COLOR PHOTOGRAPHIC LIGHT-SENSITIVE MATERIAL AND METHOD OF DEVELOPING THE SAME

Abstract: A silver halide color photographic light-sensitive material includes a support having thereon at least one silver halide emulsion layer, wherein the emulsion layer contains a silver halide emulsion which comprises silver halide grains consisting of at least 50 mol% of silver chloride and contains at least one of the compounds represented by formulas [I] to [III]: wherein z represents alkyl (the number of carbon atoms is 1 to 18), aryl (the number of carbon atoms is 6 to 18), or heterocyclic, Y represents an atom group required for forming heterocyclic or aryl (the number of carbon atoms of the aryl is 6 to 18), M represents metal cation, organic cation, or hydrogen atom, and n represents an integer from 2 to 10. A silver halide color photographic light-sensitive material includes a support having thereon at least one silver halide emulsion layer, wherein the emulsion layer contains a silver halide emulsion which comprises silver grains consisting of at least 50 mol% of a chloride and chemically sensitized in the presence of at least one of the compounds represented by formulas [I] to [III]. A method of developing a silver halide color photographic light-sensitive material comprising a sup­ port having thereon at least one silver halide emulsion layer, characterized in that said emulsion layer con­ tains a silver halide emulsion which comprises silver halide grains consisting of at least 50 mol% of silver chloride and contains at least one of the compounds represented by formulas [I] to [III], and that the method comprises the steps of: color-developing the silver halide color photographic light-sensitive material in the presence of a color coupler and desilverizing the silver halide color photographic light-sensitive material.

Description: The present invention relates to a silver halide color photographic light-sensitive material containing a silver halide emulsion, and a method of developing same. Various silver halide photographic light-sensitive materials are put into practical use by utilizing the fact that silver halide crystal grains are sensitive to a radiation such as visible light or ultraviolet rays, to form a latent image which is subsequently converted into a visible image by development. Examples of silver halide are silver iodide, silver bromide, silver chloride, and their mixed crystals. In this case, a silver halide to be used is selected in accordance with the application and the required function of a light-sensitive material in which the silver halide is used. For example, silver iodobromide grains having a relatively large grain size are used in a light-sensitive photographic material which is required to have high sensitivity. In contrast, silver iodobromide or silver chlorobromide having a small grain size is used in a duplicating or printing light-sensitive material having relatively low sensitivity. The type of silver halide, the crystal shape, grain size, and the like are all important factors in determining the properties of a given silver halide emulsion. This is described in, for example, "The Theory of the Photographic Process" by T.H. James, 4th. ed., Macmillan Co. Ltd. New York, 1977, "Die Grundlagen der Photographischen Prozesse mit Silberhalogeniden" by C. Hasse, H. Frieser, and E. Klein, Akademische Verlagsgesellschaft, Frankfurt am Main, 1968. In recent years, the time required for printing and developing photographic materials for prints has been greatly reduced. Therefore, a strong demand has increasingly arisen for a light-sensitive material which has high sensitivity and can be stably processed. Conventionally, a silver chlorobromide emulsion subjected to sulfur sensitization is practically used as a photographic material for prints. However, use of such an emulsion does not permit a reduction in developing time, since development is restrained significantly by the release of bromide ions during the development process. In addition, since these ions gradually accumulate in the processing liquid, variations in the photographic characteristics increase over time. Furthermore, since the silver chlorobromide emulsion has low solubility in water, the fixing time is necessarily long. A high silver chloride emulsion having a high silver chloride content and containing substantially no silver iodide is known as a preferable material for reducing the time required for the development, bleaching, and fixing steps and for minimizing changes in photographic characteristics, as caused by variations in the processing conditions. In a high silver chloride emulsion, cubic grains having a (100) crystal plane are normally formed. However, when these grains are chemically sensitized, they tend to cause fog. Such fog is significant especially when the grains are subjected to gold sensitization. More specifically, fog poses a practical problem in a color developer having high activity for rapid development. Storage fog generated when a light-sensitive material is stored also poses a practical problem. When a high silver chloride emulsion is exposed at high intensity for a short period of time, reciprocity failure is increased. This is another drawback of the high silver chloride emulsion when it is used as a material for prints. Several methods have been proposed to solve these problems associated with high silver chloride emulsion. Hereinafter, the symbol "JP-A-" will be used to denote a Japanese Patent Disclosure, and the symbol "JP-B-" will be used to designate a Japanese Patent Publication. Further, the symbol "JP-A-(examined)" will be used to specify a published Japanese patent application without having been laid open which was filed before January 1, 1971 when the system of laying open any patent application came into existence. JP-A-48-51627 and JP-A(examined)-49-46932 describe methods in which water-soluble bromide or iodide ions are added after a sensitizing dye is added to a silver halide emulsion, while JP-A-58-108533 and JP-A-60-222845 describe methods in which bromide and silver ions are simultaneously added to silver halide grains having a high silver chloride content, to form layers containing 60 mol% or more of silver bromide on grain surfaces. In a similar method, a layer containing 10 to 50 mol% of silver bromide is formed on part of, or the entire surface of each grain. In still another method proposed, as described in JP-B-50-36978, JP-B-58-24772, U.S. Patent 4,471,050, and West German Patent Application (OLS) No. 3,229,999, bromide ions are added to a silver halide having a high silver chloride content, or else bromide and silver ions are simultaneously added thereto, to perform halide conversion to obtain multilayer grains such as double-structured (i.e., a core and a shell) grains or joint-structured grains. However, these conventional methods do not provide a satisfactory sensitivity level. One method of chemically sensitizing an emulsion having a high silver chloride content is sulfur sensitization in the presence of a solvent for silver halide, this method being described in JP-A-58-30748. According to another chemical sensitization method, as described in JP-A-58-125612, pAg and/or temperatures during sulfur sensitization are controlled in a two-step manner. However, neither of these methods can provide a sensitivity high enough to permit their end products to be used as photographic light-sensitive materials. Compounds represented by formulas [I] to [III] presented later are known as antifoggants. U.S. Patents 2,394,198 and 2,440,206, for example, disclose the compounds as an antifoggant used when a sulfinic acid compound is used; U.S. Patent 3,047,393 discloses the compounds as an antifoggant for a silver iodobromide; JP-A(examined)-39-25774 discloses that the compounds can be used to stabilize a silver image; JP-A(examined)-42-11305 discloses that the compounds can be used together with a tetraazaindene compound to prevent fog of a silver iodobromide emulsion; JP-A-54-1019 (corresponding to British Patent No. 1,569,758) discloses that the compounds can be used to prevent fog of a silver iodobromide emulsion when an organic thioether compound is used; and JP-A-57-176032 discloses that the compounds can be used together with a cyanine dye and an anti-oxidizing agent to improve latent image fading of a silver iodobromide emulsion. No disclosure, however, has been reported in which the compounds represented by formulas [I] to [III] are applied to a high silver chloride emulsion. In addition, it is very difficult to predict whether or not, or how much the compounds function to prevent fog and to achieve other photographic effects when they are added to a high silver chloride emulsion having a halogen composition different from that of a conventional emulsion. As is well known, a high silver chloride emulsion is a preferable material for reducing the time required for the developing process. This emulsion can be chemically sensitized to have a sufficient sensitivity. If it is so sensitized, and used in a material for color prints, it will cause fog. The sensitized emulsion has a high-intensity reciprocity failure. Thus, it has been considered to be unadvisable to manufacture a color printing material using a high silver chloride emulsion. It is also known in the art that emulsions will generally cause fog if they are gold-sensitized. Hitherto, no technique has been developed which makes it possible to provide a high silver chloride emulsion that is sensitized greatly enough not to cause an excessive fog even if it has been subjected to gold-plus-sulfur sensitization. It has been demanded that such a technique be developed. GB-A-2023299 discloses a silver halide color photographic light-sensitive material comprising a support having thereon at least one silver halide emulsion layer, said emulsion layer having a high sensitivity and containing an antifoggant. EP-A-0 80 905 discloses a silver halide color photographic material comprising on a support at least one emulsion layer containing silver halide grains of high silver chloride content. It is the object of the present invention to provide a silver halide color photographic light-sensitive material having low fog and high photographic sensitivity which can be rapidly developed and has a small reciprocity failure and storage fog. It is another object of the present invention to provide a method of developing a silver halide color photographic light-sensitive material in which fog is reduced, a constant image quality can be obtained in which the developing time can be reduced to less than two min and which can be used for various purposes. As a result of extensive studies, the present inventors have found that the above objects can be achieved by a silver halide color photographic light-sensitive material comprising a support having thereon at least one silver halide emulsion layer containing a silver halide emulsion of the negative type which comprises silver halide grains chemically sensitized in the presence of at least one of the compounds represented by formula (I) to (III) Z-SO₂S-M (I) wherein Z represents substituted or unsubstituted alkyl having from 1 to 18 carbon atoms, substituted or unsubstituted aryl having from 6 to 18 carbon atoms or heterocyclic Y represents an atom group necessary for forming substituted or unsubstituted heterocyclic or aryl having 6 to 18 carbon atoms, M represents a a metal cation, an organic cation or a hydrogen atom, and n represents an integer from 2 to 10, said compound represented by formula (I), (II), or (III) being present in an amount of 10⁻² mol or less per mol of the silver halide, said silver halide grains being spectrally sensitized by at least one sensitizing dye and said silver halide emulsion containing 2 mol % or less AgI, characterized in that said silver halide grains consist of at least 95 mol % of silver chloride and said sensitizing dye is represented by formula (XXa), (XXb) and (XXc) wherein Z₁₁ represents oxygen, sulfur, or selenium; Z₁₂ represents sulfur or selenium; R₁₁ and R₁₂ each represents substituted or unsubstituted alkyl having six carbon atoms or less, or substituted or unsubstituted alkenyl having six carbon atoms or less; at least one of R₁₁ and R₁₂ representing sulfo-substituted alkyl; V₁₁ represents hydrogen, alkyl having four carbon atoms or less, or alkoxy having four carbon atoms or less; V₁₂ represents phenyl, alkyl having five carbon atoms or less, alkoxy having four carbon atoms or less, chlorine, hydrogen, substituted or unsubstituted phenyl, or hydroxyl, and V₁₃ represents hydrogen, and V₁₁, V₁₂ and V₁₃ also represent that V₁₁ and V₁₂, or V₁₂ and V₁₃ can be coupled to form a condensed benzene