heptagon/examples/MissionComputer_for_Core/mc.ept

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open CstArrayInit
open Mc_TypeSensors
open Mc_ext
open TypeTracks
open TypeBase
open TypeArray
const trackarrayinit : bool = false
(* safe state machine for the computing of radar or iff state
state ident: state.0 *)
node statecmd(onoffbuttonpressed : bool (*last = false*);
currentstate : tsensorstate)
returns (onoffcmd : bool)
let
automaton
state Off
do onoffcmd = false;
unless onoffbuttonpressed & currentstate = TState_OFF then On
state On
do onoffcmd = true;
unless onoffbuttonpressed & currentstate = TState_ON then Off
end
tel
(* compute the new radar state each time on/off button
is pressed *)
node mc_rdrstatecmd(rdronoffbutton : bool; currentrdrstate : tsensorstate)
returns (rdronoffcmd : bool)
let
rdronoffcmd =
statecmd(Digital.risingEdge(rdronoffbutton), currentrdrstate);
tel
(* compute the new iff state each time on/off button
is pressed *)
node mc_iffstatecmd(iffonoffbutton : bool; currentiffstate : tsensorstate)
returns (iffonoffcmd : bool)
let
iffonoffcmd =
statecmd(Digital.risingEdge(iffonoffbutton), currentiffstate);
tel
(* safe state machine for the computing of radar mode
state ident: state.6 *)
node rdrmodecmd(currentstate : tsensorstate;
modebuttonpressed : bool(* last = false*);
currentmode : trdrmode)
returns (modecmd : bool)
let
automaton
state Wide
do modecmd = false;
unless (modebuttonpressed &
(currentstate = TState_ON &
currentmode = TRdrMode_WIDE)) then Narrow
state Narrow
do modecmd = true;
unless (modebuttonpressed &
(currentstate = TState_ON &
currentmode = TRdrMode_NARROW)) then Wide
end
tel
(* compute the new radar mode each time on/off button
is pressed *)
node mc_rdrmodecmd(currentrdrstate : tsensorstate;
rdrmodebutton : bool;
currentrdrmode : trdrmode)
returns (rdrmodecmd : bool)
let
rdrmodecmd =
rdrmodecmd(currentrdrstate, Digital.risingEdge(rdrmodebutton),
currentrdrmode);
tel
(* compute the radar mode, according to the corresponding
input command from the mission computer *)
fun radar_mode(modecmd : bool) returns (mode : trdrmode)
let
mode = if modecmd then TRdrMode_NARROW else TRdrMode_WIDE;
tel
(* compute the radar state, according to:
- the corresponding input command from the mission computer
- the failure state of the radar *)
node radar_state(onoffcmd, failure : bool)
returns (initializing : bool; st : tsensorstate)
var x : bool;
let
initializing = st = TState_OFF & onoffcmd;
(* x = fby (onoffcmd; 5; false) *)
x = false fby false fby false fby false fby false fby onoffcmd;
st =
if failure
then TState_FAIL
else if (if onoffcmd then x else false)
then TState_ON
else TState_OFF;
tel
(* elaborate and generate the (up to 2) tracks detected
by the radar (position + speed + distance + rate of
closing) *)
node radar_tracks(st : tsensorstate;
tracks : TypeArray.ttracksarray;
rdrdetectedtracks : TypeArray.tdetectedrdrtracksarray)
returns (rdrtracks : TypeArray.trdrtracksarray)
var
l22 : TypeTracks.ttrack^ksizerdrtracksarray;
l30 : TypeTracks.trdrtrack^ksizerdrtracksarray;
let
rdrtracks = if st = TState_ON then l30 else kinitrdrtrackarray;
l30 = map<<ksizerdrtracksarray>> Trackslib.elaboraterdrtrack(l22);
l22 =
map<<ksizerdrtracksarray>> Trackslib.selectdetectedtrack(
rdrdetectedtracks, tracks^ksizerdrtracksarray,
CstTracksInit.kinittrack^ksizerdrtracksarray);
tel
(* scade representation for the radar, generating:
1) the radar state
2) the radar mode
3) the (up to 2) tracks detected by the radar *)
node radar(onoffcmd, modecmd, failure : bool;
rdrdetectedtracks : TypeArray.tdetectedrdrtracksarray;
tracks : TypeArray.ttracksarray)
returns (initializing : bool;
st : tsensorstate;
mode : trdrmode;
rdrtracks : TypeArray.trdrtracksarray)
let
rdrtracks = radar_tracks(st, tracks, rdrdetectedtracks);
mode = radar_mode(modecmd);
(initializing, st) = radar_state(onoffcmd, failure);
tel
(* compute the iff state, according to:
- the corresponding input command from the mission computer
- the failure state of the iff *)
