mhurhangee/ep-ind-claims huggingface dataset:
A drop box assembly for pole mounting comprising: - a drop box having entrances for optical drop cables and exits for optical distribution cables; - a drop box holding part comprising a plate and two opposed wings departing from the plate for embracing a generically cylindrical support member, - cooperating engagement elements ( 610,515) provided on the drop box and the drop box holding part for mechanically coupling the drop box to the drop box holding part, characterized in that the cooperating engagement elements ( 610,515) comprising at least one insertion slot formed on the drop box, and a corresponding insertion member formed on the drop box holding part, the insertion member being adapted to fit in the insertion slot, the cooperating engaging elements comprise a pair of parallel insertion slots extending longitudinally in side walls from a rear wall of the drop box towards the front of the drop box. - a drop box having entrances for optical drop cables and exits for optical distribution cables; - a drop box holding part comprising a plate and two opposed wings departing from the plate for embracing a generically cylindrical support member, - cooperating engagement elements ( 610,515) provided on the drop box and the drop box holding part for mechanically coupling the drop box to the drop box holding part, characterized in that the cooperating engagement elements ( 610,515) comprising at least one insertion slot formed on the drop box, and a corresponding insertion member formed on the drop box holding part, the insertion member being adapted to fit in the insertion slot, the cooperating engaging elements comprise a pair of parallel insertion slots extending longitudinally in side walls from a rear wall of the drop box towards the front of the drop box.
An apparatus for fatigue testing a wind turbine blade, the apparatus comprising: a base for supporting a first end of the wind turbine blade such that the longitudinal axis and the edgewise direction of the blade are both substantially horizontal; and an edgewise actuator assembly comprising a ground supported edgewise actuator and characterized in that the edgewise actuator assembly further comprises a flexible cable assembly for connecting the edgewise actuator to the blade, wherein the edgewise actuator and the flexible cable assembly are adapted to cyclically deflect the blade relative to the base in the edgewise direction by repeatedly pulling the blade in a substantially horizontal direction. a base for supporting a first end of the wind turbine blade such that the longitudinal axis and the edgewise direction of the blade are both substantially horizontal; and an edgewise actuator assembly comprising a ground supported edgewise actuator and characterized in that the edgewise actuator assembly further comprises a flexible cable assembly for connecting the edgewise actuator to the blade, wherein the edgewise actuator and the flexible cable assembly are adapted to cyclically deflect the blade relative to the base in the edgewise direction by repeatedly pulling the blade in a substantially horizontal direction.
A method of presenting augmented-reality limbs to a user, the method comprising acts, which are performed by a processor, the method comprising the said acts of: obtaining activity information comprising information related to augmented-reality anatomical feature information; obtaining user information comprising information related to one or more of the anatomy or physiology of the user; obtaining an image sequence of the user; tracking from the image sequence selected body parts (SBPs) of the user corresponding with the AR anatomical feature information; determining one or more augmented-reality limb (ARLs) corresponding to the tracked SBPs using the AI and the user information; determining expected range of motion (EROM) information in accordance with the AI and the user information; and rendering the one or more ARLs in relation with one or more tracked SBPs of the user, wherein the rendering comprises animating the one or more ARLs in accordance with the EROM information, and wherein the rendering comprises superimposing the ARLs upon the one or more tracked SBPs from the image sequence of the user so that the ARLs appear attached to the user, the ARLs being scaled in relation to the one or more tracked SBPs of the user. obtaining activity information comprising information related to augmented-reality anatomical feature information; obtaining user information comprising information related to one or more of the anatomy or physiology of the user; obtaining an image sequence of the user; tracking from the image sequence selected body parts (SBPs) of the user corresponding with the AR anatomical feature information; determining one or more augmented-reality limb (ARLs) corresponding to the tracked SBPs using the AI and the user information; determining expected range of motion (EROM) information in accordance with the AI and the user information; and rendering the one or more ARLs in relation with one or more tracked SBPs of the user, wherein the rendering comprises animating the one or more ARLs in accordance with the EROM information, and wherein the rendering comprises superimposing the ARLs upon the one or more tracked SBPs from the image sequence of the user so that the ARLs appear attached to the user, the ARLs being scaled in relation to the one or more tracked SBPs of the user.
