mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a software-defined networking, SDN, controller for a network, the SDN controller comprising a path computation element, PCE, for a path computation domain of a network; and a network device configured to route network packets within the network, the network device further configured to generate a dynamic tunnel report message that includes dynamic tunnel description data for a dynamic tunnel that transports network packets comprising non-multiprotocol label switching, MPLS, outer headers through the network, and wherein the network device is further configured to send the dynamic tunnel report message to the SDN controller to report the dynamic tunnel to the SDN controller, wherein the dynamic tunnel report message additionally includes information regarding creation and removal of dynamic tunnels within the network, and wherein the SDN controller is configured to compute, based at least on the dynamic tunnel description data, respective paths for one or more label switched paths for transporting network packets with MPLS outer headers within the network and to send the computed paths to the network for provisioning within the network. a software-defined networking, SDN, controller for a network, the SDN controller comprising a path computation element, PCE, for a path computation domain of a network; and a network device configured to route network packets within the network, the network device further configured to generate a dynamic tunnel report message that includes dynamic tunnel description data for a dynamic tunnel that transports network packets comprising non-multiprotocol label switching, MPLS, outer headers through the network, and wherein the network device is further configured to send the dynamic tunnel report message to the SDN controller to report the dynamic tunnel to the SDN controller, wherein the dynamic tunnel report message additionally includes information regarding creation and removal of dynamic tunnels within the network, and wherein the SDN controller is configured to compute, based at least on the dynamic tunnel description data, respective paths for one or more label switched paths for transporting network packets with MPLS outer headers within the network and to send the computed paths to the network for provisioning within the network.
A method for providing an access code on a portable device that has a user interface and is configured for wireless data communication, in which - reference data for authentication are stored in a central data processing facility, wherein the reference data comprise personal data containing biometric reference data for a user of the portable device and a device identifier for the portable device, - an authentication process in which the user is authenticated is carried out in response to a detected event, wherein in order to authenticate the user, in the central data processing facility and/or in the portable device, the reference data and authentication data are evaluated, which comprise personal authentication data for the user, including biometric authentication data, and an authentication device identifier for the portable device, and - an access code is supplied in the portable device in response to a successful authentication, which access code is evaluated to determine access authorization of the user by an access control device and which is provided as a spatially limited access code that is deleted when it is determined that the portable device is leaving a predefined location area after providing the access code in the portable device, wherein the authentication process is initiated by means of an application running on the portable device, when it is detected that a predetermined location has been reached. - reference data for authentication are stored in a central data processing facility, wherein the reference data comprise personal data containing biometric reference data for a user of the portable device and a device identifier for the portable device, - an authentication process in which the user is authenticated is carried out in response to a detected event, wherein in order to authenticate the user, in the central data processing facility and/or in the portable device, the reference data and authentication data are evaluated, which comprise personal authentication data for the user, including biometric authentication data, and an authentication device identifier for the portable device, and - an access code is supplied in the portable device in response to a successful authentication, which access code is evaluated to determine access authorization of the user by an access control device and which is provided as a spatially limited access code that is deleted when it is determined that the portable device is leaving a predefined location area after providing the access code in the portable device,
A light-emitting electronic textile comprising: a flexible component carrier having a plurality of light-sources (4a-c) arranged thereon; a cover textile arranged to allow passage through the cover textile of light emitted by said light-sources (4a-c); and a light-diffusing member arranged between said light-sources (4a-c) and said cover textile, said light-diffusing member comprising a layered structure formed by a plurality of light-diffusing layers (12a-c; 16a-b; 19a-c), characterized in that the layered structure is either formed by a flexible sheet being folded over itself at least once, or by at least two flexible sheet portions (16a-b; 19a-c) being joined together along respective boundaries thereof, and wherein at least one of said light-diffusing layers (12a-c; 16a-b; 19a-c) is curved in such a way that said adjacent light-diffusing layers, at points (P 1, P 2, P 3) along a line passing through said layered structure, exhibit mutually different radii of curvature (R 1, R 2, R 3) so that adjacent light-diffusing layers (12a-c; 16a-b; 19a-c) in said layered structure are spaced apart at least in portions of said light-diffusing member corresponding to positions of said light-sources (4a-c). a flexible component carrier having a plurality of light-sources (4a-c) arranged thereon; a cover textile arranged to allow passage through the cover textile of light emitted by said light-sources (4a-c); and a light-diffusing member arranged between said light-sources (4a-c) and said cover textile, said light-diffusing member comprising a layered structure formed by a plurality of light-diffusing layers (12a-c; 16a-b; 19a-c), characterized in that the layered structure is either formed by a flexible sheet being folded over itself at least once, or by at least two flexible sheet portions (16a-b; 19a-c) being joined together along respective boundaries thereof, and wherein at least one of said light-diffusing layers (12a-c; 16a-b; 19a-c) is curved in such a way that said adjacent light-diffusing layers, at points (P 1, P 2, P 3) along a line passing through said layered structure, exhibit mutually different radii of curvature (R 1, R 2, R 3) so that adjacent light-diffusing layers (12a-c; 16a-b; 19a-c) in said layered structure are spaced apart at least in portions of said light-diffusing member corresponding to positions of said light-sources (4a-c).
