minor: Fix more unexpected chars in input files

conf/energy_count_3000.conf

@@ -2,7 +2,7 @@
 #
 # "Voltcraft Energy Count 3000" (868.3 MHz) sensor sold by Conrad
 # aka "Velleman NETBSEM4"
-# aka "La Crosse Technology Remote Cost Control Monitor – RS3620".
+# aka "La Crosse Technology Remote Cost Control Monitor - RS3620".
 # aka "ELV Cost Control"
 #
 # Stub driver

src/devices/directv.c

@@ -18,8 +18,8 @@ each +/- 50 kHz from that center point.
 
 A full signal TRANSMISSION consists of ROWS, which are collections of SYMBOLS.
 SYMBOLS, both the higher-frequency MARK (`1`) and lower-frequency SPACE
-(`0`), have a width of 600μs.  If there is more than one ROW in a single
-TRANSMISSION, there will be a GAP of 27,600μs of silence between each ROW.
+(`0`), have a width of 600µs.  If there is more than one ROW in a single
+TRANSMISSION, there will be a GAP of 27,600µs of silence between each ROW.
 
 A TRANSMISSION may be generated in response to an EVENT on the remote.  Observed
 EVENTS that may trigger a TRANSMISSION seem limited to manual button presses.
@@ -375,9 +375,9 @@ r_device const directv = {
         .modulation  = FSK_PULSE_PCM,
         .short_width = 600,  // 150 samples @250k
         .long_width  = 600,  // 150 samples @250k
-        .gap_limit   = 30000, // gap is typically around 27,600μs, so long that rtl_433 resets
+        .gap_limit   = 30000, // gap is typically around 27,600µs, so long that rtl_433 resets
                               // signal decoder before recognizing row repeats in signal
-        .reset_limit = 50000, // maximum gap size before End Of Row [μs]
+        .reset_limit = 50000, // maximum gap size before End Of Row [µs]
         .decode_fn   = &directv_decode,
         .fields      = output_fields,
 };

src/devices/ert_idm.c

@@ -190,8 +190,8 @@ static int ert_idm_decode(r_device *decoder, bitbuffer_t *bitbuffer)
     http://davestech.blogspot.com/2008/02/itron-remote-read-electric-meter.html
     SCM1 Counter1 Meter has been inverted
     SCM1 Counter2 Meter has been removed
-    SCM2 Counter3 Meter detected a button–press demand reset
-    SCM2 Counter4 Meter has a low-battery/end–of–calendar warning
+    SCM2 Counter3 Meter detected a button-press demand reset
+    SCM2 Counter4 Meter has a low-battery/end-of-calendar warning
     SCM3 Counter5 Meter has an error or a warning that can affect billing
     SCM3 Counter6 Meter has a warning that may or may not require a site visit,
     */
@@ -440,8 +440,8 @@ static int ert_netidm_decode(r_device *decoder, bitbuffer_t *bitbuffer)
     http://davestech.blogspot.com/2008/02/itron-remote-read-electric-meter.html
     SCM1 Counter1 Meter has been inverted
     SCM1 Counter2 Meter has been removed
-    SCM2 Counter3 Meter detected a button–press demand reset
-    SCM2 Counter4 Meter has a low-battery/end–of–calendar warning
+    SCM2 Counter3 Meter detected a button-press demand reset
+    SCM2 Counter4 Meter has a low-battery/end-of-calendar warning
     SCM3 Counter5 Meter has an error or a warning that can affect billing
     SCM3 Counter6 Meter has a warning that may or may not require a site visit,
     */

