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2 changes: 1 addition & 1 deletion calico-cloud/multicluster/kubeconfig.mdx
Original file line number Diff line number Diff line change
Expand Up @@ -34,7 +34,7 @@ Note: much like intra-cluster routing in $[prodname], cross-cluster routing can

### Generate credentials for cross-cluster resource synchronization
:::tip[mental model]
The basis of cluster mesh is the ability for a cluster connect to a remote cluster and sync data from it. This enables each $[prodname] cluster to have a view into the datastore that includes both local and remote cluster pods.
The basis of cluster mesh is the ability for a cluster to connect to a remote cluster and sync data from it. This enables each $[prodname] cluster to have a view into the datastore that includes both local and remote cluster pods.
:::

In this section, we will create a `kubeconfig` for each cluster. This `kubeconfig` is what other clusters will use to connect to a given cluster and synchronize data from it.
Expand Down
2 changes: 1 addition & 1 deletion calico-cloud/multicluster/overview.mdx
Original file line number Diff line number Diff line change
Expand Up @@ -14,7 +14,7 @@ Utilize $[prodname] to establish cross-cluster connectivity.

At some point in your Kubernetes journey, you may have applications that need to access services and workloads running in another cluster.

By default, pods can only communicate with pods within the same cluster. Additionally, services and network policy only select pods from within the same cluster. $[prodname] can help overcome these barriers by forming a cluster mesh the following features:
By default, pods can only communicate with pods within the same cluster. Additionally, services and network policy only select pods from within the same cluster. $[prodname] can help overcome these barriers by forming a cluster mesh that provides the following features:
- **Federated endpoint identity**

Allow a local Kubernetes cluster to include the workload endpoints (pods) and host endpoints of a remote cluster in the calculation of local network policies applied on each node of the local cluster.
Expand Down
Original file line number Diff line number Diff line change
Expand Up @@ -34,7 +34,7 @@ Note: much like intra-cluster routing in $[prodname], cross-cluster routing can

### Generate credentials for cross-cluster resource synchronization
:::tip[mental model]
The basis of cluster mesh is the ability for a cluster connect to a remote cluster and sync data from it. This enables each $[prodname] cluster to have a view into the datastore that includes both local and remote cluster pods.
The basis of cluster mesh is the ability for a cluster to connect to a remote cluster and sync data from it. This enables each $[prodname] cluster to have a view into the datastore that includes both local and remote cluster pods.
:::

In this section, we will create a `kubeconfig` for each cluster. This `kubeconfig` is what other clusters will use to connect to a given cluster and synchronize data from it.
Expand Down
Original file line number Diff line number Diff line change
Expand Up @@ -14,7 +14,7 @@ Utilize $[prodname] to establish cross-cluster connectivity.

At some point in your Kubernetes journey, you may have applications that need to access services and workloads running in another cluster.

By default, pods can only communicate with pods within the same cluster. Additionally, services and network policy only select pods from within the same cluster. $[prodname] can help overcome these barriers by forming a cluster mesh the following features:
By default, pods can only communicate with pods within the same cluster. Additionally, services and network policy only select pods from within the same cluster. $[prodname] can help overcome these barriers by forming a cluster mesh that provides the following features:
- **Federated endpoint identity**

Allow a local Kubernetes cluster to include the workload endpoints (pods) and host endpoints of a remote cluster in the calculation of local network policies applied on each node of the local cluster.
Expand Down
2 changes: 1 addition & 1 deletion calico-enterprise/multicluster/federation/kubeconfig.mdx
Original file line number Diff line number Diff line change
Expand Up @@ -34,7 +34,7 @@ Note: much like intra-cluster routing in $[prodname], cross-cluster routing can

### Generate credentials for cross-cluster resource synchronization
:::tip[mental model]
The basis of cluster mesh is the ability for a cluster connect to a remote cluster and sync data from it. This enables each $[prodname] cluster to have a view into the datastore that includes both local and remote cluster pods.
The basis of cluster mesh is the ability for a cluster to connect to a remote cluster and sync data from it. This enables each $[prodname] cluster to have a view into the datastore that includes both local and remote cluster pods.
:::

In this section, we will create a `kubeconfig` for each cluster. This `kubeconfig` is what other clusters will use to connect to a given cluster and synchronize data from it.
Expand Down
2 changes: 1 addition & 1 deletion calico-enterprise/multicluster/federation/overview.mdx
Original file line number Diff line number Diff line change
Expand Up @@ -14,7 +14,7 @@ Utilize $[prodname] to establish cross-cluster connectivity.

