
High Efficiency Hydro Turbine S Type Turbine for Heads 2m - 20m Hydropower Project
Specifications:
Type | S type turbine with fixed blades/ adnustable blades |
Water head | 2m -- 20m. |
Installation capacity | 0.1MW -- 10MW |
Runner blades material | Stainless steel (0Cr13Ni4Mo) |
Generator type | Synchro generator |
Auxiliary Equipment | Governor, Inlet Valve, unit side panel, excitation system |
S type turbine is suitable for heads from 2m to 20m and large discharge hydropower station.
S-type tubular turbine is Available in versions of Horizontal Kaplan, also called S-type horizontal Kaplan. lts feature is that the water flow is axial throughout the passage from the inlet to the outlet, so that the passage is a straight conduit essentially.The turbine shaft exits the tube where it changes direction and can be installed either with a transfer belt or directly connected to the generator. This modern turbine is characterized by high efficiency in a broad band of flow rates.
S-type turbine is also consist of fixed runner blades and movable runner blades.
Layout form: Usually horizontal or inclined layout is adopted, with
horizontal horizontal design being the most common. This layout
makes the unit structure simple, with low cost and less engineering
investment, and is suitable for small hydropower stations with low
head.
Flow passage structure: The flow passage is composed of inlet pipe,
stay ring, conical water guiding mechanism, runner chamber, draft
tube and S-shaped draft elbow and tailrace. The water flow flows to
the runner parallel to the turbine shaft along the axial direction.
It enters from the inlet pipe and is evenly introduced into the
runner chamber through the stay ring and conical water guiding
mechanism. After pushing the runner to rotate and do work, it is
discharged through the draft tube and S-shaped draft elbow. The
water flow is smooth and the hydraulic loss is small.
Water guiding mechanism: The axial conical water guiding mechanism
is adopted, and the guide vanes are arranged at an angle of 65°
with the center line of the unit. This design can make the water
flow form an ideal circulation and enter the runner chamber,
improving the energy conversion efficiency of the turbine.
Runner and main shaft: The runner is similar to the blade shape of
an electric fan and has two forms: fixed pitch and adjustable
pitch. The runner is installed on the main shaft. The main shaft
passes horizontally through the draft tube and is connected to the
generator outside the draft tube. When the unit speed is high, it
can be directly connected to a conventional generator; if the
generator speed is low, it can be connected to the generator
through a speed increaser.
Bearing and oil supply system: The generator and turbine bearings
share one oil supply system for centralized oil supply. The
high-level oil tank of the bearing is arranged in the auxiliary
powerhouse about 10m high from the center line of the unit, and the
oil return tank and hydraulic station are arranged in the turbine
pit to ensure stable operation of the unit.
Speed regulation system: The governor is connected to the control
ring of the turbine. By controlling the angles of the guide vanes
and runner blades (for adjustable pitch type), operations such as
starting the unit, connecting to the grid, increasing or decreasing
load and stopping the unit are realized, so that the turbine can
adapt to different operating conditions and maintain high
efficiency.
Applications:
1. Water head: 2m -- 20m
2. Capacity: 0.1MW -- 10MW
3. Runner diameter: 0.4m -- 5m
4. Frequency: 50/ 60hz
5. Output Type: 0.4KV, 3.3KV, 6.3KV, or 10.5KV AC three phase,
If you are interested in the Kaplan turbine, you should have some key parameters (such as net head, flow discharge, unit number, frequency, voltage) in inquiry.
Competitive Advantage:
HYDROTU is the complete Chinese hydropower equipment supply, consulting and engineering design venture in the field of hydropower equipment. We provide the high quality Chinese hydropower equipment with advanced technologies and integrated services to meet the global hydropower markets.
With our Integrated Services concept, we provide you with
customized support from project planning through implementation to
plant commissioning and service. Our principle: Customer’s project
is our project , customer’s success is our success.
HYDROTU covers the services, complete equipment supply, economic
solution of the global hydropower projects and aims to be the best
global supplier of hydropower equipment as well as the best
integrated services provider on the hydropower markets.
