iw6-mod/deps/asmjit/db/aarch32.js
2024-02-27 01:34:37 -05:00

989 lines
27 KiB
JavaScript

// This file is part of AsmJit project <https://asmjit.com>
//
// See asmjit.h or LICENSE.md for license and copyright information
// SPDX-License-Identifier: Zlib
(function($scope, $as) {
"use strict";
function FAIL(msg) { throw new Error("[AArch32] " + msg); }
// Import
// ======
const base = $scope.base ? $scope.base : require("./base.js");
const exp = $scope.exp ? $scope.exp : require("./exp.js")
const hasOwn = Object.prototype.hasOwnProperty;
const dict = base.dict;
const NONE = base.NONE;
const Parsing = base.Parsing;
const MapUtils = base.MapUtils;
// Export
// ======
const arm = $scope[$as] = dict();
// Database
// ========
arm.dbName = "isa_aarch32.json";
// asmdb.aarch32.Utils
// ===================
// Can be used to assign the number of bits each part of the opcode occupies.
// NOTE: THUMB instructions that use halfword must always specify the width
// of all registers as many instructions accept only LO (r0..r7) registers.
const FieldInfo = {
"P" : { "bits": 1 },
"U" : { "bits": 1 },
"W" : { "bits": 1 },
"S" : { "bits": 1 },
"R" : { "bits": 1 },
"H" : { "bits": 1 },
"isFp32": { "bits": 1 },
"F" : { "bits": 1 },
"align" : { "bits": 2 },
"ja" : { "bits": 1 },
"jb" : { "bits": 1 },
"op" : { "bits": 1 }, // TODO: This should be fixed.
"sz" : { "bits": 2 },
"sop" : { "bits": 2 },
"cond" : { "bits": 4 },
"cmode" : { "bits": 4 },
"Cn" : { "bits": 4 },
"Cm" : { "bits": 4 },
"Rd" : { "bits": 4, "read": false, "write": true },
"Rd2" : { "bits": 4, "read": false, "write": true },
"RdLo" : { "bits": 4, "read": false, "write": true },
"RdHi" : { "bits": 4, "read": false, "write": true },
"RdList": { "bits": 4, "read": false, "write": true , "list": true },
"Rx" : { "bits": 4, "read": true , "write": true },
"RxLo" : { "bits": 4, "read": true , "write": true },
"RxHi" : { "bits": 4, "read": true , "write": true },
"Rn" : { "bits": 4, "read": true , "write": false },
"Rm" : { "bits": 4, "read": true , "write": false },
"Ra" : { "bits": 4, "read": true , "write": false },
"Rs" : { "bits": 4, "read": true , "write": false },
"Rs2" : { "bits": 4, "read": true , "write": false },
"RsList": { "bits": 4, "read": true , "write": false , "list": true },
"Sd" : { "bits": 4, "read": false, "write": true },
"Sd2" : { "bits": 4, "read": false, "write": true },
"SdList": { "bits": 4, "read": false, "write": true , "list": true },
"Sx" : { "bits": 4, "read": true , "write": true },
"Sn" : { "bits": 4, "read": true , "write": false },
"Sm" : { "bits": 4, "read": true , "write": false },
"Ss" : { "bits": 4, "read": true , "write": false },
"Ss2" : { "bits": 4, "read": true , "write": false },
"SsList": { "bits": 4, "read": true , "write": false , "list": true },
"Dd" : { "bits": 4, "read": false, "write": true },
"Dd2" : { "bits": 4, "read": false, "write": true },
"Dd3" : { "bits": 4, "read": false, "write": true },
"Dd4" : { "bits": 4, "read": false, "write": true },
"DdList": { "bits": 4, "read": false, "write": true , "list": true },
"Dx" : { "bits": 4, "read": true , "write": true },
"Dx2" : { "bits": 4, "read": true , "write": true },
"Dn" : { "bits": 4, "read": true , "write": false },
"Dn2" : { "bits": 4, "read": true , "write": false },
"Dn3" : { "bits": 4, "read": true , "write": false },
"Dn4" : { "bits": 4, "read": true , "write": false },
"Dm" : { "bits": 4, "read": true , "write": false },
"Ds" : { "bits": 4, "read": true , "write": false },
"Ds2" : { "bits": 4, "read": true , "write": false },
"Ds3" : { "bits": 4, "read": true , "write": false },
"Ds4" : { "bits": 4, "read": true , "write": false },
"DsList": { "bits": 4, "read": true , "write": false , "list": true },
"Vd" : { "bits": 4, "read": false, "write": true },
"Vd2" : { "bits": 4, "read": false, "write": true },
"Vd3" : { "bits": 4, "read": false, "write": true },
"Vd4" : { "bits": 4, "read": false, "write": true },
"Vx" : { "bits": 4, "read": true , "write": true },
"Vx2" : { "bits": 4, "read": true , "write": true },
"Vn" : { "bits": 4, "read": true , "write": false },
"Vm" : { "bits": 4, "read": true , "write": false },
"Vs" : { "bits": 4, "read": true , "write": false },
"Vs2" : { "bits": 4, "read": true , "write": false },
};
arm.FieldInfo = FieldInfo;
// ARM utilities.
