mhurhangee/ep-ind-claims huggingface dataset:
A microfluidic device for producing micro-fluids comprising: a plurality of parallel inlet channels (108, 116, 118) comprising a first set of inlet channels for introducing a first fluid at a first flow rate, a wafer comprising a second set of inlet channels for introducing a second fluid at a second flow rate and a third set of inlet channels for introducing a third fluid at a third flow rate, wherein each inlet channel of the second set of inlet channels is located between two channels of the third set of inlet channels; a mobile comb structure comprising the first set of inlet channels, a fluid routing component, and unions and fittings wherein the first set of inlet channels is configured to move relative to the second set of channels so as to coaxially align the first set of inlet channels with the second set of inlet channels for producing micro-fluids, wherein the coaxial alignment means that each channel of the first set of inlet channels is enclosed within a corresponding channel of the second set of channels; an intersection disposed at an end of the plurality of parallel inlet channels (108, 116, 118), wherein the intersection is configured to facilitate formation of micro-fluids; and a plurality of parallel outlet channels originating from the intersection, wherein the plurality of parallel outlet channels is configured to facilitate collection of the micro-fluids. a plurality of parallel inlet channels (108, 116, 118) comprising a first set of inlet channels for introducing a first fluid at a first flow rate, a wafer comprising a second set of inlet channels for introducing a second fluid at a second flow rate and a third set of inlet channels for introducing a third fluid at a third flow rate, wherein each inlet channel of the second set of inlet channels is located between two channels of the third set of inlet channels; wherein each inlet channel of the second set of inlet channels is located between two channels of the third set of inlet channels; a mobile comb structure comprising the first set of inlet channels, a fluid routing component, and unions and fittings wherein the first set of inlet channels is configured to move relative to the second set of channels so as to coaxially align the first set of inlet channels with the second set of inlet channels for producing micro-fluids, wherein the coaxial alignment means that each channel of the first set of inlet channels is enclosed within a corresponding channel of the second set of channels; an intersection disposed at an end of the plurality of parallel inlet channels (108, 116, 118), wherein the intersection is configured to facilitate formation of micro-fluids; and a plurality of parallel outlet channels originating from the intersection, wherein the plurality of parallel outlet channels is configured to facilitate collection of the micro-fluids.
A method for exploiting dusts generated in a ferronickel process, comprising the steps of: - producing a pelletizing feed from dusts of the ferronickel process, - pelletizing the pelletizing feed to produce green pellets, and - sintering the green pellets, characterized by - introducing finely divided laterite ore with a particle size less than 3 mm into the pelletizing feed, - sintering the green pellets in a steel belt sintering furnace to produce sintered pellets, the steel belt sintering furnace comprising one or more zones for drying, heating, sintering and cooling of the pellets, and - feeding the sintered pellets to a rotary kiln for pre-reduction of nickel and iron, or to a ferronickel smelter together with pre-reduced laterite ore received from a rotary kiln. - producing a pelletizing feed from dusts of the ferronickel process, - pelletizing the pelletizing feed to produce green pellets, and - sintering the green pellets, - introducing finely divided laterite ore with a particle size less than 3 mm into the pelletizing feed, - sintering the green pellets in a steel belt sintering furnace to produce sintered pellets, the steel belt sintering furnace comprising one or more zones for drying, heating, sintering and cooling of the pellets, and - feeding the sintered pellets to a rotary kiln for pre-reduction of nickel and iron, or to a ferronickel smelter together with pre-reduced laterite ore received from a rotary kiln.
A flotation tank for being disposed in an inner space of a self-supporting framework, the flotation tank comprising - a self-supporting tank, the tank having a lower tank part and a tapered upper tank part which is narrower than the lower tank part, the tank having a mouth at the upper end of the upper tank part and an overflow lip at the periphery of the mouth, and - an overflow receptacle, the overflow receptacle being connected to the tapered upper part of the tank beside the overflow lip for receiving, collecting and discharging an overflow that overflows from the tank over the overflow lip, when in use characterized in that the tank and the overflow receptacle are made of thermoplastic polymer; and that the overflow lip comprises a separate lip member, and the lip member is connectable to the upper part of the tank at a desired height position to obtain a suitable overflow height for the overflow. - a self-supporting tank, the tank having a lower tank part and a tapered upper tank part which is narrower than the lower tank part, the tank having a mouth at the upper end of the upper tank part and an overflow lip at the periphery of the mouth, and - an overflow receptacle, the overflow receptacle being connected to the tapered upper part of the tank beside the overflow lip for receiving, collecting and discharging an overflow that overflows from the tank over the overflow lip, when in use characterized in that the tank and the overflow receptacle are made of thermoplastic polymer; and that the overflow lip comprises a separate lip member, and the lip member is connectable to the upper part of the tank at a desired height position to obtain a suitable overflow height for the overflow.
