mhurhangee/ep-ind-claims huggingface dataset:
A recombinant gram-negative bacterial cell comprising: a. a mutant spr gene encoding a spr protein having a mutation at one or more amino acids selected from D133, H145, H157, N31, R62, 170, Q73, C94, S95, V98, Q99, R100, L108, Y115, V135, L136, G140, R144 and G147 and b. an expression vector comprising a gene expressing or overexpressing one or more proteins capable of facilitating protein folding selected from FkpA, Skp or a combination of FkpA and Skp, wherein the cell has reduced Tsp protein activity compared to a wild-type cell and wherein the cell does not comprise a recombinant polynucleotide encoding DsbC and wherein the bacterial cell is isogenic to a wild-type E. coli cell except for the mutated spr gene and the modification required to reduce Tsp protein activity compared to a wild-type cell. a. a mutant spr gene encoding a spr protein having a mutation at one or more amino acids selected from D133, H145, H157, N31, R62, 170, Q73, C94, S95, V98, Q99, R100, L108, Y115, V135, L136, G140, R144 and G147 and b. an expression vector comprising a gene expressing or overexpressing one or more proteins capable of facilitating protein folding selected from FkpA, Skp or a combination of FkpA and Skp,
An oxide superconducting wire comprising: a superconductor laminate including an oxide superconducting layer, directly or indirectly, on at least one surface of a base material; and a plating layer which is included in a stabilizing layer of the superconductor laminate and formed by plating, wherein a surface roughness Ra of the plating layer is 1.0 μm or more and 2.0 μm or less, the oxide superconducting wire characterized in that; an average crystal grain size of the plating layer is 0.86 μm or more and 3.05 μm or less, and an average crystal grain size of the plating layer is less on a side close to an inner surface that is adjacent to the superconductor laminate than an average crystal grain size of the plating layer on a side close to an outer surface that is apart from the superconductor laminate. a superconductor laminate including an oxide superconducting layer, directly or indirectly, on at least one surface of a base material; and a plating layer which is included in a stabilizing layer of the superconductor laminate and formed by plating, wherein a surface roughness Ra of the plating layer is 1.0 μm or more and 2.0 μm or less, the oxide superconducting wire characterized in that; an average crystal grain size of the plating layer is 0.86 μm or more and 3.05 μm or less, and an average crystal grain size of the plating layer is less on a side close to an inner surface that is adjacent to the superconductor laminate than an average crystal grain size of the plating layer on a side close to an outer surface that is apart from the superconductor laminate.
A landing gear, the landing gear comprising: an upper torque link; a lower torque link; a joint formed between the upper torque link and the lower torque link; and a shimmy damper installed at the joint between the upper torque link and the lower torque link, wherein the shimmy damper comprises: a cap; a housing; a damper shaft extending from the cap to the housing; and a plurality of magnets configured to exert an opposing force on the cap and the housing via the damper shaft, wherein the plurality of magnets includes: a first shaft magnet and a second shaft magnet each coupled to the damper shaft, the first shaft magnet being located closer to the cap than the second shaft magnet; a cap magnet configured to be repelled by the first shaft magnet and to exert a force on the cap; and a housing magnet configured to be repelled by the second shaft magnet and to exert a force on the housing in an opposite direction than the force exerted on the cap by the cap magnet. an upper torque link; a lower torque link; a joint formed between the upper torque link and the lower torque link; and a shimmy damper installed at the joint between the upper torque link and the lower torque link, wherein the shimmy damper comprises: a cap; a housing; a damper shaft extending from the cap to the housing; and a plurality of magnets configured to exert an opposing force on the cap and the housing via the damper shaft, wherein the plurality of magnets includes: a first shaft magnet and a second shaft magnet each coupled to the damper shaft, the first shaft magnet being located closer to the cap than the second shaft magnet; a cap magnet configured to be repelled by the first shaft magnet and to exert a force on the cap; and a housing magnet configured to be repelled by the second shaft magnet and to exert a force on the housing in an opposite direction than the force exerted on the cap by the cap magnet. a cap; a housing; a damper shaft extending from the cap to the housing; and a plurality of magnets configured to exert an opposing force on the cap and the housing via the damper shaft, wherein the plurality of magnets includes: a first shaft magnet and a second shaft magnet each coupled to the damper shaft, the first shaft magnet being located closer to the cap than the second shaft magnet; a cap magnet configured to be repelled by the first shaft magnet and to exert a force on the cap; and a housing magnet configured to be repelled by the second shaft magnet and to exert a force on the housing in an opposite direction than the force exerted on the cap by the cap magnet. a first shaft magnet and a second shaft magnet each coupled to the damper shaft, the first shaft magnet being located closer to the cap than the second shaft magnet; a cap magnet configured to be repelled by the first shaft magnet and to exert a force on the cap; and a housing magnet configured to be repelled by the second shaft magnet and to exert a force on the housing in an opposite direction than the force exerted on the cap by the cap magnet.
