2019-02-02 23:53:44 +01:00
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from typing import Any, Dict, Mapping, Union
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2020-05-26 07:16:25 +02:00
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from unittest import mock
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Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
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from django.utils.timezone import now as timezone_now
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2020-07-16 07:05:02 +02:00
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from zerver.lib.push_notifications import get_apns_badge_count, get_apns_badge_count_future
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2020-06-11 00:54:34 +02:00
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from zerver.lib.test_classes import ZulipTestCase
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2020-08-14 10:03:36 +02:00
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from zerver.lib.test_helpers import mock_queue_publish
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2021-07-16 22:11:10 +02:00
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from zerver.models import Subscription, UserPresence, get_client
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2020-06-11 00:54:34 +02:00
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from zerver.tornado.event_queue import maybe_enqueue_notifications
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Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
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class EditMessageSideEffectsTest(ZulipTestCase):
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2018-05-11 01:39:38 +02:00
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def _assert_update_does_not_notify_anybody(self, message_id: int, content: str) -> None:
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2021-02-12 08:20:45 +01:00
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url = "/json/messages/" + str(message_id)
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Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
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request = dict(
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message_id=message_id,
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content=content,
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)
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2021-02-12 08:20:45 +01:00
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with mock.patch("zerver.tornado.event_queue.maybe_enqueue_notifications") as m:
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Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
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result = self.client_patch(url, request)
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self.assert_json_success(result)
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self.assertFalse(m.called)
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2017-11-05 10:51:25 +01:00
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def test_updates_with_pm_mention(self) -> None:
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2021-02-12 08:20:45 +01:00
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hamlet = self.example_user("hamlet")
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cordelia = self.example_user("cordelia")
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Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
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2020-03-06 18:40:46 +01:00
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self.login_user(hamlet)
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Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
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2017-10-28 17:11:25 +02:00
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message_id = self.send_personal_message(
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2020-03-07 11:43:05 +01:00
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hamlet,
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cordelia,
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2021-02-12 08:20:45 +01:00
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content="no mention",
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Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
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)
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self._assert_update_does_not_notify_anybody(
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message_id=message_id,
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2021-04-11 16:26:54 +02:00
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content="now we mention @**Cordelia, Lear's daughter**",
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Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
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)
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2021-02-12 08:19:30 +01:00
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def _login_and_send_original_stream_message(
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self, content: str, enable_online_push_notifications: bool = False
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) -> int:
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"""
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Note our conventions here:
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Hamlet is our logged in user (and sender).
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Cordelia is the receiver we care about.
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Scotland is the stream we send messages to.
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"""
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2021-02-12 08:20:45 +01:00
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hamlet = self.example_user("hamlet")
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cordelia = self.example_user("cordelia")
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Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
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2019-12-11 01:41:20 +01:00
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cordelia.enable_online_push_notifications = enable_online_push_notifications
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cordelia.save()
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2020-03-06 18:40:46 +01:00
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self.login_user(hamlet)
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2021-02-12 08:20:45 +01:00
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self.subscribe(hamlet, "Scotland")
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self.subscribe(cordelia, "Scotland")
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Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
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2017-10-28 17:11:25 +02:00
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message_id = self.send_stream_message(
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2020-03-07 11:43:05 +01:00
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hamlet,
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2021-02-12 08:20:45 +01:00
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"Scotland",
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Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
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content=content,
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)
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return message_id
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2021-02-12 08:19:30 +01:00
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def _get_queued_data_for_message_update(
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self, message_id: int, content: str, expect_short_circuit: bool = False
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) -> Dict[str, Any]:
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"""
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Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
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This function updates a message with a post to
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/json/messages/(message_id).
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By using mocks, we are able to capture two pieces of data:
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enqueue_kwargs: These are the arguments passed in to
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maybe_enqueue_notifications.
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queue_messages: These are the messages that
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maybe_enqueue_notifications actually
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puts on the queue.
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Using this helper allows you to construct a test that goes
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pretty deep into the missed-messages codepath, without actually
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queuing the final messages.
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2021-02-12 08:19:30 +01:00
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"""
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2021-02-12 08:20:45 +01:00
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url = "/json/messages/" + str(message_id)
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Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
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request = dict(
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message_id=message_id,
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content=content,
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)
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2021-02-12 08:20:45 +01:00
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with mock.patch("zerver.tornado.event_queue.maybe_enqueue_notifications") as m:
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Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
result = self.client_patch(url, request)
|
|
|
|
|
2021-02-12 08:20:45 +01:00
|
|
|
cordelia = self.example_user("cordelia")
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
cordelia_calls = [
|
|
|
|
call_args
|
|
|
|
for call_args in m.call_args_list
|
2021-06-25 14:08:41 +02:00
|
|
|
if call_args[1]["user_notifications_data"].user_id == cordelia.id
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
]
|
|
|
|
|
|
|
|
if expect_short_circuit:
|
2021-05-17 05:41:32 +02:00
|
|
|
self.assert_length(cordelia_calls, 0)
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
return {}
|
|
|
|
|
|
|
|
# Normally we expect maybe_enqueue_notifications to be
|
|
|
|
# called for Cordelia, so continue on.
|
2021-05-17 05:41:32 +02:00
|
|
|
self.assert_length(cordelia_calls, 1)
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
enqueue_kwargs = cordelia_calls[0][1]
|
|
|
|
|
|
|
|
queue_messages = []
|
|
|
|
|
2021-02-12 08:19:30 +01:00
|
|
|
def fake_publish(queue_name: str, event: Union[Mapping[str, Any], str], *args: Any) -> None:
|
|
|
|
queue_messages.append(
|
|
|
|
dict(
|
|
|
|
queue_name=queue_name,
|
|
|
|
event=event,
|
|
|
|
)
|
|
|
|
)
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2021-02-12 08:19:30 +01:00
|
|
|
with mock_queue_publish(
|
2021-02-12 08:20:45 +01:00
|
|
|
"zerver.tornado.event_queue.queue_json_publish", side_effect=fake_publish
|
2021-02-12 08:19:30 +01:00
|
|
|
) as m:
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
maybe_enqueue_notifications(**enqueue_kwargs)
|
|
|
|
|
|
|
|
self.assert_json_success(result)
|
|
|
|
|
|
|
|
return dict(
|
|
|
|
enqueue_kwargs=enqueue_kwargs,
|
python: Use trailing commas consistently.
Automatically generated by the following script, based on the output
of lint with flake8-comma:
import re
import sys
last_filename = None
last_row = None
lines = []
for msg in sys.stdin:
m = re.match(
r"\x1b\[35mflake8 \|\x1b\[0m \x1b\[1;31m(.+):(\d+):(\d+): (\w+)", msg
)
if m:
filename, row_str, col_str, err = m.groups()
row, col = int(row_str), int(col_str)
if filename == last_filename:
assert last_row != row
else:
if last_filename is not None:
with open(last_filename, "w") as f:
f.writelines(lines)
with open(filename) as f:
lines = f.readlines()
last_filename = filename
last_row = row
line = lines[row - 1]
if err in ["C812", "C815"]:
lines[row - 1] = line[: col - 1] + "," + line[col - 1 :]
elif err in ["C819"]:
assert line[col - 2] == ","
lines[row - 1] = line[: col - 2] + line[col - 1 :].lstrip(" ")
if last_filename is not None:
with open(last_filename, "w") as f:
f.writelines(lines)
Signed-off-by: Anders Kaseorg <anders@zulipchat.com>
2020-04-10 05:23:40 +02:00
|
|
|
queue_messages=queue_messages,
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
)
|
|
|
|
|
2021-02-12 08:19:30 +01:00
|
|
|
def _send_and_update_message(
|
|
|
|
self,
|
|
|
|
original_content: str,
|
|
|
|
updated_content: str,
|
|
|
|
enable_online_push_notifications: bool = False,
|
|
|
|
expect_short_circuit: bool = False,
|
|
|
|
connected_to_zulip: bool = False,
|
|
|
|
present_on_web: bool = False,
|
|
|
|
) -> Dict[str, Any]:
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
message_id = self._login_and_send_original_stream_message(
|
2020-04-26 04:17:48 +02:00
|
|
|
content=original_content,
|
|
|
|
enable_online_push_notifications=enable_online_push_notifications,
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
)
|
|
|
|
|
2020-04-26 04:17:48 +02:00
|
|
|
if present_on_web:
|
|
|
|
self._make_cordelia_present_on_web()
|
|
|
|
|
|
|
|
if connected_to_zulip:
|
|
|
|
with self._cordelia_connected_to_zulip():
|
|
|
|
info = self._get_queued_data_for_message_update(
|
|
|
|
message_id=message_id,
|
|
|
|
content=updated_content,
|
|
|
|
expect_short_circuit=expect_short_circuit,
|
|
|
|
)
|
|
|
|
else:
|
|
|
|
info = self._get_queued_data_for_message_update(
|
|
|
|
message_id=message_id,
|
|
|
|
content=updated_content,
|
|
|
|
expect_short_circuit=expect_short_circuit,
|
|
|
|
)
|
|
|
|
|
|
|
|
return dict(
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
message_id=message_id,
|
python: Use trailing commas consistently.
