void LIRGenerator::do_CheckCast(CheckCast* x) {
LIRItem obj(x->obj(), this);
CodeEmitInfo* patching_info = NULL;
if (!x->klass()->is_loaded() || (PatchALot && !x->is_incompatible_class_change_check())) {
// must do this before locking the destination register as an oop register,
// and before the obj is loaded (the latter is for deoptimization)
patching_info = state_for(x, x->state_before());
}
obj.load_item();
// info for exceptions
CodeEmitInfo* info_for_exception = state_for(x);
CodeStub* stub;
if (x->is_incompatible_class_change_check()) {
assert(patching_info == NULL, "can't patch this");
stub = new SimpleExceptionStub(Runtime1::throw_incompatible_class_change_error_id, LIR_OprFact::illegalOpr, info_for_exception);
} else {
stub = new SimpleExceptionStub(Runtime1::throw_class_cast_exception_id, obj.result(), info_for_exception);
}
LIR_Opr reg = rlock_result(x);
LIR_Opr tmp3 = LIR_OprFact::illegalOpr;
if (!x->klass()->is_loaded() || UseCompressedOops) {
tmp3 = new_register(objectType);
}
__ checkcast(reg, obj.result(), x->klass(),
new_register(objectType), new_register(objectType), tmp3,
x->direct_compare(), info_for_exception, patching_info, stub,
x->profiled_method(), x->profiled_bci());
}
trivium_keystream *new_keystream()
{
trivium_keystream *ks;
if ( (ks = (trivium_keystream *) calloc(1, sizeof(trivium_keystream))) == NULL)
return NULL;
/* A:93,B:84,C:111 */
if ((ks->srA = new_register(93)) == NULL) {
free(ks);
return NULL;
}
if ( (ks->srB = new_register(84)) == NULL ) {
del_register(ks->srA);
free(ks);
return NULL;
}
if ( (ks->srC = new_register(111)) == NULL ) {
del_register(ks->srB);
del_register(ks->srA);
free(ks);
return NULL;
}
return ks;
}
void LIRGenerator::put_Object_unsafe(LIR_Opr src, LIR_Opr offset, LIR_Opr data,
BasicType type, bool is_volatile) {
if (is_volatile && type == T_LONG) {
LIR_Address* addr = new LIR_Address(src, offset, T_DOUBLE);
LIR_Opr tmp = new_register(T_DOUBLE);
LIR_Opr spill = new_register(T_DOUBLE);
set_vreg_flag(spill, must_start_in_memory);
__ move(data, spill);
__ move(spill, tmp);
__ move(tmp, addr);
} else {
LIR_Address* addr = new LIR_Address(src, offset, type);
bool is_obj = (type == T_ARRAY || type == T_OBJECT);
if (is_obj) {
// Do the pre-write barrier, if any.
