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Author SHA1 Message Date
pascallanger
ec7b4cd189 Update Protocols_Details.md 2025-04-03 18:38:45 +02:00
28 changed files with 279 additions and 2033 deletions

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@@ -1,305 +0,0 @@
local toolName = "TNS|DumboRC P series|TNE"
-- EdgeTX/Multi bridge:
-- Multi_Buffer[4] is RF payload length, [5..12] is RF payload.
-- Multi rewrites the 00 00 token and checksum from its hop state.
-- Special1 payload: 18 00 00 arg_l arg_h 00. Args: 1 poll, 2 Set GY EPA, 3 Set FS.
-- Special2 payload: 28 00 00 gyro0 gyro1 gyro2 gyro3 00.
-- Gyro word: bit0 enable, bit1 phase, bits2..5 SEN channel selector
-- (0=NULL, 1..7=CH2..CH8), bits6..13 SEN, bits14..21 PCA,
-- bits22..29 AGS, bits30..31 servo frequency (67HZ,250HZ,50HZ,300HZ).
local PROTO_RLINK = 74
local SUB_DUMBORC_P = 4
local TX_READY = 4
local TX_PAYLOAD = 5
local TX_MAX_PAYLOAD = 8
local RX_READY = 14
local RX_PAYLOAD = 15
local RX_MAX_PAYLOAD = 32
local colorLcd = type(lcd.RGB) == "function"
local servoHz = { "67HZ", "250HZ", "50HZ", "300HZ" }
local gyro = { enable = 0, phase = 0, senCh = 0, sen = 0, pca = 0, ags = 0, flags = 0 }
local lines = {}
local sel = 1
local top = 1
local edit = false
local blink = 0
local moduleOk = false
local haveValues = false
local function limit(v, mn, mx)
if v < mn then return mn end
if v > mx then return mx end
return v
end
local function byte(v)
return limit(math.floor(tonumber(v) or 0), 0, 255)
end
local function gyroRaw(v)
return limit(math.floor(tonumber(v) or 0), 0, 200)
end
local function gyroText(v)
local raw = gyroRaw(v)
return tostring(math.floor(raw / 2)) .. (raw % 2 == 0 and ".0" or ".5")
end
local function screenLines()
if colorLcd then return limit(math.floor(((LCD_H or 272) - 46) / 20), 8, 12) end
return 6
end
local function drawTitle(title)
if colorLcd and lcd.drawFilledRectangle then
lcd.drawFilledRectangle(0, 0, LCD_W, 30, COLOR_THEME_SECONDARY1)
lcd.drawText(3, 5, title, COLOR_THEME_PRIMARY2)
elseif lcd.drawScreenTitle then
lcd.drawScreenTitle(title, 0, 0)
else
lcd.drawText(0, 0, title, INVERS)
end
end
local function findModule()
for i = 0, 1 do
local m = model.getModule(i)
if m and m["Type"] == 6 and m["protocol"] == PROTO_RLINK and m["subProtocol"] == SUB_DUMBORC_P then
return true
end
end
return false
end
local function initBuffer()
multiBuffer(0, string.byte("R"))
if multiBuffer(0) ~= string.byte("R") then
error("Not enough memory!")
return
end
multiBuffer(1, string.byte("L"))
multiBuffer(2, string.byte("n"))
multiBuffer(3, string.byte("k"))
multiBuffer(TX_READY, 0)
multiBuffer(RX_READY, 0)
end
local function release()
for i = 0, RX_PAYLOAD + RX_MAX_PAYLOAD - 1 do
multiBuffer(i, 0)
end
end
local function sendPayload(payload)
local len = #payload
if len < 1 or len > TX_MAX_PAYLOAD or multiBuffer(TX_READY) ~= 0 then
return false
end
for i = 1, TX_MAX_PAYLOAD do
multiBuffer(TX_PAYLOAD + i - 1, 0)
end
for i = 1, #payload do
multiBuffer(TX_PAYLOAD + i - 1, byte(payload[i]))
end
multiBuffer(TX_READY, len)
return true
end
local function sendSpecial1(arg)
return sendPayload({ 0x18, 0, 0, arg % 256, math.floor(arg / 256), 0 })
end
local function gyroSelector()
if gyro.senCh < 2 or gyro.senCh > 8 then return 0 end
return gyro.senCh - 1
end
local function sendGyro()
local sen = gyroRaw(gyro.sen)
local pca = gyroRaw(gyro.pca)
local ags = gyroRaw(gyro.ags)
local b0 = gyro.enable + gyro.phase * 2 + gyroSelector() * 4 + (sen % 4) * 64
local b1 = math.floor(sen / 4) + (pca % 4) * 64
local b2 = math.floor(pca / 4) + (ags % 4) * 64
local b3 = math.floor(ags / 4) + limit(gyro.flags, 0, 3) * 64
sendPayload({ 0x28, 0, 0, b0, b1, b2, b3, 0 })
end
local function decodeGyroBytes(b0, b1, b2, b3)
b0 = byte(b0); b1 = byte(b1); b2 = byte(b2); b3 = byte(b3)
gyro.enable = b0 % 2
gyro.phase = math.floor(b0 / 2) % 2
local selector = math.floor(b0 / 4) % 16
gyro.senCh = selector == 0 and 0 or limit(selector + 1, 2, 8)
gyro.sen = gyroRaw(math.floor(b0 / 64) + (b1 % 64) * 4)
gyro.pca = gyroRaw(math.floor(b1 / 64) + (b2 % 64) * 4)
gyro.ags = gyroRaw(math.floor(b2 / 64) + (b3 % 64) * 4)
gyro.flags = math.floor(b3 / 64) % 4
haveValues = true
end
local function pollRx()
local len = multiBuffer(RX_READY)
if not len or len == 0 then return end
if len > RX_MAX_PAYLOAD then
multiBuffer(RX_READY, 0)
return
end
local p = {}
for i = 1, len do
p[i] = multiBuffer(RX_PAYLOAD + i - 1)
end
multiBuffer(RX_READY, 0)
if len == 7 and p[1] == 0x01 then
decodeGyroBytes(p[3], p[4], p[5], p[6])
end
end
local function chText()
if gyro.senCh == 0 then return "NULL" end
return "CH" .. gyro.senCh
end
local function rebuildLines()
lines = {
{ "Poll RX", "action", function() sendSpecial1(1) end },
{ "Gyro", "toggle", "enable" },
{ "Phase", "toggle", "phase" },
{ "SEN Ch", "channel", "senCh" },
{ "SEN", "percent", "sen" },
{ "PCA", "percent", "pca" },
{ "AGS", "percent", "ags" },
{ "Servo Hz", "flags", "flags" },
{ "Send Gyro", "action", sendGyro },
{ "Set GY EPA", "action", function() sendSpecial1(2) end },
{ "Set FS", "action", function() sendSpecial1(3) end },
}
end
local function lineValue(line)
if line[2] == "action" then return ">" end
if not haveValues then return "--" end
if line[2] == "toggle" then return gyro[line[3]] == 0 and "Off" or "On" end
if line[2] == "channel" then return chText() end
if line[2] == "percent" then return gyroText(gyro[line[3]]) end
if line[2] == "flags" then return servoHz[gyro.flags + 1] or tostring(gyro.flags) end
return ""
end
local function changeValue(dir, fast)
local line = lines[sel]
if not line then return end
local step = fast and 20 or 1
haveValues = true
if line[2] == "toggle" then
gyro[line[3]] = dir > 0 and 1 or 0
elseif line[2] == "channel" then
local vals = { 0, 2, 3, 4, 5, 6, 7, 8 }
local pos = 1
for i = 1, #vals do
if vals[i] == gyro.senCh then pos = i end
end
gyro.senCh = vals[limit(pos + dir, 1, #vals)]
elseif line[2] == "percent" then
gyro[line[3]] = gyroRaw(gyro[line[3]] + dir * step)
elseif line[2] == "flags" then
gyro.flags = limit(gyro.flags + dir, 0, 3)
end
end
local function fastRotary()
return getRotEncSpeed() > 1
end
local function handleEvent(event)
local nextEvent = edit and EVT_VIRTUAL_INC or EVT_VIRTUAL_NEXT
local prevEvent = edit and EVT_VIRTUAL_DEC or EVT_VIRTUAL_PREV
if event == nextEvent then
if edit then changeValue(1, fastRotary()) else sel = limit(sel + 1, 1, #lines) end
elseif event == prevEvent then
if edit then changeValue(-1, fastRotary()) else sel = limit(sel - 1, 1, #lines) end
elseif event == EVT_VIRTUAL_NEXT_PAGE then
if edit then changeValue(1, true) else sel = limit(sel + screenLines(), 1, #lines) end
elseif event == EVT_VIRTUAL_PREV_PAGE then
if edit then changeValue(-1, true) else sel = limit(sel - screenLines(), 1, #lines) end
killEvents(event)
elseif event == EVT_VIRTUAL_ENTER then
local line = lines[sel]
if line and line[2] == "action" then
line[3]()
elseif line then
edit = not edit
end
end
local count = screenLines()
if sel < top then top = sel end
if sel >= top + count then top = sel - count + 1 end
end
local function draw()
lcd.clear()
drawTitle("DumboRC P series")
local font = colorLcd and 0 or SMLSIZE
local x = 2
local y = colorLcd and 34 or 9
local dy = colorLcd and 20 or 8
local valueX = colorLcd and 150 or 82
if not moduleOk then
if colorLcd then
lcd.drawText(x, y + dy, "Select Multi RadLink/Dumbo_P", font + BLINK)
else
lcd.drawText(x, y + dy, "Select RadLink", font + BLINK)
lcd.drawText(x, y + dy * 2, "Dumbo_P", font + BLINK)
end
return
end
for i = top, math.min(#lines, top + screenLines() - 1) do
local attr = font
if i == sel then
attr = attr + INVERS
if edit then
blink = (blink + 1) % 30
if blink > 15 then attr = font end
end
end
local yy = y + (i - top) * dy
lcd.drawText(x, yy, lines[i][1], attr)
lcd.drawText(valueX, yy, lineValue(lines[i]), attr)
end
end
local function init()
moduleOk = type(multiBuffer) == "function" and findModule()
rebuildLines()
if moduleOk then initBuffer() end
end
local function run(event)
if event == nil then
error("Cannot be run as a model script!")
return 2
elseif event == EVT_VIRTUAL_EXIT then
if moduleOk then release() end
return 2
end
if moduleOk then
pollRx()
handleEvent(event)
end
draw()
return 0
end
return { init = init, run = run }

View File

@@ -86,17 +86,14 @@
55,1,FrSkyRX,CloneTX,0
55,2,FrSkyRX,EraseTX,0
55,3,FrSkyRX,CPPM,0,CH5,CH6,CH7,CH8,CH9,CH10,CH11,CH12,CH13,CH14,CH15,CH16
58,0,FX,FX816,1
58,1,FX,FX620,1
58,0,FX,816,1
58,1,FX,620,1
58,2,FX,9630,1,Rate,Gyro,TrimR,TrimA,TrimE
58,3,FX,Q560,1,FLIP,Gyro,LEDs
58,4,FX,QF012,1,FLIP,Gyro,Invert,Reset
58,5,FX,BM26,1,FLIP,Gyro,LEDs,LED,CALIB
58,6,FX,A570,1,STOP,Rate,Color,LED,TrimR,TrimA,TrimE
20,0,FY326,FY326,1,Flip,RTH,HLess,Expert,Calib
20,1,FY326,FY319,1,Flip,RTH,HLess,Expert,Calib
23,0,FQ777,124,1,Flip,RTH,HLess,Expert
23,1,FQ777,XBM37,1,Rate,Flip,HLess,LED,Pict,Video,RTH,OK,ETrim,Atrim
23,0,FY326,FY326,1,Flip,RTH,HLess,Expert
47,0,GD00x,V1,1,Trim,LED,Rate
47,1,GD00x,V2,1,Trim,LED,Rate
32,0,GW008,FY326,1,Flip
@@ -113,7 +110,7 @@
26,1,Hontai,JJRCX1,1,Flip,Arm,Pict,Video,HLess,RTH,Calib
26,2,Hontai,X5C1,1,Flip,Arm,Pict,Video,HLess,RTH,Calib
26,3,Hontai,FQ777_951,1,Flip,Arm,Pict,Video,HLess,RTH,Calib
26,4,Hontai,XKK170,1,Rate,Emerg,TakLan,Calib,TrimA,TrimE,Optic
26,4,Hontai,XKK170,1,Rate,Emerg,TakLan,Calib,TrimA,TrimE
57,0,HoTT,Sync,0,CH5,CH6,CH7,CH8,CH9,CH10,CH11,CH12,CH13,CH14,CH15,CH16
57,1,HoTT,No_Sync,0,CH5,CH6,CH7,CH8,CH9,CH10,CH11,CH12,CH13,CH14,CH15,CH16
2,0,Hubsan,H107,1,Flip,Light,Pict,Video,HLess
@@ -122,7 +119,7 @@
22,0,J6Pro,Std,0,CH5,CH6,CH7,CH8,CH9,CH10,CH11,CH12
71,0,JJRC345,JJRC345,1,Flip,HLess,RTH,LED,UNK1,UNK2,UNK3
71,1,JJRC345,SkyTmblr,1,Flip,HLess,RTH,LED,UNK1,UNK2,UNK3
49,0,KF606,KF606,1,Trim,LED
49,0,KF606,KF606,1,Trim
49,1,KF606,MIG320,1,Trim,LED
49,2,KF606,ZCZ50,1,Trim,UNK
9,0,KN,WLToys,0,DRate,THold,IdleUp,Gyro,Ttrim,Atrim,Etrim,Rtrim,Hover
@@ -163,9 +160,8 @@
72,0,Q90C,Std,0,FMode,VTX+
74,0,RadioLink,Surface,0,CH5,CH6,CH7,CH8,FS_CH1,FS_CH2,FS_CH3,FS_CH4,FS_CH5,FS_CH6,FS_CH7,FS_CH8
74,1,RadioLink,Air,0,CH5,CH6,CH7,CH8,FS_CH1,FS_CH2,FS_CH3,FS_CH4,FS_CH5,FS_CH6,FS_CH7,FS_CH8
74,2,RadioLink,DumboRC,0,CH5,CH6,CH7,CH8GY,CH9,CH10,n-a,n-a,n-a,n-a,n-a,n-a
74,2,RadioLink,DumboRC,0,CH5,CH6,CH7,CH8,FS_CH1,FS_CH2,FS_CH3,FS_CH4,FS_CH5,FS_CH6,FS_CH7,FS_CH8
74,3,RadioLink,RC4G,0,CH5,FS_CH1,FS_CH2,FS_CH3,FS_CH4
74,4,RadioLink,Dumbo_P,0,CH5,CH6,CH7,CH8GY,CH9,CH10,n-a,n-a,n-a,n-a,n-a,n-a
76,0,Realacc,Std,1,Flip,Light,Calib,HLess,RTH,ThCut,Rotat
50,0,Redpine,Fast,0,sCH5,sCH6,sCH7,sCH8,sCH9,sCH10,sCH11,sCH12,sCH13,sCH14,sCH15,sCH16
50,1,Redpine,Slow,0,sCH5,sCH6,sCH7,sCH8,sCH9,sCH10,sCH11,sCH12,sCH13,sCH14,sCH15,sCH16
@@ -200,8 +196,8 @@
62,0,XK,X450,1,FMode,TakeOf,Emerg,3D_6G,Pict,Video
62,1,XK,X420,1,FMode,TakeOf,Emerg,3D_6G,Pict,Video,Flip,Light
62,2,XK,Cars,0,FMode,TakeOf,Emerg,3D_6G,Pict,Video,Flip,Light
99,0,XK2,X4,0,Rate,Mode,Hover,Light,Stunt
99,1,XK2,P10,0,Rate,Mode,Hover,Light,Stunt
99,0,XK2,X4,0,Rate,Mode,Hover,Light
99,1,XK2,P10,0,Rate,Mode,Hover,Light
8,0,YD717,Std,1,Flip,Light,Pict,Video,HLess
8,1,YD717,SkyWlkr,1,Flip,Light,Pict,Video,HLess
8,2,YD717,Simax4,1,Flip,Light,Pict,Video,HLess
@@ -239,4 +235,3 @@
104,0,KAMTOM,Std,0,ST_Tr,TH_Tr,TH_DR
105,0,Shenqi2,Std,1
106,0,WL91x,Std,0
107,0,WPL,Std,0,Light,TH_DR,ST_DR

View File

@@ -280,7 +280,7 @@ local function Multi_Init()
end
--Exceptions on first 4 channels...
if ( protocol == 73 or (protocol == 74 and (sub_protocol == 0 or sub_protocol == 2 or sub_protocol == 4)) or (protocol == 60 and sub_protocol == 2) or protocol == 89) then -- Kyosho or RadioLink (Surface or DumboRC/P) or Pelikan/SCX24 or Losi
if ( protocol == 73 or (protocol == 74 and sub_protocol == 0) or (protocol == 60 and sub_protocol == 2) or protocol == 89) then -- Kyosho or RadioLink Surface or Pelikan/SCX24 or Losi
channel_names[1] = "ST"
channel_names[2] = "THR"
channel_names[3] = "CH3"

View File

@@ -93,9 +93,6 @@ static void AFHDS2A_update_telemetry()
if (option & 0x80)
{// forward 0xAA and 0xAC telemetry to TX, skip rx and tx id to save space
packet_in[0]= TX_RSSI;
//Fix for CROSSOVER-RX,
if(packet[17+8]==0xFF && packet[21+8]==0xFC && packet[25+8]==0xFF)
packet[17+8]=0xFE; // RX_ERR_RATE needed for TX to validate the telem
#if 0
debug("T(%02X)=",packet[0]);
for(uint8_t i=9;i < AFHDS2A_RXPACKET_SIZE; i++)

View File

@@ -599,7 +599,6 @@ void DSM_init()
uint16_t temp = DSM_CLONE_EEPROM_OFFSET;
for(uint8_t i=0;i<4;i++)
cyrfmfg_id[i] = eeprom_read_byte((EE_ADDR)temp++);
cyrfmfg_id[3]^=RX_num; //Model match
#if DEBUG_BIND
debugln("Using cloned ID");
debug("Clone ID=")
@@ -620,7 +619,8 @@ void DSM_init()
{
//SUB_PROTO_VALID;
CYRF_GetMfgData(cyrfmfg_id);
cyrfmfg_id[3]^=RX_num; //Model match
//Model match
cyrfmfg_id[3]^=RX_num;
}
}

View File

@@ -44,8 +44,9 @@ static void __attribute__((unused)) E129_build_data_packet()
packet[ 1] = 0xA6; // Set to A5 every few packets??
//Flags
packet[ 2] = 0xF7; // E129 High rate 0xF7, low 0xF4
if(sub_protocol == E129_C186)
if(sub_protocol == E129_E129)
packet[ 2] = 0xF7; // High rate 0xF7, low 0xF4
else //C186
{
packet[ 2] = 0xFA; // High rate 0xFA, medium 0xF7, low 0xF4
packet[13] = bit_reverse(rx_tx_addr[2]);

