long rpn_create_mem(char *name, short is_string)
{
long i_mem;
int32_t duplicate;
MEMORY *newMem;
if (is_func(name)!=-1 || find_udf(name)!=-1) {
fprintf(stderr, "error: attempt to create rpn memory with reserved name \"%s\"\n", name);
return -1;
}
if (Memory==NULL || n_memories>=max_n_memories) {
Memory = trealloc(Memory, sizeof(*Memory)*(max_n_memories+=10));
memoryData = trealloc(memoryData, sizeof(*memoryData)*max_n_memories);
str_memoryData = trealloc(str_memoryData, sizeof(*str_memoryData)*max_n_memories);
}
newMem = tmalloc(sizeof(*newMem));
newMem->name = name; /* temporary copy */
i_mem = binaryInsert((void**)Memory, n_memories, (void*)newMem, compare_mem, &duplicate);
if (duplicate) {
free(newMem);
return Memory[i_mem]->index;
}
cp_str(&newMem->name, name);
newMem->index = n_memories;
newMem->is_string = is_string;
memoryData[n_memories] = 0;
str_memoryData[n_memories] = NULL;
n_memories++;
memory_added = 1;
return Memory[i_mem]->index;
}
void smoothData(double *data, long rows, long smoothPoints, long smoothPasses)
{
long lower, upper, row, pass, smoothPoints2, terms;
double sum;
static double *smoothedData = NULL;
smoothedData = trealloc(smoothedData, rows*sizeof(*smoothedData));
smoothPoints2 = smoothPoints/2;
for (pass=0; pass<smoothPasses; pass++) {
for (row=sum=0; row<smoothPoints2; row++)
sum += data[row];
terms = row;
lower = -smoothPoints2;
upper = smoothPoints2;
for (row=0; row<rows; row++, lower++, upper++) {
if (upper<rows) {
sum += data[upper];
terms += 1;
}
smoothedData[row] = sum/terms;
if (lower>=0) {
sum -= data[lower];
terms -= 1;
}
}
for (row=0; row<rows; row++)
data[row] = smoothedData[row];
}
}
void bl_do_chat_del_user (struct tgl_state *TLS, tgl_peer_id_t id, int version, int user) /* {{{ */ {
tgl_peer_t *P = tgl_peer_get (TLS, id);
if (!P || !(P->flags & TGLPF_CREATED)) { return; }
struct tgl_chat *C = &P->chat;
if (C->user_list_version >= version || !C->user_list_version) { return; }
int i;
for (i = 0; i < C->user_list_size; i++) {
if (C->user_list[i].user_id == user) {
struct tgl_chat_user t;
t = C->user_list[i];
C->user_list[i] = C->user_list[C->user_list_size - 1];
C->user_list[C->user_list_size - 1] = t;
}
}
if (C->user_list[C->user_list_size - 1].user_id != user) { return; }
assert (C->user_list[C->user_list_size - 1].user_id == user);
C->user_list_size --;
C->user_list = trealloc (C->user_list, 12 * C->user_list_size + 12, 12 * C->user_list_size);
C->user_list_version = version;
if (TLS->callback.chat_update) {
TLS->callback.chat_update (TLS, C, TGL_UPDATE_MEMBERS);
}
}
void bl_do_chat_add_user (struct tgl_state *TLS, tgl_peer_id_t id, int version, int user, int inviter, int date) /* {{{ */ {
tgl_peer_t *P = tgl_peer_get (TLS, id);
if (!P || !(P->flags & TGLPF_CREATED)) { return; }
struct tgl_chat *C = &P->chat;
if (C->user_list_version >= version || !C->user_list_version) { return; }
int i;
for (i = 0; i < C->user_list_size; i++) {
if (C->user_list[i].user_id == user) {
return;
}
}
C->user_list_size ++;
C->user_list = trealloc (C->user_list, 12 * C->user_list_size - 12, 12 * C->user_list_size);
C->user_list[C->user_list_size - 1].user_id = user;
C->user_list[C->user_list_size - 1].inviter_id = inviter;
C->user_list[C->user_list_size - 1].date = date;
C->user_list_version = version;
if (TLS->callback.chat_update) {
TLS->callback.chat_update (TLS, C, TGL_UPDATE_MEMBERS);
}
}
static void increase_hashtab_size(cDict *dict)
{
Int i, newsize, oldsize = sizeof(Int) * dict->hashtab_size;
if (dict->hashtab_size > 4096)
dict->hashtab_size += 4096;
else
dict->hashtab_size = dict->hashtab_size * 2 + MALLOC_DELTA;
newsize = sizeof(Int) * dict->hashtab_size;
dict->links = trealloc(dict->links, oldsize, newsize);
dict->hashtab = trealloc(dict->hashtab, oldsize, newsize);
memset(dict->links, -1, newsize);
memset(dict->hashtab, -1, newsize);
for (i = 0; i < dict->keys->len; i++)
insert_key(dict, i);
}
BOOL io_grow(io_struct *ps, uint32 extra_space)
{
uint32 new_size;
char *new_data;
ps->grow_size = MAX(ps->grow_size, ps->data_offset + extra_space);
if(ps->data_offset + extra_space <= ps->buffer_size)
return True;
/*
* We cannot grow the buffer if we're not reading
* into the io_struct, or if we don't own the memory.
*/
if(UNMARSHALLING(ps) || !ps->is_dynamic) {
DEBUG(0,("io_grow: Buffer overflow - unable to expand buffer by %u bytes.\n",
(unsigned int)extra_space));
return False;
}
/*
* Decide how much extra space we really need.
*/
extra_space -= (ps->buffer_size - ps->data_offset);
if(ps->buffer_size == 0) {
/*
* Ensure we have at least a PDU's length, or extra_space, whichever
* is greater.
*/
new_size = MAX(IO_MAX_INITIAL_SPACE, extra_space);
if((new_data = talloc(get_ctx(ps), new_size)) == NULL) {
DEBUG(0,("io_grow: Malloc failure for size %u.\n", (unsigned int)new_size));
return False;
}
memset(new_data, '\0', new_size );
} else {
/*
* If the current buffer size is bigger than the space needed, just
* double it, else add extra_space.
*/
new_size = MAX(ps->buffer_size*2, ps->buffer_size + extra_space);
if ((new_data = trealloc(get_ctx(ps), ps->data_p, new_size)) == NULL) {
DEBUG(0,("io_grow: Realloc failure for size %u.\n",
(unsigned int)new_size));
return False;
}
}
ps->buffer_size = new_size;
ps->data_p = new_data;
return True;
}
static void insert_jp(jp_t rom_idx)
{
jp = trealloc(jp, jp_t, jpN);
if (cursor < jpN)
memmove(jp+cursor+1, jp+cursor, sizeof(jp[0]) * (jpN - cursor));
jp[cursor]=rom_idx;
cursor++;
jpN++;
}
static void request_avail(TBuf *tbuf, int len)
{
int newlen = tbuf->size;
int need = VARSIZE(tbuf->data) + len;
if (need < newlen)
return;
while (need > newlen)
newlen *= 2;
tbuf->data = trealloc(tbuf->data, newlen);
tbuf->size = newlen;
}
static void
state_push_result(struct State * state)
{
if(state->res_max_len < state->res_counter){
state->res_max_len = state->res_max_len * 2;
state->res = (long *) trealloc(state->res, state->res_max_len);
}
memcpy(state->res + state->res_counter * state->length * sizeof(long),
state->mat,
state->height * state->n_bytes * sizeof(long));
state->res_counter++;
}
static void save_page()
{
if (!symsN)
return;
pages=trealloc(pages, PAGE, pagesN+1);
pages[pagesN].syms = syms;
pages[pagesN].symsN = symsN;
pagesN++;
syms = NULL;
symsN = 0;
}
char *escape_quotes(char *s)
{
char *ptr, *bptr;
static char *buffer=NULL;
if (!s)
return(s);
ptr = s;
buffer = trealloc(buffer, sizeof(*buffer)*(4*(strlen(s)+1)));
bptr = buffer;
while (*ptr) {
if (*ptr=='"' && (ptr==s || *(ptr-1)!='\\'))
*bptr++ = '\\';
*bptr++ = *ptr++;
}
*bptr = 0;
strcpy_ss(s, buffer);
return(s);
}
void add_ch_time()
{
int i;
gint64 tim = current_time();
gint64 tim_exp = tim - MAX_KEPT_TIME;
for(i=0;i<ch_timeN;i++)
if (ch_time[i] > tim_exp)
break;
if (i) {
int leftN = ch_timeN - i;
memmove(ch_time, ch_time+i, sizeof(gint64) * leftN);
ch_timeN = leftN;
}
if (ch_timeN_a <= ch_timeN+1) {
ch_timeN_a =ch_timeN+1;
ch_time = trealloc(ch_time, gint64, ch_timeN_a);
}
ch_time[ch_timeN++]=tim;
}
char *JoinStrings(char **source, long n_items, long buflen_increment) {
char *buffer;
char *ptr;
long buffer_size, bufferLeft, bufferUsed;
long i, slen;
char *sptr;
buffer_size = buflen_increment;
buffer = (char*)malloc(sizeof(char)*buffer_size);
buffer[0]=0;
ptr = buffer;
bufferLeft = buffer_size-2;
bufferUsed = 0;
for (i=0; i<n_items; i++) {
sptr = source[i];
slen = strlen(sptr);
while ((slen+5)>bufferLeft) {
buffer = trealloc(buffer, sizeof(char)*(buffer_size+=buflen_increment));
bufferLeft += buflen_increment;
ptr = buffer+bufferUsed;
}
if (i) {
slen++;
*ptr++ = ' ';
}
*ptr++ = '"';
while (*sptr)
*ptr++ = *sptr++;
*ptr++ = '"';
*ptr = 0;
bufferLeft -= slen+2;
bufferUsed += slen+2;
}
return(buffer);
}
int main(void) {
char *a = talloc(3243, NULL);
char *b = talloc(3243, a);
char *c = talloc(3243, a);
char *d = talloc(3243, b);
char *e = talloc(3243, d);
char *f = talloc(3243, d);
char *g = talloc(3243, NULL);
char *h = talloc(3243, g);
char *i = talloc(3243, h);
char *j = talloc(3243, h);
char *k = talloc(3243, j);
c = trealloc(c, 12345);
d = trealloc(d, 12345);
e = trealloc(e, 12345);
g = trealloc(g, 12345);
j = trealloc(j, 12345);
j = trealloc(j, 12345);
i = trealloc(i, 12345);
talloc_steal(h, g); /* same as talloc_steal( h, talloc_get_parent(h) ); */
tfree(a);
tfree(j);
tfree(g);
((int*)h)[123] = 456;
tfree(h);
(void)f;
(void)k;
return 0;
}
void setup_chromaticity_correction(NAMELIST_TEXT *nltext, RUN *run, LINE_LIST *beamline, CHROM_CORRECTION *chrom)
{
VMATRIX *M;
ELEMENT_LIST *eptr, *elast;
#include "chrom.h"
unsigned long unstable;
log_entry("setup_chromaticity_correction");
cp_str(&sextupoles, "sf sd");
/* process namelist input */
set_namelist_processing_flags(STICKY_NAMELIST_DEFAULTS);
set_print_namelist_flags(0);
if (processNamelist(&chromaticity, nltext)==NAMELIST_ERROR)
bombElegant(NULL, NULL);
str_toupper(sextupoles);
if (echoNamelists) print_namelist(stdout, &chromaticity);
if (run->default_order<2)
bombElegant("default order must be >= 2 for chromaticity correction", NULL);
if (chrom->name)
tfree(chrom->name);
chrom->name = tmalloc(sizeof(*chrom->name)*(chrom->n_families=1));
while ((chrom->name[chrom->n_families-1]=get_token(sextupoles)))
chrom->name = trealloc(chrom->name, sizeof(*chrom->name)*(chrom->n_families+=1));
if ((--chrom->n_families)<1)
bombElegant("too few sextupoles given for chromaticity correction", NULL);
chrom->chromx = dnux_dp;
chrom->chromy = dnuy_dp;
chrom->n_iterations = n_iterations;
chrom->correction_fraction = correction_fraction;
alter_defined_values = change_defined_values;
chrom->strengthLimit = strength_limit;
chrom->use_perturbed_matrix = use_perturbed_matrix;
chrom->sextupole_tweek = sextupole_tweek;
chrom->tolerance = tolerance;
verbosityLevel = verbosity;
chrom->exit_on_failure = exit_on_failure;
if (!use_perturbed_matrix) {
if (!beamline->twiss0 || !beamline->matrix) {
double beta_x, alpha_x, eta_x, etap_x;
double beta_y, alpha_y, eta_y, etap_y;
fprintf(stdout, "Computing periodic Twiss parameters.\n");
fflush(stdout);
if (!beamline->twiss0)
beamline->twiss0 = tmalloc(sizeof(*beamline->twiss0));
eptr = beamline->elem_twiss = &(beamline->elem);
elast = eptr;
while (eptr) {
if (eptr->type==T_RECIRC)
beamline->elem_twiss = beamline->elem_recirc = eptr;
elast = eptr;
eptr = eptr->succ;
}
if (beamline->links) {
/* rebaseline_element_links(beamline->links, run, beamline); */
if (assert_element_links(beamline->links, run, beamline, STATIC_LINK+DYNAMIC_LINK)) {
beamline->flags &= ~BEAMLINE_CONCAT_CURRENT;
beamline->flags &= ~BEAMLINE_TWISS_CURRENT;
beamline->flags &= ~BEAMLINE_RADINT_CURRENT;
}
}
M = beamline->matrix = compute_periodic_twiss(&beta_x, &alpha_x, &eta_x, &etap_x, beamline->tune,
&beta_y, &alpha_y, &eta_y, &etap_y, beamline->tune+1,
beamline->elem_twiss, NULL, run,
&unstable, NULL, NULL);
beamline->twiss0->betax = beta_x;
beamline->twiss0->alphax = alpha_x;
beamline->twiss0->phix = 0;
beamline->twiss0->etax = eta_x;
beamline->twiss0->etapx = etap_x;
beamline->twiss0->betay = beta_y;
beamline->twiss0->alphay = alpha_y;
beamline->twiss0->phiy = 0;
beamline->twiss0->etay = eta_y;
beamline->twiss0->etapy = etap_y;
propagate_twiss_parameters(beamline->twiss0, beamline->tune, beamline->waists,
NULL, beamline->elem_twiss, run, NULL,
beamline->couplingFactor);
}
if (!(M=beamline->matrix) || !M->C || !M->R || !M->T)
bombElegant("something wrong with transfer map for beamline (setup_chromaticity_correction)", NULL);
computeChromCorrectionMatrix(run, beamline, chrom);
}
#if USE_MPI
if (!writePermitted)
strength_log = NULL;
#endif
if (strength_log) {
strength_log = compose_filename(strength_log, run->rootname);
fp_sl = fopen_e(strength_log, "w", 0);
fprintf(fp_sl, "SDDS1\n&column name=Step, type=long, description=\"Simulation step\" &end\n");
fprintf(fp_sl, "&column name=K2, type=double, units=\"1/m$a2$n\" &end\n");
fprintf(fp_sl, "&column name=SextupoleName, type=string &end\n");
fprintf(fp_sl, "&data mode=ascii, no_row_counts=1 &end\n");
fflush(fp_sl);
}
log_exit("setup_chromaticity_correction");
}
int main(int argc, char **argv)
{
SDDS_TABLE SDDS_table;
SCANNED_ARG *scanned;
long i, i_arg, points;
char *input, *output, *name, *indep_var, *var_list_format;
char *mpl_title, *mpl_topline, *descrip_text, *descrip_contents;
FILE *fpi;
char buffer[BUFSIZE], buffer0[BUFSIZE], buffer1[BUFSIZE];
char *ptr, *ptr1, *ptr2;
char **data_name, *package_name, *data_format;
long data_names, data_sets_seen, data_sets_expected, realIndex, imagIndex;
double **real_data, **imag_data, *var_list;
argc = scanargs(&scanned, argc, argv);
if (argc<3)
bomb(NULL, USAGE);
input = output = package_name = data_format = indep_var = var_list_format = ptr = NULL;
mpl_title = mpl_topline = descrip_text = descrip_contents = NULL;
data_names = realIndex = imagIndex = 0;
data_name = NULL;
real_data = imag_data = NULL;
var_list = NULL;
data_sets_expected = data_sets_seen = 0;
points = 0;
for (i_arg=1; i_arg<argc; i_arg++) {
if (scanned[i_arg].arg_type==OPTION) {
delete_chars(scanned[i_arg].list[0], "_");
/* process options here */
switch (match_string(scanned[i_arg].list[0], option, N_OPTIONS, 0)) {
case SET_DESCRIPTION:
if (scanned[i_arg].n_items!=3)
SDDS_Bomb("invalid -description syntax");
descrip_text = scanned[i_arg].list[1];
descrip_contents = scanned[i_arg].list[2];
break;
case SET_MPL_LABELS:
if (scanned[i_arg].n_items!=3)
SDDS_Bomb("invalid -mpllabels syntax");
mpl_title = scanned[i_arg].list[1];
mpl_topline = scanned[i_arg].list[2];
break;
default:
SDDS_Bomb("invalid option seen");
break;
}
}
else {
if (!input)
input = scanned[i_arg].list[0];
else if (!output)
output = scanned[i_arg].list[0];
else
SDDS_Bomb("too many filenames");
}
}
if (!input)
SDDS_Bomb("input file not seen");
if (!output)
SDDS_Bomb("output file not seen");
fpi = fopen_e(input, "r", 0);
if (!fgets(buffer, BUFSIZE, fpi) || strncmp(buffer, CITIFILE_TAG, strlen(CITIFILE_TAG))!=0 ||
!(ptr=strchr(buffer, ' ')))
SDDS_Bomb("valid CITIFILE version line not found");
*ptr++ = 0;
ptr[strlen(ptr)-1] = 0;
if (strncmp(ptr, CITIFILE_VERSION, strlen(CITIFILE_VERSION))!=0)
fprintf(stderr, "warning: the CITIFILE version is %s--this program is only designed for version %s\n",
ptr, CITIFILE_VERSION);
if (!SDDS_InitializeOutput(&SDDS_table, SDDS_BINARY, 0, descrip_text, descrip_contents,
output))
SDDS_PrintErrors(stderr, SDDS_EXIT_PrintErrors|SDDS_VERBOSE_PrintErrors);
if ((mpl_title &&
SDDS_DefineParameter(&SDDS_table, "mplTitle", NULL, NULL, NULL, NULL, SDDS_STRING, mpl_title)<0) ||
(mpl_topline &&
SDDS_DefineParameter(&SDDS_table, "mplTopline", NULL, NULL, NULL, NULL, SDDS_STRING, mpl_topline)<0))
SDDS_PrintErrors(stderr, SDDS_EXIT_PrintErrors|SDDS_VERBOSE_PrintErrors);
while (fgets(buffer, BUFSIZE, fpi)) {
#if DEBUG
fputs(buffer, stderr);
#endif
buffer[strlen(buffer)-1] = 0;
strcpy(buffer0, buffer);
ptr1 = NULL;
if ((ptr1=strchr(buffer, ' ')))
*ptr1++ = 0;
switch (match_string(buffer, citi_keyword, N_CITI_KEYWORDS, EXACT_MATCH)) {
case CITI_NA_KEYWORD:
name = buffer+1;
if (!*ptr1 || !(ptr2=strchr(ptr1, ' '))) {
fprintf(stderr, "The following line contains an apparently invalid #NA keyword:\n%s\n",
buffer0);
exit(1);
}
*(ptr1-1) = '_';
*ptr2++ = 0;
if (SDDS_DefineParameter(&SDDS_table, name, NULL, NULL, NULL, NULL, SDDS_STRING, ptr2)<0) {
SDDS_SetError(buffer0);
SDDS_SetError("Problem creating parameter for #NA keyword in the following line:");
SDDS_PrintErrors(stderr, SDDS_EXIT_PrintErrors|SDDS_VERBOSE_PrintErrors);
}
break;
case CITI_NAME_KEYWORD:
if (!ptr1 || SDDS_StringIsBlank(ptr1)) {
fprintf(stderr, "The following line contains erroneous input:\n%s\n", buffer0);
exit(1);
}
#if DEBUG
fprintf(stderr, "NAME: %s\n", ptr1);
#endif
cp_str(&package_name, ptr1);
if (SDDS_DefineParameter(&SDDS_table, "CITIPackageName", NULL, NULL, NULL, NULL, SDDS_STRING,
package_name)<0) {
SDDS_SetError(buffer0);
SDDS_SetError("Problem creating parameter for NAME keyword in the following line:");
SDDS_PrintErrors(stderr, SDDS_EXIT_PrintErrors|SDDS_VERBOSE_PrintErrors);
}
break;
case CITI_VAR_KEYWORD:
if (!ptr1 || SDDS_StringIsBlank(ptr1)) {
fprintf(stderr, "The following line contains erroneous input:\n%s\n", buffer0);
exit(1);
}
#if DEBUG
fprintf(stderr, "VAR: %s\n", ptr1);
#endif
if (!(indep_var=get_token(ptr1)) || !(var_list_format=get_token(ptr1)) || !get_long(&points, ptr1) ||
points<=0) {
fprintf(stderr, "The following line contains erroneous input:\n%s\n", buffer0);
exit(1);
}
if (SDDS_DefineColumn(&SDDS_table, indep_var, NULL, NULL, NULL, NULL, SDDS_DOUBLE, 0)<0) {
SDDS_SetError(buffer0);
SDDS_SetError("Problem creating column for data element in the following line:");
SDDS_PrintErrors(stderr, SDDS_EXIT_PrintErrors|SDDS_VERBOSE_PrintErrors);
}
break;
