mhurhangee/ep-ind-claims huggingface dataset:
A method for medium term oil recovery optimization, which comprises: selecting one or more zones, wells, patterns/clusters or fields; displaying multiple optimization scenarios and corresponding actions for optimization of the one or more selected zones, wells, patterns/clusters or fields; selecting one or more of the optimization scenarios and displaying each corresponding action; selecting a prediction date for each selected optimization scenario; and displaying the one or more selected optimization scenarios, an effect of each corresponding action on the one or more selected zones, wells, patterns/clusters or fields on the prediction date, and an updated field development plan using a computer system, the updated field development plan being displayed for a field with a respective net present value calculation and projected production parameters and wherein the display of the one or more selected optimization scenarios and the effect of each corresponding action includes infill drilling and re-drilling of water injection positions. selecting one or more zones, wells, patterns/clusters or fields; displaying multiple optimization scenarios and corresponding actions for optimization of the one or more selected zones, wells, patterns/clusters or fields; selecting one or more of the optimization scenarios and displaying each corresponding action; selecting a prediction date for each selected optimization scenario; and displaying the one or more selected optimization scenarios, an effect of each corresponding action on the one or more selected zones, wells, patterns/clusters or fields on the prediction date, and an updated field development plan using a computer system, the updated field development plan being displayed for a field with a respective net present value calculation and projected production parameters and wherein the display of the one or more selected optimization scenarios and the effect of each corresponding action includes infill drilling and re-drilling of water injection positions.
Current collector for an electrical load with at least one sliding contact support (113; 213) with a sliding contact (112; 212) for making contact with at least one electrically conductive conductor profile of a conductor rail, wherein the sliding contact (112; 212) is connectable to an electrical connection of the electrical load in electrically conductive manner, and wherein an electrical fuse (19; 219) is provided between the sliding contact (112; 212) and the connection of the electrical load, characterised in that a first contact (20a; 220a) of the fuse (19; 219) electrically contacts the sliding contact (112; 212) or a sliding contact holder connected to the sliding contact (112; 212) in electrically conductive manner.
A method for encoding a video stream using a neural network, the method comprising: a) determining video encoding parameters for a section from an unencoded video stream with a video encoder; b) providing the video encoding parameters for the section to one or more trained neural networks wherein the one or more trained neural networks are trained to predict other video encoding parameters; c) predicting other video encoding parameters from the provided video encoding parameters with the one or more trained neural networks; d) determining a prediction error of the predicted other video encoding parameters from the one or more neural networks and actual encoding parameters from the video encoder, and encoding the prediction error for sections of the video stream that have errors in prediction; e) encoding the unencoded video stream without encoding parameters for sections that have no prediction error. a) determining video encoding parameters for a section from an unencoded video stream with a video encoder; b) providing the video encoding parameters for the section to one or more trained neural networks wherein the one or more trained neural networks are trained to predict other video encoding parameters; c) predicting other video encoding parameters from the provided video encoding parameters with the one or more trained neural networks; d) determining a prediction error of the predicted other video encoding parameters from the one or more neural networks and actual encoding parameters from the video encoder, and encoding the prediction error for sections of the video stream that have errors in prediction; e) encoding the unencoded video stream without encoding parameters for sections that have no prediction error.
A method comprising: receiving, by a user device, a configuration of a set of one or more resources for an uplink channel to be used for transmission by the user device in a slot prior to a physical uplink control channel of NR Format 0 or 2 of the slot; receiving, by the user device, a downlink control information including a downlink assignment for a downlink channel; identifying, by the user device based on the downlink assignment, a resource of the set of one or more resources for the uplink channel, and a physical uplink control channel of NR Format 0 or 2; and transmitting, by the user device, a signal via the identified resource for the uplink channel, before transmitting the physical uplink control channel of NR Format 0 or 2 of the slot. receiving, by a user device, a configuration of a set of one or more resources for an uplink channel to be used for transmission by the user device in a slot prior to a physical uplink control channel of NR Format 0 or 2 of the slot; receiving, by the user device, a downlink control information including a downlink assignment for a downlink channel; identifying, by the user device based on the downlink assignment, a resource of the set of one or more resources for the uplink channel, and a physical uplink control channel of NR Format 0 or 2; and transmitting, by the user device, a signal via the identified resource for the uplink channel, before transmitting the physical uplink control channel of NR Format 0 or 2 of the slot.
