mhurhangee/ep-ind-claims huggingface dataset:
A method of decoding video data, the method comprising: determining that a geometric partition mode is enabled for a current block of the video data; determining a split line dividing the current block into a first partition and a second partition, wherein determining the split line comprises selecting an angle for the split line from a plurality of angles, each angle of the plurality of angles corresponding to an N:M ratio of samples of the current block, wherein N and M are integers, and wherein the split line is not at a corner of the current block; determining geometric mode weights for the current block using the angle of the split line; generating a first prediction block using motion information for the first partition; generating a second prediction block using motion information for the second partition; applying the geometric partition mode weights to samples of the first prediction block and to samples of the second prediction block to determine a final prediction block for the current block; decoding a residual block for the current block; and combining the final prediction block and the residual block to decode the current block. determining that a geometric partition mode is enabled for a current block of the video data; determining a split line dividing the current block into a first partition and a second partition, wherein determining the split line comprises selecting an angle for the split line from a plurality of angles, each angle of the plurality of angles corresponding to an N:M ratio of samples of the current block, wherein N and M are integers, and wherein the split line is not at a corner of the current block; determining geometric mode weights for the current block using the angle of the split line; generating a first prediction block using motion information for the first partition; generating a second prediction block using motion information for the second partition; applying the geometric partition mode weights to samples of the first prediction block and to samples of the second prediction block to determine a final prediction block for the current block; decoding a residual block for the current block; and combining the final prediction block and the residual block to decode the current block.
Electronic board comprising a printed circuit, a power supply device, a microcontroller supplied with electricity by the power supply device and a first communication means which is able to communicate by radiofrequency in a first frequency band, the power supply device, the microcontroller and the first communication means being arranged on the printed circuit, the electronic board comprising a second communication means which is able to communicate by radiofrequency in a second frequency band which is distinct and/or disjoint from the first frequency band, characterized in that the printed circuit comprises a first outer conductive layer, a second outer conductive layer and at least one inner conductive layer (26, 28), preferably at least two inner conductive layers (26, 28), which is/are arranged between the first outer conductive layer and the second outer conductive layer, the printed circuit further comprising a first outer dielectric layer which is positioned between the first outer conductive layer and the inner conductive layer (26, 28) or the inner conductive layer which is adjacent to the first outer conductive layer, a second outer dielectric layer which is positioned between the second outer conductive layer and the inner conductive layer (26, 28) or the inner conductive layer which is adjacent to the second outer conductive layer, and at least one inner dielectric layer which is positioned between two adjacent inner conductive layers (26, 28), the power supply device, the microcontroller and the communication device being arranged on the first outer conductive layer and/or on the second outer conductive layer, in that the first outer conductive layer, the second outer conductive layer and the one or more inner conductive layers (26, 28) have a first thickness, the first outer dielectric layer and the second outer dielectric layer having a second thickness, the one or more inner dielectric layers having a third thickness, the first thickness being less than the second thickness and the third thickness being greater than the second thickness, and in that the first thickness corresponds to a thickness between 25 μm and 35 μm, preferably about 30 μm, the second thickness corresponds to a thickness between 60 μm and 70 μm, preferably about 62 μm and the third thickness corresponds to a thickness between 250 μm and 800 μm, preferably about 500 μm.
A skin-lightening cosmetic composition comprising cosmetic auxiliaries and a combinatory unit consisting of 0.01 to 0.5 % by weight of ground white jade stone with an average particle size D 50 of 5-10 μm; arbutin in the range from 0.1 to 1.0 % by weight; a lotus flower extract in the range from 0.5 to 1.5 % by weight, obtained at 12-30°C using a polyvalent alcohol; a kumquat fruit extract in the range from 0.1 to 2.5 % by weight, obtained at 12-35°C from the fruits including the skin using a polyvalent alcohol; and Dimethylmethoxy Chroman Palmitate in the range from 0.01 to 0.1 % by weight, each relative to the total weight of the cosmetic composition.
