mhurhangee/ep-ind-claims huggingface dataset:
Use of at least one of the compounds represented by Formulae 1-1 to 1-6 or a salt thereof as an active ingredient in a composition for destroying microalgae or mosses: wherein, in Formulae 1-1 to 1-6, n1 is an integer of 0 to 3, and A 1 is selected from groups represented by Formulae 5-1 to 5-12, 5-22, and 5-23: wherein, in Formulae 5-1 to 5-12, 5-22 and 5-23, ∗ is a binding site to a neighboring atom. n1 is an integer of 0 to 3, and A 1 is selected from groups represented by Formulae 5-1 to 5-12, 5-22, and 5-23: wherein, in Formulae 5-1 to 5-12, 5-22 and 5-23, ∗ is a binding site to a neighboring atom.
An implantable blood pump system (100, 1100) comprising: a pump (101, 1101) including a housing (110, 1110) having an axis, and a rotor (120, 1120) disposed within the housing (110, 1110), the rotor (120, 1120) being rotatable around the axis; and a control circuit (140, 1170) operatively coupled to the pump (101, 1101), the control circuit (140, 1170) being configured to: determine a differential pressure across the blood pump (101, 1101) based at least in part on an initial speed of rotation of the rotor (120, 1120); characterised in that the control circuit is further configured to: compare the differential pressure to a threshold pressure value; determine the presence or absence of a high pressure condition based at least in part on the comparison; and in response to determining the presence of a high pressure condition, determine an updated speed of rotation of the rotor (120, 1120), the updated speed being less than the initial speed. a pump (101, 1101) including a housing (110, 1110) having an axis, and a rotor (120, 1120) disposed within the housing (110, 1110), the rotor (120, 1120) being rotatable around the axis; and a control circuit (140, 1170) operatively coupled to the pump (101, 1101), the control circuit (140, 1170) being configured to: determine a differential pressure across the blood pump (101, 1101) based at least in part on an initial speed of rotation of the rotor (120, 1120); characterised in that the control circuit is further configured to: compare the differential pressure to a threshold pressure value; determine the presence or absence of a high pressure condition based at least in part on the comparison; and in response to determining the presence of a high pressure condition, determine an updated speed of rotation of the rotor (120, 1120), the updated speed being less than the initial speed. determine a differential pressure across the blood pump (101, 1101) based at least in part on an initial speed of rotation of the rotor (120, 1120); characterised in that the control circuit is further configured to: compare the differential pressure to a threshold pressure value; determine the presence or absence of a high pressure condition based at least in part on the comparison; and in response to determining the presence of a high pressure condition, determine an updated speed of rotation of the rotor (120, 1120), the updated speed being less than the initial speed.
Method for painting a component, - in which the component is transported on a product carrier by means of a conveying means and painted by means of a painting robot, - in which prior to painting the product carrier together with the component is removed from the conveying means by a manipulating robot, - in which the component is painted by means of the painting robot, - in which during painting the component is arranged on the product carrier, which is held by the manipulating robot, and - in which after painting the component is re-delivered to the conveying means by means of the manipulating robot, characterized in that the product carrier is transported along a conveying track on a conveying carriage or a conveyor belt of the conveying means, wherein the product carrier itself does not assume any product conveyance, the product carrier carries precisely one component and has a weight which corresponds to not more than a 5-fold maximum load capacity of the product carrier. - in which the component is transported on a product carrier by means of a conveying means and painted by means of a painting robot, - in which prior to painting the product carrier together with the component is removed from the conveying means by a manipulating robot, - in which the component is painted by means of the painting robot, - in which during painting the component is arranged on the product carrier, which is held by the manipulating robot, and - in which after painting the component is re-delivered to the conveying means by means of the manipulating robot,
A plate for selection of a promoter sequence, wherein the plate comprises multiple rows of a plurality of loci, wherein at least two of the plurality of loci within each row each comprise a lentiviral vector comprising: (a) a promoter sequence selected from the group consisting of sequences for human CMV, mouse CMV, human EF1α, mouse EF1α, CAG, human PGK, mouse PGK, and human ubiquitin C; and (b) a reporter sequence, wherein the lentiviral vector in each said locus within the same row is the same and the lentiviral vector in each row is the same except that it comprises a different promoter sequence selected from the group consisting of sequences for human CMV, mouse CMV, human EF1α, mouse EF1α, CAG, human PGK, mouse PGK, and human ubiquitin C wherein the at least two of the plurality of loci within the first row comprise a first locus and a second locus, wherein the amount of the first lentiviral vector in the second locus in the first row is dilute compared to the amount of the first lentiviral vector in the first locus in the first row, and the at least two of the plurality of loci in the second row comprise a first locus and a second locus, wherein the amount of the second lentiviral vector in the second locus in the second row is dilute compared to the amount of the second lentiviral vector in the first locus in the second row, wherein the amount of the first lentiviral vector in the first locus in the first row is the same as the amount of the second lentiviral vector in the first locus of the second row and the amount of the first lentiviral vector in the second locus in the first row is the same as the amount of the second lentiviral vector in the second locus of the second row, and wherein the first locus in the first row and the first locus in the second row are in a first column and the second locus in the first row and the second locus in the second row are in a second column consecutive to the first column. (a) a promoter sequence selected from the group consisting of sequences for human CMV, mouse CMV, human EF1α, mouse EF1α, CAG, human PGK, mouse PGK, and human ubiquitin C; and (b) a reporter sequence,
