mhurhangee/ep-ind-claims huggingface dataset:
A pressure transmitter coupling for coupling a pressure transmitter to a process fluid, comprising: a valved connection flange which carries the pressure transmitter; - a process coupling face having a process coupling port configured to couple to impulse piping; - a flange coupling face arranged at an angle to the process coupling face, the flange coupling face including a flange coupling port configured to fluidically couple to the valved connection flange which carries the pressure transmitter; - a process fluid passageway extending between the process coupling port and the flange coupling port; and - a rod out port aligned with the process fluid coupling port configured to receive a cleaning rod therethrough to clean the process coupling port. - a process coupling face having a process coupling port configured to couple to impulse piping; - a flange coupling face arranged at an angle to the process coupling face, the flange coupling face including a flange coupling port configured to fluidically couple to the valved connection flange which carries the pressure transmitter; - a process fluid passageway extending between the process coupling port and the flange coupling port; and - a rod out port aligned with the process fluid coupling port configured to receive a cleaning rod therethrough to clean the process coupling port.
A composition comprising a polyether polyol or a polyol derived from natural oil, and an antioxidant additive, said antioxidant additive comprising a phenolic antioxidant and delta-tocopherol and/or gamma-tocopherol, and the sum of the contents by weight of delta-tocopherol and gamma-tocopherol in the antioxidant additive is greater than 5%.
A computer implemented method of predicting achieving improved performance of a DSL line before a DSL optimizer in a DSL management system optimizes performance of the DSL line, comprising: obtaining a current state of performance of the DSL line before optimization; obtaining a target state of performance of the DSL line after optimization; obtaining a measure of DSL line characteristics of the DSL line; identifying, from among a plurality of records of information associated with optimizing performance of a plurality of DSL lines, a subset of the records of information associated with optimizing performance of a subset of DSL lines that have a similar measure of DSL line characteristics as the DSL line for which achieving improved performance is to be predicted; and obtaining a probability that the DSL optimizer will optimize the performance of the DSL line from the current state of performance to the target state of performance, based on a statistical analysis of the identified subset of records of information associated with optimizing performance of the subset of DSL lines, wherein said statistical analysis detects instances when the DSL optimizer previously has optimized the performance of the subset of DSL lines from a same or similar state as the current state of performance to a same or similar state as the target state of performance. obtaining a current state of performance of the DSL line before optimization; obtaining a target state of performance of the DSL line after optimization; obtaining a measure of DSL line characteristics of the DSL line; identifying, from among a plurality of records of information associated with optimizing performance of a plurality of DSL lines, a subset of the records of information associated with optimizing performance of a subset of DSL lines that have a similar measure of DSL line characteristics as the DSL line for which achieving improved performance is to be predicted; and obtaining a probability that the DSL optimizer will optimize the performance of the DSL line from the current state of performance to the target state of performance, based on a statistical analysis of the identified subset of records of information associated with optimizing performance of the subset of DSL lines, wherein said statistical analysis detects instances when the DSL optimizer previously has optimized the performance of the subset of DSL lines from a same or similar state as the current state of performance to a same or similar state as the target state of performance.
Fuel tank comprising a fuel container with a connection part of the fuel container, a filler tube and a connector for connecting the filler tube to the connection part of the fuel container, the connector being a substantially cylindrical sheet metal moulded part with a first connecting end which is fastened to the filler tube and with a male second connecting end which is received in the connection part of the fuel container, a first groove being formed into the sheet metal moulded part in a first section of the second connecting end, an annular locking element reaching at least in sections through openings of the connection part of the fuel container into the interior of the connection part of the fuel container and securing the connection part of the fuel container there axially with respect to the connector by way of a support, in particular a positively locking connection, on the first groove of the connector, a ramp ring being arranged in a third section of the second connecting end, the ramp ring being a peripheral component with a wedge-shaped ramp face, a conical section of the connection part of the fuel container bearing on the outside against the wedge-shaped ramp face of the ramp ring, the locking element being supported on the ramp ring as an intermediate component, the ramp ring being secured axially in or on the first groove.
