surface on the side facing away from the light-emitting unit is arranged in a beam path between the light-emitting unit and the projection optics , the exit surface deflecting light beams which are emitted by the light-emitting unit with a beam angle of more than +/- 20° with respect to the optical axis of the projection optics and impinge on the exit surface of the lens toward the edge by means of total reflection, such that said light beams no longer pass through the projection optics .
A crane comprising: a carrier ; a superstructure coupled to the carrier , the superstructure including a boom ; a counterweight assembly movable or repositionable on the crane ; and an optical detection system according to claim 11. a carrier ; a superstructure coupled to the carrier , the superstructure including a boom ; a counterweight assembly movable or repositionable on the crane ; and an optical detection system according to claim 11.
A heat recovery unit for generating a heated fluid by a hot exhaust gas, comprising: a housing having an inlet for introducing hot exhaust gas and an outlet for discharging treated exhaust gas, and arranged in said housing at least one heat exchanger for heat exchange between the hot exhaust gas and a fluid, and an auxiliary combustor for combusting fuel with hot exhaust gas, the auxiliary combustor being provided with a fuel supply (24; 82), which auxiliary combustor is arranged downstream of the at least one heat exchanger in said housing, characterized in that an exhaust gas bypass (26; 27) for a part of the hot exhaust gas is provided, having an inlet for exhaust gas, and being positioned upstream of the at least one heat exchanger , and having an outlet in fluid communication with the auxiliary combustor . at least one heat exchanger for heat exchange between the hot exhaust gas and a fluid, and an auxiliary combustor for combusting fuel with hot exhaust gas, the auxiliary combustor being provided with a fuel supply (24; 82), which auxiliary combustor is arranged downstream of the at least one heat exchanger in said housing,
A localization system , comprising: a first anchor configured to transmit a first localization signal ; and a second anchor configured to transmit a second localization signal ; wherein the first localization signal and the second localization signal can be received within a common region; characterised by : the first localization signal being a first timestampable localization signal comprising a preamble followed by a payload; the second localization signal being a second timestampable localization signal comprising a preamble followed by a payload; the localization system being configured to transmit the second timestampable localization signal to partially overlap with the transmission of the first timestampable localization signal such that the second timestampable localization signal does not overlap the preamble of the first timestampable localization signal. a first anchor configured to transmit a first localization signal ; and a second anchor configured to transmit a second localization signal ; wherein the first localization signal and the second localization signal can be received within a common region; characterised by : the first localization signal being a first timestampable localization signal comprising a preamble followed by a payload; the second localization signal being a second timestampable localization signal comprising a preamble followed by a payload; the localization system being configured to transmit the second timestampable localization signal to partially overlap with the transmission of the first timestampable localization signal such that the second timestampable localization signal does not overlap the preamble of the first timestampable localization signal. the first localization signal being a first timestampable localization signal comprising a preamble followed by a payload; the second localization signal being a second timestampable localization signal comprising a preamble followed by a payload; the localization system being configured to transmit the second timestampable localization signal to partially overlap with the transmission of the first timestampable localization signal such that the second timestampable localization signal does not overlap the preamble of the first timestampable localization signal.
Hydraulic machine comprising a first member having a first structure for a hydraulic medium opening in a first interface surface and a second member having a second structure for the hydraulic medium opening in a second interface surface, the first interface surface being in contact with the second interface surface, wherein at least one of the members is provided with a support element surrounding the member , wherein the support element comprises a strength varying in circumferential direction around the member and/or in thickness direction in a middle region of the member , characterized in that the strength of the support element varies depending on the resistance against deformation of the member in a direction parallel to its interface surface . the support element comprises a strength varying in circumferential direction around the member and/or in thickness direction in a middle region of the member , characterized in that the strength of the support element varies depending on the resistance against deformation of the member in a direction parallel to its interface surface .
