void sbrmonclr(int inst)
{
DRV_CTRL * pDrvCtrl = (DRV_CTRL *) endFindByName ("sbe", inst);
pDrvCtrl = (DRV_CTRL *) endFindByName ("sbe", inst);
if ( pDrvCtrl == NULL )
printf("can't find sbe%d\n", inst);
SB_MAC_REG_WRITE(R_MAC_RMON_TX_BYTES, 0);
SB_MAC_REG_WRITE(R_MAC_RMON_TX_BAD, 0);
SB_MAC_REG_WRITE(R_MAC_RMON_TX_GOOD, 0);
}
static int
sal_if_deconfig(char *pfx, END_OBJ *eo, char *if_name, int if_unit)
/*
* Function:
* Purpose:
* Parameters: pfx - prefix to print on errors/warnings
* if_name - name of interface ("sn" for "sn0")
* if_unit - unit # (0 for "sn0")
* Returns: 0 - success
* -1 - failed
*/
{
#if defined(INCLUDE_DRIVERS)
int rv;
SAL_MAP_NETUNIT(if_unit);
if (NULL == endFindByName(if_name, if_unit)) {
cli_out("%s: Error: can not locate device: %s%d\n",
pfx, if_name, if_unit);
return(-1);
}
rv = sal_if_do_deconfig(pfx, eo, if_name, if_unit);
LOG_INFO(BSL_LS_APPL_END,
(BSL_META("%s: sal_if_deconfig complete: %s%d (%d)\n"),
pfx, if_name, if_unit, rv));
return(rv);
#else /* !defined(INCLUDE_DRIVERS) */
return(-1);
#endif /* !defined(INCLUDE_DRIVERS) */
}
void sbrmonshow(int inst)
{
DRV_CTRL * pDrvCtrl = (DRV_CTRL *) endFindByName ("sbe", inst);
UINT64 reg;
UINT32 reg_hi, reg_lo;
pDrvCtrl = (DRV_CTRL *) endFindByName ("sbe", inst);
if ( pDrvCtrl == NULL )
printf("can't find sbe%d\n", inst);
reg = SB_MAC_REG_READ(R_MAC_RMON_TX_BYTES);
reg_hi = (UINT32)(reg >> 32); reg_lo = (UINT32)(reg & 0xffffffff);
printf("tx_byte = 0x%08x%08x \n", reg_hi, reg_lo);
reg = SB_MAC_REG_READ(R_MAC_RMON_TX_BAD);
reg_hi = (UINT32)(reg >> 32); reg_lo = (UINT32)(reg & 0xffffffff);
printf("tx_bad = 0x%08x%08x \n", reg_hi, reg_lo);
reg = SB_MAC_REG_READ(R_MAC_RMON_TX_GOOD);
reg_hi = (UINT32)(reg >> 32); reg_lo = (UINT32)(reg & 0xffffffff);
printf("tx_good = 0x%08x%08x \n", reg_hi, reg_lo);
}
void usrNetIpAttachCommon
(
char * pDeviceName, /* Device name */
int unitNum, /* unit number */
char * pStr, /* e.g. "IPv4", "IPv6" */
FUNCPTR pAttachRtn /* attach routine */
)
{
int unitNumber = unitNum;
/* skip if no device is available */
if (pDeviceName == NULL)
return;
#if 0
/* ipAttach for ppp is done during its bringup */
if (strncmp (pDeviceName, "ppp", 3) == 0)
return;
#endif
if (endFindByName (pDeviceName, unitNum) == NULL)
{
if (sysBootParams.other [0] != EOS)
{
char *pStr;
/*
* the other parameter may or may not contain a
* unit number. If there is one, use it
* and update sysBootParams.unitNum.
