Method for manufacturing conductive pattern forming body
Abstract
A method for manufacturing a conductive pattern capable of forming a highly precise pattern, also capable of forming by using a simple process, and being free from problems such as treatment of waste fluids. The method for manufacturing a conductive pattern forming body includes a process of preparing a pattern forming body substrate including a base material, and a photocatalyst containing layer formed on the base material including a photocatalyst and a binder whose wettability of an energy irradiated part is changed so as a contact angle to a liquid is reduced; a process of forming wettability pattern including a liquid repellent area and a lyophilic area on the photocatalyst containing layer by irradiating the photocatalyst containing layer in a pattern with energy; a metal colloid coating process of adhering a metal colloid only to the lyophilic area of the surface of the photocatalyst containing layer on which the wettability pattern is formed, by coating the metal colloid; and a process of forming a conductive pattern by solidifying the metal colloid adhered to the lyophilic area of the wettability pattern.
Claims
exact text as granted — not AI-modified1 . A method for manufacturing a conductive pattern forming body comprising:
a process of preparing a pattern forming body substrate comprising a base material, and a photocatalyst containing layer formed on the base material comprising a photocatalyst and a binder whose wettability of an energy irradiated part is changed so as a contact angle to a liquid is reduced; a process of forming a wettability pattern comprising a liquid repellent area and a lyophilic area on the photocatalyst containing layer by irradiating the photocatalyst containing layer in a pattern with energy; a metal colloid coating process of adhering a metal colloid only to the lyophilic area of the surface of the photocatalyst containing layer on which the wettability pattern is formed, by coating the metal colloid; and a process of forming a conductive pattern by solidifying the metal colloid adhered to the lyophilic area of the wettability pattern.
2 . The method for manufacturing a conductive pattern forming body according to claim 1 wherein the photocatalyst containing layer contains a decomposable material which is decomposed by an action of the photocatalyst by energy irradiation whereby the wettability of the photocatalyst containing layer can be changed.
3 . The method for manufacturing a conductive pattern forming body according to claim 1 wherein the binder is a layer containing an organopolysiloxane.
4 . The method for manufacturing a conductive pattern forming body according to claim 3 wherein the organopolysiloxane is a polysiloxane containing a fluoroalkyl group.
5 . The method for manufacturing a conductive pattern forming body according to claim 1 wherein, after the conductive pattern forming process, the method further comprises a non-drawn part removing process of removing a non-conductive pattern part on which a conductive pattern part is not formed.
6 . The method for manufacturing a conductive pattern forming body according to claim 1 wherein the metal colloid is a silver colloid or a gold colloid using water as a medium.
7 . The method for manufacturing a conductive pattern forming body according to claim 1 wherein the coating of the metal colloid in the metal colloid coating process is a dip coating method or a spin coating method.
8 . The method for manufacturing a conductive pattern forming body according to claim 1 wherein the coating of the metal colloid in the metal colloid coating process is a nozzle discharging method.
9 . The method for manufacturing a conductive pattern forming body according to claim 8 wherein the nozzle discharging method is an ink jet method.
10 . The method for manufacturing a conductive pattern forming body according to claim 1 wherein the photocatalyst is titanium dioxide (TiO 2 ).
11 . A method for manufacturing a conductive pattern forming body comprising:
a process of preparing a pattern forming body substrate comprising a base material, a photocatalyst treatment layer formed on the base material containing at least a photocatalyst, and a wettability variable layer formed on the photocatalyst treatment layer which is a layer whose wettability of an energy irradiated part is changed so as a contact angle to a liquid is reduced; a process of forming a wettability pattern comprising a liquid repellent area and a lyophilic area on the wettability variable layer by irradiating the wettability variable layer in a pattern with energy; a metal colloid coating process of adhering a metal colloid only to the lyophilic area of the surface of the wettability variable layer on which the wettability pattern is formed, by coating the metal colloid; and a process of forming a conductive pattern by solidifying the metal colloid adhered to the lyophilic area of the wettability pattern.
