As part of installation of linux, I would like to set the "console device properties"(example, console=ttyS0,115200n1) via the kernel cmdline for Intel based platform.
There is No VGA console, only serial consoles via COM interface.
On these systems BIOS already has the required settings to interact using the appropriate serial port.
I see that EFI has variables ConIn, ConOut, ConErr which I am able to see from /sys/firmware/efi but unable to decode the contents of it.
Is it possible to identify which COM port is being used by the BIOS by examining the efi variables.
Example, of the EFI var on my box.
root#linux:~# efivar -p -n 8be4df61-93ca-11d2-aa0d-00e098032b8c-ConOut
GUID: 8be4df61-93ca-11d2-aa0d-00e098032b8c
Name: "ConOut"
Attributes:
Non-Volatile
Boot Service Access
Runtime Service Access
Value:
00000000 02 01 0c 00 d0 41 03 0a 00 00 00 00 01 01 06 00 |.....A..........|
00000010 00 1a 03 0e 13 00 00 00 00 00 00 c2 01 00 00 00 |................|
00000020 00 00 08 01 01 03 0a 18 00 9d 9a 49 37 2f 54 89 |...........I7/T.|
00000030 4c a0 26 35 da 14 20 94 e4 01 00 00 00 03 0a 14 |L.&5.. .........|
00000040 00 53 47 c1 e0 be f9 d2 11 9a 0c 00 90 27 3f c1 |.SG..........'?.|
00000050 4d 7f 01 04 00 02 01 0c 00 d0 41 03 0a 00 00 00 |M.........A.....|
00000060 00 01 01 06 00 00 1f 02 01 0c 00 d0 41 01 05 00 |............A...|
00000070 00 00 00 03 0e 13 00 00 00 00 00 00 c2 01 00 00 |................|
00000080 00 00 00 08 01 01 03 0a 18 00 9d 9a 49 37 2f 54 |............I7/T|
00000090 89 4c a0 26 35 da 14 20 94 e4 01 00 00 00 03 0a |.L.&5.. ........|
000000a0 14 00 53 47 c1 e0 be f9 d2 11 9a 0c 00 90 27 3f |..SG..........'?|
000000b0 c1 4d 7f ff 04 00 |.M.... |
root#linux:~#
The contents of the ConOut variable are described in the UEFI specification - current version (2.8B):
3.3 - globally defined variables:
| Name | Attribute | Description |
|---------|------------|------------------------------------------------|
| ConOut | NV, BS, RT | The device path of the default output console. |
For information about device paths, we have:
10 - Protocols — Device Path Protocol:
Apart from the initial description of device paths, table 44 shows you the Generic Device Path Node structure, from which we can start decoding the contents of the variable.
The type of the first node is 0x02, telling us this node describes an ACPI device path, of 0x000c bytes length. Now jump down to 10.3.3 - ACPI Device Path and table 52, which tells us 1) that this is the right table (subtype 0x01) and 2) that the default ConOut has a _HID of 0x0a03410d and a _UID of 0.
The next node has a type of 0x01 - a Hardware Device Path, described further in 10.3.2, in this case table 46 (SubType is 0x01) for a PCI device path.
The next node describes a Messaging Device Path of type UART and so on...
Still, this only tells you what UEFI considers to be its default console, SPCR is what an operating system is supposed to be looking at for serial consoles. Unfortunately, on X86 the linux kernel handily ignores SPCR apart from for earlycon. I guess this is what you're trying to work around. It might be good to start some discussion on kernel development lists about whether to fix that and have X86 work like ARM64.
In my case since I know that console port is a "Serial IOPORT",
I could get the details now as follows.
a. Get hold of the /sys/firmware/acpi/tables/SPC table.
b. Read the Address offset 44-52. Actually one the last two bytes suffice.
Reference:
a. https://learn.microsoft.com/en-us/windows-hardware/drivers/serports/serial-port-console-redirection-table states that
Base Address 12 40
The base address of the Serial Port register set described using the ACPI Generic Address Structure.
