mhurhangee/ep-ind-claims huggingface dataset:
A multilayer material for packaging a formulation containing probiotic microorganisms comprising: - an extruded material 2-3-4 having a structure [polypropylene - first layer 2/EVOH - second intermediate layer 3/polypropylene - third layer 4], said extruded material having a first outer face and a second outer face, - a first metallized material 5 selected among polyethylene terephthalate PET and polyvinyl chloride PVC, said first metallized material 5 having a first outer face and a second metallized outer face, - a second metallized material 6 selected among polyethylene terephthalate PET and polyvinyl chloride PVC, said second metallized material 6 having a first metallized outer face and a second outer face, - said extruded material 2-3-4, through its second outer face, is coupled with a first outer face of said first metallized material 5, and - said first metallized material 5, through its second metallized outer face, is coupled with a first metallized outer face of said second metallized material 6. - an extruded material 2-3-4 having a structure [polypropylene - first layer 2/EVOH - second intermediate layer 3/polypropylene - third layer 4], said extruded material having a first outer face and a second outer face, - a first metallized material 5 selected among polyethylene terephthalate PET and polyvinyl chloride PVC, said first metallized material 5 having a first outer face and a second metallized outer face, - a second metallized material 6 selected among polyethylene terephthalate PET and polyvinyl chloride PVC, said second metallized material 6 having a first metallized outer face and a second outer face, - said extruded material 2-3-4, through its second outer face, is coupled with a first outer face of said first metallized material 5, and - said first metallized material 5, through its second metallized outer face, is coupled with a first metallized outer face of said second metallized material 6.
A threaded fitting, comprising: a first plurality of threads configured to provide a labyrinth type seal minimizing migration of at least hazardous dust or gases; a second plurality of threads configured to provide a labyrinth type seal for attenuating vibration while minimizing migration of at least fluids; and a transition thread between the first plurality of threads and the second plurality of threads, wherein the first and second plurality of threads are serially-arranged and may be used for either thin or thick-walled enclosures to retard a passage of at least one of gas, fluid, dust or flame, wherein each thread of the first plurality of threads has a root diameter which tapers from the transition thread to a reference plane zero, and a crest diameter which forms a straight angle or is parallel to an elongate axis of the thread fitting, wherein the second plurality of threads has a root diameter which is straight or parallel to the elongate axis of the threaded fitting. a first plurality of threads configured to provide a labyrinth type seal minimizing migration of at least hazardous dust or gases; a second plurality of threads configured to provide a labyrinth type seal for attenuating vibration while minimizing migration of at least fluids; and a transition thread between the first plurality of threads and the second plurality of threads, wherein the first and second plurality of threads are serially-arranged and may be used for either thin or thick-walled enclosures to retard a passage of at least one of gas, fluid, dust or flame, wherein each thread of the first plurality of threads has a root diameter which tapers from the transition thread to a reference plane zero, and a crest diameter which forms a straight angle or is parallel to an elongate axis of the thread fitting, wherein the second plurality of threads has a root diameter which is straight or parallel to the elongate axis of the threaded fitting.
A method for vector quantising audio parameters extracted from a segment of audio signal, comprising: searching for a best match vector for an input vector of audio parameters extracted from the segment of audio signal using ordered codevectors in a codebook C, wherein the codevectors are ordered based on a single component k of the codevector, wherein the searching comprises: performing a binary search only considering single component k of the input vector to find a first codevector C j with index j having a value larger than X k for vector component k of the input vector; and performing a modified partial distortion search considering full codevectors starting from the index j. searching for a best match vector for an input vector of audio parameters extracted from the segment of audio signal using ordered codevectors in a codebook C, wherein the codevectors are ordered based on a single component k of the codevector, wherein the searching comprises: performing a binary search only considering single component k of the input vector to find a first codevector C j with index j having a value larger than X k for vector component k of the input vector; and performing a modified partial distortion search considering full codevectors starting from the index j. performing a binary search only considering single component k of the input vector to find a first codevector C j with index j having a value larger than X k for vector component k of the input vector; and performing a modified partial distortion search considering full codevectors starting from the index j.
Seat-back frame (1, 1') for a vehicle seat, which has a frame region (2, 2') extending transversely and two frame regions (3, 3', 4, 4') extending vertically and is of a U-shaped design, wherein a first half-shell (5, 5') made of a metal is provided, which in each case forms a partial region of the vertically extending frame regions (3, 3', 4, 4') of the seat-back frame (1, 1') and in each case forms a partial region of the transversely extending frame region (2, 2') of the seat-back frame (1, 1'), characterised in that a second half-shell sheet (6, 6') is provided, which is firmly bonded to the first half-shell sheet (5, 5') in a butt joint and which reinforces at least the transversely extending frame region (2, 2') of the seat-back frame (1, 1'), wherein the second half-shell sheet is of a U-shaped design and additionally at least partially reinforces both vertically extending frame regions (3, 4) of the seat-back frame.
