Text files missing the SVN eol-style property.

Doc/lib/sqlite3/adapter_datetime.py

-import sqlite3
-import datetime, time
-
-def adapt_datetime(ts):
-    return time.mktime(ts.timetuple())
-
-sqlite3.register_adapter(datetime.datetime, adapt_datetime)
-
-con = sqlite3.connect(":memory:")
-cur = con.cursor()
-
-now = datetime.datetime.now()
-cur.execute("select ?", (now,))
-print cur.fetchone()[0]
+import sqlite3
+import datetime, time
+
+def adapt_datetime(ts):
+    return time.mktime(ts.timetuple())
+
+sqlite3.register_adapter(datetime.datetime, adapt_datetime)
+
+con = sqlite3.connect(":memory:")
+cur = con.cursor()
+
+now = datetime.datetime.now()
+cur.execute("select ?", (now,))
+print cur.fetchone()[0]

Doc/lib/sqlite3/adapter_point_1.py

-import sqlite3
-
-class Point(object):
-    def __init__(self, x, y):
-        self.x, self.y = x, y
-
-    def __conform__(self, protocol):
-        if protocol is sqlite3.PrepareProtocol:
-            return "%f;%f" % (self.x, self.y)
-
-con = sqlite3.connect(":memory:")
-cur = con.cursor()
-
-p = Point(4.0, -3.2)
-cur.execute("select ?", (p,))
-print cur.fetchone()[0]
+import sqlite3
+
+class Point(object):
+    def __init__(self, x, y):
+        self.x, self.y = x, y
+
+    def __conform__(self, protocol):
+        if protocol is sqlite3.PrepareProtocol:
+            return "%f;%f" % (self.x, self.y)
+
+con = sqlite3.connect(":memory:")
+cur = con.cursor()
+
+p = Point(4.0, -3.2)
+cur.execute("select ?", (p,))
+print cur.fetchone()[0]

Doc/lib/sqlite3/adapter_point_2.py

-import sqlite3
-
-class Point(object):
-    def __init__(self, x, y):
-        self.x, self.y = x, y
-
-def adapt_point(point):
-    return "%f;%f" % (point.x, point.y)
-
-sqlite3.register_adapter(Point, adapt_point)
-
-con = sqlite3.connect(":memory:")
-cur = con.cursor()
-
-p = Point(4.0, -3.2)
-cur.execute("select ?", (p,))
-print cur.fetchone()[0]
+import sqlite3
+
+class Point(object):
+    def __init__(self, x, y):
+        self.x, self.y = x, y
+
+def adapt_point(point):
+    return "%f;%f" % (point.x, point.y)
+
+sqlite3.register_adapter(Point, adapt_point)
+
+con = sqlite3.connect(":memory:")
+cur = con.cursor()
+
+p = Point(4.0, -3.2)
+cur.execute("select ?", (p,))
+print cur.fetchone()[0]

Doc/lib/sqlite3/collation_reverse.py

-import sqlite3
-
-def collate_reverse(string1, string2):
-    return -cmp(string1, string2)
-
-con = sqlite3.connect(":memory:")
-con.create_collation("reverse", collate_reverse)
-
-cur = con.cursor()
-cur.execute("create table test(x)")
-cur.executemany("insert into test(x) values (?)", [("a",), ("b",)])
-cur.execute("select x from test order by x collate reverse")
-for row in cur:
-    print row
-con.close()
+import sqlite3
+
+def collate_reverse(string1, string2):
+    return -cmp(string1, string2)
+
+con = sqlite3.connect(":memory:")
+con.create_collation("reverse", collate_reverse)
+
+cur = con.cursor()
+cur.execute("create table test(x)")
+cur.executemany("insert into test(x) values (?)", [("a",), ("b",)])
+cur.execute("select x from test order by x collate reverse")
+for row in cur:
+    print row
+con.close()

Doc/lib/sqlite3/connect_db_1.py

-import sqlite3
-
-con = sqlite3.connect("mydb")
+import sqlite3
+
+con = sqlite3.connect("mydb")

