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databeamnew/LuaLibs/MachiningLib.lua
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luca.mazzoleni a6ddaa8bbd - alcune correzioni nel calcolo approccio retrazione per lavorazioni di coda e split
- in STR0003 aggiunta gestione lavorazioni di coda per sega a catena
2024-12-03 16:47:47 +01:00

712 lines
34 KiB
Lua

-- MachiningLib.lua by Egalware s.r.l. 2024/04/02
-- Libreria ricerca lavorazioni per Travi
-- 2024/04/02 PRIMA VERSIONE CALCOLO LAVORAZIONI CON STRATEGIE
-- Tabella per definizione modulo
local MachiningLib = {}
-- Include
require( 'EgtBase')
-- Carico i dati globali
local BeamData = require( 'BeamData')
local BeamLib = require( 'BeamLib')
local FeatureLib = require( 'FeatureLib')
EgtOutLog( ' MachiningLib started', 1)
---------------------------------------------------------------------
-- TODO da considerare solo angolo 2D??
local function GetToolEntryAngle( Proc, vtTool)
local Angle = {}
local dSinAngle = -10 * GEO.EPS_SMALL
local vtNorm
if Proc.AffectedFaces.bTop then
vtNorm = Z_AX()
dSinAngle = max( dSinAngle, vtTool * vtNorm)
end
if Proc.AffectedFaces.bBottom then
vtNorm = -Z_AX()
dSinAngle = max( dSinAngle, vtTool * vtNorm)
end
if Proc.AffectedFaces.bFront then
vtNorm = -Y_AX()
dSinAngle = max( dSinAngle, vtTool * vtNorm)
end
if Proc.AffectedFaces.bBack then
vtNorm = Y_AX()
dSinAngle = max( dSinAngle, vtTool * vtNorm)
end
if Proc.AffectedFaces.bLeft then
vtNorm = -X_AX()
dSinAngle = max( dSinAngle, vtTool * vtNorm)
end
if Proc.AffectedFaces.bRight then
vtNorm = X_AX()
dSinAngle = max( dSinAngle, vtTool * vtNorm)
end
local dCosAngle = sqrt( 1 - sqr( dSinAngle))
local dAngle = acos( dCosAngle)
local dTanAngle
if dAngle ~= 0 and dAngle ~= 90 then
dTanAngle = sqrt( 1 - dCosAngle * dCosAngle) / dCosAngle
end
Angle.dValue = dAngle
Angle.dSin = dSinAngle
Angle.dCos = dCosAngle
Angle.dTan = dTanAngle
return Angle
end
-------------------------------------------------------------------------------------------------------------
function MachiningLib.StartsLeftSide( Machining)
local bStartsLeftSide = ( Machining.vtEdgeDirection:getX() > 10 * GEO.EPS_SMALL and not Machining.bInvert)
or ( not( Machining.vtEdgeDirection:getX() > 10 * GEO.EPS_SMALL) and Machining.bInvert)
return bStartsLeftSide
end
-------------------------------------------------------------------------------------------------------------
-- TODO valutare se c'è un modo più preciso di prevedere i casi in cui le lavorazioni dopo separazione sono da saltare
function MachiningLib.CanMoveAfterSplitcut( dLengthOnX, Part)
local bCanMoveAfterSplitcut = ( Part.dLength > BeamData.dMinRaw + 10 * GEO.EPS_SMALL)
and ( dLengthOnX < 0.7 * Part.dLength - 10 * GEO.EPS_SMALL)
return bCanMoveAfterSplitcut
end
-------------------------------------------------------------------------------------------------------------
function MachiningLib.CanExtendAfterTail( sCanDamageNextPiece, Part)
local bCanExtendAfterTail = false
if sCanDamageNextPiece == 'ALWAYS' then
bCanExtendAfterTail = true
elseif sCanDamageNextPiece == 'ONLY_IF_RAWPART' then
bCanExtendAfterTail = Part.bIsLastPart
end
return bCanExtendAfterTail
end
-------------------------------------------------------------------------------------------------------------
function MachiningLib.GetMachiningSteps( dMachiningDepth, dStep)
local MachiningSteps = {}
MachiningSteps.dStep = 0
MachiningSteps.nCount = ceil( ( dMachiningDepth - 10 * GEO.EPS_SMALL) / dStep)
if MachiningSteps.nCount > 1 then
MachiningSteps.dStep = ( dMachiningDepth - dStep) / ( MachiningSteps.nCount - 1)
end
return MachiningSteps
end
-------------------------------------------------------------------------------------------------------------
