mhurhangee/ep-ind-claims huggingface dataset:
- A device for loading a shell into the chamber of a weapon, the device comprising a stretcher intended to receive the shell, the stretcher being able to be moved in order to allow it to be brought closer to the chamber of the weapon and to allow the positioning of the shell, the loading device being characterised in that the stretcher is slidably mounted on a stretcher support along a positioning direction, the stretcher support in turn being connected to the weapon by a set of carrying connecting rods (16a, 16b) forming a deformable parallelogram, the pivoting of the carrying connecting rods with respect to the weapon leading to the movement of the stretcher support with the positioning direction being kept parallel to the axis of the barrel of the weapon, the carrying connecting rods (16a, 16b) being driven by a pivoting driving connecting rod, which in turn is connected to a drive means, the driving connecting rod being secured to a carrying connecting rod by an unlockable latch means, and being connected at one end to the stretcher via a sliding pivot connection (28, 29), the latch means being defined so as to be unlocked when the carrying connecting rods (16a, 16b) are oriented so that the positioning direction coincides with the axis of the barrel of the weapon, the continuation of the pivoting of the driving connecting rod then causing the translation of the stretcher towards the chamber of the weapon.
An epoxy thermoset prepared by reaction of: (a) a grafted triglyceride prepared by a reaction of an epoxidized triglyceride with an acid anhydride, wherein the acid anhydride contains from 4 to 40 carbon atoms per molecule; (b) an epoxy resin; and (c) an anhydride curing agent, wherein the weight ratio of the grafted triglyceride to the epoxy resin is in the range of 1:99 to 99:1. (a) a grafted triglyceride prepared by a reaction of an epoxidized triglyceride with an acid anhydride, wherein the acid anhydride contains from 4 to 40 carbon atoms per molecule; (b) an epoxy resin; and (c) an anhydride curing agent,
Back pressure flap valve arrangement comprising a housing having an inlet opening and an outlet opening adapted for connection of the housing to a ducting, and at least one side wall extending along a flow direction through the housing from the inlet opening to the outlet opening, the arrangement further comprising a flap which is pivotably hinged about a shaft thereby being movable between an open position and a closed position, said shaft extending transverse the flow direction characterized in that the arrangement further comprises at least one locking device being fixedly mounted to the side wall and comprising a locking pin and a stopping member, said locking pin being movable between a retracted position and a locking position, and being biased towards said locking position, and the stopping member being movable from a stop position in which the stopping member is adapted to hold the locking pin in its retracted position, to a release position by the flap acting on the stopping member in case of a back pressure, thereby allowing the locking pin to move into the locking position in which the locking pin maintains the flap in the closed position.
An imprinting device that transfers a molding pattern of a die to a molding target, the imprinting device comprising: a stage and a cover that depress the die and the molding target; a frame formed with a hole into which the stage is fitted and surrounding an outer circumference of the stage; a first moving means for relatively moving the stage and the cover in a direction coming close to or becoming apart from each other; a second moving means for relatively moving the cover and the frame in a direction coming close to or becoming apart from each other; a first depressurizing means for depressurizing a depressurizing room formed any one of the cover, the die or the molding target, and the stage, and further the frame, and eliminating a fluid present between the die and the molding target; and a second depressurizing means for eliminating a fluid present in a space formed between the cover and the die or the molding target. a stage and a cover that depress the die and the molding target; a frame formed with a hole into which the stage is fitted and surrounding an outer circumference of the stage; a first moving means for relatively moving the stage and the cover in a direction coming close to or becoming apart from each other; a second moving means for relatively moving the cover and the frame in a direction coming close to or becoming apart from each other; a first depressurizing means for depressurizing a depressurizing room formed any one of the cover, the die or the molding target, and the stage, and further the frame, and eliminating a fluid present between the die and the molding target; and a second depressurizing means for eliminating a fluid present in a space formed between the cover and the die or the molding target.
