mhurhangee/ep-ind-claims huggingface dataset:
A camera shutter device comprising an optical opening, an electromagnetic drive fixedly arranged relative to the optical opening and having a linearly guided movable part, a first shutter blade movable to an open position exposing the optical opening and to a closed position covering the optical opening, and a two-armed lever divided by a pivot point into an input end (4.1) and an output end (4.2) and pivotable about the pivot point over a pivot angle range (α), wherein the pivot point is arranged on an axis of rotation (4.0) fixedly arranged relative to the optical opening and the input end (4.1) is connected to the movable part, the first shutter blade forming a unit fixedly connected to the movable part, and a counterweight is present at the output end (4.2) of the two-armed lever, wherein a second weight force (F 2) acting on the counterweight causes a second torque (M 2) about the axis of rotation (4.0) which counteracts a first torque (M 1) caused by a first weight force (F 1) acting on the unit, characterized in that a first permanent magnet (6.1), having at least one magnetic face, is fixedly arranged within the pivot angle range (α) in association with the counterweight in such a way that the counterweight is held in the open position and the closed position by the magnetic force of the first permanent magnet (6.1), or a first and a second permanent magnet (6.1, 6.2), each having at least one magnetic face, are provided, which are arranged in association with the counterweight in such a way that the counterweight is held in the open position by the magnetic force of the first permanent magnet (6.1) and in the closed position by the magnetic force of the second permanent magnet (6.2).
A nutritional composition comprising: acid casein protein, vitamin K in a ratio of vitamin K1:K2 being between 3:1 to 1:3 and the vitamin K present in an amount of between 17.5 to 100μg/100g of the nutritional composition, vitamin D present in an amount of between 2.5 to 75 μg/100g of the nutritional composition; and n6/n3 fatty acids in a ratio of n6:n3 fatty acids of between 5:1 to 1:5 and mixtures thereof. acid casein protein, vitamin K in a ratio of vitamin K1:K2 being between 3:1 to 1:3 and the vitamin K present in an amount of between 17.5 to 100μg/100g of the nutritional composition, vitamin D present in an amount of between 2.5 to 75 μg/100g of the nutritional composition; and n6/n3 fatty acids in a ratio of n6:n3 fatty acids of between 5:1 to 1:5 and mixtures thereof.
A method for testing a medium for the presence of a target analyte, the method comprising: • receiving the medium in a capsule, the capsule characterized by a volume, wherein receiving comprises providing the capsule with a solvent for extracting analytes from the medium and a sensor configured to test the medium for the target analyte; • causing the solvent to come into contact with the medium in the capsule; • agitating the capsule, with a mixing apparatus of an analysis device in communication with the capsule, thereby agitating the solvent and the medium within the capsule and creating a dispersion in the solvent of any portion of the target analyte present in the medium; • operating a release mechanism (145,150) of the analysis device, configured to cause conduction of the dispersion to the sensor of the capsule; • reading the result of the sensor in the capsule using the analysis device; and • providing an indication of presence of the target analyte upon detection of presence of the target analyte in the medium, by way of the sensor. • receiving the medium in a capsule, the capsule characterized by a volume, wherein receiving comprises providing the capsule with a solvent for extracting analytes from the medium and a sensor configured to test the medium for the target analyte; • causing the solvent to come into contact with the medium in the capsule; • agitating the capsule, with a mixing apparatus of an analysis device in communication with the capsule, thereby agitating the solvent and the medium within the capsule and creating a dispersion in the solvent of any portion of the target analyte present in the medium; • operating a release mechanism (145,150) of the analysis device, configured to cause conduction of the dispersion to the sensor of the capsule; • reading the result of the sensor in the capsule using the analysis device; and • providing an indication of presence of the target analyte upon detection of presence of the target analyte in the medium, by way of the sensor.
A particle sorting module comprising a housing comprising a proximal end, a distal end and a wall therebetween, wherein the housing further comprises a sample injection port positioned at the proximal end of the housing and configured to inject a sample flow stream of particle containing droplets and a droplet deflector configured to deflect droplets of the sample flow stream characterized in that: there is an opening that is positioned in the wall between the droplet deflector and the distal end of the housing downstream of the sample injection port and droplet deflector and is configured for visualizing droplets of the deflected sample flow stream (101a, 101b and 101c).
