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⚡
MARINE ENGINERRING
SHIPS DISCUSSED: 1:KMS BATTLESHIP- BISMARCK
2:QUEEN ELIZABETH-CLASS AIRCRAFT CARRIER
3:USS ENTERPRISE (CVN-65)
BY:
VIPIN DEVARAJ
ROLL NO:39
SEM IV,DoST CUSAT
⚡ KMS BATTLESHIP- BISMARCK
When commissioned in 1940, the
battleship Bismarck was the largest
ship of her type in the world.
Bismarck and her sister ship Tirpitz were the largest battleships
ever built by Germany, and two of the largest built by any
European power. Named after Chancellor Otto von Bismarck,
the primary force behind the unification of Germany in 1871,
the ship was laid down at the Blohm & Voss shipyard in
Hamburg in July 1936 and launched two and a half years later in
February 1939.
© VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
⚡ BASIC SPECIFICATIONS
Everyone here works directly with our clients,
so if a client has a question that relates to the
design they’ll speak to the designer that
worked on it. It’s fun, as it should be. We
spend so much of our life working that we’d
best enjoy it.
Laid down: 1 July 1936
Launched: 14 February 1939
Commissioned: 24 August 1940
Construction cost: RM. 196.8 million
Displacement:
· Empty ship:
· Standard:
· Construction:
· Full load:
· Maximum:
40,250 metric tons
43,978 metric tons
47,870 metric tons
51,760 metric tons
53,486 metric tons
Dimensions:
· Waterline length:
· Overall length:
· Beam:
241.55 meters
251 meters
36 meters
Propulsion plant: 12 Wagner boilers
Three Blohm & Voss turbine sets
150,170 Hp (maximum obtained)
Speed: 30.12 knots (maximum obtained)
Fuel oil capacity: 7,400 metric tons
Aircraft: 4 x Arado Ar 196
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
⚡ PROPULSION SYSTEM
The battleship Bismarck had a steam
propulsion plant that amounted to only 9%
of the ship's weight. Within the ship’s
boilers, fuel oil was burned and feed water
heated, thus producing steam. This steam
reached very high pressure and was then
delivered to the turbines that turned the
propellers.
On Bismarck, the steam power was produced by twelve Wagner Hochdruck high pressure
steam-heated boilers distributed in six watertight compartments (boiler rooms) that were
located amidships in sections XI and XIII.
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
⚡ PROPULSION SYSTEM
Turbines
There were three Blohm & Voss turbine sets
in separate compartments (turbine rooms)
located in sections VIII and X. The centre
turbine room located in Section VIII, and the
portside and starboard turbine rooms in
Section X. The German Navy preferred the
three-shaft drive for its capital ships, unlike
most foreign nations that used four-shaft
drives. This saved weight and permitted a
better distribution within the hull. Each set of
turbines served one propeller shaft and had
different sections.
· The HP reaction turbine: a Curtis wheel with
40 stages.
· The IP turbine: a double-flow 15-stage
reaction turbine.
· The LP turbine: a 9-stage reaction turbine
supporting the condenser slung below it.
· The HP astern turbine was a single Curtis
wheel.
· The LP astern turbine was of the divided
double flow type.
· No cruising turbine was fitted on Bismarck.
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
⚡ PROPULSION SYSTEM
Propellers
The three propellers were of 4.70 meters in
diameter and had three blades. The port and
middle propellers rotated counter clockwise
and the starboard propeller clockwise. Each
propeller had a volume of 2.4 m³ and achieved
270 revolutions per minute at full speed.
Rudders
The electric steering system controlled two
parallel rudders of 24.21 m² each, inclined from
the vertical with 8º divergence towards the
centreline. Each rudder had a volume of 11.63
m³ including its hanging attachment.
