mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a wireless communication device, the method comprising: obtaining one or more MsgA Physical Uplink Shared Channel, PUSCH, configurations for two-step random access, the one or more MsgA PUSCH configurations comprising a MsgA PUSCH configuration that comprises a PUSCH occasion, PO, for two-step random access that at least partially overlaps a guard band between two adjacent subbands; selecting the PO that at least partially overlaps the guard band between the two adjacent subbands for a MsgA transmission for a two-step random access procedure; determining that the MsgA transmission using the selected PO that at least partially overlaps the guard band between the two adjacent subbands is allowable; and upon determining that the MsgA transmission using the selected PO is allowable, performing the MsgA transmission for the two-step random access procedure, the MsgA transmission comprising a MsgA PUSCH payload transmitted in the PO that at least partially overlaps the guard band. obtaining one or more MsgA Physical Uplink Shared Channel, PUSCH, configurations for two-step random access, the one or more MsgA PUSCH configurations comprising a MsgA PUSCH configuration that comprises a PUSCH occasion, PO, for two-step random access that at least partially overlaps a guard band between two adjacent subbands; selecting the PO that at least partially overlaps the guard band between the two adjacent subbands for a MsgA transmission for a two-step random access procedure; determining that the MsgA transmission using the selected PO that at least partially overlaps the guard band between the two adjacent subbands is allowable; and upon determining that the MsgA transmission using the selected PO is allowable, performing the MsgA transmission for the two-step random access procedure, the MsgA transmission comprising a MsgA PUSCH payload transmitted in the PO that at least partially overlaps the guard band.
Tapped insert for cylindrical plain bore of a part A, comprising a cylindrical body, characterized in that said cylindrical body comprises an inner bore of frusto-conical shape, and at least one longitudinal slot (12, 12') extending into the cylindrical body and communicating with said frusto-conical inner bore and wherein the tapped insert also comprises a core of frusto-conical shape complementary with said frusto-conical inner bore of the cylindrical body, said core comprising a inner tapped aperture, said cylindrical body and said core being such that said tapped insert can be holded in position and locked in said cylindrical bore to equip said cylindrical bore with an inner taping, characterized in that said cylindrical body also includes a tapped inner wall portion at one end of said frusto-conical inner bore, opposite the large base of said frusto-conical inner bore.
A rack for launching a payload, the rack comprising: multiple rails (40, 48, 50) that separately engage payload lugs (52, 54, 102) received in respective of the rails; and a force actuator, said force actuator launching the payload by accelerating the payload along the rails, causing the payload lugs to separate from the respective rails. multiple rails (40, 48, 50) that separately engage payload lugs (52, 54, 102) received in respective of the rails; and a force actuator, said force actuator launching the payload by accelerating the payload along the rails, causing the payload lugs to separate from the respective rails.
A method for sending a reference signal, comprising: determining, based on a resource that is allocated to a reference signal in a basic pattern corresponding to the reference signal and a resource that is allocated to at least one basic pattern in a physical layer transmission unit, a resource occupied by the reference signal in the physical layer transmission unit; and sending the reference signal through the determined resource; wherein the method further comprises: sending information that indicates the resource that is allocated to the at least one basic pattern in the physical layer transmission unit, and the information is sent through radio resource control, RRC, signaling. determining, based on a resource that is allocated to a reference signal in a basic pattern corresponding to the reference signal and a resource that is allocated to at least one basic pattern in a physical layer transmission unit, a resource occupied by the reference signal in the physical layer transmission unit; and sending the reference signal through the determined resource; wherein the method further comprises: sending information that indicates the resource that is allocated to the at least one basic pattern in the physical layer transmission unit, and the information is sent through radio resource control, RRC, signaling.
