Executives handle a wide range of daily tasks, including meeting management, scheduling, and strategy. When a CEO is required to manually track requests across multiple digital and verbal channels, it delays the entire decision-making process. This forces leaders to spend time on simple, repetitive tasks rather than prioritizing their core strategic work.
To address this, we developed a Proof-of-Concept (PoC) for a voice-activated Executive Assist device. The project validates the use of local AI to automate routine scheduling and informational tasks.
The PoC centers on a standalone Edge AI architecture featuring an interactive display and a local Large Language Model (LLM) integration. By processing data on-device, the system ensures high responsiveness and data security.
The device demonstrates the following capabilities:
This architecture was designed to prove the device’s ability to act as a complete, intelligent executive interface.
We developed Executive Assist, an AI-driven personal assistant system, as a Proof-of-Concept (PoC) to address administrative and scheduling constraints common in executive workflows. The system enables users to issue voice-activated requests for tasks including meeting coordination, travel booking, and secure document retrieval.
The primary engineering objective was to achieve real-time command execution at the edge. For this PoC, we architected the device on the Nvidia Jetson Nano platform to utilize its GPU for local inference. Running the Large Language Model (LLM) and speech-processing models on-device is a deliberate design choice to maintain the security of confidential company data. This Edge AI architecture provides the necessary latency reductions and data privacy by eliminating the requirement for constant cloud connectivity.
During the PoC phase, we successfully validated the system architecture and its ability to handle all defined test scenarios. The device demonstrated consistently low-latency responses across all available functions, confirming that the NVIDIA Jetson Nano provides sufficient performance for Edge AI processing at this stage. In later phases, we will evaluate more cost-optimized processing platforms.
The PoC also validated response accuracy, demonstrating that the device can reliably execute complex, multi-variable voice requests, such as meeting scheduling and data retrieval.
Finally, we successfully integrated the device with IoT protocols, enabling environmental control and demonstrated compatibility with smart environment management use cases.