mhurhangee/ep-ind-claims huggingface dataset:
A method for sending multimedia content for display on a web page in a client (220; 310,320; 410,415) -server (205b; 305,335; 405) system in a network, the web page being rendered on a web browser provided on a client device, wherein the multimedia content comprises a plurality of image objects originating from a web server, the method comprising: in a first step, sending a first predetermined portion of each of the plurality of image objects from the server (205b; 305,335; 405) through the network, and after sending the first predetermined portion of each of the plurality of image objects, successively sending subsequent predetermined portions of each of the plurality of image objects, characterised in the first predetermined portion for at least one of the plurality of image objects being reconstructable to produce an image at a lower quality level than a quality of the image reconstructable from the complete image object; and the subsequent predetermined portions for the at least one of the plurality of image objects comprising image refinement data at a progressively higher quality level. in a first step, sending a first predetermined portion of each of the plurality of image objects from the server (205b; 305,335; 405) through the network, and after sending the first predetermined portion of each of the plurality of image objects, successively sending subsequent predetermined portions of each of the plurality of image objects, characterised in the first predetermined portion for at least one of the plurality of image objects being reconstructable to produce an image at a lower quality level than a quality of the image reconstructable from the complete image object; and the subsequent predetermined portions for the at least one of the plurality of image objects comprising image refinement data at a progressively higher quality level.
Rotor blade for a turbomachine, in particular a compressor or turbine stage of a gas turbine, in particular of an aircraft engine, comprising an airfoil for flow deflection having a pressure side and a suction side that are connected by a front and rear edge (12, 13), wherein a stacking axis of the airfoil, in the radial direction over a radius r from an airfoil base where r = 0 to an airfoil tip where r = H, • has, in a first downstream direction perpendicularly to the radial direction and in parallel with a main machine axis of the turbomachine, a curve x(r) which deviates from a superposition curve x l (r) + x s (r) that is composed of an addition of an in particular positive linear curve x l (r) = a x ·(r/H + b x) and a local sine function x s r = { A ⋅ sin B ⋅ r H + C + 1 ⇔ − π 2 ≤ B ⋅ r H + C ≤ 3 ⋅ π 2 0 ⇔ otherwise at least in a radial range between r = 0.200·H and r = 0.400·H by at most 0.100·a x ·(1 + b x); and • has, in a second direction perpendicularly to the radial direction and the first direction, a curve y(r) which deviates from an in particular negative linear curve a y ·(r/H + b y) at least in the radial range between r = 0.200·H and r = 0.400·H by at most 0.100·a y ·(1 + b y), wherein the following applies: A < 0; and 1.800 · π ≤ B ≤ 2.200 · π or 6.300 · π ≤ B ≤ 7.000 · π; and -0.300 ≤ C ≤ -0.200 or -0.100 ≤ C ≤ -0.050; and 0 <a x; and a y < 0, a x ≤ 0.036·H; and -0.100 ≤ b x ≤ 0.100; and -0.006·H ≤ a y; and -0.100 ≤ b y ≤ 0.100; and -0.005·H ≤ A. • has, in a first downstream direction perpendicularly to the radial direction and in parallel with a main machine axis of the turbomachine, a curve x(r) which deviates from a superposition curve x l (r) + x s (r) that is composed of an addition of an in particular positive linear curve x l (r) = a x ·(r/H + b x) and a local sine function x s r = { A ⋅ sin B ⋅ r H + C + 1 ⇔ − π 2 ≤ B ⋅ r H + C ≤ 3 ⋅ π 2 0 ⇔ otherwise at least in a radial range between r = 0.200·H and r = 0.400·H by at most 0.100·a x ·(1 + b x); and • has, in a second direction perpendicularly to the radial direction and the first direction, a curve y(r) which deviates from an in particular negative linear curve a y ·(r/H + b y) at least in the radial range between r = 0.200·H and r = 0.400·H by at most 0.100·a y ·(1 + b y), wherein the following applies: A < 0; and 1.800 · π ≤ B ≤ 2.200 · π or 6.300 · π ≤ B ≤ 7.000 · π; and -0.300 ≤ C ≤ -0.200 or -0.100 ≤ C ≤ -0.050; and 0 <a x; and a y < 0, a x ≤ 0.036·H; and -0.100 ≤ b x ≤ 0.100; and -0.006·H ≤ a y; and -0.100 ≤ b y ≤ 0.100; and -0.005·H ≤ A. A < 0; and 1.800 · π ≤ B ≤ 2.200 · π or 6.300 · π ≤ B ≤ 7.000 · π; and -0.300 ≤ C ≤ -0.200 or -0.100 ≤ C ≤ -0.050; and 0 <a x; and a y < 0, a x ≤ 0.036·H; and -0.100 ≤ b x ≤ 0.100; and -0.006·H ≤ a y; and -0.100 ≤ b y ≤ 0.100; and -0.005·H ≤ A.