An assay measurement apparatus adapted to receive a lateral flow test strip and to concurrently incubate and generate a diagnostic test result from said lateral flow test strip, said apparatus comprising: a. an incubator; b. a reader comprising an optical emitter and an optical image detector; c. a cavity configured to receive said lateral flow test strip and to position and maintain said lateral flow test strip aligned in an optical path with said optical image detector, d. wherein said incubator is arranged to incubate said lateral flow test strip, and said optical image detector is arranged in optical alignment with said test strip, to acquire an image of a first transmission of light on said lateral flow test strip and, when the first optical reading is found satisfactory, to acquire a second image of at least a second transmission of light on said lateral flow test strip, said incubation taking place from at least between the first transmission of light until the second transmission of light; and e. a microprocessor in communication with said optical image detector, wherein said microprocessor is adapted to signal said optical image detector to monitor an optical reading of said first transmission of light of said lateral flow test strip and monitor an optical reading of said second transmission of light of said lateral flow test strip, to generate said diagnostic test result from the optical readings of said first transmission of light and when available said second transmission of light, on test completion, wherein the lateral flow test strip undergoes a change in reflectance when contacted with a sample. a. an incubator; b. a reader comprising an optical emitter and an optical image detector; c. a cavity configured to receive said lateral flow test strip and to position and maintain said lateral flow test strip aligned in an optical path with said optical image detector, d. wherein said incubator is arranged to incubate said lateral flow test strip, and said optical image detector is arranged in optical alignment with said test strip, to acquire an image of a first transmission of light on said lateral flow test strip and, when the first optical reading is found satisfactory, to acquire a second image of at least a second transmission of light on said lateral flow test strip, said incubation taking place from at least between the first transmission of light until the second transmission of light; and e. a microprocessor in communication with said optical image detector, wherein said microprocessor is adapted to signal said optical image detector to monitor an optical reading of said first transmission of light of said lateral flow test strip and monitor an optical reading of said second transmission of light of said lateral flow test strip, to generate said diagnostic test result from the optical readings of said first transmission of light and when available said second transmission of light, on test completion, wherein the lateral flow test strip undergoes a change in reflectance when contacted with a sample.
Container comprising side walls (110, 120), a base, a cover, a front wall and a rear wall, each wall having an inner face (112, 122, 132, 142) and an outer face (111, 121, 131, 141) and an insulating layer lying between the inner and outer face, the container further including a cooling device designed to provide a gaseous heat transfer medium with a specifiable temperature and/or humidity, and the container including a low-pressure pump device designed to circulate the gaseous heat transfer medium with a first pressure in the interior of the container, the container further including a high-pressure pump device designed to circulate the gaseous heat transfer medium with a second pressure in the interior of the container, the second pressure being greater than the first pressure, characterized in that the high-pressure pump device is selected from a radial or axial blower having a blade geometry modified with respect to the low-pressure pump device or a piston compressor or a screw compressor, and wherein the high-pressure pump device is designed to provide a pressure of about 300 hPa to about 800 hPa. the container including a low-pressure pump device designed to circulate the gaseous heat transfer medium with a first pressure in the interior of the container, the container further including a high-pressure pump device designed to circulate the gaseous heat transfer medium with a second pressure in the interior of the container, the second pressure being greater than the first pressure, characterized in that the high-pressure pump device is selected from a radial or axial blower having a blade geometry modified with respect to the low-pressure pump device or a piston compressor or a screw compressor, and wherein the high-pressure pump device is designed to provide a pressure of about 300 hPa to about 800 hPa.
Kitchen block for outdoor use, comprising a base body for receiving kitchen appliances and a cover for the base body which is movable from a substantially horizontal closed position in which it covers the base body into an opening position in which it largely releases a cover surface of the base body, wherein the cover is fastened to the base body via at least one fitting, with which the cover can be moved from its substantially horizontal closed position, remaining in an approximately horizontal position, into its substantially horizontal open position, in which the cover is arranged laterally offset from its closed position, whereby the kitchen appliances arranged in the base body and otherwise concealed by the cover in its closed position are accessible to a user, characterized in that the fitting parts of the fitting located above the base body are covered by the cover in every position of the cover and the fitting parts of the fitting located above the base body also offer no visible parts in the open position, wherein the fitting concerns a pivot fitting, which comprises at least two parallelogram guide rods (4a, 4b) which are articulated at their first ends on the base body and are articulated at their second ends on the cover, and the parallelogram guide rods (4a, 4b) are articulated at their first ends by means of a first fitting part which is fastened to an inside of the base body and are articulated at their second ends by means of a second fitting part which is fastened to an inside of the cover facing the base body.