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
⚡ PROPULSION SYSTEM
Electrical Power Plant
The electric plant provided power to all the ship's services such as weaponry, steering, lighting, cranes, fans,
gyros etc. It had a total output of 7,910 kw at 220 volts, with eight 500 kw Diesel generators, five 690 kw turbo-
generators, and one 460 kw turbo-generator. These generators were distributed into four compartments
(plants). The starboard electric plant No. 1 and the port electric plant No. 2 (E-Werk 1 und E-Werk 2) were
located in section VIII, and had four 500 kw diesel generators each. The starboard electric plant No. 3 and the
port electric plant No. 4 were located in section XIV, and included five 690 kw turbo-generators, and one 460 kw
turbo-generator.
Plants Generators Output
1.Starboard Electric Plant No. 1 4 x 500 kw diesel generators 2,000 kw
2.Port Electric Plant No. 2 4 x 500 kw diesel generators 2,000 kw
3.Electric Plants No. 3 and No. 4 5 x 690 kw turbo generators
1 x 460 kw turbo generator
3,450 kw
460 kw
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
⚡ PROPULSION SYSTEM-SUMMARY
Boilers: 12 Wagner boilers
of high-pressure (58 Kg/cm²)
and high temperature (450º C)
in six compartments
Turbines: Three turbine sets Blohm & Voss
in three compartments
Horse power: 150.170 Hp at 30.12 knots
Propellers: Three propellers
of 4.70 meters in diameter each
Rudders: Two parallel of 24.2 m²
with 8º divergence towards the
centreline
Diesel generators: Eight of 500 kilowatts DC
One of 550 kVA AC
Turbo generators: Five of 690 kilowatts DC
One of 460 kilowatts DC
Total electric output: 7,910 kilowatts at 220 volts
Range: 9,280 nautical miles at 16 knots
8,900 nautical miles at 17 knots
8,525 nautical miles at 19 knots
6,640 nautical miles at 24 knots
4,500 nautical miles at 28 knots
Fuel: 8,294 metric tons ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
⚡ QUEEN ELIZABETH-CLASS AIRCRAFT CARRIER
The Queen Elizabeth class is a class
of two aircraft carriers currently under
construction for the Royal Navy.
The first, HMS Queen Elizabeth was named on 4 July 2014, with
her commissioning planned for 2017, and an initial operational
capability expected in 2020. The second, HMS Prince of Wales is
scheduled for launch around 2017, followed by commissioning
in 2020 and service thereafter — on 5 September 2014, at the
NATO summit in Wales.
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
⚡ BASIC SPECIFICATIONS
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
Displacement: 70,600 tonnes (69,500 long tons; 77,800 short
tons)
Length: 280 m (920 ft)
Beam: 39 m (128 ft) (waterline)
70 m (230 ft) overall
Draught: 11 m (36 ft)
Decks: 16,000 m2 (170,000 sq ft) 9 decks beneath
flightdeck with hangar covering the centerpiece
of two decks (without islands)
Propulsion: Integrated full electric propulsion: 2× Rolls-
Royce Marine Trent MT30 36 MW (48,000 Hp)
gas turbine
4× Wärtsilä diesel (2× 9 MW or 12,000 hp & 2×
11 MW or 15,000 hp)
4× Converteam 20 MW Advanced Induction
Motors
Speed: In excess of 25 knots (46 km/h; 29 mph)
Range: 10,000 nautical miles (19,000 km; 12,000 mi)
Sensors and
processing systems:
•S1850M long range radar
•Type 997 Artisan 3D medium range radar
•Ultra Electronics Series 2500 Electro
Optical System (EOS)
•Glide Path Camera (GPC)
Armament: •At least 3 × Phalanx CIWS
•30-mm DS30M Mk2 guns
•Miniguns
Aircraft carried: •Tailored air group of up to 40 aircraft
(50 full load): F-35B Lightning II
•Chinook
•AgustaWestland Apache
•Merlin
•Lynx Wildcat
⚡ BASIC SPECIFICATIONS
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
⚡ BASIC SPECIFICATIONS
Instead of a single island
superstructure containing both
the ship's navigation bridge
and flying control (flyco)
centres, the ships will have
these operations divided
between two structures, with
the forward island for
navigating the ship and the aft
island for controlling flying
operations. Under the flight
deck are a further nine decks.
