A method of covalently bonding a modifier to a polymeric microcapsule wall, which wall comprises entities capable of reaction with acrylic moieties, comprising the provision on the wall of a linking compound to which the modifier is subsequently attached, the linking compound having the Formula I

##STR00001##

in which

n=1 to 30; R.sub.1, R.sub.2 and R.sub.3 are independently selected from the following moieties:

R.sub.1 and R.sub.3 are H and Me; and

X is selected from O and NH; and

R.sub.2 is selected from CH.sub.2, CH.sub.2CH(OH)CH.sub.2, and CH.sub.2,CH.sub.2.

Microcapsuies thus modified exhibit enhanced substantivity to substrates such as textiles when used in laundry preparations.

A method of covalently bonding a modifier to a polymeric microcapsule wall, which wall comprises entities capable of reaction with acrylic moieties, comprising the provision on the wall of a linking compound to which the modifier is subsequently attached, the linking compound having the Formula I

##STR00001##

in which

n=1 to 30; R.sub.1, R.sub.2 and R.sub.3 are independently selected from the following moieties:

R.sub.1 and R.sub.3 are H and Me; and

X is selected from O and NH; and

R.sub.2 is selected from CH.sub.2, CH.sub.2CH(OH)CH.sub.2, and CH.sub.2,CH.sub.2.

Microcapsuies thus modified exhibit enhanced substantivity to substrates such as textiles when used in laundry preparations.

The present invention relates to nanocapsules, nanocapsule substrate mixtures and processes of making and using same. Such nanocapsule substrate mixtures can provide biological articles such as teeth, bones, and tissues as well as nonbiological articles such as ceramics and polymers, with self-healing capabilities and/or antimicrobial properties. Applicants' nanocapsules allow for a high packing density as well as good mechanical and physical properties that provide the desired performance in each desired application.

The present invention relates to nanocapsules, nanocapsule substrate mixtures and processes of making and using same. Such nanocapsule substrate mixtures can provide biological articles such as teeth, bones, and tissues as well as nonbiological articles such as ceramics and polymers, with self-healing capabilities and/or antimicrobial properties. Applicants' nanocapsules allow for a high packing density as well as good mechanical and physical properties that provide the desired performance in each desired application.

Described herein is a delivery system including a carrier and a perfume formulation, where the perfume formulation includes 0 to 60 wt. % of a hydrophobic solvent, 40 to 100 wt. % of a perfume oil, where the perfume oil has at least two of the following characteristics: at least 35% of perfuming ingredients having a log P above 3, at least 20% of Bulky materials of Groups 1 to 6 and at least 15% of high impact perfume materials having a Log T<−4, where the perfume formulation is entrapped in the carrier. Also described herein are perfuming compositions and perfumed consumer products including the delivery system.

Provided are hydrocolloid core-shell capsules including a liquid core including a non-crosslinked alginate solution and a solid or semi-solid shell including a hydrocolloid other than alginate crosslinked with metal ions, which do not crosslink alginate. Further provided is a method for the preparation of the liquid-core capsules including non-crosslinked alginate. The subject matter further provides the use of the capsules, inter alia, in the water treatment technology.

Provided are hydrocolloid core-shell capsules including a liquid core including a non-crosslinked alginate solution and a solid or semi-solid shell including a hydrocolloid other than alginate crosslinked with metal ions, which do not crosslink alginate. Further provided is a method for the preparation of the liquid-core capsules including non-crosslinked alginate. The subject matter further provides the use of the capsules, inter alia, in the water treatment technology.

To provide a quantum dot and manufacturing method of the dot particularly capable of reducing organic residues adhering to the quantum dot surface and of suppressing the black discoloration occurrence of a layer including the quantum dot positioned immediately above a light emitting device, and a compact, sheet member, wavelength conversion member and light emitting apparatus with high luminous efficiency using the quantum dot, a quantum dot of the present invention has a core portion including a semiconductor particle, and a shell portion with which the surface of the core portion is coated, and is characterized in that a weight reduction up to 490° C. is within 75% in a TG-DTA profile. Further, the quantum dot of the invention is characterized in that oleylamine (OLA) is not observed in GC-MS qualitative analysis at 350° C.

Fabrication of functional polymer-based particles by crosslinking UV-curable polymer drops in mid-air and collecting crosslinked particles in a solid container, a liquid suspension, or an air flow. The particles can contain different phases in the form or layered structures that contain one to multiple cores, or structures that are blended with dissolved or emulsified smaller domains. A curing system produces ultraviolet rays that are directed onto the particles in the jet stream from one side. A reflector positioned on other side of the jet stream reflects the ultraviolet rays back onto the particles in the jet stream.

Provided are hollow particles which are more excellent in heat resistance and dispersibility than ever before and which are lightweight. The hollow particles containing hollow resin particles having a surface covered with inorganic fine particles, wherein a volume average particle diameter of the hollow particles is from 0.1 μm to 9.0 μm, and a void ratio thereof is from 55% to 95%; wherein a repeating unit constituting the resin of the hollow resin particles contains a crosslinkable monomer unit, and a content of the crosslinkable monomer unit is from 25 to 100 parts by mass, with respect to 100 parts by mass of the resin; wherein a primary particle diameter of the inorganic fine particles is from 10 nm to 120 nm; and wherein the inorganic fine particles are contained at from 5 to 180 parts by mass, with respect to 100 parts by mass of the hollow resin particles.