Overhead monitor casing for accommodating at least one overhead monitor and a control module required for operating same, wherein a main body of the casing has a continuous, multiply angled bent sheet metal part, wherein a free construction space for accommodating the control module is provided on an inner side of the bent sheet metal part, characterized in that the main body for accommodating the monitor has a cross-sectionally generally U-shaped pocket, the outwardly facing side of which is provided with a viewing window and into which the monitor can be inserted.
A data processor system (MOD FD) for monitoring a complex system, the processor system being configured to receive pieces of state information (ID FLAG, MSG PB, MSG CAP) and to merge at least said pieces of state information into a piece of failure information (MSG PC), at least one of said pieces of state information being associated with a confidence flag, and the piece of failure information likewise being associated with a confidence flag, wherein a merging is performed by implementing a fuzzy logic technique in order to produce the piece of failure information while taking account of the respective confidence flags of the pieces of state information and in order to produce the confidence flag associated with the failure information, and wherein the pieces of state information are received in state messages including the identity of a subsystem (ID SS) or of a component (ID COMP).
A control method for a dishwasher, the dishwasher comprising a housing, a fan, a humidity detection unit, a heating device and a feeding device for a dish-brightening agent for reducing the surface tension of water and avoiding water marks on dishes in the dishwasher, wherein the housing is provided with a working chamber and an air flue for keeping the working chamber in communication with the outside, the humidity detection unit is configured to detect a humidity of the working chamber, and the fan is configured to establish an airflow passing through the heating device and the air flue to ventilate the working chamber, the control method comprising steps of: determining whether the dish-brightening agent is fed by the feeding device; controlling the humidity detection unit to detect the humidity after the dishwasher finishes washing; when the dish-brightening agent is fed by the feeding device, controlling the heating device to be turned off and controlling, according to the humidity, the fan to stop running for a first predefined time and then run for a second predefined time after the dishwasher finishes washing, wherein the humidity is negatively correlated to the first predefined time, and the humidity is positively correlated to the second predefined time; and when no dish-brightening agent is fed by the feeding device, controlling, according to the humidity, the fan and the heating device to stop running for a third predefined time and then run for a fourth predefined time after the dishwasher finishes washing, wherein the humidity is negatively correlated to the third predefined time, and the humidity is positively correlated to the fourth predefined time. determining whether the dish-brightening agent is fed by the feeding device; controlling the humidity detection unit to detect the humidity after the dishwasher finishes washing; when the dish-brightening agent is fed by the feeding device, controlling the heating device to be turned off and controlling, according to the humidity, the fan to stop running for a first predefined time and then run for a second predefined time after the dishwasher finishes washing, wherein the humidity is negatively correlated to the first predefined time, and the humidity is positively correlated to the second predefined time; and when no dish-brightening agent is fed by the feeding device, controlling, according to the humidity, the fan and the heating device to stop running for a third predefined time and then run for a fourth predefined time after the dishwasher finishes washing, wherein the humidity is negatively correlated to the third predefined time, and the humidity is positively correlated to the fourth predefined time.
A programmer (130, 130a, 130b) of a stimulation system used to identify an area for electrical stimulation to treat a patient, the stimulation system including an electrical stimulation generator and a medical lead (110, 575a, 575b) coupled to the electrical stimulation generator, the programmer (130, 130a, 130b) comprising: a communication interface (320, 325, 330) configured to communicate with the electrical stimulation generator to generate electrical stimulation, a display screen configured to display a patient model, and user interface configured to receive user input identifying an area of pain on the patient model via a selection of the area of a body part; wherein the programmer (130, 130a, 130b) is further configured to associate the area of pain identified with a tissue location; characterized in that the programmer (130, 130a, 130b) displays a suggested medical lead position on an image of a tissue, preferably a spinal column, based on the step of associating the area of pain identified with the tissue location. a communication interface (320, 325, 330) configured to communicate with the electrical stimulation generator to generate electrical stimulation, a display screen configured to display a patient model, and user interface configured to receive user input identifying an area of pain on the patient model via a selection of the area of a body part; wherein the programmer (130, 130a, 130b) is further configured to associate the area of pain identified with a tissue location; characterized in that the programmer (130, 130a, 130b) displays a suggested medical lead position on an image of a tissue, preferably a spinal column, based on the step of associating the area of pain identified with the tissue location.