View File

@@ -31,19 +31,6 @@ enum {
FQ777_FLAG_FLIP = 0x80,
};
enum {
XBM37_B5_OK = 0x80,
XBM37_B6_RATE_LOW = 0x00,
XBM37_B6_RATE_MID = 0x01,
XBM37_B6_RATE_HIGH = 0x02,
XBM37_B6_LED_OFF = 0x04,
XBM37_B6_RTH = 0x08,
XBM37_B6_HEADLESS = 0x10,
XBM37_B6_VIDEO = 0x20,
XBM37_B6_PICTURE = 0x40,
XBM37_B6_FLIP = 0x80,
};
const uint8_t ssv_xor[] = {0x80,0x44,0x64,0x75,0x6C,0x71,0x2A,0x36,0x7C,0xF1,0x6E,0x52,0x9,0x9D,0x1F,0x78,0x3F,0xE1,0xEE,0x16,0x6D,0xE8,0x73,0x9,0x15,0xD7,0x92,0xE7,0x3,0xBA};
uint8_t FQ777_bind_addr [] = {0xe7,0xe7,0xe7,0xe7,0x67};
@@ -100,21 +87,12 @@ static void __attribute__((unused)) FQ777_send_packet()
uint8_t packet_ori[8];
if (IS_BIND_IN_PROGRESS)
{
// Byte 0 is always 0x20; bytes 1-3 are sub-protocol specific
// 4,5,6 = address fields
// last field is checksum of address fields
packet_ori[0] = 0x20;
if (sub_protocol == XBM37)
{
packet_ori[1] = 0x14;
packet_ori[2] = 0x07;
packet_ori[3] = 0x03;
}
else // FQ777
{
packet_ori[1] = 0x15;
packet_ori[2] = 0x05;
packet_ori[3] = 0x06;
}
// Bytes 4-6: address fields, byte 7: checksum of address fields (shared by both protocols)
packet_ori[1] = 0x15;
packet_ori[2] = 0x05;
packet_ori[3] = 0x06;
packet_ori[4] = rx_tx_addr[0];
packet_ori[5] = rx_tx_addr[1];
packet_ori[6] = rx_tx_addr[2];
@@ -122,64 +100,36 @@ static void __attribute__((unused)) FQ777_send_packet()
}
else
{
if (sub_protocol == XBM37)
{
packet_ori[0] = convert_channel_16b_limit(THROTTLE,0xE1,0); // reverse channel
packet_ori[1] = convert_channel_16b_limit(RUDDER,0,0xE1);
packet_ori[2] = convert_channel_16b_limit(AILERON,0xE1,0); // reverse channel
packet_ori[3] = convert_channel_16b_limit(ELEVATOR,0xE1,0); // reverse channel
packet_ori[4] = (convert_channel_8b(CH13) >> 2) + 1; // ele trim (01..20..40) front ^ plus 0x01, back - minus 0x01 per click
packet_ori[5] = 0x3F - (convert_channel_8b(CH14) >> 2) // ail trim (40..20..01) left <- plus 0x01, right -> minus 0x01 per click
| GET_FLAG(CH12_SW, XBM37_B5_OK); // bit7 = OK button ...unknown use for this model?
// throt, yaw, pitch, roll, trims, flags/left button,00,right button
//0-3 0x00-0x64
//4 roll/pitch/yaw trims. cycles through one trim at a time - 0-40 trim1, 40-80 trim2, 80-C0 trim3 (center: A0 20 60)
//5 flags for throttle button, two buttons above throttle - def: 0x40
//6 00 ??
//7 checksum - add values in other fields
uint8_t rate_bits;
if (CH5_SW)
rate_bits = XBM37_B6_RATE_HIGH; // high rate
else if (Channel_data[CH5] < CHANNEL_MIN_COMMAND)
rate_bits = XBM37_B6_RATE_LOW; // low rate
else
rate_bits = XBM37_B6_RATE_MID; // medium rate
packet_ori[6] = rate_bits // bits[1:0] = rate
| GET_FLAG(CH8_SW, XBM37_B6_LED_OFF) // bit2 = LED off
| GET_FLAG(CH11_SW, XBM37_B6_RTH) // bit3 = RTH
| GET_FLAG(CH7_SW, XBM37_B6_HEADLESS) // bit4 = headless
| GET_FLAG(CH10_SW, XBM37_B6_VIDEO) // bit5 = video
| GET_FLAG(CH9_SW, XBM37_B6_PICTURE) // bit6 = picture
| GET_FLAG(CH6_SW, XBM37_B6_FLIP); // bit7 = flip
}
else // FQ777
{
// throt, yaw, pitch, roll, trims, flags/left button,00,right button
//0-3 0x00-0x64
//4 roll/pitch/yaw trims. cycles through one trim at a time - 0-40 trim1, 40-80 trim2, 80-C0 trim3 (center: A0 20 60)
//5 flags for throttle button, two buttons above throttle - def: 0x40
//6 00 ??
//7 checksum - add values in other fields
// Trims are usually done through the radio configuration but leaving the code here just in case...
uint8_t trim_mod = packet_count % 144;
uint8_t trim_val = 0;
if (36 <= trim_mod && trim_mod < 72) // yaw
trim_val = 0x20; // don't modify yaw trim
else
if (108 < trim_mod && trim_mod) // pitch
trim_val = 0xA0;
else // roll
trim_val = 0x60;
// Trims are usually done through the radio configuration but leaving the code here just in case...
uint8_t trim_mod = packet_count % 144;
uint8_t trim_val = 0;
if (36 <= trim_mod && trim_mod < 72) // yaw
trim_val = 0x20; // don't modify yaw trim
else
if (108 < trim_mod && trim_mod) // pitch
trim_val = 0xA0;
else // roll
trim_val = 0x60;
packet_ori[0] = convert_channel_16b_limit(THROTTLE,0,0x64);
packet_ori[1] = convert_channel_16b_limit(RUDDER,0,0x64);
packet_ori[2] = convert_channel_16b_limit(ELEVATOR,0,0x64);
packet_ori[3] = convert_channel_16b_limit(AILERON,0,0x64);
packet_ori[4] = trim_val; // calculated above
packet_ori[5] = GET_FLAG(CH5_SW, FQ777_FLAG_FLIP)
| GET_FLAG(CH7_SW, FQ777_FLAG_HEADLESS)
| GET_FLAG(!CH6_SW, FQ777_FLAG_RETURN)
| GET_FLAG(CH8_SW,FQ777_FLAG_EXPERT);
packet_ori[6] = 0x00;
}
// Data packet checksum: sum of bytes 0-6 (not applied to bind packets)
packet_ori[0] = convert_channel_16b_limit(THROTTLE,0,0x64);
packet_ori[1] = convert_channel_16b_limit(RUDDER,0,0x64);
packet_ori[2] = convert_channel_16b_limit(ELEVATOR,0,0x64);
packet_ori[3] = convert_channel_16b_limit(AILERON,0,0x64);
packet_ori[4] = trim_val; // calculated above
packet_ori[5] = GET_FLAG(CH5_SW, FQ777_FLAG_FLIP)
| GET_FLAG(CH7_SW, FQ777_FLAG_HEADLESS)
| GET_FLAG(!CH6_SW, FQ777_FLAG_RETURN)
| GET_FLAG(CH8_SW,FQ777_FLAG_EXPERT);
packet_ori[6] = 0x00;
// calculate checksum
uint8_t checksum = 0;
for (int i = 0; i < 7; ++i)
checksum += packet_ori[i];
@@ -231,17 +181,12 @@ void FQ777_init(void)
BIND_IN_PROGRESS; // autobind protocol
bind_counter = FQ777_BIND_COUNT;
packet_count=0;
// Sub-protocol hop channel table: first 3 channels differ; channel[3]=0x07 is shared
static const uint8_t hop_ch[2][3] = {
{0x4D, 0x43, 0x27}, // FQ777
{0x49, 0x34, 0x26}, // XBM-37
};
hopping_frequency[0] = hop_ch[sub_protocol][0];
hopping_frequency[1] = hop_ch[sub_protocol][1];
hopping_frequency[2] = hop_ch[sub_protocol][2];
hopping_frequency[0] = 0x4D;
hopping_frequency[1] = 0x43;
hopping_frequency[2] = 0x27;
hopping_frequency[3] = 0x07;
hopping_frequency_no=0;
rx_tx_addr[2] = (sub_protocol == XBM37) ? (RX_num & 0x3F) : 0x00; // XBM-37 uses receiver number (0-63) for model match capability
rx_tx_addr[2] = 0x00;
rx_tx_addr[3] = 0xe7;
rx_tx_addr[4] = 0x67;
FQ777_RF_init();

View File

@@ -42,15 +42,9 @@ Multiprotocol is distributed in the hope that it will be useful,
#define FX_QF012_PACKET_PERIOD 12194
#define FX_QF012_RX_PAYLOAD_SIZE 3
#define FX_BM26_BIND_CHANNEL 40
#define FX_BM26_PACKET_PERIOD 14066
#define FX_A570_PACKET_PERIOD 10270
//#define FORCE_FX620_ID
//#define FORCE_FX9630_ID
//#define FORCE_QIDI_ID
//#define FORCE_FX_A570_ID
enum
{
@@ -67,7 +61,7 @@ static void __attribute__((unused)) FX_send_packet()
{
XN297_Hopping(hopping_frequency_no++);
if(sub_protocol >= FX9630)
{ // FX9630 & FX_Q560 & FX_QF012 & FX_A570
{ // FX9630 & FX_Q560 & FX_QF012
if (hopping_frequency_no >= FX9630_NUM_CHANNELS)
{
hopping_frequency_no = 0;
@@ -76,7 +70,7 @@ static void __attribute__((unused)) FX_send_packet()
trim_ch++;
trim_ch &= 3;
}
else // FX_Q560 & FX_QF012 & FX_A570
else // FX_Q560 & FX_QF012
trim_ch = 0;
}
}
@@ -90,7 +84,27 @@ static void __attribute__((unused)) FX_send_packet()
//Channels
uint8_t val;
if (sub_protocol == FX816 || sub_protocol == FX620)
if (sub_protocol >= FX9630)
{ // FX9630 & FX_Q560 & FX_QF012
packet[0] = convert_channel_8b(THROTTLE);
packet[1] = convert_channel_8b(AILERON);
packet[2] = 0xFF - convert_channel_8b(ELEVATOR);
packet[3] = convert_channel_8b(RUDDER);
val = trim_ch==0 ? 0x20 : (convert_channel_8b(trim_ch + CH6) >> 2); // no trim on Throttle
packet[4] = val; // Trim for channel x 0C..20..34
packet[5] = (trim_ch << 4) // channel x << 4
| GET_FLAG(CH5_SW, (sub_protocol == FX_QF012 ? 0x08 : 0x01)) // DR toggle swich: 0 small throw, 1 large throw / Q560 acrobatic / QF012 Special effects
// FX9630 =>0:6G small throw, 1:6G large throw, 2:3D
// QIDI-550=>0:3D, 1:6G, 2:Torque
// QF012=>0:beginner(6G), 1:mid(3D), 2:expert(Gyro off)
| (Channel_data[CH6] < CHANNEL_MIN_COMMAND ? 0x00 : (Channel_data[CH6] > CHANNEL_MAX_COMMAND ? 0x04 : 0x02));
if(sub_protocol == FX_Q560)
packet[5] |= GET_FLAG(CH7_SW, 0x18); // Q560 LED flag 0x10 conflicting with trim_ch... Corrected on new boards using 0x08 instead
else if (sub_protocol == FX_QF012)
packet[5] |= GET_FLAG(CH7_SW, 0x40) // QF012 invert flight
| GET_FLAG(CH8_SW, 0x80); // QF012 Restore fine tunning midpoint
}
else // FX816 & FX620
{
uint8_t offset=sub_protocol == FX816 ? FX816_CH_OFFSET:FX620_CH_OFFSET;
val=convert_channel_8b(AILERON);
@@ -102,60 +116,6 @@ static void __attribute__((unused)) FX_send_packet()
packet[offset] = sub_protocol == FX816 ? 0:0x7F;
packet[offset+1] = convert_channel_16b_limit(THROTTLE,0,100); //FX816:0x00..0x63, FX620:0x00..0x5E but that should work
}
else if (sub_protocol == FX_A570)
{
packet[0] = convert_channel_16b_limit(THROTTLE,0x1C,0xE4);
packet[1] = convert_channel_16b_limit(AILERON,0xE4,0x1C);
packet[2] = convert_channel_16b_limit(ELEVATOR,0xE4,0x1C);
packet[3] = convert_channel_16b_limit(RUDDER,0x1C,0xE4);
// Trims - Ruddder L:01 R:02, Aileron L:03 R:04, Elevator Fwd:05 Back:06
packet[4] = (Channel_data[CH10] < CHANNEL_MIN_COMMAND ? 0x01 : GET_FLAG(CH10_SW, 0x02)) // Rudder trim
| (Channel_data[CH11] < CHANNEL_MIN_COMMAND ? 0x03 : GET_FLAG(CH11_SW, 0x04)) // Aileron trim
| (Channel_data[CH12] < CHANNEL_MIN_COMMAND ? 0x06 : GET_FLAG(CH12_SW, 0x05)); // Elevator trim
packet[5] = GET_FLAG(CH5_SW, 0x40) // motors stop
// A570 flight modes = 0>vertical flight(3 axis mode):00, 1>flat flight(6G):02, 2>vertical flight(2 axis mode):04
| (Channel_data[CH6] < CHANNEL_MIN_COMMAND ? 0x00 : (Channel_data[CH6] > CHANNEL_MAX_COMMAND ? 0x04 : 0x02))
| GET_FLAG(CH7_SW, 0x01) // 0:low rate, 1:high rate
| GET_FLAG(CH8_SW, 0x08) // LED color change
| GET_FLAG(CH9_SW, 0x10); // LED off
}
else
{ // FX9630 & FX_Q560 & FX_QF012 & FX_BM26
packet[0] = convert_channel_8b(THROTTLE);
packet[1] = convert_channel_8b(AILERON);
packet[2] = 0xFF - convert_channel_8b(ELEVATOR);
packet[3] = convert_channel_8b(RUDDER);
if ( sub_protocol == FX_BM26 ) // BM26 Ail, Elev, Rud range between 0x00-0x3F-0x7F
{
packet[1] >>= 1;
packet[2] >>= 1;
packet[3] >>= 1;
}
val = trim_ch==0 ? 0x20 : (convert_channel_8b(trim_ch + CH6) >> 2); // no trim on Throttle
packet[4] = val; // Trim for channel x 0C..20..34
packet[5] = (trim_ch << 4) // channel x << 4
| GET_FLAG(CH5_SW, (sub_protocol == FX_QF012 ? 0x08 : 0x01)) // DR toggle swich: 0 small throw, 1 large throw / Q560 acrobatic / QF012 Special effects
// FX9630 =>0:6G small throw, 1:6G large throw, 2:3D
// QIDI-550=>0:3D, 1:6G, 2:Torque
// QF012=>0:beginner(6G), 1:mid(3D), 2:expert(Gyro off)
| (Channel_data[CH6] < CHANNEL_MIN_COMMAND ? 0x00 : (Channel_data[CH6] > CHANNEL_MAX_COMMAND ? 0x04 : 0x02));
if(sub_protocol == FX_Q560)
packet[5] |= GET_FLAG(CH7_SW, 0x18); // Q560 LED flag 0x10 conflicting with trim_ch... Corrected on new boards using 0x08 instead
else if (sub_protocol == FX_QF012)
packet[5] |= GET_FLAG(CH7_SW, 0x40) // QF012 invert flight
| GET_FLAG(CH8_SW, 0x80); // QF012 Restore fine tunning midpoint
else if ( sub_protocol == FX_BM26 )
{
packet[5] &= 0xC0;
packet[5] += 0x40;
// BM26 P51=>0:beginner(6G), 1:mid(3D), 2:expert(Gyro off)
packet[5] |= (Channel_data[CH6] < CHANNEL_MIN_COMMAND ? 0x08 : (Channel_data[CH6] > CHANNEL_MAX_COMMAND ? 0x0C : 0x0A));
packet[6] = GET_FLAG( CH5_SW, 0x20) // 6G Roll
| GET_FLAG(!CH7_SW, 0x08) // Light control switch, default on
| GET_FLAG(!CH8_SW, 0x10) // Turn signal switch, default on
| GET_FLAG( CH9_SW, 0x01); // Gyro Calibration
}
}
//Bind and specifics
if(sub_protocol == FX816)
@@ -182,7 +142,7 @@ static void __attribute__((unused)) FX_send_packet()
packet[5] = 0xAB; // Is it based on ID??
}
}
else // FX9630 & FX_Q560 & FX_QF012 & FX_BM26 & FX_A570
else // FX9630 & FX_Q560 & FX_QF012
{
if(IS_BIND_IN_PROGRESS)
{
@@ -204,8 +164,6 @@ static void __attribute__((unused)) FX_send_packet()
val = val ^ 0xFF;
packet[last_packet_idx]=val;
if ( IS_BIND_IN_PROGRESS && sub_protocol == FX_BM26 ) packet[7] = packet[6];
//Debug
#if 0
for(uint8_t i=0;i<packet_length;i++)
@@ -222,7 +180,6 @@ static void __attribute__((unused)) FX_send_packet()
static void __attribute__((unused)) FX_RF_init()
{
XN297_Configure(XN297_CRCEN, XN297_SCRAMBLED, XN297_1M);
packet_length = FX9630_PAYLOAD_SIZE; // default
if(sub_protocol == FX816)
{
XN297_SetTXAddr((uint8_t *)"\xcc\xcc\xcc\xcc\xcc", 5);
@@ -237,23 +194,12 @@ static void __attribute__((unused)) FX_RF_init()
packet_period = FX620_BIND_PACKET_PERIOD;
packet_length = FX620_PAYLOAD_SIZE;
}
else if (sub_protocol == FX_BM26)
{
XN297_SetTXAddr((uint8_t *)"\x12\x34\x10\x10", 4);
XN297_RFChannel(FX_BM26_BIND_CHANNEL);
packet_period = FX_BM26_PACKET_PERIOD;
}
else if(sub_protocol == FX_A570)
{
XN297_SetTXAddr((uint8_t *)"\x56\x78\x92\x13", 4);
XN297_RFChannel(FX9630_BIND_CHANNEL);
packet_period = FX_A570_PACKET_PERIOD;
}
else // FX9630 & FX_Q560 & FX_QF012
{
XN297_SetTXAddr((uint8_t *)"\x56\x78\x90\x12", 4);
XN297_RFChannel(FX9630_BIND_CHANNEL);
packet_period = sub_protocol == FX_QF012 ? FX_QF012_PACKET_PERIOD : FX9630_PACKET_PERIOD;
packet_length = FX9630_PAYLOAD_SIZE;
}
}
@@ -280,11 +226,10 @@ static void __attribute__((unused)) FX_initialize_txid()
for(uint8_t i=1;i<FX_NUM_CHANNELS;i++)
hopping_frequency[i] = i*10 + hopping_frequency[0];
}
else // FX9630 & FX_Q560 & FX_QF012 & FX_BM26 & FX_A570
else // FX9630 & FX_Q560 & FX_QF012
{
//??? Need to find out how the first RF channel is calculated ???
hopping_frequency[0] = sub_protocol == FX_BM26? 0x0C : 0x13;
if (sub_protocol == FX_A570) hopping_frequency[0] = 0x0E;
hopping_frequency[0] = 0x13;
//Other 2 RF channels are sent during the bind phase so they can be whatever
hopping_frequency[1] = RX_num & 0x0F + 0x1A;
hopping_frequency[2] = rx_tx_addr[3] & 0x0F + 0x38;
@@ -300,11 +245,6 @@ static void __attribute__((unused)) FX_initialize_txid()
//memcpy(rx_tx_addr,(uint8_t*)"\x38\xC7\x6D\x8D", 4);
//memcpy(hopping_frequency,"\x0D\x20\x3A", FX9630_NUM_CHANNELS);
#endif
// BM26 rx_tx_addr: "\x17\x03\x00\x00", hopping_frequency: 0x0C,0x30,0x43(12,48,67)
#ifdef FORCE_FX_A570_ID
memcpy(rx_tx_addr,(uint8_t*)"\xA9\x56\xFC\x1C", 4);
memcpy(hopping_frequency,"\x0E\x1F\x39", FX9630_NUM_CHANNELS); //Original dump=>14=0x0E,31=0x1F,57=0x39
#endif
}
}
@@ -312,7 +252,7 @@ uint16_t FX_callback()
{
#ifdef FX_HUB_TELEMETRY
bool rx=false;
static uint8_t telem_count = 0;
switch(phase)
{
case FX_DATA:
@@ -341,20 +281,16 @@ uint16_t FX_callback()
}
FX_send_packet();
#ifdef FX_HUB_TELEMETRY
if (sub_protocol == FX816 || sub_protocol == FX620 || sub_protocol == FX_A570)
if(sub_protocol < FX9630)
break;
if(rx)
{
debug("RX");
if(XN297_ReadPayload(packet_in, FX_QF012_RX_PAYLOAD_SIZE))
{//Good CRC
//packets: A5 00 11 -> A5 01 11
telemetry_link = 1;
telemetry_lost = 0;
telem_count = 0;
if ( sub_protocol == FX_BM26 )
v_lipo1 = packet_in[0] < packet_in[2] ? 60:81; // packets: AA 00 55 -> 55 00 AA = low voltage 3.7V
else
v_lipo1 = packet_in[1] ? 60:81; // packets: A5 00 11 -> A5 01 11 = low voltage 3.7V
v_lipo1 = packet_in[1] ? 60:81; // low voltage 3.7V
#if 0
for(uint8_t i=0; i < FX_QF012_RX_PAYLOAD_SIZE; i++)
debug(" %02X", packet_in[i]);
@@ -362,19 +298,6 @@ uint16_t FX_callback()
}
debugln();
}
if(telem_count > 4*63) // Around 3.5 sec with no telemetry
telemetry_lost = 1;
else
{
telem_count++;
if(!telemetry_lost && (telem_count & 0x3F) == 0)
{// Should have received a telem packet but... Send telem to the radio to keep it alive
telemetry_link = 1;
#if 0
debugln("Miss");
#endif
}
}
phase++;
return FX9630_WRITE_TIME;
default: //FX_RX
@@ -407,7 +330,6 @@ void FX_init()
bind_counter=FX_BIND_COUNT;
#ifdef FX_HUB_TELEMETRY
RX_RSSI = 100; // Dummy value
telemetry_lost = 1;
phase = FX_DATA;
#endif
}

View File

@@ -78,8 +78,7 @@ static void __attribute__((unused)) HONTAI_send_packet()
packet[i+3] = convert_channel_16b_limit(CH_TAER[i],0x28,0xD8);
packet[6] ^= 0xFF; //Reverse rudder
//flags
packet[1] = GET_FLAG(CH8_SW, 0x04) //Gyro calibration (momentary)
|GET_FLAG(CH11_SW, 0x10); //XK K270 optical flow switch
packet[1] = GET_FLAG(CH8_SW, 0x04); //Gyro calibration (momentary)
// |GET_FLAG(CH_SW, 0x08) //Unk long press second top right button (momentary)
// |GET_FLAG(CH_SW, 0x10) //Unk short press second top right button (toggle)
// |GET_FLAG(CH_SW, 0x40) //Unk short press second top left button (momentary)