*/
pStr = (char *)&sysBootParams.other;
while (!isdigit ((int)*pStr) && *pStr != EOS)
pStr++;
if (pStr != EOS && sscanf (pStr, "%d", &unitNumber) == 1)
{
sysBootParams.unitNum = unitNumber;
uNum = unitNumber;
*pStr = EOS;
}
pDevName = sysBootParams.other;
}
else
pDevName = NULL;
pDeviceName = pDevName;
}
if (pAttachRtn == NULL)
return;
if ((*pAttachRtn) (unitNumber, pDeviceName) != OK)
{
if ( _func_printErr)
(* _func_printErr) ("Failed to attach to device %s%d",
pDeviceName, unitNumber);
return;
}
netAttachFlag = TRUE; /* usrNetBoot.c */
if (_func_printErr)
(*_func_printErr)
("Attached %s interface to %s unit %d\n",pStr,pDeviceName,unitNumber);
return;
}
STATUS mirrorEndRunningState(void)
{
BRIDGE_PORT_INFO* pPortInfo;
END_OBJ *pEnd0, *pEnd1;
END_MEDIA media;
int error;
long flags;
pEnd1 = endFindByName (MIRROR_DEV_NAME,MIRROR_STACK_UNIT_NUM);
pEnd0 = endFindByName (MIRROR_DEV_NAME,MIRROR_BRIDGE_UNIT_NUM);
if (pEnd1)
flags = END_FLAGS_GET(pEnd1);
else
return OK;
for (pPortInfo = (BRIDGE_PORT_INFO*)lstFirst(&bridgePortList);
(pPortInfo != NULL) && (strcmp(pPortInfo->name, MIRROR_DEV_NAME)!=0);
pPortInfo = (BRIDGE_PORT_INFO*)lstNext((NODE*)pPortInfo))
{
muxIoctl(pPortInfo->pMuxBindCookie,EIOCGIFMEDIA,(char *)&media);
LOG_MSG("mirrorEndRunningState: port %s, unit %d, status 0x%x\n",
pPortInfo->name, pPortInfo->unitNum,
media.endMediaStatus, 4, 5, 6);
if ((media.endMediaStatus & (IFM_AVALID|IFM_ACTIVE)) ==
(IFM_AVALID|IFM_ACTIVE))
{
if ((flags & IP_IFF_RUNNING) == 0)
{
LOG_MSG("mirrorEndRunningState: state changed to RUNNING\n",
1, 2, 3, 4, 5, 6);
/* raise both interface flags - mark the devices as RUNNING */
if (pEnd0) END_FLAGS_SET (pEnd0, IP_IFF_RUNNING);
END_FLAGS_SET (pEnd1, IP_IFF_RUNNING);
/* inform the stack about the interface UP state change */
jobQueueStdPost (netJobQueueId, NET_TASK_QJOB_PRI,
muxLinkUpNotify, pEnd1,
NULL, NULL, NULL, NULL);
}
return OK;
}
}
if (flags & IP_IFF_RUNNING)
{
LOG_MSG("mirrorEndRunningState: state changed to NOT RUNNING\n",
1, 2, 3, 4, 5, 6);
/* mark both drivers as NOT RUNNING */
if (pEnd0) END_FLAGS_CLR (pEnd0, IP_IFF_RUNNING);
END_FLAGS_CLR (pEnd1, IP_IFF_RUNNING);
/* inform the stack about the interface UP state change */
jobQueueStdPost (netJobQueueId, NET_TASK_QJOB_PRI,
muxLinkDownNotify, pEnd1,
NULL, NULL, NULL, NULL);
}
return OK;
}
END_OBJ* mirrorEndLoad
(
char* initString
)
{
END_CTRL* pDrvCtrl;
if (initString == NULL)
return NULL;
if (initString[0] == 0)
{
bcopy((char *)MIRROR_DEV_NAME, initString, MIRROR_DEV_NAME_LEN);
return NULL;
}
/* Parse InitString */
switch (initString[0])
{
case '0':
pDrvCtrl = &drvCtrl[0];
bzero((char *)pDrvCtrl,sizeof(END_CTRL));
pDrvCtrl->unit = 0;
SYS_ENET_ADDR_GET((char *) pDrvCtrl->enetAddr);
break;
case '1':
pDrvCtrl = &drvCtrl[1];
bzero((char *)pDrvCtrl,sizeof(END_CTRL));
pDrvCtrl->unit = 1;
/* if unit ever REALLY needs a MAC address, change this appropriately */
SYS_ENET_ADDR_GET((char *) pDrvCtrl->enetAddr);
break;
default:
return NULL;
}
/* Check if we are already attached */
if (pDrvCtrl->endObject.attached == TRUE)
return &pDrvCtrl->endObject;
/* endObject initializations */
if (END_OBJ_INIT(&pDrvCtrl->endObject,
(void*)pDrvCtrl,
MIRROR_DEV_NAME,
pDrvCtrl->unit,
&netFuncs,
MIRROR_END_OBJ_STRING) == ERROR)
{
return NULL;
}
/* Initialize MIB2 entries */
if (END_MIB_INIT(&pDrvCtrl->endObject,
M2_ifType_ethernet_csmacd,
(UCHAR *) pDrvCtrl->enetAddr,
6,
ETHERMTU,
SPEED) == ERROR)
{
return NULL;
}
/* we need to import the memory pool from a real physical driver. At least
* the WDB end driver is using it
*/
if (pDrvCtrl->unit == 0)
{
char devName[END_NAME_MAX];
int unit = 0;
bzero(devName,END_NAME_MAX);
if (bridgeNextPhyDevEndGet(devName,&unit) == ERROR)
{
printf("mirrorEndLoad: No physical device found\n");
}
else
{
END_OBJ * pEnd;
pEnd = endFindByName(devName,unit);
if (pEnd != NULL)
pDrvCtrl->endObject.pNetPool = pEnd->pNetPool;
pDrvCtrl->pPhyEnd = pEnd;
}
}
/* Mark the device ready */
/* IFF_SCAT is not defined by default */
/*
END_OBJ_READY(&pDrvCtrl->endObject,
IFF_NOTRAILERS | IP_IFF_BROADCAST | IFF_MULTICAST);
*/
END_OBJ_READY(&pDrvCtrl->endObject,
IP_IFF_BROADCAST | IP_IFF_MULTICAST);
/* Successful return */
return &pDrvCtrl->endObject;
}
/* --------------------------------------------------------------
Initialise system components used by the Atm Codelet.
