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“CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

“CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

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Page 1: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

“CSRI KURS” JSC

Presentation #2 Inspection of water development facilities and water areas

Page 2: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Contents

2. Key Aspects of Water Development Facilities and Water Areas Inspection

3. Laboratory Capabilities

1. Laboratory Services (Types of Work Performed)

4. Russian Market Potential

5. Experience of “CSRI KURS” JSC Specialists

6. Pricing Policy

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6

11

16

18

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Appendix 23

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Page 3: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Laboratory Services(Types of Work Performed)1

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Page 4: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

The laboratory ensures implementation of

Hydrographic Survey ActivitiesHydrographic Survey Activities

Engineering Hydrometeorological Activities

Engineering Hydrometeorological Activities

Scientific Research ActivitiesScientific Research Activities

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1. LABORATORY SERVICES (TYPES OF WORK PERFORMED)

Page 5: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Main types of work performed by mobile laboratory

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1. LABORATORY SERVICES (TYPES OF WORK PERFORMED)

Page 6: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Key Aspects of Water Development Facilities and Water Areas Inspection2

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Page 7: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Water development objects and facilities where an accident may result in the largest catastrophes and the most damage

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2. KEY ASPECTS OF WATER DEVELOPMENT FACILITIES AND WATER AREAS INSPECTION

Dams and thermal power stations River and sea waterways

Ports and berths

Shipping locks

Page 8: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Water development facilities inspection is of great importance due to existing risks of accidents and catastrophes (including those of anthropogenic origin).

Importance of water development facilities inspection

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2. KEY ASPECTS OF WATER DEVELOPMENT FACILITIES AND WATER AREAS INSPECTION

Water development facilities from all over the world are considered to be among the most secure facilities, however, if past experience is anything to go by, accident-free operation of water retaining facilities can not be 100 percent guaranteed.

Water development facilities from all over the world are considered to be among the most secure facilities, however, if past experience is anything to go by, accident-free operation of water retaining facilities can not be 100 percent guaranteed.

Quantity of water development facilities in Russia, including those in abeyance: 37,250

Fig.1 Type-based distribution of water development facilities, %. Fig.2 Data collected from supervisory authorities in charge of water development facilities state control

(danger level according to the data collected from Registration and Cadastre Centre of the Federal Water Resources Agency of the Russian Federation)

Quantity of potentially hazardous objects in the given industry is more than 16 %. The specialists believe that the total amount of hazardous objects with regard to hydrodynamics is approximately 800, while the size of population living in the areas of direct life and health risks caused by possible object accidents exceeds 7 million people.

Quantity of potentially hazardous objects in the given industry is more than 16 %. The specialists believe that the total amount of hazardous objects with regard to hydrodynamics is approximately 800, while the size of population living in the areas of direct life and health risks caused by possible object accidents exceeds 7 million people.

Page 9: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Causes of Accidents

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2. KEY ASPECTS OF WATER DEVELOPMENT FACILITIES AND WATER AREAS INSPECTION

More than 100 000 water retaining structures have been built around the world including an approximate amount of 35 000 big- and small-size dams. The given problem is considered to be critical due to long-term (for 30-50 years or longer) operation of the most part of big-size water retaining structures.

Spillways and floodgates of hydropower plants are among the most damaged structures. The common types of damage are the destruction of concrete surfaces of facility structural elements located in the area of a variable water level, as well as integrity damage caused to breakwater systems and tailwater dam face protection. Occasionally the damages are accompanied by underscouring and lowering of concrete slabs and dam face protection.

35% of cases out of 300 dam accidents over a 175-year period (resulting in dam break) from all over the world were results of exceeded estimated spillway flow rate (water overflow over the dam crest).

35% of cases out of 300 dam accidents over a 175-year period (resulting in dam break) from all over the world were results of exceeded estimated spillway flow rate (water overflow over the dam crest).