Dispensing apparatus comprising a housing having a first part and a second part together defining an interior of the housing for receiving a dispensing container, the first and second part (2, 3) being movable from an open position to permit insertion of said dispensing container into the interior of the housing to a closed position in which removal of said dispensing container from the interior of the housing is prevented, the dispensing apparatus further comprising a mouthpiece which is removably connectable to the housing; when connected to the housing, the mouthpiece defines an outlet for a product dispensed, in use, from said dispensing container and, when the mouthpiece is disconnected from the housing, the first and second parts (2, 3) substantially enclose the interior to prevent access to and removal of said dispensing container received in the interior, characterised in that the housing further comprises a channel which receives and contains, in use, a valve stem of the dispensing container, wherein, with the mouthpiece connected to the housing, the channel communicates with a valve stem receiving block of the mouthpiece.
A microwave coaxial connector, intended notably to link two printed circuit boards (6, 7) together, the microwave coaxial connector comprises: - a first outer contact comprising a body of generally tubular form of longitudinal axis X comprising a first end, a second end opposite the first end, and, on its outer periphery, between the first and second ends, a contact surface of flared form towards the second end, - a central contact comprising an elongate element partly folded on itself defining an elastically deformable loop which can be closed, with one of its free ends outside of the loop, - a second outer contact comprising an elastically deformable open ring, - an insulating element comprising an open slot that is elongate on the axis X, the insulating element being arranged between the elongate conductive element and the tubular body, the elongate conductive element inside the insulating element is such that its loop can be closed and elastically deformed by compression on itself between a non-deformed position in which its top protrudes beyond the first end and an extreme deformed position in which its top is aligned on the first end, the free end of the elongate conductive element outside of the loop being able to slide by protruding from the slot so as to be aligned on the second end regardless of the deformed position of the loop, the ring is kept outside the tubular body so that it can be elastically deformed by pressing against the flared surface between a non-deformed position in which it is not pressing against the flared surface and its top protrudes beyond the first end and an extreme deformed position in which its top is aligned on the first end. - a first outer contact comprising a body of generally tubular form of longitudinal axis X comprising a first end, a second end opposite the first end, and, on its outer periphery, between the first and second ends, a contact surface of flared form towards the second end, - a central contact comprising an elongate element partly folded on itself defining an elastically deformable loop which can be closed, with one of its free ends outside of the loop, - a second outer contact comprising an elastically deformable open ring, - an insulating element comprising an open slot that is elongate on the axis X, the insulating element being arranged between the elongate conductive element and the tubular body,
A magnetic resonance method comprising: applying a time-varying magnetic drive field to a spin ensemble in a static magnetic field, the spin ensemble defining a state space comprising a plurality of angular momentum subspaces, the time-varying magnetic drive field adapted to couple spin states of the spin ensemble with a cavity mode of a cavity, wherein the cavity mode corresponds to a cavity-resonance frequency ω c, the cavity-resonance frequency ω c is detuned from a spin-resonance frequency ω s of the spin ensemble by a detuning δω = ω c - ω s, the time-varying magnetic drive field generates Rabi oscillations at a Rabi frequency (Ω R), and the difference between the detuning δω and the Rabi frequency (Ω R) is small compared to the detuning δω; and increasing