Salgado P, Boaventura Cunha J (2005) Greenhouse climate hierarchical fuzzy modeling. Control
Eng Pract 13:613–628
Shuying M,Yuquan M, Lidong C, Shiguang L (2010) Design of a new measurement and control
system of CO2 for greenhouse based on fuzzy control. In: CCTAE 2010 international
conference on computer and communication technologies in agriculture engineering, vol 1,
pp 128–131
Seginer I (1996) Optimal control of the greenhouse environment: an overview. Acta Hortic
406:191–201
Seginer I, Ioslovich I (1998) Seasonal optimization of the greenhouse environment for a simple
two-stage crop growth model. J Agric Eng Res 70:145–155
Seginer I, Shina G, Albright LD, Marsh LS (1991) Optimal temperature setpoints for greenhouse
lettuce. J Agric Eng Res 49:209–226
Seginer I, McClendon RW (1992) Methods for optimal control of the greenhouse environment.
Trans ASAE 35(4):1299–1307
Seginer I (1997) Some artificial neural network applications to greenhouse environmental control.
Comput Electro Agric 18:167–186
Setiawan A, Albright LD, Phelan RM (2000) Application of pseudo-derivative-feedback
algorithm in greenhouse air temperature control. Comput Electron Agric 26:283–302
Sigrimis N, Arvanitis KG, Pasgianos GD, Ferentinos K (2001) Hidroponics water management
using adaptive scheduling with an on-line optimizer. Comput Electron Agric 31:31–46
Sriraman A, Mayorga RV (2007) Climate control inside a greenhouse: An intelligence system
approach using fuzzy logic programming. J Environ Inf 10(2):68–74
Speetjens SL, Stigter JD, van Straten G (2009) Towards an adaptive model for greenhouse
control. Comput Electron Agric 67:1–8
Stengel RF (1994) Optimal Control and Estimation. Dover Publications, Inc., New York
Tap F (2000) Economics-based optimal control of greenhouse tomato crop production. PhD
Thesis, Wageningen University, The Netherlands, p 127
Tap RF, van Willigenburg LG, van Straten G (1996) Experimental results of receding horizon
optimal control of greenhouse climate. Acta Hortic 406:229–238
Tien B-T (1997) Neural-fuzzy approach for system identification. Wageningen Agricultural
University, Wageningen
Trabelsi A, Lafont F, Kamoun M, Enea G (2007) Fuzzy identification of greenhouse. Appl Soft
Comput 7:1092–1101
Trigui M, Barrington S, Gauthier L (2001a) A strategy for greenhouse climate control, Part I:
model development. J Agric Eng Res 78(4):407–413
Trigui M, Barrington S, Gauthier L (2001b) A strategy for greenhouse climate control, Part II:
model validation. J Agric Engng Res 79(1):99–105
Van Henten EJ (1994) Greenhouse climate management: an optimal control approach. PhD
Thesis, Wageningen University, The Netherlands, p 329
Van Henten EJ, Bontsema J (1996) Greenhouse climate control: a two-time scale approach. Acta
Hort 406:213–219
Van Henten EJ, Bontsema J, van Straten G (1997a) Improving the efficiency of greenhouse
climate control: an optimal control approach. Neth J Agric Sci 45:109–125
Van Henten EJ, Bontsema J (2009) Time-scale decomposition of an optimal control problem in
greenhouse climate management. Control Eng Pract 17:88–96
Van Henten EJ, Bontsema J, van Straten G (1997b) Improving the efficiency of greenhouse
climate control: an optimal control approach. Neth J Agric Sci 45:109–125
Van Ooteghem RJC (2007) Optimal control design for a solar greenhouse. PhD Thesis,
Wageningen University, p 304
Van Straten G, van Willigenburg LG, Tap RF (2002) The significance of crop co-states for
receding horizon optimal control of greenhouse climate. Control Eng Pract 10:625–632
Van Straten G, VanThoor B, van Willigenburg LG, Elings A (2006) A ‘big leaf, big fruit, big
substrate’ model for experiments on receding horizon optimal control of nutrient supply to
