Aligena Ag

Ben-Gurion University of the Negev Research and Development Authority

Botanocap Ltd.

Membrane Products Kiryat Weizmann Ltd.

Research Products Rehovot Ltd.

Membrane Products Kiryat Weitzman Ltd.

Other

Lauren Sciences LLC

Etv Energy Ltd.

Crosswinds, Inc.

Membrane Products Kiryat Weizman Ltd.

Membrane Products Kiryat Weisman, Ltd.

Charles Linder

Mordechai Perry

Mara Nemas

Reuven Kotraro

Reuven Ketraro

Reuven Katraro

Gershon Aviv

Eliahu Heldman

Arie Markus

Sarina Grinberg

Ora Kedem

Pnina Strongin

Yoram Oren

Viatcheslav Freger

Victoria Kolot

Michael W Saunders

Shalom Luski

Arieh Meitav

Rami Messalem

Eliyahu Korin

Amnon Kritzman

David Schuster

Mordechay Perry

Ofer Levi

Jacob Zabicky

Zeev Wiesman

Eleonora Shaubi

Sophia Belfer

Rosalia Fainstein

Luba Kesselman

Mara Nemes

Ze'ev Wiesman

Henia Yacubowicz

Jack Gilron

Bolaamphiphilic compounds are provided according to formula I:HG-L-HG&#x2003;&#x2003; Iwhere HG, HGand Lare as defined herein. Provided bolaamphiphilic compounds and the pharmaceutical compositions thereof are useful for delivering HIV active drugs into animal or human brain.

Bolaamphiphilic compounds, compositions and uses thereof

A method of characterizing chemical and/or morphological features of a material, comprising acquiring energy relaxation data from 1H low field nuclear magnetic resonance (H LF-NMR) measurements of said material, converting the relaxation signals into a multidimensional distribution of longitudinal and transverse relaxation times by solving an inverse problem under both Land Lregularizations and further imposing a non-negativity constraint, and identifying one or more characteristics of said material with the aid of said multidimensional T1-T2 distribution. The method is useful, inter alia, in monitoring chemical processes, screening of additives and quality control.

Generation of nuclear magnetic resonance multidimensional T1(spin-matrix)-T2(spin-spin) energy relaxation maps and uses thereof

Nano-sized particles are provided comprising at least one multi-headed amphiphilic compound, in which at least one headgroup of said multi-headed amphiphilic compound is selectively cleavable or contains a selectively cleavable group, and at least one biologically active agent, which is both encapsulated within the nano-particle and non-covalently associated thereto.

Nano-sized particles comprising multi-headed amphiphiles for targeted drug delivery

Method for the preparation of microencapsulated essential oils or a formulation thereof for various non-agricultural applications.

Applications of microencapsulated essential oils

Provided are microcapsules containing a solid core including at least one essential oil mixed with a porous solid material, where this solid core is coated by at least one layer of a polyurea film and/or a polyurethane film or an amphipathic shell composed of a multivalent salt form of at least one alkanoic acid. Further provided are compositions including these microcapsules, and uses thereof in a variety of agricultural and environmental applications.

Solid core microcapsular compositions and uses thereof

The present invention provides anion exchange membranes, processes for producing same and uses thereof. The anion exchange membranes according to embodiments of the present invention achieve a desirable combination of low resistance, high permselectivity and low degree of dimensional swelling. Anion exchange membranes according to embodiments of the present invention are also cost effective.

Anion exchange membranes, methods of preparation and uses

Disclosed are membranes suitable for use as separators in electrochemical cells as well as electrochemical cells, where the membranes are configured to substantially reduce the passage of multivalent ions therethrough without substantially reducing the permeability of the membranes to lithium ions.

Membranes suitable for use as separators and electrochemical cells including such separators

The present invention provides for a novel 'green' agricultural formulation comprising at least one encapsulated volatile essential oil and a non-volatile vehicle in which said at least one encapsulated volatile essential oil is carried.

Formulations containing microencapsulated essential oils

The invention provides a process for the preparation of essential oil microcapsules comprising dissolving a di- or polyisocyanate into an essential oil, emulsifying the resulting mixture in an aqueous solution containing a di- or polyamine, and or a di or polyhydroxy compound to effect encapsulation of said essential oil through interfacial polymerization, whereby there is formed a polyurea and/or polyurethane film around the essential oil droplets which film enhances the stability of said essential oil, reduces its evaporation rate and controls its release rate when applied to a substrate.

Encapsulated essential oils

There is provided a composite membrane, which may include an electronically conductive asymmetric porous support and an electro-polymerized selective layer. There is also provided a composite membrane for water application(s), which may include an electronically conductive porous support and an electro-polymerized selective layer. Moreover, there is provided a composite membrane for gas application(s), which may include an electronically conductive asymmetric porous support and an electro-polymerized selective layer. There is also provided a membrane system which may include at least one composite membrane which may include an electronically conductive asymmetric porous support and an electro-polymerized selective layer. In addition there is provided a method for the preparation of a composite membrane.

Composite membranes and methods for their preparation

A new method for the preparation of microencapsulated essential oils is disclosed. The microcapsules containing essential oils or a formulation containing thereof may be used for various non-agricultural applications.

There is provided herein a membrane or film comprising one or more aromatic ionomers covalently crosslinked through aryl-aryl (&#x2014;Ar&#x2014;Ar&#x2014;), aryl-ether-aryl (&#x2014;Ar&#x2014;O&#x2014;Ar&#x2014;), aryl-sulfide-aryl (&#x2014;Ar&#x2014;S&#x2014;Ar&#x2014;), aryl-sulfone-aryl bonds, or any combination thereof, wherein said one or more aromatic ionomers further comprises at least one electron withdrawing group adapted to improve oxidant resistance of said membrane or film.

Chemically resistant membranes, coatings and films and methods for their preparation

There are provided herein selective membranes, such as composite membranes, and/or films and processes for their preparation. The membranes and/or films have a given morphology which may be stabilized, for example against swelling and chemical degradation, by covalent crosslinking and optionally, in addition, by hydrophobization. There is provided a membrane and/or film and a process for the preparation thereof, the membrane and/or film include an ionomer and/or polyelectrolyte crosslinked through aryl-aryl (&#x2014;Ar&#x2014;Ar&#x2014;), aryl-ether-aryl (&#x2014;Ar&#x2014;O&#x2014;Ar&#x2014;) and/or aryl-sulfide-aryl (&#x2014;Ar&#x2014;S&#x2014;Ar&#x2014;) bonds.

Membranes, coatings and films and methods for their preparation

Growing community of inventors

Rehovot, Israel

Charles Linder