McFarland, WI *****
Phone #: 608-***-****
Email: **********@*****.***
DAVID S. GRIERSON, PH.D.
EDUCATION
Ph.D., 2008, Engineering Mechanics, University of Wisconsin-Madison B.S., 2002, Mathematics with Physics minor, University of Wisconsin-Whitewater PROFESIONAL APPOINTMENTS
Co-founder of systemech, Inc, 2017-Present, Madison, WI
-Developing innovative and scalable manufacturing equipment and processes for assembly of flexible hybrid electronics
Visiting Associate Scientist, 2016-2019, Engineering Physics Dept., UW-Madison
-Performing experimental research on high-temperature tribology of structural superalloys in helium gas-cooled reactor environments within the Nuclear and Applied Materials Research group of Professor Kumar Sridharan
Visiting Associate Scientist, 2014-2015, Materials Science Dept., UW-Madison
-Developed protocols for measuring friction and wear properties of silicon carbide using atomic force microscopy within the computational materials group of Professor Izabela Szlufarska
Independent Contractor, 2013-2014, Materials Science Dept., UW-Madison
-Developed protocols for measuring friction and wear properties of silicon carbide using atomic force microscopy within the computational materials group of Professor Izabela Szlufarska
Assistant Visiting Scientist, 2012-2013, Engineering Physics Dept., UW-Madison
-Performed research on high-temperature creep crack growth in structural superalloys within the solid mechanics laboratory of Professor Wendy Crone
Co-founder of systeMECH, LLC, 2010-2017, Madison, WI
-Developing innovative and scalable manufacturing equipment and processes for assembly of flexible hybrid electronics
Postdoctoral Researcher, 2008-2011, Mechanical Engineering Dept., UW-Madison
-Performed research on surface and interface mechanics problems in scanning probe microscopy and semiconductor manufacturing processes under the advisement of Professor Kevin Turner
Graduate Research Assistant 2002-2008, Engineering Mechanics Dept., UW-Madison
-Performed research on the fundamental aspects of nanoscale adhesion and friction of hard carbon thin films under the advisement of Professor Robert Carpick
Undergraduate Researcher, 2001, Electrical Engineering Dept., UW-Madison
-Performed research in a microfluidics laboratory with the REU (Research Experience for Undergraduates) program under the advisement of Professor Amit Lal INSTUMENTATION AND TECHNICAL EXPERIENCE
Ambient and UHV atomic force microscopy (AFM)
Microscale tribometry
High-temperature tribology
Nanoindentation
Scanning electron microscopy (SEM) and transmission electron microscopy (TEM)
X-ray photoelectron spectroscopy (XPS) and Auger electron spectroscopy (AES)
Near-edge x-ray absorption fine-structure spectroscopy (NEXAFS), using synchrotron radiation
Photoelectron emission microscopy (PEEM), using synchrotron radiation
Raman spectroscopy
Optical profilometry
Surface modification with radio-frequency plasma and hot filament CVD
Clean room fabrication
Wet chemistry work with acid etching and cleaning (including HF, HNO3, and H2SO4)
Electric discharge machining
CNC milling
Creep crack growth (CCG) testing
Tensile and hardness testing
Finite element modeling and analysis
Software: Matlab, LabVIEW, COMSOL, SOLIDWORKS, AutoCAD, ABAQUS, Mathematica, Maple, Kaleidagraph, Origin, IGOR, Photoshop
Writing, editing, and publishing technical papers PUBLICATIONS
34. High-Temperature Tribological Behavior of Structural Materials after Conditioning in Impure-Helium Environments for High-Temperature Gas-Cooled Reactor Applications V. Pauly, C. Tesch, J. Kern, M. Clark, D. Grierson, D. Singh, O. Ajayi, and K. Sridharan, Journal of Nuclear Materials 522, 2019, p. 311
33. Mechanical Properties of Structure-Tunable, Vapor-Deposited TPD Glass C. Tangpatjaroen, K.Bagchi, R. Martínez, D. Grierson, I. Szlufarska Journal of Physical Chemistry C 122(48), November, 2018 32. Tribochemical Wear of Diamond-Like Carbon-Coated Atomic Force Microscope Tips J. Liu, Y. Jiang, D. S. Grierson, K. T. Turner
ACS Applied Materials & Interfaces, September, 2017 31. Size dependence of nanoscale wear of silicon carbide Tangpatjaroen, Chaiyapat; Grierson, David; Shannon, Steve; Jakes, Joseph ; Szlufarska, Izabela ACS Applied Materials & Interfaces, 9, 2, 1929-1940, January, 2017 30. Creep Crack Growth Behavior of Alloys 617 and 800H in Air and Impure Helium Environments at High Temperatures
Grierson, D.; Cao, G.; Brooks, P.; Pezzi, P.; Glaudell, A.; Kuettel, D.; Fisher, G.; Allen, T.; Sridharan, K.; Crone, W.C.