ring, V₁₄, V₁₅, and V₁₆ have the same meanings as V₁₁, V₁₂, and V₁₃; X⁻₁₁ represents an anion residue of an acid; and m₁₁ represents 0 or 1; wherein Z₂₁ and Z₂₂ which may be the same or different each represent oxygen, sulfur, selenium, or >N-R₂₆; R₂₁ and R₂₂ represent the same meanings as those represented by R₁₁ and R₁₂ of formula (XXa), and also represent that R₂₁ and R₂₄, or R₂₂ and R₂₅ can be coupled to form a 5- or 6-membered carbon ring; R₂₃ represents hydrogen, lower alkyl, or lower phenethyl, and if two or three R₂₃ are present, these may be the same or different and may be coupled with each other to form a 5- or 6-membered ring; R₂₄ and R₂₅ represent hydrogen; R₂₆ represents the same meanings as that represented by R₂₁ or R₂₂; V₂₁ represents hydrogen alkyl having five carbon atoms or less, alkoxy having five carbon atoms or less, or chlorine; v₂₂ represents hydrogen, alkyl having five carbon atoms or less, alkoxy having five carbon atoms or less, chlorine, or substituted or unsubstituted phenyl, alkoxycarbonyl having five carbon atoms or less, alkoxy having four carbon atoms or less, acylamino having four carbon atoms or less, chlorine, trifluoromethyl, cyano, or alkylsulfonyl having four carbon atoms or less, and also represents that V₂₂ can be coupled to V₂₁ to V₂₃ to form a condensed benzene ring; V₂₃ represents hydrogen; V₂₄ represents the same meaning as that represented by V₂₁; V₂₅ has the same meaning as V₂₂, and also represents that V₂₅ can be coupled to V₂₄ or V₂₆ to form a condensed benzene ring; V₂₆ represents hydrogen; X⁻₂₁ represents an anion residue of an acid; m₂₁ represents 0 or 1; and n₂₁ represents 1, 2 or 3; wherein Z₃₁ represents an atom group necessary for forming substituted or unsubstituted nuclei of thiazoline, thiazole, benzothiazole, naphtholthiazole, selenazoline, selenazole, benzoselenazole, naphthoselenazole, benzimidazole, naphthoimidazole, oxazole, benzoxazole, naphthooxazole, or pyridine; R₃₁ has the same meaning as R₁₁ or R₁₂ of formula (XXa), R₃₂ has the same meaning as R₁₁ or R₁₂ of formula (XXa), and also represents hydrogen, furfuryl, or monocyclic aryl; R₃₃ represents hydrogen, alkyl having five carbon atoms or less, phenethyl, phenyl, 2-carboxyphenyl, and if two or three R₃₃ are present, these may be the same or different and may be coupled with each other to form a 5- or 6-membered ring; Q₃₁ represents oxygen, sulfur, selenium, or >N-R₃₄; R₃ represents hydrogen, pyridil, phenyl, substituted phenyl or an aliphatic hydrocarbon group having eight carbon atoms or less which may contain oxygen, sulfur or nitrogen in a carbon chain; k represents 0 or 1; and n₃₁ represents 0, 1, 2 or 3, or said sensitizing dye is Furthermore a method of developing the above silver halide color photographic light-sensitive material comprising the steps of color-developing the silver halide color photographic light-sensitive material in the presence of a color coupler; and desilvering the silver halide color photographic light-sensitive material, is provided. The present invention will be described in detail below. (1) Silver Halide Emulsion 1-1. Silver Halide Emulsion Grains The emulsion used in this invention is a silver halide emulsion having a molar content of silver iodide of 2 mol% or less, preferably, 1 mol% or less, and more preferably, 0.1 mol% or less. The chloride content, i.e., the molar content of silver chloride of the emulsion used in the invention is 95 mol% or more. The remaining halide components of the emulsion grains used in this invention are bromide and iodide (contents of which are defined above), and a bromide is preferred. The emulsion grains may have a uniform inner crystal structure, a structure in which the halide composition of the inner portion differs from that of the outer portion, or a layer structure of three or more layers. In addition, silver halides having different compositions may be bonded by an epitaxial junction. In the emulsion grains used in this invention, it is preferred that a layer containing a large amount of silver bromide is locally present on the surface or the vicinity of the surface of the grains. In the case of core/shell type grains,the silver chloride content of the core portion is preferably higher than that of the shell portion. The layer having a large amount of silver bromide present on the surface or the vicinity of the surface of the grains may be formed by a so-called conversion method, i.e., by conversion of bromide ions into silver chloride. The average halide composition of each silver halide grain can be measured using an electron beam micro-analyzer. This EMPA method is described in, e.g., JP-A-60-143332. Although the average grain size of the silver halide grains used in this invention is not limited, it is preferably 0.1 µm to 5 µm, and more preferably, 0.2 µm to 3 µm. The grain size distribution of the silver halide grains used in this invention may be either multi-dispersion or mono-dispersion, but mono-dispersion is preferable. The silver halide emulsion used in this invention may be either an internally sensitive emulsion or a surface sensitive emulsion. The silver halide emulsion used on this invention is of a negative type. The emulsion used in the present invention may contain silver halide grains having any crystal habit. An emulsion having cubic, tetradecahedral, or octahedral regular crystal grains is more preferable in the present invention than one having spherical or tabular grains. A method of forming preferable octahedral grains is described in detail in, e.g., U.S. Ser. No. 162,554 filed on March 1, 1988 by the present inventors. In general, as silver halide grains having a high silver chloride content (to be referred to as "high silver chloride grains" hereinafter), only cubic grains consisting of the (100) crystal plane can be obtained. However, octahedral grains consisting of the (111) crystal plane can be obtained by some improvements as described in, in addition to the above patent application filed by the present inventors, Cleas et al.; The Journal Photographic Science, Vol. 21, 39 (1973) and Wyrsch; International Congress of Photographic Science, III-13, 122 (1978). In the former reference, a compound, e.g., adenine, dimethylthiourea, or thiourea is used. Considering the structure of a compound, a compound such as adenine has a relatively high adsorption tendency to a silver halide or tends to generate fog due to unstable sulfur molecules. In the latter reference, octahedral silver chloride grains are obtained by ammonia and a large amount of cadmium nitrate. However, cadmium poses a practical problem of environmental pollution. Since high silver chloride grains tend to generate fog, use of ammonia is not preferable. That is, it is preferable that the high silver chloride octahedral grains can be prepared without ammonia. JP-A-55-26589 discloses a method of preparing octahedral grains using a merocyanine dye. In this method, since dye adsorption is strong, preferable photographic characteristics can be obtained. However, only a specific dye structure can form an octahedron. Therefore, in preparation of blue-, green-, and red-sensitive emulsions, it is often difficult to give an absorption peak to a specific wavelength or to control the shape of spectral sensitivity for a specific application. In this invention, the chloride concentration during grain formation is preferably 5 mol/ℓ or less, and more preferably, 0.07 to 3 mol/ℓ. The temperature during grain formation is 10 to 95°C, and preferably, 40 to 90°C. The pH during grain formation is not limited but preferably falls within the neutral to weakly acidic range. In preparation of the silver halide grains of this invention, a solvent for silver halide may be used. Examples of the solvent for silver halide are thiocyanate, thioether, and thioureas. Also, ammonia can be used as long as it does not adversely affect grain formation. Examples are thiocyanate (e.g., U.S. Patents 2,222,264, 2,448,534, and 3,320,069), thioether compound (e.g., U.S. Patents 3,271,157, 3,574,628, 3,704,130, 4,297,439, and 4,276,347), thion compound (e.g., JP-A-53-144319, 53-82408, and JP-A-55-77737), and amine compound (e.g., JP-A-54-100717). During formation or physical ripening of the silver halide grains, a cadmium salt, zinc salt, lead salt, thallium salt, iridium salt or its complex salt, a rhodium salt or its complex salt, or an iron salt or its complex salt may be used. Especially, an iridium salt or rhodium salt is preferable. In the manufacture of the silver halide grains used in this invention, the addition rate, the addition amount, and the addition concentration of a silver salt solution (e.g., an aqueous AgNO₃ solution) and a halide solution (e.g., an aqueous NaCℓ solution) added to increase grain growth are preferably increased. Examples of this method are described in British Patent No. 1,335,925, U.S. Patents 3,672,900, JP-A-3,650,757, 4,242,445, JP-A-55-142329, JP-A-55-158124, JP-A-58-113927, JP-A-58-113928, JP-A-58-111934, and JP-A-58-111936. 1-2. Chemical Sensitization The crystal silver halide emulsion used in this invention is chemically sensitized. Chemical sensitization methods which can be used are a gold sensitization method using a gold compound (e.g., U.S. Patents 2,448,060 and 3,320,069), a sensitization method using a metal such as iridium, platinum, rhodium, or palladium (e.g., U.S. Patents 2,448,060, 2,556,245, and 2,566,263), a sulfur sensitization method using a sulfur-containing compound (e.g., U.S. Patent 2,222,264), a selenium sensitization method using a selenium compound, a reduction sensitization method using a stannate, thiourea dioxide, or polyamine (e.g., U.S. Patents 2,487,850, 2,518,698, and 2,521,925), or a combination of at least two methods described above. As for the silver halide grains used in this invention, gold sensitization, a combination of gold sensitization and sulfur sensitization, or a combination of gold sensitization and reduction sensitization is preferable, and gold-plus-sulfur sensitization is most preferable. The amount of the gold sensitizer is preferably 1 × 10⁻⁷ mol or more and more preferably 1 × 10⁻⁶ mol or more per mol of the silver halide. The amount of the sulfur sensitizer used together with the gold sensitizer can be properly selected in accordance with conditions such as the grain size, the chemical sensitization temperature, pAg, and pH and is 1 × 10⁻⁷ to 10⁻³ mol, preferably 5 × 10⁻⁷ to 10⁻⁴ mol, and more preferably 5 × 10⁻⁷ to 10⁻⁵ mol per mol of the silver halide. Conditions such as pH, pAg, temperature, time and additives, for a chemical ripening step in the present invention are not limited. That is, the chemical ripening step can be performed under the conditions generally used in the field of the invention. For example, the pH is preferably 3.0 to 8.5, and more preferably, 5.0 to 7.5, the pAg is preferably 5.0 to 9.0, and more preferably, 5.5 to 7.5, the temperature is preferably 40 to 85°C, and more preferably, 45 C°to 75°C, and the time is preferably 10 to 200 min, and more preferably, 30 to 120 min. Examples of a preferable gold sensitizer are compounds described in U.S. Patents 2,399,083, 2,540,085, 2,540,086, and 2,597,856. More specifically, examples are chloroauric acid and its salts, potassium gold cyanide, potassium gold thiocyanide, and gold sulfide. As described on page 155 of the above reference of James, a gold sensitization effect can be effectively enhanced using a thiocyanate. In addition, a 4-substituted thiourea compound can be effectively used as described in JP-B-59-11892. Examples of a sulfur sensitizer used in the present invention are thiosulfates, thioureas, thiazoles, rhodanines, and other compounds described in U.S. Patents 1,574,944, 2,410,689, 2,728,668, and 3,656,955. In addition, a sulfur-containing compound described in U.S. Patents 3,857,711, 4,266,018, and 4,054,457 can be used. The present invention is characterized in that an increase in fog, especially when a gold sensitizer is used, can be prevented by adding at least one of the compounds represented by formulas [I] to [III]. The compound may be added in a grain formation step, a desalting step, a chemical ripening step, or immediately before coating. It is preferable to add the compounds in the grain formation, desalting, or chemical ripening step. If a gold sensitizer is used it is preferable to add the compound before the gold sensitizer is added. The chemical sensitization is preferably performed by gold sensitization and more preferably gold-plus-sulfur sensitization. The compound represented by formula [I], [II], or [III] will be described below. Alkyl, aryl, and heterocyclic represented by Z and Y in formulas [I], [II], and [III] may be substituted. Examples of a substituent group are lower alkyl such as methyl and ethyl, aryl such as phenyl, alkoxyl having 1 to 8 carbon atoms, halogen such as chlorine, nitro, amino, and carboxyl. The number of carbon atoms of alkyl represented by Z is 1 to 18, and the number of carbon atoms of aryl represented by Z and Y is 6 to 18. Examples of the heterocyclic ring represented by Z and Y are thiazole, benzthiazole, imidazole, benzimidazole, and oxazole. Preferable examples of the metal cations represented by M are alkali metal cations such as sodium ions and potassium ions and organic cations such as ammonium ions and guanidinium ions. n represents an integer from 2 to 10. Examples of the compound represented by formula [I], [II], or [III] are listed in Table 1 below. The compound represented by formula [I], [II], or [III] can be synthesized by a method well known to those skilled in the art. For example, the compound can be synthesized by causing a corresponding sulfonyl fluoride to react with a sodium sulfide or by causing a corresponding sodium sulfinate to react with sulfur. Alternatively, these compounds are commercially available and therefore can In the present invention, the content of the compound represented by formula [I], [II], or [III] is 10⁻² mol or less, preferably, 10⁻⁸ to 3 × 10⁻³ mol, and more preferably, 10⁻⁷ to 10⁻³ mol per mol of the silver halide. 