View File

@@ -48,19 +48,32 @@ static void __attribute__((unused)) KF606_send_packet()
hopping_frequency_no ^= 1; // 2 RF channels
packet[0] = 0x55;
if(sub_protocol == KF606_ZCZ50) len--;
packet[len-3] = convert_channel_8b(THROTTLE); // 0..255
packet[1] = convert_channel_8b(THROTTLE); // 0..255
// Deadband is needed on aileron, 40 gives +-6%
packet[len-2] = convert_channel_8b_limit_deadband(AILERON,0x00,0x80,0xFF,40); // Aileron: High rate:2B..80..DA
uint8_t p3;
p3 = convert_channel_8b(CH5)>>3; // Aileron trim must be on a separated channel 01..10..1F
p3 += (packet[2]-0x80)>>3; // Drive trims for more aileron authority
if(p3 > 0x80)
p3 = 0x01;
else if(p3 > 0x1F)
p3 = 0x1F;
p3 |= GET_FLAG(CH6_SW, 0xC0); // 0xC0 and 0xE0 are both turning the LED off, not sure if there is another hidden feature
packet[len-1] = p3;
switch(sub_protocol)
{
case KF606_KF606:
packet[2] = convert_channel_8b_limit_deadband(AILERON,0x20,0x80,0xE0,40); // Aileron: Max values:20..80..E0, Low rates:50..80..AF, High rates:3E..80..C1
packet[3] = convert_channel_16b_limit(CH5,0xC1,0xDF); // Aileron trim must be on a separated channel C1..D0..DF
break;
case KF606_MIG320:
packet[2] = convert_channel_8b_limit_deadband(AILERON,0x00,0x80,0xFF,40); // Aileron: High rate:2B..80..DA
packet[3] = convert_channel_16b_limit(CH5,0x01,0x1F); // Aileron trim must be on a separated channel 01..10..1F
packet[3] += (packet[2]-0x80)>>3; // Drive trims for more aileron authority
if(packet[3] > 0x80)
packet[3] = 0x01;
else if(packet[3] > 0x1F)
packet[3] = 0x1F;
packet[3] |= GET_FLAG(CH6_SW, 0xC0); // 0xC0 and 0xE0 are both turning the LED off, not sure if there is another hidden feature
break;
case KF606_ZCZ50:
len--; // uses only 3 bytes of payload
packet[0] = packet[1]; // Throttle: 0x00..0xFF
packet[1] = convert_channel_8b_limit_deadband(AILERON,0x20,0x80,0xE0,40); // Aileron: Max values:20..80..E0, low rate 0x52..0x80..0xB1, high rate: 0x41..0x80..0xC3.
packet[2] = convert_channel_16b_limit(CH5,0x01,0x1F); // Trim: 0x01..0x10..0x1F
packet[2] |= GET_FLAG(CH6_SW, 0xC0); // Unknown: 0x00 or 0xC0. Left top switch on original TX changes nothing on my plane. Maybe ON/OFF for main motor?
break;
}
}
if(sub_protocol == KF606_MIG320)

View File

@@ -530,7 +530,7 @@ void MT99XX_init(void)
bind_counter = MT99XX_BIND_COUNT;
if(IS_BIND_DONE)
{
if(sub_protocol != A180 && sub_protocol != DRAGON && sub_protocol != F949G && sub_protocol != PA18+8 && sub_protocol != SU35+8)
if(sub_protocol != A180 && sub_protocol != DRAGON && sub_protocol != F949G && sub_protocol != PA18+8)
BIND_IN_PROGRESS; // autobind protocol
else
bind_counter = 1;

View File

@@ -20,7 +20,7 @@
20,FY326,FY326,FY319
21,Futaba,SFHSS
22,J6PRO
23,FQ777,124,XBM37
23,FQ777
24,ASSAN
25,FrskyV
26,HONTAI,HONTAI,JJRCX1,X5C1,FQ777_951,XKK170
@@ -55,7 +55,7 @@
55,Frsky_RX,Multi,CloneTX,EraseTX,CPPM
56,AFHDS2A_RX,Multi,CPPM
57,HoTT,Sync,No_Sync
58,FX,FX816,FX620,9630,Q560,QF012,BM26,A570
58,FX,816,620,9630,Q560,QF012
59,Bayang_RX,Multi,CPPM
60,Pelikan,Pro,Lite,SCX24
61,EazyRC
@@ -71,7 +71,7 @@
71,JJRC345,JJRC345,SkyTmblr
72,Q90C
73,Kyosho,FHSS,Hype
74,RadioLink,Surface,Air,DumboRC,RC4G,Dumbo_P
74,RadioLink,Surface,Air,DumboRC,RC4G
75,---
76,Realacc
77,OMP
@@ -102,4 +102,3 @@
104,KAMTOM
105,Shenqi2
106,WL91x
107,WPL

View File

@@ -118,7 +118,6 @@ const char STR_UDIRC[] ="UDIRC";
const char STR_JIABAILE[] ="JIABAILE";
const char STR_KAMTOM[] ="KAMTOM";
const char STR_WL91X[] ="WL91x";
const char STR_WPL[] ="WPL";
const char STR_SUBTYPE_FLYSKY[] = "\x04""Std\0""V9x9""V6x6""V912""CX20";
const char STR_SUBTYPE_HUBSAN[] = "\x04""H107""H301""H501";
@@ -147,7 +146,6 @@ const char STR_SUBTYPE_MT99[] = "\x06""MT99\0 ""H7\0 ""YZ\0 ""LS\0 "
const char STR_SUBTYPE_MT992[] = "\x04""PA18""SU35";
const char STR_SUBTYPE_MJXQ[] = "\x07""WLH08\0 ""X600\0 ""X800\0 ""H26D\0 ""E010\0 ""H26WH\0 ""Phoenix";
const char STR_SUBTYPE_FY326[] = "\x05""Std\0 ""FY319";
const char STR_SUBTYPE_FQ777[] = "\x05""124\0 ""XBM37";
const char STR_SUBTYPE_HONTAI[] = "\x06""Std\0 ""JJRCX1""X5C1\0 ""FQ_951""XKK170";
const char STR_SUBTYPE_AFHDS2A[] = "\x08""PWM,IBUS""PPM,IBUS""PWM,SBUS""PPM,SBUS""Gyro_Off""Gyro_On\0""G_On_Rev";
const char STR_SUBTYPE_Q2X2[] = "\x04""Q222""Q242""Q282";
@@ -180,7 +178,7 @@ const char STR_SUBTYPE_WFLY2[] = "\x05""RF20x";
const char STR_SUBTYPE_HOTT[] = "\x07""Sync\0 ""No_Sync";
const char STR_SUBTYPE_PELIKAN[] = "\x05""Pro\0 ""Lite\0""SCX24";
const char STR_SUBTYPE_V761[] = "\x05""3ch\0 ""4ch\0 ""TOPRC";
const char STR_SUBTYPE_RLINK[] = "\x07""Surface""Air\0 ""DumboRC""RC4G\0 ""Dumbo_P";
const char STR_SUBTYPE_RLINK[] = "\x07""Surface""Air\0 ""DumboRC""RC4G\0 ";
const char STR_SUBTYPE_KYOSHO[] = "\x04""FHSS""Hype";
const char STR_SUBTYPE_KYOSHO2[] = "\x05""KT-17";
const char STR_SUBTYPE_KYOSHO3[] = "\x03""ASF";
@@ -189,8 +187,8 @@ const char STR_SUBTYPE_JJRC345[] = "\x08""JJRC345\0""SkyTmblr";
const char STR_SUBTYPE_MOULDKG[] = "\x05""A4444""D4444""A664\0";
const char STR_SUBTYPE_KF606[] = "\x06""KF606\0""MIG320""ZCZ50\0";
const char STR_SUBTYPE_E129[] = "\x04""E129""C186";
const char STR_SUBTYPE_FX[] = "\x05""FX816""FX620""9630\0""Q560\0""QF012""BM26\0""A570\0";
const char STR_SUBTYPE_SGF22[] = "\x04""F22\0""F22S""J20\0""CX10";
const char STR_SUBTYPE_FX[] = "\x05""816\0 ""620\0 ""9630\0""Q560\0""QF012";
const char STR_SUBTYPE_SGF22[] = "\x04""F22\0""F22S""J20\0";
const char STR_SUBTYPE_JIABAILE[] = "\x04""Std\0""Gyro";
#define NO_SUBTYPE nullptr
@@ -315,7 +313,7 @@ const mm_protocol_definition multi_protocols[] = {
{PROTO_AFHDS2A_RX, STR_AFHDS2A_RX,STR_CPPM, NBR_CPPM, OPTION_NONE, 0, 0, SW_A7105, AFHDS2A_RX_init, AFHDS2A_RX_callback },
#endif
#if defined(FQ777_NRF24L01_INO)
{PROTO_FQ777, STR_FQ777, STR_SUBTYPE_FQ777, 2, OPTION_NONE, 0, 0, SW_NRF, FQ777_init, FQ777_callback },
{PROTO_FQ777, STR_FQ777, NO_SUBTYPE, 0, OPTION_NONE, 0, 0, SW_NRF, FQ777_init, FQ777_callback },
#endif
//OpenTX 2.3.x issue: DO NOT CHANGE ORDER below
#if defined(FRSKY_RX_CC2500_INO)
@@ -346,7 +344,7 @@ const mm_protocol_definition multi_protocols[] = {
{PROTO_FUTABA, STR_FUTABA, STR_SUBTYPE_FUTABA, 1, OPTION_RFTUNE, 1, 1, SW_CC2500, SFHSS_init, SFHSS_callback },
#endif
#if defined(FX_NRF24L01_INO)
{PROTO_FX, STR_FX, STR_SUBTYPE_FX, 7, OPTION_NONE, 0, 0, SW_NRF, FX_init, FX_callback },
{PROTO_FX, STR_FX, STR_SUBTYPE_FX, 5, OPTION_NONE, 0, 0, SW_NRF, FX_init, FX_callback },
#endif
#if defined(FY326_NRF24L01_INO)
{PROTO_FY326, STR_FY326, STR_SUBTYPE_FY326, 2, OPTION_NONE, 0, 0, SW_NRF, FY326_init, FY326_callback },
@@ -460,7 +458,7 @@ const mm_protocol_definition multi_protocols[] = {
{PROTO_Q90C, STR_Q90C, NO_SUBTYPE, 0, OPTION_RFTUNE, 0, 0, SW_NRF, Q90C_init, Q90C_callback },
#endif
#if defined(RLINK_CC2500_INO)
{PROTO_RLINK, STR_RLINK, STR_SUBTYPE_RLINK, 5, OPTION_RFTUNE, 0, 0, SW_CC2500, RLINK_init, RLINK_callback },
{PROTO_RLINK, STR_RLINK, STR_SUBTYPE_RLINK, 4, OPTION_RFTUNE, 0, 0, SW_CC2500, RLINK_init, RLINK_callback },
#endif
#if defined(REALACC_NRF24L01_INO)
{PROTO_REALACC, STR_REALACC, NO_SUBTYPE, 0, OPTION_NONE, 0, 0, SW_NRF, REALACC_init, REALACC_callback },
@@ -475,7 +473,7 @@ const mm_protocol_definition multi_protocols[] = {
{PROTO_SCORPIO, STR_SCORPIO, NO_SUBTYPE, 0, OPTION_NONE, 0, 0, SW_CYRF, SCORPIO_init, SCORPIO_callback },
#endif
#if defined(SGF22_NRF24L01_INO)
{PROTO_SGF22, STR_SGF22, STR_SUBTYPE_SGF22, 4, OPTION_NONE, 0, 0, SW_NRF, SGF22_init, SGF22_callback },
{PROTO_SGF22, STR_SGF22, STR_SUBTYPE_SGF22, 3, OPTION_NONE, 0, 0, SW_NRF, SGF22_init, SGF22_callback },
#endif
#if defined(SHENQI_NRF24L01_INO)
{PROTO_SHENQI, STR_SHENQI, NO_SUBTYPE, 0, OPTION_NONE, 0, 0, SW_NRF, SHENQI_init, SHENQI_callback },
@@ -520,9 +518,7 @@ const mm_protocol_definition multi_protocols[] = {
#if defined(WL91X_CCNRF_INO)
{PROTO_WL91X, STR_WL91X, NO_SUBTYPE, 0, OPTION_NONE, 0, 0, SW_NRF, WL91X_init, WL91X_callback },
#endif
#if defined(WPL_NRF24L01_INO)
{PROTO_WPL, STR_WPL, NO_SUBTYPE, 0, OPTION_NONE, 0, 0, SW_NRF, WPL_init, WPL_callback },
#endif
#if defined(XERALL_NRF24L01_INO)
{PROTO_XERALL, STR_XERALL, NO_SUBTYPE, 0, OPTION_NONE, 0, 0, SW_NRF, XERALL_init, XERALL_callback },
#endif

View File

@@ -19,7 +19,7 @@
#define VERSION_MAJOR 1
#define VERSION_MINOR 3
#define VERSION_REVISION 4
#define VERSION_PATCH_LEVEL 58
#define VERSION_PATCH_LEVEL 50
#define MODE_SERIAL 0
@@ -134,7 +134,6 @@ enum PROTOCOLS
PROTO_KAMTOM = 104, // =>NRF24L01
PROTO_SHENQI2 = 105, // =>NRF24L01
PROTO_WL91X = 106, // =>CC2500 & NRF24L01
PROTO_WPL = 107, // =>NRF24L01
PROTO_NANORF = 126, // =>NRF24L01
PROTO_TEST = 127, // =>CC2500
@@ -418,11 +417,6 @@ enum ESKY
ESKY_STD = 0,
ESKY_ET4 = 1,
};
enum FQ777
{
FQ777 = 0,
XBM37 = 1,
};
enum FRSKY_RX
{
FRSKY_RX = 0,
@@ -473,7 +467,6 @@ enum RLINK
RLINK_AIR = 1,
RLINK_DUMBORC = 2,
RLINK_RC4G = 3,
RLINK_DUMBORC_P = 4,
};
enum MOULDKG
{
@@ -499,15 +492,12 @@ enum FX
FX9630 = 2,
FX_Q560 = 3,
FX_QF012 = 4,
FX_BM26 = 5,
FX_A570 = 6,
};
enum SGF22
{
SGF22_F22 = 0,
SGF22_F22S = 1,
SGF22_J20 = 2,
SGF22_CX10 = 3,
};
enum JIABAILE
{
@@ -585,7 +575,6 @@ enum MultiPacketTypes
MULTI_TELEMETRY_MLINK = 15,
MULTI_TELEMETRY_CONFIG = 16,
MULTI_TELEMETRY_PROTO = 17,
MULTI_TELEMETRY_RLINK = 18,
};
// Macros
@@ -1202,8 +1191,6 @@ Serial: 100000 Baud 8e2 _ xxxx xxxx p --
RLINK_SURFACE 0
RLINK_AIR 1
RLINK_DUMBORC 2
RLINK_RC4G 3
RLINK_DUMBORC_P 4
Power value => 0x80 0=High/1=Low
Stream[3] = option_protocol;
@@ -1231,7 +1218,6 @@ Serial: 100000 Baud 8e2 _ xxxx xxxx p --
FrSkyX and FrSkyX2: Stream[27..34] during normal operation unstuffed SPort data to be sent
HoTT: Stream[27] 1 byte for telemetry type
DSM: Stream[27..33] Forward Programming
RadioLink/DumboRC P: Stream[27..35] raw command payload, used to send failsafe and gyro settings
*/
/*
Multiprotocol telemetry/command definition for OpenTX and erskyTX
@@ -1383,8 +1369,4 @@ Serial: 100000 Baud 8e2 _ xxxx xxxx p --
data[n+3] = sub protocols text length, only sent if nbr_sub != 0
data[n+4..] = sub protocol names, only sent if nbr_sub != 0
Type 0x12 RadioLink/DumboRC P raw command payload
length: variable
data[0..] = raw command payload, used to send failsafe and gyro settings
*/

View File

@@ -265,11 +265,6 @@ uint8_t packet_in[TELEMETRY_BUFFER_SIZE];//telemetry receiving packets
uint8_t CONFIG_SerialRX_val[7];
bool CONFIG_SerialRX=false;
#endif
#ifdef RLINK_HUB_TELEMETRY
uint8_t RLINK_SerialRX_val[8];
uint8_t RLINK_SerialRX_len=0;
bool RLINK_SerialRX=false;
#endif
#endif // TELEMETRY
uint8_t multi_protocols_index=0xFF;
@@ -1582,15 +1577,6 @@ void update_serial_data()
CONFIG_SerialRX=true;
}
#endif
#ifdef RLINK_HUB_TELEMETRY
if(protocol==PROTO_RLINK && sub_protocol==RLINK_DUMBORC_P
&& rx_len>27 && rx_len<=27+sizeof(RLINK_SerialRX_val))
{//DumboRC P raw command payload from Lua/multiBuffer bridge
RLINK_SerialRX_len=rx_len-27;
memcpy(RLINK_SerialRX_val, (const void *)&rx_ok_buff[27], RLINK_SerialRX_len);
RLINK_SerialRX=true;
}
#endif
}
RX_DONOTUPDATE_off;

