libproc/common/P32ton.c

	P32ton.c revision 7c478bd95313f5f23a4c958a745db2134aa03244
/*
 * CDDL HEADER START
 *
 * The contents of this file are subject to the terms of the
 * Common Development and Distribution License, Version 1.0 only
 * (the "License").  You may not use this file except in compliance
 * with the License.
 *
 * You can obtain a copy of the license at usr/src/OPENSOLARIS.LICENSE
 * or http://www.opensolaris.org/os/licensing.
 * See the License for the specific language governing permissions
 * and limitations under the License.
 *
 * When distributing Covered Code, include this CDDL HEADER in each
 * file and include the License file at usr/src/OPENSOLARIS.LICENSE.
 * If applicable, add the following below this CDDL HEADER, with the
 * fields enclosed by brackets "[]" replaced with your own identifying
 * information: Portions Copyright [yyyy] [name of copyright owner]
 *
 * CDDL HEADER END
 */
/*
 * Copyright 2004 Sun Microsystems, Inc.  All rights reserved.
 * Use is subject to license terms.
 */

#pragma ident   "%Z%%M% %I% %E% SMI"

#include <sys/types.h>
#include <sys/mkdev.h>
#include <sys/regset.h>
#include <string.h>

#if defined(__amd64)
#include <sys/fp.h>
#include <ieeefp.h>
#endif

#include "P32ton.h"

dev_t
prexpldev(dev32_t d)
{
    if (d != (dev32_t)-1L)
        return (makedev((d >> NBITSMINOR32) & MAXMAJ32, d & MAXMIN32));

    return ((dev_t)PRNODEV);
}


dev32_t
prcmpldev(dev_t d)
{
#ifdef _LP64
    if (d == PRNODEV) {
        return (PRNODEV32);
    } else {
        major_t maj = major(d);
        minor_t min = minor(d);

        if (maj == (major_t)PRNODEV || min == (minor_t)PRNODEV)
            return (PRNODEV32);

        return ((dev32_t)((maj << NBITSMINOR32) | min));
    }
#else
    return ((dev32_t)d);
#endif
}

#ifdef _LP64

void
timestruc_32_to_n(const timestruc32_t *src, timestruc_t *dst)
{
    dst->tv_sec = (time_t)(uint32_t)src->tv_sec;
    dst->tv_nsec = (long)(uint32_t)src->tv_nsec;
}

void
stack_32_to_n(const stack32_t *src, stack_t *dst)
{
    dst->ss_sp = (caddr_t)(uintptr_t)src->ss_sp;
    dst->ss_size = src->ss_size;
    dst->ss_flags = src->ss_flags;
}

void
sigaction_32_to_n(const struct sigaction32 *src, struct sigaction *dst)
{
    (void) memset(dst, 0, sizeof (struct sigaction));
    dst->sa_flags = src->sa_flags;
    dst->sa_handler = (void (*)())(uintptr_t)src->sa_handler;
    (void) memcpy(&dst->sa_mask, &src->sa_mask, sizeof (dst->sa_mask));
}

void
siginfo_32_to_n(const siginfo32_t *src, siginfo_t *dst)
{
    (void) memset(dst, 0, sizeof (siginfo_t));

    /*
     * The absolute minimum content is si_signo and si_code.
     */
    dst->si_signo = src->si_signo;
    if ((dst->si_code = src->si_code) == SI_NOINFO)
        return;

    /*
     * A siginfo generated by user level is structured
     * differently from one generated by the kernel.
     */
    if (SI_FROMUSER(src)) {
        dst->si_pid = src->si_pid;
        dst->si_ctid = src->si_ctid;
        dst->si_zoneid = src->si_zoneid;
        dst->si_uid = src->si_uid;
        if (SI_CANQUEUE(src->si_code)) {
            dst->si_value.sival_int =
                (long)(uint32_t)src->si_value.sival_int;
        }
        return;
    }

    dst->si_errno = src->si_errno;

