During the interval that the mode of signal signal_1_n is signal_2_n then eventually there exists a time within the coming 19 to 92 time units , after which for the subsequent 55 to 59 time units the value of signal_3_n must stay smaller than 83.9 .

globally
(
signal_1_n
math equal
signal_2_n
imply
finally
[19,92]
(
globally
[55,59]
(
signal_3_n
less
83.9
)
)
)

During the interval that ( prop_1 ) then eventually there exists a time within the coming 19 to 92 time units , after which for the subsequent 55 to 59 time units ( prop_2 ) .


It is always the case that everytime when the event that signal_1_n gets to greater than or equal to 48.9 takes place , then all of the following conditions are true : for the past 8 to 48 time units the value of signal_2_n will have consistently stayed larger than 23.7 and less than 36.1 .

globally
(
rise
(
signal_1_n
more equal
48.9
)
imply
historically
[8,48]
(
signal_2_n
more
23.7
and
signal_2_n
less
36.1
)
)

It is always the case that everytime when the event that ( prop_1 ) takes place , then all of the following conditions are true : for the past 8 to 48 time units ( prop_2 ) .

G ( prop_1 -> hist|ically [ 8 : 48 ] ( prop_2 & prop_2 ) )


During the interval that signal_1_n is larger than 94.1 , and the value of signal signal_2_n is not less than 90.8 then the following condition holds : the signal_3_n signal is simultaneously smaller than 28.8 .

During the interval that ( prop_1 ) , and ( prop_2 ) then the following condition holds : ( prop_3 ) .


It is always the case that when signal_1_n is lower than 48.6 then in response ultimately at a certain time point within the following 49 to 56 time units , the value of signal_2_n shall be larger than 8.5 and then always keep like this for every time instant during the following 70 time units .

globally ( signal_1_n less 48.6 imply finally [49,56] ( globally [0,70] ( signal_2_n more 8.5 ) ) )

It is always the case that when ( prop_1 ) then in response ultimately at a certain time point within the following 49 to 56 time units , ( prop_2 ) .


It is always the case that whenever the scenario that the signal_1_n signal gets raised to no less than 68.3 takes place then in response the value of signal signal_2_n needs to stay greater than or equal to 36.2 and less than or equal to 37.1 at the same time .

It is always the case that whenever the scenario that ( prop_1 ) takes place then in response ( prop_2 ) .


It is always the case that everytime when the transition action that the value of signal_1_n increases to greater than or equal to 50.2 is detected then the following condition is true : the transition action that the state of signal signal_2_n leaves signal_3_n gets observed at once .

globally
(
rise
(
signal_1_n
more equal
50.2
)
imply
fall
(
signal_2_n
math equal
signal_3_n
)
)

It is always the case that everytime when the transition action that ( prop_1 ) is detected then the following condition is true : the transition action that ( prop_2 ) gets observed at once .


In case that the event that the value of signal_1_n becomes bigger than 45.9 is observed then the following condition holds : for every moment within the following 12 time units there must be sometime during the coming 9 time units finally , at which the mode of signal_2_n will be signal_3_n .

globally
(
rise
(
signal_1_n
more
45.9
)
imply
globally
[0,12]
(
finally
[0,9]
(
signal_2_n
math equal
signal_3_n
)
)
)

In case that the event that ( prop_1 ) is observed then the following condition holds : for every moment within the following 12 time units there must be sometime during the coming 9 time units finally , at which ( prop_2 ) .


It is always the case that when the scenario that the value of signal signal_1_n decreases below 48.2 takes place , then in response for each moment in the future , at a certain time point within the coming 19 to 45 time units the value of signal_2_n has to be less than or equal to 7.3 .

globally
(
rise
(
signal_1_n
less
48.2
)
imply
globally
(
finally
[19,45]
(
signal_2_n
less equal
7.3
)
)
)

It is always the case that when the scenario that ( prop_1 ) takes place , then in response for each moment in the future , at a certain time point within the coming 19 to 45 time units ( prop_2 ) .


At a certain moment in less than 53 time units , ultimately signal_1_n is equal to 94.0 , or the signal_2_n signal should be eventually no less than 25.2 .

At a certain moment in less than 53 time units , ultimately ( prop_1 ) , or ( prop_2 ) .


It is always the case that in case that the signal_1_n signal is greater than 23.6 and less than 26.1 then this condition has uninterruptedly sustained during the past then in response for every time point during the coming 19 to 20 time units , at a certain time point in the future before the end of the execution finally signal_2_n has to be greater than or equal to 75.6 .

globally
(
historically
(
signal_1_n
more
23.6
and
signal_1_n
less
26.1
)
imply
globally
[19,20]
(
finally
(
signal_2_n
more equal
75.6
)
)
)

It is always the case that in case that ( prop_1 ) then this condition has uninterruptedly sustained during the past then in response for every time point during the coming 19 to 20 time units , at a certain time point in the future before the end of the execution finally ( prop_2 ) .

G ( hist|ically ( prop_1 & prop_1 ) -> G [ 19 : 20 ] ( F ( prop_2 ) ) )


It is always the case that when the transition action that the value of signal_1_n becomes equal to 63.6 happens then at the same time instant the transition action that the state of signal signal_2_n gets shifted to signal_3_n sha n't happen .

globally
(
rise
(
signal_1_n
math equal
63.6
)
imply
negation
rise
(
signal_2_n
math equal
signal_3_n
)
)

It is always the case that when the transition action that ( prop_1 ) happens then at the same time instant the transition action that ( prop_2 ) sha n't happen .


At a certain time point in the first 31 time units the value of signal_1_n will be 14.9 finally , and signal_2_n shall be equal to 58.4 eventually .

At a certain time point in the first 31 time units ( prop_1 ) , and ( prop_2 ) .


When the event that the value of signal_1_n exceeds 28.5 gets observed , then all of the following conditions are true : ultimately there shall be a certain time instant in the future before the simulation ends , at which in the future before the execution ends continuously the signal_2_n signal is never signal_3_n .

globally
(
rise
(
signal_1_n
more
28.5
)
imply
finally
(
globally
(
negation
(
signal_2_n
math equal
signal_3_n
)
)
)
)

When the event that ( prop_1 ) gets observed , then all of the following conditions are true : ultimately there shall be a certain time instant in the future before the simulation ends , at which in the future before the execution ends continuously ( prop_2 ) .


There should eventually exist a time within the first 27 to 44 time units , at which signal_1_n is at least 3.6 and no more than 12.9 .

There should eventually exist a time within the first 27 to 44 time units , at which ( prop_1 ) .


Globally , everytime when signal_1_n is at least 63.0 and less than 90.3 and this scenario has uninterruptedly sustained during the past then in response the signal_2_n signal will not change to signal_3_n and then will have been holding like this consistently during the elapsed 40 to 100 time units .

globally
(
historically
(
signal_1_n
more equal
63.0
and
signal_1_n
less
90.3
)
imply
historically
[40,100]
(
negation
rise
(
signal_2_n
math equal
signal_3_n
)
)
)

Globally , everytime when ( prop_1 ) and this scenario has uninterruptedly sustained during the past then in response ( prop_2 ) .

G ( hist|ically ( prop_1 & prop_1 ) -> hist|ically [ 40 : 100 ] ( prop_2 ) )


There should exist sometime within 0 to 0 time units , at which the value of signal_1_n should ultimately become not set to 84.7 or the value of signal signal_2_n is greater than or equal to 63.5 finally .

There should exist sometime within 0 to 0 time units , at which ( prop_1 ) or ( prop_2 ) .


As soon as the subsequent condition is not true : signal_1_n is not set to signal_2_n and this scenario has kept without interruption in the past since the beginning of the execution then all of the following conditions hold : finally at a certain time instant in the first 33 time units , signal_3_n ought to be no less than 87.5 and then will keep like this consistently for every time instant in the next 59 time units .

globally
(
negation
(
historically
(
negation
(
signal_1_n
math equal
signal_2_n
)
)
)
imply
finally
[0,33]
(
globally
[0,59]
(
signal_3_n
more equal
87.5
)
)
)

As soon as the subsequent condition is not true : ( prop_1 ) and this scenario has kept without interruption in the past since the beginning of the execution then all of the following conditions hold : finally at a certain time instant in the first 33 time units , ( prop_2 ) .


Globally , if the event that the signal_1_n signal becomes greater than 61.2 happens , then for each time point in the first 85 time units there should be sometime within the following 44 time units , at which signal_2_n will have to be eventually larger than 26.4 .

globally ( rise ( signal_1_n more 61.2 ) imply globally [0,85] ( finally [0,44] ( signal_2_n more 26.4 ) ) )

Globally , if the event that ( prop_1 ) happens , then for each time point in the first 85 time units there should be sometime within the following 44 time units , at which ( prop_2 ) .


It is always the case that whenever the event that signal_1_n gets to no less than 85.4 happens , then all of the following conditions are true : eventually there will have to be a certain moment in the future before the end of the execution , after which in the future till the execution ends , the signal_2_n signal shall uninterruptedly not settle to 69.5 .

globally
(
rise
(
signal_1_n
more equal
85.4
)
imply
finally
(
globally
(
negation
(
signal_2_n
math equal
69.5
)
)
)
)

It is always the case that whenever the event that ( prop_1 ) happens , then all of the following conditions are true : eventually there will have to be a certain moment in the future before the end of the execution , after which in the future till the execution ends , ( prop_2 ) .


If the mode of signal signal_1_n remains in signal_2_n then the following condition is true : the scenario that the signal_3_n signal begins deviating from 83.6 is detected simultaneously .

globally
(
signal_1_n
math equal
signal_2_n
imply
fall
(
signal_3_n
math equal
83.6
)
)

If ( prop_1 ) then the following condition is true : the scenario that ( prop_2 ) is detected simultaneously .


The state of signal signal_1_n is not in signal_2_n for more than 79 time units .

globally
[0,79]
(
negation
(
signal_1_n
math equal
signal_2_n
)
)


In the future until the simulation ends , signal_1_n will keep less than or equal to 94.8 without interruption and signal_2_n has to be greater than 41.2 and less than or equal to 46.7 consecutively .

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


As soon as the signal_1_n signal is larger than 90.7 , and signal_2_n is not 69.0 , then the following condition holds : there should be ultimately sometime in less than 25 time units , at which the signal_3_n signal should be set to signal_4_n and then must hold like that uninterruptedly in the future before the execution ends .

globally
(
signal_1_n
more
90.7
and
negation
(
signal_2_n
math equal
69.0
)
imply
finally
[0,25]
(
globally
(
signal_3_n
math equal
signal_4_n
)
)
)

As soon as ( prop_1 ) , and ( prop_2 ) , then the following condition holds : there should be ultimately sometime in less than 25 time units , at which ( prop_3 ) .


There should exist a certain time point starting at most 85 time units , at which the state of signal_1_n shall be finally set to signal_2_n and signal_3_n has to be finally less than or equal to 42.3 .

There should exist a certain time point starting at most 85 time units , at which ( prop_1 ) and ( prop_2 ) .


It is always the case that if the value of signal signal_1_n is less than or equal to 40.4 , and the value of signal signal_2_n is at least 79.6 , then the following condition is true : ultimately at sometime in the subsequent 28 time units , the signal_3_n signal must be at most 59.1 and will consistently remain like that for every time point in the next 49 time units .

