Researchers, Nano Materials

Name Research interests
Dr. Asaf Albo
Dr. Shahar Alon

Spatial genomics is a new field that seeks to map the physical position of millions of RNA molecules in cells and tissues and correlate them to normal and pathological conditions. We developed a technology for RNA sequencing inside tissues, which allows studying RNA molecules with unprecedented detail. We use this technology to unravel how molecular content is stored within cells in space in order to understand the function of complex tissues. 

Prof. David Cahen
Dr. Eliahu Cohen
  • A new photonic quantum simulator based on cyclic quantum walks
  • Top-down causation and quantum physics 
  • Quantum Physics May Be Even Spookier Than You Think
  • How Quantum Wishes Can Turn Into Horses: A New Thought-Experiment Shows That Even Non-Events Can Have Causal Effects
Dr. Boris Desiatov
  • Optoelectronic device
  • Quantum optics
  • Quantum information science
  • Meta-Materials
  • Nano Photonics
  • Nanofabrication
  • Non linear optics
Prof. Moshe Deutsch
  • Experimental x-ray studies of surface properties of liquid metals

  • simple liquids and liquid crystals

  • structure of mono-molecular Langmuir films

  • dynamical x-ray diffraction phenomena in perfect crystals

  • high precision crystal binding studies

  • X-ray emission and absorption spectroscopy

  • synchrotron radiation and its applications.
Prof. Lior Elbaz
Prof. Aharon Gedanken

Methods for preparing nanomatic materials

Sonochemistry, sonochemistry, the use of microwave radiation and a method called a rupture in which a part of a chemical laboratory becomes an autoclave.

We deal with a variety of uses of materials we have prepared.

Prof. Shmaryahu Hoz

Physical organic chemistry and computational nanotechnology

1. Reactions of SmI2

2. Computational nanotechnology

3. Chemical effects of electric fields

Prof. Jean-Paul Lellouche

1.Multifunctional Polymer Materials and Systems with Taylored Mechanical, Electrical and Optical Properties

2.Water-Compatible Surface Modifications of PET [poly(ethylene-terephthalate] Fibers by Grafted PEG Polymers, and/or Conducting Polymers

3.Smart Membrane for Hydrogen Energy Conversion: All Fuel Cell Functionalities in One Material

4.Chemically Modified Multi-, Single-, and Double-Walled Carbon Nanotubes (MWCNTs, SWCNTs, & DWCNTs) for the Reinforcement of Polymeric Matrices and Surface Functionalization/Nanostructuration

5.Nano-silencing in the cytoplasm and nucleus for killing of parasites and cancerous cells

6.Surface modifications of dental implants using inorganic particles

7.Functional bio-sensing nanostructured surfaces

8.Parylene-based artificial smart lenses fabricated using a novel solid-on-liquid deposition process

9.A Modular Active Nano-Platform for Advanced Cancer Management: Core Nanosystems, Tumor Targeting and Penetration, Molecular Imaging & Degradome-based Therapy

Dr. Tomer Lewi

Nano-photonics and nano-optics 

light-matter interactions

Optical metamaterials 

Two-dimensional materials

Prof. Dan Thomas Major

Computational Chemistry,

Computational Biochemistry,

Computational Nanotechnology

Prof. Shlomo Margel

Polymers & biopolymers; Surface chemistry; Thin films, Nanotechnology, Nabiotechnology and agro-nanotechnology; Encapsulation; Applications of magnetic and non-magnetic functional nanoparticles for medical (specific cell labeling and separation, diagnosis and therapy of cancer, multimodal contrast agents, wound healing, neurodegenerative disorders, etc.), agricultural and industrial applications.

Prof. Yitzhak Mastai
Dr. Doron Naveh

Organic Interfaces of 2D Materials & Devices

Materials Growth and Synthesis

Optoelectronic Devices


Prof. Yitzhak Rabin

Biophysics and Soft Matter Physics: DNA elasticity and topology, DNA-protein interactions, DNA monolayers, protein nanopores, nuclear pore complex, chromatin structure and dynamics.

