Chapter 4. Basic configuration As a storage administrator, learning the basics of configuring the Ceph Object Gateway is important. You can learn about the defaults and the embedded web server called Beast. For troubleshooting issues with the Ceph Object Gateway, you can adjust the logging and debugging output generated by the Ceph Object Gateway. Also, you can provide a High-Availability proxy for storage cluster access using the Ceph Object Gateway. Prerequisites A running, and healthy Red Hat Ceph Storage cluster. Installation of the Ceph Object Gateway software package. 4.1. Add a wildcard to the DNS You can add the wildcard such as hostname to the DNS record of the DNS server. Prerequisite A running Red Hat Ceph Storage cluster. Ceph Object Gateway installed. Root-level access to the admin node. Procedure To use Ceph with S3-style subdomains, add a wildcard to the DNS record of the DNS server that the ceph-radosgw daemon uses to resolve domain names: Syntax For dnsmasq , add the following address setting with a dot (.) prepended to the host name: Syntax Example For bind , add a wildcard to the DNS record: Example Restart the DNS server and ping the server with a subdomain to ensure that the ceph-radosgw daemon can process the subdomain requests: Syntax Example If the DNS server is on the local machine, you might need to modify /etc/resolv.conf by adding a nameserver entry for the local machine. Add the host name in the Ceph Object Gateway zone group: Get the zone group: Syntax Example Take a back-up of the JSON file: Example View the zonegroup.json file: Example Update the zonegroup.json file with new host name: Example Set the zone group back in the Ceph Object Gateway: Syntax Example Update the period: Example Restart the Ceph Object Gateway so that the DNS setting takes effect. Additional Resources See the The Ceph configuration database section in the Red Hat Ceph Storage Configuration Guide for more details. 4.2. The Beast front-end web server The Ceph Object Gateway provides Beast, a C/C embedded front-end web server. Beast uses the `Boost.Beast` C library to parse HTTP, and Boost.Asio for asynchronous network I/O. Additional Resources Boost C++ Libraries 4.3. Beast configuration options The following Beast configuration options can be passed to the embedded web server in the Ceph configuration file for the RADOS Gateway. Each option has a default value. If a value is not specified, the default value is empty. Option Description Default endpoint and ssl_endpoint Sets the listening address in the form address[:port] where the address is an IPv4 address string in dotted decimal form, or an IPv6 address in hexadecimal notation surrounded by square brackets. The optional port defaults to 8080 for endpoint and 443 for ssl_endpoint . It can be specified multiple times as in endpoint=[::1] endpoint=192.168.0.100:8000 . EMPTY ssl_certificate Path to the SSL certificate file used for SSL-enabled endpoints. EMPTY ssl_private_key Optional path to the private key file used for SSL-enabled endpoints. If one is not given the file specified by ssl_certificate is used as the private key. EMPTY tcp_nodelay Performance optimization in some environments. EMPTY Example /etc/ceph/ceph.conf file with Beast options using SSL: Note By default, the Beast front end writes an access log line recording all requests processed by the server to the RADOS Gateway log file. Additional Resources See Using the Beast front end for more information. 4.4. Configuring SSL for Beast You can configure the Beast front-end web server to use the OpenSSL library to provide Transport Layer Security (TLS). To use Secure Socket Layer (SSL) with Beast, you need to obtain a certificate from a Certificate Authority (CA) that matches the hostname of the Ceph Object Gateway node. Beast also requires the secret key, server certificate, and any other CA in a single .pem file. Important Prevent unauthorized access to the .pem file, because it contains the secret key hash. Important Red Hat recommends obtaining a certificate from a CA with the Subject Alternative Name (SAN) field, and a wildcard for use with S3-style subdomains. Important Red Hat recommends only using SSL with the Beast front-end web server for small to medium sized test environments. For production environments, you must use HAProxy and keepalived to terminate the SSL connection at the HAProxy. If the Ceph Object Gateway acts as a client and a custom certificate is used on the server, you can inject a custom CA by importing it on the node and then mapping the etc/pki directory into the container with the extra_container_args parameter in the Ceph Object Gateway specification file. Prerequisites A running, and healthy Red Hat Ceph Storage cluster. Installation of the Ceph Object Gateway software package. Installation of the OpenSSL software package. Root-level access