mhurhangee/ep-ind-claims huggingface dataset:
A video decoding apparatus comprising: a parsing module configured to parse a network abstraction layer unit header of an NAL unit; a decoding module configured to decode a first picture; characterized in comprising a decoded picture buffer configured to store the decoded first picture marked as a reference picture, wherein the parsing module is further configured to parse a slice header of a second picture which is the next picture of the first picture in a decoding order, wherein the decoding module is further configured to re-mark the first picture as a reference picture or a non-reference picture based on reference picture information comprised in a slice header of the second picture, wherein the NAL unit header corresponding to the NAL unit comprising encoded data of the first picture does not comprise information indicating whether the first picture is a reference picture or a non-reference picture in the NAL unit. a parsing module configured to parse a network abstraction layer unit header of an NAL unit; a decoding module configured to decode a first picture; characterized in comprising a decoded picture buffer configured to store the decoded first picture marked as a reference picture, wherein the parsing module is further configured to parse a slice header of a second picture which is the next picture of the first picture in a decoding order, wherein the decoding module is further configured to re-mark the first picture as a reference picture or a non-reference picture based on reference picture information comprised in a slice header of the second picture, wherein the NAL unit header corresponding to the NAL unit comprising encoded data of the first picture does not comprise information indicating whether the first picture is a reference picture or a non-reference picture in the NAL unit.
An information processing apparatus for outputting a predetermined sound selectively from a plurality of sound output apparatuses and vibrating a predetermined vibration apparatus, the vibration apparatus being different from the sound output apparatuses, the information processing apparatus comprising: selection means (31, S45) for selecting from the plurality of sound output apparatuses a sound output apparatus to output the sound; sound input section for receiving sound input of the surrounding of the information processing apparatus; and vibration control means (31, S45-S48) for performing vibration control for vibrating the vibration apparatus, wherein the vibration control means performs different types of vibration control in accordance with the sound input of the surrounding of the information processing apparatus received by the sound input section. selection means (31, S45) for selecting from the plurality of sound output apparatuses a sound output apparatus to output the sound; sound input section for receiving sound input of the surrounding of the information processing apparatus; and vibration control means (31, S45-S48) for performing vibration control for vibrating the vibration apparatus, wherein the vibration control means performs different types of vibration control in accordance with the sound input of the surrounding of the information processing apparatus received by the sound input section.
A method of metathesizing a feedstock comprising: providing a feedstock comprising a natural oil; removing oxygen from the feedstock; heating the feedstock from which the oxygen has been removed to a temperature greater than 100°C in the absence of oxygen; holding said feedstock at the temperature for a time sufficient to diminish catalyst poisons in the feedstock; cooling the heated feedstock below 40°C before it is exposed to oxygen; combining an adsorbent material to the cooled feedstock to diminish catalyst poisons in the feedstock; and combining a metathesis catalyst with the feedstock under conditions sufficient to metathesize the feedstock. providing a feedstock comprising a natural oil; removing oxygen from the feedstock; heating the feedstock from which the oxygen has been removed to a temperature greater than 100°C in the absence of oxygen; holding said feedstock at the temperature for a time sufficient to diminish catalyst poisons in the feedstock; cooling the heated feedstock below 40°C before it is exposed to oxygen; combining an adsorbent material to the cooled feedstock to diminish catalyst poisons in the feedstock; and combining a metathesis catalyst with the feedstock under conditions sufficient to metathesize the feedstock.
A ballistic material, comprising: a first woven para-aramid ballistic fabric having a fiber denier in a range of 50 d to 5000 d; and a hydroentangled nonwoven fiber component consisting essentially of ballistic grade para-aramid fibers having a denier in a range of about 0.5 to about 2.5 d and a density of about 10 g/m 2 to about 200 g/m 2; wherein the hydroentangled nonwoven fiber component is needlepunched with the woven ballistic fabric to form the ballistic material; wherein the hydroentangled nonwoven fiber component constitutes 0.1 to 10% by weight of the ballistic material; and wherein the ballistic material has a finished areal weight in a range of 0.48824 kg/m 2 to about 9.7648 kg/m 2 (0.1 to about 2.0 pounds per square foot) and a V50 in a range of about 228.6 to about 914.4 meters per second (about 750 to about 3000 feet per second). a first woven para-aramid ballistic fabric having a fiber denier in a range of 50 d to 5000 d; and a hydroentangled nonwoven fiber component consisting essentially of ballistic grade para-aramid fibers having a denier in a range of about 0.5 to about 2.5 d and a density of about 10 g/m 2 to about 200 g/m 2; wherein the hydroentangled nonwoven fiber component is needlepunched with the woven ballistic fabric to form the ballistic material; wherein the hydroentangled nonwoven fiber component constitutes 0.1 to 10% by weight of the ballistic material; and wherein the ballistic material has a finished areal weight in a range of 0.48824 kg/m 2 to about 9.7648 kg/m 2 (0.1 to about 2.0 pounds per square foot) and a V50 in a range of about 228.6 to about 914.4 meters per second (about 750 to about 3000 feet per second).
