static NTSTATUS create_rpc_bind_resp(struct cli_state *cli,
uint32 rpc_call_id,
prs_struct *rpc_out)
{
NTSTATUS nt_status;
RPC_HDR hdr;
RPC_HDR_AUTHA hdr_autha;
DATA_BLOB ntlmssp_null_response = data_blob(NULL, 0);
DATA_BLOB ntlmssp_reply;
int auth_type, auth_level;
/* The response is picked up from the internal cache,
where it was placed by the rpc_auth_pipe() code */
nt_status = ntlmssp_update(cli->ntlmssp_pipe_state,
ntlmssp_null_response,
&ntlmssp_reply);
if (!NT_STATUS_EQUAL(nt_status, NT_STATUS_MORE_PROCESSING_REQUIRED)) {
return nt_status;
}
/* Create the request RPC_HDR */
init_rpc_hdr(&hdr, RPC_BINDRESP, 0x0, rpc_call_id,
RPC_HEADER_LEN + RPC_HDR_AUTHA_LEN + ntlmssp_reply.length,
ntlmssp_reply.length );
/* Marshall it. */
if(!smb_io_rpc_hdr("hdr", &hdr, rpc_out, 0)) {
DEBUG(0,("create_rpc_bind_resp: failed to marshall RPC_HDR.\n"));
data_blob_free(&ntlmssp_reply);
return NT_STATUS_NO_MEMORY;
}
get_auth_type_level(cli->pipe_auth_flags, &auth_type, &auth_level);
/* Create the request RPC_HDR_AUTHA */
init_rpc_hdr_autha(&hdr_autha, MAX_PDU_FRAG_LEN, MAX_PDU_FRAG_LEN,
auth_type, auth_level, 0x00);
if(!smb_io_rpc_hdr_autha("hdr_autha", &hdr_autha, rpc_out, 0)) {
DEBUG(0,("create_rpc_bind_resp: failed to marshall RPC_HDR_AUTHA.\n"));
data_blob_free(&ntlmssp_reply);
return NT_STATUS_NO_MEMORY;
}
/*
* Append the auth data to the outgoing buffer.
*/
if(!prs_copy_data_in(rpc_out, (char *)ntlmssp_reply.data, ntlmssp_reply.length)) {
DEBUG(0,("create_rpc_bind_req: failed to grow parse struct to add auth.\n"));
data_blob_free(&ntlmssp_reply);
return NT_STATUS_NO_MEMORY;
}
data_blob_free(&ntlmssp_reply);
return NT_STATUS_OK;
}
static uint32 create_rpc_request(prs_struct *rpc_out, uint8 op_num, int data_len, int auth_len, uint8 flags, uint32 oldid, uint32 data_left)
{
uint32 alloc_hint;
RPC_HDR hdr;
RPC_HDR_REQ hdr_req;
uint32 callid = oldid ? oldid : get_rpc_call_id();
DEBUG(5,("create_rpc_request: opnum: 0x%x data_len: 0x%x\n", op_num, data_len));
/* create the rpc header RPC_HDR */
init_rpc_hdr(&hdr, RPC_REQUEST, flags,
callid, data_len, auth_len);
/*
* The alloc hint should be the amount of data, not including
* RPC headers & footers.
*/
if (auth_len != 0)
alloc_hint = data_len - RPC_HEADER_LEN - RPC_HDR_AUTH_LEN - auth_len;
else
alloc_hint = data_len - RPC_HEADER_LEN;
DEBUG(10,("create_rpc_request: data_len: %x auth_len: %x alloc_hint: %x\n",
data_len, auth_len, alloc_hint));
/* Create the rpc request RPC_HDR_REQ */
init_rpc_hdr_req(&hdr_req, alloc_hint, op_num);
/* stream-time... */
if(!smb_io_rpc_hdr("hdr ", &hdr, rpc_out, 0))
return 0;
if(!smb_io_rpc_hdr_req("hdr_req", &hdr_req, rpc_out, 0))
return 0;
if (prs_offset(rpc_out) != RPC_HEADER_LEN + RPC_HDR_REQ_LEN)
return 0;
return callid;
}
static BOOL rpc_check_hdr(prs_struct *rdata, RPC_HDR *rhdr,
BOOL *first, BOOL *last, uint32 *len)
{
DEBUG(5,("rpc_check_hdr: rdata->data_size = %u\n", (uint32)prs_data_size(rdata) ));
/* Next call sets endian bit. */
if(!smb_io_rpc_hdr("rpc_hdr ", rhdr, rdata, 0)) {
DEBUG(0,("rpc_check_hdr: Failed to unmarshall RPC_HDR.\n"));
return False;
}
if (prs_offset(rdata) != RPC_HEADER_LEN) {
DEBUG(0,("rpc_check_hdr: offset was %x, should be %x.\n", prs_offset(rdata), RPC_HEADER_LEN));
return False;
}
(*first) = ((rhdr->flags & RPC_FLG_FIRST) != 0);
(*last) = ((rhdr->flags & RPC_FLG_LAST ) != 0);
(*len) = (uint32)rhdr->frag_len - prs_data_size(rdata);
return (rhdr->pkt_type != RPC_FAULT);
}
static ssize_t unmarshall_rpc_header(pipes_struct *p)
{
/*
* Unmarshall the header to determine the needed length.