An atomizer, comprising: a reservoir, the reservoir being configured for storing tobacco liquid; an atomizing assembly, the atomizing assembly being disposed inside the reservoir, at an end of the reservoir defining the lower end, and configured to absorb tobacco liquid for atomization; and a blocking component, the blocking component being disposed in the reservoir, and configured for blocking tobacco liquid in the reservoir when tobacco liquid flows from the lower end of the reservoir toward an end of the reservoir defining the upper end, such that tobacco liquid is kept around the atomizing assembly; wherein the atomizer further comprises a gas tube and a mouthpiece; the mouthpiece is disposed at the upper end of the reservoir; the gas tube is configured for communicating the atomizing assembly and the mouthpiece; the blocking component comprises a blocking ring fixed on the gas tube; an outer surface of the blocking ring abuts against an inner surface of the reservoir; wherein the blocking ring is fixed on a joint of the gas tube and the atomizing assembly; a vent disposed on the blocking ring is configured for communicating the gas tube and the atomizing assembly; characterized in that: the blocking component further comprises a first insert tube and a second insert tube at two sides of the blocking ring; the first insert tube is inserted into a lower end of the gas tube for fixing and the second insert tube is inserted into an upper end of the atomizing assembly for fixing; the vent is also configured to be in communication with the first insert tube and the second insert tube. a reservoir, the reservoir being configured for storing tobacco liquid; an atomizing assembly, the atomizing assembly being disposed inside the reservoir, at an end of the reservoir defining the lower end, and configured to absorb tobacco liquid for atomization; and a blocking component, the blocking component being disposed in the reservoir, and configured for blocking tobacco liquid in the reservoir when tobacco liquid flows from the lower end of the reservoir toward an end of the reservoir defining the upper end, such that tobacco liquid is kept around the atomizing assembly; wherein the atomizer further comprises a gas tube and a mouthpiece; the mouthpiece is disposed at the upper end of the reservoir; the gas tube is configured for communicating the atomizing assembly and the mouthpiece; the blocking component comprises a blocking ring fixed on the gas tube; an outer surface of the blocking ring abuts against an inner surface of the reservoir; wherein the blocking ring is fixed on a joint of the gas tube and the atomizing assembly; a vent disposed on the blocking ring is configured for communicating the gas tube and the atomizing assembly; characterized in that: the blocking component further comprises a first insert tube and a second insert tube at two sides of the blocking ring; the first insert tube is inserted into a lower end of the gas tube for fixing and the second insert tube is inserted into an upper end of the atomizing assembly for fixing; the vent is also configured to be in communication with the first insert tube and the second insert tube.
Voltage-switchable nanoparticle-dye complex, obtainable by reacting at least ZnO nanoparticles, TiO 2 nanoparticles and a bipyridine compound wherein each pyridine ring bears at least one carboxyl or carboxaldehyde group.
A process for preparing insulin compounds and its analogs or derivatives from their corresponding insulin precursors represented by the formula: where, R is hydrogen or a chemically or enzymatically cleavable amino acid residue or a chemically or enzymatically cleavable peptide comprising at least two amino acid residues, R 1 is OH or an amino acid residue, or Y 1 -Y 2 in which Y is an amino acid residue, the moieties A1 to A21 correspond to the insulin A chain, and the moieties B1 to B27 correspond to the insulin B chain including amino acid substitution, deletion and/or additions thereof, R 2 is Z 1 -Z 2, wherein Z 1 is selected from Pro, Lys, Asp, and Z 2 is selected from Lys or Pro or Glu or Z 1 -Z 2 -Z 3 wherein Z 1 is selected from Pro, Lys, Asp, and Z 2 is selected from Lys or Pro or Glu, and Z 3 is threonine or a peptide moiety of at least three amino acid residues with the provision that the amino acid corresponding to B30 is threonine, and X is a polypeptide that connects the A chain to the B chain which can be cleaved enzymatically without disrupting either the A chain or the B chain bearing at least two amino acids, wherein the first and the last amino acid is Lysine or Arginine, said precursors defined by an amino acid sequence which is at least 85% homologous to the amino acid sequence as set forth in SEQ ID NOs 1, 2, 3, 4, 5, 6, 7, 8 and 9, which comprises treating said precursor with trypsin and carboxypeptidase used combinatorially and concurrently, wherein the reaction is carried out in a pH range from 8 to 9, and wherein the relative concentration ratio of trypsin to carboxypeptidase is from 5:1 to 50:1, and the relative amount of trypsin to that of the insulin precursor is from 1:10 to 1:100.