Contactless connector for transmitting high-frequency signals comprising at least a pair of capacitive coupling surfaces (10, 12) for differential transmission of a non-inverted signal as well as an inverted signal, characterized in that the connector is hermaphroditic, the coupling surfaces are designed as circular surface segments, and the two coupling surfaces of the at least one pair are arranged axial-symmetrically. the connector is hermaphroditic, the coupling surfaces are designed as circular surface segments, and the two coupling surfaces of the at least one pair are arranged axial-symmetrically.
A method for manufacturing a sealed retaining device for a foaming operation, in particular an operation of foaming a seat, which method comprises the steps according to which: a) a ribbon spool is provided, the ribbon having an upper face extending along a longitudinal direction (X-X), said upper face being provided with retaining elements and having at least two primary cords of material at least partially disjointed and each extending at least partially along the longitudinal direction (X-X), so that retaining elements are positioned between two primary cords, b) a portion of the ribbon is unwound along the longitudinal direction, c) foam sealing means are formed at least partially along a transverse direction (Y-Y) on the upper face of the ribbon, such as to form with two primary cords of material a foam sealing barrier and to delimit an area of the upper face of the ribbon comprising retaining elements. a) a ribbon spool is provided, the ribbon having an upper face extending along a longitudinal direction (X-X), said upper face being provided with retaining elements and having at least two primary cords of material at least partially disjointed and each extending at least partially along the longitudinal direction (X-X), so that retaining elements are positioned between two primary cords, b) a portion of the ribbon is unwound along the longitudinal direction, c) foam sealing means are formed at least partially along a transverse direction (Y-Y) on the upper face of the ribbon, such as to form with two primary cords of material a foam sealing barrier and to delimit an area of the upper face of the ribbon comprising retaining elements.
A fenestration kit for making a fenestrated placental tissue allograft, said kit comprising: a cutting die comprising a substantially flat die surface having predetermined dimensions and having a first side and a second side, said first side having a plurality of prearranged cutting punches thereon, wherein the cutting die is made of a first material; a cutting bed having substantially the same dimensions as the cutting die, wherein the cutting bed is made of a second material; a placental tissue allograft for placement on the cutting bed; and a bag, said bag comprising a sealable opening and having at least the dimensions of said cutting die and said cutting bed; wherein the first material is harder than the second material. a cutting die comprising a substantially flat die surface having predetermined dimensions and having a first side and a second side, said first side having a plurality of prearranged cutting punches thereon, wherein the cutting die is made of a first material; a cutting bed having substantially the same dimensions as the cutting die, wherein the cutting bed is made of a second material; a placental tissue allograft for placement on the cutting bed; and a bag, said bag comprising a sealable opening and having at least the dimensions of said cutting die and said cutting bed; wherein the first material is harder than the second material.
A female connector comprising: a body comprising an internal cavity having a port and an internal surface; and a collapsible valve disposed within the internal cavity, the valve comprising: a head comprising an external surface, wherein the head is in sealing contact with the internal surface of the internal cavity at a first location separated from the port so as to create a primary seal and at a second location proximate to the port so as to form a secondary seal when the female connector is not mated with a compatible male connector; a neck having a distal end and a proximal end, the distal end of the neck coupled to the head proximally of the primary seal, the neck comprising an outer surface having a concave cut-away between the distal end and the proximal end; and a base portion having a distal end and a proximal end, and an internal volume extending from the proximal end toward the distal end, the base portion coupled to the proximal end of the neck. a body comprising an internal cavity having a port and an internal surface; and a collapsible valve disposed within the internal cavity, the valve comprising: a head comprising an external surface, wherein the head is in sealing contact with the internal surface of the internal cavity at a first location separated from the port so as to create a primary seal and at a second location proximate to the port so as to form a secondary seal when the female connector is not mated with a compatible male connector; a neck having a distal end and a proximal end, the distal end of the neck coupled to the head proximally of the primary seal, the neck comprising an outer surface having a concave cut-away between the distal end and the proximal end; and a base portion having a distal end and a proximal end, and an internal volume extending from the proximal end toward the distal end, the base portion coupled to the proximal end of the neck. a head comprising an external surface, wherein the head is in sealing contact with the internal surface of the internal cavity at a first location separated from the port so as to create a primary seal and at a second location proximate to the port so as to form a secondary seal when the female connector is not mated with a compatible male connector; a neck having a distal end and a proximal end, the distal end of the neck coupled to the head proximally of the primary seal, the neck comprising an outer surface having a concave cut-away between the distal end and the proximal end; and a base portion having a distal end and a proximal end, and an internal volume extending from the proximal end toward the distal end, the base portion coupled to the proximal end of the neck.
