void addtraverse(node *p, node *q, boolean contin)
{ /* traverse through a tree, finding best place to add p */
insert_(p, q);
numtrees++;
if (evaluate(&curtree) > bestree.likelihood) {
copy_(&curtree, &bestree);
addwhere = q;
}
copy_(&priortree, &curtree);
if (!q->tip && contin) {
addtraverse(p, q->next->back, contin);
addtraverse(p, q->next->next->back, contin);
}
} /* addtraverse */
void addtraverse(node *p, node *q, boolean contin, long *numtrees,
boolean *succeeded)
{
/* traverse through a tree, finding best place to add p */
insert_(p, q, true);
(*numtrees)++;
if (evaluate(&curtree) > bestree.likelihood){
copy_(&curtree, &bestree);
(*succeeded)=true;
}
copy_(&priortree, &curtree);
if (!q->tip && contin) {
addtraverse(p, q->next->back, contin,numtrees,succeeded);
addtraverse(p, q->next->next->back, contin,numtrees,succeeded);
}
} /* addtraverse */
void rearrange(node *p)
{ /* rearranges the tree locally */
node *q, *r;
if (!p->tip && !p->back->tip) {
r = p->next->next;
re_move(&r, &q );
copy_(&curtree, &priortree);
addtraverse(r, q->next->back, false);
addtraverse(r, q->next->next->back, false);
copy_(&bestree, &curtree);
}
if (!p->tip) {
rearrange(p->next->back);
rearrange(p->next->next->back);
}
} /* rearrange */
ptr ROU63_dup_(ptr self__)
{
ptr res__ = 0;
res__ = (ptr)copy_(self__,0);
ret0__:
return (res__);
}
Tensor pin_memory(const Tensor& self) {
if (self.type().backend() != kCPU) {
AT_ERROR("cannot pin '", self.type().toString(), "' only CPU memory can be pinned");
}
auto allocator = std::unique_ptr<Allocator>(new PinnedMemoryAllocator());
auto tensor = self.type().tensorWithAllocator(self.sizes(), self.strides(), std::move(allocator));
tensor.copy_(self);
return tensor;
}
ptr TYP114_dup_(ptr self__)
{
ptr res__ = 0;
res__ = (ptr)copy_(self__,1);
ret0__:
return (res__);
}
void rearrange(node *p, long *numtrees, long *nextsp, boolean *succeeded)
{
node *q, *r;
if (!p->tip && !p->back->tip) {
r = p->next->next;
re_move(&r, &q);
copy_(&curtree, &priortree);
addtraverse(r, q->next->back, false, numtrees,succeeded);
addtraverse(r, q->next->next->back, false, numtrees,succeeded);
copy_(&bestree, &curtree);
if (global && ((*nextsp) == spp)) {
putchar('.');
fflush(stdout);
}
}
if (!p->tip) {
rearrange(p->next->back, numtrees,nextsp,succeeded);
rearrange(p->next->next->back, numtrees,nextsp,succeeded);
}
} /* rearrange */
/*imprime la linea de entrada mas larga*/
main()
{
int len; /*longitud actual de la linea*/
int max; /*maxima longitud vista hasta el momento*/
char line[MAXLINE]; /*LINEA DE ENTRADA ACTUAL*/
char longest[MAXLINE]; /*LA LINEA MAS LARGA SE GUARDA AQUI*/
max=0;
while ((len=getline_(line,MAXLINE))>0){
if (len>max){
max=len;
copy_(longest,line);
}
}
if(max>0) /*hubo una linea*/
printf("%s",longest);
return 0;
}
void globrearrange()
{ /* does global rearrangements */
tree globtree;
tree oldtree;
int i,j,k,num_sibs,num_sibs2;
node *where,*sib_ptr,*sib_ptr2;
double oldbestyet = curtree.likelihood;
int success = false;
alloctree(&globtree.nodep,nonodes2);
