mhurhangee/ep-ind-claims huggingface dataset:
A user equipment (102, 202) for a wireless communication system (100, 200), comprising a processor and memory configured to: construct a unified subscription identifier data structure (400, 600); wherein the unified subscription identifier data structure (400, 600) comprises a plurality of fields (402-426, 602-616) that specify a selected one of two or more subscription identifier fields (300, 310, 320) associated with a selected subscription identifier type; and use the selected one of two or more subscription identifier fields(300, 310, 320) in the unified subscription identifier data structure (400, 600) to access one or more networks associated with the wireless communication system (100, 200) based on an authentication scenario corresponding to the selected subscription identifier type. construct a unified subscription identifier data structure (400, 600); wherein the unified subscription identifier data structure (400, 600) comprises a plurality of fields (402-426, 602-616) that specify a selected one of two or more subscription identifier fields (300, 310, 320) associated with a selected subscription identifier type; and use the selected one of two or more subscription identifier fields(300, 310, 320) in the unified subscription identifier data structure (400, 600) to access one or more networks associated with the wireless communication system (100, 200) based on an authentication scenario corresponding to the selected subscription identifier type.
A counter-former for a crossbow bender for bending a pipe, said counter-former being substantially in the shape of a block (4, 40) having opposite first and second faces (12, 13) which are intended to be placed on either side in contact with said pipe, said first face comprising a first transverse groove of substantially semi-cylindrical shape capable of matching a portion of said pipe, characterized in that said second face comprises a second transverse groove having a projecting region suitable for providing at least three points of contact with a curved portion of said pipe of concave shape, said second groove having a first and a second portion (16, 17) of substantially semi-frustoconical shape, which meet at the respective shortest sides thereof at a joining zone and are located relative to each another in such a way that two straight lines (D1, D2) passing respectively through the joining zone and the long side (19, 20) of each of the first and second portions (16, 17) form an angle α therebetween, said long sides (19, 20) extending respectively along each of the lateral edges of said second face.
A composition comprising a variant Banana lectin (BanLec) polypeptide, wherein said variant BanLec polypeptide exhibits antiviral or antimicrobial activity, and wherein said BanLec polypeptide is selected from the group consisting of SEQ ID NOs: 1, 2, 3, and 7, and exhibts reduced mitogenic activity relative to a wild type BanLec polypeptide.
A recording medium comprising a first recording layer and a second recording layer across which a base-view stream file and a dependent-view stream file are recorded, the base-view stream file to be used for monoscopic video playback, the dependent-view stream file to be used for stereoscopic video playback in combination with the base-view stream file, characterized by the first recording layer having a stereoscopic/monoscopic shared area, a stereoscopic specific area, and a monoscopic specific area, the stereoscopic/monoscopic shared area being a contiguous area in which a plurality of extents belonging to the base-view stream file and a plurality of extents belonging to the dependent-view stream file are arranged in an interleaved manner, both of the stereoscopic specific area and the monoscopic specific area being contiguous areas located one after another next to the stereoscopic/monoscopic shared area and immediately before a layer boundary that separates the base-view and dependent-view stream files into a first portion recorded on the first recording layer and a second portion recorded on the second recording layer, so that a playback device executes a long jump, both during the stereoscopic video playback and during the monoscopic video playback, to change data to be read from the end of the first portion to the top of the second portion, the stereoscopic specific area being an area in which extents belonging to the base-view stream file and extents belonging to the dependent-view stream file are arranged in an interleaved manner, the extents recorded on the stereoscopic specific area being next in order after the extents recorded on the stereoscopic/monoscopic shared area, and the monoscopic specific area being an area in which the extents that belong to the base-view stream file are recorded, the extents recorded on the monoscopic specific area being a copy of the entirety of the extents recorded on the stereoscopic specific area.
Telecommunication satellite with geostationary orbit comprising an upper module and a lower module, wherein the satellite comprises a lateral module, disposed in a storage configuration between the upper module and the lower module, and deployed to an operational configuration of the satellite in the orbit by a rotation in relation to an axis Z oriented towards the earth in the operational configuration, and a set of at least one mission or service facility fixed to the lateral module, said set of at least one mission or service facility comprising a telecommunication device and/or a set of solar generators and/or a device in communication with the upper module or the lower module of the satellite, the lateral module comprising two substantially plane and mutually parallel main surfaces (55f, 55j), termed dissipative surfaces, able to dissipate by radiation a quantity of heat generated by facilities of the satellite; said dissipative surfaces (55f, 55j) being, in the operational configuration, held in a manner substantially parallel to the plane of the orbit, making it possible to limit the solar flux received by the dissipative surfaces (55f, 55j) and to optimize the quantity of heat dissipated by the lateral module.