The hangar deck measures 155
by 33.5 metres (509 by 110 ft)
with a height of 6.7 to 10
metres (22 to 33 ft.)
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
⚡ PROPULSION SYSTEM
The Ministry of Defence Of UK
decided not to use nuclear
propulsion due to its high cost,so
power is supplied by two Rolls-
Royce Marine Trent MT30 36 MW
(48,000 hp) gas turbine generator
units and four Wärtsilä diesel
generator sets (two 9 MW or
12,000 hp and two 11 MW or
15,000 hp sets).
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
ROLLS-ROYCE MARINE TRENT MT30 36 MW
⚡ PROPULSION SYSTEM
The Trents and diesels are the
largest ever supplied to the Royal
Navy, and together they feed the
low-voltage electrical systems as
well as four GE Power Conversion's
20 MW Advanced Induction Motor
(arranged in tandem) electric
propulsion motors that drive the
twin fixed-pitch propellers.
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
WÄRTSILÄ DIESAEL GENERATOR
⚡ PROPULSION SYSTEM
The ship has an Integrated Full Electric
Propulsion (IFEP) system and uses four 20MW
(27,000 hp) electric motors of a similar type to
that used in the UK’s Type 45 destroyers which
use only two, one per shaft. The motors are
driven by a Converteam VDM 25000 pulse
width modulated converter which produces a
variable frequency output allowing the shaft
speed to be controlled across the full operating
range, thereby eliminating the need for a
gearbox. The four motors, two per shaft, are
located in three separate compartments for
better damage control and suvivability.
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
⚡ PROPULSION SYSTEM
A platform management system is provided by L-3 Communications and includes a fully
integrated propulsion power management system that controls the operation of the turbo
and diesel generating sets for optimum efficiency.
For aspects of stability the diesel gensets are located low in the ship and were delivered at
an earlier stage of the construction. The Converteam generators are powered by two
Wärtsilä 16V38s of 11 MW (15,000 hp) and two Wärtsilä 12V38s of 9 MW (12,000 hp). The
two relatively lighter Rolls-Royce MT30 gas turbine generators are mounted higher in the
ship to shorten the air downtakes and exhausts.
The range of the carrier without refuelling is stated as being 10,000 nautical miles (19,000
km).
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
⚡ PROPULSION SYSTEM-SUMMARY
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
⚡ USS ENTERPRISE (CVN-65)
She was the world's first Nuclear-powered
aircraft carrier and the eighth United States
naval vessel to bear the name.
Like her predecessor of World War II fame, she is
nicknamed "Big E". At 1,123 ft (342 m),she is the longest
naval vessel in the world, a record which still stands. Her
93,284-long-ton (94,781 t) displacement ranked her as the
11th-heaviest supercarrier, after the 10 carriers of the
Nimitz class. Enterprise had a crew of some 4,600 service
members.
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
⚡ BASIC SPECIFICATIONS
Displacement: 93,284 long tons (94,781 t) Full Load
Length: 1,123 ft (342 m)
Beam: 132.8 ft (40.5 m) (waterline)
257.2 ft (78.4 m) (extreme)
Draft: 39 ft (12 m)
Propulsion: 8 × Westinghouse A2W nuclear reactors
four sets Westinghouse geared steam turbines, 4 ×
shafts
280,000 shp (210 MW)
Speed: 33.6 kn (38.7 mph; 62.2 km/h)
Range: Unlimited distance; 20-25 years
Complement: 5,828 (maximum)
Ship's company: 3,000 (2,700 Sailors, 150 Chiefs, 150
Officers) Air wing: 1,800 (250 pilots, and 1,550 support
personnel)
Sensors and:
processing
systems
AN/SPS-48 3D air search radar
AN/SPS-49 2D air search radar
Electronic
warfare
& decoys:
AN/SLQ-32 Electronic Warfare Suite
Mark 36 SRBOC
Armament
:
•2 × NATO Sea Sparrow launchers
•2 × 20 mm Phalanx CIWS mounts
•2 RAM launchers
Armor: 8 in (20 cm) aluminum belt (equivalent to 4 in (10 cm)
rolled homogeneous steel armor), armored flight deck,
hangar, magazines and reactor
Aircraft
carried:
Hold up to 90
60+ (normally)
Aviation
facilities:
Flight deck: 1,123 ft (342 m)
Notes: Equipped with 4 steam-powered catapults.