-------------------------------------------------------------- */
PUBLIC IX_STATUS
ixAtmCodeletSystemInit (UINT32 numPorts,
IxAtmCodeletMode mode)
{
IX_STATUS retval = IX_SUCCESS;
#if IX_UTOPIAMODE == 1
IxAtmmPhyMode phyMode = IX_ATMM_SPHY_MODE;
#else
IxAtmmPhyMode phyMode = IX_ATMM_MPHY_MODE;
#endif
IxOsalThread dispatchtid;
IxOsalThreadAttr threadAttr;
char *pThreadName = "QMgr Dispatcher";
#ifdef __vxworks
if (endFindByName ("ixe", 0) != NULL)
{
IX_ATMCODELET_LOG ("FAIL : Driver ixe0 detected\n");
printf("FAIL : Driver ixe0 detected\n");
return IX_FAIL;
}
if (endFindByName ("ixe", 1) != NULL)
{
IX_ATMCODELET_LOG ("FAIL : Driver ixe1 detected\\n");
printf("FAIL : Driver ixe1 detected\n");
return IX_FAIL;
}
#endif
/**************** System initialisation ****************/
/*
* The IxQMgr component provides interfaces for configuring and accessing the IXP4XX
* AQM hardware queues used to facilitate communication of data between the NPEs and
* the xscale. IxAtmdAcc configures these queues. The IxQMgr component provides a
* dispatcher that will call registered callback functions will specified queue events
* occur.
*/
IX_ATMCODELET_COMP_INIT(ixQMgrInit());
ixQMgrDispatcherLoopGet(&dispatcherFunc);
/* This next section sets up how the IxQMgrDispatcher is called.
* For the purposes of demonstration under vxWorks the IxQMgrDispatcher
* is polled, and under Linux intterrupts are used.
* This offers the best performance respectively.
*/
if (IX_ATMCODELET_USE_QMGR_INT)
{
/* Running IxQMgrDispatcher from interrupt level */
/*
* Bind the IxQMgr dispatcher to interrupt. The IX_QMGR_QUELOW_GROUP group
* of queues concern ATM Transmit , Receive, Transmit Done queues
*/
retval = ixOsalIrqBind(IX_OSAL_IXP400_QM1_IRQ_LVL,
(IxOsalVoidFnVoidPtr)(dispatcherFunc),
(void *)IX_QMGR_QUELOW_GROUP);
if (IX_SUCCESS != retval)
{
IX_ATMCODELET_LOG ("Failed to bind to QM1 interrupt\n");
return IX_FAIL;
}
/*
* Bind the IxQMgr dispatcher to interrupt. The IX_QMGR_QUELOW_GROUP group
* of queues concern ATM Receive Free queues.
*/
retval = ixOsalIrqBind(IX_OSAL_IXP400_QM2_IRQ_LVL,
(IxOsalVoidFnVoidPtr)(dispatcherFunc),
(void *)IX_QMGR_QUEUPP_GROUP);
if (IX_SUCCESS != retval)
{
IX_ATMCODELET_LOG ("Failed to bind to QM2 interrupt\n");
return IX_FAIL;
}
}
else /* Running IxQMgrDispatcher from task level */
{
threadAttr.name = pThreadName;
threadAttr.stackSize = IX_ATMCODELET_QMGR_DISPATCHER_THREAD_STACK_SIZE;
threadAttr.priority = IX_ATMCODELET_QMGR_DISPATCHER_PRIORITY;
if (ixOsalThreadCreate(&dispatchtid,
&threadAttr,
(IxOsalVoidFnVoidPtr)ixAtmCodeletDispatchTask,
NULL) != IX_SUCCESS)
{
IX_ATMCODELET_LOG ("Error spawning dispatch task\n");
return IX_FAIL;
}
if(IX_SUCCESS != ixOsalThreadStart(&dispatchtid))
{
IX_ATMCODELET_LOG ("Error starting dispatch task\n");
return IX_FAIL;
}
}
/* Initialise IxNpeMh */
IX_ATMCODELET_COMP_INIT(ixNpeMhInitialize (IX_NPEMH_NPEINTERRUPTS_YES));
/* Download NPE image */
retval = ixAtmUtilsAtmImageDownload (numPorts, &phyMode);
if (retval != IX_SUCCESS)
{
IX_ATMCODELET_LOG ("NPE download failed\n");
return IX_FAIL;
}
ixAtmCodeletMode = mode;
return IX_SUCCESS;
}
/*
* Function definition: ixEthAccCodeletInit()
*
* See header file for documentation.
