SlideShare a Scribd company logo
Title: Studies on effect of herbal extract Fugall
(CO2 absorbent) on Cotton.
Vasumitra Life Energies Pvt. Ltd
Pune, India
Dr. Hemangee Jambhekar, Research Director, Vasumitra
Dr. B C Patil, Principal Scientist, Agriculture Research Station, Dharwad
GPB, 2019
About Sanjeevan System
 Based on principle of internal energy or vital energy
management which is the base of Yog Shastra.
 Vital energy governs the internal function of any living being
through the energies of:
 Panch Mahabhutas i.e. five basic elements and
 Panch Pranas i.e. five life forces.
Panch
Mahabhutas
Panch Pranas Function Plant Body Part
Prithvi- Earth
Apana: Life force of
earth element
Nutrient absorption,
formation of plant body
Roots, stem, branches
Jal- Water
Samana: Life force
of water element
Nutrient transport Zylem, phloem
Tej- Fire
Udana: Life force of
fire element
Photosynthesis, enzymatic/
hormonal reactions
Enzymes, hormones,
chlorophyll, seed, fruit
Vayu- Gas
Prana: Life force of
gas element
Respiration Stomata cells, leaves
Akash- Space
Vyan: Life force of
space element
Making space available for
any reaction
Vacuoles in cells
Co-relation Between Principles of Yog Shastra
and Plant Physiology
• Because of unfavorable climatic conditions
and any external interference in the life-cycle
of plant, physiological processes are disturbed.
• Sanjeevan system has identified certain herbs
which activate/ induce the energies Pancha
Mahabhutas and Pancha Pranas. This
optimizes the physiological processes.
How Does Sanjeevan System work?
• Nutrient Absorption by plants
• Respiration
• Photosynthesis
• Systemically acquired resistance
• Enhancing tolerance to abiotic stress
Sanjeevan System for Various
Physiological Processes
Low temperature
Heavy rain or
Cloudy conditions
High temperature
Drought
Inefficient CO2 absorption
Stress on Respiration
Loss in Yield
Photosynthesis is poor
Fluctuating climatic conditions
Name of Herbs
Function as per Sanjeevan
System
Function Reference
Bambusa vulgaris or
Bamboo
Activates energy of Tej (Fire) &
Vayu (Gas)
Photosynthesis,
Maximum CO2 and Si
absorption
Seethalakshmi et al.
(2009);
Nath et al. (2008);
Kumar et al. (2005)
Sansevieria trifasciata
or Snake plant
Activates energy of Vayu (Gas)
Enhances CO2 absorption in
day and night
Thongsanit et al. (2015)
Ocimum basilicium
or Tulsi
Activates energy of Tej (Fire) &
Vayu (Gas)
Photosynthesis,
Maximum CO2 absorption
Andrzej Kalisz et al. (2016)
Ficus religiosa or
Peepal tree
Activates energy of Tej (Fire) &
Vayu (Gas)
Photosynthesis,
Maximum CO2 absorption
Chandrasekar et al. (2010)
Musa acuminata
or Banana
Activates energy of Tej (Fire)
Rich in K and Mg. Enhances K
and Mg uptake
Sampath Kumar et al.
(2012)
Ascophyllum nodosum
or Sea weed
Activates energy of Tej (Fire) Enhances photosynthesis Khan et al. (2009)
Boerhavia diffusa L.
or Punarnava
Activates energy of Tej (Fire)
Rich in Mg, K, Ca. Helps for
uptake of Mg and K
Juna Beegum et al. (2014)
Herbs Used in Formulation of Fugall
 Samved fugall enhances efficiency of
respiration and absorption of CO2 .
 Samved fugall also promotes balanced
uptake of P, K, Mg and Si.
 Increase in leaf area, chlorophyll
content, photosynthesis rate.
 Increase in yield, weight and size of
crop.
Effect of Samved Fugall
Objectives of the Experiment
 To Study the effect of Fugall on growth & yield
of Bt. cotton hybrid.
 To quantify the influence of foliar application
of Fugall on gas exchange and phenology in Bt.
cotton hybrid.
Materials and Method
Treatment No. Treatments Details
T1: Recommended dose (RD) of N, P and K-Control.
T2: RD+ Foliar application of water (60 & 90 DAS).
T3: RD+ Foliar application of Fugall @ 2ml/lit (60 and 90 DAS).
T4: RD+ Foliar application of Fugall @ 3ml/lit (60 and 90 DAS).
T5: RD+ Foliar application of Fugall @ 4ml/lit (60 and 90 DAS).
T6: RD+ Drenching of Fugall@ 0.5litre/acre.
T7: Foliar application of methanol 5% (at 60 and 90 DAS)
a) Design: RBD
b) Date of sowing: 04-07-2012
c) Replication: 3
d) Spacing: 90 x 60cm
e) Variety: Bunny Bt (NCS-145 Bt) BG-II
f) Fertilizer dose: 80:40:40kg/ha (NPK)
g) Date of imposition of treatment: 07-07-2012
h) Date of harvest: 10- 01-2013
Details of Experiments
Agricultural Research Station Dharwad Farm, Dharwad Seasonal
& Crop Condition (2012-13)
 Year 2012: drought year which received total rainfall of 549.00mm.
 Late onset of rainfall: sowing delayed by 30-40 days.
 Although sowing was done in July, the crop growth was stunted because of less rainfall.
 No rainfall from 40-88 days except about 30mm at around 55-60 days.
 The overall crop growth is reduced and yield reduction is expected in any case. In the
farmers fields also there was reduced growth due to less rainfall in majority districts.
2012 Normal Rainfall No. of rainy days 2012
Total rainfall 549.00 756.10 38
Table 1: Rainfall (mm) received at ARS, Dharwad
SI.
No.
Treatments
Plant height
(cm)
No. of leaves/ plants
1 T1: Recommended dose (RD) of N, P and K-Control. 41.70 28.63
2 T2: RD+ Foliar application of water (60 & 90 DAS). 44.90 29.30
3
T3: RD+ Foliar application of Fugall @ 2ml/lit (60 and
90 DAS).
48.20 40.90
4
T4: RD+ Foliar application of Fugall @ 3ml/lit (60 and
90 DAS).
45.50 40.77
5
T5: RD+ Foliar application of Fugall @ 4ml/lit (60 and
90 DAS).
46.30 32.47
6 T6: RD+ Drenching of Fugall @ 0.5litre/acre. 43.60 40.17
7
T7: Foliar application of methanol 5% (at 60 and 90
DAS)
43.40 38.33
Mean 44.80 35.87
SEm± 0.80 2.32
CD @ 5% 2.47 7.14
CV % 3.10 11.19
Table 1: Plant height, No. of leaves per plants in cotton as
influenced by Fugall (CO2 absorbent) on Bt Cotton.
