C09D11/101

Infrared absorbing fine particle dispersed powder, dispersion liquid containing infrared absorbing fine particle dispersed powder, ink containing infrared absorbing fine particle dispersed powder, and anti-counterfeit ink, and anti-counterfeit printed matter

An infrared absorbing fine particle dispersed powder, dispersion liquid containing infrared absorbing fine particle dispersed powder, ink containing infrared absorbing fine particle dispersed powder, and anti-counterfeit ink and anti-counterfeit printed matter, which are transparent in a visible light region, have excellent infrared absorption properties, and are also excellent in chemical resistance, and an infrared absorbing fine particle dispersed powder containing particles made of solid media and having an average particle size of 1 μm or more and having infrared absorbing fine particles dispersed inside.

Infrared absorbing fine particle dispersed powder, dispersion liquid containing infrared absorbing fine particle dispersed powder, ink containing infrared absorbing fine particle dispersed powder, and anti-counterfeit ink, and anti-counterfeit printed matter

An infrared absorbing fine particle dispersed powder, dispersion liquid containing infrared absorbing fine particle dispersed powder, ink containing infrared absorbing fine particle dispersed powder, and anti-counterfeit ink and anti-counterfeit printed matter, which are transparent in a visible light region, have excellent infrared absorption properties, and are also excellent in chemical resistance, and an infrared absorbing fine particle dispersed powder containing particles made of solid media and having an average particle size of 1 μm or more and having infrared absorbing fine particles dispersed inside.

Silicone 3D printing ink

An additive manufacturing ink composition includes a polysiloxane bearing a plurality of alkenyl groups and a crosslinking agent bearing a plurality of thiol groups. The polysiloxane and the crosslinking agent form an emulsion.

Silicone 3D printing ink

An additive manufacturing ink composition includes a polysiloxane bearing a plurality of alkenyl groups and a crosslinking agent bearing a plurality of thiol groups. The polysiloxane and the crosslinking agent form an emulsion.

PHOTO-CURABLE ELASTIC INK COMPOSITION FOR THREE-DIMENSIONAL PRINTING
20210340393 · 2021-11-04 ·

The present disclosure provides a photo-curable elastic ink composition for three-dimensional printing and the preparation method. The ink composition includes approximately 10%-75% of a soft monomer, approximately 10%-75% of a hard monomer, approximately 5%-20% of a cross-linking agent, approximately 5%-20% of a non-reactive soft resin, approximately 0.5%-10% of a photo-initiator, approximately 0%-0.5% of a colorant, and approximately 0.05%-8% of an auxiliary agent. The soft monomer is capable of generating a homopolymer with a glass transition temperature lower than about 25° C. The hard monomer is capable of generating a homopolymer with a glass transition temperature of about 25° C. or higher. The non-reactive soft resin is a resin without containing any radiation curable group in the molecular structure and having a glass transition temperature less than 0° C.

PHOTO-CURABLE ELASTIC INK COMPOSITION FOR THREE-DIMENSIONAL PRINTING
20210340393 · 2021-11-04 ·

The present disclosure provides a photo-curable elastic ink composition for three-dimensional printing and the preparation method. The ink composition includes approximately 10%-75% of a soft monomer, approximately 10%-75% of a hard monomer, approximately 5%-20% of a cross-linking agent, approximately 5%-20% of a non-reactive soft resin, approximately 0.5%-10% of a photo-initiator, approximately 0%-0.5% of a colorant, and approximately 0.05%-8% of an auxiliary agent. The soft monomer is capable of generating a homopolymer with a glass transition temperature lower than about 25° C. The hard monomer is capable of generating a homopolymer with a glass transition temperature of about 25° C. or higher. The non-reactive soft resin is a resin without containing any radiation curable group in the molecular structure and having a glass transition temperature less than 0° C.

BIOCOMPATIBLE INK
20210340390 · 2021-11-04 ·

Biocompatible ink formulations are described herein. In one example, a biocompatible ink formulation includes an ink base and a biocompatible component that, when mixed with the ink base to form the biocompatible ink formulation and subject to curing via ultraviolet light, causes the biocompatible ink formulation to be white.

Laminate ink

The invention relates to a multi-stage curing ink comprising compounds for forming at least one organic matrix, which is cured via radical polymerisation and which curing can be initiated by radiation, and comprising alkoxysilane in a quantity of 10 to 60 wt. %, preferably 20 to 50 wt. %, in relation to the total formulation, in order to form at least one inorganic matrix, which is cured via non-radical polymerisation and which curing can be initiated thermally, the ink also including a structure-reinforcing polymer having a number average molecular mass (Mn) of greater than 3000 g/mol, preferably greater than 10,000 g/mol, and particularly preferably greater than 30,000 g/mol, and the viscosity of the ink at 50° C. is in the region of 6 to 15 mPa.Math.s, particularly preferably in the region of 9 to 11 mPa.Math.s, measured with a Brookfield rheometer using a UL adapter with a rotational speed of 50 rotations per minute.

Laminate ink

The invention relates to a multi-stage curing ink comprising compounds for forming at least one organic matrix, which is cured via radical polymerisation and which curing can be initiated by radiation, and comprising alkoxysilane in a quantity of 10 to 60 wt. %, preferably 20 to 50 wt. %, in relation to the total formulation, in order to form at least one inorganic matrix, which is cured via non-radical polymerisation and which curing can be initiated thermally, the ink also including a structure-reinforcing polymer having a number average molecular mass (Mn) of greater than 3000 g/mol, preferably greater than 10,000 g/mol, and particularly preferably greater than 30,000 g/mol, and the viscosity of the ink at 50° C. is in the region of 6 to 15 mPa.Math.s, particularly preferably in the region of 9 to 11 mPa.Math.s, measured with a Brookfield rheometer using a UL adapter with a rotational speed of 50 rotations per minute.

Lithographic ink

Provided is a lithographic ink having superior surface staining resistance and fluidity. Also provided is a method for manufacturing a printed material using the lithographic ink. The lithographic ink has all of a viscosity (A) at a rotational speed of 0.5 rpm, a viscosity (B) at a rotational speed of 20 rpm, and a viscosity (C) at a rotational speed of 50 rpm of 5 Pa.Math.s or more and 100 Pa.Math.s or less, the viscosities (A), (B), and (C) being measured by using a cone-plate rotating viscometer at 25° C., and has a viscosity ratio (C)/(B) of 0.8 or more and 1.0 or less.