mhurhangee/ep-ind-claims huggingface dataset:
An ID document comprising a document core layer having two opposed surfaces or a smart card comprising an inlay having two opposed surfaces, the inlay comprising at least one of an electronic processing circuitry and an electronic memory circuitry embedded therein, the ID document and the smart card further comprising: a multi-layer laminate on at least one surface of the document core layer or on at least one surface of the inlay, the multilayer laminate comprising: a top layer; a middle layer; and a bottom layer, characterized in that the melting point of the bottom layer is higher than the melting point of the middle layer but is lower than the thermal softening/deformation point of the top layer. a multi-layer laminate on at least one surface of the document core layer or on at least one surface of the inlay, the multilayer laminate comprising: a top layer; a middle layer; and a bottom layer, a top layer; a middle layer; and a bottom layer, characterized in that the melting point of the bottom layer is higher than the melting point of the middle layer but is lower than the thermal softening/deformation point of the top layer.
An absorbent article comprising: a liquid pervious layer; a liquid impervious layer; an absorbent core disposed between said liquid pervious layer and said liquid impervious layer; and a nonwoven material comprising at least a layer of fibers that are made of a composition comprising a first polyolefin, a second polyolefin, and a softness enhancer additive, wherein said second polyolefin is propylene copolymer, wherein said second polyolefin is a different polyolefin than said first polyolefin and wherein said layer of fibers comprises a plurality of calendering bonds, said calendering bonds having a bond shape with a greatest measurable length and a greatest measurable width, wherein an aspect ratio of the greatest measurable length to the greatest measurable width is at least 2.5, wherein said calendering bonds are arranged in a pattern so that there is at least one hypothetical line, which does not intersect any of the plurality of calendering bonds; wherein said at least one hypothetical line forms an angle with a cross-machine direction of said nonwoven material that is greater than 45°. a liquid pervious layer; a liquid impervious layer; an absorbent core disposed between said liquid pervious layer and said liquid impervious layer; and a nonwoven material comprising at least a layer of fibers that are made of a composition comprising a first polyolefin, a second polyolefin, and a softness enhancer additive, wherein said second polyolefin is propylene copolymer, wherein said second polyolefin is a different polyolefin than said first polyolefin and wherein said layer of fibers comprises a plurality of calendering bonds, said calendering bonds having a bond shape with a greatest measurable length and a greatest measurable width, wherein an aspect ratio of the greatest measurable length to the greatest measurable width is at least 2.5, wherein said calendering bonds are arranged in a pattern so that there is at least one hypothetical line, which does not intersect any of the plurality of calendering bonds; wherein said at least one hypothetical line forms an angle with a cross-machine direction of said nonwoven material that is greater than 45°.
A mechanically variable beam width antenna, comprising: a generally planar reflector; a first plurality of radiators (110, 150, 190, 230) configured in a first column adjacent the reflector; a second plurality of radiators (130, 170, 210, 250) configured in a second column adjacent the reflector; a third plurality of radiators (120, 140, 160, 180, 200, 240) configured in a third column adjacent the reflector; at least one actuator coupled to the first and second plurality of radiators, wherein the first plurality of radiators (110, 150, 190, 230) and the second plurality of radiators (130, 170, 210, 250) are movable relative to each other in a direction generally parallel to the plane of the reflector from a first configuration wherein the first and second columns are spaced a first distance apart to a second configuration wherein the first and second columns are spaced a second distance apart, characterized in that the first (110, 150, 190, 230) and second plurality (130, 170, 210, 250) of radiators are configured in rows aligned perpendicularly to said columns and the third plurality (120, 140, 160, 180, 200, 240) of radiators are offset from the rows of said first (110, 150, 190, 230) and second plurality (130, 170, 210, 250) of radiators or in that the columns comprising the first (110, 150, 190, 230) and second (130, 170, 210, 250) plurality of radiators are spaced apart a distance HS and the orthogonal offset between the first (110, 150, 190, 230) and second (130, 170, 210, 250) plurality of radiators and the third plurality (120, 140, 160, 180, 200, 240) of radiators is VS. a generally planar reflector; a first plurality of radiators (110, 150, 190, 230) configured in a first column adjacent the reflector; a second plurality of radiators (130, 170, 210, 250) configured in a second column adjacent the reflector; a third plurality of radiators (120, 140, 160, 180, 200, 240) configured in a third column adjacent the reflector; at least one actuator coupled to the first and second plurality of radiators, wherein the first plurality of radiators (110, 150, 190, 230) and the second plurality of radiators (130, 170, 210, 250) are movable relative to each other in a direction generally parallel to the plane of the reflector from a first configuration wherein the first and second columns are spaced a first distance apart to a second configuration wherein the first and second columns are spaced a second distance apart, characterized in that the first (110, 150, 190, 230) and second plurality (130, 170, 210, 250) of radiators are configured in rows aligned perpendicularly to said columns and the third plurality (120, 140, 160, 180, 200, 240) of radiators are offset from the rows of said first (110, 150, 190, 230) and second plurality (130, 170, 210, 250) of radiators or in that the columns comprising the first (110, 150, 190, 230) and second (130, 170, 210, 250) plurality of radiators are spaced apart a distance HS and the orthogonal offset between the first (110, 150, 190, 230) and second (130, 170, 210, 250) plurality of radiators and the third plurality (120, 140, 160, 180, 200, 240) of radiators is VS.
