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windows-nt/Source/XPSP1/NT/net/wlbs/api/params.cpp

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/*++
Copyright(c) 1998,99 Microsoft Corporation
Module Name:
params.cpp
Abstract:
Windows Load Balancing Service (WLBS)
API - registry parameters support
Author:
kyrilf
--*/
#include "precomp.h"
#include "cluster.h"
#include "control.h"
#include "param.h"
#include "debug.h"
#include "params.tmh" // for event tracing
extern HINSTANCE g_hInstCtrl; // Global variable for the dll instance, defined in control.cpp
HKEY WINAPI RegOpenWlbsSetting(const GUID& AdapterGuid, bool fReadOnly)
{
WCHAR reg_path [PARAMS_MAX_STRING_SIZE];
WCHAR szAdapterGuid[128];
StringFromGUID2(AdapterGuid, szAdapterGuid,
sizeof(szAdapterGuid)/sizeof(szAdapterGuid[0]) );
swprintf (reg_path, L"SYSTEM\\CurrentControlSet\\Services\\WLBS\\Parameters\\Interface\\%s",
szAdapterGuid);
HKEY hKey = NULL;
RegOpenKeyEx (HKEY_LOCAL_MACHINE, reg_path, 0L,
fReadOnly? KEY_READ : KEY_WRITE, & hKey);
return hKey;
}
//+----------------------------------------------------------------------------
//
// Function: TransformOldPortRulesToNew
//
// Description: Transforms port rules contained in structures without the virtual
// ip address into the new ones that do
//
// Arguments: Array of Old Port Rules, Array of New Port Rules, Length of Array
//
// Returns: void
//
// History: KarthicN, Created on 3/19/01
//
//+----------------------------------------------------------------------------
void TransformOldPortRulesToNew(PWLBS_OLD_PORT_RULE p_old_port_rules,
PWLBS_PORT_RULE p_new_port_rules,
DWORD num_rules)
{
if (num_rules == 0)
return;
while(num_rules--)
{
lstrcpy(p_new_port_rules->virtual_ip_addr, CVY_DEF_ALL_VIP);
p_new_port_rules->start_port = p_old_port_rules->start_port;
p_new_port_rules->end_port = p_old_port_rules->end_port;
#ifdef WLBSAPI_INTERNAL_ONLY
p_new_port_rules->code = p_old_port_rules->code;
#else
p_new_port_rules->Private1 = p_old_port_rules->Private1;
#endif
p_new_port_rules->mode = p_old_port_rules->mode;
p_new_port_rules->protocol = p_old_port_rules->protocol;
#ifdef WLBSAPI_INTERNAL_ONLY
p_new_port_rules->valid = p_old_port_rules->valid;
#else
p_new_port_rules->Private2 = p_old_port_rules->Private2;
#endif
switch (p_new_port_rules->mode)
{
case CVY_MULTI :
p_new_port_rules->mode_data.multi.equal_load = p_old_port_rules->mode_data.multi.equal_load;
p_new_port_rules->mode_data.multi.affinity = p_old_port_rules->mode_data.multi.affinity;
p_new_port_rules->mode_data.multi.load = p_old_port_rules->mode_data.multi.load;
break;
case CVY_SINGLE :
p_new_port_rules->mode_data.single.priority = p_old_port_rules->mode_data.single.priority;
break;
default:
break;
}
p_old_port_rules++;
p_new_port_rules++;
}
return;
}
/* Open the bi-directional affinity teaming registry key for a specified adapter. */
HKEY WINAPI RegOpenWlbsBDASettings (const GUID& AdapterGuid, bool fReadOnly) {
WCHAR reg_path[PARAMS_MAX_STRING_SIZE];
WCHAR szAdapterGuid[128];
HKEY hKey = NULL;
DWORD dwRet;
StringFromGUID2(AdapterGuid, szAdapterGuid, sizeof(szAdapterGuid)/sizeof(szAdapterGuid[0]));
swprintf(reg_path, L"SYSTEM\\CurrentControlSet\\Services\\WLBS\\Parameters\\Interface\\%ls\\%ls", szAdapterGuid, CVY_NAME_BDA_TEAMING);
dwRet = RegOpenKeyEx(HKEY_LOCAL_MACHINE, reg_path, 0L, fReadOnly ? KEY_READ : KEY_WRITE, &hKey);
if (dwRet != ERROR_SUCCESS) {
LOG_ERROR2("RegOpenWlbsBDASettings for %ls failed with error 0x%08x", szAdapterGuid, dwRet);
return NULL;
}
return hKey;
}
/* Create the bi-directional affinity teaming registry key for a specified adapter. */
HKEY WINAPI RegCreateWlbsBDASettings (const GUID& AdapterGuid) {
WCHAR reg_path[PARAMS_MAX_STRING_SIZE];
WCHAR szAdapterGuid[128];
HKEY hKey = NULL;
DWORD dwRet;
DWORD disp;
StringFromGUID2(AdapterGuid, szAdapterGuid, sizeof(szAdapterGuid)/sizeof(szAdapterGuid[0]));
swprintf(reg_path, L"SYSTEM\\CurrentControlSet\\Services\\WLBS\\Parameters\\Interface\\%ls\\%ls", szAdapterGuid, CVY_NAME_BDA_TEAMING);
dwRet = RegCreateKeyEx(HKEY_LOCAL_MACHINE, reg_path, 0L, L"", REG_OPTION_NON_VOLATILE, KEY_ALL_ACCESS, NULL, &hKey, &disp);
if (dwRet != ERROR_SUCCESS) {
LOG_ERROR2("RegCreateWlbsBDASettings for %ls failed with error 0x%08x", szAdapterGuid, dwRet);
return NULL;
}
return hKey;
}
/* Delete the bi-directional affinity teaming registry key for a specified adapter. */
bool WINAPI RegDeleteWlbsBDASettings (const GUID& AdapterGuid) {
WCHAR reg_path[PARAMS_MAX_STRING_SIZE];
WCHAR szAdapterGuid[128];
DWORD dwRet;
StringFromGUID2(AdapterGuid, szAdapterGuid, sizeof(szAdapterGuid)/sizeof(szAdapterGuid[0]));
swprintf(reg_path, L"SYSTEM\\CurrentControlSet\\Services\\WLBS\\Parameters\\Interface\\%ls\\%ls", szAdapterGuid, CVY_NAME_BDA_TEAMING);
dwRet = RegDeleteKey(HKEY_LOCAL_MACHINE, reg_path);
if (dwRet != ERROR_SUCCESS) {
LOG_ERROR2("RegDeleteWlbsBDASettings for %ls failed with error 0x%08x", szAdapterGuid, dwRet);
return FALSE;
}
return TRUE;
}
//+----------------------------------------------------------------------------
//
// Function: ParamReadReg
//
// Description: Read cluster settings from registry
//
// Arguments: const GUID& AdapterGuid - IN, Adapter guid
// PWLBS_REG_PARAMS paramp - OUT Registry parameters
// bool fUpgradeFromWin2k, whether this is a upgrade from Win2k
// or earlier version
//
// Returns: bool - true if succeeded
//
// History: fengsun Created Header 3/9/00
//
//+----------------------------------------------------------------------------
bool WINAPI ParamReadReg(const GUID& AdapterGuid,
PWLBS_REG_PARAMS paramp, bool fUpgradeFromWin2k, bool *pfPortRulesInBinaryForm)
{
HKEY bda_key = NULL;
HKEY key;
LONG status;
DWORD type;
DWORD size;
ULONG i, code;
WLBS_PORT_RULE* rp;
WCHAR reg_path [PARAMS_MAX_STRING_SIZE];
memset (paramp, 0, sizeof (*paramp));
//
// For win2k or NT4, only one cluster is supported, there is no per adapter settings
//
if (fUpgradeFromWin2k)
{
swprintf (reg_path, L"SYSTEM\\CurrentControlSet\\Services\\WLBS\\Parameters");
status = RegOpenKeyEx (HKEY_LOCAL_MACHINE, reg_path, 0L,
KEY_QUERY_VALUE, & key);
if (status != ERROR_SUCCESS)
{
return false;
}
}
else
{
key = RegOpenWlbsSetting(AdapterGuid, true);
if (key == NULL)
{
return false;
}
}
swprintf (reg_path, L"%ls", CVY_NAME_INSTALL_DATE);
size = sizeof (paramp -> install_date);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> install_date, & size);
if (status != ERROR_SUCCESS)
paramp -> install_date = 0;
swprintf (reg_path, L"%ls", CVY_NAME_VERIFY_DATE);
size = sizeof (paramp -> i_verify_date);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> i_verify_date, & size);
if (status != ERROR_SUCCESS)
paramp -> i_verify_date = 0;
swprintf (reg_path, L"%ls", CVY_NAME_VERSION);
size = sizeof (paramp -> i_parms_ver);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> i_parms_ver, & size);
if (status != ERROR_SUCCESS)
paramp -> i_parms_ver = CVY_DEF_VERSION;
swprintf (reg_path, L"%ls", CVY_NAME_VIRTUAL_NIC);
size = sizeof (paramp -> i_virtual_nic_name);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) paramp -> i_virtual_nic_name, & size);
if (status != ERROR_SUCCESS)
paramp -> i_virtual_nic_name [0] = 0;
/*
swprintf (reg_path, L"%ls", CVY_NAME_CLUSTER_NIC);
size = sizeof (paramp -> cluster_nic_name);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) paramp -> cluster_nic_name, & size);
if (status != ERROR_SUCCESS)
paramp -> cluster_nic_name [0] = 0;
*/
swprintf (reg_path, L"%ls", CVY_NAME_HOST_PRIORITY);
size = sizeof (paramp -> host_priority);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> host_priority, & size);
if (status != ERROR_SUCCESS)
paramp -> host_priority = CVY_DEF_HOST_PRIORITY;
swprintf (reg_path, L"%ls", CVY_NAME_CLUSTER_MODE);
size = sizeof (paramp -> cluster_mode);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> cluster_mode, & size);
if (status != ERROR_SUCCESS)
paramp -> cluster_mode = CVY_DEF_CLUSTER_MODE;
swprintf (reg_path, L"%ls", CVY_NAME_NETWORK_ADDR);
size = sizeof (paramp -> cl_mac_addr);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) paramp -> cl_mac_addr, & size);
if (status != ERROR_SUCCESS)
swprintf (paramp -> cl_mac_addr, L"%ls", CVY_DEF_NETWORK_ADDR);
swprintf (reg_path, L"%ls", CVY_NAME_CL_IP_ADDR);
size = sizeof (paramp -> cl_ip_addr);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) paramp -> cl_ip_addr, & size);
if (status != ERROR_SUCCESS)
swprintf (paramp -> cl_ip_addr, L"%ls", CVY_DEF_CL_IP_ADDR);
swprintf (reg_path, L"%ls", CVY_NAME_CL_NET_MASK);
size = sizeof (paramp -> cl_net_mask);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) paramp -> cl_net_mask, & size);
if (status != ERROR_SUCCESS)
swprintf (paramp -> cl_net_mask, L"%ls", CVY_DEF_CL_NET_MASK);
swprintf (reg_path, L"%ls", CVY_NAME_DED_IP_ADDR);
size = sizeof (paramp -> ded_ip_addr);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) paramp -> ded_ip_addr, & size);
if (status != ERROR_SUCCESS)
swprintf (paramp -> ded_ip_addr, L"%ls", CVY_DEF_DED_IP_ADDR);
swprintf (reg_path, L"%ls", CVY_NAME_DED_NET_MASK);
size = sizeof (paramp -> ded_net_mask);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) paramp -> ded_net_mask, & size);
if (status != ERROR_SUCCESS)
swprintf (paramp -> ded_net_mask, L"%ls", CVY_DEF_DED_NET_MASK);
swprintf (reg_path, L"%ls", CVY_NAME_DOMAIN_NAME);
size = sizeof (paramp -> domain_name);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) paramp -> domain_name, & size);
if (status != ERROR_SUCCESS)
swprintf (paramp -> domain_name, L"%ls", CVY_DEF_DOMAIN_NAME);
swprintf (reg_path, L"%ls", CVY_NAME_ALIVE_PERIOD);
size = sizeof (paramp -> alive_period);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> alive_period, & size);
if (status != ERROR_SUCCESS)
paramp -> alive_period = CVY_DEF_ALIVE_PERIOD;
swprintf (reg_path, L"%ls", CVY_NAME_ALIVE_TOLER);
size = sizeof (paramp -> alive_tolerance);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> alive_tolerance, & size);
if (status != ERROR_SUCCESS)
paramp -> alive_tolerance = CVY_DEF_ALIVE_TOLER;
swprintf (reg_path, L"%ls", CVY_NAME_NUM_ACTIONS);
size = sizeof (paramp -> num_actions);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> num_actions, & size);
if (status != ERROR_SUCCESS)
paramp -> num_actions = CVY_DEF_NUM_ACTIONS;
swprintf (reg_path, L"%ls", CVY_NAME_NUM_PACKETS);
size = sizeof (paramp -> num_packets);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> num_packets, & size);
if (status != ERROR_SUCCESS)
paramp -> num_packets = CVY_DEF_NUM_PACKETS;
swprintf (reg_path, L"%ls", CVY_NAME_NUM_SEND_MSGS);
size = sizeof (paramp -> num_send_msgs);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> num_send_msgs, & size);
if (status != ERROR_SUCCESS)
paramp -> num_send_msgs = CVY_DEF_NUM_SEND_MSGS;
swprintf (reg_path, L"%ls", CVY_NAME_DSCR_PER_ALLOC);
size = sizeof (paramp -> dscr_per_alloc);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> dscr_per_alloc, & size);
if (status != ERROR_SUCCESS)
paramp -> dscr_per_alloc = CVY_DEF_DSCR_PER_ALLOC;
swprintf (reg_path, L"%ls", CVY_NAME_MAX_DSCR_ALLOCS);
size = sizeof (paramp -> max_dscr_allocs);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> max_dscr_allocs, & size);
if (status != ERROR_SUCCESS)
paramp -> max_dscr_allocs = CVY_DEF_MAX_DSCR_ALLOCS;
swprintf (reg_path, L"%ls", CVY_NAME_SCALE_CLIENT);
size = sizeof (paramp -> i_scale_client);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> i_scale_client, & size);
if (status != ERROR_SUCCESS)
paramp -> i_scale_client = CVY_DEF_SCALE_CLIENT;
swprintf (reg_path, L"%ls", CVY_NAME_CLEANUP_DELAY);
size = sizeof (paramp -> i_cleanup_delay);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> i_cleanup_delay, & size);
if (status != ERROR_SUCCESS)
paramp -> i_cleanup_delay = CVY_DEF_CLEANUP_DELAY;
/* V1.1.1 */
swprintf (reg_path, L"%ls", CVY_NAME_NBT_SUPPORT);
size = sizeof (paramp -> i_nbt_support);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> i_nbt_support, & size);
if (status != ERROR_SUCCESS)
paramp -> i_nbt_support = CVY_DEF_NBT_SUPPORT;
