83 innovations from Bar-Ilan University, available for licensing, co-investment, or spin-out through BIRAD.
Margel Shlomo
The invention relates generally to the field of adhesive thin coatings comprising essential oils, hydrogen peroxide & ethanol and their use via a controlled release process.
Noked Malachi
Spherical LiNiO2 (LNO) is synthesized by scalable solid state route. Strategically controllable synthesis approach endowed with suppression of detrimental phase transformation. The presented approach facilitate dense LNO with controllable shape and in-situ doping option. Including also surface modification by unique ALD process for LAZO And demonstration in solid state lithium batteries
Teman Adam
Dynamic memory topology, layout and full array that can be manufactured in a standard FinFET (digital) process with low area, low power consumption, and high bandwidth
Yehoshua Yaron
The current research deals with the development of an innovative technology for the future food industry, by growing different types of microalgae in unique hydrogel capsules made of polyvinyl alcohol/polyvinyl pyrrolidone/alginate (PVA/PVP/A)). The macrocapsules will serve as a basis to produce cultured seafood. These algae-based macrocapsules will be used as food supplements rich in nutrients, and as food for humans and other animals such as fish, poultry, etc. In this work, these unique hydrogel macrocapsules were developed and their composition and structure were optimized, and the ability to grow algae in them was demonstrated. The technologies that currently exist for growing algae are based on growing in a medium, in plates, and artificially in reactors, encountering many difficulties stemming, among other things, from various bacterial and fungal infections. In addition, to ensure adequate growth, an increased amount of expensive growth medium is used. As part of the present work, an innovative and unique technology for growing algae was developed instead of the technologies that exist today. We introduce microalgae plus growth mediums into macrocapsules that have been uniquely developed by algae encapsulation processes during the preparation of the hydrogel macrocapsules. The confinement of the algae is done to provide them with a place to grow and to protect the algae cells from infections and harmful microorganisms. We also provide microalgae the conditions they need for their growth: light, temperature, and growth medium. The capsules may also contain fragrances, flavors and chosen color. The monitoring of the growth of the microalgae was carried out in two main ways: 1. Tracking the intensity of the color of the macrocapsules, which increases as the concentration of algae in the macrocapsules increasing, 2. Monitoring the concentration of chlorophyll (absorbance at 680 nm) which increases as the concentration of algae in the macrocapsules increasing. It was most clearly demonstrated that the growth of the microalgae entrapped in the macrocapsules is significantly faster than their growth in the conventional methods. The capsules could be used as a basis for various food products by combining them as a raw material or as "ink" for 3D printing. In growing algae with the proposed technology, there is a significant saving in water growing areas compared to the technologies that exist today. The proposed technology of enclosing the algae in capsules will reduce the cases of pollution and at the same time reduce the amount of expensive medium required to grow the cells. This will reduce the growing expenses and make it possible to create future food at a cheaper price. Also, we save on the growing costs of the stage of separating the algae from the water, which is an expensive stage that requires resources and consumes a lot of energy. Furthermore, the capsule shell itself is used as a protein substitute and edible. In addition, if necessary, the separation of the cultured algae from the hydrogel polymeric macrocapsules can easily be achieved by adding chelating metal ions such as EDTA or sodium citrate. in conclusion, the use of the aforementioned macrocapsules will enable a controlled and clean process in a configuration close to the final food product, resulting in significant cost savings.
Noked Malachi
Spherical LiNiO2 (LNO) is synthesized by scalable solid state route. Strategically controllable synthesis approach endowed with suppression of detrimental phase transformation. The presented approach facilitate dense LNO with controllable shape and in-situ doping option.
Aurbach Doron
High energy cathode for lithium sulfur cell. Current collector with a two-layer structure consisting of a layer with low areal electronic resistance (e.g., C-coated metal Al) and a layer with a porous structure (e.g., carbon paper) adhered on top. Cathode for lithium sulfur batteries containing two types of binder, swell-able and non-swellable, in the electrode plate, and the two types of binder are arranged in a layered configuration. "
Noked Malachi
In the present work, we purpose to achieve cobalt-free high capacity cathode for Na-ion batteries using high entropy approach. High entropy approach comprises the mixing of more than five elements in a single phase which itself is a challenge as it involves interplay between different elements to get the desired properties. Here, Li is introduced in the composition to get high configurational entropy that offers Na vacant sites, hence stabilizes the crystal structure by entropy stabilization, accelerate the kinetics and improves the air stability. With the optimization in the composition of cathode, a reversible capacity of 109 mAh g-1 (2-4V) and 144 mAh g-1 (2-4.3V) is observed in first few cycles with a significant stability during prolong cycling. Further, insitu and exsitu diffraction studies during charging and discharging has revealed that the high entropy strategy is successful in overcoming the complex phase transition in O3 layered structure by suppressing the O3’ phase. The impressive outcomes of the present work strongly motivate to pursue high entropy approach in developing efficient cathode for Na-ion batteries.