A pitch stabilisation means provided with an upper stabilisation surface and a lower stabilisation surface, said upper stabilisation surface being located in an upper plane, said lower stabilisation surface being located in a lower plane, the upper plane overhanging the lower plane, characterised in that the upper stabilisation surface is mobile in rotation about an upper axis of rotation, said lower stabilisation surface being mobile in rotation about a lower axis of rotation, the stabilisation means having a linking means so that a rotary movement of one stabilisation surface brings about an equal rotary movement of the other stabilisation surface, an upper aerodynamic centre for the application of changes in forces of the upper stabilisation surface being arranged between said upper axis of rotation and an upper leading edge of the upper stabilisation surface, a lower aerodynamic centre for the application of changes in forces of the lower stabilisation surface being arranged between a lower trailing edge of the lower stabilisation surface and the lower axis of rotation.
An atomic oscillator comprising: a gas cell; and a plurality of electric components, wherein the plurality of electric components include: a temperature control device for the gas cell; an light source configured to emit light to be projected onto the gas cell; a temperature control device (25,100) for the excitation light source; and a light receiving element configured to detect the excitation light that passes through the gas cell, wherein at least a plurality of the electric components are mounted on an insulating film having wiring; characterized in that the insulating film is folded or rolled up; and, in an assembled state of the atomic oscillator, the electric components mounted on the insulating film are arranged linearly in the traveling direction of the excitation light. a gas cell; and a plurality of electric components, wherein the plurality of electric components include: a temperature control device for the gas cell; an light source configured to emit light to be projected onto the gas cell; a temperature control device (25,100) for the excitation light source; and a light receiving element configured to detect the excitation light that passes through the gas cell, a temperature control device for the gas cell; an light source configured to emit light to be projected onto the gas cell; a temperature control device (25,100) for the excitation light source; and a light receiving element configured to detect the excitation light that passes through the gas cell, wherein at least a plurality of the electric components are mounted on an insulating film having wiring; characterized in that the insulating film is folded or rolled up; and, in an assembled state of the atomic oscillator, the electric components mounted on the insulating film are arranged linearly in the traveling direction of the excitation light.
An electrical control device for a bicycle comprising: a control mechanism for generating a control signal to control a bicycle component; a rigid protective housing configured to surround the control mechanism, the rigid protective housing having an opening; and a cover extending across the opening, the cover configured to displace into the opening to engage the control mechanism to generate the control signal, the cover further comprises a flexible actuation surface configured to deform into the opening when depressed, wherein the cover further comprises a rigid protrusion, characterized in that the rigid protrusion is the underside of the flexible actuation surface that is configured to engage the control mechanism to generate the control signal. a control mechanism for generating a control signal to control a bicycle component; a rigid protective housing configured to surround the control mechanism, the rigid protective housing having an opening; and a cover extending across the opening, the cover configured to displace into the opening to engage the control mechanism to generate the control signal, the cover further comprises a flexible actuation surface configured to deform into the opening when depressed, wherein the cover further comprises a rigid protrusion, characterized in that the rigid protrusion is the underside of the flexible actuation surface that is configured to engage the control mechanism to generate the control signal.
A high intensity gas-discharge lamp comprising a discharge vessel (5, 5') enclosing a fill gas in a discharge chamber and comprising a pair of electrodes (3, 3', 4, 4') extending into the discharge chamber, and wherein the fill gas includes a halide composition comprising - a halide of sodium and scandium iodide to a total proportion of at least 30 wt% and - a halide of gadolinium and, optionally, a halide of terbium, to a proportion of at least 5 wt%. - a halide of sodium and scandium iodide to a total proportion of at least 30 wt% and - a halide of gadolinium and, optionally, a halide of terbium, to a proportion of at least 5 wt%.
