What services are communicating with each other? How frequently? What does the service dependency graph look like? What HTTP calls are being made? What Kafka topics does a service consume from or produce cilium-agent pods, and the value is an IPSec configuration in the following format: key-id encryption-algorithms PSK-in-hex-format key-size Note Secret resources need to be deployed in the same namespace as our example, we use kube-system. In the example below, GMC-128-AES is used. However, any of the algorithms supported by Linux may be used. To generate the secret, you may use the following command: $ kubectl

What services are communicating with each other? How frequently? What does the service dependency graph look like? What HTTP calls are being made? What Kafka topics does a service consume from or produce cilium-agent pods, and the value is an IPSec configuration in the following format: key-id encryption-algorithms PSK-in-hex-format key-size Note Secret resources need to be deployed in the same namespace as our example, we use kube-system. In the example below, GCM-128-AES is used. However, any of the algorithms supported by Linux may be used. To generate the secret, you may use the following command: $ kubectl

What services are communicating with each other? How frequently? What does the service dependency graph look like? What HTTP calls are being made? What Kafka topics does a service consume from or produce cilium-agent pods, and the value is an IPSec configuration in the following format: key-id encryption-algorithms PSK-in-hex-format key-size Note Secret resources need to be deployed in the same namespace as example, we use kube-system. In the example below we use GMC-128-AES, but any of the supported Linux algorithms may be used. To generate, use the following: $ kubectl create -n kube-system secret generic cilium-ipsec-keys

secret called cilium-ipsec-keys . In this example we use GCM-128-AES, but any of the supported Linux algorithms may be used. To generate use the following $ kubectl create -n kube-system secret generic cilium-ipsec-keys loops by performing a depth first search of all possible program paths besides other control flow graph valida�ons. The purpose is to make sure that the program is always guaranteed to terminate. A very com/blog/2016-02-08/linux-ebpf-bcc- uprobes.html Feb 2016, Who is waking the waker? (Linux chain graph prototype), Brendan Gregg, h�p://www.brendangregg.com/blog/2016-02-05/ebpf-chaingraph- prototype.html

secret called cilium- ipsec-keys. In this example we use GMC-128-AES, but any of the supported Linux algorithms may be used. To generate use the following $ kubectl create -n kube-system secret generic cilium-ipsec-keys loops by performing a depth first search of all possible program paths besides other control flow graph validations. The purpose is to make sure that the program is always guaranteed to terminate. A very com/blog/2016-02-08/linux-ebpf-bcc- uprobes.html 9. Feb 2016, Who is waking the waker? (Linux chain graph prototype), Brendan Gregg, http://www.brendangregg.com/blog/2016-02-05/ebpf-chaingraph- prototype

secret called cilium-ipsec-keys. In this example we use GMC-128-AES, but any of the supported Linux algorithms may be used. To generate, use the following: $ kubectl create -n kube-system secret generic cilium-ipsec-keys loops by performing a depth first search of all possible program paths besides other control flow graph validations. The purpose is to make sure that the program is always guaranteed to terminate. A very com/blog/2016-02-08/linux-ebpf-bcc- uprobes.html 9. Feb 2016, Who is waking the waker? (Linux chain graph prototype), Brendan Gregg, http://www.brendangregg.com/blog/2016-02-05/ebpf-chaingraph- prototype

What services are communicating with each other? How frequently? What does the service dependency graph look like? What HTTP calls are being made? What Kafka topics does a service consume from or produce secret called cilium-ipsec-keys. In this example we use GMC-128-AES, but any of the supported Linux algorithms may be used. To generate, use the following: $ kubectl create -n kube-system secret generic cilium-ipsec-keys loops by performing a depth first search of all possible program paths besides other control flow graph validations. The purpose is to make sure that the program is always guaranteed to terminate. A very