uses pushing box to publish to google spreadsheets with a state machine instead of a while loop
Fork of GSM_PUSHING_BOX_STATE_MACHINE by
GSMLibrary.cpp@23:5227fb014aad, 2015-03-24 (annotated)
- Committer:
- danilob
- Date:
- Tue Mar 24 18:39:13 2015 +0000
- Revision:
- 23:5227fb014aad
- Parent:
- 22:a5adf9331032
- Child:
- 24:7d2ff444d6d8
we fixed gsm all shpuld be work correctly. Gsm at ok loop message size problem
Who changed what in which revision?
User | Revision | Line number | New contents of line |
---|---|---|---|
danilob | 0:41904adca656 | 1 | #include "GSMLibrary.h" |
danilob | 0:41904adca656 | 2 | #include "gsmqueue.h" |
danilob | 2:8352ad91f2ee | 3 | #include <string.h> |
danilob | 0:41904adca656 | 4 | |
danilob | 15:19ae032e2e54 | 5 | #define TIME_CONST .3 |
danilob | 15:19ae032e2e54 | 6 | #define SECONDS_TIMEOUT 40 |
danilob | 15:19ae032e2e54 | 7 | #define TIMEOUTLIMIT SECONDS_TIMEOUT/TIME_CONST //$change check with main code this will set up condition fior timeout. |
danilob | 0:41904adca656 | 8 | |
danilob | 0:41904adca656 | 9 | //definition for AT comands |
danilob | 0:41904adca656 | 10 | #define AT_OK "AT" |
danilob | 0:41904adca656 | 11 | #define AT_CSQ "AT+CSQ" |
danilob | 0:41904adca656 | 12 | #define AT_CREG "AT+CREG?" |
danilob | 0:41904adca656 | 13 | #define AT_CMGF "AT+CMGF=1" |
bjcrofts | 21:fbde9d2fc0ed | 14 | #define RECEIVER_PHONE_NUMBER "\"+12083608384\"" |
danilob | 0:41904adca656 | 15 | #define AT_CMGS "AT+CMGS=" RECEIVER_PHONE_NUMBER |
danilob | 15:19ae032e2e54 | 16 | #define MESSAGE_BODY "stress test\32\32" |
danilob | 22:a5adf9331032 | 17 | |
danilob | 0:41904adca656 | 18 | |
es_marble | 16:6807d437cd48 | 19 | //Definition for AT repsonses |
danilob | 0:41904adca656 | 20 | //Please notice that after ":" the gsm will usually send aditional information |
danilob | 0:41904adca656 | 21 | #define AT_OK_RESPONSE "OK" //Response after sending "AT" message |
es_marble | 6:3ccc86304c2c | 22 | #define AT_CSQ_RESPONSE "+CSQ:" //+CSQ: <arg1>,<arg2> where <arg1> is signal strength arg1 = 0-30 where a number below 10 means low signal strength and 99 is not knwn or detectable signal and arg2 is bit error rate form 0-7, 99 will represent error |
danilob | 13:9ac5ff131214 | 23 | #define AT_CREG_RESPONSE "+CREG:"//+CREG: <arg1>,<arg2> where <arg1> = 0-2(see AT command descriptions), <arg2> = 0-5, 0 not registered to nework and not looking for one. 1 is conected to network, 2 is not conected but searching |
danilob | 0:41904adca656 | 24 | #define AT_CMGF_RESPONSE "OK" |
danilob | 14:56a2c371ce18 | 25 | #define AT_CMGS_RESPONSE ">" //Message is written aftersymbol |
danilob | 15:19ae032e2e54 | 26 | #define AT_SENDSMS_RESPONSE ">" // +CMGS: <id> this will include the message id. CMGS ERROR for error and |
