Smarter, Safer, and More Human: How Printed Electronics and Digital Twins Are Powering the Next Generation of Humanoid Robots

May 28, 2026

The Future Takes Shape: Humanoid Robots Enhanced by Stretchable Electronics and Digital Twins

Humanoid robots are designed to work in the future in human environments such as homes, hospitals, workplaces, and especially industrial settings like manufacturing and logistics. In industry, they can assist with assembly, quality inspection, material handling, and tasks that require human-like dexterity. Their partly or fully human-like shape allows them to use existing tools, perform precise tasks, and interact with tactile touch and gestures alongside human workers.

As these robots advance, there is a growing need for lightweight and flexible electronics—especially in their hands.

Bringing Robots to Life: The Role of Printed Stretchable Electronics

Jani Helolahti, Sales Manager, Robotics sector.

Printed stretchable electronics offer an effective solution in several robotics’ applications. Sensors can be printed to stretchable surfaces using conductive inks, enabling robotic dexterous hands to sense tactile pressure and touch with high accuracy. This allows robots to safely handle delicate objects like glassware, medical tools, as well as sensitive industrial components.

Stretchable sensors further improve performance by measuring finger movement and pressure in real time. This helps robots achieve smooth, controlled motion, which is especially important in applications like precise industrial operations and assistance.

In addition, electronic skin-type solutions (e-skin) can cover the hand, enabling robots to detect pressure, slipping, and human contact—bringing a new level of sensitivity and safety to human-robot interaction.

Next-Gen Humanoids: Precision Meets Intelligence with Digital Twins

Digital twin solutions enhance these capabilities even further. A printed sensor application with virtual model for example, of a robot hand—can mirror real-time sensor data, allowing simulation, testing, and optimization.

For example, a robot can learn how to grasp new objects in a digital environment before performing the task in the real work environment. This improves safety, efficiency, and reduces downtime in industrial processes.

Together, printed electronics and digital twins make humanoid robots more precise, responsive, and cost-effective—accelerating their use in industry, healthcare, education, and service environments.

Jani Helolahti, Sales Manager, Robotics sector.

Market Opportunity: Unlocking a Multi-Billion-Euro Growth Frontier

The convergence of humanoid robotics, printed electronics, and digital twin technologies is opening significant business opportunities across multiple sectors.

  • Industrial automation is expected to remain the largest adopter, as companies seek flexible solutions to address labour shortages and increase productivity.
  • Logistics and warehousing benefit from robots capable of handling diverse, delicate, or irregular objects with human-like precision.
  • Healthcare and assistive robotics present rapidly growing markets, where humanoid robots can support aging populations and medical professionals.
  • Service and education sectors are increasingly exploring humanoid robots for customer interaction, training, and learning environments.

Printed stretchable electronics enable scalable, cost-effective sensor integration, reducing production costs while improving performance. At the same time, digital twins reduce development cycles, enabling faster innovation and deployment.

As these technologies mature, they are expected to drive widespread adoption of humanoid robots, positioning them as a key pillar of future smart industries and societies.

Jani Helolahti,
Forciot Oy, Sales Manager, Robotics sector