41.7
48.2
28.63
40.9
0
10
20
30
40
50
60
T1 T2 T3 T4 T5 T6 T7
Plant height
(cm)
No. of leaves/
plants
Plant height in T3 treatment shows 15.59% increase over control and
No. of leaves/plant shows 42.86% increase over control
Plant height, No. of leaves per plants in cotton as
influenced by Fugall (CO2 absorbent) on Bt Cotton.
SI.
No.
Treatments
No. of Days to 50%
Monopodia Sympodia
Squaring Flowering
1
T1: Recommended dose (RD) of N, P and
K-Control.
66.00 91.67 1.53 12.40
2
T2: RD+ Foliar application of water (60 &
90 DAS).
63.70 89.00 1.70 13.40
3
T3: RD+ Foliar application of Fugall @
2ml/lit (60 and 90 DAS).
62.70 85.67 1.77 13.80
4
T4: RD+ Foliar application of Fugall @
3ml/lit (60 and 90 DAS).
65.00 91.33 1.57 13.10
5
T5: RD+ Foliar application of Fugall @
4ml/lit (60 and 90 DAS).
64.30 91.33 1.57 13.60
6
T6: RD+ Drenching of Fugall @
0.5litre/acre.
63.70 89.00 1.67 13.60
7
T7: Foliar application of methanol 5% (at
60 and 90 DAS)
63.70 89.33 1.60 14.20
Mean 64.14 89.62 1.63 13.45
SEm± 0.61 1.11 0.14 0.28
CD @ 5% 1.89 3.42 NS 0.87
CV % 1.66 2.15 15.50 3.63
Table 2: Phenology in cotton as influenced by Fugall
(CO2 absorbent) on Bt Cotton.
SI.
No.
Treatments
LAI
(at 90 DAS)
LAI
(at 120 DAS)
1 T1: Recommended dose (RD) of N, P and K-Control. 1.36 2.43
2 T2: RD+ Foliar application of water (60 & 90 DAS). 1.75 2.69
3
T3: RD+ Foliar application of Fugall @ 2ml/lit (60
and 90 DAS).
2.11 2.96
4
T4: RD+ Foliar application of Fugall @ 3ml/lit (60
and 90 DAS).
1.62 2.30
5
T5: RD+ Foliar application of Fugall @ 4ml/lit (60
and 90 DAS).
1.81 2.82
6 T6: RD+ Drenching of Fugall @ 0.5litre/acre. 1.77 2.59
7
T7: Foliar application of methanol 5% (at 60 and 90
DAS)
1.94 2.63
Mean 1.77 2.63
SEm± 0.12 0.12
CD @ 5% 0.38 0.38
CV % 12.07 8.04
Table 3: Effect of Fugall (CO2 absorbent) on Leaf
area index in Bt Cotton
0
0.5
1
1.5
2
2.5
3
3.5
T1 T2 T3 T4 T5 T6 T7
LAI (at 90 DAS)
LAI (at 120 DAS)
Leaf Area Index in treatment T3 at 90 DAS shows 55.15% increase over
control and at 120 DAS shows 21.81% increase over control
Effect of Fugall (CO2 Absorbent) on Leaf Area
Index in Bt Cotton
Sl.
No.
Treatments
Photosynthesis
rate (90 DAS)
Photosynthesis
rate (110 DAS)
SPAD
(90 DAS)
1
T1: Recommended dose (RD) of N, P and K-
Control.
10.43 12.54 40.00
2
T2: RD+ Foliar application of water (60 & 90
DAS).
10.83 14.97 43.10
3
T3: RD+ Foliar application of Fugall @
2ml/lit (60 and 90 DAS).
18.23 22.60 44.60
4
T4: RD+ Foliar application of Fugall @
3ml/lit (60 and 90 DAS).
18.03 `19.03 40.70
5
T5: RD+ Foliar application of Fugall @
4ml/lit (60 and 90 DAS).
16.80 16.48 41.80
6 T6: RD+ Drenching of Fugall @ 0.5litre/acre. 16.87 18.20 43.10
7
T7: Foliar application of methanol 5% (at 60
and 90 DAS)
17.66 18.13 41.70
Mean 15.55 17.42 42.14
SEm± 1.36 0.85 1.28
CD @ 5% 4.20 0.64 NS
CV % 15.20 8.52 5.27
Table 4: Effect of Fugall (CO2 absorbent) on Photosynthesis rate (µ mol CO2
fixed per m2 per second) and SPAD values (Chlorophyll content) on Bt Cotton.
10.43
18.23
12.54
22.6
0
5
10
15
20
25
T1 T2 T3 T4 T5 T6 T7
Photosynthesis
rate (90 DAS)
Photosynthesis
rate (110 DAS)
Photosynthesis in T3 treatment at 90 DAS shows 74.78% increase over
control and at 110 DAS shows 80.22% increase over control
SPAD values in T3 treatment shows 11.50% increase over control
Effect of Fugall (CO2 absorbent) on Photosynthesis rate (µ
mol CO2 fixed per m2 per second) on Bt Cotton.
SI.
No.
Treatments
Yield
(Kg/ha)
Boll wt.
(g/boll)
Number
of bolls/ plant
1 T1: Recommended dose (RD) of N, P and K-Control. 824 3.75 14.90
2 T2: RD+ Foliar application of water (60 & 90 DAS). 935 4.57 15.90
3
T3: RD+ Foliar application of Fugall @ 2ml/lit (60 and 90
DAS).
1084 4.92 18.30
4
T4: RD+ Foliar application of Fugall @ 3ml/lit (60 and 90
DAS).
1058 4.68 17.70
5
T5: RD+ Foliar application of Fugall @ 4ml/lit (60 and 90
DAS).
1035 4.02 15.90
6 T6: RD+ Drenching of Fugall @ 0.5litre/acre. 954 4.28 15.30
7
T7: Foliar application of methanol 5% (at 60 and 90
DAS)
894 4.55 16.70
Mean 969.00 4.40 16.40
SEm± 50.35 0.21 0.71
CD @ 5% 155.07 0.65 2.19
CV % 9.00 8.32 7.54
Table 5: Seed cotton yield and yield components in cotton
as influenced by Fugall (CO2 absorbent) on Bt Cotton.
0
500
1000
1500
T1 T2 T3 T4 T5 T6 T7
Yield…
0
5
10
15
20
T1 T2 T3 T4 T5 T6 T7
Number of
bolls/ plant
Seed cotton yield
in T3 treatment
shows 31.55%
increase over
control.
No. of bolls/ plant in
T3 treatment shows
22.82% increase over
control and Boll
weight shows 31.20%
increase over control.
Seed cotton yield and yield components in cotton
as influenced by Fugall (CO2 absorbent) on Bt Cotton.
Parameter T3 Control
Plant Height (cm) 48.2 41.7
Number of leaves / plant 40.9 28.63
Phenology
Days taken to 50% squaring 62.7 66
Days taken to 50% flowering 85.67 91.67
Number of sympodia/plant 13.80 12.40
Leaf area index 2.96 Significantly less
Photosynthesis rate 22.6 Significantly less
SPAD values No significant difference
Yield and yield components
Seed cotton kg/ha 1084 824
Number of bolls 18.30 14.90
Boll weight g / boll 4.92 3.75
Comparison Between T3 and Control
 Even during unfavorable conditions such as drought year, Fugall was
extremely effective in enhancing CO2 absorption and thereby increasing the
yield.
 Foliar application of Fugall @ 2 ml/lit of water at 60 and 90 DAS recorded
significantly more seed cotton yield.
 This has been supported from the physiological observation like rate of
photosynthesis, leaf area index, total leaves, plant height and more number of
sympodial branches including yield components viz. boll weight and number of
bolls per plant.
Conclusion:
Effect of Samved Fugall (CO2 absorbent) on BT Cotton

