package goblint
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sha256=2f4f2e25b765452f0e336941f35f6cb396d7c213a2d347abe5d35febc5159b1f
sha512=e96af4cad91f6985c8db93c194925853e96cad0ec1a0d9f4d32bbe16d3e5fa1e305f54be02839f21ba89ad2af0c2d5d7aa819ade221ce097dc4dbd0fcd8c8500
doc/goblint.lib/Goblint_lib/Prelude/Ana/index.html
Module Prelude.AnaSource
include module type of struct include All end
include module type of Batteries with module Format := Batteries.Format
include module type of Pervasives
with type ('a, 'b) result := ('a, 'b) Pervasives.result
and type 'a ref = 'a Pervasives.ref
and type fpclass = Pervasives.fpclass
and type in_channel = Pervasives.in_channel
and type out_channel = Pervasives.out_channel
and type open_flag = Pervasives.open_flag
and type ('a, 'b, 'c, 'd, 'e, 'f) format6 =
('a, 'b, 'c, 'd, 'e, 'f) Pervasives.format6
and type ('a, 'b, 'c, 'd) format4 = ('a, 'b, 'c, 'd) Pervasives.format4
and type ('a, 'b, 'c) format = ('a, 'b, 'c) Pervasives.format
include module type of struct include BatPervasives end
The initially opened module.
This module provides the basic operations over the built-in types (numbers, booleans, strings, exceptions, references, lists, arrays, input-output channels, ...)
This module is automatically opened at the beginning of each compilation. All components of this module can therefore be referred by their short name, without prefixing them by BatPervasives.
Returns an enumeration over lines of an input channel, as read by the input_line function.
Returns an enumeration over characters of an input channel.
Returns the list of lines read from an input channel.
Return the whole contents of an input channel as a single string.
Attempt to convert a value to a string.
Works well for a lot of cases such as non-empty lists, algebraic datatype, and records.
However, since types are lost at compile-time, the representation might not match your type. (0, 1) will be printed as expected, but (1, 0) and 1 have the same representation and will get printed in the same way. The result of dump is unspecified and may change in future versions, so you should only use it for debugging and never have program behavior depend on the output.
Here is a list of some of the surprising corner cases of the current implementation:
- (3, 0) is printed
3, (0.5, 0) is printed0.5, etc. - None, false and are printed 0
dump may fail for ill-formed values, such as obtained from a faulty C binding or crazy uses of Obj.set_tag.
Attempt to print a value to an output.
Uses dump to convert the value to a string and prints that string to the output.
List operations
More list operations are provided in module List.
List concatenation.
Input/output
This section only contains the most common input/output operations. More operations may be found in modules BatIO and File.
Standard input, as per Unix/Windows conventions (by default, keyboard).
Use this input to read what the user is writing on the keyboard.
Standard output, as per Unix/Windows conventions (by default, console).
Use this output to display regular messages.
Standard error output, as per Unix/Windows conventions.
Use this output to display warnings and error messages.
An output which discards everything written to it.
Use this output to ignore messages.
Write all pending data to output channels, ignore all errors.
It is normally not necessary to call this function, as all pending data is written when an output channel is closed or when the program itself terminates, either normally or because of an uncaught exception. However, this function is useful for debugging, as it forces pending data to be written immediately.
Output functions on standard output
Print a boolean on standard output.
Attempt to print the representation of a runtime value on the standard output. See remarks for dump. This function is useful mostly for debugging. As a general rule, it should not be used in production code.
Print the contents of an input to the standard output.
Output functions on standard error
Print a boolean to stderr.
Attempt to print the representation of a runtime value on the error output. See remarks for dump. This function is useful mostly for debugging.
Print the contents of an input to the error output.
General output functions
creates a filename, write text into it and close it.
val open_out :
?mode:BatFile.open_out_flag list ->
?perm:BatFile.permission ->
string ->
unit BatIO.outputOpen the named file for writing, and return a new output channel on that file. You will need to close the file once you have finished using it.
You may use optional argument mode to decide whether the output will overwrite the contents of the file (by default) or to add things at the end of the file, whether the file should be created if it does not exist yet (the default) or not, whether this operation should proceed if the file exists already (the default) or not, whether the file should be opened as text (the default) or as binary, and whether the file should be opened for non-blocking operations.
