mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method of analyzing a flood operation for a hydrocarbon reservoir, the method comprising: establishing a dataset of allowed well connections for at least one production well and at least one injection well of the hydrocarbon reservoir, each allowed well connection indicating that a given injection well is currently considered to support hydrocarbon production at a given production well; iteratively modifying (604, 606, 608) the established dataset of allowed well connections to obtain a modified dataset of allowed well connections based on data of the hydrocarbon reservoir categorized into a distance category, a static features category, a dynamic features category, or any combination thereof, wherein the static features category uses static data of the hydrocarbon reservoir and the dynamic features category uses dynamic data of the hydrocarbon reservoir, and wherein there is a difference in allowed well connections between the established and modified datasets due to the modification; and after iteratively modifying the dataset of allowed well connections, running capacitance resistance modeling (610, 310, 312) using the modified dataset of allowed well connections as an input. establishing a dataset of allowed well connections for at least one production well and at least one injection well of the hydrocarbon reservoir, each allowed well connection indicating that a given injection well is currently considered to support hydrocarbon production at a given production well; iteratively modifying (604, 606, 608) the established dataset of allowed well connections to obtain a modified dataset of allowed well connections based on data of the hydrocarbon reservoir categorized into a distance category, a static features category, a dynamic features category, or any combination thereof, wherein the static features category uses static data of the hydrocarbon reservoir and the dynamic features category uses dynamic data of the hydrocarbon reservoir, and wherein there is a difference in allowed well connections between the established and modified datasets due to the modification; and after iteratively modifying the dataset of allowed well connections, running capacitance resistance modeling (610, 310, 312) using the modified dataset of allowed well connections as an input.
A terminal device comprising: a measurement unit configured to measure Channel State Information, CSI, based on a valid downlink subframe based on a Serving cell, wherein a subframe is considered to be the valid downlink subframe in a case that a condition is met, the condition includes that a configured CSI Reference Signal, CSI-RS, resource associated with a Channel State Information process is in the subframe, and the Serving cell is a Licensed-Assisted Access, LAA, Secondary cell, characterized in that the condition includes that the subframe is configured as a downlink subframe or a special subframe, that the subframe is not a Multimedia Broadcast multicast service Single Frequency Network, MBSFN, subframe, and that the subframe does not fall within a configured measurement gap, for periodic CSI reporting, the condition includes that the subframe is an element of a CSI subframe set linked to the periodic CSI report, and for aperiodic CSI reporting for the CSI process, the condition includes that the subframe is an element of a CSI subframe set linked to a subframe with a corresponding CSI request in an uplink Downlink Control information, DCI, format. a measurement unit configured to measure Channel State Information, CSI, based on a valid downlink subframe based on a Serving cell, wherein a subframe is considered to be the valid downlink subframe in a case that a condition is met, the condition includes that a configured CSI Reference Signal, CSI-RS, resource associated with a Channel State Information process is in the subframe, and the Serving cell is a Licensed-Assisted Access, LAA, Secondary cell, characterized in that the condition includes that the subframe is configured as a downlink subframe or a special subframe, that the subframe is not a Multimedia Broadcast multicast service Single Frequency Network, MBSFN, subframe, and that the subframe does not fall within a configured measurement gap, for periodic CSI reporting, the condition includes that the subframe is an element of a CSI subframe set linked to the periodic CSI report, and for aperiodic CSI reporting for the CSI process, the condition includes that the subframe is an element of a CSI subframe set linked to a subframe with a corresponding CSI request in an uplink Downlink Control information, DCI, format.
Device for applying a medical gas to a patient, comprising: - a breathing gas channel (12, 20) adapted to conduct a flow of breathing gas (10, 18) to the patient, - an application channel leading the medical gas from a gas source into the respiratory gas flow (10, 18), - a dosing actuator dosing the medical gas in the application channel as a function of at least one control signal, and - a detection device which is arranged to detect a profile of a characteristic quantity of the respiratory gas flow (10, 18) in the respiratory gas channel (12, 20), characterised by - a control device arranged to determine a degree of filling of a patient's lung based on the detected profile and to generate the control signal in dependence on the degree of filling. - a breathing gas channel (12, 20) adapted to conduct a flow of breathing gas (10, 18) to the patient, - an application channel leading the medical gas from a gas source into the respiratory gas flow (10, 18), - a dosing actuator dosing the medical gas in the application channel as a function of at least one control signal, and - a detection device which is arranged to detect a profile of a characteristic quantity of the respiratory gas flow (10, 18) in the respiratory gas channel (12, 20), characterised by - a control device arranged to determine a degree of filling of a patient's lung based on the detected profile and to generate the control signal in dependence on the degree of filling.
