It is always the case that everytime when the scenario that the value of signal_1_n becomes lower than 87.9 takes place , then all of the following conditions hold : for each time instant in the subsequent 3 time units at a time within the next 95 time units finally the value of signal signal_2_n should be no larger than 72.7 .

globally
(
rise
(
signal_1_n
less
87.9
)
imply
globally
[0,3]
(
finally
[0,95]
(
signal_2_n
less equal
72.7
)
)
)

It is always the case that everytime when the scenario that ( prop_1 ) takes place , then all of the following conditions hold : for each time instant in the subsequent 3 time units at a time within the next 95 time units finally ( prop_2 ) .


There needs to be a certain time point within the first 22 time units , at which signal_1_n is finally 72.2 or signal_2_n has to be no less than 36.4 ultimately .

There needs to be a certain time point within the first 22 time units , at which ( prop_1 ) or ( prop_2 ) .


The mode of signal signal_1_n must be in signal_2_n consistently for every time instant within the first 57 time units .


There shall exist a certain time instant after at most 70 time units , at which the signal_1_n signal is above 24.2 , and eventually the value of signal signal_2_n needs to be less than or equal to 71.3 .

There shall exist a certain time instant after at most 70 time units , at which ( prop_1 ) , and eventually ( prop_2 ) .


For every time instant in the first 83 time units , the value of signal_1_n has to stay above 30.8 and lower than 69.7 all the time or uninterruptedly the value of signal signal_2_n has to be set to 84.6 .

For every time instant in the first 83 time units , ( prop_1 ) or uninterruptedly ( prop_2 ) .


It is always the case that whenever the scenario that the value of signal signal_1_n deviates from 79.7 gets detected then all of the following conditions are true : the value of signal signal_2_n has to be larger than 47.4 at the same time instant .

globally
(
fall
(
signal_1_n
math equal
79.7
)
imply
signal_2_n
more
47.4
)

It is always the case that whenever the scenario that ( prop_1 ) gets detected then all of the following conditions are true : ( prop_2 ) .


On condition that the signal_1_n signal is n't signal_2_n , then the following condition holds : the signal_3_n signal shall not get equal to 23.8 then this condition shall consecutively hold for each moment within the subsequent 61 time units .

globally
(
negation
(
signal_1_n
math equal
signal_2_n
)
imply
globally
[0,61]
(
negation
rise
(
signal_3_n
math equal
23.8
)
)
)

On condition that ( prop_1 ) , then the following condition holds : ( prop_2 ) then this condition shall consecutively hold for each moment within the subsequent 61 time units .


In the case the value of signal signal_1_n is 74.5 and this condition will consecutively remain till the value of signal_2_n is less than or equal to 67.0 , which is finally detected at a certain time instant in the future before the end of the execution then the following condition holds : consistently the value of signal signal_3_n will be keeping at least 52.9 for each moment in the coming 58 to 66 time units .

globally
(
(
signal_1_n
math equal
74.5
)
until
(
signal_2_n
less equal
67.0
)
imply
globally
[58,66]
(
signal_3_n
more equal
52.9
)
)

In the case ( prop_1 ) and this condition will consecutively remain till ( prop_2 ) then the following condition holds : consistently ( prop_3 ) .


Whenever signal_1_n becomes greater than 87.7 , then the following condition holds : immediately the scenario that the mode of signal_2_n becomes not set to signal_3_n has to happen .

globally
(
rise
(
signal_1_n
more
87.7
)
imply
fall
(
signal_2_n
math equal
signal_3_n
)
)

Whenever ( prop_1 ) , then the following condition holds : immediately the scenario that ( prop_2 ) has to happen .


The value of signal_1_n should uninterruptedly stay less than 63.5 for more than 2 time units .


It is always the case that if signal_1_n is less than or equal to 92.3 , or signal_2_n is less than 86.8 , then in response the signal_3_n signal should n't be signal_4_n and then this scenario will have to always continue within the last 40 time units .

globally
(
signal_1_n
less equal
92.3
or
signal_2_n
less
86.8
imply
historically
[0,40]
(
negation
(
signal_3_n
math equal
signal_4_n
)
)
)

It is always the case that if ( prop_1 ) , or ( prop_2 ) , then in response ( prop_3 ) and then this scenario will have to always continue within the last 40 time units .

G ( prop_1 | prop_2 -> hist|ically [ 0 : 40 ] ( prop_3 ) )


For each moment within 99 time units the mode of signal_1_n should be in signal_2_n uninterruptedly .

For each moment within 99 time units ( prop_1 ) .


It is always the case that in case that the value of signal_1_n becomes equal to 68.0 , then the following condition holds : the value of signal_2_n is no more than 0.9 at the same time .

globally
(
rise
(
signal_1_n
math equal
68.0
)
imply
signal_2_n
less equal
0.9
)

It is always the case that in case that ( prop_1 ) , then the following condition holds : ( prop_2 ) .


Everytime when signal_1_n drops to less than or equal to 26.1 , then all of the following conditions are true : there will be ultimately a certain time instant within the coming 14 time units , at which the scenario that signal_2_n starts deviating from 45.5 must be detected .

globally
(
rise
(
signal_1_n
less equal
26.1
)
imply
finally
[0,14]
(
fall
(
signal_2_n
math equal
45.5
)
)
)

Everytime when ( prop_1 ) , then all of the following conditions are true : there will be ultimately a certain time instant within the coming 14 time units , at which the scenario that ( prop_2 ) must be detected .


In case that the event that the value of signal_1_n decreases below 81.7 gets observed , then ultimately after a certain time point within the coming 82 time units , consistently the signal_2_n signal must be above 25.6 and less than 42.1 for every time point in the next 42 time units .

globally ( rise ( signal_1_n less 81.7 ) imply finally [0,82] ( globally [0,42] ( signal_2_n more 25.6 and signal_2_n less 42.1 ) ) )

In case that the event that ( prop_1 ) gets observed , then ultimately after a certain time point within the coming 82 time units , consistently ( prop_2 ) .


There should be sometime during the first 27 to 28 time units , at which the value of signal signal_1_n should be over 13.0 and lower than 54.6 finally and the value of signal_2_n will have to be greater than or equal to 6.1 and at most 15.3 .

There should be sometime during the first 27 to 28 time units , at which ( prop_1 ) and ( prop_2 ) .


Globally , in case that the event that signal_1_n starts deviating from 77.5 gets observed , then the following condition holds : finally there ought to exist a certain time point within the coming 88 time units , after which signal_2_n shall settle to 58.0 and this scenario will hold all the time for every time point in the following 54 time units .

globally
(
fall
(
signal_1_n
math equal
77.5
)
imply
finally
[0,88]
(
globally
[0,54]
(
signal_2_n
math equal
58.0
)
)
)

Globally , in case that the event that ( prop_1 ) gets observed , then the following condition holds : finally there ought to exist a certain time point within the coming 88 time units , after which ( prop_2 ) and this scenario will hold all the time for every time point in the following 54 time units .


On condition that the value of signal signal_1_n is larger than 20.4 and less than 70.2 , or the value of signal_2_n is less than 51.8 then the following condition holds : the value of signal signal_3_n ought to be less than or equal to 31.4 then this scenario has to sustain without interruption in the next 65 time units .

On condition that ( prop_1 ) , or ( prop_2 ) then the following condition holds : ( prop_3 ) then this scenario has to sustain without interruption in the next 65 time units .


Uninterruptedly the signal_1_n signal will be remaining no less than 86.3 in the future until the end of the execution .


In the case the event that signal_1_n starts not equaling to 42.8 is detected then all of the following conditions are true : for every moment in the coming 18 time units , without interruption the value of signal_2_n keeps equal to 12.2 .

globally
(
fall
(
signal_1_n
math equal
42.8
)
imply
globally
[0,18]
(
signal_2_n
math equal
12.2
)
)

In the case the event that ( prop_1 ) is detected then all of the following conditions are true : for every moment in the coming 18 time units , without interruption ( prop_2 ) .


Consistently signal_1_n ought to stay equal to 73.8 for every time instant in the first 49 time units .


On condition that the scenario that signal_1_n becomes less than or equal to 54.5 gets observed then all of the following conditions are true : for every moment within the following 37 time units eventually there will be a certain time instant during the following 36 time units , at which signal_2_n will have to remain greater than or equal to 64.1 .

globally
(
rise
(
signal_1_n
less equal
54.5
)
imply
globally
[0,37]
(
finally
[0,36]
(
signal_2_n
more equal
64.1
)
)
)

On condition that the scenario that ( prop_1 ) gets observed then all of the following conditions are true : for every moment within the following 37 time units eventually there will be a certain time instant during the following 36 time units , at which ( prop_2 ) .


The transition action that the signal_1_n signal falls to less than or equal to 34.6 happens ultimately at a certain moment in the future before the end of the execution .

finally
(
rise
(
signal_1_n
less equal
34.6
)
)

The transition action that ( prop_1 ) happens ultimately at a certain moment in the future before the end of the execution .


The mode of signal_1_n shall consecutively remain in signal_2_n in the future till the end of the simulation .

globally
(
signal_1_n
math equal
signal_2_n
)


At a time within 13 time units the scenario that the value of signal_1_n goes to no less than 53.7 takes place eventually .

finally
[0,13]
(
rise
(
signal_1_n
more equal
53.7
)
)

At a time within 13 time units the scenario that ( prop_1 ) takes place eventually .


Everytime when the event that the signal_1_n signal crosses the threshold of 60.7 gets detected and the value of signal_2_n is n't less than or equal to 62.9 then in response the value of signal signal_3_n shall get to no less than 48.5 instantly .

globally
(
rise
(
signal_1_n
more
60.7
)
and
negation
(
signal_2_n
less equal
62.9
)
imply
rise
(
signal_3_n
more equal
48.5
)
)

Everytime when the event that ( prop_1 ) gets detected and ( prop_2 ) then in response ( prop_3 ) .


The signal_1_n signal should remain no more than 3.0 consistently for every moment within the first 94 time units .


Globally , everytime when signal_1_n is equal to 9.5 , and the scenario that the value of signal_2_n rises to greater than or equal to 45.4 happens then promptly signal_3_n should be above 51.6 , and promptly the transition action that the value of signal signal_4_n begins deviating from 89.9 has to get detected .

globally
(
signal_1_n
math equal
9.5
and
rise
(
signal_2_n
more equal
45.4
)
imply
signal_3_n
more
51.6
and
fall
(
signal_4_n
math equal
89.9
)
)

Globally , everytime when ( prop_1 ) , and the scenario that ( prop_2 ) happens then promptly ( prop_3 ) , and promptly the transition action that ( prop_4 ) has to get detected .


In the case the transition action that the value of signal_1_n falls to no larger than 14.2 takes place , then all of the following conditions hold : eventually there has to be a time within the first 55 time units , at which consistently the signal_2_n signal should never be smaller than 83.6 for every time point within the subsequent 48 time units .

globally
(
rise
(
signal_1_n
less equal
14.2
)
imply
finally
[0,55]
(
globally
[0,48]
(
negation
(
signal_2_n
less
83.6
)
)
)
)

In the case the transition action that ( prop_1 ) takes place , then all of the following conditions hold : eventually there has to be a time within the first 55 time units , at which consistently ( prop_2 ) .


Globally , if the scenario that the signal_1_n signal falls to less than or equal to 40.3 is observed , then all of the following conditions are true : at the same time point the value of signal_2_n has to be greater than 39.4 .

globally
(
rise
(
signal_1_n
less equal
40.3
)
imply
signal_2_n
more
39.4
)

Globally , if the scenario that ( prop_1 ) is observed , then all of the following conditions are true : at the same time point ( prop_2 ) .