alloctree(&oldtree.nodep,nonodes2);
setuptree(&globtree,nonodes2);
setuptree(&oldtree,nonodes2);
allocview(&oldtree, nonodes2, totalleles);
allocview(&globtree, nonodes2, totalleles);
copy_(&curtree,&globtree);
copy_(&curtree,&oldtree);
for ( i = spp ; i < nonodes2 ; i++ ) {
num_sibs = count_sibs(curtree.nodep[i]);
sib_ptr = curtree.nodep[i];
if ( (i - spp) % (( nonodes2 / 72 ) + 1 ) == 0 )
putchar('.');
fflush(stdout);
for ( j = 0 ; j <= num_sibs ; j++ ) {
re_move(&sib_ptr,&where);
copy_(&curtree,&priortree);
if (where->tip) {
copy_(&oldtree,&curtree);
copy_(&oldtree,&bestree);
sib_ptr = sib_ptr->next;
continue;
}
else num_sibs2 = count_sibs(where);
sib_ptr2 = where;
for ( k = 0 ; k < num_sibs2 ; k++ ) {
addwhere = NULL;
addtraverse(sib_ptr,sib_ptr2->back,true);
if ( addwhere && where != addwhere && where->back != addwhere
&& bestree.likelihood > globtree.likelihood) {
copy_(&bestree,&globtree);
success = true;
}
sib_ptr2 = sib_ptr2->next;
}
copy_(&oldtree,&curtree);
copy_(&oldtree,&bestree);
sib_ptr = sib_ptr->next;
}
}
copy_(&globtree,&curtree);
copy_(&globtree,&bestree);
if (success && globtree.likelihood > oldbestyet) {
succeeded = true;
}
else {
succeeded = false;
}
freeview(&oldtree, nonodes2);
freeview(&globtree, nonodes2);
freetree(&globtree.nodep,nonodes2);
freetree(&oldtree.nodep,nonodes2);
}
void maketree()
{ /* construct the tree */
long i;
if (usertree) {
/* Open in binary: ftell() is broken for UNIX line-endings under WIN32 */
openfile(&intree,INTREE,"input tree file", "rb",progname,intreename);
numtrees = countsemic(&intree);
if(numtrees > MAXSHIMOTREES)
shimotrees = MAXSHIMOTREES;
else
shimotrees = numtrees;
if (numtrees > 2)
initseed(&inseed, &inseed0, seed);
if (treeprint) {
fprintf(outfile, "User-defined tree");
if (numtrees > 1)
putc('s', outfile);
putc('\n', outfile);
}
setuptree(&curtree, nonodes2);
for (which = 1; which <= spp; which++)
inittip(which, &curtree);
which = 1;
while (which <= numtrees) {
for (i = 0 ; i < nonodes2 ; i++) {
if ( i > spp) {
/* must do this since not all nodes may be used if an
unrooted tree is read in after a rooted one */
curtree.nodep[i]->back = NULL;
curtree.nodep[i]->next->back = NULL;
curtree.nodep[i]->next->next->back = NULL;
}
else curtree.nodep[i]->back = NULL;
}
treeread2 (intree, &curtree.start, curtree.nodep,
lengths, &trweight, &goteof, &haslengths, &spp,false,nonodes2);
curtree.start = curtree.nodep[outgrno - 1]->back;
treevaluate();
printree();
summarize();
which++;
}
FClose(intree);
if (numtrees > 1 && loci > 1 ) {
weight = (long *)Malloc(loci*sizeof(long));
for (i = 0; i < loci; i++)
weight[i] = 1;
standev2(numtrees, maxwhich, 0, loci-1, maxlogl, l0gl, l0gf, seed);
free(weight);
fprintf(outfile, "\n\n");
}
} else { /* if ( !usertree ) */
if (jumb == 1) {
setuptree(&curtree, nonodes2);
setuptree(&priortree, nonodes2);
setuptree(&bestree, nonodes2);
if (njumble > 1)
setuptree(&bestree2, nonodes2);
}
for (i = 1; i <= spp; i++)
enterorder[i - 1] = i;
if (jumble)
randumize(seed, enterorder);
nextsp = 3;