View File

@@ -37,7 +37,6 @@ enum {
uint32_t RLINK_rand1;
uint32_t RLINK_rand2;
uint32_t RLINK_pseudo;
static uint32_t __attribute__((unused)) RLINK_prng_next(uint32_t r)
{
@@ -94,79 +93,12 @@ static void __attribute__((unused)) RLINK_hop()
RLINK_shuffle_freqs(RLINK_compute_start_id(rx_tx_addr[0] + (rx_tx_addr[1] << 8)));
RLINK_shuffle_freqs(RLINK_compute_start_id(rx_tx_addr[2] + (rx_tx_addr[3] << 8)));
// replace one of the channel randomly
// replace one of the channel randomely
rf_ch_num=random(0xfefefefe)%0x11; // 0x00..0x10
if(inc==9) inc=6; // frequency exception
hopping_frequency[rf_ch_num]=12*16+inc;
}
static void __attribute__((unused)) RLINK_hop_RC4G()
{
// Find 2 unused channels
// first channel is a multiple of 3 between 00 and 5D
// second channel is a multiple of 3 between 63 and BD
CC2500_Strobe(CC2500_SIDLE);
CC2500_WriteReg(CC2500_17_MCSM1,0x3C);
CC2500_Strobe(CC2500_SFRX);
CC2500_SetTxRxMode(RX_EN);
CC2500_Strobe(CC2500_SRX);
delayMilliseconds(1); //wait for RX mode
uint16_t val;
uint8_t val_low = 0xFF;
hopping_frequency[0] = 0x00;
hopping_frequency[1] = 0x63;
for(uint8_t ch=0; ch<=0xBD; ch+=3)
{
if(ch==0x63)
val_low = 0xFF; //init for second block
if(ch==0x60)
continue; //skip channel
CC2500_WriteReg(CC2500_0A_CHANNR, ch); //switch channel
delayMicroseconds(370); //wait to read
val = 0;
for(uint8_t i=0;i<16;i++)
val += CC2500_ReadReg(CC2500_34_RSSI | CC2500_READ_BURST);
val >>= 4;
debug("C:%02X RSSI:%02X",ch,val);
if(val_low > val)
{
debug(" OK");
val_low = val;
hopping_frequency[ch<0x63?0:1]=ch; //save best channel
}
debugln("");
}
CC2500_WriteReg(CC2500_17_MCSM1,0x30);
CC2500_Strobe(CC2500_SIDLE);
CC2500_SetTxRxMode(TX_EN);
#ifdef RLINK_RC4G_FORCE_ID
hopping_frequency[0] = 0x03;
hopping_frequency[1] = 0x6F;
#endif
}
// calc next pseudo random value
static void __attribute__((unused)) RLINK_next_pseudo()
{
RLINK_pseudo = ((RLINK_pseudo * 0xAA) + 0x03) % 0x7673;
}
static void __attribute__((unused)) RLINK_set_next_channel()
{
CC2500_WriteReg(CC2500_0A_CHANNR, hopping_frequency[RLINK_pseudo & 0x0F]);
}
static uint8_t __attribute__((unused)) RLINK_checksum(const uint8_t *data, uint8_t payload_len, bool include_id=false)
{
uint8_t sum=0;
for(uint8_t i=0;i<payload_len;i++)
sum+=data[i];
if(include_id)
for(uint8_t i=0;i<RLINK_TX_ID_LEN;i++)
sum+=rx_tx_addr[i];
return sum;
}
static void __attribute__((unused)) RLINK_TXID_init()
{
#ifdef RLINK_RC4G_FORCE_ID
@@ -185,10 +117,52 @@ static void __attribute__((unused)) RLINK_TXID_init()
memcpy(rx_tx_addr,"\xFC\x11\x0D\x20",RLINK_TX_ID_LEN); //air T8FB
#endif
// channels order depend on ID
if(sub_protocol==RLINK_RC4G)
RLINK_hop_RC4G();
if(sub_protocol!=RLINK_RC4G)
RLINK_hop();
else
RLINK_hop();
{//RLINK_RC4G
// Find 2 unused channels
// first channel is a multiple of 3 between 00 and 5D
// second channel is a multiple of 3 between 63 and BD
CC2500_Strobe(CC2500_SIDLE);
CC2500_WriteReg(CC2500_17_MCSM1,0x3C);
CC2500_Strobe(CC2500_SFRX);
CC2500_SetTxRxMode(RX_EN);
CC2500_Strobe(CC2500_SRX);
delayMilliseconds(1); //wait for RX mode
uint16_t val;
uint8_t val_low = 0xFF;
hopping_frequency[0] = 0x00;
hopping_frequency[1] = 0x63;
for(uint8_t ch=0; ch<=0xBD; ch+=3)
{
if(ch==0x63)
val_low = 0xFF; //init for second block
if(ch==0x60)
continue; //skip channel
CC2500_WriteReg(CC2500_0A_CHANNR, ch); //switch channel
delayMicroseconds(370); //wait to read
val = 0;
for(uint8_t i=0;i<16;i++)
val += CC2500_ReadReg(CC2500_34_RSSI | CC2500_READ_BURST);
val >>= 4;
debug("C:%02X RSSI:%02X",ch,val);
if(val_low > val)
{
debug(" OK");
val_low = val;
hopping_frequency[ch<0x63?0:1]=ch; //save best channel
}
debugln("");
}
CC2500_WriteReg(CC2500_17_MCSM1,0x30);
CC2500_Strobe(CC2500_SIDLE);
CC2500_SetTxRxMode(TX_EN);
#ifdef RLINK_RC4G_FORCE_ID
hopping_frequency[0] = 0x03;
hopping_frequency[1] = 0x6F;
#endif
}
#ifdef RLINK_DEBUG
debug("ID:");
@@ -217,7 +191,7 @@ static void __attribute__((unused)) RLINK_rf_init()
for (uint8_t i = 0; i < 39; ++i)
CC2500_WriteReg(i, pgm_read_byte_near(&RLINK_init_values[i]));
if(sub_protocol == RLINK_DUMBORC || sub_protocol == RLINK_DUMBORC_P)
if(sub_protocol==RLINK_DUMBORC)
{
CC2500_WriteReg(4, 0xBA);
CC2500_WriteReg(5, 0xDC);
@@ -232,6 +206,7 @@ static void __attribute__((unused)) RLINK_rf_init()
static void __attribute__((unused)) RLINK_send_packet()
{
static uint32_t pseudo=0;
uint32_t bits = 0;
uint8_t bitsavailable = 0;
uint8_t idx = 6;
@@ -250,15 +225,14 @@ static void __attribute__((unused)) RLINK_send_packet()
{
case RLINK_SURFACE:
packet[1] |= 0x01;
//radiolink additional ID which is working only on a small set of RXs
//radiolink additionnal ID which is working only on a small set of RXs
//if(RX_num) packet[1] |= ((RX_num+2)<<4)+4; // RX number limited to 10 values, 0 is a wildcard
break;
case RLINK_AIR:
packet[1] |= 0x21; //air 0x21 on dump but it looks to support telemetry at least RSSI
break;
case RLINK_DUMBORC:
case RLINK_DUMBORC_P:
packet[1] |= 0x01; //always 0x00 on dump but does appear to support telemtry on newer transmitters
packet[1] = 0x00; //always 0x00 on dump
break;
}
@@ -284,16 +258,19 @@ static void __attribute__((unused)) RLINK_send_packet()
}
// hop
RLINK_next_pseudo();
RLINK_set_next_channel();
packet[28]= RLINK_pseudo;
packet[29]= RLINK_pseudo >> 8;
pseudo=((pseudo * 0xAA) + 0x03) % 0x7673; // calc next pseudo random value
CC2500_WriteReg(CC2500_0A_CHANNR, hopping_frequency[pseudo & 0x0F]);
packet[28]= pseudo;
packet[29]= pseudo >> 8;
packet[30]= 0x00; // unknown
packet[31]= 0x00; // unknown
packet[32]= rf_ch_num; // index of value changed in the RF table
// check
packet[33]=RLINK_checksum(&packet[1], RLINK_TX_PACKET_LEN-1);
uint8_t sum=0;
for(uint8_t i=1;i<33;i++)
sum+=packet[i];
packet[33]=sum;
// send packet
CC2500_WriteData(packet, RLINK_TX_PACKET_LEN+1);
@@ -303,7 +280,7 @@ static void __attribute__((unused)) RLINK_send_packet()
if(packet_count>5) packet_count=0;
#ifdef RLINK_DEBUG
debugln("C= 0x%02X",hopping_frequency[RLINK_pseudo & 0x0F]);
debugln("C= 0x%02X",hopping_frequency[pseudo & 0x0F]);
debug("P=");
for(uint8_t i=1;i<RLINK_TX_PACKET_LEN+1;i++)
debug(" 0x%02X",packet[i]);
@@ -311,78 +288,6 @@ static void __attribute__((unused)) RLINK_send_packet()
#endif
}
#ifdef RLINK_HUB_TELEMETRY
static bool __attribute__((unused)) RLINK_DUMBORC_send_command()
{
if(!RLINK_SerialRX || sub_protocol != RLINK_DUMBORC_P)
return false;
RLINK_SerialRX=false;
if(RLINK_SerialRX_len > sizeof(RLINK_SerialRX_val))
return false;
CC2500_Strobe(CC2500_SIDLE);
RLINK_next_pseudo();
RLINK_set_next_channel();
packet[0] = RLINK_SerialRX_len;
memcpy(&packet[1], RLINK_SerialRX_val, RLINK_SerialRX_len);
packet[2] = RLINK_pseudo;
packet[3] = RLINK_pseudo >> 8;
// special packages have id check embedded in checksum
packet[RLINK_SerialRX_len] = RLINK_checksum(&packet[1], RLINK_SerialRX_len - 1, true);
CC2500_WriteData(packet, RLINK_SerialRX_len + 1);
packet_count++;
if(packet_count>5) packet_count=0;
#ifdef RLINK_DEBUG
debugln("C= 0x%02X",hopping_frequency[RLINK_pseudo & 0x0F]);
debug("DumboRC P command=");
for(uint8_t i=1;i<packet[0]+1;i++)
debug(" 0x%02X",packet[i]);
debugln("");
#endif
return true;
}
#endif
// logic is rougly copied from ddf-350, which in itself seems to be based on cc2500 docs
static uint8_t __attribute__((unused)) RLINK_DUMBORC_tele_rssi_as_percent(uint8_t rssi)
{
if(rssi < 15)
rssi=15;
else if(rssi > 90)
rssi=90;
return ((90 - rssi) * 100) / 75;
}
static bool __attribute__((unused)) RLINK_DUMBORC_validate_telemetry_packet(const uint8_t *data)
{
const uint8_t declaredLen = data[0];
if(data[1] == 0x00)
{
// telemetry package follows base radiolink procotol with slightly less rules
if(declaredLen != RLINK_RX_PACKET_LEN || memcmp(&data[2], rx_tx_addr, RLINK_TX_ID_LEN) != 0)
return false;
// telemetry packages do not have id check embeeded in checksum, just like base RadioLink
return data[RLINK_RX_PACKET_LEN] == RLINK_checksum(&data[1], RLINK_RX_PACKET_LEN - 1);
}
if(sub_protocol != RLINK_DUMBORC_P)
return false;
// special packages have id check embedded in checksum
return data[declaredLen] == RLINK_checksum(&data[1], declaredLen - 1, true);
}
#ifndef MULTI_AIR
static void __attribute__((unused)) RLINK_RC4G_send_packet()
{
@@ -406,7 +311,7 @@ static void __attribute__((unused)) RLINK_RC4G_send_packet()
packet[5+i*2] = val;
packet[8+i ] |= (val>>4) & 0xF0;
}
//special channel which is linked to gyro on the original TX but allocating it on CH5 here
//special channel which is linked to gyro on the orginal TX but allocating it on CH5 here
packet[10] = convert_channel_16b_limit(CH5,0,100);
//failsafe
for(uint8_t i=0;i<4;i++)
@@ -427,15 +332,10 @@ static void __attribute__((unused)) RLINK_RC4G_send_packet()
}
#endif
#if defined RLINK_HUB_TELEMETRY
uint16_t RLINK_timing_last_rfsend = 0;
#endif
#define RLINK_TIMING_PROTO 20000-100 // -100 for compatibility with R8EF
#define RLINK_TIMING_RFSEND 10500
#define RLINK_TIMING_CHECK 2000
#define RLINK_RC4G_TIMING_PROTO 14460
#define RLINK_DUMBORC_COMMAND_RFSEND 5000
uint16_t RLINK_callback()
{
if(sub_protocol == RLINK_RC4G)
@@ -460,92 +360,47 @@ uint16_t RLINK_callback()
#endif
CC2500_SetPower();
CC2500_SetFreqOffset();
RLINK_send_packet();
#if not defined RLINK_HUB_TELEMETRY
RLINK_send_packet();
return RLINK_TIMING_PROTO; // RLINK_DATA
return RLINK_TIMING_PROTO;
#else
if(RLINK_DUMBORC_send_command())
{
phase++; // RX1
RLINK_timing_last_rfsend = RLINK_DUMBORC_COMMAND_RFSEND;
return RLINK_timing_last_rfsend;
}
RLINK_send_packet();
if(!(packet[1]&0x02))
return RLINK_TIMING_PROTO; // Normal packet -> RLINK_DATA
// Telemetry packet
return RLINK_TIMING_PROTO; //Normal packet
//Telemetry packet
phase++; // RX1
RLINK_timing_last_rfsend = RLINK_TIMING_RFSEND;
return RLINK_timing_last_rfsend;
return RLINK_TIMING_RFSEND;
case RLINK_RX1:
CC2500_Strobe(CC2500_SIDLE);
CC2500_Strobe(CC2500_SFRX);
CC2500_SetTxRxMode(RX_EN);
CC2500_Strobe(CC2500_SRX);
phase++; // RX2
return RLINK_TIMING_PROTO-RLINK_timing_last_rfsend-RLINK_TIMING_CHECK;
return RLINK_TIMING_PROTO-RLINK_TIMING_RFSEND-RLINK_TIMING_CHECK;
case RLINK_RX2:
len = CC2500_ReadReg(CC2500_3B_RXBYTES | CC2500_READ_BURST) & 0x7F;
const bool dumborc_family = sub_protocol == RLINK_DUMBORC || sub_protocol == RLINK_DUMBORC_P;
//Telemetry frame is 15 bytes + 1 byte for length + 2 bytes for RSSI&LQI&CRC
const bool rlink_telem_len = !dumborc_family && len == RLINK_RX_PACKET_LEN + 1 + 2;
// length byte + type byte + checksum byte + RSSI/LQI/CRC
const bool dumborc_len = dumborc_family && len >= 5 && len <= sizeof(packet_in);
if (rlink_telem_len || dumborc_len)
if (len == RLINK_RX_PACKET_LEN + 1 + 2) //Telemetry frame is 15 bytes + 1 byte for length + 2 bytes for RSSI&LQI&CRC
{
#ifdef RLINK_DEBUG_TELEM
debug("Telem:");
#endif
CC2500_ReadData(packet_in, len);
if(len >= 3 && packet_in[0] == len - 3 && (packet_in[len-1] & 0x80))
{//Telemetry received with correct length and CC2500 CRC
if(packet_in[0]==RLINK_RX_PACKET_LEN && (packet_in[len-1] & 0x80) && memcmp(&packet[2],rx_tx_addr,RLINK_TX_ID_LEN)==0 && packet_in[6]==packet[1])
{//Correct telemetry received: length, CRC, ID and type
#ifdef RLINK_DEBUG_TELEM
for(uint8_t i=0;i<len;i++)
debug(" %02X",packet_in[i]);
#endif
bool valid_telem=false;
if(dumborc_family)
{
if(RLINK_DUMBORC_validate_telemetry_packet(packet_in))
{
if(packet_in[1] == 0x00)
{
uint8_t tele_rssi = RLINK_DUMBORC_tele_rssi_as_percent(packet_in[7]);
uint16_t ext_v = packet_in[9] | (((uint16_t)packet_in[10]) << 8);
uint16_t direct_rssi = packet_in[11] | (((uint16_t)packet_in[12]) << 8);
direct_rssi = direct_rssi > 100 ? 100 : direct_rssi;
RX_RSSI = direct_rssi ? direct_rssi : tele_rssi;
v_lipo1 = 0; //Has no RX batt
v_lipo2 = ext_v > 255 ? 255 : ext_v; //Batt in same position as base radiolink
valid_telem=true;
}
else if(sub_protocol == RLINK_DUMBORC_P)
{
telemetry_link=2; // Raw DumboRC P packet to Lua/multiBuffer handling.
pps_counter++;
}
}
}
else if(packet_in[0] == RLINK_RX_PACKET_LEN && memcmp(&packet[2],rx_tx_addr,RLINK_TX_ID_LEN)==0 && packet_in[6]==packet[1])
{
RX_RSSI=packet_in[7]&0x7F; //Should be packet_in[7]-256 but since it's an uint8_t...
v_lipo1=packet_in[8]<<1; //RX Batt
v_lipo2=packet_in[9]; //Batt
valid_telem=true;
}
if(valid_telem)
{
TX_RSSI = packet_in[len-2];
if(TX_RSSI >=128)
TX_RSSI -= 128;
else
TX_RSSI += 128;
telemetry_link=1; //Send telemetry out
pps_counter++;
packet_count=0;
}
TX_RSSI = packet_in[len-2];
if(TX_RSSI >=128)
TX_RSSI -= 128;
else
TX_RSSI += 128;
RX_RSSI=packet_in[7]&0x7F; //Should be packet_in[7]-256 but since it's an uint8_t...
v_lipo1=packet_in[8]<<1; //RX Batt
v_lipo2=packet_in[9]; //Batt
telemetry_link=1; //Send telemetry out
pps_counter++;
packet_count=0;
}
#ifdef RLINK_DEBUG_TELEM
debugln("");

View File

@@ -19,16 +19,14 @@ Multiprotocol is distributed in the hope that it will be useful,
#include "iface_xn297.h"
//#define FORCE_SGF22_ORIGINAL_ID
#define FORCE_SGF22_CX10_ORIGINAL_ID
#define SGF22_PACKET_PERIOD 11950 //10240
#define SGF22_BIND_RF_CHANNEL 78
#define SGF22_PAYLOAD_SIZE 12
#define SGF22_BIND_COUNT 50
#define SGF22_RF_NUM_CHANNELS 4
#define SGF22_BIND_RF_CHANNEL 78
#define SGF22_F22S_BIND_RF_CHANNEL 10
#define SGF22_J20_BIND_RF_CHANNEL 28
#define SGF22_CX10_BIND_RF_CHANNEL 48
//packet[8]
#define SGF22_FLAG_3D 0x00
@@ -81,43 +79,26 @@ static void __attribute__((unused)) SGF22_send_packet()
packet_sent = 0;
//packet
packet[0] = 0x1B;
if (sub_protocol != SGF22_CX10)
{//SGF22_F22,SGF22_F22S,SGF22_J20
packet[8] = SGF22_FLAG_3D // CH5 -100%, F22 & F22S - 3D mode, J20 - Gyro off
| GET_FLAG(CH6_SW, SGF22_FLAG_ROLL) // roll
| GET_FLAG(CH7_SW, SGF22_FLAG_LIGHT) // push up throttle trim for light in the stock TX
| GET_FLAG(CH9_SW, SGF22_FLAG_VIDEO) // push down throttle trim for video in the stock TX
| GET_FLAG(CH11_SW, SGF22_FX922_FLAG_BALANCE)
| GET_FLAG(CH12_SW, SGF22_FX922_FLAG_BALANCEHIGH);
if(Channel_data[CH5] > CHANNEL_MAX_COMMAND)
packet[8] |= SGF22_FLAG_VERTICAL; // CH5 100%, vertical mode (torque)
else if(Channel_data[CH5] > CHANNEL_MIN_COMMAND )
packet[8] = SGF22_FLAG_3D // CH5 -100%, F22 & F22S - 3D mode, J20 - Gyro off
| GET_FLAG(CH6_SW, SGF22_FLAG_ROLL) // roll
| GET_FLAG(CH7_SW, SGF22_FLAG_LIGHT) // push up throttle trim for light in the stock TX
| GET_FLAG(CH9_SW, SGF22_FLAG_VIDEO) // push down throttle trim for video in the stock TX
| GET_FLAG(CH11_SW, SGF22_FX922_FLAG_BALANCE)
| GET_FLAG(CH12_SW, SGF22_FX922_FLAG_BALANCEHIGH);
if(Channel_data[CH5] > CHANNEL_MAX_COMMAND)
packet[8] |= SGF22_FLAG_VERTICAL; // CH5 100%, vertical mode (torque)
else if(Channel_data[CH5] > CHANNEL_MIN_COMMAND )
packet[8] |= ( sub_protocol == SGF22_J20 ? SGF22_J20_FLAG_HORIZONTAL : SGF22_FLAG_6G ); // CH5 0%, F22 & F22S - 6G mode, J20 - Horizontal mode
}
else //SGF22_CX10 114548
{
if(CH6_SW)
flags = 0x06; // high rate
else
if(Channel_data[CH6] < CHANNEL_MIN_COMMAND)
flags = 0x04; // low rate
else
flags = 0x05; // mid rate
packet[8] = flags
| GET_FLAG(CH5_SW, 0x08); // flip
}
packet[9] = GET_FLAG(CH8_SW, SGF22_FLAG_PHOTO) // F22: photo, press in throttle trim in the stock TX, J20: invert flight
packet[9] = GET_FLAG(CH8_SW, SGF22_FLAG_PHOTO) // F22: photo, press in throttle trim in the stock TX, J20: invert flight
| GET_FLAG(CH10_SW, ( sub_protocol == SGF22_J20 ? SGF22_J20_FLAG_FIXHEIGHT : SGF22_FLAG_TRIMRESET )) ; // F22: Both sticks down inwards in the stock TX, J20: Altitude hold
packet[10] = 0x42; // no fine tune
packet[11] = 0x10; // no fine tune
packet[10] = 0x42; // no fine tune
packet[11] = 0x10; // no fine tune
}
if(sub_protocol == SGF22_F22S)
packet[0] += 6;
else if (sub_protocol == SGF22_J20)
packet[0] += 3;
else if (sub_protocol == SGF22_CX10)
packet[0] += 0x6A;
packet[1] = packet_count; // sequence
packet[1] = packet_count; // sequence
packet[2] = rx_tx_addr[2];
packet[3] = rx_tx_addr[3];
packet[4] = convert_channel_8b(THROTTLE);
@@ -127,10 +108,7 @@ static void __attribute__((unused)) SGF22_send_packet()
XN297_SetPower();
XN297_SetTxRxMode(TX_EN);
if (sub_protocol != SGF22_CX10)
XN297_WriteEnhancedPayload(packet, SGF22_PAYLOAD_SIZE,0);
else
XN297_WritePayload(packet, SGF22_PAYLOAD_SIZE);
XN297_WriteEnhancedPayload(packet, SGF22_PAYLOAD_SIZE,0);
#if 0
debug_time("");
for(uint8_t i=0; i<SGF22_PAYLOAD_SIZE; i++)
@@ -154,7 +132,7 @@ static void __attribute__((unused)) SGF22_initialize_txid()
{ 0x18, 0x37, 0x27, 0x47 } };
memcpy(hopping_frequency, &hop[val], SGF22_RF_NUM_CHANNELS);
/*//Same code size...
/*//Same code sze...
hopping_frequency[0] = 0x0C + 3 * val;
hopping_frequency[1] = hopping_frequency[0] + 0x1E;
if(val > 1) hopping_frequency[1]++;
@@ -167,23 +145,6 @@ static void __attribute__((unused)) SGF22_initialize_txid()
rx_tx_addr[3] = 0x61; // TX2:51 TX3:0C
memcpy(hopping_frequency,"\x15\x34\x24\x44", SGF22_RF_NUM_CHANNELS); //Original dump=>21=0x15,52=0x34,36=0x24,68=0x44
#endif
#ifdef FORCE_SGF22_CX10_ORIGINAL_ID
if(sub_protocol == SGF22_CX10)
{
if(rx_tx_addr[3] & 1)
{
rx_tx_addr[2] = 0x4C;
rx_tx_addr[3] = 0xD7;
memcpy(hopping_frequency, "\x37\x42\x47\x3c", SGF22_RF_NUM_CHANNELS);
}
else
{
rx_tx_addr[2] = 0x50;
rx_tx_addr[3] = 0xE1;
memcpy(hopping_frequency, "\x3b\x4b\x46\x41", SGF22_RF_NUM_CHANNELS);
}
}
#endif
#if 0
debug("ID: %02X %02X, C: ",rx_tx_addr[2],rx_tx_addr[3]);
for(uint8_t i=0; i<SGF22_RF_NUM_CHANNELS; i++)
@@ -200,7 +161,7 @@ static void __attribute__((unused)) SGF22_RF_init()
XN297_SetRXAddr((uint8_t*)"\xC7\x95\x3C\xBB\xA5", SGF22_PAYLOAD_SIZE);
#endif
const uint8_t bind_chan[] = {SGF22_BIND_RF_CHANNEL, SGF22_F22S_BIND_RF_CHANNEL, SGF22_J20_BIND_RF_CHANNEL, SGF22_CX10_BIND_RF_CHANNEL};
const uint8_t bind_chan[] = {SGF22_BIND_RF_CHANNEL, SGF22_F22S_BIND_RF_CHANNEL, SGF22_J20_BIND_RF_CHANNEL};
XN297_RFChannel(bind_chan[sub_protocol]); // Set bind channel
}
@@ -208,7 +169,6 @@ uint16_t SGF22_callback()
{
#ifdef SGF22_HUB_TELEMETRY
bool rx = false;
static uint8_t telem_count = 0;
#endif
switch(phase)
@@ -235,8 +195,6 @@ uint16_t SGF22_callback()
{//packets: 00 0B 00 -> 00 0B 01
telemetry_link = 1;
v_lipo1 = packet_in[2] ? 0 : 255; //2.9V for 1S, 7.0V for 2S
telemetry_lost = 0;
telem_count = 0;
}
#if 0
debug("L %d ",p_len);
@@ -246,20 +204,6 @@ uint16_t SGF22_callback()
debugln("");
#endif
}
if(telem_count > 4*63) // Around 3.5sec with no telemetry
telemetry_lost = 1;
else
{
telem_count++;
if(!telemetry_lost && (telem_count & 0x3F) == 0)
{// Should have received a telem packet but... Send telem to the radio to keep it alive
telemetry_link = 1;
#if 0
debugln("Miss");
#endif
}
}
#endif
phase++;
break;
@@ -301,7 +245,6 @@ void SGF22_init()
phase = SGF22_DATA1;
#ifdef SGF22_HUB_TELEMETRY
RX_RSSI = 100; // Dummy value
telemetry_lost = 1;
#endif
}

