Laboratory of Molecular Biophysics

NamePositionContacts
Alexander Schapov+7(495)330-61-65
Vladimir Oleinikov, D.Scheadvoleinik@mail.ru+7(495)335-43-66
Konstantin Mochalov, Ph.D.s. r. f.mochalov@mail.ru+7(495)336-07-77
Svetlana Sizova, Ph.D.r. f.sv.sizova@gmail.com
Yury Kozminr. f.zibotic@mail.ru+7(495)330-61-65
Marina Tretyakr. f.marinatretyak@mail.ru+7(495)995-55-57#2113
Daria Solovyeva, Ph.D.j. r. f.d.solovieva@mail.ru+7(495)3354366, +7(965)3922491
Tatiana Sukhanovaj. r. f.sukhanovat@mail.ru+7(495)330-61-65
Anton Zalyginj. r. f.zalygin.anton@gmail.com
Vasiliy KovalPhD stud.tokojami@ya.ru
Mikhail Birjukoveng.+7(495)330-61-65
Ivan Vaskaneng.
Veronika Manohinares. eng.+7(495)330-61-65
Aleksej Mezinres. eng.+7(495)336-07-77
Anastasia Gilevares. eng.sumina.anastasia@mail.ru

Former members:

Anton Efimovs. r. f.
Dar'ya Mokrovaeng.tosha111@gmail.com

Selected publications (show all)

Loading...

Scientific projects

Loading...

Vladimir Oleinikov

  • Russia, Moscow, Ul. Miklukho-Maklaya 16/10 — On the map
  • IBCh RAS, build. 34, office. 131
  • Phone: +7(495)335-43-66
  • E-mail: voleinik@mail.ru

Supramers on the base of amphiphillic molecules lipid-oligopeptide-biotin (2018-11-28)

It was found that oligopeptides with terminal lipid and biotin fragments are able to form micelle-like supramers (globules) in an aqueous solution. Using optical spectroscopy, atomic-force and electron microscopy, as well as small-angle X-ray scattering and computer simulation, it was shown that the globules are very uniform in size (about 14.6 nm). It was found that globules have the core/shell structure. The core contains lipid and part (up to 90%) of the biotin fragments. The polar oligopeptide spacer folds back upon itself and predominantly places the biotin reside inside the globule. But the part ( <10%) of biotin residues is exposed outside, and can be used for the selective attachment of specified molecules. Micelle-like supramers containing compounds that are natural to a living organism can become the basis for new types of carriers for targeted drug delivery.

High-Performance Bio-Photoelectrodes for Quantification and Measurements of Photocurrent Generated by a Single Photosynthetic Reaction Center (2018-11-28)

A new approach to fabrication of a high-performance biophotoelectrodes consisting of photosynthetic reaction center (RC) proteins immobilized on a conducting surface is developed. The voltammetry measurements at the conductive interface between a single photosynthetic RC and a golden electrode were used as the base of this study. It allowed use not only the quantification of the efficiency of the method of RC immobilization used, but also the measurements of current of the single RC. It was shown that covalent RC immobilization through S-Au bonds is much more efficient (up to ten times) than the use of a spacer. Development of this approach can be very perspective for creation of highly efficient biohybrid photosensing devices.

Unique scientific setup “System for probe-optical 3D correlative microscopy” (2017-11-28)

Designed, build and included in the register of unique scientific experimental instruments System for probe-optical 3D correlative microscopy”

The new tool is designed to obtain three-dimensional images of biological and other objects, reconstruction of the 3D distribution of various physicochemical parameters along the volume of the object, including the determination of the chemical composition in the local regions of the object with a resolution of the nanometer scale.

All techniques of SPM are available (contact, semicontact, dynamic contact, and tapping modes, force modulation, magnetic and electrostatic force, Kelvin-probe  and scanning spreading resistance microscopy.  Also, it has the possibility to use the confocal fluorescence, Raman, surface and tip enhanced Raman scattering spectroscopy (SERS and TERS), and SNOM. Axial resolution of ultramicrotomography – 20 nm. Instrument contains the hard and software for reconstruction 3-D reconstruction of the morphological/optical structure of samples.

The figure shows the appearance of a unique tool, its scheme and principle of action. As the example of application, the "architecture" of the magnetic-fluorescent microbeads for clinical diagnosis and drug delivery, determined using ultramicrotomography, fluorescent microspectroscopy, and magnetic force microscopy was defined.