Bamboo alleviates the pain found at the intersection of continuous integration (CI) and distributed version control systems like Git and Mercurial. New branches are automatically brought under the same CI scheme as master, and any two branches in the repo can be merged automatically before each test run. Download Bamboo Paper - Use your tablet and stylus to write just as you did on a regular notebook, with various drawing tools, colors, and possibility to export your creations. It depends entirely on the program; Mac OS has 'Ink' which will be automatically activated when you install the Wacom software (I have a Bamboo myself) and should show up in your menu bar as a pen. Some apps will recognize it, others wont. Apr 26, 2017 Create a Bamboo plan. A Bamboo plan is where you define the details of your continuous integration workflow. A plan allows us to specify a source code repository, when Bamboo gets triggered to run the build, and how Bamboo should provide feedback on the test results. Click Create Plan in the menu bar, and then Create a New Plan.
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I just finished rebuilding/updating my continuous integration environment with the latest version of Atlassian Bamboo, so I thought I'd document the process for other people that may want to do the same as I had to do some research to get everything working.
Setup
Here's a diagram providing a high level overview of how my environment is setup:
The first machine ('builder') is a Windows 8.1 machine hosting the Atlassian Bamboo web application. This machine is not used as a build agent. It's only job is to coordinate the builds and to store the build artifacts.
The second machine ('buildserver01') is a Mac Mini running OS X 10.9 with VMWare Fusion installed on it. There are two separate OS X 10.9 virtual machines running on it, each with the Bamboo build agent running and a full development stack (Xamarin.iOS, Xamarin.Mac and Xamarin.Android and Xcode). The virtual machines are used to build all of my Xamarin projects. The reason there are two virtual machines is so that I can either run builds in parallel or do builds against both the Stable and Beta (or Alpha) channel of Xamarin at any time depending on how I change the build agent settings.
The third machine ('buildserver02') is a Windows 8.1 machine with the Bamboo build agent and Visual Studio 2013 installed. This server is used to build and test TouchDraw related web services which get deployed to a Windows Server 2012 machine.
![Bamboo ci mac app keyboard Bamboo ci mac app keyboard](/uploads/1/3/4/1/134110910/688102203.png)
Additionally, I have an iPad 2 running iOS 7 and a Motorola Xoom connected to one of the virtual machine instances for running automated tests natively on a device.
Bamboo Configuration
Before you can start configuring your build plans, you need define the capabilities that each of the build agents have. Once your remote agents are up and running (or right away if you're using a local agent), you can define 'executables' that are available on that agent:
(58). (58). Best recipie app ipad macos. (61).
As shown in the screenshot, we need to define both the 'mdtool' and 'xbuild' executables. The 'mdtool' command will be used for building Xamarin.iOS and Xamarin.Mac projects, and the 'xbuild' command will be used for building Xamarin.Android projects.
Building an App
In order to build a Xamarin.iOS or a Xamarin.Mac project, you can use the 'mdtool' executable that configured earlier. Essentially, you just need to tell which configuration you want to build (AdHoc|iPhone, AppStore|iPhone, Debug|iPhoneSimulator, etc..) and pass in the path of your solution:
To build a Xamarin.Android project you basically do the same thing, but with the 'xbuild' executable:
Unit Testing
Bamboo Ci Mac App Installer
Unit Testing a Xamarin.iOS or a Xamarin.Android project is a bit more complicated as you need to do that in the simulator or on a device. This is what took me the longest time to figure out.
The key piece is to use the Touch.Server tool that is mentioned in this blog post. It will launch unit test project on the target (simulator or real device) and save the test results in a local file.
Once you have that tool installed (I actually store it in the source code repository so it's available to every build agent I configure) you can invoke it like this from a script in your build plan:
Once you have that tool installed (I actually store it in the source code repository so it's available to every build agent I configure) you can invoke it like this from a script in your build plan:
In the example above it's launching the unit test project on the iPad simulator. You can use one of the other command line options for Touch.Server.
Bamboo can also parse the results of tests results in the NUnit 2 XML format to display in the dashboard; however the unit test projects created by the Xamarin tools don't return XML results by default, so you'll need to modify them.
I've added the following to all of the AppDelegates and Activities for my mobile tests:
The snippet above tells the runner to write it's result to a specific TCP port on localhost, and to use the NUnit2 XML format. By wrapping in a try/catch block, I can run the same unit tests locally on my development machine, since in that case we'd get an exception when it can't connect to Touch.Server.
