ArticlePDF Available

Abstract and Figures

In all the Indian legends, whether it is the Ramayana or Mahabharata, one can find embedded elements of geological processes. Perhaps due to the lack of a sound scientific basis for recognizing geological processes in ancient Indian civilization, such processes were believed to be the acts of ‘Gods’ (Suras) and ‘Demons’ (Asuras) and hence they formed an integral part of these legends. Even in the present age where science is able to explain several geological processes, the Hindu faith is such that these myths and legends continue to be passed on to succeeding generations. The fact that these geological processes are contained in these epics helps to sustain truth (dharma) and maintain harmony. Ancient Indian civilization adopted this doctrine and its ontinuance will remain a fresh and vital part of future generations in India.
Content may be subject to copyright.
Geo-mythology of India
D. CHANDRASEKHARAM
Department of Earth Sciences, Indian Institute of Technology Bombay, Mumbai, India 400076
(e-mail: dchandra@geos.iitb.ac.in)
Abstract: In all the Indian legends, whether it is the Ramayana or Mahabharata, one can find
embedded elements of geological processes. Perhaps due to the lack of a sound scientific basis
for recognizing geological processes in ancient Indian civilization, such processes were believed
to be the acts of ‘Gods’ (Suras) and ‘Demons’ (Asuras) and hence they formed an integral part of
these legends. Even in the present age where science is able to explain several geological pro-
cesses, the Hindu faith is such that these myths and legends continue to be passed on to succeeding
generations. The fact that these geological processes are contained in these epics helps to sustain
truth (dharma) and maintain harmony. Ancient Indian civilization adopted this doctrine and its
continuance will remain a fresh and vital part of future generations in India.
Hindu mythology centres around gods, demigods,
their supremacies and related stories. Basically the
philosophy in all these legends is to teach humans
the values of Dharma (justice) and how God pre-
vails in sustaining dharma in the world (Sinha
1954; Rajendranath Seal 1958). Initially, all these
were Smrirtis (sacred teachings) and subsequently
were documented in the form of books (Vedas) by
great saints (Rishis). All these ancient books were
originally written on palm leaves and preserved
for centuries, some of which are still preserved,
even today.
During the creation of these legends several
geological phenomena and events became embedded
within them either knowingly or unknowingly.
Whether it is Ramayana, Mahabharata or Puranas,
these doctrines are presented in the form of folklore,
or myth ological stories. Hinduism always preaches
dharma in order to maintain world peace and to
curb evil by any living being (Rajendranath Seal
1958). This paper discusses how geological events
and processes became entangled in these epics. All
these stories refer to events that happened on Earth
(or occasionally in the heavens) and hence geological
processes became an integral part of them. Though
examples of several such close relationships
between geology and mythology exist in Hindu
texts, only a few are elaborated in this paper. A
similar relationship between myths and thermal
springs over the world was compiled by the Geother-
mal Resources Council in their volume Stories from a
Heated Earth (Cataldi et al. 1999).
Hindu eras in relationship to stratigraphy
and the origin of Earth
According to Hindu Vedic cosmology, the age of
the entire universe is divided into four yugas
(eras): Satyuga, Trethayuga, Dwaparayuga and
Kaliyuga. The time span of each yuga varies in a
manner similar to geological eras. According to
the Hindu mythology the Satyuga lasted for 1.728
Ma; Trethayuga lasted for 1.296 Ma; Dwaparayuga
lasted for 0.864 Ma; and the Kaliyuga, the present
era has so far completed 0.432 Ma (Somayaji
1971). The Trethayuga and the Dwaparayuga are
the most important eras since they encompass the
most important epics of India, the Ramayana and
the Mahabharata, respectively.
This four fold stratigraphic division of time-scale
is similar to that used in geology (cf. Precambrian,
Palaeozoic, Mesozoic and Cenozoic). Some authors
consider each yuga as Maha Yuga’, meaning that
each should be multiplied by 1000 years. In which
case the sum of all these yugas amounts to the age
of the Earth (c. 4.3 billion years) which constitutes
a day for Lord Brahma (Brahma day), the creator of
the universe (Somayaji 1971; Bhaktivedanta Swami
Prabhupada 1986). The destruction of the universe
is called pralaya or catastrophe—synonym to
the present day floods, earthquakes and tsunamis.
In each era, Lord Vishnu, the saviour, emerges into
this world in the form of avatar (incarnation).
According to the Hindu mythology, these avatars
are in the form of animals or semi-animal demigods
(part is human and part is animal: Fig. 1). In each
avatar, he destroys the evil and restores satya
(justice) in the world. The ten avatars are Matsya
(fish), Koorma (tortoise), Varaaha (boar), Narasimha
(the man lion), Vaamana (the dwarf), Parasurama
(the angry man), Rama (the perfect human; avatar
in Trethayuga), and Krishna (the divine statesman;
avatar in Dwaparayuga). The tenth avatar which is
yet to appear is Kalki (Pandey 1979).
Lord Vishnu is always seen with his conch and
Chakra (Vishnu Chakra; the wheel) in his hands.
From:PICCARDI,L.&MASSE, W. B. (eds) Myth and Geology.
Geological Society, London, Special Publications, 273, 29–37.
0305-8719/07/$15.00 # The Geological Society of London 2007.
