Sensor
CMOS / global shutter / TOF selection matched to scene lighting, frame rate, and size constraints.
For smart home, robotics, industrial inspection, and medical-related scenarios, Shunter provides camera module customization: sensor and lens selection, mechanical tooling, sync calibration, and small-batch delivery—turning “it captures an image” into a mass-production front-end module.
Combines with visual PCBA, edge AI, and full product solutions for a complete sensor–module–board–algorithm delivery chain.
System flow
From selection to delivery: full module customization chain
A camera module engineering path split into six coordinated stages from optics through mass production.
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01
Requirements
FOV / resolution
Form factor and interface constraints -
02
Sensor selection
OV / OX and others
Mono / stereo / TOF -
03
Optics and mechanics
Lens / filter
Bracket and sealing design -
04
Assembly and bonding
AA / active focus
Module consistency control -
05
Calibration bring-up
Intrinsics / extrinsics / sync
ISP / SoC integration -
06
Pilot delivery
Functional test
Small batch to volume
Solution stack
Four layers working together
Optics
Lens, IR-Cut, filters, and distortion control for FOV and imaging baseline.
Mechanics
Bracket, baseline, sealing, and thermal design for doorbells, robots, and industrial mounts.
Calibration
Mono / stereo intrinsics and extrinsics, multi-camera sync, and ISP bring-up for downstream algorithms.
Implementation path
Six steps from requirements to mass production
Typical module projects advance by phase to reduce risk from split optics, mechanics, and board teams.
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1
Scene and specification lock
Define application (doorbell / IPC / robot / industrial), FOV, resolution, form factor, and connector.
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2
Sensor and lens selection
Evaluate OV / OX with lens combinations; add stereo baseline or TOF when needed.
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3
Mechanical and process design
Module structure, bonding process, DFM; fixtures reserved for mass production.
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4
Prototype assembly and imaging validation
First-sample AA / focus, sharpness and consistency checks, mainboard ISP integration.
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5
Calibration and system bring-up
Stereo / multi-camera calibration, sync triggers, edge algorithms or full product firmware.
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6
Pilot and production release
Small batch, frozen test specs, and ongoing engineering change management.
Reference case
Product example: stereo camera module SHT-H101
The customization chain applied to a synchronously capturing, tunable stereo module for depth and tracking front ends.
Product capabilities
- Stereo camera module with synchronized capture
- Tunable imaging parameters for different mainboards and algorithm stacks
- Combinable with optical flow, TOF, and other perception modules for spatial sensing
How this solution maps to the product
- Optical mechanics: Module structure sized to baseline and installation space
- Sync calibration: Dual-channel timing and intrinsics/extrinsics ready for algorithms
- System integration: PCBA / ISP / edge models—shorter full product ramp
Customer value
- Front-end module deliverable standalone or as part of a full product
- Same capability extends to mono IPC, TOF, optical flow, and related modules
- Lower coordination cost across optics, mechanics, and board teams
More form factors
Extensions of the same module capability
Mono AI camera module
Common doorbell / IPC front end—low light, HDR, compact mechanics.
TOF / optical flow module
Distance and motion estimation front end for robot navigation and follow modes.
Industrial / endoscope micro module
Small diameter, reliable connection—combinable with endoscope system delivery.
Request a consultation Visual PCBA Customization AI Vision Solution