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@@ -5,4 +5,5 @@ Hybrid
 .. toctree::
    :maxdepth: 2
 
+   hybrid/architecture-hybrid.rst
    hybrid/prescriptive-examples-hybrid.rst
diff --git a/doc/arch-design-rst/source/hybrid/architecture-hybrid.rst b/doc/arch-design-rst/source/hybrid/architecture-hybrid.rst
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+============
+Architecture
+============
+
+Map out the dependencies of the expected workloads and the cloud
+infrastructures required to support them to architect a solution
+for the broadest compatibility between cloud platforms, minimizing
+the need to create workarounds and processes to fill identified gaps.
+
+For your chosen cloud management platform, note the relative
+levels of support for both monitoring and orchestration.
+
+.. figure:: ../figures/Multi-Cloud_Priv-AWS4.png
+   :width: 100%
+
+Image portability
+~~~~~~~~~~~~~~~~~
+
+The majority of cloud workloads currently run on instances using
+hypervisor technologies. The challenge is that each of these hypervisors
+uses an image format that may not be compatible with the others.
+When possible, standardize on a single hypervisor and instance image format.
+This may not be possible when using externally-managed public clouds.
+
+Conversion tools exist to address image format compatibility.
+Examples include `virt-p2v/virt-v2v <http://libguestfs.org/virt-v2v>`_
+and `virt-edit <http://libguestfs.org/virt-edit.1.html>`_.
+These tools cannot serve beyond basic cloud instance specifications.
+
+Alternatively, build a thin operating system image as the base for
+new instances.
+This facilitates rapid creation of cloud instances using cloud orchestration
+or configuration management tools for more specific templating.
+Remember if you intend to use portable images for disaster recovery,
+application diversity, or high availability, your users could move
+the images and instances between cloud platforms regularly.
+
+Upper-layer services
+~~~~~~~~~~~~~~~~~~~~
+
+Many clouds offer complementary services beyond the
+basic compute, network, and storage components.
+These additional services often simplify the deployment
+and management of applications on a cloud platform.
+
+When moving workloads from the source to the destination
+cloud platforms, consider that the destination cloud platform
+may not have comparable services. Implement workloads
+in a different way or by using a different technology.
+
+For example, moving an application that uses a NoSQL database
+service such as MongoDB could cause difficulties in maintaining
+the application between the platforms.
+
+There are a number of options that are appropriate for
+the hybrid cloud use case:
+
+* Implementing a baseline of upper-layer services across all
+  of the cloud platforms. For platforms that do not support
+  a given service, create a service on top of that platform
+  and apply it to the workloads as they are launched on that cloud.
+* For example, through the :term:`Database service` for OpenStack
+  (:term:`trove`), OpenStack supports MySQL as a service but
+  not NoSQL databases in production.
+  To move from or run alongside AWS, a NoSQL workload must use
+  an automation tool, such as the Orchestration service (heat),
+  to recreate the NoSQL database on top of OpenStack.
+* Deploying a :term:`Platform-as-a-Service (PaaS)` technology that
+  abstracts the upper-layer services from the underlying cloud platform.
+  The unit of application deployment and migration is the PaaS.
+  It leverages the services of the PaaS and only consumes the base
+  infrastructure services of the cloud platform.
+* Using automation tools to create the required upper-layer services
+  that are portable across all cloud platforms.
+
+  For example, instead of using database services that are inherent
+  in the cloud platforms, launch cloud instances and deploy the
+  databases on those instances using scripts or configuration and
+  application deployment tools.
+
+Network services
+~~~~~~~~~~~~~~~~
+
+Network services functionality is a critical component of
+multiple cloud architectures. It is an important factor
+to assess when choosing a CMP and cloud provider.
+Considerations include:
+
+* Functionality
+* Security
+* Scalability
+* High availability (HA)
+
+Verify and test critical cloud endpoint features.
+
+* After selecting the network functionality framework,
+  you must confirm the functionality is compatible.
+  This ensures testing and functionality persists
+  during and after upgrades.
+
+  .. note::
+
+     Diverse cloud platforms may de-synchronize over time
+     if you do not maintain their mutual compatibility.
+     This is a particular issue with APIs.
+
+* Scalability across multiple cloud providers determines
+  your choice of underlying network framework.
+  It is important to have the network API functions presented
+  and to verify that the desired functionality persists across
+  all chosen cloud endpoint.
+
+* High availability implementations vary in functionality and design.
+  Examples of some common methods are active-hot-standby,
+  active-passive, and active-active.
+  Develop your high availability implementation and a test framework to
+  understand the functionality and limitations of the environment.
+
+* It is imperative to address security considerations.
+  For example, addressing how data is secured between client and
+  endpoint and any traffic that traverses the multiple clouds.
+  Business and regulatory requirements dictate what security
+  approach to take. For more information, see the
+  :ref:`Security Requirements Chapter <security>`
+
+Data
+~~~~
+
+Traditionally, replication has been the best method of protecting
+object store implementations. A variety of replication methods exist
+in storage architectures, for example synchronous and asynchronous
+mirroring. Most object stores and back-end storage systems implement
+methods for replication at the storage subsystem layer.
+Object stores also tailor replication techniques
+to fit a cloud's requirements.
+
+Organizations must find the right balance between
+data integrity and data availability. Replication strategy may
+also influence disaster recovery methods.
+
+Replication across different racks, data centers, and geographical
+regions increases focus on determining and ensuring data locality.
+The ability to guarantee data is accessed from the nearest or
+fastest storage can be necessary for applications to perform well.
+
+.. note::
+
+   When running embedded object store methods, ensure that you do not
+   instigate extra data replication as this can cause performance issues.