danilob | 17:360afa1e6809 | 27 | #define AT_SUCCESS_RESPONSE "+CMGS:" |
danilob | 0:41904adca656 | 28 | |
es_marble | 16:6807d437cd48 | 29 | //External variables |
danilob | 0:41904adca656 | 30 | extern Serial pc; |
danilob | 0:41904adca656 | 31 | extern Serial gsm; |
danilob | 0:41904adca656 | 32 | extern uint8_t buffer[BUFFER_LENGTH];//buffer storing char |
es_marble | 16:6807d437cd48 | 33 | |
es_marble | 16:6807d437cd48 | 34 | //Internal variables |
danilob | 0:41904adca656 | 35 | gsm_states gsm_current_state = GSM_INITIALIZE; |
danilob | 0:41904adca656 | 36 | char send = 0; |
danilob | 12:f3ccc43c4d3c | 37 | int timeout_count = 0; |
danilob | 23:5227fb014aad | 38 | char gsm_msg[MAX_MSG_SIZE + 1]; //1 extra for Ctrl+Z |
danilob | 0:41904adca656 | 39 | |
es_marble | 16:6807d437cd48 | 40 | void gsm_tick() |
es_marble | 16:6807d437cd48 | 41 | { |
es_marble | 16:6807d437cd48 | 42 | if (getGSMIdleBit() || gsm_timeOut() || (send && gsm_current_state == GSM_INITIALIZE)) //question with send... |
es_marble | 16:6807d437cd48 | 43 | { |
es_marble | 16:6807d437cd48 | 44 | resetGSMIdleBit(); //reset GSM idle bit |
es_marble | 16:6807d437cd48 | 45 | gsm_nextStateLogic(); //Next state |
es_marble | 16:6807d437cd48 | 46 | gsm_mealyOutputs(); //Mealy outputs |
es_marble | 16:6807d437cd48 | 47 | flushQueue(); //Flush the queue |
es_marble | 16:6807d437cd48 | 48 | } |
es_marble | 16:6807d437cd48 | 49 | } |
es_marble | 16:6807d437cd48 | 50 | |
es_marble | 16:6807d437cd48 | 51 | |
es_marble | 16:6807d437cd48 | 52 | |
es_marble | 16:6807d437cd48 | 53 | //Advance timeout counter; if timeout, return true |
es_marble | 16:6807d437cd48 | 54 | bool gsm_timeOut() |
es_marble | 16:6807d437cd48 | 55 | { |
es_marble | 16:6807d437cd48 | 56 | if(++timeout_count >= TIMEOUTLIMIT){ |
danilob | 15:19ae032e2e54 | 57 | timeout_count=0; |
danilob | 15:19ae032e2e54 | 58 | gsm_current_state = GSM_INITIALIZE; |
es_marble | 16:6807d437cd48 | 59 | return true; |
danilob | 15:19ae032e2e54 | 60 | } |
es_marble | 16:6807d437cd48 | 61 | else |
es_marble | 16:6807d437cd48 | 62 | return false; |
es_marble | 16:6807d437cd48 | 63 | } |
es_marble | 16:6807d437cd48 | 64 | |
es_marble | 18:7642909bfcfc | 65 | //Have the GSM send a message |
es_marble | 18:7642909bfcfc | 66 | void gsm_send_sms(char msg[]) |
es_marble | 18:7642909bfcfc | 67 | { |
es_marble | 18:7642909bfcfc | 68 | send = 1; |
es_marble | 18:7642909bfcfc | 69 | strcpy(gsm_msg,msg); //If we need to optimize later we can do that, but this is more robust |
es_marble | 18:7642909bfcfc | 70 | strcat(gsm_msg,"\x1A"); |
es_marble | 18:7642909bfcfc | 71 | } |
es_marble | 18:7642909bfcfc | 72 | |