*/
prs_struct rpc_in;
if(p->in_data.pdu_received_len != RPC_HEADER_LEN) {
DEBUG(0,("unmarshall_rpc_header: assert on rpc header length failed.\n"));
set_incoming_fault(p);
return -1;
}
prs_init_empty( &rpc_in, p->mem_ctx, UNMARSHALL);
prs_set_endian_data( &rpc_in, p->endian);
prs_give_memory( &rpc_in, (char *)&p->in_data.current_in_pdu[0],
p->in_data.pdu_received_len, False);
/*
* Unmarshall the header as this will tell us how much
* data we need to read to get the complete pdu.
* This also sets the endian flag in rpc_in.
*/
if(!smb_io_rpc_hdr("", &p->hdr, &rpc_in, 0)) {
DEBUG(0,("unmarshall_rpc_header: failed to unmarshall RPC_HDR.\n"));
set_incoming_fault(p);
prs_mem_free(&rpc_in);
return -1;
}
/*
* Validate the RPC header.
*/
if(p->hdr.major != 5 && p->hdr.minor != 0) {
DEBUG(0,("unmarshall_rpc_header: invalid major/minor numbers in RPC_HDR.\n"));
set_incoming_fault(p);
prs_mem_free(&rpc_in);
return -1;
}
/*
* If there's not data in the incoming buffer this should be the start of a new RPC.
*/
if(prs_offset(&p->in_data.data) == 0) {
/*
* AS/U doesn't set FIRST flag in a BIND packet it seems.
*/
if ((p->hdr.pkt_type == RPC_REQUEST) && !(p->hdr.flags & RPC_FLG_FIRST)) {
/*
* Ensure that the FIRST flag is set. If not then we have
* a stream missmatch.
*/
DEBUG(0,("unmarshall_rpc_header: FIRST flag not set in first PDU !\n"));
set_incoming_fault(p);
prs_mem_free(&rpc_in);
return -1;
}
/*
* If this is the first PDU then set the endianness
* flag in the pipe. We will need this when parsing all
* data in this RPC.
*/
p->endian = rpc_in.bigendian_data;
DEBUG(5,("unmarshall_rpc_header: using %sendian RPC\n",
p->endian == RPC_LITTLE_ENDIAN ? "little-" : "big-" ));
} else {
/*
* If this is *NOT* the first PDU then check the endianness
* flag in the pipe is the same as that in the PDU.
*/
if (p->endian != rpc_in.bigendian_data) {
DEBUG(0,("unmarshall_rpc_header: FIRST endianness flag (%d) different in next PDU !\n", (int)p->endian));
set_incoming_fault(p);
prs_mem_free(&rpc_in);
return -1;
}
}
/*
* Ensure that the pdu length is sane.