case CITI_CONSTANT_KEYWORD:
if (!ptr1 || !(ptr2=strchr(ptr1, ' '))) {
fprintf(stderr, "The following line contains erroneous input:\n%s\n", buffer0);
exit(1);
}
#if DEBUG
fprintf(stderr, "CONSTANT: %s\n", ptr1);
#endif
*ptr2++ = 0;
if (SDDS_DefineParameter(&SDDS_table, ptr1, NULL, NULL, NULL, NULL, SDDS_STRING, ptr2)<0) {
SDDS_SetError(buffer0);
SDDS_SetError("Problem creating parameter for CONSTANT keyword in the following line:");
SDDS_PrintErrors(stderr, SDDS_EXIT_PrintErrors|SDDS_VERBOSE_PrintErrors);
}
break;
case CITI_COMMENT_KEYWORD:
if (!ptr1 || SDDS_StringIsBlank(ptr1)) {
fprintf(stderr, "The following line contains erroneous input:\n%s\n", buffer0);
exit(1);
}
#if DEBUG
fprintf(stderr, "COMMENT: %s\n", ptr1);
#endif
break;
case CITI_DATA_KEYWORD:
if (!ptr1 || !(ptr2 = strchr(ptr1, ' '))) {
fprintf(stderr, "The following line contains erroneous input:\n%s\n", buffer0);
exit(1);
}
#if DEBUG
fprintf(stderr, "DATA: %s\n", ptr1);
#endif
*ptr2++ = 0;
cp_str(&data_format, ptr2);
data_name = trealloc(data_name, sizeof(*data_name)*(data_names+1));
cp_str(data_name+data_names, ptr1);
alter_data_name(data_name[data_names]);
real_data = trealloc(real_data, sizeof(*real_data)*(data_names+1));
imag_data = trealloc(imag_data, sizeof(*imag_data)*(data_names+1));
sprintf(buffer, "%sReal", data_name[data_names]);
sprintf(buffer1, "%sImag", data_name[data_names]);
if ((realIndex=SDDS_DefineColumn(&SDDS_table, buffer,
NULL, NULL, NULL, NULL, SDDS_DOUBLE, 0))<0 ||
(imagIndex=SDDS_DefineColumn(&SDDS_table, buffer1,
NULL, NULL, NULL, NULL, SDDS_DOUBLE, 0))<0 ) {
SDDS_SetError(buffer0);
SDDS_SetError("Problem creating column for data element in the following line:");
SDDS_PrintErrors(stderr, SDDS_EXIT_PrintErrors|SDDS_VERBOSE_PrintErrors);
}
data_names++;
break;
case CITI_VAR_LIST_KEYWORD:
if (ptr1 && !SDDS_StringIsBlank(ptr1))
fprintf(stderr, "The following line contains erroneous input:\n%s\n", buffer0);
#if DEBUG
fprintf(stderr, "VAR_LIST_BEGIN seen\n");
#endif
if (points==0)
SDDS_Bomb("VAR_LIST_BEGIN statement seen without prior VAR statement");
var_list = tmalloc(sizeof(*var_list)*points);
if (!read_CITI_var_list(fpi, var_list, points))
SDDS_Bomb("unable to read VAR_LIST");
break;
case CITI_BEGIN_KEYWORD:
if (ptr1 && !SDDS_StringIsBlank(ptr1))
fprintf(stderr, "The following line contains erroneous input:\n%s\n", buffer0);
#if DEBUG
fprintf(stderr, "BEGIN seen\n");
#endif
if (points==0)
SDDS_Bomb("BEGIN statement seen without prior VAR statement");
real_data[data_sets_seen] = tmalloc(sizeof(**real_data)*points);
imag_data[data_sets_seen] = tmalloc(sizeof(**imag_data)*points);
if (!read_CITI_data(fpi, real_data[data_sets_seen], imag_data[data_sets_seen], points))
SDDS_Bomb("problem reading data section");
data_sets_seen++;
break;
case CITI_SEG_LIST_BEGIN:
if (ptr1 && !SDDS_StringIsBlank(ptr1))
fprintf(stderr, "The following line contains erroneous input:\n%s\n", buffer0);
#if DEBUG
fprintf(stderr, "SEG_LIST_BEGIN seen\n");
#endif
if (points==0)
SDDS_Bomb("SEG_LIST_BEGIN statement seen without prior SEG statement");
var_list = tmalloc(sizeof(*var_list)*points);
if (!read_CITI_seg_list(fpi, var_list, points))
SDDS_Bomb("unable to read SEG_LIST");
break;
default:
fprintf(stderr, "unidentifiable line in file--not CITI format:\n\"%s\"\n",
buffer0);
exit(1);
break;
}
}
if (!points)
SDDS_Bomb("no data in file");
if (data_sets_seen!=(data_sets_expected=data_names))
SDDS_Bomb("fewer data sets than expected were actually present");
if (!var_list) {
fprintf(stderr, "warning: no independent variable data---supplying index\n");
var_list = tmalloc(sizeof(*var_list)*points);
for (i=0; i<points; i++)
var_list[i] = i;
}
if (!SDDS_WriteLayout(&SDDS_table) || !SDDS_StartTable(&SDDS_table, points))
SDDS_PrintErrors(stderr, SDDS_EXIT_PrintErrors|SDDS_VERBOSE_PrintErrors);
if (!SDDS_SetColumn(&SDDS_table, SDDS_SET_BY_NAME, (void*)var_list, points, indep_var))
SDDS_PrintErrors(stderr, SDDS_EXIT_PrintErrors|SDDS_VERBOSE_PrintErrors);
for (i=0; i<data_sets_expected; i++) {
if (!SDDS_SetColumn(&SDDS_table, SDDS_SET_BY_INDEX, (void*)real_data[i], points,
realIndex) ||
!SDDS_SetColumn(&SDDS_table, SDDS_SET_BY_INDEX, (void*)imag_data[i], points,
imagIndex)) {
fprintf(stderr, "problem setting data for column(s) %s\n", data_name[i]);
SDDS_PrintErrors(stderr, SDDS_EXIT_PrintErrors|SDDS_VERBOSE_PrintErrors);
}
}
if (!SDDS_WriteTable(&SDDS_table) || !SDDS_Terminate(&SDDS_table))
SDDS_PrintErrors(stderr, SDDS_EXIT_PrintErrors|SDDS_VERBOSE_PrintErrors);
return(0);
}
int
B2noise (int mode, int operation, GENmodel *genmodel, CKTcircuit *ckt,
Ndata *data, double *OnDens)
{
B2model *firstModel = (B2model *) genmodel;
B2model *model;
B2instance *inst;
char name[N_MXVLNTH];
double tempOnoise;
double tempInoise;
double noizDens[B2NSRCS];
double lnNdens[B2NSRCS];
int i;
/* define the names of the noise sources */
static char *B2nNames[B2NSRCS] = { /* Note that we have to keep the order */
"_rd", /* noise due to rd */ /* consistent with thestrchr definitions */
"_rs", /* noise due to rs */ /* in bsim1defs.h */
"_id", /* noise due to id */
"_1overf", /* flicker (1/f) noise */
"" /* total transistor noise */
};
for (model=firstModel; model != NULL; model=model->B2nextModel) {
for (inst=model->B2instances; inst != NULL; inst=inst->B2nextInstance) {
if (inst->B2owner != ARCHme) continue;
switch (operation) {
case N_OPEN:
/* see if we have to to produce a summary report */
/* if so, name all the noise generators */
if (((NOISEAN*)ckt->CKTcurJob)->NStpsSm != 0) {
switch (mode) {
case N_DENS:
for (i=0; i < B2NSRCS; i++) {
(void)sprintf(name,"onoise_%s%s",inst->B2name,B2nNames[i]);
data->namelist = (IFuid *)trealloc((char *)data->namelist,(data->numPlots + 1)*sizeof(IFuid));
if (!data->namelist) return(E_NOMEM);
(*(SPfrontEnd->IFnewUid))(ckt,
&(data->namelist[data->numPlots++]),
(IFuid)NULL,name,UID_OTHER,(void **)NULL);
/* we've added one more plot */
}
break;
case INT_NOIZ:
for (i=0; i < B2NSRCS; i++) {
(void)sprintf(name,"onoise_total_%s%s",inst->B2name,B2nNames[i]);
data->namelist = (IFuid *)trealloc((char *)data->namelist,(data->numPlots + 1)*sizeof(IFuid));
if (!data->namelist) return(E_NOMEM);
(*(SPfrontEnd->IFnewUid))(ckt,
&(data->namelist[data->numPlots++]),
(IFuid)NULL,name,UID_OTHER,(void **)NULL);
/* we've added one more plot */
(void)sprintf(name,"inoise_total_%s%s",inst->B2name,B2nNames[i]);
data->namelist = (IFuid *)trealloc((char *)data->namelist,(data->numPlots + 1)*sizeof(IFuid));
if (!data->namelist) return(E_NOMEM);
(*(SPfrontEnd->IFnewUid))(ckt,
&(data->namelist[data->numPlots++]),
(IFuid)NULL,name,UID_OTHER,(void **)NULL);
/* we've added one more plot */
}
break;
}
}
break;
case N_CALC:
switch (mode) {
case N_DENS:
NevalSrc(&noizDens[B2RDNOIZ],&lnNdens[B2RDNOIZ],
ckt,THERMNOISE,inst->B2dNodePrime,inst->B2dNode,
inst->B2drainConductance * inst->B2m);
NevalSrc(&noizDens[B2RSNOIZ],&lnNdens[B2RSNOIZ],
ckt,THERMNOISE,inst->B2sNodePrime,inst->B2sNode,
inst->B2sourceConductance * inst->B2m);
NevalSrc(&noizDens[B2IDNOIZ],&lnNdens[B2IDNOIZ],
ckt,THERMNOISE,inst->B2dNodePrime,inst->B2sNodePrime,
(2.0/3.0 * fabs(inst->B2gm * inst->B2m)));
NevalSrc(&noizDens[B2FLNOIZ],(double*)NULL,ckt,
N_GAIN,inst->B2dNodePrime, inst->B2sNodePrime,
(double)0.0);
noizDens[B2FLNOIZ] *= model->B2fNcoef * inst->B2m *
exp(model->B2fNexp *
log(MAX(fabs(inst->B2cd),N_MINLOG))) /
(data->freq *
(inst->B2w - model->B2deltaW * 1e-6) *
(inst->B2l - model->B2deltaL * 1e-6) *
model->B2Cox * model->B2Cox);
lnNdens[B2FLNOIZ] =
log(MAX(noizDens[B2FLNOIZ],N_MINLOG));
noizDens[B2TOTNOIZ] = noizDens[B2RDNOIZ] +
noizDens[B2RSNOIZ] +
noizDens[B2IDNOIZ] +
noizDens[B2FLNOIZ];
lnNdens[B2TOTNOIZ] =
log(MAX(noizDens[B2TOTNOIZ], N_MINLOG));
*OnDens += noizDens[B2TOTNOIZ];
if (data->delFreq == 0.0) {
/* if we haven't done any previous integration, we need to */
/* initialize our "history" variables */
for (i=0; i < B2NSRCS; i++) {
inst->B2nVar[LNLSTDENS][i] = lnNdens[i];
}
/* clear out our integration variables if it's the first pass */
if (data->freq == ((NOISEAN*)ckt->CKTcurJob)->NstartFreq) {
for (i=0; i < B2NSRCS; i++) {
inst->B2nVar[OUTNOIZ][i] = 0.0;
inst->B2nVar[INNOIZ][i] = 0.0;
}
}
} else { /* data->delFreq != 0.0 (we have to integrate) */
for (i=0; i < B2NSRCS; i++) {
if (i != B2TOTNOIZ) {
tempOnoise = Nintegrate(noizDens[i], lnNdens[i],
inst->B2nVar[LNLSTDENS][i], data);
tempInoise = Nintegrate(noizDens[i] * data->GainSqInv ,
lnNdens[i] + data->lnGainInv,
inst->B2nVar[LNLSTDENS][i] + data->lnGainInv,
data);
inst->B2nVar[LNLSTDENS][i] = lnNdens[i];
data->outNoiz += tempOnoise;
data->inNoise += tempInoise;
if (((NOISEAN*)ckt->CKTcurJob)->NStpsSm != 0) {
inst->B2nVar[OUTNOIZ][i] += tempOnoise;
inst->B2nVar[OUTNOIZ][B2TOTNOIZ] += tempOnoise;
inst->B2nVar[INNOIZ][i] += tempInoise;
inst->B2nVar[INNOIZ][B2TOTNOIZ] += tempInoise;
}
}
}
}
if (data->prtSummary) {
for (i=0; i < B2NSRCS; i++) { /* print a summary report */
data->outpVector[data->outNumber++] = noizDens[i];
}
}
break;
case INT_NOIZ: /* already calculated, just output */
if (((NOISEAN*)ckt->CKTcurJob)->NStpsSm != 0) {
for (i=0; i < B2NSRCS; i++) {
data->outpVector[data->outNumber++] = inst->B2nVar[OUTNOIZ][i];
data->outpVector[data->outNumber++] = inst->B2nVar[INNOIZ][i];
}
} /* if */
break;
} /* switch (mode) */
break;
case N_CLOSE:
return (OK); /* do nothing, the main calling routine will close */
break; /* the plots */
} /* switch (operation) */
} /* for inst */
} /* for model */
return(OK);
}
int HSM2noise (
int mode, int operation,
GENmodel *inModel,
CKTcircuit *ckt,
Ndata *data,
double *OnDens)
{
HSM2model *model = (HSM2model *)inModel;
HSM2instance *here;
char name[N_MXVLNTH];
double tempOnoise;
double tempInoise;
double noizDens[HSM2NSRCS];
double lnNdens[HSM2NSRCS];
int i;
double G = 0.0 ;
double TTEMP = 0.0 ;
/* for induced gate noise calculation: */
double omega = ckt->CKTomega;
double sid, ci, sigrat, Qdrat;
double realXds, imagXds, realXgs, imagXgs ;
/* define the names of the noise sources */
static char * HSM2nNames[HSM2NSRCS] = {
/* Note that we have to keep the order
consistent with the index definitions
in hsm2defs.h */
".rd", /* noise due to rd */
".rs", /* noise due to rs */
".id", /* noise due to id */
".1ovf", /* flicker (1/f) noise */
".igs", /* shot noise due to Igs */
".igd", /* shot noise due to Igd */
".igb", /* shot noise due to Igb */
".ign", /* induced gate noise component at the drain node */
"" /* total transistor noise */
};
for ( ;model != NULL; model = model->HSM2nextModel ) {
for ( here = model->HSM2instances; here != NULL;
here = here->HSM2nextInstance ) {
switch (operation) {
case N_OPEN:
/* see if we have to to produce a summary report */
/* if so, name all the noise generators */
if (((NOISEAN*)ckt->CKTcurJob)->NStpsSm != 0) {
switch (mode) {
case N_DENS:
for ( i = 0; i < HSM2NSRCS; i++ ) {
(void) sprintf(name, "onoise.%s%s",
(char *)here->HSM2name, HSM2nNames[i]);
data->namelist =
(IFuid *) trealloc((char *) data->namelist,
((long unsigned int)data->numPlots + 1) * sizeof(IFuid));
if (!data->namelist)
return(E_NOMEM);
(*(SPfrontEnd->IFnewUid))
(ckt, &(data->namelist[data->numPlots++]),
(IFuid) NULL, name, UID_OTHER, NULL);
}
break;
case INT_NOIZ:
for ( i = 0; i < HSM2NSRCS; i++ ) {
(void) sprintf(name, "onoise_total.%s%s",
(char *)here->HSM2name, HSM2nNames[i]);
data->namelist =
(IFuid *) trealloc((char *) data->namelist,
((long unsigned int)data->numPlots + 1) * sizeof(IFuid));
if (!data->namelist)
return(E_NOMEM);
(*(SPfrontEnd->IFnewUid))
(ckt, &(data->namelist[data->numPlots++]),
(IFuid) NULL, name, UID_OTHER, NULL);
(void) sprintf(name, "inoise_total.%s%s",
(char *)here->HSM2name, HSM2nNames[i]);
data->namelist =
(IFuid *) trealloc((char *) data->namelist,
((long unsigned int)data->numPlots + 1) * sizeof(IFuid));
if (!data->namelist)
return(E_NOMEM);
(*(SPfrontEnd->IFnewUid))
(ckt, &(data->namelist[data->numPlots++]),
(IFuid) NULL, name, UID_OTHER, NULL);
}
break;
}
}
break;
case N_CALC:
switch (mode) {
case N_DENS:
/* temperature */
TTEMP = ckt->CKTtemp ;
if ( here->HSM2_temp_Given ) TTEMP = here->HSM2_ktemp ;
if ( here->HSM2_dtemp_Given ) {
TTEMP = TTEMP + here->HSM2_dtemp ;
}
/* rs/rd thermal noise */
if ( model->HSM2_corsrd < 0 ) {
NevalSrc(&noizDens[HSM2RDNOIZ], (double*) NULL,
ckt, N_GAIN,
here->HSM2dNodePrime, here->HSM2dNode,
(double) 0.0);
noizDens[HSM2RDNOIZ] *= 4 * CONSTboltz * TTEMP * here->HSM2drainConductance ;
lnNdens[HSM2RDNOIZ] = log( MAX(noizDens[HSM2RDNOIZ],N_MINLOG) ) ;
NevalSrc(&noizDens[HSM2RSNOIZ], (double*) NULL,
ckt, N_GAIN,
here->HSM2sNodePrime, here->HSM2sNode,
(double) 0.0);
noizDens[HSM2RSNOIZ] *= 4 * CONSTboltz * TTEMP * here->HSM2sourceConductance ;
lnNdens[HSM2RSNOIZ] = log( MAX(noizDens[HSM2RSNOIZ],N_MINLOG) ) ;
/*
NevalSrc(&noizDens[HSM2RDNOIZ], &lnNdens[HSM2RDNOIZ],
ckt, THERMNOISE,
here->HSM2dNodePrime, here->HSM2dNode,
here->HSM2_weff / model->HSM2_rsh);
NevalSrc(&noizDens[HSM2RSNOIZ], &lnNdens[HSM2RSNOIZ],
ckt, THERMNOISE,
here->HSM2sNodePrime, here->HSM2sNode,
here->HSM2_weff / model->HSM2_rsh);
*/
} else {
noizDens[HSM2RDNOIZ] = 0e0 ;
lnNdens[HSM2RDNOIZ] = N_MINLOG ;
noizDens[HSM2RSNOIZ] = 0e0 ;
lnNdens[HSM2RSNOIZ] = N_MINLOG ;
}
/* channel thermal noise */
switch( model->HSM2_noise ) {
case 1:
/* HiSIM2 model */
if ( model->HSM2_corsrd <= 0 || here->HSM2internalGd <= 0.0 ) {
G = here->HSM2_noithrml ;
} else {
if ( here->HSM2_noithrml * here->HSM2internalGd * here->HSM2internalGs > 0.0 ) {
G = here->HSM2_noithrml * here->HSM2internalGd * here->HSM2internalGs
/ ( here->HSM2_noithrml * here->HSM2internalGd
+ here->HSM2internalGd * here->HSM2internalGs
+ here->HSM2_noithrml * here->HSM2internalGs );
} else {
G = 0.0;
}
}
NevalSrc(&noizDens[HSM2IDNOIZ], (double*) NULL,
ckt, N_GAIN,
here->HSM2dNodePrime, here->HSM2sNodePrime,
(double) 0.0);
noizDens[HSM2IDNOIZ] *= 4 * CONSTboltz * TTEMP * G ;
lnNdens[HSM2IDNOIZ] = log( MAX(noizDens[HSM2IDNOIZ],N_MINLOG) );
break;
}
/* flicker noise */
NevalSrc(&noizDens[HSM2FLNOIZ], (double*) NULL,
ckt, N_GAIN,
here->HSM2dNodePrime, here->HSM2sNodePrime,
(double) 0.0);
switch ( model->HSM2_noise ) {
case 1:
/* HiSIM model */
noizDens[HSM2FLNOIZ] *= here->HSM2_noiflick / pow(data->freq, model->HSM2_falph) ;
break;
}
lnNdens[HSM2FLNOIZ] = log(MAX(noizDens[HSM2FLNOIZ], N_MINLOG));
/* shot noise */
NevalSrc(&noizDens[HSM2IGSNOIZ],
&lnNdens[HSM2IGSNOIZ], ckt, SHOTNOISE,
here->HSM2gNodePrime, here->HSM2sNodePrime,
here->HSM2_igs);
NevalSrc(&noizDens[HSM2IGDNOIZ],
&lnNdens[HSM2IGDNOIZ], ckt, SHOTNOISE,
here->HSM2gNodePrime, here->HSM2dNodePrime,
here->HSM2_igd);
NevalSrc(&noizDens[HSM2IGBNOIZ],
&lnNdens[HSM2IGBNOIZ], ckt, SHOTNOISE,
here->HSM2gNodePrime, here->HSM2bNodePrime,
here->HSM2_igb);
/* induced gate noise */
switch ( model->HSM2_noise ) {
case 1:
/* HiSIM model */
sid = 4.0 * CONSTboltz * TTEMP * here->HSM2_noithrml ;
ci = here->HSM2_noicross ;
sigrat = (sid > 0.0 && here->HSM2_noiigate > 0.0) ? sqrt(here->HSM2_noiigate/sid) : 0.0 ;
Qdrat = here->HSM2_Qdrat ;
realXds = *(ckt->CKTrhs +here->HSM2dNodePrime) - *(ckt->CKTrhs +here->HSM2sNodePrime);
imagXds = *(ckt->CKTirhs+here->HSM2dNodePrime) - *(ckt->CKTirhs+here->HSM2sNodePrime);
realXgs = *(ckt->CKTrhs +here->HSM2gNodePrime) - *(ckt->CKTrhs +here->HSM2sNodePrime);
imagXgs = *(ckt->CKTirhs+here->HSM2gNodePrime) - *(ckt->CKTirhs+here->HSM2sNodePrime);
noizDens[HSM2IGNOIZ] = 2.0 * omega * ci * sigrat * sid * ( realXgs*imagXds - realXds*imagXgs )
+ omega*omega * sigrat*sigrat * sid * ( (realXgs-Qdrat*realXds) * (realXgs-Qdrat*realXds)
+(imagXgs-Qdrat*imagXds) * (imagXgs-Qdrat*imagXds) ) ;
lnNdens[HSM2IGNOIZ] = log(MAX(noizDens[HSM2IGNOIZ], N_MINLOG));
break;
}
/* total */
noizDens[HSM2TOTNOIZ] = noizDens[HSM2RDNOIZ] + noizDens[HSM2RSNOIZ]
+ noizDens[HSM2IDNOIZ] + noizDens[HSM2FLNOIZ]
+ noizDens[HSM2IGSNOIZ] + noizDens[HSM2IGDNOIZ] + noizDens[HSM2IGBNOIZ]
+ noizDens[HSM2IGNOIZ];
lnNdens[HSM2TOTNOIZ] = log(MAX(noizDens[HSM2TOTNOIZ], N_MINLOG));
/* printf("f %e Sid %.16e Srd %.16e Srs %.16e Sflick %.16e Stherm %.16e Sign %.16e\n", */
/* data->freq,noizDens[HSM2TOTNOIZ],noizDens[HSM2RDNOIZ],noizDens[HSM2RSNOIZ],noizDens[HSM2FLNOIZ],noizDens[HSM2IDNOIZ],noizDens[HSM2IGNOIZ]); */
*OnDens += noizDens[HSM2TOTNOIZ];
if ( data->delFreq == 0.0 ) {
/* if we haven't done any previous
integration, we need to initialize our
"history" variables.
*/
for ( i = 0; i < HSM2NSRCS; i++ )
here->HSM2nVar[LNLSTDENS][i] = lnNdens[i];
/* clear out our integration variables
if it's the first pass
*/
if (data->freq == ((NOISEAN*) ckt->CKTcurJob)->NstartFreq) {
for (i = 0; i < HSM2NSRCS; i++) {
here->HSM2nVar[OUTNOIZ][i] = 0.0;
here->HSM2nVar[INNOIZ][i] = 0.0;
}
}
}
else {
/* data->delFreq != 0.0,
we have to integrate.