node iff_state(onoffcmd, failure : bool)
returns (initializing : bool; st : tsensorstate)
var x : bool;
let
initializing = st = TState_OFF & onoffcmd;
(* x = fby (onoffcmd; 5; false) *)
x = false fby false fby false fby false fby false fby onoffcmd;
st =
if failure
then TState_FAIL
else if (if onoffcmd then x else false)
then TState_ON
else TState_OFF;
tel
fun ifftrack_of_track(track : TypeTracks.ttrack)
returns (ifftrack : TypeTracks.tifftrack)
let
ifftrack = { i_pos = track.t_pos; i_id = track.t_id };
tel
(* elaborate and generate the (up to 2) tracks detected
by the iff (position + identifier) *)
fun iff_tracks(st : tsensorstate;
tracks : TypeArray.ttracksarray;
iffdetectedtracks : TypeArray.tdetectedifftracksarray)
returns (ifftracks : TypeArray.tifftracksarray)
var l34 : TypeTracks.ttrack^TypeArray.ksizeifftracksarray;
l40 : TypeArray.tifftracksarray;
let
l34 =
map<<ksizeifftracksarray>> Trackslib.selectdetectedtrack(
iffdetectedtracks, tracks^ksizeifftracksarray,
CstTracksInit.kinittrack^ksizeifftracksarray);
l40 = map<<ksizeifftracksarray>> ifftrack_of_track(l34);
ifftracks = if st = TState_ON then l40 else kinitifftrackarray;
tel
(* scade representation for the iff, generating:
1) the iff state
2) the (up to 2) tracks detected by the iff *)
node iff(tracks : TypeArray.ttracksarray;
failure : bool;
iffdetectedtracks : TypeArray.tdetectedifftracksarray;
onoffcmd : bool)
returns (st : tsensorstate;
ifftracks : TypeArray.tifftracksarray;
initializing : bool)
let
ifftracks = iff_tracks(st, tracks, iffdetectedtracks);
(initializing, st) = iff_state(onoffcmd, failure);
tel
node advrandr(min, max : float) returns (output1 : float)
let
output1 = (max -. min) *. rand() +. min;
tel
node advrandi(min, max, step : int) returns (output1 : int)
var l8 : int;
let
l8 = if 0 <> step then step else 1;
output1 = (int_of_float (float_of_int (max - min) *. rand())
+ min) / (l8 * l8);
tel
(* for one given track, generate:
1) its new position according to:
- its previous position, the input speed and slope
if set/reset button not pressed
- the input initial position if set/reset button pressed
2) its identifier according to the input identifier *)
node createtracks_createonetrack_init_rand()
returns (sloperadinit, speedinit, xmeterinit, ymeterinit : float;
idinit : int)
let
speedinit = advrandr(250.0, 1000.0) *. CstPhysics.t;
ymeterinit = CstPhysics.nm *. advrandr(-. 10.0, 10.0);
xmeterinit = advrandr(-. 10.0, 10.0) *. CstPhysics.nm;
sloperadinit = 2.0 *. CstPhysics.pi *. advrandr(0.0, 360.0) /. 360.0;
idinit = advrandi(0, 1000, 10);
tel
(* for one given track, generate:
1) its new position according to:
- its previous position, the input speed and slope
if set/reset button not pressed
- the input initial position if set/reset button pressed
2) its identifier according to the input identifier *)
node createtracks_createonetrack_rand(res : bool)
returns (track : TypeTracks.ttrack)
var id : int; sloperad, speedt, x0, y0, l9, l18 : float;
let
(* (sloperad, speedt, x0, y0, id) =
(activate createtracks_createonetrack_init_rand every reset initial default (
0., 0., 0., 0., 0))(); *)
(sloperad, speedt, x0, y0, id) =
if res then createtracks_createonetrack_init_rand()
else (0.0, 0.0, 0.0, 0.0, 0) fby (sloperad, speedt, x0, y0, id);
l18 = y0 -> Mathext.sinr(sloperad) *. speedt +. (y0 -> pre l18);
l9 = x0 -> (x0 -> pre l9) +. speedt *. Mathext.cosr(sloperad);
track = { t_pos = { x = l9; y = l18 }; t_id = id };
tel
(* generate up to 4 tracks (position + identifier) according
to the graphical track inputs panel. *)
node createtracks_rand(res : bool)
returns (tracks : TypeArray.ttracksarray)
let
tracks = map<<ksizetracksarray>> createtracks_createonetrack_rand(res^ksizetracksarray);
tel
node createalltracks(res : bool)
returns (tracks : TypeArray.ttracksarray)
let
(* tracks = (restart createtracks_rand every res)(res); *)
reset
tracks = createtracks_rand(res);
every res
tel
(* merge a mission track detected by the radar with a
mission track detected by the iff if they have the same
position and speed.
