Photographic material having contiguous red layers

Abstract: Disclosed is a multilayer color photographic element comprising at least three red sensitive silver halide emulsion layers the first of the red sensitive layers being the furthest red sensitive layer from the support, the second red sensitive layer being less red sensitive than the first red sensitive layer, the first red sensitive layer and the second red sensitive layers being contiguous, and the first red sensitive layer being a coupler starved layer free of cyan image dye-forming coupler. This photographic element enables improved granularity, sharpness and color.

Description: Technical Field This invention relates to a photographic material having multiple color layers comprising contiguous more red sensitive and less red sensitive layers wherein the more red sensitive layer is furthest from the support. Prior Art Color photographic material comprising multiple layers containing photographic couplers are well known. Typical photographic materials are described is US-A-4,724,198; 4,184,876; 4,186,016; and 4,724,198. Assessment of the Art Prior photographic materials have exhibited sharpness and granularity problems particularly granularity when lower silver levels are used. Granularity problems are more severe especially when low contrast is needed. That is, when the amount of silver is lowered, higher levels of granularity are experienced because the lower silver level results in fewer developable sites. Various ways are recognized in the photographic art for improving granularity. However, these improvements have not been without problems. For example, often the improvement in granularity has been at the expense of other properties such as sharpness and color. Further, in a low contrast photographic element it is difficult to gain speed and still maintain or even improve granularity. Disclosure of the Invention The present invention solves these types of problems by providing a multilayer color photographic element comprising a support having coated thereon photographic silver halide emulsion layers said layers including at least three red sensitive silver halide emulsion layers the first of said red sensitive layers being the furthest red sensitive layer from the support, the second red sensitive layer being less red sensitive than the first red sensitive layer, said first red sensitive layer and said second red sensitive layers being contiguous, and at least one of said layers comprising a yellow image dye-forming coupler. Preferably, the first red layer contains said yellow image dye-forming coupler and wherein said layer is starved of cyan dye-forming coupler. Preferably, both the first and second red-sensitive layers contain said yellow image dye-forming coupler. Preferably, the first red-sensitive layer is a coupler-starved layer. In a preferred embodiment, the first red sensitive layer is comprised of (a) at least one development inhibitor releasing coupler, (b) said yellow image dye-forming coupler; and (c) a cyan dye forming masking coupler; and the second red sensitive layer is comprised of (d) a cyan image dye forming coupler, (e) a development inhibitor anchimeric releasing coupler, (f) a bleach accelerator releasing coupler, (g) a cyan dye-forming masking coupler; and (h) a second yellow coupler for color correcting, the second yellow coupler being more reactive than said first yellow coupler for color correcting. A preferred photographic element in accordance with the invention typically comprises the following layer order: The image dye-forming couplers in the blue-sensitive, green-sensitive and red sensitive layers as described can be any of the image dye-forming couplers known in the photographic art for such layers for forming yellow, magenta and cyan dye images. Such couplers can comprise a coupler moiety (COUP) known in the art and as described. Combinations of the image dye-forming couplers can be useful in the described photographic silver halide emulsion layers. The couplers that are cyan image dye-forming couplers are typically phenols or naphthols, such as described in the photographic art for forming cyan dyes upon oxidative coupling. Examples of such couplers that form cyan dyes are typically phenols and naphthols that are described in such representative patents and publications as: US-A-2,772,162; 3,772,002; 4,526,864; 4,500,635; 4,254,212; 4,296,200; 4,457,559; 2,895,826; 3,002,936; 3,002,836; 3,034,892; 2,474,293; 2,423,730; 2,367,531; 3,041,236; 4,443,536; 4,124,396; 4,775,616; 3,779,763; 4,333,999 and "Farbkuppler: Eine Literatürbersicht", published in Agfa Mitteilungen, Band III, pages 156-175 (1961). The couplers that are magenta image dye-forming couplers are typically pyrazolones, pyrazolotriazoles and benzimidazoles such as described in the photographic art for forming