src/devices/fineoffset.c

@@ -250,7 +250,7 @@ static int fineoffset_WH24_callback(r_device *decoder, bitbuffer_t *bitbuffer)
     int humidity        = b[5];                      // 0xff if invalid
     int wind_speed_raw  = b[6] | (b[3] & 0x10) << 4; // 0x1ff if invalid
     float wind_speed_factor, rain_cup_count;
-    // Wind speed factor is 1.12 m/s (1.19 per specs?) for WH24, 0.51 m/s for WH65B
+    // Wind speed factor is 1.12 m/s (1.19 per specs?) for WH24, 0.51 m/s for WH65B
     // Rain cup each count is 0.3mm for WH24, 0.01inch (0.254mm) for WH65B
     if (type == MODEL_WH24) { // WH24
         wind_speed_factor = 1.12f;
@@ -259,7 +259,7 @@ static int fineoffset_WH24_callback(r_device *decoder, bitbuffer_t *bitbuffer)
         wind_speed_factor = 0.51f;
         rain_cup_count = 0.254f;
     }
-    // Wind speed is scaled by 8, wind speed = raw / 8 * 1.12 m/s (0.51 for WH65B)
+    // Wind speed is scaled by 8, wind speed = raw / 8 * 1.12 m/s (0.51 for WH65B)
     float wind_speed_ms = wind_speed_raw * 0.125f * wind_speed_factor;
     int gust_speed_raw  = b[7];             // 0xff if invalid
     // Wind gust is unscaled, multiply by wind speed factor 1.12 m/s
@@ -590,7 +590,7 @@ Data format:
 See http://www.ecowitt.com/upfile/201904/WH51%20Manual.pdf for relationship between AD and moisture %
 
 Short explanation:
-- Soil Moisture Percentage = (Moisture AD – 0%AD) / (100%AD – 0%AD) * 100
+- Soil Moisture Percentage = (Moisture AD - 0%AD) / (100%AD - 0%AD) * 100
 - 0%AD = 70
 - 100%AD = 450 (manual states 500, but sensor internal computation are closer to 450)
 - If sensor-calculated moisture percentage are inaccurate at low/high values, use the AD value and the above formaula

src/devices/funkbus.c

@@ -18,12 +18,12 @@ developed by Insta GmbH.
 - Preamble: 4000us
 - Short: 500us
 - Long: 1000us
-- Encoding: Differential Manchester Biphase–Mark (BP-M)
+- Encoding: Differential Manchester Biphase-Mark (BP-M)
 
       __ __       __    __ __    __
      |     |     |  |  |     |  |  |
     _|     |__ __|  |__|     |__|  |__.....
-     |  0  |  0  | 	1  |  0  |  1  |
+     |  0  |  0  |  1  |  0  |  1  |
 
 - Mic: parity + lfsr with 8bit mask 0x8C shifted left by 2 bit
 - Bits: 48

src/devices/govee.c

@@ -182,7 +182,7 @@ static int govee_decode(r_device *decoder, bitbuffer_t *bitbuffer)
     chk     = (chk >> 4) ^ (chk & 0xf);
 
     // Parity arguments were discovered using revdgst's RevSum and the data packets included at the top of this file.
-    // 	 https://github.com/triq-org/revdgst
+    // https://github.com/triq-org/revdgst
     if (chk != parity) {
         decoder_log(decoder, 1, __func__, "Parity did NOT match.");
         return DECODE_FAIL_MIC;

src/devices/m_bus.c

@@ -624,7 +624,7 @@ static int m_bus_decode_records(data_t *data, const uint8_t *b, uint8_t dif_codi
             } else if (vif_uam == 0x78) {
                 // E111 1000    Fabrication No
             } else if (vif_uam == 0x79) {
-                // E111 1001    Enhanced Identification••
+                // E111 1001    Enhanced Identification
             } else if (vif_uam == 0x7A) {
                 // E111 1010    Bus Address     data type C (x=8)
             } else {

src/devices/secplus_v1.c

@@ -97,9 +97,9 @@ Find index of next bursts/packets in bitbuffer.
 
 The transmissions do not have a magic number or preamble.
 
-They all start with a '0' or a '2'  represented at 0001. and 0111.
+They all start with a '0' or a '2' represented at 0001. and 0111.
 since all nibbles start with 0 we can look for bytes
-000 + 0001 + 0 and 000 + 0111 + 0 for the start of a transmission
+000 + 0001 + 0 and 000 + 0111 + 0 for the start of a transmission
 (or just the 0001 and 0111 at the start of a bitbuffer)
 */
 

src/devices/ttx201.c

@@ -34,8 +34,8 @@ A complete message is 445 bits:
 54-bit data packet format
 
     0    1   2    3   4    5   6    7   8    9   10   11  12   13  (nibbles #, aligned to 8-bit values)
-    ..LL LLKKKKKK IIIIIIII StttBCCC 0XXXTTTT TTTTTTTT MMMMMMMM JJJJ	(temperature)
-or  ..LL LLKKKKKK zyyyyyyy 0tttmmmm dddddHHH HHMMMMMM 0SSSSSS? JJJJ	(date/time)
+    ..LL LLKKKKKK IIIIIIII StttBCCC 0XXXTTTT TTTTTTTT MMMMMMMM JJJJ (temperature)
+or  ..LL LLKKKKKK zyyyyyyy 0tttmmmm dddddHHH HHMMMMMM 0SSSSSS? JJJJ (date/time)
 