It is always the case that if ( prop_1 ) , and ( prop_2 ) , then the following condition is true : ultimately at sometime in the subsequent 28 time units , ( prop_3 ) .


In the case the transition action that signal_1_n falls below 60.3 occurs , and the mode of signal signal_2_n is signal_3_n , then the following condition is true : starting without any delay the signal_4_n signal has to be greater than 9.3 and less than 21.0 .

In the case the transition action that ( prop_1 ) occurs , and ( prop_2 ) , then the following condition is true : starting without any delay ( prop_3 ) .


In the future before the execution ends consecutively the mode of signal signal_1_n will have to be set to signal_2_n , or the value of signal_3_n will have to always remain greater than 49.6 and less than 64.6 .

In the future before ( prop_1 ) , or ( prop_2 ) .


At a certain time point within 24 time units , the state of signal signal_1_n is signal_2_n ultimately .

At a certain time point within 24 time units , ( prop_1 ) .


At a certain time instant during the first 5 to 10 time units , finally the scenario that the value of signal signal_1_n begins deviating from 83.2 will have to get detected and the scenario that the value of signal signal_2_n deviates from 94.1 ought to occur .

finally
[5,10]
(
fall
(
signal_1_n
math equal
83.2
)
and
fall
(
signal_2_n
math equal
94.1
)
)

At a certain time instant during the first 5 to 10 time units , finally the scenario that ( prop_1 ) will have to get detected and the scenario that ( prop_2 ) ought to occur .


Everytime when the value of signal_1_n is greater than or equal to 14.8 and at most 17.6 and signal_2_n is set to signal_3_n , then in response for each time point during the following 28 to 48 time units finally there shall exist a time in the future before the execution ends , at which the value of signal_4_n shall keep at least 39.6 .

globally
(
(
signal_1_n
more equal
14.8
and
signal_1_n
less equal
17.6
)
and
signal_2_n
math equal
signal_3_n
imply
globally
[28,48]
(
finally
(
signal_4_n
more equal
39.6
)
)
)

Everytime when ( prop_1 ) and ( prop_2 ) , then in response for each time point during the following 28 to 48 time units finally there shall exist a time in the future before the execution ends , at which ( prop_3 ) .


In the case the signal_1_n signal is set to signal_2_n or signal_3_n keeps in signal_4_n , then all of the following conditions hold : signal_5_n remains over 86.9 all the time till at a time in less than 12 time units , the state of signal_6_n will be eventually set to signal_7_n .

In the case ( prop_1 ) or ( prop_2 ) , then all of the following conditions hold : ( prop_3 ) .


Finally there shall exist a certain time instant within the first 88 time units , at which the signal_1_n signal is equal to 78.9 .

Finally there shall exist a certain time instant within the first 88 time units , at which ( prop_1 ) .


Consistently the value of signal signal_1_n will be equaling to 47.3 for each time point in the first 25 time units .


When the event that the value of signal signal_1_n gets to at least 55.0 is observed then the following condition holds : the value of signal signal_2_n has to be greater than or equal to 22.4 and smaller than 26.0 immediately .

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


In case that the event that the value of signal signal_1_n jumps to above 87.5 happens or signal_2_n is n't less than 22.2 then the following condition holds : signal_3_n must be less than 36.0 simultaneously .

globally ( rise ( signal_1_n more 87.5 ) or negation ( signal_2_n less 22.2 ) imply signal_3_n less 36.0 )

In case that the event that ( prop_1 ) happens or ( prop_2 ) then the following condition holds : ( prop_3 ) .


Globally , everytime when the event that signal_1_n gets set to signal_2_n is detected , then in response the signal_3_n signal shall be equal to 31.4 and this condition must consistently hold until there is a certain moment within the next 100 time units ultimately , at which the signal_4_n signal is n't greater than or equal to 83.4 .

globally
(
rise
(
signal_1_n
math equal
signal_2_n
)
imply
(
signal_3_n
math equal
31.4
)
until
[0,100]
(
negation
(
signal_4_n
more equal
83.4
)
)
)

Globally , everytime when the event that ( prop_1 ) is detected , then in response ( prop_2 ) and this condition must consistently hold until there is a certain moment within the next 100 time units ultimately , at which ( prop_3 ) .


Globally , everytime when the state of signal signal_1_n changes to signal_2_n then the signal_3_n signal will be immediately less than or equal to 20.2 .

globally
(
rise
(
signal_1_n
math equal
signal_2_n
)
imply
signal_3_n
less equal
20.2
)

Globally , everytime when ( prop_1 ) then ( prop_2 ) .


Globally , whenever the transition action that signal_1_n gets changed to 8.8 takes place , then at the same time instant the scenario that the signal_2_n signal increases above 29.7 ought to occur .

globally
(
rise
(
signal_1_n
math equal
8.8
)
imply
rise
(
signal_2_n
more
29.7
)
)

Globally , whenever the transition action that ( prop_1 ) takes place , then at the same time instant the scenario that ( prop_2 ) ought to occur .


It is always the case that if the transition action that the value of signal signal_1_n drops to no more than 92.5 occurs , then at the same time the event that the value of signal_2_n falls to less than or equal to 91.9 should get detected and the value of signal signal_3_n will promptly remain on 44.4 .

globally
(
rise
(
signal_1_n
less equal
92.5
)
imply
rise
(
signal_2_n
less equal
91.9
)
and
signal_3_n
math equal
44.4
)

It is always the case that if the transition action that ( prop_1 ) occurs , then at the same time the event that ( prop_2 ) should get detected and ( prop_3 ) .


Everytime when signal_1_n becomes signal_2_n then the following condition is true : for each time instant in the future before the simulation ends , there will have to exist a time within 66 to 68 time units , at which eventually the signal_3_n signal shall get shifted to signal_4_n .

globally
(
rise
(
signal_1_n
math equal
signal_2_n
)
imply
globally
(
finally
[66,68]
(
rise
(
signal_3_n
math equal
signal_4_n
)
)
)
)

Everytime when ( prop_1 ) then the following condition is true : for each time instant in the future before the simulation ends , there will have to exist a time within 66 to 68 time units , at which eventually ( prop_2 ) .


It is always the case that in case that the scenario that signal_1_n becomes no more than 6.0 is detected , then the following condition is true : finally there is sometime within the first 91 time units , at which the value of signal_2_n shall not be below 40.7 and this scenario has to continue consistently for every moment within the subsequent 46 time units .

globally
(
rise
(
signal_1_n
less equal
6.0
)
imply
finally
[0,91]
(
globally
[0,46]
(
negation
(
signal_2_n
less
40.7
)
)
)
)

It is always the case that in case that the scenario that ( prop_1 ) is detected , then the following condition is true : finally there is sometime within the first 91 time units , at which ( prop_2 ) and this scenario has to continue consistently for every moment within the subsequent 46 time units .


For every moment within the first 1 to 3 time units , without interruption the signal_1_n signal must remain greater than or equal to 8.8 , and the value of signal_2_n should equal to 3.7 without interruption .

For every moment within the first 1 to 3 time units , without interruption ( prop_1 ) , and ( prop_2 ) .


In the case the scenario that the mode of signal signal_1_n is changed to signal_2_n happens then in response the value of signal_3_n should be 50.6 and consistently this condition ought to sustain until finally the mode of signal signal_4_n is in signal_5_n at a certain time point within the subsequent 44 to 57 time units .

globally
(
rise
(
signal_1_n
math equal
signal_2_n
)
imply
(
signal_3_n
math equal
50.6
)
until
[44,57]
(
signal_4_n
math equal
signal_5_n
)
)

In the case the scenario that ( prop_1 ) happens then in response ( prop_2 ) and consistently this condition ought to sustain until finally ( prop_3 ) .


For each moment in the first 30 to 75 time units , consecutively the value of signal signal_1_n needs to be greater than or equal to 0.9 and no more than 1.4 and the value of signal_2_n ought to be uninterruptedly at least 17.8 .

For each moment in the first 30 to 75 time units , consecutively ( prop_1 ) and ( prop_2 ) .


On condition that the signal_1_n signal remains in signal_2_n then the following condition is true : the state of signal_3_n will have to be in signal_4_n continuously for every time point within the subsequent 91 time units .

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


In the event that signal_1_n is less than or equal to 52.2 then all of the following conditions are true : eventually there has to exist a certain time instant during the subsequent 11 time units , after which the mode of signal signal_2_n shall never begin deviating from signal_3_n and then continuously this condition remains within the following 52 time units .

globally
(
signal_1_n
less equal
52.2
imply
finally
[0,11]
(
globally
[0,52]
(
negation
fall
(
signal_2_n
math equal
signal_3_n
)
)
)
)

In the event that ( prop_1 ) then all of the following conditions are true : eventually there has to exist a certain time instant during the subsequent 11 time units , after which ( prop_2 ) and then continuously this condition remains within the following 52 time units .


At a certain moment within 9 to 36 time units , signal_1_n needs to be less than 60.8 ultimately or signal_2_n should n't be at most 62.7 finally .

At a certain moment within 9 to 36 time units , ( prop_1 ) or ( prop_2 ) .


In case that the mode of signal signal_1_n keeps in signal_2_n , then the following condition holds : ultimately there will have to be sometime within the subsequent 7 to 17 time units , at which the value of signal signal_3_n ought to be continuously at most 25.9 in the future before the end of the simulation .

globally
(
signal_1_n
math equal
signal_2_n
imply
finally
[7,17]
(
globally
(
signal_3_n
less equal
25.9
)
)
)

In case that ( prop_1 ) , then the following condition holds : ultimately there will have to be sometime within the subsequent 7 to 17 time units , at which ( prop_2 ) .


Globally , whenever signal_1_n is below 9.8 , then all of the following conditions are true : the value of signal signal_2_n needs to be less than or equal to 35.5 right away .

Globally , whenever ( prop_1 ) , then all of the following conditions are true : ( prop_2 ) .


As soon as the scenario that the value of signal_1_n gets set to 98.7 is detected then the following condition holds : the value of signal signal_2_n has to be larger than 6.6 and smaller than 91.3 and this scenario must always hold till there exists a time within the next 17 time units , at which finally the value of signal signal_3_n will be more than 3.5 .

As soon as the scenario that ( prop_1 ) is detected then the following condition holds : ( prop_2 ) and this scenario must always hold till there exists a time within the next 17 time units , at which finally ( prop_3 ) .


In the future until the end of the execution signal_1_n should be uninterruptedly in signal_2_n and consecutively the value of signal signal_3_n remains larger than 0.5 and less than 9.7 .

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


When the event that the signal_1_n signal becomes not set to signal_2_n is detected then signal_3_n must keep no less than 19.1 and less than or equal to 91.6 at the same time instant .

When the event that ( prop_1 ) is detected then ( prop_2 ) .