Page 10: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Industry Regulations

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2. KEY ASPECTS OF WATER DEVELOPMENT FACILITIES AND WATER AREAS INSPECTION

HSR № 4Hydrographic Service Regulation № 4. Scanning of navigable maritime area seabed and inland waterway floor profiles.

The regulations specify the implementation of floor profile scanning required for maritime navigation mapping and providing of secure ship sailing.

HSR № 4Hydrographic Service Regulation № 4. Scanning of navigable maritime area seabed and inland waterway floor profiles.

The regulations specify the implementation of floor profile scanning required for maritime navigation mapping and providing of secure ship sailing.

Federal LawOn industrial safety at hazardous manufacturing entities.

The law specifies the approach to ensuring industrial safety at hazardous manufacturing entities (hereinafter - industrial safety, safety at hazardous manufacturing entities), i.e. providing life and health protection for individuals and society as a whole from accidents at manufacturing entities, as well as from the consequences of the given accidents.

Federal LawOn industrial safety at hazardous manufacturing entities.

The law specifies the approach to ensuring industrial safety at hazardous manufacturing entities (hereinafter - industrial safety, safety at hazardous manufacturing entities), i.e. providing life and health protection for individuals and society as a whole from accidents at manufacturing entities, as well as from the consequences of the given accidents.

Code of Practice SP11-104-97, Part III Engineering hydrographic works in the scope of engineering surveys for construction.

Regulations for hydroacoustic works: -preparation of various design documentation for water development facilities; -monitoring (set of work during opening and closing of dikes, cannal dam construction, as well as during reservoir storage replenishment activities)

Code of Practice SP11-104-97, Part III Engineering hydrographic works in the scope of engineering surveys for construction.

Regulations for hydroacoustic works: -preparation of various design documentation for water development facilities; -monitoring (set of work during opening and closing of dikes, cannal dam construction, as well as during reservoir storage replenishment activities)

Page 11: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Capabilities of Laboratory and of “CSRI KURS” JSC Specialists 3

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Page 12: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

The laboratory ensures implementation of works for the following facilities and objects

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3. CAPABILITIES OF LABORATORY AND OF “CSRI KURS” JSC SPECIALISTS

Page 13: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Inspection of Underwater Parts of Water Development Facilities

Fig.3 Underwater parts of water development facilities

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3. CAPABILITIES OF LABORATORY AND OF “CSRI KURS” JSC SPECIALISTS

Measurement depth:+0.5 ... -80 m

Laboratory equipment ensures capability to inspect underwater structures of water development facilities.

Dam concrete

walls

Breakwater systems

Dam faces

Port moorage

walls

Shipping lock

chambersetc.

Page 14: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Exploration of river canals and reservoir storage water areas

The optimal (minimal available) depth of river canal (any water area) for mobile laboratory equipment is 80 meters.

Allowable water area depth for expedition-type work (including sea and ocean areas) is up to 2000 meters.

Fig.4 Navigable river canal

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3. CAPABILITIES OF LABORATORY AND OF “CSRI KURS” JSC SPECIALISTS

Exploration of areas with depth exceeding 80 meters is performed with additional technical equipment

Page 15: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

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3. CAPABILITIES OF LABORATORY AND OF “CSRI KURS” JSC SPECIALISTS

Collecting, processing and analysis of hydrographic and hydrologic data for various water areas

Example 2. Hydroacoustic imaging of underwater objects located at the bottom (water area of a hydropower plant, September, 2012).

Fig.5

Example 1. 3-dimensional image of a water area bottom.

Fig.6

The following specialized licensed software is used to perform data analysis: HyPack, Trimble Business Centre, Geonix (survey, topographic plan), Aqua.

Page 16: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Russian Market Potential4

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Page 17: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Laboratory capabilities in the context of services market

Fig.7 Spatial distribution chart of water retaining structures on the territory of the Russian Federation

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4. RUSSIAN MARKET POTENTIAL

At present mobile laboratory designed by “CSRI Kurs” JSC is capable of providing inspection and exploration services for more than 50% of the whole Russian market of all-class water development facilities.