A method comprising: determining (404, 504) an electronic signature from a signal captured from a power line of a powerline communication network; inferring presence and identity of a non-linear device on the power line based, at least in part, on the electronic signature; retrieving (412, 512) information specified for a non-linear device with the inferred identity of the non-linear device; determining (423, 523) a distortion mitigating adjustment to apply when transmitting on the power line based, at least in part, on the retrieved information, wherein the distortion mitigating adjustment comprises reducing transmit power. determining (404, 504) an electronic signature from a signal captured from a power line of a powerline communication network; inferring presence and identity of a non-linear device on the power line based, at least in part, on the electronic signature; retrieving (412, 512) information specified for a non-linear device with the inferred identity of the non-linear device; determining (423, 523) a distortion mitigating adjustment to apply when transmitting on the power line based, at least in part, on the retrieved information, wherein the distortion mitigating adjustment comprises reducing transmit power.
Use of a medium supplement for the induction of differentiation from a cell into neural stem cell, comprising: a TGF-β receptor inhibitor; and a protein kinase C inhibitor, wherein the medium supplement does not contain ascorbic acid or an ascorbic acid derivative and/or does not contain albumin, 2-mercaptoethanol, transferrin, or ethanolamine. a TGF-β receptor inhibitor; and a protein kinase C inhibitor, wherein the medium supplement does not contain ascorbic acid or an ascorbic acid derivative and/or does not contain albumin, 2-mercaptoethanol, transferrin, or ethanolamine.
A method of categorizing a cervical tissue sample, comprising: (a) performing an in situ hybridization assay using an antisense E6 or E7 probe on a cervical tissue sample, wherein the antisense E6 or E7 probe can simultaneously detect high-risk HPV DNA and HPV RNA; (b) detecting the presence of HPV nucleic acid, wherein said detecting comprises detecting HPV DNA and HPV RNA; and (c) categorizing the cervical tissue sample, wherein (i) the presence of diffuse nuclear staining of HPV nucleic acid only in the superficial layer of the epithelium of the cervical sample indicates a transient HPV infection state, (ii) the presence of granular staining of HPV nucleic acid in the cytoplasm and/or the nucleus in the intermediate and basal layers of the epithelium of the cervical sample indicates a persistent HPV infection state, or (iii) the presence of diffuse nuclear staining of HPV nucleic acid in the superficial layer of the epithelium and granular staining of HPV nucleic acid in the cytoplasm and/or the nucleus of the intermediate layer of the epithelium of the cervical sample indicates a transition HPV infection state. (a) performing an in situ hybridization assay using an antisense E6 or E7 probe on a cervical tissue sample, wherein the antisense E6 or E7 probe can simultaneously detect high-risk HPV DNA and HPV RNA; (b) detecting the presence of HPV nucleic acid, wherein said detecting comprises detecting HPV DNA and HPV RNA; and (c) categorizing the cervical tissue sample, wherein (i) the presence of diffuse nuclear staining of HPV nucleic acid only in the superficial layer of the epithelium of the cervical sample indicates a transient HPV infection state, (ii) the presence of granular staining of HPV nucleic acid in the cytoplasm and/or the nucleus in the intermediate and basal layers of the epithelium of the cervical sample indicates a persistent HPV infection state, or (iii) the presence of diffuse nuclear staining of HPV nucleic acid in the superficial layer of the epithelium and granular staining of HPV nucleic acid in the cytoplasm and/or the nucleus of the intermediate layer of the epithelium of the cervical sample indicates a transition HPV infection state. (i) the presence of diffuse nuclear staining of HPV nucleic acid only in the superficial layer of the epithelium of the cervical sample indicates a transient HPV infection state, (ii) the presence of granular staining of HPV nucleic acid in the cytoplasm and/or the nucleus in the intermediate and basal layers of the epithelium of the cervical sample indicates a persistent HPV infection state, or (iii) the presence of diffuse nuclear staining of HPV nucleic acid in the superficial layer of the epithelium and granular staining of HPV nucleic acid in the cytoplasm and/or the nucleus of the intermediate layer of the epithelium of the cervical sample indicates a transition HPV infection state.
