;-------------------------------------------------------------------------------

[MegaTune]
   MTversion      = 2.25 ; MegaTune itself; needs to match exec version.

   queryCommand   = "Q" ; B&G embedded code version 2.0/2.98x/3.00
   signature      = 20  ; Versions above return a single byte, 20T.

;-------------------------------------------------------------------------------

[Constants]

   ;----------------------------------------------------------------------------
   ; Constants Definition
   ; --------------------
   ;
   ; Scalar Values
   ; -------------
   ; The scaling and translation values are used as follows:
   ;    msValue   = userValue / scale - translate
   ;    userValue = (msValue + translate) * scale
   ;
   ; I've got no good way to handle a few of these things yet.
   ;
   ; Temperatures are fine, check out the Fielding IAC example (fastIdleT).
   ;
   ; The TPS stuff is a problem, because we have to modify the ini file for
   ; each TPS installation and again whenever we move the TPS...  I figured
   ; out a moderately palatable solution to presenting the frequency
   ; divider in the boost control values, turn it into a bit field and then
   ; enumerate the resulting frequencies.
   ;
   ; Array Values
   ; ------------
   ; Arrays are specified just like scalars, except that they have a "shape"
   ; entry in the fourth parameter.  The shape allows you to define lists or
   ; tables, for example [8] defines a list with eight values and [2x4] defines
   ; a table with eight values (two rows and four columns).  Tables may be
   ; stored in either "X-" or "Y-order."  X-order means that memory is layed
   ; out like.
   ;
   ;     [x1,y1] [x2,y1]...[xn,y1] [x1,y2]...
   ;
   ; Y-order would be
   ;
   ;     [x1,y1] [x1,y2]...[x1,yn] [x2,y1]...
   ;
   ; To use the TableEditor, you must define two lists and a table, and
   ; the lengths of the lists must correspond to the shape of the table.
   ;
   ; Bit Fields
   ; ----------
   ; Bits are numbered 0-7, the rightmost being bit zero.  The basic
   ; data word that stores bit fields must be unsigned.
   ;
   ; You need NOT supply the correct number of labels matching the
   ; number of bits you've specified (one bit requires 2 values, two
   ; bits requires 4 values and so on).  If you neglect to supply enough
   ; labels, they will be synthesized using the sequence "1", "2" and so
   ; on based upon their position in the sequence (the cltType and matType
   ; will end up with identical lists).
   ;
   ; If you specify a label as "INVALID" (all upper case), then it will
   ; not be displayed in the combo box, so you can leave out values that
   ; make no sense.
   ;
   ;----------------------------------------------------------------------------

   endianness          = big
   nPages              = 1
   burnCommand         = "B"
   pageSize            = 125
   pageActivationDelay = 10
;  pageActivate        = ""
   pageReadCommand     = "V"
   pageValueWrite      = "W%o%v"
;  pageChunkWrite      = ""      ; No chunk write for standard MS.