You may use optional argument perm to specify the permissions of the file, as per Unix conventions. By default, files are created with default permissions (which depend on your setup).
open_out_gen mode perm filename opens the named file for writing, as described above. The extra argument mode specifies the opening mode. The extra argument perm specifies the file permissions, in case the file must be created.
Flush the buffer associated with the given output, performing all pending writes on that channel. Interactive programs must be careful about flushing standard output and standard error at the right time.
Write the character on the given output channel.
Write the string on the given output channel.
output oc buf pos len writes len characters from byte sequence buf, starting at offset pos, to the given output channel oc.
output_substring oc buf pos len writes len characters from string buf, starting at offset pos, to the given output channel oc.
Write one 8-bit integer (as the single character with that code) on the given output channel. The given integer is taken modulo 256.
Write one integer in binary format (4 bytes, big-endian) on the given output channel. The given integer is taken modulo 232. The only reliable way to read it back is through the Pervasives.input_binary_int function. The format is compatible across all machines for a given version of OCaml.
Write one float in binary format (8 bytes, IEEE 754 double format) on the given output channel. The only reliable way to read it back is through the Pervasives.input_binary_float function. The format is compatible across all machines for a given version of OCaml.
Write the representation of a structured value of any type to a channel. Circularities and sharing inside the value are detected and preserved. The object can be read back, by the function input_value. See the description of module Marshal for more information. output_value is equivalent to Marshal.output with an empty list of flags.
Close the given channel, flushing all buffered write operations. Output functions raise a Sys_error exception when they are applied to a closed output channel, except close_out and flush, which do nothing when applied to an already closed channel.
Same as close_out, but ignore all errors.
General input functions
returns the data of a given filename.
val open_in :
?mode:BatFile.open_in_flag list ->
?perm:BatFile.permission ->
string ->
BatIO.inputOpen the named file for reading. You will need to close the file once you have finished using it.
You may use optional argument mode to decide whether the opening should fail if the file doesn't exist yet (by default) or whether the file should be created if it doesn't exist yet, whether the opening should fail if the file already exists or not (by default), whether the file should be read as binary (by default) or as text, and whether reading should be non-blocking.
You may use optional argument perm to specify the permissions of the file, should it be created, as per Unix conventions. By default, files are created with default permissions (which depend on your setup).
Same as Pervasives.open_in, but the file is opened in binary mode, so that no translation takes place during reads. On operating systems that do not distinguish between text mode and binary mode, this function behaves like Pervasives.open_in.
open_in_gen mode perm filename opens the named file for reading, as described above. The extra arguments mode and perm specify the opening mode and file permissions. Pervasives.open_in and Pervasives.open_in_bin are special cases of this function.
Read one character from the given input channel.
Read characters from the given input channel, until a newline character is encountered. Return the string of all characters read, without the newline character at the end.
input ic buf pos len reads up to len characters from the given channel ic, storing them in byte sequence buf, starting at character number pos. It returns the actual number of characters read, between 0 and len (inclusive). A return value of 0 means that the end of file was reached. A return value between 0 and len exclusive means that not all requested len characters were read, either because no more characters were available at that time, or because the implementation found it convenient to do a partial read; input must be called again to read the remaining characters, if desired. (See also Pervasives.really_input for reading exactly len characters.)
really_input ic buf pos len reads len characters from channel ic, storing them in byte sequence buf, starting at character number pos.
Same as Pervasives.input_char, but return the 8-bit integer representing the character.
Read an integer encoded in binary format (4 bytes, big-endian) from the given input channel. See Pervasives.output_binary_int.
Read a float encoded in binary format (8 bytes, IEEE 754 double format) from the given input channel. See Pervasives.output_binary_float.
Read the representation of a structured value, as produced by output_value, and return the corresponding value. This function is identical to Marshal.input; see the description of module Marshal for more information, in particular concerning the lack of type safety.
Close the given channel. Input functions raise a Sys_error exception when they are applied to a closed input channel, except close_in, which does nothing when applied to an already closed channel.
Same as close_in, but ignore all errors.
Fundamental functions and operators
The identity function.
The undefined function.
Evaluating undefined x always fails and raises an exception "Undefined". Optional argument message permits the customization of the error message.