View File

@@ -404,7 +404,7 @@ RX: 0x02 0x4A 0xA3 0x2D 0x1A 0x49 0xFE 0x06 0x00 0x00 0x02 0x01 0x06 0x06 0x00 0
TX: 0x02 0x65 0xE2 0x5E 0x55 0x4D 0xFE 0xEE 0x00 0x00 0x01 0x01 0x06 0x05 0x00 0x00
Notes:
- RX cyrfmfg_id is 0x4A,0xA3,0x2D,0x1A,0x49,0xFE and TX cyrfmfg_id is 0x65,0xE2,0x5E,0x55,0x4D,0xFE
- P[7] = RX SOP code index, changes from 0x06 to 0xEE but not needed to complete the bind -> doesn't care??
- P[7] changes from 0x06 to 0xEE but not needed to complete the bind -> doesn't care??
- P[8] RF channel - 1 (on packets type 0x03)
- P[9] 0x00 unchanged??
- P[10] needs to be set to 0x01 to complete the bind -> normal packet P[0]??
@@ -474,123 +474,4 @@ Traxxas TQ 1st generation
-------------------------
https://github.com/pascallanger/DIY-Multiprotocol-TX-Module/issues/967#issuecomment-2079038576
*/
/*
Traxxas TQi
-------------------------
Unknown 3 first packets:
CHANNEL: 0x2B
SOP_CODE: 0x3C 0x37 0xCC 0x91 0xE2 0xF8 0xCC 0x91
CRC_SEED_LSB: 0x5A
CRC_SEED_MSB: 0x5A
RX: 0xA0 0x1F 0x60 0x58 0x34 0x44 0x1C 0x11 0xA5 0x72 0x8D 0x9D 0xEA 0x49 0x2B 0xE2
RX: 0xD3 0x53 0xD4 0x45 0x1B 0x6F 0x75 0x42 0xEF 0x8A 0xD2 0x24 0x8E 0xF0 0x05 0x6C
RX: 0xAA 0xD7 0xD7 0x43 0x0F 0x2F 0x02 0x8F 0x06 0x54 0x3A 0x35 0xF5 0xCF 0x0F 0x82
Packets 0x02: Bind learn TX/RX addresses same as TQ 2nd:
CHANNEL: 0x2B
SOP_CODE: 0x3C 0x37 0xCC 0x91 0xE2 0xF8 0xCC 0x91
CRC_SEED_LSB: 0x5A
CRC_SEED_MSB: 0x5A
RX: 0x02 0x5B 0xE9 0x7E 0x14 0xF1 0xFE 0x0D 0x00 0x00 0x02 0x02 0x00 0x26 0x00 0x00
TX: 0x02 0xE0 0xAC 0x7F 0x14 0xF1 0xFE 0x00 0x00 0x00 0x01 0x02 0x00 0x51 0x00 0x00
Notes:
- P[1..6] = RX cyrfmfg_id is 0x5B,0xE9,0x7E,0x14,0xF1,0xFE and TX cyrfmfg_id is 0xE0,0xAC,0x7F,0x14,0xF1,0xFE
- P[7] RX SOP code index, changes from 0x0D to 0x00 (but not needed to complete the bind -> doesn't care??)
- P[8] RF channel - 1 (on packets type 0x03)
- P[9] 0x00 unchanged??
- P[10] needs to be set to 0x01 to complete the bind -> normal packet P[0]??
- P[11] unchanged ?? (-> no bind if set to 0x00 or 0x81)
- P[12] unchanged ?? (-> no bind if set to 0x05 or 0x86)
- P[13] changes from 0x26 to 0x51 (but not needed to complete the bind -> doesn't care??)
- P[14..15]=0x00 unchanged??
Next steps:
Packets 0x08: ???
TX: 0x08 0x00 0x03 0x14 0xFD 0x3E 0x28 0xB9 0xCA 0x48 0x76 0x4E 0x00 0x51 0x00 0x00
TX: 0x08 0x00 0x02 0x14 0xFD 0x3E 0x28 0xB9 0xCA 0x48 0x76 0x4E 0x00 0x51 0x00 0x00
TX: 0x08 0x00 0x01 0x14 0xFD 0x3E 0x28 0xB9 0xCA 0x48 0x76 0x4E 0x00 0x51 0x00 0x00
RX: 0x08 0x00 0x03 0x14 0xFD 0x24 0x20 0xB8 0xCA 0x48 0x76 0x4E 0x00 0x26 0x00 0x00
RX: 0x08 0x00 0x01 0x14 0xFD 0x24 0x20 0xB8 0xCA 0x48 0x76 0x4E 0x00 0x26 0x00 0x00
P[1] index
P[2] sequence number
Packets 0x09: ???
TX: 0x09 0x00 0x03 0xEE 0x12 0x49 0x57 0x1F 0x4B 0x60 0x6B 0x4D 0x14 0xEF 0x69 0xC4
TX: 0x09 0x00 0x02 0xEE 0x12 0x49 0x57 0x1F 0x4B 0x60 0x6B 0x4D 0x14 0xEF 0x69 0xC4
TX: 0x09 0x00 0x01 0xEE 0x12 0x49 0x57 0x1F 0x4B 0x60 0x6B 0x4D 0x14 0xEF 0x69 0xC4
TX: 0x09 0x01 0x03 0xB2 0x63 0x43 0x25 0x22 0x4D 0xA1 0x15 0xFE 0xBA 0x7D 0x67 0x3E
TX: 0x09 0x01 0x02 0xB2 0x63 0x43 0x25 0x22 0x4D 0xA1 0x15 0xFE 0xBA 0x7D 0x67 0x3E
TX: 0x09 0x01 0x01 0xB2 0x63 0x43 0x25 0x22 0x4D 0xA1 0x15 0xFE 0xBA 0x7D 0x67 0x3E
TX: 0x09 0x02 0x03 0xCB 0xBE 0xA6 0xD1 0xCD 0x23 0xA1 0x15 0xFE 0xBA 0x7D 0x67 0x3E
TX: 0x09 0x02 0x02 0xCB 0xBE 0xA6 0xD1 0xCD 0x23 0xA1 0x15 0xFE 0xBA 0x7D 0x67 0x3E
TX: 0x09 0x02 0x01 0xCB 0xBE 0xA6 0xD1 0xCD 0x23 0xA1 0x15 0xFE 0xBA 0x7D 0x67 0x3E
RX: 0x09 0x00 0x03 0x90 0x24 0x93 0x08 0x41 0xC7 0x7F 0x59 0xB4 0xE3 0x25 0x77 0xB5
RX: 0x09 0x00 0x01 0x90 0x24 0x93 0x08 0x41 0xC7 0x7F 0x59 0xB4 0xE3 0x25 0x77 0xB5
RX: 0x09 0x01 0x02 0x88 0xFA 0x4D 0xFB 0x33 0xD4 0xFE 0x5F 0x1C 0xA9 0x0B 0x7A 0xE6
RX: 0x09 0x02 0x03 0x86 0xAF 0xD0 0x91 0xF6 0xDD 0xFE 0x5F 0x1C 0xA9 0x0B 0x7A 0xE6
RX: 0x09 0x02 0x01 0x86 0xAF 0xD0 0x91 0xF6 0xDD 0xFE 0x5F 0x1C 0xA9 0x0B 0x7A 0xE6
P[1] index
P[2] sequence number
Switch to normal mode:
SOP_CODE: 0xD2 0x8F 0xB1 0x2A 0xEF 0x64 0xB0 0x2A
CRC_SEED_LSB: 0x85
CRC_SEED_MSB: 0xC3
CHANNEL: 0x05
TX: 0x01 0x00 0x02 0xF5 0x02 0x9E 0x00 0x00 0x00 0x00 0x00 0x00 0x02 0x99 0x67 0x3E
Normal content except P[14]&P[15] = 0x67&0x3E from previous packet sent
SOP_CODE: 0x97 0xE5 0x14 0x72 0x7F 0x1A 0x14 0x72
CRC_SEED_LSB: 0xA5
CRC_SEED_MSB: 0xA5
CHANNEL: 0x22
RX: 0x04 0x5B 0xE9 0x7E 0x14 0xF1 0xFE 0x0D 0xDD 0xFE 0x02 0x02 0x00 0x26 0x7A 0xE6
RX packets 0x04: RX identity ?
P[1..6] = RX cyrfmfg_id 0x5B,0xE9,0x7E,0x14,0xF1,0xFE
P[7] = SOP index
P[8] = unknown
P[9] = unknown
P[10] = same value as bind 0x02
P[11] = same value as bind 0x02
P[12] = same value as bind 0x00
P[13] = same value as bind 0x26
P[14] = unknown
P[15] = unknown
SOP_CODE: 0xD2 0x8F 0xB1 0x2A 0xEF 0x64 0xB0 0x2A
CRC_SEED_LSB: 0x85
CRC_SEED_MSB: 0xC3
CHANNEL: 0x05
TX: 0x14 0x00 0x03 0xF5 0x02 0x9E 0x00 0x00 0x00 0x00 0x00 0x00 0x02 0x99 0x67 0x3E
TX: 0x14 0x00 0x02 0xF5 0x02 0x9E 0x00 0x00 0x00 0x00 0x00 0x00 0x02 0x99 0x67 0x3E
TX: 0x14 0x00 0x01 0xF5 0x02 0x9E 0x00 0x00 0x00 0x00 0x00 0x00 0x02 0x99 0x67 0x3E
RX: 0x14 0x00 0x03 0x22 0xEC 0x42 0x9B 0xD7 0x99 0x3B 0xBB 0x85 0x17 0x41 0x67 0xA0
RX: 0x14 0x00 0x01 0x22 0xEC 0x42 0x9B 0xD7 0x99 0x3B 0xBB 0x85 0x17 0x41 0x67 0xA0
RX: 0x14 0x01 0x02 0x22 0xEF 0x42 0x9C 0xCA 0xFB 0x39 0xBB 0x85 0x17 0x41 0x67 0xA0
TX packets 0x14 same as packets 0x01 with a sequence number on P[2]
RX packets 0x14 unknown content
Packets 0x01 & 0x07: normal and telemetry request/answer
TX: 0x01 0x00 0x02 0xF5 0x02 0x9E 0x00 0x00 0x00 0x00 0x00 0x00 0x02 0x99 0x00 0x00
TX: 0x07 0x00 0x02 0xF5 0x02 0x9E 0x00 0x00 0x00 0x00 0x00 0x00 0x02 0x99 0x00 0x00
RX: 0x07 0x01 0x00 0x00 0x00 0x00 0x00 0x00 0xFB 0x00 0x00 0x85 0x17 0x41 0x67 0xA0
TX: 0x01 0x00 0x02 0xF5 0x02 0x9E 0x00 0x00 0x00 0x00 0x00 0x00 0x02 0x99 0x00 0x00
TX: 0x07 0x00 0x02 0xF5 0x02 0x9E 0x00 0x00 0x00 0x00 0x00 0x00 0x02 0x99 0x00 0x00
RX: 0x07 0x01 0x00 0x00 0x00 0x11 0x49 0xC8 0xFB 0x00 0x00 0x85 0x17 0x41 0x67 0xA0
TX: 0x01 0x00 0x02 0xF5 0x02 0x9E 0x00 0x00 0x00 0x00 0x00 0x00 0x02 0x99 0x00 0x00
TX: 0x07 0x00 0x02 0xF5 0x02 0x9E 0x00 0x00 0x00 0x00 0x00 0x00 0x02 0x99 0x00 0x00
RX: 0x07 0x01 0x00 0x00 0x00 0x12 0xDC 0x20 0xFB 0x00 0x00 0x85 0x17 0x41 0x67 0xA0
TX packets 0x07: request for telemetry
RX packets 0x07: unknown
CRC calc same as TQ 2nd:
TX ID: 0xE0,0xAC,0x7F,0x14,0xF1,0xFE
RX ID: 0x5B,0xE9,0x7E,0x14,0xF1,0xFE CRC 0x85 0xC3 => CRC: E0-5B=85 AC-E9=C3
SOP index same as TQ 2nd:
SOP index=0x0D, SOP code= 0xD2, 0x8F, 0xB1, 0x2A, 0xEF, 0x64, 0xB0, 0x2A
*/
#endif

View File

@@ -315,15 +315,6 @@ static void multi_send_status()
}
#endif
#ifdef RLINK_HUB_TELEMETRY
void RLINK_raw_frame()
{
multi_send_header(MULTI_TELEMETRY_RLINK, packet_in[0]);
for (uint8_t i = 1; i <= packet_in[0]; i++) // raw DumboRC reply payload
Serial_write(packet_in[i]);
}
#endif
static void multi_send_frskyhub()
{
multi_send_header(MULTI_TELEMETRY_HUB, 9);
@@ -896,7 +887,7 @@ void TelemetryUpdate()
t += TXBUFFER_SIZE - h ;
else
t -= h ;
if ( t < 48 ) //32 )
if ( t < 32 )
{
debugln("TEL_BUF_FULL %d",t);
return ;
@@ -1001,14 +992,6 @@ void TelemetryUpdate()
return;
}
#endif
#if defined RLINK_HUB_TELEMETRY
if(telemetry_link == 2 && protocol == PROTO_RLINK)
{
RLINK_raw_frame();
telemetry_link=0;
return;
}
#endif
#if defined SCANNER_TELEMETRY
if (telemetry_link && protocol == PROTO_SCANNER)
{

View File

@@ -244,7 +244,7 @@ uint16_t V761_callback()
else
{
packet_count++;
if(!telemetry_lost && !rx && (packet_count & 0x3F) == 0)
if(!telemetry_lost && !rx && (packet_count%64) == 0)
{// Should have received a telem packet but... Send telem to the radio to keep it alive
telemetry_link = 1;
#ifdef V761_TELEM_DEBUG

View File

@@ -341,7 +341,6 @@
#undef SYMAX_NRF24L01_INO
#undef V2X2_NRF24L01_INO
#undef V761_NRF24L01_INO
#undef WPL_NRF24L01_INO
#undef XERALL_NRF24L01_INO
#undef YD717_NRF24L01_INO
#undef YUXIANG_NRF24L01_INO
@@ -400,7 +399,6 @@
#undef UDIRC_CCNRF_INO
#undef KAMTOM_NRF24L01_INO
#undef WL91X_CCNRF_INO
#undef WPL_NRF24L01_INO
//Save flash space...
#undef CABELL_NRF24L01_INO
#undef REDPINE_CC2500_INO

View File

@@ -1,158 +0,0 @@
/*
This project is free software: you can redistribute it and/or modify
it under the terms of the GNU General Public License as published by
the Free Software Foundation, either version 3 of the License, or
(at your option) any later version.
Multiprotocol is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU General Public License for more details.
You should have received a copy of the GNU General Public License
along with Multiprotocol. If not, see <http://www.gnu.org/licenses/>.
*/
// Compatible with WPL "Basic" TX models D12, D12KM, D22, D32, D42, D14
#if defined(WPL_NRF24L01_INO)
#include "iface_xn297.h"
#define FORCE_WPL_ORIGINAL_ID
#define WPL_PACKET_PERIOD 9875
#define WPL_RF_NUM_CHANNELS 4
#define WPL_PAYLOAD_SIZE 16
#define WPL_BIND_COUNT 303 //3sec
static void __attribute__((unused)) WPL_send_packet()
{
#if 0
debug("no:%d, rf:%d, ",hopping_frequency_no + (IS_BIND_IN_PROGRESS?0:4),hopping_frequency[hopping_frequency_no + (IS_BIND_IN_PROGRESS?0:4)]);
#endif
XN297_Hopping(hopping_frequency_no + (IS_BIND_IN_PROGRESS?0:4) );
hopping_frequency_no++;
hopping_frequency_no &= WPL_RF_NUM_CHANNELS-1; // 4 RF channels
memset(&packet[8],0,7);
packet[0] = 0x94; //??
packet[1] = 0x16; //??
packet[2] = 0xCC; //??
if(IS_BIND_IN_PROGRESS)
{
memcpy(&packet[3],rx_tx_addr,5);
packet[9] = 0x08; // ?? Not bound + Headlights on
}
else
{
packet[3 ] = convert_channel_s8b(CH1); // Throttle
packet[4 ] = convert_channel_s8b(CH2); // Steering
packet[5 ] = convert_channel_16b_limit(CH3,0x22,0x5E); // Steering trim
packet[6 ] = rx_tx_addr[3]; // 0x32??
packet[7 ] = convert_channel_s8b(CH4); // Aux
packet[9 ] = 0x80 // ?? Bound
| GET_FLAG(CH5_SW, 0x08) // Headlights 100%=on
| GET_FLAG(CH6_SW, 0x04) // Throttle rate 100%=high
| GET_FLAG(CH7_SW, 0x02); // Steering rate 100%=high
}
uint8_t sum = 0x66;
for(uint8_t i=0;i<WPL_PAYLOAD_SIZE-1;i++)
sum += packet[i];
packet[WPL_PAYLOAD_SIZE-1] = sum;
// Send
XN297_SetPower();
XN297_SetTxRxMode(TX_EN);
XN297_WritePayload(packet, WPL_PAYLOAD_SIZE);
#if 0
for(uint8_t i=0; i<WPL_PAYLOAD_SIZE; i++)
debug(" %02X",packet[i]);
debugln("");
#endif
}
static void __attribute__((unused)) WPL_RF_init()
{
XN297_Configure(XN297_CRCEN, XN297_SCRAMBLED, XN297_1M);
XN297_SetTXAddr((uint8_t*)"\x69\xA5\x37\x4D\x8B", 5);
XN297_HoppingCalib(WPL_RF_NUM_CHANNELS*2); // Calibrate bind and normal channels
}
static void __attribute__((unused)) WPL_initialize_txid()
{
//Bind frequencies
memcpy(hopping_frequency ,"\x17\x25\x46\x36", WPL_RF_NUM_CHANNELS); //23=17, 37=25, 70=46, 54=36
#ifdef FORCE_WPL_ORIGINAL_ID
//Original ID
memcpy(rx_tx_addr,"\x96\x2A\xA9\x32\xB4",5);
//Normal frequencies
memcpy(hopping_frequency+4,"\x0C\x2A\x3D\x1D", WPL_RF_NUM_CHANNELS); //12=0C, 42=2A, 61=3D, 29=1D
#endif
}
uint16_t WPL_callback()
{
#ifdef MULTI_SYNC
telemetry_set_input_sync(WPL_PACKET_PERIOD);
#endif
if(bind_counter)
if(--bind_counter==0)
{
BIND_DONE;
XN297_SetTXAddr(rx_tx_addr, 5);
}
WPL_send_packet();
return WPL_PACKET_PERIOD;
}
void WPL_init()
{
BIND_IN_PROGRESS; // autobind protocol
WPL_initialize_txid();
WPL_RF_init();
hopping_frequency_no = 0;
bind_counter=WPL_BIND_COUNT;
}
#endif
/* https://github.com/pascallanger/DIY-Multiprotocol-TX-Module/issues/1120
Bind packet
-----------
XN297 1Mb Scrambled
Bind address: 69 A5 37 4D 8B
RF channels: 23, 37, 70, 54
Timing: 9875µs
Payload 16 bytes: 94 16 CC 96 2A A9 32 B4 00 08 00 00 00 00 00 33
P[0] = 94 ??
P[1] = 16 ??
P[2] = CC ??
P[3..7] = Normal address
P[8] = 00 ??
P[9] = 08 ?? not bound?, Throttle and Steering rate low, Headlights on
P[10..14] = 00 ??
P[15] = sum(P[0..14])+66 why 66? 66=(94+16)^CC...
Normal packet
-----------
XN297 1Mb Scrambled
Normal address: 96 2A A9 32 B4
RF channels: 12=0C, 42=2A, 61=3D, 29=1D -> no idea where they come from...
Timing: 9875µs
Payload 16 bytes: 94 16 CC 80 80 38 32 80 00 88 00 00 00 00 00 4E
P[0] = 94 ??
P[1] = 16 ??
P[2] = CC ??
P[3] = Throttle, not enough data on dumps... Same coding as Steering?
P[4] = Steering, not enough data on dumps, looks like one side goes from 7F to 00 and the other 80 to FF which would be s8b
P[5] = Steering trim 22..5E, mid gives 40 not 38... Was the trim centered on the other dumps with value 38?
P[6] = 32 ?? Left over from the bind packet TX_ADDR[3]?
P[7] = 80 ?? Additional channel? It moves at the same time as the trim but my guess is that it is an unconnected channel.
P[8] = 00 ??
P[9] = 80 ?? bound?, Throttle and Steering rate low, Headlights off
|02 -> Steering rate high
|04 -> Throttle rate high
|08 -> Headlights on
P[10..14] = 00 ??
P[15] = sum(P[0..14])+66 why 66? 66=(94+16)^CC...
*/

