mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for computing a variogram model which identifies the maximum and minimum directions of continuity of a given geologic or petrophysical property of a reservoir, the method comprises: receiving input data points comprising data relating to the given geologic or petrophysical property of the reservoir; selecting input parameters ; displaying a variogram map based on the input data points, the variogram map comprising a maximum direction of spatial continuity of the given geologic or petrophysical property; displaying a rose diagram based on the input data points, the rose diagram comprising an elliptical edge and a plurality of vectors; rotating, using a graphical user interface , only the edge of the rose diagram to align the direction in which the variance values of the variogram map change the least with distance with a major axis of the edge; resizing, using the graphical user interface , only the edge of the rose diagram until the edge of the rose diagram meets each end of each longest and shortest rose diagram vector; and computing a variogram model from the edge of the rose diagram ; wherein the rose diagram and variogram map are concentric. receiving input data points comprising data relating to the given geologic or petrophysical property of the reservoir; selecting input parameters ; displaying a variogram map based on the input data points, the variogram map comprising a maximum direction of spatial continuity of the given geologic or petrophysical property; displaying a rose diagram based on the input data points, the rose diagram comprising an elliptical edge and a plurality of vectors; rotating, using a graphical user interface , only the edge of the rose diagram to align the direction in which the variance values of the variogram map change the least with distance with a major axis of the edge; resizing, using the graphical user interface , only the edge of the rose diagram until the edge of the rose diagram meets each end of each longest and shortest rose diagram vector; and computing a variogram model from the edge of the rose diagram ; wherein the rose diagram and variogram map are concentric.
An electrode capacitor assembly comprising: (a) at least two capacitor electrodes having a surface area for electrostatic adsorption and desorption of ions and comprising a pore structure such that each said electrode is a porous electrode having a pore volume; (b) a flow channel for passage of an ion containing fluid, said flow channel in ionic communication with said two electrodes; and (c) at least one ionic group held within the pore volume of each said porous electrode, whereby a first said porous electrode having a first pore volume is an anion-permeable electrode holding cationic groups within said first pore volume and excluding cationic co-ions from said first electrode, and whereby a second porous electrode having a second pore volume is a cation-permeable electrode holding anionic groups within said second pore volume and excluding anionic co-ions from said second electrode, wherein said held ionic group is attached to the surface of said pore volume, wherein: said ionic group is attached to said surface of said pore volume by a hydrophobic moiety, or at least one of said electrodes comprises a carbon material, and said ionic group is attached by covalent bond to a surface group on said surface of said pore volume, or said ionic group is attached to said surface group by a linker, tether, or long chain molecule. (a) at least two capacitor electrodes having a surface area for electrostatic adsorption and desorption of ions and comprising a pore structure such that each said electrode is a porous electrode having a pore volume; (b) a flow channel for passage of an ion containing fluid, said flow channel in ionic communication with said two electrodes; and (c) at least one ionic group held within the pore volume of each said porous electrode, whereby a first said porous electrode having a first pore volume is an anion-permeable electrode holding cationic groups within said first pore volume and excluding cationic co-ions from said first electrode, and whereby a second porous electrode having a second pore volume is a cation-permeable electrode holding anionic groups within said second pore volume and excluding anionic co-ions from said second electrode, said ionic group is attached to said surface of said pore volume by a hydrophobic moiety, or at least one of said electrodes comprises a carbon material, and said ionic group is attached by covalent bond to a surface group on said surface of said pore volume, or said ionic group is attached to said surface group by a linker, tether, or long chain molecule.