A substrate for an organic electronic device, comprising: a substrate layer; an optical functional layer formed on the substrate layer and having a smaller projection area than the substrate layer; a first electrode layer (102, 1021, 1022) having a larger projection area than the optical functional layer, and formed on both of the top of the optical functional layer and the top of the substrate layer on which the optical functional layer is not formed; and a conductive material in electrical contact with both of the first electrode layer (102, 1021, 1022) formed on the top of the optical functional layer and the first electrode layer (102, 1021, 1022) formed on the top of the substrate layer on which the optical functional layer is not formed, wherein the optical functional layer is a light- scattering layer, characterized in that the first electrode layer (102, 1021, 1022) is formed in contact with the optical functional layer, wherein the optical functional layer is sealed by the substrate layer, the first electrode layer (102, 1021, 1022) and the conductive material. a substrate layer; an optical functional layer formed on the substrate layer and having a smaller projection area than the substrate layer; a first electrode layer (102, 1021, 1022) having a larger projection area than the optical functional layer, and formed on both of the top of the optical functional layer and the top of the substrate layer on which the optical functional layer is not formed; and a conductive material in electrical contact with both of the first electrode layer (102, 1021, 1022) formed on the top of the optical functional layer and the first electrode layer (102, 1021, 1022) formed on the top of the substrate layer on which the optical functional layer is not formed, wherein the optical functional layer is a light- scattering layer, characterized in that the first electrode layer (102, 1021, 1022) is formed in contact with the optical functional layer, wherein the optical functional layer is sealed by the substrate layer, the first electrode layer (102, 1021, 1022) and the conductive material.
A method of analyzing a sample having an insoluble dietary fiber fraction and a soluble dietary fiber fraction comprising the steps of: (a) providing a first container having an upper section (23, 38) and a lower section (25, 40), wherein the upper section of the first container is made of a non-porous polymer film and the lower section of the first container includes a porous filter; (b) temporarily separating the upper section of the first container from the lower section of the first container by forming a first seal (24, 39) between the upper section of the first container and the lower section of the first container; (c) placing the sample in the upper section of the first container; (d) combining the sample with a first liquid in the upper section of the first container to separate the insoluble dietary fiber fraction of the sample from the soluble dietary fiber fraction of the sample; and (e) opening the first seal to allow the insoluble dietary fiber fraction of the sample and the soluble dietary fiber fraction of the sample to flow from the upper section of the first container into the lower section of the first container, wherein the insoluble dietary fiber fraction of the sample is retained in the porous filter of the lower section of the first container and the soluble dietary fiber fraction of the sample passes through the porous filter of the lower section of the first container. (a) providing a first container having an upper section (23, 38) and a lower section (25, 40), wherein the upper section of the first container is made of a non-porous polymer film and the lower section of the first container includes a porous filter; (b) temporarily separating the upper section of the first container from the lower section of the first container by forming a first seal (24, 39) between the upper section of the first container and the lower section of the first container; (c) placing the sample in the upper section of the first container; (d) combining the sample with a first liquid in the upper section of the first container to separate the insoluble dietary fiber fraction of the sample from the soluble dietary fiber fraction of the sample; and (e) opening the first seal to allow the insoluble dietary fiber fraction of the sample and the soluble dietary fiber fraction of the sample to flow from the upper section of the first container into the lower section of the first container, wherein the insoluble dietary fiber fraction of the sample is retained in the porous filter of the lower section of the first container and the soluble dietary fiber fraction of the sample passes through the porous filter of the lower section of the first container.