*/
IX_STATUS ixEthAccCodeletInit(IxEthAccCodeletOperation operationType,
IxEthAccPortId inPort,
IxEthAccPortId outPort)
{
IxEthAccPortId portId;
IxOsalThread statsPollThread;
IxOsalThreadAttr threadAttr;
threadAttr.name = "Codelet Stats";
threadAttr.stackSize = 32 * 1024; /* 32kbytes */
threadAttr.priority = 128;
#ifdef __ixp46X
/* Set the expansion bus fuse register to enable MUX for NPEA MII */
{
UINT32 expbusCtrlReg;
expbusCtrlReg = ixFeatureCtrlRead ();
expbusCtrlReg |= ((unsigned long)1<<8);
ixFeatureCtrlWrite (expbusCtrlReg);
}
#endif
/* check the component is already initialized */
if(ixEthAccCodeletInitialised)
{
printf("CodeletMain: Ethernet codelet already initialised\n");
return(IX_SUCCESS);
}
#ifdef __vxworks
/* When the ixe drivers are running, the codelets
* cannot run.
*/
for (portId = 0; portId < IX_ETHACC_CODELET_MAX_PORT; portId++)
{
if (endFindByName ("ixe", portId) != NULL)
{
printf("CodeletMain: FAIL: Driver ixe%d detected\n",portId);
return IX_FAIL;
}
}
#endif
/* Initialize NPE IMAGE ID here again to prevent confusion in multiple
* ixEthAccCodeletMain() calls with different operationType.
*/
ETH_NPEA_IMAGEID = IX_NPEDL_NPEIMAGE_NPEA_ETH_MACFILTERLEARN_HSSCHAN_COEXIST;
ETH_NPEB_IMAGEID = IX_NPEDL_NPEIMAGE_NPEB_ETH_LEARN_FILTER_SPAN_MASK_FIREWALL_VLAN_QOS_EXTMIB;
ETH_NPEC_IMAGEID = IX_NPEDL_NPEIMAGE_NPEC_ETH_LEARN_FILTER_SPAN_MASK_FIREWALL_VLAN_QOS_EXTMIB;
/* Create mutexes for thread control */
ixEthAccCodeletStatsPollTaskStop = TRUE;
ixOsalMutexInit (&ixEthAccCodeletStatsPollTaskRunning);
/* Initialise MBUF pool */
if(ixEthAccCodeletMemPoolInit() != IX_SUCCESS)
{
printf("CodeletMain: Error initialising mBuf pool\n");
return (IX_FAIL);
}
/* Check Silicon stepping */
printf("Checking Silicon stepping...\n");
if (ixFeatureCtrlDeviceRead() == IX_FEATURE_CTRL_DEVICE_TYPE_IXP42X)
{
if ((ixFeatureCtrlProductIdRead() & IX_FEATURE_CTRL_SILICON_STEPPING_MASK) ==
IX_FEATURE_CTRL_SILICON_TYPE_B0)
{
/*
* If it is B0 Silicon, we only enable port when its corresponding
* Eth Coprocessor is available.
*/
if (ixFeatureCtrlComponentCheck(IX_FEATURECTRL_ETH0) ==
IX_FEATURE_CTRL_COMPONENT_ENABLED)
{
ixEthAccCodeletHardwareExists[IX_ETH_PORT_1] = TRUE;
}
if (ixFeatureCtrlComponentCheck(IX_FEATURECTRL_ETH1) ==
IX_FEATURE_CTRL_COMPONENT_ENABLED)
{
ixEthAccCodeletHardwareExists[IX_ETH_PORT_2] = TRUE;
}
}
else if ((ixFeatureCtrlProductIdRead() & IX_FEATURE_CTRL_SILICON_STEPPING_MASK) ==
IX_FEATURE_CTRL_SILICON_TYPE_A0)
{
/*
* If it is A0 Silicon, we enable both as both Eth Coprocessors
* are available.
*/
ixEthAccCodeletHardwareExists[IX_ETH_PORT_1] = TRUE;
ixEthAccCodeletHardwareExists[IX_ETH_PORT_2] = TRUE;
}
else
{
printf("CodeletMain: Error. Operation for other silicon stepping is undefined!.\n");
return (IX_FAIL);
}
}
else if (ixFeatureCtrlDeviceRead() == IX_FEATURE_CTRL_DEVICE_TYPE_IXP46X)
{
ixEthAccCodeletHardwareExists[IX_ETH_PORT_1] = TRUE;
ixEthAccCodeletHardwareExists[IX_ETH_PORT_2] = TRUE;
#ifdef __ixp46X
ixEthAccCodeletHardwareExists[IX_ETH_PORT_3] = TRUE;
#endif
}
/***********************************************************************
*
* System initialisation done. Now initialise Access components.