*/
if((p->hdr.frag_len < RPC_HEADER_LEN) || (p->hdr.frag_len > RPC_MAX_PDU_FRAG_LEN)) {
DEBUG(0,("unmarshall_rpc_header: assert on frag length failed.\n"));
set_incoming_fault(p);
prs_mem_free(&rpc_in);
return -1;
}
DEBUG(10,("unmarshall_rpc_header: type = %u, flags = %u\n", (unsigned int)p->hdr.pkt_type,
(unsigned int)p->hdr.flags ));
p->in_data.pdu_needed_len = (uint32)p->hdr.frag_len - RPC_HEADER_LEN;
prs_mem_free(&rpc_in);
p->in_data.current_in_pdu = TALLOC_REALLOC_ARRAY(
p, p->in_data.current_in_pdu, uint8_t, p->hdr.frag_len);
if (p->in_data.current_in_pdu == NULL) {
DEBUG(0, ("talloc failed\n"));
set_incoming_fault(p);
return -1;
}
return 0; /* No extra data processed. */
}
BOOL create_next_pdu(pipes_struct *p)
{
RPC_HDR_RESP hdr_resp;
BOOL auth_verify = ((p->ntlmssp_chal_flags & NTLMSSP_NEGOTIATE_SIGN) != 0);
BOOL auth_seal = ((p->ntlmssp_chal_flags & NTLMSSP_NEGOTIATE_SEAL) != 0);
uint32 ss_padding_len = 0;
uint32 data_len;
uint32 data_space_available;
uint32 data_len_left;
prs_struct outgoing_pdu;
uint32 data_pos;
/*
* If we're in the fault state, keep returning fault PDU's until
* the pipe gets closed. JRA.
*/
if(p->fault_state) {
setup_fault_pdu(p, NT_STATUS(0x1c010002));
return True;
}
memset((char *)&hdr_resp, '\0', sizeof(hdr_resp));
/* Change the incoming request header to a response. */
p->hdr.pkt_type = RPC_RESPONSE;
/* Set up rpc header flags. */
if (p->out_data.data_sent_length == 0) {
p->hdr.flags = RPC_FLG_FIRST;
} else {
p->hdr.flags = 0;
}
/*
* Work out how much we can fit in a single PDU.
*/
data_space_available = sizeof(p->out_data.current_pdu) - RPC_HEADER_LEN - RPC_HDR_RESP_LEN;
if(p->ntlmssp_auth_validated) {
data_space_available -= (RPC_HDR_AUTH_LEN + RPC_AUTH_NTLMSSP_CHK_LEN);
} else if(p->netsec_auth_validated) {
data_space_available -= (RPC_HDR_AUTH_LEN + RPC_AUTH_NETSEC_SIGN_OR_SEAL_CHK_LEN);
}
/*
* The amount we send is the minimum of the available
* space and the amount left to send.
*/
data_len_left = prs_offset(&p->out_data.rdata) - p->out_data.data_sent_length;
/*
* Ensure there really is data left to send.
*/
if(!data_len_left) {
DEBUG(0,("create_next_pdu: no data left to send !\n"));
return False;
}
data_len = MIN(data_len_left, data_space_available);
/*
* Set up the alloc hint. This should be the data left to
* send.
*/
hdr_resp.alloc_hint = data_len_left;
/*
* Work out if this PDU will be the last.
*/
if(p->out_data.data_sent_length + data_len >= prs_offset(&p->out_data.rdata)) {
p->hdr.flags |= RPC_FLG_LAST;
if ((auth_seal || auth_verify) && (data_len_left % 8)) {
ss_padding_len = 8 - (data_len_left % 8);
DEBUG(10,("create_next_pdu: adding sign/seal padding of %u\n",
ss_padding_len ));
}
}
/*
* Set up the header lengths.
*/
if (p->ntlmssp_auth_validated) {
p->hdr.frag_len = RPC_HEADER_LEN + RPC_HDR_RESP_LEN +
data_len + ss_padding_len +
RPC_HDR_AUTH_LEN + RPC_AUTH_NTLMSSP_CHK_LEN;
p->hdr.auth_len = RPC_AUTH_NTLMSSP_CHK_LEN;
} else if (p->netsec_auth_validated) {
p->hdr.frag_len = RPC_HEADER_LEN + RPC_HDR_RESP_LEN +
data_len + ss_padding_len +
RPC_HDR_AUTH_LEN + RPC_AUTH_NETSEC_SIGN_OR_SEAL_CHK_LEN;
p->hdr.auth_len = RPC_AUTH_NETSEC_SIGN_OR_SEAL_CHK_LEN;
} else {
p->hdr.frag_len = RPC_HEADER_LEN + RPC_HDR_RESP_LEN + data_len;
p->hdr.auth_len = 0;
}
/*
* Init the parse struct to point at the outgoing
* data.