Function application. f @@ x is equivalent to f x. However, it binds less tightly (between :: and =,<,>,etc) and is right-associative, which makes it useful for composing sequences of function calls without too many parentheses. It is similar to Haskell's $. Note that it replaces pre-2.0 **> and <|.
Function composition: the mathematical o operator. f % g is fun x -> f (g x). It is similar to Haskell's ..
Examples: the following are equivalent: f (g (h x)), f @@ g @@ h x, f % g % h @@ x.
The "pipe": function application. x |> f is equivalent to f x.
This operator is commonly used to write a function composition by order of evaluation (the order used in object-oriented programming) rather than by inverse order (the order typically used in functional programming).
For instance, g (f x) means "apply f to x, then apply g to the result." The corresponding notation in most object-oriented programming languages would be somewhere along the lines of x.f.g.h(), or "starting from x, apply f, then apply g." In OCaml, using the ( |> ) operator, this is written x |> f |> g |> h.
This operator may also be useful for composing sequences of function calls without too many parentheses.
Piping function composition. f %> g is fun x -> g (f x). Whereas f % g applies g first and f second, f %> g applies f, then g. Note that it plays well with pipes, so for instance x |> f %> g %> h |> i %> j yields the expected result... but in such cases it's still recommended to use |> only. Note that it replaces pre-2.0 |-, which didn't integrate with pipes.
Like BatOption.default, with the arguments reversed. None |? 10 returns 10, while Some "foo" |? "bar" returns "foo".
Note This operator does not short circuit like ( || ) and ( && ). Both arguments will be evaluated.
Argument flipping.
flip f x y is f y x. Don't abuse this function, it may shorten considerably your code but it also has the nasty habit of making it harder to read.
Convert a function which accepts a pair of arguments into a function which accepts two arguments.
curry f is fun x y -> f (x,y)
Convert a function which accepts two arguments into a function which accepts a pair of arguments.
uncurry f is fun (x, y) -> f x y
neg p returns a new predicate that is the negation of the given predicate. That is, the new predicate returns false when the input predicate returns true and vice versa. This is for predicates with one argument.
neg p is fun x -> not (p x)
as neg but for predicates with two arguments
Ignore its second argument.
const x is the function which always returns x.
Returns an unique identifier every time it is called.
Note This is thread-safe.
Allows application of a function in the middle of a pipe sequence without disturbing the sequence. x |> tap f evaluates to x, but has the side effect of f x. Useful for debugging.
finally fend f x calls f x and then fend() even if f x raised an exception.
with_dispose dispose f x invokes f on x, calling dispose x when f terminates (either with a return value or an exception).
forever f x invokes f on x repeatedly (until an exception occurs).
ignore_exceptions f x invokes f on x, ignoring both the returned value and the exceptions that may be raised.
verify_arg condition message will raise Invalid_argument message if condition is false, otherwise it does nothing.
An enumeration of the arguments passed to this program through the command line.
args () is given by the elements of Sys.argv, minus the first element.
The name of the current executable.
exe is given by the first argument of Sys.argv
Enumerations
In OCaml Batteries Included, all data structures are enumerable, which means that they support a number of standard operations, transformations, etc. The general manner of enumerating the contents of a data structure is to invoke the enum function of your data structure.
For instance, you may use the foreach loop to apply a function f to all the consecutive elements of a string s. For this purpose, you may write either foreach (String.enum s) f or open String in foreach (enum s) f. Either possibility states that you are enumerating through a character string s. Should you prefer your enumeration to proceed from the end of the string to the beginning, you may replace String.enum with
String.backwards. Therefore, either foreach (String.backwards s) f or open String in foreach (backwards s) f will apply f to all the consecutive elements of string s, from the last to the first.
Similarly, you may use List.enum instead of String.enum to visit the elements of a list in the usual order, or List.backwards instead of String.backwards to visit them in the opposite order, or Hashtbl.enum for hash tables, etc.
More operations on enumerations are defined in module BatEnum, including the necessary constructors to make your own structures enumerable.
The various kinds of loops are detailed further in this documentation.
Imperative loop on an enumeration.
foreach e f applies function f to each successive element of e. For instance, foreach (1 -- 10) print_int invokes function print_int on 1, 2, ..., 10, printing 12345678910.
