mhurhangee/ep-ind-claims huggingface dataset:
A tower for a pipe laying system, the tower comprising: - a frame with a leg to support the frame, and - a winch support integrally formed with the leg, the winch support able to receive and support a winch and/or winch components (58,60), wherein the winch support comprises: - a winch housing extending at least partially into the leg for receiving at least part of a drum; and - a mount for supporting a winch shaft. - a frame with a leg to support the frame, and - a winch support integrally formed with the leg, the winch support able to receive and support a winch and/or winch components (58,60), wherein the winch support comprises: - a winch housing extending at least partially into the leg for receiving at least part of a drum; and - a mount for supporting a winch shaft. - a mount for supporting a winch shaft.
A method of manufacturing absorbent tampons comprising: a. providing a continuous nonwoven fibrous web; b. separating individual nonwoven web sections from the continuous nonwoven fibrous web, each individual nonwoven web section having: i. a length greater than a width; ii. a thickness less than both the length and width; and iii. longitudinal side edges; c. forming distinct side edges of each individual nonwoven web section by: i. needlepunching proximate the longitudinal side edges of each individual nonwoven web section; ii. folding both longitudinal side edges inwardly to form distinct side edges of the individual nonwoven web section; and iii. needlepunching the folded longitudinal side edges to stabilize the distinct side edges of the individual nonwoven web section; d. rolling the nonwoven web section about a winding axis substantially parallel to the width to form a substantially cylindrical tampon blank having an insertion end and a withdrawal end; and e. compressing the substantially cylindrical tampon blank to form the absorbent tampon. a. providing a continuous nonwoven fibrous web; b. separating individual nonwoven web sections from the continuous nonwoven fibrous web, each individual nonwoven web section having: i. a length greater than a width; ii. a thickness less than both the length and width; and iii. longitudinal side edges; i. a length greater than a width; ii. a thickness less than both the length and width; and iii. longitudinal side edges; c. forming distinct side edges of each individual nonwoven web section by: i. needlepunching proximate the longitudinal side edges of each individual nonwoven web section; ii. folding both longitudinal side edges inwardly to form distinct side edges of the individual nonwoven web section; and iii. needlepunching the folded longitudinal side edges to stabilize the distinct side edges of the individual nonwoven web section; i. needlepunching proximate the longitudinal side edges of each individual nonwoven web section; ii. folding both longitudinal side edges inwardly to form distinct side edges of the individual nonwoven web section; and iii. needlepunching the folded longitudinal side edges to stabilize the distinct side edges of the individual nonwoven web section; d. rolling the nonwoven web section about a winding axis substantially parallel to the width to form a substantially cylindrical tampon blank having an insertion end and a withdrawal end; and e. compressing the substantially cylindrical tampon blank to form the absorbent tampon.
A hydrogenated block copolymer which comprises at least two polymer blocks A each mainly comprising an aromatic vinyl hydrocarbon compound monomer unit and at least two hydrogenated polymer blocks B each mainly comprising a butadiene monomer unit, at least 90% of the olefinically unsaturated double bonds in said polymer blocks mainly comprising a butadiene monomer unit before hydrogenation having been hydrogenated, wherein at least one of the blocks at the terminal of the hydrogenated block copolymer is the polymer block B, wherein the proportion of the terminal polymer blocks B in the hydrogenated block copolymer is at least 0.1 wt% but less than 9.1 wt%, wherein the proportion of the aromatic vinyl hydrocarbon compound in the hydrogenated block copolymer exceeds 10 wt% but less than 25 wt%, wherein the 1,2-bond content of the polymer blocks mainly comprising a butadiene monomer unit before hydrogenation is, an average, at least 70 mol% but less than 99 mol%, and wherein the difference ΔTc (Tc1 - Tc2) between the crystallization initiating temperature of the isotactic homopolypropylene and the crystallization initiating temperature of a mixture of 80 wt% of the isotactic homopolypropylene and 20 wt% of the hydrogenated block copolymer, each as measured by DSC according to the description is at least 1.5°C.
