mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising the steps of causing transmission of one or more shaped Amplified Spontaneous Emission, ASE, signals that are shaped to include one or more peaks, from an ASE source , on an optical fiber ; obtaining received spectrum of the one or more shaped ASE signals from an optical receiver connected to the optical fiber ; and characterizing the optical fiber based on nonlinear broadening effects in the received spectrum of the one or more shaped ASE signals that cause a change in a spectral shape of the one or more peaks, wherein the optical fiber is characterized based on one or more of a shape of the received spectrum due to the nonlinear broadening effects and a separate differential delay measurement, to determine the group velocity dispersion parameter (GVD), β 2 , and fiber nonlinear coefficient, γ , a shape of the received spectrum due to the nonlinear broadening effects and a separate Stimulated Raman Scattering, SRS, measurement, to determine the group velocity dispersion parameter, GVD, β 2 , and fiber nonlinear coefficient, γ and a Least Mean Square, LMS fit, to determine the group velocity dispersion parameter (GVD), β 2 , and fiber nonlinear coefficient, γ . causing transmission of one or more shaped Amplified Spontaneous Emission, ASE, signals that are shaped to include one or more peaks, from an ASE source , on an optical fiber ; obtaining received spectrum of the one or more shaped ASE signals from an optical receiver connected to the optical fiber ; and characterizing the optical fiber based on nonlinear broadening effects in the received spectrum of the one or more shaped ASE signals that cause a change in a spectral shape of the one or more peaks, wherein the optical fiber is characterized based on one or more of a shape of the received spectrum due to the nonlinear broadening effects and a separate differential delay measurement, to determine the group velocity dispersion parameter (GVD), β 2 , and fiber nonlinear coefficient, γ , a shape of the received spectrum due to the nonlinear broadening effects and a separate Stimulated Raman Scattering, SRS, measurement, to determine the group velocity dispersion parameter, GVD, β 2 , and fiber nonlinear coefficient, γ and a Least Mean Square, LMS fit, to determine the group velocity dispersion parameter (GVD), β 2 , and fiber nonlinear coefficient, γ .
A high-strength steel sheet that has a component composition comprising, on a mass percent basis: C: 0.07% to 0.25%, Si: 0.01% to 1.80%, Mn: 1.8% to 3.2%. P: 0.05% or less, S: 0.02% or less, Al: 0.01% to 2.0%, and N: 0.01% or less; at least one of B: 0.0001% to 0.005%, Ti: 0.005% to 0.04%, and Nb: 0.005% to 0.06%; optionally at least one of Mo: 0.03% to 0.50% and Cr: 0.1% to 1.0% in a total of 1% or less, optionally a total of 0.5% or less of at least one of Cu, Ni, Sn, As, Sb, Ca, Mg, Pb, Co, Ta, W, REM, Zn, V, Sr, Cs, and Hf, and a balance being Fe and incidental impurities, that has a steel microstructure in which an area percentage of ferrite ranges from 5% to 50% in a thickness cross-section in a rolling direction, a total area percentage of fresh martensite and retained γ ranges from 2% to 30%, each of the fresh martensite and the retained γ has an average grain size of 5 μm or less, and a ratio of the fresh martensite and the retained γ adjacent only to ferrite with respect to the fresh martensite and the retained γ from a surface to 200 μm in the thickness direction is 30% or less in total area percentage, wherein residual microstructures include tempered martensite, bainite and pearlite in an amount of 93% or less, wherein tempered martensite may range from 40% to 85% and bainite and pearlite may be 16% or less in total, wherein the high-strength steel sheet has a yield strength of 550 MPa or more, wherein the yield strength, the area percentage of ferrite, the total area percentage of fresh martensite and retained γ, the average grain size of the fresh martensite and the retained γ, the ratio of the fresh martensite and the retained γ adjacent only to ferrite with respect to the fresh martensite and the retained γ as well as the percentage of tempered martensite and the total percentage of bainite and pearlite are determined in accordance with the specifics given in the description. C: 0.07% to 0.25%, Si: 0.01% to 1.80%, Mn: 1.8% to 3.2%. P: 0.05% or less, S: 0.02% or less, Al: 0.01% to 2.0%, and N: 0.01% or less; at least one of B: 0.0001% to 0.005%, Ti: 0.005% to 0.04%, and Nb: 0.005% to 0.06%; optionally at least one of Mo: 0.03% to 0.50% and Cr: 0.1% to 1.0% in a total of 1% or less, optionally a total of 0.5% or less of at least one of Cu, Ni, Sn, As, Sb, Ca, Mg, Pb, Co, Ta, W, REM, Zn, V, Sr, Cs, and Hf, and a balance being Fe and incidental impurities, that has a steel microstructure in which an area percentage of ferrite ranges from 5% to 50% in a thickness cross-section in a rolling direction, a total area percentage of fresh martensite and retained γ ranges from 2% to 30%, each of the fresh martensite and the retained γ has an average grain size of 5 μm or less, and a ratio of the fresh martensite and the retained γ adjacent only to ferrite with respect to the fresh martensite and the retained γ from a surface to 200 μm in the thickness direction is 30% or less in total area percentage,
