Friday, August 26, 2011

Bedsa Caves : Speculations on Bedsa symbols and pillars

I have reached this stage of life where I have to think about harmless things to do for whiling away the time, preferably for a common "good", especially when I am stuck in my science. I recently visited the Bedsa caves (see the previous blog). I found some aspects that were puzzling to me (no surprise). I researched the internet and came up with some conclusions, that could be a little interesting although I have no idea how it will interest the scholar. This blog is about these conclusions.

It could be imagined that the culture that gave Bedsa, what we now call the culture of the followers of Buddha or of enlightenment, has been adopted only by what is known in India as adivasis or indigeneous people. They are aometimes classifed as dalits by people who are not indigenous to the land. We have to follow the dalit culture if we are to regain a semblance of national pride. We have to sit at the foot of their enlightened ones, their Buddhas.

This blog is meant as a quick reference to issues at hand in understanding the reason behind Bedsa. There is no need to come to a definite conclusion, moreover. There does not seem to be a QED (quod erat demonstrandum if not quantum electro-dynamics) requirement in such matters. The fun, as they say, is on the speculation.

The blog is long, perhaps far too long. It is about the remnants of the life of an "enlightened" soul, whom they call Buddha and whose people have left behind some indelible imprints on rock in the form of cave 'temples'. I have found it very difficult to complete in a truly integrated sense. It has taken me much time and it could take many sittings for a reader. I hope it serves a purpose of enlightenment on Buddha.

However ...

An aside on Anna

There are some disturbing background noises from the mass-media on corruption that is distracting. There is a distinct cry/screech from a humorless middle class morality (a few lakhs from thousand millions). I am worried about the "good"ness of "good'.

I am not an Anna Hazare who does 'good' by rooting out corruption, even if it is only of the kind indulged in by public servants for making financial gains. I have no idea what corruption means precisely or even roughly. Thesaurus tells me that 'corruption' could mean dishonesty, bribery, fraud, sleaze, vice. Anna's corruption issue is only of a limited kind. If I was Anna Hazare I would have never imagined that I could have even thought of rooting out corruption in its entirety. We would also not recognize saints without it.

In Anna's vision the corruption issue is straightforward. very limited in scope and blinkered. There are government-proscribed rules to be followed in financial dealing and those government servants who do not follow these rules are corrupt. Simple. If there were no rules there would be no corruption to fast for and no 'good' will be done.

I find that Anna's goal is a bureaucracy-multiplying malaise. I sincerely wish that Anna would apply his vision of corruption to other countries such as China and USA who are in competition with us.

Having said that I must go on with this blog. It turns out that (among other things) most of our recently recorded history are written following rules of history set by people who wrote history for recording their gains after wars of spiritual or material kind. It does not become history worth recording otherwise. There are therefore rules for interpreting history set by rulers.

The Indian historian is a slave of the English language because their grammar is dictated by the statements of English-speaking 'authorities'. D. D. Kosambi, among others, tried valiantly to break these shackles. He has many followers, but not enough evidently.

The analysis of historical remains is for me the last bastion for understanding the lives of past giants. It may not be the same thing as reviving dinosaurs from their DNA imprints. But it may help in reviving the less directly visible impact of a lifestyle that we think is worth following and that dealt with liberation from corruption in the mind itself.

The Google invention of searching by images liberates the searcher somewhat. I am therefore using images mainly as the basis for deliberation and for harmless conviction of the blog kind.

Carved Symbols of Bedsa

The main concern that I will have is to understand the carved symbols (see figure below) remaining on the walls using the benefits of Google image search. Another concern that I will have, and that I will quickly dispense with, is the possibility of the use of plastering or stucco work on the walls after the initial carving work was done (see pictures on the right of the figure below).

Stucco?
A major problem in understanding the inner caitya is that there has been paintings on the walls and ceilings as well as wood work which must have been an integral part of the theme of the place.

One of the common descriptions about the Bedsa caves that is found one several sites is that "These caves are 1000 years old, There is a strange story told by villagers about these caves that the details about the caves and the entire history of the caves was painted and carved on the walls of the cave. But it so happened that a Senior British Officer was to visit the caves, hence a local officer painted the entire caves and the details were lost behind the paint. The truth of this story is not yet known but still it is an interesting story to listen." Since the exact passage is repeated so many times by various sites on the net, it may not be true, especially since they all say that the caves are 1000 years old instead of 2000.

A photograph of Bedsa caves by Henry Cousens around 1880 (see previous blog) shows the pillar structure to be quite white in colour as if it has indeed been freshly white-washed at that time, discarding the possibility that the photo was taken early in the morning and may have been touched up.

The more reliable GBPP on Bedsa would write
All the wood work has disappeared though the pegs that kept it in its place may still be seen. [The wood work would seem to have disappeared within the last twenty years. In 1844 (Jour. Bom. Br. Roy. As. Soc. I. 438) Westergaard describes the cave as ribbed, and about 1861 a writer in the Oriental Christian Spectator (X. 17-18) found fragments of timber lying on the floor.] On the pillars, as late as 1861, could be clearly traced portions of old painting chiefly of Buddha with attendants; but the caves have since been whitewashed and no trace of the painting is left. [About 1861 the roof had traces of indistinct paintings. The pillars were richly and elaborately painted on a ground apparently of lime.

The use of stucco coatings on sculptures are known to have been used on Bamyan Buddha sculptures of Afghanistan (recently blown up by Taliban).

The mention by GBPP about the pillars in the caitya being covered with lime is suggestive. Among my problems about the caitya is that the wall-space above the pillars seems to have been freshly (in century scale) chiseled out (fig above, right top; click to expand). It is suggestive of the removal of a plastered layer which had become an ugly white by some restoring agency such as Archaeological Survey of India. The carvings on the wall were so sharply chiselled (see right brelow of figure above; click to expand) that it reminded me of stucco or plaster work that I had blogged about earlier (see Tuesday, February 17, 2009, Pune Street Scenes III: Pune Trishundiya Ganapathi Temple Exterior; Tuesday, March 31, 2009 Bhuleshwar on a Hill: Exterior). In the latter blog I had written :- "The minarets and other parts of the domes are covered with stucco as sculptural and artistic puroses as well as a base material for paints. Such use of stucco work perhaps predate its use in Baroque and Rococo architecture, which is the hallmark of European nobility. ". I think it started with the culture of people who gave us the Buddha.

Spirals

A major puzzle (as far as my limited knowledge goes) among the symbols in the caitya is the nature of the six-handed spiral on one of the columns (top left corner of figure above).Usually the spiral is single-handed in all the images of rock art that I could find on google search. It could be clock-waise or counter-clockwise. For instance the spirals on the two ends of the toranas of the north gate of the Sanchi stupa are single-armed but mirror images of each other. Its origin could come from a spiralled tail of a sea crocodile on the Torana of the Bharhut stupa that I discuss later.

The post-buddhist pre-Christian pagan Celtic spirals are also single-armed as are the spirals carved out on the rocks in New Mexico and Arizona (middle row left). It is interesting that the set of three spirals from Ireland (middle of middle row in figure above) has the same sign of rotation. According to physics of magnetism it is frustrating to have opposite orientations on a triangular lattice.

One wonders whether the six-armed spiral became an important religious symbol because of a celestial event. An important event that happened in the skies as a celestial phenomenon is the "Norway Spiral" of 2009 (top right of figure above). The net has very speculative discussions on the spiral. An officially accepted version is that the spiral is due to the spiral of a nozzle of a Russian rocket launch that failed in the upper atmosphere. According to the net (see http://www.facebook.com/note.php?note_id=114493345240211, for example) the brightness of the Norway spiral is much too perfect to be due to missile exhaust. Instead they suggest that it is due to charged particles being formed. Applying the physics of the "right hand rule" the site suggests that the beam that caused the ionization had to be from ground up. Such sites suggest that the spiral is due to Ionization heating carried out by HAARP (High-frequency Active Auroral Research Programme). The international high-energy EISCAT programme which broadcasts powerful micro-wave energy into space and causing side effects in the ionosphereis located just over the hill from which the beam seems to be directed. The spiral occurs naturally in creepers (Middle row fourth from right in figure above). The direction of the spiral would change when one looks at the spiral from top or bottom.

The nature of the Bedsa spiral is like those of the spiral galaxies or the spirals in hurricanes and cyclones (bottom row of figure above) and is also akin to the image of the core of a daisy flower (Fig above middle row wxtreme right). One then wonders whether the early buddhists identified spiral galaxies using their dark Tibetan nights and evenings or their own version of a telescope made, say, from bamboo? The M33 spiral galaxy that appears in the constellation Triangulum (see bottom left of picture above) is known to be seen with the naked eye under appropriate condition. It seems to be a six-armed spiral to the untrained eye.

Outer Pillars
Outer Pillars
The outer pillars of the Bedsa caves are thought to rise from pot-shaped round objects. I first thought that the entire pillar was made out of the stone-walls of the cave. At least one of the pillars (the demi pillar on the left facing the cave) was clearly made from assembled stone bricks as shown in the right of the picture below. It must have been plastered over to give it a smooth finish. The "pot" of the full pillar on the right also had such stone work. The full pillar on the left (facing the cave) had some impressions (see left of picture above) and could give the impression as if some plaster had scaled off. It has often been said that the early Buddhist pillars of the Asokan period had Persian/Assyrian influences. A name commonly mentioned is Persepolis. I have extracted below some images from THE SEVEN GREAT MONARCHIES OF THE ANCIENT EASTERN WORLD; GEORGE RAWLINSON, M.A., VOLUME II. The pillar base from Pasargadae, the capital of Cyrus the Great from Persia (Plate L of the image below), show the Greek/Persian influence.

Vidya Dehejia in Early Buddhist Rock Temples" would write
The early slanting octagonal column (of Buddhist rock temples) was followed by the straight octagon, which the acquired a base consisting of a waterpot (ghata) on a stepped platform .... The fully developed pillar in the caityas was achieved when an elaborate capital was added consisting of a ‘bell’, an enclosed amalaka, a stepped abacus and crowning animals. ... In the first phase the ‘bell’ is noticeably incurving, almost ‘waisted’ and has distinctly depicted petals. The Bedsa capital is of this type and seems to follow the earlier Asokan tradition which may also be seen at Sanchi stupa II and at Bharhat

Greek and Assyrian influences on the design of the pillars are well acepted by historians of the western mould. Thus according to "THE CAMBRIDGE HISTORY OF INDIA - I - ANCIENT INDIA XXVI THE MONUMENTS OF ANCIENT INDIA" (see http://www.third-millennium-library.com/readinghall/UniversalHistory/INDIA/Cambridge/I/CHAPTER_XXVI.html) we have the following:-

Long ago M. Senart pointed out that the decrees of the Achaemenian monarchs engraved on the rocks of Bahistan and elsewhere furnished the models on which the edicts of Ashoka were based. It was in Persia, also, that the bell-shaped capital was evolved. It was from Persian originals, specimens of which are still extant in the plain of the Murghab at Istakhr, Naksh-i-Rustam, and Persepolis, that the smooth unfluted shafts of the Maurya columns were copied. It was from Persia, again, that the craftsmen of Ashoka learnt how to give so lustrous a polish to the stone a technique of which abundant examples survive at Persepolis and elsewhere. Lastly, it is to Persia, or to be more precise to that part of it which was once the satrapy of Bactria and was at this time asserting its independence from the Empire of the Seleucids, that we must look for the Hellenistic influence which alone at that epoch of the world's history could have been responsible for the modelling of the living forms on the Sarnath capital.