Metallurgical and Materials Transactions E, November, 2016 29. Rolling-based direct-transfer printing: A process for large-area transfer of micro- and nanostructures onto flexible substrates
D. S. Grierson, F. S. Flack, M. G. Lagally, K. T. Turner Journal of Applied Physics, v 120, n 9, September, 2016 28. Experimental Method for Creep Crack Growth Testing in Controlled Environments at High Temperatures
Grierson, D.; Cao, G.; Brooks, P.; Pezzi, P.; Glaudell, A.; Kuettel, D.; Fisher, G.; Allen, T.; Sridharan, K.; Crone, W.C.
Experimental Mechanics, v 55, n 2, p 417-426, 2015 27. Creep Crack Growth in High-Temperature Impure Helium Environments Grierson, D.; Cao, G.; Glaudell, A.; Kuettel, D.; Fisher, G.; Pezzi, P.; Brooks, P.; Allen, T.; Sridharan, K.; Crone, W.C.
Conference Proceedings of the Society for Experimental Mechanics Series, v 66, n v 5, p 203- 209, 2015
26. Flat punch adhesion: Transition from fracture-based to strength-limited pull-off Jiang, Yijie; Grierson, David S.; Turner, Kevin T. Journal of Physics D: Applied Physics, v 47, n 32, August, 2014 25. Interface mechanics of adhesiveless microtransfer printing processes Kim-Lee, H.-J.; Carlson, A.; Grierson, D.S.; Rogers, J.A.; Turner, K.T. Journal of Applied Physics, v 115, n 14, April, 2014 24. An apparatus for creep crack growth testing in controlled environments at high temperatures Grierson, D.; Cao, G.; Brooks, P.; Pezzi, P.; Glaudell, A.; Kuettel, D.; Fisher, G.; Allen, T.; Sridharan, K.; Crone, W.C.; Fisher, G.
Conference Proceedings of the Society for Experimental Mechanics Series, v 7, p 65-71, 2014 23. Simulated adhesion between realistic hydrocarbon materials: Effects of composition, roughness, and contact point
Ryan, Kathleen E.; Keating, Pamela L.; Jacobs, Tevis D. B.; Grierson, David S.; Turner, Kevin T.; Carpick, Robert W.; Harrison, Judith A.
Langmuir, v 30, n 8, p 2028-2037, March, 2014
22. Mechanics of interaction and atomic-scale wear of amplitude modulation atomic force microscopy probes
V. Vahdat, D. S. Grierson, K. T. Turner, and R. W. Carpick ACS Nano, 7, pp. 3221-3235,April, 2013
21. An Apparatus for Creep Crack Growth Testing in Controlled Environments at High Temperatures
D. Grierson, G. Cao, P. Brooks, P. Pezzi, A. Glaudell, D. Kuettel, G. Fisher, T. Allen, K. Sridharan, W.C. Crone
Proceedings of the 2013 SEM Annual Conference and Exposition on Experimental and Applied Mechanics, 350, p. 1-8, June, 2013
20. The effect of atomic-scale roughness on the adhesion of nanoscale asperities: A combined simulation and experimental investigation
Jacobs, Tevis D. B.; Ryan, Kathleen E.; Keating, Pamela L.; Grierson, David S.; Lefevr, Joel A.; Turner, Kevin T.; Harrison, Judith A.; Carpick, Robert W. Tribology Letters, v 50, n 1, pp 81-93, April 2013 19. Adhesion of nanoscale asperities with power-law profiles Grierson, David S.; Liu, Jingjing; Carpick, Robert W.; Turner, Kevin T. Journal of the Mechanics and Physics of Solids, v 61, n 2, p 597-610, February, 2013 18. Influence of surface passivation on the friction and wear behavior of ultrananocrystalline diamond and tetrahedral amorphous carbon thin films A. R. Konicek; D. S. Grierson; A. V. Sumant; T. A. Friedmann; J. P. Sullivan; P. U. P. A. Gilbert; W. G. Sawyer; R. W. Carpick
Physical Review B, 85, 155448 April, 2012
17. Advances in Manufacturing of Molded Tips for Scanning Probe Microscopy Moldovan, Nicolaie; Dai, Zhenting; Zeng, Hongjun; Carlisle, John A.; Jacobs, Tevis D. B.; Vahdat, Vahid; Grierson, David S.; Liu, Jingjing; Turner, Kevin T.; Carpick, Robert W. Journal of Microelectromechanical Systems, v 21, n 2, p 431-442, April, 2012 16. “Soft Si”: Effective Stiffness of Supported Crystalline Nanomembranes Francesca Cavallo, D. S. Grierson, K. T. Turner, and M. G. Lagally ACS Nano, n 7, p 5400-5407, July 26, 2011
15. Characterization of Hysteresis of Surface Energy in Room-Temperature Direct Bonding Processes
David Grierson and Kevin T. Turner