View File

@@ -86,8 +86,7 @@ static void __attribute__((unused)) XK2_send_packet()
packet[5] |= 0x10; //Gyro off (senior mode)
else if(Channel_data[CH6] > CHANNEL_MIN_COMMAND)
packet[5] |= 0x08; //3D
packet[5] |= GET_FLAG(CH9_SW, 0x04); //Sky Viper Vector stunt flag
//Request telemetry flag
//Requiest telemetry flag
packet[6] = 0x01;
//RXID checksum
packet[7] = crc8; //Sum RX_ID[0..2]

View File

@@ -22,9 +22,7 @@
#include "iface_xn297.h"
// Parameters which can be modified
#define XN297DUMP_PERIOD_FAST_SCAN 50000 // 50000
#define XN297DUMP_PERIOD_SLOW_SCAN 100000 // 75000
#define XN297DUMP_MAX_PACKET 50 // 20
#define XN297DUMP_PERIOD_SCAN 50000 // 25000
#define XN297DUMP_MAX_RF_CHANNEL 84 // Default 84
// Do not touch from there
@@ -40,7 +38,6 @@ boolean ack;
uint8_t pid;
uint8_t bitrate;
uint8_t old_option;
uint32_t scan_counter;
static void __attribute__((unused)) XN297Dump_RF_init()
{
@@ -198,10 +195,10 @@ static uint16_t XN297Dump_callback()
{
if(sub_protocol<XN297DUMP_AUTO)
{
if(option==0xFF && scan_counter>XN297DUMP_PERIOD_SLOW_SCAN)
if(option==0xFF && bind_counter>XN297DUMP_PERIOD_SCAN)
{ // Scan frequencies
hopping_frequency_no++;
scan_counter=0;
bind_counter=0;
}
if(hopping_frequency_no!=rf_ch_num)
{ // Channel has changed
@@ -297,10 +294,10 @@ static uint16_t XN297Dump_callback()
phase++;
break;
case 1:
if(scan_counter>XN297DUMP_PERIOD_FAST_SCAN)
if(bind_counter>XN297DUMP_PERIOD_SCAN)
{ // Scan frequencies
hopping_frequency_no++;
scan_counter=0;
bind_counter=0;
if(hopping_frequency_no>XN297DUMP_MAX_RF_CHANNEL)
{
hopping_frequency_no=0;
@@ -370,7 +367,7 @@ static uint16_t XN297Dump_callback()
debugln("\r\n--------------------------------");
phase=2;
debugln("Identifying all RF channels in use.");
scan_counter=0;
bind_counter=0;
hopping_frequency_no=0;
rf_ch_num=0;
packet_count=0;
@@ -392,11 +389,11 @@ static uint16_t XN297Dump_callback()
}
break;
case 2:
if(scan_counter>XN297DUMP_PERIOD_SLOW_SCAN)
if(bind_counter>XN297DUMP_PERIOD_SCAN)
{ // Scan frequencies
hopping_frequency_no++;
scan_counter=0;
if(packet_count && packet_count<=XN297DUMP_MAX_PACKET)
bind_counter=0;
if(packet_count && packet_count<=20)
debug("\r\nTrying RF channel: ");
packet_count=0;
if(hopping_frequency_no>XN297DUMP_MAX_RF_CHANNEL)
@@ -441,7 +438,7 @@ static uint16_t XN297Dump_callback()
hopping_frequency_no=0;
phase=3;
packet_count=0;
scan_counter=0;
bind_counter=0;
debugln("Time between CH:%d and CH:%d",hopping_frequency[compare_channel],hopping_frequency[hopping_frequency_no]);
time_rf[hopping_frequency_no]=0xFFFFFFFF;
XN297_RFChannel(hopping_frequency[compare_channel]);
@@ -498,9 +495,9 @@ static uint16_t XN297Dump_callback()
debug(" %02X",packet[i]);
packet_count++;
nbr_rf[rf_ch_num-1]=packet_count;
if(packet_count>XN297DUMP_MAX_PACKET)
if(packet_count>20)
{//change channel
scan_counter=XN297DUMP_PERIOD_SLOW_SCAN+1;
bind_counter=XN297DUMP_PERIOD_SCAN+1;
debug("\r\nTrying RF channel: ");
}
}
@@ -512,10 +509,10 @@ static uint16_t XN297Dump_callback()
XN297Dump_overflow();
break;
case 3:
if(scan_counter>XN297DUMP_PERIOD_SLOW_SCAN)
if(bind_counter>XN297DUMP_PERIOD_SCAN)
{ // Scan frequencies
hopping_frequency_no++;
scan_counter=0;
bind_counter=0;
if(hopping_frequency_no>=rf_ch_num)
{
uint8_t next=0;
@@ -599,7 +596,7 @@ static uint16_t XN297Dump_callback()
packet_count++;
if(packet_count>24)
{
scan_counter=XN297DUMP_PERIOD_SLOW_SCAN+1;
bind_counter=XN297DUMP_PERIOD_SCAN+1;
packet_count=0;
}
}
@@ -944,7 +941,7 @@ static uint16_t XN297Dump_callback()
}
}
}
scan_counter++;
bind_counter++;
if(IS_RX_FLAG_on) // Let the radio update the protocol
{
if(Update_All()) return 10000; // New protocol selected
@@ -970,7 +967,7 @@ void XN297Dump_init(void)
if(address_length<3||address_length>5)
address_length=5; //default
XN297Dump_RF_init();
scan_counter=0;
bind_counter=0;
rf_ch_num=0xFF;
prev_option=option^0x55;
phase=0; // init

View File

@@ -261,7 +261,6 @@
#define SYMAX_NRF24L01_INO
#define V2X2_NRF24L01_INO
#define V761_NRF24L01_INO
#define WPL_NRF24L01_INO
#define XERALL_NRF24L01_INO
#define YD717_NRF24L01_INO
#define YUXIANG_NRF24L01_INO
@@ -654,8 +653,7 @@ const PPM_Parameters PPM_prot[14*NBR_BANKS]= {
V912
CX20
PROTO_FQ777
FQ777
XBM37
NONE
PROTO_FRSKY_RX
FRSKY_RX
FRSKY_CLONE
@@ -698,10 +696,8 @@ const PPM_Parameters PPM_prot[14*NBR_BANKS]= {
FX816
FX620
FX9630
FX_Q560
FX_QF012
FX_BM26
FX_A570
Q560
QF012
PROTO_FY326
FY326
FY319
@@ -830,7 +826,6 @@ const PPM_Parameters PPM_prot[14*NBR_BANKS]= {
RLINK_AIR
RLINK_DUMBORC
RLINK_RC4G
RLINK_DUMBORC_P
PROTO_SCANNER
NONE
PROTO_SCORPIO
@@ -839,7 +834,6 @@ const PPM_Parameters PPM_prot[14*NBR_BANKS]= {
SGF22
F22S
J20
CX10
PROTO_SHENQI
NONE
PROTO_SHENQI2
@@ -882,8 +876,6 @@ const PPM_Parameters PPM_prot[14*NBR_BANKS]= {
W6_6_1
W6_HEL
W6_HEL_I
PROTO_WPL
NONE
PROTO_XERALL
NONE
PROTO_XK

View File

@@ -90,7 +90,7 @@ CFlie|AIR|38|CFlie||||||||NRF24L01|
[Flysky](Protocols_Details.md#FLYSKY---1)||1|Flysky|V9x9|V6x6|V912|CX20||||A7105|
[Flysky AFHDS2A](Protocols_Details.md#FLYSKY-AFHDS2A---28)||28|PWM_IBUS|PPM_IBUS|PWM_SBUS|PPM_SBUS|Gyro_Off|Gyro_On|Gyro_On_Rev||A7105|
[Flysky AFHDS2A RX](Protocols_Details.md#FLYSKY-AFHDS2A-RX---56)||56|Multi|CPPM|||||||A7105|
[FQ777](Protocols_Details.md#FQ777---23)||23|124|XBM37|||||||NRF24L01|SSV7241
[FQ777](Protocols_Details.md#FQ777---23)||23|||||||||NRF24L01|SSV7241
[FrskyD](Protocols_Details.md#FRSKYD---3)||3|D8|Cloned|||||||CC2500|
[FrskyL](Protocols_Details.md#FRSKYL---67)||67|LR12|LR12 6CH|||||||CC2500|
[FrskyR9](Protocols_Details.md#FRSKYR9---65)||65|FrskyR9|R9_915|R9_868||||||SX1276|
@@ -99,7 +99,7 @@ CFlie|AIR|38|CFlie||||||||NRF24L01|
[FrskyX2](Protocols_Details.md#FRSKYX2---64)||64|CH_16|CH_8|EU_16|EU_8|Cloned|Cloned_8|||CC2500|
[Frsky_RX](Protocols_Details.md#FRSKY_RX---55)||55|Multi|CloneTX|EraseTX|CPPM|||||CC2500|
[Futaba/SFHSS](Protocols_Details.md#Futaba---21)||21|SFHSS||||||||CC2500|
[FX](Protocols_Details.md#FX---58)||58|FX816|FX620|9630|Q560|QF012|BM26|A570||NRF24L01|
[FX](Protocols_Details.md#FX---58)||28|816|620|9630|Q560|QF012||||NRF24L01|
[FY326](Protocols_Details.md#FY326---20)||20|FY326|FY319|||||||NRF24L01|
[GD00X](Protocols_Details.md#GD00X---47)||47|GD_V1*|GD_V2*|||||||NRF24L01|XN297L
[GW008](Protocols_Details.md#GW008---32)||32|||||||||NRF24L01|XN297
@@ -137,12 +137,12 @@ CFlie|AIR|38|CFlie||||||||NRF24L01|
[Q2X2](Protocols_Details.md#Q2X2---29)||29|Q222|Q242|Q282||||||NRF24L01|
[Q303](Protocols_Details.md#Q303---31)||31|Q303|CX35|CX10D|CX10WD|||||NRF24L01|XN297
[Q90C](Protocols_Details.md#Q90C---72)||72|Q90C*||||||||NRF24L01|XN297
[RadioLink](Protocols_Details.md#RadioLink---74)||74|Surface|Air|DumboRC|RC4G|Dumbo_P||||CC2500|
[RadioLink](Protocols_Details.md#RadioLink---74)||74|Surface|Air|DumboRC|RC4G|||||CC2500|
[Realacc](Protocols_Details.md#Realacc---76)||76|R11||||||||NRF24L01|
[Redpine](Protocols_Details.md#Redpine---50)||50|FAST|SLOW|||||||NRF24L01|XN297
[Scanner](Protocols_Details.md#Scanner---54)||54|||||||||CC2500|
[Scorpio](Protocols_Details.md#Scorpio---94)||94|||||||||CYRF6936|
[SGF22](Protocols_Details.md#SGF22---97)||97|F22|F22S|J20|CX10|||||NRF24L01|XN297
[SGF22](Protocols_Details.md#SGF22---97)||97|F22|F22S|J20||||||NRF24L01|XN297
[Shenqi](Protocols_Details.md#Shenqi---19)||19|Shenqi||||||||NRF24L01|LT8900
[Shenqi2](Protocols_Details.md#Shenqi2---105)||105|Shenqi2||||||||NRF24L01|XN297
[Skyartec](Protocols_Details.md#Skyartec---68)||68|||||||||CC2500|CC2500
@@ -155,10 +155,9 @@ CFlie|AIR|38|CFlie||||||||NRF24L01|
[WFLY](Protocols_Details.md#WFLY---40)||40|WFR0x||||||||CYRF6936|
[WFLY2](Protocols_Details.md#WFLY2---79)||79|RF20x||||||||A7105|
[WK2x01](Protocols_Details.md#WK2X01---30)||30|WK2801|WK2401|W6_5_1|W6_6_1|W6_HEL|W6_HEL_I|||CYRF6936|
[WL91X](Protocols_Details.md#WL91X---106)||106|||||||||NRF24L01&CC2500|XN297
[WPL](Protocols_Details.md#WPL---107)||107|||||||||NRF24L01|XN297
[WL91X](Protocols_Details.md#WL91X---106)||106|||||||||NRF24L011&CC2500|XN297
[XERALL](Protocols_Details.md#XERALL---91)||91|Tank||||||||NRF24L01|XN297
[XK](Protocols_Details.md#XK---62)||62|X450|X420|Cars||||||NRF24L01&CC2500|XN297
[XK](Protocols_Details.md#XK---62)||62|X450|X420|Cars||||||NRF24L011&CC2500|XN297
[XK2](Protocols_Details.md#XK2---99)||99|X4|P10|||||||NRF24L01&CC2500|XN297
[YD717](Protocols_Details.md#YD717---8)||8|YD717|SKYWLKR|SYMAX4|XINXUN|NIHUI||||NRF24L01|
[YuXiang](Protocols_Details.md#YuXiang---100)||100|||||||||NRF24L01|XN297
@@ -1063,21 +1062,7 @@ Air protocol. TXs: T8FB,T8S. Compatible RXs: R8EF,R8FM,R8SM,R4FG,R4F
Telemetry: RX_RSSI (for the original value add -256), TX_RSSI, TX_QLY (0..100%)
### Sub_protocol DumboRC - *2*
Compatible RXs:
* X6/X6F/X6FG/X6DC/X6DCG/X10F/X10FG (Other X Series should work as well)
* P6F/P6FG/P6DC/P6DCG/P6FP/P10F/P10FG (Other P Series should work as well)
For P series specific features, see subprotocol 4 below.
CH1|CH2|CH3|CH4|CH5|CH6|CH7|CH8|CH9|CH10
---|---|---|---|---|---|---|---|---|----
CH1|CH2|CH3|CH4|CH5|CH6|CH7|CH8/Gyro gain|CH9|CH10
Telemetry:
* RX_RSSI uses the receiver's direct percentage when available
* TX_RSSI is the module-side received RSSI
* TX_QLY is 0..100%
* A2=external battery voltage in 0.1V units (set the ratio to 25.5 and adjust with offset)
Compatible RXs: X6/X6F/X6FG
### Sub_protocol RC4G - *3*
Compatible RXs: R4EH-G(/R4EH-H)
@@ -1090,21 +1075,6 @@ FS=FailSafe
CH5 is driven by CH3 on the original TX, gyro sensitivity?
### Sub_protocol Dumbo_P - *4*
Compatible RXs: P6F/P6FG/P6DC/P6DCG/P6FP/P10F/P10FG (Other P Series should work as well)
P series supports configuring receiver from transmitter. Originally, this logic appeared on DumboRC DDF-350 transmitter in 1.1.5 firmware version.
You can adjust these settings by using "DumboRC P Series.lua" script.
Settings include:
* gyro on/off
* gyro phase
* gyro tuning
* gyro gain channel
* setting gyro endpoints
* setting failsafe values
## Futaba - *21*
Also called SFHSS depending on radio version.
@@ -1173,9 +1143,9 @@ New generation of GD models
### Sub_protocol KF606 - *0*
Model: KF606
CH1|CH2|CH3|CH4|CH5|CH6
---|---|---|---|---|---
A||T||TRIM|LED
CH1|CH2|CH3|CH4|CH5
---|---|---|---|---
A||T||TRIM
### Sub_protocol MIG320 - *1*
Model: Zhiyang MIG-320
@@ -1603,25 +1573,21 @@ If a CC2500 is installed it will be used for this sub protocol. Option in this c
If only a NRF24L01 is installed then this sub protocol might be problematic because it is using the xn297L emulation with a transmission speed of 250kbps which doesn't work very well with every NRF24L01, this is an hardware issue with the authenticity and accuracy of the components.
CH1|CH2|CH3|CH4|CH5|CH6|CH7|CH8|CH9
---|---|---|---|---|---|---|---|---
A|E|T|R|Rate|Mode|Hover|Light|Stunt
CH1|CH2|CH3|CH4|CH5|CH6|CH7|CH8
---|---|---|---|---|---|---|---
A|E|T|R|Rate|Mode|Hover|Light
The plane does not need to be bound each time if it is powered on **after** the radio/protocol is on.
Telemetry is supported. The plane sends a battery status of good->empty which is visible in A1 (good=8.4V->empty=7.1V) and RSSI gets a dummy value of 100. For the Sky Viper Vector, the battery telemetry will still appear in A1 with good=8.4V->empty=7.1V despite being a 1S plane with a switch good/bad in reality at 3.3V.
Telemetry is supported. The plane sends a battery status of good->empty which is visible in A1 (good=8.4V->empty=7.1V) and RSSI gets a dummy value of 100.
The rudder trim is driven from the rudder channel to increase the range (Original TX rudder has no range once the motor has been turned on...).
Mode: -100%=6G, 0%=3D, +100%=Gyro off (Senior mode)
Stunt: Sky Viper Vector
### Sub_protocol X4 - *0*
Transmitter: XK X4-A160, X5S, model: XK A160S, XK A280, XK A300
Model: Sky Viper Vector
### Sub_protocol P10 - *1*
Model: Park10 J3-CUB
@@ -1872,7 +1838,7 @@ FMODE and AUX7 have 4 positions: -100%..-50%=>0, -50%..5%=>1, 5%..50%=>2, 50%..1
## FX - *58*
FEI XIONG
### Sub_protocol FX816 - *0*
### Sub_protocol 816 - *0*
Model: FX816 P38, B17
Only 8 TX IDs available
@@ -1881,7 +1847,7 @@ CH1|CH2|CH3|CH4
---|---|---|---
A|-|T|-
### Sub_protocol FX620 - *1*
### Sub_protocol 620 - *1*
Model: FX620 SU35
CH1|CH2|CH3|CH4
@@ -1900,7 +1866,7 @@ FX9630 and FX9603 Gyro: -100%=6G small throw, 0%=6G large throw, +100%=3D
QIDI-550 Gyro: -100%=3D, 0%=6G, +100%=Torque
### Sub_protocol Q560 - *3*
Model: QIDI-560, QIDI-580 (Cirrus SR22)
Model: QIDI-560
CH1|CH2|CH3|CH4|CH5|CH6|CH7
---|---|---|---|---|---|---
@@ -1908,8 +1874,7 @@ A|E|T|R|FLIP|GYRO|LEDs
FLIP is a toggle channel meaning that -100% to +100% is a command and +100% to -100% is also a command
- GYRO QIDI-560: -100%=6G, 0%=3D+Gyro, +100%=3D
- GYRO QIDI-580: -100%=6G, 0%=6G+Inverted, +100%=3D+Gyro
Gyro: -100%=6G, 0%=3D+Gyro, +100%=3D
### Sub_protocol QF012 - *4*
Model: QF012 SBD Dauntless
@@ -1924,36 +1889,6 @@ Gyro: -100%=6G, 0%=3D+Gyro, +100%=3D
Reset: Restore fine tunning midpoint
### Sub_protocol BM26 - *5*
Model: BM26 P51
Telemetry supported. The plane sends a battery status of good->empty which is visible in A1 (good=4.2V->empty=3.1V) and RSSI gets a dummy value of 100.
CH1|CH2|CH3|CH4|CH5|CH6|CH7|CH8|CH9
---|---|---|---|---|---|---|---|---
A|E|T|R|FLIP|GYRO|LEDs|Turning Light switch|Calib
Gyro: -100%=6G, 0%=3D+Gyro, +100%=3D
### Sub_protocol A570 - *6*
VTOL Model: Kootai A570, QIDI-570
This model has no telemetry. Low battery indicated by model LED's turning flashing red.
CH1|CH2|CH3|CH4|CH5|CH6|CH7|CH8|CH9|CH10|CH11|CH12
---|---|---|---|---|---|---|---|---|---|---|---
A|E|T|R|STOP|MODE|Rate|Color|LED-Off|TrimR|TrimA|TrimE
- STOP: -100% allows standard start / sticks moved down and center (Mode 2), +100% all motors stop
- MODE: -100%=Vertical hover, 0%=Flat flight, +100%=Vertical flight (Original TX will not allow motor start in Flat flight)
- Rate: -100%=Low Rate, +100%=High Rate
- Color: -100% / +100% toggles LED lights through color choices
- LED-Off: +100% switches lights OFF, -100% allows lights ON after a toggle of the color channel
- Trims: -100%=Rud-L,Ail-L,Ele-Back, +100%=Rud-R,Ail-R,Ele-Fwd, if used must be tied to momentary 3-pos switches
- (trim switches disabled in FM tab, added to trim channels 10,11,12 in mixes tab)
Calibration: Same as original TX, model on level surface, TX bound, sticks lower left corners, LED's flashing
## FY326 - *20*
### Sub_protocol FY326 - *0*
@@ -1967,29 +1902,12 @@ A|E|T|R|FLIP|RTH|HEADLESS|EXPERT|CALIBRATE
Model: X6 FY319 Quadcopter (Needs Testing)
## FQ777 - *23*
Autobind protocol
### Sub_protocol 124 - *0*
Model: FQ777-124 (with SV7241A)
CH1|CH2|CH3|CH4|CH5|CH6|CH7|CH8
---|---|---|---|---|---|---|---
A|E|T|R|FLIP|RTH|HEADLESS|EXPERT
### Sub_protocol XBM37 - *1*
Model: T-Smart XBM-37 (with SV7241A)
CH1|CH2|CH3|CH4|CH5|CH6|CH7|CH8|CH9|CH10|CH11|CH12|CH13|CH14
---|---|---|---|---|---|---|---|---|---|---|---|---|---
A|E|T|R|RATE|FLIP|HEADLESS|LED|PICTURE|VIDEO|RTH|OK|ETrim|Atrim
- RATE: -100% Low, 0% Mid, +100% High
- CH6 to CH12 are OFF/-100 and ON/+100 exception LED is OFF/+100
- Receiver numbers (0-63) available for model match, MPM global ID used for unique module identifier.
- Changing the TX module or RX number will require re-binding the receiver.
Calibration: Set quad on level surface, pull both sticks down in outer corners until LED's flash (Mode-2 TX)
## GW008 - *32*
Model: Global Drone GW008 from Banggood
@@ -2084,16 +2002,14 @@ ARM|
### Sub_protocol XKK170 - *3*
Model: XK K170 UH-60L Black hawk, XK K270 UH-60L
Model: XK K170 UH-60L Black hawk
CH1|CH2|CH3|CH4|CH5|CH6|CH7|CH8|CH9|CH10|CH11
---|---|---|---|---|---|---|---|---|---|---
A|E|T|R|RATE|EMERGENCY|TAKE_OFF/LANDING|CALIB|TrimA|TrimE|Optical
CH1|CH2|CH3|CH4|CH5|CH6|CH7|CH8|CH9|CH10
---|---|---|---|---|---|---|---|---|---
A|E|T|R|RATE|EMERGENCY|TAKE_OFF/LANDING|CALIB|TrimA|TrimE
RATE: -100% Low, 0% Mid, +100% High
Optic: enable/disable the optical flow sensor for K270
## JIABAILE - *102*
### Sub_protocol Std - *0*
@@ -2336,19 +2252,12 @@ Manual CH11=-100% & CH12=-100%, Balance CH11=+100% & CH12=-100%, Large Angle Bal
### Sub_protocol F22S
Model: ParkTen F22S
Mode -100% = 3D, 0% = 6G
F22S: Mode -100% = 3D, 0% = 6G
### Sub_protocol J20
Model: KF700 J20
Mode -100% = Gyro off, 0% = Horizontal, 100% = Vertical. CH8 - Invert, CH10 - Fix Height (Altitude hold)
### Sub_protocol CX10
Model: Cheerson CX-10 with red PCB
**Only 2 IDs available**, use RX num to cycle through them.
Mode -100% = Low, 0% = Medium, 100% = High
J20: Mode -100% = Gyro off, 0% = Horizontal, 100% = Vertical. CH8 - Invert, CH10 - Fix Height (Altitude hold)
## Shenqi - *19*
Autobind protocol
@@ -2454,19 +2363,6 @@ CH1|CH2|CH3|CH4|CH5|CH6|CH7|CH8|CH9
---|---|---|---|---|---|---|---|---
A|E|T|R|GYRO|CALIB|FLIP|RTN_ACT|RTN
## WPL - *107*
TX: "Basic", Models: D12 / D12KM / D22 / D32 / D42 / D14
**Only 1 ID** available. If you have a TX contact me on GitHub or RCGroups.
Autobind protocol
CH1|CH2|CH3|CH4|CH5|CH6|CH7
---|---|---|---|---|---|---
TH|ST|ST_Trim|Aux|Light|TH_Rate|ST_Rate
Light: -100%=Off, +100%=On, Rate: -100%=Low, +100%=High
## XERALL - *91*
Model: Xerall TankCopter