A light deflector, comprising: a fixing portion (19, 21); and a movable portion including a mirror portion for deflecting light by swinging about a predetermined swing axis, a torsion bar fixedly supported on the fixing portion and having an axis serving as the swing axis, and a supporting body configured to support the mirror portion and fixed to the torsion bar; wherein: the supporting body includes a hole portion through which the axis passes; and a mass body for adjusting a resonant frequency of the movable portion is arranged in the hole portion. a fixing portion (19, 21); and a movable portion including a mirror portion for deflecting light by swinging about a predetermined swing axis, a torsion bar fixedly supported on the fixing portion and having an axis serving as the swing axis, and a supporting body configured to support the mirror portion and fixed to the torsion bar; wherein: the supporting body includes a hole portion through which the axis passes; and a mass body for adjusting a resonant frequency of the movable portion is arranged in the hole portion. the supporting body includes a hole portion through which the axis passes; and a mass body for adjusting a resonant frequency of the movable portion is arranged in the hole portion.
An electrochemical well pipe cutting instrument, applicable in particular for cutting any type of metal pipes accessing underground works with conductive fluid inside, and which is an instrument that cuts by means of an electrochemical process, comprising • at least means for ensuring electrical continuity • at least one electrode • at least means for ensuring mechanical fixation of the instrument in the pipe characterized in that the means for ensuring electrical continuity are also the means for ensuring mechanical fixation, said means are constituted by a plurality of anchors articulated and arranged radially at the same level, the anchors being adapted to open to reach the inner wall of the pipe for fixing the instrument in the pipe. • at least means for ensuring electrical continuity • at least one electrode • at least means for ensuring mechanical fixation of the instrument in the pipe
A device for rendering an image in a graphics processing system, the image being divided into a plurality of tiles, each tile having equal size and corresponding several display pixels, the device being configured to, for at least some of the tiles: calculate (Step 901), for a tile, in dependence on the prominence of the tile, a sampling density for the respective tile; determine (Step 902), for each of a set of rendering pixels overlapping the tile, a set of one or more shading samples, each shading sample representing a shade at a respective location on the tile and the locations collectively having the calculated sampling density in the rendering pixel; determine (Step 903), in dependence on the shading sample(s) of a rendering pixel, one or more pixel shade values for display pixels overlapping that rendered pixel; characterized in that the device is further configured to determine the sampling density of the tile based on a scale down factor which depends on the prominence of the tile; wherein the device is configured to calculate the scale down factor so that for the tile located at the center area of the lens, the scale down factor is set to 1.0, whereas for less prominent tiles a smaller scale down factor is calculated that is less than 1.0 based on the respective tile's distance to the foveal area and based on a lens distortion map of a virtual reality lens via 2D texture sampling at the respective tile's location. calculate (Step 901), for a tile, in dependence on the prominence of the tile, a sampling density for the respective tile; determine (Step 902), for each of a set of rendering pixels overlapping the tile, a set of one or more shading samples, each shading sample representing a shade at a respective location on the tile and the locations collectively having the calculated sampling density in the rendering pixel; determine (Step 903), in dependence on the shading sample(s) of a rendering pixel, one or more pixel shade values for display pixels overlapping that rendered pixel; characterized in that the device is further configured to determine the sampling density of the tile based on a scale down factor which depends on the prominence of the tile; wherein the device is configured to calculate the scale down factor so that for the tile located at the center area of the lens, the scale down factor is set to 1.0, whereas for less prominent tiles a smaller scale down factor is calculated that is less than 1.0 based on the respective tile's distance to the foveal area and based on a lens distortion map of a virtual reality lens via 2D texture sampling at the respective tile's location.
