This commit is contained in:
xinxiao
2026-03-13 11:24:41 +08:00
commit 04e2bb29c7
238 changed files with 29102 additions and 0 deletions
@@ -0,0 +1,343 @@
function [ r, Times, OutputRs, Wellpara, trun ] = data_standard( )
tic;
%% 模型选取
% 1--2014, Monifar 2--2018, steady, Rao 3--2018, transient, Rao
% 4-- PEDFM, Tene, Jiang, Younis
modelflag=1;
%前处理综合
%% 基质网格参数输入并进行网格参数计算
% dx=[10*ones(1,100) ];nx=size(dx,2);
% dy=[10*ones(1,50) ];ny=size(dy,2);
% dz=[10*ones(1,4)];nz=size(dz,2);
% dx=[10*ones(1,50) ];nx=size(dx,2);
% dy=[10*ones(1,30) ];ny=size(dy,2);
% dz=[10*ones(1,3)];nz=size(dz,2);
dx=[10*ones(1,100) ];nx=size(dx,2);
dy=[10*ones(1,50) ];ny=size(dy,2);
dz=[10*ones(1,1)];nz=size(dz,2);
%% 裂缝参数输入
% 两种输入方式,1表示向量输入,2表示基准点、倾角、方位角、抬升角输入
input_style=2;
if input_style==1
% ==================向量输入====================================== %
%首先对矩形缝进行研究,裂缝参数包括三个向量和两个参数的取值范围,如果是其它类型缝,则是两个参数间的函数关系
%因此一个5行三列的矩阵可以确定一条裂缝
%向量分量可为非整数,以此保证参数范围的取值为整数即可,
%故可先随意确定为整数的参数范围,再根据缝长缝高去确定向量分量的取值
f=[
0,1200,0;10,-20,0;0,0,10;0,60,0;0,3,0;
0,1200,0;10,20,0;0,0,10;0,15,0;0,3,0;
150,1500,0;20,-10,0;0,0,10;0,20,0;0,3,0;
550,1300,0;10,10,0;0,0,10;0,10,0;0,3,0;
650,1400,0;10,-20,0;0,0,10;0,55,0;0,3,0;
605,705,0;10,0,0;0,0,10;-20,20,0;0,3,0;
% 385,485,2;5,0,0;0,0,1;-6,12,0;0,24,0;
% 385,365,2;5,0,0;0,0,1;-12,20,0;0,24,0;
% 385,245,2;5,0,0;0,0,1;-10,20,0;0,24,0;
% 385,925,2;5,0,0;0,0,1;-9,18,0;0,20,0;
% 385,805,2;5,0,0;0,0,1;-8,14,0;0,20,0;
% 385,685,2;5,0,0;0,0,1;-12,20,0;0,24,0;
% 385,565,2;5,0,0;0,0,1;-10,20,0;0,22,0;
% 385,445,2;5,0,0;0,0,1;-6,12,0;0,24,0;
% 955,1305,5;5,0,0;0,0,1;-5,4,0;0,15,0;
% 955,1225,5;5,0,0;0,0,1;-7,5,0;0,15,0;
% 955,1145,5;5,0,0;0,0,1;-9,6,0;0,15,0;
% 955,1065,5;5,0,0;0,0,1;-7,6,0;0,15,0;
% 955,985,5;5,0,0;0,0,1;-6,4,0;0,15,0;
% 955,755,5;5,0,0;0,0,1;-5,4,0;0,15,0;
% 955,675,5;5,0,0;0,0,1;-8,6,0;0,15,0;
% 955,595,5;5,0,0;0,0,1;-8,6,0;0,15,0;
% 955,515,5;5,0,0;0,0,1;-10,7,0;0,15,0;
% 955,435,5;5,0,0;0,0,1;-7,6,0;0,15,0;
% 955,355,5;5,0,0;0,0,1;-9,6,0;0,15,0;
% 1635,1245,5;5,0,0;0,0,1;-10,2,0;0,20,0;
% 1635,1165,5;5,0,0;0,0,1;-16,3,0;0,20,0;
% 1635,1085,5;5,0,0;0,0,1;-15,3,0;0,20,0;
% 1635,1005,5;5,0,0;0,0,1;-12,2,0;0,20,0;
% 1635,925,5;5,0,0;0,0,1;-10,2,0;0,20,0;
% 1635,695,5;5,0,0;0,0,1;-10,2,0;0,20,0;
% 1635,615,5;5,0,0;0,0,1;-12,2,0;0,20,0;
];
% 椭圆缝
% fellip=[320,210,10;10,2,0;0,0,2;0,0,8;0,0,5;
% 280,300,10;10,2,0;0,0,2;0,0,10;0,0,4;];
% 300,205,10;10,0,0;0,0,2;0,0,10;0,0,5];
fellip=[];
else
% ==================工程应用输入====================================== %
%仅能刻画具有双对称性质的矩形缝或椭圆缝
% 基准点坐标(1),方位角(2),倾角(3),抬升角(4),缝长(椭圆长轴长)(5),缝高(椭圆短轴长)(6),类型1是矩形缝、2是椭圆缝(7)
input_content={
[255,255,5],90,90,0,200,10,1;
[305,255,5],90,90,0,200,10,1;
[355,255,5],90,90,0,200,10,1;
[405,255,5],90,90,0,200,10,1;
[455,255,5],90,90,0,200,10,1;
[505,255,5],90,90,0,200,10,1;
[555,255,5],90,90,0,200,10,1;
[605,255,5],90,90,0,200,10,1;
[655,255,5],90,90,0,200,10,1;
[705,255,5],90,90,0,200,10,1;
[755,255,5],90,90,0,200,10,1;
};
[f,fellip]=sort_fracture(input_content);
end
% ==================裂缝情况整理====================================== %
m=size(f,1);
n=size(fellip,1);
nf=(m+n)/5;%裂缝条数
%% 渗流介质相关参数
% =====================基质孔渗====================================== %
% kx = 0.1*1e-3 * ones(nx*ny*nz, 1);%生成基质网格绝对渗透率x方向矩阵
% ky =0.1*1e-3 * ones(nx*ny*nz, 1);%y方向
% kz = 0.1*1e-3 * ones(nx*ny*nz, 1);%y方向
pori = 0.3 * ones(nx*ny*nz, 1);%生成基质网格孔隙度矩阵
prpor = 16;%基质孔隙度基准压力
cpor = 1.07e-4;%孔隙体积压缩系数
NTG= 1 * ones(nx*ny*nz, 1);
% SRV区域定义
base_x=23:78; nx_SRV=length(base_x);
base_y=15:36; ny_SRV=length(base_y);
base_z=1:1;nz_SRV=length(base_z);
SRV=[];
for k=1:nz_SRV
for j=1:ny_SRV
for i=1:nx_SRV
SRV=[SRV;(base_z(k)-1)*nx*ny+(base_y(j)-1)*nx+base_x(i)];
end
end
end
% 非SRV渗透率赋值
kx = 0.1*1e-3 * ones(nx*ny*nz, 1);%生成基质网格绝对渗透率x方向矩阵
ky =0.1*1e-3 * ones(nx*ny*nz, 1);%y方向
kz = 0.1*1e-3 * ones(nx*ny*nz, 1);%y方向
% SRV渗透率赋值
kx(SRV)=2*1e-3 * ones(length(SRV), 1);
ky(SRV)=2*1e-3 * ones(length(SRV), 1);
kz(SRV)=2*1e-3 * ones(length(SRV), 1);
% load ('NTG.mat');
% NTG=sort_input(NTG,nx,ny,nz);
% =====================裂缝孔渗====================================== %
Kf = 20000*1e-3*ones(1,nf);%裂缝渗透率
% Kf = [0*1e-3*ones(1,5) 10000*1e-3*ones(1,1);];%裂缝渗透率
Wf =1e-2*ones(1,nf);%裂缝宽度
Porf = 0.30*ones(1,nf);%裂缝孔隙度
prporf = 20;%裂缝孔隙度基准压力
cporf = 1.07e-4;%裂缝孔隙体积压缩系数
Rpt = 2;%flag
cf = 1;
ca = 1;
% co = 3.02e-3;
%% 流体性质参数
% =======================密度================================= %
Dosi=820; %Dosi是地面标况下测得的油相密度,单位是千克/每立方米
Dwsi=1000; %Dwsi是地面标况下测得的水相密度
% ====================体积系数及压缩系数================================= %
pb = 20.0;%泡点压力
Bopb = 1.0;%泡点压力pb对应的原油体积系数
co = 3.02e-3;%原油体积压缩系数
prw = 20.0;%地层水体积系数基准压力
Bwi = 1.00001;%原始地层水体积系数
cw = 5e-4;%地层水体积压缩系数
prg = 25.0;%地层水体积系数基准压力
% =======================粘度================================= %
visopb = 2;%泡点压力pb对应的原有粘度
cvo = 0;%原油粘度随压力变化的系数
vwi =0.6;%原始地层水粘度
cvw = 0;%地层水粘度随压力变化的系数
% ==================相渗及毛管力曲线====================================== %
% ==================基质油水相渗====================================== %
RPOW=[
0 0 0.8 0
0.15 0 0.8 0
0.45 0.04 0.4 0
0.5212 0.08 0.227 0
0.5425 0.103 0.184 0
0.5638 0.125 0.156 0
0.5851 0.145 0.125 0
0.6064 0.174 0.094 0
0.6276 0.207 0.063 0
0.6489 0.247 0.046 0
0.6701 0.292 0.031 0
0.6914 0.335 0.021 0
0.7127 0.378 0.011 0
0.76 0.475 0.005 0
0.85 0.552 0 0
1 0.552 0 0
];
SW=RPOW(:,1);KRW=RPOW(:,2);KRO=RPOW(:,3);PCOW=RPOW(:,4);
% ==================裂缝油水相渗====================================== %
% 在裂缝中,性质就是简单得两点线性插值
if Rpt ~= 1%表示该网格是裂缝网格
PRF=[
0 0 0.8 0
0.15 0 0.8 0
0.85 0.6 0 0
1 0.6 0 0
];
SWF = PRF(:,1);KRWF = PRF(:,2);KROF = PRF(:,3);PCOWF=PRF(:,4);
end
% ==================毛管力情况====================================== %
ifpcow = 0;%此处为控制是否忽略油水相间毛管力,0代表忽略,非0代表考虑
%% 结合网格和流动介质参数进行前处理
r = GridProp(modelflag, nx, ny, nz, dx, dy, dz, kx, ky, kz, f, fellip, Kf, Wf, pori, prpor, cpor, Porf, prporf, cporf, cf, ca,co, NTG);
%% 生成向量化变成所需要的算子
os = OperatorRS(r.N, r.nex, r.nc);
%% 结合流体性质参数进行处理
f = fluidPVT(Bopb, pb, co, Bwi, prw, cw, vwi, cvw, visopb, cvo, SW, KRO, KRW, PCOW, ifpcow, SWF, KROF, KRWF, PCOWF, r.rpt,Dosi,Dwsi);
%% 初值条件 Initial Condition Section
% =================压力、饱和度初值======================================= %
%压力初值要考虑重力,给出油藏下表面压力值
P = [20 * ones(r.nmc, 1); 20 * ones(r.nfc, 1)];
% plow=25; % P =plow-1e-6*800*9.8*r.z;
Sw = [0.15 * ones(r.nmc, 1); 0.15 * ones(r.nfc, 1)];
state0 = initialRS(P, Sw);
%% schedule
% 井参数输入
% Wellcpara: welltype(1) nperf(2) index(3) rw(4) protype(5) value(6)
% constraints(7) skin(8) welltype2(9)
% welltype = 1 prod, welltype = 2 inj
% protype = 1 const flowrate, protype = 2 const pwf
% welltype2=1 直井, welltype2=2 水平井沿x方向,welltype2=3 水平井沿y方向 welltype2=4 多段压裂水平井
%将直井、水平井与多段压裂水平井分开处理
%直井、水平井,该种井型的处理是将射孔段安排在基质网格
%由于是三维的储层,具体基质网格不好直接给出,对于直井、斜井、水平井,采取与eclipse一致的方式,给出其在基质网格中位置
%每个射孔点由下px,py,pz确定,分别表示该射孔点在x方向,y方向的网格编号,及层数即z反方向上的网格编号(最初是以垂直向上建立的基质网格)
well1={
% 2, 3, [10 20 1;10 20 2;10 20 3], 0.178/2, 2, 35 , 35, 0, 1;
% 2, 3, [67 20 1;67 20 2;67 20 3], 0.178/2, 2, 35 , 35, 0, 1;
% 2, 3, [130 20 1;130 20 2;130 20 3], 0.178/2, 2, 35 , 35, 0, 1;
% 2, 3, [196 20 1;196 20 2;196 20 3], 0.178/2, 2, 35 , 35, 0, 1;
% 2, 3, [10 148 1;10 148 2;10 148 3], 0.178/2, 2, 35 , 35, 0, 1;
% 2, 3, [67 148 1;67 148 2;67 148 3], 0.178/2, 2, 35 , 35, 0, 1;
% 2, 3, [130 148 1;130 148 2;130 148 3], 0.178/2, 2, 35 , 35, 0, 1;
% 2, 3, [196 148 1;196 148 2;196 148 3], 0.178/2, 2, 35 , 35, 0, 1;
};
%需要找到射孔段具体所在的基质网格编号
n1=size(well1,1);
for i=1:n1
perf=well1{i,3};
nperf=well1{i,2};
perf(:,3)=(r.nz+1)*ones(nperf,1)-perf(:,3);
A=repmat([0 1 1],nperf,1);
B=(perf-A)*[1;r.nx;r.nx*r.ny];
B=B'; %转换为行向量
well1{i,3}=B;
end
% %多段压裂水平井的处理,射孔段设置在裂缝单元上,可以给出该射孔点所在的坐标,然后去寻找该点所在的裂缝单元编号
welloc1=[
[255,255,5];
[305,255,5];
[355,255,5];
[405,255,5];
[455,255,5];
[505,255,5];
[555,255,5];
[605,255,5];
[655,255,5];
[705,255,5];
[755,255,5];
% [205,255,15];
% [405,255,21];
% [605,255,21];
% [805,255,31];
% 385,805,15;
% 385,685,15;
% 385,565,15;
% 385,445,15;
];
% welloc2=[955,1305,15;
% 955,1225,15;
% 955,1145,15;
% 955,1065,15;
% 955,985,15;
% 955,755,15;
% 955,675,15;
% 955,595,15;
% 955,515,15;
% 955,435,15;
% 955,355,15;];
