Title of Invention


Abstract A bio-degradable plant growth composition consisting essentially of coal particulate, sodium molybdate, linear alcohol alkoxylate, magnesium sulphate, sand or other filler and water. (FIG. - nil)
The present invention relates to a biodegradable plant growth composition
which is based on particulate coal.
The plant growth composition of the invention represents an improvement in
the formulation described in U.S. Patent 4,541,857, the contents of which are
incorporated herein by reference.
U.S. Patent 4,541,857 describes a plant fertilizer composition which
comprises a mixture of particulate coal containing releasable plant nutrients, sodium
molybdate which serves to release the plant nutrients in a form that plants can use,
and one or more auxiliary agents selected from ferric sulfate, magnesium sulfate,
sodium chloride, zinc sulfate, zinc chloride, copper sulfate, sulfur, hydrated sodium
borate, brunt limestone and cobalt carbonate. The coal particulate has a maximum
mesh size of about 100 mesh and comprises from about 50-75 weight percent of the
total weight of the composition, the molybdate is present in an amount ranging from
0.001 to 0.100 percent by weight of the composition and the auxiliary agent(s)
comprise the balance of the composition.
Summary of the Invention
As indicated, the present invention provides certain improvements in the
compositions described in U.S. Patent 4,541,857. These improvements maintain the
useful features of the composition described in the earlier patent but also result in
further advantages as detailed hereinafter, including, for example, enhanced growth
and yield of plants and expanded applicability and use of the composition.
An important modification in the compositions of U.S. 4,541,857 which the
present invention provides is the use of a linear alcohol alkoxylate, e.g. a
poly(ethylene oxide) ether with a C12-C15 linear primary alcohol.
Other essential features of the present composition include the use of a
substantial amount of sand and a small amount of water. Further features will also
be evident from the more detailed description of the invention which follows.
Detailed Description of the Invention
The plant growth composition of the invention consists essentially of the
following components:
(1) 40-80%, preferably 70-80%, by weight of particulate coal;
(2) 0.01 to 1%, preferably 0.5 to 1%, by weight of sodium molybdate;
(3) from 0.2 to 2% by weight water;
(4) from 0.1 to 1% by weight of linear alcohol alkoxylate;
(5) from .001 to 4% by weight of magnesium sulfate; with
(6) the balance, usually in an amount of about 20-60% by weight of the
overall composition, being sand.
The composition thus consists primarily of coal and sand in its preferred
embodiment although molybdate, linear alcohol alkoxylate, magnesium sulfate and
water, within the limits indicated, are also essential for the success of the invention.
Of the indicated components, the coal particulate is advantageously as
described in the earlier U.S. Patent 4,541,857 referred to above! Thus, the coal
particulate may be of any type, for instance, anthracite, bituminous, sub-bituminous
or lignite, and can be of varying quality all of which generally contain from about 0.5
to 3.0 percent of known nitrogen. Other plant nutrients present in coal and made
available for use by plants in accordance with the present invention include iron,
phosphorus, potassium, sulfur or sulfates, calcium, chloride and at least traces of
manganese, copper, boron, cobalt, alumina and selenium. High sulfur content coal
has been found to be particularly advantageous.
Advantageously, the coal is of 100 mesh particufate size or smaller, i.e. it is
such that it passes through a 100 mesh Tyler Screen. Larger and smaller sizes can
be effectively used ranging from, for example, -50 mesh to about -300 mesh.
Particles larger than 100 mesh, however, tend to release plant nutrients more slowly.
Hence, it is preferred to use a coal particulate of 100 mesh size or finer, i.e. particles -.
which will pass through a 100 mesh Tyler Screen.
While any type of coal can be used, preferably one of high sulfur content, the
coal composition specifically exemplified in U.S. 4,541,857 may be cited as typical
for use herein. Such coal, on a dry basis, has the following ultimate analysis:
carbon: 73.19%
hydrogen: 5.05%
nitrogen: 1.32%
