Syed Ahmed Corning - Illinois Institute of...
Transcript of Syed Ahmed Corning - Illinois Institute of...
Power Coordination Control for a Hybrid Fuel Cell Vehicle using
Model Predictive Control
Syed Ahmed Corning
Oluwasanmi Adeodu
and Donald J. Chmielewski Illinois Institute of Technology
Department of Chemical and Biological EngineeringDepartment of Chemical and Biological Engineering
Illinois Institute of TechnologyIllinois Institute of Technology
Outline
• Motivation and Background
• Profit Control
• Controller Embedded System Design:
- Hybrid Vehicle Equipment Sizing
• Smart Grid
Department of Chemical and Biological EngineeringDepartment of Chemical and Biological Engineering
Illinois Institute of TechnologyIllinois Institute of Technology
Hybrid Vehicle Equipment
iscap
Rscap
Escap
iarm
Rarm
Larm
ibat
Rbat
Ebat
ifc
EfcFuel
Cell
Power Bus
warm
Earm
Department of Chemical and Biological EngineeringDepartment of Chemical and Biological Engineering
Illinois Institute of TechnologyIllinois Institute of Technology
Hybrid Vehicle Operation
iascap
iscap
Rscap
Escap
iarm
Rarm
LarmDC-DC
Converter
iabatibat
Rbat
Ebat
DC-DC
Converter
iafcifc
EfcDC-DC
Converter
Fuel
Cell
Power Bus
warm
Earm
kfc kbat kscap
Department of Chemical and Biological EngineeringDepartment of Chemical and Biological Engineering
Illinois Institute of TechnologyIllinois Institute of Technology
Servo-Loops with PI Controllers
Vehicle
Power
System
+ -Pscap
(sp) Pscap
kscap
+ -Pbat
(sp) Pbat
kbat
+ -Pfc
(sp) Pfc
kfc
PI
PI
PI
Department of Chemical and Biological EngineeringDepartment of Chemical and Biological Engineering
Illinois Institute of TechnologyIllinois Institute of Technology
Supervisory Control
Vehicle
Power
System
+ -Pscap
(sp) Pscap
kscap
High
Level
Controller
Pmot(sp)
+ -Pbat
(sp) Pbat
kbat
+ -Pfc
(sp) Pfc
kfc
PI
PI
PI
Department of Chemical and Biological EngineeringDepartment of Chemical and Biological Engineering
Illinois Institute of TechnologyIllinois Institute of Technology
High Level Battery Model
)(loss
batbatbat PPE
max0 batbat EE
maxmin
batbatbat PPP
2
,
)(
batbatl
loss
bat PcP
Department of Chemical and Biological EngineeringDepartment of Chemical and Biological Engineering
Illinois Institute of TechnologyIllinois Institute of Technology
High Level Super Capacitor Model
)(loss
scscsc PPE
max0 scsc EE
maxmin
scscsc PPP
2
,
)(
scscl
loss
sc PcP
Department of Chemical and Biological EngineeringDepartment of Chemical and Biological Engineering
Illinois Institute of TechnologyIllinois Institute of Technology
High Level Fuel Cell Model
fcfc PP
max0 fcfc PP
maxmin
fcfcfc PPP
Department of Chemical and Biological EngineeringDepartment of Chemical and Biological Engineering
Illinois Institute of TechnologyIllinois Institute of Technology
Driver Commands
Vehicle
Power
System
+ -Pscap
(sp) Pscap
kscap
High
Level
Controller
Pmot(sp)
+ -Pbat
(sp) Pbat
kbat
+ -Pfc
(sp) Pfc
kfc
PI
PI
PI
fcscbatmot PPPP
Power Balance:
2
, scsclscsc PcPE
fcbatmotsc PPPP
Department of Chemical and Biological EngineeringDepartment of Chemical and Biological Engineering
Illinois Institute of TechnologyIllinois Institute of Technology
Constraints Motivate the use of MPC
Ebat
Pbat
Esc
Psc
Pfc
ΔPfc
max0 batbat EE
maxmin
