mhurhangee/patent-ind-claim-en huggingface dataset:
Rotating electric machine , particularly for a motor vehicle, comprising: - a stator comprising a stator body provided with a plurality of stator teeth defining a plurality of notches , and a stator winding inserted in said notches , - a rotor having an axis (X) of rotation, and comprising a plurality of rotor teeth defining cavities in which permanent magnets are accommodated, said rotor comprising an array of magnetic poles, said rotor being inscribed in an axisymmetric cylinder having an external radius (L3), each rotor tooth comprising: - an axis (Y) of symmetry passing via the axis (X) of rotation of said rotor, - an external face facing an internal periphery of said stator , in a radial plane (PI_R) relative to the axis (X) of rotation, said external face having a curvature in the form of an arc of a circle, the arc of a circle being defined by: - a centre (O1) located on said axis (Y) of symmetry, - a first point (P1) located at an intersection between said axis (Y) of symmetry and a circle centred on said axis (X) of rotation and a radius of which is said external radius (L3), and - a second point (P2) located on an axis (Z) passing via said axis (X) of rotation of the rotor and forming an angle of 360 degrees divided by a number equal to twice the number of magnetic poles relative to said axis (Y) of symmetry, said second point (P2) being located at a distance from said axis (X) of rotation of the rotor equal to the external radius (L3) minus a space (L5), and a ratio (R3) between said space (L5) and said external radius (L3) is between 0.015 and 0.07, a ratio (R2) between an inside diameter (L2) of said stator , expressed in mm, and a number of pairs of rotor poles (p) being between 12 and 22, particularly between 13 and 21, for example between 14 and 20. - a stator comprising a stator body provided with a plurality of stator teeth defining a plurality of notches , and a stator winding inserted in said notches , - a rotor having an axis (X) of rotation, and comprising a plurality of rotor teeth defining cavities in which permanent magnets are accommodated, said rotor comprising an array of magnetic poles, - an axis (Y) of symmetry passing via the axis (X) of rotation of said rotor, - an external face facing an internal periphery of said stator , - a centre (O1) located on said axis (Y) of symmetry, - a first point (P1) located at an intersection between said axis (Y) of symmetry and a circle centred on said axis (X) of rotation and a radius of which is said external radius (L3), and - a second point (P2) located on an axis (Z) passing via said axis (X) of rotation of the rotor and forming an angle of 360 degrees divided by a number equal to twice the number of magnetic poles relative to said axis (Y) of symmetry,
An opto-chemical sensor comprising a sensor layer arranged on a carrier and formed from spun nanofibers doped with a luminescent dye, wherein the sensor layer has an emissivity after excitation with electromagnetic radiation that can be changed by substances to be detected selected from O 2 , CO 2 , lactate, glucose, NH 3 , nitrogen oxides and ions or measured variables to be determined selected from the pH-value, the moisture and the temperature in a gas or liquid phase, wherein the sensor layer is formed from nanofibers having a diameter between 50 nm and 1000 nm, wherein the nanofibers comprise a polymer selected from the group consisting of polysaccharide-based polymers selected from cellulose, cellulose acetate (CA), chitosan, carboxymethyl cellulose (CMC), ethyl cellulose, trimethylsilyl cellulose (TMSC) or hyaluronic acid; ethylene vinyl alcohol copolymer (EVOH), poly (vinyl butyral) (PVB), polyamide (PA), polyacrylic acid (PAA), polyacrylonitrile (PAN), polyethyleneoxide (PEO), polyoxymethylene (POM), polyester selected from polyethylene and polybutylene terephthalate (PET, PBT) or polytrimethylene terephthalate; polylactide (PLA) and polylactide polyglycolide copolymers (PLGA), polyacrylates selected from poly(methyl methacrylate) (PMMA) or polyacrylamides, polyglycols, polysulfone (PSU), polyetherimide (PEI), polythiophene, polyaniline (PANi), polysilanes, polyimides, ethylene-vinyl acetate copolymers (EVAc), polystyrol (PS), polyurethanes (PU), polyvinyl alcohol (PVOH), polyvinyl chloride (PVC), polyvinylidene fluoride (PVDF) as well as fluorinated copolymers, polyamines, polyvinylpyrrolidone (PVP), polycarbonates (PC) or mixtures thereof, wherein the nanofibers are doped with at least one luminescent dye selected from the group of metal porphyrins, benzoporphyrins, naphthoporphyrins, phthalocyanines, perylene diimines, pyrenes; xanthene dyes, azo dyes, bodipy dyes, bipyridines, phenantrolines, coumarins and acetyl acetonates of ruthenium and iridium; acridine dyes, oxazine dyes, coumarins, azaannulenes, squarines, 8-hydroxyquinolines, luminescent nanoparticles selected from quantum dots or nanocrystals; carbostyryls, terbium complexes, inorganic phosphors or dyes of the aforementioned classes derivatized or bound to ionophores, and wherein the nanofibers further contain an anionic, cationic or nonionic surfactant.
