Files
jak-project/goal_src/jak3/kernel/gcommon.gc
T
water111 4f537d4a71 [jak3] Set up ckernel (#3308)
This sets up the C Kernel for Jak 3, and makes it possible to build and
load code built with `goalc --jak3`.

There's not too much interesting here, other than they switched to a
system where symbol IDs (unique numbers less than 2^14) are generated at
compile time, and those get included in the object file itself.

This is kind of annoying, since it means all tools that produce a GOAL
object file need to work together to assign unique symbol IDs. And since
the symbol IDs can't conflict, and are only a number between 0 and 2^14,
you can't just hash and hope for no collisions.

We work around this by ignoring the IDs and re-assigning our own. I
think this is very similar to what the C Kernel did on early builds of
Jak 3 which supported loading old format level files, which didn't have
the IDs included.

As far as I can tell, this shouldn't cause any problems. It defeats all
of their fancy tricks to save memory by not storing the symbol string,
but we don't care.
2024-01-16 19:24:02 -05:00

1335 lines
34 KiB
Common Lisp

;;-*-Lisp-*-
(in-package goal)
;; name: gcommon.gc
;; name in dgo: gcommon
;; dgos: KERNEL
;; DECOMP BEGINS
;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;
;; Game constants
;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;
;; disable PS2 only code and enable PC-specific code
(defglobalconstant PC_PORT #t)
;; whether we're allowed to use more memory than the original game or not
(defglobalconstant BIG_MEMORY #t)
(defglobalconstant PC_BIG_MEMORY (and PC_PORT BIG_MEMORY))
;; enables the with-profiler statements, which send profiling data from
;; GOAL code to the frame profiler in C++.
(defglobalconstant PC_PROFILER_ENABLE #t)
;; pointers larger than this are invalid by valid?
(defconstant END_OF_MEMORY #x8000000)
(defun identity ((arg0 object))
"Return the input. Works for any 64-bit value."
arg0
)
(defun 1/ ((arg0 float))
"Floating point reciprocal"
(declare (inline))
(/ 1.0 arg0)
)
;; These functions exist a function objects that wrap the compiler's built-in operators.
(defun + ((arg0 int) (arg1 int))
"Add two integers (64-bit)."
(+ arg0 arg1)
)
(defun - ((arg0 int) (arg1 int))
"Subtract two integers (64-bit)."
(- arg0 arg1)
)
(defun * ((arg0 int) (arg1 int))
"Multiply two integers (32-bit)"
(* arg0 arg1)
)
(defun / ((arg0 int) (arg1 int))
"Divide two integers (32-bit, signed)"
(/ arg0 arg1)
)
(defun mod ((arg0 int) (arg1 int))
"Integer mod (signed, 32-bit)"
(mod arg0 arg1)
)
(defun rem ((arg0 int) (arg1 int))
"Integer mod (signed, 32-bit). Even though it's called rem, it behaves the same as mod."
(mod arg0 arg1)
)
(defun ash ((value int) (shift-amount int))
"Arithmetic shift value by shift-amount.
A positive shift-amount will shift to the left and a negative will shift to the right."
;; OpenGOAL does not support ash in the compiler, so we implement it here as an inline function.
(declare (inline))
(if (> shift-amount 0)
(shl value shift-amount)
(sar value (- shift-amount))
)
)
(defun abs ((a int))
"Take the absolute value of a 64-bit signed integer"
(declare (inline))
;; OpenGOAL doesn't support abs, so we implement it here.
(if (> a 0)
a
(- a)
)
)
(defun min ((a int) (b int))
"Compute minimum of two 64-bit signed integers."
(declare (inline))
;; OpenGOAL doesn't support min, so we implement it here.
(if (> a b) b a)
)
(defun max ((a int) (b int))
"Compute maximum of two 64-bit signed integer."
(declare (inline))
;; OpenGOAL doesn't support max so we implement it here.
(if (> a b) a b)
)
(defun logior ((arg0 int) (arg1 int))
"Logical or (64-bit)"
(logior arg0 arg1)
)
(defun logand ((arg0 int) (arg1 int))
"Logical and (64-bit)"
(logand arg0 arg1)
)
(defun lognor ((a int) (b int))
"Compute not or (64-bit)."
;; Note - MIPS has a 'nor' instruction, but x86 doesn't.
;; the OpenGOAL x86 compiler therefore doesn't have a nor operation,
;; so lognor is implemented by this inline function instead.