buildsimpletree(&curtree);
curtree.start = curtree.nodep[enterorder[0] - 1]->back;
if (jumb == 1) numtrees = 1;
nextsp = 4;
if (progress) {
printf("Adding species:\n");
writename(0, 3, enterorder);
#ifdef WIN32
phyFillScreenColor();
#endif
}
while (nextsp <= spp) {
buildnewtip(enterorder[nextsp - 1], &curtree, nextsp);
copy_(&curtree, &priortree);
bestree.likelihood = -DBL_MAX;
addtraverse(curtree.nodep[enterorder[nextsp - 1] - 1]->back,
curtree.start, true );
copy_(&bestree, &curtree);
if (progress) {
writename(nextsp - 1, 1, enterorder);
#ifdef WIN32
phyFillScreenColor();
#endif
}
if (global && nextsp == spp) {
if (progress) {
printf("\nDoing global rearrangements\n");
printf(" !");
for (i = 1; i <= spp - 2; i++)
if ( (i - spp) % (( nonodes2 / 72 ) + 1 ) == 0 )
putchar('-');
printf("!\n");
printf(" ");
}
}
succeeded = true;
while (succeeded) {
succeeded = false;
if ( global && nextsp == spp )
globrearrange();
else
rearrange(curtree.start);
if (global && nextsp == spp)
putc('\n', outfile);
}
if (global && nextsp == spp && progress)
putchar('\n');
if (njumble > 1) {
if (jumb == 1 && nextsp == spp)
copy_(&bestree, &bestree2);
else if (nextsp == spp) {
if (bestree2.likelihood < bestree.likelihood)
copy_(&bestree, &bestree2);
}
}
if (nextsp == spp && jumb == njumble) {
if (njumble > 1) copy_(&bestree2, &curtree);
curtree.start = curtree.nodep[outgrno - 1]->back;
printree();
summarize();
}
nextsp++;
}
}
if ( jumb < njumble)
return;
if (progress) {
printf("\nOutput written to file \"%s\"\n", outfilename);
if (trout)
printf("\nTree also written onto file \"%s\"\n", outtreename);
}
freeview(&curtree, nonodes2);
if (!usertree) {
freeview(&bestree, nonodes2);
freeview(&priortree, nonodes2);
}
for (i = 0; i < spp; i++)
free(x[i]);
if (!contchars) {
free(locus);
free(pbar);
}
} /* maketree */
void maketree()
{
/* contruct the tree */
long nextsp,numtrees;
boolean succeeded=false;
long i, j, which;
if (usertree) {
inputdata(replicates, printdata, lower, upper, x, reps);
setuptree(&curtree, nonodes2);
for (which = 1; which <= spp; which++)
setuptipf(which, &curtree);
if (eoln(infile)) {
fscanf(infile, "%*[^\n]");
getc(infile);
}
openfile(&intree,INTREE,"input tree file","r",progname,intreename);
fscanf(intree, "%ld%*[^\n]", &numtrees);
getc(intree);
if (numtrees > MAXNUMTREES) {
printf("\nERROR: number of input trees is read incorrectly from %s\n",
intreename);
exxit(-1);
}
if (treeprint) {
fprintf(outfile, "User-defined tree");
if (numtrees > 1)
putc('s', outfile);
fprintf(outfile, ":\n\n");
}
first = true;
which = 1;
while (which <= numtrees) {
treeread2 (intree, &curtree.start, curtree.nodep,
lengths, &trweight, &goteof, intreename, "Fitch",
&haslengths, &spp);
nums = spp;
curtree.start = curtree.nodep[outgrno - 1]->back;
treevaluate();
printree(&curtree, curtree.start, treeprint, false, false);
summarize(numtrees);
which++;
}
FClose(intree);
} else {
if (jumb == 1) {
inputdata(replicates, printdata, lower, upper, x, reps);
setuptree(&curtree, nonodes2);
setuptree(&priortree, nonodes2);
