mhurhangee/patent-ind-claim-en huggingface dataset:
A solid-phase carrier, formed by binding a linear polymer, wherein the linear polymer comprises a random polymer structure containing a first structural unit having a reactive functional group, wherein the reactive functional group is a group being capable of reacting with a ligand for covalently binding the ligand, and a second structural unit having no reactive functional group or having a reactive functional group with a reactivity lower than that of the reactive functional group of the first structural unit, and a content ratio of the number of moles "a" of the reactive functional group contained in the first structural unit to the number of moles "b" of the entire structural unit contained in the linear polymer, (a/b) as determined according to the description, is from 0.01 to 0.7, wherein a content of the reactive functional group contained in the first structural unit per g of solid content in a solid-phase carrier, as determined according to the description, is 20 to 500 μmol, wherein one end of the linear polymer binds to the solid-phase carrier via a divalent linking group, and the divalent linking group is covalently bonded to a surface of the solid-phase carrier, and is also covalently bonded to the linear polymer, wherein the solid-phase carrier is in the form of particles having a volume average particle diameter of from 0.1 to 500 μm, wherein a molecular weight distribution (Mw/Mn) of the linear polymer, as determined according to the description, is 1.0 to 2.5, and wherein the specific surface area of the solid-phase carrier is from 1.0 to 2.0 m 2 /g.
A method implemented at a network device , comprising: allocating resource regions for uplink transmission of a data packet of a terminal device , the resource regions being distributed across a plurality of carriers and corresponding to consecutive transmission time intervals for transmitting the data packet; and transmitting information about the resource regions to the terminal device to enable the terminal device to perform uplink transmission of the data packet based on the information, wherein allocating resource regions for uplink transmission of a data packet of a terminal device comprises: allocating the resource regions based on a frequency hopping pattern defining positions of the resource regions, wherein the frequency hopping pattern includes one or more of: a number of resource regions in a carrier; a position of a resource region in a carrier; a size of a resource region in frequency domain; and a transmission time interval corresponding to a resource region; wherein the data packet is a Radio Link Control, RLC, Protocol Data Unit, PDU, the method further comprising: transmitting an uplink grant to the terminal device on each of the carriers, the uplink grant including a size of a transport block equal to or larger than a size of the data packet; and in response to successfully decoding a transport block received from the terminal device on one of the resource regions, acknowledging successful transmission in all the carriers. allocating resource regions for uplink transmission of a data packet of a terminal device , the resource regions being distributed across a plurality of carriers and corresponding to consecutive transmission time intervals for transmitting the data packet; and transmitting information about the resource regions to the terminal device to enable the terminal device to perform uplink transmission of the data packet based on the information, a number of resource regions in a carrier; a position of a resource region in a carrier; a size of a resource region in frequency domain; and a transmission time interval corresponding to a resource region; transmitting an uplink grant to the terminal device on each of the carriers, the uplink grant including a size of a transport block equal to or larger than a size of the data packet; and in response to successfully decoding a transport block received from the terminal device on one of the resource regions, acknowledging successful transmission in all the carriers.
The use of carnosine compounds corresponding to formula (I) where R1 is H or CH3 and R2 is H or COOH, or salts thereof; as stabilizers for emulsions.