   page = 1
   ;  name       = bits,   type, offset, bits
   ;  name       = array,  type, offset, shape, units,     scale, translate,    lo,      hi, digits
   ;  name       = scalar, type, offset,        units,     scale, translate,    lo,      hi, digits
      veTable    = array,  U08,       0, [8x8], "%",          1.0,      0.0,   0.0,   255.0,      0
      crankCold  = scalar, U08,      64,         "ms",       0.1,       0.0,   0.0,    25.5,      1
      crankHot   = scalar, U08,      65,         "ms",       0.1,       0.0,   0.0,    25.5,      1
      asePct     = scalar, U08,      66,         "%",        1.0,       0.0,   0.0,    95.0,      0
      aseCount   = scalar, U08,      67,         "",         1.0,       0.0,   0.0,   254.0,      0
      wueBins    = array,  U08,      68, [  10], "%",        1.0,       0.0, 100.0,   255.0,      0
      taeBins    = array,  U08,      78, [   4], "ms",       0.1,       0.0,   0.0,    25.5,      1
      taeBins1   = scalar, U08,      78,         "ms",       0.1,       0.0,   0.0,    25.5,      1
      taeBins2   = scalar, U08,      79,         "ms",       0.1,       0.0,   0.0,    25.5,      1
      taeBins3   = scalar, U08,      80,         "ms",       0.1,       0.0,   0.0,    25.5,      1
      taeBins4   = scalar, U08,      81,         "ms",       0.1,       0.0,   0.0,    25.5,      1
      taeColdA   = scalar, U08,      82,         "ms",       0.1,       0.0,   0.0,    25.5,      1
      tpsThresh  = scalar, U08,      83,         "v/s",0.1953125,       0.0,   0.2,    49.8,      3
      taeTime    = scalar, U08,      84,         "ms",       0.1,       0.0,   0.0,    25.5,      1
      tdePct     = scalar, U08,      85,         "%",        1.0,       0.0,   0.0,   255.0,      0
#if CELSIUS
      egoTemp    = scalar, U08,      86,         "°C",     0.555,       -72,   -40,   102.0,      0
#else
      egoTemp    = scalar, U08,      86,         "°F",       1.0,       -40,   -40,   215.0,      0
#endif
      egoCount   = scalar, U08,      87,        "",          1.0,       0.0,   0.0,   255.0,      0
      egoDelta   = scalar, U08,      88,        "%",         1.0,       0.0,   0.0,   255.0,      0
      egoLimit   = scalar, U08,      89,        "%",         1.0,       0.0,   0.0,   255.0,      0
      reqFuel    = scalar, U08,      90,        "ms",        0.1,       0.0,   0.0,    25.5,      1
      divider    = scalar, U08,      91,        "",          1.0,       0.0
      alternate  = bits,   U08,      92, [0:0], "Simultaneous", "Alternating"
      injOpen    = scalar, U08,      93,        "ms",        0.1,       0.0,   0.1,    25.5,      1
      injOCfuel  = scalar, U08,      94,        "ms",        0.1,       0.0,   0.0,     0.0,      0
      injPwmP    = scalar, U08,      95,        "%",         1.0,       0.0,   0.0,   100.0,      0
      injPwmT    = scalar, U08,      96,        "ms",        0.1,       0.0,   0.0,    25.5,      1
      battFac    = scalar, U08,      97,        "ms/v",0.0166667,       0.0,   0.0,     1.0,      2
      rpmk       = scalar, U16,      98,        "",          1.0,       0.0
      rpmBins    = array,  U08,     100, [  8], "RPM",      100.0,      0.0, 100.0, 25500.0,      0
   #if SPEED_DENSITY
      mapBins    = array,  U08,     108, [  8], "kPa",        1.0,      0.0,   0.0,   255.0,      0
   #elif ALPHA_N
      tpsBins    = array,  U08,     108, [  8], "TPS",        1.0,      0.0,   0.0,   255.0,      0
   #elif AIR_FLOW_METER
      #error "MSnS does not support MAF"
      #exit
   #endif
      ; Config1
      mapType    = bits,   U08,     116, [0:1], "115 kPa", "250 kPa", "INVALID", "INVALID"
      twoStroke  = bits,   U08,     116, [2:2], "Four-stroke", "Two-stroke"
      injType    = bits,   U08,     116, [3:3], "Port", "Throttle Body"
      nCylinders = bits,   U08,     116, [4:7+1]
      ; Config3
      cltType    = bits,   U08,     117, [0:1], "GM", "Unknown1", "Unknown2", "Unknown3"
      matType    = bits,   U08,     117, [2:3], "GM", "Unknown1", "Unknown2", "Unknown3"
      nInjectors = bits,   U08,     117, [4:7+1]
      ; Config3
      engineType = bits,   U08,     118, [0:0], "Even fire",     "Odd fire"
      egoType    = bits,   U08,     118, [1:1], "Narrow band",   "Wide band"
      algorithm  = bits,   U08,     118, [2:2], "Speed Density", "Alpha-N"
      baroCorr   = bits,   U08,     118, [3:3], "Off",           "On"

      primePulse = scalar, U08,     119,        "ms",        0.1,       0.0,   0.0,    25.5,      1
      egoRPM     = scalar, U08,     120,        "RPM",     100.0,       0.0,   100,   25500,      0
#if CELSIUS
      fastIdleT  = scalar, U08,     121,        "°C",      0.555,     -72.0,   -40,     102,      1
#else
      fastIdleT  = scalar, U08,     121,        "°F",      1.0,       -40.0,   -40,     215,      0
#endif
      egoSwitch  = scalar, U08,     122,        "v",      0.0196,       0.0,   0.0,     5.0,      3
      taeColdM   = scalar, U08,     123,        "%",         1.0,       0.0,   0.0,   250.0,      0

;-------------------------------------------------------------------------------

[Menu]

   ;----------------------------------------------------------------------------
   ;  There are five pre-defined values that may be used to define your menus.
   ;  The first four allow access to the "standard" dialog boxes, the last one
   ;  merely draws a separator (horizontal line) in the menu.
   ;
   ;     std_constants
   ;     std_enrichments
   ;     std_realtime
   ;     std_warmup
   ;
   ;     std_separator
   ;
   ;  If you use any of the std_constants, std_enrichments or std_warmup
   ;  editors, they may be optionally suffixed with a page number (only
   ;  useful for multi-page code variants), which causes them to edit the
   ;  specified page.  If you leave off the page specifier, they edit logical
   ;  page one as specified in the Constants section.
   ; 
   ;  There are four special menu names, which when used append to the standard
   ;  menus of the same name instead of creating a new one.  The menu names
   ;  are "File", "Communications", "Tools" and "Help".
   ; 
   ;----------------------------------------------------------------------------

   menu = "&Settings"
      subMenu = std_constants,   "&Constants"
      subMenu = std_enrichments, "&Enrichments"
      subMenu = veTableTbl,      "&VE Table"

   menu = "&Tuning"
      subMenu = std_realtime,    "&Realtime Display"
      subMenu = std_warmup,      "&Warmup Wizard"
      subMenu = veTableMap,      "&VE Table"

;-------------------------------------------------------------------------------

[UserDefined]
; define a MegaTune compatible version here
; no need to for std_enrichments, it is built in.


