Frequently Asked Questions and Netezza Timeline
Technical answers to common questions about Netezza, data warehousing, database replication, and data migration. Plus a complete history of the Netezza platform from 2000 to present.
Technical answers to common questions about Netezza, data warehousing, database replication, and data migration. Plus a complete history of the Netezza platform from 2000 to present.
The IBM Netezza Performance Server (NPS) is an advanced, cloud-native data warehouse designed for unified, scalable analytics, business intelligence, and AI/Machine Learning (ML) workloads on petabyte-scale data volumes.
| Feature | Details |
|---|---|
| Purpose | High-performance enterprise data warehousing |
| Architecture | Asymmetric Massively Parallel Processing (AMPP) with S-Blades and FPGAs |
| Performance | Fast query execution via parallel S-Blade processing |
| Deployment | Appliance, SaaS, SaaS-BYOC, Software-Only |
| Scalability | AI-infused elastic scaling |
| Analytics / AI | In-database analytics, geospatial, ML/AI, watsonx.data integration |
| Integration | Apache Iceberg, Parquet |
Containerization packages software code with all configuration files, libraries, and dependencies so it runs uniformly on any infrastructure. Unlike virtual machines, containers share the host OS kernel, making them lightweight, faster to start, and more portable.
Docker (2013) popularised the approach. IBM offers Podman, which is native to OpenShift (acquired via the Red Hat acquisition in 2019).
Key benefits include: portability across environments, fault isolation, ease of management, improved security, higher server efficiency, and lower licensing costs.
Kubernetes (K8S) is an open-source container orchestration platform created by Google in 2015 and donated to the Cloud Native Computing Foundation (CNCF) under the Linux Foundation.
In the context of containerized Netezza, Kubernetes monitors data and host nodes, restarts failed ones, groups containers into clusters, and decides CPU allocation.
Key features include:
Red Hat OpenShift is a commercial product derived from Kubernetes. Red Hat was one of the first companies to work with Google on K8S, and OpenShift has become the leading enterprise Kubernetes platform.
OpenShift enables a cloud-like experience everywhere: in the cloud, on-premises, and at the edge.
Key differences between OpenShift and Kubernetes:
Hyperconverged Infrastructure (HCI) uses virtualisation software to combine all traditional data centre elements (storage, networking, compute, and management) into a distributed infrastructure platform.
HCI abstracts and pools underlying resources, then dynamically allocates them to virtual machines or containers as needed.
A data warehouse is a computer system designed for reporting and data analysis. The concept dates back to the late 1980s, when dedicated data warehouse systems evolved to reduce the strain on legacy systems during periods of transaction growth.
Today, data sources include websites, mobile applications, and IoT devices. A data warehouse provides centralised analytics that are kept separate from operational systems.
The three most common types of data warehouse are:
A data warehouse provides the following benefits:
A typical data warehouse implementation has four layers:
Business Intelligence (BI) assists data-driven decisions by combining analytics, data mining, visualisation, tools, and best practices. The term was originally coined in 1865 by Richard Millar Devens. Modern BI development accelerated with Edgar Codd's relational database model.
Core BI activities include:
A cloud data warehouse is delivered in the public cloud as a managed service. There are three delivery models:
Hybrid cloud computing combines on-premises infrastructure (private cloud) with public cloud services. Proprietary software enables communication between the two environments.
This approach offers the best of both worlds: organisations can optimise on-premises and cloud resources for their respective workloads, choosing the right environment for each use case.
Smart Database Replication offers several capabilities beyond what Netezza Replication Services provides:
| Feature | Smart DB Replication | Netezza Replication Services |
|---|---|---|
| Cross-type appliance support | Yes | No |
| Multi-master replication | Yes | No |
| Same DB in different replication sets | Yes | No |
| Partial database restore | Yes | No |
| Partial table data restore | Yes | No |
| Cross-database view fixing | Yes | No |
| Data auto-healing | Yes | No |
| Configurable resync frequency | Yes | No |
| Basic replication | Yes | Yes |
| Incremental replication | Yes | Yes |
| Full database restore | Yes | Yes |
| Scheduled replication | Yes | Yes |
| Monitoring and alerting | Yes | Yes |
Smart Database Replication is bi-directional (BDR), allowing all nodes to function as primary systems. This provides a natural division of users across your infrastructure.