magenta dyes upon oxidative coupling. The couplers that are magenta image dye-forming couplers are typically pyrazolones, pyrazolotriazoles and benzimidazoles, such couplers are described in such representative patents and publications as US-A-2,600,788; 2,369,489; 2,343,703; 2,311,082; 3,824,250; 3,615,502; 4,076,533; 3,152,896; 3,519,429; 3,062,653; 2,908,573; 4,540,654; 4,443,536; 3,935,015; and European Applications 284,239; 284,240; 240,852; 177,765 and "Farbkuppler: Eine Literaturbersicht" published in Agfa Mitteilungen, Band III, pages 126-156 (1961). Couplers that are yellow dye forming couplers are typically acylacetamides, such as benzoylacetanilides and pivalylacetanilides. Such couplers are described in such representative patents and publications as: US-A-2,875,057; 2,407,210; 3,265,506; 2,298,443; 3,048,194; 4,022,620; 4,443,536; 3,447,928 and "Farbkuppler: Eine Literatürbersicht", published in Agfa Mitteilungen, Band III, pages 112-126 (1961). The photographic element may be processed to form a developed image in an exposed color photographic element by developing the element with a color developer. OVERCOAT LAYER The overcoat layer can combine a single or double layer. This layer can contain components known in the photographic art for overcoat layers and can contain UV absorbers, matting agents, surfactants, and like. This layer, for example, can also comprise a dye which can help in adjusting the photographic sensitivity of the element. SLOW YELLOW LAYER In the photographic element, the least sensitive blue or slow yellow layer contains a yellow image dye-forming coupler and a bleach accelerator releasing coupler. The yellow image dye-forming coupler can be any yellow image dye-forming coupler useful in the photographic art. Couplers that are yellow image dye-forming couplers are typically acylacetamides, such as benzoylacetanilides and pivalylacetanilides, such as described in the photographic art for forming yellow dyes upon oxidative coupling. The class of yellow image dye-forming couplers characterized as benzoylacetanilide couplers is illustrated by those described in, for example US-A-4,022,620 and 4,980,267. A typical example of such a coupler is illustrated by the formula: The class of yellow image dye-forming couplers characterized as pivalylacetanilide couplers is illustrated by those described in, for example US-A-3,933,501 and comprise a phenoxy coupling off group. Such a coupler is represented by the formula: wherein R 2 is chlorine, bromine or alkoxy; R 3 is a ballast group, such as a sulfonamide or carboxamide ballast group; and Z is a coupling-off group, preferably a phenoxy or substituted phenoxy coupling off group. The yellow image dye-forming coupler in the least sensitive blue layer is typically a coupler which is more reactive than the yellow image dye-forming coupler in the most sensitive blue layer. A preferred yellow image dye-forming coupler is: The bleach accelerator releasing coupler (BARC) can be any bleach accelerator releasing coupler know in the photographic art. Combinations of such couplers are also useful. The bleach accelerator releasing coupler can be represented by the formula: wherein COUP is a coupler moiety as described, typically a cyan, magenta or yellow dye-forming coupler moiety; T 2 is a timing group known in the photographic art, typically a timing group as described in US-A-4,248,962 and 4,409,323; m is either 0 or 1; R 3 is an alkylene group, especially a branched or straight chain alkylene group, containing 1 to 8 carbon atoms; and R 4 is a water-solubilizing group, preferably a carboxy group. Typical bleach accelerator releasing couplers are described in, for example, European Patent 193,389. A preferred bleach accelerator releasing coupler is: FAST YELLOW LAYER In the photographic element, the most sensitive blue or fast yellow layer contains a yellow image dye-forming coupler, a development inhibitor releasing coupler (DIR), and/or a timed development inhibitor releasing coupler (DIAR) and a bleach accelerator releasing coupler. The yellow image dye-forming coupler can be any yellow image dye-forming coupler useful in the photographic art. Typically, the yellow image dye-forming coupler in the most sensitive blue layer is preferably less reactive than the yellow image dye-forming coupler in the least sensitive blue layer. Suitable yellow image dye-forming couplers useful in the invention are as described with respect to such slow yellow layer, with the preferred coupler illustrated by the formula: The development inhibitor releasing coupler in the fast yellow layer can be any DIR known in the photographic art. Typical DIR couplers are described in, for example, U.K. Patent 2,099,167. Such DIR couplers upon oxidative coupling preferably do not contain a group that times or delays release of the development