Hyfix Revolutionizes Small Drones With Cutting-Edge Navigation Technology

HYFIX Spatial Intelligence today announced the immediate availability of samples and evaluation kits for its groundbreaking H1P Positioning, Navigation, and Open-Compute Module, specifically designed for small unmanned systems. This significant development will be showcased at AUVSI XPONENTIAL 2026 AUVSI XPONENTIAL 2026, a premier industry event for autonomy and robotics, where attendees can experience firsthand the cutting-edge technology on display.

At the heart of the H1P lies HYFIX’s pioneering H1 Autonomous Systems Chip, which has been carefully designed to consolidate multiple electronic subsystems into a single, compact module. This strategic integration brings together flight control, precise positioning, secure communications, and onboard intelligence under one roof, resulting in improved system reliability, reduced complexity, and enhanced overall performance.

According to Mike Horton, CEO of HYFIX, the H1P is about more than just integrating existing components; it’s about tackling the fundamental challenges faced by small unmanned aircraft designers. “By integrating positioning, navigation, and compute at the silicon level,” he explains, “we’re simplifying integration, improving reliability, and giving developers greater control over how their systems perform in the real world.” HYFIX Launches Integrated H1P Positioning, Navigation & Open-Compute Module

The H1P represents a significant shift in approach for drone manufacturers, who previously struggled to integrate multiple subsystems from disparate vendors. This not only led to increased complexity but also compromised system performance and introduced security risks through reliance on foreign-sourced components.

In response to these challenges, HYFIX is pioneering a new era of domestic semiconductor manufacturing, leveraging the latest advancements in technology to create high-performance, low-power autonomous systems chips for drones and robotics. By doing so, they’re strengthening the U.S. drone supply chain and contributing to a more resilient and secure industry ecosystem.

The H1 Autonomous Systems Chip, which powers the H1P, is a prime example of this strategy. Designed from the ground up as an integrated solution, it replaces multiple discrete components with a single, highly optimized module that boasts improved power efficiency, reduced size, and enhanced performance. This approach not only streamlines system design but also enables developers to focus on more complex tasks, such as mission planning and system optimization.

Dual-Antenna GNSS and Integrated Sensor Fusion

One of the key differentiators of the H1P is its ability to support dual-antenna GNSS operation, which provides improved accuracy and reliability in challenging environments. This feature is particularly important for small unmanned systems, where navigation and positioning are critical components of overall system performance.

The H1P also incorporates integrated sensor fusion, combining data from multiple sources (including inertial measurement units, accelerometers, and gyroscopes) to produce highly accurate and robust position estimates. This advanced sensor suite enables the module to operate effectively even in degraded environments, where traditional GNSS signals may be disrupted by interference or jamming.

LEO Satellite Signals: A New Era for Precision Navigation

The H1P is also designed to take advantage of emerging LEO satellite signals, such as those being developed by Xona’s Pulsar navigation service. These high-power signals offer significant advantages over traditional GNSS technology, including improved accuracy, reliability, and resistance to jamming.

With its support for Pulsar signals, the H1P is poised to set a new standard for precision and resilience in small unmanned systems. This capability will be particularly important for applications such as surveillance, mapping, and inspection, where high-accuracy positioning is critical.

Dual-CPU Architecture and Open Compute Platform

The H1P boasts a dual-CPU architecture, which provides a scalable and flexible platform for onboard computing and I/O operations. This design enables developers to choose from a range of operating systems and software frameworks, ensuring optimal performance and flexibility in their applications.

The module also incorporates an open compute platform, which allows developers to access the underlying hardware resources and optimize system performance for specific use cases. This approach supports a wide range of use cases, from simple mission control and navigation to more complex applications such as computer vision and machine learning.

Availability

HYFIX will be showcasing its innovative H1P module at AUVSI XPONENTIAL 2026 AUVSI XPONENTIAL 2026, where attendees can experience firsthand the technology on display. Live demonstrations and evaluation kit sign-ups for qualified customers are also available at Booth 34005.

As the industry continues to evolve and mature, HYFIX Spatial Intelligence is well-positioned to play a major role in shaping the future of small unmanned systems. With its cutting-edge technology and innovative approach to drone manufacturing, the company is poised to make a significant impact on the global autonomous systems market.

About HYFIX Spatial Intelligence

HYFIX Spatial Intelligence is a U.S.-based semiconductor company that’s revolutionizing the world of drones and robotics with its pioneering H1 Autonomous Systems Chip. By integrating flight control, precise positioning, secure communications, and onboard intelligence into a single platform, they’re enabling safer, more reliable, and more affordable autonomous systems. With a focus on reshoring critical hard-tech innovation and manufacturing to the United States, HYFIX is helping to build a stronger, more resilient industry ecosystem.

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