Publications

Google Scholar Link

 

Journal Papers (each citation below is a link to download the paper):

121.Sangid MD, “The physics of fatigue crack propagation,” International Journal of Fatigue, 197 108928 (2025).

120. Yetter KJ, Jung K, Chuang A, Sangid MD, LePage W, “Surface smoothing for laser powder-bed Ti-6Al-4V by a transient liquid phase,” Materials & Design 251 113689 (2025).

119. Gandhi G, Sangid MD, “Analysis of complex internal channels on high-cycle fatigue behavior of LBPF GRCop-42,” Engineering Failure Analysis 171 109335 (2025).

118. Morrison PE, Stopka KS, Ferguson JI, Sangid MD, “Evaluating the damage tolerant behavior of cold spray repaired aluminum alloys“ International Journal of Fatigue 190 108607 (2025).

117. Sun Y, Hanhan I, Sangid MD, Lin G, “Predicting Mechanical Properties from Microstructure Images in Fiber-Reinforced Polymers Using Convolutional Neural Networks” Journal of Composites Science 8 387 (2024).

116. Peterson G, Jeong Y, Tomé C, Sangid MD, “A comprehensive analysis of cermet design and thermal cyclic stability via elasto-viscoplastic crystal plasticity modeling” International Journal of Plasticity 179 104032 (2024).

115. Mackey BT, Sangid MD, “Phasing effects on thermo-mechanical fatigue damage investigated via crystal plasticity modeling” Material Science and Engineering A 903 146642 (2024).

114. Stopka KS, Desrosiers A, Andreaco A, Sangid MD, “A Methodology for the Rapid Qualification of Additively Manufactured Materials Based on Pore Defect Structures,” Integrating Materials and Manufacturing Innovations 13 335-359 (2024).

113. Ferguson JI, MacDonald E, Thomas BJ, Sangid MD, “The role of additively manufactured niobium alloy C103 substrate’s surface finish and corner geometry on the silicide diffusion coating’s performance,” Surface & Coatings Technology 479 130510 (2024).

112. Bandyopadhyay R, Stopka K, Sangid MD, “Initializing intragranular residual stresses within statistically equivalent microstructures for crystal plasticity simulations,” Journal of the Mechanics and Physics of Solids 184 105529 (2024).

111. Stopka KS, Sangid MD, “Modeling Fatigue Behavior of Additively Manufactured Alloys with an Emphasis on Pore Defect Morphology,” Journal of the Mechanics and Physics of Solids 181 105429 (2023).

110. Gustafson SE, Ludwig W, Rodriguez-Lamas R, Yildirim C, Shanks KS, Detlefs C, Sangid MD, “Revealing 3D intragranular micromechanical fields at triple junctions,” Acta Materialia 260 119300 (2023).

109. Mackey BT, Bandyopadhyay R, Gustafson SE, & Sangid MD, "Grain interactions under thermo-mechanical loads investigated with coupled crystal plasticity simulations and high-energy X-ray diffraction microscopy," Acta Materialia 257 119166 (2023).

108. Ferguson JI, Saad AA, Seren MH, Ko JYP, Nygren KE, Trice RW, Sangid MD, “Residual elastic strain and survivability of stabilized zirconia coated carbon-carbon (C/C) composite,” Surface & Coatings Technology 470 129811 (2023).

107. Gopalakrishnan, S, Hartman NW, Sangid MD, “A digital engineering framework to facilitate automated data exchange between geometric inspection and structural analysis,” Advances in Engineering Software 183 103498 (2023).

106. Mackey BT, Siegmund T, Sangid MD, “Simulating the evolution of non-metallic inclusions during the forging process,” ASME Journal of Manufacturing Science and Engineering 145(7) 071008 (2023).

105. Krzysztof S. Stopka KS, Desrosiers A, Nicodemus T, Krutz N, Andreaco A, Sangid MD, “Intentionally Seeding Pores in Additively Manufactured Alloy 718: Process Parameters, Microstructure, Defects, and Fatigue,” Additive Manufacturing 66 103450 (2023).

104. Krishnamoorthi S, Bandyopadhyay R, Sangid MD, “A microstructure-based fatigue model for additively manufactured Ti-6Al-4V, including the role of prior β boundaries, International Journal of Plasticity 163 103569 (2023).

103. Gustafson S, Pagan D, Sanborn B, Sangid MD, “Grain scale residual stress response after quasi-static and high strain rate loading in SS316L,” Materials Characterization 112692 (2023).

102. O’Gara J, Sangid MD, "Examining slow crack growth metrics and competing failure modes in IM7/5320-1 carbon fiber reinforced polymer laminates with pre-existing damage states,” Composites Science and Technology 232, 109864 (2023).