/* V1.3b */
swprintf (reg_path, L"%ls", CVY_NAME_MCAST_SUPPORT);
size = sizeof (paramp -> mcast_support);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> mcast_support, & size);
if (status != ERROR_SUCCESS)
paramp -> mcast_support = CVY_DEF_MCAST_SUPPORT;
swprintf (reg_path, L"%ls", CVY_NAME_MCAST_SPOOF);
size = sizeof (paramp -> i_mcast_spoof);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> i_mcast_spoof, & size);
if (status != ERROR_SUCCESS)
paramp -> i_mcast_spoof = CVY_DEF_MCAST_SPOOF;
swprintf (reg_path, L"%ls", CVY_NAME_MASK_SRC_MAC);
size = sizeof (paramp -> mask_src_mac);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> mask_src_mac, & size);
if (status != ERROR_SUCCESS)
paramp -> mask_src_mac = CVY_DEF_MASK_SRC_MAC;
swprintf (reg_path, L"%ls", CVY_NAME_NETMON_ALIVE);
size = sizeof (paramp -> i_netmon_alive);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> i_netmon_alive, & size);
if (status != ERROR_SUCCESS)
paramp -> i_netmon_alive = CVY_DEF_NETMON_ALIVE;
swprintf (reg_path, L"%ls", CVY_NAME_EFFECTIVE_VERSION);
size = sizeof (paramp -> i_effective_version);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> i_effective_version, & size);
if (status != ERROR_SUCCESS)
paramp -> i_effective_version = CVY_NT40_VERSION_FULL;
swprintf (reg_path, L"%ls", CVY_NAME_IP_CHG_DELAY);
size = sizeof (paramp -> i_ip_chg_delay);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> i_ip_chg_delay, & size);
if (status != ERROR_SUCCESS)
paramp -> i_ip_chg_delay = CVY_DEF_IP_CHG_DELAY;
swprintf (reg_path, L"%ls", CVY_NAME_CONVERT_MAC);
size = sizeof (paramp -> i_convert_mac);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> i_convert_mac, & size);
if (status != ERROR_SUCCESS)
paramp -> i_convert_mac = CVY_DEF_CONVERT_MAC;
swprintf (reg_path, L"%ls", CVY_NAME_NUM_RULES);
size = sizeof (paramp -> i_num_rules);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> i_num_rules, & size);
if (status != ERROR_SUCCESS)
paramp -> i_num_rules = 0;
WLBS_OLD_PORT_RULE old_port_rules [WLBS_MAX_RULES];
HKEY subkey;
//
// Attempt to read port rules from new location/format. If it is an upgrade from Win2k,
// it will not be present in the new location.
//
if (!fUpgradeFromWin2k
&& (RegOpenKeyEx (key, CVY_NAME_PORT_RULES, 0L, KEY_QUERY_VALUE, & subkey) == ERROR_SUCCESS))
{
DWORD idx = 1, num_rules = paramp -> i_num_rules, correct_rules = 0;
WLBS_PORT_RULE *port_rule;
if (pfPortRulesInBinaryForm)
*pfPortRulesInBinaryForm = false;
port_rule = paramp -> i_port_rules;
while(idx <= num_rules)
{
HKEY rule_key;
wchar_t idx_str[8];
// Open the per port-rule key "1", "2", "3", ...etc
if (RegOpenKeyEx (subkey, _itow(idx, idx_str, 10), 0L, KEY_QUERY_VALUE, & rule_key) != ERROR_SUCCESS)
{
idx++;
continue;
}
swprintf (reg_path, L"%ls", CVY_NAME_VIP);
size = sizeof (port_rule -> virtual_ip_addr);
status = RegQueryValueEx (rule_key, reg_path, 0L, & type, (LPBYTE) &port_rule->virtual_ip_addr, & size);
if (status != ERROR_SUCCESS)
{
idx++;
continue;
}
swprintf (reg_path, L"%ls", CVY_NAME_START_PORT);
size = sizeof (port_rule ->start_port );
status = RegQueryValueEx (rule_key, reg_path, 0L, & type, (LPBYTE) &port_rule->start_port, & size);
if (status != ERROR_SUCCESS)
{
idx++;
continue;
}
swprintf (reg_path, L"%ls", CVY_NAME_END_PORT);
size = sizeof (port_rule ->end_port );
status = RegQueryValueEx (rule_key, reg_path, 0L, & type, (LPBYTE) &port_rule->end_port, & size);
if (status != ERROR_SUCCESS)
{
idx++;
continue;
}
swprintf (reg_path, L"%ls", CVY_NAME_CODE);
size = sizeof (port_rule ->code);
status = RegQueryValueEx (rule_key, reg_path, 0L, & type, (LPBYTE) &port_rule->code, & size);
if (status != ERROR_SUCCESS)
{
idx++;
continue;
}
swprintf (reg_path, L"%ls", CVY_NAME_MODE);
size = sizeof (port_rule->mode);
status = RegQueryValueEx (rule_key, reg_path, 0L, & type, (LPBYTE) &port_rule->mode, & size);
if (status != ERROR_SUCCESS)
{
idx++;
continue;
}
swprintf (reg_path, L"%ls", CVY_NAME_PROTOCOL);
size = sizeof (port_rule->protocol);
status = RegQueryValueEx (rule_key, reg_path, 0L, & type, (LPBYTE) &port_rule->protocol, & size);
if (status != ERROR_SUCCESS)
{
idx++;
continue;
}
port_rule->valid = true;
DWORD EqualLoad, Affinity;
switch (port_rule->mode)
{
case CVY_MULTI :
swprintf (reg_path, L"%ls", CVY_NAME_EQUAL_LOAD );
size = sizeof (EqualLoad);
status = RegQueryValueEx (rule_key, reg_path, 0L, & type, (LPBYTE) &EqualLoad, & size);
if (status != ERROR_SUCCESS)
{
idx++;
continue;
}
else
{
port_rule->mode_data.multi.equal_load = (WORD) EqualLoad;
}
swprintf (reg_path, L"%ls", CVY_NAME_AFFINITY );
size = sizeof (Affinity);
status = RegQueryValueEx (rule_key, reg_path, 0L, & type, (LPBYTE) &Affinity, & size);
if (status != ERROR_SUCCESS)
{
idx++;
continue;
}
else
{
port_rule->mode_data.multi.affinity = (WORD) Affinity;
}
swprintf (reg_path, L"%ls", CVY_NAME_LOAD);
size = sizeof (port_rule->mode_data.multi.load);
status = RegQueryValueEx (rule_key, reg_path, 0L, & type, (LPBYTE) &(port_rule->mode_data.multi.load), & size);
if (status != ERROR_SUCCESS)
{
idx++;
continue;
}
break;
case CVY_SINGLE :
swprintf (reg_path, L"%ls", CVY_NAME_PRIORITY);
size = sizeof (port_rule->mode_data.single.priority);
status = RegQueryValueEx (rule_key, reg_path, 0L, & type, (LPBYTE) &(port_rule->mode_data.single.priority), & size);
if (status != ERROR_SUCCESS)
{
idx++;
continue;
}
break;
default:
break;
}
port_rule++;
idx++;
correct_rules++;
}
// Discard those rules on which we encountered some error
if (paramp->i_num_rules != correct_rules)
{
paramp -> i_num_rules = correct_rules;
}
}
else // Port Rules in Binary Format
{
if (pfPortRulesInBinaryForm)
*pfPortRulesInBinaryForm = true;
swprintf (reg_path, L"%ls", CVY_NAME_OLD_PORT_RULES);
size = sizeof (old_port_rules);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) old_port_rules, & size);
if (status != ERROR_SUCCESS ||
size % sizeof (WLBS_OLD_PORT_RULE) != 0 ||
paramp -> i_num_rules != size / sizeof (WLBS_OLD_PORT_RULE))
{
ZeroMemory(paramp -> i_port_rules, sizeof(paramp -> i_port_rules));
paramp -> i_num_rules = 0;
}
else // Convert the port rules to new format
{
if (paramp -> i_parms_ver > 3)
{
TransformOldPortRulesToNew(old_port_rules, paramp -> i_port_rules, paramp -> i_num_rules);
}
}
}
swprintf (reg_path, L"%ls", CVY_NAME_LICENSE_KEY);
size = sizeof (paramp -> i_license_key);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) paramp -> i_license_key, & size);
if (status != ERROR_SUCCESS)
swprintf (paramp -> i_license_key, L"%ls", CVY_DEF_LICENSE_KEY);
swprintf (reg_path, L"%ls", CVY_NAME_RMT_PASSWORD);
size = sizeof (paramp -> i_rmt_password);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> i_rmt_password, & size);
if (status != ERROR_SUCCESS)
paramp -> i_rmt_password = CVY_DEF_RMT_PASSWORD;
swprintf (reg_path, L"%ls", CVY_NAME_RCT_PASSWORD);
size = sizeof (paramp -> i_rct_password);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> i_rct_password, & size);
if (status != ERROR_SUCCESS)
paramp -> i_rct_password = CVY_DEF_RCT_PASSWORD;
swprintf (reg_path, L"%ls", CVY_NAME_RCT_PORT);
size = sizeof (paramp -> rct_port);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> rct_port, & size);
if (status != ERROR_SUCCESS)
paramp -> rct_port = CVY_DEF_RCT_PORT;
swprintf (reg_path, L"%ls", CVY_NAME_RCT_ENABLED);
size = sizeof (paramp -> rct_enabled);
status = RegQueryValueEx (key, reg_path, 0L, & type,
(LPBYTE) & paramp -> rct_enabled, & size);
if (status != ERROR_SUCCESS)
paramp -> rct_enabled = CVY_DEF_RCT_ENABLED;
//
// IGMP support registry entries
//
size = sizeof (paramp->fIGMPSupport);
status = RegQueryValueEx (key, CVY_NAME_IGMP_SUPPORT, 0L, NULL,
(LPBYTE) & paramp->fIGMPSupport, &size);
if (status != ERROR_SUCCESS)
paramp -> fIGMPSupport = CVY_DEF_IGMP_SUPPORT;
size = sizeof (paramp->szMCastIpAddress);
status = RegQueryValueEx (key, CVY_NAME_MCAST_IP_ADDR, 0L, NULL,
(LPBYTE) & paramp->szMCastIpAddress, &size);
if (status != ERROR_SUCCESS)
lstrcpy(paramp -> szMCastIpAddress, CVY_DEF_MCAST_IP_ADDR);
size = sizeof (paramp->fIpToMCastIp);
status = RegQueryValueEx (key, CVY_NAME_IP_TO_MCASTIP, 0L, NULL,
(LPBYTE) & paramp->fIpToMCastIp, &size);
if (status != ERROR_SUCCESS)
paramp -> fIpToMCastIp = CVY_DEF_IP_TO_MCASTIP;
/* Attempt to open the BDA teaming settings. They may not be there,
so if they aren't, move on; otherwise, extract the settings. */
if ((bda_key = RegOpenWlbsBDASettings(AdapterGuid, true))) {
GUID TeamGuid;
HRESULT hr;
/* If the key exists, we are part of a team. */
paramp->bda_teaming.active = TRUE;
/* Find out if we are the master of this team. */
size = sizeof (paramp->bda_teaming.master);
status = RegQueryValueEx (bda_key, CVY_NAME_BDA_MASTER, 0L, NULL,
(LPBYTE)&paramp->bda_teaming.master, &size);
/* If we can't get that information, default to a slave. */
if (status != ERROR_SUCCESS)
paramp->bda_teaming.master = FALSE;
/* Find out if we are reverse hashing or not. */
size = sizeof (paramp->bda_teaming.reverse_hash);
status = RegQueryValueEx (bda_key, CVY_NAME_BDA_REVERSE_HASH, 0L, NULL,
(LPBYTE)&paramp->bda_teaming.reverse_hash, &size);
/* If that fails, then assume normal hashing. */
if (status != ERROR_SUCCESS)
paramp->bda_teaming.reverse_hash = FALSE;
/* Get our team ID - this should be a GUID, be we don't enforce that. */
size = sizeof (paramp->bda_teaming.team_id);
status = RegQueryValueEx (bda_key, CVY_NAME_BDA_TEAM_ID, 0L, NULL,
(LPBYTE)&paramp->bda_teaming.team_id, &size);
/* The team is absolutely required - if we can't get it, then don't join the team. */
if (status != ERROR_SUCCESS)
paramp->bda_teaming.active = CVY_DEF_BDA_ACTIVE;
/* Attempt to convert the string to a GUID and check for errors. */
hr = CLSIDFromString(paramp->bda_teaming.team_id, &TeamGuid);
/* If the conversion fails, bail out - the team ID must not have been a GUID. */
if (hr != NOERROR) {
LOG_ERROR1("ParamReadReg: Invalid BDA Team ID: %ls", paramp->bda_teaming.team_id);
paramp->bda_teaming.active = CVY_DEF_BDA_ACTIVE;
}
RegCloseKey(bda_key);
}
/* decode port rules prior to version 3 */
if (paramp -> i_parms_ver <= 3)
{
paramp -> i_parms_ver = CVY_PARAMS_VERSION;
/* decode the port rules */
if (! License_data_decode ((PCHAR) old_port_rules, paramp -> i_num_rules * sizeof (WLBS_OLD_PORT_RULE)))
{
ZeroMemory(paramp -> i_port_rules, sizeof(paramp -> i_port_rules));
paramp -> i_num_rules = 0;
}
else
TransformOldPortRulesToNew(old_port_rules, paramp -> i_port_rules, paramp -> i_num_rules);
}
/* upgrade port rules from params V1 to params V2 */
if (paramp -> i_parms_ver == 1)
{
paramp -> i_parms_ver = CVY_PARAMS_VERSION;
/* keep multicast off by default for old users */
paramp -> mcast_support = FALSE;
for (i = 0; i < paramp -> i_num_rules; i ++)
{
rp = paramp -> i_port_rules + i;
code = CVY_RULE_CODE_GET (rp);
CVY_RULE_CODE_SET (rp);
if (code != CVY_RULE_CODE_GET (rp))
{
rp -> code = code;
continue;
}
if (! rp -> valid)
{
continue;
}
/* set affinity according to current ScaleSingleClient setting */
if (rp -> mode == CVY_MULTI)
rp -> mode_data . multi . affinity = CVY_AFFINITY_SINGLE - (USHORT)paramp -> i_scale_client;
CVY_RULE_CODE_SET (rp);
}
}
/* upgrade max number of descriptor allocs */
if (paramp -> i_parms_ver == 2)
{
paramp -> i_parms_ver = CVY_PARAMS_VERSION;
paramp -> max_dscr_allocs = CVY_DEF_MAX_DSCR_ALLOCS;
paramp -> dscr_per_alloc = CVY_DEF_DSCR_PER_ALLOC;
}
RegCloseKey (key);
paramp -> i_max_hosts = CVY_MAX_HOSTS;
paramp -> i_max_rules = CVY_MAX_USABLE_RULES;
// paramp -> i_ft_rules_enabled = TRUE;
// paramp -> version = 0;
// CLEAN_64BIT CVY_CHECK_MIN (paramp -> i_num_rules, CVY_MIN_NUM_RULES);
CVY_CHECK_MAX (paramp -> i_num_rules, CVY_MAX_NUM_RULES);
CVY_CHECK_MIN (paramp -> host_priority, CVY_MIN_HOST_PRIORITY);
CVY_CHECK_MAX (paramp -> host_priority, CVY_MAX_HOST_PRIORITY);
return TRUE;
}
//+----------------------------------------------------------------------------
//
// Function: ParamValidate
//
// Description: Validates the cluster parameters. Also munges some fields
// such as IP addresses to make them canonocal.
