Edge AI ComputerNVIDIA Jetson Orin NXUp to 157 TOPS

AE-NJ60BT: NVIDIA Jetson Orin NX Industrial Edge AI Computer (157 TOPS)

Fanless industrial Edge AI platform with 4× GbE, 4× GMSL2 camera ingress, 2× CAN FD and DC 9–36V wide input — engineered for autonomous vehicles, AMR/AGV, smart factory and energy AI workloads.

AE-NJ60BT NVIDIA Jetson Orin NX

AE-NJ60BT — fanless extruded aluminum unibody with quad GbE and rich industrial I/O.

Product Overview

The AE-NJ60BT is a high-performance industrial Edge AI computer built around the NVIDIA Jetson Orin NX 8GB / 16GB module, delivering scalable AI compute from 70 TOPS up to 157 TOPS (Super mode). Combined with 1024 CUDA cores, 32 Tensor cores, 2× NVDLA v2 and an NVMe storage path, it provides a turn-key platform for production-grade vision, robotics and generative-AI workloads at the edge.

Engineered with a cable-less, jumper-less unibody extruded-aluminum chassis, 4× Gigabit Ethernet(1× SOM + 3× Intel i210-AT), 4-lane MIPI CSI / 4× GMSL2 camera ingress, 2× CAN FD, opto-isolated 8 DI / 8 DO and a DC 9–36V wide-range input, the AE-NJ60BT is JetPack 5.1.2 / 6.0 / 6.2 compatible and rated for -40°C to +70°C deployment.

AE-NJ60BT Workstation-Class Embedded Architecture for Autonomous Infrastructure & Vision AI


157 TOPS NVIDIA Ampere Pipeline with 1024 CUDA Cores

Configurable across Jetson Orin NX 8GB (70/117 TOPS Super) and Orin NX 16GB (100/157 TOPS Super) — 1024 CUDA cores, 32 Tensor cores and 2× NVDLA v2 sustain transformer vision and on-device LLM workloads at the edge.


Multi-Channel Vision Ingress: 4-Lane MIPI CSI & 4× GMSL2 Topography

Adapter board exposes 4-lane MIPI CSI or 4× GMSL2 for stable long-distance HD camera transmission — feeding all four streams directly into the Jetson ISP and 1× 8K30 / 4× 4K30 hardware decoder pipeline.


Independent Quad Gigabit Ethernet Driven by Intel i210-AT MACs

Four independent GbE ports — one from the Jetson SOM and three driven by industrial-grade Intel i210-AT controllers — enable multi-subnet isolation for cameras, PLCs and cloud uplink, with hardware-level network redundancy.


Fail-Safe Power Topography (DC 9-36V Vehicle-Grade Input)

Direct compatibility with 12V / 24V vehicle, AGV and AMR battery systems — no external regulator required. 100W minimum supply with auto power-on and button startup options.


Cableless Unibody Chassis with Dynamic Thermal Management

All internal power and signal connections are board-routed — no internal harnesses to vibrate loose. Unibody extruded-aluminum chassis doubles as the primary heatsink for fanless 100W operation.


4000V Opto-Isolated Industrial I/O & Dual CAN FD Interfaces

8× DI and 8× DO with opto-isolation (selectable 3.3V / 5V / 12V), 2× CAN FD, RS232/RS485, SPI, I²C and 4× GPIO — protect the mainboard from EMI while interfacing directly with sensors, actuators and field bus devices.

AE-NJ60BT Targeted Field Deployment Scenarios for Jetson Architecture



Multi-Camera Autonomous Vision AI & High-Speed Inline AOI Inspection

Aggregate 4× GMSL2 long-distance camera streams into TensorRT-optimized detection / segmentation pipelines for inline AOI, surface inspection and high-speed quality grading.


Autonomous Mobile Robots (AMR / AGV) Navigation & Real-Time SLAM

DC 9–36V wide input and cable-less design tolerate vehicle bus voltage swings and vibration; 157 TOPS + 4× GbE drive SLAM, sensor fusion and Nav2 stacks with sub-100ms perception loops.