1-3. Spectral Sensitization The silver halide emulsion used in this invention is spectrally sensitized by at least one sensitizing dye of formula (XXa), (XXb) and (XXc). In the above formula, Z₁₁ represents oxygen, sulfur, or selenium and Z₁₂ represents sulfur or selenium. R₁₁ and R₁₂ each represent alkyl or alkenyl which has six carbon atoms or less and may be substituted. At least one of R₁₁ or R₁₂ represents sulfo-substituted alkyl, and most preferably, at least one of them represents 3-sulfopropyl, 2-hydroxy-3-sulfopropyl, 3-sulfobutyl, or sulfoethyl. Examples of a substituting group are alkoxy having four carbon atoms or less, halogen, hydroxyl, and carbamoyl, phenyl which have eight carbon atoms or less and may be substituted, carboxy, and sulfo and alkoxycarbonyl having five carbon atoms or less. Examples represented by R₁₁ and R₁₂ are methyl, ethyl, propyl, allyl, pentyl, hexyl, methoxyethyl, ethoxyethyl, phenethyl, 2-p-tolylethyl, 2-p-sulfophenethyl, 2,2,2-trifluoroethyl, 2,2,3,3-tetrafluoropropyl, carbamoylethyl, hydroxyethyl, 2-(2-hydroxyethyl)ethyl, carboxymethyl, carboxyethyl, ethoxycarbonylmethyl, 2-sulfoethyl, 2-chloro-3-sulfopropyl, 3-sulfopropyl, 2-hydroxy-3-sulfopropyl, and 3- or 4-sulfobutyl. When Z₁₁ represents oxygen, V₁₁ and V₁₃ represent hydrogen, and V₁₂ represents phenyl, alkyl having 3 carbon atoms or less or alkoxy having 3 carbon atoms or less or phenyl substituted by chlorine (more preferably, V₁₂ is phenyl), and also represents that V₁₁ and V₁₂, or V₁₂ and V₁₃ can be coupled to form a condensed benzene ring. Most preferably, V₁₁ and V₁₃ represent hydrogen, and V₁₂ represent phenyl. When Z₁₁ represents sulfur or selenium, V₁₁ represents alkyl or alkoxy each having four carbon atoms or less, or hydrogen, V₁₂ represents alkyl having five carbon atoms or less, alkoxy having four carbon atoms or less, chlorine, hydrogen, phenyl which may be substituted (e.g., tolyl, anisyl, and phenyl) or hydroxyl, and V₁₃ represents hydrogen and also represents that V₁₁ and V₁₂, or V₁₂ and V₁₃ can be coupled to form a condensed benzene ring. More preferably, V₁₁ and V₁₃ represent hydrogen and V₁₂ represents alkoxy having four carbon atoms or less, phenyl, or chlorine; V₁₁ represents alkoxy or alkyl, each having four carbon atoms or less and V₁₂ represents hydroxyl or alkyl having four carbon atoms or less; or V₁₂ and V₁₃ are coupled to form a condensed benzene ring. When Z₁₂ represents selenium, V₁₄, V₁₅, and V₁₆ represent the same meanings as those represented by V₁₁, V₁₂, and V₁₃ when Z₁₁ represents selenium, respectively. When, Z₁₂ represents sulfur and Z₁₁ represents selenium, V₁₄ represents hydrogen, alkoxy having four carbon atoms or less, or alkyl having five carbon atoms or less, V₁₅ represents alkoxy having four carbon atoms or less, phenyl which may be substituted (preferably phenyl) such as tolyl or anisyl, alkyl having four carbon atoms or less, chlorine, or hydroxyl, and V₁₆ represents hydrogen and also represents that V₁₄ and V₁₅ or V₁₅ and V₁₆ can be coupled to form a condensed benzene ring. More preferably, V₁₄ and V₁₆ represent hydrogen, V₁₅ represents alkoxy having four carbon atoms or less, chlorine, or phenyl, and V₁₅ and V₁₆ are coupled to form a condensed benzene ring. When both Z₁₁ and Z₁₂ represent sulfur, V₁₄ and V₁₆ represent hydrogen, V₁₅ represents phenyl which may be substituted (e.g., phenyl and tolyl), and V₁₄ represents hydrogen and also represents that V₁₅ and V₁₆ can be coupled to form a condensed benzene ring. When Z₁₁ represents oxygen and Z₁₂ represents sulfur, V₁₄ and V₁₆ represent hydrogen, and V₁₅ represents chlorine, phenyl which may be substituted, or alkoxy having four carbon atoms or less and also represents that V₁₅ and V₁₆ can be coupled to form a condensed benzene ring. More preferably, V₁₄ and V₁₆ represent hydrogen and V₁₅ represents phenyl, or V₁₅ and V₁₆ are coupled to represent a condensed benzene ring. X₁₁₋ represents anion residue of acid. m₁₁ represents 0 or 1, and in the case of an inner salt, represents 0. In the above formula, Z₂₁ and Z₂₂ may be the same or different and represent oxygen, sulfur, selenium, or N-R₂₆. R₂₁ and R₂₂ represent the same meanings as those represented by R₁₁ and R₁₂ of formula XXa, and also represent that R₂₁ and R₂₄ or R₂₂ and R₂₅ can be coupled to form a 5- or 6-membered carbon ring. When n₂₁ represents 2 or 3, R₂₁ and R₂₂ do not represent a substituting group having sulfo at the same time. When at least one of Z₂₁ and Z₂₂ represents N-R₂₆, R₂₃ represents hydrogen, and otherwise, represents lower alkyl or phenethyl (more preferably ethyl). When n₂₁ represents 2 or 3 and thus, two or three R₂₃ are present these may be the same or different and may be coupled with each other to form a 5- or 6-membered ring. R₂₄ and R₂₅ represent hydrogen. R₂₆ and R₂₇ represent the same meanings as that represented by R₂₁ or R₂₂ and also represent that R₂₁ R₂₆ do not represent a substituting group having sulfo at the same time and that R₂₂ and R₂₆ represent a substituting group having sulfo at the same time. When Z₂₁ represents oxygen, V₂₁ represents hydrogen. When Z₂₁ represents sulfur or selenium, V₂₁ represents hydrogen, or an alkyl or alkoxy, each having five carbon atoms or less. When Z₂₁ represents N-R₂₆, V₂₁ represents hydrogen or chlorine. When Z₂₁ represents oxygen and Z₂₂ represents N-R₂₇, V₂₂ represents hydrogen, alkyl or alkoxy, each having five carbon atoms or less, chlorine, or phenyl which may be substituted (e.g., tolyl, anisyl, or phenyl) and also represents that V₂₂ can be coupled to V₂₁ or V₂₃ to form a condensed benzene ring (more preferably, V₂₂ represents alkoxy or phenyl, or V₂₁ and V₂₂ or V₂₂ and V₂₃ are coupled to form a condensed benzene ring). When Z₂₁ and Z₂₂ mainly represent oxygen, V₂₂ represents phenyl which may be substituted (e.g., tolyl, anisyl, or phenyl, and more preferably, phenyl) or represents that V₂₂ can be coupled to V₂₁ or V₂₃ to form a condensed benzene ring. When Z₂₁ represents sulfur or selenium, V₂₂ represents hydrogen, alkyl or alkoxycarbonyl, each having five carbon atoms or less, alkoxy or acylamino, each having four carbon atoms or less, chlorine, or phenyl which may be substituted (more preferably, alkyl or alkoxy, each having four carbon atoms or less, chlorine, or phenyl) and also represents that V₂₂ can be coupled to V₂₃ to form a condensed benzene ring. When Z₂₁ represents N-R₂₆, V₂₂ represents chlorine, trifluoromethyl, cyano, alkylsulfonyl having four carbon atoms or less, or alkoxycarbonyl having five carbon atoms or less (more preferably, when Z₂₁ represents N-R₂₆, V₂₁ represents chlorine, and V₂₂ represents chlorine, trifluoromethyl, or cyano). V₂₃ represents hydrogen. V₂₄ represents the same meaning as that represented by V₂₁ when Z₂₂ represents an atom type corresponding to that represented by Z₂₁. When Z₂₂ represents oxygen, V₂₅ represents alkoxy having four carbon atoms or less, chlorine, or phenyl which may be substituted (e.g., anisyl, tolyl, or phenyl) or represents that V₂₅ can be coupled to V₂₄ or V₂₆ to form a condensed benzene ring. When Z₂₁ represents N-R₂₆, V₂₅ preferably represents alkoxy having four carbon atoms or less or phenyl or represents that V₂₅ can be coupled to V₂₄ or V₂₆ to form a condensed benzene ring. When Z₂₁ represents oxygen, sulfur, or selenium, V₂₅ preferably represents phenyl or represents that V₂₅ can be coupled to V₂₄ or V₂₆ to form a condensed benzene ring. When Z₂₂ represents N-R₂₆, V₂₅ represents the same meaning as that represented by V₂₂ when Z₂₁ represents N-R₂₆. When Z₂₂ represents sulfur or selenium, V₂₅ represents the same meaning as that represented by V₂₂ when Z₂₁ represents sulfur or selenium. V₂₆ represents hydrogen. X₂₁₋ represents an anion residue of acid. m₂₁ represents 0 or 1, and in the case of an inner salt, represents 0. n₂₁ represents 1, 2, or 3. In formula XXc, Z₃₁ represents an atom group for forming nuclei such as thiazoline, thiazole, benzothiazole, naphtholthiazole, selenazoline, selenazole, benzoselenazole, naphthoselenazole, benzimidazole, naphthoimidazole, oxazole, benzoxazole, naphthooxazole, or pyridine. These heterocyclic nuclei may be substituted. In the case of benzimidazole or naphthomidazole, examples of a substituting group on nitrogen at the 1-position which is not R₃₁ are those listed as R₂₆ or R₂₇ of formula XXb. Examples of a substituting group on a condensed benzene ring of benzimidazole are chlorine, cyano, alkoxycarbonyl having five carbon atoms or less, alkylsulfonyl having four carbon atoms or less, or trifluoromethyl. Preferably, the 5-position is substituted by chlorine, and the 6-position is substituted by cyano, chlorine, or trifluoromethyl. Examples of a substituting group on heterocyclic nuclei other than benzimidazole, selenazoline, and thiazoline nuclei are alkyl having eight carbon atoms or less which may be substituted (examples of the substituting group are hydroxy, chlorine, fluorine, alkoxy, carboxy, alkoxycarbonyl, phenyl, and substituted phenyl), hydroxyl, alkoxycarbonyl having five carbon atoms or less, halogen, carboxy, furyl, thienyl, pyridyl, phenyl, or substituted phenyl (e.g., tolyl, anicyl, and chlorophenyl). Examples of a substituting group on a selenazoline or thiazoline nucleus are alkyl having six carbon atoms or less, hydroxyalkyl and alkoxycarbonylaklyl, each having five carbon atoms or less. R₃₁ represents the same meaning as that represented by R₁₁ or R₁₂ of formula XXa. R₃₂ represents the same meaning as that represented by R₁₁ or R₁₂ of formula XXa, and also represents hydrogen, furfuryl, or monocyclic aryl which may be substituted (e.g., phenyl, tolyl, anicyl, carboxyphenyl, hydroxyphenyl, chlorophenyl, sulfophenyl, pyridyl, 5-methyl-2-pyridyl, 5-chloro-2-pyridyl, thienyl, and furyl), and also represents that at least one of R₃₁ and R₃₂ is a substituting group having sulfo or carboxy and the other is a group not containing sulfo. R₃₃ represents hydrogen, alkyl having five carbon atoms or less, phenethyl, phenyl, 2-carboxyphenyl, and when n represents 2 or 3, and, thus two or 3 R₃₃ are present these may be the same or different and may be coupled with each other to form a 5- or 6-membered ring. Q₃₁ represents oxygen, sulfur, selenium, or N-R₃₄, and when Z₃₁ represents an atom group for forming thazolline, selenazoline, or oxazole nucleation, preferably represents sulfur, selenium, or N-R₃₄. R₃₄ represents hydrogen, pyridil, phenyl, substituted phenyl (e.g., tolyl and anicyl) or an aliphatic hydrocarbon group having eight carbon atoms or less which may contain oxygen, sulfur, or nitrogen in a carbon chain or may contain a substituting group such as hydroxyl, halogen, alkyl aminocarbonyl, alkoxycarbonyl, and phenyl, and more preferably, represents hydrogen, phenyl, pyridyl, or alkyl which may contain an oxygen atom in a carbon chain or may contain hydroxyl. k represents 0 or 1, and n represents 0, 1, 2, or 3. Sensitizing dyes (XX-20), (XX-24), (XX-25), (XX-28), (X-34), (XX-39), (XX-40) and (XX-41) mentioned below can also be used. Examples of spectral sensitizing dyes preferably used in the present invention are listed in Table13 to be presented later. A dye may be added in an emulsion at any timing conventionally known to be effective in emulsion preparation. Most ordinarily, the dye is added after chemical sensitization is completed and before coating is performed. However, as described in U.S. Patents 3,628,969 and 4,225,666, the dye can be added at the same time a chemical sensitizing agent is added to simultaneously perform spectral sensitization and chemical sensitization. Also, the dye can be added prior to chemical sensitization as described in JP-A-58-113928, or can be added to start spectral sensitization before silver halide grain precipitation/generation is completed. Furthermore, as described in U.S. Patent 4,225,666, these compounds can be added twice, i.e., some portions of the compounds can be partially added prior to chemical sensitization and the remaining portions of the compounds can be added thereafter. Thus, any timing during silver halide grain formation as described in U.S. Patent 4,183,756 can be used. The amount of the dye may be 1 × 10⁻⁶ to 8 × 10⁻³ mol per mol of the silver halide. However, when a silver halide grain size is more preferable, i.e., 0.2 to 1.2 µm, about 5 × 10⁻⁵ to 2 × 10⁻³ mol is more effective. 