polarization of the spin ensemble as a result of the coupling between the spin states and the cavity mode acting independently on each of the plurality of angular momentum subspaces of the spin ensemble. applying a time-varying magnetic drive field to a spin ensemble in a static magnetic field, the spin ensemble defining a state space comprising a plurality of angular momentum subspaces, the time-varying magnetic drive field adapted to couple spin states of the spin ensemble with a cavity mode of a cavity, wherein the cavity mode corresponds to a cavity-resonance frequency ω c, the cavity-resonance frequency ω c is detuned from a spin-resonance frequency ω s of the spin ensemble by a detuning δω = ω c - ω s, the time-varying magnetic drive field generates Rabi oscillations at a Rabi frequency (Ω R), and the difference between the detuning δω and the Rabi frequency (Ω R) is small compared to the detuning δω; and increasing polarization of the spin ensemble as a result of the coupling between the spin states and the cavity mode acting independently on each of the plurality of angular momentum subspaces of the spin ensemble.
A method of performing a measurement of a device under test by using an antenna array, the method comprising the steps of: - Providing an antenna array that comprises several antenna elements, - Providing a device under test configured to communicate over-the-air, - Locating the device under test at a first test location, thereby establishing a first relative distance between the device under test and the antenna array, - Performing a first measurement over-the-air when the first relative distance is provided between the device under test and the antenna array, thereby obtaining first measurement results, - Moving the antenna array and/or the device under test, thereby establishing a second relative distance between the device under test and the antenna array, and - Performing a second measurement over-the-air when the second relative distance is provided between the device under test and the antenna array, thereby obtaining second measurement results, wherein a quiet zone is established, in which the device under test is located, and wherein the size of the quiet zone is derived from a combination of at least two transfer functions associated with the first measurement results and the second measurement results. - Providing an antenna array that comprises several antenna elements, - Providing a device under test configured to communicate over-the-air, - Locating the device under test at a first test location, thereby establishing a first relative distance between the device under test and the antenna array, - Performing a first measurement over-the-air when the first relative distance is provided between the device under test and the antenna array, thereby obtaining first measurement results, - Moving the antenna array and/or the device under test, thereby establishing a second relative distance between the device under test and the antenna array, and - Performing a second measurement over-the-air when the second relative distance is provided between the device under test and the antenna array, thereby obtaining second measurement results,
A method for transmitting data packets by a user equipment, UE, in a wireless cellular network, the method comprises: transmitting, to a radio access network, RAN, node, a random access channel, RACH, message including a UE identifier, ID, and a connectionless mode indication, if the UE is in idle state and has a data packet to be transmitted; receiving, from the RAN node, a random access, RA, response message including the UE ID for contention resolution and a uplink, UL, grant; and transmitting during the idle state, to the RAN node, a data message including the data packet in a connectionless mode. transmitting, to a radio access network, RAN, node, a random access channel, RACH, message including a UE identifier, ID, and a connectionless mode indication, if the UE is in idle state and has a data packet to be transmitted; receiving, from the RAN node, a random access, RA, response message including the UE ID for contention resolution and a uplink, UL, grant; and transmitting during the idle state, to the RAN node, a data message including the data packet in a connectionless mode.