The characteristic structural advantages of the s type tubular turbine unit are as follows:
Hangzhou Hydrotu Engineering Co.,Ltd.
HYDROTU are the complete Chinese hydropower equipment provider, consulting and engineering design venture in the field of hydropower equipment. We provide the high quality Chinese hydropower equipment with advanced technologies and integrated services to meet the global hydropower markets.
Hangzhou HydroTu Engineering Co. Ltd covers the services, complete equipment supply, economic solution of the global hydropower projects and aims to be one of the best global supplier of hydropower equipment as well as the best integrated services provider on the hydropower markets.
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Main Reference List of Hydropower Project worldwide By Hydrotu
(V-vertical; H-Horizontal; D1-diameter; Hr- water head; Qr- rated flow; n-Speed)
Country | Project Name | Turbine Type | Project parameter | Operation Year | Supplier |
Turkey | KOZAK 2x2200KW | V-Kaplan D1=130cm | Hr=23.0m, Qr=11m3/s, n=500rpm | 2007 | Hydrotu |
Turkey | TAYFUN 2x500KW | H-Francis D1=53cm | Hr=55.0m, Qr=1.05m3/s n=1000rpm | 2007 | Hydrotu |
Turkey | GUNESLI 1200KW+600KW | H=Francis D1=60cm+53cm | Hr=65.0cm, Qr=2.2+1.1m3/s n=1000rpm | 2007 | Hydrotu |
Canada | KLEMTU 1x1800KW | H-Pelton D1=82cm | Hr=310m,Qr=0.66m3/s n=900rpm | 2007 | Hydrotu |
Turkey | GEMKOPRU 2x820KW | H-Francis D1=61cm | Hr=87.0m, Qr=1.12m3/s, n=1000rpm | 2008 | Hydrotu |
Turkey | UCKAYA 800KW+320KW | H-Francis &H-Turgo | Hr=107.6,Qr=0.8+0.36m3/s n=1000rpm | 2008 | Hydrotu |
Turkey | KOYABASI 750KW+320KW | H-Francis D1=60+50cm | Hr=80.0cm,Qr=1.13+0.487m3/s n=1000rpm | 2008.1 | Hydrotu |
Turkey | EGE-1 2X460KW | H-Francis D1=65cm | Hr=21.7m,Qr=2.52m3/s, n=600rpm | 2008.3 | Hydrotu |
Turkey | YILDIZLI 2X600KW | H-Francis D1=51cm | Hr=44.0cm,Qr=1.65m3/s, n=1000rpm | 2008.3 | Hydrotu |
Turkey | KAHRAMAN 2x750KW | H=Turgo D1=60cm | Hr=187.2m,Qr=0.503m3/s n=1000rpm | 2008.4 | Hydrotu |
Turkey | TIMARLI 3x2400KW | V-Kaplan D1=225cm | Hr=10.5m,Qr=26.67m3/s, n=750rpm | 2008.10 | Hydrotu |
Serbia | GORNE GARE 2X1100KW | H-Francis D1=56cm | Hr=63.5m,Qr=2.05m3/s, n=1000rpm | 2008.10 | Hydrotu |
Serbai | TEGOSNICA 410KW+250KW | V-Propeller D1=74cm | Hr=15.9m,Qr=3.1+1.9m3/s n=750rpm | 2008.10 | Hydrotu |
