@@ -4296,13 +4296,16 @@ SUBROUTINE DUMP_ISOF(T,DT,NM)
42964296QUANTITY = > WORK3
42974297
42984298ISOF_LOOP: DO N= 1 ,N_ISOF
4299+
42994300 IS = > ISOSURFACE_FILE(N)
43004301 ERROR = 0
43014302 ISOOFFSET = 1
43024303 HAVE_ISO2 = 0
43034304
43044305 ! Fill up the dummy array QUANTITY with the appropriate gas phase output
4306+
43054307 IF (IS% DEBUG) THEN
4308+
43064309 ISO_CENX = REAL ((XS_MIN + XF_MAX)/ 2.0_EB , FB)
43074310 ISO_CENY = REAL ((YS_MIN + YF_MAX)/ 2.0_EB , FB)
43084311 ISO_CENZ = REAL ((ZS_MIN + ZF_MAX)/ 2.0_EB , FB)
@@ -4313,7 +4316,9 @@ SUBROUTINE DUMP_ISOF(T,DT,NM)
43134316 ENDDO
43144317 ENDDO
43154318 ENDDO
4319+
43164320 ELSE
4321+
43174322 DO K= 0 ,KBP1
43184323 DO J= 0 ,JBP1
43194324 DO I= 0 ,IBP1
@@ -4322,39 +4327,34 @@ SUBROUTINE DUMP_ISOF(T,DT,NM)
43224327 ENDDO
43234328 ENDDO
43244329
4325- ! Mirror QUANTITY into ghost cells
4326-
4327- QUANTITY(0 ,0 :JBP1,0 :KBP1) = QUANTITY(1 ,0 :JBP1,0 :KBP1)
4328- QUANTITY(IBP1,0 :JBP1,0 :KBP1) = QUANTITY(IBAR,0 :JBP1,0 :KBP1)
4329- QUANTITY(0 :IBP1,0 ,0 :KBP1) = QUANTITY(0 :IBP1,1 ,0 :KBP1)
4330- QUANTITY(0 :IBP1,JBP1,0 :KBP1) = QUANTITY(0 :IBP1,JBAR,0 :KBP1)
4331- QUANTITY(0 :IBP1,0 :JBP1,0 ) = QUANTITY(0 :IBP1,0 :JBP1,1 )
4332- QUANTITY(0 :IBP1,0 :JBP1,KBP1) = QUANTITY(0 :IBP1,0 :JBP1,KBAR)
43334330 CALL FILL_EDGES(QUANTITY)
43344331
4335- ! Average the data (which is assumed to be cell-centered) at cell corners
4332+ ! Average the data (which is assumed to be cell-centered) at cell corners
43364333
43374334 DO K= 0 ,KBAR
43384335 DO J= 0 ,JBAR
43394336 DO I= 0 ,IBAR
43404337 QQ(I,J,K,1 ) = REAL (S(I,J,K)* (QUANTITY(I,J,K)* B(I,J,K) + QUANTITY(I+1 ,J,K)* B(I+1 ,J,K)+ &
4341- QUANTITY(I,J,K+1 )* B(I,J,K+1 ) + QUANTITY(I+1 ,J,K+1 )* B(I+1 ,J,K+1 )+ &
4342- QUANTITY(I,J+1 ,K)* B(I,J+1 ,K) + QUANTITY(I+1 ,J+1 ,K)* B(I+1 ,J+1 ,K)+ &
4343- QUANTITY(I,J+1 ,K+1 )* B(I,J+1 ,K+1 )+ QUANTITY(I+1 ,J+1 ,K+1 )* B(I+1 ,J+1 ,K+1 )),FB)
4338+ QUANTITY(I,J,K+1 )* B(I,J,K+1 ) + QUANTITY(I+1 ,J,K+1 )* B(I+1 ,J,K+1 )+ &
4339+ QUANTITY(I,J+1 ,K)* B(I,J+1 ,K) + QUANTITY(I+1 ,J+1 ,K)* B(I+1 ,J+1 ,K)+ &
4340+ QUANTITY(I,J+1 ,K+1 )* B(I,J+1 ,K+1 )+ QUANTITY(I+1 ,J+1 ,K+1 )* B(I+1 ,J+1 ,K+1 )),FB)
43444341 ENDDO
43454342 ENDDO
43464343 ENDDO
4344+
43474345 ENDIF
43484346
43494347 ! Fill up QUANTITY2 and QQ2 arrays if the isosurface is colored with a second quantity
43504348
43514349 INDEX2_IF: IF ( IS% INDEX2 /= - 1 ) THEN
4350+
43524351 HAVE_ISO2 = 1
43534352 QUANTITY2 = > WORK4
43544353
43554354 ! Fill up the dummy array QUANTITY2 with the appropriate gas phase output
43564355
43574356 IF (IS% DEBUG) THEN
4357+
43584358 DO K= 0 ,KBAR+1
43594359 IF (K.EQ. KBAR+1 ) THEN
43604360 ZZ = 2.0_FB * ZPLT(KBAR) - ZPLT(KBAR-1 )
@@ -4367,7 +4367,9 @@ SUBROUTINE DUMP_ISOF(T,DT,NM)
43674367 ENDDO
43684368 ENDDO
43694369 ENDDO
4370+
43704371 ELSE
4372+
43714373 DO K= 0 ,KBP1
43724374 DO J= 0 ,JBP1
43734375 DO I= 0 ,IBP1
@@ -4376,17 +4378,9 @@ SUBROUTINE DUMP_ISOF(T,DT,NM)
43764378 ENDDO
43774379 ENDDO
43784380
4379- ! Mirror QUANTITY into ghost cells
4380-
4381- QUANTITY2(0 ,0 :JBP1,0 :KBP1) = QUANTITY2(1 ,0 :JBP1,0 :KBP1)
4382- QUANTITY2(IBP1,0 :JBP1,0 :KBP1) = QUANTITY2(IBAR,0 :JBP1,0 :KBP1)
4383- QUANTITY2(0 :IBP1,0 ,0 :KBP1) = QUANTITY2(0 :IBP1,1 ,0 :KBP1)
4384- QUANTITY2(0 :IBP1,JBP1,0 :KBP1) = QUANTITY2(0 :IBP1,JBAR,0 :KBP1)
4385- QUANTITY2(0 :IBP1,0 :JBP1,0 ) = QUANTITY2(0 :IBP1,0 :JBP1,1 )
4386- QUANTITY2(0 :IBP1,0 :JBP1,KBP1) = QUANTITY2(0 :IBP1,0 :JBP1,KBAR)
43874381 CALL FILL_EDGES(QUANTITY2)
43884382
4389- ! Average the data (which is assumed to be cell-centered) at cell corners
4383+ ! Average the data (which is assumed to be cell-centered) at cell corners
43904384
43914385 DO KK= 0 ,KBAR+1
43924386 K = MIN (KK, KBAR)
@@ -4401,6 +4395,7 @@ SUBROUTINE DUMP_ISOF(T,DT,NM)
44014395 ENDDO
44024396 ENDDO
44034397 ENDDO
4398+
44044399 ENDIF
44054400
44064401 ENDIF INDEX2_IF
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