For 7 years, AWS users have been using Skeddly to lower their AWS bills by starting & stopping EC2 and RDS instances, along with Redshift and ElastiCache clusters. Now, Azure users can join the party too.
Today, we’re adding support for Microsoft Azure by adding two new actions:
These are our first actions for Azure, launching our foray into multi-cloud management.
Similar to our actions for AWS, our Azure actions can start and stop your virtual machines in order to reduce your cloud costs. Used strategically, these can be used to reduce your Azure bills by up to 65%.
Today, we’re adding support for another AWS service to Skeddly: Amazon AppStream 2.0.
Amazon AppStream is a service provided by Amazon Web Services that allows you to stream desktop applications through a web browser. Applications run on the Amazon servers, and you interact with the applications through your web browser.
Amazon AppStream is often forgotten when it comes to cost-saving strategies. Many times, these applications are line-of-business applications that only need to be available during business hours, Monday through Friday.
Today, we’re helping you achieve those cost savings by adding a new action: Start AppStream Fleets.
Today we’re happy to announce two new reports available to Skeddly users:
Both of these reports will cross-reference resources in your AWS account against actions in your Skeddly account to determine how “covered” you are.
Last week, at the AWS Summit San Francisco, AWS unveiled the new AWS Secrets Manager service. This new service allows you to:
This service enables you to avoid storing database credentials and other secrets in configuration files on your servers. Secrets can be retrieved and used dynamically.
It’s basically doing for any secret what “IAM Roles for EC2 Instances” did for IAM access keys.
But the real power of the AWS Secrets Manager comes from the automated rotation. This allows you to change your passwords every 30 days (for example).
Back in 2016, AWS extended the resource ID length from 8 characters to 17 characters. Back then, this change applied to EC2 instances, EBS snapshots, EBS volumes, and EC2 instance reservation IDs.
Now they’re doing it again with the remainder of EC2 resource types, such as:
For example, short AMI image IDs are like ami-12345678 and long AMI image IDs are like ami-12345678901234567.
Here’s what you need to know about the longer resource IDs and their impact.
In our previous posts, I showed you how to copy your DB and Aurora snapshots to ensure they are preserved beyond the lifetime of your RDS instance. However, those copies were simply second copies in the same region as the original
In this post, I’ll show you how to copy your RDS snapshots to a second region for extra protection. Please note that I will restrict this post to unencrypted snapshots. Copying encrypted snapshots is more involved, so I’ll show that in a separate post.
RDS snapshots can be unencrypted or they can be encrypted at rest. Today, best practice is to use encryption-at-rest on your RDS instances and clusters, and to encrypt your RDS snapshots.
When you create an RDS snapshot from an RDS instance or cluster, the resulting snapshot will be encrypted if the source instance or cluster is encrypted. But if the source is not encrypted, then your RDS snapshot is not encrypted. When you create an RDS snapshot, you are not given the option to encrypt it.
However, when you copy an RDS snapshot, you can add or change the KMS keys used. So, if you have an unencrypted RDS snapshot that you want to encrypt, you can encrypt it by copying it, encrypting it along the way.
RDS cluster snapshots are snapshots created from Amazon RDS Aurora clusters. RDS snapshots created from MySQL, PostgreSQL, MariaDB, Oracle, and Microsoft SQL Server instances are different. Those are considered “DB snapshots” and are handled differently.
Aurora cluster snapshots are created from an Aurora cluster. All Aurora instances share the same underlying cluster data. So when you create a snapshot for Aurora, you are creating it from the cluster, not the instances.
The Aurora cluster snapshots can be copied for longer data retention beyond the standard RDS cluster snapshot lifetime, which maxes-out at 35 days. Also, the automated RDS snapshots are deleted when the RDS cluster is deleted. So if you need to preserve your data after the cluster is deleted, then you’ll need to make a copy of it yourself.
In this example, we’ll copy our RDS Aurora snapshot within the same region.
RDS DB snapshots are snapshots created from Amazon RDS DB instances. Those being MySQL, PostgreSQL, MariaDB, Oracle, and Microsoft SQL Server. Amazon Aurora also has snapshots, however, those are considered “cluster snapshots” and are handled differently.
The DB snapshots can be copied for longer data retention beyond the standard RDS instance snapshot lifetime, which maxes-out at 35 days. Also, the automated RDS snapshots are deleted when the RDS instance is deleted. So if you need to preserve your data after the instance is deleted, then you’ll need to make a copy of it yourself.
In this example, we’ll copy our RDS DB snapshot within the same region.