es_marble | 18:7642909bfcfc | 73 | //Return true if gsm is ready |
es_marble | 18:7642909bfcfc | 74 | bool gsm_ready() |
es_marble | 18:7642909bfcfc | 75 | { |
danilob | 19:a442b5a0116f | 76 | return (send == 0) ? true : false; |
es_marble | 18:7642909bfcfc | 77 | } |
es_marble | 18:7642909bfcfc | 78 | |
es_marble | 18:7642909bfcfc | 79 | //Reset the gsm |
es_marble | 18:7642909bfcfc | 80 | void gsm_reset() |
es_marble | 18:7642909bfcfc | 81 | { |
es_marble | 18:7642909bfcfc | 82 | gsm_current_state = GSM_INITIALIZE; |
es_marble | 18:7642909bfcfc | 83 | } |
es_marble | 18:7642909bfcfc | 84 | |
es_marble | 16:6807d437cd48 | 85 | //Next state logic ----------------------------------------------------- |
es_marble | 16:6807d437cd48 | 86 | void gsm_nextStateLogic() |
es_marble | 16:6807d437cd48 | 87 | { |
es_marble | 16:6807d437cd48 | 88 | printQueue(); //$debug |
es_marble | 16:6807d437cd48 | 89 | |
es_marble | 16:6807d437cd48 | 90 | switch(gsm_current_state) |
es_marble | 16:6807d437cd48 | 91 | { |
danilob | 0:41904adca656 | 92 | case GSM_INITIALIZE: |
es_marble | 16:6807d437cd48 | 93 | pc.printf("gsm_initialize state\r\n");//&debug |
danilob | 2:8352ad91f2ee | 94 | timeout_count = 0; |
es_marble | 16:6807d437cd48 | 95 | if (send) |
es_marble | 16:6807d437cd48 | 96 | gsm_current_state = GSM_AT_OK; //unconditional (check it) |
danilob | 0:41904adca656 | 97 | break; |
danilob | 0:41904adca656 | 98 | case GSM_AT_OK: |
danilob | 12:f3ccc43c4d3c | 99 | pc.printf("inside AT_OK state\r\n");//&debug |
es_marble | 16:6807d437cd48 | 100 | if (findInQueue(AT_OK_RESPONSE)) |
es_marble | 16:6807d437cd48 | 101 | gsm_current_state = GSM_AT_CSQ; |
danilob | 12:f3ccc43c4d3c | 102 | break; |
danilob | 12:f3ccc43c4d3c | 103 | case GSM_AT_CSQ: |
danilob | 12:f3ccc43c4d3c | 104 | pc.printf("inside AT_CSQ state \r\n");//&debug |
es_marble | 16:6807d437cd48 | 105 | if(findInQueue(AT_CSQ_RESPONSE)) |
es_marble | 16:6807d437cd48 | 106 | gsm_current_state = GSM_AT_CREG; |
danilob | 2:8352ad91f2ee | 107 | break; |
danilob | 0:41904adca656 | 108 | case GSM_AT_CREG: |
danilob | 7:6c0b6ab3cafe | 109 | pc.printf("gsm_creg state\r\n");//&debug |
es_marble | 16:6807d437cd48 | 110 | if(findInQueue(AT_CREG_RESPONSE)) |
es_marble | 16:6807d437cd48 | 111 | { |
es_marble | 16:6807d437cd48 | 112 | pc.printf("creg parse Int1: %d\r\n",parseInt());//&debug |
es_marble | 16:6807d437cd48 | 113 | int q = parseInt(); |
es_marble | 16:6807d437cd48 | 114 | pc.printf("creg parse Int2: %d\r\n",q);//&debug |
es_marble | 16:6807d437cd48 | 115 | if(q == 1) |
es_marble | 16:6807d437cd48 | 116 | gsm_current_state = GSM_AT_CMGF; |
danilob | 12:f3ccc43c4d3c | 117 | } |
danilob | 0:41904adca656 | 118 | break; |
