mhurhangee/ep-ind-claims huggingface dataset:
A distribution station, comprising: a base; a housing provided on the base and provided with a goods access port and an access door; a rotating shelf provided on the base and located in the housing, the rotating shelf comprising: a rotating shaft provided on the base vertically and provided with a rotating wheel concentric with the rotating shaft; a transmission belt wound around the outer circumference of the rotating wheel; a plurality of shelf units provided on the transmission belt at intervals in a horizontal direction, and the shelf units are configured to store goods; and a driving mechanism connected to the rotating shaft in transmission, the driving mechanism is configured to drive the rotating shaft to rotate around itself, so that at least one of the plurality of shelf units corresponds to the goods access port; characterized in that the distribution station further comprising: a distribution vehicle configured to enter and exit the housing through the access door and transport the goods; a sorting device provided on the base and located in the housing, the sorting device is configured to pick up and place the goods between the distribution vehicle and the shelf units; and a control system configured to control the driving mechanism and the sorting device. a base; a housing provided on the base and provided with a goods access port and an access door; a rotating shelf provided on the base and located in the housing, the rotating shelf comprising: a rotating shaft provided on the base vertically and provided with a rotating wheel concentric with the rotating shaft; a transmission belt wound around the outer circumference of the rotating wheel; a plurality of shelf units provided on the transmission belt at intervals in a horizontal direction, and the shelf units are configured to store goods; and a driving mechanism connected to the rotating shaft in transmission, the driving mechanism is configured to drive the rotating shaft to rotate around itself, so that at least one of the plurality of shelf units corresponds to the goods access port; characterized in that a rotating shaft provided on the base vertically and provided with a rotating wheel concentric with the rotating shaft; a transmission belt wound around the outer circumference of the rotating wheel; a plurality of shelf units provided on the transmission belt at intervals in a horizontal direction, and the shelf units are configured to store goods; and a driving mechanism connected to the rotating shaft in transmission, the driving mechanism is configured to drive the rotating shaft to rotate around itself, so that at least one of the plurality of shelf units corresponds to the goods access port; characterized in that a distribution vehicle configured to enter and exit the housing through the access door and transport the goods; a sorting device provided on the base and located in the housing, the sorting device is configured to pick up and place the goods between the distribution vehicle and the shelf units; and a control system configured to control the driving mechanism and the sorting device.
Can closure for insertion into a can lid of a can, having a) a pouring opening for pouring liquid from the can, b) an outer closure part which, in the assembled state, is located outside the can and is inserted into a can opening in the can lid, c) an inner closure part which, in the assembled state, is joined to the outer closure part and is supported from below on the can lid and is located inside the can, d) a tamper-evident element which closes the pouring opening in the original state and can be broken open for pouring in order to release the pouring opening, and e) a pressure bulkhead which closes the pouring opening on the inside of the tamper-evident element and thereby keeps the internal can pressure (p) away from the tamper-evident element, wherein the pressure bulkhead can be broken open for pouring to release the pouring opening, characterized in that the outer closure part comprises: f) a lower closure part which, in the assembled state, is inserted into a can opening in the can lid, the pouring opening extending through the lower closure part and the inner closure part and the outer closure part, and g) an upper closure part which is pivotably connected to the lower closure part, the pouring opening extending through the upper closure part and the upper closure part being pivotable from a delivery position into a position of use. a) a pouring opening for pouring liquid from the can, b) an outer closure part which, in the assembled state, is located outside the can and is inserted into a can opening in the can lid, c) an inner closure part which, in the assembled state, is joined to the outer closure part and is supported from below on the can lid and is located inside the can, d) a tamper-evident element which closes the pouring opening in the original state and can be broken open for pouring in order to release the pouring opening, and e) a pressure bulkhead which closes the pouring opening on the inside of the tamper-evident element and thereby keeps the internal can pressure (p) away from the tamper-evident element, wherein the pressure bulkhead can be broken open for pouring to release the pouring opening, f) a lower closure part which, in the assembled state, is inserted into a can opening in the can lid, the pouring opening extending through the lower closure part and the inner closure part and the outer closure part, and g) an upper closure part which is pivotably connected to the lower closure part, the pouring opening extending through the upper closure part and the upper closure part being pivotable from a delivery position into a position of use.