101. Scofield GD, Hwang S, Caccia M, Chamberlain AL, Kush MT, Sangid MD, Sandhage KH, “Fracture behavior of a melt-infiltration-processed SiC/Si composite at 900 °C in argon, air, and steam,” Journal of the European Ceramic Society 43 224-234 (2023). 

100. Ferguson JI, Beaudoin AJ, Scofield GD, Ko JYP, Nygren KE, Wang Y, Caccia M, Sandhage KH, Sangid MD, “Residual elastic strain evolution due to thermal cycling of a ceramic-metal composite (WC-Cu) via high energy X-ray diffraction and analytical modeling,” International Journal of Refractory Metals and Hard Materials 110 106018 (2023).

99. Gopalakrishnan, S, Bandyopadhyay R, Sangid MD, “A framework to enable microstructure-sensitive location-specific fatigue life analysis of components and connectivity to the product lifecycle,” International Journal of Fatigue 165 107211 (2022). 
 
98. Gardner PF, Noone SJ, Bandyopadhyay R, Park J-S, Walker K, Sangid MD, “Damage tolerance assessment of laser clad repairs of coarse grain Ti-6Al-4V”, Experimental Mechanics 62 1421-1436 (2022). 
 
97. Agyei R, Hanhan I, Sangid MD, “A data-driven microstructural rationale for microvoid nucleation in discontinuous fiber composites,” Journal of Thermoplastic Composite Materials Communications (2022). https://doi.org/10.1177/08927057211068734
 
96. Hanhan I, Ortiz-Morales AM, Solano J, Sangid MD, “Slow crack growth in laminate composites via in-situ X-ray tomography and simulations,” International Journal of Fatigue 155 106612 (2022).
 
95. Rencheck ML, Mackey B, Hu Y-Y, Chang C-C, Sangid MD, Davis CS, “Identifying Internal Stresses during Mechanophore Activation,” Advanced Engineering Materials 24 (4) 2101080 (2022).
 
94. Hanhan I, Sangid MD, “Design of low cost fiber carbon composites via examining the micromechanical stress distributions in A42 bean-shaped versus T650 circular fibers,”  Journal of Composites Science 5 (11) 294 (2021).
 
93. Rotella J, Pilchak A, Sangid MD, “Examining the pathways for deformation band formation at the mesoscale,” Materials Characterization 182 111552 (2021).   
 
92. Nguyen TD, Scofield GD, Hwang S, Sangid MD, Itskos G, Caccia M, Sandhage KH, “Corrosion of a dense, co-continuous SiC/Si composite in CO2 and air at 750 deg C,” Journal of Materials Research and Technology 15 4852-4859 (2021).
 
91. Rotella J, Mello AW, Venkataraman A, Hardy M, Sangid MD, “Dwell-fatigue of nickel-based superalloys with serrated and planar grain boundary morphologies: the role of g’ phase on strain accumulation and cavitation,” Met Trans A 52 5079-5095 (2021).
 
90. Venkataraman A, Sangid MD, “Crystal plasticity model with an atomistically informed description of grain boundary sliding for improved predictions of deformation fields”, Computational Materials Science 197 110589 (2021).
 
89.  Hanhan I, Sangid MD, “Damage propagation in short fiber thermoplastic composites analyzed through coupled 3D experiments and simulations,” Composites Part B 218 108931 (2021).
 
88.  Ortiz-Morales AM, Hanhan I, Solano J, Sangid MD, “Observing progressive damage in carbon fiber epoxy laminate composites via 3D in-situ X-ray tomography,” Engineering Fracture Mechanics, Special Issue Tomography of Cracks and Defects 246 107626 (2021).
 
87.  Bandyopadhyay R, Sangid MD, “A probabilistic fatigue framework to enable location specific lifing for critical thermo-mechanical engineering applications” Integrated Materials and Manufacturing Innovations, 10 20-43 (2021).
 
86.  Ravi P, Naragani D, Park JS, Kenesei P, Sangid MD, “Direct observations and characterization of crack closure during microstructurally small fatigue crack growth in additively manufactured IN718 via in-situ high-energy X-ray characterization,” Acta Materialia 205 116564 (2021).    
 
85. Kapoor K, Ravi P, Noraas R, Park JS, Venkatesh V, Sangid MD, “Modeling Ti-6Al-4V using crystal plasticity, calibrated with multi-scale experiments, to understand the effect of the orientation and morphology of the α and β phases on time dependent cyclic loading,” Accepted in Journal of Mechanics and Physics of Solids, 146 104192 (2021).
 
84. Prithivirajan V, Ravi P, Naragani D, Sangid MD, “Direct comparisons of microstructure-sensitive fatigue crack initiation via crystal plasticity simulations and in situ high energy X-ray experiments,” Materials and Design 197 109216  (2021).
 