A therapy device (104, 204, 304) for instillation of fluid to a tissue site, comprising: a base having a cartridge receptacle; a support coupled to the base to secure the base to a pole; a solution cartridge (114, 214, 314) comprising: a body forming at least a portion of a fluid reservoir; and a tube segment coupled to the body and in fluid communication with the fluid reservoir, the tube segment configured to engage a pump head (128, 236, 374) of a therapy device for movement of fluid from the fluid reservoir, a load cell segment fluidly coupled to the tube segment between the tube segment and the fluid reservoir, wherein the cartridge (114, 214, 314) is configured to engage the base when positioned in the cartridge receptacle; a sensor coupled to the base and configured to communicatively couple to the load cell segment if the cartridge is disposed in the cartridge receptacle; a pump head (128, 236, 374) disposed within the cartridge receptacle and configured to engage the cartridge (114, 214, 314) for movement of fluid, wherein fluid flow through the load cell segment exerts a force on the load cell segment that generates a corresponding signal in the sensor, and the therapy device (104, 204, 304) determines if there is fluid in the fluid reservoir. a base having a cartridge receptacle; a support coupled to the base to secure the base to a pole; a solution cartridge (114, 214, 314) comprising: a body forming at least a portion of a fluid reservoir; and a tube segment coupled to the body and in fluid communication with the fluid reservoir, the tube segment configured to engage a pump head (128, 236, 374) of a therapy device for movement of fluid from the fluid reservoir, a load cell segment fluidly coupled to the tube segment between the tube segment and the fluid reservoir, a body forming at least a portion of a fluid reservoir; and a tube segment coupled to the body and in fluid communication with the fluid reservoir, the tube segment configured to engage a pump head (128, 236, 374) of a therapy device for movement of fluid from the fluid reservoir, a load cell segment fluidly coupled to the tube segment between the tube segment and the fluid reservoir, wherein the cartridge (114, 214, 314) is configured to engage the base when positioned in the cartridge receptacle; a sensor coupled to the base and configured to communicatively couple to the load cell segment if the cartridge is disposed in the cartridge receptacle; a pump head (128, 236, 374) disposed within the cartridge receptacle and configured to engage the cartridge (114, 214, 314) for movement of fluid, wherein fluid flow through the load cell segment exerts a force on the load cell segment that generates a corresponding signal in the sensor, and the therapy device (104, 204, 304) determines if there is fluid in the fluid reservoir.
Valve for a steam turbine, having a housing arrangement (110, 120) with an inlet and with a first outlet, a first valve element, and a first compensation element, wherein the first valve element is arranged in the housing arrangement (110, 120) between the inlet and the first outlet in such a way that a fluid flow between the inlet and the first outlet is able to be controlled by the first valve element, wherein a first volume is defined between the inlet and the first valve element, wherein the first valve element separates the first volume from a second volume at the first outlet, wherein the first compensation element is arranged in the housing arrangement (110, 120) in such a way that the first volume is sealed off with respect to the second volume by means of at least one seal between the housing arrangement and the first compensation element, wherein the first compensation element and the first valve element are connected rigidly to one another via a valve shank, wherein the first compensation element and the first valve element are movably arranged in such a way that, during a movement of the first element and the first compensation element, the first volume and the second volume remain sealed off with respect to one another over the first compensation element, wherein the housing arrangement (110, 120) has a first inner housing and an outer housing, wherein the first inner housing is able to be arranged in the housing arrangement (110, 120) in such a way that the first inner housing separates the first volume and the second volume from one another, wherein the first inner housing has a first opening, wherein the first valve element is able to be arranged in the first opening, wherein the housing arrangement (110, 120) has a second opening, in which the first compensation element is arranged, wherein the first inner housing also has the second opening, characterized in that the housing arrangement (110, 120) also has a second inner housing, wherein the second inner housing is able to be arranged in the housing arrangement (110, 120) in such a way that the second inner housing separates the first volume and a fourth volume at a second outlet, wherein the valve also has a second valve element, and a second compensation element, wherein the second inner housing has a third opening and a fourth opening, wherein the second valve element is able to be arranged in the third opening, wherein the second compensation element is able to be arranged in the fourth opening, wherein the second compensation element and the second valve element are connected rigidly to one another via a further valve shank, and wherein the valve shank and the further valve shank are coupled so as to be movable relative to one another.