A submersible habitat chamber providing a contained environment for repairing subsea cable, the habitat chamber comprising first and second shell parts (28,30) assembled to at least partly define the contained environment in which the cable repair can take place, a first seal provided between the first and second shell parts (28,30), a cable seal provided for engagement with the cable received, in use, within the habitat, and at least one access port through at least one of the shell parts to allow a user to access the contained environment from outside the habitat and thus allow access to a cable section for repair, wherein the habitat further comprises purging means, washing means and/or drying means and, characterised in that the habitat chamber comprises one or more compressible cable seals which allows for the creation of a pressure-controlled environment wherein the habitat chamber is provided with differential pressure control means, wherein said differential pressure control means permits the contained environment to be maintained at a target differential pressure from about 0Pa to about 10000Pa greater than the external pressure at the depth at which the submersible habitat chamber is positioned during subsea cable repair.
A refrigerator comprising at least one compartment wherein foods and/or beverages are placed; a door that closes the compartment and that allows access into the compartment if required; a storage container that preserves foods such as vegetable, fruit, meat, etc. and a handle that is disposed on the door and that provides the opening of the door, characterized by an air duct that extends from inside the handle to the storage container and that allows the air transfer from the storage container into the handle, a vacuum pump that is arranged on the handle, that is connected to a suction port at the inlet of the air duct, and that vacuums the air inside the storage container, and at least one sensor that is disposed inside the handle and that measures the gas concentration in the air sucked from the storage container into the handle.
Pillar suitable in and determined for a machine handling and/or processing logs with a lower part and an upper part, wherein the lower part is designed to be brought in contact with the rotary drive and to hold the pillar in a cantilever fashion in a structure and the upper part is designed to receive a portion of a boom, characterized in that the lower part and the upper part are connected to each other releasably and are provided with flanges (76, 78) in their abutting area, wherein the flanges (76, 78) have the same or substantially the same diameter.
Heat exchanger for indirect heat transfer between a first medium and a second medium, with: - a shell, which has a shell space for receiving a liquid phase of the first medium, and - at least one heat exchanger block, which has first heat transfer passages for receiving the first medium and second heat transfer passages (P') for receiving the second medium, so that heat can be transferred indirectly between the two media (M1, M2), wherein the at least one heat exchanger block is arranged in the shell space in such a way that it can be surrounded by a liquid phase of the first medium that is located in the shell space, characterized in that a plurality of cylindrical channels for conducting the liquid phase of the first medium that run parallel to one another are provided in the shell space laterally in relation to the at least one heat exchanger block (4, 5). - a shell, which has a shell space for receiving a liquid phase of the first medium, and - at least one heat exchanger block, which has first heat transfer passages for receiving the first medium and second heat transfer passages (P') for receiving the second medium, so that heat can be transferred indirectly between the two media (M1, M2), wherein the at least one heat exchanger block is arranged in the shell space in such a way that it can be surrounded by a liquid phase of the first medium that is located in the shell space,
A method of mass-transferring a micro-pattern on a stent comprising: providing a metal electrode having an outer diameter capable of accommodating a non-conducting mask thereupon; coating the outer diameter of the metal electrode with the non-conducting mask to form a masked electrode; defining the micro-pattern on an outer diameter of the masked electrode; mounting the stent on the masked electrode, wherein an inner diameter of the stent is in contact with the outer diameter of the masked electrode; and transferring the micro-pattern onto the inner diameter of the stent through electrochemical micromachining including the step of flowing an electrolyte solution from the masked electrode to the inner diameter of the stent. providing a metal electrode having an outer diameter capable of accommodating a non-conducting mask thereupon; coating the outer diameter of the metal electrode with the non-conducting mask to form a masked electrode; defining the micro-pattern on an outer diameter of the masked electrode; mounting the stent on the masked electrode, wherein an inner diameter of the stent is in contact with the outer diameter of the masked electrode; and transferring the micro-pattern onto the inner diameter of the stent through electrochemical micromachining including the step of flowing an electrolyte solution from the masked electrode to the inner diameter of the stent.