Automatically generated by the following script, based on the output
of lint with flake8-comma:
import re
import sys
last_filename = None
last_row = None
lines = []
for msg in sys.stdin:
m = re.match(
r"\x1b\[35mflake8 \|\x1b\[0m \x1b\[1;31m(.+):(\d+):(\d+): (\w+)", msg
)
if m:
filename, row_str, col_str, err = m.groups()
row, col = int(row_str), int(col_str)
if filename == last_filename:
assert last_row != row
else:
if last_filename is not None:
with open(last_filename, "w") as f:
f.writelines(lines)
with open(filename) as f:
lines = f.readlines()
last_filename = filename
last_row = row
line = lines[row - 1]
if err in ["C812", "C815"]:
lines[row - 1] = line[: col - 1] + "," + line[col - 1 :]
elif err in ["C819"]:
assert line[col - 2] == ","
lines[row - 1] = line[: col - 2] + line[col - 1 :].lstrip(" ")
if last_filename is not None:
with open(last_filename, "w") as f:
f.writelines(lines)
Signed-off-by: Anders Kaseorg <anders@zulipchat.com>
2020-04-10 05:23:40 +02:00
|
|
|
info=info,
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
)
|
|
|
|
|
2020-04-26 04:17:48 +02:00
|
|
|
def test_updates_with_stream_mention(self) -> None:
|
2021-02-12 08:20:45 +01:00
|
|
|
original_content = "no mention"
|
2021-04-11 16:26:54 +02:00
|
|
|
updated_content = "now we mention @**Cordelia, Lear's daughter**"
|
2020-04-26 04:17:48 +02:00
|
|
|
notification_message_data = self._send_and_update_message(original_content, updated_content)
|
|
|
|
|
2021-02-12 08:20:45 +01:00
|
|
|
message_id = notification_message_data["message_id"]
|
|
|
|
info = notification_message_data["info"]
|
2020-04-26 04:17:48 +02:00
|
|
|
|
2021-02-12 08:20:45 +01:00
|
|
|
cordelia = self.example_user("cordelia")
|
maybe_enqueue_notifications: Take in notification_data dataclass.
* Modify `maybe_enqueue_notifications` to take in an instance of the
dataclass introduced in 951b49c048ba3464e74ad7965da3453fe36d0a96.
* The `check_notify` tests tested the "when to notify" logic in a way
which involved `maybe_enqueue_notifications`. To simplify things, we've
earlier extracted this logic in 8182632d7e9f8490b9b9295e01b5912dcf173fd5.
So, we just kill off the `check_notify` test, and keep only those parts
which verify the queueing and return value behavior of that funtion.
* We retain the the missedmessage_hook and message
message_edit_notifications since they are more integration-style.
* There's a slightly subtle change with the missedmessage_hook tests.
Before this commit, we short-circuited the hook if the sender was muted
(5a642cea115be159175d1189f83ba25d2c5c7632).
With this commit, we delegate the check to our dataclass methods.
So, `maybe_enqueue_notifications` will be called even if the sender was
muted, and the test needs to be updated.
* In our test helper `get_maybe_enqueue_notifications_parameters` which
generates default values for testing `maybe_enqueue_notifications` calls,
we keep `message_id`, `sender_id`, and `user_id` as required arguments,
so that the tests are super-clear and avoid accidental false positives.
* Because `do_update_embedded_data` also sends `update_message` events,
we deal with that case with some hacky code for now. See the comment
there.
This mostly completes the extraction of the "when to notify" logic into
our new `notification_data` module.
2021-06-23 14:12:32 +02:00
|
|
|
hamlet = self.example_user("hamlet")
|
2021-06-08 18:05:37 +02:00
|
|
|
expected_enqueue_kwargs = self.get_maybe_enqueue_notifications_parameters(
|
maybe_enqueue_notifications: Take in notification_data dataclass.
* Modify `maybe_enqueue_notifications` to take in an instance of the
dataclass introduced in 951b49c048ba3464e74ad7965da3453fe36d0a96.
* The `check_notify` tests tested the "when to notify" logic in a way
which involved `maybe_enqueue_notifications`. To simplify things, we've
earlier extracted this logic in 8182632d7e9f8490b9b9295e01b5912dcf173fd5.
So, we just kill off the `check_notify` test, and keep only those parts
which verify the queueing and return value behavior of that funtion.
* We retain the the missedmessage_hook and message
message_edit_notifications since they are more integration-style.
* There's a slightly subtle change with the missedmessage_hook tests.
Before this commit, we short-circuited the hook if the sender was muted
(5a642cea115be159175d1189f83ba25d2c5c7632).
With this commit, we delegate the check to our dataclass methods.
So, `maybe_enqueue_notifications` will be called even if the sender was
muted, and the test needs to be updated.
* In our test helper `get_maybe_enqueue_notifications_parameters` which
generates default values for testing `maybe_enqueue_notifications` calls,
we keep `message_id`, `sender_id`, and `user_id` as required arguments,
so that the tests are super-clear and avoid accidental false positives.
* Because `do_update_embedded_data` also sends `update_message` events,
we deal with that case with some hacky code for now. See the comment
there.
This mostly completes the extraction of the "when to notify" logic into
our new `notification_data` module.
2021-06-23 14:12:32 +02:00
|
|
|
user_id=cordelia.id,
|
2021-06-25 13:58:53 +02:00
|
|
|
acting_user_id=hamlet.id,
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
message_id=message_id,
|
notifications: Calculate PMs/mentions settings like other settings.
Previously, we checked for the `enable_offline_email_notifications` and
`enable_offline_push_notifications` settings (which determine whether the
user will receive notifications for PMs and mentions) just before sending
notifications. This has a few problem:
1. We do not have access to all the user settings in the notification
handlers (`handle_missedmessage_emails` and `handle_push_notifications`),
and therefore, we cannot correctly determine whether the notification should
be sent. Checks like the following which existed previously, will, for
example, incorrectly not send notifications even when stream email
notifications are enabled-
```
if not receives_offline_email_notifications(user_profile):
return
```
With this commit, we simply do not enqueue notifications if the "offline"
settings are disabled, which fixes that bug.
Additionally, this also fixes a bug with the "online push notifications"
feature, which was, if someone were to:
* turn off notifications for PMs and mentions (`enable_offline_push_notifications`)
* turn on stream push notifications (`enable_stream_push_notifications`)
* turn on "online push" (`enable_online_push_notifications`)
then, they would still receive notifications for PMs when online.
This isn't how the "online push enabled" feature is supposed to work;
it should only act as a wrapper around the other notification settings.
The buggy code was this in `handle_push_notifications`:
```
if not (
receives_offline_push_notifications(user_profile)
or receives_online_push_notifications(user_profile)
):
return
// send notifications
```
This commit removes that code, and extends our `notification_data.py` logic
to cover this case, along with tests.
2. The name for these settings is slightly misleading. They essentially
talk about "what to send notifications for" (PMs and mentions), and not
"when to send notifications" (offline). This commit improves this condition
by restricting the use of this term only to the database field, and using
clearer names everywhere else. This distinction will be important to have
non-confusing code when we implement multiple options for notifications
in the future as dropdown (never/when offline/when offline or online, etc).
3. We should ideally re-check all notification settings just before the
notifications are sent. This is especially important for email notifications,
which may be sent after a long time after the message was sent. We will
in the future add code to thoroughly re-check settings before sending
notifications in a clean manner, but temporarily not re-checking isn't
a terrible scenario either.
