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1604 LearnersLast updated on November 24, 2025

A converse statement is the reverse of a conditional statement, where the hypothesis and conclusion are swapped. Converse statements can be used in reasoning and problem-solving. In this topic, we will explore converse statements in detail.
A converse statement is a new conditional statement which is formed by reversing the hypothesis and conclusion of the original “if–then” statement, meaning the order is flipped from P → Q to Q → P.
For example,
Original statement: “If a number is even, then it is divisible by 2.”
Converse statement: “If a number is divisible by 2, then it is even.”
Using symbols:
If a statement is P → Q, then its converse is Q → P.
Follow these steps to write a converse statement:
Step 1: Identify hypothesis and conclusion
Step 2: Swap them
Step 3: Write in conditional form
A few examples of true converse statements are:
Original statement: “If it is morning, then the sun has risen”
Converse statement: “If the sun has risen, then it is morning”
Original: “If a triangle is equilateral, then all three sides are of the same length.”
Converse: “If all three sides are of the same length, then the triangle is equilateral.”
This converse is also true by definition of an equilateral triangle.
Some false converse statements are:
Original statement: “If it’s a cat, then it must be a mammal.”
Converse statement: “If it is a mammal, then it must be a cat.” (This statement is false because other animals like dogs and elephants are also mammals).
Original statement: “If it is a rectangle, then it should have four sides.”
Converse statement: “If a shape has four sides, then it is a rectangle.” (this statement is false because a square also has four sides).
Inverse statements are the inverse of a conditional statement. It is formed by negating both the hypothesis and the conclusion of the original statements.
A contrapositive statement is formed by swapping the conclusion and hypothesis of a conditional statement and then negating both.
|
Conditional Statement |
Converse |
Inverse |
Contrapositive |
|
If p, then q |
If q, then p |
If not p, then not q |
If not q, then not p |
|
p → q |
q → p |
¬p → ¬q |
¬q → ¬p |
|
If it is raining, then the ground is wet. |
If the ground is wet, then it is raining. |
If it is not raining, then the ground is not wet. |
If the ground is not wet, then it is not raining. |


To understand converse, inverse, and contrapositive statements, we start with the original conditional statement:
Original Statement:
If p, then q → p → q
Here, p is the hypothesis and q is the conclusion.
From this, we form:
Converse: q → p
Inverse: ¬p → ¬q
Contrapositive: ¬q → ¬p
Below are the truth tables in a simple and combined format:
| P | Q | If P then Q | Converse (If Q then P) | Inverse (If not P then not Q) | Contrapositive( If not Q then not P) |
| True | True | True | True | True | True |
| True | False | False | True | True | False |
| False | True | True | False | False | True |
| False | False | True | True | True | True |
Converse statements can be a difficult topic to get a grasp on and this section we will discuss some tips and tricks that can help us master this topic.
Help students to understand that the truth of a conditional does not guarantee the truth of its converse. Use examples where the converse is false to develop reasoning.
Explain that a converse is made by simply switching P and Q in a statement.
Use everyday situations to show how a converse works. For instance, if it rains, the ground gets wet. In Converse: If the ground is moist, it must have rained. (Not always true). This helps children understand that converse statements are not always accurate, even if the original is.
Remind students that writing a converse is like rewriting the sentence with the order changed.
This helps students who are strong in language but weak in logic.
Students can make mistakes when changing a conditional statement to a converse statement. Here are a few mistakes that students make and ways to avoid them:
Converse statements are used for logical reasoning. Here are a few real-world applications of where we use converse statements:
If a number is even, then it is divisible by 2.
If a number is divisible by 2, then it is even.
Both are true — this is a biconditional statement.
If two lines are perpendicular, then they form a right angle.
If two lines form a right angle, then they are perpendicular.
Both statements are true — converse also holds.
If a triangle is equilateral, then all its angles are 60°.
If all angles of a triangle are 60°, then it is equilateral.
Both statements are true — converse is valid.
If a number is divisible by 10, then it ends with 0.
If a number ends with 0, then it is divisible by 10.
Both are true — a true converse example.
If a figure is a square, then it is a rectangle.
If a figure is a rectangle, then it is a square.
Converse is false — not all rectangles are squares.
Jaipreet Kour Wazir is a data wizard with over 5 years of expertise in simplifying complex data concepts. From crunching numbers to crafting insightful visualizations, she turns raw data into compelling stories. Her journey from analytics to education ref
: She compares datasets to puzzle games—the more you play with them, the clearer the picture becomes!






