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AmazonEKS platform versions represent the capabilities of the Amazon EKS cluster control plane, such as which Kubernetes API server flags are enabled, as well as the current Kubernetes patch version. Each Kubernetes minor version has one or more associated Amazon EKS platform versions. The platform versions for different Kubernetes minor versions are independent. You can retrieve your cluster's current platform version using the AWS CLI or AWS Management Console. If you have a local cluster on AWS Outposts, see Amazon EKS local cluster platform versions instead of this topic.

When a new Kubernetes minor version is available in Amazon EKS, such as 1.30, the initial Amazon EKS platform version for that Kubernetes minor version starts at eks.1. However, Amazon EKS releases new platform versions periodically to enable new Kubernetes control plane settings and to provide security fixes.

Amazon EKS automatically upgrades all existing clusters to the latest Amazon EKS platform version for their corresponding Kubernetes minor version. Automatic upgrades of existing Amazon EKS platform versions are rolled out incrementally. The roll-out process might take some time. If you need the latest Amazon EKS platform version features immediately, you should create a new Amazon EKS cluster.

If your cluster is more than two platform versions behind the current platform version, then it's possible that Amazon EKS wasn't able to automatically update your cluster. For details of what may cause this, see Amazon EKS platform version is more than two versions behind the current platform version.

Amazon EKS might publish a new node AMI with a corresponding patch version. However, all patch versions are compatible between the EKS control plane and node AMIs for a given Kubernetes minor version.

Clusters are always created with the latest available Amazon EKS platform version (eks.n) for the specified Kubernetes version. If you update your cluster to a new Kubernetes minor version, your cluster receives the current Amazon EKS platform version for the Kubernetes minor version that you updated to.

The following admission controllers are enabled for all 1.30 platform versions: NodeRestriction, ExtendedResourceToleration, NamespaceLifecycle, LimitRanger, ServiceAccount, TaintNodesByCondition, PodSecurity, Priority, DefaultTolerationSeconds, DefaultStorageClass, StorageObjectInUseProtection, PersistentVolumeClaimResize, RuntimeClass, CertificateApproval, CertificateSigning, CertificateSubjectRestriction, DefaultIngressClass, MutatingAdmissionWebhook, ValidatingAdmissionWebhook, ResourceQuota.

The following admission controllers are enabled for all 1.29 platform versions: NodeRestriction, ExtendedResourceToleration, NamespaceLifecycle, LimitRanger, ServiceAccount, TaintNodesByCondition, PodSecurity, Priority, DefaultTolerationSeconds, DefaultStorageClass, StorageObjectInUseProtection, PersistentVolumeClaimResize, RuntimeClass, CertificateApproval, CertificateSigning, CertificateSubjectRestriction, DefaultIngressClass, MutatingAdmissionWebhook, ValidatingAdmissionWebhook, ResourceQuota.

The following admission controllers are enabled for all 1.28 platform versions: NodeRestriction, ExtendedResourceToleration, NamespaceLifecycle, LimitRanger, ServiceAccount, TaintNodesByCondition, PodSecurity, Priority, DefaultTolerationSeconds, DefaultStorageClass, StorageObjectInUseProtection, PersistentVolumeClaimResize, RuntimeClass, CertificateApproval, CertificateSigning, CertificateSubjectRestriction, DefaultIngressClass, MutatingAdmissionWebhook, ValidatingAdmissionWebhook, ResourceQuota.

The following admission controllers are enabled for all 1.27 platform versions: NodeRestriction, ExtendedResourceToleration, NamespaceLifecycle, LimitRanger, ServiceAccount, TaintNodesByCondition, PodSecurity, Priority, DefaultTolerationSeconds, DefaultStorageClass, StorageObjectInUseProtection, PersistentVolumeClaimResize, RuntimeClass, CertificateApproval, CertificateSigning, CertificateSubjectRestriction, DefaultIngressClass, MutatingAdmissionWebhook, ValidatingAdmissionWebhook, ResourceQuota.

The following admission controllers are enabled for all 1.26 platform versions: NodeRestriction, ExtendedResourceToleration, NamespaceLifecycle, LimitRanger, ServiceAccount, TaintNodesByCondition, PodSecurity, Priority, DefaultTolerationSeconds, DefaultStorageClass, StorageObjectInUseProtection, PersistentVolumeClaimResize, RuntimeClass, CertificateApproval, CertificateSigning, CertificateSubjectRestriction, DefaultIngressClass, MutatingAdmissionWebhook, ValidatingAdmissionWebhook, ResourceQuota.

