![](bg8.png)
Figure 8: Analysis of Algorithm performance.
5 CONCLUSION
In this Article, we introduced the AGGIR model, a
special system for determining the autonomy of an
inhabitant adopted by the French government in the
past decade. After that, we show a special language,
the DSL, which is intended to describe activities in the
time domain. Next, we explained our own mechanism
for calculating three of AGGIR variables. Finally, we
presented the results of two simulated scenarios were
analyzed using the previous methodology in order to
examine the criteria we developed. In addition to that,
we tested the scalability of the algorithm.
The automation process of AGGIR is a long-term
process. The system must be tested in many sce-
narios, especially the abnormal ones, which contain
readings representing the occurrence of accidents or
unexpected behavior of the elderly, in order to see the
ability of the system to understand the records cor-
rectly and thus generate appropriate events.
We also look forward to developing the value of
the variables being calculated. As noted above, the
variables in AIGGR are three-fold, whereas in our
study they are binary. Moving to triple-value varia-
bles requires a deeper understanding of the ability that
is being checked, especially as many of variables re-
present principles that cannot be measured using sen-
sors such as the coherence. In this context, we suggest
developing a point system in which an individual gets
a number of points based on activities, and the out-
come is assessed at the end according to the earned
points.
The current system is neither proactive nor inte-
ractive. It depends on analysis of pre-existing sensors
results. In the next step, we are looking forward to
including the concept of real time. In this case, ap-
propriate mechanisms for generating events should be
developed. Finally, the speed of response when a pro-
blem is identified must be taken into account.
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