mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a heating system , the method comprising the steps of: - heating a liquid with a boiler or another heater, - supplying the liquid along at least a first pipe circuit , using a pump connected to said first pipe circuit , to a plurality of heating zones , each heating zone corresponding to one or more heat radiators , wherein heat emitting controls are provided, each of which being configured to set a heating power of an associated heat radiator , - receiving desired heating powers for the heating zones , - determining which of the desired heating powers is the largest desired heating power, - setting the heat emitting control corresponding to the heating zone with the largest desired heating power to its maximum possible heating power, characterized in that the method comprises the step of - controlling said pump to set a flow rate of the liquid through the at least first pipe circuit such that said set maximum possible heating power is equal to the largest desired heating power, or controlling said boiler or said another heater, which is a device burning fossil fuels and/or using electrical energy or a chemical reaction to produce heat, such that said set maximum possible heating power is equal to the largest desired heating power. - heating a liquid with a boiler or another heater, - supplying the liquid along at least a first pipe circuit , using a pump connected to said first pipe circuit , to a plurality of heating zones , each heating zone corresponding to one or more heat radiators , wherein heat emitting controls are provided, each of which being configured to set a heating power of an associated heat radiator , - receiving desired heating powers for the heating zones , - determining which of the desired heating powers is the largest desired heating power, - setting the heat emitting control corresponding to the heating zone with the largest desired heating power to its maximum possible heating power, - controlling said pump to set a flow rate of the liquid through the at least first pipe circuit such that said set maximum possible heating power is equal to the largest desired heating power, or controlling said boiler or said another heater, which is a device burning fossil fuels and/or using electrical energy or a chemical reaction to produce heat, such that said set maximum possible heating power is equal to the largest desired heating power.
A computer-implemented method for controlling operation of a Self-Driving Car (SDC) , the method executable by an electronic device coupled to the SDC , the method comprising: at a first moment in time during an approach of the SDC to a crosswalk : • identifying, by the electronic device , an object-inclusion zone in proximity to the crosswalk , the object-inclusion zone potentially including objects that are to cross the crosswalk ; • determining, by the electronic device , presence of an object in the object-inclusion zone , characterised in that the object is identifiable by a first unique ID and in that the method further comprises: • determining, by the electronic device , an interval of time for the object based on movement data of the object , the interval of time being indicative of a temporal window during which the object is estimated to be crossing the crosswalk ; • using, by the electronic device , the interval of time and movement data of the SDC for determining operation-control data for controlling operation of the SDC , the operation-control data being indicative of a decision on a priority of way through the crosswalk between the SDC and the object ; and • assigning, by the electronic device , decision data to the object-inclusion zone indicative of the decision, such that the priority of way between the SDC and any other object identifiable by an other unique ID that is different from the first unique ID in the object-inclusion zone is same as between the SDC and the object . • identifying, by the electronic device , an object-inclusion zone in proximity to the crosswalk , the object-inclusion zone potentially including objects that are to cross the crosswalk ; • determining, by the electronic device , presence of an object in the object-inclusion zone , • determining, by the electronic device , an interval of time for the object based on movement data of the object , the interval of time being indicative of a temporal window during which the object is estimated to be crossing the crosswalk ; • using, by the electronic device , the interval of time and movement data of the SDC for determining operation-control data for controlling operation of the SDC , the operation-control data being indicative of a decision on a priority of way through the crosswalk between the SDC and the object ; and • assigning, by the electronic device , decision data to the object-inclusion zone indicative of the decision, such that the priority of way between the SDC and any other object identifiable by an other unique ID that is different from the first unique ID in the object-inclusion zone is same as between the SDC and the object .