//
// Arguments: PWLBS_REG_PARAMS paramp -
//
// Returns: bool - TRUE if params are valid, false otherwise
//
// History: josephj Created 4/25/01 based on code from ParamWriteReg.
//
//+----------------------------------------------------------------------------
bool WINAPI ParamValidate(const PWLBS_REG_PARAMS paramp)
{
bool fRet = FALSE;
DWORD idx;
IN_ADDR dwIPAddr;
CHAR * szIPAddr;
DWORD num_rules;
WLBS_PORT_RULE *port_rule;
/* verify and if necessary reset the parameters */
CVY_CHECK_MIN (paramp -> alive_period, CVY_MIN_ALIVE_PERIOD);
CVY_CHECK_MAX (paramp -> alive_period, CVY_MAX_ALIVE_PERIOD);
CVY_CHECK_MIN (paramp -> alive_tolerance, CVY_MIN_ALIVE_TOLER);
CVY_CHECK_MAX (paramp -> alive_tolerance, CVY_MAX_ALIVE_TOLER);
CVY_CHECK_MIN (paramp -> num_actions, CVY_MIN_NUM_ACTIONS);
CVY_CHECK_MAX (paramp -> num_actions, CVY_MAX_NUM_ACTIONS);
CVY_CHECK_MIN (paramp -> num_packets, CVY_MIN_NUM_PACKETS);
CVY_CHECK_MAX (paramp -> num_packets, CVY_MAX_NUM_PACKETS);
CVY_CHECK_MIN (paramp -> dscr_per_alloc, CVY_MIN_DSCR_PER_ALLOC);
CVY_CHECK_MAX (paramp -> dscr_per_alloc, CVY_MAX_DSCR_PER_ALLOC);
CVY_CHECK_MIN (paramp -> max_dscr_allocs, CVY_MIN_MAX_DSCR_ALLOCS);
CVY_CHECK_MAX (paramp -> max_dscr_allocs, CVY_MAX_MAX_DSCR_ALLOCS);
// CLEAN_64BIT CVY_CHECK_MIN (paramp -> i_cleanup_delay, CVY_MIN_CLEANUP_DELAY);
CVY_CHECK_MAX (paramp -> i_cleanup_delay, CVY_MAX_CLEANUP_DELAY);
// CLEAN_64BIT CVY_CHECK_MIN (paramp -> i_ip_chg_delay, CVY_MIN_IP_CHG_DELAY);
CVY_CHECK_MAX (paramp -> i_ip_chg_delay, CVY_MAX_IP_CHG_DELAY);
CVY_CHECK_MIN (paramp -> num_send_msgs, (paramp -> i_max_hosts + 1) * 2);
CVY_CHECK_MAX (paramp -> num_send_msgs, (paramp -> i_max_hosts + 1) * 10);
// CLEAN_64BIT CVY_CHECK_MIN (paramp -> i_num_rules, CVY_MIN_NUM_RULES);
CVY_CHECK_MAX (paramp -> i_num_rules, CVY_MAX_NUM_RULES);
CVY_CHECK_MIN (paramp -> host_priority, CVY_MIN_HOST_PRIORITY);
CVY_CHECK_MAX (paramp -> host_priority, CVY_MAX_HOST_PRIORITY);
// CLEAN_64BIT CVY_CHECK_MIN (paramp -> cluster_mode, CVY_MIN_CLUSTER_MODE);
CVY_CHECK_MAX (paramp -> cluster_mode, CVY_MAX_CLUSTER_MODE);
/* If the cluster IP address is not 0.0.0.0, then make sure the IP address is valid. */
if (lstrcmpi(paramp->cl_ip_addr, CVY_DEF_CL_IP_ADDR)) {
/* Check the validity of the IP address. */
if (!(dwIPAddr.S_un.S_addr = IpAddressFromAbcdWsz(paramp->cl_ip_addr)))
goto error;
/* Convert the DWORD back to a string. We do this because 11.11.3 is a valid IP
address the inet_addr converts to 11.11.0.3 as a DWORD. Therefore, to keep
the IP address string (which is used by other parts of NLB, such as the UI)
consistent, we convert back to a string. */
if (!(szIPAddr = inet_ntoa(dwIPAddr)))
goto error;
/* Convert the ASCII string to unicode. */
if (!MultiByteToWideChar(CP_ACP, 0, szIPAddr, -1, paramp->cl_ip_addr, WLBS_MAX_CL_IP_ADDR + 1))
goto error;
}
/* If the cluster netmask is not 0.0.0.0, then make sure the netmask is valid. */
if (lstrcmpi(paramp->cl_net_mask, CVY_DEF_CL_NET_MASK)) {
/* Check the validity of the IP address. */
if (!(dwIPAddr.S_un.S_addr = IpAddressFromAbcdWsz(paramp->cl_net_mask)))
goto error;
/* Convert the DWORD back to a string. We do this because 11.11.3 is a valid IP
address the inet_addr converts to 11.11.0.3 as a DWORD. Therefore, to keep
the IP address string (which is used by other parts of NLB, such as the UI)
consistent, we convert back to a string. */
if (!(szIPAddr = inet_ntoa(dwIPAddr)))
goto error;
/* Convert the ASCII string to unicode. */
if (!MultiByteToWideChar(CP_ACP, 0, szIPAddr, -1, paramp->cl_net_mask, WLBS_MAX_CL_NET_MASK + 1))
goto error;
}
/* If the dedicated IP address is not 0.0.0.0, then make sure the IP address is valid. */
if (lstrcmpi(paramp->ded_ip_addr, CVY_DEF_DED_IP_ADDR)) {
/* Check the validity of the IP address. */
if (!(dwIPAddr.S_un.S_addr = IpAddressFromAbcdWsz(paramp->ded_ip_addr)))
goto error;
/* Convert the DWORD back to a string. We do this because 11.11.3 is a valid IP
address the inet_addr converts to 11.11.0.3 as a DWORD. Therefore, to keep
the IP address string (which is used by other parts of NLB, such as the UI)
consistent, we convert back to a string. */
if (!(szIPAddr = inet_ntoa(dwIPAddr)))
goto error;
/* Convert the ASCII string to unicode. */
if (!MultiByteToWideChar(CP_ACP, 0, szIPAddr, -1, paramp->ded_ip_addr, WLBS_MAX_DED_IP_ADDR + 1))
goto error;
}
/* If the dedicated netmask is not 0.0.0.0, then make sure the netmask is valid. */
if (lstrcmpi(paramp->ded_net_mask, CVY_DEF_DED_NET_MASK)) {
/* Check the validity of the IP address. */
if (!(dwIPAddr.S_un.S_addr = IpAddressFromAbcdWsz(paramp->ded_net_mask)))
goto error;
/* Convert the DWORD back to a string. We do this because 11.11.3 is a valid IP
address the inet_addr converts to 11.11.0.3 as a DWORD. Therefore, to keep
the IP address string (which is used by other parts of NLB, such as the UI)
consistent, we convert back to a string. */
if (!(szIPAddr = inet_ntoa(dwIPAddr)))
goto error;
/* Convert the ASCII string to unicode. */
if (!MultiByteToWideChar(CP_ACP, 0, szIPAddr, -1, paramp->ded_net_mask, WLBS_MAX_DED_NET_MASK + 1))
goto error;
}
/* Verify that the port rule VIP is valid,
Also, convert the port rule VIPs that might be in the x.x.x or x.x or x form to x.x.x.x */
idx = 0;
num_rules = paramp -> i_num_rules;
while (idx < num_rules)
{
port_rule = &paramp->i_port_rules[idx];
/* Check if the port rule is valid and the vip is not "All Vip" */
if (port_rule->valid && lstrcmpi(port_rule->virtual_ip_addr, CVY_DEF_ALL_VIP))
{
/* Get IP Address into DWORD form */
if (!(dwIPAddr.S_un.S_addr = IpAddressFromAbcdWsz(port_rule->virtual_ip_addr)))
goto error;
/* Check for validity of IP Address */
if ((dwIPAddr.S_un.S_un_b.s_b1 < WLBS_IP_FIELD_ZERO_LOW)
|| (dwIPAddr.S_un.S_un_b.s_b1 > WLBS_IP_FIELD_ZERO_HIGH)
|| (dwIPAddr.S_un.S_un_b.s_b2 < WLBS_FIELD_LOW)
|| (dwIPAddr.S_un.S_un_b.s_b2 > WLBS_FIELD_HIGH)
|| (dwIPAddr.S_un.S_un_b.s_b3 < WLBS_FIELD_LOW)
|| (dwIPAddr.S_un.S_un_b.s_b3 > WLBS_FIELD_HIGH)
|| (dwIPAddr.S_un.S_un_b.s_b4 < WLBS_FIELD_LOW)
|| (dwIPAddr.S_un.S_un_b.s_b4 > WLBS_FIELD_HIGH))
goto error;
/* Convert the DWORD back to a string. We do this because 11.11.3 is a valid IP
address the inet_addr converts to 11.11.0.3 as a DWORD. Therefore, to keep
the IP address string (which is used by other parts of NLB, such as the UI)
consistent, we convert back to a string. */
if (!(szIPAddr = inet_ntoa(dwIPAddr)))
goto error;
/* Convert the ASCII string to unicode. */
if (!MultiByteToWideChar(CP_ACP, 0, szIPAddr, -1, port_rule->virtual_ip_addr, WLBS_MAX_CL_IP_ADDR + 1))
goto error;
}
idx++;
}
/* If either the cluster IP address or the cluster netmask is not 0.0.0.0,
then make sure the they are a valid IP address/netmask pair. */
if (lstrcmpi(paramp->cl_ip_addr, CVY_DEF_CL_IP_ADDR) || lstrcmpi(paramp->cl_net_mask, CVY_DEF_CL_NET_MASK)) {
/* If they have specified a cluster IP address, but no netmask, then fill it in for them. */
if (!lstrcmpi(paramp->cl_net_mask, CVY_DEF_CL_NET_MASK))
ParamsGenerateSubnetMask(paramp->cl_ip_addr, paramp->cl_net_mask);
/* Check for valid cluster IP address/netmask pairs. */
if (!IsValidIPAddressSubnetMaskPair(paramp->cl_ip_addr, paramp->cl_net_mask))
goto error;
/* Check to make sure that the cluster netmask is contiguous. */
if (!IsContiguousSubnetMask(paramp->cl_net_mask))
goto error;
/* Check to make sure that the dedicated IP and cluster IP are not the same. */
if (!wcscmp(paramp->ded_ip_addr, paramp->cl_ip_addr))
goto error;
}
/* If either the dedicated IP address or the dedicated netmask is not 0.0.0.0,
then make sure the they are a valid IP address/netmask pair. */
if (lstrcmpi(paramp->ded_ip_addr, CVY_DEF_DED_IP_ADDR) || lstrcmpi(paramp->ded_net_mask, CVY_DEF_DED_NET_MASK)) {
/* If they have specified a cluster IP address, but no netmask, then fill it in for them. */
if (!lstrcmpi(paramp->ded_net_mask, CVY_DEF_DED_NET_MASK))
ParamsGenerateSubnetMask(paramp->ded_ip_addr, paramp->ded_net_mask);
/* Check for valid dedicated IP address/netmask pairs. */
if (!IsValidIPAddressSubnetMaskPair(paramp->ded_ip_addr, paramp->ded_net_mask))
goto error;
/* Check to make sure that the dedicated netmask is contiguous. */
if (!IsContiguousSubnetMask(paramp->ded_net_mask))
goto error;
}
/* Check the mac address if the convert_mac flag is not set */
if ( ! paramp -> i_convert_mac)
{
PWCHAR p1, p2;
WCHAR mac_addr [WLBS_MAX_NETWORK_ADDR + 1];
DWORD i, j;
BOOL flag = TRUE;
_tcscpy (mac_addr, paramp -> cl_mac_addr);
p2 = p1 = mac_addr;
for (i = 0 ; i < 6 ; i++)
{
if (*p2 == _TEXT('\0'))
{
flag = FALSE;
break;
}
j = _tcstoul (p1, &p2, 16);
if ( j > 255)
{
flag = FALSE;
break;
}
if ( ! (*p2 == _TEXT('-') || *p2 == _TEXT(':') || *p2 == _TEXT('\0')) )
{
flag = FALSE;
break;
}
if (*p2 == _TEXT('\0') && i < 5)
{
flag = FALSE;
break;
}
p1 = p2 + 1;
p2 = p1;
}
if (!flag)
{
goto error;
}
}
if (paramp->fIGMPSupport && !paramp->mcast_support)
{
//
// IGMP can not be enabled in unicast mode
//
LOG_ERROR("ParamWriteReg IGMP can not be enabled in unicast mode");
goto error;
}
if (paramp->mcast_support && paramp->fIGMPSupport && !paramp->fIpToMCastIp)
{
//
// Multicast mode with IGMP enabled, and user specified an multicast IP address,
// The multicast IP address should be in the range of (224-239).x.x.x
// but NOT (224-239).0.0.x or (224-239).128.0.x.