A method for processing data for a display including pixels, each pixel having color sub-pixels, the method comprising: receiving pixel data wherein the pixel data includes sampled data including a plurality of first data values, each of the first data values representing each data point of each color in the image; applying gamma adjustment to a conversion from the pixel data to sub-pixel rendered data, the conversion generating the sub-pixel rendered data for a sub-pixel arrangement including alternating red and green sub-pixels on at least one of a horizontal and vertical axis, wherein applying gamma adjustment comprises: performing gamma correction on said each of the first data values in the sampled data to generate gamma-corrected data; and calculating the sub-pixel rendered data including a plurality of second data values based on the gamma-corrected data, each of the second data values corresponding to each sub-pixel element of each color on the display; performing post-gamma correction on the sub-pixel rendered data, the post-gamma correction compensating a gamma function with which the display is equipped; and outputting the post-gamma corrected sub-pixel rendered data. receiving pixel data wherein the pixel data includes sampled data including a plurality of first data values, each of the first data values representing each data point of each color in the image; applying gamma adjustment to a conversion from the pixel data to sub-pixel rendered data, the conversion generating the sub-pixel rendered data for a sub-pixel arrangement including alternating red and green sub-pixels on at least one of a horizontal and vertical axis, wherein applying gamma adjustment comprises: performing gamma correction on said each of the first data values in the sampled data to generate gamma-corrected data; and calculating the sub-pixel rendered data including a plurality of second data values based on the gamma-corrected data, each of the second data values corresponding to each sub-pixel element of each color on the display; performing gamma correction on said each of the first data values in the sampled data to generate gamma-corrected data; and calculating the sub-pixel rendered data including a plurality of second data values based on the gamma-corrected data, each of the second data values corresponding to each sub-pixel element of each color on the display; performing post-gamma correction on the sub-pixel rendered data, the post-gamma correction compensating a gamma function with which the display is equipped; and outputting the post-gamma corrected sub-pixel rendered data.
Use of Lactobacillus plantarum, or Pediococcus acidilactici, in a method for reducing immunoreactivity of a food, the method comprising: (a) incubating a food comprising at least one protein with a cross-linking enzyme to form a food comprising at least one cross-linked protein; and (b) hydrolyzing the food comprising the at least one cross-linked protein with a microorganism for about two hours to form a modified food comprising a hydrolysate of the at least one cross-linked protein, wherein (a) is performed before (b), wherein the microorganism is Lactobacillus plantarum, or Pediococcus acidilactici, wherein the food is selected from the group consisting of milk, eggs, fish, shellfish, peanuts, tree nuts, wheat, corn, beef, chicken and lamb, and wherein a level of immunoreactivity of the modified food is less than a level of immunoreactivity of an unmodified food comprising the at least one protein. (a) incubating a food comprising at least one protein with a cross-linking enzyme to form a food comprising at least one cross-linked protein; and (b) hydrolyzing the food comprising the at least one cross-linked protein with a microorganism for about two hours to form a modified food comprising a hydrolysate of the at least one cross-linked protein, wherein (a) is performed before (b), wherein the microorganism is Lactobacillus plantarum, or Pediococcus acidilactici, wherein the food is selected from the group consisting of milk, eggs, fish, shellfish, peanuts, tree nuts, wheat, corn, beef, chicken and lamb, and wherein a level of immunoreactivity of the modified food is less than a level of immunoreactivity of an unmodified food comprising the at least one protein.
Weft-feeder for weaving machines with yarn coil separation, of the type comprising: - an adjustable-diameter drum, comprising a few fixed sectors, for weft yarn winding, - moving sectors, arranged within said drum at each of said fixed sectors and causing, with their own movement, the cyclical displacement of the weft yarn coils wound on said drum, and - adjustment means of the radial position of the fixed sectors and of the moving sectors within a pre-set range, characterised in that it comprises a kinematic system (2, 3, 4) mutually connecting locking means of said fixed sectors and locking means of said moving sectors, the locking means of said fixed sectors and said moving sectors respectively lock said fixed sectors and said moving sectors into any desired position within said pre-set range, said kinematic system being free to angular rotations in any plane passing through the axis (a) of the shaft of the weft-feeder and torsionally and axially rigid respectively around and along said axis (a) and in that the locking means of said fixed sectors are connected to a first locking/unlocking servo control. - an adjustable-diameter drum, comprising a few fixed sectors, for weft yarn winding, - moving sectors, arranged within said drum at each of said fixed sectors and causing, with their own movement, the cyclical displacement of the weft yarn coils wound on said drum, and - adjustment means of the radial position of the fixed sectors and of the moving sectors within a pre-set range,
Method for detecting a misalignment of a first distance sensor, which is an ultrasonic sensor, of a motor vehicle by □ extracting a first detection feature from a first sensor signal of the first distance sensor, □ extracting a second detection feature from a second sensor signal of a second distance sensor, which is an ultrasonic sensor, wherein the two detection features are of the same type, and □ constructing misalignment information about the misalignment of the first distance sensor from a ratio of the first detection feature to the second detection feature, characterized in that the two detection features are each a number of echoes, a number of detected objects of a specified class, a shape of an envelope curve of the respective sensor signal, or a measure of signal noise. □ extracting a first detection feature from a first sensor signal of the first distance sensor, □ extracting a second detection feature from a second sensor signal of a second distance sensor, which is an ultrasonic sensor, wherein the two detection features are of the same type, and □ constructing misalignment information about the misalignment of the first distance sensor from a ratio of the first detection feature to the second detection feature,