It is always the case that everytime when the state of signal signal_1_n has been staying in signal_2_n consistently in the past since the beginning of the simulation , then the following condition is true : the value of signal_3_n shall be 15.0 and will be holding like that without interruption till there is finally a certain time point within the first 16 to 58 time units , at which the event that the value of signal signal_4_n becomes less than or equal to 56.9 takes place .

globally
(
historically
(
signal_1_n
math equal
signal_2_n
)
imply
(
signal_3_n
math equal
15.0
)
until
[16,58]
(
rise
(
signal_4_n
less equal
56.9
)
)
)

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

G ( hist|ically ( prop_1 ) -> ( prop_2 ) U [ 16 : 58 ] ( prop_2 ) )


On condition that the scenario that the signal_1_n signal goes down to lower than 70.9 is observed then the following condition holds : for every moment in the future before the execution ends , at a certain time instant within the coming 3 to 19 time units , the value of signal signal_2_n needs to be no larger than 16.8 eventually .

globally
(
rise
(
signal_1_n
less
70.9
)
imply
globally
(
finally
[3,19]
(
signal_2_n
less equal
16.8
)
)
)

On condition that the scenario that ( prop_1 ) is observed then the following condition holds : for every moment in the future before the execution ends , at a certain time instant within the coming 3 to 19 time units , ( prop_2 ) .


On condition that the event that signal_1_n increases to greater than or equal to 67.1 occurs then in response the state of signal signal_2_n is set to signal_3_n right away .

globally
(
rise
(
signal_1_n
more equal
67.1
)
imply
signal_2_n
math equal
signal_3_n
)

On condition that the event that ( prop_1 ) occurs then in response ( prop_2 ) .


It is always the case that everytime when the event that the value of signal signal_1_n increases above 63.9 takes place then in response immediately the state of signal_2_n will be signal_3_n .

globally
(
rise
(
signal_1_n
more
63.9
)
imply
signal_2_n
math equal
signal_3_n
)

It is always the case that everytime when the event that ( prop_1 ) takes place then in response immediately ( prop_2 ) .


It is always the case that when the event that signal_1_n deviates from 63.7 gets observed then ultimately at a certain moment in the first 92 time units , the value of signal_2_n needs to be equal to 97.0 and then will have to remain like that consistently for each time point within the following 57 time units .

globally
(
fall
(
signal_1_n
math equal
63.7
)
imply
finally
[0,92]
(
globally
[0,57]
(
signal_2_n
math equal
97.0
)
)
)

It is always the case that when the event that ( prop_1 ) gets observed then ultimately at a certain moment in the first 92 time units , ( prop_2 ) .


Whenever the scenario that the signal_1_n signal increases above 26.5 is detected , then ultimately after a time in the first 26 time units , for every moment during the following 72 time units , the mode of signal_2_n will keep in signal_3_n uninterruptedly .

globally
(
rise
(
signal_1_n
more
26.5
)
imply
finally
[0,26]
(
globally
[0,72]
(
signal_2_n
math equal
signal_3_n
)
)
)

Whenever the scenario that ( prop_1 ) is detected , then ultimately after a time in the first 26 time units , for every moment during the following 72 time units , ( prop_2 ) .


For every time point in the first 73 time units the signal_1_n signal always remains greater than or equal to 15.7 and less than or equal to 16.5 , and signal_2_n will be keeping equal to 73.0 consistently .

For every time point in the first 73 time units ( prop_1 ) , and ( prop_2 ) .


In case that the scenario that the mode of signal signal_1_n gets changed to signal_2_n takes place , then in response in no time the mode of signal_3_n needs to be in signal_4_n .

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

In case that the scenario that ( prop_1 ) takes place , then in response in no time ( prop_2 ) .


At a certain time point within the first 8 to 12 time units the signal_1_n signal has to settle to 58.2 ultimately , and the scenario that the value of signal_2_n falls to less than or equal to 43.8 shall not take place finally .

finally
[8,12]
(
signal_1_n
math equal
58.2
and
negation
fall
(
signal_2_n
more
43.8
)
)

At a certain time point within the first 8 to 12 time units ( prop_1 ) , and the scenario that ( prop_2 ) shall not take place finally .


At a certain time point within the first 95 time units ultimately the event that signal_1_n begins deviating from signal_2_n wo n't get detected and ultimately the transition action that the signal_3_n signal is shifted to 16.8 will have to be detected .

finally
[0,95]
(
negation
fall
(
signal_1_n
math equal
signal_2_n
)
and
rise
(
signal_3_n
math equal
16.8
)
)

At a certain time point within the first 95 time units ultimately the event that ( prop_1 ) wo n't get detected and ultimately the transition action that ( prop_2 ) will have to be detected .


If the signal_1_n signal is less than or equal to 30.2 , then all of the following conditions hold : the value of signal signal_2_n should keep higher than 17.3 promptly .

If ( prop_1 ) , then all of the following conditions hold : ( prop_2 ) .


In the future until the execution ends , signal_1_n has to be at least 94.0 without interruption .

In the future until the execution ends , ( prop_1 ) .


Globally , if the transition action that the signal_1_n signal gets to at least 24.7 is observed , then the following condition is true : eventually there shall exist sometime within 30 to 94 time units , after which the value of signal_2_n needs to remain larger than 0.4 and lower than 5.0 without interruption within 29 to 95 time units .

globally
(
rise
(
signal_1_n
more equal
24.7
)
imply
finally
[30,94]
(
globally
[29,95]
(
signal_2_n
more
0.4
and
signal_2_n
less
5.0
)
)
)

Globally , if the transition action that ( prop_1 ) is observed , then the following condition is true : eventually there shall exist sometime within 30 to 94 time units , after which ( prop_2 ) .


It is always the case that when the scenario that the value of signal_1_n starts not equaling to 87.2 occurs then all of the following conditions hold : eventually after a time in the future before the simulation ends , for every time point within the coming 81 time units , consistently the scenario that the value of signal_2_n becomes bigger than 86.0 ought not to be observed .

globally
(
fall
(
signal_1_n
math equal
87.2
)
imply
finally
(
globally
[0,81]
(
negation
rise
(
signal_2_n
more
86.0
)
)
)
)

It is always the case that when the scenario that ( prop_1 ) occurs then all of the following conditions hold : eventually after a time in the future before the simulation ends , for every time point within the coming 81 time units , consistently the scenario that ( prop_2 ) ought not to be observed .


Ultimately the value of signal_1_n shall be higher than 16.4 at a certain time instant within 2 to 6 time units .


In case that the scenario that the value of signal_1_n decreases below 23.4 is detected , then the following condition holds : the value of signal signal_2_n will have to be greater than or equal to 25.8 at the same moment .

globally
(
rise
(
signal_1_n
less
23.4
)
imply
signal_2_n
more equal
25.8
)

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


Globally , while the value of signal signal_1_n is less than 93.4 , then the following condition holds : for each time instant in the future before the end of the simulation there must be a certain time instant within the coming 91 time units , at which the transition action that signal_2_n deviates from signal_3_n must get observed .

globally
(
signal_1_n
less
93.4
imply
globally
(
finally
[0,91]
(
fall
(
signal_2_n
math equal
signal_3_n
)
)
)
)

Globally , while ( prop_1 ) , then the following condition holds : for each time instant in the future before the end of the simulation there must be a certain time instant within the coming 91 time units , at which the transition action that ( prop_2 ) must get observed .


Globally , if the transition action that signal_1_n goes down to lower than 54.6 happens then in response at a certain time point in the future before the simulation ends , signal_2_n shall keep equal to 65.7 in the future until the execution ends .

globally
(
rise
(
signal_1_n
less
54.6
)
imply
finally
(
globally
(
signal_2_n
math equal
65.7
)
)
)

Globally , if the transition action that ( prop_1 ) happens then in response at a certain time point in the future before the simulation ends , ( prop_2 ) .


It is always the case that whenever the value of signal_1_n is greater than or equal to 60.2 and less than 97.1 then all of the following conditions are true : simultaneously signal_2_n ought to be greater than or equal to 70.2 .

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


It is always the case that everytime when the value of signal signal_1_n is n't no more than 31.9 then there has to exist a certain time instant in the future before the end of the execution , at which the transition action that the signal_2_n signal drops to less than or equal to 10.0 does n't get observed eventually .

globally
(
negation
(
signal_1_n
less equal
31.9
)
imply
finally
(
negation
fall
(
signal_2_n
more
10.0
)
)
)

It is always the case that everytime when ( prop_1 ) then there has to exist a certain time instant in the future before the end of the execution , at which the transition action that ( prop_2 ) does n't get observed eventually .


If the value of signal signal_1_n is larger than 15.3 and less than 21.5 or the signal_2_n signal is below 73.2 then in response signal_3_n will have to be less than or equal to 14.3 and then consistently stay in this interval for each moment within the next 97 time units .

If ( prop_1 ) or ( prop_2 ) then in response ( prop_3 ) .


If the event that the state of signal_1_n is changed to signal_2_n occurs , then all of the following conditions are true : for each time point within the following 26 to 97 time units , at a certain moment within the subsequent 8 time units , the value of signal signal_3_n ought to be less than or equal to 12.1 .

globally
(
rise
(
signal_1_n
math equal
signal_2_n
)
imply
globally
[26,97]
(
finally
[0,8]
(
signal_3_n
less equal
12.1
)
)
)

If the event that ( prop_1 ) occurs , then all of the following conditions are true : for each time point within the following 26 to 97 time units , at a certain moment within the subsequent 8 time units , ( prop_2 ) .


Globally , when the value of signal_1_n is greater than 7.7 and lower than 11.6 , then all of the following conditions hold : at a time within the subsequent 95 time units , for each moment in the next 94 time units , the signal_2_n signal shall consistently not be 45.3 .

globally
(
signal_1_n
more
7.7
and
signal_1_n
less
11.6
imply
finally
[0,95]
(
globally
[0,94]
(
negation
(
signal_2_n
math equal
45.3
)
)
)
)

Globally , when ( prop_1 ) , then all of the following conditions hold : at a time within the subsequent 95 time units , for each moment in the next 94 time units , ( prop_2 ) .


Globally , whenever the event that the value of signal_1_n starts not equaling to 7.0 is observed , then the following condition holds : the value of signal signal_2_n needs to be equal to 17.2 at once .

globally
(
fall
(
signal_1_n
math equal
7.0
)
imply
signal_2_n
math equal
17.2
)

Globally , whenever the event that ( prop_1 ) is observed , then the following condition holds : ( prop_2 ) .


In case that the event that the value of signal_1_n gets bigger than 42.5 takes place , then the following condition is true : for each moment during the coming 40 time units , consecutively the value of signal_2_n has to be greater than 47.0 .

globally ( rise ( signal_1_n more 42.5 ) imply globally [0,40] ( signal_2_n more 47.0 ) )

In case that the event that ( prop_1 ) takes place , then the following condition is true : for each moment during the coming 40 time units , consecutively ( prop_2 ) .


In case that the scenario that the signal_1_n signal starts not equaling to 74.2 ultimately gets observed at a time in the coming 0 to 8 time units , then all of the following conditions are true : at a certain moment during the first 67 time units signal_2_n is no less than 22.3 and less than or equal to 23.4 ultimately .

globally
(
finally
[0,8]
(
fall
(
signal_1_n
math equal
74.2
)
)
imply
finally
[0,67]
(
signal_2_n
more equal
22.3
and
signal_2_n
less equal
23.4
)
)

In case that the scenario that ( prop_1 ) ultimately gets observed at a time in the coming 0 to 8 time units , then all of the following conditions are true : at a certain moment during the first 67 time units ( prop_2 ) .


Globally , in case that the scenario that the signal_1_n signal gets larger than 60.9 takes place , then all of the following conditions are true : the transition action that the mode of signal signal_2_n starts deviating from signal_3_n must get detected at the same time .

globally
(
rise
(
signal_1_n
more
60.9
)
imply
fall
(
signal_2_n
math equal
signal_3_n
)
)

Globally , in case that the scenario that ( prop_1 ) takes place , then all of the following conditions are true : the transition action that ( prop_2 ) must get detected at the same time .