% welloc3=[1635,1245,15;
% 1635,1165,15;
% 1635,1085,15;
% 1635,1005,15;
% 1635,925,15;
% 1635,695,15;
% 1635,615,15;
% ];
perfnum1 = findWelloc(r, welloc1);%在用以Wellc0之中
% perfnum2 = findWelloc(r, welloc2);
% perfnum3 = findWelloc(r, welloc3);
well2={
1, length(perfnum1), perfnum1, 0.178/2, 2,10, 10, 0,4;
% 1, length(perfnum2), perfnum2, 0.178/2, 2,8, 8, 0,4;
% 1, length(perfnum3), perfnum3, 0.178/2, 2,8, 8, 0,4;
};
% well2={};
% well2={1, length(perfnum), perfnum, 0.1, 2,10, 10, 0,4;
% };
% 2, 1, [ 5030 ], 0.3/0.318, 1,0.05, 30, 0,4
%把两类井整合到一起
nwell1=size(well1,1);
nwell2=size(well2,1);
nwell=nwell1+nwell2;
Wellc0=cell(nwell,9);
if nwell1==0
Wellc0=well2;
elseif nwell2==0
Wellc0=well1;
else
for i=1:nwell1
for j=1:9
Wellc0{i,j}=well1{i,j};
end
end
for i=1:nwell2
for j=1:9
Wellc0{i+nwell1,j}=well2{i,j};
end
end
end
yitap = 5; % 50-500psi
yitas = 0.04; % 0.05-0.5
omega = 0.5; % 0-1
Nmax = 50;
epsave = 1e-6;
epsmax = 1e-6;
dtmin = 0.001;
dtmax =20;
tend = 500;
nwel = size(Wellc0, 1);
WelChg = zeros(nwel, 1);%这表示都开井
Wellc = calcTrans(r, Wellc0);
w.yitap = yitap;
w.yitas = yitas;
w.omega = omega;
w.Nmax = Nmax;
w.epsave = epsave;
w.epsmax = epsmax;
w.epsave = epsave;
w.epsmax = epsmax;
w.dtmin = dtmin;
w.dtmax = dtmax;
w.tend = tend;
w.WelChg = WelChg;
w.Wellc = Wellc;
%% 计算
if modelflag==1 || modelflag==4
[Times, OutputRs, Wellpara, trun] = mainRS_MB_2014(r, f, os, w, state0);
else
[Times, OutputRs, Wellpara, trun] = mainRS_MB_modified(r, f, os, w, state0);
end
% [Times, OutputRs, Wellpara, trun] = mainRS_MB_modified(r, f, os, w, state0);
run_time=toc;
trun.run_time=run_time;
end
+144
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function plotDis(i, r,OutputRs, type)
%为便于作图进行前处理
figure('color','w')
[ downgrid, frontgrid ,leftgrid, rightgrid, backgrid, upgrid ] = preplot_dis( r );
coordinate=r.coordinates;
nodes=r.nodes;
% nmc = size(nodes,1);%基质网格数量
% % nel = size(nodes,2);%每个基质网格所包含的点数量
% order=[1,2,4,3,1,5,6,8,7,3,4,8,6,2,1];%用以fill函数作图
% nel=size(order,2);
if type == 1
v = OutputRs{i}.p;
elseif type == 2
v = 1-OutputRs{i}.sw;%含油饱和度
elseif type == 3
v = OutputRs{i}.sg;%含油饱和度
else
v = OutputRs{i}.sw;%含油饱和度
end
% 底面
order=[1,2,4,3,1];
nel=size(order,2);
nmc=size(downgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(downgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(downgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(downgrid(i),order(j)), 3)-max(coordinate(:,3))-2000;
dis(j, i) = v(downgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
hold on
%左面
order=[1,5,7,3,1];
nel=size(order,2);
nmc=size(leftgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(leftgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(leftgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(leftgrid(i),order(j)), 3)-max(coordinate(:,3))-2000;
dis(j, i) = v(leftgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%右面
order=[2,4,8,6,2];
nel=size(order,2);
nmc=size(rightgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(rightgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(rightgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(rightgrid(i),order(j)), 3)-max(coordinate(:,3))-2000;
dis(j, i) = v(rightgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%前面
order=[1,2,6,5,1];
nel=size(order,2);
nmc=size(frontgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(frontgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(frontgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(frontgrid(i),order(j)), 3)-max(coordinate(:,3))-2000;
dis(j, i) = v(frontgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%后面
order=[3,4,8,7,3];
nel=size(order,2);
nmc=size(backgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(backgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(backgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(backgrid(i),order(j)), 3)-max(coordinate(:,3))-2000;
dis(j, i) = v(backgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%上面
order=[5,6,8,7,5];
nel=size(order,2);
nmc=size(upgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(upgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(upgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(upgrid(i),order(j)), 3)-max(coordinate(:,3))-2000;
dis(j, i) = v(upgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
set(gca,'FontName','Times New Roman','FontSize',10,'FontWeight','bold');
xlabel('x, m');
ylabel('y, m');
zlabel('z, m');
view(3);
% 绘制油藏框架
% plotframe( r );
alpha(1)
% caxis([0.2,0.8]);
caxis([10,13]);
% caxis([12,22]);
colormap jet
colorbar
% zlim([-2020,-2000]);
% axis equal
axis tight
@@ -0,0 +1,46 @@
function plotDis_3D_to_2D(i, r, OutputRs, type)
coordinate=r.coordinates;
nodes=r.nodes;
nmc = size(nodes,1);
% nel = size(nodes,2);
nel = 4;
if type == 1
% v = r.kx;
v = OutputRs{i}.p;
else
v = 1-OutputRs{i}.sw;%º¬Æø±¥ºÍÈ
end
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
for i = 1 :nmc
for j = 1 :nel
x(j, i) = coordinate(nodes(i,j), 1);
y(j, i) = coordinate(nodes(i,j), 2);
if j == 3
x(j, i) = coordinate(nodes(i,4), 1);
y(j, i) = coordinate(nodes(i,4), 2);
end
if j == 4
x(j, i) = coordinate(nodes(i,3), 1);
y(j, i) = coordinate(nodes(i,3), 2);
end
dis(j, i) = v(i);
end
end
% fill(x,y,dis,'EdgeAlpha',1);
figure('color','w');
fill(x,y,dis,'EdgeColor','interp');
xlabel('x, m','FontSize',14);
ylabel('y, m','FontSize',14);
ax = gca;
ax.FontSize = 14;
axis equal;
axis tight
% xlim([0,60]);
% ylim([0,60]);
% clim([10,15]);
colorbar
colormap jet
% fill(x,y,dis);
% axis off
@@ -0,0 +1,129 @@
function plotDis_ECLIPSE( r,ECLIPSE_data)
%为便于作图进行前处理
[ downgrid, frontgrid ,leftgrid, rightgrid, backgrid, upgrid ] = preplot_dis( r );
coordinate=r.coordinates;
nodes=r.nodes;
% nmc = size(nodes,1);%基质网格数量
% % nel = size(nodes,2);%每个基质网格所包含的点数量
% order=[1,2,4,3,1,5,6,8,7,3,4,8,6,2,1];%用以fill函数作图
% nel=size(order,2);
v =reshape( ECLIPSE_data',[],1);%含油饱和度
% 底面
order=[1,2,4,3,1];
nel=size(order,2);
nmc=size(downgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(downgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(downgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(downgrid(i),order(j)), 3);
dis(j, i) = v(downgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
hold on
%左面
order=[1,5,7,3,1];
nel=size(order,2);
nmc=size(leftgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(leftgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(leftgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(leftgrid(i),order(j)), 3);
dis(j, i) = v(leftgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%右面
order=[2,4,8,6,2];
nel=size(order,2);
nmc=size(rightgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(rightgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(rightgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(rightgrid(i),order(j)), 3);
dis(j, i) = v(rightgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%前面
order=[1,2,6,5,1];
nel=size(order,2);
nmc=size(frontgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(frontgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(frontgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(frontgrid(i),order(j)), 3);
dis(j, i) = v(frontgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%后面
order=[3,4,8,7,3];
nel=size(order,2);
nmc=size(backgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(backgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(backgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(backgrid(i),order(j)), 3);
dis(j, i) = v(backgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%上面
order=[5,6,8,7,5];
nel=size(order,2);
nmc=size(upgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(upgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(upgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(upgrid(i),order(j)), 3);
dis(j, i) = v(upgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
% 绘制油藏框架
% plotframe( r );
% axis equal
axis tight
@@ -0,0 +1,147 @@
function plotDislayer(i, k ,r,OutputRs, type)
%i:时间点,k是从上至下数的层位,type: 1是压力场
figure('color','w')
[ downgrid, frontgrid ,leftgrid, rightgrid, backgrid, upgrid ] = preplot_dislayer( r,k );
