mhurhangee/ep-ind-claims huggingface dataset:
A cutting tool comprising a cutting insert comprising a top surface, a bottom surface, a clamping surface, a cutting edge, and a toolholder comprising a toolholder body having a pocket for receiving the insert, and a clamp for contacting the clamping surface and clamping the insert in the pocket, wherein a hole extends through the insert from the bottom surface and forms at least part of the clamping surface, wherein the toolholder comprises a toolholder passage in the body in flow communication with the hole in the insert, wherein the hole comprises a first portion having a substantially constant diameter along its length, wherein the first portion of the hole forms at least part of the clamping surface, characterized in that the hole comprises a second portion having a diameter that changes over at least part of its length, that the insert comprises a channel extending from the clamping surface to proximate the cutting edge, the channel has a radius of curvature and a depth of the channel is greater at the clamping surface than proximate the cutting edge.
An emergency longitude slide ruler apparatus comprising: a stationary degrees wheel; a circumpolar star wheel comprising a circumpolar star field plate, wherein said circumpolar star field plate includes stars usable for obtaining a fix on longitude, and wherein said circumpolar star wheel is rotatably disposed relative to said degrees wheel; a time wheel, said time wheel lockably rotatably disposed relative to said circumpolar star wheel and said degrees wheel; a date wheel, said date wheel lockably rotatably disposed relative to said circumpolar star wheel and to said time wheel; wherein said date wheel is demarcated with gradations for hours and minutes; wherein said date wheel is configured to be rotated to indicate a present GMT/UTC time; a longitude wheel, said longitude wheel lockably rotatably disposed relative to said circumpolar star wheel, said time wheel and said date wheel; and a transparent angle arm affixed to the circumpolar star wheel and configured to be set to a measured angle between chosen stars on said degrees wheel; wherein said transparent angle arm is configured to indicate a present longitude on the longitude wheel when positioned against the degrees wheel to said measured angle. a stationary degrees wheel; a circumpolar star wheel comprising a circumpolar star field plate, wherein said circumpolar star field plate includes stars usable for obtaining a fix on longitude, and wherein said circumpolar star wheel is rotatably disposed relative to said degrees wheel; a time wheel, said time wheel lockably rotatably disposed relative to said circumpolar star wheel and said degrees wheel; a date wheel, said date wheel lockably rotatably disposed relative to said circumpolar star wheel and to said time wheel; wherein said date wheel is demarcated with gradations for hours and minutes; wherein said date wheel is configured to be rotated to indicate a present GMT/UTC time; a longitude wheel, said longitude wheel lockably rotatably disposed relative to said circumpolar star wheel, said time wheel and said date wheel; and a transparent angle arm affixed to the circumpolar star wheel and configured to be set to a measured angle between chosen stars on said degrees wheel; wherein said transparent angle arm is configured to indicate a present longitude on the longitude wheel when positioned against the degrees wheel to said measured angle.
A method of a UE (User Equipment), comprising: receiving, from every network node of a cell, a second signal indicating a same first network beam sweeping number associated with the cell, wherein the first network beam sweeping number is to be used by the UE for receiving a first signal from any network node of the cell, wherein there are multiple network nodes in the cell and at least two network nodes of the cell have different beamforming capabilities, and wherein a beamforming capability of a network node of the cell comprises at least a total number of beams, and actual network beam sweeping numbers performed by the multiple network nodes are less than or equal to the first network beam sweeping number, wherein: the first network beam sweeping number is a number of times needed for sweeping beams in all possible directions once for transmission of a signal; and the method further comprises receiving the first signal from any network node of the cell at multiple time intervals, wherein the multiple time intervals are determined based on the received first network beam sweeping number. receiving, from every network node of a cell, a second signal indicating a same first network beam sweeping number associated with the cell, wherein the first network beam sweeping number is to be used by the UE for receiving a first signal from any network node of the cell, wherein there are multiple network nodes in the cell and at least two network nodes of the cell have different beamforming capabilities, and wherein a beamforming capability of a network node of the cell comprises at least a total number of beams, and actual network beam sweeping numbers performed by the multiple network nodes are less than or equal to the first network beam sweeping number, wherein: the first network beam sweeping number is a number of times needed for sweeping beams in all possible directions once for transmission of a signal; and the method further comprises receiving the first signal from any network node of the cell at multiple time intervals, wherein the multiple time intervals are determined based on the received first network beam sweeping number. the first network beam sweeping number is a number of times needed for sweeping beams in all possible directions once for transmission of a signal; and the method further comprises receiving the first signal from any network node of the cell at multiple time intervals, wherein the multiple time intervals are determined based on the received first network beam sweeping number.
