mhurhangee/ep-ind-claims huggingface dataset:
A feeding device for feeding a developer along a first feeding path and a second feeding path, comprising: a first feeding member rotatable around a first rotational axis and for feeding the developer in a feeding direction along a direction of said first rotational axis, said first feeding member being provided in the first feeding path and including a driving shaft (86b1) and a drive transmitting portion; and a second feeding member rotatable around a second rotational axis and for feeding the developer along a direction of said second rotational axis crossing the direction of said first rotational axis, and said second feeding member being provided in the second feeding path and including a driven shaft (87b1) and a drive receiving portion; and a bearing portion for rotatably supporting said second feeding member, wherein said drive transmitting portion and said drive receiving portion engage with each other so as to enable delivery of the developer from said first feeding member to said second feeding member while transmitting a driving force of said first feeding member to said second feeding member, characterized in that as seen in a direction of an axis perpendicular to each of the first rotational axis and the second rotational axis, said drive transmitting portion is disposed in one side with respect to said second rotational axis, and said bearing portion is configured to partly support said second feeding member so that as seen in the direction of the axis, the second feeding member is supported by said bearing portion in the other side with respect to said second rotational axis. a first feeding member rotatable around a first rotational axis and for feeding the developer in a feeding direction along a direction of said first rotational axis, said first feeding member being provided in the first feeding path and including a driving shaft (86b1) and a drive transmitting portion; and a second feeding member rotatable around a second rotational axis and for feeding the developer along a direction of said second rotational axis crossing the direction of said first rotational axis, and said second feeding member being provided in the second feeding path and including a driven shaft (87b1) and a drive receiving portion; and a bearing portion for rotatably supporting said second feeding member, wherein said drive transmitting portion and said drive receiving portion engage with each other so as to enable delivery of the developer from said first feeding member to said second feeding member while transmitting a driving force of said first feeding member to said second feeding member, characterized in that as seen in a direction of an axis perpendicular to each of the first rotational axis and the second rotational axis, said drive transmitting portion is disposed in one side with respect to said second rotational axis, and said bearing portion is configured to partly support said second feeding member so that as seen in the direction of the axis, the second feeding member is supported by said bearing portion in the other side with respect to said second rotational axis.
A method performed by a mobile device, said method comprising: receiving configuration information on physical resources in a wireless communication system, wherein the physical resources are configured into a first part and a second part, the first part comprising one or more allocation units for control information, depending on an aggregation level of resource elements, and data, and the second part comprising one or more allocation units for data; receiving downlink control information in the first part and data transmission; and based on the received downlink control information, deriving an allocation for the data transmission in the first part based on an allocation for the data transmission in the second part and on an allocation for the control information in the first part. receiving configuration information on physical resources in a wireless communication system, wherein the physical resources are configured into a first part and a second part, the first part comprising one or more allocation units for control information, depending on an aggregation level of resource elements, and data, and the second part comprising one or more allocation units for data; receiving downlink control information in the first part and data transmission; and based on the received downlink control information, deriving an allocation for the data transmission in the first part based on an allocation for the data transmission in the second part and on an allocation for the control information in the first part.
A population of SDC2+ stromal stem cells treated with a CDC50A inhibitory nucleic acid for use in inducing M2 phenotype polarization of monocytes and macrophages in a patient in need thereof.
A communication method, comprising: establishing (S101, S401, S501, S601, S801, S901) a secondary cell in communication connection with a primary cell, the method is characterized by that the number of channels for transmitting system information in the secondary cell is less than a preset threshold, such that the secondary cell is not able to send a sufficient amount of the system information to User Equipment, UE, and the secondary cell does not accept direct access of the UE, wherein the system information comprises broadcast information, access information and control information; selecting (S102, S402, S502, S602, S802, S902), from UEs connected to the primary cell, target UE which satisfies a preset condition, wherein the target UE which satisfies the preset condition is a UE a priority of which is higher than a preset priority or data traffic of which is greater than a preset traffic value, or a UE with a usage duration greater than a preset duration; and establishing (S103, S503, S603, S803, S903) communication connection between the target UE and the secondary cell, such that channels originally used for transmitting the system information in the secondary cell transmit network services of the target UE. establishing (S101, S401, S501, S601, S801, S901) a secondary cell in communication connection with a primary cell, the method is characterized by that the number of channels for transmitting system information in the secondary cell is less than a preset threshold, such that the secondary cell is not able to send a sufficient amount of the system information to User Equipment, UE, and the secondary cell does not accept direct access of the UE, wherein the system information comprises broadcast information, access information and control information; selecting (S102, S402, S502, S602, S802, S902), from UEs connected to the primary cell, target UE which satisfies a preset condition, wherein the target UE which satisfies the preset condition is a UE a priority of which is higher than a preset priority or data traffic of which is greater than a preset traffic value, or a UE with a usage duration greater than a preset duration; and establishing (S103, S503, S603, S803, S903) communication connection between the target UE and the secondary cell, such that channels originally used for transmitting the system information in the secondary cell transmit network services of the target UE.