inhibitor group. The DIR coupler is typically represented by the formula: COUP-INH wherein: COUP is a coupler moiety, and INH is a releasable development inhibitor group that is bonded to the coupler moiety at a coupling position. The coupler moiety, COUP, can be any coupler moiety that is capable of releasing the INH group upon oxidative coupling. The coupler moiety, COUP, is for example, a cyan, magenta, or yellow forming coupler known in the photographic art. The COUP can be ballasted with a ballast group known in the photographic art. The COUP can also be monomeric, or it can form part of a dimeric, oligomeric or polymeric coupler, in which case more than one inhibitor group can be contained in the DIR coupler. The releasable development inhibitor group, INH, can be any development inhibitor group known in the photographic art. Examples, include those described, in for example, US-A-4,248,962; 3,227,554; 3,384,657; 3,615,506; 3,617,291; 3,733,202; and U.K. 1,450,479. Illustrative INH groups include: mercaptotetrazoles, selenotetrazoles, mercaptobenzothiazoles, selenobenzothiazoles, mercaptobenzimidazoles, selenobenzimidazoles mercaptobenzoxazoles, selenobenzoxazoles, mercaptooxadiazoles, mercaptothiadiazoles, benzotriazoles, benzodiazoles, mercaptotriazoles, 1,2,4-triazoles, tetrazoles, and imidazoles. Preferred inhibitor groups are mercaptotetrazoles and benzotriazoles. Particularly preferred inhibitor groups are described in, for example, US-A-4,477,563 and 4,782,012. A typical DIR coupler within COUP-INH is: The DIAR which can be used can be any DIAR which will provide a timed development inhibitor release. That is, a development inhibitor releasing coupler containing at least one timing group (T) that enables timing of release of the development inhibitor group can be any development inhibitor releasing coupler containing at least one timing group known in the photographic art. The development inhibitor releasing coupler containing at least one timing group is represented by the formula: wherein: COUP is a coupler moiety, as described, typically a cyan, magenta, or yellow dye-forming coupler moiety; T and T 1 individually are timing groups, typically a timing group as described in US-A-4,248,962 and 4,409,232, n is 0 or I; Q 1 is a releasable development inhibitor group known in the photographic art. Q 1 can be selected from the INH group as described. A preferred coupler of this type is described in US-A-4,962,018. The timed DIR coupler is typically a pivalylacetanilide coupler, with a preferred timed DIR coupler illustrated by the formula: Suitable bleach accelerator releasing couplers useful in the invention are as described for the slow yellow layer with the preferred compound being the same as described with respect to such slow yellow layer. INTERLAYER In the photographic element the interlayer between the fast yellow layer and the fast magenta layer is comprised of Carey Lea silver (CLS) and any oxidized developer scavenger known to the photographic art. Such oxidized developer scavengers are described in US-A-4,923,787. A preferred oxidized developer scavenger is: This layer may also contain dyes to improve image sharpness and/or to tailor photographic sensitivity of the photographic elements below said interlayer. FAST MAGENTA LAYER In the photographic element, the most sensitive green layer or fast magenta layer contains a magenta image dye-forming coupler, a development inhibitor releasing coupler (DIR), a timed development inhibitor releasing coupler (DIAR) and a yellow colored color correcting coupler. The magenta image dye-forming coupler can be any magenta image dye-forming coupler useful in the photographic art. The couplers that are magenta image dye-forming couplers are typically pyrazolones, pyrazolotriazoles and benzimidazoles, such couplers are described in such representative patents and publications as US-A-2,600,788; 2,369,489; 2,343,703; 2,311,082; 3,824,250; 3,615,502; 4,076,533; 3,152,896; 3,519,429; 3,062,653; 2,908,573; 4,540,654; 4,443,536; 3,935,015; and European Applications 284,239; 284,240; 240,852; 177,765 and "Farbkuppler: Eine Literaturbersicht" published in Agfa Mitteilungen, Band III, pages 126-156 (1961). A preferred magenta image dye-forming coupler for the magenta layers is: The development inhibitor releasing coupler in the fast magenta layer can be any DIR known in the photographic art. Typical DIR couplers are described in, for example, US-A-3,227,554. Such DIR couplers upon oxidative coupling preferably do not contain a group that times or delays release of the development inhibitor group. A preferred development inhibitor releasing coupler is: Suitable timed development inhibitor releasing couplers (DIAR) useful in the invention are as described with respect to such fast yellow layer with the preferred compound being the same