As soon as the transition action that the value of signal_1_n goes to less than or equal to 96.9 takes place , then the following condition is true : for each moment during the following 34 time units uninterruptedly signal_2_n will be staying greater than 30.6 .

globally
(
rise
(
signal_1_n
less equal
96.9
)
imply
globally
[0,34]
(
signal_2_n
more
30.6
)
)

As soon as the transition action that ( prop_1 ) takes place , then the following condition is true : for each moment during the following 34 time units uninterruptedly ( prop_2 ) .


It is always the case that in case that the value of signal_1_n remains less than 1.5 or the value of signal_2_n jumps to greater than or equal to 62.4 , then all of the following conditions are true : finally there must exist a certain time point within the next 91 time units , at which the state of signal signal_3_n should n't be set to signal_4_n .

globally
(
signal_1_n
less
1.5
or
rise
(
signal_2_n
more equal
62.4
)
imply
finally
[0,91]
(
negation
(
signal_3_n
math equal
signal_4_n
)
)
)

It is always the case that in case that ( prop_1 ) or ( prop_2 ) , then all of the following conditions are true : finally there must exist a certain time point within the next 91 time units , at which ( prop_3 ) .


It is always the case that if signal_1_n goes lower than 75.2 then all of the following conditions hold : instantly the scenario that the state of signal_2_n is shifted to signal_3_n should take place .

globally
(
rise
(
signal_1_n
less
75.2
)
imply
rise
(
signal_2_n
math equal
signal_3_n
)
)

It is always the case that if ( prop_1 ) then all of the following conditions hold : instantly the scenario that ( prop_2 ) should take place .


Globally , when the event that the state of signal signal_1_n becomes signal_2_n gets observed , then all of the following conditions are true : the mode of signal_3_n has to be simultaneously set to signal_4_n and at the same time point signal_5_n ought to be less than or equal to 59.1 .

Globally , when the event that ( prop_1 ) gets observed , then all of the following conditions are true : ( prop_2 ) and at the same time point ( prop_3 ) .


In the event that the value of signal signal_1_n remains at most 26.5 , then in response the condition that the signal_2_n signal wo n't be less than or equal to 28.0 till eventually the value of signal_3_n is set to 85.6 at a certain time instant in the next 64 time units ought n't to be true .

globally
(
signal_1_n
less equal
26.5
imply
negation
(
(
negation
(
signal_2_n
less equal
28.0
)
)
until
[0,64]
(
signal_3_n
math equal
85.6
)
)
)

In the event that ( prop_1 ) , then in response the condition that ( prop_2 ) till eventually ( prop_3 ) .


If the mode of signal signal_1_n is changed to signal_2_n then all of the following conditions hold : for each time instant in the future until the execution ends at a certain moment in the future before the execution ends , the value of signal signal_3_n must be smaller than 27.6 ultimately .

globally
(
rise
(
signal_1_n
math equal
signal_2_n
)
imply
globally
(
finally
(
signal_3_n
less
27.6
)
)
)

If ( prop_1 ) then all of the following conditions hold : for each time instant in the future until the execution ends at a certain moment in the future before the execution ends , ( prop_2 ) .


Eventually there should exist a certain moment within 11 time units , at which the signal_1_n signal needs to stay equal to 64.9 .

Eventually there should exist a certain moment within 11 time units , at which ( prop_1 ) .


There shall exist a certain time instant in the future before the execution ends , at which finally the transition action that the state of signal_1_n enters signal_2_n does not happen or the signal_3_n signal is less than or equal to 13.2 eventually .

finally
(
negation
rise
(
signal_1_n
math equal
signal_2_n
)
or
signal_3_n
less equal
13.2
)

There shall exist a certain time instant in the future before the execution ends , at which finally the transition action that ( prop_1 ) does not happen or ( prop_2 ) .


The value of signal signal_1_n will be greater than 15.6 and below 69.2 finally at sometime within the first 64 time units .


During the first 1 to 15 time units the value of signal signal_1_n must keep bigger than 28.8 and below 30.2 continuously and signal_2_n has to be in signal_3_n uninterruptedly .

During the first 1 to 15 time units ( prop_1 ) and ( prop_2 ) .


In the event that the value of signal_1_n stays at most 26.1 then all of the following conditions hold : promptly the transition action that the value of signal_2_n gets over 20.5 will happen .

globally
(
signal_1_n
less equal
26.1
imply
rise
(
signal_2_n
more
20.5
)
)

In the event that ( prop_1 ) then all of the following conditions hold : promptly the transition action that ( prop_2 ) will happen .


Globally , everytime when signal_1_n becomes less than or equal to 37.2 , then all of the following conditions are true : the value of signal signal_2_n should be above 18.9 .

globally
(
rise
(
signal_1_n
less equal
37.2
)
imply
signal_2_n
more
18.9
)

Globally , everytime when ( prop_1 ) , then all of the following conditions are true : ( prop_2 ) .


If the transition action that the value of signal_1_n goes to at most 8.7 gets observed then all of the following conditions are true : at a certain time point during the first 44 to 63 time units the value of signal_2_n needs to be equal to 77.1 eventually .

globally
(
rise
(
signal_1_n
less equal
8.7
)
imply
finally
[44,63]
(
signal_2_n
math equal
77.1
)
)

If the transition action that ( prop_1 ) gets observed then all of the following conditions are true : at a certain time point during the first 44 to 63 time units ( prop_2 ) .


In the first 96 time units , signal_1_n will have to remain on 6.6 , and consecutively the value of signal signal_2_n has to stay higher than 74.3 .

In the first 96 time units , ( prop_1 ) , and consecutively ( prop_2 ) .


On condition that the event that the signal_1_n signal jumps to above 25.8 gets observed , then the following condition holds : the signal_2_n signal should promptly not be set to signal_3_n .

globally
(
rise
(
signal_1_n
more
25.8
)
imply
negation
(
signal_2_n
math equal
signal_3_n
)
)

On condition that the event that ( prop_1 ) gets observed , then the following condition holds : ( prop_2 ) .


Globally , if the signal_1_n signal stays greater than or equal to 66.8 , or signal_2_n is less than or equal to 60.1 , then all of the following conditions hold : signal_3_n has to settle to 66.6 then this scenario must consistently continue until there is ultimately sometime after at most 8 time units , at which the value of signal signal_4_n is less than 18.7 .

Globally , if ( prop_1 ) , or ( prop_2 ) , then all of the following conditions hold : ( prop_3 ) then this scenario must consistently continue until there is ultimately sometime after at most 8 time units , at which ( prop_4 ) .


For every time instant during the first 49 time units without interruption the value of signal signal_1_n will be keeping equal to 55.6 and continuously the value of signal_2_n shall be greater than 9.5 .

For every time instant during the first 49 time units without interruption ( prop_1 ) and continuously ( prop_2 ) .


There will be a certain time point in the future , at which the signal_1_n signal must be above 11.5 and less than 49.8 ultimately and the signal_2_n signal has to be ultimately less than 58.3 .

There will be a certain time point in the future , at which ( prop_1 ) and ( prop_2 ) .


Globally , whenever continuously the state of signal signal_1_n remains in signal_2_n until at a time within the following 16 to 74 time units , finally signal_3_n is 22.8 , then all of the following conditions are true : signal_4_n is larger than 88.0 and then must remain like this without interruption in the future .

globally
(
(
signal_1_n
math equal
signal_2_n
)
until
[16,74]
(
signal_3_n
math equal
22.8
)
imply
globally
(
signal_4_n
more
88.0
)
)

Globally , whenever continuously ( prop_1 ) , then all of the following conditions are true : ( prop_2 ) .


In case that the transition action that the value of signal_1_n becomes lower than 35.1 gets observed , then all of the following conditions hold : for every time point within the first 97 time units , eventually the value of signal_2_n has to be equal to 4.3 at sometime during the coming 1 time units .

globally
(
rise
(
signal_1_n
less
35.1
)
imply
globally
[0,97]
(
finally
[0,1]
(
signal_2_n
math equal
4.3
)
)
)

In case that the transition action that ( prop_1 ) gets observed , then all of the following conditions hold : for every time point within the first 97 time units , eventually ( prop_2 ) .


It is always the case that everytime when the transition action that the state of signal signal_1_n became not set to signal_2_n is consecutively not detected within the past 89 time units then all of the following conditions are true : signal_3_n will be keeping above 8.3 and less than 23.5 all the time in the future until the end of the simulation .

globally
(
historically
[0,89]
(
negation
fall
(
signal_1_n
math equal
signal_2_n
)
)
imply
globally
(
signal_3_n
more
8.3
and
signal_3_n
less
23.5
)
)

It is always the case that everytime when the transition action that ( prop_1 ) is consecutively not detected within the past 89 time units then all of the following conditions are true : ( prop_2 ) .

G ( hist|ically [ 0 : 89 ] ( prop_1 ) -> G ( prop_2 & prop_2 ) )


Globally , everytime when the transition action that signal_1_n is changed to 49.7 takes place then at a certain time point in the future the value of signal_2_n ought to stay larger than 34.2 and at most 88.4 finally .

globally
(
rise
(
signal_1_n
math equal
49.7
)
imply
finally
(
signal_2_n
more
34.2
and
signal_2_n
less equal
88.4
)
)

Globally , everytime when the transition action that ( prop_1 ) takes place then at a certain time point in the future ( prop_2 ) .


It is always the case that in case that the transition action that the value of signal signal_1_n starts not equaling to 95.2 gets detected , then the following condition is true : eventually there should exist sometime within the subsequent 36 time units , at which the signal_2_n signal should be equal to 51.0 .

globally
(
fall
(
signal_1_n
math equal
95.2
)
imply
finally
[0,36]
(
signal_2_n
math equal
51.0
)
)

It is always the case that in case that the transition action that ( prop_1 ) gets detected , then the following condition is true : eventually there should exist sometime within the subsequent 36 time units , at which ( prop_2 ) .


For each time point during the first 100 time units signal_1_n needs to consistently stay more than 12.8 and less than 16.7 or the value of signal signal_2_n has to equal to 32.8 consistently .

For each time point during the first 100 time units ( prop_1 ) or ( prop_2 ) .


There should exist a certain time point within the first 36 time units , at which the scenario that signal_1_n gets shifted to 82.4 will have to take place , and signal_2_n has to be finally set to signal_3_n .

There should exist a certain time point within the first 36 time units , at which the scenario that ( prop_1 ) will have to take place , and ( prop_2 ) .


It is always the case that everytime when the signal_1_n signal is less than 71.2 , and the event that the value of signal_2_n increases to greater than or equal to 4.4 gets observed then at a certain time instant in the future before the simulation ends the value of signal signal_3_n is n't less than or equal to 26.4 and uninterruptedly this condition has to keep in the future until the end of the execution .

globally
(
signal_1_n
less
71.2
and
rise
(
signal_2_n
more equal
4.4
)
imply
finally
(
globally
(
negation
(
signal_3_n
less equal
26.4
)
)
)
)

It is always the case that everytime when ( prop_1 ) , and the event that ( prop_2 ) gets observed then at a certain time instant in the future before ( prop_3 ) and uninterruptedly this condition has to keep in the future until the end of the execution .

