static void
ieee_value_to_sym(cell_t *cif)
{
u_int nargs, nresults;
u_long value;
u_int offset;
char *name = symbol;
extern u_long value_to_name(uintptr_t value, char *symbol);
nargs = p1275_cell2uint(cif[1]);
nresults = p1275_cell2uint(cif[2]);
if (nresults == 0)
return; /* No room for results. Just return. */
/*
* If there are no arguments, fall through and return "not found".
* Otherwise, try to translate the value to a symbol-name/offset.
*/
*name = (char)0;
offset = (u_int)-1;
if (nargs != 0) {
value = p1275_cell2uintptr(cif[3]); /* argument 0 */
offset = value_to_name(value, name);
}
/*
* Stuff the results in the argument array and set the
* nresults element to the number of results actually returned
* in the argument array. (It's a maximum of 2).
*
* cif[0]: service name ( Pointer to service name )
* cif[1]: nargs ( number of argument cells)
* cif[2]: nresults ( number of result cells)
* cif[3]: argument{0} ( First argument cell )
* ...
* cif[3 + nargs]: result{0} ( First result cell )
* ...
*/
/*
* Treat this as an integer, so we sign-extend -1, offsets
* are always postive, -1 indicates not found.
*/
cif[3 + nargs] = p1275_int2cell((int)offset);
if (nresults > 1) {
cif[3 + nargs + 1] = p1275_ptr2cell(name);
cif[2] = p1275_int2cell(2); /* there are 2 results */
} else {
cif[2] = p1275_int2cell(1); /* there is 1 result */
}
}
static void
ieee_sym_to_value(cell_t *cif)
{
int error = -1;
uintptr_t symvalue = 0;
unsigned int nargs, nresults;
char *symname;
extern int name_to_value(char *name, uintptr_t *value);
nargs = p1275_cell2uint(cif[1]);
nresults = p1275_cell2uint(cif[2]);
if (nresults == 0)
return; /* No room for results. Just return. */
/*
* If there are no arguments, fall through and return an error.
* Otherwise, try to translate the symbol name arg to a value.
*/
if (nargs != 0) {
symname = p1275_cell2ptr(cif[3]); /* argument 0 */
error = name_to_value(symname, &symvalue);
}
/*
* Stuff the results in the argument array and set the
* nresults element to the number of results actually returned
* in the argument array. (It's a maximum of 2).
*
* cif[0]: service name ( Pointer to service name )
* cif[1]: nargs ( number of argument cells)
* cif[2]: nresults ( number of result cells)
* cif[3]: argument{0} ( First argument cell )
* ...
* cif[3 + nargs]: result{0} ( First result cell )
* ...
*/
cif[3 + nargs] = p1275_int2cell(error);
if (nresults > 1) {
cif[3 + nargs + 1] = p1275_uintptr2cell(symvalue);
cif[2] = p1275_int2cell(2); /* there are 2 results */
} else {
cif[2] = p1275_int2cell(1); /* there is 1 result */
}
}
int
promif_asr_list_keys_len(void *p)
{
cell_t *ci = (cell_t *)p;
ci[3] = p1275_int2cell(-1);
return (-1);
}
int
prom_asr_disable(char *keystr, int keystr_len,
char *reason, int reason_len)
{
int rv;
cell_t ci[5];
ci[0] = p1275_ptr2cell("SUNW,asr-disable"); /* Service name */
ci[1] = (cell_t)4; /* #argument cells */
ci[2] = (cell_t)0; /* #return cells */
ci[3] = p1275_ptr2cell(keystr); /* Arg1: key address */
ci[3] = p1275_int2cell(keystr_len); /* Arg2: key len */
ci[3] = p1275_ptr2cell(reason); /* Arg1: reason address */
ci[3] = p1275_int2cell(reason_len); /* Arg2: reason len */
promif_preprom();
rv = p1275_cif_handler(&ci);
promif_postprom();
return (rv);
}
/*
* Read the date using "set-time" method in rtc node
* For values 00 - 68, write 2000-2068, and for 69-99,
* write 1969-1999
*/
static int
todds1307_prom_setdate(struct rtc_t *rtc)
{
int year;
cell_t ci[12];
year = rtc->rtc_year;
if ((year < 0) || (year > 99))
return (DDI_FAILURE);
if (year <= 68)
year = rtc->rtc_year + 2000;
else
year = rtc->rtc_year + 1900;
ci[0] = p1275_ptr2cell("call-method"); /* Service name */
ci[1] = 8; /* # of arguments */
ci[2] = 0; /* # of result cells */
ci[3] = p1275_ptr2cell("set-time");
ci[4] = p1275_ihandle2cell(todds1307_ihandle);
ci[5] = p1275_int2cell(year);
ci[6] = p1275_int2cell(rtc->rtc_mon);
ci[7] = p1275_int2cell(rtc->rtc_dom);
ci[8] = p1275_int2cell(rtc->rtc_hrs);
ci[9] = p1275_int2cell(rtc->rtc_min);
ci[10] = p1275_int2cell(rtc->rtc_sec);
promif_preprom();
(void) p1275_cif_handler(&ci);
