Monday, February 19, 2018


© 2018 Ramaswami Ashok Kumar


I am unable to file my complaint in the e portal for complaints of Indian Railways as they have programmed it erroneously. See the reproduction of my complaint form which is not accepted because the PNR Number CANNOT be entered.
Please help us by taking cognisance of the complaint and refund the fare as we were subjected to gross violation of human rights by not allowing the use of the toilet facility. Is it that impossible to examine the train before the journey commencement? This must improve.



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Wednesday, January 17, 2018

The Devsari Dam

(C) Copyright 2018 Ramaswami Ashok Kumar
Niti Aayog, wake up from the moorkhapaddhati of geoengineering to swift destruction to karma of normal ways,preserve Aranyas and with all creatures reforest Mother Earth for preventing omnicide, Now.

0.754 Ha forest =7540 m2 = 754000 kg dry biomass. The dry biomass density is taken to be 100 kg/m2. The plant transpires it's own mass of water per day. In  a year it transpires 36500 kg of water per m2 . Or 36.5 m3/m2. This means a water table height of 36.5 m is maintained by the forest by repeated recharging in a year . Over 7540 m2 forest the water stored underground is 7540x36.5=270000 m3 yearly.
The power of forest.
100 kg/m2 dry biomass density is 100 kg water transpired into the atmosphere every 10 hours:
The energy of transpiration is 540 kcal/kgx4.2kJ/kcal=2260 kJ/kg or 226000 kJ /m2/d. Or 226000 kwattsec in 36000 s is
6.3kW.For the 7540 m2 forest the power flow is 6.3x7540=47 MW!
But see
F. No. 8-59/2012-FC Sub: Diversion of 197.173 ha of forest land in favour of M/s SJVN, Limited for ... - Forests Clearances ›

The Diversion of 197.173 Ha forest land means
266x47 MW= 125000 MW power flow of forest is replaced by just 252 MW of hydro!   Not only this but groundwater storage use of 266x 270000m3= 200x4/3x270000=200x360000=
72 million cubic meters annually of forest groundwater  lost to the Devsari godless moorkhapaddhati of dams or stupid geoengineering by modern civilization! 

Tuesday, December 19, 2017


Millions of degrees Kelvin shock input temperature rise due to the world’s dams caused the units to melt and explode
© 2018 Ramaswami Ashok Kumar
1. See
The extract:
Title: Nuclear criticality explosions in Fukushima due to plutonium fractionation and the consequences for health; some questions from a physical chemist
Author: Chris Busby
Date: 23 April 2011
Emphasis Added

1.1    Nuclear criticality explosions in Fukushima due to plutonium fractionation and the consequences for health; some questions from a physical chemist

1.2    […] With regard to the nature of the explosion I make the following suggestion: the melting points and boiling points of plutonium and uranium oxides are not the same. The MP of plutonium oxide in MOX is 2701 degrees C but that of the Uranium oxide is 3120 degrees C (Popov et al 2000). Therefore when a mixture of these boils, there will be fractional distillation of the plutonium oxide, separation of the mixture, just as happens with alcohol distillation from alcohol water mixtures or the fractional distillation of crude oil. Thus plutonium will become concentrated in the vapour and in the nearest cooler areas w(h)ere the vapour condenses. This would inevitably lead to a nuclear explosion when the concentration of plutonium exceeded the critical level for chain reaction. It is not only in MOX fuel that plutonium exists in nuclear reactors. It is produced as a result of the neutron irradiation of uranium fuel. […]
1.3 My explanation:
1.3.1 So looking at Table Fukushima, the shock input temperature Rise on a foundation block of 370 billion K if all the Water Moment applied by the dam content change of 9863 BCM were converted to heat of the 200mx200mx1m foundation block could easily have caused the fractional distillation of the plutonium oxide mix resulting in criticality and explosion of units.