Note This function is one of the many loops available on enumerations. Other commonly used loops are iter (same usage scenario as foreach, but with different notations), map (convert an enumeration to another enumeration) or fold (flatten an enumeration by applying an operation to each element).
General-purpose loops
The following functions are the three main general-purpose loops available in OCaml. By opposition to the loops available in imperative languages, OCaml loops are regular functions, which may be passed, composed, currified, etc. In particular, each of these loops may be considered either as a manner of applying a function to a data structure or as transforming a function into another function which will act on a whole data structure.
For instance, if f is a function operating on one value, you may lift this function to operate on all values of an enumeration (and consequently on all values of any data structure of OCaml Batteries Included) by applying iter, map or fold to this function.
Imperative loop on an enumeration. This loop is typically used to lift a function with an effect but no meaningful result and get it to work on enumerations.
If f is a function iter f is a function which behaves as f but acts upon enumerations rather than individual elements. As indicated in the type of iter, f must produce values of type unit (i.e. f has no meaningful result) the resulting function produces no meaningful result either.
In other words, iter f is a function which, when applied upon an enumeration e, calls f with each element of e in turn.
For instance, iter f (1 -- 10) invokes function f on 1, 2, ..., 10 and produces value ().
Transformation loop on an enumeration, used to build an enumeration from another enumeration. This loop is typically used to transform an enumeration into another enumeration with the same number of elements, in the same order.
If f is a function, map f e is a function which behaves as f but acts upon enumerations rather than individual elements -- and builds a new enumeration from the results of each application.
In other words, map f is a function which, when applied upon an enumeration containing elements e0, e1, ..., produces enumeration f e0, f e1, ...
For instance, if odd is the function which returns true when applied to an odd number or false when applied to an even number, map odd (1 -- 10) produces enumeration true, false, true, ..., false.
Similarly, if square is the function fun x -> x * x, map square (1 -- 10) produces the enumeration of the square numbers of all numbers between 1 and 10.
Transformation loop on an enumeration, used to build a single value from an enumeration.
If f is a function and e is an enumeration, reduce f e applies function f to the first two elements of e, then to the result of this expression and to the third element of e, then to the result of this new expression and to the fourth element of e...
In other words, reduce f e returns a0 if e contains only one element a0, otherwise f (... (f (f a0) a1) ...) aN where a0,a1..aN are the elements of e.
For instance, if add is the function fun x y -> x + y, reduce add is the function which computes the sum of the elements of an enumeration -- and doesn't work on empty enumerations. Therefore, reduce add (1 -- 10) produces result 55.
Transformation loop on an enumeration, used to build a single value from an enumeration. This is the most powerful general-purpose loop and also the most complex.
If f is a function, fold f v e applies f v to the first element of e, then, calling acc_1 the result of this operation, applies f acc_1 to the second element of e, then, calling acc_2 the result of this operation, applies f acc_2 to the third element of e...
In other words, fold f v e returns v if e is empty, otherwise f (... (f (f v a0) a1) ...) aN where a0,a1..aN are the elements of e.
For instance, if add is the function fun x y -> x + y, fold add 0 is the function which computes the sum of the elements of an enumeration. Therefore, fold add 0 (1 -- 10) produces result 55.
Functional loop on an enumeration, used to build an enumeration from both an enumeration and an initial value. This function may be seen as a variant of fold which returns not only the final result of fold but the enumeration of all the intermediate results of fold.
If f is a function, scanl f v e is applies f v to the first element of e, then, calling acc_1 the result of this operation, applies f acc_1 to the second element of e, then, calling acc_2 the result of this operation, applies f acc_2 to the third element of e...
For instance, if add is the function fun x y -> x + y, scanl add 0 is the function which computes the sum of the elements of an enumeration. Therefore, scanl add 0 (1 -- 10) produces result the enumeration with elements 0, 1, 3, 6, 10, 15, 21, 28, 36, 45, 55.
Mapping operators.
These operators have the same meaning as function map but are sometimes more readable than this function, when chaining several transformations in a row.
Map combined with filter. Same as filter_map.
Other operations on enumerations
exists f e returns true if there is some x in e such that f x
for_all f e returns true if for every x in e, f x is true
find f e returns the first element x of e such that f x returns true, consuming the enumeration up to and including the found element, or, raises Not_found if no such element exists in the enumeration, consuming the whole enumeration in the search.
