Sol-gel Technologies Ltd.

Highcon Systems Ltd.

Ujett D.p. Ltd

Orbotech Limited

Cima Nanotech Israel Ltd.

Flo Optics Ltd

Claudio Rottman

Noa Lapidot

Shlomo Magdassi

David Avnir

Alon Seri-Levy

Orit Gans

Fernando De La Vega

Michael Karp

Oleg Naigertsik

Yinon Masad

Merav Blanca

Ron Or

Natalia Zlotnikov

Michael Zenou

Zvi Kotler

Arkady Garbar

David Ben-David

Michael Zimmer

Marc Altman

Yoram Sorek

Eli Ireni

Sorel Rothschild

Jon Brodd

Michael Zanou

Orit Ben Zazon

Optical devices having multi-functional coatings.

Coated optical substrates having functional dots containing photochromic colorant

A die and counter die system for impressing a relief pattern onto a substrate, including a male die film and at least one female die. The female die includes a female-die contact surface including at least one cavity defining the relief pattern. The male die film includes a flexible male-die contact surface which is featureless in a region thereof opposing the relief pattern on the at least one female die. The system further includes a compression mechanism adapted, when the substrate is disposed between the male die contact surface and the female die contact surface, to move the male die film and the at least one female die towards one another so as to impress the relief pattern on the substrate.

System for creating a relief pattern on a substrate

A die and counter die system for impressing a relief pattern onto a substrate, including at least one male die including a contact surface and defining a relief pattern, a compressible counter film including a base layer, a contact layer disposed opposite the contact surface of the at least one male die and spaced therefrom, and a compressible layer disposed between the base layer and the contact layer and attached thereto. The contact layer is featureless in a region thereof opposing the relief pattern on the at least one male die. The compressible counter film has a compressibility, in a direction perpendicular to a broad face of the compressible counter film, in the range of 5-30% at 1.35 MPa. The system further includes a compression mechanism adapted to move the at least one male die and the compressible counter film towards one another in an operative mode.

System for impressing a relief pattern on a substrate

Die and counter-die systems, polymeric rule dies for such systems, and polymeric formulations suitable for producing such rule dies using digital rule writing. There is provided a rule die for pressure-contacting of a cardboard workpiece surface, including: (a) a die body; and (b) at least one elongate polymeric rule, each rule having: (i) a first elongate base surface adhesively attached to a surface of the die body; and (ii) an elongate protrusion, distally protruding from the die body, the elongate protrusion having an elongate die surface, the elongate die surface including a polymeric material, the elongate die surface having a contact surface adapted to contact the workpiece surface; the contact surface having a length of at least 5 mm and a first width (W) within a range of 0.4 to 1.0 mm, the rule having a height (H) within a range of 1.0 to 4.5 mm; wherein, over a total length of the contact surface, the contact surface having at most 5 surface pocks/meter, the pocks having a diameter above 0.1 mm.

Polymeric rule die, and formulations therefor

Ophthalmic substrates having surface with functional dots containing first and second photochromic colorants

Embodiments of the present invention relate to a system and method for manufacturing a three-dimensional object from a stack of pre-stripped layers of substrate. Each object layer is formed by (i) providing substrate comprising waste portion(s) and substrate-retained portion(s) that are attached to each other and separated from one another by cut(s) within the substrate; (ii) subsequently, subjecting the subject of each layer to a stripping process which selectively strips away substrate-waste portion(s) from the substrate-retained portion(s). After stripping, the object layer is added to a stack of previously-stacked object layers to grow the stack. This process is repeated to further grow the stack. Object layers of the stack are bonded to each other to build the three-dimensional object therefrom. Apparatus and methods for stripping are also described&#x2014;any teaching or combination of teaching(s) related to stripping substrate may be employed in any additive-manufacturing process described herein.

Method and apparatus for building a 3D object from layers of pre-stripped substrate

Optical device with an optical substrate and a multi-functional layer fixed thereon, the layer including plural multi-functional areas, each said area including a first group and a second group of functional dots and disposed within a certain rectangular area, the first group having a first composition and a first functionality, the first functionality selected from an anti-reflectance, anti-scratch, anti-fog, ultraviolet absorber, and photochromic functionality; the second group having a second composition and a second functionality, the second functionality selected from the same group as above, the second group differs with respect to the first functionality, or with respect to the first composition, or wherein within at least one multi-functional area, the first group has a height H1, the second group has a height H2, where H2&#x3e;k*H1, with k being at least 1.05.

Coated optical substrates having first and second groups of functional dots having different functionalities and micrometer height difference

A method for manufacturing includes coating a substrate () with a matrix () containing a material to be patterned on the substrate. A pattern () is fixed in the matrix by directing an energy beam to impinge on the coated substrate so as to fix the pattern in the matrix without fully sintering the pattern. The matrix remaining on the substrate outside the fixed pattern is removed, and after removing the matrix, the material in the pattern is sintered.

Two-step, direct-write laser metallization

Substantially leachless, agent-encapsulating sol-gel particles, methods of preparing same and products containing same are provided.

Agent-encapsulating micro-and nanoparticles, methods for preparation of same and products containing same

The invention relates to microcapsules having a core material encapsulated within a microcapsular shell, the core material comprises at least one active ingredient, wherein the microcapsular shell comprises at least one inorganic polymer comprising polymerized precursors obtained by in-situ polymerization of the precursors; wherein the concentration of the core material based total weight of the microcapsules is above 95% w/w. The invention further relates to a composition and to a suspension comprising the microcapsules. The invention additionally relates to a process for preparing the microcapsules.

Microcapsules loaded with active ingredients and a method for their preparation

Transparent conductive coated devices (films, three dimensional objects and others) produced through coating with a nano metal containing emulsion which forms a conductive pattern with enhanced electrical, optical and other properties.

Enhanced transparent conductive coatings and methods for making them

A therapeutic, cosmetic or cosmeceutic composition for topical application, capable of stabilizing an active ingredient and delivering the active ingredient, comprising a plurality of microcapsules having a core-shell structure. The microcapsules have a diameter of approximately 0.1 to 100 micron. The core of each microcapsule includes at least one active ingredient, and is encapsulated within a microcapsular shell. The shell is comprised of at least one inorganic polymer obtained by a sol-gel process, and the shell protects the active ingredient before topical application and is designed to release the active ingredient from the microcapsules following application. The composition is useful in encapsulating active ingredients, such as benzoyl peroxide, that are unstable in other formulation, or are irritating to the skin.

Composition exhibiting enhanced formulation stability and delivery of topical active ingredients

Agent-encapsulating micro- and nanoparticles, methods for preparation of same and products containing same

A therapeutic, cosmetic or cosmeceutic composition for topical application, capable of stabilizing an active ingredient and delivering the active ingredient, comprising a plurality of microcapsules having a core-shell structure. The microcapsules have a diameter of approximately 0.1 to 100 micron. The core of each microcapsule includes at least one active ingredient and is encapsulated within a microcapsular shell. The shell is comprised of at least one inorganic polymer obtained by a sol-gel process, and the shell protects the active ingredient before topical application and is designed to release the active ingredient from the microcapsules following application. The composition is useful in encapsulating active ingredients, such as benzoyl peroxide, that are unstable in other formulation, or are irritating to the skin.

Growing community of inventors

Modiin, Israel

Claudio Rottman