mhurhangee/ep-ind-claims huggingface dataset:
Method for printing containers made of different types of material in direct printing wherein containers of a first type of material are transported by a transportation device and are printed with several print units by means of direct printing heads, in multiple layers with a first base ink that is compatible with the first type of material, and over that with at least one coloured ink, characterised in that in the case of a change (200, 300, 400) to containers of a second type of material, the first base ink is replaced by a second base ink that is compatible with the second type of material, that the containers made of the second type of material are subsequently printed in multiple layers with the second base ink and over that with the at least one coloured ink, that the at least one coloured ink adheres to both base inks, that the second base ink is chemically and physically compatible with the first base ink such that both base inks can be completely mixed into one another and no destabilisation of the two base inks is caused, and that one of the print units for printing the first and second base inks is designed with at least one direct printing head and an ink supply supplies the at least one direct printing head optionally with the first or second base ink for printing (200, 300). in the case of a change (200, 300, 400) to containers of a second type of material, the first base ink is replaced by a second base ink that is compatible with the second type of material, that the containers made of the second type of material are subsequently printed in multiple layers with the second base ink and over that with the at least one coloured ink, that the at least one coloured ink adheres to both base inks, that the second base ink is chemically and physically compatible with the first base ink such that both base inks can be completely mixed into one another and no destabilisation of the two base inks is caused, and that one of the print units for printing the first and second base inks is designed with at least one direct printing head and an ink supply supplies the at least one direct printing head optionally with the first or second base ink for printing (200, 300).
A communication apparatus operable in an auto-negotiation mode, comprising: first setting means configured to set whether or not to activate a power saving mode to be realized by the auto-negotiation mode; first determination means configured, in a case where said first setting means has set that the power saving mode is to be activated, to determine whether an external apparatus at the other end of communication has been set to a fixed mode; and display means configured, in a case where said first determination means determines that the external apparatus has been set to the fixed mode, to display a screen for prompting to set the external apparatus to the auto-negotiation mode. first setting means configured to set whether or not to activate a power saving mode to be realized by the auto-negotiation mode; first determination means configured, in a case where said first setting means has set that the power saving mode is to be activated, to determine whether an external apparatus at the other end of communication has been set to a fixed mode; and display means configured, in a case where said first determination means determines that the external apparatus has been set to the fixed mode, to display a screen for prompting to set the external apparatus to the auto-negotiation mode.
A linear guidance system comprising a guide rail and a carriage which is guided displaceably on the guide rail by way of at least two ball bearings (3, 3'), wherein the ball bearings respectively comprise a plurality of balls and a strip-shaped ball cage and the guide rail has running surfaces (9, 9') and the carriage has running surfaces (10, 10') for the rolling movement of the balls of the ball bearings (3, 3'), wherein the ball cage has a plurality of substantially circular through openings which are arranged in succession in a row and into which the balls are inserted, wherein the inside diameter of the through openings tapers conically in the direction from a running surface (9, 9') of the guide rail to the associated running surface (10, 10') of the carriage to an inside diameter or is constricted by limiting means to an inside diameter which is smaller than the diameter of the balls so that the balls are secured in the through openings to prevent them from falling out of the through openings in the direction of the running surface (10, 10') of the carriage, the ball cage is elastically deformable and is fixed to the guide rail, the balls are held by the ball cage with a prestressing against the running surfaces (9, 9') of the guide rail, characterized in that provided on the ball cage in its longitudinal extent at least portion-wise and preferably over its entire length is at least one torsion groove which is arranged on the side of the ball cage, that is towards the running surfaces (9, 9') of the guide rail.
A particle board or veneer comprising an adhesive aqueous composition comprising a polysaccharide wherein the polysaccharide is locust bean gum or a residual fraction from a pulping process comprising polysaccharide wherein the polysaccharide is hemicellulose, and an amine-functional polymer wherein the amine-functional polymer is chitosan; wherein the weight ratio between the polysaccharide and the amine-functional polymer is from 1:4 to 4:1; and wherein the composition has a pH of 5 or less.
