mhurhangee/ep-ind-claims huggingface dataset:
A single-phase electronically commutated motor with a motor rotor and with a laminated stator body comprising at least one set (23 1 -23 6) of ferromagnetic lamination sheets positively connected to each other by axial punch protrusions (37,38) wherein the lamination sheet set (23 1 -23 6) defines a plurality of pole teeth (24 1 -24 6) with pole shoes, the pole teeth (24 1 -24 6) being provided with a plurality of stator coils, wherein the rotor-facing pole shoe edge is shaped asymmetrically with respect to a radial pole tooth centerline, so that the rotor-facing pole shoe edge defines a non-constant air gap between the stator pole shoe and the motor rotor with respect to a circumferential direction of the motor rotor, wherein for each stator pole tooth (24 1 -24 6) one axial punch protrusion of the axial punch protrusions (37,38) is radially arranged close to the rotor-facing pole shoe edge so that the distance between the punch protrusion edge and the rotor-facing pole shoe edge is less than the distance between the punch protrusion edge and any other lamination sheet edge. wherein the lamination sheet set (23 1 -23 6) defines a plurality of pole teeth (24 1 -24 6) with pole shoes, the pole teeth (24 1 -24 6) being provided with a plurality of stator coils, wherein the rotor-facing pole shoe edge is shaped asymmetrically with respect to a radial pole tooth centerline, so that the rotor-facing pole shoe edge defines a non-constant air gap between the stator pole shoe and the motor rotor with respect to a circumferential direction of the motor rotor, wherein for each stator pole tooth (24 1 -24 6) one axial punch protrusion of the axial punch protrusions (37,38) is radially arranged close to the rotor-facing pole shoe edge so that the distance between the punch protrusion edge and the rotor-facing pole shoe edge is less than the distance between the punch protrusion edge and any other lamination sheet edge.
Checkout counter which comprises at least two modular units, • wherein the modular units (A, B, C, D) have an essentially cubic or cuboidal frame structure, • wherein the modular units have fewer than four side walls (2, 3, 4, 5, 6, 7) that is to say have at least one side wall absent, and/or have at least one lateral opening, characterized • in that at least one modular unit (A, B, C, D) has at least two different types of fixing means (20, 23, 23'), via which the at least two modular units (A, B, C, D) are fixed to one another, • in that one type of fixing means is configured in the form of a flat component with at least two, but preferably four, bores, • and in that another type of fixing means is designed in the form of a profile rail (23, 23'), wherein the profile rail (23, 23') has essentially a U shape or an L shape. • wherein the modular units (A, B, C, D) have an essentially cubic or cuboidal frame structure, • wherein the modular units have fewer than four side walls (2, 3, 4, 5, 6, 7) that is to say have at least one side wall absent, and/or have at least one lateral opening, • in that at least one modular unit (A, B, C, D) has at least two different types of fixing means (20, 23, 23'), via which the at least two modular units (A, B, C, D) are fixed to one another, • in that one type of fixing means is configured in the form of a flat component with at least two, but preferably four, bores, • and in that another type of fixing means is designed in the form of a profile rail (23, 23'), wherein the profile rail (23, 23') has essentially a U shape or an L shape.
A transmitting method comprising: generating a plurality of first pilot symbols (2001, 2002, 2003, 2004, 2006, 2007, 2008, 2009), an amplitude of each of the plurality of first pilot symbols being not zero, generating a plurality of second pilot symbols (2010, 2011, 2012, 2013, 2015, 2016, 2017, 2018), an amplitude of each of the plurality of second pilot symbols being not zero, transmitting the plurality of first pilot symbols from a first antenna sequentially at a first frequency, and transmitting the plurality of second pilot symbols from a second antenna sequentially at the first frequency, wherein each one of the second pilot symbols is paired with one of the first pilot symbols, each pair of the first pilot symbol and the second pilot symbol being transmitted simultaneously at the first frequency, wherein an in-phase component value and a quadrature-phase component value of the first pilot symbol are same as the in-phase component value and the quadrature-phase component value of the second pilot symbol respectively in some pairs (2001, 2010, 2002, 2011, 2006, 2015, 2007, 2016), and wherein the in-phase component value and the quadrature-phase component value of the first pilot symbol are the opposite of the in-phase component value and the quadrature-phase component value of the second pilot symbol respectively in other pairs (2003, 2012, 2004, 2013, 2008, 2017, 2009, 2018), and wherein the first pilot symbols and the second pilot symbols are orthogonal to each other within the same frame. generating a plurality of first pilot symbols (2001, 2002, 2003, 2004, 2006, 2007, 2008, 2009), an amplitude of each of the plurality of first pilot symbols being not zero, generating a plurality of second pilot symbols (2010, 2011, 2012, 2013, 2015, 2016, 2017, 2018), an amplitude of each of the plurality of second pilot symbols being not zero, transmitting the plurality of first pilot symbols from a first antenna sequentially at a first frequency, and transmitting the plurality of second pilot symbols from a second antenna sequentially at the first frequency, wherein each one of the second pilot symbols is paired with one of the first pilot symbols, each pair of the first pilot symbol and the second pilot symbol being transmitted simultaneously at the first frequency, wherein an in-phase component value and a quadrature-phase component value of the first pilot symbol are same as the in-phase component value and the quadrature-phase component value of the second pilot symbol respectively in some pairs (2001, 2010, 2002, 2011, 2006, 2015, 2007, 2016), and wherein the in-phase component value and the quadrature-phase component value of the first pilot symbol are the opposite of the in-phase component value and the quadrature-phase component value of the second pilot symbol respectively in other pairs (2003, 2012, 2004, 2013, 2008, 2017, 2009, 2018), and wherein the first pilot symbols and the second pilot symbols are orthogonal to each other within the same frame.