83. Gustafson S, Pagan D, Shade P, Sangid MD, “Dynamic recovery observed in distinct grains within a polycrystalline nickel-based superalloy during cyclic high temperature fatigue via high energy X-ray diffraction microscopy,” Scripta Materialia 192  37-42 (2021).
 
82. Gopalakrishnan, S, Hartman NW, Sangid MD, “Integrating materials model-based definitions into design, manufacturing, and sustainment: a digital twin demonstration of incorporating residual stresses in the lifecycle analysis of a turbine disk,” ASME Journal of Computing and Information Science in Engineering 21 021006 (2021).
 
81.   Gopalakrishnan, S, Hartman NW, Sangid MD, “Model-based Feature Information Network (MFIN): A digital twin framework to integrate location-specific material behavior within component design, manufacturing and performance analysis,” Integrated Materials and Manufacturing Innovations 9394-409 (2020).
 
80. Agyei RF, Hanhan I, Sangid MD, “Detecting damage initiation in short fiber composites via in-situ X-ray tomography and digital volume correlation,” Composites Communications 22 100524 (2020).
 
79. Bandyopadhyay R, Gustafson S, Kapoor K, Naragani D, Pagan D, Sangid MD, “Comparative assessment of backstress models using high-energy X-ray diffraction microscopy experiments and crystal plasticity finite element simulation,” Accepted in International Journal of Plasticity, in press (2020).
 
78. Sangid MD, Rotella J, Naragani D, Shade PA, Park JS, Kenesei P, “A complete grain-level assessment of the stress-strain evolution and associated deformation response polycrystalline alloys,” Acta Materialia 201 36-54 (2020).
 
77. Naragani D, Kenesei P, Park JS, Sangid MD, "Void coalescence and ductile failure in IN718 illuminated through high energy X-rays,” Journal of the Mechanics and Physics of Solids 145 104155 (2020).
 
76. Mushongera LT, Kumar P, Sangid MD, “The interaction of point defects with stress fields generated by persistent slip bands in f.c.c. nickel,” Journal of Advanced Engineering Materials 2000490 (2020).
 
75. Gustafson S, Ludwig W, Shade P, Naragani D, Pagan D, Cook P, Yildirim C, Detlefs C, Sangid MD, “Quantifying microscale drivers for fatigue failure via coupled synchrotron X-ray characterization and simulations,” Nature Communications 11 3189 (2020).
 
74. Kapoor K, Ravi P, Naragani D, Park JS, Almer JD, Sangid MD, “Strain rate sensitivity, microstructure variations, stress-assisted beta to alpha'' transformation investigation on the mechanical behavior of dual-phase Ti alloy,” Materials Characterization 166 110410 (2020).
 
73.  Sangid MD, Nicolas A, Kapoor K, Fodran E, Madsen J, “Modeling the role of epitaxial grain growth of the prior β phase and associated fiber texture on the strength characteristics of Ti-6Al-4V produced via additive manufacturing,” Materials, Special Issue on Additively Manufactured Metallic Materials 13 2308 (2020).
 
72.   Rotella J, Sangid MD, “Damage accumulation within the microstructure of Ni-based superalloys due to the alignment of slip systems,” Fatigue and Fracture in Engineering Materials and Structures 43 10 2270-2286 (2020).
 
71.   Waddell M, Walker K, Bandyopadhyay R, Kapoor K, Mallory A, Xiao X, Chuang AC, Liu Q, Phan N, Sangid MD, “Small fatigue crack growth behavior of Ti-6Al-4V produced via selective laser melting: In situ characterization of a 3D crack tip interactions with defects,” International Journal of Fatigue 137 105638 (2020).
 
70.   Prithivirajan V, Sangid MD, “Examining metrics for fatigue life predictions of additively manufactured IN718 via crystal plasticity modeling including the role of simulation volume and microstructural constraints,” Materials Science and Engineering A  783 139312 (2020).
 
69.   Bandyopadhyay R, Prithivirajan V, Peralta AD, Sangid MD, “Microstructure sensitive critical plastic strain energy density criterion for fatigue life prediction across various loading regimes,” Proceedings of the Royal Society A 476 2236 (2020).
 
68.   Hanhan I, Agyei RF, Xiao X, Sangid MD, “Predicting Microstructural Void Nucleation in Discontinuous Fiber Composites through Coupled in-situ X-ray Tomography Experiments and Simulations,” 10 Nature Scientific Reports 3564 (2020).
 
67.   Xia F, Sangid MD, Gang T, Chen L, Xu W, “Theoretical Investigation of the Crystallographic Structure, Anisotropic Elastic Response, and Electronic Properties of the Major Borides in Ni-based Superalloys,” Philosophical Magazine 100 8 998-1014 (2020).
 
66.  Sangid MD, “Coupling in situ experiments and modeling - opportunities for data fusion, machine learning, and discovery of emergent behavior,” Current Opinion in Solid State and Materials Science, Special Issue: Coupling In-situ Experiments and Modeling to Understand Plasticity and Failure 24 1 100797 (2020).
 
