mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented, parallel-processing method for simulating hydrocarbon migration in a subsurface medium, comprising: determining that hydrocarbon has been expelled in source rocks associated with a plurality of grid cells divided into one or more subdomains; identifying potential trap peaks within the plurality of grid cells; performing an invasion process until the hydrocarbon stops migrating within the plurality of grid cells; the method characterised by comprising the steps of: determining whether grid cells containing hydrocarbons contain an excess volume of hydrocarbons; if it is determined that an excess condition exists, performing an accumulation process to model filling of grid cells with the hydrocarbon at a trap or accumulation associated with the identified potential trap peaks until said excess condition does not exist; and updating the trap with a hydrocarbon potential value. determining that hydrocarbon has been expelled in source rocks associated with a plurality of grid cells divided into one or more subdomains; identifying potential trap peaks within the plurality of grid cells; performing an invasion process until the hydrocarbon stops migrating within the plurality of grid cells; the method characterised by comprising the steps of: determining whether grid cells containing hydrocarbons contain an excess volume of hydrocarbons; if it is determined that an excess condition exists, performing an accumulation process to model filling of grid cells with the hydrocarbon at a trap or accumulation associated with the identified potential trap peaks until said excess condition does not exist; and updating the trap with a hydrocarbon potential value.
An industrial vehicle for optimisation of moving payload from a first position (A) to a second position (B), the industrial vehicle comprising: - control unit for controlling the industrial vehicle; - carrying means for carrying a payload ; - transporting means for transporting the industrial vehicle; and - antenna for receiving and sending information; wherein the control unit is connected to the carrying means, the transporting means and the antenna; characterised in that said control unit being configured to: obtain vehicle information of a plurality of industrial vehicles , said vehicle information comprising position data; obtain payload information of a payload , said payload information comprising position data of the payload; obtain optimisation criteria comprising at least the time required to move the payload from the first position to the second position; determine, based on the obtained vehicle information, the obtained payload information and the obtained optimisation criteria, at least one selected industrial vehicle , of the plurality of industrial vehicles , to move the payload; provide, to the at least one selected industrial vehicle, an instruction to move the payload. - control unit for controlling the industrial vehicle; - carrying means for carrying a payload ; - transporting means for transporting the industrial vehicle; and - antenna for receiving and sending information; obtain vehicle information of a plurality of industrial vehicles , said vehicle information comprising position data; obtain payload information of a payload , said payload information comprising position data of the payload; obtain optimisation criteria comprising at least the time required to move the payload from the first position to the second position; determine, based on the obtained vehicle information, the obtained payload information and the obtained optimisation criteria, at least one selected industrial vehicle , of the plurality of industrial vehicles , to move the payload; provide, to the at least one selected industrial vehicle, an instruction to move the payload.
A method for wireless communications by a transmitter, comprising: identifying resources, within an uplink short burst, ULSB, region of one or two symbols within a transmission time interval, TTI, , for transmitting at least a portion of uplink control information, UCI, the UCI including at least one of one scheduling request, SR, bit and one or more acknowledgment, ACK, bits for acknowledging or negatively acknowledging downlink transmissions, wherein the SR bit and the one or more ACK bits are frequency division multiplexed for transmitting in different resource blocks of a same symbol; and transmitting the UCI using the identified resources. identifying resources, within an uplink short burst, ULSB, region of one or two symbols within a transmission time interval, TTI, , for transmitting at least a portion of uplink control information, UCI, the UCI including at least one of one scheduling request, SR, bit and one or more acknowledgment, ACK, bits for acknowledging or negatively acknowledging downlink transmissions, wherein the SR bit and the one or more ACK bits are frequency division multiplexed for transmitting in different resource blocks of a same symbol; and transmitting the UCI using the identified resources.
