Struct ImportedArrowArray

struct ImportedArrowArray<'a> {
    array: &'a FFI_ArrowArray,
    data_type: DataType,
    owner: &'a Arc<FFI_ArrowArray>,
}

Fields

array: &'a FFI_ArrowArray

data_type: DataType

owner: &'a Arc<FFI_ArrowArray>

Implementations

impl ImportedArrowArray<'_>

fn consume(self) -> Result<ArrayData, ArrowError>

fn consume_children(&self) -> Result<Vec<ArrayData>, ArrowError>

fn consume_child( &self, index: usize, child_type: &DataType, ) -> Result<ArrayData, ArrowError>

fn buffers( &self, can_contain_null_mask: bool, variadic: bool, ) -> Result<Vec<Buffer>, ArrowError>

returns all buffers, as organized by Rust (i.e. null buffer is skipped if it’s present in the spec of the type)

fn buffer_len( &self, i: usize, variadic_buffer_lengths: &[i64], dt: &DataType, ) -> Result<usize, ArrowError>

Returns the length, in bytes, of the buffer i (indexed according to the C data interface) Rust implementation uses fixed-sized buffers, which require knowledge of their len. for variable-sized buffers, such as the second buffer of a stringArray, we need to fetch offset buffer’s len to build the second buffer.

fn null_bit_buffer(&self) -> Option<Buffer>

returns the null bit buffer. Rust implementation uses a buffer that is not part of the array of buffers. The C Data interface’s null buffer is part of the array of buffers.

fn dictionary(&self) -> Result<Option<ImportedArrowArray<'_>>, ArrowError>

Trait Implementations

impl<'a> Debug for ImportedArrowArray<'a>

fn fmt(&self, f: &mut Formatter<'_>) -> Result

Formats the value using the given formatter.