A method of flying a fly-by-wire aircraft, comprising: flying the aircraft in a proportional ground control mode using a control interface of the aircraft; characterised by: activating a trim follow up function at the control interface while flying the aircraft in the proportional ground control mode, and transitioning, with the trim follow up function activated, from the proportional ground control mode into a model following controls mode, wherein activating the trim follow up function feeds an input from a control device of the aircraft to at least one integrator and maintains the control device of the aircraft in a detent position during the transition from the proportional ground control mode to the model following controls mode. flying the aircraft in a proportional ground control mode using a control interface of the aircraft; characterised by: activating a trim follow up function at the control interface while flying the aircraft in the proportional ground control mode, and transitioning, with the trim follow up function activated, from the proportional ground control mode into a model following controls mode, wherein activating the trim follow up function feeds an input from a control device of the aircraft to at least one integrator and maintains the control device of the aircraft in a detent position during the transition from the proportional ground control mode to the model following controls mode. activating a trim follow up function at the control interface while flying the aircraft in the proportional ground control mode, and transitioning, with the trim follow up function activated, from the proportional ground control mode into a model following controls mode, wherein activating the trim follow up function feeds an input from a control device of the aircraft to at least one integrator and maintains the control device of the aircraft in a detent position during the transition from the proportional ground control mode to the model following controls mode.
A discrete pressure sensor, comprising a detection circuit, a pressure sensing chip and a force concentration sensing board component that is bonded onto the pressure sensing chip, wherein the detection circuit is electrically connected to the pressure sensing chip; the pressure sensing chip comprises a substrate and a sensing component disposed on the substrate, wherein the sensing component is disposed in alignment with a hollowed area; the force concentration sensing board component has the hollowed area and cantilever structures, the hollowed area comprises a force concentration position and a plurality of cutout portions extending toward the force concentration position from the force concentration sensing board component, and one end of each of the plurality of cutout portions intersects at the force concentration position; the cantilever structures are configured to concentrate a pressing force applied on the cantilever structures of the force sensing board component toward the force concentration position, and the force concentration position is disposed against the pressure sensing chip, the cantilever structures are formed by portions of the force concentration sensing board component that are defined by two adjacent cutout portions, an end of each of the portions is fixed to the force concentration sensing board component. wherein the detection circuit is electrically connected to the pressure sensing chip; the pressure sensing chip comprises a substrate and a sensing component disposed on the substrate, wherein the sensing component is disposed in alignment with a hollowed area; the force concentration sensing board component has the hollowed area and cantilever structures, the hollowed area comprises a force concentration position and a plurality of cutout portions extending toward the force concentration position from the force concentration sensing board component, and one end of each of the plurality of cutout portions intersects at the force concentration position; the cantilever structures are configured to concentrate a pressing force applied on the cantilever structures of the force sensing board component toward the force concentration position, and the force concentration position is disposed against the pressure sensing chip, the cantilever structures are formed by portions of the force concentration sensing board component that are defined by two adjacent cutout portions, an end of each of the portions is fixed to the force concentration sensing board component.
