mhurhangee/ep-ind-claims huggingface dataset:
An E.coli host cell expressing a recombinant antibody characterized in that the E.coli host cell has been genetically modified in order to change the isoelectric point of the E.coli Phosphate binding protein PstS and wherein the isoelectric point has been altered by: the addition of a poly-aspartic acid tag to the C-terminus of the Phosphate binding protein and/or by changing one or more of the amino acid residues located on the surface of the E.coli Phosphate binding protein PstS by: (a) substituting one or more lysine and/or arginine residues with aspartic acid or a glutamic acid or (b) substituting one or more aspartic acid and/or glutamic acid residues with lysine or arginine. the addition of a poly-aspartic acid tag to the C-terminus of the Phosphate binding protein and/or by changing one or more of the amino acid residues located on the surface of the E.coli Phosphate binding protein PstS by: (a) substituting one or more lysine and/or arginine residues with aspartic acid or a glutamic acid or (b) substituting one or more aspartic acid and/or glutamic acid residues with lysine or arginine. (a) substituting one or more lysine and/or arginine residues with aspartic acid or a glutamic acid or (b) substituting one or more aspartic acid and/or glutamic acid residues with lysine or arginine.
A nonwoven fiber mat comprising: randomly oriented fibers; and a two-part binder system applied to at least a portion of the randomly oriented fibers, wherein the binder system comprises: a formaldehyde-free carbohydrate-based binder, and a formaldehyde-free hydrophobic acrylic-based binder, wherein the formaldehyde-free hydrophobic acrylic-based binder is applied over the formaldehyde-free carbohydrate-based binder, and wherein the formaldehyde-free acrylic-based binder substantially or completely impregnates the nonwoven fiber mat after the formaldehyde-free carbohydrate-based binder is applied to the mat. randomly oriented fibers; and a two-part binder system applied to at least a portion of the randomly oriented fibers, wherein the binder system comprises: a formaldehyde-free carbohydrate-based binder, and a formaldehyde-free hydrophobic acrylic-based binder, a formaldehyde-free carbohydrate-based binder, and a formaldehyde-free hydrophobic acrylic-based binder,
A magnet pole for a cyclotron comprising at least 3 hill sectors and a same number of valley sectors alternatively distributed around a central axis, Z, each hill sector comprising an upper surface defined by: - an upper peripheral edge, said upper peripheral edge being bounded by a first and a second upper distal ends, and being defined as the edge of the upper surface located furthest from the central axis; - an upper central edge, said upper central edge being bounded by a first and a second upper proximal ends and being defined as the edge of the upper surface located closest from the central axis; - a first upper lateral edge connecting the first upper distal end and first upper proximal end; - a second upper lateral edge connecting the second upper distal end and second upper proximal end; characterised in that, the upper peripheral edge of a hill sector comprises an arc of circle which centre is offset with respect to the central axis, and which radius, Rh, is not more than 85% of a distance, Lh, from the central axis to a midpoint of the upper peripheral edge, which is equidistant to the first and second upper distal ends (Rh / Lh ≤ 85%). - an upper peripheral edge, said upper peripheral edge being bounded by a first and a second upper distal ends, and being defined as the edge of the upper surface located furthest from the central axis; - an upper central edge, said upper central edge being bounded by a first and a second upper proximal ends and being defined as the edge of the upper surface located closest from the central axis; - a first upper lateral edge connecting the first upper distal end and first upper proximal end; - a second upper lateral edge connecting the second upper distal end and second upper proximal end;
An electronic display, especially for trolleys, provided with a display housing being a trolley handle or being mounted on a trolley handle, comprising a screen located in the display housing, the display housing being provided with a window, characterized in that the screen is further placed in a removable inner housing, matching the interior of the display housing, thereby forming a separate display module, wherein at least a part of the inner housing of the display module is at least partially located in the area of the window of the display housing while the display housing comprises an access opening for the electrical connector, wherein the window of the display housing is provided with a pane and the inner housing of the display module is located, at least partially, under the pane of the window of the display housing, with a distance from the pane.
