mhurhangee/ep-ind-claims huggingface dataset:
Musical instrument string or sports racket string, comprising a string core which comprises or is composed of a bundle of highly oriented thermoplastic fibres, wherein the elongation of the thermoplastic fibres at room temperature and at maximum tensile loading is less than 20%, and the elongation at break of the thermoplastic fibres is less than 25%, wherein at least part of the thermoplastic fibres has a core/casing structure, wherein at least some thermoplastic fibres of the bundle are connected to one another in a materially integral manner at least in part, such as for example in a punctiform or linear manner, by fusing on the boundary surfaces of the fibre casings of the core/casing structure, characterized in that the fibre casing additionally contains ferromagnetic and/or ferrimagnetic particles, in particular solid matter particles.
Flooring comprising at least a VA layer, wherein said VA layer comprises: - at least one thermoplastic polymer, - at least one ethylene-vinyl acetate polymer, - at least one ethylene-butyl acrylate polymer, wherein the at least one EVA polymer of the VA layer contains overall at least 30 mol% of vinyl acetate monomer. - at least one thermoplastic polymer, - at least one ethylene-vinyl acetate polymer, - at least one ethylene-butyl acrylate polymer, wherein the at least one EVA polymer of the VA layer contains overall at least 30 mol% of vinyl acetate monomer.
A compound represented by the following structural formula: or a pharmaceutically acceptable salt thereof, wherein: R 5a is selected from hydrogen, halo, and alkoxy; R 5b is selected from hydrogen, halo, and alkyl; R C is selected from phenyl, heteroaryl, and saturated heterocyclyl, wherein the group represented by R C is optionally substituted with 1 to 2 substituents independently selected from halo, -CN, alkyl, alkoxy, haloalkoxy, haloalkyl, and carbamyl; and R' is selected from hydrogen, alkyl, and alkoxyalkyl. R 5a is selected from hydrogen, halo, and alkoxy; R 5b is selected from hydrogen, halo, and alkyl; R C is selected from phenyl, heteroaryl, and saturated heterocyclyl, wherein the group represented by R C is optionally substituted with 1 to 2 substituents independently selected from halo, -CN, alkyl, alkoxy, haloalkoxy, haloalkyl, and carbamyl; and R' is selected from hydrogen, alkyl, and alkoxyalkyl.
A computer-implemented method comprising: estimating, at a motion estimator engine, a motion vector for each of a plurality of units of a first image, each unit comprising one or more pixels, by comparing corresponding units of a second image and a third image, wherein the second image comprises an image rendered immediately prior to the first image and the third image comprises an image rendered immediately prior to the second image; and identifying, at a rendering processor and for each of the plurality of units, a probability that pixels comprising the unit will be unrendered, the probability being proportional to the magnitude of the motion vector for the unit; and selectively rendering, at the rendering processor, the pixels of each unit of the plurality of units for a resulting rendered image based on the identified probabilities if the second and the third images have a correlation above a first threshold. estimating, at a motion estimator engine, a motion vector for each of a plurality of units of a first image, each unit comprising one or more pixels, by comparing corresponding units of a second image and a third image, wherein the second image comprises an image rendered immediately prior to the first image and the third image comprises an image rendered immediately prior to the second image; and identifying, at a rendering processor and for each of the plurality of units, a probability that pixels comprising the unit will be unrendered, the probability being proportional to the magnitude of the motion vector for the unit; and selectively rendering, at the rendering processor, the pixels of each unit of the plurality of units for a resulting rendered image based on the identified probabilities if the second and the third images have a correlation above a first threshold.
