def AnglesFromFraction(which_fraction,
img_rgb,
mode='big',
show=False,
axis=True):
# print('AnglesFromFraction')
"""这个复制很有启发意义！！！"""
#用于显示的rgb矩阵
temp_img_rgb = cp.deepcopy(img_rgb)
#定义目标点和点集
that_content = which_fraction.edge
that_point = which_fraction.center
#可疑角点集合
that_points = SuspiciousFromContent(that_content, that_point, mode, show)
#显示吗
if show:
plt.figure()
#显示fraction的边缘和极值点
which_fraction.ShowEdge(temp_img_rgb, axis)
#逐个显示角点
for this_pos in that_points:
Dis.ShowOnePoint(this_pos, temp_img_rgb)
#是否显示坐标轴
if not axis:
plt.axis('off')
def AddCorners(which_content, corner_amount, img_rgb, show=False):
#结果的集合
corner_points = []
#点击获取图像中的点的坐标
for temp_point in plt.ginput(corner_amount):
#转化一下
point = [int(np.round(temp_point[1])), int(np.round(temp_point[0]))]
#计算距离最短的点作为角点
map_distances_points = Geom.DistancesMap(point, which_content)
#最短的距离
corner_points.append(map_distances_points[min(
list(map_distances_points.keys()))])
#索引列表
corner_index = [
which_content.index(corner_point) for corner_point in corner_points
]
#显示吧
if show:
plt.figure()
for this_pos in corner_points:
Dis.ShowOnePoint(this_pos, img_rgb)
return dict(zip(corner_index, corner_points))
def CheckGradient(which_content, offset, img_rgb, show=False):
#建立content索引
x_old = [k for k in range(len(which_content))]
#偏移后的content索引
x_new = x_old[-offset:] + x_old[:-offset]
#索引的映射关系
map_x_old_new = dict(zip(x_old, x_new))
#索引和坐标的关系
map_x_content = dict(zip(list(map_x_old_new.values()), which_content))
#找峰值是没错的呢 哥哥
#计算harris角点函数梯度
SlideGradient(AverageEnergy(which_content, 5), offset, True)
#从gradients中提取可疑点观察观察
points = Ang.PickPointsFromPlot(5, map_x_content)
#显示吗
if show:
plt.figure()
for this_pos in points:
Dis.ShowOnePoint(this_pos, img_rgb)
return points
def AddCorners(which_layer, corner_amount, img_rgb, show=False):
#从边界中寻找
which_content = which_layer.edge
#包围layer的faults
# border_faults=Pick.BorderFaults(which_layer,total_fractions)
#结果的集合
corner_points = []
#点击获取图像中的点的坐标
for temp_point in plt.ginput(corner_amount):
#转化一下
point = [int(np.round(temp_point[1])), int(np.round(temp_point[0]))]
#计算距离最短的点作为角点
map_distances_points = Geom.DistancesMap(point, which_content)
#最短的距离
corner_points.append(map_distances_points[min(
list(map_distances_points.keys()))])
#索引列表
corner_index = [
which_content.index(corner_point) for corner_point in corner_points
]
# #根据border_faults把点投上来
# #先找最近的fault
# for this_corner_point in corner_points:
#
# #这个点到两个fault的距离列表
# faults_centers=[this_fault.center for this_fault in border_faults]
#
# #计算距离最短的点作为角点
# #该点到fault们的距离列表
# distances_faults=Geom.Distances(this_corner_point,faults_centers)
#
# #建立映射关系
# map_distances_faults=dict(zip(distances_faults,border_faults))
#
# #距离最小的fault是最邻近的
# fault_near_this_corner_point=map_distances_faults[min(distances_faults)]
#
# #
# this_corner_point
#显示吧
if show:
plt.figure()
for this_pos in corner_points:
Dis.ShowOnePoint(this_pos, img_rgb)
return dict(zip(corner_index, corner_points))
def SeriesRecover(load_path, save_path):
#导入图片，生成rgb矩阵