Industry 4.0 Smart Factory Edge Gateways & Legacy PLC Bridging

Quad GbE (1× SOM + 3× Intel i210-AT) isolates camera, PLC and cloud subnets; 2× CAN FD and opto-isolated DI/DO bridge field devices to MES/SCADA without congestion.


Energy Infrastructure Monitoring, Substation AI Safety & ESS Site Supervision

Wide -40°C to +70°C envelope, fanless unibody thermals and TPM/TCM secure boot suit unattended substations, PV / wind farms and ESS sites where firmware integrity and 24/7 uptime are required.


Smart City IoT Aggregation, Multi-Protocol Wireless Routing & Edge Sensing

Triple wireless lanes (Wi-Fi 6 + 4G/5G + LoRa) with Nano SIM + eSIM let one unit serve as cellular uplink, LoRa concentrator and local AP — running AI preprocessing before forwarding events upstream.

Core Compute, Memory Subsystem & JetPack Compliance

Configure with Jetson Orin NX 8GB (70/117 TOPS Super) or Orin NX 16GB (100/157 TOPS Super) on the same carrier board — prototype and migrate to production without redesigning integration. The flagship 16GB Super configuration delivers 157 TOPS via 1024 CUDA cores, 32 Tensor cores and 2× NVDLA v2 accelerators.

AI Module (8GB)NVIDIA Jetson Orin NX 8GB — 6-core A78 @ 2.0GHz, 70 TOPS / 117 TOPS (Super)
AI Module (16GB)NVIDIA Jetson Orin NX 16GB — 8-core A78 @ 2.2GHz, 100 TOPS / 157 TOPS (Super)
GPUNVIDIA Ampere — 1024 CUDA cores + 32 Tensor cores @ 1173MHz
NPU / DLA2× NVDLA v2
JetPackCompatible with JetPack 5.1.2 / 6.0 / 6.2
Operating SystemUbuntu 20.04 (default)

High-Bandwidth Networking & Wireless Expansion Slots

Four independent Gigabit Ethernet ports — 1× from the SOM and 3× driven by industrial-grade Intel® i210-AT controllers — enable multi-subnet isolation across cameras, PLCs and cloud uplink. Triple wireless lanes (Wi-Fi 6, 4G/5G, LoRa) with Nano SIM + eSIM cover any field deployment.

Ethernet (SOM)1× GbE LAN from SOM (10/100/1000 Mbps)
Ethernet (Industrial)3× Intel® i210-AT GbE (10/100/1000 Mbps)
Wi-Fi / Bluetooth1× M.2 KEY-E (PCIe ×1 + USB 2.0, 2230) for Wi-Fi/BT
Cellular1× M.2 KEY-B (USB 3.0) for 4G/5G modules
LoRa1× Mini PCIe slot for LoRa modules
SIM1× Nano SIM + 1× eSIM

Industrial Fieldbus, Serial Ports & Opto-Isolated DIO

USB4× USB 3.0 Type-A, 4× USB 2.0 Type-A
Type-C1× Type-C OTG_USB, 1× Type-C Debug
Serial Ports2× RS232 or 2× RS485, 2× RS485, 1× UART (3.3V level)
CAN Bus2× CAN FD
GPIO4× IO, 3.3V level (input/output)
Digital I/O8× DI + 8× DO with opto-isolation (3.3V / 5V / 12V selectable)
SPI / I²C1× SPI, 1× I²C (3.3V level)
Audio1× Dual-channel speaker out (18W 4Ω), 1× headphone (L/R), 2× microphone in

Display Output, GMSL2 Camera Capture & Video Codecs

HDMI Output1× HDMI Type-A (max 8K @ 30Hz)
Camera Input4-lane MIPI CSI or 4× GMSL2 (with adapter board)
Video Decoding1× 8K30, 2× 4K60, 4× 4K30, 9× 1080P, 18× 1080P30 (H.265)
Video Encoding1× 4K60, 3× 4K30, 6× 1080P30, 18× 1080P30 (H.265)