He is reborn (as a new avatar) after a major cat-
astrophe (pralaya) when the entire species on
Earth becomes extinct. After every Brahma day,
Lord Brahma creates new life on Earth. In
Hindu mythology it is said that after one such cat-
astrophe, Brahma was busy creating new life on
Earth and did not pay attention to the Demon
Hiranyaksha who had pushed the mother Earth
into (Patal lok) the Ocean (i.e. trying to destroy
the Earth). Brahma, realizing that his new creation
of life has to live on Earth, pleaded with Vishnu
to save the Earth. Vishnu took the form of
Varaha (Fig. 1: Subramnya Sastri 1989; Pandey
1979) and lifted the Earth with his tusks from
the ocean bottom and reinstated it in its proper
orbit. One may interpret this geologically as the
birth of the planet Earth or an analogy of sea-
floor spreading at mid-ocean ridges where new
material is created.
Rahu, Ketu and the eclipses
Lunar and solar eclipses are natural phenomena of
the solar system and for that matter an eclipse is
common to all the planetary bodies. However, in
Indian mythology it is a chase between Rahu and
the Moon and Ketu and the Sun (Dave 1991a).
Indra, one of the celestial gods or ‘Suras’, was
cursed by Durvasa for insulting him by throwing
away the flowers offered by him. By nature,
Durvasa is short-tempered and cursed Indra and
all the gods that they would lose their vigour and
strength. So the gods started losing power while
the Asuras (demons) started gaining power. The
gods pleaded with Vishnu to help them to regain
their power so that the demons would not overtake
their kingdom.
Vishnu advised the gods to churn the milky sea
using serpent ‘Vasuki’ mount Mandara as a stirrer
to obtain celestial nectar (elixir) that would
restore their power (Fig. 2). Thus both the gods
and the demons churned the ocean and the nectar
emerged from the ocean. Vishnu deceived the
demons by taking the form of a beautiful lady
(Mohini) and diverted their attention while the
gods consumed the elixir. However, two Asuras
(Rahu and Ketu), aware of Mohini’s trickery, took
the guise of gods and also consumed some of the
celestial nectar and became immortal. The Moon
and the Sun reported this incident to Vishnu who
became furious and chopped off their heads with
his Chakra (see Fig. 3). Since Rahu and Ketu con-
sumed the nectar, they remained in the universe
and started chasing the Moon and the Sun as an
act of revenge. Thus in Hindu mythology Rahu
and Ketu are regarded as celestial bodies that
swallow the Moon and the Sun thus causing lunar
and solar eclipses respectively. Indian astronomers
as early as
AD 300 discounted this myth and pre-
sented the orbital paths of the planets and their
moons thus accounting for lunar and solar eclipses
(Somayaji 1971; Dave 1991a).
Mahakal crustal extension zone and
Mahakaleswar
While Rahu and Ketu were consuming the celestial
nectar, a few drops fell on Earth. Wherever drops of
the celestial nectar or the elixir spilled, those places
became divine or holy shrines for Hindus. Ujjain is
one such place. Ujjain is located within the northern
flank of the mid-continental Narmada rift. The
Mahakal rift zone extends from the NE part of
Madhya Pradesh to SW part extending up to
Ujjain. (Venkata Rao & Nayak 1995; Fig. 4). The
famous Tattapani thermal springs in Chattisgarh
district (east of Jabalpur, not shown in Fig. 4)
Fig. 1. Varaha (boar) avatar of Lord Vishnu.
D. CHANDRASEKHARAM30
emerge through this rift system (Chandrasekharam
& Antu 1995; Subramnya Sastri 1989). Hindu
mythology mentions such a rift zone through
which Lord Shiva (known as Mahakaleswar)
emerged to save his devotees in Ujjain by killing
the demon Dushana who was living in Ratnamala
hills (Dave 1991a). Though there are no hill
ranges around Ujjain, the Ratnamala hills may be
the Vindhyans that form part of the Narmada rift
system. Geographically, Ujjain attained importance
for nurturing great Hindu astronomers and because
the Tropic of Cancer passes through it. Ujjain was
considered the ‘Greenwich’ of Hindu astronomers
(Dave 1991a).
Vishnu, Shiva and marine fossils
Fossils are considered divine and are thought to rep-
resent Hindu gods. For Indians, ammonites and
echinoderm fossils are sacred and are known as
saligrams’or‘saligramas (the actual name or
term in Sanskrit is Salagraman and is one of the
names of Vishnu; Swami Nityananda 1998). In
Hindu mythology, ammonites are considered as
Vishnu Chakra and the echinoderms and cephalo-
pods (belemnites) as Shiva (in his phallic form,
Linga). The ammonite fossil with circular shape
and radiating ribs look very similar to Vishnu
Chakra (Fig. 3) with radiating spikes. All types of
ammonite fossils (e.g. Meekoceras varaha; Promi-
croceras planicosta; Almatheus margaritatus;
Fig. 2. Churning the sea (Samudramanthan) by Suras and Asuras. Vasuki (name of the serpent) is the churning rope
and Mandara (name of the mountain) is the churning rod.
Fig. 3. Vishnu, the Hindu deity, holding the Vishnu
chakra (also known as Sudarshan chakra) and the
Serpent, Vasuki, sheltering Vishnu.
GEO-MYTHOLOGY OF INDIA 31
Eoderoceras bispinigerum; Cardioceras; Discosca-
phites nebrascensis; Acanthoscaphites nodosus:
Krishnan 1968) are given different names indicat-
ing different manifestations of Vishnu (Swami
Nityananda 1998). The ammonite fossil Meeko-
ceras varaha found in the Triassic formation of
the Central Himalayas (Krishnan 1968) resembles
the Vishnu Chakra. Varaha is one of Vishnu’s
avatars. It is not clear whether this name is given
to the fossil because of its resemblance to Vishnu
Chakra or it attained this name accidentally.
Indian geology textbooks mention of the saligram
(Krishnan 1968; Wadia 1978); some of the echino-
derm and cephalopod fossils look like a phallus,
symbolizing Shiva. In India, these Jurassic and
Cretaceous fossils are extensively found in Spiti
Shale Formations of upper Himalayas and brought
to Nepal by Gandak River (Krishnan 1968), which
joins the Ganges in the Gangetic plain in India.