    switch (src->si_signo) {
    default:
        dst->si_pid = src->si_pid;
        dst->si_ctid = src->si_ctid;
        dst->si_zoneid = src->si_zoneid;
        dst->si_uid = src->si_uid;
        dst->si_value.sival_int =
            (long)(uint32_t)src->si_value.sival_int;
        break;
    case SIGCLD:
        dst->si_pid = src->si_pid;
        dst->si_ctid = src->si_ctid;
        dst->si_zoneid = src->si_zoneid;
        dst->si_status = src->si_status;
        dst->si_stime = src->si_stime;
        dst->si_utime = src->si_utime;
        break;
    case SIGSEGV:
    case SIGBUS:
    case SIGILL:
    case SIGTRAP:
    case SIGFPE:
    case SIGEMT:
        dst->si_addr = (void *)(uintptr_t)src->si_addr;
        dst->si_trapno = src->si_trapno;
        dst->si_pc = (void *)(uintptr_t)src->si_pc;
        break;
    case SIGPOLL:
    case SIGXFSZ:
        dst->si_fd = src->si_fd;
        dst->si_band = src->si_band;
        break;
    case SIGPROF:
        dst->si_faddr = (void *)(uintptr_t)src->si_faddr;
        dst->si_tstamp.tv_sec = src->si_tstamp.tv_sec;
        dst->si_tstamp.tv_nsec = src->si_tstamp.tv_nsec;
        dst->si_syscall = src->si_syscall;
        dst->si_nsysarg = src->si_nsysarg;
        dst->si_fault = src->si_fault;
        break;
    }
}

void
auxv_32_to_n(const auxv32_t *src, auxv_t *dst)
{
    /*
     * This is a little sketchy: we have three types of values stored
     * in an auxv (long, void *, and void (*)()) so the only sign-extension
     * issue is with the long.  We could case on all possible AT_* types,
     * but this seems silly since currently none of the types which use
     * a_un.a_val actually use negative numbers as a value.  For this
     * reason, it seems simpler to just do an unsigned expansion for now.
     */
    dst->a_type = src->a_type;
    dst->a_un.a_ptr = (void *)(uintptr_t)src->a_un.a_ptr;
}

#if defined(__sparc)
void
rwindow_32_to_n(const struct rwindow32 *src, struct rwindow *dst)
{
    int i;

    for (i = 0; i < 8; i++) {
        dst->rw_local[i] = (uint64_t)(uint32_t)src->rw_local[i];
        dst->rw_in[i] = (uint64_t)(uint32_t)src->rw_in[i];
    }
}

void
gwindows_32_to_n(const gwindows32_t *src, gwindows_t *dst)
{
    int i;

    (void) memset(dst, 0, sizeof (gwindows_t));
    dst->wbcnt = src->wbcnt;

    for (i = 0; i < src->wbcnt; i++) {
        if (src->spbuf[i] != 0) {
            rwindow_32_to_n(&src->wbuf[i], &dst->wbuf[i]);
            dst->spbuf[i] = (greg_t *)src->spbuf[i];
        }
    }
}
#endif  /* __sparc */

void
prgregset_32_to_n(const prgreg32_t *src, prgreg_t *dst)
{
#ifdef __amd64
    (void) memset(dst, 0, NPRGREG * sizeof (prgreg_t));
    dst[REG_GS] = (uint32_t)src[GS];
    dst[REG_FS] = (uint32_t)src[FS];
    dst[REG_DS] = (uint32_t)src[DS];
    dst[REG_ES] = (uint32_t)src[ES];
    dst[REG_RDI] = (uint32_t)src[EDI];
    dst[REG_RSI] = (uint32_t)src[ESI];
    dst[REG_RBP] = (uint32_t)src[EBP];
    dst[REG_RBX] = (uint32_t)src[EBX];
    dst[REG_RDX] = (uint32_t)src[EDX];
    dst[REG_RCX] = (uint32_t)src[ECX];
    dst[REG_RAX] = (uint32_t)src[EAX];
    dst[REG_TRAPNO] = (uint32_t)src[TRAPNO];
    dst[REG_ERR] = (uint32_t)src[ERR];
    dst[REG_RIP] = (uint32_t)src[EIP];
    dst[REG_CS] = (uint32_t)src[CS];
    dst[REG_RFL] = (uint32_t)src[EFL];
    dst[REG_RSP] = (uint32_t)src[UESP];
    dst[REG_SS] = (uint32_t)src[SS];
#else
    int i;

    for (i = 0; i < NPRGREG; i++)
        dst[i] = (prgreg_t)(uint32_t)src[i];
#endif
}

void
prfpregset_32_to_n(const prfpregset32_t *src, prfpregset_t *dst)
{
#if defined(__sparc)
    int i;