A copolymer comprising ethylene and from 0.5 to 25 mol% of C 3 to C 20 olefin comonomer, said copolymer having: 1) a ratio of Ultimate Tensile Stress to Tensile Stress at 100% elongation of 2.5 or more as determined according to ASTM-D-882; 2) a ratio of Ultimate Tensile Stress to Tensile Stress at 300% elongation of 2.4 or more as determined according to ASTM-D-882; 3) a ratio of Ultimate Tensile Stress to Tensile Stress at the primary yield point of 2.9 or more as determined according to ASTM-D-882; 4) a density of 0.910 g/cm 3 or more as determined using chips cut from plaques compression molded in accordance with ASTM D-4703-07 and aged for 40 hrs at 23°C plus or minus 2°C and measured as specified by ASTM D-1505; 5) a 1% secant modulus of 30 to 100 MPa as determined according to ASTM-D-882; and 6) a Tensile Stress of Y MPa or more, where Y = (0.0532)*Z - 8.6733 and Z is the percent strain and is a number from 500 to 2000 as determined according to ASTM-D-882, and 7) a ratio of Ultimate Tensile Strain to Ultimate Tensile Stress of 20 or more as determined according to ASTM-D-882.
A composite spar having an upper and lower wall region (45, 47) connected by leading and trailing edge regions (48, 49), the spar comprising: a plurality of first laminates including one or more plies of graphite fibers having an intermediate modulus, the plurality of first laminates being arranged in one or more intermediate modulus layers (70a, 70b), the intermediate modulus layers (70a, 70b) forming at least a portion of the upper wall region, the lower wall region, the leading edge conic region and the trailing edge conic region; and a plurality of second laminates including one or more plies of graphite fibers having a high modulus which is higher than the intermediate modulus, the plurality of second laminates being arranged in one or more high modulus layers (75a, 75b), the high modulus layers (75a, 75b) being interposed between intermediate modulus layers (70a, 70b), wherein the high modulus layers are arranged only within the upper wall region and the lower wall region. a plurality of first laminates including one or more plies of graphite fibers having an intermediate modulus, the plurality of first laminates being arranged in one or more intermediate modulus layers (70a, 70b), the intermediate modulus layers (70a, 70b) forming at least a portion of the upper wall region, the lower wall region, the leading edge conic region and the trailing edge conic region; and a plurality of second laminates including one or more plies of graphite fibers having a high modulus which is higher than the intermediate modulus, the plurality of second laminates being arranged in one or more high modulus layers (75a, 75b), the high modulus layers (75a, 75b) being interposed between intermediate modulus layers (70a, 70b), wherein the high modulus layers are arranged only within the upper wall region and the lower wall region.
A filtration assembly for engagement with a filter head (108, 308, 908), comprising: a housing (102, 302, 502, 602, 802, 902) defining an internal volume, the housing comprising a housing first end (136, 336, 936), a housing second end, a seal member channel (360, 460, 660, 960) formed on an external surface of the housing, a first coupling member (190, 390, 690) formed in the housing, and a first coupling surface comprising a complementary angled surface disposed around the middle of the housing on an external wall or disposed around the housing first end (336, 936) on an external wall, the housing first end being an open end and the housing second end being a closed end; a filter element (104, 304, 704, 904) positioned within the internal volume of the housing, the filter element configured to engage the first coupling member; an adapter (106, 306, 606, 906) positioned circumferentially around the housing, the adapter being configured to be coupled to the filter head, the adapter comprising a second coupling member disposed internally around an adapter first end, the second coupling member defining a second coupling surface configured to engage the first coupling surface; and a seal member (152, 352, 752, 952) disposed in the seal member channel between the housing first end and the first coupling surface, the seal member providing a radial seal directly between the housing and the filter head. a housing (102, 302, 502, 602, 802, 902) defining an internal volume, the housing comprising a housing first end (136, 336, 936), a housing second end, a seal member channel (360, 460, 660, 960) formed on an external surface of the housing, a first coupling member (190, 390, 690) formed in the housing, and a first coupling surface comprising a complementary angled surface disposed around the middle of the housing on an external wall or disposed around the housing first end (336, 936) on an external wall, the housing first end being an open end and the housing second end being a closed end; a filter element (104, 304, 704, 904) positioned within the internal volume of the housing, the filter element configured to engage the first coupling member; an adapter (106, 306, 606, 906) positioned circumferentially around the housing, the adapter being configured to be coupled to the filter head, the adapter comprising a second coupling member disposed internally around an adapter first end, the second coupling member defining a second coupling surface configured to engage the first coupling surface; and a seal member (152, 352, 752, 952) disposed in the seal member channel between the housing first end and the first coupling surface, the seal member providing a radial seal directly between the housing and the filter head.
