mhurhangee/patent-ind-claim-en huggingface dataset:
A bioreactor characterized in that it comprises a light source , a light sensor facing said light source and a tank arranged between the light source and the light sensor intended to receive a culture medium comprising a cell culture of photosynthetic microorganisms, a controller connected to the light sensor to control the tank to a chosen cell culture concentration (x i ) in the culture medium during a working period, said light source being capable of emitting an incident light (L) with an input light intensity (I in ) in the direction of the tank , and the light sensor being capable of measuring an output light intensity (I out ) and of transmitting data relating to this intensity (I out ) to the controller for controlling the tank, and a system for controlling the light source , arranged to set, for a period less than or equal to said working period, the input light intensity (I in ) to a setpoint value enabling to induce cellular stress in at least some of said photosynthetic microorganisms, and wherein the system is also arranged to set said light to an input light intensity (I in ) at a resting value lower than the setpoint value, and to switch between the resting value and the setpoint value during the working period, and wherein the system is also arranged to fix a first irradiation period for which the light is set to the input light intensity (I in ) at the resting value and a second irradiation period for which the light is set to the setpoint value, the first irradiation period being greater than the second irradiation period, and to apply a succession of the first and second irradiation periods; and wherein the first and second irradiation periods are fixed such that the mean value of the input light intensity (I in ) during the working period, calculated from the resting value and the setpoint value, is less than or equal to a third of said setpoint value.
A system for selecting a public land mobile network, PLMN, comprising a mobility management entity, MME, and a base station, wherein the MME is configured to: receive an extended service request message from a terminal device, wherein the extended service request message includes a circuit switched fallback, CSFB, indication indicating that the terminal device intends to execute a CSFB; send an S1 interface application protocol request message to the base station, wherein the S1 interface application protocol request message includes a location area identity, LAI, and the LAI includes a PLMN identity, wherein the PLMN identity identifies a PLMN of a circuit switched, CS, domain to which the mobile switching center/visitor location register, MSC/VLR, selected for the terminal device by the MME belongs; the base station is configured to: receive the S1 interface application protocol request message from the MME; select a target cell of a packet switched handover, PS HO, of the terminal device, according to the PLMN identity. receive an extended service request message from a terminal device, wherein the extended service request message includes a circuit switched fallback, CSFB, indication indicating that the terminal device intends to execute a CSFB; send an S1 interface application protocol request message to the base station, wherein the S1 interface application protocol request message includes a location area identity, LAI, and the LAI includes a PLMN identity, wherein the PLMN identity identifies a PLMN of a circuit switched, CS, domain to which the mobile switching center/visitor location register, MSC/VLR, selected for the terminal device by the MME belongs; the base station is configured to: receive the S1 interface application protocol request message from the MME; select a target cell of a packet switched handover, PS HO, of the terminal device, according to the PLMN identity. receive the S1 interface application protocol request message from the MME; select a target cell of a packet switched handover, PS HO, of the terminal device, according to the PLMN identity.
Current sensor device for monitoring the current passing through a brush , comprising: - a brush holder extending in a longitudinal direction between distal and proximal ends, and defining a through housing intended to receive, slidably in the longitudinal direction, a brush so that one end of the brush intended to brush against a rotating movable surface protrudes from the brush holder at its distal end, - a Hall effect sensor arranged to detect a magnetic field, the current sensor device being characterized by : - a concentrator arranged to concentrate the magnetic fields inside a concentrated magnetic field zone and to protect this zone from the external magnetic fields, wherein, - the concentrator is mounted on the brush holder so as to surround at least a part of the brush when the latter is received inside the housing of the brush holder, in particular in a plane perpendicular to the longitudinal direction, - the Hall effect sensor is mounted on the brush holder at a position located inside the concentrated magnetic field zone , so as to measure a value representative of the intensity of the current passing through the brush when the latter is received in the housing of the brush holder. - a brush holder extending in a longitudinal direction between distal and proximal ends, and defining a through housing intended to receive, slidably in the longitudinal direction, a brush so that one end of the brush intended to brush against a rotating movable surface protrudes from the brush holder at its distal end, - a Hall effect sensor arranged to detect a magnetic field, - a concentrator arranged to concentrate the magnetic fields inside a concentrated magnetic field zone and to protect this zone from the external magnetic fields, - the concentrator is mounted on the brush holder so as to surround at least a part of the brush when the latter is received inside the housing of the brush holder, in particular in a plane perpendicular to the longitudinal direction, - the Hall effect sensor is mounted on the brush holder at a position located inside the concentrated magnetic field zone , so as to measure a value representative of the intensity of the current passing through the brush when the latter is received in the housing of the brush holder.