coordinate=r.coordinates;
nodes=r.nodes;
nx=r.nx;
ny=r.ny;
nz=r.nz;
% order=[1,2,4,3,1,5,6,8,7,3,4,8,6,2,1];%用以fill函数作图
% % nmc = size(nodes,1);%基质网格数量
% nmc = nx*ny;
% % nel = size(nodes,2);%每个基质网格所包含的点数量
% nel=size(order,2);
if type == 1
v = OutputRs{i}.p;
% v = log(r.kx);
elseif type == 2
% v = 1-OutputRs{i}.sw -OutputRs{i}.sg;%含油饱和度
v = 1-OutputRs{i}.sw;%含油饱和度
elseif type == 3
v = OutputRs{i}.sg;%含油饱和度
else
v = OutputRs{i}.sw;%含油饱和度
end
% 底面
order=[1,2,4,3,1];
nel=size(order,2);
nmc=size(downgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(downgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(downgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(downgrid(i),order(j)), 3);
dis(j, i) = v(downgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
hold on
%左面
order=[1,5,7,3,1];
nel=size(order,2);
nmc=size(leftgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(leftgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(leftgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(leftgrid(i),order(j)), 3);
dis(j, i) = v(leftgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%右面
order=[2,4,8,6,2];
nel=size(order,2);
nmc=size(rightgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(rightgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(rightgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(rightgrid(i),order(j)), 3);
dis(j, i) = v(rightgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%前面
order=[1,2,6,5,1];
nel=size(order,2);
nmc=size(frontgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(frontgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(frontgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(frontgrid(i),order(j)), 3);
dis(j, i) = v(frontgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%后面
order=[3,4,8,7,3];
nel=size(order,2);
nmc=size(backgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(backgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(backgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(backgrid(i),order(j)), 3);
dis(j, i) = v(backgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%上面
order=[5,6,8,7,5];
nel=size(order,2);
nmc=size(upgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(upgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(upgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(upgrid(i),order(j)), 3);
dis(j, i) = v(upgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
set(gca,'FontName','Times New Roman','FontSize',10,'FontWeight','bold');
xlabel('x, m');
ylabel('y, m');
zlabel('z, m');
view(2);
% fill(x,y,dis);
axis equal
% axis off
axis tight
colormap jet
% caxis([12,22]);
colorbar
caxis([0.2,0.8]);
@@ -0,0 +1,153 @@
function plotDislayer(i, k ,r,OutputRs, type)
%i:时间点,k是从上至下数的层位,type: 1是压力场
figure('color','w')
[ downgrid, frontgrid ,leftgrid, rightgrid, backgrid, upgrid ] = preplot_dislayer( r,k );
coordinate=r.coordinates;
nodes=r.nodes;
nx=r.nx;
ny=r.ny;
nz=r.nz;
% order=[1,2,4,3,1,5,6,8,7,3,4,8,6,2,1];%用以fill函数作图
% % nmc = size(nodes,1);%基质网格数量
% nmc = nx*ny;
% % nel = size(nodes,2);%每个基质网格所包含的点数量
% nel=size(order,2);
if type == 1
v = OutputRs{i}.p;
% v = log(r.kx);
elseif type == 2
% v = 1-OutputRs{i}.sw -OutputRs{i}.sg;%含油饱和度
v = 1-OutputRs{i}.sw;%含油饱和度
elseif type == 3
v = OutputRs{i}.sg;%含油饱和度
else
v = OutputRs{i}.sw;%含油饱和度
end
% 底面
order=[1,2,4,3,1];
nel=size(order,2);
nmc=size(downgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(downgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(downgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(downgrid(i),order(j)), 3);
dis(j, i) = v(downgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
hold on
%左面
order=[1,5,7,3,1];
nel=size(order,2);
nmc=size(leftgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(leftgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(leftgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(leftgrid(i),order(j)), 3);
dis(j, i) = v(leftgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%右面
order=[2,4,8,6,2];
nel=size(order,2);
nmc=size(rightgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(rightgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(rightgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(rightgrid(i),order(j)), 3);
dis(j, i) = v(rightgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%前面
order=[1,2,6,5,1];
nel=size(order,2);
nmc=size(frontgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(frontgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(frontgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(frontgrid(i),order(j)), 3);
dis(j, i) = v(frontgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%后面
order=[3,4,8,7,3];
nel=size(order,2);
nmc=size(backgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(backgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(backgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(backgrid(i),order(j)), 3);
dis(j, i) = v(backgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%上面
order=[5,6,8,7,5];
nel=size(order,2);
nmc=size(upgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(upgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(upgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(upgrid(i),order(j)), 3);
dis(j, i) = v(upgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
set(gca,'FontName','Times New Roman','FontSize',10,'FontWeight','bold');
xlabel('x, m');
ylabel('y, m');
zlabel('z, m');
view(2);
% fill(x,y,dis);
axis equal
% axis off
axis tight
colormap jet
if type ==1
caxis([5,22]);
else
caxis([0.2,0.8]);
end
% caxis([12,22]);
% caxis([10,13]);
colorbar
% caxis([0.2,0.8]);
@@ -0,0 +1,131 @@
function plotDislayer_ECLIPSE( k ,r,ECLIPSE_data)
%i:时间点,k是从上至下数的层位,type: 1是压力场
[ downgrid, frontgrid ,leftgrid, rightgrid, backgrid, upgrid ] = preplot_dislayer( r,k );
coordinate=r.coordinates;
nodes=r.nodes;
nx=r.nx;
ny=r.ny;
nz=r.nz;
% order=[1,2,4,3,1,5,6,8,7,3,4,8,6,2,1];%用以fill函数作图
% % nmc = size(nodes,1);%基质网格数量
% nmc = nx*ny;
% % nel = size(nodes,2);%每个基质网格所包含的点数量
% nel=size(order,2);
v =reshape( ECLIPSE_data',[],1);%含油饱和度
% 底面
order=[1,2,4,3,1];
nel=size(order,2);
nmc=size(downgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(downgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(downgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(downgrid(i),order(j)), 3);
dis(j, i) = v(downgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
hold on
%左面
order=[1,5,7,3,1];
nel=size(order,2);
nmc=size(leftgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(leftgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(leftgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(leftgrid(i),order(j)), 3);
dis(j, i) = v(leftgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%右面
order=[2,4,8,6,2];
nel=size(order,2);
nmc=size(rightgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(rightgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(rightgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(rightgrid(i),order(j)), 3);
dis(j, i) = v(rightgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%前面
order=[1,2,6,5,1];
nel=size(order,2);
nmc=size(frontgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(frontgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(frontgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(frontgrid(i),order(j)), 3);
dis(j, i) = v(frontgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%后面
order=[3,4,8,7,3];
nel=size(order,2);
nmc=size(backgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(backgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(backgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(backgrid(i),order(j)), 3);
dis(j, i) = v(backgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%上面
order=[5,6,8,7,5];
nel=size(order,2);
nmc=size(upgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(upgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(upgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(upgrid(i),order(j)), 3);
dis(j, i) = v(upgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
