serial = sdi->conn;
if (revents == G_IO_IN) {
/* Serial data arrived. */
- while(AGDMM_BUFSIZE - devc->buflen - 1 > 0) {
+ while (AGDMM_BUFSIZE - devc->buflen - 1 > 0) {
len = serial_read_nonblocking(serial, devc->buf + devc->buflen, 1);
if (len < 1)
break;
devc->cur_unit = SR_UNIT_VOLT;
devc->cur_mqflags = 0;
devc->cur_divider = 0;
- } else if(!strcmp(mstr, "MV")) {
+ } else if (!strcmp(mstr, "MV")) {
if (devc->mode_tempaux) {
devc->cur_mq = SR_MQ_TEMPERATURE;
/* No way to detect whether Fahrenheit or Celcius
devc->cur_mqflags = 0;
devc->cur_divider = 1000;
}
- } else if(!strcmp(mstr, "A")) {
+ } else if (!strcmp(mstr, "A")) {
devc->cur_mq = SR_MQ_CURRENT;
devc->cur_unit = SR_UNIT_AMPERE;
devc->cur_mqflags = 0;
devc->cur_divider = 0;
- } else if(!strcmp(mstr, "UA")) {
+ } else if (!strcmp(mstr, "UA")) {
devc->cur_mq = SR_MQ_CURRENT;
devc->cur_unit = SR_UNIT_AMPERE;
devc->cur_mqflags = 0;
devc->cur_divider = 1000000;
- } else if(!strcmp(mstr, "FREQ")) {
+ } else if (!strcmp(mstr, "FREQ")) {
devc->cur_mq = SR_MQ_FREQUENCY;
devc->cur_unit = SR_UNIT_HERTZ;
devc->cur_mqflags = 0;
devc->cur_divider = 0;
- } else if(!strcmp(mstr, "RES")) {
+ } else if (!strcmp(mstr, "RES")) {
if (devc->mode_continuity) {
devc->cur_mq = SR_MQ_CONTINUITY;
devc->cur_unit = SR_UNIT_BOOLEAN;
}
devc->cur_mqflags = 0;
devc->cur_divider = 0;
- } else if(!strcmp(mstr, "CAP")) {
+ } else if (!strcmp(mstr, "CAP")) {
devc->cur_mq = SR_MQ_CAPACITANCE;
devc->cur_unit = SR_UNIT_FARAD;
devc->cur_mqflags = 0;
}
} else
devc->cur_mqflags &= ~(SR_MQFLAG_AC | SR_MQFLAG_DC);
- } else if(!strcmp(mstr, "CURR")) {
+ } else if (!strcmp(mstr, "CURR")) {
devc->cur_mq = SR_MQ_CURRENT;
devc->cur_unit = SR_UNIT_AMPERE;
devc->cur_mqflags = 0;
devc->cur_divider = 0;
- } else if(!strcmp(mstr, "RES")) {
+ } else if (!strcmp(mstr, "RES")) {
devc->cur_mq = SR_MQ_RESISTANCE;
devc->cur_unit = SR_UNIT_OHM;
devc->cur_mqflags = 0;
devc->cur_divider = 0;
- } else if(!strcmp(mstr, "CAP")) {
+ } else if (!strcmp(mstr, "CAP")) {
devc->cur_mq = SR_MQ_CAPACITANCE;
devc->cur_unit = SR_UNIT_FARAD;
devc->cur_mqflags = 0;
devc->cur_divider = 0;
- } else if(!strcmp(mstr, "FREQ")) {
+ } else if (!strcmp(mstr, "FREQ")) {
devc->cur_mq = SR_MQ_FREQUENCY;
devc->cur_unit = SR_UNIT_HERTZ;
devc->cur_mqflags = 0;
devc->cur_divider = 0;
- } else if(!strcmp(mstr, "CONT")) {
+ } else if (!strcmp(mstr, "CONT")) {
devc->cur_mq = SR_MQ_CONTINUITY;
devc->cur_unit = SR_UNIT_BOOLEAN;
devc->cur_mqflags = 0;
devc->cur_divider = 0;
- } else if(!strncmp(mstr, "T1", 2) || !strncmp(mstr, "T2", 2)) {
+ } else if (!strncmp(mstr, "T1", 2) || !strncmp(mstr, "T2", 2)) {
devc->cur_mq = SR_MQ_TEMPERATURE;
m2 = g_match_info_fetch(match, 2);
if (!strcmp(m2, "FAR"))
g_free(m2);
devc->cur_mqflags = 0;
devc->cur_divider = 0;
- } else if(!strcmp(mstr, "SCOU")) {
+ } else if (!strcmp(mstr, "SCOU")) {
/*
* Switch counter, not supported. Not sure what values
* come from FETC in this mode, or how they would map
* into libsigrok.