//
DWORD dwMCastIp = IpAddressFromAbcdWsz(paramp->szMCastIpAddress);
if ((dwMCastIp & 0xf0) != 0xe0 ||
(dwMCastIp & 0x00ffff00) == 0 ||
(dwMCastIp & 0x00ffff00) == 0x00008000)
{
LOG_ERROR1("ParamWriteReg invalid szMCastIpAddressr %ws",
paramp->szMCastIpAddress);
goto error;
}
}
/* Generate the MAC address. */
ParamsGenerateMAC(paramp->cl_ip_addr, paramp->cl_mac_addr, paramp->szMCastIpAddress, paramp->i_convert_mac,
paramp->mcast_support, paramp->fIGMPSupport, paramp->fIpToMCastIp);
fRet = TRUE;
goto end;
error:
fRet = FALSE;
goto end;
end:
return fRet;
}
//+----------------------------------------------------------------------------
//
// Function: ParamWriteReg
//
// Description: Write cluster settings to registry
//
// Arguments: const GUID& AdapterGuid -
// PWLBS_REG_PARAMS paramp -
//
// Returns: bool -
//
// History: fengsun Created Header 3/9/00
//
//+----------------------------------------------------------------------------
bool WINAPI ParamWriteReg(const GUID& AdapterGuid, PWLBS_REG_PARAMS paramp)
{
HKEY bda_key = NULL;
HKEY key = NULL;
DWORD size;
LONG status;
DWORD disp, idx;
DWORD num_rules;
WLBS_PORT_RULE *port_rule;
#if 1
if (!ParamValidate(paramp))
goto error;
num_rules = paramp -> i_num_rules;
#else // OBSOLETE_CODE
IN_ADDR dwIPAddr;
CHAR * szIPAddr;
/* verify and if necessary reset the parameters */
CVY_CHECK_MIN (paramp -> alive_period, CVY_MIN_ALIVE_PERIOD);
CVY_CHECK_MAX (paramp -> alive_period, CVY_MAX_ALIVE_PERIOD);
CVY_CHECK_MIN (paramp -> alive_tolerance, CVY_MIN_ALIVE_TOLER);
CVY_CHECK_MAX (paramp -> alive_tolerance, CVY_MAX_ALIVE_TOLER);
CVY_CHECK_MIN (paramp -> num_actions, CVY_MIN_NUM_ACTIONS);
CVY_CHECK_MAX (paramp -> num_actions, CVY_MAX_NUM_ACTIONS);
CVY_CHECK_MIN (paramp -> num_packets, CVY_MIN_NUM_PACKETS);
CVY_CHECK_MAX (paramp -> num_packets, CVY_MAX_NUM_PACKETS);
CVY_CHECK_MIN (paramp -> dscr_per_alloc, CVY_MIN_DSCR_PER_ALLOC);
CVY_CHECK_MAX (paramp -> dscr_per_alloc, CVY_MAX_DSCR_PER_ALLOC);
CVY_CHECK_MIN (paramp -> max_dscr_allocs, CVY_MIN_MAX_DSCR_ALLOCS);
CVY_CHECK_MAX (paramp -> max_dscr_allocs, CVY_MAX_MAX_DSCR_ALLOCS);
// CLEAN_64BIT CVY_CHECK_MIN (paramp -> i_cleanup_delay, CVY_MIN_CLEANUP_DELAY);
CVY_CHECK_MAX (paramp -> i_cleanup_delay, CVY_MAX_CLEANUP_DELAY);
// CLEAN_64BIT CVY_CHECK_MIN (paramp -> i_ip_chg_delay, CVY_MIN_IP_CHG_DELAY);
CVY_CHECK_MAX (paramp -> i_ip_chg_delay, CVY_MAX_IP_CHG_DELAY);
CVY_CHECK_MIN (paramp -> num_send_msgs, (paramp -> i_max_hosts + 1) * 2);
CVY_CHECK_MAX (paramp -> num_send_msgs, (paramp -> i_max_hosts + 1) * 10);
// CLEAN_64BIT CVY_CHECK_MIN (paramp -> i_num_rules, CVY_MIN_NUM_RULES);
CVY_CHECK_MAX (paramp -> i_num_rules, CVY_MAX_NUM_RULES);
CVY_CHECK_MIN (paramp -> host_priority, CVY_MIN_HOST_PRIORITY);
CVY_CHECK_MAX (paramp -> host_priority, CVY_MAX_HOST_PRIORITY);
// CLEAN_64BIT CVY_CHECK_MIN (paramp -> cluster_mode, CVY_MIN_CLUSTER_MODE);
CVY_CHECK_MAX (paramp -> cluster_mode, CVY_MAX_CLUSTER_MODE);
/* If the cluster IP address is not 0.0.0.0, then make sure the IP address is valid. */
if (lstrcmpi(paramp->cl_ip_addr, CVY_DEF_CL_IP_ADDR)) {
/* Check the validity of the IP address. */
if (!(dwIPAddr.S_un.S_addr = IpAddressFromAbcdWsz(paramp->cl_ip_addr)))
goto error;
/* Convert the DWORD back to a string. We do this because 11.11.3 is a valid IP
address the inet_addr converts to 11.11.0.3 as a DWORD. Therefore, to keep
the IP address string (which is used by other parts of NLB, such as the UI)
consistent, we convert back to a string. */
if (!(szIPAddr = inet_ntoa(dwIPAddr)))
goto error;
/* Convert the ASCII string to unicode. */
if (!MultiByteToWideChar(CP_ACP, 0, szIPAddr, -1, paramp->cl_ip_addr, WLBS_MAX_CL_IP_ADDR + 1))
goto error;
}
/* If the cluster netmask is not 0.0.0.0, then make sure the netmask is valid. */
if (lstrcmpi(paramp->cl_net_mask, CVY_DEF_CL_NET_MASK)) {
/* Check the validity of the IP address. */
if (!(dwIPAddr.S_un.S_addr = IpAddressFromAbcdWsz(paramp->cl_net_mask)))
goto error;
/* Convert the DWORD back to a string. We do this because 11.11.3 is a valid IP
address the inet_addr converts to 11.11.0.3 as a DWORD. Therefore, to keep
the IP address string (which is used by other parts of NLB, such as the UI)
consistent, we convert back to a string. */
if (!(szIPAddr = inet_ntoa(dwIPAddr)))
goto error;
/* Convert the ASCII string to unicode. */
if (!MultiByteToWideChar(CP_ACP, 0, szIPAddr, -1, paramp->cl_net_mask, WLBS_MAX_CL_NET_MASK + 1))
goto error;
}
/* If the dedicated IP address is not 0.0.0.0, then make sure the IP address is valid. */
if (lstrcmpi(paramp->ded_ip_addr, CVY_DEF_DED_IP_ADDR)) {
/* Check the validity of the IP address. */
if (!(dwIPAddr.S_un.S_addr = IpAddressFromAbcdWsz(paramp->ded_ip_addr)))
goto error;
/* Convert the DWORD back to a string. We do this because 11.11.3 is a valid IP
address the inet_addr converts to 11.11.0.3 as a DWORD. Therefore, to keep
the IP address string (which is used by other parts of NLB, such as the UI)
consistent, we convert back to a string. */
if (!(szIPAddr = inet_ntoa(dwIPAddr)))
goto error;
/* Convert the ASCII string to unicode. */
if (!MultiByteToWideChar(CP_ACP, 0, szIPAddr, -1, paramp->ded_ip_addr, WLBS_MAX_DED_IP_ADDR + 1))
goto error;
}
/* If the dedicated netmask is not 0.0.0.0, then make sure the netmask is valid. */
if (lstrcmpi(paramp->ded_net_mask, CVY_DEF_DED_NET_MASK)) {
/* Check the validity of the IP address. */
if (!(dwIPAddr.S_un.S_addr = IpAddressFromAbcdWsz(paramp->ded_net_mask)))
goto error;
/* Convert the DWORD back to a string. We do this because 11.11.3 is a valid IP
address the inet_addr converts to 11.11.0.3 as a DWORD. Therefore, to keep
the IP address string (which is used by other parts of NLB, such as the UI)
consistent, we convert back to a string. */
if (!(szIPAddr = inet_ntoa(dwIPAddr)))
goto error;
/* Convert the ASCII string to unicode. */
if (!MultiByteToWideChar(CP_ACP, 0, szIPAddr, -1, paramp->ded_net_mask, WLBS_MAX_DED_NET_MASK + 1))
goto error;
}
/* Verify that the port rule VIP is valid,
Also, convert the port rule VIPs that might be in the x.x.x or x.x or x form to x.x.x.x */
idx = 0;
num_rules = paramp -> i_num_rules;
while (idx < num_rules)
{
port_rule = &paramp->i_port_rules[idx];
/* Check if the port rule is valid and the vip is not "All Vip" */
if (port_rule->valid && lstrcmpi(port_rule->virtual_ip_addr, CVY_DEF_ALL_VIP))
{
/* Get IP Address into DWORD form */
if (!(dwIPAddr.S_un.S_addr = IpAddressFromAbcdWsz(port_rule->virtual_ip_addr)))
goto error;
/* Check for validity of IP Address */
if ((dwIPAddr.S_un.S_un_b.s_b1 < WLBS_IP_FIELD_ZERO_LOW)
|| (dwIPAddr.S_un.S_un_b.s_b1 > WLBS_IP_FIELD_ZERO_HIGH)
|| (dwIPAddr.S_un.S_un_b.s_b2 < WLBS_FIELD_LOW)
|| (dwIPAddr.S_un.S_un_b.s_b2 > WLBS_FIELD_HIGH)
|| (dwIPAddr.S_un.S_un_b.s_b3 < WLBS_FIELD_LOW)
|| (dwIPAddr.S_un.S_un_b.s_b3 > WLBS_FIELD_HIGH)
|| (dwIPAddr.S_un.S_un_b.s_b4 < WLBS_FIELD_LOW)
|| (dwIPAddr.S_un.S_un_b.s_b4 > WLBS_FIELD_HIGH))
goto error;
/* Convert the DWORD back to a string. We do this because 11.11.3 is a valid IP
address the inet_addr converts to 11.11.0.3 as a DWORD. Therefore, to keep
the IP address string (which is used by other parts of NLB, such as the UI)
consistent, we convert back to a string. */
if (!(szIPAddr = inet_ntoa(dwIPAddr)))
goto error;
/* Convert the ASCII string to unicode. */
if (!MultiByteToWideChar(CP_ACP, 0, szIPAddr, -1, port_rule->virtual_ip_addr, WLBS_MAX_CL_IP_ADDR + 1))
goto error;
}
idx++;
}
/* If either the cluster IP address or the cluster netmask is not 0.0.0.0,
then make sure the they are a valid IP address/netmask pair. */
if (lstrcmpi(paramp->cl_ip_addr, CVY_DEF_CL_IP_ADDR) || lstrcmpi(paramp->cl_net_mask, CVY_DEF_CL_NET_MASK)) {
/* If they have specified a cluster IP address, but no netmask, then fill it in for them. */
if (!lstrcmpi(paramp->cl_net_mask, CVY_DEF_CL_NET_MASK))
ParamsGenerateSubnetMask(paramp->cl_ip_addr, paramp->cl_net_mask);
/* Check for valid cluster IP address/netmask pairs. */
if (!IsValidIPAddressSubnetMaskPair(paramp->cl_ip_addr, paramp->cl_net_mask))
goto error;
/* Check to make sure that the cluster netmask is contiguous. */
if (!IsContiguousSubnetMask(paramp->cl_net_mask))
goto error;
/* Check to make sure that the dedicated IP and cluster IP are not the same. */
if (!wcscmp(paramp->ded_ip_addr, paramp->cl_ip_addr))
goto error;
}
/* If either the dedicated IP address or the dedicated netmask is not 0.0.0.0,
then make sure the they are a valid IP address/netmask pair. */
if (lstrcmpi(paramp->ded_ip_addr, CVY_DEF_DED_IP_ADDR) || lstrcmpi(paramp->ded_net_mask, CVY_DEF_DED_NET_MASK)) {
/* If they have specified a cluster IP address, but no netmask, then fill it in for them. */
if (!lstrcmpi(paramp->ded_net_mask, CVY_DEF_DED_NET_MASK))
ParamsGenerateSubnetMask(paramp->ded_ip_addr, paramp->ded_net_mask);
/* Check for valid dedicated IP address/netmask pairs. */
if (!IsValidIPAddressSubnetMaskPair(paramp->ded_ip_addr, paramp->ded_net_mask))
goto error;
/* Check to make sure that the dedicated netmask is contiguous. */
if (!IsContiguousSubnetMask(paramp->ded_net_mask))
goto error;
}
/* Check the mac address if the convert_mac flag is not set */
if ( ! paramp -> i_convert_mac)
{
PWCHAR p1, p2;
WCHAR mac_addr [WLBS_MAX_NETWORK_ADDR + 1];
DWORD i, j;
BOOL flag = TRUE;
_tcscpy (mac_addr, paramp -> cl_mac_addr);
p2 = p1 = mac_addr;
for (i = 0 ; i < 6 ; i++)
{
if (*p2 == _TEXT('\0'))
{
flag = FALSE;
break;
}
j = _tcstoul (p1, &p2, 16);
if ( j > 255)
{
flag = FALSE;
break;
}
if ( ! (*p2 == _TEXT('-') || *p2 == _TEXT(':') || *p2 == _TEXT('\0')) )
{
flag = FALSE;
break;
}
if (*p2 == _TEXT('\0') && i < 5)
{
flag = FALSE;
break;
}
p1 = p2 + 1;
p2 = p1;
}
if (!flag)
{
goto error;
}
}
if (paramp->fIGMPSupport && !paramp->mcast_support)
{
//
// IGMP can not be enabled in unicast mode
//
LOG_ERROR("ParamWriteReg IGMP can not be enabled in unicast mode");
goto error;
}
if (paramp->mcast_support && paramp->fIGMPSupport && !paramp->fIpToMCastIp)
{
//
// Multicast mode with IGMP enabled, and user specified an multicast IP address,
// The multicast IP address should be in the range of (224-239).x.x.x
// but NOT (224-239).0.0.x or (224-239).128.0.x.
//
DWORD dwMCastIp = IpAddressFromAbcdWsz(paramp->szMCastIpAddress);
