moscot.utils.tagged_array.DistributionContainer.from_adata¶
- classmethod DistributionContainer.from_adata(adata, a, b, xy_attr=None, xy_key=None, xy_cost='sq_euclidean', xx_attr=None, xx_key=None, xx_cost='sq_euclidean', conditions_attr=None, conditions_key=None, backend='ott', **kwargs)[source]¶
Create distribution container from
AnnData.Warning
Sparse arrays will be always densified.
- Parameters:
adata (
AnnData) – Annotated data object.a (
Union[ndarray[tuple[int,...],dtype[floating]],Array]) – Marginals when used as source distribution.b (
Union[ndarray[tuple[int,...],dtype[floating]],Array]) – Marginals when used as target distribution.xy_attr (
Optional[Literal['X','obsp','obsm','layers','uns']]) – Attribute of adata containing the data for the shared space.xy_key (
Optional[str]) – Key of xy_attr containing the data for the shared space.xy_cost (
Union[str,Literal['barcode_distance','leaf_distance','custom'],Literal['euclidean','sq_euclidean','cosine','pnorm_p','sq_pnorm','geodesic']]) – Cost function when in the shared space.xx_attr (
Optional[Literal['X','obsp','obsm','layers','uns']]) – Attribute of adata containing the data for the incomparable space.xx_key (
Optional[str]) – Key of xx_attr containing the data for the incomparable space.xx_cost (
Union[str,Literal['barcode_distance','leaf_distance','custom'],Literal['euclidean','sq_euclidean','cosine','pnorm_p','sq_pnorm','geodesic']]) – Cost function in the incomparable space.conditions_attr (
Optional[Literal['obs','var','obsm','varm','layers','uns']]) – Attribute of adata containing the conditions.conditions_key (
Optional[str]) – Key of conditions_attr containing the conditions.backend (
Literal['ott']) – Backend to use.kwargs (
Any) – Keyword arguments to pass to the cost functions.
- Return type:
- Returns:
: The distribution container.