1.3.2 See also discussions on my comments as navilu at

2. 0  A comparison of the Tohoku Earthquake as analysed by USGS and my analysis:
2.1 See the following plan view of the earth and the Tohoku earthquake data:

 2.2 Data for the above schematic plan view of earth is drawn from the Table PAD below:

2.3 Compare the above analysis with the USGS analysis on the Tohoku earthquake.
The USGS Tohoku earthquake is described here:
Results from the above URL:
Nodal Planes
Plane          Strike         Dip    Rake
NP1  193°        78°
NP2  25°    81°    92°
Principal Axes
Axis  Value                   Plunge       Azimuth
T        5.587e+22 N-m  54°             297°
N       0.012e+22 N-m                 204°
P       -5.598e+22 N-m 36°             113°

2.4 When the above data is analysed and compared with USGS data on the Tohoku 9.1 MM magnitude earthquake on March 11 2011 the following are the initial findings:
1. My result  P -5.01E+22 N-m     Plunge 34   Azimuth  108.3 Normal Fault, Dip=90-34=56.
2. USGS           P -5.598E+22 N-m          Plunge 36      Azimuth   113
Note both results are practically the same, the USGS result from studying seismograms and mine from considerations of global dam dynamics which in contrast to USGS conclusion of  thrust fault, shows up a normal fault based on dam dynamics. But look at this summary from its event page: Modeling of the rupture of this earthquake indicates that the fault moved as much as 50–60 m, and slipped over an area approximately 400 km long (along strike) by 150 km wide (in the down-dip direction). Looks like a normal fault!
2.5 It is easy to derive the plunge and azimuth data for the T axis from my data: Plunge 90-34= 56, Azimuth 108 +180= 288.
Note that the strikes for the Nodal Planes NP1 and NP2 from my analysis are 18+180=198(USGS 193) and 18.2(USGS 25)
2.6 Direction of propagation of rupture aims straight at the Center of gravity of the dams of the world.

2.6.1 What was the direction of propagation of the rupture with time?
See Hisashi Nakahara Haruo Sato Takeshi Nishimura Hiroyuki Fujiwara.July 2011.Direct observation of rupture propagation during the 2011 off the Pacific coast of Tohoku Earthquake (Mw 9.0) using a small seismic array at the link at
The Abstract:
A great earthquake of Mw 9.0 occurred on March 11, 2011 off the coast of Tohoku region, Northeast Honshu, Japan. Strong ground motions from the earthquake were recorded at 4 stations of a small seismic array, with an aperture of about 500 m, located 120 km away from the epicenter. Peak ground acceleration exceed the full scale of 2g on the horizontal components, and was larger than 1g even on the vertical component. Two prominent bursts and at least two following smaller bursts are identified on the strong-motion records which lasted for longer than 200 s. We have performed semblance analysis to estimate the rupture propagation during the earthquake using coherent seismograms at frequencies of 0.5–2 Hz. The rupture seems to consist of at least four stages. Rupture propagated in a northerly direction in the beginning 50 s forming the first burst, then proceeded to the southwest from the epicenter in the next 50 s during the second burst. The rupture further extended southwests in the following 40 s, and finally migrated to the south for about 30 s. A small seismic array makes it possible to observe rupture propagation during a large earthquake even with a small number of stations.
End of Abstract.
I then plot this propagation on the plan view of the earth depicting the Tohoku earthquake. The vector direction is in plan along the Water Moment Arm from the Center of Gravity of the World’s dams. The initiator of the earthquake at Tohoku is therefore the dam content changes of the world’s dams when studied along with other studies(Ref 3). See 2.1 above. Tragedy of tragedies, Fukushima Daichi was caught in the direction of the rupture propagation of the great tsunamigenic earthquake.

3.0 The magnitude of Tohoku earthquake has been revised to 9.1 by USGS on 11-07-2016. The Shock input Temperature Rise will then be even more than what has been computed for 9 MM quake.

4.0 The study of the Andaman Sumatra 9.1 MM magnitude earthquake similarly reveals the world’s dams as the cause:

4.1 First see Thorne Lay et al:
The Great Sumatra-Andaman Earthquake of 26 December 2004 at
"Fig. 8. Summary rupture scenario for the 2004 Sumatra-Andaman earthquake. We subdivide the rupture zone into three segments according to the inferred rupture process, not because of clear physical fault segmentation. The rupture begins at the southeastern edge of the Sumatra segment, with the initial 50 s of rupture characterized by fairly low energy release and slow rupture velocity. The rupture front then expands to the north-northwest at about 2.5 km/s, extending about 1300 km. Short-period radiation tracks the rupture front, with a total duration of about 500 s and clear north-northwest directivity. Large, rapid slip occurs in the Sumatra segment, with some patches having slip as great as 20 m during the first 230 s. The Nicobar segment has weaker slip during the next 2 min, and the Andaman segment fails with little (<2 m) rapid slip. Slow slip appears to continue in the Nicobar and Andaman segments, with a total duration of about 1 hour. The precise amount of slip and total moment of the slow-slip component are not well resolved, but about 10 m of slip under the Andaman Islands is required to account for the tilt experienced by the islands."