A respiratory mask assembly for delivering gas to a person, the mask assembly comprising: a frame having a main body and a side frame member provided on each lateral side of the main body, each side frame member including an integrally formed first connector portion, and a headgear assembly removably attachable to the frame, the headgear assembly having a second connector portion arranged to be removably coupled with the first connector portion provided on the frame, the second connector portion being manually movable to detach the headgear assembly from the frame, wherein the first connector portion and the second connector portion comprise means for rotationally locking the headgear assembly and the frame in a plurality of different rotational positions, such that the headgear assembly is rotationally adjustable with respect to the frame. a frame having a main body and a side frame member provided on each lateral side of the main body, each side frame member including an integrally formed first connector portion, and a headgear assembly removably attachable to the frame, the headgear assembly having a second connector portion arranged to be removably coupled with the first connector portion provided on the frame, the second connector portion being manually movable to detach the headgear assembly from the frame, wherein the first connector portion and the second connector portion comprise means for rotationally locking the headgear assembly and the frame in a plurality of different rotational positions, such that the headgear assembly is rotationally adjustable with respect to the frame.
An antibacterial composition having an activity of inhibiting the proliferation of gram-positive bacteria, wherein the composition a) is prepared using a quark, b) comprises edible carbohydrates, proteins, and fats, c) has a pH of 4.6 or less, and d) is prepared as a homogeneous mixture, wherein the carbohydrate energy ratio is from 50 % to 70 % and calculated as carbohydrate energy ratio = carbohydrate amount g × 16.74 kJ / g 4 kcal / g ÷ total food energy kJ kcal × 100, or carbohydrate energy ratio = total food energy kJ kcal − ( protein energy kJ kcal + fat erengy kJ kcal + dietary fiber eergy kJ kcal ÷ total food energy kJ * kcal × 100, wherein the protein energy ratio is from 4 % to 25 % and calculated as protein energy ratio = protein amount g × 16.74 kJ / g 4 kcal / g ÷ total food energy kJ kcal × 100, and wherein the fat energy ratio is from 20 % to 30 % and calculated as fat energy ratio = fat amount g × 37.66 kJ / g 9 kcal / g ÷ total food energy kJ kcal × 100, and wherein the proteins derived from quark account for 30 weight % or more of the proteins in the composition. a) is prepared using a quark, b) comprises edible carbohydrates, proteins, and fats, c) has a pH of 4.6 or less, and d) is prepared as a homogeneous mixture,
A medical device (10; 500) for delivering thermal energy to a wall of a tissue of a patient, comprising: an elongate member having a lumen extending at least partially between a proximal end and a distal end of the elongate member; a plurality of legs (16; 516) coupled to a distal portion of the elongate member so as to form a basket distally of the elongate member, wherein each of the legs includes one or more electrodes configured to be brought in contact with a tissue surface; a distal end piece (18; 518) connected to each of the plurality of legs (16; 516) and located distally to the distal end of the elongate member; an actuating member (22; 522) coupled to the distal end piece (18; 518) and extending between the plurality of legs (16; 516) and through the lumen, wherein reciprocal movement of the actuating member (22; 522) is configured to reversibly move the plurality of legs (16; 516) from a first position to a second position; and a stopping member (201; 504) coupled to the actuating member (22; 522) and configured to limit a movement of the actuating member (22; 522), wherein at least a portion of the stopping member (201; 504) is disposed within the distal end piece (18; 518), wherein the stopping member (201; 504) defines a lumen configured to receive a portion of the actuating member (22; 522), and wherein the actuating member (22; 522) further includes a protrusion (202; 502) disposed at a distal end of the actuating member (22; 522), the protrusion (202; 502) being configured to compress the stopping member (201; 504). an elongate member having a lumen extending at least partially between a proximal end and a distal end of the elongate member; a plurality of legs (16; 516) coupled to a distal portion of the elongate member so as to form a basket distally of the elongate member, wherein each of the legs includes one or more electrodes configured to be brought in contact with a tissue surface; a distal end piece (18; 518) connected to each of the plurality of legs (16; 516) and located distally to the distal end of the elongate member; an actuating member (22; 522) coupled to the distal end piece (18; 518) and extending between the plurality of legs (16; 516) and through the lumen, wherein reciprocal movement of the actuating member (22; 522) is configured to reversibly move the plurality of legs (16; 516) from a first position to a second position; and a stopping member (201; 504) coupled to the actuating member (22; 522) and configured to limit a movement of the actuating member (22; 522), wherein at least a portion of the stopping member (201; 504) is disposed within the distal end piece (18; 518), wherein the stopping member (201; 504) defines a lumen configured to receive a portion of the actuating member (22; 522), and wherein the actuating member (22; 522) further includes a protrusion (202; 502) disposed at a distal end of the actuating member (22; 522), the protrusion (202; 502) being configured to compress the stopping member (201; 504).
