mhurhangee/ep-ind-claims huggingface dataset:
A spinning method comprising: providing an air spinning device including a spinning chamber in which fibers are swung, a fiber guide in which a fiber introducing passage communicating with the spinning chamber is defined, and a spindle in which a fiber passageway for passage of the fibers swung in the spinning chamber is defined; and producing a spun yarn from a fiber bundle by using the provided air spinning device; and wherein providing an air spinning device comprises providing an air spinning device in which the spindle and the fiber guide are separated by a predetermined distance, wherein the predetermined distance is selected dependent on an average fiber length of the fiber bundle, characterized in that providing an air spinning device comprises when a fiber bundle has an average fiber length longer than or equal to 32 mm, providing an air spinning device in which the spindle and the fiber guide are separated by a distance longer than or equal to 2.6 mm and less than or equal to 4.1 mm; and when a fiber bundle has an average fiber length shorter than 32 mm, providing an air spinning device in which the spindle and the fiber guide are separated by a distance longer than or equal to 1.6 mm and shorter than 2.6 mm. providing an air spinning device including a spinning chamber in which fibers are swung, a fiber guide in which a fiber introducing passage communicating with the spinning chamber is defined, and a spindle in which a fiber passageway for passage of the fibers swung in the spinning chamber is defined; and producing a spun yarn from a fiber bundle by using the provided air spinning device; and wherein providing an air spinning device comprises providing an air spinning device in which the spindle and the fiber guide are separated by a predetermined distance, wherein the predetermined distance is selected dependent on an average fiber length of the fiber bundle, characterized in that providing an air spinning device comprises when a fiber bundle has an average fiber length longer than or equal to 32 mm, providing an air spinning device in which the spindle and the fiber guide are separated by a distance longer than or equal to 2.6 mm and less than or equal to 4.1 mm; and when a fiber bundle has an average fiber length shorter than 32 mm, providing an air spinning device in which the spindle and the fiber guide are separated by a distance longer than or equal to 1.6 mm and shorter than 2.6 mm.
A video decoding method comprising: receiving a data stream comprising network abstraction layer, NAL, units; the method characterized by: obtaining constraint information regarding an arrangement method of samples of a picture that includes a 1 bit parameter indicating progressive scan information, 1 bit parameter indicating interlaced scan information, 1 bit parameter indicating non-frame packing constraint information, 1 bit parameter indicating frame constraint information, and 44 bit reserved bits from a profile_tier_level() syntax structure included in a video parameter set raw byte sequence payload, RBSP, area from among the NAL units; and determining whether reconstructed samples of the picture are arranged in the progressive scan type based on the progressive scan information; and determining whether the reconstructed samples of the picture are arranged in the interlaced scan type based on the interlaced scan information. receiving a data stream comprising network abstraction layer, NAL, units; the method characterized by: obtaining constraint information regarding an arrangement method of samples of a picture that includes a 1 bit parameter indicating progressive scan information, 1 bit parameter indicating interlaced scan information, 1 bit parameter indicating non-frame packing constraint information, 1 bit parameter indicating frame constraint information, and 44 bit reserved bits from a profile_tier_level() syntax structure included in a video parameter set raw byte sequence payload, RBSP, area from among the NAL units; and determining whether reconstructed samples of the picture are arranged in the progressive scan type based on the progressive scan information; and determining whether the reconstructed samples of the picture are arranged in the interlaced scan type based on the interlaced scan information. obtaining constraint information regarding an arrangement method of samples of a picture that includes a 1 bit parameter indicating progressive scan information, 1 bit parameter indicating interlaced scan information, 1 bit parameter indicating non-frame packing constraint information, 1 bit parameter indicating frame constraint information, and 44 bit reserved bits from a profile_tier_level() syntax structure included in a video parameter set raw byte sequence payload, RBSP, area from among the NAL units; and determining whether reconstructed samples of the picture are arranged in the progressive scan type based on the progressive scan information; and determining whether the reconstructed samples of the picture are arranged in the interlaced scan type based on the interlaced scan information.
