Description
Olivier, co-founder and president of Nanomade, demonstrates how high-sensitivity printed strain sensors convert rigid metal surfaces into interactive control interfaces. Operating through quantum tunneling effects between deposited nanoparticles, the technology registers mechanical micro-deformations on the order of two to three micrometers. Because traditional capacitive touch sensing fails across conductive metal substrates without physical cutouts, Nanomade provides an alternative printed electronics architecture that detects location and pressure under solid metal chassis. https://nanomade.com/
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HDMI® Technology is the foundation for the worldwide ecosystem of HDMI-connected devices; integrated with displays, set-top boxes, laptops, audio video receivers and other product types. Because of this global usage, manufacturers, resellers, integrators and consumers must be assured that their HDMI® products work seamlessly together and deliver the best possible performance by sourcing products from licensed HDMI Adopters or authorized resellers. For HDMI Cables, consumers can look for the official HDMI® Cable Certification Labels on packaging. Innovation continues with the latest HDMI 2.2 Specification that supports higher 96Gbps bandwidth and next-gen HDMI Fixed Rate Link technology to provide optimal audio and video for a wide range of device applications. Higher resolutions and refresh rates are supported, including up to 12K@120 and 16K@60. Additionally, more high-quality options are supported, including uncompressed full chroma formats such as 8K@60/4:4:4 and 4K@240/4:4:4 at 10-bit and 12-bit color.
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Integrating the flexible sensor matrix beneath solid aluminum or other metallic housings enables unbroken industrial enclosures for laptops and external surfaces. For example, users can employ a solid metal trackpad or navigate slide decks directly from an external laptop cover while outputting video over display interfaces. The printed electronics process keeps manufacturing costs competitive with standard capacitive sensor arrays while eliminating fragile cutouts that compromise enclosure rigidity.
Beyond consumer electronics housings, the flexible form factor addresses robotic touch feedback and manipulation. Conventional robotic fingertip force sensors often experience premature saturation when grasping heavier objects, preventing accurate grip force modulation. Nanomade printed strain gauges measure progressive deformation continuously across a wide dynamic range, enabling robotic grippers to distinguish load weights and prevent slippage without crushing delicate items.
Scaling the sensor array facilitates full artificial skin for humanoid platforms and robotic limbs. The technology supports high-density sensor grids, scaling from standard 4x4 millimeter cells down to 1x1 millimeter resolution. Distributing hundreds of independent sensing points across a surface allows machines to detect mechanical stress, contact position, and load distribution across entire structural limbs rather than relying solely on localized fingertip points.
Integration into robotic frameworks requires dedicated controller ICs and multi-layer structural stacks. Because deformation measurement relies on mechanical transfer, the sensor operates within a protected sandwich structure beneath synthetic artificial skin or external casing materials. Exhibited in partnership with Cornes Technologies, Nanomade highlights how printed nanoparticle strain sensing unlocks pressure-sensitive tactile perception across consumer hardware and robotics.