promif_postprom();
return (DDI_SUCCESS);
}
int
promif_get_sun4v_api_version(void *p)
{
cell_t *ci = (cell_t *)p;
uint64_t api_group;
uint64_t major;
uint64_t minor;
uint64_t status;
ASSERT(ci[1] == 1);
ASSERT(ci[2] == 3);
api_group = (uint64_t)p1275_cell2int(ci[3]);
status = hv_api_get_version(api_group, &major, &minor);
ci[4] = p1275_int2cell(status);
ci[5] = p1275_int2cell(major);
ci[6] = p1275_int2cell(minor);
return ((status == H_EOK) ? 0 : -1);
}
int
promif_set_sun4v_api_version(void *p)
{
cell_t *ci = (cell_t *)p;
uint64_t api_group;
uint64_t major;
uint64_t minor;
uint64_t status;
uint64_t supported_minor;
ASSERT(ci[1] == 3);
ASSERT(ci[2] == 2);
api_group = (uint64_t)p1275_cell2int(ci[3]);
major = (uint64_t)p1275_cell2int(ci[4]);
minor = (uint64_t)p1275_cell2int(ci[5]);
status = hv_api_set_version(api_group, major, minor, &supported_minor);
ci[6] = p1275_int2cell(status);
ci[7] = p1275_int2cell(supported_minor);
return ((status == H_EOK) ? 0 : -1);
}
int
prom_setprop(pnode_t nodeid, caddr_t name, caddr_t value, int len)
{
cell_t ci[8];
#ifdef PROM_32BIT_ADDRS
caddr_t ovalue = NULL;
if ((uintptr_t)value > (uint32_t)-1) {
ovalue = value;
value = promplat_alloc(len);
if (value == NULL) {
return (-1);
}
promplat_bcopy(ovalue, value, len);
}
#endif
prom_setprop_enter();
promif_preprom();
ci[0] = p1275_ptr2cell("setprop"); /* Service name */
ci[1] = (cell_t)4; /* #argument cells */
ci[2] = (cell_t)1; /* #result cells */
ci[3] = p1275_phandle2cell((phandle_t)nodeid); /* Arg1: phandle */
ci[4] = p1275_ptr2cell(name); /* Arg2: property name */
ci[5] = p1275_ptr2cell(value); /* Arg3: New value ptr */
ci[6] = p1275_int2cell(len); /* Arg4: New value len */
ci[7] = (cell_t)-1; /* Res1: Prime result */
(void) p1275_cif_handler(&ci);
promif_postprom();
prom_setprop_exit();
#ifdef PROM_32BIT_ADDRS
if (ovalue != NULL)
promplat_free(value, len);
#endif
return (p1275_cell2int(ci[7])); /* Res1: Actual new size */
}
int
prom_bounded_getprop(pnode_t nodeid, caddr_t name, caddr_t value, int len)
{
cell_t ci[8];
ci[0] = p1275_ptr2cell("getprop"); /* Service name */
ci[1] = (cell_t)4; /* #argument cells */
ci[2] = (cell_t)1; /* #result cells */
ci[3] = p1275_phandle2cell((phandle_t)nodeid); /* Arg1: package */
ci[4] = p1275_ptr2cell(name); /* Arg2: property name */
ci[5] = p1275_ptr2cell(value); /* Arg3: buffer address */
ci[6] = p1275_int2cell(len); /* Arg4: buffer length */
ci[7] = (cell_t)-1; /* Res1: Prime result */
promif_preprom();
(void) p1275_cif_handler(&ci);
promif_postprom();
return (p1275_cell2int(ci[7])); /* Res1: Returned length */
}
/*
* This service converts the given physical address into a text string,
* representing the name of the field-replacable part for the given
* physical address. In other words, it tells the kernel which ecache
* module got the (un)correctable ECC error.
*/
int
prom_serengeti_get_ecacheunum(int cpuid, unsigned long long physaddr, char *buf,
uint_t buflen, int *ustrlen)
{
cell_t ci[12];
int rv;
ihandle_t imemory = prom_memory_ihandle();
*ustrlen = -1;
if ((imemory == (ihandle_t)-1))
return (-1);
if (prom_test_method("SUNW,Serengeti,get-ecache-unum",
prom_getphandle(imemory)) != 0)
return (-1);
ci[0] = p1275_ptr2cell("call-method"); /* Service name */
ci[1] = (cell_t)7; /* #argument cells */
ci[2] = (cell_t)2; /* #result cells */
ci[3] = p1275_ptr2cell("SUNW,Serengeti,get-ecache-unum");
/* Arg1: Method name */
ci[4] = p1275_ihandle2cell(imemory); /* Arg2: mem. ihandle */
ci[5] = p1275_uint2cell(buflen); /* Arg3: buflen */
ci[6] = p1275_ptr2cell(buf); /* Arg4: buf */
ci[7] = p1275_ull2cell_high(physaddr); /* Arg5: physhi */
ci[8] = p1275_ull2cell_low(physaddr); /* Arg6: physlo */
ci[9] = p1275_int2cell(cpuid); /* Arg7: cpuid */
ci[10] = (cell_t)-1; /* ret1: catch result */
ci[11] = (cell_t)-1; /* ret2: length */
promif_preprom();
rv = p1275_cif_handler(&ci);
promif_postprom();
if (rv != 0)
return (rv);
if (p1275_cell2int(ci[10]) != 0) /* Res1: catch result */
return (-1); /* "SUNW,Serengeti,get-ecache-unum" failed */
*ustrlen = p1275_cell2uint(ci[11]); /* Res2: unum str length */
return (0);
}