A primer-dependent amplification and detection method that is capable of amplifying and detecting in a sample as few as ten copies of at least one rare DNA intended target sequence ("rare target sequence") in a mixture containing, for each rare target sequence, 10,000 copies of a closely related unintended target sequence ("closely related sequence" or "unintended target sequence") that differs from the rare target sequence by as little as one or two base pairs, comprising: (a) preparing a primer-dependent amplification reaction mixture that includes the sample, a DNA polymerase, deoxyribonucleoside triphosphates, an amplification buffer, homogeneous fluorescence detection means for detecting amplification products, and for each rare target sequence a pair of a first primer and a second primer that are specific for the rare target sequence but mismatched to the closely related sequence, (b) repeatedly cycling the primer-dependent amplification reaction mixture by said primer-dependent amplification method to amplify each rare target sequence present in the sample, and (c) detecting that rare target sequence by measuring the intensity of fluorescence from the homogeneous fluorescence detection means; wherein (i) the first primer is an allele-discriminating multi-part primer comprising from the 5' end to the 3' end a first anchor sequence that is longer than a foot sequence, a first bridge sequence that is non-complementary to the target sequence, and a first foot sequence that is mismatched to the closely related sequence by at least its 3'-terminal or 3'-penultimate nucleotide, and (ii) the second primer is an allele-discriminating primer. (a) preparing a primer-dependent amplification reaction mixture that includes the sample, a DNA polymerase, deoxyribonucleoside triphosphates, an amplification buffer, homogeneous fluorescence detection means for detecting amplification products, and for each rare target sequence a pair of a first primer and a second primer that are specific for the rare target sequence but mismatched to the closely related sequence, (b) repeatedly cycling the primer-dependent amplification reaction mixture by said primer-dependent amplification method to amplify each rare target sequence present in the sample, and (c) detecting that rare target sequence by measuring the intensity of fluorescence from the homogeneous fluorescence detection means;
A phenolic resin composition for friction materials comprising: a high-ortho novolac phenolic resin; a novolac resorcinol resin; and hexamethylenetetramine. a high-ortho novolac phenolic resin; a novolac resorcinol resin; and hexamethylenetetramine.
Apparatus arranged to analyse a signal comprising a series of symbols, said signal is processed in blocks of K complex samples, the apparatus comprising means (203, 205) for calculating a signal quality measure of each block, filter means for filtering each block, means (204, 206) for calculating a signal quality measure of said filtered blocks and means for comparing said signal quality measures, the apparatus being characterised in that said filtering is band pass filtering and in that the apparatus further comprises means (302, 303) for controlling the filtering means by adapting a centre frequency of the pass band of the filtering means from block to block, wherein the filtering means has filter poles αe j ( θ̂ ( i)+ ξ) and αe j× ( θ̂ ( i)- ξ), where α and ξ control the frequency response of the filter and θ̂ ( i) is the average phase difference between the jth and the (j-1)th symbols within an ith block of K complex samples.
A battery pack and a battery charger system, said battery pack including a housing, mechanical location means to allow selective engagement of a power tool (2,4,6) therewith, a plurality of power cells located within the housing and said power cells connected in groups (28,30) to provide electrical power via a set of terminals located so as to be accessible externally of the battery pack, the said terminals include a ground terminal (22',22") for each of the groups of power cells (28,30), a Voltage terminal (22"", 22''''') greater than 0 volts for each of the groups of power cells (28,30), a relay control signal terminal, four voltage measurement terminals (22c1, 22c2, 22c3, 22c4) and a temperature monitoring terminal characterised in that the battery charger is configured to intermittently measure and monitor the power cells in a group (28,30) and to provide a control signal by a relay to allow the monitoring to be switched between said groups of power cells (28,30),), wherein the relay could be replaced by solid state switching.
An electromagnetic relay, comprising a base and a magnetic circuit part, wherein the magnetic circuit part comprises a bobbin equipped with an iron core and an enameled wire, an armature and a yoke connected to the iron core, the bobbin is disposed horizontally on the base along a length direction of the base, the armature is disposed at a knife edge of the yoke and is cooperated with a pole surface of the iron core, the electromagnetic relay further comprises at least three groups of contact units distributed side by side along the length direction of the base, each group of contact units respectively comprises a movable spring part and a stationary spring part, the movable spring part and the stationary spring part are respectively arranged on the base and cooperate with each other correspondingly, the armature is connected to the movable spring part of each of the contact units through the pushing card to drive the movable spring part to move; characterized in that, the magnetic circuit part and each of the contact units are located in different cavities of the base; the movable spring part of each of the contact units is arranged vertically, and is adjacent the bobbin in a width direction of the base; a lead-out terminal of the movable spring part and a lead-out terminal of the stationary spring part are located at opposite ends of the base in the width direction; and the lead-out terminal of the stationary spring part of each of the contact units is located below the magnetic circuit part.
