In-Memory Computing
Keep active data close to compute and reduce unnecessary data movement for latency-sensitive workloads.
A high-performance data architecture combining transactional processing, distributed in-memory computing, SQL, vector search and AI connectivity.
MariaDB + GridGain brings together persistent data and high-velocity in-memory processing to support real-time applications, analytics and agentic AI.
Modern AI applications need more than a powerful model. They need immediate access to operational data, historical information, documents, business rules and real-time context.
When that information is spread across databases, caches, analytics systems and vector stores, every additional data movement can add latency and operational complexity.
The goal is not to eliminate every specialized technology. It is to minimize unnecessary data movement and bring computation closer to the data that matters.
Each capability solves a different part of the modern enterprise data problem.
Keep active data close to compute and reduce unnecessary data movement for latency-sensitive workloads.
Extend familiar SQL access across distributed data, supporting scalable queries, transactions and analytics.
Search enterprise information by semantic similarity and provide relevant context to RAG and AI workloads.
Provide AI applications and agents with a structured, governed interface to enterprise data and tools.
The distributed in-memory foundation behind GridGain, designed for data locality, scale-out processing and high-performance workloads.
The real architectural advantage comes from keeping related data and computation close together.
Partitioning determines where data lives. Colocation keeps related records together. Distributed compute executes where the data already exists.
AI agents need more than documents. They need the live operational context surrounding the question.
Fraud detection, risk scoring, payment decisioning, customer 360 and real-time financial intelligence.
Fraud · Risk · PaymentsNetwork analytics, customer experience, anomaly detection and real-time service optimization.
Network · Analytics · CXPersonalization, inventory visibility, recommendations, pricing and omnichannel intelligence.
Retail · Inventory · AILive fleet data, routing, dispatch optimization, ETA prediction and operational intelligence.
Fleet · Routing · DispatchAI-enabled citizen services, real-time operational platforms and scalable national data infrastructure.
Digital Government · AIReal-time operational intelligence, clinical context, intelligent search and AI-assisted applications.
Healthcare · AI · DataNot every organization needs to replace its database. ComputingERA can identify the workloads where distributed in-memory processing provides the greatest architectural value.
Discuss your current architecture →The next generation of enterprise AI infrastructure will not be defined by GPUs alone.
High-performance AI requires an architecture that connects Data + Compute + Network + Storage + AI as one integrated platform.
Keep transactional data reliable. Bring active data closer to compute. Execute workloads where the data lives. Minimize unnecessary data movement. Add semantic retrieval where AI requires it. Then expose the right context securely to AI applications and agents.
That is fundamentally different from simply adding a cache to a database.
Partitioning, replication, colocation and workload placement.
Assess existing platforms and identify practical modernization paths.
Structured data, vector search, RAG and governed AI access.
Servers, GPUs, storage, networking, Kubernetes and data platforms.
Benchmarking based on your workload rather than generic claims.
The other half is knowing how the technologies fit together inside a real enterprise environment.
Bring your existing database, application or AI workload. We'll evaluate the architecture against your actual requirements.
A high-performance data architecture combining transactional processing, distributed in-memory computing, SQL, vector search and AI connectivity.
MariaDB + GridGain brings together persistent data and high-velocity in-memory processing to support real-time applications, analytics and agentic AI.
Modern AI applications need more than a powerful model. They need immediate access to operational data, historical information, documents, business rules and real-time context.
When that information is spread across databases, caches, analytics systems and vector stores, every additional data movement can add latency and operational complexity.
The goal is not to eliminate every specialized technology. It is to minimize unnecessary data movement and bring computation closer to the data that matters.
Each capability solves a different part of the modern enterprise data problem.
Keep active data close to compute and reduce unnecessary data movement for latency-sensitive workloads.
Extend familiar SQL access across distributed data, supporting scalable queries, transactions and analytics.
Search enterprise information by semantic similarity and provide relevant context to RAG and AI workloads.
Provide AI applications and agents with a structured, governed interface to enterprise data and tools.
The distributed in-memory foundation behind GridGain, designed for data locality, scale-out processing and high-performance workloads.
The real architectural advantage comes from keeping related data and computation close together.
Partitioning determines where data lives. Colocation keeps related records together. Distributed compute executes where the data already exists.
AI agents need more than documents. They need the live operational context surrounding the question.
Fraud detection, risk scoring, payment decisioning, customer 360 and real-time financial intelligence.
Fraud · Risk · PaymentsNetwork analytics, customer experience, anomaly detection and real-time service optimization.
Network · Analytics · CXPersonalization, inventory visibility, recommendations, pricing and omnichannel intelligence.
Retail · Inventory · AILive fleet data, routing, dispatch optimization, ETA prediction and operational intelligence.
Fleet · Routing · DispatchAI-enabled citizen services, real-time operational platforms and scalable national data infrastructure.
Digital Government · AIReal-time operational intelligence, clinical context, intelligent search and AI-assisted applications.
Healthcare · AI · DataNot every organization needs to replace its database. ComputingERA can identify the workloads where distributed in-memory processing provides the greatest architectural value.
Discuss your current architecture →The next generation of enterprise AI infrastructure will not be defined by GPUs alone.
High-performance AI requires an architecture that connects Data + Compute + Network + Storage + AI as one integrated platform.
Keep transactional data reliable. Bring active data closer to compute. Execute workloads where the data lives. Minimize unnecessary data movement. Add semantic retrieval where AI requires it. Then expose the right context securely to AI applications and agents.
That is fundamentally different from simply adding a cache to a database.
Partitioning, replication, colocation and workload placement.
Assess existing platforms and identify practical modernization paths.
Structured data, vector search, RAG and governed AI access.
Servers, GPUs, storage, networking, Kubernetes and data platforms.
Benchmarking based on your workload rather than generic claims.
The other half is knowing how the technologies fit together inside a real enterprise environment.
Bring your existing database, application or AI workload. We'll evaluate the architecture against your actual requirements.
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