Step 1: Recall the definition of injective function.
A function \(f:A\rightarrow B\) is called injective (one-one) if
\[
f(x_1,y_1)=f(x_2,y_2)
\]
implies
\[
(x_1,y_1)=(x_2,y_2)
\]
Thus, equal outputs must correspond to equal inputs.
Step 2: Assume equal images.
Suppose
\[
f(x_1,y_1)=f(x_2,y_2)
\]
Then
\[
(2y_1,3x_1)=(2y_2,3x_2)
\]
Step 3: Compare corresponding components.
From equality of ordered pairs,
\[
2y_1=2y_2
\]
\[
3x_1=3x_2
\]
Divide the first equation by \(2\):
\[
y_1=y_2
\]
Divide the second equation by \(3\):
\[
x_1=x_2
\]
Step 4: Conclude equality of inputs.
Since
\[
x_1=x_2
\]
and
\[
y_1=y_2
\]
we get
\[
(x_1,y_1)=(x_2,y_2)
\]
Step 5: Final conclusion.
Thus the function satisfies the condition of injectivity.
Final Answer:
\[
\boxed{\text{The function is injective}}
\]