mhurhangee/ep-ind-claims huggingface dataset:
A method (500, 1000) for authenticating a user at a computing device, the method comprising: activating (508, 1004) a fingerprint reader integrated into a power key of the computing device; activating (512, 1008) a visual indicator (124, 128) at the power key to indicate a status of the fingerprint reader; based at least in part on activating the fingerprint reader, disabling (516, 1020) a standby function of the power key; receiving, via the fingerprint reader, a fingerprint of the user; using the fingerprint to authenticate the user; after authenticating the user, deactivating the visual indicator; and re-enabling the standby function of the power key. activating (508, 1004) a fingerprint reader integrated into a power key of the computing device; activating (512, 1008) a visual indicator (124, 128) at the power key to indicate a status of the fingerprint reader; based at least in part on activating the fingerprint reader, disabling (516, 1020) a standby function of the power key; receiving, via the fingerprint reader, a fingerprint of the user; using the fingerprint to authenticate the user; after authenticating the user, deactivating the visual indicator; and re-enabling the standby function of the power key. receiving, via the fingerprint reader, a fingerprint of the user; using the fingerprint to authenticate the user; after authenticating the user, deactivating the visual indicator; and re-enabling the standby function of the power key.
Method for manufacturing a feed product comprising the steps of: - providing a lactylate product, wherein the lactylate product comprises at least 30 wt.% of C10-C16-fatty acid lactylates or the Na, K, Ca, Mg, Fe, Zn, NH 4 or Cu salts thereof, in liquid form at a first location; - transferring lactylate product in the liquid form to a transport unit, wherein the transport unit is a container having a volume of from 0.01 to 10m 3; - transporting the lactylate product in the transport unit to a second location, with the lactylate product being in solid form, in liquid form, or in an intermediate state during transport; - if the lactylate product is solidified or partly solidified, converting the lactylate product to the liquid form in the transport unit; - removing the lactylate product from the transport unit in liquid form at the second location; and, - contacting the lactylate product in liquid form with a feed product. - providing a lactylate product, wherein the lactylate product comprises at least 30 wt.% of C10-C16-fatty acid lactylates or the Na, K, Ca, Mg, Fe, Zn, NH 4 or Cu salts thereof, in liquid form at a first location; - transferring lactylate product in the liquid form to a transport unit, wherein the transport unit is a container having a volume of from 0.01 to 10m 3; - transporting the lactylate product in the transport unit to a second location, with the lactylate product being in solid form, in liquid form, or in an intermediate state during transport; - if the lactylate product is solidified or partly solidified, converting the lactylate product to the liquid form in the transport unit; - removing the lactylate product from the transport unit in liquid form at the second location; and, - contacting the lactylate product in liquid form with a feed product.
A grounding element for a radiator, comprising: a hairpin element having a U-shaped cross-section; and first and second legs (52, 53) extending substantially in parallel with each other from opposite ends of the hairpin element, wherein each of the first and second legs (52, 53) comprises a first elastic grip element (55, 58) extending in a first direction and a second elastic grip element (56, 59) extending in a direction opposite to the first direction, characterized in that: each of the first and second legs further comprises a spine element; and each of the first elastic grip elements comprises: first and second opposed flanges (550, 580); and first and second opposed elastic members (551, 581) by which the first and second opposed flanges (550, 580) are elastically coupled to the corresponding spine element (54, 57). a hairpin element having a U-shaped cross-section; and first and second legs (52, 53) extending substantially in parallel with each other from opposite ends of the hairpin element, wherein each of the first and second legs (52, 53) comprises a first elastic grip element (55, 58) extending in a first direction and a second elastic grip element (56, 59) extending in a direction opposite to the first direction, each of the first and second legs further comprises a spine element; and each of the first elastic grip elements comprises: first and second opposed flanges (550, 580); and first and second opposed elastic members (551, 581) by which the first and second opposed flanges (550, 580) are elastically coupled to the corresponding spine element (54, 57). first and second opposed flanges (550, 580); and first and second opposed elastic members (551, 581) by which the first and second opposed flanges (550, 580) are elastically coupled to the corresponding spine element (54, 57).
Furnace comprising at least one furnace tub in which a first current contact and a second current contact that are electrically insulated from the furnace tub are provided, the furnace tub being formed from tub segments which are arranged one behind the other from the first current contact to the second current contact and are spaced apart from one another, which tub segments are at least partially made of metal and comprise an electrically insulating coating on the inside thereof facing the interior of the furnace tub, characterised in that adjacent tub segments are interconnected via a length compensation element arranged between mutually facing ends of the adjacent tub segments, which length compensation element is at least partially made of metal, comprises an electrically insulating coating on the inside thereof facing the interior of the furnace tub, and is deflected perpendicularly to the inside of the tub segments.
