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effectflag: detect when date changed...
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1 1 # obsutil.py - utility functions for obsolescence
2 2 #
3 3 # Copyright 2017 Boris Feld <boris.feld@octobus.net>
4 4 #
5 5 # This software may be used and distributed according to the terms of the
6 6 # GNU General Public License version 2 or any later version.
7 7
8 8 from __future__ import absolute_import
9 9
10 10 from . import (
11 11 phases,
12 12 util
13 13 )
14 14
15 15 class marker(object):
16 16 """Wrap obsolete marker raw data"""
17 17
18 18 def __init__(self, repo, data):
19 19 # the repo argument will be used to create changectx in later version
20 20 self._repo = repo
21 21 self._data = data
22 22 self._decodedmeta = None
23 23
24 24 def __hash__(self):
25 25 return hash(self._data)
26 26
27 27 def __eq__(self, other):
28 28 if type(other) != type(self):
29 29 return False
30 30 return self._data == other._data
31 31
32 32 def precnode(self):
33 33 msg = ("'marker.precnode' is deprecated, "
34 34 "use 'marker.prednode'")
35 35 util.nouideprecwarn(msg, '4.4')
36 36 return self.prednode()
37 37
38 38 def prednode(self):
39 39 """Predecessor changeset node identifier"""
40 40 return self._data[0]
41 41
42 42 def succnodes(self):
43 43 """List of successor changesets node identifiers"""
44 44 return self._data[1]
45 45
46 46 def parentnodes(self):
47 47 """Parents of the predecessors (None if not recorded)"""
48 48 return self._data[5]
49 49
50 50 def metadata(self):
51 51 """Decoded metadata dictionary"""
52 52 return dict(self._data[3])
53 53
54 54 def date(self):
55 55 """Creation date as (unixtime, offset)"""
56 56 return self._data[4]
57 57
58 58 def flags(self):
59 59 """The flags field of the marker"""
60 60 return self._data[2]
61 61
62 62 def getmarkers(repo, nodes=None, exclusive=False):
63 63 """returns markers known in a repository
64 64
65 65 If <nodes> is specified, only markers "relevant" to those nodes are are
66 66 returned"""
67 67 if nodes is None:
68 68 rawmarkers = repo.obsstore
69 69 elif exclusive:
70 70 rawmarkers = exclusivemarkers(repo, nodes)
71 71 else:
72 72 rawmarkers = repo.obsstore.relevantmarkers(nodes)
73 73
74 74 for markerdata in rawmarkers:
75 75 yield marker(repo, markerdata)
76 76
77 77 def closestpredecessors(repo, nodeid):
78 78 """yield the list of next predecessors pointing on visible changectx nodes
79 79
80 80 This function respect the repoview filtering, filtered revision will be
81 81 considered missing.
82 82 """
83 83
84 84 precursors = repo.obsstore.predecessors
85 85 stack = [nodeid]
86 86 seen = set(stack)
87 87
88 88 while stack:
89 89 current = stack.pop()
90 90 currentpreccs = precursors.get(current, ())
91 91
92 92 for prec in currentpreccs:
93 93 precnodeid = prec[0]
94 94
95 95 # Basic cycle protection
96 96 if precnodeid in seen:
97 97 continue
98 98 seen.add(precnodeid)
99 99
100 100 if precnodeid in repo:
101 101 yield precnodeid
102 102 else:
103 103 stack.append(precnodeid)
104 104
105 105 def allprecursors(*args, **kwargs):
106 106 """ (DEPRECATED)
107 107 """
108 108 msg = ("'obsutil.allprecursors' is deprecated, "
109 109 "use 'obsutil.allpredecessors'")
110 110 util.nouideprecwarn(msg, '4.4')
111 111
112 112 return allpredecessors(*args, **kwargs)
113 113
114 114 def allpredecessors(obsstore, nodes, ignoreflags=0):
115 115 """Yield node for every precursors of <nodes>.
116 116
117 117 Some precursors may be unknown locally.
118 118
119 119 This is a linear yield unsuited to detecting folded changesets. It includes
120 120 initial nodes too."""