Non-therapeutic use of chelated Al for performing selective bacteriostasis of a sulfate-reducing bacterium by selectively inhibiting proliferation of the sulfate-reducing bacterium without inhibiting proliferation of another bacterium selected from the group consisting of Escherichia coli NBRC 102203 T and Clostridium butyricum NBRC 13949 T by allowing the chelated Al to coexist in an environment where the sulfate-reducing bacterium exists, wherein the chelated Al is produced in the environment where the sulfate-reducing bacterium exists by adding an Al 3+ source and a chelating agent in the environment, wherein the Al 3+ source is at least one Al compound selected from the group consisting of Al 2 O 3 , AlCl 3 , Al(OH) 3 , and Al 2 (SO 4 ) 3 , wherein the chelating agent is selected from the group consisting of oxalic acid, malonic acid, tartaric acid, glutaric acid, malic acid, citric acid, maleic acid, ethylene diamine (EDA), ethylenediaminetetraacetic acid (EDTA), 2,2'-bipyridine, 1,10-phenathroline, porphyrins, and crown ethers, and wherein the sulfate-reducing bacteria are selected from the group consisting of Desulfovibrio, Desulfuromonas, Desulfitobacterium, and Desulfotomaculum, wherein the chelated Al is used to suppress hydrogen sulfide production in a gypsum composition, wherein the gypsum composition contains the chelated Al in a range of 0.01 to 20 mass parts relative to 100 mass parts of the gypsum.
A chimeric antigen receptor (CAR) comprising: (a) an antigen binding domain comprising the amino acid sequences of each of SEQ ID NOs: 1-6, (b) the transmembrane domain of CD8, and (c) the intracellular T cell signaling domain of 4-1BB and the intracellular T cell signaling domain of CD3 zeta. (a) an antigen binding domain comprising the amino acid sequences of each of SEQ ID NOs: 1-6, (b) the transmembrane domain of CD8, and (c) the intracellular T cell signaling domain of 4-1BB and the intracellular T cell signaling domain of CD3 zeta.
Coupling member in a positioning device which comprises a first linear guide for guiding a first carriage along a first linear direction (X) and comprises a second linear guide for guiding a second carriage along a second linear direction (Y), which is substantially perpendicular to the first linear direction (X), wherein the coupling member is configured for formation of a coupling between the first carriage and the second linear guide , and wherein: - a central part ; - two side parts , each of which is arranged with a spacing to the central part in the second linear direction (Y) and flanks the central part ; and - a plurality of connecting leaf springs , which form a connection between the central part and the two side parts , wherein the planes in which the connecting leaf springs are arranged intersect at a central axis (C) of the central part ; is characterized by : - a mounting surface on a top side of the coupling member is configured for coupling to the second linear guide ; - a mounting surface on a bottom side of the coupling member is configured for coupling to the first carriage ; - the central part has a portion with a U profile, wherein the mounting surface on the bottom side of the coupling member is formed by an inner side of the U profile; and - the mounting surface on the top side of the coupling member is formed only by the two side parts , but not by the central part . - a central part ; - two side parts , each of which is arranged with a spacing to the central part in the second linear direction (Y) and flanks the central part ; and - a plurality of connecting leaf springs , which form a connection between the central part and the two side parts , wherein the planes in which the connecting leaf springs are arranged intersect at a central axis (C) of the central part ; - a mounting surface on a top side of the coupling member is configured for coupling to the second linear guide ; - a mounting surface on a bottom side of the coupling member is configured for coupling to the first carriage ; - the central part has a portion with a U profile, wherein the mounting surface on the bottom side of the coupling member is formed by an inner side of the U profile; and - the mounting surface on the top side of the coupling member is formed only by the two side parts , but not by the central part .
