TriniTix AI

Technical architecture

How a TriniTix estate is built

The home page explains what we deliver. This page shows how: the reference topology, the patterns behind HPC, EDA, AI and hybrid multi-cloud estates, the tools we standardise on at each layer, and the terminology in plain language.

Reference topology Fabric patterns The nine layers Terminology

Hybrid multi-cloud reference topology

Sites on the left, the primary data center in the middle, public clouds on the right. Compliance runs underneath all of it. Every engagement starts from this shape and removes what is not needed.

Sites and users Bengaluru office Wi-Fi 6E/7 with 802.1X, campus LAN Engineer desktops and thin clients Pixels in, keystrokes out: no design data locally Remote engineers ZTNA / SASE client, MFA Device posture checked before access Partner sites and foundries Site-to-site SD-WAN tunnels Restricted data zones per project TriniTix managed services Remote NOC, out-of-band access Monitoring, patching, capacity planning Runbooks, tickets, monthly reporting Secure edge SD-WAN hub Firewall / IPS IPsec, QoS, path selection Dual WAN: fibre + 5G Private WAN SD-WAN overlay to cloud on-ramps (IPsec) Primary data center / colocation (India) Spine-leaf fabric 100/400GbE, VXLAN/EVPN, BGP, MLAG HPC / EDA compute High-frequency, large-memory nodes Slurm / LSF / Altair queues Bare metal, RHEL / Rocky AI GPU pod 8-GPU nodes, NVLink / NVSwitch InfiniBand NDR or RoCEv2 rails Kubernetes or Slurm on top Scratch tier Parallel FS, NVMe Lustre / WEKA over RDMA Project tier NAS, NFS v4 / SMB NetApp / VAST snapshots, replication Archive tier Object, S3 API Ceph / MinIO erasure coded Identity FreeIPA / AD Kerberos, SSO Licenses FlexNet, RLM Altair Monitor Sessions NICE DCV NoMachine Secrets Vault, PKI PAM Platform operations Monitoring: Prometheus, Grafana, Zabbix. Logging: Elastic / Loki Backup and DR: Veeam, snapshots to object and cloud IaC and GitOps: Terraform, Ansible, Argo CD, Foreman / Warewulf Virtualization layer KVM / vSphere for services; bare metal for compute and GPUs Private interconnect Public clouds AWS Landing zone: accounts, IAM, VPC ParallelCluster for burst HPC GPU instances via Direct Connect Microsoft Azure CycleCloud HPC, Entra ID federation DR target over ExpressRoute Azure Arc for hybrid management Google Cloud Cluster Toolkit, GKE for inference Analytics and BigQuery Cloud Interconnect SaaS and AI services EDA cloud flows, Git, CI External LLMs behind an AI gateway AI-DLP redacts before data leaves Compliance and governance across every zone: identity and MFA, segmentation, SIEM, DLP and AI-DLP, audit trail, policy as code. Aligned to ISO 27001, SOC 2, CIS Benchmarks and the DPDP Act.

Sites and edge

Engineers work through remote sessions, so design data never lands on a laptop. Offices, remote staff and partner sites all enter through one secure edge with SD-WAN, firewalling and zero-trust access.

Primary data center

A spine-leaf Ethernet fabric carries general traffic; a separate InfiniBand or RoCE fabric carries HPC and AI traffic. Storage is tiered by IO pattern. Identity, licenses and sessions are the middleware that every job depends on.

Public clouds

Clouds are used for what they are best at: burst capacity, GPUs on demand, disaster recovery and SaaS. Private interconnects keep latency predictable; a landing zone keeps every account governed from day one.

Three patterns we build most often

Each is a proven topology, adjusted to the measured workload rather than copied from a vendor reference.