setuptree(&bestree, nonodes2);
if (njumble > 1) setuptree(&bestree2, nonodes2);
}
for (i = 1; i <= spp; i++)
enterorder[i - 1] = i;
if (jumble)
randumize(seed, enterorder);
nextsp = 3;
buildsimpletree(&curtree, nextsp);
curtree.start = curtree.nodep[enterorder[0] - 1]->back;
if (jumb == 1) numtrees = 1;
nextsp = 4;
if (progress) {
printf("Adding species:\n");
writename(0, 3, enterorder);
#ifdef WIN32
phyFillScreenColor();
#endif
}
while (nextsp <= spp) {
nums = nextsp;
buildnewtip(enterorder[nextsp - 1], &curtree, nextsp);
copy_(&curtree, &priortree);
bestree.likelihood = -99999.0;
addtraverse(curtree.nodep[enterorder[nextsp - 1] - 1]->back,
curtree.start, true, &numtrees,&succeeded);
copy_(&bestree, &curtree);
if (progress) {
writename(nextsp - 1, 1, enterorder);
#ifdef WIN32
phyFillScreenColor();
#endif
}
if (global && nextsp == spp) {
if (progress) {
printf("Doing global rearrangements\n");
printf(" !");
for (j = 1; j <= (spp - 2); j++)
putchar('-');
printf("!\n");
printf(" ");
}
}
succeeded = true;
while (succeeded) {
succeeded = false;
rearrange(curtree.start,
&numtrees,&nextsp,&succeeded);
if (global && ((nextsp) == spp) && progress)
printf("\n ");
}
if (global && nextsp == spp) {
putc('\n', outfile);
if (progress)
putchar('\n');
}
if (njumble > 1) {
if (jumb == 1 && nextsp == spp)
copy_(&bestree, &bestree2);
else if (nextsp == spp) {
if (bestree2.likelihood < bestree.likelihood)
copy_(&bestree, &bestree2);
}
}
if (nextsp == spp && jumb == njumble) {
if (njumble > 1) copy_(&bestree2, &curtree);
curtree.start = curtree.nodep[outgrno - 1]->back;
printree(&curtree, curtree.start, treeprint, true, false);
summarize(numtrees);
}
nextsp++;
}
}
if (jumb == njumble && progress) {
printf("\nOutput written to output file\n\n");
if (trout) {
printf("Tree also written onto file\n");
putchar('\n');
}
}
} /* maketree */
int main(int argc, char** argv)
{
device::PORT3::PCR.B5 = 1; // P35(NMI) pull-up
device::PORT0::PDR.B5 = 1; // (2)
device::PORT0::PDR.B2 = 1; // (6)
device::PORT0::PDR.B1 = 1; // (7)
device::PORT0::PDR.B0 = 1; // (8)
device::PORTJ::PDR.B5 = 1; // (11)
device::PORTJ::PDR.B3 = 1; // (13)
device::PORT3::PDR.B3 = 1; // (26)
device::PORT3::PDR.B2 = 1; // (27)
device::PORT2::PDR.B5 = 1; // (32)
device::PORT2::PDR.B4 = 1; // (33)
device::PORT2::PDR.B3 = 1; // (34)
device::PORT2::PDR.B2 = 1; // (35)
device::PORT2::PDR.B1 = 1; // (36)
device::PORT2::PDR.B0 = 1; // (37)
device::PORT1::PDR.B7 = 1; // (38)
device::PORT8::PDR.B7 = 1; // (39)
device::PORT8::PDR.B6 = 1; // (41)
device::PORT1::PDR.B5 = 1; // (42)
device::PORT1::PDR.B4 = 1; // (43)
device::PORT1::PDR.B3 = 1; // (44)
device::PORT1::PDR.B2 = 1; // (45)
device::PORT5::PDR.B6 = 1; // (50)
device::PORT5::PDR.B5 = 1; // (51)
device::PORT5::PDR.B4 = 1; // (52)
device::PORT5::PDR.B2 = 1; // (54)
device::PORT5::PDR.B1 = 1; // (55)
device::PORT5::PDR.B0 = 1; // (56)
device::PORT8::PDR.B3 = 1; // (58)
device::PORTC::PDR.B6 = 1; // (61)
device::PORTC::PDR.B5 = 1; // (62)
device::PORT8::PDR.B2 = 1; // (63)
