| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 1 | 具有印出图象的含隐色染料的感光静电底版 | CN90103292.1 | 1990-06-30 | CN1048606A | 1991-01-16 | 理查德·约瑟夫·肯普夫; 罗尔夫·迪索尔; 史蒂文·查尔斯·弗赖里希 |
| 通过一次成象曝光由正象获得正象的高分辨率感光静电底版，它包含涂有一层感光组合物的导电基底，该组合物主要由以下成分组成：(A)至少一种聚合物粘合剂；(B)一种六芳基二咪唑光氧化剂；(C)隐色染料，最好是稳定的，被(B)氧化的；(D)一种非离子性的卤代化合物，最好是卤代烃；(E)可配伍的增塑剂。叙述了一种经过一次成象曝光形成正象的方法。所述底版可用于制造复制印刷图象的校样。 | ||||||
| 2 | Electrophotographic material for color proofing | US376630 | 1995-01-23 | US5626996A | 1997-05-06 | Eiichi Kato; Sadao Osawa |
| An electrophotographic material for color proofing which comprises a substrate, a photoconductive layer and a transfer layer in this order, wherein said photoconductive layer comprises a polymer (P) which contains at least one polymer segment (X) containing not less than 50% by weight of units having fluorine atom(s) and/or silicon atom(s) and at least one polymer segment (Y) containing units having photosetting and/or thermosetting group(s); a polymer (Q) which contains units represented by the formula I--CH(a.sub.1)--C(a.sub.2)(COOR.sub.3)--wherein a.sub.1 and a.sub.2 each independently represent a hydrogen atom, and R.sub.3 represents a hydrocarbon group; and contains at least one polar group such as --PO.sub.3 H.sub.2, --SO.sub.3 H, --COOH; and a polymer (R) containing at least one unit having photo and/or thermosetting group(s),the polymer (P) is present at least in the region near the surface facing said transfer layer, andthe surface of said photoconductive layer which contacts with the transfer layer has tack strength of not more than 150 gram.multidot.force. | ||||||
| 3 | High quality color highlight prints using B/W xerography | US95643 | 1993-07-21 | US5357326A | 1994-10-18 | Abraham Cherian |
| Simulated photographic prints are created using xerographic imaging. A transparent carrier having a xerographically formed mirror image fused thereto is bonded to a plastic substrate through the use of heat and pressure. The transparent carrier and the plastic substrate form the finished print. | ||||||
| 4 | Biscationic acid amide and acid imide derivatives as charge controllers | US863296 | 1992-06-25 | US5342723A | 1994-08-30 | Hans-Tobias Macholdt; Siegfried Schiebler; Jorg Gitzel; Erwin Dietz |
| Use of biscationic acid imide and acid imide derivatives whose anion is the stoichiometric equivalent of one or more organic or inorganic, mixed or non-mixed anions, the compounds also being able to exist as mixed crystals with different cations, individually or in combination, as charge controllers for toners and developers employed for electrophotographic copying or multicopying of originals and for printing electronically, optically or magnetically stored data or in color proofing, and as charge controllers for powders and powder paints. | ||||||
| 5 | Process for producing color images | US347407 | 1989-05-04 | US4988591A | 1991-01-29 | Detlef Winkelmann |
| A process for producing color images electrophotographically by means of toner image transfer, wherein toner images of different colors are successively transferred to an adhesive layer with application of pressure, is disclosed. The process produces colored copy true to the original, and is particularly useful for producing images for film proofing methods. | ||||||
| 6 | Electrophotographic color proofing apparatus and method | US838637 | 1986-03-11 | US4708459A | 1987-11-24 | Carl E. Cowan; Anthony R. Lubinsky; Thomas W. Nylund; Malcolm R. Specht; John P. Spence |
| Electrophotographic color proof generating apparatus includes a charger station, an exposure station, and a development station. Starting with color half-tone separations of artwork, the apparatus, using a unique method, electronically controls the exposure and potentials at the charger and development stations to generate a proof. The apparatus is designed to generate proofs which match the dot gain or loss and density of press sheets printed by a great variety of commercial presses starting with the same separations as are used to form the proofs. The separations are then modified until the apparatus generates a proof which is an acceptable reproduction of the artwork. The modified separations are then used to generate a press sheet on the commercial press which will be an acceptable reproduction of the artwork. | ||||||
| 7 | SELECTING COLORANT AMOUNT FOR PRINTING | US15545948 | 2015-04-10 | US20180020119A1 | 2018-01-18 | Doron Schlumm; Nir Mosenson; Yohanan Sivan; Ziv Berkovich |
| A method for selecting a colorant amount for printing is described in which a maximum optical density of an image is identified. The maximum optical density is compared to with a threshold optical density, and when the threshold is exceeded, dot cluster sizes from a first lookup table are selected, otherwise, dot cluster sizes from a second lookup table are selected. A colorant thickness corresponding to the selected dot cluster sizes is selected for printing the image. | ||||||