A method comprising: receiving, by a system including a processor, observed seismic survey data, the observed seismic survey data comprising primaries and free-surface multiples; generating, by the system, synthetic seismic survey data using a wave propagator based on a current model of a target structure, wherein the model contains a velocity component and at least one other component; modifying, by the system, the current model to reduce a difference between the synthetic seismic survey data and the observed seismic survey data, while maintaining unchanged a velocity component of the current model, wherein the modifying of the current model produces a modified model of the target structure; and using, by the system, the modified model to reduce an effect of the multiples in the target structure. receiving, by a system including a processor, observed seismic survey data, the observed seismic survey data comprising primaries and free-surface multiples; generating, by the system, synthetic seismic survey data using a wave propagator based on a current model of a target structure, wherein the model contains a velocity component and at least one other component; modifying, by the system, the current model to reduce a difference between the synthetic seismic survey data and the observed seismic survey data, while maintaining unchanged a velocity component of the current model, wherein the modifying of the current model produces a modified model of the target structure; and using, by the system, the modified model to reduce an effect of the multiples in the target structure.
Hedge trimmer with at least one cutter bar (3, 4) and an internal combustion engine, which drives the at least one cutter bar (3, 4) with a reciprocating motion, wherein the internal combustion engine has an exhaust silencer, from which the exhaust gases flow through an outlet, wherein the outlet is connected to an exhaust port via an exhaust pipe and the exhaust pipe is secured to the outlet of the exhaust silencer in a sealing manner, characterised in that the exhaust pipe is designed in several parts and comprises at least one first section and a second section separate from the first section, and in that at least one section (37, 38, 39) of the exhaust pipe consists of a plastic material.
An apparatus for increasing a bulk density of metal powder formed of metal material, comprising: a sealed chamber; a nozzle coupled to an inert gas source and being configured to discharge a cold spray mixture of raw metal particles and inert gas into the sealed chamber; a target housed within the sealed chamber and being configured to receive an impact of the cold spray mixture, in a manner causing plastic deformation of the raw metal particles into flattened metal particles; and a container fluidly coupled to the sealed chamber and being configured to receive the flattened metal particles from the sealed chamber without exposing the flattened metal particles to an external atmosphere, the container comprising at least one of a can for a hot isostatic pressing process and an elastomeric bag for a cold isostatic pressing process. a sealed chamber; a nozzle coupled to an inert gas source and being configured to discharge a cold spray mixture of raw metal particles and inert gas into the sealed chamber; a target housed within the sealed chamber and being configured to receive an impact of the cold spray mixture, in a manner causing plastic deformation of the raw metal particles into flattened metal particles; and a container fluidly coupled to the sealed chamber and being configured to receive the flattened metal particles from the sealed chamber without exposing the flattened metal particles to an external atmosphere, the container comprising at least one of a can for a hot isostatic pressing process and an elastomeric bag for a cold isostatic pressing process.
A soil additive for increasing available water capacity in soil, the soil additive comprising a polymer comprising (i) a first portion having an affinity for at least a portion of the surface area of a soil particle and (ii) a second portion having an affinity for water, wherein the polymer comprises a cationic polysaccharide.
A method of pairing a therapeutic product delivery device to a handset, the handset being restricted to controlling only delivery devices which it is paired with, the method comprising the steps of: at the delivery device, setting, in response to the delivery device being connected to a charging device, a pairing indicator indicating that the delivery device is available for pairing, and broadcasting the pairing indicator using a radio transceiver; at the handset, discovering the delivery device based on the broadcast pairing indicator; and pairing the discovered delivery device and the handset together. at the delivery device, setting, in response to the delivery device being connected to a charging device, a pairing indicator indicating that the delivery device is available for pairing, and broadcasting the pairing indicator using a radio transceiver; at the handset, discovering the delivery device based on the broadcast pairing indicator; and pairing the discovered delivery device and the handset together.