danilob | 0:41904adca656 | 119 | case GSM_AT_CMGF: |
danilob | 12:f3ccc43c4d3c | 120 | pc.printf("gsm_cmgf state\r\n");//&debug |
es_marble | 16:6807d437cd48 | 121 | if(findInQueue(AT_CMGF_RESPONSE)) |
es_marble | 16:6807d437cd48 | 122 | gsm_current_state = GSM_AT_CMGS; |
danilob | 0:41904adca656 | 123 | break; |
danilob | 0:41904adca656 | 124 | case GSM_AT_CMGS: |
es_marble | 16:6807d437cd48 | 125 | pc.printf("gsm_cmgs state\r\n");//&debug |
es_marble | 16:6807d437cd48 | 126 | if(findInQueue(AT_CMGS_RESPONSE)) |
es_marble | 16:6807d437cd48 | 127 | gsm_current_state = GSM_AT_SENDSMS; |
danilob | 0:41904adca656 | 128 | break; |
danilob | 0:41904adca656 | 129 | case GSM_AT_SENDSMS: |
danilob | 12:f3ccc43c4d3c | 130 | pc.printf("gsm_send_sms state\r\n");//&debug |
es_marble | 18:7642909bfcfc | 131 | if(findInQueue(AT_SENDSMS_RESPONSE)) //> |
es_marble | 18:7642909bfcfc | 132 | { |
es_marble | 18:7642909bfcfc | 133 | //Check if the "successfully sent" has also already been received (most likely |
es_marble | 18:7642909bfcfc | 134 | //this won't be the case, but if it has been >500 ms there's a possibility |
es_marble | 18:7642909bfcfc | 135 | //we've received both the messages during the same call to our state machine.) |
es_marble | 18:7642909bfcfc | 136 | if(findInQueue(AT_SUCCESS_RESPONSE)) |
es_marble | 18:7642909bfcfc | 137 | { |
es_marble | 18:7642909bfcfc | 138 | pc.printf("Message SENT! msgID: %iY\r\n",parseInt());//&debug |
es_marble | 18:7642909bfcfc | 139 | send = 0; |
es_marble | 18:7642909bfcfc | 140 | gsm_current_state = GSM_INITIALIZE; //Skip success state (we've received both) |
es_marble | 18:7642909bfcfc | 141 | } |
es_marble | 18:7642909bfcfc | 142 | else |
es_marble | 18:7642909bfcfc | 143 | gsm_current_state = GSM_SUCCESS; //Go to success state |
es_marble | 18:7642909bfcfc | 144 | } |
es_marble | 16:6807d437cd48 | 145 | else |
es_marble | 18:7642909bfcfc | 146 | gsm_current_state = GSM_AT_CMGS; //Try resending the message (until timeout) |
danilob | 0:41904adca656 | 147 | break; |
danilob | 0:41904adca656 | 148 | case GSM_SUCCESS: |
danilob | 7:6c0b6ab3cafe | 149 | pc.printf("gsm_success state\r\n");//&debug |
es_marble | 18:7642909bfcfc | 150 | if(findInQueue(AT_SUCCESS_RESPONSE)) |
es_marble | 18:7642909bfcfc | 151 | { |
es_marble | 16:6807d437cd48 | 152 | pc.printf("Message SENT! msgID: %iY\r\n",parseInt());//&debug |
es_marble | 18:7642909bfcfc | 153 | } |
es_marble | 18:7642909bfcfc | 154 | send = 0; |
es_marble | 18:7642909bfcfc | 155 | gsm_current_state = GSM_INITIALIZE; //We will restart regardless of whether it worked |
danilob | 0:41904adca656 | 156 | break; |
danilob | 0:41904adca656 | 157 | default: |
