
The rapid evolution of IoT, Edge AI, and wireless communication is redefining how we approach security, connectivity, and intelligence. Abhay Mangalore, Software Engineering Manager at Arlo Inc., brings deep expertise in these domains, driving innovation in smart security solutions. In this interview, Abhay discusses the challenges and opportunities in Edge AI deployment, the future of AI-powered home security, and the role of cybersecurity in IoT. He also shares valuable career insights for aspiring engineers. Read on to explore his perspectives on the technologies shaping the next generation of secure, intelligent devices.
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You have spent nearly two decades engineering groundbreaking solutions in embedded systems, IoT, and wireless communications. What was a pivotal moment in your career when you realized you were pushing the boundaries of innovation?
Throughout my career, I have been fortunate to work at the intersection of embedded systems, IoT, and wireless communications, constantly pushing the boundaries of what’s possible. A pivotal moment in my career was when I worked on developing AI-powered security cameras that combined embedded intelligence, IoT connectivity, and real-time video processing. We were pushing the boundaries of innovation—designing cameras that could differentiate between people, animals, and vehicles, reducing false alerts while ensuring a seamless user experience.
One of the most satisfying aspects was seeing end users truly appreciate and integrate these cameras into their daily lives. Knowing that the technology we built was actively protecting homes and businesses, giving people peace of mind, and making security more accessible was incredibly rewarding. It reinforced my passion for creating intelligent, user-centric solutions that go beyond just engineering excellence—they genuinely enhance everyday life.
As a Software Engineering Manager at Arlo Inc., you work at the intersection of security, connectivity, and intelligence. How do you approach balancing performance, power efficiency, and security in the evolving IoT landscape?
In the evolving IoT landscape, balancing performance, power efficiency, and security is a continuous challenge that requires a system-level approach rather than isolated optimizations. At Arlo Inc., where we develop cutting-edge security cameras, I focus on three core strategies to achieve this balance:
- Edge AI for Real-Time Performance & Power Efficiency
Traditional cloud-based processing introduces latency and power constraints. To address this, we leverage Edge AI, enabling on-device intelligence for real-time video analytics, such as object detection and person recognition. By processing data locally, we reduce cloud dependency, lower bandwidth usage, and improve power efficiency—a critical factor for battery-powered devices. - Adaptive Wireless & Energy Management
Connectivity is a major power consumer in IoT devices. We implement dynamic power scaling and adaptive wireless protocols (e.g., Wi-Fi 6, BLE, and Thread) to optimize transmission power based on environmental conditions. This ensures that devices stay connected without unnecessary energy drain. - Security-First Architecture
With growing cyber threats, IoT security is non-negotiable. We take a multi-layered security approach by embedding secure boot, hardware root of trust, and end-to-end encryption in our devices. We also comply with other security global standards like to ensure privacy and data protection while maintaining device integrity.
Ultimately, the key to balancing these factors is cross-functional collaboration—working closely with hardware, firmware, mobile apps and cloud teams to ensure that optimizations in one area don’t compromise another. By integrating AI-driven efficiency, intelligent connectivity, and proactive security, we ensure our IoT products deliver best-in-class performance while remaining energy-efficient and secure.
Edge AI is rapidly transforming industries, from smart security systems to autonomous vehicles. What do you see as the most significant challenges in deploying AI at the edge, and how is Arlo tackling these challenges?