Serbia | LIVADE 1x450KW | H-Turgo D1=60cm | Hr=257.0m,Qr=0.21m3/s, n=1000rpm | 2008.10 | Hydrotu |
Turkey | GOK 3x3500KW | V-Propeller D1=160cm | Hr=28.7m,Qr=14.0m3/s, n=428.6rpm | 2009.6 | Hydrotu |
Turkey | Poyraz 2x1650KW | H-Francis D1=60cm | Hr=76.0m,Qr=2.535m3/s n=1000rpm | 2009.6 | Hydrotu |
Turkey | Kozan 2x1980KW | H-Francis D1=76cm | Hr=57.24m,Qr=4.0m3/s, n=750rpm | 2009.6 | Hydrotu |
Bosinia | Kuslat 2x600KW | V-Kaplan D1=140cm | Hr=8.0m,Qr=2x8.85m3/s, n=300rpm | 2009.7 | Hydrotu |
Turkey | KORUKOY HES 1x3000KW | H-Pelton D1=95cm | Hr=320m, Qr=1.1m3/s, n=750rpm | 2009.11 | Hydrotu |
Turkey | EGE-3 2x630KW | H-Francis D1=76cm | Hr=21.409m,Qr=2x3.35m3/s, n=500rpm | 2010.1 | Hydrotu |
Turkey | EGE-4 2X940KW | H=Francis D1=68cm | Hr=32.354m,Qr=2x3.6m3/s, n=500rpm | 2010.1 | Hydrotu |
Turkey | BIZNA 3X8500KW | V-Francis D1=145cm | Hr=56.5m,Qr=3x16.957m3/s n=428.6rpm | 2010.7 | Hydrotu |
Turkey | Bingol 2x3200KW+2x600KW | H-Francis D1=92.5+52cm | Hr=55.31m,Qr=2x6.7m3/s+2x 1.3m3/s,n=600+1000rpm | 2010.3 | Hydrotu |
Turkey | Tugra-1 2x2800KW | H-Pelton D1=82cm | Hr=411.728m,Qr=2x0.75m3/s n=1000rpm | 2010.5 | Hydrotu |
Turkey | EGER 2X960KW | H-Francis D1=84cm | Hr=24.62m,Qr=2x4.5m3/s n=500rpm | 2010.8 | Hydrotu |
Turkey | TONYA 2x1320KW | H-Pelton D1=90cm | Hr=182m,Qr=2x0.862m3/s n=600rpm | 2010.9 | Hydrotu |
Turkey | DEREBASI 2x5300KW | H-Pelton D1=140cm | Hr=425.6m,Qr=2x1.5m3/s n=600rpm | 2011.2 | Hydrotu |
Turkey | KILINCLI-1 2x970KW | H-Francis D1=82cm | Hr=26.8m,Qr=2x4.2m3/s, n=500rpm | 2011.2 | Hydrotu |
Turkey | MINI 50KW | V-Propeller D1=25cm | Hr=20m,Qr=0.35m3/s n=1000rpm | 2011.3 | Hydrotu |
Serbia | DONJE GARE 2x1000KW+500KW | H-Francis D1=59.5+52.5cm | Hr=77.7m,Qr=2x1.627m3/s+0.796 m3/s,n=1000rpm | 2011.4 | Hydrotu |
Serbia | KALIDRA 700KW | H-Turgo D1=60cm | Hr=204.5m,Qr=0.43m3/s n=1000rpm | 2011.4 | Hydrotu |
Turkey | TURUNCOVE 2X307KW | H-Francis D1=53cm | Hr=22.35m,Qr=2x1.65m3/s, n=750rpm | 2011.12 | Hydrotu |
France | 1x520KW | H-Turgo D1=53cm | Hr=110m,Qr=0.6m3/s n=750rpm | 2011.12 | Hydrotu |
Turkey | YAKNICA HEPP 3x4380KW | V-Kaplan D1=160cm | Hr=29.15m,Qr=3x17.2m3/s n=428.6rpm | 2012.6 | Hydrotu |
Turkey | ASYA HEPP 2x342KW | H-Francis D1=60.5cm | Hr=20.3m,Qr=2x2m3/s, n=600rpm | 2012.7 | Hydrotu |