in that case, newrdrmissiontrack is the merged track, and newiffmissiontrack is reset to "empty".
otherwise, outputs = inputs *)
fun fusionrdrifftracks(iffmissiontrack, rdrmissiontrack
: TypeTracks.tmissiontrack)
returns (newiffmissiontrack, newrdrmissiontrack
: TypeTracks.tmissiontrack)
var l90 : bool;
let
newrdrmissiontrack =
if l90
then { m_pos = rdrmissiontrack.m_pos;
m_speed = rdrmissiontrack.m_speed;
m_id = iffmissiontrack.m_id;
m_priority = rdrmissiontrack.m_priority;
m_d = rdrmissiontrack.m_d;
m_sabs = rdrmissiontrack.m_sabs;
m_sr = rdrmissiontrack.m_sr;
m_detectedbyradar = rdrmissiontrack.m_detectedbyradar;
m_detectedbyiff = iffmissiontrack.m_detectedbyiff;
m_tracknumber = 0;
m_targettype = iffmissiontrack.m_targettype;
m_isvisible = rdrmissiontrack.m_isvisible;
m_angle = rdrmissiontrack.m_angle }
else rdrmissiontrack;
l90 =
Trackslib.comparetracks(rdrmissiontrack.m_pos, iffmissiontrack.m_pos,
rdrmissiontrack.m_speed, iffmissiontrack.m_speed);
newiffmissiontrack =
if l90
then CstTracksInit.kinitmissiontrack
else iffmissiontrack;
tel
(* merge tracks data received from both radar and iff sensors *)
fun mc_tracks_fusion_onerdrwithifftracks(rdrtrack : TypeTracks.tmissiontrack;
ifftracks : TypeTracks.tmissiontrack^ksizeifftracksarray)
returns (fusionnedrdrtrack : TypeTracks.tmissiontrack;
fusionnedifftracks : TypeTracks.tmissiontrack^ksizeifftracksarray)
let
(fusionnedifftracks, fusionnedrdrtrack) =
mapfold<<ksizeifftracksarray>> fusionrdrifftracks(ifftracks, rdrtrack);
tel
(* merge tracks data received from both radar and iff sensors *)
node mc_tracks_fusion(rdrtracks : TypeArray.trdrtracksarray;
ifftracks : TypeArray.tifftracksarray)
returns (missiontracks : TypeArray.tmissiontracksarray)
var
mergedrdrtracks : TypeTracks.tmissiontrack^ksizerdrtracksarray;
mergedifftracks : TypeTracks.tmissiontrack^ksizeifftracksarray;
l140 : TypeTracks.tmissiontrack^ksizerdrtracksarray;
l139 : TypeTracks.tmissiontrack^ksizeifftracksarray;
let
missiontracks = mergedrdrtracks @ mergedifftracks;
(mergedrdrtracks, mergedifftracks) =
mapfold<<ksizerdrtracksarray>> mc_tracks_fusion_onerdrwithifftracks(l140, l139);
l140 = map<<ksizerdrtracksarray>> Trackslib.convertrdrtracktomissiontrack(rdrtracks);
l139 = map<<ksizeifftracksarray>> Trackslib.convertifftracktomissiontrack(ifftracks);
tel
fun prio_tracknumbernotinarray(missiontracktracknumber,
prioritytrack : int; acc : bool)
returns (notinarray : bool)
let
notinarray = acc & missiontracktracknumber <> prioritytrack;
tel
(* replace the lowest priority track in priorityarray by missiontrack *)
node prio_selecthighestprioritynotinpriorityarray(
missiontrack : TypeTracks.tmissiontrack;
prioritiesarray : Mc_TypeLists.tpriorityList;
accprioritymissiontrack : TypeTracks.tmissiontrack)
returns (prioritymissiontrack : TypeTracks.tmissiontrack)
var
missiontracknotinpriorittiesarray,
missiontrackhashigherprioritythanacc : bool;
let
missiontrackhashigherprioritythanacc =
not Trackslib.trackalowerprioritythanb(missiontrack,
accprioritymissiontrack);
missiontracknotinpriorittiesarray =
fold<<4>> prio_tracknumbernotinarray(missiontrack.m_tracknumber^4,
prioritiesarray, true);
prioritymissiontrack =
if missiontracknotinpriorittiesarray & missiontrackhashigherprioritythanacc
then missiontrack
else accprioritymissiontrack;
tel
(* for each missiontrack
if priority higher than all in priorityarray and not in priorityarray
then, copy in priorityarray at index *)
node prio_selectprioritarymissiontracks(missiontracks : TypeArray.tmissiontracksarray;
prioritiesarray : Mc_TypeLists.tpriorityList;
indexpriority : int)
returns (newprioritiesarray : Mc_TypeLists.tpriorityList)
var missiontrackwithhighestpriority : TypeTracks.tmissiontrack;
let
newprioritiesarray =
[ prioritiesarray with [indexpriority] =
missiontrackwithhighestpriority.m_tracknumber ];