set(gca,'FontName','Times New Roman','FontSize',10,'FontWeight','bold');
xlabel('X, m');
ylabel('Y, m');
zlabel('Z, m');
view(2);
% fill(x,y,dis);
axis equal
% axis off
axis tight
@@ -0,0 +1,48 @@
function plot_layer(i, k, r, OutputRs, type)
coordinate=r.coordinates;
nodes=r.nodes;
nz=r.nz;
nx=r.nx
nmc = size(nodes,1);
% nel = size(nodes,2);
nel = 4;
if type == 1
% v = r.kx;
v = OutputRs{i}.p;
else
v = 1-OutputRs{i}.sw;%含气饱和度
end
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
for i = 1 :nmc
for j = 1 :nel
x(j, i) = coordinate(nodes(i,j), 1);
y(j, i) = coordinate(nodes(i,j), 2);
if j == 3
x(j, i) = coordinate(nodes(i,4), 1);
y(j, i) = coordinate(nodes(i,4), 2);
end
if j == 4
x(j, i) = coordinate(nodes(i,3), 1);
y(j, i) = coordinate(nodes(i,3), 2);
end
dis(j, i) = v(i);
end
end
% fill(x,y,dis,'EdgeAlpha',1);
figure('color','w');
fill(x,y,dis,'EdgeColor','interp');
xlabel('x, m','FontSize',14);
ylabel('y, m','FontSize',14);
ax = gca;
ax.FontSize = 14;
axis equal;
axis tight
% xlim([0,60]);
% ylim([0,60]);
% clim([10,15]);
colorbar
colormap jet
% fill(x,y,dis);
% axis off
@@ -0,0 +1,49 @@
function plot_layer(i, k, r, OutputRs, type)
coordinate=r.coordinates;
nodes=r.nodes;
nz=r.nz;
nx=r.nx;
ny=r.ny;
nmc = size(nodes,1);
% nel = size(nodes,2);
nel = 4;
if type == 1
% v = r.kx;
v = OutputRs{i}.p;
else
v = 1-OutputRs{i}.sw;%º¬Æø±¥ºÍÈ
end
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
for i = 1 :nmc
for j = 1 :nel
x(j, i) = coordinate(nodes(i,j), 1);
y(j, i) = coordinate(nodes(i,j), 2);
if j == 3
x(j, i) = coordinate(nodes(i,4), 1);
y(j, i) = coordinate(nodes(i,4), 2);
end
if j == 4
x(j, i) = coordinate(nodes(i,3), 1);
y(j, i) = coordinate(nodes(i,3), 2);
end
dis(j, i) = v(i+(nz-k)*nx*ny);
end
end
% fill(x,y,dis,'EdgeAlpha',1);
figure('color','w');
fill(x,y,dis,'EdgeColor','interp');
xlabel('x, m','FontSize',14);
ylabel('y, m','FontSize',14);
ax = gca;
ax.FontSize = 14;
axis equal;
axis tight
% xlim([0,60]);
% ylim([0,60]);
% clim([10,15]);
colorbar
colormap jet
% fill(x,y,dis);
% axis off
@@ -0,0 +1,44 @@
function [ ] = plot_reservoir_3D(dx,dy,dz,nx,ny,nz )
%UNTITLED 此处显示有关此函数的摘要
% 此处显示详细说明
%figure
% 绘制x-y平面
for i=1:(nz+1)
% if i ==nz+1
face=[0,0,(i-1)*dz;nx*dx,0,(i-1)*dz;nx*dx,ny*dy,(i-1)*dz;0,ny*dy,(i-1)*dz];
% fill3(face(:,1),face(:,2),face(:,3),[0.5,0.5,0.5]);
fill3(face(:,1),face(:,2),face(:,3),'w');
% end
hold on
end
% [0.5,0.5,0.5]
% 绘制x-z平面
for i=1:(ny+1)
% if i == 1
face=[0,(i-1)*dy,0;nx*dx,(i-1)*dy,0;nx*dx,(i-1)*dy,nz*dz;0,(i-1)*dy,nz*dz];
% fill3(face(:,1),face(:,2),face(:,3),[0.5,0.5,0.5]);
fill3(face(:,1),face(:,2),face(:,3),'w');
% end
hold on
end
% 绘制y-z平面
for i=1:(nx+1)
% if i == 1
face=[(i-1)*dx,0,0;(i-1)*dx,ny*dy,0;(i-1)*dx,ny*dy,nz*dz;(i-1)*dx,0,nz*dz;];
% fill3(face(:,1),face(:,2),face(:,3),[0.5,0.5,0.5]);
fill3(face(:,1),face(:,2),face(:,3),'w');
% end
hold on
end
xlabel('x,m');
ylabel('y,m');
zlabel('z,m');
alpha(1);
hold on;
view(3)
end
+37
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@@ -0,0 +1,37 @@
function [ ] = plotcp( Times,Times2,Wellpara,Wellpara2 )
%PLOTCP 此处显示有关此函数的摘要
% 此处显示详细说明
t = Times;
n=size(Times,1);
% para = cell2mat(Wellpara);
nw=1;%选井号
% n = length(para);
bhp = zeros(n,1);
for i = 1 : n
% bhp(i) = para(i).bhp(2);
bhp(i) = Wellpara{i}{1,nw}.qo;
% bhp(i) = Wellpara{i}{1,nw}.qw;
% bhp(i) = Wellpara{i}{1,nw}.pwf;
end
plot(t,bhp,'r*-');
hold on
t = Times2;
n=size(Times2,1);
% para = cell2mat(Wellpara);
nw=1;%选井号
% n = length(para);
bhp = zeros(n,1);
for i = 1 : n
% bhp(i) = para(i).bhp(2);
% bhp(i) = Wellpara2{i}{1,nw}.qo;
bhp(i) = Wellpara2(i);
% bhp(i) = Wellpara{i}{1,nw}.qw;
% bhp(i) = Wellpara{i}{1,nw}.pwf;
end
plot(t,bhp,'bo-');
hold off
end
+37
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@@ -0,0 +1,37 @@
function [ ] = plotframe( r )
%PLOTFRAME 此处显示有关此函数的摘要
% 此处显示详细说明
xe=1000;ye=500;ze=10;
network3D(xe,ye,ze,1,1,1 );
% f1=[335,445,0;
% 335,445,10;
% 335,555,10;
% 335,555,0;
% 335,455,0;];
% plot3(f1(:,1),f1(:,2),f1(:,3));
%
% f2=[445,445,0;
% 445,445,10;
% 445,555,10;
% 445,555,0
% 445,445,0;];
% plot3(f2(:,1),f2(:,2),f2(:,3));
%
% f3=[555,445,0;
% 555,445,10;
% 555,550,10;
% 555,550,0
% 555,445,0;];
% plot3(f3(:,1),f3(:,2),f3(:,3));
%
% f4=[665,445,0;
% 665,445,10;
% 665,555,10;
% 665,555,0
% 665,445,0;];
% plot3(f4(:,1),f4(:,2),f4(:,3));
% hold off
end
+63
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@@ -0,0 +1,63 @@
%PLOTGRAPH 此处显示有关此函数的摘要
% 此处显示详细说明
% set(gca,'FontName','Times New Roman','FontSize',10,'FontWeight','bold');
subplot(1,2,1)
plotDislayer_new(15, 1 ,r,OutputRs, 1);
% caxis([10,30]);
title('Layer 1 in the 50th day','FontName','Times New Roman','FontSize',10,'FontWeight','bold');
set(gca,'FontName','Times New Roman','FontSize',10,'FontWeight','bold');
axis equal
axis tight
% set(gca,'ztick',[0 30])
% set(gca,'zticklabel',{'0' '30'})
% xlabel('Layer 1 in the 50th day');
% subplot(2,2,2)
% plotDislayer_new(15, 2 ,r,OutputRs, 1);
% caxis([10,20]);
% title('Layer 2 in the 50th day','FontName','Times New Roman','FontSize',10,'FontWeight','bold');
% set(gca,'FontName','Times New Roman','FontSize',10,'FontWeight','bold');
% axis equal
% axis tight
% set(gca,'ztick',[0 30])
% set(gca,'zticklabel',{'0' '30'})
% xlabel('Layer 2 in the 50th day');
% subplot(2,2,3)
% plotDislayer_new(15, 3 ,r,OutputRs, 1);
% caxis([10,20]);
% title('Layer 3 in the 50th day','FontName','Times New Roman','FontSize',10,'FontWeight','bold');
% set(gca,'FontName','Times New Roman','FontSize',10,'FontWeight','bold');
% axis equal
% axis tight
% set(gca,'ztick',[0 30])
% set(gca,'zticklabel',{'0' '30'})
% xlabel('Layer 3 in the 50th day');
subplot(1,2,2)
plotDis_new(15 ,r,OutputRs, 1);
% caxis([10,30]);
% xlabel('3D reservoir in the 50th day');
title('3D reservoir in the 50th day','FontName','Times New Roman','FontSize',10,'FontWeight','bold');
set(gca,'FontName','Times New Roman','FontSize',10,'FontWeight','bold');
axis equal
axis tight
% set(gca,'ztick',[0 30])
% set(gca,'zticklabel',{'0' '30'})
% colorbar('SouthOutside');
colorbar('position',[0.93 0.3 0.03 0.4]);
% subplot(1,2,1)
% plotDislayer_new(9, 1 ,r,OutputRs, 1);
% subplot(1,2,2)
% plotDislayer_new(9, 2 ,r,OutputRs, 1);
% subplot(2,4,5)
% plotDislayer_new(31, 1 ,r,OutputRs, 1);
% subplot(2,4,6)
% plotDislayer_new(31, 2 ,r,OutputRs, 1);
% subplot(2,4,7)
% plotDislayer_new(31, 3 ,r,OutputRs, 1);
% subplot(2,4,8)
% plotDis_new(31 ,r,OutputRs, 1);
+19
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@@ -0,0 +1,19 @@
t = Times;
n=size(Times,1);
% para = cell2mat(Wellpara);
nw= 1;%Ñ¡¾®ºÅ
% n = length(para);
bhp = zeros(n,1);
for i = 1 : n
% bhp(i) = para(i).bhp(2);
% bhp(i) = Wellpara{i}{1,nw}.pwf;
bhp(i) = Wellpara{i}{1,nw}.qo;
% bhp(i) = Wellpara{i}{1,nw}.pwf;
% bhp(i) = Wellpara{i}{1,nw}.qw/(Wellpara{i}{1,nw}.qw+Wellpara{i}{1,nw}.qo);
end
plot(t,bhp,'b^-')
hold off
% ylim([0,200]);
xlabel('time, day');
% ylabel('water cut');
ylabel('oil production rate, m^3/d');
@@ -0,0 +1,130 @@
n=size(Times,1);
t = Times;
% para = cell2mat(Wellpara);
total_oil=sum(r.V.*r.pori)*0.85/1.056;
total_water=sum(r.V.*r.pori)*0.15/1.056;
nw=1;%选井号
% n = length(para);
Qo = zeros(n,1);
Qw = zeros(n,1);
% Qg = zeros(n,1);
water_content = zeros(n,1);
Pwf = zeros(n,1);
accumu_quan_oil = 0;
% 累计采出量
accumu_oil = zeros(n,1);
% 采出程度
proportion_oil = zeros(n,1);
% 平均地层压力
average_pressure = zeros(n,1);
for i = 1 : n
Qo(i) = Wellpara{i}{1,nw}.qo;
Qw(i) = Wellpara{i}{1,nw}.qw;
water_content(i) = Qw(i)/(Qo(i)+Qw(i));
Pwf(i) = Wellpara{i}{1,nw}.pwf;
if i==1
one_time_oil=Times(i)*Qo(i);
one_time_water=Times(i)*Qw(i);
accumu_oil(i)=one_time_oil;
accumu_water(i)=one_time_water;
else
one_time_oil=(Times(i)-Times(i-1))*Qo(i);
accumu_oil(i)=accumu_oil(i-1)+one_time_oil;
one_time_water=(Times(i)-Times(i-1))*Qw(i);
accumu_water(i)=accumu_water(i-1)+one_time_water;
end
proportion_oil(i)=accumu_oil(i)/total_oil;
proportion_water(i)=accumu_water(i)/total_water;
average_pressure(i)=mean(OutputRs{i,1}.p(1:r.nmc));
end
%% 绘制前处理
t=t/1;
%% 绘制日产油量和累积产油量
% color('w');
figure('color','w')
% figure(1)
[AX,H1,H2]=plotyy(t,Qo,t,accumu_oil);