121 121
122 122 remaining = set(nodes)
123 123 seen = set(remaining)
124 124 while remaining:
125 125 current = remaining.pop()
126 126 yield current
127 127 for mark in obsstore.predecessors.get(current, ()):
128 128 # ignore marker flagged with specified flag
129 129 if mark[2] & ignoreflags:
130 130 continue
131 131 suc = mark[0]
132 132 if suc not in seen:
133 133 seen.add(suc)
134 134 remaining.add(suc)
135 135
136 136 def allsuccessors(obsstore, nodes, ignoreflags=0):
137 137 """Yield node for every successor of <nodes>.
138 138
139 139 Some successors may be unknown locally.
140 140
141 141 This is a linear yield unsuited to detecting split changesets. It includes
142 142 initial nodes too."""
143 143 remaining = set(nodes)
144 144 seen = set(remaining)
145 145 while remaining:
146 146 current = remaining.pop()
147 147 yield current
148 148 for mark in obsstore.successors.get(current, ()):
149 149 # ignore marker flagged with specified flag
150 150 if mark[2] & ignoreflags:
151 151 continue
152 152 for suc in mark[1]:
153 153 if suc not in seen:
154 154 seen.add(suc)
155 155 remaining.add(suc)
156 156
157 157 def _filterprunes(markers):
158 158 """return a set with no prune markers"""
159 159 return set(m for m in markers if m[1])
160 160
161 161 def exclusivemarkers(repo, nodes):
162 162 """set of markers relevant to "nodes" but no other locally-known nodes
163 163
164 164 This function compute the set of markers "exclusive" to a locally-known
165 165 node. This means we walk the markers starting from <nodes> until we reach a
166 166 locally-known precursors outside of <nodes>. Element of <nodes> with
167 167 locally-known successors outside of <nodes> are ignored (since their
168 168 precursors markers are also relevant to these successors).
169 169
170 170 For example:
171 171
172 172 # (A0 rewritten as A1)
173 173 #
174 174 # A0 <-1- A1 # Marker "1" is exclusive to A1
175 175
176 176 or
177 177
178 178 # (A0 rewritten as AX; AX rewritten as A1; AX is unkown locally)
179 179 #
180 180 # <-1- A0 <-2- AX <-3- A1 # Marker "2,3" are exclusive to A1
181 181
182 182 or
183 183
184 184 # (A0 has unknown precursors, A0 rewritten as A1 and A2 (divergence))
185 185 #
186 186 # <-2- A1 # Marker "2" is exclusive to A0,A1
187 187 # /
188 188 # <-1- A0
189 189 # \
190 190 # <-3- A2 # Marker "3" is exclusive to A0,A2
191 191 #
192 192 # in addition:
193 193 #
194 194 # Markers "2,3" are exclusive to A1,A2
195 195 # Markers "1,2,3" are exclusive to A0,A1,A2
196 196
197 197 See test/test-obsolete-bundle-strip.t for more examples.
198 198
199 199 An example usage is strip. When stripping a changeset, we also want to
200 200 strip the markers exclusive to this changeset. Otherwise we would have
201 201 "dangling"" obsolescence markers from its precursors: Obsolescence markers
202 202 marking a node as obsolete without any successors available locally.
203 203
204 204 As for relevant markers, the prune markers for children will be followed.
205 205 Of course, they will only be followed if the pruned children is
206 206 locally-known. Since the prune markers are relevant to the pruned node.
207 207 However, while prune markers are considered relevant to the parent of the
208 208 pruned changesets, prune markers for locally-known changeset (with no
209 209 successors) are considered exclusive to the pruned nodes. This allows
210 210 to strip the prune markers (with the rest of the exclusive chain) alongside
211 211 the pruned changesets.
212 212 """
213 213 # running on a filtered repository would be dangerous as markers could be
214 214 # reported as exclusive when they are relevant for other filtered nodes.
215 215 unfi = repo.unfiltered()
216 216
217 217 # shortcut to various useful item
218 218 nm = unfi.changelog.nodemap
219 219 precursorsmarkers = unfi.obsstore.predecessors
220 220 successormarkers = unfi.obsstore.successors
221 221 childrenmarkers = unfi.obsstore.children
222 222
223 223 # exclusive markers (return of the function)
224 224 exclmarkers = set()
225 225 # we need fast membership testing
226 226 nodes = set(nodes)
227 227 # looking for head in the obshistory
228 228 #
229 229 # XXX we are ignoring all issues in regard with cycle for now.