*
***********************************************************************/
/* Initialise Queue Manager */
printf("Initialising Queue Manager...\n");
if (ixQMgrInit() != IX_SUCCESS)
{
printf("CodeletMain: Error initialising queue manager!\n");
return (IX_FAIL);
}
/* Start the Queue Manager dispatcher */
if(ixEthAccCodeletDispatcherStart(IX_ETH_CODELET_QMGR_DISPATCH_MODE)
!= IX_SUCCESS)
{
printf("CodeletMain: Error starting queue manager dispatch loop!\n");
return (IX_FAIL);
}
/* Initialise NPE Message handler */
printf("\nStarting NPE message handler...\n");
if(ixNpeMhInitialize(IX_NPEMH_NPEINTERRUPTS_YES) != IX_SUCCESS)
{
printf("CodeletMain: Error initialising NPE Message handler!\n");
return (IX_FAIL);
}
/* Initialise NPEs firmware */
printf ("Initialising NPEs...\n");
if (ixEthAccCodeletHardwareExists[IX_ETH_PORT_1])
{
if ((operationType == IX_ETHACC_CODELET_BRIDGE_WIFI) && (inPort == IX_ETH_PORT_1))
{
printf("CodeletMain: the 802.3 <=> 802.11 header conversion image is loaded on NPE B\n");
ETH_NPEB_IMAGEID = IX_NPEDL_NPEIMAGE_NPEB_ETH_SPAN_VLAN_QOS_HDR_CONV_EXTMIB;
}
if (IX_SUCCESS != ixNpeDlNpeInitAndStart(ETH_NPEB_IMAGEID))
{
printf ("CodeletMain: Error initialising and starting NPE B!\n");
return (IX_FAIL);
}
}
if (ixEthAccCodeletHardwareExists[IX_ETH_PORT_2])
{
if ((operationType == IX_ETHACC_CODELET_BRIDGE_WIFI) && (inPort == IX_ETH_PORT_2))
{
printf("CodeletMain: the 802.3 <=> 802.11 header conversion image is loaded on NPE C\n");
ETH_NPEC_IMAGEID = IX_NPEDL_NPEIMAGE_NPEC_ETH_SPAN_VLAN_QOS_HDR_CONV_EXTMIB;
}
if (IX_SUCCESS != ixNpeDlNpeInitAndStart(ETH_NPEC_IMAGEID))
{
printf ("CodeletMain: Error initialising and starting NPE C!\n");
return (IX_FAIL);
}
}
#ifdef __ixp46X
if (ixEthAccCodeletHardwareExists[IX_ETH_PORT_3])
{
if ((operationType == IX_ETHACC_CODELET_BRIDGE_WIFI) && (inPort == IX_ETH_PORT_3))
{
printf("CodeletMain: the 802.3 <=> 802.11 header conversion image is loaded on NPE A\n");
ETH_NPEA_IMAGEID = IX_NPEDL_NPEIMAGE_NPEA_ETH_SPAN_VLAN_QOS_HDR_CONV_EXTMIB;
}
if (IX_SUCCESS != ixNpeDlNpeInitAndStart(ETH_NPEA_IMAGEID))
{
printf ("CodeletMain: Error initialising and starting NPE A!\n");
return (IX_FAIL);
}
}
#endif
printf ("Initialising Access Layers\n");
/* Enable QoS on ethDB. This has to be done before ethAcc initialisation */
if (operationType == IX_ETHACC_CODELET_BRIDGE_QOS)
{
printf("Enabling QoS\n");
if (IX_ETH_DB_SUCCESS != ixEthDBInit())
{
printf ("CodeletMain: Error initialising EthDB\n");
return (IX_FAIL);
}
(void)ixEthDBPortInit(inPort);
if (IX_ETH_DB_SUCCESS != ixEthDBFeatureEnable(inPort,
IX_ETH_DB_VLAN_QOS,
TRUE))
{
printf("CodeletMain: Error enabling QoS on port %d\n",inPort);
return (IX_FAIL);
}
}
/* initialise ethAcc : QoS, if needed is already configured */
if (ixEthAccInit() != IX_ETH_ACC_SUCCESS)
{
printf("CodeletMain: Error initialising Ethernet access driver!\n");
return (IX_FAIL);
}
/***********************************************************************
*
* Access components initialisation done. Now initialize the ports
*
***********************************************************************/
/* Configure all available ports */
for (portId = 0; portId < IX_ETHACC_CODELET_MAX_PORT; portId++)
{
if (ixEthAccCodeletHardwareExists[portId])
{
if(ixEthAccCodeletPortInit(portId) != IX_ETH_ACC_SUCCESS)
{
printf("CodeletMain: Error setup port %u\n",
