Sensing layer
CMOS / global shutter / TOF selection matched to robot illuminance, frame rate, and size constraints.
For service robots, dexterous hands, and industrial collaboration, Shunter offers camera module customization and vision guidance: from sensor and lens selection and mechanical tooling, through stereo / TOF sync calibration and small-batch delivery—supporting grasping, following, and fine manipulation.
Combine with vision PCBA, on-device AI, and vision solutions for an end-to-end robotics vision chain: sensor—module—board—algorithm.
System flow
From selection to delivery: the full robotics vision-module chain
A practical robotics vision front-end engineering path—six coordinated stages from optics to mass production.
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01
Requirements
FOV / resolution
Form factor and interface constraints -
02
Sensor selection
OV and others
Mono / stereo / TOF -
03
Optics & structure
Lens / filter
Bracket and sealing design -
04
Assembly & bonding
AA / active focus
Module consistency control -
05
Calibration bring-up
Intrinsics / extrinsics / sync
ISP / SoC integration -
06
Trial delivery
Functional test
Small batch to mass production
Solution stack
Four layers working together
Optics layer
Lens, IR-Cut, filtering, and distortion control for FOV and imaging quality baselines.
Structure layer
Brackets, baseline distance, sealing, and thermal design for arms, mobile bases, and dexterous-hand mounts.
Calibration layer
Mono / stereo intrinsics and extrinsics, multi-cam sync, and ISP bring-up for grasping and navigation algorithms.
Implementation path
Six steps from requirements to mass production
Typical robotics vision projects advance by stage—reducing risk from split optics, mechanics, and board work.
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1
Scenario and spec lock
Define application (guided grasp / follow / obstacle avoidance), FOV, resolution, form factor, and connectors.
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2
Sensor and lens selection
Evaluate OV and lens combinations; add stereo baseline or TOF when needed.
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3
Structure and process design
Module structure, bonding process, and DFM—with fixtures reserved for mass production.
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4
Sample assembly and imaging validation
First-article AA / focus, sharpness and consistency checks; integrate with board ISP.
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5
Calibration and system bring-up
Stereo / multi-cam calibration, sync triggers, and bring-up with on-device algorithms or firmware.
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6
Trial production and mass-production release
Small batch, frozen test specs, and ongoing engineering change control.
Case study
Featured product: Stereo Camera Module SHT-H101
The customization chain lands as a sync-capable, tunable stereo module for depth sensing, following, and guided grasping.
Product capabilities
- Stereo camera module with synchronized capture
- Tunable effect parameters for different boards and algorithm stacks
- Combine with optical-flow, TOF, and other sensing modules to extend spatial perception
How this solution lands on the product
- Optical structure: Module structure designed to baseline distance and install space
- Sync calibration: Dual-path timing and intrinsics/extrinsics ready for downstream algorithms
- System integration: Bring-up with PCBA / ISP / on-device models to shorten solution import
Customer value
- Front-end modules ship alone or as part of a robotics vision solution
- Same capability family extends to TOF, optical-flow, and related sensing modules
- Fewer multi-party handoffs across optics, structure, and board
More form factors
Where the same robotics vision capability extends
Vision-guided grasping
Object detection and grasp-point estimation for end-effector work and human–robot collaboration.
TOF / optical-flow modules
Distance and motion front-ends for navigation, obstacle avoidance, and target following.
Dexterous-hand fine manipulation
Close-range high-resolution vision front-ends for assembly and sorting precision.
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