230 230 stack = [n for n in nodes if not _filterprunes(successormarkers.get(n, ()))]
231 231 stack.sort()
232 232 # nodes already stacked
233 233 seennodes = set(stack)
234 234 while stack:
235 235 current = stack.pop()
236 236 # fetch precursors markers
237 237 markers = list(precursorsmarkers.get(current, ()))
238 238 # extend the list with prune markers
239 239 for mark in successormarkers.get(current, ()):
240 240 if not mark[1]:
241 241 markers.append(mark)
242 242 # and markers from children (looking for prune)
243 243 for mark in childrenmarkers.get(current, ()):
244 244 if not mark[1]:
245 245 markers.append(mark)
246 246 # traverse the markers
247 247 for mark in markers:
248 248 if mark in exclmarkers:
249 249 # markers already selected
250 250 continue
251 251
252 252 # If the markers is about the current node, select it
253 253 #
254 254 # (this delay the addition of markers from children)
255 255 if mark[1] or mark[0] == current:
256 256 exclmarkers.add(mark)
257 257
258 258 # should we keep traversing through the precursors?
259 259 prec = mark[0]
260 260
261 261 # nodes in the stack or already processed
262 262 if prec in seennodes:
263 263 continue
264 264
265 265 # is this a locally known node ?
266 266 known = prec in nm
267 267 # if locally-known and not in the <nodes> set the traversal
268 268 # stop here.
269 269 if known and prec not in nodes:
270 270 continue
271 271
272 272 # do not keep going if there are unselected markers pointing to this
273 273 # nodes. If we end up traversing these unselected markers later the
274 274 # node will be taken care of at that point.
275 275 precmarkers = _filterprunes(successormarkers.get(prec))
276 276 if precmarkers.issubset(exclmarkers):
277 277 seennodes.add(prec)
278 278 stack.append(prec)
279 279
280 280 return exclmarkers
281 281
282 282 def foreground(repo, nodes):
283 283 """return all nodes in the "foreground" of other node
284 284
285 285 The foreground of a revision is anything reachable using parent -> children
286 286 or precursor -> successor relation. It is very similar to "descendant" but
287 287 augmented with obsolescence information.
288 288
289 289 Beware that possible obsolescence cycle may result if complex situation.
290 290 """
291 291 repo = repo.unfiltered()
292 292 foreground = set(repo.set('%ln::', nodes))
293 293 if repo.obsstore:
294 294 # We only need this complicated logic if there is obsolescence
295 295 # XXX will probably deserve an optimised revset.
296 296 nm = repo.changelog.nodemap
297 297 plen = -1
298 298 # compute the whole set of successors or descendants
299 299 while len(foreground) != plen:
300 300 plen = len(foreground)
301 301 succs = set(c.node() for c in foreground)
302 302 mutable = [c.node() for c in foreground if c.mutable()]
303 303 succs.update(allsuccessors(repo.obsstore, mutable))
304 304 known = (n for n in succs if n in nm)
305 305 foreground = set(repo.set('%ln::', known))
306 306 return set(c.node() for c in foreground)
307 307
308 308 # logic around storing and using effect flags
309 309 EFFECTFLAGFIELD = "ef1"
310 310
311 311 DESCCHANGED = 1 << 0 # action changed the description
312 312 USERCHANGED = 1 << 4 # the user changed
313 DATECHANGED = 1 << 5 # the date changed
313 314
314 315 def geteffectflag(relation):
315 316 """ From an obs-marker relation, compute what changed between the
316 317 predecessor and the successor.