More Related Content

Similar to Effect of Samved Fugall (CO2 absorbent) on BT Cotton

Use of paclobutrazol in fruit crops
Use of paclobutrazol in fruit cropsUse of paclobutrazol in fruit crops
Use of paclobutrazol in fruit crops
farheen
 
Effect of Foliar Application of Liquid Organic Fertilizers on crop growth and...
Effect of Foliar Application of Liquid Organic Fertilizers on crop growth and...Effect of Foliar Application of Liquid Organic Fertilizers on crop growth and...
Effect of Foliar Application of Liquid Organic Fertilizers on crop growth and...
Vasantrao Nail Marathwada Krishi Vidyapeeth, Parbhani
 
Hi-tech Pre-shooting and Post-shooting Horticultural Technologies in Banana.pptx
Hi-tech Pre-shooting and Post-shooting Horticultural Technologies in Banana.pptxHi-tech Pre-shooting and Post-shooting Horticultural Technologies in Banana.pptx
Hi-tech Pre-shooting and Post-shooting Horticultural Technologies in Banana.pptx
Dr. Kalpesh Vaghela
 
Effect of Biofertilizers and their Consortium on Horticultural Crops
Effect of Biofertilizers and their Consortium on Horticultural CropsEffect of Biofertilizers and their Consortium on Horticultural Crops
Effect of Biofertilizers and their Consortium on Horticultural Crops
SourabhMohite
 
Sriom
SriomSriom
Sriom
PaingSoe42
 
Effects of Paclobutrazol on fruit yield and physico-chemical characteristics ...
Effects of Paclobutrazol on fruit yield and physico-chemical characteristics ...Effects of Paclobutrazol on fruit yield and physico-chemical characteristics ...
Effects of Paclobutrazol on fruit yield and physico-chemical characteristics ...
Agriculture Journal IJOEAR
 
Green House Effect, Methane Emission and its Relevance to Abiotic Stress, Use...
Green House Effect, Methane Emission and its Relevance to Abiotic Stress, Use...Green House Effect, Methane Emission and its Relevance to Abiotic Stress, Use...
Green House Effect, Methane Emission and its Relevance to Abiotic Stress, Use...
AmanDohre
 
Propagation of pomegranate (Punica granatum L.) by tissue culture
Propagation of pomegranate (Punica granatum L.) by tissue culture Propagation of pomegranate (Punica granatum L.) by tissue culture
Propagation of pomegranate (Punica granatum L.) by tissue culture
Abdul Hakim Salehi
 
Sunflower nutrient management
Sunflower nutrient managementSunflower nutrient management
Sunflower nutrient management
pradeep ram
 
Nutrient management in kharif fodder crops.pptx
Nutrient management in kharif fodder crops.pptxNutrient management in kharif fodder crops.pptx
Nutrient management in kharif fodder crops.pptx
anju bala
 
Integrated nutrient management approaches under system of rice intensificatio...
Integrated nutrient management approaches under system of rice intensificatio...Integrated nutrient management approaches under system of rice intensificatio...
Integrated nutrient management approaches under system of rice intensificatio...
Ashutosh Pal
 
Effect of mulch on organic tomato cultivation
Effect of mulch on organic tomato cultivationEffect of mulch on organic tomato cultivation
Effect of mulch on organic tomato cultivation
Subhayan Das
 
effect of gases on vegetable production
effect of gases on vegetable productioneffect of gases on vegetable production
effect of gases on vegetable production
Richa Naula
 
Effect of integrated nutrient management and mulching practices on performanc...
Effect of integrated nutrient management and mulching practices on performanc...Effect of integrated nutrient management and mulching practices on performanc...
Effect of integrated nutrient management and mulching practices on performanc...
PRAVEEN KUMAR
 
INTEGRATED NUTRIENT MANAGEMENT FOR SUSTAINABLE VEGETABLE CROP PRODUCTION
INTEGRATED NUTRIENT MANAGEMENT FOR SUSTAINABLE VEGETABLE CROP PRODUCTION INTEGRATED NUTRIENT MANAGEMENT FOR SUSTAINABLE VEGETABLE CROP PRODUCTION
INTEGRATED NUTRIENT MANAGEMENT FOR SUSTAINABLE VEGETABLE CROP PRODUCTION
Vasantrao Nail Marathwada Krishi Vidyapeeth, Parbhani
 
