diff --git a/app/_how-tos/mesh/deploy-mesh-scoped-zone-proxies.md b/app/_how-tos/mesh/deploy-mesh-scoped-zone-proxies.md
new file mode 100644
index 0000000000..6658cbae81
--- /dev/null
+++ b/app/_how-tos/mesh/deploy-mesh-scoped-zone-proxies.md
@@ -0,0 +1,387 @@
+---
+title: 'Deploy mesh-scoped zone proxies'
+description: 'Deploy {{site.mesh_product_name}} zone ingress and zone egress using the new per-mesh Helm configuration. Each entry in `kuma.meshes[]` renders its own Deployment, Service, and Dataplane listeners, replacing the cluster-scoped `kuma.ingress` and `kuma.egress` keys.'
+content_type: how_to
+permalink: /mesh/zone-proxies/
+bread-crumbs:
+  - /mesh/
+related_resources:
+  - text: 'Multi-zone deployment'
+    url: '/mesh/mesh-multizone-service-deployment/'
+
+min_version:
+  mesh: '2.14'
+
+products:
+  - mesh
+
+tldr:
+  q: How do I deploy mesh-scoped zone ingress and zone egress with the new Helm configuration?
+  a: |
+    1. Create a `Mesh` with `spec.meshServices.mode: Exclusive` and a `MeshIdentity` on the global control plane.
+    1. Install each zone control plane with a `kuma.meshes[]` entry.
+    1. {{site.mesh_product_name}} renders a per-mesh Deployment and Service for each role, and generates the Dataplane listeners automatically.
+
+prereqs:
+  inline:
+    - title: Helm
+      include_content: prereqs/helm
+    - title: minikube
+      content: |
+        You will need [minikube](https://minikube.sigs.k8s.io/docs/start/) to run three local Kubernetes clusters (one global and two zones).
+
+cleanup:
+  inline:
+    - title: Clean up {{site.mesh_product_name}} resources
+      content: |
+        Delete the three minikube profiles:
+
+        ```sh
+        minikube delete -p mesh-global
+        minikube delete -p mesh-zone-1
+        minikube delete -p mesh-zone-2
+        ```
+---
+
+Starting in {{site.mesh_product_name}} 2.14, zone ingress and zone egress are **mesh-scoped**.
+Instead of the cluster-scoped `kuma.ingress.enabled` / `kuma.egress.enabled` Helm keys, you declare a `kuma.meshes[]` list in your zone control plane's values.
+Each entry renders its own Deployment, Service, and Dataplane for that mesh, and zone proxies now carry per-mesh workload identity so policies can target them directly.
+
+This guide walks through a fresh three-cluster setup: a global control plane and two zone control planes, each deploying a zone ingress and zone egress through the new `kuma.meshes[]` configuration.
+
+## Start the global control plane cluster
+
+1. Create a new minikube cluster for the global control plane:
+
+   ```sh
+   minikube start -p mesh-global
+   ```
+
+1. Start a minikube tunnel so the `LoadBalancer` services we create later get an external address:
+
+   {:.info}
+   > Using `nohup` lets the tunnel continue running if your terminal session ends.
+   > The `--bind-address=0.0.0.0` flag exposes the tunnel to other minikube clusters via `host.minikube.internal`.
+
+   ```sh
+   nohup minikube tunnel -p mesh-global --bind-address=0.0.0.0 &
+   ```
+
+## Deploy the global control plane
+
+1. Install the global control plane:
+
+   ```sh
+   helm repo add kong-mesh https://kong.github.io/kong-mesh-charts
+   helm repo update
+   helm install --kube-context mesh-global --create-namespace --namespace kong-mesh-system \
+     --set kuma.controlPlane.mode=global \
+     --set kuma.controlPlane.defaults.skipMeshCreation=true \
+     kong-mesh kong-mesh/kong-mesh
+   ```
+
+   We skip default mesh creation because we will apply a custom `Mesh` in the next step.