1-4. Emulsion Additives An antifoggant such as mercaptotriazoles, mercaptotetrazoles, or benzotriazoles can be used together with the silver halide emulsion. For rapid development, the silver chlorobromide emulsion or the silver chloride emulsion is preferred. In addition, an antifoggant such as a mercapto compound, a nitrobenzotriazole compound, or a benzotriazole compound, which is strongly adsorbed in the silver halide, or a stabilizer is used. Furthermore, a normally used development promoting agent, an antihalation agent, an antiirradiation agent, and a phosphor bleach agent can be used. The most preferable stabilizer used in the present invention is represented by formula [XXI], [XXII], or [XXIII]. wherein R represents alkyl, alkenyl, or aryl. X represents hydrogen, alkali metal, ammonium, or a precursor. Examples of the alkali metal are sodium and potassium, and examples of ammonium are tetramethylammonium and trimethylbenzyl ammonium. The precursor is a group which can be H or alkali metal under alkaline conditions. Examples of the precursor are acetyl, cyanoethyl, and methanesulfonylethyl. Of the above Rs, alkyl and alkenyl include nonsubstituted and substituted groups and an alicyclic group. Examples of a substituent group of the substituted alkyl group are halogen, nitro, cyano, hydroxyl, alkoxy, aryl, acylamino, alkoxycarbonylamino, ureido, amino, heterocyclic ring, acyl, sulfamoyl, sulfonamido, thioureido, carbamoyl, alkylthio, arylthio, heterocyclic thio, a carbonic acid group, a sulfonic acid group, and their salts. Ureido, thioureido, sulfamoyl, carbamoyl, and amino include a nonsubstituted group, an N-alkyl substituted group, and an N-aryl substituted group. Examples of aryl are phenyl or substituted phenyl, and examples of its substituent group are alkyl and the above-mentioned substituent groups on alkyl. wherein L represents a divalent bond group, R represents hydrogen, alkyl, alkenyl, or aryl. Alkyl and alkenyl of R and X have the same meanings as those of formula [XXI]. Examples of the divalent bond group represented by L are -S-, and and their combinations. n represents 0 or 1, and R⁰, R¹, and R² each represent hydrogen, alkyl, or aralkyl. wherein R and X have the same meanings as those of formula [XXI], and L and n has the same meaning as those of formula [XXII]. R³ has the same meaning as that of R, and they may have the same or different meanings. The compound represented by formula [XXI], [XXII], or [XXIII] used in the present invention may be contained in either layer of the silver halide color photographic light-sensitive material and/or a color developer. The either layer of the silver halide color photographic light-sensitive material means a light-sensitive or non-light-sensitive hydrophilic colloid layer. The content of the compound represented by formula [XXI], [XXII], or [XXIII] is preferably 1 × 10⁻⁵ to 5 × 10⁻² mol, and more preferably, 1 × 10⁻⁴ to 1 × 10⁻² per mol of a silver halide when it is contained in the silver halide color photographic material. When the compound is contained in the color developer, the content is preferably 1 × 10⁻⁶ to 1 × 10⁻³ mol/ℓ, and more preferably, 5 × 10⁻⁶ to 5 × 10⁻⁴ mol/ℓ. Examples of the compounds represented by formulas [XXI], [XXII], and [XXIII] are listed in Table 14. For example, compounds described in JP-A-62-269957 page 820, upper-left column to page 824, lower-right column, may be used. (2) Light-Sensitive Material 2-1. Color Coupler In color development of the present invention, a color coupler may be contained in the light-sensitive material or dissolved in a developer. Preferably, the photographic material of the present invention contains at least one yellow coupler, at least one magenta coupler, and at least one cyan coupler. It is preferable to use a nondiffusible color coupler so that the contained coupler is not diffused in a binder even under alkaline conditions. A method of dissolving and dispersing such a color coupler in a small droplet of a lipophilic oil is known to those skilled in the art. The color coupler used in the present invention will be described below. A color coupler must satisfy general requirements such as a desired hue and a high absorptivity coefficient and must be highly active so that a coupling color forming reaction with the oxidation product of a color developing agent such as a paraphenylenediamine derivative does not become a rate-determining factor, because development of the emulsion used in the present invention progresses fast. In this respect, a coupler represented by formula [IV], [V], [VI], [VII] or [VIII] listed in Table 2 below is preferably used. Wherein R₁, R₄, and R₅ each represent aliphatic, aromatic, heterocyclic, aromatic amino, or heterocyclic amino, R₂ represents aliphatic, R₃ and R₆ each represent hydrogen, halogen, aliphatic, aliphatic oxy, or acylamino, R₇ and R₉ each represent substituted or non-substituted phenyl, R₈ represents hydrogen, aliphatic or aromatic acyl, or aliphatic or aromatic sulfonyl, R₁₀ represents hydrogen or substituent group, Q represents substituted or nonsubstituted N-phenylcarbamoyl, Za and Zb each represent methine, substituted methine, or =N-, Y₁, Y₂, and Y₄ each represent halogen or a group which can be released during the coupling reaction with the oxidation product of developing agent, the group being referred to as a "releasable group" hereinafter. Y₃ represents hydrogen or releasable group, Y₅ represents releasable group, and R₂ and R₃ or R₅ and R₆ in formulas [IV] and [V] may form a 5-, 6-, and 7-membered ring, respectively. R₁, R₂, R₃ or Y₁; R₄, R₅, R₆,or Y₂; R₇, R₈, R₉ or Y₃; R₁₀, Za, Zb or Y₄; or Q or Y₅ may form a dimer or higher polymers. It is preferred that R₅ and R₆ are bonded to form a 5-membered ring, thereby forming a cyan coupler of an oxyindole type or an indazoline-2-on type (U.S. Ser. No. 6,511 filed on Jan. 23, 1987). More specifically, R₁, R₂, R₃, R₄, R₅, R₆, R₇, R₈, R₉, R₁₀, Za, Zb, Q₁, Y₁, Y₂, Y₃, and Y₄ in formulas [IV], [V], [VI], [VII], and [VIII] are the same as those in formulas (I), (II), (III), (IV), and (V) described in JP-A-63-11939, page 446, lower-left column to page 451, upper-left column. Examples of these color couplers are (C-1) to (C-40), (M-1) to (M-42), and (Y-1) to (Y-46) described in JP-A-63-11939, page 451, lower-left column to page 464, lower-right column. More preferably, compounds listed in Table 15 to be presented later can be used. The standard content of the color coupler falls within the range of 0.001 to 1 mol per mol of a light-sensitive silver halide. More specifically, contents of yellow, magenta, and cyan couplers are preferably 0.01 to 0.5 mol, 0.003 to 0.3 mol, and 0.002 to 0.3 mol, respectively. The coating amount of silver halide in a light-sensitive material in which the color coupler represented by formula [IV], [V], [VI], [VII], or [VIII] is used is preferably 1.5 g/m² to 0.1 g/m² when a reflective support is used, and is preferably 7 g/m² to 0.2 g/m² when a transparent support is used. These couplers can be dispersed and contained in an emulsion layer together with at least one of high boiling point organic solvents. High boiling point organic solvents represented by formulas (A) to (E) are preferably used: Formula (B) W₁-COO-W₂ Formula (E) W₁-O-W₂ wherein W₁, W₂, and W₃ each represent substituted or nonsubstituted alkyl, cycloalkyl, alkenyl, aryl, or heterocyclic ring, W₄ represents W₁, OW₁, or S-W₁, and n represents an integer from 1 to 5. When n is 2 or more, W₄ may be the same or different. In formula (E), W₁ and W₂ may form a condensed ring. 2-2. Additives The light-sensitive material according to the present invention may contain, as an antifoggant or a color mixing inhibitor, hydroquinone derivatives, aminophenol derivatives, amines, gallate derivatives, catechol derivatives, ascorbic derivatives, colorless compound forming couplers, or sulfonamidophenol derivatives. A conventional decoloration inhibitor can be used in the light-sensitive material of the present invention. Examples of an organic decoloration inhibitor are hydroquinones, 6-hydroxychromans, 5-hydroxycoumarans, spirochromans, p-alkoxyphenols, hindered phenols mainly including bisphenols, gallate derivatives, methylenedioxybenzenes, amonophenols, hinderd amines, and an ether or ester derivative obtained by silylating or alkylating the phenolic hydroxyl group of the above compounds. A metal complex such as (bissalicylaldoximato) nickel complex or (bis-N,N-dialkyldithiocarbamato) nickel complex can be used. In order to prevent degradation in a yellow dye image caused by heat, moisture, and light, a compound having partial structures of hindered amine and hindered phenol in a single molecule as described in U.S. Patent 4,268,593 can be effectively used. In order to prevent degradation in a magenta dye image, especially degradation caused by light, spiroindanes described in JP-A-56-159644 and a substituted chromans substituted by hydroquinonediether or monoether described in JP-A-55-89835 can be effectively used. An image stabilizer described in JP-A-59-125732 can be effectively used especially to stabilize a magenta image formed using a pyrazolotriazole magenta coupler. In order to improve storage stability, especially light-fastness of a cyan image, it is preferable to use a benzotriazolic ultraviolet absorbent. The ultraviolet absorbent may be emulsified together with a cyan coupler. The ultraviolet absorbent may be applied in an amount sufficient to give light stability to the cyan dye image. If the absorbent is applied too much, a nonexposed portion (white portion) of the color photographic light-sensitive material may turn yellow. Therefore, the content of the ultraviolet absorbent preferably falls within the range of 1 × 10⁻⁴ mol/m² to 2 × 10⁻³ mol/m², and more preferably, 5 × 10⁻⁴ mol/m² to 1.5 × 10⁻³ mol/m². In a light-sensitive material layer structure of normal color paper, the ultraviolet absorbent is contained in either of, preferably, two layers adjacent to a cyan coupler-containing red-sensitive emulsion layer. When the ultraviolet absorbent is added in an interlayer between a green-sensitive layer and a red-sensitive layer, it may be emulsified together with a color mixing inhibitor. When the ultraviolet absorbent is added in a protective layer, another protective layer may be formed as an outermost layer. A mixture of a matting agent having any grain size and latex having different grain sizes may be contained in this protective layer. In the light-sensitive material according to the present invention, the ultraviolet absorbent can be added in a hydrophilic colloid layer. In the light-sensitive material of the present invention, in addition to the above additives, various stabilizers, pollution inhibitors, developing chemicals or their precursors, development accelerators or their precursors, lubricants, mordants, matting agents, antistatic agents, plasticizers, or other effective additives for the photographic light-sensitive material may be used. Typical examples of the above additives are described in Research Disclosure, No. 17643 (December, 1978) and No. 18716 (November, 1979). In the light-sensitive material of the present invention, a water-soluble dye may be contained in the hydrophilic colloid layer as a filter dye or in order to prevent irradiation or halation. The photographic emulsion layer or other hydrophilic colloid layers of the light-sensitive material of the present invention may contain a stilbene type, triazine type, oxazole type, or coumarin type whitener. In this case, the whitener may be water-soluble, or a water-insoluble whitener may be used in the form of a dispersion. 