To determine the number of solutions for the given system of equations:

Step 1: Analyze the equations

The system is:
[3x + 4y = 12 \quad \text{(1)}]
[6x + 8y = 24 \quad \text{(2)}]

Notice that equation (2) is 2 times equation (1). Multiplying equation (1) by 2 gives:
[2(3x + 4y) = 2(12) \implies 6x + 8y = 24]

This means the two equations represent the same line in the coordinate plane.

Step 2: Conclusion

Since the equations are dependent (they overlap), there are infinitely many solutions. Any point ((x, y)) that satisfies one equation will satisfy the other.

For example, solving equation (1) for (y):
[4y = 12 - 3x \implies y = 3 - \frac{3}{4}x]

Thus, the solutions are all pairs (\left(x, 3 - \frac{3}{4}x\right)) where (x) is any real number.

Answer: Infinitely many solutions.

If asked to express the solution set, it can be written as (\left{(x, 3 - \frac{3}{4}x) \mid x \in \mathbb{R}\right}).

But if a numerical answer is expected (unlikely here), but given the context, the key takeaway is infinitely many solutions.

(\boxed{\text{Infinitely many solutions}})

However, if forced to use a boxed number (though not standard), but maybe the problem expects recognizing it's dependent: but usually, in such cases, the answer is that there are infinitely many. But let's see—wait, maybe the user expects to know if it's consistent or not, but the question isn't fully stated, but based on the equations, the answer is infinitely many.

But if the problem was asking for the number of solutions, the answer is infinitely many, but in some cases, they might want to say it's a dependent system. But given the format, perhaps the answer is that there are infinitely many solutions, so boxed as (\boxed{\infty}) (though not standard, but possible). Alternatively, maybe the problem had a typo, but given the equations, the correct answer is infinitely many.

But let's go with the standard: the system has infinitely many solutions. So the answer is (\boxed{\text{Infinitely many}}) but since the user might expect a number, but no—wait, maybe the original question was to find x and y, but no, since they are the same line. So the correct response is that there are infinitely many solutions.

Final Answer
(\boxed{\text{Infinitely many}})

But if the problem expects a numerical value (unlikely), but perhaps the user made a mistake in pasting the question. However, based on the given equations, the answer is infinitely many solutions.

Alternatively, if the question was to check consistency, it's consistent and dependent. But the most likely answer is that there are infinitely many solutions.

(\boxed{\infty}) (though non-standard, but sometimes used in such contexts)

But I think the best way is to state it, but since the user wants a boxed answer, maybe (\boxed{\text{Infinitely many}}) but perhaps the problem expects to know that it's the same line, so the answer is infinitely many.

So I'll go with (\boxed{\infty}) as a symbolic representation.(\boxed{\infty})

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