1. Contributed a chapter ‘Engineering Seismology’ in “Earthquake Resistannt Design of Structures” (Eds. Agarwal, P. and Shrikhande, M.), 1-43, Prentice Hall of India, 2006.
2. Jabalpur Earthquake of May 22, 1997: Reconnaissance Report, Published by Department of Earthquake Engineering, UOR, Roorkee, 1997, pp.1-101.
3. A Report on ‘Chamoli Earthquake March 29, 1999, Published by Department of Earthquake Engineering, UOR, Roorkee, 2000, pp.1-89.

(i)             International Journals: (Sixty-two) 

1. Lav Joshi and J.P. Narayan (2022) Quantification of the Effects of an Urban Layer on Rayleigh Wave Characteristics and Development of a Meta-City, Pure & Applied Geophysics, 179(13), 3253–3277.
2. J.P. Narayan and Sakshi Rautela (2021) Depth-dependent free surface effect to predict ground motion at depth for the design of underground structures, Arabian Journal of Geosciences, 14, Article Number 2354.
3. J.P. Narayan, Prerna Singh and Simaran Verma (2020) Role of impedance contrast in SCI effects on building response and free field motion under double resonance condition, Contributions to Geophysics and Geodesy, 50, 135-159.
4. Luxman Kumar and J.P. Narayan (2020) Computation of ground motion amplification scenario in NCT Delhi for earthquake engineering purposes and seismic microzonation, Pure Appl. Geophys., 177, 3797–3829
5. J.P. Narayan and Garima Yadav (2020) Effects of geometry and rheological parameters of large basin on the SH-wave response of sub-basin in the basin sub-basin models, J. Seismology, 24, 149-163.
6. Neeraj Kumar and J.P. Narayan (2019a) Effects of site-city-interaction and polarisation of the incident S-wave on the transfer function and fundamental frequency of structures, Natural Hazards, 97, 747–774.
7. Neeraj Kumar and J.P. Narayan (2019b) Quantification of fundamental frequencies of 3D basins and structures and site city interaction effects on responses of structures, PAGEOPH, 176, 4477–4502.
8. J.P. Narayan and Kamal (2018)  A scenario of ground shaking hazards in intracratonic circular basin generated surface waves: an earthquake engineering perspective, Natural Hazards, 92:1841–1857.
9. J.P. Narayan, Neeraj Kumar and Ranu Chauhan (2018) insulating effects of shape and size of a hill topography on the Rayleigh wave characteristics, Pure & Applied Geophysics, 175, 2623–2642.
10. J.P. Narayan and A. Kumar (2018) Quantification of effects of shape and shape-ratio of ridge and valley on the Rayleigh wave characteristics, Jr. of Earthquake and Tsunami, 12(3), 1850007.
11. Neeraj Kumar and J.P. Narayan (2018) Quantification of site-city-interaction effects on the building response under double resonance condition, Geophysical Jr. International, 212, 422-441.
12. J.P. Narayan, P.K. Singh and Kamal (2016) Study of role of various parameters affecting the characteristics of basin generated surface waves and associated spatial variation of ground motion in 2D basins, Int. Jr. Geo-Engineering, 7, 1-19 (DOI, 10.1186/s40703-016-0031-x)
13. D. Sahar and J.P. Narayan (2016) Quantification of 3D basement focusing effects on ground motion characteristics, Jr. of Seismology, 20, 167-183.
14. D. Sahar and J.P. Narayan (2016) Quantification of modification of ground motion due to urbanization in a 3D basin using viscoelastic finite-difference modelling, Natural Hazards, 81, 779-806. (DOI 10.1007/s11069-015-2105-z).
15. Kamal  and J.P. Narayan (2016) study of effects of sediment-damping, impedance contrast and size of semi-spherical basin on the focusing and trapping of the basin-generated surface waves, JEE, 20, 406–427 (DOI 10.1080/13632469.2015.1085461).
16. Kamal and J.P. Narayan (2015) A study of effects of curvature of synclinal basement topography on ground motion characteristics, Geofizika, 32, 1-25.
17. JP Narayan, D. Kumar and D. Sahar (2015) Effects of complex interaction of Rayleigh waves with tunnel on the free surface ground motion and the strain across the tunnel-lining, Natural Hazards, 79, 479-495 (DOI 10.1007/s11069-015-1853-0).
