Struct binaryninja::types::TypeBuilder

pub struct TypeBuilder { /* private fields */ }

Implementations

impl TypeBuilder

pub fn new(t: &Type) -> Self

pub fn finalize(&self) -> Ref<Type>

pub fn set_can_return<T: Into<Conf<bool>>>(&self, value: T) -> &Self

pub fn set_pure<T: Into<Conf<bool>>>(&self, value: T) -> &Self

pub fn set_const<T: Into<Conf<bool>>>(&self, value: T) -> &Self

pub fn set_volatile<T: Into<Conf<bool>>>(&self, value: T) -> &Self

pub fn type_class(&self) -> TypeClass

pub fn width(&self) -> u64

pub fn alignment(&self) -> usize

pub fn is_signed(&self) -> Conf<bool>

pub fn is_const(&self) -> Conf<bool>

pub fn is_volatile(&self) -> Conf<bool>

pub fn is_floating_point(&self) -> bool

pub fn target(&self) -> Result<Conf<Ref<Type>>>

pub fn element_type(&self) -> Result<Conf<Ref<Type>>>

pub fn return_value(&self) -> Result<Conf<Ref<Type>>>

pub fn calling_convention( &self ) -> Result<Conf<Ref<CallingConvention<CoreArchitecture>>>>

pub fn parameters(&self) -> Result<Vec<FunctionParameter>>

pub fn has_variable_arguments(&self) -> Conf<bool>

pub fn can_return(&self) -> Conf<bool>

pub fn pure(&self) -> Conf<bool>

pub fn get_structure(&self) -> Result<Ref<Structure>>

pub fn get_enumeration(&self) -> Result<Ref<Enumeration>>

pub fn get_named_type_reference(&self) -> Result<Ref<NamedTypeReference>>

pub fn count(&self) -> u64

pub fn offset(&self) -> u64

pub fn stack_adjustment(&self) -> Conf<i64>

pub fn void() -> Self

pub fn bool() -> Self

pub fn char() -> Self

pub fn int(width: usize, is_signed: bool) -> Self

pub fn named_int<S: BnStrCompatible>( width: usize, is_signed: bool, alt_name: S ) -> Self

pub fn float(width: usize) -> Self

pub fn named_float<S: BnStrCompatible>(width: usize, alt_name: S) -> Self

pub fn array<'a, T: Into<Conf<&'a Type>>>(t: T, count: u64) -> Self

pub fn enumeration<T: Into<Conf<bool>>>( enumeration: &Enumeration, width: usize, is_signed: T ) -> Self

The C/C++ APIs require an associated architecture, but in the core we only query the default_int_size if the given width is 0 For simplicity’s sake, that convention isn’t followed and you can query the default_int_size from an arch, if you have it, if you need to

pub fn structure(structure_type: &Structure) -> Self

pub fn named_type(type_reference: NamedTypeReference) -> Self

pub fn named_type_from_type<S: BnStrCompatible>(name: S, t: &Type) -> Self

pub fn pointer<'a, A: Architecture, T: Into<Conf<&'a Type>>>( arch: &A, t: T ) -> Self

pub fn const_pointer<'a, A: Architecture, T: Into<Conf<&'a Type>>>( arch: &A, t: T ) -> Self

pub fn pointer_of_width<'a, T: Into<Conf<&'a Type>>>( t: T, size: usize, is_const: bool, is_volatile: bool, ref_type: Option<ReferenceType> ) -> Self

pub fn pointer_with_options<'a, A: Architecture, T: Into<Conf<&'a Type>>>( arch: &A, t: T, is_const: bool, is_volatile: bool, ref_type: Option<ReferenceType> ) -> Self

Trait Implementations

impl Display for TypeBuilder

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

Formats the value using the given formatter.

impl Drop for TypeBuilder

fn drop(&mut self)

Executes the destructor for this type.

impl Hash for TypeBuilder

fn hash<__H: Hasher>(&self, state: &mut __H)

Feeds this value into the given Hasher.

fn hash_slice<H>(data: &[Self], state: &mut H)

where H: Hasher, Self: Sized,

Feeds a slice of this type into the given Hasher.

impl PartialEq for TypeBuilder

fn eq(&self, other: &TypeBuilder) -> bool

This method tests for self and other values to be equal, and is used by ==.

fn ne(&self, other: &Rhs) -> bool

This method tests for !=. The default implementation is almost always sufficient, and should not be overridden without very good reason.

impl Eq for TypeBuilder

impl StructuralPartialEq for TypeBuilder