There has to be a certain moment in the future before the simulation ends , at which finally the signal_1_n signal shall be greater than or equal to 65.9 and the value of signal signal_2_n ought to be finally equal to 12.3 .

There has to be a certain moment in the future before the simulation ends , at which finally ( prop_1 ) and ( prop_2 ) .


In the future until the end of the simulation , the value of signal signal_1_n will be staying larger than 43.6 consecutively , and consecutively the value of signal signal_2_n needs to stay equal to 77.7 .

In the future until the end of the simulation , ( prop_1 ) , and consecutively ( prop_2 ) .


It is always the case that everytime when the mode of signal_1_n is set to signal_2_n then without any delay the transition action that signal_3_n starts deviating from 6.0 will occur .

globally
(
signal_1_n
math equal
signal_2_n
imply
fall
(
signal_3_n
math equal
6.0
)
)

It is always the case that everytime when ( prop_1 ) then without any delay the transition action that ( prop_2 ) will occur .


If the event that signal_1_n gets to less than or equal to 84.6 is observed then in response at the same moment the event that the mode of signal_2_n deviates from signal_3_n has to be observed .

globally
(
rise
(
signal_1_n
less equal
84.6
)
imply
fall
(
signal_2_n
math equal
signal_3_n
)
)

If the event that ( prop_1 ) is observed then in response at the same moment the event that ( prop_2 ) has to be observed .


It is always the case that in case that the signal_1_n signal is less than 81.4 or the signal_2_n signal gets set to 91.7 , then in response for every time point in the coming 82 time units , the signal_3_n signal must be ultimately no less than 39.6 at a certain time instant in less than 93 time units .

globally
(
signal_1_n
less
81.4
or
rise
(
signal_2_n
math equal
91.7
)
imply
globally
[0,82]
(
finally
[0,93]
(
signal_3_n
more equal
39.6
)
)
)

It is always the case that in case that ( prop_1 ) or ( prop_2 ) , then in response for every time point in the coming 82 time units , ( prop_3 ) .


Globally , if the transition action that the value of signal_1_n gets lower than 21.3 gets observed then all of the following conditions hold : at the same time the signal_2_n signal ought to be set to signal_3_n .

globally
(
rise
(
signal_1_n
less
21.3
)
imply
signal_2_n
math equal
signal_3_n
)

Globally , if the transition action that ( prop_1 ) gets observed then all of the following conditions hold : at the same time ( prop_2 ) .


For every time instant in the first 67 time units , signal_1_n will have to equal to 66.8 consecutively , and the value of signal signal_2_n will have to remain below 56.2 .

For every time instant in the first 67 time units , ( prop_1 ) , and ( prop_2 ) .


In case that the event that the signal_1_n signal is changed to 70.0 happens , then the following condition is true : consecutively the value of signal signal_2_n will have to keep higher than 17.6 and smaller than 68.5 until there exists a time within the next 55 time units , at which signal_3_n will be larger than 92.2 ultimately .

In case that the event that ( prop_1 ) happens , then the following condition is true : consecutively ( prop_2 ) .


It is always the case that everytime when the scenario that the value of signal signal_1_n jumps to more than 46.7 gets observed , then starting without any delay the signal_2_n signal has to be equal to 76.6 , or the signal_3_n signal ought to stay higher than 8.3 at the same time .

It is always the case that everytime when the scenario that ( prop_1 ) gets observed , then starting without any delay ( prop_2 ) , or ( prop_3 ) .


In the future till the execution ends without interruption the value of signal_1_n ought to stay greater than 47.1 , and the signal_2_n signal should remain equal to 79.2 consecutively .

In the future till the execution ends without interruption ( prop_1 ) , and ( prop_2 ) .


In the case the scenario that the state of signal signal_1_n begins deviating from signal_2_n is detected then the following condition is true : the signal_4_n signal should eventually keep equal to 15.7 at a certain time point during the next 94 time units , till then the signal_3_n signal will always remain less than or equal to 43.2 .

globally
(
fall
(
signal_1_n
math equal
signal_2_n
)
imply
(
signal_3_n
less equal
43.2
)
until
[0,94]
(
signal_4_n
math equal
15.7
)
)

In the case the scenario that ( prop_1 ) is detected then the following condition is true : ( prop_2 ) , till then ( prop_3 ) .


For each time point during the first 46 to 93 time units the signal_1_n signal shall remain greater than or equal to 81.7 consecutively .

For each time point during the first 46 to 93 time units ( prop_1 ) .


Whenever the value of signal signal_1_n is less than or equal to 66.0 then the following condition is true : ultimately after a certain time instant within the subsequent 31 time units , the mode of signal signal_2_n needs to be signal_3_n then this condition will be holding in the future till the simulation ends .

globally
(
signal_1_n
less equal
66.0
imply
finally
[0,31]
(
globally
(
signal_2_n
math equal
signal_3_n
)
)
)

Whenever ( prop_1 ) then the following condition is true : ultimately after a certain time instant within the subsequent 31 time units , ( prop_2 ) then this condition will be holding in the future till the simulation ends .


It is always the case that everytime when the scenario that signal_1_n jumps to more than 35.9 is detected then the following condition is true : the value of signal_2_n ought to remain below 84.2 for every time instant in the first 18 time units .

globally ( rise ( signal_1_n more 35.9 ) imply globally [0,18] ( signal_2_n less 84.2 ) )

It is always the case that everytime when the scenario that ( prop_1 ) is detected then the following condition is true : ( prop_2 ) .


It is always the case that if the transition action that the signal_1_n signal goes down to lower than 60.0 happens then the signal_2_n signal shall stay above 33.9 and below 47.8 uninterruptedly till at a time within the first 70 to 71 time units the transition action that the signal_3_n signal enters signal_4_n takes place ultimately .

globally
(
rise
(
signal_1_n
less
60.0
)
imply
(
signal_2_n
more
33.9
and
signal_2_n
less
47.8
)
until
[70,71]
(
rise
(
signal_3_n
math equal
signal_4_n
)
)
)

It is always the case that if the transition action that ( prop_1 ) happens then ( prop_2 ) .


For every time instant during the first 26 time units , the value of signal_1_n shall stay no less than 6.0 consecutively .

For every time instant during the first 26 time units , ( prop_1 ) .


For each moment during the first 36 time units , consecutively the signal_1_n signal will have to stay below 78.9 , and without interruption the signal_2_n signal needs to stay less than 89.7 .

For each moment during the first 36 time units , consecutively ( prop_1 ) , and without interruption ( prop_2 ) .


There needs to be a certain time instant in the future before the simulation ends , at which signal_1_n has to be over 83.7 ultimately .

There needs to be a certain time instant in the future before the simulation ends , at which ( prop_1 ) .


Whenever signal_1_n gets changed to signal_2_n then there will have to be a time within the subsequent 93 time units finally , after which the value of signal signal_3_n has to consecutively stay greater than 7.3 and smaller than 9.7 in the future before the end of the simulation .

globally
(
rise
(
signal_1_n
math equal
signal_2_n
)
imply
finally
[0,93]
(
globally
(
signal_3_n
more
7.3
and
signal_3_n
less
9.7
)
)
)

Whenever ( prop_1 ) then there will have to be a time within the subsequent 93 time units finally , after which ( prop_2 ) .


At a certain moment within the first 21 to 21 time units finally the signal_1_n signal should keep at most 6.6 .

At a certain moment within the first 21 to 21 time units finally ( prop_1 ) .


It is always the case that while the value of signal signal_1_n keeps greater than 44.1 and smaller than 53.2 , or the mode of signal signal_2_n is not signal_3_n , then all of the following conditions are true : at the same time instant the signal_4_n signal ought to be larger than 52.7 and the scenario that the value of signal signal_5_n drops to less than or equal to 23.6 will get detected instantly .

globally
(
(
signal_1_n
more
44.1
and
signal_1_n
less
53.2
)
or
negation
(
signal_2_n
math equal
signal_3_n
)
imply
signal_4_n
more
52.7
and
rise
(
signal_5_n
less equal
23.6
)
)

It is always the case that while ( prop_1 ) , or ( prop_2 ) , then all of the following conditions are true : at the same time instant ( prop_3 ) and the scenario that ( prop_4 ) will get detected instantly .


When signal_1_n goes to no less than 12.2 , then in response signal_2_n has to instantly stay above 21.2 .

globally
(
rise
(
signal_1_n
more equal
12.2
)
imply
signal_2_n
more
21.2
)

When ( prop_1 ) , then in response ( prop_2 ) .


When signal_1_n is greater than or equal to 48.9 and the transition action that the value of signal_2_n decreases below 55.2 occurs , then for each moment within the following 23 to 50 time units the value of signal signal_3_n should be 20.4 ultimately at a certain moment in the future before the execution ends .

globally
(
signal_1_n
more equal
48.9
and
rise
(
signal_2_n
less
55.2
)
imply
globally
[23,50]
(
finally
(
signal_3_n
math equal
20.4
)
)
)

When ( prop_1 ) and the transition action that ( prop_2 ) occurs , then for each moment within the following 23 to 50 time units ( prop_3 ) .


When the event that signal_1_n starts not equaling to 10.1 gets observed then the following condition is true : after sometime within 58 time units without interruption signal_2_n must be set to 56.8 for every moment in the subsequent 52 time units .

globally
(
fall
(
signal_1_n
math equal
10.1
)
imply
finally
[0,58]
(
globally
[0,52]
(
signal_2_n
math equal
56.8
)
)
)

When the event that ( prop_1 ) gets observed then the following condition is true : after sometime within 58 time units without interruption ( prop_2 ) .


Globally , if the event that signal_1_n exceeds the threshold of 82.7 is detected , then the condition that the signal_2_n signal will consistently not be equal to 59.4 for every time instant within 19 time units will not be true .

globally
(
rise
(
signal_1_n
more
82.7
)
imply
negation
(
globally
[0,19]
(
negation
(
signal_2_n
math equal
59.4
)
)
)
)

Globally , if the event that ( prop_1 ) is detected , then the condition that ( prop_2 ) will not be true .


Globally , while signal_1_n is set to signal_2_n , then all of the following conditions hold : continuously the signal_3_n signal will never be less than 79.6 during the past .

globally
(
signal_1_n
math equal
signal_2_n
imply
historically
(
negation
(
signal_3_n
less
79.6
)
)
)

Globally , while ( prop_1 ) , then all of the following conditions hold : continuously ( prop_2 ) .


When the value of signal_1_n is less than 72.4 and the transition action that signal_2_n jumps to at least 80.4 gets detected , then all of the following conditions hold : at sometime in the future before the end of the simulation , signal_3_n ought not to be at most 30.6 and then uninterruptedly this scenario ought to hold in the future till the simulation ends .

globally
(
signal_1_n
less
72.4
and
rise
(
signal_2_n
more equal
80.4
)
imply
finally
(
globally
(
negation
(
signal_3_n
less equal
30.6
)
)
)
)

When ( prop_1 ) and the transition action that ( prop_2 ) gets detected , then all of the following conditions hold : at sometime in the future before the end of the simulation , ( prop_3 ) and then uninterruptedly this scenario ought to hold in the future till the simulation ends .

G ( prop_1 & prop_2 -> F ( G ( prop_3 ) ) )


There has to exist a certain moment in the future before the end of the execution , at which signal_1_n shall be 21.6 eventually , or the value of signal signal_2_n ought to be greater than or equal to 67.6 ultimately .

There has to exist a certain moment in the future before the end of the execution , at which ( prop_1 ) , or ( prop_2 ) .