Sowing element for precision agricultural seeders comprising a device for selecting the seed that includes: - a box-shaped body that is fixedly mounted on a frame of the sowing element and provided with an opening that is removably closed by a cover , - a perforated disc that is supported on the box-shaped body and has opposing faces which can be subject to a pressure differential, - a motorisation system for rotating the disc with respect to the box-shaped body , - a pressurisation device associated with said disc for applying said pressure differential to said faces , - said pressurisation device including a pressurisation bell combined with said disc so as to pneumatically couple thereto in order to guarantee said pressure differential, characterised in that said bell is idly rotatably supported on said cover , and is idly supported in said sowing element with respect to said disc , and wherein the motorisation system is kinematically connected to the disc and not to the bell , said bell being dragged into rotation by friction by the disc . - a box-shaped body that is fixedly mounted on a frame of the sowing element and provided with an opening that is removably closed by a cover , - a perforated disc that is supported on the box-shaped body and has opposing faces which can be subject to a pressure differential, - a motorisation system for rotating the disc with respect to the box-shaped body , - a pressurisation device associated with said disc for applying said pressure differential to said faces , - said pressurisation device including a pressurisation bell combined with said disc so as to pneumatically couple thereto in order to guarantee said pressure differential,
A printed circuit board having an electrical contact pad for electrically contacting a connector, the electrical contact pad being disposed on a circuit wafer of the printed circuit board , the electrical contact pad comprising: a first region connected to a trace , the first region having a first width (W1); and the printed circuit board has a bottom side ground plane , the printed circuit board has a top side ground plane ; and the bottom side ground plane overlaps the region where the trace enters the contact pad but not the contact pad itself, characterized in that the electrical contact pad includes: a second region adjacent to the first region that has a width (W2) less than the first region; and a third region adjacent to the second region that has a width (W3) that is greater than the second region, wherein the third region is sized to make contact with the connector, wherein the width (W2) of the second region being smaller than the respective widths (W1 and W3) of the first and third regions increases an impedance of the electrical contact pad ; the bottom side ground plane having a protruding portion that covers the trace up to it entering the contact pad. the electrical contact pad includes: a second region adjacent to the first region that has a width (W2) less than the first region; and a third region adjacent to the second region that has a width (W3) that is greater than the second region, wherein the third region is sized to make contact with the connector, wherein the width (W2) of the second region being smaller than the respective widths (W1 and W3) of the first and third regions increases an impedance of the electrical contact pad ; the bottom side ground plane having a protruding portion that covers the trace up to it entering the contact pad.
An oligopeptide for use in a method for treating a painful condition in a subject comprising administering 1 to 3mg/kg a oligopeptide PN-A5 , said PN-A5 oligopeptide being the Ang(1-7) derivative of SEQ ID NO: 13, which has the amino acid sequence of native Ang(1-7) except that Pro7 is substituted by Ser7 and wherein Ser7 is glucosylated and comprises a C-terminal amidation (NH2), and wherein the painful condition is inflammatory pain.
A computer implemented method of analyzing a flood operation on a hydrocarbon reservoir having heavy oil, the method comprising: for a first injection well of the hydrocarbon reservoir: receiving injection rate data and production rate data for production wells communicating with the first injection well for a period of time; establishing a plurality of time windows based on breakthrough time of each production well that has broken through until the current date, wherein the production rate data is indicative of breakthrough; running capacitance resistance modeling for each established time window to generate interwell connectivities for each well pair; solving a continuous function for each well pair using the capacitance resistance modeling generated interwell connectivity of the well pair over time to estimate interwell connectivity for each well pair in the future; using the production rate data to solve an oil-cut model for each production well that has broken through to estimate oil-cut value for each production well in the future; and determining a value of injected fluid for the first injection well as a function of time in the future using the continuous function estimated interwell connectivity and the estimated oil-cut value. receiving injection rate data and production rate data for production wells communicating with the first injection well for a period of time; establishing a plurality of time windows based on breakthrough time of each production well that has broken through until the current date, wherein the production rate data is indicative of breakthrough; running capacitance resistance modeling for each established time window to generate interwell connectivities for each well pair; solving a continuous function for each well pair using the capacitance resistance modeling generated interwell connectivity of the well pair over time to estimate interwell connectivity for each well pair in the future; using the production rate data to solve an oil-cut model for each production well that has broken through to estimate oil-cut value for each production well in the future; and determining a value of injected fluid for the first injection well as a function of time in the future using the continuous function estimated interwell connectivity and the estimated oil-cut value.