A method of preparing data packets for transport over a telecommunications transport network, wherein the data packets are transported by a single bearer and relate to different ones of a plurality of services (202, 204), the method comprising: inspecting each of the data packets to identify the service to which the data packet relates; mapping the identified service of the packet to a Quality of Service, QoS, type corresponding to the identified service; for the data packets of each QoS type applying a bandwidth profiling scheme of the respective QoS type to the data packets, the profiling scheme identifying and marking each data packet according to whether or not the data packet is conformant with a predetermined committed information rate for the QoS type; and forwarding the marked data packets for transport through the transport network. inspecting each of the data packets to identify the service to which the data packet relates; mapping the identified service of the packet to a Quality of Service, QoS, type corresponding to the identified service; for the data packets of each QoS type applying a bandwidth profiling scheme of the respective QoS type to the data packets, the profiling scheme identifying and marking each data packet according to whether or not the data packet is conformant with a predetermined committed information rate for the QoS type; and forwarding the marked data packets for transport through the transport network.
A nanofibrillar cellulose, wherein said nanofibrillar cellulose is in the form of hydrogel or membrane, has an average degree of polymerization greater than 1000 using ISO 5351 and a storage modulus between 0.3 and 20 Pa according to the method described in the description, when dispersed to a concentration of 0.5 w% in water, and wherein said nanofibrillar cellulose is of plant origin, delaminated cellulose pulp, and has a number average diameter between 2 and 15 nm according to the method described in the description.
An electromechanical installation for an aircraft, comprising: - an electrical network comprising electrical sub-networks (104, 106) electrically disconnected from each other and each comprising at least one electrical equipment (108, 112, 114, 116); • a turbogenerator comprising: • a gas turbine, • a permanent magnet electrical generator designed to be mechanically driven by the gas turbine and having phase groups (126, 128) respectively connected to the electrical sub-networks (104, 106), and • for each phase group (126, 128), an isolation device (134, 136) adapted to disconnect the phase group (126, 128) from its associated electrical sub-network (104, 106); - a control device adapted to detect a short-circuit in at least one of the phase groups, each phase group in which a short-circuit is detected being referred to as defective and each other phase group being referred to as healthy, and, in response to the detection of the short-circuit, on the one hand, to control the isolation device (134, 136) associated with each defective phase group (126, 128) to disconnect that defective phase group (126, 128) from its associated electrical sub-network (104, 106) and, on the other hand, to control a shutdown of the gas turbine; characterised in that the control device is further designed, in response to the detection of the short-circuit, to keep each healthy phase group (126, 128) connected to its electrical sub-network (104, 106). - an electrical network comprising electrical sub-networks (104, 106) electrically disconnected from each other and each comprising at least one electrical equipment (108, 112, 114, 116); • a turbogenerator comprising: • a gas turbine, • a permanent magnet electrical generator designed to be mechanically driven by the gas turbine and having phase groups (126, 128) respectively connected to the electrical sub-networks (104, 106), and • for each phase group (126, 128), an isolation device (134, 136) adapted to disconnect the phase group (126, 128) from its associated electrical sub-network (104, 106); • a gas turbine, • a permanent magnet electrical generator designed to be mechanically driven by the gas turbine and having phase groups (126, 128) respectively connected to the electrical sub-networks (104, 106), and • for each phase group (126, 128), an isolation device (134, 136) adapted to disconnect the phase group (126, 128) from its associated electrical sub-network (104, 106); - a control device adapted to detect a short-circuit in at least one of the phase groups, each phase group in which a short-circuit is detected being referred to as defective and each other phase group being referred to as healthy, and, in response to the detection of the short-circuit, on the one hand, to control the isolation device (134, 136) associated with each defective phase group (126, 128) to disconnect that defective phase group (126, 128) from its associated electrical sub-network (104, 106) and, on the other hand, to control a shutdown of the gas turbine;
A system-on-a-chip characterised by: an upstream logic (120; 205) having a first link interface (129; 210) modified from a link interface of a Physical Interface for Peripheral Component Interconnect ExpressTM Architecture, PIPE, specification to emulate functionality of a portion of a physical, PHY, interface of the PIPE specification to enable communication with an intellectual property, IP, logic (128; 225) on a single semiconductor die with the upstream logic, the IP logic including a second link interface coupled to the first link interface via an on-die interconnect, where the IP logic is a downstream component with respect to the upstream logic and unmodified with respect to an equivalent standalone device having the IP logic incorporated therein. an upstream logic (120; 205) having a first link interface (129; 210) modified from a link interface of a Physical Interface for Peripheral Component Interconnect ExpressTM Architecture, PIPE, specification to emulate functionality of a portion of a physical, PHY, interface of the PIPE specification to enable communication with an intellectual property, IP, logic (128; 225) on a single semiconductor die with the upstream logic, the IP logic including a second link interface coupled to the first link interface via an on-die interconnect, where the IP logic is a downstream component with respect to the upstream logic and unmodified with respect to an equivalent standalone device having the IP logic incorporated therein.