An antiperspirant composition for personal hygiene, manufactured in the form of a non-aerosol, a stick, a soft solid, a cream, a gel, a non-sprayable or sprayable suspension, a non-sprayable solution, or impregnated on a substrate, containing, based in each case on the weight of said composition, if appropriate after discounting volatile propellants, a) at least one antiperspirant active substance, b) from 0 to 7 wt.%, preferably from 0 to 3 wt.%, free water, c) a mixture of at least two oils, which are liquid under normal conditions, as a carrier, wherein the composition contains c1) from 5 to 30 wt.% PPG-14 butyl ether and c2) from 0.5 to 20 wt.% of at least one oil from the group of alkyl benzoates, alkylene dibenzoates, alkoxylated alkyl benzoates, polyalkylene oxide dibenzoates, or mixtures thereof, with the proviso that the weight proportion of oil components having a refractive index ≥ 1.465 adds up to less than half of the total weight of all of the oil components c), and furthermore with the proviso that the composition contains from 0.75 to 15 wt.% propylene glycol dibenzoate. a) at least one antiperspirant active substance, b) from 0 to 7 wt.%, preferably from 0 to 3 wt.%, free water, c) a mixture of at least two oils, which are liquid under normal conditions, as a carrier, c1) from 5 to 30 wt.% PPG-14 butyl ether and c2) from 0.5 to 20 wt.% of at least one oil from the group of alkyl benzoates, alkylene dibenzoates, alkoxylated alkyl benzoates, polyalkylene oxide dibenzoates, or mixtures thereof,
A portable x-ray device that is handheld, comprising: a housing (20, 120) containing an x-ray source and an integrated power system (34,40), wherein the integrated power system (34, 40) contains a power supply; x-ray detecting means structurally unattached to the housing; a controllable display means configured to control the operation of the x-ray device, said controllable display means being integrated into the housing (20, 120) and configured to display a radiographic image of an object placed between the x-ray device and the detecting means, wherein the integrated power system (34, 40) is adapted to maintain a continuous DC high voltage up to a few seconds during the emission of x-rays suitable for medical or dental radiographic imaging; characterized in that the power system (34, 40) comprises a power source and conversion means, wherein the conversion means converts the initial voltage supplied by the power source to a converted voltage that is provided to the power supply; the power source is removable from the remainder containing mechanical and electrical means for connecting the power source to the x-ray device. a housing (20, 120) containing an x-ray source and an integrated power system (34,40), wherein the integrated power system (34, 40) contains a power supply; x-ray detecting means structurally unattached to the housing; a controllable display means configured to control the operation of the x-ray device, said controllable display means being integrated into the housing (20, 120) and configured to display a radiographic image of an object placed between the x-ray device and the detecting means, wherein the integrated power system (34, 40) is adapted to maintain a continuous DC high voltage up to a few seconds during the emission of x-rays suitable for medical or dental radiographic imaging; characterized in that the power system (34, 40) comprises a power source and conversion means, wherein the conversion means converts the initial voltage supplied by the power source to a converted voltage that is provided to the power supply; the power source is removable from the remainder containing mechanical and electrical means for connecting the power source to the x-ray device.
An elongated optical element for light emitting diodes arranged in the longitudinal direction behind each other, wherein the optical element has a light-diffusing characteristic and is designed essentially U-shaped in cross section and wherein the center leg or middle area of the U-shape connecting the two side legs or side areas with each other has an indent inwards, wherein the two side legs or side areas of the U-shape are inclined inwards relative to each other such that the side legs or side areas have a smaller distance to each other on their ends than in the area, in which the side legs or side areas pass into the center leg or center area of the U-shape, characterized in that the indent of the center leg or middle area of the U-shape is tapered inwards, such that an essentially V-shaped indent results, the tip of which points into the U-shape.
Sliding-compression ring (110, 210, 310) for compressing a pinch sleeve on an end of a pipe, in which a support sleeve is inserted, wherein the sliding-compression ring has an inner diameter in a working state, and wherein the sliding-compression ring can be transferred into an open state, in which its inner diameter is larger than in the working state, characterized in that the sliding-compression ring has target surfaces, which are inclined to its axial direction (x), so that a press force (F press) acting there exerts a radially inwardly directed force component (F rad), wherein the part of the press force pointing in axial direction generates the forward feed of the sliding-compression ring.