At some point in your Kubernetes journey, you may have applications that need to access services and workloads running in another cluster.

By default, pods can only communicate with pods within the same cluster. Additionally, services and network policy only select pods from within the same cluster. $[prodname] can help overcome these barriers by forming a cluster mesh the following features:
By default, pods can only communicate with pods within the same cluster. Additionally, services and network policy only select pods from within the same cluster. $[prodname] can help overcome these barriers by forming a cluster mesh that provides the following features:
- **Federated endpoint identity**

Allow a local Kubernetes cluster to include the workload endpoints (pods) and host endpoints of a remote cluster in the calculation of local network policies applied on each node of the local cluster.
Expand Down
Original file line number Diff line number Diff line change
Expand Up @@ -34,7 +34,7 @@ Note: much like intra-cluster routing in $[prodname], cross-cluster routing can

### Generate credentials for cross-cluster resource synchronization
:::tip[mental model]
The basis of cluster mesh is the ability for a cluster connect to a remote cluster and sync data from it. This enables each $[prodname] cluster to have a view into the datastore that includes both local and remote cluster pods.
The basis of cluster mesh is the ability for a cluster to connect to a remote cluster and sync data from it. This enables each $[prodname] cluster to have a view into the datastore that includes both local and remote cluster pods.
:::

In this section, we will create a `kubeconfig` for each cluster. This `kubeconfig` is what other clusters will use to connect to a given cluster and synchronize data from it.
Expand Down
Original file line number Diff line number Diff line change
Expand Up @@ -14,7 +14,7 @@ Utilize $[prodname] to establish cross-cluster connectivity.

At some point in your Kubernetes journey, you may have applications that need to access services and workloads running in another cluster.

By default, pods can only communicate with pods within the same cluster. Additionally, services and network policy only select pods from within the same cluster. $[prodname] can help overcome these barriers by forming a cluster mesh the following features:
By default, pods can only communicate with pods within the same cluster. Additionally, services and network policy only select pods from within the same cluster. $[prodname] can help overcome these barriers by forming a cluster mesh that provides the following features:
- **Federated endpoint identity**

Allow a local Kubernetes cluster to include the workload endpoints (pods) and host endpoints of a remote cluster in the calculation of local network policies applied on each node of the local cluster.
Expand Down
Original file line number Diff line number Diff line change
Expand Up @@ -34,7 +34,7 @@ Note: much like intra-cluster routing in $[prodname], cross-cluster routing can

### Generate credentials for cross-cluster resource synchronization
:::tip[mental model]
The basis of cluster mesh is the ability for a cluster connect to a remote cluster and sync data from it. This enables each $[prodname] cluster to have a view into the datastore that includes both local and remote cluster pods.
The basis of cluster mesh is the ability for a cluster to connect to a remote cluster and sync data from it. This enables each $[prodname] cluster to have a view into the datastore that includes both local and remote cluster pods.
:::

In this section, we will create a `kubeconfig` for each cluster. This `kubeconfig` is what other clusters will use to connect to a given cluster and synchronize data from it.
Expand Down
Original file line number Diff line number Diff line change
Expand Up @@ -14,7 +14,7 @@ Utilize $[prodname] to establish cross-cluster connectivity.

At some point in your Kubernetes journey, you may have applications that need to access services and workloads running in another cluster.

By default, pods can only communicate with pods within the same cluster. Additionally, services and network policy only select pods from within the same cluster. $[prodname] can help overcome these barriers by forming a cluster mesh the following features:
By default, pods can only communicate with pods within the same cluster. Additionally, services and network policy only select pods from within the same cluster. $[prodname] can help overcome these barriers by forming a cluster mesh that provides the following features:
- **Federated endpoint identity**

Allow a local Kubernetes cluster to include the workload endpoints (pods) and host endpoints of a remote cluster in the calculation of local network policies applied on each node of the local cluster.
Expand Down
Original file line number Diff line number Diff line change
Expand Up @@ -34,7 +34,7 @@ Note: much like intra-cluster routing in $[prodname], cross-cluster routing can

### Generate credentials for cross-cluster resource synchronization
:::tip[mental model]
The basis of cluster mesh is the ability for a cluster connect to a remote cluster and sync data from it. This enables each $[prodname] cluster to have a view into the datastore that includes both local and remote cluster pods.
The basis of cluster mesh is the ability for a cluster to connect to a remote cluster and sync data from it. This enables each $[prodname] cluster to have a view into the datastore that includes both local and remote cluster pods.
:::

In this section, we will create a `kubeconfig` for each cluster. This `kubeconfig` is what other clusters will use to connect to a given cluster and synchronize data from it.
Expand Down
Original file line number Diff line number Diff line change
Expand Up @@ -14,7 +14,7 @@ Utilize $[prodname] to establish cross-cluster connectivity.