A compound or a salt thereof selected from m-aminomethyl phenyl tetrahydropyrimidine represented by formula below or a salt thereof; m-aminomethyl phenyl imidazoline represented by formula below or a salt thereof; and 3-methyl-4-aminomethyl phenyl imidazoline represented by formula below or a salt thereof:
Method for operating a multiplicity of technical units as a pool on an electrical distribution network , in which a central control apparatus , in at least one coordination cycle , respectively: - ascertains, on the basis of a predetermined optimization target of the pool , for each unit , at least one respective individual stimulus function that indicates, for at least one time interval indicated by the unit , a time characteristic of a predetermined orientation variable (O) for planning a power exchange of an electrical power (P) exchanged between the unit and the distribution network , and provides said stimulus function to the respective unit , - receives from each unit , in response to the at least one individual stimulus function , a respective schedule describing, for the at least one time interval indicated by the unit , a time characteristic of the power exchange planned in accordance with a local optimization target of the unit , and - forms from the schedules of the units an overall schedule for the pool that indicates a planned power exchange of the pool with at least one pool-external technical unit , characterized in that to ascertain the stimulus function : there are received from each technical unit respective flexibility data containing an indication, for the at least one time interval , of a respective power range within which the electrical power (P) exchanged between the unit and the distribution network is permitted to vary or will probably vary, wherein in the case of a technical unit having flexibility the power range is a power band indicating multiple possible power values for a given time, and wherein in the case of a technical unit without flexibility the power range indicates a respective forecast value for the at least one time interval , and the stimulus function is ascertained from the respective flexibility data of each unit . - ascertains, on the basis of a predetermined optimization target of the pool , for each unit , at least one respective individual stimulus function that indicates, for at least one time interval indicated by the unit , a time characteristic of a predetermined orientation variable (O) for planning a power exchange of an electrical power (P) exchanged between the unit and the distribution network , and provides said stimulus function to the respective unit , - receives from each unit , in response to the at least one individual stimulus function , a respective schedule describing, for the at least one time interval indicated by the unit , a time characteristic of the power exchange planned in accordance with a local optimization target of the unit , and - forms from the schedules of the units an overall schedule for the pool that indicates a planned power exchange of the pool with at least one pool-external technical unit ,
Electrical connector having at least one first recess introduced into the connector housing and a bolt movably arranged therein, and a locking clip which is pivotably attached to the connector housing and which has at least one second recess, wherein the at least first recess and the at least second recess are aligned with each other when locked with a mating connector, and the bolt arranged in the at least first recess protrudes into the at least second recess of the locking clip , by means of which the locking clip is fixed in its pivoting movement, wherein the bolt is arranged in a trough part and the trough part is arranged in the first recess of the connector housing , wherein a guide element which is operatively connected in a sprung manner to the trough part is arranged in the first recess of the electrical connector , and wherein the bolt is movably mounted in the guide element .
A method for start-up heating of a converting reactor in an ammonia synthesis plant, wherein the conventional use of a gas fired heater is replaced by inductive heating obtained using an alternating high frequency current, which is passed through an inductive coil, wherein the ammonia catalyst is placed inside the coil and the inductive coil is located inside the reactor and the coil is un-isolated, thereby having electrical contact with the catalyst.
Arrangement having a plastic container and having a flow-guiding component which has a casing , characterized in that the casing is a pump casing which consists of a metallic material, wherein the casing is connected in a form-fitting manner to the plastic container by rotational sintering.
Use of a layered composite panel as a blast-resistant shield, wherein the layered composite panel comprises a core comprising or consisting of a first solid, open-cell foam panel and a second solid foam panel wherein the foam panels are bonded together by an adhesive or other bonding agent so as to form a monolithic layered structure, and wherein at least one of the solid foam panels has a resistance to deformation under the impact of an explosive energy wave that is lower than that of the other solid foam panels.
An ultra-high-strength hot-rolled steel sheet having an excellent hole expandability and yield ratio, comprising, in terms of wt%: 0.05-0.2% of carbon (C); 2.0% or less of silicon (Si); 4.1-9.0% of manganese (Mn); 0.05% or less of phosphorus (P) excluding 0%; 0.02% or less of sulfur (S) excluding 0%; 0.5% or less of aluminum (Al) excluding 0%; 0.02% or less of nitrogen (N) excluding 0%; and a balance of iron (Fe) and other inevitable impurities, and further comprising at least one selected among 0.1% or less of titanium (Ti) excluding 0%, 0.1% or less of niobium (Nb) excluding 0%, 0.2% or less of vanadium (V) excluding 0%, and 0.5% or less of molybdenum (Mo) excluding 0%, and optionally further comprising at least one selected among 1% or less of nickel (Ni) excluding 0%, 0.5% or less of copper (Cu) excluding 0%, 1% or less of chromium (Cr) excluding 0%, and 0.01-0.1% of antimony (Sb), wherein the following Equation 1 is satisfied, wherein microstructures includes, in volume percentage, 10-30% or retained austenite, 50% or more of annealed martensite, and 20% or less of other phases including alpha martensite and epsilon martensite, and wherein the steel sheet includes precipitates having a size of 30 nm or less in an amount of 10 13 ea./m 2 or more, wherein the precipitates are carbides, nitrides, or complex carbonitrides including at least one among titanium (Ti), niobium (Nb), vanadium (V), and molybdenum (Mo), and wherein the steel sheet has a hole expansion ratio of 15% or more, a yield ratio of 0.65 or more, and a tensile strength of 900 MPa or more, wherein a product of the tensile strength and the elongation ratio is 23,000 MPa% or more, Equation 1: C/12 + Ti/48 + Nb/93 + V/51 + Mo/96 ≥ 0.015, wherein in Equation 1, each element symbol represents a value of the content of each element expressed in wt%.