A stacking apparatus comprising: a rotating stage unit on which a first material to be stacked is placed in a first position and a second material to be stacked is placed in a second position; a first sandwiching member that is vertically movable with respect to the rotating stage unit in the first position, and between which and the rotating stage unit the first material to be stacked is sandwiched; a first press member that is vertically movable with respect to the first sandwiching member and presses the first material to be stacked; a first guide pin that guides a first stack pressed and stamped out of the first material to be stacked by the first press member; a second sandwiching member that is vertically movable with respect to the rotating stage unit in the second position, and between which and the rotating stage unit the second material to be stacked is sandwiched; a second press member that is vertically movable with respect to the second sandwiching member (21 and presses the second material to be stacked; and a second guide pin that guides a second stack pressed and stamped out of the second material to be stacked by the second press member, characterized in that the rotating stage unit has a guide base on which the first stack and the second stack stamped out and integrated are placed, and an actuator that vertically moves the guide base. a rotating stage unit on which a first material to be stacked is placed in a first position and a second material to be stacked is placed in a second position; a first sandwiching member that is vertically movable with respect to the rotating stage unit in the first position, and between which and the rotating stage unit the first material to be stacked is sandwiched; a first press member that is vertically movable with respect to the first sandwiching member and presses the first material to be stacked; a first guide pin that guides a first stack pressed and stamped out of the first material to be stacked by the first press member; a second sandwiching member that is vertically movable with respect to the rotating stage unit in the second position, and between which and the rotating stage unit the second material to be stacked is sandwiched; a second press member that is vertically movable with respect to the second sandwiching member (21 and presses the second material to be stacked; and a second guide pin that guides a second stack pressed and stamped out of the second material to be stacked by the second press member, characterized in that the rotating stage unit has a guide base on which the first stack and the second stack stamped out and integrated are placed, and an actuator that vertically moves the guide base.
A one-piece roof bow for a commercial vehicle or trailer superstructure, which is formed by reshaping of a sheet metal component, comprising: - an elongate middle portion with a first bead extending in the longitudinal direction of the middle portion, the elongate middle portion having a first cross-sectional profile perpendicular to the longitudinal direction, and - two mounting portions for mounting on the commercial vehicle or trailer superstructure, which mounting portions are formed integrally with the middle portion on the two ends of the middle portion, each of the two mounting portions comprising: a) a first section facing the middle portion and, in comparison with the first cross-sectional profile, having a flatter second cross-sectional profile perpendicular to the longitudinal direction of the middle portion, and b) a second section facing away from the middle portion and bent substantially perpendicular to the longitudinal direction of the middle portion in the opposite direction of the first bead, characterized in that the first cross-sectional profile is substantially Omega-shaped, and a width of the first cross-sectional profile increases from the ends of the middle portion in the longitudinal direction toward the center of the middle portion by at least 10 mm. - an elongate middle portion with a first bead extending in the longitudinal direction of the middle portion, the elongate middle portion having a first cross-sectional profile perpendicular to the longitudinal direction, and - two mounting portions for mounting on the commercial vehicle or trailer superstructure, which mounting portions are formed integrally with the middle portion on the two ends of the middle portion, each of the two mounting portions comprising: a) a first section facing the middle portion and, in comparison with the first cross-sectional profile, having a flatter second cross-sectional profile perpendicular to the longitudinal direction of the middle portion, and b) a second section facing away from the middle portion and bent substantially perpendicular to the longitudinal direction of the middle portion in the opposite direction of the first bead, a) a first section facing the middle portion and, in comparison with the first cross-sectional profile, having a flatter second cross-sectional profile perpendicular to the longitudinal direction of the middle portion, and b) a second section facing away from the middle portion and bent substantially perpendicular to the longitudinal direction of the middle portion in the opposite direction of the first bead, the first cross-sectional profile is substantially Omega-shaped, and a width of the first cross-sectional profile increases from the ends of the middle portion in the longitudinal direction toward the center of the middle portion by at least 10 mm.