to the Ceph Object Gateway node. Procedure Create a new file named rgw.yml in the current directory: Example Open the rgw.yml file for editing, and customize it for the environment: Syntax Example Deploy the Ceph Object Gateway using the service specification file: Example 4.5. D3N data cache Datacenter-Data-Delivery Network (D3N) uses high-speed storage, such as NVMe , to cache datasets on the access side. Such caching allows big data jobs to use the compute and fast-storage resources available on each Rados Gateway node at the edge. The Rados Gateways act as cache servers for the back-end object store (OSDs), storing data locally for reuse. Note Each time the Rados Gateway is restarted the content of the cache directory is purged. 4.5.1. Adding D3N cache directory To enable D3N cache on RGW, you need to also include the D3N cache directory in podman unit.run . Prerequisites A running Red Hat Ceph Storage cluster. Ceph Object Gateway installed. Root-level access to the admin node. A fast NVMe drive in each RGW node to serve as the local cache storage. Procedure Create a mount point for the NVMe drive. Syntax Example Create a cache directory path. Syntax Example Provide a+rwx permission to nvme-mount-path and rgw_d3n_l1_datacache_persistent_path . Syntax Example Create/Modify a RGW specification file with extra_container_args to add rgw_d3n_l1_datacache_persistent_path into podman unit.run . Syntax Example Note If there are multiple instances of RGW in a single host, then a separate rgw_d3n_l1_datacache_persistent_path has to be created for each instance and add each path in extra_container_args . Example : For two instances of RGW in each host, create two separate cache-directory under rgw_d3n_l1_datacache_persistent_path : /mnt/nvme0n1/rgw_datacache/rgw1 and /mnt/nvme0n1/rgw_datacache/rgw2 Example for "extra_container_args" in rgw specification file: Example for rgw-spec.yml: : Redeploy the RGW service: Example 4.5.2. Configuring D3N on rados gateway You can configure the D3N data cache on an existing RGW to improve the performance of big-data jobs running in Red Hat Ceph Storage clusters. Prerequisites A running Red Hat Ceph Storage cluster. Ceph Object Gateway installed. Root-level access to the admin node. A fast NVMe to serve as the cache storage. Adding the required D3N-related configuration To enable D3N on an existing RGW, the following configuration needs to be set for each Rados Gateways client : Syntax rgw_d3n_l1_local_datacache_enabled=true rgw_d3n_l1_datacache_persistent_path= path to the cache directory Example rgw_d3n_l1_datacache_size= max_size_of_cache_in_bytes Example Example procedure Create a test object: Note The test object needs to be larger than 4 MB to cache. Example Perform GET of an object: Example Verify cache creation. Cache will be created with the name consisting of object key-name within a configured rgw_d3n_l1_datacache_persistent_path . Example Once the cache is created for an object, the GET operation for that object will access from cache resulting in faster access. Example In the above example, to demonstrate the cache acceleration, we are writing to RAM drive ( /dev/shm ). Additional Resources See the Ceph subsystems default logging level values section in the Red Hat Ceph Storage Troubleshooting Guide for additional details on using high availability. See the Understanding Ceph logs section in the Red Hat Ceph Storage Troubleshooting Guide for additional details on using high availability. 4.6. Adjusting logging and debugging output Once you finish the setup procedure, check your logging output to ensure it meets your needs. By default, the Ceph daemons log to journald , and you can view the logs using the journalctl command. Alternatively, you can also have the Ceph daemons log to files, which are located under the /var/log/ceph/ CEPH_CLUSTER_ID / directory. Important Verbose logging can generate over 1 GB of data per hour. This type of logging can potentially fill up the operating system's disk, causing the operating system to stop functioning. Prerequisites A running Red Hat Ceph Storage cluster. Installation of the Ceph Object Gateway software. Procedure Set the following parameter to increase the Ceph Object Gateway logging output: Syntax Example You can also modify these settings at runtime: Syntax Example Optionally, you can configure the Ceph daemons to log their output to files. Set the log_to_file , and mon_cluster_log_to_file options to true : Example Additional Resources See the Ceph debugging and logging configuration section of the Red Hat Ceph Storage Configuration Guide for more details. 