A heater, comprising: a heating element; a pair of lead wires each connected to an end of the heating element; and an insulating base body in which the heating element and the pair of lead wires are embedded, wherein the insulating base body contains a plurality of metal particles around the heating element, characterised by the metal particles being separated from the heating element.
Recombinant ginsenoside-producing yeast for use in producing a ginsenoside or a precursor thereof, wherein the expression level of a protein involved in protein folding is enhanced relative to its endogenous expression level, and wherein said protein involved in protein folding is a recombinant CPR5, PDI1 or ERO1 chaperone protein, the ginsenoside is a dammarane-type saponin, and wherein the precursor is squalene, 2,3-oxidosqualene or protopanaxadiol.
A method of creating a logical profile (200, 240, 260) for physical devices (122, 124, 126, 128) in a system to interface with a monitoring system, the method comprising: designating a profile identity to identify a logical profile (200, 240, 260) representing a combination of physical devices (122, 124, 126, 128) in the system; selecting a plurality of physical devices (122, 124, 126, 128) from the system represented by the logical profile (200, 240, 260), each of the physical devices (122, 124, 126, 128) including at least one of an output and an input, and being identified with the profile identity; assigning a plurality of tags and associating each of the plurality of tags with an input or output of at least one of the plurality of selected physical devices; setting an address for each tag based on a starting address; and provide the logical profile (200, 240, 260) to the monitoring system, the logical profile (200, 240, 260) including profile identity and the plurality of tags of the selected physical devices. designating a profile identity to identify a logical profile (200, 240, 260) representing a combination of physical devices (122, 124, 126, 128) in the system; selecting a plurality of physical devices (122, 124, 126, 128) from the system represented by the logical profile (200, 240, 260), each of the physical devices (122, 124, 126, 128) including at least one of an output and an input, and being identified with the profile identity; assigning a plurality of tags and associating each of the plurality of tags with an input or output of at least one of the plurality of selected physical devices; setting an address for each tag based on a starting address; and provide the logical profile (200, 240, 260) to the monitoring system, the logical profile (200, 240, 260) including profile identity and the plurality of tags of the selected physical devices.
A method, comprising: hosting, at a first Push to talk, PTT, server (102; 204; 202; 212), a first active group call, wherein a first group of PTT clients participate in the first active group call; receiving, at the first PTT server (204; 202; 212), a request (1; 2) to invite a second group of PTT clients, wherein the request (1, 2) includes an identifier for the second group of PTT clients; sending, from the first PTT server and to a second PTT server (112; 212; 214), a first invite message, wherein the first invite message includes the identifier for the second group of PTT clients, the second PTT server (212; 214) hosts a second active group call, and the second group of PTT clients participate in the second active group call; receiving at the first PTT server from the second PTT server (212; 214), in response to the first invite message, a response message, wherein the response message indicates that the second group of PTT clients are participating in the second active group call; and hosting at the first PTT server (204; 202; 212), a merged PTT group call, wherein the first group of PTT clients and the second group of PTT clients participate in the merged PTT group call; the method, further comprising sending by the first PTT server a second invite message (7; 9), wherein the second invite message invites at least one PTT client of the second group of PTT clients to the merged PTT group call and the second invite message indicates that the merged PTT group call replaces or suspends the second active group call. hosting, at a first Push to talk, PTT, server (102; 204; 202; 212), a first active group call, wherein a first group of PTT clients participate in the first active group call; receiving, at the first PTT server (204; 202; 212), a request (1; 2) to invite a second group of PTT clients, wherein the request (1, 2) includes an identifier for the second group of PTT clients; sending, from the first PTT server and to a second PTT server (112; 212; 214), a first invite message, wherein the first invite message includes the identifier for the second group of PTT clients, the second PTT server (212; 214) hosts a second active group call, and the second group of PTT clients participate in the second active group call; receiving at the first PTT server from the second PTT server (212; 214), in response to the first invite message, a response message, wherein the response message indicates that the second group of PTT clients are participating in the second active group call; and hosting at the first PTT server (204; 202; 212), a merged PTT group call, wherein the first group of PTT clients and the second group of PTT clients participate in the merged PTT group call; the method, further comprising sending by the first PTT server a second invite message (7; 9), wherein the second invite message invites at least one PTT client of the second group of PTT clients to the merged PTT group call and the second invite message indicates that the merged PTT group call replaces or suspends the second active group call.
