In homotopy theory one has the idea of a homotopy-commutative multiplication, in which one replaces the relation $$ab=ba$$ in a commutative monoid/group/ring/etc. for an unspecified homotopy. One then notices that with such a notion there is no way to relate the multiple homotopies involving $2$-fold multiplications, with terms such as $abc$ and $cba$. This provides the motivation for passing to the setting of homotopy-coherent structures, where one considers these homotopies as part of the data.
Formalising this story, one obtains the notion of an $\mathbb{E}_{k}$-operad, forming an infinite sequence of operads $\mathbb{E}_1$, $\mathbb{E}_2$, $\ldots$, $\mathbb{E}_{\infty}$. The algebras over these, called $\mathbb{E}_{k}$-algebras, then provide a notion of a multiplicative structure which is "$k$-times commutative". For example, the $\mathbb{E}_{k}$-algebras in sets are monoids for $k=1$, and then commutative monoids for $k=2$, at which step the process stabilises, and we get commutative monoids again for any $k\geq2$. Similarly, $\mathbb{E}_1$-, $\mathbb{E}_2$-, and $\mathbb{E}_{\geq 3}$-algebras in categories are given by monoidal categories, braided monoidal categories, and symmetric monoidal categories, after which we have stabilisation again.
However, some of the algebraic structures one finds in practice are often noncommutative, but still satisfy some special conditions that are close to ordinary commutativity. One of these structures is given by $\mathbb{Z}$-graded-commutative algebras, in which one instead considers the relation $$ab=(-1)^{\deg(a)\deg(b)}ba,$$ often called the Koszul sign rule. A primordial example of such an algebraic structure is given by the exterior algebra $\bigwedge^\bullet_R(M)$ of an $R$-module $M$.
Question. Are there analogues of $\mathbb{E}_{k}$-operads that are to these as the relation $ab=(-1)^{\deg(a)\deg(b)}ba$ is to $ab=ba$?