A pharmaceutical composition of tizanidine in liquid form for use in therapy by intranasal administration, characterized by the fact that it contains the active ingredient, in its hydrocloride form, dissolved in an aqueous solution and buffer solution at a pH value selected in the range from 4.8 to 7.4, that the obtained solution, duly sterilized by a heat treatment or added with a suitable preservative agent, may be administered as such or, optionally, be added with one or more suitable commonly used flavouring, tonicity, hyperbaric and absorption enhancer agents.
A slurry for a lithium ion secondary battery porous membrane, comprising non-conductive particles, a water-soluble polymer containing 80% by weight or more and 100% by weight or less of an acidic group-containing monomer unit, and a particulate polymer, wherein: less than 1.0% by weight of the water-soluble polymer remains insoluble when 0.5 g of the water-soluble polymer is dissolved in 100 g of water at 25 °C; not less than 90% by weight of the particulate polymer remains insoluble when 0.5 g of the particulate polymer is dissolved in 100 g of water at 25 °C; the non-conductive particles are selected from the group consisting of particles of barium sulfate, particles of aluminum oxide, particles of aluminum oxide hydrate, particles of magnesium oxide and particles of magnesium hydroxide; an amount of the water-soluble polymer is 0.05 parts by weight to 2 parts by weight relative to 100 parts by weight of the non-conductive particles; and a BET specific surface area of the non-conductive particles is 5 m 2 /g to 10 m 2 /g. less than 1.0% by weight of the water-soluble polymer remains insoluble when 0.5 g of the water-soluble polymer is dissolved in 100 g of water at 25 °C; not less than 90% by weight of the particulate polymer remains insoluble when 0.5 g of the particulate polymer is dissolved in 100 g of water at 25 °C; the non-conductive particles are selected from the group consisting of particles of barium sulfate, particles of aluminum oxide, particles of aluminum oxide hydrate, particles of magnesium oxide and particles of magnesium hydroxide; an amount of the water-soluble polymer is 0.05 parts by weight to 2 parts by weight relative to 100 parts by weight of the non-conductive particles; and a BET specific surface area of the non-conductive particles is 5 m 2 /g to 10 m 2 /g.
An integrated breathing apparatus for concentrating oxygen, comprising: a first canister; a second canister; one or more compressors configured to compress air through said canisters (101a, 101b), zeolithe in the canisters for separating nitrogen from oxygen in the air as the air is compressed through the canisters (101a, 101b), wherein the breathing apparatus is operable to divert at least part of the oxygen from the first canister through the second canister during at least part of a venting process of the second canister, characterized in that the first canister and the second canister are integrated in a single molded part. a first canister; a second canister; one or more compressors configured to compress air through said canisters (101a, 101b), zeolithe in the canisters for separating nitrogen from oxygen in the air as the air is compressed through the canisters (101a, 101b), wherein the breathing apparatus is operable to divert at least part of the oxygen from the first canister through the second canister during at least part of a venting process of the second canister, characterized in that the first canister and the second canister are integrated in a single molded part.
Method for treating packaging means by the application of design features or designs onto the packaging means by printing the packaging means, preferably in multi-coloured print by means of an ink-jet printing process, wherein the packaging means are arranged for the treatment in each case at at least one treatment position of a packaging means transport path, characterised in that the packaging means are subjected at least from time to time during the printing with a sterilising and/or bactericidal gaseous and/or vaporous medium.