2-3. Support A reflective support which can be used in the present invention preferably increases reflectivity to obtain a clear dye image in the silver halide emulsion layer. Examples of such a reflective support are a support coated with a hydrophobic resin containing a dispersed light reflective material such as titanium oxide, zinc oxide, calcium carbonate, or calcium sulfate and a support of polyvinyl chloride containing a dispersed light reflective material. Examples are baryta paper, polyethylene coated paper, polypropylene synthetic paper, a transparent support having a reflective layer or comprising a reflective material, e.g., a glass plate, a polyester film such as a polyethyleneterephthalate, cellulose triacetate, or cellulose nitrate film, a polyamide film, a polycarbonate film, or a polystyrene film. These supports can be arbitrarily selected in accordance with a purpose. Supports having a mirror reflective surface or a surface having secondary reflectivity as described in JP-A-60-210346, Japanese Patent Application No. 61-168800 and JP-A-63-24247 may be used. A transparent support is also used in the present invention. 2-4. Layer Structure As described above, the present invention can be applied to a multilayer multicolor photographic material having two different spectral sensitivities. A multi-layer natural color photographic material normally has at least one of each of red-sensitive, green-sensitive, and blue-sensitive layers on a support. The photographic material of the present invention preferably comprises at least one blue-sensitive silver halide emulsion layer containing an yellow coupler, at least one green-sensitive silver halide emulsion layer containing a magenta coupler, and at least one red-sensitive silver halide emulsion layer containing a cyan coupler. An order of these layers can be arbitrarily selected. Each of the above emulsion layers may consist of two or more emulsion layers having different sensitivities, and a non-light-sensitive layer may be interposed between two or more emulsion layers having the same spectral sensitivity. In the color light-sensitive material according to the present invention, an auxiliary layer such as a protective layer, an interlayer, a filter layer, an antihalation layer, or a backing layer is preferably formed in addition to the silver halide emulsion layer on the support. Gelatin can be advantageously used as a binding agent or a protective colloid which can be used as an emulsion layer or an interlayer of the light-sensitive material of the present invention. However, other hydrophilic colloids can be used. Examples are a protein such as gelatin derivative, graftpolymer of gelatin and another polymer, albumin, and casein; a cellulose derivative such as hydroxyethylcellulose, carboxymethylcellulose, and a cellulose sulfate ester, a suger derivative such as soda alginate, and a starch derivative; and a homopolymer or copolymer such as polyvinyl alcohol, polyvinyl alcohol partial acetal, poly-N-vinylpyrrolidone, polyacrylic acid, polymethacrylic acid, polyacrylamide, polyvinylimidazole, and polyvinylpyrazole. That is, various synthetic hydrophilic polymer materials can be used. Examples of gelatin are lime-processed gelatin, acid-processed gelatin, and oxygen-processed gelatin as described in Bull. Soc. Sci. Phot. Japan. No. 16, page 30 (1966). In addition, a hydrolyzed product or oxygen-decomposed product of gelatin can be used. 2-5. Coating Silver Amount Another characteristic of the present invention lies in that color development can be rapidly and stably performed. That is, color development can be performed within 3 min and 40 s, and preferably, within a time shorter than 3 min or 2 min and 30 s. In the present invention, the content of the silver halide is about 1.5 g/m² or less, and preferably, 1.2 g/m² or less when a reflective support is used, and is 7 g/m² or less, and preferably, 5 g/m² or less when a transparent support is used. When the content of the silver halide is small, not only color development but also desilverizing can be advantageously, rapidly performed. (3) Developing Method 3-1. Color Developing Agent An aromatic primary amino type color developing agent used in the color developer includes developing agents known to those skilled in the art and widely used in various color photographic processes. These developing agents include aminophenol type and p-phenylenediamine type derivatives. The p-phenylenediamine type derivative is preferred and its typical examples will be listed below. D-1 N,N-diethyl-p-phenylendiamine D-2 2-amino-5-diethylaminotoluene D-3 2-amino-5-(N-ethyl-N-laurylamino)toluene D-4 4-[N-ethyl-N-(β-hydroxyethyl)amino]aniline D-5 2-methyl-4-[N-ethyl-N-(β-hydroxyethyl)amino]aniline D-6 N-etyhl-N-(β-methanesulfonamidoethyl)-3-methyl-4-aminoaniline D-7 N-(2-amino-5-diethylaminophenylethyl)methanesulfonamide D-8 N,N-dimethyl-p-phenylenediamine D-9 4-amino-3-methyl-N-ethyl-N-methoxyethylaniline D-10 4-amino-3-methyl-N-ethyl-N-β-ethoxyethylaniline D-11 4-amino-3-methyl-N-ethyl-N-β-butoxyethylaniline The above p-phenylenediamine derivatives may be in the form of salts such as sulfate, hydrochloride, sulfite, and p-toluenesulfonate. The above compounds are described in U.S. Patents 2,193,015, 2,552,241, 2,566,271, 2,592,364, 3,656,950, and 3,698,525. The content of the aromatic primary amine developing agent is about 0.1 g to about 20 g, and more preferably, about 0.5 g to about 10 g per liter of the developer. 3-2. Color Developer The color developer used in the present invention can contain hydroxylamines. Although the hydroxylamines can be used in the form of a free amine in a color developer, it is more general to use the hydroxylamines in the form of a water-soluble acid salt. Examples of such a salt are sulfate, oxalate, hydrocloride, phosphate, carbonate and acetate, The hydroxylamines may be substituted or nonsubstituted, and nitrogen atom of the hydroxylamines may have substituent of alkyl. The content of hydroxylamine is preferably 0 g to 10 g, and more preferably, 0 g to 5 g per liter of the color developer. A smaller content is preferred as long as stability of the color developer is maintained. A sulfite such as sodium sulfite, potassium sulfite, sodium bisulfite, potassium bisulfite, sodium metasulfite or potassium metasulfite, or a carbonyl sulfite adduct is preferably contained as a preservative. The content of the above compounds is preferably 0 g to 20 g/ℓ, and more preferably, 0 g to 5 g/ℓ. A smaller content is preferred as long as stability of the color developer is maintained. Examples of the preservative are aromatic polyhydroxy compounds described in JP-A-52-49828, JP-A-56-47038, JP-A-56-32140, 59-160142, and U.S. Patent 3,746,544; hydroxyacetones described in U.S. Patent 3,615,503 and British Patent 1,306,176; α-aminocarbonyl compounds described in JP-A-52-143020 and JP-A-53-89425; various metals described in JP-A-57-44148 and JP-A-57-53749; various sugars described in JP-A- 52-102727; an α-α'-dicarbonyl compound described in JP-A-59-160141; salicylic acids described in JP-A-59-180588; alkanolamines described in JP-A-54-3532; poly(alkyleneimine)s described in JP-A-56-94349; and a gluconic acid derivative described in JP-A-56-75647. These preservatives may be used singly or in a combination of two or more types. Especially, 4,5-dihydroxy-m-benzenedisulfonic acid, poly(ethyleneimine), and triethanolamine are preferred. The pH of the color developer used in the present invention falls within the range of, preferably 9 to 12, and more preferably, 9 to 11.0. The color developer may contain a compound of known developer components. In order to maintain the above pH, it is preferable to use various buffering agents. Examples of the buffering agent are carbonate, phosphate, borate, tetraborate, hydroxybenzoate, glycine salt, N,N-dimethylglycine salt, leucine salt, norleucine salt, guanine salt, 3,4-dihydroxyphenylalanine salt, alanine salt, aminobutyrate, 2-amino-2-methyl-1,3-propanediol salt, valine salt, proline salt, trishydroxylaminomethane salt, and lysine salt. Especially, carbonate, phosphate, tetraborate, and hydroxybenzoate have good solubility and a good buffering property in a high pH region of pH 9.0 or more, do not adversely affect a photographic property (e.g., fogging) when they are added to the color developer, and are inexpensive. Therefore, it is most preferable to use these buffering agents. Examples of such the buffering agent are sodium carbonate, potassium carbonate, sodium bicarbonate, potassium bicarbonate, sodium tertiary phosphate, potassium tertiary phosphate, disodium phosphate, dipotassium phosphate, sodium borate, potassium borate, sodium tetraborate (borax), potassium tetraborate, sodium o-hydroxybenzoate (sodium salicylate), potassium o-hydroxybenzoate, sodium 5-sulfo-2 hydroxybenzoate (sodium 5-sulfosalicylate), and potassium 5-sulfo-2-hydroxybenzoate (potassium 5-sulfosalicylate). The content of the buffering agent based on the color developer is preferably 0.1 mol/ℓ or more, and more preferably, 0.1 mol/ℓ to 0.4 mol/ℓ. In the color developer, various chelating agents may be used as a precipitation inhibitor for calcium or magnesium or in order to improve stability of the color developer. An organic acid compound is preferable as the chelating agent. Examples of the compound are aminopolycarbonic acids described in JP-A(examined)-48-030496 and JP-A(examined)-44-30232, organic phosphonic acids described in JP-A-56-97347, JP-B-56-39359, and West German Patent Application (OLS) No. 2,227,639, phosphonocarbonic acids described in JP-A-52-102726, JP-A-53-42730, JP-A-54-121127, JP-A-55-126241, and JP-A-55-65956, and compounds described in JP-A-50-195845, JP-A-58-203440 and JP-B-53-40900. Examples are listed below, Nitrilotriacetic Acid Diethyleneaminepentaacetic Acid Ethylenediaminetetraacetic Acid Triethylenetetraminehexaacetic Acid N,N,N-trimethylenephophonic Acid Ethylenediamine-N,N,N',N'-tetramethylenephosphonic Acid 1,3-diamino-2-propanol-tetraacetic Acid Transcyclohexanediaminetetraacetic Acid Nitrilotripropionic Acid 1,2-diaminopropanetetraacetic Acid Hydroxyethyliminodiacetic Acid Glycoletherdiaminetetraacetic Acid Hydroxyethylenediaminetriacetic Acid Ethylenediamineorthohydroxyphenylacetic Acid 2-phosphonobutane-1,2,4-tricarbonic Acid 1-hydroxyethane-1,1-diphosphonic Acid N,N'-bis(2-hydroxybenzyl)ethylenediamine-N,N'-diacetic Acid These chelating agents may be used singly or in a combination of two or more types. These chelating agents need only be added in an amount sufficient to hinder metal ions in the color developer. For example, the content is 0.1 g to 10 g per liter. An arbitrary development accelerator can be added to the color developer. Examples of the development accelerator are thioether type compounds described in JP-A(examined)-37-16088, JP-A(examined)-37-5987, JP-A(examined)-38-7826, JP-A(examined)-44-12380, JP-A(examined)-45-9019, and U.S. Patent 3,813,247; p-phenylenediamine type compounds described in JP-A-52-49829 and JP-A-50-15554, and quaternary ammonium salts described in JP-A-50-137726, JP-A(examined)-44-30074, JP-A-56-156826 and JP-A-52-43429; p-aminophenols described in U.S. Patents 2,610,122 and 4,119,462; amino type compounds described in U.S. Patents 2,494,903, 3,128,182, 4,230,796, and 3,253,919, JP-A(examined)-41-11431, and U.S. Patents 2,482,546, 2,596,926, and 3,582,346; and polyalkyleneoxides described in JP-A(examined)-37-16088, JP-A(examined)-42-25201, U.S. Patent 3,128,183, JP-A(examined)-41-11431, JP-A(examined)-42-23883, and U.S. Patent 3,532,501. In addition, 1-phenyl-3-pyrazolidones, hydrozines, a methoion type compound, a thion type compound, imidazoles, and the like can be added as needed. Especially, the thioether type compound or 1-phenyl-3-pyrazolidones are preferable. An arbitrary antifoggant can be added to the color developer used in the present invention as needed. Examples of the antifoggant are an alkali metal halide such as potassium bromide, sodium chloride, or potassium iodide combined with the compound represented by formula [XXI], [XXII], or [XXIII], and other organic antifoggants. Examples of the organic antifoggant are a nitrogen-containing heterocyclic compound such as benzotriazole, 6-nitrobenzimidazole, 5-nitroisoindazole, 5-methylbenzotriazole, 5-nitrobenzotriazole, 5-chloro-benzotriazole, 2-thiazolyl-benzimidazole, 2-thiazolylmethyl-benzimidazole, and hydroxyazaindolizine, a mercapto-substituted heterocyclic compound, represented by a formula other than formula [XXI], [XXII], or [XXIII], such as 2-mercaptobenzimidazole and 2-mercaptobenzothiazole, and a mercapto-substituted aromatic compound such as adenine and thiosalicylic acid. These antifoggants may be eluted from the color light-sensitive material during