A device for laying down filaments into a spundbond fabric , dehumidifying the spundbond fabric and sucking off the process air loaded with solvents and coagulants, including a conveyor device for transporting the spundbond fabric in a transport direction, wherein the conveyor device has a deposition surface for the filament , wherein the conveyor device at least in a region of the deposition surface is permeable for gases and liquids, wherein underneath the deposition surface of the conveyor device there is provided a primary dehumidifying device , characterized in that there is arranged at least one upper suction device upstream and/or downstream and/or laterally of the deposition surface . wherein the conveyor device has a deposition surface for the filament , wherein the conveyor device at least in a region of the deposition surface is permeable for gases and liquids, wherein underneath the deposition surface of the conveyor device there is provided a primary dehumidifying device , characterized in that there is arranged at least one upper suction device upstream and/or downstream and/or laterally of the deposition surface .
A method comprising: receiving, by a wireless device , downlink control information, DCIs, in a control channel monitoring occasion of a same slot, scheduling transport blocks, TBs, in downlink time slots, wherein each DCI of the DCIs: schedules a respective TB, of the TBs, in a downlink time slot of the downlink time slots; indicates a same uplink time slot for transmission of acknowledgement information of the respective TB; and comprises a respective priority parameter; determining, in an acknowledgement codebook, locations of acknowledgement information of the TBs based on priority parameters of the DCIs; and transmitting the acknowledgement codebook. receiving, by a wireless device , downlink control information, DCIs, in a control channel monitoring occasion of a same slot, scheduling transport blocks, TBs, in downlink time slots, wherein each DCI of the DCIs: schedules a respective TB, of the TBs, in a downlink time slot of the downlink time slots; indicates a same uplink time slot for transmission of acknowledgement information of the respective TB; and comprises a respective priority parameter; schedules a respective TB, of the TBs, in a downlink time slot of the downlink time slots; indicates a same uplink time slot for transmission of acknowledgement information of the respective TB; and comprises a respective priority parameter; determining, in an acknowledgement codebook, locations of acknowledgement information of the TBs based on priority parameters of the DCIs; and transmitting the acknowledgement codebook.
Chain part, in particular a chain link plate (11; 21; 31), for an energy chain , wherein the chain part, in particular the chain link plate (11; 21; 31), comprises a formed part (22; 32) made of plastic, in particular made by injection molding, on which a functional electric circuit (24; 34) with a sensor function for acquisition of an operating parameter is arranged, characterized in that the functional circuit (24; 34) comprises at least one trace conductor structure (25; 35), which is formed directly on the formed part (22; 32) and which is substance-to-substance bonded with the formed part (22; 32), wherein the formed part (22; 32) itself forms the carrier of the trace conductor structure (25; 35), wherein the functional circuit (24; 34) is applied in particular by an additive manufacturing method on the preferably pre-manufactured formed part (22; 32) made of plastic.
