Remote Sensing of Mid/Upper Atmosphere using ELF/VLF Waves

1
A. K. Singh
A. K. Singh
2
U. P. Verma
U. P. Verma
3
Asheesh Bhargawa
Asheesh Bhargawa
1 University of Lucknow

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Radio signals from lightning discharges such as be used in the study of radio wave propagations and ultimately the ionospheric/ conditions. In the present paper, we have whistlers (very low-frequency waves) as a diagnostic tool for remote atmosphere. These ELF/VLF waves installed at our low latitude ground station, Lucknow geomagnetic longitude = 154.5 0 E, Mc Ilwain parameter, L = 1.10), India. Tweeks have used to estimate the nighttime D-region electron density whistlers have provided information about magnetospheric medium dispersion, electron density, total electron radio signal generated during lightning discharges. During our analysis, we existence duration of tweeks to be in the range of estimated from 22.51 -132.46 cmreflection height varied from 80 -94.4 km.

48 Cites in Articles

References

  1. K Aikyo,T Ondoh,M Nagayama (1972). Nonducted whistlers observed in the plasmasphere.
  2. G Bainbridge,U Inan (2003). Ionospheric D region electron density profiles derived from the measured interference pattern of VLF waveguide modes.
  3. K Budden (1961). Radio waves in the Ionosphere.
  4. D Carpenter (1966). Whistler studies of the plasmapause in the magnetosphere: 1. Temporal variations in the position of the knee and some evidence on plasma motions near the knee.
  5. D Carpenter (2007). Chung Park, pioneer of magnetosphere-ionosphere coupling research.
  6. J Cerisier (1974). Ducted and partly ducted propagation of VLF waves through the Remote Sensing of Mid/Upper Atmosphere Using ELF/VLF Waves magnetosphere.
  7. Hugh Christian,Richard Blakeslee,Dennis Boccippio,William Boeck,Dennis Buechler,Kevin Driscoll,Steven Goodman,John Hall,William Koshak,Douglas Mach,Michael Stewart (2003). Global frequency and distribution of lightning as observed from space by the Optical Transient Detector.
  8. A Danilov (1975). Ionization-recombination cycle of the D-region.
  9. M Friedrich,M Rapp (2009). News from the Lower Ionosphere: A Review of Recent Developments.
  10. M Friedrich,K Torkar (2001). FIRI: A semiempirical model of the lower ionosphere.
  11. D Gurnett,S Shawhan,N Brice,R Smith (1965). Ion cyclotron whistlers.
  12. John Hargreaves (1992). The Solar-Terrestrial Environment.
  13. M Hayakawa,K Ohta,S Shimakura,K Baba (1995). Recent findings on VLF/ELF sferics.
  14. Robert Helliwell,Agnar Pytte (1965). Whistlers and Related Ionospheric Phenomena.
  15. Richard Horne,Richard Thorne,Sarah Glauert,Jay Albert,Nigel Meredith,Roger Anderson (2005). Timescale for radiation belt electron acceleration by whistler mode chorus waves.
  16. K Igarashi,Y Murayama,M Nagayama,S Kawana (2000). D-region electron density measurements by MF radar in the middle and high latitudes.
  17. S Kumar,A Kishore,V Ramachandran (2008). Higher harmonic tweek sferics observed at low latitude: Estimation of VLF reflection heights and tweek propagation distance.
  18. J Lichtenberger (2009). A new whistler inversion method.
  19. J Lichtenberger,C Ferencz,L Bodnár,D Hamar,P Steinbach (2008). Automatic Whistler Detector and Analyzer system: Automatic Whistler Detector.
  20. Ajeet Maurya,Rajesh Singh,B Veenadhari,Sushil Kumar,M Cohen,R Selvakumaran,P Pant,A Singh,D Siingh,U Inan (2012). Morphological features of tweeks and nighttime<i>D</i>region ionosphere at tweek reflection height from the observations in the low‐latitude Indian sector.
  21. Ajeet Maurya,B Veenadhari,Rajesh Singh,Sushil Kumar,M Cohen,R Selvakumaran,Sneha Gokani,P Pant,A Singh,Umran Inan (2012). Nighttime D region electron density measurements from ELF‐VLF tweek radio atmospherics recorded at low latitudes.
  22. I Nagano,T Okada (2000). Electron density profiles in the ionospheric D-region estimated from MF radio wave absorption.
  23. J Outsu (1960). Numerical study of tweeks based on wave-guide mode theory.
  24. C Park,D Carpenter,D Wiggin (1978). Electron density in the plasmasphere: Whistler data on solar cycle, annual, and diurnal variations.
  25. R Prasad (1981). Effects of land and sea parameters on the dispersion of tweek atmospherics.
  26. R Prasad,R Singh (1982). Various features of VLF waves generated by lightning discharge.
  27. S Sazhin,M Hayakawa (1992). Magnetospheric chorus emissions: A review.
  28. R Sharma,M Goldstein,Navin Dwivedi,Prashant Chauhan (2010). Whistler propagation and modulation in the presence of nonlinear Alfvén waves.
  29. A Shvets,M Hayakawa (1998). Polarisation effects for tweek propagation.
  30. A Shvets,T Serdiuk,Y Gorishnyaya,Y Hobara,M Hayakawa (2014). Estimating the lower ionosphere height and lightning location using multimode “tweek” atmospherics.
  31. V Singh,D Grover,V Sharma,L Singh,M Singh,A Kumar,S Shree,N Muthu,V Subrahmanyam (1995). Dark Matter and Experiments for its Identification.
  32. A Singh (2008). REMOTE SENSING OF EARTH'S PLASMASPHERE.
  33. A Singh,R Singh (1999). Duct lifetimes at mid-latitudes.
  34. R Singh,U Singh,A Singh,D Singh (1998). A case study of whistlers recorded at Varanasi (L = 1.07).
  35. R Singh,A Singh,D Singh (1998). Plasmaspheric parameters as determined from whistler spectrograms: a review.
  36. Ashok Singh,Abhay Singh,D Singh,R Singh (1998). The effect of temperature on the dispersion of proton whistlers.
  37. R Singh,D Singh,A Singh,D Hamar,J Lichtenberger (1999). Application of matched filtering and parameter estimation technique to low latitude whistlers.
  38. Ashok Singh,Rajesh Singh,R Singh (2003). Damping of ion-cyclotron whistler waves through ionospheric plasma.
  39. A Singh,S Singh,R Singh,S Gokani,A Singh,D Siingh,J Lichtenberger (2014). Whistlers detected and analyzed by Automatic Whistler Detector (AWD) at low latitude Indian stations.
  40. A Singh,U Verma,R Singh,J Lichtenberger (2016). Remote sensing of D-region ionosphere using multimode tweeks.
  41. D Strobel,T Young,R Meier,T Coffey,A Ali (1974). The nighttime ionosphere:<i>E</i>region and lower<i>F</i>region.
  42. L Storey (1953). An investigation of whistling atmospherics.
  43. A Sukhorukov,P Stubbe (1997). On ELF pulses from remote lightnings triggering sprites.
  44. D Summers,C Ma (2000). A model for generating relativistic electrons in the Earth's inner magnetosphere based on gyroresonant waveparticle interactions.
  45. G Tarcsai,P Szemerédy,L Hegymegi (1988). Average electron density profiles in the plasmasphere between L = 1.4 and 3.2 deduced from whistlers.
  46. N Thomson,M Clilverd,W Mcrae (2007). Nighttime ionospheric D region parameters from VLF amplitude and phase.
  47. N Thomson,W Mcrae (2009). Nighttime ionospheric D region: Equatorial and nonequatorial.
  48. D Yedemsky,B Ryabov,A Shchokotov,V Yarotsky (1992). Experimental investigation of the tweek field structure.