| 8 | Method for forming an image | US10206050 | 2002-07-29 | US20030017409A1 | 2003-01-23 | Naotaka Wachi; Kazuhito Miyake; Takeshi Konno; Akira Hatakeyama; Shigeki Kawagoe |
| A method for forming an image using a transfer material and an image-receiving material. The transfer material has at least a support, a light-heat exchange layer and a coloring material layer. The image-receiving material has at least an image-receiving layer. The coloring material layer is superposed on the image-receiving layer, and laser light is imagewasely irradiated onto this laminate from the transfer material side. An irradiated region of the coloring material layer transfers onto the image-receiving layer. The transfer material may include an electroconductive layer, and the surface of the coloring material layer may be charged by corona discharge before superposition. Moreover, yellow, magenta, cyan and black may be used one after another, The laser light may be irradiated from a multi-beam 2-dimensional laser array, The thickness of black coloring material layer is from 0.5 to 0.7 nullm and is greater than the thickness of other coloring material layers. | ||||||
| 9 | Electrophotographic color imaging method | US859273 | 1986-05-02 | US4686163A | 1987-08-11 | Yee Seung Ng; Lawrence E. Contois; John D. Mitchell; James D. Walling |
| An electrophotographic imaging method is described that uses an element comprising a photoconductive layer on an electrically conducting substrate capable of transmitting actinic radiation to which the photoconductive layer is responsive, and a dielectric support, releasably adhered to the substrate, comprising the photoconductive layer or an overcoat thereof forming a surface of the element capable of holding an applied electrostatic charge. To use the element, the surface of the dielectric support is charged, and the photoconductive layer is imagewise-exposed to actinic radiation, thereby forming a developable electrostatic image on the dielectric surface. The electrostatic image, in turn, is developed with toner to form a first color image. A composite color image is formed on the element by repeating the sequence one or more times with imagewise exposure of the photoconductive layer to actinic radiation transmitted through the substrate, and developing over each preceding image with a different color toner. The composite toner image is transferred with the dielectric support to a receiving element to form a color copy such as a three-color filter array or a color proof closely simulating the color print expected from a full press run. | ||||||
| 10 | Color proofing method and article | US838486 | 1986-03-11 | US4657831A | 1987-04-14 | Joseph H. Ambro; Lawrence E. Contois |
| Electrophotographic color proofs of half-tone dot pattern images are made which closely simulate the dot gain of prints made with lithographic plates and liquid inks. In forming the color proof, a thin transparent plastic sheet having on one side an electrophotographic toner dot pattern image is laminated to a reflective support with the toner image side in contact with the support. A thicker transparent plastic sheet is laminated to the other side of the thin sheet. The resulting color proof comprising a toner dot pattern on a reflective support and covered by a thin transparent layer and a thicker transparent layer has an apparent increase in dot size which simulates that of a press print. | ||||||
| 11 | Electrophotographic color proofing element and method for using the same | US773528 | 1985-09-06 | US4600669A | 1986-07-15 | Yee S. Ng; Lawrence E. Contois; John D. Mitchell; James D. Walling |
| An electrophotographic proofing element is described comprising a photoconductive layer on an electrically conducting substrate, capable of transmitting actinic radiation to which the photoconductive layer is responsive, and a dielectric support, releasably adhered to the substrate, comprising the photoconductive layer or an overcoat thereof forming a surface of the element capable of holding an applied electrostatic charge. To use the element, the surface of the dielectric support is charged, and the photoconductive layer is imagewise-exposed to actinic radiation, thereby forming a developable electrostatic image on the dielectric surface. The electrostatic image, in turn, is developed with toner to form a first color image. A composite color image is formed on the element by repeating the sequence one or more times with imagewise exposure of the photoconductive layer to actinic radiation transmitted through the transparent support, and developing over each preceding image with a different color toner. The composite toner image is transferred with the dielectric support to a receiving element to form a color copy such as a three-color filter array or a color proof closely simulating the color print expected from a full press run. | ||||||