A machine for packaging rolls or the like, comprising: - a device (23, 25) for spreading a wrapping sheet; - an elevator, adapted to move a roll to be wrapped with respect to the wrapping sheet, so as to wrap the wrapping sheet around the roll as a result of the movement between the wrapping sheet and the roll; - a first lateral wall and a second lateral wall approximately parallel to the first lateral wall; wherein the elevator is vertically movable between the first lateral wall and the second lateral wall; characterized by further comprising members (51, 61, 65) integral with the elevator, adapted to reduce the formation of creases in the wrapping sheet during the movement of the roll with respect to the wrapping sheet. - a device (23, 25) for spreading a wrapping sheet; - an elevator, adapted to move a roll to be wrapped with respect to the wrapping sheet, so as to wrap the wrapping sheet around the roll as a result of the movement between the wrapping sheet and the roll; - a first lateral wall and a second lateral wall approximately parallel to the first lateral wall; wherein the elevator is vertically movable between the first lateral wall and the second lateral wall;
A terminal comprising: a transmission section configured to transmit an uplink control channel over a plurality of slots; and the terminal being characterized in that it comprises a control section configured to control frequency hopping of the uplink control channel over the plurality of slots based on frequency resource information including information regarding a first physical resource block index and information regarding a second-hop physical resource block index that are the same as information regarding a first physical resource block index and information regarding a second-hop physical resource block index for when intra-slot frequency hopping is applied, and wherein the frequency resource information is indicated by using a field in downlink control information specifying one set of a plurality of sets of one or more parameters configured by higher layer signaling, said set including said frequency resource information. a transmission section configured to transmit an uplink control channel over a plurality of slots; and the terminal being characterized in that it comprises a control section configured to control frequency hopping of the uplink control channel over the plurality of slots based on frequency resource information including information regarding a first physical resource block index and information regarding a second-hop physical resource block index that are the same as information regarding a first physical resource block index and information regarding a second-hop physical resource block index for when intra-slot frequency hopping is applied, and wherein the frequency resource information is indicated by using a field in downlink control information specifying one set of a plurality of sets of one or more parameters configured by higher layer signaling, said set including said frequency resource information.
A set comprising a straw for the preservation of a predetermined dose of liquid-based substance, comprising a tube and a gas-permeable liquid-tight stopper, which stopper is disposed in the tube in the neighborhood of one end, which tube and which stopper are configured for the stopper to be able to slide in the tube towards the other end, characterized in that said stopper comprises an indicator component having a first predetermined color in the absence of prior contact with said substance and a second predetermined color, having a hue different from the hue of the first color, when it has been in contact with said substance; and in that said set further comprises a device for checking filling of said straw, which checking device comprises a detection member for detecting whether said indicator component has taken on said hue of the second color.
Series circuit arrangement of power semiconductors with a cooling-water distribution apparatus, including cooling-water boxes arranged on the power semiconductors, which are connected to the power semiconductors in electrically conducting manner, and also at least two cooling-water distributor lines (8, 9), wherein a first cooling-water distributor line exhibits a cooling-water inlet, and a second cooling-water distributor line exhibits a cooling-water outflow, and wherein the cooling chambers are connected in parallel between the cooling-water distributor lines (8, 9) with respect to a cooling-water stream, and in each instance a branching on the cooling-water distributor lines (8, 9) is provided for the cooling chambers and the cooling chambers are connected to the branchings via a respective connecting line, wherein furthermore a control electrode is arranged on the cooling-water distributor lines (8, 9), terminally in each instance, characterized in that for at least some of the cooling chambers the branchings on the cooling-water distributor lines (8, 9) are arranged relative to the position of the respective cooling chamber in offset manner in relation to a geometrically shortest possible link to the cooling-water distributor lines (8, 9), so that a difference of potential between the cooling chambers and the branchings is minimized.