*/
prs_init( &outgoing_pdu, 0, p->mem_ctx, MARSHALL);
prs_give_memory( &outgoing_pdu, (char *)p->out_data.current_pdu, sizeof(p->out_data.current_pdu), False);
/* Store the header in the data stream. */
if(!smb_io_rpc_hdr("hdr", &p->hdr, &outgoing_pdu, 0)) {
DEBUG(0,("create_next_pdu: failed to marshall RPC_HDR.\n"));
prs_mem_free(&outgoing_pdu);
return False;
}
if(!smb_io_rpc_hdr_resp("resp", &hdr_resp, &outgoing_pdu, 0)) {
DEBUG(0,("create_next_pdu: failed to marshall RPC_HDR_RESP.\n"));
prs_mem_free(&outgoing_pdu);
return False;
}
/* Store the current offset. */
data_pos = prs_offset(&outgoing_pdu);
/* Copy the data into the PDU. */
if(!prs_append_some_prs_data(&outgoing_pdu, &p->out_data.rdata, p->out_data.data_sent_length, data_len)) {
DEBUG(0,("create_next_pdu: failed to copy %u bytes of data.\n", (unsigned int)data_len));
prs_mem_free(&outgoing_pdu);
return False;
}
/* Copy the sign/seal padding data. */
if (ss_padding_len) {
char pad[8];
memset(pad, '\0', 8);
if (!prs_copy_data_in(&outgoing_pdu, pad, ss_padding_len)) {
DEBUG(0,("create_next_pdu: failed to add %u bytes of pad data.\n", (unsigned int)ss_padding_len));
prs_mem_free(&outgoing_pdu);
return False;
}
}
if (p->ntlmssp_auth_validated) {
/*
* NTLMSSP processing. Mutually exclusive with Schannel.
*/
uint32 crc32 = 0;
char *data;
DEBUG(5,("create_next_pdu: sign: %s seal: %s data %d auth %d\n",
BOOLSTR(auth_verify), BOOLSTR(auth_seal), data_len + ss_padding_len, p->hdr.auth_len));
/*
* Set data to point to where we copied the data into.
*/
data = prs_data_p(&outgoing_pdu) + data_pos;
if (auth_seal) {
crc32 = crc32_calc_buffer(data, data_len + ss_padding_len);
NTLMSSPcalc_p(p, (uchar*)data, data_len + ss_padding_len);
}
if (auth_seal || auth_verify) {
RPC_HDR_AUTH auth_info;
init_rpc_hdr_auth(&auth_info, NTLMSSP_AUTH_TYPE,
auth_seal ? RPC_PIPE_AUTH_SEAL_LEVEL : RPC_PIPE_AUTH_SIGN_LEVEL,
(auth_verify ? ss_padding_len : 0), (auth_verify ? 1 : 0));
if(!smb_io_rpc_hdr_auth("hdr_auth", &auth_info, &outgoing_pdu, 0)) {
DEBUG(0,("create_next_pdu: failed to marshall RPC_HDR_AUTH.\n"));
prs_mem_free(&outgoing_pdu);
return False;
}
}
if (auth_verify) {
RPC_AUTH_NTLMSSP_CHK ntlmssp_chk;
char *auth_data = prs_data_p(&outgoing_pdu);
p->ntlmssp_seq_num++;
init_rpc_auth_ntlmssp_chk(&ntlmssp_chk, NTLMSSP_SIGN_VERSION,
crc32, p->ntlmssp_seq_num++);
auth_data = prs_data_p(&outgoing_pdu) + prs_offset(&outgoing_pdu) + 4;
if(!smb_io_rpc_auth_ntlmssp_chk("auth_sign", &ntlmssp_chk, &outgoing_pdu, 0)) {
DEBUG(0,("create_next_pdu: failed to marshall RPC_AUTH_NTLMSSP_CHK.\n"));
prs_mem_free(&outgoing_pdu);
return False;
}
NTLMSSPcalc_p(p, (uchar*)auth_data, RPC_AUTH_NTLMSSP_CHK_LEN - 4);
}
} else if (p->netsec_auth_validated) {
/*
* Schannel processing. Mutually exclusive with NTLMSSP.
