Researchers have developed a device platform using carbon nanotubes to create flexible and deformable imager sheets for electronics applications.
The technology enhances the fabrication and performance of photo-thermoelectric devices, with implications for wearable tech and flexible sensors.
The innovation leverages the mechanical robustness, electrical conductivity, and thermal properties of carbon nanotubes for bendable and efficient devices.
A key focus was on aligning carbon nanotubes within the flexible substrate for optimal charge transport and thermoelectric response.
A dispenser-printable fabrication process enables cost-effective large-area production, allowing precise control over material deposition.
The imager sheets exhibit broad photoresponse capabilities, detecting radiation across various wavelengths for applications like medical diagnostics and environmental monitoring.
The soft-deformable nature of the sheets allows integration on curved surfaces for real-time imaging, beneficial for health monitoring devices.
The carbon nanotube-based systems show resilience to bending and stretching, making them durable for long-term use in various conditions.
Customization through chemical functionalization enables tailoring imager sheets for specific needs, enhancing sensing capabilities.
The technology facilitates the incorporation of other materials alongside carbon nanotubes to enhance sensitivity and spectral range.