Process for producing a mixed lithium transition metal oxide usable as an active positive electrode material in lithium batteries, comprising the following steps: i) a transition metal oxide, and/or a transition metal hydroxide and/or a transition metal oxyhydroxide and a pyrogenically produced zirconium dioxide and/or a pyrogenically produced mixed oxide comprising zirconium are subjected to dry mixing by means of an electric mixing unit in the form of intensive mixers with high-speed mixing tools to obtain a coated precursor compound, wherein the mixing unit has a specific electrical power of 0.05 - 1.5 kW per kg of the coated precursor compound; ii) the coated precursor compound is mixed with a lithium containing compound iii) the mixture of the coated precursor compound and the lithium containing compound is heated at a temperature between 500 and 1400 °C to obtain the mixed lithium transition metal oxide. i) a transition metal oxide, and/or a transition metal hydroxide and/or a transition metal oxyhydroxide and a pyrogenically produced zirconium dioxide and/or a pyrogenically produced mixed oxide comprising zirconium are subjected to dry mixing by means of an electric mixing unit in the form of intensive mixers with high-speed mixing tools to obtain a coated precursor compound, wherein the mixing unit has a specific electrical power of 0.05 - 1.5 kW per kg of the coated precursor compound; ii) the coated precursor compound is mixed with a lithium containing compound iii) the mixture of the coated precursor compound and the lithium containing compound is heated at a temperature between 500 and 1400 °C to obtain the mixed lithium transition metal oxide.
A method, performed by a device (22a; 16a), for providing adjustments of power spectral densities associated with a reference signal sequence in a wireless communication network , wherein the method comprises: - assigning a single reference signal sequence to simultaneous transmissions of a plurality of physical channels, each physical channel occupying a different frequency region of a frequency range, each physical channel having different characteristics; and - providing an adjustment of a Power Spectral Density, PSD, of the single reference signal sequence in each physical channel of said physical channels in the frequency region occupied by the physical channel, wherein providing the adjustment of the PSD relates to adjusting the PSD by adjusting a ratio of Energy Per Resource Element, EPRE, to energy in one of a data signal and a control signal resource element associated with the reference signal sequence. - assigning a single reference signal sequence to simultaneous transmissions of a plurality of physical channels, each physical channel occupying a different frequency region of a frequency range, each physical channel having different characteristics; and - providing an adjustment of a Power Spectral Density, PSD, of the single reference signal sequence in each physical channel of said physical channels in the frequency region occupied by the physical channel, wherein providing the adjustment of the PSD relates to adjusting the PSD by adjusting a ratio of Energy Per Resource Element, EPRE, to energy in one of a data signal and a control signal resource element associated with the reference signal sequence.
Method for ensuring synchronism in a broadcasting network comprising at least two different transmitters , said data being organised, within successive data frames constructed on the basis of a first external time reference signal, referred to as a first external reference signal , characterised in that it implements, at at least one of said transmitters , steps of: - detecting packet synchronisation , delivering a synchronisation signal ; - generating a reference signal reconstituted on the basis of at least some data from said frames to be transmitted and said synchronisation signal; - comparing said reconstructed reference signal and a second external time reference signal to determine a time offset value between said reconstructed reference signal and said second external reference signal; - verifying that said determined time offset value is substantially equal to a predetermined time offset value imposed for said transmitter, said predetermined time offset value being substantially equal for at least two transmitters of said network, so as to ensure the synchronism of said transmitters, said data frames being organised, within an MPEG-TS stream type, in at least one super-frame, each super-frame comprising a super-frame initialisation packet, said packet synchronisation detection being carried out on the basis of a data stream DATA TS and a packet clock TS of said stream of the MPEG-TS type, said synchronisation signal being generated on the basis of at least one parameter of said super-frame initialisation packet. - detecting packet synchronisation , delivering a synchronisation signal ; - generating a reference signal reconstituted on the basis of at least some data from said frames to be transmitted and said synchronisation signal; - comparing said reconstructed reference signal and a second external time reference signal to determine a time offset value between said reconstructed reference signal and said second external reference signal; - verifying that said determined time offset value is substantially equal to a predetermined time offset value imposed for said transmitter, said predetermined time offset value being substantially equal for at least two transmitters of said network, so as to ensure the synchronism of said transmitters,
A method for assessing a runway condition comprising: detecting, by a brake control unit (BCU) , an aircraft braking event in an aircraft; monitoring, by the BCU , the aircraft braking event to detect a skid condition ; calculating, by the BCU , an aircraft deceleration of the aircraft ; and estimating, by the BCU , a runway coefficient of friction in response to detecting the skid condition, wherein the runway coefficient of friction is based on the aircraft deceleration, an aerodynamic drag force of the aircraft, and a thrust reverse force of the aircraft, and characterised by said monitoring by the BCU being in response to anti-skid logic, and the aircraft deceleration being calculated by an inertial sensor in the brake control unit (BCU) . detecting, by a brake control unit (BCU) , an aircraft braking event in an aircraft; monitoring, by the BCU , the aircraft braking event to detect a skid condition ; calculating, by the BCU , an aircraft deceleration of the aircraft ; and estimating, by the BCU , a runway coefficient of friction in response to detecting the skid condition, wherein the runway coefficient of friction is based on the aircraft deceleration, an aerodynamic drag force of the aircraft, and a thrust reverse force of the aircraft, and characterised by said monitoring by the BCU being in response to anti-skid logic, and the aircraft deceleration being calculated by an inertial sensor in the brake control unit (BCU) .
