73. Temporal criticality in socio-technical systems,
      José Moran, Frank P. Pijpers, Utz Weitzel, Jean-Philippe Bouchaud, Debabrata Panja;
      in review.

72. Metabolic heterogeneity allows non-equilibrium behavior and supersaturation in the competition for two resources,
      Inès Daras, Franjo Weissing, Debabrata Panja, G. Sander van Doorn;
      in review.

71. Timeliness criticality in complex systems,
      José Moran, Matthijs Romeinders, Frank P. Pijpers, Utz Weitzel, Debabrata Panja, Jean-Philippe Bouchaud;
      Nature Physics 20, 1352-1358 (2024) (associated News and Views).

70. Structural dynamics of a model of amorphous silicon,
      Zihua Liu, Debabrata Panja, Gerard T. Barkema;
      Physica A 650, 129978 (2024) .

69. Domain growth in polycrystalline graphene,
      Zihua Liu, Debabrata Panja, Gerard T. Barkema;
      Nanomaterials 13, 3127 (2023) [13 pages].

68. Temporal origin of nestedness in interaction networks,
      Phillip P. A. Staniczenko, Debabrata Panja;
      PNAS Nexus 2, pgad412 (2023) [9 pages].

67. Reducing societal impacts of SARS-CoV-2 interventions through subnational implementation,
      Mark M. Dekker, Luc E. Coffeng, Frank P. Pijpers, Debabrata Panja, Sake J. de Vlas;
      eLife 12, e80819 (2023) [28 pages].

66. Influence maximization under limited network information: Seeding high-degree neighbors,
      Jiamin Ou, Vincent Buskens, Arnout van de Rijt, Debabrata Panja;
      Journal of Physics: Complexity 3, 045004 (2022) [21 pages].

65. The hidden dependence of spreading vulnerability on topological complexity,
      Mark M. Dekker, Jiamin Ou, Raoul D. Schramm and Debabrata Panja;
      Phys. Rev. E 105, 054301 (2022) [13 pages].

64. Scalability and composability of flow accumulation algorithms based on asynchronous many-tasks,
      Kor de Jong, Debabrata Panja, Derek Karssenberg, Marc van Kreveld;
      Comp. Geosci. 162, 105083 (2022) [12 pages].

63. Structural dynamics of polycrystalline graphene,
      Zihua Liu, Debabrata Panja, Gerard T. Barkema;
      Phys. Rev. E 105, 044116 (2022) [7 pages].

62. Quantifying agent impacts on contact sequences in social interactions,
      Mark M. Dekker, Tessa F. Blanken, Fabian Dablander, Jiamin Ou, Denny Borsboom, Debabrata Panja;
      Sci. Rep. 12, 3483 (2022) [12 pages].

61. One-parametric bifurcation analysis of data-driven car-following models,
      Paul Petersik, Debabrata Panja and Henk A. Dijkstra;
      Physica D: Nonlinear Phenomena 427, 133016 (2021) [13 pages].

60. Characterizing neural phase-space trajectories via Principal Louvain Clustering,
      Mark M. Dekker, Arthur S. C. França, Debabrata Panja and Michael X Cohen;
      J. Neurosci. Methods 362, 109313 (2021) [10 pages].

59. An environmental modelling framework based on asynchronous many-tasks: scalability and usability,
      Kor de Jong, Debabrata Panja, Marc van Kreveld and Derek Karssenberg;
      Environmental Modelling and Software 139, 104998 (2021) [15 pages].

58. A next step in disruption management: combining operations research and complexity science,
      Mark M. Dekker et al.;
      Public Transport 14, 5-26 (2021) [22 pages].

57. Cascading dominates large-scale disruptions in transport over complex networks,
      Mark M. Dekker and Debabrata Panja
      PLOS ONE 16, e0246077 (2021) [17 pages].

56. Het modelleren van infectieziekten vanuit het perspectief van statistische fysica,
      Debabrata Panja and Mark M. Dekker;
      Nederlandse Tijdschrift voor Natuurkunde 87, 18-22 (2021).