device::PORT8::PDR.B1 = 1; // (64)
device::PORT8::PDR.B0 = 1; // (65)
device::PORTC::PDR.B4 = 1; // (66)
device::PORTC::PDR.B3 = 1; // (67)
device::PORT7::PDR.B7 = 1; // (68)
device::PORT7::PDR.B6 = 1; // (69)
device::PORTC::PDR.B2 = 1; // (70)
device::PORT7::PDR.B5 = 1; // (71)
device::PORT7::PDR.B4 = 1; // (72)
device::PORTC::PDR.B1 = 1; // (73)
device::PORTC::PDR.B0 = 1; // (75)
device::PORT7::PDR.B3 = 1; // (77)
device::PORTB::PDR.B7 = 1; // (78)
device::PORTB::PDR.B6 = 1; // (79)
device::PORTB::PDR.B5 = 1; // (80)
device::PORTB::PDR.B4 = 1; // (81)
device::PORTB::PDR.B2 = 1; // (83)
device::PORTB::PDR.B1 = 1; // (84)
device::PORT7::PDR.B2 = 1; // (85)
device::PORT7::PDR.B1 = 1; // (86)
device::PORTB::PDR.B0 = 1; // (87)
device::PORTA::PDR.B4 = 1; // (92)
device::PORTA::PDR.B3 = 1; // (94)
device::PORTA::PDR.B2 = 1; // (95)
device::PORTA::PDR.B1 = 1; // (96)
device::PORTA::PDR.B0 = 1; // (97)
device::PORT6::PDR.B7 = 1; // (98)
device::PORT6::PDR.B6 = 1; // (99)
device::PORT6::PDR.B5 = 1; // (100)
device::PORTE::PDR.B7 = 1; // (101)
device::PORTE::PDR.B6 = 1; // (102)
device::PORT7::PDR.B0 = 1; // (104)
device::PORTE::PDR.B5 = 1; // (106)
device::PORTE::PDR.B4 = 1; // (107)
device::PORTE::PDR.B0 = 1; // (111)
device::PORT6::PDR.B4 = 1; // (112)
device::PORT6::PDR.B3 = 1; // (113)
device::PORT6::PDR.B2 = 1; // (114)
device::PORT6::PDR.B1 = 1; // (115)
device::PORT6::PDR.B0 = 1; // (117)
device::PORTD::PDR.B7 = 1; // (119)
device::PORTD::PDR.B6 = 1; // (120)
device::PORTD::PDR.B5 = 1; // (121)
device::PORTD::PDR.B4 = 1; // (122)
device::PORTD::PDR.B3 = 1; // (123)
device::PORTD::PDR.B2 = 1; // (124)
device::PORTD::PDR.B1 = 1; // (125)
device::PORTD::PDR.B0 = 1; // (126)
device::PORT9::PDR.B3 = 1; // (127)
device::PORT9::PDR.B2 = 1; // (128)
device::PORT9::PDR.B1 = 1; // (129)
device::PORT9::PDR.B0 = 1; // (131)
device::PORT4::PDR.B7 = 1; // (133)
device::PORT4::PDR.B6 = 1; // (134)
device::PORT4::PDR.B5 = 1; // (135)
device::PORT4::PDR.B4 = 1; // (136)
device::PORT4::PDR.B3 = 1; // (137)
device::PORT4::PDR.B2 = 1; // (138)
device::PORT4::PDR.B1 = 1; // (139)
device::PORT0::PDR.B7 = 1; // (144)
device::SYSTEM::PRCR = 0xA50B; // クロック、低消費電力、関係書き込み許可
device::SYSTEM::MOSCWTCR = 9; // 1ms wait
// メインクロック強制発振とドライブ能力設定
device::SYSTEM::MOFCR = device::SYSTEM::MOFCR.MODRV2.b(0b10)
| device::SYSTEM::MOFCR.MOFXIN.b(1);
device::SYSTEM::MOSCCR.MOSTP = 0; // メインクロック発振器動作
while(device::SYSTEM::OSCOVFSR.MOOVF() == 0) asm("nop");
// Base Clock 12.5MHz
// PLLDIV: 1/1, STC: 19 倍(237.5MHz)
device::SYSTEM::PLLCR = device::SYSTEM::PLLCR.PLIDIV.b(0) |
device::SYSTEM::PLLCR.STC.b(0b100101);
device::SYSTEM::PLLCR2.PLLEN = 0; // PLL 動作
while(device::SYSTEM::OSCOVFSR.PLOVF() == 0) asm("nop");
device::SYSTEM::SCKCR = device::SYSTEM::SCKCR.FCK.b(2) // 1/2 (237.5/4= 59.375)
| device::SYSTEM::SCKCR.ICK.b(1) // 1/2 (237.5/2=118.75)
| device::SYSTEM::SCKCR.BCK.b(2) // 1/2 (237.5/4= 59.375)
| device::SYSTEM::SCKCR.PCKA.b(1) // 1/2 (237.5/2=118.75)
| device::SYSTEM::SCKCR.PCKB.b(2) // 1/4 (237.5/4= 59.375)