A control system for controlling operation of an infusion pump system (100, 100'), the infusion pump system comprising a first reservoir (110, 110') configured to hold a first fluid (112, 112'), a second reservoir (120, 120') configured to hold a second fluid (122, 122'), a junction (180, 180', 280) in fluid communication with the first reservoir and the second reservoir, a common line (140, 140', 240) in fluid communication with the junction and having a terminal fluid delivery end (140B, 140B'), and an infusion pump (130, 130', 230, 330) operable to drive fluid through the common line toward the terminal fluid delivery end, the control system comprising one or more hardware processors configured to: control a valve configured to switch infusion of the first fluid along a first flow path (150, 150', 250) to infusion of the second fluid along a second flow path (160, 160', 260), receive instructions for delivery of the first fluid at a first rate followed by the second fluid at a second rate; infuse the first fluid at the first rate along the first flow path; determine a common line flush volume value for the common line from a drug library, whereby the common line flush volume value is associated with a therapeutic agent; infuse the second fluid at the first rate along the second flow path; monitor a volume of the second fluid infused at the first rate; determine when the monitored volume of the second fluid meets or exceeds the common line flush volume value; and change infusion of the second fluid to the second rate along the second flow path when the monitored volume of the second fluid meets or exceeds the common line flush volume value. control a valve configured to switch infusion of the first fluid along a first flow path (150, 150', 250) to infusion of the second fluid along a second flow path (160, 160', 260), receive instructions for delivery of the first fluid at a first rate followed by the second fluid at a second rate; infuse the first fluid at the first rate along the first flow path; determine a common line flush volume value for the common line from a drug library, whereby the common line flush volume value is associated with a therapeutic agent; infuse the second fluid at the first rate along the second flow path; monitor a volume of the second fluid infused at the first rate; determine when the monitored volume of the second fluid meets or exceeds the common line flush volume value; and change infusion of the second fluid to the second rate along the second flow path when the monitored volume of the second fluid meets or exceeds the common line flush volume value.
Camshaft arrangement for varying the relative angle position of at least one first cam of a camshaft relative to a second cam of the camshaft, wherein the arrangement comprises an angle adjustment device which has a stator and a rotor which is arranged so as to be rotatable relative to said stator, wherein the rotor is connected in a rotationally conjoint manner to a shaft, wherein the stator is connected in a rotationally conjoint manner to a hollow shaft, wherein the shaft and the hollow shaft are arranged concentrically with respect to one another, wherein the at least one first cam is connected in a rotationally conjoint manner to the shaft, wherein the at least one second cam is connected in a rotationally conjoint manner to the hollow shaft, and wherein the rotationally conjoint connection between the rotor and the shaft is produced by means of at least one screw, characterized in that the shaft abuts with a face side against an abutment surface of the rotor and is pulled against the abutment surface by means of the at least one screw, wherein the shaft has, along its axial extent which is situated in the region of the rotor, a cross-sectional area (A 1) which increases in size up to the face side to a larger value (A 2) and the enlargement of the cross-sectional area (A 2) is restricted to a region (x) which extends at most over 10 mm from the face side of the shaft.
An exon skipping antisense oligonucleotide that binds to and/or is complementary to a polynucleotide with the nucleotide sequence as shown in SEQ ID NO: 8, wherein said oligonucleotide comprises or consists of a sequence selected from the group consisting of: SEQ ID NO: 10, SEQ ID NO: 11 and SEQ ID NO: 12, and wherein a nucleotide in the antisense oligonucleotide may be an RNA residue, a DNA residue, or a nucleotide analogue or equivalent.
A method for measuring retinal oxygenation comprising - illuminating a retinal tissue having blood vessels by light essentially consisting of a selection of two or more discrete wavelengths (λ 1,λ 2); - collecting measurements of a plurality of backscattered reflection intensities ( I(x b,λ 1), I(x t,λ 1), I(x b,λ 2), I(x t,λ 2)), wherein the measurements are spectrally resolved for the selection of discrete wavelengths and position-resolved for at least a blood vessel location (x b) coinciding with a selected blood vessel and a tissue location (x t) coinciding with the retinal tissue without blood vessel, wherein a size (D ves) of the selected blood vessel is determined based on the position resolved measurements of the plurality of backscattered reflection intensities; and - calculating, by a processor, the oxygenation based on the measurements, wherein the calculation includes an analytical model describing a dependence of the intensities on the oxygenation of blood in the selected blood vessel and the determined size (D ves) of the selected blood vessel, wherein the analytical model includes calculating an error (ΔS) in the calculated oxygenation, wherein the calculation of the error (ΔS) includes the determined size (D ves) of the selected blood vessel, wherein the number of collected measurements is based on the determined size (D ves) of the selected blood vessel such that the collecting of measurements is continued until the calculated error (ΔS), dependent on the determined size (D ves), is below a predetermined threshold error. - illuminating a retinal tissue having blood vessels by light essentially consisting of a selection of two or more discrete wavelengths (λ 1,λ 2); - collecting measurements of a plurality of backscattered reflection intensities ( I(x b,λ 1), I(x t,λ 1), I(x b,λ 2), I(x t,λ 2)), wherein the measurements are spectrally resolved for the selection of discrete wavelengths and position-resolved for at least a blood vessel location (x b) coinciding with a selected blood vessel and a tissue location (x t) coinciding with the retinal tissue without blood vessel, wherein a size (D ves) of the selected blood vessel is determined based on the position resolved measurements of the plurality of backscattered reflection intensities; and - calculating, by a processor, the oxygenation based on the measurements, wherein the calculation includes an analytical model describing a dependence of the intensities on the oxygenation of blood in the selected blood vessel and the determined size (D ves) of the selected blood vessel, wherein the analytical model includes calculating an error (ΔS) in the calculated oxygenation, wherein the calculation of the error (ΔS) includes the determined size (D ves) of the selected blood vessel, wherein the number of collected measurements is based on the determined size (D ves) of the selected blood vessel such that the collecting of measurements is continued until the calculated error (ΔS), dependent on the determined size (D ves), is below a predetermined threshold error.