pre_barrier(LIR_OprFact::address(addr), false, NULL);
__ move(data, addr);
assert(src->is_register(), "must be register");
// Seems to be a precise address
post_barrier(LIR_OprFact::address(addr), data);
} else {
__ move(data, addr);
}
}
}
void LIRGenerator::do_CheckCast(CheckCast* x) {
// all values are spilled
spill_values_on_stack(x->state());
LIRItem obj(x->obj(), this);
obj.set_destroys_register();
CodeEmitInfo* patching_info = NULL;
if (!x->klass()->is_loaded() || PatchALot) {
// must do this before locking the destination register as an oop register,
// and before the obj is loaded (the latter is for deoptimization)
patching_info = state_for(x, x->state_before());
}
obj.load_item();
RInfo in_reg = obj.result()->rinfo();
// info for exceptions
CodeEmitInfo* info_for_exception = state_for(x, x->state()->copy_locks());
RInfo reg = rlock_result(x)->rinfo();
RInfo tmp1 = new_register(objectType)->rinfo();
RInfo tmp2 = new_register(objectType)->rinfo();
if (patching_info != NULL) {
patching_info->add_register_oop(in_reg);
}
emit()->checkcast_op(LIR_OprFact::rinfo(reg, T_OBJECT), obj.result(), x->klass(), tmp1, tmp2, x->direct_compare(), info_for_exception, patching_info);
}
void LIRGenerator::do_MonitorEnter(MonitorEnter* x) {
assert(x->is_pinned(),"");
LIRItem obj(x->obj(), this);
obj.load_item();
set_no_result(x);
// "lock" stores the address of the monitor stack slot, so this is not an oop
LIR_Opr lock = new_register(T_INT);
// Need a scratch register for biased locking on x86
LIR_Opr scratch = LIR_OprFact::illegalOpr;
if (UseBiasedLocking) {
scratch = new_register(T_INT);
}
CodeEmitInfo* info_for_exception = NULL;
if (x->needs_null_check()) {
info_for_exception = state_for(x);
}
// this CodeEmitInfo must not have the xhandlers because here the
// object is already locked (xhandlers expect object to be unlocked)
CodeEmitInfo* info = state_for(x, x->state(), true);
monitor_enter(obj.result(), lock, syncTempOpr(), scratch,
x->monitor_no(), info_for_exception, info);
}
// returns a register suitable for doing pointer math
LIR_Opr new_pointer_register() {
#ifdef _LP64
return new_register(T_LONG);
#else
return new_register(T_INT);
#endif
}
void LIRGenerator::do_MonitorExit(MonitorExit* x) {
assert(x->is_pinned(),"");
LIRItem obj(x->obj(), this);
obj.dont_load_item();
LIR_Opr lock = new_register(T_INT);
LIR_Opr obj_temp = new_register(T_INT);
set_no_result(x);
monitor_exit(obj_temp, lock, syncTempOpr(), LIR_OprFact::illegalOpr, x->monitor_no());
}
void LIRGenerator::do_MonitorExit(MonitorExit* x) {
spill_values_on_stack(x->state());
assert(x->is_root(),"");
LIRItem obj(x->obj(), this);
obj.dont_load_item();
RInfo lock = new_register(T_INT)->rinfo();
RInfo obj_temp = new_register(T_INT)->rinfo();
set_no_result(x);
emit()->monitor_exit(obj_temp, lock, syncTempRInfo(), x->monitor_no());
}
void LIRGenerator::increment_counter(LIR_Address* addr, int step) {
LIR_Opr temp = new_register(T_INT);
__ move(addr, temp);
LIR_Opr c = LIR_OprFact::intConst(step);
if (Assembler::is_simm13(step)) {
__ add(temp, c, temp);
} else {
LIR_Opr temp2 = new_register(T_INT);
__ move(c, temp2);
__ add(temp, temp2, temp);
}
__ move(temp, addr);
}
void LIRGenerator::get_Object_unsafe(LIR_Opr dst, LIR_Opr src, LIR_Opr offset,
BasicType type, bool is_volatile) {
if (is_volatile && type == T_LONG) {
LIR_Address* addr = new LIR_Address(src, offset, T_DOUBLE);
LIR_Opr tmp = new_register(T_DOUBLE);
__ load(addr, tmp);
LIR_Opr spill = new_register(T_LONG);
set_vreg_flag(spill, must_start_in_memory);
__ move(tmp, spill);
__ move(spill, dst);
} else {
LIR_Address* addr = new LIR_Address(src, offset, type);
__ load(addr, dst);
}
}
LIR_Address* LIRGenerator::emit_array_address(LIR_Opr array_opr, LIR_Opr index_opr,
BasicType type, bool needs_card_mark) {
int offset_in_bytes = arrayOopDesc::base_offset_in_bytes(type);
LIR_Address* addr;
if (index_opr->is_constant()) {
int elem_size = type2aelembytes(type);
addr = new LIR_Address(array_opr,
offset_in_bytes + index_opr->as_jint() * elem_size, type);
} else {
#ifdef _LP64
if (index_opr->type() == T_INT) {
LIR_Opr tmp = new_register(T_LONG);
__ convert(Bytecodes::_i2l, index_opr, tmp);
index_opr = tmp;
}
#endif // _LP64
addr = new LIR_Address(array_opr,
index_opr,
LIR_Address::scale(type),
offset_in_bytes, type);
}
if (needs_card_mark) {
// This store will need a precise card mark, so go ahead and
// compute the full adddres instead of computing once for the
// store and again for the card mark.