% [AX,H1,H2] = plotyy(24,0,0,0,'plot');
set(AX(1),'XColor','k','YColor','b');
set(AX(2),'XColor','k','YColor','r');
set(get(AX(1),'Ylabel'),'String','日产油量/m^3')
set(get(AX(2),'Ylabel'),'String','累积产油量/m^3')
set(H1,'LineStyle','-');
set(H1,'Marker','o');set(H1,'MarkerSize',4);
set(H1,'color','b');
set(H2,'LineStyle','-');
set(H2,'Marker','^');set(H2,'MarkerSize',4);
set(H2,'color','r');
legend([H1,H2],{'日产油量';'累积产油量'},'Location','Best');
set(AX(1),'ylim',[0 500])
% set(AX(2),'ylim',[0 600])
% set(AX(1),'ytick',50:50:250)
% set(AX(2),'ytick',0:100:600)
% set(AX,'xlim',[0 30])
% set(AX,'xtick',0:5:30)
% grid on
xlabel('生产时间/年')
% title('日产油量和累积产油量');
%% 绘制日产水量和累积产水量
% color('w');
figure('color','w')
% figure(1)
[AX,H1,H2]=plotyy(t,Qw,t,accumu_water);
% [AX,H1,H2] = plotyy(24,0,0,0,'plot');
set(AX(1),'XColor','k','YColor','b');
set(AX(2),'XColor','k','YColor','r');
set(get(AX(1),'Ylabel'),'String','日产水量/m^3')
set(get(AX(2),'Ylabel'),'String','累积产水量/m^3')
set(H1,'LineStyle','-');
set(H1,'Marker','o');set(H1,'MarkerSize',4);
set(H1,'color','b');
set(H2,'LineStyle','-');
set(H2,'Marker','^');set(H2,'MarkerSize',4);
set(H2,'color','r');
legend([H1,H2],{'日产水量';'累积产水量'},'Location','Best');
% set(AX(1),'ylim',[50 250])
% set(AX(2),'ylim',[0 600])
% set(AX(1),'ytick',50:50:250)
% set(AX(2),'ytick',0:100:600)
% set(AX,'xlim',[0 30])
% set(AX,'xtick',0:5:30)
% grid on
xlabel('生产时间/年')
% title('日产水量和累积产水量');
%% 绘制平均地层压力和采出程度
% color('w');
figure('color','w')
% figure(1)
[AX,H1,H2]=plotyy(t,average_pressure,t,proportion_oil*100);
% [AX,H1,H2] = plotyy(24,0,0,0,'plot');
set(AX(1),'XColor','k','YColor','b');
set(AX(2),'XColor','k','YColor','r');
set(get(AX(1),'Ylabel'),'String','平均地层压力/MPa')
set(get(AX(2),'Ylabel'),'String','采出程度/%')
set(H1,'LineStyle','-');
set(H1,'Marker','o');set(H1,'MarkerSize',4);
set(H1,'color','b');
set(H2,'LineStyle','-');
set(H2,'Marker','^');set(H2,'MarkerSize',4);
set(H2,'color','r');
legend([H1,H2],{'平均地层压力';'采出程度'},'Location','Best');
% set(AX(1),'ylim',[50 250])
% set(AX(2),'ylim',[0 600])
% set(AX(1),'ytick',50:50:250)
% set(AX(2),'ytick',0:100:600)
% set(AX,'xlim',[0 30])
% set(AX,'xtick',0:5:30)
% grid on
xlabel('生产时间/天')
% title('日产油量和累积产油量');
%% 绘制含水率
figure('color','w')
plot(t,water_content);
set(get(gca,'Xlabel'),'String','生产时间/天')
xlabel('生产时间/天')
ylabel('含水率')
% hold on
% plot(ECLIPSE(:,1),ECLIPSE(:,2),'B');
+64
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% network3D(2060,1580,10,1,1,3 );
%REFINE 此处显示有关此函数的摘要
% 此处显示详细说明
% % % well=cell(4,1);
% % % load('perforation1.mat');welloc1 = [perforation1, 7.5*ones(size(perforation1,1),1)];
% % % load('perforation2.mat');welloc2 = [perforation2, 7.5*ones(size(perforation2,1),1)];
% % % load('perforation3.mat');welloc3 = [perforation3, 7.5*ones(size(perforation3,1),1)];
% % % load('perforation4.mat');welloc4 = [perforation4, 7.5*ones(size(perforation4,1),1)];
% % % well{1,1} = welloc1;
% % % well{2,1} = welloc2;
% % % well{3,1} = welloc3;
% % % well{4,1} = welloc4;
% % %
% % % for i=1:4
% % % line(well{i,1}(:,1)',well{i,1}(:,2)',well{i,1}(:,3)','color','k','LineWidth',2);
% % % hold on
% % % end
% load('injectionWellsCoord.mat')
% injectionWellsCoord = [45,45;
% 655,45;
% 45,625;
% 655,625;];
% for i=1:size(injectionWellsCoord,1)
% line(injectionWellsCoord(i,1)*ones(2,1),injectionWellsCoord(i,2)*ones(2,1),[0;20],'color','k','LineWidth',2);
% hold on
% text(injectionWellsCoord(i,1),injectionWellsCoord(i,2),20,'注水井','FontSize',12,'FontWeight','bold');
% hold on
% end
% wellbore
% wellbore = [250+100,100+100,46;
% 550+100,100+1700,46];
% % wellbore = [50,352,10;
% % 950,352,10;];
% plot3(wellbore(:,1),wellbore(:,2),wellbore(:,3),'color','k','LineWidth',2.5);
% wellbore = [450,520,10;
% 450,1420,10;];
% % wellbore = [50,352,10;
% % 950,352,10;];
% plot3(wellbore(:,1),wellbore(:,2),wellbore(:,3),'color','k','LineWidth',2.5);
hold on
% wellbore = [1175,370,10;
% 1175,1170,10;];
% % wellbore = [50,352,10;
% % 950,352,10;];
% plot3(wellbore(:,1),wellbore(:,2),wellbore(:,3),'color','k','LineWidth',2.5);
% text(wellbore(1,1),wellbore(1,2),10,'压裂水平井','FontSize',12,'FontWeight','bold');
hold on
% hwell=cell(1,1);
% hwell{1,1}=[385,1300,15;
% 385,400,15;];
% hwell{2,1}=[955,1330,15;
% 955,330,15;];
% hwell{3,1}=[1635,1275,15;
% 1635,580,15;];
% for i=1:3
% line(hwell{i,1}(:,1)',hwell{i,1}(:,2)',hwell{i,1}(:,3)','color','k');
% hold on
% end
+55
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@@ -0,0 +1,55 @@
function [] = plotWellResponse(Times,Wellpara)
% 输入
wellNumber = 1; % 井号
dataType = 'dPWF'; % 类型,产气速度 GPR,产气速度 OPR, 产水速度 WPR,井底流压 BHP,压力导数 dPWF
%
t = Times;
n= size(Times,1);
% para = cell2mat(Wellpara);
nw = wellNumber;%选井号
% n = length(para);
data = zeros(n,1);
if strcmp(dataType, 'GPR')
for i = 1 : n
data(i) = Wellpara{i}{1,nw}.qg;
figureYlegend = 'Gas production rate, m^3/d';
end
plot(t,data,'k^-');hold off; xlabel('Time, day');ylabel(figureYlegend);
end
if strcmp(dataType, 'OPR')
for i = 1 : n
data(i) = Wellpara{i}{1,nw}.qo;
figureYlegend = 'Oil production rate, m^3/d';
end
plot(t,data,'k^-');hold off; xlabel('Time, day');ylabel(figureYlegend);
end
if strcmp(dataType, 'WPR')
for i = 1 : n
data(i) = Wellpara{i}{1,nw}.qw;
figureYlegend = 'Water production rate, m^3/d';
end
plot(t,data,'k^-');hold off; xlabel('Time, day');ylabel(figureYlegend);
end
if strcmp(dataType, 'BHP')
for i = 1 : n
data(i) = Wellpara{i}{1,nw}.pwf;
figureYlegend = 'BHP, MPa';
end
plot(t,data,'k^-');hold off; xlabel('Time, day');ylabel(figureYlegend);
end
if strcmp(dataType, 'dPWF') % dpwf/dlnt = t*dpwf/dt
for i = 1 : n
if i == 1
data(i) = (Wellpara{i+1}{1,nw}.pwf-Wellpara{i}{1,nw}.pwf)/(log(t(i+1))-log(t(i)));
elseif i == n
data(i) = (Wellpara{i}{1,nw}.pwf-Wellpara{i-1}{1,nw}.pwf)/(log(t(i))-log(t(i-1)));
else
data(i) = (Wellpara{i+1}{1,nw}.pwf-Wellpara{i-1}{1,nw}.pwf)/(log(t(i+1))-log(t(i-1)));
end
figureYlegend = 'Pressure derivative, MPa';
end
plot(t,data,'k^-');hold off; xlabel('Time, day');ylabel(figureYlegend);
set(gca, 'XScale', 'log');
set(gca, 'YScale', 'log');
end
end
+50
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function plot_2D_layer(i, k, r, OutputRs, type)
coordinate=r.coordinates;
nodes=r.nodes;
nz=r.nz;
nx=r.nx;
ny=r.ny;
nmc = size(nodes,1);
% nel = size(nodes,2);
nel = 4;
if type == 1
% v = r.kx;
v = OutputRs{i}.p;
else
v = 1-OutputRs{i}.sw;%º¬Æø±¥ºÍÈ
end
dis = zeros(nel, nx*ny);
x = zeros(nel, nx*ny);
y = zeros(nel, nx*ny);
for i = 1 :nx*ny
for j = 1 :nel
grid_numbering = i+(nz-k)*nx*ny;
x(j, i) = coordinate(nodes(grid_numbering,j), 1);
y(j, i) = coordinate(nodes(grid_numbering,j), 2);
if j == 3
x(j, i) = coordinate(nodes(grid_numbering,4), 1);
y(j, i) = coordinate(nodes(grid_numbering,4), 2);
end
if j == 4
x(j, i) = coordinate(nodes(grid_numbering,3), 1);
y(j, i) = coordinate(nodes(grid_numbering,3), 2);
end
dis(j, i) = v(grid_numbering);
end
end
% fill(x,y,dis,'EdgeAlpha',1);
figure('color','w');
fill(x,y,dis,'EdgeColor','interp');
xlabel('x, m','FontSize',14);
ylabel('y, m','FontSize',14);
ax = gca;
ax.FontSize = 14;
axis equal;
axis tight
% xlim([0,60]);
% ylim([0,60]);
% clim([10,15]);
colorbar
colormap jet
% fill(x,y,dis);
% axis off
+70
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@@ -0,0 +1,70 @@
% 主程序示例
clear; clc; close all;
% 设置网格参数
nx = 20;
ny = 15;
nz = 10;
% 生成非均匀网格尺寸
dx = linspace(0.5, 1.5, nx)'; % x方向网格尺寸从0.5到1.5变化
dy = linspace(0.8, 1.2, ny)'; % y方向网格尺寸从0.8到1.2变化
dz = ones(nz, 1) * 1.0; % z方向均匀网格
% 生成示例数据(例如:三维高斯分布)
x_center = sum(dx)/2; % 中心位置
y_center = sum(dy)/2;
z_center = sum(dz)/2;
% 计算每个网格点的坐标
x_pos = zeros(nx, 1);
x_pos(1) = dx(1)/2;
for i = 2:nx
x_pos(i) = x_pos(i-1) + (dx(i-1) + dx(i))/2;
end
y_pos = zeros(ny, 1);
y_pos(1) = dy(1)/2;
for i = 2:ny
y_pos(i) = y_pos(i-1) + (dy(i-1) + dy(i))/2;
end
z_pos = zeros(nz, 1);
z_pos(1) = dz(1)/2;
for i = 2:nz
z_pos(i) = z_pos(i-1) + (dz(i-1) + dz(i))/2;
end
% 创建网格坐标
[X, Y, Z] = ndgrid(x_pos, y_pos, z_pos);
% 生成示例物理量数据(三维高斯分布)
sigma_x = max(x_pos)/3;
sigma_y = max(y_pos)/3;
sigma_z = max(z_pos)/3;
data = exp(-((X - x_center).^2/(2*sigma_x^2) + ...
