
[Image courtesy of Figure.ai]
While Helix prioritizes vision-language-action synergy at high frequencies, Neo Gamma focuses on a softer design and improved situational awareness—thanks in part to AI-driven teleoperation and safety mechanisms. According to The Robot Report, 1X’s newest humanoid NEO Gamma was built with household environments in mind, featuring a minimalist design, 3D-printed knit suit and shoes, and an emphasis on quieter, more reliable hardware. The company said NEO Gamma boasts a 10x increase in hardware reliability and a 10 dB decrease in noise. It also includes new “Emotive Ear Rings” for real-time feedback and a companion feature enabling natural conversation and body language—all to help it better fit into real-world home settings.
Multiple “firsts” in humanoid robotics
Helix is the first VLA to provide full upper-body control at high frequency—managing up to 35 degrees of freedom (DoF) at 200Hz across the wrists, torso, head and individual fingers. By separating the problem into two complementary systems—“System 2” (S2) for language and scene understanding at around 7–9Hz, and “System 1” (S1) for fast reactive control—Helix can handle everything from opening a fridge door to precisely grasping awkwardly shaped objects. Both systems share a single set of neural network weights, avoiding any per-task fine-tuning.
Meanwhile, Norwegian robotics firm 1X is taking a similar but more home-centric approach with its new humanoid, Neo Gamma, a successor to the earlier Neo Beta. While Helix prioritizes vision-language-action synergy at high frequencies, Neo Gamma focuses on a softer design and improved situational awareness—thanks in part to AI-driven teleoperation and safety mechanisms. Instead of Helix’s fully generalized VLA, 1X is experimenting with specialized modules to address delicate human interactions. Neo Gamma’s exterior is also designed to minimize accidental harm, reflecting the company’s ambition to operate safely alongside people in varied household scenarios. Though these two systems differ in execution, both aim to bring us closer to the day when robots can seamlessly perform everyday tasks at home—be that opening the fridge to fetch a carton of milk or picking up fragile glassware without shattering it.
The home is a notoriously chaotic environment for robots; items are endless in variety, potentially fragile, and rarely where you expect them. Yet Helix reportedly enables robots to pick up virtually any small household object—“thousands of items they have never encountered before,” per Figure AI—by following natural language prompts. The press release highlights a playful example: “Pick up the desert item,” which prompts Helix to identify a toy cactus and then command the robot’s arms and fingers to grasp it.

[Image courtesy of Figure.ai]
Multi-robot collaboration and commercial readiness
A notable aspect of Helix is multi-robot collaboration. It’s reportedly the first VLA to operate simultaneously on two robots, allowing them to pass unfamiliar groceries like bags of cookies back and forth, coordinate head movements for “eye contact,” and work together on longer tasks—such as reorganizing a shelf. This real-time coordination still runs on low-power embedded GPUs, reinforcing Helix’s “commercial-ready” design. Figure AI notes that this entire system was trained with only around 500 hours of high-quality teleoperated data—far less than many comparable robotics datasets.
The video below shows the NEO Gamma in action:
While Helix can already “pick up anything” without separate fine-tuning or hand-coded scripts, Figure AI sees this as just the beginning. The company aims to scale Helix “1,000x and beyond,” enabling humanoid robots to handle more complex tasks—like folding laundry, cooking, or setting a table—just by asking them in plain language.
Why it matters: If Helix delivers on its promise, we may finally see general-purpose household robots that can handle the unpredictable realities of daily life. This, in turn, could spur further R&D into robot collaboration, sensor fusion and safe human-robot interaction. The possibilities are considerable. Just think of humanoid robots showing up everywhere from homes to research labs in the coming years.