mhurhangee/ep-ind-claims huggingface dataset:
Cosmetic treatment method comprising the steps: - creating, on a region of the keratin materials of a person to be treated such as skin, hair region, eyebrows and beard, a set of adhesive areas and of non-adhesive areas extending between the adhesive areas, - electrostatically projecting fibres onto said region. - creating, on a region of the keratin materials of a person to be treated such as skin, hair region, eyebrows and beard, a set of adhesive areas and of non-adhesive areas extending between the adhesive areas, - electrostatically projecting fibres onto said region.
Remote control device for an MV/LV substation between a medium-voltage network and a low-voltage network, comprising: - first means for supplying said device from the low-voltage network and from an auxiliary source; - second means for communicating the information gathered by said device to the outside; - third means for monitoring the medium-voltage network at the substation; - fourth means for monitoring the low-voltage network at the substation, the device being characterized in that: the first means, the second means, the third means and the fourth means are formed by a module comprising a housing (110, 250, 310, 430) accommodating electronic means that are designed to perform the function of the respective means (100, 200, 300, 400), and in that the fourth means comprise electronic means that make it possible to measure the current, the voltage, the energy and/or the power of the low-voltage network, said fourth means being associated with a set of three current sensors positioned on a line of the low-voltage network (4A, 4B, 4C), said sensors being self-powered and communicating wirelessly with said fourth means. - first means for supplying said device from the low-voltage network and from an auxiliary source; - second means for communicating the information gathered by said device to the outside; - third means for monitoring the medium-voltage network at the substation; - fourth means for monitoring the low-voltage network at the substation, the first means, the second means, the third means and the fourth means are formed by a module comprising a housing (110, 250, 310, 430) accommodating electronic means that are designed to perform the function of the respective means (100, 200, 300, 400), and in that the fourth means comprise electronic means that make it possible to measure the current, the voltage, the energy and/or the power of the low-voltage network, said fourth means being associated with a set of three current sensors positioned on a line of the low-voltage network (4A, 4B, 4C), said sensors being self-powered and communicating wirelessly with said fourth means.
A pharmaceutical preparation in a powder-like form comprising a therapeutically effective amount of human Factor IX (hFIX), which is encapsulated by a lipophilic biodegradable polymer or copolymer to form a microsphere being made from a water-in-oil-in-water (w/o/w) emulsion, whereby the pharmaceutical preparation provides a sustained release of hFIX and a prolonged biological activity, the pharmaceutical preparation being prepared by a method consisting of the following steps: a) mixing a therapeutically effective amount of human Factor IX (hFIX) in an aqueous solution with a lipophilic biodegradable polymer or copolymer in an organic solution to obtain a primary emulsion; b) mixing the primary emulsion with a surfactant solution to obtain a secondary emulsion; and c) evaporating the organic solvent, then filtrating, washing, and lyophilizing the secondary emulsion to obtain a powder-like pharmaceutical preparation; wherein the lipophilic biodegradable polymer or copolymer is selected from the group consisting of polyglycolic acid, poly(lactic-co-glycolic acid) (PLGA), poly(γ-glutamic acid), polyvinylic acid, polycaprolactone, polyanhydrides, polyamino acid, polydioxanone, polyhydroxybutyrate, polyphosphazenes, polyesterurethane, polycarboxyphenoxypropane-cosebacic acid, polyorthoester, and the combination thereof, and wherein the the surfactant is selected from a group consisting of glycerin fatty acid ester, sucrose fatty acid ester, sorbitan fatty acid ester, propylene glycol fatty acid ester, diacetyl tartaric acid esters of mono-and diglycerides, sodium aluminum phosphate, polysorbate 20, polysorbate 60, polysorbate 65, polysorbate 80, hydroxypropyl cellulose, hydroxylpropyl methylcellulose, citrated mono-and diglycerides, tartrated mono-and diglycerides, lactated mono-and diglycerides, ethoxylated mono-and diglycerides, mono-and diglycerides monosodium phosphate derivatives, succinylated monoglycerides, polyglycerol esters of fatty acid, polyglycerol esters of interesterified ricinoleic acids, calcium stearyl-2-lactylate, salts of fatty acids, polyoxyethylene sorbitan monopalmitate, polysorbate 40, polyoxyethylene monostearate, polyoxyethylene sorbitan tristearate, Triton x-100, polyethylene glycol 200-800, sodium lauryl sulfate, alcohol ethoxylates, alkylphenol ethoxylates, alkyl polyglycosides, and combination thereof. a) mixing a therapeutically effective amount of human Factor IX (hFIX) in an aqueous solution with a lipophilic biodegradable polymer or copolymer in an organic solution to obtain a primary emulsion; b) mixing the primary emulsion with a surfactant solution to obtain a secondary emulsion; and c) evaporating the organic solvent, then filtrating, washing, and lyophilizing the secondary emulsion to obtain a powder-like pharmaceutical preparation;
