How Databricks Simplifies ML Model Development

Simplifying Machine Learning: Databricks’ Scalable and Collaborative Approach

Machine learning (ML) model development is widely characterized by its complexity. Effectively developing, deploying, managing, monitoring the performance, tracking versions, and sharing models is key to avoiding confusion, particularly when thousands of them are being experimented with, tested, or put into production at the same time.

As ML operations (MLOps) continue to evolve, data professionals increasingly seek a unified, machine learning platform to test, train, deploy, and monitor the performance of the models with minimal friction. Databricks, along with tools like MLflow, simplifies the ML lifecycle, right from data preparation to deployment, ensuring a seamless yet more rigorous and reproducible process.

Here are the key ways Databricks enhances the model creation process:

Unified Data Platform

The collaborative workspace in Databricks integrates tools for data engineering, data science, and business analytics. The unified environment uses a single source of truth that enables teams to efficiently work together, reducing silos and fostering a data-driven culture. From handling raw data to creating inference tables that log each request and response for a served model, the platform consolidates all the functions, streamlining the entire ML process. All the assets—models, functions, and datasets—are governed by a central catalog. As a result, it becomes easy to identify performance issues and maintain model quality with the built-in tracking and monitoring features, ensuring the process is traceable and streamlined.    

Scalability and Infrastructure

Powered by Apache Spark, Databricks offers a flexible and scalable infrastructure for handling large datasets. Leveraging Spark’s distributed processing framework, the platform allows parallel data analysis, significantly reducing processing time. Its autoscaling feature dynamically adjusts cluster resources, enabling seamless performance even as data volume and machine learning workloads increase.

AutoML Capabilities

The Databricks platform provides support for AutoML to automatically handle tasks such as data preprocessing, model selection, hyperparameter tuning, and model evaluation. AutoML in Databricks is built on top of open-source libraries, such as MLFlow and Hyperopt to streamline the machine learning workflow. It simplifies ML model development for users of different levels of expertise by providing both a low-code user interface and a Python API. After the data professional selects a specific dataset and ML problem type, AutoML handles data cleaning, orchestrates distributed model training across open-source evaluation algorithms such as scikit-learn, LightGBM, ARIMA, XGBoost, and, Prophet, and identifies the ideal performing model.

AutoML handles the classification, regression, and forecasting tasks by generating Notebooks for each trial. This allows professionals to review, replicate, and customize the code. Data exploration notebooks and the best trial can be automatically imported into the workspace. The rest of the trial notebooks, stored in the form of MLflow artifacts, can be manually imported through the AutoML Experiment UI.

AutoML’s approach to automating ML model development processes empowers professionals to create accurate models without extensive data science knowledge. It also delivers clear results and evaluation metrics, making the development process more transparent and efficient.

Comprehensive ML Lifecycle Support

Databricks platform offers multiple features that holistically support the entire ML lifecycle. These features include:

  • Data ingestion and preparation: Databricks facilitates the capturing of raw data from various sources, allowing professionals to merge the batch and streaming data, thereby maintaining data quality through scheduled transformations and versioning.
  • Feature Engineering (Feature Extraction and Feature Selection): Databricks provides a powerful, scalable, and flexible environment for performing feature engineering with a combination of Apache Spark, PySpark, Python, and integration with other popular libraries such as pandas, scikit-learn, and MLFlow. This includes support for both feature extraction and feature selection, which are critical aspects of the machine learning workflow.
  • Model training and experiment tracking: Databricks automatically tracks experiments, code, results, and model artifacts in a central hub, making it easier to reproduce results and manage model versions.
  • Deployment and monitoring: The Databricks platform simplifies the deployment of models into production and includes built-in monitoring tools to track model performance and data quality over time. This ensures model accuracy and regulatory compliance.

Advanced Analytics and Integration

Databricks supports diverse ML and deep learning frameworks, including scikit-learn, TensorFlow, and PyTorch. This compatibility provides data professionals the flexibility to use the tools they know best in an optimized environment. Additionally, the platform features advanced analytics capabilities of exploratory data analysis and interactive visualizations, which offer deeper insights from the datasets.

In conclusion, Databricks has become a game-changer for ML model development with its feature-rich comprehensive, collaborative, and scalable platform that simplifies and streamlines every aspect of the ML lifecycle, from data preparation through deployment to monitoring.

Altysys leverages Databricks to improve their productivity in ML model development and deployment, empowering industry-wide organizations to take advantage of the benefits of machine learning and AI effectively in their operations, regardless of their technical expertise.


Sumit Verma
Author:
Sumit Verma
Solutions Architect

Enhancing patient outcomes in healthcare with modern data lakes

With the rising volume of patient data and growing AI applications, healthcare organizations need robust data foundations to activate analytics at scale.