Little more than two generations had passed since Alexander the Great had planted in Bactria a powerful colony of Greeks, who occupying as they did a tract of country on the very threshold of the Maurya dominions, where the great trade routes from India, Iran, and Central Asia converged, and closely in touch as they were with the great centres of civilization in Western Asia, must have played a dominant part in the transmission of Hellenistic art and culture into India.


The description of the pillars themselves that is given by GBBP expresses the unwillingness to believe that such ancient works of sculptured art did not have Greek, Persian or assyrian influences. Thus it is written in GBPP the following:-
A passage five feet wide has been cleared between the blocks and the front of two massive octagonal columns and two demi columns which-support the entablature at a height of about twenty-five feet. Their bases are of the lota or water-vessel pattern from which rise shafts slightly tapering and surmounted by an ogee or fluted capital of the Persepolitan type, [The pillar and pilaster to the west are much closer fluted and more like Ashok pillars than the pillar and pilaster to the east. The top of the pillar below the capital is clearly Assyrian.] grooved vertically and supporting a fluted torus in a square frame over which lie four thin square plates each projecting over the one below. On each face of the uppermost plate crouch elephants horses and bulls with beautiful and well proportioned groups of men and women riding over them. On the pilaster to the right of the entrance are two horses with a man and woman seated on them. The whole is finely carved especially the mouth and nostrils of the horses. The posture of the animals on the capital at Bedsa is similar to those of the Bulls at Persepolis (Fig 3 of Plate XLIX, see figure above).

The Greek Influence in the western Deccan region of Maharashtra is usually implied in the term yavana from Ionia or Saka from the Scythians. Gopalachari's 1941 thesis on "An Early History of Andhra Country" provides a rich internet source for yavana history in the Western Deccan. There is evidence for a large element of yavanas in the western Deccan about from about 250 BC which is about the same time as the time of the Bhaja and Bedsa Caves. These yavanas were thoroughly "Indianised" , (if that is the word for that time), adopted Buddhism and Hindu family names. There was a Yavana settlement in a place called Dhenukakata in the vicinity of Karla which is close to that of Bhaja and Bedsa Caves.

Twenty years ago, while trekking upto Bisapur fort from Malavalli station near Bhaja caves, we passed through a village where most of the inhabitants had clear blue eyes. Their dress and custom were otherwise very Maharashtrian and very different from the features of the Konkanastha Chitpavan Brahmins (Ko-Bras) who are descended from people who were shipwrecked off the coast of the Konkan region of Maharashtra.

The point that I am trying to make is that there is believable evidence for a strong Greek/Ionian influence around the time the caves in Bhaja/Bedsa were being built. Similar crafting expertise from the builders of Persepolis/Xerxes complex seems to be evident in these caves at least as far as the outer pillars of Bedsa caves are concerned. The petal-like structure, of the capital, many times described as an inverted lotus flower, is found sometimes at the base of pillars at Persepolis (see Fig 4 of Plate XLIX of the Persepolis figure above, or the oneby its side). Vidya Dehejia would call the enclosed fluted torus-like sphere on top of the 'bell' as an enclosed amalaka, which is an ellipitial and fluted crown that is supposed to resemble the fruit amlaka or aamla the Indian gooseberry. The aamlaka feature on Hindu temples is uually on the top of the highest tower and the main or presiding deity is housed under the aamlaka. The petalled capital of Bedsa has an enclosed aamlaka which is unusual and probably has no religious significance. Such influences were short-lived and by the time the rock-cut caves in Nashik were made after the first century A.D., the 'bell'-shaped inverted Lotus flower with petals form of the Bedsa caves (with Sanchi influence) had become just an inverted 'pot'.

It has been noted that the influence of the Sakas and Yavanas in the western Deccan had completely diminished after the second century A.D. when it was replaced by the Satvahana dynasty. It seems that a Satvaahana Andhra king Gotamiputa SirinSatakani, of the second century AD, to whom the epithet Saka-Yavana-Palhava-nisudanasa applied, drove out these casteless foreigners from his newly rebuilt empire. He also preserved the purity of the four castes by stopping mixed marriages between them. In the context of this blog it would mean that the skill of the immigrant labourer was lost. The petalled 'bell' of the capital at Bedsa became an inverted pot.

As an aside, I can't help adding that the elimination of these foreign Ksatrapas of the Khakharata-vasa is reminsicent of Parasuram's destruction of the Kshatriya caste and one wonders whether the legends have been mixed. At the same time we have been told that Parasuram was iustrumental in introducing the Konkanashtha Chitpavan Brahmins (Ko-bras). A lot of tying-up remains.

To get back to the theme of the outer pillars of Bedsa it is clear that these pillars with its near-Sanchi 'bell' capital came to being briefly in the region around Bedsa. The style of the 'bell' at Beda is close to the 3rd century BC lion capial at Sarnath although it as no sign of a boxed amalaka. The shape of the 'bell' is also close to the Ashoka Pillar at Kolhua, Vaishali known as Bhimsen-ki-Lathi. The 'bell' at Bedsa is perhaps an improvement on the virtual pillars of the earlier Bhaja caves (see figure above). The style of the 'bell' has already started deteriorating towards that of the 'inverted pot' in the pillar at Karla.

A well-recognized puzzle of the Bedsa cave is the larger width of the verandah compared to the caitya and the unfinished nature of the front with a narrow passage leading from the outside to the verandah. "Those who did the preliminary stine cutting knew the exact number of large blocks to be left standing for later conversion to pillars. They knew the number of blocks to be left on an aapsidal plan, and the exact height and width of the roof. An accrate system of measurement must have been employed to have resulted in the alignment of the columns. It could have been no easy task to excavate into a mountainside, keeping the row of pillars in line, maintaining them of the same height, and seeing that the pillars on the two aisles corresponded with each other. At Bedsa for example, there was first the cutting of a passage which was then expanded into a veranda, and only then could excavation of the cave itself commence." (Vidya Dehejia, Early Buddhist rock temples, p 135).

The description of the cutting of the rock suggests a long-drawn process. there was no early demand on specialized skills. Such caves were built from the top downwards. Initially the hillside was cleared of vegetation and debris. Then there was made a pair of tunnels inside the rock up to the desired depth. Timber wedges were driven vertically in the rock and moistened. As the wood expanded cliff was fractured, forming large chunks of rock. This rock was carefully removed and the exposed walls of cave chamber levelled and polished. After the main body of rock was removed, more exquisite sculpting was done.. From http://www.wondermondo.com/Countries/As/India/Maharashtra/Karla.htm

The allocation of skilled work at various levels had to be done. Skill of the type used to make the earlier Bhaja cave interiors were perhaps more readily available and work began on th caitya and the verandah perhaps first. The construction of the pillars outside required a different amd more specialized skill, which were probably associated with the yavana-saka-pahlava people. It is likely that while all this work was going on the excavators lived in villages below while the merchants and the priests lived in the vihara. The vihara had to come first without the yavana-saka-pahlava influence on them. This cave must have been the place for living and cooking and lighting a fire for the night. GBPP writes:- The whole cave has been plastered and was probably painted, but it is now overlaid with a coating of smoke. In the back wall of the cave in a niche is a figure of the goddess Yemmai (seen on expanding Fig 8, right, of previous blog) thickly covered with red paint. A sati stone lies against the wall, a little to the right.

I have no estimate of the time taken to make the caves. I imagine that it could have taken one or two generations of steady daily work involving a few laborers and artisans (of the order of hundreds?). The narrow passage would have been sufficient for access to the inner parts. The inner caitya and verandah must have been finished quicker while the outer pillars perhaps took a longer time because of the lack of the required alien skills. The destruction of the Ksaharatas perhaps led to the loss of the specialized skills required for the outer pillars and they were probably finished the slowet even if the inside excavations were completed.

The function of these caves have been taken over subsequently by the local influences. The non-Buddhist deity Yamai. is thought to be worshipped by the Kolis when a palki (palanquin) ascends up to the shrine of Yamai in Bedsa. A similar procession goes up to the goddess Ekaveera housed in a cave at Karla on Chaitra Poornima. The names Yallammma, Mariamma, Yamai, Ekaveer are the names given by the cult of Mother Goddess to Renuka, and who is symbolized by an ant-hill and is believed by some to be of Dravidian origin. Yellamma is a patron goddess of rural folk of Karnataka and Andhra Pradesh. The devotees of Renuka or Yellama worship her as the Jagadamba, "Mother of the Universe" and is of Shaman origin being thought to be an incarnation of Kali. As we shall see later this mother goddess worship could be important in understanding some of the symbols in the Bedsa caves.

Lalitha pointed out to me that one of the exterior mini stupas outside seemed to resemble a shiva lingam as there were some signs (different coloration) of something being scooped out of the bottom of the cave surrounding the stupa and a drain seems to have been excavated to the outside to form the yoni for the lingam. The different coloration is also seen during dry summer days. Since what remains is really a slab, the conjecture on the shivling is incomplete. Near Dehu on the Pune Mumbai road one sees a flight of steps which go up to what has been called an ancient shiva temple. These are the Ghorwadeshwar Buddhist caves built around 300-400 AD that is now dedicated to Shiva. The blog on these temples by Abhijit Rajadhyaksha (http://travelogueunlimited.blogspot.com/2010/11/ghorawdeshwar-caves-photo-feature.html) suggests that the original caitya has become the main temple dedicated to Ghorawadeshwar viz.Lord Shiva.

Three Other Symbols

The three other symbols on the pillars are well recognised Buddhist symbols and one should not have any problem in identifying them. There is the dharmachakra or th Wheel of the law with its eight spokes representing the eight-fold path. Then there is the Srivatsa which in my mind is usually represented as an endless knot as in the inset of the top row, centre in the figure below.