Connecting element for grid-like internal fittings, having the following features: a. the connecting element has a horizontal base plate having pins (5, 15) which point upwards from the base plate and are intended to engage with a grid element; b. a vertical through-opening, through which, when in the installed position, a rod-like or cable-like support element passes, is located in the base plate; c. the through-opening is surrounded by a collar on the base plate, the collar being used as a bearing for a sleeve (10, 11) which surrounds the support element; characterised in that d. the connecting element consists of two halves (13, 14), part of the through-opening being in one half and part being in the other half such that the halves (13, 14) can be releasably coupled together while the support element is locked therebetween. a. the connecting element has a horizontal base plate having pins (5, 15) which point upwards from the base plate and are intended to engage with a grid element; b. a vertical through-opening, through which, when in the installed position, a rod-like or cable-like support element passes, is located in the base plate; c. the through-opening is surrounded by a collar on the base plate, the collar being used as a bearing for a sleeve (10, 11) which surrounds the support element; characterised in that d. the connecting element consists of two halves (13, 14), part of the through-opening being in one half and part being in the other half such that the halves (13, 14) can be releasably coupled together while the support element is locked therebetween.
Catheter system for intermittent catheterisation, comprising a tube-shaped package and a catheter extending through the package, wherein the tube-shaped package is annularly closed, wherein, in the closed stated of the package, the distal and proximal end of the package are connected to each other, and between its distal end area and its proximal end area, the package has a predetermined tearing point.
A water electrolyzer comprising: a membrane having first and second opposed major surfaces and comprising at least one of metallic Pt or Pt oxide; a cathode on the first major surface of the membrane, the cathode comprising a first catalyst consisting essentially of both metallic Pt and Pt oxide; and an anode on the second major surface of the membrane, the anode comprising a second catalyst, wherein the second catalyst is a nanostructured thin film catalyst comprising at least 95 percent by weight of collectively metallic Ir and Ir oxide, calculated as elemental Ir, based on the total weight of the second catalyst, wherein at least one of metallic Ir or Ir oxide is present. a membrane having first and second opposed major surfaces and comprising at least one of metallic Pt or Pt oxide; a cathode on the first major surface of the membrane, the cathode comprising a first catalyst consisting essentially of both metallic Pt and Pt oxide; and an anode on the second major surface of the membrane, the anode comprising a second catalyst, wherein the second catalyst is a nanostructured thin film catalyst comprising at least 95 percent by weight of collectively metallic Ir and Ir oxide, calculated as elemental Ir, based on the total weight of the second catalyst, wherein at least one of metallic Ir or Ir oxide is present.
Method for removing a balancing weight for cars, having an adhesive tape for attaching the balancing weight to a rim, the adhesive tape having at least - a first tape layer for being held in close proximity to the rim by a first adhesive layer and - a second tape layer held in close proximity to the balancing weight by a second adhesive layer, the first tape layer being stiffer and less flexible than the second tape layer, the second tape layer being softer and more flexible than the first tape layer, or the first tape layer having a higher tensile strength than the second tape layer, the second tape layer having a higher elasticity than the first tape layer, and wherein the first adhesive layer and the second adhesive layer have the same adhesive strength, the method comprising the steps of: - pressing a wedge-shaped tool under the balancing weight, - ripping the first tape layer together with the other tape layers and the balancing weight off the rim, - removing the tape layers and balancing weight in one piece. - a first tape layer for being held in close proximity to the rim by a first adhesive layer and - a second tape layer held in close proximity to the balancing weight by a second adhesive layer, the first tape layer being stiffer and less flexible than the second tape layer, the second tape layer being softer and more flexible than the first tape layer, or the first tape layer having a higher tensile strength than the second tape layer, the second tape layer having a higher elasticity than the first tape layer, and wherein the first adhesive layer and the second adhesive layer have the same adhesive strength, the method comprising the steps of: - pressing a wedge-shaped tool under the balancing weight, - ripping the first tape layer together with the other tape layers and the balancing weight off the rim, - removing the tape layers and balancing weight in one piece.
Method for providing recorded, anonymized routes, which each indicate a spatial movement of an object from a first end point to a second end point via successive path points and which are recorded by means of a position indication for said path points and anonymized by removing object-identifying data, having the steps of: - dividing a geographical region in which a route is contained into at least one sub-region (T1, T2, T3), - removing all the position indications of a route within end sub-regions of the route, i.e. within those sub-regions (T1, T2) in which at least one end point (S1, Z1) of the route is contained, and - outputting the remaining position indications of the route for further analysis and/or control, characterized in that the size of the end sub-regions is configured in such a way that at least a predeterminable number of end points of different recorded routes lies within an end sub-region and/or the size of the individual sub-regions is configured in accordance with geographical circumstances. - dividing a geographical region in which a route is contained into at least one sub-region (T1, T2, T3), - removing all the position indications of a route within end sub-regions of the route, i.e. within those sub-regions (T1, T2) in which at least one end point (S1, Z1) of the route is contained, and - outputting the remaining position indications of the route for further analysis and/or control, characterized in that the size of the end sub-regions is configured in such a way that at least a predeterminable number of end points of different recorded routes lies within an end sub-region and/or the size of the individual sub-regions is configured in accordance with geographical circumstances.