A scintillator panel comprising: a plate-like substrate; a grid-like barrier rib provided on the substrate; and a scintillator layer composed of a phosphor filled in cells divided by the barrier rib, wherein the barrier rib is formed of a material which is mainly composed of a low-melting-point glass having a softening temperature of 700 °C or lower containing 2 to 20% by mass of an alkali metal oxide.
Method for creating an MR image of an examination object with an MR imaging sequence in an MR system, having the following steps: - irradiating at least one HF pulse (3, 4) by means of a whole body coil of the MR system during the imaging sequence, - irradiating at least one HF pulse by means of a local transmit coil of the MR system during the imaging sequence, - reading-out MR signals, which are generated by the irradiated HF pulses (3, 4, 5). - creating the MR image from the read-out MR signals, wherein the imaging sequence has a read-out module, in which a number of HF refocusing pulses are irradiated in order to generate a number of spin echos, characterised in that all HF refocusing pulses of the read-out module are irradiated with the local transmit coil. - irradiating at least one HF pulse (3, 4) by means of a whole body coil of the MR system during the imaging sequence, - irradiating at least one HF pulse by means of a local transmit coil of the MR system during the imaging sequence, - reading-out MR signals, which are generated by the irradiated HF pulses (3, 4, 5). - creating the MR image from the read-out MR signals, wherein the imaging sequence has a read-out module, in which a number of HF refocusing pulses are irradiated in order to generate a number of spin echos, characterised in that all HF refocusing pulses of the read-out module are irradiated with the local transmit coil.
A hand vacuum cleaner having an upper end, a lower end, a front end having a dirty air inlet and a rear end, the hand vacuum cleaner comprising: (a) an air flow path extending from the dirty air inlet to a clean air outlet; (b) an air treatment member positioned in the air flow path, the air treatment member comprising a chamber defining an open volume which has an air treatment member air inlet, an air treatment member air outlet, a front end and a rear end and an axis that extends between the front and rear ends of the air treatment member and extends through the air treatment member air outlet; (c) an energy storage unit having a front end and a rear end; (d) a suction motor positioned in the air flow path; (e) a pistol grip handle having a hand grip portion wherein the axis intersects the hand grip portion; and, (f) a finger grip area positioned between the suction motor and the pistol grip handle, wherein when the hand vacuum cleaner is oriented with the upper end above the lower end, the pistol grip handle is located at the rear end of the hand vacuum cleaner, the energy storage unit is located at the lower end of the hand vacuum cleaner with the suction motor located above the front end of the energy storage unit and the pistol grip handle located above the rear end of the energy storage unit. (a) an air flow path extending from the dirty air inlet to a clean air outlet; (b) an air treatment member positioned in the air flow path, the air treatment member comprising a chamber defining an open volume which has an air treatment member air inlet, an air treatment member air outlet, a front end and a rear end and an axis that extends between the front and rear ends of the air treatment member and extends through the air treatment member air outlet; (c) an energy storage unit having a front end and a rear end; (d) a suction motor positioned in the air flow path; (e) a pistol grip handle having a hand grip portion wherein the axis intersects the hand grip portion; and, (f) a finger grip area positioned between the suction motor and the pistol grip handle,
A power transmission belt (1, 101) comprising a body (2, 102) in a first elastomeric material, a plurality of cords (3, 103) embedded in the body of the belt, a back (8, 107) and a plurality of ribs or teeth, said back or said ribs or teeth are covered with a covering material (9, 10, 108, 110) selected from the group consisting of woven fabric, knitted fabric, characterized in that said covering material comprises elastolefin fibers.