4.7. Static web hosting As a storage administrator, you can configure the Ceph Object Gateway to host static websites in S3 buckets. Traditional website hosting involves configuring a web server for each website, which can use resources inefficiently when content does not change dynamically. For example, sites that do not use server-side services like PHP, servlets, databases, nodejs, and the like. This approach is substantially more economical than setting up virtual machines with web servers for each site. Prerequisites A healthy, running Red Hat Ceph Storage cluster. 4.7.1. Static web hosting assumptions Static web hosting requires at least one running Red Hat Ceph Storage cluster, and at least two Ceph Object Gateway instances for the static web sites. Red Hat assumes that each zone will have multiple gateway instances using a load balancer, such as high-availability (HA) Proxy and keepalived . Important Red Hat DOES NOT support using a Ceph Object Gateway instance to deploy both standard S3/Swift APIs and static web hosting simultaneously. Additional Resources See the High availability service section in the Red Hat Ceph Storage Object Gateway Guide for additional details on using high availability. 4.7.2. Static web hosting requirements Static web hosting functionality uses its own API, so configuring a gateway to use static web sites in S3 buckets requires the following: S3 static web hosting uses Ceph Object Gateway instances that are separate and distinct from instances used for standard S3/Swift API use cases. Gateway instances hosting S3 static web sites should have separate, non-overlapping domain names from the standard S3/Swift API gateway instances. Gateway instances hosting S3 static web sites should use separate public-facing IP addresses from the standard S3/Swift API gateway instances. Gateway instances hosting S3 static web sites load balance, and if necessary terminate SSL, using HAProxy/keepalived. 4.7.3. Static web hosting gateway setup To enable a Ceph Object Gateway for static web hosting, set the following options: Syntax Example The rgw_enable_static_website setting MUST be true . The rgw_enable_apis setting MUST enable the s3website API. The rgw_dns_name and rgw_dns_s3website_name settings must provide their fully qualified domains. If the site uses canonical name extensions, then set the rgw_resolve_cname option to true . Important The FQDNs of rgw_dns_name and rgw_dns_s3website_name MUST NOT overlap. 4.7.4. Static web hosting DNS configuration The following is an example of assumed DNS settings, where the first two lines specify the domains of the gateway instance using a standard S3 interface and point to the IPv4 and IPv6 addresses. The third line provides a wildcard CNAME setting for S3 buckets using canonical name extensions. The fourth and fifth lines specify the domains for the gateway instance using the S3 website interface and point to their IPv4 and IPv6 addresses. Note The IP addresses in the first two lines differ from the IP addresses in the fourth and fifth lines. If using Ceph Object Gateway in a multi-site configuration, consider using a routing solution to route traffic to the gateway closest to the client. The Amazon Web Service (AWS) requires static web host buckets to match the host name. Ceph provides a few different ways to configure the DNS, and HTTPS will work if the proxy has a matching certificate. Hostname to a Bucket on a Subdomain To use AWS-style S3 subdomains, use a wildcard in the DNS entry which can redirect requests to any bucket. A DNS entry might look like the following: Access the bucket name, where the bucket name is bucket1 , in the following manner: Hostname to Non-Matching Bucket Ceph supports mapping domain names to buckets without including the bucket name in the request, which is unique to Ceph Object Gateway. To use a domain name to access a bucket, map the domain name to the bucket name. A DNS entry might look like the following: Where the bucket name is bucket2 . Access the bucket in the following manner: Hostname to Long Bucket with CNAME AWS typically requires the bucket name to match the domain name. To configure the DNS for static web hosting using CNAME, the DNS entry might look like the following: Access the bucket in the following manner: Hostname to Long Bucket without CNAME If the DNS name contains other non-CNAME records, such as SOA , NS , MX or TXT , the DNS record must map the domain name directly to the IP address. For example: Access the bucket in the following manner: 4.7.5. Creating a static web hosting site To create a static website, perform the following steps: Create an S3 bucket. The bucket name MIGHT be the same as the website's domain name. For example, mysite.com may have a bucket name of mysite.com . This is required for AWS, but it is NOT required for Ceph. See the Static web hosting DNS configuration section in the Red Hat Ceph Storage Object Gateway Guide for details. Upload the static website content to the bucket. Contents may include HTML, CSS, client-side JavaScript, images, audio/video content, and other downloadable files. A website MUST have an index.html file and might have an error.html file. Verify the website's contents. At this point, only the creator of the bucket has access to the contents. Set permissions on the files so that they are publicly readable. 