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
⚡ BASIC SPECIFICATIONS
Enterprise is also the only aircraft
carrier to house more than two
nuclear reactors,having an eight-
reactor propulsion design, with
each A2W reactor taking the
place of one of the conventional
boilers in earlier
constructions.She is the only
carrier with four rudders, two
more than other classes, and
features a more cruiser-like hull.
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
⚡ PROPULSION SYSTEM
The U.S. started developing nuclear
power plants for ships back in the
1940s, seeing the obvious strategic
advantage of an aircraft carrier that
needs refuelling only once every few
years. Enterprise was the first. While
the ship has a somewhat conservative
hull, one modified from the
conventional Forrestal-class
supercarrier, its propulsion was
revolutionary.
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
⚡ PROPULSION SYSTEM
The Enterprise has eight
Westinghouse A2W nuclear reactors,
each generating 35,000 shaft
horsepower. That's an incredible
amount of power, even for a ship this
size, giving the 93,000-ton carrier a
top speed of greater than 33 knots
(38 mph). In trials it achieved more
than 35 knots.
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
⚡ BIBLIOGRAPHY
1. http://www.google.com
2. http://www.militaryfactory.com
3. http://www.en.wikipedia.org
4. http://www.maritimepropulsion.com
5. http://www.popularmechanics.com
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
⚡
Thank You
©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT

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Propulsion Systems Of Ships

  • 1. ⚡ MARINE ENGINERRING SHIPS DISCUSSED: 1:KMS BATTLESHIP- BISMARCK 2:QUEEN ELIZABETH-CLASS AIRCRAFT CARRIER 3:USS ENTERPRISE (CVN-65) BY: VIPIN DEVARAJ ROLL NO:39 SEM IV,DoST CUSAT
  • 2. ⚡ KMS BATTLESHIP- BISMARCK When commissioned in 1940, the battleship Bismarck was the largest ship of her type in the world. Bismarck and her sister ship Tirpitz were the largest battleships ever built by Germany, and two of the largest built by any European power. Named after Chancellor Otto von Bismarck, the primary force behind the unification of Germany in 1871, the ship was laid down at the Blohm & Voss shipyard in Hamburg in July 1936 and launched two and a half years later in February 1939. © VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
  • 3. ⚡ BASIC SPECIFICATIONS Everyone here works directly with our clients, so if a client has a question that relates to the design they’ll speak to the designer that worked on it. It’s fun, as it should be. We spend so much of our life working that we’d best enjoy it. Laid down: 1 July 1936 Launched: 14 February 1939 Commissioned: 24 August 1940 Construction cost: RM. 196.8 million Displacement: · Empty ship: · Standard: · Construction: · Full load: · Maximum: 40,250 metric tons 43,978 metric tons 47,870 metric tons 51,760 metric tons 53,486 metric tons Dimensions: · Waterline length: · Overall length: · Beam: 241.55 meters 251 meters 36 meters Propulsion plant: 12 Wagner boilers Three Blohm & Voss turbine sets 150,170 Hp (maximum obtained) Speed: 30.12 knots (maximum obtained) Fuel oil capacity: 7,400 metric tons Aircraft: 4 x Arado Ar 196 ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
  • 4. ⚡ PROPULSION SYSTEM The battleship Bismarck had a steam propulsion plant that amounted to only 9% of the ship's weight. Within the ship’s boilers, fuel oil was burned and feed water heated, thus producing steam. This steam reached very high pressure and was then delivered to the turbines that turned the propellers. On Bismarck, the steam power was produced by twelve Wagner Hochdruck high pressure steam-heated boilers distributed in six watertight compartments (boiler rooms) that were located amidships in sections XI and XIII. ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