An energy cable comprising a cable core comprising an electric conductor and a crosslinked electrically insulating layer, wherein the cable core further comprises a microporous material having a bimodal pore volume distribution with a first peak of the distribution having a maximum at a pore diameter value within the range 0.55-0.65 nm (5.5-6.5 Å) and a second peak of the distribution having a maximum at a pore diameter value within the range 0.75-0.85 nm (7.5-8.5 Å), the maximum values of the first and the second peak corresponding to an incremental pore volume of at least 4x10 -3 cm 3 /g, the pore diameter and the pore volume distribution being measured as detailed in the description.
A surveying system comprising: a height measuring device and a high-low measuring device for measuring a high-low information of a construction surface, wherein said high-low measuring device comprises an object measured by said height measuring device, a distance measurement sensor which is provided in a known relationship with said object and measures a distance to said construction surface, a projecting device which has an optical axis parallel or substantially parallel to an optical axis of said distance measurement sensor wherein the distance between both the optical axes is known and projects said high-low information, and an arithmetic control module , wherein said high-low information includes an information of a deviation with respect to a set height of said construction surface, an information of unevenness with respect to a set plane, and an information of a state of a tilt with respect to a horizontal plane, wherein said arithmetic control module is configured to calculate said high-low information of said construction surface based on a height information of said object measured by said height measuring device, the distance to said construction surface measured by said distance measurement sensor and the known relationship between said object and said distance measurement sensor, and wherein said projecting device is configured to project said high-low information onto said construction surface. wherein said high-low measuring device comprises an object measured by said height measuring device, a distance measurement sensor which is provided in a known relationship with said object and measures a distance to said construction surface, a projecting device which has an optical axis parallel or substantially parallel to an optical axis of said distance measurement sensor wherein the distance between both the optical axes is known and projects said high-low information, and an arithmetic control module , wherein said high-low information includes an information of a deviation with respect to a set height of said construction surface, an information of unevenness with respect to a set plane, and an information of a state of a tilt with respect to a horizontal plane, wherein said arithmetic control module is configured to calculate said high-low information of said construction surface based on a height information of said object measured by said height measuring device, the distance to said construction surface measured by said distance measurement sensor and the known relationship between said object and said distance measurement sensor, and wherein said projecting device is configured to project said high-low information onto said construction surface.
Plug door module (101.. 107) for a rail vehicle, comprising: a door leaf (20..22) movable in an opening direction and a sliding direction, and a first over-centre lock (30..32) acting in the opening direction of the door leaf (20..22), and a second over-centre lock (40..42) acting in the opening direction of the door leaf (20..22), characterised in that the second over-centre lock is coupled directly or indirectly to the first over-centre lock (30..32) by a Bowden cable (80..82). a door leaf (20..22) movable in an opening direction and a sliding direction, and a first over-centre lock (30..32) acting in the opening direction of the door leaf (20..22), and a second over-centre lock (40..42) acting in the opening direction of the door leaf (20..22), characterised in that the second over-centre lock is coupled directly or indirectly to the first over-centre lock (30..32) by a Bowden cable (80..82).
A coupling mechanism for a medication delivery device embodied in a housing comprising, a first part having a longitudinal axis and which is axially fixed with respect to the housing and rotatable around the longitudinal axis , the first part having a gearing engagement to a second part which is arranged along the longitudinal axis , the gearing engagement having a first frictional resistance, the second part is axially moveable along the longitudinal axis , and directly or indirectly in a friction fit engagement with respect to the housing the friction fit engagement having a second frictional resistance, characterized by that the first frictional resistance is below the second frictional resistance such that a rotation of the first part in a first rotation direction axially moves the second part away from the first part along the longitudinal axis to close a coupling between the second part and a third part , thereby activating a needle insertion mechanism of the medication delivery device and a rotation in a second rotation direction which is opposite to the first rotation direction reduces the axial distance between the first and second part and/or axially moves the second part in coupling abutment with the first part to open the coupling between the second part and a third part and activate a drive mechanism to advance a piston rod to expel medication from a reservoir present in the medication delivery device. a first part having a longitudinal axis and which is axially fixed with respect to the housing and rotatable around the longitudinal axis , the first part having a gearing engagement to a second part which is arranged along the longitudinal axis , the gearing engagement having a first frictional resistance, the second part is axially moveable along the longitudinal axis , and directly or indirectly in a friction fit engagement with respect to the housing the friction fit engagement having a second frictional resistance, characterized by that the first frictional resistance is below the second frictional resistance such that a rotation of the first part in a first rotation direction axially moves the second part away from the first part along the longitudinal axis to close a coupling between the second part and a third part , thereby activating a needle insertion mechanism of the medication delivery device and a rotation in a second rotation direction which is opposite to the first rotation direction reduces the axial distance between the first and second part and/or axially moves the second part in coupling abutment with the first part to open the coupling between the second part and a third part and activate a drive mechanism to advance a piston rod to expel medication from a reservoir present in the medication delivery device.