A non-transitory computer-readable medium having computer executable code stored thereon, the code comprising instructions to: receive a blood pressure signal and an oxygen saturation signal; determine a phase difference between the blood pressure signal and the oxygen saturation signal; determine a cerebral oximetry index (COx) value based on the blood pressure signal and the oxygen saturation signal; determine a confidence level related to the COx value based at least in part on a comparison between the COx value and the phase difference between the blood pressure signal and the oxygen saturation signal, comprising determining a low confidence level if the phase difference does not corroborate the COx value; and determine a patient's autoregulation status based at least in part on the phase difference, comprising determining that the autoregulation status is impaired and the confidence level is high if the phase difference is approximately zero or constant over a period of time corresponding to a high or positive COx value, and determining that the autoregulation status is intact and the confidence level is high if the phase difference is approximately +/- π radians or non-constant over a period of time corresponding to a low or negative COx value, and taking remedial action if the confidence level is low. receive a blood pressure signal and an oxygen saturation signal; determine a phase difference between the blood pressure signal and the oxygen saturation signal; determine a cerebral oximetry index (COx) value based on the blood pressure signal and the oxygen saturation signal; determine a confidence level related to the COx value based at least in part on a comparison between the COx value and the phase difference between the blood pressure signal and the oxygen saturation signal, comprising determining a low confidence level if the phase difference does not corroborate the COx value; and determine a patient's autoregulation status based at least in part on the phase difference, comprising determining that the autoregulation status is impaired and the confidence level is high if the phase difference is approximately zero or constant over a period of time corresponding to a high or positive COx value, and determining that the autoregulation status is intact and the confidence level is high if the phase difference is approximately +/- π radians or non-constant over a period of time corresponding to a low or negative COx value, and taking remedial action if the confidence level is low.
A vehicle with a mounting construction for a facial image photographic camera , characterized in that : a facial image photographic camera which photographs the face of a driver of a vehicle while the vehicle is running is disposed upon a column upper cover of a steering column such that it can be changed over between a position in which, when performing photography, the facial image photographic camera can be exposed to direct insolation by sunlight, and a position in which, when not performing photography, the facial image photographic camera is not exposed to direct insolation by sunlight due to a shadow of an upper portion of an instrument panel , wherein: the column upper cover is a movable portion of the steering column of the vehicle; and the facial image photographic camera is changed over between the positions by moving the column upper cover between a predetermined steering operating position and a predetermined storage position. the column upper cover is a movable portion of the steering column of the vehicle; and the facial image photographic camera is changed over between the positions by moving the column upper cover between a predetermined steering operating position and a predetermined storage position.
A method for establishing a radio resource control, RRC, connection by a user equipment, UE, interested in single-cell point-to-multipoint, SCPTM, transmission in a wireless communication system, the method comprising: receiving a list of available SCPTM services from a serving cell; receiving a type of the available SCPTM services from the serving cell; determining whether an SCPTM service of interest in the list of available SCPTM services is a first-type SCPTM service or a second-type SCPTM service, based on the received type of the available SCPTM services, wherein the first-type SCPTM service is a service that requires no hybrid automatic repeat request, HARQ, feedback and no channel state information, CSI, reporting, and wherein the second-type SCPTM service is a service that requires the HARQ feedback or the CSI reporting; when the UE determines the SCPTM service of interest is the second-type SCPTM service, establishing an RRC connection with a network, and receiving the second-type SCPTM service through the established RRC connection; when the UE determines the SCPTM service of interest is the first-type SCPTM service, receiving the first-type SCPTM service without establishing the RRC connection with the network, wherein the first-type SCPTM service is a service that requires no RRC connection establishment for the SCPTM service, and wherein the second-type SCPTM service is a service that has to require RRC connection establishment for the SCPTM service. receiving a list of available SCPTM services from a serving cell; receiving a type of the available SCPTM services from the serving cell; determining whether an SCPTM service of interest in the list of available SCPTM services is a first-type SCPTM service or a second-type SCPTM service, based on the received type of the available SCPTM services, wherein the first-type SCPTM service is a service that requires no hybrid automatic repeat request, HARQ, feedback and no channel state information, CSI, reporting, and wherein the second-type SCPTM service is a service that requires the HARQ feedback or the CSI reporting; when the UE determines the SCPTM service of interest is the second-type SCPTM service, establishing an RRC connection with a network, and receiving the second-type SCPTM service through the established RRC connection; establishing an RRC connection with a network, and receiving the second-type SCPTM service through the established RRC connection; when the UE determines the SCPTM service of interest is the first-type SCPTM service, receiving the first-type SCPTM service without establishing the RRC connection with the network, wherein the first-type SCPTM service is a service that requires no RRC connection establishment for the SCPTM service, and wherein the second-type SCPTM service is a service that has to require RRC connection establishment for the SCPTM service.