the process and stored in the color developer. In this case, in order to reduce a discharge amount, a smaller storage amount is preferred. The color developer used in the present invention preferably contains a fluorescent whitening agent. A 4,4-diamino-2,2'-disulfostilbene type compound is preferable as the fluorescent whitening agent. The content of the compound is 0 to 5 g/ℓ, and preferably, 0.1 g to 2 g/ℓ. Various surface-active agents such as alkylphosphonic acid, arylphosphonic acid, aliphatic carbonic acid, and aromatic carbonic acid can be added as needed. The process temperature of the color developer in the present invention is preferably 30°C to 50°C, and more preferably, 33°C to 42°C. The replenishment amount is 2,000 mℓ or less, and preferably, 1,500 mℓ or less per m² of light-sensitive material. In order to reduce a waste liquor amount, a smaller replenishment amount is preferred. In the color developer used in the present invention, in order to achieve rapid development by a color developer substantially not containing benzyl alcohol which is disadvantageous in terms of environmental pollution, storage stability of a color image, or generation of a stain, a color developing system may be constituted such that both of a restoring agent for the oxidation product of a color developing agent described in Japanese Patent Application No. 61-259799 and a trapping agent for the oxidation product of the restoring agent are used. In the present invention, it is preferred that the color developer substantially does not contain iodide ions. In this case, "substantially does not contain iodide ions" means that the color developer contains not more than 1 mg/ℓ of iodide ions. In addition, in the present invention, it it preferred that the color developer substantially does not contain sulfite ions. In this case, "substantially does not contain sulfite ions" means that the color developer contains not more than 0.02 mol/ℓ of sulfite ions. 3-3. Desilverizing The color photographic light-sensitive material of the present invention is desilverized after color development. In this case, a desilverizing process can include at least one of bleaching, fixing, and bleach-fixing (e.g., bleach-fixing; bleaching and fixing; bleaching and bleach-fixing; and fixing and bleach-fixing). An example of a bleaching agent used in a bleaching solution or a bleach-fixing solution of the present invention is a ferric iron ion complex which is a complex of ferric iron ion and a chelating agent such as aminopolycarbonic acid, aminopolyphosphonic acid, or its salt. Aminopolycarbonate or aminopolyphosphonate is a salt of aminopolycarbonic acid or aminopolyphosphonic acid and an alkali metal, ammonium, or water-soluble amine. Examples of the alkali metal are sodium, potassium, and lithium. Examples of the water-soluble amine are an alkylamine such as methylamine, diethylamine, triethylamine, and butylamine, cycloaliphatic amine such as cyclohexylamine, an arylamine such as aniline and m-toluidine, and a heterocyclic amine such as pyridine, morpholine, and piperidine. Examples of the chelating agent such as aminopolycarbonic acid, aminopolyphosphonic acid, and their salts are as follows: Ethylenediaminetetraacetic Acid Ethylenediaminetetraacetic Acid Disodium Salt Ethylenediaminetetraacetic Acid Diammonium Salt Ehtylenediaminetetraacetic Acid Tetra(trimethylammonium) Salt Ethylenediaminetetraacetic Acid Tetrapotassium Salt Ethylenediaminetetraacetic Acid Tetrasodium Salt Ethylenediaminetetraacetic Acid Trisodium Salt Diethylenetriaminepentaacetic Acid Diethylenetriaminepentaacetic Acid Pentasodium Salt Ethylendiamine-N-(β-oxyethyl)-N,N',N'-triacetic Acid Ethylenediamine-N-(β-oxyethyl)-N,N',N'-triacetic Acid Trisodium Salt Ethylenediamine-N-(β-oxyethyl)-N,N',N'-triacetic Acid Triammonium Salt Propylenediaminetetraacetic Acid Propylenediaminetetraacetic Acid Disodium Salt Nitrilotriacetic Acid Nitrilotriacetic Acid Trisodium Salt Cyclohexanediaminetetraacetic Acid Cyclohexanediaminetetraacetic Acid Disodium Salt Iminodiacetic Acid Dihydroxyethylglycine Etyletherdiaminetetraacetic Acid Glycoletherdiaminetetraacetic Acid Ethylenediaminetetrapropionic Acid Phenylenediaminetetraacetic Acid 1,3-diaminopropanol-N,N,N',N'-tetramethylenephosphonic Acid Ethylenediamine-N,N,N',N'-tetramethylenephosphonic Acid 1,3-propylenediamine-N,N,N',N'-tetramethylenephosphonic Acid A ferric iron ion complex salt may be used in the form of a complex salt or formed in a solution using a ferric iron salt such as ferric iron sulfate, ferric iron chloride, ferric iron nitrate, ferric iron ammonium sulfate, and ferric iron phosphate and a chelating agent such as aminopolycarbonic acid, aminopolyphosphonic acid, and phosphonocarbonic acid. When a ferric iron ion complex salt is used in the form of a complex salt, one or more types of complex salt may be used. When a complex salt is formed in a solution using a ferric iron salt and a chelating agent, one or more types of ferric iron salt may be used. In this case, one or more types of chelating agent may be used. In either case, the chelating agent may be used in an amount larger than that required to form the ferric iron ion complex salt. An aminopolycarbonic acid iron complex is preferred as the iron complex, and its content is 0.01 to 1.0 mol/ℓ, and more preferably, 0.05 to 0.50 mol/ℓ. An accelerator for bleaching can be used, if necessary, in the bleaching or bleach-fixing solution. Specific examples of a useful accelerator for bleaching are: compounds having a mercapto group or a disulfide group described in U.S. Patent 3,893,858, West German Patent Application (OLS) Nos. 1,290,812 and 2,059,988, JP-A-53-32736, JP-A-53-57831, JP-A-53-37418, JP-A-53-65732, JP-A-53-72623, JP-A-53-95630, JP-A-53-95631, JP-A-53-104232, JP-A-53-124424, JP-A-53-141623, JP-A-53-28426, and Research Disclosure No. 17129 (July, 1978); thiazolidine derivatives described in JP-A-50-140129; thiourea derivatives described in JP-A(examined)-45-8506, JP-A-52-20832, JP-A-53-32735, and U.S. Patent 3,706,561; iodides described in West German Patent Application (OLS) No. 1,127,715 and JP-A-58-16235; polyethylene oxides described in West German Patent Application (OLS) Nos. 966,410 and 2,748,430; a polyamine compound described in JP-A(examined)-45-8836; compounds described in JP-A-49-42434, JP-A-49-59644, JP-A-53-94927, JP-A-54-35727, JP-A-55-26506, and JP-A-58-163940; and iodide and bromide ions. The compounds having a mercapto group or a disulfide group are preferable due to an excellent acceleration effect. More specifically, the compounds described in U.S. Patent 3,893,858, West German Patent Application (OLS) No. 1,290,812, and JP-A-53-95630 are preferable. The bleaching solution or the bleach-fixing solution used in the present invention may contain rehalogenation agents such as a bromide (e.g., potassium bromide, sodium bromide, and ammonium bromide), a chloride (e.g., potassium chloride, sodium chloride, and ammonium chloride), or an iodide (e.g., ammonium iodide). Further, the bleaching solution or the bleach-fixing solution contains, if necessary, one or more inorganic and organic acids, their alkali metals, or their ammonium salts and, having a pH buffering function, such as boric acid, borax, sodium methaborate, acetic acid, sodium acetate, sodium carbonate, potassium carbonate, phosphorous acid, phosphoric acid, sodium phosphate, citric acid, sodium citrate, and tartaric acid, or a corrosion inhibitor such as ammonium nitrate or guanidine. The fixing agent used in the bleach-fixing or the fixing solution is a known fixing agent. Examples of a known fixing agent are water-soluble silver halide solvents such as: a thiosulfate, e.g., sodium thiosulfate and ammonium thiosulfate; a thiocyanate, e.g., sodium thiocyanate and ammonium thiocyanate; a thioether compound, e.g., ethylenebisthioglycolic acid and 3,6-dithia-1,8-octanediol; and thioureas. These compounds may be used singly or in a combination of two or more types. A special bleach-fixing solution consisting of a fixing agent and a large amount of a halide such as iodide, described in JP-A-55-155354 can be used. In the present invention, a thiosulfate, especially, ammonium thiosulfate is preferred. The content of the fixing agent per liter is preferably 0.3 to 2 mol, and more preferably, 0.5 to 1.0 mol. In the present invention, the pH of the bleach-fixing or fixing solution preferably falls within the range of 3 to 10, and more preferably, 4 to 9. If the pH of the solution is lower than the minimum value of the range, the desilverizing effect can be improved, but the solution is degraded and the cyan dye is converted into a leuco form. However, if the pH of the solution is higher than the maximum value of the range, de-silverizing is delayed and stain tends to occur. In order to adjust the pH of the solution, hydrochloric acid, sulfuric acid, nitric acid, acetic acid (glacial acetic acid), bicarbonate, ammonia, caustic potash, caustic soda, sodium carbonate or potassium carbonate, can be added to the solution. The bleach-fixing solution may contain various fluorescent whitening agents, an antifoamer or a surface-active agent, polyvinylpyrrolidone, and an organic solvent such as methanol. The bleach-fixing and the fixing solutions can contain a sulfite ion releasing compound as a preservative, such as a sulfite (e.g., sodium sulfite, potassium sulfite, and ammonium sulfite), a bisulfite (e.g., ammonium bisulfite, sodium bisulfite, and potassium bisulfite), and a methabisulfite (e.g., potassium methabisulfite, sodium methabisulfite, and ammonium methabisulfite). The content of these compounds is about 0.02 to 0.50 mol/ℓ, and more preferably, 0.04 to 0.40 mol/ℓ as an amount of sulfite ion. A typical preservative is a sulfite. However, ascorbic acid, a carbonyl bisulfite adduct, or a carbonyl compound may be used. A buffering agent, a fluorescent whitening agent, a chelating agent or a mildewproofing agent may be added as needed. As the bleaching agent of the bleach-fixing solution, it is preferred to use at least one of iron (III) complex salts of ethylenediaminetetraacetic acids, iron (III) complex salts of diethylenetriaminepentaacetic acids, and iron (III) complex salts of cyclohexane-diaminetetraacetic acids. 3-4. Washing and Stabilizing The washing step will be described below. In the present invention, a simplified process method in which only a so-called "stabilizing process" without a washing step is performed in place of a conventional "washing process" can be used. That is, the term "washing process" is used in a broad sense. It is difficult to determine the amount of water used in the washing process because it varies in accordance with the number of water tanks of multi-stage counter-current washing or the amount of preceding tank components in the light-sensitive material. However, in the present invention, a bleach-fixing solution component in the last washing water tank need be 1 × 10⁻⁴ mol/ℓ or less. For example, in 3-tank counter-current washing, water is used in an amount of preferably about 1,000 mℓ or more, and more preferably, 5,000 mℓ or more per m² of the light-sensitive material. In a water-saving process, water may be used in an amount of preferably 100 to 1,000 mℓ per m² of the light-sensitive material. The washing temperature is 15°C to 45°C, more preferably, 20°C to 35°C. In the washing process, various known compounds may be added in order to prevent precipitation or to stabilize washing water. For example, a chelating agent such as inorganic phosphoric acid, aminopolycarbonic acid, and organic phosphonic acid, a germicide or an antifungal agent for preventing generation of various bacteria, algae, and fungi (e.g., a compound described in "J. Antibact. Antifung. Agents", Vol. 11, No. 5, PP. 207 to 223 (1983) and a compound described in "Chemistry of Antibacterial and Antifungal Agents" by Hiroshi Horiguchi), a metal salt such as magnesium salt and aluminum salt, an alkali metal salt and an ammonium salt, or a surface-active agent for preventing a dry load or uneveness may be added as needed. A compound described in "Photo. Sci. Eng.", Vol. 6, PP. 344 to 359 (1965) may be added. The present invention is especially effective when a chelating agent, a germicide, or an antifungal agent is added to washing water and the amount of washing water is largely reduced by multi-stage counter-current washing of two or more water tanks. The present invention is also effective when a multi-stage counter-current stabilizing process step (so-called stabilizing process) as described in JP-A-57-8543 is performed in place of a normal washing step. In these cases, a bleach-fixing solution component in the last water tank need