A walk through in-memory, general compute, and mass storage options for Cassandra, MongoDB, Riak, and HBase workloads
A walk through in-memory, general compute, and mass storage options for Cassandra, MongoDB, Riak, and HBase workloads
A walk through in-memory, general compute, and mass storage options for Cassandra, MongoDB, Riak, and HBase workloads
I recently had the pleasure of attending Cassandra Tech Day in San Jose, a developer-focused event where people were learning about various options for deploying Cassandra clusters. As it turns out, there was a lot of buzz surrounding the new in-memory option for Cassandra and the use cases for it. This interest got me thinking about how to map the options customers have for running Big Data across clouds.
For a specific workload, NoSQL customers may want to have the following:
1. Access to mass storage servers for files and objects (not to be confused with block storage). Instead, we’re talking on-demand access to terabytes of raw spinning disk volumes for running a large storage array (think storage hub for Hadoop/HBase, Cassandra, or MongoDB).
2. Access to High RAM options for running in-memory with the fastest possible response times—the same times you’d need when running the in-memory version of Cassandra or even running Riak or Redis in-memory.
3. Access to high-performance SSDs to run balanced workloads. Think about what happens after you run a batch operation. If you’re relating information back to a product schema, you may want to push that data into something like PostgrSQL, SQL, or even MySQL and have access to block storage.
4. Access to general-purpose instances for dev and test or for workloads that don’t have specific performance SLAs. This ability is particularly important when you’re trialing and evaluating a variety of applications. GoGrid’s customer’s, for example, leverage our 1-Button Deploy™ technology to quickly spin up dev clusters of common NoSQL solutions from MongoDB to Cassandra, Riak, and HBase.
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