After a search for images and the literatture on the net I came to the conclusion that the symbol labeled Srivatsa could be the ancient Buddhist or Jain representation of it. The representation of Srivatsa as an endless knot could be due to later Celtic pagan influences. A search for images similar to the symbols found on the pillars in the Bedsa caves led me to, what I thought, to be that of the Srivatsa gave me a Jain connection from a facade (see top left corner in image below)on the Udaygiri-Ratnagiri Jain caves in Orissa built during the Chedi Dynasty between 100 BC and 100 AD. One may therefore jump to the (unnecessary) conclusion that --- at least as far stone carving is concerned --- the making of a stone image of Srivatsa has a Buddhist pre-history.

The interesting part of the image of the top left corner is that it was obtained from an internet image-search for the nandipada or hoof of a bull. The third symbol (left symbols from first figure on top)is thought to be a Nandipada . It is also called a triratna or the three jewels. Some of the other images similar to that of the Nandipada that I thought is relevant is given in the figure above. The most interesting of these is the set of images fond on abench in immersed ruins found in Godi-pavata pattana on the southern tip of Ceylon (Sri Lanka) that used to be a harbour used for trade during early Buddhist periods. Quite significantly this image is accompanied on the bench by (what I think, at least) is the Srivatsa image in the Bedsa caves.

The image of the nandipada or the triratna is very similar to that in the Bedsa caves. The one in the Bedsa caves has its top U-shaped tip ending conically like the like the tip of an arrow (for instance). The triratna at Sanch N gate is triply forked. The one at Godi-pavata pattna is bent outwards. Among other images (se figure above) one may think of the shape of Tibetan thokchas, the tibetan symbol of the khyung (Garuda) or the laughing Buddha, or the symbolism of the Mother Goddess(Jagadamba). One could have included as well a more primitive religious symbol such as that of Tendulkar waving his bat and helmet to his father in heaven after a century. There is a little more discussion on this aspect later.
.
The Triratna, the Dharmachakra or padma (Lotus) and the Srivatsa are integrated together on the top torana of the Sanchi North Gate (Figure below,top). The symbols on the pillars at Bedsa include these three Sanchi symbols. The Udaygiri facde (figure above) may also be imagined to have these three symbols. The padma or dharmachakres

The association of the symbols in the Bedsa caves with the triratna or Nandiapada requires more consideration. In his book on the "The Dvāravatī wheels of the law and the Indianization of South East Asia", Robert L. Brown writes
There are no texts or inscriptions that tell us how the triratna was represented. The identification of the trident as the three jewels came simply on the basis that nineteenth-century scholars (for example, Cunningham, Fergusson, Burgess, Indraji, Senart) felt there should be a plastic representation and looked for a possible symbol; the three points of the trident, in their number, suggested the three jewels. Furthermore, there was no name for the Buddhist trident-shaped symbol, which allowed for various interpretations. The ancient name is still not known today.Benisti goes through the various names that have been used by scholars --- trisula, nandipada, vardhmana, nandydvarta --- showing that none of them can be proven to apply to the Buddhist version of the symbol. The trident as representing the triratna appears to be completely a scholarly fabrication.

Lessons from the Bharhut Stupa

The search for pre-sanchi description of stupas and buddhist legends and history led me to Cunningham's book (1879) on the Stupa of Bharhut which could be 300 BC or before. Cunningham's description of the Stupa includes the line that ... the same huge bricks (that) are found all over this space, which is quite true, but they were no doubt all originally taken away by the people themselves from the great brick Stupa ... indicates support for the possibility that the carvings found in or near the Stupa are a product of the lifestyle of the people at that time.

The Eastern gateway at the Bharhut stupa as described by Cunningham (Plates VI and VII) have only the triratna and the dharmachkra (or padma) with no direct evidence for the Srivatsa of Sanchi. The U of the triratna is doubly forked. The lack of a Srivatsa symbol in Bharhut stupa suggest therefore that the stupa predates the Sanchi stupa. Other carvings as illustrated in Cunningham's book also suggest the lack of a definitive evidence for Buddha worship.

The scenes of ordinary life as illustrated in the top row of figure above suggests an emphasis on tree worship with very little direct evidence for the worship of other symbols of Buddha or Buddha himself. There seems to evidence for the worship of the deer (top left of figure above) although there is someone aiming an arrow at the deer. It could be a happy coincidence that the images of men with arrows in Fig 4 of Plate LVII in the figure above titled Perspolis Influence (click to expand) resemble that in the top left of the figure above.

The scene of the Jetavana monastery of Plate XXVIII of Cunningham's book (bottom leftof figure above) has revealing scenes from the village life that I did not know about (not a surprise). For instance, there is a scene that looked at first glance of a lady carrying a baby which turned out to be a lady carrying something like a tea-kettle. There is also a man who seemed to be (figure above bottom left top corner) a man whistling using his finger in much the ame way as, say, audiences in movie halls do when expressing appreciation for the item-girl, for instance. The hut has the same "peepal-leaf" form of the facade of the caitya of the Bedsa caves.

The bottom right of the figure above is the only one I could find iu Cunningham's book of disciples listening to the sermon of an enlightened person. This is different from an worship of an enlightened person. There could have been many such enlightened persons and this could have been a typical scene instead of being the Buddha-enlightenment scene. The left portion of the panel in the bottom right of the figure above looks like the precedent to a srivatsa (see later)

The gateway of sanchi lays emphasis on previous buddhas by having seven stupas on its torana. The worship of a stupa would just mean the worship of an enlightened person. There is a stupa on the end of the torana of the stupa of Bharhut (see bottom left ogf fifure above.

The Torana endings at the Bharhut (bottom right of figure above, Plate IX of Cunningham)have been described by Cunningham as as ... composed of open-mouthed crocodiles with curled tails by which he meant tails spiraliing inwards. The crocodile's mouth reminded me of the makara or the sea elephants described elsewhere. The emphasis here would then be on the makara and not on the spiral.

According to Cunningham "The principal Buddhist Symbol is the Tri-Ratna, or " Triple Gem " Symbol, which is found in all the countries wherever Buddhism has prevailed. Mr. Beal calls this " the sacred Symbol of the Mani, or threefold gem, indicating the all supreme Buddha ;" and in another place he describes the Symbol as " the triple object of their veneration, Buddha, the Law, and the Church." * This triple Symbol was a very favourite form of ornament for the pinnacle of a gateway, or the earrings of a lady, and for the point of a military standard, or the centre piece of a necklace.^ In the Bharhut Sculptures the Tri-Eatna Symbol is placed above the thrones of the Buddhas Yiswabhu, and Sakya Muni.^

It is beyond my very limited scholarship to comment on Cunningham's extensive first-hand experiences and the basis of his conclusions. In the bottom left of figure below the two-forked triratna of Cunningham, is place below a "peepal-leaf" hut which in turn is placed below a tree with what appears to be a "peepal" tree. Amusingly, the two men on either side seems to be whistling with their fingers. Maybe they had no technology for using trumpets and horns at that time?

In the top left of another selection of images of carbvings from Cunningham's book in the figure below, the bearers in the coping panel takes, in my mind, a shape that could resemble that of the triratna. The elephants also bow in homage to the peepal tree.

In the top right of the figure below the five-headed serpent makes its appearance without seeming to protect or to be worshipped by anyone. A figure holding what seems to be a flower could be an enlightened one rising above the rest.

Perhaps the most important aspect in the figure above is that the capital on thich the lion is placed (bottom right of figure above) has two inverted petalled (padma?) flowers;; the one on the left (facing the figure) has close-spacing between the petals while the other on the right has .a larger spacing. Such differences in spacing is seen on the inverted lotus shapes on the pillars at Bedsa. Although the spacings between the petals is not seen on the samle pillar, t.The petals on the left full- and half-pillar are close-spaced while those on the right are wider spaced. I have not found an eplanation on the net for this left-right distinction. Nature makes such distinction; it includes the structure at meso-levels such as those of .ribosomes which our own Venky helped in resolving as we know so well. Persepolis structures did not make such deliberate differences in the fluting of their pillars.

There is a happy scene from a coping (Cunningham's Plate XLVII, top right corner of figure below) of an Eve or a Gopi looking down from her prech on a tree at a sleeping boy surrounded by what seems to be pigs (!?) which are looking up at the lady. In the same coping there is also an intriguing panel in which the triratna or the nandipada symbol is placed in an inverted position and covered by a lotus flower (?). The whole could give an impresion of a srivatsa?

In the top right of the figure below there are mangoes. If this indicates worship/appreciation of these fruits it is well deserved even if it comes before apoos was known. In the same panel there is to the right a scene of a (noble?) man who seems to be admonishing another person (a priest or from a different class or tribe) in front of a hut with a different non-peepal-leaf shapes that seemed to be holding acow or bull down holding it by one horn and pressing it down with another. It could be a cow-slaughter scene.

Evidence for yavana influence (probably from pataliputra?) seems to be there inm the shape of figures (bottom right, figure above). There ar also hints of a monkey "army" using an elephant (bottom right of figure above).

Aum in the Caves

It is difficult not to feel the resonance of your voice inside the caves. The caitya with its stupa could have easily served the physics of resonanting echoes. One is tempted to chant in the caves as Lalitha did with aum for a brief while.

It is perhaps natural to wonder whether these caves had anything to do with the symbolism of aum or even the letter ma itself. In the Pallavi or Brahmi script of those early days the script for ma resembles the image for the triratna or nandipada (second from right in the first figure of this blog) does not have a protruding circle within the lower circle. It is hollow like the ma in the pallavi or Brahmi script (see left of figure below). No other script for ma in other languages bear any resemblance to the triratna or nandipada. The scripr for aum (figure below top right) has no resemblance to the script for ma in any language.

The symbol of the triratna or nandipada with a circle in the centre resembles that in the Buddha-pada (bottom right of figure above). It is in this sense one may consider the nandipada image to be derived from Buddha-pada. Praying to the feet of the enlightened one (sometimes also a older person) is a tradition that persists even today. One wonders whether the ma symbol represents its sound for testing the resonance within he caves before events in the caitya.

I prefer to interpret the triratna or nandipada symbols in the Bedsa caves as arising from the Buddha-pada symbol.

I should stop here (finally).

There are other possibilities though.

The triratna or nandipada symbols could be derived from the garuda symbol. It is indicated in the Amravati symbol shown in the figure above with an inset (click to expand) taken from fig 5 of plate XL in the figure above illustrating Persepolis influences.

The symbol which is second from the left in the bottom line is in all the coins from Malhar (Magha or Megha dynasty in South Kosala (present day Chhattisgarh) being used upto the 4th century AD (from http://mallar.wordpress.com/mysterious-malhar-symbol/). This blog concludes that "... we could assume that, to begin with the Magha ruler used his initial letter ‘Ma’ for stamping the coins of the erstwhile rulers to indicate his suzerinity and used the same device for his own issues for smaller denominations.".

