• 专利附录
  • 专利说明
  • 权利要求
  • 类似技术
  • 同族专利
  • 引用文献
  • 法律状态
  • 优先权
    • 专利摘要:
    This invention relates to an improvement in the process for the preparation of a planographic printing form in which a recording material comprising a support of anodically oxidized aluminum and a recording layer thereon is imagewise irradiated with a laser beam, thereby rendering the irradiated portions of the recording layer oleophilic and/or insoluble, and the non-irradiated portions of the recording layer are then removed, where necessary, by washing with a developer liquid, the improvement comprising an oxide layer on said support weighing at least 3 grams per square meter.
    公开号:SU839438A3
    申请号:SU772453394
    申请日:1977-02-21
    公开日:1981-06-15
    发明作者:Улиг Фритц；Грамм Ине
    申请人:Хехст Аг (Фирма)；
    IPC主号:
    专利说明:

    (54) METHOD FOR MAKING OFFSET FORMS
    The invention relates to the printing industry and can be used in the manufacture of offset printing forms.
    Methods for making printing plates are known, consisting in applying an oxidized layer of an oxidized layer to a monometallic aluminum base (registering a layer, irradiating the plates with a laser beam on the image pattern and washing the form 1). The disadvantage of these methods is low sensitivity of the recording layers to laser radiation.
    The purpose of the invention is to increase the sensitivity of the recording layer to laser radiation.
    This goal is achieved by the fact that the oxidation of the aluminum substrate on which the recorded layer is deposited is carried out to an oxide content of 3 to 12 g / cm.
    The essence of the invention lies in the TOM, that through the use of oxide layers of a specified thickness, it becomes possible to work with a significantly improved exposure time of the recording layer by laser radiation or cooler, respectively, with a lower intensity of laser irradiation than with oxide layers of a smaller thickness.
    In this case, it is desirable for the aluminum plate to give the desired surface roughness mechanically, chemically or electrolytically before anodic oxidation (oxidation). In a continuous process, the combination of electrolytic roughness with anodic oxidation has proven particularly well. Roughness is obtained in a bath of inorganic acid diluted in an aqueous solution, for example hydrochloric or nitric acid, using direct or alternating current.
    Anodizing is also carried out in a dispersed aqueous acid, for example in sulfuric acid or phosphoric acid, preferably using direct current. The current density and anodization times are selected so as to obtain the thickness of the oxide layer within the specified limits. The thickness of the layer should be at least W-g / cm. The upper limit of the thickness is not critical, however, in the general case above 15 g / m it does not give a significant improvement. At much greater thicknesses, above about 30 g /, there is a risk that cracks may be produced during bending in the oxide layer. Both ultraviolet-sensitive and non-ultraviolet-insensitive, both hydrophilic and olefilic layers are suitable as carrier layers of the image, the latter, after laser illumination, in the pattern of the image should show or be free images are cleaned up before they can be done: a: apply to an offset printing machine and perform printing in the usual way with oily paint and a moisturizing solution. As ultraviolet-sensitive layers, suitable known diazo, azido, and photopolymerizable layers, which may contain binders, dyes, softeners, and the like, are suitable. Also, when normal (ie, with ultraviolet light) position. effectively working layers with the method p of the invention, printing places of the image are always obtained on the irradiated places, i.e. the layer is in all cases negative. Suitable as ultraviolet-insensitive and olefilic carrier layers of the image are suitable those which mainly consist of water-insoluble polymeric organic substances, for example novolaks, epoxy resins, maleate resins, polyvinyl acetates, polyethers, ureas or melamine resins, resols, methoxymethyl resin, polycartes or polymers. . Their mixtures are also applicable, to which may be added in small amounts with colorants, emollients, fatty acids and thickeners. Ultraviolet-sensitive and non-light-sensitive olefil layers after irradiation appear or are subject to layer removal. Alkaline or acidic dilute solutions that contain inorganic layers, weak acids, which contain up to 40% of their volume non-molecular fatty alcohols, for example propanols, or other water-miscible organic solvents, are suitable as manufacturers. Layers and surfaces of the most diverse kinds can be used as non-light sensitive hydrophilic layers of images. An important group is formed by layers of soluble in water and suitable for the formation of homogeneous