function MachiningLib.GetSplitMachinings( Machinings, vSplittingPoints, Part )
for i = #Machinings, 1, -1 do
local nParts = #vSplittingPoints + 1
local dEdgeMaxX = Machinings[i].ptEdge1:getX()
local dEdgeMinX = Machinings[i].ptEdge2:getX()
if Machinings[i].ptEdge1:getX() < Machinings[i].ptEdge2:getX() - 10 * GEO.EPS_SMALL then
dEdgeMaxX = Machinings[i].ptEdge2:getX()
dEdgeMinX = Machinings[i].ptEdge1:getX()
end
if FeatureLib.MachiningNeedsSplitting( Machinings[i].dLengthOnX, Part) then
local dOriginalStartAddLength = Machinings[i].LeadIn.dStartAddLength
local dOriginalEndAddLength = Machinings[i].LeadOut.dEndAddLength
local nCurrentMachiningIndex = i
-- lo spezzone attivo è quello precedente al punto di spezzatura corrente
for j = 1, nParts do
-- check ultimo segmento della lavorazione (NON della feature)
local bIsLastSegment = ( nParts == 1)
or ( ( ( j ~= 1) and vSplittingPoints[j - 1]:getX() > dEdgeMinX + 10 * GEO.EPS_SMALL)
and ( j == nParts or vSplittingPoints[j]:getX() < dEdgeMinX + 10 * GEO.EPS_SMALL))
-- se non è l'ultimo segmento della lavorazione, il punto di spezzatura deve essere all'interno del lato che si sta lavorando
if ( j ~= nParts and ( vSplittingPoints[j]:getX() > dEdgeMinX + 10 * GEO.EPS_SMALL and vSplittingPoints[j]:getX() < dEdgeMaxX - 10 * GEO.EPS_SMALL))
or bIsLastSegment then
if j > 1 then
nCurrentMachiningIndex = nCurrentMachiningIndex + 1
table.insert( Machinings, nCurrentMachiningIndex, BeamLib.TableCopyDeep( Machinings[i]))
end
local dStartAddLength = dOriginalStartAddLength
local dEndAddLength = dOriginalEndAddLength
if MachiningLib.StartsLeftSide( Machinings[nCurrentMachiningIndex]) then
dStartAddLength, dEndAddLength = dEndAddLength, dStartAddLength
end
if j == 1 then
dEndAddLength = - ( vSplittingPoints[j]:getX() - dEdgeMinX) + BeamData.MILL_OVERLAP
elseif j == nParts then
dStartAddLength = - ( dEdgeMaxX - vSplittingPoints[j - 1]:getX()) + BeamData.MILL_OVERLAP
else
dStartAddLength = - ( dEdgeMaxX - vSplittingPoints[j - 1]:getX()) + BeamData.MILL_OVERLAP
dEndAddLength = - ( vSplittingPoints[j]:getX() - dEdgeMinX) + BeamData.MILL_OVERLAP
end
if MachiningLib.StartsLeftSide( Machinings[nCurrentMachiningIndex]) then
dStartAddLength, dEndAddLength = dEndAddLength, dStartAddLength
end
Machinings[nCurrentMachiningIndex].LeadIn.dStartAddLength = dStartAddLength
Machinings[nCurrentMachiningIndex].LeadOut.dEndAddLength = dEndAddLength
end
if not bIsLastSegment then
Machinings[nCurrentMachiningIndex].bMoveAfterSplitcut = false
end
Machinings[nCurrentMachiningIndex].nSegment = j
end
-- anche le lavorazioni non splittate necessitano del segmento assegnato
else
for j = 1, nParts do
local dNextSplitX = dEdgeMaxX
local dPreviousSplitX = dEdgeMinX
if j ~= 1 then
dPreviousSplitX = vSplittingPoints[j - 1]:getX()
elseif j ~= nParts then
dNextSplitX = vSplittingPoints[j]:getX()
end
if dEdgeMinX > dNextSplitX - 10 * GEO.EPS_SMALL and dEdgeMaxX < dPreviousSplitX + 10 * GEO.EPS_SMALL then
Machinings[i].nSegment = j
end
end
end
end
return Machinings
end
-------------------------------------------------------------------------------------------------------------
-- funzione per cercare utensile tipo FRESA con certe caratteristiche
function MachiningLib.FindMill( Proc, ToolSearchParameters)
local ToolInfo = {}
local nBestToolIndex
local dBestToolResidualDepth = 0
for i = 1, #TOOLS do
-- prima verifico che utensile sia compatibile
local bIsToolCompatible = true
-- se viene passato il nome, tutti gli altri sono incompatibili
if ToolSearchParameters.sName and ToolSearchParameters.sName ~= TOOLS[i].sName then
bIsToolCompatible = false
-- si cercano solo frese standard. Se utensile disegnato manualmente, si setta subito che è incompatibile
