Jsc Sstc Structure

STATE SCIENTIFIC RESEARCH CENTER OF RUSSIAN FEDERATION

Saint-Petersburg 2014

3/3/2016 JSC SSTC STRUCTURE

Sudotekhnologiya Founded in 1939 Research and Production Company

Soyuzproektverf Design Company

Armas Design Bureau

Vostok Design Bureau

Rumb Research Center

Personnel: over 1000, Foreign Economic Company including 9 Doctors of Science and 35 Candidates of Science 295 interns SSTC Moscow Representative Office 2

www.sstc.spb.ru MAIN FIELDS OF ACTIVITY

Development of Creation, re-equipping, Technological support of ship and advanced technologies modernization, and retrofitting of vessel design and construction for shipbuilding shipbuilding enterprises

Design- and technological support of on-shore basing, Desig in of fifihishing, fihfish- maintenance and repair of processing and research vessels ships

Developppgment and producing Development of nuclear-powered of the new-generation ship and nuclear support vessel shipboard pipeline fittings disposal technologies

Carrying out of industrial and inter- Development and producing of Information industrial functions (labor protection, technological equipment technologies environment protection, etc.) 3

www.sstc.spb.ru PROJECTS OF CONSTRUCTION, RENOVATION AND RETROFITTING OF SHIPBUILDING FACILITIES

4 PROJECTS OF CONSTRUCTION, RENOVATION AND RETROFITTING OF SHIPBUILDING FACILITIES

. Yards for construction and repair of any type ships

. Ports, port loading facilities for containers and general cargoes, oil and gas terminals

. Plants constructing floating reinforced-concrete and metal berths, floating pump stations for land reclamation

. Hydraulic structures (dry docks, slips, sloped and horizontal building jigs, quays, piers, dams etc.)

. Power supply facilities (transformer substations, HP and LP compressor sttitations, gasifica tion sttitations, bilboiler pltlantsetc.)

. Environment (air, soil, water) protection facilities

www.sstc.spb.ru PROJECTS OF CONSTRUCTION, RENOVATION AND RETROFITTING OF SHIPBUILDING FACILITIES Reconstruction and modernization of facilities at JSC DVZ ZVEZDA

www.sstc.spb.ru PROJECTS OF CONSTRUCTION, RENOVATION AND RETROFITTING OF SHIPBUILDING FACILITIES New shipbuilding facility on the island of Kotlin

Annual metal processing, thousand tons 140.0 Total number of employees, men 5100 Total area, ha 140 Construction duration, months 60 7

www.sstc.spb.ru PROJECTS OF CONSTRUCTION, RENOVATION AND RETROFITTING OF SHIPBUILDING FACILITIES

Specialized production lines for construction, trials and outfitting of nuclear powered submarines, JSC Sevmash

www.sstc.spb.ru PROJECTS OF CONSTRUCTION, RENOVATION AND RETROFITTING OF SHIPBUILDING FACILITIES

Reconstruction and modernization of facilities at JSC Zvezdochka for submarines’ repair

www.sstc.spb.ru PROJECTS OF CONSTRUCTION, RENOVATION AND RETROFITTING OF SHIPBUILDING FACILITIES JSC Admiralty Shipyards: relocating production facilities from Novoadmiralteysky Island

www.sstc.spb.ru PROJECTS OF CONSTRUCTION, RENOVATION AND RETROFITTING OF SHIPBUILDING FACILITIES JSC Shipbuilding plant “Northern Shipyard”

www.sstc.spb.ru PROJECTS OF CONSTRUCTION, RENOVATION AND RETROFITTING OF SHIPBUILDING FACILITIES Reconstruction and modernization of facilities at JSC Sevmash and JSC Zvezdochka for construction of offshore equipment