A rotor system comprising: a plurality of rotor blades; an extension assembly for rotating the plurality of rotor blades about a rotor axis with a central rotor hub that defines the rotor axis, the extension assembly comprising: a beam assembly configured to attach to the central rotor hub and positioned at least partially within a corresponding one of the plurality of rotor blades; and a first bearing assembly (60, 70, 80) fastened to the beam assembly and to at least one of a leading edge or a trailing edge of the corresponding one of the plurality of rotor blades. a plurality of rotor blades; an extension assembly for rotating the plurality of rotor blades about a rotor axis with a central rotor hub that defines the rotor axis, the extension assembly comprising: a beam assembly configured to attach to the central rotor hub and positioned at least partially within a corresponding one of the plurality of rotor blades; and a first bearing assembly (60, 70, 80) fastened to the beam assembly and to at least one of a leading edge or a trailing edge of the corresponding one of the plurality of rotor blades. a beam assembly configured to attach to the central rotor hub and positioned at least partially within a corresponding one of the plurality of rotor blades; and a first bearing assembly (60, 70, 80) fastened to the beam assembly and to at least one of a leading edge or a trailing edge of the corresponding one of the plurality of rotor blades.
A device, comprising: a spatial filter having a plurality of mask features (251, 252) and extending along a flow direction, wherein light is emanating from at least one object moving along the flow direction and wherein an intensity of the emanating light being modulated according to the mask features; a first detector positioned to sense a first portion of light emanating from the object, the first portion of light having a first wavelength range, the first detector configured to generate an electrical signal in response to the sensed first portion of light; and a second detector positioned to sense a second portion of the emanating light, the second portion of light having a second wavelength range different from the first wavelength range, the second detector configured to generate a second electrical signal in response to the second portion of light, wherein the first and second signal include information about the color characteristics of the object, characterized in that the device further comprises a data processing analyzer configured to determine whether the object has an inhomogeneous color distribution based upon whether a combined signal of the first signal and the second signal has one or more signal characteristics directly associated with the mask features. a spatial filter having a plurality of mask features (251, 252) and extending along a flow direction, wherein light is emanating from at least one object moving along the flow direction and wherein an intensity of the emanating light being modulated according to the mask features; a first detector positioned to sense a first portion of light emanating from the object, the first portion of light having a first wavelength range, the first detector configured to generate an electrical signal in response to the sensed first portion of light; and a second detector positioned to sense a second portion of the emanating light, the second portion of light having a second wavelength range different from the first wavelength range, the second detector configured to generate a second electrical signal in response to the second portion of light, wherein the first and second signal include information about the color characteristics of the object, characterized in that the device further comprises a data processing analyzer configured to determine whether the object has an inhomogeneous color distribution based upon whether a combined signal of the first signal and the second signal has one or more signal characteristics directly associated with the mask features.
A delay measurement method, wherein the method comprises: Receiving, by a physical layer chip of a first physical port of a network device, a packet, and sending a first time stamp and the packet to a Media Access Control, MAC, chip of the first physical port, wherein a value of the first time stamp is a time point at which the packet reaches the physical layer chip of the first physical port; Adding, by the MAC chip of the first physical port, the first time stamp to the packet, and sending the packet; Receiving, by a MAC chip of a second physical port of the network device, the packet, extracting the first time stamp of the packet, and sending the packet to a physical layer chip of the second physical port; Receiving, by the MAC chip of the second physical port, a second time stamp of the packet, wherein the second time stamp is sent by the physical layer chip of the second physical port, and a value of the second time stamp is a time point at which the packet reaches the physical layer chip of the second physical port; and Calculating, by the network device, a processing delay for the packet, wherein the processing delay is a value obtained by subtracting the first time stamp from the second time stamp. Receiving, by a physical layer chip of a first physical port of a network device, a packet, and sending a first time stamp and the packet to a Media Access Control, MAC, chip of the first physical port, wherein a value of the first time stamp is a time point at which the packet reaches the physical layer chip of the first physical port; Adding, by the MAC chip of the first physical port, the first time stamp to the packet, and sending the packet; Receiving, by a MAC chip of a second physical port of the network device, the packet, extracting the first time stamp of the packet, and sending the packet to a physical layer chip of the second physical port; Receiving, by the MAC chip of the second physical port, a second time stamp of the packet, wherein the second time stamp is sent by the physical layer chip of the second physical port, and a value of the second time stamp is a time point at which the packet reaches the physical layer chip of the second physical port; and Calculating, by the network device, a processing delay for the packet, wherein the processing delay is a value obtained by subtracting the first time stamp from the second time stamp.