A method for producing a dispersion containing a polymer and nanoparticles, comprising: combining a solution with a polymer to form a mixture, wherein the solution comprises a metal precursor and a polar solvent, and wherein the metal precursor is not in the form of nanoparticles; and extruding the mixture to form the dispersion; wherein the extrusion step occurs at a melt temperature above the degradation temperature of the metal precursor and wherein the mixture has a residence time sufficient to form the dispersion, preferably wherein the mixture has a residence time of at least 35 seconds; wherein the solution is present in an amount of about 1 to about 30 wt% based upon a total weight of the polymer and the solution; wherein the dispersion contains metal nanoparticles, metal oxide nanoparticles, or a combination thereof; wherein the nanoparticles have an interparticle distance of 0.1 nm to about 1500 nm in the dispersion; and wherein the nanoparticles are present in an amount of about 0.125 to about 5 wt%, based upon a total weight of the nanoparticles and the polymer. combining a solution with a polymer to form a mixture, wherein the solution comprises a metal precursor and a polar solvent, and wherein the metal precursor is not in the form of nanoparticles; and extruding the mixture to form the dispersion; wherein the extrusion step occurs at a melt temperature above the degradation temperature of the metal precursor and wherein the mixture has a residence time sufficient to form the dispersion, preferably wherein the mixture has a residence time of at least 35 seconds; wherein the solution is present in an amount of about 1 to about 30 wt% based upon a total weight of the polymer and the solution; wherein the dispersion contains metal nanoparticles, metal oxide nanoparticles, or a combination thereof; wherein the nanoparticles have an interparticle distance of 0.1 nm to about 1500 nm in the dispersion; and wherein the nanoparticles are present in an amount of about 0.125 to about 5 wt%, based upon a total weight of the nanoparticles and the polymer.
A battery energy storage arranged to be connected to a capacitor link, which is connected in parallel to a power converter, the battery energy storage comprising a battery module and a direct current energy source connected with a voltage source converter, wherein the voltage source converter is coupled in series with the battery module characterized in that the voltage source converter is adapted to insert a positive voltage when the voltage of the battery module falls below a first threshold value, and to insert a negative voltage when the voltage of the battery module exceeds a second threshold value, and wherein the direct current energy source is adapted to be either charged or discharged during the voltage insertion by the voltage source converter.
Power lead for a swimming pool cleaning robot, said power lead comprising a rotary connector and a buoyancy means supporting said rotary connector, characterized in that an upper part of said buoyancy means is a cap shaped to slide under a swimming pool cover under the effect of a traction exerted by the swimming pool cleaning robot on the buoyancy means through the power lead.
Use of a detergent additive in a fuel composition for reducing microbial growth, wherein the detergent additive is a polyolefin substituted succinimide, wherein the fuel composition is a diesel fuel composition and wherein the diesel fuel composition comprises a paraffinic base fuel selected from hydrotreated vegetable oil, Fischer-Tropsch derived base fuels, and mixtures thereof.
A method for transmitting an acknowledgement frame in a wireless local area network, comprising: generating, by a sending party, an acknowledgement frame for a data frame, and the acknowledgement frame consists of a short training field, STF, a long training field, LTF, and control signaling, SIG; and sending, by the sending party, the acknowledgement frame; wherein the SIG comprises indication information used for indicating the acknowledgement frame does not have a data portion. generating, by a sending party, an acknowledgement frame for a data frame, and the acknowledgement frame consists of a short training field, STF, a long training field, LTF, and control signaling, SIG; and sending, by the sending party, the acknowledgement frame; wherein the SIG comprises indication information used for indicating the acknowledgement frame does not have a data portion.
A microscope system comprising: a microscope body; an image sensor mounted on the microscope body via mounting means and configured to capture an observation image under a microscope; a stage configured to move in an X-axis direction and a Y-axis direction, which are orthogonal to each other, and place a slide as an observation object and said stage including a mark (206, 213) used to indicate a stage reference position; obtaining means (210, 211, 212, 271, 272, 273) configured to obtain positions of the stage in the X-axis direction and the Y-axis direction; detecting means configured to detect, from an image captured by the image sensor, the stage reference position indicated by the mark (206, 213) provided on the stage and a slide reference position indicated by a mark provided on the slide placed on the stage; and managing means configured to manage in a case in which the slide reference position is detected the position of the stage obtained by the obtaining means (210, 211, 212, 271, 272, 273) by coordinates based on the slide reference position, and in a case in which the slide reference position is not detected the position of the stage obtained by the obtaining means (210, 211, 212, 271, 272, 273) by coordinates based on the stage reference position. a microscope body; an image sensor mounted on the microscope body via mounting means and configured to capture an observation image under a microscope; a stage configured to move in an X-axis direction and a Y-axis direction, which are orthogonal to each other, and place a slide as an observation object and said stage including a mark (206, 213) used to indicate a stage reference position; obtaining means (210, 211, 212, 271, 272, 273) configured to obtain positions of the stage in the X-axis direction and the Y-axis direction; detecting means configured to detect, from an image captured by the image sensor, the stage reference position indicated by the mark (206, 213) provided on the stage and a slide reference position indicated by a mark provided on the slide placed on the stage; and managing means configured to manage in a case in which the slide reference position is detected the position of the stage obtained by the obtaining means (210, 211, 212, 271, 272, 273) by coordinates based on the slide reference position, and in a case in which the slide reference position is not detected the position of the stage obtained by the obtaining means (210, 211, 212, 271, 272, 273) by coordinates based on the stage reference position.
