Yissum Research Development Company of the Hebrew University of Jerusalem Ltd.

Yeda Research and Develpment & Co. Ltd

Roie Yerushalmi

Avigdor Scherz

Ori Pinchas-Hazut

Yossef Paltiel

Shira Yochelis

Sharon Waichman

Niv Kaynan

Dereje Hailu Taffa

Amir Ziv

Thangavel Subramani

Sergey Ishchuk

Provided is a composite of a CNT assembly including a plurality of carbon nanotubes (CNTs) and at least one metalcone material, the composite being tunable, by a vapor phase chemical modification, to adopt one or more collective properties selected from mechanical, chemical, physical or electrical properties.

Vapor phase treatment of macroscopic formations of carbon nanotubes

Provided is a self-processing synthesis of hybrid nanostructures, novel nanostructures and uses thereof in the construction of electronic and optoelectronic devices.

Self-processing synthesis of hybrid nanostructures

The invention provides coalesced and un-coalesced organic/inorganic films and methods of use.

Hybrid metal and metal oxide layers with enhanced activity

Provided is a process for modifying the chemical composition of a surface region of a material, employing rapid thermal processing (RTP) conditions.

Process for contact doping

Using a synthetic molecular spring device in a system for dynamically controlling a system property, such as momentum, topography, and electronic behavior. System features (a) the synthetic molecular spring device having (i) at least one synthetic molecular assembly each featuring at least one chemical unit including at least one: (1) atom; (2) complexing group complexed to at least one atom; (3) axial ligand reversibly physicochemically paired with at least one complexed atom; and (4) substantially elastic molecular linker; and, (ii) an activating mechanism directed to at least one atom-axial ligand pair; and, (b) a selected unit operatively coupled to synthetic molecular assembly, and exhibiting the system property. Activating mechanism sends an activating signal to atom-axial ligand pairs, for physicochemically modifying atom-axial ligand pairs, thereby activating at least one cycle of spring-type elastic reversible transitions between contracted and expanded linear conformational states of substantially elastic molecular linkers, causing dynamically controllable change in the system property.

Method using a synthetic molecular spring device in a system for dynamically controlling a system property and a corresponding system thereof

Synthetic molecular spring device featuring: (a) a synthetic molecular assembly, SMA, each scalable chemical module including: (i) at least one atom, M, (ii) at least one complexing group, CG, complexed to an atom, M, (iii) at least one axial ligand, AL, reversibly physicochemically paired with at least one atom, M, complexed to a complexing group, CG, (iv) at least one substantially elastic molecular linker, ML, having body and two ends with at least one chemically bonded to another component of SMA; (b) activating mechanism, AM, operatively directed to an atom-axial ligand pair, whereby following activating mechanism, AM, sending activating signal, AS/AS', to an atom-axial ligand pair for physicochemically modifying the atom-axial ligand pair, there is activating at least one cycle of spring-type elastic reversible transitions between contracted and expanded linear conformational states of molecular linker, ML. Optionally includes (v) chemical connectors, CC, and/or, (vi) binding sites, BS.

Growing community of inventors

Moshav Kfar Warburg, Israel

Roie Yerushalmi