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


At a certain time point in less than 81 time units , the value of signal_1_n will be finally less than or equal to 14.6 or signal_2_n is greater than or equal to 90.8 finally .

At a certain time point in less than 81 time units , ( prop_1 ) or ( prop_2 ) .


Globally , everytime when the mode of signal signal_1_n is set to signal_2_n , then all of the following conditions are true : there needs to exist a time in the future before the end of the simulation , at which the signal_3_n signal needs to be finally equal to 47.2 .

globally
(
signal_1_n
math equal
signal_2_n
imply
finally
(
signal_3_n
math equal
47.2
)
)

Globally , everytime when ( prop_1 ) , then all of the following conditions are true : there needs to exist a time in the future before the end of the simulation , at which ( prop_2 ) .


The event that the value of signal signal_1_n gets raised above 56.8 occurs finally at a certain time instant after at most 14 time units .

finally [0,14] ( rise ( signal_1_n more 56.8 ) )

The event that ( prop_1 ) occurs finally at a certain time instant after at most 14 time units .


Globally , if the scenario that the value of signal_1_n drops to no larger than 26.4 happens then in response there has to be a certain time point in the following 30 to 77 time units eventually , at which signal_2_n will have to be equal to 44.8 then this condition should uninterruptedly keep for every moment during the subsequent 44 time units .

globally
(
rise
(
signal_1_n
less equal
26.4
)
imply
finally
[30,77]
(
globally
[0,44]
(
signal_2_n
math equal
44.8
)
)
)

Globally , if the scenario that ( prop_1 ) happens then in response there has to be a certain time point in the following 30 to 77 time units eventually , at which ( prop_2 ) then this condition should uninterruptedly keep for every moment during the subsequent 44 time units .


Whenever the value of signal signal_1_n is less than 22.4 , then the mode of signal_2_n needs to stay in signal_3_n uninterruptedly for each moment during the following 34 time units .


At a time in the future before the end of the execution , the value of signal signal_1_n is 4.2 ultimately .

At a time in the future before the end of the execution , ( prop_1 ) .


On condition that the scenario that signal_1_n starts not equaling to 99.7 gets detected , then all of the following conditions hold : at a time in the next 46 time units , the value of signal_2_n shall be continuously equal to 61.4 for every time point in the following 53 time units .

globally
(
fall
(
signal_1_n
math equal
99.7
)
imply
finally
[0,46]
(
globally
[0,53]
(
signal_2_n
math equal
61.4
)
)
)

On condition that the scenario that ( prop_1 ) gets detected , then all of the following conditions hold : at a time in the next 46 time units , ( prop_2 ) .


For more than 71 time units , the value of signal_1_n will keep larger than 67.9 and less than 97.6 consistently .

For more than 71 time units , ( prop_1 ) .


There will exist a time within the first 25 time units , at which the signal_1_n signal shall be below 32.0 eventually , and the value of signal signal_2_n needs to be over 84.4 finally .

There will exist a time within the first 25 time units , at which ( prop_1 ) , and ( prop_2 ) .


As soon as the transition action that the signal_1_n signal becomes lower than 51.5 gets observed , then in response the value of signal_2_n shall be instantly 70.5 .

globally
(
rise
(
signal_1_n
less
51.5
)
imply
signal_2_n
math equal
70.5
)

As soon as the transition action that ( prop_1 ) gets observed , then in response ( prop_2 ) .


For each time point during the first 85 time units consecutively the signal_1_n signal will have to be set to 90.9 and the signal_2_n signal should always keep larger than 82.0 .

For each time point during the first 85 time units consecutively ( prop_1 ) and ( prop_2 ) .


It is always the case that whenever the scenario that the value of signal signal_1_n becomes greater than or equal to 17.4 occurs then the following condition is true : eventually after sometime within 39 time units the value of signal signal_2_n shall never be equal to 95.2 and will have to continuously stay like that for every moment within the next 96 time units .

globally
(
rise
(
signal_1_n
more equal
17.4
)
imply
finally
[0,39]
(
globally
[0,96]
(
negation
(
signal_2_n
math equal
95.2
)
)
)
)

It is always the case that whenever the scenario that ( prop_1 ) occurs then the following condition is true : eventually after sometime within 39 time units ( prop_2 ) .


For every time point within the first 10 to 32 time units signal_1_n needs to stay at 32.1 consecutively , or the mode of signal_2_n ought to be uninterruptedly set to signal_3_n .

For every time point within the first 10 to 32 time units ( prop_1 ) , or ( prop_2 ) .


There has to exist sometime within 44 time units , at which eventually the signal_1_n signal ought to be greater than or equal to 14.7 and no larger than 20.0 , and the event that the value of signal_2_n increases above 88.9 should finally get observed .

There has to exist sometime within 44 time units , at which eventually ( prop_1 ) , and the event that ( prop_2 ) should finally get observed .


For each time point in the first 71 time units , the value of signal signal_1_n will be larger than 39.0 and less than 55.5 and the value of signal signal_2_n shall be uninterruptedly less than or equal to 99.3 .

For each time point in the first 71 time units , ( prop_1 ) and ( prop_2 ) .


There is a certain moment in less than 75 time units , at which signal_1_n has to be eventually less than 33.5 .

There is a certain moment in less than 75 time units , at which ( prop_1 ) .


Globally , everytime when the event that the mode of signal signal_1_n shifts to signal_2_n is detected then all of the following conditions hold : the signal_3_n signal is instantly at most 11.9 .

globally
(
rise
(
signal_1_n
math equal
signal_2_n
)
imply
signal_3_n
less equal
11.9
)

Globally , everytime when the event that ( prop_1 ) is detected then all of the following conditions hold : ( prop_2 ) .


In the case the value of signal signal_1_n is above 21.9 and less than or equal to 47.5 , then the following condition is true : for each time instant during the coming 84 time units , there has to exist sometime during the subsequent 84 time units finally , at which the scenario that the signal_2_n signal decreases to no more than 77.7 must n't occur .

globally
(
signal_1_n
more
21.9
and
signal_1_n
less equal
47.5
imply
globally
[0,84]
(
finally
[0,84]
(
negation
fall
(
signal_2_n
more
77.7
)
)
)
)

In the case ( prop_1 ) , then the following condition is true : for each time instant during the coming 84 time units , there has to exist sometime during the subsequent 84 time units finally , at which the scenario that ( prop_2 ) must n't occur .


During the first 36 to 54 time units the value of signal signal_1_n should remain larger than 25.2 and lower than 27.4 without interruption .

During the first 36 to 54 time units ( prop_1 ) .


As soon as the transition action that the mode of signal_1_n changes to signal_2_n is detected then the value of signal_3_n is immediately no less than 21.6 and less than or equal to 30.7 .

As soon as the transition action that ( prop_1 ) is detected then ( prop_2 ) .


In the future before the end of the simulation , uninterruptedly the signal_1_n signal will have to be higher than 7.0 and below 22.9 , or signal_2_n is in signal_3_n .

In the future before the end of the simulation , uninterruptedly ( prop_1 ) , or ( prop_2 ) .


While the signal_1_n signal is signal_2_n or the mode of signal_3_n is in signal_4_n then in response the value of signal_5_n shall always remain less than or equal to 34.2 for at least 73 time units .

While ( prop_1 ) or ( prop_2 ) then in response ( prop_3 ) .


There must be a time starting at most 74 time units , at which finally signal_1_n ought to be set to signal_2_n .

There must be a time starting at most 74 time units , at which finally ( prop_1 ) .


It is always the case that when the event that the signal_1_n signal is shifted to signal_2_n is observed then all of the following conditions hold : at the same time signal_3_n should be above 8.3 .

globally
(
rise
(
signal_1_n
math equal
signal_2_n
)
imply
signal_3_n
more
8.3
)

It is always the case that when the event that ( prop_1 ) is observed then all of the following conditions hold : at the same time ( prop_2 ) .


It is always the case that if the event that the value of signal_1_n becomes equal to 14.5 is observed then all of the following conditions are true : consecutively the value of signal signal_2_n must never be equal to 64.7 for every time instant within the subsequent 50 to 81 time units .

globally
(
rise
(
signal_1_n
math equal
14.5
)
imply
globally
[50,81]
(
negation
(
signal_2_n
math equal
64.7
)
)
)

It is always the case that if the event that ( prop_1 ) is observed then all of the following conditions are true : consecutively ( prop_2 ) .


Globally , during the interval that the mode of signal signal_1_n is set to signal_2_n then in response at a certain time point in the future before the end of the execution , signal_3_n ought to keep equal to 60.5 finally .

globally
(
signal_1_n
math equal
signal_2_n
imply
finally
(
signal_3_n
math equal
60.5
)
)

Globally , during the interval that ( prop_1 ) , ( prop_2 ) .


Ultimately there is a certain moment in the future before the simulation ends , at which signal_1_n ought to remain at most 75.1 .

Ultimately there is a certain moment in the future before the simulation ends , at which ( prop_1 ) .


It is always the case that whenever the value of signal signal_1_n shifts to 61.0 , then in response the signal_2_n signal will have to be less than or equal to 89.4 at the same time .

globally
(
rise
(
signal_1_n
math equal
61.0
)
imply
signal_2_n
less equal
89.4
)

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


In the event that signal_1_n is no less than 39.5 , and the state of signal signal_2_n stays in signal_3_n then all of the following conditions are true : the value of signal_4_n will have to be equal to 6.3 continuously for the first 34 time units .

In the event that ( prop_1 ) , and ( prop_2 ) then all of the following conditions are true : ( prop_3 ) .


There ought to be sometime starting at most 77 time units , at which eventually the value of signal signal_1_n will be less than 66.3 or the transition action that signal_2_n gets to less than or equal to 37.5 should finally occur .

There ought to be sometime starting at most 77 time units , at which eventually ( prop_1 ) or the transition action that ( prop_2 ) should finally occur .


There should exist sometime in the first 34 time units , at which the value of signal_1_n ought to be finally higher than 58.8 .

There should exist sometime in the first 34 time units , at which ( prop_1 ) .


Ultimately there has to exist a certain moment within the first 2 time units , at which the value of signal_1_n is not 79.3 .

finally
[0,2]
(
negation
(
signal_1_n
math equal
79.3
)
)

Ultimately there has to exist a certain moment within the first 2 time units , at which ( prop_1 ) .


There should exist a certain moment after at most 66 time units , at which finally the event that the signal_1_n signal jumps to larger than 67.1 should get detected .

finally [0,66] ( rise ( signal_1_n more 67.1 ) )

There should exist a certain moment after at most 66 time units , at which finally the event that ( prop_1 ) should get detected .


In the case the event that the signal_1_n signal decreases to less than or equal to 4.9 gets observed then all of the following conditions are true : at a certain moment in the subsequent 67 to 95 time units the signal_2_n signal needs to equal to 55.9 and then will be remaining like that all the time for each time instant during the coming 31 time units .

globally
(
rise
(
signal_1_n
less equal
4.9
)
imply
finally
[67,95]
(
globally
[0,31]
(
signal_2_n
math equal
55.9
)
)
)

In the case the event that ( prop_1 ) gets observed then all of the following conditions are true : at a certain moment in the subsequent 67 to 95 time units ( prop_2 ) .