4.8. High availability for the Ceph Object Gateway As a storage administrator, you can assign many instances of the Ceph Object Gateway to a single zone. This allows you to scale out as the load increases, that is, the same zone group and zone; however, you do not need a federated architecture to use a highly available proxy. Since each Ceph Object Gateway daemon has its own IP address, you can use the ingress service to balance the load across many Ceph Object Gateway daemons or nodes. The ingress service manages HAProxy and keepalived daemons for the Ceph Object Gateway environment. You can also terminate HTTPS traffic at the HAProxy server, and use HTTP between the HAProxy server and the Beast front-end web server instances for the Ceph Object Gateway. Prerequisites At least two Ceph Object Gateway daemons running on different hosts. Capacity for at least two instances of the ingress service running on different hosts. 4.8.1. High availability service The ingress service provides a highly available endpoint for the Ceph Object Gateway. The ingress service can be deployed to any number of hosts as needed. Red Hat recommends having at least two supported Red Hat Enterprise Linux servers, each server configured with the ingress service. You can run a high availability (HA) service with a minimum set of configuration options. The Ceph orchestrator deploys the ingress service, which manages the haproxy and keepalived daemons, by providing load balancing with a floating virtual IP address. The active haproxy distributes all Ceph Object Gateway requests to all the available Ceph Object Gateway daemons. A virtual IP address is automatically configured on one of the ingress hosts at a time, known as the primary host. The Ceph orchestrator selects the first network interface based on existing IP addresses that are configured as part of the same subnet. In cases where the virtual IP address does not belong to the same subnet, you can define a list of subnets for the Ceph orchestrator to match with existing IP addresses. If the keepalived daemon and the active haproxy are not responding on the primary host, then the virtual IP address moves to a backup host. This backup host becomes the new primary host. Warning Currently, you can not configure a virtual IP address on a network interface that does not have a configured IP address. Important To use the secure socket layer (SSL), SSL must be terminated by the ingress service and not at the Ceph Object Gateway. 4.8.2. Configuring high availability for the Ceph Object Gateway To configure high availability (HA) for the Ceph Object Gateway you write a YAML configuation file, and the Ceph orchestrator does the installation, configuraton, and management of the ingress service. The ingress service uses the haproxy and keepalived daemons to provide high availability for the Ceph Object Gateway. Prerequisites A minimum of two hosts running Red Hat Enterprise Linux 8, or higher, for installing the ingress service on. A healthy running Red Hat Ceph Storage cluster. A minimum of two Ceph Object Gateway daemons running on different hosts. Root-level access to the host running the ingress service. If using a firewall, then open port 80 for HTTP and port 443 for HTTPS traffic. Procedure Create a new ingress.yaml file: Example Open the ingress.yaml file for editing. Added the following options, and add values applicable to the environment: Syntax 1 Must be set to ingress . 2 Must match the existing Ceph Object Gateway service name. 3 Where to deploy the haproxy and keepalived containers. 4 The virtual IP address where the ingress service is available. 5 The port to access the ingress service. 6 The port to access the haproxy load balancer status. 7 Optional list of available subnets. 8 Optional SSL certificate and private key. Example Launch the Cephadm shell: Example Configure the latest haproxy and keepalived images: Syntax Red Hat Enterprise Linux 8 Red Hat Enterprise Linux 9 Install and configure the new ingress service using the Ceph orchestrator: After the Ceph orchestrator completes, verify the HA configuration. On the host running the ingress service, check that the virtual IP address appears: Example Try reaching the Ceph Object Gateway from a Ceph client: Syntax Example If this returns an index.html with similar content as in the example below, then the HA configuration for the Ceph Object Gateway is working properly. Example Additional resources See the Performing a Standard RHEL Installation Guide for more details. See the High availability service section in the Red Hat Ceph Storage Object Gateway Guide for more details.