A process for preparing paliperidone by combining 3-(2-chloroethyl)-6,7,8,9-tetrahydro-9-hydroxy-2-methyl-4H-pyrrido[1,2-a]-pyrimidin-4-one (CMHTP) or a salt thereof and 6-fluoro-3-piperidino-1,2-benzisoxazol (FBIP) or a salt thereof in an organic solvent and in the presence of water, wherein the pH value of the reaction medium is between 6 and 14, and wherein active charcoal is used in the crystallization step(s), having a neutral or alkaline pH value and a content of individual metal cations less than 200 ppm.
Vehicle sliding door comprising a casing and a carriage on which are mounted means (10, 12, 13, 43) for guiding said door, the carriage having an outer surface that is intended to come into contact with a surface of the casing before being fastened to said casing, characterized in that the carriage comprises an eccentric provided with a finger that protrudes from the outer surface and is intended to be inserted into a vertical buttonhole of the casing, and in that the position of the carriage on the casing is adjusted by rotating the eccentric relative to the carriage, causing a horizontal translational movement of said carriage along the casing along a longitudinal axis of the vehicle.
An apparatus, comprising: an interface to receive at least one set of sensor information based on sensor data that is recorded concurrently with a recorded video, the sensor data other than video; and a video clip creation module to identify a sensor event from the at least one set of sensor information and to automatically generate a video clip based upon the sensor event, the sensor event being detected activity based upon the sensor data, the video clip comprising video content from the recorded video that is synchronized to the sensor event, characterized in that the video clip creation module is arranged to predict an activity to be captured in the video based upon the sensor event, during recording of the video, and to generate a signal to recommend to a user of a video recording device to move the video recording device to capture in video the predicted activity. an interface to receive at least one set of sensor information based on sensor data that is recorded concurrently with a recorded video, the sensor data other than video; and a video clip creation module to identify a sensor event from the at least one set of sensor information and to automatically generate a video clip based upon the sensor event, the sensor event being detected activity based upon the sensor data, the video clip comprising video content from the recorded video that is synchronized to the sensor event, characterized in that the video clip creation module is arranged to predict an activity to be captured in the video based upon the sensor event, during recording of the video, and to generate a signal to recommend to a user of a video recording device to move the video recording device to capture in video the predicted activity.
A ground-engaging component that is generally U-shaped for an article of footwear, comprising: an outer perimeter boundary rim that at least partially defines an outer perimeter of the ground-engaging component; an inner perimeter boundary rim that at least partially defines an inner perimeter of the ground-engaging component, wherein a first open space is defined between the outer perimeter boundary rim and the inner perimeter boundary rim, and wherein a second open space is defined between a lateral side portion of the inner perimeter boundary rim and a medial side portion of the inner perimeter boundary rim; and a support structure extending from the outer perimeter boundary rim to the inner perimeter boundary rim and at least partially across the first open space, wherein the support structure includes a matrix structure extending across the first open space to define a cellular construction. an outer perimeter boundary rim that at least partially defines an outer perimeter of the ground-engaging component; an inner perimeter boundary rim that at least partially defines an inner perimeter of the ground-engaging component, wherein a first open space is defined between the outer perimeter boundary rim and the inner perimeter boundary rim, and wherein a second open space is defined between a lateral side portion of the inner perimeter boundary rim and a medial side portion of the inner perimeter boundary rim; and wherein a first open space is defined between the outer perimeter boundary rim and the inner perimeter boundary rim, and wherein a second open space is defined between a lateral side portion of the inner perimeter boundary rim and a medial side portion of the inner perimeter boundary rim; and a support structure extending from the outer perimeter boundary rim to the inner perimeter boundary rim and at least partially across the first open space, wherein the support structure includes a matrix structure extending across the first open space to define a cellular construction.