Overshoe comprising - an external bottom assembly comprising an external face and an internal face on the opposite side from the external face, - a flexible upper comprising a low portion provided to cover the foot of a user and a high portion that extends the low portion in a direction away from the external bottom assembly, the high portion being provided to cover at least the ankle of the user, the flexible upper having a fitting opening, - a crampon (61, 62, 63) comprising a body (65, 66) and spikes that project from the external face of the external bottom assembly when the crampon is fitted in the footwear element, characterized in that the body (65, 66) of the crampon (61, 62, 63) is disposed on the side of the internal face of the external bottom assembly, and in that the spikes pass through the thickness of the external bottom assembly from the internal face. - an external bottom assembly comprising an external face and an internal face on the opposite side from the external face, - a flexible upper comprising a low portion provided to cover the foot of a user and a high portion that extends the low portion in a direction away from the external bottom assembly, the high portion being provided to cover at least the ankle of the user, the flexible upper having a fitting opening, - a crampon (61, 62, 63) comprising a body (65, 66) and spikes that project from the external face of the external bottom assembly when the crampon is fitted in the footwear element,
A diagnostic test device (130, 300) comprising: a connectivity module (110, 330) configured to establish a communication channel with a cloud system; a computer-readable memory storing a global unique identifier associated with the diagnostic test device (130, 300) and a serial number of the diagnostic test device (130, 300); and one or more hardware-based processors programmed by executable instructions to perform a method comprising: obtaining a test result; generating an encrypted data block comprising the serial number of the device and the test result using an encryption key associated with the global unique identifier and the serial number; and transmitting the global unique identifier and the encrypted data block to the cloud system via the communication channel. a connectivity module (110, 330) configured to establish a communication channel with a cloud system; a computer-readable memory storing a global unique identifier associated with the diagnostic test device (130, 300) and a serial number of the diagnostic test device (130, 300); and one or more hardware-based processors programmed by executable instructions to perform a method comprising: obtaining a test result; generating an encrypted data block comprising the serial number of the device and the test result using an encryption key associated with the global unique identifier and the serial number; and transmitting the global unique identifier and the encrypted data block to the cloud system via the communication channel. obtaining a test result; generating an encrypted data block comprising the serial number of the device and the test result using an encryption key associated with the global unique identifier and the serial number; and transmitting the global unique identifier and the encrypted data block to the cloud system via the communication channel.
A high-strength galvanized steel sheet having excellent formability and crashworthiness, comprising a substrate and a galvanized layer provided on a surface of the substrate, wherein the substrate has a composition containing, by mass%, C: 0.05% or more and 0.5% or less, Si: 0.01% or more and 2.5% or less, Mn: 0.5% or more and 3.5% or less, P: 0.003% or more and 0.100% or less, S: 0.02% or less, Al: 0.010% or more and 0.5% or less, B: 0.0002% or more and 0.005% or less, Ti: 0.05% or less, a relationship of Ti > 4N being satisfied, wherein the composition optionally further contains any one of: - at least one selected from the group consisting of, by mass%, Cr: 0.005% or more and 2.00% or less, Mo: 0.005% or more and 2.00% or less, V: 0.005% or more and 2.00% or less, Ni: 0.005% or more and 2.00% or less, and Cu: 0.005% or more and 2.00% or less, - Nb: 0.01% or more and 0.20% or less, - at least one selected from the group consisting of Ca: 0.001% or more and 0.005% or less and REM: 0.001% or more and 0.005% or less, and the balance being Fe and inevitable impurities, and a microstructure containing 60% or more and 95% or less of tempered martensite in terms of area ratio and 5% or more and 20% or less of retained austenite in terms of area ratio, wherein the microstructure optionally further contains 10% or less (including 0%) of ferrite in terms of area ratio and/or 10% or less (including 0%) of martensite in terms of area ratio, and wherein the microstructure may contain other phases with a total area ratio of the other phases being 15% or less, and the tempered martensite having an average grain diameter of 5 μm or less. - at least one selected from the group consisting of, by mass%, Cr: 0.005% or more and 2.00% or less, Mo: 0.005% or more and 2.00% or less, V: 0.005% or more and 2.00% or less, Ni: 0.005% or more and 2.00% or less, and Cu: 0.005% or more and 2.00% or less, - Nb: 0.01% or more and 0.20% or less, - at least one selected from the group consisting of Ca: 0.001% or more and 0.005% or less and REM: 0.001% or more and 0.005% or less,