2021-07-14 15:34:01 +02:00
|
|
|
mention_email_notify=True,
|
|
|
|
mention_push_notify=True,
|
2017-10-18 07:12:32 +02:00
|
|
|
already_notified={},
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
)
|
|
|
|
|
2021-02-12 08:20:45 +01:00
|
|
|
self.assertEqual(info["enqueue_kwargs"], expected_enqueue_kwargs)
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2021-02-12 08:20:45 +01:00
|
|
|
queue_messages = info["queue_messages"]
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2021-05-17 05:41:32 +02:00
|
|
|
self.assert_length(queue_messages, 2)
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2021-02-12 08:20:45 +01:00
|
|
|
self.assertEqual(queue_messages[0]["queue_name"], "missedmessage_mobile_notifications")
|
|
|
|
mobile_event = queue_messages[0]["event"]
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2021-02-12 08:20:45 +01:00
|
|
|
self.assertEqual(mobile_event["user_profile_id"], cordelia.id)
|
|
|
|
self.assertEqual(mobile_event["trigger"], "mentioned")
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2021-02-12 08:20:45 +01:00
|
|
|
self.assertEqual(queue_messages[1]["queue_name"], "missedmessage_emails")
|
|
|
|
email_event = queue_messages[1]["event"]
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2021-02-12 08:20:45 +01:00
|
|
|
self.assertEqual(email_event["user_profile_id"], cordelia.id)
|
|
|
|
self.assertEqual(email_event["trigger"], "mentioned")
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2017-11-05 10:51:25 +01:00
|
|
|
def test_second_mention_is_ignored(self) -> None:
|
2021-04-11 16:26:54 +02:00
|
|
|
original_content = "hello @**Cordelia, Lear's daughter**"
|
|
|
|
updated_content = "re-mention @**Cordelia, Lear's daughter**"
|
2021-02-12 08:19:30 +01:00
|
|
|
self._send_and_update_message(original_content, updated_content, expect_short_circuit=True)
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2017-11-05 10:51:25 +01:00
|
|
|
def _turn_on_stream_push_for_cordelia(self) -> None:
|
2021-02-12 08:19:30 +01:00
|
|
|
"""
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
conventions:
|
|
|
|
Cordelia is the message receiver we care about.
|
|
|
|
Scotland is our stream.
|
2021-02-12 08:19:30 +01:00
|
|
|
"""
|
2021-02-12 08:20:45 +01:00
|
|
|
cordelia = self.example_user("cordelia")
|
|
|
|
stream = self.subscribe(cordelia, "Scotland")
|
2020-02-18 17:25:43 +01:00
|
|
|
recipient = stream.recipient
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
cordelia_subscription = Subscription.objects.get(
|
|
|
|
user_profile_id=cordelia.id,
|
|
|
|
recipient=recipient,
|
|
|
|
)
|
|
|
|
cordelia_subscription.push_notifications = True
|
|
|
|
cordelia_subscription.save()
|
|
|
|
|
2017-11-05 10:51:25 +01:00
|
|
|
def test_updates_with_stream_push_notify(self) -> None:
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
self._turn_on_stream_push_for_cordelia()
|
|
|
|
|
|
|
|
# Even though Cordelia configured this stream for pushes,
|
|
|
|
# we short-ciruit the logic, assuming the original message
|
|
|
|
# also did a push.
|
2021-02-12 08:20:45 +01:00
|
|
|
original_content = "no mention"
|
|
|
|
updated_content = "nothing special about updated message"
|
2021-02-12 08:19:30 +01:00
|
|
|
self._send_and_update_message(original_content, updated_content, expect_short_circuit=True)
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2017-11-05 10:51:25 +01:00
|
|
|
def _cordelia_connected_to_zulip(self) -> Any:
|
2021-02-12 08:19:30 +01:00
|
|
|
"""
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
Right now the easiest way to make Cordelia look
|
|
|
|
connected to Zulip is to mock the function below.
|
|
|
|
|
|
|
|
This is a bit blunt, as it affects other users too,
|
|
|
|
but we only really look at Cordelia's data, anyway.
|
2021-02-12 08:19:30 +01:00
|
|
|
"""
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
return mock.patch(
|
2021-02-12 08:20:45 +01:00
|
|
|
"zerver.tornado.event_queue.receiver_is_off_zulip",
|
python: Use trailing commas consistently.
Automatically generated by the following script, based on the output
of lint with flake8-comma:
import re
import sys
last_filename = None
last_row = None
lines = []
for msg in sys.stdin:
m = re.match(
r"\x1b\[35mflake8 \|\x1b\[0m \x1b\[1;31m(.+):(\d+):(\d+): (\w+)", msg
)
if m:
filename, row_str, col_str, err = m.groups()
row, col = int(row_str), int(col_str)
if filename == last_filename:
assert last_row != row
else:
if last_filename is not None:
with open(last_filename, "w") as f:
f.writelines(lines)
with open(filename) as f:
lines = f.readlines()
last_filename = filename
last_row = row
line = lines[row - 1]
if err in ["C812", "C815"]:
lines[row - 1] = line[: col - 1] + "," + line[col - 1 :]
elif err in ["C819"]:
assert line[col - 2] == ","
lines[row - 1] = line[: col - 2] + line[col - 1 :].lstrip(" ")
if last_filename is not None:
with open(last_filename, "w") as f:
f.writelines(lines)
Signed-off-by: Anders Kaseorg <anders@zulipchat.com>
2020-04-10 05:23:40 +02:00
|
|
|
return_value=False,
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
)
|
|
|
|
|
2017-11-05 10:51:25 +01:00
|
|
|
def test_stream_push_notify_for_sorta_present_user(self) -> None:
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
self._turn_on_stream_push_for_cordelia()
|
|
|
|
|
|
|
|
# Simulate Cordelia still has an actively polling client, but
|
|
|
|
# the lack of presence info should still mark her as offline.
|
|
|
|
#
|
|
|
|
# Despite Cordelia being offline, we still short circuit
|
|
|
|
# offline notifications due to the her stream push setting.
|
2021-02-12 08:20:45 +01:00
|
|
|
original_content = "no mention"
|
|
|
|
updated_content = "nothing special about updated message"
|
2021-02-12 08:19:30 +01:00
|
|
|
self._send_and_update_message(
|
|
|
|
original_content, updated_content, expect_short_circuit=True, connected_to_zulip=True
|
|
|
|
)
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2017-11-05 10:51:25 +01:00
|
|
|
def _make_cordelia_present_on_web(self) -> None:
|
2021-02-12 08:20:45 +01:00
|
|
|
cordelia = self.example_user("cordelia")
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
UserPresence.objects.create(
|
|
|
|
user_profile_id=cordelia.id,
|
2020-02-08 18:46:27 +01:00
|
|
|
realm_id=cordelia.realm_id,
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
status=UserPresence.ACTIVE,
|
2021-02-12 08:20:45 +01:00
|
|
|
client=get_client("web"),
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
timestamp=timezone_now(),
|
|
|
|
)
|
|
|
|
|
2017-11-05 10:51:25 +01:00
|
|
|
def test_stream_push_notify_for_fully_present_user(self) -> None:
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
self._turn_on_stream_push_for_cordelia()
|
|
|
|
|
|
|
|
# Simulate Cordelia is FULLY present, not just in term of
|
|
|
|
# browser activity, but also in terms of her client descriptors.
|
2021-02-12 08:20:45 +01:00
|
|
|
original_content = "no mention"
|
|
|
|
updated_content = "nothing special about updated message"
|
2021-02-12 08:19:30 +01:00
|
|
|
self._send_and_update_message(
|
|
|
|
original_content,
|
|
|
|
updated_content,
|
|
|
|
expect_short_circuit=True,
|
|
|
|
connected_to_zulip=True,
|
|
|
|
present_on_web=True,
|
|
|
|
)
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2021-05-24 06:11:59 +02:00
|
|
|
def test_online_push_enabled_for_fully_present_mentioned_user(self) -> None:
|
2021-02-12 08:20:45 +01:00
|
|
|
cordelia = self.example_user("cordelia")
|
maybe_enqueue_notifications: Take in notification_data dataclass.
* Modify `maybe_enqueue_notifications` to take in an instance of the
dataclass introduced in 951b49c048ba3464e74ad7965da3453fe36d0a96.
* The `check_notify` tests tested the "when to notify" logic in a way
which involved `maybe_enqueue_notifications`. To simplify things, we've
earlier extracted this logic in 8182632d7e9f8490b9b9295e01b5912dcf173fd5.
So, we just kill off the `check_notify` test, and keep only those parts
which verify the queueing and return value behavior of that funtion.
* We retain the the missedmessage_hook and message
message_edit_notifications since they are more integration-style.
* There's a slightly subtle change with the missedmessage_hook tests.
Before this commit, we short-circuited the hook if the sender was muted
(5a642cea115be159175d1189f83ba25d2c5c7632).
With this commit, we delegate the check to our dataclass methods.
So, `maybe_enqueue_notifications` will be called even if the sender was
muted, and the test needs to be updated.
* In our test helper `get_maybe_enqueue_notifications_parameters` which
generates default values for testing `maybe_enqueue_notifications` calls,
we keep `message_id`, `sender_id`, and `user_id` as required arguments,
so that the tests are super-clear and avoid accidental false positives.
* Because `do_update_embedded_data` also sends `update_message` events,
we deal with that case with some hacky code for now. See the comment
there.
This mostly completes the extraction of the "when to notify" logic into
our new `notification_data` module.
