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Internal behavior of a temperature sensor

Internal behavior of a temperature sensor

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Figure 1. Basic S-BPM language elements and a simple S-BPM process...
Figure 4. Intermediate step of the process model (2)
Figure 5. Intermediate step of the process model (3)
Figure 7. Internal behavior of a temperature sensor
+1 Figure 11. Internal behaviour of the CEP
Facility Management by Means of Subject Oriented Cross Organizational Business Process Management
Conference Paper
Full-text available
  • Jul 2014
The task of facility management (FM) enjoys in-creasing popularity nowadays. There are to main reasons for this[1]: Buildings and land form one of the largest asset item in the balance sheet of companies which can be reduced by FM. On the other hand, the environmental conditions for employees are supposed to be improved continuously. A good working...
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... the next step a function state with a timeout transition is used and the measuring starts again. Figure 7 shows the internal behavior of a temperature sensor. A gateway has got a receiving state as the start state. ...

Citations

... This business sector is facing various challenges ranging from real time maintenance or operational building, project cost reduction to environmental issues. In addition, it is not uncommon that each facility is managed by its stake holder in isolation from the management of other similar facilities (Borgert, Munch, & Heuser, 2014). ...
... In addition, it is important to make this platform available for all stakeholders independently of time and location. Hence, recent developments of advanced cloud environments have gained a tremendous attention from the Facility management business sector (Borgert et al., 2014;Chang Ho, Hyuck, Hae Sun, Heon Young, & Yong Woo, 2009). ...
SDPS-2015-Proceedings
Conference Paper
Full-text available
  • Nov 2015
Power line models derived for 50/60 Hz are not appropriate at high frequencies, utilized for analysis of signal transmission or transients propagation. This paper presents low voltage power line model at frequencies below 500 kHz, which are utilized for power line carrier (PLC) communications. High-frequency model of infinitely long low voltage multi-conductor power line is founded on electromagnetic theory, while charasteristics of a power grid with a branched topology are obtained using multiport theory. Numerical calculations are validated by measurements on 400 V power line.
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