[UserDefinedTS]
; Enhanced TunerStudio dialogs can be defined here
; MegaTune will over look this section
; These dialogs will over-ride those in the UserDefined Section
; User defined ar loaded first, then if one by the same name is defiend here,
; it will replace the MegaTune definition

; dialog = name,   Title, Layout
;
; valid options for layout are xAxis, yAxis, border
; for an xAxis, each field added will be added from right to left
; A yAxis layout will add fields from top to bottom
; A border layout will expect an additional constraint to determine placement
; valid border constraints are north, South, East, West, Center
; all 5 do not need to be filled.

; The field name can be either a constant reference, or a reference to another 
; dialog which will be added.
; dialogs can be nested and can be mixed with fields

      
   dialog = accelEnrichments, "Acceleration Enrichment"
      field = "TPSdot Threshold", tpsThresh
      field = "Accel Time", taeTime
      field = "Cold Accel Enrichment", taeColdA
      field = "Cold Accel Mult", taeColdM
      field = "Decel Fuel Amount", tdePct
      field = "Acceleration Enrichment Bins (ms)" 
      field = "2 v/s", taeBins1
      field = "4 v/s", taeBins2
      field = "8 v/s", taeBins3
      field = "15 v/s", taeBins4
   
   dialog = crankPW, "Cranking Pulsewidths (ms)"
     #if CELSIUS
	field = "Priming Pulsewidth", primePulse
	field = "Pulsewidth at -40°C", crankCold
	field = "Pulsewidth at 77°C", crankHot
     #else
	field = "Priming Pulsewidth", primePulse
	field = "Pulsewidth at -40°F", crankCold
	field = "Pulsewidth at 170°F", crankHot
     #endif
     
   dialog = aseSettings, "Afterstart Enrichment"
 	field = "Enrichment %", asePct
 	field = "Number of Ignition Cycles", aseCount
 	
   dialog = egoSettings, "Exhaust Gas Oxygen"
        field = "EGO Sensor Type", egoType
        field = "EGO Switch Point (v)", egoSwitch
        field = "Coolant Temp Activation", egoTemp
        field = "Ignition Events Per Step", egoCount
        field = "EGO Step", egoDelta
        field = "EGO ± Limit", egoLimit
        field = "EGO Active Above", egoRPM

   dialog = westEnrichments, "", yAxis
	panel = crankPW 
	panel = aseSettings
	panel = egoSettings
      
   dialog = std_enrichments, "Enrichments", border ; xAxis would work here too, but wanted to give a border example
	topicHelp = "helpEnrichments"
	panel = westEnrichments, West
	panel = accelEnrichments, East

; -------------------------------------------------------------
; Help down here
help = helpEnrichments, "Enrichments Help"
	text = "<strong>Priming Pulse</strong><br><br>"
	text = "The duration in milliseconds of a priming pulse that is applied when the MS controller is powered up.  If you don’t want a priming pulse, set this field to zero.  (Only available for version 2.0 and later of MegaSquirt controller code.)<br>"

	text = "<br><strong>Cranking Pulsewidth</strong><br><br>"
	text = "Cranking pulse width determines how long the injector will be open in milliseconds for each pulse while the engine is cranking (i.e., the RPM is below 300).  The actual pulse width is determined by performing linear interpolation on the line described by the end points you enter for the "-40 degrees F" and "170 degrees F" values.  For instance, if you enter 10.0 ms as the pulse width at -40 F and 2.0 ms at 170 F, the pulse width will be 6.0 ms when you start your engine at 65 F.<br>"
	text = "Note: Cranking pulse occur at every ignition event, while running pulses only occur at the interval specified on the constants page; if you have a 4 cylinder engine and are taking the tachometer signal from the coil, then you will get four (4) cranking pulses per cycle and depending on settings one injection per cycle while running.<br>"
	text = "The MS variables "CWU" and "CWH" hold the low temperature and high temperature pulse widths, respectively.<br>"

	text = "<br><strong>Afterstart Enrichment</strong><br>"
	text = "The afterstart enrichment is one that decays from its max value (specified in the "Enrichment (percent)" field) to zero in a linear fashion over a period defined in "Number of Ignition Cycles."  If you specify 20% enrichment over 250 ignition cycles, then the first pulse is enriched by 20%, the 125th pulse is enriched by 10% and the 250th (and later) by zero percent (this assumes 1 event per cycle, or a 1 cylinder engine; divide by the number of ignition events per cycle to get the specific behavior for your motor).<br>"
	text = "MS stores these values in the flash constants called "AWC" (Afterstart Warmup Count) and "AWEV" (Afterstart Warmup Enrichment Value).<br>"