(declare (inline))
(lognot (logior a b))
)
(defun logxor ((arg0 int) (arg1 int))
"Logical exclusive or (64-bit)"
(logxor arg0 arg1)
)
(defun lognot ((arg0 int))
"Logical not (64-bit)"
(lognot arg0)
)
(defun false-func ()
"Return #f."
#f
)
(defun true-func ()
"Return #t."
#t
)
;;;;;;;;;;;;;;;;;;;;;;;;;;
;; format
;;;;;;;;;;;;;;;;;;;;;;;;;;
;; The "format" function is implemented in C but is called _format.
;; This defines the format function to point to the same thing as _format.
(define format _format)
;;;;;;;;;;;;;;;;;;;;;;;;;;
;; numeric types
;;;;;;;;;;;;;;;;;;;;;;;;;;
;; vec4s: 4 floats packed into a 128-bit integer register. This is rarely used.
(deftype vec4s (uint128)
((x float :offset 0 :size 32)
(y float :offset 32 :size 32)
(z float :offset 64 :size 32)
(w float :offset 96 :size 32)
)
)
(defmethod print ((this vec4s))
"Custom print for vec4s that prints the 4 values."
(format #t "#<vector ~F ~F ~F ~F @ #x~X>"
(-> this x)
(-> this y)
(-> this z)
(-> this w)
this)
this
)
(deftype vector (structure)
((data float 4)
(x float :overlay-at (-> data 0))
(y float :overlay-at (-> data 1))
(z float :overlay-at (-> data 2))
(w float :overlay-at (-> data 3))
(quad uint128 :overlay-at (-> data 0))
)
)
(defmacro print128 (value &key (stream #t))
"Print a 128-bit value"
`(let ((temp (new 'stack-no-clear 'array 'uint64 2)))
(set! (-> (the (pointer uint128) temp)) ,value)
(format ,stream "#x~16X~16X" (-> temp 1) (-> temp 0))
)
)
(defmacro make-u128 (upper lower)
"Make a i128 from two 64-bit values."
`(rlet ((result :class i128)
(upper-xmm :class i128)
(lower-xmm :class i128))
(.mov upper-xmm ,upper)
(.mov lower-xmm ,lower)
(.pcpyld result upper-xmm lower-xmm)
(the-as uint result)
)
)
;; bfloat: boxed float type. A floating point number with type information.
;; It's a heap allocated basic.
(deftype bfloat (basic)
((data float)
)
)
(defmethod print ((this bfloat))
(format #t "~f" (-> this data))
this
)
;;;;;;;;;;;;;;;;;;;;;;;;;;
;; Type System
;;;;;;;;;;;;;;;;;;;;;;;;;;
(defmethod asize-of ((this type))
"Get the size in memory of a type. The value calculated here is wrong."
(the-as int (logand (the-as uint #xfffffff0) (+ (* (-> this allocated-length) 4) 43)))
)
(defun basic-type? ((arg0 basic) (arg1 type))
"Is the given basic an object of the given type?"
(let ((v1-0 (-> arg0 type))
(a0-1 object)
)
(until (= v1-0 a0-1)
(if (= v1-0 arg1)
(return #t)
)
(set! v1-0 (-> v1-0 parent))
)
)
#f
)
(defun type-type? ((arg0 type) (arg1 type))
"Is the given type equal to, or a child of, the second type?"
(let ((v1-0 object))
(if (= arg1 v1-0)
(return #t)
)
(until (or (= arg0 v1-0) (zero? arg0))
(if (= arg0 arg1)
(return #t)
)
(set! arg0 (-> arg0 parent))
)
)
#f
)
(defun type? ((arg0 object) (arg1 type))
"Is the given object an object of the given type? Works for any boxed object (basic, symbol, binteger, pair)."
(let ((v1-0 object)
(a0-1 (rtype-of arg0))
)
(if (= arg1 v1-0)
(return #t)
)
(until (or (= a0-1 v1-0) (zero? a0-1))
(if (= a0-1 arg1)
(return #t)
)
(set! a0-1 (-> a0-1 parent))
)
)
#f
)
(defun find-parent-method ((arg0 type) (arg1 int))
"Go up the type tree and find the first parent type that has a different implementation for the given method."
(local-vars (v0-0 function))
(let ((v1-2 (-> arg0 method-table arg1)))
(until (!= v0-0 v1-2)
(if (= arg0 object)
(return nothing)
)
(set! arg0 (-> arg0 parent))
(set! v0-0 (-> arg0 method-table arg1))
(if (zero? v0-0)
(return nothing)
)
)
)
v0-0
)
(defmacro call-parent-method (&rest args)
"Find the first different implementation of the current method in a parent type and call it with these arguments."
