Semi-ring with isomorphic additive and multiplicative structure

Question

Does there exist a semi-ring $(R,+,\cdot)$ (like a ring, but there must be no additive inverses and the $0$ is multiplicatively absorbing by axiom) with isomorphic additive and multiplicative structures? This means there should be a monoid-isomorphism

$$\varphi:(R,+)\longleftrightarrow(R,\cdot).$$

First thing I noticed is that there must be an absorbing element for the addition, lets call it $\omega=\varphi^{-1}(0)$. There follow many more such "strange" elements, e.g. $\varphi^{-1}(\omega)$, etc. Because addition and multiplication are so similar, the multiplication is automatically commutative and has an identity element $1$. But this is essentially as far as I came.

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If the answer to above question is "Yes", then it would be very interesting to see if also $\Bbb N$ can be extended to such a semi-ring.

Note that any natural number $n$ can be represented as a sum of two natural numbers in exactly $\lceil (n+1)/2\rceil$ ways. So for any $n\in\Bbb N$ there are at most two natural numbers that can be represented in exactly $n$ different ways as sum of two other natural numbers. But there are infinitely many numbers that can be written as product of two natural numbers in exactly $n$ ways. This means that this extension of $\Bbb N$ must contain many additional elements.

Answer 1

Here's an example: $\left(\left[0,1\right],\max,\min\right)$, i.e. the max-min semiring.

Answer 2

By "must be no", do you mean actually prohibited or just not required? If prohibited then there is a problem with 0.

I was just working on some simple examples but Guy beat me to one of them.

The trivial semi-ring with one element would appear to qualify.

As well as Guy's two element example, both operations can be min. In this case 0 is both the additive and the multiplicative identity.