*/
for ( i = 0; i < HSM2NSRCS; i++ ) {
if ( i != HSM2TOTNOIZ ) {
tempOnoise =
Nintegrate(noizDens[i], lnNdens[i],
here->HSM2nVar[LNLSTDENS][i], data);
tempInoise =
Nintegrate(noizDens[i] * data->GainSqInv,
lnNdens[i] + data->lnGainInv,
here->HSM2nVar[LNLSTDENS][i] + data->lnGainInv,
data);
here->HSM2nVar[LNLSTDENS][i] = lnNdens[i];
data->outNoiz += tempOnoise;
data->inNoise += tempInoise;
if ( ((NOISEAN*)ckt->CKTcurJob)->NStpsSm != 0 ) {
here->HSM2nVar[OUTNOIZ][i] += tempOnoise;
here->HSM2nVar[OUTNOIZ][HSM2TOTNOIZ] += tempOnoise;
here->HSM2nVar[INNOIZ][i] += tempInoise;
here->HSM2nVar[INNOIZ][HSM2TOTNOIZ] += tempInoise;
}
}
}
}
if ( data->prtSummary ) {
for (i = 0; i < HSM2NSRCS; i++) {
/* print a summary report */
data->outpVector[data->outNumber++] = noizDens[i];
}
}
break;
case INT_NOIZ:
/* already calculated, just output */
if ( ((NOISEAN*)ckt->CKTcurJob)->NStpsSm != 0 ) {
for ( i = 0; i < HSM2NSRCS; i++ ) {
data->outpVector[data->outNumber++] = here->HSM2nVar[OUTNOIZ][i];
data->outpVector[data->outNumber++] = here->HSM2nVar[INNOIZ][i];
}
}
break;
}
break;
case N_CLOSE:
/* do nothing, the main calling routine will close */
return (OK);
break; /* the plots */
} /* switch (operation) */
} /* for here */
} /* for model */
return(OK);
}
static gboolean read_syms()
{
FILE *fp;
static char symbol_table[] = "symbol-table";
static time_t file_modify_time;
if ((fp=watch_fopen(symbol_table, &file_modify_time))==NULL)
return FALSE;
skip_utf8_sigature(fp);
int pg;
for(pg=0; pg < pagesN; pg++) {
syms = pages[pg].syms;
symsN = pages[pg].symsN;
int i;
for(i=0; i < symsN; i++) {
int j;
for(j=0; j < syms[i].symN; j++)
if (syms[i].sym[j])
free(syms[i].sym[j]);
}
free(syms);
}
pagesN = 0; pages = NULL;
syms = NULL; symsN = 0;
while (!feof(fp)) {
char tt[1024];
bzero(tt, sizeof(tt));
myfgets(tt, sizeof(tt), fp);
// dbg("%d] %s\n",strlen(tt), tt);
int len=strlen(tt);
#if 0
if (!len)
continue;
if (tt[len-1]=='\n') {
tt[len-1]=0;
}
#endif
if (tt[0]==0)
save_page();
if (tt[0]=='#')
continue;
char *p=tt;
syms=trealloc(syms, SYM_ROW, symsN+1);
SYM_ROW *psym = &syms[symsN++];
bzero(psym, sizeof(SYM_ROW));
while (*p) {
char *n = p;
while (*n && *n!='\t')
n++;
*n = 0;
psym->sym=trealloc(psym->sym, char *, psym->symN+1);
psym->sym[psym->symN++] = strdup(p);
p = n + 1;
}
if (!psym->symN) {
free(syms);
syms=NULL;
symsN=0;
}
}
if (symsN)
save_page();
fclose(fp);
idx = 0;
syms = pages[idx].syms;
symsN = pages[idx].symsN;
return TRUE;
}
long scan_namelist(NAMELIST_TEXT *nl, char *line)
{
register char *ptr, *ptr_e;
char *ptr_p, *ptr_to_free ;
long n_entities, i, j, length_values, length;
char *values;
static char *buffer = NULL;
static long bufsize = 0;
#define BIGBUFSIZE 16384
#define INDEX_LIMIT 16380
#if !defined(vxWorks)
long k, m, n, len, insideCommand;
char psBuffer[16384], tempptr[16384], command[16384];
FILE *fID;
#ifdef CONDOR_COMPILE
char tmpName[1024];
#endif
#endif
values = NULL;
length_values = 0;
if (!buffer)
buffer = tmalloc(sizeof(*buffer)*(bufsize = 128));
nl->n_entities = 0;
nl->group_name = NULL;
nl->entity = NULL;
nl->value = NULL;
nl->n_values = nl->n_subscripts = NULL;
nl->subscript = nl->repeat = NULL;
#ifdef DEBUG
printf("scan_namelist: line = <%s>\n", line);
#endif
cp_str(&ptr_to_free, line);
ptr = ptr_to_free;
/* Find group name--it's a token starting with '$' or '&'. */
#if DOLLARSIGN_TOO
if (!(ptr_p=next_unquoted_char(ptr, '$', '"')) &&
!(ptr_p=next_unquoted_char(ptr, '&', '"')) ) {
free(ptr_to_free);
fprintf(stderr, "error: namelist scanning problem---missing group name:\n%s\n", ptr);
return(-1);
}
#else
if (!(ptr_p=next_unquoted_char(ptr, '&', '"'))) {
free(ptr_to_free);
fprintf(stderr, "error: namelist scanning problem---missing group name:\n%s\n", ptr);
return(-1);
}
#endif
ptr_p++;
if ((nl->group_name=get_token(ptr_p))==NULL) {
free(ptr_to_free);
fprintf(stderr, "error: namelist scanning problem---missing group name:\n%s\n", ptr);
return(-1);
}
#ifdef DEBUG
printf("scan_namelist: nl->group_name = <%s>\n", nl->group_name);
#endif
/* Count entities--each entity is associated with an equals sign,
* since these are all assignments. */
#if DOLLARSIGN_TOO
n_entities = count_occurences(ptr_p, '=', "$&");
#else
n_entities = count_occurences(ptr_p, '=', "&");
#endif
if (n_entities==0) {
free(ptr_to_free);
return(nl->n_entities=0);
}
#ifdef DEBUG
printf("scan_namelist: n_entities = %ld\n", n_entities);
#endif
/* allocate memory for parallel arrays representing the namelist:
* nl->entity is an array of entity names
* nl->value is an array of arrays of values assigned
* nl->repeat is an array of arrays of repeat factors applied to values
* nl->n_values is an array of numbers of values
* nl->n_subscripts is an array of numbers of subscripts
* nl->subscript is an array of arrays of subscripts
*/
nl->entity = tmalloc(sizeof(*(nl->entity ))*n_entities);
nl->value = tmalloc(sizeof(*(nl->value ))*n_entities);
nl->repeat = tmalloc(sizeof(*(nl->repeat ))*n_entities);
nl->n_values = tmalloc(sizeof(*(nl->n_values))*n_entities);
nl->n_subscripts = tmalloc(sizeof(*(nl->n_subscripts))*n_entities);
nl->subscript = tmalloc(sizeof(*(nl->subscript))*n_entities);
#ifdef DEBUG
printf("scan_namelist: allocation successful\n");
#endif
/* scan individual items--look for entity names and successively extract
* strings containing assignments for single entities. For each string,
* extract a list of values and repeat factors.
*/
for (i=0; i<n_entities; i++) {
/* Find next entity name, which terminates with '='. ptr_p
* points to the section of the string being parsed. I.e., everything
* before ptr_p has been parsed already. */
if (!(ptr_e = next_unquoted_char(ptr_p, '=', '"'))) {
fprintf(stderr, "scan_namelist: no '=' in string >%s<\n", ptr_p);
exit(1);
}
ptr = ptr_e;
while (isspace(*(ptr-1)))
ptr--;
*ptr = 0; /* end entity name string at '=' or space */
while (isspace(*ptr_p)) /* advance to start of name */
ptr_p++;
cp_str(nl->entity+i, ptr_p); /* copy the entity name */
nl->n_subscripts[i] = extract_subscripts(nl->entity[i], nl->subscript+i);
#ifdef DEBUG
printf("scan_namelist: nl->entity[%ld] = <%s>\n", i, nl->entity[i]);
printf("remainder: <%s>\n", ptr_e+1);
#endif
/* Set ptr to point to start of values list, which follows the '='
* that was just found and deleted. */
ptr = ptr_e + 1;
/* Find next entity name, if there is one, and insert a 0 before it
* to mark end of current values list. */
if ((ptr_e = next_unquoted_char(ptr, '=', '"'))) {
/* set ptr_e to point to end of values list for current entity,
* which is at the comma or space preceeding the next entity name
*/
#ifdef DEBUG
printf("scan_namelist: next list is <%s>\n", ptr_e);
#endif
/* Skip whitespace and get to the entity name. */
ptr_e--;
while (isspace(*ptr_e) && ptr_e!=ptr)
ptr_e--;
/* Skip over the entity name. */
while (*ptr_e==')' || *ptr_e=='}') {
ptr_e--;
while (*ptr_e!='(' && *ptr_e!='{' && ptr_e!=ptr)
ptr_e--;
}
while (!(isspace(*ptr_e) || *ptr_e==',') && ptr_e!=ptr)
ptr_e--;
ptr_p = ptr_e+1; /* Save start of next entity. */
/* Skip trailing whitespace and commas in the values list. */
while ((isspace(*ptr_e) || *ptr_e==',') && ptr_e!=ptr)
ptr_e--;
/* If there's nothing left, there was no value given. */
if (++ptr_e==ptr)
bomb("missing value in namelist", NULL);
/* Mark end of values with a NUL, and set ptr_p to the point
* where processing begins for the next entity. */
*ptr_e = 0;
}
else {
/* There is no following entity, so there should be a '$end'
* '&end', or just '$' or '&'. */
/* set ptr_e to $end of string, check for error */
#ifdef DEBUG
printf("scan_namelist: last item is <%s>\n", ptr);
#endif
#if DOLLARSIGN_TOO
if (!(ptr_e=next_unquoted_char(ptr, '&', '"')) && !(ptr_e=next_unquoted_char(ptr, '$', '"')) ) {
fprintf(stderr, "error: namelist improperly terminated\n");
return(-1);
}
#else
if (!(ptr_e=next_unquoted_char(ptr, '&', '"'))) {
fprintf(stderr, "error: namelist improperly terminated\n");
return(-1);
}
#endif
*ptr_e = 0; /* Delete the symbol. */
/* If the number of entities doesn't match what was counted before,
* something is really goofy. */
if (i!=n_entities-1) {
#ifdef DEBUG
printf("scan_namelist: fatal error: n_entites=%ld, i=%ld\n", n_entities,
i);
#endif
return(-1);
}
/* Scan backwards to the first token. Make sure there are some
* values listed. */
ptr_e--;
while ((isspace(*ptr_e) || *ptr_e==',') && ptr_e!=ptr)
ptr_e--;
if (++ptr_e==ptr) {
#ifdef DEBUG
printf("scan_namelist: fatal error: ptr_e = ptr\n");
printf("scan_namelist: ptr = <%s>\n", ptr);
#endif
fprintf(stderr, "error: no values listed for namelist field %s\n",
nl->entity[i]);
return(-1); /* No values listed. */
}
*ptr_e = 0;
ptr_p = ptr_e;
}
/* ptr now points to the beginning of the values list, which is
* NUL terminated. ptr_p points to the beginning of the rest of
* what remains to be parsed. */
#ifdef DEBUG
printf("scan_namelist: values list = <%s>\n", ptr);
printf("scan_namelist: remainder = <%s>\n", ptr_p);
#endif
#if !defined(vxWorks)
length = strlen(ptr);
if (length == 0) {
fprintf(stderr, "error: missing values for namelist field %s\n",
nl->entity[i]);
return -1;
}
n = 0;
j = 0;
k = 0;
insideCommand = 0;
while (n<length) {
if (j>INDEX_LIMIT) {
fprintf(stderr, "error: values for namelist field %s is too long\n",
nl->entity[i]);
return -1;
}
if (ptr[n]=='\\') {
if (ptr[n+1]!='}' && ptr[n+1]!='{')
tempptr[j++] = ptr[n++];
else
n++;
if (n<length) {
if (insideCommand) {
command[k] = ptr[n];
k++;
n++;
} else {
tempptr[j] = ptr[n];
j++;
n++;
}
}
} else if (ptr[n]=='{') {
if (insideCommand) {
fprintf(stderr, "error: values for namelist field %s has invalid command brackets\n",
nl->entity[i]);
return -1;
}
insideCommand = 1;
k = 0;
n++;
} else if (ptr[n]=='}') {
if (!insideCommand) {
fprintf(stderr, "error: values for namelist field %s has invalid command brackets\n",
nl->entity[i]);
return -1;
}
insideCommand = 0;
command[k] = 0;
n++;
#ifndef CONDOR_COMPILE
if ((fID = popen(command, "r")) == NULL) {
fprintf(stderr, "error: invalid command for namelist field %s\n",
nl->entity[i]);
fprintf(stderr, "command was %s\n", command);
return -1;
}
if (feof(fID)) {
fprintf(stderr, "error: command for namelist field %s returns EOF\n",
nl->entity[i]);
fprintf(stderr, "command was %s\n", command);
return -1;
}
if (fgets(psBuffer, 128, fID) == NULL) {
fprintf(stderr, "error: command for namelist field %s returns NULL\n",
nl->entity[i]);
fprintf(stderr, "command was %s\n", command);
return -1;
}
pclose(fID);
#else
tmpnam(tmpName);
sprintf(psBuffer, "%s > %s", command, tmpName);
system(psBuffer);
if (!(fID = fopen(tmpName, "r"))) {
fprintf(stderr, "error: command for namelist field %s failed\n",
nl->entity[i]);
fprintf(stderr, "command was %s\n", command);
return -1;
}
if (fgets(psBuffer, 128, fID) == NULL) {
fprintf(stderr, "error: command for namelist field %s returns NULL\n",
nl->entity[i]);
fprintf(stderr, "command was %s\n", command);
return -1;
}
fclose(fID);
remove(tmpName);
#endif
len = strlen(psBuffer)-1;
if ((len > 0) && (psBuffer[len] == '\n')) {
psBuffer[len] = 0;
}
m = 0;
len = strlen(psBuffer);
if (j+len>INDEX_LIMIT) {
fprintf(stderr, "error: values for namelist field %s is too long\n",
nl->entity[i]);
return -1;
}
while (m < len) {
tempptr[j] = psBuffer[m];
j++;
m++;
}
} else {
if (insideCommand) {
command[k] = ptr[n];
n++;
k++;
} else {
tempptr[j] = ptr[n];
n++;
j++;
}
}
}
tempptr[j] = 0;
ptr = tempptr;
#endif
/* Process string of values. Values must be separated by commas. */
length = strlen(ptr)+1;
if (length==1) {
fprintf(stderr, "error: missing values for namelist field %s\n",
nl->entity[i]);
return -1;
}
if (values==NULL) {
values = tmalloc(length*sizeof(*values));
length_values = length;
}
else if (length>length_values) {
tfree(values);
values = tmalloc(length*sizeof(*values));
}
strcpy_ss(values, ptr);
nl->n_values[i] = count_occurences(values, ',', "")+1;
nl->value[i] = tmalloc(sizeof(*(nl->value[i]))*nl->n_values[i]);
nl->repeat[i] = tmalloc(sizeof(*(nl->repeat[i]))*nl->n_values[i]);
#ifdef DEBUG
printf("scan_namelist: allocation successful--nl->n_values[%ld]=%ld\n",
i, nl->n_values[i]);
#endif
for (j=0; j<nl->n_values[i]; j++) {
#ifdef DEBUG
printf("scan_namelist: scanning tokens from >%s<\n",
values);
#endif
ptr = nl->value[i][j] =
get_token_tq(values, ", ", ", ", "\"'", "\"'");
#ifdef DEBUG
printf("scan_namelist: looping over values--j=%ld\n", j);
printf("scan_namelist: token is <%s>\n", ptr);
#endif
if (!ptr) {
fprintf(stderr, "error: missing values for namelist field %s\n",
nl->entity[i]);
return -1;
}
if (!isdigit(*ptr)) {
nl->repeat[i][j] = 1;
un_quote(ptr);
}
else {
ptr_e = ptr;
while (isdigit(*ptr))
ptr++;
if (*ptr!='*') {
nl->repeat[i][j] = 1;
continue;
}
*ptr = 0;
if ((length=strlen(ptr_e))-1>bufsize)
buffer = trealloc(buffer, sizeof(*buffer)*(bufsize=length+1024));
strcpy_ss(buffer, ptr_e);
strcpy_ss(nl->value[i][j], ptr+1);
un_quote(nl->value[i][j]);
#ifdef DEBUG
printf("doing repeat scan: ptr_e = <%s> ptr+1 = <%s>\nbuffer = <%s>\n",
ptr_e, ptr+1, buffer);
#endif
if (sscanf(buffer, "%ld", nl->repeat[i]+j)!=1)
bomb("bad repeat specifier in namelist", NULL);
}
#ifdef DEBUG
printf("scan_namelist: nl->value[%ld][%ld] = %ld*<%s>\n",
i, j, nl->repeat[i][j], nl->value[i][j]);
printf("remainder: <%s>\n\n", values);
#endif
}
}
free(values);
free(ptr_to_free);
#ifdef DEBUG
nl->n_entities = n_entities;
show_namelist(stdout, nl);
#endif
return(nl->n_entities=n_entities);
}
int
RESnoise (int mode, int operation, GENmodel *genmodel, CKTcircuit *ckt,
Ndata *data, double *OnDens)
{
RESmodel *firstModel = (RESmodel *) genmodel;
RESmodel *model;
RESinstance *inst;
char name[N_MXVLNTH];
double tempOutNoise;
double tempInNoise;
double noizDens[RESNSRCS];
double lnNdens[RESNSRCS];
int i;
/* define the names of the noise sources */
static char *RESnNames[RESNSRCS] = {
/* Note that we have to keep the order consistent with the
* strchr definitions in RESdefs.h */
"_thermal", /* Thermal noise */
"_1overf", /* flicker (1/f) noise */
"" /* total resistor noise */
};
for (model = firstModel; model != NULL; model = model->RESnextModel) {
for (inst = model->RESinstances; inst != NULL;
inst = inst->RESnextInstance) {
if (inst->RESowner != ARCHme) continue;
if(!inst->RESnoisy) continue; /* Quiet resistors are skipped */
switch (operation) {
case N_OPEN:
/*
* See if we have to to produce a summary report
* if so, name the noise generator
*/
if (((NOISEAN*)ckt->CKTcurJob)->NStpsSm != 0) {
switch (mode) {
case N_DENS:
for (i=0; i < RESNSRCS; i++) {
(void)sprintf(name,"onoise_%s%s",
inst->RESname, RESnNames[i]);
data->namelist = (IFuid *)
trealloc((char *)data->namelist,
(data->numPlots + 1)*sizeof(IFuid));
if (!data->namelist) return(E_NOMEM);
(*(SPfrontEnd->IFnewUid))(ckt,
&(data->namelist[data->numPlots++]),
(IFuid)NULL,name,UID_OTHER,(void **)NULL);
/* we've added one more plot */
}
break;
case INT_NOIZ:
for (i=0; i < RESNSRCS; i++) {
(void)sprintf(name,"onoise_total_%s%s",
inst->RESname, RESnNames[i]);
data->namelist = (IFuid *)
trealloc((char *)data->namelist,
(data->numPlots + 1)*sizeof(IFuid));
if (!data->namelist) return(E_NOMEM);
(*(SPfrontEnd->IFnewUid))(ckt,
&(data->namelist[data->numPlots++]),
(IFuid)NULL,name,UID_OTHER,(void **)NULL);
/* we've added one more plot */
(void)sprintf(name,"inoise_total_%s%s",
inst->RESname,RESnNames[i]);
data->namelist = (IFuid *)
trealloc((char *)data->namelist,
(data->numPlots + 1)*sizeof(IFuid));
if (!data->namelist) return(E_NOMEM);
(*(SPfrontEnd->IFnewUid))(ckt,
&(data->namelist[data->numPlots++]),
(IFuid)NULL,name,UID_OTHER,(void **)NULL);
/* we've added one more plot */
}
break;
}
}
break;
case N_CALC:
switch (mode) {
case N_DENS:
NevalSrc2(&noizDens[RESTHNOIZ],&lnNdens[RESTHNOIZ],
ckt,THERMNOISE, inst->RESposNode,inst->RESnegNode,
inst->RESconduct * inst->RESm, inst->RESdtemp);
NevalSrc2(&noizDens[RESFLNOIZ],(double*)NULL, ckt,
N_GAIN,inst->RESposNode, inst->RESnegNode,
(double)0.0, (double)0.0);
#if 0
printf("DC current in resistor %s: %e\n",inst->RESname, inst->REScurrent);
#endif
noizDens[RESFLNOIZ] *= inst->RESm * model->RESfNcoef * exp(model->RESfNexp *
log(MAX(fabs(inst->REScurrent),
N_MINLOG))) / data->freq;
lnNdens[RESFLNOIZ] = log(MAX(noizDens[RESFLNOIZ],N_MINLOG));
noizDens[RESTOTNOIZ] = noizDens[RESTHNOIZ] + noizDens[RESFLNOIZ];
lnNdens[RESTOTNOIZ] = log(noizDens[RESTOTNOIZ]);
*OnDens += noizDens[RESTOTNOIZ];
if (data->delFreq == 0.0) {
/* if we haven't done any previous integration, we need to */
/* initialize our "history" variables */
for (i=0; i < RESNSRCS; i++) {
inst->RESnVar[LNLSTDENS][i] = lnNdens[i];
}
/* clear out our integration variable if it's the first pass */
if (data->freq == ((NOISEAN*)ckt->CKTcurJob)->NstartFreq) {
for (i=0; i < RESNSRCS; i++) {
inst->RESnVar[OUTNOIZ][i] = 0.0; /* Clear output noise */
inst->RESnVar[INNOIZ][i] = 0.0; /* Clear input noise */
}
}
} else { /* data->delFreq != 0.0 (we have to integrate) */
/* In order to get the best curve fit, we have to integrate each component separately */
for (i = 0; i < RESNSRCS; i++) {
if (i != RESTOTNOIZ) {
tempOutNoise = Nintegrate(noizDens[i], lnNdens[i],
inst->RESnVar[LNLSTDENS][i], data);
tempInNoise = Nintegrate(noizDens[i] *
data->GainSqInv ,lnNdens[i]
+ data->lnGainInv,
inst->RESnVar[LNLSTDENS][i]
+ data->lnGainInv,
data);
inst->RESnVar[LNLSTDENS][i] = lnNdens[i];
data->outNoiz += tempOutNoise;
data->inNoise += tempInNoise;
if (((NOISEAN*)ckt->CKTcurJob)->NStpsSm != 0) {
inst->RESnVar[OUTNOIZ][i] += tempOutNoise;
inst->RESnVar[OUTNOIZ][RESTOTNOIZ] += tempOutNoise;
inst->RESnVar[INNOIZ][i] += tempInNoise;
inst->RESnVar[INNOIZ][RESTOTNOIZ] += tempInNoise;
}
}
}
}
if (data->prtSummary) {
for (i=0; i < RESNSRCS; i++) { /* print a summary report */
data->outpVector[data->outNumber++] = noizDens[i];
}
}
break;
case INT_NOIZ: /* already calculated, just output */
if (((NOISEAN*)ckt->CKTcurJob)->NStpsSm != 0) {
for (i=0; i < RESNSRCS; i++) {
data->outpVector[data->outNumber++] = inst->RESnVar[OUTNOIZ][i];
data->outpVector[data->outNumber++] = inst->RESnVar[INNOIZ][i];
}
} /* if */
break;
} /* switch (mode) */
break;
case N_CLOSE:
return (OK); /* do nothing, the main calling routine will close */
break; /* the plots */
} /* switch (operation) */
} /* for inst */
} /* for model */
return(OK);
}
void track_through_ztransverse(double **part, long np, ZTRANSVERSE *ztransverse, double Po,
RUN *run, long i_pass, CHARGE *charge
)
{
static double *posItime[2] = {NULL, NULL}; /* array for particle density times x, y*/
static double *posIfreq; /* array for FFT of particle density times x or y*/
static double *Vtime = NULL; /* array for voltage acting on each bin */
static long max_n_bins = 0;
static long *pbin = NULL; /* array to record which bin each particle is in */
static double *time = NULL; /* array to record arrival time of each particle */
static double *pz = NULL;
static long max_np = 0;
double *Vfreq, *iZ;
#if USE_MPI
long i;
#endif
long ib, nb, n_binned, nfreq, iReal, iImag, plane, first;
double factor, tmin, tmax, tmean, dt, userFactor[2], rampFactor=1;
static long not_first_call = -1;
long ip, ip1, ip2, bunches, bunch, npb, i_pass0;
long bucketEnd[MAX_BUCKETS];
#if USE_MPI
float *buffer_send, *buffer_recv;
#endif
#if defined(DEBUG)
FILE *fp;
#endif
i_pass0 = i_pass;
if ((i_pass -= ztransverse->startOnPass)<0)
return;
if (i_pass>=(ztransverse->rampPasses-1))
rampFactor = 1;
else
rampFactor = (i_pass+1.0)/ztransverse->rampPasses;
not_first_call += 1;
#if (!USE_MPI)
if (np>max_np) {
pbin = trealloc(pbin, sizeof(*pbin)*(max_np=np));
time = trealloc(time, sizeof(*time)*max_np);
pz = trealloc(pz, sizeof(*pz)*max_np);
}
#else
if (USE_MPI) {
long np_total;
if (isSlave) {
MPI_Allreduce(&np, &np_total, 1, MPI_LONG, MPI_SUM, workers);
if (np_total>max_np) {
/* if the total number of particles is increased, we do reallocation for every CPU */
pbin = trealloc(pbin, sizeof(*pbin)*(max_np=np));
time = trealloc(time, sizeof(*time)*max_np);
pz = trealloc(pz, sizeof(*pz)*max_np);
max_np = np_total; /* max_np should be the sum across all the processors */
}
}
}
#endif
if ((part[0][6]-floor(part[0][6]))!=0) {
/* This is a kludgey way to determine that particles have been assigned to buckets */
printf("Bunched beam detected\n"); fflush(stdout);
#if USE_MPI
if (n_processors!=1) {
printf("Error (ZTRANSVERSE): must have bunch_frequency=0 for parallel mode.\n");
MPI_Barrier(MPI_COMM_WORLD); /* Make sure the information can be printed before aborting */
MPI_Abort(MPI_COMM_WORLD, 2);
}
#endif
/* Start by sorting in bucket order */
qsort(part[0], np, COORDINATES_PER_PARTICLE*sizeof(double), comp_BucketNumbers);
/* Find the end of the buckets in the particle list */
bunches = 0;
for (ip=1; ip<np; ip++) {
if ((part[ip-1][6]-floor(part[ip-1][6]))!=(part[ip][6]-floor(part[ip][6]))) {
/* printf("Bucket %ld ends with ip=%ld\n", bunches, ip-1); fflush(stdout); */
bucketEnd[bunches++] = ip-1;
if (bunches>=MAX_BUCKETS) {
bombElegant("Error (wake): maximum number of buckets was exceeded", NULL);
}
}
}
bucketEnd[bunches++] = np-1;
} else {
bunches = 1;
bucketEnd[0] = np-1;
}
/* printf("Bucket %ld ends with ip=%ld\n", bunches, bucketEnd[bunches-1]); fflush(stdout); */
ip2 = -1;
for (bunch=0; bunch<bunches; bunch++) {
ip1 = ip2+1;
ip2 = bucketEnd[bunch];
npb = ip2-ip1+1;
/* printf("Processing bunch %ld with %ld particles\n", bunch, npb); fflush(stdout); */
/* Compute time coordinate of each particle */
tmean = computeTimeCoordinates(time+ip1, Po, part+ip1, npb);
find_min_max(&tmin, &tmax, time+ip1, npb);
#if USE_MPI
find_global_min_max(&tmin, &tmax, np, workers);
#endif
if (bunch==0) {
/* use np here since we need to compute the macroparticle charge */
set_up_ztransverse(ztransverse, run, i_pass, np, charge, tmax-tmin);
}
nb = ztransverse->n_bins;
dt = ztransverse->bin_size;
tmin -= dt;
tmax -= dt;
if ((tmax-tmin)*2>nb*dt) {
TRACKING_CONTEXT tcontext;
getTrackingContext(&tcontext);
fprintf(stderr, "%s %s: Time span of bunch (%le s) is more than half the total time span (%le s).\n",
entity_name[tcontext.elementType],
tcontext.elementName,
tmax-tmin, nb*dt);
fprintf(stderr, "If using broad-band impedance, you should increase the number of bins and rerun.\n");
fprintf(stderr, "If using file-based impedance, you should increase the number of data points or decrease the frequency resolution.\n");
exitElegant(1);
}
if (nb>max_n_bins) {
posItime[0] = trealloc(posItime[0], 2*sizeof(**posItime)*(max_n_bins=nb));
posItime[1] = trealloc(posItime[1], 2*sizeof(**posItime)*(max_n_bins=nb));
posIfreq = trealloc(posIfreq, 2*sizeof(*posIfreq)*(max_n_bins=nb));
Vtime = trealloc(Vtime, 2*sizeof(*Vtime)*(max_n_bins+1));
}
for (ib=0; ib<nb; ib++)
posItime[0][2*ib] = posItime[0][2*ib+1] =
posItime[1][2*ib] = posItime[1][2*ib+1] = 0;
/* make arrays of I(t)*x and I(t)*y */
n_binned = binTransverseTimeDistribution(posItime, pz, pbin, tmin, dt, nb,
time+ip1, part+ip1, Po, npb,
ztransverse->dx, ztransverse->dy,
ztransverse->xDriveExponent, ztransverse->yDriveExponent);
#if (!USE_MPI)
if (n_binned!=npb) {
fprintf(stdout, "Warning: only %ld of %ld particles were binned (ZTRANSVERSE)!\n", n_binned, npb);
if (!not_first_call) {
fprintf(stdout, "*** This may produce unphysical results. Your wake needs smaller frequency\n");
fprintf(stdout, " spacing to cover a longer time span.\n");
}
fflush(stdout);
}
#else
if (USE_MPI) {
int all_binned, result = 1;
if (isSlave)
result = ((n_binned==np) ? 1 : 0);
MPI_Allreduce(&result, &all_binned, 1, MPI_INT, MPI_LAND, workers);
if (!all_binned) {
if (myid==1) {
/* This warning will be given only if the flag MPI_DEBUG is defined for the Pelegant */
fprintf(stdout, "warning: Not all of %ld particles were binned (WAKE)\n", np);
fprintf(stdout, "consider setting n_bins=0 in WAKE definition to invoke autoscaling\n");
fflush(stdout);
}
}
}
#endif
userFactor[0] = ztransverse->factor*ztransverse->xfactor*rampFactor;
userFactor[1] = ztransverse->factor*ztransverse->yfactor*rampFactor;
first = 1;
for (plane=0; plane<2; plane++) {
#if USE_MPI
/* This could be good for some advanced network structures */
/*
if (isSlave) {
double buffer[nb];
MPI_Allreduce(posItime[plane], buffer, nb, MPI_DOUBLE, MPI_SUM, workers);
memcpy(posItime[plane], buffer, sizeof(double)*nb);
}
*/
if (isSlave) {
buffer_send = malloc(sizeof(float) * nb);
buffer_recv = malloc(sizeof(float) * nb);
for (i=0; i<nb; i++)
buffer_send[i] = posItime[plane][i];
MPI_Reduce(buffer_send, buffer_recv, nb, MPI_FLOAT, MPI_SUM, 1, workers);
MPI_Bcast(buffer_recv, nb, MPI_FLOAT, 1, workers);
for (i=0; i<nb; i++)
posItime[plane][i] = buffer_recv[i];
free(buffer_send);
free(buffer_recv);
}
#endif
if (userFactor[plane]==0) {
for (ib=0; ib<nb; ib++)
Vtime[ib] = 0;
} else {
if (ztransverse->smoothing)
SavitzyGolaySmooth(posItime[plane], nb, ztransverse->SGOrder,
ztransverse->SGHalfWidth, ztransverse->SGHalfWidth, 0);
/* Take the FFT of (x*I)(t) to get (x*I)(f) */
memcpy(posIfreq, posItime[plane], 2*nb*sizeof(*posIfreq));
realFFT(posIfreq, nb, 0);
/* Compute V(f) = i*Z(f)*(x*I)(f), putting in a factor
* to normalize the current waveform
*/
Vfreq = Vtime;
factor = ztransverse->macroParticleCharge*particleRelSign/dt*userFactor[plane];
iZ = ztransverse->iZ[plane];
Vfreq[0] = posIfreq[0]*iZ[0]*factor;
nfreq = nb/2 + 1;
if (nb%2==0)
/* Nyquist term */
Vfreq[nb-1] = posIfreq[nb-1]*iZ[nb-1]*factor;
for (ib=1; ib<nfreq-1; ib++) {
iImag = (iReal = 2*ib-1)+1;
/* The signs are chosen here to get agreement with TRFMODE.
