mhurhangee/ep-ind-claims huggingface dataset:
Electrical connector system, comprising: - a plug connector, comprising: ∘ at least one row of terminal cavities (16a, 16b) for receiving terminals, ∘ a plug connector housing having a flexible arm arranged in a sidewall of the plug connector housing, and having primary locking means adapted to provide a primary locking function when the plug connector is in the mated position with a corresponding counter connector, - a secondary locking device arranged between an end of the at least one row of terminal cavities (16a, 16b) and the flexible arm, the secondary locking device being arranged movable relative to the plug connector housing between an open and closed position, said device having a flexible leg with secondary locking means adapted to provide a secondary locking function when the plug connector is in the mated position with the corresponding counter connector, wherein the flexible arm of the plug connector housing comprises a blocking device adapted to block the secondary locking device from moving from the open to the closed position when the plug connector is in an unmated position with the counter connector, wherein the flexible leg of the secondary locking device comprises an abutment device adapted to engage with the blocking device for said blocking, and wherein the primary and secondary locking means (13, 33) each comprise a protrusion, wherein said protrusions are adapted to cooperate with at least one opening (25, 26) in the counter connector. - a plug connector, comprising: ∘ at least one row of terminal cavities (16a, 16b) for receiving terminals, ∘ a plug connector housing having a flexible arm arranged in a sidewall of the plug connector housing, and having primary locking means adapted to provide a primary locking function when the plug connector is in the mated position with a corresponding counter connector, ∘ at least one row of terminal cavities (16a, 16b) for receiving terminals, ∘ a plug connector housing having a flexible arm arranged in a sidewall of the plug connector housing, and having primary locking means adapted to provide a primary locking function when the plug connector is in the mated position with a corresponding counter connector, - a secondary locking device arranged between an end of the at least one row of terminal cavities (16a, 16b) and the flexible arm, the secondary locking device being arranged movable relative to the plug connector housing between an open and closed position, said device having a flexible leg with secondary locking means adapted to provide a secondary locking function when the plug connector is in the mated position with the corresponding counter connector,
A turbine stator assembly extending around an axis and comprising: - a sealing ring extending around the axis and comprising an abradable element intended to cooperate with sealing wipers carried by a rotor rotatably mounted around the axis, - a plurality of crown sectors disposed circumferentially end-to-end around the axis so as to together form a crown, each crown sector being bladed, - sliding means enabling a relative movement radially with respect to the axis between the sealing ring and each of the crown sectors, the sliding means being disposed at a radially inner end of the crown formed by the plurality of crown sectors, characterised in that it comprises sealing means located radially outward from the sliding means so as to reduce leaks originating from circumferential spaces located between the circumferentially adjacent crown sectors. - a sealing ring extending around the axis and comprising an abradable element intended to cooperate with sealing wipers carried by a rotor rotatably mounted around the axis, - a plurality of crown sectors disposed circumferentially end-to-end around the axis so as to together form a crown, each crown sector being bladed, - sliding means enabling a relative movement radially with respect to the axis between the sealing ring and each of the crown sectors, the sliding means being disposed at a radially inner end of the crown formed by the plurality of crown sectors,