elseif TOOLS[i].bIsProfiledTool then
bIsToolCompatible = false
-- controlli standard
elseif TOOLS[i].dDiameter > ToolSearchParameters.dMaxToolDiameter then
bIsToolCompatible = false
elseif TOOLS[i].SetupInfo.bIsTopHead and ToolSearchParameters.vtToolDirection:getZ() < TOOLS[i].SetupInfo.dMaxNegativeAngle then
bIsToolCompatible = false
elseif TOOLS[i].SetupInfo.bIsBottomHead and ToolSearchParameters.vtToolDirection:getZ() > TOOLS[i].SetupInfo.dMaxPositiveAngle then
bIsToolCompatible = false
elseif ToolSearchParameters.sMillShape == 'STANDARD' and ( TOOLS[i].dSideAngle ~= 0 or TOOLS[i].bIsPen) then
bIsToolCompatible = false
elseif ToolSearchParameters.sMillShape == 'DOVETAIL' and not TOOLS[i].bIsDoveTail then
bIsToolCompatible = false
elseif ToolSearchParameters.sMillShape == 'TSHAPEMILL' and not TOOLS[i].bIsTMill then
bIsToolCompatible = false
elseif ToolSearchParameters.sMillShape == 'PEN' and not TOOLS[i].bIsPen then
bIsToolCompatible = false
elseif TOOLS[i].sType ~= ToolSearchParameters.sType then
-- se sto cercando una fresa che non può lavorare di testa, quelle che lavorano di testa sono comunque ammesse
if TOOLS[i].sType == 'MILL_STD' and ToolSearchParameters.sType == 'MILL_NOTIP' then
bIsToolCompatible = true
else
bIsToolCompatible = false
end
end
-- scelgo il migliore
if bIsToolCompatible then
-- calcolo riduzione del massimo materiale utilizzabile
local ToolEntryAngle = GetToolEntryAngle( Proc, ToolSearchParameters.vtToolDirection)
-- se ToolHolder più grande dell'utensile, il primo oggetto in collisione è il ToolHolder. Altrimenti il motore.
local dDimObjToCheck = EgtIf( TOOLS[i].ToolHolder.dDiameter > TOOLS[i].dDiameter, TOOLS[i].ToolHolder.dDiameter, BeamData.C_SIMM_ENC)
local dCurrentMaxMatReduction = BeamData.COLL_SIC or 5
-- TODO implementare le funzioni di Tool Collision Avoidance (vedi wiki e FacesBysaw -> CalcLeadInOutPerpGeom)
-- TODO considerare anche il caso in cui lo stelo sia più grande del diametro utensile
-- TODO nei confronti tra valori gestire tolleranze
-- calcolo riduzione per non toccare con ToolHolder / Motore
if ToolEntryAngle.dValue > 0 and ToolEntryAngle.dValue < 90 then
dCurrentMaxMatReduction = dCurrentMaxMatReduction / ToolEntryAngle.dSin + ( ( dDimObjToCheck - TOOLS[i].dDiameter) / 2) / ToolEntryAngle.dTan
end
-- dCurrMachReduction = negativo -> limitare, positivo -> mm extra disponibili
local dCurrentResidualDepth = ToolSearchParameters.dElevation + dCurrentMaxMatReduction - TOOLS[i].dMaxDepth
-- se non ancora trovato, oppure se completo e il migliore fino ad ora non è completo: corrente è il migliore
if not nBestToolIndex or ( dBestToolResidualDepth > 0 and dCurrentResidualDepth <= 0) then
nBestToolIndex = i
dBestToolResidualDepth = dCurrentResidualDepth
-- altrimenti scelgo il migliore
else
-- se entrambi completi
if dBestToolResidualDepth <= 0 and dCurrentResidualDepth <= 0 then
-- se il migliore era su aggregato e corrente montanto direttamente, prediligo utensile montato direttamente
if not TOOLS[i].SetupInfo.bToolOnAggregate and TOOLS[i].SetupInfo.bToolOnAggregate then
nBestToolIndex = i
dBestToolResidualDepth = dCurrentResidualDepth
-- se hanno stesso montaggio
elseif TOOLS[i].SetupInfo.bToolOnAggregate == TOOLS[nBestToolIndex].SetupInfo.bToolOnAggregate then
-- scelgo utensile con indice di bontà utensile calcolato come: lunghezza / massimo materiale / diametro
if ( TOOLS[i].dLength / TOOLS[i].dMaxMaterial) / TOOLS[i].dDiameter < ( TOOLS[nBestToolIndex].dLength / TOOLS[nBestToolIndex].dMaxMaterial) / TOOLS[nBestToolIndex].dDiameter then
nBestToolIndex = i
dBestToolResidualDepth = dCurrentResidualDepth
end
end
-- se entrambi incompleti
elseif dBestToolResidualDepth > 0 and dCurrentResidualDepth > 0 then