A chair comprising: swinging surfaces (312a, 322a) facing each other, the swinging surfaces (312a, 322a) swinging with respect to each other in a direction of 360 degrees including front-rear and left-right directions, wherein an elastic member is arranged between the swinging surfaces (312a, 322a) at least in a vicinity of outer peripheral edges (312z, 322z) of the swinging surfaces (312a, 322a), and a stretchable sheet material is provided between the outer peripheral edges (312z, 322z) to conceal a gap between the swinging surfaces (312a, 322a) facing each other, the gap including the elastic member; characterized in that grooves (312x, 322x) that extend along the outer peripheral edges (312z, 322z) of the swinging surfaces (312a, 322a) facing each other and open in opposite directions are provided in the vicinity of the outer peripheral edges (312z, 322z) of the swinging surfaces (312a, 322a), a cover member is formed by attaching deformable strips (61, 62) to edge portions of the stretchable sheet material, and the strips (61, 62) are pushed into the grooves (312x, 322x) to conceal the gap between the swinging surfaces (312a, 322a) facing each other by the cover member. swinging surfaces (312a, 322a) facing each other, the swinging surfaces (312a, 322a) swinging with respect to each other in a direction of 360 degrees including front-rear and left-right directions, wherein an elastic member is arranged between the swinging surfaces (312a, 322a) at least in a vicinity of outer peripheral edges (312z, 322z) of the swinging surfaces (312a, 322a), and a stretchable sheet material is provided between the outer peripheral edges (312z, 322z) to conceal a gap between the swinging surfaces (312a, 322a) facing each other, the gap including the elastic member;
A device (10, 100, 200, 300, 400) for closing an aperture in a vessel wall, the aperture having an external opening in an external region of the vessel wall and an internal opening in an internal region of the vessel wall, the device comprising: a covering member (40, 140, 240, 340, 440) having a longitudinal axis and positionable inside the vessel against the internal opening of the aperture, the covering member having a dimension to prevent egress of fluid through the aperture; a securing member (20, 120, 220, 320, 420) positionable external of the vessel; and a flexible connecting member (30, 32, 130, 132, 230, 232, 330, 332, 430, 432) operatively connecting the covering member and the securing member, the flexible connecting member moving the securing member toward the covering member, wherein the covering member has first and second openings (44a, 44b, 46a, 46b, 144a, 144b, 146a, 146b, 244a, 244b, 246a, 246b, 344a, 344b, 346a, 346b, 444a, 444b), the flexible connecting member extending through the first and second openings, the first opening (44b, 46b, 144b, 146b, 244b, 246b, 344b, 346b, 444b) being dimensioned to frictionally engage with the flexible connecting member so that tension can be applied to the flexible connecting member whereby the flexible connecting member can be pulled through the opening if sufficient force is applied by pulling on a free end thereof but remains frictionally engaged within the opening if such sufficient force is not applied to retain the position of the securing member with respect to the covering member, and the second opening (44a, 46a, 144a, 146a, 244a, 246a, 344a, 346a, 444a) being dimensioned to receive the flexible connecting member for free unrestricted movement of the flexible connecting member therethrough, wherein the securing member has a plurality of pores extending therethrough.