class Utils {
static splitInstructionSignature(s) {
const names = s.match(/^[\w\|]+/)[0];
s = s.substring(names.length);
const opOffset = s.indexOf(" ")
const suffix = s.substring(0, opOffset).trim();
const operands = opOffset === -1 ? "" : s.substring(opOffset + 1).trim();
return {
names: names.split("|").map((base)=>{ return base + suffix}),
operands: operands
}
}
static parseShiftOp(s) {
const m = s.match(/^(sop|lsl_or_asr|lsl|lsr|asr|ror|rrx) /);
return m ? m[1] : "";
}
static parseDtArray(s) {
const out = [];
if (!s) return out;
const arr = s.split("|");
let i;
// First expand anything between X-Y, for example s8-32 would be expanded to [s8, s16, s32].
for (i = 0; i < arr.length; i++) {
const v = arr[i];
if (v.indexOf("-") !== -1) {
const m = /^([A-Za-z]+)?(\d+)-(\d+)$/.exec(v);
if (!m)
FAIL(`Couldn't parse '${s}' data-type`);
let type = m[1] || "";
let size = parseInt(m[2], 10);
let last = parseInt(m[3], 10);
if (!Utils.checkDtSize(size) || !Utils.checkDtSize(last))
FAIL(`Invalid dt width in '${s}'`);
do {
out.push(type + String(size));
size <<= 1;
} while (size <= last);
}
else {
out.push(v);
}
}
// Now expand 'x' to 's' and 'u'.
i = 0;
while (i < out.length) {
const v = out[i];
if (v.startsWith("x")) {
out.splice(i, 1, "s" + v.substr(1), "u" + v.substr(1));
i += 2;
}
else {
i++;
}
}
return out;
}
static checkDtSize(x) {
return x === 8 || x === 16 || x === 32 || x === 64;
}
}
arm.Utils = Utils;
function normalizeNumber(n) {
return n < 0 ? 0x100000000 + n : n;
}
function decomposeOperand(s) {
const elementSuffix = "[#i]";
let element = null;
let consecutive = 0;
let userRegList = false;
if (s.endsWith("^")) {
userRegList = true;
s = s.substring(0, s.length - 1);
}
if (s.endsWith(elementSuffix)) {
element = "#i";
s = s.substring(0, s.length - elementSuffix.length);
}
if (s.endsWith("++")) {
consecutive = 2;
s = s.substr(0, s.length - 2);
}
else if (s.endsWith("+")) {
consecutive = 1;
s = s.substr(0, s.length - 1);
}
let m = s.match(/==|\!=|>=|<=|\*/);
let restrict = false;
if (m) {
restrict = s.substr(m.index);
s = s.substr(0, m.index);
}
return {
data : s,
element : element,
restrict: restrict,
consecutive: consecutive,
userRegList: true
};
}
function splitOpcodeFields(s) {
const arr = s.split("|");
const out = [];
for (let i = 0; i < arr.length; i++) {
const val = arr[i];
if (/^[0-1A-Z]{2,}$/.test(val))
out.push.apply(out, val.match(/([0-1]+)|[A-Z]/g));
else
out.push(val);
}
return out.map((field) => { return field.trim(); });
}
// asmdb.aarch32.Operand
// =====================
// ARM operand.
class Operand extends base.Operand {
constructor(def) {
super(def);
}
hasMemModes() {
return Object.keys(this.memModes).length !== 0;
}
get name() {
switch (this.type) {
case "reg": return this.reg;
case "mem": return this.mem;
case "imm": return this.imm;
case "rel": return this.rel;
default : return "";
}
}
get scale() {
if (this.restrict && this.restrict.startsWith("*"))
return parseInt(this.restrict.substr(1), 10);
else
return 0;
}
isRelative() {
if (this.type === "imm")
return this.name === "relA" || this.name === "relS" || this.name === "relZ";
else
return false;
}
}
arm.Operand = Operand;
// asmdb.aarch32.Instruction
// =========================
function patternFromOperand(key) {
return key;
// return key.replace(/\b(?:[RVDS](?:d|s|n|m|x|x2))\b/, "R");
}
// Rewrite a memory operand expression (either base or index) to a simplified one, which is okay
// to be generated as C++ expression. In general, we want to simplify != to a more favorable code.