EFFECT OF PRE AND POST HARVEST TREATMENTS ON SHELF LIFE AND QUALITY OF PAPAY...
EFFECT OF  PRE AND POST HARVEST TREATMENTS ON SHELF LIFE AND QUALITY OF PAPAY...EFFECT OF  PRE AND POST HARVEST TREATMENTS ON SHELF LIFE AND QUALITY OF PAPAY...
EFFECT OF PRE AND POST HARVEST TREATMENTS ON SHELF LIFE AND QUALITY OF PAPAY...
Dr. Kalpesh Vaghela
 
No 18. effect of organic fertilizers on the performance of seed potato 2
No 18. effect of organic fertilizers on the performance of seed potato 2No 18. effect of organic fertilizers on the performance of seed potato 2
No 18. effect of organic fertilizers on the performance of seed potato 2
PARTNER, BADC, World Bank
 
Rice culture and greenhouse gas emission
Rice culture and greenhouse gas emissionRice culture and greenhouse gas emission
Rice culture and greenhouse gas emission
Jagadish.M Gayakwad
 
INM in legumes
INM in legumesINM in legumes
INM in legumes
Jigar Joshi
 
Integrated nutrient management influence on crop yields in dryland agriculture
Integrated nutrient management influence on crop yields  in dryland agricultureIntegrated nutrient management influence on crop yields  in dryland agriculture
Integrated nutrient management influence on crop yields in dryland agriculture
archana reddy
 

Similar to Effect of Samved Fugall (CO2 absorbent) on BT Cotton (20)

Use of paclobutrazol in fruit crops
Use of paclobutrazol in fruit cropsUse of paclobutrazol in fruit crops
Use of paclobutrazol in fruit crops
 
Effect of Foliar Application of Liquid Organic Fertilizers on crop growth and...
Effect of Foliar Application of Liquid Organic Fertilizers on crop growth and...Effect of Foliar Application of Liquid Organic Fertilizers on crop growth and...
Effect of Foliar Application of Liquid Organic Fertilizers on crop growth and...
 
Hi-tech Pre-shooting and Post-shooting Horticultural Technologies in Banana.pptx
Hi-tech Pre-shooting and Post-shooting Horticultural Technologies in Banana.pptxHi-tech Pre-shooting and Post-shooting Horticultural Technologies in Banana.pptx
Hi-tech Pre-shooting and Post-shooting Horticultural Technologies in Banana.pptx
 
Effect of Biofertilizers and their Consortium on Horticultural Crops
Effect of Biofertilizers and their Consortium on Horticultural CropsEffect of Biofertilizers and their Consortium on Horticultural Crops
Effect of Biofertilizers and their Consortium on Horticultural Crops
 
Sriom
SriomSriom
Sriom
 
Effects of Paclobutrazol on fruit yield and physico-chemical characteristics ...
Effects of Paclobutrazol on fruit yield and physico-chemical characteristics ...Effects of Paclobutrazol on fruit yield and physico-chemical characteristics ...
Effects of Paclobutrazol on fruit yield and physico-chemical characteristics ...
 
Green House Effect, Methane Emission and its Relevance to Abiotic Stress, Use...
Green House Effect, Methane Emission and its Relevance to Abiotic Stress, Use...Green House Effect, Methane Emission and its Relevance to Abiotic Stress, Use...
Green House Effect, Methane Emission and its Relevance to Abiotic Stress, Use...
 
Propagation of pomegranate (Punica granatum L.) by tissue culture
Propagation of pomegranate (Punica granatum L.) by tissue culture Propagation of pomegranate (Punica granatum L.) by tissue culture
Propagation of pomegranate (Punica granatum L.) by tissue culture
 
Sunflower nutrient management
Sunflower nutrient managementSunflower nutrient management
Sunflower nutrient management
 
Nutrient management in kharif fodder crops.pptx
Nutrient management in kharif fodder crops.pptxNutrient management in kharif fodder crops.pptx
Nutrient management in kharif fodder crops.pptx
 
Integrated nutrient management approaches under system of rice intensificatio...
Integrated nutrient management approaches under system of rice intensificatio...Integrated nutrient management approaches under system of rice intensificatio...
Integrated nutrient management approaches under system of rice intensificatio...
 
Effect of mulch on organic tomato cultivation
Effect of mulch on organic tomato cultivationEffect of mulch on organic tomato cultivation
Effect of mulch on organic tomato cultivation
 
effect of gases on vegetable production
effect of gases on vegetable productioneffect of gases on vegetable production
effect of gases on vegetable production
 
Effect of integrated nutrient management and mulching practices on performanc...
Effect of integrated nutrient management and mulching practices on performanc...Effect of integrated nutrient management and mulching practices on performanc...
Effect of integrated nutrient management and mulching practices on performanc...
 
INTEGRATED NUTRIENT MANAGEMENT FOR SUSTAINABLE VEGETABLE CROP PRODUCTION
INTEGRATED NUTRIENT MANAGEMENT FOR SUSTAINABLE VEGETABLE CROP PRODUCTION INTEGRATED NUTRIENT MANAGEMENT FOR SUSTAINABLE VEGETABLE CROP PRODUCTION
INTEGRATED NUTRIENT MANAGEMENT FOR SUSTAINABLE VEGETABLE CROP PRODUCTION
 
EFFECT OF PRE AND POST HARVEST TREATMENTS ON SHELF LIFE AND QUALITY OF PAPAY...
EFFECT OF  PRE AND POST HARVEST TREATMENTS ON SHELF LIFE AND QUALITY OF PAPAY...EFFECT OF  PRE AND POST HARVEST TREATMENTS ON SHELF LIFE AND QUALITY OF PAPAY...
EFFECT OF PRE AND POST HARVEST TREATMENTS ON SHELF LIFE AND QUALITY OF PAPAY...
 
