256 innovations from Bar-Ilan University, available for licensing, co-investment, or spin-out through BIRAD.
Frenkel-morgenstern Milana
Full details available on request
Yadid Gal Moshe
New psychodelic - like substance for novel treatment for addiction
Margel Shlomo
The present invention relates generally to the field of compositions comprising one or more silane-based compound or silica coatings and is directed to methods of using the same such as for ultra-violet light absorbing coatings or anti-fogging and superhydrophobic coatings.
Noked Malachi
This new form is submitted to replace Tagliot no. 108, that was already approved, since there is a need to add an Inventor Limited stability of most electrode materials (EM) under stringent operating conditions is a matter of concern for the battery research community and industry. In past few years, it has been demonstrated that EMs degrade through their reactive interface with the electrolyte. Undesirable interfacial reactions result in formation of solid precipitates that impede the charge transfer, and can serve as an active site for electrolyte consumption, anode corrosion and passivation, thereby, leading to inefficient lithium/sodium ion batteries (LIB/SIB). Especially, the progress of high energy and high voltage batteries is mostly restricted by issues associated with the electrode/electrolyte interfacial instability and electro-chemomechanical degradation under the operation conditions7–9. Consequently, stabilizing the interface by creating a protection layer commonly known as “artificial solid electrolyte interphase (ASEI)” can significantly enhance battery performance by stabilizing the functional interface and avoiding the undesirable parasitic reactions between electrode and electrolyte. Significance of this invention resides in bringing a new class of metalloid based protection layers with a diverse range of tailor made options into the field of electrochemical energy storage. This is a completely new thin films composition to explore for the battery community. The proposed silicon based compounds can also be extended to the field of solid state electrolyte with the benefit of metal enrichment and optimized ionic conductivity. Additionally, the special compound used as precursor herein, enables the synthesis of thin complex layer using a single source compound
Cohen Eliahu
The proposed method enables to infer, with various degrees of disturbance, the information content of quantum channels. As a possible hacking and security analysis method it exposes and utilizes physical imperfections within common quantum key distribution protocols. It is based on noise injection followed by quantum weak measurements which allow to infer, to some extent, the bits of a distributed secret key. The method can be used for detecting and quantifying the severity of security vulnerabilities within quantum channels. As another application, the proposed method can monitor the performance and error rate of quantum computers.
Klein Shmuel Tomi
A new generic coding method is defined, extending the known static and dynamic variants and including them as special cases. This leads then to the formalization of a new adaptive coding method, which is shown to be always at least as good as the best dynamic variant known to date, and in particular, always better than static Huffman coding. Empirical results show improvements achieved by the proposed method, even when the encoded file includes the model description.
Noked Malachi
Silicon-carbon (Si@C) composite anodes are promising candidates for next-generation lithium-ion batteries (LIBs) due to their high theoretical capacity and potential for increased energy density. However, their practical application is limited by large volume changes during lithiation/delithiation, which leads to particle cracking and electrochemical fading. Herein, we report the deposition of hybrid organic/inorganic zincone coatings on Si@C composite anodes by molecular layer deposition (MLD). Using diethylzinc (DEZ) in combination with ethylene glycol (EG) or ethanolamine (EA), conformal nanoscale thin film coatings were produced to act as artificial solid electrolyte interphase (ASEI) layers. Structural and chemical characterization using advanced characterization confirmed a successful growth of ultrathin hybrid zincone thin films while preserving the bulk structure of the Si@C particles. After 100 cycles, ZnEA and ZnEG -coated Si@C electrodes maintained improved capacitances compared to the uncoated electrode, demonstrating improved electrochemical performance of ~20% and ~30%, respectively. Post-cycling analyses further demonstrated reduced structural degradation and cracking formation on the surface of the zincone coated electrodes. The enhanced performance is attributed to the synergistic effect of the hybrid zincone coating, where the inorganic zinc precursor component suppresses electrolyte decomposition and stabilizes the electrode/electrolyte interface, while the organic precursor provides mechanical flexibility to accommodate silicon volume expansion. These findings demonstrate that zincone coatings is an effective method for stabilizing high-capacity silicon-based anodes for advanced next-generation LIBs with improved long-term cycling performance.
Klein Lior
Multi-state magnetic memory element
Gedanken Aharon
Full details available on request
Gruzman Aric-lev
Novel TRAM-Derived Decoy Peptides and Peptidomimetics as Cardioprotective Therapeutic Agents
Popovtzer Rachala
The next generation FDG-PET, based on radioactive
Efroni Sol
גילוי מוקדם של סרטן בעזרת כימות רפרטואר תאי טי