2021-06-23 14:12:32 +02:00
|
|
|
hamlet = self.example_user("hamlet")
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2020-04-26 04:17:48 +02:00
|
|
|
# Simulate Cordelia is FULLY present, not just in term of
|
|
|
|
# browser activity, but also in terms of her client descriptors.
|
2021-02-12 08:20:45 +01:00
|
|
|
original_content = "no mention"
|
2021-04-11 16:26:54 +02:00
|
|
|
updated_content = "newly mention @**Cordelia, Lear's daughter**"
|
2020-04-26 04:17:48 +02:00
|
|
|
notification_message_data = self._send_and_update_message(
|
2021-02-12 08:19:30 +01:00
|
|
|
original_content,
|
|
|
|
updated_content,
|
2019-12-11 01:41:20 +01:00
|
|
|
enable_online_push_notifications=True,
|
2021-02-12 08:19:30 +01:00
|
|
|
connected_to_zulip=True,
|
|
|
|
present_on_web=True,
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
)
|
|
|
|
|
2021-02-12 08:20:45 +01:00
|
|
|
message_id = notification_message_data["message_id"]
|
|
|
|
info = notification_message_data["info"]
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2021-06-08 18:05:37 +02:00
|
|
|
expected_enqueue_kwargs = self.get_maybe_enqueue_notifications_parameters(
|
maybe_enqueue_notifications: Take in notification_data dataclass.
* Modify `maybe_enqueue_notifications` to take in an instance of the
dataclass introduced in 951b49c048ba3464e74ad7965da3453fe36d0a96.
* The `check_notify` tests tested the "when to notify" logic in a way
which involved `maybe_enqueue_notifications`. To simplify things, we've
earlier extracted this logic in 8182632d7e9f8490b9b9295e01b5912dcf173fd5.
So, we just kill off the `check_notify` test, and keep only those parts
which verify the queueing and return value behavior of that funtion.
* We retain the the missedmessage_hook and message
message_edit_notifications since they are more integration-style.
* There's a slightly subtle change with the missedmessage_hook tests.
Before this commit, we short-circuited the hook if the sender was muted
(5a642cea115be159175d1189f83ba25d2c5c7632).
With this commit, we delegate the check to our dataclass methods.
So, `maybe_enqueue_notifications` will be called even if the sender was
muted, and the test needs to be updated.
* In our test helper `get_maybe_enqueue_notifications_parameters` which
generates default values for testing `maybe_enqueue_notifications` calls,
we keep `message_id`, `sender_id`, and `user_id` as required arguments,
so that the tests are super-clear and avoid accidental false positives.
* Because `do_update_embedded_data` also sends `update_message` events,
we deal with that case with some hacky code for now. See the comment
there.
This mostly completes the extraction of the "when to notify" logic into
our new `notification_data` module.
2021-06-23 14:12:32 +02:00
|
|
|
user_id=cordelia.id,
|
2021-06-25 13:58:53 +02:00
|
|
|
acting_user_id=hamlet.id,
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
message_id=message_id,
|
notifications: Calculate PMs/mentions settings like other settings.
Previously, we checked for the `enable_offline_email_notifications` and
`enable_offline_push_notifications` settings (which determine whether the
user will receive notifications for PMs and mentions) just before sending
notifications. This has a few problem:
1. We do not have access to all the user settings in the notification
handlers (`handle_missedmessage_emails` and `handle_push_notifications`),
and therefore, we cannot correctly determine whether the notification should
be sent. Checks like the following which existed previously, will, for
example, incorrectly not send notifications even when stream email
notifications are enabled-
```
if not receives_offline_email_notifications(user_profile):
return
```
With this commit, we simply do not enqueue notifications if the "offline"
settings are disabled, which fixes that bug.
Additionally, this also fixes a bug with the "online push notifications"
feature, which was, if someone were to:
* turn off notifications for PMs and mentions (`enable_offline_push_notifications`)
* turn on stream push notifications (`enable_stream_push_notifications`)
* turn on "online push" (`enable_online_push_notifications`)
then, they would still receive notifications for PMs when online.
This isn't how the "online push enabled" feature is supposed to work;
it should only act as a wrapper around the other notification settings.
The buggy code was this in `handle_push_notifications`:
```
if not (
receives_offline_push_notifications(user_profile)
or receives_online_push_notifications(user_profile)
):
return
// send notifications
```
This commit removes that code, and extends our `notification_data.py` logic
to cover this case, along with tests.
2. The name for these settings is slightly misleading. They essentially
talk about "what to send notifications for" (PMs and mentions), and not
"when to send notifications" (offline). This commit improves this condition
by restricting the use of this term only to the database field, and using
clearer names everywhere else. This distinction will be important to have
non-confusing code when we implement multiple options for notifications
in the future as dropdown (never/when offline/when offline or online, etc).
3. We should ideally re-check all notification settings just before the
notifications are sent. This is especially important for email notifications,
which may be sent after a long time after the message was sent. We will
in the future add code to thoroughly re-check settings before sending
notifications in a clean manner, but temporarily not re-checking isn't
a terrible scenario either.
2021-07-14 15:34:01 +02:00
|
|
|
mention_push_notify=True,
|
|
|
|
mention_email_notify=True,
|
2021-05-24 06:11:59 +02:00
|
|
|
online_push_enabled=True,
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
idle=False,
|
2017-10-18 07:12:32 +02:00
|
|
|
already_notified={},
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
)
|
|
|
|
|
2021-02-12 08:20:45 +01:00
|
|
|
self.assertEqual(info["enqueue_kwargs"], expected_enqueue_kwargs)
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2021-02-12 08:20:45 +01:00
|
|
|
queue_messages = info["queue_messages"]
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2021-05-17 05:41:32 +02:00
|
|
|
self.assert_length(queue_messages, 1)
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2021-05-24 06:11:59 +02:00
|
|
|
def test_online_push_enabled_for_fully_present_boring_user(self) -> None:
|
2021-02-12 08:20:45 +01:00
|
|
|
cordelia = self.example_user("cordelia")
|
maybe_enqueue_notifications: Take in notification_data dataclass.
* Modify `maybe_enqueue_notifications` to take in an instance of the
dataclass introduced in 951b49c048ba3464e74ad7965da3453fe36d0a96.
* The `check_notify` tests tested the "when to notify" logic in a way
which involved `maybe_enqueue_notifications`. To simplify things, we've
earlier extracted this logic in 8182632d7e9f8490b9b9295e01b5912dcf173fd5.
So, we just kill off the `check_notify` test, and keep only those parts
which verify the queueing and return value behavior of that funtion.
* We retain the the missedmessage_hook and message
message_edit_notifications since they are more integration-style.
* There's a slightly subtle change with the missedmessage_hook tests.
Before this commit, we short-circuited the hook if the sender was muted
(5a642cea115be159175d1189f83ba25d2c5c7632).
With this commit, we delegate the check to our dataclass methods.
So, `maybe_enqueue_notifications` will be called even if the sender was
muted, and the test needs to be updated.
* In our test helper `get_maybe_enqueue_notifications_parameters` which
generates default values for testing `maybe_enqueue_notifications` calls,
we keep `message_id`, `sender_id`, and `user_id` as required arguments,
so that the tests are super-clear and avoid accidental false positives.
* Because `do_update_embedded_data` also sends `update_message` events,
we deal with that case with some hacky code for now. See the comment
there.
This mostly completes the extraction of the "when to notify" logic into
our new `notification_data` module.
2021-06-23 14:12:32 +02:00
|
|
|
hamlet = self.example_user("hamlet")
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2020-04-26 04:17:48 +02:00
|
|
|
# Simulate Cordelia is FULLY present, not just in term of
|
|
|
|
# browser activity, but also in terms of her client descriptors.
|
2021-02-12 08:20:45 +01:00
|
|
|
original_content = "no mention"
|
|
|
|
updated_content = "nothing special about updated message"
|
2020-04-26 04:17:48 +02:00
|
|
|
notification_message_data = self._send_and_update_message(
|
2021-02-12 08:19:30 +01:00
|
|
|
original_content,
|
|
|
|
updated_content,
|
2019-12-11 01:41:20 +01:00
|
|
|
enable_online_push_notifications=True,
|
2021-02-12 08:19:30 +01:00
|
|
|
connected_to_zulip=True,
|
|
|
|
present_on_web=True,
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
)
|
|
|
|
|
2021-02-12 08:20:45 +01:00
|
|
|
message_id = notification_message_data["message_id"]
|
|
|
|
info = notification_message_data["info"]
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2021-06-08 18:05:37 +02:00
|
|
|
expected_enqueue_kwargs = self.get_maybe_enqueue_notifications_parameters(
|
maybe_enqueue_notifications: Take in notification_data dataclass.