Commands:
bucket-name.domain-name.com
address=/. HOSTNAME_OR_FQDN / HOST_IP_ADDRESS
address=/.gateway-host01/192.168.122.75
USDTTL 604800 @ IN SOA gateway-host01. root.gateway-host01. ( 2 ; Serial 604800 ; Refresh 86400 ; Retry 2419200 ; Expire 604800 ) ; Negative Cache TTL ; @ IN NS gateway-host01. @ IN A 192.168.122.113 * IN CNAME @
ping mybucket. HOSTNAME
ping mybucket.gateway-host01
radosgw-admin zonegroup get --rgw-zonegroup= ZONEGROUP_NAME > zonegroup.json
radosgw-admin zonegroup get --rgw-zonegroup=us > zonegroup.json
cp zonegroup.json zonegroup.backup.json
cat zonegroup.json { "id": "d523b624-2fa5-4412-92d5-a739245f0451", "name": "asia", "api_name": "asia", "is_master": "true", "endpoints": [], "hostnames": [], "hostnames_s3website": [], "master_zone": "d2a3b90f-f4f3-4d38-ac1f-6463a2b93c32", "zones": [ { "id": "d2a3b90f-f4f3-4d38-ac1f-6463a2b93c32", "name": "india", "endpoints": [], "log_meta": "false", "log_data": "false", "bucket_index_max_shards": 11, "read_only": "false", "tier_type": "", "sync_from_all": "true", "sync_from": [], "redirect_zone": "" } ], "placement_targets": [ { "name": "default-placement", "tags": [], "storage_classes": [ "STANDARD" ] } ], "default_placement": "default-placement", "realm_id": "d7e2ad25-1630-4aee-9627-84f24e13017f", "sync_policy": { "groups": [] } }
"hostnames": ["host01", "host02","host03"],
radosgw-admin zonegroup set --rgw-zonegroup= ZONEGROUP_NAME --infile=zonegroup.json
radosgw-admin zonegroup set --rgw-zonegroup=us --infile=zonegroup.json
radosgw-admin period update --commit
[client.rgw.node1] rgw frontends = beast ssl_endpoint=192.168.0.100:443 ssl_certificate=<path to SSL certificate>
touch rgw.yml
service_type: rgw service_id: SERVICE_ID service_name: SERVICE_NAME placement: hosts: - HOST_NAME spec: ssl: true rgw_frontend_ssl_certificate: CERT_HASH
service_type: rgw service_id: foo service_name: rgw.foo placement: hosts: - host01 spec: ssl: true rgw_frontend_ssl_certificate: | -----BEGIN RSA PRIVATE KEY----- MIIEpAIBAAKCAQEA+Cf4l9OagD6x67HhdCy4Asqw89Zz9ZuGbH50/7ltIMQpJJU0 gu9ObNtIoC0zabJ7n1jujueYgIpOqGnhRSvsGJiEkgN81NLQ9rqAVaGpadjrNLcM bpgqJCZj0vzzmtFBCtenpb5l/EccMFcAydGtGeLP33SaWiZ4Rne56GBInk6SATI/ JSKweGD1y5GiAWipBR4C74HiAW9q6hCOuSdp/2WQxWT3T1j2sjlqxkHdtInUtwOm j5Ism276IndeQ9hR3reFR8PJnKIPx73oTBQ7p9CMR1J4ucq9Ny0J12wQYT00fmJp -----END RSA PRIVATE KEY----- -----BEGIN CERTIFICATE----- MIIEBTCCAu2gAwIBAgIUGfYFsj8HyA9Zv2l600hxzT8+gG4wDQYJKoZIhvcNAQEL BQAwgYkxCzAJBgNVBAYTAklOMQwwCgYDVQQIDANLQVIxDDAKBgNVBAcMA0JMUjEM MAoGA1UECgwDUkhUMQswCQYDVQQLDAJCVTEkMCIGA1UEAwwbY2VwaC1zc2wtcmhj czUtOGRjeHY2LW5vZGU1MR0wGwYJKoZIhvcNAQkBFg5hYmNAcmVkaGF0LmNvbTAe -----END CERTIFICATE-----
ceph orch apply -i rgw.yml
mkfs.ext4 nvme-drive-path
mkfs.ext4 /dev/nvme0n1 mount /dev/nvme0n1 /mnt/nvme0n1/