www.sstc.spb.ru ENGINEERING SUPPORT FOR SHIP CONSTRUCTION

13 RESEARCH ACTIVITIES IN THE AREAS OF:

. Full-size simulation of assembly and welding of hull structures . Hull structures welding with adaptive computer-controlled equipment . Simulation of complex engineering systems and processes . Cold bending of blanks of shipbuilding steels by local and rotary local deformation techniques . Installation of nuclear power pp,lants, pppropulsion pp,lants, and complex elements of shipboard equipment, on the basis of latest IT achievements . Fabrication and installation of shipboard pipelines upon studies based on the new techniques of solid-state modeling . Installation and repair of weapons and sensors . Information technologies and electronic measurement systems . Hydro-acoustic coating application techniques . Examination of acoustic properties of the advanced materials and universal air noise and vibration protections . Assessment of tightness of radiation and environmentally dangerous facilities for designing, construction and operation thereof . Research studies and gathering knowledge in the safety of the nuclear power facilities . Development of shipboard pipe fittings using new materials with better performance 14

www.sstc.spb.ru PRINCIPAL TECHNOLOGIES FOR SHIP CONSTRUCTION

HULL PLATING SHOP

PIPE FITTING ASSEMBLY / WELDING PAINTING / INSULATION SHOP SHOP SHOP

MECHANICAL INSTALLATION BERTH OUTFITTING SHOP FACILITIES SHOP

ACCEPTANCE FACILITIES

www.sstc.spb.ru TECHNOLOGICAL AND LOGISTICS PROJECTS OF SHIPYARD’S SHOPS

Shop simulation model interface

Calculation and simulation of shipyard material flow 3D models of shipyard shops 16

www.sstc.spb.ru ENGINEERING SUPPORT FOR SHIP CONSTRUCTION

. Principal technology for ship construction and repair, organization of shipbuilding production . Technologies and equipment for hull fabrication, assembly and welding, and mechanical installation facilities . Techniques and aids for survey and trials of ships . Composite material recycling technologies, environmentally dangerous object disposal technologies, labor protection . Development of automated preproduction engineering systems

www.sstc.spb.ru MECHANIZED INSTALLATION AND PIPE FABRICATION TECHNOLOGIES

. Technologies and equipment for installation and repair of power plants, propulsion systems, gears and systems . Technology for installation of shipboard seamless piliipelines . Technologies for modular equipment installation method duringgp construction of ships . Technologies for high-precision measurements during construction and repair of ships

Spigot-and-faucet compensating Pipe shop at shipbuilding yard pipe branch for non-ferrous pipelines

Spigot-and-faucet compensating pipe branch for steel pipelines

www.sstc.spb.ru VERIFICATION USING 3D MEASUREMENT SYSTEMS

Introduction of 3D measurement systems 3 will lead to: . Robotization of assembling processes in 2 shipbuilding industry . Reducing of assembly work scope by 70-80% for assembling of blocks and whole ship . Wide application of industrial ship construction methods: use of prefabricated blocks and sections . Estimated construction labor input drop by minimum 25-30% Use of 3D systems for fabrication of 3D section: 1 4 5 1.3D section 2. laser transponders 6 3. laser radar 4. reference points of the section 5. portable receiver + PC 6. receiver to be fastened in place 19

www.sstc.spb.ru ADVANCED TECHNOLOGIES FOR ASSEMBLY AND WELDING

. Optimization of assembly and welding of complex 3D structures of ships on the basis of finite element method calculations

. Development and introduction of technology and equipment for low-frequency vibration treatment

. Selection of optimum technology and development of actions aimed to reduce and compensate welding deformations, on the basis of assembly and welding simulation, are intended to reduce welding residual deformations and lesser labor input for fabrication of weld structures