thin non-crystallizing films of organic substances, which can be monomeric and polymeric. Suitable solubility of polymers in water are, for example, polivinilapkogol, polyvinylpyrrolidone, po-, lialkilenoksid, polialkilenymin, cellulose ethers, such as carboxymethyl cellulose or hydroxyethyl cellulose, polyacrylamide, polyacrylic acid, polymethacrylic acid, starch, dextrin, casein, gelatin, gum arabic, and tannin, to which it is advisable to add dyes that have a sensitizing effect. Suitable monomeric or low molecular weight water-soluble substances are, for example, water-soluble dyes - rhodamine, methylene blue, astrono-orange, zosin, or triphenylmethane dyes, for example, a crystal violet. Water-insoluble hydrophilic layers of inorganic and organic origin can be used. Suitable hydrophilic substances in water are, for example, association products from phenolic resins and polyethylene oxides, hardened melamine-formaldehyde resins or condensation products of amino-urea-formaldehyde resins, thickened hydrophilic colloids, for example, thickened polyvinyl globular resins, thickened hydrophilic colloids, for example, thickened polyvinyl chloride, and thickened hydrophilic colloids. Gut contains hydrophilic neo-rganic pigments. Water-insoluble hydrophilic inorganic pigments of the layered type, which are embedded in, are suitable. anodized oxide layer of the carrier, for example layers of pyrogenic silicic acid. An important group of applicable water-insoluble hydrophilic layers are layers that are obtained by treating the surface of aluminum oxide with monomeric or polymeric organic or inorganic acids or their salts, or certain complex acids or salts. Such layers are known in the technique of offset printing and are used to pretreat metal carriers for applying photosensitive layers. Suitable processing agents are alkali metal silicates, phosphonic acids or their derivatives, hexane halides of titanium or zirconium, organic polyacids, monomeric carboxylic acids or their derivatives, phosphormolybdates, silicon molybdates, and the like. In general, solutions are used for treatment with higher concentrations of the above substances than usual, preferably solutions with a weight content of 3-15%.
    In the case of hydrophilic layers, the irradiated plate without further processing is placed on an offset printing machine and in the usual manner oil or greasy ink and wetting water is applied. In this case, if the initial hydrophilic surface layer is soluble in water, it is eroded and carried away with water. If the hydrophilic layer is insoluble in water, the leaching with water practically does not occur, and the unirradiated spots directly serve as the background of the image.
    In general, known solvents generally serve as solvents for the industrial manufacture of layers. Preferably, ethylene glycol monomer methylether, ethylene glycol} monoethyl ether, dimethylformamide, diacetone-alcohol and butyrolactone. To obtain uniform layers, ethers or esters — dioxane, tetrahydrofuran, butyl acetate, and ethylene glycol methyl ether acetate — are often added to them.
    For the manufacture of a copying material for the manufacture of forms, the said substances are dissolved in one or more of the indicated solvents, applied to a lightweight carrier layer, and the applied solution is dried. Coating can be done by watering, spraying, dipping, applying by means of rollers or with a film of liquid.
    Although there is no exact idea of the nature of the change of Slr-carrier of the image under the action of a laser beam, it is possible to accept that polymerization or thickening takes place, possibly by splitting off or converting hydrophilic groups, especially hydrophilic groups into hydrophobic (water-repellent groups).
    Short-wave lasers suitable in power are suitable, for example, an argon laser, a krypton-ion laser, a gallium-cadmium laser, which emit at waves between 300 and 600 nm, but a carbon dioxide laser emitting wave 1 is also suitable for some layers ( 1.6 microns, or lasers like UAS, radiating at a wave of 1.06 microns,
     The laser beam is controlled according to a predetermined programmed law for drawing strokes and / or raster motion.
    The layers are preferably irradiated with an argon laser with a power of 1-25 W or a carbon dioxide laser according to the pattern of the image. Depending on the sensitivity or absorptivity of the bristles, speeds of up to 110 m / s and more are achieved. By focusing the laser beam with a fiber on the layer, spot ./BKIIKHAN with a diameter of less than 50 microns is obtained. If the layers are non-light sensitive, irradiation can be caused by daylight. By irradiation with a laser, long-term oleophilization (wettability by the oil) of the surface is obtained, so that it is often achieved with a large fusion resistance.