	text = "<br><strong>Exhaust Gas Oxygen Sensor Parameters</strong><br>"
	text = "These parameters define the closed loop behavior of MS.  You must have a narrow band O2 sensor hooked up for this mode to work in v.1.0 controller code; either a narrow band or wide band will work with v.2.0 of controller code.  To disable closed loop operation altogether, set the EGO Step value to zero.<br>"

	text = "<br><strong>EGO Sensor Type</strong><br>"
	text = "Specify either a narrow band sensor or wide band sensor.  Functionally this merely sets the direction sense of the sensor voltage.  For narrow band sensors, the voltage rises as the mixture is richening and drops as the mixture becomes lean.  The wide band setting corresponds to the opposite sense, i.e., voltage drops to indicate enrichment (this is how the DIY-WB operates, not necessarily all WB sensors!).  (Available in v 2.0 controller code.)<br>"

	text = "<br><strong>EGO Switch Point (v)</strong><br>"
	text = "This is the switching point voltage that indicates stoichiometric combustion (approximately 14.7:1 with gasoline).  For narrow band sensors this is 0.5 v*; for the DIY-WB wideband sensor it is 2.5 v (for other wideband sensors this voltage may be quite different).  (This value is only active in v 2.0 controller code.)<br>"
	text = "*This is true for zirconia NB sensors, which are used almost exclusively in modern vehicles.  The titania NB sensor has a different voltage range (1-5 v), but is rarely used.<br>"

	text = "<br><strong>Coolant Temp Activation (°F)</strong><br>"
	text = "This is the temperature below which closed loop operation is disabled.  If this value is too low, then closed loop will try to lean out the warmup enrichments and you may experience rough running.  Typical value is 160 F and should somewhat above the point at which warmup enrichment stops (see the Warmup Enrichment Bins settings and find the lowest on which contains 100).<br>"
	text = "The MS value "EGOTEMP" stores this quantity.<br>"

	text = "<br><strong>Ignition Events Per Step</strong><br>"
	text = "This value determines the rate at which the closed loop algorithm applies correction.  The default value of 32, when used on a four cylinder engine with four ignition events per cycle, tells MS to wait for 8 cycles before changing the current correction factor.<br>"

	text = "<br><strong>EGO Step (percent)</strong><br>"
	text = "Once the closed loop algorithm has decided to change the correction factor, it adds or subtracts this percentage from the current value.  This should move slowly to avoid unstable response, so make sure it is small, 1% being the default.<br>"

	text = "<br><strong>EGO   Limit (%)</strong><br>"
	text = "Closed loop operation should not be substituted for proper tuning!  This value limits the correction that can be made by the closed loop algorithm, the default of 10% indicates the correction factor cannot go outside the range 90-110%.<br>"

	text = "<br><strong>EGO Active Above RPM</strong><br>"
	text = "This value specifies the lower limit above which closed loop operation occurs.  Typically, your engine will idle best when it is richer than stoich, so turning off closed loop for low RPMs allows this to happen. The default value for the RPM limit is 1200.  (Available only in v 2.0 MS, older versions have a fixed 1200 RPM value in the controller code.)<br>"

	text = "<br><strong>Warmup Enrichment Bins</strong><br>"
	text = "Warmup enrichment is based on coolant temperature.  Since warmup enrichment requirements are usually non-linear, several bins are provided to specify different rates in different temperature domains.<br>"
	text = "Place values in the "-40" through "160 degrees F" fields, typically running from about 120 at -40 F to 100 at 100 F; make sure the values are all 100 or greater.<br>"
	text = "The MS array "WWU" contains these enrichment values.<br>"

	text = "<br><strong>Acceleration Enrichment</strong><br>"
	text = "Acceleration enrichment (AE) occurs when you open the throttle "rapidly" to avoid bogging the engine.  In v.1.01 MS, this is done solely based upon the rate of change in the throttle position sensor (also called TPSDOT).<br>"

	text = "<br><strong>TPSDOT Thresh</strong><br>"
	text = "This is the threshold in v/sec below which no acceleration enrichment will occur (you can move the throttle from idle to full open without acceleration enrichment, if you open it slowly enough).  Depends grossly upon the range of your TPS, a typical value might be 1.2 v/sec.<br>"

	text = "<strong>Tuning Note:</strong>  While you are tuning the VE table you should set this threshold artificially high (maybe 40.0) to disable acceleration enrichment completely.  After the VE table is fairly well-defined, set this back to 1.2 and begin tuning AE.<br>"
	text = "MS stores this value in the "TPSTHRESH" variable.<br>"

	text = "<br><strong>Accel Time (sec)</strong><br>"
	text = "This value indicates how long the acceleration enrichment "squirt" will last.  Typical values are around 1.0 second.  MS stores this value in the variable "TPSACLK."<br>"

