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Corelane

Enterprise AI Infrastructure & Engineering

Engineering the InfrastructureBehind Enterprise AI.

Graph Engineering, GPU Operations, and NVIDIA-powered AI Infrastructure — engineered for production.

  • Graph Engineering
  • GPU Operations
  • NVIDIA AI Infrastructure
Enterprise AIworkloads
Engineering Graphentities · edges
GPU Fleetclusters · nodes
NVIDIA Infrastructureaccelerated compute

Capabilities

  • GPU Fleet Management

    Inventory, health and utilization for GPUs spread across clusters, sites and providers.

  • Multi-Cloud Architecture

    One operating model across on-premises data centers, private cloud and public cloud regions.

  • Enterprise Kubernetes

    GPU Operator, device plugins, scheduling and node lifecycle inside existing platform teams.

  • Production-Grade AI Infrastructure

    Systems designed for change windows, audits and on-call — not for demos.

Products & Services

What We Build

Three engineering disciplines, built on one stack: the graph that describes an enterprise system, the operations layer that keeps its GPUs running, and the accelerated infrastructure underneath.

01

Graph Engineering

Turn enterprise knowledge into engineering intelligence.

Requirements, architecture, repositories, APIs, schemas, dependencies and agents connected into a single Engineering Graph that both people and AI systems can reason over.

Scope
  • Engineering Graph
  • Code Intelligence
  • Architecture Intelligence
  • Dependency Graph
  • Multi-Agent Engineering
See detailGraph Engineering
02

GPU Operations

Operate GPU infrastructure at fleet scale.

Multi-cloud and on-premises GPUs unified into one managed fleet — with failure handling, diagnostics, capacity, utilization and policy in a single operating picture.

Scope
  • GPU Fleet
  • Observability
  • DCGM Diagnostics
  • Incident Management
  • Predictive Risk
  • Capacity
  • Governance
See detailGPU Operations
03

NVIDIA AI Infrastructure

Design. Build. Optimize. Operate.

NVIDIA GPU-based AI infrastructure designed, built, optimized and operated for the constraints of a specific enterprise environment.

Scope
  • AI Factory Architecture
  • GPU Cluster
  • GPU Operator
  • CUDA
  • DCGM
  • NIM
  • AI Enterprise
  • Inference Optimization
See detailNVIDIA AI Infrastructure

Platform

One Engineering Layer for Enterprise AI

The three disciplines are not separate offerings. They are three altitudes of the same system — what you build, how it runs, and what it runs on.

01Build

Graph Engineering

Model the system: requirements, architecture, code, APIs and dependencies.

02Run

GPU Operations

Operate the fleet: observability, diagnostics, incidents, capacity and policy.

03Scale

NVIDIA AI Infrastructure

Engineer the substrate: clusters, accelerators, fabric and runtime.

Foundation
  • AI Platform
  • Kubernetes / Data / AI
  • NVIDIA Accelerated Computing

GPU Operations

A control plane for the GPU fleet

GPU estates fail in specific ways: a thermal-throttled node, an XID on one device, a cluster at 34% while another queues. The platform is built around finding and closing those gaps.

Operating loop
  1. Observe
  2. Detect
  3. Diagnose
  4. Optimize
  5. Govern
GPU FleetAll providers
Live
FleetObservabilityDiagnosticsIncidentPredictiveCapacityGovernanceEconomics
Total GPUs1,024GPU
Clusters12
Nodes148
Providers4

Utilization · 24h

Fleet average 77%
-24h-12hnow

Fleet health

  • Healthy981
  • Warning34
  • Critical9

By cluster

dgx-h200 / on-prem-seoul92%
hgx-h100 / csp-ap-northeast-278%
a100-80g / on-prem-idc-161%
l40s / csp-asia-northeast-334%

Recent events

NodeDeviceSignalState
idc1-node-07GPU 3XID 79Open
apne2-node-22GPU 1ECC 0x12Triage
seoul-dgx-04GPU 6THERMALTriage
asia-ne3-node-11GPU 0NVLINKResolved

Interface mock. Figures shown are illustrative sample data.

Graph Engineering

The graph behind the system

An enterprise system is not a repository. It is a set of relationships between requirements, architecture decisions, services, schemas and the teams that own them. Graph Engineering makes those relationships explicit and queryable.

AI should understand not only code,

but the relationships behind enterprise systems.

Sources
  • Requirements
  • Architecture
  • Repositories
  • APIs / Schema
  • Dependencies
Graph
Engineering Graph
Consumers
AI Agents
Sources
Structured and unstructured inputs, resolved into typed entities.
Graph
One versioned graph of entities, edges and ownership.
Consumers
Agents query relationships instead of guessing from text.

AI Infrastructure

NVIDIA AI Infrastructure

Design. Build. Optimize. Operate.

We engineer AI infrastructure on NVIDIA accelerated computing — from fabric and cluster topology up to the inference runtime — and stay through operation.

  1. 01

    Design

    Topology, fabric, power and thermal envelope, capacity model, failure domains.

