[imported from Google+ post]
So osvr_server uses a bundled hidapi library to do enumeration, and that library was skipping the device 0x1532:0x0b00 (the OSVR). A bit of debugging found it was because the HID wasn't being defined at the interface level, and there's this bit of code in hid-libusb.c:
Removing the lines and recompiling let osvr_server find the device. Wohoo. Looking at a newer upstream version of hidapi shows these lines are no longer there too. I'll look into later what's the right fix they need!if (desc.bDeviceClass != LIBUSB_CLASS_PER_INTERFACE) continue;
Post copied from my original source on Google+ https://plus.google.com/u/0/113970656101565234043/posts/L8i6PSsKJKs
(Due to my unfortunate-timed holiday this week I used my Security Response Team members at Red Hat to help co-ordinate this issue on behalf of OpenSSL, but see below for when Red Hat Engineering were formally notified and started working on the issue for Red Hat)
(Originally posted in Google+ at https://plus.google.com/u/0/113970656101565234043/posts/TmCbp3BhJma )
Note: Akamai note on their blog that they were given advance notice of this issue by the OpenSSL team. This is incorrect. They were probably notified directly by one of the vulnerability finders.
Note: To see how this fits into the overall timeline of this issue see this article
Here is a quick writeup of the protocol for the iKettle taken from my Google+ post earlier this month. This protocol allows you to write your own software to control your iKettle or get notifications from it, so you can integrate it into your desktop or existing home automation system.
The iKettle is advertised as the first wifi kettle, available in UK since February 2014. I bought mine on pre-order back in October 2013. When you first turn on the kettle it acts as a wifi hotspot and they supply an app for Android and iPhone that reconfigures the kettle to then connect to your local wifi hotspot instead. The app then communicates with the kettle on your local network enabling you to turn it on, set some temperature options, and get notification when it has boiled.
Once connected to your local network the device responds to ping requests and listens on two tcp ports, 23 and 2000. The wifi connectivity is enabled by a third party serial to wifi interface board and it responds similar to a HLK-WIFI-M03. Port 23 is used to configure the wifi board itself (to tell it what network to connect to and so on). Port 2000 is passed through to the processor in the iKettle to handle the main interface to the kettle.
|Bit 6||Bit 5||Bit 4||Bit 3||Bit 2||Bit 1|
So, for example if you receive "sys status key=!" then buttons "100C" and "On" are currently active (and the kettle is therefore turned on and heating up to 100C).
|sys status 0x100||100C selected|
|sys status 0x95||95C selected|
|sys status 0x80||80C selected|
|sys status 0x100||65C selected|
|sys status 0x11||Warm selected|
|sys status 0x10||Warm has ended|
|sys status 0x5||Turned on|
|sys status 0x0||Turned off|
|sys status 0x8005||Warm length is 5 minutes|
|sys status 0x8010||Warm length is 10 minutes|
|sys status 0x8020||Warm length is 20 minutes|
|sys status 0x3||Reached temperature|
|sys status 0x2||Problem (boiled dry?)|
|sys status 0x1||Kettle was removed (whilst on)|
You can receive multiple status messages given one action, for example if you turn the kettle on you should get a "sys status 0x5" and a "sys status 0x100" showing the "on" and "100C" buttons are selected. When the kettle boils and turns off you'd get a "sys status 0x3" to notify you it boiled, followed by a "sys status 0x0" to indicate all the buttons are now off.
|set sys output 0x80||Select 100C button|
|set sys output 0x2||Select 95C button|
|set sys output 0x4000||Select 80C button|
|set sys output 0x200||Select 65C button|
|set sys output 0x8||Select Warm button|
|set sys output 0x8005||Warm option is 5 mins|
|set sys output 0x8010||Warm option is 10 mins|
|set sys output 0x8020||Warm option is 20 mins|
|set sys output 0x4||Select On button|
|set sys output 0x0||Turn off|
If you're interested in looking at the web interface you can enable it by connecting to port 23 using telnet or nc, entering the password, then issuing the commands "AT+WEBS=1\n" then "AT+PMTF\n" then "AT+Z\n" and then you can open up a webserver on port 80 of the kettle and change or review the settings. I would not recommend you mess around with this interface, you could easily break the iKettle in a way that you can't easily fix. The interface gives you the option of uploading new firmware, but if you do this you could get into a state where the kettle processor can't correctly configure the interface and you're left with a broken kettle. Also the firmware is just for the wifi serial interface, not for the kettle control (the port 2000 stuff above), so there probably isn't much point.
We were looking for a cheap laser lighting effect for our weekend parties and saw one that looked impressive, the Lanta Quasar Buster 2, and for only £30 new. The unit has both a red and green laser and and a nice moving effect that looks like the beams splits up and recombine again. It promised "sound activation" and we thought that meant it would do some clever sound to light effect, but it really does mean sound activation and just turns itself on when it hears a sound, then off again when it's silent. So out of the box the laser has three modes; the first lets you just set the speed of the effect with the lasers constantly on, the second strobes the lasers on and off to a speed you can set, and the third is the usless sound activation mode.
Warrany void if removed. I didn't technically "remove" the sticker though.
Opening the unit showed that it was easily hackable; all the connections to the control panel were via connectors. One connector provides +5v to the cooling fan, another +5v to a separate board that handles powering the two lasers, another connects to the motor the turns the optics to produce the burst effect, and the final one has a logic level signal to tell the laser power board if the lasers should be on or off.
Since the laser power board is completely separate we can just replace this control panel with one of our own and then we can control the laser on/off and the speed of the motor (actually we could control the direction too but it doesn't really make the effect look any better so I leave it as one direction). And we can always swap the original board back in the future.
My new control board comprises of an Arduino pro mini compatible board, a rotary encoder for setting the mode and levels, a mic with simple opamp preamp, and a MSGEQ7 chip to do all the hard work of analysing the levels of various frequencies. The optics motor is now simply driven using a PWM output via a MOSFET I had spare.
Rough source and circuit diagram are available from github; some components don't have values if it doesn't really matter and others (like the MOSFET) can be changed as I just used things I happened to have in my component boxes. I'm still playing with different effects in software to see what works best.
"for all packages, from release of 6.3 up to and including 6.4, we shipped 108 advisories to address 311 vulnerabilities. 18 advisories were rated critical, 28 were important, and the remaining 62 were moderate and low."
"Updates to correct 77 of the 78 critical vulnerabilities were available via Red Hat Network either the same day or the next calendar day after the issues were public. The other one was in OpenJDK 1.60 where the update took 4 calendar days (over a weekend)."
And if you are interested in how the figures were calculated, here is the working out:
Note that we can't just use a date range because we've pushed some RHSA the weeks before 6.4 that were not included in the 6.4 spin. These issues will get included when we do the 6.4 to 6.5 report (as anyone installing 6.4 will have got them when they first updated).
So just after 6.4 before anything else was pushed that day:** Product: Red Hat Enterprise Linux 6 server (all packages) ** Dates: 20101110 - 20130221 (835 days) ** 397 advisories (C=55 I=109 L=47 M=186 ) ** 1151 vulnerabilities (C=198 I=185 L=279 M=489 ) ** Product: Red Hat Enterprise Linux 6 Server (default installation packages) ** Dates: 20101110 - 20130221 (835 days) ** 177 advisories (C=11 I=71 L=19 M=76 ) ** 579 vulnerabilities (C=35 I=133 L=159 M=252 )
And we need to exclude errata released before 2013-02-21 but not in 6.4:RHSA-2013:0273 [critical, default] RHSA-2013:0275 [important, not default] RHSA-2013:0272 [critical, not default] RHSA-2013:0271 [critical, not default] RHSA-2013:0270 [moderate, not default] RHSA-2013:0269 [moderate, not default] RHSA-2013:0250 [moderate, default] RHSA-2013:0247 [important, not default] RHSA-2013:0245 [critical, default] RHSA-2013:0219 [moderate, default] RHSA-2013:0216 [important, default] Default vulns from above: critical:12 important:2 moderate:16 low:3 Non-Default vulns from above: critical:4 important:2 moderate:5 low:0
This gives us "Fixed between GA and 6.4 iso":** Product: Red Hat Enterprise Linux 6 server (all packages) ** Dates: 20101110 - 20130221 (835 days) ** 386 advisories (C=51 I=106 L=47 M=182 ) ** 1107 vulnerabilities (C=182 I=181 L=276 M=468 ) ** Product: Red Hat Enterprise Linux 6 Server (default installation packages) ** Dates: 20101110 - 20130221 (835 days) ** 172 advisories (C=9 I=70 L=19 M=74 ) ** 546 vulnerabilities (C=23 I=131 L=156 M=236 )
And taken from the last report "Fixed between GA and 6.3 iso":** Product: Red Hat Enterprise Linux 6 server (all packages) ** Dates: 20101110 - 20120620 (589 days) ** 278 advisories (C=33 I=78 L=31 M=136 ) ** 796 vulnerabilities (C=104 I=140 L=196 M=356 ) ** Product: Red Hat Enterprise Linux 6 Server (default installation packages) ** Dates: 20101110 - 20120620 (589 days) ** 134 advisories (C=6 I=56 L=15 M=57 ) ** 438 vulnerabilities (C=16 I=110 L=126 M=186 )
Therefore between 6.3 iso and 6.4 iso:** Product: Red Hat Enterprise Linux 6 server (all packages) ** Dates: 20120621 - 20130221 (246 days) ** 108 advisories (C=18 I=28 L=16 M=46 ) ** 311 vulnerabilities (C=78 I=41 L=80 M=112 ) ** Product: Red Hat Enterprise Linux 6 Server (default installation packages) ** Dates: 20120621 - 20130221 (246 days) ** 38 advisories (C=3 I=14 L=4 M=17 ) ** 108 vulnerabilities (C=7 I=21 L=30 M=50 )
Note: although we have 3 default criticals, they are in openjdk-1.6.0, but we only call Java issues critical if they can be exploited via a browser, and in RHEL6 the Java browser plugin is in the icedtea-web package, which isn't a default package. So that means on a default install you don't get Java plugins running in your browser, so really these are not default criticals in RHEL6 default at all.
"for all packages, from release of 6.2 up to and including 6.3, we shipped 88 advisories to address 233 vulnerabilities. 15 advisories were rated critical, 23 were important, and the remaining 50 were moderate and low."And if you are interested in how the figures were calculated, as always view the source of this blog entry.
"Updates to correct 34 of the 36 critical vulnerabilities were available via Red Hat Network either the same day or the next calendar day after the issues were public. The Kerberos telnet flaw was fixed in 2 calendar days as the issue was published on Christmas day. The second PHP flaw took 4 calendar days (over a weekend) as the initial fix released upstream was incomplete."