--scelgo quello che lavora di più
if dCurrentResidualDepth < dBestToolResidualDepth then
nBestToolIndex = i
dBestToolResidualDepth = dCurrentResidualDepth
end
end
end
end
end
ToolInfo.nToolIndex = nBestToolIndex
ToolInfo.dResidualDepth = dBestToolResidualDepth
return ToolInfo
end
-------------------------------------------------------------------------------------------------------------
-- funzione per cercare utensile tipo LAMA con certe caratteristiche
-- TODO da completare
function MachiningLib.FindBlade( Proc, ToolSearchParameters)
local ToolInfo = {}
-- parametri obbligatori
if type( ToolSearchParameters.vtToolDirection) ~= 'table' then
error( 'FindBlade : missing tool direction')
end
if type( ToolSearchParameters.bAllowTopHead) ~= 'boolean' then
error( 'FindBlade : missing top head info')
end
if type( ToolSearchParameters.bAllowBottomHead) ~= 'boolean' then
error( 'FindBlade : missing bottom head info')
end
if not ToolSearchParameters.bAllowTopHead and not ToolSearchParameters.bAllowBottomHead then
error( 'FindBlade : wrong head info')
end
-- parametri opzionali
ToolSearchParameters.dElevation = ToolSearchParameters.dElevation or 0
ToolSearchParameters.bForceLongcutBlade = ToolSearchParameters.bForceLongcutBlade or false
local nBestToolIndex
for i = 1, #TOOLS do
local bIsToolCompatible = false
if TOOLS[i].sFamily == 'SAWBLADE' then
if ToolSearchParameters.bAllowTopHead and not ToolSearchParameters.bAllowBottomHead then
bIsToolCompatible = TOOLS[i].SetupInfo.bIsTopHead
elseif ToolSearchParameters.bAllowBottomHead and not ToolSearchParameters.bAllowTopHead then
bIsToolCompatible = TOOLS[i].SetupInfo.bIsBottomHead
end
end
if bIsToolCompatible then
if not nBestToolIndex then
nBestToolIndex = i
else
-- prediligo utensile per tagli lunghi, se richiesto
if ToolSearchParameters.bForceLongcutBlade and not TOOLS[nBestToolIndex].bIsUsedForLongCut and TOOLS[i].bIsUsedForLongCut then
nBestToolIndex = i
end
end
end
end
ToolInfo.nToolIndex = nBestToolIndex
return ToolInfo
end
-------------------------------------------------------------------------------------------------------------
-- funzione per cercare utensile tipo PUNTA A FORARE con certe caratteristiche
-- TODO da fare
function MachiningLib.FindDrill()
end
-------------------------------------------------------------------------------------------------------------
-- funzione per cercare utensile tipo SEGA A CATENA con certe caratteristiche
-- TODO da completare
function MachiningLib.FindChainSaw( Proc, ToolSearchParameters)
local ToolInfo = {}
-- parametri obbligatori
if type( ToolSearchParameters.vtToolDirection) ~= 'table' then
error( 'FindBlade : missing tool direction')
end
if type( ToolSearchParameters.bAllowTopHead) ~= 'boolean' then
error( 'FindBlade : missing top head info')
end
if type( ToolSearchParameters.bAllowBottomHead) ~= 'boolean' then
error( 'FindBlade : missing bottom head info')
end
if not ToolSearchParameters.bAllowTopHead and not ToolSearchParameters.bAllowBottomHead then
error( 'FindBlade : wrong head info')
end
-- parametri opzionali
ToolSearchParameters.dElevation = ToolSearchParameters.dElevation or 0
ToolSearchParameters.bExtendWithCornerRadius = ToolSearchParameters.bExtendWithCornerRadius or false
local nBestToolIndex
local dBestToolResidualDepth = 0
for i = 1, #TOOLS do
local bIsToolCompatible = false
if TOOLS[i].sFamily == 'MORTISE' then
if ToolSearchParameters.bAllowTopHead and not ToolSearchParameters.bAllowBottomHead then
bIsToolCompatible = TOOLS[i].SetupInfo.bIsTopHead
elseif ToolSearchParameters.bAllowBottomHead and not ToolSearchParameters.bAllowTopHead then
bIsToolCompatible = TOOLS[i].SetupInfo.bIsBottomHead
else
bIsToolCompatible = true
end
end
-- TODO nei confronti tra valori gestire tolleranze