Position-measuring method suitable for the positioning of a wheel suitable for mash seam welding, for the purpose of butt-joining strips of steel on continuous transformation lines, comprising the steps of: a) putting a rotary roller, which is attached to a mobile frame, into the measuring position, the measuring position being vertically below a reference wheel, b) continuously vertically lowering the reference wheel, as a result of which its lower face comes into contact with the rotary roller, producing a contact force on the roller, c) continuously displacing of the roller in the direction of lowering, d) repeatedly measuring a distance between an indicator secured to a measuring arm of the frame and an articulated column attached to the frame during the continuous displacement, e) comparing the distance with a distance threshold for each one of the repeated measurements until a first working position of the wheel is reached, for which the distance is equal to a predefined factor of the distance threshold, f) recording the first working position as a reference point in a system for the vertical displacement of the reference wheel. a) putting a rotary roller, which is attached to a mobile frame, into the measuring position, the measuring position being vertically below a reference wheel, b) continuously vertically lowering the reference wheel, as a result of which its lower face comes into contact with the rotary roller, producing a contact force on the roller, c) continuously displacing of the roller in the direction of lowering, d) repeatedly measuring a distance between an indicator secured to a measuring arm of the frame and an articulated column attached to the frame during the continuous displacement, e) comparing the distance with a distance threshold for each one of the repeated measurements until a first working position of the wheel is reached, for which the distance is equal to a predefined factor of the distance threshold, f) recording the first working position as a reference point in a system for the vertical displacement of the reference wheel.
Kettle comprising a body made of plastic, a heating plate and a lower housing in which an internal control device is housed, in which: - the lower housing comprises an inner peripheral wall that extends upwards; - the body comprises a lower section; - the heating plate includes a lower face (19a, 20a, 33) and a peripheral rim; - an outer seal is positioned between the peripheral rim and the lower section, characterised in that an inner seal is positioned between the inner wall and the lower face (19a, 20a, 33) of the heating plate to prevent water from entering the housing, particularly water from a leak due to a sealing defect in the outer seal and in that the lower section of the body includes an outer peripheral wall configured to receive at least one upper section of the inner wall, while maintaining a space (15, 40) between these two inner and outer walls, said space being connected to the exterior of the kettle. - the lower housing comprises an inner peripheral wall that extends upwards; - the body comprises a lower section; - the heating plate includes a lower face (19a, 20a, 33) and a peripheral rim; - an outer seal is positioned between the peripheral rim and the lower section, characterised in that an inner seal is positioned between the inner wall and the lower face (19a, 20a, 33) of the heating plate to prevent water from entering the housing, particularly water from a leak due to a sealing defect in the outer seal and in that the lower section of the body includes an outer peripheral wall configured to receive at least one upper section of the inner wall, while maintaining a space (15, 40) between these two inner and outer walls, said space being connected to the exterior of the kettle.