Process for manufacturing a turbine part for aeronautics, comprising: - a substrate made of single-crystal nickel-based superalloy, comprising chromium and at least one element chosen from rhenium and ruthenium, having a γ-γ' phase, an average mass fraction of rhenium and ruthenium greater than or equal to 4% and an average mass fraction of chromium less than or equal to 5% and preferably less than or equal to 3%, - an underlayer covering at least part of a surface of the substrate, the sublayer having a γ-γ' phase and an average atomic fraction: - of chromium of between 5% and 10%, - of aluminium of between 10% and 20%, - of platinum of between 15% and 25%, this process comprising at least the steps of: a) deposition of an enrichment layer on the substrate, the enrichment layer having at least an average platinum atomic fraction of more than 90% and an average chromium atomic fraction of between 3% and 10%, b) heat treatment of the assembly formed by the substrate and the enrichment layer, at a temperature of between 1000°C and 1200°C, for more than one hour, preferably for more than 2 hours, so that the enrichment layer diffuses at least partially into the substrate. - an underlayer covering at least part of a surface of the substrate, the sublayer having a γ-γ' phase and an average atomic fraction: - of chromium of between 5% and 10%, - of aluminium of between 10% and 20%, - of platinum of between 15% and 25%, - of chromium of between 5% and 10%, - of aluminium of between 10% and 20%, - of platinum of between 15% and 25%, this process comprising at least the steps of: a) deposition of an enrichment layer on the substrate, the enrichment layer having at least an average platinum atomic fraction of more than 90% and an average chromium atomic fraction of between 3% and 10%, b) heat treatment of the assembly formed by the substrate and the enrichment layer, at a temperature of between 1000°C and 1200°C, for more than one hour, preferably for more than 2 hours, so that the enrichment layer diffuses at least partially into the substrate. a) deposition of an enrichment layer on the substrate, the enrichment layer having at least an average platinum atomic fraction of more than 90% and an average chromium atomic fraction of between 3% and 10%, b) heat treatment of the assembly formed by the substrate and the enrichment layer, at a temperature of between 1000°C and 1200°C, for more than one hour, preferably for more than 2 hours, so that the enrichment layer diffuses at least partially into the substrate.
A composition comprising: a) a mixture of steviol glycosides comprising at least one glucosylated steviol glycoside, and b) a natural masking agent, said natural masking agent being obtainable from carob and/or a citrus fruit by a process comprising the steps of: i) obtaining an aqueous extract from carob and/or an aqueous extract from a citrus fruit; ii) fractionating the product of step i) to obtain a first fraction comprising polysaccharides, polyols, proteins, free amino acids, fibers, fats and polyphenols; a second fraction of ionized molecules comprising minerals and organic acids; and a third fraction comprising monosaccharides and disaccharides; and iii) mixing the first fraction and the second fraction. a) a mixture of steviol glycosides comprising at least one glucosylated steviol glycoside, and b) a natural masking agent, said natural masking agent being obtainable from carob and/or a citrus fruit by a process comprising the steps of: i) obtaining an aqueous extract from carob and/or an aqueous extract from a citrus fruit; ii) fractionating the product of step i) to obtain a first fraction comprising polysaccharides, polyols, proteins, free amino acids, fibers, fats and polyphenols; a second fraction of ionized molecules comprising minerals and organic acids; and a third fraction comprising monosaccharides and disaccharides; and iii) mixing the first fraction and the second fraction. i) obtaining an aqueous extract from carob and/or an aqueous extract from a citrus fruit; ii) fractionating the product of step i) to obtain a first fraction comprising polysaccharides, polyols, proteins, free amino acids, fibers, fats and polyphenols; a second fraction of ionized molecules comprising minerals and organic acids; and a third fraction comprising monosaccharides and disaccharides; and iii) mixing the first fraction and the second fraction.
Jack-up platform comprising a hull and at least one leg adjustable with respect to the hull, wherein the leg is adjustable through a leg opening in the hull in which leg opening at least an upper leg guide at an upper end of the leg opening and a lower leg guide at a lower end of the leg opening are provided to guide the leg during adjustment resulting, due to contact between the leg and the leg guides (7, 8), in an upper leg guide force F UG and a lower leg guide force F LG, characterized in that the upper leg guide and/or the lower leg guide is provided with at least one load measuring unit comprising load sensing means to measure horizontal load exerted by the leg onto the leg guide (7, 8) such that from the measured upper and/or lower leg guide forces, a leg bending moment can be calculated and/or determined, wherein the at least one measuring unit is arranged at or onto the leg guide (7, 8).
