// Decision Engine 02

Size the right GPU compute for your inference workload

Estimate compute requirements for YOLO, ResNet, segmentation, and ViT models on NVIDIA Jetson, Google Coral, and Hailo accelerators. Input model architecture, precision, batch size, and throughput target to get required TOPS, platform recommendation with headroom, and ranked alternatives.

// Define requirements

01
Model Architecture
// Primary inference model family
YOLO Detection
YOLO12n
YOLO12s
YOLO12m
YOLO12l
YOLO12x
YOLO11n
YOLO11s
YOLO11m
YOLO11l
YOLO11x
YOLOv8n
YOLOv8s
YOLOv8m
YOLOv8l
YOLOv8x
Classification
MobileNet V3-Small
MobileNet V3-Large
MobileNet V2
MobileNet V1
EfficientNet B0
EfficientNet B1
EfficientNet B2
ResNet-50
ResNet-101
ResNet-152
Lightweight Detection
EfficientDet D0
EfficientDet D1
EfficientDet D2
EfficientDet D3
SSD MobileNet V1
SSD MobileNet V2
Segmentation
SAM ViT-B
SAM ViT-L
SAM ViT-H
DeepLabV3 MobileNet
02
Precision / Quantization
// Model precision affects TOPS requirements directly
FP32 (full)
FP16 (half)
BF16 (brain float)
INT8 (quantized)
INT4 (aggressive)
03
Batch Size
// Concurrent inference batch — 1 = real-time, higher = throughput
1
2
4
8
16
32
// Larger batches improve throughput but increase latency
04
Latency Requirement
// Maximum acceptable inference latency per frame
< 33ms (real-time 30fps)
33–100ms (low latency)
100–500ms (moderate)
> 500ms (batch acceptable)
05
Throughput Target
// Required inferences per second across all streams
< 10 IPS
10–50 IPS
50–200 IPS
> 200 IPS
// Select all parameters to continue
// Calculating compute requirements…

// Results Summary

// Primary Recommendation
Confidence

// Alternatives

// machine-readable output — application/json

    

What this GPU Sizing Calculator decides

This tool estimates the compute class required for an edge AI inference workload and recommends the best-fit platform based on five decision inputs: model architecture, precision or quantization level, batch size, latency requirement, and throughput target. It is intended for engineers choosing between Jetson, Hailo-8, Coral TPU, RK3588, and AGX Orin-class hardware.

// Inputs considered
01
Model + Precision

The model family and precision mode determine base compute demand. Larger models and higher precision require more TOPS.

02
Batch Size

Batch size changes throughput efficiency and latency pressure. Larger batches generally improve throughput but increase response time and memory demand.

03
Latency + Throughput

Real-time workloads need lower latency, while batched inference can trade latency for throughput. The engine weighs both when sizing the platform.

// How recommendations are scored

This engine estimates effective compute demand from the selected model, precision, batch size, latency class, and throughput target. It then compares that requirement against available platform capability and returns the best-fit recommendation with headroom, confidence, and alternatives.

  • Base model complexity and precision-adjusted TOPS requirement
  • Batch-size effect on throughput and practical deployment fit
  • Latency compatibility for real-time versus batch-friendly workloads
  • Platform headroom relative to required compute
  • Alternative recommendations when multiple platforms satisfy the workload
// What the output includes
  • Primary recommendation: the best-fit compute platform for the selected workload
  • Compute estimate: the planning-envelope compute requirement for the workload (TOPS)
  • Compute envelope: the platform's peak TOPS capability at selected precision
  • Planning headroom: the ratio of platform envelope to compute estimate
  • Alternatives: other viable platforms that can support the workload
  • Machine-readable JSON: a structured result for copying, sharing, or downstream reuse
// Worked examples
// Example 01
Lightweight real-time model
MobileNetV3, INT8, batch 1, real-time latency, low throughput → Coral TPU or RK3588 often fit when ultra-low power or low cost is prioritized.
// Example 02
Mainstream detection workload
YOLOv8s, FP16, batch 4, low latency, medium throughput → Jetson Orin Nano or Hailo-8 usually provide the best balance of headroom and deployment practicality.
// Example 03
High-demand model or throughput target
YOLOv8m or SAM/ViT, larger batches, real-time or high throughput → Jetson AGX Orin is typically required when smaller edge platforms lack sufficient compute headroom.
// Example machine-readable output
{
  "schema": "edgeaistack/gpu-sizing/v1",
  "inputs": {
    "architecture": "yolov8s",
    "precision": "fp16",
    "batch_size": 4,
    "latency": "low",
    "throughput": "medium"
  },
  "computed": {
    "required_tops": 9.6
  },
  "recommendation": {
    "device": "Jetson Orin Nano",
    "device_id": "jetson_orin_nano",
    "available_tops": 40,
    "headroom_x": 4.2,
    "match_confidence": 88,
    "alternatives": ["hailo8", "rk3588"]
  }
}
// FAQ

Why does precision change the recommendation?

Precision directly changes compute demand. FP32 requires more compute than FP16, while INT8 and INT4 can dramatically reduce required TOPS when the model and deployment stack support quantization.

Does a larger batch size always improve the result?

No. Larger batches can improve throughput efficiency, but they also increase latency and memory pressure. The best result depends on whether the workload is latency-sensitive or throughput-oriented.

When is Jetson AGX Orin usually required?

Jetson AGX Orin is usually the best fit when the selected model is large, the throughput target is high, or the workload needs meaningful compute headroom for future scaling.

Is this tool only for GPUs?

No. The tool sizes edge inference compute across GPU-like and accelerator-class platforms, including Jetson modules, Hailo-8, Coral TPU, and RK3588-class NPUs.