At a certain time point in the future before the end of the execution the transition action that the state of signal_1_n is changed to signal_2_n sha n't get detected ultimately , or signal_3_n has to be eventually less than or equal to 77.4 .

finally
(
negation
rise
(
signal_1_n
math equal
signal_2_n
)
or
signal_3_n
less equal
77.4
)

At a certain time point in the future before the end of the execution the transition action that ( prop_1 ) , or ( prop_2 ) .


When the event that the signal_1_n signal deviates from 13.2 is detected and the value of signal_2_n is n't equal to 69.3 then for every time instant within the coming 86 time units , there has to be a certain moment starting at most 18 time units , at which the scenario that the value of signal_3_n drops to at most 94.7 will have to ultimately get observed .

globally
(
fall
(
signal_1_n
math equal
13.2
)
and
negation
(
signal_2_n
math equal
69.3
)
imply
globally
[0,86]
(
finally
[0,18]
(
rise
(
signal_3_n
less equal
94.7
)
)
)
)

When the event that ( prop_1 ) is detected and ( prop_2 ) then for every time instant within the coming 86 time units , there has to be a certain moment starting at most 18 time units , at which the scenario that ( prop_3 ) will have to ultimately get observed .


For each time point during the first 62 to 65 time units the value of signal_1_n has to keep greater than or equal to 36.8 and less than or equal to 67.5 consecutively .

For each time point during the first 62 to 65 time units ( prop_1 ) .


In the future until the end of the simulation , the state of signal signal_1_n needs to uninterruptedly remain in signal_2_n .

globally
(
signal_1_n
math equal
signal_2_n
)

In the future until the end of the simulation , ( prop_1 ) .


Whenever the scenario that the value of signal_1_n becomes greater than or equal to 57.6 gets detected then all of the following conditions hold : the value of signal signal_2_n ought to be equal to 6.8 immediately .

globally
(
rise
(
signal_1_n
more equal
57.6
)
imply
signal_2_n
math equal
6.8
)

Whenever the scenario that ( prop_1 ) gets detected then all of the following conditions hold : ( prop_2 ) .


It is always the case that while the value of signal_1_n is larger than 16.8 and below 46.1 or the state of signal signal_2_n is signal_3_n , then the following condition holds : the value of signal signal_4_n will have to be greater than 44.6 promptly .

It is always the case that while ( prop_1 ) or ( prop_2 ) , then the following condition holds : ( prop_3 ) .

G ( ( prop_1 & prop_1 ) | prop_2 -> prop_3 )


Everytime when the transition action that the signal_1_n signal goes to less than or equal to 62.9 is observed then the following condition is true : the signal_2_n signal is above 80.0 and then needs to stay in this range consecutively for each time point within the first 87 time units .

globally
(
rise
(
signal_1_n
less equal
62.9
)
imply
globally
[0,87]
(
signal_2_n
more
80.0
)
)

Everytime when the transition action that ( prop_1 ) is observed then the following condition is true : ( prop_2 ) .


Within the first 23 time units , signal_1_n must be always less than or equal to 16.2 , and the value of signal_2_n must be 8.9 continuously .

Within the first 23 time units , ( prop_1 ) , and ( prop_2 ) .


Eventually there will have to exist a certain time point within the first 12 to 18 time units , at which the scenario that the value of signal_1_n becomes at most 54.2 will have to get detected .

finally
[12,18]
(
rise
(
signal_1_n
less equal
54.2
)
)

Eventually there will have to exist a certain time point within the first 12 to 18 time units , at which the scenario that ( prop_1 ) will have to get detected .


It is always the case that everytime when the event that the value of signal signal_1_n goes to at least 53.1 takes place , then all of the following conditions are true : there will have to exist sometime in the coming 35 time units ultimately , at which the signal_2_n signal has to consecutively stay higher than 44.5 and less than or equal to 97.3 for every time instant during the subsequent 56 time units .

globally
(
rise
(
signal_1_n
more equal
53.1
)
imply
finally
[0,35]
(
globally
[0,56]
(
signal_2_n
more
44.5
and
signal_2_n
less equal
97.3
)
)
)

It is always the case that everytime when the event that ( prop_1 ) takes place , then all of the following conditions are true : there will have to exist sometime in the coming 35 time units ultimately , at which ( prop_2 ) .


Globally , everytime when the signal_1_n signal remains less than or equal to 7.5 , and the event that signal_2_n becomes greater than or equal to 15.7 is observed , then all of the following conditions hold : finally the event that the mode of signal_3_n is changed to signal_4_n will take place at a certain moment during the subsequent 26 time units .

globally
(
signal_1_n
less equal
7.5
and
rise
(
signal_2_n
more equal
15.7
)
imply
finally
[0,26]
(
rise
(
signal_3_n
math equal
signal_4_n
)
)
)

Globally , everytime when ( prop_1 ) , and the event that ( prop_2 ) is observed , then all of the following conditions hold : finally the event that ( prop_3 ) will take place at a certain moment during the subsequent 26 time units .


It is always the case that in case that the transition action that the signal_1_n signal leaves signal_2_n gets observed then the following condition is true : simultaneously the signal_3_n signal has to be at most 22.5 .

globally
(
fall
(
signal_1_n
math equal
signal_2_n
)
imply
signal_3_n
less equal
22.5
)

It is always the case that in case that the transition action that ( prop_1 ) gets observed then the following condition is true : simultaneously ( prop_2 ) .


For more than 38 time units , without interruption signal_1_n will have to be less than 43.9 .

For more than 38 time units , without interruption ( prop_1 ) .


Globally , whenever the event that the value of signal signal_1_n jumps to greater than or equal to 84.1 gets detected or the signal_2_n signal gets to less than or equal to 21.3 then the following condition holds : the state of signal signal_3_n needs to be set to signal_4_n promptly or simultaneously the signal_5_n signal ought to be equal to 72.1 .

globally
(
rise
(
signal_1_n
more equal
84.1
)
or
rise
(
signal_2_n
less equal
21.3
)
imply
signal_3_n
math equal
signal_4_n
or
signal_5_n
math equal
72.1
)

Globally , whenever the event that ( prop_1 ) gets detected or ( prop_2 ) then the following condition holds : ( prop_3 ) or simultaneously ( prop_4 ) .


It is always the case that whenever the transition action that the value of signal signal_1_n goes down to lower than 2.0 is detected , then in response for each time point in the subsequent 0 time units , there will exist sometime within the first 93 time units eventually , at which the transition action that signal_2_n becomes signal_3_n will have to take place .

globally
(
rise
(
signal_1_n
less
2.0
)
imply
globally
[0,0]
(
finally
[0,93]
(
rise
(
signal_2_n
math equal
signal_3_n
)
)
)
)

It is always the case that whenever the transition action that ( prop_1 ) is detected , then in response for each time point in the subsequent 0 time units , there will exist sometime within the first 93 time units eventually , at which the transition action that ( prop_2 ) will have to take place .


There should exist a time in the first 85 time units , at which signal_1_n needs to be eventually equal to 24.1 , or finally the signal_2_n signal must be larger than 86.8 .

There should exist a time in the first 85 time units , at which ( prop_1 ) , or finally ( prop_2 ) .


Globally , when the signal_1_n signal is less than or equal to 20.8 , and the signal_2_n signal is smaller than 29.7 , then all of the following conditions hold : for every moment during the subsequent 56 time units , finally there should be a certain time point starting at most 10 time units , at which the scenario that the signal_3_n signal becomes equal to 90.4 will happen .

globally
(
signal_1_n
less equal
20.8
and
signal_2_n
less
29.7
imply
globally
[0,56]
(
finally
[0,10]
(
rise
(
signal_3_n
math equal
90.4
)
)
)
)

Globally , when ( prop_1 ) , and ( prop_2 ) , then all of the following conditions hold : for every moment during the subsequent 56 time units , finally there should be a certain time point starting at most 10 time units , at which the scenario that ( prop_3 ) will happen .


There should be a certain moment in the first 98 time units , at which signal_1_n should be eventually no less than 1.1 and less than or equal to 3.8 , and the state of signal_2_n remains in signal_3_n eventually .

There should be a certain moment in the first 98 time units , at which ( prop_1 ) , and ( prop_2 ) .


On condition that signal_1_n is at least 3.9 and less than 7.3 and has been keeping like this consistently in the past since the beginning of the simulation then the following condition is true : signal_2_n wo n't get set to signal_3_n and then needs to keep like that during the past 16 to 52 time units .

globally
(
historically
(
signal_1_n
more equal
3.9
and
signal_1_n
less
7.3
)
imply
historically
[16,52]
(
negation
rise
(
signal_2_n
math equal
signal_3_n
)
)
)

On condition that ( prop_1 ) then the following condition is true : ( prop_2 ) .

G ( hist|ically ( prop_1 & prop_1 ) -> hist|ically [ 16 : 52 ] ( prop_2 ) )


In case that the value of signal signal_1_n is above 13.4 and smaller than 39.5 , then the following condition holds : for each time instant during the coming 21 to 30 time units there needs to be a certain time point in the future before the end of the simulation , at which the transition action that the value of signal_2_n decreases to less than or equal to 74.7 shall occur eventually .

globally
(
signal_1_n
more
13.4
and
signal_1_n
less
39.5
imply
globally
[21,30]
(
finally
(
rise
(
signal_2_n
less equal
74.7
)
)
)
)

In case that ( prop_1 ) , then the following condition holds : for each time instant during the coming 21 to 30 time units there needs to be a certain time point in the future before the end of the simulation , at which the transition action that ( prop_2 ) shall occur eventually .


There shall be sometime after at most 97 time units , at which eventually the event that the value of signal_1_n rises to greater than or equal to 2.2 will have to get detected or signal_2_n is in signal_3_n eventually .

There shall be sometime after at most 97 time units , at which eventually the event that ( prop_1 ) will have to get detected or ( prop_2 ) .


Everytime when the transition action that the mode of signal signal_1_n gets changed to signal_2_n takes place , then there will be a certain time instant in the first 11 to 29 time units , at which the event that the state of signal_3_n shifts to signal_4_n needs to take place finally .

globally
(
rise
(
signal_1_n
math equal
signal_2_n
)
imply
finally
[11,29]
(
rise
(
signal_3_n
math equal
signal_4_n
)
)
)

Everytime when the transition action that ( prop_1 ) takes place , then there will be a certain time instant in the first 11 to 29 time units , at which the event that ( prop_2 ) needs to take place finally .


For every time point during the first 96 time units , consecutively the signal_1_n signal will be in signal_2_n , and consecutively the value of signal_3_n will have to remain equal to 34.0 .

For every time point during the first 96 time units , consecutively ( prop_1 ) , and consecutively ( prop_2 ) .


As soon as the scenario that signal_1_n gets raised above 44.5 happens , then all of the following conditions are true : consecutively the value of signal_2_n needs to stay equal to 47.7 till the value of signal signal_3_n eventually becomes no larger than 3.0 , which is observed at a certain time point in the following 11 time units .

globally
(
rise
(
signal_1_n
more
44.5
)
imply
(
signal_2_n
math equal
47.7
)
until
[0,11]
(
rise
(
signal_3_n
less equal
3.0
)
)
)

As soon as the scenario that ( prop_1 ) happens , then all of the following conditions are true : consecutively ( prop_2 ) .


In the future until the execution ends , the value of signal signal_1_n is consistently 60.5 , and uninterruptedly the value of signal_2_n must not be above 31.1 .

globally
(
signal_1_n
math equal
60.5
and
negation
(
signal_2_n
more
31.1
)
)

In the future until the execution ends , ( prop_1 ) , and uninterruptedly ( prop_2 ) .