danilob | 0:41904adca656 | 158 | pc.printf("This is a state error"); |
danilob | 0:41904adca656 | 159 | } |
danilob | 0:41904adca656 | 160 | } |
es_marble | 16:6807d437cd48 | 161 | |
es_marble | 16:6807d437cd48 | 162 | //Mealy output logic ------------------------------------------------------ |
es_marble | 16:6807d437cd48 | 163 | void gsm_mealyOutputs() |
es_marble | 16:6807d437cd48 | 164 | { |
es_marble | 16:6807d437cd48 | 165 | switch(gsm_current_state) |
es_marble | 16:6807d437cd48 | 166 | { |
es_marble | 16:6807d437cd48 | 167 | case GSM_INITIALIZE: |
es_marble | 16:6807d437cd48 | 168 | pc.printf("No Mealy initialize state output\r\n");//&debug |
es_marble | 16:6807d437cd48 | 169 | break; |
es_marble | 16:6807d437cd48 | 170 | case GSM_AT_OK: |
es_marble | 16:6807d437cd48 | 171 | pc.printf("sending AT_OK\r\n");//&debug |
es_marble | 16:6807d437cd48 | 172 | gsm.puts(AT_OK); |
es_marble | 16:6807d437cd48 | 173 | gsm.puts("\r\n"); |
es_marble | 16:6807d437cd48 | 174 | break; |
es_marble | 16:6807d437cd48 | 175 | case GSM_AT_CSQ: |
es_marble | 16:6807d437cd48 | 176 | pc.printf("sending AT_CSQ\r\n");//&debug |
es_marble | 16:6807d437cd48 | 177 | gsm.puts(AT_CSQ); |
es_marble | 16:6807d437cd48 | 178 | gsm.puts("\r\n"); |
es_marble | 16:6807d437cd48 | 179 | break; |
es_marble | 16:6807d437cd48 | 180 | case GSM_AT_CREG: |
es_marble | 16:6807d437cd48 | 181 | pc.printf("sending AT_CREG\r\n");//&debug |
es_marble | 16:6807d437cd48 | 182 | gsm.puts(AT_CREG); |
es_marble | 16:6807d437cd48 | 183 | gsm.puts("\r\n"); |
es_marble | 16:6807d437cd48 | 184 | break; |
es_marble | 16:6807d437cd48 | 185 | case GSM_AT_CMGF: |
es_marble | 16:6807d437cd48 | 186 | pc.printf("sending AT_CMGF\r\n");//&debug |
es_marble | 16:6807d437cd48 | 187 | gsm.puts(AT_CMGF); |
es_marble | 16:6807d437cd48 | 188 | gsm.puts("\r\n"); |
es_marble | 16:6807d437cd48 | 189 | break; |
es_marble | 16:6807d437cd48 | 190 | case GSM_AT_CMGS: |
es_marble | 16:6807d437cd48 | 191 | pc.printf("sending AT_CMGS\r\n");//&debug |
es_marble | 16:6807d437cd48 | 192 | gsm.puts(AT_CMGS); |
es_marble | 16:6807d437cd48 | 193 | gsm.puts("\r\n"); |
es_marble | 16:6807d437cd48 | 194 | break; |
es_marble | 16:6807d437cd48 | 195 | case GSM_AT_SENDSMS: |
es_marble | 18:7642909bfcfc | 196 | pc.printf("sending message\r\n");//&debug |
es_marble | 18:7642909bfcfc | 197 | gsm.puts(gsm_msg); //substitute char included |
es_marble | 16:6807d437cd48 | 198 | gsm.puts("\r\n"); |
es_marble | 16:6807d437cd48 | 199 | break; |
es_marble | 16:6807d437cd48 | 200 | case GSM_SUCCESS: |
es_marble | 16:6807d437cd48 | 201 | pc.printf("No Mealy success state output\r\n");//&debug |
danilob | 19:a442b5a0116f | 202 | break; |
es_marble | 16:6807d437cd48 | 203 | default: |