mkdir <nvme-mount-path>/cache-directory-name
mkdir /mnt/nvme0n1/rgw_datacache
chmod a+rwx nvme-mount-path ; chmod a+rwx rgw_d3n_l1_datacache_persistent_path
chmod a+rwx /mnt/nvme0n1 ; chmod a+rwx /mnt/nvme0n1/rgw_datacache/
"extra_container_args: "-v" "rgw_d3n_l1_datacache_persistent_path:rgw_d3n_l1_datacache_persistent_path" "
cat rgw-spec.yml service_type: rgw service_id: rgw.test placement: hosts: host1 host2 extra_container_args: "-v" "/mnt/nvme0n1/rgw_datacache/:/mnt/nvme0n1/rgw_datacache/"
"extra_container_args: "-v" "/mnt/nvme0n1/rgw_datacache/rgw1/:/mnt/nvme0n1/rgw_datacache/rgw1/" "-v" "/mnt/nvme0n1/rgw_datacache/rgw2/:/mnt/nvme0n1/rgw_datacache/rgw2/" "
cat rgw-spec.yml service_type: rgw service_id: rgw.test placement: hosts: host1 host2 count_per_host: 2 extra_container_args: "-v" "/mnt/nvme0n1/rgw_datacache/rgw1/:/mnt/nvme0n1/rgw_datacache/rgw1/" "-v" "/mnt/nvme0n1/rgw_datacache/rgw2/:/mnt/nvme0n1/rgw_datacache/rgw2/"
ceph orch apply -i rgw-spec.yml
ceph config set <client.rgw> <CONF-OPTION> <VALUE>
rgw_d3n_l1_datacache_persistent_path=/mnt/nvme/rgw_datacache/
rgw_d3n_l1_datacache_size=10737418240
fallocate -l 1G ./1G.dat s3cmd mb s3://bkt s3cmd put ./1G.dat s3://bkt
s3cmd get s3://bkt/1G.dat /dev/shm/1G_get.dat download: 's3://bkt/1G.dat' -> './1G_get.dat' [1 of 1] 1073741824 of 1073741824 100% in 13s 73.94 MB/s done
ls -lh /mnt/nvme/rgw_datacache rw-rr. 1 ceph ceph 1.0M Jun 2 06:18 cc7f967c-0021-43b2-9fdf-23858e868663.615391.1_shadow.ZCiCtMWeu_19wb100JIEZ-o4tv2IyA_1
s3cmd get s3://bkt/1G.dat /dev/shm/1G_get.dat download: 's3://bkt/1G.dat' -> './1G_get.dat' [1 of 1] 1073741824 of 1073741824 100% in 6s 155.07 MB/s done
ceph config set client.rgw debug_rgw VALUE
ceph config set client.rgw debug_rgw 20
ceph --admin-daemon /var/run/ceph/ceph-client.rgw. NAME .asok config set debug_rgw VALUE
ceph --admin-daemon /var/run/ceph/ceph-client.rgw.rgw.asok config set debug_rgw 20
ceph config set global log_to_file true ceph config set global mon_cluster_log_to_file true
ceph config set client.rgw OPTION VALUE
ceph config set client.rgw rgw_enable_static_website true ceph config set client.rgw rgw_enable_apis s3,s3website ceph config set client.rgw rgw_dns_name objects-zonegroup.example.com ceph config set client.rgw rgw_dns_s3website_name objects-website-zonegroup.example.com ceph config set client.rgw rgw_resolve_cname true
objects-zonegroup.domain.com. IN A 192.0.2.10 objects-zonegroup.domain.com. IN AAAA 2001:DB8::192:0:2:10 *.objects-zonegroup.domain.com. IN CNAME objects-zonegroup.domain.com. objects-website-zonegroup.domain.com. IN A 192.0.2.20 objects-website-zonegroup.domain.com. IN AAAA 2001:DB8::192:0:2:20
*.objects-website-zonegroup.domain.com. IN CNAME objects-website-zonegroup.domain.com.
