void example_main() {
ipstack::Interface* interface = setupEthernet();
if (interface==0) {
// ethernet setup failed
printf("No ethernet card found!\n");
while(1);
}
//ipstack::api::TCP_Socket<1514,1,128,2> socket; //alloc on stack (variant 2)
new(&socket) IP::TCP_Socket<1514,1,128,2>; //explicitly call constructor for global object (only for variant 1)
//socket.setAlarm(TCPAlarmTask0);
socket.set_sport(80); //server (telnet port)
while(1){
printf("Wait for request: Connect with \"http://%s:%u\"\n", "10.0.3.2", socket.get_sport());
socket.listen();
int i=1;
char buffer[512];
char url[100];
memset(buffer, 0, 512);
i = socket.receive(buffer, 512);
char* input = buffer;
/// Parse requested url (example: GET /infotext.html HTTP/1.1) ///
if (memcmp(input, "GET", 3)==0) {
input += 4;
unsigned pos = 0;
for (;pos<99;++pos) {
char c = input[pos];
if (c == ' ') break;
url[pos] = c;
}
url[pos] = 0; // last character is 0 to terminate the string
input += pos + 1; // jump to the character after the whitespace after the url
// printf("Content: %s\n", input);
if (memcmp(input, "HTTP/1", 6)==0) {
showPage(url, pos);
} else {
printf("Request failed: %s\n", url);
parseError(buffer);
}
} else {
parseError(buffer);
}
while(socket.close() == false);
printf("Terminated\n");
}
}
void setup() {
Serial.begin(9600);
setupEthernet();
setSyncInterval(NTP_TIME_SYNC_INTERVAL);
setSyncProvider(getNtpTime);
if(timeStatus()== timeNotSet)
{
Serial.println("Sync failed during start");
}
else
{
Serial.println("Sync successfully during start");
}
}
void Alpha::functionTaskTask0() {
ipstack::Interface* interface = setupEthernet();
if (interface==0) {
// ethernet setup failed
System::haltsystem();
}
// You can ping CiAO IP now by using
// * ping 10.0.3.2 (for icmp ping)
// * ping6 fe80::6655:44ff:fe33:2211%tap0 (for icmp ping with ipv6 on tap0 device)
// * echoping -u 10.0.3.2 (for udp ping; use ipv4 addresses, ipv6 is not supported by echoping for udp)
// * sendip -p ipv6 -p udp -us 5070 -ud 8 -d "Hello" -v fe80::6655:44ff:fe33:2211 (for ipv6 udp ping)
// * telnet 10.0.3.2 (for testing the tcp reset capability; use ipv4 or ipv6 address)
// * Send udp to port 88 to get it printed out
// Setup test ipv6 address: we will ping that address (and test the ndp address resolution)
ipstack::ipv6addr testipv6;
if (!parse_ipv6_addr("fe80:0:0:0:a81a:54ff:fef0:3f", testipv6)) {
System::haltsystem();
}
ICMPv6_Socket &icmpv6instance = ICMPv6_Socket::instance();
icmpv6instance.ipv6.set_dst_addr(testipv6); // src address is determined automatically
// Setup test ipv4 address: we will ping that address (and test the arp address resolution)
UInt32 testipv4 = IPv4_Packet::convert_ipv4_addr(10,0,3,1);
ICMPv4_Socket &icmpv4instance = ICMPv4_Socket::instance();
icmpv4instance.ipv4.set_dst_addr(testipv4); // src address has been set above
SendBuffer* sbi;
const char teststring[] = "HELLO";