as described with respect to such fast yellow layer. The color correcting coupler in the fast magenta layer can be any color correcting coupler of suitable hue for use in a photographic element. Typically this color correcting coupler is a yellow colored magenta dye-forming coupler, such as described in US-A-3,519,427. A preferred colored correcting coupler for the fast magenta layer is: This layer can also contain dyes to improve image sharpness and/or to tailor photographic sensitivity of the photographic elements below said layer. INTERLAYER In the photographic element the interlayer between the fast magenta layer and the fast cyan layer is comprised of any oxidized developer scavenger known in the photographic art. Suitable compounds useful in the invention are as described for the interlayer between the fast yellow layer and the fast magenta layer with the preferred compound being the same as described with respect to such interlayer between the fast yellow layer and the fast magenta layer. This layer can also contain dyes to improve image sharpness and/or to tailor photographic sensitivity of the photographic elements below said layer. FAST CYAN LAYER In the photographic element, the most sensitive red layer or fast cyan layer contains a development inhibitor releasing coupler (DIR), a magenta colored color correcting coupler, and a yellow image dye-forming coupler. As noted this layer is a coupler starved layer. The layer is free of a cyan image dye-forming coupler. As used herein by coupler starved is meant a condition in the layer in which there is less dye-forming coupler than is theoretically capable of reacting with all of the oxidized developing agent generated at maximum exposure. Coupler other than image dye-forming couplers can be present in this layer and such couplers can include, for example development inhibitor releasing couplers and color correcting couplers. These other couplers are typically used at concentrations known in the photographic art. A preferred concentration for a DIR is in the range of 0 to 35mg/m2. A development inhibitor releasing coupler (DIR) in the fast cyan layer can be any development inhibitor releasing coupler known in the photographic art. Typical DIR couplers are described in, for example, US-A-3,227,554; 3,384,657; 3,615,506; 3,617,291; 3,733,201 and U.K. 1,450,479. Such DIR couplers upon oxidative coupling preferably do not contain a group that times or delays release of the development inhibitor group. The DIR coupler is typically represented by the formula: COUP-INH wherein: COUP is a coupler moiety, and INH is a releasable development inhibitor group that is bonded to the coupler moiety at a coupling position. The coupler moiety, COUP, can be any coupler moiety that is capable of releasing the INH group upon oxidative coupling. The coupler moiety, COUP, is for example, a cyan, magenta, or yellow forming coupler known in the photographic art. The COUP can be ballasted with a ballast group known in the photograhic art. The COUP can also be monomeric, or it can form part of a dimeric, oligomeric or polymeric coupler, in which case more than one inhibitor group can be contained in the DIR coupler. The releasable development inhibitor group, INH, can be any development inhibitor group known in the photographic art. Examples, include those described, in for example, US-A-4,248,962; 3,227,554; 3,384,657; 3,615,506; 3,617,291; 3,733,202; and U.K. 1,450,479. Illustrative INH groups include: mercaptotetrazoles, selenotetrazoles, mercaptobenzothiazoles, selenobenzathiazoles, mercaptobenzimidazoles, selenobenzimidazoles mercaptobenzoxazoles, selenobenzoxazoles, mercaptooxadiazoles, mercaptothiadiazoles, benzotriazoles, benzodiazoles, mercaptotriazoles, 1,2,4-triazoles, tetrazoles, and imidazoles. Preferred inhibitor groups are mercaptotetrazoles and benzotriazoles. Particularly preferred inhibitor groups are described in, for example, US-A-4,477,563 and 4,782,012, which are incorporated herein by reference. A preferred DIR coupler within COUP-INH is: The color correcting coupler in the fast cyan layer can be any color correcting coupler of suitable hue for use in a photographic element. Typically this color correcting coupler is a magenta colored cyan dye-forming coupler, such as a naphthol cyan dye-forming coupler as described in US-A-3,476,536. A preferred color correcting coupler for the fast cyan layer is: Further, any yellow image dye-forming coupler can be used in the fast cyan layer. The yellow image dye-forming coupler is present for purposes of color correction. The yellow image dye-forming coupler in the fast cyan layer is preferably less reactive than the yellow image dye-forming coupler in the mid cyan layer. The reactivities of the yellow image dye-forming couplers should be matched with reactivities of the DIR and/or