Within 23 time units , the value of signal signal_1_n has to remain higher than 9.1 and below 9.8 all the time .


In the case signal_1_n is in signal_2_n then all of the following conditions are true : for every moment in the future before the execution ends , there will be a time in the future , at which the state of signal signal_3_n shall ultimately not be set to signal_4_n .

globally
(
signal_1_n
math equal
signal_2_n
imply
globally
(
finally
(
negation
(
signal_3_n
math equal
signal_4_n
)
)
)
)

In ( prop_1 ) then all of the following conditions are true : for every moment in the future before the execution ends , there will be a time in the future , at which ( prop_2 ) .


In the case signal_1_n is above 10.9 , and the value of signal_2_n is n't 88.1 , then after a certain time point in the next 66 time units the signal_3_n signal shall be signal_4_n and this scenario always holds in the future until the end of the execution .

globally
(
signal_1_n
more
10.9
and
negation
(
signal_2_n
math equal
88.1
)
imply
finally
[0,66]
(
globally
(
signal_3_n
math equal
signal_4_n
)
)
)

In the case ( prop_1 ) , and ( prop_2 ) , then after a certain time point in the next 66 time units ( prop_3 ) and this scenario always holds in the future until the end of the execution .


Globally , in case that the event that the value of signal signal_1_n becomes larger than 11.8 takes place then all of the following conditions are true : for every time instant within the subsequent 46 time units , the value of signal_2_n must ultimately equal to 66.6 at a certain moment within the coming 24 time units .

globally
(
rise
(
signal_1_n
more
11.8
)
imply
globally
[0,46]
(
finally
[0,24]
(
signal_2_n
math equal
66.6
)
)
)

Globally , in case that the event that ( prop_1 ) takes place then all of the following conditions are true : for every time instant within the subsequent 46 time units , ( prop_2 ) .


It is always the case that whenever the transition action that the signal_1_n signal gets raised to at least 67.5 is observed then there must be a certain time point within the following 20 time units , at which signal_2_n has to be in signal_3_n ultimately .

globally
(
rise
(
signal_1_n
more equal
67.5
)
imply
finally
[0,20]
(
signal_2_n
math equal
signal_3_n
)
)

It is always the case that whenever the transition action that ( prop_1 ) is observed then there must be a certain time point within the following 20 time units , at which ( prop_2 ) .


For every time instant during the first 38 to 62 time units , continuously signal_1_n shall never be equal to 97.7 or the value of signal signal_2_n always remains at most 32.5 .

For every time instant during the first 38 to 62 time units , continuously ( prop_1 ) or ( prop_2 ) .


At a certain moment within the first 69 time units , eventually signal_1_n has to be larger than 9.5 , or the value of signal signal_2_n must be at most 43.8 finally .

At a certain moment within the first 69 time units , eventually ( prop_1 ) , or ( prop_2 ) .


It is always the case that whenever signal_1_n is greater than 2.1 then in response at once the value of signal signal_2_n has to be no more than 64.2 .

It is always the case that whenever ( prop_1 ) then in response at once ( prop_2 ) .


It is always the case that in case that the event that the value of signal signal_1_n drops below 94.7 occurs , then all of the following conditions hold : in no time the value of signal_2_n has to be greater than or equal to 86.3 .

globally
(
rise
(
signal_1_n
less
94.7
)
imply
signal_2_n
more equal
86.3
)

It is always the case that in case that the event that ( prop_1 ) occurs , then all of the following conditions hold : in no time ( prop_2 ) .


It is always the case that everytime when the event that the state of signal_1_n enters signal_2_n occurs then for each time instant in the future till the end of the simulation , there ought to be a certain time point in the future before the execution ends , at which finally the value of signal_3_n ought to be between the closed interval -LSB- 1.8 , 13.4 -RSB- .

globally
(
rise
(
signal_1_n
math equal
signal_2_n
)
imply
globally
(
finally
(
signal_3_n
more equal
1.8
and
signal_3_n
less equal
13.4
)
)
)

It is always the case that everytime when the event that ( prop_1 ) occurs then for each time instant in the future till the end of the simulation , there ought to be a certain time point in the future before the execution ends , at which finally ( prop_2 ) -RSB- .

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


It is always the case that whenever the transition action that the state of signal signal_1_n begins deviating from signal_2_n gets observed then the following condition holds : for each moment within the following 41 to 50 time units , at a certain moment within the coming 65 to 68 time units the signal_3_n signal will be at most 7.8 ultimately .

globally
(
fall
(
signal_1_n
math equal
signal_2_n
)
imply
globally
[41,50]
(
finally
[65,68]
(
signal_3_n
less equal
7.8
)
)
)

It is always the case that whenever the transition action that ( prop_1 ) gets observed then the following condition holds : for each moment within the following 41 to 50 time units , at a certain moment within the coming 65 to 68 time units ( prop_2 ) .


Globally , if the transition action that the value of signal_1_n gets smaller than 56.1 occurs , then all of the following conditions hold : for every moment during the following 74 time units there needs to be sometime in the future before the simulation ends , at which the scenario that the signal_2_n signal drops to no larger than 56.0 ought to eventually occur .

globally
(
rise
(
signal_1_n
less
56.1
)
imply
globally
[0,74]
(
finally
(
rise
(
signal_2_n
less equal
56.0
)
)
)
)

Globally , if the transition action that ( prop_1 ) occurs , then all of the following conditions hold : for every moment during the following 74 time units there needs to be sometime in the future before the simulation ends , at which the scenario that ( prop_2 ) ought to eventually occur .


The signal_1_n signal will have to be finally greater than or equal to 53.5 at sometime during the first 86 time units .


In case that the event that the value of signal signal_1_n becomes greater than or equal to 76.5 gets observed then the following condition holds : the scenario that the signal_2_n signal gets to at most 53.8 ought to occur in no time .

globally
(
rise
(
signal_1_n
more equal
76.5
)
imply
rise
(
signal_2_n
less equal
53.8
)
)

In case that the event that ( prop_1 ) gets observed then the following condition holds : the scenario that ( prop_2 ) ought to occur in no time .


Globally , if the transition action that signal_1_n becomes no more than 85.2 gets observed , then in response signal_2_n will have to be lower than 95.0 and continuously this scenario has to continue for every moment in the following 9 to 69 time units .

globally
(
rise
(
signal_1_n
less equal
85.2
)
imply
globally
[9,69]
(
signal_2_n
less
95.0
)
)

Globally , if the transition action that ( prop_1 ) gets observed , then in response ( prop_2 ) and continuously this scenario has to continue for every moment in the following 9 to 69 time units .


Whenever the scenario that the value of signal signal_1_n gets over 82.8 is observed , then the following condition is true : there has to be a certain time point in the future before the simulation ends , at which within the coming 25 to 41 time units the mode of signal signal_2_n will have to stay in signal_3_n consecutively .

globally
(
rise
(
signal_1_n
more
82.8
)
imply
finally
(
globally
[25,41]
(
signal_2_n
math equal
signal_3_n
)
)
)

Whenever the scenario that ( prop_1 ) is observed , then the following condition is true : there has to be a certain time point in the future before the simulation ends , at which within the coming 25 to 41 time units ( prop_2 ) .


There has to be a certain time point within 17 to 56 time units , at which signal_1_n will have to ultimately keep in signal_2_n , and finally the signal_3_n signal needs to be 48.5 .

There has to be a certain time point within 17 to 56 time units , at which ( prop_1 ) , and finally ( prop_2 ) .


It is always the case that everytime when the transition action that signal_1_n becomes less than or equal to 94.3 gets observed , then at a certain time point within the first 62 time units for each time point during the next 29 time units the state of signal signal_2_n must keep in signal_3_n consecutively .

globally
(
rise
(
signal_1_n
less equal
94.3
)
imply
finally
[0,62]
(
globally
[0,29]
(
signal_2_n
math equal
signal_3_n
)
)
)

It is always the case that everytime when the transition action that ( prop_1 ) gets observed , then at a certain time point within the first 62 time units for each time point during the next 29 time units ( prop_2 ) .


As soon as the scenario that signal_1_n becomes not set to 61.4 gets detected then in response there needs to be a time during the following 25 time units finally , at which the value of signal_2_n is greater than or equal to 52.6 and less than or equal to 56.8 .

globally
(
fall
(
signal_1_n
math equal
61.4
)
imply
finally
[0,25]
(
signal_2_n
more equal
52.6
and
signal_2_n
less equal
56.8
)
)

As soon as the scenario that ( prop_1 ) gets detected then in response there needs to be a time during the following 25 time units finally , at which ( prop_2 ) .


Consistently the value of signal_1_n should remain between the range -LSB- 20.4 , 67.2 -RSB- for the first 57 time units .


Eventually the value of signal signal_1_n needs to be no larger than 91.8 at a certain time instant in the future before the end of the execution .


As soon as the transition action that the value of signal signal_1_n is shifted to 51.0 gets detected , then in response the signal_2_n signal ought to be instantly 3.3 .

globally
(
rise
(
signal_1_n
math equal
51.0
)
imply
signal_2_n
math equal
3.3
)

As soon as the transition action that ( prop_1 ) gets detected , then in response ( prop_2 ) .


In case that the value of signal_1_n is n't smaller than 89.7 then at the same moment the mode of signal_2_n needs to be signal_3_n .

globally
(
negation
(
signal_1_n
less
89.7
)
imply
signal_2_n
math equal
signal_3_n
)

In case that ( prop_1 ) then at the same moment ( prop_2 ) .


Everytime when the event that signal_1_n becomes equal to 99.2 is detected , then in response there needs to ultimately exist a certain time instant within the subsequent 4 to 11 time units , at which in the future until the execution ends , without interruption the mode of signal_2_n should remain in signal_3_n .

globally
(
rise
(
signal_1_n
math equal
99.2
)
imply
finally
[4,11]
(
globally
(
signal_2_n
math equal
signal_3_n
)
)
)

Everytime when the event that ( prop_1 ) is detected , then in response there needs to ultimately exist a certain time instant within the subsequent 4 to 11 time units , at which in the future until the execution ends , without interruption ( prop_2 ) .


It is always the case that when the scenario that the value of signal signal_1_n gets above 62.7 takes place , then the following condition holds : after a certain time point in the future the mode of signal signal_2_n needs to be in signal_3_n and then will be consistently keeping like this for each time instant within the following 24 to 68 time units .

globally
(
rise
(
signal_1_n
more
62.7
)
imply
finally
(
globally
[24,68]
(
signal_2_n
math equal
signal_3_n
)
)
)

It is always the case that when the scenario that ( prop_1 ) takes place , then the following condition holds : after a certain time point in the future ( prop_2 ) .


Globally , everytime when signal_1_n will be consistently remaining on 78.3 till eventually the signal_2_n signal is smaller than 81.7 at a time in the first 18 time units then in response the value of signal_3_n is higher than 37.6 and no more than 79.8 eventually at a certain time point in the next 35 time units .

Globally , everytime when ( prop_1 ) till eventually ( prop_2 ) then in response ( prop_3 ) .


On condition that the event that the value of signal signal_1_n gets lower than 85.7 is observed then the following condition is true : at the same time point the value of signal signal_2_n ought to be no less than 98.9 .

globally
(
rise
(
signal_1_n
less
85.7
)
imply
signal_2_n
more equal
98.9
)

On condition that the event that ( prop_1 ) is observed then the following condition is true : at the same time point ( prop_2 ) .


