Autonomous analytics on streaming data
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Automating Big Data Science on Big Data Streaming
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Autonomous analytics on streaming data
- 1. Autonomous Analytics On Streaming Data Claudiu Barbura VP of Engineering, Analytics Platform
- 3. Connecting the User to UBIX Services > CLI tools UBIX Platform Developer IDE UBIX SDK AC
- 4. Data Analytics Platform Unified big data technology stack (spark, cassandra, hadoop, kafka, es..) Cloud agnostic architecture Universal predictive interface (MlLib, VW, scikit-learn, H20, TensorFlow…) Extensible and integration via robust and expressive API (DSL) Enterprise grade: scalability, performance, high availability, geo-replication, resilience, security, manageability, interoperability, testability
- 7. DSL High level abstraction in the form of a simple and concise language that enables power users with advanced analytics functions and optimal usage of the core technology stack Enables AC to automate data science Replaces men/years of development/expertise in big data/ML, 100s of lines of complex code behind single DSL command Enables the creation of full data pipelines (ingestion, transformation, aggregations and statistics, predictive modeling, visualization) with a few lines of code! Enables real time/streaming, interactive and batch workloads under a unified “lambda” architecture Ubix ships with an interactive editing/publishing tool (“DSL Workbench") that allows for building analytical pipelines and publish their output (datasets, models, metrics API) for consumption by user-facing applications Http (REST), WS (WebSocket) or Akka (tcp, AC-only)
- 8. DSL Workbench Demo Goal: • unified lambda architecture in action: multiple workloads running concurrently (streaming + interactive + batch) with persistence in different stores (H* + C* lookup/time series + ES index + ws) serving different query access patterns (large sequential aggregation/scan/offline training vs random access lookups/range queries vs search) • real time processing in async mode (text + sparse + python injection + predict) • interactive visualisation (plot)
- 10. Auto Curious Autonomous data science and analytics discovery Powers insights businesses at scale Auto-curious question graph powers self service advanced analytics Harnesses interactions from user interaction and learns Auto Curious composes DSL and directs both the engine and the presentation
- 16. UBIX Applications Platform Workbench Work directly with the data. Low-level analytics for the power user. AC Model Workbench Test individual workflows and models. Audit and adjust workflow parameters. Data Exploration Allow any user to visually explore and analyze the data. Driven by the Question Graph.
Notas del editor
- Autocurious (AC) is designed to automate the construction of analytical (data science) workflows and associated analytical decision-making.
- Assuming all has gone well, the workbenches and the airline demo will have been shown, so they’ll already seen these and they need no further callout.
- Logical Architecture Diagram
- Physical Architecture Diagram
- Autocurious (AC) is designed to automate the construction of analytical (data science) workflows and associated analytical decision-making. Analytical workflows can be thought of as a (non-linear) sequence of tasks that map to key distinct phases in a given workflow. model construction phase: data is transformed (schematized) into a feature space suitable for training machine learning models “task-to-task” loops
- In AC the resulting analytical workflow tasks reside a goal hierarchy where goals contain sub-goals. At the leaf nodes of the goal hierarchy are task execution “blocks” that generate actual commands for the analysis. Each task can involve one or more one or more decisions the determine how to conduct the analysis.
- This dual learning mechanism combines a knowledge-based expert system approach with a data-driven machine learning approach. Both learning mechanisms are used to inform AC’s data science decision-making at any given step in an analytical workflow. For example, a “schematize model agent” exists for combining expert schematize decisions and data-driven schematize decisions. Similar agents exist for sampling data, data normalization, training and test set construction, feature selection, algorithm selection, hyper-parameter selection, presentation, et