mhurhangee/ep-ind-claims huggingface dataset:
Motor vehicle including a chassis on which are mounted three rows (10, 30, 50) of seats (11, 31, 51) with: - at least one front seat in the first row, - at least one intermediate seat in the second row that is adapted to be folded up and is mounted to be mobile on the chassis between a position of use and a stowed position in which it is folded up and folded against the front seat in the first row, and - at least one rear seat in the third row that is adapted to be folded up and can be separated from the chassis, characterized in that it includes securing means (61, 62) for locking the rear seat in the third row against the intermediate seat in the second row when the rear seat in the third row is folded up and separated from the chassis and the intermediate seat in the second row is in the stowed position. - at least one front seat in the first row, - at least one intermediate seat in the second row that is adapted to be folded up and is mounted to be mobile on the chassis between a position of use and a stowed position in which it is folded up and folded against the front seat in the first row, and - at least one rear seat in the third row that is adapted to be folded up and can be separated from the chassis,
A method of operating an elevator system, the method comprising: receiving an evacuation call from a first evacuation floor; moving a first compartment of a multi-compartment elevator car to the first evacuation floor; opening a first door of the first compartment when the first compartment arrives at the first evacuation floor; monitoring, using a first sensor system, a remaining capacity within the first compartment; and closing the first door when at least one of a first selected period of time has passed and the remaining capacity within the first compartment is equal to a first selected remaining capacity; and moving a second compartment of the multi-compartment elevator car to the first evacuation floor when the remaining capacity within the first compartment is equal to about zero; opening a second door of the second compartment when the second compartment arrives at the first evacuation floor; monitoring, using a second sensor system, a remaining capacity within the second compartment; and closing the second door when at least one of a second selected period of time has passed and the remaining capacity within the second compartment is equal to a second selected remaining capacity. receiving an evacuation call from a first evacuation floor; moving a first compartment of a multi-compartment elevator car to the first evacuation floor; opening a first door of the first compartment when the first compartment arrives at the first evacuation floor; monitoring, using a first sensor system, a remaining capacity within the first compartment; and closing the first door when at least one of a first selected period of time has passed and the remaining capacity within the first compartment is equal to a first selected remaining capacity; and moving a second compartment of the multi-compartment elevator car to the first evacuation floor when the remaining capacity within the first compartment is equal to about zero; opening a second door of the second compartment when the second compartment arrives at the first evacuation floor; monitoring, using a second sensor system, a remaining capacity within the second compartment; and closing the second door when at least one of a second selected period of time has passed and the remaining capacity within the second compartment is equal to a second selected remaining capacity.
A method, comprising: transporting a first fluid containing agarose at at least 0.5 vol% into a microfluidic droplet containing a second fluid; and causing the agarose to solidify to form a gel particle contained within the second fluid in the microfluidic droplet. transporting a first fluid containing agarose at at least 0.5 vol% into a microfluidic droplet containing a second fluid; and causing the agarose to solidify to form a gel particle contained within the second fluid in the microfluidic droplet.
An article of footwear, comprising: a sole comprising a midsole, wherein the midsole comprises a midfoot region and the midfoot region comprises a shank member; and a cushioning member disposed in said sole, said cushioning member comprising: a substantially symmetrical u-shaped heel chamber, said heel chamber having an anterior wall, a posterior wall, and medial and lateral sidewalls disposed between the anterior wall and the posterior wall; a discrete forefoot chamber; and a passage connecting said heel chamber and said forefoot chamber, wherein said sole is formed around said cushioning member such that at least a portion of the medial heel sidewall and the lateral heel sidewall are visible, and wherein the passage is disposed in a cavity formed in the shank member. a sole comprising a midsole, wherein the midsole comprises a midfoot region and the midfoot region comprises a shank member; and a cushioning member disposed in said sole, said cushioning member comprising: a substantially symmetrical u-shaped heel chamber, said heel chamber having an anterior wall, a posterior wall, and medial and lateral sidewalls disposed between the anterior wall and the posterior wall; a discrete forefoot chamber; and a passage connecting said heel chamber and said forefoot chamber, wherein said sole is formed around said cushioning member such that at least a portion of the medial heel sidewall and the lateral heel sidewall are visible, and wherein the passage is disposed in a cavity formed in the shank member. a substantially symmetrical u-shaped heel chamber, said heel chamber having an anterior wall, a posterior wall, and medial and lateral sidewalls disposed between the anterior wall and the posterior wall; a discrete forefoot chamber; and a passage connecting said heel chamber and said forefoot chamber, wherein said sole is formed around said cushioning member such that at least a portion of the medial heel sidewall and the lateral heel sidewall are visible, and wherein the passage is disposed in a cavity formed in the shank member.