| 12 | Method for forming an image | US10206050 | 2002-07-29 | US06534236B2 | 2003-03-18 | Naotaka Wachi; Kazuhito Miyake; Takeshi Konno; Akira Hatakeyama; Shigeki Kawagoe |
| A method for forming an image using a transfer material and an image-receiving material. The transfer material has at least a support, a light-heat exchange layer and a coloring material layer. The image-receiving material has at least an image-receiving layer. The coloring material layer is superposed on the image-receiving layer, and laser light is imagewasely irradiated onto this laminate from the transfer material side. An irradiated region of the coloring material layer transfers onto the image-receiving layer. The transfer material may include an electroconductive layer, and the surface of the coloring material layer may be charged by corona discharge before superposition. Moreover, yellow, magenta, cyan and black may be used one after another, The laser light may be irradiated from a multi-beam 2-dimensional laser array, The thickness of black coloring material layer is from 0.5 to 0.7 &mgr;m and is greater than the thickness of other coloring material layers. | ||||||
| 13 | Method for forming an image | US09842629 | 2001-04-27 | US06458504B2 | 2002-10-01 | Naotaka Wachi; Kazuhito Miyake; Takeshi Konno; Akira Hatakeyama; Shigeki Kawagoe |
| A method for forming an image using a transfer material and an image-receiving material. The transfer material has at least a support, a light-heat exchange layer and a coloring material layer. The image-receiving material has at least an image-receiving layer. The coloring material layer is superposed on the image-receiving layer, and laser light is imagewasely irradiated onto this laminate from the transfer material side. An irradiated region of the coloring material layer transfers onto the image-receiving layer. The transfer material may include an electroconductive layer, and the surface of the coloring material layer may be charged by corona discharge before superposition. Moreover, yellow, magenta, cyan and black may be used one after another, The laser light may be irradiated from a multi-beam 2-dimensional laser array, The thickness of black coloring material layer is from 0.5 to 0.7 &mgr;m and is greater than the thickness of other coloring material layers. | ||||||
| 14 | Method for forming an image | US09842629 | 2001-04-27 | US20020009664A1 | 2002-01-24 | Naotaka Wachi; Kazuhito Miyake; Takeshi Konno; Akira Hatakeyama; Shigeki Kawagoe |
| A method for forming an image using a transfer material and an image-receiving material. The transfer material has at least a support, a light-heat exchange layer and a coloring material layer. The image-receiving material has at least an image-receiving layer. The coloring material layer is superposed on the image-receiving layer, and laser light is imagewasely irradiated onto this laminate from the transfer material side. An irradiated region of the coloring material layer transfers onto the image-receiving layer. The transfer material may include an electroconductive layer, and the surface of the coloring material layer may be charged by corona discharge before superposition. Moreover, yellow, magenta, cyan and black may be used one after another, The laser light may be irradiated from a multi-beam 2-dimensional laser array, The thickness of black coloring material layer is from 0.5 to 0.7 nullm and is greater than the thickness of other coloring material layers. | ||||||
| 15 | Color image forming method and apparatus used therefor | US647217 | 1996-05-09 | US5689785A | 1997-11-18 | Eiichi Kato; Sadao Osawa |
| A color image forming method which comprises forming a mono-color or multi-color toner image on an electrophotographic photoreceptor having a releasing surface by an electrophotographic process; forming a releasable transfer layer on the photoreceptor having the toner image formed thereon; transferring the toner image together with the transfer layer onto a primary receptor; and transferring the toner image together with the transfer layer from the primary receptor onto the final receiving material, and an apparatus for carrying out the image forming method. | ||||||
| 16 | Electrophotographic material for color proofing | US279068 | 1994-07-22 | US5670283A | 1997-09-23 | Eiichi Kato; Sadao Osawa |