Since find consumes a prefix of the enumeration, it can be used several times on the same enumeration to find the next element.
peek e returns None if e is empty or Some x where x is the next element of e. The element is not removed from the enumeration.
get e returns None if e is empty or Some x where x is the next element of e, in which case the element is removed from the enumeration.
filter f e returns an enumeration over all elements x of e such as f x returns true.
Filtering (pronounce this operator name "such that").
For instance, (1 -- 37) // odd is the enumeration of all odd numbers between 1 and 37.
Enumerate numbers.
5 -- 10 is the enumeration 5,6,7,8,9,10. 10 -- 5 is the empty enumeration
Enumerate numbers, without the right endpoint
5 -- 10 is the enumeration 5,6,7,8,9.
(a, step) --. b) creates a float enumeration from a to b with an increment of step between elements.
(5.0, 1.0) --. 10.0 is the enumeration 5.0,6.0,7.0,8.0,9.0,10.0. (10.0, -1.0) --. 5.0 is the enumeration 10.0,9.0,8.0,7.0,6.0,5.0. (10.0, 1.0) --. 1.0 is the empty enumeration.
As --, but accepts enumerations in reverse order.
5 --- 10 is the enumeration 5,6,7,8,9,10. 10 --- 5 is the enumeration 10,9,8,7,6,5.
val print :
?first:string ->
?last:string ->
?sep:string ->
('a BatInnerIO.output -> 'b -> unit) ->
'a BatInnerIO.output ->
'b BatEnum.t ->
unitPrint and consume the contents of an enumeration.
Results
This type represents the outcome of a function which has the possibility of failure. Normal results of type 'a are marked with Ok, while failure values of type 'b are marked with Error.
This is intended to be a safer alternative to functions raising exceptions to signal failure. It is safer in that the possibility of failure has to be handled before the result of that computation can be used.
For more functions related to this type, see the BatResult module.
ignore_ok (f x) ignores the result of f x if it's ok, but throws the exception contained if Error is returned.
f x |> ok unwraps the Ok result of f x and returns it, or throws the exception contained if Error is returned.
wrap f x wraps a function that would normally throw an exception on failure such that it now returns a result with either the Ok return value or the Error exception.
Thread-safety internals
Unless you are attempting to adapt Batteries Included to a new model of concurrency, you probably won't need this.
A lock used to synchronize internal operations.
By default, this is BatConcurrent.nolock. However, if you're using a version of Batteries compiled in threaded mode, this uses BatMutex. If you're attempting to use Batteries with another concurrency model, set the lock appropriately.
include module type of struct include GoblintCil end
and comment = location * stringand global = GoblintCil__Cil.global = | GType of typeinfo * location| GCompTag of compinfo * location| GCompTagDecl of compinfo * location| GEnumTag of enuminfo * location| GEnumTagDecl of enuminfo * location| GVarDecl of varinfo * location| GVar of varinfo * initinfo * location| GFun of fundec * location| GAsm of string * location| GPragma of attribute * location| GText of string
and typ = GoblintCil__Cil.typ = | TVoid of attributes| TInt of ikind * attributes| TFloat of fkind * attributes| TPtr of typ * attributes| TArray of typ * exp option * attributes| TFun of typ * (string * typ * attributes) list option * bool * attributes| TNamed of typeinfo * attributes| TComp of compinfo * attributes| TEnum of enuminfo * attributes| TBuiltin_va_list of attributes
and attributes = attribute listand attrparam = GoblintCil__Cil.attrparam = | AInt of int| AStr of string| ACons of string * attrparam list| ASizeOf of typ| ASizeOfE of attrparam| ASizeOfS of typsig| AAlignOf of typ| AAlignOfE of attrparam| AAlignOfS of typsig| AUnOp of unop * attrparam| ABinOp of binop * attrparam * attrparam| ADot of attrparam * string| AStar of attrparam| AAddrOf of attrparam| AIndex of attrparam * attrparam| AQuestion of attrparam * attrparam * attrparam
