A few controller changes: (1) assign managed IPs that are assigned regardless of "assign mode" which now only controls auto-assignment or special addressing, (2) support proper issuing of managed IPv6 IPs, (3) support IPv6 auto-assign ranges

This commit is contained in:
Adam Ierymenko 2016-07-07 15:42:10 -07:00
parent dd1d2b4d00
commit 6e08e1ae97
2 changed files with 183 additions and 99 deletions

View File

@ -85,9 +85,10 @@
#define ZT_NETCONF_NODE_ACTIVE_THRESHOLD ((ZT_NETWORK_AUTOCONF_DELAY * 2) + 5000)
// Flags for Network 'flags' field in table
#define ZT_DB_NETWORK_FLAG_ZT_MANAGED_V4 1
#define ZT_DB_NETWORK_FLAG_ZT_MANAGED_V4_AUTO_ASSIGN 1
#define ZT_DB_NETWORK_FLAG_ZT_MANAGED_V6_RFC4193 2
#define ZT_DB_NETWORK_FLAG_ZT_MANAGED_V6_6PLANE 4
#define ZT_DB_NETWORK_FLAG_ZT_MANAGED_V6_AUTO_ASSIGN 8
// Flags with all V6 managed mode flags flipped off -- for masking in update operation and in string form for SQL building
#define ZT_DB_NETWORK_FLAG_ZT_MANAGED_V6_MASK_S "268435449"
@ -376,8 +377,7 @@ SqliteNetworkController::SqliteNetworkController(Node *node,const char *dbPath,c
||(sqlite3_prepare_v2(_db,"DELETE FROM IpAssignmentPool WHERE networkId = ?",-1,&_sDeleteIpAssignmentPoolsForNetwork,(const char **)0) != SQLITE_OK)
/* IpAssignment */
||(sqlite3_prepare_v2(_db,"SELECT \"type\",ip,ipNetmaskBits FROM IpAssignment WHERE networkId = ? AND (nodeId = ? OR nodeId IS NULL) AND ipVersion = ?",-1,&_sGetIpAssignmentsForNode,(const char **)0) != SQLITE_OK)
||(sqlite3_prepare_v2(_db,"SELECT ip,ipNetmaskBits,ipVersion FROM IpAssignment WHERE networkId = ? AND nodeId = ? AND \"type\" = ? ORDER BY ip ASC",-1,&_sGetIpAssignmentsForNode2,(const char **)0) != SQLITE_OK)
||(sqlite3_prepare_v2(_db,"SELECT ip,ipNetmaskBits,ipVersion FROM IpAssignment WHERE networkId = ? AND nodeId = ? AND \"type\" = 0 ORDER BY ip ASC",-1,&_sGetIpAssignmentsForNode,(const char **)0) != SQLITE_OK)
||(sqlite3_prepare_v2(_db,"SELECT 1 FROM IpAssignment WHERE networkId = ? AND ip = ? AND ipVersion = ? AND \"type\" = ?",-1,&_sCheckIfIpIsAllocated,(const char **)0) != SQLITE_OK)
||(sqlite3_prepare_v2(_db,"INSERT INTO IpAssignment (networkId,nodeId,\"type\",ip,ipNetmaskBits,ipVersion) VALUES (?,?,?,?,?,?)",-1,&_sAllocateIp,(const char **)0) != SQLITE_OK)
||(sqlite3_prepare_v2(_db,"DELETE FROM IpAssignment WHERE networkId = ? AND nodeId = ? AND \"type\" = ?",-1,&_sDeleteIpAllocations,(const char **)0) != SQLITE_OK)
@ -474,7 +474,6 @@ SqliteNetworkController::~SqliteNetworkController()
sqlite3_finalize(_sCreateNetwork);
sqlite3_finalize(_sGetNetworkRevision);
sqlite3_finalize(_sSetNetworkRevision);
sqlite3_finalize(_sGetIpAssignmentsForNode2);
sqlite3_finalize(_sDeleteRelaysForNetwork);
sqlite3_finalize(_sCreateRelay);
sqlite3_finalize(_sDeleteIpAssignmentPoolsForNetwork);
@ -740,6 +739,7 @@ NetworkController::ResultCode SqliteNetworkController::doNetworkConfigRequest(co