| device::SYSTEM::SCKCR.PCKC.b(2) // 1/4 (237.5/4= 59.375)
| device::SYSTEM::SCKCR.PCKD.b(2); // 1/4 (237.5/4= 59.375)
device::SYSTEM::SCKCR2 = device::SYSTEM::SCKCR2.UCK.b(0b0100) | 1; // USB Clock: 1/5 (237/5)
device::SYSTEM::SCKCR3.CKSEL = 0b100; ///< PLL 選択
LED::DIR = 1;
{
// タイマー設定（100Hz）
uint8_t cmt_irq_level = 3;
cmt_.start(100, cmt_irq_level);
}
{ // TPU0 設定
uint8_t int_level = 4;
if(!tpu0_.start(375000, int_level)) {
utils::format("TPU0 not start ...\n");
}
}
{ // DEBUG SCI 設定
uint8_t int_level = 1;
d_sci_.start(115200, int_level);
}
{ // MAIN SCI 設定
uint8_t int_level = 1;
m_sci_.start(115200, int_level);
m_sci_.auto_crlf(false);
}
{ // D/A CH0, AMP enable
dac_.start(DAC::output::CH0, true);
}
{ // LTC2348ILX-16 初期化
LTC_PD::DIR = 1;
LTC_PD::P = 0; // パワーダウンしない！
// 内臓リファレンスと内臓バッファ
// VREFIN: 2.024V、VREFBUF: 4.096V、Analog range: -10.24V to +10.24V
if(!eadc_.start(800000, EADC::span_type::M10_24P10_24)) {
utils::format("LTC2348_16 not found...\n");
}
}
#if 0
irq_count_ = 0;
irq_state_ = 0;
#endif
cap_pos_ = 0;
cap_cnt_ = 0;
cap_enable_ = false;
// 初期設定
dac_.out0(32768); // トリガー電圧０Ｖ
uint8_t cnt = 0;
while(1) {
cmt_.sync();
switch(task_) {
case TASK::STATE:
if(m_sci_.recv_length() >= 1) {
CMD cmd = static_cast<CMD>(m_sci_.getch());
switch(cmd) {
case CMD::START:
cap_enable_ = true;
task_ = TASK::LENGTH;
break;
case CMD::ASC_CNVTEST:
cap_enable_ = true;
send_task_ = SEND_TASK::ASCII_SINGLE;
break;
case CMD::ASC_CNVTESTS:
cap_enable_ = true;
send_task_ = SEND_TASK::ASCII_MULTI;
break;
case CMD::BIN_CNVTEST:
cap_enable_ = true;
send_task_ = SEND_TASK::BIN_SINGLE;
break;
case CMD::BIN_CNVTESTS:
cap_enable_ = true;
send_task_ = SEND_TASK::BIN_MULTI;
break;
case CMD::END:
if(send_task_ == SEND_TASK::MULTI) { // 波形取得を強制終了
send_task_ = SEND_TASK::READY;
}
break;
case CMD::TEST_TRG_P:
trg_slope_ = true;
req_cnt_ = 1024;
trg_enable_ = true;
trigger_ = TRIGGER::P();
cap_enable_ = true;
send_task_ = SEND_TASK::TRG;
break;
case CMD::TEST_TRG_N:
trg_slope_ = false;
req_cnt_ = 1024;
trg_enable_ = true;
trigger_ = TRIGGER::P();
cap_enable_ = true;
send_task_ = SEND_TASK::TRG;
break;
case CMD::MODE_SELECT:
break;
case CMD::MODE_SENSE:
break;
case CMD::VER:
m_sci_.putch(0x21); // VERデータID
m_sci_.putch(20); // 電圧レンジ（+-20V）
{
char tmp[4];
auto v = main_version_;
tmp[3] = (v % 10) + '0';
v /= 10;
tmp[2] = (v % 10) + '0';
v /= 10;
tmp[1] = (v % 10) + '0';
v /= 10;
tmp[0] = (v % 10) + '0';
m_sci_.putch(tmp[3]);
m_sci_.putch(tmp[2]);
m_sci_.putch(tmp[1]);
m_sci_.putch(tmp[0]);
}
break;
default:
break;
}
}
break;
case TASK::LENGTH:
if(m_sci_.recv_length() >= (2 + 1)) {
length_ = static_cast<uint8_t>(m_sci_.getch());
length_ <<= 8;
length_ |= static_cast<uint8_t>(m_sci_.getch());
task_ = TASK::VOLT;
}
break;
case TASK::VOLT:
if(m_sci_.recv_length() >= (2 + 1)) {
volt_ = static_cast<uint8_t>(m_sci_.getch());
volt_ <<= 8;
volt_ |= static_cast<uint8_t>(m_sci_.getch());
// start command 追加仕様（５月１４日、２０１８年）
edge_ = static_cast<uint8_t>(m_sci_.getch());
task_ = TASK::STATE;
dac_.out0(volt_); // トリガー電圧設定