A two-component polyurethane composition comprising, an emulsion polymer comprising, by weight based on the weight of the emulsion polymer, (a) greater than 15% to less than 30% of structural units of tert-butyl methacrylate, (b) greater than 10% of structural units of a hydroxy-functional alkyl (meth)acrylate, (c) structural units of a phosphorous-containing acid monomer and/or a salt thereof, (d) structural units of an additional acid monomer and/or a salt thereof, and (e) structural units of an additional monoethylenically unsaturated nonionic monomer; wherein the weight ratio of (d)/(c) is in the range of from 7.1:1 to 9.9: 1; and a water-dispersible polyisocyanate. an emulsion polymer comprising, by weight based on the weight of the emulsion polymer, (a) greater than 15% to less than 30% of structural units of tert-butyl methacrylate, (b) greater than 10% of structural units of a hydroxy-functional alkyl (meth)acrylate, (c) structural units of a phosphorous-containing acid monomer and/or a salt thereof, (d) structural units of an additional acid monomer and/or a salt thereof, and (e) structural units of an additional monoethylenically unsaturated nonionic monomer; wherein the weight ratio of (d)/(c) is in the range of from 7.1:1 to 9.9: 1; and (a) greater than 15% to less than 30% of structural units of tert-butyl methacrylate, (b) greater than 10% of structural units of a hydroxy-functional alkyl (meth)acrylate, (c) structural units of a phosphorous-containing acid monomer and/or a salt thereof, (d) structural units of an additional acid monomer and/or a salt thereof, and (e) structural units of an additional monoethylenically unsaturated nonionic monomer; a water-dispersible polyisocyanate.
A method for distributing a storage object in a distributed resources system, the method comprising: retrieving a resource usage status of each of a plurality of resource types in each of a plurality of resource containers (505, 510, 515), as published by each node of the distributed resources system; identifying one or more candidate resource containers (605, 610, 615) within each node based on the resource usage statuses, wherein each candidate resource container (605, 610, 615) has an original variance among the resource usage statuses of the plurality of resource types; determining, for each said candidate resource container (605, 610, 615), an expected variance among the resource usage statuses that would result if the storage object were to be placed therein, wherein the storage object has a workload that consumes the plurality of resource types; and placing the storage object in one of said candidate resource containers (605, 610, 615) that minimizes an increase in the expected variance over the original variance. retrieving a resource usage status of each of a plurality of resource types in each of a plurality of resource containers (505, 510, 515), as published by each node of the distributed resources system; identifying one or more candidate resource containers (605, 610, 615) within each node based on the resource usage statuses, wherein each candidate resource container (605, 610, 615) has an original variance among the resource usage statuses of the plurality of resource types; determining, for each said candidate resource container (605, 610, 615), an expected variance among the resource usage statuses that would result if the storage object were to be placed therein, wherein the storage object has a workload that consumes the plurality of resource types; and placing the storage object in one of said candidate resource containers (605, 610, 615) that minimizes an increase in the expected variance over the original variance.
A monoclonal antibody that is capable of specifically binding to lectin-like transcript, wherein the heavy chain of said antibody comprises: - a CDR1 sequence of amino acids 31 to 35 which are DYYMH of SEQ ID NO: 10 and - a CDR2 sequence of amino acids 50 to 66 which are WIDPENGDTEYAPKFQG of SEQ ID NO: 10 and - a CDR3 sequence of amino acids 98 to 109 which are EIITTTAWFTY of SEQ ID NO 10 and wherein the light chain of said antibody comprises: - a CDR1 sequence of amino acids 24 to 40 which are KSSQSLLYTNGKTYLNW of SEQ ID NO: 13 and - a CDR2 sequence of amino acids 56 to 62 which are VSKLDSG of SEQ ID NO: 13 and - a CDR3 sequence of amino acids 94 to 102 which are LQNTHFPHT of SEQ ID NO: 13. - a CDR1 sequence of amino acids 31 to 35 which are DYYMH of SEQ ID NO: 10 and - a CDR2 sequence of amino acids 50 to 66 which are WIDPENGDTEYAPKFQG of SEQ ID NO: 10 and - a CDR3 sequence of amino acids 98 to 109 which are EIITTTAWFTY of SEQ ID NO 10 and wherein the light chain of said antibody comprises: - a CDR1 sequence of amino acids 24 to 40 which are KSSQSLLYTNGKTYLNW of SEQ ID NO: 13 and - a CDR2 sequence of amino acids 56 to 62 which are VSKLDSG of SEQ ID NO: 13 and - a CDR3 sequence of amino acids 94 to 102 which are LQNTHFPHT of SEQ ID NO: 13.