A surface coated cutting tool comprising a base material and a coating layer that coats the base material , the coating layer including an alternate layer composed of a first unit layer and a second unit layer alternately stacked, the first unit layer and the second unit layer being adjacent to each other in the alternate layer , the first unit layer being composed of a nitride containing aluminum and zirconium, in the first unit layer , when the total number of metal atoms constituting the first unit layer is represented as 1, a ratio thereto of the number of atoms of the zirconium being not less than 0.65 and not more than 0.95, the coating layer having an overall thickness of not less than 0.8 μm and not more than 15 μm, the first unit layer and the second unit layer each having a thickness of not less than 0.002 μm and not more than 0.2 μm, when in the alternate layer the first unit layer and the second unit layer which are adjacent to each other have a thickness λ1 and a thickness λ2, respectively, a ratio λ2/λ1 being not less than 1 and not more than 5, from 10 to 500 first unit layers and from 10 to 500 second unit layers being stacked, the second unit layers being composed of a nitride containing titanium and aluminum, and in the second unit layer , when the total number of metal atoms constituting the second unit layer is represented as 1, a ratio thereto of the number of atoms of the aluminum being larger than 0.40 and not more than 0.70. the coating layer including an alternate layer composed of a first unit layer and a second unit layer alternately stacked, the first unit layer and the second unit layer being adjacent to each other in the alternate layer , the first unit layer being composed of a nitride containing aluminum and zirconium, in the first unit layer , when the total number of metal atoms constituting the first unit layer is represented as 1, a ratio thereto of the number of atoms of the zirconium being not less than 0.65 and not more than 0.95, the coating layer having an overall thickness of not less than 0.8 μm and not more than 15 μm, the first unit layer and the second unit layer each having a thickness of not less than 0.002 μm and not more than 0.2 μm, when in the alternate layer the first unit layer and the second unit layer which are adjacent to each other have a thickness λ1 and a thickness λ2, respectively, a ratio λ2/λ1 being not less than 1 and not more than 5, from 10 to 500 first unit layers and from 10 to 500 second unit layers being stacked, the second unit layers being composed of a nitride containing titanium and aluminum, and in the second unit layer , when the total number of metal atoms constituting the second unit layer is represented as 1, a ratio thereto of the number of atoms of the aluminum being larger than 0.40 and not more than 0.70.
Layer having isolated elements whose length is greater than their diameter and which are made of a resilient material and fastened to a substrate at a spacing from one another, characterised in that the elements are movable towards or away from one another, the elements can touch one another when they move towards one another, the outer surfaces of the elements are provided with a surface modification, the surface modification contains substances that are capable of forming reversible, non-covalent bonds.
A method for determining whether or not a test sample contains a phytopathogenic fungus, the method comprising: (a) putting the test sample on a front surface of a substrate comprising a through hole; wherein the substrate comprises a cellulose film on the back surface thereof; the cellulose film has a thickness of not less than 0.5 micrometers and not more than 2 micrometers; and the through hole has a cross-sectional area of not less than 7.065 square micrometers and not more than 19.625 square micrometers; (b) leaving the test sample at rest after the step (a); (c) observing a back surface of the film after the step (b); and (d) determining that the test sample contains the phytopathogenic fungus, if a fungus is found on the back surface of the film in the step (c), wherein the phytopathogenic fungus is selected from the group consisting of fusarium genus, pyricularia genus, and colletotrichum genus. (a) putting the test sample on a front surface of a substrate comprising a through hole; wherein the substrate comprises a cellulose film on the back surface thereof; the cellulose film has a thickness of not less than 0.5 micrometers and not more than 2 micrometers; and the through hole has a cross-sectional area of not less than 7.065 square micrometers and not more than 19.625 square micrometers; (b) leaving the test sample at rest after the step (a); (c) observing a back surface of the film after the step (b); and (d) determining that the test sample contains the phytopathogenic fungus, if a fungus is found on the back surface of the film in the step (c),
A core for an electrical machine , comprising: a core body defining a rotation axis, the core body including: a first segment ; and a second segment axially stacked with the first segment along the rotation axis (R); and an end segment coupled to the second segment on a side of the second segment opposite the first segment , wherein notches defined by the end segment , the second segment , and the first segment align with one another to form an axial slot , wherein a width of an opening into the second segment notch is greater than a width of an opening into the end segment notch and the first segment notch to accommodate thermal expansion of the core body wherein the end segment includes a material with a thermal expansion coefficient greater than that of the second segment . a first segment ; and a second segment axially stacked with the first segment along the rotation axis (R); and an end segment coupled to the second segment on a side of the second segment opposite the first segment , wherein notches defined by the end segment , the second segment , and the first segment align with one another to form an axial slot , wherein a width of an opening into the second segment notch is greater than a width of an opening into the end segment notch and the first segment notch to accommodate thermal expansion of the core body wherein the end segment includes a material with a thermal expansion coefficient greater than that of the second segment .