if ((dwMCastIp & 0xf0) != 0xe0 ||
(dwMCastIp & 0x00ffff00) == 0 ||
(dwMCastIp & 0x00ffff00) == 0x00008000)
{
LOG_ERROR1("ParamWriteReg invalid szMCastIpAddressr %ws",
paramp->szMCastIpAddress);
goto error;
}
}
#endif // OBSOLETE_CODE
/* Generate the MAC address. */
ParamsGenerateMAC(paramp->cl_ip_addr, paramp->cl_mac_addr, paramp->szMCastIpAddress, paramp->i_convert_mac,
paramp->mcast_support, paramp->fIGMPSupport, paramp->fIpToMCastIp);
WCHAR reg_path [PARAMS_MAX_STRING_SIZE];
WCHAR szAdapterGuid[128];
StringFromGUID2(AdapterGuid, szAdapterGuid,
sizeof(szAdapterGuid)/sizeof(szAdapterGuid[0]) );
swprintf (reg_path, L"SYSTEM\\CurrentControlSet\\Services\\WLBS\\Parameters\\Interface\\%s",
szAdapterGuid);
status = RegCreateKeyEx (HKEY_LOCAL_MACHINE, reg_path, 0L, L"",
REG_OPTION_NON_VOLATILE,
KEY_ALL_ACCESS, NULL, & key, & disp);
if (status != ERROR_SUCCESS)
return FALSE;
swprintf (reg_path, L"%ls", CVY_NAME_INSTALL_DATE);
size = sizeof (paramp -> install_date);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_INSTALL_DATE,
(LPBYTE) & paramp -> install_date, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_VERIFY_DATE);
size = sizeof (paramp -> i_verify_date);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_VERIFY_DATE,
(LPBYTE) & paramp -> i_verify_date, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_VIRTUAL_NIC);
size = wcslen (paramp -> i_virtual_nic_name) * sizeof (WCHAR);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_VIRTUAL_NIC,
(LPBYTE) & paramp -> i_virtual_nic_name, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_HOST_PRIORITY);
size = sizeof (paramp -> host_priority);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_HOST_PRIORITY,
(LPBYTE) & paramp -> host_priority, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_CLUSTER_MODE);
size = sizeof (paramp -> cluster_mode);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_CLUSTER_MODE,
(LPBYTE) & paramp -> cluster_mode, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_NETWORK_ADDR);
size = wcslen (paramp -> cl_mac_addr) * sizeof (WCHAR);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_NETWORK_ADDR,
(LPBYTE) paramp -> cl_mac_addr, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_CL_IP_ADDR);
size = wcslen (paramp -> cl_ip_addr) * sizeof (WCHAR);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_CL_IP_ADDR,
(LPBYTE) paramp -> cl_ip_addr, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_CL_NET_MASK);
size = wcslen (paramp -> cl_net_mask) * sizeof (WCHAR);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_CL_NET_MASK,
(LPBYTE) paramp -> cl_net_mask, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_DED_IP_ADDR);
size = wcslen (paramp -> ded_ip_addr) * sizeof (WCHAR);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_DED_IP_ADDR,
(LPBYTE) paramp -> ded_ip_addr, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_DED_NET_MASK);
size = wcslen (paramp -> ded_net_mask) * sizeof (WCHAR);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_DED_NET_MASK,
(LPBYTE) paramp -> ded_net_mask, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_DOMAIN_NAME);
size = wcslen (paramp -> domain_name) * sizeof (WCHAR);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_DOMAIN_NAME,
(LPBYTE) paramp -> domain_name, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_ALIVE_PERIOD);
size = sizeof (paramp -> alive_period);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_ALIVE_PERIOD,
(LPBYTE) & paramp -> alive_period, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_ALIVE_TOLER);
size = sizeof (paramp -> alive_tolerance);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_ALIVE_TOLER,
(LPBYTE) & paramp -> alive_tolerance, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_NUM_ACTIONS);
size = sizeof (paramp -> num_actions);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_NUM_ACTIONS,
(LPBYTE) & paramp -> num_actions, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_NUM_PACKETS);
size = sizeof (paramp -> num_packets);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_NUM_PACKETS,
(LPBYTE) & paramp -> num_packets, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_NUM_SEND_MSGS);
size = sizeof (paramp -> num_send_msgs);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_NUM_SEND_MSGS,
(LPBYTE) & paramp -> num_send_msgs, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_DSCR_PER_ALLOC);
size = sizeof (paramp -> dscr_per_alloc);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_DSCR_PER_ALLOC,
(LPBYTE) & paramp -> dscr_per_alloc, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_MAX_DSCR_ALLOCS);
size = sizeof (paramp -> max_dscr_allocs);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_MAX_DSCR_ALLOCS,
(LPBYTE) & paramp -> max_dscr_allocs, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_SCALE_CLIENT);
size = sizeof (paramp -> i_scale_client);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_SCALE_CLIENT,
(LPBYTE) & paramp -> i_scale_client, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_CLEANUP_DELAY);
size = sizeof (paramp -> i_cleanup_delay);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_CLEANUP_DELAY,
(LPBYTE) & paramp -> i_cleanup_delay, size);
if (status != ERROR_SUCCESS)
goto error;
/* V1.1.1 */
swprintf (reg_path, L"%ls", CVY_NAME_NBT_SUPPORT);
size = sizeof (paramp -> i_nbt_support);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_NBT_SUPPORT,
(LPBYTE) & paramp -> i_nbt_support, size);
if (status != ERROR_SUCCESS)
goto error;
/* V1.3b */
swprintf (reg_path, L"%ls", CVY_NAME_MCAST_SUPPORT);
size = sizeof (paramp -> mcast_support);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_MCAST_SUPPORT,
(LPBYTE) & paramp -> mcast_support, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_MCAST_SPOOF);
size = sizeof (paramp -> i_mcast_spoof);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_MCAST_SPOOF,
(LPBYTE) & paramp -> i_mcast_spoof, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_MASK_SRC_MAC);
size = sizeof (paramp -> mask_src_mac);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_MASK_SRC_MAC,
(LPBYTE) & paramp -> mask_src_mac, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_NETMON_ALIVE);
size = sizeof (paramp -> i_netmon_alive);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_NETMON_ALIVE,
(LPBYTE) & paramp -> i_netmon_alive, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_IP_CHG_DELAY);
size = sizeof (paramp -> i_ip_chg_delay);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_IP_CHG_DELAY,
(LPBYTE) & paramp -> i_ip_chg_delay, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_CONVERT_MAC);
size = sizeof (paramp -> i_convert_mac);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_CONVERT_MAC,
(LPBYTE) & paramp -> i_convert_mac, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_NUM_RULES);
size = sizeof (paramp -> i_num_rules);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_NUM_RULES,
(LPBYTE) & paramp -> i_num_rules, size);
if (status != ERROR_SUCCESS)
goto error;
//
// sort the rules before writing it to the registry
// EnumPortRules will take the rules from reg_data and return them in
// sorted order in the array itself
//
WlbsEnumPortRules (paramp, paramp -> i_port_rules, & num_rules);
ASSERT(paramp -> i_parms_ver == CVY_PARAMS_VERSION); // version should be upgrated in read
HKEY subkey;
swprintf (reg_path, L"%ls", CVY_NAME_PORT_RULES);
// Delete all existing Port Rules
SHDeleteKey(key, reg_path); // NOT Checking return value cos the key itself may not be present in which case, it will return error
// Create "PortRules" key
if (RegCreateKeyEx (key, reg_path, 0L, L"", REG_OPTION_NON_VOLATILE, KEY_ALL_ACCESS, NULL, & subkey, & disp)
!= ERROR_SUCCESS)
goto error;
bool fSpecificVipPortRuleFound = false;
idx = 1;
port_rule = paramp -> i_port_rules;
while(idx <= num_rules)
{
// Invalid port rules are placed at the end, So, once an invalid port rule is encountered, we are done
if (!port_rule->valid)
break;
HKEY rule_key;
wchar_t idx_str[8];
// Create the per port-rule key "1", "2", "3", ...etc
if (RegCreateKeyEx (subkey, _itow(idx, idx_str, 10), 0L, L"", REG_OPTION_NON_VOLATILE,
KEY_ALL_ACCESS, NULL, & rule_key, & disp)
!= ERROR_SUCCESS)
goto error;
// Check if there was any specific-vip port rule
if (!fSpecificVipPortRuleFound && lstrcmpi(port_rule->virtual_ip_addr, CVY_DEF_ALL_VIP))
fSpecificVipPortRuleFound = true;
swprintf (reg_path, L"%ls", CVY_NAME_VIP);
size = sizeof (port_rule -> virtual_ip_addr);
status = RegSetValueEx (rule_key, reg_path, 0L, CVY_TYPE_VIP, (LPBYTE) & port_rule->virtual_ip_addr, size);
if (status != ERROR_SUCCESS)
{
goto error;
}
swprintf (reg_path, L"%ls", CVY_NAME_START_PORT);
size = sizeof (port_rule ->start_port );
status = RegSetValueEx (rule_key, reg_path, 0L, CVY_TYPE_START_PORT, (LPBYTE) &port_rule->start_port, size);
if (status != ERROR_SUCCESS)
{
goto error;
}
swprintf (reg_path, L"%ls", CVY_NAME_END_PORT);
size = sizeof (port_rule ->end_port );
status = RegSetValueEx (rule_key, reg_path, 0L, CVY_TYPE_END_PORT, (LPBYTE) &port_rule->end_port, size);
if (status != ERROR_SUCCESS)
{
goto error;
}
swprintf (reg_path, L"%ls", CVY_NAME_CODE);
size = sizeof (port_rule ->code);
status = RegSetValueEx (rule_key, reg_path, 0L, CVY_TYPE_CODE, (LPBYTE) &port_rule->code, size);
if (status != ERROR_SUCCESS)
{
goto error;
}
swprintf (reg_path, L"%ls", CVY_NAME_MODE);
size = sizeof (port_rule->mode);
status = RegSetValueEx (rule_key, reg_path, 0L, CVY_TYPE_MODE, (LPBYTE) &port_rule->mode, size);
if (status != ERROR_SUCCESS)
{
goto error;
}
swprintf (reg_path, L"%ls", CVY_NAME_PROTOCOL);
size = sizeof (port_rule->protocol);
status = RegSetValueEx (rule_key, reg_path, 0L, CVY_TYPE_PROTOCOL, (LPBYTE) &port_rule->protocol, size);
if (status != ERROR_SUCCESS)
{
goto error;
}
DWORD EqualLoad, Affinity;
switch (port_rule->mode)
{
case CVY_MULTI :
EqualLoad = port_rule->mode_data.multi.equal_load;
swprintf (reg_path, L"%ls", CVY_NAME_EQUAL_LOAD );
size = sizeof (EqualLoad);
status = RegSetValueEx (rule_key, reg_path, 0L, CVY_TYPE_EQUAL_LOAD, (LPBYTE) &EqualLoad, size);
if (status != ERROR_SUCCESS)
{
goto error;
}
Affinity = port_rule->mode_data.multi.affinity;