es_marble | 16:6807d437cd48 | 204 | pc.printf("This is a state error"); |
es_marble | 16:6807d437cd48 | 205 | } |
es_marble | 16:6807d437cd48 | 206 | } |
es_marble | 16:6807d437cd48 | 207 | |
es_marble | 16:6807d437cd48 | 208 | |
es_marble | 18:7642909bfcfc | 209 | //Initialize the GSM |
es_marble | 16:6807d437cd48 | 210 | void gsm_initialize(){ |
danilob | 7:6c0b6ab3cafe | 211 | SIM_SCGC6 |= SIM_SCGC6_DMAMUX_MASK; //enabling dmamux clock |
danilob | 12:f3ccc43c4d3c | 212 | SIM_SCGC7 |= SIM_SCGC7_DMA_MASK; // enebaling dma clock |
es_marble | 18:7642909bfcfc | 213 | pc.printf("initializing tregisters...!\r\n"); |
danilob | 0:41904adca656 | 214 | // control register mux, enabling uart3 receive |
danilob | 0:41904adca656 | 215 | DMAMUX_CHCFG0 |= DMAMUX_CHCFG_ENBL_MASK|DMAMUX_CHCFG_SOURCE(8); |
danilob | 0:41904adca656 | 216 | |
danilob | 0:41904adca656 | 217 | // Enable request signal for channel 0 |
danilob | 0:41904adca656 | 218 | DMA_ERQ = DMA_ERQ_ERQ0_MASK; |
danilob | 0:41904adca656 | 219 | |
danilob | 0:41904adca656 | 220 | // select round-robin arbitration priority |
danilob | 0:41904adca656 | 221 | DMA_CR |= DMA_CR_ERCA_MASK; |
danilob | 0:41904adca656 | 222 | |
danilob | 0:41904adca656 | 223 | //enabled error interrupt for DMA0 |
danilob | 0:41904adca656 | 224 | //DMA_EEI = DMA_EEI_EEI0_MASK ; |
danilob | 0:41904adca656 | 225 | //Addres for buffer |
danilob | 0:41904adca656 | 226 | DMA_TCD0_SADDR = (uint32_t) &UART_D_REG(UART3_BASE_PTR); |
danilob | 0:41904adca656 | 227 | DMA_TCD0_DADDR = (uint32_t) buffer; |
danilob | 0:41904adca656 | 228 | // Set an offset for source and destination address |
danilob | 0:41904adca656 | 229 | DMA_TCD0_SOFF = 0x00; |
danilob | 0:41904adca656 | 230 | DMA_TCD0_DOFF = 0x01; // Destination address offset of 1 byte per transaction |
danilob | 0:41904adca656 | 231 | |
danilob | 0:41904adca656 | 232 | // Set source and destination data transfer size |
danilob | 0:41904adca656 | 233 | DMA_TCD0_ATTR = DMA_ATTR_SSIZE(0) | DMA_ATTR_DSIZE(0); |
danilob | 0:41904adca656 | 234 | |
danilob | 0:41904adca656 | 235 | // Number of bytes to be transfered in each service request of the channel |
danilob | 0:41904adca656 | 236 | DMA_TCD0_NBYTES_MLNO = 0x01; |
danilob | 0:41904adca656 | 237 | // Current major iteration count |
danilob | 0:41904adca656 | 238 | DMA_TCD0_CITER_ELINKNO = DMA_CITER_ELINKNO_CITER(BUFFER_LENGTH); |
danilob | 0:41904adca656 | 239 | DMA_TCD0_BITER_ELINKNO = DMA_BITER_ELINKNO_BITER(BUFFER_LENGTH); |
danilob | 0:41904adca656 | 240 | // Adjustment value used to restore the source and destiny address to the initial value |