An information processing apparatus comprising: a receiving means configured to receive a pattern (604, 1002) having non-transparent pixels having multi-value color values and transparent pixels of a semi-transparent object; a multivaluing processing means configured to perform multivaluing processing on the received pattern (604, 1002), the multivaluing processing including an application of a weighted-average filter to the received pattern (604, 1002); a scaling processing means configured to perform scaling processing on the multivalued pattern to generate a scaled pattern (1005, 1302); and characterised in that the apparatus further comprises a first applying means configured to apply a first dither matrix to the scaled pattern (1005, 1302) to generate a screened pattern, the dither matrix including a threshold for each pixel of the dither matrix, wherein a second dither matrix, which is different from the first dither matrix, is further applied by a second applying means to the screened pattern to halftone the screened pattern. a receiving means configured to receive a pattern (604, 1002) having non-transparent pixels having multi-value color values and transparent pixels of a semi-transparent object; a multivaluing processing means configured to perform multivaluing processing on the received pattern (604, 1002), the multivaluing processing including an application of a weighted-average filter to the received pattern (604, 1002); a scaling processing means configured to perform scaling processing on the multivalued pattern to generate a scaled pattern (1005, 1302); and characterised in that the apparatus further comprises a first applying means configured to apply a first dither matrix to the scaled pattern (1005, 1302) to generate a screened pattern, the dither matrix including a threshold for each pixel of the dither matrix, wherein a second dither matrix, which is different from the first dither matrix, is further applied by a second applying means to the screened pattern to halftone the screened pattern.
A gas spring (310; 410; 510; 610) for forming equipment, comprising: a casing (312; 412; 512) including an axially extending side wall (320; 420; 520), an open end, a transversely extending closed end wall axially spaced from the open end, a pressure chamber (317; 517) established in part by the side (320; 420; 520) and end walls to receive a gas under pressure; a piston rod received at least in part in the casing (312; 412; 512) for reciprocation between extended and retracted positions; a piston rod housing (344; 544) received at least in part in the casing (312; 412; 512) between the piston rod and the casing (312; 412; 512); and an overtravel pressure relief feature (318; 518; 618) including a vent path that is disposed between the pressure chamber (317; 517) and the outside of the gas spring (310; 410; 510; 610) and that includes a vent passage (363; 463; 563) through the side wall (320; 420; 520) of the casing and a seal (362; 462; 562; 662) that sealingly interrupts the vent path, wherein displacement of the housing (344; 544) into the casing (312; 412; 512) results in opening of the vent path, wherein the overtravel pressure relief feature (318; 518; 618) includes a seal pocket (360;560) in the piston rod housing (344; 544) and carrying the seal (362; 562; 662), wherein displacement of the housing (344; 544) into the casing results (312; 512; 612) in displacement of a portion of the seal (362; 562; 662) past the vent passage (363;563) to breach the seal (362; 562; 662). a casing (312; 412; 512) including an axially extending side wall (320; 420; 520), an open end, a transversely extending closed end wall axially spaced from the open end, a pressure chamber (317; 517) established in part by the side (320; 420; 520) and end walls to receive a gas under pressure; a piston rod received at least in part in the casing (312; 412; 512) for reciprocation between extended and retracted positions; a piston rod housing (344; 544) received at least in part in the casing (312; 412; 512) between the piston rod and the casing (312; 412; 512); and an overtravel pressure relief feature (318; 518; 618) including a vent path that is disposed between the pressure chamber (317; 517) and the outside of the gas spring (310; 410; 510; 610) and that includes a vent passage (363; 463; 563) through the side wall (320; 420; 520) of the casing and a seal (362; 462; 562; 662) that sealingly interrupts the vent path, wherein displacement of the housing (344; 544) into the casing (312; 412; 512) results in opening of the vent path, wherein the overtravel pressure relief feature (318; 518; 618) includes a seal pocket (360;560) in the piston rod housing (344; 544) and carrying the seal (362; 562; 662), wherein displacement of the housing (344; 544) into the casing results (312; 512; 612) in displacement of a portion of the seal (362; 562; 662) past the vent passage (363;563) to breach the seal (362; 562; 662).