+
+1. Wait for the control plane to become ready:
+
+   ```sh
+   kubectl --context mesh-global -n kong-mesh-system wait \
+     --for=condition=ready pod --selector=app=kong-mesh-control-plane --timeout=120s
+   ```
+
+1. Export the KDS address that the zone control planes will connect to:
+
+   ```sh
+   export EXTERNAL_IP=host.minikube.internal
+   ```
+
+   {:.info}
+   > Outside minikube, resolve the `kong-mesh-global-zone-sync` service address instead:
+   >
+   > ```sh
+   > export EXTERNAL_IP=$(kubectl --context mesh-global -n kong-mesh-system \
+   >   get svc kong-mesh-global-zone-sync -o jsonpath='{.status.loadBalancer.ingress[0].ip}')
+   > ```
+
+## Create the mesh on the global control plane
+
+Zone proxy listeners are only generated when the mesh uses `MeshService` exclusive mode.
+If you skip this, the zone proxies install but produce no listeners.
+
+1. Create the mesh and allow all traffic:
+
+   ```sh
+   echo 'apiVersion: kuma.io/v1alpha1
+   kind: Mesh
+   metadata:
+     name: default
+   spec:
+     meshServices:
+       mode: Exclusive
+   ---
+   apiVersion: kuma.io/v1alpha1
+   kind: MeshTrafficPermission
+   metadata:
+     name: allow-all
+     namespace: kong-mesh-system
+     labels:
+       kuma.io/mesh: default
+   spec:
+     targetRef:
+       kind: Mesh
+     from:
+       - targetRef:
+           kind: Mesh
+         default:
+           action: Allow' | kubectl --context mesh-global apply -f -
+   ```
+
+## Create a MeshIdentity
+
+Zone egress listeners need a workload identity to terminate mTLS for cross-zone traffic.
+Apply a `MeshIdentity` on the global control plane so it syncs to every zone.
+
+```sh
+{% raw %}echo 'apiVersion: kuma.io/v1alpha1
+kind: MeshIdentity
+metadata:
+  name: identity
+  namespace: kong-mesh-system
+  labels:
+    kuma.io/mesh: default
+spec:
+  selector:
+    dataplane:
+      matchLabels: {}
+  spiffeID:
+    trustDomain: "{{ .Mesh }}.{{ .Zone }}.mesh.local"
+  provider:
+    type: Bundled
+    bundled:
+      meshTrustCreation: Enabled
+      insecureAllowSelfSigned: true
+      certificateParameters:
+        expiry: 24h
+      autogenerate:
+        enabled: true' | kubectl --context mesh-global apply -f -{% endraw %}
+```
+
+{:.info}
+> `insecureAllowSelfSigned: true` keeps the demo simple by using the bundled CA.
+> For production, follow the [`MeshIdentity` guide](/mesh/mesh-identity/) to integrate a SPIRE trust domain or an external CA.
+
+## Deploy zone-1 with mesh-scoped zone proxies
+
+A `kuma.meshes[]` entry tells the chart which mesh the zone proxies belong to.
+Each entry renders its own Deployment, Service, and ServiceAccount for the ingress and egress roles.
+
+1. Start the zone-1 cluster and its tunnel:
+
+   ```sh
+   minikube start -p mesh-zone-1
+   nohup minikube tunnel -p mesh-zone-1 --bind-address=0.0.0.0 &
+   ```
+
+1. Get the host IP that all minikube clusters can reach:
+
+   ```sh
+   export HOST_IP=$(minikube ssh -p mesh-zone-1 -- getent hosts host.minikube.internal | awk '{print $1}')
+   echo $HOST_IP
+   ```
+
+1. Save the following as `zone-1-values.yaml`, replacing `${EXTERNAL_IP}` and `${HOST_IP}` with the values you exported:
+
+   ```yaml
+   kuma:
+     controlPlane:
+       mode: zone
+       zone: zone-1
+       kdsGlobalAddress: grpcs://${EXTERNAL_IP}:5685
+       tls:
+         kdsZoneClient:
+           skipVerify: true
+     meshes:
+       - name: default
+         ingress:
+           enabled: true
+           service:
+             spec:
+               externalIPs:
+                 - ${HOST_IP}
+         egress:
+           enabled: true
+   ```
+
+   `service.spec` is merged into the ingress `Service` spec, so the ingress advertises a `MeshZoneAddress` that other zones can reach.