Doc/lib/sqlite3/connect_db_2.py

-import sqlite3
-
-con = sqlite3.connect(":memory:")
+import sqlite3
+
+con = sqlite3.connect(":memory:")

Doc/lib/sqlite3/converter_point.py

-import sqlite3
-
-class Point(object):
-    def __init__(self, x, y):
-        self.x, self.y = x, y
-
-    def __repr__(self):
-        return "(%f;%f)" % (self.x, self.y)
-
-def adapt_point(point):
-    return "%f;%f" % (point.x, point.y)
-
-def convert_point(s):
-    x, y = map(float, s.split(";"))
-    return Point(x, y)
-
-# Register the adapter
-sqlite3.register_adapter(Point, adapt_point)
-
-# Register the converter
-sqlite3.register_converter("point", convert_point)
-
-p = Point(4.0, -3.2)
-
-#########################
-# 1) Using declared types
-con = sqlite3.connect(":memory:", detect_types=sqlite3.PARSE_DECLTYPES)
-cur = con.cursor()
-cur.execute("create table test(p point)")
-
-cur.execute("insert into test(p) values (?)", (p,))
-cur.execute("select p from test")
-print "with declared types:", cur.fetchone()[0]
-cur.close()
-con.close()
-
-#######################
-# 1) Using column names
-con = sqlite3.connect(":memory:", detect_types=sqlite3.PARSE_COLNAMES)
-cur = con.cursor()
-cur.execute("create table test(p)")
-
-cur.execute("insert into test(p) values (?)", (p,))
-cur.execute('select p as "p [point]" from test')
-print "with column names:", cur.fetchone()[0]
-cur.close()
-con.close()
+import sqlite3
+
+class Point(object):
+    def __init__(self, x, y):
+        self.x, self.y = x, y
+
+    def __repr__(self):
+        return "(%f;%f)" % (self.x, self.y)
+
+def adapt_point(point):
+    return "%f;%f" % (point.x, point.y)
+
+def convert_point(s):
+    x, y = map(float, s.split(";"))
+    return Point(x, y)
+
+# Register the adapter
+sqlite3.register_adapter(Point, adapt_point)
+
+# Register the converter
+sqlite3.register_converter("point", convert_point)
+
+p = Point(4.0, -3.2)
+
+#########################
+# 1) Using declared types
+con = sqlite3.connect(":memory:", detect_types=sqlite3.PARSE_DECLTYPES)
+cur = con.cursor()
+cur.execute("create table test(p point)")
+
+cur.execute("insert into test(p) values (?)", (p,))
+cur.execute("select p from test")
+print "with declared types:", cur.fetchone()[0]
+cur.close()
+con.close()
+
+#######################
+# 1) Using column names
+con = sqlite3.connect(":memory:", detect_types=sqlite3.PARSE_COLNAMES)
+cur = con.cursor()
+cur.execute("create table test(p)")
+
+cur.execute("insert into test(p) values (?)", (p,))
+cur.execute('select p as "p [point]" from test')
+print "with column names:", cur.fetchone()[0]
+cur.close()
+con.close()

Doc/lib/sqlite3/countcursors.py

-import sqlite3
-
-class CountCursorsConnection(sqlite3.Connection):
-    def __init__(self, *args, **kwargs):
-        sqlite3.Connection.__init__(self, *args, **kwargs)
-        self.numcursors = 0
-
-    def cursor(self, *args, **kwargs):
-        self.numcursors += 1
-        return sqlite3.Connection.cursor(self, *args, **kwargs)
-
-con = sqlite3.connect(":memory:", factory=CountCursorsConnection)
-cur1 = con.cursor()
-cur2 = con.cursor()
-print con.numcursors
+import sqlite3
+
+class CountCursorsConnection(sqlite3.Connection):
+    def __init__(self, *args, **kwargs):
+        sqlite3.Connection.__init__(self, *args, **kwargs)
+        self.numcursors = 0
+
+    def cursor(self, *args, **kwargs):
+        self.numcursors += 1
+        return sqlite3.Connection.cursor(self, *args, **kwargs)
+
+con = sqlite3.connect(":memory:", factory=CountCursorsConnection)
+cur1 = con.cursor()
+cur2 = con.cursor()
+print con.numcursors