A method for acquiring a cell identifier by a source cell in a radio communication system, the method comprising: receiving information about a new cell from a User Equipment, UE, in the source cell; acquiring by the source cell an Evolved Universal Terrestrial Radio Access, EUTRA, Cell Global Identifier, ECGI, of the new cell from the UE, if it is determined based on the information about the new cell that there is no neighbor relationship with the new cell; determining (411, 413-1, 413-2, 413-3) by the source cell whether a Public Land Mobile Network, PLMN, Identifier, ID, PLMN ID, in the ECGI is included in a mapping table representing at least one mapping relation between a primary PLMN ID and one or more shared PLMN IDs for shared cells in an enhanced Node B, eNB; and acquiring (415, 421) by the source cell an X2 Internet Protocol, IP, address of the new cell from an Evolved Packet Core, EPC, according to the determination results, wherein the acquiring of the X2 IP address of the new cell from the EPC comprises discarding the information about the new cell, if the PLMN ID in the ECGI is not included in the mapping table. receiving information about a new cell from a User Equipment, UE, in the source cell; acquiring by the source cell an Evolved Universal Terrestrial Radio Access, EUTRA, Cell Global Identifier, ECGI, of the new cell from the UE, if it is determined based on the information about the new cell that there is no neighbor relationship with the new cell; determining (411, 413-1, 413-2, 413-3) by the source cell whether a Public Land Mobile Network, PLMN, Identifier, ID, PLMN ID, in the ECGI is included in a mapping table representing at least one mapping relation between a primary PLMN ID and one or more shared PLMN IDs for shared cells in an enhanced Node B, eNB; and acquiring (415, 421) by the source cell an X2 Internet Protocol, IP, address of the new cell from an Evolved Packet Core, EPC, according to the determination results, wherein the acquiring of the X2 IP address of the new cell from the EPC comprises discarding the information about the new cell, if the PLMN ID in the ECGI is not included in the mapping table.
A process for decontaminating or sterilizing an article contaminated with bacterial spores, in a sterilizing apparatus using a liquid sterilant comprising water, acetic acid, an antimicrobial agent which is peracetic acid, and a peroxide which is hydrogen peroxide, the article comprising a medical, dental, pharmaceutical, veterinary or mortuary instrument, the liquid sterilant having a concentration of the peroxide in the range from 0.1 to 6.5% by weight, the concentration of the antimicrobial agent being in the range from 0.001 to 0.16% by weight, the concentration of acetic acid being in the range from 0.001 to 0.3% by weight, the weight ratio of the antimicrobial agent to the peroxide peroxide being in the range from 0.001 to 0.2, the liquid sterilant having a pH in the range from 5.5 to 11, the sterilizing apparatus comprising a sterilization chamber and a sterilant introduction system, the process comprising: placing the contaminated article in the sterilization chamber; flowing the liquid sterilant from the sterilant introduction system into the sterilization chamber in contact with the contaminated article, maintaining the liquid sterilant at a temperature in the range from 20°C to 80°C in contact with the contaminated article for a period of time in the range from about 0.5 to 240 minutes to decontaminate or sterilize the article and effect at least a 6 log reduction in the number of spores on the article that are capable of returning to vegetative growth; draining the liquid sterilant from the sterilization chamber; flowing rinse water in the sterilization chamber in contact with the article; and removing the article from the sterilization chamber.
An aqueous composition formulated for nasal administration comprising an acetate salt of the S-enantiomer of compound I wherein the acetate salt of the S-enantiomer of compound I is dissolved in the aqueous composition at a concentration of 350 ± 25 mg/mL.
Ultrasonic apparatus, being configured for creating a holographic ultrasound field, comprising - an ultrasound source device being adapted for creating an ultrasound wave, - a transmission hologram device having a transmission hologram and an exposed acoustic emitter surface facing to the surrounding, said transmission hologram device being coupled with the ultrasound source device and being arranged for transmitting the ultrasound wave through the acoustic emitter surface and creating the holographic ultrasound field in a surrounding space, wherein - the transmission hologram has a structured holographic surface facing to the acoustic emitter surface, - the holographic surface is covered by a sonic coupling layer providing the acoustic emitter surface, and - the acoustic emitter surface is a smooth surface, which is capable of transmitting the ultrasound wave without changing the radial phase and/or amplitude distribution of the ultrasound wave. - an ultrasound source device being adapted for creating an ultrasound wave, - a transmission hologram device having a transmission hologram and an exposed acoustic emitter surface facing to the surrounding, said transmission hologram device being coupled with the ultrasound source device and being arranged for transmitting the ultrasound wave through the acoustic emitter surface and creating the holographic ultrasound field in a surrounding space, wherein - the transmission hologram has a structured holographic surface facing to the acoustic emitter surface, - the holographic surface is covered by a sonic coupling layer providing the acoustic emitter surface, and - the acoustic emitter surface is a smooth surface, which is capable of transmitting the ultrasound wave without changing the radial phase and/or amplitude distribution of the ultrasound wave.