IP::UDP_Socket<1514,1,128,2> socket;
socket.set_sport(88);
socket.bind(); // listen
printf("Send IPv4 ping\n");
sbi = icmpv4instance.requestSendBuffer(ICMP_Packet::ICMP_HEADER_SIZE+sizeof(teststring));
if (sbi) {
sbi->mark("IPv4 ping");
ICMP_Packet* icmp = (ICMP_Packet*)sbi->getDataPointer();
icmp->set_type(ICMP_Packet::ICMP_TYPE_ECHO_REQUEST);
icmp->set_code(ICMP_Packet::ICMP_CODE_ECHO);
sbi->writtenToDataPointer(ICMP_Packet::ICMP_HEADER_SIZE);
sbi->write(teststring, sizeof(teststring));
icmpv4instance.send(sbi);
}
printf("Send IPv6 ping\n");
sbi = icmpv6instance.requestSendBuffer(ICMPv6_Packet::ICMP_HEADER_SIZE+sizeof(teststring)+sizeof(UInt32));
if (sbi) {
sbi->mark("IPv6 ping");
ICMPv6_Packet* icmp = (ICMPv6_Packet*)sbi->getDataPointer();
icmp->set_type(ICMPv6_Packet::ICMP_TYPE_ECHO_REQUEST);
icmp->set_code(ICMPv6_Packet::ICMP_CODE_ECHO_REQUEST);
sbi->writtenToDataPointer(ICMPv6_Packet::ICMP_HEADER_SIZE);
// write seq and id
UInt32 idAndSeq = 0xcaffee;
sbi->write(&idAndSeq, sizeof(idAndSeq));
// write payload
sbi->write(teststring, sizeof(teststring));
icmpv6instance.send(sbi);
}
printf("Start udp listen on port %u\n", socket.get_sport());
while(1) {
ReceiveBuffer* rbuffer = socket.receiveBlock();
ReceiveBufferUDPIPv6* ipv6udp = ReceiveBufferUDPIPv6::cast(rbuffer);
ReceiveBufferUDPIPv4* ipv4udp = ReceiveBufferUDPIPv4::cast(rbuffer);
if (ipv6udp) {
printf("Received IPv6/UDP. Bytes: %u\n", rbuffer->getSize());
char ipstrbuffer[50] = {0};
ipstack::ipv6_addr_toString(ipv6udp->getRemoteInfo()->ipv6, ipstrbuffer);
printf(" Remote IPv6-Address: %s, Port: %u\n", ipstrbuffer, ipv4udp->getRemoteInfo()->remoteport);
} else if (ipv4udp) {
printf("Received IPv4/UDP. Bytes: %u\n", rbuffer->getSize());
UInt8 a,b,c,d;
IPv4_Packet::convert_ipv4_addr(ipv4udp->getRemoteInfo()->ipv4, a, b, c, d);
printf(" Remote IPv4-Address: %u.%u.%u.%u, Port: %u\n", a,b,c,d, ipv4udp->getRemoteInfo()->remoteport);
} else {
printf("error, udp ip version unknown. Bytes: %u\n", rbuffer->getSize());
}
ReceiveBuffer::free(rbuffer);
}
}
void pachube_in_out(){
if (minute() < last_connect) last_connect = minute();
if (request_pause){
if ((minute() - last_connect) > interval){
ready_to_update = true;
reading_pachube = false;
request_pause = false;
found_status_200 = false;
found_session_id = false;
found_CSV = false;
Serial.print("Ready to connect: ");
Serial.println(minute());
Serial.print("interval: ");
Serial.println(interval);
}
}
if (ready_to_update){
Serial.println("Connecting...");
if (localClient.connect(remoteServer, 80) > 0) {
// here we assign comma-separated values to 'data', which will update Pachube datastreams
// we use all the analog-in values, but could of course use anything else millis(), digital
// inputs, etc. . i also like to keep track of successful and failed connection
// attempts, sometimes useful for determining whether there are major problems.
