Add a RegBank class for describing CPU register banks.
Define register banks for all the ISA stubs. The ARM32 floating point
bank in particular requires attention.
Add a RegBank class for describing CPU register banks.
Define register banks for all the ISA stubs. The ARM32 floating point
bank in particular requires attention.
The Intel ISA handles both 32-bit and 64-bit code.
ARM is split into separate arm32 and arm64 ISAs since the architectures
have little in common in instruction encodings and register files.
The Intel ISA handles both 32-bit and 64-bit code.
ARM is split into separate arm32 and arm64 ISAs since the architectures
have little in common in instruction encodings and register files.
Use the inferred type variables to construct a type argument for builder
methods. This is for those instructions where the result types cannot be
computed from the result types.
Use the inferred type variables to construct a type argument for builder
methods. This is for those instructions where the result types cannot be
computed from the result types.
Each instruction used in a pattern has constraints on the types of its
operands. These constraints are expressed as symbolic type variables.
Compute type variables for each variable used in a transformation
pattern. Some are free type variables, and some are derived from the
free type variables.
The type variables associated with variables can be used for computing
the result types of replacement instructions that don't support simple
forward type inference from their inputs.
The type sets computed by this patch are conservatively too large, so
they can't yet be used to type check patterns.
Each instruction used in a pattern has constraints on the types of its
operands. These constraints are expressed as symbolic type variables.
Compute type variables for each variable used in a transformation
pattern. Some are free type variables, and some are derived from the
free type variables.
The type variables associated with variables can be used for computing
the result types of replacement instructions that don't support simple
forward type inference from their inputs.
The type sets computed by this patch are conservatively too large, so
they can't yet be used to type check patterns.
Add TypeVar constants representing the available type functions, and a
TypeVar.derived() static method which creates a derived TypeVar.
Keep the existing non-parametric methods for creating derived type
variables.
Add a method for converting a free type variable to a derived one.
Add TypeVar constants representing the available type functions, and a
TypeVar.derived() static method which creates a derived TypeVar.
Keep the existing non-parametric methods for creating derived type
variables.
Add a method for converting a free type variable to a derived one.
A few operands have a fixed type assigned. Create a singleton type
variable for these exceptions. Most instructions are polymorphic, so
this is a little overhead.
Eliminate the Operand.typ field and replace it with an Operand.typevar
field which is always a TypeVar, but which only exists in VALUE
operands.
A few operands have a fixed type assigned. Create a singleton type
variable for these exceptions. Most instructions are polymorphic, so
this is a little overhead.
Eliminate the Operand.typ field and replace it with an Operand.typevar
field which is always a TypeVar, but which only exists in VALUE
operands.
This method caused lots of import cycles when type checking.
Use isinstance() in the Operand constructor instead to decipher the
OperandSpec union type.
This method caused lots of import cycles when type checking.
Use isinstance() in the Operand constructor instead to decipher the
OperandSpec union type.