No 18. effect of organic fertilizers on the performance of seed potato 2
No 18. effect of organic fertilizers on the performance of seed potato 2No 18. effect of organic fertilizers on the performance of seed potato 2
No 18. effect of organic fertilizers on the performance of seed potato 2
 
Rice culture and greenhouse gas emission
Rice culture and greenhouse gas emissionRice culture and greenhouse gas emission
Rice culture and greenhouse gas emission
 
INM in legumes
INM in legumesINM in legumes
INM in legumes
 
Integrated nutrient management influence on crop yields in dryland agriculture
Integrated nutrient management influence on crop yields  in dryland agricultureIntegrated nutrient management influence on crop yields  in dryland agriculture
Integrated nutrient management influence on crop yields in dryland agriculture
 

Recently uploaded

general properties of oerganologametal.ppt
general properties of oerganologametal.pptgeneral properties of oerganologametal.ppt
general properties of oerganologametal.ppt
IqrimaNabilatulhusni
 
PRESENTATION ABOUT PRINCIPLE OF COSMATIC EVALUATION
PRESENTATION ABOUT PRINCIPLE OF COSMATIC EVALUATIONPRESENTATION ABOUT PRINCIPLE OF COSMATIC EVALUATION
PRESENTATION ABOUT PRINCIPLE OF COSMATIC EVALUATION
ChetanK57
 
Comparing Evolved Extractive Text Summary Scores of Bidirectional Encoder Rep...
Comparing Evolved Extractive Text Summary Scores of Bidirectional Encoder Rep...Comparing Evolved Extractive Text Summary Scores of Bidirectional Encoder Rep...
Comparing Evolved Extractive Text Summary Scores of Bidirectional Encoder Rep...
University of Maribor
 
Orion Air Quality Monitoring Systems - CWS
Orion Air Quality Monitoring Systems - CWSOrion Air Quality Monitoring Systems - CWS
Orion Air Quality Monitoring Systems - CWS
Columbia Weather Systems
 
THE IMPORTANCE OF MARTIAN ATMOSPHERE SAMPLE RETURN.
THE IMPORTANCE OF MARTIAN ATMOSPHERE SAMPLE RETURN.THE IMPORTANCE OF MARTIAN ATMOSPHERE SAMPLE RETURN.
THE IMPORTANCE OF MARTIAN ATMOSPHERE SAMPLE RETURN.
Sérgio Sacani
 
in vitro propagation of plants lecture note.pptx
in vitro propagation of plants lecture note.pptxin vitro propagation of plants lecture note.pptx
in vitro propagation of plants lecture note.pptx
yusufzako14
 
Nutraceutical market, scope and growth: Herbal drug technology
Nutraceutical market, scope and growth: Herbal drug technologyNutraceutical market, scope and growth: Herbal drug technology
Nutraceutical market, scope and growth: Herbal drug technology
Lokesh Patil
 
Hemoglobin metabolism_pathophysiology.pptx
Hemoglobin metabolism_pathophysiology.pptxHemoglobin metabolism_pathophysiology.pptx
Hemoglobin metabolism_pathophysiology.pptx
muralinath2
 
(May 29th, 2024) Advancements in Intravital Microscopy- Insights for Preclini...
(May 29th, 2024) Advancements in Intravital Microscopy- Insights for Preclini...(May 29th, 2024) Advancements in Intravital Microscopy- Insights for Preclini...
(May 29th, 2024) Advancements in Intravital Microscopy- Insights for Preclini...
Scintica Instrumentation
 
Toxic effects of heavy metals : Lead and Arsenic
Toxic effects of heavy metals : Lead and ArsenicToxic effects of heavy metals : Lead and Arsenic
Toxic effects of heavy metals : Lead and Arsenic
sanjana502982
 
Deep Software Variability and Frictionless Reproducibility
Deep Software Variability and Frictionless ReproducibilityDeep Software Variability and Frictionless Reproducibility
Deep Software Variability and Frictionless Reproducibility
University of Rennes, INSA Rennes, Inria/IRISA, CNRS
 
What is greenhouse gasses and how many gasses are there to affect the Earth.
What is greenhouse gasses and how many gasses are there to affect the Earth.What is greenhouse gasses and how many gasses are there to affect the Earth.
What is greenhouse gasses and how many gasses are there to affect the Earth.
moosaasad1975
 
In silico drugs analogue design: novobiocin analogues.pptx
In silico drugs analogue design: novobiocin analogues.pptxIn silico drugs analogue design: novobiocin analogues.pptx
In silico drugs analogue design: novobiocin analogues.pptx
AlaminAfendy1
 
Leaf Initiation, Growth and Differentiation.pdf
Leaf Initiation, Growth and Differentiation.pdfLeaf Initiation, Growth and Differentiation.pdf
Leaf Initiation, Growth and Differentiation.pdf
RenuJangid3
 
GBSN - Microbiology (Lab 4) Culture Media
GBSN - Microbiology (Lab 4) Culture MediaGBSN - Microbiology (Lab 4) Culture Media
GBSN - Microbiology (Lab 4) Culture Media
Areesha Ahmad
 
BLOOD AND BLOOD COMPONENT- introduction to blood physiology
BLOOD AND BLOOD COMPONENT- introduction to blood physiologyBLOOD AND BLOOD COMPONENT- introduction to blood physiology
BLOOD AND BLOOD COMPONENT- introduction to blood physiology
NoelManyise1
 
Observation of Io’s Resurfacing via Plume Deposition Using Ground-based Adapt...
Observation of Io’s Resurfacing via Plume Deposition Using Ground-based Adapt...Observation of Io’s Resurfacing via Plume Deposition Using Ground-based Adapt...
Observation of Io’s Resurfacing via Plume Deposition Using Ground-based Adapt...
Sérgio Sacani
 
Comparative structure of adrenal gland in vertebrates
Comparative structure of adrenal gland in vertebratesComparative structure of adrenal gland in vertebrates
Comparative structure of adrenal gland in vertebrates
sachin783648
 
Seminar of U.V. Spectroscopy by SAMIR PANDA
 Seminar of U.V. Spectroscopy by SAMIR PANDA Seminar of U.V. Spectroscopy by SAMIR PANDA
Seminar of U.V. Spectroscopy by SAMIR PANDA
SAMIR PANDA
 
Richard's aventures in two entangled wonderlands
Richard's aventures in two entangled wonderlandsRichard's aventures in two entangled wonderlands
Richard's aventures in two entangled wonderlands
Richard Gill
 

Recently uploaded (20)

general properties of oerganologametal.ppt
general properties of oerganologametal.pptgeneral properties of oerganologametal.ppt
general properties of oerganologametal.ppt
 
PRESENTATION ABOUT PRINCIPLE OF COSMATIC EVALUATION
PRESENTATION ABOUT PRINCIPLE OF COSMATIC EVALUATIONPRESENTATION ABOUT PRINCIPLE OF COSMATIC EVALUATION
PRESENTATION ABOUT PRINCIPLE OF COSMATIC EVALUATION
 
Comparing Evolved Extractive Text Summary Scores of Bidirectional Encoder Rep...
Comparing Evolved Extractive Text Summary Scores of Bidirectional Encoder Rep...Comparing Evolved Extractive Text Summary Scores of Bidirectional Encoder Rep...
Comparing Evolved Extractive Text Summary Scores of Bidirectional Encoder Rep...
 