A process for producing a propylene-based polymer in a fluidized-bed reactor, the propylene-based polymer having a seal initiation temperature of 75°C to 110°C, wherein the SIT is the temperature at which the seal strength determined from a graph of seal strength against sealing temperature under conditions of specimen width of 25.4 mm (1 inch), sealing pressure of 40 psi (0.27 N/mm 2), sealing dwell time of 0.5 seconds, delay time of 24 hours conditioning at recommended ASTM F88 conditions and peel speed of 10 seconds is 0.175 N/mm (1 pound force/inch), wherein: the fluidized-bed reactor comprises polymer product particles and a catalyst, and the process is conducted under copolymerization conditions comprising a reactor temperature that is 20°C to 40°C less than the SIT of the propylene-based polymer and a propylene partial pressure in a range of 80% to 120% of the maximum partial pressure, PP C 3_ max, as determined by the following equation: PP C 3 _ max = 625 − 43.7 E t − 20.0 B t − 2.2 T where E t, the ethylene content in the propylene-based polymer, is in a range of 0 to 2.5 wt%, B t, the butene content in the propylene-based polymer, is in a range of 8 to 20 wt%, and where (2*Et + B t) is less than or equal to 21 wt%, and T is the reactor temperature with a unit of °C, and the partial pressure is with a unit of psi (1 psi = 6.89476 kPa), in which the catalyst comprises a catalyst/donor system comprising a Ziegler-Natta pro-catalyst composition, a co-catalyst, and a mixed external electron donor (M-EED) system comprising (a) an activity limiting agent comprising a C 4 -C 30 aliphatic acid ester, and (b) a selectivity control agent comprising an alkoxysilane. the fluidized-bed reactor comprises polymer product particles and a catalyst, and the process is conducted under copolymerization conditions comprising a reactor temperature that is 20°C to 40°C less than the SIT of the propylene-based polymer and a propylene partial pressure in a range of 80% to 120% of the maximum partial pressure, PP C 3_ max, as determined by the following equation: PP C 3 _ max = 625 − 43.7 E t − 20.0 B t − 2.2 T where E t, the ethylene content in the propylene-based polymer, is in a range of 0 to 2.5 wt%, B t, the butene content in the propylene-based polymer, is in a range of 8 to 20 wt%, and where (2*Et + B t) is less than or equal to 21 wt%, and T is the reactor temperature with a unit of °C, and the partial pressure is with a unit of psi (1 psi = 6.89476 kPa), in which the catalyst comprises a catalyst/donor system comprising a Ziegler-Natta pro-catalyst composition, a co-catalyst, and a mixed external electron donor (M-EED) system comprising (a) an activity limiting agent comprising a C 4 -C 30 aliphatic acid ester, and (b) a selectivity control agent comprising an alkoxysilane.
Charged particle beam equipment comprising: a charged particle beam source; a charged particle optical system (2, 4) adapted to illuminate a charged particle beam generated from the charged particle beam source on a specimen; a diffraction pattern detector adapted to detect the intensity of a diffraction pattern generated from the specimen; a computer adapted to reconstruct an object image from the intensity of the diffraction pattern; and an illumination adjustment system adapted to determine the size of an illumination area of the charged particle beam illuminated on the specimen on the basis of the size of the object image reconstructed by the computer. a charged particle beam source; a charged particle optical system (2, 4) adapted to illuminate a charged particle beam generated from the charged particle beam source on a specimen; a diffraction pattern detector adapted to detect the intensity of a diffraction pattern generated from the specimen; a computer adapted to reconstruct an object image from the intensity of the diffraction pattern; and an illumination adjustment system adapted to determine the size of an illumination area of the charged particle beam illuminated on the specimen on the basis of the size of the object image reconstructed by the computer.