. Low-frequency vibration treatment is purposed for reducing of residual stresses in weld structures, stabilizing their

shape and size, and improvement of cyclic fatigue strength 20

www.sstc.spb.ru TECHNOLOGIES FOR MANUFACTURING OF LNG CARRIERS MEMBRANE TANKS

JSC Northern Design Bureau in cooperation with GTT developed a project of LNG carrier with capacity of 79000 m3 SSTC developed the project for technical support of LNG-carriers construction on JSC Baltic shipyard Advanced design and technological solutions: . Variable fuel engine (heavy fuel/diesel fuel/carried gas –methane) . Latest GTT design – shape of bow tank with capacity increased to 79000 m3 . Effective hull shape enable the ship to achieve 18 knots max. speed with less engine power . Superstructure shifted to the bow thus increasing cruise safety and reducing vibration in living compartments and service rooms

www.sstc.spb.ru DESIGN AND PRODUCTION OF PROCESS EQUIPMENT

22 DESIGN AND PRODUCTION OF PROCESS EQUIPMENT

. Process equipment for hull fabrication, welding, piping, and mechanical installation shops . Equipment for ship disposal, composite material ppgrocessing, radioactive materials handlin g . Ship construction, lifting and launching equipment . Electric drives, electric equipment, control systems

www.sstc.spb.ru THERMAL CUTTING TECHNOLOGIES AND EQUIPMENT

Various kinds of thermal cutting can be used: . plasma . oxygen . laser

Thickness of pp()late to be cut (mm) … 4 to 100 (plasma) ……to 200 (oxygen) ..………to 20 (laser) Travel speed (m/min) …………………..………0.07-12 Travel error over 8 m (mm)…………...... …………± 0.5 Maximum width of plate (mm) . ……..…..3200 Rated power (kVA) ……………… …………….…. 135

www.sstc.spb.ru TECHNOLOGY AND EQUIPMENT FOR LASER CUTTING, MARKING AND LABELING WITH FIBER OPTIC LASERS Automatic precision cutting, marking and labeling of plates up to 2.5 x 10 m Max. cutting error 0.05-0.1 mm throughout the entire plate length Thickness of plates from 1 to 20 mm 2-5 times power and operational savings in comparison to gas laser machines

www.sstc.spb.ru ROBOTIZED SET OF EQUIPMENT FOR PROCESSING AND ASSEMBLY OF ROLLED METAL

Robotized line of equipment for processing rolled metal up to 12-23 m length . Robotized plasma welding of components . Automatic labeling of components . Automatic component layout, inc. tracing of «rectifiable curves» . Components assembly

www.sstc.spb.ru TECHNOLOGY OF ROTARY LOCAL FORMATION OF PLATES

The technology offers: . 4-6 times lower power consumption. . 17-30 times lower metal consumption as die tooling and test tooling are not required

Multifunctional bending and . 4-5 times lower labor inppgut of bending straightening machine MGPS-25 . Bending and shape testing are fully automated Maximum bending force (kN) – 250 to 1000 Maximum plate thickness (mm) – 20 (MGPS-25) or 30 (MGPS-100) Maximum plate width (mm) – 2500 Parts for Zubr-type hovercraft

MGPS-50 Parts for driver cabin of MGPS-100 the new generation electric train

www.sstc.spb.ru MULTIFUNCTIONAL BENDING AND STRAIGTHENING MACHINES

MGPS-25 MGPS-100 Max imum bendi ng force (kN) – 250 Max imum bendi ng force (kN) – 1000 Maximum plate thickness (mm) – 20 Maximum plate thickness (mm) – 30 Maximum plate width (mm) – 2500 Maximum plate width (mm) – 2500

10 bending machines MGPS-25 were supplied to First bending MGPS-100 were supplied to JSC Sredne-Nevsky Shipyards, JSC Habarovsk JSC Northern Shipyard and to Indian Shipyards. Shipyard, JSC Almaz Marine Yard, and others

