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30–40%
Lower migration cost
~50%
Faster security updates
3–4 mo
New migration window
Vehicles ship with older Android.
Their roads last 15 years.
OEMs face critical support gaps the moment native Android
support ends — triggering security,
compliance and consumer experience fallout that compounds over
the vehicle's lifetime.
After Year 3
Security Exposure
- Outdated kernels & HAL layers
- Vulnerable Board Support Packages (BSPs)
- Higher cyber-risk attack surface
Compliance Mandates
Regulatory Risks
- UN R155 / R156 cybersecurity governance
- Non-compliance triggers recalls
- Blocked type approvals in key markets
New-gen vs legacy delta
Feature Mismatch
- Projection stack support expiry
- High maintenance complexity
- Connectivity breaks after 5 years
Leading to…
Brand Trust
CX degradation & insecure IVI
Financial
Rising cost of maintenance
Revenue
Missed digital opportunities
Legal
Warranty & recall risk ↑
OEMs must migrate to a maintainable AAOS baseline and establish a structured long-term sustainment model to stay compliant, competitive and cost-efficient.
See our approach
Android as a living platform —
managed end-to-end.
We simplify Android upgrades and enable faster, safer and smarter platform transitions — from migration planning to recurring compliance, security and feature sustainment.
Security Exposure
Full ownership of Android version upgrades, BSP & middleware refactors.
Policy Compliance
UN R155/R156 posture, validated CTS/VTS, regulatory evidence packs.
Ongoing Maintenance
Automated recurring security patching and release cadence post-SOP.
Key Metrics · Business Impact
30–40%
Lower Cost per Android Version
~50%
Lower cost of security updates
< $2 Mn
Cost of migration (from $3–4 Mn)
3–4 mo
Time for migration (from 6–12 mo)
From ad hoc engineering to AI-
driven lifecycle.
Conventional
Manual & Engineering-Driven
Approach
- Manual & engineering-driven cycles
- Labor-intensive integrations
Pipeline
- Ad-hoc, inconsistent pipelines
Integration
- Multi-supplier bottlenecks
Outcomes
- High cost, long cycles
With Our Solution
AI-Powered & Automated
Approach
- AI-powered automation
- Minimised manual effort & error
Pipeline
- Standardised AAOS baseline
Integration
- One-stop lifecycle ownership
Outcomes
- Lower cost, faster deployment
30–40%
Cost ↓
50%
Faster
100%
Compliance
Three specialised AI agents. One
lifecycle engine.
Accelerated migration, hardened security and guaranteed compliance — orchestrated through reusable, standardised components.
Automates Code Transformation
AI Migration Agent
- Automates diff creation & analysis
- Intelligent patch application
- Framework & middleware upgrades
Proactive Threat Management
AI Security Agent
- Continuous vulnerability scanning
- Automated security patch application
- Automated build & validation
Automated Testing & Validation
AI Compliance Agent
- Fully automated CTS / VTS testing
- Regulatory compliance validation
- Quality metrics & reporting
Standardised Components
Reusable Assets
OTA Checker
HAL Migrator
Policy Checker
Test Automation
From Android X to X+1 in
3–4 months.
CONVENTIONAL
6-12
Months
with us
3-4
Months
- Phase 1
- 2–4 Weeks
Preparation
- Access systems & setup infra
- Baseline build & flashing
- Platform architecture understanding
Owner
KPIT
- Phase 2
- 1–2 Weeks / App
Migration
- Update build scripts & libraries
- Build & test behaviour
- Fix issues and retest
Owner
KPIT
- Phase 3
- 1–2 Weeks / App
Verification
- Unit & integration test updates
- Test execution
- Defect analysis & resolution
Owner
KPIT
- Phase 4
- 5–10 Weeks
System Validation
- All IVI features testing
- Defect analysis support
- Re-certification support
Owner
KPIT
Faster migrations. Rock-solid
stability. Compounding savings.
Unified Android & SoC teams
Common squads aligned with SoC families eliminate coordination loss.
BSP Validation Framework
~40 BSP issues caught early in a single version update.
CTS/VTS/XTS Full Automation
Faster feedback cycles, lower cost of running test suites.
AI for Security
Detection and resolution — ~50% faster patch delivery.
AI for Migration
Analysis, patching and validation with 30–40% lower cost.
Compounding Savings
Reduce maintenance cost by an additional ~25% in the longer run.
Straight answers to the hard questions.
The most common questions from architects, platform leads and program managers evaluating Android lifecycle at scale.
Can we upgrade directly from Android 11 to Android 14 or Android 15/16?
Direct Android migration from A11 to A14+ is technically possible but not recommended for automotive platforms. A phased upgrade approach through Android 14 ensures stability, compatibility with SoC vendors, and reduced integration risk. Intermediate migration improves system validation and minimizes long-term maintenance issues.
What is the typical timeline for Android Automotive OS migration?
Android Automotive OS migration can be completed within 9–12 months depending on system complexity. The process is typically executed in two phases—system analysis and dependency mapping, followed by rapid migration, which can take as little as 3–4 months with our solution.
Can OTA updates support full Android version upgrades?
Yes, full OTA (Over-the-Air) updates are feasible for Android Automotive upgrades when the system architecture is designed for modular updates. Full OTA enables seamless deployment across vehicle fleets, reducing recall risks and ensuring faster software lifecycle management for OEMs.
How are third-party vendor dependencies managed during Android migration?
Third-party dependencies in Android migration are managed through structured assessment and onboarding strategies. Closed-source vendor integrations are supported if accessible, while OEM-owned codebases allow tighter control. Early dependency mapping ensures minimal disruption and faster migration execution.
What happens when Google or SoC vendors stop security patch support?
When Android security patch support ends (typically after ~5 years), systems become vulnerable to compliance and cybersecurity risks. Migrating to newer Android versions (Android 14+) extends security coverage, ensuring continued compliance with automotive cybersecurity standards and regulatory requirements.
Can OEMs avoid repeated migrations by freezing an Android version?
Freezing an Android version is not sustainable due to evolving security, compliance, and ecosystem requirements. Continuous Android lifecycle management ensures long-term platform viability, while periodic upgrades reduce technical debt and maintain compatibility with modern applications and services.
Does KPIT have experience with leading SoC vendors like Qualcomm and Samsung?
Yes, KPIT has extensive experience with leading automotive SoC vendors such as Qualcomm and Samsung. Long-term partnerships and multiple program engagements enable deep expertise in hardware-software integration, ensuring faster Android migration and optimized performance across cockpit platforms.
How does Android migration impact cost and time-to-market?
A structured Android migration approach using pre-integrated components significantly reduces development cost and accelerates time-to-market. Leveraging platform-based architectures minimizes rework, enhances reuse, and ensures faster SOP timelines, often achieving measurable cost efficiencies for OEM programs.
Is Android Automotive migration compatible with existing vehicle ecosystems?
Yes, Android Automotive migration is designed to integrate with existing vehicle ecosystems, including ADAS, connectivity, and cloud services. Proper system assessment ensures compatibility with legacy components while enabling future-ready software-defined vehicle capabilities.
Why is upgrading to the latest Android version critical for automotive OEMs?
Upgrading to the latest Android versions ensures access to enhanced security, improved performance, new APIs, and ecosystem compatibility. For OEMs, this directly impacts brand differentiation, user experience, and long-term software sustainability in software-defined vehicle architectures.