++nc.routeCount;
}
// Assign special IPv6 addresses if these are enabled
if (((network.flags & ZT_DB_NETWORK_FLAG_ZT_MANAGED_V6_RFC4193) != 0)&&(nc.staticIpCount < ZT_MAX_ZT_ASSIGNED_ADDRESSES)) {
nc.staticIps[nc.staticIpCount++] = InetAddress::makeIpv6rfc4193(nwid,identity.address().toInt());
nc.flags |= ZT_NETWORKCONFIG_FLAG_ENABLE_IPV6_NDP_EMULATION;
@ -749,99 +749,180 @@ NetworkController::ResultCode SqliteNetworkController::doNetworkConfigRequest(co
nc.flags |= ZT_NETWORKCONFIG_FLAG_ENABLE_IPV6_NDP_EMULATION;
}
if ((network.flags & ZT_DB_NETWORK_FLAG_ZT_MANAGED_V4) != 0) {
bool haveStaticIpAssignment = false;
sqlite3_reset(_sGetIpAssignmentsForNode);
sqlite3_bind_text(_sGetIpAssignmentsForNode,1,network.id,16,SQLITE_STATIC);
sqlite3_bind_text(_sGetIpAssignmentsForNode,2,member.nodeId,10,SQLITE_STATIC);
sqlite3_bind_int(_sGetIpAssignmentsForNode,3,4); // 4 == IPv4
while (sqlite3_step(_sGetIpAssignmentsForNode) == SQLITE_ROW) {
const unsigned char *const ip = (const unsigned char *)sqlite3_column_blob(_sGetIpAssignmentsForNode,1);
if ((!ip)||(sqlite3_column_bytes(_sGetIpAssignmentsForNode,1) != 16))
continue;
int ipNetmaskBits = sqlite3_column_int(_sGetIpAssignmentsForNode,2);
if ((ipNetmaskBits <= 0)||(ipNetmaskBits > 32))
continue;
if (sqlite3_column_int(_sGetIpAssignmentsForNode,0) == 0 /*ZT_IP_ASSIGNMENT_TYPE_ADDRESS*/) {
if (nc.staticIpCount < ZT_MAX_ZT_ASSIGNED_ADDRESSES) {
struct sockaddr_in *const v4ip = reinterpret_cast<struct sockaddr_in *>(&(nc.staticIps[nc.staticIpCount++]));
v4ip->sin_family = AF_INET;
v4ip->sin_port = Utils::hton((uint16_t)ipNetmaskBits);
memcpy(&(v4ip->sin_addr.s_addr),ip + 12,4);
}
haveStaticIpAssignment = true;
// Get managed addresses that are assigned to this member
bool haveManagedIpv4AutoAssignment = false;
bool haveManagedIpv6AutoAssignment = false; // "special" NDP-emulated address types do not count
sqlite3_reset(_sGetIpAssignmentsForNode);
sqlite3_bind_text(_sGetIpAssignmentsForNode,1,network.id,16,SQLITE_STATIC);
sqlite3_bind_text(_sGetIpAssignmentsForNode,2,member.nodeId,10,SQLITE_STATIC);
while (sqlite3_step(_sGetIpAssignmentsForNode) == SQLITE_ROW) {
const unsigned char *const ip = (const unsigned char *)sqlite3_column_blob(_sGetIpAssignmentsForNode,0);
if ((!ip)||(sqlite3_column_bytes(_sGetIpAssignmentsForNode,0) != 16))
continue;
const int ipNetmaskBits = sqlite3_column_int(_sGetIpAssignmentsForNode,1);
const int ipVersion = sqlite3_column_int(_sGetIpAssignmentsForNode,2);
if ((ipVersion == 4)&&(ipNetmaskBits >= 0)&&(ipNetmaskBits <= 32)) {
if (nc.staticIpCount < ZT_MAX_ZT_ASSIGNED_ADDRESSES) {
struct sockaddr_in *const v4ip = reinterpret_cast<struct sockaddr_in *>(&(nc.staticIps[nc.staticIpCount++]));
v4ip->sin_family = AF_INET;
v4ip->sin_port = Utils::hton((uint16_t)ipNetmaskBits);
memcpy(&(v4ip->sin_addr.s_addr),ip + 12,4);