LIR_Opr tmp = new_pointer_register();
__ leal(LIR_OprFact::address(addr), tmp);
return new LIR_Address(tmp, type);
} else {
return addr;
}
}
void Top10::AddScore(string name, unsigned int score, unsigned int kills) {
//Create a temporal register
Score new_register(name, score, kills);
//Insert the register
scores.push_back(new_register);
//Debug :: Print the list
//PrintScores(); //*****************************//
//Sort the list
scores.sort();
//Debug :: Print the list
//PrintScores(); //*****************************//
//Removes the las element
scores.pop_back();
//Debug :: Print the list
//PrintScores(); //*****************************//
//Save the score to a file
SaveScores();
}
void LIRGenerator::do_Convert(Convert* x) {
// flags that vary for the different operations and different SSE-settings
bool fixed_input, fixed_result, round_result, needs_stub;
switch (x->op()) {
case Bytecodes::_i2l: // fall through
case Bytecodes::_l2i: // fall through
case Bytecodes::_i2b: // fall through
case Bytecodes::_i2c: // fall through
case Bytecodes::_i2s: fixed_input = false; fixed_result = false; round_result = false; needs_stub = false; break;
case Bytecodes::_f2d: fixed_input = UseSSE == 1; fixed_result = false; round_result = false; needs_stub = false; break;
case Bytecodes::_d2f: fixed_input = false; fixed_result = UseSSE == 1; round_result = UseSSE < 1; needs_stub = false; break;
case Bytecodes::_i2f: fixed_input = false; fixed_result = false; round_result = UseSSE < 1; needs_stub = false; break;
case Bytecodes::_i2d: fixed_input = false; fixed_result = false; round_result = false; needs_stub = false; break;
case Bytecodes::_f2i: fixed_input = false; fixed_result = false; round_result = false; needs_stub = true; break;
case Bytecodes::_d2i: fixed_input = false; fixed_result = false; round_result = false; needs_stub = true; break;
case Bytecodes::_l2f: fixed_input = false; fixed_result = UseSSE >= 1; round_result = UseSSE < 1; needs_stub = false; break;
case Bytecodes::_l2d: fixed_input = false; fixed_result = UseSSE >= 2; round_result = UseSSE < 2; needs_stub = false; break;
case Bytecodes::_f2l: fixed_input = true; fixed_result = true; round_result = false; needs_stub = false; break;
case Bytecodes::_d2l: fixed_input = true; fixed_result = true; round_result = false; needs_stub = false; break;
default: ShouldNotReachHere();
}
LIRItem value(x->value(), this);
value.load_item();
LIR_Opr input = value.result();
LIR_Opr result = rlock(x);
// arguments of lir_convert
LIR_Opr conv_input = input;
LIR_Opr conv_result = result;
ConversionStub* stub = NULL;
if (fixed_input) {
conv_input = fixed_register_for(input->type());
__ move(input, conv_input);
}
assert(fixed_result == false || round_result == false, "cannot set both");
if (fixed_result) {
conv_result = fixed_register_for(result->type());
} else if (round_result) {
result = new_register(result->type());
set_vreg_flag(result, must_start_in_memory);
}
if (needs_stub) {
stub = new ConversionStub(x->op(), conv_input, conv_result);
}
__ convert(x->op(), conv_input, conv_result, stub);
if (result != conv_result) {
__ move(conv_result, result);
}
assert(result->is_virtual(), "result must be virtual register");
set_result(x, result);
}
// _ishl, _lshl, _ishr, _lshr, _iushr, _lushr
void LIRGenerator::do_ShiftOp(ShiftOp* x) {
// count must always be in ecx
LIRItem value(x->x(), this);
LIRItem count(x->y(), this);
value.set_destroys_register();
