The image depicts a state machine with three states labeled 'state1' and 'state2'. Three events, e1, e2, and e3, are shown triggering transitions.
Analyzing the diagram, we can observe that all three events (e1, e2, and e3) are required for the transition from state1 to state2. The events are arranged sequentially, implying a specific order for the transition to occur.
Here's a breakdown of the reasoning for excluding other options:
Option A (When all of el. e2. and e3 occur in any order) is incorrect because the order of events matters.
Option B (When any one of the events e1. e2. or e3 occurs) is incorrect because all three events are necessary for the transition.
Option D (Never, because a transition cannot have more than one trigger) is incorrect because the state machine can transition with multiple triggers, but in this specific case, the order is crucial.
Therefore, based on the visual representation of the state machine, the correct answer is that the transition to state2 happens only when events e1, e2, and e3 occur in precisely the specified order
The Sensor Controller state machine shown below is at rest in the Ready state. The acquireData event occurs.
What Is the complete sequence of behaviors that executes before the state machine comes to rest in the Acquiring Data state?
Answer : D
The provided image depicts a block diagram of a sensor controller represented as a state machine. The state machine transitions between the following states:
Initializing
Calibrating
Ready
Acquiring Data
The question specifies the state machine starts in the Ready state and the acquireData event triggers the transition.
Analyzing the image, we can identify the following behaviors for the scenario:
logStatus: This behavior is depicted in the diagram as the first action upon exiting the Ready state. It most likely logs the current state of the sensor controller.
deploy: The transition from Ready to Acquiring Data triggers thedeploybehavior. This likely involves preparing the sensor for data acquisition.
scanTarget: Upon entering the Acquiring Data state, thescanTargetbehavior is initiated. This suggests the sensor controller is actively collecting data from the target.
Therefore, the complete sequence of behaviors is logStatus, followed by deploy, and lastly scanTarget, before reaching the Acquiring Data state.
Justification for excluding other options:
Option A (deploy only) excludes the initial state logging and target scanning actions.
Option B (logStatus.deploy) excludes the target scanning upon entering the Acquiring Data state.
Option C (deploy, scanTarget) omits the initial state logging.
Option E (logStatus.deploy.scanTarget.logStatus) includes an extralogStatusaction after target scanning, which is not supported by the diagram.
In conclusion, based on the state machine diagram and the behavior descriptions, option D (logStatus.deploy.scanTarget) accurately reflects the sequence of actions that occur before the sensor controller arrives at the Acquiring Data state.
The state machine in the diagram below is in the Start state when an event of type Ev occurs. At that time, the value of local variable VAR is equal to zero.
Which stale will the state machine be in after the run-to-completion step triggered by this event completes?
Answer : C
UML 2 state machine concepts, here's the analysis of the state machine's behavior after the event and the most likely answer:
State Transition Triggered by Event Ev:
The state machine starts in the 'Start' state. When the event 'Ev' occurs, there's a transition leaving 'Start' with a condition '[VAR is equal to 0]'.
Value of Local Variable VAR:
The prompt specifies that the value of local variable VAR is equal to zero at the time of the event.
State Transition Evaluation:
Since the condition '[VAR is equal to 0]' is true (given VAR's value is zero), the transition from 'Start' to state 'State1' is triggered.
Completion of Run-to-Completion Step:
Upon reaching 'State1', there are no further outgoing transitions or events to consider. 'State1' itself has no exit actions specified. Therefore, the run-to-completion step reaches its end at 'State1'.
Most Likely Answer:
Based on the analysis above, the most likely answer is:
C . End3
Explanation for Other Options:
A . End1:There's no direct path from 'Start' to 'End1'.
B . End2:Similar to option A, there's no transition leading to 'End2' when the event occurs and VAR is zero.
D . Start:The state machine transitions out of 'Start' upon the event 'Ev'. It won't return to 'Start' without another transition.
Possible Ambiguity:
It's important to note that state machines can involve complex logic and actions within states. While 'State1' appears to be a terminal state in this case, it's conceivable that there could be hidden actions within 'State1' that modify VAR or trigger further transitions. The prompt and the provided image don't provide enough information to definitively rule out such possibilities.
Considering the Absence of Mentioned Ambiguity:
Assuming there are no such hidden actions or unspecified behaviors within 'State1', then answer C (End3) is the most reasonable conclusion based on the information available in the prompt and image.
Which one of the following is a Behavioral Feature?
Answer : C
In UML, a behavioral feature is a feature of a classifier that specifies an aspect of the behavior of its instances. A behavioral feature is implemented (realized) by a method. Operations are a kind of behavioral feature; they are the specifications of transformations or queries that can be requested from an object of the classifier.
Here's why the other options are not correct:
A) 'Method' is not a behavioral feature; it is a realization of one. B) 'Function' is more of a programming concept than a UML term and would likely be modeled as an operation if it's part of a classifier. D) 'Constraint' is not a behavioral feature but a restriction on some aspect of a classifier or a stereotype. E) 'Method Invocation' is not a feature; it's an action that invokes a method. F) 'Classifier behavior' is a broader concept that defines the behavior characteristic of classifiers as a whole, not a behavioral feature in itself.
Therefore, the correct answer is:
C . Operation
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