Globally , whenever the event that the value of signal_1_n gets shifted to 42.7 happens , then eventually there needs to exist sometime within the subsequent 22 time units , after which the signal_2_n signal needs to be no less than 5.5 and then needs to consecutively continue like this for every time point in the next 47 time units .

globally
(
rise
(
signal_1_n
math equal
42.7
)
imply
finally
[0,22]
(
globally
[0,47]
(
signal_2_n
more equal
5.5
)
)
)

Globally , whenever the event that ( prop_1 ) happens , then eventually there needs to exist sometime within the subsequent 22 time units , after which ( prop_2 ) and then needs to consecutively continue like this for every time point in the next 47 time units .


It is always the case that everytime when the value of signal signal_1_n goes to greater than or equal to 10.0 , then there will ultimately exist a certain time point in less than 70 time units , after which for every moment within 72 time units signal_2_n ought to remain equal to 32.7 continuously .

globally
(
rise
(
signal_1_n
more equal
10.0
)
imply
finally
[0,70]
(
globally
[0,72]
(
signal_2_n
math equal
32.7
)
)
)

It is always the case that everytime when ( prop_1 ) , then there will ultimately exist a certain time point in less than 70 time units , after which for every moment within 72 time units ( prop_2 ) .


There has to exist a certain time instant within 21 to 86 time units , at which the signal_1_n signal ought to be equal to 51.5 .

There has to exist a certain time instant within 21 to 86 time units , at which ( prop_1 ) .


It is always the case that when the scenario that the value of signal signal_1_n gets changed to 72.3 occurs , then the following condition is true : for every moment in the future until the simulation ends , there should finally exist a certain time instant during the following 59 to 77 time units , at which the transition action that signal_2_n falls to at most 3.9 will get observed .

globally
(
rise
(
signal_1_n
math equal
72.3
)
imply
globally
(
finally
[59,77]
(
rise
(
signal_2_n
less equal
3.9
)
)
)
)

It is always the case that when the scenario that ( prop_1 ) occurs , then the following condition is true : for every moment in the future until the simulation ends , there should finally exist a certain time instant during the following 59 to 77 time units , at which the transition action that ( prop_2 ) will get observed .


At a time after at most 88 time units eventually the value of signal_1_n shall be above 37.0 and smaller than 59.4 .

At a time after at most 88 time units eventually ( prop_1 ) .


In the future before the execution ends , the state of signal signal_1_n will stay in signal_2_n all the time , and without interruption signal_3_n needs to remain higher than 5.6 and less than 76.8 .

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


In case that the scenario that signal_1_n deviates from 43.4 is detected , then there must be a certain moment in the future before the end of the execution , at which eventually the value of signal signal_2_n needs to be 86.7 .

globally
(
fall
(
signal_1_n
math equal
43.4
)
imply
finally
(
signal_2_n
math equal
86.7
)
)

In case that the scenario that ( prop_1 ) is detected , then there must be a certain moment in the future before the end of the execution , at which eventually ( prop_2 ) .


Globally , if the transition action that signal_1_n becomes greater than 13.6 is detected , then for every time point within 77 time units , eventually there needs to be sometime during the coming 47 time units , at which the signal_2_n signal shall be 48.6 .

globally
(
rise
(
signal_1_n
more
13.6
)
imply
globally
[0,77]
(
finally
[0,47]
(
signal_2_n
math equal
48.6
)
)
)

Globally , if the transition action that ( prop_1 ) is detected , then for every time point within 77 time units , eventually there needs to be sometime during the coming 47 time units , at which ( prop_2 ) .


In the future until the end of the simulation , consecutively the value of signal_1_n stays greater than or equal to 67.0 , or consecutively the state of signal_2_n will have to stay in signal_3_n .

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


When for the elapsed 75 time units , the signal_1_n signal has equaled to 83.8 consistently , then in response at a certain moment in the future , the signal_2_n signal keeps less than 11.6 without interruption in the future before the execution ends .

globally
(
historically
[0,75]
(
signal_1_n
math equal
83.8
)
imply
finally
(
globally
(
signal_2_n
less
11.6
)
)
)

When for the elapsed 75 time units , ( prop_1 ) , then in response at a certain moment in the future , ( prop_2 ) .

G ( hist|ically [ 0 : 75 ] ( prop_1 ) -> F ( G ( prop_2 ) ) )


When the transition action that the signal_1_n signal starts deviating from 36.9 gets detected or signal_2_n is greater than 18.0 and below 72.9 then the following condition is true : simultaneously the value of signal signal_3_n must be greater than 70.8 and less than 93.6 .

When the transition action that ( prop_1 ) gets detected or ( prop_2 ) then the following condition is true : simultaneously ( prop_3 ) .


Globally , in case that without interruption the mode of signal_1_n was never in signal_2_n within the elapsed 17 to 88 time units then the following condition holds : consecutively the state of signal_3_n stays in signal_4_n till ultimately the state of signal signal_5_n will be in signal_6_n , which needs to get detected at a certain time instant in less than 29 time units .

globally
(
historically
[17,88]
(
negation
(
signal_1_n
math equal
signal_2_n
)
)
imply
(
signal_3_n
math equal
signal_4_n
)
until
[0,29]
(
signal_5_n
math equal
signal_6_n
)
)

Globally , in case that without interruption ( prop_1 ) then the following condition holds : consecutively ( prop_2 ) .


In the case the transition action that signal_1_n gets set to 19.2 occurs then the following condition is true : after a certain time point during the next 51 time units , signal_2_n ought to stay bigger than 19.7 and less than 58.5 uninterruptedly for the subsequent 2 time units .

globally
(
rise
(
signal_1_n
math equal
19.2
)
imply
finally
[0,51]
(
globally
[0,2]
(
signal_2_n
more
19.7
and
signal_2_n
less
58.5
)
)
)

In the case the transition action that ( prop_1 ) occurs then the following condition is true : after a certain time point during the next 51 time units , ( prop_2 ) .


In the case signal_1_n stays in signal_2_n , then the following condition holds : ultimately at a certain moment after between 67 to 75 time units the value of signal signal_3_n shall be less than or equal to 99.8 and then keeps like this in the future until the end of the simulation .

globally
(
signal_1_n
math equal
signal_2_n
imply
finally
[67,75]
(
globally
(
signal_3_n
less equal
99.8
)
)
)

In ( prop_1 ) , then the following condition holds : ultimately at a certain moment after between 67 to 75 time units ( prop_2 ) .


The signal_1_n signal shall always keep in signal_2_n for every time instant in the first 42 to 98 time units .


On condition that signal_1_n is n't greater than or equal to 91.8 or the value of signal signal_2_n is equal to 51.7 , then the following condition holds : starting without any delay the value of signal_3_n must be at least 99.9 .

On condition that ( prop_1 ) or ( prop_2 ) , then the following condition holds : starting without any delay ( prop_3 ) .


It is always the case that if the scenario that the signal_1_n signal starts not equaling to 44.2 gets observed , then the following condition is true : there ought to finally exist a certain time point within the following 58 time units , at which the scenario that the mode of signal signal_2_n starts deviating from signal_3_n does not occur .

globally
(
fall
(
signal_1_n
math equal
44.2
)
imply
finally
[0,58]
(
negation
fall
(
signal_2_n
math equal
signal_3_n
)
)
)

It is always the case that if the scenario that ( prop_1 ) gets observed , then the following condition is true : there ought to finally exist a certain time point within the following 58 time units , at which the scenario that ( prop_2 ) does not occur .


It is always the case that in case that signal_1_n is above 59.8 , then for each moment in the future till the simulation ends at sometime in the future before the end of the simulation , the signal_2_n signal ought to be less than or equal to 83.5 finally .

globally
(
signal_1_n
more
59.8
imply
globally
(
finally
(
signal_2_n
less equal
83.5
)
)
)

It is always the case that in case that ( prop_1 ) , then for each moment in the future till the simulation ends at sometime in the future before the end of the simulation , ( prop_2 ) .


Globally , if the event that the value of signal signal_1_n becomes at least 42.0 is detected , then the value of signal signal_2_n will have to be equal to 67.3 at the same time .

globally
(
rise
(
signal_1_n
more equal
42.0
)
imply
signal_2_n
math equal
67.3
)

Globally , if the event that ( prop_1 ) is detected , then ( prop_2 ) .


When the event that signal_1_n goes to greater than or equal to 12.3 gets detected then all of the following conditions hold : for every time point in the future until the execution ends there needs to exist sometime in the following 1 to 75 time units , at which the signal_2_n signal should n't be less than or equal to 37.2 .

globally
(
rise
(
signal_1_n
more equal
12.3
)
imply
globally
(
finally
[1,75]
(
negation
(
signal_2_n
less equal
37.2
)
)
)
)

When the event that ( prop_1 ) gets detected then all of the following conditions hold : for every time point in the future until the execution ends there needs to exist sometime in the following 1 to 75 time units , at which ( prop_2 ) .


It is always the case that if the value of signal signal_1_n is greater than or equal to 46.0 or the transition action that the value of signal signal_2_n gets to at most 59.7 takes place , then the following condition holds : signal_3_n ought to be instantly 11.4 .

It is always the case that if ( prop_1 ) or the transition action that ( prop_2 ) takes place , then the following condition holds : ( prop_3 ) .


On condition that the transition action that signal_1_n becomes at most 32.3 is observed , then the following condition holds : eventually there needs to exist sometime within the next 0 time units , at which the mode of signal signal_2_n shall be signal_3_n and then will be consistently staying like this for every time point within 99 time units .

globally
(
rise
(
signal_1_n
less equal
32.3
)
imply
finally
[0,0]
(
globally
[0,99]
(
signal_2_n
math equal
signal_3_n
)
)
)

On condition that the transition action that ( prop_1 ) is observed , then the following condition holds : eventually there needs to exist sometime within the next 0 time units , at which ( prop_2 ) and then will be consistently staying like this for every time point within 99 time units .


At a certain moment in the future , signal_1_n will have to stay equal to 45.8 ultimately .

At a certain moment in the future , ( prop_1 ) .


There ought to exist sometime after between 10 to 28 time units , at which signal_1_n must be in signal_2_n .

There ought to exist sometime after between 10 to 28 time units , at which ( prop_1 ) .


It is always the case that whenever the scenario that the signal_1_n signal gets equal to 17.9 occurs then all of the following conditions are true : the value of signal signal_2_n has to be greater than or equal to 0.3 and at most 0.5 starting without any delay .

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


At sometime after between 1 to 83 time units , the signal_1_n signal should be lower than 40.8 ultimately .

At sometime after between 1 to 83 time units , ( prop_1 ) .


It is always the case that in case that the scenario that the mode of signal signal_1_n becomes not set to signal_2_n happens , then for each moment in the future until the simulation ends there ultimately exists a certain moment in the future before the end of the execution , at which the scenario that the value of signal signal_3_n changes to 33.6 happens .

globally
(
fall
(
signal_1_n
math equal
signal_2_n
)
imply
globally
(
finally
(
rise
(
signal_3_n
math equal
33.6
)
)
)
)

It is always the case that in case that the scenario that ( prop_1 ) happens , then for each moment in the future until the simulation ends there ultimately exists a certain moment in the future before the end of the execution , at which the scenario that ( prop_2 ) happens .