A method for continuously determining the concentration of at least one CN compound in an aqueous solution comprising: introducing a carrier gas, more particularly compressed air, into an aqueous solution; and conveying at least part of the introduced carrier gas to a gas analyzer, more particularly a HCN gas analyzer, whose analysis data are taken into account in determining a concentration of the CN compound in the aqueous solution, characterized in that, the temperature (t1, t2 or t3) of the aqueous solution being applied with the carrier gas is measured, wherein for this purose the temperature sensor is located in an aerea of the aqueous solution being applied with the carrier gas, and this determined temperature (t1, t2 or t3) is taken into account for a measurement correction in determining the concentration of the CN compound.
A pin retaining device for coupling a male part with a duct and a female part with an orifice and with a cavity to house the male part and, said retaining device for a pin inserted within said duct and orifice, on excavators and the like, characterised in that said retaining device placed within the cavity of the female part comprises at least one tightening element to allow its auto-fixing by pressure directly to two opposite surfaces of the female part or of the male part, said tightening element comprising: two straight sectors (301, 302; 401, 402) attached to one another at one of their ends by a third sector (303, 403), being almost U-shaped, and wherein at least one of the two straight sectors (301, 401, 402) has a bifurcation thereby determining a sector (301, 401, 402) with two sub-sectors (301a, 301b; 401a, 401b; 402a, 402b), the sub-sectors being approximately parallel to one another and approximately parallel to the two straight sectors. two straight sectors (301, 302; 401, 402) attached to one another at one of their ends by a third sector (303, 403), being almost U-shaped, and wherein at least one of the two straight sectors (301, 401, 402) has a bifurcation thereby determining a sector (301, 401, 402) with two sub-sectors (301a, 301b; 401a, 401b; 402a, 402b), the sub-sectors being approximately parallel to one another and approximately parallel to the two straight sectors.
A method for identifying a fault in an electrical machine having a rotor and a stator, the method comprising the steps of: - carrying out a first vibration measurement of vibrations of the stator in a first radial direction of the stator; - carrying out a second vibration measurement of vibrations of the stator in a second radial direction of the stator; - determining, on the basis of at least one of the first vibration measurement and the second vibration measurement, a first vibration frequency; - determining, on the basis of the first vibration measurement and the second vibration measurement, a mode shape of the vibration at the first vibration frequency; and - using a combination of the first vibration frequency and the mode shape to identify a fault condition of the electrical machine. - carrying out a first vibration measurement of vibrations of the stator in a first radial direction of the stator; - carrying out a second vibration measurement of vibrations of the stator in a second radial direction of the stator; - determining, on the basis of at least one of the first vibration measurement and the second vibration measurement, a first vibration frequency; - determining, on the basis of the first vibration measurement and the second vibration measurement, a mode shape of the vibration at the first vibration frequency; and - using a combination of the first vibration frequency and the mode shape to identify a fault condition of the electrical machine.
An acrylic polyurethane coating composition, comprising: an isocyanate component comprising at least one aliphatic polyisocyanate trimer or biuret; and an isocyanate reacting mixture, the isocyanate reacting mixture comprising from 25 wt% to 80 wt% of an acrylic polyol and from 1 wt% to 30 wt% of a polyether polyol, based on a total weight of the acrylic polyurethane coating composition, the acrylic polyol having a solids content of at least 50 wt%, based on a total weight of the acrylic polyurethane coating composition, and the polyether polyol having a viscosity of less than 500 mPa*s at 25 °C and a number average molecular weight greater than 300 and less than 700. an isocyanate component comprising at least one aliphatic polyisocyanate trimer or biuret; and an isocyanate reacting mixture, the isocyanate reacting mixture comprising from 25 wt% to 80 wt% of an acrylic polyol and from 1 wt% to 30 wt% of a polyether polyol, based on a total weight of the acrylic polyurethane coating composition, the acrylic polyol having a solids content of at least 50 wt%, based on a total weight of the acrylic polyurethane coating composition, and the polyether polyol having a viscosity of less than 500 mPa*s at 25 °C and a number average molecular weight greater than 300 and less than 700.