System Storage, RTC Configuration & Software Environment

Storage Slot1× M.2 Key-M (PCIe ×4, NVMe SSD, 2242/2260/2280)
Storage Module1× M.2 2280 NVMe SSD
RTCExternal RTC backup battery, supports timed power on/off
Operating SystemUbuntu 20.04 (BSP + kernel sources provided)

AE-NJ60BT vs AE-3588BT choosing the Right Edge AI Power

NVIDIA Jetson Orin (157 TOPS) vs Rockchip RK3588J (scalable to 58 TOPS) — pick the right Edge AI class.
Looking for an alternative to Rockchip? AE-NJ60BT offers 2.7x higher AI performance via the NVIDIA Ampere architecture.


Engineering FactorAE-NJ60BTAE-3588BT
SOM / ProcessorNVIDIA Jetson Orin Nano / NX / NX SuperRockchip RK3588J (4× A76 + 4× A55)
AI ComputeUp to 157 TOPS6 TOPS NPU, scalable to 58 TOPS via 2× M.2
Camera Ingress4-lane MIPI CSI or 4× GMSL2MIPI CSI + USB cameras
Ethernet4× GbE (1× SOM + 3× Intel i210-AT)3× GbE
CAN / DIO2× CAN FD, 8 DI / 8 DO (isolated)2× CAN, 4 DI / 4 DO (isolated)
Software StackNVIDIA JetPack, CUDA, TensorRTLinux / Android, RKNN, ROS2
Operating Temp-40°C to +70°C, fanless-40°C to +80°C, fanless
Best FitMulti-camera AOI, AMR perception, autonomous drivingEdge gateway, control node, light vision

      Choose this if you need: GMSL2 for long-distance video, 100+ TOPS for transformer models, or native JetPack support. 

Full comparison page 

Benchmarking Matric: Bitech ARM Jetson AE-NJ60BT vs x86 Workstation AE-760EBT

ARM-based dedicated AI inference (157 TOPS) vs x86 workstation-class edge compute (RTX MXM). See which architecture fits your workload.

 Full comparison page

AE-NJ60BT — ARM AI Inference Node

  • NVIDIA Jetson Orin NX up to 157 TOPS
  • 4× GMSL2 / MIPI CSI camera ingress
  • DC 9–36V, -40°C to +70°C,fanless chassis (optional dynamic internal smart fan for absolute extremes)
  • JetPack / CUDA / TensorRT ecosystem

AE-760EBT — x86 Edge Workstation

  • Intel i9-13900 + RTX 4060–5090 MXM GPU
  • 4× 2.5GbE GigE Vision + USB 3.2
  • DC 9–36V, -10°C to +55°C, dual 80 mm fans
  • Windows 11 Pro / Ubuntu + CUDA / OpenVINO

Hardened Manufacturing Quality & Supply Chain Compliance


Strict 100% 18-Hour Power-On Full-Load Burn-In Testing

Every unit undergoes an 18-hour full-load power-on burn-in with AQL inspection and per-unit serial number traceability.


Cryptographic Security Layer: Hardware TPM 2.0 / TCM Ready

Optional TPM/TCM encryption module supports secure boot, signed OTA updates and encrypted model storage for fielded fleets.


10 Year Product Lifecycle Commitment & Revision Control

Long-term availability for mainboard, modules, shells and ICs — eliminating EOL supply risk on multi-year deployments.


Lifetime OS Customization & Embedded BSP Engineering Support

OS support, BIOS/firmware updates and CAN/RS485/PLC debugging assistance for the entire product lifetime.

Alternate Industrial Computing Platforms for Deployment Comparison

Compare adjacent models to validate your selection.

