Abstract:
(Problem) Providing an ink composition, particularly an ink composition for use in inkjet recording, which can form an image with good adhesion and high quality and which is excellent in storage stability, and an inkjet recording method and a printed matter using it, as well as a lithographic plate which can record an image with no blot, high sensitivity and high adhesion to a recording medium and a method for making such plate. (Solving Means) The foregoing problem may be achieved by an ink composition comprising: (a) A cationically polymerizable compound; (b) a compound generating an acid by irradiation of radiant ray; and (c) plasticizer, particularly at least one ester compound selected from the group consisting of phosphate ester, dicarboxylic acid ester and tricarboxylic acid ester.
Abstract:
An ink composition comprising: a cationic polymerizable compound (a); a compound (b) which generates an acid by irradiation of radiation; and any one of a polyfunctional amine compound (c1) having at least two basic nitrogen atoms, wherein two of the basic nitrogen atoms can be coordinated with and hydrogen ions, a compound (c2A) having a basic nitrogen atom and a conjugate acid exhibiting a pKa value of 3 to 10, a compound (c2B) having a basic nitrogen atom and a conjugate acid exhibiting a pKa value of 10 or more, a hindered amine compound (c3) having a basic nitrogen atom, wherein the nitrogen atom is substituted with at least two tertiary alkyl groups, and a compound (c4) having a basic nitrogen atom and an ether linkage in the molecule, and an inkjet recording method, a printed material, a planographic printing plate, and a method of producing a planographic printing plate, using the ink composition.
Abstract:
An ink composition is provided that includes a cationically polymerizable compound (a), a compound (b) that generates an acid when exposed to radiation, and a compound (c) that generates a compound having a basic nitrogen atom when exposed to radiation. There is also provided an inkjet recording method that includes a step of discharging the ink composition onto a recording medium, and a step of irradiating the discharged ink composition with radiation so as to cure the ink composition.
Abstract:
An ink composition is provided that includes a cationically polymerizable compound (a), a compound (b) that generates an acid when exposed to radiation, and a compound (c) that generates a compound having a basic nitrogen atom when exposed to radiation. There is also provided an inkjet recording method that includes a step of discharging the ink composition onto a recording medium, and a step of irradiating the discharged ink composition with radiation so as to cure the ink composition.
Abstract:
An infrared sensitive composition comprises an alkali-soluble resin having a phenolic hydroxy group, light-heat converting substances and a leuco-hydroxy dye. An independent claim is also included for a lithographic printing plate precursor comprising a support and an image-forming layer which comprises the infrared sensitive composition.
Abstract:
An electrically conductive composition, containing an electrically conductive polymer, and an onium salt compound as a dopant to the electrically conductive polymer, an electrically conductive film formed by shaping the composition and a method of producing the electrically conductive film.
Abstract:
Disclosed are: a conductive composition containing (A) carbon nanotubes, (B) a conductive polymer, and (C) an onium salt compound; a conductive film using the composition; and a method for manufacturing the conductive film.
Abstract:
A thermoelectric conversion material containing an electrically conductive polymer and a thermal excitation assist agent, wherein the thermal excitation assist agent is a compound that does not form a doping level in the electrically conductive polymer, an energy level of LUMO (lowest unoccupied molecular orbital) of the thermal excitation assist agent and an energy level of HOMO (highest occupied molecular orbital) of the electrically conductive polymer satisfy following numerical expression (I): Numerical expression (I); 0.1 �¢ eV ‰¤ HOMO of an electrically conductive polymer - LUMO of a thermal excitation assistant agent ‰¤ 1.9 eV wherein, in numerical expression (I), |HOMO of an electrically conductive polymer| represents an absolute value of an energy level of HOMO of the electrically conductive polymer, and |LUMO of a thermal excitation assist agent| represents an absolute value of an energy level of LUMO of the thermal excitation assist agent, respectively.