A method for encoding a picture comprising: encoding a step-wise temporal sub-layer access (STSA) sample grouping, wherein the STSA sample grouping allows determining when to switch to a new temporal layer (219a-219n) based on the STSA sample grouping, characterized in that: the STSA sample grouping is grouped in a sample group description box (SGDP), wherein the SGDP includes a next STSA upswitching distance parameter and a next STSA sample distance parameter. encoding a step-wise temporal sub-layer access (STSA) sample grouping, wherein the STSA sample grouping allows determining when to switch to a new temporal layer (219a-219n) based on the STSA sample grouping, characterized in that: the STSA sample grouping is grouped in a sample group description box (SGDP), wherein the SGDP includes a next STSA upswitching distance parameter and a next STSA sample distance parameter.
A method for controlling at least one wind power installation for generating electrical energy from wind for infeed into an electrical supply network, wherein - the wind power installation has an aerodynamic rotor with rotor blades which can be adjusted in respect of their blade angle, - the rotor can be operated at a variable rotor rotational speed, and - the wind power installation has a generator, which is coupled to the aerodynamic rotor, for generating a generator power, wherein - the wind power installation is operated in a normal mode in which it feeds available wind power up to a rated power into the electrical supply network, wherein the available wind power indicates a power which can be obtained from the wind and fed into the electrical supply network depending on the wind and technical limitations of the wind power installation, characterized in that - the wind power installation changes over from a normal mode to a support mode depending on an operating situation of at least one solar installation which feeds into the same electrical supply network. - the wind power installation has an aerodynamic rotor with rotor blades which can be adjusted in respect of their blade angle, - the rotor can be operated at a variable rotor rotational speed, and - the wind power installation has a generator, which is coupled to the aerodynamic rotor, for generating a generator power, wherein - the wind power installation is operated in a normal mode in which it feeds available wind power up to a rated power into the electrical supply network, wherein the available wind power indicates a power which can be obtained from the wind and fed into the electrical supply network depending on the wind and technical limitations of the wind power installation, characterized in that - the wind power installation changes over from a normal mode to a support mode depending on an operating situation of at least one solar installation which feeds into the same electrical supply network.
A combination of a developing apparatus and a developer including a toner and a magnetic carrier, said developing apparatus comprising: a developer carrying member for carrying said developer to develop a latent image formed on an image bearing member, said developer carrying member including a surface having a plurality of grooves extending in a longitudinal direction; a magnet, provided inside said developer carrying member, for attracting said developer on the surface of said developer carrying member; a regulating member, provided spaced from said developer carrying member, for regulating an amount of said developer carried on said developer carrying member, wherein said regulating member consists of a non-magnetic member such that an amount M/S (mg/mm 2) of said developer carried on a unit area of said developer carrying member after passing by said regulating member, a gap SB (mm) between a free end of said regulating member and said developer carrying member, a density G (mg/mm 3) of said developer, a groove ratio α which is a ratio of the portion of the peripheral surface of the developer carrying member occupied by the grooves, relative to the entirety of the peripheral surface of the developer carrying member, and a depth D (mm) of the groove satisfy, 0.1 ≤ M / S mg / mm 2 ≤ 0.45, and 0.2 ≤ SB mm; characterized in that M / S mg / mm 2 × 1 / 4 ≤ α × SB mm + D mm × G mg / mm 3 < M / S mg / mm 2, and 0.06 < α < 0.229. a developer carrying member for carrying said developer to develop a latent image formed on an image bearing member, said developer carrying member including a surface having a plurality of grooves extending in a longitudinal direction; a magnet, provided inside said developer carrying member, for attracting said developer on the surface of said developer carrying member; a regulating member, provided spaced from said developer carrying member, for regulating an amount of said developer carried on said developer carrying member, wherein said regulating member consists of a non-magnetic member such that an amount M/S (mg/mm 2) of said developer carried on a unit area of said developer carrying member after passing by said regulating member, a gap SB (mm) between a free end of said regulating member and said developer carrying member, a density G (mg/mm 3) of said developer, a groove ratio α which is a ratio of the portion of the peripheral surface of the developer carrying member occupied by the grooves, relative to the entirety of the peripheral surface of the developer carrying member, and a depth D (mm) of the groove satisfy, 0.1 ≤ M / S mg / mm 2 ≤ 0.45, and 0.2 ≤ SB mm; characterized in that M / S mg / mm 2 × 1 / 4 ≤ α × SB mm + D mm × G mg / mm 3 < M / S mg / mm 2, and