    (void) memset(dst, 0, sizeof (prfpregset_t));

    for (i = 0; i < 32; i++)
        dst->pr_fr.pr_regs[i] = src->pr_fr.pr_regs[i];

    /*
     * We deliberately do not convert pr_qcnt or pr_q because it is a long-
     * standing /proc bug that this information is not exported, and another
     * bug further caused these values to be returned as uninitialized data
     * when the 64-bit kernel exported them for a 32-bit process with en=0.
     */
    dst->pr_filler = src->pr_filler;
    dst->pr_fsr = src->pr_fsr;
    dst->pr_q_entrysize = src->pr_q_entrysize;
    dst->pr_en = src->pr_en;

#elif defined(__amd64)

    struct _fpstate32 *src32 = (struct _fpstate32 *)src;
    struct fpchip_state *dst64 = (struct fpchip_state *)dst;
    int i;

    (void) memcpy(dst64->st, src32->_st, sizeof (src32->_st));
    (void) memcpy(dst64->xmm, src32->xmm, sizeof (src32->xmm));
    (void) memset((caddr_t)dst64->xmm + sizeof (src32->xmm), 0,
        sizeof (dst64->xmm) - sizeof (src32->xmm));
    dst64->cw = (uint16_t)src32->cw;
    dst64->sw = (uint16_t)src32->sw;
    dst64->fop = 0;
    dst64->rip = src32->ipoff;
    dst64->rdp = src32->dataoff;
    dst64->mxcsr = src32->mxcsr;
    dst64->mxcsr_mask = 0;
    dst64->status = src32->status;
    dst64->xstatus = src32->xstatus;

    /*
     * Converting from the tag field to the compressed fctw is easy.
     * If the two tag bits are 3, then the register is empty and we
     * clear the bit in fctw. Otherwise we set the bit.
     */

    dst64->fctw = 0;
    for (i = 0; i < 8; i++)
        if (((src32->tag >> (i * 2)) & 3) != 3)
            dst64->fctw |= 1 << i;
#else
#error "unrecognized ISA"
#endif
}

void
lwpstatus_32_to_n(const lwpstatus32_t *src, lwpstatus_t *dst)
{
    int i;

    dst->pr_flags = src->pr_flags;
    dst->pr_lwpid = src->pr_lwpid;
    dst->pr_why = src->pr_why;
    dst->pr_what = src->pr_what;
    dst->pr_cursig = src->pr_cursig;

    siginfo_32_to_n(&src->pr_info, &dst->pr_info);

    dst->pr_lwppend = src->pr_lwppend;
    dst->pr_lwphold = src->pr_lwphold;

    sigaction_32_to_n(&src->pr_action, &dst->pr_action);
    stack_32_to_n(&src->pr_altstack, &dst->pr_altstack);

    dst->pr_oldcontext = src->pr_oldcontext;
    dst->pr_syscall = src->pr_syscall;
    dst->pr_nsysarg = src->pr_nsysarg;
    dst->pr_errno = src->pr_errno;

    for (i = 0; i < PRSYSARGS; i++)
        dst->pr_sysarg[i] = (long)(uint32_t)src->pr_sysarg[i];

    dst->pr_rval1 = (long)(uint32_t)src->pr_rval1;
    dst->pr_rval2 = (long)(uint32_t)src->pr_rval2;