function simplifyMemoryExpression(e) {
if (e.type === "binary" && e.op === "!=" && e.right.type === "var") {
// Rewrite A != PC to A < PC
if (e.right.name === "PC") { e.op = "<"; }
// Rewrite A != HI to A < 8
if (e.right.name === "HI") { e.op = "<"; e.right = exp.Imm(8); }
// Rewrite A != XX to A < SP || A == LR
if (e.right.name === "XX") {
return exp.Or(exp.Lt(e.left, exp.Var("SP")),
exp.Eq(e.left.clone(), exp.Var("LR")));
}
}
return e;
}
// ARM instruction.
class Instruction extends base.Instruction {
constructor(db, data) {
super(db, data);
// name, operands, encoding, opcode, metadata
const encoding = hasOwn.call(data, "a32") ? "a32" :
hasOwn.call(data, "t32") ? "t32" :
hasOwn.call(data, "t16") ? "t16" : "";
this.name = data.name;
this.it = dict(); // THUMB's 'it' flags.
this.apsr = dict();
this.fpcsr = dict();
this.calc = dict(); // Calculations required to generate opcode.
this.immCond = []; // Immediate value conditions (array of conditions).
this.s = null; // Instruction S flag (null, true, or false).
this.dt = []; // Instruction <dt> field (first data-type).
this.dt2 = []; // Instruction <dt2> field (second data-type).
this.availableFrom = ""; // Instruction supported by from ARMv???.
this.availableUntil = ""; // Instruction supported by until ARMv???.
this._assignOperands(data.operands);
this._assignEncoding(encoding.toUpperCase());
this._assignOpcode(data[encoding]);
for (let k in data) {
if (k === "name" || k == encoding || k === "operands")
continue;
this._assignAttribute(k, data[k]);
}
this._updateOperandsInfo();
this._postProcess();
}
_assignAttribute(key, value) {
switch (key) {
case "it":
for (let it of value.split(" "))
this.it[it.trim()] = true;
break;
case "apsr":
case "fpcsr":
this._assignAttributeKeyValue(key, value);
break;
case "imm":
this.imm = exp.parse(value);
break;
case "calc":
for (let calcKey in value)
this.calc[calcKey] = exp.parse(value[calcKey]);
break;
default:
super._assignAttribute(key, value);
}
}
_assignAttributeKeyValue(name, content) {
const attributes = content.trim().split(/[ ]+/);
for (let i = 0; i < attributes.length; i++) {
const attr = attributes[i].trim();
if (!attr)
continue;
const eq = attr.indexOf("=");
let key = eq === -1 ? attr : attr.substr(0, eq);
let val = eq === -1 ? true : attr.substr(eq + 1);
// If the key contains "|" it's a definition of multiple attributes.
if (key.indexOf("|") !== -1) {
const dot = key.indexOf(".");
const base = dot === -1 ? "" : key.substr(0, dot + 1);
const keys = (dot === -1 ? key : key.substr(dot + 1)).split("|");
for (let j = 0; j < keys.length; j++)
this[name][base + keys[j]] = val;
}
else {
this[name][key] = val;
}
}
}
_assignEncoding(s) {
this.arch = s === "T16" || s === "T32" ? "THUMB" : "ARM";
this.encoding = s;
}
_assignOperands(s) {
if (!s) return;
// Split into individual operands and push them to `operands`.
const arr = base.Parsing.splitOperands(s);
for (let i = 0; i < arr.length; i++) {
let def = arr[i];
const op = new Operand(def);
const consecutive = def.match(/(\d+)x\{(.*)\}([+][+]?)/);
if (consecutive)
def = consecutive[2];
op.sign = false;
op.element = null;
op.shiftOp = "";
op.shiftImm = null;
// Handle {optional} attribute.
if (Parsing.isOptional(def)) {
op.optional = true;
def = Parsing.clearOptional(def);
}
// Handle commutativity <-> symbol.
if (Parsing.isCommutative(def)) {
op.commutative = true;
def = Parsing.clearCommutative(def);
}
// Handle shift operation.