  • 5. ⚡ PROPULSION SYSTEM Turbines There were three Blohm & Voss turbine sets in separate compartments (turbine rooms) located in sections VIII and X. The centre turbine room located in Section VIII, and the portside and starboard turbine rooms in Section X. The German Navy preferred the three-shaft drive for its capital ships, unlike most foreign nations that used four-shaft drives. This saved weight and permitted a better distribution within the hull. Each set of turbines served one propeller shaft and had different sections. · The HP reaction turbine: a Curtis wheel with 40 stages. · The IP turbine: a double-flow 15-stage reaction turbine. · The LP turbine: a 9-stage reaction turbine supporting the condenser slung below it. · The HP astern turbine was a single Curtis wheel. · The LP astern turbine was of the divided double flow type. · No cruising turbine was fitted on Bismarck. ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
  • 6. ⚡ PROPULSION SYSTEM Propellers The three propellers were of 4.70 meters in diameter and had three blades. The port and middle propellers rotated counter clockwise and the starboard propeller clockwise. Each propeller had a volume of 2.4 m³ and achieved 270 revolutions per minute at full speed. Rudders The electric steering system controlled two parallel rudders of 24.21 m² each, inclined from the vertical with 8º divergence towards the centreline. Each rudder had a volume of 11.63 m³ including its hanging attachment. ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
  • 7. ⚡ PROPULSION SYSTEM Electrical Power Plant The electric plant provided power to all the ship's services such as weaponry, steering, lighting, cranes, fans, gyros etc. It had a total output of 7,910 kw at 220 volts, with eight 500 kw Diesel generators, five 690 kw turbo- generators, and one 460 kw turbo-generator. These generators were distributed into four compartments (plants). The starboard electric plant No. 1 and the port electric plant No. 2 (E-Werk 1 und E-Werk 2) were located in section VIII, and had four 500 kw diesel generators each. The starboard electric plant No. 3 and the port electric plant No. 4 were located in section XIV, and included five 690 kw turbo-generators, and one 460 kw turbo-generator. Plants Generators Output 1.Starboard Electric Plant No. 1 4 x 500 kw diesel generators 2,000 kw 2.Port Electric Plant No. 2 4 x 500 kw diesel generators 2,000 kw 3.Electric Plants No. 3 and No. 4 5 x 690 kw turbo generators 1 x 460 kw turbo generator 3,450 kw 460 kw ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
  • 8. ⚡ PROPULSION SYSTEM-SUMMARY Boilers: 12 Wagner boilers of high-pressure (58 Kg/cm²) and high temperature (450º C) in six compartments Turbines: Three turbine sets Blohm & Voss in three compartments Horse power: 150.170 Hp at 30.12 knots Propellers: Three propellers of 4.70 meters in diameter each Rudders: Two parallel of 24.2 m² with 8º divergence towards the centreline Diesel generators: Eight of 500 kilowatts DC One of 550 kVA AC Turbo generators: Five of 690 kilowatts DC One of 460 kilowatts DC Total electric output: 7,910 kilowatts at 220 volts Range: 9,280 nautical miles at 16 knots 8,900 nautical miles at 17 knots 8,525 nautical miles at 19 knots 6,640 nautical miles at 24 knots 4,500 nautical miles at 28 knots Fuel: 8,294 metric tons ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