A configuration apparatus for a bandwidth part indicator, configured in a network device , the apparatus comprising: a first configuring unit configured to configure a terminal equipment to receive multiple physical downlink control channels; and a transmitting unit configured to transmit downlink control information to the terminal equipment , for the terminal equipment to determine an active bandwidth part according to detected multiple pieces of downlink control information, wherein the transmitting unit is configured to transmit second downlink control information to the terminal equipment, the number of pieces of the second downlink control information transmitted in the same scheduling unit being greater than 1, and bandwidth parts indicated by bandwidth part indicator fields in multiple pieces of the second downlink control information transmitted in the same scheduling unit being identical. a first configuring unit configured to configure a terminal equipment to receive multiple physical downlink control channels; and a transmitting unit configured to transmit downlink control information to the terminal equipment , for the terminal equipment to determine an active bandwidth part according to detected multiple pieces of downlink control information, wherein the transmitting unit is configured to transmit second downlink control information to the terminal equipment, the number of pieces of the second downlink control information transmitted in the same scheduling unit being greater than 1, and bandwidth parts indicated by bandwidth part indicator fields in multiple pieces of the second downlink control information transmitted in the same scheduling unit being identical.
A device for repair or replacement of a heart valve having an annulus and leaflets coupled to the annulus, the device comprising: a cylindrical support configured for placement between the leaflets, the support having upstream and downstream portions and an interior in which a valve may be coupled; and a plurality of anchoring arms coupled to the downstream portion and extending outwardly and in an upstream direction, the arms having distal tips configured to atraumatically engage the annulus of the heart valve; wherein the arms are configured to receive the leaflets between the arms and the outer surface of the support; wherein the plurality of anchoring arms includes a first and second plurality of anchoring arms , and characterized in that the first plurality of anchoring arms have a characteristic different than the second plurality of anchoring arms , the characteristic being selected from the group of size, shape, stiffness, splay angle, spacing from the support , and the number of arms within a given area of the support . a cylindrical support configured for placement between the leaflets, the support having upstream and downstream portions and an interior in which a valve may be coupled; and a plurality of anchoring arms coupled to the downstream portion and extending outwardly and in an upstream direction, the arms having distal tips configured to atraumatically engage the annulus of the heart valve; wherein the arms are configured to receive the leaflets between the arms and the outer surface of the support; support having upstream and downstream portions and an interior in which a valve may be coupled; and a plurality of anchoring arms coupled to the downstream portion and extending outwardly and in an upstream direction, the arms having distal tips configured to atraumatically engage the annulus of the heart valve; wherein the arms are configured to receive the leaflets between the arms and the outer surface of the support; wherein the plurality of anchoring arms includes a first and second plurality of anchoring arms , and characterized in that the first plurality of anchoring arms have a characteristic different than the second plurality of anchoring arms , the characteristic being selected from the group of size, shape, stiffness, splay angle, spacing from the support , and the number of arms within a given area of the support .
A method of making a rolled aluminum alloy product, comprising: providing a 7xxx series aluminum alloy, wherein the 7xxx series aluminum alloy is provided as a molten 7xxx series aluminum alloy; casting the molten 7xxx series aluminum alloy to provide an aluminum alloy cast product; homogenizing the aluminum alloy cast product to provide a homogenized aluminum alloy cast product; rolling the homogenized aluminum alloy cast product to form a rolled aluminum alloy product; solutionizing and pre-aging the rolled aluminum alloy product, wherein the pre-aging comprises heating the rolled aluminum alloy product to a pre-aging temperature ranging from 60 °C to 130 °C, wherein the pre-aging is conducted for a period of time up to 24 hours; and coiling the rolled aluminum alloy product after the pre-aging. providing a 7xxx series aluminum alloy, wherein the 7xxx series aluminum alloy is provided as a molten 7xxx series aluminum alloy; casting the molten 7xxx series aluminum alloy to provide an aluminum alloy cast product; homogenizing the aluminum alloy cast product to provide a homogenized aluminum alloy cast product; rolling the homogenized aluminum alloy cast product to form a rolled aluminum alloy product; solutionizing and pre-aging the rolled aluminum alloy product, wherein the pre-aging comprises heating the rolled aluminum alloy product to a pre-aging temperature ranging from 60 °C to 130 °C, wherein the pre-aging is conducted for a period of time up to 24 hours; and coiling the rolled aluminum alloy product after the pre-aging.
A method performed by a terminal for a 2-step random access procedure in a wireless communication, comprising: identifying whether physical random access channel, PRACH, occasions for a 4-step random access type is shared with a 2-step random access type; and in case that the PRACH occasions for the 4-step random access type is shared with the 2-step random access type, transmitting, to a base station , a message A including a preamble based on a configuration of PRACH occasions, wherein the configuration of the PRACH occasions is common for the 4-step random access type and the 2-step random access type, wherein a preamble index of the preamble associated with a synchronization signal block, SSB, starts from an index which is determined based on a starting preamble index of preambles allocated for the 4-step random access type associated with the SSB and a total number of preambles for the 4-step random access type. identifying whether physical random access channel, PRACH, occasions for a 4-step random access type is shared with a 2-step random access type; and in case that the PRACH occasions for the 4-step random access type is shared with the 2-step random access type, transmitting, to a base station , a message A including a preamble based on a configuration of PRACH occasions, wherein the configuration of the PRACH occasions is common for the 4-step random access type and the 2-step random access type, wherein a preamble index of the preamble associated with a synchronization signal block, SSB, starts from an index which is determined based on a starting preamble index of preambles allocated for the 4-step random access type associated with the SSB and a total number of preambles for the 4-step random access type.