65.  Sangid MD, Ravi P, Prithivirajan V, Miller NA, Kenesei P, Park JS, “An ICME Approach to Determining the Critical Pore Size of IN718 Produced by Selective Laser Melting,”  JOM 72 465-474 (2019).
 
64.  Hanhan I, Sangid MD, “ModLayer: A MATLAB GUI Drawing Segmentation Tool for Visualizing and Classifying 3D Data,” Integrated Materials and Manufacturing Innovations 8 468-475 (2019). 
 
63.  Kapoor K, Noraas R, Seetharaman V, Sangid MD, Modelling strain localization in microtextured regions in a Titanium Alloy, Ti-6Al-4V, Integrated Materials and Manufacturing Innovations 8 455-467 (2019).
 
62.  Venkataraman A, Linne MA, Daly S, Sangid MD.  “Criteria for the prevalence of grain boundary sliding as a deformation mechanism,” Materialia 8 100499 (2019).
 
61.  Hanhan I, Agyei RF, Xiao X, Sangid MD, “Comparing destructive optical microscopy and non-destructive 3D X-ray tomography techniques for characterizing fiber reinforced composites, with emphasis on the out-of-plane fiber orientation,” Composite Structures and Technology 184 107843 (2019). 
 
60.  Nicolas A, Co N, Burns J, Sangid MD, “Predicting Crack Initiation from Microstructure and Corrosion Morphology Effects,” Engineering Fracture Mechanics 220 106661 (2019).
 
59.  Naragani D, Shade PA, Kenesei P, Sharma H, Sangid MD, “X-ray characterization of the micromechanical response ahead of an evolving fatigue small crack in Ni-based superalloys,” Acta Materialia 179 342-359 (2019).
 
58.  Bandyopadhyay R, Sangid MD, “Crystal plasticity assessment of inclusion- and matrix-driven competing failure modes in a Nickel-base superalloy,” Acta Materialia 177 20-34 (2019).
 
57. Bandyopadhyay R, Prithivirajan V, Sangid MD, “Uncertainty quantification in the mechanical response of crystal plasticity simulations,” JOM 71 2612-2624 (2019). 
 
56. Linne MA, Venkataraman A, Sangid MD, Daly S. “Grain boundary sliding and slip transmission in high purity aluminum,” Experimental Mechanics 59 643-658 (2019).
 
55. Nicolas A, Mello AW, Sun Y, Johnson DR, Sangid MD, “Reconstruction methods and analysis of subsurface uncertainty for anisotropic microstructures”, Materials Science and Engineering A 760 76-87 (2019). 
 
54. Ghanbari S, Sangid MD, Bahr BF.  “Residual stress asymmetry in thin sheets of double-side shot peened aluminum,” Journal of Materials Engineering & Performance 28 3094-3104 (2019).
 
53. Bandyopadhyay R, Mello AW, Reinhold MP, Kapoor K, Broderick TF Sangid MD, “On crack initiation and heterogeneous deformation of Ti-6Al-4V during high cycle fatigue at high R ratio,” Journal of the Mechanics and Physics of Solids 129 61-82 (2019).
 
52. Nicolas A, Mello AW, Sangid MD, “Relationships between microstructure and micromechanical stresses on local pitting during galvanic corrosion in AA7050”, Corrosion Sciences 154 208-225 (2019).
 
51. Rovinelli A, Proudhon H, Lebensohn RA, Sangid MD, “Assessing the reliability of fast Fourier transform-based crystal plasticity simulations of a polycrystalline material near a crack tip” International Journal of Solids and Structures 184 153-166 (2020).
 
50. Bandyopadhyay R, Rotella J, Naragani D, Park J-S, Eff M, Sangid MD, “Residual strain analysis in linear friction welds of similar and dissimilar titanium alloys using energy dispersive x-ray diffraction”, Metallurgical Transactions A 50 704-718 (2019).
 
49. Xia F, Xu W, Chen L, Wu S, Sangid MD, “Generalized stacking fault energies of Cr23C6 carbide: A first-principles study,” Computational Materials Science 158 20-25 (2019).
 
48. Agyei RF, Sangid MD, “A supervised iterative approach to 3D microstructure reconstruction from acquired tomographic data of heterogeneous fibrous systems,” Composite Structures 206 234-246 (2018).  
 
47. Tin S, Detrois M, Rotella J, Sangid MD, “Application of ICME to Engineer Fatigue Resistant Ni-Base Superalloys Microstructures,” JOM 70 2485-2492 (2018).
 
46. Kapoor K, Yoo YSJ, Book TA, Kacher JP, Sangid MD, “Incorporating grain-level residual stresses and validating a crystal plasticity model of a two-phase Ti-6Al-4V alloy produced via additive manufacturing” Journal of Mechanics and Physics of Solids 121 447-462 (2018). 
 