55. Super slowing down in the bond-diluted Ising model
      Wei Zhong, Debabrata Panja and Gerard T. Barkema;
      Phys. Rev. E 102, 022132 (2020) [8 pages].

54. Approximate dynamical eigenmodes of the Ising model with local spin-exchange moves,
      Wei Zhong, Debabrata Panja and Gerard T. Barkema;
      Phys. Rev. E 100, 012132 (2019) [8 pages].

53. Predicting transitions across macroscopic states for railway systems,
      Mark M. Dekker, Debabrata Panja, Henk A. Dijkstra and Stefan C. Dekker;
      PLOS ONE 14, e0217710 (2019) [26 pages].

52. A reduced phase-space approach to analyse railway dynamics,
      Mark M. Dekker and Debabrata Panja;
      IFAC-PapersOnLine 52, 1-6 (2019) [6 pages].

51. Critical dynamical exponent of the two-dimensional scalar φ⁴ model with local moves,
      Wei Zhong, Debabrata Panja and Gerard T . Barkema;
      Phys. Rev. E 98, 062128 (2018) [6 pages].

50. Generalised Langevin equation formulation for anomalous diffusion in the Ising model at the critical temperature,
      Wei Zhong, Debabrata Panja and Gerard T. Barkema;
      Phys. Rev. E 98, 012124 (2018) [10 pages].

49. Dynamics of a double-stranded DNA segment in a shear flow,
      Debabrata Panja, Gerard T. Barkema and J. M. J. van Leeuwen;
      Phys. Rev. E 93, 042501 (2016) [10 pages].

48. Efficient simulation of semiflexible polymers,
      Debabrata Panja, Gerard T. Barkema and J. M. J. van Leeuwen;
      Phys. Rev. E 92, 032603 (2015) [14 pages].

47. Complex interactions with the surroundings dictate a tagged chain's dynamics in unentangled polymer melts,
      Debabrata Panja, Gerard T. Barkema and Robin C. Ball;
      Macromolecules 48, 1442-1453 (2015).

46. Semiflexible polymer dynamics with a bead-spring model,
      Gerard T. Barkema, Debabrata Panja and J. M. J. van Leeuwen;
      J. Stat. Mech. (2014) P11008.

45. NMR observations of entangled polymer dynamics: Focus on tagged chain rotational dynamics
      and confirmation from a simulation model,
      F. Furtado, J. Damron, M.-L. Trutschel, C. Franz, K. Schröter, R. C. Ball, K. Saalwächter and D. Panja;
      Macromolecules 47, 256-268 (2014).

44. Through the eye of the needle: Recent advances in understanding biopolymer translocation,
       Debabrata Panja, Gerard T. Barkema and Anatoly B. Kolomeisky;
       Topical Review, J. Phys.: Condens. Matter 25, 413101 (2013).

43. Dynamical eigenmodes of a polymerized membrane,
      Rick Keesman, Gerard T. Barkema and Debabrata Panja;
      J. Stat. Mech. (JSTAT) (2013) P04009.

42. Role of osmotic and hydrostatic pressures in bacteriophage genome ejection,
      Serge G. Lemay, Debabrata Panja and Ian J. Molineux;
      Phys. Rev. E 87, 022714 (2013).

41. Dynamical eigenmodes of star and tadpole polymers,
      Rick Keesman, Gerard T. Barkema and Debabrata Panja;
      J. Stat. Mech. (JSTAT) (2013) P02021.

40. Popping the cork: Mechanisms of phage genome ejection,
      Ian J. Molineux and Debabrata Panja;
      Invited article, Nature Reviews Microbiology 11, 194-204 (2013).

39. Structural modes of a polymer in the repton model,
      Gerard T. Barkema, Debabrata Panja and J. M. J. van Leeuwen;
      J. Chem. Phys. 134, 154901 (2011) [8 pages].

38. DNA translocation through nanopores with salt gradients: The role of osmotic flow,
      Marius M. Hatlo, Debabrata Panja and René van Roij;
      Phys. Rev. Lett. 107, 068101 (2011) [5 pages]; supplementary online material [3 pages].