A method of preparing a glycol mono-tertiary-butyl ether compound, the method comprising: a catalytic reaction step for preparing a glycol mono-tertiary-butyl ether compound and a glycol di-tertiary-butyl ether compound as a byproduct by reaction between a glycol compound and a C 4 hydrocarbon mixture containing isobutene in the presence of an acidic catalyst; a byproduct extraction step for separating the glycol mono-tertiary-butyl ether compound and the glycol di-tertiary-butyl ether compound, prepared in the catalytic reaction step, using a hydrophilic extractant and a lipophilic extractant; and a byproduct decomposition and recycling step for decomposing the separated glycol di-tertiary-butyl ether compound into a glycol compound and isobutene and recycling the decomposed glycol compound and isobutene as the reactants to the catalytic reaction step. a catalytic reaction step for preparing a glycol mono-tertiary-butyl ether compound and a glycol di-tertiary-butyl ether compound as a byproduct by reaction between a glycol compound and a C 4 hydrocarbon mixture containing isobutene in the presence of an acidic catalyst; a byproduct extraction step for separating the glycol mono-tertiary-butyl ether compound and the glycol di-tertiary-butyl ether compound, prepared in the catalytic reaction step, using a hydrophilic extractant and a lipophilic extractant; and a byproduct decomposition and recycling step for decomposing the separated glycol di-tertiary-butyl ether compound into a glycol compound and isobutene and recycling the decomposed glycol compound and isobutene as the reactants to the catalytic reaction step.
A vehicle drivetrain assembly comprising: a housing assembly; a shaft that is disposed in the housing assembly and that rotates about an axis; a clutch collar that is moveably disposed on the shaft and configured to move along the axis; a clutch collar actuator mechanism that actuates the clutch collar, the clutch collar actuator mechanism includes: an actuator rod that extends along an actuation axis; a fork that operatively connects the actuator rod to the clutch collar; characterized in that the vehicle drivetrain assembly further comprises a cap that is disposed on the housing assembly and that has a port disposed along the actuation axis, a cavity, and a coupling ring that extends around the port and the actuation axis; and an air bellow that receives the coupling ring and is disposed between the actuator rod and the cap, the air bellow including a mounting panel that has a pin that extends along the actuation axis and is received in a hole in an enlarged head of the actuator rod and an inflatable bladder that extends between the mounting panel and the cap; wherein the clutch collar moves from a first position to a second position when the air bellow is inflated. a housing assembly; a shaft that is disposed in the housing assembly and that rotates about an axis; a clutch collar that is moveably disposed on the shaft and configured to move along the axis; a clutch collar actuator mechanism that actuates the clutch collar, the clutch collar actuator mechanism includes: an actuator rod that extends along an actuation axis; a fork that operatively connects the actuator rod to the clutch collar; characterized in that the vehicle drivetrain assembly further comprises a cap that is disposed on the housing assembly and that has a port disposed along the actuation axis, a cavity, and a coupling ring that extends around the port and the actuation axis; and an air bellow that receives the coupling ring and is disposed between the actuator rod and the cap, the air bellow including a mounting panel that has a pin that extends along the actuation axis and is received in a hole in an enlarged head of the actuator rod and an inflatable bladder that extends between the mounting panel and the cap; an actuator rod that extends along an actuation axis; a fork that operatively connects the actuator rod to the clutch collar; characterized in that the vehicle drivetrain assembly further comprises a cap that is disposed on the housing assembly and that has a port disposed along the actuation axis, a cavity, and a coupling ring that extends around the port and the actuation axis; and an air bellow that receives the coupling ring and is disposed between the actuator rod and the cap, the air bellow including a mounting panel that has a pin that extends along the actuation axis and is received in a hole in an enlarged head of the actuator rod and an inflatable bladder that extends between the mounting panel and the cap; wherein the clutch collar moves from a first position to a second position when the air bellow is inflated.
