ORegen TM Waste Heat Recovery: Development and Applications. Andrea Burrato GE Oil & Gas Rotterdam October 8 th, 2013

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Transcription:

ORegen TM Waste Heat Recovery: Development and Applications Andrea Burrato GE Oil & Gas Rotterdam October 8 th, 2013

ORegen TM ORegen TM is GE Organic Rankine Cycle System designed to recover waste heat energy from GT or similar waste heat sources water & CO 2 free Developed for power gen & mechanical drive application References #1 17MW system sold in Canada on a pipeline station delivered in December 2012 COD Fall 2013 #3 17MW systems sold in China on 3 pipeline stations - delivery in March 2015 COD August 2015 #1 17MW system sold in Brunei on a powergen station delivery in December 2014 COD June 2015 #1 17MW system sold in Thailand on a pipeline station delivery in February 2015 COD Summer 2015 2

Waste heat Why waste heat recovery? Waste heat GT simple cycle efficiency: 25 40% O&G GT mainly in simple cycle Global trends: CO 2 emission reduction Increase efficiency Increase in power demand Air Fuel Simple cycle GT Exhaust Gas Electricity production sell back to grid Help comply with CO 2 -related regulations Increase plant efficiency Gas Turbine ORegen TM + = Up to 17MW of power recovery 77% of Oil and Gas installed Gas Turbines are in simple cycle * ORegen is a trademark of Nuovo Pignone Spa and is available in selected markets 3

Temperature [ C] The ORC concept The Organic Rankine Cycle is a thermodynamic cycle based on the Rankine classic cycle using an organic working fluid GE selected cyclo-pentane as working fluid 250 200 150 100 ORC cycle T-S diagram T dew T bubble T cycle @ min p T cycle @ max p Regenerator Pump Heaters Expander Recuperator Pump Pre-heater Super-heater Vaporizer Expansion Regenerator 50-3 -2.5-2 -1.5-1 Entropy [kj/(kg C)] Working fluid selection by GRC Munich Cyclo-pentane main characteristic Boiling point: 121 F (49.3 C) Freezing point: -137 F (-94 C) Molecular Weight: 70.1 Appearance: clear, colorless liquid No corrosion issue on plant equipment 4

ORegen TM plant schematic & scope of supply PGT25+ case study overall plant efficiency up to 51% The basic scope of supply for a typical conversion includes the following: Exhaust Organic Fluid C5H10 system Diatermic oil system Gas Turbine OIL HEATER Diathermic Oil loop Vaporizer & heat exchangers Turboexpander genset C5 and oil pumps HEAT EXCHANGERS Cyclopentane loop Hot Oil Pump Expander Generator RECUPERATOR Fan C5 Pump CONDENSER 5

TE Generator Arrangement (17MW) Scalable Size from 5MW to 17MW Oudoor installation w/ thermo-acoustic insulation Two separate Basements: - Ease of transportation - Reduced Installation cost Equipped with DGS & IGV on both stages Gearbox Common lube oil system Generator LxWxH:~ 13x4x5.5m 6

ORegen Typical Layout Diverter only interface with GT GT exhaust stack with ORegen installed Waste Heat Oil Heater GT exhaust stack Diathermal Oil piping Turbo-Expander Control cab C5 condenser Cyclo-pentane island 7

ORegen TM configurations Direct Parallel Oil GT#1 WHRU ORC GT#1 WHRU #1 ORC GT#n WHRU n Multi cycles Parallel Gas GT#1 WHRU ORC#1 ORC#2 #1 #2 GT#1 - - - - - - GT#n WHRU ORC To be defined as typical arrangement To be scaled up / down from a standard design. To be selected case by case. depending from the site conditions and project requirements 8

ORegen TM output GT Model GT Power (KW) Exhaust Flow (Kg/sec) Exhaust Temp ( C) GT Efficiency (%) ORC Output (MWe) System Efficiency PGT25 (*) 23 261 68.9 525 37.7% 6.9 48.9% PGT25+ (*) 31 364 84.3 500 41.1% 7.9 51.5% PGT25+ G4 (*) 33 973 89.0 510 41.1% 8.6 51.5% MS5001 (*) 26 830 125.2 483 28.4% 11.3 40.4% MS5002B (*) 26 100 121.6 491 28.8% 10.8 40.7% MS5002C (*) 28 340 124.3 517 28.8% 12.4 41.4% MS5002D (*) 32 580 141.4 509 29.4% 13.8 41.9% MS5002E (*) 32 000 101.0 510 36.2% 9.8 47.2% MS6001B (*) 43 530 145.0 544 33.3% 15.6 45.2% MS7001E (*) 87 300 302.0 535 33.1% 31.1 44.9% LM6000 (**) 43 397 125.6 454 41.7% 9.7 51.1% LMS100 (**) 100 700 216.8 423 43.8% 15.7 50.8% (%) Reference data @ISO Conditions. 100% GT Turbine load (*) Values at gas turbine shaft (**) Values at generator terminals 9

Case study ORegen TM benefits First system sold in Canada in a pipeline application PGT25+ #1 PGT25+ #2 PGT25+ #3 WHRU #1 WHRU #2 ORegen 3 GT connected to #1 ORegen 2 units running 1 stand by Net Output Power ~14 MW Produced Power ~119,000 MWhr/y Equivalent to ~1,100,000 MM BTU/y WHRU #3 Equivalento to ~38,000 ton/y CO 2 cut 14 MW Recovered power / +9 efficiency points 10

ORegen for Mechanical Drive application Inlet pressure Discharge pressure Waste heat Exchanger Flow Boosting Capability Increase BCL Flow Capability Increase Waste energy used to drive an additional compressor through an ORegen cycle New compressor in parallel with existing one Increase NG flow capability using GT waste heat 11

Mini ORC 2 MW size Modular approach 2 MW size Minimum waste heat temp 220 C Applicable to small to medium size waste heat sources Different working fluid Different cycle parameters Optimized solution for small gas turbines and low grade waste heat sources Alternative solution to ORegen from 0.5 2 MW size 12

Efficiency improvement 20% CO 2 footprint 20% Carbon credits singular enabler Cyclo-pentane as working fluid in a closed loop no water! ORegen TM Produce up to 17MW electric power with no additional fuel by recovering heat from GT exhaust 13 GE Proprietary Information 13 GE Confidential GE 2011 & Proprietary All Rights Information Reserved