A CVD single crystal diamond material which contains more than 3 x 10 15 atoms/cm 3 and less than 5 x 10 17 atoms/cm 3 N in single substitutional form as measured by electron paramagnetic resonance and which shows at least one of the following characteristics, when measured at room temperature (nominally 20°C): i) a low and uniform optical scatter such that for a sample of a specified thickness of at least 0.4 mm the forward scatter at 1.064 μm, measured in a manner described herein over a specified area of at least 1.3 mm x 1.3 mm, integrated over a solid angle from 3.5° to 87.5° from the transmitted beam, is less than 0.4%; ii) a low and uniform optical absorption such that a sample of a specified thickness of at least 0.5 mm has an optical absorption coefficient at a wavelength of 1.06 μm of less than 0.09 cm -1; iii) a low and uniform optical absorption such that a sample of a specified thickness of at least 0.5 mm has an optical absorption coefficient at a wavelength of 10.6 μm of less than 0.04 cm -1. i) a low and uniform optical scatter such that for a sample of a specified thickness of at least 0.4 mm the forward scatter at 1.064 μm, measured in a manner described herein over a specified area of at least 1.3 mm x 1.3 mm, integrated over a solid angle from 3.5° to 87.5° from the transmitted beam, is less than 0.4%; ii) a low and uniform optical absorption such that a sample of a specified thickness of at least 0.5 mm has an optical absorption coefficient at a wavelength of 1.06 μm of less than 0.09 cm -1; iii) a low and uniform optical absorption such that a sample of a specified thickness of at least 0.5 mm has an optical absorption coefficient at a wavelength of 10.6 μm of less than 0.04 cm -1.
An exhaust assembly, comprising: a resonator including: an inlet adapted for fluidly connecting to an exhaust manifold, and a closed end at an end of the resonator opposite the inlet; and a turbocharger passage extending from the resonator between the exhaust manifold and the closed end, the turbocharger passage defining an outlet, the turbocharger passage being disposed nearer to the inlet than to the closed end, the inlet and the outlet facing at least partially in opposite directions. a resonator including: an inlet adapted for fluidly connecting to an exhaust manifold, and a closed end at an end of the resonator opposite the inlet; and an inlet adapted for fluidly connecting to an exhaust manifold, and a closed end at an end of the resonator opposite the inlet; and a turbocharger passage extending from the resonator between the exhaust manifold and the closed end, the turbocharger passage defining an outlet, the turbocharger passage being disposed nearer to the inlet than to the closed end, the inlet and the outlet facing at least partially in opposite directions.
A system comprising: a processor to execute a system management mode, SMM, BIOS code; a controller to: monitor (112, 502) an expected functionality of the SMM BIOS code upon the execution of the SMM BIOS code; and detect whether a change has occurred to the SMM BIOS code based on the monitoring (112, 502) of the expected functionality of the SMM BIOS code, the detection of the change occurs prior to completion of execution of the SIM BIOS code, the change indicating that the SMM BIOS code is compromised, wherein the expected functionality is a particular behavior which is expected upon the execution of the SMM BIOS code, and wherein the controller is to detect a deviation in the expected functionality of the SMM BIOS code, the deviation in the expected functionality indicates the change in the SMM BIOS code, wherein the processor is to complete execution of boot strap information of a BIOS code including the SMM BIOS code prior to execution of the SMM BIOS code, and wherein monitoring (112, 502) the expected functionality of the SMM BIOS code upon execution of the SMM BIOS code includes monitoring at least one of: monitoring a setting of a register; tracking a number of times in which the processor executes the SMM BIOS code; tracking an amount of time the processor executes the SMM BIOS code; and tracking a number of I/O cycles generated by the SMM BIOS code (104. a processor to execute a system management mode, SMM, BIOS code; a controller to: monitor (112, 502) an expected functionality of the SMM BIOS code upon the execution of the SMM BIOS code; and detect whether a change has occurred to the SMM BIOS code based on the monitoring (112, 502) of the expected functionality of the SMM BIOS code, the detection of the change occurs prior to completion of execution of the SIM BIOS code, the change indicating that the SMM BIOS code is compromised, monitor (112, 502) an expected functionality of the SMM BIOS code upon the execution of the SMM BIOS code; and detect whether a change has occurred to the SMM BIOS code based on the monitoring (112, 502) of the expected functionality of the SMM BIOS code, the detection of the change occurs prior to completion of execution of the SIM BIOS code, the change indicating that the SMM BIOS code is compromised, wherein the expected functionality is a particular behavior which is expected upon the execution of the SMM BIOS code, and wherein the controller is to detect a deviation in the expected functionality of the SMM BIOS code, the deviation in the expected functionality indicates the change in the SMM BIOS code, wherein the processor is to complete execution of boot strap information of a BIOS code including the SMM BIOS code prior to execution of the SMM BIOS code, and wherein monitoring (112, 502) the expected functionality of the SMM BIOS code upon execution of the SMM BIOS code includes monitoring at least one of: monitoring a setting of a register; tracking a number of times in which the processor executes the SMM BIOS code; tracking an amount of time the processor executes the SMM BIOS code; and tracking a number of I/O cycles generated by the SMM BIOS code (104.