*/
int auth_type, auth_level;
char *data;
RPC_HDR_AUTH auth_info;
RPC_AUTH_NETSEC_CHK verf;
prs_struct rverf;
prs_struct rauth;
data = prs_data_p(&outgoing_pdu) + data_pos;
/* Check it's the type of reply we were expecting to decode */
get_auth_type_level(p->netsec_auth.auth_flags, &auth_type, &auth_level);
init_rpc_hdr_auth(&auth_info, auth_type, auth_level,
ss_padding_len, 1);
if(!smb_io_rpc_hdr_auth("hdr_auth", &auth_info, &outgoing_pdu, 0)) {
DEBUG(0,("create_next_pdu: failed to marshall RPC_HDR_AUTH.\n"));
prs_mem_free(&outgoing_pdu);
return False;
}
prs_init(&rverf, 0, p->mem_ctx, MARSHALL);
prs_init(&rauth, 0, p->mem_ctx, MARSHALL);
netsec_encode(&p->netsec_auth,
p->netsec_auth.auth_flags,
SENDER_IS_ACCEPTOR,
&verf, data, data_len + ss_padding_len);
smb_io_rpc_auth_netsec_chk("", RPC_AUTH_NETSEC_SIGN_OR_SEAL_CHK_LEN,
&verf, &outgoing_pdu, 0);
p->netsec_auth.seq_num++;
}
/*
* Setup the counts for this PDU.
*/
p->out_data.data_sent_length += data_len;
p->out_data.current_pdu_len = p->hdr.frag_len;
p->out_data.current_pdu_sent = 0;
prs_mem_free(&outgoing_pdu);
return True;
}
static ssize_t unmarshall_rpc_header(pipes_struct *p)
{
/*
* Unmarshall the header to determine the needed length.
*/
prs_struct rpc_in;
if(p->in_data.pdu_received_len != RPC_HEADER_LEN) {
DEBUG(0,("unmarshall_rpc_header: assert on rpc header length failed.\n"));
set_incoming_fault(p);
return -1;
}
prs_init( &rpc_in, 0, 4, UNMARSHALL);
prs_give_memory( &rpc_in, (char *)&p->in_data.current_in_pdu[0],
p->in_data.pdu_received_len, False);
/*
* Unmarshall the header as this will tell us how much
* data we need to read to get the complete pdu.
*/
if(!smb_io_rpc_hdr("", &p->hdr, &rpc_in, 0)) {
DEBUG(0,("unmarshall_rpc_header: failed to unmarshall RPC_HDR.\n"));
set_incoming_fault(p);
return -1;
}
/*
* Validate the RPC header.
*/
if(p->hdr.major != 5 && p->hdr.minor != 0) {
DEBUG(0,("unmarshall_rpc_header: invalid major/minor numbers in RPC_HDR.\n"));
set_incoming_fault(p);
return -1;
}
/*
* If there is no data in the incoming buffer and it's a requst pdu then
* ensure that the FIRST flag is set. If not then we have
* a stream missmatch.
*/
if((p->hdr.pkt_type == RPC_REQUEST) && (prs_offset(&p->in_data.data) == 0) && !(p->hdr.flags & RPC_FLG_FIRST)) {
DEBUG(0,("unmarshall_rpc_header: FIRST flag not set in first PDU !\n"));
set_incoming_fault(p);
return -1;
}
/*
* Ensure that the pdu length is sane.
*/
if((p->hdr.frag_len < RPC_HEADER_LEN) || (p->hdr.frag_len > MAX_PDU_FRAG_LEN)) {
DEBUG(0,("unmarshall_rpc_header: assert on frag length failed.\n"));
set_incoming_fault(p);
return -1;
}
DEBUG(10,("unmarshall_rpc_header: type = %u, flags = %u\n", (unsigned int)p->hdr.pkt_type,
(unsigned int)p->hdr.flags ));
/*
* Adjust for the header we just ate.
*/
p->in_data.pdu_received_len = 0;
p->in_data.pdu_needed_len = (uint32)p->hdr.frag_len - RPC_HEADER_LEN;
/*
* Null the data we just ate.
*/
memset((char *)&p->in_data.current_in_pdu[0], '\0', RPC_HEADER_LEN);
return 0; /* No extra data processed. */
}
static NTSTATUS create_rpc_bind_req(struct cli_state *cli, prs_struct *rpc_out,
uint32 rpc_call_id,
RPC_IFACE *abstract, RPC_IFACE *transfer,
const char *my_name, const char *domain)
{
RPC_HDR hdr;
RPC_HDR_RB hdr_rb;
RPC_HDR_AUTH hdr_auth;
int auth_len = 0;
int auth_type, auth_level;
size_t saved_hdr_offset = 0;
prs_struct auth_info;
prs_init(&auth_info, RPC_HDR_AUTH_LEN, /* we will need at least this much */
prs_get_mem_context(rpc_out), MARSHALL);
if (cli->pipe_auth_flags) {
get_auth_type_level(cli->pipe_auth_flags, &auth_type, &auth_level);
/*
* Create the auth structs we will marshall.