	text = "<br><strong>Cold Accel Enrichment (ms)</strong><br>"
	text = "The acceleration enrichment pulse also varies depending upon coolant temperature.  The value specified here is the pulse width added to the value from the bin calculations at -40 F.  The Cold Acceleration Enrichment amount is linearly interpolated from full amount at -40 F down to zero at 165 F.  A typical value might be 2.0 ms.<br>"
	text = "This value is stored in the "TPSACOLD" variable in MS.<br>"

	text = "<br><strong>Cold Accel Multiplier (%)</strong><br>"
	text = "Another means for increasing the amount of fuel delivered by the acceleration enrichment pulse is supplied by this value; it is likewise interpolated from the full specified amount at –40F down to zero at 165 F.  Before the Cold Acceleration Enrichment value is added to the base acceleration enrichment pulsewidth, it is multiplied by this value.<br>"
	text = "Total AE = Base AE * CAM + CAE<br>"
	text = "The difference between the two types of AE cold modify can be easily seen with a few examples:<br>"
	text = "1)	Assume we have a calculated AE pulse of 5.0 ms.  Say our coolant temperature is 40 F,  giving a CAE pulse of 2.0 ms and CAM is turned off (100%).  The result is 5.0+2.0 = 7.0 ms.<br>"
	text = "2)	Assume same base AE and temperature, but now we turn off CAE (0.0 ms) and set CAM to give 140%.  The result is the same, we get 5.0*1.4 = 7.0 ms.<br>"
	text = "3)	Take the first case, but hit the accelerator faster, giving 8.0 ms base AE pulse.  We now have a result of 8.0+2.0 = 10.0 ms.<br>"
	text = "4)	Take case 2, but with the higher base AE pulse, giving 8.0*1.4 = 11.2 ms.<br>"
	text = "The bottom line is that the CAE modifier is constant and independent of the base pulse, where on the other hand, the CAM modifier has a proportional effect on the AE, bigger base pulse means bigger result.<br>"
	text = "This value is stored in the 'ACMULT' variable in MS.<br>"

	text = "<br><strong>Decel Fuel Amount (%)</strong><br>"
	text = "When you let off the throttle rapidly (that is the closing rate exceeds TPSDOT Thresh) and the engine is turning faster than 1500 RPM, then deceleration fuel cutoff is performed by MS.  Deceleration fuel amount is multiplied by the "normal" pulse width, that is, if the calculated pulse is 12.0 ms and you have 20% decel amount, then the resulting pulse width is 2.4 ms.  A value of 100% causes the fuel to remain at its calculated value, and can cure bucking on deceleration in vehicles with manual transmissions; those with automatic transmissions may benefit in fuel economy by using values below 100%.<br>"
	text = "The MS variable "TPSDQ" holds this value as a percentage. <br>"

	text = "<br><strong>Acceleration Enrichment Bins (ms)</strong><br>"
	text = "These bins specify the actual enrichment in terms of pulse width.  They are linearly interpolated to determine a value that is ultimately added to the computed pulse width.<br>"
	text = "The array of values is called "TPSAQ" as stored in MS."




[TableEditor]
   ;       table_id,    map3d_id,    "title",      page
   table = veTableTbl,  veTableMap,  "VE Table",   1
      ;       constant, variable
      xBins       = rpmBins,  rpm
   #if SPEED_DENSITY
      yBins       = mapBins,  map
   #else
      yBins       = tpsBins,  tpsADC
   #endif
      zBins       = veTable

      gridHeight  = 2.0
      gridOrient  = 250,   0, 340 ; Space 123 rotation of grid in degrees.
      upDownLabel = "(RICHER)", "(LEANER)"

;-------------------------------------------------------------------------------

[GaugeConfigurations]

   ;-------------------------------------------------------------------------------
   ;  Notes on some of the gauges.
   ;
   ;  The accelEnrichGauge is now a composite of both acceleration enrichment
   ;  and deceleration enleanment numbers.  See the definition of the variable
   ;  accDecEnrich in the OutputChannels section.
   ;
   ;  David Hooke contributed the lambda gauge and associated transfer
   ;  function files.
   ;
   ;    "The lambda gauge is the best way (my opinion) to report data from a
   ;     wide band EGO gauge, it standardizes the output irrespective of fuel
   ;     or mix of fuels, so you needn't do any brainwork to know if your 75%
   ;     gasoline and 25% methanol is rich at 10:1 or not.
   ;
   ;    "Use the file WBlambda100AVR.inc, if using a standard ADC (e.g., AVR cpu).
   ;     Use the file WBlambda100MOT.inc, if using a biased ADC (e.g., MOT cpu)."
   ;-------------------------------------------------------------------------------
   ; Define a gauge's characteristics here, then go to a specific layout
   ; block (Tuning or FrontPage) and use the name you've defined here to
   ; display that gauge in a particular position.
   ;
   ; Name  = Case-sensitive, user-defined name for this gauge configuration.
   ; Var   = Case-sensitive name of variable to be displayed, see the
   ;         OutputChannels block in this file for possible values.
   ; Title = Title displayed at the top of the gauge.
   ; Units = Units displayed below value on gauge.
   ; Lo    = Lower scale limit of gauge.
   ; Hi    = Upper scale limit of gauge.
   ; LoD   = Lower limit at which danger color is used for gauge background.
   ; LoW   = Lower limit at which warning color is used.
   ; HiW   = Upper limit at which warning color is used.
   ; HiD   = Upper limit at which danger color is used.
   ; vd    = Decimal places in displayed value
   ; ld    = Label decimal places for display of Lo and Hi, above.