Lastly, you can't use the version of Touch.Server exactly as it is on GitHub right now. You'll need to make a small modification to it in order for things to work. The problem is that the current code adds a header to the results file, which is fine with text based results; however makes XML based tests results un-parseable by Bamboo. The solution is to comment out lines 87-91 before you build Touch.Server to prevent it from writing a header.
Once you have that configured, you'll be able to see your test results in the Bamboo dashboard after a build:
About Continuous Integration in Xcode
In Xcode, continuous integration is the process of automating and streamlining the building, analyzing, testing, and archiving of your Mac and iOS apps, in order to ensure that they are always in a releasable state. In a continuous integration workflow, you write apps locally in Xcode on your development Mac and check them into a source code repository. You then send them to Xcode Server, a service provided by OS X Server, for processing. In Xcode on your development Mac, you set up bots that run on the server. These bots process your apps, using the source code in your repository, and report back the results. Each run of a bot is called an integration, and these runs occur regularly throughout the development life cycle of your app. See Figure 1-1.
The goal of continuous integration is to improve software quality, and there are a number of ways this is achieved:
- Catching problems quickly, easily, and early. Bot integrations can be set up to run every time you commit a code change to your source code repository, on a specific schedule, or whenever you manually initiate them. This allows you to identify code problems throughout the development process, fix problems as they occur, and prevent smaller problems from cascading into larger ones.
- Enhancing collaboration. In a continuous integration workflow, your entire team (or selected individuals) can create bots, trigger integrations, view activity, and download builds. If problems are introduced, the person whose code change caused the failure is notified automatically.
- Broadening test coverage. When working locally, testing your app on multiple devices with multiple configurations is a manual and time intensive process. In a continuous integration workflow, it’s automatic and easy. Just plug multiple devices into the server or configure your workflow to use multiple simulators, configure your bots accordingly, and let the system do the work for you.
- Generating build and test statistics over time. In a continuous integration workflow, all progress and failure is logged. At any given time, you can see where your app is in the development process and how it has matured over time.
At a Glance
Follow the steps outlined in this document to set up a continuous integration workflow using Xcode Server.
Install and Set Up Xcode Server
The first step in implementing a continuous integration workflow is to install OS X Server and configure Xcode Server to perform your integrations. Even if you’ve never set up a server before, you’ll find the process for setting up OS X Server and enabling Xcode Server to be quick and straightforward.
Relevant chapter
Connect Xcode Server to Source Code Repositories
In order for a bot to perform an integration of a project in Xcode Server, the bot must have access to the project’s source code. Xcode Server supports two popular source control systems: Git and Subversion. On your development Mac, you write the source code and push it to a source code repository. This repository can be hosted on a remote server (Git or Subversion) or in OS X Server (Git only). The bot pulls your latest source code whenever it performs an integration. See Figure 1-2.
![Bamboo Bamboo](/uploads/1/3/4/1/134110910/120637205.png)
Relevant chapter
Create and Run Bots
Bots are at the center of the Xcode Server automated workflow. Bots build and test your projects with the schemes you specify. Because Xcode Server can access the source code repositories of your projects, you can create and schedule bots to run periodically, on every source code commit, or manually. You can also configure bots to send email notification of the success or failure of their integrations. Xcode Server also allows your bots to conduct performance testing and initiate pre- and postintegration triggers.
Bamboo Ci Mac App Mac
Relevant chapter
Monitor and Manage Bots
Xcode Server provides detailed information about the status of its integrations through Xcode on your development Mac, a browser, and email notifications. In the Xcode report navigator on your development Mac, you can manage bots, view their test results, read integration logs, initiate or cancel integrations, and download product archives. Xcode Server also hosts a bots website, where you and members of your development team can use a web browser to view the status of bot integrations and download assets and products. Bots can also be set up to send email notifications when integrations succeed, fail, or generate warnings. See Figure 1-3.
Relevant chapters
Manage and Monitor Bots from the Report Navigator, Monitor Bots from a Web Browser
Prerequisites
When setting up a continuous integration workflow, it’s a good idea to have an understanding of how to test and debug Xcode apps. For detailed information on testing and debugging, see Testing with Xcode, Debugging with Xcode, and Instruments User Guide.
The name for the shortcut will be the name given to it by the browser. Chrome apps mac dock.
See Also
The Xcode Server web API lets you extend the power of Xcode Server through integration with your own tools and processes. For reference documentation, see Xcode Server API Reference.
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