A well isolation apparatus for use in a wellbore defined at least partially by a surface adjacent to the well isolation apparatus, the apparatus characterized by: an isolator adapted to be conveyed into a wellbore by a conveyance device, the isolator including a swage, an expansion cone, and a sealing element in substantially serial axial alignment with one another, wherein the sealing element is a radially expandable tubular having a seal section adapted for engagement with an adjacent surface in the wellbore, the expansion cone is a radially expandable tubular having a tapered end adapted for sliding engagement into the seal section of the sealing element and a flared end for receiving the swage, and the swage is a tubular having a tapered end adapted for slidable engagement into the expansion cone; an actuator operable to sequentially engage the swage, expansion cone, and the sealing element; and a setting tool configured to operate the actuator to compress axially the swage, expansion cone, and the sealing element of the isolator such that, following such operation of the actuator, the swage, the expansion cone, and the sealing element are in concentric alignment at a position of a seal formed between the sealing element and the adjacent surface. an isolator adapted to be conveyed into a wellbore by a conveyance device, the isolator including a swage, an expansion cone, and a sealing element in substantially serial axial alignment with one another, wherein the sealing element is a radially expandable tubular having a seal section adapted for engagement with an adjacent surface in the wellbore, the expansion cone is a radially expandable tubular having a tapered end adapted for sliding engagement into the seal section of the sealing element and a flared end for receiving the swage, and the swage is a tubular having a tapered end adapted for slidable engagement into the expansion cone; an actuator operable to sequentially engage the swage, expansion cone, and the sealing element; and a setting tool configured to operate the actuator to compress axially the swage, expansion cone, and the sealing element of the isolator such that, following such operation of the actuator, the swage, the expansion cone, and the sealing element are in concentric alignment at a position of a seal formed between the sealing element and the adjacent surface.
A voltage measurement system comprising: a comparator having a positive input terminal and a negative input terminal; a processor configured to: supply a reference voltage signal to the negative input terminal of the comparator, wherein the positive input terminal of the comparator receives an input voltage; setting the reference voltage signal to a zero voltage signal; determine a line frequency of the input voltage based on a timing signal from an output of the comparator and determining a first pulse width of the input signal based on the timing signal; set the reference voltage to a pulse width modulation signal with a fixed duty cycle; receive the timing signal from the output of the comparator; determine a rising edge and a falling edge associated with the input voltage based on the timing signal; and determine a peak value of the input voltage based on a second pulse width between the rising edge and falling edge of the input voltage. a comparator having a positive input terminal and a negative input terminal; a processor configured to: supply a reference voltage signal to the negative input terminal of the comparator, wherein the positive input terminal of the comparator receives an input voltage; setting the reference voltage signal to a zero voltage signal; determine a line frequency of the input voltage based on a timing signal from an output of the comparator and determining a first pulse width of the input signal based on the timing signal; set the reference voltage to a pulse width modulation signal with supply a reference voltage signal to the negative input terminal of the comparator, wherein the positive input terminal of the comparator receives an input voltage; setting the reference voltage signal to a zero voltage signal; determine a line frequency of the input voltage based on a timing signal from an output of the comparator and determining a first pulse width of the input signal based on the timing signal; set the reference voltage to a pulse width modulation signal with a fixed duty cycle; receive the timing signal from the output of the comparator; determine a rising edge and a falling edge associated with the input voltage based on the timing signal; and determine a peak value of the input voltage based on a second pulse width between the rising edge and falling edge of the input voltage. receive the timing signal from the output of the comparator; determine a rising edge and a falling edge associated with the input voltage based on the timing signal; and determine a peak value of the input voltage based on a second pulse width between the rising edge and falling edge of the input voltage.
A polypropylene composition suitable for pipe applications comprising a propylene random copolymer with at least one comonomer selected from alpha-olefins with 2 or 4 to 8 carbon atoms wherein the propylene random copolymer comprises at least a propylene random copolymer having a low molecular weight (low molecular weight fraction) and a propylene random copolymer having a high molecular weight (high molecular weight fraction), wherein the weight average molecular weight of the low molecular weight fraction is lower than that of the high molecular weight fraction, and wherein the comonomer content of the high molecular weight fraction is higher than the comonomer content of the low molecular weight fraction, and wherein the polypropylene composition has a melt flow rate MFR 2 (2.16 kg, 230°C) of 0.05 to 1.0 g/10 min, determined according to ISO 1133, a polydispersity index of 2.0 to 7.0, a Charpy Notched Impact Strength at 0°C of at least 6.5 kJ/m 2, determined according to ISO 179/1eA:2000 using notched injection moulded specimens, and a flexural modulus of 780 MPa to 1100 MPa, determined according to ISO 178 at a test speed of 2mm/min and a force of 100N on test specimens having a dimension of 80x10x4.0 mm 3 (length x width x thickness) prepared by injection moulding according to EN ISO 1873-2.