}
haveManagedIpv4AutoAssignment = true;
} else if ((ipVersion == 6)&&(ipNetmaskBits >= 0)&&(ipNetmaskBits <= 128)) {
if (nc.staticIpCount < ZT_MAX_ZT_ASSIGNED_ADDRESSES) {
struct sockaddr_in6 *const v6ip = reinterpret_cast<struct sockaddr_in6 *>(&(nc.staticIps[nc.staticIpCount++]));
v6ip->sin6_family = AF_INET6;
v6ip->sin6_port = Utils::hton((uint16_t)ipNetmaskBits);
memcpy(v6ip->sin6_addr.s6_addr,ip,16);
}
haveManagedIpv6AutoAssignment = true;
}
}
if ((!haveStaticIpAssignment)&&(!amActiveBridge)) {
// Attempt to auto-assign an IPv4 address from an available routed pool if there is one
sqlite3_reset(_sGetIpAssignmentPools);
sqlite3_bind_text(_sGetIpAssignmentPools,1,network.id,16,SQLITE_STATIC);
sqlite3_bind_int(_sGetIpAssignmentPools,2,4); // 4 == IPv4
// Auto-assign IPv6 address if auto-assignment is enabled and it's needed
if ( ((network.flags & ZT_DB_NETWORK_FLAG_ZT_MANAGED_V6_AUTO_ASSIGN) != 0) && (!haveManagedIpv6AutoAssignment) && (!amActiveBridge) ) {
sqlite3_reset(_sGetIpAssignmentPools);
sqlite3_bind_text(_sGetIpAssignmentPools,1,network.id,16,SQLITE_STATIC);
sqlite3_bind_int(_sGetIpAssignmentPools,2,6); // 6 == IPv6
while (sqlite3_step(_sGetIpAssignmentPools) == SQLITE_ROW) {
const uint8_t *const ipRangeStartB = reinterpret_cast<const unsigned char *>(sqlite3_column_blob(_sGetIpAssignmentPools,0));
const uint8_t *const ipRangeEndB = reinterpret_cast<const unsigned char *>(sqlite3_column_blob(_sGetIpAssignmentPools,1));
if ((!ipRangeStartB)||(!ipRangeEndB)||(sqlite3_column_bytes(_sGetIpAssignmentPools,0) != 16)||(sqlite3_column_bytes(_sGetIpAssignmentPools,1) != 16))
continue;
while (sqlite3_step(_sGetIpAssignmentPools) == SQLITE_ROW) {
const unsigned char *ipRangeStartB = reinterpret_cast<const unsigned char *>(sqlite3_column_blob(_sGetIpAssignmentPools,0));
const unsigned char *ipRangeEndB = reinterpret_cast<const unsigned char *>(sqlite3_column_blob(_sGetIpAssignmentPools,1));
if ((!ipRangeStartB)||(!ipRangeEndB)||(sqlite3_column_bytes(_sGetIpAssignmentPools,0) != 16)||(sqlite3_column_bytes(_sGetIpAssignmentPools,1) != 16))
continue;
uint64_t s[2],e[2],x[2],xx[2];
memcpy(s,ipRangeStartB,16);
memcpy(e,ipRangeEndB,16);
s[0] = Utils::ntoh(s[0]);
s[1] = Utils::ntoh(s[1]);
e[0] = Utils::ntoh(e[0]);
e[1] = Utils::ntoh(e[1]);
x[0] = s[0];
x[1] = s[1];
uint32_t ipRangeStart = Utils::ntoh(*(reinterpret_cast<const uint32_t *>(ipRangeStartB + 12)));
uint32_t ipRangeEnd = Utils::ntoh(*(reinterpret_cast<const uint32_t *>(ipRangeEndB + 12)));
if ((ipRangeEnd <= ipRangeStart)||(ipRangeStart == 0))
continue;
uint32_t ipRangeLen = ipRangeEnd - ipRangeStart;
for(unsigned int trialCount=0;trialCount<1000;++trialCount) {
if ((trialCount == 0)&&(e[1] > s[1])&&((e[1] - s[1]) >= 0xffffffffffULL)) {
// First see if we can just cram a ZeroTier ID into the higher 64 bits. If so do that.