A system for identifying vortices in an electro-anatomical vector map of a patient heart comprising multiple vectors indicative of electrical signals propagating over a surface of the patient heart, the system comprising: a processor , which is configured to: receive, from a catheter comprising a distal end assembly having multiple sensing electrodes, one or more signals indicative of the electrical signals propagating over the surface of the patient heart; produce the electro-anatomical vector map based on the one or more signals; define one or more closed loops on the electro-anatomical vector map; and for each closed loop, identify a plurality of the vectors that cross the closed loop, calculate a vector sum of the identified vectors, and decide based on the vector sum whether a vortex is located inside the closed loop; and an output device , which is configured to indicate one or more identified vortices to a user. a processor , which is configured to: receive, from a catheter comprising a distal end assembly having multiple sensing electrodes, one or more signals indicative of the electrical signals propagating over the surface of the patient heart; produce the electro-anatomical vector map based on the one or more signals; define one or more closed loops on the electro-anatomical vector map; and for each closed loop, identify a plurality of the vectors that cross the closed loop, calculate a vector sum of the identified vectors, and decide based on the vector sum whether a vortex is located inside the closed loop; and receive, from a catheter comprising a distal end assembly having multiple sensing electrodes, one or more signals indicative of the electrical signals propagating over the surface of the patient heart; produce the electro-anatomical vector map based on the one or more signals; define one or more closed loops on the electro-anatomical vector map; and for each closed loop, identify a plurality of the vectors that cross the closed loop, calculate a vector sum of the identified vectors, and decide based on the vector sum whether a vortex is located inside the closed loop; and an output device , which is configured to indicate one or more identified vortices to a user.
A method comprising: receiving, at a remote controlling system , data associated with a storage receptacle , the storage receptacle configured to communicate with the remote controlling system via a network , characterized in that the storage receptacle has an energy storage for powering operational functions performed by the storage receptacle ; identifying, at the remote controlling system , a parameter associated with an operational function of the storage receptacle ; and transmitting a signal from the remote controlling system to the storage receptacle via the network for modifying the parameter based on the data associated with the storage receptacle , wherein modifying the parameter causes a change in an operation of the storage receptacle to yield a modified operation of the storage receptacle . receiving, at a remote controlling system , data associated with a storage receptacle , the storage receptacle configured to communicate with the remote controlling system via a network , characterized in that the storage receptacle has an energy storage for powering operational functions performed by the storage receptacle ; identifying, at the remote controlling system , a parameter associated with an operational function of the storage receptacle ; and transmitting a signal from the remote controlling system to the storage receptacle via the network for modifying the parameter based on the data associated with the storage receptacle , wherein modifying the parameter causes a change in an operation of the storage receptacle to yield a modified operation of the storage receptacle .
An outlet device with electronic outlet and mechanical outlet two modes, wherein the outlet device comprises a mechanical outlet control device , an electronic outlet control device and a central control module ; the central control module comprises a first outlet passage controlled by the mechanical outlet control device , a second outlet passage controlled by the electronic outlet control device and a central controller; the first outlet passage is disposed with a sensor , the second outlet passage is disposed with an electromagnet valve ; when the mechanical outlet control device controls the first outlet passage to open, the sensor detects water flowing in the first outlet passage, whether the electromagnet valve opens or not, the central controller switches the electromagnet valve to normal close state, characterized in that the second outlet passage is further disposed with a flow meter.
A neuromuscular electrical stimulation system comprising a lead system having one or more electrodes coupled to a programmable pulse generator and a fixation anchor, characterized in that said lead system having one or more electrodes is configured to be implanted in or adjacent to tissue associated with local segmental control of the lumbar spine, and the pulse generator is programmed with a pulse frequency, magnitude and duration to episodically deliver electrical stimulation to said one or more electrodes to induce contraction of the multifidus and thereby improve muscle strength or endurance of the multifidus to alleviate pain, the fixation anchor being suitable for anchoring along the boney structures of the spine.
A computer-implemented method of designing and evaluating intraocular lenses, comprising: generating a first plurality of eye models, wherein each eye model corresponds to a patient using data that includes constant and customized values, including customized values of a first intraocular lens; simulating first outcomes provided by the first intraocular lens in the first plurality of eye models; creating a database of the first outcomes; generating a second plurality of eye models, wherein the first intraocular lens in the first plurality of eye models is substituted with a second intraocular lens; simulating second outcomes provided by the second intraocular lens in the second plurality of eye models; and comparing the first outcomes with the second outcomes, evaluating the first or second intraocular lens on the basis of the compared outcomes. generating a first plurality of eye models, wherein each eye model corresponds to a patient using data that includes constant and customized values, including customized values of a first intraocular lens; simulating first outcomes provided by the first intraocular lens in the first plurality of eye models; creating a database of the first outcomes; generating a second plurality of eye models, wherein the first intraocular lens in the first plurality of eye models is substituted with a second intraocular lens; simulating second outcomes provided by the second intraocular lens in the second plurality of eye models; and comparing the first outcomes with the second outcomes, evaluating the first or second intraocular lens on the basis of the compared outcomes.