Prof. Sharon Ruthstein

Our work focuses on the cellular copper cycle. The knowledge gained on the copper cycle in eukaryotic and prokaryotic systems is then used to develop new biomarkers and therapeutic agents that are dependent on the copper cycle. We believe that a basic understanding on the chemical and biological system is essential for developing the next generation of biomarkers and therapeutic compounds that will be adopted in the clinic.

The main biophysical tool that is used in our lab is continuous wave (CW) and pulsed EPR spectroscopy. The power of EPR lies in its sensitivity to both atomic level changes and nanoscale fluctuations. EPR can characterize states such as the redox state and ligand geometry to determine the protein’s different functional states, as well as to provide information on the cell’s dynamics. The data collected by the EPR experiments is complemented by various other biophysical and biochemical approaches, as well as computational methods, such as CD, NMR, run-off transcription assays, ultra-centrifuge experiments, cell microscopy experiments, 64Cu(II) cell experiments, and QM/MM-MD simulations, in order to provide a complete picture of the cellular copper cycle in eukaryotic and prokaryotic systems.

Prof. Adi Salomon


Molecules-surface plasmons interaction,

Molecular dynamics,

Strong coupling systems.

Near field spectroscopy,

Second  Harmonic Generation (SHG)

Dr. Hagay Shpaisman
  • Influencing polymerization & phase separation processes with Holographic Optical Tweezers
  • Developing bubble based acousto-driven micro-particles
  • Advancing light controlled microfluidics
  • Creating position sensitive micro structures
Prof. Eli Sloutskin
  • Experimental studies of phase transitions in colloids.
  • Quantitative real-time 3D confocal microscopy, holographic optical tweezing, and light scattering techniques.
  • Crystal nucleation.
  • Non-crystalline solids: structural measurements to reveal the physics of glass formation.
  • Interfacial phenomena in colloidal and molecular systems.
Prof. Chaim Sukenik

1. Organic Monolayers for Catalyst Immobilization

2. Wafer Bonding for Photonics and Micro-electronics

3. Oxide Thin Films for Controlling the Chemical and Physical Properties of Interfaces

4.  Engineering Organic Interfaces for Studying Electron Transfer

5.  Controlling Biomaterial Interfaces

Prof. Gur Yaari

Computational systems biology:

Using immune repertoires as diagnostic and prognostic tools for diseases.


1. Development of nano-technologies (e.g. lab on a chip) for identification of immune repertoire patterns for diagnostics and prognostics of diseases.

2. Computational investigation of antibody-antigen interactions for antibody engineering.

3. Development and usage of advanced machine learning approaches in various fields.

Lab on a chip, investigation of nano-scale interactions and machine learning applications fit well the nano technology field


Behind the phenomenal success of the human immune system in fighting countless evolving threats lies its ability to diversify, adapt and form long term memory. Specificity is achieved by the dynamic B cells that undergo affinity maturation in response to antigens. Thus, the antibody repertoire stores information about threats that the body has encountered, and can be harnessed to provide valuable information about diseases. We develop computational pipelines tailored for antibody repertoire analyses, and apply them to samples from different clinical conditions to shed light on new disease mechanisms and improve diagnostics and prognostics.  



Prof. David Zitoun

Bottom-up approach of nano-devices

The aim of the laboratory is to elaborate nano-components for batteries, fuel cells, redox-flow batteries and sensors. The laboratory works on the integration of these nano-building blocks in devices.

Dr Zitoun's lab develops an alternative route to elaborate thin films using wet chemistry deposition. Two major routes are explored; the first one consists in the colloidal synthesis of nanospheres and nanowires which are spread on the substrate by wet coating. In a second approach, the molecular precursor is directly targeted to the substrate and reacts in situ. The lab synthesizes reactive organometallic complexes and studies the thermolysis, photolysis and chemical reduction of these complexes. Dr. Zitoun brings a major achievement with the use of designed reactive organometallic precursors that could be decomposed to form metallic coatings down to room temperature. This approach allows direct synthesis on the desired substrate (metallic, plastic...) with the use of standard coating equipment and/or state of the art research equipment, like Atomic Layer Deposition.

Particular research areas (projects):

1. Nanomaterials

2. Energy storage

3. Magnetism