www.sstc.spb.ru COMPLEX OF EQUIPMENT FOR MECHANIZED ASSEMBLY AND ROBOTIZED WELDING OF MICROPANELS

A complex is designed for mechanized assembly and robotized welding of micropanels, including following operations: . mechidhanized positiitiioning and tkitacking of webs; . laser scanning with photogrammetry of operation zone; . automatic data processing and generation of control program for the robot; . robotized welding of micropanels. Robotized complex allows to: . implement unattended manufacturing of wide ranggpp;e of ship hull panels; . make welding joints of guaranteed quality; . increase productivity of welded structures manufacturing in 1.5-2 times by reducing time required for preparation and final welding stages; . reduce consumption of welding materials in 1.2-1.3 times due to metering consumption rate; . reduce power consump tion for straightening. 29

www.sstc.spb.ru COMPLEX OF EQUIPMENT FOR LASER CUTTING AND HYBRID LASER/ARC WELDING OF FLAT PANELS

The complex is designed for precise automated processing (cutting and welding) of plate parts up to 3.2x12 m, including following operations: . laser groov ing (p late t hick ness up to 20 mm) ; . laser grooving with min angle 22.5. on each side with face root 14 mm; . single-pass hybrid laser/arc welding of butt joints; . hybrid laser/arc welding of stiffeners to flat panels.

Use of the complex allows to: . reduce specific energy consumption of welding in 2—2.5 times; . reduce welding material consumption by 40—60%; . increase welding productivity in 2--3 times; . minimize residual welding deformations and stresses.

www.sstc.spb.ru ROBOTIZED COMPLEX FOR PRECISE LASER CURING AND WELDING

The system is intended for automatic laser cutting and laser arc welding of complex- shaped 3D structures made of steel or various aluminum alloys for manufacturing of marine engineering articles and ship hull structures Main advantages of the complex: . Performing welding and cutting at one position without shifting the article; . Processing of complex-shaped 3D structures in any position; . High productivity; . Wide range of processed materials thickness; . High reliability and low operational costs.

www.sstc.spb.ru ROBOTIZED COMPLEX FOR WELDING OF MARINE ENGINEERING ARTICLES The complex is intended for welding of thin-walled parts to massive structures, including those in hard-to-reach places, e.g. heat exchangers tube plates, pump drive units, etc. Implemented technologies: Main advantages of the complex: . Manufacturing of tube plates; . Welding-in of tubes of any cross-section . Welding in hard-to-reach places. itinto ttbube pl ltate; . High speed and productivity of welding; . Weldinggg of high-alloyypped steel and copper alloys; . High positioning accuracy; . High reliability and low operational costs.

www.sstc.spb.ru MACHINES FOR WELDING AND WELD REINFORCEMENT OF THICK-WALL CONSTRUCTION Opening Preparation Welding Machine “Vertical-S” / Seam Reinforcement Build-up Machine “Vertical-N” Designed for single-pass welding / build-up to reinforce weld seams with length up to 3,2m in shield gas environment in vertical position of vessel heavy-wall constructions and shelf conversion aids with thickness up to 100mm Scope of use: pipe line up conveyors on shipbuilding enterprises, chemical industry and oil and gas industry Application of machines allows: . To reduce welding labor intensiveness in 1.3—1.5 times; . To increase quality of manufactured structures; . To reduce secondary technological operations by 75-90%. . To reduce prime cost for manufacturing by 15—20%;

Vertical-S Vertical-N Material Low-alloyed, high-strength and cold-resistant steel Welding thickness, mm to 100 Filler wire diameter, mm 1.2 – 3.0 Filler wire feed speed, m/h 120 - 960 100 - 720 Welding speed, m/h 0.8 -12.0 0.8 – 15.0 Weight, kg 300 (1250 with frame) 33

www.sstc.spb.ru ALUMINUM ALLOY SEMIAUTOMATIC PLASMA WELDING TECHNOLOGIES

Advantages: . 1.5-2 times higher productivity . 20-25% less labor input for thin sheet welding . 10-15% less electric power and welding material consumption . smooth transition from built-up metal to the parent metal for higher fatigue strength of the joint . strength and plasticity of welds equal to ones of the parent metal . cathodic removal of oxides and other inclusions from surfaces to be welded