be 5 × 10⁻² or less, and preferably, 1 × 10⁻² or less. Various compounds are added to the stabilizing tank in order to stabilize an image. Examples are various buffering agents for adjusting the film pH (e.g., pH 3 to 8) (in this case, borate, metaborate, borax, phosphate, carbonate, potasium hydroxide, sodium hydroxide, ammonium water, monocarbonic acid, dicarbonic acid, polycarbonic acid, and the like are used in combination), and an aldehyde such as formalin. In addition, various additives such as a chelating agent (e.g., inorganic phosphoric acid, aminopolycarbonic acid, organic phosphonic acid, aminopolyphosphonic acid, and phosphonocarbonic acid), a bactericide (e.g., thiazole type, isothiazole type, phenol halide, sulfanylamide, and benzotriazole), a surface-active agent, a fluorescent whitening agent, and a film-hardening agent may be used. In this case, two or more types of compounds having the same or different purposes may be used. In order to improve the image storage stability, it is preferable to add various ammonium salts such as ammonium chloride, ammonium nitrate, ammonium sulfate, ammonium phosphate, ammonium sulfite, and ammonium thiosulfate as a film pH adjusting agent of the processing solution. When washing water is largely reduced as described above, part or all of overflow liquid of washing water is preferably flowed into a preceding tank i.e. a bleach-fixing water tank or a fixing water tank, in order to reduce a discharge liquid amount. In this developing process, it is preferred to continuously perform color development using a color developer in which the content of bromide ions is preferably maintained to be 1.0 × 10⁻²/ℓ or less, and more preferably, 0.5 × 10⁻²/ℓ or less. In this developing process, a cycle including color development, desilverizing, washing, and drying can be performed within 120 s. When this processing step is continuously performed, a replenishing liquid of each processing liquid is used to prevent variations in liquid composition, thereby obtaining a constant photofinishing. The replenishment amount can be reduced to be half or less of the standard replenishment amount, whereby the cost of developing the photographic material is lowered. In each processing tank, a heater, a temperature sensor, a liquid surface sensor, a circulation pump, a filter, various types of a floating cover, various types of squeegee, a nitrogen agitator or an air agitator may be provided. Any processing can be applied to the light-sensitive material of the present invention as long as a color developer is used. Examples of processing are those for color paper, color reversal paper, a color positive film, a color negative film and a color reversal film, The present invention will be described in detail below by way of examples. EXAMPLE 1 Silver halide emulsion (1) was prepared as follows. (Solution 1) H₂O 800 mℓ NaCℓ 4.5 g Gelatin 25 g (Solution 2) NaCℓ 1.7 g Water to make 140 mℓ (Solution 3) AgNO₃ 5.0 g Water to make 140 mℓ (Solution 4) NaCℓ 41.3 g Water to make 320 mℓ (Solution 5) AgNO₃ 120 g Water to make 320 mℓ (Solution 1) was heated up to 55°C, and (Solution 2) and (Solution 3) were simultaneously added to (Solution 1) over 10 min. 10 min after the addition, (Solution 4) and (Solution 5) were simultaneously added to the resultant over 35 min. Five minutes after the addition, the temperature of the resultant was reduced, and the resultant was desalted. Water and dispersion gelatin were added to the desalted resultant and the pH was adjusted to 6.2, thereby preparing monodispersion cubic silver chloride emulsion (1) having an average grain size of 0.70 µm and a variation coefficient of 0.13 (a value obtained by dividing the standard deviation by the average grain size). 2 × 10⁻⁴ mol of sensitizing dye XX-10 (shown in Table 13) per mol of the silver halide were added to emulsion (1) at 58°C, and 1 mol% of a fine grain emulsion (grain size: 0.05 µm) per mol of the silver halide was added to the resultant emulsion. Thereafter, sodium thiosulfate, chloroauric acid, and ammonium thiocyanate were added to the resultant emulsion, and chemical ripening was performed in the presence or absence of a thiosulfonate compound according to the present invention for 70 min as shown in Table 3, thereby preparing emulsions (101) to (108). 100 g of magenta coupler (Ex M1) were dissolved together with 80 g of color image stabilizer (Cpd-3) and 38 g of color image stabilizer (Cpd-4) in a solution mixture of 130 mℓ of solvent (Solv-2) and 100 mℓ of ethylacetate. The resultant solution was emulsified and dispersed in 1,200 g of a 10% aqueous gelatin solution containing 4.0 g of sodium dodecylbenzenesulfonate, thereby preparing emulsified dispersion (A). Chemical structures of the used compounds are listed in Table 16. Eight samples of sample 101 to 108 listed in Table 3 having the contents as shown in Table 4 were prepared. Polyethylene at the side on which the emulsion and protective layers were applied contained titanium dioxide and a small amount of ultramarine blue. 1-oxy-3,5-dichloro-s-triadine sodium salt was used as a film hardening agent for each layer. The following experiment was conducted to examine the photographic properties of these coated samples. Sensitometric gradation exposure was performed for the coated samples through a green filter using a sensitometer FWH® (available from Fuji Photo Film Co., Ltd.; color temperature of light source: 3,200°K). In this case, exposure was performed for an exposure time of 1/10 s or 1/100 s, to obtain an amount of exposure of 250 CMS. Thereafter, the following color developing process was performed. Process Temperature Time Color Development 35°C 45 s Bleach-Fixing 35°C 45 s Washing 28 to 35°C 90 s Color Developer Triethanolamine 8.12 g N,N-diethylhydroxylamine 4.93 g Phosphor Bleach Solution (UVITEXCK, available from Ciba-Geigy Corp.) 2.80 g 4-amino-3-methyl-N-ethyl-N-[β-(methanesulfoneamido)ethyl]-p-phenylenediamine Sulfate 4.96 g Sodium Sulfite 0.13 g Potassium Carbonate 18.40 g Potassium Hydrogencarbonate 4.85 g EDTA·2Na·2H₂O 2.20 g Sodium Chloride 1.36 g Water to make 1,000 mℓ pH 10.05 Bleach-fixing Solution Ammonium Thiosulfate (54 wt%) 103.0 mℓ As is apparent from Table 3, the emulsions of the present invention have much higher sensitivity, less reciprocity failure, and less fog than those of the comparative examples. EXAMPLE 2 Two strips were sampled from each sample. One of the strips was left at 50°C and a relative humidity of 20% for three days. The other strip was left at -20°C for three days. Thereafter, sensitometry exposure and color development were performed following the same procedures as in Example 1 to form a magenta image, and density measurement was performed using an optical densitometer. The results are summarized in Table 5 below. As is apparent from Table 5, according to the samples of the present invention, an increase in fog was significantly small when they were preserved even at high and low temperatures, and therefore the advantages of the present invention were attained. EXAMPLE 3 Multilayered color print paper having the following layers was prepared on a paper support on two surfaces of which polyethylene films were laminated. A coating liquid was prepared by mixing and dissolving emulsions, various chemicals, and emulsified dispersions of couplers. Methods of preparing the coating solution will be described below. Preparation of Coupler Emulsified Dispersions 19.1 g of a yellow coupler Ex Y and 4.4 g of a color image stabilizer Cpd-1 were added to and dissolved in 27.2 mℓ of ethyl acetate and 7.7 mℓ of solvent Solv-1. The resultant solution was emulsified and dispersed in 185 mℓ of a 10% gelatin aqueous solution containing 8 mℓ of 10% sodium dodecylbenzenesulfonate. Emulsified dispersions for magenta coupler containing layer, cyan coupler containing layer, and interlayer were prepared following the same procedures as described above. The compounds used in the respective emulsions are listed in Table 17 to be presented later. 2.5 × 10⁻⁴ mol of a stabilizer (XXI-7 shown in Table 14) per unit mol of the silver halide were added to a blue-sensitive emulsion layer. 1-oxy-3,5-dichloro-s-triadine sodium salt was used as a gelatin hardener for each layer. In order to prevent irradiation, dyes Ex-3a and Ex-3b in Table 17 were added to the emulsion layer. 2.6 × 10⁻³ mol of compound Ex-3c listed in Table 17 per unit mol of the silver halide were added to a red-sensitive emulsion layer. A method of preparing emulsions employed in this example will be described below. Emulsions 301 to 306 were prepared under the same condition as emulsion (1), except for the grain formation temperature as is shown in Table 6, and were then optimally, chemically sensitized. 10⁻⁴ mol/molAg of compound Ex-3d listed in Table 17 was added as a stabilizer to each of the above emulsions. The resultant emulsions were coated in combinations as listed in Table 7 below, thereby preparing samples 301 to 309. All couplers are used in an equimolar amount. (Layer Structure) Compositions of layers in sample 301 will be described below. Numerals indicate coating amounts (g/m²). As to silver halide emulsion, numerals indicate silver amount. Support Polyethylene Laminate Paper [Polyethylene on layer 1 side contains white pigment (TiO₂) and bluish dye (navy blue)] Layer 1 (Blue-Sensitive Layer) Silver Halide Emulsion 0.30 Gelatin 1.86 Yellow Coupler Ex Y 0.82 Color Image Stabilizer Cpd-1 0.19 Solvent Solv-1 0.35 Layer 2 (Color Mixing Inhibitor Layer) Gelatin 0.99 Color Mixing Inhibitor Cpd-2 0.08 Layer 3 (Green-Sensitive Layer) Silver Halide Emulsion 0.36 Gelatin 1.24 Magenta Coupler Ex M1 0.31 Color Image Stabilizer Cpd-3 0.25 Color Image Stabilizer Cpd-4 0.12 Solvent Solv-2 0.42 Layer 4 (Ultraviolet Absorption Layer) Gelatin 1.58 Ultraviolet Absorbent UV-1 0.62 Color Mixing Inhibitor Cpd-5 0.05 Solvent Solv-3 0.24 Layer 5 (Red-Sensitive Layer) Silver Halide Emulsion 0.23 Gelatin 1.34 Cyan Coupler (1 : 1 mixture of Ex C1 & Ex C2) 0.34 Color Image Stabilizer Cpd-6 0.17 Polymer Cpd-7 0.40 Solvent Solv-4 0.23 Layer 6 (Ultraviolet Absorption Layer) Gelatin 0.53 Ultraviolet Absorbent UV-1 0.21 Solvent Solv-3 0.08 Layer 7 (Protective Layer) Gelatin 1.33 Acrylic Denaturated Copolymer of Polyvinyl Alcohol (Degree of denaturation: 17%) 0.17 Liquid Paraffin 0.03 Coated samples 301 to 309 were subjected to color development in accordance with the processing solutions and processing steps described in Example 1, thereby comparing sensitivities and fog of the blue-, green-, and red-sensitive layers following the same procedures as in Example 1. In this case, relative sensitivity of sample 302 was 100. As is apparent from the results shown in Table 8, the combinations of the present invention have fog much less than and sensitivity much higher than those of the comparative example. EXAMPLE 4 A sample as a multilayered light-sensitive material having the following layers on an undercoated cellulose triacetate film support was formed. (Composition of Light-Sensitive Layers) An amount of coating material was measured in g/m² of silver for the silver halide and colloid silver. Amounts of a coupler, additive, and gelatin were measured in g/m². Layer 1 (Antihalation layer) Black Colloid Silver 0.2 Gelatin 1.3 Colored Coupler C-1 0.06 Ultraviolet Absorbent UV-1 0.1 Ultraviolet Absorbent UV-2 0.2 Dispersion Oil Oil-1 0.01 Dispersion Oil Oil-2 0.01 Layer 2 (Interlayer) Gelatin 1.0 Colored Coupler C-2 0.02 Dispersion Oil Oil-1 0.1 Layer 3 (1st Red-Sensitive Emulsion Layer) Emulsion (401) listed in Table 9 silver 1.0 Gelatin 0.8 Coupler C-3 0.48 Coupler C-4 0.56 Coupler C-8 0.08 Coupler C-2 0.08 Coupler C-5 0.04 Dispersion Oil Oil-1 0.30 Dispersion Oil Oil-3 0.04 Layer 4 (2nd Red-Sensitive Emulsion Layer) Emulsion (402) listed in Table 9 silver 1.0 Gelatin 1.0 Coupler C-6 0.05 Coupler C-7 0.1 Dispersion Oil Oil-1 0.01 Dispersion Oil Oil-2 0.05 Layer 5 (Interlayer) Gelatin 1.0 Compound Cpd-A 0.03 Dispersion Oil Oil-1 0.05 Layer 6 (1st Green-Sensitive Emulsion Layer) Emulsion (403) listed in Table 9 silver 0.8 Gelatin 1.0 Coupler C-9 0.30 Coupler C-12 0.10 Coupler C-1 0.06 Coupler C-10 0.03 Coupler C-5 0.02 Dispersion Oil Oil-1 0.4 Layer 7 (2nd Green-Sensitive Emulsion Layer) Emulsion (404) listed in Table 9 silver 0.85 Gelatin 1.0 Coupler C-11 0.01 Coupler C-12 0.04 Coupler C-13 0.20 Coupler C-1 0.02 Coupler C-15 0.02 Dispersion Oil Oil-1 0.20 Dispersion Oil Oil-2 0.05 Layer 8 (Interlayer) Gelatin 1.2 Compound Cpd-B 0.1 Dispersion Oil Oil-1 0.3 Layer 9 (1st Blue-Sensitive Emulsion Layer) Emulsion (405) listed in Table 9 silver 0.4 Gelatin 1.0 Coupler C-14 0.9 Coupler C-5 0.07 Dispersion Oil Oil-1 0.2 Layer 10 (2nd Blue-Sensitive Emulsion