Cosmetic dermatological or pharmaceutical composition intended to be administered by topical means comprising in a physiological acceptable medium the combination of: a) at least a peptide selected among the following peptides or their mixture: H-Gly-His-Lys-OH, H-Gly-His-Lys-NH2, Ac-Gly-His-Lys-OH, Ac-Gly-His-Lys-NH2 b) camelina oil, the content in camelina oil (b) being comprised between 1 and 20% in weight with respect to the total weight of the composition and the content in peptide (a) being comprised between 10 -8 M and 10 -2 M. a) at least a peptide selected among the following peptides or their mixture: H-Gly-His-Lys-OH, H-Gly-His-Lys-NH2, Ac-Gly-His-Lys-OH, Ac-Gly-His-Lys-NH2 H-Gly-His-Lys-OH, H-Gly-His-Lys-NH2, Ac-Gly-His-Lys-OH, Ac-Gly-His-Lys-NH2 b) camelina oil,
A method of performing a task at a subsea location, the method comprising: positioning a unit (50; 68) to perform the task, the unit (50; 68) then being in a shadow region where wireless control signals from a subsea control transmitter are obscured by a subsea obstacle; transmitting control signals wirelessly through water from the control transmitter to an autonomous underwater vehicle (30; 66) positioned outside the shadow region; relaying the control signals from the AUV (30; 66) to the unit to control the unit (50; 68) to perform the task; monitoring signal quality of the control signals transmitted wirelessly from the control transmitter to the AUV (30; 66); and moving the AUV (30; 66) to improve the signal quality of the control signals. positioning a unit (50; 68) to perform the task, the unit (50; 68) then being in a shadow region where wireless control signals from a subsea control transmitter are obscured by a subsea obstacle; transmitting control signals wirelessly through water from the control transmitter to an autonomous underwater vehicle (30; 66) positioned outside the shadow region; relaying the control signals from the AUV (30; 66) to the unit to control the unit (50; 68) to perform the task; monitoring signal quality of the control signals transmitted wirelessly from the control transmitter to the AUV (30; 66); and moving the AUV (30; 66) to improve the signal quality of the control signals.
A compound which is selected from the group consisting of: 5-O-α-D-glucopyranosyl-(-)-epigallocatechin-3-O-gallate; 7-O-(4-O-α-D-glucopyranosyl-α-D-glucopyranosyl)-(-)-epigallocatechin-3-O-gallate; 4'-O - (4-O-α-D-glucopyranosyl-α-D-glucopyranosyl)-(+)-catechin; 3'-O-(4-O-α-D-glucopyranosyl-α-D-glucopyranosyl)-(+)-catechin; and 3'-O-(4-O-α-D-glueopyraposyl-α-D-glucopyranosyl)-(-)-epigalloeatechin-3-O-gallate. 5-O-α-D-glucopyranosyl-(-)-epigallocatechin-3-O-gallate; 7-O-(4-O-α-D-glucopyranosyl-α-D-glucopyranosyl)-(-)-epigallocatechin-3-O-gallate; 4'-O - (4-O-α-D-glucopyranosyl-α-D-glucopyranosyl)-(+)-catechin; 3'-O-(4-O-α-D-glucopyranosyl-α-D-glucopyranosyl)-(+)-catechin; and 3'-O-(4-O-α-D-glueopyraposyl-α-D-glucopyranosyl)-(-)-epigalloeatechin-3-O-gallate.