    (void) memcpy(&dst->pr_clname[0], &src->pr_clname[0], PRCLSZ);
    timestruc_32_to_n(&src->pr_tstamp, &dst->pr_tstamp);

    dst->pr_ustack = src->pr_ustack;
    dst->pr_instr = src->pr_instr;

    prgregset_32_to_n(src->pr_reg, dst->pr_reg);
    prfpregset_32_to_n(&src->pr_fpreg, &dst->pr_fpreg);
}

void
pstatus_32_to_n(const pstatus32_t *src, pstatus_t *dst)
{
    dst->pr_flags = src->pr_flags;
    dst->pr_nlwp = src->pr_nlwp;
    dst->pr_nzomb = src->pr_nzomb;
    dst->pr_pid = src->pr_pid;
    dst->pr_ppid = src->pr_ppid;
    dst->pr_pgid = src->pr_pgid;
    dst->pr_sid = src->pr_sid;
    dst->pr_taskid = src->pr_taskid;
    dst->pr_projid = src->pr_projid;
    dst->pr_zoneid = src->pr_zoneid;
    dst->pr_aslwpid = src->pr_aslwpid;
    dst->pr_agentid = src->pr_agentid;
    dst->pr_sigpend = src->pr_sigpend;
    dst->pr_brkbase = src->pr_brkbase;
    dst->pr_brksize = src->pr_brksize;
    dst->pr_stkbase = src->pr_stkbase;
    dst->pr_stksize = src->pr_stksize;

    timestruc_32_to_n(&src->pr_utime, &dst->pr_utime);
    timestruc_32_to_n(&src->pr_stime, &dst->pr_stime);
    timestruc_32_to_n(&src->pr_cutime, &dst->pr_cutime);
    timestruc_32_to_n(&src->pr_cstime, &dst->pr_cstime);

    dst->pr_sigtrace = src->pr_sigtrace;
    dst->pr_flttrace = src->pr_flttrace;
    dst->pr_sysentry = src->pr_sysentry;
    dst->pr_sysexit = src->pr_sysexit;
    dst->pr_dmodel = src->pr_dmodel;

    lwpstatus_32_to_n(&src->pr_lwp, &dst->pr_lwp);
}

void
lwpsinfo_32_to_n(const lwpsinfo32_t *src, lwpsinfo_t *dst)
{
    dst->pr_flag = src->pr_flag;
    dst->pr_lwpid = src->pr_lwpid;
    dst->pr_addr = src->pr_addr;
    dst->pr_wchan = src->pr_wchan;
    dst->pr_stype = src->pr_stype;
    dst->pr_state = src->pr_state;
    dst->pr_sname = src->pr_sname;
    dst->pr_nice = src->pr_nice;
    dst->pr_syscall = src->pr_syscall;
    dst->pr_oldpri = src->pr_oldpri;
    dst->pr_cpu = src->pr_cpu;
    dst->pr_pri = src->pr_pri;
    dst->pr_pctcpu = src->pr_pctcpu;

    timestruc_32_to_n(&src->pr_start, &dst->pr_start);
    timestruc_32_to_n(&src->pr_time, &dst->pr_time);

    (void) memcpy(&dst->pr_clname[0], &src->pr_clname[0], PRCLSZ);
    (void) memcpy(&dst->pr_name[0], &src->pr_name[0], PRFNSZ);

    dst->pr_onpro = src->pr_onpro;
    dst->pr_bindpro = src->pr_bindpro;
    dst->pr_bindpset = src->pr_bindpset;
}

void
psinfo_32_to_n(const psinfo32_t *src, psinfo_t *dst)
{
    dst->pr_flag = src->pr_flag;
    dst->pr_nlwp = src->pr_nlwp;
    dst->pr_nzomb = src->pr_nzomb;
    dst->pr_pid = src->pr_pid;
    dst->pr_pgid = src->pr_pgid;
    dst->pr_sid = src->pr_sid;
    dst->pr_taskid = src->pr_taskid;
    dst->pr_projid = src->pr_projid;
    dst->pr_zoneid = src->pr_zoneid;
    dst->pr_uid = src->pr_uid;
    dst->pr_euid = src->pr_euid;
    dst->pr_gid = src->pr_gid;
    dst->pr_egid = src->pr_egid;
    dst->pr_addr = src->pr_addr;
    dst->pr_size = src->pr_size;
    dst->pr_rssize = src->pr_rssize;

    dst->pr_ttydev = prexpldev(src->pr_ttydev);

    dst->pr_pctcpu = src->pr_pctcpu;
    dst->pr_pctmem = src->pr_pctmem;

    timestruc_32_to_n(&src->pr_start, &dst->pr_start);
    timestruc_32_to_n(&src->pr_time, &dst->pr_time);
    timestruc_32_to_n(&src->pr_ctime, &dst->pr_ctime);