portId);
return (IX_FAIL);
}
}
}
/* Find and initialise all available PHYs */
printf ("Discover and reset the PHYs...\n");
if(ixEthAccCodeletPhyInit() != IX_SUCCESS)
{
printf("CodeletMain: Error initialising Ethernet phy(s)!\n");
return (IX_FAIL);
}
/***********************************************************************
*
* PortInitialization done. Now start the codelet features
*
***********************************************************************/
/* starts ethDB maintenance running from a different task */
if (ixEthAccCodeletDBMaintenanceStart()
!= IX_SUCCESS)
{
printf("CodeletMain: Error spawning DB maintenance task\n");
return (IX_FAIL);
}
/* Starts the traffic display (in a different task) this is initially
* set to FALSE in order to allow the traffic stats to start only
* once traffic is started to be received
*/
ixEthAccCodeletTrafficPollEnabled = FALSE;
if (ixOsalThreadCreate(&statsPollThread,
&threadAttr,
(IxOsalVoidFnVoidPtr) ixEthAccCodeletStatsPollTask,
NULL)
!= IX_SUCCESS)
{
printf("CodeletMain: Error spawning stats task\n");
return (IX_FAIL);
}
/* Start the thread */
if (ixOsalThreadStart(&statsPollThread) != IX_SUCCESS)
{
printf("CodeletMain: Error failed to start the stats thread\n");
return IX_FAIL;
}
ixEthAccCodeletInitialised = TRUE;
return (IX_SUCCESS);
}
static void *
sal_if_config(char *pfx, int u, char *if_name, int if_unit,
char *if_host, sal_mac_addr_t if_mac, int if_vlan,
sal_ip_addr_t if_ip, sal_ip_addr_t if_netmask)
/*
* Function: sal_if_config
* Purpose: Configure a network device (load driver and start)
* Parameters: pfx - string printed for error messages.
* name - device name ("sn" for "sn0")
* unit - unint number (0 for "sn0")
* Returns: NULL - failed
* !NULL - opaque pointer.
*/
{
#ifdef INCLUDE_DRIVERS
extern END_OBJ *socend_load(char *is, void *);
char if_name_str[END_NAME_MAX];
char if_init_str[64];
char if_ip_str[SAL_IPADDR_STR_LEN];
char if_mac_str[SAL_MACADDR_STR_LEN];
END_OBJ *eo; /* END object */
#if VX_VERSION == 64 || VX_VERSION == 65 || VX_VERSION == 66 || VX_VERSION == 68
#else
M2_INTERFACETBL m2;
#endif
#if VX_VERSION == 66 || VX_VERSION == 68
char if_cfg_str[256];
char if_mask_str[SAL_IPADDR_STR_LEN];
#endif
SAL_MAP_NETUNIT(if_unit);
LOG_INFO(BSL_LS_APPL_END,
(BSL_META_U(u,
"%s: sal_if_config *** if_name=%s if_unit=%d\n"),
pfx, if_name, if_unit));
/* Build vxWorks device name */
sprintf(if_name_str, "%s%d", if_name, if_unit);
/* Check to see if end device already loaded */
if (NULL == (eo = endFindByName(if_name, if_unit))) {
LOG_INFO(BSL_LS_APPL_END,
(BSL_META_U(u,
"%s: End device not loaded: if %s if_unit %d\n"),
pfx, if_name, if_unit));
format_macaddr(if_mac_str, if_mac);
sprintf(if_init_str, "%d:%s:%d", u, if_mac_str, if_vlan);
if (NULL == (eo = muxDevLoad(if_unit, socend_load,
if_init_str, 0, NULL))) {
cli_out("%s: muxDevLoad failed: Unit %d\n", pfx, u);
return(NULL);
}
LOG_INFO(BSL_LS_APPL_END,
(BSL_META_U(u,
"%s: muxDevLoad successful: 0x%x\n"), pfx, (int)eo));
if (ERROR == muxDevStart(eo)) {
cli_out("%s: muxDevStart failed: Unit %d\n", pfx, u);
(void)muxDevUnload(if_name, if_unit);
return(NULL);
}
LOG_INFO(BSL_LS_APPL_END,
(BSL_META_U(u,
"%s: muxDevStart successful: 0x%x\n"), pfx, (int)eo));
}
#if VX_VERSION == 64 || VX_VERSION == 65 || VX_VERSION == 66 || VX_VERSION == 68
#else
/*
* Configure device....