A method for calibrating an analyte sensor, the method comprising: receiving sensor data from a first continuous analyte sensor; receiving sensor data from a second continuous analyte sensor; and calibrating the sensor data from the first continuous analyte sensor using the sensor data from the second continuous analyte sensor, characterized in that for said calibrating the first and second continuous analyte sensors do not provide sensor data during an overlapping time period. receiving sensor data from a first continuous analyte sensor; receiving sensor data from a second continuous analyte sensor; and calibrating the sensor data from the first continuous analyte sensor using the sensor data from the second continuous analyte sensor, characterized in that for said calibrating the first and second continuous analyte sensors do not provide sensor data during an overlapping time period.
An agent for removing impurities formed in polymerizations which contains: a) 0.5 to 20%wt of butyrolactone b) 0.1 to 5%wt of 2-ethylhexyl acetate, c) 1.0 to 40%wt of 2-(2-ethoxyethoxy)ethanol d) 40 to 60%wt of dimethyl sulfoxide, and e) 0.1 to 5%wt of additives. a) 0.5 to 20%wt of butyrolactone b) 0.1 to 5%wt of 2-ethylhexyl acetate, c) 1.0 to 40%wt of 2-(2-ethoxyethoxy)ethanol d) 40 to 60%wt of dimethyl sulfoxide, and e) 0.1 to 5%wt of additives.
A system, comprising: a) a perfusion manifold assembly , comprising i) one or more fluid reservoirs , ii) a fluidic backplane positioned under, and in fluidic communication with, said fluid reservoirs , said fluidic backplane comprising fluid channels that terminate at fluid outlet ports, wherein one or more fluid outlet ports comprise protruding droplets and iii) a projecting member comprising a guide mechanism; and b) a microfluidic device positioned in a carrier , said carrier detachably engaging said guide mechanism, said microfluidic device comprising i) microchannels in fluidic communication with said perfusion manifold assembly via ii) one or more inlet ports on a iii) mating surface , wherein one or more inlet ports on said mating surface of said microfluidic device comprise droplets protruding above said mating surface , wherein said one or more fluid inlet ports of said microfluidic device are positioned against said one or more fluid outlet ports of said perfusion manifold assembly causing a droplet-to-droplet connection when one or more fluid inlet ports of said microfluidic device are positioned against said one or more fluid outlet ports of said perfusion manifold assembly under conditions such that fluid flows from said fluid reservoirs of said perfusion manifold assembly through said one or more fluid outlet ports into said one or more fluid inlet ports of said microfluidic device . a) a perfusion manifold assembly , comprising i) one or more fluid reservoirs , ii) a fluidic backplane positioned under, and in fluidic communication with, said fluid reservoirs , said fluidic backplane comprising fluid channels that terminate at fluid outlet ports, wherein one or more fluid outlet ports comprise protruding droplets and iii) a projecting member comprising a guide mechanism; and b) a microfluidic device positioned in a carrier , said carrier detachably engaging said guide mechanism, said microfluidic device comprising i) microchannels in fluidic communication with said perfusion manifold assembly via ii) one or more inlet ports on a iii) mating surface , wherein one or more inlet ports on said mating surface of said microfluidic device comprise droplets protruding above said mating surface , wherein said one or more fluid inlet ports of said microfluidic device are positioned against said one or more fluid outlet ports of said perfusion manifold assembly causing a droplet-to-droplet connection when one or more fluid inlet ports of said microfluidic device are positioned against said one or more fluid outlet ports of said perfusion manifold assembly under conditions such that fluid flows from said fluid reservoirs of said perfusion manifold assembly through said one or more fluid outlet ports into said one or more fluid inlet ports of said microfluidic device .