View File

@@ -14,7 +14,7 @@ mv build/Multiprotocol.ino.bin ./binaries/mm-avr-txflash-aetr-A7105-inv-v$MULTI_
printf "\e[33;1mBuilding mm-avr-txflash-aetr-CC2500-inv-v$MULTI_VERSION.bin\e[0m\n";
opt_disable $ALL_PROTOCOLS;
opt_enable $CC2500_PROTOCOLS;
opt_disable HITEC_CC2500_INO REDPINE_CC2500_INO OMP_CC2500_INO SKYARTEC_CC2500_INO SCANNER_CC2500_INO FRSKYL_CC2500_INO RLINK_CC2500_INO;
opt_disable HITEC_CC2500_INO REDPINE_CC2500_INO OMP_CC2500_INO SKYARTEC_CC2500_INO SCANNER_CC2500_INO FRSKYL_CC2500_INO;
buildMulti;
exitcode=$((exitcode+$?));
mv build/Multiprotocol.ino.bin ./binaries/mm-avr-txflash-aetr-CC2500-inv-v$MULTI_VERSION.bin;

View File

@@ -1,670 +0,0 @@
# XBM-37 Quad SPI Capture Analysis
**Manufacturer:** T-Smart
**Model:** XBM-37 (toy quadcopter)
**TX/RX RF Chip:** SV7241A (QFN-20, NRF24L01+ clone / BK2425 derivative)
**Protocol Basis:** Closely related to FQ777 (same RF chip family, same bind address, same ssv ESB air encoding)
**Capture Tool:** Logic analyzer digital (02a) and SPI-decoded (all "b" files)
---
## Table of Contents
1. [Capture File Inventory](#1-capture-file-inventory)
2. [Key Protocol Parameters](#2-key-protocol-parameters)
3. [SPI Initialization Sequence](#3-spi-initialization-sequence)
4. [Bind Sequence Deep Analysis (02a + 02b)](#4-bind-sequence--deep-analysis-02a--02b)
5. [Bind vs No-RX Comparison (01b vs 02b)](#5-bind-vs-no-rx-comparison-01b-vs-02b)
6. [Normal Data Packet Format](#6-normal-data-packet-format)
7. [Per-Channel Control Analysis (03b 24b)](#7-per-channel-control-analysis-03b--24b)
8. [RF Timing Summary](#8-rf-timing-summary)
9. [MPM Implementation Notes](#9-mpm-implementation-notes)
---
## 1. Capture File Inventory
All captures are located in `Captures_XBM-37/`. The **"b" files** are SPI-decoded exports
(columns: `Time [s], Packet ID, MOSI, MISO`). The **"a" file** is the raw digital export
(columns: `Time[s], MOSI, MISO, SCK, CSN, CE, IRQ`).
| File | Type | Description | SPI Transactions | TX Payloads | Duration |
|------|------|-------------|-----------------|-------------|----------|
| `01b-XBM-37_Quad_TX-PowerOn-NoRX.csv` | SPI | TX power-on, **no RX present** | 5,437 | 1,352 | 2.963 s |
| `02a-XBM-37_Quad_TX-PowerOn-withRX-Bind.csv` | **Digital** | TX power-on + bind **with RX** (all 6 lines) | 405,271 samples | 1,345 payloads | 4.380 s |
| `02b-XBM-37_Quad_TX-PowerOn-withRX-Bind.csv` | SPI | TX power-on + bind **with RX** | 5,409 | 1,345 | 2.949 s |
| `03b-XBM-37_Quad_Aileron-Center-Left-Center-Right-Center.csv` | SPI | Aileron stick: center → left → center → right → center | 6,039 | 1,509 | 3.127 s |
| `04b-XBM-37_Quad_Elevator-Center-Back-Center-Forward-Center.csv` | SPI | Elevator stick: center → back → center → fwd → center | 6,035 | 1,509 | 3.123 s |
| `05b-XBM-37_Quad_Throttle-Low-High-Low.csv` | SPI | Throttle: low → high → low | 6,034 | 1,509 | 3.122 s |
| `06b-XBM-37_Quad_Rudder-Center-Left-Center-Right-Center.csv` | SPI | Rudder (yaw): center → left → center → right → center | 6,034 | 1,509 | 3.122 s |
| `07b-XBM-37_Quad_RateModeSwitch-1-2-3.csv` | SPI | Rate/speed mode switch: 1 → 2 → 3 | 6,034 | 1,509 | 3.122 s |
| `08b-XBM-37_Quad_FlipSwitch-PushButton_Off-On.csv` | SPI | Flip trick button: off → on | 6,034 | 1,509 | 3.122 s |
| `09b-XBM-37_Quad_VideoSwitch-Off-On-Off-On.csv` | SPI | Video record toggle: off → on → off → on | 6,023 | 1,506 | 3.116 s |
| `10b-XBM-37_Quad_PictureSwitch-PushButton-3X.csv` | SPI | Photo/picture button: pressed 3 times | 6,019 | 1,505 | 3.113 s |
| `11b-XBM-37_Quad_HeadlessSwitch-PushButton-Off-On.csv` | SPI | Headless mode button: off → on | 6,022 | 1,506 | 3.116 s |
| `12b-XBM-37_Quad_ReturnToHomeSwitch-PushButton-Off-On.csv` | SPI | RTH button: off → on | 6,034 | 1,508 | 3.127 s |
| `13b-XBM-37_Quad_LED-LightsSwitch-PushButton-On-Off.csv` | SPI | LED lights toggle: on → off | 6,019 | 1,505 | 3.113 s |
| `14b-XBM-37_Quad_OK-Switch-PushButton-Off-On.csv` | SPI | OK button: off → on | 6,027 | 1,507 | 3.120 s |
| `20b-XBM-37_Quad_Elevator-Trim-Center-Forward-Max_32-Clicks.csv` | SPI | Elevator trim: center → forward max (32 clicks) | 38,683 | 9,671 | 20.004 s |
| `21b-XBM-37_Quad_Elevator-Trim-Center-Back-Max_31-Clicks.csv` | SPI | Elevator trim: center → back max (31 clicks) | 33,215 | 8,304 | 17.191 s |
| `22b-XBM-37_Quad_Aileron-Trim-Center-Left-Max_32-Clicks.csv` | SPI | Aileron trim: center → left max (32 clicks) | 32,315 | 8,079 | 16.730 s |
| `23b-XBM-37_Quad_Aileron-Trim-Center-Right-Max_31-Clicks.csv` | SPI | Aileron trim: center → right max (31 clicks) | 28,495 | 7,124 | 14.756 s |
| `24b-XBM-37_Quad_Ail-Trim-Forward-Max_Ele-Trim-Right-Max_Push-OK-Button-2X.csv` | SPI | Elevator trim at forward max, aileron trim at right max, OK button pressed 2× | 29,275 | 7,319 | 15.176 s |
### Notes
- The "b" SPI files each contain one SPI byte per row. Multiple rows sharing the same `Packet ID` belong to one CSN-low SPI transaction.
- Files 03b24b were all captured in **normal (post-bind) flight mode**. The TX had previously
completed a successful bind.
- File 01b and 02b are functionally **identical** captures (confirmed by direct payload comparison)
except for a tiny time offset (~7 µs between corresponding packets). This confirms the TX
transmits identically whether or not an RX is present; see Section 5.
---
## 2. Key Protocol Parameters
| Parameter | Value |
|-----------|-------|
| RF transceiver chip | SV7241A (QFN-20, NRF24L01+ / BK2425 derivative) |
| RF frequency band | 2.4 GHz ISM |
| Air data rate (SV7241A) | 2 Mbps (RF_SETUP = 0x26, bit5 = RF_DR = 1) |
| Air data rate (nRF24L01+ equivalent) | **250 kbps** via `ssv_pack_dpl()` method |
| Packet size (raw, pre-pack) | 8 bytes |
| Packet size (after ssv_pack_dpl) | 12 bytes |
| Enhanced ShockBurst | Yes (dynamic payload length, no auto-ACK) |
| SPI clock frequency | ~143 kHz (7 µs period) |
| Bind packet count | **400** |
| Bind address (broadcast) | `E7 E7 E7 E7 67` |
| Data address format | `[TX_ID₀ TX_ID₁ TX_ID₂ E7 67]` |
| Bind channel (first packet) | 0x00 (universal) |
| Hop channels (bind + data) | **0x49, 0x34, 0x26, 0x07** (4 channels) |
| Packet period (steady state) | **~2,070 µs** (~2.07 ms) |
| CE high pulse width | ~1,172 µs |
| CE low gap (inter-packet) | ~896 µs |
| TX-only mode | Yes — EN_RXADDR = 0x00; TX never listens |
---
## 3. SPI Initialization Sequence
The sequence below is from `02b` (PIDs 024), occurring over the first ~5 ms after the SPI
bus becomes active (~150335 ms after TX power-on due to startup delays).
### 3.1 SV7241A Private Bank Registers
The SV7241A (like BK2425) has bank-switched extended registers at addresses 0x180x1B.
Register 0x1F selects the bank. These registers hold RF/analog calibration constants specific
to the chip and **do not exist on nRF24L01+** — they are ignored when implementing with MPM.
| PID | Register | Data Written | Purpose |
|-----|----------|-------------|---------|
| 0 | 0x1F | `00` | Select bank 0 |
| 1 | 0x1B | `10 E1 D3 3D` | Bank 0 RF calibration reg 1 |
| 2 | 0x19 | `06 AA A2 DB` | Bank 0 RF calibration reg 2 |
| 3 | 0x1F | `01` | Select bank 1 |
| 4 | 0x19 | `77 48 9A E8` | Bank 1 internal reg |
| 5 | 0x1B | `76 87 CA 01` | Bank 1 internal reg |
| 6 | 0x1F | `02` | Select bank 2 |
| 7 | 0x1B | `A0 00 18 A0` | Bank 2 internal reg |
| 8 | 0x1F | `04` | Select bank 4 |
| 9 | 0x18 | `01 00 F0 00` | Bank 4 internal reg |
| 10 | 0x1F | `05` | Select bank 5 |
| 11 | 0x18 | `84 03 2A 03` | Bank 5 internal reg |
| 12 | 0x19 | `90 BF 00 00` | Bank 5 internal reg |
| 13 | 0x1A | `A0 0F 00 00` | Bank 5 internal reg |
### 3.2 Standard NRF24L01-Compatible Registers
Written immediately after the private registers (PIDs 1424):
| PID | Register | Written Value | Decoded Meaning |
|-----|----------|--------------|-----------------|
| 14 | CONFIG (0x00) | `0x0C` | EN_CRC=1, CRCO=1 (2-byte CRC), PWR_UP=0, PRIM_RX=0 (TX) |
| 15 | CONFIG (0x00) | *read back* `0x0C` | Verify CONFIG |
| 16 | TX_ADDR (0x10) | `E7 E7 E7 E7 67` | Bind broadcast address |
| 17 | RX_ADDR_P0 (0x0A) | `E7 E7 E7 E7 67` | Matches TX_ADDR for bind |
| 18 | EN_AA (0x01) | `0x00` | Auto-ACK **disabled** on all pipes |
| 19 | EN_RXADDR (0x02) | `0x00` | All RX pipes **disabled** TX only |
| 20 | RF_CH (0x05) | `0x49` | Initial RF channel (73 MHz offset) |
| 21 | FEATURE (0x1D) | `0x04` | EN_DPL = 1 (dynamic payload length) |
| 22 | DYNPD (0x1C) | `0x01` | DPL enabled on pipe 0 |
| 23 | RF_SETUP (0x06) | `0x26` | SV7241A: 2 Mbps, max power |
| 24 | CONFIG (0x00) | `0x0E` | PWR_UP=1 → TX powered up |
**RF_SETUP = 0x26 mapping:**
| Chip | Bit 5 meaning | Value 0x26 decodes as |
|------|--------------|----------------------|
| SV7241A | RF_DR (0=1Mbps, 1=2Mbps) | **2 Mbps**, max power |
| nRF24L01+ | RF_DR_LOW (0=normal, 1=250kbps) | **250 kbps**, max power |
→ On nRF24L01+, writing 0x26 would set **250 kbps** (not 2 Mbps). For MPM emulation the
correct approach (same as FQ777) is `NRF24L01_SetBitrate(NRF24L01_BR_250K)` combined with
`ssv_pack_dpl()` to produce a compatible air packet.
**Startup timing:**
The TX power-on to first SPI transaction takes ~150 ms (CE is held high from
t = 72 ms until t = 0, then the ~150 ms wait elapses before SPI activity at t ≈ +181 ms in the
02b file). The entire init register sequence completes in ~6 ms.
---
## 4. Bind Sequence Deep Analysis (02a + 02b)
### 4.1 Overview
After the ~150 ms startup wait, the TX sends exactly **400 bind packets** before switching to
normal data mode.
| Property | Value |
|----------|-------|
| Total bind packets | **400** |
| Bind address | `E7 E7 E7 E7 67` (fixed broadcast) |
| First bind packet channel | `0x00` (universal channel) |
| Remaining 399 bind packet channels | Cycling: `0x49 → 0x34 → 0x26 → 0x07 → 0x49 → …` |
| Bind packet payload | `20 14 07 03 TX_ID₀ TX_ID₁ TX_ID₂ CKSUM` |
| Bind packet content | Identical across all 400 transmissions |
The first bind packet is sent on RF channel **0x00**, ensuring a newly powered-on RX (sitting
on its default channel) can hear the bind announcement regardless of any prior state. Subsequent
bind packets cycle through the four data-hopping channels.
### 4.2 Bind Packet Structure
```
Byte 0 1 2 3 4 5 6 7
[20 14 07 03 TX_ID₀ TX_ID₁ TX_ID₂ CKSUM]
```
| Byte | Value (this TX) | Description |
|------|----------------|-------------|
| B0 | `0x20` | Bind identifier byte (constant — marks this as a bind packet) |
| B1 | `0x14` | Protocol variant constant (XBM-37 specific; FQ777 uses `0x15`) |
| B2 | `0x07` | Protocol variant constant (XBM-37 specific; FQ777 uses `0x05`) |
| B3 | `0x03` | Protocol variant constant (XBM-37 specific; FQ777 uses `0x06`) |
| B4 | `0x91` | TX_ID byte 0 — unique per TX unit |
| B5 | `0x05` | TX_ID byte 1 — unique per TX unit |
| B6 | `0x05` | TX_ID byte 2 — unique per TX unit |
| B7 | `0x9B` | Checksum = (TX_ID₀ + TX_ID₁ + TX_ID₂) & 0xFF = (0x91+0x05+0x05) & 0xFF |
**Checksum formula for bind packet:** `B7 = (B4 + B5 + B6) & 0xFF`
(This differs from the data packet checksum which sums B0B6.)
### 4.3 TX ID
TX ID is **3 bytes** embedded in B4B6 of the bind packet. This TX unit has:
```
TX_ID = [0x91, 0x05, 0x05]
```
After bind, the TX_ADDR is set to: `[TX_ID₀ TX_ID₁ TX_ID₂ 0xE7 0x67]`
= `[91 05 05 E7 67]`
The RX extracts TX_ID from the bind packet and uses it to construct the matching address for
normal data reception.
### 4.4 Bind Channel Sequence (from 02b SPI decoded)
```
Packet #1: ch=0x00 [20 14 07 03 91 05 05 9B] ← universal announce
Packet #2: ch=0x49 [20 14 07 03 91 05 05 9B]
Packet #3: ch=0x34 [20 14 07 03 91 05 05 9B]
Packet #4: ch=0x26 [20 14 07 03 91 05 05 9B]
Packet #5: ch=0x07 [20 14 07 03 91 05 05 9B]
Packet #6: ch=0x49 [20 14 07 03 91 05 05 9B]
...continues cycling 0x49→0x34→0x26→0x07...
Packet #400: ch=0x26 [20 14 07 03 91 05 05 9B] ← last bind
```
Channel usage across all 400 bind packets:
| Channel | Count | Notes |
|---------|-------|-------|
| 0x00 | 1 | First packet only |
| 0x49 (73 MHz) | 100 | Regular cycle |
| 0x34 (52 MHz) | 100 | Regular cycle |
| 0x26 (38 MHz) | 100 | Regular cycle (includes last bind packet) |
| 0x07 (7 MHz) | 99 | Regular cycle |
### 4.5 Bind-to-Normal Transition
After the 400th bind packet the TX:
1. Completes the 400th transmission (CE pulse ~1,172 µs, then CE low).
2. Waits **~16.6 ms** (no SPI activity; firmware processing time).
3. Writes the new TX_ADDR: `W_TX_ADDR [91 05 05 E7 67]` (SPI pid=1625 at t=1.175882 s).
4. Immediately clears STATUS and starts normal data mode.
5. First normal packet: ch=**0x07** (continuation of the hop sequence from where bind ended).
```
Last bind (400th): t=1.159258 s, ch=0x26
TX_ADDR change: t=1.175882 s (+16.6 ms gap)
First data packet: t=1.176619 s, ch=0x07 [E1 70 70 70 20 20 00 71]
```
### 4.6 IRQ / STATUS Analysis (from 02a Digital Capture)
The IRQ line (active-low) is asserted by the SV7241A for every successfully transmitted packet
(TX_DS interrupt):
| Observation | Value |
|-------------|-------|
| Total IRQ assertions | 1,340 (matching 1,340 normal CE pulses) |
| IRQ pulse duration (typical) | ~600 µs |
| IRQ source | TX_DS only (TX complete) |
| RX_DR interrupts | **Zero** — no data ever received |
The SPI confirms there are **no `R_RX_PAYLOAD` (0x61) commands** in either 01b or 02b.
Combined with `EN_RXADDR = 0x00` (all RX pipes disabled), it is impossible for the TX to
receive data from the RX. This is confirmed by the STATUS register never showing bit6
(RX_DR) = 1.
One extended IRQ assertion of **15.9 ms** occurs at t=1.160476 s (immediately after the 400th
bind packet). This is not an RX event — it is simply the TX_DS interrupt remaining uncleared
while the firmware processes the bind-completion event and updates TX_ADDR. The IRQ is
cleared when `W_STATUS [70]` is written at t=1.176254 s (pid=1626).
### 4.7 CE Pulse Timing (from 02a)
| Measurement | Value |
|-------------|-------|
| Normal CE pulse duration | min 1,165 µs, max 1,178 µs, **avg 1,172 µs** |
| CE inter-pulse gap (end to start) | **~896 µs** |
| Total cycle (CE high + gap) | **~2,068 µs** |
| Pulse-to-pulse interval (high to high) | min 2.063 ms, max 20.686 ms, **avg 2.084 ms** |