    Preferred embodiments are given below (percentages, unless otherwise indicated, are percentages by weight, as
    s weight part (Gt) should be considered
    1 g, whereas the volumetric part (Vt) is selected 1 ml.
    Example 1. A smooth, after rolling, a coil of aluminum tape is electrolytically treated to obtain a rough surface and then anodized for 146 seconds at 40 ° C with a constant current of 9 A / dm density in a water bath that contains 150 g of sulfur acid per liter. An anodic oxide layer with a thickness of 10 g / m is formed. Thereafter, for 30 seconds at 90s, the surface is treated with a 2% solution of polyvinyl phosphonic acid in water and then dried.
    According to the pattern of the image, the surface is irradiated with an argon-ion laser with a power of 5 W across all specimens.
    five . lines at a speed of at least 3.5 m / s.
    The plate - on the irradiated places becomes completely oleophilic and without further development operations.
    0 or flushing the layer can begin printing.
    Sdoy anodic oxide thick
    2 g / m of aluminum, obtained by 26 anodizing in a similar manner, which is also processed
    polyvinylphosphonic acid, irradiated by a five-fold amplified laser beam, i.e., .25 W and at a speed of 3.5 m / s, but then the irradiated sites were not enough oleo
    filnymi,
    An alimine plate with an oxide layer of 3 g / m, obtained by 40 seconds anodization as in example 1, is covered with a water solution containing 2% polyvinyl alcohol with a degree of hydrolysis of 88% and a viscosity of 4 cP ( assigned to a 4% aqueous solution at 20c and 1% of a crystal-violet. The irradiation is carried out with an argon laser at a radiation power of 5 W, then the plate is rubbed with water, due to which the non-irradiated parts are cleaned from the layer, then as the irradiated parts remain
    5 whole ones.
    In the same way, an aluminum plate with a thickness of an oct layer is coated (1 g / m of anode is anodized; 8.5 si is irradiated with a power greater than 10 W to obtain an approximately equivalent result.
    Example 3. Aluminum Plas- ,. Tinka with an anodic oxide layer of 5 g / m is anodized 75 with as in example 1, then treated with a solution of 1% -6% diazoplblic condensate obtained by condensation of 32.3 g of 3-methoxydiphenylamine-4-diazonium sulfate and, 25.8 g, 4.4 - Bismethoxymethyl-diphenyl ether in 170 g of 85% phosphoric acid with and isolation as mesitylenesulfonate, and 0.5% polyvinyl formal (mol. weight 3 € 00, hydroxyl content of 7 mol,%, acetate content of 20-27 mol.%) The irradiation | image pattern is produced by an argon laser at 10 W, then the plate is wiped with a solution of b of the following composition: 6% magnesium sulphate; 0.7% thickener (fatty alcohol-polyglycol ether), 60% water and 32% propanol. The areas not affected by the laser beam are thus removed from the carrier. As a result, a printed form is obtained.
    In the same way, plastini coated with a 1 g / m oxide layer is coated with more than 20 W to obtain a similar result.
    Example 4 An aluminum plate is coated with an oxide layer of 10 g / m, then treated with an aqueous solution that contains 1% polyvinyl alcohol with a degree of hydrolysis of 98% and a viscosity of 10 centipoise (referred to 4% aqueous solution at 20 ° C) and 0 , 3.% Zozina.
    The image pattern is irradiated by a three carbon laser carbon dioxide laser whose power is throttled to 30 watts. This achieves the olefaction of the places where the laser beam hits. After wiping with water, the printing process can be started.
    In the same way, an aluminum-coated plate with an oxide layer 1 G / M thick after irradiation with 140 W is still not completely olefilated.
    Example 5: A lamina in Example 3 is irradiated by a carbon dioxide laser in the image pattern. 30 watts of power in the beam is sufficient for oleophilic hardening of the layer.
    The same surface on an oxide layer with a thickness of only 1 g / m requires a carbon dioxide laser with a power of at least 140 W so that you can get approximately the same result.
