All figures on this row are MAXN mode. On this module the 70W mode tabulates identically, unlike the T5000 where the 120W mode is lower, so nothing is lost by the choice. TWO DELIBERATE REFUSALS. First, tensor_core_count is empty: revision v1.4 of the datasheet explicitly removed the tensor core count from Chapter 1 and Table 2-1 per its own Document History, so any count for a Thor module now survives only in marketing copy. Second, NVIDIA's announcement blog advertises a "40 W to 70 W power envelope" and neither end is carried here: the datasheet documents power modes of 70W and MAXN with a Maximum Total Module Power of 90 W, so 40 W matches no documented mode and 70 W is the default mode rather than the ceiling. The same marketing-versus-datasheet split is recorded on the T5000 row. The datasheet prints dense and sparse in adjacent labelled rows, so no dense figure here is derived by halving. Differences from the T5000 worth knowing: the T4000 memory line omits the Alt-link ECC clause, it has one NVENC and one NVDEC rather than two of each, three 25 Gbps Ethernet MACs rather than four, and a thermal transfer plate limit of 75C rather than 80C. Memory bandwidth, bus width, module dimensions and the 699-pin connector are identical on both.

NVIDIA Jetson AGX Thor T4000 64GB NEW

Architecture: BlackwellForm factor: ModuleReleased: 2026Spec confidence: Official
FP8 (dense)
300
TFLOPS
FP32
4.7
TFLOPS
Memory
64 GB
LPDDR5X
Bandwidth
273 GB/s
memory
TDP
90 W
52.2 FP32 dense TFLOPS/kW of TDP

Overview

The T4000 is the smaller of the two Jetson Thor modules, and it is a clean three-fifths of the T5000 rather than a different design: 1,536 Blackwell CUDA cores against 2,560, 12 Arm Neoverse-V3AE cores against 14, and 64 GB of LPDDR5X against 128 GB. The interesting part is what it does not give up. Memory stays on the same 256-bit bus at the same 273 GB/s, so the smaller module has more bandwidth per core than the larger one, and the clock is actually higher in its default mode, 1.53 GHz against the T5000's 1.386 GHz at 120 W. It delivers 600 dense FP4 TFLOPS and 300 dense FP8 within a 90 W ceiling, where the T5000 needs 130 W for its 1,035 and 517. For a robot or an edge box that has to run a real vision language action model on a battery or a fixed power budget, the T4000 is often the module that fits, and 64 GB is still enough memory for a model that would not go near an Orin. MIG is supported, so one module can be partitioned across several workloads.

Performance

Peak theoretical throughput by precision type

PrecisionDense2:4 Sparse
FP64
No verified data available Structured sparsity is a tensor-core feature; this vector precision has no sparse form
FP32
32-bit floating point
4.7TFLOPS Structured sparsity is a tensor-core feature; this vector precision has no sparse form
TF32
No verified data available The part supports 2:4 sparsity, but the vendor publishes no sparse figure for this precision
BF16
No verified data available The part supports 2:4 sparsity, but the vendor publishes no sparse figure for this precision
FP16
No verified data available The part supports 2:4 sparsity, but the vendor publishes no sparse figure for this precision
FP8
8-bit floating point
300TFLOPS 600TFLOPS
FP6
No verified data available The part supports 2:4 sparsity, but the vendor publishes no sparse figure for this precision
FP4
4-bit floating point
600TFLOPS 1,200TFLOPS
INT8
8-bit integer
300TOPS 600TOPS

Specifications

Architecture

Blackwell

Form Factor

Module

Launch Year

2026

Process Node

No verified data available

Memory

64 GB LPDDR5X

Bandwidth

273 GB/s

TDP

90 W

Max power

90 W

CUDA Cores

1,536

Spec Confidence

Official

Full Specifications

Compute Engine
CUDA Cores 1,536
Streaming Multiprocessors 12
Boost Clock 1.53 GHz
Memory
Memory 64 GB
Memory Type LPDDR5X
Bandwidth 273 GB/s
Interface Width 256-bit
Power & Thermal
TDP 90 W
Max power 90 W
Enterprise Features
MIG Support Yes
Sparsity Yes
Physical & Media
NVENC Engines 1
NVDEC Engines 1
General
Form Factor Module
Architecture Blackwell
Process Node No verified data available
Launch Year 2026

Datasheet & Resources

Data Provenance

Every figure traced to a source

Primary Source

Publisher
NVIDIA
Published
2026-06-01

Data Quality

Spec confidence
Official
Clock basis
Boost
Core precisions with figures
4 of 9
Normalization
All values in TFLOPS

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Frequently Asked Questions

How many TFLOPS does the NVIDIA Jetson AGX Thor have?

The NVIDIA Jetson AGX Thor delivers 4.7 TFLOPS FP32 and 300 TFLOPS FP8 at peak. Flopper does not currently have a verified FP16 throughput figure for it.

What is the power consumption of the NVIDIA Jetson AGX Thor?

The NVIDIA Jetson AGX Thor has a TDP (Thermal Design Power) rating of 90 watts.

How much memory does the NVIDIA Jetson AGX Thor have?

The NVIDIA Jetson AGX Thor is equipped with 64 GB of memory with 273 GB/s of memory bandwidth.

What architecture is the NVIDIA Jetson AGX Thor based on?

The NVIDIA Jetson AGX Thor is based on the Blackwell architecture, launched in 2026.

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