img_rgb = Init.LoadImage(load_path, show=False)
#生rgb相关的列表和字典
#rgb_dict=Init.InitDict(img_rgb)
rgb_dict = Init.InitDict(img_rgb, base_adjust=True, fault_exist=True)
#改变图片尺寸增加padding
img_tag, img_rgb = Init.AddPadding(img_rgb, rgb_dict, show=True)
#初始化fractions，并显示
total_fractions = Pick.PickFractions(img_rgb, img_tag, rgb_dict)
#所有layer对象
total_layers = Pick.DeleteFault(total_fractions)
#恢复结果
final_layers = []
#temporary image
temp_img_rgb = cp.deepcopy(img_rgb)
for k in range(len(total_layers)):
#fig name
this_fig_name = str(k + 1) + '.png'
if k == 0:
final_layers.append(
Len.LengthRecover(total_fractions, img_tag, img_rgb, rgb_dict))
if k > 0:
final_layers.append(
Len.LengthRecover(total_fractions, img_tag,
Img.BoundaryImg(final_layers[-1], img_rgb),
rgb_dict))
#new blank canvas
temp_img_rgb[:, :] = np.array([255, 255, 255], dtype=np.uint8)
#figure: for saving
this_fig = plt.figure()
Dis.ShowFractions(final_layers, temp_img_rgb, rgb_dict)
#save this fig
this_fig.savefig(save_path + '\\' + this_fig_name, dpi=300)
plt.close()
return final_layers
def PickFractions(img_rgb,
img_tag,
rgb_dict,
show=False,
axis=True,
text=False,
output=False,
base='off'):
#基底tag
base_tag = -2
#拾取出tag为2,3,4的层
fraction_rgb_dict = cp.deepcopy(rgb_dict)
#删除空白rgb索引
del fraction_rgb_dict[0]
#是否要基底的那个tag
if base == 'off':
if base_tag in list(fraction_rgb_dict.keys()):
del fraction_rgb_dict[base_tag]
#图像中的所有fraction对象列表
total_fractions = []
#拾取断层和地层并显示
for this_tag in list(fraction_rgb_dict.keys()):
that_fraction = Tar.PickSomething(img_rgb, img_tag, this_tag,
fraction_rgb_dict, show, axis, text,
output)
total_fractions += that_fraction
#显示total_fractions
if show:
Dis.ShowFractions(total_fractions, img_rgb, rgb_dict, axis, text,
output)
return total_fractions
def GetCorners(which_content,
offset,
energy_mode,
img_tag,
img_rgb,
show=False):
#滑动窗口求取梯度诶
#平均值
if energy_mode is 'mean':
gradients = SlideGradient(AverageEnergy(which_content, 5, img_tag),
offset)
#最大值法
if energy_mode is 'max':
gradients = SlideGradient(MaximalEnergy(which_content, 5, img_tag),
offset)
#压制非极值点点，使它们为0
peak_content = PickPeak(gradients, True)
#寻找脉冲极值点的办法
temp_peak_index = []
for k in range(len(peak_content)):
if peak_content[k] != 0:
temp_peak_index.append(k)
#极值窗口
open_length = 10
#在这个自定义区间内的都是极值
temp_peak_index.sort()
#定义一个字典
#索引和周边索引的对应关系
map_index_neighbor = {}
#索引和他身边被录用的索引
map_index_indexes = {}
#开始创造其中元素
for this_index in temp_peak_index:
#单个的索引
map_index_neighbor[this_index] = [
this_index + k for k in range(-open_length, +open_length)
]
#被录用的索引(肯定有自己)
map_index_indexes[this_index] = []
#判断每个索引和索隐门邻域的对应关系
for this_index in temp_peak_index:
for this_neighbor in list(map_index_neighbor.values()):
#判断在哪里
if this_index in this_neighbor:
map_index_indexes[Dict.DictKeyOfValue(
map_index_neighbor, this_neighbor)].append(this_index)
#print(map_index_indexes)
#真假索引了
temp_indexes = list(map_index_indexes.values())
#真实的indexes集合
indexes = []
#唯一识别
map_sum_indexes = {}
#迭代合并同类项
for this_indexes in temp_indexes:
indexes.append(sorted(list(set(this_indexes))))
#它们的和