swprintf (reg_path, L"%ls", CVY_NAME_AFFINITY );
size = sizeof (Affinity);
status = RegSetValueEx (rule_key, reg_path, 0L, CVY_TYPE_AFFINITY, (LPBYTE) &Affinity, size);
if (status != ERROR_SUCCESS)
{
goto error;
}
swprintf (reg_path, L"%ls", CVY_NAME_LOAD);
size = sizeof (port_rule->mode_data.multi.load);
status = RegSetValueEx (rule_key, reg_path, 0L, CVY_TYPE_LOAD, (LPBYTE) &(port_rule->mode_data.multi.load), size);
if (status != ERROR_SUCCESS)
{
goto error;
}
break;
case CVY_SINGLE :
swprintf (reg_path, L"%ls", CVY_NAME_PRIORITY);
size = sizeof (port_rule->mode_data.single.priority);
status = RegSetValueEx (rule_key, reg_path, 0L, CVY_TYPE_PRIORITY, (LPBYTE) &(port_rule->mode_data.single.priority), size);
if (status != ERROR_SUCCESS)
{
goto error;
}
break;
default:
break;
}
port_rule++;
idx++;
}
// If there is a specific-vip port rule, write that info on to the registry
if (fSpecificVipPortRuleFound)
paramp -> i_effective_version = CVY_VERSION_FULL;
else
paramp -> i_effective_version = CVY_NT40_VERSION_FULL;
swprintf (reg_path, L"%ls", CVY_NAME_EFFECTIVE_VERSION);
size = sizeof (paramp -> i_effective_version);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_EFFECTIVE_VERSION,
(LPBYTE) & paramp -> i_effective_version, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_LICENSE_KEY);
size = wcslen (paramp -> i_license_key) * sizeof (WCHAR);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_LICENSE_KEY,
(LPBYTE) paramp -> i_license_key, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_RMT_PASSWORD);
size = sizeof (paramp -> i_rmt_password);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_RMT_PASSWORD,
(LPBYTE) & paramp -> i_rmt_password, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_RCT_PASSWORD);
size = sizeof (paramp -> i_rct_password);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_RCT_PASSWORD,
(LPBYTE) & paramp -> i_rct_password, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_RCT_PORT);
size = sizeof (paramp -> rct_port);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_RCT_PORT,
(LPBYTE) & paramp -> rct_port, size);
if (status != ERROR_SUCCESS)
goto error;
swprintf (reg_path, L"%ls", CVY_NAME_RCT_ENABLED);
size = sizeof (paramp -> rct_enabled);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_RCT_ENABLED,
(LPBYTE) & paramp -> rct_enabled, size);
if (status != ERROR_SUCCESS)
goto error;
//
// IGMP support registry entries
//
status = RegSetValueEx (key, CVY_NAME_IGMP_SUPPORT, 0L, CVY_TYPE_IGMP_SUPPORT,
(LPBYTE) & paramp->fIGMPSupport, sizeof (paramp->fIGMPSupport));
if (status != ERROR_SUCCESS)
goto error;
status = RegSetValueEx (key, CVY_NAME_MCAST_IP_ADDR, 0L, CVY_TYPE_MCAST_IP_ADDR, (LPBYTE) & paramp->szMCastIpAddress,
lstrlen (paramp->szMCastIpAddress)* sizeof(paramp->szMCastIpAddress[0]));
if (status != ERROR_SUCCESS)
goto error;
status = RegSetValueEx (key, CVY_NAME_IP_TO_MCASTIP, 0L, CVY_TYPE_IP_TO_MCASTIP,
(LPBYTE) & paramp->fIpToMCastIp, sizeof (paramp->fIpToMCastIp));
if (status != ERROR_SUCCESS)
goto error;
/* If teaming is active on this adapter, then create a subkey to house the BDA teaming configuration and fill it in. */
if (paramp->bda_teaming.active) {
GUID TeamGuid;
HRESULT hr;
/* Attempt to create the registry key. */
if (!(bda_key = RegCreateWlbsBDASettings(AdapterGuid)))
goto error;
/* Attempt to convert the string to a GUID and check for errors. */
hr = CLSIDFromString(paramp->bda_teaming.team_id, &TeamGuid);
/* If the conversion fails, bail out - the team ID must not have been a GUID. */
if (hr != NOERROR) {
LOG_ERROR1("ParamWriteReg: Invalid BDA Team ID: %ls", paramp->bda_teaming.team_id);
goto error;
}
/* Set the team ID - if it fails, bail out. */
status = RegSetValueEx(bda_key, CVY_NAME_BDA_TEAM_ID, 0L, CVY_TYPE_BDA_TEAM_ID, (LPBYTE)&paramp->bda_teaming.team_id,
lstrlen(paramp->bda_teaming.team_id) * sizeof(paramp->bda_teaming.team_id[0]));
if (status != ERROR_SUCCESS)
goto bda_error;
/* Set the master status - if it fails, bail out. */
status = RegSetValueEx(bda_key, CVY_NAME_BDA_MASTER, 0L, CVY_TYPE_BDA_MASTER,
(LPBYTE)&paramp->bda_teaming.master, sizeof (paramp->bda_teaming.master));
if (status != ERROR_SUCCESS)
goto bda_error;
/* Set the reverse hashing flag - if it fails, bail out. */
status = RegSetValueEx(bda_key, CVY_NAME_BDA_REVERSE_HASH, 0L, CVY_TYPE_BDA_REVERSE_HASH,
(LPBYTE)&paramp->bda_teaming.reverse_hash, sizeof (paramp->bda_teaming.reverse_hash));
if (status != ERROR_SUCCESS)
goto bda_error;
RegCloseKey(bda_key);
} else {
/* Delte the registry key and ignore the return value - the key may not even exist. */
RegDeleteWlbsBDASettings(AdapterGuid);
}
//
// Create an empty string if VirtualNICName does not exist
//
swprintf (reg_path, L"%ls", CVY_NAME_VIRTUAL_NIC);
WCHAR virtual_nic_name[CVY_MAX_CLUSTER_NIC + 1];
size = sizeof(virtual_nic_name);
status = RegQueryValueEx (key, CVY_NAME_VIRTUAL_NIC, 0L, NULL,
(LPBYTE)virtual_nic_name, & size);
if (status != ERROR_SUCCESS)
{
virtual_nic_name [0] = 0;
size = wcslen (virtual_nic_name) * sizeof (WCHAR);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_VIRTUAL_NIC,
(LPBYTE) & virtual_nic_name, size);
}
/* lastly write the version number */
swprintf (reg_path, L"%ls", CVY_NAME_VERSION);
size = sizeof (paramp -> i_parms_ver);
status = RegSetValueEx (key, reg_path, 0L, CVY_TYPE_VERSION,
(LPBYTE) & paramp -> i_parms_ver, size);
if (status != ERROR_SUCCESS)
goto error;
RegCloseKey (key);
return TRUE;
error:
RegCloseKey(key);
return FALSE;
bda_error:
RegCloseKey(bda_key);
goto error;
}
//+----------------------------------------------------------------------------
//
// Function: ParamDeleteReg
//
// Description: Delete the registry settings
//
// Arguments: IN const WCHAR* pszInterface -
//
// Returns: DWORD WINAPI -
//
// History: fengsun Created Header 1/22/00
//
//+----------------------------------------------------------------------------
bool WINAPI ParamDeleteReg(const GUID& AdapterGuid, bool fDeleteObsoleteEntries)
{
WCHAR reg_path [PARAMS_MAX_STRING_SIZE];
LONG status;
WCHAR szAdapterGuid[128];
StringFromGUID2(AdapterGuid, szAdapterGuid,
sizeof(szAdapterGuid)/sizeof(szAdapterGuid[0]) );
swprintf (reg_path, L"SYSTEM\\CurrentControlSet\\Services\\WLBS\\Parameters\\Interface\\%s",
szAdapterGuid);
if (fDeleteObsoleteEntries)
{
HKEY hkey;
// Delete Port Rules in Binary format
status = RegOpenKeyEx (HKEY_LOCAL_MACHINE, reg_path, 0L, KEY_ALL_ACCESS, &hkey);
if (status == ERROR_SUCCESS)
{
RegDeleteValue(hkey, CVY_NAME_OLD_PORT_RULES);
RegCloseKey(hkey);
}
// Delete Win2k entries, Enumerate & delete values
swprintf (reg_path, L"SYSTEM\\CurrentControlSet\\Services\\WLBS\\Parameters");
status = RegOpenKeyEx (HKEY_LOCAL_MACHINE, reg_path, 0L, KEY_ALL_ACCESS, &hkey);
if (status == ERROR_SUCCESS)
{
DWORD Index, ValueNameSize;
WCHAR ValueName [PARAMS_MAX_STRING_SIZE];
Index = 0;
ValueNameSize = PARAMS_MAX_STRING_SIZE;
while (RegEnumValue(hkey, Index++, ValueName, &ValueNameSize, NULL, NULL, NULL, NULL) == ERROR_SUCCESS)
{
RegDeleteValue(hkey, ValueName);
}
RegCloseKey(hkey);
}
}
else
{
DWORD dwRet = RegDeleteKey(HKEY_LOCAL_MACHINE, reg_path);
if (dwRet != ERROR_SUCCESS)
{
LOG_ERROR1("ParamDeleteReg failed at RegDeleteKey for %s", szAdapterGuid);
return false;
}
}
return true;
} /* end Params_delete */
//+----------------------------------------------------------------------------
//
// Function: ParamSetDefaults
//
// Description: Set default settings
//
// Arguments: PWLBS_REG_PARAMS reg_data -
//
// Returns: DWORD -
//
// History: fengsun Created Header 3/9/00
//
//+----------------------------------------------------------------------------
DWORD WINAPI ParamSetDefaults(PWLBS_REG_PARAMS reg_data)
{
reg_data -> install_date = 0;
reg_data -> i_verify_date = 0;
// reg_data -> cluster_nic_name [0] = _TEXT('\0');
reg_data -> i_parms_ver = CVY_DEF_VERSION;
reg_data -> i_virtual_nic_name [0] = _TEXT('\0');
reg_data -> host_priority = CVY_DEF_HOST_PRIORITY;
reg_data -> cluster_mode = CVY_DEF_CLUSTER_MODE;
_stprintf (reg_data -> cl_mac_addr, _TEXT("%ls"), CVY_DEF_NETWORK_ADDR);
_stprintf (reg_data -> cl_ip_addr, _TEXT("%ls"), CVY_DEF_CL_IP_ADDR);
_stprintf (reg_data -> cl_net_mask, _TEXT("%ls"), CVY_DEF_CL_NET_MASK);
_stprintf (reg_data -> ded_ip_addr, _TEXT("%ls"), CVY_DEF_DED_IP_ADDR);
_stprintf (reg_data -> ded_net_mask, _TEXT("%ls"), CVY_DEF_DED_NET_MASK);
_stprintf (reg_data -> domain_name, _TEXT("%ls"), CVY_DEF_DOMAIN_NAME);
reg_data -> alive_period = CVY_DEF_ALIVE_PERIOD;
reg_data -> alive_tolerance = CVY_DEF_ALIVE_TOLER;
reg_data -> num_actions = CVY_DEF_NUM_ACTIONS;
reg_data -> num_packets = CVY_DEF_NUM_PACKETS;
reg_data -> num_send_msgs = CVY_DEF_NUM_SEND_MSGS;
reg_data -> dscr_per_alloc = CVY_DEF_DSCR_PER_ALLOC;
reg_data -> max_dscr_allocs = CVY_DEF_MAX_DSCR_ALLOCS;
reg_data -> i_scale_client = CVY_DEF_SCALE_CLIENT;
reg_data -> i_cleanup_delay = CVY_DEF_CLEANUP_DELAY;
reg_data -> i_ip_chg_delay = CVY_DEF_IP_CHG_DELAY;
reg_data -> i_nbt_support = CVY_DEF_NBT_SUPPORT;
reg_data -> mcast_support = CVY_DEF_MCAST_SUPPORT;
reg_data -> i_mcast_spoof = CVY_DEF_MCAST_SPOOF;
reg_data -> mask_src_mac = CVY_DEF_MASK_SRC_MAC;
reg_data -> i_netmon_alive = CVY_DEF_NETMON_ALIVE;
reg_data -> i_effective_version = CVY_NT40_VERSION_FULL;
reg_data -> i_convert_mac = CVY_DEF_CONVERT_MAC;
reg_data -> i_num_rules = 0;
memset (reg_data -> i_port_rules, 0, sizeof (WLBS_PORT_RULE) * WLBS_MAX_RULES);
_stprintf (reg_data -> i_license_key, _TEXT("%ls"), CVY_DEF_LICENSE_KEY);
reg_data -> i_rmt_password = CVY_DEF_RMT_PASSWORD;
reg_data -> i_rct_password = CVY_DEF_RCT_PASSWORD;
reg_data -> rct_port = CVY_DEF_RCT_PORT;
reg_data -> rct_enabled = CVY_DEF_RCT_ENABLED;
reg_data -> i_max_hosts = CVY_MAX_HOSTS;
reg_data -> i_max_rules = CVY_MAX_USABLE_RULES;
reg_data -> fIGMPSupport = CVY_DEF_IGMP_SUPPORT;
lstrcpy(reg_data -> szMCastIpAddress, CVY_DEF_MCAST_IP_ADDR);
reg_data -> fIpToMCastIp = CVY_DEF_IP_TO_MCASTIP;
reg_data->bda_teaming.active = CVY_DEF_BDA_ACTIVE;
reg_data->bda_teaming.master = CVY_DEF_BDA_MASTER;
reg_data->bda_teaming.reverse_hash = CVY_DEF_BDA_REVERSE_HASH;
reg_data->bda_teaming.team_id[0] = CVY_DEF_BDA_TEAM_ID;
reg_data -> i_num_rules = 1;
// fill in the first port rule.