Hot-rolled, cold-rolled, annealed and temper rolled steel strip or sheet having a complex phase structure comprising one or more of ferrite, carbide free bainite, martensite and/or retained austenite in its microstructure comprising: - 0.16 - 0.25 wt.% C; - 1.50 - 4.00 wt.% Mn; - 5-50 ppm B; - 5 - 100 ppm N; - 0.001 - 1.10 wt.% Al_tot; - 0.05 - 1.10 wt.% Si; - 0 - 0.04 wt.% Ti; - 0 - 0.10 wt.% Cu; - 0 - 0.10 wt.% Mo; - 0 - 0.10 wt.% Ni; - 0 - 0.20 wt.% V; - 0 - 0.05 wt.% P; - 0 - 0.05 wt.% S; - 0 - 0.10 wt.% Sn; - 0 - 0.025 wt.% Nb - 0 - 0.025 wt.% Ca; remainder iron and inevitable impurities, wherein the steel strip or sheet after cold-rolling and annealing and temper rolling has a yield strength of at least 600 MPa and a tensile strength of at least 1200 MPa. - 0.16 - 0.25 wt.% C; - 1.50 - 4.00 wt.% Mn; - 5-50 ppm B; - 5 - 100 ppm N; - 0.001 - 1.10 wt.% Al_tot; - 0.05 - 1.10 wt.% Si; - 0 - 0.04 wt.% Ti; - 0 - 0.10 wt.% Cu; - 0 - 0.10 wt.% Mo; - 0 - 0.10 wt.% Ni; - 0 - 0.20 wt.% V; - 0 - 0.05 wt.% P; - 0 - 0.05 wt.% S; - 0 - 0.10 wt.% Sn; - 0 - 0.025 wt.% Nb - 0 - 0.025 wt.% Ca;
A device for retaining tendon to a bone, the device comprising: a first component comprising a first head portion and a shank portion extending from a lower side of the first head portion for insertion into and through the tendon and into the bone, the shank portion having a lower end positioned distal to the first head portion, and a threaded shaft portion extending from the lower end of the shank portion; a second component comprising a second head portion and a body portion extending from a lower side of the second head portion for insertion into the bone to a lower end of the body portion arranged distal to the second head portion, the body portion comprising an internally threaded bore extending into the body portion from the lower end thereof; wherein the bore of the body portion is configured to receive at least a portion of the threaded shaft portion such that the first component may be received by and coupled with the second component; wherein the lower side of the first head portion has a plurality of protrusions arranged about the shank portion; wherein the second head portion has a plurality of bone engagement features (25a-d) that allow the second component to be rotated in one direction to be threadedly received by and coupled with the first component but restrict rotation of the second component in an opposing direction and de-threading from the first component via gripping of the bone by the bone engagement features; and wherein the bone engagement features are tangs (25a-d) that radially project from an outer periphery of the second head portion. a first component comprising a first head portion and a shank portion extending from a lower side of the first head portion for insertion into and through the tendon and into the bone, the shank portion having a lower end positioned distal to the first head portion, and a threaded shaft portion extending from the lower end of the shank portion; a second component comprising a second head portion and a body portion extending from a lower side of the second head portion for insertion into the bone to a lower end of the body portion arranged distal to the second head portion, the body portion comprising an internally threaded bore extending into the body portion from the lower end thereof; wherein the bore of the body portion is configured to receive at least a portion of the threaded shaft portion such that the first component may be received by and coupled with the second component; wherein the lower side of the first head portion has a plurality of protrusions arranged about the shank portion; wherein the second head portion has a plurality of bone engagement features (25a-d) that allow the second component to be rotated in one direction to be threadedly received by and coupled with the first component but restrict rotation of the second component in an opposing direction and de-threading from the first component via gripping of the bone by the bone engagement features; and wherein the bone engagement features are tangs (25a-d) that radially project from an outer periphery of the second head portion.
A method for disseminating data in a navigation or communication system comprising several transmitters for signals, wherein a common frame structure is provided for the signals and each transmitter disseminates common data and transmitter-dedicated data through its broadcasted signal, and wherein the method comprises the following acts to be executed by each one of the transmitters: - receiving common data encoded with a first encoding scheme and an assignment scheme which determines an assignment of the encoded common data and encoded transmitter-dedicated data to frames of the common frame structure, wherein the common data and the assignment scheme are received from a common station of the navigation or communication system; - encoding transmitter-dedicated data onboard the transmitter with a second encoding scheme; - assigning the encoded common data to a number of first frames of the common frame structure and assigning the encoded transmitter-dedicated data to a number of second frames of the common frame structure according to the assignment scheme, wherein the second frames differ from the first frames; - assembling a signal to be transmitted from the number of first and second frames; and - transmitting the assembled signal. - receiving common data encoded with a first encoding scheme and an assignment scheme which determines an assignment of the encoded common data and encoded transmitter-dedicated data to frames of the common frame structure, wherein the common data and the assignment scheme are received from a common station of the navigation or communication system; - encoding transmitter-dedicated data onboard the transmitter with a second encoding scheme; - assigning the encoded common data to a number of first frames of the common frame structure and assigning the encoded transmitter-dedicated data to a number of second frames of the common frame structure according to the assignment scheme, wherein the second frames differ from the first frames; - assembling a signal to be transmitted from the number of first and second frames; and - transmitting the assembled signal.