PPN-200 semiautomatic plasma welding machine

APS-300 automatic plasma welding machine 34

www.sstc.spb.ru PIPE BENDING MACHINES

UTG-IN machine for bending pipes STM-1M machine for bending dia.45 to 219 mm, iidnducti ve heat ing pipes dia.14 to 60 mm 35

www.sstc.spb.ru TECHNOLOGY AND EQUIPMENT FOR SHOT-BLAST CLEANING

Buran-5M and Buran-6M shthot-blas ting machines for dustless abrasive cleaning Vihr-2M shot-blasting machine, with closed shot blast

MtlMetel-50 shthot colltillection and regeneration device 36

www.sstc.spb.ru INFORMATION TECHNOLOGIES IN SHIPBUILDING

37 INFORMATION TECHNOLOGIES

Simulation and visual modeling of production processes at the shipyard Problems that can be solved: . Material flow planning . Optimization of process equipment stock . Optimization of process equipment operation modes . Planning of process equipment arrangement . Shop throughput capacity calculations . Shop visual modeling Expected effects: . 15-20% lower labor input of designing activities . 10-15% lower project cost . more attrac tive an d reasona ble pro jec ts

www.sstc.spb.ru DESIGNING OF FISHING, FISH-PROCESSING AND RESEARCH VESSELS

39 DESIGNING OF FISHING, FISH-PROCESSING AND RESEARCH VESSELS

Development of detail designs and working documentation for construction and repair of ships Large multifunctional refrigerator fishing trawler ttype 11480 The company has developed designs for more than 800 various seagoing ship: large, medium and small fishing vessels, series of research vessels for versatile geological and geophysical researches of Russian and Medium fishing refrigerator worldwide continental shelves trawler, type 13728

Bilge / sewage water, mud, and garbage collector vessel, type 21460

Fishery guard ship, ttype 6457S, for Russi an Coast Guard 40

www.sstc.spb.ru LARGE REFRIGERATING TRAWLER, type 11480

Application Sea and oceanic fishing in distant area; fishing with bottom/pelagic trawls; fish processing into frozen proddtucts; prodtiduction of tidtinned pollac k / codfish liver; processi ng of iidiblnedible catc h and offlffal into food flour, industrial oil, and semi-finished pharmaceutical oil; product storage and delivery to port or transfer to collection refrigerators at sea

. LOA хВreadth х Depth, m – 130.5 х 19.0 х 13.6 . Speed, knots – 15 . Cargo hold capacity, m3 – 4 000 . Propulsion plant power, kW - 5 000 Equipment allows: . to catch up to 360 tons of fish within 24 hours . to freeze up to 200 tons of products per day . to process up to 120 tons of raw stock per day

www.sstc.spb.ru MEDIUM REFRIGERATING TRAWLER, type 22970

Application Fishing with bottom/pelagic trawls, snurrevaad, purse seine; production of frozen products from processed and non-processed fis h, fis h flour; trans fer o f pro duc ts to transpor t re fr iigera tors a t sea or delivery to port . LOA хВreadth х Depth, m – 70.2 х 14.6 х 11.0 . Cargo hold capacity, m3 – 1 120 . Operation area: Sea of Okhotsk, Sea of Japan, Bering Sea, North-East Pacific . The equipment can process up to 60 tons of frozen products within 24 hours

www.sstc.spb.ru MEDIUM REFRIGERATING TRAWLER, type 13728

Application Fishing with bottom/pelagic trawls and snurrevaad; taking fish from the fishing vessels; transfer of produc ts to transpor t re fr iigera tors at sea or dlidelivery to por t; pro duc tion of frozen fihfish pro duc ts of dressed or undressed fish under Russian standarts, of frozen caviar, and food/feed fish farce . LOA х Вreadth х Depth, m – 48.6 х 12.5 х 7.9 . Speed, knots – 12.7 . Cargo hold capacity, m3 – 770 . Propulsion plant power, kW - 2 950 . Operation area: North Atlan tic, Barent s Sea, Norwegian Sea, Sea of Okhotsk, Sea of Japan, Bering Sea, North-East Pacific . The equipment can process up to 55 tons of frozen products within 24 hours