Here the dip is for the various areas indicated around an average of 17. The rake varies from 110 to 150 at an average of  370/3= 123.
My dip value from Table PAD1 is 16.12. The rake is 90 degrees(normal fault). Please replace Tohoku with Andaman Sumatra in Table PAD1.

4.2 An extract from USGS event(Ref4) page  on the directivity of propagation of rupture:
“…fault rupture propagated to the northwest from the epicenter and that substantial fault rupture occurred hundreds of kilometers northwest of the epicenter. The data upon which the modeling is based do not permit confident resolution of the extent of rupture beyond about 500 km northwest of the mainshock epicenter. The width of the earthquake rupture, measured perpendicular to the Sunda Trench, was about 150 km, and maximum displacement on the fault plane was upwards of 20 m. The sea floor overlying the thrust fault was uplifted by several meters as a result of the earthquake, causing the ensuing tsunami that devastated shores around the Indian Ocean. “
Note that the center of gravity of the world’s dams is in the north northwest direction from the epicentre(Table PAD1).

4.3 See below the plan view of the earth with the Andaman Sumatra earthquake and its details plotted:

4.4 Progression of Rupture of the 9.1 MM Andaman Sumatra Great Earthquake of 26 December 2004.
This is derived through data from  Ref 6. p 226. Table 2 Subfault Parameters. See Figure 10Ch10:

The rupture and its progression is controlled by the total changes in the global dam contents  at any instant.This progression of rupture in the vector direction of the center of gravity of the world's dams from the hypocenter of the 9.1 MM Andaman Sumatra Earthquake is plotted in the above plan view of the earth depicting details of this earthquake. Port Blair which lay in the path of the rupture was hit and the Naval Base destroyed.
5.0  See also the 2018 significant earthquakes:
M 7.6 - 44km E of Great Swan Island, Honduras
2018-01-10 02:51:31 UTC 17.469°N   83.520°W 10.0 km depth
This also exhibits similar  attributes and the water moment arm is also the azimuth of the plunge of the earthquake. The center of gravity of the world's dams at 23.99, 97.1 is to the north west north of the Honduras quake: See the USGS URL:
"Early focal mechanism solutions indicate that rupture occurred on a steeply dipping structure striking either west-northwest (right-lateral), or west-southwest (left-lateral). "
my analysis using dam dynamics.
location of center of gravity of the world's dams : 23.99,97.2.
Earthquake data:
Hypocenter: 17.469, -83.52,10 km. For direction of rupture progression see map for a first view.

See the water moment arm drawn on the map passing through the Center of gravity of the world's dams  and the Honduras earthquake extended on the sides of the center of gravity and the Honduras quake:

The water moment arm on a plot of rectangular coordinates with longitude on y axis and latitude on x axis provides an insight in to the rupture progression of the Honduras major quake:

When you study scientifically how earthquakes are caused by dams of the world and look up and study Figure2Ch2 above you see how ruptures are being inflicted on the earth by the dams of the world. See Ref 7 below.

The water moment arm from the center of gravity of the world's dams to the north Honduras earthquake hypocenter is the plunge line: plunge 3.27 degrees, azimuth of plunge 179.61 degrees. It is a normal fault with dip 86.73 degrees, rake 90 degrees. Strike 89.61 degrees.
The star diagram provides an idea of dam dynamics controlling the location and magnitude of earthquakes.
See the KML rendering of the 7.6 MM quake Honduras 10.1.18:

6.0 References
2. R. Ashok Kumar.2011. nuclear damage infinite: CHERNOBYL FUKUSHIMA ONLY PLUTONIUMA !
3. R. Ashok Kumar.2011. PERFECT DESIGNS: Ignore root cause, get root shock- Dams the cause of Irma's Fury at

5. Hisashi Nakahara Haruo Sato Takeshi Nishimura Hiroyuki Fujiwara.July 2011.Direct observation of rupture propagation during the 2011 off the Pacific coast of Tohoku Earthquake (Mw 9.0) using a small seismic array at the link at

6. Bulletin of the Seismological Society of America, Vol. 97, No. 1A, pp. S223–S231, January 2007, doi: 10.1785/0120050627

Rupture Process of the 2004 Sumatra–Andaman Earthquake from

Tsunami Waveform Inversion by Alessio Piatanesi and Stefano Lorito

See Figure 10Ch10.

See the link:

7. R. Ashok Kumar. 2015. Predicting Earthquakes.The science of dams causing earthquakes and climate change at