The following admission controllers are enabled for all 1.25 platform versions: NodeRestriction, ExtendedResourceToleration, NamespaceLifecycle, LimitRanger, ServiceAccount, TaintNodesByCondition, PodSecurity, Priority, DefaultTolerationSeconds, DefaultStorageClass, StorageObjectInUseProtection, PersistentVolumeClaimResize, RuntimeClass, CertificateApproval, CertificateSigning, CertificateSubjectRestriction, DefaultIngressClass, MutatingAdmissionWebhook, ValidatingAdmissionWebhook, ResourceQuota.

The following admission controllers are enabled for all 1.24 platform versions: CertificateApproval, CertificateSigning, CertificateSubjectRestriction, DefaultIngressClass, DefaultStorageClass, DefaultTolerationSeconds, ExtendedResourceToleration, LimitRanger, MutatingAdmissionWebhook, NamespaceLifecycle, NodeRestriction, PersistentVolumeClaimResize, Priority, PodSecurityPolicy, ResourceQuota, RuntimeClass, ServiceAccount, StorageObjectInUseProtection, TaintNodesByCondition, and ValidatingAdmissionWebhook.

The following admission controllers are enabled for all 1.23 platform versions: CertificateApproval, CertificateSigning, CertificateSubjectRestriction, DefaultIngressClass, DefaultStorageClass, DefaultTolerationSeconds, ExtendedResourceToleration, LimitRanger, MutatingAdmissionWebhook, NamespaceLifecycle, NodeRestriction, PersistentVolumeClaimResize, Priority, PodSecurityPolicy, ResourceQuota, RuntimeClass, ServiceAccount, StorageObjectInUseProtection, TaintNodesByCondition, and ValidatingAdmissionWebhook.

We can't update the version but we can set the compatibility version of DB which is more important and where we should focus on.

Based on MS doc below, yes, it says Azure SQL DB always run on latest stable version.

Each module (Core Framework and the Core Extensions) has its own repository, its own version and is released indepedently.The dependencies and compatibilities of the modules are defined in their composer.json file. Thus, it is possible toselect specific and compatible module versions and update each of them separately.

As all the modules add up to significant number, it might become a challenge to keep track of every module, their releasesand features, and to find the optimal combination of versions of all the needed modules.

This is, where the Pimcore Platform Version comes in. It is an additional service provided by Pimcore andprovides a set of specific versions of all Pimcore modules which work together as they are compatible and explicitlytested with each other and verified by Pimcore.

The platform version impacts the behavior of your bots. In some cases, this means the addition of features (like the addition of built-in entities). In others, it merely means fine-tuning of the platform's Natural Language Understanding (NLU). Each platform version remains valid for 18 months.

Since a given version of a bot is now permanently tied to a platform version, you can thoroughly test that bot, optimize its training corpus, and put it into production without worrying that its behavior will change when your Digital Assistant instance is upgraded to a new release.

For new bots, you specify the platform version when you create the bot. You can select the current version (recommend) or any other active or deprecated version. For bots created in Release 20.06 or earlier, the platform version is set to 20.06.

If any of your bots (published or draft) are on platform versions with this status, it is important to create new versions of them before they reach Invalid status. Once they are in Invalid status, you will not be able to create new versions or clones of them.

To change the platform version for a skill or digital assistant, you need to create a new version of the bot itself (or clone the bot) and set the platform version in the new version of the bot. In the new version or clone, you can change it to any platform version that is newer than the base bot's platform version and that has either active or deprecated status.

Even though updates in the platform generally improve the overall quality of bots, these updates could cause unexpected results in intent resolution that require you to update the training corpus of your skills.

As part of this process, create new versions of the bots on the most recent platform version and compare the test results for the bot versions that are on the new platform with the versions on the existing platform. If the test results for the bots on the new platform don't reveal regressions, consider moving those versions of the bots into production.

Update skills and digital assistants to the latest platform version (and thoroughly test them) every 6 months. Though you don't strictly need to update your bots that often, it is likely that you will greatly benefit from doing so, given the ongoing platform enhancements.

When you extend a skill or digital assistant, you inherit the platform version from the base bot and can't change it. Similarly, when you rebase an extended skill or digital assistant, your bot inherits the platform version that is used by the new version of the base bot.

Red Hat OpenShift Container Platform provides developers and IT organizations with a hybrid cloud application platform for deploying both new and existing applications on secure, scalable resources with minimal configuration and management overhead. OpenShift Container Platform supports a wide selection of programming languages and frameworks, such as Java, JavaScript, Python, Ruby, and PHP.

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