Platform Architecture

The XYB Platform is designed with a modular, microservices-based architecture that enables financial institutions to build, scale, and evolve at their own pace. Unlike monolithic systems, XYB is composed of independently deployable services, each optimized for specific business functions and performance. With cloud-native deployment, asynchronous communication, and dedicated data stores for each service, the platform ensures high availability, scalability, and fault tolerance. The three-tier structure - Service, Component, and Solution layers lets institutions build from the ground up or deploy fully integrated solutions out of the box, all while maintaining complete control over customization, security, and operational efficiency.


Key Highlights

  • Decoupled microservices with independent data stores

  • Cloud-native, Kubernetes-orchestrated deployment

  • Composable architecture supporting custom workflows and modular adoption

  • Secure by design with RBAC, MFA, audit logs, and zero-trust communication

  • Supports both hosted and Bring Your Own Account (BYOA) models


Three-Layer Architecture

Layer

Description

Service Layer

Core financial services: ledger, payments, lending

Component Layer

Deployable modules: accounts, payment processing, transaction monitoring

Solution Layer

Pre-packaged financial workflows combining multiple components


Core Infrastructure Components

Component

Purpose

Secure Gateway & Adapters

Manages secure external access and partner integrations

Kubernetes Orchestration

Enables auto-scaling, containerized deployment, and efficient resource management

Workflow Engine

Automates business logic like approvals and notifications, with future low-code enhancements

Deployment Flexibility

Supports XYB-managed (single-tenant) or client-managed (BYOA) cloud deployments


Performance & Scalability Features

  • Auto-scaling for real-time infrastructure optimization

  • Read/Write replication for high database performance

  • Load balancing & caching to reduce latency and handle traffic spikes

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