For each moment within the first 45 time units , consecutively the value of signal_1_n will be keeping at least 13.2 and no more than 46.7 , or the signal_2_n signal needs to be in signal_3_n .

For each moment within the first 45 time units , consecutively ( prop_1 ) , or ( prop_2 ) .


For every moment during the first 90 time units , consecutively the signal_1_n signal ought to stay below 62.0 .

For every moment during the first 90 time units , consecutively ( prop_1 ) .


Globally , in case that the transition action that the signal_1_n signal gets raised to at least 60.0 is detected then all of the following conditions are true : there needs to ultimately exist a certain moment in the future before the end of the simulation , at which signal_2_n ought to be signal_3_n and continues like that all the time for each moment within the coming 26 time units .

globally
(
rise
(
signal_1_n
more equal
60.0
)
imply
finally
(
globally
[0,26]
(
signal_2_n
math equal
signal_3_n
)
)
)

Globally , in case that the transition action that ( prop_1 ) is detected then all of the following conditions are true : there needs to ultimately exist a certain moment in the future before the end of the simulation , at which ( prop_2 ) and continues like that all the time for each moment within the coming 26 time units .


It is always the case that in case that the transition action that the mode of signal_1_n is changed to signal_2_n gets detected then all of the following conditions hold : the state of signal signal_4_n will be ultimately in signal_5_n at a certain time instant in the next 1 to 96 time units , before that consistently the signal_3_n signal will have to be set to 91.1 .

globally
(
rise
(
signal_1_n
math equal
signal_2_n
)
imply
(
signal_3_n
math equal
91.1
)
until
[1,96]
(
signal_4_n
math equal
signal_5_n
)
)

It is always the case that in case that the transition action that ( prop_1 ) gets detected then all of the following conditions hold : ( prop_2 ) .


Globally , whenever the event that the signal_1_n signal becomes not set to 68.0 takes place then the following condition is true : the value of signal_2_n shall be 17.4 then consecutively this condition shall sustain for each time point within the next 97 time units .

globally
(
fall
(
signal_1_n
math equal
68.0
)
imply
globally
[0,97]
(
signal_2_n
math equal
17.4
)
)

Globally , whenever the event that ( prop_1 ) takes place then the following condition is true : ( prop_2 ) then consecutively this condition shall sustain for each time point within the next 97 time units .


It is always the case that if the mode of signal signal_1_n is signal_2_n then this scenario has been always lasting for the past 71 time units , then in response there will be ultimately a certain time instant within the first 100 time units , at which for each time point in the next 77 time units , the mode of signal_3_n shall keep in signal_4_n without interruption .

globally
(
historically
[0,71]
(
signal_1_n
math equal
signal_2_n
)
imply
finally
[0,100]
(
globally
[0,77]
(
signal_3_n
math equal
signal_4_n
)
)
)

It is always the case that if ( prop_1 ) then this scenario has been always lasting for the past 71 time units , then in response there will be ultimately a certain time instant within the first 100 time units , at which for each time point in the next 77 time units , ( prop_2 ) .


It is always the case that whenever signal_1_n is less than or equal to 30.1 and this condition has been remaining continuously in the past since the start of the execution then in response signal_2_n should remain above 0.5 and less than 46.4 all the time until there is a certain time instant in the subsequent 64 time units , at which finally the event that signal_3_n deviates from 27.7 gets detected .

globally
(
historically
(
signal_1_n
less equal
30.1
)
imply
(
signal_2_n
more
0.5
and
signal_2_n
less
46.4
)
until
[0,64]
(
fall
(
signal_3_n
math equal
27.7
)
)
)

It is always the case that whenever ( prop_1 ) and this condition has been remaining continuously in the past since the start of the execution then in response ( prop_2 ) .

G ( hist|ically ( prop_1 ) -> ( prop_2 & prop_2 ) U [ 0 : 64 ] ( prop_2 ) )


For every time instant within the first 64 time units , uninterruptedly the value of signal_1_n has to keep less than or equal to 84.5 , or the value of signal signal_2_n will always equal to 61.8 .

For every time instant within the first 64 time units , uninterruptedly ( prop_1 ) , or ( prop_2 ) .


There will be a certain time point within 24 time units eventually , at which the value of signal signal_1_n must fall below 66.6 .

finally [0,24] ( rise ( signal_1_n less 66.6 ) )

There will be a certain time point within 24 time units eventually , at which ( prop_1 ) .


On condition that continuously the mode of signal_1_n will not be set to signal_2_n for each time instant within the coming 92 time units , then in response at a certain time point after at most 39 time units , the value of signal signal_3_n needs to be greater than or equal to 50.7 and less than or equal to 61.9 and then stay like this continuously for each moment in the next 54 time units .

globally
(
globally
[0,92]
(
negation
(
signal_1_n
math equal
signal_2_n
)
)
imply
finally
[0,39]
(
globally
[0,54]
(
signal_3_n
more equal
50.7
and
signal_3_n
less equal
61.9
)
)
)

On condition that continuously ( prop_1 ) , then in response at a certain time point after at most 39 time units , ( prop_2 ) .


It is always the case that if the event that the signal_1_n signal drops to less than or equal to 18.2 occurs , then the following condition is true : there ought to be a certain time instant within 68 time units finally , at which the state of signal signal_2_n needs to uninterruptedly stay in signal_3_n for the next 15 time units .

globally
(
rise
(
signal_1_n
less equal
18.2
)
imply
finally
[0,68]
(
globally
[0,15]
(
signal_2_n
math equal
signal_3_n
)
)
)

It is always the case that if the event that ( prop_1 ) occurs , then the following condition is true : there ought to be a certain time instant within 68 time units finally , at which ( prop_2 ) .


It is always the case that in case that the scenario that signal_1_n gets set to signal_2_n takes place , then the following condition is true : simultaneously signal_3_n must be set to signal_4_n .

globally
(
rise
(
signal_1_n
math equal
signal_2_n
)
imply
signal_3_n
math equal
signal_4_n
)

It is always the case that in case that the scenario that ( prop_1 ) takes place , then the following condition is true : simultaneously ( prop_2 ) .


It is always the case that in case that the scenario that the value of signal signal_1_n is changed to 76.0 is detected , then all of the following conditions are true : the scenario that the mode of signal_2_n gets changed to signal_3_n must instantly not happen .

globally
(
rise
(
signal_1_n
math equal
76.0
)
imply
negation
rise
(
signal_2_n
math equal
signal_3_n
)
)

It is always the case that in case that the scenario that ( prop_1 ) is detected , then all of the following conditions are true : the scenario that ( prop_2 ) must instantly not happen .


As soon as the scenario that the signal_1_n signal gets raised to no less than 15.1 takes place then the following condition holds : the value of signal_2_n ought to be below 82.9 simultaneously .

globally
(
rise
(
signal_1_n
more equal
15.1
)
imply
signal_2_n
less
82.9
)

As soon as the scenario that ( prop_1 ) takes place then the following condition holds : ( prop_2 ) .


If signal_1_n is 33.4 , or the scenario that the value of signal signal_2_n begins deviating from 18.5 happens , then all of the following conditions are true : for every time point within the following 53 time units , eventually the value of signal_3_n shall be greater than or equal to 5.2 and below 7.8 at a certain time instant in the coming 81 time units .

If ( prop_1 ) , or the scenario that ( prop_2 ) happens , then all of the following conditions are true : for every time point within the following 53 time units , eventually ( prop_3 ) .


There should exist a certain moment after between 3 to 51 time units , at which finally signal_1_n will be larger than 12.9 and below 43.3 and signal_2_n has to finally go to at most 76.6 .

There should exist a certain moment after between 3 to 51 time units , at which finally ( prop_1 ) and ( prop_2 ) .


Globally , in case that the transition action that the value of signal signal_1_n becomes smaller than 24.3 takes place , then the following condition is true : the signal_2_n signal is less than or equal to 61.0 promptly .

globally
(
rise
(
signal_1_n
less
24.3
)
imply
signal_2_n
less equal
61.0
)

Globally , in case that the transition action that ( prop_1 ) takes place , then the following condition is true : ( prop_2 ) .


Globally , during the interval that the signal_1_n signal is 25.4 and the value of signal_2_n is less than or equal to 99.4 then the following condition holds : for every moment during the subsequent 5 to 9 time units at a certain time point after at most 48 time units the signal_3_n signal must be 41.2 eventually .

Globally , during the interval that ( prop_1 ) and ( prop_2 ) then the following condition holds : for every moment during the subsequent 5 to 9 time units at a certain time point after at most 48 time units ( prop_3 ) .


In the case the scenario that signal_1_n jumps to greater than or equal to 24.3 gets detected , then all of the following conditions are true : at a certain time instant starting at most 79 time units eventually the value of signal_2_n needs to be less than or equal to 8.6 .

globally
(
rise
(
signal_1_n
more equal
24.3
)
imply
finally
[0,79]
(
signal_2_n
less equal
8.6
)
)

In the case the scenario that ( prop_1 ) gets detected , then all of the following conditions are true : at a certain time instant starting at most 79 time units eventually ( prop_2 ) .


In case that the scenario that signal_1_n rises to greater than or equal to 77.4 is observed then the following condition holds : at a time in the following 21 time units , for each time point in the following 10 time units , the value of signal signal_2_n will have to equal to 51.9 continuously .

globally
(
rise
(
signal_1_n
more equal
77.4
)
imply
finally
[0,21]
(
globally
[0,10]
(
signal_2_n
math equal
51.9
)
)
)

In case that the scenario that ( prop_1 ) is observed then the following condition holds : at a time in the following 21 time units , for each time point in the following 10 time units , ( prop_2 ) .


It is always the case that everytime when the value of signal signal_1_n is larger than 12.4 and smaller than 22.1 , and the value of signal signal_2_n is at least 43.6 and less than or equal to 70.5 , then the following condition is true : at sometime during the following 74 time units for more than 81 time units , signal_3_n is never 84.6 .

globally
(
(
signal_1_n
more
12.4
and
signal_1_n
less
22.1
)
and
(
signal_2_n
more equal
43.6
and
signal_2_n
less equal
70.5
)
imply
finally
[0,74]
(
globally
[0,81]
(
negation
(
signal_3_n
math equal
84.6
)
)
)
)

It is always the case that everytime when ( prop_1 ) , and ( prop_2 ) , then the following condition is true : at sometime during the following 74 time units for more than 81 time units , ( prop_3 ) .


The event that the signal_1_n signal starts not equaling to 14.8 does n't get observed in the future before the simulation ends .

globally
(
negation
fall
(
signal_1_n
math equal
14.8
)
)

The event that ( prop_1 ) does n't get observed in the future before the simulation ends .


There must be finally a certain time instant within 8 to 33 time units , at which the state of signal_1_n will be signal_2_n .

There must be finally a certain time instant within 8 to 33 time units , at which ( prop_1 ) .


It is always the case that if the mode of signal signal_1_n is not in signal_2_n then in response for every moment in the future before the end of the simulation the mode of signal_3_n needs to be signal_4_n at a time during the coming 10 to 23 time units .

globally
(
negation
(
signal_1_n
math equal
signal_2_n
)
imply
globally
(
finally
[10,23]
(
signal_3_n
math equal
signal_4_n
)
)
)

It is always the case that if ( prop_1 ) then in response for every moment in the future before the end of the simulation ( prop_2 ) .


In the future till the execution ends , continuously the signal_1_n signal should be set to signal_2_n and the signal_3_n signal has to be consistently higher than 87.1 and less than 91.2 .

In the future till the execution ends , continuously ( prop_1 ) and ( prop_2 ) .