xx[0] = Utils::hton(x[0]);
xx[1] = Utils::hton(x[1] + identity.address().toInt());
} else {
if (x[1] == 0xffffffffffffffffULL) {
if (x[0] == 0xffffffffffffffffULL)
break;
++x[0];
x[1] = 0;
} else {
++x[1];
}
if ((x[0] >= e[0])&&(x[1] >= e[1]))
break;
xx[0] = Utils::hton(x[0]);
xx[1] = Utils::hton(x[1]);
}
// Start with the LSB of the member's address
uint32_t ipTrialCounter = (uint32_t)(identity.address().toInt() & 0xffffffff);
InetAddress ip6((const void *)xx,16,0);
for(uint32_t k=ipRangeStart,l=0;(k<=ipRangeEnd)&&(l < 1000000);++k,++l) {
uint32_t ip = (ipRangeLen > 0) ? (ipRangeStart + (ipTrialCounter % ipRangeLen)) : ipRangeStart;
++ipTrialCounter;
if ((ip & 0x000000ff) == 0x000000ff)
continue; // don't allow addresses that end in .255
// Check if this IP is within a local-to-Ethernet routed network
int routedNetmaskBits = 0;
for(unsigned int rk=0;rk<nc.routeCount;++rk) {
if ( (!nc.routes[rk].via.ss_family) && (nc.routes[rk].target.ss_family == AF_INET6) && (reinterpret_cast<const InetAddress *>(&(nc.routes[rk].target))->containsAddress(ip6)) )
routedNetmaskBits = reinterpret_cast<const InetAddress *>(&(nc.routes[rk].target))->netmaskBits();
}
// Check if this IPv4 IP is within a local-to-Ethernet routed network
int routedNetmaskBits = 0;
for(unsigned int rk=0;rk<nc.routeCount;++rk) {
if ((!nc.routes[rk].via.ss_family)&&(nc.routes[rk].target.ss_family == AF_INET)) {
uint32_t targetIp = Utils::ntoh((uint32_t)(reinterpret_cast<const struct sockaddr_in *>(&(nc.routes[rk].target))->sin_addr.s_addr));
int targetBits = Utils::ntoh((uint16_t)(reinterpret_cast<const struct sockaddr_in *>(&(nc.routes[rk].target))->sin_port));
if ((ip & (0xffffffff << (32 - targetBits))) == targetIp) {
routedNetmaskBits = targetBits;
break;
}
// If it's routed, then try to claim and assign it and if successful end loop
if (routedNetmaskBits > 0) {
sqlite3_reset(_sCheckIfIpIsAllocated);
sqlite3_bind_text(_sCheckIfIpIsAllocated,1,network.id,16,SQLITE_STATIC);
sqlite3_bind_blob(_sCheckIfIpIsAllocated,2,(const void *)ip6.rawIpData(),16,SQLITE_STATIC);
sqlite3_bind_int(_sCheckIfIpIsAllocated,3,6); // 6 == IPv6
sqlite3_bind_int(_sCheckIfIpIsAllocated,4,(int)0 /*ZT_IP_ASSIGNMENT_TYPE_ADDRESS*/);
if (sqlite3_step(_sCheckIfIpIsAllocated) != SQLITE_ROW) {
// No rows returned, so the IP is available
sqlite3_reset(_sAllocateIp);
sqlite3_bind_text(_sAllocateIp,1,network.id,16,SQLITE_STATIC);