Market volume 37250 facilities

including facilities of I-II classes

9016

The laboratory intends to provide services for:

40% of the whole market, including 20% of the I- and II-class facilities market

Page 18: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Experience of “CSRI KURS” JSC Specialists5

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Page 19: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Fig.8 Company's consolidated experience chart

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5. EXPERIENCE OF “CSRI KURS” JSC SPECIALISTS

Experience of our company and our specialists Our specialists are greatly experienced in the work of the following types:

•inspection of underwater sections of main pipelines (oil and gas); •inspection of underwater parts of water development facilities (hydropower stations, shipping

locks, and ports);•search and coordination of objects operating at the water area bottom;•depth sounding and bathymetric charts generation.

Total area of explored water areas

Number of inspected water development

facilities

Total length of inspected pipelines, km

Number of completed projects

III-IV classes 120 sq.km 3 more than 70 48

I-II classes

Other types of work Archaeological work activities in water areas 1

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Pricing Policy6

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Page 21: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Cost determination of works on water development facility inspection

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6. PRICING POLICY

Cost of work is considered to be a compound value based on estimated calculation that takes into account regional coefficients, pre-defined tasks (project complexity). Pricing significantly depends on the factors enlisted to the left in the figure 10.

Overhead expenses and cost of preliminaries constitute about 40 % of the estimated cost of work.

Based on the projects completed before specialists of “CSRI Kurs” JSC have determined an average notional cost of work performed:

Million of roubles per 100 m2.

III-IV classes X,XX*

I-II classes X,XX** x Кshipping

*Cost of work is notional and serves only for averaged cost determination of work performed. The given pricing does not take into account inflation either. ** Cost of work is notional and serves only for averaged cost determination of work performed. Кshipping – shipping cost coefficient. The given pricing does not take into account inflation either.

Fig.10 Cost determination factors

Page 22: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Contact information:

Central Scientific Research Institute Kurs JSС Registered/mailing address: 34-a, Kirpichnaya Street, 105187, Moscow

Telephone: (495) 365-11-53Fax: (495) 365-11-14E-mail: [email protected]

Page 23: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Types of work performed by the laboratory:

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APPENDIX

Page 24: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Laboratory Configuration:

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APPENDIX

Mobile laboratory technical means configuration:

•estate car;•hydroacoustic, hydrologic and geodesic equipment;

•lightweight diving equipment;

•small-sized waterborne platform with outboard motor;

•means providing autonomous work; •tools for field assembling and fabrication of equipment accessories and mounting devices for

waterborne platforms and stationary structures.

Page 25: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

Laboratory Configuration:

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APPENDIX

Hydroacoustic, hydrologic and geodesic equipment: •Reson NaviSound 620 Echo Sounder with TC 2122 Dual-Frequency Transducer (33/200 kHz)

Beam pattern - 9 degrees, scanning inaccuracy - 0.5% of the depth measured for depths up to 100 meters, maximum operating depth - 1200 meters.

•Neman DGBO 250/500 Side-Scan Sonar Slant range resolution (HF) - up to 0.04 meters, swath width - from 4 to 7 depths per board, maximum operating depth - 80 meters.

•Trimble R8 Geodesic GNSS System The system ensures sub-decimeter precise positioning in RTK mode.

•Vega L30 Level RMS error - not more than 0.03 m per 1 km of a double levelling line.

•HyPack, Trimble Business Centre, Geonix (survey, topographic plan), Aqua Software. •GR 21M Hydrometric Current Meter with Potok Velocity Meter.•Profil Sound Velocity Distribution Meter, measurement limit - up to 1700 m/s.•VelociCalc 9565-P Heated-Wire Velometer.•Remotely Operated Unmanned Underwater Vehicle

Operating depth - up to 500 meters.

Page 26: “CSRI KURS” JSC Presentation #2 Inspection of water development facilities and water areas

CSRI Kurs JSC is a member of non-profit partnership self-regulatory organization “NP SRO Neftegazizyskaniya-Alyans”

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APPENDIX