In particular, test particles following closely behind the
drive particle get defocused.
*/
Vfreq[iReal] = (posIfreq[iReal]*iZ[iImag] + posIfreq[iImag]*iZ[iReal])*factor;
Vfreq[iImag] = -(posIfreq[iReal]*iZ[iReal] - posIfreq[iImag]*iZ[iImag])*factor;
}
/* Compute inverse FFT of V(f) to get V(t) */
realFFT(Vfreq, nb, INVERSE_FFT);
Vtime = Vfreq;
/* change particle transverse momenta to reflect voltage in relevant bin */
applyTransverseWakeKicks(part+ip1, time+ip1, pz, pbin, npb,
Po, plane,
Vtime, nb, tmin, dt, ztransverse->interpolate,
plane==0?ztransverse->xProbeExponent:ztransverse->yProbeExponent);
}
if (ztransverse->SDDS_wake_initialized && ztransverse->wakes) {
/* wake potential output */
factor = ztransverse->macroParticleCharge*particleRelSign/dt;
if ((ztransverse->wake_interval<=0 || ((i_pass0-ztransverse->wake_start)%ztransverse->wake_interval)==0) &&
i_pass0>=ztransverse->wake_start && i_pass0<=ztransverse->wake_end) {
if (first && !SDDS_StartTable(&ztransverse->SDDS_wake, nb)) {
SDDS_SetError("Problem starting SDDS table for wake output (track_through_ztransverse)");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
for (ib=0; ib<nb; ib++) {
if (!SDDS_SetRowValues(&ztransverse->SDDS_wake, SDDS_SET_BY_INDEX|SDDS_PASS_BY_VALUE, ib,
0, ib*dt,
1+plane*2, posItime[plane][ib]*factor,
2+plane*2, Vtime[ib], -1)) {
SDDS_SetError("Problem setting rows of SDDS table for wake output (track_through_ztransverse)");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
}
if (!SDDS_SetParameters(&ztransverse->SDDS_wake, SDDS_SET_BY_NAME|SDDS_PASS_BY_VALUE,
"Pass", i_pass0, "q", ztransverse->macroParticleCharge*particleRelSign*np, NULL)) {
SDDS_SetError("Problem setting parameters of SDDS table for wake output (track_through_ztransverse)");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
if (ztransverse->broad_band) {
if (!SDDS_SetParameters(&ztransverse->SDDS_wake, SDDS_SET_BY_NAME|SDDS_PASS_BY_VALUE,
"Rs", ztransverse->Rs, "fo", ztransverse->freq,
"Deltaf", ztransverse->bin_size, NULL)) {
SDDS_SetError("Problem setting parameters of SDDS table for wake output (track_through_ztransverse)");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
}
if (!first) {
if (!SDDS_WriteTable(&ztransverse->SDDS_wake)) {
SDDS_SetError("Problem writing SDDS table for wake output (track_through_ztransverse)");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
if (!inhibitFileSync)
SDDS_DoFSync(&ztransverse->SDDS_wake);
}
}
}
first = 0;
}
}
#if defined(MIMIMIZE_MEMORY)
free(posItime[0]);
free(posItime[1]);
free(posIfreq);
free(Vtime);
free(pbin);
free(time);
free(pz);
posItime[0] = posItime[1] = Vtime = time = pz = posIfreq = NULL;
pbin = NULL;
max_n_bins = max_np = 0 ;
#endif
}
int main(int argc, char **argv)
{
double tolerance, result;
long nEval;
int32_t nEvalMax = 5000, nPassMax = 25;
double a[4], da[4];
double alo[4], ahi[4];
long n_dimen = 4, zeroes;
SDDS_DATASET InputTable, OutputTable;
SCANNED_ARG *s_arg;
long i_arg, i, clue, fullOutput;
char *input, *output, *xName, *yName;
int32_t xIndex, yIndex, fitIndex, residualIndex;
long retval;
double *fitData, *residualData, rmsResidual;
unsigned long guessFlags, dummyFlags, pipeFlags;
double constantGuess, factorGuess, freqGuess, phaseGuess;
double firstZero, lastZero;
unsigned long simplexFlags = 0;
SDDS_RegisterProgramName(argv[0]);
argc = scanargs(&s_arg, argc, argv);
if (argc<2 || argc>(2+N_OPTIONS))
bomb(NULL, USAGE);
input = output = NULL;
tolerance = 1e-6;
verbosity = fullOutput = 0;
clue = -1;
xName = yName = NULL;
guessFlags = 0;
pipeFlags = 0;
for (i_arg=1; i_arg<argc; i_arg++) {
if (s_arg[i_arg].arg_type==OPTION) {
switch (match_string(s_arg[i_arg].list[0], option, N_OPTIONS, 0)) {
case SET_TOLERANCE:
if (s_arg[i_arg].n_items!=2 || sscanf(s_arg[i_arg].list[1], "%lf", &tolerance)!=1)
SDDS_Bomb("incorrect -tolerance syntax");
break;
case SET_VERBOSITY:
if (s_arg[i_arg].n_items!=2 || sscanf(s_arg[i_arg].list[1], "%ld", &verbosity)!=1)
SDDS_Bomb("incorrect -verbosity syntax");
break;
case SET_GUESS:
if (s_arg[i_arg].n_items<2)
SDDS_Bomb("incorrect -guess syntax");
s_arg[i_arg].n_items -= 1;
if (!scanItemList(&guessFlags, s_arg[i_arg].list+1, &s_arg[i_arg].n_items, 0,
"constant", SDDS_DOUBLE, &constantGuess, 1, GUESS_CONSTANT_GIVEN,
"factor", SDDS_DOUBLE, &factorGuess, 1, GUESS_FACTOR_GIVEN,
"frequency", SDDS_DOUBLE, &freqGuess, 1, GUESS_FREQ_GIVEN,
"phase", SDDS_DOUBLE, &phaseGuess, 1, GUESS_PHASE_GIVEN,
NULL))
SDDS_Bomb("invalid -guess syntax");
break;
case SET_COLUMNS:
if (s_arg[i_arg].n_items!=3)
SDDS_Bomb("invalid -columns syntax");
xName = s_arg[i_arg].list[1];
yName = s_arg[i_arg].list[2];
break;
case SET_FULLOUTPUT:
fullOutput = 1;
break;
case SET_LIMITS:
if (s_arg[i_arg].n_items<2)
SDDS_Bomb("incorrect -limits syntax");
s_arg[i_arg].n_items -= 1;
if (!scanItemList(&dummyFlags, s_arg[i_arg].list+1, &s_arg[i_arg].n_items, 0,
"evaluations", SDDS_LONG, &nEvalMax, 1, 0,
"passes", SDDS_LONG, &nPassMax, 1, 0,
NULL) ||
nEvalMax<=0 || nPassMax<=0)
SDDS_Bomb("invalid -limits syntax");
break;
case SET_PIPE:
if (!processPipeOption(s_arg[i_arg].list+1, s_arg[i_arg].n_items-1, &pipeFlags))
SDDS_Bomb("invalid -pipe syntax");
break;
default:
fprintf(stderr, "error: unknown/ambiguous option: %s\n", s_arg[i_arg].list[0]);
exit(1);
break;
}
}
else {
if (input==NULL)
input = s_arg[i_arg].list[0];
else if (output==NULL)
output = s_arg[i_arg].list[0];
else
SDDS_Bomb("too many filenames");
}
}
processFilenames("sddssinefit", &input, &output, pipeFlags, 0, NULL);
if (!xName || !yName)
SDDS_Bomb("-columns option must be given");
if (!SDDS_InitializeInput(&InputTable, input) ||
SDDS_GetColumnIndex(&InputTable, xName)<0 || SDDS_GetColumnIndex(&InputTable, yName)<0)
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
setupOutputFile(&OutputTable, &xIndex, &yIndex, &fitIndex, &residualIndex, output, fullOutput,
&InputTable, xName, yName);
fitData = residualData = NULL;
alo[0] = - (ahi[0] = DBL_MAX);
alo[1] = alo[2] = 0;
ahi[1] = ahi[2] = DBL_MAX;
alo[3] = - (ahi[3] = PIx2);
firstZero = lastZero = 0;
while ((retval=SDDS_ReadPage(&InputTable))>0) {
if (!(xData = SDDS_GetColumnInDoubles(&InputTable, xName)) ||
!(yData = SDDS_GetColumnInDoubles(&InputTable, yName)))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
if ((nData = SDDS_CountRowsOfInterest(&InputTable))<4)
continue;
find_min_max(&yMin, &yMax, yData, nData);
find_min_max(&xMin, &xMax, xData, nData);
zeroes = 0;
for (i=1; i<nData; i++)
if (yData[i]*yData[i-1]<=0) {
i++;
if (!zeroes)
firstZero = (xData[i]+xData[i-1])/2;
else
lastZero = (xData[i]+xData[i-1])/2;
zeroes ++;
}
a[0] = (yMin+yMax)/2;
a[1] = (yMax-yMin)/2;
if (!zeroes)
a[2] = 2/fabs(xMax-xMin);
else
a[2] = zeroes/(2*fabs(lastZero-firstZero));
a[3] = 0;
if (guessFlags&GUESS_CONSTANT_GIVEN)
a[0] = constantGuess;
if (guessFlags&GUESS_FACTOR_GIVEN)
a[1] = factorGuess;
if (guessFlags&GUESS_FREQ_GIVEN)
a[2] = freqGuess;
if (guessFlags&GUESS_PHASE_GIVEN)
a[3] = phaseGuess;
alo[1] = a[1]/2;
if (!(da[0] = a[0]*0.1))
da[0] = 0.01;
if (!(da[1] = a[1]*0.1))
da[1] = 0.01;
da[2] = a[2]*0.25;
da[3] = 0.01;
nEval = simplexMin(&result, a, da, alo, ahi, NULL, n_dimen, -DBL_MAX, tolerance, fitFunction,
(verbosity>0?report:NULL), nEvalMax, nPassMax,
12, 3, 1.0, simplexFlags);
fitData = trealloc(fitData, sizeof(*fitData)*nData);
residualData = trealloc(residualData, sizeof(*residualData)*nData);
for (i=result=0; i<nData; i++)
result += sqr(residualData[i] = yData[i]-(fitData[i]=a[0]+a[1]*sin(PIx2*a[2]*xData[i]+a[3])));
rmsResidual = sqrt(result/nData);
if (verbosity>1) {
fprintf(stderr, "RMS deviation: %.15e\n", rmsResidual);
fprintf(stderr, "(RMS deviation)/(largest value): %.15e\n", rmsResidual/MAX(fabs(yMin), fabs(yMax)));
}
if (verbosity>0) {
fprintf(stderr, "coefficients of fit to the form y = a0 + a1*sin(2*PI*a2*x+a3), a = \n");
for (i=0; i<4; i++)
fprintf(stderr, "%.8e ", a[i]);
fprintf(stderr, "\n");
}
if (!SDDS_StartPage(&OutputTable, nData) ||
!SDDS_SetColumn(&OutputTable, SDDS_SET_BY_INDEX, xData, nData, xIndex) ||
!SDDS_SetColumn(&OutputTable, SDDS_SET_BY_INDEX, fitData, nData, fitIndex) ||
!SDDS_SetParameters(&OutputTable, SDDS_PASS_BY_VALUE|SDDS_SET_BY_NAME,
"sinefitConstant", a[0], "sinefitFactor", a[1], "sinefitFrequency", a[2],
"sinefitPhase", a[3], "sinefitRmsResidual", rmsResidual, NULL) ||
(fullOutput &&
(!SDDS_SetColumn(&OutputTable, SDDS_SET_BY_INDEX, yData, nData, yIndex) ||
!SDDS_SetColumn(&OutputTable, SDDS_SET_BY_INDEX, residualData, nData, residualIndex) )) ||
!SDDS_WritePage(&OutputTable))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
return 0;
}
void add_error_element(ERRORVAL *errcon, NAMELIST_TEXT *nltext, LINE_LIST *beamline)
{
long n_items, n_added, i_start, firstIndexInGroup;
ELEMENT_LIST *context;
double sMin = -DBL_MAX, sMax = DBL_MAX;
log_entry("add_error_element");
if ((n_items = errcon->n_items)==0) {
if (errcon->new_data_read)
bombElegant("improper sequencing of error specifications and tracking", NULL);
errcon->new_data_read = 1;
}
/* process namelist text */
set_namelist_processing_flags(STICKY_NAMELIST_DEFAULTS);
set_print_namelist_flags(0);
if (processNamelist(&error, nltext)==NAMELIST_ERROR)
bombElegant(NULL, NULL);
if (name==NULL) {
if (!element_type)
bombElegant("element name missing in error namelist", NULL);
SDDS_CopyString(&name, "*");
}
if (echoNamelists) print_namelist(stdout, &error);
/* check for valid input and copy to errcon arrays */
if (item==NULL)
bombElegant("item name missing in error namelist", NULL);
if (match_string(type, known_error_type, N_ERROR_TYPES, 0)<0)
bombElegant("unknown error type specified", NULL);
if (bind_number<0)
bombElegant("bind_number < 0", NULL);
if (!additive && fractional)
bombElegant("fractional errors must be additive", NULL);
context = NULL;
n_added = 0;
i_start = n_items;
context = NULL;
if (after && strlen(after)) {
if (!(context=find_element(after, &context, &(beamline->elem)))) {
fprintf(stdout, "Element %s not found in beamline.\n", after);
exitElegant(1);
}
sMin = context->end_pos;
if (find_element(after, &context, &(beamline->elem))) {
fprintf(stdout, "Element %s found in beamline more than once.\n", after);
exitElegant(1);
}
fprintf(stdout, "%s found at s = %le m\n", after, sMin);
fflush(stdout);
}
context = NULL;
if (before && strlen(before)) {
if (!(context=find_element(before, &context, &(beamline->elem)))) {
fprintf(stdout, "Element %s not found in beamline.\n", before);
exitElegant(1);
}
sMax = context->end_pos;
if (find_element(before, &context, &(beamline->elem))) {
fprintf(stdout, "Element %s found in beamline more than once.\n", after);
exitElegant(1);
}
fprintf(stdout, "%s found at s = %le m\n", before, sMax);
fflush(stdout);
}
if (after && before && sMin>sMax) {
fprintf(stdout, "Element %s is not upstream of %s!\n",
before, after);
exitElegant(1);
}
if (element_type && has_wildcards(element_type) && strchr(element_type, '-'))
element_type = expand_ranges(element_type);
if (has_wildcards(name)) {
if (strchr(name, '-'))
name = expand_ranges(name);
str_toupper(name);
firstIndexInGroup = -1;
while ((context=wfind_element(name, &context, &(beamline->elem)))) {
if (element_type &&
!wild_match(entity_name[context->type], element_type))
continue;
if (exclude &&
wild_match(context->name, exclude))
continue;
if (i_start!=n_items && duplicate_name(errcon->name+i_start, n_items-i_start, context->name))
continue;
if ((sMin>=0 && context->end_pos<sMin) ||
(sMax>=0 && context->end_pos>sMax))
continue;
errcon->name = trealloc(errcon->name, sizeof(*errcon->name)*(n_items+1));
errcon->item = trealloc(errcon->item, sizeof(*errcon->item)*(n_items+1));
errcon->quan_name = trealloc(errcon->quan_name, sizeof(*errcon->quan_name)*(n_items+1));
errcon->quan_final_index
= trealloc(errcon->quan_final_index, sizeof(*errcon->quan_final_index)*(n_items+1));
errcon->quan_unit = trealloc(errcon->quan_unit, sizeof(*errcon->quan_unit)*(n_items+1));
errcon->error_level = trealloc(errcon->error_level, sizeof(*errcon->error_level)*(n_items+1));
errcon->error_cutoff = trealloc(errcon->error_cutoff, sizeof(*errcon->error_cutoff)*(n_items+1));
errcon->error_type = trealloc(errcon->error_type, sizeof(*errcon->error_type)*(n_items+1));
errcon->elem_type = trealloc(errcon->elem_type, sizeof(*errcon->elem_type)*(n_items+1));
errcon->error_value = trealloc(errcon->error_value, sizeof(*errcon->error_value)*(n_items+1));
errcon->unperturbed_value = trealloc(errcon->unperturbed_value, sizeof(*errcon->unperturbed_value)*(n_items+1));
errcon->param_number = trealloc(errcon->param_number, sizeof(*errcon->param_number)*(n_items+1));
errcon->bind_number = trealloc(errcon->bind_number, sizeof(*errcon->bind_number)*(n_items+1));
errcon->flags = trealloc(errcon->flags, sizeof(*errcon->flags)*(n_items+1));
errcon->sMin = trealloc(errcon->sMin, sizeof(*errcon->sMin)*(n_items+1));
errcon->sMax = trealloc(errcon->sMax, sizeof(*errcon->sMax)*(n_items+1));
errcon->boundTo = trealloc(errcon->boundTo, sizeof(*errcon->boundTo)*(n_items+1));
cp_str(errcon->item+n_items, str_toupper(item));
cp_str(errcon->name+n_items, context->name);
errcon->error_level[n_items] = amplitude*error_factor;
errcon->error_cutoff[n_items] = cutoff;
errcon->error_type[n_items] = match_string(type, known_error_type, N_ERROR_TYPES, 0);
errcon->quan_name[n_items] = tmalloc(sizeof(char*)*(strlen(context->name)+strlen(item)+4));
errcon->quan_final_index[n_items] = -1;
sprintf(errcon->quan_name[n_items], "d%s.%s", context->name, item);
errcon->flags[n_items] = (fractional?FRACTIONAL_ERRORS:0);
errcon->flags[n_items] += (bind==0?0:(bind==-1?ANTIBIND_ERRORS:BIND_ERRORS));
errcon->flags[n_items] += (post_correction?POST_CORRECTION:PRE_CORRECTION);
errcon->flags[n_items] += (additive?0:NONADDITIVE_ERRORS);
errcon->bind_number[n_items] = bind_number;
/* boundTo must be -1 when there is no cross-name binding or when this element is the
* first of a series
*/
errcon->boundTo[n_items] = bind_across_names?firstIndexInGroup:-1;
/*
if (errcon->boundTo[n_items]!=-1)
fprintf(stdout, "%s bound to %s\n",
errcon->name[n_items], errcon->name[errcon->boundTo[n_items]]);
*/
errcon->sMin[n_items] = sMin;
errcon->sMax[n_items] = sMax;
errcon->elem_type[n_items] = context->type;
if ((errcon->param_number[n_items] = confirm_parameter(item, context->type))<0) {
fprintf(stdout, "error: cannot vary %s--no such parameter for %s (wildcard name: %s)\n",item, context->name, name);
fflush(stdout);
exitElegant(1);
}
cp_str(&errcon->quan_unit[n_items],
errcon->flags[n_items]&FRACTIONAL_ERRORS?"fr":
entity_description[errcon->elem_type[n_items]].parameter[errcon->param_number[n_items]].unit
);
errcon->unperturbed_value[n_items]
= parameter_value(errcon->name[n_items], errcon->elem_type[n_items], errcon->param_number[n_items],
beamline);
if (errcon->unperturbed_value[n_items]==0 && errcon->flags[n_items]&FRACTIONAL_ERRORS)
fprintf(stdout, "***\7\7\7 warning: you've specified fractional errors for %s.%s, but the unperturbed value is zero.\nThis may be an error.\n",
errcon->name[n_items], errcon->item[n_items]);
fflush(stdout);
if (duplicate_name(errcon->quan_name, n_items, errcon->quan_name[n_items]))
fprintf(stdout, "***\7\7\7 warning: you've specified errors for %s.%s more than once!\n",
errcon->name[n_items], errcon->item[n_items]);
fflush(stdout);
errcon->n_items = ++n_items;
n_added++;
if (firstIndexInGroup==-1)
firstIndexInGroup = n_items-1;
}
}
else {
str_toupper(name);
if (!(context=find_element(name, &context, &(beamline->elem)))) {
fprintf(stdout, "error: cannot add errors to element %s--not in beamline\n", name);
fflush(stdout);
exitElegant(1);
}
errcon->name = trealloc(errcon->name, sizeof(*errcon->name)*(n_items+1));
errcon->item = trealloc(errcon->item, sizeof(*errcon->item)*(n_items+1));
errcon->quan_name = trealloc(errcon->quan_name, sizeof(*errcon->quan_name)*(n_items+1));
errcon->quan_final_index
= trealloc(errcon->quan_final_index, sizeof(*errcon->quan_final_index)*(n_items+1));
errcon->quan_unit = trealloc(errcon->quan_unit, sizeof(*errcon->quan_unit)*(n_items+1));
errcon->error_level = trealloc(errcon->error_level, sizeof(*errcon->error_level)*(n_items+1));
errcon->error_cutoff = trealloc(errcon->error_cutoff, sizeof(*errcon->error_cutoff)*(n_items+1));
errcon->error_type = trealloc(errcon->error_type, sizeof(*errcon->error_type)*(n_items+1));
errcon->elem_type = trealloc(errcon->elem_type, sizeof(*errcon->elem_type)*(n_items+1));
errcon->error_value = trealloc(errcon->error_value, sizeof(*errcon->error_value)*(n_items+1));
errcon->unperturbed_value = trealloc(errcon->unperturbed_value, sizeof(*errcon->unperturbed_value)*(n_items+1));
errcon->param_number = trealloc(errcon->param_number, sizeof(*errcon->param_number)*(n_items+1));
errcon->bind_number = trealloc(errcon->bind_number, sizeof(*errcon->bind_number)*(n_items+1));
errcon->flags = trealloc(errcon->flags, sizeof(*errcon->flags)*(n_items+1));
errcon->sMin = trealloc(errcon->sMin, sizeof(*errcon->sMin)*(n_items+1));
errcon->sMax = trealloc(errcon->sMax, sizeof(*errcon->sMax)*(n_items+1));
errcon->boundTo = trealloc(errcon->boundTo, sizeof(*errcon->boundTo)*(n_items+1));
cp_str(errcon->item+n_items, str_toupper(item));
cp_str(errcon->name+n_items, context->name);
errcon->error_level[n_items] = amplitude;
errcon->error_cutoff[n_items] = cutoff;
errcon->error_type[n_items] = match_string(type, known_error_type, N_ERROR_TYPES, 0);
errcon->quan_name[n_items] = tmalloc(sizeof(char*)*(strlen(context->name)+strlen(item)+4));
sprintf(errcon->quan_name[n_items], "d%s.%s", context->name, item);
errcon->flags[n_items] = (fractional?FRACTIONAL_ERRORS:0);
errcon->flags[n_items] += (bind==0?0:(bind==-1?ANTIBIND_ERRORS:BIND_ERRORS));