A passenger seat comprising: (a) a seat back support ; (b) a head rest assembly coupled to the seat back support , the head rest assembly comprising: (i) a head support ; (ii) a lower head support comprising a pair of extensions , characterised in that the lower head support further comprises a rest bar , wherein a first end of each extension is slidingly coupled to the rest bar and a second end of each extension is pivotally coupled to the head support ; wherein the rest bar is positioned adjacent the head support when the lower head support is in a stowed position, and wherein the rest bar is positioned a distance forward of the head support when the lower head support is in a deployed position. (a) a seat back support ; (b) a head rest assembly coupled to the seat back support , the head rest assembly comprising: (i) a head support ; (ii) a lower head support comprising a pair of extensions , characterised in that the lower head support further comprises a rest bar , wherein a first end of each extension is slidingly coupled to the rest bar and a second end of each extension is pivotally coupled to the head support ; wherein the rest bar is positioned adjacent the head support when the lower head support is in a stowed position, and wherein the rest bar is positioned a distance forward of the head support when the lower head support is in a deployed position. (i) a head support ; (ii) a lower head support comprising a pair of extensions , characterised in that the lower head support further comprises a rest bar , wherein a first end of each extension is slidingly coupled to the rest bar and a second end of each extension is pivotally coupled to the head support ;
A prepreg comprising a reinforcing fiber material, and a resin composition with which the reinforcing fiber material is impregnated, wherein the resin composition contains an epoxy resin, an amine curing agent, and an imidazole curing agent, and wherein the epoxy resin contains an epoxy resin having an oxazolidone ring in a molecule, an amount of the amine curing agent is in a range of 1 part by mass to 3.8 parts by mass, relative to 100 parts by mass of the epoxy resin, and a sum of the amount of the amine curing agent and an amount of the imidazole curing agent is in a range of from 5 parts by mass to 10 parts by mass, relative to 100 parts by mass of the epoxy resin. a reinforcing fiber material, and a resin composition with which the reinforcing fiber material is impregnated, wherein the resin composition contains an epoxy resin, an amine curing agent, and an imidazole curing agent, and wherein an epoxy resin, an amine curing agent, and an imidazole curing agent, and wherein the epoxy resin contains an epoxy resin having an oxazolidone ring in a molecule, an amount of the amine curing agent is in a range of 1 part by mass to 3.8 parts by mass, relative to 100 parts by mass of the epoxy resin, and a sum of the amount of the amine curing agent and an amount of the imidazole curing agent is in a range of from 5 parts by mass to 10 parts by mass, relative to 100 parts by mass of the epoxy resin.
Building area with a wall opening which forms a wall reveal , and with a frame component such as a window or door frame inserted in the wall opening , and also with a sealing strip which seals a gap between the wall reveal and the frame component , wherein the sealing strip has wide sides facing the masonry wall reveal and the frame component and narrow sides directed outside the room and inside the room, wherein furthermore load transfer means are provided which cause a load transfer from the frame component to the wall reveal , wherein the sealing strip has at least one cutout , the cutout is filled at least partially or completely with a filling compound which is injectable at room temperature, and the filling compound is curable so as to transfer the load by forming a load transfer means for the frame component relative to the wall reveal, characterised in that the filling compound in the cutout extends continuously from the wall reveal to the frame component .
An assembly used in windscreen wipers, comprising: an adapter used for connecting and securing a nozzle structure and comprising a first adapter assembling feature and a second adapter assembling feature ; the nozzle structure having a body , a nozzle extending from the body , a first nozzle structure assembling feature and a second nozzle structure assembling feature ; the assembly being characterized in that , the first adapter assembling feature and the first nozzle structure assembling feature are matched with each other to form a first connection in the form of pin - circular aperture, between the adapter and the nozzle structure , and the nozzle structure and the adapter are rotatably pre-assembled together when they are connected only by means of the first connection; wherein the second adapter assembling feature and the second nozzle structure assembling feature are matched with each other to form a second connection in the form of snap fit between the adapter and the nozzle structure ; wherein the nozzle structure is secured to a side wall of the adapter by means of the first connection and the second connection. an adapter used for connecting and securing a nozzle structure and comprising a first adapter assembling feature and a second adapter assembling feature ; the nozzle structure having a body , a nozzle extending from the body , a first nozzle structure assembling feature and a second nozzle structure assembling feature ; the assembly being characterized in that , the first adapter assembling feature and the first nozzle structure assembling feature are matched with each other to form a first connection in the form of pin - circular aperture, between the adapter and the nozzle structure , and the nozzle structure and the adapter are rotatably pre-assembled together when they are connected only by means of the first connection; wherein the second adapter assembling feature and the second nozzle structure assembling feature are matched with each other to form a second connection in the form of snap fit between the adapter and the nozzle structure ; wherein the nozzle structure is secured to a side wall of the adapter by means of the first connection and the second connection.
A protective glove, especially for firefighters, which comprises an electronic part with a system of temperature sensor devices , which are connected to a power module and to a control unit , which is coupled to a communication unit , whereby the control unit is located on the back side of the glove, wherein one sensor device of the temperature is a temperature sensor of the glove surface, which is located on the back side of one of the fingers of the glove, whereby on the back side of the glove is further arranged a switch of operation modes of the glove electronics and an optical indicator of the temperature, status of the glove or operation mode of the glove electronics, wherein both the switch of modes and the optical indicator are connected to the control unit , the protective glove is characterized in that a second sensor device of the temperature is an infrared sensor , which is along with an optical pointer arranged on the back side of the glove.