A polymer conjugate according to the formula: or pharmaceutically acceptable salt thereof, wherein: Y is allyl; Z is OH; X is a linkage selected from amide, amine, carbamate, ether, thioether or urea; and POLY has the formula CH 3 O-(CH 2 CH 2 O) n - CH 2 CH 2 - wherein n is from 2 to 45. Y is allyl; Z is OH; X is a linkage selected from amide, amine, carbamate, ether, thioether or urea; and POLY has the formula CH 3 O-(CH 2 CH 2 O) n - CH 2 CH 2 -
A video decoding apparatus for decoding a bit stream including uncompressed data of a video signal, comprising: a decoding unit configured to perform an arithmetic decoding process using a context value on the bit stream including uncompressed data; and a controlling unit (81, 84, 85) configured to control the arithmetic decoding process; characterized in further comprising an encoding method judgment unit configured to judge whether a unit of encoding of the bit stream includes uncompressed data using information which identifies whether or not the unit of encoding includes uncompressed data; wherein the controlling unit (81, 84, 85) is configured to maintain a context value previously used in the arithmetic decoding process in case of decoding uncompressed data. a decoding unit configured to perform an arithmetic decoding process using a context value on the bit stream including uncompressed data; and a controlling unit (81, 84, 85) configured to control the arithmetic decoding process; characterized in further comprising an encoding method judgment unit configured to judge whether a unit of encoding of the bit stream includes uncompressed data using information which identifies whether or not the unit of encoding includes uncompressed data; wherein the controlling unit (81, 84, 85) is configured to maintain a context value previously used in the arithmetic decoding process in case of decoding uncompressed data.
A semiconductor laser having an active photonic crystal structure, the laser comprising: (a) an active medium comprising an array of laterally-spaced quantum box ministacks separated by a current blocking material, wherein each ministack comprises 2 to 5 vertically-stacked, coupled quantum boxes; and (b) a waveguide comprising a plurality of layers comprising the active photonic crystal structure, wherein the active photonic crystal structure comprises a plurality of laterally-spaced first regions separated by a plurality of laterally-spaced second regions, wherein the first regions have a lower effective refractive index than the second regions, such that the first regions define laser device elements and the second regions define interelement regions, wherein the active medium is sandwiched between a first layer and a second layer of the plurality of layers of the waveguide. (a) an active medium comprising an array of laterally-spaced quantum box ministacks separated by a current blocking material, wherein each ministack comprises 2 to 5 vertically-stacked, coupled quantum boxes; and (b) a waveguide comprising a plurality of layers comprising the active photonic crystal structure, wherein the active photonic crystal structure comprises a plurality of laterally-spaced first regions separated by a plurality of laterally-spaced second regions, wherein the first regions have a lower effective refractive index than the second regions, such that the first regions define laser device elements and the second regions define interelement regions, wherein the active medium is sandwiched between a first layer and a second layer of the plurality of layers of the waveguide.
An aerosol-generating device, comprising: a housing (11, 21) comprising an air inlet, an air outlet, and an airflow passage extending therebetween; an aerosol-generating element disposed within the airflow passage and configured to generate an aerosol; a sensor coupled to the housing and configured to generate a time dependent airflow signal corresponding to a time dependent strength of a user puff at the air outlet; a haptic output element coupled to the housing; and a circuit operably coupled to the sensor so as to receive the time dependent airflow signal during the user puff, the circuit further operably coupled to the haptic output element and configured to actuate, based on the time dependent airflow signal, the haptic output element at time dependent frequencies or at time dependent intervals during the user puff. a housing (11, 21) comprising an air inlet, an air outlet, and an airflow passage extending therebetween; an aerosol-generating element disposed within the airflow passage and configured to generate an aerosol; a sensor coupled to the housing and configured to generate a time dependent airflow signal corresponding to a time dependent strength of a user puff at the air outlet; a haptic output element coupled to the housing; and a circuit operably coupled to the sensor so as to receive the time dependent airflow signal during the user puff, the circuit further operably coupled to the haptic output element and configured to actuate, based on the time dependent airflow signal, the haptic output element at time dependent frequencies or at time dependent intervals during the user puff.
A system for marine seismic survey having a transducer used for marine seismic survey and generating a seismic source, further comprising a plurality of transducer coupling parts capable of separating and coupling the transducer, wherein the transducer coupling parts are disposed on a bottom of a board floating on a surface of water, the transducer coupling parts being disposed along a straight line forming a left and a right center of gravity of the board, a transducer coupling member for mounting the transducer on the transducer coupling parts, and a support, which is mounted on the bottom of the board, the transducer coupling part is disposed on the support, characterized in that the system is a boomer system, and the support is formed to adjust a distance from a bottom point of the board to the transducer coupling part.