map_sum_indexes[sum(indexes[-1])] = indexes[-1]
#print(indexes)
#print(map_sum_indexes)
#用于加工的indexes列表
true_indexes = list(map_sum_indexes.values())
#求取小区间里的最大值噢
#消除偏移距之前的peak索引
peak_index = []
for this_indexes in true_indexes:
#建立小区间内的索引与值的对应关系哦
map_index_value = {}
for this_index in this_indexes:
map_index_value[this_index] = gradients[this_index]
#找到最大值噢
peak_value = np.max(list(map_index_value.values()))
#获取最大值的索引
peak_index.append(Dict.DictKeyOfValue(map_index_value, peak_value))
#在gradients曲线上显示计算结果
plt.figure()
plt.plot(gradients)
#画出峰值点吧
for this_index in peak_index:
plt.plot(this_index, gradients[this_index], marker='o', color='red')
plt.axis('tight')
#即将消除偏移距
map_new_old_index = Dict.SortFromStart(which_content, offset)[1]
#还原到真实的叻
corner_index = [map_new_old_index[this_index] for this_index in peak_index]
#在图像上还原真实的角点儿
corner_points = [which_content[this_index] for this_index in corner_index]
#显示吧
if show:
plt.figure()
for this_pos in corner_points:
Dis.ShowOnePoint(this_pos, img_rgb)
return Dict.DictSortByIndex(dict(zip(corner_index, corner_points)),
sorted(corner_index))
def CurvedLinesLength(which_content, map_corner_points, lines_amount, img_rgb):
#按索引排序
map_corner_points = Dict.DictSortByIndex(
map_corner_points, sorted(list(map_corner_points.keys())))
# print(map_corner_points)
#计算出几个点的曲线距离
#索引
corner_index = list(map_corner_points.keys())
#索引列表做一下
curve_points = []
for k in range(len(corner_index)):
#第一段特殊处理
if k == 0:
curve_points.append(which_content[corner_index[-1]:] +
which_content[:corner_index[0] + 1])
#其他正常
else:
curve_points.append(
which_content[corner_index[k - 1]:corner_index[k] + 1])
# print(curve_points)
'''简单算法(用于检验)'''
# #所有的
# curve_distances=[]
#
# #计算每一条曲线的曲线长度
# curve_distances=[ContinuousDistance(this_curve_points) for this_curve_points in curve_points]
#
# print(curve_distances)
'''拾取算法'''
curve_points_up_and_down = []
#获取两个点的坐标，确定两条层长线
for temp_point in plt.ginput(lines_amount):
#点击获取曲线中的点的坐标并转化一下
point = [int(np.round(temp_point[1])), int(np.round(temp_point[0]))]
# print(point)
#多条线到这个点的距离
#以及用坐标集合当返回值
map_distance_curve_points = {}
#先求每条线的中点
for this_curve_points in curve_points:
#重心
center = CalculateBaryCenter(this_curve_points)
#收录进映射关系
map_distance_curve_points[Distance(center,
point)] = this_curve_points
curve_points_up_and_down.append(map_distance_curve_points[min(
list(map_distance_curve_points.keys()))])
#上下两条边的点集合
curve_points_up, curve_points_down = curve_points_up_and_down
return curve_points_up, curve_points_down
#上下两条边的长度
curve_length_up = ContinuousDistance(curve_points_up)
curve_length_down = ContinuousDistance(curve_points_down)
# print(curve_length_up)
# print(curve_length_down)
Dis.Line2Red(curve_points_up + curve_points_down, img_rgb)
return (curve_length_up + curve_length_down) / 2
def Show(self,img_rgb,rgb_dict,text=False,output=False):
Dis.ShowFractions(self.fractions,img_rgb,rgb_dict,text,output)
def PickSomething(img_rgb,
img_tag,
this_tag,
rgb_dict,
show=False,
axis=True,
text=False,
output=False):
#content_sum=Content[0]+Content[1]+...