A first station comprising: a processor configured to: send, to a second STA, a training announcement frame that indicates a training period and a concurrent transmit and receive training; send, to the second STA during a training transmit opportunity (TXOP), a first set of training frames (1110, 1112) via a first set of transmit beams in a first time slot of the training period, wherein each of the training frames comprises a header, a MAC body, and one or more training fields; send, to the second STA during the training TXOP, a second set of training frames (1114, 1116) via a second set of transmit beams in a second time slot of the training period; receive, from the second STA during the training TXOP, feedback associated with one or more transmit beams of the first and second set of transmit beams, wherein the feedback includes channel state information and one or more beam identifications (IDs); and perform a down selection training during the training TXOP, wherein the down selection training comprises sending a set of down selection training frames (1120, 1122, 1124, 1126) via a down-selected set of transmit beams, and wherein the down-selected set of transmit beams are a subset of the first set and second set of transmit beams and are determined based on the received feedback. send, to a second STA, a training announcement frame that indicates a training period and a concurrent transmit and receive training; send, to the second STA during a training transmit opportunity (TXOP), a first set of training frames (1110, 1112) via a first set of transmit beams in a first time slot of the training period, wherein each of the training frames comprises a header, a MAC body, and one or more training fields; send, to the second STA during the training TXOP, a second set of training frames (1114, 1116) via a second set of transmit beams in a second time slot of the training period; receive, from the second STA during the training TXOP, feedback associated with one or more transmit beams of the first and second set of transmit beams, wherein the feedback includes channel state information and one or more beam identifications (IDs); and perform a down selection training during the training TXOP, wherein the down selection training comprises sending a set of down selection training frames (1120, 1122, 1124, 1126) via a down-selected set of transmit beams, and wherein the down-selected set of transmit beams are a subset of the first set and second set of transmit beams and are determined based on the received feedback.
A low-level light therapy system, comprising: an article of apparel (20, 500, 510, 520, 530, 540, 600, 610, 620) that absorbs an incident spectrum including one or more of a UV wavelength, a visible wavelength, and a near infrared wavelength and emits light having an emission spectrum including one or more of visible light radiation and near infrared radiation, wherein the article of apparel (20, 500, 510, 520, 530, 540, 600, 610, 620) is electrically passive, wherein the light having an emission spectrum including one or more of visible light radiation and near infrared radiation is emitted from the article of apparel (20, 500, 510, 520, 530, 540, 600, 610, 620) in a direction toward a mammalian body wearing the article of apparel (20, 500, 510, 520, 530, 540, 600, 610, 620), and wherein the emission spectrum includes one or more of a first peak between 700 nm and 800 nm with a full width at half maximum (FWHM) of 100 nm to 150 nm and a second peak between 800 nm and 900 nm with a full width at half maximum (FWHM) of 100 nm to 150 nm, characterized in that the article of apparel (20, 500, 510, 520, 530, 540, 600, 610, 620), comprises: a textile material including a network of yarns, wherein the yarns (210, 310, 320, 400) include one or more of a textured yarn and a staple yarn; wherein each yarn (210, 310, 320, 400) in the network of yarns includes a textile grade, polymeric host material and 0.01 wt.% to 1.0 wt.% of one or more fluorescent components, wherein the fluorescent component having an emission spectrum including visible light radiation has a quantum efficiency of 90% and above, and wherein the fluorescent component having an emission spectrum in the near infrared range has a quantum efficiency of 50% and above. wherein the article of apparel (20, 500, 510, 520, 530, 540, 600, 610, 620) is electrically passive, wherein the light having an emission spectrum including one or more of visible light radiation and near infrared radiation is emitted from the article of apparel (20, 500, 510, 520, 530, 540, 600, 610, 620) in a direction toward a mammalian body wearing the article of apparel (20, 500, 510, 520, 530, 540, 600, 610, 620), and wherein the emission spectrum includes one or more of a first peak between 700 nm and 800 nm with a full width at half maximum (FWHM) of 100 nm to 150 nm and a second peak between 800 nm and 900 nm with a full width at half maximum (FWHM) of 100 nm to 150 nm, characterized in that the article of apparel (20, 500, 510, 520, 530, 540, 600, 610, 620), comprises: a textile material including a network of yarns, wherein the yarns (210, 310, 320, 400) include one or more of a textured yarn and a staple yarn; wherein each yarn (210, 310, 320, 400) in the network of yarns includes a textile grade, polymeric host material and 0.01 wt.% to 1.0 wt.% of one or more fluorescent components, wherein the fluorescent component having an emission spectrum including visible light radiation has a quantum efficiency of 90% and above, and wherein the fluorescent component having an emission spectrum in the near infrared range has a quantum efficiency of 50% and above.