www.sstc.spb.ru MEDIUM REFRIGERATING TRAWLER, type 19960

Application Fishing with bottom/pelagic trawls, taking fish from the fishing vessels, production of frozen fish products, product storage and delivery to port or transfer to collection refrigerators at sea . LOA хВreadth х Depth, m – 40.4 х 11.0 х 7.15 . Speed, knots – 13.0 . Cargo hold capacity, m3 – 500 . Propulsion plant power, kW - 2 478 . Operation area: the Atlantic, seas of the Arctic Ocean . The equipment can process up to 40 tons of frozen products within 24 hours

www.sstc.spb.ru SMALL REFRIGERATOR TRAWLER, type 21060

Application Fishing with pelagic trawls, production of undressed fish, production of frozen fish and transfer of products to transport refrigerators in fishery coastal district or delivery to port . LOA х Breadth х Depth, m – 28.15 х 9.0 х 3.6 . Speed, knots – 10.0 . Cargo hold capacity, m3 – 200 . Propulsion plant power, kW - 1 215 . Operation area: unrestricted . The equipment allows to storage frozen products at –28°С

www.sstc.spb.ru SMALL FISHING VESSEL, type 22210

Application Fishing with pelagic trawls, taking fish from the fishing vessels, transfer of products to transport refrigerators in fishery coastal district or delivery to port . LOA х Breadth х Depth, m – 28.15 х 9.0 х 4.5 . Speed, knots – 11.0 . Cargo hold capacity, m3 – 200 . Propulsion plant power, kW – 1 070 . The equipment allows to storage frozen products at –20°С . Operation area: 1st restricted

www.sstc.spb.ru RESEARCH VESSEL, type NIS-75

Application: Survey of existing aquatic biological resources in World ocean, particularly as per international programs Various trawling-acoustic surveys of hydrobionts, study of oceanological conditions for development of water biological productivity, monitoring of commercial hydrobionts environment, estimation of forage resources condition and distribution, fishing with bottom and pelagic trawls for scientific purposes . LOA х Breadth х Depth, m – 75.0 х 14.0 х 10.0 . Displacement, tons – 3 800 . Speed, knots – 15.0 Operation area: Atlantic, Pacific and Indian Oceans, seas of Arctic and Antarctic regions Scientific laboratories: hydroacoustic, ichthyygological, hyyg,drological, hydrochemical, hydro-biological, submarine studies, container laboratories, flight and submersible vehicles

www.sstc.spb.ru FISHERY GUARD SHIP FOR THE RUSSIAN BORDER SERVICE, type 6457C

Application: patrol duties in the Russian Federation’s fishing areas, verification of compliance to fishing regulations, seizure and delivery to port of illegal fishery gears and vessels

. LOA х Breadth х Depth, m – 59.1 х 10.8 х 6.3 . Displacement, tons – 900 . Speed, knots – 21,3 . Propulsion plant power, kW – 5200 . Navigation area: unrestricted . Operation area: Russian maritime 200-mile economic zone

www.sstc.spb.ru BILGE \ GREY WATER, MUD, AND GARBAGE COLLECTING VESSEL

Application Collecting oily waters, mud, grey waters, and garbage from ships, transportation and discharge to a shore facility Cargo tank capacity (m3): . Grey water – 164.0 . Oily water – 169.0 . Mud – 141.0