A bed frame assembly comprising: a pair of spaced apart side rails and at least one cross member spanning between the side rails, at least one of the side rails or the cross member being of a unitary, one piece construction having a T-shaped cross section, the T-shaped cross section comprising a first flange having outer edges (26, 28) and a single, solid second flange intersecting and extending outwardly from the first flange intermediate the outer edges (26, 28) of the first flange, the first flange being wider in cross-section than the second shorter flange, the second flange having opposed first and second surfaces, characterized in that the intersection of the second flange and the first flange have first and second fillets intersecting, respectively, the first and second surfaces of the second flange with the first flange, wherein the cross section of each of the first and second fillets is configured as two adjoining circular arcs (38, 40) meeting along a line that extends along the longitudinal length of the side rail or the cross member. a pair of spaced apart side rails and at least one cross member spanning between the side rails, at least one of the side rails or the cross member being of a unitary, one piece construction having a T-shaped cross section, the T-shaped cross section comprising a first flange having outer edges (26, 28) and a single, solid second flange intersecting and extending outwardly from the first flange intermediate the outer edges (26, 28) of the first flange, the first flange being wider in cross-section than the second shorter flange, the second flange having opposed first and second surfaces, characterized in that the intersection of the second flange and the first flange have first and second fillets intersecting, respectively, the first and second surfaces of the second flange with the first flange, wherein the cross section of each of the first and second fillets is configured as two adjoining circular arcs (38, 40) meeting along a line that extends along the longitudinal length of the side rail or the cross member.
An input system comprising: a light source; a microlens array arranged to receive light from the light source and generate a plurality of parallel, circular cross-section beamlets; a lens; a photography subsystem arranged to receive input from the lens and generate, based on the input, an image that includes a plurality of shapes formed as a result of the plurality of beamlets reflecting from a surface comprising a fingerprint being presented to the lens, wherein said image includes depth information; and an image signal processor arranged to receive, from the photography subsystem, the image and, based on the image, generate a three-dimensional digital representation of the surface, wherein the three-dimensional digital representation includes recession depth information and angular characteristic information of ridges and valleys of the fingerprint, and wherein the three-dimensional digital representation is generated by registering a measure of a deviation from a circular shape for each of the plurality of shapes and translating the deviation measures for the plurality of shapes into the three-dimensional digital representation of the surface. a light source; a microlens array arranged to receive light from the light source and generate a plurality of parallel, circular cross-section beamlets; a lens; a photography subsystem arranged to receive input from the lens and generate, based on the input, an image that includes a plurality of shapes formed as a result of the plurality of beamlets reflecting from a surface comprising a fingerprint being presented to the lens, wherein said image includes depth information; and an image signal processor arranged to receive, from the photography subsystem, the image and, based on the image, generate a three-dimensional digital representation of the surface, wherein the three-dimensional digital representation includes recession depth information and angular characteristic information of ridges and valleys of the fingerprint, and wherein the three-dimensional digital representation is generated by registering a measure of a deviation from a circular shape for each of the plurality of shapes and translating the deviation measures for the plurality of shapes into the three-dimensional digital representation of the surface.
Liquid crystal medium, characterized in that it comprises three or more compounds of formula I wherein R 11 denotes C n H 2n+1 or CH 2 =CH-(CH 2) Z, and R 12 denotes C m H 2m+1 or O-C m H 2m+1 or (CH 2) Z -CH=CH 2, n and m, independently of one another, denote an integer in the range from 1 to 9 and z denotes 0, 1, 2, 3 or 4, in a total concentration of ≥ 90 % and wherein the medium comprises - the compound of formula la in a total concentration of ≥ 45 %, - the compound of formula Ib and - the compound of formula Ic R 11 denotes C n H 2n+1 or CH 2 =CH-(CH 2) Z, and R 12 denotes C m H 2m+1 or O-C m H 2m+1 or (CH 2) Z -CH=CH 2, n and m, independently of one another, denote an integer in the range from 1 to 9 and z denotes 0, 1, 2, 3 or 4, - the compound of formula la - the compound of formula Ib and - the compound of formula Ic
A tubular glass bottle neck including: a tubular wall, connected in continuation to a bottle body, defining an inner conduit, an outer wall face, and a mouth accessible from outside the bottle; a protruding annular collar on the outer surface of the tubular wall in a position adjacent to the mouth, with said annular collar being provided with an outer collar face confined between two annular collar projections; characterized in that said tubular wall defines a collar segment, a transition segment, and a wide segment successive to and aligned with one another and with their respective inner conduits being connected to one another, the collar segment includes the annular collar and the mouth, with the thickness of the annular collar being added to the thickness of the tubular wall in at least part of said collar segment; the outer wall face of the wide segment is flush with the outer collar face, and the inner conduit thereof has a cross section having a larger size than the cross section of the inner conduit of the collar segment; and the transition segment links the collar segment and the wide segment, the inner conduit thereof comprises successive cross sections having an increasing size connecting the inner conduits of the collar