chlorine: 0.07%
sulfur: 4.50%
ash: 6.00% and
oxygen: 9.87%
This composition can also be defined on a mineral analysis-ignited basis as follows:
phosphorus pentoxide: 0.26%
silica: 32.95%
ferric oxide: 33.09%
alumina: 22.13%
titania: 0.68%
lime: 2.66%
manganese: 0.52%
sulfur trixoide: 3.24%
potassium oxide: 1.43%
sodium oxide: 0,51% and
undetermined: 2.53%
As explained in U.S. 4,541,857, the sodium molybdate appears to function in
some way to digest the coal particulate and to release plant nutrients from the
participate in a way which enables plants to effectively and advantageously use
these nutrients. While the amount of molybdate can be varied and may in some
instances fall outside the ranges earlier stated, depending on the nature and size of
the coal particulate, best results appear to be obtainable when the molybdate
content is in the range of 0.5-1 % by weight of the total composition. More than this
preferred amount can be used although it is believed that effective digestion of the
coal is realized by using the molybdate in the amount indicated.
The linear alcohol alkoxylate is preferably a primary linear C12 to C15 alcohol,
e.g. dodecyl alcohol or mixture thereof with other C12-C15 alcohol, which has been
ethoxylated, i.e. a polyethylene oxide ether of a primary linear alcohol, preferably a
primary alcohol of 12-15 carbons. A preferred linear alcohol alkoxylate for use
herein is available commercially as "Basic H" surfactant. This material, or its
equivalent, may be used for present purposes.
As indicated, the composition should also contain a small amount of water,
usually not more than about 2% by weight. It appears that this small amount of
water facilitates the effect of the alkoxylate and also seems to help activate the plant
growth elements of the coal component.
Any convenient source of sand may be used. The amount of sand employed
can be varied and will depend, at least to some extent, on the nature and
composition of the coal component, and the amounts of other materials present.
However, generally speaking, the amount of sand in the composition will fall within
the range earlier stated herein, i.e. 20-60% by weight.
Optimum results appear to be obtained with sand which includes small
amounts, e.g. 0.001 to 0.01% by weight, of magnesium sulfate, copper sulfate and
other similar trace metal sulfates.
In addition to any magnesium sulfate which may be included in the sand, it is
useful to add magnesium sulfate in an amount of from .001 to 4% by weight of the
The composition may be prepared in any convenient fashion. Preferably,
however, the coal and sand are uniformly mixed together after which the sodium
molybdate, alkoxylate and magnesium sulfate, in water are sprayed over the
coal/sand mixture while stirring to insure uniformity. The product is then allowed to
dry after which it may be bagged for later use or applied directly to the soil at the
place of use.
As an alternative, the mixture of coal and sand may be placed at the site of
use, e.g. around the base of a fruit tree, after which an aqueous mix of molybdate
and alkoxylate is sprayed over the coal/sand mix. The magnesium sulfate may be
included in the aqueous spray of alkoxylate and molybdate or it may be included in
the coal/sand mix.
In a typical preparation, 1 to 4 ounces of sodium molybdate and up to 1 gallon
of the alkoxylate, with or without magnesium sulfate, are mixed with 50 gallons, more
or less, of water to form a spray mixture. This mixture is then sprayed over a dry mix
of coal particulate and sand and magnesium sulfate. Advantageously the mixture of
molybdate and alkoxylate in water is sprayed over a dry mix of coal, sand and
magnesium sulfate after the dry mix has been applied to the field or soil where plant
growth is desired although, as earlier noted, the entire composition, including the
molybdate and alkoxylate, can be prepared before application to the field or soil.
. Whether pre-formed or prepared in situ, it appears that the spray of molybdate and
alkoxylate helps to activate the nutrients or growth elements in the coal.
The composition of the invention is usable under most, if not all, soil
conditions globally. An important advantage of the invention, as shown below, is that
the composition appears to be able to convert soil which is unsatisfactory for
agricultural purposes into soil which is highly useful. In extensive testing, the product