This would take the aum out of the ma symbol. On the other hand a P. N. Subramaniam would write in his blog "A friend of mine, after examining my coins, was in favour of calling it a religious symbol – a Fire Altar. This can not, however, be ruled out. The rulers could have been fire worshippers".

The outlines of the Bhutanese Bull mask also resembles the Brahmi script for ma. Bhutan is the last bastion of Mahayana Buddhism which has recorded history before 100 BC in India.

The zodiac symbol for the Taurus constellation is almost exactly the Brahmi script for ma. Why one should find the bull (nandi?) symbol in the Bedsa caves is another matter.

Saturday, August 13, 2011

Bedsa Caves in the Monsoon

Monsoon time is the time when all seems really well. This is about the last few years when Pune and its environs especially would seem so naturally electric green in the rains. The hills around Pune are dying to the sounds of the JCB machines makig paths up the hills for cars and hii-top houses that now signifies the new synthetic-plastic quality of life. The "all is well" feeling has become the bored sentinel's "aall izz vell" refrain highlighted (almost) so poignantly in that song from 3-Idiots.

Driving on the highway during the monsoon is progressively loosing its charm as compared to those days when the highways had single lanes, when there was no power-steering; cars like the Ambassador were built to last these conditions and to be driven and repaired by people who knew about cars. There was no fuel efficiency but that was more than amply made up by the small number of people who had the enthusiasm and the tenacity to drive along the country side. ... I am not taking about many generations ago ... just two decades ago.

Driving through the rain on the main highways has its own terror and also its peculiar charm (Fig 1 left, click on figures to expand) of the chambals in the ravines on the road ... as long as you are not stuck in the many highway hold-ups. You leave the highway and the old charm returns some times. So quite driven by a whim we left the NH4 highway to head towards Pavna dam. The parched country side of this region becomes an electric green during the rainy season (Fig 1 middle) and a yonder village beckons (Fig 1 right).

The yonder village is Bedsa famous for the Bedsa Caves. When I had last visited the place (with Lalitha and the very charming Profeesor Clare Grey from NYSU) it was the beginning of summer and the landscape was very dusty and very dry (see http://indica.co.in/bedsa-caves for instance). I think we had climbed up a track without proper steps. This time the landscape was a lovely green with clouds hanging low (Fig 2 left) and waterfalls on the hill (Fig 2 middle) which we were to climb was very inviting. I was more than ten years younger the last time I visited Bedsa. I was hesistant to climb when I learnt that the cave was quite high up (near the top of the water fall). There were neat stepa placed to climb up and I decided to walk up and two little boys who volunteered to be our guide told us that there are only 450 steps (my calf muscles tighten at the thought of climbing 30-50 steps).

There were streams crossing the flight of steps at several points. Mud had covered the steps and made them slippery. I walked up slowly and gingerly. My camera bag had been taken up by Lalitha. I could not savor the landscape on my way up because I usually see through my camera. I was the last to reach the top, all sweaty and my toothless cheer showed (Fig 1 right).

A few months back a strapping young man from predominantly villaged districts around Pune told me that one cannot go out for a walk in the hills. They have become the property of private developers; the green grazing grounds on the hllls for the village cattle during the rains have become barbed-wire-fenced cement structures of confinement buildings meant more for realty investment and virtual living than for real life that is alive to the sounds of nature and goats and cattle. The Bedsa hills still has some of that charm.

The view from the top was not as spectacular as I thought it would be. It was still green enough (Fig 3). The Pune-Mumbai expressway was visible (Fig 3 left top left). I iamagined that in the foreground of Fig 3 left (click to exapand) there are rectabular and circular patterns under the green cover suggestive of some ruins. There is also a telecom tower which is the pride of the children of Bedsa village as the communicate with the world through the internet. Bedsa village itself is at the centre of Fig 3 middle. There is some level space in front of the cave (now walled up). The wind and the drizzle urged us to enter the cave.

The entrance to the Bedsa caves is known peculiar since it is narrow and seemingly unfinished. Because of the continuously rainy weather (climate?) the entrance (Fig 4 left, click to expand as always) is very slippery and one walks gingerly onto the verandah (Fig 4 middle) which is the entrance to the caitya typical of buddhist or Jain shrines and includes a stupa at the end. The stupa at Bedsa is characterized by having a small chatra which is somewhat atypical of the Buddhist rock-temples. See gayatri saraf's https://picasaweb.google.com/103483486973202337758/BedsaCaves#5273699600051892610 for a truly lively set of pictures.

The fullest descriptions of the Bedsa caves that I have found on the net are from Gazetteer of the Bombay Presidency: Poona (3 pts.) Vol XVIII, Part 3. Govt. Central Press, 1885 - Bombay India (see http://www.maharashtra.gov.in/pdf/gazeetter_reprint/Poona-III/places_b.html) which I will refer to simply as GBPP. It is easily accessed on the net at
http://fortsinmaharashtras.mumbaihikers.com/2009/05/bedsa-caves.html although there is seemingly no acknowledgment of the original source.

A part of the description of the pillars (left of Fig 4)from GBPP is given below:-
The left pillar has, on the east face, two seated elephants with a woman on the north and a man on the south, The woman is seated on the elephant and is pulled back by the man who draws her by the wrist. The left arm is bent, the hand resting on the elephant's head. The man's left hand drags the woman's right hand and his right hand is broken. The man has no hair on his face. The elephants are very finely carved. They have no tusks which were either of wood or ivory which has dropped away leaving holes. The left or south pilaster has a horse on the east and; a bull on the west. On the bull, which is finely carved, is a seated woman with her left hand on the bull's neck and her right hand on the man's shoulder. The man looks east; his left hand is on his left thigh and his right hand on the horse's neck.

The last hundred years is causing a rapid decay perhaps due to the formation of moss and massive neglect. One can hardly be as enthusiastic as the author about the description.

The verandah has features that are gorgeous. They are, of course, typical of the rock-cut leaves and with the large number of peepal-leaf-shaped structure and imitations of wooden fences one could imagine that one is in a rock-cut peepal tree-house. The two demi-pillars at either end blends in well. It is to be remembered, as we will discuss later, that this could be the first attempt to amalgamate pillars of the Sanchi/Persipolis type with the cave-temple style of perhaps that of the earlier caves, say, the Barabar caves near Gaya, Bihar (see picture below).

The peepal leaf structure mays not necessarily be a necessary part of Buddhist origin. An entry on Indian architecture from Encyclopaedia Brittanica cites a Toda village hut (see picture below, right) from South India as an example and writes the following:- "Early Indian architecture was almost entirely of wooden construction, and the forms thus established were later closely imitated in brick and stone. The various forms of domed and barrel-vaulted roofs, gabled windows and roof ends, pillars and cornices are developed from wooden prototypes; the Toda hut, for example, even at the present day presents a striking likeness to a barrel-vaulted gable-ended temple."

On the right side of the verandah (facing the cave) there is an inscription (see Fig 5 left in red box) on top of a door which, according to GBPP, reads as
' The gift of Pushyanaka, son of A'nanda Sethi, from Na'sik.'
It seems that the Buddhist priests accompanied merchants on their trade route and were not averse to getting handsome donations from various merchants to fund the carvings on their caves. There is no gurantee that the carvings were contemporaneous with the donations.

The description of these symbols from GBPP is as follows:-
On five of the right pillars are carved Buddhist symbols. The sixth pillar from the entrance has, about ten feet from the ground, a central and two side lotus symbols. The seventh pillar has a central wheel of the law and side flowers. The eighth pillar has a central svmbol with, above it, a Buddhist trident and below two lotuses. The ninth pillar has two taurus signs above and two lotus signs below. The tenth pillar has a sun-like circle for the wheel and trident and a lotus.

Insidethe cave itself, the chamber is sufficiently lit to spend hours with your self without feeling claustrophobic.

Outside the main caitya of the Beda caves one looks up and finds another structure (Fig 7 left) with young boys scampering around the structure. I could not find any ready reference to it on the net. I was personally too scared to climb up the slippery slopes, an I could not easily find an easier route up.
The mountain stream fell down the slope (Fig 7 middle) and mountain banana plants were to be seen. All the way up to the Bedsa caves there were remnants of banana flowers which were seemingly cut and dismembered with a knife, even if there were no sign of fruits on them. I suppose the banana flowers it self were a delicacy for the kitchen. Dommage! as they would say in French. The re is rather well-grown Indian temple-tree (Dalana phul in Bengali; Fig 7 right) in front of the caves which provides no shade but a nice backdrop for a picture on a rainy day?

One of the first things that you see as ypu step on the landing in front of the caves are two broken mini caves. One of them (Fig 8 middle) has a plaque-like structure which could have been a stupa which was later shaped ino a slab (for reasons not clear --- may be to write an inscription). The one next to it (Fig 8 left) shaped more like a relic shrine or daghoba with a typical buddhist rail pattern around it. These are suposed to be the tombs of monks with a relic of the monk kept in a box on the top. In a description of such minis stupas or dagobas of those in the nearby Bhaja caves the asame GBPP would write ... " the daghboas under the rock have the relic box only on the dome while the three behind them have also, heavy capitals, ... " Some of the images from Bhaja caves found on the net (see photos below of Henry Cousens taken in 1880s) show these dagobas where the relics are kept in a box above the dome and some of these boxes are covered by a stepped capital as in the left of Fig 4.

Further down is another cave (Fig 8 right) described in GBPP as:-
Close by the unfinished cell is cave II. a vihara or dwelling cave but unique in design with an arched roof and round at the back like a chapel. Outside, one on each side of the entrance, are two benched cells. The entrance is 17' 3" wide with a thin pilaster 3' 5 broad on each side. Within the entrance the cave is 18' 2" wide and 32' 5" deep to the back of the apse and has eleven cells all with benches or beds. The cell doors have arches joined by a string course of rail pattern and, in a line with the finiale of the arches, is another similar course. The doors have plain architraves and outside each architrave a pilaster. In the walls between the doors are carved false-grated windows.
See http://www.flickr.com/photos/himanshu_sarpotdar/519916805/in/photostream/0 for more details.

We walked our way down the slippery steps. I slipped with a bad thud and escaped unhurt. I walked down barefoot and a barefooted boy offered to carry my shoes while the barefooted cattle waited on the slopes. It turned out that the day was nagpanchami the fifth day of the month of shravana when young ladies dress in their finery and the newly married couples visit their parents. We asked for and were sold freshly cooked lunch next to the stable in a willing house.

It was time to leave. The small tower meant for the tulsi plant stood unattended, the twin towers of commerce and mass communication beckoned from the distant hills and bella looked forward to going back home. She had climbed up and down 450 steps all of her height!


Tuesday, July 12, 2011

Science of Small Things: Part I. Humus, Carbon Chemistry and The Soul of the Soil.

