Carleton University Brayton Cycle Loop (CUBCL) Design

11
Carleton University Brayton Cycle Loop (CUBCL) Design Mechanical and Aerospace Engineering 4 th Year Project – 2015/16

Transcript of Carleton University Brayton Cycle Loop (CUBCL) Design

Page 1: Carleton University Brayton Cycle Loop (CUBCL) Design

Carleton University Brayton Cycle Loop (CUBCL) Design

Mechanical and Aerospace Engineering4th Year Project – 2015/16

Page 2: Carleton University Brayton Cycle Loop (CUBCL) Design

S-CO2 Power Cycles

Supercritical working fluids– P, T > critical values– Properties change

dramatically near critical point

High density near critical point– Reduced compressor work,

compact turbomachinery

Good efficiency potential Near-ambient critical

temperature– Availability of sinks/sources

[Wilkes, 2013]

[Wright, 2011]

Page 3: Carleton University Brayton Cycle Loop (CUBCL) Design

S-CO2 Power Cycles

[Wilkes, 2013]

[Wright, 2011]

Supercritical working fluids– P, T > critical values– Properties change

dramatically near critical point

High density near critical point– Reduced compressor work,

compact turbomachinery

Good efficiency potential Near-ambient critical

temperature– Availability of sinks/sources

Page 4: Carleton University Brayton Cycle Loop (CUBCL) Design

S-CO2 Power Cycles

[Wilkes, 2013]

[Wright, 2011]

Supercritical working fluids– P, T > critical values– Properties change

dramatically near critical point

High density near critical point– Reduced compressor work,

compact turbomachinery

Good efficiency potential Near-ambient critical

temperature– Availability of sinks/sources

Page 5: Carleton University Brayton Cycle Loop (CUBCL) Design

S-CO2 Power Cycles

cycle schematic

h-s diagram

T-s diagram

Page 6: Carleton University Brayton Cycle Loop (CUBCL) Design

S-CO2 Power Cycles

[Wright, 2011]

Page 7: Carleton University Brayton Cycle Loop (CUBCL) Design

Project Background

Funded by Natural Resources Canada (NRCan) ecoENERGY Innovation Initiative (ecoEII)

– http://newsroom.carleton.ca/2013/05/03/carleton-gas-turbine-facility-to-develop-technology-for-efficient-electricity-generation/– http://pm.gc.ca/eng/news/2013/05/03/ecoenergy-innovation-initiative

Construct a 250 kWth pilot-scale S-CO2 Brayton cycle loop– Future, high-efficiency fossil fuel or renewable energy electricity

generation systems– Cleaner coal and carbon capture and storage systems

4 year project (2012-16)– 2012/13 and 2013/14: Design and Modelling– 2014/15: Manufacturing, Assembly (F15), and Commissioning (W16)– 2015/16: Testing and Model Validation(W16, S15)

Page 8: Carleton University Brayton Cycle Loop (CUBCL) Design

Current Work (2014/15)

Design, Manufacturing– Turbomachinery– Heat exchangers, heater– Balance of plant equipment

Testing, Modelling– Test development and planning– Control system design– Steady-state and dynamic– Simulate transient operation

10 MWe Advanced Design– Larger-scale demonstration– http://energy.gov/eere/sunshot/sunshot-initiative

Page 9: Carleton University Brayton Cycle Loop (CUBCL) Design

Current Work (2014/15)

Design, Manufacturing– Turbomachinery– Heat exchangers, heater– Balance of plant equipment

Testing, Modelling– Test development and planning– Control system design– Steady-state and dynamic– Simulate transient operation

10 MWe Advanced Design– Larger-scale demonstration– http://energy.gov/eere/sunshot/sunshot-initiative

Page 10: Carleton University Brayton Cycle Loop (CUBCL) Design

Future Work (2015/16)

Assembly (F15)– Some work here, but mostly contracted out

Commissioning (W16)– Initial start-up, shakedown testing

Testing and Model Validation (W16, S16)– Data acquisition, analysis, comparison

10 MWe Advanced Design– Larger-scale demonstration– http://energy.gov/eere/sunshot/sunshot-initiative

Examples of work/tasks– Thermodynamics, aerodynamics, heat transfer,

structural analysis, mechanical design, modelling, control systems, data acquisition, experimental design and data analysis, etc.