Abstract: A self-contained photosensitive material comprising: a support; an imaging layer on the support, the imaging layer comprising a developer material and a plurality of photosensitive microcapsules encapsulating a photosensitive composition and a color precursor; and a protective coating on the imaging layer, the protective coating comprising a cured film of a water-soluble or water-dispersible resin, wherein upon image-wise exposing the imaging layer to actinic radiation and rupturing the microcapsules, the color precursor is released from the microcapsules and reacts with the developer material to form a color image is disclosed.

Abstract: A self-contained photosensitive material comprising: a support; an imaging layer on the support, the imaging layer comprising a developer material and a plurality of photosensitive microcapsules encapsulating a photosensitive composition and a color precursor; and a protective coating on the imaging layer, the protective coating comprising a cured film of a water-soluble or water-dispersible resin, wherein upon image-wise exposing the imaging layer to actinic radiation and rupturing the microcapsules, the color precursor is released from the microcapsules and reacts with the developer material to form a color image is disclosed.

Abstract: A method of storing and a kit containing a full color dry image-forming material which does not form a muddy color, even after being stored over a long period of time, is provided by;1) A method of storing and a kit containing a dry image-forming material comprising a support and a layer provided thereon containing microcapsules containing at least a photo-curable compound, a photo initiator and a color precursor in the internal phase. The material contains a color-developer in the layer containing the microcapsule or a layer adjacent thereto and the dry image-forming material is packed together with a humidity-controlling material; or,2) The method of storing and kit as above, wherein the dry image-forming material and a humidity-controlling material are stored with a low moisture-permeable film.

Abstract: A bipolar type ion exchange membrane electrolytic cell has gas-liquid separating chambers which minimizes a pressure fluctuation in compartment frame units, deterioration of ion exchange membranes and a voltage variation in the compartment units.Upper portions of back plates 5, 3a are outwardly bent at a higher position than meshed electrode plates of each of anode and cathode compartment frames to form inversed U-shape portions; U-shaped channel members 10 are respectively placed in and fixed to the inversed U-shape portions so that spaces are formed, as passages 12, in association with the back plates, and areas defined by the inversed U-shape portions and the U-shaped channel members are gas-liquid separating chambers.

Abstract: A monopolar ion exchange membrane electrolytic cell assembly comprising a plurality of unit electrolytic cells connected electritically in parallel to one another, each formed by clamping an anode compartment frame and a cathode compartment frame with an ion exchange membrane interposed therebetween, the anode and cathode compartment frames each having a feeding and discharging system for an electrolyte and a discharging system for generated gas, wherein:(a) an anode is made of a foraminous plate fixed to the anode compartment frame so that it is close to or in contact with the ion exchange membrane, and electricity is supplied to the foraminous plate via power supply rods and/or power supply ribs from a power source located outside the cell,(b) a cathode is made of flexible foraminous metal plate having good conductivity with an electric resistance at 20.degree. C. of not higher than 10 .mu..OMEGA..

Abstract: A monopolar ion exchange membrane electrolytic cell assembly comprising a plurality of unit electrolytic cells connected electritically in parallel to one another, each formed by clamping an anode compartment frame and a cathode compartment frame with an ion exchange membrane interposed therebetween, the anode and cathode compartment frames each having a feeding and discharging system for an electrolyte and a discharging system for generated gas, wherein:(a) an anode is made of a foraminous plate fixed to the anode compartment frame so that it is close to or in contact with the ion exchange membrane, and electricity is supplied to the foraminous plate via power supply rods and/or power supply ribs from a power source located outside the cell,(b) a cathode is made of flexible foraminous metal plate having good conductivity with an electric resistance at 20.degree. C. of not higher than 10 .mu..OMEGA..

Abstract: A filter press type ion exchange membrane electrolytic cell which comprises an anode compartment and a cathode compartment partitioned by a cation exchange membrane and which is useful for obtaining a halogen, hydrogen and an alkali metal hydroxide from an alkali metal halide aqueous solution, or oxygen and hydrogen from an aqueous alkaline solution.