Dr. Dirk Jungnickel

Biography

Dr. Dirk Jungnickel is an accomplished executive and scholar who bridges rigorous academic inquiry and large-scale industrial data science. He currently serves as Senior Vice President of Enterprise Data & Analytics at Emirates Group, leading the organisation’s enterprise-wide initiatives across Business Intelligence, Data Science, and Artificial Intelligence. Dr Jungnickel began his career in academia, specialising in theoretical physics. Over more than seven years of postdoctoral research and service as an assistant professor, he led foundational research programs. He taught university-level physics and mathematics, fostering a rigorous, first-principles approach to quantitative problem-solving. After transitioning to industry, Dr Jungnickel spent the past 25 years leading strategic technology and enterprise transformations, including a tenure as an associate partner at a premier global management and strategy consultancy. For the last 13 years, his focus has centred on building and scaling high-performing enterprise data and analytics organisations. In these roles, he has directed advanced data science capabilities, modern AI engineering, and comprehensive data governance frameworks. A frequent keynote speaker at international conferences on applied AI and data-driven transformation, Dr Jungnickel actively connects mathematical theory with production-grade data science, mentoring the next generation of researchers and practitioners at the intersection of industry and academia.

https://www.eau.ac.ae/faculty-member/dr-dirk-jungnickel/
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Publications

Jungnickel, D.-U. (2000). Chiral dynamics from the exact RG. Nuclear Physics A, 663, 987–990.
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Berges, J., Jungnickel, D.-U., & Wetterich, C. (2000). The chiral phase transition at high baryon density from nonperturbative flow equations. The European Physical Journal C, 13, 323–329.
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Berges, J., Jungnickel, D.-U., & Wetterich, C. (2003). Quark and nuclear matter in the linear chiral meson model. International Journal of Modern Physics A, 18, 3189–3220.
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Jungnickel, D.-U., & Wetterich, C. (n.d.). Flow equations for phase transitions in statistical physics and QCD [Preprint]. arXiv.
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Jungnickel, D.-U. (n.d.). The chiral phase transition from the exact RG [Preprint]. arXiv
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Jungnickel, D.-U., & Wetterich, C. (1998). Nonperturbative flow equations in QCD. Progress of Theoretical Physics Supplement, 131, 495–549.
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Jungnickel, D.-U. (1998). QCD at finite temperature and density and the exact RG. Nuclear Physics A, 642, 184–190.
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Jungnickel, D.-U., & Wetterich, C. (1997). Nonperturbative flow equations, low-energy QCD and the chiral phase transition. In Cambridge 1997: Confinement, duality, and nonperturbative aspects of QCD (pp. 215–261).
Berges, J., Jungnickel, D.-U., & Wetterich, C. (1999). Two flavor chiral phase transition from nonperturbative flow equations. Physical Review D, 59, 034010.
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Jungnickel, D.-U., & Wetterich, C. (1998). The linear meson model and chiral perturbation theory. The European Physical Journal C, 2, 557–567.
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Jungnickel, D.-U., & Wetterich, C. (1996). Nonperturbative flow equations and low-energy QCD. In Quarks '96 (Vol. 1, pp. 146–191). Also published in Quantum chromodynamics: Collisions, confinement and chaos (pp. 139–175).
Jungnickel, D.-U., & Wetterich, C. (1996). Quark masses from the linear meson model. Physics Letters B, 389, 600–604.
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Jungnickel, D.-U., & Wetterich, C. (1998). Effective linear meson model. The European Physical Journal C, 1, 669–710.
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Jungnickel, D.-U. (n.d.). Flow equations and light mesons.
Jungnickel, D.-U. (1996). Quarks, mesons and (exact) flow equations. Proceedings of the International School of Physics “Enrico Fermi,” 130, 485–501.
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Jungnickel, D.-U., & Wetterich, C. (1996). Effective action for the chiral quark-meson model. Physical Review D, 53, 5142–5175.
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Jungnickel, D.-U., & Walliser, D. (1994). Inhomogeneous field configurations and the electroweak phase transition. Physical Review D, 49, 3869–3880.
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Bardeen, W. A., Hill, C. T., & Jungnickel, D.-U. (1994). Chiral hierarchies, compositeness and the renormalization group. Physical Review D, 49, 1437–1445.
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Erler, J., Jungnickel, D., Spalinski, M., & Stieberger, S. (1993). Higher twisted sector couplings of Z(N) orbifolds. Nuclear Physics B, 397, 379–416.
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Stieberger, S., Jungnickel, D., Lauer, J., & Spalinski, M. (1992). Yukawa couplings for bosonic Z(N) orbifolds: Their moduli and twisted sector dependence. Modern Physics Letters A, 7, 3059–3070.
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Jungnickel, D. (n.d.). Correlation functions of two-dimensional twisted conformal field theories.
Erler, J., Jungnickel, D., Nilles, H. P., & Spalinski, M. (1991). Duality symmetry and its anomalies. In Valencia Workshop 1991 (pp. 373–386).
Erler, J., Jungnickel, D., & Nilles, H. P. (1991). Aspects of space duality. In Warsaw 1991: Proceedings, Puzzles on the electroweak scale (pp. 461–468).
Erler, J., Jungnickel, D., & Nilles, H. P. (1992). Space duality and quantized Wilson lines. Physics Letters B, 276, 303–310.
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Erler, J., Jungnickel, D., & Lauer, J. (1992). Dependence of Yukawa couplings on the axionic background moduli of Z(N) orbifolds. Physical Review D, 45, 3651–3668.
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Erler, J., Jungnickel, D., Lauer, J., & Mas, J. (1992). String emission from twisted sectors: Cocycle operators and modular background symmetries. Annals of Physics, 217, 318–363.
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Erler, J., Jungnickel, D., Lauer, J., & Mas, J. (n.d.). Orbifold correlations and cocycles for general axionic background couplings.

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