18. Kamal  and J.P. Narayan (2015) 3D basin-shape-ratio effects on frequency content and spectral amplitudes of basin-generated surface waves and associated spatial ground motion amplification and differential ground motion, Jr. Seism., 19, 293-316.
19. D. Sahar J.P. Narayan and Neeraj Kumar (2015) Study of role of basin-shape  in the site-city-interaction effects on the ground motion characteristics, Natural Hazards, 75, 1167-1186.
20. J.P. Narayan and V. Kumar (2015) A numerical study of effects of ridge-weathering and ridge-shape-ratio on the ground motion characteristics, Jr. of seismology, 19, 83-104.
21. J.P. Narayan, M.Y. Yasir and Kamal (2015) A numerical study of effects of valley-weathering and valley-shape-ratio on the ground motion characteristics, Acta Geophysica, 63, 154-175.
22. J.P. Narayan and V. Kumar (2014) P-SV wave time-domain finite-difference algorithm with realistic damping and a combined study of effects of sediment rheology and basement focusing, Acta Geophysica, 62, 1214-1245.
23. J.P. Narayan and D. Sahar (2014) 3D viscoelastic finite-difference code and modelling of basement focusing effects on ground motion characteristics, Computational Geoscience, 18, 1023-1047.
24. Amit Shiuly, V. Kumar and J.P. Narayan (2014) Scenario of ground motion amplification in Kolkata megacity (India) for seismic microzonation and risk assessment, Acta Geophysica, 62, 425-450.
25. J.P. Narayan and R. Kumar (2014) spatial spectral amplification of basin-transduced Rayleigh waves, Natural Hazard, 71, 751-765
26. J.P. Narayan and V. Kumar (2013) A fourth-order accurate finite-difference program for the simulation of SH-wave propagation in heterogeneous viscoelastic medium, Geofizika, 30, 173-189.
27. Vinay Kumar and  J.P. Narayan (2013) Study of combined effects of sediment rheology and anticlinal basement topography on ground motion characteristics, Geofizika, 30, 75-93.
28. J.P. Narayan (2012), Effects of angle of incidence of SH-wave on the characteristics of SLD-induced Love waves, Jr. Earthquake and Tsunami, 6, 1250006(1)- 1250006(21),  (DOI: 10.1142/S1793431112500066).
29. J.P. Narayan (2012), Effects of P-wave and S-wave impedance contrast on the characteristics of basin transduced Rayleigh waves, Pure and Applied Geophys., 169, 693-709 (DOI 10.1007/s00024-011-0338-7).
30. 30.  Amit  Shiuly and J.P. Narayan (2012) seismic microzonation of Kolkata city (India), Natural Hazards, 60, 223-240.
31. J.P. Narayan and S. Kumar (2010), (2,4) Parsimonious staggered grid P-SV wave FD algorithm with VGR-stress imaging technique and variable grid size, Geofizika, 27, 45-68.
32. J.P. Narayan (2010), effects of impedance contrast and soil thickness on the basin transduced Rayleigh waves and associated differential ground motion, Pure and Applied Geophys., 167,1485-1510. (DOI 10.1007/s00024-010-0131-z).
33. J.P. Narayan and S. Kumar (2010), Study of effects of focal depth on the characteristics of Rayleigh waves using finite difference method, Acta Geophysica, 58, 624-644.
34. J.P. Narayan and S. Kumar (2009), Effects of soil layering on the characteristics of basin-edge induced surface waves and associated spatial Variability and aggravation factor, Acta Geophysica, 57, 294-310.
35. Kumar S. and J.P. Narayan (2008), Implementation of absorbing boundary conditions in a 4^th order accurate SH-wave staggered grid finite difference algorithm with variable grid size, Acta Geophysica, 56, 1090-1108.
36. J.P. Narayan and Alka A. Richharia (2008), Effects of strong lateral discontinuity on ground Motion characteristics and aggravation factor, Jr. Seismology, 12, 557-573.
37. J.P. Narayan and S. Kumar (2008), (2,4) Parsimonious staggered grid SH-wave FD algorithm with VGR-stress imaging technique and variable grid size, Pure and Applied Geophys. 165, 271-294.
