Before
Driver•i
+
HubX
+
External software dependency
Fragmented architecture with integration and compatibility complexity
Project 01
Turning customer problems, engineering constraints and product economics into an advanced multi-camera Edge-AI ADAS platform.
08
One integrated platform
Hardware / Device software / Edge AI
Executive summary
Build one integrated multi-camera Edge-AI product.
Extend intelligence across up to eight camera streams.
Do it without blindly maximizing storage, resolution, hardware cost or deployment complexity.
Customer needs pushed specifications upward. More cameras, better video and more AI created cascading effects across compute, storage, bandwidth, cloud economics, BOM, privacy and installation.
01Context
The existing ecosystem used Driver•i and HubX as separate systems. Driver•i provided AI-powered fleet safety capabilities, while HubX added multi-camera recording without AI analytics across all additional streams.
Before
Driver•i
+
HubX
+
External software dependency
Fragmented architecture with integration and compatibility complexity
After
The opportunity was to consolidate important capabilities into a more integrated platform—not merely to add cameras, and not to claim that every architectural element disappeared.
02Customer problems
Each customer request affected decisions elsewhere in the product. The challenge was to understand the need without optimizing one dimension at the expense of the platform.
Problem A
Customers wanted better accident and event footage. Some reported difficulty identifying details such as number plates from existing footage.
Quality ↔ file size, storage, bandwidth and cloud cost
Problem B
Some customers requested longer retention. With eight cameras, scaling the previous storage model would materially increase storage requirements and hardware cost.
Retention ↔ SSD sizing, BOM and configuration
Problem C
Some customers—particularly in Europe—had strict expectations around retaining identifiable video involving drivers and people around vehicles.
Customer access ↔ privacy constraints
Problem D
More side and rear cameras introduced additional positioning, calibration and installation work across every vehicle deployment.
Coverage ↔ installation time and deployment cost
03My role
“As Device Product Manager, I owned the hardware and device-software requirements and acted as the product decision maker across the major trade-offs.”
01 / Customer & market
02 / Product definition
03 / Product economics & scale
My role was to identify which capabilities genuinely created customer value, then make product decisions that balanced technical ambition with commercial and operational scalability.
04Research & storage decision
Decisions combined customer feedback, usage analysis, field feedback, engineering analysis, installer considerations, and privacy and market requirements.
“More storage was frequently requested, but usage analysis showed that most requested video was retrieved relatively soon after an event.”
This challenged the assumption that maximizing retention automatically created customer value. It reframed storage as a product-economics decision rather than a specification contest.
Implication
Implication
Implication
Implication
05Core product trade-offs
Better video and AI across additional cameras increased customer value—but also affected compute, storage, bandwidth, recurring cloud economics and device cost.
Decision A / Video quality
Video quality was treated as a system-level product decision, not an isolated camera specification.
“The right video quality for the customer use case at a sustainable product cost.”
Decision B / AI across the ecosystem
Extending AI across the camera ecosystem introduced complexity and cost. It also represented the core product differentiation.
Traditional multi-camera recording
D-810 vision
06Configurability
Customers prioritized video quality, retention, privacy, camera configuration and deployment cost differently. Maximizing every specification in one fixed configuration would create a more expensive, inflexible product.
07Deployment economics
At fleet scale, small increases in per-vehicle installation time become meaningful deployment costs. Additional cameras and calibration had to inform product decisions—not remain only an operations concern.
“A physical product is not complete when it leaves engineering. It is complete when it can be deployed reliably at scale.”
08Decision framework
The product decision sat at the intersection of customer value, technical capability, economics, privacy and deployability.
Center
Product decision
09Outcome & lessons
Integrated multi-camera platform
Up to eight camera streams
AI analytics across the camera ecosystem
Improved video-quality capability
Configurable customer and market behavior
More integrated product architecture
What I learned
Feature requests are not automatically requirements.
Hardware decisions create recurring software and cloud economics.
Configurability can justify higher engineering complexity.
Great hardware product management is optimization, not maximization.
“The objective was not to maximize every specification. It was to find the right balance of customer value, technical capability, economics and operational scalability.”