An information providing method comprising: making a video call (S910) with a first electronic apparatus (200-1) and a second electronic apparatus (200-2); the first electronic apparatus (200-1) identifying a first user making the video call (S915) and the second electronic apparatus (200-2) identifying a second user making the video call (S920); the first electronic apparatus (200-1) transmitting information about the identified first user to a server (S925), and the second electronic apparatus (200-2) transmitting information about the identified second user to the server (S930), the server acquiring information-of-interest related to the first identified user and the second identified user (S830) based on the first and second user's log histories on social network services (SNSs); acquiring at least one information of common interest or information of individual interest by analyzing the information-of-interest; transmitting the acquired at least one information of common interest or information of individual interest to the first electronic apparatus (200-1) (S945) and to the second electronic apparatus (200-2) (S950); and displaying the acquired at least one at least one information of common interest or information of individual interest on a video call screen of the first electronic apparatus (200-1) (S955), and on a video call screen of the second electronic apparatus (200-2) (S960). making a video call (S910) with a first electronic apparatus (200-1) and a second electronic apparatus (200-2); the first electronic apparatus (200-1) identifying a first user making the video call (S915) and the second electronic apparatus (200-2) identifying a second user making the video call (S920); the first electronic apparatus (200-1) transmitting information about the identified first user to a server (S925), and the second electronic apparatus (200-2) transmitting information about the identified second user to the server (S930), the server acquiring information-of-interest related to the first identified user and the second identified user (S830) based on the first and second user's log histories on social network services (SNSs); acquiring at least one information of common interest or information of individual interest by analyzing the information-of-interest; transmitting the acquired at least one information of common interest or information of individual interest to the first electronic apparatus (200-1) (S945) and to the second electronic apparatus (200-2) (S950); and displaying the acquired at least one at least one information of common interest or information of individual interest on a video call screen of the first electronic apparatus (200-1) (S955), and on a video call screen of the second electronic apparatus (200-2) (S960).
A medication injection device comprising a housing , a holder for receiving and holding in said housing a medication container an end of which is connectable to a needle , control means , means , controlled by said control means , for pushing liquid medication contained in said medication container out of said medication container through said needle and first sensor means , connected to said control means , for detecting proper connection of said needle to said medication container , characterized by comprising second sensor means , connected to said control means , for detecting partial connection of said needle to said medication container .
A method of deriving a signature characteristic of a plurality of fields or frames of video data comprising: determining spatial profile data of the video fields or frames dependent on picture information values in the video fields or frames; and forming a signature from the spatial profile data; characterised in that the formed signature is subsequently augmented by video analysis data provided by a video analysis tool, wherein the video analysis data provided by the video analysis tool includes metadata that is used to measure an image artefact in the video data. determining spatial profile data of the video fields or frames dependent on picture information values in the video fields or frames; and forming a signature from the spatial profile data; characterised in that the formed signature is subsequently augmented by video analysis data provided by a video analysis tool, wherein the video analysis data provided by the video analysis tool includes metadata that is used to measure an image artefact in the video data.