if bIsToolCompatible then
if ToolSearchParameters.dElevation > 10 * GEO.EPS_SMALL and ToolSearchParameters.bExtendWithCornerRadius then
ToolSearchParameters.dElevation = ToolSearchParameters.dElevation + TOOLS[i].dCornerRadius
end
-- TODO gestire accorciamento massimo materiale per inclinazione
local dCurrentResidualDepth = ToolSearchParameters.dElevation - TOOLS[i].dMaxDepth
-- se non ancora trovato, oppure se completo e il migliore fino ad ora non è completo: corrente è il migliore
if not nBestToolIndex or ( dBestToolResidualDepth > 0 and dCurrentResidualDepth <= 0) then
nBestToolIndex = i
dBestToolResidualDepth = dCurrentResidualDepth
-- altrimenti scelgo il migliore
else
-- se entrambi completi
if dBestToolResidualDepth <= 0 and dCurrentResidualDepth <= 0 then
-- scelgo utensile con rapporto lunghezza / diametro minore
if ( TOOLS[i].dLength / pow( TOOLS[i].dDiameter, 1.5)) < ( TOOLS[nBestToolIndex].dLength / pow( TOOLS[nBestToolIndex].dDiameter, 1.5)) then
nBestToolIndex = i
dBestToolResidualDepth = dCurrentResidualDepth
end
-- se entrambi incompleti
elseif dBestToolResidualDepth > 0 and dCurrentResidualDepth > 0 then
--scelgo quello che lavora di più
if dCurrentResidualDepth > dBestToolResidualDepth then
nBestToolIndex = i
dBestToolResidualDepth = dCurrentResidualDepth
end
end
end
end
end
ToolInfo.nToolIndex = nBestToolIndex
ToolInfo.dResidualDepth = dBestToolResidualDepth
return ToolInfo
end
-------------------------------------------------------------------------------------------------------------
-- salva in lista globale la lavorazione appena calcolata
function MachiningLib.AddNewMachining( ProcToAdd, MachiningToAdd, AuxiliaryDataToAdd)
-- Controllo parametri obbligatori
if not MachiningToAdd.nType or not MachiningToAdd.nToolIndex or not MachiningToAdd.Geometry or not ProcToAdd.id then
return false
end
-- se nome non definito, assegno alla lavorazioen un nome standard
if not MachiningToAdd.sOperationName then
-- Drilling
if MachiningToAdd.nType == MCH_MY.DRILLING then
MachiningToAdd.sTypeName = 'Drill_'
-- Milling
elseif MachiningToAdd.nType == MCH_MY.MILLING then
-- se utensile lama
if TOOLS[MachiningToAdd.nToolIndex].sFamily == 'SAWBLADE' then
MachiningToAdd.sTypeName = 'Cut_'
else
MachiningToAdd.sTypeName = 'Mill_'
end
-- Pocketing
elseif MachiningToAdd.nType == MCH_MY.POCKETING then
MachiningToAdd.sTypeName = 'Pocket_'
-- Mortising
elseif MachiningToAdd.nType == MCH_MY.MORTISING then
MachiningToAdd.sTypeName = 'ChSaw_'
end
MachiningToAdd.sOperationName = MachiningToAdd.sTypeName .. ( EgtGetName( ProcToAdd.id) or tostring( ProcToAdd.id)) -- .. '_' .. tostring( MachiningToAdd.Geometry)
end
if not MachiningToAdd.sToolName then
MachiningToAdd.sToolName = TOOLS[MachiningToAdd.nToolIndex].sName
end
local Machining = {}
Machining.Proc = ProcToAdd
Machining.Machining = MachiningToAdd
Machining.AuxiliaryData = AuxiliaryDataToAdd or {}
table.insert( MACHININGS, Machining)
return true
end
-------------------------------------------------------------------------------------------------------------
-- funzione per aggiungere una nuova lavorazione
function MachiningLib.AddOperations( vProc, Part, sRotation)
local nErr
local sErr = ''
local bAreAllMachiningApplyOk = true
local bSplitExecuted = false
-- parametri generali lavorazione
local MachiningParameters = {
{ sName = 'sDepth', nMchParam = MCH_MP.DEPTH_STR},
{ sName = 'bInvert', nMchParam = MCH_MP.INVERT},
{ sName = 'nWorkside', nMchParam = MCH_MP.WORKSIDE},
{ sName = 'nFaceuse', nMchParam = MCH_MP.FACEUSE},
{ sName = 'nSCC', nMchParam = MCH_MP.SCC},
{ sName = 'bToolInvert', nMchParam = MCH_MP.TOOLINVERT},
{ sName = 'sBlockedAxis', nMchParam = MCH_MP.BLOCKEDAXIS},