12 . The method for manufacturing a conductive pattern forming body according to claim 11 wherein the wettability variable layer is a layer containing an organopolysiloxane.
13 . The method for manufacturing a conductive pattern forming body according to claim 12 wherein the organopolysiloxane is a polysiloxane containing a fluoroalkyl group.
14 . The method for manufacturing a conductive pattern forming body according to claim 11 wherein, after the conductive pattern forming process, the method further comprises a non-drawn part removing process of removing a non-conductive pattern part on which a conductive pattern part is not formed.
15 . The method for manufacturing a conductive pattern forming body according to claim 11 wherein the metal colloid is a silver colloid or a gold colloid using water as a medium.
16 . The method for manufacturing a conductive pattern forming body according to claim 11 wherein the coating of the metal colloid in the metal colloid coating process is a dip coating method or a spin coating method.
17 . The method for manufacturing a conductive pattern forming body according to claim 11 wherein the coating of the metal colloid in the metal colloid coating process is a nozzle discharging method.
18 . The method for manufacturing a conductive pattern forming body according to claim 17 wherein the nozzle discharging method is an ink jet method.
19 . The method for manufacturing a conductive pattern forming body according to claim 11 wherein the photocatalyst is titanium dioxide (TiO 2 ).
20 . A method for manufacturing a conductive pattern forming body comprising:
a process of preparing a pattern forming body substrate comprising a base material, a photocatalyst treatment layer formed on the base material containing at least a photocatalyst, and a decomposition removal layer formed on the photocatalyst treatment layer which is decomposed and removed by an action of the photocatalyst by energy irradiation; a process of forming a decomposition removal pattern on the decomposition removal layer by irradiating the decomposition removal layer in a pattern with energy; a metal colloid coating process of adhering a metal colloid in a pattern to the surface of the decomposition removal layer on which the decomposition removal pattern is formed, by coating the metal colloid; and a process of forming conductive pattern by solidifying the metal colloid adhered in a pattern.
21 . The method for manufacturing a conductive pattern forming body according to claim 20 wherein a contact angle of a liquid to the decomposition removal layer is different from the contact angle of a liquid to the photocatalyst treatment layer bared by the decomposition of the decomposition removal layer.
22 . The method for manufacturing a conductive pattern forming body according to claim 20 wherein the decomposition removal layer is anyone of a self-assembled monolayer, a Langmuir Blodgett film and a layer-by-layer self-assembled film.
23 . The method for manufacturing a conductive pattern forming body according to claim 20 wherein, after the conductive pattern forming process, the method further comprises a non-drawn part removing process of removing a non-conductive pattern part on which a conductive pattern part is not formed.
24 . The method for manufacturing a conductive pattern forming body according to claim 20 wherein the metal colloid is a silver colloid or a gold colloid using water as a medium.
25 . The method for manufacturing a conductive pattern forming body according to claim 20 wherein the coating of the metal colloid in the metal colloid coating process is a dip coating method or a spin coating method.
26 . The method for manufacturing a conductive pattern forming body according to claim 20 wherein the coating of the metal colloid in the metal colloid coating process is a nozzle discharging method.
27 . The method for manufacturing a conductive pattern forming body according to claim 26 wherein the nozzle discharging method is an ink jet method.
28 . The method for manufacturing a conductive pattern forming body according to claim 20 wherein the photocatalyst is titanium dioxide (TiO 2 ).
29 . A conductive pattern forming body comprising: a base material; a photocatalyst containing layer which is a layer formed on the base material whose wettability of an energy irradiated part is changed so as a contact angle to a liquid is reduced, and contains at least a photocatalyst and a binder; and a metal composition formed on the photocatalyst containing layer by solidifying a metal colloid in a pattern.