A dual use directed energy weapon and imager, comprising: a generator to provide a first beam of millimeter wave electromagnetic energy; a beam director to direct the first beam from the generator to an object, the beam director defining an aperture; an illuminator to illuminate the object with a second beam of millimeter wave or sub-millimeter wave electromagnetic energy; and an imager to capture an image of the object using at least a portion of the second beam reflected from the object; wherein the imager shares the aperture defined by the beam director. a generator to provide a first beam of millimeter wave electromagnetic energy; a beam director to direct the first beam from the generator to an object, the beam director defining an aperture; an illuminator to illuminate the object with a second beam of millimeter wave or sub-millimeter wave electromagnetic energy; and an imager to capture an image of the object using at least a portion of the second beam reflected from the object; wherein the imager shares the aperture defined by the beam director.
A thermal management system for a vehicle, comprising a first pump and a second pump sucking and discharging a liquid heat medium; a temperature adjustment target device (31, 32, 34, 36, 37) having a temperature adjusted by the heat medium; a heat exchanger (26, 33, 35) exchanging heat with the heat medium; numerous flow paths (11 to 16) for circulation of the heat medium, including a first pump arrangement flow path in which the first pump is disposed, a second pump arrangement flow path in which the second pump is disposed, and a plurality of device arrangement flow paths (13, 14, 15, 16), each of which has at least one of the temperature adjustment target device (31, 32, 34, 36, 37) and the heat exchanger (26, 33, 35); and a first switching portion having two inlets (21a, 21b) to which one end sides of the first pump arrangement flow path and the second pump arrangement flow path are connected respectively and a plurality of outlets (21c, 21d, 21e, 21f) to which one ends of the plurality of device arrangement flow paths (13, 14, 15, 16) are connected respectively; a second switching portion having a plurality of inlets (22c, 22d, 22e, 22f) to which other end sides of the plurality of device arrangement flow paths (13, 14, 15, 16) are connected respectively and two outlets (22a, 22b) to which other end sides of the first pump arrangement flow path and the second pump arrangement flow path are connected respectively; and a reserve tank (46, 65) storing the heat medium therein, wherein the first switching portion and the second switching portion are operated such that at least one of the plurality of device arrangement flow paths (13, 14, 15, 16) communicates with the first pump arrangement flow path to form a first heat medium circuit, and that the rest of the plurality of device arrangement flow paths (13, 14, 15, 16) communicates with the second pump arrangement flow path to form a second heat medium circuit, and the reserve tank (46, 65) is configured to set a pressure of a liquid surface of the heat medium stored to a predetermined pressure, and is connected to only one of the numerous flow paths (11 to 16). two inlets (21a, 21b) to which one end sides of the first pump arrangement flow path and the second pump arrangement flow path are connected respectively and a plurality of outlets (21c, 21d, 21e, 21f) to which one ends of the plurality of device arrangement flow paths (13, 14, 15, 16) are connected respectively; a second switching portion having a plurality of inlets (22c, 22d, 22e, 22f) to which other end sides of the plurality of device arrangement flow paths (13, 14, 15, 16) are connected respectively and two outlets (22a, 22b) to which other end sides of the first pump arrangement flow path and the second pump arrangement flow path are connected respectively; and
A switched multiband radio frequency antenna comprising an antenna body defining at least two antenna strands (111, 112), and at least one first switching means disposed between the first and second antenna strands, the first switching means being configured to separate the two antenna strands (111, 112) in a first operating mode and to electrically connect the two antenna strands in a second operating mode, the antenna being configured to radiate and/or receive radio frequency signals at at least a first and a second operating frequency, the ratio of the value of the second operating frequency to the value of the first operating frequency being substantially equal to an integral power of two, wherein - the antenna comprises at least one second switching means, - the first and second switching means (113, 114) are configured to be operated simultaneously and in a like manner, - the second switching means is arranged on the second antenna strand, - the second switching means is configured to separate the second antenna strand into two antenna sub-strands (1121, 1122) in a first operating mode and to electrically connect the two antenna sub-strands in a second operating mode, - the length of the first antenna sub-strand is different from a fraction of an integral power of two of the wavelength associated with the first operating frequency, - the antenna is tuned to the first operating frequency when the first and second switching means (113, 114) are in the first operating mode and - the antenna is tuned to the second operating frequency when the first and second switching means (113, 114) are in the second operating mode. - the antenna comprises at least one second switching means, - the first and second switching means (113, 114) are configured to be operated simultaneously and in a like manner, - the second switching means is arranged on the second antenna strand, - the second switching means is configured to separate the second antenna strand into two antenna sub-strands (1121, 1122) in a first operating mode and to electrically connect the two antenna sub-strands in a second operating mode, - the length of the first antenna sub-strand is different from a fraction of an integral power of two of the wavelength associated with the first operating frequency, - the antenna is tuned to the first operating frequency when the first and second switching means (113, 114) are in the first operating mode and - the antenna is tuned to the second operating frequency when the first and second switching means (113, 114) are in the second operating mode.