45.  Carter ST, Rotella J, Agyei RF, Xiao X, Sangid MD, “Measuring fatigue crack deflection via cracking of constituent particles in AA7050 via in situ x-ray synchrotron-based micro-tomography,” International Journal of Fatigue 116 490-504 (2018).
 
44. Rovinelli A, Proudhon H, Ludwig W, Sangid MD, “Using machine learning and a data-driven approach to identify the small fatigue crack driving force in polycrystalline materials” NPJ Computational Materials 4 35-45 (2018). 
 
43. Kapoor K, Sangid MD, “Initializing type-2 residual stresses in Crystal Plasticity Finite Element simulations based on High-Energy Diffraction Microscopy data,” Materials Science and Engineering: A 729 27 53-63 (2018).  
 
42. Sangid MD, Book TA, Naragani D, Rotella J, Ravi P, Finch A, Kenesei P, Park J-S, Sharma H, Almer J, Xiao X, “Role of heat treatment and build orientation in the microstructure sensitive deformation characteristics of IN718 produced via additive manufacturing,” Additive Manufacturing 22 479-496 (2018).
 
41. Prithivirajan V, Sangid MD, The role of defects and critical pore size analysis in the fatigue response of additively manufactured IN718 via crystal plasticity,” Materials and Design 150 139-153 (2018).
 
40. Yoo YSJ, Book TA, Sangid MD, Kacher J, "Identifying strain localization and dislocation processes in fatigued Inconel 718 manufactured from selective laser melting," Materials Science and Engineering A 724 444-451 (2018).
 
39. Rovinelli A, Sangid MD, Proudhon H, Guilhem Y, Lebensohn RA, Ludwig W, “Predicting the 3D Fatigue Crack Growth Rate of Small Cracks Using Multimodal Data via Bayesian Network: in-situ Experiments and Crystal Plasticity Simulations” Journal of Mechanics and Physics of Solids, 115 208-229 (2018).
 
38.  Nicolas A, Mello AW, Sangid MD, “The effect of strain localization on galvanic corrosion pitting in AA7050,” Corrosion 74 8 860-872 (2018).
 
37.  Detrois M, Rotella J, Hardy M, Tin S, Sangid MD, “Tailoring the properties of a Ni-based superalloy via modification of the forging process: an ICME approach to fatigue performance,” Integration of Materials and Manufacturing Innovations 6 265-278 (2017).
 
36.  Sharma BN, Naragani D, Nguyen BN, Tucker CL, Sangid MD, “Uncertainty quantification of fiber orientation measurements for long fiber reinforced thermoplastic composites,” Journal of Composites 52 1781-1797 (2018).
 
35.  Sharma BN, Kijewski SA, Fifield LS, Shin Y, Tucker CL, Sangid MD, “Reliability in the characterization of fiber length distributions of injection molded long carbon fiber composites,” Polymer Composites 39 4594-4604 (2018).
 
34. Naragani D, Sangid MD, Shade PA, Schuren JC, Sharma H, Park JS, Kenesei P, Bernier JV, Turner TJ, Parr I. “Investigation of nonmetallic inclusion-driven failures through high energy x-ray diffraction microscopy,” Acta Materialia 137 71-84 (2017).
 
33.  Mello AW, Book T, Nicolas A, Otto SE, Gilpin CJ, Sangid MD, “Distortion Correction Protocol for Digital Image Correlation within a Scan Electron Microscope: Emphasis on long duration and ex-situ experiments,” Experimental Mechanics 57 1395-1409 (2017).
 
32.  Cunningham R, Nicolas A, Fodran E, Anagnostou E, Madsen J, Sangid MD, Rollett AD, “Analyzing the Effects of Powder and Post Processing on Porosity in EBM Ti-6Al-4V.” Materials Research Letters 5 516-525 (2017).
 
31.  Chadwick D, Ghanbari S, Bahr DF, Sangid MD. “Crack incubation in shot peened AA7050 and mechanism for fatigue enhancement,” Fatigue & Fracture of Engineering Materials & Structures 41 71-83 (2018).
 
30.  Yeratapally SR, Hochhalter JD, Ruggles TJ, Sangid MD, “Investigation of fatigue crack incubation and growth in cast MAR-M247 subjected to low cycle fatigue at room temperature,” International Journal of Fracture 208 79-96 (2017).
 
29.  Rovinelli A, Guilhem Y, Proudhon H, Lebensohn RA, Ludwig W, Sangid MD, “Assessing reliability of fatigue indicator parameters for small crack growth via a probabilistic framework.” Modeling and Simulations in Materials Science and Engineering 25 045010 1-29 (2017).
 