Each master also acts as a disaster recovery site for the others, giving you built-in resilience without requiring a dedicated standby system.
SmartSafe automates migration using incremental replication. You can replicate data continuously, dual-run old and new systems side by side, and control the timing of your cutover.
This approach is also useful for evaluating cloud solutions: replicate your data to a cloud target, run tests, and make your decision with confidence.
Yes. You can replicate a subset of production data to development or test environments. Smart Database Replication can maintain a rolling window (for example, the last 6 months of data) or use percentage-based replication to keep target environments at a manageable size.
Yes. Smart Database Replication works with all Netezza versions, from PureData Nx00x series through to the latest Netezza on System/Cloud. You can run old and new systems in parallel, then cut over when you are ready.
Mean Time to Recovery (MTTR) is the average time required to recover a system to a fully operational state after a failure. It is a key measure of your disaster recovery fitness.
MTTR must be tested regularly, not just defined as an objective. Without real testing, recovery time estimates are unreliable.
Recovery Point Objective (RPO) defines how much data an organisation can afford to lose after an outage. It factors in the volume of transactions since the last backup or replication checkpoint.
A shorter RPO means less potential data loss, but typically requires more frequent replication or backup operations.
Smart Data Frameworks (SDF) handles non-Netezza targets. It can trickle-feed changes from a source system until you are ready to switch.
SDF also includes a Database Replication feature that supports migrations from Netezza to platforms such as Yellowbrick.
Database Activity Monitoring (DAM) is a security practice that involves tracking and analysing database queries to detect unauthorised access, breaches, and anomalies.
DAM helps organisations meet compliance requirements such as GDPR and HIPAA. Core capabilities include real-time monitoring, anomaly detection, audit trails, and compliance reporting.
There are two primary challenges:
Modern solutions address these challenges through machine learning, statistical analysis, and query pattern recognition.
The two main approaches to database activity monitoring are:
The best approach for most organisations is a hybrid method that combines elements of both.
Data migration is the process of permanently transferring data between storage systems. It is an important part of system implementation, upgrades, and consolidation projects.
For data warehouse migrations, the process is typically highly automated. Data migration has become increasingly common as businesses move workloads to the cloud.
According to Gartner (2019), more than 50% of data migration projects exceed their budget or timeline. Having a clear strategy is essential. There are three common approaches:
End of Support looming for CP4DS 1.0.7.8 (Hammerhead). Organisations still running this release need to plan their next step.
Read More →Hardware refresh of Hammerhead with updated processors, faster storage, and improved networking capabilities.
Read More →Smart Associates extends support to include CP4D, launching a 3-tier service that bundles Smart Management Frameworks (SMF).
Read More →CP4DS 1.0.7.8 (codename Hammerhead): Cloud Pak for Data without the OpenShift layer, designed for NPS-only workload customers.
Netezza reintroduced as the Netezza Performance Server within IBM Cloud Pak for Data, enabling cloud-native and hybrid deployments.
IBM announces that all PureData models will reach End of Support in 2019, creating urgency for migration planning.
Read More →An evolutionary step over the Striper, offering significant performance and data capacity gains.
Upgrade to the TwinFin platform with increased performance, a modern operating system, and faster components.
IBM rebrands Netezza as PureData for Analytics, introducing the N1001, N200x, and N300x model numbers.
Entry-level appliance for small and mid-sized businesses, built on the same architecture as the TwinFin.
Next-generation systems released following the IBM acquisition, expanding the product line.
IBM acquires Netezza for $1.7 billion, bringing the data warehouse appliance into the IBM portfolio.
Fourth-generation appliance built on commodity IBM blade servers with AMPP architecture, delivering petabyte-scale analytics.
Smart Associates is founded and becomes Netezza's preferred global support partner.
Read More →Netezza launches the first integrated data warehouse appliance system using shared-nothing massively parallel processing (MPP) architecture.
Founded as Intelligent Data Engines by Foster Hinshaw, later renamed Netezza after co-founder Jit Saxena joins the company.
Get in touch and our team will respond within one business day.
Contact Us