    Example b, an aluminum plate with an anode oxide layer of 10 g / m I is coated with the following solution:
    15 weight.h. Saponification of 1 mol of 2,3,4-trihydroxybenzophenone and 3 mol of chaftoquinone- (1,2) -diazide- (2) 5-chloride of sulphonic acid; 0,70 weight.h. saponification product from 1 mol 2, 2 Dihydroxydinafthyl- (1, 1) -. ethane and 2 mol of naphthoquinone- (1,2) diazide- (2) -5-chloride sulfonic acid; 7.0 weight.h. novolak with softening point of 112-119С and a content of hydroxyl groups of 14 wt.%, 90 weight.h. ethylene glycol monomethyl ether.
    Then, the image is irradiated with a 25-watt argon-ion laser, illuminates the entire surface with an etho-halide lamp and is propelled by the propellant of the following composition: 5% sodium metasilicate with 3.3% trisodium phosphate and 0.4% monosodium phosphate in water. In this case, the areas not illuminated by azero are removed, and the illuminated areas remain as oleophilic elements of the image.
    If you use an aluminum plate with oxide 1 to cover it and light in the same way 25 W, then the maximum speed has to be taken substantially lower, in order to make the exposed parts completely insoluble in the projector even after irradiation with ultraviolet light.
    Example 7. An aluminum plastic layer with an anodic oxide layer of 10 g / m is treated with a solution that contains 1% unplasticized resin based on urea (Rezamin SHF. 237) io, 5% by birth on 6 GDN in ethylene glycol monomethyl ether.
    Glow the image with a 5-watt argon laser at 3.5 m / s and remove the places that the beam did not hit with an aqueous solution of the following composition: 3.7% magnesium sulfate .7 HjjO; 15.6% propanol 0.6% ethylene glycol monobutyester; 0.4% non-ionic thickener (Polyoxyethylene alkylphenol ether). The same layer on the anodic oxide with a layer thickness of the order of 1 g / m may not be sufficiently olefilicary.
    The thickness of the anodically produced oxide layers in the examples is determined as follows.
    A sample of anodized aluminum foil, the back side of which is preliminarily freed from the oxide layer formed in air, is weighed and immersed for 4 minutes in a solution with a temperature of the following composition: 300 ml of water, 960 ml. phosphoric acid (85%), 480 g of chromic anhydride. In this case, the oxide layer dissolves, while the aluminum remains without loss. After drying, the sample is again scooped and the weight of the layer is determined by the difference in the weight and area of the sample. Per unit area.
    98394381У
    权利要求:
    Claims (1)
    [1]
    Claims of the invention with the fact that, in order to improve the production of offset forms, radiation, oxidation of aluminum, the oxidation of one hundred. The base substrate {and is carried out until the aluminum substrate contains rums, deposited oxides from 3. to 12 g / m. Scientific research institute on the oxidized surface is sensible,
    laser irradiation re-sources of information
    layer, radiation exposures are taken into account during examination
    tiny laser beam patterned image-1. German Patent 2448325,
    marrying and washing the form, about tl and h a-cl. G 03 F vtOO, 1976 (prototype).
      . laser layer sensitivity
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    同族专利:
    公开号 | 公开日
    DE2607207C2|1983-07-14|
    NL7701829A|1977-08-25|
    GB1578591A|1980-11-05|
    US4063949A|1977-12-20|
    DK74777A|1977-08-24|
    NO770589L|1977-08-24|
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    CH625893A5|1981-10-15|
    FR2341881A1|1977-09-16|
    AU2194977A|1978-08-10|
    ES456164A1|1978-02-01|
    NL187505B|1991-05-16|
    AT352151B|1979-09-10|
    FI770549A|1977-08-24|
    CA1094376A|1981-01-27|
    FR2341881B1|1980-01-11|
    IT1073191B|1985-04-13|
    DE2607207A1|1977-09-01|
    DD129251A5|1978-01-04|
    NL187505C|1991-10-16|
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    法律状态:
    优先权:
    申请号 | 申请日 | 专利标题
    DE2607207A|DE2607207C2|1976-02-23|1976-02-23|Process for the production of planographic printing forms with laser beams|
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