sqlite3_bind_text(_sAllocateIp,2,member.nodeId,10,SQLITE_STATIC);
sqlite3_bind_int(_sAllocateIp,3,(int)0 /*ZT_IP_ASSIGNMENT_TYPE_ADDRESS*/);
sqlite3_bind_blob(_sAllocateIp,4,(const void *)ip6.rawIpData(),16,SQLITE_STATIC);
sqlite3_bind_int(_sAllocateIp,5,routedNetmaskBits); // IP netmask bits from matching route
sqlite3_bind_int(_sAllocateIp,6,6); // 6 == IPv6
if (sqlite3_step(_sAllocateIp) == SQLITE_DONE) {
ip6.setPort(routedNetmaskBits);
if (nc.staticIpCount < ZT_MAX_ZT_ASSIGNED_ADDRESSES)
nc.staticIps[nc.staticIpCount++] = ip6;
break;
}
}
}
}
}
}
// If it's routed, then try to claim and assign it and if successful end loop
if (routedNetmaskBits > 0) {
uint32_t ipBlob[4]; // actually a 16-byte blob, we put IPv4s in the last 4 bytes
ipBlob[0] = 0; ipBlob[1] = 0; ipBlob[2] = 0; ipBlob[3] = Utils::hton(ip);
sqlite3_reset(_sCheckIfIpIsAllocated);
sqlite3_bind_text(_sCheckIfIpIsAllocated,1,network.id,16,SQLITE_STATIC);
sqlite3_bind_blob(_sCheckIfIpIsAllocated,2,(const void *)ipBlob,16,SQLITE_STATIC);
sqlite3_bind_int(_sCheckIfIpIsAllocated,3,4); // 4 == IPv4
sqlite3_bind_int(_sCheckIfIpIsAllocated,4,(int)0 /*ZT_IP_ASSIGNMENT_TYPE_ADDRESS*/);
if (sqlite3_step(_sCheckIfIpIsAllocated) != SQLITE_ROW) {
// No rows returned, so the IP is available
sqlite3_reset(_sAllocateIp);
sqlite3_bind_text(_sAllocateIp,1,network.id,16,SQLITE_STATIC);
sqlite3_bind_text(_sAllocateIp,2,member.nodeId,10,SQLITE_STATIC);
sqlite3_bind_int(_sAllocateIp,3,(int)0 /*ZT_IP_ASSIGNMENT_TYPE_ADDRESS*/);
sqlite3_bind_blob(_sAllocateIp,4,(const void *)ipBlob,16,SQLITE_STATIC);
sqlite3_bind_int(_sAllocateIp,5,routedNetmaskBits); // IP netmask bits from matching route
sqlite3_bind_int(_sAllocateIp,6,4); // 4 == IPv4
if (sqlite3_step(_sAllocateIp) == SQLITE_DONE) {
if (nc.staticIpCount < ZT_MAX_ZT_ASSIGNED_ADDRESSES) {
struct sockaddr_in *const v4ip = reinterpret_cast<struct sockaddr_in *>(&(nc.staticIps[nc.staticIpCount++]));
v4ip->sin_family = AF_INET;
v4ip->sin_port = Utils::hton((uint16_t)routedNetmaskBits);
v4ip->sin_addr.s_addr = Utils::hton(ip);
}
haveStaticIpAssignment = true;
break;
// Auto-assign IPv4 address if auto-assignment is enabled and it's needed
if ( ((network.flags & ZT_DB_NETWORK_FLAG_ZT_MANAGED_V4_AUTO_ASSIGN) != 0) && (!haveManagedIpv4AutoAssignment) && (!amActiveBridge) ) {
sqlite3_reset(_sGetIpAssignmentPools);
sqlite3_bind_text(_sGetIpAssignmentPools,1,network.id,16,SQLITE_STATIC);
sqlite3_bind_int(_sGetIpAssignmentPools,2,4); // 4 == IPv4