It is always the case that if the event that the value of signal_1_n decreases to at most 27.2 gets observed then in response uninterruptedly the signal_2_n signal has to stay higher than 17.3 for every moment within 12 time units .

globally
(
rise
(
signal_1_n
less equal
27.2
)
imply
globally
[0,12]
(
signal_2_n
more
17.3
)
)

It is always the case that if the event that ( prop_1 ) gets observed then in response uninterruptedly ( prop_2 ) .


It is always the case that when the state of signal signal_1_n is n't set to signal_2_n and the value of signal_3_n is 36.3 then all of the following conditions hold : eventually there ought to be sometime within the coming 98 time units , at which for each time point within the following 47 time units , the signal_4_n signal will consistently remain smaller than 0.4 .

globally
(
negation
(
signal_1_n
math equal
signal_2_n
)
and
signal_3_n
math equal
36.3
imply
finally
[0,98]
(
globally
[0,47]
(
signal_4_n
less
0.4
)
)
)

It is always the case that when ( prop_1 ) and ( prop_2 ) then all of the following conditions hold : eventually there ought to be sometime within the coming 98 time units , at which for each time point within the following 47 time units , ( prop_3 ) .


It is always the case that when signal_1_n is 82.6 , then in response there should be a time within the following 24 to 65 time units , at which the value of signal signal_3_n should be equal to 50.3 ultimately , and until then the value of signal_2_n will be consecutively keeping larger than 25.6 and less than 47.0 .

It is always the case that when ( prop_1 ) , then in response there should be a time within the following 24 to 65 time units , at which ( prop_2 ) , and until then ( prop_3 ) .


When the value of signal signal_1_n is larger than 21.9 and the signal_2_n signal stays greater than 74.1 then for each time instant within 41 to 85 time units the value of signal_3_n needs to become more than 58.5 finally at sometime in the following 95 to 100 time units .

globally ( signal_1_n more 21.9 and signal_2_n more 74.1 imply globally [41,85] ( finally [95,100] ( rise ( signal_3_n more 58.5 ) ) ) )

When ( prop_1 ) and ( prop_2 ) then for each time instant within 41 to 85 time units ( prop_3 ) .


In case that signal_1_n is less than or equal to 96.0 then the following condition is true : the value of signal signal_2_n will have to be higher than 63.6 and then consecutively remained like this within the past 0 to 49 time units .

In case that ( prop_1 ) then the following condition is true : ( prop_2 ) .

G ( prop_1 -> hist|ically [ 0 : 49 ] ( prop_2 ) )


Globally , if the transition action that the signal_1_n signal becomes signal_2_n does n't get detected , then in response for every time point during the next 78 time units at a certain time instant within 78 time units , the signal_3_n signal will have to be eventually greater than or equal to 22.0 .

globally
(
negation
rise
(
signal_1_n
math equal
signal_2_n
)
imply
globally
[0,78]
(
finally
[0,78]
(
signal_3_n
more equal
22.0
)
)
)

Globally , if the transition action that ( prop_1 ) does n't get detected , then in response for every time point during the next 78 time units at a certain time instant within 78 time units , ( prop_2 ) .


It is always the case that in case that the event that the value of signal_1_n shifts to 32.6 gets detected , then the signal_2_n signal should n't be greater than 82.3 then this scenario will always remain till at sometime during the subsequent 88 time units signal_3_n is finally larger than 11.3 and below 41.6 .

globally
(
rise
(
signal_1_n
math equal
32.6
)
imply
(
negation
(
signal_2_n
more
82.3
)
)
until
[0,88]
(
signal_3_n
more
11.3
and
signal_3_n
less
41.6
)
)

It is always the case that in case that the event that ( prop_1 ) gets detected , then ( prop_2 ) then this scenario will always remain till at sometime during the subsequent 88 time units ( prop_3 ) .


If the event that the value of signal signal_1_n goes down to smaller than 64.0 is observed then all of the following conditions hold : there must be a time within the subsequent 41 time units , at which the event that signal_2_n gets shifted to 30.4 must be detected finally .

globally
(
rise
(
signal_1_n
less
64.0
)
imply
finally
[0,41]
(
rise
(
signal_2_n
math equal
30.4
)
)
)

If the event that ( prop_1 ) is observed then all of the following conditions hold : there must be a time within the subsequent 41 time units , at which the event that ( prop_2 ) must be detected finally .


The event that signal_1_n gets lower than 36.8 should be observed finally at a certain time point within the first 16 time units .

finally [0,16] ( rise ( signal_1_n less 36.8 ) )

The event that ( prop_1 ) should be observed finally at a certain time point within the first 16 time units .


Whenever the transition action that the mode of signal signal_1_n is changed to signal_2_n is detected , then the following condition holds : instantly the scenario that the value of signal_3_n gets to greater than or equal to 63.3 has to take place .

globally
(
rise
(
signal_1_n
math equal
signal_2_n
)
imply
rise
(
signal_3_n
more equal
63.3
)
)

Whenever the transition action that ( prop_1 ) is detected , then the following condition holds : instantly the scenario that ( prop_2 ) has to take place .


At a time starting between 74 to 100 time units , the scenario that the signal_1_n signal deviates from 28.4 takes place eventually , or signal_2_n should be at least 31.1 eventually .

At a time starting between 74 to 100 time units , the scenario that ( prop_1 ) takes place eventually , or ( prop_2 ) .


Globally , everytime when the value of signal signal_1_n is smaller than 67.0 , then there shall be eventually a certain time instant in the future before the execution ends , after which for the next 100 time units the value of signal signal_2_n ought to be consistently greater than or equal to 0.2 and less than or equal to 0.2 .

globally
(
signal_1_n
less
67.0
imply
finally
(
globally
[0,100]
(
signal_2_n
more equal
0.2
and
signal_2_n
less equal
0.2
)
)
)

Globally , everytime when ( prop_1 ) , then there shall be eventually a certain time instant in the future before the execution ends , after which for the next 100 time units ( prop_2 ) .


It is always the case that if the scenario that the value of signal signal_1_n goes down to less than 40.4 is observed , then for each time instant in the first 11 to 49 time units at sometime in the future before the execution ends ultimately signal_2_n should not be no less than 36.7 .

globally
(
rise
(
signal_1_n
less
40.4
)
imply
globally
[11,49]
(
finally
(
negation
(
signal_2_n
more equal
36.7
)
)
)
)

It is always the case that if the scenario that ( prop_1 ) is observed , then for each time instant in the first 11 to 49 time units at sometime in the future before the execution ends ultimately ( prop_2 ) .


In the future until the end of the simulation the value of signal_1_n will be less than or equal to 57.4 continuously , or consecutively the event that the signal_2_n signal becomes smaller than 7.4 ought not to get detected .

globally
(
signal_1_n
less equal
57.4
or
negation
fall
(
signal_2_n
more equal
7.4
)
)

In the future until the end of the simulation ( prop_1 ) , or consecutively the event that ( prop_2 ) ought not to get detected .


As soon as the event that signal_1_n goes over 61.9 occurs then all of the following conditions hold : consecutively the value of signal signal_2_n must equal to 13.8 until finally at a certain time instant in the following 56 time units , the scenario that the value of signal signal_3_n drops to less than or equal to 2.7 will get detected .

globally
(
rise
(
signal_1_n
more
61.9
)
imply
(
signal_2_n
math equal
13.8
)
until
[0,56]
(
rise
(
signal_3_n
less equal
2.7
)
)
)

As soon as the event that ( prop_1 ) occurs then all of the following conditions hold : consecutively ( prop_2 ) , the scenario that ( prop_3 ) will get detected .


For each time instant within 59 time units , signal_1_n will be keeping higher than 20.0 and smaller than 27.0 continuously , and the mode of signal_2_n needs to be in signal_3_n without interruption .

For each time instant within 59 time units , ( prop_1 ) , and ( prop_2 ) .


At a time in less than 76 time units ultimately the event that the value of signal_1_n gets to no larger than 78.3 happens .

finally
[0,76]
(
rise
(
signal_1_n
less equal
78.3
)
)

At a time in less than 76 time units ultimately the event that ( prop_1 ) happens .


Whenever the value of signal_1_n begins deviating from 5.5 then the value of signal signal_2_n should settle to 38.2 instantly .

globally
(
fall
(
signal_1_n
math equal
5.5
)
imply
signal_2_n
math equal
38.2
)


It is always the case that everytime when in the past 19 time units the scenario that the state of signal_1_n begins deviating from signal_2_n has not been detected then the following condition is true : signal_3_n will have to be greater than 8.1 and less than 8.7 and then have to consecutively stay in this range in the future till the execution ends .

globally
(
historically
[0,19]
(
negation
fall
(
signal_1_n
math equal
signal_2_n
)
)
imply
globally
(
signal_3_n
more
8.1
and
signal_3_n
less
8.7
)
)

It is always the case that everytime when in the past 19 time units the scenario that ( prop_1 ) has not been detected then the following condition is true : ( prop_2 ) .

G ( hist|ically [ 0 : 19 ] ( prop_1 ) -> G ( prop_2 & prop_2 ) )


As soon as in the last 61 time units , the value of signal signal_1_n always keeps less than 76.4 , then the following condition is true : for every time instant in the future till the execution ends , the event that the value of signal signal_2_n crosses 59.8 must finally take place at sometime within the next 31 to 42 time units .

globally ( historically [0,61] ( signal_1_n less 76.4 ) imply globally ( finally [31,42] ( rise ( signal_2_n more 59.8 ) ) ) )

As soon as in the last 61 time units , ( prop_1 ) , then the following condition is true : for every time instant in the future till the execution ends , the event that ( prop_2 ) must finally take place at sometime within the next 31 to 42 time units .


For each time instant in the first 92 time units , the mode of signal_1_n will have to remain in signal_2_n without interruption .

For each time instant in the first 92 time units , ( prop_1 ) .


It is always the case that whenever the scenario that the value of signal signal_1_n falls to less than or equal to 57.8 gets detected then all of the following conditions hold : for each moment within the following 44 to 69 time units there needs to exist a certain time point in the future before the end of the execution , at which the value of signal_2_n ought to be greater than or equal to 22.1 and less than or equal to 40.0 eventually .

globally
(
rise
(
signal_1_n
less equal
57.8
)
imply
globally
[44,69]
(
finally
(
signal_2_n
more equal
22.1
and
signal_2_n
less equal
40.0
)
)
)

It is always the case that whenever the scenario that ( prop_1 ) gets detected then all of the following conditions hold : for each moment within the following 44 to 69 time units there needs to exist a certain time point in the future before the end of the execution , at which ( prop_2 ) .


Globally , when the scenario that the value of signal_1_n falls to less than or equal to 10.9 occurs , then in response finally there is a certain time instant after at most 81 time units , at which signal_2_n is uninterruptedly set to 1.4 for each moment within the subsequent 75 time units .

globally
(
rise
(
signal_1_n
less equal
10.9
)
imply
finally
[0,81]
(
globally
[0,75]
(
signal_2_n
math equal
1.4
)
)
)

Globally , when the scenario that ( prop_1 ) occurs , then in response finally there is a certain time instant after at most 81 time units , at which ( prop_2 ) .


While the mode of signal signal_1_n is in signal_2_n , then all of the following conditions are true : finally there has to be a certain moment within the first 41 time units , at which for each moment within the following 61 time units , the state of signal signal_3_n must keep in signal_4_n consistently .

globally
(
signal_1_n
math equal
signal_2_n
imply
finally
[0,41]
(
globally
[0,61]
(
signal_3_n
math equal
signal_4_n
)
)
)

While ( prop_1 ) , then all of the following conditions are true : finally there has to be a certain moment within the first 41 time units , at which for each moment within the following 61 time units , ( prop_2 ) .