Of all things in life, the one that one most instantly relates to must be one’s mother and one’s seed, even if you are gay and terminator-gened.. The mother of all seeds must be mother earth herself. Not the earth as a planet of geography, but the mud of our creation and of our creativity and the earth of our sustenance.

This blog will be dealing mainly with humus, the dark top-soil of natural earth --- it is the soul of our soil. Because it is a blog on science there will, naturally, be some science in the blog. Since the concern here will be on the response of the soil to chemical fertilizers, the blog will have a considerably large section of chemistry in it. The idea here is to get the basic direction right although there are many micro details which have been condensed into a macro direction-finding theme.

At the end of this blog i drw attention to Peter Brooks' discussion on "Nothing coming from nothing" whic is really on turning from negative direction to positive direction at an instant of realization. This blog is an attempt (perhaps unnecessary) to influence towards that instant.

I do not make any apologies for the chemistry. It is the last frontier of science to be understood properly by otherwise intelligent people. It is also the most important environment-damaging frontier when left in wild, profit-making hands. The handling of chemistry now requires to be tamed the way nature has tamed it to derive benefits from it. Man must realize that he is made in the image of nature and not in that of a warsome, wrathful and vindictive god.

On the whole, I am taking responsibility, as a seventy-year-old chemist, to propose a direction of research which could be cheap and do-able by the young with time to spare ... and ambitions to keep as well. I think I am serving some purpose. The blog is not intended to be read in one sitting.

What's wrong?

Somewhere towards the beginning of this article I come to the surprising conclusion from published data (www.tradingeconomics.com) that the effect of fertilizer on increase in rate of grain production seems to parallel the increase in organic fertilizer production and is far less than the actual rate of increase of fertilizer production! Humus, as I had been taught in my school days, is nature’s fertilizer accumulated over years in the top soil. The topic of the usefulness of humus is pretty much dead now, thanks to contributions from the financial profits from science of big things.

As we are almost certain of the axiom that the profits from big things are almost alwways detrimental to a life of good quality, the science of small things should aim to restore the effects of this humus in a short time.

We take this earth so much for granted! Just like insensitive children take their parentage and their heritage.

At present times, these children say they live in a democracy and are free to do whatever they want as long as they have not done anything illegal as judged by a court of law. It so happens that some of these children seem to be the court of law themselves. In the process they ignore all wrongdoings and pander instead to the needs of a spoilt gadget-philic society that requires to conquer the discomforts of nature. Narure herself should now be acutely uncomfortable with these conquests.

We usually excuse these children because they are immature kids, after all. It does not matter if these kids range from Anna Hazare to people who dance at weddings and NGOs who use Bollywood sponsors for lighting up village nights with solar lights. After all, there is so much bollywood revenue lost when villagers prefer to have real (not virtual) fun in their nights.

When you have farmed and tilled your soil and sown your seeds and nurtured your crops that feed your family’s needs and after you have enjoyed your harvest festival, do you really require other conspicuously consumed merriments of the idle rich?

More importantly, will you succumb to the pressures of your multifarious agencies that tells you how to barter your self-contained satisfaction for a more global commercialisation? This commerce really benefits people who have no empathy with the soil, who cannot hold the soil in the palm of their hands and mourn when the soil is ill or rejoice in efforts you have made to maintain its health.

It now seems that any help for our soil can only come from those who are disinterested in pure commerce and hence effectively disenfranchised. If the society of farmers requires turning the tide of globally insensitive commerce that is ruining their soil, it will probably come from the younger people. (at heart and in mind and in stamina) who can make this choice, before they age and make a private commitment to something else.

Big Science vs Small Science

It is important to realize that the science of big things depend on reproducibility (which is important if one has to make profit) of results which, no matter how restrictive the conditions for reproducibility is, show prospects for commercial profit because of a deemed benefit to society. There is also a patented protection of their profits. Here it depends heavily on recognised scientists of recognised scientific institutes, who, in turn, prefer to depend on the larger funding from commercial agencies. This is most so in critical life-supporting businesses such as GMO food and fertilizers and drugs and pharmaceuticals. The price these scientists pay is that they may have to be sometimes extra careful in justifying claims (murmuring, dharmaraj-like, the real identity of Ashwathma, in the battle of Kurukshetra).

The science of big things would like to fund and be funded about grander, Monsanto-philic, schemes such as genetically modified Bt crops. Nothing of scientific value comes from nothing these “giants” would say. The giants move on to do what motivates them most: add value to their science so that something (more) should come from something (less)..

On the other hand, the science of small things cannot, for its own good, deviate from the path of making unbiased observations. Making commercial profit is not their immediate motive. It could be environment-friendly sustainability, for instance. A good candidate is the science of seemingly small things such as the very fundamental aspects of the life of the soil or humus and the way it influences her progenies. The benefits of humus cannot be reproduced in a court of law because the exact nature of humus that is patentable for commercial benefits is not known and is not likely to be known. Yet, there is a considerable amount of unknown that can be put to systematic scrutiny to quantify, if nothing else, the extent of our ignorance.

What can come from the science that seems to be about the science of small things, --- the science of nothing?

Humus of our past

As Maria in “Sound of Music” (and my nephews’ various Indian English moments) would sing:
Nothing comes from nothing
Nothing ever could
But somehere in my youth or child hood
I must have done something good


Without knowing it perhaps, lyricist Hammerstein II, was acknowledging the very prehistory that has so far shaped our immediate present. The way we act in the present will continue to shape the future generation even if the future generation may not realize what in their past shaped their present..

So let us say soil there was and soil shall it remain. It is what we have done with the soil and could do to it in the zwitschenzeit that is important for our cascade of presents that will ultimately shape our future. One, of course, should not think of soil as inanimate and inorganic and dead when one justifies the use of inorganic fertilizers. Its like fighting death with death.

One could perhaps write in the context of nothing come from nothing, the almost equivalent and certainly (if you are sensitive to profound things) more profound phrase “life comes from life” or “organs from organs” or the mundane but, if you think of it, more prototypical phrase “organic comes from organic”. This could be surprising if you think of soil as something inorganic, like clay, or mica (which usually has some common lighter metallic elements in it like aluminium or .magnesium; I will have some future blog reasons for mentioning this part).

One of the most important examples of good science coming from seeming nothing is that which came from Darwin’s work after he had completed his Beagle journey that led to his Origin of Species. One has to remember that when one enters new field one is almost at the same level as a young student working with an experienced research guide. The last major work of Charles Darwin is on The formation of Vegetable Moulds through the action of Worms (I have used information about this mainly from a recent review by U. Kutschera and J.M. Elliott, Appl. Environm. Soil Sci. 2: 1-11 (2010)).

Darwin himself thought that it was a subject of small importance and that he worked on it because it interested him. This work had its impact with the concept of bioturbation which dealt with biological reworking of soils by “ ... ingestionof the topsoil, and its mixing, grinding, and digestion in the gut, continually exposed rock particles to chemical alteration, increasing the amount of soil ...” It started the area of earthworm research, finding intelligence in the earthworm, which was till then thought to be useful only as bait for fish. This conclusion led to ridiculing of Darwin culminating in a famous cartoon entitled “man is a worm” by Linley Sambourne in Punch around 1881 (http://www.ucl.ac.uk/news/ucl-views/0809/punch). The evolution from chaos through worm, spermatozoid creatures, apes etc and finally to a human (Darwin) . This cartoon is perhaps anticipated in Psalm 119:141: “Though I am lowly and despised, I do not forget your precepts” (rules or principles teaching correct behaviour). Strangely enough, this cartoon which was meant to ridicule Darwin turns out to be quite in line with recent research by Telford, on “A single origin of the central nervous system?” Cell, vol. 129, no. 2, pp. 237–239, 2007.

Although Darwin’s publication on earthworms was a year before his death, his actual observations on earthworms started in 1837 when he was as young as 28. At this age, the best age for starting the science of small things, he is said to have spent his time in the farm of his more famous uncle, Josiah Wedgwood (his mother was Susannah Wedgwood). There Darwin sketched a vertical section of the soil and was the first scientist to have pointed out that the top-soil layer of vegetable earth, now called humus, of every humid country was due to bioturbation caused by earthworms. Darwin would attribute the dark colour of the topsoil (section (a) in the figure above) to a mixture of partially digested leaves and mineral soil in the faecal casts.

Darwin noticed that the layer (c), about six inches from the top, was due to a covering fifteen years earlier with fertilizers from burnt limestone that contains shell fragments, ashes and other minerals.. This gave Darwin an estimate of the amount of top soil produced per year by bioturbation from earthworms as around 25 tons per hectare per year. This is roughly 10 to 20 time the weight of fertilizers used per year in India or China. It turns out that the use of chemical fertilizer has increased nearly fifteen times during the pasc 50 years in India and China.

In an article on the Overuse of Chemical Fertilizers in China, Williams of Macalester University, concluded that “ ... farmers in China are applying more chemical fertilizer than is economically optimal” Williams noted that “ .. in the early 1960’s, as the limitations of organic fertilizer were realized, the emphasis was shifted to chemical fertilizers. “ It is important perhaps to note that in Fig 1 of her article the rate of use of organic fertilizers roughly parallels the rate of growth in grain yield, which, in turn, is roughly fifty times less than the rate of growth of use of chemical fertilizers. This is a major surprise even to me since I tend to be cynical --- and thereby non-objective --- about the benefits of fertilizer.


It not only serves to confirm what is now well known --- that one requires more and more fertilizers to maintain a crop level, but it also serves to highlight the view point that organic fertilizers can do the job as well. I cannot think of a better reason for debunking the myth that chemical fertilizers are necessary to feed a growing population. It only serves to feed a growing ammonia industry for making fertilizers.

There are more surprising statistics for me. Sugar cane production constitutes ~ 90% of Indian agricultural production (if Renuka Mahadevan’s article on Productivity Growth in Indian Agriculture from Queensland Australia is to be believed).
The ratio of the hugely water-intensive sugarcane production to food grain production in India is nearly 11:1 while in China it is nearly 3:1. USA and Europe do not seem to grow sugarcane! "Why waste water?" they must be saying, when poorer countries are dying to waste their water for the yankee dollar? Is it any wonder India has the largest number of diabetics?
The ratio of food grain production to tobacco production is 10.3 in USA and it is 5.4 in India. USA produces foodgrain nearly three times that of India. This is so even though USA has less than 25% of India’s population!
The sugar-cane industry also serves the vice-building (revenue earning) alcohol and tobacco industry.