Layer) Emulsion (406) listed in Table 9 silver 0.5 Gelatin 0.6 Coupler C-14 0.25 Dispersion Oil Oil-1 0.07 Layer 11 (1st Protective Layer) Gelatin 0.8 Ultraviolet Absorbent UV-1 0.1 Ultraviolet Absorbent UV-2 0.2 Dispersion Oil Oil-1 0.01 Dispersion Oil Oil-2 0.01 Layer 12 (2nd Protective Layer) Gelatin 0.45 Polymethyl Methacrylate Particles (grain size: 1.5 µm) 0.2 Hardener H-1 0.4 Formaldehyde Scavenger S-1 0.5 Formaldehyde Scavenger S-2 0.5 A surfactant was added as a coating additive to the above-mentioned layers in addition to the components described above. Names and chemical structures of the compounds used in the present invention are listed in Table 18 to be presented later. Emulsions (401) to (412) were prepared under the same conditions as emulsion (1), except for the grain formation temperature as is shown in Table 9, and were then optimally, chemically sensitized. The samples prepared as described above were used as Sample [A]. Then, samples were prepared by replacing emulsions (401) to (406) with emulsions (407) to (412) listed in Table 9, respectively, and used as Sample [B]. These samples were exposed on the basis of the JIS (Japan Industrial Standard) and then subjected to processing shown in Table 10. Each sample was processed in an amount of 50 m/day for 16 days while replenishing a processing solution. After each processing solution reached a stationary composition in continuous processing, an ISO sensitivity was measured. The compositions of the process solutions (mother and replenishment solutions) are represented as follows: Color Developing Solution (g) Mother Solution Replenishment Solution Water 900 mℓ 900 mℓ Potassium Chloride 1.0 1.0 Potassium Carbonate 34.6 38.0 Sodium Bicarbonate 1.8 2.0 Ethylenediamine-N-N,N,N-tetramethylenephosphonic acid 1.0 1.2 Triethylenediamine-(1,4-diazabicyclo[2,2]-octane 5.3 6.0 Diethylhydroxylamine 4.2 5.5 3-methyl-4-amino-N-ethyl-N-β-hydroxyethylanilinesulfate 4.6 7.5 Potassium hydroxide to make pH 10.05 pH 10.15 Water to make 1.0 ℓ 1.0 ℓ Washing Solution Mother and replenishment solutions are common Ion Exchange Water (obtained by supplying tap water to a mixed-bed column filled with an H type strongly acidic cation exchange resin (DIA ION SK-1B® available from Mitsubishi Chemical Industries Ltd.) and an OH type strongly basic anion exchange resin (DIA ION SA-10A available from Mitsubishi Chemical Industries Ltd.) at a volume ratio of 1 : 15 to set the concentrations of calcium and magnesium to be 3 mg/ℓ or less) 1 ℓ Sodium Dichloroisocyanurate 20 mg Sodium Sulfate 150 mg Polyoxyethylene-p-monononylphenylether (average degree of polymerization: 10) 300 mg pH 6.5 to 7.5 After the processing solution composition reached a running equilibrium by the above processing, samples similar to those subjected to the continuous processing were exposed on the basis of the JIS and then processed by the above processing solution. As a result of calculating the ISO sensitivity of a processed film on the basis of the JIS, Sample [B] had ISO 50 while Sample [A] had ISO 25. Thus, the advantage of the present invention were attained. EXAMPLE 5 The processing in Example 4 was performed following the same procedures as in Example 4, except that the conditions were changed as shown in Table 11 and the processing solution composition was changed as follows. In this case, too, the advantages of the present invention were attained. The compositions of the process solutions (mother and replenishment solutions) are represented as follows: Color Developing Solution (g) Mother Solution Replenishment Solution Water 900 mℓ 900 mℓ Potassium Chloride 2.0 2.0 Potassium Carbonate 34.6 38.0 Sodium Bicarbonate 1.0 1.5 Ethylenediamine-N-N N,N-tetramethylenephosphonic acid 2.0 2.4 Triethylenediamine-(1,4-diazabicyclo[2,2,2]-octane 5.3 6.0 Diethylhydroxylamine 4.2 5.5 3-methyl-4-amino-N-ethyl-N-β-hydroxtethylanilinesulfate 6.0 8.0 Potassium hydroxide to make pH 10.2 pH 10.3 Water to make 1.0 ℓ 1.0 ℓ Washing Solution Mother and replenishment solutions are common Ion Exchange Water (obtained by supplying tap water to a mixed-bed column filled with an H type strongly acidic cation exchange resin (DIA ION SK-1B® available from Mitsubishi Chemical Industries Ltd.) and an OH type strongly basic anion exchange resin (DIA ION SA-10A) available from Mitsubishi Chemical Industries Ltd.) at a volume ratio of 1 : 1.5 to set the concentrations of calcium and magnesium to be 3 mg/ℓ or less) 1 ℓ Sodium Dichloroisocyanurate 20 mg Sodium Sulfate 150 mg Polyoxyethylene-p-monononylphenylether (average degree of polymerization: 10) 300 mg pH 6.5 to 7.5 EXAMPLE 6 The processing in Example 4 was performed following the same procedures as in Example 4 except that the conditions were changed as shown in Table 12 and the processing solution composition was changed as follows. In this case, too, the advantages of the present invention were attained. Color Development 2 min 15 s Bleaching 6 min 30 s Washing 2 min 10 s Fixing 4 min 20 s Washing 3 min 15 s Stabilizing 1 min 05 s Color Developing Solution Diethylenetriaminepentaacetic Acid 1.0 g 1-hydroxyethylidene-1,1-diphosphonic acid 2.0 g Sodium Sulfite 4.0 g Potassium Carbonate 30.0 g Potassium Bromide 1.4 g Hydroxyamine Sulfate 2.4 g 4-(N-ehyl-N-β-hydroxyethylamino)-2-methtlanilinesulfate 4.5 g Water to make 1.0 ℓ pH 10.0 Bleaching Solution Ferric Ammonium Ethylenediaminetetraacetate (Dihydrate) 100.0 g Disodium Ehylenediaminetetraacetate 10.0 g Ammonium Bromide 150.0 g Ammonium Nitrate 10.0 g Water to make 1.0 ℓ pH 6.0 Fixing Solution Disodium Ethylenediaminetetraacetate 1.0 g Sodium Sulfite 4.0 g Ammonium Thiosulfate Aqueous Solution (70%) 175.0 mℓ Sodium Bisulfite 4.6 g Water to make 1.0 ℓ pH 6.6 Stabilizing Solution Formalin (40%) 2.0 mℓ Polyoxyethylene-p-monononylphenylether (average polymerization degree: 10) 0.3 g Water to make 1.0 ℓ

Claims: A silver halide color photographic light-sensitive material comprising a support having thereon at least one silver halide emulsion layer containing a silver halide emulsion of the negative type which comprises silver halide grains chemically sensitized in the presence of at least one of the compounds represented by formulae (I) to (III) Z-SO₂S-M (I) wherein Z represents a substituted or unsubstituted alkyl having from 1 to 18 carbon atoms, substituted or unsubstituted aryl having from 6 to 18 carbon atoms or a heterocyclic group Y represents an atomic group necessary for forming substituted or unsubstituted heterocyclic or aryl having 6 to 18 carbon atoms, M represents a metal cation, an organic cation or a hydrogen atom, and n represents an integer from 2 to 10, said compound represented by formula (I), (II), or (III) being present in an amount of 10⁻² mol or less per mol of the silver halide, said silver halide grains being spectrally sensitized by at least one sensitizing dye and said silver halide emulsion containing 2 mol % or less AgI, characterized in that said silver halide grains consist of at least 95 mol % of silver chloride and said sensitizing dye is represented by one of the formulae (XXa), (XXb) and (XXc) wherein Z₁₁ represents oxygen, sulfur, or selenium; Z₁₂ represents sulfur or selenium; R₁₁ and R₁₂ each represents substituted or unsubstituted alkyl having six carbon atoms or less, or substituted or unsubstituted alkenyl having six carbon atoms or less; at least one of R₁₁ and R₁₂ representing sulfo-substituted alkyl; V₁₁ represents hydrogen, alkyl having four carbon atoms or less, or alkoxy having four carbon atoms or less; V₁₂ represents, alkyl having five carbon atoms or less, alkoxy having four carbon atoms or less, chlorine, hydrogen, substituted or unsubstituted phenyl, or hydroxyl, and V₁₃ represents hydrogen, and V₁₁ and V₁₂, or V₁₂ and V₁₃ can be coupled to form a condensed benzene ring, V₁₄, V₁₅, and V₁₆ have the same meanings as V₁₁, V₁₂, and V₁₃; X⁻₁₁ represents an anion residue of an acid; and m₁₁ represents 0 or 1; wherein Z₂₁ and Z₂₂ which may be the same or different each represent oxygen, sulfur, selenium, or >N-R₂₆; R₂₁ and R₂₂ represent the same meanings as those represented by R₁₁ and R₁₂ of formula (XXa), and also R₂₁ and R₂₄ or R₂₂ and R₂₅ can be coupled to form a 5- or 6-membered carbon ring; R₂₃ represents hydrogen, lower alkyl, or lower phenethyl, and, if two or three R₂₃ are present, these may be the same or different and may be coupled with each other to form a 5- or 6-membered ring; R₂₄ and R₂₅ represent hydrogen; R₂₆ has the same meaning as R₂₁ or R₂₂; V₂₁ represents hydrogen alkyl having five carbon atoms or less, alkoxy having five carbon atoms or less, or chlorine; V₂₂ represents hydrogen, alkyl having five carbon atoms or less, alkoxy having five carbon atoms or less, chlorine, or substituted or unsubstituted phenyl, alkoxycarbonyl having five carbon atoms or less, alkoxy having four carbon atoms or less, acylamino having four carbon atoms or less, chlorine, trifluoromethyl, cyano, or alkylsulfonyl having four carbon atoms or less, and V₂₂ can be coupled to V₂₁ or V₂₃ to form a condensed benzene ring; V₂₃ represents hydrogen; V₂₄ has the same meaning as V₂₁; V₂₅ has the same meaning as V₂₂, and V₂₅ can be coupled to V₂₄ or V₂₆ to form a condensed benzene ring; V₂₆ represents hydrogen; X⁻₂₁ represents an anion residue of an acid; m₂₁ represents 0 or 1; and n₂₁ represents 1, 2 or 3; wherein Z₃₁ represents an atomic group necessary for forming substituted or unsubstituted nuclei of thiazoline, thiazole, benzothiazole, naphthothiazole, selenazoline, selenazole, benzoselenazole, naphthoselenazole, benzimidazole, naphthoimidazole, oxazole, benzoxazole, naphthooxazole, or pyridine; R₃₁ has the same meaning as R₁₁ or R₁₂ of formula (XXa), R₃₂ has the same meaning as R₁₁ or R₁₂ of formula (XXa), and also represents hydrogen, furfuryl, or monocyclic aryl; R₃₃ represents hydrogen, alkyl having five carbon atoms or less, phenethyl, phenyl, 2-carboxyphenyl, and if two or three R₃₃ are present, these may be the same or different and may be coupled with each other to form a 5- or 6-membered ring; Q₃₁ represents oxygen, sulfur, selenium, or >N-R₃₄; R₃₄ represents hydrogen, pyridil, phenyl, substituted phenyl or an aliphatic hydrocarbon group having eight carbon atoms or less which may contain oxygen, sulfur or nitrogen in a carbon chain; k represents 0 or 1; and n₃₁ represents 0, 1, 2 or 3, or said sensitizing dye is The material of claim 1, characterized in that said emulsion comprises silver halide grains which have been gold-sensitized in the presence of at least one of the compounds represented by formula (I) to (III). The material of claim 1, characterized in that said emulsion comprises silver grains which have been gold-plus-sulfur sensitized in the presence of at least one of the compounds represented by formulas (I) to (III). The material of claim 1, containing at least one yellow coupler, at least one magenta coupler, and at least one cyan coupler. The material as in claim 1, comprising at least one blue-sensitive silver halide emulsion layer containing a yellow coupler, at least one green sensitive silver halide emulsion layer containing a magenta coupler, and at least one red-sensitive silver halide emulsion layer containing a cyan coupler. A method of developing a silver halide color photographic light-sensitive material according to any of claims 1 to 5 comprising the steps of color-developing the silver halide color photographic light-sensitive material in the presence of a color coupler; and desilverizing the silver halide color photographic light-sensitive material. The method of claim 6, characterized in that said color coupler is a nondiffusible color coupler contained in the photographic light-sensitive material. The method of claim 6, characterized in that color development is performed using a p-phenylenediamine series color developer. The method of claim 6, characterized in that color development is performed using a color developer containing not more than 1 mg/l iodide ions. The method of claim 6, characterized in that color development is performed using a color developer containing not more than 0,02 mol/l of sulfite ions. The method of claim 6, characterized in that color development is performed in a continuous manner, using a color developer in which the content of bromide ions is maintained at 1.0 x 10⁻² mol/l or less. The method of claim 6, characterized in that bleach-fixing is performed after color development. The method of claim 6, characterized in that processing from color development to drying is completed within 120 s.

Inventors: HASEBE, KAZUNORI, NISHIKAWA, TOSHIHIRO, TAKADA, SHUNJI
Applicants: FUJI PHOTO FILM CO., LTD.
Application year: 1988
Main classification: G03C7
IPC codes: G03C7, G03C1