In some sense yes, but the terminology is a bit confusing. Let me try to explain.
First of all, "torus" in this case doesn't refer the usual doughnut-like torus, but rather an algebraic torus, meaning an algebraic group of the form $(k^\times)^n$ for some field $k$. (When $k=\mathbf C$ this group is homotopy equivalent to the usual torus $(S^1)^n$, hence the name.)
Now, as you presumably know, there is a branch of algebraic geometry called toric geometry. This studies algebraic varieties obtained as equivariant partial compactifications of the algebraic torus $(k^\times)^n$.
It turns out that these varieties can be obtained by gluing affine varieties of a very special kind, namely ones whose ideal is generated by binomials. Here a binomial is an element in $k[x_1,\ldots,x_n]$ of the form $\prod_i x_i^{u_i}-\prod_jx_j^{v_j}$ for some exponent vectors $(u_1,\ldots,u_n)$ and $(v_1,\ldots,v_n)$.
For this reason, an ideal in $k[x_1,\ldots,x_n]$ generated by binomials is called a toric ideal.