Ryan Wagner
Physics and Astronomy · Purdue University West Lafayette
Publications
48
Citations
1,540
Est. group size
~16
Recurring co-author estimate
Active years
17
Publishing since 2010
Ryan Wagner develops and applies atomic force microscopy (AFM), a technique that uses a tiny mechanical probe to image and measure surfaces at the nanoscale, to study the mechanical, electrical, and rheological (flow and deformation) properties of materials ranging from soft biological samples like liposomes to engineered materials like nanostructures and printed electronics. His work often involves building new measurement methods and instrumentation, such as photothermal actuation and interferometric imaging, to improve the accuracy and range of nanoscale measurements.
Publication output grew from about 1-2 papers per year around 2017-2019 to a peak of 10 in 2023, with several papers per year overall in the last five years, suggesting a generally increasing then recently more variable pace of output.
Generated by claude-sonnet-5 from public bibliographic data · Jul 20, 2026
- Characterizing tip-sample interaction dynamics on extreme ultraviolet nanostructures using atomic force microscopy with a high-aspect ratio tip
Measurement Science and Technology · 2026
- Complex Deformation Characteristics of Liposomes during Atomic Force Microscopy Force Curves
Langmuir · 2026
- 3D Vector Piezoresponse Imaging with Interferometric Atomic Force Microscopy
Small Methods · 2025
- Distance and relative humidity contributions to the atomic force microscopy off surface electrostatic response of soda lime glass
Scientific Reports · 2025
- Nanoscale Rheology: Dynamic Mechanical Analysis over a Broad and Continuous Frequency Range Using Photothermal Actuation Atomic Force Microscopy
Macromolecules · 2024
- Acoustically enhanced porous media enables dramatic improvements in filtration performance
Separation and Purification Technology · 2024
- Accurate vertical nanoelectromechanical measurements
Journal of Applied Physics · 2024
- Electromigration and electrical sintering in printed silver from high current at room temperature
Flexible and Printed Electronics · 2024
- 3D Nanoscale Electromechanical Imaging with Interferometric Atomic Force Microscopy
arXiv (Cornell University) · 2024
- The effect of sample viscoelastic properties and cantilever amplitudes on maximum repulsive force, indentation, and energy dissipation in bimodal AFM
Physica Scripta · 2023
- Low frequency photothermal excitation of AFM microcantilevers
Journal of Applied Physics · 2023
- Measurement of web tension using ambient vibrations in roll-to-roll manufacturing of flexible and printed electronics
Flexible and Printed Electronics · 2023
- Quantifying Electromechanics in Emerging Functional Materials: Electrostatics, Blind Spots and Precision
Microscopy and Microanalysis · 2023
- Accurate Vertical Nanoelectromechanical Measurements
arXiv (Cornell University) · 2023
- Nanoscale rheology: Dynamic Mechanical Analysis over a broad and continuous frequency range using Photothermal Actuation Atomic Force Microscopy
arXiv (Cornell University) · 2023
- Journal of Applied Physics×3
- Flexible and Printed Electronics×3
- arXiv (Cornell University)×3
- Nature×2
- Macromolecules×2
- Arvind Raman
Physics and Astronomy · Purdue University West Lafayette
- Simon Hu
Physics and Astronomy · Purdue University West Lafayette
- Chelsea S. Davis
Physics and Astronomy · Purdue University West Lafayette
- Denis V. Pelekhov
Physics and Astronomy · The Ohio State University
- R. Reifenberger
Physics and Astronomy · Purdue University West Lafayette
This profile was generated automatically from public scholarly data (OpenAlex). Group size and activity levels are estimates derived from co-authorship patterns.
Last updated Jul 20, 2026.
Claim or correct this profile