*/
init_rpc_hdr_auth(&hdr_auth, auth_type, auth_level, 0x00, 1);
/*
* Now marshall the data into the temporary parse_struct.
*/
if(!smb_io_rpc_hdr_auth("hdr_auth", &hdr_auth, &auth_info, 0)) {
DEBUG(0,("create_rpc_bind_req: failed to marshall RPC_HDR_AUTH.\n"));
prs_mem_free(&auth_info);
return NT_STATUS_NO_MEMORY;
}
saved_hdr_offset = prs_offset(&auth_info);
}
if (cli->pipe_auth_flags & AUTH_PIPE_NTLMSSP) {
NTSTATUS nt_status;
DATA_BLOB null_blob = data_blob(NULL, 0);
DATA_BLOB request;
DEBUG(5, ("Processing NTLMSSP Negotiate\n"));
nt_status = ntlmssp_update(cli->ntlmssp_pipe_state,
null_blob,
&request);
if (!NT_STATUS_EQUAL(nt_status,
NT_STATUS_MORE_PROCESSING_REQUIRED)) {
prs_mem_free(&auth_info);
return nt_status;
}
/* Auth len in the rpc header doesn't include auth_header. */
auth_len = request.length;
prs_copy_data_in(&auth_info, (char *)request.data, request.length);
DEBUG(5, ("NTLMSSP Negotiate:\n"));
dump_data(5, (const char *)request.data, request.length);
data_blob_free(&request);
} else if (cli->pipe_auth_flags & AUTH_PIPE_NETSEC) {
RPC_AUTH_NETSEC_NEG netsec_neg;
/* Use lp_workgroup() if domain not specified */
if (!domain || !domain[0]) {
DEBUG(10,("create_rpc_bind_req: no domain; assuming my own\n"));
domain = lp_workgroup();
}
init_rpc_auth_netsec_neg(&netsec_neg, domain, my_name);
/*
* Now marshall the data into the temporary parse_struct.
*/
if(!smb_io_rpc_auth_netsec_neg("netsec_neg",
&netsec_neg, &auth_info, 0)) {
DEBUG(0,("Failed to marshall RPC_AUTH_NETSEC_NEG.\n"));
prs_mem_free(&auth_info);
return NT_STATUS_NO_MEMORY;
}
/* Auth len in the rpc header doesn't include auth_header. */
auth_len = prs_offset(&auth_info) - saved_hdr_offset;
}
/* Create the request RPC_HDR */
init_rpc_hdr(&hdr, RPC_BIND, 0x3, rpc_call_id,
RPC_HEADER_LEN + RPC_HDR_RB_LEN + prs_offset(&auth_info),
auth_len);
if(!smb_io_rpc_hdr("hdr" , &hdr, rpc_out, 0)) {
DEBUG(0,("create_rpc_bind_req: failed to marshall RPC_HDR.\n"));
prs_mem_free(&auth_info);
return NT_STATUS_NO_MEMORY;
}
/* create the bind request RPC_HDR_RB */
init_rpc_hdr_rb(&hdr_rb, MAX_PDU_FRAG_LEN, MAX_PDU_FRAG_LEN, 0x0,
0x1, 0x0, 0x1, abstract, transfer);
/* Marshall the bind request data */
if(!smb_io_rpc_hdr_rb("", &hdr_rb, rpc_out, 0)) {
DEBUG(0,("create_rpc_bind_req: failed to marshall RPC_HDR_RB.\n"));
prs_mem_free(&auth_info);
return NT_STATUS_NO_MEMORY;
}
/*
* Grow the outgoing buffer to store any auth info.
*/
if(auth_len != 0) {
if(!prs_append_prs_data( rpc_out, &auth_info)) {
DEBUG(0,("create_rpc_bind_req: failed to grow parse struct to add auth.\n"));
prs_mem_free(&auth_info);
return NT_STATUS_NO_MEMORY;
}
}
prs_mem_free(&auth_info);
return NT_STATUS_OK;
}