Use of an ethylene-alkyl acrylate copolymer comprising at least 30% by weight of non-melted fraction at 83°C and at least 3% by weight of non-melted fraction at 103°C as measured by differential scanning calorimetry by succession of nucleation-annealing cycles (DSC SSA) for increasing the resistance of bituminous binders to chemical attack, preferably to attack by hydrocarbons.
Phased array antenna with an electronically variable antenna pattern, having: at least two phased antenna elements for transmitting or receiving useful signal components having different phase positions via at least two phase control elements; and at least two receiver elements (126, 128; 127, 129; 125) assigned to the phase control elements, for receiving broadcast control signals for the phase control elements in a frequency band differing from the frequency band of the useful signal components, characterised in that the receiver elements (126, 128; 127, 129; 125) are configured to detect control signals broadcast on feed lines for the useful signal components of the phased antenna elements. at least two phased antenna elements for transmitting or receiving useful signal components having different phase positions via at least two phase control elements; and at least two receiver elements (126, 128; 127, 129; 125) assigned to the phase control elements, for receiving broadcast control signals for the phase control elements in a frequency band differing from the frequency band of the useful signal components, characterised in that the receiver elements (126, 128; 127, 129; 125) are configured to detect control signals broadcast on feed lines for the useful signal components of the phased antenna elements.
An engine control device comprising: an injector injecting fuel in a combustion chamber within a cylinder, the injector having: a body a tip end portion of which is exposed to the combustion chamber; a sac portion which is a space formed in the tip end portion and into which the fuel flows; an injection hole communicating with the combustion chamber and the sac portion; and a needle slidably disposed within the body to be displaced between a close position where no fuel is allowed to flow into the sac portion and an open position where the fuel is allowed to flow into the sac portion, wherein the control device includes a fuel injection controller (20, 30) controlling a fuel injection period in accordance with an operating state of the engine, and an injector controller controlling a motion of the needle in accordance with a fuel injection condition set by the fuel injection controller, and wherein the injector controller executes slow close control to reduce a moving speed of the needle before the needle reaches the close position when the fuel injection period ends, characterized in that the slow close control includes setting a speed at which the needle is displaced from the open position to the close position to a predetermined speed, and changing the predetermined speed to increase with a decrease in the number of revolutions of the engine. a body a tip end portion of which is exposed to the combustion chamber; a sac portion which is a space formed in the tip end portion and into which the fuel flows; an injection hole communicating with the combustion chamber and the sac portion; and a needle slidably disposed within the body to be displaced between a close position where no fuel is allowed to flow into the sac portion and an open position where the fuel is allowed to flow into the sac portion, wherein the control device includes a fuel injection controller (20, 30) controlling a fuel injection period in accordance with an operating state of the engine, and an injector controller controlling a motion of the needle in accordance with a fuel injection condition set by the fuel injection controller, and wherein the injector controller executes slow close control to reduce a moving speed of the needle before the needle reaches the close position when the fuel injection period ends, characterized in that the slow close control includes setting a speed at which the needle is displaced from the open position to the close position to a predetermined speed, and changing the predetermined speed to increase with a decrease in the number of revolutions of the engine.