missiontrackwithhighestpriority =
fold<<ksizemissiontracksarray>> prio_selecthighestprioritynotinpriorityarray(
missiontracks,
prioritiesarray^ksizemissiontracksarray, CstTracksInit.kinitmissiontrack);
tel
fun prio_setpriorityinmissiontrack(prioritytracknumber : int;
priorityindex : int;
missiontrack : TypeTracks.tmissiontrack)
returns (missiontrackwithprio : TypeTracks.tmissiontrack)
let
missiontrackwithprio =
if prioritytracknumber = missiontrack.m_tracknumber
then Trackslib.setmissiontrackpriority(missiontrack, priorityindex + 1)
else missiontrack;
tel
fun prio_setpriorityinmissiontrackarray(priorityarray : Mc_TypeLists.tpriorityList;
missiontrack : TypeTracks.tmissiontrack)
returns (missiontrackwithprio : TypeTracks.tmissiontrack)
let
missiontrackwithprio =
foldi<<4>> prio_setpriorityinmissiontrack(priorityarray, missiontrack);
tel
(* set the priority in missiontracks:
1) set the highest prority
2) set the second priority=highest different from the previous
3) set the 3rd priority=highest different from the previous
3) set the 4th priority=highest different from the previous
=> the 4 priority track should be in an array (initialized to "empty")
operator selectprioritymissiontracks inputs
- missiontracks
- prioritytrack set (to perform the "different from the previous")
*test for each missiontrack: the higest, and not already in prioritytracks.
*then, set the ith element of prioritytracks with the one found
for each missiontrack, if prioritary higher than the lowest 4 prioritary
old: compute each detected track priority, and sort tracks
according to their priority *)
node mc_tracks_prio(missiontracks : TypeArray.tmissiontracksarray)
returns (missiontrackswithprio : TypeArray.tmissiontracksarray)
var prioritytracknumbers : Mc_TypeLists.tpriorityList;
let
missiontrackswithprio =
map<<ksizemissiontracksarray>> prio_setpriorityinmissiontrackarray(
prioritytracknumbers^ksizemissiontracksarray, missiontracks);
prioritytracknumbers =
prio_selectprioritarymissiontracks(missiontracks,
prio_selectprioritarymissiontracks(missiontracks,
prio_selectprioritarymissiontracks(missiontracks,
prio_selectprioritarymissiontracks(missiontracks, 0^4, 0), 1), 2),
3);
tel
(* associate a track number to each detected track *)
node mc_tracks_tracknumber(withouttracknb : TypeArray.tmissiontracksarray)
returns (withtracknumber : TypeArray.tmissiontracksarray)
var l81 : int;
let
(withtracknumber, l81) =
mapfold<<ksizemissiontracksarray>> Trackslib.calculatemissiontracknumber
((kinitmissiontrackarray -> pre withtracknumber)^ksizemissiontracksarray,
withouttracknb, 0 -> pre l81);
tel
(* 1) merge tracks data received from both radar and iff sensors
2) associate a track number to each detected track
3) compute each detected track priority, and sort tracks
according to their priority *)
node mc_tracks(rdrtracks : TypeArray.trdrtracksarray;
ifftracks : TypeArray.tifftracksarray)
returns (missiontracks : TypeArray.tmissiontracksarray)
let
missiontracks =
mc_tracks_prio(mc_tracks_tracknumber(mc_tracks_fusion(rdrtracks,
ifftracks)));
tel
(* scade representation for the mission computer, computing:
- the new radar state
- the new radar mode
- the new iff state
- the (up to 4) tracks detected by the fighter *)
node mc(currentrdrstate : tsensorstate;
currentrdrmode : trdrmode;
rdrtracks : TypeArray.trdrtracksarray;
rdronoffbutton, rdrmodebutton, iffonoffbutton : bool;
currentiffstate : tsensorstate;
ifftracks : TypeArray.tifftracksarray)
returns (rdronoffcmd, rdrmodecmd : bool;
missiontracks : TypeArray.tmissiontracksarray;
iffonoffcmd : bool)
let
missiontracks = mc_tracks(rdrtracks, ifftracks);
iffonoffcmd = mc_iffstatecmd(iffonoffbutton, currentiffstate);
rdrmodecmd = mc_rdrmodecmd(currentrdrstate, rdrmodebutton, currentrdrmode);
rdronoffcmd = mc_rdrstatecmd(rdronoffbutton, currentrdrstate);
tel