/// if(volt_ < 32768) trg_slope_ = false;
/// else trg_slope_ = true;
if(edge_ == 0) trg_slope_ = true;
else trg_slope_ = false;
if(length_ == 0) {
cap_cnt_ = 1;
trg_enable_ = false;
cap_enable_ = true;
send_task_ = SEND_TASK::SINGLE;
} else {
uint16_t n = length_;
if(length_ > 1024) n = 1024;
req_cnt_ = n;
trg_enable_ = true;
trigger_ = TRIGGER::P();
cap_enable_ = true;
send_task_ = SEND_TASK::MULTI;
}
}
break;
default:
break;
}
switch(send_task_) {
case SEND_TASK::SINGLE:
copy_(cap_pos_, 1);
send_wave_legacy_(0x01, 1, ch0_trg_);
send_wave_legacy_(0x02, 1, ch1_trg_);
send_task_ = SEND_TASK::READY;
break;
case SEND_TASK::MULTI:
if(cap_cnt_ == 0 && !trg_enable_) ;
else break;
copy_(trg_pos_, length_);
send_wave_legacy_(0x01, length_, ch0_trg_);
send_wave_legacy_(0x02, length_, ch1_trg_);
send_task_ = SEND_TASK::READY;
break;
case SEND_TASK::TRG:
if(cap_cnt_ == 0 && !trg_enable_) ;
else break;
copy_(trg_pos_, 1024);
send_wave_(0x01, 1024, ch0_trg_);
send_wave_(0x02, 1024, ch1_trg_);
send_task_ = SEND_TASK::READY;
break;
case SEND_TASK::BIN_SINGLE:
copy_(cap_pos_, 1);
send_wave_(0x01, 1, ch0_trg_);
send_wave_(0x02, 1, ch1_trg_);
send_task_ = SEND_TASK::READY;
break;
case SEND_TASK::BIN_MULTI:
copy_(cap_pos_, 1024);
send_wave_(0x01, 1024, ch0_trg_);
send_wave_(0x02, 1024, ch1_trg_);
send_task_ = SEND_TASK::READY;
break;
case SEND_TASK::ASCII_SINGLE:
{
copy_(cap_pos_, 1);
char tmp[128];
utils::sformat("%d,%d\r\n", tmp, sizeof(tmp)) % ch0_trg_[0] % ch1_trg_[0];
m_sci_.puts(tmp);
}
send_task_ = SEND_TASK::READY;
break;
case SEND_TASK::ASCII_MULTI:
{
copy_(cap_pos_, 1024);
for(uint16_t i = 0; i < 1024; ++i) {
char tmp[128];
utils::sformat("%d,%d,%d\r\n", tmp, sizeof(tmp))
% i % ch0_trg_[i] % ch1_trg_[i];
m_sci_.puts(tmp);
}
}
send_task_ = SEND_TASK::READY;
break;
default:
break;
}
#if 1
++cnt;
if(cnt >= 50) {
cnt = 0;
}
if(cnt >= 35) {
LED::P = 1;
} else {
LED::P = 0;
}
#endif
}
}
void ELS139_semant_(ptr self__, ptr symtab__)
{
SATHER_STR_(20,53,ls2610_,"(ELSIF_STMTOB_S): Test in \"elsif\" has no return type");
SATHER_STR_(20,69,ls2611_,"(ELSIF_STMTOB_S): Test in \"elsif\" statement should return BOOL value");
ptr gl3428_;
static int gl3429_;
static union dtype_ gl3430_;
ptr gl3431_;
static int gl3432_;
static union dtype_ gl3433_;
ptr gl329_;
ptr gl3434_;
static int gl3435_;
static union dtype_ gl3436_;
ptr gl3437_;
static int gl3438_;
static union dtype_ gl3439_;
ptr gl3440_;
static int gl3441_;
static union dtype_ gl3442_;
ptr gl3443_;
static int gl3444_;
static union dtype_ gl3445_;
ptr gl3446_;
static int gl3447_;
static union dtype_ gl3448_;
char gl330_;
ptr gl3449_;
static int gl3450_;
static union dtype_ gl3451_;
gl3428_ = PATT_(self__,12);
cache_dispatch_(gl3428_,588,gl3429_,INTVAL_(gl3430_));
VFN_(gl3430_)(gl3428_,symtab__);
gl3431_ = PATT_(self__,12);
cache_dispatch_(gl3431_,1577,gl3432_,INTVAL_(gl3433_));
gl329_ = PATT_(gl3431_,INTVAL_(gl3433_));
if ((gl329_ == 0)) {
ERR96_format_error_msg_(0,IATT_(self__,4),STR20_s_(STR20_create_(0),(ptr)(&ls2610_)));
gl3434_ = PATT_(self__,12);