let shiftOp = Utils.parseShiftOp(def);
if (shiftOp) {
op.shiftOp = shiftOp;
def = def.substring(shiftOp.length + 1);
}
if (def.startsWith("[")) {
op.type = "mem";
op.memModes = dict();
op.base = null;
op.index = null;
op.offset = null;
let mem = def;
let didHaveMemMode = false;
for (;;) {
if (mem.endsWith("!")) {
op.memModes.preIndex = true;
mem = mem.substring(0, mem.length - 1);
didHaveMemMode = true;
break;
}
if (mem.endsWith("@")) {
op.memModes.postIndex = true;
mem = mem.substring(0, mem.length - 1);
didHaveMemMode = true;
break;
}
if (mem.endsWith("{!}")) {
op.memModes.offset = true;
op.memModes.preIndex = true;
mem = mem.substring(0, mem.length - 3);
didHaveMemMode = true;
continue;
}
if (mem.endsWith("{@}")) {
op.memModes.offset = true;
op.memModes.postIndex = true;
mem = mem.substring(0, mem.length - 3);
didHaveMemMode = true;
continue;
}
break;
}
if (!mem.endsWith("]"))
FAIL(`Unknown memory operand '${mem}' in '${def}'`);
let parts = mem.substring(1, mem.length - 1).split(",").map(function(s) { return s.trim() });
for (let i = 0; i < parts.length; i++) {
const part = parts[i];
const m = part.match(/^\{(lsl|sop)\s+#(\w+)\}$/);
if (m) {
op.shiftOp = m[1];
op.shiftImm = m[2];
continue;
}
if (i === 0) {
op.base = dict();
op.base.field = part;
op.base.exp = null;
const m = part.match(/^([A-Za-z]\w*)/);
if (m.length < part.length) {
op.base.exp = simplifyMemoryExpression(exp.parse(part));
op.base.field = m[1];
}
}
else if (part.startsWith("#")) {
let p = part.substring(1);
let u = "1";
let alwaysNegative = false;
let offExp = null;
let offMul = 1;
if (p.startsWith("+/-")) {
u = "U";
p = p.substring(3);
}
if (p.startsWith("-")) {
alwaysNegative = false;
p = p.substring(1);
}
const expMatch = p.match(/^([A-Za-z]\w*)==/);
if (expMatch) {
offExp = exp.parse(p);
p = p.substr(0, expMatch[1].length);
}
const mulMatch = p.match(/\s*\*\s*(\d+)$/);
if (mulMatch) {
offMul = parseInt(mulMatch[1]);
p = p.substr(0, mulMatch.index);
}
op.offset = dict();
op.offset.field = p;
op.offset.u = u;
op.offset.exp = offExp;
op.offset.mul = offMul;
op.offset.negative = alwaysNegative;
}
else {
let p = part;
let u = "1";
if (p.startsWith("+/-")) {
u = "U";
p = p.substring(3);
}
op.index = dict();
op.index.field = p;
op.index.u = u;
const m = p.match(/^([A-Za-z]\w*)/);
if (m.length < p.length) {
op.index.exp = simplifyMemoryExpression(exp.parse(p));
op.index.field = m[1];
}
}
}
if (!op.hasMemModes() && (op.offset || op.index))
op.memModes.offset = true;
op.mem = mem;
}
else if (def.startsWith("#")) {
const obj = decomposeOperand(def);
const imm = obj.data;
op.type = "imm";
op.imm = imm.substring(1); // Immediate operand name.
op.immSize = 0; // Immediate size in bits.
op.restrict = obj.restrict; // Immediate condition.
}
else {
const obj = decomposeOperand(def);
const reg = obj.data;
const type = reg.substr(0, 1).toLowerCase();
const info = FieldInfo[reg];
if (!info)
FAIL(`Unknown register operand '${reg}' in '${def}'`);
op.type = info.list ? "reg-list" : "reg";
op.reg = reg; // Register name (as specified in manual).
op.regType = type; // Register type.
op.regList = !!info.list; // Register list.
op.read = info.read; // Register access (read).
op.write = info.write; // Register access (write).
op.element = obj.element; // Register element[] access.
op.restrict = obj.restrict; // Register condition.