37. Probabilistic phase space trajectory description for anomalous polymer dynamics,
      Debabrata Panja;
      J. Phys.: Condens. Matter 23, 105103 (2011) [7 pages].

36. Dynamics of bacteriophage genome ejection in vitro and in vivo,
      Debabrata Panja and Ian J. Molineux;
      Invited article, Phys. Biol. 7, 045006 (2010) [15 pages].

35. Unwinding dynamics of double-stranded polymers,
      Marco Baiesi, Enrico Carlon, Gerard T. Barkema and Debabrata Panja;
      J. Chem. Phys. 133, 154907 (2010) [4 pages].

34. Anomalous polymer dynamics is non-Markovian: Memory effects and the generalized Langevin equation formulation,
      Debabrata Panja;
      J. Stat. Mech. (JSTAT) (2010) P06011 [34 pages].

33. Generalized Langevin equation formulation for anomalous polymer dynamics,
      Debabrata Panja;
      J. Stat. Mech. (JSTAT) (2010) L02001 [8 pages].

32. Simulations of two-dimensional unbiased polymer translocation using the bond fluctuation model,
      Debabrata Panja and Gerard T. Barkema;
      J. Chem . Phys. 132, 014902 (2010) [10 pages].
      Selected for the January 15, 2010 issue of the Virtual Journal of Biological Physics Research.

31. Rouse modes of self-avoiding flexible polymers,
      Debabrata Panja and Gerard T. Barkema
      J. Chem. Phys. 131, 154903 (2009) [7 pages].

30. Amplitude and frequency spectrum of a translocating RNA molecule,
      Henk Vocks, Debabrata Panja and Gerard T. Barkema;
      J. Phys.: Condens. Matter 21, 375105 (2009) [7 pages].

29. Non-equilibrium dynamics of single polymer adsorption to solid surfaces,
      Debabrata Panja, Gerard T. Barkema, Anatoly B. Kolomeisky;
      J. Phys.: Condens. Matter 21, 242101 (2009) [Fast Track Communication, 6 pages].
      Chosen as an IOP Select paper.

28. Response of single polymers to localized step strains,
      Debabrata Panja;
      Phys. Rev. E 79, 011803 (2009) [10 pages].
      Selected for the February 1, 2009 issue of the Virtual Journal of Biological Physics Research.

27. Pore-blockade times for field-driven polymer translocation,
      Henk Vocks, Debabrata Panja, Gerard T. Barkema and Robin C. Ball;
      J. Phys.: Condens. Matter 20, 095224 (2008) [7 pages].
      Chosen as an IOP Select paper for 2008.

26. Polymer translocation out of planar confinements,
      Debabrata Panja, Gerard T. Barkema and Robin C. Ball;
      J. Phys.: Condens. Matter 20, 075101 (2008) [9 pages].
      Chosen as an IOP Select paper for 2008.

25. Passage times for polymer translocation pulled through a narrow pore,
      Debabrata Panja and Gerard T. Barkema;
      Biophys. J. 94, 1630-1637 (2008).
      Selected for "New and Notable" commentary in Biophys. J.

24. Extreme associated functions: Optimally linking local extremes to large-scale atmospheric circulation structures,
      Debabrata Panja and Frank M. Selten;
      Atmos. Chem. Phys. Discuss. 7, 14433-14460 (2007).

23. Anomalous dynamics of unbiased polymer translocation through a narrow pore,
      Debabrata Panja, Gerard T. Barkema and Robin C. Ball;
      J. Phys.: Condens. Mattter 19, 432202 (2007) [Fast Track Communication, 8 pages].

22. Effects of anomalous dynamics on unbiased polymer translocation,
      Debabrata Panja, Gerard T. Barkema and Robin C. Ball [9 pages].

21. Predictability of El Niño as a nonlinear stochastic limit cycle,
      Debabrata Panja and Gerrit Burgers.

20. Elasticity from force network ensembles in granular media,
      Srdjan Ostojic and Debabrata Panja;
      Phys. Rev. Lett. 97, 208001 (2006) [4 pages].