A method of calibrating a model of a process robot , wherein the method comprises the steps of: - applying (S10, S30) an ambient contact force (F 1 ) to a calibration robot , which is provided in order to calibrate the model, and determining a calibration deviation (Δ 11 ) as a result of the application of this ambient contact force; - applying (S20, S40) at least one further ambient contact force (F 2 ) to the calibration robot and determining a further calibration deviation (Δ 21 ) as a result of the application of this ambient contact force in at least two calibration poses of the calibration robot; and - calibrating (S50) a model of the process robot on the basis of these poses, these ambient contact forces and these calibration deviations, wherein the ambient contact force is a force which is different from a weight force of a robot-guided load, and wherein the ambient contact force is a force which an environment exerts on the robot. - applying (S10, S30) an ambient contact force (F 1 ) to a calibration robot , which is provided in order to calibrate the model, and determining a calibration deviation (Δ 11 ) as a result of the application of this ambient contact force; - applying (S20, S40) at least one further ambient contact force (F 2 ) to the calibration robot and determining a further calibration deviation (Δ 21 ) as a result of the application of this ambient contact force in at least two calibration poses of the calibration robot; and - calibrating (S50) a model of the process robot on the basis of these poses, these ambient contact forces and these calibration deviations, wherein the ambient contact force is a force which is different from a weight force of a robot-guided load, and wherein the ambient contact force is a force which an environment exerts on the robot.
Method for joining fiber-reinforced joining partners , formed from a plastics material, at the connection faces thereof, wherein in the region of the connection faces a concentrator is applied therebetween and by means of an ultrasonic welding method is fused collectively with the connection faces in such a manner that post curing a materially integral joint as a mixing region is configured from the materials of the joining partners and of the concentrator, wherein the concentrator comprises a fiber-reinforced or particle-reinforced plastics material.
A refrigeration apparatus comprising: a compressor , a condenser , a throttling device and an evaporator making up a refrigerant circuit in which a mixture of refrigerant, lubricating oil and oil carrier circulates, wherein the oil carrier comprises, in a molecular structure, a carbon double bond and a chlorine atom bonded to one of carbon atoms constituting the carbon double bond, and, wherein the boiling point of the refrigerant is -80°C or lower. a compressor , a condenser , a throttling device and an evaporator making up a refrigerant circuit in which a mixture of refrigerant, lubricating oil and oil carrier circulates, wherein the oil carrier comprises, in a molecular structure, a carbon double bond and a chlorine atom bonded to one of carbon atoms constituting the carbon double bond, and, wherein the boiling point of the refrigerant is -80°C or lower.
A file sending method, wherein the method is comprising steps of: creating (S120) a data sending process; acquiring (S130) a file to be sent, corresponding to the data sending process, from a data cache region in a user space; constructing (S140) metadata for the data sending process, and recording the metadata in a data reading and sending region in the user space; and processing (S150) the metadata, wherein the step of processing the metadata comprises: sending the file to be sent and the metadata to a network adapter by means of a user-mode network device driver, and sending the file to be sent and the metadata by means of the network adapter. creating (S120) a data sending process; acquiring (S130) a file to be sent, corresponding to the data sending process, from a data cache region in a user space; constructing (S140) metadata for the data sending process, and recording the metadata in a data reading and sending region in the user space; and processing (S150) the metadata, wherein the step of processing the metadata comprises: sending the file to be sent and the metadata to a network adapter by means of a user-mode network device driver, and sending the file to be sent and the metadata by means of the network adapter.