* Modify `maybe_enqueue_notifications` to take in an instance of the
dataclass introduced in 951b49c048ba3464e74ad7965da3453fe36d0a96.
* The `check_notify` tests tested the "when to notify" logic in a way
which involved `maybe_enqueue_notifications`. To simplify things, we've
earlier extracted this logic in 8182632d7e9f8490b9b9295e01b5912dcf173fd5.
So, we just kill off the `check_notify` test, and keep only those parts
which verify the queueing and return value behavior of that funtion.
* We retain the the missedmessage_hook and message
message_edit_notifications since they are more integration-style.
* There's a slightly subtle change with the missedmessage_hook tests.
Before this commit, we short-circuited the hook if the sender was muted
(5a642cea115be159175d1189f83ba25d2c5c7632).
With this commit, we delegate the check to our dataclass methods.
So, `maybe_enqueue_notifications` will be called even if the sender was
muted, and the test needs to be updated.
* In our test helper `get_maybe_enqueue_notifications_parameters` which
generates default values for testing `maybe_enqueue_notifications` calls,
we keep `message_id`, `sender_id`, and `user_id` as required arguments,
so that the tests are super-clear and avoid accidental false positives.
* Because `do_update_embedded_data` also sends `update_message` events,
we deal with that case with some hacky code for now. See the comment
there.
This mostly completes the extraction of the "when to notify" logic into
our new `notification_data` module.
2021-06-23 14:12:32 +02:00
|
|
|
user_id=cordelia.id,
|
2021-06-25 13:58:53 +02:00
|
|
|
acting_user_id=hamlet.id,
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
message_id=message_id,
|
2021-05-24 06:11:59 +02:00
|
|
|
online_push_enabled=True,
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
idle=False,
|
2017-10-18 07:12:32 +02:00
|
|
|
already_notified={},
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
)
|
|
|
|
|
2021-02-12 08:20:45 +01:00
|
|
|
self.assertEqual(info["enqueue_kwargs"], expected_enqueue_kwargs)
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2021-02-12 08:20:45 +01:00
|
|
|
queue_messages = info["queue_messages"]
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
notifications: Calculate PMs/mentions settings like other settings.
Previously, we checked for the `enable_offline_email_notifications` and
`enable_offline_push_notifications` settings (which determine whether the
user will receive notifications for PMs and mentions) just before sending
notifications. This has a few problem:
1. We do not have access to all the user settings in the notification
handlers (`handle_missedmessage_emails` and `handle_push_notifications`),
and therefore, we cannot correctly determine whether the notification should
be sent. Checks like the following which existed previously, will, for
example, incorrectly not send notifications even when stream email
notifications are enabled-
```
if not receives_offline_email_notifications(user_profile):
return
```
With this commit, we simply do not enqueue notifications if the "offline"
settings are disabled, which fixes that bug.
Additionally, this also fixes a bug with the "online push notifications"
feature, which was, if someone were to:
* turn off notifications for PMs and mentions (`enable_offline_push_notifications`)
* turn on stream push notifications (`enable_stream_push_notifications`)
* turn on "online push" (`enable_online_push_notifications`)
then, they would still receive notifications for PMs when online.
This isn't how the "online push enabled" feature is supposed to work;
it should only act as a wrapper around the other notification settings.
The buggy code was this in `handle_push_notifications`:
```
if not (
receives_offline_push_notifications(user_profile)
or receives_online_push_notifications(user_profile)
):
return
// send notifications
```
This commit removes that code, and extends our `notification_data.py` logic
to cover this case, along with tests.
2. The name for these settings is slightly misleading. They essentially
talk about "what to send notifications for" (PMs and mentions), and not
"when to send notifications" (offline). This commit improves this condition
by restricting the use of this term only to the database field, and using
clearer names everywhere else. This distinction will be important to have
non-confusing code when we implement multiple options for notifications
in the future as dropdown (never/when offline/when offline or online, etc).
3. We should ideally re-check all notification settings just before the
notifications are sent. This is especially important for email notifications,
which may be sent after a long time after the message was sent. We will
in the future add code to thoroughly re-check settings before sending
notifications in a clean manner, but temporarily not re-checking isn't
a terrible scenario either.
2021-07-14 15:34:01 +02:00
|
|
|
# Cordelia being present and having `enable_online_push_notifications`
|
|
|
|
# does not mean we'll send her notifications for messages which she
|
|
|
|
# wouldn't otherwise have received notifications for.
|
2021-05-17 05:41:32 +02:00
|
|
|
self.assert_length(queue_messages, 0)
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2017-11-05 10:51:25 +01:00
|
|
|
def test_updates_with_stream_mention_of_sorta_present_user(self) -> None:
|
2021-02-12 08:20:45 +01:00
|
|
|
cordelia = self.example_user("cordelia")
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
|
|
|
# We will simulate that the user still has a an active client,
|
|
|
|
# but they don't have UserPresence rows, so we will still
|
|
|
|
# send offline notifications.
|
2021-02-12 08:20:45 +01:00
|
|
|
original_content = "no mention"
|
2021-04-11 16:26:54 +02:00
|
|
|
updated_content = "now we mention @**Cordelia, Lear's daughter**"
|
2020-04-26 04:17:48 +02:00
|
|
|
notification_message_data = self._send_and_update_message(
|
2021-02-12 08:19:30 +01:00
|
|
|
original_content,
|
|
|
|
updated_content,
|
python: Use trailing commas consistently.
Automatically generated by the following script, based on the output
of lint with flake8-comma:
import re
import sys
last_filename = None
last_row = None
lines = []
for msg in sys.stdin:
m = re.match(
r"\x1b\[35mflake8 \|\x1b\[0m \x1b\[1;31m(.+):(\d+):(\d+): (\w+)", msg
)
if m:
filename, row_str, col_str, err = m.groups()
row, col = int(row_str), int(col_str)
if filename == last_filename:
assert last_row != row
else:
if last_filename is not None:
with open(last_filename, "w") as f:
f.writelines(lines)
with open(filename) as f:
lines = f.readlines()
last_filename = filename
last_row = row
line = lines[row - 1]
if err in ["C812", "C815"]:
lines[row - 1] = line[: col - 1] + "," + line[col - 1 :]
elif err in ["C819"]:
assert line[col - 2] == ","
lines[row - 1] = line[: col - 2] + line[col - 1 :].lstrip(" ")
if last_filename is not None:
with open(last_filename, "w") as f:
f.writelines(lines)
Signed-off-by: Anders Kaseorg <anders@zulipchat.com>
2020-04-10 05:23:40 +02:00
|
|
|
connected_to_zulip=True,
|
2020-04-26 04:17:48 +02:00
|
|
|
)
|
|
|
|
|
2021-02-12 08:20:45 +01:00
|
|
|
message_id = notification_message_data["message_id"]
|
|
|
|
info = notification_message_data["info"]
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2021-06-08 18:05:37 +02:00
|
|
|
expected_enqueue_kwargs = self.get_maybe_enqueue_notifications_parameters(
|
maybe_enqueue_notifications: Take in notification_data dataclass.
* Modify `maybe_enqueue_notifications` to take in an instance of the
dataclass introduced in 951b49c048ba3464e74ad7965da3453fe36d0a96.
* The `check_notify` tests tested the "when to notify" logic in a way
which involved `maybe_enqueue_notifications`. To simplify things, we've
earlier extracted this logic in 8182632d7e9f8490b9b9295e01b5912dcf173fd5.
So, we just kill off the `check_notify` test, and keep only those parts
which verify the queueing and return value behavior of that funtion.
* We retain the the missedmessage_hook and message
message_edit_notifications since they are more integration-style.
* There's a slightly subtle change with the missedmessage_hook tests.
Before this commit, we short-circuited the hook if the sender was muted
(5a642cea115be159175d1189f83ba25d2c5c7632).
With this commit, we delegate the check to our dataclass methods.
So, `maybe_enqueue_notifications` will be called even if the sender was
muted, and the test needs to be updated.
* In our test helper `get_maybe_enqueue_notifications_parameters` which
generates default values for testing `maybe_enqueue_notifications` calls,
we keep `message_id`, `sender_id`, and `user_id` as required arguments,
so that the tests are super-clear and avoid accidental false positives.
* Because `do_update_embedded_data` also sends `update_message` events,
we deal with that case with some hacky code for now. See the comment
there.
This mostly completes the extraction of the "when to notify" logic into
our new `notification_data` module.
2021-06-23 14:12:32 +02:00
|
|
|
user_id=cordelia.id,
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
message_id=message_id,
|
2021-06-25 13:58:53 +02:00
|
|
|
acting_user_id=self.example_user("hamlet").id,
|
notifications: Calculate PMs/mentions settings like other settings.