`((the (current-method-function-type) (find-parent-method (current-method-type) (current-method-id)))
,@args)
)
(defun ref ((arg0 object) (arg1 int))
"Get the n-th item in a linked list. No range checking."
(dotimes (v1-0 arg1)
(nop!)
(nop!)
(set! arg0 (cdr arg0))
)
(car arg0)
)
(defun ref& ((arg0 object) (arg1 int))
"Get the pair containing the n-th item in a linked list. No range checking."
(dotimes (v1-0 arg1)
(nop!)
(nop!)
(set! arg0 (cdr arg0))
)
(if (null? arg0)
#f
arg0
)
)
(defmethod length ((this pair))
(local-vars (v0-0 int))
(cond
((null? this)
(set! v0-0 0)
)
(else
(let ((v1-1 (cdr this)))
(set! v0-0 1)
(while (and (not (null? v1-1)) (pair? v1-1))
(+! v0-0 1)
(set! v1-1 (cdr v1-1))
)
)
)
)
v0-0
)
(defmethod asize-of ((this pair))
(the-as int (-> pair size))
)
(defun last ((arg0 object))
(let ((v0-0 arg0))
(while (not (null? (cdr v0-0)))
(nop!)
(nop!)
(set! v0-0 (cdr v0-0))
)
v0-0
)
)
(defun member ((arg0 object) (arg1 object))
(let ((v1-0 arg1))
(while (not (or (null? v1-0) (= (car v1-0) arg0)))
(set! v1-0 (cdr v1-0))
)
(if (not (null? v1-0))
v1-0
)
)
)
;; need to forward declare this, we haven't loaded the string library yet.
(define-extern name= (function object object symbol))
(defun nmember ((arg0 basic) (arg1 object))
(while (not (or (null? arg1) (name= (car arg1) arg0)))
(set! arg1 (cdr arg1))
)
(if (not (null? arg1))
arg1
)
)
(defun assoc ((arg0 object) (arg1 object))
(let ((v1-0 arg1))
(while (not (or (null? v1-0) (= (car (car v1-0)) arg0)))
(set! v1-0 (cdr v1-0))
)
(if (not (null? v1-0))
(car v1-0)
)
)
)
(defun assoce ((arg0 object) (arg1 object))
(let ((v1-0 arg1))
(while (not (or (null? v1-0) (= (car (car v1-0)) arg0) (= (car (car v1-0)) 'else)))
(set! v1-0 (cdr v1-0))
)
(if (not (null? v1-0))
(car v1-0)
)
)
)
(defun nassoc ((arg0 string) (arg1 object))
(while (not (or (null? arg1) (let ((a1-1 (car (car arg1))))
(if (pair? a1-1)
(nmember arg0 a1-1)
(name= a1-1 arg0)
)
)
)
)
(set! arg1 (cdr arg1))
)
(if (not (null? arg1))
(car arg1)
)
)
(defun nassoce ((arg0 string) (arg1 object))
(while (not (or (null? arg1) (let ((s4-0 (car (car arg1))))
(if (pair? s4-0)
(nmember arg0 s4-0)
(or (name= s4-0 arg0) (= s4-0 'else))
)
)
)
)
(set! arg1 (cdr arg1))
)
(if (not (null? arg1))
(car arg1)
)
)
(defun append! ((arg0 object) (arg1 object))
(cond
((null? arg0)
arg1
)
(else
(let ((v1-1 arg0))
(while (not (null? (cdr v1-1)))
(nop!)
(nop!)