AE-3588BT

Best for: Scalable ARM Edge AI with 4000V isolation

RK3588J + dual NPU expansion up to 58 TOPS

View Product

AE-3588LBT

Best for: Cabinet-level AI with low-latency I/O

Non-isolated I/O for controlled environments

View Product

AE-3588NBT

Best for: Open-source robotics gateway

RK3588 + native root access for AGV/AMR

View Product


AE-NJ60BT Technical FAQ for Hardware Integration Evaluation

How does the 157 TOPS "Super Mode" achieve peak execution latency compared to standard NVIDIA Orin NX 16GB profiles?

The 157 TOPS figure is NVIDIA's official rating for the Jetson Orin NX 16GB running in MAXN Super power mode under JetPack 6.x, using INT8 tensor-core acceleration with structural sparsity — it is a capability of the module itself, not an overclock. What the AE-NJ60BT carrier board contributes is the ability to hold that performance continuously in the field. The challenge with Super Mode is not reaching 157 TOPS for a benchmark burst — it is sustaining it without thermal throttling across a -40 °C to +70 °C industrial envelope, on vehicle power, for 24/7 duty. Our carrier delivers a clean, regulated power stage sized for the module's full Super-mode draw, a unibody aluminum thermal path tuned to the Orin NX junction, and a dynamic auxiliary cooling channel that engages only at the thermal extremes. The result: the module runs at its rated 157 TOPS as a steady-state working point, not a momentary peak.

What is the exact hardware serialization latency across the 4× GMSL2 camera ingress pipeline?

The system utilizes a high-bandwidth Deserializer chipset (compatible with MAX96712 or equivalent) mapped directly via MIPI CSI-2 lanes to the Jetson Orin NX's internal Image Signal Processor (ISP). The physical layer SerDes link latency (from a MAX96717 serializer at the camera head to the carrier board receiver) is deterministic and remains under 5 microseconds. Total glass-to-memory ingestion delay, including hardware frame-grabbing and Linux V4L2 kernel subsystem allocation, sits below 32 milliseconds at 1080p@60fps, making it fully compliant with real-time collision-avoidance perception loop requirements in AMR deployments.

How do we perform physical layer impedance matching and diagnostics for the dual CAN FD interfaces?

The AE-NJ60BT implements dual native CAN FD networks conforming strictly to the ISO 11898-2 standard, supporting data bit rates up to 5Mbps. To verify the network integrity and eliminate transmission reflections across your vehicle or AGV bus:

  • Completely isolate the system from primary power to avoid transceiver leakage current from skewing measurements.
  • Apply a digital multimeter across the CAN_H and CAN_L terminals on the Phoenix plug.
~60Ω Reading: Indicates that two 120Ω resistors are properly balanced in parallel across the bus loop, signaling correct physical termination.
~120Ω Reading: Points to an under-terminated loop where either the remote node resistor is absent or a terminal block connection has fractured.
<40Ω Reading: Signals over-termination caused by three or more parallel resistors, which severely clamps the differential voltage and drops data frames.

Is the thermal management purely passive, or does the system utilize an active cooling fan?

The main computing node utilizes a heavy-duty, unibody extruded aluminum chassis that acts as a highly efficient heat sink, maintaining purely passive cooling up to standard 25W TDP workloads. However, to handle sustained maximum execution cycles in the 157 TOPS Super Mode under extreme +70°C environments, the carrier board features an embedded internal smart PWM auxiliary cooling channel. This channel remains idle under typical edge automation loads but activates dynamically based on thermal sensors embedded near the Orin NX silicon junction, preventing thermal throttling while maximizing component longevity.

How does the independent network topography of the quad Gigabit Ethernet ports eliminate cross-talk congestion?

Unlike consumer-grade carrier boards that route multiple RJ45 connectors through a single shared network switch chip, the AE-NJ60BT isolates traffic across individual hardware lanes. Port 1 is driven by the native MAC engine inside the Jetson SOM, while Ports 2, 3, and 4 are managed by three discrete, dedicated Intel i210-AT industrial PCIe-Ethernet controllers. This configuration allows field engineers to isolate heavy camera stream processing subnets on local lines while dedicating separate, unthrottled uplinks for factory PLCs and MES cloud systems, eliminating network packet collision and kernel congestion under full loads.