http://bucket1.objects-website-zonegroup.domain.com
www.example.com. IN CNAME bucket2.objects-website-zonegroup.domain.com.
http://www.example.com
www.example.com. IN CNAME www.example.com.objects-website-zonegroup.domain.com.
http://www.example.com
www.example.com. IN A 192.0.2.20 www.example.com. IN AAAA 2001:DB8::192:0:2:20
http://www.example.com
[root@host01 ~] touch ingress.yaml
service_type: ingress 1 service_id: SERVICE_ID 2 placement: 3 hosts: - HOST1 - HOST2 - HOST3 spec: backend_service: SERVICE_ID virtual_ip: IP_ADDRESS / CIDR 4 frontend_port: INTEGER 5 monitor_port: INTEGER 6 virtual_interface_networks: 7 - IP_ADDRESS / CIDR ssl_cert: | 8
service_type: ingress service_id: rgw.foo placement: hosts: - host01.example.com - host02.example.com - host03.example.com spec: backend_service: rgw.foo virtual_ip: 192.168.1.2/24 frontend_port: 8080 monitor_port: 1967 virtual_interface_networks: - 10.10.0.0/16 ssl_cert: | -----BEGIN CERTIFICATE----- MIIEpAIBAAKCAQEA+Cf4l9OagD6x67HhdCy4Asqw89Zz9ZuGbH50/7ltIMQpJJU0 gu9ObNtIoC0zabJ7n1jujueYgIpOqGnhRSvsGJiEkgN81NLQ9rqAVaGpadjrNLcM bpgqJCZj0vzzmtFBCtenpb5l/EccMFcAydGtGeLP33SaWiZ4Rne56GBInk6SATI/ JSKweGD1y5GiAWipBR4C74HiAW9q6hCOuSdp/2WQxWT3T1j2sjlqxkHdtInUtwOm j5Ism276IndeQ9hR3reFR8PJnKIPx73oTBQ7p9CMR1J4ucq9Ny0J12wQYT00fmJp -----END CERTIFICATE----- -----BEGIN PRIVATE KEY----- MIIEBTCCAu2gAwIBAgIUGfYFsj8HyA9Zv2l600hxzT8+gG4wDQYJKoZIhvcNAQEL BQAwgYkxCzAJBgNVBAYTAklOMQwwCgYDVQQIDANLQVIxDDAKBgNVBAcMA0JMUjEM MAoGA1UECgwDUkhUMQswCQYDVQQLDAJCVTEkMCIGA1UEAwwbY2VwaC1zc2wtcmhj czUtOGRjeHY2LW5vZGU1MR0wGwYJKoZIhvcNAQkBFg5hYmNAcmVkaGF0LmNvbTAe -----END PRIVATE KEY-----
cephadm shell --mount ingress.yaml:/var/lib/ceph/radosgw/ingress.yaml
ceph config set mgr mgr/cephadm/container_image_haproxy HAPROXY_IMAGE_ID ceph config set mgr mgr/cephadm/container_image_keepalived KEEPALIVED_IMAGE_ID
ceph config set mgr mgr/cephadm/container_image_haproxy registry.redhat.io/rhceph/rhceph-haproxy-rhel8:latest ceph config set mgr mgr/cephadm/container_image_keepalived registry.redhat.io/rhceph/keepalived-rhel8:latest
ceph config set mgr mgr/cephadm/container_image_haproxy registry.redhat.io/rhceph/rhceph-haproxy-rhel9:latest ceph config set mgr mgr/cephadm/container_image_keepalived registry.redhat.io/rhceph/keepalived-rhel9:latest
ceph orch apply -i /var/lib/ceph/radosgw/ingress.yaml
ip addr show
wget HOST_NAME
wget host01.example.com
<?xml version="1.0" encoding="UTF-8"?> <ListAllMyBucketsResult xmlns="http://s3.amazonaws.com/doc/2006-03-01/"> <Owner> <ID>anonymous</ID> <DisplayName></DisplayName> </Owner> <Buckets> </Buckets> </ListAllMyBucketsResult>