A strip-shaped fender for mounting on a surface to be protected from shocks from an impact direction, the fender (10; 110; 210; 310) comprising a first resilient bladder (14; 114; 214c; 314) extending along the length of the fender (10; 110; 210; 310); a strip-shaped low-friction slide surface (22; 122; 222; 322) extending along the first resilient bladder (14; 114; 214c; 314), the slide surface (22; 122; 222; 322) forming the outermost extremity of the fender (10; 110; 210; 310) in the impact direction, so as to be the first fender (10; 110; 210; 310) portion to engage with any blunt object impacting the fender (10; 110; 210; 310) from the impact direction; and a strip-shaped higher-friction impact-absorption surface (24a-b; 124a-b; 224a-b; 324a-b) extending along the length of the fender (10; 110; 210; 310), said higher-friction impact-absorption surface (24a-b; 124a-b; 224a-b; 324a-b) being retractedly arranged behind the outermost extremity of the low-friction slide surface (22; 122; 222; 322) so as not to be the first fender portion to engage with any blunt object impacting the fender (10; 110; 210; 310) from the impact direction, characterized in that said first resilient bladder (14; 114; 214c; 314) is configured to, when an impact force of a blunt object striking the first resilient bladder (14; 114; 214c; 314) from the impact direction exceeds a limit force, resiliently yield, such that the blunt object engages the higher-friction impact-absorption surface (24a-b; 124a-b; 224a-b; 324a-b) of the fender (10; 110; 210; 310), wherein said higher-friction impact absorption surface is formed by the outer surface (224a-b) of a second resilient bladder (214a-b) extending along the length of the fender.
A lubricating composition for an internal combustion engine comprising an oil of lubricating viscosity and 0.01 wt% to 10 wt % of a heterocycle having a hydrocarbyl group containing 6 to 40 carbon atoms, wherein the heterocycle is selected from the group consisting of: (i) an ester-containing heterocycle; (ii) an amide-containing heterocycle, and wherein the heterocycle is pyridine; wherein the lubricating composition is further characterised as having a phosphorus content of 200 ppm to 600 ppm. (i) an ester-containing heterocycle; (ii) an amide-containing heterocycle, and
A cutting insert comprising: an upper surface; a lower surface on a side opposite to the upper surface; and a peripheral side surface connecting the upper surface and the lower surface, a cutting edge being formed in at least a part of a first ridgeline where the upper surface and the peripheral side surface intersect, wherein three bottomed recesses recessed from the lower surface to the upper surface are formed in an outer peripheral portion of the lower surface, and each of the recesses is formed in a substantially triangular shape having a first vertex and a second vertex respectively positioned on a second ridgeline where the lower surface and the peripheral side surface intersect and a third vertex positioned on the lower surface and separated from the second ridgeline, characterised in that, the second ridgeline is formed in a substantially equilateral triangle having a first side, a second side, and a third side, and a respective single recess of the three recesses is formed on each of the first side, the second side, and the third side, wherein each recess includes a long surface formed between the first vertex and the third vertex and a short surface formed between the second vertex and the third vertex and shorter than the long surface, and an edge of the recess where the lower surface and the long surface formed on the first side intersect and that is a part near the first vertex is formed in a straight line substantially orthogonal to the second side or the third side. an upper surface; a lower surface on a side opposite to the upper surface; and a peripheral side surface connecting the upper surface and the lower surface, a cutting edge being formed in at least a part of a first ridgeline where the upper surface and the peripheral side surface intersect, wherein three bottomed recesses recessed from the lower surface to the upper surface are formed in an outer peripheral portion of the lower surface, and each of the recesses is formed in a substantially triangular shape having a first vertex and a second vertex respectively positioned on a second ridgeline where the lower surface and the peripheral side surface intersect and a third vertex positioned on the lower surface and separated from the second ridgeline, characterised in that, the second ridgeline is formed in a substantially equilateral triangle having a first side, a second side, and a third side, and a respective single recess of the three recesses is formed on each of the first side, the second side, and the third side, wherein each recess includes a long surface formed between the first vertex and the third vertex and a short surface formed between the second vertex and the third vertex and shorter than the long surface, and an edge of the recess where the lower surface and the long surface formed on the first side intersect and that is a part near the first vertex is formed in a straight line substantially orthogonal to the second side or the third side.