{ sName = 'sInitialAngles', nMchParam = MCH_MP.INITANGS},
{ sName = 'nHeadSide', nMchParam = MCH_MP.HEADSIDE},
{ sName = 'nSubType', nMchParam = MCH_MP.SUBTYPE},
{ sName = 'dOverlap', nMchParam = MCH_MP.OVERL},
{ sName = 'nStepType', nMchParam = MCH_MP.STEPTYPE},
{ sName = 'dStartSafetyLength', nMchParam = MCH_MP.STARTPOS},
{ sName = 'dReturnPos', nMchParam = MCH_MP.RETURNPOS},
{ sName = 'dRadialOffset', nMchParam = MCH_MP.OFFSR},
{ sName = 'dLongitudinalOffset', nMchParam = MCH_MP.OFFSL},
{ sName = 'dStartSlowLen', nMchParam = MCH_MP.STARTSLOWLEN},
{ sName = 'dEndSlowLen', nMchParam = MCH_MP.ENDSLOWLEN},
{ sName = 'dThrouAddLen', nMchParam = MCH_MP.THROUADDLEN},
{ sName = 'sSystemNotes', nMchParam = MCH_MP.SYSNOTES},
{ sName = 'sUserNotes', nMchParam = MCH_MP.USERNOTES}
}
-- parametri relativi allo step
MachiningParameters.Steps = {
{ sName = 'nStepType', nMchParam = MCH_MP.STEPTYPE},
{ sName = 'dStep', nMchParam = MCH_MP.STEP},
{ sName = 'dSideStep', nMchParam = MCH_MP.SIDESTEP}
}
-- parametri relativi all'approccio
MachiningParameters.LeadIn = {
{ sName = 'nType', nMchParam = MCH_MP.LEADINTYPE},
{ sName = 'dStartAddLength', nMchParam = MCH_MP.STARTADDLEN},
{ sName = 'dTangentDistance', nMchParam = MCH_MP.LITANG},
{ sName = 'dPerpDistance', nMchParam = MCH_MP.LIPERP},
{ sName = 'dElevation', nMchParam = MCH_MP.LIELEV},
{ sName = 'dCompLength', nMchParam = MCH_MP.LICOMPLEN}
}
-- parametri relativi alla retrazione
MachiningParameters.LeadOut = {
{ sName = 'nType', nMchParam = MCH_MP.LEADOUTTYPE},
{ sName = 'dEndAddLength', nMchParam = MCH_MP.ENDADDLEN},
{ sName = 'dTangentDistance', nMchParam = MCH_MP.LOTANG},
{ sName = 'dPerpDistance', nMchParam = MCH_MP.LOPERP},
{ sName = 'dElevation', nMchParam = MCH_MP.LOELEV},
{ sName = 'dCompLength', nMchParam = MCH_MP.LOCOMPLEN}
}
-- parametri da scrivere nelle note utente
local UserNotes = {
{ sName = 'dMaxElev', sMchParam = 'MaxElev'},
{ sName = 'dOpenMinSafe', sMchParam = 'OpenMinSafe'},
{ sName = 'nVMRS', sMchParam = 'VMRS'},
{ sName = 'dStartZmax', sMchParam = 'StartZmax'},
{ sName = 'nOutRaw', sMchParam = 'OutRaw'},
{ sName = 'nOpenOutRaw', sMchParam = 'OpenOutRaw'},
{ sName = 'nPlunge', sMchParam = 'Plunge'}
}
-- parametri da scrivere nelle note di sistema
local SystemNotes = {
}
for i = 1, #MACHININGS do
-- si aggiungono solo quelle della fase richiesta
if ( sRotation == 'STD' and not MACHININGS[i].Proc.bDown and not MACHININGS[i].Proc.bSide) or
( MACHININGS[i].Proc.bDown and sRotation == 'DOWN') or
( MACHININGS[i].Proc.bSide and sRotation == 'SIDE') then
local nClonesToAdd = 1
if MACHININGS[i].AuxiliaryData.Clones then
nClonesToAdd = #MACHININGS[i].AuxiliaryData.Clones
end
for j = 1, nClonesToAdd do
-- creazione lavorazione
local nOperationId = EgtCreateMachining( MACHININGS[i].Machining.sOperationName, MACHININGS[i].Machining.nType, MACHININGS[i].Machining.sToolName)
if nOperationId then
-- impostazione geometria
local Geometry
if MACHININGS[i].AuxiliaryData.Clones and MACHININGS[i].AuxiliaryData.Clones[j].Geometry then
Geometry = MACHININGS[i].AuxiliaryData.Clones[j].Geometry
elseif MACHININGS[i].Machining.Geometry then
Geometry = MACHININGS[i].Machining.Geometry
end
EgtSetMachiningGeometry( Geometry)
-- impostazione parametri lavorazione
-- TODO scrivere sempre Steps, LeadIn, LeadOut nelle tabelle in modo da non dover controllare ogni volta che ci siano
for k = 1, #MachiningParameters do
local sValue
if MACHININGS[i].AuxiliaryData.Clones and MACHININGS[i].AuxiliaryData.Clones[j][MachiningParameters[k].sName] then
sValue = MACHININGS[i].AuxiliaryData.Clones[j][MachiningParameters[k].sName]
elseif MACHININGS[i].Machining[MachiningParameters[k].sName] then
sValue = MACHININGS[i].Machining[MachiningParameters[k].sName]