An ultrasound imaging apparatus comprising: a controller configured to obtain an ultrasonic image of the heart at different angles and to derive a stereoscopic image; a display portion configured to display the ultrasonic image of the heart of an object, wherein the ultrasonic image is the stereoscopic image that three-dimensionally shows the heart; an input portion configured to receive a command for setting a region of interest of the displayed ultrasonic image of the heart; the controller being further configured to set the ROI of the ultrasonic image of the heart based on the command for setting the ROI input through the input portion and control at least one image of the set ROI and the ultrasonic image of the heart to be displayed together on the display portion, wherein the controller divides the display portion into at least two areas and controls the ultrasonic image of the heart and the at least one ROI image to be displayed in the divided areas, respectively. a display portion configured to display the ultrasonic image of the heart of an object, wherein the ultrasonic image is the stereoscopic image that three-dimensionally shows the heart; an input portion configured to receive a command for setting a region of interest of the displayed ultrasonic image of the heart; the controller being further configured to set the ROI of the ultrasonic image of the heart based on the command for setting the ROI input through the input portion and control at least one image of the set ROI and the ultrasonic image of the heart to be displayed together on the display portion, wherein the controller divides the display portion into at least two areas and controls the ultrasonic image of the heart and the at least one ROI image to be displayed in the divided areas, respectively.
A method of preparing a dispersion of a carbon-based material, comprising: exposing carbon-based material selected from the group consisting of multi-walled carbon nanotubes, graphene, and graphene nanoplatelets to an atmosphere comprising between 0.5% v/v and 5.0% v/v of oxygen at an oxidation temperature between 350°C and 425°C for a period of exposure between 10 minutes and 2 hours to obtain a thermally oxidized material; and dispersing the thermally oxidized material in a polar liquid medium. exposing carbon-based material selected from the group consisting of multi-walled carbon nanotubes, graphene, and graphene nanoplatelets to an atmosphere comprising between 0.5% v/v and 5.0% v/v of oxygen at an oxidation temperature between 350°C and 425°C for a period of exposure between 10 minutes and 2 hours to obtain a thermally oxidized material; and dispersing the thermally oxidized material in a polar liquid medium.
Device for programming a programmable projectile in the region of the muzzle of a barrelled weapon with at least one programming coil, characterized in that a measuring device (10, 10'), which detects the fields and/or signals emerging/originating from the programming coil, is incorporated and is electrically connected to an evaluation device, which evaluates these detected values.
A system for a three-dimensional (3-D) user interface (300, 400, 500), the system comprising: a three-dimensional (3-D) projector configured to display images in a 3-D coordinate system; a processor; wherein the system is characterised by: four laser sensors (320a-d) configured to sense user interaction within the 3-D coordinate system, wherein the four laser sensors (320a-d) are configured to provide data to triangulate a point of user interaction within the 3-D coordinate system; and wherein the processor is configured to receive user interaction information from the four laser sensors (320a-d), and to correlate user interaction with images in the 3-D coordinate system. a three-dimensional (3-D) projector configured to display images in a 3-D coordinate system; a processor; wherein the system is characterised by: four laser sensors (320a-d) configured to sense user interaction within the 3-D coordinate system, wherein the four laser sensors (320a-d) are configured to provide data to triangulate a point of user interaction within the 3-D coordinate system; and wherein the processor is configured to receive user interaction information from the four laser sensors (320a-d), and to correlate user interaction with images in the 3-D coordinate system. four laser sensors (320a-d) configured to sense user interaction within the 3-D coordinate system, wherein the four laser sensors (320a-d) are configured to provide data to triangulate a point of user interaction within the 3-D coordinate system; and wherein the processor is configured to receive user interaction information from the four laser sensors (320a-d), and to correlate user interaction with images in the 3-D coordinate system.