Doc/lib/sqlite3/createdb.py

-# Not referenced from the documentation, but builds the database file the other
-# code snippets expect.
-
-import sqlite3
-import os
-
-DB_FILE = "mydb"
-
-if os.path.exists(DB_FILE):
-    os.remove(DB_FILE)
-
-con = sqlite3.connect(DB_FILE)
-cur = con.cursor()
-cur.execute("""
-        create table people
-        (
-          name_last      varchar(20),
-          age            integer
-        )
-        """)
-
-cur.execute("insert into people (name_last, age) values ('Yeltsin',   72)")
-cur.execute("insert into people (name_last, age) values ('Putin',     51)")
-
-con.commit()
-
-cur.close()
-con.close()
+# Not referenced from the documentation, but builds the database file the other
+# code snippets expect.
+
+import sqlite3
+import os
+
+DB_FILE = "mydb"
+
+if os.path.exists(DB_FILE):
+    os.remove(DB_FILE)
+
+con = sqlite3.connect(DB_FILE)
+cur = con.cursor()
+cur.execute("""
+        create table people
+        (
+          name_last      varchar(20),
+          age            integer
+        )
+        """)
+
+cur.execute("insert into people (name_last, age) values ('Yeltsin',   72)")
+cur.execute("insert into people (name_last, age) values ('Putin',     51)")
+
+con.commit()
+
+cur.close()
+con.close()

Doc/lib/sqlite3/execsql_fetchonerow.py

-import sqlite3
-
-con = sqlite3.connect("mydb")
-
-cur = con.cursor()
-SELECT = "select name_last, age from people order by age, name_last"
-
-# 1. Iterate over the rows available from the cursor, unpacking the
-# resulting sequences to yield their elements (name_last, age):
-cur.execute(SELECT)
-for (name_last, age) in cur:
-    print '%s is %d years old.' % (name_last, age)
-
-# 2. Equivalently:
-cur.execute(SELECT)
-for row in cur:
-    print '%s is %d years old.' % (row[0], row[1])
+import sqlite3
+
+con = sqlite3.connect("mydb")
+
+cur = con.cursor()
+SELECT = "select name_last, age from people order by age, name_last"
+
+# 1. Iterate over the rows available from the cursor, unpacking the
+# resulting sequences to yield their elements (name_last, age):
+cur.execute(SELECT)
+for (name_last, age) in cur:
+    print '%s is %d years old.' % (name_last, age)
+
+# 2. Equivalently:
+cur.execute(SELECT)
+for row in cur:
+    print '%s is %d years old.' % (row[0], row[1])

Doc/lib/sqlite3/execsql_printall_1.py

-import sqlite3
-
-# Create a connection to the database file "mydb":
-con = sqlite3.connect("mydb")
-
-# Get a Cursor object that operates in the context of Connection con:
-cur = con.cursor()
-
-# Execute the SELECT statement:
-cur.execute("select * from people order by age")
-
-# Retrieve all rows as a sequence and print that sequence:
-print cur.fetchall()
+import sqlite3
+
+# Create a connection to the database file "mydb":
+con = sqlite3.connect("mydb")
+
+# Get a Cursor object that operates in the context of Connection con:
+cur = con.cursor()
+
+# Execute the SELECT statement:
+cur.execute("select * from people order by age")
+
+# Retrieve all rows as a sequence and print that sequence:
+print cur.fetchall()

Doc/lib/sqlite3/execute_1.py

-import sqlite3
-
-con = sqlite3.connect("mydb")
-
-cur = con.cursor()
-
-who = "Yeltsin"
-age = 72
-
-cur.execute("select name_last, age from people where name_last=? and age=?", (who, age))
-print cur.fetchone()
+import sqlite3
+
+con = sqlite3.connect("mydb")
+
+cur = con.cursor()
+
+who = "Yeltsin"
+age = 72
+
+cur.execute("select name_last, age from people where name_last=? and age=?", (who, age))
+print cur.fetchone()