danilob | 0:41904adca656 | 241 | // After reading 'len' number of times, the DMA goes back to the beginning by subtracting len*2 from the address (going back to the original address) |
es_marble | 16:6807d437cd48 | 242 | DMA_TCD0_SLAST = 0; // Source address adjustment |
es_marble | 16:6807d437cd48 | 243 | DMA_TCD0_DLASTSGA = -BUFFER_LENGTH; // Destination address adjustment |
danilob | 0:41904adca656 | 244 | // Setup control and status register |
danilob | 0:41904adca656 | 245 | DMA_TCD0_CSR = 0; |
danilob | 0:41904adca656 | 246 | |
danilob | 0:41904adca656 | 247 | // enable interrupt call at end of major loop |
danilob | 0:41904adca656 | 248 | DMA_TCD0_CSR |= DMA_CSR_INTMAJOR_MASK; |
danilob | 0:41904adca656 | 249 | |
danilob | 0:41904adca656 | 250 | //Activate dma trasnfer rx interrupt |
danilob | 0:41904adca656 | 251 | UART_C2_REG(UART3) |= UART_C2_RIE_MASK; |
danilob | 0:41904adca656 | 252 | UART_C5_REG(UART3) |= UART_C5_RDMAS_MASK | UART_C5_ILDMAS_MASK | UART_C5_LBKDDMAS_MASK; |
danilob | 0:41904adca656 | 253 | //activate p fifo |
danilob | 0:41904adca656 | 254 | UART_PFIFO_REG(UART3) |= UART_PFIFO_RXFE_MASK; //RXFE and buffer size of 1 word |
danilob | 7:6c0b6ab3cafe | 255 | queueInit(); |
danilob | 0:41904adca656 | 256 | pc.printf("Initialization done...\n\r"); |
danilob | 0:41904adca656 | 257 | } |
danilob | 0:41904adca656 | 258 | |
danilob | 0:41904adca656 | 259 | |
danilob | 0:41904adca656 | 260 | |
danilob | 0:41904adca656 | 261 | //initialization debuging purposes |
danilob | 0:41904adca656 | 262 | void print_registers() { |
danilob | 0:41904adca656 | 263 | |
danilob | 0:41904adca656 | 264 | |
danilob | 0:41904adca656 | 265 | pc.printf("\n\rDMA REGISTERS\n\r"); |
danilob | 0:41904adca656 | 266 | pc.printf("DMA_MUX: 0x%08x\r\n",DMAMUX_CHCFG0); |
danilob | 0:41904adca656 | 267 | pc.printf("SADDR0: 0x%08x\r\n",DMA_TCD0_SADDR); |
danilob | 0:41904adca656 | 268 | pc.printf("DADDR0: 0x%08x\r\n",DMA_TCD0_DADDR); |
danilob | 0:41904adca656 | 269 | pc.printf("CITER0: 0x%08x\r\n",DMA_TCD0_CITER_ELINKNO); |
danilob | 0:41904adca656 | 270 | pc.printf("BITER0: 0x%08x\r\n",DMA_TCD0_BITER_ELINKNO); |
danilob | 0:41904adca656 | 271 | pc.printf("DMA_CR: %08x\r\n", DMA_CR); |
danilob | 0:41904adca656 | 272 | pc.printf("DMA_ES: %08x\r\n", DMA_ES); |
danilob | 0:41904adca656 | 273 | pc.printf("DMA_ERQ: %08x\r\n", DMA_ERQ); |
danilob | 0:41904adca656 | 274 | pc.printf("DMA_EEI: %08x\r\n", DMA_EEI); |
danilob | 0:41904adca656 | 275 | pc.printf("DMA_CEEI: %02x\r\n", DMA_CEEI); |
danilob | 0:41904adca656 | 276 | pc.printf("DMA_SEEI: %02x\r\n", DMA_SEEI); |
danilob | 0:41904adca656 | 277 | pc.printf("DMA_CERQ: %02x\r\n", DMA_CERQ); |
danilob | 0:41904adca656 | 278 | pc.printf("DMA_SERQ: %02x\r\n", DMA_SERQ); |