content_sum = []
#method=1代表方法1，method=2代表方法2
method = 2
#复制生成临时的img_tag,用于标记已上色的像素点
temp_img_tag = cp.deepcopy(img_tag)
#是否继续遍历的标志
content_flag = this_tag in temp_img_tag
#块体tag a part b的重心坐标
Center = {}
#Center字典增加一个新的tag列表
Center[this_tag] = []
#that_fractions是生成的fraction对象的集合
that_fractions = []
# #已知对象数量时可以这么干
# number=3
# for kk in range(number):
"""1 内部膨胀的方法增加像素点"""
if method == 1:
#以下部分进行循环
while content_flag:
#fault像素点集合的生成
content = []
#寻找第一个特征值值点
fault_edge, content_flag = Find1stPixel(this_tag, img_tag,
content_sum)
#追踪fault的边界
fault_edge = EdgeTracing(this_tag, fault_edge, img_tag)
#内部膨胀的方法增加像素点
neighbordict = {
0: (0, -1),
1: (1, -1),
2: (1, 0),
3: (1, 1),
4: (0, 1),
5: (-1, 1),
6: (-1, 0),
7: (-1, -1)
}
#将边界存入fault列表当中
new_edge = fault_edge
content += new_edge
#只要每一轮添加的点的数量不为0就执行循环
while len(new_edge):
#上一轮添加的点
last_edge = new_edge
#这一轮新添加的点坐标的列表
new_edge = []
for k in range(len(last_edge)):
#建立新的pixel对象
temp_pixel = pixel()
temp_pixel.ypos = last_edge[k][0]
temp_pixel.xpos = last_edge[k][1]
#生成邻居列表,起始迭代邻居的索引
temp_pixel.GenerateNeighbor(img_tag)
for i in range(len(neighbordict)):
#判断标签为tag
if temp_pixel.neighbor[i] == this_tag:
#邻居的坐标
new_y = temp_pixel.ypos + neighbordict[i][0]
new_x = temp_pixel.xpos + neighbordict[i][1]
pos = [new_y, new_x]
#新的点在不在fault列表内
if pos not in new_edge:
new_edge.append(pos)
#将新捕捉的点存入fault列表当中
content += new_edge
"""2 阿华法增加像素点"""
if method == 2:
#以下部分进行循环
while content_flag:
# 已知个数的情况
# number=2
# for kk in range(number):
#装逼用
print('')
print('...')
print('......')
print('.........')
print('tag', this_tag, 'part', len(that_fractions), ':')
#寻找第一个特征值值点
edge = Find1stPixel(this_tag, img_tag, content_sum)
#追踪content的边界
edge = EdgeTracing(this_tag, edge, img_tag)
#this_fraction表示正在处理的fraction
#如果tag=-1,则fraction为fault
if this_tag == -1:
this_fraction = fault()
else:
this_fraction = layer()
#对tag属性赋值
this_fraction.tag = this_tag
#给part属性赋值
this_fraction.part = len(that_fractions)
#给edge属性赋值
this_fraction.edge = edge
#求对象的范围矩阵
#left right bottom top 这几个重要的参数
I = list(set([pos[0] for pos in edge]))
J = list(set([pos[1] for pos in edge]))
#增加边缘
# for item in edge:
#
# if item[0] not in I:
#
# I.append(item[0])
#
# if item[1] not in J:
#
# J.append(item[1])
#初始生成的I,J不是按顺序的，需要对其进行排序
I.sort()
J.sort()
left, right = min(J), max(J)
bottom, top = min(I), max(I)
#获取块体的中点
center_x = np.mean(J)
center_y = np.mean(I)
#标注的坐标，即块体Content[part]的中点
center = (center_x, center_y)
#对center属性赋值
this_fraction.center = center
Center[this_tag].append(center)
#建立某特殊的数据结构，用于存放像素点的行对应的列
row_column = []
column_row = []
"""is和==不一样"""
for i in range(top - bottom + 1):
#行对应的列的列表
column = []
for item in edge:
if item[0] == I[i]:
column.append(item[1])
column.sort()
#列表添加至大列表当中
row_column.append(column)
for j in range(right - left + 1):
#列对应的行的列表
row = []
for item in edge:
if item[1] == J[j]:
row.append(item[0])
row.sort()
#列表添加至大列表当中