Vishnu became incarnate in the form of Saligram
to save the demons and semi-gods alike. These
fossils are kept in temples and households as
natural symbols of Vishnu (Fig. 5).
Stalagmites and Amarnath cave
Shiva is part of life for many Indians and he is wor-
shipped in the form of Linga (phallus) by a large
number of Hindus. Some Hindus carry the Shiva
Linga (phallus) on their body (especially the echi-
noderm fossils). A large number of pilgrims travel
to Amarnath cave annually to see the Lord. Accord-
ing to Shiva Purana (Subramnya Sastri 1989), Shiva
recounted the secret of creation and eternal life to
his consort, Parvati, in this cave.
The Amarnath cave is about 145 km NE of
Srinagar, at a height of about 4000 m above mean
sea level, in the Himalayas (Fig. 6). It is believed
that the Shiva Linga in the cave forms every lunar
month: during the first half the Linga starts
forming and attains full size on the full-moon day
(lunar day 15), and during the second half of the
month the Linga starts decreasing and disappears
on new-moon (Dave 1991b). This cave attracts
large crowds from all over India and more than
25 000 pilgrims visit this shrine between May and
July. In reality this cave is located in limestone-
gypsum formation (Krishnan 1968) and the melt-
water percolating into the cave from the roof
through joints freezes on the ground and grows as
a stalagmite (Fig. 7). Due to the heat generated by
the pilgrim population visiting the cave, the stalag-
mite melts by June, thus reducing the size of the
Shiva Linga (the stalagmite). White gypsum
powder from the cave is distributed to the pilgrims
as ‘Vibhuti’ (sacred powder).
The Kashmir government reportedly is planning
to extend the life of the stalagmite artificially.
Sea level change and Dwaraka
In Mahabharata, Lord Krishna was the chief advisor
to the Pandavas (worriers and sons of King Pandu).
Mathura was the abode of Krishna. Due to constant
hostility between Suras and Asuras’, Kamsa, the
demon, waged a war against Krishna. Kamsa had a
curse on his head that he would be killed by
Krishna. In the ensuing battle, Kamsa was indeed
killed. Krishna, who actually belongs to the
Yadavas (a Hindu sect and disciples of Krishna),
found it impossible to continue his stay in
Mathura and shifted his abode to Dwaraka along
the Saurashtra coast in Gujarat (Kamala 1977;
Dave 1991b). According to the legend, Krishna’s
disciples perished from infighting. Since the main
task of killing Kamsa had been accomplished,
Krishna decided to leave Dwaraka and in one of
the texts it was told that Krishna knew about the
fate of Dwaraka and hence left for his heavenly
Fig. 4. Mahakaleswar and Mahakal crustal extensions zone (modified after Venkata Rao & Nayak 1995).
D. CHANDRASEKHARAM32
abode. The town of Dwaraka was inundated by the
Arabian Sea and subsequently submerged.
Recent marine archaeological investigation dis-
covered the mythological Dwaraka town intact,
under the sea along Saurashtra coast (Gaur et al.
2000) (Fig. 8a,b). The sinking of Dwaraka was
due to tectonic activity accompanied by sea level
rise; sea level was about 150 m below the present
level. Signatures of Late Quaternary coastal tec-
tonics and sea-level changes are well recorded
along the cliffy coastline of Saurashtra. A succes-
sion of raised terraces and wave-cut notches have
resulted from changes in sea level whereas tectono-
genic features are represented by steep vertical cliff
faces, distorted morphology of wave-cut notches
and staircase platforms (Pant & Juyal 1993a,b).
This discovery gives an idea about the lay out of
Dwaraka and the forts believed to have been inhab-
ited by the Yadavas of the mythological Mahabhar-
ata (Rao 1999; Gaur et al. 2000; Vora et al. 2002).
Further the entire Saurashtra coast has been
subject to major tectonic events since Jurassic
times (Mishra et al. 2001).
Coral reefs and Ramayana
Rama, the great hero of the Hindu epic Ramayana,
was the seventh avatar of Vishnu. The epic
Ramayana was written by Valmiki several centuries
after Rama’s reign, which according to the
Fig. 5. Ammonites, echinoderms worshipped as Saligrams by Hindus.
Fig. 6. Map showing the location of Amarnath Cave.
GEO-MYTHOLOGY OF INDIA 33
astronomical data was around 2012 BC (Srinivasa
1955). Rama, Sita (his consort), and Laxmana
(his brother) were in exile for fourteen years due to
the wicked plan of his stepmother Keikeyi. While
he was in the Dandakaranya forest, Surpanaka,
sister of Ravana, the king of Sri Lanka, expressed
her desire to marry Rama. Laxmana cut her nose
and ears as a punishment for this desire (Srinivasa
1955; Rajagopalachari 1958; Lakshmi Narasimha
1984; Ganapati Sastry 1986; Dave 1991c). Ravana
Fig. 7. Amarnath Cave and the Shiva Linga. The Stalagmite (on the right) attains the shape of a phallus after full
growth and represents Shiva Linga.
Fig. 8. (a) Pictorial view of Dwaraka off Saurashtra coast. (b) Harbour of ancient Dwaraka (pictures courtesy
Gaur 2004 pers. comm.).
D. CHANDRASEKHARAM34
took revenge by kidnapping Sita to his kingdom.
Rama decided to wage a war against Ravana.
The main hurdle was to cross the sea between
Rameswaram and Sri Lanka (Fig. 9). Rama’s disci-
ples helped him to construct a bridge between
Rameswaram and Sri Lanka. This is the legendary
Rama’s bridge across Palk Strait.