An epoxy resin formulation containing from 7 to 10 wt% of a dicyandiamide hardener, from 4 to 10 wt % based on the weight of the epoxy resin of one or more urea based curing agents, and in which the epoxy resin has a functionality of at least 2, the formulation being curable at 150°C in no more than 150 seconds, and being curable at 120°C in no more than 4 minutes to provide a cured resin having a Tg no greater than 140°C, as measured according to test Method ASTM D7028.
An image decoding method for decoding image data formed by a plurality of frames, the image decoding method characterized by having a current category decoding step for decoding a category number j of a current frame, the current frame being classified into one of N categories, with N ≥ 2, a reference image specifying data decoding step for decoding a reference image specifying data which specifies a reference frame, for said decoded category number, a predicted image producing step for producing a predicted image from the reference frame specified by said reference image specifying data, wherein the reference frame is selected from image data of a plurality of reference frames of an i-th category which have been decoded previously, for the current frame classified as j-th category, wherein for the number of the categories 1 ≤ i ≤ j is applied, a difference decoding step for decoding a difference between a decoded image of the current frame and the predicted image, a decoded image producing step for producing the decoded image of the current frame from said decoded difference data and said predicted image, and a decoded image storing step for storing said produced decoded image data of the current frame into a reference image memory in association with said decoded category number, wherein said reference image specifying data decoding step has a tentative frame number setting step for setting tentative frame numbers with respect to the image data of the reference frames each belonging to the i-th category which is the j-th category of the current frame and below, among a plurality of image data stored in said reference image memory and not setting tentative frame numbers with respect to the image data of reference frames belonging to categories other than the i-th category, the tentative frame numbers being serial numbers and being set based on a decoding order of the reference frames, and a tentative frame number decoding step for obtaining the tentative frame number which specifies an image data to be selected at said predicted image producing step, by decoding the reference image specifying data.
Drivable expansion joint , comprising: - at least one profiled joint element , - at least one toothed road plate , this plate having bores provided with counterbores , - threaded elements for fixing the road plate to the profiled element, - locking washers , which are interposed axially between the threaded elements and the bottom of the counterbores , for preventing the threaded elements from loosening, characterized in that the locking washers are wedge-locking washers, - a seal is received in a groove in the profiled element , the threaded elements being engaged in bores in the profiled element that open into said groove , the surface of the groove onto which the bores open being concave towards the inside of the groove , the threaded elements having a length (L) such that their end extends at least partially out of the bore into the groove , the threaded elements coming into contact with the seal. - at least one profiled joint element , - at least one toothed road plate , this plate having bores provided with counterbores , - threaded elements for fixing the road plate to the profiled element, - locking washers , which are interposed axially between the threaded elements and the bottom of the counterbores , for preventing the threaded elements from loosening, characterized in that the locking washers are wedge-locking washers, - a seal is received in a groove in the profiled element , the threaded elements being engaged in bores in the profiled element that open into said groove , the surface of the groove onto which the bores open being concave towards the inside of the groove , the threaded elements having a length (L) such that their end extends at least partially out of the bore into the groove , the threaded elements coming into contact with the seal.
An oven comprising an oven cavity wherein the ingredients to be cooked are placed; a casing in the form of a box with the front side open and that surrounds the oven cavity ; a steam generator that is disposed on the casing ; a water tank that is disposed on the casing and that enables water to be delivered to the steam generator ; an opening that is disposed on the panel , and that provides access to the water tank ; and a cover that is disposed above the opening , and that has an open position and a closed position, a motor that is disposed on the casing , and the cover that is enabled to be moved to the closed position form the open position or to the open position from the closed position by means of the motor characterized by a mounting plate disposed on the cover ; at least one pin disposed on the mounting plate ; a carrier plate that is disposed on the casing and whereon the motor is disposed, and at least one channel that is arranged on the carrier plate and wherein the pin is fitted.