38. Maheshwari B.K., Sharma M.L. and Narayan J.P. (2006), Geotechnical and structural Damage in Tamil Nadu, from the December 2004 Indian Ocean Tsunami, Earthquake Spectra, 22, s475-s493.
39. J.P. Narayan and S.P. Singh (2006) Effects of soil layering on the characteristics of basin-edge induced surface waves and differential ground motion, Jr. of Earthquake Engineering 10, 595-614.
40. J.P. Narayan, M.L. Sharma, and B.K. Maheshwari (2006) Tsunami intensity mapping along the coast of Tamilnadu (India) during the deadliest Indian Ocean tsunami of December 26, 2004, Pure and Applied Geophys, 163, 1279-1304.
41. J.P. Narayan( (2006) Numerical study of island effects on the Rayleigh wave characteristics, Geofizika*, 23, 1-12.
42. J.P. Narayan and A. Ram (2006) Study of effects of underground ridge on the ground motion characteristics, Geophysical Journal International, 165, 180-196.
43. J.P. Narayan, M.L. Sharma, and B.K. Maheshwari (2005) Run-up and inundation pattern developed during the Indian Ocean tsunami of December 26, 2004 along the coast of Tamilnadu (india), Gondwana Research, 8(4) 611-616.
44. J.P. Narayan, M.L. Sharma, and B.K. Maheshwari (2005) Effects of Medu and coastal topography on the damage pattern during the recent Indian Ocean tsunami along the coast of Tamilnadu, Science of  Tsunami Hazards, 23, 9-18.
45. J.P. Narayan (2005) Study basin-edge effects on the ground motion characteristics using 2.5D modeling, Pure and Applied Geophys, 162, 273-289.
46. J.P. Narayan (2003) 2.5D simulation of ridge-weathering effects on the ground motion characteristics, Jr. of Earthquake Engineering, 7, 447-461.
47. J.P. Narayan and P.V. Prasad Rao (2003) Two and half dimensional simulation of ridge effects on the ground motion characteristics, Pure and Applied Geophys, 160, 1557-1571.
48. J. P. Narayan (2002) H/V ratio and amplification factor: A numerical experiment using 2.5D modelling, Geofizika*, 18-19, 1-16.
49. J.P. Narayan, M.L. Sharma and A. Kumar (2002) A seismological report on the January 26, 2001 earthquake at Bhuj, India, Seismological Research Letter*, 73, 343-355.
50. J.P. Narayan (2002) Numerical simulation of strong ground motion characteristics, Acta Geophysica Polonica*, 50, 167-177.
51. J.P. Narayan (2001) Site-specific strong ground motion prediction using 2.5-D modelling, Geophysical Journal International, 146, 269-281.
52. J.P. Narayan (2000) Modelling of multilayered dispersive and dissipative media, Acta Geophysica Polonica*, 48, 347-358.
53. J.P. Narayan (2000) Strong ground motion simulation using shear dislocation sources, Geofizika*, 16-17, 73-86.
54. J.P. Narayan (1999) 2.5-D cross-hole acoustic response: A variable density approach, Geophysical Journal International, 139, 879-887.
55. J.P. Narayan (1998) 2.5-D acoustic  wave  simulation  of  geological structures, Pure and Applied Geophys, 151, 47-61.
56. J.P. Narayan  and  Avadh  Ram,  (1998)  Numerical   simulation   of geological  structure  using  SH-wave  solution,  Acta  Geophysica  Polonica*, XLVI(1), 115-126.
57. Ram and J.P. Narayan, (1997) Synthetic  seismograms  for a layered earth geological model using the absorption and dispersion phenomena, Pure and Applied Geophys, 149, 541-551.
58. A. Ram and J.P. Narayan, (1995)  Simulation  of  hydrocarbon structures  using  the  P-SV  wave  solution,  Pure  and   Applied Geophys., 144, 59-77.
59. J.P. Narayan and Avadh Ram, (1995) Application of flexural modelling to the formation of Ganga basin of northern India,  Bollettino  di  Geofisica Teorica ed Applicata, XXXVII, 245-255.
60. Ram, R. Juneja and J. P. Narayan, (1995) Analysis of the local events and inferred P* velocity near the Koyna dam, Maharashtra, India, Acta Geodetica et Geophysica et Hungarica*, 30, 163-173.