In reality this bridge is a coral reef extending
between these two land masses. A recent Indian
remote sensing satellite picture clearly shows the
presence of coral reefs, sand bars and clay deposits
between these two countries (Fig. 9) which are sep-
arated at this point by a distance of 32 km
(Bahuguna et al. 2003). These coral reefs must
have been exposed due to a change in sea level,
near Sri Lanka, during that period described in the
myth. Sea-level changes are not uncommon glob-
ally, and about 18 000 years
BP the sea level was
100150 m below the current level (IPCC 2001;
Purnachandra Rao et al. 2003). These coral reefs
must have been exposed to the surface—like those
of Lakshadweep islands in the recent historical
past—enabling Rama’s army to cross over to Sri
Lanka. With sea levels rising at the rate of 2.5 cm
per year (it has risen by about 1020 cm in the
20th century; IPCC 2001), this bridge may never
again be exposed.
Myths about thermal sprin gs
Ancient Indian civilization considered all geologi-
cal phenomena as evidence of divine power and
gifts from the gods (Rajendranath Seal 1958).
This is evident when one visits all the geothermal
provinces in India where thermal waters with
temperatures from 4798 8C issue through
various geological formations associated with
major tectonic structures. A detailed account of
the relationship between the thermal springs and
Hindu mythology was given by Chandrasekharam
(1999). These sites are associated with epics such
as Ramayana and Mahabharata, and centres
around Lord Shiva, the presiding deity at many
thermal spring sites. Legends associated with
some of the thermal spring sites are outlined below.
Manikaran is situated along Parvati River near
Kullu, 80 km north of Shimla. According to the
legend, Parvati, lost her earrings in the River
Parvati and asked Shiva for help to recover them.
Lord Shiva pierced the Earth with his third eye
only to get gushing hot water along with the ear-
rings. Manikaran is a famous pilgrim centre for
Fig. 9. Park strait and the IRS picture showing the coral reefs between India and Sri Lanka (IRS picture from
Bahuguna et al. 2003).
Fig. 10. Rice (pots) being cooked inside the thermal
pool at Manikaran.
GEO-MYTHOLOGY OF INDIA 35
Hindus as well as for Sikhs. A Shiva temple and a
Gurudwara (Sikhs religious shrine) are located
near the emergence of the thermal springs. Devo-
tees offer rice to Lord Shiva cooked in the thermal
waters. Rice is cooked in small cloth pouches
dipped in the thermal pool. Gurudwara cooks rice
on a large scale in copper vessels for devotees.
The food is served free to all the devotees (Fig. 10).
Similarly, the Tuwa thermal springs of Gujarat
were believed to have been born due to Bhima’s
(one of the Panchapandavas of Mahabharata) mys-
tical power. Draupadi, the common wife of Pancha-
pandavas, asked Bhima to fetch water to quench her
thirst near Tuwa. Bhima, not finding any source of
water in this drought prone area, brought hot
water to the surface (Chandrasekharam 1999).
In the case of the Agnigundala thermal springs
near Bhadrachalam, Andhra Pradesh, hot water
flows below the surface on the western bank of
the River Godavari (Chandrasekharam et al.
1996). According to the legend, Rama and Sita
rested in Bhadrachalam during their exile and Sita
requested Rama to fetch warm water to beat the
cold. Rama pierced the Earth with his arrow and
brought hot water to the surface. Bhadrachalam is
famous for Rama temple, and during Rama
Navami day (the birthday of Rama) thousands of
pilgrims congregate at this temple and have a holy
bath in the thermal waters.
In general, in all the thermal spring locations,
Shiva is the presiding deity. This is because these
springs are considered as Ganga (water) which
was brought from heaven to Earth by Bhagiratha
(Macfie 1992). It was Brahma who gave the boon
to Bhagiratha to enable Ganga to flow on Earth.
To contain her fall, Shiva allowed Ganga to fall
on his head and locked her in his matted hair thus
controlling the flow. Ganga became part of Shiva
and adorns Shiva’s head.
Conclusions
Geological processes or events are an important
component of Indian mythology. Whether a major
tectonic event, the growth of a stalagmite, for-
mation of coral reefs or coastal submergence,
these processes have been considered as manifes-
tations of the gods. The central theme of all the
epics is ‘God’ and His activities on Earth and
hence all the Earth’s activities/processes form an
integral part of these myths and legends. What
emerges is that all these geological processes were
known to ancient Indian civilization. Since scienti-
fic explanation was not available at that time, such
processes were embedded in the legends as God’s
manifestations. In the Hindu faith these myths and
legends are passed on to the next generation. This
may be the case not only in India but in the entire
world (Cataldi et al. 1999). What has been
described in the present paper is a fraction of
what exists in the Indian mythology. A detailed
account of the relationship between geology and
myths would run to many more pages.
A. Minissale and L. Piccardi were instrumental in inviting
me to write this paper. Several people helped me in
lending their books on the Indian legends and puranas
and translating certain books from their original language
to English. My sincere thanks to all of them. I thank
O. Vaselli and J. Garnish for their critical comments and
suggestions and B. Masse for editing the text.
References
BAHUGUNA, A., NAYAK,S.&DESHMU KH, B. 2003.
IRS views the Adams bridge, Photonirvachak, 31,
237239.
B
HAKTIVEDANTA SWAMI PRABHUPADA 1986.
Bhagavad-Gita as it is. The Bhaktivedanta Book
Trust, Mumbai, 904 p.
C
ATALDI, R., HODGSON,S.F.&LUND, J. (eds) 1999.
Stories from a Heated Earth. Geothermal Resources
Council California, Special Report, 19.