A positive electrode active material for all-solid lithium ion batteries, the positive electrode active material comprising: a core positive electrode active material having a composition represented by the following formula: Li a Ni b Co c M d O 2 in which M is at least one element selected from Mn, V, Mg, Ti and Al, 1.00 ≤ a ≤ 1.02, 0.8 ≤ b ≤ 0.9, and b + c + d = 1; and a coated portion formed on a surface of the core positive electrode active material, wherein the coated portion comprises a layer of lithium niobate and a carbon layer in this order, from the surface of the core positive electrode active material, wherein a ratio of a content of Nb in the coated portion is from 0.5 to 1.5 mol% relative to the total content of Ni, Co and M in the core positive electrode active material, and wherein a ratio of a content of carbon in the coated portion is from 10 to 50 mol% relative to the content of Nb in the coated portion. a core positive electrode active material having a composition represented by the following formula: Li a Ni b Co c M d O 2 in which M is at least one element selected from Mn, V, Mg, Ti and Al, 1.00 ≤ a ≤ 1.02, 0.8 ≤ b ≤ 0.9, and b + c + d = 1; and a coated portion formed on a surface of the core positive electrode active material, wherein the coated portion comprises a layer of lithium niobate and a carbon layer in this order, from the surface of the core positive electrode active material, wherein a ratio of a content of Nb in the coated portion is from 0.5 to 1.5 mol% relative to the total content of Ni, Co and M in the core positive electrode active material, and wherein a ratio of a content of carbon in the coated portion is from 10 to 50 mol% relative to the content of Nb in the coated portion.
A PglB oligosaccharyltransferase polypeptide comprising an amino acid sequence that is at least 80%, 85%, 90%, 95%, 96%, 97%, 98%, or 99% identical to the amino acid sequence set out in SEQ ID NO:1 or 2 or a functional fragment thereof, wherein the PglB oligosaccharyltransferase polypeptide amino acid sequence includes the feature that: at least one residue selected from the group consisting of amino acid X57, X63, X94, X101, X172, X176, X191, X193, X233, X234, X255, X286, X295, X301, X319, X397, X402, X425, X435, X446, X462, X479, X523, X532, X601, X605, X606, X610, X645, X676 and X695 is substituted to a different amino acid to that found at that position in SEQ ID NO:1 or functional fragment thereof, wherein the residue corresponding to amino acid 57 of SEQ ID NO:1 is mutated to R or K or T, preferably to R or T, more preferably to R_and where the PglB oligosaccharyltransferase polypeptide is capable of increasing the yield of glycosylation of the protein with the saccharide to produce a glycosylated protein by at least 1.5 fold compared to a corresponding PglB oligosaccharyltransferase which has the sequence of SEQ ID NO:1.