(set! v1-1 (cdr v1-1))
)
(if (not (null? v1-1))
(set! (cdr v1-1) arg1)
)
)
arg0
)
)
)
(defun delete! ((arg0 object) (arg1 object))
(the-as pair (cond
((= arg0 (car arg1))
(cdr arg1)
)
(else
(let ((v1-1 arg1)
(a2-0 (cdr arg1))
)
(while (not (or (null? a2-0) (= (car a2-0) arg0)))
(set! v1-1 a2-0)
(set! a2-0 (cdr a2-0))
)
(if (not (null? a2-0))
(set! (cdr v1-1) (cdr a2-0))
)
)
arg1
)
)
)
)
(defun delete-car! ((arg0 object) (arg1 object))
(cond
((= arg0 (car (car arg1)))
(cdr arg1)
)
(else
(let ((v1-2 arg1)
(a2-0 (cdr arg1))
)
(while (not (or (null? a2-0) (= (car (car a2-0)) arg0)))
(set! v1-2 a2-0)
(set! a2-0 (cdr a2-0))
)
(if (not (null? a2-0))
(set! (cdr v1-2) (cdr a2-0))
)
)
arg1
)
)
)
(defun insert-cons! ((arg0 object) (arg1 object))
(let ((a3-0 (delete-car! (car arg0) arg1)))
(cons arg0 a3-0)
)
)
(defun sort ((arg0 pair) (arg1 (function object object object)))
(let ((s4-0 -1))
(while (nonzero? s4-0)
(set! s4-0 0)
(let ((s3-0 arg0))
(while (not (or (null? (cdr s3-0)) (not (pair? (cdr s3-0)))))
(let* ((s2-0 (car s3-0))
(s1-0 (car (cdr s3-0)))
(v1-1 (arg1 s2-0 s1-0))
)
(when (and (or (not v1-1) (> (the-as int v1-1) 0)) (!= v1-1 #t))
(+! s4-0 1)
(set! (car s3-0) s1-0)
(set! (car (cdr s3-0)) s2-0)
)
)
(set! s3-0 (cdr s3-0))
)
)
)
)
arg0
)
(defun string->symbol-debug ((arg0 string))
(let ((gp-0 *kernel-symbol-warnings*))
(set! *kernel-symbol-warnings* #f)
(let ((v0-0 (string->symbol arg0)))
(set! *kernel-symbol-warnings* gp-0)
v0-0
)
)
)
(defun symbol->string-debug ((arg0 symbol))
(let ((gp-0 *kernel-symbol-warnings*))
(set! *kernel-symbol-warnings* #f)
(let ((v0-0 (symbol->string arg0)))
(set! *kernel-symbol-warnings* gp-0)
v0-0
)
)
)
(defun symbol->hash ((arg0 symbol))
(the-as pointer arg0)
)
(defmethod new array ((allocation symbol) (type-to-make type) (arg0 type) (arg1 int))
(let ((v0-1 (object-new
allocation
type-to-make
(the-as int (+ (-> type-to-make size) (* arg1 (if (type-type? arg0 number)
(the-as int (-> arg0 size))
4
)
)
)
)
)
)
)
(set! (-> v0-1 allocated-length) arg1)
(set! (-> v0-1 length) arg1)
(set! (-> v0-1 content-type) arg0)
v0-1
)
)
(defmethod print ((this array))
(format #t "#(")
(cond
((type-type? (-> this content-type) integer)
(case (-> this content-type symbol)
(('int32)
(dotimes (s5-0 (-> this length))
(format
#t
(if (zero? s5-0)
"~D"
" ~D"
)
(-> (the-as (array int32) this) s5-0)
)
)
)
(('uint32)
(dotimes (s5-1 (-> this length))
(format
#t
(if (zero? s5-1)
"~D"
" ~D"
)
(-> (the-as (array uint32) this) s5-1)
)
)
)
(('int64)
(dotimes (s5-2 (-> this length))
(format
#t
(if (zero? s5-2)
"~D"
" ~D"
)
(-> (the-as (array int64) this) s5-2)
)
)
)
(('uint64)
(dotimes (s5-3 (-> this length))
(format
#t
(if (zero? s5-3)
"#x~X"
" #x~X"
)
(-> (the-as (array uint64) this) s5-3)
)
)
)
(('int8)
(dotimes (s5-4 (-> this length))
(format
#t
(if (zero? s5-4)
"~D"
" ~D"
)
(-> (the-as (array int8) this) s5-4)
)
)
)
(('uint8)
(dotimes (s5-5 (-> this length))
(format
#t
(if (zero? s5-5)
"~D"
" ~D"
)
(-> (the-as (array uint8) this) s5-5)
)
)
)
(('int16)
(dotimes (s5-6 (-> this length))
(format
#t
(if (zero? s5-6)
"~D"
" ~D"
)
(-> (the-as (array int16) this) s5-6)
)
)
)
(('uint16)
(dotimes (s5-7 (-> this length))
(format
#t
(if (zero? s5-7)
"~D"
" ~D"
)
(-> (the-as (array uint16) this) s5-7)
)
)
)
(('uint128 'int128)
(dotimes (s5-8 (-> this length))
(format
#t
(if (zero? s5-8)
"#x~X"
" #x~X"
)
(-> (the-as (array uint128) this) s5-8)
)
)
)
(else
(dotimes (s5-9 (-> this length))
(format
#t
(if (zero? s5-9)
"~D"
" ~D"
)
(-> (the-as (array int32) this) s5-9)
)
)
)
)
)
((= (-> this content-type) float)
(dotimes (s5-10 (-> this length))
(if (zero? s5-10)