Position measuring device comprising - a code carrier comprising • a sequence of code elements (C1, C2, C3, C4), wherein each code element (C1, C2, C3, C4) consists of a first partial region (C1A, C2A, C3A, C4A) and a second partial region (C1B, C2B, C3B, C4B), which have mutually complementary properties, and • a periodic incremental graduation; - a scanning device comprising a plurality of detectors (D1, D2, D3, D4), • wherein a first detector is configured for jointly scanning the first partial region (C1A) of one of the code elements and also the incremental graduation and a first scanning signal is generatable as a result, and • wherein a second detector is configured for jointly scanning the second partial region (C1B) of said one code element and also the incremental graduation and a second scanning signal is generatable as a result; - an evaluation unit, to which the first scanning signal and the second scanning signal are fed and which is configured to form therefrom code information for the code element and which is configured to combine the first scanning signal and the second scanning signal with one another in order to form a periodic incremental signal. - a code carrier comprising • a sequence of code elements (C1, C2, C3, C4), wherein each code element (C1, C2, C3, C4) consists of a first partial region (C1A, C2A, C3A, C4A) and a second partial region (C1B, C2B, C3B, C4B), which have mutually complementary properties, and • a periodic incremental graduation; • a sequence of code elements (C1, C2, C3, C4), wherein each code element (C1, C2, C3, C4) consists of a first partial region (C1A, C2A, C3A, C4A) and a second partial region (C1B, C2B, C3B, C4B), which have mutually complementary properties, and • a periodic incremental graduation; - a scanning device comprising a plurality of detectors (D1, D2, D3, D4), • wherein a first detector is configured for jointly scanning the first partial region (C1A) of one of the code elements and also the incremental graduation and a first scanning signal is generatable as a result, and • wherein a second detector is configured for jointly scanning the second partial region (C1B) of said one code element and also the incremental graduation and a second scanning signal is generatable as a result; • wherein a first detector is configured for jointly scanning the first partial region (C1A) of one of the code elements and also the incremental graduation and a first scanning signal is generatable as a result, and • wherein a second detector is configured for jointly scanning the second partial region (C1B) of said one code element and also the incremental graduation and a second scanning signal is generatable as a result; - an evaluation unit, to which the first scanning signal and the second scanning signal are fed and which is configured to form therefrom code information for the code element and which is configured to combine the first scanning signal and the second scanning signal with one another in order to form a periodic incremental signal.