What are the electrical protection boundaries and sink/source rules for the 16-channel isolated DIO?

The 8× Digital Input (DI) and 8× Digital Output (DO) channels are fully shielded by high-speed optocouplers, providing up to 4000V DC electrical isolation between external signal lines and the core computing circuitry. The DI channels are jumper-configurable to adapt to NPN (Sink) or PNP (Source) wiring topologies, matching standard factory sensors. The DO block operates on an isolated power rail, accommodating selectable 3.3V, 5V, or 12V inputs with a maximum driving capability of 200mA per channel, allowing the AE-NJ60BT to control downstream industrial relays or PLC triggers directly without risk of electromagnetic back-EMF damage.

How does the system prevent NVMe data corruption during sudden vehicle or factory power drops?

The AE-NJ60BT features a hardware supervisor circuit that constantly monitors the incoming DC input rail. If the primary power collapses below 9V, a dedicated hardware interrupt signal is immediately dispatched to the Jetson core module. Our custom Linux Board Support Package (BSP) intercepts this line, instantly pausing active write operations, flushing volatile caches out to the M.2 NVMe SSD journal layers, and unmounting sensitive partition blocks in a controlled window. This hardware-software coordination prevents dirty unmounts, corrupted indexes, and flash block corruption on critical autonomous vehicles or remote energy installations.

Can Wi-Fi 6, 4G/5G cellular, and LoRa modules be deployed simultaneously without RF cross-talk or trace interference?

Yes. The interior carrier board features separate component partitioning and optimized guard-ring routing layouts to isolate signal traces. The M.2 Key-E slot (Wi-Fi/BT), M.2 Key-B slot (4G/5G), and the dedicated Mini PCIe slot (LoRa module) are mapped to independent bus topologies. To minimize inter-module radio frequency interference (RFI) inside the aluminum unibody shell, the internal high-frequency RF pigtails are fully shielded, routing signals directly to separate external high-gain SMA antenna arrays mounted on the rear panel.

How are secure boot, signed Over-The-Air (OTA) updates, and core AI model encryption managed?

The platform can be equipped with an optional hardware TPM 2.0 / TCM security element soldered directly to the board. By integrating with the hardware-based root of trust on the NVIDIA Orin NX module, the system supports encrypted file systems via LUKS, preventing reverse engineering of proprietary AI weight models if physical theft occurs. Firmware validation is enforced via signed bootloaders (UEFI) that verify encryption keys upon initialization, facilitating safe deployment of cryptographically signed OTA fleet upgrades across hostile remote environments.

What is the exact Board Support Package (BSP) baseline version, and are upstream Linux kernel sources provided?

The AE-NJ60BT fully accommodates standard NVIDIA JetPack 5.1.2 (Linux for Jetson L4T 35.x with Kernel 5.10) and next-generation JetPack 6.0 / 6.2 (L4T 36.x with Ubuntu 22.04 LTS and Kernel 5.15 / 6.6). BITECH delivers an unlocked BSP featuring complete carrier-board driver patches, custom device trees for the GMSL2/CSI blocks, and cross-compilation toolchains. Software developers can freely implement custom kernel modules, optimize netfilter rules for automation routing, or compile custom ROS2 abstraction nodes directly within the root layer.

Evaluate the AE-NJ60BT

Send us your workload and camera topology — an engineer scopes the rest.

Jetson Orin NX 8GB or 16GB Super? GMSL2 or MIPI CSI? Vehicle power, sealed enclosure, wide-temp? Tell us the deployment and we return a configuration, thermal/power budget, and sample terms — not a sales brochure.

  • Orin NX module + carrier configuration matched to your AI model
  • Camera ingress plan: 4× GMSL2 long-distance or 4-lane MIPI CSI
  • Sample units and unlocked BSP for field evaluation
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