Maxim Evgenevich Dokukin

Title: Maxim Evgenevich Dokukin: Innovator in Viscoelastic Properties and Cancer Cell Identification

Introduction

Maxim Evgenevich Dokukin is a notable inventor based in Potsdam, NY (US). He has made significant contributions to the fields of material science and medical diagnostics. With a total of 2 patents, his work focuses on advanced methodologies for analyzing soft materials and distinguishing between cancerous and normal cells.

Latest Patents

One of his latest patents is titled "High resolution, high speed multi-frequency dynamic study of visco-elastic properties." This invention provides an apparatus and method that includes hardware and software for collecting and analyzing data to obtain information about the mechanical properties of soft materials. The technology allows for surface mapping of viscoelastic properties in a high-resolution and fast manner. It also enables the identification of the degree of nonlinearity of the material response during measurements. The apparatus can function as a stand-alone device or as an add-on to existing atomic force microscopes or nanoindenter devices.

Another significant patent is the "Method of identification of cancerous and normal cells." This method describes a process for distinguishing between cancerous and normal human cells. It involves collecting cells, preparing them for scanning, and utilizing atomic force microscopy for imaging. The images are then processed through specific algorithms that allow for the identification of whether the cell is cancerous or normal.

Career Highlights

Maxim Evgenevich Dokukin is affiliated with Clarkson University, where he contributes to research and innovation in his field. His work has garnered attention for its potential applications in both material science and medical diagnostics.

Collaborations

Maxim collaborates with Igor Sokolov, enhancing the research output and innovation potential in their respective projects.

Conclusion

Maxim Evgenevich Dokukin is a pioneering inventor whose work in viscoelastic properties and cancer cell identification showcases the intersection of technology and healthcare. His contributions continue to advance the understanding and application of innovative methodologies in these critical areas.