Healthcare data is rapidly growing in variety and volume. Every year, a typical patient generates nearly 80 MB of data in the form of radiological imaging, blood work, clinical notes, and prescriptions.[1] Therefore, unlike in other industries, healthcare data comprises both structured and unstructured data of differing formats.

At the same time, data is driving some of the most advanced use cases in healthcare technology today. From clinical decisioning to connected patient experiences, data is at the heart of large-scale care delivery transformation programs.

With falling costs of computation and the development of healthcare-specific AI applications, all care providers need to activate analytics at scale. Data lake technology is the answer to this pressing need in healthcare digital transformation.

Limitations of traditional data architectures

Despite significant leaps in AI and ML, healthcare organizations were limited by the data architectures that supported analytics over the last decade. Data warehouses were at the core of most architectural patterns, whereas structured data represented only a small fraction of healthcare data.

Moreover, data warehouses proved very costly for healthcare organizations: a 1 TB warehouse supporting 100,000 queries would cost north of $450,000 annually.[2] In addition, extensibility and scalability were a major limitation in on-prem models. Support for live data streams was difficult to implement, and pre-processing steps consumed a lot of time.

While cloud lowered the infrastructure costs, security and compliance were still a key concern for care providers. With these factors, healthcare organizations were expected to function like a technology company – a move that couldn’t be justified without proving RoI to senior leaders.

Why data lakes for healthcare analytics?

The challenges posed by data warehouses are no longer a limitation in healthcare analytics, thanks to the evolution of the data lake architecture.

What is a data lake?

Data lakes enable healthcare organizations to centralize the storage of structured and unstructured data, and unify the processing layer – thus enabling teams to consume analytics-ready data at scale. Because the schema of the data is not predefined, various use cases can be implemented over the data lake – like diagnostic decision support, remote patient monitoring, and so on.

Data lakes can be implemented on compliant cloud environments, where security operations can be handled centrally with Role or Policy-based access control (RBAC/PBAC).

How data lakes enhance patient outcomes

Data lakes are typically viewed from the perspective of data production and consumption. In a typical healthcare organization, data producers include:

  • EHRs,
  • medical device-generated data,
  • admin and pharmacy data,
  • files from radiology,
  • data streams from wearables, and
  • primary care data.

This data is unified and stored in its native format, allowing consumers – i.e., various analytics use cases, to manipulate it as needed. Data lakes are typically housed in low-cost storage tiers, enabling significant cost savings compared to data warehouses.

By making this data available in a central location, data lakes power complex analytics solutions. For instance, at the patient level, they can help with disease prediction, forecasting the trajectory of chronic conditions, and devising targeted treatment programs. This is facilitated by drawing inferences from various data sources at the same time. Moreover, hospitals can offer outpatient solutions like prescription adherence and continuous monitoring to drive better patient outcomes in the long run.

At the hospital level, data lakes can facilitate enhanced collaboration between physicians, and coordination with 3rd parties like payers and insurers.

To sum it up, these applications not only enhance the quality of care but also the patient experience at each stage of their journey – from the front desk to post-discharge care.

Next steps

How to modernize the data foundation at your healthcare organization

Building a data lake should begin with a thorough assessment of the use cases that your healthcare organization plans to implement. Based on this, data engineers devise an optimal architecture along with data governance mechanisms to support those use cases.

This is followed by configuration of the cloud environment, data integration, and cataloging. At first, such an initiative may seem daunting to hospitals with limited technical talent. However, data lakes and downstream analytics solutions can be easily implemented in collaboration with a technology partner that specializes in healthcare digital transformation. With trustworthy experts, the vision of connected, AI-enabled care is now within reach for healthcare organizations.


[1] https://publichealth.tulane.edu/blog/data-driven-decision-making/
[2]https://www.striim.com/blog/data-warehouse-vs-data-lake-vs-data-lakehouse-an-overview/


Saurabh Jain
Author:
Saurabh Jain
GM Business Development

Knowledge Center

Case Study

ML-Powered Approach to Revolutionizing Debt Recovery

Fintech startup improved its debt collection efficiency with Altysys’ ML-powered predictive solution

Read More
Case Study

Smarter Banking with AI-Powered Customer Assistance

US-based banking major implements an assistance bot and enhances customer satisfaction with Altysys’ GenAI-powered solution

Read More
Case Study

Reducing Manual Search Efforts by 50% with AI-Driven Data Retrieval

Pharma major enhanced its drug commercial data search capabilities using Altysys’ GenAI-powered solutions

Read More
Case Study

Optimizing Customer Insights with AI

Revolutionizing Executive Decision-Making with Real-Time Customer Analytics.

Read More
Case Study

Customer Assistance Bot

Leading pharma distributor improved customer satisfaction and brand rating using Altysys’ GenAI-powered solutions.

Read More
Case Study

Facility Volume Prediction

E-Commerce giant enhances its facility’s efficiency using Altysys’ advanced analytics solutions

Read More