A compound represented by the formula: wherein R 1 is a branched or straight-chained C 10 -C 800 alkyl or alkenyl group; R 2 is wherein the carbonyl carbon connects to nitrogen, the bond between carbons C p and C q is either a single or double bond, wherein when the bond between carbons C p and C q is a single bond, a hydrogen is attached to each of C p and C q as required by valency; R' and R" are independently H or unsubstituted or substituted C 1 -C 4 alkyl or C 1 -C 4 alkenyl, and Z is a bond or unsubstituted or substituted C 1 -C 4 alkylene; R 3 is a C 1 -C 10 branched or straight chained alkylene group; n is an integer from 1 to 10; R 4 and R 5 are both independently selected from hydrogen and -R 6 -R 7, wherein R 6 is defined the same as R 2 above, and R 7 is defined the same as R 1 above, or one of R 4 and R 5 is absent as required by valency and the other of R 4 and R 5 is hydrogen or - R 6 -R 7 as defined above; R 31 is hydrogen or -R 8 -R 9, wherein R 8 is defined the same as R 2 above, and R 9 is defined the same as R 1 above, or R 8 and R 9 together are a C 1 -C 10 branched or straight chained alkyl group optionally substituted with one or more amine groups; wherein the -N(R 31)-R 3 - repeat unit is optionally interrupted in one or more places by a heterocyclic or homocyclic cycloalkyl group, and wherein at least one of R 1, R 7, and R 9 comprises polypropylene or poly(ethylene-co-propylene). wherein R 1 is a branched or straight-chained C 10 -C 800 alkyl or alkenyl group; R 2 is wherein the carbonyl carbon connects to nitrogen, the bond between carbons C p and C q is either a single or double bond, wherein when the bond between carbons C p and C q is a single bond, a hydrogen is attached to each of C p and C q as required by valency; R' and R" are independently H or unsubstituted or substituted C 1 -C 4 alkyl or C 1 -C 4 alkenyl, and Z is a bond or unsubstituted or substituted C 1 -C 4 alkylene; R 3 is a C 1 -C 10 branched or straight chained alkylene group; n is an integer from 1 to 10; R 4 and R 5 are both independently selected from hydrogen and -R 6 -R 7, wherein R 6 is defined the same as R 2 above, and R 7 is defined the same as R 1 above, or one of R 4 and R 5 is absent as required by valency and the other of R 4 and R 5 is hydrogen or - R 6 -R 7 as defined above; R 31 is hydrogen or -R 8 -R 9, wherein R 8 is defined the same as R 2 above, and R 9 is defined the same as R 1 above, or R 8 and R 9 together are a C 1 -C 10 branched or straight chained alkyl group optionally substituted with one or more amine groups; wherein the -N(R 31)-R 3 - repeat unit is optionally interrupted in one or more places by a heterocyclic or homocyclic cycloalkyl group, and wherein at least one of R 1, R 7, and R 9 comprises polypropylene or poly(ethylene-co-propylene).
Rechargeable non-aqueous electrochemical battery cell, comprising - a negative electrode having an electronically conductive substrate, and - a sulfur dioxide-containing electrolyte, and - a positive electrode having a porous structure, wherein the active material of the positive electrode is contained in the porous structure, and wherein the active material of the positive electrode is arranged in the vicinity of the electronically conductive substrate of the negative electrode, and wherein - at least part of the active metal resulting from the electrode reaction at the negative electrode penetrates into the pores of the positive electrode, and wherein the entire surface of the active material of the positive electrode is covered with a layer of metal dithionite, and the active material of the positive electrode in the electrolyte has a redox potential of less than or equal to 4.0 volts vs. Li/Li +. - a negative electrode having an electronically conductive substrate, and - a sulfur dioxide-containing electrolyte, and - a positive electrode having a porous structure, wherein the active material of the positive electrode is contained in the porous structure, and wherein the active material of the positive electrode is arranged in the vicinity of the electronically conductive substrate of the negative electrode, and wherein - at least part of the active metal resulting from the electrode reaction at the negative electrode penetrates into the pores of the positive electrode, and wherein the entire surface of the active material of the positive electrode is covered with a layer of metal dithionite, and
A method for compensating chromatic dispersion affecting an optical signal (S(t)) received at a coherent optical receiver of a node of an optical communication network, said compensating comprising applying a frequency domain digital algorithm, said frequency domain digital algorithm comprising performing a fast fourier transform, a filtering and an inverse fast fourier transform on a number N of digital samples of said optical signal (S(t)), said algorithm having one or more computational parameters (N, X), said method comprising the steps of: a) receiving a chromatic dispersion information (CDi) indicative of said chromatic dispersion; b) on the basis of said received chromatic dispersion information (CDi), determining one or more target computational parameters (N*, X*) in order to minimize the number of operations for executing said chromatic dispersion compensating algorithm; and c) compensating said chromatic dispersion by applying said algorithm using said one or more target computational parameters (N*, X*). a) receiving a chromatic dispersion information (CDi) indicative of said chromatic dispersion; b) on the basis of said received chromatic dispersion information (CDi), determining one or more target computational parameters (N*, X*) in order to minimize the number of operations for executing said chromatic dispersion compensating algorithm; and c) compensating said chromatic dispersion by applying said algorithm using said one or more target computational parameters (N*, X*).