A photocatalyst-coated body comprising a substrate and a photocatalyst layer provided on the substrate, the photocatalyst layer consisting essentially of: photocatalyst particles of 1 part or more by mass and less than 20 parts by mass, selected from the group consisting of anatase titanium oxide (TiO 2), ZnO, SnO 2, SrTiO 3, WO 3, Bi 2 O 3 and Fe 2 O 3; inorganic oxide particles of 70 parts or more by mass and less than 99 parts by mass, wherein the inorganic oxide has a number average particle diameter ranging from 10 nm or more to less than 40 nm calculated by measuring lengths of 100 particles randomly selected from particles located within a visible field magnified 200,000 times by a scanning electron microscope and wherein the inorganic oxide is selected from the group consisting of silica, alumina, zirconia, ceria, yttria, boronia, magnesia, calcia, ferrite, amorphous titania, hafnia, barium titanate and calcium silicate; a hydrolyzable silicone of zero parts or more by mass and less than 10 parts by mass in terms of silica, a surfactant of zero parts or more by mass and less than 10 parts by mass, provided that a total amount of the photocatalyst particles, the inorganic oxide particles and the hydrolyzable silicone is 100 parts by mass and the parts by mass of the surfactant are determined with respect to the total 100 parts by mass. photocatalyst particles of 1 part or more by mass and less than 20 parts by mass, selected from the group consisting of anatase titanium oxide (TiO 2), ZnO, SnO 2, SrTiO 3, WO 3, Bi 2 O 3 and Fe 2 O 3; inorganic oxide particles of 70 parts or more by mass and less than 99 parts by mass, wherein the inorganic oxide has a number average particle diameter ranging from 10 nm or more to less than 40 nm calculated by measuring lengths of 100 particles randomly selected from particles located within a visible field magnified 200,000 times by a scanning electron microscope and wherein the inorganic oxide is selected from the group consisting of silica, alumina, zirconia, ceria, yttria, boronia, magnesia, calcia, ferrite, amorphous titania, hafnia, barium titanate and calcium silicate; a hydrolyzable silicone of zero parts or more by mass and less than 10 parts by mass in terms of silica, a surfactant of zero parts or more by mass and less than 10 parts by mass,
A solvothermal synthesis process for polyimides using solution polymerization of monomers in an appropriate solvent by mixing the solvent and the monomers and heating the mixture under pressure at temperatures exceeding the respective boiling point at normal pressure, characterized in that crystalline polyimides are produced by a) mixing and heating the solvent and the monomers by either a1) heating the solvent up to solvothermal conditions and subsequently adding the monomers to initiate the reaction, or a2) mixing the monomers with the solvent and heating the mixture up to solvothermal conditions within a period of 5 min, the reaction temperature T R being held below the polymerization temperature or the solid-state polymerization temperature T P of the monomers during the polymerization; and b) carrying out the solution polymerization until essentially complete conversion is achieved. a) mixing and heating the solvent and the monomers by either a1) heating the solvent up to solvothermal conditions and subsequently adding the monomers to initiate the reaction, or a2) mixing the monomers with the solvent and heating the mixture up to solvothermal conditions within a period of 5 min, the reaction temperature T R being held below the polymerization temperature or the solid-state polymerization temperature T P of the monomers during the polymerization; and a1) heating the solvent up to solvothermal conditions and subsequently adding the monomers to initiate the reaction, or a2) mixing the monomers with the solvent and heating the mixture up to solvothermal conditions within a period of 5 min, the reaction temperature T R being held below the polymerization temperature or the solid-state polymerization temperature T P of the monomers during the polymerization; and b) carrying out the solution polymerization until essentially complete conversion is achieved.
A compound which is methyl N-[(E,1S)-6-(dimethylamino)-1-[[1-[(4-isobutyl-1H-benzimidazol-2-yl)methyl]-2-oxo-3-pyridyl]carbamoyl]-6-oxo-hex-4-enyl]carbamate or a pharmaceutically acceptable salt thereof.
Device for transporting a coffin, composed of a supporting frame approximately covered by the coffin, comprising a plurality of sliding shelves (1, 2), each of said sliding shelves (1, 2) being designed to increase an extension of the supporting frame with respect to an area covered by the coffin, characterized in that each of said sliding shelves (1, 2) comprises a concavity to enable an interaction with a shoulder of an operator.
A forming apparatus for forming a semi-finished product comprising reinforcement fibers, the forming apparatus comprising: - a forming tool for forming a semi-finished product comprising reinforcement fibers and being conveyed to the forming tool in a continuous process; - a forming element comprising a forming surface; and - a conveying device for conveying the semi-finished product along a conveying direction, the forming tool comprising: -- at least one pressure bag (8, 8a to 8e) configured to be pressurized during a forming step of the semi-finished product, during which the semi-finished product is sandwiched between the forming surface of the forming element and the at least one pressurized pressure bag (8, 8a to 8e), such that the semi-finished product substantially takes on the shape of the forming surface, wherein a cross section of the forming element taken in a plane perpendicular to the conveying direction of the semi-finished product varies along the conveying direction. - a forming tool for forming a semi-finished product comprising reinforcement fibers and being conveyed to the forming tool in a continuous process; - a forming element comprising a forming surface; and - a conveying device for conveying the semi-finished product along a conveying direction, -- at least one pressure bag (8, 8a to 8e) configured to be pressurized during a forming step of the semi-finished product, during which the semi-finished product is sandwiched between the forming surface of the forming element and the at least one pressurized pressure bag (8, 8a to 8e), such that the semi-finished product substantially takes on the shape of the forming surface, wherein a cross section of the forming element taken in a plane perpendicular to the conveying direction of the semi-finished product varies along the conveying direction.