Getting ANRs because (I think) the main thread's waiting for the write
thread to die and now the write thread's doing a ton of work
sometimes. So move the threads into a standalone object that can be
allowed to die on its own time without anybody waiting.
I *think* the reason I'm occasionally seeing toasts about not finding a
move is that when the engine's interrupted by there being a UI event in
the queue that error is posted. Instead try posting only when at the end
of the search nothing's been found.
Having reconfigured to use non-existent relay port as a test of falling
back to the web apis, tweak stuff: send the packets that have been
accumulated when an EOQ is found (rather than dropping all of them
immediately) before exiting the write thread; and start the threads up
when posting a packet in case they aren't (they may not be when the post
happens via timer firing.)
Seemed to be causing ANRs. Integrate instead into outgoing message queue
by using poll(timeout) then checking for unack'd packets every time
through the loop (but not more than once/3 seconds or so.)
Presence of timestamp instead of a boolean determines whether packet
should next via Web. Timestamps might also allow to process a larger
number of unacked packets in a single timer fire....
Track ack'd and unack'd packets. When there are ten more of the latter,
skip the UDP-send step. This is probably not the algorithm I'll settle
on (an explicit PING to the relay over UDP might be simpler), but it's
simple and easy.
Send each packet via UDP if that's thought to be working (always is,
now) and start a 10-second timer. If it hasn't been ack'd by then,
resend via Web API. Tested by configuring to use a UDP socket that the
relay isn't listening on. Only problem is that the backoff timers are
broken: never stops sending every few seconds.
The plan's to use the native relay protocol first, then to fall back to
the slower but more reliable (esp. on paranoid/block-everything wifi
networks) webAPI. This is the name change without behavior
change (except that the native kill() to report deleted games is gone.)
When grouping to allow multiple packets per outbound API call I forgot
that some are there to mark the end-of-queue: can't be sent! Trying
caused a NPE. Now if any EOQ is found in the queue that batch is dropped
and the thread's exited.
Making the right_side elem match its parent height prevents the
lower-right region of game list items from falling through and
triggering a toggle-selection event.
Making the right_side elem match its parent height prevents the
lower-right region of game list items from falling through and
triggering a toggle-selection event.
As expected, moves are no longer received instantly because the UDP
socket isn't available for the relay to write too once the URL
handler (relay.py) finishes.
Ideally the comms module wouldn't go through its connecting routine in
order to join a game. To that end I added a join() method to relay.py
and code to call it. Joins happen (pairing games, starting new ones,
etc.), but after that communication doesn't. First part of fixing that
would be to make cookieID persistent and transmit it back with the rest
of what join sends (since it's used by all the messages currently sent
in a connected state), but I suspect there's more to be done, and even
that requires a fair number of changes on the relay side. So all that's
wrapped in #ifdef RELAY_VIA_HTTP (and turned off.)
Was coming in as a string when called via curl. This may be a problem
for other ints if I go with lots of params instead of a json, which is
looking less likely.
join's how devices will create or join existing games. It more
compilicated than I'd like but seems to work except that once a slot's
assigned it's unavailable to anybody else even if the other fails ever
to respond (i.e. needs the ACK function of the c++ relay.)
ACK doesn't need to wait 2 seconds for a reply, and when it does so the
next send waits too. Eventually we'll want to combine messages already
in the queue into a single send. For now, this makes things better.
So far uses curl and json-c to send b64-encoded data to new script
which is able to echo the data. Next that script will need to open a
UDP socket to the relay and return results that appear before timeout.
Working around there being a border around the game-type image area.
With this change long-tapping works only on the right 2/3 of the
region. There might be a fix, but it's still better than there being
a hole (the border) in the thing where behavior's different.