(format #t "~f" (-> (the-as (array float) this) s5-10))
(format #t " ~f" (-> (the-as (array float) this) s5-10))
)
)
)
(else
(dotimes (s5-11 (-> this length))
(if (zero? s5-11)
(format #t "~A" (-> (the-as (array basic) this) s5-11))
(format #t " ~A" (-> (the-as (array basic) this) s5-11))
)
)
)
)
(format #t ")")
this
)
(defmethod inspect ((this array))
(format #t "[~8x] ~A~%" this (-> this type))
(format #t "~Tallocated-length: ~D~%" (-> this allocated-length))
(format #t "~Tlength: ~D~%" (-> this length))
(format #t "~Tcontent-type: ~A~%" (-> this content-type))
(format #t "~Tdata[~D]: @ #x~X~%" (-> this allocated-length) (-> this data))
(cond
((and (= (logand (the-as int (-> this content-type)) 7) 4) (type-type? (-> this content-type) integer))
(case (-> this content-type symbol)
(('int32)
(dotimes (s5-0 (-> this length))
(format #t "~T [~D] ~D~%" s5-0 (-> (the-as (array int32) this) s5-0))
)
)
(('uint32)
(dotimes (s5-1 (-> this length))
(format #t "~T [~D] ~D~%" s5-1 (-> (the-as (array uint32) this) s5-1))
)
)
(('int64)
(dotimes (s5-2 (-> this length))
(format #t "~T [~D] ~D~%" s5-2 (-> (the-as (array int64) this) s5-2))
)
)
(('uint64)
(dotimes (s5-3 (-> this length))
(format #t "~T [~D] #x~X~%" s5-3 (-> (the-as (array uint64) this) s5-3))
)
)
(('int8)
(dotimes (s5-4 (-> this length))
(format #t "~T [~D] ~D~%" s5-4 (-> (the-as (array int8) this) s5-4))
)
)
(('uint8)
(dotimes (s5-5 (-> this length))
(format #t "~T [~D] ~D~%" s5-5 (-> (the-as (array int8) this) s5-5))
)
)
(('int16)
(dotimes (s5-6 (-> this length))
(format #t "~T [~D] ~D~%" s5-6 (-> (the-as (array int16) this) s5-6))
)
)
(('uint16)
(dotimes (s5-7 (-> this length))
(format #t "~T [~D] ~D~%" s5-7 (-> (the-as (array uint16) this) s5-7))
)
)
(('int128 'uint128)
(dotimes (s5-8 (-> this length))
(format #t "~T [~D] #x~X~%" s5-8 (-> (the-as (array uint128) this) s5-8))
)
)
(else
(dotimes (s5-9 (-> this length))
(format #t "~T [~D] ~D~%" s5-9 (-> (the-as (array int32) this) s5-9))
)
)
)
)
((= (-> this content-type) float)
(dotimes (s5-10 (-> this length))
(format #t "~T [~D] ~f~%" s5-10 (-> (the-as (array float) this) s5-10))
)
)
(else
(dotimes (s5-11 (-> this length))
(format #t "~T [~D] ~A~%" s5-11 (-> (the-as (array basic) this) s5-11))
)
)
)
this
)
(defmethod length ((this array))
(-> this length)
)
(defmethod asize-of ((this array))
(the-as
int
(+ (-> this type size) (* (-> this allocated-length) (if (type-type? (-> this content-type) number)
(the-as int (-> this content-type size))
4
)
)
)
)
)
(defun mem-copy! ((arg0 pointer) (arg1 pointer) (arg2 int))
(let ((v0-0 arg0))
(dotimes (v1-0 arg2)
(set! (-> (the-as (pointer uint8) arg0)) (-> (the-as (pointer uint8) arg1)))
(&+! arg0 1)
(&+! arg1 1)
)
v0-0
)
)
(defun qmem-copy<-! ((arg0 pointer) (arg1 pointer) (arg2 int))
(let ((v0-0 arg0))
(countdown (v1-1 (/ (+ arg2 15) 16))
(set! (-> (the-as (pointer uint128) arg0)) (-> (the-as (pointer uint128) arg1)))
(&+! arg0 16)
(&+! arg1 16)
)
v0-0
)
)
(defun qmem-copy->! ((arg0 pointer) (arg1 pointer) (arg2 int))
(let ((v0-0 arg0))
(let* ((v1-1 (/ (+ arg2 15) 16))
(a0-1 (&+ arg0 (* v1-1 16)))
(a1-1 (&+ arg1 (* v1-1 16)))
)
(while (nonzero? v1-1)
(+! v1-1 -1)
(&+! a0-1 -16)
(&+! a1-1 -16)
(set! (-> (the-as (pointer uint128) a0-1)) (-> (the-as (pointer uint128) a1-1)))
)
)
v0-0
)
)
(defun qmem-clear! ((arg0 pointer) (arg1 int))
(let ((v0-0 arg0))
(dotimes (v1-0 arg1)
(set! (-> (the-as (pointer int128) arg0)) (the int128 0))
(&+! arg0 16)
)
v0-0
)
)
(defun mem-set32! ((arg0 pointer) (arg1 int) (arg2 int))
(let ((v0-0 arg0))
(dotimes (v1-0 arg1)
(set! (-> (the-as (pointer int32) arg0)) arg2)
(&+! arg0 4)
(nop!)