  2. 02

    Build

    Cluster bring-up, GPU Operator, scheduling, storage and network integration.

  3. 03

    Optimize

    Throughput, collective performance, inference latency, utilization and cost.

  4. 04

    Operate

    Telemetry, diagnostics, incident response, upgrades and capacity planning.

Architecture stack
06

AI Application

  • Training
  • Fine-tuning
  • Inference Services
  • RAG
05

NIM / AI Enterprise

  • Triton
  • TensorRT-LLM
  • Model Registry
  • Autoscaling
04

Kubernetes / GPU Operator / Slurm

  • DRA
  • Device Plugin
  • MIG
  • Node Feature Discovery
03

DCGM / NVML / CUDA

  • NCCL
  • XID Events
  • Profiling
  • Health Checks
02

HGX / DGX / GB200 / B200 / H200

  • A100
  • L40S
  • GH200
  • Rack Power
  • Cooling
01

NVLink / InfiniBand / Spectrum-X

  • NVSwitch
  • GPUDirect
  • RoCE
  • Rail-optimized

NVIDIA, CUDA, DCGM, NIM, HGX and DGX are trademarks of NVIDIA Corporation. We provide independent NVIDIA-based infrastructure engineering and are not a reseller or an authorized partner of NVIDIA.

Deployment

Built for Enterprise

The platform runs where the workload already lives, integrates with what is already in place, and assumes the environment is audited.

Deployment modelsSupported across every deployment model
  • On-Premises

    Own data centers, including networks with no outbound path.

  • Private Cloud

    Dedicated tenancy and customer-managed control planes.

  • Public Cloud

    GPU instances and managed Kubernetes across major providers.

  • Hybrid / Multi-Cloud

    One fleet view across sites, regions and providers.

Security

Access, isolation and evidence, aligned to existing enterprise controls.

  • RBAC
  • Audit Trail
  • Tenant Isolation
  • Private Network
  • Air-gapped

Integration

Designed to sit inside the platform you already run, not beside it.

  • Kubernetes
  • REST / gRPC API
  • Existing Systems
  • SSO / LDAP
  • Webhooks

Case Studies

Engagements

Customer names are withheld. Outcomes are described qualitatively — we do not publish performance figures we cannot attribute.

Telecommunications / KoreaIndustry

Enterprise GPU Fleet Management

Challenge

Multiple GPU infrastructures across cloud providers and on-premises environments, each with its own tooling, inventory and escalation path.

Solution
  • Unified GPU inventory
  • Real-time observability
  • Incident management
  • DCGM diagnostics
  • Predictive failure detection
Architecture
  1. CSP
  2. Cluster
  3. Node
  4. GPU
  5. Collector
  6. Metrics / Event
  7. GPU Operations
Outcome
  • A single fleet inventory replaced per-provider spreadsheets and dashboards.
  • Hardware faults are attributed to a specific device and node before escalation.
  • Capacity and utilization discussions moved onto shared, comparable data.
Manufacturing / GlobalIndustry

Engineering Graph for a Legacy Platform

Challenge

A decade of services, schemas and undocumented integrations. Change impact could not be assessed without the few engineers who remembered the system.

Solution
  • Repository and schema ingestion
  • Entity resolution
  • Versioned engineering graph
  • Agent-accessible query layer
  • Ownership and governance
Architecture
  1. Repositories
  2. APIs / Schema
  3. Architecture
  4. Engineering Graph
  5. AI Agents
Outcome
  • Dependency and impact questions are answered from the graph rather than from memory.
  • Architecture reviews start from a current, generated view of the system.
  • AI agents operate against explicit relationships instead of inferred ones.

Technology

The stack we work in

Not a logo wall. This is the set of layers we build, instrument and operate against.

AI / Agent

  • Claude
  • OpenAI
  • Kimi
  • vLLM
  • NIM

Graph

  • Knowledge Graph
  • GraphRAG
  • Code Graph
  • Dependency Graph

GPU

  • CUDA
  • NVML
  • DCGM
  • NCCL

Platform

  • Kubernetes
  • GPU Operator
  • DRA
  • Slurm

Observability

  • VictoriaMetrics
  • Prometheus
  • Grafana

Infrastructure

  • HGX
  • DGX
  • NVLink
  • InfiniBand
  • Spectrum-X

Company

We engineer the infrastructure layer that connects AI, GPUs, and enterprise systems.

We are an engineering company. Our work shows up as architecture, operating systems and running infrastructure — not as slideware. Every engagement is staffed by the people who will still be on the call when it runs in production.

Engineering First
Decisions are made against topology, telemetry and constraints — not against a product roadmap.
Production Ready
Built for change windows, audits, upgrades and on-call from the first design review.
Enterprise Scale
Multi-site, multi-tenant and multi-provider is the starting assumption, not a later migration.

Build Your Enterprise AI Infrastructure With Us.

From engineering graphs to GPU fleets and NVIDIA-powered infrastructure, we help enterprises move AI into production.