   ;Name               Var            Title                 Units     Lo     Hi     LoD    LoW   HiW   HiD vd ld
   baroADCGauge      = baroADC,       "Barometer ADC",      "",        0,   255,     -1,    -1,  256,  256, 0, 0
   mapADCGauge       = mapADC,        "MAP ADC",            "",        0,   255,     -1,    -1,  256,  256, 0, 0
   matADCGauge       = matADC,        "MAT ADC",            "",        0,   255,     -1,    -1,  256,  256, 0, 0
   cltADCGauge       = cltADC,        "CLT ADC",            "",        0,   255,     -1,    -1,  256,  256, 0, 0
   tpsADCGauge       = tpsADC,        "TPS ADC",            "",        0,   255,     -1,    -1,  256,  256, 0, 0
   batADCGauge       = batADC,        "BAT ADC",            "",        0,   255,     -1,    -1,  256,  256, 0, 0

   #if NARROW_BAND_EGO
      egoGauge       = egoVoltage,    "Exhaust Gas Oxygen", "volts",   0,   1.0,    0.2,   0.3,  0.6,  0.8, 2, 2
   #else
      egoGauge       = egoVoltage,    "Exhaust Gas Oxygen", "volts", 0.5,   4.5,    0.0,   0.0,  5.0,  5.0, 2, 2
   #endif
   lambdaGauge       = lambda,        "Lambda",             "",      0.5,   1.5,    0.5,   0.7,    2,  1.1, 2, 2

   accelEnrichGauge  = accDecEnrich,  "Accel Enrich",       "%",      50,   150,     -1,    -1,  999,  999, 0, 0
   afrGauge          = afr,           "Air:Fuel Ratio",     "",       10,  19.4,     12,    13,   15,   16, 2, 2
   clockGauge        = secl,          "Clock",              "Seconds", 0,   255,     10,    10,  245,  245, 0, 0
   deadGauge         = deadValue,     "---",                "",        0,     1,     -1,    -1,    2,    2, 0, 0
   dutyCycleGauge    = dutyCycle,     "Duty Cycle",         "%",       0,   100,     -1,    -1,   85,   90, 1, 1
   egoCorrGauge      = egoCorrection, "EGO Correction",     "%",      50,   150,     90,    99,  101,  110, 0, 0

   gammaEnrichGauge  = gammaEnrich,   "Gamma Enrichment",   "%",      50,   150,     -1,    -1,  151,  151, 0, 0
   mapGauge          = map,           "Engine MAP",         "kPa",     0,   255,      0,    20,  200,  245, 0, 0
   pulseWidthGauge   = pulseWidth,    "Pulse Width",        "mSec",    0,  25.5,    1.0,   1.2,   20,   25, 1, 1
   tachometer        = rpm,           "Engine Speed",       "RPM",     0,  8000,    300,   600, 3000, 5000, 0, 0
   throttleGauge     = throttle,      "Throttle Position",  "%TPS",    0,   100,     -1,     1,   90,  100, 0, 0
   veBucketGauge     = veTuneValue,   "VE Value",           "%",       0,   120,     -1,    -1,  999,  999, 0, 0
   veGauge           = veCurr,        "VE Current",         "%",       0,   120,     -1,    -1,  999,  999, 0, 0
   voltMeter         = batteryVoltage,"Battery Voltage",    "volts",   7,    21,      8,     9,   15,   16, 2, 2
   warmupEnrichGauge = warmupEnrich,  "Warmup Enrichment",  "%",     100,   150,     -1,    -1,  101,  105, 0, 0

#if CELSIUS
   cltGauge          = coolant,       "Coolant Temp",       "%TEMP", -40,   120,    -15,     0,   95,  105, 0, 0
   matGauge          = mat,           "Manifold Air Temp",  "%TEMP", -40,   110,    -15,     0,   95,  100, 0, 0
#else
   cltGauge          = coolant,       "Coolant Temp",       "%TEMP", -40,   250,      0,    30,  200,  220, 0, 0
   matGauge          = mat,           "Manifold Air Temp",  "%TEMP", -40,   215,      0,    30,  200,  210, 0, 0
#endif