A process for producing a microbial storage compound from a feed stream containing readily biodegradable chemical oxygen demand (RBCOD) at a level of at least 250 mg/l, and ammonia at a level which is at least 0.2 g N per g RBCOD, comprising: (a) subjecting the feed stream to storage compound-accumulating microorganisms (SCAM) in the presence of dissolved oxygen, while adding carbon dioxide as necessary for maintaining a pH below 9, in one or more stages, to produce SCAM which contain MSC at a level of at least 50 wt.% based on dry weight of the organic part of the microorganisms, and RBCOD-depleted wastewater; (b) separating at least a part of the SCAM containing MSC produced in step (a) from the RBCOD-depleted wastewater; (c) optionally returning a part of the SCAM separated in step (b) to step (a). (d) subjecting at least a part of the RBCOD-depleted wastewater to ammonia-oxidising microorganisms in the presence of dissolved oxygen to produce RBCOD-depleted and ammonia-depleted wastewater, and a gas containing molecular carbon dioxide; (e) feeding at least a part of said gas containing carbon dioxide to step (a); and (f) harvesting at least a part of the SCAM separated in step (b), wherein the microbial storage compound comprises a polyhydroxyalkanoate and wherein the storage compound-accumulating microorganisms (SCAM) comprise PHA-accumulating micro-organisms. (a) subjecting the feed stream to storage compound-accumulating microorganisms (SCAM) in the presence of dissolved oxygen, while adding carbon dioxide as necessary for maintaining a pH below 9, in one or more stages, to produce SCAM which contain MSC at a level of at least 50 wt.% based on dry weight of the organic part of the microorganisms, and RBCOD-depleted wastewater; (b) separating at least a part of the SCAM containing MSC produced in step (a) from the RBCOD-depleted wastewater; (c) optionally returning a part of the SCAM separated in step (b) to step (a). (d) subjecting at least a part of the RBCOD-depleted wastewater to ammonia-oxidising microorganisms in the presence of dissolved oxygen to produce RBCOD-depleted and ammonia-depleted wastewater, and a gas containing molecular carbon dioxide; (e) feeding at least a part of said gas containing carbon dioxide to step (a); and (f) harvesting at least a part of the SCAM separated in step (b), wherein the microbial storage compound comprises a polyhydroxyalkanoate and wherein the storage compound-accumulating microorganisms (SCAM) comprise PHA-accumulating micro-organisms.
Device for manufacturing a pre-suspended wall or ceiling cladding with a singly or multiply curved wall or ceiling surface comprising a first component for directly or indirectly fastening to a building substrate as well as at least one further component, which is connected or connectable to the first component, for directly or indirectly receiving a planar wall or ceiling cladding element, wherein the first component and the further component interact to form a joint so that the further component can be turned or pivoted vis-à-vis the first component characterised in that the first component is designed as a flat and/or elongated body with at least one marginal recess which is undercut to form two peg-like sections, and the further component comprises two legs arranged in parallel to each other in each of which a bush-like recess for receiving the two peg-like sections of the first component is formed, which jointly form a pivot bearing for the further component.
A non-oriented electrical steel sheet having a chemical composition consisting of, by mass%, C: 0.005 % or less, Si: more than 3.5 % and 4.5 % or less, Mn: 0.01 % or more and 0.10 % or less, Al: 0.005 % or less, Ca: 0.0010 % or more and 0.0050 % or less, S: 0.0030 % or less, and N: 0.0030 % or less, Ca/S being 0.80 or more, optionally at least one selected from the group consisting of Sb: 0.005 % or more and 0.2 % or less, Sn: 0.005 % or more and 0.2 % or less, P: 0.01 % or more and 0.2 % or less, Mo: 0.005 % or more and 0.10 % or less, B: 0.0002 % or more and 0.002 % or less, and Cr: 0.05 % or more and 0.5 % or less and the balance being Fe and incidental impurities, and having a final sheet thickness of 0.40 mm or less, a non-recrystallized deformed microstructure of 10 % or more and 70 % or less, a tensile strength of 600 MPa or more, and an iron loss W 10/400 of 30 W/kg or less, characterized in that the variation in tensile strength of the electrical steel sheet in the direction orthogonal to the rolling direction is 2σ ≤ 15 MPa.