Composition under the form of aqueous gel for caring for and/or making up keratin materials comprising, in a physiologically acceptable medium, a) one aqueous phase; and b) at least one hydrophilic gelling agent, and c) at least microcapsules having a mean size from 10 μm to 400 μm and comprising: - an inner core comprising at least a dispersion of bismuth oxychloride in at least one oil chosen from 2-ethylhexyl hydroxystearate, ethylhexyl ethylhexanoate, castor oil, or any combination thereof, and more particularly is 2-ethylhexyl hydroxystearate and - at least one outer shell formed of a wall-forming polymeric material surrounding the said core, the said outer shell comprising i) at least one wall-forming polymer, and ii) optionally at least one plasticizer and/or at least one opaque substance and/:or at least one fatty acid salt. a) one aqueous phase; and b) at least one hydrophilic gelling agent, and c) at least microcapsules having a mean size from 10 μm to 400 μm and comprising: - an inner core comprising at least a dispersion of bismuth oxychloride in at least one oil chosen from 2-ethylhexyl hydroxystearate, ethylhexyl ethylhexanoate, castor oil, or any combination thereof, and more particularly is 2-ethylhexyl hydroxystearate and - at least one outer shell formed of a wall-forming polymeric material surrounding the said core, the said outer shell comprising i) at least one wall-forming polymer, and ii) optionally at least one plasticizer and/or at least one opaque substance and/:or at least one fatty acid salt. - an inner core comprising at least a dispersion of bismuth oxychloride in at least one oil chosen from 2-ethylhexyl hydroxystearate, ethylhexyl ethylhexanoate, castor oil, or any combination thereof, and more particularly is 2-ethylhexyl hydroxystearate and - at least one outer shell formed of a wall-forming polymeric material surrounding the said core, the said outer shell comprising i) at least one wall-forming polymer, and ii) optionally at least one plasticizer and/or at least one opaque substance and/:or at least one fatty acid salt. i) at least one wall-forming polymer, and ii) optionally at least one plasticizer and/or at least one opaque substance and/:or at least one fatty acid salt.
An oxalate absorption blocking composition comprising 100 mg to 2500 mg calcium and 50 mg to 1500 mg magnesium for use in reducing fibromyalgia pain in a mammal and/or reducing pain due to calcification of the spine and/or a shoulder of a mammal, wherein a therapeutically effective amount of the oxalate absorption blocking composition is for oral administration.
A method for determining the molar ratio between wild type (WT) BRAF (v-raf murine sarcoma viral oncogene homolog B1) protein and protein variants thereof in a biological sample, wherein the BRAF protein variants are variants mutated in the position corresponding to amino acid position 600 in WT BRAF, said position being occupied by valine in the WT BRAF, comprising the steps of; a) digesting said sample by using a serine proteinase which specifically cleaves peptide bonds C-terminal to glutamic acid residues or peptide bonds C-terminal to glutamic or aspartic acid residues, to obtain a composition comprising a peptide fragment resulting from digestion of the peptides by the proteinase, wherein the mass of said fragment differs between said wild type (WT) B-raf protein and a BRAF protein variant; b) quantitatively assaying the molar amount of a peptide fragment resulting from digestion of wild type (WT) B-raf protein and the molar amount of a peptide fragment resulting from digestion of variants of the wild type (WT) B-raf protein using a mass spectrometry technique; and c) based on the quantitative assessment calculating the at least one specific ratio between said WT BRAF protein and a variant thereof. a) digesting said sample by using a serine proteinase which specifically cleaves peptide bonds C-terminal to glutamic acid residues or peptide bonds C-terminal to glutamic or aspartic acid residues, to obtain a composition comprising a peptide fragment resulting from digestion of the peptides by the proteinase, wherein the mass of said fragment differs between said wild type (WT) B-raf protein and a BRAF protein variant; b) quantitatively assaying the molar amount of a peptide fragment resulting from digestion of wild type (WT) B-raf protein and the molar amount of a peptide fragment resulting from digestion of variants of the wild type (WT) B-raf protein using a mass spectrometry technique; and c) based on the quantitative assessment calculating the at least one specific ratio between said WT BRAF protein and a variant thereof.