Orion Air Quality Monitoring Systems - CWS
Orion Air Quality Monitoring Systems - CWSOrion Air Quality Monitoring Systems - CWS
Orion Air Quality Monitoring Systems - CWS
 
THE IMPORTANCE OF MARTIAN ATMOSPHERE SAMPLE RETURN.
THE IMPORTANCE OF MARTIAN ATMOSPHERE SAMPLE RETURN.THE IMPORTANCE OF MARTIAN ATMOSPHERE SAMPLE RETURN.
THE IMPORTANCE OF MARTIAN ATMOSPHERE SAMPLE RETURN.
 
in vitro propagation of plants lecture note.pptx
in vitro propagation of plants lecture note.pptxin vitro propagation of plants lecture note.pptx
in vitro propagation of plants lecture note.pptx
 
Nutraceutical market, scope and growth: Herbal drug technology
Nutraceutical market, scope and growth: Herbal drug technologyNutraceutical market, scope and growth: Herbal drug technology
Nutraceutical market, scope and growth: Herbal drug technology
 
Hemoglobin metabolism_pathophysiology.pptx
Hemoglobin metabolism_pathophysiology.pptxHemoglobin metabolism_pathophysiology.pptx
Hemoglobin metabolism_pathophysiology.pptx
 
(May 29th, 2024) Advancements in Intravital Microscopy- Insights for Preclini...
(May 29th, 2024) Advancements in Intravital Microscopy- Insights for Preclini...(May 29th, 2024) Advancements in Intravital Microscopy- Insights for Preclini...
(May 29th, 2024) Advancements in Intravital Microscopy- Insights for Preclini...
 
Toxic effects of heavy metals : Lead and Arsenic
Toxic effects of heavy metals : Lead and ArsenicToxic effects of heavy metals : Lead and Arsenic
Toxic effects of heavy metals : Lead and Arsenic
 
Deep Software Variability and Frictionless Reproducibility
Deep Software Variability and Frictionless ReproducibilityDeep Software Variability and Frictionless Reproducibility
Deep Software Variability and Frictionless Reproducibility
 
What is greenhouse gasses and how many gasses are there to affect the Earth.
What is greenhouse gasses and how many gasses are there to affect the Earth.What is greenhouse gasses and how many gasses are there to affect the Earth.
What is greenhouse gasses and how many gasses are there to affect the Earth.
 
In silico drugs analogue design: novobiocin analogues.pptx
In silico drugs analogue design: novobiocin analogues.pptxIn silico drugs analogue design: novobiocin analogues.pptx
In silico drugs analogue design: novobiocin analogues.pptx
 
Leaf Initiation, Growth and Differentiation.pdf
Leaf Initiation, Growth and Differentiation.pdfLeaf Initiation, Growth and Differentiation.pdf
Leaf Initiation, Growth and Differentiation.pdf
 
GBSN - Microbiology (Lab 4) Culture Media
GBSN - Microbiology (Lab 4) Culture MediaGBSN - Microbiology (Lab 4) Culture Media
GBSN - Microbiology (Lab 4) Culture Media
 
BLOOD AND BLOOD COMPONENT- introduction to blood physiology
BLOOD AND BLOOD COMPONENT- introduction to blood physiologyBLOOD AND BLOOD COMPONENT- introduction to blood physiology
BLOOD AND BLOOD COMPONENT- introduction to blood physiology
 
Observation of Io’s Resurfacing via Plume Deposition Using Ground-based Adapt...
Observation of Io’s Resurfacing via Plume Deposition Using Ground-based Adapt...Observation of Io’s Resurfacing via Plume Deposition Using Ground-based Adapt...
Observation of Io’s Resurfacing via Plume Deposition Using Ground-based Adapt...
 
Comparative structure of adrenal gland in vertebrates
Comparative structure of adrenal gland in vertebratesComparative structure of adrenal gland in vertebrates
Comparative structure of adrenal gland in vertebrates
 
Seminar of U.V. Spectroscopy by SAMIR PANDA
 Seminar of U.V. Spectroscopy by SAMIR PANDA Seminar of U.V. Spectroscopy by SAMIR PANDA
Seminar of U.V. Spectroscopy by SAMIR PANDA
 
Richard's aventures in two entangled wonderlands
Richard's aventures in two entangled wonderlandsRichard's aventures in two entangled wonderlands
Richard's aventures in two entangled wonderlands
 