Parking brake system (100, 120, 130) for a vehicle, having a first axle parking brake device which is provided for a first vehicle axle, and a second axle parking brake device which is provided for a second vehicle axle, characterized by at least one parking brake valve (7, 7a) which is coupled to the first and/or second axle parking brake device (5, 27) in such a way that the first and/or second axle parking brake device (5, 27) can be released selectively in the case of an activated parking brake system (100, 120, 130).
A resin composition, comprising: an ethylene-vinyl ester copolymer saponified product; and fatty acid metal salts, wherein the fatty acid metal salts comprise at least two fatty acid metal salts selected from the group consisting of a fatty acid metal salt having 3 to 12 carbon atoms, a fatty acid metal salt having 13 to 20 carbon atoms, and a fatty acid metal salt having 21 to 29 carbon atoms, and wherein the all of the fatty acid metal salts selected from the fatty acid metal salts,, and are a zinc salt, and wherein a total content of the zinc salt is from 0.0007 parts by weight to 0.025 parts by weight with respect to 100 parts by weight of the ethylene-vinyl ester copolymer saponified product in terms of a metal. an ethylene-vinyl ester copolymer saponified product; and fatty acid metal salts, wherein the fatty acid metal salts comprise at least two fatty acid metal salts selected from the group consisting of a fatty acid metal salt having 3 to 12 carbon atoms, a fatty acid metal salt having 13 to 20 carbon atoms, and a fatty acid metal salt having 21 to 29 carbon atoms, and wherein the all of the fatty acid metal salts selected from the fatty acid metal salts,, and are a zinc salt, and wherein a total content of the zinc salt is from 0.0007 parts by weight to 0.025 parts by weight with respect to 100 parts by weight of the ethylene-vinyl ester copolymer saponified product in terms of a metal.
A diaphragm metering pump comprising: a pump body having a head portion including a suction side and a discharge side defining a flow path from a fluid source to a fluid destination, wherein the discharge side comprises an outlet including a valve seat arranged at the discharge side and a check valve arranged at the valve seat; and a degassing system including a check valve actuator operatively connected to the check valve, the check valve actuator being selectively activated to unseat the check valve from the valve seat to allow the gases trapped in the head portion to pass through the discharge side; and wherein the gases and all liquid passing through the discharge side are passed from the outlet to the fluid destination. a pump body having a head portion including a suction side and a discharge side defining a flow path from a fluid source to a fluid destination, wherein the discharge side comprises an outlet including a valve seat arranged at the discharge side and a check valve arranged at the valve seat; and a degassing system including a check valve actuator operatively connected to the check valve, the check valve actuator being selectively activated to unseat the check valve from the valve seat to allow the gases trapped in the head portion to pass through the discharge side; and wherein the gases and all liquid passing through the discharge side are passed from the outlet to the fluid destination.
A method for upgrading firmware, for use in a device comprising a first chip and a second chip, wherein the method comprises: when it is determined that firmware of the first chip needs to be upgraded, identifying a first partition of a flash memory in a second chip, said first partition being configured to be used for downloading firmware of the second chip, wherein said first chip is a WIFI, Wireless Fidelity, chip or a Bluetooth chip and wherein the second chip is a Micro Control Unit chip; downloading new firmware of the first chip to the first partition of the second chip; and copying the new firmware of the first chip from the first partition of the second chip to an effective position in the first chip and to overwrite the firmware to be upgraded of the first chip; wherein said identifying a first partition of a flash memory in a second chip comprises: acquiring partition information of the second chip, said partition information indicating the position of where said first partition is located in the flash memory of the second chip; and identifying the first partition of the flash memory in the second chip, configured to be used as a backup partition for downloading firmware, according to the partition information. when it is determined that firmware of the first chip needs to be upgraded, identifying a first partition of a flash memory in a second chip, said first partition being configured to be used for downloading firmware of the second chip, wherein said first chip is a WIFI, Wireless Fidelity, chip or a Bluetooth chip and wherein the second chip is a Micro Control Unit chip; downloading new firmware of the first chip to the first partition of the second chip; and copying the new firmware of the first chip from the first partition of the second chip to an effective position in the first chip and to overwrite the firmware to be upgraded of the first chip; wherein said identifying a first partition of a flash memory in a second chip comprises: acquiring partition information of the second chip, said partition information indicating the position of where said first partition is located in the flash memory of the second chip; and identifying the first partition of the flash memory in the second chip, configured to be used as a backup partition for downloading firmware, according to the partition information. acquiring partition information of the second chip, said partition information indicating the position of where said first partition is located in the flash memory of the second chip; and identifying the first partition of the flash memory in the second chip, configured to be used as a backup partition for downloading firmware, according to the partition information.