ValueTag elemType = x->type()->tag();
bool must_load_count = !count.is_constant() || elemType == longTag;
if (must_load_count) {
// count for long must be in register
count.load_item();
} else {
count.dont_load_item();
}
value.load_item();
RInfo tmp;
if (elemType == intTag && count.is_register()) {
// in case we cache the count, we want always to have a register free
// (without caching, the count may be loaded in ecx; with the caching count,
// the count register may not be ecx
tmp = new_register(T_INT)->rinfo();
}
RInfo reg = rlock_result(x)->rinfo();
emit()->shift_op(x->op(), reg, value.result(), count.result(), tmp);
}
// return a cached temporary operand
LIR_Opr get_temp(int i, BasicType type) {
if (i < FrameMap::pd_max_temp_vregs) {
assert0(_temp_vregs[i]->type_register() == type);
return _temp_vregs[i];
} else {
return new_register(type);
}
}
LIR_Opr LIRGenerator::getThreadPointer() {
#ifdef _LP64
return FrameMap::as_pointer_opr(r15_thread);
#else
LIR_Opr result = new_register(T_INT);
__ get_thread(result);
return result;
#endif //
}
LIR_Address* LIRGenerator::generate_address(LIR_Opr base, LIR_Opr index,
int shift, int disp, BasicType type) {
assert(base->is_register(), "must be");
// accumulate fixed displacements
if (index->is_constant()) {
disp += index->as_constant_ptr()->as_jint() << shift;
index = LIR_OprFact::illegalOpr;
}
if (index->is_register()) {
// apply the shift and accumulate the displacement
if (shift > 0) {
LIR_Opr tmp = new_register(T_INT);
__ shift_left(index, shift, tmp);
index = tmp;
}
if (disp != 0) {
LIR_Opr tmp = new_register(T_INT);
if (Assembler::is_simm13(disp)) {
__ add(tmp, LIR_OprFact::intConst(disp), tmp);
index = tmp;
} else {
__ move(LIR_OprFact::intConst(disp), tmp);
__ add(tmp, index, tmp);
index = tmp;
}
disp = 0;
}
} else if (disp != 0 && !Assembler::is_simm13(disp)) {
// index is illegal so replace it with the displacement loaded into a register
index = new_register(T_INT);
__ move(LIR_OprFact::intConst(disp), index);
disp = 0;
}
// at this point we either have base + index or base + displacement
if (disp == 0) {
return new LIR_Address(base, index, type);
} else {
assert(Assembler::is_simm13(disp), "must be");
return new LIR_Address(base, disp, type);
}
}
void LIRGenerator::do_InstanceOf(InstanceOf* x) {
LIRItem obj(x->obj(), this);
// result and test object may not be in same register
LIR_Opr reg = rlock_result(x);
CodeEmitInfo* patching_info = NULL;
if ((!x->klass()->is_loaded() || PatchALot)) {
// must do this before locking the destination register as an oop register
patching_info = state_for(x, x->state_before());
}
obj.load_item();
LIR_Opr tmp3 = LIR_OprFact::illegalOpr;
if (!x->klass()->is_loaded() || UseCompressedOops) {
tmp3 = new_register(objectType);
}
__ instanceof(reg, obj.result(), x->klass(),
new_register(objectType), new_register(objectType), tmp3,
x->direct_compare(), patching_info, x->profiled_method(), x->profiled_bci());
}
void LIRGenerator::volatile_field_store(LIR_Opr value, LIR_Address* address,
CodeEmitInfo* info) {
if (address->type() == T_LONG) {
address = new LIR_Address(address->base(),
address->index(), address->scale(),
address->disp(), T_DOUBLE);
// Transfer the value atomically by using FP moves. This means
// the value has to be moved between CPU and FPU registers. It
// always has to be moved through spill slot since there's no
// quick way to pack the value into an SSE register.