Effect of Samved Fugall (CO2 absorbent) on BT Cotton

  • 1. Title: Studies on effect of herbal extract Fugall (CO2 absorbent) on Cotton. Vasumitra Life Energies Pvt. Ltd Pune, India Dr. Hemangee Jambhekar, Research Director, Vasumitra Dr. B C Patil, Principal Scientist, Agriculture Research Station, Dharwad GPB, 2019
  • 2. About Sanjeevan System  Based on principle of internal energy or vital energy management which is the base of Yog Shastra.  Vital energy governs the internal function of any living being through the energies of:  Panch Mahabhutas i.e. five basic elements and  Panch Pranas i.e. five life forces.
  • 3. Panch Mahabhutas Panch Pranas Function Plant Body Part Prithvi- Earth Apana: Life force of earth element Nutrient absorption, formation of plant body Roots, stem, branches Jal- Water Samana: Life force of water element Nutrient transport Zylem, phloem Tej- Fire Udana: Life force of fire element Photosynthesis, enzymatic/ hormonal reactions Enzymes, hormones, chlorophyll, seed, fruit Vayu- Gas Prana: Life force of gas element Respiration Stomata cells, leaves Akash- Space Vyan: Life force of space element Making space available for any reaction Vacuoles in cells Co-relation Between Principles of Yog Shastra and Plant Physiology
  • 4. • Because of unfavorable climatic conditions and any external interference in the life-cycle of plant, physiological processes are disturbed. • Sanjeevan system has identified certain herbs which activate/ induce the energies Pancha Mahabhutas and Pancha Pranas. This optimizes the physiological processes. How Does Sanjeevan System work?
  • 5. • Nutrient Absorption by plants • Respiration • Photosynthesis • Systemically acquired resistance • Enhancing tolerance to abiotic stress Sanjeevan System for Various Physiological Processes
  • 6. Low temperature Heavy rain or Cloudy conditions High temperature Drought Inefficient CO2 absorption Stress on Respiration Loss in Yield Photosynthesis is poor Fluctuating climatic conditions
  • 7. Name of Herbs Function as per Sanjeevan System Function Reference Bambusa vulgaris or Bamboo Activates energy of Tej (Fire) & Vayu (Gas) Photosynthesis, Maximum CO2 and Si absorption Seethalakshmi et al. (2009); Nath et al. (2008); Kumar et al. (2005) Sansevieria trifasciata or Snake plant Activates energy of Vayu (Gas) Enhances CO2 absorption in day and night Thongsanit et al. (2015) Ocimum basilicium or Tulsi Activates energy of Tej (Fire) & Vayu (Gas) Photosynthesis, Maximum CO2 absorption Andrzej Kalisz et al. (2016) Ficus religiosa or Peepal tree Activates energy of Tej (Fire) & Vayu (Gas) Photosynthesis, Maximum CO2 absorption Chandrasekar et al. (2010) Musa acuminata or Banana Activates energy of Tej (Fire) Rich in K and Mg. Enhances K and Mg uptake Sampath Kumar et al. (2012) Ascophyllum nodosum or Sea weed Activates energy of Tej (Fire) Enhances photosynthesis Khan et al. (2009) Boerhavia diffusa L. or Punarnava Activates energy of Tej (Fire) Rich in Mg, K, Ca. Helps for uptake of Mg and K Juna Beegum et al. (2014) Herbs Used in Formulation of Fugall
  • 8.  Samved fugall enhances efficiency of respiration and absorption of CO2 .  Samved fugall also promotes balanced uptake of P, K, Mg and Si.  Increase in leaf area, chlorophyll content, photosynthesis rate.  Increase in yield, weight and size of crop. Effect of Samved Fugall
  • 9. Objectives of the Experiment  To Study the effect of Fugall on growth & yield of Bt. cotton hybrid.  To quantify the influence of foliar application of Fugall on gas exchange and phenology in Bt. cotton hybrid.
  • 10. Materials and Method Treatment No. Treatments Details T1: Recommended dose (RD) of N, P and K-Control. T2: RD+ Foliar application of water (60 & 90 DAS). T3: RD+ Foliar application of Fugall @ 2ml/lit (60 and 90 DAS). T4: RD+ Foliar application of Fugall @ 3ml/lit (60 and 90 DAS). T5: RD+ Foliar application of Fugall @ 4ml/lit (60 and 90 DAS). T6: RD+ Drenching of Fugall@ 0.5litre/acre. T7: Foliar application of methanol 5% (at 60 and 90 DAS)
  • 11. a) Design: RBD b) Date of sowing: 04-07-2012 c) Replication: 3 d) Spacing: 90 x 60cm e) Variety: Bunny Bt (NCS-145 Bt) BG-II f) Fertilizer dose: 80:40:40kg/ha (NPK) g) Date of imposition of treatment: 07-07-2012 h) Date of harvest: 10- 01-2013 Details of Experiments
  • 12. Agricultural Research Station Dharwad Farm, Dharwad Seasonal & Crop Condition (2012-13)  Year 2012: drought year which received total rainfall of 549.00mm.  Late onset of rainfall: sowing delayed by 30-40 days.  Although sowing was done in July, the crop growth was stunted because of less rainfall.  No rainfall from 40-88 days except about 30mm at around 55-60 days.  The overall crop growth is reduced and yield reduction is expected in any case. In the farmers fields also there was reduced growth due to less rainfall in majority districts. 2012 Normal Rainfall No. of rainy days 2012 Total rainfall 549.00 756.10 38 Table 1: Rainfall (mm) received at ARS, Dharwad
  • 13. SI. No. Treatments Plant height (cm) No. of leaves/ plants 1 T1: Recommended dose (RD) of N, P and K-Control. 41.70 28.63 2 T2: RD+ Foliar application of water (60 & 90 DAS). 44.90 29.30 3 T3: RD+ Foliar application of Fugall @ 2ml/lit (60 and 90 DAS). 48.20 40.90 4 T4: RD+ Foliar application of Fugall @ 3ml/lit (60 and 90 DAS). 45.50 40.77 5 T5: RD+ Foliar application of Fugall @ 4ml/lit (60 and 90 DAS). 46.30 32.47 6 T6: RD+ Drenching of Fugall @ 0.5litre/acre. 43.60 40.17 7 T7: Foliar application of methanol 5% (at 60 and 90 DAS) 43.40 38.33 Mean 44.80 35.87 SEm± 0.80 2.32 CD @ 5% 2.47 7.14 CV % 3.10 11.19 Table 1: Plant height, No. of leaves per plants in cotton as influenced by Fugall (CO2 absorbent) on Bt Cotton.