0 = console redirection disabled
Note:
COM1 (0x3F8) would be:
Integer Form: 0x 01 08 00 00 00000000000003F8
Viewed in Memory: 0x01080000F803000000000000
COM2 (Ox2F8) would be:
Integer Form: 0x 01 08 00 00 00000000000002F8
Viewed in Memory: 0x01080000F802000000000000
Related
My managed process is suspected to have caused a BSOD at a client site. I received a full memory dump (i.e.: including kernel, physical pages only) - but still am not able to inspect my process' stacks.
After switching to my process context -
.process /p /r <MyProcAddress>
I see only -
1: kd> k
# ChildEBP RetAddr
00 b56e3b70 81f2aa5d nt!KeBugCheckEx+0x1e
01 b56e3b94 81e7b68d nt!PspCatchCriticalBreak+0x71
02 b56e3bc4 81e6dfd1 nt!PspTerminateAllThreads+0x2d
03 b56e3bf8 8d48159a nt!NtTerminateProcess+0xcd
WARNING: Stack unwind information not available. Following frames may be wrong.
04 b56e3c24 81c845e4 klif+0x7559a
05 b56e3c24 77da6bb4 nt!KiSystemServicePostCall
06 0262f34c 00220065 ntdll!KiFastSystemCallRet
07 0262f390 003e0022 0x220065
08 0262f394 0073003c 0x3e0022
09 0262f398 00730079 0x73003c
0a 0262f39c 006e003a 0x730079
0b 0262f3a0 006d0061 0x6e003a
0c 0262f3a4 00200065 0x6d0061
0d 0262f3a8 00610076 0x200065
0e 0262f3ac 0075006c 0x610076
0f 0262f3b0 003d0065 0x75006c
10 0262f3b4 00770022 0x3d0065
11 0262f3b8 006e0069 0x770022
12 0262f3bc 006f0077 0x6e0069
13 0262f3c0 00640072 0x6f0077
14 0262f3c4 00200022 0x640072
...
Which is natural for managed process. SOS extension does not work for kernel dumps.
Is there anything I can do to view the throwing managed stack? It was previously said to be 'much more difficult', but hopefully not impossible.
PS.
I'm aware of the presence of Kaspersky driver kilf.sys in the stack, and this is my personal suspect. But the question is more general - hopefully there's a way to understand what my process was doing at the time.
the stack as you posted is not correct
it appears to be overwritten or is a result of some other artefact
with such a stack details you will have a hard time deciphering
anything useful at all
the contents of stack converted to a printable range in english looks like this
Offset(h) 00 01 02 03 04 05 06 07 08 09 0A 0B 0C 0D 0E 0F
00000000 00 3E 00 22 00 22 00 65 00 73 00 3C 00 3E 00 22 .>.".".e.s.<.>."
00000010 00 73 00 79 00 73 00 3C 00 6E 00 3A 00 73 00 79 .s.y.s.<.n.:.s.y
00000020 00 6D 00 61 00 6E 00 3A 00 20 00 65 00 6D 00 61 .m.a.n.:. .e.m.a
00000030 00 61 00 76 00 20 00 65 00 75 00 6C 00 61 00 76 .a.v. .e.u.l.a.v
00000040 00 3D 00 65 00 75 00 6C 00 77 00 22 00 3D 00 65 .=.e.u.l.w.".=.e
00000050 00 6E 00 69 00 77 00 22 00 6F 00 77 00 6E 00 69 .n.i.w.".o.w.n.i
00000060 00 64 00 72 00 6F 00 77 00 20 00 22 00 64 00 72 .d.r.o.w. .".d.r
try !analyze -v and see what is the bsod analysis results
I'm using Akka Streams to create a TCP server using akka.stream.scaladsl.TLS with client certificate authentication. I'm working on creating an echo server as a first proof of concept.
In the meantime, I'm new to Scala/Akka/Akka Streams and so I created a similar server and TCP client in Python to provide tooling in testing my work in Scala. The Python server/client are functional using client cert authentication. When connecting to the server, the client takes the following steps:
Creates and configures an SSLContext
Creates a socket using socket.create_connection()
Wraps the socket with the SSLContext using SSLContext.wrap_socket(). This creates the peer connection
Once connected, prints the server certificate
Infinite loop asking for input and sending each input to the server
I believe I have the server completed using Akka Streams and akka.stream.scaladsl.TLS, but when I attempt to connect using my Python client the client never gets past connecting to the peer using context.wrap_socket(sock, server_hostname=host). The server successfully binds the TCP connection and creates the corresponding IncomingConnection object. The client/server also never timeout (the client just sits awaiting the handshake?).