and compinfo = GoblintCil__Cil.compinfo = {mutable cstruct : bool;mutable cname : string;mutable ckey : int;mutable cfields : fieldinfo list;mutable cattr : attributes;mutable cdefined : bool;mutable creferenced : bool;
}and fieldinfo = GoblintCil__Cil.fieldinfo = {mutable fcomp : compinfo;mutable fname : string;mutable ftype : typ;mutable fbitfield : int option;mutable fattr : attributes;mutable floc : location;
}and enuminfo = GoblintCil__Cil.enuminfo = {mutable ename : string;mutable eitems : (string * exp * location) list;mutable eattr : attributes;mutable ereferenced : bool;mutable ekind : ikind;
}and typeinfo = GoblintCil__Cil.typeinfo = {mutable tname : string;mutable ttype : typ;mutable treferenced : bool;
}and varinfo = GoblintCil__Cil.varinfo = {mutable vname : string;mutable vtype : typ;mutable vattr : attributes;mutable vstorage : storage;mutable vglob : bool;mutable vinline : bool;mutable vdecl : location;vinit : initinfo;mutable vid : int;mutable vaddrof : bool;mutable vreferenced : bool;mutable vdescr : GoblintCil__.Pretty.doc;mutable vdescrpure : bool;mutable vhasdeclinstruction : bool;
}and exp = GoblintCil__Cil.exp = | Const of constant| Lval of lval| SizeOf of typ| Real of exp| Imag of exp| SizeOfE of exp| SizeOfStr of string| AlignOf of typ| AlignOfE of exp| UnOp of unop * exp * typ| BinOp of binop * exp * exp * typ| Question of exp * exp * exp * typ| CastE of typ * exp| AddrOf of lval| AddrOfLabel of stmt ref| StartOf of lval
and stmtkind = GoblintCil__Cil.stmtkind = | Instr of instr list| Return of exp option * location| Goto of stmt ref * location| ComputedGoto of exp * location| Break of location| Continue of location| If of exp * block * block * location * location| Switch of exp * block * stmt list * location * location| Loop of block * location * location * stmt option * stmt option| Block of block
val lowerConstants : bool refval removeBranchingOnConstants : bool refval insertImplicitCasts : bool refval emptyFunction : string -> fundecval setMaxId : fundec -> unitval dummyFunDec : fundecval dummyFile : fileval saveBinaryFile : file -> string -> unitval saveBinaryFileChannel : file -> out_channel -> unitval loadBinaryFile : string -> fileval prepareCFG : fundec -> unitval computeCFGInfo : fundec -> bool -> unitval invalidStmt : stmtval builtinLoc : locationval voidType : typval isVoidType : typ -> boolval isVoidPtrType : typ -> boolval intType : typval uintType : typval longType : typval ulongType : typval charType : typval charPtrType : typval stringLiteralType : typval charConstPtrType : typval voidPtrType : typval intPtrType : typval uintPtrType : typval doubleType : typval isSigned : ikind -> boolval mkCompInfo :
bool ->
string ->
(compinfo -> (string * typ * int option * attributes * location) list) ->
attributes ->
compinfoval compFullName : compinfo -> stringval isCompleteType : typ -> boolval isIntegralType : typ -> boolval isArithmeticType : typ -> boolval isPointerType : typ -> boolval isScalarType : typ -> boolval isFunctionType : typ -> boolval argsToList :
(string * typ * attributes) list option ->
(string * typ * attributes) listval isArrayType : typ -> boolval lenOfArray : exp option -> intval existsType : (typ -> existsAction) -> typ -> boolval splitFunctionType :
typ ->
typ * (string * typ * attributes) list option * bool * attributesval splitFunctionTypeVI :
varinfo ->
typ * (string * typ * attributes) list option * bool * attributesval d_typsig : unit -> typsig -> GoblintCil__.Pretty.docval typeSigWithAttrs :
?ignoreSign:bool ->
