package bap-std

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The Binary Analysis Platform Standard Library

Install

Dune Dependency

github.com Edit opam file Versions (5)

Authors

B

BAP Team

Maintainers

I

Ivan Gotovchits <ivg@ieee.org>

Sources

v2.4.0.tar.gz

sha256=63ada71fa4f602bd679174dc6bf780d54aeded40ad4ec20d256df15886e3d2d5

md5=b8b1aff8c6846f2213eafc54de07b304

doc/bap/Bap/Std/Graphs/Cfg/index.html

Module `Graphs.Cfg`

Control Flow Graph with a machine basic block as a node.

A graph is a set of relations between objects, defined as a pair of two sets

G = (V,E).

where $V$ is a set of vertices and E is a set of vertices, which is a subset of V x V, therefore a more precise definition is a 6-tuple, consisting of a set of nodes, edges, node labels, edge labels, and two functions that maps nodes and edges to their corresponding labels:

G = (N, E, N', E', ν : N -> N', ε : E -> E'),

where set E is a subset of N × N .

With this general framework an unlabeled graph can be represented as:

G = (N, E, N, E, ν = λx.x, ε = λx.x)

Another possible representation of an unlabeled graph would be:

G = (N, E, {u}, {v}, ν = λx.u, ε = λx.v).

Implementations are free to choose any suitable representation of graph data structure, if it conforms to the graph signature and all operations follows the described semantics and properties of a graph structure are preserved.

The axiomatic semantics of operations on a graph is described by a set of postconditions. To describe the semantics of an operation in terms of input and output arguments, we project graphs to its fields with the following notation <field>(<graph>), e.g., N(g) is a set of nodes of graph g.

type t = cfg

type of graph

type node = block

type of nodes

type edge

type of edges

module Node : 
  Graphlib.Std.Node with type graph = t and type t = node and type edge = edge

Graph nodes.

module Edge : 
  Graphlib.Std.Edge
    with type graph = t
     and type t = edge
     and type node = node
    with type label = edge

Graph edges

val empty : t

empty is an empty graph

val nodes : t -> node Regular.Std.seq

nodes g returns all nodes of graph g in an unspecified order

val edges : t -> edge Regular.Std.seq

edges g returns all edges of graph g in an unspecified order

val is_directed : bool

is_directed is true if graph is a directed graph.

val number_of_edges : t -> int

number_of_edges g returns the size of a graph g.

val number_of_nodes : t -> int

number_of_nodes g returns the order of a graph g

All graphs provides a common interface for any opaque data structure

include Regular.Std.Opaque.S with type t := t

include Core_kernel.Comparable.S with type t := t

include Base.Comparable.S with type t := t

val (>=) : t -> t -> bool

val (<=) : t -> t -> bool

val (=) : t -> t -> bool

val (>) : t -> t -> bool

val (<) : t -> t -> bool

val (<>) : t -> t -> bool

val equal : t -> t -> bool

val min : t -> t -> t

val max : t -> t -> t

val ascending : t -> t -> int

ascending is identical to compare. descending x y = ascending y x. These are intended to be mnemonic when used like List.sort ~compare:ascending and List.sort ~cmp:descending, since they cause the list to be sorted in ascending or descending order, respectively.

val descending : t -> t -> int

val between : t -> low:t -> high:t -> bool

between t ~low ~high means low <= t <= high

val clamp_exn : t -> min:t -> max:t -> t

clamp_exn t ~min ~max returns t', the closest value to t such that between t' ~low:min ~high:max is true.

Raises if not (min <= max).

val clamp : t -> min:t -> max:t -> t Base__.Or_error.t

type comparator_witness

val comparator : (t, comparator_witness) Base__.Comparator.comparator

val validate_lbound : min:t Base__.Maybe_bound.t -> t Base__.Validate.check

val validate_ubound : max:t Base__.Maybe_bound.t -> t Base__.Validate.check

val validate_bound : 
  min:t Base__.Maybe_bound.t ->
  max:t Base__.Maybe_bound.t ->
  t Base__.Validate.check

module Replace_polymorphic_compare : 
  Base.Comparable.Polymorphic_compare with type t := t

module Map : 
  Core_kernel.Map.S
    with type Key.t = t
    with type Key.comparator_witness = comparator_witness

module Set : 
  Core_kernel.Set.S
    with type Elt.t = t
    with type Elt.comparator_witness = comparator_witness

include Core_kernel.Hashable.S with type t := t

include Core_kernel.Hashable.Common with type t := t

val compare : t -> t -> Base.Int.t

val hash_fold_t : 
  Ppx_hash_lib.Std.Hash.state ->
  t ->
  Ppx_hash_lib.Std.Hash.state

val hash : t -> Ppx_hash_lib.Std.Hash.hash_value

val hashable : t Core_kernel.Hashtbl.Hashable.t

module Table : Core_kernel.Hashtbl.S with type key = t

module Hash_set : Core_kernel.Hash_set.S with type elt = t

module Hash_queue : Core_kernel.Hash_queue.S with type key = t

All graphs are printable.

include Regular.Std.Printable.S with type t := t

val to_string : t -> string

to_string x returns a human-readable representation of x

val str : unit -> t -> string

str () t is formatted output function that matches "%a" conversion format specifier in functions, that prints to string, e.g., sprintf, failwithf, errorf and, surprisingly all Lwt printing function, including Lwt_io.printf and logging (or any other function with type ('a,unit,string,...) formatN`. Example:

Or_error.errorf "type %a is not valid for %a"
    Type.str ty Exp.str exp

val pps : unit -> t -> string

synonym for str

val ppo : Core_kernel.Out_channel.t -> t -> unit

will print to a standard output_channel, useful for using in printf, fprintf, etc.

val pp_seq : Format.formatter -> t Core_kernel.Sequence.t -> unit

prints a sequence of values of type t

this will include pp function from Core that has type t printer, and can be used in Format.printf family of functions

include Core_kernel.Pretty_printer.S with type t := t

val pp : Base__.Formatter.t -> t -> unit