(Y - y_center).^2/(2*sigma_y^2) + ...
(Z - z_center).^2/(2*sigma_z^2)));
% 绘制不同类型的图
% plot_3d_grid_data_slice(nx, ny, nz, dx, dy, dz, data);
% plot_3d_grid_data_scatter(nx, ny, nz, dx, dy, dz, data);
% plot_3d_grid_data_volume(nx, ny, nz, dx, dy, dz, data);
% 方法1:基本体素图
fprintf('绘制方法1:基本体素图...\n');
plot_3d_grid_voxel_full(nx, ny, nz, dx, dy, dz, data);
title('方法1:基本体素图 - 高斯分布');
% 方法2:优化版本
fprintf('绘制方法2:优化版本...\n');
plot_3d_grid_patch_optimized(nx, ny, nz, dx, dy, dz, data);
title('方法2:优化版本 - 球壳分布');
% 方法3:体素函数法
fprintf('绘制方法3:体素函数法...\n');
plot_3d_grid_voxel_function(nx, ny, nz, dx, dy, dz, data);
title('方法3:体素函数法 - 波纹分布');
% 方法4:半透明效果
fprintf('绘制方法4:半透明效果...\n');
plot_3d_grid_transparent(nx, ny, nz, dx, dy, dz, data);
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function plot_3D_dis(i, r,OutputRs, type)
%为便于作图进行前处理
figure('color','w')
[ downgrid, frontgrid ,leftgrid, rightgrid, backgrid, upgrid ] = preplot_dis( r );
coordinate=r.coordinates;
nodes=r.nodes;
% nmc = size(nodes,1);%基质网格数量
% % nel = size(nodes,2);%每个基质网格所包含的点数量
% order=[1,2,4,3,1,5,6,8,7,3,4,8,6,2,1];%用以fill函数作图
% nel=size(order,2);
if type == 1
v = OutputRs{i}.p;
elseif type == 2
v = 1-OutputRs{i}.sw;%含油饱和度
elseif type == 3
v = OutputRs{i}.sg;%含油饱和度
else
v = OutputRs{i}.sw;%含油饱和度
end
% 底面
order=[1,2,4,3,1];
nel=size(order,2);
nmc=size(downgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(downgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(downgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(downgrid(i),order(j)), 3)-max(coordinate(:,3))-2000;
dis(j, i) = v(downgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
hold on
%左面
order=[1,5,7,3,1];
nel=size(order,2);
nmc=size(leftgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(leftgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(leftgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(leftgrid(i),order(j)), 3)-max(coordinate(:,3))-2000;
dis(j, i) = v(leftgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%右面
order=[2,4,8,6,2];
nel=size(order,2);
nmc=size(rightgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(rightgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(rightgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(rightgrid(i),order(j)), 3)-max(coordinate(:,3))-2000;
dis(j, i) = v(rightgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%前面
order=[1,2,6,5,1];
nel=size(order,2);
nmc=size(frontgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(frontgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(frontgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(frontgrid(i),order(j)), 3)-max(coordinate(:,3))-2000;
dis(j, i) = v(frontgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%后面
order=[3,4,8,7,3];
nel=size(order,2);
nmc=size(backgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(backgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(backgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(backgrid(i),order(j)), 3)-max(coordinate(:,3))-2000;
dis(j, i) = v(backgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
%上面
order=[5,6,8,7,5];
nel=size(order,2);
nmc=size(upgrid,2);
dis = zeros(nel, nmc);
x = zeros(nel, nmc);
y = zeros(nel, nmc);
z = zeros(nel, nmc);
for i = 1 : nmc
for j = 1 : nel
x(j, i) = coordinate(nodes(upgrid(i),order(j)), 1);
y(j, i) = coordinate(nodes(upgrid(i),order(j)), 2);
z(j, i) = coordinate(nodes(upgrid(i),order(j)), 3)-max(coordinate(:,3))-2000;
dis(j, i) = v(upgrid(i));
end
end
fill3(x,y,z,dis,'edgeColor','interp');
set(gca,'FontName','Times New Roman','FontSize',10,'FontWeight','bold');
xlabel('x, m');
ylabel('y, m');
zlabel('z, m');
view(3);
% 绘制油藏框架
% plotframe( r );
alpha(1)
% caxis([0.2,0.8]);
caxis([10,13]);
% caxis([12,22]);
colormap jet
colorbar
% zlim([-2020,-2000]);
% axis equal
axis tight
@@ -0,0 +1,54 @@
function plot_3d_grid_data_scatter(nx, ny, nz, dx, dy, dz, data)
% 绘制三维网格数据的点云图
% 输入参数:
% nx, ny, nz - 各方向的网格数
% dx, dy, dz - 各方向的网格尺寸向量
% data - 物理量数据,维度为(nx, ny, nz)
% 计算每个网格点的坐标位置
x = zeros(1, nx);
x(1) = dx(1)/2;
for i = 2:nx
x(i) = x(i-1) + (dx(i-1) + dx(i))/2;
end
y = zeros(1, ny);
y(1) = dy(1)/2;
for i = 2:ny
y(i) = y(i-1) + (dy(i-1) + dy(i))/2;
end
z = zeros(1, nz);
z(1) = dz(1)/2;
for i = 2:nz
z(i) = z(i-1) + (dz(i-1) + dz(i))/2;
end
% 创建所有网格点的坐标矩阵
[X, Y, Z] = ndgrid(x, y, z);
% data已经是(nx, ny, nz)格式,与ndgrid输出匹配
% 将数据展平用于scatter3
X_flat = X(:);
Y_flat = Y(:);
Z_flat = Z(:);
data_flat = data(:);
% 创建新图形
figure('Position', [100, 100, 800, 600]);
% 使用scatter3绘制点云图
scatter3(X_flat, Y_flat, Z_flat, 20, data_flat, 'filled');
colorbar;
colormap('jet');
xlabel('X');
ylabel('Y');
zlabel('Z');
title('三维网格物理量分布(点云图)');
axis equal;
view(3);
grid on;
% 添加透明度设置(可选,用于显示内部点)
alpha(0.8);
end
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function plot_3d_grid_data_slice(nx, ny, nz, dx, dy, dz, data)
% 绘制三维网格数据的切片图
% 输入参数:
% nx, ny, nz - 各方向的网格数
% dx, dy, dz - 各方向的网格尺寸向量
% data - 物理量数据,维度为(nx, ny, nz)
% 计算每个网格点的坐标位置(取网格中心点)
x = zeros(1, nx);
x(1) = dx(1)/2;
for i = 2:nx
x(i) = x(i-1) + (dx(i-1) + dx(i))/2;
end
y = zeros(1, ny);
y(1) = dy(1)/2;
for i = 2:ny
y(i) = y(i-1) + (dy(i-1) + dy(i))/2;
end
z = zeros(1, nz);
z(1) = dz(1)/2;
for i = 2:nz
z(i) = z(i-1) + (dz(i-1) + dz(i))/2;
end
% 创建三维网格
[X, Y, Z] = meshgrid(x, y, z);
% 注意:meshgrid生成的数组维度顺序为(ny, nx, nz)
% 如果data是(nx, ny, nz),需要转置
data_plot = permute(data, [2, 1, 3]);
% 创建新图形
figure('Position', [100, 100, 800, 600]);
% 使用slice绘制三个正交切面
xslice = [x(round(nx/4)), x(round(nx/2)), x(round(3*nx/4))];
yslice = [y(round(ny/4)), y(round(ny/2)), y(round(3*ny/4))];
zslice = [z(round(nz/4)), z(round(nz/2)), z(round(3*nz/4))];
slice(X, Y, Z, data_plot, xslice, yslice, zslice);
shading interp;
colorbar;
colormap('jet');
xlabel('X');
ylabel('Y');
zlabel('Z');
title('三维网格物理量分布(切片图)');
axis equal;
view(3);
grid on;
end
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function plot_3d_grid_data_volume(nx, ny, nz, dx, dy, dz, data)
% 绘制三维网格数据的体绘制图
% 输入参数:
% nx, ny, nz - 各方向的网格数
% dx, dy, dz - 各方向的网格尺寸向量
% data - 物理量数据,维度为(nx, ny, nz)
% 计算每个网格点的坐标位置
x = zeros(1, nx);
x(1) = dx(1)/2;
for i = 2:nx
x(i) = x(i-1) + (dx(i-1) + dx(i))/2;
end
y = zeros(1, ny);
y(1) = dy(1)/2;
for i = 2:ny
y(i) = y(i-1) + (dy(i-1) + dy(i))/2;
end
z = zeros(1, nz);
z(1) = dz(1)/2;
for i = 2:nz
z(i) = z(i-1) + (dz(i-1) + dz(i))/2;
end
% 创建三维网格
[X, Y, Z] = meshgrid(x, y, z);
% 调整data维度
data_plot = permute(data, [2, 1, 3]);
% 创建新图形
figure('Position', [100, 100, 900, 700]);