_stprintf (reg_data->i_port_rules[0].virtual_ip_addr, _TEXT("%ls"), CVY_DEF_ALL_VIP);
reg_data -> i_port_rules [0] . start_port = CVY_DEF_PORT_START;
reg_data -> i_port_rules [0] . end_port = CVY_DEF_PORT_END;
reg_data -> i_port_rules [0] . valid = TRUE;
reg_data -> i_port_rules [0] . mode = CVY_DEF_MODE;
reg_data -> i_port_rules [0] . mode_data . multi . equal_load = TRUE;
reg_data -> i_port_rules [0] . mode_data . multi . affinity = CVY_DEF_AFFINITY;
reg_data -> i_port_rules [0] . mode_data . multi . load = CVY_DEF_LOAD;
reg_data -> i_port_rules [0] . protocol = CVY_DEF_PROTOCOL;
CVY_RULE_CODE_SET(& reg_data -> i_port_rules [0]);
return WLBS_OK;
}
EXTERN_C DWORD WINAPI WlbsGetNumPortRules
(
const PWLBS_REG_PARAMS reg_data
)
{
if (reg_data == NULL)
return WLBS_BAD_PARAMS;
return reg_data -> i_num_rules;
} /* end WlbsGetNumPortRules */
EXTERN_C DWORD WINAPI WlbsGetEffectiveVersion
(
const PWLBS_REG_PARAMS reg_data
)
{
if (reg_data == NULL)
return WLBS_BAD_PARAMS;
return reg_data -> i_effective_version;
} /* end WlbsGetEffectiveVersion */
EXTERN_C DWORD WINAPI WlbsEnumPortRules
(
const PWLBS_REG_PARAMS reg_data,
PWLBS_PORT_RULE rules,
PDWORD num_rules
)
{
DWORD count_rules, i, index;
DWORD lowest_vip, lowest_port;
BOOL array_flags [WLBS_MAX_RULES];
WLBS_PORT_RULE sorted_rules [WLBS_MAX_RULES];
if ((reg_data == NULL) || (num_rules == NULL))
return WLBS_BAD_PARAMS;
if (*num_rules == 0)
rules = NULL;
/* this array is used for keeping track of which rules have already been retrieved */
/* This is needed since the rules are to be retrieved in the sorted order */
memset ( array_flags, 0, sizeof(BOOL) * WLBS_MAX_RULES );
count_rules = 0;
while ((count_rules < *num_rules) && (count_rules < reg_data -> i_num_rules))
{
i = 0;
/* find the first rule that has not been retrieved */
while ((! reg_data -> i_port_rules [i] . valid) || array_flags [i])
{
i++;
}
lowest_vip = htonl(IpAddressFromAbcdWsz(reg_data -> i_port_rules [i] . virtual_ip_addr));
lowest_port = reg_data -> i_port_rules [i] . start_port;
index = i;
/* Compare that rule with the other non-retrieved rules to get the rule with the
lowest VIP & start_port */
i++;
while (i < WLBS_MAX_RULES)
{
if (reg_data -> i_port_rules [i] . valid && ( ! array_flags [i] ))
{
DWORD current_vip = htonl(IpAddressFromAbcdWsz(reg_data -> i_port_rules [i] . virtual_ip_addr));
if ((current_vip < lowest_vip)
|| ((current_vip == lowest_vip) && (reg_data -> i_port_rules [i] . start_port < lowest_port)))
{
lowest_vip = current_vip;
lowest_port = reg_data -> i_port_rules [i] . start_port;
index = i;
}
}
i++;
}
/* The array_flags [i] element is set to TRUE if the rule is retrieved */
array_flags [index] = TRUE;
sorted_rules [count_rules] = reg_data -> i_port_rules [index];
count_rules ++;
}
/* write the sorted rules back into the return array */
for (i = 0; i < count_rules; i++)
rules[i] = sorted_rules[i];
/* invalidate the remaining rules in the buffer */
for (i = count_rules; i < *num_rules; i++)
rules [i] . valid = FALSE;
if (*num_rules < reg_data -> i_num_rules)
{
*num_rules = reg_data -> i_num_rules;
return WLBS_TRUNCATED;
}
*num_rules = reg_data -> i_num_rules;
return WLBS_OK;
} /* end WlbsEnumPortRules */
EXTERN_C DWORD WINAPI WlbsGetPortRule
(
const PWLBS_REG_PARAMS reg_data,
DWORD vip,
DWORD pos,
OUT PWLBS_PORT_RULE rule
)
{
int i;
if ((reg_data == NULL) || (rule == NULL))
return WLBS_BAD_PARAMS;
/* need to check whether pos is within the correct range */
if ( /* CLEAN_64BIT (pos < CVY_MIN_PORT) || */ (pos > CVY_MAX_PORT))
return WLBS_BAD_PARAMS;
/* search through the array for the rules */
for (i = 0; i < WLBS_MAX_RULES; i++)
{
/* check only the valid rules */
if (reg_data -> i_port_rules[i] . valid == TRUE)
{
/* check the range of the rule to see if pos fits into it */
if ((vip == IpAddressFromAbcdWsz(reg_data -> i_port_rules[i] . virtual_ip_addr)) &&
(pos >= reg_data -> i_port_rules[i] . start_port) &&
(pos <= reg_data -> i_port_rules[i] . end_port))
{
*rule = reg_data -> i_port_rules [i];
return WLBS_OK;
}
}
}
/* no rule was found for this port */
return WLBS_NOT_FOUND;
} /* end WlbsGetPortRule */
EXTERN_C DWORD WINAPI WlbsAddPortRule
(
PWLBS_REG_PARAMS reg_data,
const PWLBS_PORT_RULE rule
)
{
int i;
DWORD vip;
if ((reg_data == NULL) || (rule == NULL))
return WLBS_BAD_PARAMS;
/* Check if there is space for the new rule */
if (reg_data -> i_num_rules == WLBS_MAX_RULES)
return WLBS_MAX_PORT_RULES;
/* check the rule for valid values */
/* check for non-zero vip and conflict with dip */
vip = IpAddressFromAbcdWsz(rule -> virtual_ip_addr);
if ((vip == 0) || (vip == IpAddressFromAbcdWsz(reg_data->ded_ip_addr)))
{
return WLBS_BAD_PORT_PARAMS;
}
/* first check the range of the start and end ports */
if ((rule -> start_port > rule -> end_port) ||
// CLEAN_64BIT (rule -> start_port < CVY_MIN_PORT) ||
(rule -> end_port > CVY_MAX_PORT))
{
return WLBS_BAD_PORT_PARAMS;
}
/* check the protocol range */
if ((rule -> protocol < CVY_MIN_PROTOCOL) || (rule -> protocol > CVY_MAX_PROTOCOL))
return WLBS_BAD_PORT_PARAMS;
/* check filtering mode to see whether it is within range */
if ((rule -> mode < CVY_MIN_MODE) || (rule -> mode > CVY_MAX_MODE))
return WLBS_BAD_PORT_PARAMS;
/* check load weight and affinity if multiple hosts */
if (rule -> mode == CVY_MULTI)
{
if ((rule -> mode_data . multi . affinity < CVY_MIN_AFFINITY) ||
(rule -> mode_data . multi . affinity > CVY_MAX_AFFINITY))
{
return WLBS_BAD_PORT_PARAMS;
}
if ((rule -> mode_data . multi . equal_load < CVY_MIN_EQUAL_LOAD) ||
(rule -> mode_data . multi . equal_load > CVY_MAX_EQUAL_LOAD))
{
return WLBS_BAD_PORT_PARAMS;
}
if (! rule -> mode_data . multi . equal_load)
{
if ((rule -> mode_data . multi . load > CVY_MAX_LOAD))
//CLEAN_64BIT (rule -> mode_data . multi . load < CVY_MIN_LOAD) ||
{
return WLBS_BAD_PORT_PARAMS;
}
}
}
/* check handling priority range if single host */
if (rule -> mode == CVY_SINGLE)
{
if ((rule -> mode_data . single . priority < CVY_MIN_PRIORITY) ||
(rule -> mode_data . single . priority > CVY_MAX_PRIORITY))
{
return WLBS_BAD_PORT_PARAMS;
}
}
/* go through the rule list and then check for overlapping conditions */
for (i = 0; i < WLBS_MAX_RULES; i++)
{
if (reg_data -> i_port_rules[i] . valid == TRUE)
{
if ((IpAddressFromAbcdWsz(reg_data -> i_port_rules[i] . virtual_ip_addr) == vip)
&& (( (reg_data -> i_port_rules[i] . start_port <= rule -> start_port) &&
(reg_data -> i_port_rules[i] . end_port >= rule -> start_port)) ||
( (reg_data -> i_port_rules[i] . start_port >= rule -> start_port) &&
(reg_data -> i_port_rules[i] . start_port <= rule -> end_port))))
{
return WLBS_PORT_OVERLAP;
}
}
}
/* go through the rule list and find out the first empty spot
and write out the port rule */
for (i = 0 ; i < WLBS_MAX_RULES ; i++)
{
if (reg_data -> i_port_rules[i] . valid == FALSE)
{
reg_data -> i_num_rules ++ ;
reg_data -> i_port_rules [i] = *rule;
reg_data -> i_port_rules [i] . valid = TRUE;
CVY_RULE_CODE_SET(& reg_data -> i_port_rules [i]);
return WLBS_OK;
}
}
return WLBS_MAX_PORT_RULES;
} /* end WlbsAddPortRule */
EXTERN_C DWORD WINAPI WlbsDeletePortRule
(
PWLBS_REG_PARAMS reg_data,
DWORD vip,
DWORD port
)
{
int i;
if (reg_data == NULL)
return WLBS_BAD_PARAMS;
/* check if the port is within the correct range */
if ( /* CLEAN_64BIT (port < CVY_MIN_PORT) ||*/ (port > CVY_MAX_PORT))
return WLBS_BAD_PARAMS;
/* find the rule associated with this port */
for (i = 0; i < WLBS_MAX_RULES; i++)
{
if (reg_data -> i_port_rules[i] . valid)
{
if ((vip == IpAddressFromAbcdWsz(reg_data -> i_port_rules[i] . virtual_ip_addr)) &&
(port >= reg_data -> i_port_rules[i] . start_port) &&
(port <= reg_data -> i_port_rules[i] . end_port))
{
reg_data -> i_port_rules[i] . valid = FALSE;
reg_data -> i_num_rules -- ;
return WLBS_OK;
}
}
}
return WLBS_NOT_FOUND;
} /* end WlbsDeletePortRule */
EXTERN_C DWORD WINAPI WlbsSetRemotePassword
(
PWLBS_REG_PARAMS reg_data,
const WCHAR* password
)
{
if (reg_data == NULL)
return WLBS_BAD_PARAMS;
if (password != NULL)
{
reg_data -> i_rct_password = License_wstring_encode ((WCHAR*)password);
}
else
reg_data -> i_rct_password = CVY_DEF_RCT_PASSWORD;
return WLBS_OK;
} /* end WlbsSetRemotePassword */
//+----------------------------------------------------------------------------
//
// Function: RegChangeNetworkAddress
//
// Description: Change the mac address of the adapter in registry
//
// Arguments: const GUID& AdapterGuid - the adapter guid to look up settings
// TCHAR mac_address -
// BOOL fRemove - true to remove address, false to write address
//
// Returns: bool - true if succeeded
//
// History: fengsun Created Header 1/18/00
//
//+----------------------------------------------------------------------------
bool WINAPI RegChangeNetworkAddress(const GUID& AdapterGuid, const WCHAR* mac_address, BOOL fRemove)
{
HKEY key = NULL;
LONG status;
DWORD size;
DWORD type;
TCHAR net_addr [CVY_MAX_NETWORK_ADDR + 1];
HDEVINFO hdi = NULL;
SP_DEVINFO_DATA deid;
TCHAR tbuf[CVY_STR_SIZE];
if (fRemove)
{
LOG_INFO("RegChangeNetworkAddress remove mac address");
}
else
{
if (!lstrcmpi(mac_address, CVY_DEF_UNICAST_NETWORK_ADDR)) {
LOG_INFO1("RegChangeNetworkAddress refusing to change mac address to %ws", mac_address);
fRemove = TRUE;
} else {
LOG_INFO1("RegChangeNetworkAddress to %ws", mac_address);
}
}
/*
- write NetworkAddress value into the cluster adapter's params key
if mac address changed, or remove it if switched to multicast mode
*/
key = RegOpenWlbsSetting(AdapterGuid, true);
if (key == NULL)
{
LOG_ERROR("RegChangeNetworkAddress failed at RegOpenWlbsSetting");
goto error;
}
_stprintf (tbuf, _TEXT("%ls"), CVY_NAME_CLUSTER_NIC);
TCHAR driver_name [CVY_STR_SIZE]; // the NIC card name for the cluster
size = sizeof (driver_name);
status = RegQueryValueEx (key, tbuf, 0L, & type, (LPBYTE) driver_name,
& size);
if (status != ERROR_SUCCESS)
{
LOG_ERROR("RegChangeNetworkAddress failed at RegQueryValueEx for ClusterNICName");
goto error;
}
RegCloseKey(key);
key = NULL;
hdi = SetupDiCreateDeviceInfoList (&GUID_DEVCLASS_NET, NULL);
if (hdi == INVALID_HANDLE_VALUE)
{
LOG_ERROR("RegChangeNetworkAddress failed at SetupDiCreateDeviceInfoList");
goto error;
}
ZeroMemory(&deid, sizeof(deid));
deid.cbSize = sizeof(deid);
if (! SetupDiOpenDeviceInfo (hdi, driver_name, NULL, 0, &deid))
{
LOG_ERROR("RegChangeNetworkAddress failed at SetupDiOpenDeviceInfo");
goto error;
}
key = SetupDiOpenDevRegKey (hdi, &deid, DICS_FLAG_GLOBAL, 0,
DIREG_DRV, KEY_ALL_ACCESS);
if (key == INVALID_HANDLE_VALUE)
{
LOG_ERROR("RegChangeNetworkAddress failed at SetupDiOpenDevRegKey");
goto error;
}
/* Now the key has been obtained and this can be passed to the RegChangeNetworkAddress call */
if ((/*global_info.mac_addr_change ||*/ !fRemove)) /* a write is required */
{
/* Check if the saved name exists.