Axle-counting method for railbound vehicles, comprising the following method steps: • coupling light into at least one sensor fibre (SF, SF1, SF2), wherein the sensor fibre (SF, SF1, SF2) comprises at least one fibre Bragg grating (FBG1, FBG2) mounted on a rail, wherein each fibre Bragg grating (FBG1, FBG2) has a reflection spectrum having a reflection peak (P1, P2) which is at a Bragg wavelength (λ1, λ2) and has a full width at half maximum (FWHM), • detecting the light reflected by two fibre Bragg gratings (FBG1, FBG2) spaced apart from one another, as a result of which a shear stress signal of the rail is received in each case; • generating a shear stress difference signal from the two received shear stress signals; • generating a wheel signal within a signal-processing unit if the shear stress difference signal exceeds a predetermined upper limiting value or falls below a predetermined lower limiting value. • coupling light into at least one sensor fibre (SF, SF1, SF2), wherein the sensor fibre (SF, SF1, SF2) comprises at least one fibre Bragg grating (FBG1, FBG2) mounted on a rail, wherein each fibre Bragg grating (FBG1, FBG2) has a reflection spectrum having a reflection peak (P1, P2) which is at a Bragg wavelength (λ1, λ2) and has a full width at half maximum (FWHM), • detecting the light reflected by two fibre Bragg gratings (FBG1, FBG2) spaced apart from one another, as a result of which a shear stress signal of the rail is received in each case; • generating a shear stress difference signal from the two received shear stress signals; • generating a wheel signal within a signal-processing unit if the shear stress difference signal exceeds a predetermined upper limiting value or falls below a predetermined lower limiting value.
A board for interior materials, comprising: a resin composition comprising 20 to 60 parts by weight of an acrylic resin, 1 to 15 parts by weight of a plasticizer, and 200 to 450 parts by weight of calcium carbonate, based on 100 parts by weight of a polyvinyl chloride resin, and wherein poly(methyl methacrylate) is used as the acrylic resin, wherein the poly(methyl methacrylate) is a copolymer of methyl methacrylate and methyl acrylate or a copolymer of methyl methacrylate, methyl acrylate, and methacrylic acid, wherein the poly(methyl methacrylate) has a weight average molecular weight (Mw) of 10,000 to 300,000 g/mol, and wherein the resin composition further comprises 2 to 6 parts by weight of a heat stabilizer based on 100 parts by weight of the polyvinyl chloride resin. a resin composition comprising 20 to 60 parts by weight of an acrylic resin, 1 to 15 parts by weight of a plasticizer, and 200 to 450 parts by weight of calcium carbonate, based on 100 parts by weight of a polyvinyl chloride resin, and wherein poly(methyl methacrylate) is used as the acrylic resin, wherein the poly(methyl methacrylate) is a copolymer of methyl methacrylate and methyl acrylate or a copolymer of methyl methacrylate, methyl acrylate, and methacrylic acid, wherein the poly(methyl methacrylate) has a weight average molecular weight (Mw) of 10,000 to 300,000 g/mol, and wherein the resin composition further comprises 2 to 6 parts by weight of a heat stabilizer based on 100 parts by weight of the polyvinyl chloride resin.
Method for monitoring the state of a coil, which coil is part of a device for determining at least one process variable of a medium in a container, comprising the following method steps: - applying an electrical excitation signal to the coil and receiving an electrical received signal from the coil, determining a first value for the received signal at a first predeterminable measurement time, comparing the first value for the received signal at the first measurement time with a reference value (Uref), and determining a status indicator for the coil on the basis of the comparison, the state indicator being a statement about a defective electrical contact or a cable break in the area of the coil or of at least two connecting wires, wherein the presence of a defective electrical contact or a cable break in the area of the coil is detected on the basis of a deviation of the step response of the received signal in response to the step change of the excitation signal from a reference step response (S ref). - applying an electrical excitation signal to the coil and receiving an electrical received signal from the coil, determining a first value for the received signal at a first predeterminable measurement time, comparing the first value for the received signal at the first measurement time with a reference value (Uref), and determining a status indicator for the coil on the basis of the comparison, the state indicator being a statement about a defective electrical contact or a cable break in the area of the coil or of at least two connecting wires, wherein the presence of a defective electrical contact or a cable break in the area of the coil is detected on the basis of a deviation of the step response of the received signal in response to the step change of the excitation signal from a reference step response (S ref). determining a first value for the received signal at a first predeterminable measurement time, comparing the first value for the received signal at the first measurement time with a reference value (Uref), and determining a status indicator for the coil on the basis of the comparison, the state indicator being a statement about a defective electrical contact or a cable break in the area of the coil or of at least two connecting wires, wherein the presence of a defective electrical contact or a cable break in the area of the coil is detected on the basis of a deviation of the step response of the received signal in response to the step change of the excitation signal from a reference step response (S ref).