DIAR in the corresponding fast cyan and mid cyan layers. In the present invention the yellow image dye-forming coupler used in the fast cyan layer can be the same as described with respect to such fast yellow layer with the preferred compound being the same as described with respect to such fast yellow layer. MID CYAN LAYER In the photographic element, the less sensitive red layer or mid cyan layer contains a cyan image dye-forming coupler, a timed development inhibitor releasing coupler, a magenta colored color correcting coupler, a bleach accelerator releasing coupler, and a yellow image dye-forming coupler. The cyan image dye-forming coupler can be any cyan image dye-forming coupler useful in the photographic art. The cyan image dye-forming coupler is typically a phenol or naphthol coupler. Couplers that form cyan dyes upon reaction with oxidized color developing agents are described in such representative patents and publications as: US-A-2,772,162; 3,476,563; 4,526,864; 4,500,635; 4,254,212; 4,296,200; 4,457,559; 2,895,826; 3,002,836; 3,034892; 2,474,293; 2,801,171; 2,423,730; 2,367,531; 3,041,236; 4,443,536; 4,333,999; 4,124,396; 4,775,616; 3,779,763; 3,772,002; 3,419,390; 4,690,889; 3,996,253; and "Farbkuppler: Eine Literatürbersicht", published in Agfa Mitteilungen, Band III, pages 156-175 (1961). A preferred cyan image dye-forming coupler for the cyan layers other than the fast cyan layer is: The DIAR which can be used can be any DIAR which will provide a timed development inhibitor release. That is, a development inhibitor releasing coupler containing at least one timing group (T) that enables timing of release of the development inhibitor group can be any development inhibitor releasing coupler containing at least one timing group known in the photographic art. The development inhibitor releasing coupler containing at least one timing group is represented by the formula: wherein COUP is a coupler moiety, as described, typically a cyan, magenta, or yellow dye-forming coupler moiety; T and T 1 individually are timing groups, typically a timing group as described in US-A-4,248,962 and 4,409,232; n is 0 or I; Q 1 is a releasable development inhibitor group known in the photographic art. Q 1 can be selected from the INH group as described. A preferred DIAR coupler of this type is described in US-A-4,962,018. Suitable magenta colored color correcting couplers useful in the invention are as described for the most sensitive red layer with the preferred compound being the same as described with respect to such most sensitive red layer. Suitable bleach accelerator releasing couplers useful in the invention are as described for the slow yellow layer with the preferred compound being the same as described with respect to such slow yellow layer. Further, any yellow image dye-forming coupler can be used in the mid cyan layer. The yellow image dye-forming coupler is present for purposes of color correction. The yellow image dye-forming coupler in the mid cyan layer is preferably more reactive than the yellow image dye-forming coupler in the fast cyan layer. The reactivities of the yellow image dye-forming couplers should be matched with reactivities of the DIR and/or DIAR in the corresponding fast cyan and mid cyan layers. In the present invention the yellow image dye-forming coupler used in the mid cyan layer can be the same as described with respect to such slow yellow layer with the preferred compound being the same as described with respect to such slow yellow layer. INTERLAYER In the photographic element the interlayer between the mid cyan layer and the slow magenta layer is comprised of any oxidized developer scavenger and a fine grain silver halide emulsion, preferably a Lippmann emulsion, known in the photographic art. Suitable oxidized developer scavenger compounds useful in the invention are as described for the interlayer between the fast yellow layer and the fast magenta layer with the preferred compound being the same as described with respect to such interlayer between the fast yellow layer and the fast magenta layer. This layer can also contain dyes to improve image sharpness and/or to tailor photographic sensitivity of the photographic elements below said layer. SLOW MAGENTA LAYER In the photographic element, the least sensitive green layer or slow magenta layer contains a magenta image dye-forming coupler and a bleach accelerator releasing coupler. Suitable magenta image dye-forming couplers useful in the invention are as described for the most sensitive green layer with the preferred compound being the same as described with respect to such most sensitive green layer. Suitable bleach accelerator releasing couplers useful in the invention are as described for the slow yellow layer with the preferred compound being the same as described with respect to such slow yellow