A tree protector for animals consisting of one plastic sheet of one meter height configured to embrace a perimeter of a trunk of a tree , wherein the plastic sheet is made of a resistant, glossy, shiny and flexible plastic material; a plurality of substantially equally-sized round holes along the length and height of the plastic sheet , wherein the plurality of round holes are configured for allowing the trunk of the tree to breathe, and wherein the round holes are (i) arranged in a lattice substantially covering the entire height of the plastic sheet, (ii) are substantially equidistant relative to their immediate neighbors and have a diameter that is smaller than the distance from their immediate neighbors and (iii) along the height of the plastic sheet three round holes are arranged; and two wired cables fitted along the length of the plastic sheet , wherein the two wired cables are configured (a) to pass lengthwise through both parallel edges of the plastic sheet and come out of the sheet, and (b) for tying the plastic sheet to the perimeter of the trunk of the tree . a plurality of substantially equally-sized round holes along the length and height of the plastic sheet , wherein the plurality of round holes are configured for allowing the trunk of the tree to breathe, and wherein the round holes are (i) arranged in a lattice substantially covering the entire height of the plastic sheet, (ii) are substantially equidistant relative to their immediate neighbors and have a diameter that is smaller than the distance from their immediate neighbors and (iii) along the height of the plastic sheet three round holes are arranged; and (i) arranged in a lattice substantially covering the entire height of the plastic sheet, (ii) are substantially equidistant relative to their immediate neighbors and have a diameter that is smaller than the distance from their immediate neighbors and (iii) along the height of the plastic sheet three round holes are arranged; and two wired cables fitted along the length of the plastic sheet , wherein the two wired cables are configured (a) to pass lengthwise through both parallel edges of the plastic sheet and come out of the sheet, and (b) for tying the plastic sheet to the perimeter of the trunk of the tree .
A slack management plate configured to be mounted to a chassis of a high density fiber enclosure system , wherein the slack management plate comprises a front portion configured to be attached to each of a rear portion of a first side wall of the chassis and a rear portion of a second side wall of the chassis using respective spring loaded fasteners and respective support pins on the slack management plate, and further comprising a divider disposed perpendicular to the plane of the slack management plate , wherein a first end of the divider is centrally located at the front portion of the slack management plate , and a second end of the divider is centrally located at a rear portion of the slack management plate , wherein the slack management plate comprises a substantially level surface which, when the slack management plate is mounted to a chassis of a high density fiber enclosure system , can support a portion of trunk cable furcation legs which exit the chassis .
A method for determining a triggering state, characterized by comprising: receiving , by a terminal device, radio resource control, RRC, signalling for configuring a CSI-SemiPersistentOnPUSCH-TriggerStateList from a network device, wherein the RRC signalling comprises configuration information of at least one triggering state; receiving , by the terminal device, downlink control information, DCI, from the network device, wherein the DCI comprises a channel state information, CSI, request field; and characterized by determining , by the terminal device, based on a codepoint of the CSI request field, the first triggering state at a target position in the RRC signalling, wherein a position of each of the at least one triggering state in the RRC signalling corresponds to a codepoint of the CSI request field, a starting codepoint of the CSI request field corresponding to a triggering state is 0, and codepoints of the CSI request field correspond in an ascending order to triggering states from a first position to a last position for the triggering states in the RRC signalling. receiving , by a terminal device, radio resource control, RRC, signalling for configuring a CSI-SemiPersistentOnPUSCH-TriggerStateList from a network device, wherein the RRC signalling comprises configuration information of at least one triggering state; receiving , by the terminal device, downlink control information, DCI, from the network device, wherein the DCI comprises a channel state information, CSI, request field; and characterized by determining , by the terminal device, based on a codepoint of the CSI request field, the first triggering state at a target position in the RRC signalling, wherein a position of each of the at least one triggering state in the RRC signalling corresponds to a codepoint of the CSI request field, a starting codepoint of the CSI request field corresponding to a triggering state is 0, and codepoints of the CSI request field correspond in an ascending order to triggering states from a first position to a last position for the triggering states in the RRC signalling.