An energy management control for an electrical device powered by a main power supply, the electrical device configured for full power operation in a first mode for active use and a second mode when inactive, wherein the second mode includes one of an idle state, a standby state, and a no-load state, the control comprising: a processor based device; a switch operable by the processor based device to connect or disconnect the electrical device from the main power supply; and an energy storage element operable to power the processor based device when the main power supply is disconnected via the switch and when the electrical device is in the second mode; wherein the processor based device is configured to monitor a first voltage of the energy storage element and a second voltage corresponding to operation of the electrical device in the first mode; and wherein the processor based device is configured to operate the switch to connect and disconnect the electrical device from the main power supply in response to a predetermined change in at least one of the first and second voltages. a processor based device; a switch operable by the processor based device to connect or disconnect the electrical device from the main power supply; and an energy storage element operable to power the processor based device when the main power supply is disconnected via the switch and when the electrical device is in the second mode; wherein the processor based device is configured to monitor a first voltage of the energy storage element and a second voltage corresponding to operation of the electrical device in the first mode; and wherein the processor based device is configured to operate the switch to connect and disconnect the electrical device from the main power supply in response to a predetermined change in at least one of the first and second voltages.
An implantable probe comprising at least one probe wire (11a, 11b, 11c) and an electrical connector, the electrical connector being configured to be connected to an implantable medical device such as a cardiac stimulation, defibrillation or/and neuromodulation device wherein the electrical connection between the probe wire (11a, 11b, 11c) and the connector is made by means of a first hypotube (13a, 13b, 13c) soldered to the probe wire (11a, 11b, 11c) characterised in that the first hypotube (13a, 13b, 13c) is welded to a second hypotube (15a, 15b, 15c) of the electrical connector.
A seal for use with a container for storing and dispensing consumer products comprising a tray having a generally planar top surface into which has been formed one or more discrete cavities for receiving the consumer products, the seal comprising a cover film having a pattern of electrically conductive tracks that defines a circuit (22 1 -22 28) per cavity and pre-formed lines of separation defining a removable portion (2 1 -2 28) per cavity, characterised in that each pre-formed line of separation does not extend completely around the periphery of the associated removable portion (2 1 -2 28) to define a gap in the pre-formed line of separation such that each removable portion (2 1 -2 28) is attached to the remainder of the cover film by a frangible bridge region (10, 12) defined by the gap in the associated pre-formed line of separation and which provides a pathway for the associated circuit (22 1 -22 28).
A positive electrode active material comprising a lithium transition metal oxide in which nickel (Ni) is included in an amount of greater than 50 mol% based on a total number of moles of transition metals excluding lithium, wherein the positive electrode active material is in a form of single particles, a structure belonging to space group FD3-M and a structure belonging to space group Fm3m are formed in a region of 50 nm or less from a surface of the positive electrode active material in a center direction, and a generation rate of fine powder having an average particle diameter D50 of 1 um or less is in a range of 5% to 30% when the positive electrode active material is rolled at 650 kgf/cm 2 wherein the lithium transition metal oxide is represented by Formula 1: [Formula 1] Li 1+a Ni x Co y Mn z M1 w O 2 wherein, in Formula 1, M1 is at least one selected from the group consisting of aluminum (Al), magnesium (Mg), vanadium, titanium (Ti), and zirconium (Zr), and 0 ≤ a ≤ 0.20, 0.5 < x < 1.0, 0 < y < 0.5, 0 < z < 0.5, 0 ≤ w ≤ 0.05, and x + y + z + w = 1. wherein the positive electrode active material is in a form of single particles, a structure belonging to space group FD3-M and a structure belonging to space group Fm3m are formed in a region of 50 nm or less from a surface of the positive electrode active material in a center direction, and a generation rate of fine powder having an average particle diameter D50 of 1 um or less is in a range of 5% to 30% when the positive electrode active material is rolled at 650 kgf/cm 2 wherein the lithium transition metal oxide is represented by Formula 1: [Formula 1] Li 1+a Ni x Co y Mn z M1 w O 2 wherein, in Formula 1, M1 is at least one selected from the group consisting of aluminum (Al), magnesium (Mg), vanadium, titanium (Ti), and zirconium (Zr), and 0 ≤ a ≤ 0.20, 0.5 < x < 1.0, 0 < y < 0.5, 0 < z < 0.5, 0 ≤ w ≤ 0.05, and x + y + z + w = 1.
A grinding body suitable for an electromechanical comminution plant for comminution, deagglomeration and/or dispersion of disperse materials and/or pumpable multiphase mixtures, wherein the grinding body includes a hard-magnetic core and at least one wear-resistant coating at least partially surrounding the same, characterized in that the hard-magnetic core is spherical and has a diameter of 0.1 - 10 mm.