+   Without it, minikube's tunnel sets the external address to `127.0.0.1`, which does not route between clusters.
+
+   To deploy zone proxies for additional meshes, append more entries to `kuma.meshes`.
+
+1. Install the zone control plane together with the zone ingress and egress for `default`:
+
+   ```sh
+   helm install --kube-context mesh-zone-1 --create-namespace --namespace kong-mesh-system \
+     -f zone-1-values.yaml \
+     kong-mesh kong-mesh/kong-mesh
+   ```
+
+## Deploy zone-2 with the same configuration
+
+1. Start the zone-2 cluster and its tunnel:
+
+   ```sh
+   minikube start -p mesh-zone-2
+   nohup minikube tunnel -p mesh-zone-2 --bind-address=0.0.0.0 &
+   ```
+
+1. Save the following as `zone-2-values.yaml`, replacing `${EXTERNAL_IP}` and `${HOST_IP}` with the values you exported:
+
+   ```yaml
+   kuma:
+     controlPlane:
+       mode: zone
+       zone: zone-2
+       kdsGlobalAddress: grpcs://${EXTERNAL_IP}:5685
+       tls:
+         kdsZoneClient:
+           skipVerify: true
+     meshes:
+       - name: default
+         ingress:
+           enabled: true
+           service:
+             port: 10002
+             spec:
+               externalIPs:
+                 - ${HOST_IP}
+         egress:
+           enabled: true
+   ```
+
+   {:.info}
+   > Zone-2's ingress uses port `10002` so it doesn't collide with zone-1's ingress on port `10001` when both tunnels publish to the same host address.
+
+1. Install the zone control plane and its zone proxies:
+
+   ```sh
+   helm install --kube-context mesh-zone-2 --create-namespace --namespace kong-mesh-system \
+     -f zone-2-values.yaml \
+     kong-mesh kong-mesh/kong-mesh
+   ```
+
+## Propagate trust between zones
+
+Each zone generates a `MeshTrust` containing its local CA bundle.
+For cross-zone mTLS to work, each zone must trust the other zone's CA.
+Republish each zone's trust bundle to the global control plane so it syncs everywhere.
+
+1. Export zone-1's trust bundle and apply it to the global CP:
+
+   ```sh
+   kubectl --context mesh-zone-1 -n kong-mesh-system get meshtrust identity -o yaml | \
+     sed 's/name: identity/name: trust-of-zone-1/' | \
+     sed '/resourceVersion:/d' | \
+     sed '/uid:/d' | \
+     sed '/creationTimestamp:/d' | \
+     sed '/generation:/d' | \
+     sed 's/kuma.io\/origin: zone/kuma.io\/origin: global/' | \
+     kubectl --context mesh-global apply -f -
+   ```
+
+1. Export zone-2's trust bundle and apply it to the global CP:
+
+   ```sh
+   kubectl --context mesh-zone-2 -n kong-mesh-system get meshtrust identity -o yaml | \
+     sed 's/name: identity/name: trust-of-zone-2/' | \
+     sed '/resourceVersion:/d' | \
+     sed '/uid:/d' | \
+     sed '/creationTimestamp:/d' | \
+     sed '/generation:/d' | \
+     sed 's/kuma.io\/origin: zone/kuma.io\/origin: global/' | \
+     kubectl --context mesh-global apply -f -
+   ```
+
+The global control plane syncs these trust bundles to all zones, enabling cross-zone certificate validation.
+
+## Inspect what the chart produced
+
+1. List the per-mesh Deployments and Services in zone-1:
+
+   ```sh
+   kubectl --context mesh-zone-1 -n kong-mesh-system get deploy,svc -l kuma.io/mesh=default
+   ```
+
+   You'll see a `kong-mesh-default-ingress` and `kong-mesh-default-egress` Deployment, each with a matching Service.