LIR_Opr temp_double = new_register(T_DOUBLE);
LIR_Opr spill = new_register(T_LONG);
set_vreg_flag(spill, must_start_in_memory);
__ move(value, spill);
__ volatile_move(spill, temp_double, T_LONG);
__ volatile_move(temp_double, LIR_OprFact::address(address), T_LONG, info);
} else {
__ store(value, address, info);
}
}
monitorclient::monitorclient(QWidget *parent) :
QMainWindow(parent),
ui(new Ui::monitorclient)
{
ui->setupUi(this);
TcpClientSocket =new QTcpSocket(this);
connect(TcpClientSocket,SIGNAL(readyRead()),this,SLOT(readMessage()));
connect(TcpClientSocket,SIGNAL(error(QAbstractSocket::SocketError)),
this,SLOT(displayError(QAbstractSocket::SocketError)));
connect(ui->LandingButton,SIGNAL(clicked()),this,SLOT(landing()));
connect(ui->RegisterButton,SIGNAL(clicked()),this,SLOT(new_register()));
}
LIR_Address* LIRGenerator::emit_array_address(LIR_Opr array_opr, LIR_Opr index_opr,
BasicType type, bool needs_card_mark) {
int elem_size = type2aelembytes(type);
int shift = exact_log2(elem_size);
LIR_Opr base_opr;
int offset = arrayOopDesc::base_offset_in_bytes(type);
if (index_opr->is_constant()) {
int i = index_opr->as_constant_ptr()->as_jint();
int array_offset = i * elem_size;
if (Assembler::is_simm13(array_offset + offset)) {
base_opr = array_opr;
offset = array_offset + offset;
} else {
base_opr = new_pointer_register();
if (Assembler::is_simm13(array_offset)) {
__ add(array_opr, LIR_OprFact::intptrConst(array_offset), base_opr);
} else {
__ move(LIR_OprFact::intptrConst(array_offset), base_opr);
__ add(base_opr, array_opr, base_opr);
}
}
} else {
#ifdef _LP64
if (index_opr->type() == T_INT) {
LIR_Opr tmp = new_register(T_LONG);
__ convert(Bytecodes::_i2l, index_opr, tmp);
index_opr = tmp;
}
#endif
base_opr = new_pointer_register();
assert (index_opr->is_register(), "Must be register");
if (shift > 0) {
__ shift_left(index_opr, shift, base_opr);
__ add(base_opr, array_opr, base_opr);
} else {
__ add(index_opr, array_opr, base_opr);
}
}
if (needs_card_mark) {
LIR_Opr ptr = new_pointer_register();
__ add(base_opr, LIR_OprFact::intptrConst(offset), ptr);
return new LIR_Address(ptr, 0, type);
} else {
return new LIR_Address(base_opr, offset, type);
}
}
void LIRGenerator::do_MonitorEnter(MonitorEnter* x) {
spill_values_on_stack(x->state());
assert(x->is_root(),"");
LIRItem obj(x->obj(), this);
obj.load_item();
set_no_result(x);
RInfo lock = new_register(T_OBJECT)->rinfo();
CodeEmitInfo* info_for_exception = NULL;
if (x->needs_null_check()) {
info_for_exception = state_for(x, x->lock_stack_before());
}
CodeEmitInfo* info = state_for(x, x->state());
emit()->monitor_enter(obj.get_register(), lock, syncTempRInfo(), norinfo, x->monitor_no(), info_for_exception, info);
}
void LIRGenerator::do_NewInstance(NewInstance* x) {
#ifndef PRODUCT
if (PrintNotLoaded && !x->klass()->is_loaded()) {
tty->print_cr(" ###class not loaded at new bci %d", x->printable_bci());
}
#endif
CodeEmitInfo* info = state_for(x, x->state());
LIR_Opr reg = result_register_for(x->type());
LIR_Opr klass_reg = new_register(objectType);
new_instance(reg, x->klass(),
FrameMap::rcx_oop_opr,
FrameMap::rdi_oop_opr,
FrameMap::rsi_oop_opr,
LIR_OprFact::illegalOpr,
FrameMap::rdx_oop_opr, info);
LIR_Opr result = rlock_result(x);
__ move(reg, result);
}
void LIRGenerator::do_ArrayCopy(Intrinsic* x) {
spill_values_on_stack(x->state());
assert(x->number_of_arguments() == 5, "wrong type");
LIRItem src(x->argument_at(0), this);
LIRItem src_pos(x->argument_at(1), this);
LIRItem dst(x->argument_at(2), this);
LIRItem dst_pos(x->argument_at(3), this);
LIRItem length(x->argument_at(4), this);
src.load_item();
src_pos.load_item();
dst.load_item();
dst_pos.load_item();
length.load_item();
RInfo tmp = new_register(T_INT)->rinfo();
set_no_result(x);
CodeEmitInfo* info = state_for(x, x->state()); // we may want to have stack (deoptimization?)