layer. INTERLAYER In the photographic element the interlayer between the slow magenta layer and the slow cyan layer is comprised of any oxidized developer scavenger known in the photographic art. Suitable oxidized developer scavenger compounds useful in the invention are as described for the interlayer between the fast yellow layer and the fast magenta layer with the preferred compound being the same as described with respect to such interlayer between the fast yellow layer and the fast magenta layer. This layer can also contain a dye to tailor photographic sensitivity of the photographic element below said layer. SLOW CYAN LAYER In the photographic element, the least sensitive red layer or slow cyan layer contains a cyan image dye-forming coupler, a magenta colored color correcting coupler, and a bleach accelerator releasing coupler. Suitable cyan image dye-forming couplers useful in the invention are as described for the mid cyan layer with the preferred compound being the same as described with respect to such mid cyan layer. Suitable magenta colored color correcting couplers useful in the invention are as described for the most sensitive red layer with the preferred compound being the same as described with respect to such most sensitive red layer. Suitable bleach accelerator releasing couplers useful in the invention are as described for the slow yellow layer with the preferred compound being the same as described with respect to such slow yellow layer. ANTIHALATION LAYER The antihalation layer can contain very fine gray or black silver filamentary or colloidal silver, e.g. yellow silver, and preferably a UV absorbing dye, gelatin and colored dye to provide density to the film. EMULSIONS In a preferred photographic element it is desired to obtain low contrast with low granularity. This is obtained by utilizing silver halide with high iodide content. In the mid cyan and fast cyan layers the mol % silver iodide in the emulsion can range from 6 to 14 mol% iodide, and preferably 8 to 13 mol % iodide. In the remaining fast layers the silver bromoiodide in the emulsion can range from 3 to 14 mol % iodide. The slow layers contain silver bromoiodide with an iodide content of 0 to 4 mol %. The iodide concentrations in the fast layer is particularly advantageous because it enables low contrast with low granularity. In the following discussion of suitable materials for use in the emulsions and elements of this invention, reference will be made to Research Disclosure , December 1989, Item 308119, published by Kenneth Mason Publications, Ltd., Dudley Annex, 12a North Street, Emsworth, Hampshire P010 7DQ, ENGLAND. This publication will be identified hereafter by the term "Research Disclosure". The silver halide emulsions employed in the elements of this invention can be negative-working. Suitable emulsions and their preparation are described in Research Disclosure Sections I and II and the publications cited therein. Suitable vehicles for the emulsion layers and other layers of elements of this invention are described in Research Disclosure Section IX and the publications cited therein. In addition to the couplers generally described above, the elements of the invention can include additional couplers as described in Research Disclosure Section VII, paragraphs D, E, F and G and the publications cited therein. These couplers can be incorporated in the elements and emulsions as described in Research Disclosure Section VII, paragraph C and the publications cited therein. The photographic elements of this invention or individual layers thereof, can contain brighteners (see Research Disclosure Section V), antifoggants and stabilizers (See Research Disclosure Section VI), antistain agents and image dye stabilizers (see Research Disclosure Section VII, paragraphs I and J), light absorbing and scattering materials (see Research Disclosure Section VIII), hardeners (see Research Disclosure Section IX), plasticizers and lubricants (See Research Disclosure Section XII), antistatic agents (see Research Disclosure Section XIII), matting agents (see Research Disclosure Section XVI) and development modifiers (see Research Disclosure Section XXI). The photographic elements can be coated on a variety of supports as described in Research Disclosure Section XVII and the references described therein. Photographic elements can be exposed to actinic radiation, typically in the visible region of the spectrum, to form a latent image as described in Research Disclosure Section XVIII and then processed to form a visible dye image as described in Research Disclosure Section XIX. Processing to form a visible dye image includes the step of contacting the element with a color developing agent to reduce developable silver halide and oxidize the color developing agent. Oxidized color developing agent in turn reacts