Method for amplifying an optical signal (S E), ultrashort and having a wide spectral band, wherein: - the optical signal (S E) is spatially divided into N elementary optical signals (S E.1, S E.2,..., S E.N), the spectral ranges (Δλ E.1, Δλ E.2,..., Δλ E.N) of which are adjacent in pairs and form, substantially by juxtaposition, the spectral range (Δλ E) of the optical signal (S E), N being an integer at least equal to 2; - the N elementary optical signals (S E.1, S E.2,..., S E.N) are amplified respectively by means of N elementary amplifiers (4,1, 4.2,..., 4.N), the spectral ranges of amplification (Δλ G.1, Δλ G.2,..., Δλ G.N) of which respectively comprise substantially the spectral ranges (Δλ E.1, Δλ E.2, Δλ E.N) of said N elementary optical signals; - the N amplified elementary optical signals (S S.1, S S.2,..., S S.N) are assembled to form an amplified optical signal (S S), the spectral range (Δλ S) of which substantially coincides with a predetermined spectral range; and characterised in that: - the spectral phases of the N initial elementary optical signals (S E.1, S E.2,..., S E.N) are adjusted before amplification on the basis of the spectral phase of said amplified optical signal (S S), by adjusting said spectral phases of the N initial elementary optical signals so that the duration (Δt S) of the amplified optical signal (S S) is equal to the duration (Δt E) of the initial optical signal (S E). - the optical signal (S E) is spatially divided into N elementary optical signals (S E.1, S E.2,..., S E.N), the spectral ranges (Δλ E.1, Δλ E.2,..., Δλ E.N) of which are adjacent in pairs and form, substantially by juxtaposition, the spectral range (Δλ E) of the optical signal (S E), N being an integer at least equal to 2; - the N elementary optical signals (S E.1, S E.2,..., S E.N) are amplified respectively by means of N elementary amplifiers (4,1, 4.2,..., 4.N), the spectral ranges of amplification (Δλ G.1, Δλ G.2,..., Δλ G.N) of which respectively comprise substantially the spectral ranges (Δλ E.1, Δλ E.2, Δλ E.N) of said N elementary optical signals; - the N amplified elementary optical signals (S S.1, S S.2,..., S S.N) are assembled to form an amplified optical signal (S S), the spectral range (Δλ S) of which substantially coincides with a predetermined spectral range; and - the spectral phases of the N initial elementary optical signals (S E.1, S E.2,..., S E.N) are adjusted before amplification on the basis of the spectral phase of said amplified optical signal (S S), by adjusting said spectral phases of the N initial elementary optical signals so that the duration (Δt S) of the amplified optical signal (S S) is equal to the duration (Δt E) of the initial optical signal (S E).
A vehicle battery pack peripheral structure including: a floor assembly constituting a floor of a vehicle; a battery pack located below the floor assembly; a bracket configured so as to mount the battery pack to the floor assembly; and an undercover that covers the battery pack from below, the floor assembly including a cross member extending in a vehicle width direction along the floor assembly, the bracket being mounted to the battery pack and the cross member, wherein the cross member is disposed closer to a vehicle front side than a front end of the battery pack in a vehicle front-rear direction, characterized in that: the undercover includes a front panel disposed closer to the vehicle front side than the battery pack and a rear panel located closer to a vehicle rear side than the front panel, the battery pack located above the rear panel but not located above the front panel, wherein a rear-end region of the front panel in the vehicle front-rear direction and a front-end region of the rear panel in the vehicle front-rear direction are coupled to each other at a coupling region, and wherein a fixing region in which the battery pack and the bracket are fixed to each other is located closer to the vehicle rear side than the coupling region. a floor assembly constituting a floor of a vehicle; a battery pack located below the floor assembly; a bracket configured so as to mount the battery pack to the floor assembly; and an undercover that covers the battery pack from below, the floor assembly including a cross member extending in a vehicle width direction along the floor assembly, the bracket being mounted to the battery pack and the cross member, wherein the cross member is disposed closer to a vehicle front side than a front end of the battery pack in a vehicle front-rear direction, characterized in that: the undercover includes a front panel disposed closer to the vehicle front side than the battery pack and a rear panel located closer to a vehicle rear side than the front panel, the battery pack located above the rear panel but not located above the front panel, wherein a rear-end region of the front panel in the vehicle front-rear direction and a front-end region of the rear panel in the vehicle front-rear direction are coupled to each other at a coupling region, and wherein a fixing region in which the battery pack and the bracket are fixed to each other is located closer to the vehicle rear side than the coupling region. the undercover includes a front panel disposed closer to the vehicle front side than the battery pack and a rear panel located closer to a vehicle rear side than the front panel, the battery pack located above the rear panel but not located above the front panel, wherein a rear-end region of the front panel in the vehicle front-rear direction and a front-end region of the rear panel in the vehicle front-rear direction are coupled to each other at a coupling region, and wherein a fixing region in which the battery pack and the bracket are fixed to each other is located closer to the vehicle rear side than the coupling region.
A continuous method for forming a pack of glass fibers comprising: melting glass; processing the molten glass to form glass fibers; wherein the glass fibers have a diameter range of in a range of from about 3.6 microns (14 HT) to about 6.4 microns (25 HT); wherein the glass fibers have a length range from about 2.54 cm (1.0 inches) to about 12.7 cm (5.0 inches); forming a binderless web of the glass fibers; layering the binderless web of glass fibers; mechanically entangling the fibers of the layered webs by needling to form the pack. melting glass; processing the molten glass to form glass fibers; wherein the glass fibers have a diameter range of in a range of from about 3.6 microns (14 HT) to about 6.4 microns (25 HT); wherein the glass fibers have a length range from about 2.54 cm (1.0 inches) to about 12.7 cm (5.0 inches); forming a binderless web of the glass fibers; layering the binderless web of glass fibers; mechanically entangling the fibers of the layered webs by needling to form the pack.