28.  Mello AW, Nicolas A, Sangid MD, “Fatigue strain mapping via digital image correlation for Ni-based superalloys: the role of thermal activation on cube slip,” Materials Science and Engineering: A 695 332-341 (2017).
 
27.  Yeratapally SR, Glavicic MG, Argyrakis C, Sangid MD, “Bayesian uncertainty quantification and propagation for validation of a microstructure sensitive model for prediction of fatigue crack initiation,” Reliability Engineering & Systems Safety 164 110-123 (2017).
 
26.Venkataraman A, Shade PA, Adebisi R, Sathish S, Pilchak AL, Viswanathan GB, Brandes MC, Mills MJ, Sangid MD, “Study of structure and deformation pathways in Ti-7Al using atomistic simulations, experiments and characterization,”  Metallurgical Transactions A 48 2222-2236 (2017).
 
25. Azeredo BP, Yeratapally SR, Kacher J, Ferreira PM, Sangid MD, “An experimental and computational study of size-dependent contact-angle of dewetted metal nanodroplets below its melting temperature,” Applied Physics Letters 109 213101(2016).
 
24. Book TA, Sangid MD, “Strain Localization in Ti-6Al-4V Widmanstätten Microstructures Produced by Additive Manufacturing,” Materials Characterization 122 104-112 (2016).
 
23. Chatterjee K, Venkataraman A, Garbaciak T, Rotella J, Sangid MD, Beaudoin A, Kenesei P, Park J-S, Pilchak A, “Study of grain-level deformation and residual stresses in Ti-7Al under combined bending   and tension using high energy diffraction microscopy (HEDM),” International Journal of Solids and Structures 94-94 35-49 (2016).
 
22. Huynh L, Rotella JR, Sangid MD, “Fatigue behavior of microtrusses produced via additive manufacturing,” Materials & Design 105 278-289 (2016).
 
21. Book T, Sangid MD, “Evaluation of Select Surface Processing Techniques for In-Situ Application During the Additive Manufacturing Build Process,” Journal of Materials (2016).
 
20. Mello AW, Nicolas A, Lebensohn RA, Sangid MD, “Effect of microstructure on strain localization in a 7050 Aluminum alloy: comparison of experiments and modeling for various textures,” Materials Science and Enginering A 661 187-197 (2016).
 
19. Yeratapally SR, Glavicic MG, Hardy M, Sangid MD, “Microstructure based fatigue life prediction framework for polycrystalline nickel-base superalloys with emphasis on the role played by twin boundaries in crack initiation,” Acta Materialia 107 152-167 (2016).
 
18. Rovinelli A, Lebensohn RA, Sangid MD, “Influence of microstructure variability on short crack behavior through postulated micromechanical short crack driving force metrics,” Engineering Fracture Mechanics, 138 265-288 (2015).
 
17. Spearot DE, Sangid MD, “Insights on slip transmission at grain boundaries from atomistic simulations,” Current Opinion in Solid State and Materials Science, 18 188-195 (2014).
 
16. Saeidpourazar R, Sangid MD, Rogers JA, Ferreira PM, “A prototype printer for laser driven micro-transfer printing,” Journal of Manufacturing Processes 14 406-424 (2012). 
 
15. Sangid MD, “The physics of fatigue crack initiation,” International Journal of Fatigue 57 58-72 (2013).  * IJF Top Downloaded Journal Paper for last 90 days (since Aug 2013 to present). * IJF Top Downloaded Journal Paper for last 90 days (since Aug 2013 to present).
 
14. Saeidpourazar R, Li R, Li Y, Sangid MD, Lü C, Huang Y, Rogers JA, Ferreira PM, “Laser-driven micro transfer placement of prefabricated microstructures,” Journal of Microelectromechanical Systems 21 1049-1058 (2012).
 
13. Pataky GJ, Sangid MD, Sehitoglu H, Hamilton RF, Maier HJ, Sofronis P, “Full field measurements of anisotropic stress intensity factor ranges in fatigue,” Engineering Fracture Mechanics 94 13-28 (2012).
 
12. Abuzaid W, Sangid MD, Carroll J, Sehitoglu H, Lambros J, “Slip transfer and plastic strain accumulation across grain boundaries in Hastelloy X,” Journal of the Mechanics and Physics of Solids 60 1201-1220 (2012).
 
11. Sangid MD, Ezaz T, Sehitoglu H, “Energetics of residual dislocations associated with slip-twin and slip-GBs interactions,” Material Science and Engineering A 542 21-30 (2012).
 
10.Sangid MD, Pataky GJ, Sehitoglu H, Hamilton RF, Maier HJ, “High resolution analysis of opening and sliding in fatigue crack growth,” International Journal of Fatigue 37 134-145 (2012).
 