    (void) memcpy(&dst->pr_fname[0], &src->pr_fname[0], PRFNSZ);
    (void) memcpy(&dst->pr_psargs[0], &src->pr_psargs[0], PRARGSZ);

    dst->pr_wstat = src->pr_wstat;
    dst->pr_argc = src->pr_argc;
    dst->pr_argv = src->pr_argv;
    dst->pr_envp = src->pr_envp;
    dst->pr_dmodel = src->pr_dmodel;

    lwpsinfo_32_to_n(&src->pr_lwp, &dst->pr_lwp);
}

void
timestruc_n_to_32(const timestruc_t *src, timestruc32_t *dst)
{
    dst->tv_sec = (time32_t)src->tv_sec;
    dst->tv_nsec = (int32_t)src->tv_nsec;
}

void
stack_n_to_32(const stack_t *src, stack32_t *dst)
{
    dst->ss_sp = (caddr32_t)(uintptr_t)src->ss_sp;
    dst->ss_size = src->ss_size;
    dst->ss_flags = src->ss_flags;
}

void
sigaction_n_to_32(const struct sigaction *src, struct sigaction32 *dst)
{
    (void) memset(dst, 0, sizeof (struct sigaction32));
    dst->sa_flags = src->sa_flags;
    dst->sa_handler = (caddr32_t)(uintptr_t)src->sa_handler;
    (void) memcpy(&dst->sa_mask, &src->sa_mask, sizeof (dst->sa_mask));
}

void
siginfo_n_to_32(const siginfo_t *src, siginfo32_t *dst)
{
    (void) memset(dst, 0, sizeof (siginfo32_t));

    /*
     * The absolute minimum content is si_signo and si_code.
     */
    dst->si_signo = src->si_signo;
    if ((dst->si_code = src->si_code) == SI_NOINFO)
        return;

    /*
     * A siginfo generated by user level is structured
     * differently from one generated by the kernel.
     */
    if (SI_FROMUSER(src)) {
        dst->si_pid = src->si_pid;
        dst->si_ctid = src->si_ctid;
        dst->si_zoneid = src->si_zoneid;
        dst->si_uid = src->si_uid;
        if (SI_CANQUEUE(src->si_code)) {
            dst->si_value.sival_int =
                (int32_t)src->si_value.sival_int;
        }
        return;
    }

    dst->si_errno = src->si_errno;

    switch (src->si_signo) {
    default:
        dst->si_pid = src->si_pid;
        dst->si_ctid = src->si_ctid;
        dst->si_zoneid = src->si_zoneid;
        dst->si_uid = src->si_uid;
        dst->si_value.sival_int =
            (int32_t)src->si_value.sival_int;
        break;
    case SIGCLD:
        dst->si_pid = src->si_pid;
        dst->si_ctid = src->si_ctid;
        dst->si_zoneid = src->si_zoneid;
        dst->si_status = src->si_status;
        dst->si_stime = src->si_stime;
        dst->si_utime = src->si_utime;
        break;
    case SIGSEGV:
    case SIGBUS:
    case SIGILL:
    case SIGTRAP:
    case SIGFPE:
    case SIGEMT:
        dst->si_addr = (caddr32_t)(uintptr_t)src->si_addr;
        dst->si_trapno = src->si_trapno;
        dst->si_pc = (caddr32_t)(uintptr_t)src->si_pc;
        break;
    case SIGPOLL:
    case SIGXFSZ:
        dst->si_fd = src->si_fd;
        dst->si_band = src->si_band;
        break;
    case SIGPROF:
        dst->si_faddr = (caddr32_t)(uintptr_t)src->si_faddr;
        dst->si_tstamp.tv_sec = src->si_tstamp.tv_sec;
        dst->si_tstamp.tv_nsec = src->si_tstamp.tv_nsec;
        dst->si_syscall = src->si_syscall;
        dst->si_nsysarg = src->si_nsysarg;
        dst->si_fault = src->si_fault;
        break;
    }
}

