Tag: reference architecture

  • Internal Developer Platform (IDP) Reference Architectures

    Internal Developer Platform (IDP) Reference Architectures

    If you’ve been following the DevOps space recently, you’ve probably noticed the excitement brewing around platform engineering. Despite uncertainty in other areas of tech, it seems like platform engineering is poised for growth—Gartner even expects that by 2026, 80% of software engineering organizations will have established platform teams.

    The platform engineering idea hinges on an internal tooling system known as an internal developer platform (IDP), which platform teams own and operate and is exposed to developers to improve their efficiency, satisfaction and release fluidity. IDPs have been the talk of the town. But what does an IDP actually look like? What sort of components are they usually composed of?

    Well, at PlatformCon 2023, McKinsey representatives shared a reference architecture for building out IDPs. This framework was modeled after hundreds of internal platforms and could be a helpful benchmark for other organizations as they begin developing and standardizing their internal developer platforms.

    Below, we’ll examine the sample IDP reference architecture and its components. We’ll also have a refresher on the platform engineering concept and offer some expert tips on overcoming potential obstacles while implementing platform engineering and IDPs.

    Why Engineer Internal Platforms, Why Now?

    First, for those new to the idea, let’s explain what platform engineering is. I’ve previously defined platform engineering as “maintaining an internal self-service platform that serves the needs of developer consumers.” The practice doesn’t necessarily supplant DevOps, rather, the experts I’ve spoken to view it as the next evolution.

    This trend is essentially a response to developers overseeing more and more aspects of software life cycle management. Complexity in enterprise-level software delivery workflows has escalated in the last decade, leading to what The State of Platform Engineering Report describes as “increased cognitive load on engineers.” This is negative, as it could lead to shadow operations and burnout.

    The fact is, most developers require the same sort of technologies, which could be standardized across the board. For instance, take the consolidation around containers and Kubernetes, infrastructure-as-code and the need to implement similar build configurations and security policies across applications.

    By outsourcing the maintenance of tools for shipping and running cloud-native applications to a common platform, you take the burden off developers and free them up to code. Also, by centralizing DevOps tooling, you can enforce more governance and build out internal standards. Which should help reusability and overall deployment agility … at least, that’s the promise of it all. 😉

    Sample IDP Reference Architectures

    So, let’s turn to some real-world examples to see how this is being implemented. Mike Gatto, senior DevOps engineer, McKinsey, shared an internal platform reference architecture for AWS-specific environments:

    McKinsey’s Internal Developer Platform reference architecture

    As you can see, the architecture is divided into these subgroups. At a high level, they perform the following functions:

    • Developer control plane: This is the version control, where developers publish their code. They provide a workload specification (in McKinsey’s case, a Score file) that codifies specific configurations.
    • Integration and delivery: This includes the CI pipeline to build application code into a container and publish it to a registry. This notifies the platform orchestrator to initiate a build. Then, resources are provisioned. This area also includes a CD pipeline and infrastructure control plane.
    • Monitoring and logging: This plane includes tools for observability, analytics, and application performance monitoring.
    • Security plane: This area includes tools for secrets management, policies, and security vetting.
    • Resource plane: This plane encompasses cluster management, database tools, networking, and messaging architectures.

    “By separating developer and platform team concerns and allowing them to control the respective areas they’re experienced in separately, without requiring too much overlap,” said Gatto, “we’re making deployments more compliant and better aligned with client initiatives.”

    Humanitec has also created internal developer platform reference architectures for GCP and Azure, displayed below.

    IDP Reference Architecture for GCP
    IDP Reference Architecture for Azure

    PlatformEngineering.org has also expanded McKinsey’s original IDP reference architecture with a tooling landscape that adopts the same umbrella subgroupings but includes other pluggable tools.

    The Internal Developer Platform tooling landscape

    Roadblocks to Developer Platforms

    Starting from a blueprint could be a big help to rapidly construct IDPs. Yet, there will still be some potential roadblocks associated with adopting an internal developer experience platform. One of them is creating common platforms that actually cater well to all environments.

    “You can not and should not try to please everybody,” said Kaspar von Grünberg, CEO and co-founder of Humanitech. “Platform engineering is an 80/20 game.”

    “Platform organizations often face a lot of pressure when it comes to meeting demands for building more services that are both agile and agnostic to cloud and data center environments,” said Venkat Ramakrishnan, VP, product management and engineering, Portworx by Pure Storage. “At the same time, almost all platform engineering teams are understaffed while facing the need to support large application development initiatives and developer teams twice their size.”

    Tips to Get Platform Engineering On Track

    Reference architectures for various clouds could help cater IDPs to different scenarios. But outside of that, it will take a product mindset approach to strategically accept feedback and iterate the platform. This will involve doubling down on developer experience and adopting cloud-native foundations that can scale.

    “Platform engineering teams must consider adopting Kubernetes as it enables them to manage and deploy applications in production at scale, without having to manage applications at the individual level,” added Ramakrishnan. “Additionally, it may not be realistic to expand platform engineering teams alongside growing platforms, so teams should also consider leveraging automation and self-service capabilities to help them better manage projects at scale.”