Edge AI is reshaping industries by enabling real-time, intelligent decision-making without relying on cloud infrastructure. However, deploying AI at the edge presents three key challenges:
- Compute Constraints vs. AI Complexity
Edge devices have limited processing power, memory, and energy compared to cloud servers. Running deep learning models efficiently on such constrained hardware requires aggressive model optimization techniques like quantization, pruning, and knowledge distillation. To tackle this, we can implement lightweight neural networks optimized for the low-power SoCs (System-on-Chip) to ensure high-performance AI inference with minimal power draw. - Security and Privacy Risks
Processing sensitive data on edge devices raises security and privacy concerns. Unlike cloud environments, edge devices are more vulnerable to physical attacks and firmware tampering. To mitigate this, we can adopt secure boot, hardware root of trust, and encrypted AI models to prevent adversarial attacks. Moreover, the usage of radar-based activity zones reduces reliance on video data, addressing privacy regulations like GDPR. - Scalability and Continuous Learning
AI models need to evolve with new data, but updating models on edge devices at scale is challenging due to network constraints and device variability. This can be tackled by implementing federated learning, where devices collaboratively train models without sharing raw data, enhancing privacy while keeping AI models up to date. Additionally, over-the-air (OTA) updates enable us to push AI enhancements seamlessly across millions of devices.
By addressing these challenges through hardware-software co-optimization, robust security architectures, and scalable AI updates, we are pioneering the next generation of smart, autonomous security systems powered by Edge AI.
In your experience with video streaming security cameras, how have advancements in computer vision and AI changed the way we think about home security and surveillance?
Advancements in computer vision and AI have fundamentally transformed home security and surveillance, shifting from passive monitoring to proactive intelligence. Traditionally, security cameras relied on motion detection, often leading to excessive false alerts from environmental factors like shadows, trees, or pets. Today, AI-driven computer vision has redefined security in three key ways:
- Smart Object and Activity Recognition
Modern AI models can differentiate between people, vehicles, animals, and packages, reducing false alerts and ensuring users receive only relevant notifications. Cameras utilize deep learning-based object detection, improving situational awareness while reducing unnecessary cloud processing. - Edge AI for Real-Time Decision Making
Instead of relying solely on cloud servers, AI models now run directly on cameras, enabling instantaneous threat detection. For instance, real-time anomaly detection can distinguish between normal household movement and suspicious behavior, helping homeowners prevent break-ins rather than just record them. - Privacy-Focused AI Innovations
AI is also reshaping how we balance security with privacy. Features like automated privacy zones—enabled by mmWave radar and AI-driven motion tracking—ensure that cameras focus only on relevant areas, addressing global privacy regulations like GDPR. Additionally, on-device processing minimizes data transmission, reducing cybersecurity risks.
These advancements mean that security cameras are no longer just recording devices but intelligent guardians that predict, alert, and adapt to security needs in real time. With continuous improvements in computer vision, AI efficiency, and privacy-centric technologies, home security is becoming more intelligent, responsive, and user-friendly than ever before.
With automation and AI redefining business landscapes, what trends do you predict will have the most profound impact on IoT and wireless communication in the next five years?
Over the next five years, automation and AI will drive unprecedented advancements in IoT and wireless communication, shaping how devices connect, process data, and make intelligent decisions. The most profound trends will include:
- Edge AI and Federated Learning for Smarter IoT
AI models are shifting from centralized cloud computing to on-device intelligence, enabling real-time decision-making with lower latency and better privacy. Federated learning will play a key role, allowing IoT devices to learn from localized data without transmitting sensitive information to the cloud. This will be especially crucial in smart security systems, healthcare monitoring, and industrial automation. - mmWave and 6G for Ultra-Reliable, Low-Latency Communication (URLLC)
As IoT applications demand higher bandwidth and ultra-low latency, mmWave technology and 6G will enable real-time AI applications, such as autonomous drones, robotic surveillance, and smart cities. These advancements will support massive machine-type communications (mMTC), allowing billions of IoT devices to seamlessly connect. - Energy-Efficient AIoT for Sustainable Tech
With growing concerns over energy consumption, the next wave of IoT devices will leverage AI-driven power management, energy-harvesting sensors, and adaptive wireless protocols like Wi-Fi 6 and BLE 5.3. These innovations will extend device lifespans and reduce operational costs, making AIoT more sustainable. - AI-Driven Security for Zero-Trust IoT Networks
With the rapid expansion of IoT, cybersecurity threats are increasing. AI-driven security models will enhance real-time anomaly detection, automated threat mitigation, and blockchain-based authentication to establish zero-trust IoT networks. This will be crucial for smart homes, connected healthcare, and industrial IoTecosystems. - Privacy-Centric IoT with On-Device Processing
As privacy regulations tighten (e.g., GDPR, CCPA), IoT devices will increasingly adopt on-device AI processing, encrypted data storage, and user-controlled access. Technologies like homomorphic encryption and differential privacy will ensure that IoT systems remain intelligent yet privacy-compliant.