has consistently exceeded yield by 50-100% per acre production as measured
against conventionally available N-P-K fertilizers which are in common usage.
The invention is illustrated by the following examples:
Example 1
70 lbs. of high-sulfur coal were pulverized to a particle size of-100 mesh and
mixed with 25 lbs. of sand and 4 lbs. of magnesium sulfate. The resultant mix was
then placed around the base of peach trees, unfilled, growing in clay soil in Western
Pennsylvania in the spring. Clay soil and the Western Pennsylvania climate are not
generally favorable for growing peaches. The trees had been barren for 8 years.
After the dry mix was spread (not plowed) around the trees, the mixture was
sprayed with a liquid composition comprising 50 gallons of water, 1 gallon Basic H
type (polyethylene oxide ether of C12-C15 primary alcohols) and 4 ounces of sodium
molybdate. No pesticides, herbicides, insecticides or fungicides were used. The
resulting peaches appeared to be flawless with excellent rich color and superior
taste. The yield over the growing period (about 4 months) was so large per tree that
wooden support stakes had to be used to prop the trees up under the weight of the
fruit crop.
Example 2
Example 1was repeated except that, in this case, the composition was used
with 30 year old apple trees which were past their prime and growing in clay soil in
Pennsylvania. Although in this case the apple trees had previously borne fruit, the
yield had been sparse. About 100 pounds of the composition spread around the
base of the tree followed by spraying with the liquid mixture referred to in Example 1.
The composition was applied around the trees in April. The trees blossomed in May
and bore fruit by late summer. The yield of apples obtained was greatly increased
over past years. The quality of the apples was also outstanding.
Example 3
Improvements in yield, quality and size were also obtained when the
experiment of Example 2 was repeated with stonehead cabbages grown in the same
Pennsylvania clay soil. The expected normal cabbage diameter was about six
inches. However, by applying the composition to the soil in the spring immediately
after planting, cabbages that were fourteen inches in diameter were consistently
obtained by mid-summer. Insect damage was essentially non-existent although no
pesticide was applied. The indicated results were obtained notwithstanding the fact
that weeds were intentionally not removed and consequently competed with the
cabbage for soil nutrients.
It was noted, in conducting the tests referred to in the foregoing Examples,
that earthworms tended to arrive during crop growth and remained in the soil,
thereby functioning to nutritionally enrich the soil.
Example 4
The growth composition of Example 1 was compared with a commercially
available N-P-K fertilizer in a 24 acre corn field test. The field had been unusable for
40 to 50 years. It was located on a mountain and had 1 inch of soil before shale rock
was encountered, representing the worst type of field test conditions. It was
estimated that 4000 lbs. of limestone, 120 pounds of nitrogen and 180 pounds of
phosphorus would have to be used on each acre to effectively grow corn on the site.
However, it was decided to use only about 200 pounds per acre of the present
composition with no lime.
Photographs were taken periodically. The N-P-K corn field, comprising a four-
acre plot, failed as expected. No crop resulted on any of the four acres with stunted
ears of shriveled "bread and butter" corn seen only sporadically. This was typical of
prior results.
The adjoining portion of the test field, separated from the N-P-K corn plot by
only 12 yards, involved 20 acres using a growth composition according to Example
1. All 20 acres yielded useful corn plants some of which stood 104 inches high. The
crop was a complete success yielding an average of 100 bushels of perfectly shaped
"bread and butter" corn per acre for each of the 20 test acres whereas, in the past,
using lime and N-P-K fertilizer, the total yield was 50 bushels of corn for the entire 24
acre field. No pesticides or herbicides were used in the experiment, no stock
damage or discoloration occurred; and the kernels of corn were found to be in
perfect rows. Furthermore, in addition to the greatly increased yield per acre,
significantly less growth composition according to the invention was used on the 20
