Knowledge Pack: Thin Film Characterization with AFM-IR

Advantages of Photothermal AFM-IR for Polymer Research

^{RESOURCE TYPE: Application Note [PDF]
LENGTH: 7 pages}

^DESCRIPTION:
This application note explores the advantages of photothermal AFM-IR for characterizing polymer systems, including examples applicable to thin films. It explains how nanoscale spatial resolution, tunable infrared excitation, and surface-sensitive detection overcome limitations of conventional IR techniques. The document highlights why AFM-IR is selected when chemical variation at small length scales must be resolved. This supports evaluation of the method in comparison to bulk or diffraction-limited approaches.

_{READERS WILL LEARN:}

• What advantages AFM-IR provides over conventional IR techniques
• Why nanoscale resolution matters for chemical mapping in thin films
• How surface-sensitive detection avoids thickness-related artifacts
• When AFM-IR is chosen for heterogeneous polymer systems
• Why tunable IR excitation improves chemical specificity

Chemical Characterization of Heterogenous Polymeric Materials on the Nanoscale Using Photothermal AFM-IR

_{RESOURCE TYPE: Webinar
LENGTH: ~1 hour}

• [00:02:07] Presentation Overview
• [00:03:19] Intro to FT-IR Imaging & Spectroscopy
• [00:05:07] Overview of Photothermal AFM-IR

• [00:10:54] AFM-IR for Multilayer Polymer Films
• [00:16:26] AFM-IR for Block Co-Polymers

• [00:22:50] AFM-IR for Polymer Blends
• [00:35:18] AFM-IR for Organic Photovoltaics
  
• [00:46:41] Summary
• [00:47:37] Q&A

Chemical Characterization of Polymeric Films, Blends, and Self-Assembled Monomers

^{RESOURCE TYPE: Application Note [PDF]
LENGTH: 4 pages}

^DESCRIPTION:
This application note explores chemical characterization of polymeric films, blends, and self-assembled monomers using AFM-IR. It provides examples of how nanoscale IR absorption mapping is used to distinguish chemical domains and phase-separated regions. The document reinforces the versatility of AFM-IR for different material systems, including thin film applications. It supports evaluation by showing consistent performance across multiple polymer structures.

_{READERS WILL LEARN:}

• What types of polymer systems can be analyzed with AFM-IR
• How chemical domains are identified in thin films and blends
• Why nanoscale IR mapping is needed for heterogeneous materials
• When AFM-IR is applied to self-assembled structures
• What measurement outcomes reveal compositional variation

Photothermal AFM-IR for Semiconductor Materials and Devices

^{RESOURCE TYPE: Application Note [PDF]
LENGTH: 5 pages}

^DESCRIPTION:
This application note examines the use of AFM-IR for semiconductor materials and devices, including thin film structures and interfaces. It focuses on identifying chemical composition at interfaces, detecting contamination, and understanding layer-specific properties. The examples show how nanoscale IR mapping is applied to real device-related challenges. This connects the method directly to specific technical problems in thin film systems.

_{READERS WILL LEARN:}

• What semiconductor thin film problems AFM-IR can address
• How interface chemistry is analyzed at the nanoscale
• Why chemical identification is critical for device performance
• How AFM-IR is applied to contamination and defect analysis
• When nanoscale chemical mapping is required in devices

High-Resolution Chemical Imaging with Tapping AFM-IR

^{RESOURCE TYPE: Application Note [PDF]
LENGTH: 4 pages}

^DESCRIPTION:
This application note explores tapping mode AFM-IR for analyzing soft or fragile materials, including thin film coatings and polymer systems. It explains how tapping operation reduces sample damage while maintaining chemical sensitivity. The document highlights use cases where conventional contact modes are not suitable. This supports evaluation of AFM-IR for challenging sample types.

_{READERS WILL LEARN:}

• What tapping AFM-IR is and when it is used
• Why fragile thin films require non-destructive measurement modes
• How tapping mode preserves sample integrity
• When to select tapping mode over contact approaches
• What types of materials benefit from this configuration

Demo: AFM-IR on Epoxy Film with PMMA/PS Beads and Carbon Black

^{RESOURCE TYPE: Real-time technical demonstration (part of "Surface Characterization of Thin Films Symposium")
LENGTH: ~10 minutes}