mhurhangee/ep-ind-claims huggingface dataset:
A method of preparing an oxidatively curable formulation, comprising contacting: (i) an alkyd-based resin; (ii) a chelant of formula: wherein: p is 3; R is independently selected from the group consisting of C 1-24 alkyl, C 6-18 aryl, C 6-18 arylC 1-6 alkyl, CH 2 CH 2 OH and CH 2 COOH; and R 1, R 2, R 3, and R 4 are independently selected from H, C 1-4 alkyl and hydroxylC 1-4 -alkyl; and (iii) a complex comprising one or more manganese ions having oxidation states independently selected from - and a chelant chelating through either nitrogen atoms or nitrogen and oxygen atoms; wherein the complex is first contacted with the alkyd-based resin, followed by introduction of the chelant of formula, with the provisos that: the complex does not comprise two manganese ions bridged by three ligands, at least one of which is a bridging oxo (O 2-) ligand; and the complex does not comprise a chelant of formula. (i) an alkyd-based resin; (ii) a chelant of formula: wherein: p is 3; R is independently selected from the group consisting of C 1-24 alkyl, C 6-18 aryl, C 6-18 arylC 1-6 alkyl, CH 2 CH 2 OH and CH 2 COOH; and R 1, R 2, R 3, and R 4 are independently selected from H, C 1-4 alkyl and hydroxylC 1-4 -alkyl; and p is 3; R is independently selected from the group consisting of C 1-24 alkyl, C 6-18 aryl, C 6-18 arylC 1-6 alkyl, CH 2 CH 2 OH and CH 2 COOH; and R 1, R 2, R 3, and R 4 are independently selected from H, C 1-4 alkyl and hydroxylC 1-4 -alkyl; and (iii) a complex comprising one or more manganese ions having oxidation states independently selected from - and a chelant chelating through either nitrogen atoms or nitrogen and oxygen atoms; wherein the complex is first contacted with the alkyd-based resin, followed by introduction of the chelant of formula, with the provisos that: the complex does not comprise two manganese ions bridged by three ligands, at least one of which is a bridging oxo (O 2-) ligand; and the complex does not comprise a chelant of formula. the complex does not comprise two manganese ions bridged by three ligands, at least one of which is a bridging oxo (O 2-) ligand; and the complex does not comprise a chelant of formula.
A method for producing a layered wound dressing with at least a biocompatible material and at least a polysaccharide comprising the following steps - providing at least a dispersion ou of alginate, amylose, amylopectin, cellulose, chitosan, chondroitin sulphate, dextran, hyaluronic acid or starch as a polysaccharide in an aqueous, organic liquid with a water content up to 30 wt% as a liquid dispersing agent; - solidifying the dispersion by a layered formation of the polysaccharide through the absorption of water from the liquid dispersing agent and/ or the absorption of the dispersing agent into the polysaccharide and/ or by evaporation of the dispersing agent; - by the supply of water, swelling of the solidified polysaccharide by forming a gel as well as adjustment of its thickness and pore structure; - applying a suspension or solution of a saccharide, lipid, synthetic polymer or a polypeptide or a synthetic polymer as a biocompatible material onto the swollen gel, - simultaneous cooling and freeze-drying of the gel with the applied suspension or solution of the biocompatible material by forming a strong bonding between the two layers. - providing at least a dispersion ou of alginate, amylose, amylopectin, cellulose, chitosan, chondroitin sulphate, dextran, hyaluronic acid or starch as a polysaccharide in an aqueous, organic liquid with a water content up to 30 wt% as a liquid dispersing agent; - solidifying the dispersion by a layered formation of the polysaccharide through the absorption of water from the liquid dispersing agent and/ or the absorption of the dispersing agent into the polysaccharide and/ or by evaporation of the dispersing agent; - by the supply of water, swelling of the solidified polysaccharide by forming a gel as well as adjustment of its thickness and pore structure; - applying a suspension or solution of a saccharide, lipid, synthetic polymer or a polypeptide or a synthetic polymer as a biocompatible material onto the swollen gel, - simultaneous cooling and freeze-drying of the gel with the applied suspension or solution of the biocompatible material by forming a strong bonding between the two layers.