It is always the case that whenever the scenario that the state of signal signal_1_n leaves signal_2_n happens , then in response promptly the value of signal_3_n has to be less than or equal to 60.9 .

globally
(
fall
(
signal_1_n
math equal
signal_2_n
)
imply
signal_3_n
less equal
60.9
)

It is always the case that whenever the scenario that ( prop_1 ) happens , then in response promptly ( prop_2 ) .


If the scenario that the value of signal_1_n increases to at least 92.3 occurs then in response the value of signal signal_2_n will have to be smaller than 4.6 at the same time instant .

globally
(
rise
(
signal_1_n
more equal
92.3
)
imply
signal_2_n
less
4.6
)

If the scenario that ( prop_1 ) occurs then in response ( prop_2 ) .


Whenever signal_1_n falls to no larger than 25.6 , then in response the signal_2_n signal needs to be no less than 29.2 and then will stay in this range in the future before the execution ends .

globally
(
rise
(
signal_1_n
less equal
25.6
)
imply
globally
(
signal_2_n
more equal
29.2
)
)

Whenever ( prop_1 ) , then in response ( prop_2 ) .


It is always the case that when the transition action that the signal_1_n signal drops to less than or equal to 32.3 is detected and the value of signal_2_n equals to 48.6 , then the following condition holds : eventually there will have to exist sometime during the subsequent 57 time units , at which signal_3_n should be less than or equal to 72.0 continuously for the next 50 time units .

globally
(
rise
(
signal_1_n
less equal
32.3
)
and
signal_2_n
math equal
48.6
imply
finally
[0,57]
(
globally
[0,50]
(
signal_3_n
less equal
72.0
)
)
)

It is always the case that when the transition action that ( prop_1 ) and ( prop_2 ) , then the following condition holds : eventually there will have to exist sometime during the subsequent 57 time units , at which ( prop_3 ) .


For the first 37 to 43 time units signal_1_n should remain on 85.0 all the time .

For the first 37 to 43 time units ( prop_1 ) .


It is always the case that if signal_1_n is no less than 43.2 or signal_2_n is not signal_3_n then signal_4_n has to be set to 85.6 all the time until the value of signal signal_5_n will be between 45.0 -LRB- open -RRB- and 68.6 -LRB- open -RRB- ultimately at sometime during the first 13 time units .

It is always the case that if ( prop_1 ) or ( prop_2 ) then ( prop_3 ) .


At a certain time point in the first 1 time units the value of signal_1_n should be ultimately at least 8.8 .

At a certain time point in the first 1 time units ( prop_1 ) .


It is always the case that when the event that signal_1_n jumps to larger than 25.6 takes place , then all of the following conditions are true : ultimately at sometime in the future before the execution ends the value of signal signal_2_n has to be greater than or equal to 0.4 and at most 13.8 and then this scenario will have to uninterruptedly hold for every time instant within the following 26 time units .

globally
(
rise
(
signal_1_n
more
25.6
)
imply
finally
(
globally
[0,26]
(
signal_2_n
more equal
0.4
and
signal_2_n
less equal
13.8
)
)
)

It is always the case that when the event that ( prop_1 ) takes place , then all of the following conditions are true : ultimately at sometime in the future before ( prop_2 ) and then this scenario will have to uninterruptedly hold for every time instant within the following 26 time units .


As soon as the transition action that signal_1_n becomes at least 40.1 is detected , and the value of signal_2_n remains greater than or equal to 35.9 , then all of the following conditions are true : the signal_3_n signal is over 12.0 and below 56.1 at the same time instant .

As soon as the transition action that ( prop_1 ) is detected , and ( prop_2 ) , then all of the following conditions are true : ( prop_3 ) .


For the first 12 to 37 time units uninterruptedly the transition action that the value of signal signal_1_n starts not equaling to 41.4 ought not to get detected and the value of signal_2_n has to be set to 3.8 consistently .

globally
[12,37]
(
negation
fall
(
signal_1_n
math equal
41.4
)
and
signal_2_n
math equal
3.8
)

For the first 12 to 37 time units uninterruptedly the transition action that ( prop_1 ) ought not to get detected and ( prop_2 ) .


At a certain moment within 42 time units , eventually the event that the value of signal signal_1_n drops to no more than 10.2 wo n't occur .

finally [0,42] ( negation fall ( signal_1_n more 10.2 ) )

At a certain moment within 42 time units , eventually the event that ( prop_1 ) wo n't occur .


In the case the value of signal signal_1_n is 61.0 , and signal_2_n is less than or equal to 32.0 , then all of the following conditions are true : for every moment within the next 6 to 43 time units there will finally exist a certain moment in the next 57 time units , at which the signal_3_n signal should be 90.9 .

In the case ( prop_1 ) , and ( prop_2 ) , then all of the following conditions are true : for every moment within the next 6 to 43 time units there will finally exist a certain moment in the next 57 time units , at which ( prop_3 ) .


Globally , everytime when the transition action that the value of signal signal_1_n begins deviating from 18.7 occurs then the value of signal_2_n will be equal to 87.9 and this condition has to remain all the time for every time point during the following 38 time units .

globally
(
fall
(
signal_1_n
math equal
18.7
)
imply
globally
[0,38]
(
signal_2_n
math equal
87.9
)
)

Globally , everytime when the transition action that ( prop_1 ) occurs then ( prop_2 ) and this condition has to remain all the time for every time point during the following 38 time units .


It is always the case that everytime when the scenario that the value of signal signal_1_n begins deviating from 49.7 takes place , then the following condition holds : signal_2_n is equal to 41.7 immediately .

globally
(
fall
(
signal_1_n
math equal
49.7
)
imply
signal_2_n
math equal
41.7
)

It is always the case that everytime when the scenario that ( prop_1 ) takes place , then the following condition holds : ( prop_2 ) .


Globally , when the signal_1_n signal is less than 53.1 and signal_2_n stays below 87.8 then in response starting without any delay the event that the value of signal signal_3_n rises to no less than 13.6 must be observed and the value of signal signal_4_n should remain larger than 57.3 and smaller than 64.1 .

Globally , when ( prop_1 ) and ( prop_2 ) then in response starting without any delay the event that ( prop_3 ) must be observed and ( prop_4 ) .


There will be a certain time instant within the first 60 time units , at which the value of signal signal_1_n is finally greater than or equal to 59.0 and less than or equal to 80.1 , or the event that the value of signal signal_2_n goes to no more than 12.7 ought to eventually get observed .

There will be a certain time instant within the first 60 time units , at which ( prop_1 ) , or the event that ( prop_2 ) ought to eventually get observed .


Globally , if the state of signal_1_n is in signal_2_n and this scenario has continued in the past since the beginning of the simulation then the following condition holds : the value of signal signal_3_n will be keeping greater than or equal to 29.5 consecutively till the value of signal signal_4_n is greater than or equal to 43.3 , which ought to be observed at a certain moment during the next 92 to 93 time units eventually .

globally
(
historically
(
signal_1_n
math equal
signal_2_n
)
imply
(
signal_3_n
more equal
29.5
)
until
[92,93]
(
signal_4_n
more equal
43.3
)
)

Globally , if ( prop_1 ) and this scenario has continued in the past since the beginning of the simulation then the following condition holds : ( prop_2 ) .

G ( hist|ically ( prop_1 ) -> ( prop_2 ) U [ 92 : 93 ] ( prop_2 ) )


There has to be a certain time instant in the first 63 time units , at which signal_1_n should be at least 18.3 and less than 23.7 ultimately .

There has to be a certain time instant in the first 63 time units , at which ( prop_1 ) .


For every moment within the first 18 time units , the mode of signal_1_n is consistently set to signal_2_n or the state of signal signal_3_n ought to stay in signal_4_n .

For every moment within the first 18 time units , ( prop_1 ) or ( prop_2 ) .


There exists a certain time point during the first 11 time units eventually , at which the value of signal_1_n ought to be at least 42.3 and signal_2_n must keep at least 61.2 .

There exists a certain time point during the first 11 time units eventually , at which ( prop_1 ) and ( prop_2 ) .


The value of signal signal_1_n shall keep less than 9.2 without interruption for at least 19 time units .


In the future till the end of the simulation , without interruption the scenario that the value of signal signal_1_n begins deviating from 41.0 ought not to take place .

globally
(
negation
fall
(
signal_1_n
math equal
41.0
)
)

In the future till the end of the simulation , without interruption the scenario that ( prop_1 ) ought not to take place .


At a certain time instant in less than 92 time units eventually the signal_1_n signal has to remain in signal_2_n or signal_3_n is ultimately greater than 21.6 and smaller than 51.6 .

At a certain time instant in less than 92 time units eventually ( prop_1 ) or ( prop_2 ) .


Whenever the event that the value of signal_1_n goes below 59.0 gets observed , then all of the following conditions are true : immediately the value of signal signal_2_n must be greater than or equal to 41.1 and less than or equal to 57.9 .

Whenever the event that ( prop_1 ) gets observed , then all of the following conditions are true : immediately ( prop_2 ) .


The value of signal_1_n needs to stay between -LSB- 6.1 , 7.5 -RSB- without interruption in the future until the end of the execution .


At a time starting at most 2 time units eventually the signal_1_n signal will have to keep greater than or equal to 64.2 and less than 89.1 , and the signal_2_n signal must be above 17.8 .

At a time starting at most 2 time units eventually ( prop_1 ) , and ( prop_2 ) .


Globally , while the value of signal_1_n remains equal to 50.1 , then the following condition holds : for each time point during the next 26 time units at sometime in the future before the simulation ends the transition action that the value of signal_2_n increases above 51.2 needs to ultimately happen .

globally
(
signal_1_n
math equal
50.1
imply
globally
[0,26]
(
finally
(
rise
(
signal_2_n
more
51.2
)
)
)
)

Globally , while ( prop_1 ) , then the following condition holds : for each time point during the next 26 time units at sometime in the future before the simulation ends the transition action that ( prop_2 ) needs to ultimately happen .


On condition that the event that the state of signal signal_1_n leaves signal_2_n gets observed then the following condition is true : the signal_3_n signal will be lower than 52.0 and will stay in this interval without interruption for each time instant in the coming 35 time units .

globally
(
fall
(
signal_1_n
math equal
signal_2_n
)
imply
globally
[0,35]
(
signal_3_n
less
52.0
)
)

On condition that the event that ( prop_1 ) gets observed then the following condition is true : ( prop_2 ) .


On condition that the scenario that the value of signal_1_n starts not equaling to 75.8 gets observed , then all of the following conditions are true : at the same moment the value of signal_2_n should n't be larger than 54.4 .

globally
(
fall
(
signal_1_n
math equal
75.8
)
imply
negation
(
signal_2_n
more
54.4
)
)

On condition that the scenario that ( prop_1 ) gets observed , then all of the following conditions are true : at the same moment ( prop_2 ) .


If signal_1_n is greater than or equal to 84.7 then at the same time point the mode of signal signal_2_n should be set to signal_3_n and the signal_4_n signal will have to be promptly set to signal_5_n .

If ( prop_1 ) then at the same time point ( prop_2 ) and ( prop_3 ) .


At a certain moment during the first 17 time units , ultimately the scenario that signal_1_n jumps to higher than 8.8 shall occur .

finally [0,17] ( rise ( signal_1_n more 8.8 ) )

At a certain moment during the first 17 time units , ultimately the scenario that ( prop_1 ) shall occur .