greenhouse tomato. Acta Hort ISHS 718:147–156
420
I. L. López-Cruz et al.
Eng Pract 13:613–628
Shuying M,Yuquan M, Lidong C, Shiguang L (2010) Design of a new measurement and control
system of CO2 for greenhouse based on fuzzy control. In: CCTAE 2010 international
conference on computer and communication technologies in agriculture engineering, vol 1,
pp 128–131
Seginer I (1996) Optimal control of the greenhouse environment: an overview. Acta Hortic
406:191–201
Seginer I, Ioslovich I (1998) Seasonal optimization of the greenhouse environment for a simple
two-stage crop growth model. J Agric Eng Res 70:145–155
Seginer I, Shina G, Albright LD, Marsh LS (1991) Optimal temperature setpoints for greenhouse
lettuce. J Agric Eng Res 49:209–226
Seginer I, McClendon RW (1992) Methods for optimal control of the greenhouse environment.
Trans ASAE 35(4):1299–1307
Seginer I (1997) Some artificial neural network applications to greenhouse environmental control.
Comput Electro Agric 18:167–186
Setiawan A, Albright LD, Phelan RM (2000) Application of pseudo-derivative-feedback
algorithm in greenhouse air temperature control. Comput Electron Agric 26:283–302
Sigrimis N, Arvanitis KG, Pasgianos GD, Ferentinos K (2001) Hidroponics water management
using adaptive scheduling with an on-line optimizer. Comput Electron Agric 31:31–46
Sriraman A, Mayorga RV (2007) Climate control inside a greenhouse: An intelligence system
approach using fuzzy logic programming. J Environ Inf 10(2):68–74
Speetjens SL, Stigter JD, van Straten G (2009) Towards an adaptive model for greenhouse
control. Comput Electron Agric 67:1–8
Stengel RF (1994) Optimal Control and Estimation. Dover Publications, Inc., New York
Tap F (2000) Economics-based optimal control of greenhouse tomato crop production. PhD
Thesis, Wageningen University, The Netherlands, p 127
Tap RF, van Willigenburg LG, van Straten G (1996) Experimental results of receding horizon
optimal control of greenhouse climate. Acta Hortic 406:229–238
Tien B-T (1997) Neural-fuzzy approach for system identification. Wageningen Agricultural
University, Wageningen
Trabelsi A, Lafont F, Kamoun M, Enea G (2007) Fuzzy identification of greenhouse. Appl Soft
Comput 7:1092–1101
Trigui M, Barrington S, Gauthier L (2001a) A strategy for greenhouse climate control, Part I:
model development. J Agric Eng Res 78(4):407–413
Trigui M, Barrington S, Gauthier L (2001b) A strategy for greenhouse climate control, Part II:
model validation. J Agric Engng Res 79(1):99–105
Van Henten EJ (1994) Greenhouse climate management: an optimal control approach. PhD
Thesis, Wageningen University, The Netherlands, p 329
Van Henten EJ, Bontsema J (1996) Greenhouse climate control: a two-time scale approach. Acta
Hort 406:213–219
Van Henten EJ, Bontsema J, van Straten G (1997a) Improving the efficiency of greenhouse
climate control: an optimal control approach. Neth J Agric Sci 45:109–125
Van Henten EJ, Bontsema J (2009) Time-scale decomposition of an optimal control problem in
greenhouse climate management. Control Eng Pract 17:88–96
Van Henten EJ, Bontsema J, van Straten G (1997b) Improving the efficiency of greenhouse
climate control: an optimal control approach. Neth J Agric Sci 45:109–125
Van Ooteghem RJC (2007) Optimal control design for a solar greenhouse. PhD Thesis,
Wageningen University, p 304
Van Straten G, van Willigenburg LG, Tap RF (2002) The significance of crop co-states for
receding horizon optimal control of greenhouse climate. Control Eng Pract 10:625–632
Van Straten G, VanThoor B, van Willigenburg LG, Elings A (2006) A ‘big leaf, big fruit, big
substrate’ model for experiments on receding horizon optimal control of nutrient supply to
greenhouse tomato. Acta Hort ISHS 718:147–156
420
I. L. López-Cruz et al.