Synthetic or recombinant fucosylated oligosaccharide for use in the treatment or prophylaxis of an infection with a Norwalk-like Virus of a mammal, wherein the synthetic fucosylated oligosaccharide comprises a non-reducing end and an reducing end, wherein the reducing end comprises a first carbohydrate unit consisting of a galactose (Gal) linked via a β1-4 glycosidic bond to a glucose (Glc), and wherein the non-reducing end comprises a second carbohydrate unit linked via a β1-3 glycosidic bond to the first carbohydrate unit of the reducing end, and wherein the second carbohydrate unit comprises a) at least one or more of a fucose (Fucose) and a Galactose (Gal), and b) at least one or more of a N-acetylglucosamine (GlcNAc) or a N-acetylgalactosamine (GalNAc), and wherein the second carbohydrate unit is selected of one of the following: - GlcNAcα1-3(Fucα1-2)Galβ1-3GlcNAc - Galβ1-3(Fucα1-2)Galβ1-3GlcNAc - Fucα1-2Galβ1-4GlcNAc - Fucα1-2Galβ1-4GalNAc. - GlcNAcα1-3(Fucα1-2)Galβ1-3GlcNAc - Galβ1-3(Fucα1-2)Galβ1-3GlcNAc - Fucα1-2Galβ1-4GlcNAc - Fucα1-2Galβ1-4GalNAc.
A fire resistant glazing comprising: i) at least one intumescent interlayer; and ii) at least two glass panes, said interlayer comprising: a) an alkali metal silicate waterglass; and b) one or more transition metals capable of forming one or more photosensitive transition metal complexes characterised in that: the total concentration of transition metals capable of forming photosensitive transition metal complexes in said interlayer is less than 40ppm by weight. i) at least one intumescent interlayer; and ii) at least two glass panes, said interlayer comprising: a) an alkali metal silicate waterglass; and b) one or more transition metals capable of forming one or more photosensitive transition metal complexes characterised in that: the total concentration of transition metals capable of forming photosensitive transition metal complexes in said interlayer is less than 40ppm by weight. a) an alkali metal silicate waterglass; and b) one or more transition metals capable of forming one or more photosensitive transition metal complexes characterised in that:
A method in a network switch, comprising: receiving a packet comprising a source Media Access Control address, called MAC address, and a Virtual Local Area Network Identifier, called VLAN Identifier, wherein the VLAN Identifier corresponds to a VLAN that is not pre-configured on the network switch, and wherein the VLAN Identifier is in the received packet within a customer VLAN Identifier tag, called CVID tag; in response to receiving the packet, modifying the packet received to include a second VLAN tag, distinct from the CVID tag; determining no forwarding database entry exists for the modified packet; and dynamically creating the VLAN on the network switch to handle received packets that include the CVID tag. receiving a packet comprising a source Media Access Control address, called MAC address, and a Virtual Local Area Network Identifier, called VLAN Identifier, wherein the VLAN Identifier corresponds to a VLAN that is not pre-configured on the network switch, and wherein the VLAN Identifier is in the received packet within a customer VLAN Identifier tag, called CVID tag; in response to receiving the packet, modifying the packet received to include a second VLAN tag, distinct from the CVID tag; determining no forwarding database entry exists for the modified packet; and dynamically creating the VLAN on the network switch to handle received packets that include the CVID tag.