(attributes -> attributes) ->
typ ->
typsigval setTypeSigAttrs : attributes -> typsig -> typsigval typeSigAttrs : typsig -> attributesval zero : expval one : expval mone : expval integer : int -> expval getInteger : exp -> GoblintCil__.Cilint.cilint optionval isConstant : exp -> boolval isConstantOffset : offset -> boolval isZero : exp -> boolval isNullPtrConstant : exp -> boolval charConstToInt : char -> constantval mkString : string -> expval parseInt : string -> expval mkEmptyStmt : unit -> stmtval dummyInstr : instrval dummyStmt : stmtval attributeHash : (string, attributeClass) Hashtbl.tval partitionAttributes :
default:attributeClass ->
attributes ->
attribute list * attribute list * attribute listval addAttribute : attribute -> attributes -> attributesval addAttributes : attribute list -> attributes -> attributesval dropAttribute : string -> attributes -> attributesval dropAttributes : string list -> attributes -> attributesval filterAttributes : string -> attributes -> attributesval hasAttribute : string -> attributes -> boolval setTypeAttrs : typ -> attributes -> typexception NotAnAttrParam of expclass type cilVisitor = object ... endclass nopCilVisitor : cilVisitorval visitCilFile : cilVisitor -> file -> unitval visitCilFileSameGlobals : cilVisitor -> file -> unitval msvcMode : bool refval makeStaticGlobal : bool refval useLogicalOperators : bool refval useComputedGoto : bool refval useCaseRange : bool refval oldstyleExternInline : bool refval lineDirectiveStyle : lineDirectiveStyle option refval print_CIL_Input : bool refval printCilAsIs : bool refval lineLength : int refval d_loc : unit -> location -> GoblintCil__.Pretty.docval d_ikind : unit -> ikind -> GoblintCil__.Pretty.docval d_fkind : unit -> fkind -> GoblintCil__.Pretty.docval d_storage : unit -> storage -> GoblintCil__.Pretty.docval d_const : unit -> constant -> GoblintCil__.Pretty.docval getParenthLevel : exp -> intclass type cilPrinter = object ... endclass defaultCilPrinterClass : cilPrinterclass plainCilPrinterClass : cilPrinterclass type descriptiveCilPrinter = object ... endclass descriptiveCilPrinterClass : bool -> descriptiveCilPrinterval printerForMaincil : cilPrinter refval printType : cilPrinter -> unit -> typ -> GoblintCil__.Pretty.docval printExp : cilPrinter -> unit -> exp -> GoblintCil__.Pretty.docval printLval : cilPrinter -> unit -> lval -> GoblintCil__.Pretty.docval printGlobal : cilPrinter -> unit -> global -> GoblintCil__.Pretty.docval printAttr : cilPrinter -> unit -> attribute -> GoblintCil__.Pretty.docval printAttrs : cilPrinter -> unit -> attributes -> GoblintCil__.Pretty.docval printInstr : cilPrinter -> unit -> instr -> GoblintCil__.Pretty.docval printStmt : cilPrinter -> unit -> stmt -> GoblintCil__.Pretty.docval printBlock : cilPrinter -> unit -> block -> GoblintCil__.Pretty.docval dumpStmt : cilPrinter -> out_channel -> int -> stmt -> unitval dumpBlock : cilPrinter -> out_channel -> int -> block -> unitval printInit : cilPrinter -> unit -> init -> GoblintCil__.Pretty.docval dumpInit : cilPrinter -> out_channel -> int -> init -> unitval d_type : unit -> typ -> GoblintCil__.Pretty.docval d_exp : unit -> exp -> GoblintCil__.Pretty.docval d_lval : unit -> lval -> GoblintCil__.Pretty.docval d_offset :
GoblintCil__.Pretty.doc ->
unit ->
offset ->