;-------------------------------------------------------------------------------

[FrontPage]
#if NARROW_BAND_EGO
   egoLEDs         = 0.0, 1.0, 0.5 ; NB settings.
#else
   ; If you reverse these range values as you see below, then the LED
   ; bar will work as you expect, high on the right, low on the left.
   egoLEDs         = 4.0, 1.0, 2.5 ; WB settings.
#endif

   ; Gauges are numbered left to right, top to bottom.
   ;
   ;    1  2  3  4
   ;    5  6  7  8

   gauge1 = tachometer
#if SPEED_DENSITY
   gauge2 = throttleGauge
#else
   gauge2 = tpsADCGauge
#endif
   gauge3 = pulseWidthGauge
   gauge4 = dutyCycleGauge
   gauge5 = mapGauge
   gauge6 = matGauge
   gauge7 = cltGauge
   gauge8 = gammaEnrichGauge

;-------------------------------------------------------------------------------


[RunTime]
   barHysteresis = 2.5 ; Seconds
#if CELSIUS
   coolantBar    = -40,  100
   matBar        = -40,  100
#else
   coolantBar    = -40,  215
   matBar        = -40,  215
#endif

   batteryBar    =   6,   15
   dutyCycleBar  =   0,  100
#if NARROW_BAND_EGO
   egoBar        =   0,    1.0
#else
   egoBar        =   0,    5.0
#endif
   gammaEBar     =   0,  200
   mapBar        =   0,  255
   pulseWidthBar =   0,   25.5
   rpmBar        =   0, 8000
   throttleBar   =   0,  100

   egoCorrBar    =   0,  200
   baroCorrBar   =   0,  200
   warmupCorrBar =   0,  200
   airdenCorrBar =   0,  200
   veCorrBar     =   0,  200
   accCorrBar    =   0,  100

;-------------------------------------------------------------------------------

[Tuning]
#if NARROW_BAND_EGO
   egoLEDs         = 0.0, 1.0, 0.5 ; NB settings.
#else
   ; If you reverse these range values as you see below, then the LED
   ; bar will work as you expect, high on the right, low on the left.
   egoLEDs         = 4.0, 1.0, 2.5 ; WB settings.
#endif

   font            = "Courier", 14
   spotDepth       =   2 ; 0 = no indicators, 1 = Z only, 2 = XYZ indicators.
   cursorDepth     =   2 ; Same as spot depth.

   ; The four radio buttons on the tuning screen select a "page" of six
   ; gauges.  The gauge numbering is the same as the front page, across
   ; then down.
   ;             1  2
   ;             3  4
   ;             5  6
   ;
   ; gaugeColumns allows you to hide or show gauges in column 2 (i.e.,
   ; gauges 2, 4 and 6).

   gaugeColumns = 2 ; Only 1 or 2 are valid.

   ;----------------------------------------------------------------------------
   ; Notes on tuning screen gauges:
   ;   pageButtons = Labels for radio buttons at bottom of tuning dialog.
   ;
   ;   Gauge 2 previously switched automatically to be tpsGauge when alpha-n
   ;   was enabled, but you need to do it manually now.
   ;----------------------------------------------------------------------------
   ;              Page 1            Page 2             Page 3            Page 4
   pageButtons  = "&EGO",           "&WUE",            "PW&1",           "PW&2"
   gauge1       = tachometer,       tachometer,        tachometer,       tachometer
   gauge2       = mapGauge,         mapGauge,          mapGauge,         mapGauge
   gauge3       = egoGauge,         egoGauge,          egoGauge,         egoGauge
   gauge4       = egoCorrGauge,     warmupEnrichGauge, pulseWidthGauge,  pulseWidthGauge
   gauge5       = veBucketGauge,    veBucketGauge,     veBucketGauge,    veBucketGauge
   gauge6       = accelEnrichGauge, accelEnrichGauge,  dutyCycleGauge,   dutyCycleGauge

;-------------------------------------------------------------------------------

[OutputChannels]
   ; The number of bytes MegaTune should expect as a result
   ; of sending the "A" command to MegaSquirt is determined
   ; by the value of ochBlockSize, so be very careful when
   ; you change it.

   deadValue        = { 0 } ; Convenient unchanging value.