A magnetic induction antenna for transmitting sound signals to a hearing-impaired person wearing hearing aids equipped with a telecoil and calibrated to correct the handicap of each of the ears independently, said antenna including a copper loop, and being characterised in that: - the antenna is made in the form of a printed circuit on a flexible or rigid substrate, and includes a copper track forming multiple adjacent turns on said substrate, and; - the length and the height of the copper track determine an impedance of the antenna of 16 Q to 60 Q, and preferably of 32 Q. - the antenna is made in the form of a printed circuit on a flexible or rigid substrate, and includes a copper track forming multiple adjacent turns on said substrate, and; - the length and the height of the copper track determine an impedance of the antenna of 16 Q to 60 Q, and preferably of 32 Q.
A chiller system, comprising a chiller; and a controller (112, 204) configured to: determine a restarting mode (406, 512, 614) for the chiller, when power to the chiller is restored following an interruption, wherein the restarting mode is one of a soft loading restart mode and a rapid restart mode; and control the chiller according to the determined restarting mode, wherein the rapid restart mode reestablishes chiller capacity to a level at which the chiller was operating prior to the interruption more rapidly than the soft loading restart mode; wherein the soft loading restart mode includes a limit on a rate of increase for chiller capacity, and the rapid restart mode is an adaptive rapid restart mode wherein the rate of increase for chiller capacity is determined based on the level at which the chiller was operating at prior to the interruption. a chiller; and a controller (112, 204) configured to: determine a restarting mode (406, 512, 614) for the chiller, when power to the chiller is restored following an interruption, wherein the restarting mode is one of a soft loading restart mode and a rapid restart mode; and control the chiller according to the determined restarting mode, wherein the rapid restart mode reestablishes chiller capacity to a level at which the chiller was operating prior to the interruption more rapidly than the soft loading restart mode; wherein the soft loading restart mode includes a limit on a rate of increase for chiller capacity, and the rapid restart mode is an adaptive rapid restart mode wherein the rate of increase for chiller capacity is determined based on the level at which the chiller was operating at prior to the interruption. determine a restarting mode (406, 512, 614) for the chiller, when power to the chiller is restored following an interruption, wherein the restarting mode is one of a soft loading restart mode and a rapid restart mode; and control the chiller according to the determined restarting mode, wherein the rapid restart mode reestablishes chiller capacity to a level at which the chiller was operating prior to the interruption more rapidly than the soft loading restart mode; wherein the soft loading restart mode includes a limit on a rate of increase for chiller capacity, and the rapid restart mode is an adaptive rapid restart mode wherein the rate of increase for chiller capacity is determined based on the level at which the chiller was operating at prior to the interruption.
A center hole boring device configured to bore a center hole for working on each of two end surfaces of a material crankshaft, the center hole boring device comprising: a main clamper configured to hold and fix the material crankshaft; a measurement chuck configured to hold two ends of the material crankshaft held by the main clamper for measuring a shape of the material crankshaft while keeping a posture of the material crankshaft; a working section configured to bore a center hole on each of the both end surfaces of the material crankshaft held by the main clamper; and a Shape measuring machine section configured to measure the shape of the material crankshaft held by the measurement chuck; wherein the working section is configured to bore the center holes based on measurement data measured by the Shape measuring machine section. a main clamper configured to hold and fix the material crankshaft; a measurement chuck configured to hold two ends of the material crankshaft held by the main clamper for measuring a shape of the material crankshaft while keeping a posture of the material crankshaft; a working section configured to bore a center hole on each of the both end surfaces of the material crankshaft held by the main clamper; and a Shape measuring machine section configured to measure the shape of the material crankshaft held by the measurement chuck; wherein the working section is configured to bore the center holes based on measurement data measured by the Shape measuring machine section.
A disperse formulation containing metal nanoparticles for producing a conductive layer, wherein the formulation comprises metal nanoparticles, polyvinylpyrrolidone, at least one solvent that disperses the metal nanoparticles and the polyvinylpyrrolidone and at least one adsorbate, wherein the adsorbate is selected from the group consisting of ammonia, primary, secondary and tertiary amines and amino alcohols, wherein the adsorbate is present in an amount of 0.1 % by weight to 5 % by weight, based on the weight of the total formulation.