The next five years will see AI, advanced wireless technologies, and security innovations converging to create autonomous, energy-efficient, and privacy-aware IoT ecosystems. Companies that adapt to these trends early will lead the next wave of AIoT transformation.
Many experts debate between cloud-based AI processing versus edge-based intelligence. What are your insights on when and where each approach is most effective, particularly in security applications?
The debate between cloud-based AI and edge-based intelligence is not about which is better, but rather when and where each is most effective—especially in security applications, where latency, privacy, and computational efficiency are critical.
1. Edge AI: Best for Real-Time, Privacy-Sensitive Applications
Edge-based intelligence is most effective when:
- Low latency is critical → Real-time security applications, such as intruder detection, facial recognition, or anomaly detection, require instantaneous responses. Processing AI models directly on the device eliminates cloud latency.
- Privacy concerns exist → With regulations like GDPR and CCPA, reducing data transmission protects user privacy. On-device AI ensures that sensitive video or audio data isn’t unnecessarily uploaded to the cloud.
- Bandwidth is limited → Security cameras operating in remote locations or on battery power benefit from AI inference at the edge, reducing bandwidth usage and extending device life.
2. Cloud AI: Best for Large-Scale Analytics and Continuous Learning
Cloud-based AI is most effective when:
- Deep learning requires high compute power → Training and refining AI models demand massive computational resources. Security companies use cloud AI for continuous model improvements based on aggregated data.
- Cross-device intelligence is needed → Cloud AI enables multi-camera integration for behavioral pattern analysis across a property or citywide surveillance network.
- Long-term storage and advanced analytics → AI-driven forensic analysis, such as searching for specific objects or tracking movements over days/weeks, benefits from cloud processing power.
The future of security AI lies in a hybrid approach, where edge devices handle real-time decisions while the cloud provides deeper learning, scalability, and long-term analytics. Innovations like federated learning will further enhance security by enabling on-device model updates without raw data leaving the device, striking the perfect balance between efficiency, security, and intelligence.
Security vulnerabilities in IoT devices remain a growing concern. How do you approach designing secure embedded systems that can withstand evolving cybersecurity threats?
Security in IoT devices is a moving target, with cyber threats constantly evolving. Designing secure embedded systems requires a multi-layered security approach that integrates hardware, software, and network-level protections. We should always prioritize security across the entire device lifecycle by focusing on:
1. Hardware-Rooted Security
- Implementing Secure Boot and Hardware Root of Trust (RoT) ensures that devices only run authenticated firmware, preventing malicious code injection.
- Using TPM (Trusted Platform Module) or Secure Enclaves for cryptographic key management protects sensitive data from physical attacks.
2. End-to-End Data Encryption
- AES-256 and TLS 1.3 encryption safeguard data both at rest and in transit, ensuring that video streams and user data remain protected.
- Zero-trust architecture enforces strict authentication policies, limiting access to only authorized users and services.
3. AI-Driven Threat Detection
- Leveraging AI-based anomaly detection to identify unusual patterns in network traffic and device behavior, proactively mitigating threats.
- Implementing automated security patching via OTA (Over-the-Air) updates, ensuring devices stay protected against the latest vulnerabilities.
4. Privacy-First Design
- Adopting on-device AI processing minimizes data exposure by reducing cloud dependency, aligning with regulations like GDPR and CCPA.
- Utilizing mmWave radar for activity zones instead of video-based motion tracking enhances privacy while maintaining security.