Antiperspirant cosmetic composition in water-in-oil emulsion form, comprising, in a cosmetically acceptable medium, one or more antiperspirant active agents, one or more vinyl polymers containing at least one carbosiloxane dendrimer-based unit, and one or more olefin copolymers, said antiperspirant cosmetic composition being in an aerosol form.
An appearance inspecting apparatus for an article, comprising: an image acquiring section (110, 120) adapted to acquire a captured image for at least a portion of appearance of the article; and a processing section adapted to use the captured image of the article to determine whether the appearance of the article is defective or not; wherein the processing section is adapted to acquire first image data for an inspection region (IR1, IR2)including at least a portion of the captured image, to acquire an equation that follows a trend of levels of the first image data according to a location in the inspection region (IR1, IR2), and to acquire second image data based on relative levels between the equation and the levels of the first image data, wherein the equation represents a distribution of the first image data, wherein the second image data is acquired from a distance between the first image data and a value according to the equation, with respect to each location in the inspection region(IR1, IR2), wherein the processing section is adapted to determine whether the appearance of the article is defective or not based on the second image data, wherein the article has a non-plane portion, and the processing section is adapted to determine whether the appearance of the article is defective or not by applying plane inspection criteria to the second image data, and wherein the plane inspection criteria are inspection criteria that are applied in case that the inspection region (IR1, IR2) corresponds to a plane. an image acquiring section (110, 120) adapted to acquire a captured image for at least a portion of appearance of the article; and a processing section adapted to use the captured image of the article to determine whether the appearance of the article is defective or not; wherein the processing section is adapted to acquire first image data for an inspection region (IR1, IR2)including at least a portion of the captured image, to acquire an equation that follows a trend of levels of the first image data according to a location in the inspection region (IR1, IR2), and to acquire second image data based on relative levels between the equation and the levels of the first image data, wherein the equation represents a distribution of the first image data, wherein the second image data is acquired from a distance between the first image data and a value according to the equation, with respect to each location in the inspection region(IR1, IR2), wherein the processing section is adapted to determine whether the appearance of the article is defective or not based on the second image data, wherein the article has a non-plane portion, and the processing section is adapted to determine whether the appearance of the article is defective or not by applying plane inspection criteria to the second image data, and wherein the plane inspection criteria are inspection criteria that are applied in case that the inspection region (IR1, IR2) corresponds to a plane.
A mixing apparatus for introducing a first liquid, a second liquid, and a third liquid into a process liquid flow which is flowing in a linear flow duct section, wherein the mixing apparatus has a first liquid inlet conduit for feeding first liquid into the mixing apparatus, a second liquid inlet conduit for feeding second liquid into the mixing apparatus, a third liquid inlet conduit for feeding third liquid into the mixing apparatus, and an outlet assembly configured to feed mixture of first liquid, second liquid, and third liquid from the mixing apparatus, characterized by the outlet assembly of the mixing apparatus including a pair of identical first outlet openings arranged symmetrically with respect to a center plane of the outlet assembly, wherein each first outlet opening is configured to feed mixture of first liquid, second liquid and third liquid from the mixing apparatus, a second outlet opening arranged at said center plane, wherein said second outlet opening is configured to feed mixture of first liquid, second liquid and third liquid from the mixing apparatus, a pair of identical third outlet openings arranged symmetrically with respect to said center plane and along said center plane of the outlet assembly between said pair of identical first outlet openings and said second outlet opening, wherein each third outlet opening is configured to feed mixture of first liquid, second liquid and third liquid from the mixing apparatus, by the third liquid inlet conduit being at a third downstream end of the third liquid inlet conduit in fluid connection with five outlet conduits of the outlet assembly, wherein each outlet conduit of the outlet assembly terminating in one of said first outlet openings, the second outlet opening, and said third outlet openings, by the first liquid inlet conduit having a first inlet opening at a first upstream end of the first liquid inlet conduit and a first downstream end, by the second liquid inlet conduit having a second inlet opening at a second upstream end of the second liquid inlet conduit and a second downstream end, by the third liquid inlet conduit having a third inlet opening at a third upstream end of the third liquid inlet conduit and a third downstream end, by the first liquid inlet conduit at the first downstream end of the first liquid inlet conduit opening up inside the second liquid inlet conduit, and by the second liquid inlet conduit at the second downstream end of the second liquid inlet conduit opening up inside the third liquid inlet conduit.