ECS Trans., v 33, n 4, p 573-580
14. Preventing nanoscale wear of atomic force microscopy tips through the use of monolithic ultrananocrystalline diamond probes
J. Liu, D.S. Grierson, N. Moldovan, J. Notbohm, S. Li, P. Jaroenapibal, S.D. O’Connor, A.V. Sumant, N. Neelakantan, J.A. Carlisle, K. T. Turner, R. W. Carpick Small, v 6, n 10, p 1140-1149, 2010
13. Thermal stability and rehybridization of carbon bonding in tetrahedral amorphous carbon D. S. Grierson, A.V. Sumant, A.R. Konicek, T.A. Friedmann, J.P. Sullivan, and R. W. Carpick Journal of Applied Physics, v 107, n 3, p 033523, 2010 12. Assessment of the mechanical integrity of silicon and diamond-like carbon coated silicon atomic force microscope probes
Liu, Jingjing; Grierson, David S.; Sridharan, Kumar; Carpick, Robert W.; Turner, Kevin T. Proceedings of SPIE - The International Society for Optical Engineering, v 7767, 2010 11. Characterization of Microscale Wear in a Polysilicon-Based MEMS Device using AFM and PEEM-XANES Spectromicroscopy
D.S. Grierson, A. V. Sumant, A.R. Konicek, G.E. Wabiszewski, M.P. de Boer, A.D. Corwin, and R.W. Carpick
Tribology Letters, v 36, n 3, p 233-238, 2009
10. Origin of ultralow friction and wear in ultrananocrystalline diamond A. R. Konicek, D. S. Grierson, P.U.P.A. Gilbert, W.G. Sawyer, A.V. Sumant, and R. W. Carpick
Physical Review Letters, v 100, n 23, p 235502-1-4, 2008 9. Synthesis and characterization of smooth ultrananocrystalline diamond films via low pressure bias-enhanced nucleation and growth
Y.C. Chen, X.Y. Zhong, A. Konicek,D.S. Grierson, N.H. Tai, I.N. Lin, B. Kabius, J.M. Hiller, A.V. Sumant, R.W. Carpick, O. Auciello
Applied Physics Letters, v 92, n 13, p 133113-1-3, 2008 8. Nanotribological properties of nanostructured hard carbon thin films D. Grierson
Article, January 2008
7. Surface chemistry and bonding configuration of ultrananocrystalline diamond surfaces and their effects on nanotribological properties
A. V. Sumant, D. S. Grierson, J. E. Gerbi, J. A. Carlisle, O. Auciello, and R. W. Carpick Physical Review B, 76, 235429, December, 2007
6. Nanotribology of carbon-based materials
D. S. Grierson, R. W. Carpick
Nano Today, v 2, n 5, p 12-21, 2007
5. Tribochemistry and material transfer for the ultrananocrystalline diamond-silicon nitride interface by X-PEEM spectromicroscopy
David S. Grierson, Anirudha V. Sumant, Andrew R. Konicek, Mike Abrecht, J. Birrell, Orlando Auciello, John A. Carlisle, Thomas W. Scharf, Michael T. Dugger, P.U.P.A. Gilbert, and Robert W. Carpick
Journal of Vacuum Science & Technology B (Microelectronics and Nanometer Structures), v 25, n 5, p 1700-5, 2007
4. Small amplitude reciprocating wear performance of diamond-like carbon films: dependence of film composition and counterface material
J.A. Bares, A.V. Sumant, D.S. Grierson, R.W. Carpick, and K. Sridharan Tribology Letters, v 27, n 1, p 79-88, 2007
3. Surface composition, bonding, and morphology in the nucleation and growth of ultra-thin, high quality nanocrystalline diamond films
A.V. Sumant, P.U.P.A. Gilbert, D. S. Grierson, A.R. Konicek, M. Abrecht, J.E. Butler, T. Feygelson, S.S. Rotter, R.W. Carpick
Diamond and Related Materials, v 16, n 4-7, p 718-24, 2007 2. Toward the ultimate tribological interface: Surface chemistry and nanotribology of ultrananocrystalline diamond
A.V. Sumant, D.S. Grierson, J.E. Gerbi, J. Birrell, U.D. Lanke, O. Auciello, J.A. Carlise, R.W. Carpick
Advanced Materials, v 17, n 8, p 1039-1045, 2005
1. Accounting for the JKR-DMT transition in adhesion and friction measurements with AFM Grierson, D.S.; Flater, E.E.; Carpick, R.W.
Journal of Adhesion Science and Technology, v 19, n 3-5, p 291-311, 2005 PATENTS
US Patent P120088US01 - System for transfer of nanomembrane elements with improved preservation of special integrity (co-inventor)
US Divisional Patent (pending) - System for Transfer of Nanomembrane Elements with Improved Preservation of Spatial Integrity (co-inventor)