GoblintCil__.Pretty.docval d_init : unit -> init -> GoblintCil__.Pretty.docval d_binop : unit -> binop -> GoblintCil__.Pretty.docval d_unop : unit -> unop -> GoblintCil__.Pretty.docval d_attr : unit -> attribute -> GoblintCil__.Pretty.docval d_attrparam : unit -> attrparam -> GoblintCil__.Pretty.docval d_attrlist : unit -> attributes -> GoblintCil__.Pretty.docval d_instr : unit -> instr -> GoblintCil__.Pretty.docval d_label : unit -> label -> GoblintCil__.Pretty.docval d_stmt : unit -> stmt -> GoblintCil__.Pretty.docval d_block : unit -> block -> GoblintCil__.Pretty.docval d_global : unit -> global -> GoblintCil__.Pretty.docval dn_exp : unit -> exp -> GoblintCil__.Pretty.docval dn_lval : unit -> lval -> GoblintCil__.Pretty.docval dn_init : unit -> init -> GoblintCil__.Pretty.docval dn_type : unit -> typ -> GoblintCil__.Pretty.docval dn_global : unit -> global -> GoblintCil__.Pretty.docval dn_attrlist : unit -> attributes -> GoblintCil__.Pretty.docval dn_attr : unit -> attribute -> GoblintCil__.Pretty.docval dn_attrparam : unit -> attrparam -> GoblintCil__.Pretty.docval dn_stmt : unit -> stmt -> GoblintCil__.Pretty.docval dn_instr : unit -> instr -> GoblintCil__.Pretty.docval d_shortglobal : unit -> global -> GoblintCil__.Pretty.docval dumpGlobal : cilPrinter -> out_channel -> global -> unitval dumpFile : cilPrinter -> out_channel -> string -> file -> unitval bug : ('a, unit, GoblintCil__.Pretty.doc) format -> 'aval unimp : ('a, unit, GoblintCil__.Pretty.doc) format -> 'aval error : ('a, unit, GoblintCil__.Pretty.doc) format -> 'aval warn : ('a, unit, GoblintCil__.Pretty.doc) format -> 'aval warnOpt : ('a, unit, GoblintCil__.Pretty.doc) format -> 'aval warnContext : ('a, unit, GoblintCil__.Pretty.doc) format -> 'aval warnContextOpt : ('a, unit, GoblintCil__.Pretty.doc) format -> 'aval d_plainexp : unit -> exp -> GoblintCil__.Pretty.docval d_plaininit : unit -> init -> GoblintCil__.Pretty.docval d_plainlval : unit -> lval -> GoblintCil__.Pretty.docval d_plaintype : unit -> typ -> GoblintCil__.Pretty.docval dd_exp : unit -> exp -> GoblintCil__.Pretty.docval dd_lval : unit -> lval -> GoblintCil__.Pretty.docval uniqueVarNames : file -> unitexception SizeOfError of string * typval intRank : ikind -> intval intKindForSize : int -> bool -> ikindval floatKindForSize : int -> fkindval bytesSizeOfInt : ikind -> intval bitsSizeOf : typ -> intval truncateCilint :
ikind ->
GoblintCil__.Cilint.cilint ->
GoblintCil__.Cilint.cilint * GoblintCil__.Cilint.truncationval fitsInInt : ikind -> GoblintCil__.Cilint.cilint -> boolval intKindForValue : GoblintCil__.Cilint.cilint -> bool -> ikindval mkCilint : ikind -> int64 -> GoblintCil__.Cilint.cilintval mkCilintIk :
ikind ->
GoblintCil__.Cilint.cilint ->
GoblintCil__.Cilint.cilintval alignOf_int : typ -> intval char_is_unsigned : bool refval little_endian : bool refval underscore_name : bool refval locUnknown : locationval dExp : GoblintCil__.Pretty.doc -> expval populateLabelAlphaTable : fundec -> unittype formatArg = GoblintCil__Cil.formatArg = | Fe of exp| Feo of exp option| Fu of unop| Fb of binop| Fk of ikind| FE of exp list| Ff of string * typ * attributes| FF of (string * typ * attributes) list| Fva of bool| Fv of varinfo| Fl of lval| Flo of lval option| Fo of offset| Fc of compinfo| Fi of instr| FI of instr list| Ft of typ| Fd of int| Fg of string| Fs of stmt| FS of stmt list| FA of attributes| Fp of attrparam| FP of attrparam list| FX of string
val d_formatarg : unit -> formatArg -> GoblintCil__.Pretty.docval warnTruncate : bool refval envMachine : GoblintCil__.Machdep.mach option refinclude module type of struct include Pretty end
val nil : docval text : string -> docval num : int -> docval num64 : int64 -> docval real : float -> docval chr : char -> docval line : docval leftflush : docval break : docval align : docval unalign : docval mark : docval unmark : docval d_int32 : int32 -> docval f_int32 : unit -> int32 -> docval d_int64 : int64 -> docval f_int64 : unit -> int64 -> docval fprint : out_channel -> width:int -> doc -> unitval fprintf : out_channel -> ('a, unit, doc) format -> 'aval printDepth : int refval printIndent : bool refval fastMode : bool refval flushOften : bool refval flattenBeforePrint : bool refval countNewLines : int ref