void
auxv_n_to_32(const auxv_t *src, auxv32_t *dst)
{
    dst->a_type = src->a_type;
    dst->a_un.a_ptr = (caddr32_t)(uintptr_t)src->a_un.a_ptr;
}

void
prgregset_n_to_32(const prgreg_t *src, prgreg32_t *dst)
{
#ifdef __amd64
    (void) memset(dst, 0, NPRGREG32 * sizeof (prgreg32_t));
    dst[GS] = src[REG_GS];
    dst[FS] = src[REG_FS];
    dst[DS] = src[REG_DS];
    dst[ES] = src[REG_ES];
    dst[EDI] = src[REG_RDI];
    dst[ESI] = src[REG_RSI];
    dst[EBP] = src[REG_RBP];
    dst[EBX] = src[REG_RBX];
    dst[EDX] = src[REG_RDX];
    dst[ECX] = src[REG_RCX];
    dst[EAX] = src[REG_RAX];
    dst[TRAPNO] = src[REG_TRAPNO];
    dst[ERR] = src[REG_ERR];
    dst[EIP] = src[REG_RIP];
    dst[CS] = src[REG_CS];
    dst[EFL] = src[REG_RFL];
    dst[UESP] = src[REG_RSP];
    dst[SS] = src[REG_SS];
#else
    int i;

    for (i = 0; i < NPRGREG; i++)
        dst[i] = (prgreg32_t)src[i];
#endif
}

void
prfpregset_n_to_32(const prfpregset_t *src, prfpregset32_t *dst)
{
#if defined(__sparc)
    int i;

    (void) memset(dst, 0, sizeof (prfpregset32_t));

    for (i = 0; i < 32; i++)
        dst->pr_fr.pr_regs[i] = src->pr_fr.pr_regs[i];

    dst->pr_filler = src->pr_filler;
    dst->pr_fsr = src->pr_fsr;
    dst->pr_q_entrysize = src->pr_q_entrysize;
    dst->pr_en = src->pr_en;

#elif defined(__amd64)

    struct _fpstate32 *dst32 = (struct _fpstate32 *)dst;
    struct fpchip_state *src64 = (struct fpchip_state *)src;
    uint32_t top;
    int i;

    (void) memcpy(dst32->_st, src64->st, sizeof (dst32->_st));
    (void) memcpy(dst32->xmm, src64->xmm, sizeof (dst32->xmm));
    dst32->cw = src64->cw;
    dst32->sw = src64->sw;
    dst32->ipoff = (unsigned int)src64->rip;
    dst32->cssel = 0;
    dst32->dataoff = (unsigned int)src64->rdp;
    dst32->datasel = 0;
    dst32->status = src64->status;
    dst32->mxcsr = src64->mxcsr;
    dst32->xstatus = src64->xstatus;

    /*
     * AMD64 stores the tag in a compressed form. It is
     * necessary to extract the original 2-bit tag value.
     * See AMD64 Architecture Programmer's Manual Volume 2:
     * System Programming, Chapter 11.
     */

    top = (src64->sw & FPS_TOP) >> 11;
    dst32->tag = 0;
    for (i = 0; i < 8; i++) {
        /*
         * Recall that we need to use the current TOP-of-stack value to
         * associate the _st[] index back to a physical register number,
         * since tag word indices are physical register numbers.  Then
         * to get the tag value, we shift over two bits for each tag
         * index, and then grab the bottom two bits.
         */
        uint_t tag_index = (i + top) & 7;
        uint_t tag_fctw = (src64->fctw >> tag_index) & 1;
        uint_t tag_value;
        uint_t exp;