A system for nucleic acid sequencing, comprising: (a) an array of sensors comprising a plurality of sensors, wherein an individual sensor among said plurality of sensors comprises a transmitter electrode and a receiver electrode, which transmitter electrode or receiver electrode is shared with at least another individual sensor among said plurality of sensors, wherein said array of sensors is configured such that when a first bead is positioned between said transmitter electrode and said receiver electrode of said individual sensor and a second bead is positioned between said transmitter electrode and said receiver electrode of said at least another individual sensor, said transmitter electrode or receiver electrode is shared between said first bead and said second bead; and (b) a computer processor that is electrically coupled to said array of sensors and programmed to measure a signal that is indicative of a change in impedance between said transmitter electrode and receiver electrode during or subsequent to a primer extension reaction on a template nucleic acid molecule coupled to said first bead at said individual sensor or coupled to said second bead at said at least another individual sensor. (a) an array of sensors comprising a plurality of sensors, wherein an individual sensor among said plurality of sensors comprises a transmitter electrode and a receiver electrode, which transmitter electrode or receiver electrode is shared with at least another individual sensor among said plurality of sensors, wherein said array of sensors is configured such that when a first bead is positioned between said transmitter electrode and said receiver electrode of said individual sensor and a second bead is positioned between said transmitter electrode and said receiver electrode of said at least another individual sensor, said transmitter electrode or receiver electrode is shared between said first bead and said second bead; and (b) a computer processor that is electrically coupled to said array of sensors and programmed to measure a signal that is indicative of a change in impedance between said transmitter electrode and receiver electrode during or subsequent to a primer extension reaction on a template nucleic acid molecule coupled to said first bead at said individual sensor or coupled to said second bead at said at least another individual sensor.
A computer-implemented method for generating a prediction of values in a reservoir comprising: a) receiving input data characterizing the reservoir; b) obtaining transient areas by: i) receiving data from the reservoir; ii) transforming the input data using discrete wavelet transformation to produce transformed data; iii) removing outliers from the transformed data; iv) identifying and reducing noise from the transformed data; v) detecting transient areas in the transformed data; c) producing a computer model in response to said input data including performing history matching on detected transient areas; d) verifying the computer model through history matching and determining predictive values of the reservoir; and e) outputting predictive values. a) receiving input data characterizing the reservoir; b) obtaining transient areas by: i) receiving data from the reservoir; ii) transforming the input data using discrete wavelet transformation to produce transformed data; iii) removing outliers from the transformed data; iv) identifying and reducing noise from the transformed data; v) detecting transient areas in the transformed data; i) receiving data from the reservoir; ii) transforming the input data using discrete wavelet transformation to produce transformed data; iii) removing outliers from the transformed data; iv) identifying and reducing noise from the transformed data; v) detecting transient areas in the transformed data; c) producing a computer model in response to said input data including performing history matching on detected transient areas; d) verifying the computer model through history matching and determining predictive values of the reservoir; and e) outputting predictive values.
Method for electric field strength mapping, characterised in that it uses a plurality of mobile terminals, a communication structure (4, 8) and a server computer connected, via the internet, to the communication structure, each mobile terminal comprising: - an electromagnetic wave receiving means (48, 46) connected to an antenna, which receiving means operates at a radioelectric operating frequency situated within an allocated frequency range and is capable of delivering a power measurement of the electric field incident on the antenna at the operating frequency; - a communication means (46, 48) capable of permitting communication with the platform, via the communication structure; and - a geographic positioning means, and in that the method comprises, at each mobile terminal, the following steps: a) acquisition, at the output of the receiving means, of the electric field power measurement and, simultaneously, at the output of the geographic positioning means, of a position measurement; and calculation of an electric field strength measurement based on the acquired electric field power measurement; b) preparation of a message including the operating frequency at which the relative electric field strength measurement was made, the calculated electric field strength measurement, and the position measurement; and c) transmission of the prepared message to the server computer, via the communication structure, and, at the server computer, a step of aggregation (170, 180, 190) of the electric field strength measurements coming from the various mobile terminals, in the form of a map. - an electromagnetic wave receiving means (48, 46) connected to an antenna, which receiving means operates at a radioelectric operating frequency situated within an allocated frequency range and is capable of delivering a power measurement of the electric field incident on the antenna at the operating frequency; - a communication means (46, 48) capable of permitting communication with the platform, via the communication structure; and - a geographic positioning means, a) acquisition, at the output of the receiving means, of the electric field power measurement and, simultaneously, at the output of the geographic positioning means, of a position measurement; and calculation of an electric field strength measurement based on the acquired electric field power measurement; b) preparation of a message including the operating frequency at which the relative electric field strength measurement was made, the calculated electric field strength measurement, and the position measurement; and c) transmission of the prepared message to the server computer, via the communication structure,