segment and the wide segment, and the outer wall face thereof has at least two successive cross sections having a different size, connecting the outer wall faces of the collar segment and the wide segment, defining an annular outer recess between the collar and the wide segment. a tubular wall, connected in continuation to a bottle body, defining an inner conduit, an outer wall face, and a mouth accessible from outside the bottle; a protruding annular collar on the outer surface of the tubular wall in a position adjacent to the mouth, with said annular collar being provided with an outer collar face confined between two annular collar projections; characterized in that said tubular wall defines a collar segment, a transition segment, and a wide segment successive to and aligned with one another and with their respective inner conduits being connected to one another, the collar segment includes the annular collar and the mouth, with the thickness of the annular collar being added to the thickness of the tubular wall in at least part of said collar segment; the outer wall face of the wide segment is flush with the outer collar face, and the inner conduit thereof has a cross section having a larger size than the cross section of the inner conduit of the collar segment; and the transition segment links the collar segment and the wide segment, the inner conduit thereof comprises successive cross sections having an increasing size connecting the inner conduits of the collar segment and the wide segment, and the outer wall face thereof has at least two successive cross sections having a different size, connecting the outer wall faces of the collar segment and the wide segment, defining an annular outer recess between the collar and the wide segment.
A method of operating a global positioning receiver, the method comprising: receiving a plurality of signals from a plurality of satellites (102, 104, 106); determining at least a measurement and location of each satellite (102, 104, 106) based on the received plurality of signals; determining an approximate vehicle velocity vector based on the received plurality of signals; determining a dot product between a line of sight (116, 108, 118) between each satellite (102, 104, 106) and a vehicle (101, 200) having the receiver and the determined vehicle velocity vector; removing each measurement associated with each determined dot product that is below a minimum dot product threshold to obtain a resultant set of measurements; and determining a position solution based on the resultant set of measurements. receiving a plurality of signals from a plurality of satellites (102, 104, 106); determining at least a measurement and location of each satellite (102, 104, 106) based on the received plurality of signals; determining an approximate vehicle velocity vector based on the received plurality of signals; determining a dot product between a line of sight (116, 108, 118) between each satellite (102, 104, 106) and a vehicle (101, 200) having the receiver and the determined vehicle velocity vector; determining an approximate vehicle velocity vector based on the received plurality of signals; determining a dot product between a line of sight (116, 108, 118) between each satellite (102, 104, 106) and a vehicle (101, 200) having the receiver and the determined vehicle velocity vector; removing each measurement associated with each determined dot product that is below a minimum dot product threshold to obtain a resultant set of measurements; and determining a position solution based on the resultant set of measurements.
A data carrier (1, 18) having a data carrier substrate and a security element (2, 19) applied to the data carrier substrate, wherein the side of the data carrier substrate having the security element defines the front side of the data carrier and - the data carrier substrate is a polymer substrate which in the region of the security element has regions with elevated light transmission and regions with reduced light transmission which together form the first motif, wherein the regions with reduced light transmission are formed by regions printed with opaque ink of the data carrier substrate and the regions with elevated light transmission are unprinted regions of the data carrier substrate. - the security element contains a transparent carrier substrate having a semi-transparent function layer, wherein the semi-transparent function layer is constituted such that (i) the data carrier upon the viewing its front side in incident light has a first visually recognizable color and upon the viewing in transmitted light has a second visually recognizable color and (ii) the first motif is imperceptible upon the viewing of the front side of the data carrier in incident light and is perceptible upon the viewing of the data carrier in transmitted light; and - the semi-transparent function layer of the security element has a multilayer construction with two semi-transparent metallic layers and a dielectric layer arranged between the two semi-transparent metallic layers or is obtainable by printing technology by means of an effect pigment composition. - the data carrier substrate is a polymer substrate which in the region of the security element has regions with elevated light transmission and regions with reduced light transmission which together form the first motif, wherein the regions with reduced light transmission are formed by regions printed with opaque ink of the data carrier substrate and the regions with elevated light transmission are unprinted regions of the data carrier substrate. - the security element contains a transparent carrier substrate having a semi-transparent function layer, wherein the semi-transparent function layer is constituted such that (i) the data carrier upon the viewing its front side in incident light has a first visually recognizable color and upon the viewing in transmitted light has a second visually recognizable color and (ii) the first motif is imperceptible upon the viewing of the front side of the data carrier in incident light and is perceptible upon the viewing of the data carrier in transmitted light; and - the semi-transparent function layer of the security element has a multilayer construction with two semi-transparent metallic layers and a dielectric layer arranged between the two semi-transparent metallic layers or is obtainable by printing technology by means of an effect pigment composition.