A method for transmitting control information, comprising: determining a subframe set K': { n-k 0,n-k 1,···,n-k M- 1} corresponding to an uplink subframe n according to a set K:{ k 0,k 1,..,k M- 1},the subframe set comprises a dynamic subframe, the dynamic subframe being capable of serving as an uplink subframe or a downlink subframe, wherein k 0, k 1,.... k M-1 are positive integers and n is a subframe serial number of the uplink subframe and n is a natural number larger than or equal to 0; determining feedback response information according to the subframe set, wherein the feedback response information is hybrid automatic repeat request, HARQ, information; and sending, in the uplink subframe n, the feedback response information to a base station through a physical uplink channel, wherein the determining feedback response information comprises: determining response information corresponding to respective subframes in the subframe set, including response information corresponding to the dynamic subframe; sorting the response information corresponding to respective subframes in a sorting order of subframes in the subframe set to acquire the feedback response information; wherein the set K: { k 0, k 1,..., k M- 1} is {7, 6, 8, 4}. determining a subframe set K': { n-k 0,n-k 1,···,n-k M- 1} corresponding to an uplink subframe n according to a set K:{ k 0,k 1,..,k M- 1},the subframe set comprises a dynamic subframe, the dynamic subframe being capable of serving as an uplink subframe or a downlink subframe, wherein k 0, k 1,.... k M-1 are positive integers and n is a subframe serial number of the uplink subframe and n is a natural number larger than or equal to 0; determining feedback response information according to the subframe set, wherein the feedback response information is hybrid automatic repeat request, HARQ, information; and sending, in the uplink subframe n, the feedback response information to a base station through a physical uplink channel, wherein the determining feedback response information comprises: determining response information corresponding to respective subframes in the subframe set, including response information corresponding to the dynamic subframe; sorting the response information corresponding to respective subframes in a sorting order of subframes in the subframe set to acquire the feedback response information; wherein the set K: { k 0, k 1,..., k M- 1} is {7, 6, 8, 4}. determining response information corresponding to respective subframes in the subframe set, including response information corresponding to the dynamic subframe; sorting the response information corresponding to respective subframes in a sorting order of subframes in the subframe set to acquire the feedback response information; wherein the set K: { k 0, k 1,..., k M- 1} is {7, 6, 8, 4}.
A method for transmitting transport blocks in subframes of a predefined length within a wireless communication system, including the following steps: receiving or generating a downlink control information (1420, 1430) including a resource grant, the resource grant comprising a predetermined modulation and a predetermined transport block size, generating a transport block (1421, 1432) including channel coded data to be transmitted in a subframe with the predetermined modulation and the predetermined transport block size, performing sensing (1422, 1433) in the subframes and determining whether a partial subframe or a complete subframe is available for transmission of the generated transport block; characterized by transmitting the transport block (1426, 1437) with a modified modulation different from the predetermined modulation if the partial rather than complete subframe is available, wherein a modulation order of the modified modulation is increased from a modulation order of the predetermined modulation by more than one level, the modification of modulation is modification of modulation order and the predetermined modulation as well as the modified modulation is one of BPSK, QPSK, 16QAM, 64QAM, and 256QAM. receiving or generating a downlink control information (1420, 1430) including a resource grant, the resource grant comprising a predetermined modulation and a predetermined transport block size, generating a transport block (1421, 1432) including channel coded data to be transmitted in a subframe with the predetermined modulation and the predetermined transport block size, performing sensing (1422, 1433) in the subframes and determining whether a partial subframe or a complete subframe is available for transmission of the generated transport block; characterized by transmitting the transport block (1426, 1437) with a modified modulation different from the predetermined modulation if the partial rather than complete subframe is available, wherein a modulation order of the modified modulation is increased from a modulation order of the predetermined modulation by more than one level, the modification of modulation is modification of modulation order and the predetermined modulation as well as the modified modulation is one of BPSK, QPSK, 16QAM, 64QAM, and 256QAM.
A chromatographic medium comprising: a separating agent layer, which is used to separate target substances and which exhibits separability of the target substances and exhibits optical responsiveness to ultraviolet rays; a filling agent layer, which is used to fix the target substances before the target substances are separated and which comes into contact with the separating agent layer via a plane that intersects a direction of development of the target substances in the chromatographic medium and is positioned on the upstream side in the direction of development; and a permeation layer, which is used to enable permeation of the target substances separated by the separating agent layer, wherein the permeation layer exhibits optical responsiveness to ultraviolet rays that is different from those of the target substances and the separating agent layer, and wherein the permeation layer is laminated in a discontinuous manner in the direction of development of the chromatographic medium. a separating agent layer, which is used to separate target substances and which exhibits separability of the target substances and exhibits optical responsiveness to ultraviolet rays; a filling agent layer, which is used to fix the target substances before the target substances are separated and which comes into contact with the separating agent layer via a plane that intersects a direction of development of the target substances in the chromatographic medium and is positioned on the upstream side in the direction of development; and a permeation layer, which is used to enable permeation of the target substances separated by the separating agent layer, wherein the permeation layer exhibits optical responsiveness to ultraviolet rays that is different from those of the target substances and the separating agent layer, and wherein the permeation layer is laminated in a discontinuous manner in the direction of development of the chromatographic medium.
