Phone (+994 12) 4965110  
Total number of employees 54
Basic activity directions   Investigation of the processes of aerobic liquid-phase catalytic oxidation of petroleum and individual hydrocarbons; development of the process of synthetic petroleum acids and oxy-acids. Research of fullerenes, metal-containing nanotubes, nanofibers and functiona-lized carbon nanostructures oxidation catalysis;study of nanodimensional titanium dioxides in reactions of esterification.

Dehydrogenation, dehydroalkylation, oxi-dation, con-densation of alicyclic hydrocarbons, catalyst synthesis and research processes for conducting.

Were developed methods for the synthesis of poly-functional complexsonates containing different hete-roatoms  and obtain various metalcomplexes based on them. On the basis of these compounds were derived chemical additives as stabilizers against of polymers, additives for motor oils and fuels, corrosion inhibitors as well as iniferters  processes and catalysts for  the po-lymerrization, oligomerization and copolymerization of  diene hydrocarbons and polyacrylates.

Catalytic decarboxylation of saturated and unsaturated acids  of plant oils

Synthesis of  polyalkylcyclopentadienes – syntons for modern lubricants 
Main scientific achievements  An activity of naturally occurring antioxidants of Azerbaijan oils and oil fractions have been determined by kinetic means. According to the obtained data there has been developed the information database on anti-oxidative activity of oil systems over Azerbaijan region. In aerobic oxidation processes of petroleum hydro-carbons and polymers were for the first time used as catalysts and anti-catalysts the carbon nanostructures: fullerenes C60and C70, metal-containing single- and multiwalled carbon nanotubes and nanofibers. The improved processes of synthetic petroleum acids and oxy-acids production have been developed. The esters synthesis in the presence nano-grade titanium dioxides have been elaborated, and on this basis the onward, modern, environmentally acceptable and economically profitable process has been proposed.

On base of nikelditiophosfates designed multifunc-tional stabilizer "Stanaz." With its use in industry was released polyethylene composition and film having antistatic, resistance to heat and light exposure- UV rays with a large coefficient of and used in agriculture with a large economic effect.

Nickel-containing catalyst dithiosistems:

Organic dithioderivative of nickel (dithiophosphates-DTF-Ni, dithiocarbamates DTC-Ni or nickel xanthates - Kc-Ni) + alkylaluminumhalides (monocholrides or sesquichloride) for the process of obtaining a low molecular weight 1,4-cis polybutadiene, finding used as a film-forming in the paint industry;

The catalyst system Kobaltdithiofosfat catalytik sys-tems: organic O,O-dithiofosfates cobalt (CTF-Co or DIPDTF-Co) + alkylaluminumhalides (monochlorides or sesquichloride). Process for producing high mole-kular weids1,4-cis polybutadiene (containing 1.4-cis-units over 92-95%), which find application in the tire and rubber industry, as well as in the synthesis of high-impact polystyrene;

Kobaltditiokarbamat catalyst system: N, N-dithiocarba-mates cobalt (Co-DTC) + alkilaluminiymhalide (mono-chloride or sesquichloride) to obtain the high molecular weids cis- 1,4 polybutadiene content of 35% 1,2-units, used in the tire industry as substitute styrene butadiene rubber, as well as in the synthesis of high impact polystyrene;

Kobaltxsantogenat catalyst system: xanthogenates cobalt (Co-Xs) + trialkyl aluminum (TIBA or TEA) process for producing syndiotactic 1,2-polybutadiene with different crystallinity, which find application in the footwear industry, as well as during manufacture of biodegradable films, packaging and container.

These catalytic ditiosistems, unlike their known analogs, along with high catalytic activity in the polymerization of butadiene, are also highly stabilizing efficiency storage polybutadiene, as well as act as a vulcanization accelerator in the manufacture of rubber. Therefore, the polymerization of butadiene using nickel- and cobalt-containing catalyst dithiosistem not require washing of the polymer catalyst residues and additional stabilization with expensive antioxidants. All this opens up opportunities for the creation of environmentally friendly production of synthetic rubbers, in particular polybutadienes.

All studies on the polymerization of butadiene using the these catalyst dithiosistems conducted under conditions close to factory conditions, repeatedly tested the activity of these systems and implemented in the production of synthetic rubber.

When implementing this process excludes energy- intensive and difficult to implement mye- washing step and the polymer stabilization of the polymer obtained with the use of expensive anti- oxsidants, which leads  to the creation of environmentally friendly production technology polybutadiene varnish and achieve high economic effet.

Additional economic benefit is achieved by using butadiene comprising pyrolysis fraction C4instead of pure butadiene.

Kobaltdithiofosfat catalytic systems provides a high-molecular 1,4- cis polybutadiene content of 1,4-cis –units 96-98% and took pilot and industrial tests of JSC “EZSK” Russia and in firm “PETKİM”, Turkey.

In the application of these catalytic systems is also eliminated in the deterging catalyst residues from the polymer and further stabilization.

Kobaltksantogenat catalytic systems provides a high molecular weight syndiotactic 1,2- polibutadiene differ-rent crystallinity. Sindiotakcal 1,2-polybutadiene having a high crystallinity (70%) is an analogue of the polymer produced by UBE POL(Japan) and is used in the prepa-ration of polybutadienes and hardened during manu-facture of various bottles, films, tar (similar to those which are made of polypropylene). Developed a one-step method for producing reinforced polybutadiene by polymerizing butadiene in the presence kobalt-dithiofosfat (cobaltdithiocarbamate) and kobaltksanto-genat catalyst systems.Syndiotactic 1,2- polybutadiene is a low crystallinity(15-25%) is an analogue of poly-butadiene sold by JSR (Japan), and finds use in the shoe industry and in the manufacture of films, bottles and other containers.

Kobaltdithiokarbamat catalytic systems allows to obtain high molecular 1,4- cis polybutadiene with a content of up to 35%  of 1,2- units, that is analog polibutadiene firm JSR (Japan) and is used in the tire industry to replace the styrene – butadiene rubber, as well as the manufacture of high impact polystyrene. This rubber has all the positive properties of styrene-butadiene and butadiene of general purpose rubbers and rubber tread on the basis of his best qualities differ in wear resistance for, grip, slip resistance on wet pavement and frost.

Receiving of  highly internal olefins and components of reactive and diesel fuels based on biorenewable  mass and  petroleum oils