5. Compliance with Global Security Standards
- Ensuring IoT devices meet industry standards such as ETSI EN 303 645, NIST Cybersecurity Framework, and ISO/IEC 27001.
- Regular penetration testing and vulnerability assessments to proactively identify and patch security gaps.
Cybersecurity is not a one-time implementation but an ongoing process. By integrating hardware-enforced protections, AI-powered threat detection, and privacy-centric design, we ensure that security cameras and IoT devices remain resilient against evolving threats.
You have experience in diverse domains such as telecommunications, automotive, and M2M communication. What are some cross-industry lessons you’ve learned that have shaped your approach to product engineering?
Working across telecommunications, automotive, and M2M communication has shaped my systems-thinking approach to product engineering. In automotive, real-time performance and fail-safe designs were critical—principles that directly apply to AI-powered security cameras needing instant threat detection. Telecom reinforced the importance of scalability and interoperability, ensuring devices integrate seamlessly across networks and protocols. Security and compliance, ingrained in both industries, have driven my security-first approach to IoT product design. Additionally, power efficiency—a key challenge in automotive ECUs and M2M devices—has influenced my focus on AI-driven optimizations for battery-powered IoT. These cross-industry insights help me engineer intelligent, resilient, and future-proof products at Arlo and beyond.
If you had unlimited resources to create a next-generation smart security system, what breakthrough features or capabilities would you prioritize?
With unlimited resources, I would prioritize four breakthrough features to create a next-generation smart security system:
- AI-Powered Proactive Threat Detection
Leveraging advanced Edge AI and multi-sensor fusion, the system would not just react to threats but anticipate them by recognizing patterns and anomalies in real-time. This would include predictive alerts that could, for example, anticipate a potential break-in based on unusual patterns or crowd behavior. - Privacy-Centric Surveillance
Using mmWave radar alongside AI-driven privacy zones, I’d ensure that cameras focus only on relevant areas, enhancing privacy compliance in regions with stringent regulations like GDPR. Cameras would be data minimization-first, ensuring that sensitive video and audio data are either processed on-device or never stored unless absolutely necessary. - Autonomous, Self-Healing Network
The system would incorporate a distributed mesh network that is self-healing and adaptive to environmental changes. Whether power sources or network connections fail, the system would autonomously reconfigure to maintain optimal performance without manual intervention, enhancing resilienceanduptime. - Seamless Integration and Smart Automation
Seamless integration with smart home systems and AI-driven automation would allow the security system to predictively adjust based on user behavior—arming when the home is unoccupied, dimming lights or locking doors based on contextual AI insights. This would provide non-invasive security that adapts naturally to everyday life, blending intelligence with ease of use.
These features would combine intelligent surveillance, advanced privacy protection, and resilient, adaptive connectivity to create a truly next-generation security system that not only reacts to incidents but prevents them and enhances user peace of mind.
Looking back at your journey in engineering and leadership, what is one piece of advice you would give to young professionals entering the field of embedded systems and IoT today?
Looking back at my journey in engineering and leadership, one piece of advice I’d give to young professionals entering the field of embedded systems and IoT today is to stay hungry and stay foolish—as Steve Jobs famously said. Always challenge the status quo and stay curious about the endless possibilities around you. Look around, whether it’s a simple device or something you use every day. Ask yourself, “How could I make this better, smarter, or more efficient?” That’s how innovation in IoT and AIoT begins. For example, just thinking about how to turn on the light without getting up from your office chair sparks the ideas that lead to home automation and much more.
As you dive into this field, remember the mantra: Go big or go home. The world of embedded systems and IoT offers countless opportunities to push the boundaries of what’s possible. So, embrace bold thinking and never settle for anything less than what excites and challenges you. The devices we use today, and the ones that will change our lives tomorrow, are born from curiosity and daring to imagine something better. Stay inspired, keep innovating, and don’t be afraid to fail—because that’s where the breakthroughs happen.