A method for balancing load over a set of content servers from a domain name system, DNS, server, comprising: Receiving, at a DNS server, a request for a network address of a content server associated with a domain name; responding to the request with a network address selected from a plurality of anycast network addresses associated with the domain name; characterized in that it further comprises: receiving, at the DNS server, load information from at least one of a plurality of content servers associated with the domain name; and instructing, by the DNS server based on the received load information, one or more over-loaded content servers of the plurality of content servers to cease advertising one or more of the plurality of anycast network addresses. Receiving, at a DNS server, a request for a network address of a content server associated with a domain name; responding to the request with a network address selected from a plurality of anycast network addresses associated with the domain name; characterized in that it further comprises: receiving, at the DNS server, load information from at least one of a plurality of content servers associated with the domain name; and instructing, by the DNS server based on the received load information, one or more over-loaded content servers of the plurality of content servers to cease advertising one or more of the plurality of anycast network addresses. receiving, at the DNS server, load information from at least one of a plurality of content servers associated with the domain name; and instructing, by the DNS server based on the received load information, one or more over-loaded content servers of the plurality of content servers to cease advertising one or more of the plurality of anycast network addresses.
High-pressure compressor (2.2) for an engine, comprising a first, second, third and fourth quasi-stage, each having a stator (21.1-24.1) and a downstream rotor (21.2-24.2), wherein a blade solidity (d) in the central section - in the first quasi-stage is at least 1.04 and at most 1.18 for the stator (21.1) and is at least 1.46 and at most 1.67 for the rotor (21.2); - in the second quasi-stage is at least 1.13 and at most 1.32 for the stator (22.1) and is at least 1.32 and at most 1.61 for the rotor (22.2); - in the third quasi-stage is at least 1.20 and at most 1.39 for the stator (23.1) and is at least 1.16 and at most 1.41 for the rotor (23.2); - in the fourth quasi-stage is at least 1.37 and at most 1.63 for the stator (24.1) and is at least 1.15 and at most 1.41 for the rotor (24.2). - in the first quasi-stage is at least 1.04 and at most 1.18 for the stator (21.1) and is at least 1.46 and at most 1.67 for the rotor (21.2); is at least 1.04 and at most 1.18 for the stator (21.1) and is at least 1.46 and at most 1.67 for the rotor (21.2); - in the second quasi-stage is at least 1.13 and at most 1.32 for the stator (22.1) and is at least 1.32 and at most 1.61 for the rotor (22.2); is at least 1.13 and at most 1.32 for the stator (22.1) and is at least 1.32 and at most 1.61 for the rotor (22.2); - in the third quasi-stage is at least 1.20 and at most 1.39 for the stator (23.1) and is at least 1.16 and at most 1.41 for the rotor (23.2); is at least 1.20 and at most 1.39 for the stator (23.1) and is at least 1.16 and at most 1.41 for the rotor (23.2); - in the fourth quasi-stage is at least 1.37 and at most 1.63 for the stator (24.1) and is at least 1.15 and at most 1.41 for the rotor (24.2). is at least 1.37 and at most 1.63 for the stator (24.1) and is at least 1.15 and at most 1.41 for the rotor (24.2).
Method for carrying out a transaction between a secure processor (CI, SE1) and a transaction server (TSRV) via a non-secure processor or a non-secure link of the near-field type, which secure processor and transaction server are connected to a routing controller (NFCC, NFCC1, NFCC2), the method comprising the steps of: the routing controller transmitting a control message, emitted by the non-secure processor or by the non-secure link, to the secure processor, the routing controller receiving a response message emitted by the secure processor, and the routing controller transmitting the response message to the non-secure processor or via the non-secure link, characterized in that said method comprises the steps of: the routing controller (NFCC, NFCC1, NFCC2) analyzing the content of the response message in order to detect therein data of a first type, and, if data of the first type are detected, generating a modified message (REP') by deleting or encrypting, in the response message, at least a portion of the detected data, the modified message being transmitted by the routing controller in place of the response message. the routing controller transmitting a control message, emitted by the non-secure processor or by the non-secure link, to the secure processor, the routing controller receiving a response message emitted by the secure processor, and the routing controller transmitting the response message to the non-secure processor or via the non-secure link, the routing controller (NFCC, NFCC1, NFCC2) analyzing the content of the response message in order to detect therein data of a first type, and, if data of the first type are detected, generating a modified message (REP') by deleting or encrypting, in the response message, at least a portion of the detected data, the modified message being transmitted by the routing controller in place of the response message.