while (sqlite3_step(_sGetIpAssignmentPools) == SQLITE_ROW) {
const unsigned char *ipRangeStartB = reinterpret_cast<const unsigned char *>(sqlite3_column_blob(_sGetIpAssignmentPools,0));
const unsigned char *ipRangeEndB = reinterpret_cast<const unsigned char *>(sqlite3_column_blob(_sGetIpAssignmentPools,1));
if ((!ipRangeStartB)||(!ipRangeEndB)||(sqlite3_column_bytes(_sGetIpAssignmentPools,0) != 16)||(sqlite3_column_bytes(_sGetIpAssignmentPools,1) != 16))
continue;
uint32_t ipRangeStart = Utils::ntoh(*(reinterpret_cast<const uint32_t *>(ipRangeStartB + 12)));
uint32_t ipRangeEnd = Utils::ntoh(*(reinterpret_cast<const uint32_t *>(ipRangeEndB + 12)));
if ((ipRangeEnd <= ipRangeStart)||(ipRangeStart == 0))
continue;
uint32_t ipRangeLen = ipRangeEnd - ipRangeStart;
// Start with the LSB of the member's address
uint32_t ipTrialCounter = (uint32_t)(identity.address().toInt() & 0xffffffff);
for(uint32_t k=ipRangeStart,trialCount=0;(k<=ipRangeEnd)&&(trialCount < 1000);++k,++trialCount) {
uint32_t ip = (ipRangeLen > 0) ? (ipRangeStart + (ipTrialCounter % ipRangeLen)) : ipRangeStart;
++ipTrialCounter;
if ((ip & 0x000000ff) == 0x000000ff)
continue; // don't allow addresses that end in .255
// Check if this IP is within a local-to-Ethernet routed network
int routedNetmaskBits = 0;
for(unsigned int rk=0;rk<nc.routeCount;++rk) {
if ((!nc.routes[rk].via.ss_family)&&(nc.routes[rk].target.ss_family == AF_INET)) {
uint32_t targetIp = Utils::ntoh((uint32_t)(reinterpret_cast<const struct sockaddr_in *>(&(nc.routes[rk].target))->sin_addr.s_addr));
int targetBits = Utils::ntoh((uint16_t)(reinterpret_cast<const struct sockaddr_in *>(&(nc.routes[rk].target))->sin_port));
if ((ip & (0xffffffff << (32 - targetBits))) == targetIp) {
routedNetmaskBits = targetBits;
break;
}
}
}
// If it's routed, then try to claim and assign it and if successful end loop
if (routedNetmaskBits > 0) {
uint32_t ipBlob[4]; // actually a 16-byte blob, we put IPv4s in the last 4 bytes
ipBlob[0] = 0; ipBlob[1] = 0; ipBlob[2] = 0; ipBlob[3] = Utils::hton(ip);
sqlite3_reset(_sCheckIfIpIsAllocated);
sqlite3_bind_text(_sCheckIfIpIsAllocated,1,network.id,16,SQLITE_STATIC);
sqlite3_bind_blob(_sCheckIfIpIsAllocated,2,(const void *)ipBlob,16,SQLITE_STATIC);
sqlite3_bind_int(_sCheckIfIpIsAllocated,3,4); // 4 == IPv4
sqlite3_bind_int(_sCheckIfIpIsAllocated,4,(int)0 /*ZT_IP_ASSIGNMENT_TYPE_ADDRESS*/);