Spine 1 Spine 2 Leaf 1 Leaf 2 Leaf 3 Leaf 4 CPU nodes HPC and EDA, 25/100GbE GPU nodes 8 GPUs each, NVLink inside InfiniBand NDR / RoCEv2 rail fabric Parallel FS over RDMA

HPC and AI pod

  • Two-tier spine-leaf for management and storage traffic; every leaf has two uplinks, so any single failure is invisible.
  • A second, non-blocking fabric (InfiniBand NDR or 400GbE RoCEv2 with PFC/ECN) for GPU-to-GPU and MPI traffic.
  • Parallel file system mounted over RDMA; checkpoints land on the scratch tier, results on the project tier.
Engineer desktop / thin client Session broker NICE DCV / NoMachine Scheduler LSF / Slurm / Altair Compute farm high-frequency, large-memory nodes, bare metal License servers FlexNet, RLM (HA) license-aware scheduling Project tier: NAS tools, PDKs, designs; NFS v4 Scratch tier: parallel FS simulation and regression output Identity everywhere: FreeIPA / AD with Kerberos, SSSD on every node

EDA compute farm

  • Engineers work inside the data center through a session broker; only pixels cross the WAN, so sites far from the farm still feel local.
  • The scheduler sees license availability before dispatch, which removes the most common cause of idle compute in a design farm.
  • Tools, PDKs and designs live on a snapshotted NAS; regressions and simulation output go to fast scratch that is not backed up.
AWS Microsoft Azure Google Cloud Direct Connect ExpressRoute Interconnect SD-WAN hub and cloud on-ramps firewall, IPsec overlay, application-aware routing Primary DC / colo private WAN, MPLS Offices, remote SD-WAN edge, ZTNA Partner sites site-to-site tunnels One identity (SSO: SAML / OIDC), one observability stack, one GitOps pipeline across all zones

Hybrid multi-cloud connectivity

  • Private interconnects (Direct Connect, ExpressRoute, Cloud Interconnect) for the data center; SD-WAN overlays for everything else.
  • Identity is federated once (FreeIPA or AD to Entra ID or Okta), so the same login and MFA policy apply on premises and in every cloud console.
  • Terraform, Ansible and Argo CD deploy the same definitions to every zone; Prometheus and Grafana watch all of them from one place.

The nine layers, in technical detail

For each layer: the tools we standardise on, the terms that come up in design reviews, and the topology pattern we apply.

Layer

Widely used tools

Terminology

Topology and pattern

Virtualization

Where services run when they do not need the whole machine.

VMware vSphere / ESXi, KVM with libvirt, Proxmox VE, Nutanix AHV, OpenStack, Red Hat OpenShift Virtualization (KubeVirt), Docker and Podman for containers.

Type-1 hypervisor, HCI, vCPU oversubscription ratio, live migration, snapshots, SR-IOV, PCIe and GPU passthrough, vGPU, NUMA-aware placement, hugepages.

Bare metal for latency-sensitive EDA, HPC and GPU nodes. Virtualized clusters for identity, license servers, CI, monitoring and web services. HCI for small sites. Containers for stateless services and inference.

SD-WAN

How sites, clouds and data centers are joined securely.

Cisco Catalyst SD-WAN (Viptela), Cisco Meraki, Fortinet Secure SD-WAN, VMware VeloCloud, Versa Networks, Palo Alto Prisma SD-WAN.

Underlay and overlay, IPsec tunnels, application-aware routing, path quality (loss, latency, jitter), QoS, hub-and-spoke versus full mesh, SASE, ZTNA, zero-touch provisioning, cloud on-ramp.

Hub at the primary data center or colocation, spokes at offices and partner sites, on-ramps into AWS, Azure and Google Cloud. Dual WAN at every site (fibre plus 5G) with automatic failover and per-application steering.

Storage

Where design data, simulation output and training sets live.

NetApp ONTAP, Dell PowerScale, Pure Storage, VAST Data, WEKA, Lustre, BeeGFS, IBM Storage Scale (GPFS), Ceph, MinIO, ZFS and TrueNAS.

NFS v3/v4, SMB, S3 object, parallel file system, NVMe-oF, RDMA, IOPS versus throughput versus latency, metadata performance, tiering (hot, warm, cold), snapshots, replication, erasure coding, RPO and RTO.

Three tiers: scratch (parallel, NVMe, not backed up), project (NAS with snapshots and replication), archive (object, erasure coded). EDA is metadata-heavy, so the project tier is all-flash NAS; AI training sets sit on the parallel tier or object with a local cache.