Method for rolling plates by means of at least one rolling stand, wherein the rolling stand features a guiding element (16, 18) on the drive side and operator side respectively for the purpose of centring the plates, and the guiding elements (16, 18) are arranged symmetrically in relation to a centre line of the rolling stand, said centre line extending in a rolling direction, wherein - a first rolling pass is carried out and provision is made for detecting whether the side faces (14, 16) of the plate are offset relative to each other in a rolling direction when the relevant plate emerges from the rolling stand, - the plate is centred before a second rolling pass, wherein the guiding elements (16, 18) abut the plate in a centring position, characterised in that - if the side faces of the plates are offset relative to each other in a rolling direction, after centring, the guiding elements (16, 18) are set asymmetrically relative to the centre line in a second rolling pass, such that a first guiding element, for the side face which enters the rolling stand first in the second rolling pass, is so adjusted as to be further from the centre line than the second guiding element. - a first rolling pass is carried out and provision is made for detecting whether the side faces (14, 16) of the plate are offset relative to each other in a rolling direction when the relevant plate emerges from the rolling stand, - the plate is centred before a second rolling pass, wherein the guiding elements (16, 18) abut the plate in a centring position, characterised in that - if the side faces of the plates are offset relative to each other in a rolling direction, after centring, the guiding elements (16, 18) are set asymmetrically relative to the centre line in a second rolling pass, such that a first guiding element, for the side face which enters the rolling stand first in the second rolling pass, is so adjusted as to be further from the centre line than the second guiding element.
Use of a Rspondin2 or 3 polypeptide or a Rspondin2 or 3 nucleic acid in the manufacture of a medicament for the treatment of a pathological condition which benefits from promotion of angiogenesis and/or vasculogenesis.
Driving circuit, for an input switching stage - coupled to the primary winding of a transformer - for generating a primary AC voltage of the transformer from an input DC voltage (Ui) by changing between two switching states, configured to control the length of the dead time (td) between the deactivation of a first switching state of the switching states and the activation of a second switching state of the switching states, characterized in that the drive is furthermore configured to carry out the control of the length of the dead time (td) on the basis of a value of the dead time (td) that is calculated by means of a secondary current (Io) and an output voltage (Uo) of the secondary circuit of the transformer and also a present duty factor of the input switching stage.
A robotic lawnmower confinement system comprising: at least two dispenser units (600, 600a, 600b), each dispenser unit (600, 600a, 600b) comprising: a housing containing a length of boundary wire electrically connected to the housing at one end and terminating at a mating connector for transferring an electrical signal at the opposite end, the housing defining an opening for dispensing a variable length of the boundary wire; and a receiving terminal disposed on the housing for receiving a mating connector of another dispenser unit; and a powered unit in wired connection with the at least two dispenser units (600, 600a, 600b), the powered unit comprising at least one electrical connector (322, 322a, 322b) configured to connect and deliver current to at least one of the at least two dispenser units (600, 600a, 600b); wherein the at least two dispenser units (600, 600a, 600b) and the powered unit are arranged and connected to form a loop of connected boundary wires recognizable by a robotic lawnmower. at least two dispenser units (600, 600a, 600b), each dispenser unit (600, 600a, 600b) comprising: a housing containing a length of boundary wire electrically connected to the housing at one end and terminating at a mating connector for transferring an electrical signal at the opposite end, the housing defining an opening for dispensing a variable length of the boundary wire; and a receiving terminal disposed on the housing for receiving a mating connector of another dispenser unit; and a powered unit in wired connection with the at least two dispenser units (600, 600a, 600b), the powered unit comprising at least one electrical connector (322, 322a, 322b) configured to connect and deliver current to at least one of the at least two dispenser units (600, 600a, 600b); a housing containing a length of boundary wire electrically connected to the housing at one end and terminating at a mating connector for transferring an electrical signal at the opposite end, the housing defining an opening for dispensing a variable length of the boundary wire; and a receiving terminal disposed on the housing for receiving a mating connector of another dispenser unit; and a powered unit in wired connection with the at least two dispenser units (600, 600a, 600b), the powered unit comprising at least one electrical connector (322, 322a, 322b) configured to connect and deliver current to at least one of the at least two dispenser units (600, 600a, 600b); wherein the at least two dispenser units (600, 600a, 600b) and the powered unit are arranged and connected to form a loop of connected boundary wires recognizable by a robotic lawnmower.