* If it does not, create a new field and save the old address.
* Write the new address and return
*/
_stprintf (tbuf, _TEXT("%ls"), CVY_NAME_SAVED_NET_ADDR);
size = sizeof (TCHAR) * CVY_STR_SIZE;
status = RegQueryValueEx (key, tbuf, 0L, &type,
(LPBYTE) net_addr, &size);
if (status != ERROR_SUCCESS) /* there is no saved address. so create a field */
{
/* Query the existing mac address in order to save it */
_stprintf (tbuf, _TEXT("%ls"), CVY_NAME_NET_ADDR);
size = sizeof (net_addr);
status = RegQueryValueEx (key, tbuf, 0L, &type,
(LPBYTE) net_addr, &size);
if (status != ERROR_SUCCESS) /* create an empty saved address */
{
net_addr [0] = 0;
size = 0;
}
_stprintf (tbuf, _TEXT("%ls"), CVY_NAME_SAVED_NET_ADDR);
status = RegSetValueEx (key, tbuf, 0L, CVY_TYPE_NET_ADDR,
(LPBYTE) net_addr, size);
/* Unable to save the old value */
if (status != ERROR_SUCCESS)
{
LOG_ERROR("RegChangeNetworkAddress failed at RegSetValueEx for WLBSSavedNetworkAddress");
goto error;
}
}
/* Write the new network address */
_stprintf (tbuf, _TEXT("%ls"), CVY_NAME_NET_ADDR);
size = _tcslen (mac_address) * sizeof (TCHAR);
status = RegSetValueEx (key, tbuf, 0L, CVY_TYPE_NET_ADDR,
(LPBYTE)mac_address, size);
/* Unable to write the new address */
if (status != ERROR_SUCCESS)
{
LOG_ERROR("RegChangeNetworkAddress failed at RegSetValueEx for NetworkAddress");
goto error;
}
}
else // remove the address
{
/* If the saved field exists,
* copy this address into the mac address
* and remove the saved field and return.
*/
_stprintf (tbuf, _TEXT("%ls"), CVY_NAME_SAVED_NET_ADDR);
size = sizeof (net_addr);
status = RegQueryValueEx (key, tbuf, 0L, &type,
(LPBYTE)net_addr, &size);
if (status == ERROR_SUCCESS)
{
/* delete both fields if saved address is empty */
if ((size == 0) || (_tcsicmp (net_addr, _TEXT("none")) == 0))
{
_stprintf (tbuf, _TEXT("%ls"), CVY_NAME_SAVED_NET_ADDR);
RegDeleteValue (key, tbuf);
_stprintf (tbuf, _TEXT("%ls"), CVY_NAME_NET_ADDR);
RegDeleteValue (key, tbuf);
}
else /* copy saved address as the network address and delete the saved address field */
{
_stprintf (tbuf, _TEXT("%ls"), CVY_NAME_SAVED_NET_ADDR);
RegDeleteValue (key, tbuf);
_stprintf (tbuf, _TEXT("%ls"), CVY_NAME_NET_ADDR);
size = _tcslen (net_addr) * sizeof (TCHAR);
status = RegSetValueEx (key, tbuf, 0L, CVY_TYPE_NET_ADDR,
(LPBYTE) net_addr, size);
/* Unable to set the original address */
if (status != ERROR_SUCCESS)
{
LOG_ERROR("RegChangeNetworkAddress failed at RegSetValueEx for NetworkAddress");
goto error;
}
}
}
}
RegCloseKey (key);
key = NULL;
return true;
error:
if (key != NULL)
RegCloseKey(key);
if (hdi != NULL)
SetupDiDestroyDeviceInfoList (hdi);
LOG_ERROR("RegChangeNetworkAddress failed");
return false;
}
//+----------------------------------------------------------------------------
//
// Function: NotifyAdapterAddressChange
//
// Description: Notify the adapter to reload MAC address
// The parameter is different from NotifyAdapterAddressChange.
// Can not overload, because the function has to be exported
//
// Arguments: const WCHAR* driver_name -
//
// Returns: void WINAPI -
//
// History: fengsun Created 5/20/00
//
//+----------------------------------------------------------------------------
void WINAPI NotifyAdapterAddressChange (const WCHAR * driver_name) {
NotifyAdapterPropertyChange(driver_name, DICS_PROPCHANGE);
}
/*
* Function: NotifyAdapterPropertyChange
* Description: Notify a device that a property change event has occurred.
* Event should be one of: DICS_PROPCHANGE, DICS_DISABLE, DICS_ENABLE
* Author: shouse 7.17.00
*/
void WINAPI NotifyAdapterPropertyChange (const WCHAR * driver_name, DWORD eventFlag) {
HDEVINFO hdi = NULL;
SP_DEVINFO_DATA deid;
LOG_INFO1("NotifyAdapterPropertyChange eventFlag %d", eventFlag);
hdi = SetupDiCreateDeviceInfoList (&GUID_DEVCLASS_NET, NULL);
if (hdi == INVALID_HANDLE_VALUE)
{
LOG_ERROR("NotifyAdapterPropertyChange failed at SetupDiCreateDeviceInfoList");
goto error;
}
ZeroMemory(&deid, sizeof(deid));
deid.cbSize = sizeof(deid);
if (! SetupDiOpenDeviceInfo (hdi, driver_name, NULL, 0, &deid))
{
LOG_ERROR("NotifyAdapterPropertyChange failed at SetupDiOpenDeviceInfo");
goto error;
}
SP_PROPCHANGE_PARAMS pcp;
SP_DEVINSTALL_PARAMS deip;
ZeroMemory(&pcp, sizeof(pcp));
pcp.ClassInstallHeader.cbSize = sizeof(SP_CLASSINSTALL_HEADER);
pcp.ClassInstallHeader.InstallFunction = DIF_PROPERTYCHANGE;
pcp.StateChange = eventFlag;
pcp.Scope = DICS_FLAG_GLOBAL;
pcp.HwProfile = 0;
// Now we set the structure as the device info data's
// class install params
if (! SetupDiSetClassInstallParams(hdi, &deid,
(PSP_CLASSINSTALL_HEADER)(&pcp),
sizeof(pcp)))
{
LOG_ERROR("NotifyAdapterPropertyChange failed at SetupDiSetClassInstallParams");
goto error;
}
// Now we need to set the "we have a class install params" flag
// in the device install params
// initialize out parameter and set its cbSize field
ZeroMemory(&deip, sizeof(SP_DEVINSTALL_PARAMS));
deip.cbSize = sizeof(SP_DEVINSTALL_PARAMS);
// get the header
if (! SetupDiGetDeviceInstallParams(hdi, &deid, &deip))
{
LOG_ERROR("NotifyAdapterPropertyChange failed at SetupDiGetDeviceInstallParams");
goto error;
}
deip.Flags |= DI_CLASSINSTALLPARAMS;
if (! SetupDiSetDeviceInstallParams(hdi, &deid, &deip))
{
LOG_ERROR("NotifyAdapterPropertyChange failed at SetupDiGetDeviceInstallParams");
goto error;
}
// Notify the driver that the state has changed
LOG_INFO("NotifyAdapterPropertyChange, About to call SetupDiCallClassInstaller");
if (! SetupDiCallClassInstaller(DIF_PROPERTYCHANGE, hdi, &deid))
{
LOG_ERROR("NotifyAdapterPropertyChange failed at SetupDiCallClassInstaller");
goto error;
}
LOG_INFO("NotifyAdapterPropertyChange, Returned from call to SetupDiCallClassInstaller");
// Set the properties change flag in the device info to
// let anyone who cares know that their ui might need
// updating to reflect any change in the device's status
// We can't let any failures here stop us so we ignore
// return values
SetupDiGetDeviceInstallParams(hdi, &deid, &deip);
deip.Flags |= DI_PROPERTIES_CHANGE;
SetupDiSetDeviceInstallParams(hdi, &deid, &deip);
SetupDiDestroyDeviceInfoList (hdi);
LOG_INFO("NotifyAdapterPropertyChange succeeded here");
error:
if (hdi != NULL)
SetupDiDestroyDeviceInfoList (hdi);
}
/*
* Function: GetDeviceNameFromGUID
* Description: Given a GUID, return the driver name.
* Author: shouse 7.17.00
*/
void WINAPI GetDriverNameFromGUID (const GUID & AdapterGuid, OUT WCHAR * driver_name, DWORD size) {
TCHAR tbuf[CVY_STR_SIZE];
HKEY key = NULL;
DWORD type;
if (!(key = RegOpenWlbsSetting(AdapterGuid, true))) return;
_stprintf (tbuf, _TEXT("%ls"), CVY_NAME_CLUSTER_NIC);
RegQueryValueEx(key, tbuf, 0L, &type, (LPBYTE)driver_name, &size);
RegCloseKey(key);
}
//+----------------------------------------------------------------------------
//
// Function: RegReadAdapterIp
//
// Description: Read the adapter IP settings
//
// Arguments: const GUID& AdapterGuid -
// OUT DWORD& dwClusterIp -
// OUT DWORD& dwDedicatedIp -
//
// Returns: bool -
//
// History: fengsun Created Header 3/9/00
//
//+----------------------------------------------------------------------------
bool WINAPI RegReadAdapterIp(const GUID& AdapterGuid,
OUT DWORD& dwClusterIp, OUT DWORD& dwDedicatedIp)
{
HKEY key;
LONG status;
DWORD size;
key = RegOpenWlbsSetting(AdapterGuid, true);
if (key == NULL)
{
return false;
}
bool local = false;
TCHAR nic_name[CVY_STR_SIZE]; // Virtual NIC name
size = sizeof (nic_name);
status = RegQueryValueEx (key, CVY_NAME_VIRTUAL_NIC, 0L, NULL,
(LPBYTE) nic_name, & size);
if (status == ERROR_SUCCESS)
{
TCHAR szIpAddress[CVY_STR_SIZE];
size = sizeof (TCHAR) * CVY_STR_SIZE;
status = RegQueryValueEx (key, CVY_NAME_CL_IP_ADDR, 0L, NULL,
(LPBYTE) szIpAddress, & size);
if (status == ERROR_SUCCESS)
{
dwClusterIp = IpAddressFromAbcdWsz (szIpAddress);
local = true;
}
status = RegQueryValueEx (key, CVY_NAME_DED_IP_ADDR, 0L, NULL,
(LPBYTE) szIpAddress, & size);
if (status == ERROR_SUCCESS)
dwDedicatedIp = IpAddressFromAbcdWsz (szIpAddress);
}
RegCloseKey (key);
return local;
}
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