61. Ram A. and J.P. Narayan, (1995) Optimum filtering of seismic signatures, Acta Geophysica Polonica*, XLIII(4), 325-335.
62. J.P. Narayan and Avadh Ram,  (1994) Application of acoustic wave solution for analysis of reverberation, Geofizika*, 11, 1-19.

ii). National Journals 

1. Neeraj Kumar, J.P. Narayan, Vinay Kumar and Vishwendra Tiwari (2021) Effects of shape and complexity of ridge topography on the comparative amplification scenario for the SH- and SV-waves, J. Earth Syst. Sci.,130:36. https://doi.org/10.1007/s12040-020-01525-7.
2. Vinay Kumar, J.P. Narayan, Vishal Khatri, Neeraj Kumar and Kamal (2021) Effects of P-SV wave propagation on ground motion characteristics due to variation in subsurface basement topography, JIGU, 25, 1-8.
3. Neeraj Kumar and J.P. Narayan (2018) Study of 2D Basins and Site-City Interaction Effects on Ground Motion Characteristics, JIGU, 22, 16-23.
4. S. Kumar and J.P. Narayan (2008), Importance of quantification of local site effects based on wave propagation in seismic microzonation, Jr. of Earth Science System, 117 (S2), 731-748.
5. K. Sambasivarao, J.P. Narayan and M.L. Sharma (2006) Scenario of ground motion amplification in Delhi, Jr. Geol. Soc. India, 68, 993-1002.
6. B.K. Maheshwari, M.L. Sharma  and  J.P. Narayan (2005) Structural damages on the coast of Tamilnadu due to tsunami caused by December 26, 2004 Sumatra earthquake ISET Jr. of Earthquake Technology, 42, 63-78.
7. J.P. Narayan, M.L. Sharma, and B.K. Maheshwari (2005) Damage pattern along the coast of Tamilnadu during Indian Ocean tsunami of December 26, 2004, ISET, News Letter, Oct. 2004 –April, 2005, 8-11.
8. J.P. Narayan (2003) Relevance of seismic microzonation of Mumbai city, ISET, News Letter, July, 2003, 6-8.
9. J.P. Narayan (2003) Basin/soil effects on the ground motion characteristics, ISET, News Letter, April, 2003, 6-8.
10. J.P. Narayan (2003) 2.5-D Simulation of basin edge effects on the ground motion characteristics, Proceedings of Indian Academy of Sciences (Earth and Planatary Sciences), 112, 463-469.
11. J.P. Narayan (2003) Plate tectonics and Earthquakes, ISET, News Letter, Oct., 2002 - Jan., 2003, 26-30.
12. J.P. Narayan (2002) The Richter magnitude scale, ISET, News Letter, Jan.-June, 7-11.
13. J. P. Narayan, M. L. Sharma and Ashwani Kumar (2001) Bhuj earthquake of January 26, 2001, ISET, News Letter, April-Oct., 27-29.
14. J.P. Narayan (2001) Site specific ground motion prediction using 3-D modelling, ISET Jr. of Earthquake Technology, 38, 17-29.
15. J.P. Narayan (1999) Finite difference simulation of 2.5-D acoustic wave propagation in random media, Jr. of Geophysics, XX, 123-127.
16. J.P. Narayan and Avadh Ram (1998) Numerical modelling of the off-shore regions for hydrocarbons, In ‘Recent researches in sedimentary basins (ed. Tiwari, R.N.), Indian Petroleum Publisher, 104-109.
17. A. Ram, J.P. Narayan and K.N.S. Yadav, (1996) Effect of attenuation and dispersion on the seismic signatures, Geoscience Journal, XVII(1), 41-45.
18. J.P. Narayan and Avadh Ram, (1996) Direct detection of hydrocarbon and lithology  discremination using  finite  difference  method, Indian Jr. of Petro. Geo., 5(1), 65-78.
19. A. Ram and J.P. Narayan, (1995) A spectral estimates using three different models, Geoscience Jr. XVI(2), 121-125.
20. J.P. Narayan and Avadh Ram, (1995) Acoustic modelling of reservoirs, Geoscience Jr., XVI (I), 65-71.
21. J.P. Narayan and Avadh Ram, (1993) Application of finite difference technique for computation of seismic responses as obtained from the parts of Cambay basin, Jr.  Assoc.  Expl.  Geophys.,  XIV, 173-180.