Process for producing biomethane by scrubbing a biogas feed stream, comprising the following steps: Step a): introducing the feed gas stream into a pretreatment unit in which said gas stream is partially separated from the CO 2 and the oxygen it contains and is compressed to a pressure P1 above 25 bar abs; Step b): subjecting the CO 2 -depleted gas stream obtained from step a) to cryogenic separation in a distillation column to separate the nitrogen from said gas stream, said distillation column comprising n plates, n being an integer between 8 and 100; Step c): recovering a CH 4 -enriched stream obtained from the cryogenic separation by pumping the product in the vessel of said column at a pressure P2 above 25 bar absolute and preferably above the critical pressure of said product, characterized in that the CO 2 -depleted gas stream obtained from step a) and used in step b) has an oxygen concentration equal to C1 and in that: - when C1 is strictly greater than 1 mol%, the process is stopped; and - when C1 is strictly greater than 0.1 mol%, the CO 2 -depleted gas stream obtained from step a) and used in step b) is introduced into the distillation column at a level between plate n-4 and plate n, plate n being the plate that is positioned the highest in said column. Step a): introducing the feed gas stream into a pretreatment unit in which said gas stream is partially separated from the CO 2 and the oxygen it contains and is compressed to a pressure P1 above 25 bar abs; Step b): subjecting the CO 2 -depleted gas stream obtained from step a) to cryogenic separation in a distillation column to separate the nitrogen from said gas stream, said distillation column comprising n plates, n being an integer between 8 and 100; Step c): recovering a CH 4 -enriched stream obtained from the cryogenic separation by pumping the product in the vessel of said column at a pressure P2 above 25 bar absolute and preferably above the critical pressure of said product, characterized in that the CO 2 -depleted gas stream obtained from step a) and used in step b) has an oxygen concentration equal to C1 and in that: - when C1 is strictly greater than 1 mol%, the process is stopped; and - when C1 is strictly greater than 0.1 mol%, the CO 2 -depleted gas stream obtained from step a) and used in step b) is introduced into the distillation column at a level between plate n-4 and plate n, plate n being the plate that is positioned the highest in said column. - when C1 is strictly greater than 1 mol%, the process is stopped; and - when C1 is strictly greater than 0.1 mol%, the CO 2 -depleted gas stream obtained from step a) and used in step b) is introduced into the distillation column at a level between plate n-4 and plate n, plate n being the plate that is positioned the highest in said column.
An apparatus for applying RF energy from a source of electromagnetic energy to an object (50, 66, 68, 830) in a cavity (20, 1800) via at least one radiating element (18, 840), the apparatus comprising: a processor configured to: acquire a characteristic σ of energy absorption associated with a region in the cavity; acquire a desired amount of energy W to be absorbed in the region, calculate a weight T i for each of a plurality of electromagnetic field patterns, each electromagnetic field pattern having an intensity I i, such that in the said region W = σΣ T i I i; and cause the source to excite each of the plurality of electromagnetic field patterns in the cavity in accordance with the calculated weights, wherein the plurality of field patterns are excited according to a time duration in accordance with the weights, a power level in accordance with the weights, or a combination thereof. a processor configured to: acquire a characteristic σ of energy absorption associated with a region in the cavity; acquire a desired amount of energy W to be absorbed in the region, calculate a weight T i for each of a plurality of electromagnetic field patterns, each electromagnetic field pattern having an intensity I i, such that in the said region W = σΣ T i I i; and cause the source to excite each of the plurality of electromagnetic field patterns in the cavity in accordance with the calculated weights, wherein the plurality of field patterns are excited according to a time duration in accordance with the weights, a power level in accordance with the weights, or a combination thereof. acquire a characteristic σ of energy absorption associated with a region in the cavity; acquire a desired amount of energy W to be absorbed in the region, calculate a weight T i for each of a plurality of electromagnetic field patterns, each electromagnetic field pattern having an intensity I i, such that in the said region W = σΣ T i I i; and cause the source to excite each of the plurality of electromagnetic field patterns in the cavity in accordance with the calculated weights, wherein the plurality of field patterns are excited according to a time duration in accordance with the weights, a power level in accordance with the weights, or a combination thereof.
Method for mounting and removing seats in an airplane by means of a transport device running on wheels, characterized in that for removing the seats the transport device is moved into the space between two rows of seats arranged one behind the other and is engaged with the bottom plate of a row of seats, the seat backrests being reclined as far as possible and the bottom plate being lifted with one or more seats mounted thereon and tilted into a position which is inclined with regard to a horizontal line, whereupon the transport device is moved out of the row of seats and through the corridor between the rows of seats together with the seats supported on said bottom plate, while for mounting the seats the above steps are executed substantially in reverse order.