In this webinar, Bruker nanoscale IR spectroscopy experts show how photothermal AFM-IR can identify the local chemistry of defects. With this detailed knowledge about chemistry, defect origins can be identified and eliminated.
AFM-IR is a unique, automation-capable technique that reaches beyond the capabilities of bulk spectroscopy or nanoscale elemental analysis methods. It has redefined the boundaries of nanoscale characterization for the semiconductor manufacturing industry.
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Find out more about the technology featured in this webinar or our other solutions for Nanoscale Chemical Characterization:
Semiconductor devices are an essential part of our modern world. Current challenges exist in reducing contamination on wafers and masks, refining existing deposition, etch and growth techniques and improving EUV lithography and photoresist processes. The ability to accurately characterize and measure these materials is critical to improving wafer yields and pushing towards smaller transistors and developing new packaging solutions. Elemental analytical techniques such as EDS/EELS have stepped up to meet the need for higher sensitivity and resolution, but lack chemical specificity in identifying organic materials. AFM-IR is up to the task to identify the origin and narrow down to one of the many processing/inspection steps during which defects may be introduced.
AFM-IR (atomic force microscopy infrared spectroscopy) combines AFM’s high spatial resolution with IR spectroscopy’s chemical specificity, and has been used by many semiconductor companies to improve product outcomes. Bruker’s Dimension IconIR and Dimension IconIR300 systems work as multifunctional instruments for studying the nanoscale chemistry, along with electrical and mechanical properties of semiconductor devices on wafers up to 300 mm. Automation capabilities and the capability to import coordinates from KLARF allows for considerably higher throughput and the best cost of ownership for nanoscale IR imaging and spectroscopy.
This webinar highlights AFM-IR's applications in defect identification, process control, and photoresist characterization, and its role in advancing 2D material research for the semiconductor industry. Join us to discover how AFM-IR is redefining the boundaries of nanoscale characterization, and the unique role it can play in semiconductor manufacturing, and how AFM-IR is being used to explore the future of semiconductor devices.
Date: Wednesday, January 2025
Time: 8AM PST | 11AM EST | 5PM CET
Location: Online
Featured Technologies:
Dr. Qichi Hu, Senior Applications Scientist
Chunzeng Li, Ph.D., Applications Engineer, Bruker
Jin Hee Kim, Ph.D., Applications Scientist, Bruker