General Information

G.Tsulukidze Mining Institute (TMI), formerly known as the Institute of Mining Mechanics of the Georgian Academy of Sciences, was founded in 1957. In 2006 the Institute has got status of a legal entity of public law. Director of the Institute is Doctor Nikoloz Chikhradze.


The regular staff of the Institute consists of 117 employees, including academic staff of 37 (11 chief research fellows, 7 senior research fellows and 19 research fellows). In Scientific Departments 27 young specialists under the age of 40 (6 academic doctors, 2 PhD students, 14 masters of science and 5 master degree students) are employed. The young fellows are the manager of scientific programs, head of the Research Center of Engineering Developments and Design and head of the Mining Laboratory.


The academic staff of the Institute includes one academicians of the Georgian National Academy of Sciences.


Divisions:

1. Structures Construction, Mining and Complex Mechanization Department

a. Underground Structures Construction Laboratory

b. Mining Laboratory

c. Complex Mechanization Laboratory

2. Blasting Technologies Department

a. Explosives Research and Blasting Technologies Laboratory

b. High-Tech Materials Laboratory

c. Explosion Protection Technologies Laboratory

3. Rock, Construction Material Properties and Quality Control Department

4. Analytical Chemistry and Mineral Processing Department

5. Research Center of Engineering Developments and Design

There is also Physical and Chemical Analysis of Water and Technologies Group at the Institute.


The main directions of scientific and technical works of the Institute are as follows:


  • Improvement of construction and reconstruction of mining, transport, hydroengineering and other structures, development of technologies for sound and economical driving of tunnels and support structures;
  • Study of the stressed-strained state of the rock mass around mine workings and underground structures and perfection of its assessment methods;
  • Development of calculation methods of static, rheological/flow and dynamic loads of mine workings and underground structures, their computer programs and technical guidelines; application of those in specific projects;
  • Improvement of design methods for opening and development of sheet and vein deposits;
  • Research and development of a technology for mining deep levels of thick coal seams under difficult mining and geological conditions;
  • Development of methods for complex utilization of manganese deposits;
  • Development of pipe-line hydro-transportation systems (pulp-lines, oil and gas pipelines) safe and reliable operation complex events; elaboration of pipelines and equipment condition technical diagnostics advanced methodological principles;
  • Pipelines electricity transportation system, transient regimes, non-stationary processes investigation and hydraulic impacts protecting effective means and ways development;
  • Elaboration of pipelines and equipment hydro-abrasive wear investigation and reducing effective means and ways;
  • The ropeway transportation means, lifting transport devices and mechanisms.
  • Pipe-line hydro-transportation systems (pulp-lines, oil and gas pipelines) calculation, projecting, operation, expertise and monitoring problems related issues;
  • Projecting, modeling, calculation and expertise of ropeways and similar roping and axial systems;
  • Development of novel environmentally friendly explosives;
  • Research of the seismic effect caused by a single blast and development of techniques for reducing its harmful impact on engineering structures;
  • Perfection of blast operations in densely populated areas for reducing their harmful effect on natural and historic treasures;
  • Development of computer programs for determining optimal parameters of drilling and blasting operations;
  • Development of explosive compacting, hardening, welding and synthesis technologies;
  • Development of superhard materials production technology using shock waves and high initial temperatures;
  • Development of technologies for production of nanostructural composite materials;
  • Analysis and elaboration of methods for calculation of dynamic loads caused by explosion;
  • Development of systems for protection people and mining objects from explosion effect;
  • Systems for protection collieries from methane and coal dust explosion;
  • Establishment of properties of rocks and building materials and quality control;
  • Development of a novel sound-damping and low-heat building materials production technology and research methods;
  • Calculation and design of underground constructions and tunnels;
  • Chemical analysis of ores and their concentrates;
  • Analysis of water and soil (except of microbiological)
  • Technological testing of metallic and nonmetallic minerals by mechanical (gravitation, magnetic and electrostatic separation, flotation) and chemical (hydrometallurgy) methods for assessment of deposit economic potential
  • Improvement of current technological processes of mineral dressing;
  • Environmental problems of mining industry.

Facilities

The Institute has an underground experimental base for testing explosives with up to 100 kg of the TNT equivalent. Other equipment includes presses (TechPress2TM hydraulic-pneumatic automatic mounting press), test benches, optical microscopes, X-ray diffraction system X1 (Scintag, USA), and metallographic, chemical and diagnostic laboratory equipment.


Scientific Cooperation and Technology Transfer

The Mining Institute has close international scientific collaboration with research centers and Institutes of EU Countries: Germany (Clausthal University of Technology), Greece, Netherlands, Poland, Spain, Bulgaria, Czech Republic; USA (Los-Alamos National Laboratory, US Army Research Laboratory, Lawrence Livermore National Laboratory, Georgia Institute of Technology, South Dakota School of Mines and Technology, University of San Diego, Center for Infrastructure Protection and Physical Security of University of Florida); Russia (Semenov's Institute of Chemical Physics in Chernogolovka, Institute of High Pressure, Novosibirsk Institute of Hydrodynamics); Ukraine (Institute of Nature Management Problems and Ecology National Academy of Sciences of Ukraine, Dnipropetrovsk, Paton's Institute of Electrical Welding, Dnipropetrovsk State Design Bureau "Yuzhnoye" etc.), Armenia (A.B.Nalbandyan Institute of Chemical Physics NAS RA), Kazakhstan (Combustion Problems Institute), etc.


Participation in Scientific Projects

G.Tsulukidze Mining Institute has participated in a number of scientific projects funded by Shota Rustaveli National Science Foundation (Georgia), International Science & Technology Center (ISTC), Science and Technology Center in Ukraine (STCU), US Civilian Research & Development Foundation (CRDF), Georgian Research and Development Foundation (GRDF), NATO Science for Peace and Security Programme (SPS), International Association for the promotion of cooperation with scientists from the independent states of the former Soviet Union (INTAS), Japan International Cooperation Agency (JICA).


In 2014 3 testing laboratories of G.Tsulukidze Mining Institute obtained accreditation.


1. Explosives Research and Blasting Technologies Testing Laboratory

Accreditation area: explosives

Accreditation certificate number: GAC-TL-0072

http://gac.gov.ge/acredit/1__samto intitutis fetqebadi laboratoria.pdf

2. Rock, Construction Material Properties and Quality Control Testing Laboratory

Accreditation area: rock products, surfacing and road materials: concrete, soil, rock

Accreditation certificate number: GAC-TL-0071

http://gac.gov.ge/acredit/1__SAMTO INT SAMSHENEBLO MASALEBI.pdf

3. Testing Laboratory for Preparation Grounding Resistance

Accreditation area: measuring grounding resistance

Accreditation certificate number: GAC-TL-0073

http://gac.gov.ge/acredit/1_971_gamxomi wulikidzis.pdf