A process for purification of a poly(phenylene ether), the process comprising contacting a liquid feed solution comprising the poly(phenylene ether), an organic acid impurity, and an amine impurity with a hydrated acidic clay adsorbent under contacting conditions effective to provide a liquid effluent solution, in which the weight average molecular weight of the poly(phenylene ether) is within 1 percent, preferably within 0.5 percent, more preferably within 0.05 percent, of the weight average molecular weight of the poly(phenylene ether) in the feed solution, and a concentration of the amine impurity and the organic acid impurity in parts per million by weight is each reduced by at least 40 percent, preferably at least 50 percent, more preferably at least 80 percent relative to the concentration of each in the feed solution.
A laundry care composition comprising a laundry care ingredient and from about 0.00001 wt% to about 0.5 wt% of a bluing agent, said bluing agent comprising: (a) at least one chromophore component that comprises a bis-azo colorant, and (b) at least one polymeric component selected from a polyalkyleneoxy; wherein said chromophore and said polymeric component are covalently bound to one another and wherein the bluing agent is selected from the following structures: and mixtures thereof; wherein R 1 is a polyalkyleneoxy chain having from 4 to 50 repeating units; R 2 and R 3 are independently selected from the group consisting of H, C 1-4 alkyl, C 1-4 alkoxy; R 4 is selected from H, C(O)H and C(O)R 5 ; wherein R 5 is independently selected from the group consisting of C 1-7 alkyl, C 6-10 aryl, and C 7-11 arylalkyl; ; wherein the A ring may be further substituted with one or more groups selected from the group consisting of C 1-8 alkyl, C 1-8 alkoxy, nitro and OR 6 ; wherein R 6 is selected from the group consisting of H, hydroxyalkyl, a polyalkyleneoxy and a capped polyalkyleneoxy; wherein said capping groups are independently selected from C(O)R 5 and R 5 ; wherein each M is independently selected from the group consisting of an alkali metal cation, an ammonium ion and an alkaline earth metal cation; and wherein R 1 is a polyalkyleneoxy chain comprising ethyleneoxide for at least 50% of the units. (a) at least one chromophore component that comprises a bis-azo colorant, and (b) at least one polymeric component selected from a polyalkyleneoxy; wherein R 1 is a polyalkyleneoxy chain having from 4 to 50 repeating units; R 2 and R 3 are independently selected from the group consisting of H, C 1-4 alkyl, C 1-4 alkoxy; R 4 is selected from H, C(O)H and C(O)R 5 ; wherein R 5 is independently selected from the group consisting of C 1-7 alkyl, C 6-10 aryl, and C 7-11 arylalkyl; ; wherein the A ring may be further substituted with one or more groups selected from the group consisting of C 1-8 alkyl, C 1-8 alkoxy, nitro and OR 6 ; wherein R 6 is selected from the group consisting of H, hydroxyalkyl, a polyalkyleneoxy and a capped polyalkyleneoxy; wherein said capping groups are independently selected from C(O)R 5 and R 5 ; wherein each M is independently selected from the group consisting of an alkali metal cation, an ammonium ion and an alkaline earth metal cation; and wherein R 1 is a polyalkyleneoxy chain comprising ethyleneoxide for at least 50% of the units.
A method of inhibiting scale formation comprising adding, to a fluid that tends to form a scale, an antiscale agent selected from a polycarboxylic acid, a salt thereof, an ester thereof, a combination of two of the acid, the salt and the ester, or a combination of the salt, acid and the ester characterized by having a polymer backbone and a plurality of branches from the polymer backbone.
