/* server functions auto-generated by pidl */ #include "bin/default/librpc/gen_ndr/ndr_echo.h" #include NTSTATUS dcerpc_server_rpcecho_init(TALLOC_CTX *); /* rpcecho - dcerpc server boilerplate generated by pidl */ static NTSTATUS rpcecho__op_bind(struct dcesrv_connection_context *context, const struct dcesrv_interface *iface) { #ifdef DCESRV_INTERFACE_RPCECHO_BIND return DCESRV_INTERFACE_RPCECHO_BIND(context,iface); #else return NT_STATUS_OK; #endif } static void rpcecho__op_unbind(struct dcesrv_connection_context *context, const struct dcesrv_interface *iface) { #ifdef DCESRV_INTERFACE_RPCECHO_UNBIND DCESRV_INTERFACE_RPCECHO_UNBIND(context, iface); #else return; #endif } static NTSTATUS rpcecho__op_ndr_pull(struct dcesrv_call_state *dce_call, TALLOC_CTX *mem_ctx, struct ndr_pull *pull, void **r) { enum ndr_err_code ndr_err; uint16_t opnum = dce_call->pkt.u.request.opnum; dce_call->fault_code = 0; if (opnum >= ndr_table_rpcecho.num_calls) { dce_call->fault_code = DCERPC_FAULT_OP_RNG_ERROR; return NT_STATUS_NET_WRITE_FAULT; } *r = talloc_named(mem_ctx, ndr_table_rpcecho.calls[opnum].struct_size, "struct %s", ndr_table_rpcecho.calls[opnum].name); NT_STATUS_HAVE_NO_MEMORY(*r); /* unravel the NDR for the packet */ ndr_err = ndr_table_rpcecho.calls[opnum].ndr_pull(pull, NDR_IN, *r); if (!NDR_ERR_CODE_IS_SUCCESS(ndr_err)) { dce_call->fault_code = DCERPC_FAULT_NDR; return NT_STATUS_NET_WRITE_FAULT; } return NT_STATUS_OK; } static NTSTATUS rpcecho__op_dispatch(struct dcesrv_call_state *dce_call, TALLOC_CTX *mem_ctx, void *r) { uint16_t opnum = dce_call->pkt.u.request.opnum; switch (opnum) { case 0: { struct echo_AddOne *r2 = (struct echo_AddOne *)r; if (DEBUGLEVEL >= 10) { NDR_PRINT_FUNCTION_DEBUG(echo_AddOne, NDR_IN, r2); } dcesrv_echo_AddOne(dce_call, mem_ctx, r2); if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_AddOne will reply async\n")); } break; } case 1: { struct echo_EchoData *r2 = (struct echo_EchoData *)r; if (DEBUGLEVEL >= 10) { NDR_PRINT_FUNCTION_DEBUG(echo_EchoData, NDR_IN, r2); } dcesrv_echo_EchoData(dce_call, mem_ctx, r2); if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_EchoData will reply async\n")); } break; } case 2: { struct echo_SinkData *r2 = (struct echo_SinkData *)r; if (DEBUGLEVEL >= 10) { NDR_PRINT_FUNCTION_DEBUG(echo_SinkData, NDR_IN, r2); } dcesrv_echo_SinkData(dce_call, mem_ctx, r2); if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_SinkData will reply async\n")); } break; } case 3: { struct echo_SourceData *r2 = (struct echo_SourceData *)r; if (DEBUGLEVEL >= 10) { NDR_PRINT_FUNCTION_DEBUG(echo_SourceData, NDR_IN, r2); } dcesrv_echo_SourceData(dce_call, mem_ctx, r2); if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_SourceData will reply async\n")); } break; } case 4: { struct echo_TestCall *r2 = (struct echo_TestCall *)r; if (DEBUGLEVEL >= 10) { NDR_PRINT_FUNCTION_DEBUG(echo_TestCall, NDR_IN, r2); } dcesrv_echo_TestCall(dce_call, mem_ctx, r2); if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_TestCall will reply async\n")); } break; } case 5: { struct echo_TestCall2 *r2 = (struct echo_TestCall2 *)r; if (DEBUGLEVEL >= 