% 方法1:使用vol3d v2(如果安装了File Exchange的vol3d工具)
% 如果没有安装,可以使用以下基本体绘制
% 创建多个等值面
levels = linspace(min(data(:)), max(data(:)), 5);
for i = 2:length(levels)-1
p = patch(isosurface(X, Y, Z, data_plot, levels(i)));
isonormals(X, Y, Z, data_plot, p);
set(p, 'FaceColor', 'interp', 'EdgeColor', 'none');
% 根据数据值设置颜色
cdata = get(p, 'FaceVertexCData');
set(p, 'FaceVertexCData', cdata);
end
% 添加一些切片来显示内部结构
hold on;
h = slice(X, Y, Z, data_plot, x(round(nx/2)), y(round(ny/2)), z(round(nz/2)));
set(h, 'FaceAlpha', 0.6, 'EdgeColor', 'none');
colorbar;
colormap('jet');
xlabel('X');
ylabel('Y');
zlabel('Z');
title('三维网格物理量分布(体绘制)');
axis equal;
view(3);
grid on;
camlight;
lighting gouraud;
end
@@ -0,0 +1,128 @@
function plot_3d_grid_patch_optimized(nx, ny, nz, dx, dy, dz, data)
% 使用patch一次性绘制所有网格(优化版本)
% 输入参数:
% nx, ny, nz - 各方向的网格数
% dx, dy, dz - 各方向的网格尺寸向量
% data - 物理量数据,维度为(nx, ny, nz)
% 计算每个网格的边界坐标
x_edges = zeros(nx+1, 1);
x_edges(1) = 0;
for i = 1:nx
x_edges(i+1) = x_edges(i) + dx(i);
end
y_edges = zeros(ny+1, 1);
y_edges(1) = 0;
for i = 1:ny
y_edges(i+1) = y_edges(i) + dy(i);
end
z_edges = zeros(nz+1, 1);
z_edges(1) = 0;
for i = 1:nz
z_edges(i+1) = z_edges(i) + dz(i);
end
% 创建网格顶点坐标
[X_edges, Y_edges, Z_edges] = ndgrid(x_edges, y_edges, z_edges);
% 重新排列顶点
vertices = [X_edges(:), Y_edges(:), Z_edges(:)];
% 创建每个体素的8个顶点索引
n_cells = nx * ny * nz;
faces = zeros(n_cells * 6, 4); % 每个体素6个面,每个面4个顶点
face_colors = zeros(n_cells * 6, 1);
% 顶点编号方式:按照(i,j,k)顺序
% 每个体素的8个顶点索引
% v1: (i,j,k)
% v2: (i+1,j,k)
% v3: (i+1,j+1,k)
% v4: (i,j+1,k)
% v5: (i,j,k+1)
% v6: (i+1,j,k+1)
% v7: (i+1,j+1,k+1)
% v8: (i,j+1,k+1)
face_idx = 1;
for i = 1:nx
for j = 1:ny
for k = 1:nz
% 计算当前体素的8个顶点索引
idx = @(ii, jj, kk) (ii-1)*(ny+1)*(nz+1) + (jj-1)*(nz+1) + kk;
v1 = idx(i, j, k);
v2 = idx(i+1, j, k);
v3 = idx(i+1, j+1, k);
v4 = idx(i, j+1, k);
v5 = idx(i, j, k+1);
v6 = idx(i+1, j, k+1);
v7 = idx(i+1, j+1, k+1);
v8 = idx(i, j+1, k+1);
% 当前体素的值
cell_value = data(i, j, k);
% 底面 (k层)
faces(face_idx, :) = [v1, v2, v3, v4];
face_colors(face_idx) = cell_value;
face_idx = face_idx + 1;
% 顶面 (k+1层)
faces(face_idx, :) = [v5, v6, v7, v8];
face_colors(face_idx) = cell_value;
face_idx = face_idx + 1;
% 前面 (j层)
faces(face_idx, :) = [v1, v2, v6, v5];
face_colors(face_idx) = cell_value;
face_idx = face_idx + 1;
% 后面 (j+1层)
faces(face_idx, :) = [v4, v3, v7, v8];
face_colors(face_idx) = cell_value;
face_idx = face_idx + 1;
% 左面 (i层)
faces(face_idx, :) = [v1, v4, v8, v5];
face_colors(face_idx) = cell_value;
face_idx = face_idx + 1;
% 右面 (i+1层)
faces(face_idx, :) = [v2, v3, v7, v6];
face_colors(face_idx) = cell_value;
face_idx = face_idx + 1;
end
end
end
% 创建图形
figure('Position', [100, 100, 1000, 800]);
% 绘制所有面
patch('Vertices', vertices, 'Faces', faces, ...
'FaceVertexCData', face_colors, ...
'FaceColor', 'flat', ...
'CDataMapping', 'scaled', ...
'EdgeColor', 'none', ...
'FaceAlpha', 0.9);
% 设置属性
colorbar;
colormap jet;
xlabel('X');
ylabel('Y');
zlabel('Z');
title('三维笛卡尔网格全充满物理量分布(优化版)');
axis equal;
view(3);
grid on;
box on;
% 光照设置
lighting gouraud;
light('Position', [1 1 1], 'Style', 'infinite');
light('Position', [-1 -1 -1], 'Style', 'infinite');
end
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function plot_3d_grid_transparent(nx, ny, nz, dx, dy, dz, data)
% 绘制半透明效果的三维网格
% 输入参数:
% nx, ny, nz - 各方向的网格数
% dx, dy, dz - 各方向的网格尺寸向量
% data - 物理量数据,维度为(nx, ny, nz)
% 计算每个网格的边界坐标
x_edges = zeros(nx+1, 1);
x_edges(1) = 0;
for i = 1:nx
x_edges(i+1) = x_edges(i) + dx(i);
end
y_edges = zeros(ny+1, 1);
y_edges(1) = 0;
for i = 1:ny
y_edges(i+1) = y_edges(i) + dy(i);
end
z_edges = zeros(nz+1, 1);
z_edges(1) = 0;
for i = 1:nz
z_edges(i+1) = z_edges(i) + dz(i);
end
% 创建图形
figure('Position', [100, 100, 1000, 800]);
hold on;
% 设置颜色映射
colormap jet;
caxis([min(data(:)), max(data(:))]);
% 根据物理量值设置透明度
% 值越大越不透明,值越小越透明
data_min = min(data(:));
data_max = max(data(:));
data_range = data_max - data_min;
for i = 1:nx
for j = 1:ny
for k = 1:nz
% 获取当前体素的边界
x_min = x_edges(i);
x_max = x_edges(i+1);
y_min = y_edges(j);
y_max = y_edges(j+1);
z_min = z_edges(k);
z_max = z_edges(k+1);
% 获取当前体素的物理量值
value = data(i, j, k);
% 根据值设置透明度(值越大越不透明)
% alpha_val = 0.3 + 0.6 * (value - data_min) / data_range;
alpha_val = 1;
% 创建体素的8个顶点
vertices = [x_min, y_min, z_min;
x_max, y_min, z_min;
x_max, y_max, z_min;
x_min, y_max, z_min;
x_min, y_min, z_max;
x_max, y_min, z_max;
x_max, y_max, z_max;
x_min, y_max, z_max];
% 创建6个面的顶点索引
faces = [1 2 3 4; % 底面
5 6 7 8; % 顶面
1 2 6 5; % 前面
2 3 7 6; % 右面
3 4 8 7; % 后面
4 1 5 8]; % 左面
% 绘制体素
patch('Vertices', vertices, 'Faces', faces, ...
'FaceColor', 'flat', ...
'FaceVertexCData', value, ...
'CDataMapping', 'scaled', ...
'FaceAlpha', alpha_val, ...
'EdgeColor', 'none');
end
end
end
% 设置图形属性
colorbar;
xlabel('X');
ylabel('Y');
zlabel('Z');
title('三维笛卡尔网格全充满物理量分布(透明度与数值相关)');
axis equal;
view(3);
grid on;
box on;
% 光照设置
lighting gouraud;
light('Position', [1 1 1], 'Style', 'infinite');
light('Position', [-1 -1 -1], 'Style', 'infinite');
hold off;
end
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function plot_3d_grid_voxel_full(nx, ny, nz, dx, dy, dz, data)
% 绘制三维笛卡尔网格全充满的体素图(每个网格单一颜色)
% 输入参数:
% nx, ny, nz - 各方向的网格数
% dx, dy, dz - 各方向的网格尺寸向量
% data - 物理量数据,维度为(nx, ny, nz)
% 计算每个网格的边界坐标
x_edges = zeros(nx+1, 1);
x_edges(1) = 0;
for i = 1:nx
x_edges(i+1) = x_edges(i) + dx(i);
end
y_edges = zeros(ny+1, 1);
y_edges(1) = 0;
for i = 1:ny
y_edges(i+1) = y_edges(i) + dy(i);
end
z_edges = zeros(nz+1, 1);
z_edges(1) = 0;
for i = 1:nz
z_edges(i+1) = z_edges(i) + dz(i);
end
% 创建图形窗口
figure('Position', [100, 100, 1000, 800]);
hold on;
% 设置颜色映射
colormap jet;
caxis([min(data(:)), max(data(:))]);
% 绘制每个体素
alpha_value = 0.9; % 透明度
for i = 1:nx
for j = 1:ny
for k = 1:nz
% 获取当前体素的边界
x_min = x_edges(i);
x_max = x_edges(i+1);
y_min = y_edges(j);
y_max = y_edges(j+1);
z_min = z_edges(k);
z_max = z_edges(k+1);
% 获取当前体素的物理量值
value = data(i, j, k);
% 创建体素的8个顶点
vertices = [x_min, y_min, z_min;
x_max, y_min, z_min;
x_max, y_max, z_min;
x_min, y_max, z_min;
x_min, y_min, z_max;
x_max, y_min, z_max;
x_max, y_max, z_max;
x_min, y_max, z_max];
% 创建6个面的顶点索引
faces = [1 2 3 4; % 底面
5 6 7 8; % 顶面
1 2 6 5; % 前面
2 3 7 6; % 右面
3 4 8 7; % 后面
4 1 5 8]; % 左面
% 关键修改:使用 'flat' 确保每个面单一颜色
% 并且为每个面指定相同的颜色值
patch('Vertices', vertices, 'Faces', faces, ...
'FaceColor', 'flat', ... % 'flat' 确保每个面单一颜色
'FaceVertexCData', value * ones(size(faces, 1), 1), ... % 所有面使用相同颜色值
'CDataMapping', 'scaled', ...
'FaceAlpha', alpha_value, ...