errcon->flags[n_items] += (post_correction?POST_CORRECTION:PRE_CORRECTION);
errcon->flags[n_items] += (additive?0:NONADDITIVE_ERRORS);
errcon->bind_number[n_items] = bind_number;
errcon->sMin[n_items] = sMin;
errcon->sMax[n_items] = sMax;
errcon->boundTo[n_items] = -1; /* not used when there are no wildcards */
errcon->elem_type[n_items] = context->type;
if ((errcon->param_number[n_items] = confirm_parameter(item, context->type))<0) {
fprintf(stdout, "error: cannot vary %s--no such parameter for %s\n",item, name);
fflush(stdout);
exitElegant(1);
}
cp_str(&errcon->quan_unit[n_items],
errcon->flags[n_items]&FRACTIONAL_ERRORS?"fr":
entity_description[errcon->elem_type[n_items]].parameter[errcon->param_number[n_items]].unit
);
errcon->unperturbed_value[n_items]
= parameter_value(errcon->name[n_items], errcon->elem_type[n_items], errcon->param_number[n_items],
beamline);
if (errcon->unperturbed_value[n_items]==0 && errcon->flags[n_items]&FRACTIONAL_ERRORS)
fprintf(stdout, "***\7\7\7 warning: you've specified fractional errors for %s.%s, but the unperturbed value is zero.\nThis may be an error.\n",
errcon->name[n_items], errcon->item[n_items]);
fflush(stdout);
if (duplicate_name(errcon->quan_name, n_items, errcon->quan_name[n_items]))
fprintf(stdout, "***\7\7\7 warning: you've specified errors for %s.%s more than once!\n",
errcon->name[n_items], errcon->item[n_items]);
fflush(stdout);
errcon->n_items = ++n_items;
n_added++;
}
if (!n_added && !allow_missing_elements) {
fprintf(stdout, "error: no match for name %s\n", name);
fflush(stdout);
exitElegant(1);
}
log_exit("add_error_element");
}
int main(int argc, char **argv)
{
int iArg;
char *indepQuantity, **depenQuantity, *fileValuesQuantity, *fileValuesFile, **exclude;
long depenQuantities, monotonicity, excludes;
char *input, *output;
long i, j, rows, readCode, order, valuesReadCode, fillIn, row;
long sequencePoints, combineDuplicates, branch;
int32_t *rowFlag;
double sequenceStart, sequenceEnd;
double sequenceSpacing;
unsigned long flags, interpCode, printFlags, forceMonotonic;
SCANNED_ARG *scanned;
SDDS_DATASET SDDSin, SDDSout, SDDSvalues;
OUTRANGE_CONTROL aboveRange, belowRange;
double *atValue;
long atValues, interpPoints, doNotRead, parallelPages;
double *indepValue, **depenValue, *interpPoint, **outputData;
unsigned long pipeFlags;
FILE *fpPrint;
short interpShort=0, interpShortOrder=-1, *shortValue=NULL;
long nextPos;
SDDS_RegisterProgramName(argv[0]);
argc = scanargs(&scanned, argc, argv);
if (argc<3 || argc>(3+CLO_OPTIONS))
bomb(NULL, USAGE);
atValue = NULL;
atValues = fillIn = 0;
output = input = NULL;
combineDuplicates = branch = sequencePoints = parallelPages = 0;
indepQuantity = NULL;
depenQuantity = exclude = NULL;
depenQuantities = excludes = 0;
aboveRange.flags = belowRange.flags = OUTRANGE_SATURATE;
order = 1;
readCode = interpPoints = 0;
fileValuesFile = fileValuesQuantity = NULL;
sequenceStart = sequenceEnd = sequenceSpacing = 0;
printFlags = pipeFlags = 0;
forceMonotonic = 0;
indepValue = interpPoint = NULL;
depenValue = outputData = NULL;
for (iArg=1; iArg<argc; iArg++) {
if (scanned[iArg].arg_type==OPTION) {
/* process options here */
switch (match_string(scanned[iArg].list[0], option, CLO_OPTIONS, 0)) {
case CLO_ORDER:
if (scanned[iArg].n_items!=2 || sscanf(scanned[iArg].list[1], "%ld", &order)!=1 ||
order<1)
SDDS_Bomb("invalid -order syntax/value");
break;
case CLO_ATVALUES:
if (scanned[iArg].n_items<2)
SDDS_Bomb("invalid -atValues syntax");
if (atValue)
SDDS_Bomb("give -atValues only once");
atValue = tmalloc(sizeof(*atValue)*(atValues=scanned[iArg].n_items-1));
for (i=0; i<atValues; i++)
if (sscanf(scanned[iArg].list[i+1], "%lf", &atValue[i])!=1)
SDDS_Bomb("invalid -atValues value");
break;
case CLO_INTERP_SHORT:
if (scanned[iArg].n_items==2) {
if (sscanf(scanned[iArg].list[1], "%hd", &interpShortOrder)!=1)
SDDS_Bomb("invalid -interpShort value");
}
interpShort = 1;
break;
case CLO_SEQUENCE:
if ((scanned[iArg].n_items!=2 && scanned[iArg].n_items!=4) ||
sscanf(scanned[iArg].list[1], "%ld", &sequencePoints)!=1 || sequencePoints<2)
SDDS_Bomb("invalid -sequence syntax/value");
if (scanned[iArg].n_items==4 &&
(sscanf(scanned[iArg].list[2], "%lf", &sequenceStart)!=1 ||
sscanf(scanned[iArg].list[3], "%lf", &sequenceEnd)!=1))
SDDS_Bomb("invalid -sequence syntax/value");
if (sequenceSpacing)
SDDS_Bomb("give only one of -sequence and -equispaced");
break;
case CLO_EQUISPACED:
if ((scanned[iArg].n_items!=2 && scanned[iArg].n_items!=4) ||
sscanf(scanned[iArg].list[1], "%lf", &sequenceSpacing)!=1 || sequenceSpacing<=0)
SDDS_Bomb("invalid -equispaced syntax/value");
if (scanned[iArg].n_items==4 &&
(sscanf(scanned[iArg].list[2], "%lf", &sequenceStart)!=1 ||
sscanf(scanned[iArg].list[3], "%lf", &sequenceEnd)!=1))
SDDS_Bomb("invalid -equispaced syntax/values");
if (sequencePoints)
SDDS_Bomb("give only one of -sequence and -equispaced");
break;
case CLO_COLUMNS:
if (indepQuantity)
SDDS_Bomb("only one -columns option may be given");
if (scanned[iArg].n_items<2)
SDDS_Bomb("invalid -columns syntax");
indepQuantity = scanned[iArg].list[1];
if (scanned[iArg].n_items>=2) {
depenQuantity = tmalloc(sizeof(*depenQuantity)*(depenQuantities=scanned[iArg].n_items-2));
for (i=0; i<depenQuantities; i++)
depenQuantity[i] = scanned[iArg].list[i+2];
}
break;
case CLO_PRINTOUT:
if ((scanned[iArg].n_items-=1)>=1) {
if (!scanItemList(&printFlags, scanned[iArg].list+1, &scanned[iArg].n_items, 0,
"bare", -1, NULL, 0, BARE_PRINTOUT,
"stdout", -1, NULL, 0, STDOUT_PRINTOUT,
NULL))
SDDS_Bomb("invalid -printout syntax");
}
if (!(printFlags&BARE_PRINTOUT))
printFlags |= NORMAL_PRINTOUT;
break;
case CLO_FILEVALUES:
if (scanned[iArg].n_items<2)
SDDS_Bomb("invalid -fileValues syntax");
fileValuesFile = scanned[iArg].list[1];
scanned[iArg].n_items -= 2;
if (!scanItemList(&flags, scanned[iArg].list+2, &scanned[iArg].n_items, 0,
"column", SDDS_STRING, &fileValuesQuantity, 1, 0,
"parallelpages", -1, NULL, 0, FILEVALUES_PARALLEL_PAGES,
NULL))
SDDS_Bomb("invalid -fileValues syntax");
if (flags&FILEVALUES_PARALLEL_PAGES)
parallelPages = 1;
break;
case CLO_COMBINEDUPLICATES:
SDDS_Bomb("-combineDuplicates option not implemented yet--send email to [email protected]");
combineDuplicates = 1;
break;
case CLO_BRANCH:
SDDS_Bomb("-branch option not implemented yet--send email to [email protected]");
if (scanned[iArg].n_items!=2 || sscanf(scanned[iArg].list[1], "%ld", &branch)!=1 ||
branch<1)
SDDS_Bomb("invalid -branch syntax/value");
break;
case CLO_BELOWRANGE:
if ((scanned[iArg].n_items-=1)<1 ||
!scanItemList(&belowRange.flags, scanned[iArg].list+1, &scanned[iArg].n_items, 0,
"value", SDDS_DOUBLE, &belowRange.value, 1, OUTRANGE_VALUE,
"skip", -1, NULL, 0, OUTRANGE_SKIP,
"saturate", -1, NULL, 0, OUTRANGE_SATURATE,
"extrapolate", -1, NULL, 0, OUTRANGE_EXTRAPOLATE,
"wrap", -1, NULL, 0, OUTRANGE_WRAP,
"abort", -1, NULL, 0, OUTRANGE_ABORT,
"warn", -1, NULL, 0, OUTRANGE_WARN,
NULL))
SDDS_Bomb("invalid -belowRange syntax/value");
if ((i=bitsSet(belowRange.flags&
(OUTRANGE_VALUE|OUTRANGE_SKIP|OUTRANGE_SATURATE|OUTRANGE_EXTRAPOLATE|OUTRANGE_WRAP|OUTRANGE_ABORT)))>1)
SDDS_Bomb("incompatible keywords given for -belowRange");
if (i!=1)
belowRange.flags |= OUTRANGE_SATURATE;
break;
case CLO_ABOVERANGE:
if ((scanned[iArg].n_items-=1)<1 ||
!scanItemList(&aboveRange.flags, scanned[iArg].list+1, &scanned[iArg].n_items, 0,
"value", SDDS_DOUBLE, &aboveRange.value, 1, OUTRANGE_VALUE,
"skip", -1, NULL, 0, OUTRANGE_SKIP,
"saturate", -1, NULL, 0, OUTRANGE_SATURATE,
"extrapolate", -1, NULL, 0, OUTRANGE_EXTRAPOLATE,
"wrap", -1, NULL, 0, OUTRANGE_WRAP,
"abort", -1, NULL, 0, OUTRANGE_ABORT,
"warn", -1, NULL, 0, OUTRANGE_WARN,
NULL))
SDDS_Bomb("invalid -aboveRange syntax/value");
if ((i=bitsSet(aboveRange.flags&
(OUTRANGE_VALUE|OUTRANGE_SKIP|OUTRANGE_SATURATE|OUTRANGE_EXTRAPOLATE|OUTRANGE_WRAP|OUTRANGE_ABORT)))>1)
SDDS_Bomb("incompatible keywords given for -aboveRange");
if (i!=1)
aboveRange.flags |= OUTRANGE_SATURATE;
break;
case CLO_PIPE:
if (!processPipeOption(scanned[iArg].list+1, scanned[iArg].n_items-1, &pipeFlags))
SDDS_Bomb("invalid -pipe syntax");
break;
case CLO_EXCLUDE:
if (scanned[iArg].n_items<2)
SDDS_Bomb("invalid -exclude syntax");
moveToStringArray(&exclude, &excludes, scanned[iArg].list+1, scanned[iArg].n_items-1);
break;
case CLO_FORCEMONOTONIC:
if ((scanned[iArg].n_items-=1)>0) {
if (!scanItemList(&forceMonotonic, scanned[iArg].list+1, &scanned[iArg].n_items, 0,
"increasing", -1, NULL, 0, FORCE_INCREASING,
"decreasing", -1, NULL, 0, FORCE_DECREASING,
NULL) || bitsSet(forceMonotonic)!=1)
SDDS_Bomb("invalid -forceMonotonic syntax/value");
}
else
forceMonotonic = FORCE_MONOTONIC;
break;
case CLO_FILLIN:
fillIn = 1;
break;
default:
fprintf(stderr, "error: unknown/ambiguous option: %s\n",
scanned[iArg].list[0]);
exit(1);
break;
}
}
else {
if (!input)
input = scanned[iArg].list[0];
else if (!output)
output = scanned[iArg].list[0];
else
SDDS_Bomb("too many filenames seen");
}
}
processFilenames("sddsinterp", &input, &output, pipeFlags, 0, NULL);
fpPrint = stderr;
if (printFlags&STDOUT_PRINTOUT)
fpPrint = stdout;
if (!indepQuantity)
SDDS_Bomb("supply the independent quantity name with the -columns option");
if ((atValues?1:0)+(fileValuesFile?1:0)+(sequencePoints?1:0)+fillIn+(sequenceSpacing>0?1:0) != 1)
SDDS_Bomb("you must give one and only one of -atValues, -fileValues, -sequence, -equispaced, and -fillIn");
if (!SDDS_InitializeInput(&SDDSin, input))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
excludes = appendToStringArray(&exclude, excludes, indepQuantity);
if (!depenQuantities)
depenQuantities = appendToStringArray(&depenQuantity, depenQuantities, "*");
if ((depenQuantities=expandColumnPairNames(&SDDSin, &depenQuantity, NULL, depenQuantities,
exclude, excludes, FIND_NUMERIC_TYPE, 0))<=0) {
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
SDDS_Bomb("no dependent quantities selected for interpolation");
}
if (fileValuesFile && !SDDS_InitializeInput(&SDDSvalues, fileValuesFile))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
if (!SDDS_InitializeOutput(&SDDSout, SDDS_BINARY, 0, NULL, "sddsinterp output", output))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
if (!SDDS_TransferColumnDefinition(&SDDSout, &SDDSin, indepQuantity, NULL))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
/*
if (fileValuesQuantity && strcmp(fileValuesQuantity, indepQuantity)!=0 &&
!SDDS_TransferColumnDefinition(&SDDSout, &SDDSvalues, fileValuesQuantity, NULL)) {
fprintf(stderr, "problem creating -fileValues column %s\n", fileValuesQuantity);
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
*/
if (SDDS_DefineParameter(&SDDSout, "InterpDataPage", NULL, NULL,
"Page of interpolation data file used to create this page",
NULL, SDDS_LONG, NULL)<0 ||
SDDS_DefineParameter(&SDDSout, "InterpPointsPage", NULL, NULL,
"Page of interpolation points file used to create this page",
NULL, SDDS_LONG, NULL)<0)
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
for (i=0; i<depenQuantities; i++)
if (!SDDS_TransferColumnDefinition(&SDDSout, &SDDSin, depenQuantity[i], NULL)) {
fprintf(stderr, "problem creating interpolated-output column %s\n", depenQuantity[i]);
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
if (!SDDS_TransferAllParameterDefinitions(&SDDSout, &SDDSin, SDDS_TRANSFER_KEEPOLD) ||
!SDDS_WriteLayout(&SDDSout))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
doNotRead = 0;
interpPoint = NULL;
outputData = tmalloc(sizeof(*outputData)*(depenQuantities));
depenValue = tmalloc(sizeof(*depenValue)*(depenQuantities));
rowFlag = NULL;
valuesReadCode = 0;
while (doNotRead || (readCode=SDDS_ReadPage(&SDDSin))>0) {
rows = SDDS_CountRowsOfInterest(&SDDSin);
if (!(indepValue = SDDS_GetColumnInDoubles(&SDDSin, indepQuantity)))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
if (atValues) {
interpPoint = atValue;
interpPoints = atValues;
}
else if (fileValuesFile) {
if (interpPoint)
free(interpPoint);
if ((valuesReadCode=SDDS_ReadPage(&SDDSvalues))==0)
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
else if (valuesReadCode==-1) {
if (parallelPages) {
fprintf(stderr, "warning: file %s ends before file %s\n", fileValuesFile, input);
break;
}
else {
/* "rewind" the values file */
if (!SDDS_Terminate(&SDDSvalues) ||
!SDDS_InitializeInput(&SDDSvalues, fileValuesFile))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
if ((valuesReadCode=SDDS_ReadPage(&SDDSvalues))<1) {
fprintf(stderr, "error: unable to (re)read file %s\n", fileValuesFile);
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors);
exit(1);
}
/* read the next page of the interpolation data file */
if ((readCode=SDDS_ReadPage(&SDDSin))<1) {
if (readCode==-1)
break;
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
rows = SDDS_CountRowsOfInterest(&SDDSin);
if (indepValue)
free(indepValue);
if (!(indepValue = SDDS_GetColumnInDoubles(&SDDSin, indepQuantity)))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
}
if (!parallelPages)
doNotRead = 1;
interpPoints = SDDS_CountRowsOfInterest(&SDDSvalues);
interpPoint = SDDS_GetColumnInDoubles(&SDDSvalues, fileValuesQuantity);
if (SDDS_NumberOfErrors())
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
else if (sequencePoints || sequenceSpacing) {
if (interpPoint)
free(interpPoint);
interpPoints = sequencePoints;
if (!(interpPoint = makeSequence(&interpPoints, sequenceStart, sequenceEnd, sequenceSpacing,
indepValue, rows)))
exit(1);
} else {
/* fillIn interpolation */
if (interpPoint)
free(interpPoint);
if (!(interpPoint = makeFillInSequence(indepValue, rows, &interpPoints)))
exit(1);
}
for (i=0; i<depenQuantities; i++)
outputData[i] = tmalloc(sizeof(*outputData[i])*interpPoints);
rowFlag = trealloc(rowFlag, sizeof(*rowFlag)*interpPoints);
for (j=0; j<interpPoints; j++)
rowFlag[j] = 1;
for (i=0; i<depenQuantities; i++) {
if (!(depenValue[i] = SDDS_GetColumnInDoubles(&SDDSin, depenQuantity[i])))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
if (forceMonotonic)
rows = forceMonotonicity(indepValue, depenValue, depenQuantities, rows, forceMonotonic);
else if (combineDuplicates)
rows = combineDuplicatePoints(indepValue, depenValue, depenQuantities, rows, 0.0);
if ((monotonicity=checkMonotonicity(indepValue, rows))==0)
SDDS_Bomb("independent data values do not change monotonically or repeated independent values exist");
if (interpShort)
shortValue = malloc(sizeof(*shortValue)*rows);
for (i=0; i<depenQuantities; i++) {
if (interpShort) {
for (row=0; row<rows; row++) {
shortValue[row] = (short)depenValue[i][row];
}
}
for (j=0; j<interpPoints; j++) {
if (!interpShort) {
outputData[i][j] = interpolate(depenValue[i], indepValue, rows, interpPoint[j], &belowRange,
&aboveRange, order, &interpCode, monotonicity);
} else {
outputData[i][j] = (double)interp_short(shortValue, indepValue, rows, interpPoint[j], 0, -1,
&interpCode, &nextPos);
}
if (interpCode) {
if (interpCode&OUTRANGE_ABORT) {
fprintf(stderr, "error: value %e is out of range for column %s\n",
interpPoint[j], depenQuantity[i]);
exit(1);
}
if (interpCode&OUTRANGE_WARN)
fprintf(stderr, "warning: value %e is out of range for column %s\n",
interpPoint[j], depenQuantity[i]);
if (interpCode&OUTRANGE_SKIP)
rowFlag[j] = 0;
}
}
}
if (interpShort)
free(shortValue);
if (!SDDS_StartPage(&SDDSout, interpPoints) ||
!SDDS_SetColumnFromDoubles(&SDDSout, SDDS_SET_BY_NAME, interpPoint, interpPoints, indepQuantity))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
if (!SDDS_SetParameters(&SDDSout, SDDS_BY_NAME|SDDS_PASS_BY_VALUE,
"InterpDataPage", readCode,
"InterpPointsPage", valuesReadCode, NULL) ||
!SDDS_CopyParameters(&SDDSout, &SDDSin))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
for (i=0; i<depenQuantities; i++)
if (!SDDS_SetColumnFromDoubles(&SDDSout, SDDS_SET_BY_NAME, outputData[i], interpPoints, depenQuantity[i]))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
if (!SDDS_AssertRowFlags(&SDDSout, SDDS_FLAG_ARRAY, rowFlag, rows) || !SDDS_WritePage(&SDDSout))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
if (printFlags&BARE_PRINTOUT) {
for (j=0; j<interpPoints; j++)
if (rowFlag[j]) {
fprintf(fpPrint, "%21.15e ", interpPoint[j]);
for (i=0; i<depenQuantities; i++)
fprintf(fpPrint, "%21.15e ", outputData[i][j]);
fputc('\n', fpPrint);
}
}
else if (printFlags&NORMAL_PRINTOUT) {
for (j=0; j<interpPoints; j++)
if (rowFlag[j]) {
fprintf(fpPrint, "%s=%21.15e ", indepQuantity, interpPoint[j]);
for (i=0; i<depenQuantities; i++)
fprintf(fpPrint, "%s=%21.15e ", depenQuantity[i], outputData[i][j]);
fputc('\n', fpPrint);
}
}
if (indepValue) free(indepValue);
indepValue = NULL;
for (i=0; i<depenQuantities; i++) {
if (outputData[i]) free(outputData[i]);
outputData[i] = NULL;
if (depenValue[i]) free(depenValue[i]);
depenValue[i] = NULL;
}
if (fileValuesFile) {
if (interpPoint) free(interpPoint);
interpPoint = NULL;
}
if (rowFlag) free(rowFlag);
rowFlag = NULL;
}
if (!SDDS_Terminate(&SDDSin)) {
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors);
exit(1);
}
if (!SDDS_Terminate(&SDDSout)) {
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors);
exit(1);
}
if (fileValuesFile) {
if (!SDDS_Terminate(&SDDSvalues)) {
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors);
exit(1);
}
}
return 0;
}
void add_element_links(ELEMENT_LINKS *links, NAMELIST_TEXT *nltext, LINE_LIST *beamline)
{
long n_links, src_position_code=0, n_targets, n_sources, mode_code=0;
long targets, iTarget, j;
char **targetList;
ELEMENT_LIST *t_context, *s_context, **eptr, *eptr1;
double dz_min, dz;
#if DEBUG
long i;
#endif
log_entry("add_element_links");
/* set namelist variables to defaults */