317 318 """
318 319 effects = 0
319 320
320 321 source = relation[0]
321 322
322 323 for changectx in relation[1]:
323 324 # Check if description has changed
324 325 if changectx.description() != source.description():
325 326 effects |= DESCCHANGED
326 327
327 328 # Check if user has changed
328 329 if changectx.user() != source.user():
329 330 effects |= USERCHANGED
330 331
332 # Check if date has changed
333 if changectx.date() != source.date():
334 effects |= DATECHANGED
335
331 336 return effects
332 337
333 338 def getobsoleted(repo, tr):
334 339 """return the set of pre-existing revisions obsoleted by a transaction"""
335 340 torev = repo.unfiltered().changelog.nodemap.get
336 341 phase = repo._phasecache.phase
337 342 succsmarkers = repo.obsstore.successors.get
338 343 public = phases.public
339 344 addedmarkers = tr.changes.get('obsmarkers')
340 345 addedrevs = tr.changes.get('revs')
341 346 seenrevs = set(addedrevs)
342 347 obsoleted = set()
343 348 for mark in addedmarkers:
344 349 node = mark[0]
345 350 rev = torev(node)
346 351 if rev is None or rev in seenrevs:
347 352 continue
348 353 seenrevs.add(rev)
349 354 if phase(repo, rev) == public:
350 355 continue
351 356 if set(succsmarkers(node) or []).issubset(addedmarkers):
352 357 obsoleted.add(rev)
353 358 return obsoleted
354 359
355 360 class _succs(list):
356 361 """small class to represent a successors with some metadata about it"""
357 362
358 363 def __init__(self, *args, **kwargs):
359 364 super(_succs, self).__init__(*args, **kwargs)
360 365 self.markers = set()
361 366
362 367 def copy(self):
363 368 new = _succs(self)
364 369 new.markers = self.markers.copy()
365 370 return new
366 371
367 372 @util.propertycache
368 373 def _set(self):
369 374 # immutable
370 375 return set(self)
371 376
372 377 def canmerge(self, other):
373 378 return self._set.issubset(other._set)
374 379
375 380 def successorssets(repo, initialnode, closest=False, cache=None):
376 381 """Return set of all latest successors of initial nodes
377 382
378 383 The successors set of a changeset A are the group of revisions that succeed
379 384 A. It succeeds A as a consistent whole, each revision being only a partial
380 385 replacement. By default, the successors set contains non-obsolete
381 386 changesets only, walking the obsolescence graph until reaching a leaf. If
382 387 'closest' is set to True, closest successors-sets are return (the
383 388 obsolescence walk stops on known changesets).
384 389
385 390 This function returns the full list of successor sets which is why it
386 391 returns a list of tuples and not just a single tuple. Each tuple is a valid
387 392 successors set. Note that (A,) may be a valid successors set for changeset A
388 393 (see below).
389 394
390 395 In most cases, a changeset A will have a single element (e.g. the changeset
391 396 A is replaced by A') in its successors set. Though, it is also common for a
392 397 changeset A to have no elements in its successor set (e.g. the changeset
393 398 has been pruned). Therefore, the returned list of successors sets will be
394 399 [(A',)] or [], respectively.
395 400
396 401 When a changeset A is split into A' and B', however, it will result in a
397 402 successors set containing more than a single element, i.e. [(A',B')].
398 403 Divergent changesets will result in multiple successors sets, i.e. [(A',),
399 404 (A'')].
400 405
401 406 If a changeset A is not obsolete, then it will conceptually have no
402 407 successors set. To distinguish this from a pruned changeset, the successor
403 408 set will contain itself only, i.e. [(A,)].
404 409
405 410 Finally, final successors unknown locally are considered to be pruned
406 411 (pruned: obsoleted without any successors). (Final: successors not affected
407 412 by markers).
408 413
409 414 The 'closest' mode respect the repoview filtering. For example, without
410 415 filter it will stop at the first locally known changeset, with 'visible'
411 416 filter it will stop on visible changesets).
412 417
413 418 The optional `cache` parameter is a dictionary that may contains
414 419 precomputed successors sets. It is meant to reuse the computation of a
415 420 previous call to `successorssets` when multiple calls are made at the same
416 421 time. The cache dictionary is updated in place. The caller is responsible
417 422 for its life span. Code that makes multiple calls to `successorssets`
418 423 *should* use this cache mechanism or risk a performance hit.
419 424
420 425 Since results are different depending of the 'closest' most, the same cache
421 426 cannot be reused for both mode.
422 427 """
423 428
424 429 succmarkers = repo.obsstore.successors
425 430
426 431 # Stack of nodes we search successors sets for
427 432 toproceed = [initialnode]
428 433 # set version of above list for fast loop detection
429 434 # element added to "toproceed" must be added here
430 435 stackedset = set(toproceed)
431 436 if cache is None:
432 437 cache = {}
433 438
434 439 # This while loop is the flattened version of a recursive search for
435 440 # successors sets
436 441 #
437 442 # def successorssets(x):
438 443 # successors = directsuccessors(x)
439 444 # ss = [[]]
440 445 # for succ in directsuccessors(x):
441 446 # # product as in itertools cartesian product
442 447 # ss = product(ss, successorssets(succ))
443 448 # return ss
444 449 #
445 450 # But we can not use plain recursive calls here:
446 451 # - that would blow the python call stack
447 452 # - obsolescence markers may have cycles, we need to handle them.