A baseplate for a power module, comprising: - a lower part that is configured to be in contact with a coolant during operation of the power module, - an upper part that is coupled to the lower part, and - a cooling structure formed at the lower part facing away from the upper part, wherein the cooling structure comprises a surface with a given surface structure (13, 14) including a mean roughness RA > 1 μm and a plurality of protrusions with a rectangular or triangular edged shape with respect to a cross section perpendicular to a surface normal and with a respective height of 2 μm or more with respect to the surface normal perpendicular to the surface of the cooling structure, wherein the cooling structure further comprises at least one of a plurality of cooling pin-fins and cooling ribs, and wherein the upper part comprises a bottom surface facing the lower part and the given surface structure (13, 14) is formed on the bottom surface and on at least one of the pin-fins and the ribs. - a lower part that is configured to be in contact with a coolant during operation of the power module, - an upper part that is coupled to the lower part, and - a cooling structure formed at the lower part facing away from the upper part, wherein the cooling structure comprises a surface with a given surface structure (13, 14) including a mean roughness RA > 1 μm and a plurality of protrusions with a rectangular or triangular edged shape with respect to a cross section perpendicular to a surface normal and with a respective height of 2 μm or more with respect to the surface normal perpendicular to the surface of the cooling structure, wherein the cooling structure further comprises at least one of a plurality of cooling pin-fins and cooling ribs, and wherein the upper part comprises a bottom surface facing the lower part and the given surface structure (13, 14) is formed on the bottom surface and on at least one of the pin-fins and the ribs.
Method of integrating a communication partner via hub which has three ports each comprising a transmitter and a receiver into a grid-bound communication network with full duplex communication channels between the ports of the hub and the communication partner and neighbouring hubs, wherein each message (14, 15) which is received at one of the three ports by the local receiver is, according to predetermined rules, forwarded to the other ports whose transmitters transmit the forwarded message (14, 15), characterised in - that the rules according to which each message received at one of the ports of the hub is forwarded to the other ports are no such rules which are related to the content of the respective message (14, 15) but exclusively such rules which are related to the condition of the hub at the beginning of the reception of the respective message (14, 15), - that, according to the rules, no message (14, 15) is forwarded to any of the other ports, whose transmitter already transmits at the beginning of the reception of the respective message (14, 15) at the one port, and - that, according to the rules, each message (14, 15) is forwarded to each of the other ports, whose transmitter does not transmit at the beginning of the reception of the respective message (14, 15) at the one port. - that the rules according to which each message received at one of the ports of the hub is forwarded to the other ports are no such rules which are related to the content of the respective message (14, 15) but exclusively such rules which are related to the condition of the hub at the beginning of the reception of the respective message (14, 15), - that, according to the rules, no message (14, 15) is forwarded to any of the other ports, whose transmitter already transmits at the beginning of the reception of the respective message (14, 15) at the one port, and - that, according to the rules, each message (14, 15) is forwarded to each of the other ports, whose transmitter does not transmit at the beginning of the reception of the respective message (14, 15) at the one port.
An in vitro method for inducing apoptosis in a cell infected with Human Immunodeficiency Virus-1 (HIV-1), the method comprising: elevating levels of full-length lincRNA-p21 in the cell by transfecting the cell with full-length lincRNAp21; and inducing localisation of hnRNP-K to the nucleus of the cell by inhibiting HDM2, MAP2K1 or ERK2; wherein in response to a double stranded break in the cell's DNA, caused by the infection with the HIV-1, lincRNA-p21 associates with hnRNP-K in the nucleus and induces apoptosis in the cell. elevating levels of full-length lincRNA-p21 in the cell by transfecting the cell with full-length lincRNAp21; and inducing localisation of hnRNP-K to the nucleus of the cell by inhibiting HDM2, MAP2K1 or ERK2;
An optical system mountable to an optical apparatus, comprising a negative lens disposed furthest away on an enlargement conjugation side; wherein the following conditions are satisfied: Ndn > 1.65, and θ gFn − 0.6438 − 0.001682 × ν dn > 0.010, where Ndn and vdn denote the index of refraction and Abbe number of a material of the negative lens for a d-line, respectively, and θgFn denotes a relative partial dispersion of the material of the negative lens for a g-line and an F-line; characterized in that also the following conditions are satisfied: 80 degrees < 2 ω, and 0.25 < tan θ / tan ω < 1.5, where 2ω denotes an angle of view of the optical system in degrees, and θ denotes a lens open angle of a surface of the negative lens on a reduction conjugation side, the lens open angle θ being defined as a maximum angle among angles formed by a surface normal to any surface portion (Ga) of the effective area of said lens surface and the optical axis (La) of said negative lens in case said lens surface is aspherical, and as θ = sin -1 (R/2r), where R denotes an effective diameter of said lens surface and r denotes a radius of curvature of said lens surface, in case said lens surface is spherical.