A method for medium access reservation in a multiband wireless network, characterized by comprising: determining available slots for reservation in a superframe for reservation across multiple channels; generating channel reservation protocol, CRP, availability information element, IE, to indicate the available slots on a main channel; generating one or more Extended-Channel CRP availability IEs to indicate the available slots on one or more respective extended channels; exchanging, over a main channel, the CRP availability IE and the Extended-Channel CRP availability IEs between a receiving device and a transmitting device, wherein the main channel is a communication channel on which all devices can communicate; and generating a Multiband CRP IE to reserve slots that are available on the receiving device and the transmitting device. determining available slots for reservation in a superframe for reservation across multiple channels; generating channel reservation protocol, CRP, availability information element, IE, to indicate the available slots on a main channel; generating one or more Extended-Channel CRP availability IEs to indicate the available slots on one or more respective extended channels; exchanging, over a main channel, the CRP availability IE and the Extended-Channel CRP availability IEs between a receiving device and a transmitting device, wherein the main channel is a communication channel on which all devices can communicate; and generating a Multiband CRP IE to reserve slots that are available on the receiving device and the transmitting device.
An additive supply device for an engine, the engine being mounted on a vehicle, the additive supply device comprising: an additive supply system positioned outside of an engine compartment, the additive supply system including: a tank storing an additive; a pump configured to pump the additive located inside the tank; a supply passage supplying the additive pumped by the pump to an exhaust gas passage of the engine; and a heater (310, 320, 330) configured to heat the additive inside the additive supply system; an intake air temperature sensor positioned inside the engine compartment, the intake air temperature sensor configured to detect an intake air temperature of the engine; and characterized by comprising a heating control unit configured to: actuate the heater (310, 320, 330) when the detected intake air temperature is low, and stop an actuation of the heater (310, 320, 330) when the detected intake air temperature rises; and continue the actuation of the heater (310, 320, 330) when a travel speed of the vehicle is equal to or lower than a first predetermined speed during the actuation of the heater (310, 320, 330). an additive supply system positioned outside of an engine compartment, the additive supply system including: a tank storing an additive; a pump configured to pump the additive located inside the tank; a supply passage supplying the additive pumped by the pump to an exhaust gas passage of the engine; and a heater (310, 320, 330) configured to heat the additive inside the additive supply system; a tank storing an additive; a pump configured to pump the additive located inside the tank; a supply passage supplying the additive pumped by the pump to an exhaust gas passage of the engine; and a heater (310, 320, 330) configured to heat the additive inside the additive supply system; an intake air temperature sensor positioned inside the engine compartment, the intake air temperature sensor configured to detect an intake air temperature of the engine; and characterized by comprising a heating control unit configured to: actuate the heater (310, 320, 330) when the detected intake air temperature is low, and stop an actuation of the heater (310, 320, 330) when the detected intake air temperature rises; and continue the actuation of the heater (310, 320, 330) when a travel speed of the vehicle is equal to or lower than a first predetermined speed during the actuation of the heater (310, 320, 330). actuate the heater (310, 320, 330) when the detected intake air temperature is low, and stop an actuation of the heater (310, 320, 330) when the detected intake air temperature rises; and continue the actuation of the heater (310, 320, 330) when a travel speed of the vehicle is equal to or lower than a first predetermined speed during the actuation of the heater (310, 320, 330).
A method of cell reselection in a User Equipment, UE, the UE being adapted to connect to multiple radio access networks and belonging to a Public Land Mobile Network, PLMN, wherein a first cell of a first of the radio access networks belongs to shared network, wherein the first cell broadcasts in system information multiple PLMN identities corresponding to multiple operators, and the UE is adapted to also connect to a second cell in a second of the radio access networks, wherein the second cell is a dedicated cell in which exactly one PLMN identity is broadcast, wherein said PLMN identity is the identity of the PLMN that the UE belongs to, the method comprising: - receiving from the first cell of the first of the radio access networks a broadcast message indicating the priority of the PLMN that the UE belongs to in the first cell, - assuming that the priority of second cell is a high priority, - If the UE is a delay tolerant UE, selecting cell according to radio quality, - If the UE is a delay sensitive UE, and the UE has not camped on a cell If there is only one cell found by UE, selecting that cell to camp on, If there are multiple cells found, selecting a cell to camp on according to the priority of the cells, wherein for cells with same priority, select cell with better radio quality, - If the UE is a delay sensitive UE, and the UE has camped on a dedicated cell, If the UE wants to initiate delay tolerant service and there are shared cells available, reselect cell according to radio quality, - If the UE is a delay sensitive UE, and the UE has camped on a shared cell, periodically scan to search whether there is an available cell with higher priority, reselect to the cell when the cell with higher priority is available. - receiving from the first cell of the first of the radio access networks a broadcast message indicating the priority of the PLMN that the UE belongs to in the first cell, - assuming that the priority of second cell is a high priority, - If the UE is a delay tolerant UE, selecting cell according to radio quality, - If the UE is a delay sensitive UE, and the UE has not camped on a cell If there is only one cell found by UE, selecting that cell to camp on, If there are multiple cells found, selecting a cell to camp on according to the priority of the cells, wherein for cells with same priority, select cell with better radio quality, If there is only one cell found by UE, selecting that cell to camp on, If there are multiple cells found, selecting a cell to camp on according to the priority of the cells, wherein for cells with same priority, select cell with better radio quality, - If the UE is a delay sensitive UE, and the UE has camped on a dedicated cell, If the UE wants to initiate delay tolerant service and there are shared cells available, reselect cell according to radio quality, - If the UE is a delay sensitive UE, and the UE has camped on a shared cell, periodically scan to search whether there is an available cell with higher priority, reselect to the cell when the cell with higher priority is available.
