View Source Nx.Defn.Composite (Nx v0.6.1)
Functions to deal with composite data types.
Composite data-types are traversed according to Nx.Container.
If a regular tensor is given, it is individually traversed.
Numerical values, such as integers, floats, and complex numbers
are not normalized before hand. Use Nx.to_tensor/1 to do so.
The functions in this module can be used both inside and outside defn.
Note that, when a value is given to defn, it is first converted to
tensors and containers via Nx.LazyContainer. Inside defn, there are
no lazy containers, only containers.
Summary
Functions
Traverses two composite types to see if they are compatible.
Counts the number of non-composite types in the composite type.
Flattens recursively the given list of composite types.
Reduces recursively the given composite types with acc and fun.
Traverses recursively the given composite types with fun.
Traverses recursively the given composite types with acc and fun.
Functions
Traverses two composite types to see if they are compatible.
Non-tensor values are first compared using Nx.LazyContainer
and then, if not available, as Nx.Container.
For non-composite types, the given fun will be called to
compare numbers/tensors pairwise.
Counts the number of non-composite types in the composite type.
Examples
iex> Nx.Defn.Composite.count(123)
1
iex> Nx.Defn.Composite.count({1, {2, 3}})
3
iex> Nx.Defn.Composite.count({Complex.new(1), {Nx.tensor(2), 3}})
3Flattens recursively the given list of composite types.
Elements that are not tensors (i.e. numbers and Complex numbers) are kept as is
unless a custom function is given.
Examples
iex> Nx.Defn.Composite.flatten_list([1, {2, 3}])
[1, 2, 3]
iex> Nx.Defn.Composite.flatten_list([1, {2, 3}], [Nx.tensor(4)])
[1, 2, 3, Nx.tensor(4)]Reduces recursively the given composite types with acc and fun.
If composite tensor expressions are given, such as a tuple, the composite type is recursively traversed and returned.
If a non-composite tensor expression is given, the function is invoked for it but not for its arguments.
Traverses recursively the given composite types with fun.
If a composite tensor is given, such as a tuple, the composite type is recursively traversed and returned.
Otherwise the function is invoked with the tensor (be it a number, complex, or actual tensor).
Traverses recursively the given composite types with acc and fun.
If a composite tensor is given, such as a tuple, the composite type is recursively traversed and returned.
Otherwise the function is invoked with the tensor (be it a number, complex, or actual tensor).