448 453 #
449 454 # The `toproceed` list act as our call stack. Every node we search
450 455 # successors set for are stacked there.
451 456 #
452 457 # The `stackedset` is set version of this stack used to check if a node is
453 458 # already stacked. This check is used to detect cycles and prevent infinite
454 459 # loop.
455 460 #
456 461 # successors set of all nodes are stored in the `cache` dictionary.
457 462 #
458 463 # After this while loop ends we use the cache to return the successors sets
459 464 # for the node requested by the caller.
460 465 while toproceed:
461 466 # Every iteration tries to compute the successors sets of the topmost
462 467 # node of the stack: CURRENT.
463 468 #
464 469 # There are four possible outcomes:
465 470 #
466 471 # 1) We already know the successors sets of CURRENT:
467 472 # -> mission accomplished, pop it from the stack.
468 473 # 2) Stop the walk:
469 474 # default case: Node is not obsolete
470 475 # closest case: Node is known at this repo filter level
471 476 # -> the node is its own successors sets. Add it to the cache.
472 477 # 3) We do not know successors set of direct successors of CURRENT:
473 478 # -> We add those successors to the stack.
474 479 # 4) We know successors sets of all direct successors of CURRENT:
475 480 # -> We can compute CURRENT successors set and add it to the
476 481 # cache.
477 482 #
478 483 current = toproceed[-1]
479 484
480 485 # case 2 condition is a bit hairy because of closest,
481 486 # we compute it on its own
482 487 case2condition = ((current not in succmarkers)
483 488 or (closest and current != initialnode
484 489 and current in repo))
485 490
486 491 if current in cache:
487 492 # case (1): We already know the successors sets
488 493 stackedset.remove(toproceed.pop())
489 494 elif case2condition:
490 495 # case (2): end of walk.
491 496 if current in repo:
492 497 # We have a valid successors.
493 498 cache[current] = [_succs((current,))]
494 499 else:
495 500 # Final obsolete version is unknown locally.
496 501 # Do not count that as a valid successors
497 502 cache[current] = []
498 503 else:
499 504 # cases (3) and (4)
500 505 #
501 506 # We proceed in two phases. Phase 1 aims to distinguish case (3)
502 507 # from case (4):
503 508 #
504 509 # For each direct successors of CURRENT, we check whether its
505 510 # successors sets are known. If they are not, we stack the
506 511 # unknown node and proceed to the next iteration of the while
507 512 # loop. (case 3)
508 513 #
509 514 # During this step, we may detect obsolescence cycles: a node
510 515 # with unknown successors sets but already in the call stack.
511 516 # In such a situation, we arbitrary set the successors sets of
512 517 # the node to nothing (node pruned) to break the cycle.
513 518 #
514 519 # If no break was encountered we proceed to phase 2.
515 520 #
516 521 # Phase 2 computes successors sets of CURRENT (case 4); see details
517 522 # in phase 2 itself.
518 523 #
519 524 # Note the two levels of iteration in each phase.
520 525 # - The first one handles obsolescence markers using CURRENT as
521 526 # precursor (successors markers of CURRENT).
522 527 #
523 528 # Having multiple entry here means divergence.
524 529 #
525 530 # - The second one handles successors defined in each marker.
526 531 #
527 532 # Having none means pruned node, multiple successors means split,
528 533 # single successors are standard replacement.
529 534 #
530 535 for mark in sorted(succmarkers[current]):
531 536 for suc in mark[1]:
532 537 if suc not in cache:
533 538 if suc in stackedset:
534 539 # cycle breaking
535 540 cache[suc] = []
536 541 else:
537 542 # case (3) If we have not computed successors sets
538 543 # of one of those successors we add it to the
539 544 # `toproceed` stack and stop all work for this
540 545 # iteration.