A method comprising: determining, at a wireless node , a proposed set of physical resource blocks for a transmission to the wireless node, based on a channel quality determination at the wireless node; and sending a channel quality indicator report to an infrastructure node , characterised in that the channel quality indicator report includes a parameter ID that identifies, for the transmission to the wireless node, a modulation scheme and a coding rate at which a block error probability is determined, using an overall channel quality for the proposed set of physical resource blocks and a reference physical resource size for the transmission to the wireless node, to be less than or equal to a threshold or target level. determining, at a wireless node , a proposed set of physical resource blocks for a transmission to the wireless node, based on a channel quality determination at the wireless node; and sending a channel quality indicator report to an infrastructure node , characterised in that the channel quality indicator report includes a parameter ID that identifies, for the transmission to the wireless node, a modulation scheme and a coding rate at which a block error probability is determined, using an overall channel quality for the proposed set of physical resource blocks and a reference physical resource size for the transmission to the wireless node, to be less than or equal to a threshold or target level.
Paper machine clothing comprising a substrate with an upper side, a lower side, two lateral edges and an usable region (UR) between the two lateral edges, wherein the usable region (UR) comprises a plurality of through-channels extending through the substrate and connecting the upper side with the lower side, wherein the through-channels are non-cylindrical with a cross sectional area becoming smaller when going in a thickness direction (TD) of the substrate from the upper side to a middle region (MR) of the substrate between the upper side and the lower side, wherein an upper rim of at least one of the plurality of through-channels directly contacts an upper rim of at least one other neighboring through-channel of the plurality of through-channels such that the upper rim of the at least one of the plurality of through-channels does not lie within a plane.
A testing apparatus comprising: a display means adapted to display, in a background , a visual target for testing a color-related visual function of a subject, the visual target and the background being displayed such that the luminance of the background has a numerical value included between a numerical value smaller by 10% and a numerical value greater by 10% than the luminance of the visual target ; and a display control means adapted to cause, in a state in which the subject is caused to gaze at a predefined point on the display means , the display means to display the visual target , while changing a size of the visual target , such that a threshold that is a size of the visual target that determines whether or not the subject can perceive the visual target is obtained in a peripheral region of a visual field center or at the visual field center. a display means adapted to display, in a background , a visual target for testing a color-related visual function of a subject, the visual target and the background being displayed such that the luminance of the background has a numerical value included between a numerical value smaller by 10% and a numerical value greater by 10% than the luminance of the visual target ; and a display control means adapted to cause, in a state in which the subject is caused to gaze at a predefined point on the display means , the display means to display the visual target , while changing a size of the visual target , such that a threshold that is a size of the visual target that determines whether or not the subject can perceive the visual target is obtained in a peripheral region of a visual field center or at the visual field center.
A method comprising: (i) receiving (301; 401; 501; 601) a request for glyphs, the request identifying a font and characters of the font that are required; (ii) searching (302; 401; 502; 603) for at least one superset of glyphs that contains the required glyphs and some other glyphs and is absent of at least some other glyphs of the font; (iii) if at least one superset is found, returning (304; 505; 508; 610) the or a selected superset in reply to the request; and (iv) if at least one superset is not found, generating (304; 404; 507; 609) a set of glyphs that contain the required glyphs, returning the set in reply to the request, and storing the generated set in a cache. (i) receiving (301; 401; 501; 601) a request for glyphs, the request identifying a font and characters of the font that are required; (ii) searching (302; 401; 502; 603) for at least one superset of glyphs that contains the required glyphs and some other glyphs and is absent of at least some other glyphs of the font; (iii) if at least one superset is found, returning (304; 505; 508; 610) the or a selected superset in reply to the request; and (iv) if at least one superset is not found, generating (304; 404; 507; 609) a set of glyphs that contain the required glyphs, returning the set in reply to the request, and storing the generated set in a cache.
Method for producing a screen lining , wherein passage openings are made in a blank by means of waterjet cutting, wherein the waterjet cutting takes place in several steps, wherein the passage openings of the screen covering are pre-cut in a first step and the passage openings of the screen lining are finish cut in at least one second step, characterised in that in the first step of the pre-cutting, the opening width and the opening angle (α) of the passage openings widening in the flow direction are modelled and wherein in the second step of the finish cutting, the hole width or slot width (B) of the passage openings are defined, wherein only material removal takes place when pre-cutting by means of waterjet cutting, wherein no openings are cut through the thickness of the material from the top to the bottom of the screen lining.