Method for producing a shoe adapted to the foot of a user, said shoe having an outer shell (1, 2) formed, at least in regions or completely, from a thermoplastic material and an inner shoe which is foamed at least in regions and fits into the outer shell (1, 2), in which the outer shell (1, 2) is heated, at least in regions or completely, above the softening point of the thermoplastically deformable material, the foot of the user or a foot last reflecting the foot shape of the user is introduced into a double-walled stocking provided to form the inner shoe which is foamed at least in regions, said stocking having at least one compartment to receive a curable foam, the double-walled stocking together with the introduced foot or the leg of the user or the introduced foot last reflecting the foot shape of the user is introduced into the heated outer shell (1, 2), the at least one compartment of the double-walled stocking is filled with a curable foam and/or with reagents forming a curable foam, before the curing of the foam, a pressure acting from outside onto the outer shell (1, 2) is applied at least in regions, and the curable foam is cured.
An adrenaline pharmaceutical solution comprising at least: - adrenaline or a pharmaceutically-acceptable salt thereof; - D-alpha-tocopheryl polyethylene glycol succinate (hereinafter, abbreviated as « vitamin E TPGS »); - a chelating agent; - a solvent. - adrenaline or a pharmaceutically-acceptable salt thereof; - D-alpha-tocopheryl polyethylene glycol succinate (hereinafter, abbreviated as « vitamin E TPGS »); - a chelating agent; - a solvent.
A method for wireless transmissions by a transmit point, the method comprising: encoding a traffic flow using a fountain code to obtain encoded packets; transmitting to a receive point over a unified air interface operating in accordance with a common radio access technology a first subset of the encoded packets over a licensed band, and a second subset of the encoded packets over an unlicensed band; and dynamically adjusting rates at which the first subset and second subsets of encoded packets are transmitted to the receive point over the licensed band and the unlicensed band in accordance with a condition of the unlicensed band. encoding a traffic flow using a fountain code to obtain encoded packets; transmitting to a receive point over a unified air interface operating in accordance with a common radio access technology a first subset of the encoded packets over a licensed band, and a second subset of the encoded packets over an unlicensed band; and dynamically adjusting rates at which the first subset and second subsets of encoded packets are transmitted to the receive point over the licensed band and the unlicensed band in accordance with a condition of the unlicensed band.
A system for measuring a mechanical property of a subject, the system comprising: a) an ultrasound transducer array configured to produce shear waves capable of propagating in a subject by applying at least one unfocused ultrasound beam to the subject; b) a detection device configured to acquire measurement data to measure at least one location in the subject in which the shear waves produced by the transmitter are present, wherein the detection device is an ultrasound device and the measurement data are acquired by applying ultrasound energy to the at least one location in the subject; c) a controller configured to calculate a mechanical property of the subject using the measurement data acquired by the detection device; characterized in that the controller is programmed to cause the ultrasound transducer array to simultaneously produce a plurality of unfocused ultrasound beams extending outward from the ultrasound transducer array in a comb-shaped pattern to apply the plurality of unfocused ultrasound beams so as to produce shear waves that propagate in the subject. a) an ultrasound transducer array configured to produce shear waves capable of propagating in a subject by applying at least one unfocused ultrasound beam to the subject; b) a detection device configured to acquire measurement data to measure at least one location in the subject in which the shear waves produced by the transmitter are present, wherein the detection device is an ultrasound device and the measurement data are acquired by applying ultrasound energy to the at least one location in the subject; c) a controller configured to calculate a mechanical property of the subject using the measurement data acquired by the detection device;