A blood processing system comprising: a separation device; a blood component storage container; a saline storage container; characterized in that the blood processing system further comprises a connector having a body defining the structure of the connector; wherein the connector comprises: a first port physically connected directly to an outlet of the separation device; a second port fluidly connected to the first port and fluidly connected to a first tube, the first tube fluidly connecting the second port and the blood component storage container; and a third port fluidly connected to the first port, the third port fluidly connected to a second tube, the second tube fluidly connecting the third port and the saline storage container. a separation device; a blood component storage container; a saline storage container; characterized in that the blood processing system further comprises a connector having a body defining the structure of the connector; wherein the connector comprises: a first port physically connected directly to an outlet of the separation device; a second port fluidly connected to the first port and fluidly connected to a first tube, the first tube fluidly connecting the second port and the blood component storage container; and a third port fluidly connected to the first port, the third port fluidly connected to a second tube, the second tube fluidly connecting the third port and the saline storage container. a first port physically connected directly to an outlet of the separation device; a second port fluidly connected to the first port and fluidly connected to a first tube, the first tube fluidly connecting the second port and the blood component storage container; and a third port fluidly connected to the first port, the third port fluidly connected to a second tube, the second tube fluidly connecting the third port and the saline storage container.
A tool adapter quick-release structure, comprising: an adapter having a seat portion and an engagement portion extended forward from the seat portion, and an installation hole formed to axially penetrate into an internal of the seat portion via the engagement portion; a locking mechanism comprising a movable sleeve axially mounted onto an exterior of the seat portion, an installation pin radially inserted into the movable sleeve and an elastic member abutted against the installation pin to push the movable sleeve along an axial direction, and the movable sleeve configured to allow a fixation member to penetrate through the seat portion in order to be partially protruded outward at an internal of the installation hole via a push of the elastic member; wherein the seat portion includes a repair hole formed corresponding to the installation pin, and the repair hole is connected to the installation hole. an adapter having a seat portion and an engagement portion extended forward from the seat portion, and an installation hole formed to axially penetrate into an internal of the seat portion via the engagement portion; a locking mechanism comprising a movable sleeve axially mounted onto an exterior of the seat portion, an installation pin radially inserted into the movable sleeve and an elastic member abutted against the installation pin to push the movable sleeve along an axial direction, and the movable sleeve configured to allow a fixation member to penetrate through the seat portion in order to be partially protruded outward at an internal of the installation hole via a push of the elastic member; wherein the seat portion includes a repair hole formed corresponding to the installation pin, and the repair hole is connected to the installation hole.
An ultrasonic scanner (100, 200, 300, 400) for scanning a workpiece comprising: an ultrasound array (104, 204, 304, 404) defining a scanning direction, a solid coupling component (102, 202, 302, 402) defining an array contact surface for contact with the array; in which the solid coupling component (102, 202, 302, 402) at least partially surrounds the array (104, 204, 304, 404) to locate the array such that the scanning direction is perpendicular to the array contact surface; characterised in that: the solid coupling component defines a workpiece contact surface (106, 206, 306) for contact with a workpiece to be scanned; and, the solid coupling component defines an array receiving formation having an orifice oriented such that the array (104, 204, 304, 404) is slidable into the coupling component for insertion and removal in a direction perpendicular to the scanning direction. an ultrasound array (104, 204, 304, 404) defining a scanning direction, a solid coupling component (102, 202, 302, 402) defining an array contact surface for contact with the array; in which the solid coupling component (102, 202, 302, 402) at least partially surrounds the array (104, 204, 304, 404) to locate the array such that the scanning direction is perpendicular to the array contact surface; the solid coupling component defines a workpiece contact surface (106, 206, 306) for contact with a workpiece to be scanned; and, the solid coupling component defines an array receiving formation having an orifice oriented such that the array (104, 204, 304, 404) is slidable into the coupling component for insertion and removal in a direction perpendicular to the scanning direction.
A heat-pump-type air-conditioning apparatus comprising an electric compressor disposed in a motor compartment of an electric automobile, a condenser disposed in a passenger compartment, and a coolant discharge pipe (31, 32) linking the electric compressor and the condenser and channeling coolant from the electric compressor to the condenser; the heat-pump-type air-conditioning apparatus characterized in that: pulsation suppression means for suppressing pulsation of the coolant discharged from the electric compressor is provided in a position partway along the coolant discharge pipe (31, 32); the pulsation suppression means is disposed higher in the vehicle than a coolant discharge port of the electric compressor; and a coolant inflow port of the pulsation suppression means is set higher in the vehicle than a coolant outflow port (11 b) of the pulsation suppression means. pulsation suppression means for suppressing pulsation of the coolant discharged from the electric compressor is provided in a position partway along the coolant discharge pipe (31, 32); the pulsation suppression means is disposed higher in the vehicle than a coolant discharge port of the electric compressor; and a coolant inflow port of the pulsation suppression means is set higher in the vehicle than a coolant outflow port (11 b) of the pulsation suppression means.