Funding

No external funding was declared for this work.

Conflict of Interest

The authors declare no conflict of interest.

Ethical Approval

No ethics committee approval was required for this article type.

Data Availability

Not applicable for this article.

A. K. Singh. 2018. \u201cRemote Sensing of Mid/Upper Atmosphere using ELF/VLF Waves\u201d. Global Journal of Science Frontier Research - A: Physics & Space Science GJSFR-A Volume 18 (GJSFR Volume 18 Issue A10): .

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GJSFR Volume 18 Issue A10
Pg. 11- 21
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Crossref Journal DOI 10.17406/GJSFR

Print ISSN 0975-5896

e-ISSN 2249-4626

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GJSFR-A Classification: FOR Code: 291003
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v1.2

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October 12, 2018

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English

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Radio signals from lightning discharges such as be used in the study of radio wave propagations and ultimately the ionospheric/ conditions. In the present paper, we have whistlers (very low-frequency waves) as a diagnostic tool for remote atmosphere. These ELF/VLF waves installed at our low latitude ground station, Lucknow geomagnetic longitude = 154.5 0 E, Mc Ilwain parameter, L = 1.10), India. Tweeks have used to estimate the nighttime D-region electron density whistlers have provided information about magnetospheric medium dispersion, electron density, total electron radio signal generated during lightning discharges. During our analysis, we existence duration of tweeks to be in the range of estimated from 22.51 -132.46 cmreflection height varied from 80 -94.4 km.

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Remote Sensing of Mid/Upper Atmosphere using ELF/VLF Waves

A. K. Singh
A. K. Singh University of Lucknow
U. P. Verma
U. P. Verma
Asheesh Bhargawa
Asheesh Bhargawa

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