In the future till the execution ends , signal_1_n will be remaining higher than 97.7 all the time or consistently signal_2_n has to remain in signal_3_n .

In the future till the execution ends , ( prop_1 ) or consistently ( prop_2 ) .


For each moment during the first 30 to 68 time units the value of signal signal_1_n must remain larger than 26.5 and less than 38.2 .

For each moment during the first 30 to 68 time units ( prop_1 ) .


The value of signal_1_n will be always equal to 25.6 for every time instant within the first 62 time units .


If the scenario that the value of signal signal_1_n gets less than 65.6 is detected , then all of the following conditions hold : the signal_2_n signal shall immediately remain on 57.4 .

globally
(
rise
(
signal_1_n
less
65.6
)
imply
signal_2_n
math equal
57.4
)

If the scenario that ( prop_1 ) is detected , then all of the following conditions hold : ( prop_2 ) .


It is always the case that if the event that the mode of signal_1_n leaves signal_2_n is not detected then the value of signal_3_n shall stay at 37.0 simultaneously .

globally
(
negation
fall
(
signal_1_n
math equal
signal_2_n
)
imply
signal_3_n
math equal
37.0
)

It is always the case that if the event that ( prop_1 ) is not detected then ( prop_2 ) .


There ought to be a certain time point in the future before the execution ends , at which the value of signal signal_1_n is eventually larger than 11.8 , or signal_2_n shall be eventually at most 24.3 .

There ought to be a certain time point in the future before the execution ends , at which ( prop_1 ) , or ( prop_2 ) .


As soon as the event that the value of signal_1_n drops below 37.5 gets detected then the following condition is true : ultimately there will have to be a time during the subsequent 99 time units , at which the signal_2_n signal needs to be less than 73.3 .

globally ( rise ( signal_1_n less 37.5 ) imply finally [0,99] ( signal_2_n less 73.3 ) )

As soon as the event that ( prop_1 ) gets detected then the following condition is true : ultimately there will have to be a time during the subsequent 99 time units , at which ( prop_2 ) .


Globally , in case that the mode of signal signal_1_n is in signal_2_n , and the value of signal signal_3_n is not 3.8 then in response simultaneously the value of signal signal_4_n will have to be less than 77.2 , and the state of signal signal_5_n has to be in signal_6_n promptly .

Globally , in case that ( prop_1 ) , and ( prop_2 ) then in response simultaneously ( prop_3 ) , and ( prop_4 ) .


Globally , during the interval that the mode of signal signal_1_n is set to signal_2_n then at a certain time point during the following 93 time units signal_3_n is equal to 96.8 then consistently this scenario needs to sustain for every time instant during the coming 81 time units .

globally
(
signal_1_n
math equal
signal_2_n
imply
finally
[0,93]
(
globally
[0,81]
(
signal_3_n
math equal
96.8
)
)
)

Globally , during the interval that ( prop_1 ) then at a certain time point during the following 93 time units ( prop_2 ) then consistently this scenario needs to sustain for every time instant during the coming 81 time units .


Globally , when the transition action that the signal_1_n signal gets set to 51.9 occurs then in response at a certain time instant in the future before the end of the simulation , the state of signal_2_n should remain in signal_3_n .

globally
(
rise
(
signal_1_n
math equal
51.9
)
imply
finally
(
signal_2_n
math equal
signal_3_n
)
)

Globally , when the transition action that ( prop_1 ) occurs then in response at a certain time instant in the future before the end of the simulation , ( prop_2 ) .


As soon as the value of signal_1_n jumps to greater than or equal to 55.3 , then in response the state of signal_2_n needs to be in signal_3_n promptly , and the state of signal signal_4_n should be set to signal_5_n at the same time point .

As soon as ( prop_1 ) , then in response ( prop_2 ) , and ( prop_3 ) .


If the scenario that signal_1_n exceeds 97.3 takes place , then all of the following conditions are true : for each time instant during the first 64 time units there needs to exist a certain time point in the future before the end of the execution , at which ultimately the scenario that signal_2_n rises to greater than or equal to 92.1 shall take place .

globally
(
rise
(
signal_1_n
more
97.3
)
imply
globally
[0,64]
(
finally
(
rise
(
signal_2_n
more equal
92.1
)
)
)
)

If the scenario that ( prop_1 ) takes place , then all of the following conditions are true : for each time instant during the first 64 time units there needs to exist a certain time point in the future before the end of the execution , at which ultimately the scenario that ( prop_2 ) shall take place .


It is always the case that when the event that signal_1_n changes to 74.6 takes place then the following condition holds : the signal_2_n signal shall be greater than or equal to 63.5 at the same moment .

globally
(
rise
(
signal_1_n
math equal
74.6
)
imply
signal_2_n
more equal
63.5
)

It is always the case that when the event that ( prop_1 ) takes place then the following condition holds : ( prop_2 ) .


At a time starting between 22 to 78 time units signal_1_n ought to be 31.7 ultimately and the value of signal signal_2_n shall be equal to 83.0 finally .

At a time starting between 22 to 78 time units ( prop_1 ) and ( prop_2 ) .


There will have to exist a certain time point within 57 time units , at which the value of signal_1_n has to be smaller than 10.9 finally .

There will have to exist a certain time point within 57 time units , at which ( prop_1 ) .


Everytime when the event that the value of signal_1_n gets below 4.3 happens then the following condition is true : for each moment during the coming 0 time units , there will have to be a certain time point within the first 35 time units , at which ultimately the value of signal signal_2_n should remain greater than 2.6 .

globally ( rise ( signal_1_n less 4.3 ) imply globally [0,0] ( finally [0,35] ( signal_2_n more 2.6 ) ) )

Everytime when the event that ( prop_1 ) happens then the following condition is true : for each moment during the coming 0 time units , there will have to be a certain time point within the first 35 time units , at which ultimately ( prop_2 ) .


In the case the event that signal_1_n becomes bigger than 18.3 gets observed then all of the following conditions are true : the signal_2_n signal will be greater than 14.4 and less than 74.5 and then needs to stay in this range without interruption for every time point in the first 51 time units .

globally ( rise ( signal_1_n more 18.3 ) imply globally [0,51] ( signal_2_n more 14.4 and signal_2_n less 74.5 ) )

In the case the event that ( prop_1 ) gets observed then all of the following conditions are true : ( prop_2 ) .


The value of signal signal_1_n should eventually remain greater than or equal to 20.9 and less than or equal to 29.5 at a certain time point after at most 42 time units .


It is always the case that in case that the event that the value of signal_1_n gets to at least 84.3 gets detected , and signal_2_n is n't greater than or equal to 62.3 then for every moment in the first 77 to 83 time units there needs to be a certain moment during the first 28 to 39 time units , at which ultimately the mode of signal signal_3_n should remain in signal_4_n .

globally
(
rise
(
signal_1_n
more equal
84.3
)
and
negation
(
signal_2_n
more equal
62.3
)
imply
globally
[77,83]
(
finally
[28,39]
(
signal_3_n
math equal
signal_4_n
)
)
)

It is always the case that in case that the event that ( prop_1 ) gets detected , and ( prop_2 ) then for every moment in the first 77 to 83 time units there needs to be a certain moment during the first 28 to 39 time units , at which ultimately ( prop_3 ) .


Finally at a certain time point in the future before the execution ends the value of signal signal_1_n needs to remain equal to 72.3 .

Finally at a certain time point in the future before the execution ends ( prop_1 ) .


In the case the scenario that the value of signal_1_n falls to no more than 63.0 is detected then the following condition holds : the event that the signal_2_n signal gets to at least 60.7 ought n't to occur .

globally
(
rise
(
signal_1_n
less equal
63.0
)
imply
negation
rise
(
signal_2_n
more equal
60.7
)
)

In the case the scenario that ( prop_1 ) is detected then the following condition holds : the event that ( prop_2 ) ought n't to occur .


Globally , in case that the event that the signal_1_n signal increases above 57.9 takes place then in response ultimately after a time starting at most 73 time units the signal_2_n signal must be at most 65.2 and always remains in this range for every moment within the following 4 time units .

globally
(
rise
(
signal_1_n
more
57.9
)
imply
finally
[0,73]
(
globally
[0,4]
(
signal_2_n
less equal
65.2
)
)
)

Globally , in case that the event that ( prop_1 ) takes place then in response ultimately after a time starting at most 73 time units ( prop_2 ) .


During the interval that signal_1_n is set to signal_2_n and the value of signal_3_n is above 87.5 then all of the following conditions are true : the signal_4_n signal will have to be greater than or equal to 44.0 in no time .

During the interval that ( prop_1 ) and ( prop_2 ) then all of the following conditions are true : ( prop_3 ) .


The signal_1_n signal should consecutively keep higher than 22.9 for each time instant within 7 time units .


It is always the case that when the signal_1_n signal is below 42.6 , and the state of signal_2_n is not signal_3_n then the following condition is true : for each time point in the following 1 time units finally the signal_4_n signal should stay no larger than 34.5 at sometime within the next 42 time units .

globally
(
signal_1_n
less
42.6
and
negation
(
signal_2_n
math equal
signal_3_n
)
imply
globally
[0,1]
(
finally
[0,42]
(
signal_4_n
less equal
34.5
)
)
)

It is always the case that when ( prop_1 ) , and ( prop_2 ) then the following condition is true : for each time point in the following 1 time units finally ( prop_3 ) .


For each moment during the first 12 to 48 time units , the value of signal_1_n remains at most 63.0 consecutively , and consecutively the state of signal_2_n must not be signal_3_n .

For each moment during the first 12 to 48 time units , ( prop_1 ) , and consecutively ( prop_2 ) .


Eventually there has to exist sometime in less than 3 time units , at which the value of signal_1_n will have to be less than 48.8 .

Eventually there has to exist sometime in less than 3 time units , at which ( prop_1 ) .


It is always the case that everytime when signal_1_n is more than 0.3 and less than 1.4 , then at the same time instant signal_2_n must be equal to 18.8 .

It is always the case that everytime when ( prop_1 ) , then at the same time ( prop_2 ) .


It is always the case that when the event that the mode of signal_1_n is changed to signal_2_n gets detected , then all of the following conditions are true : the value of signal signal_4_n stays at least 31.6 and no more than 46.5 eventually at a certain moment in the first 73 time units , and till then continuously signal_3_n ought to stay greater than or equal to 96.4 .

It is always the case that when the event that ( prop_1 ) gets detected , then all of the following conditions are true : ( prop_2 ) , and till then continuously ( prop_3 ) .


It is always the case that everytime when the event that the value of signal signal_1_n becomes equal to 13.2 gets detected , then the following condition holds : for every time instant in the future before the end of the simulation there should exist a certain moment within the following 26 to 87 time units , at which the scenario that signal_2_n exceeds 5.0 shall be finally detected .

globally
(
rise
(
signal_1_n
math equal
13.2
)
imply
globally
(
finally
[26,87]
(
rise
(
signal_2_n
more
5.0
)
)
)
)

It is always the case that everytime when the event that ( prop_1 ) gets detected , then the following condition holds : for every time instant in the future before the end of the simulation there should exist a certain moment within the following 26 to 87 time units , at which the scenario that ( prop_2 ) shall be finally detected .


Between 2 to 59 time units the value of signal_1_n will be staying equal to 20.7 consistently and the event that signal_2_n falls to less than or equal to 28.2 is uninterruptedly not detected .

globally
[2,59]
(
signal_1_n
math equal
20.7
and
negation
fall
(
signal_2_n
more
28.2
)
)

Between 2 to 59 time units ( prop_1 ) and the event that ( prop_2 ) is uninterruptedly not detected .