541 546 toproceed.append(suc)
542 547 stackedset.add(suc)
543 548 break
544 549 else:
545 550 continue
546 551 break
547 552 else:
548 553 # case (4): we know all successors sets of all direct
549 554 # successors
550 555 #
551 556 # Successors set contributed by each marker depends on the
552 557 # successors sets of all its "successors" node.
553 558 #
554 559 # Each different marker is a divergence in the obsolescence
555 560 # history. It contributes successors sets distinct from other
556 561 # markers.
557 562 #
558 563 # Within a marker, a successor may have divergent successors
559 564 # sets. In such a case, the marker will contribute multiple
560 565 # divergent successors sets. If multiple successors have
561 566 # divergent successors sets, a Cartesian product is used.
562 567 #
563 568 # At the end we post-process successors sets to remove
564 569 # duplicated entry and successors set that are strict subset of
565 570 # another one.
566 571 succssets = []
567 572 for mark in sorted(succmarkers[current]):
568 573 # successors sets contributed by this marker
569 574 base = _succs()
570 575 base.markers.add(mark)
571 576 markss = [base]
572 577 for suc in mark[1]:
573 578 # cardinal product with previous successors
574 579 productresult = []
575 580 for prefix in markss:
576 581 for suffix in cache[suc]:
577 582 newss = prefix.copy()
578 583 newss.markers.update(suffix.markers)
579 584 for part in suffix:
580 585 # do not duplicated entry in successors set
581 586 # first entry wins.
582 587 if part not in newss:
583 588 newss.append(part)
584 589 productresult.append(newss)
585 590 markss = productresult
586 591 succssets.extend(markss)
587 592 # remove duplicated and subset
588 593 seen = []
589 594 final = []
590 595 candidates = sorted((s for s in succssets if s),
591 596 key=len, reverse=True)
592 597 for cand in candidates:
593 598 for seensuccs in seen:
594 599 if cand.canmerge(seensuccs):
595 600 seensuccs.markers.update(cand.markers)
596 601 break
597 602 else:
598 603 final.append(cand)
599 604 seen.append(cand)
600 605 final.reverse() # put small successors set first
601 606 cache[current] = final
602 607 return cache[initialnode]
603 608
604 609 def successorsandmarkers(repo, ctx):
605 610 """compute the raw data needed for computing obsfate
606 611 Returns a list of dict, one dict per successors set
607 612 """
608 613 if not ctx.obsolete():
609 614 return None
610 615
611 616 ssets = successorssets(repo, ctx.node(), closest=True)
612 617
613 618 # closestsuccessors returns an empty list for pruned revisions, remap it
614 619 # into a list containing an empty list for future processing
615 620 if ssets == []:
616 621 ssets = [[]]
617 622
618 623 # Try to recover pruned markers
619 624 succsmap = repo.obsstore.successors
620 625 fullsuccessorsets = [] # successor set + markers
621 626 for sset in ssets:
622 627 if sset:
623 628 fullsuccessorsets.append(sset)
624 629 else:
625 630 # successorsset return an empty set() when ctx or one of its
626 631 # successors is pruned.
627 632 # In this case, walk the obs-markers tree again starting with ctx
628 633 # and find the relevant pruning obs-makers, the ones without
629 634 # successors.
630 635 # Having these markers allow us to compute some information about
631 636 # its fate, like who pruned this changeset and when.