C
HANDRASEKHARAM,D.&ANTU, M. C. 1995. Geo-
chemistry of Tattapani thermal springs, Madhya
Pradesh, India: Field and experimental investi-
gations. Geothermics, 24, 553 559.
C
HANDRASEKHARAM,D.,RAO,V.G.&JAYAPRAKASH,
S. J. 1996. Geothermal energy potential and direct
use of geothermal springs, Godavary valley,
Andhra Pradesh. Geological Survey of India,
Special Publications, 45, 155–162.
C
HANDRASEKHARAM, D. 1999. A Prehistoric view of
the Thermal Springs of India. In:C
ATALDI, R.,
H
ODGSON,S.F.&LUND, J. (eds) Stories from a
Heated Earth. Geothermal Research Council,
California, Special Report, 19, 357365.
D
AVE, J. H. 1991a. Immortal India. Bharatiya Vidya
Bhavan, Bombay, 1.
D
AVE, J. H. 1991b. Immortal India. Bharatiya Vidya
Bhavan, Bombay, 2.
D
AVE, J. H. 1991c. Immortal India. Bharatiya Vidya
Bhavan, Bombay, 3.
G
ANAPATI SASTR Y, P. 1986. Mahabharatam, Triveni
Pub. Pvt. Ltd, Machilipatnam.
G
AUR, A. S., SUNDARESH, P., GUD IGAR, S., TRIPATI,
V
ORA,K.H.&BANDODKER, S. N. 2000. Recent
underwater exploration at Dwaraka and surrounding
of Okah mandal. Man and Environment, 25, 6774.
IPCC 2001. Intergovernmental Panel on Climate
Change 2001. Cambridge University Press.
K
AMALA, S. 1977. Mahabharata. Bharatiya Vidya
Bhavan, Bombay.
K
RISHNAN, M. S. 1968. Geology of India and Burma.
Higginbathams (P) Ltd, Madras.
L
AKSHMI NARASIMHA, S. 1984. Ramayana: the story
and significance of Valmiki’s epic. Dharma Artha
Centre Publication, Bombay.
M
ACFIE, J. M. 1992. Myths and legends of India—an
introduction to the study of Hinduism. Aryan
Book International Publication.
D. CHANDRASEKHARAM36
MISHRA, D. C., SINGH, B., ET AL. 2001. Major linea-
ments and gravity-magnetic trends in Saurashtra,
India. Current Science, 80, 10591067.
P
ANT,R.K.&JUYAL, N. 1993a. Late Quaternary
coastal instability and sea-level changes—new
evidences from Saurashtra-coast, Western India.
Zeitschrift fur Geomorphologie, 37, 2940.
P
ANT,R.K.&JUYAL, N. 1993b. Neotectonism along
the Saurashtra coast—new evidence. Current
Science, 65, 351353.
P
ANDEY, R. K. 1979. The concept of Avatars.BR
Publishing Corp., Delhi.
P
URNACHANDRA RAO, V., RAJAGOPALAN, G., VORA,
K. H. & A
LMEIDA, F. 2003. Late Quaternary sea
level and environmental changes from relic carbon-
ate deposits of the western margin of India.
Proceedings of Indian Academy of Science (Earth
Planetary Science), 112, 125.
R
AO, S. R. 1999. The Lost City of Dvaraka. Vedams-
books and Com., New Delhi.
R
AJAGOPALACHARI, C. 1958. Ramayana. Bharatiya
Vidya Bhavan Publication, Bombay.
R
AJENDRANATH SEAL 1958. The Positive Sciences of
the Ancient Hindus. Moti Lal Banarsi Dass
Publication, Delhi.
S
INHA, J. 1954. The Foundation of Hinduism. Philoso-
phical Publication, Calcutta.
S
OMAYAJI, D. A. 1971. A Critical Study of the Ancient
Hindu Astronomy; Karnataka University Research
Publication Series 11, Darwar, 1971.
S
RINIVASA, S. 1955. Valmiki Ramayanam. Triveni
Publishing Pvt. Ltd, Machilipatnam.
S
WAMI NITYANANDA 1998. Symbols in Hinduism,
Central Chinmaya Mission Trust Publication,
Mumbai.
S
UBRAMNYA SASTRI 1989. Siva Mahapuranam,
G. Veeraswamyand SonsPublication, Rajamhundry.
V
ORA, K. H., GAUR , A. S., PRICE,D.&SUNDARESH
2002. Cultural sequence of Bet Dwarka island
based on thermoluminescence dating. Current
Science, 82, 13511356.
V
ENKATA RAO,K.&NAYAK, P. N. 1995. Geophysical
studies in Central India— Narmada-Tapi valleys,
Malwa Plateau and Satpura region. In:
Geoscientific studies of the Son-Narmada-Tapi
lineament zone, Project CRUMANSONATA.
Geological Survey of India, Special Publication,
10, 155180.
W
ADIA, D. N. 1978. Geology of India. Tata McGraw-
Hill Pub. Co., New Delhi.
GEO-MYTHOLOGY OF INDIA 37
... Unlike other domesticated animal species, the abundance of domestic pigs in a particular region is influenced by the religion, culture, and traditions of people within the region and their respective association with pork consumption. The worship and significance of wild boar in India have been seen since time immemorial [1], however, on the question of pig rearing, the scenario depends on the other aspect of Hinduism called the caste system, which is the oldest form of surviving social stratification and its effect cannot be ignored in modern society. According to the traditional caste system, the lower caste prefers pig rearing. ...
... His third reincarnation was in the form of Varaha or wild boar, to rescue the earth from the evils of demons. Till date, many temples throughout India offer prayers to the Varah avatar of Vishnu (Krishna 2010;Dornadula 2007). ...