An in vivo stealth nanoparticle for use in therapy by intravascular delivery of a drug, which is a molecularly imprinted polymer having a plasma protein recognition sites molecularly imprinted by a plasma protein thereon and containing a constituent derived from a biocompatible monomer; wherein the plasma protein is albumin.
An optical sensor assembly comprising: a substrate (102, 202, 302, 402); a first photonic crystal sensor coupled to the substrate (102, 202, 302, 402), the first photonic crystal sensor configured to reflect a first portion of incident light corresponding to a first reflection spectrum, wherein a first wavelength range of the first reflection spectrum changes in response to changes in a first sensed parameter; and a second photonic crystal sensor coupled to the substrate (102, 202, 302, 402), the second photonic crystal sensor configured to reflect a second portion of the incident light corresponding to a second reflection spectrum, wherein a second wavelength range of the second reflection spectrum changes in response to changes in a second sensed parameter which is different from the first sensed parameter; wherein the first reflection spectrum and the second reflection spectrum are different and parameter values of the first and second sensed parameters are determinable from the first and second reflection spectra respectively. a substrate (102, 202, 302, 402); a first photonic crystal sensor coupled to the substrate (102, 202, 302, 402), the first photonic crystal sensor configured to reflect a first portion of incident light corresponding to a first reflection spectrum, wherein a first wavelength range of the first reflection spectrum changes in response to changes in a first sensed parameter; and a second photonic crystal sensor coupled to the substrate (102, 202, 302, 402), the second photonic crystal sensor configured to reflect a second portion of the incident light corresponding to a second reflection spectrum, wherein a second wavelength range of the second reflection spectrum changes in response to changes in a second sensed parameter which is different from the first sensed parameter; wherein the first reflection spectrum and the second reflection spectrum are different and parameter values of the first and second sensed parameters are determinable from the first and second reflection spectra respectively.
Method to operate a base station being part of a cellular network, the base station serving a plurality of user equipments, wherein the plurality of user equipments comprises user equipments which are qualified as reduced capability user equipment, and the base station is capable of applying at least one subcarrier spacing to a supported frequency band, wherein for operating a reduced capability user equipment the method, being performed by the base station comprises the steps of: - ascertaining a capability information from said user equipment including an indication of maximum number of supported subcarriers supported by the reduced capability user equipment, - determining the scheduling bandwidth for said user equipment taking into account the indicated maximum number of supported subcarriers and the at least one subcarrier spacing, - transferring information to said user equipment relating to said determined scheduling bandwidth, wherein a user equipment is qualified as reduced capability in case it is incapable of supporting all subcarriers across the full frequency band supported by the base station, and wherein the step of determining the scheduling bandwidth comprises the step of identifying a plurality of subcarriers with slots that are free to be allocated to a user equipment, wherein the plurality of subcarriers considers the indicated maximum number of supported subcarriers. - ascertaining a capability information from said user equipment including an indication of maximum number of supported subcarriers supported by the reduced capability user equipment, - determining the scheduling bandwidth for said user equipment taking into account the indicated maximum number of supported subcarriers and the at least one subcarrier spacing, - transferring information to said user equipment relating to said determined scheduling bandwidth, wherein a user equipment is qualified as reduced capability in case it is incapable of supporting all subcarriers across the full frequency band supported by the base station, and wherein the step of determining the scheduling bandwidth comprises the step of identifying a plurality of subcarriers with slots that are free to be allocated to a user equipment, wherein the plurality of subcarriers considers the indicated maximum number of supported subcarriers.