SriLANKA | NAYA GANGA 2x1600KW | H-Pelton D1=120cm | Hr=155m,Qr=2x1.25m3/s n=428.6rpm | 2012.7 | Hydrotu |
Turkey | AKHAN-2 3x5.4MW | V-Francis D1=95cm | Hr=101.34m,Qr=2x1.4m3/s n=750rpm | 2013.4 | Hydrotu |
Turkey | Turga-2 2x6400KW | H-Pelton D1=123cm | Hr=529.0m,Qr=2x1.4m3/s n=750rpm | 2013.1 | Hydrotu |
Tajikistan | VANJ 2x400KW | H-Francis D1=55cm | Hr=20.0m,Qr=2x2.391m3/s n=600rpm | 2012.8 | Hydrotu |
USA | South Fork 2x650KW | H-Turgo D1=55cm | Hr=110.5m,Qr=2x0.708m3/s, n=720rpm | 2012.8 | Hydrotu |
Turkey | Sofular HES 2x1820KW | H-Francis D1=77cm | Hr=42.46m,Qr=2x4.95m3/s n=750rpm | 2013.6 | Hydrotu |
USA | McRoberts Creek 1x240KW | H-Turgo D1=50cm | Hr=134m,Qr=0.218m3/s n=1000rpm | 2013.8 | Hydrotu |
Greece | Lykostomo 1x420KW | H-Turgo D1=50cm | Hr=104m,Qr=0.5m3/s n=750rpm | 2014-04 | Hydrotu |
Turkey | Hizir HEPP 1x2000KW | H-Pelton D1=120cm | Hr=170m,Qr=1.41m3/s n=428.6rpm | 2014-03 | Hydrotu
|
Italy | Runner 100KW | H-Pelton D1=52.7cm | Hr=97m, Qr=0.14m3/s n=750rpm | 2014-04 | Hydrotu |
Albania | Saranta 1x700KW+1400KW | H-Francis + Turgo D1=61cm+63cm | Hr=100.0m, Qr=1.65m3/s+0.85m3/s n=1000rpm+600rpm | 2014-11 | Hydrotu |
Canada | Snowshoe 2x700KW | H-Turgo | Hr=115m, Qr=2x0.8m3/s n=720rpm | 2015-03 | Hydrotu |
Italy | Runner 250KW | H-Pelton D1=56cm | Hr=206.48m,Qr=0.14m3/s n=1000rpm | 2014-12 | Hydrotu |
Turkey | Ahmetli 2x5090KW+1600KW | H-Francis D1=115+72cm | Hr=53.76m,Qr=2x10.78+1x3.44m3/s, n=500rpm+750rpm | 2015-05 | Hydrotu |
Turkey | Generji 2x2600KW | H-Francis D1=76cm | Hr=149.46m,Qr=2x1.75m3/s, n=1000rpm | 2015-06 | Hydrotu |
Turkey | SMS-2 1x790KW | H-Francis D1=60cm | Hr=92.0m,Qr=1x1.0m3/s, n=1000rpm | 2015-03 | Hydrotu |
Pakistan | 370KW+420KW | H-Turgo D1=42cm+50cm | Hr=120m+136m, Qr=0.4m3/s+0.4m3/s, n=1000rpm | 2015-05 | Hydrotu |
Serbia | MHE Jelici 1x600KW+1x386KW | H-Franics+H-Turgo D1=58cm+55cm | Hr=80m, Qr=0.877m3/s+0.623m3/s, n=1000rpm+600rpm | 2016-06 | Hydrotu |
South Africa | Romans Bay Sea Farm 1x360KW | H-Francis D1=63cm | Hr=22.0m, Qr=2.0m3/s n=600rpm | 2016-07 | Hydrotu |
Serbia | MHE Virovci 1x305KW | H-Turgo D1=55cm | Hr=80m, Qr=0.5m3/s, n=600rpm | 2016-07 | Hydrotu |
Armenia | 1x2300KW | H-Francis D1=96cm | Hr=140.0m, Qr=1.787m3/s n=750rpm | 2016-08 | Hydrotu |
Turkey | Yakinca 4# 1x6016KW | L-Francis D1=185cm | Hr=31.0m, Qr=21.9m3/s n=250rpm | 2016-12 | Hydrotu |