Compute

The CPU fleet, and how it is provisioned and tuned.

Intel Xeon, AMD EPYC, Arm (Ampere, NVIDIA Grace). RHEL, Rocky Linux, AlmaLinux, Ubuntu. Warewulf, xCAT, Foreman, Kickstart and PXE, Ansible, Spack, Environment Modules and Lmod.

Cores versus threads (SMT), base and turbo clocks, NUMA, memory bandwidth and channels, hugepages, CPU pinning, BIOS and power profiles, stateless (diskless) nodes, image-based provisioning, kernel tuning.

EDA tools are often single-thread bound: high-frequency nodes with large memory per core. HPC favours high core counts and memory bandwidth. Nodes are grouped into homogeneous pools, one per scheduler queue, provisioned from a single golden image.

Acceleration

GPUs and other accelerators, and the fabric between them.

NVIDIA H100, H200 and B200 (HGX and DGX systems), AMD Instinct MI300, Intel Gaudi, FPGAs from AMD (Xilinx) and Intel (Altera), dataflow accelerators. CUDA, ROCm, oneAPI, TensorRT, NCCL and RCCL.

NVLink and NVSwitch, PCIe Gen5, MIG (multi-instance GPU), time-slicing, GPUDirect RDMA and GPUDirect Storage, HBM, FP8 and BF16 precision, tensor cores, TDP and rack power density, liquid cooling.

Eight-GPU nodes with NVSwitch inside the node; a rail-optimised InfiniBand NDR or 400GbE RoCE fabric between nodes. GPU sharing (MIG, time-slicing) for development and inference. Bare-metal pods with Kubernetes or Slurm on top. Power and cooling designed before the servers are chosen.

Orchestration

What decides which job runs where, and when.

Slurm, IBM Spectrum LSF, Altair Accelerator and PBS Pro, OpenPBS. Kubernetes (OpenShift, Rancher, RKE2, EKS, AKS, GKE), Helm, Argo CD, Flux, KubeVirt, Ray, Kubeflow, HashiCorp Nomad.

Fair-share scheduling, priority and preemption, backfill, gang scheduling, queues and partitions, resource reservations, license-aware scheduling, autoscaling, node pools, GPU operator, job arrays.

Slurm, LSF or Altair for batch HPC and EDA farms; Kubernetes for services, inference and MLOps. Cloud bursting through AWS ParallelCluster, Azure CycleCloud or Google Cluster Toolkit with the same queue names, so users do not notice where a job ran.

Middleware

Identity, licenses, sessions and the glue between tools.

FlexNet Publisher (FlexLM), RLM, Altair Monitor, OpenLM. FreeIPA / Red Hat IdM, Active Directory, Keycloak, Okta, Microsoft Entra ID. NICE DCV, NoMachine, ThinLinc, VNC. GitLab, Artifactory, HashiCorp Vault.

LDAP, Kerberos, SSSD, SSO, SAML, OIDC, MFA, RBAC, license checkout and queueing, session broker, API gateway, message queue (Kafka, RabbitMQ), secrets management, PKI.

Identity is the control plane: one directory, federated to every cloud. License servers run highly available and network-close to the compute they serve. Session brokers sit in front of remote visualization so engineers get a desktop inside the data center from anywhere.

Network

Data center fabric, campus and wireless, and the low-latency fabric.

Cisco Nexus and Catalyst, Arista, Juniper. NVIDIA Quantum (InfiniBand) and Spectrum (Ethernet). Palo Alto Networks, Fortinet. Cisco and Meraki, Aruba for Wi-Fi 6E/7. Infoblox, NetBox, WireGuard and IPsec.

Spine-leaf (Clos), VXLAN/EVPN, BGP, OSPF, MLAG and LACP, 25/100/400GbE, InfiniBand HDR and NDR, RoCEv2, PFC and ECN (lossless Ethernet), east-west versus north-south traffic, microsegmentation, out-of-band management, 802.1X.