A mold steel consisting of: 0.35<C<0.55 mass%, 0.003≤Si<0.300 mass%, 0.30<Mn< 1.25 mass%, 3.03<Cr<3.5 mass%, 0.003≤Cu<1.200 mass%, 0.003≤Ni≤0.7 mass%, 0.50<Mo<3.29 mass%, 0.55<V<1.13 mass%, and 0.0002≤N<0.1200 mass%, and optionally, W≤5.00 mass%, Co≤4.00 mass% Nb≤0.100 mass%, Ta≤0.100 mass%, Ti≤0.100 mass%, Zr≤0.100 mass%, Al≤1.50 mass%, B≤0.0050 mass%, S≤0.050 mass%, Ca≤0.2000 mass%, Se≤0.50 mass%, Te≤0.100 mass%, Bi≤0.50 mass%, and Pb≤0.50 mass%, with a balance being Fe and unavoidable impurities, and satisfying 0.55<Cu+Ni+Mo<3.29 mass%, wherein the mold steel has: a hardness being higher than 33 HRC and 57 HRC or lower, a grain size number of prior austenite at the time of quenching being 5 or more, and a thermal conductivity λ at 25°C measured by using a laser flash method being higher than 27.0 [W/m/K]. 0.35<C<0.55 mass%, 0.003≤Si<0.300 mass%, 0.30<Mn< 1.25 mass%, 3.03<Cr<3.5 mass%, 0.003≤Cu<1.200 mass%, 0.003≤Ni≤0.7 mass%, 0.50<Mo<3.29 mass%, 0.55<V<1.13 mass%, and 0.0002≤N<0.1200 mass%, and optionally, W≤5.00 mass%, Co≤4.00 mass% Nb≤0.100 mass%, Ta≤0.100 mass%, Ti≤0.100 mass%, Zr≤0.100 mass%, Al≤1.50 mass%, B≤0.0050 mass%, S≤0.050 mass%, Ca≤0.2000 mass%, Se≤0.50 mass%, Te≤0.100 mass%, Bi≤0.50 mass%, and Pb≤0.50 mass%, with a balance being Fe and unavoidable impurities, and
A method of performing indoor/outdoor detection for a mobile device comprising: obtaining a sensor reading from a sensor accessible by the mobile device; obtaining contemporaneous information related to a local condition associated with an area where the mobile device is located; selecting an indoor/outdoor detection model to apply from a plurality of trained models, the selection based at least in part on the contemporaneous information regarding the local condition; providing the sensor reading as input to the selected model; determining a likelihood that a user of the mobile device is located indoors based on the selected model; classifying the mobile device as indoors or outdoors based on the likelihood. obtaining a sensor reading from a sensor accessible by the mobile device; obtaining contemporaneous information related to a local condition associated with an area where the mobile device is located; selecting an indoor/outdoor detection model to apply from a plurality of trained models, the selection based at least in part on the contemporaneous information regarding the local condition; providing the sensor reading as input to the selected model; determining a likelihood that a user of the mobile device is located indoors based on the selected model; classifying the mobile device as indoors or outdoors based on the likelihood.
A compound of general formula I wherein R 1 , R 2 , R 3 , R 4 , R 7 and R 8 are independently selected from hydrogen, C 1 -C 4 alkyl, C 1 -C 2 alkanol or hydroxyl; A is O, O(CH 2 CH 2 O) v or [SiR 5 R 6 O] w SiR 5 R 6 , wherein R 5 and R 6 are independently selected from C 1-4 alkyl or phenyl, and v is from 1-20 and w is from 0 to 60; m and n are integers independently selected from 1 to 10; p is 1; and q is an integer from 0 to 6; and X and Y are independently selected from O or NR 9 , wherein R 9 is hydrogen, C 1 -C 4 alkyl or C 1 -C 2 alkanol. wherein R 1 , R 2 , R 3 , R 4 , R 7 and R 8 are independently selected from hydrogen, C 1 -C 4 alkyl, C 1 -C 2 alkanol or hydroxyl; A is O, O(CH 2 CH 2 O) v or [SiR 5 R 6 O] w SiR 5 R 6 , wherein R 5 and R 6 are independently selected from C 1-4 alkyl or phenyl, and v is from 1-20 and w is from 0 to 60; m and n are integers independently selected from 1 to 10; p is 1; and q is an integer from 0 to 6; and X and Y are independently selected from O or NR 9 , wherein R 9 is hydrogen, C 1 -C 4 alkyl or C 1 -C 2 alkanol.