A method of making a halogenated partially fluorinated compound, the method comprising: (a) providing a compound having the following structure of formula: R f -CF=CXY wherein X and Y are independently selected from F and Cl; wherein R f is a fluorinated monovalent group comprising 1 to 10 carbon atoms and optionally at least one catenated oxygen atom; (b) contacting the compound with at least one of (i) an iodine or bromine containing salt in the presence of an acid, wherein the iodine or bromine containing salt is of the formula Z i M i+, wherein Z is selected from I and Br, and M is a counter ion with a valency of i in the range of from 1 to 2; and (ii) aqueous solution of HZ wherein Z is selected from I and Br to form the halogenated partially fluorinated compound of the formula: R' f -CFH-CXYZ wherein X and Y are independently selected from F and Cl; Z is selected from I and Br; and R' f is a fluorinated monovalent group comprising 1 to 10 carbon atoms and optionally at least one catenated oxygen atom. (a) providing a compound having the following structure of formula: R f -CF=CXY wherein X and Y are independently selected from F and Cl; wherein R f is a fluorinated monovalent group comprising 1 to 10 carbon atoms and optionally at least one catenated oxygen atom; (b) contacting the compound with at least one of (i) an iodine or bromine containing salt in the presence of an acid, wherein the iodine or bromine containing salt is of the formula Z i M i+, wherein Z is selected from I and Br, and M is a counter ion with a valency of i in the range of from 1 to 2; and (ii) aqueous solution of HZ wherein Z is selected from I and Br to form the halogenated partially fluorinated compound of the formula: R' f -CFH-CXYZ wherein X and Y are independently selected from F and Cl; Z is selected from I and Br; and R' f is a fluorinated monovalent group comprising 1 to 10 carbon atoms and optionally at least one catenated oxygen atom. (i) an iodine or bromine containing salt in the presence of an acid, wherein the iodine or bromine containing salt is of the formula Z i M i+, wherein Z is selected from I and Br, and M is a counter ion with a valency of i in the range of from 1 to 2; and (ii) aqueous solution of HZ wherein Z is selected from I and Br to form the halogenated partially fluorinated compound of the formula: R' f -CFH-CXYZ wherein X and Y are independently selected from F and Cl; Z is selected from I and Br; and R' f is a fluorinated monovalent group comprising 1 to 10 carbon atoms and optionally at least one catenated oxygen atom.
Dry-running solenoid valve for injecting a gaseous fuel into a combustion chamber or a prechamber of an internal combustion engine, with a valve housing, in which an electric coil and a magnet armature are arranged, and with a valve element that can be actuated by the magnet armature in an axial actuation direction for opening and closing the solenoid valve, wherein the coil generates a magnetic flux, when the solenoid valve is actuated, which flux flows via a magnetically conductive valve housing outer wall of the valve housing to the magnet armature, wherein a magnetically conductive flux element is provided in the valve housing, which flux element introduces at least 80%, preferably at least 90%, and particularly preferably 100%, of the magnetic flux flowing over the valve housing outer wall into an armature end face, facing the coil, of the magnet armature, characterized in that the flux element has a higher magnetic conductivity than the valve housing outer wall.