| An electrophotographic material for color proofing which comprises a substrate, a photoconductive layer and a transfer layer in this order, and is used for preparing a color proof in a process wherein at least one color toner image is electrophotographically formed on the transfer layer and then transferred together with said transfer layer to a sheet material to prepare the color proof, wherein said photoconductive layer comprises a polymer (P) and/or a polymer particle (L) which contain units having fluorine atom(s) and/or silicon atom(s) at least in the region near the surface facing said transfer layer and the surface of said photoconductive layer which contacts with the transfer layer has tack strength of not more than 150 gram.multidot.force, which is measured by Pressure Sensitive Tape and Sheet Test of JIS Z0237-1980. | ||||||
| 17 | Color image forming method | US219453 | 1994-03-29 | US5582941A | 1996-12-10 | Eiichi Kato; Sadao Osawa |
| A color image forming method which comprises forming a mono-color or multi-color toner image on an electrophotographic photoreceptor having a releasing surface by an electrophotographic process; forming a releasable transfer layer on the photoreceptor having the toner image formed thereon; transferring the toner image together with the transfer layer onto a primary receptor; and transferring the toner image together with the transfer layer from the primary receptor onto the final receiving material, and an apparatus for carrying out the image forming method. | ||||||
| 18 | Method of forming a color image and apparatus used therefor | US294600 | 1994-08-23 | US5526102A | 1996-06-11 | Eiichi Kato |
| A method of forming a color image including the steps of forming at least one color toner image on an electrophotographic light-sensitive element whose surface has releasability by an electrophotographic process, transferring the toner image onto a primary receptor having a peelable transfer layer provided thereon, and then transferring the toner image together with the transfer layer from the primary receptor onto a receiving material. | ||||||
| 19 | Electrophotographic material for color proofing | US24770 | 1993-03-02 | US5395721A | 1995-03-07 | Eiichi Kato; Sadao Osawa |
| An electrophotographic material for color proofing which comprises a substrate, a photoconductive layer and a transfer layer in this order, wherein said photoconductive layer comprises a polymer (P) which contains at least one polymer segment (x) containing not less than 50% by weight of units having fluorine atom(s) and/or silicon atom(s) and at least one polymer segment (Y) containing units having photosetting and/or thermosetting group(s); a polymer (Q) which contains not less than 30% by weight of units represented by the formula I--CH(a.sub.1)--C(a.sub.2)(COOR.sub.3)--wherein a.sub.1 and a.sub.2 each represents independently a hydrogen atom, R.sub.3 represents a hydrocarbon group; and contains at least one polar group such as --PO.sub.3 H.sub.2, --SO.sub.3 H, --COOH; and a polymer (R) containing at least one unit having photo and/or thermosetting group(s),the polymer (P) is present at least in the region near the surface facing said transfer layer, andthe surface of said photoconductive layer which contacts with the transfer layer has tack strength of not more than 150 gram.cndot.force. | ||||||
| 20 | Electrophotographic material for color proofing | US39762 | 1993-03-30 | US5391445A | 1995-02-21 | Eiichi Kato; Sadao Osawa |
| An electrophotographic material for color proofing which comprises a substrate, a photoconductive layer and a transfer layer in this order, wherein said photoconductive layer comprises a polymer (P) which contains at least one polymer segment (X) containing not less than 50% by weight of units having fluorine atom(s) and/or silicon atom(s) and at least one polymer segment (Y) containing units having photosetting and/or thermosetting group(s); a polymer (Q) which contains not less than 30% by weight of units represented by the formula (I):--CH(b.sup.1)--C(b.sup.2)(COOR.sup.3)--wherein b.sup.1 and b.sup.2 each represents independently a hydrogen atom, and R.sup.3 represents a hydrocarbon group, and contains at least one one-functional macromonomer containing one or more units having polar group such as --PO.sub.3 H.sub.2, --SO.sub.3 H, --COOH and a residue of a cyclic anhydride in its main chain and a group having polymerizable double bond,the polymer (P) is present at least in the region near the surface facing said transfer layer, andthe surface of said photoconductive layer which contacts with the transfer layer has tack strength of not more than 150 gram.force. | ||||||
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