My biggest problem is that I see no information from my TLS BidiFlow, akka.stream.scaladsl.TLS. I have no idea what step in the handshake I'm stuck at, which makes troubleshooting very difficult.
Is there any way to output some information throughout the TLS handshake process? It seems as though all of the functionality is encapsulated and I don't know if there's any way to troubleshoot.
Otherwise, I'm attempting to troubleshoot with openssl and get the following:
bash$ openssl s_client -connect myserver.com:443 -state -debug
CONNECTED(00000003)
SSL_connect:before/connect initialization
write to 0x7fd914100080 [0x7fd915001000] (318 bytes => 318 (0x13E))
0000 - 16 03 01 01 39 01 00 01-35 03 03 e3 ff 5d fb 26 ....9...5....].&
0010 - 15 e3 32 89 37 e2 cb 95-f5 00 bd df 13 3d ae a6 ..2.7........=..
0020 - d7 37 db 4e 80 19 63 ad-d6 6c f1 00 00 98 cc 14 .7.N..c..l......
0030 - cc 13 cc 15 c0 30 c0 2c-c0 28 c0 24 c0 14 c0 0a .....0.,.(.$....
0040 - 00 a3 00 9f 00 6b 00 6a-00 39 00 38 ff 85 00 c4 .....k.j.9.8....
0050 - 00 c3 00 88 00 87 00 81-c0 32 c0 2e c0 2a c0 26 .........2...*.&
0060 - c0 0f c0 05 00 9d 00 3d-00 35 00 c0 00 84 c0 2f .......=.5...../
0070 - c0 2b c0 27 c0 23 c0 13-c0 09 00 a2 00 9e 00 67 .+.'.#.........g
0080 - 00 40 00 33 00 32 00 be-00 bd 00 45 00 44 c0 31 .#.3.2.....E.D.1
0090 - c0 2d c0 29 c0 25 c0 0e-c0 04 00 9c 00 3c 00 2f .-.).%.......<./
00a0 - 00 ba 00 41 c0 11 c0 07-c0 0c c0 02 00 05 00 04 ...A............
00b0 - c0 12 c0 08 00 16 00 13-c0 0d c0 03 00 0a 00 15 ................
00c0 - 00 12 00 09 00 ff 01 00-00 74 00 0b 00 04 03 00 .........t......
00d0 - 01 02 00 0a 00 3a 00 38-00 0e 00 0d 00 19 00 1c .....:.8........
00e0 - 00 0b 00 0c 00 1b 00 18-00 09 00 0a 00 1a 00 16 ................
00f0 - 00 17 00 08 00 06 00 07-00 14 00 15 00 04 00 05 ................
0100 - 00 12 00 13 00 01 00 02-00 03 00 0f 00 10 00 11 ................
0110 - 00 23 00 00 00 0d 00 26-00 24 06 01 06 02 06 03 .#.....&.$......
0120 - ef ef 05 01 05 02 05 03-04 01 04 02 04 03 ee ee ................
0130 - ed ed 03 01 03 02 03 03-02 01 02 02 02 03 ..............
SSL_connect:unknown state
At which point openssl just hangs.
The Akka TLS support uses the built in Java TLS support behind the scenes, so to get debug output for TLS you'll have to enable debugging for that. It can be done through passing a system property to the JVM when starting it like so -Djavax.net.debug=all
Ultimately I found that the ssl-config logging is very sparse and wasn't helpful to resolving my issue. It does provide some debugging information but not much. Much better for debugging the TLS handshake is to use the -Djavax.net.debug=all flag when running the JVM. However, even this provides mixed results. For example, the resulting error I received is that the server couldn't find a matching cipher suite. Eventually I resolved my issue by realizing that when creating the input streams for my keystore/truststore I was specifying my path incorrectly.
Note for anyone coming across this: if you specify your keystore and truststore incorrectly the resulting input streams will be null and SSLContext.init will happily use these and provide an error that is unrelated to the keystore/truststore! This was very difficult to troubleshoot due to the incorrect error handling in SSLContext.