Doc/lib/sqlite3/execute_2.py

-import sqlite3
-
-con = sqlite3.connect("mydb")
-
-cur = con.cursor()
-
-who = "Yeltsin"
-age = 72
-
-cur.execute("select name_last, age from people where name_last=:who and age=:age",
-    {"who": who, "age": age})
-print cur.fetchone()
+import sqlite3
+
+con = sqlite3.connect("mydb")
+
+cur = con.cursor()
+
+who = "Yeltsin"
+age = 72
+
+cur.execute("select name_last, age from people where name_last=:who and age=:age",
+    {"who": who, "age": age})
+print cur.fetchone()

Doc/lib/sqlite3/execute_3.py

-import sqlite3
-
-con = sqlite3.connect("mydb")
-
-cur = con.cursor()
-
-who = "Yeltsin"
-age = 72
-
-cur.execute("select name_last, age from people where name_last=:who and age=:age",
-    locals())
-print cur.fetchone()
+import sqlite3
+
+con = sqlite3.connect("mydb")
+
+cur = con.cursor()
+
+who = "Yeltsin"
+age = 72
+
+cur.execute("select name_last, age from people where name_last=:who and age=:age",
+    locals())
+print cur.fetchone()

Doc/lib/sqlite3/executemany_1.py

-import sqlite3
-
-class IterChars:
-    def __init__(self):
-        self.count = ord('a')
-
-    def __iter__(self):
-        return self
-
-    def next(self):
-        if self.count > ord('z'):
-            raise StopIteration
-        self.count += 1
-        return (chr(self.count - 1),) # this is a 1-tuple
-
-con = sqlite3.connect(":memory:")
-cur = con.cursor()
-cur.execute("create table characters(c)")
-
-theIter = IterChars()
-cur.executemany("insert into characters(c) values (?)", theIter)
-
-cur.execute("select c from characters")
-print cur.fetchall()
+import sqlite3
+
+class IterChars:
+    def __init__(self):
+        self.count = ord('a')
+
+    def __iter__(self):
+        return self
+
+    def next(self):
+        if self.count > ord('z'):
+            raise StopIteration
+        self.count += 1
+        return (chr(self.count - 1),) # this is a 1-tuple
+
+con = sqlite3.connect(":memory:")
+cur = con.cursor()
+cur.execute("create table characters(c)")
+
+theIter = IterChars()
+cur.executemany("insert into characters(c) values (?)", theIter)
+
+cur.execute("select c from characters")
+print cur.fetchall()

Doc/lib/sqlite3/executemany_2.py

-import sqlite3
-
-def char_generator():
-    import string
-    for c in string.letters[:26]:
-        yield (c,)
-
-con = sqlite3.connect(":memory:")
-cur = con.cursor()
-cur.execute("create table characters(c)")
-
-cur.executemany("insert into characters(c) values (?)", char_generator())
-
-cur.execute("select c from characters")
-print cur.fetchall()
+import sqlite3
+
+def char_generator():
+    import string
+    for c in string.letters[:26]:
+        yield (c,)
+
+con = sqlite3.connect(":memory:")
+cur = con.cursor()
+cur.execute("create table characters(c)")
+
+cur.executemany("insert into characters(c) values (?)", char_generator())
+
+cur.execute("select c from characters")
+print cur.fetchall()

Doc/lib/sqlite3/executescript.py

-import sqlite3
-
-con = sqlite3.connect(":memory:")
-cur = con.cursor()
-cur.executescript("""
-    create table person(
-        firstname,
-        lastname,
-        age
-    );
-
-    create table book(
-        title,
-        author,
-        published
-    );
-
-    insert into book(title, author, published)
-    values (
-        'Dirk Gently''s Holistic Detective Agency
-        'Douglas Adams',
-        1987
-    );
-    """)
+import sqlite3
+
+con = sqlite3.connect(":memory:")
+cur = con.cursor()
+cur.executescript("""
+    create table person(
+        firstname,
+        lastname,
+        age
+    );
+
+    create table book(
+        title,
+        author,
+        published
+    );
+
+    insert into book(title, author, published)
+    values (
+        'Dirk Gently''s Holistic Detective Agency
+        'Douglas Adams',
+        1987
+    );
+    """)

