Heliux Core: Unified Control And Integration For Airborne Mapping

Aispeco unveiled Heliux Core (patent pending), a next‑generation system for control and integration designed to streamline aircraft installation and orchestrate increasingly sophisticated, multi‑sensor aerial mapping missions. It aims to compress setup time and standardize workflows across varied fleets.

As airborne geospatial workflows expand—in sensor counts, data rates, and on‑board processing—installation and configuration increasingly constrain operations. Heliux Core addresses this pressure by consolidating command, compute, and power handling into a single, modular platform that serves as the mission’s central hub.

From Many Boxes to One Cohesive Platform

Earlier Heliux pod generations required separate in‑cabin installations for the Heliux Core controller and a dedicated power supply. The latest release fuses those roles into one compact, self‑contained unit that can be temporarily mounted in the cockpit, typically occupying one passenger seat. This seat‑based, non‑permanent approach shortens aircraft downtime, minimizes aircraft disruption, and simplifies deployment across diverse airframes and operators.

Engineered to Grow With Mission Demands

Modularity underpins Heliux Core, enabling operators to expand computing resources and mission capabilities without redesigning the system. Power is equally flexible, supporting an integrated alternating-current/direct-current supply, an aircraft power feed, and an optional uninterruptible power supply for continuity before takeoff, throughout flight, and after landing.

The platform’s compute and data architecture is designed to scale for multi‑sensor missions while maintaining operational reliability.Modular processor building blocks (GeoBrick).Onboard, real-time processing.High-performance data backbone (10G+ Ethernet, PCIe-class storage).Active cooling.Tuned thermal airflow.Component-level thermal stress testing.

Helix Core is also the name of Perforce’s version control platform (often called P4), which teams use to store, track, and manage changes to code and large digital assets in a centralized system. Typical use cases include coordinating many contributors, managing large binary files, enforcing access controls, and supporting structured release and branching workflows.

Key features of Perforce Helix Core commonly include centralized versioned storage, fine-grained permissions, file locking for binary assets, branching and merging support, automation hooks and triggers, replication options for distributed teams, and integrations via tools and API access. Industries that frequently use it include game development, media and visual effects production, product design workflows with large assets, and other engineering and software organizations that need strong control over large repositories.

Cloud deployment options for Perforce Helix Core generally include self-managed installs on cloud virtual machines and managed infrastructure in platforms such as Amazon Web Services, Microsoft Azure, and Google Cloud, as well as private-cloud deployments. Teams typically choose between hosting the server themselves (for maximum control) and vendor-assisted or partner-managed hosting (to reduce operational overhead), depending on security and compliance needs.

Pricing for Perforce Helix Core is typically based on a commercial license model, with costs varying by team size, feature needs, and support level; organizations usually obtain a quote for paid tiers. A free option is commonly available for small teams or evaluation use, but it is generally limited by conditions such as user counts, included support, and eligible features compared with paid plans.

Support for Perforce Helix Core is commonly offered through product documentation and community resources, with paid support options that can include prioritized assistance and service-level agreements. To get started, teams typically install the Helix Core server, create a depot and initial workspace, connect using a graphical client or the P4 command-line client, set up user permissions, and then integrate with build systems or other tooling as needed.

Compared with Git, P4 and Git both provide version control, change history, branching, and merging, but they differ in architecture and workflow. Git is distributed by default, while P4 is typically centralized and is often chosen for workflows that rely on controlled access, file locking, and efficient handling of very large assets; Git is often preferred for lightweight distributed workflows and local-first development.

Compared with Subversion, Perforce Helix Core is often viewed as a stronger fit for large-scale teams and large repositories, particularly where performance, binary asset management, and advanced permissions matter. Subversion can be simpler to operate for smaller centralized workflows, while Perforce Helix Core is often selected when teams need more robust scaling, controls, and asset-oriented collaboration.