emit()->arraycopy(src.result(), src_pos.result(), dst.result(), dst_pos.result(), length.result(), tmp, false, NULL, info); // does add_safepoint
}
void LIRGenerator::do_InstanceOf(InstanceOf* x) {
spill_values_on_stack(x->state());
LIRItem obj(x->obj(), this);
obj.set_destroys_register();
// result and test object may not be in same register
RInfo reg = rlock_result(x)->rinfo();
CodeEmitInfo* patching_info = NULL;
if ((!x->klass()->is_loaded() || PatchALot)) {
// must do this before locking the destination register as an oop register
patching_info = state_for(x, x->state_before());
}
obj.load_item();
// do not include tmp in the oop map
if (patching_info != NULL) {
// object must be part of the oop map
patching_info->add_register_oop(obj.result()->rinfo());
}
RInfo tmp = new_register(objectType)->rinfo();
emit()->instanceof_op(LIR_OprFact::rinfo(reg, T_OBJECT), obj.result(), x->klass(), tmp, obj.result()->rinfo(), x->direct_compare(), patching_info);
}
void LIRGenerator::volatile_field_load(LIR_Address* address, LIR_Opr result,
CodeEmitInfo* info) {
if (address->type() == T_LONG) {
address = new LIR_Address(address->base(),
address->index(), address->scale(),
address->disp(), T_DOUBLE);
// Transfer the value atomically by using FP moves. This means
// the value has to be moved between CPU and FPU registers. In
// SSE0 and SSE1 mode it has to be moved through spill slot but in
// SSE2+ mode it can be moved directly.
LIR_Opr temp_double = new_register(T_DOUBLE);
__ volatile_move(LIR_OprFact::address(address), temp_double, T_LONG, info);
__ volatile_move(temp_double, result, T_LONG);
if (UseSSE < 2) {
// no spill slot needed in SSE2 mode because xmm->cpu register move is possible
set_vreg_flag(result, must_start_in_memory);
}
} else {
__ load(address, result, info);
}
}
LIR_Opr new_register(ValueType* type) { return new_register(as_BasicType(type)); }
LIR_Opr new_register(Value value) { return new_register(as_BasicType(value->type())); }
// returns a register suitable for doing pointer math
LIR_Opr new_pointer_register() {
return new_register(T_LONG);
}
static int login_query(void)
{
#ifndef ENABLE_SSH
char uname[IDLEN + 2];
char passbuf[PASSLEN];
int attempts;
int recover; // For giveupBBS
bool auth = false;
#endif // ENABLE_SSH
// Deny new logins if too many users online.