A session processing method in wireless communications, comprising: sending (S401), by a terminal device, a session establishment request to a core network device via an access network device, wherein the session establishment request is used to request to establish a session, and the session is supported by a network slice corresponding to the session, the session establishment request includes the session requested to be established and indication information of the network slice corresponding to the session; receiving (S405), by the terminal device, a session establishment failure message from the core network device, wherein the session establishment failure message comprises first indication information and a forbidden time period, the first indication information is used to indicate that a resource of the network slice is limited, the forbidden time period is corresponding to the network slice; determining (S406), by the terminal device based on the session establishment failure message, that establishment of the session fails; determining (S407), by the terminal device, the forbidden time period comprised in the session establishment failure message corresponding to the network slice; and forbidding (S408) the terminal device from sending another session establishment request requesting to establish the session within the forbidden time period. sending (S401), by a terminal device, a session establishment request to a core network device via an access network device, wherein the session establishment request is used to request to establish a session, and the session is supported by a network slice corresponding to the session, the session establishment request includes the session requested to be established and indication information of the network slice corresponding to the session; receiving (S405), by the terminal device, a session establishment failure message from the core network device, wherein the session establishment failure message comprises first indication information and a forbidden time period, the first indication information is used to indicate that a resource of the network slice is limited, the forbidden time period is corresponding to the network slice; determining (S406), by the terminal device based on the session establishment failure message, that establishment of the session fails; determining (S407), by the terminal device, the forbidden time period comprised in the session establishment failure message corresponding to the network slice; and forbidding (S408) the terminal device from sending another session establishment request requesting to establish the session within the forbidden time period.
A data transmission method for a ring Ethernet-based in-vehicle network, comprising: receiving a first data packet; when a first ring node detects that a link between the first ring node and a second ring node on a first ring port is faulty, determining whether the first data packet is a wrapped data packet indicating that the first data packet has been wrapped once and is to be discarded, wherein the first ring node is connected to the second ring node through the first ring port; wherein the data transmission method further comprises: if the first data packet is a non-wrapped data packet, determining a second ring port based on the first ring port, wherein the first ring port is a port through which the first ring node is to send the first data packet; generating a second data packet, wherein the second data packet is a wrapped data packet of the first data packet; and forwarding the second data packet through the second ring port; and if the first data packet is a wrapped data packet, discarding the first data packet. receiving a first data packet; when a first ring node detects that a link between the first ring node and a second ring node on a first ring port is faulty, determining whether the first data packet is a wrapped data packet indicating that the first data packet has been wrapped once and is to be discarded, wherein the first ring node is connected to the second ring node through the first ring port; wherein the data transmission method further comprises: if the first data packet is a non-wrapped data packet, determining a second ring port based on the first ring port, wherein the first ring port is a port through which the first ring node is to send the first data packet; generating a second data packet, wherein the second data packet is a wrapped data packet of the first data packet; and forwarding the second data packet through the second ring port; and if the first data packet is a wrapped data packet, discarding the first data packet. if the first data packet is a non-wrapped data packet, determining a second ring port based on the first ring port, wherein the first ring port is a port through which the first ring node is to send the first data packet; generating a second data packet, wherein the second data packet is a wrapped data packet of the first data packet; and forwarding the second data packet through the second ring port; and if the first data packet is a wrapped data packet, discarding the first data packet.