IEEE 802.11 kablosuz LAN kullanarak PROFIBUS segmentlerin genişletilmesi

Year 2017, Volume: 23 Issue: 5, 573 - 580, 20.10.2017

Cüneyt Bayılmış , İbrahim Özçelik

Abstract

PROFIBUS
uluslararası standartlar ile tanımlanmış endüstriyel süreç kontrol
uygulamalarında yaygın kullanıma sahip bir saha veri yoludur. Diğer saha veri
yolu sistemleri gibi PROFIBUS sistemlerin de bağımsız saha veri yolu
segmentlerini genişletmek ve diğer ağlar ile haberleşmek olmak üzere iki temel
gereksinimi vardır.  Bu gereksinimleri
karşılamak için en iyi çözüm yüksek veri iletim hızları, maliyet ve
hareketlilik gibi avantajları ile kablosuz ağ teknolojilerinden yararlanmaktır.
Bu araştırma çalışmasında PROFIBUS segmentleri IEEE 802.11g WLAN aracılığıyla
genişletmek için tasarlanan PROFIBUS/IEEE 802.11g WLAN Kablosuz Arabağlaşım
Birimi (KAB) sunulmaktadır. Tasarlanan PROFIBUS/IEEE 802.11g WLAN KAB’ın
modellemesi ve bilgisayarlı benzetimi ayrık olay simülasyon tekniği ile
gerçekleştirilmiştir. Kablosuz Arabağlaşım Biriminin başarım analizi, PROFIBUS saha
veri yolunun kullanım oranı, bağımsız PROFIBUS segmentlerin (uzak) mesajlarının
uçtan-uca gecikme ve KAB’ın işlem zamanı parametrelerine göre
gerçekleştirilmiştir.

Keywords

PROFIBUS, IEEE 802.11g WLAN, Kablosuz arabağlaşım

Extending PROFIBUS segments through IEEE 802.11 wireless LAN

Abstract

PROFIBUS
is defined with international standards is a fieldbus standard with widespread
usage in industrial process control applications. PROFIBUS as other Fieldbus
systems has two main requirements such as extending independent PROFIBUS
segments and communicating with other LANs. To overcome these requirements the
best solution is to utilize wireless network technologies due to advantages
such as high data rates, cost and mobility etc. In this research work, the
designed PROFIBUS/IEEE 802.11g WLAN Wireless Interworking Unit (WIU) is
presented to extend PROFIBUS segment through IEEE 802.11 g WLAN. Modeling and
computer simulation of the designed WIU are performed using discrete-event
simulation technique. Performance evaluation of the Wireless Interworking Unit
is carried out according to utilization of PROFIBUS segments, end-to-end
message delay of independent PROFIBUS segments (remote) messages and WIU
process time parameters.

Keywords

PROFIBUS, IEEE 802.11g WLAN, Wireless interworking

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