A receiving device (1; 200) for receiving a magnetic field and for producing electric energy by magnetic induction, in particular for use by a vehicle, wherein - the receiving device (1; 200) comprises at least one coil (33, 35, 37; 131) of at least one electric line and wherein the magnetic field induces an electric voltage in the at least one coil (33, 35, 37; 131) during operation, - the receiving device (1; 200) and the at least one coil (33, 35, 37; 131) are adapted to receive the magnetic field from a receiving side of the receiving device (1; 200), - the receiving device (1; 200) comprises a first field shaping arrangement (61; 185) comprising magnetizable material adapted to shape magnetic field lines of the magnetic field, - the first field shaping arrangement (61; 185) is placed behind the at least one coil (33, 35, 37; 131), if viewed from the receiving side of the receiving device (1; 200), - the receiving device (1; 200) comprises a capacitor arrangement (111; 211) comprising at least one capacitor, which is electrically connected to the at least one coil (33, 35, 37; 131), characterized in that - the capacitor arrangement (111; 211) is placed behind the first field shaping arrangement (61; 185), if viewed from the receiving side of the receiving device (1; 200), - the receiving device (1; 200) comprises a first cooling structure (81; 181) comprising conduits (145, 147) for guiding a flow of a cooling fluid in order to cool the receiving device (1; 200), - the first cooling structure (81; 181) is placed in between the first field shaping arrangement (61; 185) and the capacitor arrangement (111; 211). - the receiving device (1; 200) comprises at least one coil (33, 35, 37; 131) of at least one electric line and wherein the magnetic field induces an electric voltage in the at least one coil (33, 35, 37; 131) during operation, - the receiving device (1; 200) and the at least one coil (33, 35, 37; 131) are adapted to receive the magnetic field from a receiving side of the receiving device (1; 200), - the receiving device (1; 200) comprises a first field shaping arrangement (61; 185) comprising magnetizable material adapted to shape magnetic field lines of the magnetic field, - the first field shaping arrangement (61; 185) is placed behind the at least one coil (33, 35, 37; 131), if viewed from the receiving side of the receiving device (1; 200), - the receiving device (1; 200) comprises a capacitor arrangement (111; 211) comprising at least one capacitor, which is electrically connected to the at least one coil (33, 35, 37; 131), - the capacitor arrangement (111; 211) is placed behind the first field shaping arrangement (61; 185), if viewed from the receiving side of the receiving device (1; 200), - the receiving device (1; 200) comprises a first cooling structure (81; 181) comprising conduits (145, 147) for guiding a flow of a cooling fluid in order to cool the receiving device (1; 200), - the first cooling structure (81; 181) is placed in between the first field shaping arrangement (61; 185) and the capacitor arrangement (111; 211).
An electrical connection module mounted on an installation foundation, comprising: a base comprising a bottom wall and two side walls, the two side walls being on two sides of the bottom wall, and the bottom wall and the two side walls defining a receiving channel; a first printed circuit board fixed on the base, the first printed circuit board and the receiving channel being respectively located at two sides of the bottom wall; and a plurality of first conductive terminals electrically connected to the first printed circuit board and extending through the bottom wall of the base into the receiving channel, wherein at least one of the two side walls is provided with a first positioning rib extending inwardly, characterized in that the inner surface of each side wall is provided with two first positioning ribs extending inwardly, the inner surfaces of the two side walls are provided with a pair of partition plates extending inwardly; and the two first positioning ribs on each side wall are respectively located on two sides of the partition plate on the side wall. a base comprising a bottom wall and two side walls, the two side walls being on two sides of the bottom wall, and the bottom wall and the two side walls defining a receiving channel; a first printed circuit board fixed on the base, the first printed circuit board and the receiving channel being respectively located at two sides of the bottom wall; and a plurality of first conductive terminals electrically connected to the first printed circuit board and extending through the bottom wall of the base into the receiving channel, wherein at least one of the two side walls is provided with a first positioning rib extending inwardly, characterized in that the inner surface of each side wall is provided with two first positioning ribs extending inwardly, the inner surfaces of the two side walls are provided with a pair of partition plates extending inwardly; and the two first positioning ribs on each side wall are respectively located on two sides of the partition plate on the side wall.