sprintf(pachube_data,"%d,%d,%d-%d-%d %d:%d:%d",analogRead(0),analogRead(1), year(),month(),day(),hour(),minute(),second());
content_length = strlen(pachube_data);
Serial.print("GET request to retrieve: ");
Serial.println(pachube_data);
localClient.print("GET /api/");
localClient.print(REMOTE_FEED_ID);
localClient.print(".csv HTTP/1.1\nHost: pachube.com\nX-PachubeApiKey: ");
localClient.print(PACHUBE_API_KEY);
localClient.print("\nUser-Agent: Arduino (Pachube In Out v1.1)");
localClient.println("\n");
//Serial.println("finished GET now PUT, to update");
localClient.print("PUT /api/");
localClient.print(SHARE_FEED_ID);
localClient.print(".csv HTTP/1.1\nHost: pachube.com\nX-PachubeApiKey: ");
localClient.print(PACHUBE_API_KEY);
localClient.print("\nUser-Agent: Arduino (Pachube In Out v1.1)");
localClient.print("\nContent-Type: text/csv\nContent-Length: ");
localClient.print(content_length);
localClient.print("\nConnection: close\n\n");
localClient.print(pachube_data);
localClient.print("\n");
ready_to_update = false;
reading_pachube = true;
request_pause = false;
interval = UPDATE_INTERVAL;
// Serial.print("finished PUT: ");
// Serial.println(millis());
}
else {
Serial.print("connection failed!");
Serial.print(++failures);
found_status_200 = false;
found_session_id = false;
found_CSV = false;
ready_to_update = false;
reading_pachube = false;
request_pause = true;
last_connect = minute();
interval = RESET_INTERVAL;
setupEthernet();
}
}
while (reading_pachube){
while (localClient.available()) {
checkForResponse();
}
if (!localClient.connected()) {
disconnect_pachube();
}
}
}
int main()
{
setbuf(stdout, NULL); // no buffering for this filehandle
char json[1024];
int content_length;
int response_code;
char buf[1024];
float amb_temp;
setupEthernet();
// set time
lcd.printf("Reading Time... ");
ntp.setTime("time-c.nist.gov");
lcd.printf("Time set");
while(1) { // Loop
char streamName[] = "amb-temp"; // Set value for stream you are using
// GET Stream value
response_code = getStream(streamName, json);
content_length = readContentLength(json);
pc.printf("GET Stream\r\nResponse: %d\r\nContent Length: %d\r\njson: %s\r\n\r\n", response_code, content_length, json);
Thread::wait(5000);
/////
// PUT value to Strem
amb_temp = tmp.read();
sprintf(json, "{\"value\":\"%0.2f\"}", amb_temp);
response_code = putStream(streamName, json);
content_length = readContentLength(json);
pc.printf("PUT Stream\r\nResponse: %d\r\nContent Length: %d\r\njson: %s\r\n\r\n", response_code, content_length, json);
Thread::wait(5000);
//////
// POST value(s) to Stream
time_t seconds;
seconds = time(NULL); // get current time from mbed RTC
strftime(buf,40, "%Y-%m-%dT%H:%M:%S%z", localtime(&seconds));
amb_temp = tmp.read();
sprintf(json, "{ \"values\": [ {\"at\": \"%s\", \"value\":\"%0.2f\"} ] }", buf, amb_temp);
response_code = postStream(streamName, json);
content_length = readContentLength(json);
pc.printf("POST Stream\r\nResponse: %d\r\nContent Length: %d\r\njson: %s\r\n\r\n", response_code, content_length, json);
Thread::wait(5000);
///////
// PUT Location to Feed
sprintf(json, "{ \"name\": \"%s\", \"latitude\": \"%0.8f\", \"longitude\": \"%0.8f\", \"elevation\": \"%0.2f\" }", LOC_NAME, LOC_LAT, LOC_LONG, LOC_ELEV);
response_code = putLocation(json);
content_length = readContentLength(json);
pc.printf("PUT Location\r\nResponse: %d\r\nContent Length: %d\r\njson: %s\r\n\r\n", response_code, content_length, json);
Thread::wait(5000);
///////
// GET Location of Feed
response_code = getLocation(json);
content_length = readContentLength(json);
pc.printf("GET Location\r\nResponse: %d\r\nContent Length: %d\r\njson: %s\r\n\r\n", response_code, content_length, json);
Thread::wait(5000);
}
eth.disconnect();
while(1) {}
}