with the coupler to yield a dye. With negative working silver halide, the processing step described above gives a negative image. Development is followed by the conventional steps of bleaching, fixing, or bleach-fixing, to remove silver and silver halide, washing and drying. EXAMPLE A three color photographic film was prepared as follows using conventional surfactants, antifoggants and the materials indicated. After providing a developable image and then processing in accordance with the Kodak C-41 process (British Journal of Photography, pp. 196-198 (1988) excellent results e.g. improved color, sharpness, granularity and neutral scale, were obtained. Support mg/m 2 mg/ft 2 Layer 1 Antihalation Layer 322.8 30.0 Black filamentary silver 91.46 8.5 UV absorbing dye (1) 2421 225.0 Gelatin Layer 2 Interlayer 53.8 5.0 D-Ox scavenging coupler (2) 645.6 60.0 Gelatin Layer 3 Least Red Layer 340.016 31.6 Slow Ag Br/I emulsion containing 3.3 mole % iodide and 217 mg of sensitizing dye (3) and 91 mg of sensitizing dye (4) per mole of silver halide 414.26 38.5 Cyan dye forming coupler (5) 21.52 2.0 Cyan dye forming, magenta colored, masking coupler (6) 32.28 3.0 Cyan dye forming development/bleach accelerator ("BARC") (24) 59.18 5.5 Red filter dye (8) 1829.2 170.0 Gelatin Layer 4 Interlayer 107.6 10.0 D-Ox scavenging coupler (2) 5.38 0.5 Preformed Yellow dye (9) 21.52 2.0 Preformed Cyan dye (10) 645.6 60.0 Gelatin Layer 5 Least Green Layer 137.728 12.8 Slow Ag Br/I emulsion containing 3.3 mole % iodide and 523 mg of sensitizing dye (11) and 151 mg of sensitizing dye (12) per mole of silver halide 444.388 41.3 Slow Ag Br/I emulsion containing 3.4 mole % iodide and 859 mg of sensitizing dye (11) and 249 mg of sensitizing dye (12) per mole of silver halide 269 25.0 Magenta dye forming coupler (13) 5.38 0.5 Cyan dye forming BARC coupler (24) 48.42 4.5 Red filter dye (8) 914.6 85.0 Gelatin Layer 6 Interlayer 161.4 15.0 Lippmann Ag Br emulsion 107.6 10.0 D-Ox scavenging coupler (2) 645.6 60.0 Gelatin Layer 7 Mid Red Layer 882.32 82.0 Fast Ag Br/I T-grain emulsion containing 12.27 mole % iodide and 163 mg of sensitizing dye (3) and 67 mg of sensitizing dye (4) per mole of silver halide 193.68 18.0 Cyan dye forming coupler (5) 645.6 6.0 Cyan dye forming development inhibitor anchimeric releasing coupler ("DIAR") (14) 645.6 6.0 Yellow dye forming coupler (7) 53.8 5.0 Cyan dye forming, magenta colored, masking coupler (6) 10.76 1.0 Cyan dye forming BARC coupler (24) 5.38 0.5 Green filter dye (15) 1621.532 150.7 Gelatin Layer 8 Most Sensitive Red Layer 333.56 31.0 Fast Ag Br/I T-grain emulsion containing 8.18 mole % iodide and 188 mg of sensitizing dye (3) and 78 mg of sensitizing dye (4) per mole of silver halide 43.04 4.0 Fast Ag Br/I T-grain emulsion containing 12.27 mole % iodide and 163 mg of sensitizing dye (3) and 67 mg of sensitizing dye (4) per mole of silver halide 59.18 5.5 Yellow dye forming coupler (16) 21.52 2.0 Cyan dye forming, magenta colored, masking coupler (6) 23.672 2.2 Cyan dye forming development inhibitor releasing coupler ("DIR") (17) 538 50.0 Gelatin Layer 9 Interlayer 107.6 10.0 D-Ox scavenging coupler (2) 10.76 1.0 Preformed Cyan dye (10) 645.6 60.0 Gelatin Layer 10 Most Sensitive Green Layer 269 25.0 Fast Ag Br/I T-grain emulsion containing 8.18 mole % iodide and 455 mg of sensitizing dye (11) and 126 mg of sensitizing dye (12) per mole of silver halide 817.76 76.0 Fast Ag Br/I T-grain emulsion containing 12.27 mole % iodide and 804 mg of sensitizing dye (11) and 151 mg of sensitizing dye (12) per mole of silver halide 182.92 17.0 Slow Ag Br/I emulsion containing 3.3 mole % iodide and 523 mg of sensitizing dye (11) and 151 mg of sensitizing dye (12) per mole of silver halide 408.88 38.0 Magenta dye forming coupler (13) 32.28 3.0 Yellow dye forming DIAR (18) 53.8 5.0 Magenta dye forming, yellow colored, masking coupler (19) 16.14 1.5 Magenta dye forming DIR coupler (20) 21.52 2.0 Preformed Cyan dye (10) 2474.8 230.0 Gelatin Layer 11 Yellow Colloidal Silver Filter Layer 107.6 10.0 D-Ox scavenging coupler (2) 118.36 11.0 Yellow Colloidal Silver (Carey Lee silver) 1076 100.0 Gelatin Layer 12 Most Sensitive Blue Layer 139.88 13.0 Fast Ag Br/I T-grain emulsion containing 8.18 mole % iodide and 620 mg of sensitizing dye (22) per mole of silver halide 139.88 13.0 Fast Ag Br/I T-grain emulsion containing 3.0 mole % iodide and 900 mg of sensitizing dye (22) per mole of silver halide 225.96 21.0 Fast Ag Br/I T-grain emulsion containing 3.0 mole % iodide and 800 mg of sensitizing dye (22) per mole of silver halide 312.04 29.0 Yellow dye forming coupler (16) 161.4 15.0 Yellow dye forming DIAR (18) 10.76 1.0 Cyan dye forming BARC coupler (24) 64.56 6.0 Preformed Yellow dye coupler (9) 4304 4.0 Blue filter dye (23) 2334.92 217.0 Gelatin Layer 13 Least Sensitive Blue Layer 242.1 22.5 Slow Ag Br/I emulsion containing 3.3 mole % iodide and 1254 mg of sensitizing dye (22) per mole of silver halide 564.9 52.5 Yellow dye forming coupler (7) 5.38 0.5 Cyan dye forming BARC coupler (24) 807 75.0 Gelatin Layer 14 430.4 40.0 Lippmann Ag Br emulsion 107.6 10.0 UV absorbing dye (25) 37.66 3.5 UV absorbing dye (1) 16.14 1.5 Preformed Magenta dye coupler (27) 699.4 65.0 Gelatin Layer 15 Protective 45.192 4.2 First matting agent Gelatin 32.28 3.0 Second matting agent Overcoat 882.32 82.0 Gelatin