    Is ‘You Build It, You Run It’ Dead?

    The idea of ‘you build it, you run it’ is starting to look a little antiquated next to the new and shiny platform model. It’s tough to say, but I’ll be keeping an eye on this area to see if all the effort to standardize the internal engineering approach pays off!

  • 21 DevOps and Docker Reference Architectures

    21 DevOps and Docker Reference Architectures

    When building DevOps or continuous delivery (CD) practices relying on Docker, you can learn a great deal from others. Reference architectures reveal what choices people made, what practices they put in place and how they connected the dots.

    We at Sonatype pulled together a set of 21 reference architectures for folks building CD and DevOps practices using Docker. Why? DevOps professionals numbering 3,500 recently attended our webinar on, “Continuous Integration using Docker,” discussing just one reference architecture example. We recognized then there was a strong interest in the community to learn more.  That’s why we assembled 20 more reference architectures into this collection.

    Dive into the Details

    A picture speaks a thousand words. Beyond the images, we also share the details of each DevOps/CD Docker reference architecture. In the bottom right corner of each slide, we share the original blog or presentation source for the image. When one of the images piques your interest, you can then dive deep into the source. Cool, huh?

    Think of this set of reference architectures as open source. The slides are free to view, download and distribute. Share with others if you find them helpful.

    Help Others

    Oh, and if you have a Docker reference architecture we should add to the deck, please let us know. We would love to add it to our deck for others to learn from. Just like the others we included, you will be sure to get full attribution for your work.

    For those of you not using Docker, we did publish a set of DevOps and continuous delivery reference architectures last year on devopsy.kinsta.cloud.  With more than 86,000 views and 3,300 downloads, many people in the community have found it helpful.

    — Derek E. Weeks

  • 28 DevOps and Continuous Delivery Reference Architectures (Vol. 2)

    28 DevOps and Continuous Delivery Reference Architectures (Vol. 2)

    People want to get going with DevOps or Continuous Delivery, but need a place to start.  Others are already on their way, but need some validation of their choices.  In April, I published the first volume of DevOps and Continuous Delivery reference architectures which has now been viewed over 37,000 times on SlideShare (it’s free to download…no registration required).  Three things helped people in the deck: (1) the reference architectures, (2) links to the sources for each architecture attached to each slide, and (3) no marketing fluff.

    [slideshare id=45996806&doc=nexusandcontinuousdelivery-150318110625-conversion-gate01]

    I am honored to have helped so many people on their DevOps and Continuous Delivery journeys.  So this month, I compiled Volume 2 of the reference architectures.  You can now view the deck on SlideShare, download it (again…no registration required), and share it with others.  Have a look and let me know what you think.

    As I did with Volume 1, if you have a reference architecture that you would like to share, I would be happy to add it into Volume 2 with full attribution to you.  Just ping me in the comments section or reach out to me @weekstweets.

    Here is Volume 2:

    [slideshare id=50972100&doc=devopscontinuousdeliveryreferencearchitecturespart2-150727141843-lva1-app6891]

  • 31 Reference Architectures for DevOps and Continuous Delivery

    31 Reference Architectures for DevOps and Continuous Delivery

    At QCon London, David Farley (@davefarley77) told the audience that “continuous delivery changes the economics of software delivery”.  I could not agree more.

    If you have been drawn to the evangelists like David Farley, Jez Humble, and Gene Kim, you’ll know that high performance IT organizations are seeing a massive payoff in their continuous delivery investments.  Industry leaders big and small are sharing noticeable results:

    • 8x more frequent production deployments
    • 50% lower change failure rates
    • 12x faster service restoration times when something went wrong

    5 Principles

    How are they achieving these results?  They are following a few key principles that David and Jez outlined in their seminal book, Continuous Delivery (highly recommended).  The principles outlined in their book and in David’s QCon presentation are as follows:

    • Deliver fast
    • Automate almost everything
    • Keep everything in version control
    • Build quality In
    • Empower the team 

    Reference Architectures for DevOps and Continuous Delivery

    In their book, they also provide insight to continuous delivery tool chains and processes which highlight build tools, CI platforms, testing suites, artifact repositories, and many other components. There are numerous examples of reference architectures available, and each of them vary in levels of detail, tools highlighted, and processes followed.  Yet, there is a constant theme among the tool sets: Jenkins, Maven, Nexus, Subversion, Git, Docker, Puppet/Chef, Rundeck, and Sonar seem to show up time and again.

    To help you along your continuous delivery and DevOps journey, I have compiled a set of 31 reference architectures created by users across the continuous delivery and DevOps communities.

     CD and DevOps tool chain

    Each architecture is accompanied by a link to the original presentation or blog where the architecture was referenced to ensure you have access to the full context of the discussion. You can also freely download the presentation from SlideShare where we now have over 7,000 views.

    Offer to help others: If you have a reference architecture to share, please consider posting a link to it in the comments section below.  I am sure others would love to see it and learn from it.