column_row.append(row)
#检验这两个数组的正确性
sum_i, sum_j = 0, 0
for item in row_column:
sum_j += len(item)
for item in column_row:
sum_i += len(item)
#设置验证门槛
#J
if sum_j == len(edge):
print('row_column is OK')
flag_j = True
#I
if sum_i == len(edge):
print('column_row is OK')
flag_i = True
#IJ
if sum_j == sum_i:
if flag_i and flag_j:
flag = True
if flag is True:
"""
注意：
过一个点做垂线和水平线可能会碰到交点是三个以上，如果其中有轮廓线的切点，就会出现判断失误
设置节点：
每个节点两段点之间遍历，若符合tag要求即加入集合当中
"""
#在row_column和column_row当中建立合适的节点，将相邻的像素点用其中头尾节点来表示
#content像素点集合
content = []
#row_column
row_column_node = []
for r in range(len(row_column)):
#要删除的列表
column_to_delete = []
if len(row_column[r]) > 2:
#元素数量大于2时才成立
for c in range(1, len(row_column[r]) - 1):
bool_former = (row_column[r][c + 1] -
row_column[r][c] == 1)
bool_latter = (row_column[r][c] -
row_column[r][c - 1] == 1)
#直接删除中间元素
if bool_former and bool_latter:
#建立需要删除元素的列表
column_to_delete.append(row_column[r][c])
#要增加的节点列表
column_node = []
"""若不加这步骤，则没法把孤苦伶点的点收录进来"""
if len(row_column[r]) == 1:
column_node = row_column[r] * 2
else:
#将某些元素删除
for item in row_column[r]:
if item not in column_to_delete:
column_node.append(item)
row_column_node.append(column_node)
#修复方法
fix = False
#确认是否存在两个以下的节点
if fix:
for item in row_column_node:
if len(item) != 2:
print(item)
#进行轮廓内部填充
fashion = 'new'
#老办法，用于检验，在不特殊的情况下能得到正确答案
#如果只有两个节点时直接用老方法填充，比较快
if fashion == 'old':
for i in range(top - bottom + 1):
for j in range(right - left + 1):
#用abcd代替更简便
a, b = min(row_column[i]), max(row_column[i])
c, d = min(column_row[j]), max(column_row[j])
#绝对坐标
absolute_i = bottom + i
absolute_j = left + j
#判断是否在区域内
if a <= absolute_j <= b and c <= absolute_i <= d:
pos = [absolute_i, absolute_j]
content.append(pos)
#对上色过的像素点赋予tag=0
temp_img_tag[int(pos[0]), int(pos[1])] = 0
#适用于所有情况
if fashion == 'new':
for i in range(top - bottom + 1):
#行坐标欸
row = bottom + i
#列坐标
for ii in range(len(row_column_node[i]) - 1):
#这个列坐标区间内的tag进行判断
#column=(row_column[i][ii],row_column[i][ii+1])
start_j = row_column_node[i][ii]
stop_j = row_column_node[i][ii + 1]
#如果区间内全是符合tag的点，则加如集合
"""用向量进行赋值速度快"""
if list(img_tag[row,
start_j:stop_j]) == [this_tag] * (
stop_j - start_j):
#对上色过的像素点赋予tag
temp_img_tag[row, start_j:stop_j] = 0
for column in range(start_j, stop_j):
pos = [row, column]
if pos not in content:
content.append(pos)
#确保边缘被收录
for column in row_column_node[i]:
pos = [row, column]
if pos not in content:
content.append(pos)
#对上色过的像素点赋予tag=0
temp_img_tag[int(pos[0]), int(pos[1])] = 0
#复制结果
content_row_column = cp.deepcopy(content)
#重新定义content像素点集合
content = []
#column_row
column_row_node = []
for c in range(len(column_row)):
#要删除的列表
row_to_delete = []
if len(column_row[c]) > 2:
#元素数量大于2时才成立
for r in range(1, len(column_row[c]) - 1):
bool_former = (column_row[c][r + 1] -
column_row[c][r] == 1)
bool_latter = (column_row[c][r] -
column_row[c][r - 1] == 1)
#直接删除中间元素
if bool_former and bool_latter:
#建立需要删除元素的列表
row_to_delete.append(column_row[c][r])
#要增加的节点列表
row_node = []
#把孤苦伶点的点收录进来
if len(column_row[c]) == 1:
row_node = column_row[c] * 2
else:
#将某些元素删除
for item in column_row[c]:
if item not in row_to_delete:
row_node.append(item)
column_row_node.append(row_node)
#进行轮廓内部填充
#适用于所有情况
for j in range(right - left + 1):
#行坐标欸
column = left + j
#列坐标
for jj in range(len(column_row_node[j]) - 1):
#这个列坐标区间内的tag进行判断
#row=(column_row[j][jj],column_row[j][jj+1])
start_i = column_row_node[j][jj]
stop_i = column_row_node[j][jj + 1]
#如果区间内全是符合tag的点，则加如集合
"""用向量进行赋值速度快"""
if list(img_tag[start_i:stop_i,
column]) == [this_tag
] * (stop_i - start_i):
#对上色过的像素点赋予tag
temp_img_tag[start_i:stop_i, column] = 0
for row in range(start_i, stop_i):
pos = [row, column]
if pos not in content:
content.append(pos)
#确保边缘被收录
for row in column_row_node[j]:
pos = [row, column]
if pos not in content:
content.append(pos)
#对上色过的像素点赋予tag=0
temp_img_tag[int(pos[0]), int(pos[1])] = 0
#复制结果
content_column_row = cp.deepcopy(content)
#互相验证两种收集模式的结果：比较两集合结果是否相等
verification = True
for item in content_column_row:
if item not in content_row_column:
verification = False
if verification:
#判断结果的count
count_for_judge = 0
#判断content是否包含了edge
for item in edge:
if item in content:
count_for_judge += 1
#判断列表长度是否相等
if count_for_judge == len(edge):
print('content includes edge')
#对content属性赋值
this_fraction.content = content
# print(len(this_fraction.content))
#初始化id
this_fraction.InitId()
this_fraction.InitCenter()
#content_sum=Content[0]+Content[1]+...
content_sum += content
#Content[0],Content[1]是每个块体像素点的集合
that_fractions.append(this_fraction)
#判断循环是否需要中止：1和2代表不同方法
method_for_stop = 2
"""1 判断条件为新的img_tag是否还存在标签值"""
#这种方法要特别久
if method_for_stop == 1:
#符合条件的tag不在content_sum中的数量
count_for_stop = 0
for i in range(np.shape(img_tag)[0]):
for j in range(np.shape(img_tag)[1]):
if img_tag[i, j] == this_tag:
pos = [i, j]
if pos not in content_sum:
count_for_stop += 1
#循环结束的判断条件
if count_for_stop == 0:
#继续遍历的标志关闭
content_flag = False
"""2 判断条件为temp_img_tag是否存在tag"""
if method_for_stop == 2:
content_flag = this_tag in temp_img_tag
if content_flag:
print('picking is not complete')
#判断类型并输出
else:
if isinstance(this_fraction, fault):
name = 'fault'
if isinstance(this_fraction, layer):
name = 'layer'
print(name, 'id:', this_fraction.id)
print('everything is OK')
#检查'everything is OK'是否成立
check = False
if check:
count = 0
for i in range(np.shape(temp_img_tag)[0]):
for j in range(np.shape(temp_img_tag)[1]):
if temp_img_tag[i, j] == this_tag:
count += 1
print(count)
#显示一下Content的位置
if show:
Dis.ShowFractions(that_fractions, img_rgb, rgb_dict, axis, text,
output)
return that_fractions
def PickLayer(total_fractions, img_rgb, show=False, axis=True):
print('')
print('here comes a new layer')
print('......')
print('please pick the layer')
#点击获取像素点坐标
layer_point_pos = plt.ginput(1)[0]
print('......')