+   A second mesh would produce another pair named after its mesh.
+
+1. Confirm the Services carry the new `k8s.kuma.io/zone-proxy-type` label.
+   The Pod controller watches this label and generates the Dataplane listeners from it:
+
+   ```sh
+   kubectl --context mesh-zone-1 -n kong-mesh-system get svc \
+     -l k8s.kuma.io/zone-proxy-type -L k8s.kuma.io/zone-proxy-type
+   ```
+
+1. From the global control plane, look at the Dataplanes.
+   Zone proxies are now ordinary `Dataplane` resources with `networking.listeners[]` entries instead of separate `ZoneIngress` or `ZoneEgress` resources:
+
+   ```sh
+   kubectl --context mesh-global get dataplane -A
+   ```
+
+1. Confirm that no legacy zone proxy resources exist.
+   Both lists should be empty:
+
+   ```sh
+   kubectl --context mesh-global get zoneingresses,zoneegresses -A
+   ```
+   {:.no-copy-code}
+
+1. Inspect the `MeshZoneAddress` resources.
+   The `meshzoneaddress` controller in each zone generates these automatically from the zone ingress Service's external address, so remote zones can route to them:
+
+   ```sh
+   kubectl --context mesh-zone-1 get meshzoneaddress -A
+   kubectl --context mesh-zone-2 get meshzoneaddress -A
+   ```
+
+## Verify cross-zone traffic
+
+1. Deploy the {{site.mesh_product_name}} demo app into each zone:
+
+   ```sh
+   for ctx in mesh-zone-1 mesh-zone-2; do
+     kubectl --context $ctx create namespace kuma-demo \
+       --dry-run=client -o yaml | kubectl --context $ctx apply -f -
+     kubectl --context $ctx label namespace kuma-demo \
+       kuma.io/sidecar-injection=enabled --overwrite
+     kubectl --context $ctx apply -f https://raw.githubusercontent.com/kumahq/kuma-counter-demo/refs/heads/master/demo.yaml
+   done
+   ```
+
+1. From a `demo-app` pod in zone-1, curl the `demo-app` Service in zone-2 using its cross-zone hostname:
+
+   ```sh
+   kubectl --context mesh-zone-1 -n kuma-demo exec deploy/demo-app -c demo-app -- \
+     curl -s http://demo-app.kuma-demo.svc.zone-2.mesh.local:5000/
+   ```
+
+   The request leaves zone-1 through the zone egress, enters zone-2 through the zone ingress, and hits the `demo-app` pod there.
+
+   {:.info}
+   > If the request times out, check that the minikube tunnels are still running.
+   > Tunnels can become unresponsive after sleep/wake cycles; restart them with `minikube tunnel -p <profile> --bind-address=0.0.0.0`.
+
+1. Confirm the traffic passed through the zone-2 zone ingress by reading its sidecar stats:
+
+   ```sh
+   kubectl --context mesh-zone-2 -n kong-mesh-system exec deploy/kong-mesh-default-ingress -c kuma-sidecar -- \
+     wget -qO- 'localhost:9901/stats?filter=upstream_rq_total'
+   ```
+
+   `upstream_rq_total` for the `demo-app` cluster should be greater than zero.
+
+## Next steps
+
+<!--- Target individual zone proxy listeners from policies with `sectionName` - covered in a follow-up guide.-->
+<!--- Read the [`MeshIdentity`](/mesh/mesh-identity/) guide to switch the bundled CA for a production issuer.-->
diff --git a/app/_indices/mesh.yaml b/app/_indices/mesh.yaml
index 1648107e0f..fa61d6d3ae 100644
--- a/app/_indices/mesh.yaml
+++ b/app/_indices/mesh.yaml
@@ -43,6 +43,7 @@ sections:
       - path: /mesh/mesh-multi-tenancy/
       - path: /mesh/single-zone/
       - path: /mesh/mesh-multizone-service-deployment/
+      - path: /mesh/zone-proxies/
       - path: /mesh/interact-with-control-plane/
       - path: /mesh/use-mesh-cli/
       - path: /mesh/annotations/