Reshaping station for reshaping plastic parisons into plastic containers with a blow mould for reshaping plastic parisons into plastic containers, this blow mould having a base part, a first side part and a second side part, wherein, in an assembled state of the blow mould, this base part with the side parts (4, 6) form a hollow space within which the plastic parisons can be expanded to form the plastic containers and a carrier device for carrying the blow mould, wherein the carrier device has a first side part carrier and a second side part carrier and wherein the first side part is arranged on the first side part carrier and the second side part is arranged on the second side part carrier, and at least one side part (4, 6) is arranged on the side part carrier (34, 36) associated with it by means of a fastening mechanism, and this fastening mechanism has a tensioning element (47, 47a) which is movable in a tensioning direction for tensioning the fastening mechanism, wherein this tensioning direction deviates from a radial direction of the blow mould part (4, 6), characterised in that wherein the radial direction is defined with respect to a circular cross-section of the blow mould parts (4, 6) and intersects a central axis, which is also a central axis of the expandable plastic parison and the tensioning direction is inclined relative to the central axis and does not intersect the same and wherein the fastening mechanism has a projection which can be engaged behind and is fastened on the blow mould part (4, 6) as well as an engagement element (44, 48) which engages behind this projection at least in sections, wherein this engagement element is moveable in the tensioning direction, wherein the tensioning element (47, 47a) has a piston to which pressure can be applied and the engagement element is a wedge element with a wedge surface and the fastening mechanism has a spring element which forces the fastening mechanism into a closed position.
A method for tuning the production level and composition of carotenoids in a fungal host comprising: (a) genetically manipulating one or more polynucleotides in carotenoid biosynthesis in a fungal host, wherein the one or more polynucleotides are selected from (i) the polynucleotides set forth in SEQ ID NOs:1, 3, 5, 7, 8, 10, 11, 13, 14, 16, 17, 19 and 20 or a homologous sequence sharing at least 75% identity thereto or (ii) one or more polynucleotides encoding one or more polypeptides set forth in SEQ ID NOs:2, 4, 6, 12, 15, 18 and 21 or a homologous sequence sharing at least 75% identity thereto, and wherein the fungal host is Rhodospordium or Rhodotorula, and (b) growing the fungal host to produce carotenoids, wherein the carotenoids are selected from the group consisting of lycopene, beta-carotene, gamma-carotene, torulene and torularhodin or derivatives thereof, whereby the production level or composition of the carotenoids is tuned. (a) genetically manipulating one or more polynucleotides in carotenoid biosynthesis in a fungal host, wherein the one or more polynucleotides are selected from (i) the polynucleotides set forth in SEQ ID NOs:1, 3, 5, 7, 8, 10, 11, 13, 14, 16, 17, 19 and 20 or a homologous sequence sharing at least 75% identity thereto or (ii) one or more polynucleotides encoding one or more polypeptides set forth in SEQ ID NOs:2, 4, 6, 12, 15, 18 and 21 or a homologous sequence sharing at least 75% identity thereto, and wherein the fungal host is Rhodospordium or Rhodotorula, and (b) growing the fungal host to produce carotenoids, wherein the carotenoids are selected from the group consisting of lycopene, beta-carotene, gamma-carotene, torulene and torularhodin or derivatives thereof,
A MEMS-nanoindenter chip for performing nanoindentation on a specimen comprising - an intender probe joined with an indenter tip, the indenter tip indenting into the specimen; - a reference probe joined with a reference tip, the reference tip touching the specimen; - indenter flexures are suspending the indenter probe allowing a movement along the axis of the indenter probe; - reference flexures are suspending the reference probe allowing a movement along the axis of the reference probe; - sensing capabilities (2, 5, 6, 7, 8) to measure the position of the indenter probe relative to the reference probe. - an intender probe joined with an indenter tip, the indenter tip indenting into the specimen; - a reference probe joined with a reference tip, the reference tip touching the specimen; - indenter flexures are suspending the indenter probe allowing a movement along the axis of the indenter probe; - reference flexures are suspending the reference probe allowing a movement along the axis of the reference probe; - sensing capabilities (2, 5, 6, 7, 8) to measure the position of the indenter probe relative to the reference probe.