10) { NDR_PRINT_FUNCTION_DEBUG(echo_TestCall2, NDR_IN, r2); } r2->out.result = dcesrv_echo_TestCall2(dce_call, mem_ctx, r2); if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_TestCall2 will reply async\n")); } break; } case 6: { struct echo_TestSleep *r2 = (struct echo_TestSleep *)r; if (DEBUGLEVEL >= 10) { NDR_PRINT_FUNCTION_DEBUG(echo_TestSleep, NDR_IN, r2); } r2->out.result = dcesrv_echo_TestSleep(dce_call, mem_ctx, r2); if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_TestSleep will reply async\n")); } break; } case 7: { struct echo_TestEnum *r2 = (struct echo_TestEnum *)r; if (DEBUGLEVEL >= 10) { NDR_PRINT_FUNCTION_DEBUG(echo_TestEnum, NDR_IN, r2); } dcesrv_echo_TestEnum(dce_call, mem_ctx, r2); if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_TestEnum will reply async\n")); } break; } case 8: { struct echo_TestSurrounding *r2 = (struct echo_TestSurrounding *)r; if (DEBUGLEVEL >= 10) { NDR_PRINT_FUNCTION_DEBUG(echo_TestSurrounding, NDR_IN, r2); } dcesrv_echo_TestSurrounding(dce_call, mem_ctx, r2); if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_TestSurrounding will reply async\n")); } break; } case 9: { struct echo_TestDoublePointer *r2 = (struct echo_TestDoublePointer *)r; if (DEBUGLEVEL >= 10) { NDR_PRINT_FUNCTION_DEBUG(echo_TestDoublePointer, NDR_IN, r2); } r2->out.result = dcesrv_echo_TestDoublePointer(dce_call, mem_ctx, r2); if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_TestDoublePointer will reply async\n")); } break; } default: dce_call->fault_code = DCERPC_FAULT_OP_RNG_ERROR; break; } if (dce_call->fault_code != 0) { return NT_STATUS_NET_WRITE_FAULT; } return NT_STATUS_OK; } static NTSTATUS rpcecho__op_reply(struct dcesrv_call_state *dce_call, TALLOC_CTX *mem_ctx, void *r) { uint16_t opnum = dce_call->pkt.u.request.opnum; switch (opnum) { case 0: { struct echo_AddOne *r2 = (struct echo_AddOne *)r; if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_AddOne replied async\n")); } if (DEBUGLEVEL >= 10 && dce_call->fault_code == 0) { NDR_PRINT_FUNCTION_DEBUG(echo_AddOne, NDR_OUT | NDR_SET_VALUES, r2); } if (dce_call->fault_code != 0) { DEBUG(2,("dcerpc_fault %s in echo_AddOne\n", dcerpc_errstr(mem_ctx, dce_call->fault_code))); } break; } case 1: { struct echo_EchoData *r2 = (struct echo_EchoData *)r; if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_EchoData replied async\n")); } if (DEBUGLEVEL >= 10 && dce_call->fault_code == 0) { NDR_PRINT_FUNCTION_DEBUG(echo_EchoData, NDR_OUT | NDR_SET_VALUES, r2); } if (dce_call->fault_code != 0) { DEBUG(2,("dcerpc_fault %s in echo_EchoData\n", dcerpc_errstr(mem_ctx, dce_call->fault_code))); } break; } case 2: { struct echo_SinkData *r2 = (struct echo_SinkData *)r; if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_SinkData replied async\n")); } if (DEBUGLEVEL >= 10 && dce_call->fault_code == 0) { NDR_PRINT_FUNCTION_DEBUG(echo_SinkData, NDR_OUT | NDR_SET_VALUES, r2); } if (dce_call->fault_code != 0) { DEBUG(2,("dcerpc_fault %s in echo_SinkData\n", dcerpc_errstr(mem_ctx, dce_call->fault_code))); } break; } case 3: { struct echo_SourceData *r2 = (struct echo_SourceData *)r; if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_SourceData