14 Angstroms: PI Contributes to Next Semiconductor Technology Node Development
PI’s new nanopositioning technology advancement initiative supports EU-funded project.
Karlsruhe, Germany - 14ACMOS, a new, EU-funded development project for the next semiconductor technology node, is expected to enable the production of chip structures with dimensions down to 14 angstroms (1.4 nanometers). Physik Instrumente (PI) is participating in the research program by developing ultra-high precision nanopositioning systems with accuracies better than one millionth of a millimeter.
High-end microchips manufactured using 3 nanometer technology are the current state of the art. Production technologies for the 2nm technology node are expected to be available as early as next year and for 1.4 nm, i.e., 14 angstroms, by 2027. The 95-million-euro research project 14ACMOS is co-funded by the European Union and supported by the "Joint Undertaking for Chips" (Chips JU). It brings together the know-how and development expertise of Europe's leading suppliers to the semiconductor industry. The project, which involves twenty-five partners from six countries, is coordinated by ASML, the Dutch world leader in lithography systems for semiconductor manufacturing.
PI has been a system partner to the semiconductor industry for decades and is represented worldwide with nanometer precision motion and positioning systems in a wide range of applications related to semiconductor production. Examples include lithography, metrology, quality control and beam delivery. The nanopositioning systems to be developed as part of the 14ACMOS project must function under vacuum conditions reliably and with very high dynamics to be economically viable.
This project is co-funded by the European Union under grant agreement No 101096772 and is supported by the Chips Joint Undertaking and its members. More information about the 14ACMOS project
The angstrom scale is often used to describe atomic distances. One angstrom is equal to one ten millionth of a millimeter or 0.1 nanometers (nm). For comparison: A human hair is about 80,000 nanometers thick, and diameter of the smallest atom (hydrogen) is about 0.5 angstroms.
Moore's Law Still Valid
The ongoing miniaturization of semiconductor structures, commonly known as Moore's Law, dictates that the number of electronic circuits doubles approximately every 18 months. This trend was first forecasted by Gordon Moore, co-founder of Intel, back in 1965.
Higher transistor counts on the next generation chips will provide greater computing power to satisfy the needs of AI applications, self-learning algorithms, and autonomous vehicles.
More information on PI's nanopositioning and motion control solutions for the semiconductor industry
Featured Product
3D Vision: Ensenso B now also available as a mono version!
This compact 3D camera series combines a very short working distance, a large field of view and a high depth of field - perfect for bin picking applications. With its ability to capture multiple objects over a large area, it can help robots empty containers more efficiently. Now available from IDS Imaging Development Systems. In the color version of the Ensenso B, the stereo system is equipped with two RGB image sensors. This saves additional sensors and reduces installation space and hardware costs. Now, you can also choose your model to be equipped with two 5 MP mono sensors, achieving impressively high spatial precision. With enhanced sharpness and accuracy, you can tackle applications where absolute precision is essential. The great strength of the Ensenso B lies in the very precise detection of objects at close range. It offers a wide field of view and an impressively high depth of field. This means that the area in which an object is in focus is unusually large. At a distance of 30 centimetres between the camera and the object, the Z-accuracy is approx. 0.1 millimetres. The maximum working distance is 2 meters. This 3D camera series complies with protection class IP65/67 and is ideal for use in industrial environments.