op.consecutive = obj.consecutive;
}
this.operands.push(op);
if (consecutive) {
const count = parseInt(consecutive[1]);
for (let n = 2; n <= count; n++) {
const def = consecutive[3].replace(op.reg, op.reg + n);
const opN = new Operand(def);
opN.type = "reg";
opN.reg = op.reg + n;
opN.regType = op.regType;
opN.read = op.read;
opN.write = op.write;
opN.element = op.element;
opN.consecutive = consecutive[3].length;
this.operands.push(opN);
}
}
}
}
_assignOpcode(s) {
this.opcodeString = s;
let opcodeIndex = 0;
let opcodeValue = 0;
let patternMap = {};
// Split opcode into its fields.
const arr = splitOpcodeFields(s);
const dup = dict();
const fields = this.fields;
const pattern = [];
const fieldMap = Object.create(null);
for (let field of arr) {
fieldMap[field] = true;
}
for (let i = arr.length - 1; i >= 0; i--) {
let key = arr[i];
let m;
if (/^[0-1]+$/.test(key)) {
// This part of the opcode is RAW bits, they contribute to the `opcodeValue`.
opcodeValue |= parseInt(key, 2) << opcodeIndex;
opcodeIndex += key.length;
pattern.unshift("_".repeat(key.length));
}
else {
pattern.unshift(patternFromOperand(key));
patternMap[patternFromOperand(key)] = true;
let size = 0;
let mask = 0;
let bits = 0;
let from = -1;
let lbit = key.startsWith("'");
let hbit = key.endsWith("'");
if ((m = key.match(/\[\s*(\d+)\s*\:\s*(\d+)\s*\]$/))) {
const a = parseInt(m[1], 10);
const b = parseInt(m[2], 10);
if (a < b)
FAIL(`Invalid bit range '${key}' in opcode '${s}'`);
from = b;
size = a - b + 1;
mask = ((1 << size) - 1) << b;
key = key.substr(0, m.index).trim();
}
else if ((m = key.match(/\[\s*(\d+)\s*\]$/))) {
from = parseInt(m[1], 10);
size = 1;
mask = 1 << from;
key = key.substr(0, m.index).trim();
}
else if ((m = key.match(/\:\s*(\d+)$/))) {
size = parseInt(m[1], 10);
bits = size;
key = key.substr(0, m.index).trim();
}
else {
const key_ = key;
if (lbit || hbit) {
from = 0;
if (lbit && hbit)
FAIL(`Couldn't recognize the format of '${key}' in opcode '${s}'`);
if (lbit) {
key = key.substring(1);
}
if (hbit) {
key = key.substring(0, key.length - 1);
from = 4;
}
size = 1;
}
else if (FieldInfo[key]) {
// Sizes of some standard fields can be assigned automatically.
size = FieldInfo[key].bits;
bits = size;
if (fieldMap["'" + key])
from = 1;
}
else if (key.length === 1) {
// Sizes of one-letter fields (like 'U', 'F', etc...) is 1 if not specified.
size = 1;
bits = 1;
}
else {
FAIL(`Couldn't recognize the size of '${key}' in opcode '${s}'`);
}
if (dup[key_] === true) {
bits = 0;
lbit = 0;
hbit = 0;
}
else {
dup[key_] = true;
}
}
let field = fields[key];
if (!field) {
field = {
index: opcodeIndex,
values: [],
bits: 0,
mask: 0,
lbit: 0,
hbit: 0 // Only 1 if a single quote (') was used.
}
fields[key] = field;
}
if (from === -1)
from = field.bits;
field.mask |= mask;
field.bits += bits;
field.lbit += lbit;
field.hbit += hbit;
field.values.push({
index: opcodeIndex,
from: from,
size: size
});
opcodeIndex += size;
}
}
for (let i = 0; i < pattern.length; i++)
if (pattern[i] === 'U')
pattern[i] = "_";
// Normalize all fields.
for (let key in fields) {
const field = fields[key];
// There should be either number of bits or mask, there shouldn't be both.
if (!field.bits && !field.mask)
FAIL(`Part '${key}' of opcode '${s}' contains neither size nor mask`);
if (field.bits && field.mask)
FAIL(`Part '${key}' of opcode '${s}' contains both size and mask`);
if (field.bits)
field.mask = ((1 << field.bits) - 1);
else if (field.mask)
field.bits = 32 - Math.clz32(field.mask);
// Handle field that used single-quote.
if (field.lbit) {
field.mask = (field.mask << 1) | 0x1;
field.bits++;
}
if (field.hbit) {
field.mask |= 1 << field.bits;
field.bits++;
}
const op = this.operandByName(key);
if (op && op.isImm())
op.immSize = field.bits;
}
// Check if the opcode value has the correct number of bits (either 16 or 32).