A motor vehicle intended to be driven by a driver, the motor vehicle being a truck, comprising: - a cabin comprising a floor with an upper surface, - a passenger compartment intended to receive the driver inside, delimited in a vertical direction by the upper surface of the floor and extending on an upper side of the upper surface; - at least one electronic device configured to be electronically controlled; - a box housing an electronic equipment configured to control the at least one electronic device; wherein the box is waterproof and at least a portion of the box extends on a lower side of the upper surface, the lower side of the upper surface being opposite to the upper side, characterized in that the floor comprises a housing for receiving the box, the housing comprising a peripheral wall extending from the upper surface of the floor, wherein the peripheral wall comprises one abutment for supporting the box, wherein the box has substantially a rectangular shape with a planar top wall and vertical sides, the top wall extending beyond the vertical sides and forming a flange, the flange being supported by the abutment, the box being attached to the floor by screws attaching the flange to the floor at the abutment, the top wall being leveled with the upper surface of the floor, in the vertical direction so that the box is entirely below the upper surface of the floor, wherein the vertical sides of the box extend beyond the floor. - a cabin comprising a floor with an upper surface, - a passenger compartment intended to receive the driver inside, delimited in a vertical direction by the upper surface of the floor and extending on an upper side of the upper surface; - at least one electronic device configured to be electronically controlled; - a box housing an electronic equipment configured to control the at least one electronic device; wherein the box is waterproof and at least a portion of the box extends on a lower side of the upper surface, the lower side of the upper surface being opposite to the upper side, characterized in that the floor comprises a housing for receiving the box, the housing comprising a peripheral wall extending from the upper surface of the floor, wherein the peripheral wall comprises one abutment for supporting the box, wherein the box has substantially a rectangular shape with a planar top wall and vertical sides, the top wall extending beyond the vertical sides and forming a flange, the flange being supported by the abutment, the box being attached to the floor by screws attaching the flange to the floor at the abutment, the top wall being leveled with the upper surface of the floor, in the vertical direction so that the box is entirely below the upper surface of the floor, wherein the vertical sides of the box extend beyond the floor.
A building comprising: a construction material, a wooden base assembled on said construction material; and an external wall finishing material fixed on said wooden base, wherein said construction material comprises: a plural number of plate form heat insulation material (20a, 20b) in which a core material is enclosed in a vacuum; and a plate form structural face material wherein said plural number of heat insulation materials (20a, 20b) and said structural face material are combined into one in a way that one surface of said heat insulation materials (20a, 20b) and one surface of said structural face material face each other, wherein said construction material is a construction material whose heat insulation material (20a, 20b) is, in a way that a plural number of said core materials are aligned two-dimensionally without overlapping, a material in which each of said core materials is independently enclosed in a vacuum, and characterized in that said wooden base is fixed on said construction material by a nail or a screw being driven into said wooden base, passing through said heat insulation material (20a, 20b) in an area away from said core materials, and being driven into said structural face material, wherein the plural number of said heat insulation materials (20a, 20b) are combined with said structural face material into one in a way that the plural number of said heat insulation materials (20a, 20b) are stacked, wherein the plural number of said heat insulation materials (20a, 20b) are stacked in a way that said core materials do not overlap. a construction material, a wooden base assembled on said construction material; and an external wall finishing material fixed on said wooden base, a plural number of plate form heat insulation material (20a, 20b) in which a core material is enclosed in a vacuum; and a plate form structural face material wherein said plural number of heat insulation materials (20a, 20b) and said structural face material are combined into one in a way that one surface of said heat insulation materials (20a, 20b) and one surface of said structural face material face each other, wherein said construction material is a construction material whose heat insulation material (20a, 20b) is, in a way that a plural number of said core materials are aligned two-dimensionally without overlapping, a material in which each of said core materials is independently enclosed in a vacuum, and said wooden base is fixed on said construction material by a nail or a screw being driven into said wooden base, passing through said heat insulation material (20a, 20b) in an area away from said core materials, and being driven into said structural face material, wherein the plural number of said heat insulation materials (20a, 20b) are combined with said structural face material into one in a way that the plural number of said heat insulation materials (20a, 20b) are stacked, wherein the plural number of said heat insulation materials (20a, 20b) are stacked in a way that said core materials do not overlap.