Process for depositing nanoparticles on a substrate and comprising the following steps: a) generating an aerosol from a suspension of nanoparticles in a liquid; b) generating, with the aerosol, a jet of nanoparticles in a carrier gas, under vacuum; c) depositing said nanoparticles of the jet on a substrate; characterised in that step a) is implemented from a surfactant-free suspension, wherein the nanoparticles comprise a core made of a conductive or semiconductor material coated by a shell made of silicon dioxide (SiO 2 ), said suspension being produced with the following steps: 1) providing a suspension in a liquid of nanoparticles stabilised with a surfactant, for example citrate or CTAB (hexadecyltrimethylammonium bromide); 2) bringing the suspension thus provided in contact with MPTMS (3-mercaptopropyl)trimethoxysilane) to obtain a suspension of nanoparticles coated with silicon dioxide (SiO 2 ) and surfactant free. a) generating an aerosol from a suspension of nanoparticles in a liquid; b) generating, with the aerosol, a jet of nanoparticles in a carrier gas, under vacuum; c) depositing said nanoparticles of the jet on a substrate; 1) providing a suspension in a liquid of nanoparticles stabilised with a surfactant, for example citrate or CTAB (hexadecyltrimethylammonium bromide); 2) bringing the suspension thus provided in contact with MPTMS (3-mercaptopropyl)trimethoxysilane) to obtain a suspension of nanoparticles coated with silicon dioxide (SiO 2 ) and surfactant free.
Process for producing zirconia-based multi-phasic ceramic composite materials, characterized in that it comprises the steps of: a) providing at least one ceramic suspension, called suspension A, by dispersing at least one ceramic zirconia powder in at least one aqueous medium to obtain at least one matrix for said composite material; b) providing at least one aqueous solution, called solution B, containing one or more inorganic precursors and adding said aqueous solution B to said ceramic suspension A to surface modify said ceramic zirconia powder and obtain at least one modified suspension, called suspension C; c) quickly drying said modified suspension to obtain at least one additived powder, where "quickly" means a drying performed in a time on the order of milliseconds, said step c) comprising the sub-step c1) of nebulizing said modified suspension C at a temperature included between 80°C and 200°C, said sub-step c1) providing for supplying at least one nozzle of a nebulizer with said modified suspension C, said nozzle being adapted to transform said modified suspension C into an aerosol of micro-drops; d) heat treating said additived powder, called powder D, to obtain at least one zirconia powder coated on its surface by second phases; and e) forming said zirconia powder coated on its surface by second phases. a) providing at least one ceramic suspension, called suspension A, by dispersing at least one ceramic zirconia powder in at least one aqueous medium to obtain at least one matrix for said composite material; b) providing at least one aqueous solution, called solution B, containing one or more inorganic precursors and adding said aqueous solution B to said ceramic suspension A to surface modify said ceramic zirconia powder and obtain at least one modified suspension, called suspension C; c) quickly drying said modified suspension to obtain at least one additived powder, where "quickly" means a drying performed in a time on the order of milliseconds, said step c) comprising the sub-step c1) of nebulizing said modified suspension C at a temperature included between 80°C and 200°C, said sub-step c1) providing for supplying at least one nozzle of a nebulizer with said modified suspension C, said nozzle being adapted to transform said modified suspension C into an aerosol of micro-drops; d) heat treating said additived powder, called powder D, to obtain at least one zirconia powder coated on its surface by second phases; and e) forming said zirconia powder coated on its surface by second phases.