| Previous | [ 1] | [ 2] | [ 3] | [ 4] | [ 5] | [ 6] | [ 7] | [ 8] | [ 9] | [ 10] | [ 11] | [ 12] |
¡@
NASEER SABRI1, S. A. ALJUNID1, R. B. AHMAD1, M. F. MALEK1,
ABID YAHYA1, R. KAMARUDDIN2 AND M. S. SALIM3
1School of Computer and Communication Engineering
2School of Bioprocess Engineering
3School of Mechatronics Engineering
University Malaysia Perlis
Kangar 01000, Perlis, Malaysia
E-mail: nasseersabri@yahoo.com
The advances in pervasive communication, sensing and computing of wireless sensor
networks technologies are leading to the emergence of wireless sensor-actor networks.
The spreading merit of WSAN has led to increasing interest in rendering them
with expert knowledge to be smart and autonomous networks, which have the potential
to enable a large class of applications in multiple fields. Fusion of artificial intelligent
with wireless sensor actor networks (WSAN) is emerging as a new generation of smart
autonomous WSAN. Primarily two most important greenhouse climate parameters are
considered which are the temperature and humidity during diurnal and nocturnal time.
Actuator and sensor nodes has been managed by cognitive wireless sensor-actor network
based greenhouse (CWSAN-GH) Coordinator node (MGHSN) which mimics the brain
of the laborer to provide reliable, power conserving, autonomous control system of a
greenhouse climate. Fuzzy logic controller enables engineers to control more complex
systems more effectively than the conventional control methods which are not efficient
in terms of energy, labor interference, productivity and flexibility. This paper presents
the fusion of artificial intelligence represented by FIS with WSAN for greenhouse climate
control. Also the long life operation of network nodes based on the low power
consumption is presented. Smart algorithm of the network sensor nodes, which contributes
of reducing the power consumption, is addressed in detail. Initial field test for the
CWSAN-GH is presented too. The combination of AI with actor WSN proves high efficiently,
cost effective method, beside flexibility of tuning the whole system for other agricultural
tasks.
Received June 14, 2011; revised August 1, 2011; accepted September 23, 2011.
Communicated by Chung-Ta King.