Doc/lib/sqlite3/insert_more_people.py

-import sqlite3
-
-con = sqlite3.connect("mydb")
-
-cur = con.cursor()
-
-newPeople = (
-    ('Lebed'       , 53),
-    ('Zhirinovsky' , 57),
-  )
-
-for person in newPeople:
-    cur.execute("insert into people (name_last, age) values (?, ?)", person)
-
-# The changes will not be saved unless the transaction is committed explicitly:
-con.commit()
+import sqlite3
+
+con = sqlite3.connect("mydb")
+
+cur = con.cursor()
+
+newPeople = (
+    ('Lebed'       , 53),
+    ('Zhirinovsky' , 57),
+  )
+
+for person in newPeople:
+    cur.execute("insert into people (name_last, age) values (?, ?)", person)
+
+# The changes will not be saved unless the transaction is committed explicitly:
+con.commit()

Doc/lib/sqlite3/md5func.py

-import sqlite3
-import md5
-
-def md5sum(t):
-    return md5.md5(t).hexdigest()
-
-con = sqlite3.connect(":memory:")
-con.create_function("md5", 1, md5sum)
-cur = con.cursor()
-cur.execute("select md5(?)", ("foo",))
-print cur.fetchone()[0]
+import sqlite3
+import md5
+
+def md5sum(t):
+    return md5.md5(t).hexdigest()
+
+con = sqlite3.connect(":memory:")
+con.create_function("md5", 1, md5sum)
+cur = con.cursor()
+cur.execute("select md5(?)", ("foo",))
+print cur.fetchone()[0]

Doc/lib/sqlite3/mysumaggr.py

-import sqlite3
-
-class MySum:
-    def __init__(self):
-        self.count = 0
-
-    def step(self, value):
-        self.count += value
-
-    def finalize(self):
-        return self.count
-
-con = sqlite3.connect(":memory:")
-con.create_aggregate("mysum", 1, MySum)
-cur = con.cursor()
-cur.execute("create table test(i)")
-cur.execute("insert into test(i) values (1)")
-cur.execute("insert into test(i) values (2)")
-cur.execute("select mysum(i) from test")
-print cur.fetchone()[0]
+import sqlite3
+
+class MySum:
+    def __init__(self):
+        self.count = 0
+
+    def step(self, value):
+        self.count += value
+
+    def finalize(self):
+        return self.count
+
+con = sqlite3.connect(":memory:")
+con.create_aggregate("mysum", 1, MySum)
+cur = con.cursor()
+cur.execute("create table test(i)")
+cur.execute("insert into test(i) values (1)")
+cur.execute("insert into test(i) values (2)")
+cur.execute("select mysum(i) from test")
+print cur.fetchone()[0]

Doc/lib/sqlite3/parse_colnames.py

-import sqlite3
-import datetime
-
-con = sqlite3.connect(":memory:", detect_types=sqlite3.PARSE_COLNAMES)
-cur = con.cursor()
-cur.execute('select ? as "x [timestamp]"', (datetime.datetime.now(),))
-dt = cur.fetchone()[0]
-print dt, type(dt)
+import sqlite3
+import datetime
+
+con = sqlite3.connect(":memory:", detect_types=sqlite3.PARSE_COLNAMES)
+cur = con.cursor()
+cur.execute('select ? as "x [timestamp]"', (datetime.datetime.now(),))
+dt = cur.fetchone()[0]
+print dt, type(dt)