acre tract than on the 4 acre failed U-P-K field.
The results of Example 4 indicate that the growth composition of the invention
can be used for the production of corn on underused or farm lands which would
otherwise be considered too poor to be useful. Such production could be highly
valuable in, for example, ethanol production.
It will be appreciated that the amount of the present composition which is
applied to the soil can be widely varied. It has been found that the application of 200
pounds of the composition, e.g. the composition of Example 1, per acre is usually
effective to give the desired results. More or less than this amount can be used, the
optimum amount for any particular situation being readily determined by varying the
application and observing the results. The use of from about 100 to 300 pounds, or
more, per acre is generally sufficient to obtain the desired results with something
around 200 pounds per acre being preferred.
While the invention has been shown in the foregoing examples to improve the
yield of fruit (apples and peaches), corn and cabbage, the invention is not limited to
such fruits or vegetables. Similar improved results have been obtained with, for
example, tomatoes, hay, alfalfa or the like. In another application of the invention,
the composition has been used to grow effective grass cover over ground made bare
by coal mine stripping. In that particular situation, it had previously been impossible
to provide ground cover as required by state and Federal authorities. The
composition of the invention was sprayed as an aqueous spray (hydroseeded) with
grass seed over the ground and, in about two weeks time, complete ground cover
was obtained.
Analysis of a composition according to the invention as used in the foregoing
examples for percent solids, volatile solids, total carbon (Total C), total nitrogen
(Total N), organic nitrogen (Org-N), ammonium nitrogen (NH4-N), phosphorus (P),
potassium (K), magnesium (Mg), calcium (Ca), sodium (Na), cadmium (Cd),
chromium (Cr), copper (Cu), lead (Pb), nickel (Ni), zinc (Zn) and boron (B) has given
the following results:
Major Constituents (all values in percent by mass ± standard deviation)
Solids 95.9 ±0.14
Volatiles 35.8 ±4.7
Total C 22.7 ±1.1
Total N 4.98 ±0.16
OrgN 3.17 ±0.35
NH4-N 1.82 ±0.50
P 2.1 ±0.33
K 5.6 ±0.69
Mg 2.1 ±0.11
Ca 6.6 ±0.35
Na 029 ± 0.02
Fe 0.63 ±0.02
Al 2.1 ±0.16
Mn 0.31 ±0.02.
Trace Elements (all values in mg/kg or ppm ± standard deviation)
Cd 0.46 ± 0.02
Cr 49.85 ±4.59
Cu 9.35 ± 0.35
Pb 42.15 ±2.05
Ni 1.5 ±014
Zn 33.5 ±2.19
B 184 ±13
The Mo content was not determined in the analysis.
Based on the foregoing analysis, the composition could be viewed as a 5-5-7
(N-P-K) composition where N is presented as %N, P is presented as %P2O5 and K is
presented as %K2O, as is typical for fertilizer assays. The precise formulation is 5-
4.8-6.8. Therefore, 10 dry tons of this material will supply 100 fbs. of Total N, and
2.4 dry tons of the material will supply 100 lbs. of P. None of the trace elements are
present at concentrations that would pose a concern for land application of this
material as a fertilizer. Although Cr, Pb and Zn concentrations are greater than 10
ppm, these values are not any higher than one would measure in unpolluted
(pristine) soils because these elements are present in rock materials as well. The
high concentration of organic C and N indicates that addition of the material to soil
would increase the organic matter content of the soil, resulting in an overall
improvement in soil quality, over and above that resulting from an equivalent amount
of nutrient addition alone.
It will be appreciated from the foregoing that the composition of the invention
offers a number of important advantages. For one thing, the composition, in addition
to improving crop yields and functioning in less than optimum soil conditions, has the
direct effect of enriching soil, not depleting it. As is well known, the use of N-P-K
fertilizer has the opposite effect. Soils throughout the world have been severely
depleted of nutrients, and polluted by the use of insecticides, herbicides, pesticides
and fungicides over centuries of usage but especially during the past 50 years.
Excessive, repeated and ever-increasing amounts of N-P-K (nitrogen, phosphate
and potash) or artificial fertilizer have been required to yield crops from the depleted