'EdgeColor', 'none');
end
end
end
% 设置图形属性
colorbar;
xlabel('X');
ylabel('Y');
zlabel('Z');
title('三维笛卡尔网格全充满物理量分布(每个网格单一颜色)');
axis equal;
view(3);
grid on;
box on;
% 设置光照
lighting gouraud;
light('Position', [1 1 1], 'Style', 'infinite');
light('Position', [-1 -1 -1], 'Style', 'infinite');
hold off;
end
@@ -0,0 +1,105 @@
function plot_3d_grid_voxel_function_fixed(nx, ny, nz, dx, dy, dz, data)
% 使用自定义voxel函数绘制三维网格(每个网格单一颜色)
% 输入参数:
% nx, ny, nz - 各方向的网格数
% dx, dy, dz - 各方向的网格尺寸向量
% data - 物理量数据,维度为(nx, ny, nz)
% 计算每个网格的中心坐标
x_center = zeros(nx, 1);
x_center(1) = dx(1)/2;
for i = 2:nx
x_center(i) = x_center(i-1) + (dx(i-1) + dx(i))/2;
end
y_center = zeros(ny, 1);
y_center(1) = dy(1)/2;
for i = 2:ny
y_center(i) = y_center(i-1) + (dy(i-1) + dy(i))/2;
end
z_center = zeros(nz, 1);
z_center(1) = dz(1)/2;
for i = 2:nz
z_center(i) = z_center(i-1) + (dz(i-1) + dz(i))/2;
end
% 创建图形
figure('Position', [100, 100, 1000, 800]);
hold on;
% 设置颜色映射
colormap jet;
caxis([min(data(:)), max(data(:))]);
% 绘制每个体素
alpha_val = 0.9; % 透明度
for i = 1:nx
for j = 1:ny
for k = 1:nz
% 绘制体素 - 传递当前网格的值
voxel_fixed([x_center(i), y_center(j), z_center(k)], ...
[dx(i), dy(j), dz(k)], ...
data(i, j, k), alpha_val);
end
end
end
% 设置图形属性
colorbar;
xlabel('X');
ylabel('Y');
zlabel('Z');
title('三维笛卡尔网格全充满物理量分布(体素法,单一颜色)');
axis equal;
view(3);
grid on;
box on;
% 光照设置
lighting gouraud;
light('Position', [1 1 1], 'Style', 'infinite');
light('Position', [-1 -1 -1], 'Style', 'infinite');
hold off;
end
function voxel_fixed(center, size, value, alpha)
% 绘制单个体素的辅助函数(每个面使用相同颜色)
% center: [x, y, z] 中心坐标
% size: [dx, dy, dz] 尺寸
% value: 物理量值
% alpha: 透明度
% 计算8个顶点
x = center(1) + [-size(1)/2, size(1)/2];
y = center(2) + [-size(2)/2, size(2)/2];
z = center(3) + [-size(3)/2, size(3)/2];
% 创建8个顶点
vertices = [x(1), y(1), z(1);
x(2), y(1), z(1);
x(2), y(2), z(1);
x(1), y(2), z(1);
x(1), y(1), z(2);
x(2), y(1), z(2);
x(2), y(2), z(2);
x(1), y(2), z(2)];
% 6个面的顶点索引
faces = [1 2 3 4;
5 6 7 8;
1 2 6 5;
2 3 7 6;
3 4 8 7;
4 1 5 8];
% 关键修改:使用 'flat' 并确保所有面使用相同的颜色值
patch('Vertices', vertices, 'Faces', faces, ...
'FaceColor', 'flat', ... % 'flat' 确保每个面单一颜色
'FaceVertexCData', value * ones(size(faces, 1), 1), ... % 所有面相同颜色
'CDataMapping', 'scaled', ...
'FaceAlpha', alpha, ...
'EdgeColor', 'none');
end
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function plot_SP_DP(k, r)
coordinate=r.coordinates;
nodes=r.nodes;
nz=r.nz;
nx=r.nx;
ny=r.ny;
nmc = size(nodes,1);
% nel = size(nodes,2);
nel = 4;
v = r.sigma;
% if type == 1
% % v = r.kx;
% v = OutputRs{i}.p;
% else
% v = 1-OutputRs{i}.sw;%º¬Æø±¥ºÍÈ
% end
dis = zeros(nel, nx*ny);
x = zeros(nel, nx*ny);
y = zeros(nel, nx*ny);
for i = 1 :nx*ny
for j = 1 :nel
grid_numbering = i+(nz-k)*nx*ny;
x(j, i) = coordinate(nodes(grid_numbering,j), 1);
y(j, i) = coordinate(nodes(grid_numbering,j), 2);
if j == 3
x(j, i) = coordinate(nodes(grid_numbering,4), 1);
y(j, i) = coordinate(nodes(grid_numbering,4), 2);
end
if j == 4
x(j, i) = coordinate(nodes(grid_numbering,3), 1);
y(j, i) = coordinate(nodes(grid_numbering,3), 2);
end
dis(j, i) = v(grid_numbering);
end
end
% fill(x,y,dis,'EdgeAlpha',1);
figure('color','w');
fill(x,y,dis,'EdgeColor','interp');
xlabel('x, m','FontSize',14);
ylabel('y, m','FontSize',14);
ax = gca;
ax.FontSize = 14;
axis equal;
axis tight
% xlim([0,60]);
% ylim([0,60]);
% clim([10,15]);
colorbar
colormap jet
% fill(x,y,dis);
% axis off
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function [ downgrid, frontgrid ,leftgrid, rightgrid, backgrid, upgrid ] = preplot_dis( r )
%PREPLOT 此处显示有关此函数的摘要
% 此处显示详细说明
nx=r.nx;
ny=r.ny;
nz=r.nz;
downgrid=[];
frontgrid=[];
leftgrid=[];
rightgrid=[];
backgrid=[];
upgrid=[];
for k=1:nz
for j=1:ny
for i=1:nx
rao=i+(j-1)*nx+(k-1)*nx*ny;
if k==1
downgrid=[downgrid rao];
end
if k==nz
upgrid=[upgrid rao];
end
if i==1
leftgrid=[leftgrid rao];
end
if i==nx
rightgrid=[rightgrid rao];
end
if j==1
frontgrid=[frontgrid rao];
end
if j==ny
backgrid=[backgrid rao];
end
end
end
end
end
@@ -0,0 +1,41 @@
function [ downgrid, frontgrid ,leftgrid, rightgrid, backgrid, upgrid ] = preplot_dislayer( r,k )
%PREPLOT 此处显示有关此函数的摘要
% 此处显示详细说明
% k表示从上面数的层数
nx=r.nx;
ny=r.ny;
nz=r.nz;
downgrid=[];
frontgrid=[];
leftgrid=[];
rightgrid=[];
backgrid=[];
upgrid=[];
xiang=nz+1-k;
for j=1:ny
for i=1:nx
rao=i+(j-1)*nx+(xiang-1)*nx*ny;
downgrid=[downgrid rao];
upgrid=[upgrid rao];
if i==1
leftgrid=[leftgrid rao];
end
if i==nx
rightgrid=[rightgrid rao];
end
if j==1
frontgrid=[frontgrid rao];
end
if j==ny
backgrid=[backgrid rao];
end
end
end
end
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function [ f,fellip ] = sort_fracture( inputf )
nf=size(inputf,1);
f=[];fellip=[];
for i=1:nf
ft1=inputf{i,1};
alpha=inputf{i,2}/180*pi;beta=inputf{i,3}/180*pi;gama=inputf{i,4}/180*pi;%角度转换为弧度制
lf=inputf{i,5};hf=inputf{i,6};
ft2=lf/2*[cos(alpha)*cos(gama)+sin(alpha)*cos(beta)*sin(gama),-cos(alpha)*cos(beta)*sin(gama)+sin(alpha)*cos(gama),...
sin(beta)*sin(gama)];
ft3=hf/2*[sin(alpha)*cos(beta)*cos(gama)-cos(alpha)*sin(gama),-sin(alpha)*sin(gama)-cos(alpha)*cos(beta)*cos(gama),sin(beta)*cos(gama)];
if inputf{i,7}==1 %矩形缝
ft4=[-1,1,0];ft5=[-1,1,0];
f=[f;ft1;ft2;ft3;ft4;ft5];
f(abs(f)<=1e-4)=0;
else %椭圆缝
ft4=[0,0,1];ft5=[0,0,1];
fellip=[fellip;ft1;ft2;ft3;ft4;ft5];
fellip(abs(fellip)<=1e-4)=0;
end
end
end
@@ -0,0 +1,29 @@
function [ f,fellip ] = sort_fracture_project( inputf )
nf=size(inputf{1,1},1);
f=[];fellip=[];
for i=1:nf
ft1=inputf{1,1}(i,:);
% alpha=inputf{i,2}/180*pi;beta=inputf{i,3}/180*pi;gama=inputf{i,4}/180*pi;%角度转换为弧度制
% lf=inputf{i,5};hf=inputf{i,6};
alpha=90/180*pi;beta=90/180*pi;gama=0/180*pi;%角度转换为弧度制
lf=200;hf=5;
ft2=lf/2*[cos(alpha)*cos(gama)+sin(alpha)*cos(beta)*sin(gama),-cos(alpha)*cos(beta)*sin(gama)+sin(alpha)*cos(gama),...
sin(beta)*sin(gama)];
ft3=hf/2*[sin(alpha)*cos(beta)*cos(gama)-cos(alpha)*sin(gama),-sin(alpha)*sin(gama)-cos(alpha)*cos(beta)*cos(gama),sin(beta)*cos(gama)];
% if inputf{i,7}==1 %矩形缝
ft4=[-1,1,0];ft5=[-1,1,0];
f=[f;ft1;ft2;ft3;ft4;ft5];
f(abs(f)<=1e-4)=0;
% else %椭圆缝
% ft4=[0,0,1];ft5=[0,0,1];
% fellip=[fellip;ft1;ft2;ft3;ft4;ft5];
% fellip(abs(fellip)<=1e-4)=0;
% end
end
end
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function [ input_modi ] = sort_input( input,nx,ny,nz )
input=reshape(input',[],1);
input(input==0)=0.0001;
% hei=length(input);
hei=nx*ny*nz;
input=input(1:hei,1);
input_modi=zeros(hei,1);
for i=1:hei
zz=floor((i-1)/(nx*ny));
zzz=nz-zz;
yy=floor((i-zz*nx*ny-1)/nx);
yyy=ny-yy;
% yyy=yy+1;
xxx=mod(i-zz*nx*ny-1,nx);
if xxx==0 xxx=nx;
end
input_modi(xxx+(yyy-1)*nx+(zzz-1)*nx*ny,1)=input(i);
end
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% 加载生成的数据
load('test_data.mat');
% 使用高斯分布数据绘制切片图
plot_3d_grid_data_slice(nx, ny, nz, dx, dy, dz, data1);
% 使用球壳分布数据绘制点云图
plot_3d_grid_data_scatter(nx, ny, nz, dx, dy, dz, data2);
% 使用波纹分布数据绘制体绘制图
plot_3d_grid_data_volume(nx, ny, nz, dx, dy, dz, data3);