Previously, we checked for the `enable_offline_email_notifications` and
`enable_offline_push_notifications` settings (which determine whether the
user will receive notifications for PMs and mentions) just before sending
notifications. This has a few problem:
1. We do not have access to all the user settings in the notification
handlers (`handle_missedmessage_emails` and `handle_push_notifications`),
and therefore, we cannot correctly determine whether the notification should
be sent. Checks like the following which existed previously, will, for
example, incorrectly not send notifications even when stream email
notifications are enabled-
```
if not receives_offline_email_notifications(user_profile):
return
```
With this commit, we simply do not enqueue notifications if the "offline"
settings are disabled, which fixes that bug.
Additionally, this also fixes a bug with the "online push notifications"
feature, which was, if someone were to:
* turn off notifications for PMs and mentions (`enable_offline_push_notifications`)
* turn on stream push notifications (`enable_stream_push_notifications`)
* turn on "online push" (`enable_online_push_notifications`)
then, they would still receive notifications for PMs when online.
This isn't how the "online push enabled" feature is supposed to work;
it should only act as a wrapper around the other notification settings.
The buggy code was this in `handle_push_notifications`:
```
if not (
receives_offline_push_notifications(user_profile)
or receives_online_push_notifications(user_profile)
):
return
// send notifications
```
This commit removes that code, and extends our `notification_data.py` logic
to cover this case, along with tests.
2. The name for these settings is slightly misleading. They essentially
talk about "what to send notifications for" (PMs and mentions), and not
"when to send notifications" (offline). This commit improves this condition
by restricting the use of this term only to the database field, and using
clearer names everywhere else. This distinction will be important to have
non-confusing code when we implement multiple options for notifications
in the future as dropdown (never/when offline/when offline or online, etc).
3. We should ideally re-check all notification settings just before the
notifications are sent. This is especially important for email notifications,
which may be sent after a long time after the message was sent. We will
in the future add code to thoroughly re-check settings before sending
notifications in a clean manner, but temporarily not re-checking isn't
a terrible scenario either.
2021-07-14 15:34:01 +02:00
|
|
|
mention_email_notify=True,
|
|
|
|
mention_push_notify=True,
|
2017-10-18 07:12:32 +02:00
|
|
|
already_notified={},
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
)
|
2021-02-12 08:20:45 +01:00
|
|
|
self.assertEqual(info["enqueue_kwargs"], expected_enqueue_kwargs)
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
|
|
|
# She will get messages enqueued. (Other tests drill down on the
|
|
|
|
# actual content of these messages.)
|
2021-05-17 05:41:32 +02:00
|
|
|
self.assert_length(info["queue_messages"], 2)
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2019-09-03 23:27:45 +02:00
|
|
|
def test_updates_with_wildcard_mention(self) -> None:
|
2021-02-12 08:20:45 +01:00
|
|
|
cordelia = self.example_user("cordelia")
|
maybe_enqueue_notifications: Take in notification_data dataclass.
* Modify `maybe_enqueue_notifications` to take in an instance of the
dataclass introduced in 951b49c048ba3464e74ad7965da3453fe36d0a96.
* The `check_notify` tests tested the "when to notify" logic in a way
which involved `maybe_enqueue_notifications`. To simplify things, we've
earlier extracted this logic in 8182632d7e9f8490b9b9295e01b5912dcf173fd5.
So, we just kill off the `check_notify` test, and keep only those parts
which verify the queueing and return value behavior of that funtion.
* We retain the the missedmessage_hook and message
message_edit_notifications since they are more integration-style.
* There's a slightly subtle change with the missedmessage_hook tests.
Before this commit, we short-circuited the hook if the sender was muted
(5a642cea115be159175d1189f83ba25d2c5c7632).
With this commit, we delegate the check to our dataclass methods.
So, `maybe_enqueue_notifications` will be called even if the sender was
muted, and the test needs to be updated.
* In our test helper `get_maybe_enqueue_notifications_parameters` which
generates default values for testing `maybe_enqueue_notifications` calls,
we keep `message_id`, `sender_id`, and `user_id` as required arguments,
so that the tests are super-clear and avoid accidental false positives.
* Because `do_update_embedded_data` also sends `update_message` events,
we deal with that case with some hacky code for now. See the comment
there.
This mostly completes the extraction of the "when to notify" logic into
our new `notification_data` module.
2021-06-23 14:12:32 +02:00
|
|
|
hamlet = self.example_user("hamlet")
|
2019-09-03 23:27:45 +02:00
|
|
|
|
|
|
|
# We will simulate that the user still has a an active client,
|
|
|
|
# but they don't have UserPresence rows, so we will still
|
|
|
|
# send offline notifications.
|
2021-02-12 08:20:45 +01:00
|
|
|
original_content = "no mention"
|
|
|
|
updated_content = "now we mention @**all**"
|
2020-04-26 04:17:48 +02:00
|
|
|
notification_message_data = self._send_and_update_message(
|
2021-02-12 08:19:30 +01:00
|
|
|
original_content,
|
|
|
|
updated_content,
|
python: Use trailing commas consistently.
Automatically generated by the following script, based on the output
of lint with flake8-comma:
import re
import sys
last_filename = None
last_row = None
lines = []
for msg in sys.stdin:
m = re.match(
r"\x1b\[35mflake8 \|\x1b\[0m \x1b\[1;31m(.+):(\d+):(\d+): (\w+)", msg
)
if m:
filename, row_str, col_str, err = m.groups()
row, col = int(row_str), int(col_str)
if filename == last_filename:
assert last_row != row
else:
if last_filename is not None:
with open(last_filename, "w") as f:
f.writelines(lines)
with open(filename) as f:
lines = f.readlines()
last_filename = filename
last_row = row
line = lines[row - 1]
if err in ["C812", "C815"]:
lines[row - 1] = line[: col - 1] + "," + line[col - 1 :]
elif err in ["C819"]:
assert line[col - 2] == ","
lines[row - 1] = line[: col - 2] + line[col - 1 :].lstrip(" ")
if last_filename is not None:
with open(last_filename, "w") as f:
f.writelines(lines)
Signed-off-by: Anders Kaseorg <anders@zulipchat.com>
2020-04-10 05:23:40 +02:00
|
|
|
connected_to_zulip=True,
|
2020-04-26 04:17:48 +02:00
|
|
|
)
|
|
|
|
|
2021-02-12 08:20:45 +01:00
|
|
|
message_id = notification_message_data["message_id"]
|
|
|
|
info = notification_message_data["info"]
|
2019-09-03 23:27:45 +02:00
|
|
|
|
2021-06-08 18:05:37 +02:00
|
|
|
expected_enqueue_kwargs = self.get_maybe_enqueue_notifications_parameters(
|
maybe_enqueue_notifications: Take in notification_data dataclass.
* Modify `maybe_enqueue_notifications` to take in an instance of the
dataclass introduced in 951b49c048ba3464e74ad7965da3453fe36d0a96.
* The `check_notify` tests tested the "when to notify" logic in a way
which involved `maybe_enqueue_notifications`. To simplify things, we've
earlier extracted this logic in 8182632d7e9f8490b9b9295e01b5912dcf173fd5.
So, we just kill off the `check_notify` test, and keep only those parts
which verify the queueing and return value behavior of that funtion.
* We retain the the missedmessage_hook and message
message_edit_notifications since they are more integration-style.
* There's a slightly subtle change with the missedmessage_hook tests.
Before this commit, we short-circuited the hook if the sender was muted
(5a642cea115be159175d1189f83ba25d2c5c7632).
With this commit, we delegate the check to our dataclass methods.
So, `maybe_enqueue_notifications` will be called even if the sender was
muted, and the test needs to be updated.
* In our test helper `get_maybe_enqueue_notifications_parameters` which
generates default values for testing `maybe_enqueue_notifications` calls,
we keep `message_id`, `sender_id`, and `user_id` as required arguments,
so that the tests are super-clear and avoid accidental false positives.
* Because `do_update_embedded_data` also sends `update_message` events,
we deal with that case with some hacky code for now. See the comment
there.
This mostly completes the extraction of the "when to notify" logic into
our new `notification_data` module.