A surgical table comprising: a base for standing on a floor; a column extending from the base; a tabletop providing a patient support surface; and a tabletop traverse drive mechanism coupling the tabletop to the column, which tabletop traverse drive mechanism is for causing movement of the tabletop relative to the column in a selected longitudinal or transverse direction of the tabletop; wherein the tabletop traverse drive mechanism comprises a driver, first and second drive elements (104, 106) that are drivable by the driver, and a traverse device that is drivable by each of the first and second drive elements, the first and second drive element being movably mounted on one of the column and the tabletop and the traverse device being mounted on the other of the column and the tabletop; and wherein the driver is operable to drive the first and second drive elements to drive the traverse device to cause movement of the tabletop relative to the column between a predetermined traverse position, at which both of the first and second drive elements are engaged with the traverse device, and a first traverse position, at which the first drive element is engaged with the traverse device and the second drive element is disengaged from the traverse device. a base for standing on a floor; a column extending from the base; a tabletop providing a patient support surface; and a tabletop traverse drive mechanism coupling the tabletop to the column, which tabletop traverse drive mechanism is for causing movement of the tabletop relative to the column in a selected longitudinal or transverse direction of the tabletop; wherein the tabletop traverse drive mechanism comprises a driver, first and second drive elements (104, 106) that are drivable by the driver, and a traverse device that is drivable by each of the first and second drive elements, the first and second drive element being movably mounted on one of the column and the tabletop and the traverse device being mounted on the other of the column and the tabletop; and wherein the driver is operable to drive the first and second drive elements to drive the traverse device to cause movement of the tabletop relative to the column between a predetermined traverse position, at which both of the first and second drive elements are engaged with the traverse device, and a first traverse position, at which the first drive element is engaged with the traverse device and the second drive element is disengaged from the traverse device.
A process for preparing a functionalised polymeric chromatography medium, which process comprises (i) providing a substrate formed of one or more polymer nanofibres having mean diameters from 10 nm to 1000 nm, (ii) grafting one or more neutral polymer chains from the substrate, and (iii) contacting the grafted product with a reagent which functionalises the product of step (ii) as a chromatography medium, wherein step (ii) comprises reacting a plurality of compounds of formula and/or its enantiomers, and/or its derivatives of formula and/or enantiomers and/or diastereomers thereof: with one or more functional groups present on the nanofibre substrate wherein R 1, R 2, R 3, R 4 and R 5 may be the same or different, and are chosen from H, halo. C 1 -C 4 alkyl, or C 1 -C 4 alkoxy provided that at least one of R 1, R 2, R 3, R 4 or R 5 is not hydrogen, and wherein preferably step (ii) comprises reacting a plurality of compounds of formula and/or its enantiomers, with one or more functional groups present on the nanofibre substrate. (i) providing a substrate formed of one or more polymer nanofibres having mean diameters from 10 nm to 1000 nm, (ii) grafting one or more neutral polymer chains from the substrate, and (iii) contacting the grafted product with a reagent which functionalises the product of step (ii) as a chromatography medium, wherein step (ii) comprises reacting a plurality of compounds of formula and/or its enantiomers, and/or its derivatives of formula and/or enantiomers and/or diastereomers thereof: with one or more functional groups present on the nanofibre substrate wherein R 1, R 2, R 3, R 4 and R 5 may be the same or different, and are chosen from H, halo. C 1 -C 4 alkyl, or C 1 -C 4 alkoxy provided that at least one of R 1, R 2, R 3, R 4 or R 5 is not hydrogen, and wherein preferably step (ii) comprises reacting a plurality of compounds of formula and/or its enantiomers, with one or more functional groups present on the nanofibre substrate. with one or more functional groups present on the nanofibre substrate wherein R 1, R 2, R 3, R 4 and R 5 may be the same or different, and are chosen from H, halo. C 1 -C 4 alkyl, or C 1 -C 4 alkoxy provided that at least one of R 1, R 2, R 3, R 4 or R 5 is not hydrogen, and wherein preferably step (ii) comprises reacting a plurality of compounds of formula and/or its enantiomers, with one or more functional groups present on the nanofibre substrate.
A composition comprising: a lyn kinase activator, or a pharmaceutically acceptable salt thereof; and a TRPM8 agonist. a lyn kinase activator, or a pharmaceutically acceptable salt thereof; and a TRPM8 agonist.
A machine comprising a first physical component and a second physical component, wherein: the first physical component is configured for moving relative to the second physical component; the first physical component has a first surface with a contact area for physical contact with the second physical component; the first physical component is shaped spatially complementarily to the second physical component at the contact area; one of the first physical component and the second physical component comprises a seal, and the other one of the first physical component and the second physical component comprises a shaft or a physical object which is fixed to a shaft or is physically integrated with a shaft; a polyelectrolyte layer is present which is covalently bound on the first surface of the first physical component at a location of the contact area; the polyelectrolyte layer comprises biological polymers selected from chitosan and hyaluronic acid; and the covalent bonds are established by using a cross-linking agent.