  • 9. ⚡ QUEEN ELIZABETH-CLASS AIRCRAFT CARRIER The Queen Elizabeth class is a class of two aircraft carriers currently under construction for the Royal Navy. The first, HMS Queen Elizabeth was named on 4 July 2014, with her commissioning planned for 2017, and an initial operational capability expected in 2020. The second, HMS Prince of Wales is scheduled for launch around 2017, followed by commissioning in 2020 and service thereafter — on 5 September 2014, at the NATO summit in Wales. ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
  • 10. ⚡ BASIC SPECIFICATIONS ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT Displacement: 70,600 tonnes (69,500 long tons; 77,800 short tons) Length: 280 m (920 ft) Beam: 39 m (128 ft) (waterline) 70 m (230 ft) overall Draught: 11 m (36 ft) Decks: 16,000 m2 (170,000 sq ft) 9 decks beneath flightdeck with hangar covering the centerpiece of two decks (without islands) Propulsion: Integrated full electric propulsion: 2× Rolls- Royce Marine Trent MT30 36 MW (48,000 Hp) gas turbine 4× Wärtsilä diesel (2× 9 MW or 12,000 hp & 2× 11 MW or 15,000 hp) 4× Converteam 20 MW Advanced Induction Motors Speed: In excess of 25 knots (46 km/h; 29 mph) Range: 10,000 nautical miles (19,000 km; 12,000 mi) Sensors and processing systems: •S1850M long range radar •Type 997 Artisan 3D medium range radar •Ultra Electronics Series 2500 Electro Optical System (EOS) •Glide Path Camera (GPC) Armament: •At least 3 × Phalanx CIWS •30-mm DS30M Mk2 guns •Miniguns Aircraft carried: •Tailored air group of up to 40 aircraft (50 full load): F-35B Lightning II •Chinook •AgustaWestland Apache •Merlin •Lynx Wildcat
  • 11. ⚡ BASIC SPECIFICATIONS ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
  • 12. ⚡ BASIC SPECIFICATIONS Instead of a single island superstructure containing both the ship's navigation bridge and flying control (flyco) centres, the ships will have these operations divided between two structures, with the forward island for navigating the ship and the aft island for controlling flying operations. Under the flight deck are a further nine decks. The hangar deck measures 155 by 33.5 metres (509 by 110 ft) with a height of 6.7 to 10 metres (22 to 33 ft.) ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
  • 13. ⚡ PROPULSION SYSTEM The Ministry of Defence Of UK decided not to use nuclear propulsion due to its high cost,so power is supplied by two Rolls- Royce Marine Trent MT30 36 MW (48,000 hp) gas turbine generator units and four Wärtsilä diesel generator sets (two 9 MW or 12,000 hp and two 11 MW or 15,000 hp sets). ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT ROLLS-ROYCE MARINE TRENT MT30 36 MW
  • 14. ⚡ PROPULSION SYSTEM The Trents and diesels are the largest ever supplied to the Royal Navy, and together they feed the low-voltage electrical systems as well as four GE Power Conversion's 20 MW Advanced Induction Motor (arranged in tandem) electric propulsion motors that drive the twin fixed-pitch propellers. ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT WÄRTSILÄ DIESAEL GENERATOR
  • 15. ⚡ PROPULSION SYSTEM The ship has an Integrated Full Electric Propulsion (IFEP) system and uses four 20MW (27,000 hp) electric motors of a similar type to that used in the UK’s Type 45 destroyers which use only two, one per shaft. The motors are driven by a Converteam VDM 25000 pulse width modulated converter which produces a variable frequency output allowing the shaft speed to be controlled across the full operating range, thereby eliminating the need for a gearbox. The four motors, two per shaft, are located in three separate compartments for better damage control and suvivability. ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