)
v0-0
)
)
(defun mem-or! ((arg0 pointer) (arg1 pointer) (arg2 int))
(let ((v0-0 arg0))
(dotimes (v1-0 arg2)
(logior! (-> (the-as (pointer uint8) arg0)) (-> (the-as (pointer uint8) arg1)))
(&+! arg0 1)
(&+! arg1 1)
)
v0-0
)
)
(defun quad-copy! ((dst pointer) (src pointer) (qwc int))
"Optimized memory copy. The original is pretty clever, but this isn't."
(qmem-copy<-! dst src (* qwc 16))
(none)
)
(deftype inline-array-class (basic)
((length int32)
(allocated-length int32)
(_data uint8 :dynamic :offset 16)
)
(:methods
(new (symbol type int) _type_)
(push-back (_type_ object) int)
(inline-array-class-method-10 () none)
(clear-1 (_type_) symbol)
(clear-2 (_type_) none)
(pop-front (_type_ int) pointer)
)
)
;; these specicializations exist so the push-back and pop-front methods can be hard-coded to have
;; a fixed sized store/load, rather than mem-cpy the size of the element.
;; This is kinda like a manual version of C++ templates (and perhaps was a attempt to use GOOS macros to do
;; something similar? or they just copy-pasted it, idk)
(deftype inline-array-class-uint64 (inline-array-class)
((data uint64 :dynamic :offset 16)
)
)
(deftype inline-array-class-uint32 (inline-array-class)
((data uint32 :dynamic :offset 16)
)
)
(defmethod new inline-array-class ((allocation symbol) (type-to-make type) (arg0 int))
(let ((v0-0 (object-new
allocation
type-to-make
(the-as int (+ (-> type-to-make size) (* (the-as uint arg0) (-> type-to-make heap-base))))
)
)
)
(when (nonzero? v0-0)
(set! (-> v0-0 length) arg0)
(set! (-> v0-0 allocated-length) arg0)
)
v0-0
)
)
(defmethod length ((this inline-array-class))
(-> this length)
)
(defmethod asize-of ((this inline-array-class))
(the-as int (+ (-> this type size) (* (-> this allocated-length) (the-as int (-> this type heap-base)))))
)
(defmethod push-back ((this inline-array-class) (arg0 object))
(let ((s5-0 (-> this length)))
(let ((a2-0 (-> this type heap-base)))
(mem-copy!
(the-as
pointer
(+ (+ (* s5-0 (the-as int (-> this type heap-base))) -4 (-> this type size)) (the-as int this))
)
(the-as pointer arg0)
(the-as int a2-0)
)
)
(+! (-> this length) 1)
s5-0
)
)
(defmethod push-back ((this inline-array-class-uint32) (arg0 object))
(let ((v0-0 (-> this length)))
(-> this type heap-base)
(set! (-> (the-as
(pointer int32)
(+ (+ (* v0-0 (the-as int (-> this type heap-base))) -4 (-> this type size)) (the-as int this))
)
)
(the-as int32 arg0)
)
(+! (-> this length) 1)
v0-0
)
)
(defmethod push-back ((this inline-array-class-uint64) (arg0 object))
(let ((v0-0 (-> this length)))
(-> this type heap-base)
(set! (-> (the-as
(pointer int64)
(+ (+ (* v0-0 (the-as int (-> this type heap-base))) -4 (-> this type size)) (the-as int this))
)
)
(the-as int64 arg0)
)
(+! (-> this length) 1)
v0-0
)
)
(defmethod pop-front ((this inline-array-class) (arg0 int))
(+! (-> this length) -1)
(+ (-> this length) -1)
(let ((a2-0 (-> this type heap-base))
(t9-0 mem-copy!)