Doc/lib/sqlite3/pysqlite_datetime.py

-import sqlite3
-import datetime
-
-con = sqlite3.connect(":memory:", detect_types=sqlite3.PARSE_DECLTYPES|sqlite3.PARSE_COLNAMES)
-cur = con.cursor()
-cur.execute("create table test(d date, ts timestamp)")
-
-today = datetime.date.today()
-now = datetime.datetime.now()
-
-cur.execute("insert into test(d, ts) values (?, ?)", (today, now))
-cur.execute("select d, ts from test")
-row = cur.fetchone()
-print today, "=>", row[0], type(row[0])
-print now, "=>", row[1], type(row[1])
-
-cur.execute('select current_date as "d [date]", current_timestamp as "ts [timestamp]"')
-row = cur.fetchone()
-print "current_date", row[0], type(row[0])
-print "current_timestamp", row[1], type(row[1])
+import sqlite3
+import datetime
+
+con = sqlite3.connect(":memory:", detect_types=sqlite3.PARSE_DECLTYPES|sqlite3.PARSE_COLNAMES)
+cur = con.cursor()
+cur.execute("create table test(d date, ts timestamp)")
+
+today = datetime.date.today()
+now = datetime.datetime.now()
+
+cur.execute("insert into test(d, ts) values (?, ?)", (today, now))
+cur.execute("select d, ts from test")
+row = cur.fetchone()
+print today, "=>", row[0], type(row[0])
+print now, "=>", row[1], type(row[1])
+
+cur.execute('select current_date as "d [date]", current_timestamp as "ts [timestamp]"')
+row = cur.fetchone()
+print "current_date", row[0], type(row[0])
+print "current_timestamp", row[1], type(row[1])

Doc/lib/sqlite3/row_factory.py

-import sqlite3
-
-def dict_factory(cursor, row):
-    d = {}
-    for idx, col in enumerate(cursor.description):
-        d[col[0]] = row[idx]
-    return d
-
-con = sqlite3.connect(":memory:")
-con.row_factory = dict_factory
-cur = con.cursor()
-cur.execute("select 1 as a")
-print cur.fetchone()["a"]
+import sqlite3
+
+def dict_factory(cursor, row):
+    d = {}
+    for idx, col in enumerate(cursor.description):
+        d[col[0]] = row[idx]
+    return d
+
+con = sqlite3.connect(":memory:")
+con.row_factory = dict_factory
+cur = con.cursor()
+cur.execute("select 1 as a")
+print cur.fetchone()["a"]

Doc/lib/sqlite3/shortcut_methods.py

-import sqlite3
-
-persons = [
-    ("Hugo", "Boss"),
-    ("Calvin", "Klein")
-    ]
-
-con = sqlite3.connect(":memory:")
-
-# Create the table
-con.execute("create table person(firstname, lastname)")
-
-# Fill the table
-con.executemany("insert into person(firstname, lastname) values (?, ?)", persons)
-
-# Print the table contents
-for row in con.execute("select firstname, lastname from person"):
-    print row
-
-# Using a dummy WHERE clause to not let SQLite take the shortcut table deletes.
-print "I just deleted", con.execute("delete from person where 1=1").rowcount, "rows"
+import sqlite3
+
+persons = [
+    ("Hugo", "Boss"),
+    ("Calvin", "Klein")
+    ]
+
+con = sqlite3.connect(":memory:")
+
+# Create the table
+con.execute("create table person(firstname, lastname)")
+
+# Fill the table
+con.executemany("insert into person(firstname, lastname) values (?, ?)", persons)
+
+# Print the table contents
+for row in con.execute("select firstname, lastname from person"):
+    print row
+
+# Using a dummy WHERE clause to not let SQLite take the shortcut table deletes.
+print "I just deleted", con.execute("delete from person where 1=1").rowcount, "rows"

Doc/lib/sqlite3/simple_tableprinter.py

-import sqlite3
-
-FIELD_MAX_WIDTH = 20
-TABLE_NAME = 'people'
-SELECT = 'select * from %s order by age, name_last' % TABLE_NAME
-
-con = sqlite3.connect("mydb")
-
-cur = con.cursor()
-cur.execute(SELECT)
-
-# Print a header.
-for fieldDesc in cur.description:
-    print fieldDesc[0].ljust(FIELD_MAX_WIDTH) ,
-print # Finish the header with a newline.
-print '-' * 78
-
-# For each row, print the value of each field left-justified within
-# the maximum possible width of that field.
-fieldIndices = range(len(cur.description))
-for row in cur:
-    for fieldIndex in fieldIndices:
-        fieldValue = str(row[fieldIndex])
-        print fieldValue.ljust(FIELD_MAX_WIDTH) ,
-
-    print # Finish the row with a newline.
+import sqlite3
+
+FIELD_MAX_WIDTH = 20
+TABLE_NAME = 'people'
+SELECT = 'select * from %s order by age, name_last' % TABLE_NAME
+
+con = sqlite3.connect("mydb")
+
+cur = con.cursor()
+cur.execute(SELECT)
+
+# Print a header.
+for fieldDesc in cur.description:
+    print fieldDesc[0].ljust(FIELD_MAX_WIDTH) ,
+print # Finish the header with a newline.
+print '-' * 78
+
+# For each row, print the value of each field left-justified within
+# the maximum possible width of that field.
+fieldIndices = range(len(cur.description))
+for row in cur:
+    for fieldIndex in fieldIndices:
+        fieldValue = str(row[fieldIndex])
+        print fieldValue.ljust(FIELD_MAX_WIDTH) ,
+
+    print # Finish the row with a newline.