 - L = 4-bit start of packet, always 0
 - K = 6-bit checksum, sum of nibbles 3-12

src/devices/vauno_en8822c.c

@@ -36,11 +36,11 @@ Sample Data:
 
     [00] {42} af 0f a2 7c 01 c0 : 10101111 00001111 10100010 01111100 00000001 11
 
-- Sensor ID	= 175 = 0xaf
-- Channel		= 0
-- temp		= -93 = 0x111110100010
-- TemperatureC	= -9.3
-- hum    = 62% = 0x0111110
+- Sensor ID = 175 = 0xaf
+- Channel = 0
+- temp = -93 = 0x111110100010
+- TemperatureC = -9.3
+- hum = 62% = 0x0111110
 
 */
 

tests/data-test.c

@@ -25,30 +25,33 @@
 
 int main(void)
 {
-	data_t *data = data_make("label"      , "",		DATA_STRING, "1.2.3",
-				 "house_code" , "House Code",	DATA_INT, 42,
-				 "temp"	      , "Temperature",	DATA_DOUBLE, 99.9,
-				 "array"      , "Array",	DATA_ARRAY, data_array(2, DATA_STRING, (char*[2]){"hello", "world"}),
-				 "array2"     , "Array 2",	DATA_ARRAY, data_array(2, DATA_INT, (int[2]){4, 2}),
-				 "array3"     , "Array 3",	DATA_ARRAY, data_array(2, DATA_ARRAY, (data_array_t*[2]){
-				 				 data_array(2, DATA_INT, (int[2]){4, 2}),
-				 					 data_array(2, DATA_INT, (int[2]){5, 5}) }),
-				 "data"       , "Data",        DATA_DATA, data_make("Hello", "hello", DATA_STRING, "world", NULL),
-				 NULL);
-	const char *fields[] = { "label", "house_code", "temp", "array", "array2", "array3", "data", "house_code" };
+    /* clang-format off */
+    data_t *data = data_make(
+            "label",        "",             DATA_STRING, "1.2.3",
+            "house_code",   "House Code",   DATA_INT,    42,
+            "temp",         "Temperature",  DATA_DOUBLE, 99.9,
+            "array",        "Array",        DATA_ARRAY, data_array(2, DATA_STRING, (char*[2]){"hello", "world"}),
+            "array2",       "Array 2",      DATA_ARRAY, data_array(2, DATA_INT, (int[2]){4, 2}),
+            "array3",       "Array 3",      DATA_ARRAY, data_array(2, DATA_ARRAY, (data_array_t*[2]){
+                                                            data_array(2, DATA_INT, (int[2]){4, 2}),
+                                                            data_array(2, DATA_INT, (int[2]){5, 5}) }),
+            "data",         "Data",        DATA_DATA, data_make("Hello", "hello", DATA_STRING, "world", NULL),
+            NULL);
+    /* clang-format on */
+    const char *fields[] = { "label", "house_code", "temp", "array", "array2", "array3", "data", "house_code" };
 
-	void *json_output = data_output_json_create(0, stdout);
-	void *kv_output = data_output_kv_create(0, stdout);
-	void *csv_output = data_output_csv_create(0, stdout);
-	data_output_start(csv_output, fields, sizeof fields / sizeof *fields);
+    void *json_output = data_output_json_create(0, stdout);
+    void *kv_output = data_output_kv_create(0, stdout);
+    void *csv_output = data_output_csv_create(0, stdout);
+    data_output_start(csv_output, fields, sizeof fields / sizeof *fields);
 
-	data_output_print(json_output, data); fprintf(stdout, "\n");
-	data_output_print(kv_output, data);
-	data_output_print(csv_output, data);
+    data_output_print(json_output, data); fprintf(stdout, "\n");
+    data_output_print(kv_output, data);
+    data_output_print(csv_output, data);
 
-	data_output_free(json_output);
-	data_output_free(kv_output);
-	data_output_free(csv_output);
+    data_output_free(json_output);
+    data_output_free(kv_output);
+    data_output_free(csv_output);
 
-	data_free(data);
+    data_free(data);
 }