A compound of formula: wherein R 1 -R 3 each independently are each H or a monovalent substituent; at least one of R 1 and R 3 is -Y-R 6; and R 2 is -X-A or -Y-R 6; and any two of R 1 -R 5 optionally bind to each other to form a ring; X each independently is a divalent linking group or a direct bond; A each independently is -COOM, -SO 3 M, or -OSO 3 M, wherein M is H; a metal atom; NR 7 4 wherein R 7 is H or an organic group; or imidazolium, pyridinium or phosphonium, each optionally substituted; Y each independently is a divalent linking group selected from -COO-, -OCO-, -CONR 8 -, and -NR 8 CO-, or a direct bond, wherein R 8 is H or an organic group; R 6 each independently is -R 10 -CO-R 11, -R 10 -COO-R 11, -R 11, or -R 10 -NR 8 CO-R 11, wherein R 8 is H or an organic group; R 10 is an alkylene group; and R 11 is an alkyl group optionally containing a substituent; -Y-R 6 each independently is -R 10 -CO-R 11, -OCO-R 10 -CO-R 11, -COO-R 10 -CO-R 11, -OCO-R 10 -COO-R 11, -COO-R 11, -NR 8 CO-R 10 -CO-R 11, or -CONR 8 -R 10 -NR 8 CO-R 11, wherein R 8, R 10, and R 11 are defined as mentioned above; R 4 and R 5 are each H or C 1-4 -alkyl; and with R 6 containing none of a carbonyl, ester and amide group, X is a divalent linking group containing at least one of a carbonyl, ester, amide and sulfonyl group. R 1 -R 3 each independently are each H or a monovalent substituent; at least one of R 1 and R 3 is -Y-R 6; and R 2 is -X-A or -Y-R 6; and any two of R 1 -R 5 optionally bind to each other to form a ring; X each independently is a divalent linking group or a direct bond; A each independently is -COOM, -SO 3 M, or -OSO 3 M, wherein M is H; a metal atom; NR 7 4 wherein R 7 is H or an organic group; or imidazolium, pyridinium or phosphonium, each optionally substituted; Y each independently is a divalent linking group selected from -COO-, -OCO-, -CONR 8 -, and -NR 8 CO-, or a direct bond, wherein R 8 is H or an organic group; R 6 each independently is -R 10 -CO-R 11, -R 10 -COO-R 11, -R 11, or -R 10 -NR 8 CO-R 11, wherein R 8 is H or an organic group; R 10 is an alkylene group; and R 11 is an alkyl group optionally containing a substituent; -Y-R 6 each independently is -R 10 -CO-R 11, -OCO-R 10 -CO-R 11, -COO-R 10 -CO-R 11, -OCO-R 10 -COO-R 11, -COO-R 11, -NR 8 CO-R 10 -CO-R 11, or -CONR 8 -R 10 -NR 8 CO-R 11, wherein R 8, R 10, and R 11 are defined as mentioned above; -R 10 -CO-R 11, -OCO-R 10 -CO-R 11, -COO-R 10 -CO-R 11, -OCO-R 10 -COO-R 11, -COO-R 11, -NR 8 CO-R 10 -CO-R 11, or -CONR 8 -R 10 -NR 8 CO-R 11, wherein R 8, R 10, and R 11 are defined as mentioned above; R 4 and R 5 are each H or C 1-4 -alkyl; and
A straddled vehicle comprising: a rear wheel (Rw); a body frame; a seat on which a rider sits; a storage box arranged under the seat and closed and opened by the seat; a swing unit including an engine and a transmission mechanism at least partially arranged further to the left than the rear wheel (Rw) and arranged to transmit power of the engine to the rear wheel (Rw), the swing unit vertically swingable with respect to the body frame and supporting the rear wheel (Rw); a rear arm including a front portion fixed to the engine and a rear portion supporting the rear wheel (Rw) together with the transmission mechanism, the rear arm being arranged further to the right than the rear wheel (Rw) and vertically swingable together with the rear wheel (Rw) and the swing unit with respect to the body frame; and an only one rear suspension arranged further to the right than the rear wheel (Rw) and attached to the body frame and the rear arm, wherein a rear end of the only one rear suspension is arranged further to the front than a rotation center of the rear wheel (Rw), the rear arm includes at least one fixed portion (95L, 95u) fixed to the engine, and a suspension attached portion to which the only one rear suspension is attached, and at least a portion of the suspension attached portion is arranged further outward than the at least one fixed portion (95L, 95u) in the vehicle width direction. a rear wheel (Rw); a body frame; a seat on which a rider sits; a storage box arranged under the seat and closed and opened by the seat; a swing unit including an engine and a transmission mechanism at least partially arranged further to the left than the rear wheel (Rw) and arranged to transmit power of the engine to the rear wheel (Rw), the swing unit vertically swingable with respect to the body frame and supporting the rear wheel (Rw); a rear arm including a front portion fixed to the engine and a rear portion supporting the rear wheel (Rw) together with the transmission mechanism, the rear arm being arranged further to the right than the rear wheel (Rw) and vertically swingable together with the rear wheel (Rw) and the swing unit with respect to the body frame; and an only one rear suspension arranged further to the right than the rear wheel (Rw) and attached to the body frame and the rear arm, wherein a rear end of the only one rear suspension is arranged further to the front than a rotation center of the rear wheel (Rw), the rear arm includes at least one fixed portion (95L, 95u) fixed to the engine, and a suspension attached portion to which the only one rear suspension is attached, and at least a portion of the suspension attached portion is arranged further outward than the at least one fixed portion (95L, 95u) in the vehicle width direction.