Doc/lib/sqlite3/text_factory.py

-import sqlite3
-
-con = sqlite3.connect(":memory:")
-cur = con.cursor()
-
-# Create the table
-con.execute("create table person(lastname, firstname)")
-
-AUSTRIA = u"\xd6sterreich"
-
-# by default, rows are returned as Unicode
-cur.execute("select ?", (AUSTRIA,))
-row = cur.fetchone()
-assert row[0] == AUSTRIA
-
-# but we can make pysqlite always return bytestrings ...
-con.text_factory = str
-cur.execute("select ?", (AUSTRIA,))
-row = cur.fetchone()
-assert type(row[0]) == str
-# the bytestrings will be encoded in UTF-8, unless you stored garbage in the
-# database ...
-assert row[0] == AUSTRIA.encode("utf-8")
-
-# we can also implement a custom text_factory ...
-# here we implement one that will ignore Unicode characters that cannot be
-# decoded from UTF-8
-con.text_factory = lambda x: unicode(x, "utf-8", "ignore")
-cur.execute("select ?", ("this is latin1 and would normally create errors" + u"\xe4\xf6\xfc".encode("latin1"),))
-row = cur.fetchone()
-assert type(row[0]) == unicode
-
-# pysqlite offers a builtin optimized text_factory that will return bytestring
-# objects, if the data is in ASCII only, and otherwise return unicode objects
-con.text_factory = sqlite3.OptimizedUnicode
-cur.execute("select ?", (AUSTRIA,))
-row = cur.fetchone()
-assert type(row[0]) == unicode
-
-cur.execute("select ?", ("Germany",))
-row = cur.fetchone()
-assert type(row[0]) == str
+import sqlite3
+
+con = sqlite3.connect(":memory:")
+cur = con.cursor()
+
+# Create the table
+con.execute("create table person(lastname, firstname)")
+
+AUSTRIA = u"\xd6sterreich"
+
+# by default, rows are returned as Unicode
+cur.execute("select ?", (AUSTRIA,))
+row = cur.fetchone()
+assert row[0] == AUSTRIA
+
+# but we can make pysqlite always return bytestrings ...
+con.text_factory = str
+cur.execute("select ?", (AUSTRIA,))
+row = cur.fetchone()
+assert type(row[0]) == str
+# the bytestrings will be encoded in UTF-8, unless you stored garbage in the
+# database ...
+assert row[0] == AUSTRIA.encode("utf-8")
+
+# we can also implement a custom text_factory ...
+# here we implement one that will ignore Unicode characters that cannot be
+# decoded from UTF-8
+con.text_factory = lambda x: unicode(x, "utf-8", "ignore")
+cur.execute("select ?", ("this is latin1 and would normally create errors" + u"\xe4\xf6\xfc".encode("latin1"),))
+row = cur.fetchone()
+assert type(row[0]) == unicode
+
+# pysqlite offers a builtin optimized text_factory that will return bytestring
+# objects, if the data is in ASCII only, and otherwise return unicode objects
+con.text_factory = sqlite3.OptimizedUnicode
+cur.execute("select ?", (AUSTRIA,))
+row = cur.fetchone()
+assert type(row[0]) == unicode
+
+cur.execute("select ?", ("Germany",))
+row = cur.fetchone()
+assert type(row[0]) == str