target = item = source = equation = exclude = NULL;
/* must initialize these hear rather than in the .nl file
* to avoid problems with str_tolower() and other operations
*/
cp_str(&source_position, "before");
cp_str(&mode, "dynamic");
/* process namelist text */
if (processNamelist(&link_elements, nltext)==NAMELIST_ERROR)
bombElegant(NULL, NULL);
if (target) str_toupper(target);
if (exclude) str_toupper(exclude);
if (item) str_toupper(item);
if (source) str_toupper(source);
if (source_position)
str_tolower(source_position);
else
cp_str(&source_position, "nearest");
if (mode)
str_tolower(mode);
else
cp_str(&mode, "dynamic");
if (echoNamelists) print_namelist(stdout, &link_elements);
/* check for valid input */
if (!target)
bombElegant("link target not named", NULL);
if (!item)
bombElegant("link item not named", NULL);
if (!source)
bombElegant("link source not named", NULL);
if (!equation)
bombElegant("link equation not given", NULL);
if (!source_position || (src_position_code=match_string(source_position, src_position_name, N_SRC_POSITIONS, 0))<0)
bombElegant("source_position not given/unknown", NULL);
if (!mode || (mode_code=match_string(mode, link_mode, N_LINK_MODES, 0))<0)
bombElegant("link mode not known", NULL);
if (minimum>maximum)
bombElegant("minimum>maximum", NULL);
t_context = s_context = NULL;
if (has_wildcards(target) && strchr(target, '-'))
target = expand_ranges(target);
if (exclude && strlen(exclude) && has_wildcards(exclude) && strchr(exclude, '-'))
exclude = expand_ranges(exclude);
if (!(t_context=wfind_element(target, &t_context, &(beamline->elem)))) {
fprintf(stdout, "error: cannot make link with target element %s--not in beamline\n", target);
fflush(stdout);
exitElegant(1);
}
if (!(s_context=find_element(source, &s_context, &(beamline->elem)))) {
fprintf(stdout, "error: cannot make link with source element %s--not in beamline\n", source);
fflush(stdout);
exitElegant(1);
}
targets = 0;
targetList = NULL;
/* make a list of all the unique element names that match this (possibly wildcard) target */
do {
int32_t duplic;
if (!exclude || !strlen(exclude) || !wild_match(t_context->name, exclude)) {
targetList = SDDS_Realloc(targetList, sizeof(*targetList)*(targets+1));
binaryInsert((void**)targetList, targets, t_context->name, strcmp, &duplic);
if (!duplic)
targets++;
}
} while ((t_context=wfind_element(target, &t_context, &(beamline->elem))));
if (!targets)
bombElegant("cannot make link--no targets found\n", NULL);
/* note that targets==1 if all the targets have the same name ! */
for (iTarget=0; iTarget<targets; iTarget++) {
n_links = links->n_links;
target = targetList[iTarget];
t_context = NULL;
t_context = find_element(target, &t_context, &(beamline->elem));
/* expand the arrays */
links->target_name = trealloc(links->target_name, sizeof(*links->target_name)*(n_links+1));
links->target_elem = trealloc(links->target_elem, sizeof(*links->target_elem)*(n_links+1));
links->item = trealloc(links->item, sizeof(*links->item)*(n_links+1));
links->target_param = trealloc(links->target_param, sizeof(*links->target_param)*(n_links+1));
links->source_name = trealloc(links->source_name, sizeof(*links->source_name)*(n_links+1));
links->source_position = trealloc(links->source_position, sizeof(*links->source_position)*(n_links+1));
links->flags = trealloc(links->flags, sizeof(*links->flags)*(n_links+1));
links->source_elem = trealloc(links->source_elem, sizeof(*links->source_elem)*(n_links+1));
links->equation = trealloc(links->equation, sizeof(*links->equation)*(n_links+1));
links->n_targets = trealloc(links->n_targets, sizeof(*links->n_targets)*(n_links+1));
links->initial_value = trealloc(links->initial_value, sizeof(*links->initial_value)*(n_links+1));
links->baseline_value = trealloc(links->baseline_value, sizeof(*links->baseline_value)*(n_links+1));
links->minimum = trealloc(links->minimum, sizeof(*links->minimum)*(n_links+1));
links->maximum = trealloc(links->maximum, sizeof(*links->maximum)*(n_links+1));
/* copy the basic data */
cp_str(links->target_name+n_links, target);
cp_str(links->item+n_links, item);
cp_str(links->source_name+n_links, source);
cp_str(links->equation+n_links, equation);
links->source_position[n_links] = src_position_code;
links->flags[n_links] = link_mode_flag[mode_code];
links->minimum[n_links] = minimum;
links->maximum[n_links] = maximum;
/* make the list of pointers to targets */
eptr = tmalloc(sizeof(*eptr));
eptr[0] = t_context;
if ((links->target_param[n_links] = confirm_parameter(item, t_context->type))<0) {
fprintf(stdout, "error: element %s does not have a parameter %s\n", target, item);
fflush(stdout);
exitElegant(1);
}
n_targets = 1;
while ((t_context=find_element(target, &t_context, &(beamline->elem)))) {
eptr = trealloc(eptr, sizeof(*eptr)*(n_targets+1));
eptr[n_targets] = t_context;
n_targets++;
}
links->baseline_value[n_links] = tmalloc(sizeof(*links->baseline_value[n_links])*n_targets);
links->n_targets[n_links] = n_targets;
links->target_elem[n_links] = eptr;
t_context = links->target_elem[n_links][0];
switch (entity_description[eptr[0]->type].parameter[links->target_param[n_links]].type) {
case IS_DOUBLE:
links->initial_value[n_links] =
*((double*)(eptr[0]->p_elem+entity_description[eptr[0]->type].parameter[links->target_param[n_links]].offset));
break;
case IS_LONG:
links->initial_value[n_links] =
*((long*)(eptr[0]->p_elem+entity_description[eptr[0]->type].parameter[links->target_param[n_links]].offset));
break;
default:
bombElegant("invalid type of item for target of link", NULL);
break;
}
for (j=0; j<n_targets; j++)
links->baseline_value[n_links][j] = links->initial_value[n_links];
/* make the list of pointers to sources */
if (iTarget) {
s_context = NULL;
if (!(s_context=find_element(source, &s_context, &(beamline->elem)))) {
fprintf(stdout, "error: cannot make link with source element %s--not in beamline\n", source);
fflush(stdout);
exitElegant(1);
}
}
eptr = tmalloc(sizeof(*eptr)*(n_targets));
if (src_position_code==SRC_POSITION_SAME_OCCURENCE) {
n_sources = 0;
while (n_sources<n_targets) {
eptr1 = NULL;
s_context = NULL;
while (find_element(source, &s_context, &(beamline->elem))) {
if (s_context->occurence==links->target_elem[n_links][n_sources]->occurence) {
eptr1 = s_context;
break;
}
}
if (!eptr1) {
fprintf(stdout, "error: no %s element is found with the same occurence number as the %ld-th %s element--can't link as requested\n",
source, n_sources, target);
fflush(stdout);
exitElegant(1);
}
eptr[n_sources++] = eptr1;
}
}
else if (src_position_code==SRC_POSITION_NEAREST) {
n_sources = 0;
while (n_sources<n_targets) {
dz_min = DBL_MAX;
eptr1 = NULL;
s_context = NULL;
while (find_element(source, &s_context, &(beamline->elem))) {
if ((dz = fabs(s_context->end_pos-links->target_elem[n_links][n_sources]->end_pos))<dz_min) {
eptr1 = s_context;
dz_min = dz;
}
}
if (!eptr1) {
fprintf(stdout, "error: no %s element is found near the %ld-th %s element--can't link as requested\n",
source, n_sources, target);
fflush(stdout);
exitElegant(1);
}
eptr[n_sources++] = eptr1;
}
}
else if (src_position_code==SRC_POSITION_ADJACENT) {
n_sources = 0;
while (n_sources<n_targets) {
eptr1 = NULL;
if ((eptr1=links->target_elem[n_links][n_sources]->pred)) {
if (strcmp(eptr1->name, source)!=0)
eptr1 = NULL;
}
if (!eptr1 && (eptr1=links->target_elem[n_links][n_sources]->succ)) {
if (strcmp(eptr1->name, source)!=0)
eptr1 = NULL;
}
if (!eptr1) {
fprintf(stdout, "error: no %s element is found adjacent to the %ld-th %s element--can't link as requested\n",
source, n_sources, target);
fflush(stdout);
exitElegant(1);
}
eptr[n_sources++] = eptr1;
}
}
else if (src_position_code==SRC_POSITION_BEFORE) {
if (links->target_elem[n_links][0]->end_pos<s_context->end_pos) {
fprintf(stdout, "error: there is no %s element before the first %s element--can't link as requested\n",
source, target);
fflush(stdout);
exitElegant(1);
}
eptr[0] = s_context;
n_sources = 0;
while (n_sources<n_targets) {
eptr1 = NULL;
do {
if (s_context->end_pos<links->target_elem[n_links][n_sources]->end_pos)
eptr1 = s_context;
else if (s_context->end_pos==links->target_elem[n_links][n_sources]->end_pos) {
eptr1 = s_context;
break;
}
else
break;
} while (find_element(source, &s_context, &(beamline->elem)));
if (!eptr1) {
fprintf(stdout, "error: no %s element is found before the %ld-th %s element--can't link as requested\n",
source, n_sources, target);
fflush(stdout);
exitElegant(1);
}
eptr[n_sources++] = eptr1;
s_context = eptr[n_sources-1];
}
}
else if (src_position_code==SRC_POSITION_AFTER) {
if (links->target_elem[n_links][0]->end_pos>=s_context->end_pos) {
/* search for first source element after first target element */
while (find_element(source, &s_context, &(beamline->elem))) {
if (links->target_elem[n_links][0]->end_pos<s_context->end_pos)
break;
}
if (!s_context) {
fprintf(stdout, "error: no %s element after the first %s element--can't link as requested\n",
source, target);
fflush(stdout);
exitElegant(1);
}
}
eptr[0] = s_context;
n_sources = 1;
while (n_sources<n_targets) {
s_context = links->target_elem[n_links][n_sources-1];
while (find_element(source, &s_context, &(beamline->elem))) {
if (s_context->end_pos>links->target_elem[n_links][n_sources]->end_pos)
break;
}
if (!s_context) {
fprintf(stdout, "error: no %s element is found after the %ld-th %s element--can't link as requested\n",
source, n_sources, target);
fflush(stdout);
exitElegant(1);
}
eptr[n_sources++] = s_context;
}
}
links->source_elem[n_links] = eptr;
#if DEBUG
fprintf(stdout, "list of targets and sources:\n");
fflush(stdout);
for (i=0; i<n_targets; i++)
fprintf(stdout, "%s at z=%em linked to %s at z=%em\n",
links->target_elem[n_links][i]->name, links->target_elem[n_links][i]->end_pos,
links->source_elem[n_links][i]->name, links->source_elem[n_links][i]->end_pos);
fflush(stdout);
#endif
links->n_links += 1;
}
log_exit("add_element_links");
}
int
CKTnoise (CKTcircuit *ckt, int mode, int operation, Ndata *data)
{
double outNdens;
int i;
extern SPICEdev **DEVices;
IFvalue outData; /* output variable (points to list of outputs)*/
IFvalue refVal; /* reference variable (always 0)*/
int error;
outNdens = 0.0;
/* let each device decide how many and what type of noise sources it has */
for (i=0; i < DEVmaxnum; i++) {
if ( DEVices[i] && ((*DEVices[i]).DEVnoise != NULL) && (ckt->CKThead[i] != NULL) ) {
error = (*((*DEVices[i]).DEVnoise))(mode,operation,ckt->CKThead[i],
ckt,data, &outNdens);
if (error) return (error);
}
}
switch (operation) {
case N_OPEN:
/* take care of the noise for the circuit as a whole */
switch (mode) {
case N_DENS:
data->namelist = (IFuid *)trealloc((char *)data->namelist,
(data->numPlots + 1)*sizeof(IFuid));
(*(SPfrontEnd->IFnewUid))(ckt, &(data->namelist[data->numPlots++]),
(IFuid)NULL,"onoise_spectrum",UID_OTHER,(void **)NULL);
data->namelist = (IFuid *)trealloc((char *)data->namelist,
(data->numPlots + 1)*sizeof(IFuid));
(*(SPfrontEnd->IFnewUid))(ckt, &(data->namelist[data->numPlots++]),
(IFuid)NULL,"inoise_spectrum",UID_OTHER,(void **)NULL);
/* we've added two more plots */
data->outpVector =
(double *)MALLOC(data->numPlots * sizeof(double));
break;
case INT_NOIZ:
data->namelist = (IFuid *)trealloc((char *)data->namelist,
(data->numPlots + 1)*sizeof(IFuid));
(*(SPfrontEnd->IFnewUid))(ckt, &(data->namelist[data->numPlots++]),
(IFuid)NULL,"onoise_total",UID_OTHER,(void **)NULL);
data->namelist = (IFuid *)trealloc((char *)data->namelist,
(data->numPlots + 1)*sizeof(IFuid));
(*(SPfrontEnd->IFnewUid))(ckt, &(data->namelist[data->numPlots++]),
(IFuid)NULL,"inoise_total",UID_OTHER,(void **)NULL);
/* we've added two more plots */
data->outpVector =
(double *) MALLOC(data->numPlots * sizeof(double));
break;
default:
return (E_INTERN);
}
break;
case N_CALC:
switch (mode) {
case N_DENS:
if ((((NOISEAN*)ckt->CKTcurJob)->NStpsSm == 0)
|| data->prtSummary)
{
data->outpVector[data->outNumber++] = outNdens;
data->outpVector[data->outNumber++] =
(outNdens * data->GainSqInv);
refVal.rValue = data->freq; /* the reference is the freq */
outData.v.numValue = data->outNumber; /* vector number */
outData.v.vec.rVec = data->outpVector; /* vector of outputs */
(*(SPfrontEnd->OUTpData))(data->NplotPtr,&refVal,&outData);
}
break;
case INT_NOIZ:
data->outpVector[data->outNumber++] = data->outNoiz;
data->outpVector[data->outNumber++] = data->inNoise;
outData.v.vec.rVec = data->outpVector; /* vector of outputs */
outData.v.numValue = data->outNumber; /* vector number */
(*(SPfrontEnd->OUTpData))(data->NplotPtr,&refVal,&outData);
break;
default:
return (E_INTERN);
}
break;
case N_CLOSE:
(*(SPfrontEnd->OUTendPlot))(data->NplotPtr);
FREE(data->namelist);
FREE(data->outpVector);
break;
default:
return (E_INTERN);
}
return (OK);
}
int
BSIM3v0noise (int mode, int operation, GENmodel *inModel, CKTcircuit *ckt,
Ndata *data, double *OnDens)
{
BSIM3v0model *model = (BSIM3v0model *)inModel;
BSIM3v0instance *here;
struct bsim3v0SizeDependParam *pParam;
char name[N_MXVLNTH];
double tempOnoise;
double tempInoise;
double noizDens[BSIM3v0NSRCS];
double lnNdens[BSIM3v0NSRCS];
double vgs, vds, Slimit;
double T1, T10, T11;
double Ssi, Swi;
int i;
/* define the names of the noise sources */
static char *BSIM3v0nNames[BSIM3v0NSRCS] =
{ /* Note that we have to keep the order */
".rd", /* noise due to rd */
/* consistent with the index definitions */
".rs", /* noise due to rs */
/* in BSIM3v0defs.h */
".id", /* noise due to id */
".1overf", /* flicker (1/f) noise */
"" /* total transistor noise */
};
for (; model != NULL; model = model->BSIM3v0nextModel)
{ for (here = model->BSIM3v0instances; here != NULL;
here = here->BSIM3v0nextInstance)
{
if (here->BSIM3v0owner != ARCHme)
continue;
pParam = here->pParam;
switch (operation)
{ case N_OPEN:
/* see if we have to to produce a summary report */
/* if so, name all the noise generators */
if (((NOISEAN*)ckt->CKTcurJob)->NStpsSm != 0)
{ switch (mode)
{ case N_DENS:
for (i = 0; i < BSIM3v0NSRCS; i++)
{ (void) sprintf(name, "onoise.%s%s",
here->BSIM3v0name,
BSIM3v0nNames[i]);
data->namelist = (IFuid *) trealloc(
(char *) data->namelist,
(data->numPlots + 1)
* sizeof(IFuid));
if (!data->namelist)
return(E_NOMEM);
(*(SPfrontEnd->IFnewUid)) (ckt,
&(data->namelist[data->numPlots++]),
(IFuid) NULL, name, UID_OTHER,
(void **) NULL);
/* we've added one more plot */
}
break;
case INT_NOIZ:
for (i = 0; i < BSIM3v0NSRCS; i++)
{ (void) sprintf(name, "onoise_total.%s%s",
here->BSIM3v0name,
BSIM3v0nNames[i]);
data->namelist = (IFuid *) trealloc(
(char *) data->namelist,
(data->numPlots + 1)
* sizeof(IFuid));
if (!data->namelist)
return(E_NOMEM);
(*(SPfrontEnd->IFnewUid)) (ckt,
&(data->namelist[data->numPlots++]),
(IFuid) NULL, name, UID_OTHER,
(void **) NULL);
/* we've added one more plot */
(void) sprintf(name, "inoise_total.%s%s",
here->BSIM3v0name,
BSIM3v0nNames[i]);
data->namelist = (IFuid *) trealloc(
(char *) data->namelist,
(data->numPlots + 1)
* sizeof(IFuid));
if (!data->namelist)
return(E_NOMEM);
(*(SPfrontEnd->IFnewUid)) (ckt,
&(data->namelist[data->numPlots++]),
(IFuid) NULL, name, UID_OTHER,
(void **)NULL);
/* we've added one more plot */
}
break;
}
}
break;
case N_CALC:
switch (mode)
{ case N_DENS:
NevalSrc(&noizDens[BSIM3v0RDNOIZ],
&lnNdens[BSIM3v0RDNOIZ], ckt, THERMNOISE,
here->BSIM3v0dNodePrime, here->BSIM3v0dNode,
here->BSIM3v0drainConductance * here->BSIM3v0m);
NevalSrc(&noizDens[BSIM3v0RSNOIZ],
&lnNdens[BSIM3v0RSNOIZ], ckt, THERMNOISE,
here->BSIM3v0sNodePrime, here->BSIM3v0sNode,
here->BSIM3v0sourceConductance * here->BSIM3v0m);
if (model->BSIM3v0noiMod == 2)
{ NevalSrc(&noizDens[BSIM3v0IDNOIZ],
&lnNdens[BSIM3v0IDNOIZ], ckt, THERMNOISE,
here->BSIM3v0dNodePrime,
here->BSIM3v0sNodePrime, (here->BSIM3v0ueff
* fabs((here->BSIM3v0qinv * here->BSIM3v0m)
/ (pParam->BSIM3v0leff
* pParam->BSIM3v0leff))));
}
else
{ NevalSrc(&noizDens[BSIM3v0IDNOIZ],
&lnNdens[BSIM3v0IDNOIZ], ckt, THERMNOISE,
here->BSIM3v0dNodePrime,
here->BSIM3v0sNodePrime,
(2.0 / 3.0 * fabs(here->BSIM3v0gm
+ here->BSIM3v0gds) * here->BSIM3v0m));
}
NevalSrc(&noizDens[BSIM3v0FLNOIZ], (double*) NULL,
ckt, N_GAIN, here->BSIM3v0dNodePrime,
here->BSIM3v0sNodePrime, (double) 0.0);
if (model->BSIM3v0noiMod == 2)
{ vgs = *(ckt->CKTstates[0] + here->BSIM3v0vgs);
vds = *(ckt->CKTstates[0] + here->BSIM3v0vds);
if (vds < 0.0)
{ vds = -vds;
vgs = vgs + vds;
}
if (vgs >= here->BSIM3v0von + 0.1)
{ Ssi = StrongInversionNoiseEval(vgs, vds,
model, here, data->freq,
ckt->CKTtemp);
noizDens[BSIM3v0FLNOIZ] *= Ssi;
}
else
{ pParam = here->pParam;
T10 = model->BSIM3v0oxideTrapDensityA
* 8.62e-5 * (ckt->CKTtemp + CONSTCtoK);
T11 = pParam->BSIM3v0weff * here->BSIM3v0m * pParam->BSIM3v0leff
* pow(data->freq, model->BSIM3v0ef)
* 4.0e36;
Swi = T10 / T11 * here->BSIM3v0cd * here->BSIM3v0m
* here->BSIM3v0cd * here->BSIM3v0m;
Slimit = StrongInversionNoiseEval(
here->BSIM3v0von + 0.1,
vds, model, here,
data->freq, ckt->CKTtemp);
T1 = Swi + Slimit;
if (T1 > 0.0)
noizDens[BSIM3v0FLNOIZ] *= (Slimit * Swi)
/ T1;
else
noizDens[BSIM3v0FLNOIZ] *= 0.0;
}
}
else
{ noizDens[BSIM3v0FLNOIZ] *= model->BSIM3v0kf *
exp(model->BSIM3v0af
* log(MAX(fabs(here->BSIM3v0cd * here->BSIM3v0m),
N_MINLOG)))
/ (pow(data->freq, model->BSIM3v0ef)
* pParam->BSIM3v0leff
* pParam->BSIM3v0leff
* model->BSIM3v0cox);
}
lnNdens[BSIM3v0FLNOIZ] =
log(MAX(noizDens[BSIM3v0FLNOIZ], N_MINLOG));
noizDens[BSIM3v0TOTNOIZ] = noizDens[BSIM3v0RDNOIZ]
+ noizDens[BSIM3v0RSNOIZ]
+ noizDens[BSIM3v0IDNOIZ]
+ noizDens[BSIM3v0FLNOIZ];
lnNdens[BSIM3v0TOTNOIZ] =
log(MAX(noizDens[BSIM3v0TOTNOIZ], N_MINLOG));
*OnDens += noizDens[BSIM3v0TOTNOIZ];
if (data->delFreq == 0.0)
{ /* if we haven't done any previous
integration, we need to initialize our
"history" variables.