Preprint
Full-text available
Pig farming has a profound caste-based and cultural association in India. In Uttarakhand, pigs are raised predominantly by the specific community contributing to their livelihood. Unlike other livestock species in the State, the piggery sector is unorganised and the pig farming is not sufficient to meet the increasing demand for pork. The study aims to identify the locations of the household rearing pig and its husbandry practices in the planar (Dehradun, Haridwar and Nainital) districts where rapid urbanisation and continuous migration make us reconsider the necessity of an organise promotion of the piggery sector due to its multiple ecological implications. 28 households were reached by adopting rapid appraisals approach and interviewed by using a semi-structured questionnaire. Analysis showed that 60.7%, 10.7% and 21.4% of the household raised pig near seasonal streams (slum settlements), the residential areas within the house premises and near the forest, respectively. Moreover, 28.6% of households maintained breeding boar of feral origin and 96.94% followed a semi-intensive pig rearing system; hence human settlement is staying in close proximity with pigs (domestic and wild) and other domestic animals. The possibility of the emergence of zoonotic and non-zoonotic disease and its easy transmission to humans become more prominent in the urban setting. Before planning for a holistic piggery development program in Uttarakhand, the government may consider these findings. Lastly, the location of the pig herd and its foraging areas requires to be strictly monitored for public health benefits.
... The studies on geomythology and Atlantis-a fictional island in the Atlantic Oceanconstitute a good example in this regard (Vitaliano 1968;Forsyth 1982). Chandrasekharam (2007) argued that geological processes or events are a key component of Indian mythology and in Indian culture, tectonic events, the growth of a stalagmite, formation of coral reefs or coastal submergence have been considered as manifestations of the gods and their activities on Earth. Chester and Duncan (2007): 203) believed that geomythology should be viewed with caution because cultural presuppositions and prejudices may be read into the reactions of indigenous peoples. ...
Article
Geotourists may visit geosites for different reasons related to their goals, motivations and the characteristics of the geotourism destination. From the geotourism point of view, several factors can be mentioned in order to attract tourists to geosites in addition to individual motivations, such as the site being exceptional or unique or the magnitude of the event, the shape and the form of the phenomenon, the variety and contrast of colour, the specific and surprising smell and geomythology. Geomythology is any kind of our ancestors’ myths or customs that are sometimes integrated into branches of earth sciences such as geography, geology and volcanology. The existence of stories, fictions and myths in many cases is one of the reasons which attract people to come to a geotourism destination and observe features and processes operating in that area. The Takht-e Soleymān – Takab area is one of the best examples of these geotourism destinations in Iran. Words such as Takht-e Soleymān (King Solomon), Belgheis (Queen of Sheba), Demon, Dragon and Solomon’s Prison can be seen in the names of volcanic landforms, geothermals and karsts of this area and different stories and fictions are told about them. Local communities integrated these myths into the processes that shape the physical features of the Earth. Nowadays, these myths have an important role in attracting tourists, especially geotourists, to this area. An analytical-descriptive method with an emphasis on documentary data and field studies was used to investigate the geomythological aspects of this area’s landforms. The results illustrated that the geomythology of the Takht-e Soleymān area sites could have an important role in attracting people to geosites and in protecting them.
... The story of " the smoking crab holes of Sissano " is in Davies et al. (2003). 7. It has been claimed that Dwaraka was submerged to a depth of 150 m by a combination of sea-level rise and (tectonic) subsidence (Chandrasekharam 2007); this seems exaggerated. 8. ...
Article
Full-text available
The critical analysis of myths (traditional oral tales) can lead to an improved understanding of geohazards. This paper examines three groups of myths (volcano, earthquake, coastal change) from Asia-Pacific cultures and shows how their analysis can contribute to the identification of unrealised geohazards in particular places as well as the magnitudes and recurrence intervals of these hazards. Many volcano myths involve gods within the mountains who are periodically angered and punish the people living nearby; through gifts, volcano gods are appeased, a process that is widespread in parts of the Asia-Pacific region. Other volcano myths allow people to recognise eruption precursors or identify particular eruptions. Earthquake myths often involve an animal within the Earth failing to support it upright. More recently, earthquakes have been interpreted as an expression of divine anger at the state of (local) human affairs. Myths also refer to earthquake precursors and have proved effective in eliciting appropriate community responses following tsunamigenic earthquakes. Coastal-change myths are more likely to be memories of long-term (postglacial) coastal change on which extreme-wave events were superimposed. The latter are the most memorable details in myths but the consequences of these events can be explained only by long-term change. Abrupt changes to Asia-Pacific coasts have also been captured by myths, ranging from local collapses of cliffed coasts to the disappearance of entire islands in the Pacific Ocean. Myths can supply information around the nexus of geological and historical data sources, particularly between 102-104 years ago. As such, myths have the potential to contribute ‘missing’ data to long-term geohazard chronologies and thereby improve hazard understanding and preparedness. Myths from Asia-Pacific cultures that refer to community responses to geohazards can also be useful in contemporary strategies for awareness-raising. Geographers are uniquely qualified to identify and interpret myths that refer to geohazards. There is potential for many more such myths to be gathered from the Asia-Pacific region.
Article
Full-text available
Due to global warming and climate change, entire global economies are transiting towards sustainable development in the present era. Banks are the economic-centric institutions that run the economy of a country and also emit carbon from their activities. To reduce these carbon emissions and carbon footprints emitted by the banks, the environmentally-friendly concept of "green banking" has arisen. This is an innovative method of sustainable banking that is emerging as a paradigm shift towards the sustainable growth of a country. This article will review various studies on green banking in India and highlight significant insights on the country's initiatives, practices, banking customer perceptions, and pitfalls in Indian green banking. This study helps policymakers in developing policies and researchers in focusing on future work for sustainable growth.
