Mercurial > p > roundup > code
view roundup/support.py @ 5220:14d8f61e6ef2
Reimplemented anti-csrf measures by raising exceptions rather than
returning booleans.
Redoing it using exceptions was the easiest way to return proper
xmlrpc fault messages to the clients.
Also this code should now properly make values set in the form
override values from the database. So no lost work under some
circumstances if the csrf requirements are not met.
Also this code does a better job of cleaning up old csrf tokens.
| author | John Rouillard <rouilj@ieee.org> |
|---|---|
| date | Wed, 05 Apr 2017 20:56:08 -0400 |
| parents | ac0c117cd24c |
| children | 64b05e24dbd8 |
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"""Implements various support classes and functions used in a number of places in Roundup code. """ __docformat__ = 'restructuredtext' import os, time, sys, re class TruthDict: '''Returns True for valid keys, False for others. ''' def __init__(self, keys): if keys: self.keys = {} for col in keys: self.keys[col] = 1 else: self.__getitem__ = lambda name: 1 def __getitem__(self, name): return self.keys.has_key(name) def ensureParentsExist(dest): if not os.path.exists(os.path.dirname(dest)): os.makedirs(os.path.dirname(dest)) class PrioList: '''Manages a sorted list. Currently only implements method 'append' and iteration from a full list interface. Implementation: We manage a "sorted" status and sort on demand. Appending to the list will require re-sorting before use. >>> p = PrioList() >>> for i in 5,7,1,-1: ... p.append(i) ... >>> for k in p: ... print k ... -1 1 5 7 ''' def __init__(self): self.list = [] self.sorted = True def append(self, item): self.list.append(item) self.sorted = False def __iter__(self): if not self.sorted: self.list.sort() self.sorted = True return iter(self.list) class Progress: '''Progress display for console applications. See __main__ block at end of file for sample usage. ''' def __init__(self, info, sequence): self.info = info self.sequence = iter(sequence) self.total = len(sequence) self.start = self.now = time.time() self.num = 0 self.stepsize = self.total / 100 or 1 self.steptimes = [] self.display() def __iter__(self): return self def next(self): self.num += 1 if self.num > self.total: print self.info, 'done', ' '*(75-len(self.info)-6) sys.stdout.flush() return self.sequence.next() if self.num % self.stepsize: return self.sequence.next() self.display() return self.sequence.next() def display(self): # figure how long we've spent - guess how long to go now = time.time() steptime = now - self.now self.steptimes.insert(0, steptime) if len(self.steptimes) > 5: self.steptimes.pop() steptime = sum(self.steptimes) / len(self.steptimes) self.now = now eta = steptime * ((self.total - self.num)/self.stepsize) # tell it like it is (or might be) if now - self.start > 3: M = eta / 60 H = M / 60 M = M % 60 S = eta % 60 if self.total: s = '%s %2d%% (ETA %02d:%02d:%02d)'%(self.info, self.num * 100. / self.total, H, M, S) else: s = '%s 0%% (ETA %02d:%02d:%02d)'%(self.info, H, M, S) elif self.total: s = '%s %2d%%'%(self.info, self.num * 100. / self.total) else: s = '%s %d done'%(self.info, self.num) sys.stdout.write(s + ' '*(75-len(s)) + '\r') sys.stdout.flush() # vim: set et sts=4 sw=4 :