*/
for (i = 0; i < BSIM3v0NSRCS; i++)
{ here->BSIM3v0nVar[LNLSTDENS][i] =
lnNdens[i];
}
/* clear out our integration variables
if it's the first pass
*/
if (data->freq ==
((NOISEAN*) ckt->CKTcurJob)->NstartFreq)
{ for (i = 0; i < BSIM3v0NSRCS; i++)
{ here->BSIM3v0nVar[OUTNOIZ][i] = 0.0;
here->BSIM3v0nVar[INNOIZ][i] = 0.0;
}
}
}
else
{ /* data->delFreq != 0.0,
we have to integrate.
*/
for (i = 0; i < BSIM3v0NSRCS; i++)
{ if (i != BSIM3v0TOTNOIZ)
{ tempOnoise = Nintegrate(noizDens[i],
lnNdens[i],
here->BSIM3v0nVar[LNLSTDENS][i],
data);
tempInoise = Nintegrate(noizDens[i]
* data->GainSqInv, lnNdens[i]
+ data->lnGainInv,
here->BSIM3v0nVar[LNLSTDENS][i]
+ data->lnGainInv, data);
here->BSIM3v0nVar[LNLSTDENS][i] =
lnNdens[i];
data->outNoiz += tempOnoise;
data->inNoise += tempInoise;
if (((NOISEAN*)
ckt->CKTcurJob)->NStpsSm != 0)
{ here->BSIM3v0nVar[OUTNOIZ][i]
+= tempOnoise;
here->BSIM3v0nVar[OUTNOIZ][BSIM3v0TOTNOIZ]
+= tempOnoise;
here->BSIM3v0nVar[INNOIZ][i]
+= tempInoise;
here->BSIM3v0nVar[INNOIZ][BSIM3v0TOTNOIZ]
+= tempInoise;
}
}
}
}
if (data->prtSummary)
{ for (i = 0; i < BSIM3v0NSRCS; i++)
{ /* print a summary report */
data->outpVector[data->outNumber++]
= noizDens[i];
}
}
break;
case INT_NOIZ:
/* already calculated, just output */
if (((NOISEAN*)ckt->CKTcurJob)->NStpsSm != 0)
{ for (i = 0; i < BSIM3v0NSRCS; i++)
{ data->outpVector[data->outNumber++]
= here->BSIM3v0nVar[OUTNOIZ][i];
data->outpVector[data->outNumber++]
= here->BSIM3v0nVar[INNOIZ][i];
}
}
break;
}
break;
case N_CLOSE:
/* do nothing, the main calling routine will close */
return (OK);
break; /* the plots */
} /* switch (operation) */
} /* for here */
} /* for model */
return(OK);
}
int main(int argc, char **argv)
{
FILE *fileID;
COLUMN_DATA_STRUCTURES *columnValues;
PARAMETER_DATA_STRUCTURES *parameterValues;
SDDS_DATASET SDDS_dataset;
SCANNED_ARG *s_arg;
long i, j, k, n, i_arg;
int32_t rows;
int32_t maxRows=10000, initRows=10000, row;
long par, col, page, size, readline=1, fillin=0;
int32_t ptrSize=0;
char *input, *output, s[1024], *ptr, *ptr2, data[10240],temp[10240];
unsigned long pipeFlags=0,majorOrderFlag;
long noWarnings=0, tmpfile_used=0, columnOrder=0, whitespace=1;
short shortValue;
int32_t longValue;
float floatValue;
double doubleValue;
char stringValue[SDDS_MAXLINE];
char characterValue;
char buffer[124], buffer2[124];
long *parameterIndex, *columnIndex;
long binary=0, noRowCount=0, inputBinary=0, count=0;
char separator;
char commentCharacters[20];
short checkComment=0;
short commentFound;
long parameters=0, columns=0;
long skiplines=0;
short abort=0, recover=1, columnMajorOrder=0;
input = output = NULL;
separator = ' ';
columnValues = NULL;
parameterValues = NULL;
parameterIndex = columnIndex = NULL;
SDDS_RegisterProgramName(argv[0]);
argc = scanargs(&s_arg, argc, argv);
if (argc<3)
bomb(NULL, USAGE);
for (i_arg=1; i_arg<argc; i_arg++) {
if (s_arg[i_arg].arg_type==OPTION) {
switch (match_string(s_arg[i_arg].list[0], option, N_OPTIONS, 0)) {
case SET_MAJOR_ORDER:
majorOrderFlag=0;
s_arg[i_arg].n_items -=1;
if (s_arg[i_arg].n_items>0 &&
(!scanItemList(&majorOrderFlag, s_arg[i_arg].list+1, &s_arg[i_arg].n_items, 0,
"row", -1, NULL, 0, SDDS_ROW_MAJOR_ORDER,
"column", -1, NULL, 0, SDDS_COLUMN_MAJOR_ORDER,
NULL)))
SDDS_Bomb("invalid -majorOrder syntax/values");
if (majorOrderFlag&SDDS_COLUMN_MAJOR_ORDER)
columnMajorOrder=1;
else if (majorOrderFlag&SDDS_ROW_MAJOR_ORDER)
columnMajorOrder=0;
break;
case SET_OUTPUTMODE:
if (s_arg[i_arg].n_items!=2)
SDDS_Bomb("invalid -outputMode syntax");
switch (match_string(s_arg[i_arg].list[1], mode_name, MODES, 0)) {
case ASCII_MODE:
binary = 0;
break;
case BINARY_MODE:
binary = 1;
break;
default:
SDDS_Bomb("invalid -outputMode syntax");
break;
}
break;
case SET_INPUTMODE:
if (s_arg[i_arg].n_items!=2)
SDDS_Bomb("invalid -inputMode syntax");
switch (match_string(s_arg[i_arg].list[1], mode_name, MODES, 0)) {
case ASCII_MODE:
inputBinary = 0;
break;
case BINARY_MODE:
inputBinary = 1;
break;
default:
SDDS_Bomb("invalid -inputMode syntax");
break;
}
break;
case SET_SEPARATOR:
if (s_arg[i_arg].n_items!=2)
SDDS_Bomb("invalid -separator syntax");
separator = s_arg[i_arg].list[1][0];
whitespace = 0;
break;
case SET_COMMENT:
if (s_arg[i_arg].n_items!=2)
SDDS_Bomb("invalid -commentCharacters syntax");
sprintf(commentCharacters, "%s", s_arg[i_arg].list[1]);
checkComment=1;
break;
case SET_FILLIN:
fillin=1;
break;
case SET_NOROWCOUNT:
if (s_arg[i_arg].n_items!=1)
SDDS_Bomb("invalid -noRowCount syntax");
noRowCount = 1;
break;
case SET_ORDER:
if (s_arg[i_arg].n_items!=2)
SDDS_Bomb("invalid -order syntax");
switch (match_string(s_arg[i_arg].list[1], order_names, ORDERS, 0)) {
case ROW_ORDER:
columnOrder = 0;
break;
case COLUMN_ORDER:
columnOrder = 1;
break;
default:
SDDS_Bomb("invalid -order syntax");
break;
}
break;
case SET_PARAMETER:
if (s_arg[i_arg].n_items<3)
SDDS_Bomb("invalid -parameter syntax");
count=1;
parameters++;
parameterValues = trealloc(parameterValues, sizeof(*parameterValues)*(parameters));
SDDS_CopyString(¶meterValues[parameters-1].name, s_arg[i_arg].list[1]);
parameterValues[parameters-1].units = NULL;
parameterValues[parameters-1].description = NULL;
parameterValues[parameters-1].symbol = NULL;
switch (match_string(s_arg[i_arg].list[2], type_name, DATATYPES, 0)) {
case TYPE_SHORT:
parameterValues[parameters-1].type = SDDS_SHORT;
break;
case TYPE_LONG:
parameterValues[parameters-1].type = SDDS_LONG;
break;
case TYPE_FLOAT:
parameterValues[parameters-1].type = SDDS_FLOAT;
break;
case TYPE_DOUBLE:
parameterValues[parameters-1].type = SDDS_DOUBLE;
break;
case TYPE_STRING:
parameterValues[parameters-1].type = SDDS_STRING;
break;
case TYPE_CHARACTER:
parameterValues[parameters-1].type = SDDS_CHARACTER;
break;
default:
SDDS_Bomb("invalid -parameter type");
break;
}
for (i=3;i<s_arg[i_arg].n_items;i++) {
if (!(ptr=strchr(s_arg[i_arg].list[i], '=')))
SDDS_Bomb("invalid -parameter syntax");
*ptr++ = 0;
switch (match_string(s_arg[i_arg].list[i], header_elements, HEADERELEMENTS, 0)) {
case HEADER_UNITS:
SDDS_CopyString(¶meterValues[parameters-1].units, ptr);
break;
case HEADER_DESCRIPTION:
SDDS_CopyString(¶meterValues[parameters-1].description, ptr);
break;
case HEADER_SYMBOL:
SDDS_CopyString(¶meterValues[parameters-1].symbol, ptr);
break;
case HEADER_COUNT:
if (sscanf(ptr, "%ld", &count)!=1 ||
count<=0)
SDDS_Bomb("invalid parameter count value");
sprintf(buffer, "%s", parameterValues[parameters-1].name);
sprintf(buffer2, "%s1", buffer);
free(parameterValues[parameters-1].name);
SDDS_CopyString(¶meterValues[parameters-1].name, buffer2);
break;
default:
SDDS_Bomb("invalid -parameter syntax");
break;
}
}
for (i=2;i<=count;i++) {
parameters++;
parameterValues = trealloc(parameterValues, sizeof(*parameterValues)*(parameters));
sprintf(buffer2, "%s%ld", buffer, i);
SDDS_CopyString(¶meterValues[parameters-1].name, buffer2);
parameterValues[parameters-1].units = NULL;
parameterValues[parameters-1].description = NULL;
parameterValues[parameters-1].symbol = NULL;
parameterValues[parameters-1].type = parameterValues[parameters-2].type;
if (parameterValues[parameters-2].units)
SDDS_CopyString(¶meterValues[parameters-1].units, parameterValues[parameters-2].units);
if (parameterValues[parameters-2].description)
SDDS_CopyString(¶meterValues[parameters-1].description, parameterValues[parameters-2].description);
if (parameterValues[parameters-2].symbol)
SDDS_CopyString(¶meterValues[parameters-1].symbol, parameterValues[parameters-2].symbol);
}
break;
case SET_COLUMN:
if (s_arg[i_arg].n_items<3)
SDDS_Bomb("invalid -column syntax");
count=1;
columns++;
columnValues = trealloc(columnValues, sizeof(*columnValues)*(columns));
SDDS_CopyString(&columnValues[columns-1].name, s_arg[i_arg].list[1]);
columnValues[columns-1].elements = 0;
columnValues[columns-1].values = NULL;
columnValues[columns-1].stringValues = NULL;
columnValues[columns-1].units = NULL;
columnValues[columns-1].description = NULL;
columnValues[columns-1].symbol = NULL;
columnValues[columns-1].skip = 0;
switch (match_string(s_arg[i_arg].list[2], type_name, DATATYPES, 0)) {
case TYPE_SHORT:
columnValues[columns-1].type = SDDS_SHORT;
break;
case TYPE_LONG:
columnValues[columns-1].type = SDDS_LONG;
break;
case TYPE_FLOAT:
columnValues[columns-1].type = SDDS_FLOAT;
break;
case TYPE_DOUBLE:
columnValues[columns-1].type = SDDS_DOUBLE;
break;
case TYPE_STRING:
columnValues[columns-1].type = SDDS_STRING;
break;
case TYPE_CHARACTER:
columnValues[columns-1].type = SDDS_CHARACTER;
break;
default:
SDDS_Bomb("invalid -column type");
break;
}
for (i=3;i<s_arg[i_arg].n_items;i++) {
if (!(ptr=strchr(s_arg[i_arg].list[i], '=')))
SDDS_Bomb("invalid -column syntax");
*ptr++ = 0;
switch (match_string(s_arg[i_arg].list[i], header_elements, HEADERELEMENTS, 0)) {
case HEADER_UNITS:
SDDS_CopyString(&columnValues[columns-1].units, ptr);
break;
case HEADER_DESCRIPTION:
SDDS_CopyString(&columnValues[columns-1].description, ptr);
break;
case HEADER_SYMBOL:
SDDS_CopyString(&columnValues[columns-1].symbol, ptr);
break;
case HEADER_COUNT:
if (sscanf(ptr, "%ld", &count)!=1 ||
count<=0)
SDDS_Bomb("invalid column count value");
sprintf(buffer, "%s", columnValues[columns-1].name);
sprintf(buffer2, "%s1", buffer);
free(columnValues[columns-1].name);
SDDS_CopyString(&columnValues[columns-1].name, buffer2);
break;
default:
SDDS_Bomb("invalid -column syntax");
break;
}
}
for (i=2;i<=count;i++) {
columns++;
columnValues = trealloc(columnValues, sizeof(*columnValues)*(columns));
sprintf(buffer2, "%s%ld", buffer, i);
SDDS_CopyString(&columnValues[columns-1].name, buffer2);
columnValues[columns-1].elements = 0;
columnValues[columns-1].values = NULL;
columnValues[columns-1].stringValues = NULL;
columnValues[columns-1].units = NULL;
columnValues[columns-1].description = NULL;
columnValues[columns-1].symbol = NULL;
columnValues[columns-1].type = columnValues[columns-2].type;
if (columnValues[columns-2].units)
SDDS_CopyString(&columnValues[columns-1].units, columnValues[columns-2].units);
if (columnValues[columns-2].description)
SDDS_CopyString(&columnValues[columns-1].description, columnValues[columns-2].description);
if (columnValues[columns-2].symbol)
SDDS_CopyString(&columnValues[columns-1].symbol, columnValues[columns-2].symbol);
}
break;
case SET_SKIPCOLUMN:
if (s_arg[i_arg].n_items!=2)
SDDS_Bomb("invalid -skipcolumn syntax");
count=1;
columns++;
columnValues = trealloc(columnValues, sizeof(*columnValues)*(columns));
columnValues[columns-1].name = NULL;
columnValues[columns-1].elements = 0;
columnValues[columns-1].values = NULL;
columnValues[columns-1].stringValues = NULL;
columnValues[columns-1].units = NULL;
columnValues[columns-1].description = NULL;
columnValues[columns-1].symbol = NULL;
columnValues[columns-1].skip = 1;
switch (match_string(s_arg[i_arg].list[1], type_name, DATATYPES, 0)) {
case TYPE_SHORT:
columnValues[columns-1].type = SDDS_SHORT;
break;
case TYPE_LONG:
columnValues[columns-1].type = SDDS_LONG;
break;
case TYPE_FLOAT:
columnValues[columns-1].type = SDDS_FLOAT;
break;
case TYPE_DOUBLE:
columnValues[columns-1].type = SDDS_DOUBLE;
break;
case TYPE_STRING:
columnValues[columns-1].type = SDDS_STRING;
break;
case TYPE_CHARACTER:
columnValues[columns-1].type = SDDS_CHARACTER;
break;
default:
SDDS_Bomb("invalid -skipcolumn type");
break;
}
break;
case SET_PIPE:
if (!processPipeOption(s_arg[i_arg].list+1, s_arg[i_arg].n_items-1, &pipeFlags))
SDDS_Bomb("invalid -pipe syntax");
break;
case SET_NOWARNINGS:
if (s_arg[i_arg].n_items!=1)
SDDS_Bomb("invalid -nowarnings syntax");
noWarnings = 1;
break;
case SET_SKIPLINES:
if (s_arg[i_arg].n_items!=2 ||
sscanf(s_arg[i_arg].list[1], "%ld", &skiplines)!=1 ||
skiplines<=0)
SDDS_Bomb("invalid -skiplines syntax");
break;
default:
fprintf(stderr, "error: unknown switch: %s\n", s_arg[i_arg].list[0]);
exit(1);
break;
}
} else {
if (input == NULL) {
input = s_arg[i_arg].list[0];
} else if (output == NULL) {
output = s_arg[i_arg].list[0];
} else {
fprintf(stderr, "too many filenames");
exit(1);
}
}
}
processFilenames("plaindata2sdds", &input, &output, pipeFlags, noWarnings, &tmpfile_used);
if (!columns && !parameters)
SDDS_Bomb("you must specify one of the -column or the -parameter options");
if (skiplines && inputBinary)
SDDS_Bomb("-skiplines does not work with binary input files");
if (!input) {
if (inputBinary) {
#if defined(_WIN32)
if (_setmode(_fileno(stdin), _O_BINARY) == -1) {
fprintf(stderr, "error: unable to set stdin to binary mode\n");
exit(1);
}
#endif
}
fileID = stdin;
} else {
if (!fexists(input)) {
fprintf(stderr, "input file not found\n");
exit(1);
}
if (inputBinary) {
fileID = fopen(input, "rb");
} else {
fileID = fopen(input, "r");
}
}
if (fileID == NULL) {
fprintf(stderr, "unable to open input file for reading\n");
exit(1);
}
if (!SDDS_InitializeOutput(&SDDS_dataset, binary?SDDS_BINARY:SDDS_ASCII,
1, NULL, NULL, output))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
SDDS_dataset.layout.data_mode.column_major = columnMajorOrder;
if (parameters) {
parameterIndex = tmalloc(sizeof(*parameterIndex)*parameters);
}
if (columns) {
columnIndex = tmalloc(sizeof(*columnIndex)*columns);
}
for (i=0; i<parameters; i++) {
if ((parameterIndex[i] =
SDDS_DefineParameter(&SDDS_dataset, parameterValues[i].name, parameterValues[i].symbol,
parameterValues[i].units, parameterValues[i].description, NULL,
parameterValues[i].type, 0))<0) {
sprintf(s, "Problem defining parameter %s.", parameterValues[i].name);
SDDS_SetError(s);
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
}
for (i=0; i<columns; i++) {
if (columnValues[i].skip)
continue;
if ((columnIndex[i] =
SDDS_DefineColumn(&SDDS_dataset, columnValues[i].name, columnValues[i].symbol, \
columnValues[i].units, columnValues[i].description, NULL,
columnValues[i].type, 0))<0) {
sprintf(s, "Problem defining column %s.", columnValues[i].name);
SDDS_SetError(s);
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
}
if (!SDDS_WriteLayout(&SDDS_dataset))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
if (!SDDS_StartPage(&SDDS_dataset, initRows))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
row = par = col = page = 0;
while (inputBinary) {
row = par = col = 0;
if (fread(&rows,sizeof(rows),1,fileID) != 1) {
if (page == 0) {
SDDS_SetError("Unable to read number of rows");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
} else {
if (!SDDS_Terminate(&SDDS_dataset))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
for (k=0;k<columns;k++) {
if (columnValues[k].type == SDDS_STRING) {
SDDS_FreeStringArray(columnValues[k].stringValues,columnValues[k].elements);
} else {
free(columnValues[k].values);
}
}
return 0;
}
}
page++;
for (par=0;par<parameters;par++) {
switch (parameterValues[par].type) {
case SDDS_SHORT:
if (fread(&shortValue,2,1,fileID) != 1) {
SDDS_SetError("Unable to read short parameter");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
if (!SDDS_SetParameters(&SDDS_dataset,SDDS_SET_BY_INDEX|SDDS_PASS_BY_VALUE,par,shortValue,-1))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
break;
case SDDS_LONG:
if (fread(&longValue,4,1,fileID) != 1) {
SDDS_SetError("Unable to read long parameter");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
if (!SDDS_SetParameters(&SDDS_dataset,SDDS_SET_BY_INDEX|SDDS_PASS_BY_VALUE,par,longValue,-1))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
break;
case SDDS_FLOAT:
if (fread(&floatValue,4,1,fileID) != 1) {
SDDS_SetError("Unable to read float parameter");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
if (!SDDS_SetParameters(&SDDS_dataset,SDDS_SET_BY_INDEX|SDDS_PASS_BY_VALUE,par,floatValue,-1))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
break;
case SDDS_DOUBLE:
if (fread(&doubleValue,8,1,fileID) != 1) {
SDDS_SetError("Unable to read double parameter");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
if (!SDDS_SetParameters(&SDDS_dataset,SDDS_SET_BY_INDEX|SDDS_PASS_BY_VALUE,par,doubleValue,-1))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
break;
case SDDS_STRING:
if (fread(&size,4,1,fileID) != 1) {
SDDS_SetError("Unable to read string parameter");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
if (size>SDDS_MAXLINE-1)
SDDS_Bomb("String is too long");
if (size > 0) {
if (fread(&stringValue,size,1,fileID) != 1) {
SDDS_SetError("Unable to read string parameter");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
stringValue[size] = 0;
} else {
strcpy(stringValue,"");
}
if (!SDDS_SetParameters(&SDDS_dataset,SDDS_SET_BY_INDEX|SDDS_PASS_BY_VALUE,par,stringValue,-1))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
break;
case SDDS_CHARACTER:
if (fread(&characterValue,1,1,fileID) != 1) {
SDDS_SetError("Unable to read character parameter");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
if (!SDDS_SetParameters(&SDDS_dataset,SDDS_SET_BY_INDEX|SDDS_PASS_BY_VALUE,par,characterValue,-1))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
break;
}
}
for (i=0;i<columns;i++) {
if (rows > columnValues[i].elements) {
if (columnValues[i].type == SDDS_STRING) {
columnValues[i].stringValues = AllocateColumnStringData(columnValues[i].stringValues, rows, columnValues[i].elements);
} else {
columnValues[i].values = AllocateColumnData(columnValues[i].type, columnValues[i].values, rows);
}
columnValues[i].elements = rows;
}
}
if (columnOrder) {
for (col=0;col<columns;col++) {
switch (columnValues[col].type) {
case SDDS_SHORT:
for (i=0;i<rows;i++) {
if (fread((short*)(columnValues[col].values)+i,2,1,fileID) != 1) {
SDDS_SetError("Unable to read short column");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
}
break;
case SDDS_LONG:
for (i=0;i<rows;i++) {
if (fread((int32_t*)(columnValues[col].values)+i,4,1,fileID) != 1) {
SDDS_SetError("Unable to read long column");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
}
break;
case SDDS_FLOAT:
for (i=0;i<rows;i++) {
if (fread((float*)(columnValues[col].values)+i,4,1,fileID) != 1) {
SDDS_SetError("Unable to read float column");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
}
break;
case SDDS_DOUBLE:
for (i=0;i<rows;i++) {
if (fread((double*)(columnValues[col].values)+i,8,1,fileID) != 1) {
SDDS_SetError("Unable to read double double");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
}
break;
case SDDS_STRING:
for (i=0;i<rows;i++) {
if (fread(&size,4,1,fileID) != 1) {
SDDS_SetError("Unable to read string column");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
if (size>SDDS_MAXLINE-1)
SDDS_Bomb("String is too long");
columnValues[col].stringValues[i] = malloc(size + 1);
if (size > 0) {
if (fread(columnValues[col].stringValues[i],size,1,fileID) != 1) {
SDDS_SetError("Unable to read string column");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
columnValues[col].stringValues[i][size] = 0;
} else {
strcpy(columnValues[col].stringValues[i],"");
}
}
break;
case SDDS_CHARACTER:
for (i=0;i<rows;i++) {
if (fread((char*)(columnValues[col].values)+i,1,1,fileID) != 1) {
SDDS_SetError("Unable to read character column");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
}
break;
}
}
} else {
for (i=0;i<rows;i++) {
for (col=0;col<columns;col++) {
switch (columnValues[col].type) {
case SDDS_SHORT:
if (fread((short*)(columnValues[col].values)+i,2,1,fileID) != 1) {
SDDS_SetError("Unable to read short column");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
break;
case SDDS_LONG:
if (fread((int32_t*)(columnValues[col].values)+i,4,1,fileID) != 1) {
SDDS_SetError("Unable to read long column");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
break;
case SDDS_FLOAT:
if (fread((float*)(columnValues[col].values)+i,4,1,fileID) != 1) {
SDDS_SetError("Unable to read float column");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
break;
case SDDS_DOUBLE:
if (fread(((double*)(columnValues[col].values)+i),8,1,fileID) != 1) {
SDDS_SetError("Unable to read double column");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
break;
case SDDS_STRING:
if (fread(&size,4,1,fileID) != 1) {
SDDS_SetError("Unable to read string column");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
if (size>SDDS_MAXLINE-1)
SDDS_Bomb("String is too long");
columnValues[col].stringValues[i] = malloc(size + 1);
if (size > 0) {
if (fread(columnValues[col].stringValues[i],size,1,fileID) != 1) {
SDDS_SetError("Unable to read string column");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
columnValues[col].stringValues[i][size] = 0;
} else {
strcpy(columnValues[col].stringValues[i],"");
}
break;
case SDDS_CHARACTER:
if (fread(((char*)(columnValues[col].values)+i),1,1,fileID) != 1) {
SDDS_SetError("Unable to read character column");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
break;
}
}
}
}
if (rows > maxRows) {
if (!SDDS_LengthenTable(&SDDS_dataset, rows - maxRows)) {
SDDS_SetError("Unable to lengthen table");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
maxRows = rows;
}
j=n;
for (i=0;i<columns;i++) {
if (columnValues[i].skip)
continue;
if (columnValues[i].type == SDDS_STRING) {
SetColumnData(columnValues[i].type, &SDDS_dataset, columnValues[i].stringValues, rows, n);
} else {
SetColumnData(columnValues[i].type, &SDDS_dataset, columnValues[i].values, rows, n);
}
n++;
}
if (!SDDS_WritePage(&SDDS_dataset)) {
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
maxRows = 10000;
if (!SDDS_StartPage(&SDDS_dataset, initRows))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
row = par = col = n = 0;
rows = -1;
ptr = NULL;
ptr = SDDS_Malloc(sizeof(*ptr)*(ptrSize=2048));
/* ptr2 = NULL;
ptr2 = SDDS_Malloc(sizeof(*ptr)*(ptrSize=2048));*/
ptr[0] = 0;
while (1) {
if (readline) {
while (skiplines > 0) {
fgets(ptr, ptrSize, fileID);
skiplines--;
}
if (!fgetsSkipCommentsResize(&ptr,&ptrSize,fileID, '!'))