19. Passage times for unbiased polymer translocation through a narrow pore,
      Joanne Klein-Wolterink, Gerard T. Barkema and Debabrata Panja;
      Phys. Rev. Lett. 96, 208301 (2006) [4 pages].
      Selected for the June 1, 2006 issue of the Virtual Journal of Biological Physics Research.

18. Systematic density expansion of the Lyapunov exponents for a two-dimensional random Lorentz gas,
      H. V. Kruis, Debabrata Panja and Henk van Beijeren;
      J. Stat. Phys. 124, 823-842 (2006).

17. Response of a hexagonal granular packing under a localized overload: Effects of pressure,
      Srdjan Ostojic and Debabrata Panja;
      Proceedings Powders and Grains 2005, pages 81-85, Eds. R. Garcia-Rojo, H. J. Herrmann and S. McNamara;
      Publisher A. A. Balkema; ISBN 041538348X.

16. Response of a hexagonal granular packing under a localized external force: Exact solutions,
      Srdjan Ostojic and Debabrata Panja;
      J. Stat. Mech., Theor. Expt. (JSTAT) P01011 (2005) [34 pages].

15. Response of a hexagonal granular packing under a localized external force,
      Srdjan Ostojic and Debabrata Panja;
      Europhys. Lett. 71, 70 (2005) [7 pages].

14. Fluctuating fronts as correlated extreme value problems: An example of Gaussian statistics,
      Debabrata Panja;
      Phys. Rev. E 70, 036101 (2004) [6 pages].

13. Clustering in a one-dimensional inelastic lattice gas,
      Srdjan Ostojic, Debabrata Panja and Bernard Nienhuis;
      Phys. Rev. E 69, 041301 (2004) [7 pages].

12. Effects of fluctuations on propagating fronts (review article),
      Debabrata Panja;
      Phys. Rep. 393, 87-174 (2004).

11. Asymptotic scaling of the diffusion coefficient of fluctuating ``pulled'' fronts,
      Debabrata Panja;
       Phys. Rev. E 68, 065202(R) (2003) [Rapid Comm., 4 pages].

10. Front propagation and diffusion in the A ↔ A + A hard-core reaction on a chain,
      Debabrata Panja, Goutam Tripathy, Wim van Saarloos;
      Phys. Rev. E 67, 046206 (2003) [5 pages].

9. Surprising aspects of fluctuating ``pulled'' fronts,
    Debabrata Panja;
    Proceedings for 3rd International Conference Unsolved Problems of Noise (UPoN) and fluctuations in physics, biology and high technology 2002;
    AIP Conference Proceedings 665, 539-550 (2003).

8. Fronts with a growth cutoff but speed higher than the linear spreading speed,
    Debabrata Panja, Wim van Saarloos;
     Phys. Rev. E 66, 015206(R) (2002) [Rapid Comm., 4 pages].

7. Pairing of Lyapunov exponents for a hard-sphere gas under shear in the thermodynamic limit (long version),
    Debabrata Panja, Ramses van Zon;
    Phys. Rev. E 66, 021101 (2002) [12 pages].

6. Lyapunov exponent pairing for a thermostatted hard-sphere gas under shear in the thermodynamic limit (short version),
    Debabrata Panja, Ramses van Zon;
    Phys. Rev. E 65, 060102(R) (2002) [Rapid Comm., 4 pages].

5. The weakly pushed nature of ``pulled'' fronts with a cutoff,
    Debabrata Panja, Wim van Saarloos;
    Phys. Rev. E 65, 057202 (2002) [4 pages].

4. Fluctuating ``pulled'' fronts: the origin and the effects of a finite particle cutoff,
    Debabrata Panja, Wim van Saarloos;
    Phys. Rev. E 66, 036206 (2002) [24 pages].

3. An Elementary proof of Lyapunov exponent pairing for hard-sphere systems at constant kinetic energy,
    Debabrata Panja;
    J. Stat. Phys. 109, 705-727 (2002).

2. Field-dependent collision frequency of the two-dimensional driven random Lorentz gas,
    Christoph Dellago, Henk van Beijeren, Debabrata Panja, J. R. Dorfman;
    Phys. Rev. E 64, 036217 (2001) [3 pages].