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ILS-T52 3D Depth Imaging LiDAR

T52

Dedicated 3D depth camera for unmanned forklifts—125° ultra-wide angle, precisely locks onto the fork tip’s field of view.

The T52 is an industrial-grade 3D Time-of-Flight depth camera specifically designed for unmanned forklifts and heavy-duty AGVs. It features an ultra-wide horizontal field of view of 125° × 55°, enabling it to perfectly cover the broad area in front of the forklift and completely eliminating blind spots on both sides of the fork tips and chassis.
The T52 provides high-resolution depth data at 640 × 240, and thanks to its optimized optical design, it can precisely detect pallet hole positions, shelf beams, and ground obstacles. Its unique dual-module design, combined with a light resistance capability of 10,000 lux, ensures stable operation even in warehouses with alternating light conditions. Whether it’s the precise insertion and retrieval of items from high-level stacks or the sensitive obstacle avoidance in narrow aisles, the T52 is an indispensable sensing hub for unmanned forklifts.

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3D obstacle avoidance and pallet positioning for unmanned forklift forks

When performing cargo storage and retrieval tasks, forklifts often need to extend their forks deep into the shelves or operate in mid-air. Traditional 2D LiDAR sensors, typically mounted at the bottom of the vehicle body, are unable to detect overhead obstacles at fork height—such as protruding steel beams or improperly arranged goods. As a result, forklifts are highly susceptible to “high-altitude collisions” when lifting or moving forward. Moreover, accurately identifying pallet slot positions has long been a persistent challenge in the industry. Relying solely on mechanical positioning is often insufficiently precise, easily leading to failed insertion attempts or even damage to the goods.

Autonomous Forklift: Lateral Clearance Monitoring and Collision Avoidance in Narrow Aisles

In automated stereoscopic warehouses pursuing high-density storage, rack aisles are typically designed to be extremely narrow (VNA). When unmanned forklifts travel at high speeds within these aisles, even a slight deviation or an unexpected protrusion of goods from the racks into the aisle can easily lead to accidents such as goods scraping against racks or the forklift becoming stuck. Traditional single-point ranging sensors can only detect fixed points and cannot cover the entire three-dimensional space along the sides, making it difficult to identify irregularly protruding obstacles.

Autonomous Forklift: Precision Forking Assistance and Pallet Hole Position Recognition

In the entire operational process of unmanned forklifts, “precise fork positioning” is the stage with the highest failure rate. Due to uneven ground surfaces, deviations in pallet orientation, or deformation of goods, relying solely on vehicle navigation and positioning often fails to ensure perfect alignment between the forklift forks and the pallet’s hole positions. Once the deviation exceeds a certain threshold, the forks may collide with the pallet’s upright posts or even topple the goods, leading to serious logistics accidents. Traditional mechanical limit switches or 2D radar systems struggle to capture depth information about the pallet’s cross-section, making it impossible for them to handle pallets with varying orientations.

Autonomous Forklift: Cargo Posture Monitoring and 3D Pathway Protection

When unmanned forklifts are transporting goods at high speeds, they face a dual risk: First, there’s the safety of the cargo itself—emergency stops or sharp turns could cause stacked goods to tilt, slide, or even collapse. Second, there’s the issue of blind spots: Stacked goods often obstruct the line of sight of sensors located beneath the vehicle body, causing the forklift to “fail to see” low-lying obstacles or suspended objects directly in front of it. If the forklift cannot实时 detect the status of the cargo and identify blind-spot risks in real time, it will easily lead to severe damage to the goods or collision accidents.
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Images Order Number Product line Product Name Product abbreviation Configuration Instructions Scanning angle Scanning frequency Resolution Measure the distance 10% reflectivity detection range Accuracy Input/Output Interface Anti-light interference Operating temperature Power supply voltage High and low voltage levels Power consumption Protection Housing dimensions Shell material Cable length Applicable scenarios 资料下载 询价 Contrast

T52

ILS-T52 3D Depth Imaging LiDAR

T52

Fork tip obstacle avoidance

120°×55°

10 Hz

640*240

3 meters

3 meters

±2 cm

Ethernet, multi-channel IO level output

100,000 Lux

-10°C to 50°C

DC 10~28V

-

≤4W

IP65

80mm (length) × 95mm (width) × 20mm (height)

Aluminum alloy

-

Fork tip obstacle avoidance

Related Downloads

T52

ILS-T52 3D Depth Imaging LiDAR Product User Manual V12

Release time:

2025/11/12

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Release time:

2025/11/12

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T52

ILS-T52 3D Depth Imaging LiDAR Product User Manual V12

Nov 12,2025

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