Hi I have scraped a large number of midi files off the internet.
I am using them for training material to train a generative adversarial network. I find that many midi files conform to the midi standard but then I run into issues with midi meta events with values of FF11 and FF10 . I have looked up the midi specification from several sources and have never found midi meta events defined in this way. Here is the hex of a midi track event with some of the offending values:
4D 54 72 6B 00 00 1A 8D 00 FF 03 0D 47 75 69 74
61 72 20 44 41 44 47 41 44 00 FF 10 08 00 00 3E
39 37 32 2D 26 00 C0 19 00 C1 19 00 B0 65 00 00
B0 64 00 00 B0 06 02 00 B0 65 7F 00 B0 64 7F 00
E0 00 40 00 B1 65 00 00 B1 64 00 00 B1 06 02 00
B1 65 7F 00 B1 64 7F 00 E1 00 40 00 B0 0A 3F 00
B1 0A 3F 00 B0 5D 10 00 B0 5B 1E 00 B1 5D 10 00
B1 5B 1E 81 69 FF 11 01 00 00 90 3E 51 08 FF 11
I cant seem to find any information whatsoever on these values even though these midi files play over timidity and other midi player software perfectly. Can anyone point me to some information about them and what they mean? any help would be greatly , greatly appreciated. :-) resolving this issue would be a service to the miriad of people who are trying to use the python-midi library to train tensorflow models and this I am sure is only a fraction of the people who would be effected.
The SMF specification says:
As with chunks, future meta-events may be designed which may not be known to existing programs, so programs must properly ignore meta-events which they do not recognize, and indeed, should expect to see them.
I am not aware of any published extension that defines values 10h or 11h; it's likely that some sequencer uses these for its own purposes, and violated the specification by not using type 7F for that.
In my attempt to get "Steam for Linux" working on Debian, I've run into an issue. libcef (Chromium Embedded Framework) works fine with GLIBC_2.13 (which eglibc on Debian testing can provide), but requires one pesky little extra function from GLIBC_2.15 (which eglibc can't provide):
$ readelf -s libcef.so | grep -E "#GLIBC_2\.1[4567]"
1037: 00000000 0 FUNC GLOBAL DEFAULT UND __fdelt_chk#GLIBC_2.15 (49)
2733: 00000000 0 FUNC GLOBAL DEFAULT UND __fdelt_chk##GLIBC_2.15
My plan of attack here was to LD_PRELOAD a shim library that provides just these functions. This doesn't seem to work. I really want to avoid installing GLIBC_2.17 (since it is in Debian experimental; even Debian sid still has GLIBC_2.13).
This is what I've tried.
fdelt_chk.c is basically stolen from the GNU C library:
#include <sys/select.h>
# define strong_alias(name, aliasname) _strong_alias(name, aliasname)
# define _strong_alias(name, aliasname) \
extern __typeof (name) aliasname __attribute__ ((alias (#name)));
unsigned long int
__fdelt_chk (unsigned long int d)
{
if (d >= FD_SETSIZE)
__chk_fail ();
return d / __NFDBITS;
}
strong_alias (__fdelt_chk, __fdelt_warn)
My Versions script looks as follows:
GLIBC_2.15 {
__fdelt_chk; __fdelt_warn;
};
I then build the library as follows:
$ gcc -m32 -c -fPIC fdelt_chk.c -o fdelt_chk.o
$ gcc -m32 -shared -nostartfiles -Wl,-s -Wl,--version-script Versions -o fdelt_chk.so fdelt_chk.o
However, if I then run Steam (with a bunch of extra stuff to get it working in the first place), the loader still refuses to find the symbol:
% LD_LIBRARY_PATH="/home/tinctorius/.local/share/Steam/ubuntu12_32" LD_PRELOAD=./fdelt_chk.so:./steamui.so ./steam
./steam: /lib/i386-linux-gnu/i686/cmov/libc.so.6: version `GLIBC_2.15' not found (required by /home/tinctorius/.local/share/Steam/ubuntu12_32/libcef.so)
However, the version symbol is also provided by the .so I just built:
% readelf -s fdelt_chk.so
Symbol table '.dynsym' contains 8 entries:
Num: Value Size Type Bind Vis Ndx Name
0: 00000000 0 NOTYPE LOCAL DEFAULT UND
1: 00000000 0 FUNC GLOBAL DEFAULT UND __chk_fail#GLIBC_2.3.4 (3)
2: 0000146c 0 NOTYPE GLOBAL DEFAULT ABS _edata
3: 0000146c 0 NOTYPE GLOBAL DEFAULT ABS _end
4: 00000310 44 FUNC GLOBAL DEFAULT 11 __fdelt_warn##GLIBC_2.15
5: 00000310 44 FUNC GLOBAL DEFAULT 11 __fdelt_chk##GLIBC_2.15
6: 00000000 0 OBJECT GLOBAL DEFAULT ABS GLIBC_2.15
7: 0000146c 0 NOTYPE GLOBAL DEFAULT ABS __bss_start
At this point, I don't know what I can do to trick the loader (who?) into choosing my symbols. Am I going in the right direction at all?
I ran into this same problem, though not with Steam. What I was trying to run wanted 2.15 for fdelt_chk while my system had 2.14. I found a solution for simple cases like ours where we can easily provide our own implementation for the missing functionality.
I started out from your attempted solution of implementing the functionality and LD_PRELOADing it. Using LD_DEBUG=all (as suggested by osgx) showed that the linker was still looking for 2.15, so just having the right symbol wasn't enough and there was some other versioning mechanism somewhere. I noticed that objdump -p and readelf -V both showed references to 2.15, so I looked up documentation on ELF and found information on version requirements.
So my new goal was to transform references to 2.15 into references to something else. It seemed reasonable that I could just overwrite structures that referred to 2.15 with the structures that referred to some lower version, like 2.1. In the end, after some trial and error, I found just editing the right Elfxx_Vernaux(es?) in .gnu.version_r was sufficient, but caveat hacker, I guess.
The .gnu.version_r section is a list of 16-byte Elfxx_Verneeds and 16-byte Elfxx_Vernauxes. Each Elfxx_Verneed entry is followed by the associated Elfxx_Vernauxes. As far as I could tell, vn_file is actually how many associated Elfxx_Vernauxes there are, even though the docs say number of associated verneed array entries. It might just be a misunderstanding on my part, though.
So, to start off making the edits, let's look at some of the info from readelf -V. I snipped out parts we don't care about.
$ readelf -V mybinary
<snip stuff before .gnu.version_r>
Version needs section '.gnu.version_r' contains 5 entries:
Addr: 0x00000000000021ac Offset: 0x0021ac Link: 4 (.dynstr)
<snip libraries that don't refer to GLIBC_2.15>
0x00c0: Version: 1 File: libc.so.6 Cnt: 10
0x00d0: Name: GLIBC_2.3 Flags: none Version: 19
0x00e0: Name: GLIBC_2.7 Flags: none Version: 16
0x00f0: Name: GLIBC_2.2 Flags: none Version: 15
0x0100: Name: GLIBC_2.2.4 Flags: none Version: 14
0x0110: Name: GLIBC_2.1.3 Flags: none Version: 13
0x0120: Name: GLIBC_2.15 Flags: none Version: 12
0x0130: Name: GLIBC_2.4 Flags: none Version: 10
0x0140: Name: GLIBC_2.1 Flags: none Version: 9
0x0150: Name: GLIBC_2.3.4 Flags: none Version: 4
0x0160: Name: GLIBC_2.0 Flags: none Version: 2
From this we see that the section starts at 0x21ac. Each file listed will have a Elfxx_Verneed followed by an Elfxx_Vernaux for each of the subentries (like GLIBC_2.3). I assume the order of the info in the output will always match the order in the file since readelf is just dumping the structures. Here's my entire .gnu.version_r section.
000021A0 01 00 02 00
000021B0 A3 0C 00 00 10 00 00 00 30 00 00 00 11 69 69 0D
000021C0 00 00 11 00 32 0D 00 00 10 00 00 00 10 69 69 0D
000021D0 00 00 0B 00 3C 0D 00 00 00 00 00 00 01 00 02 00
000021E0 BE 0C 00 00 10 00 00 00 30 00 00 00 13 69 69 0D
000021F0 00 00 08 00 46 0D 00 00 10 00 00 00 10 69 69 0D
00002200 00 00 07 00 3C 0D 00 00 00 00 00 00 01 00 02 00
00002210 99 0C 00 00 10 00 00 00 30 00 00 00 11 69 69 0D
00002220 00 00 06 00 32 0D 00 00 10 00 00 00 10 69 69 0D
00002230 00 00 05 00 3C 0D 00 00 00 00 00 00 01 00 02 00
00002240 AE 0C 00 00 10 00 00 00 30 00 00 00 11 69 69 0D
00002250 00 00 12 00 32 0D 00 00 10 00 00 00 10 69 69 0D
00002260 00 00 03 00 3C 0D 00 00 00 00 00 00 01 00 0A 00
00002270 FF 0C 00 00 10 00 00 00 00 00 00 00 13 69 69 0D
00002280 00 00 13 00 46 0D 00 00 10 00 00 00 17 69 69 0D
00002290 00 00 10 00 50 0D 00 00 10 00 00 00 12 69 69 0D
000022A0 00 00 0F 00 5A 0D 00 00 10 00 00 00 74 1A 69 09
000022B0 00 00 0E 00 64 0D 00 00 10 00 00 00 73 1F 69 09
000022C0 00 00 0D 00 70 0D 00 00 10 00 00 00 95 91 96 06
000022D0 00 00 0C 00 7C 0D 00 00 10 00 00 00 14 69 69 0D
000022E0 00 00 0A 00 87 0D 00 00 10 00 00 00 11 69 69 0D
000022F0 00 00 09 00 32 0D 00 00 10 00 00 00 74 19 69 09
00002300 00 00 04 00 91 0D 00 00 10 00 00 00 10 69 69 0D
00002310 00 00 02 00 3C 0D 00 00 00 00 00 00
To briefly talk about the structure here, it starts out with an Elfxx_Verneed. As per the docs, we can see there will be 2 Elfxx_Vernauxes, one offset 16 bytes, and the next Elfxx_Verneed is offset 48 bytes. These offsets are from the start of the current structure. It looks like technically the associated Elfxx_Vernauxes might not be adjacent after the current Elfxx_Verneed but it was actually so in all the files I poked around in.
From this we can find the file we want (libc.so.6) in a few different ways. Cross reference the string (which I won't get into), find the Elfxx_Verneed with a count of 0A 00 (10, matching our readelf output above), or find the last Elfxx_Verneed since it's the last one readelf output. In any case, the right one for my file is at 0x226C. Its first Elfxx_Vernaux starts at 0x227C.
We want to find the Elfxx_Vernaux with a version of 0C 00 (12, again matching our readelf output above). We see the Elfxx_Vernaux that matches is at 0x22CC and the entire structure is 95 91 96 06 00 00 0C 00 7C 0D 00 00 10 00 00 00. We'll be overwriting the first 12 bytes so as to leave the offset alone. We're only modifying the data, not moving around the structures, after all.
To pick the data to overwrite with, we just copy it from a different Elfxx_Vernaux for a version of glibc we can satisfy. I picked one for 2.1, which is at 0x22EC in my file, with the data 11 69 69 0D 00 00 09 00 32 0D 00 00 10 00 00 00. So take the first 12 bytes from this and overwrite the first 12 bytes above, and that's it for the hex editing.
Of course, you might have multiple references to deal with. Your program might have multiple binaries to edit.
At this point, our program still won't run. But instead of being told something like GLIBC_2.15 not found it should complain about missing __fdelt_chk. Now we do the shim and LD_PRELOADing described in the question, except instead of versioning our implementation as 2.15, we use the version we picked while hex editing. At this point the program should run.
This method depends on being able to provide an implementation for whatever's missing. Our __fdelt_chk is extremely simple but I don't doubt that in some cases providing an implementation could be more difficult than just upgrading the system's libc instead.
For what it's worth, the __fdelt_chk function is related to the FORTIFY_SOURCE feature which was added in glibc 2.15. It enables compile-time and run-time checking for buffer overflows.
If you were able to recompile with the following CFLAGS added, it would build a backwards compatible binary without the extra checking:
-U_FORTIFY_SOURCE -D_FORTIFY_SOURCE=0
Upgraded Webbit to 0.4.6 to use the new SSL support but immediately realized that all wss:// handshakes are failing silently and I don't have any errors to show for it. Chrome only reports a "success" for a response without a HTTP code or any other headers. I check server logs and it doesn't even register an "open" event.
The catch here is that any ws:// connection works great. So what could be possible problems and how can I get an error out of it? Could it be something wrong with the java keystore and SSL handshake?
Edit
I was able to find an openSSL command for a test handshake. Here's the output:
SSL_connect:before/connect initialization
SSL_connect:SSLv2/v3 write client hello A
SSL_connect:error in SSLv2/v3 read server hello A
Edit 2
I realized I could debug this further
CONNECTED(0000016C)
SSL_connect:before/connect initialization
write to 0x1f57750 [0x1f6a730] (210 bytes => 210 (0xD2))
0000 - 16 03 01 00 cd 01 00 00-c9 03 01 4f 6b 8d 68 63 ...........Ok.hc
0010 - 99 06 08 30 93 2a 42 88-f8 f1 c4 c5 dc 89 71 0b ...0.*B.......q.
0020 - b6 04 42 4e 11 79 b4 76-6c f7 66 00 00 5c c0 14 ..BN.y.vl.f..\..
0030 - c0 0a 00 39 00 38 00 88-00 87 c0 0f c0 05 00 35 ...9.8.........5
0040 - 00 84 c0 12 c0 08 00 16-00 13 c0 0d c0 03 00 0a ................
0050 - c0 13 c0 09 00 33 00 32-00 9a 00 99 00 45 00 44 .....3.2.....E.D
0060 - c0 0e c0 04 00 2f 00 96-00 41 00 07 c0 11 c0 07 ...../...A......
0070 - c0 0c c0 02 00 05 00 04-00 15 00 12 00 09 00 14 ................
0080 - 00 11 00 08 00 06 00 03-00 ff 01 00 00 44 00 0b .............D..
0090 - 00 04 03 00 01 02 00 0a-00 34 00 32 00 01 00 02 .........4.2....
00a0 - 00 03 00 04 00 05 00 06-00 07 00 08 00 09 00 0a ................
00b0 - 00 0b 00 0c 00 0d 00 0e-00 0f 00 10 00 11 00 12 ................
00c0 - 00 13 00 14 00 15 00 16-00 17 00 18 00 19 00 23 ...............#
00d2 - <SPACES/NULS>
SSL_connect:SSLv2/v3 write client hello A
read from 0x1f57750 [0x1f6fc90] (7 bytes => 0 (0x0))
12488:error:140790E5:SSL routines:SSL23_WRITE:ssl handshake failure:.\ssl\s23_lib.c:177:
---
no peer certificate available
---
No client certificate CA names sent
---
SSL handshake has read 0 bytes and written 210 bytes
---
New, (NONE), Cipher is (NONE)
Secure Renegotiation IS NOT supported
Compression: NONE
Expansion: NONE
---
Edit 3
Ok I've nailed the problem to Webbit initialization, but it doesn't throw any errors so I could use some input to getting getResourceAsStream functioning properly. Here's how the server is initialized:
def startWebSocketServer(webSocketHandler:PartialFunction[WebSocketEvent, Unit]) {
val webServer = WebServers.createWebServer(port)
try {
webServer.setupSsl(getClass.getResourceAsStream("/keystore"), "webbit")
webServer.add("/", new WebSocketEventAdapter(webSocketHandler))
webServer.start
} catch {
case e => e.printStackTrace()
}
}
Unfortunately setupSsl won't output any information, and I've tried both what I thought would be the path and inserting a fake path. In either case, I can't get an error. How on earth would I properly locate the path? Thanks!
The OMFG Answer
In a hysterical twist of fate, I found the problem. This particular issue took up 48 hours of my time, but the cause was not even code related and a funny miscommunication.
So as it turns out, another developer had copied our websocket code into a new file he was working on for development. All this time we were trying to debug code in a file that wasn't even executing at run-time. So upon further investigation we scrolled to the bottom of a very long and different file, and found the webbit init code and excuted it perfectly.
Moral of the story: don't commit an incomplete file to the master branch and point everyone there for debugging ;)