if (opcodeIndex !== 16 && opcodeIndex !== 32)
FAIL(`The number of bits '${opcodeIndex}' used by the opcode '${s}' doesn't match 16 or 32`);
this.opcodeValue = normalizeNumber(opcodeValue);
}
_assignSpecificAttribute(key, value) {
// Support ARMv?+ and ARMv?- attributes.
if (/^ARM\w+[+-]$/.test(key)) {
const armv = key.substr(0, key.length - 1);
const sign = key.substr(key.length - 1);
if (sign === "+")
this.availableFrom = armv;
else
this.availableUntil = armv;
return true;
}
switch (key) {
case "it": {
const values = String(value).split("|");
for (let i = 0; i < values.length; i++) {
const value = values[i];
switch (value) {
case "in" : this.it.IN = true; break;
case "out" : this.it.OUT = true; break;
case "any" : this.it.IN = true;
this.it.OUT = true; break;
case "last": this.it.LAST = true; break;
case "def" : this.it.DEF = true; break;
default:
this.report(`${this.name}: Unhandled IT value '${value}'`);
}
}
return true;
}
}
return false;
}
// ARM instruction name could consist of name and optional type information
// specified as <dt> and <dt2> in ARM manuals. We parse this information and
// store it to `dt` and `dt2` fields. In addition, we also recognize the `S`
// suffix (uppercase) of the instruction and mark it as `S` instruction. After
// that the name is normalized to be lowercased.
//
// This functionality requires all the instruction data to be already set-up.
_postProcess() {
let s = this.name;
// Parse <dt> and <dt2> fields.
if (s.indexOf(".") !== -1) {
const parts = s.split(".");
this.name = parts[0];
if (parts.length > 3)
FAIL(`Couldn't recognize name attributes of '${s}'`);
for (let i = 1; i < parts.length; i++) {
const dt = Utils.parseDtArray(parts[i]);
if (i === 1)
this.dt = dt;
else
this.dt2 = dt;
}
}
// Recognize "S" suffix.
if (this.name.endsWith("S")) {
this.name = this.name.substr(0, this.name.length - 1) + "s";
this.s = true;
}
this.dt.sort();
}
operandByName(name) {
const operands = this.operands;
for (let i = 0; i < operands.length; i++) {
const op = operands[i];
if (op.name === name)
return op;
}
return null;
}
}
arm.Instruction = Instruction;
// asmdb.aarch32.ISA
// =================
function mergeGroupData(data, group) {
for (let k in group) {
switch (k) {
case "group":
case "data":
break;
case "ext":
data[k] = (data[k] ? data[k] + " " : "") + group[k];
break;
default:
if (data[k] === undefined)
data[k] = group[k]
break;
}
}
}
class ISA extends base.ISA {
constructor(data) {
super(data);
this.addData(data || NONE);
}
_addInstructions(groups) {
for (let group of groups) {
for (let inst of group.data) {
const sgn = Utils.splitInstructionSignature(inst.inst);
const data = MapUtils.cloneExcept(inst, { "inst": true });
mergeGroupData(data, group)
for (let j = 0; j < sgn.names.length; j++) {
data.name = sgn.names[j];
data.operands = sgn.operands;
if (j > 0)
data.aliasOf = sgn.names[0];
this._addInstruction(new Instruction(this, data));
}
}
}
return this;
}
/*
_addInstructions(instructions) {
for (let i = 0; i < instructions.length; i++) {
const obj = instructions[i];
const sgn = obj.inst;
const sep = sgn.indexOf(" ");
const names = (sep !== -1 ? sgn.substring(0, sep) : sgn).trim().split("/");
const operands = sep !== -1 ? sgn.substring(sep + 1) : "";
const encoding = hasOwn.call(obj, "a32") ? "a32" :
hasOwn.call(obj, "t32") ? "t32" :
hasOwn.call(obj, "t16") ? "t16" : "";
if (!encoding)
FAIL(`Instruction ${names.join("/")} doesn't encoding, it must provide either a32, t32, or t16 field`);
for (let j = 0; j < names.length; j++) {
const inst = new Instruction(this, names[j], operands, encoding.toUpperCase(), obj[encoding], obj);
if (j > 0)
inst.aliasOf = names[0];
this._addInstruction(inst);
}
}
return this;
}
*/
}
arm.ISA = ISA;
}).apply(this, typeof module === "object" && module && module.exports
? [module, "exports"] : [this.asmdb || (this.asmdb = {}), "aarch32"]);