I am not at all certain now that a ruler of the soil had any connection with the tiller of the soils. It seems we may have taken them for granted. In our country we always have had harvest festivals which is a festival of farmers, who formed the majority of the population.I was surprised, therefore, to read the following. “Paul Louis Courier quotes from La Bruyere the following striking picture of the condition of the French peasantry in his time (late eighteenth century) "One sees certain dark, livid, naked, sunburnt, wild animals, male and female, scattered over the country and attached to the soil, which they root and turn over with indomitable perseverance. They have, as it were, an articulate voice, and when they rise to their feet, they show a human face. They are, in fact, men; they creep at night into dens, where they live on black bread, water, and roots. They spare other men the labor of ploughing, Bowing, and harvesting, and therefore deserve some small share of the bread they have grown." For such rulers, as the present rulers are likely to be, farming is taken for granted. It is only the profit from farming that they are interested in.

Such an attitude, one would think, cannot be allowed to continue, of course. A knowledge of the soul of the soil would seem to be more important for human survival than what could as well be the useless jingle-less stacks of money.

What is Humus?

The soil is as animate as any of us can ever hope to be once we acknowledge the humus of the soil.

So, being an analytical scientist, we have to ask the (vocationally stupid) question that no real farmer will ask.

It turns out that even those who have written on the subject do not really know what humus is. The one most certain thing about humus is that it exists ,,, in the sense that one knows what one was referring to. Apart from that its “… most conspicuous feature is the lack of specific knowledge concerning the organic matter of the soil.” (Schreiner and Shorey 1909).

We need to ask the “What is humus?” question first of all to learn what humus is not (sometimes referred to as vegetable earth) before one convinces other vocations about things they should or should not do to preserve life in the soil. Most of the uncertainties in the definition of humus comes from some definitions of humus that I have picked up at random from the literatture on the net (quoted in italics).

Humus is a kind of amorphous, brown or brownish black,hydrophilic, acidic, polydispersed organic matter and moredispersed widely in soil, sediment, and water (such as lakes,rivers, oceans and groundwater, etc.). It is not only a major source of soil nutrients but also has a significant impact to physical, chemical and biological properties of soil, it is one of the indicators of soil fertility.

Decomposition of dead roots, green manures, grass clippings, leaves and so forth does not necessarily yield the correct biochemical properties to result in the formation of humus as the only precursors of humic acids are amino acids, which must come from a source of protein … compost alone (made out of carbohydratres) are a poor source of the humic acids

Humic acids are flexible aliphatic aromatic highly functionalized molecules that can act as photosensitizers, retain water, bind to clays, at as plant growth stimulants and scavenge toxic pollutants.

The important feature of humus has been outlined by Waksman (Proceedings of the National Academy of Sciences, 1925) who would write “When organic matter, in the form of green manure, plant stubble, straw, leaves, roots, etc., is added to the soil, decomposition sets in immediately, as can be conveniently demonstrated by an increase in the evolution of carbon dioxide. The rate and nature of decomposition depend upon the organisms concerned and soil environmental conditions. Sooner or later the rate of decomposition becomes. more or less uniform, after the easily available ingredients of the organic matter are decomposed; the residual organic matter then becomes a part of the soil, is converted into "humus" or is said to be "humified." This "humus" decomposes only very slowly and will persist in normal Foils for considerable time.”

What are the benefits of Humus?

It is not a myth that forest cover prevents floods because the humus retains water. Once in 1980, when .Lalitha and I were encouraged by Sunderlal Bahuguna’s daughter to get away from an international environmental team that was visiting Bahuguna’s ashram in Silyara in the Himalayas, we visited Gangi, trekking along the Bhilangana. There were virgin Rhododenfron forests. Walking on the soil of that forest was such an experience. The soil was so soft and springy that is seemed like a huge sponge. It did seem that this sponge couls soak up a large amount of water.

In an article of 1868 Geoff Marsh had written: “The surface of a forest, in its natural condition, can never pour forth such deluges of water as flow from cultivated soil. Humus, or vegetable mould, is capable of absorbing almost twice its own weight of water. The soil in a forest of deciduous foliage is composed of humus, more or less unmixed, to the depth of several inches, sometimes even of feet, and this stratum is usually able to imbibe all the water possibly resulting from the snow which at any one time covers, or the rain which in any one shower falls upon it. But the vegetable mould does not cease to absorb water when it becomes saturated, for it then gives off a portion of its moisture to the mineral earth below, and thus is ready to receive a new supply; and, besides, the bed of leaves not yet converted to mould takes up and retains a very considerable proportion of snow-water, as well as of rain.

Marsh would add “The hygroscopicity of humus or vegetable earth is much greater than that of any mineral soil, and consequently forest ground, where humus abounds, absorbs the moisture of the atmosphere more rapidly and in larger proportion than common earth”.. He would add “... unhappily, the primitive forests are disappearing so rapidly before the axe of the woodman, that we shall never be able to estimate with accuracy the climatological action of the natural wood, though all the physical functions of artificial plantations will, doubtless, one day be approximately known.”

The science of small things can ask how one can artificially restore the top soil and save the world from the tyranny of excessive or useless advertisement-driven application of chemical fertilizer? A stressed soil gives a stressed life with the corollary that a life in a mutually beneficial relationship with the soil will have less stress (even if it means tremendous loss to corporate revenues and yuppie life-styles of the conspicuous consumer).

The important feature of humus has been outlined by Waksman (Proceedings of the National Academy of Sciences, 1925) who would write “When organic matter, in the form of green manure, plant stubble, straw, leaves, roots, etc., is added to the soil, decomposition sets in immediately, as can be conveniently demonstrated by an increase in the evolution of carbon dioxide. The rate and nature of decomposition depend upon the organisms concerned and soil environmental conditions. Sooner or later the rate of decomposition becomes. more or less uniform, after the easily available ingredients of the organic matter are decomposed; the residual organic matter then becomes a part of the soil, is converted into "humus" or is said to be "humified." This "humus" decomposes only very slowly and will persist in normal Foils for considerable time.”

Waksman then asks the important question: “Why does this take place, why does a part of the organic matter decompose rapidly and a part only very slowly? … most of the nitrogen and minerals introduced into the soil with the natural organic materials remain bound up in this soil "humus." How does that take place?”

The other question for the science of small things is do we need to know, at least roughly, the essential ingredients that are required of the top-soil, to give it all the benefits that humus gives?

Some Chemistry in the Science of Small Things

Since we have to understand the need (or not) of chemical fertilizers, this blog will contain some chemistry. There will be no apologies. The language and the symbols of chemistry is something that one has to understand if one has to counter the claimed miracles of chemistry without countering some empirically established (the only kind of establishment one should care to bow to) chemical philosophy that need not require a QED.

Typically, one thinks of the role of carbon dioxide and water to produce the world’s energy requirement in the shape of carbohydrates, which we write as a string of n CHOH groups or n(CHOH). Usually the process is written as
6CO2 + 6H2O ---> 6CHOH + 6O2 (1)
For aerobic as well as illuminated life equation 1 is part of a cleansing photosynthetic reaction on going from the left-hand-side to the right-hand-side.

Eqn 1 is a spin non-conserving reaction since oxygen as evolved is a paramagnetic molecule and the others are not. Because of this this is not a spontaneous reaction and requires the agency of excited states (accessed by light), spin-conserving intermediates,(accessed by transition metals as in chlorophyll) and energy producing ligands (such as adenine triphosphates, ATP, as in the dark carbon-inserting reaction of the Calvin cycle) which drive the endothermic reaction to the right in eqn 1,

Eqn 1 is CO2-scavenging on going from left to right and CO2 polluting in the reverse direction (from right to left), even if it is useful in producing energy by burning wood. It should be the energetically favoured spontaneous step when a plant dies once the spin conservation is taken care of. When spin conservation is not guaranteed the reverse rate will be slow.

The actual chemical work on molecular structural aspects of Humus is difficult, because by its very nature it cannot be definitive, The chemistry of the humus depends on the nature of the soil, the forst canopy, the rainfall, water sources and so on. The closest one may get to is the structure of a naturally occurring highly oxidised version of humic acid obtained from leonardite (see http://www.phelpstek.com/portfolio/samples/humic_acid.html) which is shown below. It is the oxidised form that is thought to be useful in in breaking up compacted soil or clay and helps in providing micronutrients to the plant. In the context of earthworm and top soil, this activation of the soil must be similar to bioturbation. As one can see humic acid has a section (to the left viewing the structure) which has a large density of oxygen while the right is less so and has probably some features of cholesterol, (which, I thought, in my B. Sc (chem.) days, to be a very complex structure).

This begs the question of whether the synthetic pathway for carbohydrates stems from the chemistry of carbon and water alone. For anerobic and dark conditions,, which must be dominant in buried layers, we may, eliminating 6O2 from 6CO2 in the LHS and 6O2 from the right hand side of eqn1, we obtain carbohydrates as
C + H2O  CHOH (2)
A more familiar form of this reaction (catalyzed by acids is the hydration of ethylene to ethanol or the dehydration of ethanol to ethylene.
CH2=CH2 + H2O < --- > C2H5OH

Eqn (2) is the most simple way of getting carbohydrates --- by hydrating carbon. It eliminates the need for using carbon dioxide or oxygen as such and requires only the presence of carbon and water under anerobic conditions. Of course, you cannot place diamond or graphite in water and get carbohydrates. But you may do so when you start with what one may now call nascent carbon or an active form of carbon such as what we now know as carbon nanotubes, C60-like buckyballs, grapheme sheets.

Both the reverse and forward directon in eqn 2 is not environment unfriendly. The reverse direction in eqn 2 could suggest a route for the formation of humus while the forward direction would suggest a step for the generation of carbohydrates and other biofuels for bio-species without requiring the agency of sunlight.

As far as I am aware, eqn 2 has not been seriously considered as an alternative pathway. So overwhelming has been the evidence for the photosynthesis pathways and so high the level of funding for it, that it has not been thought necessary to look for an alternative,

At the same time, when the photosynthetic pathways were being established, elemental carbon chemistry was confined to the reactions of the stable allotropes of carbon --- the layered graphite with an hexagonal network of carbon, and diamond with a tetrahedral network. These compounds are characterized by their long-range ordered structure in solids. They are also rather inert to reactions with water, oxygen carbon dioxide at room temperature.

We now know that there are other allotropes of carbon which have at least one dimension that is very small or of nano-scale (0.001 micron to .01 micron). The three-dimensional (3D) nano-carbon is a foot-ball shaped sphere now known as bucky ball or fullerene, after the xtraordinary Buckminster Fuller, the motivator for geodesic domes. The 2D nano-version are the carbon nanotubes the smallest of which are the single-walled carbon nanotubes (SWNT). The 1D version is graphene, which is a single sheet of graphite.