Two-tier spine-leaf for the data center; a separate non-blocking fabric for HPC and AI; a dedicated out-of-band management network. Campus with Wi-Fi 6E/7 and 802.1X, and zero-trust access for remote engineers instead of a flat VPN.

Compliance

Policy, evidence and protection across people, systems and models.

Wazuh, Splunk and Elastic Security (SIEM). CrowdStrike and SentinelOne (EDR). Tenable Nessus, Qualys, OpenVAS. CyberArk (PAM). OpenSCAP and CIS-CAT. AI-DLP and prompt-security gateways in front of external LLMs.

ISO 27001, SOC 2, NIST CSF, CIS Benchmarks, DPDP Act (India), GDPR, export-control awareness, least privilege, MFA, audit trail, policy as code, DLP, AI usage policy, prompt injection, shadow AI.

Identity and MFA everywhere; networks segmented per project or customer; central logging into a SIEM; an AI gateway that redacts sensitive data before it reaches external models. Evidence is collected continuously by the platform, not assembled the week before an audit.

Terminology, in plain language

The terms that appear in our proposals and design reviews, each in one sentence.

Spine-leaf

A two-tier switch design where every leaf connects to every spine, giving predictable latency and simple scale-out.

VXLAN / EVPN

Overlay networking that stretches networks across the fabric, with BGP distributing the control information.

RDMA, RoCE, InfiniBand

Memory-to-memory transfers that bypass the CPU; the basis of every low-latency HPC and AI fabric.

NVMe-oF

NVMe flash storage accessed over the network at close to local speed.

Parallel file system

Storage that stripes data across many servers so thousands of nodes can read and write at once (Lustre, GPFS, WEKA).

Tiered storage

Placing data on hot, warm or cold tiers by how it is used, to balance performance against cost.

Scheduler and fair-share

The batch system that queues jobs and allocates resources by policy (Slurm, LSF, Altair), so no one team starves another.

License server

The service that meters EDA tool licenses (FlexNet, RLM); the most common hidden bottleneck in a design farm.

Session broker and remote visualization

Engineers work on desktops inside the data center; only pixels cross the network (NICE DCV, NoMachine).

MIG

Multi-instance GPU: splitting one GPU into isolated slices so several small jobs share it safely.

NCCL

The collective-communication library that lets GPUs across many nodes train as one system.

Kubernetes

Container orchestration; the control plane for services, inference and MLOps pipelines.

Infrastructure as code

Environments defined in versioned files (Terraform, Ansible) and rebuilt on demand, identically, every time.

GitOps

The Git repository is the source of truth; every change ships through a reviewed pull request (Argo CD, Flux).

Landing zone

A pre-governed cloud foundation (accounts, IAM, networking, logging) that every workload lands on.

Hybrid cloud and multi-cloud

Hybrid joins on-premises with a public cloud; multi-cloud uses more than one provider. Most estates are both.

Cloud bursting

Sending overflow jobs to cloud capacity when the local farm is full, then releasing it when the peak passes.

Data gravity

Large datasets pull compute toward themselves; it is cheaper to move the job than the data.

SD-WAN overlay

Encrypted tunnels over any underlay (fibre, broadband, 5G), steered per application by policy.

SASE and ZTNA

Access to applications based on identity and device health rather than network location; no flat VPN.

Identity federation (SSO, SAML, OIDC)

One login, trusted across on-premises tools and every cloud console, with one MFA policy.

Observability

Metrics, logs and traces in one place (Prometheus, Grafana, Zabbix, Elastic) so problems are seen before users report them.

RPO and RTO

How much data you can afford to lose and how long you can afford to be down; the two numbers behind every backup and DR design.

FinOps

Treating cloud spend as an engineering metric: tagged, forecast and right-sized every month.

AI-DLP

Scanning prompts and uploads so confidential data never reaches an external model unprotected.

HCI

Hyperconverged infrastructure: compute and storage in one scale-out cluster, common for small sites and services.

Want this architecture mapped to your environment?

Share your workload profile and constraints. We will return a topology, a bill of materials and an operating plan.

Email info@trinitix-ai.com Call +91 88842 11166