A negative electrode active material for an electric device, which comprises: a silicon-containing alloy having a composition represented by the following Chemical Formula: [Chemical Formula 1] Si x Sn y M z A a (wherein in the Chemical Formula, A represents an unavoidable impurity, M represents Ti, x represents a percent by mass of Si, y represents a percent by mass of Sn, z represents a percent by mass of Ti, and a represents a percent by mass of the unavoidable impurity, and 60 ≤ x ≤ 73, 2 ≤ y ≤ 15, 25 ≤ z ≤ 35, and a < 0.5 and x + y + z + a = 100); wherein the silicon-containing alloy has a microstructure which has: a first phase having titanium disilicide (TiSi 2) as a main component, the titanium disilicide (TiSi 2) having two types of crystal structures, a C49 structure and a C54 structure, and a second phase partially containing Sn and having amorphous Si as a main component, said Sn being dispersed or solid-solved inside the crystal structure of Si; and wherein the microstructure has partially a plurality of independent first phases and partially a eutectic structure of the first phase and the second phase. A represents an unavoidable impurity, M represents Ti, x represents a percent by mass of Si, y represents a percent by mass of Sn, z represents a percent by mass of Ti, and a represents a percent by mass of the unavoidable impurity, and 60 ≤ x ≤ 73, 2 ≤ y ≤ 15, 25 ≤ z ≤ 35, and a < 0.5 and x + y + z + a = 100); wherein the silicon-containing alloy has a microstructure which has: a first phase having titanium disilicide (TiSi 2) as a main component, the titanium disilicide (TiSi 2) having two types of crystal structures, a C49 structure and a C54 structure, and a second phase partially containing Sn and having amorphous Si as a main component, said Sn being dispersed or solid-solved inside the crystal structure of Si; and wherein the microstructure has partially a plurality of independent first phases and partially a eutectic structure of the first phase and the second phase. a first phase having titanium disilicide (TiSi 2) as a main component, the titanium disilicide (TiSi 2) having two types of crystal structures, a C49 structure and a C54 structure, and a second phase partially containing Sn and having amorphous Si as a main component, said Sn being dispersed or solid-solved inside the crystal structure of Si; and wherein the microstructure has partially a plurality of independent first phases and partially a eutectic structure of the first phase and the second phase.
A cab of an off-highway vehicle having a seat for an operator and a console unit arranged forward of the seat for housing an instrument display, wherein the cab is fitted with an HVAC system comprising a heat exchanger unit and a blower serving to blow air to the heat exchanger unit, and the heat exchanger unit is located within the console unit characterised in that the blower is located on the floor of the cab beneath or adjacent the seat and is connected to the heat exchanger unit by way of a floor-level duct.
Method for producing Li-ion battery modules, which method comprises the following steps: arranging an elastically plastic device (F; F'; E) between at least two cells of a battery module; wherein the shape of the cells is prismatic, compressing the at least two cells of the battery module and the elastic plastic device (F; F'; E), which is arranged between the at least two cells, in a displacement-controlled manner, wherein the displacement-controlled compression takes place along a prespecified path up to a defined end point, and a longitudinal direction of the battery module and the prespecified path are arranged parallel in relation to one another. arranging an elastically plastic device (F; F'; E) between at least two cells of a battery module; wherein the shape of the cells is prismatic, compressing the at least two cells of the battery module and the elastic plastic device (F; F'; E), which is arranged between the at least two cells, in a displacement-controlled manner, wherein the displacement-controlled compression takes place along a prespecified path up to a defined end point, and a longitudinal direction of the battery module and the prespecified path are arranged parallel in relation to one another.
A device for biological analysis by electro-optical measurements on a fluid in a measurement tank, this device comprising at least two light sources (121, 131) adapted to emit in different spectral areas respectively appropriate for measurement of absorption and fluorescence, a device for measuring the impedance associated with each absorption and fluorescence measurement, and a shared sensor device comprising a sensor, an optical system, and filter means, which three elements are mutualized to enable absorption and/or fluorescence to be measured, the internal gain of the sensor being configurable to enable the fluorescence and absorption measurements to be executed sequentially.
A method that facilitates transmitting low-density parity-check. LDPC, encoded data, the method comprising generating an LDPC code, the LDPC code comprising a core LDPC graph including one or more core degree 2 variable nodes in an accumulate structure represented as dual-diagonal parity check matrix form, mapping bits of data to nodes of the LDPC code tc encode the data, and transmitting the LDPC encoded data as a hybrid automatic repeat-request, HARQ, transmission, and characterized by further comprising: incrementing a number of nodes in the LDPC code to enhance decodability based on a selected incrementing scheme, wherein the incrementing comprises adding one or more core degree 2 variable nodes to the accumulate structure of the LDPC code by extending the dual-diagonal parity check matrix and splitting a corresponding number of existing constraint nodes into two constraint nodes; mapping bits of data to the incremented LDPC code to encode the data; transmitting the incremented LDPC encoded data as a HARQ transmission. incrementing a number of nodes in the LDPC code to enhance decodability based on a selected incrementing scheme, wherein the incrementing comprises adding one or more core degree 2 variable nodes to the accumulate structure of the LDPC code by extending the dual-diagonal parity check matrix and splitting a corresponding number of existing constraint nodes into two constraint nodes; mapping bits of data to the incremented LDPC code to encode the data; transmitting the incremented LDPC encoded data as a HARQ transmission.