danilob | 0:41904adca656 | 279 | pc.printf("DMA_CDNE: %02x\r\n", DMA_CDNE); |
danilob | 0:41904adca656 | 280 | pc.printf("DMA_SSRT: %02x\r\n", DMA_SSRT); |
danilob | 0:41904adca656 | 281 | pc.printf("DMA_CERR: %02x\r\n", DMA_CERR); |
danilob | 0:41904adca656 | 282 | pc.printf("DMA_CINT: %02x\r\n", DMA_CINT); |
danilob | 0:41904adca656 | 283 | pc.printf("DMA_INT: %08x\r\n", DMA_INT); |
danilob | 0:41904adca656 | 284 | pc.printf("DMA_ERR: %08x\r\n", DMA_ERR); |
danilob | 0:41904adca656 | 285 | pc.printf("DMA_HRS: %08x\r\n", DMA_HRS); |
danilob | 0:41904adca656 | 286 | pc.printf("DMA_TCD0_DOFF: %08x\r\n",DMA_TCD0_DOFF); |
danilob | 0:41904adca656 | 287 | pc.printf("\n\rUART REGISTERS\n\r"); |
danilob | 0:41904adca656 | 288 | pc.printf("UART_BDH_REG: %08x\r\n",UART_BDH_REG(UART3)); |
danilob | 0:41904adca656 | 289 | pc.printf("UART_C1_REG: %08x\r\n",UART_C1_REG(UART3)); |
danilob | 0:41904adca656 | 290 | pc.printf("UART_C2_REG: %08x\r\n",UART_C2_REG(UART3)); |
danilob | 0:41904adca656 | 291 | pc.printf("UART_S1_REG: %08x\r\n",UART_S1_REG(UART3)); |
es_marble | 16:6807d437cd48 | 292 | pc.printf("UART_s2_REG: %08x\r\n",UART_S2_REG(UART3)); |
danilob | 0:41904adca656 | 293 | pc.printf("UART_C3_REG: %08x\r\n",UART_C3_REG(UART3)); |
danilob | 0:41904adca656 | 294 | pc.printf("UART_D_REG: %08x\r\n",UART_D_REG(UART3)); |
danilob | 0:41904adca656 | 295 | pc.printf("UART_MA1_REG: %08x\r\n",UART_MA1_REG(UART3)); |
danilob | 0:41904adca656 | 296 | pc.printf("UART_MA2_REG: %08x\r\n",UART_MA2_REG(UART3)); |
danilob | 0:41904adca656 | 297 | pc.printf("UART_C4_REG: %08x\r\n",UART_C4_REG(UART3)); |
danilob | 0:41904adca656 | 298 | pc.printf("UART_C5_REG: %08x\r\n",UART_C5_REG(UART3)); |
es_marble | 16:6807d437cd48 | 299 | pc.printf("UART_ED_REG: %08x\r\n",UART_ED_REG(UART3)); |
danilob | 0:41904adca656 | 300 | pc.printf("UART_MODEM_REG: %08x\r\n",UART_MODEM_REG(UART3)); |
danilob | 0:41904adca656 | 301 | pc.printf("UART_IR_REG: %08x\r\n",UART_IR_REG(UART3)); |
danilob | 0:41904adca656 | 302 | pc.printf("UART_PFIFO_REG: %08x\r\n",UART_PFIFO_REG(UART3)); |
danilob | 0:41904adca656 | 303 | pc.printf("UART_CFIFO_REG: %08x\r\n",UART_CFIFO_REG(UART3)); |
danilob | 0:41904adca656 | 304 | pc.printf("UART_SFIFO_REG: %08x\r\n",UART_SFIFO_REG(UART3)); |
danilob | 0:41904adca656 | 305 | pc.printf("UART_TWFIFO_REG: %08x\r\n",UART_TWFIFO_REG(UART3)); |
danilob | 0:41904adca656 | 306 | pc.printf("UART_TCFIFO_REG: %08x\r\n",UART_TCFIFO_REG(UART3)); |
danilob | 0:41904adca656 | 307 | pc.printf("UART_RWFIFO_REG: %08x\r\n",UART_RWFIFO_REG(UART3)); |
danilob | 0:41904adca656 | 308 | pc.printf("UART_RCFIFO_REG: %08x\r\n",UART_RCFIFO_REG(UART3)); |
danilob | 0:41904adca656 | 309 | |
danilob | 0:41904adca656 | 310 | } |