A security document or document of value comprising at least one card body consisting of at least one type of plastic material which has a softening temperature of above 100 °C, and of at least one display module embedded therein, characterised in that, formed on its bottom surface, said display module has a structure in the form of a plurality of raised portions having a height (d) of at least 3 μm, and in that a structure complementary to the structure of the display module is provided in the card body.
A method for verifying quantities of interest of a radiation beam in an arc-based radiation therapy device including a gantry, comprising: generating radiation dose distribution images at predetermined radiation fields prior to radiation treatment, the radiation fields corresponding to predetermined arc segments of the gantry; and comparing the generated radiation dose distribution images with corresponding predicted radiation dose distribution images using a three-dimensional gamma evaluation method comprising calculating one of or a combination of dose differences, spatial differences, and angular differences between points in the generated images and corresponding points in the predicted images as parameters. generating radiation dose distribution images at predetermined radiation fields prior to radiation treatment, the radiation fields corresponding to predetermined arc segments of the gantry; and comparing the generated radiation dose distribution images with corresponding predicted radiation dose distribution images using a three-dimensional gamma evaluation method comprising calculating one of or a combination of dose differences, spatial differences, and angular differences between points in the generated images and corresponding points in the predicted images as parameters.
A current measuring device comprising:an electrically conductive coil having a first end and a second end; a first screen surrounding the coil and arranged to provide a current path from the second end of the coil to a location proximal to the first end of the coil, wherein a first end of the first screen is proximal to the first end of the coil, and a second end of the first screen is proximal to the second end of the coil, wherein the second end of the first screen is electrically connected to the second end of the coil; a second screen surrounding the first screen and the coil; and an electrical integrator, wherein a first input terminal of the integrator is electrically connected to the first end of the conductive coil, wherein a second input terminal of the integrator is electrically connected to the first end of the first screen, wherein an output of the integrator is grounded, wherein the second screen is electrically connected to the grounded output of the integrator.
Method for preparing a three-dimensional polymer scaffold for use in tissue-engineering, said method comprising the subsequent steps of a) providing a polymeric precursor scaffold (p-PS) comprising at least one biodegradable natural polymer (P A); b) treating the polymeric precursor scaffold (p-PS) with a cross-linking agent comprising glutaraldehyde to induce cross-linking of the natural polymer (P A), thereby forming a cross-linked polymer scaffold (x-PS); b') treating the cross-linked polymer scaffold (x-PS) with aqueous or gaseous blocking agent selected from the group consisting of glycine and glutamic acid to block non-reacted glutaraldehyde groups, then b'') treating the cross-linked polymer scaffold (x-PS) under reduced pressure by multiple application of vacuum for less than 1 s, or freeze-drying the cross-linked polymer scaffold (x-PS) to remove excess glutaraldehyde; and c) subjecting the cross-linked polymer scaffold (x-PS) of step b) to low-pressure plasma treatment involving exposure of the polymer scaffold to an ionized oxygen-containing gas plasma for a period of 2 to 30 minutes at a pressure in the range of 10 -3 to 10 -6 bar and a temperature below 40°C, affording the three-dimensional polymer scaffold (3D-PS). a) providing a polymeric precursor scaffold (p-PS) comprising at least one biodegradable natural polymer (P A); b) treating the polymeric precursor scaffold (p-PS) with a cross-linking agent comprising glutaraldehyde to induce cross-linking of the natural polymer (P A), thereby forming a cross-linked polymer scaffold (x-PS); b') treating the cross-linked polymer scaffold (x-PS) with aqueous or gaseous blocking agent selected from the group consisting of glycine and glutamic acid to block non-reacted glutaraldehyde groups, then b'') treating the cross-linked polymer scaffold (x-PS) under reduced pressure by multiple application of vacuum for less than 1 s, or freeze-drying the cross-linked polymer scaffold (x-PS) to remove excess glutaraldehyde; and c) subjecting the cross-linked polymer scaffold (x-PS) of step b) to low-pressure plasma treatment involving exposure of the polymer scaffold to an ionized oxygen-containing gas plasma for a period of 2 to 30 minutes at a pressure in the range of 10 -3 to 10 -6 bar and a temperature below 40°C, affording the three-dimensional polymer scaffold (3D-PS).