An image processor comprising: a polarized light source configured to irradiate the surface of an object with polarized light that is linearly polarized light, of which the polarization plane changes sequentially; a camera that has an image capturing plane, on which a number of photosensitive cells, each having a size corresponding to one pixel, are arranged, and configured to capture an intensity image of the object's surface based on the light that has been reflected from the object's surface; and characterized by a resolution increasing processing section configured to estimate normals to subpixel regions, each of which is smaller than a single pixel, at the object's surface by detecting how much the intensity of the intensity image has varied as the polarization plane changes, and to increase the resolution of the intensity image using the normals estimated, wherein when the camera captures the intensity image of the object's surface, the polarization plane of the linearly polarized light changes with the arrangement of the polarized light source and the camera fixed, and wherein the resolution increasing processing section is configured to estimate a normal histogram within a single pixel of the intensity image by using an interreflection phenomenon of light to be produced on the object's surface. a polarized light source configured to irradiate the surface of an object with polarized light that is linearly polarized light, of which the polarization plane changes sequentially; a camera that has an image capturing plane, on which a number of photosensitive cells, each having a size corresponding to one pixel, are arranged, and configured to capture an intensity image of the object's surface based on the light that has been reflected from the object's surface; and a resolution increasing processing section configured to estimate normals to subpixel regions, each of which is smaller than a single pixel, at the object's surface by detecting how much the intensity of the intensity image has varied as the polarization plane changes, and to increase the resolution of the intensity image using the normals estimated, wherein when the camera captures the intensity image of the object's surface, the polarization plane of the linearly polarized light changes with the arrangement of the polarized light source and the camera fixed, and wherein the resolution increasing processing section is configured to estimate a normal histogram within a single pixel of the intensity image by using an interreflection phenomenon of light to be produced on the object's surface.
A polymeric composite comprising: 15-30 wt% of a thermoplastic polymer with a Tg of 30-80°C; 20-65 wt% of a cyclic olefin copolymer; 10-25 wt% of an ionomer of ethylene and methacrylic acid; and 10-25 wt% a thermoplastic rubber. 15-30 wt% of a thermoplastic polymer with a Tg of 30-80°C; 20-65 wt% of a cyclic olefin copolymer; 10-25 wt% of an ionomer of ethylene and methacrylic acid; and 10-25 wt% a thermoplastic rubber.
A method, comprising: monitoring, by a hypervisor of a host machine, a workload of a plurality of virtual processors (440, 450, 460) of the host machine; receiving, at the hypervisor, an interrupt, the interrupt being associated with a priority; wherein, when a virtual processor (440, 450, 460) is executing an interrupt, the virtual processor (440, 450, 460) is associated with a priority which is the priority of the interrupt that the virtual processor (440, 450, 460) is executing; determining, by the hypervisor and based, at least in part, on the workload of each of the plurality of virtual processors (440, 450, 460), the priority associated with the interrupt and the current priority of the virtual processors (440, 450, 460), a virtual processor (440, 450, 460) that can execute the interrupt first; and providing, by the hypervisor to a virtual interrupt controller of hardware of the host machine, an identification of said determined virtual processor (440, 450, 460) that can execute the interrupt first and to which the interrupt is to be delivered, when said virtual processor (440, 450, 460) is not active such that the hardware pends the interrupt to said virtual processor (440, 450, 460), thereby causing the virtual interrupt controller to deliver the interrupt to said virtual processor (440, 450, 460) that can execute the interrupt first but not to the other virtual processors (440, 450, 460) in the plurality of virtual processors (440, 450, 460). monitoring, by a hypervisor of a host machine, a workload of a plurality of virtual processors (440, 450, 460) of the host machine; receiving, at the hypervisor, an interrupt, the interrupt being associated with a priority; wherein, when a virtual processor (440, 450, 460) is executing an interrupt, the virtual processor (440, 450, 460) is associated with a priority which is the priority of the interrupt that the virtual processor (440, 450, 460) is executing; determining, by the hypervisor and based, at least in part, on the workload of each of the plurality of virtual processors (440, 450, 460), the priority associated with the interrupt and the current priority of the virtual processors (440, 450, 460), a virtual processor (440, 450, 460) that can execute the interrupt first; and providing, by the hypervisor to a virtual interrupt controller of hardware of the host machine, an identification of said determined virtual processor (440, 450, 460) that can execute the interrupt first and to which the interrupt is to be delivered, when said virtual processor (440, 450, 460) is not active such that the hardware pends the interrupt to said virtual processor (440, 450, 460), thereby causing the virtual interrupt controller to deliver the interrupt to said virtual processor (440, 450, 460) that can execute the interrupt first but not to the other virtual processors (440, 450, 460) in the plurality of virtual processors (440, 450, 460).