Catalyst comprising a carrier substrate of the length L extending between substrate ends a and b and three washcoat zones A, B and C wherein washcoat zone A comprises first platinum group metals and extends starting from substrate end a over a part of the length L, washcoat zone C comprises first platinum group metals and extends starting from substrate end b over a part of the length L, and washcoat zone B comprises the same components as washcoat zone A and in addition second platinum group metals and extends between washcoat zones A and C, wherein L = L A + L B + L C, wherein L A is the length of washcoat zone A, L B is the length of washcoat zone B and Lc is the length of washcoat zone C, and wherein the first platinum group metal is palladium and rhodium and the second platinum group metal is palladium. washcoat zone A comprises first platinum group metals and extends starting from substrate end a over a part of the length L, washcoat zone C comprises first platinum group metals and extends starting from substrate end b over a part of the length L, and washcoat zone B comprises the same components as washcoat zone A and in addition second platinum group metals and extends between washcoat zones A and C, wherein L = L A + L B + L C, wherein L A is the length of washcoat zone A, L B is the length of washcoat zone B and Lc is the length of washcoat zone C, and wherein the first platinum group metal is palladium and rhodium and the second platinum group metal is palladium.
A multilayered composite comprising porous metal oxide particles that are covalently bonded, by way of inorganic ether groups to one or more sites of a first polyhydroxyl-functionalized polymer, which is covalently bonded by way of inorganic ether groups to one or more sites of a second polyhydroxyl-functionalized polymer, wherein said inorganic ether groups are of the type O-M-O, where M is Si, Ti, Al, or B.
A device (100, 2600), comprising: a controllable surface (104, 106, 108, 2606) defining a keypad (2604, 2610), the device being characterized by: a proximity sensor (202, 2602) that is operative to sense a proximity of a pointing element to a particular key (2902, 2908) of the keypad (2604, 2610) based on a presence of the pointing element proximate to the particular key (2902, 2908); and control logic, operatively coupled to the proximity sensor (202, 2602) and the controllable surface (104, 106, 108, 2606), that is operative to adjust a height of the particular key (2902, 2908) with respect to another key (2904, 2910, 2906, 2912), of the keypad in response to the proximity sensor (202, 2602) sensing the proximity of the pointing element to the particular key (2902, 2908) to aid a user in selecting the particular key (2902, 2908). a proximity sensor (202, 2602) that is operative to sense a proximity of a pointing element to a particular key (2902, 2908) of the keypad (2604, 2610) based on a presence of the pointing element proximate to the particular key (2902, 2908); and control logic, operatively coupled to the proximity sensor (202, 2602) and the controllable surface (104, 106, 108, 2606), that is operative to adjust a height of the particular key (2902, 2908) with respect to another key (2904, 2910, 2906, 2912), of the keypad in response to the proximity sensor (202, 2602) sensing the proximity of the pointing element to the particular key (2902, 2908) to aid a user in selecting the particular key (2902, 2908).
Method for generating a status signal on the basis of at least one sensor signal (SS, SS1, SS2) of at least one sensor (10, 11, 12, 12'), wherein - with a first trainable system, which has been trained to recognise a predefined property, it is checked whether the sensor signal (SS, SS1, SS2) of the at least one sensor (10, 11, 12, 12') indicates the predefined property, and in the event that the property is recognised, a first auxiliary signal that confirms the property is generated, - with at least one second trainable system, which has been trained to recognise the absence of the predefined property, it is checked whether the sensor signal (SS, SS1, SS2) of the at least one sensor (10, 11, 12, 12') or the sensor signal (SS, SS1, SS2) of at least one further sensor (10, 11, 12, 12'), which is suitable to indicate the same property, does not indicate the predefined property, and in the event that the absence of the property is ascertained, a second auxiliary signal that confirms the absence of the property is generated, and - with at least one evaluation facility a status signal that indicates the presence of the property is generated if the first auxiliary signal confirms the presence of the property and the second auxiliary signal does not confirm the absence of the property, and a status signal that indicates the absence of the property is generated if the first auxiliary signal does not confirm the presence of the property and the second auxiliary signal confirms the absence of the property. - with a first trainable system, which has been trained to recognise a predefined property, it is checked whether the sensor signal (SS, SS1, SS2) of the at least one sensor (10, 11, 12, 12') indicates the predefined property, and in the event that the property is recognised, a first auxiliary signal that confirms the property is generated, - with at least one second trainable system, which has been trained to recognise the absence of the predefined property, it is checked whether the sensor signal (SS, SS1, SS2) of the at least one sensor (10, 11, 12, 12') or the sensor signal (SS, SS1, SS2) of at least one further sensor (10, 11, 12, 12'), which is suitable to indicate the same property, does not indicate the predefined property, and in the event that the absence of the property is ascertained, a second auxiliary signal that confirms the absence of the property is generated, and - with at least one evaluation facility a status signal that indicates the presence of the property is generated if the first auxiliary signal confirms the presence of the property and the second auxiliary signal does not confirm the absence of the property, and a status signal that indicates the absence of the property is generated if the first auxiliary signal does not confirm the presence of the property and the second auxiliary signal confirms the absence of the property.