9. Sangid MD, Pataky GJ, Sehitoglu H, Rateick RG, Niendorf T, Maier HJ, “Superior fatigue crack growth resistance, irreversibilities, and fatigue crack growth-microstructure relationship of nanocrystalline alloys,” Acta Materialia 59 7340-7355 (2011).
 
8. Sangid MD, Maier HJ, Sehitoglu H, “An energy-based microstructure model to account for fatigue scatter in polycrystals,” Journal of the Mechanics and Physics of Solids 59 595-609 (2011).    
 
7. Sangid MD, Maier HJ, Sehitoglu H, “The role of grain boundaries in fatigue crack initiation – an energy approach,” International Journal of Plasticity 27 801-821 (2011).
 
6. Sangid MD, Maier HJ, Sehitoglu H, “A physically-based model for prediction of crack initiation from persistent slip bands in polycrystals,” Acta Materialia 59 328-341 (2011).
 
5. Sangid MD, Ezaz T, Sehitoglu H, Robertson IM, “Energy of slip transmission and nucleation at grain boundaries,” Acta Materialia 59 283-296 (2011). * Acta Materialia Top 10 Most Downloaded Journal Paper for 4th Quarter of 2011. * Acta Materialia Top 10 Most Downloaded Journal Paper for 4th Quarter of 2011.
 
4. Ezaz T, Sangid MD, Sehitoglu H, “Energy barriers associated with slip-twin interactions,” Philosophical Magazine A 91 1464-1488 (2011).
 
3. Sangid MD, Sehitoglu H, Maier HJ, Niendorf T, “Grain boundary characterization and energetics of superalloys,” Material Science and Engineering A 527 7115-7125 (2010).
 
2. Sangid MD, Stori JA, Ferreira PM, “Process characterization of vibrostrengthening and application to fatigue enhancement of aluminum aerospace components – Part II.  Process visualization and modeling,” The International Journal of Advanced Manufacturing Technology 53 561-575 (2011).
 
1. Sangid MD, Stori JA, Ferreira PM, “Process characterization of vibrostrengthening and application to fatigue enhancement of aluminum aerospace components – Part I.  Experimental study of process parameters,” The International Journal of Advanced Manufacturing Technology 53 545-560 (2011).

 

 

Non-Reviewed Publications

2. Richard Arthur, Mathew French, Jayendra S. Ganguli, Don A. Kinard, Edward M. Kraft, Ian Marks, John F. Matlik, Olivia J. Pinon Fischer, Michael D. Sangid, Daniel Seal, Eric Tucker, John Vickers, “Digital Twin: Definition & Value,” AIAA and AIA Position Paper, AIAA Digital Engineering Integration Committee, December 2020.
 
1.Michael D. Sangid, John F. Matlik, “A better way to engineer aerospace components,” Aerospace America March 40-43 (2016).
 
 
 

Conference Proceedings

22. Krzysztof Stopka, John Smallwood, Aman Chokshi, Stephen D Heister, Michael Sangid, “Structural and Fatigue Analysis of a Rotating Detonation Rocket Engine,” 2023-1869 AIAA SciTech.
 
21. Waterloo Tsutsui, Kenneth Park, Christopher Sculley, Ian Copenhaver, Marcial Gonzalez, Wayne Chen, George Takahashi, Michael Sangid, “Enhancing Students’ Understanding of Deformation and Stress in Aerospace Structures Education via Virtual Labs” 2022 ASEE Conference Proceedings, Minneapolis, MN, June 26-29, 2022.
 
20.   Waterloo Tsutsui, Eric Williamson, Kenny Park, Michael D. Sangid, “Pedagogy Improvement in Aerospace Structures Education Using Virtual Labs: Before, During, and After the COVID-19 School Closures and Remote Learning” 2021 ASEE Conference Proceedings, Virtual Conference, July 26-29, 2021.
 
19.   Camilo G. Aguilar, Imad Hanhan, Ronald F. Agyei, Michael D. Sangid, Mary L. Comer, “3D Fiber Segmentation with Deep Center Regression and Geometric Clustering,” 6th IEEE Workshop on Computer Vision for Microscopy Image Analysis, June 25, 2021.
 
18.   Waterloo Tsutsui, Ruben Lopez-Parra, Genisson Silva Coutinho, Alberto Mello, Michael D Sangid, Tamara Moore, “The Implementation of Virtual Labs in Aerospace Structures Labs,” 2020 ASEE Conference Proceedings, Virtual Conference, June 22-26, 2020.
 
17.   Camilo G. Aguilar, Imad A. Hanhan, Ronald F. Agyei, Michael D. Sangid, Mary L. Comer, “Void detection and fiber extraction for statistical characterization of fiber-reinforced polymers,” Proceedings of the IS&T Electronic Imaging 2020.
 