A method in a network comprises: transmitting, by a first Radio Link Control, RLC, entity, a Packet Data Convergence Protocol, PDCP, protocol data unit, PDU, or segment of a PDCP PDU on a first link, wherein the first RLC entity is associated with the first link; transmitting, by a second RLC entity, the PDCP PDU or the segment of the PDCP PDU on a second link, wherein the second RLC entity is associated with the second link; scheduling, by the second RLC entity, one or more retransmissions of the PDCP PDU or the segment of the PDCP PDU on the second link; receiving, from a receiver and via the first RLC entity, a positive acknowledgement indicating a successful receipt of the PDCP PDU or the segment of the PDCP PDU on the first link; transmitting, by the first RLC entity an indication to a Packet Data Convergence Protocol, PDCP, entity that the PDCP PDU was received by the receiver; communicating, via a backhaul channel, an indication to the second RLC entity to discard the PDCP PDU or segment of the PDCP PDU, wherein the PDCP entity is not co-located with the second RLC entity; and in response to receiving the indication to discard the PDCP PDU or segment of the PDCP PDU, cancelling, by the second RLC entity, the one or more retransmissions of the PDCP PDU or the segment of the PDCP PDU on the second link. transmitting, by a first Radio Link Control, RLC, entity, a Packet Data Convergence Protocol, PDCP, protocol data unit, PDU, or segment of a PDCP PDU on a first link, wherein the first RLC entity is associated with the first link; transmitting, by a second RLC entity, the PDCP PDU or the segment of the PDCP PDU on a second link, wherein the second RLC entity is associated with the second link; scheduling, by the second RLC entity, one or more retransmissions of the PDCP PDU or the segment of the PDCP PDU on the second link; receiving, from a receiver and via the first RLC entity, a positive acknowledgement indicating a successful receipt of the PDCP PDU or the segment of the PDCP PDU on the first link; transmitting, by the first RLC entity an indication to a Packet Data Convergence Protocol, PDCP, entity that the PDCP PDU was received by the receiver; communicating, via a backhaul channel, an indication to the second RLC entity to discard the PDCP PDU or segment of the PDCP PDU, wherein the PDCP entity is not co-located with the second RLC entity; and in response to receiving the indication to discard the PDCP PDU or segment of the PDCP PDU, cancelling, by the second RLC entity, the one or more retransmissions of the PDCP PDU or the segment of the PDCP PDU on the second link.
An inrun track system for ski-jumping facilities/skijumps having a plurality of sliding-surface elements, wherein the height and the course of the sliding-surface elements can be adapted to any profile by means of spacing elements, the spacing elements can be varied in terms of their longitudinal dimension, and the spacing elements are arranged between a base device, which is fixed with respect to the facility, and the sliding-surface elements, wherein the sliding-surface elements are arranged on first longitudinal profile elements, characterised in that the first longitudinal profile elements are arranged on first transverse profile elements, wherein the spacing elements are provided between the first transverse profile elements and the base device, which is fixed with respect to the facility, so that the height and the alignment of the ski tracks determined by the sliding-surface elements can be precisely adjusted and fixed in their longitudinal direction in a simple and timesaving manner.