*/
if (OK != muxIoctl(eo, EIOCGMIB2, (caddr_t)&m2)) {
cli_out("%s: muxIoctl failed: Unit %d\n", pfx, u);
(void)sal_if_do_deconfig(pfx, eo, if_name, if_unit);
return(NULL);
}
LOG_INFO(BSL_LS_APPL_END,
(BSL_META_U(u,
"%s: muxIOCTL successful: Unit %d\n"), pfx, u));
#endif /* VX_VERSION */
/*
* Setup interface in following order:
* [1] Attach TCP/IP to END device
* [2] Set Netmask (if non-0)
* [3] Set IP address
* [4] Set host name associated with interface (if given).
*/
if (OK != ipAttach(if_unit, if_name)) { /* [1] */
cli_out("%s: ipAttach failed: Unit %d (interface %s)\n",
pfx, u, if_name_str);
(void)sal_if_do_deconfig(pfx, eo, if_name, if_unit);
return(NULL);
}
LOG_INFO(BSL_LS_APPL_END,
(BSL_META_U(u,
"%s: ipAttach successful: if_name %s if_unit %d\n"),
pfx, if_name, if_unit));
#if VX_VERSION == 66 || VX_VERSION == 68
format_ipaddr(if_ip_str, if_ip); /* [3] */
if (0 != if_netmask) { /* [2] */
format_ipaddr(if_mask_str, if_netmask); /* [3] */
}
sprintf(if_cfg_str, "%s up inet add %s netmask %s", if_name_str, if_ip_str, if_mask_str);
if (ERROR == ifconfig(if_cfg_str)) {
cli_out("%s: ifconfig failed: %s%d: %s\n",
pfx, if_name, if_unit, if_cfg_str);
(void)sal_if_do_deconfig(pfx, eo, if_name, if_unit);
return(NULL);
}
LOG_INFO(BSL_LS_APPL_END,
(BSL_META_U(u,
"%s: ifconfig: if %s, cfg str %s\n"),
pfx, if_name_str, if_cfg_str));
#else
if (0 != if_netmask) { /* [2] */
#ifdef VXWORKS_NETWORK_STACK_6_5
#ifdef VXWORKS_NETWORK_STACK_FIXME_SHOW
#error VXWORKS_NETWORK_STACK_FIXME
#endif
#else
if (ERROR == ifMaskSet(if_name_str, if_netmask)) {
cli_out("%s: ifMaskSet failed: %s 0x%x\n",
pfx, if_name_str, if_netmask);
(void)sal_if_do_deconfig(pfx, eo, if_name, if_unit);
return(NULL);
}
#endif
}
format_ipaddr(if_ip_str, if_ip); /* [3] */
#ifdef VXWORKS_NETWORK_STACK_6_5
#ifdef VXWORKS_NETWORK_STACK_FIXME_SHOW
#error VXWORKS_NETWORK_STACK_FIXME
#endif
#else
if (OK != ifAddrSet(if_name_str, (char *)if_ip_str)) {
cli_out("%s: ifAddrSet failed: %s <-- %s\n", pfx, if_name, if_ip_str);
(void)sal_if_do_deconfig(pfx, eo, if_name, if_unit);
return(NULL);
}
#endif
LOG_INFO(BSL_LS_APPL_END,
(BSL_META_U(u,
"%s: ifAddrSet successful: if %s\n"), pfx, if_name_str));
#endif
if (if_host && *if_host) { /* [4] */
LOG_INFO(BSL_LS_APPL_END,
(BSL_META_U(u,
"%s: Setting hostname: %s\n"), pfx, if_host));
if (OK != hostAdd (if_host, if_ip_str)) {
cli_out("%s: Warning: Failed to set hostname %s for device %s\n",
pfx, if_host, if_name_str);
}
}
return((void *)eo); /* This is our opaque value */
#else /* !defined(INCLUDE_DRIVERS) */
cli_out("sal_if_config: Interface configuration not compiled in\n");
return(NULL);
#endif /* !defined(INCLUDE_DRIVERS) */
}
STATUS wdbEndPktDevInit
(
WDB_END_PKT_DEV * pPktDev, /* device structure to init */
void (*stackRcv) (), /* receive packet callback (udpRcv) */
char * pDevice, /* Device (ln, ie, etc.) that we */
/* wish to bind to. */
int unit /* unit number (0, 1, etc.) */
)
{
END_OBJ * pEnd;
char ifname [20];
char inetAdrs [24];
/* initialize the wdbDrvIf field with driver info */
pPktDev->wdbDrvIf.mode = WDB_COMM_MODE_POLL| WDB_COMM_MODE_INT;
pPktDev->wdbDrvIf.mtu = WDB_END_PKT_MTU;
pPktDev->wdbDrvIf.stackRcv = stackRcv; /* udpRcv */
pPktDev->wdbDrvIf.devId = (WDB_END_PKT_DEV *)pPktDev;
pPktDev->wdbDrvIf.pollRtn = wdbEndPoll;
pPktDev->wdbDrvIf.pktTxRtn = wdbEndTx;
pPktDev->wdbDrvIf.modeSetRtn = wdbEndModeSet;
/* initialize the device specific fields in the driver structure */
pPktDev->inputBusy = FALSE;
pPktDev->outputBusy = FALSE;
#ifndef STANDALONE_AGENT
/*
* Here is where we bind to the lower layer.