30 . The conductive pattern forming body according to claim 29 wherein the photocatalyst containing layer contains a decomposable material which is decomposed by an action of the photocatalyst by energy irradiation and a wettability of the photocatalyst containing layer can be changed by this.
31 . A conductive pattern forming body comprising: a base material; a photocatalyst containing layer which is a layer formed on the base material in a pattern whose wettability of an energy irradiated part is changed so as a contact angle to a liquid is reduced, and contains at least a photocatalyst and a binder; and a metal composition formed on the photocatalyst containing layer by solidifying a metal colloid.
32 . The conductive pattern forming body according to claim 31 wherein the photocatalyst containing layer contains a decomposable material which is decomposed by an action of the photocatalyst by energy irradiation and a wettability of the photocatalyst containing layer can be changed by this.
33 . A conductive pattern forming body comprising: a base material; a photocatalyst treatment layer contains at least a photocatalyst, on the base material; a wettability variable layer whose wettability of an energy irradiated part is changed so as a contact angle to a liquid is reduced, on the photocatalyst treatment layer; and a metal composition formed on the wettability variable layer by solidifying a metal colloid in a pattern.
34 . A conductive pattern forming body comprising: a base material; a photocatalyst treatment layer contains at least a photocatalyst, on the base material; a wettability variable layer whose wettability of an energy irradiated part is changed so as a contact angle to a liquid is reduced, formed in a pattern on the photocatalyst treatment layer; and a metal composition formed on the wettability variable layer by solidifying a metal colloid.
35 . A conductive pattern forming body comprising: a base material; a photocatalyst treatment layer contains at least a photocatalyst, formed in a pattern on the base material; a wettability variable layer whose wettability of an energy irradiated part is changed so as a contact angle to a liquid is reduced, formed on the photocatalyst treatment layer; and a metal composition formed on the wettability variable layer by solidifying a metal colloid.
36 . A conductive pattern forming body comprising: a base material; a photocatalyst treatment layer contains at least a photocatalyst, on the base material; a decomposition removal layer which is a layer decomposed and removed by an action of the photocatalyst when energy is irradiated, on the photocatalyst treatment layer; and a metal composition formed on the photocatalyst treatment layer which is the decomposition removal layer is decomposed and removed, by solidifying a metal colloid in a pattern.
37 . The conductive pattern forming body according to claim 36 wherein the decomposition removal layer is any one of a self-assembled monolayer, a Langmuir Blodgett film, and a layer-by-layer self-assembled film.
38 . A conductive pattern forming body comprising: a wettability variable layer whose wettability is changed by an action of a photocatalyst; and a metal composition formed on the wettability variable layer by solidifying a metal colloid in a pattern.
39 . The conductive pattern forming body according to claim 38 wherein the wettability variable layer is formed on a base material.
40 . The method for manufacturing a conductive pattern forming body according to claim 38 wherein the wettability variable layer is a layer containing an organopolysiloxane.
41 . The conductive pattern forming body according to claim 40 wherein the organopolysiloxane is a polysiloxane containing a fluoroalkyl group.
42 . A conductive pattern forming body comprising: a base material; a decomposition removal layer on the base material which is decomposed and removed by an action of a photocatalyst; and a metal composition formed on the base material which is bared by the decomposition and removal of the decomposition removal layer, by solidifying a metal colloid in a pattern.
43 . The conductive pattern forming body according to claim 42 wherein a contact angle of the decomposition removal layer to a liquid is different from a contact angle of the base material, which is bared by the decomposition of the decomposition removal layer, to a liquid.
44 . The conductive pattern forming body according to claim 42 wherein the decomposition removal layer is any one of a self-assembled monolayer, a Langmuir Blodgett film and a layer-by-layer self-assembled film.
45 . A conductive pattern forming body comprising: a base material; a wettability variable layer formed in a pattern on the base material whose wettability is changed by an action of a photocatalyst; and a metal composition formed on the wettability variable layer, by solidifying a metal colloid.Join the waitlist — get patent alerts
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