A brominated vinylaromatic-diene block copolymer (Br-SBC) comprising at least one vinylaromatic polymer block S, in particular polystyrene block, and at least one brominated diene polymer block BB, wherein • before bromination the weight-average molar mass M w of the block S is greater than or equal to M w of the block BB, • the molar mass M w of the block BB, before bromination, is from 50 000 to 130 000 g/mol, and • the molar mass M w of the block S is from 60 000 to 300 000 g/mol, wherein the molar mass M w is determined by means of GPC in accordance with ISO 16014-3:2012 relative to polystyrene standards at 25°C in THF before bromination. • before bromination the weight-average molar mass M w of the block S is greater than or equal to M w of the block BB, • the molar mass M w of the block BB, before bromination, is from 50 000 to 130 000 g/mol, and • the molar mass M w of the block S is from 60 000 to 300 000 g/mol,
An active vibration control actuator mounting system for reducing vibration and noise which can be sensed in an aircraft cabin comprising: at least one actuator bracket including an actuator interface member configured to hold one or more active counter-vibration inducing actuators (150-155) thereon in one or more predetermined orientations, and an aircraft engine mounting structure interface member connected to the actuator interface member , the aircraft engine mounting structure interface member being configured to couple the at least one actuator bracket to an aircraft engine mounting structure ; wherein the at least one actuator bracket is configured for the installation and removal of a respective one of the one or more active counter-vibration inducing actuators (150-155) to and from the actuator interface member while a respective one of the at least one actuator bracket remains coupled to the aircraft engine mounting structure , and wherein stiffness and mass of the at least one actuator bracket is configured so that a lowest modal frequency of the at least one actuator bracket is higher than an operational frequency of the respective one of the one or more active counter-vibration inducing actuators (150-155) when mounted to the at least one actuator bracket , wherein the operational frequency corresponds to a frequency of one or more spools of an aircraft engine. at least one actuator bracket including an actuator interface member configured to hold one or more active counter-vibration inducing actuators (150-155) thereon in one or more predetermined orientations, and an aircraft engine mounting structure interface member connected to the actuator interface member , the aircraft engine mounting structure interface member being configured to couple the at least one actuator bracket to an aircraft engine mounting structure ; an actuator interface member configured to hold one or more active counter-vibration inducing actuators (150-155) thereon in one or more predetermined orientations, and an aircraft engine mounting structure interface member connected to the actuator interface member , the aircraft engine mounting structure interface member being configured to couple the at least one actuator bracket to an aircraft engine mounting structure ; wherein the at least one actuator bracket is configured for the installation and removal of a respective one of the one or more active counter-vibration inducing actuators (150-155) to and from the actuator interface member while a respective one of the at least one actuator bracket remains coupled to the aircraft engine mounting structure , and wherein stiffness and mass of the at least one actuator bracket is configured so that a lowest modal frequency of the at least one actuator bracket is higher than an operational frequency of the respective one of the one or more active counter-vibration inducing actuators (150-155) when mounted to the at least one actuator bracket , wherein the operational frequency corresponds to a frequency of one or more spools of an aircraft engine.
System for exposing a material with images, where the system comprises an exposure table and an electronic light projector arranged above the exposure table and being adapted to project images towards a material arranged at the exposure table , where the electronic light projector and the exposure table are configured to be moved relative to each other during exposure and where the electronic light projector is connected to a projector control unit configured to: - provide a sequence of images to be exposed represented by image data , - superimpose a static image pattern onto the edge sections of the images to be exposed, where the width of the static image pattern is slimmer than the image to be exposed, resulting in a sequence of combined images, and where the electronic light projector is configured to expose the combined images sequentially onto the material. - provide a sequence of images to be exposed represented by image data , - superimpose a static image pattern onto the edge sections of the images to be exposed, where the width of the static image pattern is slimmer than the image to be exposed, resulting in a sequence of combined images, and
Method for reducing the harmful exhaust gas constituents of petrol-operated internal combustion engines by passing the exhaust gas through a three-way catalytic converter comprising one or more adjacent support bodies having a catalytically active coating, wherein the catalytically active coating has an inhomogeneous distribution of the oxygen storage capacity when viewed in the flow direction, characterized in that no oxygen storing material is present at the downstream end of the catalytic converter, and this region has a relative volume on the entire three-way catalytic converter of 5-50%, and the oxygen storage capacity in the catalytic converter rises incrementally or continuously from the downstream end to the upstream end.