A computer-implemented method of semantically segmenting an image comprising: receiving an image at a processor; using a first random decision forest to compute, for each class of a plurality of available classes, one or more regions of the received image by computing class probabilities, using raw image data from the received image; characterized in that the method is further using a second random decision forest to compute for each class a generalized geodesic map using geodesic features, said geodesic features being features which relate to a distance between image elements, the distance taking into account information about image content between the image elements; wherein the geodesic features are computed from the received image using paths from an image element to the one or more regions of said class of the received image, the paths being geodesic paths which follow a route with the least change in intensity or color or texture or gradients of labelled image elements, or probability values obtained from other image labelling systems; and using a third random decision forest to classify image elements of the image into said plurality of available classes; said third decision forest using said raw image data for the received image, said generalized geodesic maps computed from the received image, and said class probabilities. receiving an image at a processor; using a first random decision forest to compute, for each class of a plurality of available classes, one or more regions of the received image by computing class probabilities, using raw image data from the received image; characterized in that the method is further using a second random decision forest to compute for each class a generalized geodesic map using geodesic features, said geodesic features being features which relate to a distance between image elements, the distance taking into account information about image content between the image elements; wherein the geodesic features are computed from the received image using paths from an image element to the one or more regions of said class of the received image, the paths being geodesic paths which follow a route with the least change in intensity or color or texture or gradients of labelled image elements, or probability values obtained from other image labelling systems; and using a third random decision forest to classify image elements of the image into said plurality of available classes; said third decision forest using said raw image data for the received image, said generalized geodesic maps computed from the received image, and said class probabilities.
A method for generating a microservice application, comprising: determining (S 101) a service set of microservices according to a first user requirement; determining a deployment mode of devices to be controlled by the microservice application; determining (S 103) parameter information of the microservice application according to a second user requirement; and generating the microservice application according to the service set, the deployment mode and the parameter information, wherein the deployment mode comprises: physical location deployment and process architecture deployment; wherein the physical location deployment comprises at least one of: a centralized mode, a distributed mode, or a hybrid mode; and wherein the process architecture deployment comprises: a compact mode and/or a safe mode. determining (S 101) a service set of microservices according to a first user requirement; determining a deployment mode of devices to be controlled by the microservice application; determining (S 103) parameter information of the microservice application according to a second user requirement; and generating the microservice application according to the service set, the deployment mode and the parameter information, wherein the deployment mode comprises: physical location deployment and process architecture deployment; wherein the physical location deployment comprises at least one of: a centralized mode, a distributed mode, or a hybrid mode; and wherein the process architecture deployment comprises: a compact mode and/or a safe mode.
A photovoltaic blind window comprising: a multilayer glass comprised of a pair of plate glass sheets joined to each other along rims thereof via spacers to form an internal space between the plate glass sheets; an electric blind received in the internal space of the multilayer glass and including a plurality of slats moved in a vertical direction or tilted by operation of a drive motor; a plurality of photovoltaic cells arranged on at least one side of the respective slats; and a storage battery storing electric power generated by the photovoltaic cells, characterized by that the plurality of slats are connected to each other in series, and each of the plurality of slats further include a dummy line separate from the photovoltaic cells and traversing each slat in the longitudinal direction such that one of a negative terminal and a positive terminal of a lowermost slat is connected to the other of a negative terminal and a positive terminal of an uppermost slat through the dummy lines of intermediate slats, whereby an electrical circuit is completed. a multilayer glass comprised of a pair of plate glass sheets joined to each other along rims thereof via spacers to form an internal space between the plate glass sheets; an electric blind received in the internal space of the multilayer glass and including a plurality of slats moved in a vertical direction or tilted by operation of a drive motor; a plurality of photovoltaic cells arranged on at least one side of the respective slats; and a storage battery storing electric power generated by the photovoltaic cells, characterized by that the plurality of slats are connected to each other in series, and each of the plurality of slats further include a dummy line separate from the photovoltaic cells and traversing each slat in the longitudinal direction such that one of a negative terminal and a positive terminal of a lowermost slat is connected to the other of a negative terminal and a positive terminal of an uppermost slat through the dummy lines of intermediate slats, whereby an electrical circuit is completed.