A method for detecting faults associated with a tunnel delivering multicast traffic from a source provider edge router, PE, to each of a plurality of destination PEs, the method comprising: at the source PE, transmitting toward each destination PE information identifying the source PE and the tunnel delivering multicast traffic to the destination PE; establishing a Bidirectional Forwarding Detection, BFD, session between the source PE and the destination PEs; using the transmitted information as a BFD session discriminator to associate the BFD session with the tunnel; and defining data plane faults detected by the BFD session as faults of the tunnel. at the source PE, transmitting toward each destination PE information identifying the source PE and the tunnel delivering multicast traffic to the destination PE; establishing a Bidirectional Forwarding Detection, BFD, session between the source PE and the destination PEs; using the transmitted information as a BFD session discriminator to associate the BFD session with the tunnel; and defining data plane faults detected by the BFD session as faults of the tunnel.
A complementary metal oxide semiconductor (CMOS) integrated circuit device, comprising: a substrate having a first channel region and a second channel region; p-type source and drain regions in the substrate and adjacent to the first channel region in the substrate; n-type source and drain regions in the substrate and adjacent to the second channel region in the substrate; a first gate electrode at least above the first channel region, wherein a first gate dielectric layer is between the first gate electrode and the first channel region; a second gate electrode at least above the second channel region, wherein a second gate dielectric layer is between the second gate electrode and the second channel region; an insulation layer over the p-type and n-type source/drain regions, the insulation layer having a contact trench over at least each of the p-type and n-type source/drain regions; a layer (317, 319) in the contact trenches and on at least a portion of the corresponding p-type source and drain regions, the layer comprising a germanium concentration in excess of 90 atomic % and a boron dopant concentration in excess of 1E20 cm -3; and a metal-germanide contact (325, 327) on the layer (317, 319). a substrate having a first channel region and a second channel region; p-type source and drain regions in the substrate and adjacent to the first channel region in the substrate; n-type source and drain regions in the substrate and adjacent to the second channel region in the substrate; a first gate electrode at least above the first channel region, wherein a first gate dielectric layer is between the first gate electrode and the first channel region; a second gate electrode at least above the second channel region, wherein a second gate dielectric layer is between the second gate electrode and the second channel region; an insulation layer over the p-type and n-type source/drain regions, the insulation layer having a contact trench over at least each of the p-type and n-type source/drain regions; a layer (317, 319) in the contact trenches and on at least a portion of the corresponding p-type source and drain regions, the layer comprising a germanium concentration in excess of 90 atomic % and a boron dopant concentration in excess of 1E20 cm -3; and a metal-germanide contact (325, 327) on the layer (317, 319).
A hydrostatic advanced low leakage seal configured to be disposed between relatively rotatable components, the seal comprising: a base; a shoe extending circumferentially; a first beam operatively coupling the shoe to the base, the first beam having a first thickness; and a second beam operatively coupling the shoe to the base, the second beam having at least a portion thereof with a second thickness that is less than the first thickness; characterized in that at least one of the first beam and the second beam has a beam length that is greater than a circumferential pitch of the shoe. a base; a shoe extending circumferentially; a first beam operatively coupling the shoe to the base, the first beam having a first thickness; and a second beam operatively coupling the shoe to the base, the second beam having at least a portion thereof with a second thickness that is less than the first thickness; characterized in that at least one of the first beam and the second beam has a beam length that is greater than a circumferential pitch of the shoe.