break;
commentFound=0;
if (checkComment) {
for (i=0; i<strlen(commentCharacters); i++) {
if (ptr[0] == commentCharacters[i]) {
commentFound=1;
}
}
}
if (commentFound == 1) {
continue;
}
if (ptr[strlen(ptr)-1] == '\n')
ptr[strlen(ptr)-1] = 0;
strcpy(temp,ptr);
/*skip empty lines*/
if (getToken(temp,data,10240,separator,whitespace)<0)
continue;
} else {
readline = 1;
}
if (par < parameters) {
switch (parameterValues[par].type) {
case SDDS_SHORT:
if (sscanf(ptr,"%hd",&shortValue) != 1) {
SDDS_SetError("Invalid short parameter");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
if (!SDDS_SetParameters(&SDDS_dataset,SDDS_SET_BY_INDEX|SDDS_PASS_BY_VALUE,par,shortValue,-1))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
break;
case SDDS_LONG:
if (sscanf(ptr,"%" SCNd32 ,&longValue) != 1) {
SDDS_SetError("Invalid long parameter");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
if (!SDDS_SetParameters(&SDDS_dataset,SDDS_SET_BY_INDEX|SDDS_PASS_BY_VALUE,par,longValue,-1))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
break;
case SDDS_FLOAT:
ConvertDNotationToENotation(ptr);
if (sscanf(ptr,"%f",&floatValue) != 1) {
SDDS_SetError("Invalid float parameter");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
if (!SDDS_SetParameters(&SDDS_dataset,SDDS_SET_BY_INDEX|SDDS_PASS_BY_VALUE,par,floatValue,-1))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
break;
case SDDS_DOUBLE:
ConvertDNotationToENotation(ptr);
if (sscanf(ptr,"%lf",&doubleValue) != 1) {
SDDS_SetError("Invalid double parameter");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
if (!SDDS_SetParameters(&SDDS_dataset,SDDS_SET_BY_INDEX|SDDS_PASS_BY_VALUE,par,doubleValue,-1))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
break;
case SDDS_STRING:
SDDS_GetToken(ptr,stringValue,SDDS_MAXLINE);
SDDS_InterpretEscapes(stringValue);
if (!SDDS_SetParameters(&SDDS_dataset,SDDS_SET_BY_INDEX|SDDS_PASS_BY_VALUE,par,stringValue,-1))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
break;
case SDDS_CHARACTER:
SDDS_InterpretEscapes(ptr);
characterValue = ptr[0];
if (!SDDS_SetParameters(&SDDS_dataset,SDDS_SET_BY_INDEX|SDDS_PASS_BY_VALUE,par,characterValue,-1))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
break;
}
par++;
} else if ((rows == -1) && (!noRowCount)) {
if (sscanf(ptr,"%ld",&rows) != 1) {
SDDS_SetError("Invalid row count");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
} else if ((columns > 0) && ((row < rows) || (noRowCount))) {
if (columnOrder) {
if (noRowCount) {
cp_str(&ptr2,ptr);
rows = 0;
while (getToken(ptr2,data,10240,separator,whitespace) >= 0) {
rows++;
}
free(ptr2);
}
if (rows > columnValues[col].elements) {
if (columnValues[col].type == SDDS_STRING) {
columnValues[col].stringValues = AllocateColumnStringData(columnValues[col].stringValues, rows, columnValues[col].elements);
} else {
columnValues[col].values = AllocateColumnData(columnValues[col].type, columnValues[col].values, rows);
}
columnValues[col].elements = rows;
}
switch (columnValues[col].type) {
case SDDS_SHORT:
for (row=0;row<rows;row++) {
if (getToken(ptr,data,10240,separator,whitespace) < 0) {
SDDS_SetError("Invalid short column element");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
if (sscanf(data,"%hd",((short*)(columnValues[col].values)+row)) != 1) {
SDDS_SetError("Invalid short column element");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
}
break;
case SDDS_LONG:
for (row=0;row<rows;row++) {
if (getToken(ptr,data,10240,separator,whitespace) < 0) {
SDDS_SetError("Invalid long column element");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
if (sscanf(data,"%" SCNd32,((int32_t*)(columnValues[col].values)+row)) != 1) {
SDDS_SetError("Invalid long column element");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
}
break;
case SDDS_FLOAT:
for (row=0;row<rows;row++) {
if (getToken(ptr,data,10240,separator,whitespace) < 0) {
SDDS_SetError("Invalid float column element");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
ConvertDNotationToENotation(data);
if (sscanf(data,"%f",((float*)(columnValues[col].values)+row)) != 1) {
SDDS_SetError("Invalid float column element");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
}
break;
case SDDS_DOUBLE:
for (row=0;row<rows;row++) {
if (getToken(ptr,data,10240,separator,whitespace) < 0) {
SDDS_SetError("Invalid double column element");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
ConvertDNotationToENotation(data);
if (sscanf(data,"%lf",((double*)(columnValues[col].values)+row)) != 1) {
SDDS_SetError("Invalid double column element");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
}
break;
case SDDS_STRING:
for (row=0;row<rows;row++) {
if (getToken(ptr,data,10240,separator,whitespace) < 0) {
SDDS_SetError("Invalid string column element");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
SDDS_InterpretEscapes(data);
columnValues[col].stringValues[row] = malloc(strlen(data) + 1);
strcpy(columnValues[col].stringValues[row],data);
}
break;
case SDDS_CHARACTER:
for (row=0;row<rows;row++) {
if (getToken(ptr,data,10240,separator,whitespace) < 0) {
SDDS_SetError("Invalid character column element");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
SDDS_InterpretEscapes(data);
*((char*)(columnValues[col].values)+row) = data[0];
}
break;
}
if (rows > maxRows) {
if (!SDDS_LengthenTable(&SDDS_dataset, rows - maxRows)) {
SDDS_SetError("Unable to lengthen table");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
maxRows = rows;
}
if (columnValues[col].skip == 0) {
if (columnValues[col].type == SDDS_STRING) {
SetColumnData(columnValues[col].type, &SDDS_dataset, columnValues[col].stringValues, rows, col);
} else {
SetColumnData(columnValues[col].type, &SDDS_dataset, columnValues[col].values, rows, col);
}
n++;
}
col++;
row = 0;
} else {
if (noRowCount) {
if (row == 0) {
rows = 3;
} else if (row == rows - 1) {
rows = rows + 3;
for (i=0;i<columns;i++) {
if (rows > columnValues[i].elements) {
if (columnValues[i].type == SDDS_STRING) {
columnValues[i].stringValues = AllocateColumnStringData(columnValues[i].stringValues, rows, columnValues[i].elements);
} else {
columnValues[i].values = AllocateColumnData(columnValues[i].type, columnValues[i].values, rows);
}
}
columnValues[i].elements = rows;
}
}
}
if (row == 0)
for (i=0;i<columns;i++) {
if (rows > columnValues[i].elements) {
if (columnValues[i].type == SDDS_STRING) {
columnValues[i].stringValues = AllocateColumnStringData(columnValues[i].stringValues, rows, columnValues[i].elements);
} else {
columnValues[i].values = AllocateColumnData(columnValues[i].type, columnValues[i].values, rows);
}
}
columnValues[i].elements = rows;
}
if (noRowCount) {
cp_str(&ptr2,ptr);
i = 0;
while (getToken(ptr2,data,10240,separator,whitespace) >= 0)
i++;
free(ptr2);
if ((i != columns) && (parameters>0 && i==1)) {
if (row > 0) {
if (row > maxRows) {
if (!SDDS_LengthenTable(&SDDS_dataset, row - maxRows)) {
SDDS_SetError("Unable to lengthen table");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
maxRows = row;
}
n=0;
for (j=0;j<columns;j++) {
if (columnValues[j].skip)
continue;
if (columnValues[j].type == SDDS_STRING) {
SetColumnData(columnValues[j].type, &SDDS_dataset, columnValues[j].stringValues, row, n);
} else {
SetColumnData(columnValues[j].type, &SDDS_dataset, columnValues[j].values, row, n);
}
n++;
}
if (!SDDS_WritePage(&SDDS_dataset))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
maxRows = 10000;
if (!SDDS_StartPage(&SDDS_dataset, initRows))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
row = par = col = 0;
rows = -1;
}
readline = 0;
continue;
}
}
for (i=0;i<columns;i++) {
if (getToken(ptr,data,10240,separator,whitespace) < 0) {
if (!fillin) {
SDDS_SetError("Invalid column element");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
} else {
switch (columnValues[i].type) {
case SDDS_SHORT:
case SDDS_LONG:
case SDDS_FLOAT:
case SDDS_DOUBLE:
data[0]='0';
data[1]='\0';
break;
case SDDS_STRING:
case SDDS_CHARACTER:
data[0]='\0';
break;
}
}
}
switch (columnValues[i].type) {
case SDDS_SHORT:
if (sscanf(data,"%hd",((short*)(columnValues[i].values)+row)) != 1) {
if (recover) {
abort=1;
row--;
} else {
SDDS_SetError("Invalid short column element");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
}
break;
case SDDS_LONG:
if (sscanf(data,"%" SCNd32,((int32_t*)(columnValues[i].values)+row)) != 1) {
if (recover) {
abort=1;
row--;
} else {
SDDS_SetError("Invalid long column element");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
}
break;
case SDDS_FLOAT:
ConvertDNotationToENotation(data);
if (sscanf(data,"%f",((float*)(columnValues[i].values)+row)) != 1) {
if (recover) {
abort=1;
row--;
} else {
SDDS_SetError("Invalid float column element");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
}
break;
case SDDS_DOUBLE:
ConvertDNotationToENotation(data);
if (sscanf(data,"%lf",((double*)(columnValues[i].values)+row)) != 1) {
if (recover) {
abort=1;
row--;
} else {
SDDS_SetError("Invalid double column element");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
}
break;
case SDDS_STRING:
SDDS_InterpretEscapes(data);
columnValues[i].stringValues[row] = malloc(strlen(data) + 1);
strcpy(columnValues[i].stringValues[row],data);
break;
case SDDS_CHARACTER:
SDDS_InterpretEscapes(data);
*((char*)(columnValues[i].values)+row) = data[0];
break;
}
if (recover && abort) {
break;
}
}
row++;
if ((row == rows) && (!noRowCount)) {
if (rows > maxRows) {
if (!SDDS_LengthenTable(&SDDS_dataset, rows - maxRows)) {
SDDS_SetError("Unable to lengthen table");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
maxRows = rows;
}
n=0;
for (i=0;i<columns;i++) {
if (columnValues[i].skip)
continue;
if (columnValues[i].type == SDDS_STRING) {
SetColumnData(columnValues[i].type, &SDDS_dataset, columnValues[i].stringValues, rows, n);
} else {
SetColumnData(columnValues[i].type, &SDDS_dataset, columnValues[i].values, rows, n);
}
n++;
}
}
}
}
if ((par == parameters) &&
(((!noRowCount) && (rows != -1)) || (noRowCount)) &&
(((columnOrder) && (col == columns)) || ((columns > 0) && (row == rows)) || (columns == 0))) {
if (!SDDS_WritePage(&SDDS_dataset)) {
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
maxRows = 10000;
if (!SDDS_StartPage(&SDDS_dataset, initRows))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
row = par = col = 0;
rows = -1;
}
ptr[0] = 0;
}
if (noRowCount) {
if (row > 0) {
if (row > maxRows) {
if (!SDDS_LengthenTable(&SDDS_dataset, row - maxRows)) {
SDDS_SetError("Unable to lengthen table");
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
maxRows = row;
}
n=0;
for (j=0;j<columns;j++) {
if (columnValues[j].skip)
continue;
if (columnValues[j].type == SDDS_STRING) {
SetColumnData(columnValues[j].type, &SDDS_dataset, columnValues[j].stringValues, row, n);
} else {
SetColumnData(columnValues[j].type, &SDDS_dataset, columnValues[j].values, row, n);
}
n++;
}
if (!SDDS_WritePage(&SDDS_dataset)) {
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
}
maxRows = 10000;
}
}
for (i=0;i<columns;i++) {
if (columnValues[i].type == SDDS_STRING) {
for (j=0;j<columnValues[i].elements;j++) {
free(columnValues[i].stringValues[j]);
}
free(columnValues[i].stringValues);
} else {
free(columnValues[i].values);
}
if (columnValues[i].name) free(columnValues[i].name);
if (columnValues[i].units) free(columnValues[i].units);
if (columnValues[i].description) free(columnValues[i].description);
if (columnValues[i].symbol) free(columnValues[i].symbol);
}
for (i=0;i<parameters;i++) {
free(parameterValues[i].name);
if (parameterValues[i].units) free(parameterValues[i].units);
if (parameterValues[i].description) free(parameterValues[i].description);
if (parameterValues[i].symbol) free(parameterValues[i].symbol);
}
if (columnValues) free(columnValues);
if (parameterValues) free(parameterValues);
if (columnIndex) free(columnIndex);
if (parameterIndex) free(parameterIndex);
if (ptr) free(ptr);
if (!SDDS_Terminate(&SDDS_dataset))
SDDS_PrintErrors(stderr, SDDS_VERBOSE_PrintErrors|SDDS_EXIT_PrintErrors);
free_scanargs(&s_arg,argc);
return 0;
}
int
HSM1noise (int mode, int operation, GENmodel *inModel, CKTcircuit *ckt,
register Ndata *data, double *OnDens)
{
register HSM1model *model = (HSM1model *)inModel;
register HSM1instance *here;
char name[N_MXVLNTH];
double tempOnoise;
double tempInoise;
double noizDens[HSM1NSRCS];
double lnNdens[HSM1NSRCS];
register int i;
/* define the names of the noise sources */
static char * HSM1nNames[HSM1NSRCS] = {
/* Note that we have to keep the order
consistent with the index definitions
in hsm1defs.h */
".rd", /* noise due to rd */
".rs", /* noise due to rs */
".id", /* noise due to id */
".1ovf", /* flicker (1/f) noise */
"" /* total transistor noise */
};
for ( ;model != NULL; model = model->HSM1nextModel ) {
for ( here = model->HSM1instances; here != NULL;
here = here->HSM1nextInstance ) {
if (here->HSM1owner != ARCHme)
continue;
switch (operation) {
case N_OPEN:
/* see if we have to to produce a summary report */
/* if so, name all the noise generators */
if (((NOISEAN*)ckt->CKTcurJob)->NStpsSm != 0) {
switch (mode) {
case N_DENS:
for ( i = 0; i < HSM1NSRCS; i++ ) {
(void) sprintf(name, "onoise.%s%s",
(char *)here->HSM1name, HSM1nNames[i]);
data->namelist =
(IFuid *) trealloc((char *) data->namelist,
(data->numPlots + 1) * sizeof(IFuid));
if (!data->namelist)
return(E_NOMEM);
(*(SPfrontEnd->IFnewUid))
(ckt, &(data->namelist[data->numPlots++]),
(IFuid) NULL, name, UID_OTHER, (void **) NULL);
}
break;
case INT_NOIZ:
for ( i = 0; i < HSM1NSRCS; i++ ) {
(void) sprintf(name, "onoise_total.%s%s",
(char *)here->HSM1name, HSM1nNames[i]);
data->namelist =
(IFuid *) trealloc((char *) data->namelist,
(data->numPlots + 1) * sizeof(IFuid));
if (!data->namelist)
return(E_NOMEM);
(*(SPfrontEnd->IFnewUid))
(ckt, &(data->namelist[data->numPlots++]),
(IFuid) NULL, name, UID_OTHER, (void **) NULL);
(void) sprintf(name, "inoise_total.%s%s",
(char *)here->HSM1name, HSM1nNames[i]);
data->namelist =
(IFuid *) trealloc((char *) data->namelist,
(data->numPlots + 1) * sizeof(IFuid));
if (!data->namelist)
return(E_NOMEM);
(*(SPfrontEnd->IFnewUid))
(ckt, &(data->namelist[data->numPlots++]),
(IFuid) NULL, name, UID_OTHER, (void **)NULL);
}
break;
}
}
break;
case N_CALC:
switch (mode) {
case N_DENS:
NevalSrc(&noizDens[HSM1RDNOIZ], &lnNdens[HSM1RDNOIZ],
ckt, THERMNOISE,
here->HSM1dNodePrime, here->HSM1dNode,
here->HSM1drainConductance * here->HSM1_m);
NevalSrc(&noizDens[HSM1RSNOIZ], &lnNdens[HSM1RSNOIZ],
ckt, THERMNOISE,
here->HSM1sNodePrime, here->HSM1sNode,
here->HSM1sourceConductance * here->HSM1_m);
switch( model->HSM1_noise ) {
double I;
case 1:
case 3:
I = here->HSM1_gm + here->HSM1_gds + here->HSM1_gmbs;
I *= (I < 0.0) ? -1.0 : 1.0;
I *= 2.0/3.0;
I *= here->HSM1_m; /* PN */
NevalSrc(&noizDens[HSM1IDNOIZ], &lnNdens[HSM1IDNOIZ],
ckt, THERMNOISE,
here->HSM1dNodePrime, here->HSM1sNodePrime, I);
break;
case 2:
case 4:
I = -1.0 * (here->HSM1_qg + here->HSM1_qb)
/ (here->HSM1_weff * here->HSM1_leff);
I *= (I < 0.0) ? -1.0 : 1.0;
I *= here->HSM1_mu;
I *= here->HSM1_m; /* PN */
NevalSrc(&noizDens[HSM1IDNOIZ], &lnNdens[HSM1IDNOIZ],
ckt, THERMNOISE,
here->HSM1dNodePrime, here->HSM1sNodePrime, I);
break;
case 5:
NevalSrc(&noizDens[HSM1IDNOIZ], &lnNdens[HSM1IDNOIZ],
ckt, THERMNOISE,
here->HSM1dNodePrime, here->HSM1sNodePrime, 0.0);
break;
}
NevalSrc(&noizDens[HSM1FLNOIZ], (double*) NULL,
ckt, N_GAIN,
here->HSM1dNodePrime, here->HSM1sNodePrime,
(double) 0.0);
/* flicker noise */
switch ( model->HSM1_noise ) {
case 1:
case 4: /* SPICE2 model */
noizDens[HSM1FLNOIZ] *= here->HSM1_m * model->HSM1_kf
* exp(model->HSM1_af * log(MAX(fabs(here->HSM1_ids), N_MINLOG)))
/ (pow(data->freq, model->HSM1_ef) * here->HSM1_leff
* here->HSM1_leff * (3.453133e-11 / model->HSM1_tox));
/* ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~cox */
break;
case 2:
case 3:
case 5:
/* from HiSIM */
noizDens[HSM1FLNOIZ] *= here->HSM1_nfc / data->freq;
break;
}
lnNdens[HSM1FLNOIZ] = log(MAX(noizDens[HSM1FLNOIZ], N_MINLOG));
noizDens[HSM1TOTNOIZ] = noizDens[HSM1RDNOIZ] + noizDens[HSM1RSNOIZ]
+ noizDens[HSM1IDNOIZ] + noizDens[HSM1FLNOIZ];
lnNdens[HSM1TOTNOIZ] = log(MAX(noizDens[HSM1TOTNOIZ], N_MINLOG));
*OnDens += noizDens[HSM1TOTNOIZ];
if ( data->delFreq == 0.0 ) {
/* if we haven't done any previous
integration, we need to initialize our
"history" variables.
*/
for ( i = 0; i < HSM1NSRCS; i++ )
here->HSM1nVar[LNLSTDENS][i] = lnNdens[i];
/* clear out our integration variables
if it's the first pass
*/
if (data->freq == ((NOISEAN*) ckt->CKTcurJob)->NstartFreq) {
for (i = 0; i < HSM1NSRCS; i++) {
here->HSM1nVar[OUTNOIZ][i] = 0.0;
here->HSM1nVar[INNOIZ][i] = 0.0;
}
}
}
else {
/* data->delFreq != 0.0,
we have to integrate.
*/
for ( i = 0; i < HSM1NSRCS; i++ ) {
if ( i != HSM1TOTNOIZ ) {
tempOnoise =
Nintegrate(noizDens[i], lnNdens[i],
here->HSM1nVar[LNLSTDENS][i], data);
tempInoise =
Nintegrate(noizDens[i] * data->GainSqInv,
lnNdens[i] + data->lnGainInv,
here->HSM1nVar[LNLSTDENS][i] + data->lnGainInv,
data);
here->HSM1nVar[LNLSTDENS][i] = lnNdens[i];
data->outNoiz += tempOnoise;
data->inNoise += tempInoise;
if ( ((NOISEAN*)ckt->CKTcurJob)->NStpsSm != 0 ) {
here->HSM1nVar[OUTNOIZ][i] += tempOnoise;
here->HSM1nVar[OUTNOIZ][HSM1TOTNOIZ] += tempOnoise;
here->HSM1nVar[INNOIZ][i] += tempInoise;
here->HSM1nVar[INNOIZ][HSM1TOTNOIZ] += tempInoise;
}
}
}
}
if ( data->prtSummary ) {
for (i = 0; i < HSM1NSRCS; i++) {
/* print a summary report */
data->outpVector[data->outNumber++] = noizDens[i];
}
}
break;
case INT_NOIZ:
/* already calculated, just output */
if ( ((NOISEAN*)ckt->CKTcurJob)->NStpsSm != 0 ) {
for ( i = 0; i < HSM1NSRCS; i++ ) {
data->outpVector[data->outNumber++] = here->HSM1nVar[OUTNOIZ][i];
data->outpVector[data->outNumber++] = here->HSM1nVar[INNOIZ][i];
}
}
break;
}
break;
case N_CLOSE:
/* do nothing, the main calling routine will close */
return (OK);
break; /* the plots */
} /* switch (operation) */
} /* for here */
} /* for model */
return(OK);
}