if (sqlite3_step(_sCheckIfIpIsAllocated) != SQLITE_ROW) {
// No rows returned, so the IP is available
sqlite3_reset(_sAllocateIp);
sqlite3_bind_text(_sAllocateIp,1,network.id,16,SQLITE_STATIC);
sqlite3_bind_text(_sAllocateIp,2,member.nodeId,10,SQLITE_STATIC);
sqlite3_bind_int(_sAllocateIp,3,(int)0 /*ZT_IP_ASSIGNMENT_TYPE_ADDRESS*/);
sqlite3_bind_blob(_sAllocateIp,4,(const void *)ipBlob,16,SQLITE_STATIC);
sqlite3_bind_int(_sAllocateIp,5,routedNetmaskBits); // IP netmask bits from matching route
sqlite3_bind_int(_sAllocateIp,6,4); // 4 == IPv4
if (sqlite3_step(_sAllocateIp) == SQLITE_DONE) {
if (nc.staticIpCount < ZT_MAX_ZT_ASSIGNED_ADDRESSES) {
struct sockaddr_in *const v4ip = reinterpret_cast<struct sockaddr_in *>(&(nc.staticIps[nc.staticIpCount++]));
v4ip->sin_family = AF_INET;
v4ip->sin_port = Utils::hton((uint16_t)routedNetmaskBits);
v4ip->sin_addr.s_addr = Utils::hton(ip);
}
break;
}
}
}
@ -1181,10 +1262,10 @@ unsigned int SqliteNetworkController::handleControlPlaneHttpPOST(
} else if (!strcmp(j->u.object.values[k].name,"v4AssignMode")) {
if ((j->u.object.values[k].value->type == json_string)&&(!strcmp(j->u.object.values[k].value->u.string.ptr,"zt"))) {
if (sqlite3_prepare_v2(_db,"UPDATE Network SET \"flags\" = (\"flags\" | ?) WHERE id = ?",-1,&stmt,(const char **)0) == SQLITE_OK)
sqlite3_bind_int(stmt,1,(int)ZT_DB_NETWORK_FLAG_ZT_MANAGED_V4);
sqlite3_bind_int(stmt,1,(int)ZT_DB_NETWORK_FLAG_ZT_MANAGED_V4_AUTO_ASSIGN);
} else {
if (sqlite3_prepare_v2(_db,"UPDATE Network SET \"flags\" = (\"flags\" & ?) WHERE id = ?",-1,&stmt,(const char **)0) == SQLITE_OK)
sqlite3_bind_int(stmt,1,(int)(ZT_DB_NETWORK_FLAG_ZT_MANAGED_V4 ^ 0xfffffff));
sqlite3_bind_int(stmt,1,(int)(ZT_DB_NETWORK_FLAG_ZT_MANAGED_V4_AUTO_ASSIGN ^ 0xfffffff));
}
} else if (!strcmp(j->u.object.values[k].name,"v6AssignMode")) {
int fl = 0;
@ -1195,6 +1276,8 @@ unsigned int SqliteNetworkController::handleControlPlaneHttpPOST(
fl |= ZT_DB_NETWORK_FLAG_ZT_MANAGED_V6_RFC4193;
else if (!strcmp(f,"6plane"))
fl |= ZT_DB_NETWORK_FLAG_ZT_MANAGED_V6_6PLANE;
else if (!strcmp(f,"zt"))
fl |= ZT_DB_NETWORK_FLAG_ZT_MANAGED_V6_AUTO_ASSIGN;
}
}
if (sqlite3_prepare_v2(_db,"UPDATE Network SET \"flags\" = ((\"flags\" & " ZT_DB_NETWORK_FLAG_ZT_MANAGED_V6_MASK_S ") | ?) WHERE id = ?",-1,&stmt,(const char **)0) == SQLITE_OK)
@ -1680,19 +1763,18 @@ unsigned int SqliteNetworkController::_doCPGet(
_jsonEscape(memberIdStr).c_str());
responseBody = json;