Article
Rituals, particularly religious rituals, may play a significant role in times of crises. Often, these rituals undergo revision in order to adapt to the changing needs of the time. In this paper, we investigate recent unofficially revised Hindu religious rituals as performed during the COVID-19 pandemic. The multifarious creative interplay between Hindu tradition and change is illustrated through four cases – the religious festival of Durga Puja, the devotional songs or bhajans, the ritual of lighting lamps or diyas, and the fire rituals or havans. We offer a systematic discourse analysis of online news articles and YouTube posts that illuminate several aspects of ritual revision during unsettled times. We focus on the changes that were made to ritual elements – who was in control of these alterations, how were these modifications made, and what potential benefits did these revisions offer to the community of ritual participants. Based on our findings, we highlight public policy implications regarding the involvement of diverse social actors, the creation of faith in science, the creation of feelings of unity and agency, and the amplification of local ritual modifications on a national scale.
Article
Full-text available
The objective of the study was to analyze the transmission and application of Rahu symbolism in contemporary Thai society. Data was collected from both documents and a field study in central and eastern Thailand. It was found that in traditional Thai art, the Rahu symbol is portrayed as his face swallowing the sun or the moon. This kind of Rahu symbol is found in Buddhist temples. Such appearances of the Rahu symbol are related to the belief that Rahu has a protective function. Interestingly, the sculpture of Rahu’s body rather than only his face has become popular in contemporary Thai society. Nowadays, Rahu sculptures tend to be located in specific places. A ritual of worshipping Rahu is often created with offerings of food generally of black color. In addition, the Rahu symbol is now created in several other forms such as posters, magic cloths and amulets. Such newly created art forms of Rahu are due to modern interpretations and meanings of the Rahu symbol in contemporary Thai society. These newly-developed meanings of the Rahu symbol are interesting since they can be applied to deal with people’s problems in the socio-cultural and political context of contemporary Thai society.
Article
Historical data sources are used by a wide variety of disciplines, but rarely do they look outside their particular research fields at how others are using and applying historical data. The use and application of historical data has grown rapidly over the last couple of decades within the meteorological, geophysical and hydrological disciplines, but have done so relatively independently. By coevolving, each discipline has developed separate themes or areas, with varying degrees of uptake beyond their academic communities. We find that whilst the geophysical discipline has been relatively successful in engaging with international policymakers and stakeholders, this has not been reflected within the meteorological or hydrological disciplines to date. This disparity has occurred for a variety of reasons, including varying scales of disaster and social, political and cultural structures. In examining current developments within the disciplines, evidence suggests that this disparity is lessening, as each are using online databases and some citizen science, but that they continue to evolve independently with little unifying structure or purpose. This continued autonomy makes multi-hazard analysis challenging which, considering the potential that historical datasets present in the emerging field of multi-hazards analysis, is a considerable hindrance to this field of research. In looking forward, opportunities emerge for improved understanding of the risks presented to societies by natural hazards in the past, but also for examining how resilience, behaviour and adaptation alter during periods of repose.
Article
The Unkeshwar thermal springs occurring on the eastern fringes of the Deccan basalt province is chemically distinct from those occurring on the western margin of the province. These springs are very similar to the Godavari rift thermal springs. Although the issuing temperature of the thermal springs is about 47 °C, their chemical signature and the geothermal gradient of the area support a reservoir depth at 2.6 km with the temperature of 156 C. These conditions are similar to that reported for the other thermal springs' sites within the Godavari rift valley.
Article
Full-text available
The lineament map of Saurashtra prepared from false colour, thematic maps indicates four major structural trends. The NE-SW trend reflects the Precambrian Aravalli trend which is dominant in the SE part of Saurashtra and largely represents the basic dykes and plugs exposed in this sector. The ENE-WSW to E-W trend represents the Precambrian trend of Narmada-Son lineament in southern Saurashtra, volcanic pipes of late Cretaceous in central Saurashtra and Gulf of Kutch and Kutch rift basin of Jurassic times, north of Saurashtra. The NW-SE trend parallel to the west coast of Saurashtra is possibly related to coastal tectonics which evolved during late Jurassic due to the break-up of Africa from India. The N-S to NNE-SSW trends prevalent in the eastern and the central parts of Saurashtra are parallel to the Cambay rift basin which evolved during late Cretaceous, due to interaction of the Reunion plume with the Indian lithosphere. It is significant to note that N-S trends occur in pairs, indicating fracture zones. The Bouguer anomaly map also reflects similar structural trends in different parts of Saurashtra, where individual trends are predominant compared to the others. Some of the N-S structural trends coincide with gravity gradients or linear gravity anomalies, indicating fracture zones/faults which may be important for groundwater exploration. Besides, the Bouguer anomaly map has also delineated six circular gravity 'highs' of 40-60 mGal over the volcanic plugs/stocks. The large wavelength gravity 'low' over the Jasdon plateau is partly caused by thickening of the crust due to isostatic compensation and a part of this anomaly may also be caused by some deeper sources. The total intensity magnetic map depicts well-defined pairs of magnetic lows and highs of approximately 500-1000 nT over the volcanic plugs, which belong to the Deccan eruption. The same order of gravity and magnetic anomalies observed over the volcanic plugs suggest almost similar bulk composition for them, although large variations in compositions are reported from the exposed rock types. It also suggests that there must be mafic/ultramafic components under all the pipes, though they are reported mainly from the Junagadh pipe.