632 637
633 638 # XXX we do not catch all prune markers (eg rewritten then pruned)
634 639 # (fix me later)
635 640 foundany = False
636 641 for mark in succsmap.get(ctx.node(), ()):
637 642 if not mark[1]:
638 643 foundany = True
639 644 sset = _succs()
640 645 sset.markers.add(mark)
641 646 fullsuccessorsets.append(sset)
642 647 if not foundany:
643 648 fullsuccessorsets.append(_succs())
644 649
645 650 values = []
646 651 for sset in fullsuccessorsets:
647 652 values.append({'successors': sset, 'markers': sset.markers})
648 653
649 654 return values
650 655
651 656 def successorsetverb(successorset):
652 657 """ Return the verb summarizing the successorset
653 658 """
654 659 if not successorset:
655 660 verb = 'pruned'
656 661 elif len(successorset) == 1:
657 662 verb = 'rewritten'
658 663 else:
659 664 verb = 'split'
660 665 return verb
661 666
662 667 def markersdates(markers):
663 668 """returns the list of dates for a list of markers
664 669 """
665 670 return [m[4] for m in markers]
666 671
667 672 def markersusers(markers):
668 673 """ Returns a sorted list of markers users without duplicates
669 674 """
670 675 markersmeta = [dict(m[3]) for m in markers]
671 676 users = set(meta.get('user') for meta in markersmeta if meta.get('user'))
672 677
673 678 return sorted(users)
674 679
675 680 def markersoperations(markers):
676 681 """ Returns a sorted list of markers operations without duplicates
677 682 """
678 683 markersmeta = [dict(m[3]) for m in markers]
679 684 operations = set(meta.get('operation') for meta in markersmeta
680 685 if meta.get('operation'))
681 686
682 687 return sorted(operations)
@@ -1,167 +1,167 b''
1 1 Test the 'effect-flags' feature
2 2
3 3 Global setup
4 4 ============
5 5
6 6 $ . $TESTDIR/testlib/obsmarker-common.sh
7 7 $ cat >> $HGRCPATH <<EOF
8 8 > [ui]
9 9 > interactive = true
10 10 > [phases]
11 11 > publish=False
12 12 > [extensions]
13 13 > rebase =
14 14 > [experimental]
15 15 > evolution = all
16 16 > effect-flags = 1
17 17 > EOF
18 18
19 19 $ hg init $TESTTMP/effect-flags
20 20 $ cd $TESTTMP/effect-flags
21 21 $ mkcommit ROOT
22 22
23 23 amend touching the description only
24 24 -----------------------------------
25 25
26 26 $ mkcommit A0
27 27 $ hg commit --amend -m "A1"
28 28
29 29 check result
30 30
31 31 $ hg debugobsolete --rev .
32 32 471f378eab4c5e25f6c77f785b27c936efb22874 fdf9bde5129a28d4548fadd3f62b265cdd3b7a2e 0 (Thu Jan 01 00:00:00 1970 +0000) {'ef1': '1', 'operation': 'amend', 'user': 'test'}
33 33
34 34 amend touching the user only
35 35 ----------------------------
36 36
37 37 $ mkcommit B0
38 38 $ hg commit --amend -u "bob <bob@bob.com>"
39 39
40 40 check result
41 41
42 42 $ hg debugobsolete --rev .
43 43 ef4a313b1e0ade55718395d80e6b88c5ccd875eb 5485c92d34330dac9d7a63dc07e1e3373835b964 0 (Thu Jan 01 00:00:00 1970 +0000) {'ef1': '16', 'operation': 'amend', 'user': 'test'}
44 44
45 45 amend touching the date only
46 46 ----------------------------
47 47
48 48 $ mkcommit B1
49 49 $ hg commit --amend -d "42 0"
50 50
51 51 check result
52 52
53 53 $ hg debugobsolete --rev .
54 2ef0680ff45038ac28c9f1ff3644341f54487280 4dd84345082e9e5291c2e6b3f335bbf8bf389378 0 (Thu Jan 01 00:00:00 1970 +0000) {'ef1': '0', 'operation': 'amend', 'user': 'test'}
54 2ef0680ff45038ac28c9f1ff3644341f54487280 4dd84345082e9e5291c2e6b3f335bbf8bf389378 0 (Thu Jan 01 00:00:00 1970 +0000) {'ef1': '32', 'operation': 'amend', 'user': 'test'}
55 55
56 56 amend touching the branch only
57 57 ----------------------------
58 58
59 59 $ mkcommit B2
60 60 $ hg branch my-branch
61 61 marked working directory as branch my-branch
62 62 (branches are permanent and global, did you want a bookmark?)
63 63 $ hg commit --amend
64 64
65 65 check result
66 66
67 67 $ hg debugobsolete --rev .
68 68 bd3db8264ceebf1966319f5df3be7aac6acd1a8e 14a01456e0574f0e0a0b15b2345486a6364a8d79 0 (Thu Jan 01 00:00:00 1970 +0000) {'ef1': '0', 'operation': 'amend', 'user': 'test'}
69 69
70 70 $ hg up default
71 71 0 files updated, 0 files merged, 1 files removed, 0 files unresolved
72 72
73 73 rebase (parents change)
74 74 -----------------------
75 75
76 76 $ mkcommit C0
77 77 $ mkcommit D0
78 78 $ hg rebase -r . -d 'desc(B0)'
79 79 rebasing 10:c85eff83a034 "D0" (tip)
80 80
81 81 check result
82 82
83 83 $ hg debugobsolete --rev .