sqlite3_reset(_sGetIpAssignmentsForNode2);
sqlite3_bind_text(_sGetIpAssignmentsForNode2,1,nwids,16,SQLITE_STATIC);
sqlite3_bind_text(_sGetIpAssignmentsForNode2,2,addrs,10,SQLITE_STATIC);
sqlite3_bind_int(_sGetIpAssignmentsForNode2,3,(int)0 /*ZT_IP_ASSIGNMENT_TYPE_ADDRESS*/);
sqlite3_reset(_sGetIpAssignmentsForNode);
sqlite3_bind_text(_sGetIpAssignmentsForNode,1,nwids,16,SQLITE_STATIC);
sqlite3_bind_text(_sGetIpAssignmentsForNode,2,addrs,10,SQLITE_STATIC);
bool firstIp = true;
while (sqlite3_step(_sGetIpAssignmentsForNode2) == SQLITE_ROW) {
int ipversion = sqlite3_column_int(_sGetIpAssignmentsForNode2,2);
while (sqlite3_step(_sGetIpAssignmentsForNode) == SQLITE_ROW) {
int ipversion = sqlite3_column_int(_sGetIpAssignmentsForNode,2);
char ipBlob[16];
memcpy(ipBlob,(const void *)sqlite3_column_blob(_sGetIpAssignmentsForNode2,0),16);
memcpy(ipBlob,(const void *)sqlite3_column_blob(_sGetIpAssignmentsForNode,0),16);
InetAddress ip(
(const void *)(ipversion == 6 ? ipBlob : &ipBlob[12]),
(ipversion == 6 ? 16 : 4),
(unsigned int)sqlite3_column_int(_sGetIpAssignmentsForNode2,1)
(unsigned int)sqlite3_column_int(_sGetIpAssignmentsForNode,1)
);
responseBody.append(firstIp ? "\"" : ",\"");
responseBody.append(_jsonEscape(ip.toString()));
@ -1801,8 +1883,11 @@ unsigned int SqliteNetworkController::_doCPGet(
v6modes.push_back(',');
v6modes.append("6plane");
}
if (v6modes.length() == 0)
v6modes = "none";
if ((fl & ZT_DB_NETWORK_FLAG_ZT_MANAGED_V6_AUTO_ASSIGN) != 0) {
if (v6modes.length() > 0)
v6modes.push_back(',');
v6modes.append("zt");
}
Utils::snprintf(json,sizeof(json),
"{\n"
@ -1828,7 +1913,7 @@ unsigned int SqliteNetworkController::_doCPGet(
(sqlite3_column_int(_sGetNetworkById,1) > 0) ? "true" : "false",
(sqlite3_column_int(_sGetNetworkById,2) > 0) ? "true" : "false",
(sqlite3_column_int(_sGetNetworkById,3) > 0) ? "true" : "false",
(((fl & ZT_DB_NETWORK_FLAG_ZT_MANAGED_V4) != 0) ? "zt" : "none"),
(((fl & ZT_DB_NETWORK_FLAG_ZT_MANAGED_V4_AUTO_ASSIGN) != 0) ? "zt" : ""),
v6modes.c_str(),
sqlite3_column_int(_sGetNetworkById,5),
(unsigned long long)sqlite3_column_int64(_sGetNetworkById,6),

View File

@ -154,7 +154,6 @@ private:
sqlite3_stmt *_sCreateNetwork;
sqlite3_stmt *_sGetNetworkRevision;
sqlite3_stmt *_sSetNetworkRevision;
sqlite3_stmt *_sGetIpAssignmentsForNode2;
sqlite3_stmt *_sDeleteRelaysForNetwork;
sqlite3_stmt *_sCreateRelay;
sqlite3_stmt *_sDeleteIpAssignmentPoolsForNetwork;