Burner ring for gas burners that has - a distribution chamber having gas outlets to an outer circumference of the burner ring, and - a transfer ignition groove that is outwardly open on one side and extends between an inner circumference of the burner ring and the outer circumference of the burner ring, - a gas conducting channel into which the transfer ignition groove opens at least partially, and - at least one gas supply opening between the distribution chamber and gas conducting channel, - wherein the gas conducting channel and transfer ignition groove are arranged mutually symmetrically, and - the gas supply opening is offset in the region of the gas conducting channel at an angle relative to the transfer ignition groove characterised in that - the gas conducting channel is present in the form of a drilled hole into which the transfer ignition groove opens downwardly and - the gas conducting channel is sealed towards the inner circumference. - a distribution chamber having gas outlets to an outer circumference of the burner ring, and - a transfer ignition groove that is outwardly open on one side and extends between an inner circumference of the burner ring and the outer circumference of the burner ring, - a gas conducting channel into which the transfer ignition groove opens at least partially, and - at least one gas supply opening between the distribution chamber and gas conducting channel, - wherein the gas conducting channel and transfer ignition groove are arranged mutually symmetrically, and - the gas supply opening is offset in the region of the gas conducting channel at an angle relative to the transfer ignition groove - the gas conducting channel is present in the form of a drilled hole into which the transfer ignition groove opens downwardly and - the gas conducting channel is sealed towards the inner circumference.
A method for producing a tensioning structure, the method comprising: arranging a first pair of weld strips (31, 31) parallel to one another on a joining device; wrapping at least one continuous strand around a plurality of members arranged along a pair of rows adjacent the first pair of weld strips (31, 31) respectively, each of the pair of rows of members offset with respect to the other of the pair of rows of members, the step of wrapping comprising alternating between the pair of rows, such that the at least one continuous strand forms a plurality of end-to-end V-shaped strands; and using the joining device to join the first pair of weld strips (31, 31) to the plurality of strands at respective V-shaped corners formed by the at least one continuous strand, such that the tensioning structure has a tensile strength along a direction perpendicular to a longitudinal extent of the first pair of weld strips (31, 31). arranging a first pair of weld strips (31, 31) parallel to one another on a joining device; wrapping at least one continuous strand around a plurality of members arranged along a pair of rows adjacent the first pair of weld strips (31, 31) respectively, each of the pair of rows of members offset with respect to the other of the pair of rows of members, the step of wrapping comprising alternating between the pair of rows, such that the at least one continuous strand forms a plurality of end-to-end V-shaped strands; and using the joining device to join the first pair of weld strips (31, 31) to the plurality of strands at respective V-shaped corners formed by the at least one continuous strand, such that the tensioning structure has a tensile strength along a direction perpendicular to a longitudinal extent of the first pair of weld strips (31, 31).
A driver state estimation device configured to estimate a state of a driver who is in a movable body, the driver state estimation device comprising: a first measurement section configured to measure a first index value correlated with an amount of an attention source allocated to top-down attention of the driver; a second measurement section configured to measure a second index value correlated with an amount of the attention source allocated to bottom-up attention of the driver; and an estimation section configured to estimate the driver state including an attention function degraded state of the driver on the basis of the first index value and the second index value, wherein in the case where the first index value falls below a predetermined first threshold value, the estimation section is configured to estimate that the driver is in the attention function degraded state when the second index value falls below a predetermined second threshold value, and in the case where the first index value falls below the predetermined first threshold value, the estimation section is configured to estimate that the driver is not in the attention function degraded state when the second index value does not fall below the second threshold value. a first measurement section configured to measure a first index value correlated with an amount of an attention source allocated to top-down attention of the driver; a second measurement section configured to measure a second index value correlated with an amount of the attention source allocated to bottom-up attention of the driver; and an estimation section configured to estimate the driver state including an attention function degraded state of the driver on the basis of the first index value and the second index value, wherein in the case where the first index value falls below a predetermined first threshold value, the estimation section is configured to estimate that the driver is in the attention function degraded state when the second index value falls below a predetermined second threshold value, and in the case where the first index value falls below the predetermined first threshold value, the estimation section is configured to estimate that the driver is not in the attention function degraded state when the second index value does not fall below the second threshold value.