(v1-10 (+ (+ (* (the-as uint arg0) (-> this type heap-base)) -4 (-> this type size)) (the-as uint this)))
(a1-4 (-> this type heap-base))
)
(t9-0
(the-as pointer v1-10)
(the-as pointer (+ (+ (* (-> this length) (the-as int a1-4)) -4 (-> this type size)) (the-as int this)))
(the-as int a2-0)
)
)
)
(defmethod pop-front ((this inline-array-class-uint64) (arg0 int))
(+! (-> this length) -1)
(+ (-> this length) -1)
(-> this type heap-base)
(let* ((v1-7 (-> this type heap-base))
(v0-0 (-> (the-as
(pointer uint64)
(+ (+ (* (-> this length) (the-as int v1-7)) -4 (-> this type size)) (the-as int this))
)
)
)
)
(set! (-> (the-as
(pointer uint64)
(+ (+ (* (the-as uint arg0) (-> this type heap-base)) -4 (-> this type size)) (the-as uint this))
)
)
v0-0
)
(the-as pointer v0-0)
)
)
(defmethod pop-front ((this inline-array-class-uint32) (arg0 int))
(+! (-> this length) -1)
(+ (-> this length) -1)
(-> this type heap-base)
(let* ((v1-7 (-> this type heap-base))
(v0-0 (-> (the-as
(pointer uint32)
(+ (+ (* (-> this length) (the-as int v1-7)) -4 (-> this type size)) (the-as int this))
)
)
)
)
(set! (-> (the-as
(pointer uint32)
(+ (+ (* (the-as uint arg0) (-> this type heap-base)) -4 (-> this type size)) (the-as uint this))
)
)
v0-0
)
(the-as pointer v0-0)
)
)
(defmethod clear-2 ((this inline-array-class))
(set! (-> this length) 0)
0
(none)
)
(defmethod clear-1 ((this inline-array-class))
(set! (-> this length) 0)
#t
)
(defun-recursive fact int ((arg0 int))
(if (= arg0 1)
1
(* arg0 (fact (+ arg0 -1)))
)
)
(define *print-column* (the-as binteger 0))
(defun print ((arg0 object))
((method-of-type (rtype-of arg0) print) arg0)
)
(defun printl ((arg0 object))
(let ((a0-1 arg0))
((method-of-type (rtype-of a0-1) print) a0-1)
)
(format #t "~%")
arg0
)
(defun inspect ((arg0 object))
((method-of-type (rtype-of arg0) inspect) arg0)
)
(defun-debug mem-print ((arg0 (pointer uint32)) (arg1 int))
(dotimes (s4-0 (/ arg1 4))
(format
0
"~X: ~X ~X ~X ~X~%"
(&-> arg0 (* s4-0 4))
(-> arg0 (* s4-0 4))
(-> arg0 (+ (* s4-0 4) 1))
(-> arg0 (+ (* s4-0 4) 2))
(-> arg0 (+ (* s4-0 4) 3))
)
)
#f
)
(define *trace-list* '())
(defun print-tree-bitmask ((arg0 int) (arg1 int))
(dotimes (s4-0 arg1)
(if (not (logtest? arg0 1))
(format #t " ")
(format #t "| ")
)
(set! arg0 (shr arg0 1))
)
#f
)
(defun breakpoint-range-set! ((arg0 uint) (arg1 uint) (arg2 uint))
"Sets some debug register (COP0 Debug, dab, dabm) to break on memory access.
This is not supported in OpenGOAL."
(break!)