A valve for a dispenser, the valve comprising: - a valve body comprising: - an outer surface and an inner passageway extending about a longitudinal axis, wherein the inner passageway comprises a first passageway opening and a second passageway opening and a passageway surface extending from the first passageway opening to the second passageway opening; and - a first valve body surface and a second valve body surface opposite the first valve body surface; - a valve seal adjacent to the valve body disposed on at least a portion of the passageway surface; - a valve stem extending through the inner passageway, wherein the valve stem comprises an outer stem surface and an inner stem surface opposite the outer stem surface, wherein a portion of the valve seal operatively engages a portion of the outer stem surface of the valve stem; - an engagement member joined to a portion of the valve stem; - one or more force concentrators joined to the engagement member and extending from the engagement member toward the resilient member; and - a resilient member disposed on a portion of the valve body, wherein the one or more force concentrators are configured to engage the resilient member. - a valve body comprising: - an outer surface and an inner passageway extending about a longitudinal axis, wherein the inner passageway comprises a first passageway opening and a second passageway opening and a passageway surface extending from the first passageway opening to the second passageway opening; and - a first valve body surface and a second valve body surface opposite the first valve body surface; - an outer surface and an inner passageway extending about a longitudinal axis, wherein the inner passageway comprises a first passageway opening and a second passageway opening and a passageway surface extending from the first passageway opening to the second passageway opening; and - a first valve body surface and a second valve body surface opposite the first valve body surface; - a valve seal adjacent to the valve body disposed on at least a portion of the passageway surface; - a valve stem extending through the inner passageway, wherein the valve stem comprises an outer stem surface and an inner stem surface opposite the outer stem surface, wherein a portion of the valve seal operatively engages a portion of the outer stem surface of the valve stem; - an engagement member joined to a portion of the valve stem; - one or more force concentrators joined to the engagement member and extending from the engagement member toward the resilient member; and - a resilient member disposed on a portion of the valve body,
A bifurcated duct of an exhaust system for a gas turbine engine, the bifurcated duct comprising: a plenum comprising: an outer cylindrical body intersected by a pair of exhaust duct stubs (52, 54), the outer cylindrical body including an inlet at an axial front end portion and an axial rear end portion opposite the inlet, so that exhaust gas from the gas turbine engine can flow into the inlet; and an inner body disposed in the axial rear end portion of the outer cylindrical body to decrease a volume of the axial rear end portion of the outer cylindrical body to turn and isolate the exhaust flow entering the pair of exhaust duct stubs (52, 54), the inner body having a frustoconical shape that increases in diameter in the aft direction, the inner body comprising a generally axi-symmetrical inner body, the outer cylindrical body and the inner body coaxially disposed about a longitudinal axis; and bifurcated duct further comprising a pair of exhaust ducts (44, 46) coupled to the corresponding pair of exhaust duct stubs (52, 54), wherein the pair of exhaust duct stubs (52, 54) extend outwardly away from the longitudinal axis in a radial direction to discharge the exhaust flow through the pair of exhaust ducts (44, 46). a plenum comprising: an outer cylindrical body intersected by a pair of exhaust duct stubs (52, 54), the outer cylindrical body including an inlet at an axial front end portion and an axial rear end portion opposite the inlet, so that exhaust gas from the gas turbine engine can flow into the inlet; and an inner body disposed in the axial rear end portion of the outer cylindrical body to decrease a volume of the axial rear end portion of the outer cylindrical body to turn and isolate the exhaust flow entering the pair of exhaust duct stubs (52, 54), the inner body having a frustoconical shape that increases in diameter in the aft direction, the inner body comprising a generally axi-symmetrical inner body, the outer cylindrical body and the inner body coaxially disposed about a longitudinal axis; and an outer cylindrical body intersected by a pair of exhaust duct stubs (52, 54), the outer cylindrical body including an inlet at an axial front end portion and an axial rear end portion opposite the inlet, so that exhaust gas from the gas turbine engine can flow into the inlet; and an inner body disposed in the axial rear end portion of the outer cylindrical body to decrease a volume of the axial rear end portion of the outer cylindrical body to turn and isolate the exhaust flow entering the pair of exhaust duct stubs (52, 54), the inner body having a frustoconical shape that increases in diameter in the aft direction, the inner body comprising a generally axi-symmetrical inner body, the outer cylindrical body and the inner body coaxially disposed about a longitudinal axis; and bifurcated duct further comprising a pair of exhaust ducts (44, 46) coupled to the corresponding pair of exhaust duct stubs (52, 54), wherein the pair of exhaust duct stubs (52, 54) extend outwardly away from the longitudinal axis in a radial direction to discharge the exhaust flow through the pair of exhaust ducts (44, 46).