A wireless apparatus, comprising: a processor; and a non-transitory computer readable storage medium storing programming for execution by the processor, the programming, when executed by the processor, instructing the wireless apparatus to: receive an uplink orthogonal frequency division multiple access, OFDMA, frame over a 20 megahertz, MHz, frequency channel, wherein the uplink OFDMA frame includes a 256 tone payload (200, 400, 500) consisting of 234 tones carried in a plurality of resource units, RUs (210, 410, 510) and 22 tones (220, 422, 426, 522, 526) excluded from the plurality of RUs and carries a plurality of tones over the 20MHz frequency channel, the plurality of tones comprises data tones and pilot tones, and the data tones and the pilot tones are partitioned into a plurality of resource units, RUs, wherein the plurality of RUs comprises at least one first RU and at least one second RU, wherein each of the at least one first RU consists of 24 data tones and 2 pilot tones, each of the at least one second RU consists of 48 data tones and 4 pilot tones. receive an uplink orthogonal frequency division multiple access, OFDMA, frame over a 20 megahertz, MHz, frequency channel, wherein the uplink OFDMA frame includes a 256 tone payload (200, 400, 500) consisting of 234 tones carried in a plurality of resource units, RUs (210, 410, 510) and 22 tones (220, 422, 426, 522, 526) excluded from the plurality of RUs and carries a plurality of tones over the 20MHz frequency channel, the plurality of tones comprises data tones and pilot tones, and the data tones and the pilot tones are partitioned into a plurality of resource units, RUs, wherein the plurality of RUs comprises at least one first RU and at least one second RU, wherein each of the at least one first RU consists of 24 data tones and 2 pilot tones, each of the at least one second RU consists of 48 data tones and 4 pilot tones.
Apparatus for processing containing devices for animals, each of which containing devices comprises a plurality of components (12, 13, 14), including a tray, a trough and a lid, which can be reciprocally connected in an assembled condition, said apparatus comprising at least: - a reception station for the containing devices to be processed, in an assembled condition in which the lid is released from the combined tray and trough, - a washing station able to receive the containing devices from the reception station and configured to wash said components (12, 13, 14), characterized in that said washing station comprises: a first washer machine configured to wash at least said tray and said trough and comprising one or more first operating units, a second washer machine configured to wash in parallel said lid and comprising one or more second operating units, and in that said apparatus also comprises: - a first robotized manipulator at entry configured to pick up and separate from each other the components (12, 13, 14) of each containing device from the reception station and to feed said tray and said trough toward the first washer machine and said lid toward the second washer machine, and - a second robotized manipulator at exit configured to pick up said tray and said trough exiting from the first washer machine and said lid exiting from the second washer machine after they have been processed and to assemble them with respect to each other. - a reception station for the containing devices to be processed, in an assembled condition in which the lid is released from the combined tray and trough, - a washing station able to receive the containing devices from the reception station and configured to wash said components (12, 13, 14), characterized in that a first washer machine configured to wash at least said tray and said trough and comprising one or more first operating units, a second washer machine configured to wash in parallel said lid and comprising one or more second operating units, - a first robotized manipulator at entry configured to pick up and separate from each other the components (12, 13, 14) of each containing device from the reception station and to feed said tray and said trough toward the first washer machine and said lid toward the second washer machine, and - a second robotized manipulator at exit configured to pick up said tray and said trough exiting from the first washer machine and said lid exiting from the second washer machine after they have been processed and to assemble them with respect to each other.