end
if sValue then
EgtSetMachiningParam( MachiningParameters[k].nMchParam, sValue)
end
end
for k = 1, #MachiningParameters.Steps do
local sValue
if MACHININGS[i].AuxiliaryData.Clones and MACHININGS[i].AuxiliaryData.Clones[j].Steps and MACHININGS[i].AuxiliaryData.Clones[j].Steps[MachiningParameters.Steps[k].sName] then
sValue = MACHININGS[i].AuxiliaryData.Clones[j].Steps[MachiningParameters.Steps[k].sName]
elseif MACHININGS[i].Machining.Steps and MACHININGS[i].Machining.Steps[MachiningParameters.Steps[k].sName] then
sValue = MACHININGS[i].Machining.Steps[MachiningParameters.Steps[k].sName]
end
if sValue then
EgtSetMachiningParam( MachiningParameters.Steps[k].nMchParam, sValue)
end
end
for k = 1, #MachiningParameters.LeadIn do
local sValue
if MACHININGS[i].AuxiliaryData.Clones and MACHININGS[i].AuxiliaryData.Clones[j].LeadIn and MACHININGS[i].AuxiliaryData.Clones[j].LeadIn[MachiningParameters.LeadIn[k].sName] then
sValue = MACHININGS[i].AuxiliaryData.Clones[j].LeadIn[MachiningParameters.LeadIn[k].sName]
elseif MACHININGS[i].Machining.LeadIn and MACHININGS[i].Machining.LeadIn[MachiningParameters.LeadIn[k].sName] then
sValue = MACHININGS[i].Machining.LeadIn[MachiningParameters.LeadIn[k].sName]
end
if sValue then
EgtSetMachiningParam( MachiningParameters.LeadIn[k].nMchParam, sValue)
end
end
for k = 1, #MachiningParameters.LeadOut do
local sValue
if MACHININGS[i].AuxiliaryData.Clones and MACHININGS[i].AuxiliaryData.Clones[j].LeadOut and MACHININGS[i].AuxiliaryData.Clones[j].LeadOut[MachiningParameters.LeadOut[k].sName] then
sValue = MACHININGS[i].AuxiliaryData.Clones[j].LeadOut[MachiningParameters.LeadOut[k].sName]
elseif MACHININGS[i].Machining.LeadOut and MACHININGS[i].Machining.LeadOut[MachiningParameters.LeadOut[k].sName] then
sValue = MACHININGS[i].Machining.LeadOut[MachiningParameters.LeadOut[k].sName]
end
if sValue then
EgtSetMachiningParam( MachiningParameters.LeadOut[k].nMchParam, sValue)
end
end
for k = 1, #UserNotes do
local sValue
if MACHININGS[i].AuxiliaryData.Clones and MACHININGS[i].AuxiliaryData.Clones[j][UserNotes[k].sName] then
sValue = MACHININGS[i].AuxiliaryData.Clones[j][UserNotes[k].sName]
elseif MACHININGS[i].Machining[UserNotes[k].sName] then
sValue = MACHININGS[i].Machining[UserNotes[k].sName]
end
if sValue then
local sUserNotes = ''
sUserNotes = EgtGetMachiningParam( MCH_MP.USERNOTES)
sUserNotes = EgtSetValInNotes( sUserNotes, UserNotes[k].sMchParam, sValue)
EgtSetMachiningParam( MCH_MP.USERNOTES, sUserNotes)
end
end
-- parametri da settare nelle note di sistema
-- TODO da decidere quali sono le note da salvare qui. Probabilmente tutte quelle relative all'ordine delle lavorazioni
--if MACHININGS[i].Machining.nMachiningOrder then
-- sSystemNotes = EgtSetValInNotes( sSystemNotes, 'MachiningOrder', MACHININGS[i].Machining.nMachiningOrder)
--end
for k = 1, #SystemNotes do
local sValue
if MACHININGS[i].AuxiliaryData.Clones and MACHININGS[i].AuxiliaryData.Clones[j][SystemNotes[k].sName] then
sValue = MACHININGS[i].AuxiliaryData.Clones[j][SystemNotes[k].sName]
elseif MACHININGS[i].Machining[SystemNotes[k].sName] then
sValue = MACHININGS[i].Machining[SystemNotes[k].sName]
end
if sValue then
local sSystemNotes = ''
sSystemNotes = EgtGetMachiningParam( MCH_MP.SYSNOTES)
sSystemNotes = EgtSetValInNotes( sSystemNotes, SystemNotes[k].sMchParam, sValue)
EgtSetMachiningParam( MCH_MP.SYSNOTES, sSystemNotes)
end
end
local bIsApplyOk = MachiningLib.ApplyMachining( true, false)
if not bIsApplyOk then
bAreAllMachiningApplyOk = false
nErr, sErr = EgtGetLastMachMgrError()
EgtSetOperationMode( nOperationId, false)
end
-- TODO è giusto inserire queste info alla fine della lavorazione? oppure conviene creare un record in MACHININGS apposito per la disposizione?