soil, all at ever-increasing cost and all this occurring while the quality of crops such
as corn, tomato, watermelon or other vegetable or fruit, is diminished. Tests with the
invention indicate that less of the growth compound is required per acre to match
and exceed crop yields from artificial commercial fertilizer blends (N-P-K).
Additionally, the present composition appears to minimize the need for pesticides,
insecticides, herbicides and fungicides. This has been true with all crops tested from
corn to cabbage, tomatoes, melons, peaches, appfes, beans and other vegetabfes.
In all testing to date, no pesticides or herbicides have been required or used on the
crops. No negative side effects have been observed and, in fact, the opposite
appears to be true in the resultant addition of nutrients to the soil and consequent
improved crop yield.
In addition to reducing costs while improving plant growth results, the
composition of the invention offers a number of other advantages. For example, the
invention can be used to reclaim previously unusable soils, e.g. coal strip-mining and
deep-mining soil. As a test, the composition of the invention as in Examples 1-4 was
applied on the surface of "hot" or acidic soil resulting from a coal mining operation in
Pennsylvania. Previous attempts to create ground cover as required by authorities
had failed. However, effective ground cover was obtained over the area in about 10
days after application of the present composition.
As will be appreciated from the foregoing, advantages of the present
composition include the following: it avoids the use of costly N-P-K fertilizers or the
equivalent and the disadvantages of such fertilizers. It eliminates or reduces
substantially the need for pesticides, herbicides and fungicides, the composition
apparently tending to fend off such pests naturally. It appears to enable and
promote more uniform water penetration in the soil making the nutrients released
from the coal more available to the plant over a shorter period of time than possible
with conventional fertilizers. Additionally, the present composition has no negative
effect on soil pH, results in greener plant leaves, promotes sprouting of seeds,
increases plant yield, promotes the appearance of earthworms which aid the nutrient
enrichment of the soil, promotes larger, taller and thicker plants, crops and plant
stalks; promotes more efficient water usage because it retains water in the soil
thereby reducing soil erosion, water evaporation and water runoff, white separately
promoting drainage in soil areas of excessive water accumulation and promotes
water retention during dry weather, but, conversely, helps water leach through the
soil in hot or dry weather.
Various modifications may be made in the invention as described above and
as define in the following claims wherein:
1. A bio-degradable plant growth composition consisting essentially of coal
particulate, sodium molybdate, linear alcohol alkoxylate, magnesium sulphate,
sand and water.
2. The composition as claimed in claim 1, consisting essentially of from 40 to
80% by weight coal particulate of 100 mesh or finer; from 0.01 to 1% by weight
of sodium molybdate; 0.2 to 2% by weight of water; from 0.1 to 1% by weight of
linear alcohol alkoxylate; from 0.001 to 4 % by weight of magnesium sulphate;
and the balance, about 20 to 60% by weight of sand.
A bio-degradable plant growth composition consisting essentially of coal
particulate, sodium molybdate, linear alcohol alkoxylate, magnesium sulphate, and or
other filler and water.






40-kolnp-2004-granted-description (complete).pdf

40-kolnp-2004-granted-examination report.pdf

40-kolnp-2004-granted-form 1.pdf

40-kolnp-2004-granted-form 18.pdf

40-kolnp-2004-granted-form 3.pdf

40-kolnp-2004-granted-form 5.pdf


40-kolnp-2004-granted-letter patent.pdf

40-kolnp-2004-granted-reply to examination report.pdf


Patent Number 214069
Indian Patent Application Number 00040/KOLNP/2004
PG Journal Number 05/2008
Publication Date 01-Feb-2008
Grant Date 30-Jan-2008
Date of Filing 13-Jan-2004
# Inventor's Name Inventor's Address
PCT International Classification Number C05F11/02
PCT International Application Number PCT/US01/44290
PCT International Filing date 2001-11-28
PCT Conventions:
# PCT Application Number Date of Convention Priority Country
1 PCT/US01/44290 2001-11-28 U.S.A.