2021-06-23 14:12:32 +02:00
|
|
|
user_id=cordelia.id,
|
2021-06-25 13:58:53 +02:00
|
|
|
acting_user_id=hamlet.id,
|
2019-09-03 23:27:45 +02:00
|
|
|
message_id=message_id,
|
2021-08-10 15:41:41 +02:00
|
|
|
wildcard_mention_email_notify=True,
|
|
|
|
wildcard_mention_push_notify=True,
|
2019-09-03 23:27:45 +02:00
|
|
|
already_notified={},
|
|
|
|
)
|
2021-02-12 08:20:45 +01:00
|
|
|
self.assertEqual(info["enqueue_kwargs"], expected_enqueue_kwargs)
|
2019-09-03 23:27:45 +02:00
|
|
|
|
|
|
|
# She will get messages enqueued.
|
2021-05-17 05:41:32 +02:00
|
|
|
self.assert_length(info["queue_messages"], 2)
|
2019-09-03 23:27:45 +02:00
|
|
|
|
|
|
|
def test_updates_with_upgrade_wildcard_mention(self) -> None:
|
|
|
|
# If there was a previous wildcard mention delivered to the
|
|
|
|
# user (because wildcard_mention_notify=True), we don't notify
|
2021-02-12 08:20:45 +01:00
|
|
|
original_content = "Mention @**all**"
|
2021-04-11 16:26:54 +02:00
|
|
|
updated_content = "now we mention @**Cordelia, Lear's daughter**"
|
2021-02-12 08:19:30 +01:00
|
|
|
self._send_and_update_message(
|
|
|
|
original_content, updated_content, expect_short_circuit=True, connected_to_zulip=True
|
|
|
|
)
|
2019-09-03 23:27:45 +02:00
|
|
|
|
|
|
|
def test_updates_with_upgrade_wildcard_mention_disabled(self) -> None:
|
|
|
|
# If the user has disabled notifications for wildcard
|
|
|
|
# mentions, they won't have been notified at first, which
|
|
|
|
# means they should be notified when the message is edited to
|
|
|
|
# contain a wildcard mention.
|
|
|
|
#
|
|
|
|
# This is a bug that we're not equipped to fix right now.
|
2021-02-12 08:20:45 +01:00
|
|
|
cordelia = self.example_user("cordelia")
|
2019-09-03 23:27:45 +02:00
|
|
|
cordelia.wildcard_mentions_notify = False
|
|
|
|
cordelia.save()
|
|
|
|
|
2021-02-12 08:20:45 +01:00
|
|
|
original_content = "Mention @**all**"
|
2021-04-11 16:26:54 +02:00
|
|
|
updated_content = "now we mention @**Cordelia, Lear's daughter**"
|
2021-02-12 08:19:30 +01:00
|
|
|
self._send_and_update_message(
|
|
|
|
original_content, updated_content, expect_short_circuit=True, connected_to_zulip=True
|
|
|
|
)
|
2019-09-03 23:27:45 +02:00
|
|
|
|
2017-11-05 10:51:25 +01:00
|
|
|
def test_updates_with_stream_mention_of_fully_present_user(self) -> None:
|
2021-02-12 08:20:45 +01:00
|
|
|
cordelia = self.example_user("cordelia")
|
maybe_enqueue_notifications: Take in notification_data dataclass.
* Modify `maybe_enqueue_notifications` to take in an instance of the
dataclass introduced in 951b49c048ba3464e74ad7965da3453fe36d0a96.
* The `check_notify` tests tested the "when to notify" logic in a way
which involved `maybe_enqueue_notifications`. To simplify things, we've
earlier extracted this logic in 8182632d7e9f8490b9b9295e01b5912dcf173fd5.
So, we just kill off the `check_notify` test, and keep only those parts
which verify the queueing and return value behavior of that funtion.
* We retain the the missedmessage_hook and message
message_edit_notifications since they are more integration-style.
* There's a slightly subtle change with the missedmessage_hook tests.
Before this commit, we short-circuited the hook if the sender was muted
(5a642cea115be159175d1189f83ba25d2c5c7632).
With this commit, we delegate the check to our dataclass methods.
So, `maybe_enqueue_notifications` will be called even if the sender was
muted, and the test needs to be updated.
* In our test helper `get_maybe_enqueue_notifications_parameters` which
generates default values for testing `maybe_enqueue_notifications` calls,
we keep `message_id`, `sender_id`, and `user_id` as required arguments,
so that the tests are super-clear and avoid accidental false positives.
* Because `do_update_embedded_data` also sends `update_message` events,
we deal with that case with some hacky code for now. See the comment
there.
This mostly completes the extraction of the "when to notify" logic into
our new `notification_data` module.
2021-06-23 14:12:32 +02:00
|
|
|
hamlet = self.example_user("hamlet")
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
|
|
|
# Simulate Cordelia is FULLY present, not just in term of
|
|
|
|
# browser activity, but also in terms of her client descriptors.
|
2021-02-12 08:20:45 +01:00
|
|
|
original_content = "no mention"
|
2021-04-11 16:26:54 +02:00
|
|
|
updated_content = "now we mention @**Cordelia, Lear's daughter**"
|
2020-04-26 04:17:48 +02:00
|
|
|
notification_message_data = self._send_and_update_message(
|
2021-02-12 08:19:30 +01:00
|
|
|
original_content,
|
|
|
|
updated_content,
|
2020-04-26 04:17:48 +02:00
|
|
|
connected_to_zulip=True,
|
python: Use trailing commas consistently.
Automatically generated by the following script, based on the output
of lint with flake8-comma:
import re
import sys
last_filename = None
last_row = None
lines = []
for msg in sys.stdin:
m = re.match(
r"\x1b\[35mflake8 \|\x1b\[0m \x1b\[1;31m(.+):(\d+):(\d+): (\w+)", msg
)
if m:
filename, row_str, col_str, err = m.groups()
row, col = int(row_str), int(col_str)
if filename == last_filename:
assert last_row != row
else:
if last_filename is not None:
with open(last_filename, "w") as f:
f.writelines(lines)
with open(filename) as f:
lines = f.readlines()
last_filename = filename
last_row = row
line = lines[row - 1]
if err in ["C812", "C815"]:
lines[row - 1] = line[: col - 1] + "," + line[col - 1 :]
elif err in ["C819"]:
assert line[col - 2] == ","
lines[row - 1] = line[: col - 2] + line[col - 1 :].lstrip(" ")
if last_filename is not None:
with open(last_filename, "w") as f:
f.writelines(lines)
Signed-off-by: Anders Kaseorg <anders@zulipchat.com>
2020-04-10 05:23:40 +02:00
|
|
|
present_on_web=True,
|
2020-04-26 04:17:48 +02:00
|
|
|
)
|
|
|
|
|
2021-02-12 08:20:45 +01:00
|
|
|
message_id = notification_message_data["message_id"]
|
|
|
|
info = notification_message_data["info"]
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
|
2021-06-08 18:05:37 +02:00
|
|
|
expected_enqueue_kwargs = self.get_maybe_enqueue_notifications_parameters(
|
maybe_enqueue_notifications: Take in notification_data dataclass.
* Modify `maybe_enqueue_notifications` to take in an instance of the
dataclass introduced in 951b49c048ba3464e74ad7965da3453fe36d0a96.
* The `check_notify` tests tested the "when to notify" logic in a way
which involved `maybe_enqueue_notifications`. To simplify things, we've
earlier extracted this logic in 8182632d7e9f8490b9b9295e01b5912dcf173fd5.
So, we just kill off the `check_notify` test, and keep only those parts
which verify the queueing and return value behavior of that funtion.
* We retain the the missedmessage_hook and message
message_edit_notifications since they are more integration-style.
* There's a slightly subtle change with the missedmessage_hook tests.
Before this commit, we short-circuited the hook if the sender was muted
(5a642cea115be159175d1189f83ba25d2c5c7632).
With this commit, we delegate the check to our dataclass methods.
So, `maybe_enqueue_notifications` will be called even if the sender was
muted, and the test needs to be updated.
* In our test helper `get_maybe_enqueue_notifications_parameters` which
generates default values for testing `maybe_enqueue_notifications` calls,
we keep `message_id`, `sender_id`, and `user_id` as required arguments,
so that the tests are super-clear and avoid accidental false positives.
* Because `do_update_embedded_data` also sends `update_message` events,
we deal with that case with some hacky code for now. See the comment
there.
This mostly completes the extraction of the "when to notify" logic into
our new `notification_data` module.
2021-06-23 14:12:32 +02:00
|
|
|
user_id=cordelia.id,
|
2021-06-25 13:58:53 +02:00
|
|
|
acting_user_id=hamlet.id,
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
message_id=message_id,
|
notifications: Calculate PMs/mentions settings like other settings.
Previously, we checked for the `enable_offline_email_notifications` and
`enable_offline_push_notifications` settings (which determine whether the
user will receive notifications for PMs and mentions) just before sending
notifications. This has a few problem:
1. We do not have access to all the user settings in the notification
handlers (`handle_missedmessage_emails` and `handle_push_notifications`),
and therefore, we cannot correctly determine whether the notification should
be sent. Checks like the following which existed previously, will, for
example, incorrectly not send notifications even when stream email
notifications are enabled-
```
if not receives_offline_email_notifications(user_profile):
return
```
With this commit, we simply do not enqueue notifications if the "offline"
settings are disabled, which fixes that bug.