Claims: A multilayer color photographic element comprising a support having coated thereon photographic silver halide emulsion layers said layers including at least three red sensitive silver halide emulsion layers the first of said red sensitive layers being the furthest red sensitive layer from the support, the second red sensitive layer being less red sensitive than the first red sensitive layer, said first red sensitive layer and said second red sensitive layers being contiguous, and at least one of said layers comprising a yellow image dye-forming coupler. The element of Claim 1 wherein the first red layer contains said yellow image dye-forming coupler and wherein said layer is starved of cyan dye-forming coupler. The element of Claim 1 wherein both the first and second red-sensitive layers contain said yellow image dye-forming coupler. The element of Claim 3 wherein the first red-sensitive layer is a coupler-starved layer. The element of Claim 1 wherein the first red sensitive layer is comprised of (a) at least one development inhibitor releasing coupler, (b) said yellow image dye-forming coupler; and (c) a cyan dye forming masking coupler; and the second red sensitive layer is comprised of (d) a cyan image dye forming coupler, (e) a development inhibitor anchimeric releasing coupler, (f) a bleach accelerator releasing coupler, (g) a cyan dye-forming masking coupler; and (h) a second yellow coupler for color correcting, the second yellow coupler being more reactive than said first yellow coupler for color correcting. The photographic element in accordance with any one of the preceding claims wherein the first red sensitive layer contains a development inhibitor releasing coupler having the structure The photographic element in accordance with any one of the preceding claims wherein the first red sensitive layer contains a first yellow dye forming coupler having the structure The photographic element in accordance with any one of the preceding claims wherein the first red sensitive layer contains a cyan dye forming masking coupler having the structure The photographic element in accordance with any one of the preceding claims wherein the second red sensitive layer contains a cyan image dye forming coupler having the structure The photographic element in accordance with any one of the preceding claims wherein the second red sensitive layer contains a development inhibitor anchimeric releasing coupler having the structure The photographic element in accordance with any one of the preceding claims wherein the second red sensitive layer contains a bleach accelerator releasing coupler having the strusture The photographic element in accordance with any one of the preceding claims wherein the second red sensitive layer contains a cyan dye forming masking coupler having the structure The photographic element in accordance with any one of the preceding claims wherein the second red sensitive layer contains a second yellow dye forming coupler having the structure A multilayer color photographic element in accordance with any one of the preceding claims wherein said element contains a third red sensitive layer less sensitive than said second red sensitive layer and being closer to the support than said second red sensitive layer, the third red sensitive layer comprised of (a) a cyan image dye-forming coupler having the structure (b) a bleach accelerating releasing coupler having the structure and (c) a color correcting coupler having the structure A multilayer color photographic element in accordance with any one of the preceding claims wherein the first red sensitive and the second red sensitive layers comprises silver bromoiodide containing 6 to 14 mol % iodide. A multilayer color photographic element in accordance with any one of the preceding claims wherein the first red sensitive and the second red sensitive layers comprises silver bromoiodide containing 9 to 13 mol % iodide. A process of forming a developed image in an exposed color photographic element as defined in any one of the preceding claims comprising developing said element with a color developer.

Inventors: EDWARDS LARRY DEAN, EDWARDS, LARRY DEAN, Edwards, Larry Dean, c/o EASTMAN KODAK COMPANY
Applicants: EASTMAN KODAK CO, EASTMAN KODAK COMPANY
Application year: 1993
Main classification: G03C7
IPC codes: G03C7, G03C1