def main():
acad = Autocad()
print u'Примерный подсчет занимаемого места'
print '%-20s| %s' % (u'Имя щита', u'Общее число модулей')
for layout in acad.iter_layouts():
table = acad.find_one('table', layout.Block, lambda x: x.Columns == 5)
if not table:
continue
total_modules = 0
row = -1
while row < table.Rows:
row += 1
item_str = mtext_to_string(table.GetText(row, 2))
item_str = item_str.replace(u'четырехполюсный', u'4-х')\
.replace(u'трехполюсный', u'3-х')\
.replace(u'двухполюсный', u'2-х')\
.replace(u'однополюсный', u'1-но')
m = re.match(ur'.*(\d)-([xх]|но).*', item_str)
if m:
n_modules = int(m.group(1))
quantity = int(mtext_to_string(table.GetText(row, 3)))
row += 1 # skip next row
else:
m = re.match(ur'(\d)[PР].*', item_str)
if not m:
continue
n_modules = int(m.group(1))
quantity = int(mtext_to_string(table.GetText(row - 1, 3)))
total_modules += n_modules * quantity
print '%-20s| %s' % (layout.Name, total_modules)
def main():
acad = Autocad()
layout = acad.doc.ActiveLayout
table = acad.find_one('table', layout.Block)
if not table:
return
print_table_info(table, 3)
def main():
acad = Autocad()
layout = acad.doc.ActiveLayout
table = acad.find_one('table', layout.Block)
if not table:
return
print_table_info(table, 3)
class ApiTestCase(unittest.TestCase):
def setUp(self):
self.acad = Autocad(True)
self.doc = self.acad.app.Documents.Add()
print 'Current', self.doc.Name
def tearDown(self):
self.doc.Close(False)
pass
def test_points_arguments(self):
model = self.acad.model
p1 = APoint(0, 0, 0)
for i in range(10):
model.AddCircle(p1 * i, i + 1)
p1 += i
for circle in self.acad.iter_objects('circle'):
cp = APoint(circle.Center)
model.AddCircle(-cp, circle.Radius)
def test_types(self):
model = self.acad.model
p1 = APoint(0, 0, 0)
p2 = APoint(10, 10, 0)
p3 = tuple(p+10 for p in p2)
model.AddLine(p1, p2)
model.AddLine(p2, APoint(p3))
lines = list(self.acad.iter_objects())
self.assertEqual(len(lines), 2)
self.assertEqual(lines[0].StartPoint, p1)
self.assertEqual(lines[0].EndPoint, p2)
self.assertEqual(lines[1].StartPoint, p2)
self.assertEqual(lines[1].EndPoint, p3)
with self.assertRaises(COMError):
model.AddLine(aDouble(0, 0), APoint(0, 0, 0))
def test_text(self):
model = self.acad.model
text1 = u'Русский текст'
text2 = u'With paragraph \PYes'
t1 = model.AddText(text1, APoint(0, 0, 0), 10)
t2 = model.AddText(text2, APoint(10, 10, 0), 10)
self.assertEqual(type(t1.TextString), unicode)
self.assertEqual(t1.TextString, text1)
self.assertEqual(t2.InsertionPoint, (10, 10, 0))
self.assertNotEqual(t2.InsertionPoint, (10, 10, 1))
def test_multitext(self):
model = self.acad.model
text1 = 'Line1\nLine2\nLine3\\'
text2 = 'Line1\\PLine2\\PLine3\\P'
t1 = model.AddMText(APoint(0,0,0), 10, text1)
t2 = model.AddMText(APoint(10,10,0), 10, text2)
self.assertEqual(t1.TextString, text1)
self.assertEqual(t2.TextString, text2)
def test_iter_objects(self):
model = self.acad.model
p1 = APoint(0, 0, 0)
p2 = APoint(10, 10, 0)
n_lines = 10
n_texts = 15
for i in range(n_lines):
model.AddLine(p1, p2)
for i in range(n_texts):
model.AddMText(p2, 10, u'Dummy')
lines_count = len(list(self.acad.iter_objects('Line')))
texts_count = len(list(self.acad.iter_objects('MText')))
all_count = len(list(self.acad.iter_objects(['MText', 'Line'])))
self.assertEqual(lines_count, n_lines)
self.assertEqual(texts_count, n_texts)
self.assertEqual(all_count, n_lines + n_texts)
def test_find_objects(self):
p1 = APoint(0, 0)
model = self.acad.model
for i in range(5):
text = model.AddText(u'test %s' % i, p1, 2.5)
def text_contains_3(text_obj):
return '3' in text_obj.TextString
text = self.acad.find_one('Text', predicate=text_contains_3)
self.assertEqual(text.TextString, 'test 3')
for i in range(5):
text = acad.model.AddText(u'Hi %s!' % i, p1, 2.5)
acad.model.AddLine(p1, p2)
acad.model.AddCircle(p1, 10)
p1.y += 10
for obj in acad.iter_objects():
print obj.ObjectName
for text in acad.iter_objects('Text'):
print text.TextString, text.InsertionPoint
for obj in acad.iter_objects(['Text', 'Line']):
print obj.ObjectName
def text_contains_3(text_obj):
return '3' in text_obj.TextString
text = acad.find_one('Text', predicate=text_contains_3)
print text.TextString
from pyautocad import ACAD
for text in acad.iter_objects('Text'):
old_insertion_point = APoint(text.InsertionPoint)
text.Alignment = ACAD.acAlignmentRight
text.TextAlignmentPoint = old_insertion_point
for line in acad.iter_objects('Line'):
p1 = APoint(line.StartPoint)
line.EndPoint = p1 - APoint(20, 0)
''' 按类型查找出所有某种图元(如所有Text对象） '''
for _text in acad.iter_objects('Text'):
print(_text.TextString, _text.InsertionPoint)
''' 在类型选择时填入多种类型 '''
for _obj2 in acad.iter_objects(['tExt', 'Line']):
# 按照类型查找可以混淆大小写，也可以只输入类型的一部分，
# 比如查找”te”类型就可以自动匹配到text类型，输入”li“就自动匹配到Ellipse和Line类型
print(_obj2.ObjectName)
def text_contains_3(text_obj):
""" 查找符合条件的第一个对象. 查找第一个text item包含3的text """
return '3' in text_obj.TextString
text2 = acad.find_one('Text', predicate=text_contains_3)
print(text2.TextString)
# 在文档中修改对象, 需要找到 interesting objects 并改变其属性.
# 一些属性被描述为 constants, 例如 text alignment.这些 constants 可通过 ACAD. 来访问
''' 改变所有text objects的text alignment '''
for text in acad.iter_objects('Text'):
# text.InsertionPoint 转 APoint, 存储text的插入点
# 当 setting properties时, 不能直接使用tuple, 例如 text.TextAlignmentPoint.
old_insertion_point = APoint(text.InsertionPoint)
text.Alignment = ACAD.acAlignmentRight # 对齐方式调整为 右对齐
text.TextAlignmentPoint = old_insertion_point # 恢复插入点位置
# 改变对象位置要用 APoint,
''' 改变line端点位置 '''
for line in acad.iter_objects('Line'):