Additionally, this also fixes a bug with the "online push notifications"
feature, which was, if someone were to:
* turn off notifications for PMs and mentions (`enable_offline_push_notifications`)
* turn on stream push notifications (`enable_stream_push_notifications`)
* turn on "online push" (`enable_online_push_notifications`)
then, they would still receive notifications for PMs when online.
This isn't how the "online push enabled" feature is supposed to work;
it should only act as a wrapper around the other notification settings.
The buggy code was this in `handle_push_notifications`:
```
if not (
receives_offline_push_notifications(user_profile)
or receives_online_push_notifications(user_profile)
):
return
// send notifications
```
This commit removes that code, and extends our `notification_data.py` logic
to cover this case, along with tests.
2. The name for these settings is slightly misleading. They essentially
talk about "what to send notifications for" (PMs and mentions), and not
"when to send notifications" (offline). This commit improves this condition
by restricting the use of this term only to the database field, and using
clearer names everywhere else. This distinction will be important to have
non-confusing code when we implement multiple options for notifications
in the future as dropdown (never/when offline/when offline or online, etc).
3. We should ideally re-check all notification settings just before the
notifications are sent. This is especially important for email notifications,
which may be sent after a long time after the message was sent. We will
in the future add code to thoroughly re-check settings before sending
notifications in a clean manner, but temporarily not re-checking isn't
a terrible scenario either.
2021-07-14 15:34:01 +02:00
|
|
|
mention_email_notify=True,
|
|
|
|
mention_push_notify=True,
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
idle=False,
|
2017-10-18 07:12:32 +02:00
|
|
|
already_notified={},
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
|
|
|
)
|
2021-02-12 08:20:45 +01:00
|
|
|
self.assertEqual(info["enqueue_kwargs"], expected_enqueue_kwargs)
|
Notify offline users about edited stream messages.
We now do push notifications and missed message emails
for offline users who are subscribed to the stream for
a message that has been edited, but we short circuit
the offline-notification logic for any user who presumably
would have already received a notification on the original
message.
This effectively boils down to sending notifications to newly
mentioned users. The motivating use case here is that you
forget to mention somebody in a message, and then you edit
the message to mention the person. If they are offline, they
will now get pushed notifications and missed message emails,
with some minor caveats.
We try to mostly use the same techniques here as the
send-message code path, and we share common code with the
send-message path once we get to the Tornado layer and call
maybe_enqueue_notifications.
The major places where we differ are in a function called
maybe_enqueue_notifications_for_message_update, and the top
of that function short circuits a bunch of cases where we
can mostly assume that the original message had an offline
notification.
We can expect a couple changes in the future:
* Requirements may change here, and it might make sense
to send offline notifications on the update side even
in circumstances where the original message had a
notification.
* We may track more notifications in a DB model, which
may simplify our short-circuit logic.
In the view/action layer, we already had two separate codepaths
for send-message and update-message, but this mostly echoes
what the send-message path does in terms of collecting data
about recipients.
2017-10-03 16:25:12 +02:00
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# Because Cordelia is FULLY present, we don't need to send any offline
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2021-04-20 23:27:25 +02:00
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# push notifications or message notification emails.
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2021-05-17 05:41:32 +02:00
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self.assert_length(info["queue_messages"], 0)
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2020-06-26 10:06:23 +02:00
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def test_clear_notification_when_mention_removed(self) -> None:
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2021-02-12 08:20:45 +01:00
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mentioned_user = self.example_user("iago")
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2020-06-26 10:06:23 +02:00
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self.assertEqual(get_apns_badge_count(mentioned_user), 0)
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2020-07-16 07:05:02 +02:00
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self.assertEqual(get_apns_badge_count_future(mentioned_user), 0)
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2020-06-26 10:06:23 +02:00
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2021-02-12 08:19:30 +01:00
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with mock.patch(
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2021-02-12 08:20:45 +01:00
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"zerver.lib.push_notifications.push_notifications_enabled", return_value=True
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2021-02-12 08:19:30 +01:00
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):
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2020-06-26 10:06:23 +02:00
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message_id = self._login_and_send_original_stream_message(
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content="@**Iago**",
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)
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2020-07-16 07:05:02 +02:00
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self.assertEqual(get_apns_badge_count(mentioned_user), 0)
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self.assertEqual(get_apns_badge_count_future(mentioned_user), 1)
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2020-06-26 10:06:23 +02:00
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2021-02-12 08:19:30 +01:00
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self._get_queued_data_for_message_update(message_id=message_id, content="Removed mention")
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2020-06-26 10:06:23 +02:00
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self.assertEqual(get_apns_badge_count(mentioned_user), 0)
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2020-07-16 07:05:02 +02:00
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self.assertEqual(get_apns_badge_count_future(mentioned_user), 0)
|
2020-06-26 10:06:23 +02:00
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def test_clear_notification_when_group_mention_removed(self) -> None:
|
2021-02-12 08:20:45 +01:00
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group_mentioned_user = self.example_user("cordelia")
|
2020-06-26 10:06:23 +02:00
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self.assertEqual(get_apns_badge_count(group_mentioned_user), 0)
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2020-07-16 07:05:02 +02:00
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self.assertEqual(get_apns_badge_count_future(group_mentioned_user), 0)
|
2020-06-26 10:06:23 +02:00
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|
2021-02-12 08:19:30 +01:00
|
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|
with mock.patch(
|
2021-02-12 08:20:45 +01:00
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"zerver.lib.push_notifications.push_notifications_enabled", return_value=True
|
2021-02-12 08:19:30 +01:00
|
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|
):
|
2020-06-26 10:06:23 +02:00
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message_id = self._login_and_send_original_stream_message(
|
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|
content="Hello @*hamletcharacters*",
|
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)
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|
2020-07-16 07:05:02 +02:00
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|
self.assertEqual(get_apns_badge_count(group_mentioned_user), 0)
|
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self.assertEqual(get_apns_badge_count_future(group_mentioned_user), 1)
|
2020-06-26 10:06:23 +02:00
|
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|
|
self._get_queued_data_for_message_update(
|
|
|
|
message_id=message_id,
|
|
|
|
content="Removed group mention",
|
|
|
|
expect_short_circuit=True,
|
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|
)
|
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|
|
|
|
self.assertEqual(get_apns_badge_count(group_mentioned_user), 0)
|
2020-07-16 07:05:02 +02:00
|
|
|
self.assertEqual(get_apns_badge_count_future(group_mentioned_user), 0)
|
2020-06-27 12:11:12 +02:00
|
|
|
|
|
|
|
def test_not_clear_notification_when_mention_removed_but_stream_notified(self) -> None:
|
2021-02-12 08:20:45 +01:00
|
|
|
mentioned_user = self.example_user("iago")
|
2020-06-27 12:11:12 +02:00
|
|
|
mentioned_user.enable_stream_push_notifications = True
|
|
|
|
mentioned_user.save()
|
|
|
|
|
|
|
|
self.assertEqual(get_apns_badge_count(mentioned_user), 0)
|
2020-07-16 07:05:02 +02:00
|
|
|
self.assertEqual(get_apns_badge_count_future(mentioned_user), 0)
|
2020-06-27 12:11:12 +02:00
|
|
|
|
2021-02-12 08:19:30 +01:00
|
|
|
with mock.patch(
|
2021-02-12 08:20:45 +01:00
|
|
|
"zerver.lib.push_notifications.push_notifications_enabled", return_value=True
|
2021-02-12 08:19:30 +01:00
|
|
|
):
|
2020-06-27 12:11:12 +02:00
|
|
|
message_id = self._login_and_send_original_stream_message(
|
|
|
|
content="@**Iago**",
|
|
|
|
)
|
|
|
|
|
2020-07-16 07:05:02 +02:00
|
|
|
self.assertEqual(get_apns_badge_count(mentioned_user), 0)
|
|
|
|
self.assertEqual(get_apns_badge_count_future(mentioned_user), 1)
|
2020-06-27 12:11:12 +02:00
|
|
|
|
2021-02-12 08:19:30 +01:00
|
|
|
self._get_queued_data_for_message_update(message_id=message_id, content="Removed mention")
|
2020-06-27 12:11:12 +02:00
|
|
|
|
2020-07-16 07:05:02 +02:00
|
|
|
self.assertEqual(get_apns_badge_count(mentioned_user), 0)
|
|
|
|
self.assertEqual(get_apns_badge_count_future(mentioned_user), 1)
|