The 20.686 ms outlier corresponds to the bind-to-normal transition pause (~16.6 ms).
---
## 5. Bind vs No-RX Comparison (01b vs 02b)
**Finding: The TX transmits identically whether or not an RX is present.**
| Metric | 01b (No RX) | 02b (With RX) |
|--------|------------|----------------|
| Total TX payloads | 1,352 | 1,345 |
| Bind packets | 400 | 400 |
| Bind packet content | `20 14 07 03 91 05 05 9B` | `20 14 07 03 91 05 05 9B` (identical) |
| TX_ADDR change time | t=1.175899 s | t=1.175882 s |
| TX_ADDR after bind | `[91 05 05 E7 67]` | `[91 05 05 E7 67]` (identical) |
| Normal data payload (idle) | `E1 70 70 70 20 20 00 71` | `E1 70 70 70 20 20 00 71` (identical) |
| Time offset between captures | — | ~7 µs per packet |
The TX performs an automatic timed bind sequence (400 packets) and then switches to data mode
unconditionally, regardless of RX acknowledgment. The TX **never knows** whether the RX
accepted the bind. Bind is one-sided: the RX passively listens for the bind packet on ch=0x00
(or the cycling channels), extracts the TX_ID and hop channels, and then follows the TX's
normal data transmissions.
---
## 6. Normal Data Packet Format
### 6.1 Packet Structure (8 bytes)
```
Byte 0 1 2 3 4 5 6 7
[Throttle Rudder Aileron Elevator Flags1 Flags2 Flags3 CKSUM]
```
**Checksum (B7):** `B7 = (B0 + B1 + B2 + B3 + B4 + B5 + B6) & 0xFF`
All 8-byte checksum values have been verified against this formula across all capture files.
### 6.2 Stick Channels (B0B3)
| Byte | Channel | Min | Center | Max | Notes |
|------|---------|-----|--------|-----|-------|
| B0 | Throttle | `0xE1` | `0x70` | `0x00` | Non-return throttle |
| B1 | Rudder (Yaw) | `0x00` | `0x70` | `0xE1` | |
| B2 | Aileron (Roll) | `0xE1` | `0x70` | `0x00` | |
| B3 | Elevator (Pitch) | `0xE1` | `0x70` | `0x00` | |
All analog channels use the same range: **0x00 0xE1** (0 225 decimal) with center at
**0x70** (112 decimal).
- Throttle, Aileron, and Elevator use reversed state (0xE1...0x70...0x00).
### 6.3 Flags Byte 1 (B4)
| Value | Meaning | Description |
|-------|---------|-------------|
| `0x20` | **Trim Elevator Center** | Resets at TX start |
| `0x21 up to 0x40` | Trim elevator **forward** | 32 Clicks to max |
| `0x1F downto 0x01` | Trim elevator **back** | 31 Clicks to max |
### 6.4 Flags Byte 2 (B5)
| Value | Meaning | Description |
|-----|------|-------------|
| `0x20` | **Trim Aileron Center** | Resets at TX start |
| `0x21 up to 0x40` | Trim aileron **left** | 32 Clicks to max |
| `0x1F down to 0x01` | Trim aileron **right** | 31 Clicks to max |
| `0x80` | OK button | OK pressed (`0x20``0xA0`) |
`B5 bit7` is an OR mask on top of trim value (`B5_with_OK = B5_trim | 0x80`), e.g.
center `0x20 -> 0xA0`, right-max `0x01 -> 0x81`.
### 6.5 Flags Byte 3 (B6)
| Bits | Mask | Name | Description |
|------|------|------|-------------|
| [1:0] | `0x03` | Rate mode | `0x00`=rate 1 (slow), `0x01`=rate 2, `0x02`=rate 3 (fast) |
| 2 | `0x04` | LED off | `0`=LED lights ON, `1`=LED lights OFF |
| 3 | `0x08` | RTH | `1`=return-to-home active |
| 4 | `0x10` | Headless | `1`=headless mode active |
| 5 | `0x20` | Video | `1`=video recording active |
| 6 | `0x40` | Picture | `1`=photo capture triggered |
| 7 | `0x80` | Flip | `1`=3D flip command |
Normal state: `B6 = 0x00` (rate 1, LED on, no special modes)
### 6.6 Return-to-Home (RTH)
Updated analysis of **file 12b** (RTH OFF in first half, ON in second half):
- RTH-OFF payload is steady at `7E 70 70 70 20 20 00 0E`.
- After the OFF→ON transition, the payload changes to `7E 70 70 70 20 20 08 16`.
- The persistent functional change in this capture is `B6: 0x00 -> 0x08`
(bit3 asserted when RTH is ON).
In this export, RTH is represented in the steady 8-byte payload by `B6 bit3`.
### 6.7 Example Payloads
| Payload | Meaning |
|---------|---------|
| `E1 70 70 70 20 20 00 71` | Throttle low `0xE1`, all sticks center `0x70`, LED on, no special modes `0x00` |
| `82 70 70 70 20 20 00 12` | Throttle ~mid `0x82`, all sticks center, LED on, no special modes |
| `00 70 70 70 20 20 00 90` | Throttle max `0x00`, all sticks center, LED on, no special modes |
| `E1 70 00 70 20 20 00 01` | Throttle low, aileron full right `0x00`, LED on, no special modes |
| `E1 70 E1 70 20 20 00 E2` | Throttle low, aileron full left `0xE1`, LED on, no special modes |
| `E1 70 70 00 20 20 00 01` | Throttle low, elevator full back `0x00`,LED on, no special modes |
| `82 70 70 70 20 20 80 92` | Throttle ~mid, all sticks center, flip command active `0x80` |
| `82 70 70 70 20 20 10 22` | Throttle ~mid, all sticks center, headless mode active `0x10` |
| `82 70 70 70 20 20 01 13` | Throttle ~mid, all sticks center, rate mode 2 `0x01` |
| `82 70 70 70 20 20 02 14` | Throttle ~mid, all sticks center, rate mode 3 `0x02` |
| `00 70 70 70 20 A0 00 F1` | Throttle max, all sticks center, OK button pressed `0xA0` |
| `00 70 70 70 20 20 04 75` | Throttle max, all sticks center, LED lights OFF `0x04` |
---
## 7. Per-Channel Control Analysis (03b 24b)
All control captures were taken in post-bind normal mode. Hopping channels confirmed active:
`0x07, 0x49, 0x34, 0x26` (cyclic). Average packet interval: **~2.07 ms** across all files.
### 03b Aileron (Roll)
- **Affected byte:** B2
- Range observed: `0xE1` (full left) → `0x70` (center) → `0x00` (full right)
### 04b Elevator (Pitch)
- **Affected byte:** B3
- Range observed: `0x00` (full back) → `0x70` (center) → `0xE1` (full forward)
### 05b Throttle
- **Affected byte:** B0
- Range observed: `0xE1` (low minimum) ↔ `0x70` (center) ↔ `0x00` (full maximum)
- Non-return throttle (stick does not spring back to center)
### 06b Rudder (Yaw)
- **Affected byte:** B1
- Range observed: `0x00` (full left) → `0x70` (center) → `0xE1` (full right)
- Note: B0 (throttle) also varies in this capture because left stick controls both
throttle (up/down) and rudder (left/right) Mode 2 transmitter
### 07b Rate Mode Switch
- **Affected byte:** B6 bits[1:0]
- `B6 = 0x00`: Rate 1 (slowest/beginner)
- `B6 = 0x01`: Rate 2 (intermediate)
- `B6 = 0x02`: Rate 3 (fastest/expert)
### 08b Flip Switch
- **Affected byte:** B6 bit7
- `B6 = 0x00`: No flip; `B6 = 0x80`: 3D flip command active
- While flip is held: throttle (B0) increments slightly (`0x82``0x83`)
### 09b Video Switch
- **Affected byte:** B6 bit5
- `B6 = 0x00`: Video off; `B6 = 0x20`: Video recording active
- Toggle on/off: transitions between these two states
### 10b Picture Switch (3×)
- **Affected byte:** B6 bit6
- `B6 = 0x00`: Idle; `B6 = 0x40`: Photo capture triggered (momentary)
### 11b Headless Switch
- **Affected byte:** B6 bit4
- `B6 = 0x00`: Headless off; `B6 = 0x10`: Headless mode active
### 12b Return to Home Switch
- **Capture split tested:** first half RTH OFF, second half RTH ON.
- **RTH OFF payload:** `7E 70 70 70 20 20 00 0E`
- **RTH ON payload:** `7E 70 70 70 20 20 08 16`
- **Primary byte change:** `B6: 0x00 -> 0x08`
- `B6 bit3` is asserted when RTH is active in this capture
- **Minor secondary variation while ON:** `B0` occasionally increments `0x7E -> 0x7F`,
producing checksum `0x16 -> 0x17`
- All other payload bytes remain unchanged across the OFF→ON transition in this file.
### 13b LED Lights Switch
- **Affected byte:** B6 bit2
- `B6 = 0x00`: LED lights **ON** (default)
- `B6 = 0x04`: LED lights **OFF**
- Note: Inverted logic — bit2=1 means OFF
### 14b OK Switch
- **Affected byte:** B5 bit7
- `B5 = 0x20`: OK button not pressed
- `B5 = 0xA0`: OK button pressed (0x20 | 0x80)
### 20b Elevator Trim Center → Forward Max (32 clicks)
- **Affected byte:** B4 (elevator trim)
- Observed progression: `0x20 -> ... -> 0x40`
- Endpoint in this capture: `B4 = 0x40` (forward max)
- `B5` remains `0x20`; `B6` remains `0x00`
### 21b Elevator Trim Center → Back Max (31 clicks)
- **Affected byte:** B4 (elevator trim)
- Observed progression: `0x20 -> ... -> 0x01`
- Endpoint in this capture: `B4 = 0x01` (back max)
- `B5` remains `0x20`; `B6` remains `0x00`
### 22b Aileron Trim Center → Left Max (32 clicks)
- **Affected byte:** B5 (aileron trim)
- Observed progression: `0x20 -> ... -> 0x40`
- Endpoint in this capture: `B5 = 0x40` (left max)
- `B4` remains `0x20`; `B6` remains `0x00`
### 23b Aileron Trim Center → Right Max (31 clicks)
- **Affected byte:** B5 (aileron trim)
- Observed progression: `0x20 -> ... -> 0x01`
- Endpoint in this capture: `B5 = 0x01` (right max)
- `B4` remains `0x20`; `B6` remains `0x00`
### 24b Trim Endpoints + OK Button (2 presses)
- Fixed trim baseline in this capture:
- `B4 = 0x40` (elevator forward max)
- `B5 trim = 0x01` (aileron right max)
- **OK effect:** `B5 bit7` toggles over trim baseline:
- not pressed: `B5 = 0x01`
- pressed: `B5 = 0x81` (`0x01 | 0x80`)
- `B6` remains `0x00` throughout.
---
## 8. RF Timing Summary
### 8.1 Per-Packet SPI Cycle (02b decoded)
Each packet transmission consists of 4 SPI transactions:
```
1. W_STATUS [27] = 0x70 → Clear TX_DS / MAX_RT / RX_DR interrupt flags
2. FLUSH_TX [E1] → Empty TX FIFO
3. W_RF_CH [25] = <ch> → Set hop channel
4. W_TX_PAYLOAD [A0] = 8B → Write 8-byte payload to TX FIFO
[CE pulse ~1,172 µs to transmit]
[~896 µs gap before next cycle]
```
### 8.2 Bind Phase Timing
| Event | Timestamp (02b) |
|-------|----------------|
| Init register writes complete | t = 0.186 s |
| Startup wait completes | t = 0.335 s (~150 ms) |
| First bind packet (ch=0x00) | t = 0.335838 s |
| 400th (last) bind packet (ch=0x26) | t = 1.159258 s |
| TX_ADDR change to data address | t = 1.175882 s (+16.6 ms) |
| First normal data packet | t = 1.176619 s |
Total bind phase duration: **~0.824 s** (150 ms wait + ~674 ms for 400 packets at 2.07 ms each)
### 8.3 Normal Data Phase Timing
| Event | Interval |
|-------|---------|
| Packet 1 → 2 (startup) | 0.918 ms |
| Packet 2 → 3 (startup) | 0.916 ms |
| Packet 3 → 4 (startup) | 1.491 ms |
| Steady state (4+) | **~2.070 ms** per packet |
The first 3 packets after bind-to-data transition have shorter intervals, then settle into the
steady 2.07 ms period.
### 8.4 STATUS Byte Values Observed
| STATUS | Meaning | When seen |
|--------|---------|-----------|
| `0x0E` | TX FIFO not full, RX FIFO empty, all interrupts clear | Normal/idle |
| `0x2E` | TX_DS = 1 (TX complete interrupt), TX FIFO not full | After each TX packet |
RX_DR (bit6) is **never set** in any STATUS byte — confirming no data is ever received.
---
## 9. MPM Implementation Notes
### 9.1 Comparison with FQ777
The XBM-37 protocol is closely related to FQ777 but has the following differences:
| Property | FQ777 | XBM-37 | Comment|
|----------|-------|---------|---------|
| Bind count | 1,000 | **400** | works with either |
| Bind packet B1 | `0x15` | `0x14` | different |
| Bind packet B2 | `0x05` | `0x07` | different |
| Bind packet B3 | `0x06` | `0x03` | different |
| Hop channels | `4D 43 27 07` | **`49 34 26 07`** | different |
| Data range | 0x000x64 | **0x000xE1** | different |
| Bind address | `E7 E7 E7 E7 67` | `E7 E7 E7 E7 67` | (same) |
| Checksum method | Sum B0B6 | Sum B0B6 | (same) |
| Bind checksum | Sum B4B6 | Sum B4B6 | (same) |
| ssv_pack_dpl encoding | Yes | Yes | (same) |
| Air bitrate (nRF24L01+) | 250 kbps | 250 kbps | (same) |
### 9.2 Required Implementation Constants
```c
static const uint8_t XBM37_bind_addr[] = {0xE7, 0xE7, 0xE7, 0xE7, 0x67};
static const uint8_t XBM37_hop_channels[] = {0x49, 0x34, 0x26, 0x07};
```
### 9.3 Bind Packet Builder
```c
// Bind packet (bytes 46 = TX ID; B7 = checksum of B4+B5+B6)
packet[0] = 0x20;
packet[1] = 0x14;
packet[2] = 0x07;
packet[3] = 0x03;
packet[4] = rx_tx_addr[0]; // TX_ID byte 0
packet[5] = rx_tx_addr[1]; // TX_ID byte 1
packet[6] = rx_tx_addr[2]; // TX_ID byte 2
packet[7] = packet[4] + packet[5] + packet[6];
```
### 9.4 Data Packet Builder
```c
packet[0] = convert_channel_16b_limit(THROTTLE, 0xE1, 0x00);
packet[1] = convert_channel_16b_limit(RUDDER, 0x00, 0xE1);
packet[2] = convert_channel_16b_limit(AILERON, 0xE1, 0x00);
packet[3] = convert_channel_16b_limit(ELEVATOR, 0xE1, 0x00);
packet[4] = ((convert_channel_8b(CH13) * 63) / 255) + 1; // ele trim (01..20..40)
packet[5] = 64 - (((uint32_t)convert_channel_8b(CH14) * 63 + 127) / 255); // ail trim (40..20..01)
packet[5] |= GET_FLAG(OK_SW, 0x80); // OK button
packet[6] = (rate_mode & 0x03) // bits[1:0] = rate (0/1/2)
| GET_FLAG(LED_SW, 0x04) // bit2=1 = LED off
| GET_FLAG(RTH_SW, 0x08) // bit3 = RTH
| GET_FLAG(HEADLESS_SW, 0x10) // bit4 = headless
| GET_FLAG(VIDEO_SW, 0x20) // bit5 = video
| GET_FLAG(PHOTO_SW, 0x40) // bit6 = picture
| GET_FLAG(FLIP_SW, 0x80); // bit7 = flip
packet[7] = 0;
for (uint8_t i = 0; i < 7; i++) packet[7] += packet[i]; // checksum
```
### 9.5 Address Management
```c
// TX init:
rx_tx_addr[2] = 0x00; // original hardcoded value now changes for model match capability (see below)
rx_tx_addr[3] = 0xE7;
rx_tx_addr[4] = 0x67;
// rx_tx_addr[0] and [1] are random/unique to the TX
// rx_tx_addr[2] now varies by changing receiver number (0-63) for model match
// Bind address (used during bind):
NRF24L01_WriteRegisterMulti(NRF24L01_10_TX_ADDR, XBM37_bind_addr, 5);
// After 400th bind packet, switch to data address:
NRF24L01_WriteRegisterMulti(NRF24L01_10_TX_ADDR, rx_tx_addr, 5);
```
### 9.6 RF Init
```c
void XBM37_RF_init() {
NRF24L01_Initialize();
NRF24L01_WriteRegisterMulti(NRF24L01_10_TX_ADDR, XBM37_bind_addr, 5);
NRF24L01_WriteReg(NRF24L01_01_EN_AA, 0x00); // no auto-ACK
NRF24L01_WriteReg(NRF24L01_02_EN_RXADDR, 0x00); // no RX pipes
NRF24L01_WriteReg(NRF24L01_1D_FEATURE, 0x04); // EN_DPL
NRF24L01_WriteReg(NRF24L01_1C_DYNPD, 0x01); // DPL pipe 0
NRF24L01_SetBitrate(NRF24L01_BR_250K); // 250 kbps on nRF24L01+
}
```
### 9.7 Air Encoding
Because both the XBM-37 TX and RX use SV7241A (a BK2425 derivative), the air packet format is
the SV7241A Enhanced ShockBurst encoding. When implementing with nRF24L01+, the same
`ssv_pack_dpl()` function used in the FQ777 protocol must be applied to convert the raw 8-byte
payload into the 12-byte packed representation that nRF24L01+ transmits at 250 kbps to produce
a compatible on-air signal.
---
*Analysis completed using Python scripts against the raw CSV captures. All packet checksums,
channel sequences, bind counts, and register values verified programmatically.*