An electronic device (101, 201), comprising: a display (160, 260); a vibration-generating device configured to generate a vibration; and a processor (120, 210) functionally connected to the display (160, 260) and to the vibration-generating device, and configured to: select multiple frequencies using a musical element, wherein the musical element is a tempo, a length, repetition, a pitch or a scale; set at least one vibration based on the selected multiple frequencies; and generate a vibration pattern based on the set at least one vibration; wherein the processor is further configured to: detect an event related to output of a vibration; output, via the vibration-generation device, a vibration using a combination of multiple frequencies, wherein at least two of the multiple frequencies are in a consonant or dissonant relationship between them depending on the event. a display (160, 260); a vibration-generating device configured to generate a vibration; and a processor (120, 210) functionally connected to the display (160, 260) and to the vibration-generating device, and configured to: select multiple frequencies using a musical element, wherein the musical element is a tempo, a length, repetition, a pitch or a scale; set at least one vibration based on the selected multiple frequencies; and generate a vibration pattern based on the set at least one vibration; select multiple frequencies using a musical element, wherein the musical element is a tempo, a length, repetition, a pitch or a scale; set at least one vibration based on the selected multiple frequencies; and generate a vibration pattern based on the set at least one vibration; wherein the processor is further configured to: detect an event related to output of a vibration; output, via the vibration-generation device, a vibration using a combination of multiple frequencies, wherein at least two of the multiple frequencies are in a consonant or dissonant relationship between them depending on the event. detect an event related to output of a vibration; output, via the vibration-generation device, a vibration using a combination of multiple frequencies, wherein at least two of the multiple frequencies are in a consonant or dissonant relationship between them depending on the event.
A method for determining the influence of least a first and a second experimental parameter on a liquid chromatography protocol for purifying one or more target molecules from a sample, comprising the steps: - performing chromatography purifications of the sample at a plurality of different experimental conditions where at least the first and the second experimental parameter each are varied over a predetermined range, each purification being registered as a chromatogram by monitoring an output parameter indicative of the purification result during the purification; and - displaying in a graphical user interface at least a subset of the registered chromatograms as chromatogram-miniatures in an evaluation diagram wherein the position of each displayed chromatogram-miniature is determined by the experimental parameters for the corresponding purification, thereby allowing a user to visually determine trends and the influence of the experimental parameters on the liquid chromatography protocol. - performing chromatography purifications of the sample at a plurality of different experimental conditions where at least the first and the second experimental parameter each are varied over a predetermined range, each purification being registered as a chromatogram by monitoring an output parameter indicative of the purification result during the purification; and - displaying in a graphical user interface at least a subset of the registered chromatograms as chromatogram-miniatures in an evaluation diagram wherein the position of each displayed chromatogram-miniature is determined by the experimental parameters for the corresponding purification, thereby allowing a user to visually determine trends and the influence of the experimental parameters on the liquid chromatography protocol.
A hydrocarbon-free emulsion stabilizing agent comprising: a) from 20 to 65 % by weight of a fatty polyamide emulsifier and/or a fatty alkanolamide, which is the reaction product of one or more saturated or unsaturated C 6 -C 30 aliphatic monocarboxylic acid with from one or more mono- and di-alkanol amines having C 1 -C 8 alkanol radicals; b) from 5 to 40 % by weight of another emulsifier selected among fatty acids, oxidized fatty acids, maleated fatty acids, polymerized fatty acids and mixtures thereof; c) from 5 to 35 % by weight of water; d) from 0 to 25 % by weight of a mutual solvent; with the proviso that the pH of emulsion stabilizing agent is comprised between 8 and 12. a) from 20 to 65 % by weight of a fatty polyamide emulsifier and/or a fatty alkanolamide, which is the reaction product of one or more saturated or unsaturated C 6 -C 30 aliphatic monocarboxylic acid with from one or more mono- and di-alkanol amines having C 1 -C 8 alkanol radicals; b) from 5 to 40 % by weight of another emulsifier selected among fatty acids, oxidized fatty acids, maleated fatty acids, polymerized fatty acids and mixtures thereof; c) from 5 to 35 % by weight of water; d) from 0 to 25 % by weight of a mutual solvent;
Equipment for moving a pallet, which equipment includes lifting elements arranged to be fitted under the pallet, each one of the lifting elements being a chain, which is formed of vertebrae pivoted to each other, a rolling element equipped with a lifting functionality being arranged in at least some of the vertebrae, wherein the equipment includes a frame, under which a resting station, is arranged for the lifting elements, and the chain has one degree of freedom, which is downwards so that the chain can be taken from on top of the frame to the resting station under the frame, and in the resting station, the chain is rotated through 180°.