        /*
         * Union for overlaying _fpreg structure on to quad-precision
         * floating-point value (long double).
         */
        union {
            struct _fpreg reg;
            long double ld;
        } fpru;

        fpru.ld = src64->st[i].__fpr_pad._q;
        exp = fpru.reg.exponent & 0x7fff;

        if (tag_fctw == 0) {
            tag_value = 3; /* empty */
        } else if (exp == 0) {
            if (fpru.reg.significand[0] == 0 &&
                fpru.reg.significand[1] == 0 &&
                fpru.reg.significand[2] == 0 &&
                fpru.reg.significand[3] == 0)
                tag_value = 1; /* zero */
            else
                tag_value = 2; /* special: denormal */
        } else if (exp == 0x7fff) {
            tag_value = 2; /* special: infinity or NaN */
        } else if (fpru.reg.significand[3] & 0x8000) {
            tag_value = 0; /* valid */
        } else {
            tag_value = 2; /* special: unnormal */
        }
        dst32->tag |= tag_value << (tag_index * 2);
    }
#else
#error "unrecognized ISA"
#endif
}

void
lwpstatus_n_to_32(const lwpstatus_t *src, lwpstatus32_t *dst)
{
    int i;

    dst->pr_flags = src->pr_flags;
    dst->pr_lwpid = src->pr_lwpid;
    dst->pr_why = src->pr_why;
    dst->pr_what = src->pr_what;
    dst->pr_cursig = src->pr_cursig;

    siginfo_n_to_32(&src->pr_info, &dst->pr_info);

    dst->pr_lwppend = src->pr_lwppend;
    dst->pr_lwphold = src->pr_lwphold;

    sigaction_n_to_32(&src->pr_action, &dst->pr_action);
    stack_n_to_32(&src->pr_altstack, &dst->pr_altstack);

    dst->pr_oldcontext = (caddr32_t)src->pr_oldcontext;
    dst->pr_syscall = src->pr_syscall;
    dst->pr_nsysarg = src->pr_nsysarg;
    dst->pr_errno = src->pr_errno;

    for (i = 0; i < PRSYSARGS; i++)
        dst->pr_sysarg[i] = (int32_t)src->pr_sysarg[i];

    dst->pr_rval1 = (int32_t)src->pr_rval1;
    dst->pr_rval2 = (int32_t)src->pr_rval2;

    (void) memcpy(&dst->pr_clname[0], &src->pr_clname[0], PRCLSZ);
    timestruc_n_to_32(&src->pr_tstamp, &dst->pr_tstamp);

    dst->pr_ustack = (caddr32_t)src->pr_ustack;
    dst->pr_instr = src->pr_instr;

    prgregset_n_to_32(src->pr_reg, dst->pr_reg);
    prfpregset_n_to_32(&src->pr_fpreg, &dst->pr_fpreg);
}

void
pstatus_n_to_32(const pstatus_t *src, pstatus32_t *dst)
{
    dst->pr_flags = src->pr_flags;
    dst->pr_nlwp = src->pr_nlwp;
    dst->pr_nzomb = src->pr_nzomb;
    dst->pr_pid = (pid32_t)src->pr_pid;
    dst->pr_ppid = (pid32_t)src->pr_ppid;
    dst->pr_pgid = (pid32_t)src->pr_pgid;
    dst->pr_sid = (pid32_t)src->pr_sid;
    dst->pr_taskid = (id32_t)src->pr_taskid;
    dst->pr_projid = (id32_t)src->pr_projid;
    dst->pr_zoneid = (id32_t)src->pr_zoneid;
    dst->pr_aslwpid = (id32_t)src->pr_aslwpid;
    dst->pr_agentid = (id32_t)src->pr_agentid;
    dst->pr_sigpend = src->pr_sigpend;
    dst->pr_brkbase = (caddr32_t)src->pr_brkbase;
    dst->pr_brksize = (size32_t)src->pr_brksize;
    dst->pr_stkbase = (caddr32_t)src->pr_stkbase;
    dst->pr_stksize = (size32_t)src->pr_stksize;

    timestruc_n_to_32(&src->pr_utime, &dst->pr_utime);
    timestruc_n_to_32(&src->pr_stime, &dst->pr_stime);
    timestruc_n_to_32(&src->pr_cutime, &dst->pr_cutime);
    timestruc_n_to_32(&src->pr_cstime, &dst->pr_cstime);