*/
- } else if(!strncmp(mstr, "CPER:", 5)) {
+ } else if (!strncmp(mstr, "CPER:", 5)) {
devc->cur_mq = SR_MQ_CURRENT;
devc->cur_unit = SR_UNIT_PERCENTAGE;
devc->cur_mqflags = 0;
sr_spew("CONF? response '%s'.", g_match_info_get_string(match));
devc = sdi->priv;
mstr = g_match_info_fetch(match, 1);
- if(!strcmp(mstr, "DIOD")) {
+ if (!strcmp(mstr, "DIOD")) {
devc->cur_mq = SR_MQ_VOLTAGE;
devc->cur_unit = SR_UNIT_VOLT;
devc->cur_mqflags = SR_MQFLAG_DIODE;
* @param p a pointer to the output memory
* @param x the input unsigned integer
*/
-#define W8(p, x) do { ((uint8_t*)(p))[0] = (uint8_t) (x); } while(0)
+#define W8(p, x) do { ((uint8_t*)(p))[0] = (uint8_t) (x); } while (0)
/**
* Write a 16 bits unsigned integer to memory stored as big endian.
* @param x the input unsigned integer
*/
#define WB16(p, x) do { ((uint8_t*)(p))[1] = (uint8_t) (x); \
- ((uint8_t*)(p))[0] = (uint8_t)((x)>>8); } while(0)
+ ((uint8_t*)(p))[0] = (uint8_t)((x)>>8); } while (0)
/**
* Write a 16 bits unsigned integer to memory stored as little endian.
* @param x the input unsigned integer
*/
#define WL16(p, x) do { ((uint8_t*)(p))[0] = (uint8_t) (x); \
- ((uint8_t*)(p))[1] = (uint8_t)((x)>>8); } while(0)
+ ((uint8_t*)(p))[1] = (uint8_t)((x)>>8); } while (0)
/**
* Write a 32 bits unsigned integer to memory stored as big endian.
#define WB32(p, x) do { ((uint8_t*)(p))[3] = (uint8_t) (x); \
((uint8_t*)(p))[2] = (uint8_t)((x)>>8); \
((uint8_t*)(p))[1] = (uint8_t)((x)>>16); \
- ((uint8_t*)(p))[0] = (uint8_t)((x)>>24); } while(0)
+ ((uint8_t*)(p))[0] = (uint8_t)((x)>>24); } while (0)
/**
* Write a 32 bits unsigned integer to memory stored as little endian.
#define WL32(p, x) do { ((uint8_t*)(p))[0] = (uint8_t) (x); \
((uint8_t*)(p))[1] = (uint8_t)((x)>>8); \
((uint8_t*)(p))[2] = (uint8_t)((x)>>16); \
- ((uint8_t*)(p))[3] = (uint8_t)((x)>>24); } while(0)
+ ((uint8_t*)(p))[3] = (uint8_t)((x)>>24); } while (0)
/* Portability fixes for FreeBSD. */
#ifdef __FreeBSD__