Dosing and mixing installation for producing a chlorine-containing solution or suspension from a chlorine-containing free-flowing solid, comprising a mixing container with a water inlet and a material inlet for the free-flowing solid, a storage container holding the free-flowing solid, a suction line connecting the mixing container and the storage container, a suction device attached to the mixing container for generating a suction pressure for conveying the free-flowing solid into the mixing container, and a locking device for selectively connecting the mixing container to the ambient air in order to interrupt the conveyance of the free-flowing solid into the mixing container, and a control device for controlling the suction device and the locking device, wherein the suction device can suck in air from the surroundings, by means of which the suction of the free-flowing solid from the storage container can be controlled, characterised in that an air filter is assigned to the suction device in the upstream or downstream direction, so that the air sucked in by the suction device can be filtered and, in particular, freed of chlorine constituents, and that the control device is set up for controlling the suction device and the locking device in a first operating mode for conveying the free-flowing solid material, when the locking device is closed, and in a second operating mode for treating the room air and the container air, when the locking device is open, wherein the first operating mode can be be carried out independently of the second operating mode. that an air filter is assigned to the suction device in the upstream or downstream direction, so that the air sucked in by the suction device can be filtered and, in particular, freed of chlorine constituents, and that the control device is set up for controlling the suction device and the locking device in a first operating mode for conveying the free-flowing solid material, when the locking device is closed, and in a second operating mode for treating the room air and the container air, when the locking device is open, wherein the first operating mode can be be carried out independently of the second operating mode.
A method of diagnosing colorectal cancer in a subject, comprising: i) isolating microvesicles in a sample from the subject; ii) determining the level of at least the following upregulated and at least the following downregulated miRs in the isolated microvesicles; wherein the upregulated miRs comprise miR-19a, miR-21, miR-127, miR-31, miR-96, miR-135b and miR-183; and the downregulated miRs comprise miR-30c, miR-133a, miR-143, miR-133b and miR-145; and iii) comparing the level of the miRs to a control, wherein an alteration in the level of the miRs, relative to that of the control, is diagnostic of colorectal cancer. i) isolating microvesicles in a sample from the subject; ii) determining the level of at least the following upregulated and at least the following downregulated miRs in the isolated microvesicles; wherein the upregulated miRs comprise miR-19a, miR-21, miR-127, miR-31, miR-96, miR-135b and miR-183; and the downregulated miRs comprise miR-30c, miR-133a, miR-143, miR-133b and miR-145; and iii) comparing the level of the miRs to a control, wherein an alteration in the level of the miRs, relative to that of the control, is diagnostic of colorectal cancer.
A method of audio scene management in a group sound telecommunication, said group sound telecommunication comprising at least a first transmitting party, a second transmitting party, and a receiving party, said method comprising the steps of: receiving signals representing a sound of said first transmitting party and a sound of said second transmitting party; obtaining measures of sound activity for said first and second transmitting parties, respectively; selecting at least one of a first angle and a second angle based on said obtained measures of sound activity; processing said received signals into processed signals such that the sound from said first transmitting party is being experienced as emanating from said first angle with respect to said receiving party and the sound from said second transmitting party is being experienced as emanating from said second angle with respect to said receiving party, said second angle being different from said first angle; and outputting signals representing said processed signals, wherein said step of selecting comprises adjusting of an angle separation from one transmitting party to a closest neighbouring transmitting party depending on said obtained measures of sound activity, and wherein said angle separation is adjusted to be larger for a transmitting party being associated with a high measure of sound activity than for a transmitting party being associated with a low measure of sound activity, characterized in that a mutual order of angles of all transmitting parties of said group sound telecommunication is maintained during the selecting of the angles. receiving signals representing a sound of said first transmitting party and a sound of said second transmitting party; obtaining measures of sound activity for said first and second transmitting parties, respectively; selecting at least one of a first angle and a second angle based on said obtained measures of sound activity; processing said received signals into processed signals such that the sound from said first transmitting party is being experienced as emanating from said first angle with respect to said receiving party and the sound from said second transmitting party is being experienced as emanating from said second angle with respect to said receiving party, said second angle being different from said first angle; and outputting signals representing said processed signals, wherein said step of selecting comprises adjusting of an angle separation from one transmitting party to a closest neighbouring transmitting party depending on said obtained measures of sound activity, and wherein said angle separation is adjusted to be larger for a transmitting party being associated with a high measure of sound activity than for a transmitting party being associated with a low measure of sound activity, characterized in that a mutual order of angles of all transmitting parties of said group sound telecommunication is maintained during the selecting of the angles.