These nano-carbons are prone to oxidation near room temperature more easily than the macro-sized carbons, graphite and diamond. Graphite itself is known to be oxidized by strong oxidizing agents to form what is known as graphite oxide with C:O ratio varyin between 2:1 to 3:1. Atomically thin monolayers of grapheme oxide (see picture above) may be obtained from graphite oxide using alkaline solutions. The structure of this grapheme oxide is similar to that of oxidized humic acid or another constituent of humus, fulvic acids (see picture above) in terms of the density of oxxygens relative to the carbons. Lignin, which is the most studied component of wood also has aspects of its structure which are similar to that of humic and fulvic acids. Graphene oxides and lignin differ from humic and fulvic acids by not having nitrogen atoms as part of their structure,

It is perhaps pertinent to emphasize that the oxygens are deliberately coloured the red colour of blood in the above diagrams, because of the critical role oxygen plays in the dynamics of carbohydrates in life just as it is in our blood.

What is not clear is whether these nano-carbons are inert to oxygen, carbon dioxide, water at room temperature. If one is not prejudiced, the signal that one gets from all the published noise on nano-carbons is that it is very difficult to get a condensed (non-gaseous) phase of these nanocarbons without oxygen contamination.

I have doodled below some possible schemes for the relation between carbon and carbohydrates. I think that they can happen with the multi-functional (enzymatic) soil with its nano carbon and nano cabon-oxygen systems given the large number of organic or inorganic chemicals, pH conditions, minerals, whatever (click to expand).

Evidence for the above reactions at a small molecular scale is not difficult to come by. These reactions usually occur in the laboratory at temperatures considerably higher than room temperature. The contention is that these are larger molecules which have considerable double bond character or are substituted considerably by heteroatomic and more electronegative atoms. They are in a soil which consists of various minerals and enzymes and biospecies that have their own room-temperature chemistry. There are also nano-space such as micropores, an lamellar clay spaces that increase solvation effects and electric fields that are known to catalyze reactions. For instance inorganic zeolites with pores of molecular dimensions are known to mimic tertiary protein structure of an enzyme leading to the development of what is known as "ship-in-a-bottle" metal complexes which has, for instance, oxygen chemistry similar to that of haemoglobin. The critical aspects of these catalysts is that the geometry of the activation site closely mimic that of the transition state geometry of the reaction thereby reducing the barrier to reaction and increasing the reaction rate at lower temperatures. The advantage of an enzyme is that their geometry is flexible and adaptable as compared to zeolites. This aspect is likely to be reproduced in bioactive humus.

Quite early in the era of C60 science my friend Carlo Taliani of Bologna drew my attention to a publication from his group (Synthetic Metals, 1993) in which they found that oxygen molecules are trapped on the surface of C60. These molecules desorb as diamagnetic singlet oxygen on illumination with light. There would be no problem of spin conservation in eqn 1 when diamagnetic oxygen molecules react with diamagnetic carbon. The formation of oxygenated carbon products, including carbohydrates, would be favoured in this case

I had once ventured in the early 1990s to make nano particles of metal oxides and sulphides by decomposing appropriate organic polymers and inorganic salts in nitrogen. I had thought that the nanoparticles would be in a graphitic medium.

I did not publish any of the results from the considerable volume of experiments we had done because of patenting possibilities, and also because, quite frankly, as experimentalists we Indians are reluctant to worry about reproducibility in India. My colleagues did not have the inclination to repeat and tidy up the experiments to the extent I would have liked.. There was no real patenting expertise available in the CSIR in those days and we ended up with one (US Patent No. 5,643,508) as a statistical information of use to the DG-CSIR after a delay of many years.

I always found photoelectron and infra-red spectroscopy evidence for considerable amount of oxygen in the nano-composite we had made even if I did not have any oxygen in the starting samples. It was Carlo’s information that made me rethink on the nature of nano-carbon I had in my composites. The nano-carbon has a spontaneous tendency to take up oxygen from carbon dioxide, water or air.

It would now seem that the nano-carbons with their double bonds have highly reactive carbon sites which may take up paramagnetic oxygen which are converted to –C-O- linkages quickly (in crop cycle time scales certainly) either through the agency of water, acids, singlet oxygen states and so on.

A coincidence of circumstances can make the soil with its various functional groups in reactive nano-scale laboratories behave like a swarm of enzyme-like functionalities. Given a desired direction (say, from a potential difference caused by a perturbation such as rainfall, tilling, sowing) the fertile, many-functional, soil seems to come up with a combinatorial solution to sustain its function of providing endlessly like Annapurna, the goddess who provides perpetual nourishment without seeming to require material inputs.

Role of clay-rich soil

Clays are metastable layered materials which are formed at low temperatures by the erosion of silica-containing rocks by slightly acidic aqueous solutions containg dissolved gases such as carbon dioxide, nitroegen oxides and so on. The clays are aluminosilicates which have corner-shared tetrahedrally coordinated (Al,Si)O4 groups. Since Al cation is trivalent and Si cation is tetravalent charge-neutrality requires the replacement of divalent oxide (O2-) ions by monovalent hydroxide ion (-OH). The –OH groups are critical to stabilising the layered structures. The hydrogen in the –OH groups can be exchanged with potassium or sodium cations which become more easily solvated in the presence of water. Removal of aluminium by leaching with strong acids such as nitric acid or sulphuric acid removes-OH groups from the clay and subsequent mineralization to silica-rich oxides.

Since these clays are metastable they are rhermodynamically prone to transformation to the more stable three-dimensional oxides.In such a case the beneficial-water-storing properties of clay is lost. This, in turn, would affect the quality of the humus.

I have outlined below a scheme of “cartoons” which could seem to be obvious truths but which does not seem to have been put forth as a reason for the surprising lack of increase in productivity of food grains per unit of chemical fertilizer used.

In the figure below a rough sketch of the role of humus in enhancing the rle of clay in healthy soil is shown. To the left of the figure a rough sketch os a typical phyllosilicate clay such as montmorillonite a Wikipedia formula of which is (Na,Ca)0.33(Al,Mg)2(Si4O10)(OH)2•nH2O.

The structure of clays may be thought of as thin (~ 1 nanometer) slabs of alumina-silicates with surface hydroxyl groups (top centre of above figure, click to expand). In a medium containing water and metal ions such as that of potassium, the –OH groups are exchanged –to form, for example, -OK groups. These groups become solvated easily by water. Because the solvating water molecule has a different chemical potential from free water outside, space between the layers increase by accommodating more water and equalizing the chemical potential.

The oxidised form of humic acid (HA) is known to contain –OH groups, the hydrogens of which may be exchanged with potassium, for instance. This helps in the HA binding to the –OK groups in the soil, Because of the large size and the multifunctionalIity of HA the swelling between the layers may be stabilized (central blue cartoon in above figure). Such swollen layers are stabilised n the presence of humus. The swollen layers are then amenable to bioturbations through agencies such as earthworms as proposed by Darwin. There are other important factors, of course, but, I think, Darwin’s evidence for the rate of accumulation of top soil because of earthworm activity remains the most impressive aspect.

In the absence of humus-forming leaf litter or forst canopy, the intercalated humus-derived acids are removed. They are likely to be replaced by more acidic compounds groups derived from fertilizer additives which contain MOx compounds such as carbon dioxide, nitrogen oxides, sulphur dioxides. These acids are not only likely to leach out components derived from substances such as humic acids but also the lower valent mrysl ion such as aluminium or magnesium or iron ions which cause the incorporation of –OH groups in the clay layer. Further, the incorporation of interlayer, Si-MOx-Si (M = C, N, S) linkages coul lead to an irreversible conversion to stable S-O-Si layers and the loss of clay-like characteristics and a desertification as schematically illustrated below. Such a process finally leads to conversion silica-rih soil which do not swell and retain water causing a desertification.

The desertification or loss of clay-like character.is similar to that obtained by heating or calcining clay. Wikipedia informs us that calcined montmorillonite is used as a soil conditioner for playing fields or for growing stunting growth ofplants as in, whaI think, is athe perverse bonsai culture, which can be encouraged in hilly terrains where soil run-offs donot allow top soil to form. The desertification process also prevents (see Wikipedia) the intercalation of lipid molecules that are so necessary to form first micelles and then vesicles and membrane walls.

This increases of salinity or soil- acidity has marked effects on rich-soil-feeding (endogaeic) earthworms and less so on top-soil litter-feeding (epigaeic) earthworms. It would seem that the leaching out of the intercalated organic matter has different effects on different earthworms.

It is perhaps amusing to note that despite Darwin’s experience on Origin of Species it seems that he had not worried about the species of the earthworm (there are more than 4000 of them; (see review of book by Munnoli et al on soil-earthworm plant relationship, published by Global Science e-books). It now appears that you require specific earthworms for specific soils. Exotic species in commercial plantations can spoil the fauna of the soil. For example, earthworms and other faunal species have disappeared from Indian tea plantations.

We must preserve the original soil to preserve the original species which takes from the land and gives back to it the same way it took. Exotic species are unlikely to do so. .

The soil becomes stressed due to increase in salinity because of high amounts o carbonic. Sulphurous, nitrous or nitric, hydrochloric acids as well as high amount so sodium and chloride ions. There is what is known as a physiological drought because of which the osmotic potential of water in the soil which have negative effects on plant growth, especially on the uptake of water by the roots. For example, the formation of CHOH in eqn 2 by the hydration of active carbon in nano-carbons could be a source for the uptake of carbohydrate from the soil without the agency of light. All it requires the pre-formation of carbonaceous matter in the soil, which we call humus.
Evidence for eqn 2 is well-known. When ethylene is mixed with steam and passed over a catalyst consisting of solid silicon dioxide coated with phosphoric(V) acid. The temperature used is 300°C and the pressure is about 60 to 70 atmospheres. Such strong conditions may not be necessary when the double-bond C=C linkages are found in nano-carbons. For example, it is known that hydrophobic C60 becomes hydrophilic on contact with surface of water because of the incorporation of –OH groups in the C60 framework. This gives the aqueous solution a orangish colour.with an absotion maximum between 400-500 nm.(chlorophylls , beta-carotene also have an absorption peak in this region).
It remains to be investigated whether the fine primary roots, that are known to have the function of water and nutrient uptake are also grow by the uptake of the fundamental carbohydrate building block –CHOH-groups without necessarily requiring oxygen in the photosynthetic route involving the leaves.

Once in March of 2009 while driving down the Konkan ghats on the way from Hatip (where our very good friensa, the Raos have jad the courage and perseverance to set up an organic friendly farms) we came across what looked like forest fires (left of picture below, click to expand). The popular mythe of city-bred industry-sponsored environmentalists is that these fires are caused by villagers as part of their slash and burn strategies, There isthe lore that controlled burning reduces severe forest fires later. Some say that the forest fires are to clear forests for farming. All this may be so to some extent, but the traditional farmer may have another reason.

