GPU Farm Operations

A GPU farm is a production system coupling power, thermal, networking, scheduling, and incident response—not an inventory of devices.

Unify capacity planning, telemetry, workload isolation, maintenance, and recovery drills in one operating model.

01

Problem definition

GPU utilization alone misses goodput loss from memory errors, network contention, and power caps.

Unclear workload ownership and failure domains let one-node incidents spread into cluster-wide queues.

  • Training and inference workloads share hardware generations across teams
  • Capacity, cost, and recovery levels must be forecast continuously
  • A small number of managed instances meets the requirement
  • Power, cooling, and network telemetry is unavailable
02

GPU Farm Operations: system plate

CONTROL

System 1

Observe GPU, memory, links, hosts, power, and job queues on one timeline.

CONTROL

System 2

Calibrate baselines by hardware generation and workload shape to isolate anomalies.

EXECUTION

System 3

Connect reservation, priority, preemption, and isolation policy to user SLOs and maintenance windows.

EXECUTION

System 4

Regularly drill node isolation, checkpoint recovery, and reserve-capacity failover.

  1. N1 N2context
  2. N2 N3decision
  3. N3 N4evidence
A decision and validation view for GPU Farm Operations; labels describe architecture, not a measured deployment result.
  1. The workflow begins with Observe GPU, memory, links, hosts, power, and job queues on one timeline..
  2. It reaches an acceptance decision through Workload goodput and queue delay.

03

Design method

A GPU farm is a production system coupling power, thermal, networking, scheduling, and incident response—not an inventory of devices.

  1. 01

    Stage 1

    Observe GPU, memory, links, hosts, power, and job queues on one timeline.

  2. 02

    Stage 2

    Calibrate baselines by hardware generation and workload shape to isolate anomalies.

  3. 03

    Stage 3

    Connect reservation, priority, preemption, and isolation policy to user SLOs and maintenance windows.

  4. 04

    Stage 4

    Regularly drill node isolation, checkpoint recovery, and reserve-capacity failover.

04

Application scenarios

Hypothetical application scenario

Training and inference workloads share hardware generations across teams

GPU utilization alone misses goodput loss from memory errors, network contention, and power caps.

APPROACH
Observe GPU, memory, links, hosts, power, and job queues on one timeline.
BOUNDARY
Nominal FLOPS is not used as actual workload throughput.
Hypothetical application scenario

Capacity, cost, and recovery levels must be forecast continuously

Unclear workload ownership and failure domains let one-node incidents spread into cluster-wide queues.

APPROACH
Calibrate baselines by hardware generation and workload shape to isolate anomalies.
BOUNDARY
Adding hardware is not a substitute for operating design.

05

Design choices

DecisionGainCostWatch
Training and inference workloads share hardware generations across teamsObserve GPU, memory, links, hosts, power, and job queues on one timeline.Nominal FLOPS is not used as actual workload throughput.Workload goodput and queue delay
Capacity, cost, and recovery levels must be forecast continuouslyCalibrate baselines by hardware generation and workload shape to isolate anomalies.Adding hardware is not a substitute for operating design.Hardware and link anomaly detection time
06

GPU Farm Operations: system plate

  1. A small number of managed instances meets the requirement

    Nominal FLOPS is not used as actual workload throughput.

    SIGNAL
    Workload goodput and queue delay
    MITIGATION
    Calibrate baselines by hardware generation and workload shape to isolate anomalies.
  2. Power, cooling, and network telemetry is unavailable

    Adding hardware is not a substitute for operating design.

    SIGNAL
    Hardware and link anomaly detection time
    MITIGATION
    Connect reservation, priority, preemption, and isolation policy to user SLOs and maintenance windows.
A decision and validation view for GPU Farm Operations; labels describe architecture, not a measured deployment result.
  1. The workflow begins with Observe GPU, memory, links, hosts, power, and job queues on one timeline..
  2. It reaches an acceptance decision through Workload goodput and queue delay.

07

Validation plan

MeasureMethodPass conditionCaveat
Workload goodput and queue delayObserve GPU, memory, links, hosts, power, and job queues on one timeline.Repeated runs satisfy the acceptance threshold agreed during discoveryNominal FLOPS is not used as actual workload throughput.
Hardware and link anomaly detection timeCalibrate baselines by hardware generation and workload shape to isolate anomalies.Repeated runs satisfy the acceptance threshold agreed during discovery—
Recovery time and capacity forecast errorConnect reservation, priority, preemption, and isolation policy to user SLOs and maintenance windows.Repeated runs satisfy the acceptance threshold agreed during discovery—

08

Constraints and failure conditions

A small number of managed instances meets the requirement

Nominal FLOPS is not used as actual workload throughput.

Power, cooling, and network telemetry is unavailable

Adding hardware is not a substitute for operating design.

10

Durable deliverables

GPU Farm Operations decision record
A GPU farm is a production system coupling power, thermal, networking, scheduling, and incident response—not an inventory of devices.Client-owned · Patty-reviewed
Validation harness and acceptance criteria
Workload goodput and queue delay · Hardware and link anomaly detection time · Recovery time and capacity forecast errorJointly maintained
Operations and recovery runbook
Nominal FLOPS is not used as actual workload throughput. · Adding hardware is not a substitute for operating design.Operating-team owned

11

Terminology

GPU Farm Operations
Unify capacity planning, telemetry, workload isolation, maintenance, and recovery drills in one operating model.
Acceptance criterion
Workload goodput and queue delay
Operating boundary
Nominal FLOPS is not used as actual workload throughput.

REFERENCES

References and primary material

  1. NVIDIA DCGM

    Primary material for the method and terminology.

  2. Kubernetes Device Plugins

    Primary material for the method and terminology.