-- se era taglio di separazione, aggiungo nuova fase
if MACHININGS[i].AuxiliaryData.bAddNewPhase then
bSplitExecuted = true
BeamLib.AddPhaseWithRawParts( MACHININGS[i].Proc.idRaw, BeamData.ptOriXR, BeamData.dPosXR, BeamData.RAW_OFFSET)
-- se grezzo successivo senza pezzi e finale, va tolto
local nNextRawId = EgtGetNextRawPart( MACHININGS[i].Proc.idRaw)
if nNextRawId and EgtGetPartInRawPartCount( nNextRawId) == 0 and EgtGetRawPartBBox( nNextRawId):getDimX() < BeamData.dMinRaw then
EgtRemoveRawPartFromCurrPhase( nNextRawId)
end
local nPhase = EgtGetCurrPhase()
local nDispId = EgtGetPhaseDisposition( nPhase)
if sRotation == 'DOWN' then
local nRotation = EgtIf( Part.nInitialPosition + 2 > 4, Part.nInitialPosition + 2 - 4, Part.nInitialPosition + 2)
BeamLib.RotatePart( Part, nRotation)
EgtSetInfo( nDispId, 'ROT', -2)
EgtSetInfo( nDispId, 'TYPE', 'MID2')
elseif sRotation == 'SIDE' then
local nRotation = EgtIf( Part.nInitialPosition + 1 > 4, Part.nInitialPosition + 1 - 4, Part.nInitialPosition + 1)
BeamLib.RotatePart( Part, nRotation)
EgtSetInfo( nDispId, 'ROT', -1)
EgtSetInfo( nDispId, 'TYPE', 'MID2')
else
local nRotation = Part.nInitialPosition
BeamLib.RotatePart( Part, nRotation)
EgtSetInfo( nDispId, 'TYPE', 'END')
end
EgtSetInfo( nDispId, 'ORD', MACHININGS[i].Proc.nIndexPartInParts)
end
else
return false, 'UNEXPECTED ERROR: Error on creating machining', bSplitExecuted
end
end
end
end
return bAreAllMachiningApplyOk, sErr, bSplitExecuted
end
-------------------------------------------------------------------------------------------------------------
function MachiningLib.ApplyMachining( bRecalc, bApplyPost)
local bResult = EgtApplyMachining( bRecalc, bApplyPost)
return bResult
end
-------------------------------------------------------------------------------------------------------------
-- funzione che restituisce l'indice MRR (Material Removal Rate) della strategia. Dati in ingresso: Step, SideStep, Feed, ToolIndex, MachiningType
function MachiningLib.GetToolMRR( Parameters)
local dMRR = 1
-- se ho già tutti i parametri
if not Parameters.dStep or not Parameters.dSideStep or not Parameters.dFeed then
-- se manca qualche parametro, lo recupero da parametro di default dell'utensile
if Parameters.nToolIndex then
Parameters.dStep = Parameters.dStep or TOOLS[Parameters.nToolIndex].dStep
Parameters.dSideStep = Parameters.dSideStep or TOOLS[Parameters.nToolIndex].dSideStep
Parameters.dFeed = Parameters.dFeed or TOOLS[Parameters.nToolIndex].Feeds.dFeed
-- se non riesco a calcolare, ritorno un indice molto basso
else
return GEO.EPS_SMALL
end
end
dMRR = Parameters.dStep * Parameters.dSideStep * Parameters.dFeed
-- Unità: dm/min per avere un indice vicino alle unità
return dMRR / pow( 10, 6)
end
-------------------------------------------------------------------------------------------------------------
return MachiningLib