2 vessels were build: . at JSC Byborg Shipyard in 2002 (for Primorsk port, LiLeningrad RRiegion) . at FEP Zvezda in 2005 (for Vostochny port)

www.sstc.spb.ru DEVELOPMENT AND FABRICATION OF SHIPBOARD PIPE FITTINGS

50 DEVELOPMENT AND FABRICATION OF SHIPBOARD PIPE FITTINGS

Cock, globe, straightway, Valve, bronze, stop, Valve, with solenoid drive. Valve, ball, stop, hydraulic operation. angle, hydraulic and Dn 3-6mm; Pn 0.6-5.5 MPa eltilectric operation Dn 200mm; Pn 10 MPa manual operation. Conducted medium: air Dn 10 mm; Pn 1.0 MPa Conducted medium: sea Dn 150mm; Pn 4.5 MPa Conducted medium: sea water within -2 to +50˚C Conducted medium: sea water within 0 to +50˚C water within -2 to +50˚C

Total volume of developed pipe fittings makes up about 25 000 types, includingg,ppgypp more than 10,000 pipe fittings of various types and sizes were developed for the Russian Navy ships 51

www.sstc.spb.ru FOREIGN ECONOMIC ACTIVITIES

52 FOREIGN ECONOMIC ACTIVITIES

Development, modernization Setting-up on shore infrastructure and reequipment of shipbuilding for stationing of ships entreprises

Development of information Procurement and Training of foreign specialists technologies for shipbuilding technical assistance in Development of principal equipmen t ins ta lla tion technologies for ship building 53

www.sstc.spb.ru FOREIGN ECONOMIC COOPERATION

www.sstc.spb.ru SHIPREPAIR YARD X-52 IN THE BAY OF CAM RANH (VIETNAM)

2012 to date – New ship repair plant construction 55

www.sstc.spb.ru SHIPYARD AT ORINOCO RIVER (VENEZUELA)

2011 to date – New shipyard construction 56

www.sstc.spb.ru MAJOR FOREIGN POJECTS

Algeria 1980 – 1991 Shipbuilding workshops, Mers-el-Kebir Bulgaria 1978 – 1979 Dry dock, Varna China 1955 – 1962 Shipyard, Khulu Dao 2000 – date Shore stationing facilities for surface ships and submarines Egypt 1958 – 1969 Shipyard, Alexandria Greece 2000 – 2002 Shore stationing facilities for ZUBR type hovercraft Guinea 1966 – 1968 Shipyard, Conakry Hungary 1976 – 1979 Ship and crane bbildiuilding yard , BBdudapest India 1992 – date Shipyard, Visakhapatnam 1997 – date Shiprepair yards for type 11356 ships and armament repair facilities for type 877EKM ships, Mumbai and Visakhapatnam 2001 – date Shippprepair yyypards, Mumbai and Kochi, for type 11430 ships 2001 – date Stationing area, Karwar, for type 11430 ships 2004 – date Shiprepair yard HSL, Visakhapatnam, for type 877EKM ships Libya 1975 – 1982 Shiprepair workshops and shore stationing facilities Nicaragua 1992 – 1993 Geothermal power plant, San Jasinto RiRomania 197 1 – 1975 Ship bu ilding dry doc k, shiprepa ir dry doc k, Constantsa 1955 – 1994 Zaliv Shipyard, Kerch 1965 – 1967 Okean Shipyard, Nikolayev (dry dock) Ukraine 1960 – 1995 Chernomorskiy shipyard, Nikolayev 1985 – 1990 Sevastoppy,pol maritime yard, Sevastopol Venezuela 2011 – date Shipbuilding and shiprepair yard, Orinoco river Vietnam 1989 – 1990 Shiprepair yard Bashon 1989 Shipyard Bag Dong, Haiphong; Mechanical works No.2, Ho Chi Min 1993 Fishing vessel building and repair yard for “Sayership”, Ho Chi Min 2009 – dtdate NlNaval base, Kamran 2012 – date Shiprepair yard X-52, Kamran 57

www.sstc.spb.ru Thank you for your attention!

7, Promyshlennaya Street, St. Petersburg, 198095, Russia Tel.: +7 ()(812) 786-26-10, Fax: +7 ()(812) 786-04-59 www.sstc.spb.ru, e-mail: [email protected]