replied async\n")); } if (DEBUGLEVEL >= 10 && dce_call->fault_code == 0) { NDR_PRINT_FUNCTION_DEBUG(echo_SourceData, NDR_OUT | NDR_SET_VALUES, r2); } if (dce_call->fault_code != 0) { DEBUG(2,("dcerpc_fault %s in echo_SourceData\n", dcerpc_errstr(mem_ctx, dce_call->fault_code))); } break; } case 4: { struct echo_TestCall *r2 = (struct echo_TestCall *)r; if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_TestCall replied async\n")); } if (DEBUGLEVEL >= 10 && dce_call->fault_code == 0) { NDR_PRINT_FUNCTION_DEBUG(echo_TestCall, NDR_OUT | NDR_SET_VALUES, r2); } if (dce_call->fault_code != 0) { DEBUG(2,("dcerpc_fault %s in echo_TestCall\n", dcerpc_errstr(mem_ctx, dce_call->fault_code))); } break; } case 5: { struct echo_TestCall2 *r2 = (struct echo_TestCall2 *)r; if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_TestCall2 replied async\n")); } if (DEBUGLEVEL >= 10 && dce_call->fault_code == 0) { NDR_PRINT_FUNCTION_DEBUG(echo_TestCall2, NDR_OUT | NDR_SET_VALUES, r2); } if (dce_call->fault_code != 0) { DEBUG(2,("dcerpc_fault %s in echo_TestCall2\n", dcerpc_errstr(mem_ctx, dce_call->fault_code))); } break; } case 6: { struct echo_TestSleep *r2 = (struct echo_TestSleep *)r; if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_TestSleep replied async\n")); } if (DEBUGLEVEL >= 10 && dce_call->fault_code == 0) { NDR_PRINT_FUNCTION_DEBUG(echo_TestSleep, NDR_OUT | NDR_SET_VALUES, r2); } if (dce_call->fault_code != 0) { DEBUG(2,("dcerpc_fault %s in echo_TestSleep\n", dcerpc_errstr(mem_ctx, dce_call->fault_code))); } break; } case 7: { struct echo_TestEnum *r2 = (struct echo_TestEnum *)r; if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_TestEnum replied async\n")); } if (DEBUGLEVEL >= 10 && dce_call->fault_code == 0) { NDR_PRINT_FUNCTION_DEBUG(echo_TestEnum, NDR_OUT | NDR_SET_VALUES, r2); } if (dce_call->fault_code != 0) { DEBUG(2,("dcerpc_fault %s in echo_TestEnum\n", dcerpc_errstr(mem_ctx, dce_call->fault_code))); } break; } case 8: { struct echo_TestSurrounding *r2 = (struct echo_TestSurrounding *)r; if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_TestSurrounding replied async\n")); } if (DEBUGLEVEL >= 10 && dce_call->fault_code == 0) { NDR_PRINT_FUNCTION_DEBUG(echo_TestSurrounding, NDR_OUT | NDR_SET_VALUES, r2); } if (dce_call->fault_code != 0) { DEBUG(2,("dcerpc_fault %s in echo_TestSurrounding\n", dcerpc_errstr(mem_ctx, dce_call->fault_code))); } break; } case 9: { struct echo_TestDoublePointer *r2 = (struct echo_TestDoublePointer *)r; if (dce_call->state_flags & DCESRV_CALL_STATE_FLAG_ASYNC) { DEBUG(5,("function echo_TestDoublePointer replied async\n")); } if (DEBUGLEVEL >= 10 && dce_call->fault_code == 0) { NDR_PRINT_FUNCTION_DEBUG(echo_TestDoublePointer, NDR_OUT | NDR_SET_VALUES, r2); } if (dce_call->fault_code != 0) { DEBUG(2,("dcerpc_fault %s in echo_TestDoublePointer\n", dcerpc_errstr(mem_ctx, dce_call->fault_code))); } break; } default: dce_call->fault_code = DCERPC_FAULT_OP_RNG_ERROR; break; } if (dce_call->fault_code != 0) { return NT_STATUS_NET_WRITE_FAULT; } return NT_STATUS_OK; } static NTSTATUS rpcecho__op_ndr_push(struct dcesrv_call_state *dce_call, TALLOC_CTX *mem_ctx, struct ndr_push *push, const void *r) { enum ndr_err_code ndr_err; uint16_t opnum = dce_call->pkt.u.request.opnum; ndr_err = ndr_table_rpcecho.calls[opnum].ndr_push(push, NDR_OUT, r); if (!NDR_ERR_CODE_IS_SUCCESS(ndr_err)) { dce_call->fault_code = DCERPC_FAULT_NDR; return NT_STATUS_NET_WRITE_FAULT; } return NT_STATUS_OK; } static const struct dcesrv_interface dcesrv_rpcecho_interface = { .name = "rpcecho", .syntax_id = {{0x60a15ec5,0x4de8,0x11d7,{0xa6,0x37},{0x00,0x50,0x56,0xa2,0x01,0x82}},1.0}, .bind = rpcecho__op_bind, .unbind = rpcecho__op_unbind, .ndr_pull = rpcecho__op_ndr_pull, .dispatch = rpcecho__op_dispatch, .reply = rpcecho__op_reply, .ndr_push = rpcecho__op_ndr_push, .local = NULL, #ifdef DCESRV_INTERFACE_RPCECHO_FLAGS .flags = DCESRV_INTERFACE_RPCECHO_FLAGS #else .flags = 0 #endif }; static NTSTATUS rpcecho__op_init_server(struct dcesrv_context *dce_ctx, const struct dcesrv_endpoint_server *ep_server) { int i; #ifdef DCESRV_INTERFACE_RPCECHO_NCACN_NP_SECONDARY_ENDPOINT const char *ncacn_np_secondary_endpoint = DCESRV_INTERFACE_RPCECHO_NCACN_NP_SECONDARY_ENDPOINT; #else const char *ncacn_np_secondary_endpoint = NULL; #endif for (i=0;icount;i++) { NTSTATUS ret; const char *name = ndr_table_rpcecho.endpoints->names[i]; ret = dcesrv_interface_register(dce_ctx, name, ncacn_np_secondary_endpoint, &dcesrv_rpcecho_interface, NULL); if (!NT_STATUS_IS_OK(ret)) { DEBUG(1,("rpcecho_op_init_server: failed to register endpoint '%s'\n",name)); return ret; } } return NT_STATUS_OK; } static NTSTATUS rpcecho__op_shutdown_server(struct dcesrv_context *dce_ctx, const struct dcesrv_endpoint_server *ep_server) { return NT_STATUS_OK; } static bool rpcecho__op_interface_by_uuid(struct dcesrv_interface *iface, const struct GUID *uuid, uint32_t if_version) { if (dcesrv_rpcecho_interface.syntax_id.if_version == if_version && GUID_equal(&dcesrv_rpcecho_interface.syntax_id.uuid, uuid)) { memcpy(iface,&dcesrv_rpcecho_interface, sizeof(*iface)); return true; } return false; } static bool rpcecho__op_interface_by_name(struct dcesrv_interface *iface, const char *name) { if (strcmp(dcesrv_rpcecho_interface.name, name)==0) { memcpy(iface, &dcesrv_rpcecho_interface, sizeof(*iface)); return true; } return false; } NTSTATUS dcerpc_server_rpcecho_init(TALLOC_CTX *ctx) { NTSTATUS ret; static const struct dcesrv_endpoint_server ep_server = { /* fill in our name */ .name = "rpcecho", /* Initialization flag */ .initialized = false, /* fill in all the operations */ #ifdef DCESRV_INTERFACE_RPCECHO_INIT_SERVER .init_server = DCESRV_INTERFACE_RPCECHO_INIT_SERVER, #else .init_server = rpcecho__op_init_server, #endif #ifdef DCESRV_INTERFACE_RPCECHO_SHUTDOWN_SERVER .shutdown_server = DCESRV_INTERFACE_RPCECHO_SHUTDOWN_SERVER, #else .shutdown_server = rpcecho__op_shutdown_server, #endif .interface_by_uuid = rpcecho__op_interface_by_uuid, .interface_by_name = rpcecho__op_interface_by_name }; /* register ourselves with the DCERPC subsystem. */ ret = dcerpc_register_ep_server(&ep_server); if (!NT_STATUS_IS_OK(ret)) { DEBUG(0,("Failed to register 'rpcecho' endpoint server!\n")); return ret; } return ret; }