AI is evolving beyond cloud-based systems, with the next generation of intelligent applications expanding to various devices and surfaces. This shift towards edge AI is already underway, with assistants becoming more integrated into everyday objects and environments.
By Behnam Bastani is the CEO and co-founder of OpenInfer.
AI is departing from traditional cloud-based models, moving towards edge computing where intelligent applications reside on various surfaces and devices. This transition allows for continuous context understanding, real-time interactions, and seamless collaboration between different devices and computing layers.
The key factor in the future of assistants is their ability to operate quickly and intelligently even in disconnected or low-bandwidth environments. This necessitates real-time, edge-based inference, with adaptive intelligence as nearby computing resources or cloud connectivity become available.
Reducing costs
As organizations adopt AI, the costs of cloud-centric deployments can escalate beyond budget limits. Localized inference at the source reduces these expenses while maintaining real-time responsiveness.
Securing mission critical or regulated data
Edge AI runtimes ensure that sensitive data remains on the device, enhancing security and compliance for applications like medical imaging or industrial decision-making.
Eliminating latency for split-second decisions
In scenarios where immediate response is crucial, such as manufacturing or augmented reality, local inference prevents delays caused by cloud roundtrips, enhancing user experience.
Collaborative intelligence across devices
The future of edge AI hinges on devices collaborating seamlessly, sharing workloads, context, and memory. This requires intelligent coordination and architecture that enables assistants to scale and respond consistently across various surfaces.
Principle | Why it matters |
Collaborative AI workflows at the edge | These workflows facilitate real-time collaboration between AI agents across different compute units, enabling assistants to work seamlessly across devices and systems. |
Progressive intelligence | Adaptability should scale based on available nearby computing resources, transitioning from basic to full model capabilities as needed. |
OS-aware execution | Inference models must adjust to device OS requirements, CPU/GPU resources, and power management states to ensure consistent performance. |
Hybrid architecture design | Developers should be able to create a single assistant specification without fragmenting code for different hardware platforms. Frameworks need to separate model, orchestration, and synchronization logic. |
Open runtime compatibility | Edge frameworks should be built on standards like ONNX, OpenVINO, or vendor SDKs to leverage acceleration, ensure interoperability, and adapt seamlessly to new silicon platforms. |
Four use case patterns transforming vertical domains
- Regulated & privacy-critical environments
Industries with strict data privacy regulations, such as law firms and healthcare providers, benefit from local-first assistants that keep sensitive workflows and data on the device, ensuring compliance and user trust.
- Real-time collaboration
In time-sensitive environments like manufacturing or medical settings, edge-based assistants offer immediate, context-aware support without relying on cloud connectivity.
- Air-gapped or mission-critical zones
Critical systems that operate in isolated or disconnected areas, such as defense or automotive platforms, require edge assistants to function autonomously and maintain full capability even without consistent connectivity.
- Cost-efficient hybrid deployment
For resource-intensive tasks like code generation, prioritizing edge-first runtimes reduces inference costs by leveraging local computing power while utilizing cloud resources only when necessary, optimizing performance and cost efficiency.
Why this matters: A local-first and collaborative future
Edge assistants offer lower latency, enhanced privacy, and cost savings compared to traditional cloud models. As computing moves closer to users, assistants must seamlessly collaborate across devices, providing a more integrated and adaptive user experience.
This approach brings:
- Lower cost, utilizing local computing resources and reducing reliance on the cloud
- Real-time response, crucial for interactive and time-critical tasks
- Collaborative intelligence, enabling assistants to operate seamlessly across devices and users in a dynamic and adaptive manner
Development path & next steps
Developers should focus on building assistants without worrying about their deployment location, with runtimes abstracting location details and ensuring consistent performance across different devices.
- SDKs should support unified builds for all devices, with intuitive workflows for rapid prototyping
- Effortless benchmarking is essential for measuring latency, power consumption, and performance across different computing tiers
- Clear data contracts are needed to define data localization, synchronization strategies, and resource adaptation for assistants
The future of edge AI tools lies in seamless orchestration, allowing developers to focus on building assistants rather than managing complex infrastructure.
Conclusion
Edge computing is no longer a secondary option but the primary environment for future assistants. Devices that were once disconnected are now becoming intelligent, collaborative, and context-aware. The potential of AI across devices without fragmentation is within reach.
Now is the time to embrace hybrid, context-aware assistants, moving towards a future where AI seamlessly integrates into various devices and surfaces.
About the author
Behnam Bastani is the CEO and co-founder of OpenInfer, where he leads the development of an inference operating system for efficient and private AI assistants across different devices. OpenInfer enables seamless assistant workflows, starting locally and scaling up with cloud or on-premises computing resources while ensuring data control.
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Article Topics
agentic AI | AI agent | AI assistant | AI/ML | edge AI | hybrid inference