  • 16. ⚡ PROPULSION SYSTEM A platform management system is provided by L-3 Communications and includes a fully integrated propulsion power management system that controls the operation of the turbo and diesel generating sets for optimum efficiency. For aspects of stability the diesel gensets are located low in the ship and were delivered at an earlier stage of the construction. The Converteam generators are powered by two Wärtsilä 16V38s of 11 MW (15,000 hp) and two Wärtsilä 12V38s of 9 MW (12,000 hp). The two relatively lighter Rolls-Royce MT30 gas turbine generators are mounted higher in the ship to shorten the air downtakes and exhausts. The range of the carrier without refuelling is stated as being 10,000 nautical miles (19,000 km). ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
  • 17. ⚡ PROPULSION SYSTEM-SUMMARY ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
  • 18. ⚡ USS ENTERPRISE (CVN-65) She was the world's first Nuclear-powered aircraft carrier and the eighth United States naval vessel to bear the name. Like her predecessor of World War II fame, she is nicknamed "Big E". At 1,123 ft (342 m),she is the longest naval vessel in the world, a record which still stands. Her 93,284-long-ton (94,781 t) displacement ranked her as the 11th-heaviest supercarrier, after the 10 carriers of the Nimitz class. Enterprise had a crew of some 4,600 service members. ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
  • 19. ⚡ BASIC SPECIFICATIONS Displacement: 93,284 long tons (94,781 t) Full Load Length: 1,123 ft (342 m) Beam: 132.8 ft (40.5 m) (waterline) 257.2 ft (78.4 m) (extreme) Draft: 39 ft (12 m) Propulsion: 8 × Westinghouse A2W nuclear reactors four sets Westinghouse geared steam turbines, 4 × shafts 280,000 shp (210 MW) Speed: 33.6 kn (38.7 mph; 62.2 km/h) Range: Unlimited distance; 20-25 years Complement: 5,828 (maximum) Ship's company: 3,000 (2,700 Sailors, 150 Chiefs, 150 Officers) Air wing: 1,800 (250 pilots, and 1,550 support personnel) Sensors and: processing systems AN/SPS-48 3D air search radar AN/SPS-49 2D air search radar Electronic warfare & decoys: AN/SLQ-32 Electronic Warfare Suite Mark 36 SRBOC Armament : •2 × NATO Sea Sparrow launchers •2 × 20 mm Phalanx CIWS mounts •2 RAM launchers Armor: 8 in (20 cm) aluminum belt (equivalent to 4 in (10 cm) rolled homogeneous steel armor), armored flight deck, hangar, magazines and reactor Aircraft carried: Hold up to 90 60+ (normally) Aviation facilities: Flight deck: 1,123 ft (342 m) Notes: Equipped with 4 steam-powered catapults. ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
  • 20. ⚡ BASIC SPECIFICATIONS Enterprise is also the only aircraft carrier to house more than two nuclear reactors,having an eight- reactor propulsion design, with each A2W reactor taking the place of one of the conventional boilers in earlier constructions.She is the only carrier with four rudders, two more than other classes, and features a more cruiser-like hull. ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
  • 21. ⚡ PROPULSION SYSTEM The U.S. started developing nuclear power plants for ships back in the 1940s, seeing the obvious strategic advantage of an aircraft carrier that needs refuelling only once every few years. Enterprise was the first. While the ship has a somewhat conservative hull, one modified from the conventional Forrestal-class supercarrier, its propulsion was revolutionary. ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
  • 22. ⚡ PROPULSION SYSTEM The Enterprise has eight Westinghouse A2W nuclear reactors, each generating 35,000 shaft horsepower. That's an incredible amount of power, even for a ship this size, giving the 93,000-ton carrier a top speed of greater than 33 knots (38 mph). In trials it achieved more than 35 knots. ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT
  • 23. ⚡ BIBLIOGRAPHY 1. http://www.google.com 2. http://www.militaryfactory.com 3. http://www.en.wikipedia.org 4. http://www.maritimepropulsion.com 5. http://www.popularmechanics.com ©VIPIN DEVARAJ,SEMESTER-IV-DEPARTMENT OF SHIP TECHNOLOGY,CUSAT