84 84 c85eff83a0340efd9da52b806a94c350222f3371 da86aa2f19a30d6686b15cae15c7b6c908ec9699 0 (Thu Jan 01 00:00:00 1970 +0000) {'ef1': '0', 'operation': 'rebase', 'user': 'test'}
85 85
86 86 amend touching the diff
87 87 -----------------------
88 88
89 89 $ mkcommit E0
90 90 $ echo 42 >> E0
91 91 $ hg commit --amend
92 92
93 93 check result
94 94
95 95 $ hg debugobsolete --rev .
96 96 ebfe0333e0d96f68a917afd97c0a0af87f1c3b5f 75781fdbdbf58a987516b00c980bccda1e9ae588 0 (Thu Jan 01 00:00:00 1970 +0000) {'ef1': '0', 'operation': 'amend', 'user': 'test'}
97 97
98 98 amend with multiple effect (desc and meta)
99 99 -------------------------------------------
100 100
101 101 $ mkcommit F0
102 102 $ hg branch my-other-branch
103 103 marked working directory as branch my-other-branch
104 104 $ hg commit --amend -m F1 -u "bob <bob@bob.com>" -d "42 0"
105 105
106 106 check result
107 107
108 108 $ hg debugobsolete --rev .
109 fad47e5bd78e6aa4db1b5a0a1751bc12563655ff a94e0fd5f1c81d969381a76eb0d37ce499a44fae 0 (Thu Jan 01 00:00:00 1970 +0000) {'ef1': '17', 'operation': 'amend', 'user': 'test'}
109 fad47e5bd78e6aa4db1b5a0a1751bc12563655ff a94e0fd5f1c81d969381a76eb0d37ce499a44fae 0 (Thu Jan 01 00:00:00 1970 +0000) {'ef1': '49', 'operation': 'amend', 'user': 'test'}
110 110
111 111 rebase not touching the diff
112 112 ----------------------------
113 113
114 114 $ cat << EOF > H0
115 115 > 0
116 116 > 1
117 117 > 2
118 118 > 3
119 119 > 4
120 120 > 5
121 121 > 6
122 122 > 7
123 123 > 8
124 124 > 9
125 125 > 10
126 126 > EOF
127 127 $ hg add H0
128 128 $ hg commit -m 'H0'
129 129 $ echo "H1" >> H0
130 130 $ hg commit -m "H1"
131 131 $ hg up -r "desc(H0)"
132 132 1 files updated, 0 files merged, 0 files removed, 0 files unresolved
133 133 $ cat << EOF > H0
134 134 > H2
135 135 > 0
136 136 > 1
137 137 > 2
138 138 > 3
139 139 > 4
140 140 > 5
141 141 > 6
142 142 > 7
143 143 > 8
144 144 > 9
145 145 > 10
146 146 > EOF
147 147 $ hg commit -m "H2"
148 148 created new head
149 149 $ hg rebase -s "desc(H1)" -d "desc(H2)" -t :merge3
150 150 rebasing 17:b57fed8d8322 "H1"
151 151 merging H0
152 152 $ hg debugobsolete -r tip
153 153 b57fed8d83228a8ae3748d8c3760a77638dd4f8c e509e2eb3df5d131ff7c02350bf2a9edd0c09478 0 (Thu Jan 01 00:00:00 1970 +0000) {'ef1': '0', 'operation': 'rebase', 'user': 'test'}
154 154
155 155 amend closing the branch should be detected as meta change
156 156 ----------------------------------------------------------
157 157
158 158 $ hg branch closedbranch
159 159 marked working directory as branch closedbranch
160 160 $ mkcommit G0
161 161 $ mkcommit I0
162 162 $ hg commit --amend --close-branch
163 163
164 164 check result
165 165
166 166 $ hg debugobsolete -r .
167 167 2f599e54c1c6974299065cdf54e1ad640bfb7b5d 12c6238b5e371eea00fd2013b12edce3f070928b 0 (Thu Jan 01 00:00:00 1970 +0000) {'ef1': '0', 'operation': 'amend', 'user': 'test'}
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