At some point in your Kubernetes journey, you may have applications that need to access services and workloads running in another cluster.

By default, pods can only communicate with pods within the same cluster. Additionally, services and network policy only select pods from within the same cluster. $[prodname] can help overcome these barriers by forming a cluster mesh the following features:
By default, pods can only communicate with pods within the same cluster. Additionally, services and network policy only select pods from within the same cluster. $[prodname] can help overcome these barriers by forming a cluster mesh that provides the following features:
- **Federated endpoint identity**

Allow a local Kubernetes cluster to include the workload endpoints (pods) and host endpoints of a remote cluster in the calculation of local network policies applied on each node of the local cluster.
Expand Down
Original file line number Diff line number Diff line change
Expand Up @@ -34,7 +34,7 @@ Note: much like intra-cluster routing in $[prodname], cross-cluster routing can

### Generate credentials for cross-cluster resource synchronization
:::tip[mental model]
The basis of cluster mesh is the ability for a cluster connect to a remote cluster and sync data from it. This enables each $[prodname] cluster to have a view into the datastore that includes both local and remote cluster pods.
The basis of cluster mesh is the ability for a cluster to connect to a remote cluster and sync data from it. This enables each $[prodname] cluster to have a view into the datastore that includes both local and remote cluster pods.
:::

In this section, we will create a `kubeconfig` for each cluster. This `kubeconfig` is what other clusters will use to connect to a given cluster and synchronize data from it.
Expand Down
Original file line number Diff line number Diff line change
Expand Up @@ -14,7 +14,7 @@ Utilize $[prodname] to establish cross-cluster connectivity.

At some point in your Kubernetes journey, you may have applications that need to access services and workloads running in another cluster.

By default, pods can only communicate with pods within the same cluster. Additionally, services and network policy only select pods from within the same cluster. $[prodname] can help overcome these barriers by forming a cluster mesh the following features:
By default, pods can only communicate with pods within the same cluster. Additionally, services and network policy only select pods from within the same cluster. $[prodname] can help overcome these barriers by forming a cluster mesh that provides the following features:
- **Federated endpoint identity**

Allow a local Kubernetes cluster to include the workload endpoints (pods) and host endpoints of a remote cluster in the calculation of local network policies applied on each node of the local cluster.
Expand Down
Original file line number Diff line number Diff line change
Expand Up @@ -34,7 +34,7 @@ Note: much like intra-cluster routing in $[prodname], cross-cluster routing can

### Generate credentials for cross-cluster resource synchronization
:::tip[mental model]
The basis of cluster mesh is the ability for a cluster connect to a remote cluster and sync data from it. This enables each $[prodname] cluster to have a view into the datastore that includes both local and remote cluster pods.
The basis of cluster mesh is the ability for a cluster to connect to a remote cluster and sync data from it. This enables each $[prodname] cluster to have a view into the datastore that includes both local and remote cluster pods.
:::

In this section, we will create a `kubeconfig` for each cluster. This `kubeconfig` is what other clusters will use to connect to a given cluster and synchronize data from it.
Expand Down
Original file line number Diff line number Diff line change
Expand Up @@ -14,7 +14,7 @@ Utilize $[prodname] to establish cross-cluster connectivity.

At some point in your Kubernetes journey, you may have applications that need to access services and workloads running in another cluster.

By default, pods can only communicate with pods within the same cluster. Additionally, services and network policy only select pods from within the same cluster. $[prodname] can help overcome these barriers by forming a cluster mesh the following features:
By default, pods can only communicate with pods within the same cluster. Additionally, services and network policy only select pods from within the same cluster. $[prodname] can help overcome these barriers by forming a cluster mesh that provides the following features:
- **Federated endpoint identity**

Allow a local Kubernetes cluster to include the workload endpoints (pods) and host endpoints of a remote cluster in the calculation of local network policies applied on each node of the local cluster.
Expand Down
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