It is always the case that when the value of signal_1_n is greater than or equal to 30.5 and at most 46.3 and signal_2_n is set to signal_3_n , then all of the following conditions are true : for every moment in the coming 5 to 5 time units , at a certain time point in the future before the execution ends , the value of signal signal_4_n needs to remain no less than 12.8 finally .

globally
(
(
signal_1_n
more equal
30.5
and
signal_1_n
less equal
46.3
)
and
signal_2_n
math equal
signal_3_n
imply
globally
[5,5]
(
finally
(
signal_4_n
more equal
12.8
)
)
)

It is always the case that when ( prop_1 ) and ( prop_2 ) , then all of the following conditions are true : for every moment in the coming 5 to 5 time units , at a certain time point in the future before the execution ends , ( prop_3 ) .


For every time point within 1 to 23 time units , uninterruptedly the signal_1_n signal shall keep greater than 7.3 and smaller than 9.2 or the value of signal_2_n must uninterruptedly stay below 0.3 .

For every time point within 1 to 23 time units , uninterruptedly ( prop_1 ) or ( prop_2 ) .


For every moment within 100 time units the signal_1_n signal ought to remain larger than 85.6 consistently , and signal_2_n will be staying greater than 50.5 uninterruptedly .

For every moment within 100 time units ( prop_1 ) , and ( prop_2 ) .


Whenever the scenario that signal_1_n becomes not set to signal_2_n happens then in response the signal_3_n signal will have to be instantly smaller than 47.3 .

globally
(
fall
(
signal_1_n
math equal
signal_2_n
)
imply
signal_3_n
less
47.3
)

Whenever the scenario that ( prop_1 ) happens then in response ( prop_2 ) .


It is always the case that when signal_1_n falls below 53.6 , then starting without any delay the state of signal_2_n will be set to signal_3_n .

globally
(
rise
(
signal_1_n
less
53.6
)
imply
signal_2_n
math equal
signal_3_n
)

It is always the case that when ( prop_1 ) , then ( prop_2 ) .


For each time point within 57 to 78 time units , consecutively signal_1_n needs to be in signal_2_n or without interruption the signal_3_n signal should n't be set to 57.6 .

For each time point within 57 to 78 time units , consecutively ( prop_1 ) or without interruption ( prop_2 ) .


It is always the case that whenever the event that the signal_1_n signal gets changed to 14.2 is observed then the following condition is true : for every time point within 92 time units at a certain time point in the next 84 time units finally the value of signal signal_2_n ought to be at least 89.2 .

globally
(
rise
(
signal_1_n
math equal
14.2
)
imply
globally
[0,92]
(
finally
[0,84]
(
signal_2_n
more equal
89.2
)
)
)

It is always the case that whenever the event that ( prop_1 ) is observed then the following condition is true : for every time point within 92 time units at a certain time point in the next 84 time units finally ( prop_2 ) .


At a certain time point in the first 29 time units the value of signal signal_1_n should keep less than or equal to 93.0 eventually , and the value of signal_2_n should be finally larger than 87.9 .

At a certain time point in the first 29 time units ( prop_1 ) , and ( prop_2 ) .


Globally , during the interval that the value of signal_1_n stays less than 92.2 and the value of signal signal_2_n stays less than 38.7 then all of the following conditions hold : the event that the signal_3_n signal gets to at least 82.3 occurs starting without any delay , and the signal_4_n signal is instantly greater than 20.3 and below 74.5 .

Globally , during the interval that ( prop_1 ) and ( prop_2 ) then all of the following conditions hold : the event that ( prop_3 ) occurs starting without any delay , and ( prop_4 ) .


It is always the case that whenever the event that the value of signal_1_n gets smaller than 54.7 is detected , then the following condition is true : there will exist a certain moment in less than 50 time units , at which the transition action that the signal_2_n signal becomes greater than or equal to 50.8 will have to take place .

globally
(
rise
(
signal_1_n
less
54.7
)
imply
finally
[0,50]
(
rise
(
signal_2_n
more equal
50.8
)
)
)

It is always the case that whenever the event that ( prop_1 ) is detected , then the following condition is true : there will exist a certain moment in less than 50 time units , at which the transition action that ( prop_2 ) will have to take place .


There ought to exist sometime during the first 19 to 73 time units , at which the state of signal_1_n will have to be set to signal_2_n and finally the signal_3_n signal needs to be 10.2 .

There ought to exist sometime during the first 19 to 73 time units , at which ( prop_1 ) and finally ( prop_2 ) .


In the first 1 to 63 time units the value of signal signal_1_n must stay greater than 5.1 and less than or equal to 20.1 consecutively , and the value of signal signal_2_n must stay greater than or equal to 66.2 uninterruptedly .

In the first 1 to 63 time units ( prop_1 ) , and ( prop_2 ) .


Globally , when the value of signal signal_1_n is n't at most 4.1 then all of the following conditions hold : at the same time point signal_2_n must never be smaller than 79.9 , or in no time the scenario that signal_3_n gets to no more than 76.0 shall happen .

globally
(
negation
(
signal_1_n
less equal
4.1
)
imply
negation
(
signal_2_n
less
79.9
)
or
rise
(
signal_3_n
less equal
76.0
)
)

Globally , when ( prop_1 ) then all of the following conditions hold : at the same time point ( prop_2 ) , or in no time the scenario that ( prop_3 ) shall happen .


If the value of signal signal_1_n is higher than 76.9 , then the following condition is true : for every moment in the future before the execution ends , there ought to exist a certain time instant in the future before the simulation ends , at which eventually the value of signal signal_2_n needs to be at most 72.8 .

globally
(
signal_1_n
more
76.9
imply
globally
(
finally
(
signal_2_n
less equal
72.8
)
)
)

If ( prop_1 ) , then the following condition is true : for every moment in the future before the execution ends , there ought to exist a certain time instant in the future before the simulation ends , at which eventually ( prop_2 ) .


For every moment in the first 94 time units , the state of signal signal_1_n needs to remain in signal_2_n consistently , or the state of signal_3_n shall always remain in signal_4_n .

For every moment in the first 94 time units , ( prop_1 ) , or ( prop_2 ) .


The mode of signal signal_1_n keeps in signal_2_n uninterruptedly for every time point within the first 62 time units .


For each moment in the first 46 time units signal_1_n is continuously set to 78.0 .

For each moment in the first 46 time ( prop_1 ) .


It is always the case that whenever signal_1_n is set to signal_2_n and this scenario keeps without interruption until eventually the value of signal_3_n will stay equal to 71.3 , which is observed at a certain time instant within 0 to 15 time units then the following condition is true : the value of signal_4_n should be larger than 98.8 and then ought to keep like this without interruption in the future until the execution ends .

globally
(
(
signal_1_n
math equal
signal_2_n
)
until
[0,15]
(
signal_3_n
math equal
71.3
)
imply
globally
(
signal_4_n
more
98.8
)
)

It is always the case that whenever ( prop_1 ) and this scenario keeps without interruption until eventually ( prop_2 ) then the following condition is true : ( prop_3 ) .


As soon as the value of signal signal_1_n settles to 62.6 then all of the following conditions hold : the value of signal signal_2_n has to be above 7.6 starting without any delay and instantly signal_3_n ought to be set to signal_4_n .

As soon as ( prop_1 ) then all of the following conditions hold : ( prop_2 ) and instantly ( prop_3 ) .


For each time point within the first 12 time units continuously signal_1_n has to keep higher than 85.7 , or without interruption the value of signal signal_2_n stays greater than or equal to 28.1 .

For each time point within the first 12 time units continuously ( prop_1 ) , or without interruption ( prop_2 ) .


In the future before the simulation ends the signal_1_n signal will be continuously keeping less than 35.9 , and the state of signal signal_2_n ought not to be signal_3_n .

globally
(
signal_1_n
less
35.9
and
negation
(
signal_2_n
math equal
signal_3_n
)
)

In the future before ( prop_1 ) , and ( prop_2 ) .


When the value of signal signal_1_n is larger than 27.5 , then after a certain moment during the first 16 time units the value of signal_2_n needs to be below 30.5 and then must keep like this uninterruptedly for every time point within the following 36 time units .

globally ( signal_1_n more 27.5 imply finally [0,16] ( globally [0,36] ( signal_2_n less 30.5 ) ) )

When ( prop_1 ) , then after a certain moment during the first 16 time units ( prop_2 ) .


In the future before the end of the execution consistently signal_1_n shall stay above 69.0 , and the signal_2_n signal is set to signal_3_n uninterruptedly .

In the future before the end of the execution consistently ( prop_1 ) , and ( prop_2 ) .


On condition that the event that the mode of signal signal_1_n enters signal_2_n occurs , then the following condition holds : there will ultimately exist a certain time instant after at most 50 time units , at which the state of signal_3_n has to be set to signal_4_n .

globally
(
rise
(
signal_1_n
math equal
signal_2_n
)
imply
finally
[0,50]
(
signal_3_n
math equal
signal_4_n
)
)

On condition that the event that ( prop_1 ) occurs , then the following condition holds : there will ultimately exist a certain time instant after at most 50 time units , at which ( prop_2 ) .


For each time point during the first 74 time units the value of signal signal_1_n ought to be less than 54.1 or signal_2_n ought to be set to signal_3_n without interruption .

For each time point during the first 74 time units ( prop_1 ) or ( prop_2 ) .


Whenever the transition action that the value of signal signal_1_n gets raised to greater than or equal to 20.6 happens then the following condition holds : the value of signal_2_n will have consistently stayed larger than 20.4 and less than 74.1 for the past 15 to 79 time units .

globally
(
rise
(
signal_1_n
more equal
20.6
)
imply
historically
[15,79]
(
signal_2_n
more
20.4
and
signal_2_n
less
74.1
)
)

Whenever the transition action that ( prop_1 ) happens then the following condition holds : ( prop_2 ) .

G ( prop_1 -> hist|ically [ 15 : 79 ] ( prop_2 & prop_2 ) )


Globally , when signal_1_n is below 99.7 and signal_2_n is smaller than 30.1 , then all of the following conditions hold : the mode of signal signal_3_n should be in signal_4_n right away .

Globally , when ( prop_1 ) and ( prop_2 ) , then all of the following conditions hold : ( prop_3 ) .


The value of signal_1_n will be remaining at least 48.1 consistently in the future before the end of the simulation .


It is always the case that in case that the value of signal signal_1_n is at least 14.1 and less than or equal to 78.8 , and the transition action that the signal_2_n signal gets raised to greater than or equal to 19.5 occurs then the following condition holds : the value of signal signal_3_n ought to be below 0.8 at the same time .

It is always the case that in case that ( prop_1 ) , and the transition action that ( prop_2 ) occurs then the following condition holds : ( prop_3 ) .

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


While the signal_1_n signal is signal_2_n , or the mode of signal signal_3_n is signal_4_n then in response the signal_5_n signal has to be less than or equal to 18.4 and then will have to keep like that without interruption for every time point during the coming 4 time units .

While ( prop_1 ) , or ( prop_2 ) then in response ( prop_3 ) .


Whenever the scenario that the value of signal_1_n begins deviating from 23.2 is detected , then all of the following conditions hold : the state of signal_2_n is in signal_3_n promptly .

globally
(
fall
(
signal_1_n
math equal
23.2
)
imply
signal_2_n
math equal
signal_3_n
)

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