   ochGetCommand    = "A"

   ochBlockSize     =  22

   secl             = scalar, U08,  0, "sec",    1.000, 0.000
   squirt           = scalar, U08,  1, "bits",   1.000, 0.000
   engine           = scalar, U08,  2, "bits",   1.000, 0.000
   baroADC          = scalar, U08,  3, "ADC",    1.000, 0.000
   mapADC           = scalar, U08,  4, "ADC",    1.000, 0.000
   matADC           = scalar, U08,  5, "ADC",    1.000, 0.000
   cltADC           = scalar, U08,  6, "ADC",    1.000, 0.000
   tpsADC           = scalar, U08,  7, "ADC",    1.000, 0.000
   batADC           = scalar, U08,  8, "ADC",    1.000, 0.000
   egoADC           = scalar, U08,  9, "ADC",    1.000, 0.000
   egoCorrection    = scalar, U08, 10, "%",      1.000, 0.000
   airCorrection    = scalar, U08, 11, "%",      1.000, 0.000
   warmupEnrich     = scalar, U08, 12, "%",      1.000, 0.000
   rpm100           = scalar, U08, 13, "r100",   1.000, 0.000
   pulseWidth       = scalar, U08, 14, "ms",     0.100, 0.000
   accelEnrich      = scalar, U08, 15, "%",      1.000, 0.000
   baroCorrection   = scalar, U08, 16, "%",      1.000, 0.000
   gammaEnrich      = scalar, U08, 17, "%",      1.000, 0.000
   veCurr           = scalar, U08, 18, "%",      1.000, 0.000
   blank1           = scalar, U08, 19 ; Raw inputs, as they come from MS.
   blank2           = scalar, U08, 20
   blank3           = scalar, U08, 21

   ; Computed output channels.  See "megatuneExamples.ini" for all the
   ; pre-defined variables, search for "???" and you'll see them.

   accDecEnrich     = { accelEnrich + ((engine & 0b00100000) ? tdePct : 100) }
   batteryVoltage   = { batADC / 255.0 * 30.0                        } ; Current MS power supply voltage.
   coolant          = { tempCvt(table(cltADC, "thermfactor.inc")-40) } ; Coolant sensor temperature in user units.
   egoVoltage       = { egoADC / 255.0 * 5.0                         } ; EGO sensor voltage.
   mat              = { tempCvt(table(matADC, "matfactor.inc")-40)   } ; Manifold temperature in user units.
   rpm              = { rpm100*100                                   } ; True RPM.
   time             = { timeNow                                      } ; "timeNow" is a parameterless built-in function.

   afrtarget        = { 0 }
#include "lambdaSensors.ini"

#if MPX4250
   barometer        = { table(baroADC, "kpafactor4250.inc")          }
   map              = { table(mapADC,  "kpafactor4250.inc")          } ; Manifold pressure in kPa.
#else
   barometer        = { table(baroADC, "kpafactor4115.inc")          }
   map              = { table(mapADC,  "kpafactor4115.inc")          }
#endif
   throttle         = { table(tpsADC,  "throttlefactor.inc")         }

   idleDC           = { (coolant < fastIdleT) * 100                  }

   altDiv           = { alternate ? 2 : 1                            }
   cycleTime        = { 60000.0 / rpm * (2.0-twoStroke)              }
   nSquirts         = { nCylinders/divider                           }
   dutyCycle        = { 100.0*nSquirts/altDiv*pulseWidth/cycleTime   }

;-------------------------------------------------------------------------------

[Datalog]
   ; Full datalog.
   ;
   ; Default user-defined log emulates the full datalog.
   ;
   ; The entries are saved in the datalog file in the order in
   ; which they appear in the list below.
   ;
   ;   Channel - Case sensitive name of output channel to be logged.
   ;   Label   - String written to header line of log.  Be careful
   ;             about changing these, as programs like MSLVV and
   ;             MSTweak key off specific column names.
   ;   Type    - Data type of output, converted before writing.
   ;   Format  - C-style output format of data.
   ;
   ;       Channel          Label          Type    Format
   ;       --------------   ----------     -----   ------
   entry = time,            "Time",        float,  "%.3f"
   entry = secl,            "SecL",        int,    "%d"
   entry = rpm100,          "RPM",         int,    "%d"
   entry = map,             "MAP",         int,    "%d"
   entry = throttle,        "TP",          int,    "%d"
   entry = egoVoltage,      "O2",          float,  "%.3f"
   entry = mat,             "MAT",         float,  "%.1f"
   entry = coolant,         "CLT",         float,  "%.1f"
   entry = engine,          "Engine",      int,    "%d"
   entry = egoCorrection,   "Gego",        int,    "%d"
   entry = airCorrection,   "Gair",        int,    "%d"
   entry = warmupEnrich,    "Gwarm",       int,    "%d"
   entry = baroCorrection,  "Gbaro",       int,    "%d"
   entry = gammaEnrich,     "Gammae",      int,    "%d"
   entry = accDecEnrich,    "TPSacc",      int,    "%d"
   entry = veCurr,          "Gve",         int,    "%d"
   entry = pulseWidth,      "PW",          float,  "%.1f"
   entry = blank2,          "Gve2",        int,    "%d"
   entry = pulseWidth,      "PW2",         float,  "%.1f"
   entry = dutyCycle,       "DutyCycle1",  float,  "%.1f"
   entry = dutyCycle,       "DutyCycle2",  float,  "%.1f"
   entry = blank1,          "UserData1",   int,    "%d"
   entry = blank2,          "UserData2",   int,    "%d"
   entry = blank3,          "UserData3",   int,    "%d"