Article
Full-text available
Relic carbonate deposits along the western margin of India occur as dolomite crusts, aragonite sands (pelletal / oolitic) and aragonite-cemented limestones, oyster shells, corals, encrusted coralline algal and foraminiferal-dominated nodules. The petrology and mineralogy of the deposits indicate that except for aragonite sands and foraminiferal nodules, the others were formed in shallow marine conditions and serve as sea level indicators. Radiocarbon dates were measured for 62 relic deposits covering the entire margin. The age of these deposits on the continental shelf off Cape Comorin and Mangalore, between 110 and 18 m depth, ranges between 12, 61014C yr BP and 6,39014C yr BP. On the northwestern margin of India, especially on the carbonate platform (between 64 and 100 m), the age ranges from 17,250 to 6,73014C yr BP. The relic deposits of the Gulf of Kachchh at depths between 35 and 25 m are dated at 12,550–9,63014C yr BP. The age vs. depth plot of the relic deposits further indicates that the Gulf of Kachchh was inundated much early, atleast by 15 ka, after the Last Glacial Maximum, and was subjected to uplift and subsidence during the Holocene. The carbonate platform subsided during the early Holocene. Some of the relic deposits between Cape Comorin and Mangalore plot on or, closely follow the glacio-eustatic sea level curve. Despite abundant siliciclastic flux discharged by the Narmada and Tapti during the early Holocene, the platform off these rivers is largely devoid of this flux and carbonate sedimentation continued until 6,70014C yr BP. We suggest that the river-derived sediment flux diverted southwards under the influence of the SW monsoon current and, thereby, increased the turbidity on the shelf and slope southeast of the carbonate platform and facilitated the formation of deeper water foraminiferal nodules off Vengurla-Goa.
Article
Full-text available
Earlier studies on the onshore and inter-tidal zone explorations in Bet Dwarka island had revealed the presence of a large number of potsherds and other antiquities that correspond to the protohistoric (2000-1500 BC), historical (3rd century BC to 5th century AD) and medieval (8th century to 15th century AD) periods. Until the present time there has been a lack of absolute chronology. This study therefore attempts to address this deficiency. Accordingly, nine potsherds from four different sites of Bet Dwarka Island were dated by thermoluminescence (TL). The ages obtained from site BDK-6 vary between 3870 and 2220 years BP; those from BDK-1 vary between 3160 and 830 years BP; those from BDK-2 vary between 1780 and 960 years BP, and those from Khuda Dost Dargah vary between 1240 and 880 years BP. When analysed on the basis of their locations, they are in conformity with the expected period. Interestingly, at site BDK-6 and BDK-1 a few potsherds, believed to be of protohistoric period, are apparently considerably more recent (2000 years BP), which may suggest the continuation of protohistoric habitation up to historical period at the same site. These TL ages assist in establishing a cultural sequence for Bet Dwarka Island.
Article
The lineament map of Saurashtra prepared from false colour, thematic maps indicates four major structural trends, The NE-SW trend reflects the Precambrian Aravalli trend which is dominant in the SE part of Saurashtra and largely represents the basic dykes and plugs exposed in this sector. The ENE-WSW to E-W trend represents the Precambrian trend of Narmada-Son lineament in southern Saurashtra, volcanic pipes of late Cretaceous in central Saurashtra and Gulf of Kutch and Kutch rift basin of Jurassic times, north of Saurashtra, The NW-SE trend parallel to the west coast of Saurashtra is possibly related to coastal tectonics which evolved during late Jurassic due to the break-up of Africa from India, The N-S to NNE-SSW trends prevalent in the eastern and the central parts of Saurashtra are parallel to the Cambay rift basin which evolved during late Cretaceous, due to interaction of the Reunion plume with the Indian lithosphere. Tt is significant to note that N-S trends occur in pairs, indicating fracture zones. The Bouguer anomaly map also reflects similar structural trends in different parts of Saurashtra, where individual trends are predominant compared to the others. Some of the N-S structural trends coincide with gravity gradients or linear gravity anomalies, indicating fracture zones/faults which may be important for groundwater exploration. Besides, the Bouguer anomaly map has also delineated six circular gravity 'highs' of 40-60 mGal over the volcanic plugs/stocks. The large wavelength gravity 'low' over the Jasdon plateau is partly caused by thickening of the crust due to isostatic compensation and a part of this anomaly may also be caused by some deeper sources. The total intensity magnetic map depicts well-defined pairs of magnetic lows and highs of approximately 500-1000 nT over the volcanic plugs, which belong to the Deccan eruption. The same order of gravity and magnetic anomalies observed over the volcanic plugs suggest almost similar bulk composition for them, although large variations in compositions are reported from the exposed rock types. It also suggests that there must be mafic/ultramafic components under all the pipes, though they are reported mainly from the Junagadh pipe.
Article
Signatures of late Quaternary coastal tectonics vis-a-vis sea level changes (land-sea interactions) are well recorded along the cliffy coast of Saurashtra, Western India. We have attempted here to decouple tectonics from sea level changes. A succession of raised terraces and wave-cut notches have resulted from changes in sea level whereas tectonogenic features are represented by steep vertical cliff faces, distorted morphology of wave-cut notches and staircase platforms. These features are intrinsicially related to fracture lineaments which are in keeping with the general structural setup of the coast. The coastal landform has evolved essentially as a result of late Quaternary tectonics. The last interglacial high sea stand has been estimated at 7m MSL whereas Holocene high sea stand has been masked by neotectonics. -Authors
Article
The chemical composition of Tattapani thermal springs, together with the experimental results on host rock-meteoric water interaction at 100 degrees C, indicate dissolution of K-feldspars and albite during the initial stages of reaction. These phases control the chemical composition of the thermal springs. The estimated reservoir temperatures range from 205 to 217 degrees C. Assuming an average thermal gradient of 80 degrees C/km, the minimum depth of the reservoir is estimated to be around 3 km.