A method for detecting a terminal device in an idle state, wherein the method is applied to a network device, and the method comprises: sending a first system message, wherein the first system message comprises a first field, and the first field is used to indicate the terminal device in the idle state to periodically initiate random access; and receiving a random access request sent by the terminal device in the idle state, so that the terminal device in the idle state enters a connected state; wherein the first field specifically comprises a first time period identifier, and the first time period identifier is used to indicate the terminal device to send the random access request to the network device at an interval of a first time period; wherein the first system message further comprises a second field, the second field comprises a second time period identifier, and the second field is used to indicate that duration in which the terminal device remains in the connected state after random access succeeds is a second time period. sending a first system message, wherein the first system message comprises a first field, and the first field is used to indicate the terminal device in the idle state to periodically initiate random access; and receiving a random access request sent by the terminal device in the idle state, so that the terminal device in the idle state enters a connected state; wherein the first field specifically comprises a first time period identifier, and the first time period identifier is used to indicate the terminal device to send the random access request to the network device at an interval of a first time period; wherein the first system message further comprises a second field, the second field comprises a second time period identifier, and the second field is used to indicate that duration in which the terminal device remains in the connected state after random access succeeds is a second time period.
An inhaler comprising a reservoir of pressurised inhalable composition, an outlet valve to control the flow of composition from the reservoir, the valve outlet orifice having a maximum height h, measured in the direction of opening when fully opened; an expansion chamber downstream of the valve having a length L and diameter D measured half way along the expansion chamber; and an exit orifice at the downstream end of the expansion chamber, the exit orifice having a length 1 and a diameter d; characterised in that: 0.1 < h/d < 1.0 0.05 < h/D < 0.25 1 < D/d < 10 5 < L/D < 15 2 < 1/d < 3 wherein the exit orifice is less than 3mm from an outlet end of the inhaler. 0.1 < h/d < 1.0 0.05 < h/D < 0.25 1 < D/d < 10 5 < L/D < 15 2 < 1/d < 3
Use of a compound of formula, in a tanning process: wherein: - X is a moiety of an iridoid, a seco-iridoid or a derivative thereof, and - each of Y 1, Y 2, and Y 3 is independently a hydrogen, -C -aryl, or -C -(C 1 -C 12 aliphatic group), or a salt thereof. - X is a moiety of an iridoid, a seco-iridoid or a derivative thereof, and - each of Y 1, Y 2, and Y 3 is independently a hydrogen, -C -aryl, or -C -(C 1 -C 12 aliphatic group),
A heat medium circulation system comprising: heating means configured to heat a heat medium; a pump configured to circulate the heat medium in a circulation circuit (9, 10, 11, 20) passing through an indoor-heating terminal and the heating means; load detection means (3, 4, 5) configured to detect an indoor-heating load during an indoor-heating operation in which the heat medium heated by the heating means is supplied to the indoor-heating terminal; and control means configured to adjust a heating power of the heating means and a circulation flow rate, the circulation flow rate being a flow rate of the heat medium passing through the heating means, characterized in that the control means is configured to adjust, in a case where the indoor-heating load detected when the circulation flow rate is equal to a first flow rate is lower than a minimum load that is a load balanced with a minimum heating power of the heating means, the circulation flow rate such that the circulation flow rate is higher than the first flow rate, wherein the heat medium circulation system further comprises means configured to make a value of the minimum load stored in the control means variable. heating means configured to heat a heat medium; a pump configured to circulate the heat medium in a circulation circuit (9, 10, 11, 20) passing through an indoor-heating terminal and the heating means; load detection means (3, 4, 5) configured to detect an indoor-heating load during an indoor-heating operation in which the heat medium heated by the heating means is supplied to the indoor-heating terminal; and control means configured to adjust a heating power of the heating means and a circulation flow rate, the circulation flow rate being a flow rate of the heat medium passing through the heating means, characterized in that the control means is configured to adjust, in a case where the indoor-heating load detected when the circulation flow rate is equal to a first flow rate is lower than a minimum load that is a load balanced with a minimum heating power of the heating means, the circulation flow rate such that the circulation flow rate is higher than the first flow rate, wherein the heat medium circulation system further comprises means configured to make a value of the minimum load stored in the control means variable.