batbatbat PPP
max0 scsc EE
maxmin
scscsc PPP
max0 fcfc PP maxmin
fcfcfc PPP
Department of Chemical and Biological EngineeringDepartment of Chemical and Biological Engineering
Illinois Institute of TechnologyIllinois Institute of Technology
Model Predictive Control
Vehicle
Power
System
+ -Pscap(sp) Pscap
kscap
MPC
Pmot(sp)
+ -Pbat(sp) Pbat
kbat
+ -Pfc(sp) Pfc
kfc
PI
PI
PI
Department of Chemical and Biological EngineeringDepartment of Chemical and Biological Engineering
Illinois Institute of TechnologyIllinois Institute of Technology
Model Predictive Control
iii
ik
ikuikxik
ikikik
Ni
ik
ik
T
ikik
T
ikux
xx
zzz
uDxDz
BuAxx
tsuRuxQxikik
|
max
|
min
|||
|||1
1
||||,
..)(min||
Department of Chemical and Biological EngineeringDepartment of Chemical and Biological Engineering
Illinois Institute of TechnologyIllinois Institute of Technology
Economic Linear Optimal Control
Steady-State
Operating
Line
Steady-State
Operating
Line
Optimal Steady-State
Operating Point
Expected
Dynamic
Operating
Region
Steady-State
Operating
Line
Optimal Steady-State
Operating Point
Minimally
Baked-off
Operating
Point
Expected
Dynamic
Operating
Regions
Steady-State
Operating
Line
Optimal Steady-State
Operating Point
Different Controller
Tuning Values
Expected
Dynamic
Operating
Regions
Steady-State
Operating
Line
Optimal Steady-State
Operating Point
Minimally
Baked-off
Operating
Point
Different Controller
Tuning Values
Expected
Dynamic
Operating
Regions
Steady-State
Operating
Line
Optimal Steady-State
Operating Point
iELOCi xLu
Department of Chemical and Biological EngineeringDepartment of Chemical and Biological Engineering
Illinois Institute of TechnologyIllinois Institute of Technology
Where are the Economics?
2
,
)(
batbatl
loss
bat PcP 22
,
)()(
batbatbatl
loss
bat
loss
bat
Pc
PPE
)(loss
batbatbat PPE )(0 loss
batbat PP
22
,
)( 0 batbatbatlbatbat
loss
bat PcPPP
Department of Chemical and Biological EngineeringDepartment of Chemical and Biological Engineering
Illinois Institute of TechnologyIllinois Institute of Technology
Time-Series Plots (decomposition of time scales)
0 0.5 1-20
-10
0
10
20
Pbat
hours
0 0.5 1
-20
-10
0
10
20
Psc
hours
0 0.5 11.7
1.8
1.9
2x 10
4
Ebat
0 0.5 10
50
100
150
200
Esc
0 0.5 1
0
0.2
0.4
0.6
Pfc
0 0.5 1-20
-10
0
10
20
dP
fc
hours
Department of Chemical and Biological EngineeringDepartment of Chemical and Biological Engineering
Illinois Institute of TechnologyIllinois Institute of Technology
Acknowledgements
• Current Students and Former Students: Ben Omell David Mendoza-Serrano
Dr. Ming-Wei Yang (Taiwan Electric) Dr. Jui-Kun Peng (ANL)
Amit Manthanwar • Funding: National Science Foundation (CBET – 0967906) Starr Research Fellowship Graduate and Armour Colleges, IIT Department of Chemical & Biological Engineering, IIT
Department of Chemical and Biological EngineeringDepartment of Chemical and Biological Engineering
Illinois Institute of TechnologyIllinois Institute of Technology
Conclusions
• Relationship between control system performance
and plant profit quantified.
• Profit guided controller design.
• Allows for controller embedded system design
• Broad set of applications from a variety of
disciplines.
• Non-convex, but global methods can be used to
size and/or select equipment.