  • 14. 41.7 48.2 28.63 40.9 0 10 20 30 40 50 60 T1 T2 T3 T4 T5 T6 T7 Plant height (cm) No. of leaves/ plants Plant height in T3 treatment shows 15.59% increase over control and No. of leaves/plant shows 42.86% increase over control Plant height, No. of leaves per plants in cotton as influenced by Fugall (CO2 absorbent) on Bt Cotton.
  • 15. SI. No. Treatments No. of Days to 50% Monopodia Sympodia Squaring Flowering 1 T1: Recommended dose (RD) of N, P and K-Control. 66.00 91.67 1.53 12.40 2 T2: RD+ Foliar application of water (60 & 90 DAS). 63.70 89.00 1.70 13.40 3 T3: RD+ Foliar application of Fugall @ 2ml/lit (60 and 90 DAS). 62.70 85.67 1.77 13.80 4 T4: RD+ Foliar application of Fugall @ 3ml/lit (60 and 90 DAS). 65.00 91.33 1.57 13.10 5 T5: RD+ Foliar application of Fugall @ 4ml/lit (60 and 90 DAS). 64.30 91.33 1.57 13.60 6 T6: RD+ Drenching of Fugall @ 0.5litre/acre. 63.70 89.00 1.67 13.60 7 T7: Foliar application of methanol 5% (at 60 and 90 DAS) 63.70 89.33 1.60 14.20 Mean 64.14 89.62 1.63 13.45 SEm± 0.61 1.11 0.14 0.28 CD @ 5% 1.89 3.42 NS 0.87 CV % 1.66 2.15 15.50 3.63 Table 2: Phenology in cotton as influenced by Fugall (CO2 absorbent) on Bt Cotton.
  • 16. SI. No. Treatments LAI (at 90 DAS) LAI (at 120 DAS) 1 T1: Recommended dose (RD) of N, P and K-Control. 1.36 2.43 2 T2: RD+ Foliar application of water (60 & 90 DAS). 1.75 2.69 3 T3: RD+ Foliar application of Fugall @ 2ml/lit (60 and 90 DAS). 2.11 2.96 4 T4: RD+ Foliar application of Fugall @ 3ml/lit (60 and 90 DAS). 1.62 2.30 5 T5: RD+ Foliar application of Fugall @ 4ml/lit (60 and 90 DAS). 1.81 2.82 6 T6: RD+ Drenching of Fugall @ 0.5litre/acre. 1.77 2.59 7 T7: Foliar application of methanol 5% (at 60 and 90 DAS) 1.94 2.63 Mean 1.77 2.63 SEm± 0.12 0.12 CD @ 5% 0.38 0.38 CV % 12.07 8.04 Table 3: Effect of Fugall (CO2 absorbent) on Leaf area index in Bt Cotton
  • 17. 0 0.5 1 1.5 2 2.5 3 3.5 T1 T2 T3 T4 T5 T6 T7 LAI (at 90 DAS) LAI (at 120 DAS) Leaf Area Index in treatment T3 at 90 DAS shows 55.15% increase over control and at 120 DAS shows 21.81% increase over control Effect of Fugall (CO2 Absorbent) on Leaf Area Index in Bt Cotton
  • 18. Sl. No. Treatments Photosynthesis rate (90 DAS) Photosynthesis rate (110 DAS) SPAD (90 DAS) 1 T1: Recommended dose (RD) of N, P and K- Control. 10.43 12.54 40.00 2 T2: RD+ Foliar application of water (60 & 90 DAS). 10.83 14.97 43.10 3 T3: RD+ Foliar application of Fugall @ 2ml/lit (60 and 90 DAS). 18.23 22.60 44.60 4 T4: RD+ Foliar application of Fugall @ 3ml/lit (60 and 90 DAS). 18.03 `19.03 40.70 5 T5: RD+ Foliar application of Fugall @ 4ml/lit (60 and 90 DAS). 16.80 16.48 41.80 6 T6: RD+ Drenching of Fugall @ 0.5litre/acre. 16.87 18.20 43.10 7 T7: Foliar application of methanol 5% (at 60 and 90 DAS) 17.66 18.13 41.70 Mean 15.55 17.42 42.14 SEm± 1.36 0.85 1.28 CD @ 5% 4.20 0.64 NS CV % 15.20 8.52 5.27 Table 4: Effect of Fugall (CO2 absorbent) on Photosynthesis rate (µ mol CO2 fixed per m2 per second) and SPAD values (Chlorophyll content) on Bt Cotton.
  • 19. 10.43 18.23 12.54 22.6 0 5 10 15 20 25 T1 T2 T3 T4 T5 T6 T7 Photosynthesis rate (90 DAS) Photosynthesis rate (110 DAS) Photosynthesis in T3 treatment at 90 DAS shows 74.78% increase over control and at 110 DAS shows 80.22% increase over control SPAD values in T3 treatment shows 11.50% increase over control Effect of Fugall (CO2 absorbent) on Photosynthesis rate (µ mol CO2 fixed per m2 per second) on Bt Cotton.
  • 20. SI. No. Treatments Yield (Kg/ha) Boll wt. (g/boll) Number of bolls/ plant 1 T1: Recommended dose (RD) of N, P and K-Control. 824 3.75 14.90 2 T2: RD+ Foliar application of water (60 & 90 DAS). 935 4.57 15.90 3 T3: RD+ Foliar application of Fugall @ 2ml/lit (60 and 90 DAS). 1084 4.92 18.30 4 T4: RD+ Foliar application of Fugall @ 3ml/lit (60 and 90 DAS). 1058 4.68 17.70 5 T5: RD+ Foliar application of Fugall @ 4ml/lit (60 and 90 DAS). 1035 4.02 15.90 6 T6: RD+ Drenching of Fugall @ 0.5litre/acre. 954 4.28 15.30 7 T7: Foliar application of methanol 5% (at 60 and 90 DAS) 894 4.55 16.70 Mean 969.00 4.40 16.40 SEm± 50.35 0.21 0.71 CD @ 5% 155.07 0.65 2.19 CV % 9.00 8.32 7.54 Table 5: Seed cotton yield and yield components in cotton as influenced by Fugall (CO2 absorbent) on Bt Cotton.
  • 21. 0 500 1000 1500 T1 T2 T3 T4 T5 T6 T7 Yield… 0 5 10 15 20 T1 T2 T3 T4 T5 T6 T7 Number of bolls/ plant Seed cotton yield in T3 treatment shows 31.55% increase over control. No. of bolls/ plant in T3 treatment shows 22.82% increase over control and Boll weight shows 31.20% increase over control. Seed cotton yield and yield components in cotton as influenced by Fugall (CO2 absorbent) on Bt Cotton.
  • 22. Parameter T3 Control Plant Height (cm) 48.2 41.7 Number of leaves / plant 40.9 28.63 Phenology Days taken to 50% squaring 62.7 66 Days taken to 50% flowering 85.67 91.67 Number of sympodia/plant 13.80 12.40 Leaf area index 2.96 Significantly less Photosynthesis rate 22.6 Significantly less SPAD values No significant difference Yield and yield components Seed cotton kg/ha 1084 824 Number of bolls 18.30 14.90 Boll weight g / boll 4.92 3.75 Comparison Between T3 and Control
  • 23.  Even during unfavorable conditions such as drought year, Fugall was extremely effective in enhancing CO2 absorption and thereby increasing the yield.  Foliar application of Fugall @ 2 ml/lit of water at 60 and 90 DAS recorded significantly more seed cotton yield.  This has been supported from the physiological observation like rate of photosynthesis, leaf area index, total leaves, plant height and more number of sympodial branches including yield components viz. boll weight and number of bolls per plant. Conclusion: