openjdk7: updated to 7u181_b01 using the icedtea-2.6.14 framework. These are security updates. Install either openjre/openjre7, or openjdk/openjdk7, but not both. This package depends on the rhino package.
calibre: rebuilt 3.23.0 for Slackware -current because of the new poppler. - on 14.2: needs libinput, libwacom, libxkbcommon, podofo, qt5, qt5-webkit and unrar. - on current: needs libxkbcommon, podofo, qt5, qt5-webkit and unrar. libreoffice: rebuilt 6.0.4 for Slackware -current because of the new poppler.
a/kernel-firmware-20180518_2a9b2cf-noarch-1.txz: Upgraded. a/kernel-generic-4.14.43-x86_64-1.txz: Upgraded. a/kernel-huge-4.14.43-x86_64-1.txz: Upgraded. a/kernel-modules-4.14.43-x86_64-1.txz: Upgraded. a/pkgtools-15.0-noarch-11.txz: Rebuilt. installpkg: Implement locking to prevent screen output or install script collisions if multiple copies of installpkg are running simultaneously. installpkg: Use $(mcookie) instead of $$. Fall back on $$ if mcookie is not available. makepkg: Add --compress option, usually used to change the preset compression […]
accessibility/xdotool: Update homepage. audio/flake: Updated for version 0.11.5. desktop/keynav: Update homepage. desktop/wmimagedock: Added (changes image inside of dockapp). desktop/xpenguins-xtrathemes: Added (Addon for xpenguins). desktop/xpenguins_themes: Removed (look for xpenguins-xtrathemes). development/apache-maven: Updated for version 3.5.3. development/libretro-samples: Updated for version 2018.04. development/pycharm: Updated for version 2018.1.3. development/sbcl: Updated for version 1.4.7. development/slibtool: Updated for version 0.5.19. games/conquest: Fixed […]
Because of recent updates in slackware-current (in this case, the boost package) the LibreOffice in my own repository stopped working. Library conflict. Don’t you love the life on the bleeding edge 😉
By coïncidence, the Document Foundation had just released a new version of their LibreOffice sources, so instead of recompiling the old 5.4.3 packages I could grab the new 5.4.4 release and turn those sources into Slackware packages (Slackware 14.2 and -current). The next major release 6.0 is just around the corner but I am not going to wait for that.
You can get the new packages from my repository – like https://slackware.nl/people/alien/slackbuilds/libreoffice/ .
Also, I updated the multilibrepository with the latest updates in slackware-current (the new l/Mako, a/lzlib and a/plzip are now also available in a “compat32” version).
Remember to also install the new packages, not just upgrade the existing ones! If you have a local mirror, that means using “upgradepkg –install-new” and if you use slackpkg with slackpkg+, you need to do “slackpkg update; slackpkg install multilib ; slackpkg upgrade-all”. That “slackpkg install multilib” takes care of installing any package you are still missing.
Work on a new Plasma5 package set is also well underway. The 64bit -current bit is done so I know I have my sources and scripts in order, and I am generating a new PLASMA5 Live ISO for testing. Stay tuned.
December usually is a busy month, with the focus at work to wrap up as much of the ongoing projects as possible and prepare for the christmas holidays. And when there’s a lot of (paid) work to do, the voluntary work gets second place. That’s why there was not really a lot of time to churn out a Chromium 63 SlackBuild script. Two weeks ago the first sources for release 63 appeared online and fixed a lot of (security) bugs. Last week saw an update and this is what I grabbed and packaged, because you can’t wait too long with addressing security issues.
Those of you who had examined my chromium-dev.SlackBuild a while ago will already know that the SlackBuild for versions beyond 63 needed a bit of re-work to cope with changes at the source level. I am glad I did that in November, as it made the transition for the stable browser much easier.
Starting with this package, I am no longer compiling (P)NaCL by default. NaCL, or the Native Client, is a way to run applications in a sandboxed browser process at near-native speed. The PNaCL binaries are platform-independent which means one executable (.pexe) can run in Chrome/Chromium browsers on all supported platforms/architectures. Google announced in May 2017 that it would stop supporting NaCL in the first quarter of 2018 in favor of WebAssembly which is a new cross-platform cross-browser solution to run high-performance applications. Both Mozilla’s and Google’s browsers already support WebAssembly, Microsoft and Apple are getting there too. You can experience an impressive WebAssembly demo here: The Zen Garden based on Epic’s Unreal Engine.
You can of course recompile the chromium package if you need NaCL. The chromium.SlackBuild script defines a variable “USE_NACL” which used to be set to “1” and now defaults to “0”. If you set it back to “1” and run the SlackBuild script, you will get your NaCL support back.
The reason that I stopped compiling NaCL support is pretty basic.
Last month it became clear to me that many Google developers are not caring about anything else than their own ecosystem. Call me naïve. The compilation issues I was experiencing with the GCC compiler were dissed with a remark that internally, Google uses a patched version of Clang which does what they need and standards-based code is not really at the top of their list. Any issues I had with gcc (along with packagers of other distros), they were not going to fix. The anticipated but unhelpful answer was to just download and use Google’s Clang binaries. But that goes completely against the idea behind my own chromium package… do not rely on the Google binaries (aka Chrome) and instead build natively on Slackware.
It forced me to find a way to compile the Chromium sources using their ‘Google hack’ of the Clang compiler.
So when helpful people at Google (they too exist of course… not all of them are so single-minded) showed me how to download the Google Clang sources, compile that first and then use those binaries to compile Chromium in turn, it dawned on me.
All this time I had been downloading and using Google binaries anyway: the (P)NaCl code is compiled using a pnacl binary toolchain which gets downloaded from Google during the compilation of the Chromium sources. That was the moment where I took the decision to stop with providing NaCL support in my package, and make sure that all the binaries I need for the chromium package are compiled natively on Slackware.
Get chromium 63 packages for Slackware 14.2 and -current:
No worries, even though this article is a side-step into the Android ecosystem, it is still on-topic for Slackware users.
I recently bought a Huawei Watch 2, when it was in a sale on Amazon. It’s the 4G version and long ago I had made a deal with myself that if a smartwatch with GPS and room for a SIM card would go below 300 euros, I was going to buy it. And so it happened, and the watch is a lot of fun. It’s incredibly light-weight and fits comfortably. Despite grumpy reviews it is a solid design and does not feel like cheap junk at all. I still need to find a provider who will allow me to use a second SIM card for my mobile subscription, so for the moment this watch is SIM-less. It talks to my phone over Wi-Fi and Bluetooth so nothing’s lost and I have full connectivity on the watch. The idea is to have a SIM in the watch so I can go outdoors for a long run without having to take my phone with me.
An Android Wear watch will pair with only one single phone. It’s quite picky about its friends. Therefore, if you switch phones and want to pair the watch to your new phone, it will wipe and reset itself to factory defaults. That was not what I wanted when I traded my four years old HTC One M8 for a HTC 10 phone. Yes, that too was a bargain sale – I got it for 272 euros which is roughly 65% of the regular price around here.
So I went searching for ways around my dilemma, and as it turns out: it is quite easy to de-couple an Android watch from its pal the phone, and let it pair with a new phone, while keeping its current settings and content. I am going to document that process here, because much of it is generic enough that you can use it to manage the internals of any Android device, like your phone.
The singularly important tool for interacting with Android devices is the Android Debug Bridge, or “adb” for short. It’s a program or rather a suite of tools that run on Linux, Windows and OS/X and allow you to execute commands remotely on the Android device. Commonly the bridge is used over a USB connection between Computer and Android device, but in this article I will show you that you can just as easily use a Wireless connection.
Installing Android Debug Bridge
First, let’s setup the Linux computer. In our case, that will of course be a Slackware computer, right? 🙂
ADB is a small part of the “Android SDK Platform-Tools” and in the past, this meant you had to install the complete SDK in order to gain access to adb and fastboot. Recently, Google has started making adb and friends available as a separate, much smaller (around 5 MB) ZIP download. The URL is static but the content will be refreshed from time to time.
Extract the ZIP file to /usr/local (you need to be root): unzip -d /usr/local platform-tools-latest-linux.zip
That leads to a directory /usr/local/platform-tools/ with a lot of stuff in it.
Create two wrapper scripts for the ‘adb’ and ‘fastboot’ binaries inside the extracted directory. This way, typing “adb” or “fastboot” will work in any directory: cat << EOT > /usr/local/bin/adb #!/bin/bash /usr/local/platform-tools/adb “$@” EOT chmod 755 /usr/local/bin/adbcat << EOT > /usr/local/bin/fastboot #!/bin/bash /usr/local/platform-tools/fastboot “$@” EOT chmod 755 /usr/local/bin/fastboot
Download and install a UDEV rules file which identifies most if not all known Android devices and makes udev create device-files for them when the Android connects (strictly speaking, his is only relevant for remote debugging over USB… if you connect over wireless then device-files are not used). The file is community-maintained and part of a git repository for Ubuntu. After installing the UDEV rules, you need to reload udevd’s cached rules: wget -O /etc/udev/rules.d/51-android.rules https://raw.githubusercontent.com/NicolasBernaerts/ubuntu-scripts/master/android/51-android.rules chmod 644 /etc/udev/rules.d/51-android.rules /etc/rc.d/rc.udev reload
You’re all set now to connect to your Android device and interact with it. Thanks to the UDEV rules you’ve installed, you won’t have to be root to use ‘adb‘ and ‘fastboot‘ as long as your user account is a member of the “plugdev” group.
Tip: if you have a USB stick with the Slackware Live Edition, you can repeat the above with one change: instead of installing the debugger tools to /usr/local , the wrapper scripts to /usr/local/bin and the UDEV rules to /etc/udev/rules.d/ you (i.e. with “/” as the root) you install the lot to the /rootcopy/ directory of the USB stick, keeping the same directory structure and thus ending with /rootcopy/usr/local/bin/ and /rootcopy/etc/udev/rules.d/ . That will make your Slackware Live a powerful tool to manage Android devices.
Enable remote adb debugging
Android devices do not allow remote debugging by default and it is not immediately visible how to enable this capability. You will have to enable developer options on your Android. This takes the form of a secret ritual… and enables several new menus and options in your Settings.
First, generic Android instructions:
Open the “Settings” on your Android.
Scroll down to “About phone” (or “About Tablet”)
Find the entry which shows the “Build number”.
Repeatedly, tap the “Build number” line. After a couple of taps, a popup message tells you that you are an “X amount” of clicks away from becoming a Developer. As you keep tapping the number “X” will decrease to zero which completes the process.
Android Wear instructions:
Swipe down from the top of the screen.
Tap the “Settings” icon (gear icon).
Scroll down and tap “System”.
Scroll down and tap “About”.
Then scroll down and tap “Build Number” repeatedly.
Keep tapping until you get the message “You’re now a developer”.
Swipe to the right twice.
Scroll down and you’ll see new “Developer Options”.
In the new Developer Options menu you will find “ADB debugging” which you have to enable. For the Android Wear device, it makes sense to also enable “Debug over Wi-Fi” since at least my watch does not have a micro-USB connector.
If you look at the screenshot you’ll notice that the watch’s IP address is shown in the “Debug over Wi-Fi” section. We will need that IP address soon.
Connect to Android using adb
Connecting to a device which is connected through USB is simple. You request an overview of detected devices and if your device (phone or tablet) is detected, it will be listed and you can control it remotely:
With a smartwatch, you first need to connect to its IP addres over the port number shown in the screenshot above:
adb connect 192.168.1.100:5555
You do not need to be root to do this.
Any of the above two commands will start the adb daemon if it is not yet running. In case of connecting to a smartwatch, you will have to accept the incoming connection on the watch-side.
You can now start sending commands to be executed on the Android device. For phones, this is usually part of the rooting process followed by installing a custom ROM. That is beyond the scope of this article.
Pair your watch with a new phone
Now that the pre-requisites have been taken care of, let’s go through the steps to pair the Android Wear watch with a new phone. You do not need to be root to do this.
Disable Bluetooth on your old (if you have it still) and new phone.
Open an adb shell – basically a remote shell on the watch. You’ll notice the prompt (sawshark:/ $), sawshark is the Android codename for my Huawei Watch 2 Sport:
Execute the command that instructs Package Manager to clear stored data & cache (“pm clear”) of the Google Play Services (“com.google.android.gms”) and reboot the watch:
pm clear com.google.android.gms && reboot
This clears the pairing information including the keys to communicate securely with the paired phone, but does not trigger a factory reset which happens if you un-pair the phone via the watch settings menu.
Make sure you have installed the Android Wear app on your new phone but do not enable Bluetooth on the phone yet.
From the computer, connect to your watch again over Wi-Fi (accept the incoming connection request on your watch) using the “adb connect” command shown earlier. Start a new “adb shell”.
At the remote prompt enter the command to make the watch visible for Bluetooth discovery by telling Activity Manager to start an Activity specified by the intent “android.bluetooth.adapter.action.REQUEST_DISCOVERABLE” (and make sure you accept the ‘OK’ prompt on your watch):
am start -a android.bluetooth.adapter.action.REQUEST_DISCOVERABLE
Now is the time to start Android Wear on your new phone, allow the app to turn on Bluetooth and start scanning for a Android Wear watch to pair with. When the phone finds your watch, an accept request will show on both. Once you have accepted both prompts, new pairing keys will be generated and stored in the watch’s Google Play Services app. You can synchronize the watch data to your phone and manage it from there.
The updates in Slackware-current this week (icu4c, poppler, libical) broke many programs in my Plasma5 ‘ktown’ repository, to the extent that the complete Plasma 5 desktop would no longer start.
That is the fun of using the bleeding edge – if something disruptive happens in slackware-current you’ll have to wait for the 3rd party repositories to catch up. And I am one of those 3rd party packagers.
I have researched the list of packages that needed a recompilation, and in some cases I performed an upgrade at the same time (qt5 went up to 5.9.3, poppler synced to the 0.62.0 in Slackware-current, qtav went up to 1.12.0). The 64bit packages have already been uploaded but if you are running 32bit Slackware-current (why are you doing that?) you’ll have to wait another day because I just started the compilation there.
What has been updated in the ‘ktown’ repository? Here is a list, mostly in order of compilation:
When the 32bit package set has been finished The 32bit packages have now been recompiled and uploaded to the repository.
I will also recompile whatever is needed in the ‘testing’ repository (that’s where the Wayland related packages are stored).
Other – not related to Plasma5 – updates/rebuilds are coming soon have finally been uploaded too. Those are LibreOffice, Pale Moon, Calibre; these programs are also affected by the updates in slackware-current but the urgency was lower than with the Plasma5 desktop.
IcedTea release manager Andrew Hughes (aka GNU/Andrew) announced the announced a new release for IcedTea. The version 2.6.12 builds OpenJDK 7u161_b01. This release includes the October 2017 security fixes for Java 7. The announcement page contains a list of the security issues that have been fixed with this release. It is recommended that you upgrade your OpenJDK 7 to the latest version. If you have already moved to Java 8 then this article is obviously not relevant for you.
Here is where you can download the Slackware packages for openjdk7 and openjre7:
Note about usage:
My Java 7 and Java 8 packages (e.g. openjdk7 and openjdk… or openjre7 and openjre) can not co-exist on your computer because they use the same installation directory. You must install either Java 7 or Java 8.
Remember that I release packages for the JRE (runtime environment) and the JDK (development kit) simultaneously, but you only need to install one of the two. The JRE is sufficient if you only want to run Java programs (including Java web plugins). Only in case where you’d want to develop Java programs and need a Java compiler, you are in need of the JDK package.