It is always the case that if the value of signal signal_1_n is at least 47.9 and less than or equal to 76.3 and the transition action that the signal_2_n signal rises to greater than or equal to 78.4 is observed then at the same time instant the value of signal signal_3_n ought to be smaller than 69.4 .

It is always the case that if ( prop_1 ) and the transition action that ( prop_2 ) is observed then at the same time instant ( prop_3 ) .

G ( ( prop_1 & prop_1 ) & prop_2 -> prop_3 )


If the value of signal_1_n becomes below 88.8 then the following condition holds : signal_2_n will be instantly greater than or equal to 99.0 .

globally
(
rise
(
signal_1_n
less
88.8
)
imply
signal_2_n
more equal
99.0
)

If ( prop_1 ) then the following condition holds : ( prop_2 ) .


At sometime in less than 53 time units eventually the transition action that the value of signal_1_n gets lower than 37.2 happens , and the signal_2_n signal will have to remain less than or equal to 89.7 finally .

At sometime in less than 53 time units eventually the transition action that ( prop_1 ) happens , and ( prop_2 ) .


On condition that signal_1_n is not higher than 48.6 or the signal_2_n signal keeps equal to 26.8 , then the following condition holds : signal_3_n should be less than or equal to 42.6 simultaneously .

On condition that ( prop_1 ) or ( prop_2 ) , then the following condition holds : ( prop_3 ) .


As soon as the event that signal_1_n jumps to more than 55.5 happens , then the following condition holds : eventually there exists a certain time instant in the first 26 time units , after which the state of signal_2_n has to consecutively remain in signal_3_n for every time point in the following 68 time units .

globally
(
rise
(
signal_1_n
more
55.5
)
imply
finally
[0,26]
(
globally
[0,68]
(
signal_2_n
math equal
signal_3_n
)
)
)

As soon as the event that ( prop_1 ) happens , then the following condition holds : eventually there exists a certain time instant in the first 26 time units , after which ( prop_2 ) .


Globally , everytime when the value of signal_1_n stays less than or equal to 61.4 , then all of the following conditions hold : for each moment during the following 87 time units , ultimately the state of signal signal_2_n is signal_3_n at a certain time point within 79 time units .

globally
(
signal_1_n
less equal
61.4
imply
globally
[0,87]
(
finally
[0,79]
(
signal_2_n
math equal
signal_3_n
)
)
)

Globally , everytime when ( prop_1 ) , then all of the following conditions hold : for each moment during the following 87 time units , ultimately ( prop_2 ) .


It is always the case that everytime when the scenario that the state of signal signal_1_n enters signal_2_n occurs then the following condition holds : after a certain moment within the first 14 to 80 time units for each time point during the subsequent 78 time units , the value of signal_3_n should be set to 81.1 without interruption .

globally
(
rise
(
signal_1_n
math equal
signal_2_n
)
imply
finally
[14,80]
(
globally
[0,78]
(
signal_3_n
math equal
81.1
)
)
)

It is always the case that everytime when the scenario that ( prop_1 ) occurs then the following condition holds : after a certain moment within the first 14 to 80 time units for each time point during the subsequent 78 time units , ( prop_2 ) .


Globally , whenever the event that the value of signal signal_1_n falls to at most 74.3 gets detected then the following condition is true : there will be a time in the next 59 time units , after which the value of signal signal_2_n will have to be equal to 88.9 and then should uninterruptedly continue like this in the future until the simulation ends .

globally
(
rise
(
signal_1_n
less equal
74.3
)
imply
finally
[0,59]
(
globally
(
signal_2_n
math equal
88.9
)
)
)

Globally , whenever the event that ( prop_1 ) gets detected then the following condition is true : there will be a time in the next 59 time units , after which ( prop_2 ) .


In the future till the execution ends , the signal_1_n signal shall be larger than 73.9 and the value of signal signal_2_n must keep larger than 72.0 without interruption .

In the future till the execution ends , ( prop_1 ) and ( prop_2 ) .


Globally , whenever the value of signal_1_n is no larger than 52.5 , then in response signal_2_n shall be 90.1 and then consecutively stays at this value in the future until the simulation ends .

globally
(
signal_1_n
less equal
52.5
imply
globally
(
signal_2_n
math equal
90.1
)
)

Globally , whenever ( prop_1 ) , then in response ( prop_2 ) .


For at least 68 time units , signal_1_n will have to consistently keep smaller than 74.7 .

For at least 68 time units , ( prop_1 ) .


It is always the case that if the transition action that signal_1_n starts deviating from signal_2_n gets observed , then the following condition is true : the value of signal_3_n has to be greater than or equal to 21.6 and less than or equal to 44.0 instantly .

It is always the case that if the transition action that ( prop_1 ) gets observed , then the following condition is true : ( prop_2 ) .


As soon as the event that the value of signal signal_1_n goes lower than 30.7 is detected then all of the following conditions are true : the transition action that the value of signal signal_2_n drops to no more than 65.8 ought to happen instantly and the signal_3_n signal shall be larger than 42.4 in no time .

globally
(
rise
(
signal_1_n
less
30.7
)
imply
rise
(
signal_2_n
less equal
65.8
)
and
signal_3_n
more
42.4
)

As soon as the event that ( prop_1 ) is detected then all of the following conditions are true : the transition action that ( prop_2 ) ought to happen instantly and ( prop_3 ) .


If the transition action that signal_1_n drops to less than or equal to 4.6 takes place , then all of the following conditions are true : there will have to be a certain time instant within the coming 79 time units ultimately , after which the mode of signal signal_2_n shall remain in signal_3_n all the time for each moment within 97 time units .

globally
(
rise
(
signal_1_n
less equal
4.6
)
imply
finally
[0,79]
(
globally
[0,97]
(
signal_2_n
math equal
signal_3_n
)
)
)

If the transition action that ( prop_1 ) takes place , then all of the following conditions are true : there will have to be a certain time instant within the coming 79 time units ultimately , after which ( prop_2 ) .


In the case the scenario that the signal_1_n signal increases above 94.5 takes place , then the following condition holds : finally there is a certain time point in the future before the simulation ends , at which the state of signal signal_2_n needs to continuously stay in signal_3_n in the future before the execution ends .

globally
(
rise
(
signal_1_n
more
94.5
)
imply
finally
(
globally
(
signal_2_n
math equal
signal_3_n
)
)
)

In the case the scenario that ( prop_1 ) takes place , then the following condition holds : finally there is a certain time point in the future before the simulation ends , at which ( prop_2 ) .


Globally , while the state of signal_1_n is not signal_2_n then the following condition holds : the value of signal_3_n shall be equal to 57.8 immediately .

globally
(
negation
(
signal_1_n
math equal
signal_2_n
)
imply
signal_3_n
math equal
57.8
)

Globally , while ( prop_1 ) then the following condition holds : ( prop_2 ) .


Ultimately there needs to be a time in the first 30 time units , at which the state of signal_1_n keeps in signal_2_n .

Ultimately there needs to be a time in the first 30 time units , at which ( prop_1 ) .


In the future till the execution ends , the value of signal signal_1_n stays greater than 49.5 consistently , or the mode of signal signal_2_n must keep in signal_3_n uninterruptedly .

In the future till the execution ends , ( prop_1 ) , or ( prop_2 ) .


Globally , everytime when the transition action that the value of signal_1_n is shifted to 28.9 gets observed , then the following condition holds : the value of signal signal_2_n ought to consistently stay greater than or equal to 5.0 and at most 6.9 for each time instant within the following 81 to 82 time units .

globally
(
rise
(
signal_1_n
math equal
28.9
)
imply
globally
[81,82]
(
signal_2_n
more equal
5.0
and
signal_2_n
less equal
6.9
)
)

Globally , everytime when the transition action that ( prop_1 ) gets observed , then the following condition holds : ( prop_2 ) .


There ought to be sometime within 66 time units , at which the scenario that signal_1_n becomes less than or equal to 77.5 will have to ultimately take place .

finally
[0,66]
(
rise
(
signal_1_n
less equal
77.5
)
)

There ought to be sometime within 66 time units , at which the scenario that ( prop_1 ) will have to ultimately take place .


At a certain time instant in less than 100 time units the value of signal signal_1_n must be finally larger than 36.3 .

At a certain time instant in less than 100 time units ( prop_1 ) .


Globally , everytime when the transition action that signal_1_n goes lower than 93.9 takes place , then in response without any delay the signal_2_n signal must be over 70.4 .

globally ( rise ( signal_1_n less 93.9 ) imply signal_2_n more 70.4 )

Globally , everytime when the transition action that ( prop_1 ) takes place , then in response without any delay ( prop_2 ) .


For more than 71 time units , the signal_1_n signal shall be consistently equal to 74.1 .

For more than 71 time units , ( prop_1 ) .


For every time instant within the first 94 time units consistently the value of signal signal_1_n keeps at least 3.9 and less than or equal to 35.8 , and continuously the signal_2_n signal has to stay above 46.0 and below 49.5 .

For every time instant within the first 94 time units consistently ( prop_1 ) , and continuously ( prop_2 ) .


In the case the value of signal_1_n is higher than 46.8 and less than 83.6 , then all of the following conditions are true : for every moment during the first 26 time units at a certain time point within the following 96 time units , eventually signal_2_n has to keep lower than 65.6 .

In the case ( prop_1 ) , then all of the following conditions are true : for every moment during the first 26 time units at a certain time point within the following 96 time units , eventually ( prop_2 ) .


When the event that the signal_1_n signal changes to signal_2_n is observed then the following condition holds : instantly signal_3_n is set to signal_4_n .

globally
(
rise
(
signal_1_n
math equal
signal_2_n
)
imply
signal_3_n
math equal
signal_4_n
)

When the event that ( prop_1 ) is observed then the following condition holds : instantly ( prop_2 ) .


In the future till the execution ends signal_1_n shall continuously remain between 2.9 -LRB- closed -RRB- and 42.0 -LRB- closed -RRB- .

In the future till the execution ends ( prop_1 ) .


Whenever the scenario that signal_1_n starts deviating from 33.7 occurs or signal_2_n is 1.6 , then the following condition is true : signal_3_n has to be larger than 40.4 then this scenario must uninterruptedly keep within the elapsed 79 time units .

globally
(
fall
(
signal_1_n
math equal
33.7
)
or
signal_2_n
math equal
1.6
imply
historically
[0,79]
(
signal_3_n
more
40.4
)
)

Whenever the scenario that ( prop_1 ) occurs or ( prop_2 ) , then the following condition is true : ( prop_3 ) then this scenario must uninterruptedly keep within the elapsed 79 time units .

G ( prop_1 | prop_2 -> hist|ically [ 0 : 79 ] ( prop_3 ) )


At a time after at most 91 time units , the signal_1_n signal has to be eventually 27.8 or eventually the value of signal signal_2_n should be between 43.0 -LRB- closed -RRB- and 48.1 -LRB- closed -RRB- .

At a time after at most 91 time units , ( prop_1 ) or eventually ( prop_2 ) .


In case that the event that signal_1_n becomes above 19.7 is detected then the value of signal signal_2_n needs to be greater than or equal to 56.6 promptly .

globally
(
rise
(
signal_1_n
more
19.7
)
imply
signal_2_n
more equal
56.6
)

In case that the event that ( prop_1 ) is detected then ( prop_2 ) .


At sometime during the first 25 to 49 time units the scenario that the value of signal signal_1_n starts deviating from 28.3 should happen eventually or the value of signal signal_2_n will have to eventually remain larger than 6.0 .

At sometime during the first 25 to 49 time units the scenario that ( prop_1 ) should happen eventually or ( prop_2 ) .