Encoder fastening comprising a drive shaft and an encoder system having an encoder shaft, wherein for connection purposes the encoder shaft can be partially inserted into the drive shaft, into a slide-in module provided therefor, and for fastening purposes a radially elastic element is arranged in the slide-in module, such that the connection is under radial tension, characterised in that a spring washer on which the radially elastic element is arranged is provided for installation in the slide-in module.
A sealing device (6, 60) adapted to be disposed between a reciprocating shaft and an inner peripheral surface of a shaft hole in which the reciprocating shaft is disposed, the sealing device (6, 60) separating an oil side from an atmosphere side, the sealing device (6, 60) comprising: an annular oil seal having an oil lip (13, 14, 15) adapted to be in slidable contact with the reciprocating shaft; an oil-side rigid ring made of a metal disposed around the oil seal and supporting the oil seal; an annular dust seal made of an elastomer and disposed on the atmosphere side of the oil seal, the annular dust seal having a dust lip adapted to be in slidable contact with the reciprocating shaft; and an atmosphere-side rigid ring made of a metal disposed around the dust seal and supporting the dust seal; characterized in that the annular oil seal is made of a resin having a glass transition temperature of 80 degrees Celsius or higher. an annular oil seal having an oil lip (13, 14, 15) adapted to be in slidable contact with the reciprocating shaft; an oil-side rigid ring made of a metal disposed around the oil seal and supporting the oil seal; an annular dust seal made of an elastomer and disposed on the atmosphere side of the oil seal, the annular dust seal having a dust lip adapted to be in slidable contact with the reciprocating shaft; and an atmosphere-side rigid ring made of a metal disposed around the dust seal and supporting the dust seal; characterized in that the annular oil seal is made of a resin having a glass transition temperature of 80 degrees Celsius or higher.
Pen for writing and/or drawing purposes, having a shaft and a core, which core is arranged within the shaft and is axially adjustable in a longitudinal direction of the shaft between an active position and an inoperative position, the core being arranged completely within the shaft in the inoperative position and protruding with an overhang from a front end of the shaft in the active position; and having an actuating element which is movable perpendicularly to the longitudinal direction of the shaft between an active position and an inoperative position and which is operatively connected to the core via a connecting element (12, 112, 212) in such a way that, during a movement of the actuating element perpendicularly to the longitudinal direction of the shaft between the inoperative position and the active position, the core is axially adjustable in the longitudinal direction of the shaft; wherein the connecting element (12, 112, 212) is rotatably mounted on the shaft in a central portion, a first end portion (26b, 226b) of the connecting element (12, 112, 212) is mounted on the actuating element, and a second end portion (28a, 26c, 226c) of the connecting element (12, 112, 212) is mounted directly or indirectly on the core, and the connecting element (12, 112, 212) comprises at least two connecting members (12a, 12b, 112a, 112b) which are each connected to one another in an articulated manner.
A compound having the structure: wherein b and c are each, independently, 0 or 1; Q 1 is R 9 is hydrogen, halo, hydroxyl, NH 2, optionally substituted C 1 -C 3 alkyl; R 10 is hydrogen or optionally substituted C 1 -C 4 alkyl; R 11 is hydrogen; or a pharmaceutically acceptable salt thereof. wherein b and c are each, independently, 0 or 1; Q 1 is R 9 is hydrogen, halo, hydroxyl, NH 2, optionally substituted C 1 -C 3 alkyl; R 10 is hydrogen or optionally substituted C 1 -C 4 alkyl; R 11 is hydrogen;
A method of purifying a target protein from a sample, comprising contacting the sample containing a tagged target protein to a support having immobilized thereon a protease inhibitor, wherein the protease inhibitor is ecotin, papaya Kunitz-type trypsin inhibitor, pepstatin A, leupeptin, Gly-Gly-Tyr-Arg, a2-macroglobulin, a2-antiplasmin, antithrombin III human, a1-antitrypsin, bdellin, pepsinostreptin, chymostatin, phosphoramidon, isoamylphosphonyl-Gly-L-Pro-L-Ala, or dipotassium 2 -2-mercaptomethyl-4-methylpentanoyl-beta-(2-naphthyl)-Ala-Ala amide, wherein the tagged target protein is an antibody covalently bound to a peptide tag and the peptide tag has specific binding activity for the protease inhibitor, wherein the peptide tag is a) derived from a protease, or b) a fragment of the protease that lacks the proteolysis activity of the protease, a mutant of the protease that lacks the proteolysis activity of the wildtype protease, or a fragment of the mutant, and wherein the contact is under conditions such that the protease inhibitor binds to the peptide tag; removing components of the sample that are not bound; and then removing the target protein from the support. a) derived from a protease, or b) a fragment of the protease that lacks the proteolysis activity of the protease, a mutant of the protease that lacks the proteolysis activity of the wildtype protease, or a fragment of the mutant, and