Propulsion & Power Generation : The Present. Challenges & Emerging Technologies. Future induction requirements

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Transcription:

Propulsion & Power Generation : The Present Volumes & Value Challenges & Emerging Technologies Future induction requirements Indian Navy expectations & requirements 2 2

3

Propulsion Plants Steam Turbines (11 33 MW) Diesel Engines (1.7 11 MW) Gas Turbines (3 22 MW) Power Generation Diesel Engines (8KW 3000KW) Steam Turbines 500KW 1000KW Gas Turbines 1000KW

. Prime mover Steam Gas Turbines Diesel Aircraft Carriers, Frigates, LPD Ships Power Approx Units Destroyers, Frigates, Missile Boats Tankers, Corvettes, OPVs, Survey, LST, LCU,FACs,Yardcrafts 11 MW to 33 MW 3 MW to 22 MW 1.7 MW to 11 MW 24 Boilers, 18 Turbines 154 200 + Prime mover GT/ Steam/ Diesel Reduction Gear Shaftline Propeller

. Propulsion Power Approx Cost Gas Turbine Diesel Engine Steam (Turbine + Boiler) Reduction Gear Shafting &Propellers 3 MW to 22 MW 1.8 MW to 11 MW 11.5 MW to 34 MW Matched with Engine power INR 12-80 Cr/ Unit INR 5-20 Cr/ Unit INR 40 125 Cr/ Unit INR 1.5-40 Cr/ Unit INR 1.25 30 Cr/ Unit Shaftline Gas/ Diesel/ Steam Red Gear Propeller

. Ship Propulsion Fit Cost @ Unit OPV 2 MDEs (Approx 8 MW each) 2 Reduction Gears 2 Sets of Shafting & Propellers Total Cost 15 Cr 2X15 = 30 Cr 5 Cr 2X5 = 10 Cr 5 Cr 2X5 = 10 Cr Acquisition Cost @ ship 30 + 10 + 10 = 50 Cr Life cycle Cost (LCC) @ ship 5 * 30+ 10*2+ 10*2 = 190 Cr For 1 OPV : Main propulsion : Acq Cost (50 Cr) + LCC (190 Cr) = 240 Cr~ 4 DG Sets : Acquisition Cost (4 Cr) + LCC (20 Cr) = 24 Cr ~ Shaftline Diesel Engine Red Gear Propeller

. Ship Propulsion Fit Approx Cost per Unit Frigate 2 GTs (Approx 22 MW each) 2 MDEs (Approx 6 MW each) Shaftline Gas Turbine+Diesel Eng Red Gear Propeller Approx Total Cost 80 Cr 2X80 = 160 Cr 15 Cr 2X15 = 30 Cr 2 Reduction Gears 12 Cr 2X12 = 24 Cr 2 Sets of Shafting & Propellers 20 Cr 2X20 = 40 Cr Approx Acquisition Cost per ship 160 + 30 + 24 + 40 = 254 Cr Approx Life cycle Cost (LCC) per ship 160*2+ 30*5+ 24*2+ 40*2= 598 Cr For 1 Frigate Main prop : Acquisition Cost + LCC = 852 Cr Approx

. Power Generator Gas Turbine Generators Diesel Alternators Steam TA Ships Power Range Approx Units Destroyers 1 MW 60 Carrier, Frigates, Corvettes Carrier, Steam Frigates 8 KW to 3 MW 400 + 750 KW to 1.5 MW 12 Prime mover GT/ Steam/ Diesel Alternator : O/P Voltage & Freq to meet Platform requirements

11

Components Matching Global Technology MIL Standards compliance Reliability Stringent Emission Norms Lower SFCs / Greater ɳ Stealth requirements Restricted Production Volumes Propulsion System Integration (PSI) Multidisciplinary & complex Overall propulsive ɳ is a function of PSI 12

High Power Density requirements Relieve space Smaller but loaded ships More flexibility in operation: Higher efficiency over large operating envelopes Stealth requirements 13

Low Life Cycle Cost Depleting fuel reserves Emission norms New Technologies 14

Integrated Full Electric Propulsion (IFEP) 15

16

Ships Fleet Support Ships, Shallow Water Crafts, MCMVs, LPD, Large Survey Vessel, Diving Support Vessel, Multipurpose Vessel, Barges, Yardcrafts etc. Propulsion/ Power Generation Diesel Propulsion Power range Propulsion 1.2 to 18 MW Associated Reduction Gears Associated Shafting, Propellers Diesel Generators Power Generation 50 kw to 1 MW Expected Units 160 190+ 17