However, on approaching closer to the area of smoke, we found (centre of photographs above) that patches which were previously coated had central regions where leaves and branches were pile to be burnt or had been recently burnt. This practice was common in the area and elsewhere it turned out later. They were perhaps returning the nano carbon to the soil in this process and generating carbohydrates from the soil. This speculation gave us a better appreciation of the smoke-enhanced sunset (right of above) of that day.

As a starting point, the intellectually abled younger generation of the sub-twenty kind have the advantage of being scientifically unbiased. They may carry out field work on quantifying aspects of the practice that I just referred to above.

There does not seem to be a unique reason for the practice of burning crop fields, nor what benefits the burning brings. In general, empiricists tend to think that burning fallen leaves is not beneficial to the soil. Searching the net for older references, I found in The Farmer’s Register vol 2 printed in 1835 the following comments for the Tobacco Planter in USA:-
The tobacco planter’s mode of cleaning new ground by raking up the leaves and trash and half-decayed vegetable matter, and then burning it all is a wasteful operation. These materials if spread on exhausted spots in the fields, and ploughed in, would impart life enough to throw up such a crop of rye, or oast, or clover, as to make it easy afterwards to restore them in their original fertility. ... He that advocates burning will be convinced of its rapidly impoverishing effects .. (and that) ... this process will entirely exhaust the vegetable matterin the soil...

From the recent report of a Training modeule on the managemenet of soil fertility in Watershed Support Services and Activities Network (WASSAN), Secunderabad, I gleaned the following:
In summer before ploughing, many farmers collect together the crop residues from their fields and burn them. This is done to tidy up the fields and to prevent damage to the legs of bullocks or buffaloes while ploughing. A lot of crop residues can badly affect land preparation, sowing germination, importantly burning also reduces the risk of pests and deceases hosted by crop residues being carried over to the next crop. Ash from the burning stubble and other crop residues adds some fertility back to the soil. Especially potassium, but most organic matter and nutrients are lost. For this reason, burning of crop residues is generally discouraged.

The sugar cane industry in India has another massive problem with it producing nearly 15 million tonnes of leaves. It would also seem that there would be a significant amount of water saved considering that for a full season, one requires 15 million liters of water per hectare for producing 100 ton of millable sugar cane. The sugar cane leaves have lignin and silica which do not decompose easily and are not good as fodder for animals. As such they are of little use so that they are treated as ‘sugar-cane trash”. The “trash” is traditionally burnt. When you think that 1 ton of firewood is equivalent 20 million BTU, and 3500 BTU gives 1KWH of electricity, 15 million tonnes of sugar seems to be equivalent o 1 million megawatt of electricity. This “trash” has the capacity of generating several thousand times the power generated by solar and wind energy. This seems to be a staggering number even if there is a mistake in the calculation.

If sugar cane was not grown at all and wood was grown instead, the power obtained by burning the wood would seem to be the most efficient way for using solar energy to generate electricity. Not that I am a great advocate for electricity because it would be wated anyway --- say, for advertisements and lighting up the nights. If the wood is from fruit-beariing trees or bamboo, or sorghum (jowar) crops one would imagine that food scarcity, or shortages in building material, or non-cotton fibres for dress, or sorghum jiggery instead of sugar, sorghum crop for thatched huts would solve most of our shirtage problems. It would only be at the expense of the diabetes industry, the cement industry, and the builders lobby.

Nowadays such thoughts are considered reactionary and harmful to the prosperity of human beings, especially those who are encourages to seek only virtual or exotic realities in pursuit of strengthening a World-Bank or IMF-encouraged economy. Maybe such "dangerous" thoughts would be useful again when reality or and/or realization (even of the Marxist kind) sounds ominous bells. They seem to be doing so now no matter how much counter spin is used in propaganda machines.

It would seem it may be better to be prepared.

How will you use, say, the big amounts of sugar-cane leaves if you are dumped with them? One may imagine that the leaves from sugar-cane could serve to create humus in the soil as well and restore the fertility of the soil that has been now seemingly damaged by the use of fertilizers.

If one knew how?

The more pressing problem is that healthy humus has been created over long times. How can we restore humus-like characteristics to the soil? Does the burning of leaves provide a quick-fix to some extent?

I think one important approach could be an investigation of the way one burns wood so that it adds fertility to the soil.

It should be perhaps a low-temperature burning in the presence of water and in the vicinity of soil. I have found from personal experience that on heating nitrogen and oxygen-containing polymers mixed with metal salts of organic acids under anaerobic conditions a nano-composite of oxygenated and hydrogenated carbon with small amounts of nitrogen (which I will call as CHONx) is obtdained as a nano-scale composite with metal oxide, This nano-composite when heated above 500-600 in anaerobic conditions become graphitic with loss of water and carbon monoxide or dioxide. It is this partially graphitised CHONx (or G-CHONx) metal oxide nano-composite that acts as good lithium-ion conductors showing good potential for lithium ion batteries, super-ionic conductors and under suitable conditions also as supercapcitors.

It is not practical to heat crop residues under anaerobic conditions although there seem to have been some attempts to get charcoal blocks from sugar cane leaves for fuel purposes using this method.

When the “leafy trash” is burnt as a big heap with smokeless high flames the temperature exceeds 500-600 C and one obtains mainly G-CHONx-like carbon which is not beneficial.

On the other hand, burning large amounts of not so dry leaves spread on soil in a thin layer (as in the middle of figure above) such that only a thick water-vapour-laden smoke as in the forest smoke on the left of the figure above) is obtained could provide CHONx material with possibilities of enriching the to- soil with CHONx-clay nano composites that could serve as humus-like precursors. When this happens the smoke could temporarily make the atmosphere filled with “brown cloud”-like or smog-like dust particles at low altitudes. For low-temperature fires one does not expect this cloud to lead to the more dangerous high-altitude pollution.

I know from experience that polymers which would otherwise decompose and in nitrogen and evaporate without leaving any non-volatile residue would form a nanocomposite with metal oxides when they are formed simultaneously by co-heating with a metal compounds. . Heating leaves at low temperatures may, therefore, allow such oxide-CHONx nano-composites to be formed. One may therefore, if one is lucky, begin to mimic the bioturbation of earthworms noticed by Darwin and probably noticed through the images without any fanfare or surprise by tillers of the soil.

We may have now managed to convince financially motivated farmers to maintain “modern” agricultural practices of using fertilizers and excessive water. The SOST can experiment on the influence of CHONx fired by various methods using various leaves from various canopies on plant-growth when admixed in the soil. One will not require expensive equipment to start this work.

The most appropriate way to work on the effect of artificial CHNOx would be to working in conjunction with farmers who are already using CHNOx as in the Konkan example above. One can learn from their experiences and record and experiment further.

One does nto expect the top-soil to be as healthy as the naturally formed humus. One learns in any case and one can only benefit in a non-corporate sense from this learning. On the other hand low-temperature firing of spread foliage cannot be doing more environmental harm.

The turning point: when nothing comes from nothing?

We may now interpret the sayig (Genesis) “Dust thou art and unto dust thou shalt return” as an expression of “carbohydrates thou art and unto carbohydrate thou shalt return” or better still “humus thou art and unto humus thou shalt return”. In the in-between life comes and goes in its never ending cycle helped by the brown soul of the soil.

In the process it would seem as if nothing has changed, --- not despite, but because of the life in between. Nothing can only come from nothing, eventually.

Thou hast nor youth nor age
But as it were an after dinner sleep
Dreaming of both

(T. S. Eliot, Gerontion)

Every philosophical system stresses the fact of nothing coming from nothing or ex nihilo nihil fit, which, I suppose, could mean that nothing can be created from or disappear into nothing. But it does not dispute the issue that nothing could be existing forever. It is just the way we grow out of it or into it that we see life.

Maintaining that state close to zero is important in, what my background would assert, a combined annihilation/creation or destruction/creation sense of Siva.

I chanced upon a net-piece (http://direct.vtheatre.net/doc/brook.html) of Peter Brooks on “Does nothing come from nothing?” . This is the title of his Edwards Jones lecture in 1994. I have no personal experience of Peter Brooks but I did see his Mahabharatha and I was very impressed. The scene of Krishna talking to Ptince Arjuna on the battlefield is so different from what we are used to in our own imagery but so much more powerful (http://www.youtube.com/watch?v=_B4Z1PB97KY) than we have imagined . Peter Brooks’ stage-manship shows up when he uses only a chariot wheel to depict the war scene.

What struck me in this article was his insistence on the instant of a scene.

"So I ask you : Does nothing come from nothing ? For instance, if one takes a purely behaviourist view on the living process, if every single action of a human being comes from inner conflicts and pressures whose causes can be traced to recognisable, social, cultural, racial, environmental factors, if this is true, then every single form of behaviour out of which life and theatre are made comes from "Something". … Nothing in the theatre has any meaning "before" or "after". Meaning is "now". An audience comes to the theatre for one reason only, which is to live a certain experience and an experience can only take place at the moment when it is experienced. … What has been up till then individual experiences becomes shared, unified. At the moment when the mass of people becomes one, there is one silence and that silence you can taste on the tongue."

He was reminiscing about the talk after the performance he gave to inmates of French psychiatric hospital. Brooks was struck by the audience and felt “…it was quite an extraordinary experience because of the intensity of the listening. In fact, it compelled the actors to have a quite unusual degree of sensitivity. They felt that the least image that they projected could easily go too far and be dangerous to the patients.“ When they gave the same performance to the psychiatrists of the hospital “ … we could actually feel and hear the movement of four hundred brains, debating with themselves whether they agreed or disagreed with what they were seeing. And this produced a hum that was quite audible.

"When, through a whole complex series of factors, everyone is stimulated to an unusual intensity of perception, then the actor, the actor's body, one actor's interrelation with another, the whole group's interrelation with one another all create a new form of interrelation with the audience. Out of this comes a genuine participation of all who are present because there is a living flow that is uniting the separate entities into one field of life. When this happens, the shared experience turns from being a negative zero into a zero that is climbing up a scale of quality, until it eventually reaches a level of perception in which the zero is positive. … At this level, Nothing can come from Nothing. The dynamics of performance can bring something out of nothing, until a true nothing that comes from nothing returns to nothing again."

Brooks was talking about the transition from “reducing to zero” to “increasing from zero”. This is the classical turning point in physics where, in one dimension, the particle in motion stops and starts a return motion.

At this instant of the turning point when action becomes we should not be in Eliot’s Gerontion (“civilization gone rotten” Grover Smtih)
What will the spider do,
Suspend its operations, will the weevil
Delay? De Bailhache, Fresca, Mrs. Cammel, whirled
Beyond the circuit of the shuddering Bear
In fractured atoms.


There is a chance to be born again from our roots using the small-science understanding buried in the dark humus soul of our soil.

We should not be in Gerontion.

Even if it takes us some time to get out of it.