Operating circuit for supplying a luminaire which comprises at least one light-emitting diode, wherein the operating circuit comprises: an LLC resonance converter with a half-bridge circuit having a first switch and a second switch, and a switch control device for alternatingly clocked switching of the first switch and the second switch, wherein the operating circuit has a first operating mode for current regulation and a second operating mode for voltage regulation, and wherein the operating circuit comprises an interface (24; 26) which is coupled to the switch control device in order to enable a selection between the first operating mode and the second operating mode, characterized in that the interface (24; 26) is configured as a connection for connecting to the luminaire. an LLC resonance converter with a half-bridge circuit having a first switch and a second switch, and a switch control device for alternatingly clocked switching of the first switch and the second switch, wherein the operating circuit has a first operating mode for current regulation and a second operating mode for voltage regulation, and wherein the operating circuit comprises an interface (24; 26) which is coupled to the switch control device in order to enable a selection between the first operating mode and the second operating mode, characterized in that the interface (24; 26) is configured as a connection for connecting to the luminaire.
A thermal insulation element out of mineral wool, in particular out of rock wool or glass wool, where the mineral wool fibers are humidified with a binding agent for the purpose of curing, with an inorganic infrared opacifier being deposited at the mineral wool fibers, the opacifier being formed of zirconium silicate, characterized in that the zirconium silicate is deposited in the mineral wool in an amount of 1 to 10 weight% relating to the total weight.
A composition for optical materials, which comprises an episulfide compound, a polythiol compound and a photochromic compound, wherein in the composition for optical materials, the ratio of the episulfide compound is 65 to 90% by mass, the ratio of the polythiol compound is 5 to 35% by mass and the ratio of the photochromic compound is 0.01 to 0.5% by mass, and wherein the photochromic compound is selected from the group consisting of a spiropyran-based compound, a spirooxazine-based compound, a spiroperimidine-based compound, a benzopyran-based compound, a fulgide-based compound, a naphthopyran-based compound, a diarylethene-based compound and an azobenzene-based compound.
Method for producing a gear mechanism comprising a first gearwheel, which is rotatable about a first axis of rotation, and a second gearwheel, which is rotatable about a second axis of rotation, wherein the first and the second gearwheel are in engagement with one another, wherein the first and the second axis of rotation are oriented parallel to one another and are spaced apart from one another, wherein the first gearwheel is configured with teeth which are each identical and which are regularly spaced apart from one another in a circumferential direction, wherein, in cross-section, one of the two flanks of the respective tooth is configured as a circular arc at least in an active engagement region, wherein the axes of rotation are parallel to a normal to the sectional plane of the cross-section, wherein the centre point of the circle comprising the circular arc is at a finite and non-vanishing distance from the first and the second axis of rotation, that is to say an eccentric offset (e), wherein the centre point of the circle comprising the circular arc is at a finite and non-vanishing distance from the plane that includes the first and the second axis of rotation, that is to say a lateral offset, wherein the active engagement region is the region of the flank that is provided for contact with the other gearwheel, that is to say with the gearwheel engaging therewith, wherein the radius of the circular arc is larger than the lateral offset, wherein the lateral offset has a non-vanishing value, wherein the radius of curvature of the circular arc is larger than one quarter of the pitch and/or than one half of the tooth thickness, characterized in that the cutting edges of the tool that is used to produce the flanks in the rolling process are S-shaped.
A method of forming a ferroelectric capacitor for a ferroelectric memory cell comprising: providing a dielectric layer over a semiconductor; forming a barrier layer over said dielectric layer; forming a first metal layer over said barrier layer; forming a ferroelectric layer over said first metal layer; forming a second metal layer over said ferroelectric layer; forming a hard-mask layer over said second metal layer; etching said first metal layer with a plasma process comprising the gases Cl 2, O 2, N 2, and CO; and etching said ferroelectric layer with a plasma process comprising the gases BCl 3 and Cl 2 in a range of ratios from 1:4 to 10:1 respectively. providing a dielectric layer over a semiconductor; forming a barrier layer over said dielectric layer; forming a first metal layer over said barrier layer; forming a ferroelectric layer over said first metal layer; forming a second metal layer over said ferroelectric layer; forming a hard-mask layer over said second metal layer; etching said first metal layer with a plasma process comprising the gases Cl 2, O 2, N 2, and CO; and etching said ferroelectric layer with a plasma process comprising the gases BCl 3 and Cl 2 in a range of ratios from 1:4 to 10:1 respectively.
An insect pest repellant comprising in a mixed condition the components a dummy egg imitating an egg of a termite insect pest, formed from a particulate substrate on which an egg recognizing pheromone is coated, and a particle which is a seamless capsule containing an active component for repelling the insect pest either on a surface or in an inside of the particle, wherein components and are distinct from one another, wherein said component has a long egg shape having a short diameter of 0.25 to 0.6 mm or a spherical shape having a diameter of 0.25 to 0.6 mm, and said component has a long egg shape having a short diameter of 0.25 to 0.6 mm or a spherical shape having a diameter of 0.4 to 0.6 mm.