Cloudera Machine Learning overview
Machine learning has become one of the most critical capabilities for modern businesses to grow and stay competitive today. From automating internal processes to optimizing the design, creation, and marketing processes behind virtually every product consumed, ML models have permeated almost every aspect of our work and personal lives.
ML development is iterative and complex, made even harder because most ML tools aren’t built for the entire machine learning lifecycle. Cloudera Machine Learning on Cloudera Data Platform accelerates time-to-value by enabling data scientists to collaborate in a single unified platform that is all inclusive for powering any AI use case. Purpose-built for agile experimentation and production ML workflows, Cloudera Machine Learning manages everything from data preparation to MLOps, to predictive reporting. Solve mission critical ML challenges along the entire lifecycle with greater speed and agility to discover opportunities which can mean the difference for your business.
Each ML workspace enables teams of data scientists to develop, test, train, and ultimately deploy machine learning models for building predictive applications all on the data under management within the enterprise data cloud. ML workspaces support fully-containerized execution of Python, R, Scala, and Spark workloads through flexible and extensible engines.
Analytical Applications provide a place to host long running applications within a CML project.
While CML offers a place for Data Scientists to perform advanced analytics and models into production, Analytical Applications provides a place to host long running applications within a CML project. This opens up a larger group of users to the insights discovered in CML. Applications can be built with a variety of frameworks like Flask and Streamlit. They run within their own isolated compute instance which keeps them from timing out and they take advantage of ML Runtimes. Applications are accessible to users through the web. Applications can be for a variety of use cases like hosting interactive data visualizations or providing a UI frontend for a deployed mode in CML.
Exploratory Data Science
CML enables data practitioners to discover, query, and easily visualize their data sets all within a single user interface.
The beginning of every data science project begins with finding and understanding the data you need. CML brings all the tools you need for exploratory data analysis together in a single UI so that data practitioners don't have to jump between applications, and IT doesn't have to support multiple tools. CML provides users with a view of available data assets that they can connect to, a sql editor to query those data sources, and an easy-to-use drag-and-drop visualization tool to understand your data and communicate insights.
CML enables users to deploy machine learning and other models into production.
CML enables users to deploy machine learning and other models into production, either as a batch process through the Jobs functionality, or as near-real-time REST APIs using the Models functionality. In addition, CML provides a number of features to help maintain, monitor and govern these models in production. The Model Governance feature ensures that every deployed Model is tracked in the Cloudera Data Catalog, and allows the user to specify which data tables were used to train the model in order to provide model-data lineage. Deployed Models have a built-in dashboard for monitoring technical metrics relating to deployed CML Models, such as request throughput, latency, and resource consumption. Additionally, users can track arbitrary business metrics relating to each inference event, and match the results with delayed metrics from a data warehouse or other source using an automatically generated UUID. By analyzing these metrics, the user can assess the model for aggregated metrics such as accuracy on an ongoing basis.
This section details the core capabilities for Cloudera Machine Learning.
Cloudera Machine Learning covers the end-to-end machine learning workflow, enabling fully isolated and containerized workloads - including Python, R, and Spark-on-Kubernetes - for scale-out data engineering and machine learning with seamless distributed dependency management.
Sessions enable Data Scientists to directly leverage the CPU, memory, and GPU compute available across the workspace, while also being directly connected to the data in the data lake.
Experiments enable Data Scientists to run multiple variations of model training workloads, tracking the results of each Experiment in order to train the best possible Model.
Models can be deployed in a matter of clicks, removing any roadblocks to production. They are served as REST endpoints in a high availability manner, with automated lineage building and metric tracking for MLOps purposes.
Jobs can be used to orchestrate an entire end-to-end automated pipeline, including monitoring for model drift and automatically kicking off model re-training and re-deployment as needed.
Applications deliver interactive experiences for business users in a matter of clicks. Frameworks such as Flask and Shiny can be used in development of these Applications, while Cloudera Data Visualization is also available as a point-and-click interface for building these experiences.
Cloudera Machine Learning benefits
This section details the Cloudera Machine Learning benefits for each type of user.
Cloudera Machine Learning is built for the agility and power of cloud computing, but is not limited to any one provider or data source. It is a comprehensive platform to collaboratively build and deploy machine learning capabilities at scale.
Cloudera Machine Learning provides benefits for each type of user.
Enable DS teams to collaborate and speed model development and delivery with transparent, secure, and governed workflows
Expand AI use cases with automated ML pipelines and an integrated and complete production ML toolkit
Empower faster decision making and trust with end-to-end visibility and auditability of data, processes, models, and dashboards
Increase DS productivity with visibility, security, and governance of the complete ML lifecycle
Eliminate silos, blindspots, and the need to move/duplicate data with a fully integrated platform across the data lifecycle.
Accelerate AI with self-service access and containerized ML workspaces that remove the heavy lifting and get models to production faster
Access interactive Applications built and deployed by DS teams.
Be empowered with predictive insights to more intelligently make business decisions.
Key differences between Cloudera Machine Learning and Cloudera Data Science Workbench
This topic highlights some key differences between Cloudera Data Science Workbench and its cloud-native counterpart, Cloudera Machine Learning.
How is Cloudera Machine Learning (CML) related to Cloudera Data Science Workbench (CDSW)?
CML expands the end-to-end workflow of Cloudera Data Science Workbench (CDSW) with cloud-native benefits like rapid provisioning, elastic autoscaling, distributed dependency isolation, and distributed GPU training.
It can run its own native distributed computing workloads without requiring a separate CDH cluster for scale-out compute. It is designed to run on CDP in existing Kubernetes environments, reducing operational costs for some customers while delivering multi-cloud portability. On Public Cloud, managed cloud Kubernetes services include EKS, AKS, or GKE, and on Private Cloud, they include Red Hat OpenShift or ECS (Embedded Container Service).
Both products help data engineers and data science teams be more productive on shared data and compute, with strong security and governance. They share extensive code.
CDSW extends an existing CDH cluster, by running on gateway nodes and pushing distributed compute workloads to the cluster. CDSW requires and supports a single CDH cluster for its distributed compute, including Apache Spark.
In contrast, CML is self-contained and manages its own distributed compute, natively running workloads - including but not limited to Apache Spark - in containers on Kubernetes.
Note: It can still connect to an existing cluster to leverage its distributed compute, data, or metadata (SDX).