int online = session_count_online();
#ifndef ENABLE_SSH
if (online >= MAXACTIVE) {
ansimore("etc/loginfull", NA);
return -1;
}
#endif // ENABLE_SSH
ansimore2("etc/issue", false, 0, 0);
screen_printf("\033[1;35m欢迎光临\033[1;40;33m【 %s 】 \033[m"
"[\033[1;33;41m Add '.' after YourID to login for BIG5 \033[m]\n",
BBSNAME_UTF8);
int peak = session_get_online_record();
if (peak < online) {
session_set_online_record(online);
peak = online;
}
screen_printf("\033[1;32m目前已有帐号: [\033[1;36m%d\033[32m/\033[36m%d\033[32m] "
"\033[32m目前站上人数: [\033[36m%d\033[32m/\033[36m%d\033[1;32m]\n",
get_user_count(), MAXUSERS, online, MAXACTIVE);
visitlog(peak);
#ifndef ENABLE_SSH
attempts = 0;
while (!auth) {
if (attempts++ >= LOGINATTEMPTS) {
ansimore("etc/goodbye", NA);
return -1;
}
//% getdata(0, 0, "\033[1;33m请输入帐号\033[m"
getdata(0, 0, "\033[1;33m\xc7\xeb\xca\xe4\xc8\xeb\xd5\xca\xba\xc5\033[m"
//% "(试用请输入'\033[1;36mguest\033[m', "
"(\xca\xd4\xd3\xc3\xc7\xeb\xca\xe4\xc8\xeb'\033[1;36mguest\033[m', "
//% "注册请输入'\033[1;31mnew\033[m'): ",
"\xd7\xa2\xb2\xe1\xc7\xeb\xca\xe4\xc8\xeb'\033[1;31mnew\033[m'): ",
uname, IDLEN + 1, DOECHO, YEA);
if (strcaseeq(uname, "guest") && (online > MAXACTIVE - 10)) {
ansimore("etc/loginfull", NA);
return -1;
}
if (strcaseeq(uname, "new")) {
memset(¤tuser, 0, sizeof(currentuser));
new_register();
terminal_flush();
exit(1);
} else if (*uname == '\0')
;
else if (!dosearchuser(uname, ¤tuser, &usernum)) {
screen_printf("\033[1;31m经查证，无此 ID。\033[m\n");
} else if (strcaseeq(uname, "guest")) {
currentuser.userlevel = 0;
break;
} else {
//% getdata(0, 0, "\033[1;37m请输入密码: \033[m", passbuf, PASSLEN,
getdata(0, 0, "\033[1;37m\xc7\xeb\xca\xe4\xc8\xeb\xc3\xdc\xc2\xeb: \033[m", passbuf, PASSLEN,
NOECHO, YEA);
passbuf[8] = '\0';
switch (bbs_auth(uname, passbuf)) {
case BBS_EWPSWD:
screen_printf("\033[1;31m密码输入错误...\033[m\n");
break;
case BBS_EGIVEUP:
recover = chk_giveupbbs();
screen_printf("\033[33m您正在戒网，离戒网结束还有%d天\033[m\n",
recover - fb_time() / 3600 / 24);
return -1;
case BBS_ESUICIDE:
screen_printf("\033[32m您已经自杀\033[m\n");
return -1;
case BBS_EBANNED:
screen_printf("\033[32m本帐号已停机。请到 "
"\033[36mNotice\033[32m版 查询原因\033[m\n");
return -1;
case BBS_ELFREQ:
screen_printf("登录过于频繁，请稍候再来\n");
return -1;
case 0:
auth = true;
break;
default:
auth = false;
break;
}
memset(passbuf, 0, PASSLEN - 1);
}
}
#else // ENABLE_SSH
//% 欢迎使用ssh方式访问本站，请按任意键继续
presskeyfor("\033[1;33m\xbb\xb6\xd3\xad\xca\xb9\xd3\xc3ssh\xb7\xbd\xca\xbd\xb7\xc3\xce\xca\xb1\xbe\xd5\xbe\xa3\xac\xc7\xeb\xb0\xb4\xc8\xce\xd2\xe2\xbc\xfc\xbc\xcc\xd0\xf8", -1);
#endif // ENABLE_SSH
if (multi_user_check() == -1)
return -1;
sethomepath(genbuf, currentuser.userid);
mkdir(genbuf, 0755);
login_start_time = time(NULL);
return 0;
}