* We do not, as yet, provide for a shutdown routine, but perhaps
* later.
* We are a promiscous protocol.
* The Int routine a fakeout. Interrupts are handled by the lower
* layer but we use a similar mechanism to check packets for
* the proper type and hand them off to the WDB agent from
* the "interrupt" routine if it's appropriate to do so.
*/
#ifdef WDB_NPT_CAPABLE
if (muxTkDrvCheck (pDevice) == TRUE)
{
if ((pPktDev->pCookie = muxTkBind (pDevice, unit, wdbNptInt,
(FUNCPTR)wdbNptShutdown,
NULL, NULL, MUX_PROTO_SNARF,
"Wind Debug Agent",
NULL, NULL, NULL)) == NULL)
{
if (wdbEndDebug)
logMsg ("Could not bind to NPT Device %s, loading...\n",
(int)pDevice, 2, 3, 4, 5, 6);
return (ERROR);
}
}
else /* END */
{
if (wdbEndDebug)
logMsg ("Not a NPT device! %s\n", (int)pDevice,2,3,4,5,6);
#endif /* WDB_NPT_CAPABLE */
if ((pPktDev->pCookie = muxBind (pDevice, unit, wdbEndInt, NULL,
NULL, NULL, MUX_PROTO_SNARF,
"Wind Debug Agent", NULL)) == NULL)
{
if (wdbEndDebug)
logMsg ("Could not bind to %s, loading...\n",
(int)pDevice, 2, 3, 4, 5, 6);
return (ERROR);
}
#ifdef WDB_NPT_CAPABLE
}
#endif /* WDB_NPT_CAPABLE */
pEnd = PCOOKIE_TO_ENDOBJ(pPktDev->pCookie);
#else /* STANDALONE_AGENT */
/*
* for standalone agent, we simply need to get the address of the
* of the device.
*/
if ((pPktDev->pCookie = endFindByName (pDevice, unit)) == NULL)
return (ERROR);
#endif /* STANDALONE_AGENT */
/* build interface name */
sprintf (ifname, "%s%d", pDevice, unit);
/* get interface inet address */
if (ifAddrGet (ifname, inetAdrs) != OK)
{
if (wdbEndDebug)
logMsg ("Could not get inet address of %s interface...\n",
(int) ifname, 2, 3, 4, 5, 6);
return (ERROR);
}
pPktDev->ipAddr.s_addr = inet_addr (inetAdrs);
pEnd = PCOOKIE_TO_ENDOBJ(pPktDev->pCookie);
if ((pInPkt = memalign (4,pEnd->mib2Tbl.ifMtu)) == NULL)
return (ERROR);
if ((pPktDev->pInBlk = wdbEndMblkClGet (pEnd, pEnd->mib2Tbl.ifMtu))
== NULL)
return (ERROR);
pPktDev->pInBlk->mBlkHdr.mFlags |= M_PKTHDR;
if ((pPktDev->pOutBlk = wdbEndMblkClGet (pEnd, pEnd->mib2Tbl.ifMtu))
== NULL)
return (ERROR);
pPktDev->pOutBlk->mBlkHdr.mFlags |= M_PKTHDR;
if ((pPktDev->lastHAddr = wdbEndMblkClGet (pEnd, pEnd->mib2Tbl.ifMtu))
== NULL)
return (ERROR);
if ((pPktDev->srcAddr = wdbEndMblkClGet (pEnd, pEnd->mib2Tbl.ifMtu))
== NULL)
return (ERROR);
/* Set the length to the size of the buffer just allocated. */
pPktDev->pInBlk->mBlkHdr.mLen = pPktDev->pInBlk->pClBlk->clSize;
pPktDev->lastHAddr->mBlkHdr.mLen = pEnd->mib2Tbl.ifPhysAddress.addrLength;
memset (pPktDev->lastHAddr->mBlkHdr.mData, 0xff,
pPktDev->lastHAddr->mBlkHdr.mLen);
/*
* Create a source address structure so we can send fully
* qualified packets.
*/
muxIoctl (pPktDev->pCookie, EIOCGADDR, pPktDev->srcAddr->mBlkHdr.mData);
pEndPktDev = pPktDev;
return (OK);
}