Propulsion Type Power range Expected Units Approx Acquisition Cost / Unit Total Approx Acquisition Cost Diesel 1.1 to 18 MW 160 2.6 25 Cr 1327 Cr Gearbox & Shafting Matched with Propulsion 155 2.0 10 Cr 1221 Cr Acquisition Cost Approx * Life Cycle Cost ~ 2 to 5 times the Acquisition Cost Acquisition Cost (2547 Cr) + Life Cycle Cost (9076 Cr) ~ 11623 Cr 2547 Cr 18

Power Gen Type Power range Expected Units Approx Acquisition Cost / Unit Total Approx Acquisition Cost Diesel 50 kw- 1MW 190+ 0.25 5 Cr 307 Cr * Life Cycle Cost ~ 5 times the Acquisition Cost Acquisition Cost (307 Cr) + Life Cycle Cost (1536 Cr) ~ 1843 Cr 19

Equipment Main Propulsion Expected Units Approx Acquisition Cost Approx Life Cycle Cost Approx Total Cost 160 2547 Cr 9076 Cr 11623 Cr Power Gen 190+ 307 Cr 1536 Cr 1843 Cr Total 13466 Cr Total Approx Cost ~ 13,466 Cr 20

21

Indian Naval Indigenisation Plan (INIP) 2015-2030 Indigenous development IN-Industry synergy End to End Propulsion solutions New & efficient Technologies Development of equipment meeting stringent standards Modularity with a standard as well as well-defined minimum interfaces 22

Reliability Efficient life cycle performance Environmental effects Efficient Life Cycle Support 23

Diesel Engines for propulsion (6 and Boats being imported to 12 MW) No indigenous option presently Indigenous manufacture of medium power Diesel engines and small engines for boats under Make category Preliminary talks with Industry 24

Broad timelines for the project Advanced Planning & Consultation In progress. Mid May 16. Feasibility study 31 Aug 16 PSQR preparation 31 Oct 16 AON for prototype & final product 31 Mar 17 Prototype development - 2020 25

Govt funding of 90% of prototype development cost under Make-I category Volumes envisaged between 2019 to 2025 36 Nos Diesel Engines (6 to 12 MW) (AON accorded projects) 221 Nos Boat Engines 26

27

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Energy efficient Flexible Hybrid Silent CODAD CODOG CODAG CODAG- WARP CODLAG Combined Diesel & Diesel Combined Diesel or Gas Turbine Combined Diesel & Gas Turbine Combined Diesel & Gas Turbine Waterjet & Refined Propeller Combined Diesel-Electric & Gas Turbine 29

MIL / Def Stan Def Stan 02-313 Description Diesel Engine for Marine Propulsion and auxiliary machinery NES 1004 Requirement for design and testing of equipment to meet environmental condition MIL-STD-1472G Design criteria standard Human engineering Defence Standard 02-703 Thermal and acoustic insulation of hull and machinery MIL-STD-740-2 (SH) Structure-borne vibratory acceleration measurements and acceptance criteria for ship board equipment MIL-STD-1474 D Air borne sound measurements and acceptance criteria of shipboard equipment NES 309 Requirement of Gas Turbines 30

MIL / Def Stan Description MIL-S-901D Shock tests, high impact shipboard machinery and systems. IN Shock Grade A as per BR 3021 Requirement of High Impact Shock Grading MIL-STD-167-1(A) Mechanical vibrations of Shipboard equipment. NES 305 Requirement of Main Propulsion Gearing EED-Q-071 MIL-STD-461E/F Specifications for Motors and Starters for Naval ships (Indian Navy specifications) Requirements for control of EMI / EMC characteristics of equipment / subsystem 31

32

33

Water Jets o o o o o Sustain high speeds Rapid acceleration Extremely maneuverable Shallow draught system More efficient at higher speeds Propulsion Pods Free space inside ship Efficiency & maneuverability Field wound synchronous or induction motors Shock grading mandatory 34

Electronic Injectors o Micro processor based o Increased Part Load Efficiency o Low Emissions o Low SFC Fuel Cell o High efficiency o Low Emissions o High Power Density o Reduced intake/ Exhaust Ducting 35