print('picking the layer')
#注意反过来，因为是xy坐标
pos_xy = [int(layer_point_pos[0]), int(layer_point_pos[1])]
pos_IJ = cp.deepcopy(pos_xy)
#IJ形式是xy形式的颠倒
pos_IJ.reverse()
#所有fault的列表
total_layers = []
#这个点到所有fault的距离列表
distance_total_layers = []
#建立所有fault的列表
#计算这个点到fault中心的远近
for this_fraction in total_fractions:
if isinstance(this_fraction, layer):
#上车上车
total_layers.append(this_fraction)
#计算距离
distance_this_layer = Geom.Distance(this_fraction.center, pos_xy)
distance_total_layers.append(distance_this_layer)
#队距离和fault对象建立索引你关系
map_distance_total_layers = dict(zip(distance_total_layers, total_layers))
# print(total_faults)
for this_layer in total_layers:
#首先直接判断是否位于content内部
if pos_IJ in this_layer.content:
print('......')
print('picking of the layer is over')
if show:
Dis.ShowEdge(this_layer, img_rgb, axis)
return this_layer
#其次如果第一下没点上，通过计算距离远近来判断
that_fraction = map_distance_total_layers[min(distance_total_layers)]
print('......')
print('picking of the layer is over')
if show:
Dis.ShowEdge(that_fraction, img_rgb, axis)
return that_fraction
def PickAndGeneratePlate(total_fractions, img_rgb):
print('')
print('here comes a new plate')
#建立fractions的content
Content = []
#建立pos总集合
for this_fraction in total_fractions:
Content += this_fraction.content
#这个plate中所有的fractions
that_fractions = []
count = 0
import copy
#像素矩阵
img_rgb_temp = copy.deepcopy(img_rgb)
#循环呗
while True:
print('......')
print('please pick the layer')
#点击获取像素点坐标
layer_point_pos = plt.ginput(1)[0]
#注意反过来，因为是xy坐标
pos_xy = [int(layer_point_pos[0]), int(layer_point_pos[1])]
pos_IJ = copy.deepcopy(pos_xy)
#IJ形式是xy形式的颠倒
pos_IJ.reverse()
# print('......')
# print(pos_IJ)
#如果点到外面，此plate的fraction提取结束
if pos_IJ not in Content:
print('......')
print('layer picking of this plate is over')
break
#判断这个坐标合理与否
for this_fraction in total_fractions:
#判断他在哪
if pos_IJ in this_fraction.content:
#且不在已收录的fraction对象集中
if this_fraction in that_fractions:
print('......')
print('this layer is already picked')
break
if this_fraction not in that_fractions:
count += 1
print('......')
print('picking the layer' + '' + str(count))
Dis.ShowEdge(this_fraction, img_rgb_temp)
that_fractions.append(this_fraction)
break
#显示一下呗
plt.figure()
plt.imshow(img_rgb_temp)
#生成的plate对象
that_plate = plate()
#初始化
that_plate.Init(that_fractions)
return that_plate
if [cross_points[0][0], cross_points[0][1] + 1] in which_layer.content:
# print('0')
right_attachment_point = cp.deepcopy(cross_points[0])
left_attachment_point = cp.deepcopy(cross_points[-1])
if [cross_points[0][0], cross_points[0][1] - 1] in which_layer.content:
# print('1')
right_attachment_point = cp.deepcopy(cross_points[-1])
left_attachment_point = cp.deepcopy(cross_points[0])
#确认一下它们的位置？
Dis.ShowOnePoint(right_attachment_point, img_rgb, 5)
Dis.ShowOnePoint(left_attachment_point, img_rgb, 10)
#所有的faults,不能复制地址
total_faults = cp.copy(neighbor_faults)
#删除这个fault
total_faults.remove(this_fault)
#this_fault的左右衔接fault
other_faults = cp.deepcopy(total_faults)
'''找左右faults集合'''
left_other_faults = [
this_other_fault for this_other_fault in other_faults
if this_other_fault.center[1] < this_fault.center[1]
]
