Each SharpaWave fingertip integrates a miniature camera with more than 1,000 tactile pixels, delivering high-resolution visuo-tactile sensing for precise manipulation and adaptive grip control.

Sharpa Robotics has moved its flagship dexterous robotic hand, SharpaWave, into mass production—an important milestone for the rapidly expanding general-purpose robotics sector. The Singapore-based company says manufacturing has transitioned to a rolling production model supported by automated testing systems that rigorously validate the durability of thousands of microscale gears, motors, and sensors within every unit.

Although initial shipments began in October, the production scale-up comes ahead of SharpaWave’s debut as an Innovation Awards Honoree at CES 2026 in Las Vegas. Designed to match human-scale size and dexterity while delivering exceptional strength and precision, the robotic hand has already secured early orders from major global technology firms.

Figure 1. Robotic Hand With 22 Degrees of Freedom.

Dexterity goes industrial

According to Sharpa Robotics, bringing SharpaWave into mass production is a key step toward making general-purpose robots practical and broadly deployable. The company aims to manufacture robotic hands and core components with the consistency and reliability expected of mission-critical systems, such as aircraft engines or automotive platforms. Figure 1 shows Robotic Hand With 22 Degrees of Freedom.

To achieve this level of quality at scale, Sharpa has developed highly automated reliability and endurance testing infrastructure that continuously assesses the performance of thousands of embedded microscale components [1]. This approach is intended to guarantee long-term accuracy, durability, and agility—addressing one of the main obstacles to deploying dexterous robotic hardware beyond controlled laboratory settings, reports Humanoids Daily.

Sharpa’s strategy focuses on what it considers robotics’ most complex challenge: the hand. A truly capable robotic hand allows machines to operate naturally within human-designed environments, removing the need to redesign tools or spaces. With sufficient dexterity, robots can handle delicate objects, operate tools, and perform tasks across hospitals, hotels, retail environments, and homes.

SharpaWave features 22 active degrees of freedom and incorporates the company’s proprietary Dynamic Tactile Array technology, enabling near-human levels of manipulation. Each fingertip delivers visuo-tactile sensing capable of detecting forces as small as 0.005 newtons. Six-dimensional force sensing enables adaptive grip control and slip prevention, allowing the system to respond intelligently to both fragile and heavy objects.

Built for developers

Sharpa Robotics says SharpaWave was designed to accelerate adoption in both industrial and research settings by combining advanced hardware with an open, developer-friendly software ecosystem. Marketed as the “world’s most advanced” dexterous robotic hand, SharpaWave runs on an open-source software stack, allowing researchers and engineers to integrate it into existing workflows without proprietary constraints.

At the core of this ecosystem is SharpaPilot, the company’s control and development platform. SharpaPilot supports widely used simulation environments—including Isaac Gym, Isaac Lab, PyBullet, and MuJoCo—enabling smooth transitions from simulation to real-world deployment. The platform also provides extensive reinforcement-learning examples, supporting rapid experimentation, training, and task adaptation.

On the hardware side, SharpaWave has been certified to endure one million continuous grip cycles without failure, reflecting its emphasis on durability and long-term reliability. Each joint is fully backdrivable, improving resilience to external impacts while enhancing safety during human-robot interaction. This mechanical compliance helps protect both the system and its surroundings in dynamic or unpredictable conditions.

Additional active safety features—including compliance controls and intelligent protection mechanisms—further reduce the risk of damage from accidental operation or misuse. Together, Sharpa says its software tools, high-fidelity simulation models, and integrated safety systems form a comprehensive, cross-platform development suite that shortens development timelines and bridges the gap between laboratory research and real-world robotic deployment.

References:

1. https://interestingengineering.com/ai-robotics/sharpas-advanced-robotic-hand-enters-mass-production

Cite this article:

Keerthana S (2025), World’s Most Advanced’ Robotic Hand With 22 Degrees of Freedom Enters Mass Production”, AnaTechMaz, pp.332