A method of wireless communication, comprising: determining when uplink communications of a first user equipment, UE operating with a first time division duplex, TDD configuration could collide with uplink communications of a second UE operating with a second TDD configuration that is different from the first TDD configuration; and scheduling ui mapping uplink resources to avoid interference, wherein the scheduling comprises allocating separate uplink acknowledgement/negative acknowledgement, ACK/NACK resources for UEs that operate with different TDD configurations to avoid interference, and wherein at least two different mappings to an ACK resource are defined corresponding to a downlink data transmission, at least one of the two different mappings avoiding interference with the second TDD configuration. determining when uplink communications of a first user equipment, UE operating with a first time division duplex, TDD configuration could collide with uplink communications of a second UE operating with a second TDD configuration that is different from the first TDD configuration; and scheduling ui mapping uplink resources to avoid interference, wherein the scheduling comprises allocating separate uplink acknowledgement/negative acknowledgement, ACK/NACK resources for UEs that operate with different TDD configurations to avoid interference, and wherein at least two different mappings to an ACK resource are defined corresponding to a downlink data transmission, at least one of the two different mappings avoiding interference with the second TDD configuration.
Nucleic acid nanoparticle comprising at least one G-quadruplex structure containing more than 2 G-tetrad layers wherein at least two guanine bases comprise a modification in the N2-position that stabilizes the nucleic acid nanoparticle, wherein the G-quadruplex structure comprises (a) a nucleic acid molecule comprising the nucleic acid sequence (g) w (n) a (g) x (n) b (g) y (n) c (g) z wherein w,x,y,z are independently of each other integers of at least 0, a,b,c are independently of each other integers of at least 0, and the sum of integers w,x,y,z is at least 8; (b) four nucleic acid molecules wherein each of said molecules comprises a sequence of (g) z wherein z is an integer of at least 2; or (c) two nucleic acid molecules wherein each of said molecules comprises a sequence of (g) y (n) b (g) z wherein b is an integer of at least 0, y and z are independently of each other integers of at least 0, and the sum of integers y and z is at least 4; and wherein each modification is independently 6-aminohexyl or benzyl. wherein the G-quadruplex structure comprises (a) a nucleic acid molecule comprising the nucleic acid sequence (g) w (n) a (g) x (n) b (g) y (n) c (g) z wherein w,x,y,z are independently of each other integers of at least 0, a,b,c are independently of each other integers of at least 0, and the sum of integers w,x,y,z is at least 8; (b) four nucleic acid molecules wherein each of said molecules comprises a sequence of (g) z wherein z is an integer of at least 2; or (c) two nucleic acid molecules wherein each of said molecules comprises a sequence of (g) y (n) b (g) z (a) a nucleic acid molecule comprising the nucleic acid sequence (g) w (n) a (g) x (n) b (g) y (n) c (g) z wherein w,x,y,z are independently of each other integers of at least 0, a,b,c are independently of each other integers of at least 0, and the sum of integers w,x,y,z is at least 8; (b) four nucleic acid molecules wherein each of said molecules comprises a sequence of (g) z wherein z is an integer of at least 2; or (c) two nucleic acid molecules wherein each of said molecules comprises a sequence of (g) y (n) b (g) z wherein b is an integer of at least 0, y and z are independently of each other integers of at least 0, and the sum of integers y and z is at least 4; and wherein each modification is independently 6-aminohexyl or benzyl.
A device for modulating a nerve within a body of a patient, the device comprising: - a handheld device comprising an enclosure, wherein the enclosure comprises an interface element configured for contact with an outer skin surface of a patient; - a source of energy housed within the enclosure, wherein the source of energy is configured to generate an electrical field comprising bursts of pulses with a frequency of from about 5 bursts per second to about 100 bursts per second; - an electrode (340, 45) housed within the enclosure; - a conductive medium housed within the enclosure and electrically coupling the electrode with the interface element, wherein the conductive medium is in contact with the interface element that is adapted to make physical contact with the patient's skin, and wherein the source of energy is configured to apply an electrical impulse from the electrode through the conductive medium, through the interface element and transcutaneously through an outer skin surface of the patient to a nerve at a target region below the outer skin surface, wherein the electrical impulse is sufficient to modulate the nerve within the target region and insufficient to substantially modulate a nerve in a vicinity of the outer skin surface. - a handheld device comprising an enclosure, wherein the enclosure comprises an interface element configured for contact with an outer skin surface of a patient; - a source of energy housed within the enclosure, wherein the source of energy is configured to generate an electrical field comprising bursts of pulses with a frequency of from about 5 bursts per second to about 100 bursts per second; - an electrode (340, 45) housed within the enclosure; - a conductive medium housed within the enclosure and electrically coupling the electrode with the interface element, wherein the conductive medium is in contact with the interface element that is adapted to make physical contact with the patient's skin, and wherein the source of energy is configured to apply an electrical impulse from the electrode through the conductive medium, through the interface element and transcutaneously through an outer skin surface of the patient to a nerve at a target region below the outer skin surface, wherein the electrical impulse is sufficient to modulate the nerve within the target region and insufficient to substantially modulate a nerve in a vicinity of the outer skin surface.