    dst->pr_sigtrace = src->pr_sigtrace;
    dst->pr_flttrace = src->pr_flttrace;
    dst->pr_sysentry = src->pr_sysentry;
    dst->pr_sysexit = src->pr_sysexit;
    dst->pr_dmodel = src->pr_dmodel;

    lwpstatus_n_to_32(&src->pr_lwp, &dst->pr_lwp);
}

void
lwpsinfo_n_to_32(const lwpsinfo_t *src, lwpsinfo32_t *dst)
{
    dst->pr_flag = src->pr_flag;
    dst->pr_lwpid = (id32_t)src->pr_lwpid;
    dst->pr_addr = (caddr32_t)src->pr_addr;
    dst->pr_wchan = (caddr32_t)src->pr_wchan;
    dst->pr_stype = src->pr_stype;
    dst->pr_state = src->pr_state;
    dst->pr_sname = src->pr_sname;
    dst->pr_nice = src->pr_nice;
    dst->pr_syscall = src->pr_syscall;
    dst->pr_oldpri = src->pr_oldpri;
    dst->pr_cpu = src->pr_cpu;
    dst->pr_pri = src->pr_pri;
    dst->pr_pctcpu = src->pr_pctcpu;

    timestruc_n_to_32(&src->pr_start, &dst->pr_start);
    timestruc_n_to_32(&src->pr_time, &dst->pr_time);

    (void) memcpy(&dst->pr_clname[0], &src->pr_clname[0], PRCLSZ);
    (void) memcpy(&dst->pr_name[0], &src->pr_name[0], PRFNSZ);

    dst->pr_onpro = src->pr_onpro;
    dst->pr_bindpro = src->pr_bindpro;
    dst->pr_bindpset = src->pr_bindpset;
}

void
psinfo_n_to_32(const psinfo_t *src, psinfo32_t *dst)
{
    dst->pr_flag = src->pr_flag;
    dst->pr_nlwp = src->pr_nlwp;
    dst->pr_nzomb = src->pr_nzomb;
    dst->pr_pid = (pid32_t)src->pr_pid;
    dst->pr_pgid = (pid32_t)src->pr_pgid;
    dst->pr_sid = (pid32_t)src->pr_sid;
    dst->pr_taskid = (id32_t)src->pr_taskid;
    dst->pr_projid = (id32_t)src->pr_projid;
    dst->pr_zoneid = (id32_t)src->pr_zoneid;
    dst->pr_uid = (uid32_t)src->pr_uid;
    dst->pr_euid = (uid32_t)src->pr_euid;
    dst->pr_gid = (gid32_t)src->pr_gid;
    dst->pr_egid = (gid32_t)src->pr_egid;
    dst->pr_addr = (caddr32_t)src->pr_addr;
    dst->pr_size = (size32_t)src->pr_size;
    dst->pr_rssize = (size32_t)src->pr_rssize;

    dst->pr_ttydev = prcmpldev(src->pr_ttydev);

    dst->pr_pctcpu = src->pr_pctcpu;
    dst->pr_pctmem = src->pr_pctmem;

    timestruc_n_to_32(&src->pr_start, &dst->pr_start);
    timestruc_n_to_32(&src->pr_time, &dst->pr_time);
    timestruc_n_to_32(&src->pr_ctime, &dst->pr_ctime);

    (void) memcpy(&dst->pr_fname[0], &src->pr_fname[0], PRFNSZ);
    (void) memcpy(&dst->pr_psargs[0], &src->pr_psargs[0], PRARGSZ);

    dst->pr_wstat = src->pr_wstat;
    dst->pr_argc = src->pr_argc;
    dst->pr_argv = (caddr32_t)src->pr_argv;
    dst->pr_envp = (caddr32_t)src->pr_envp;
    dst->pr_dmodel = src->pr_dmodel;

    lwpsinfo_n_to_32(&src->pr_lwp, &dst->pr_lwp);
}


#endif  /* _LP64 */