Mandel Yossi
The invention is a new device and method that enables a better interface between electrodes and patients’ (or other) neural tissue, such as the retina. The invention is based on high-density electrode array integrated with glutamatergic (or other) cells. Upon implantation of the device into the subretinal space of patients suffering from retinal degeneration (e.g.; age-related macular degeneration) the neurons synapse with the host retina. Activation of individual neurons by electric field elicits activation of the host retina with natural characteristics and restores vision at resolution and quality near normal vision.
Noked Malachi
This study demonstrates that partial substitution of F⁻ with less electronegative Br⁻ in NVPF facilitates the electrochemical activation of the third Na ion while preserving structural integrity. A series of Br-substituted NVPF hollow microspheres, Na₃V₂(PO₄)₂F3(1-x)Br3x (x = 0.1, 0.2, 0.3, 0.4), were synthesized and evaluated. Among them, NVPF-Br (x=0.2) exhibited the highest electrochemical performance, delivering a high discharge capacity of 169 mA h g⁻¹ at 64 mA g⁻¹ within a 1.2–4.3 V window and retaining 134 mA h g⁻¹ with 100% coulombic efficiency after 150 cycles. Structural analysis revealed that Br substitution expands the 2D tunnel framework, enabling faster Na-ion diffusion
Strelniker Yakov
It is shown that when approaching the percolation threshold of a superconductor-insulator metamaterial, the critical temperature Tc can be significantly increased up to near-room temperature. This is due to the appearance of a negative permittivity near criticality. This yields electrons to experience attraction instead of repulsion, which leads the formation of Cooper electron pairs and, consequently, to superconductivity. The negative permittivity is found theoretically in the metal-dielectric superconducting metamaterial using the symmetric self-consistent effective medium approximation (SEMA) together with the Drude model of metal conductivity in the quasistatic limit. This negative permittivity value is substituted into the formula for the critical temperature, derived by the well accepted Ginzburg-Kirzhnits-Pashitskii theory which describes superconductivity in terms of permittivity where the concept of epsilon-near-zero (ENZ) has been employed. All analytical evaluations are exact within the framework of SEMA. We also provide a qualitative physical explanation for this theoretical prediction.
Kalisky Beena
The present invention relates to methods and systems for locally inducing superconductivity in a solid-state material by applying a mechanical stimulus. In particular, superconductivity is activated in selected regions of a material that is non-superconducting or weakly superconducting in its initial state, through direct physical contact (stress) applied in a controlled manner. The induced superconducting state is spatially confined to the contacted regions and can be patterned with high spatial resolution, enabling the “writing” of superconducting structures such as lines, points, or arbitrary geometries. The strength and extent of the induced superconductivity depend on parameters, including the magnitude and duration of the applied mechanical stress. In this work, the method is demonstrated in trigonal PtBi2, where localized mechanical contact results in the emergence of type-II superconductivity accompanied by vortex formation. This opens the way for similar capabilities in other material systems.
Asaf Albo
This invention relates to a novel method for low-temperature epitaxial growth of high-quality aluminum nitride (AlN) thin films using plasma-enhanced atomic layer deposition (PEALD). The process enables the deposition of epitaxial AlN films on GaN substrates emplates at just 300 °C, without requiring additional in situ plasma treatments or post-deposition annealing, which are typically needed to enhance film crystallinity but may damage underlying structures. The resulting AlN films exhibit excellent crystalline quality—validated by X-ray diffraction and transmission electron microscopy—maintaining epitaxial alignment throughout thicknesses up to 70 nm. This simplified, low-thermal-budget process enables integration of III-nitride semiconductors with thermally sensitive platforms like silicon, thereby advancing the manufacturing of next-generation optoelectronic and high-power electronic devices.