cache_dispatch_(gl3434_,1577,gl3435_,INTVAL_(gl3436_));
PATT_(gl3434_,INTVAL_(gl3436_)) = (ptr)copy_(GLO68_bool_typeob_s_,1);
gl3440_ = PATT_(self__,12);
cache_dispatch_(gl3440_,1577,gl3441_,INTVAL_(gl3442_));
gl3437_ = PATT_(gl3440_,INTVAL_(gl3442_));
cache_dispatch_(gl3437_,298,gl3438_,INTVAL_(gl3439_));
IATT_(gl3437_,INTVAL_(gl3439_)) = (int)IATT_(self__,4);
}
else {
}
gl3446_ = PATT_(self__,12);
cache_dispatch_(gl3446_,1577,gl3447_,INTVAL_(gl3448_));
gl3443_ = PATT_(gl3446_,INTVAL_(gl3448_));
cache_dispatch_(gl3443_,1768,gl3444_,INTVAL_(gl3445_));
gl330_ = CFN_(gl3445_)(gl3443_);
if ((! gl330_)) {
ERR96_format_error_msg_(0,IATT_(self__,4),STR20_s_(STR20_create_(0),(ptr)(&ls2611_)));
gl3449_ = PATT_(self__,12);
cache_dispatch_(gl3449_,1577,gl3450_,INTVAL_(gl3451_));
PATT_(gl3449_,INTVAL_(gl3451_)) = (ptr)copy_(GLO68_bool_typeob_s_,1);
}
else {
}
SYM186_enter_new_scope_(symtab__);
LST123_semant_(PATT_(self__,16),symtab__);
SYM186_leave_new_scope_(symtab__);
ret0__:
return;
}
void
Restore::operator()()
{
LOG_INFO("Starting the Restore");
bpt::ptree total_pt;
bpt::json_parser::read_json(configuration_file_.string(),
total_pt);
init_(total_pt);
const bpt::ptree& target_pt = total_pt.get_child("target_configuration");
be::BackendConnectionManagerPtr
target_cm(be::BackendConnectionManager::create(target_pt,
RegisterComponent::F));
const std::string target_nspace(target_pt.get<std::string>("namespace"));
be::BackendInterfacePtr
target_bi(target_cm->newBackendInterface(backend::Namespace(target_nspace)));
const boost::optional<bpt::ptree&>
maybe_source_pt(total_pt.get_child_optional("source_configuration"));
vd::VolumeConfig vol_config;
if (maybe_source_pt)
{
const std::string source_ns((*maybe_source_pt).get<std::string>("namespace"));
be::BackendConnectionManagerPtr
source_cm(be::BackendConnectionManager::create(*maybe_source_pt,
RegisterComponent::F));
be::BackendInterfacePtr source_bi(source_cm->newBackendInterface(backend::Namespace(source_ns)));
copy_(source_bi->clone(), target_bi->clone());
LOG_INFO("Retrieving volume config from source namespace " <<
source_bi->getNS());
source_bi->fillObject(vol_config, InsistOnLatestVersion::T);
vol_config.changeNamespace(backend::Namespace(target_nspace));
}
else
{
LOG_INFO("Retrieving volume config from target namespace " <<
target_bi->getNS());
target_bi->fillObject(vol_config, InsistOnLatestVersion::T);
}
const boost::optional<std::string>
maybe_new_name(target_pt.get_optional<std::string>("volume_name"));
if (maybe_new_name)
{
LOG_INFO(target_nspace << ": renaming " << vol_config.id_ << " -> " <<
*maybe_new_name);
const_cast<vd::VolumeId&>(vol_config.id_) = vd::VolumeId(*maybe_new_name);
}
const boost::optional<vd::VolumeConfig::WanBackupVolumeRole>
maybe_new_role(target_pt.get_optional<vd::VolumeConfig::WanBackupVolumeRole>("volume_role"));
if (maybe_new_role)
{
promote_(*maybe_new_role, target_bi->clone(), vol_config);
}
target_bi->writeObject(vol_config,
vd::VolumeConfig::config_backend_name,
OverwriteObject::T);
}