)
#|
(defun valid? ((arg0 object) (arg1 type) (arg2 string) (arg3 symbol) (arg4 object))
(local-vars (v1-11 int) (v1-26 int) (v1-56 int) (v1-60 int) (s7-0 none))
(let ((v1-1
(and (>= (the-as uint arg0) (the-as uint __START-OF-TABLE__)) (< (the-as uint arg0) (the-as uint #x8000000)))
)
)
(cond
((not arg1)
(cond
((logtest? (the-as int arg0) 3)
(if arg2
(format arg4 "ERROR: object #x~X ~S is not a valid object (misaligned)~%" arg0 arg2)
)
#f
)
((not v1-1)
(if arg2
(format arg4 "ERROR: object #x~X ~S is not a valid object (bad address)~%" arg0 arg2)
)
#f
)
(else
#t
)
)
)
((and arg3 (not arg0))
#t
)
((= arg1 structure)
(cond
((logtest? (the-as int arg0) 15)
(if arg2
(format arg4 "ERROR: object #x~X ~S is not a valid object of type '~A' (misaligned)~%" arg0 arg2 arg1)
)
#f
)
((or (not v1-1) (begin
(let ((v1-10 #x8000))
(.daddu v1-11 v1-10 s7-0)
)
(< (the-as uint arg0) (the-as uint v1-11))
)
)
(if arg2
(format arg4 "ERROR: object #x~X ~S is not a valid object of type '~A' (bad address)~%" arg0 arg2 arg1)
)
#f
)
(else
#t
)
)
)
((= arg1 pair)
(cond
((not (pair? arg0))
(if arg2
(format arg4 "ERROR: object #x~X ~S is not a valid object of type '~A' (misaligned)~%" arg0 arg2 arg1)
)
#f
)
((not v1-1)
(if arg2
(format arg4 "ERROR: object #x~X ~S is not a valid object of type '~A' (bad address)~%" arg0 arg2 arg1)
)
#f
)
(else
#t
)
)
)
((= arg1 binteger)
(cond
((not (logtest? (the-as int arg0) 7))
#t
)
(else
(if arg2
(format arg4 "ERROR: object #x~X ~S is not a valid object of type '~A' (misaligned)~%" arg0 arg2 arg1)
)
#f
)
)
)
((or (= arg1 symbol) (= arg1 boolean))
(cond
((not (logtest? (the-as int arg0) 1))
(if arg2
(format arg4 "ERROR: object #x~X ~S is not a valid object of type '~A' (misaligned)~%" arg0 arg2 arg1)
)
#f
)
((or (not v1-1) (< (the-as int arg0) (the-as int __START-OF-TABLE__)) (begin
(let ((v1-25 #x8000))
(.daddu v1-26 v1-25 s7-0)
)
(>= (the-as int arg0) v1-26)
)
)
(if arg2
(format arg4 "ERROR: object #x~X ~S is not a valid object of type '~A' (bad address)~%" arg0 arg2 arg1)
)
#f
)
(else
#t
)
)
)
((!= (logand (the-as int arg0) 7) 4)
(if arg2
(format arg4 "ERROR: object #x~X ~S is not a valid object of type '~A' (misaligned)~%" arg0 arg2 arg1)
)
#f
)
((not v1-1)
(if arg2
(format arg4 "ERROR: object #x~X ~S is not a valid object of type '~A' (bad address)~%" arg0 arg2 arg1)
)
#f
)
((and (= arg1 type) (!= (rtype-of arg0) type))
(if arg2
(format
arg4
"ERROR: object #x~X ~S is not a valid object of type '~A' (invalid type #x~X)~%"
arg0
arg2
arg1
(rtype-of arg0)
)
)
#f
)
((and (!= arg1 type) (not (valid? (rtype-of arg0) type (the-as string #f) #t 0)))
(if arg2
(format
arg4
"ERROR: object #x~X ~S is not a valid object of type '~A' (invalid type #x~X)~%"
arg0
arg2
arg1
(rtype-of arg0)
)
)
#f
)
((not (type? arg0 arg1))
(if arg2
(format
arg4
"ERROR: object #x~X ~S is not a valid object of type '~A' (is type '~A' instead)~%"
arg0
arg2
arg1
(rtype-of arg0)
)
)
#f
)
((= arg1 symbol)
(let ((v1-55 #x8000))
(.daddu v1-56 v1-55 s7-0)
)
(cond
((>= (the-as uint arg0) (the-as uint v1-56))
(if arg2
(format
arg4
"ERROR: object #x~X ~S is not a valid object of type '~A' (not in symbol table)~%"
arg0
arg2
arg1
)
)
#f
)
(else
#t
)
)
)
((begin
(let ((v1-59 #x8000))
(.daddu v1-60 v1-59 s7-0)
)
(< (the-as uint arg0) (the-as uint v1-60))
)
(if arg2
(format
arg4
"ERROR: object #x~X ~S is not a valid object of type '~A' (inside symbol table)~%"
arg0
arg2
arg1
)
)
#f
)
(else
#t
)
)
)
)
|#