Abstract: This invention provides a systems and methods for single cell microencapsulation by eco-friendly oil-in-water (o/w) Pickering emulsion.

Abstract: Provided herein is a composition comprising a Pickering emulsion comprising a plurality of core-shell particles encapsulating a microbial cell and/or a spore thereof. Furthermore, a method for controlling a pest on or within a plant or at the area under cultivation is provided.

Abstract: A composition comprising modified multifunctional inorganic particles is provided. An article or composite comprising a thermoplastic polymer or a plurality of immiscible polymers and the modified particles homogenously distributed therewithin is provided. Further, a method for preparing the composites is provided.

Abstract: A composition comprising an emulsion comprising a plurality of core-shell particles is provided. Furthermore, an insecticidal composition and use thereof so as to prevent or arrest growth of an insect or aphid is also provided. Further, a method for preventing or inhibiting growth of an insect or aphid on a plant or within the area under cultivation is provided.

Abstract: A composition comprising an emulsion comprising a plurality of particles is provided. An article comprising a substrate, and a plurality of particles comprising a core and a shell, wherein the plurality of particles are in the form of a coating layer on the substrate is provided. Further, a method for coating a substrate is provided.

Abstract: Cannabinoidal compositions for the treatment of disease are provided. Accordingly, there is provided a method of treating a disease that can benefit from activating macrophages comprising administering to the subject a therapeutically effective amount of a composition comprising a cannabis derived fraction comprising phytocannabinoids, wherein said phytocannabinoids comprise at least 80% CBD and at least one of CBG and THCV. Also provided is a method of treating a cytokine storm comprising administering to the subject a therapeutically effective amount of a synthetic composition comprising phytocannabinoids, wherein said phytocannabinoids comprise at least 80% CBD and at least one of CBG and THCV.

Abstract: A particle comprising a shell comprising an immunogenic nanoparticle bound to at least one epitope and in contact with the shell, is provided. An emulsion comprising a plurality of said particles is also provided, such as for vaccinating a subject in need thereof.

Abstract: A composition comprising an emulsion comprising a plurality of particles is provided. An article comprising a substrate, and a plurality of particles comprising a core and a shell, wherein the plurality of particles are in the form of a coating layer on the substrate is provided. Further, a method for coating a substrate, and a method for preparing the composition are provided.

Abstract: This invention provides a method for creating a large-scale of amphiphilic particles. The method includes: adding nanoparticles into a polycarbonate-based solution, adding a surfactant into the solution while performing ultra-sonication to generate polymer precipitation, creating at least one microsphere with the nanoparticles embedded onto it, subjecting the exposed hemisphere of the embedded nanoparticles to a further amphiphilic particles related modification, and dissolving the at least one microsphere in a polycarbonate-based solution in order to free said embedded nanoparticles from the at least one microsphere.

Abstract: A method for forming colloidosomes with a shell comprising carbon particles and inorganic nano-particles, are provided. Further, compositions emulsions and articles comprising the colloidosomes are provided.

Abstract: This invention provides a systems and methods for single cell microencapsulation by eco-friendly oil-in-water (o/w) Pickering emulsion.

Abstract: This invention provides a method for creating a large-scale of amphiphilic particles. The method includes: adding nanoparticles into a polycarbonate-based solution, adding a surfactant into the solution while performing ultra-sonication to generate polymer precipitation, creating at least one microsphere with the nanoparticles embedded onto it, subjecting the exposed hemisphere of the embedded nanoparticles to a further amphiphilic particles related modification, and dissolving the at least one microsphere in a polycarbonate-based solution in order to free said embedded nanoparticles from the at least one microsphere.

Abstract: An opaque adhesive can be used to secure the convex surface of a lens blank to a lens blocking piece. This opaque adhesive can include a resin that is curable under ultraviolet light and contains many dispersed pigment particles. The pigment particles may absorb light in the wavelength range of about 300 nm to about 800 nm such that the adhesive appears substantially opaque. A lens-on-block (LOB) system that uses the opaque adhesive to adhere a lens blank to a lens blocking piece facilitates on-block inspection of surface defects by increasing the contrast of light reflected from the surface being inspected. Put differently, the defects in the lens blank's surfaces stand out more when viewed in front of the opaque adhesive The inspection results can be used to carry out rework loops that eliminate or correct the detected defects, providing a streamlined method for on-block manufacturing of ophthalmic lenses.

Abstract: An opaque adhesive can be used to secure the convex surface of a lens blank to a lens blocking piece. This opaque adhesive can include a resin that is curable under ultraviolet light and contains many dispersed pigment particles. The pigment particles may absorb light in the wavelength range of about 300 nm to about 800 nm such that the adhesive appears substantially opaque. A lens-on-block (LOB) system that uses the opaque adhesive to adhere a lens blank to a lens blocking piece facilitates on-block inspection of surface defects by increasing the contrast of light reflected from the surface being inspected. Put differently, the defects in the lens blank's surfaces stand out more when viewed in front of the opaque adhesive The inspection results can be used to carry out rework loops that eliminate or correct the detected defects, providing a streamlined method for on-block manufacturing of ophthalmic lenses.

Abstract: A blocked lens assembly suitable for on-block processing and cleaning includes a blocked lens and a sealing member disposed on at least a portion of an edge and/or surface defined by the blocked lens. The blocked lens further includes a lens blank having a front surface and a back surface, a lens blocking piece to hold the lens blank while processing the back surface of the lens blank, and an adhesive layer, disposed between the front surface of the lens blank and the lens blocking piece, to affix the lens blank to the lens blocking piece.