- New API to control whether coap itself sends a next GET(block2) request or not
- Fixes error IOTCLT-2203 mbed-coap does not handle PUT or POST if they indicate a smaller block size preference
This PR implement https://tools.ietf.org/html/rfc7959#section-2.5
"The error code 4.13 (Request Entity Too Large) can be returned at any
time by a server that does not currently have the resources to store
blocks for a block-wise request payload transfer that it would intend
to implement in an atomic fashion. (Note that a 4.13 response to a
request that does not employ Block1 is a hint for the client to try
sending Block1, and a 4.13 response with a smaller SZX in its Block1
Option than requested is a hint to try a smaller SZX.)
Only clear the USB read buffer when endpointRead is called. This
allows data to be read with endpointReadResult without also allowing
USB to transfer more data. Instead additional data is transferred explicitly
with a call to endpointRead.
If a SETUP packet arrives shortly after an IN then the packets will be
processed in the wrong order - SETUP first then IN. This causes
the subsequent control transfer to fail. Fix this problem by processing
IN packets before processing SETUP packets.
Make the following improvements and fixes:
1.
Update the Kinetis USB driver so that endpointReadResult only reads the
result of the last read and does not trigger a new read. Instead
move the code to trigger new reads into endpointRead.
2.
Fix the race condition in controlIn caused by a call to
EP0read() followed immediately by EP0readStage(). This is done by
setting up to read the next setup packet (ignoring the status stage)
in endpointReadResult rather than in EP0readStage. This makes the
function EP0readStage unnecissary.
3.
Remove the Kinetis workaround in controlOut in USBDevice.cpp since
point 2 fixes this bug. For more info on this see the PR which
added this workaround - https://github.com/ARMmbed/mbed-os/pull/414
A COMMON folder allows code reuse across different test cases. This
avoids code duplication or code enterying the application space.
The COMMON folder is uppercase to match naming conventions in Mbed OS.
This was a small hole in the logic that handles initializing the
lookahead buffer. To imitate exhaustion (so the block allocator
will trigger a scan), the lookahead buffer is rewound a full
lookahead and set up to look like it is exhausted. However,
unlike normal allocation, this rewind was not kept aligned to
a multiple of the scan size, which is limited by both the
lookahead buffer and the total storage size.
This bug went unnoticed for so long because it only causes
problems when the block device is both:
1. Not aligned to the lookahead buffer (not a power of 2)
2. Smaller than the lookahead buffer
While this seems like a strange corner case for a block device,
this turned out to be very common for internal flash, especially
when a handleful of blocks are reserved for code.
Add support for recently introduced NSAPI generic socket options to
control group membership. Previously applications using Nanostack would
have had to use Nanostack's native socket options.
This commit fixes#5840. Fix verified by running mbed_hal-lp_ticker test suite with preloaded RTC counter such that it wrapped in the middle of the suite.
Also removes explicit sleep blocking from the us_ticker implementation, since sleep blocking for us tickers is done at mbed HAL level now. This was causing one of the lp_ticker tests to fail.
deepikabhavnani did the hard work in tracking this issue down. Block
addresses are not cast to the correct type until after multiplying to
convert to byte addresses. This results in an overflow when the storage
is larger than 4 GB.
Fix the caller address logging on the GCC compilation too.
Previously the code logged the caller address as C++ wrapper,
not the actual caller of the C++ operator new or delete.