16.   Tianyu Li, Camilo G. Aguilar, Ronald F. Agyei, Imad A. Hanhan, Michael D. Sangid, Mary L. Comer, “Connected-Tube MPP Model for Unsupervised 3D Fiber Detection,” Electronic Imaging, Imaging Science and Technology, 2020.
 
15.   Imad Hanhan, Michael D. Sangid, Francesco De Carlo, “Investigating Surface and Sub-Surface Damage in IM7/8552 via in-situ Synchrotron X-ray Computed Tomography” 2020-0248 AIAA SciTech.
 
14. Rosemary L. Astheimer, Nathan W. Hartman, Michael D. Sangid, Kevin Del Re, Saikiran Gopalakrishnan, “Extending Model Based Definition (MBD) to Capture Product Behavior and Contextual Information using a Model Based Feature Information Network (MFIN).” Proceedings of CAD’19, Singapore, June 24-26, 2019. 253-257 
 
13. M Linne, A Venkataraman, M Sangid, S Daly, “Investigation of Deformation Mechanisms in High Purity Columnar Aluminum” Conference Proceedings of the Society for Experimental Mechanics Series - Mechanics of Biological Systems & Micro-and Nanomechanics, Volume 4, 1-3 (2019).
 
12. Daniel J. Chadwick, Siavash Ghanbari, David F. Bahr, Michael D. Sangid. "Mechanism of shot peening enhancement for the fatigue performance of AA7050."  13th International Conference on Shot Peening.  Montreal, Canada, Sept 18-21, 2017.
 
11. Siavash Ghanbari, Daniel J. Chadwick, Michael D. Sangid, David F. Bahr, "Experiments and simulations of double side shot peened aluminium".  13th International Conference on Shot Peening.  Montreal, Canada, Sept 18-21, 2017.
 
10.   Noelle Easter Co, James Burns, Andrea Nicolas, Michael D. Sangid. "Effect of Corrosion Micro-scale Features and Alloy Microstructure on the Fatigue Initiation of AA 7050-T7451".  2017 DoD-Allied Nations Corrosion Technical Conference. Birmingham, Alabama, August 7 - 10, 2017. Paper No. 2017-845990.
 
9. Sharma B, Harikrishnan RV, McCrorie SB, Connor MC, Salahshoor M, Deshmukh AV, Sangid MD, “Incorporation of physics-based machining models in real-time decision making via metamodels,” Procedia Manufacturing 10 1109-1117 (2017).
 
8. Sangid MD, Matlik J, Keskin A, Thacker B, Bichon B, Ball D, Engelstad S, Ward C, Venkatesh V, Kim HA, Saraf V, Gorham R. “Integrating ICME Practices into Design Systems and Structural Analysis,” AIAA SciTech 0874 (2017).    
 
7. Agyei RF, Sharma B, Sangid MD, “Investigating Sub-surface Microstructure in Fiber Reinforced Polymer Composites via X-Ray Tomography Characterization,” For presentation at AIAA SciTech, Materials Testing & Characterization, January 4, 2016. AIAA 2016-2319522.    
 
6. Esquivel J, Sangid MD, “Digital image correlation of heterogeneous deformation in polycrystalline material with electron backscatter diffraction,” For presentation at Microscopy & Microanalysis 2015, Portland, OR, August 2-6, 2015.  ID: 0546-000591.
 
5. Cannon AH, Hochhalter JD, Mello AW, Bomarito GF, Sangid MD, “MicroStamping for improved speckle patterns to enable digital image correlation,” For presentation at Microscopy & Microanalysis 2015, Portland, OR, August 2-6, 2015.  ID: 0546-000769.
 
4. Wang J, Nguyen BN, Mathur R, Sharma B, Sangid MD, Costa F, Jin X, Tucker CL, Fifield LS, “Fiber Orientation in Injection Molded Long Carbon Fiber Thermoplastic Composites,” For presentation at ANTEC, Injection Molding Division, Society of Plastics Engineers, Orlando, March 23-25, 2015.
 
3. Sangid MD, Yeratapally SR, Rovinelli A, “Validation of microstructure-based materials modeling,” AIAA SciTech Journal, American Institute of Aeronautics and Astronautics, National Harbor, Maryland, January 13-17, 2014.  AIAA 2014-0462
 
2. Sangid MD, Sehitoglu H, Maier HJ, Furrer DU, Glavicic MG, Stillinger JD, “Role of microstructure in prediction fatigue performance,” AIAA Journal, American Institute of Aeronautics and Astronautics, Honolulu, Hawaii, April 23-26, 2012.  AIAA 2012-1489
 
1. Abuzaid W, Sangid MD, Sehitoglu H, Carroll J, Lambros J, “The role of slip transmission on plastic strain accumulation across grain boundaries,” Procedia IUTAM, 4 169-178 (2012). 
 
 
 

ResearchGate Link  (please note the ResearchGate account is not regularly monitored)