A tamper-resistant element, adapted for speaker recognition, the tamper-resistant element being adapted for storing data representing speaker information based on speaker recognition enrollment data and for checking whether first information based on a speaker recognition testing signal matches the speaker information, wherein the tamper-resistant element is adapted for storing information for use in a spoof check, characterized in that the tamper-resistant element is further adapted for carrying out a spoof check using second information based on the speaker recognition testing signal, and in that the tamper-resistant element is also adapted for carrying out a data integrity check on the first information and the second information.
A virtualization platform arranged to provide virtual operating system instances (VPC A 1 -A 3; B 1 -B 2; C 1 -C 2;...; N M) to remote networks (N A; N B; N C) over a packet-based communication network, said virtualization platform comprises first termination points of respective virtual private network, VPN, tunnels, which first termination points enable the establishment of VPN tunnels (VPN A 1 -A 3; B 1 -B 2; C 1 -C 2;...; N M) between said first termination points and second termination points in said remote networks (N A; N B; N C) over said packet-based communication network, characterized in that said virtualization platform is arranged to map virtual network interfaces (V_NIC) of said virtual operating system instances (VPC A 1 -A 3; B 1 -B 2; C 1 -C 2;...; N M) directly to said first termination points of VPN tunnels (VPN A 1 -A 3; B 1 -B 2; C 1 -C 2;...; N M), the first termination points being VPN tunnel interfaces (N_NIC) of at least one physical network interface (P_NIC), such that any data network traffic to/from said virtual operating system instances (VPC A 1 -A 3; B 1 -B 2; C 1 -C 2;...; N M) is forwarded through said first termination points when said virtual operating system instances (VPC A 1 -A 3; B 1 -B 2; C 1 -C 2;...; N M) are in operation and wherein said virtualization platform uses network addresses of said remote networks (N A; N B; N C) for the mapping towards said virtual operating system instances (VPC A 1 -A 3; B 1 -B 2; C 1 -C 2;...; N M) in a one-to-one mapping between said virtual operating system instances (VPC A 1 -A 3; B 1 -B 2; C 1 -C 2;...; N M) and said first termination points to directly connect the VPN tunnels (VPN A 1 -A 3; B 1 -B 2; C 1 -C 2;...; N M) to respective virtual operating system interfaces (V_NIC). said virtualization platform is arranged to map virtual network interfaces (V_NIC) of said virtual operating system instances (VPC A 1 -A 3; B 1 -B 2; C 1 -C 2;...; N M) directly to said first termination points of VPN tunnels (VPN A 1 -A 3; B 1 -B 2; C 1 -C 2;...; N M), the first termination points being VPN tunnel interfaces (N_NIC) of at least one physical network interface (P_NIC), such that any data network traffic to/from said virtual operating system instances (VPC A 1 -A 3; B 1 -B 2; C 1 -C 2;...; N M) is forwarded through said first termination points when said virtual operating system instances (VPC A 1 -A 3; B 1 -B 2; C 1 -C 2;...; N M) are in operation and wherein said virtualization platform uses network addresses of said remote networks (N A; N B; N C) for the mapping towards said virtual operating system instances (VPC A 1 -A 3; B 1 -B 2; C 1 -C 2;...; N M) in a one-to-one mapping between said virtual operating system instances (VPC A 1 -A 3; B 1 -B 2; C 1 -C 2;...; N M) and said first termination points to directly connect the VPN tunnels (VPN A 1 -A 3; B 1 -B 2; C 1 -C 2;...; N M) to respective virtual operating system interfaces (V_NIC).