A meteorological information processing device , comprising: a rain cloud detecting module configured to detect a location and a three-dimensional velocity of a rain cloud based on signals from three radars of first, second and third radars disposed at different locations, the first, second and third radars comprising two single-polarization Doppler radars and a dual-polarization Doppler radar , and to track the detected rain cloud and to predict a future three-dimensional location of the rain cloud, by using the detected location and the three-dimensional velocity of the rain cloud; and a rain cloud characteristic detecting module configured to detect a characteristic of the detected rain cloud, characterized in that the rain cloud characteristic detecting module is configured to detect a characteristic of the detected rain cloud based on signals obtained by controlling an antenna of the dual-polarization Doppler radar to perform an RHI scan in a bearing direction based on the future three-dimensional location of the rain cloud predicted by the rain cloud detecting module ; wherein the characteristic of the detected rain cloud comprises at least the characteristic of a precipitation particle forming the detected rain cloud, or a vertical length of the detected rain cloud. a rain cloud detecting module configured to detect a location and a three-dimensional velocity of a rain cloud based on signals from three radars of first, second and third radars disposed at different locations, the first, second and third radars comprising two single-polarization Doppler radars and a dual-polarization Doppler radar , and to track the detected rain cloud and to predict a future three-dimensional location of the rain cloud, by using the detected location and the three-dimensional velocity of the rain cloud; and to detect a location and a three-dimensional velocity of a rain cloud based on signals from three radars of first, second and third radars disposed at different locations, the first, second and third radars comprising two single-polarization Doppler radars and a dual-polarization Doppler radar , and to track the detected rain cloud and to predict a future three-dimensional location of the rain cloud, by using the detected location and the three-dimensional velocity of the rain cloud; and a rain cloud characteristic detecting module configured to detect a characteristic of the detected rain cloud, the rain cloud characteristic detecting module is configured to detect a characteristic of the detected rain cloud based on signals obtained by controlling an antenna of the dual-polarization Doppler radar to perform an RHI scan in a bearing direction based on the future three-dimensional location of the rain cloud predicted by the rain cloud detecting module ; wherein the characteristic of the detected rain cloud comprises at least the characteristic of a precipitation particle forming the detected rain cloud, or a vertical length of the detected rain cloud.
An ultrasonic meter for measuring a flow rate or flow volume, comprising a fluid inlet , a fluid outlet and a flow channel arranged between the fluid inlet and the fluid outlet , two ultrasonic transducers and at least one reflector for ultrasonic signals, wherein the ultrasonic transducers are arranged outside the flow channel and entrance and exit openings for ultrasonic signals, each running obliquely relative to the longitudinal axis of the flow channel , are provided between the ultrasonic transducers and the flow channel , wherein the reflector is arranged on the wall of the flow channel opposite the entrance and exit openings such that it reflects ultrasonic signals of the ultrasonic transducers , wherein a temperature sensor is provided, which can be washed over by fluid in the flow channel , characterised in that the flow channel can be axially and radially fixed relative to the meter housing using the temperature sensor .
A method comprising: (a) casting an aluminum alloy having from 2.5 - 12.0 wt. % Zn and from 1.0 to 5.0 wt. % Mg, where at least one of the zinc and the magnesium is the predominate alloying ingredient other than aluminum; (b) optionally hot working or cold working the aluminum alloy; (c) after the casting step (a) and the optional step (b), solution heat treating and then quenching the aluminum alloy; (d) after step (c), optionally working the aluminum alloy; (e) after step (c) and the optional step (d), artificially aging the aluminum alloy, wherein the artificial aging step (e) comprises: (i) first aging the aluminum alloy at a first temperature of from about 166 to 277°C (330°F to 530°F) and for a first aging time of from 1 minute to 45 minutes; (ii) second aging the aluminum alloy at a second temperature for a second aging time of at least 30 minutes, wherein the second temperature is lower than the first temperature. (a) casting an aluminum alloy having from 2.5 - 12.0 wt. % Zn and from 1.0 to 5.0 wt. % Mg, where at least one of the zinc and the magnesium is the predominate alloying ingredient other than aluminum; (b) optionally hot working or cold working the aluminum alloy; (c) after the casting step (a) and the optional step (b), solution heat treating and then quenching the aluminum alloy; (d) after step (c), optionally working the aluminum alloy; (e) after step (c) and the optional step (d), artificially aging the aluminum alloy, wherein the artificial aging step (e) comprises: (i) first aging the aluminum alloy at a first temperature of from about 166 to 277°C (330°F to 530°F) and for a first aging time of from 1 minute to 45 minutes; (ii) second aging the aluminum alloy at a second temperature for a second aging time of at least 30 minutes, wherein the second temperature is lower than the first temperature. (i) first aging the aluminum alloy at a first temperature of from about 166 to 277°C (330°F to 530°F) and for a first aging time of from 1 minute to 45 minutes; (ii) second aging the aluminum alloy at a second temperature for a second aging time of at least 30 minutes, wherein the second temperature is lower than the first temperature.
A computing system for acquiring a remaining life or a fatigue damage quantity of a windmill rotated by wind, the computing system comprising a computing device configured to acquire relations between only operational or environmental information about the windmill on the one hand and the remaining life or the fatigue damage quantity of a predetermined member included in the windmill on the other hand, the relations being acquired by use of distortion information about the windmill, wherein structural information about the windmill is used to calculate the distortion information regarding a position about which the distortion information is not measured.