I. NLIR384 SWaP-C Thermal Imaging Module | Industrial Core

Cost-Effective 384×288 Uncooled Infrared Engine for Automated Diagnostics

The NLIR384 represents a definitive milestone in cost-optimized radiometric engineering, offering a high-performance SWaP-C thermal imaging module architecture tailored specifically for industrial monitoring and OEM system integration. By leveraging our proprietary second-generation IR ISP chips and advanced Wafer-Level Packaging (WLP) detectors, this module delivers exceptional cost-efficiency while meeting the strict constraints of Size, Weight, and Power (SWaP) required by highly compact diagnostic systems.

This 384×288 resolution uncooled core features a refined 12μm pixel pitch and a thermal sensitivity (NETD) of ≤40mK, yielding crisp, detailed thermal profiles crucial for early anomaly detection. To facilitate seamless operation across complex computational environments, the module supports a wide spectrum of digital video pipelines, including MIPI, DVP, and USB 2.0, along with legacy analog CVBS tracking. Its integration allows hardware engineers to rapidly build intelligent edge computing devices, making the NLIR384 the premier foundation for modern automated inspection platforms.

SWaP-C Optimized

384×288 Resolution

12μm WLP Detector

＜0.7W Power Consump.

RoHS & REACH Compliant

II. Engineering Advantages of the NLIR384 SWaP-C Thermal Imaging Module

Cost-Effective Innovation: Reduces overall hardware deployment costs by up to 30% compared to industry competitors due to our integrated WLP and ISP technology.
Ultra-Lightweight SWaP Framework: Weighing less than 8.6g with a minimal 21mm square chassis, it minimizes mechanical burden in pan-tilt-zoom assemblies and portable gear.
Uninterrupted Video Continuity: Employs an advanced non-shuttering Shutterless algorithm alongside standard shutter calibration to guarantee seamless, lag-free analytics.
Extreme Launch and Operational Shock: Rated to survive severe 80g sawtooth shock profiles (4ms duration) and 6.06grms random vibration across all operational axes.
Full Environmental Compliance: Engineered with sustainable materials that fully comply with industrial RoHS and REACH certification requirements.

III. Strategic Deployment Scenarios for Balanced Infrared Modules

Industrial Monitoring and Inspection Robots

The 384×288 resolution provides the optimal data balance for fixed factory automation and automated inspection robots. Its wide operational range allows for high-precision temperature profiling in complex manufacturing areas.

Drone Search and EO/IR Gimbals

With its exceptionally low power requirement (<0.7W) and light weight, this SWaP-C thermal imaging module is ideal for integration into lightweight dual-sensor airborne gimbals, maximizing multi-rotor flight times.

Perimeter Security and Fire Warning

Deployed as an edge sensor for critical infrastructure security and early fire warning systems, the NLIR384 penetrates adverse weather and thick smoke to provide uninterrupted situational awareness.

IV. NLIR384 Technical Specification Matrix

Parameter Category	Technical Specification
Detector Type	Vanadium Oxide (VOx) Uncooled Infrared Focal Plane Array
Array Resolution	384 × 288
Detector Refresh Rate	30Hz / 60Hz Native
Pixel Dimensions	12μm
Thermal Sensitivity (NETD)	≤40mK @25℃, F#1.0, 25Hz
Thermal Time Constant	＜12ms
Spectral Response Band	8μm ~ 14μm
Input Operating Voltage	DC 5V
Typical Power Consumption	＜0.7W
Digital Video Formats	DVP / BT656 / USB2.0 / MIPI
Analog Video Signal	PAL / NTSC
Control Communication	UART / I2C / USB2.0
Physical Frame Mass	＜8.6g
Physical Core Size	21mm × 21mm × 10.3mm
Operating Environment	-40℃ to +80℃
Storage Environment	-50℃ to +85℃
Humidity Resilience	5% – 95% RH, non-condensing
Vibration Rating	6.06g_rms random vibration, all axes
Launch Shock Rating	80g sawtooth shock @ 4ms duration, 3 axes × 6 directions
Environmental Certification	RoHS and REACH Compliant

V. Optical Lens Selection & Target Detection Range

Focal Length / F#	FOV (H×V)	IFOV	Lens Depth of Field (DoF)	Detection / Recognition / Identification (Range)	Lens & Flange Weight
9.1mm F1.1 Manual	28.9° × 21.7°	1.3mrad	1.73m ~ ∞	1.1km / 0.25km / 0.17km	10.5g ±5％
13.5mm F1.0 Manual	31.9° × 25.7°	0.9mrad	3.8m ~ ∞	1.5km / 0.37km / 0.19km	15.2g ±5％
18mm F1.1 Manual	24.2° × 19.5°	0.7mrad	6.14m ~ ∞	2.0km / 0.5km / 0.25km	25g ±5％
25mm F1.0 Prime	17.5° × 14.0°	0.48mrad	13.02m ~ ∞	2.8km / 0.7km / 0.35km	67g ±2％
35mm F1.0 Prime	12.5° × 10.0°	0.34mrad	25.52m ~ ∞	3.9km / 0.97km / 0.49km	111g ±2％
55mm F1.0 Prime	8.0° × 6.4°	0.22mrad	63m ~ ∞	6.1km / 1.5km / 0.76km	191g ±2％

Note: Detection, recognition, and identification ranges are estimated against pedestrian targets (1.8×0.5×0.3m) per Johnson’s Criteria.

VI. Mechanical and Optical Interface Specifications

NLIR384 Thermal Module core mechanical dimensions and pin assignment schematic showing 21x21mm footprint

NLIR384 Thermal Imaging Module with 9.1mm F1.1 lens showing FOV 28.9x21.7 and assembly dimensions.

Core Form Factor: 21mm × 21mm × 10.3mm | Assembly Height with 9.1mm Lens: 29.50mm | Mounting: M1.6 thread pattern supported.

VII. Universal Adaptability of the SWaP-C Thermal Imaging Module

The NLIR384 balances optimal thermal processing matrix data with aggressive cost control measures. By removing mechanical shutters and offering a multi-protocol interface routing matrix (MIPI, DVP, USB), this SWaP-C thermal imaging module guarantees effortless integration into any edge-computing or remote diagnostics layout. Across drone gimbals, wearable safety apparatus, and factory automation arrays, the NLIR384 provides resilient, high-refresh thermal mapping that seamlessly scales alongside modern industrial demands.