Cigarette paper that has at least one treated area to which a composition that contains a film-forming material and filler particles or a mixture of filler particles is applied, wherein the diffusion capacity in the at least one treated area is less than in an untreated area of the cigarette paper, wherein at least 20% by weight, preferably at least 50% by weight and particularly preferably at least 70% by weight of the filler particles in the applied composition are formed by one or more of the following types of filler particles: (a) calcium carbonate with a flaked shape and with a particle size distribution for which the following holds: p ≥ 0.5, preferably p ≥ 0.6 and p ≤ 1.0, preferably p ≤ 0.9, (b) calcium carbonate with a scalenohedral crystal structure and with a particle size distribution for which the following holds: p ≥ 0.7, preferably p ≥ 0.8, particularly preferably p ≥ 0.85 and in particular p ≥ 0.9, or p ≤ 0.3, preferably p ≤ 0.25, and particularly preferably p ≤ 0.2, (c) calcium carbonate with a rhombohedral crystal structure and with a particle size distribution for which the following holds: p ≥ 0.5, preferably p ≥ 0.6 and particularly preferably p ≥ 0.7, (d) calcium carbonate with a cubic shape and with a particle size distribution for which the following holds: p ≥ 0.2, preferably p ≥ 0.3 and p ≤ 0.7, preferably p ≤ 0.6 or (e) calcium carbonate with a scalenohedral crystal structure and with a particle size distribution for which the following holds: p ≥ 0.40, preferably p ≥ 0.45 and p ≤ 0.60, preferably p ≤ 0.55, wherein p = d 50/ (d 90 -d 10), and wherein a median size d 50 of the filler particles in the applied composition is at least 0.1 μm and at most 10 μm, and wherein the amount of material applied in the treated areas, given as mass/applied area in the dried state, is at least 0.5 g/m 2 and/or at most 12 g/m 2. (a) calcium carbonate with a flaked shape and with a particle size distribution for which the following holds: p ≥ 0.5, preferably p ≥ 0.6 and p ≤ 1.0, preferably p ≤ 0.9, (b) calcium carbonate with a scalenohedral crystal structure and with a particle size distribution for which the following holds: p ≥ 0.7, preferably p ≥ 0.8, particularly preferably p ≥ 0.85 and in particular p ≥ 0.9, or p ≤ 0.3, preferably p ≤ 0.25, and particularly preferably p ≤ 0.2, p ≥ 0.7, preferably p ≥ 0.8, particularly preferably p ≥ 0.85 and in particular p ≥ 0.9, or p ≤ 0.3, preferably p ≤ 0.25, and particularly preferably p ≤ 0.2, (c) calcium carbonate with a rhombohedral crystal structure and with a particle size distribution for which the following holds: p ≥ 0.5, preferably p ≥ 0.6 and particularly preferably p ≥ 0.7, (d) calcium carbonate with a cubic shape and with a particle size distribution for which the following holds: p ≥ 0.2, preferably p ≥ 0.3 and p ≤ 0.7, preferably p ≤ 0.6 or (e) calcium carbonate with a scalenohedral crystal structure and with a particle size distribution for which the following holds: p ≥ 0.40, preferably p ≥ 0.45 and p ≤ 0.60, preferably p ≤ 0.55, p ≥ 0.40, preferably p ≥ 0.45 and p ≤ 0.60, preferably p ≤ 0.55,
A system for evaluating bubble formation potential in a structure, comprising: an environment test chamber; an environment controller for controlling a plurality of environmental conditions within the environment test chamber; a detector for capturing images of a structure under test inside said environmental test chamber; an illumination source for controlling illumination of the structure under test inside said environmental test chamber; and a user interface coupled to the environment controller for adjusting the environmental conditions within the environment test chamber and the user interface is coupled to the illumination source for setting and adjusting illumination of the structure under test and the user interface is coupled to the detector for receiving the captured images and configured to evaluate bubble formation potential in the structure under test based on the captured images, wherein a size and number of bubbles is determined for evaluating the bubble formation potential of the structure, wherein the structure under test is a laminated structure comprising an outer layer of a decorative material that is disposed on a lower layer of another material. an environment test chamber; an environment controller for controlling a plurality of environmental conditions within the environment test chamber; a detector for capturing images of a structure under test inside said environmental test chamber; an illumination source for controlling illumination of the structure under test inside said environmental test chamber; and a user interface coupled to the environment controller for adjusting the environmental conditions within the environment test chamber and the user interface is coupled to the illumination source for setting and adjusting illumination of the structure under test and the user interface is coupled to the detector for receiving the captured images and configured to evaluate bubble formation potential in the structure under test based on the captured images, wherein a size and number of bubbles is determined for evaluating the bubble formation potential of the structure, wherein the structure under test is a laminated structure comprising an outer layer of a decorative material that is disposed on a lower layer of another material.
A flexible bone fusion apparatus comprising: (a) an anchor portion having an elongated body with screw threads on at least a portion of its exterior, the anchor portion having a leading tip and an end; (b) a compressor portion having an elongated body with screw threads on at least a portion of its exterior; and (c) a coupler having a first end (22, 31) adapted to rotatably engage the anchor portion in a first plane, the coupler also having a second end adapted to rotatably engage the compressor portion through axial rotation, wherein the coupler and compressor portion are joined by a snap-fit interface comprising at least one annular ridge (35, 36) in either the compressor portion or coupler but not both, and at least one mating annular groove (14, 17) in the other of either the coupler or compressor portion but not both, said at least one groove (14, 17) being suitable to accommodate said at least one annular ridge (35, 36) characterized in that the diameter at the base of the at least one mating groove is the same as the external diameter of the at least one ridge such that the snap fit interface is adapted to allow relative axial rotation of the compressor portion and coupler. (a) an anchor portion having an elongated body with screw threads on at least a portion of its exterior, the anchor portion having a leading tip and an end; (b) a compressor portion having an elongated body with screw threads on at least a portion of its exterior; and (c) a coupler having a first end (22, 31) adapted to rotatably engage the anchor portion in a first plane, the coupler also having a second end adapted to rotatably engage the compressor portion through axial rotation,