SlideShare a Scribd company logo
Speaker : MayankBoghara 
Degree : M. Sc. (Agri.) 
Guide : Dr. H. L. Dhaduk 
Course No. : GP –591 
Reg. No. : 04-2100-2013 
Date : 24-09-2014
2
•Importantvegetablecumspicecropgrownthroughouttheworld. 
•Cultivatedforgreenordryfruit. 
•‘Capsicum’=Greekword‘kapto’,meaning"tobite"or"toswallow." 
•Commonnames:hotpepper,sweetpepper,bellpepper,shimlamirch,paprika. 
•Almost400typesofchillisaregrownthroughouttheworld. 
•Itcomprisesnumerouschemicalsincludingsteamvolatileoils,fattyoils,capsaicinoids,carotenoids,vitamins,proteins,fibresandmineralelements(BoslandandVotava,2000). 
3
•Animportantpartofdailydiet. 
•KeyElementinmanyregionalcuisines,pickles,soups,sauce, 
Salads,curriesetc.duetoitsuniqueflavor,aromaandcolour. 
•Increasethetasteandpalatability. 
•FreshgreencapsicumcontainmorevitaminCthancitrusfruitsandfreshredchillihasmorevitaminAthancarrot.(Thanetal. 2008). 
•Chilliesarelowinsodiumandcholesterolfree. 4
•ManyothermedicinalPropertiesarefound… 
•stimulatebloodcirculation 
•improvesthedigestionprocess 
•speedupthemetabolicrate 
•richsourceofantioxidants 
•booststotheimmunesystem 
•bloodthinningproperties 
•sourceofnaturalbactericidalagents 
•Apartfrommedicinaluseschillialsousedincosmetic,liquorindustriesandasaweaponforselfdefense(chillispray). 5
NUTRITIONALVALUENational Institute of Nutrition, Hyderabad 
Value (per 100 gm) 
Parameters 
Chillies(dry) 
Chillies(green) 
Moisture 
10.0 gm 
85.7 gm 
Protein 
15.0 gm 
2.9 gm 
Fat 
6.2 gm 
0.6 gm 
Minerals 
6.1gm 
1.0 gm 
Fibre 
30.2 gm 
6.8 gm 
Carbohydrates 
31.6 gm 
3.0 gm 
Iron 
2.3 mg 
4.4 mg 
Carotene 
345.0 mg 
175.0 mg 
Vitamin C 
50.0 mg 
111.0 mg 
6
Domesticated around 5000 BC 
Carried by Columbus to Spain, 1493 
Brought by Portuguese from Brazil to India, 1584 Evolved as a wild crop 7500 BCFig 1: Origin 
7
2012- 2013 
AREA (lakhha) 
Produ- ction(lakh MT) 
Produ- ctivity(T/ha) 
World 
19.89 
33.52 
1.69 
India 
7.94 
13.04 
1.64 
Gujarat 
0.43 
0.68 
1.57Fig 2: Major hot chilliproducing states of IndiaIndiaisaleadingproducer&consumerofchilliintheworld,with38%shareintotalchilliproductionIn India: Andhra Pradesh, Karnataka, Maharastra, Punjab, Haryana, Rajasthan, Gujarat, Uttar Pradesh, Assam, West Bengal and Himachal PradeshIn Gujarat: Rajkot, Vadodara, Mahesana, Banaskantha, Amreli, Kheda, Anand, Sabarkantha and JamnagarSource : FAO 
8
Fig 3: State wise contribution 2012-2013Andhrapradesh26% Karnataka13% 
Maharashtra12% 
Odisa10% 
Westbengal8% 
Madhya pradesh7% 
Tamilnadu6% 
Gujarat5% 
Assam3% Uttar pradesh2% 
Rajasthan2% 
Punjab1% 
Others5% AreaSource :Indian Horticulture Database, GOIProduction9
Kingdom: Plantae 
Class: Angiosperm 
Order: Solanales 
Family: Solanaceae 
Genus: Capsicum 
Species:annum 
Scientific name : Capsicum annum L., 
var. annum 
var. paprika 
Chromosomeno. : 2n=24 & 2n=26 
Scientific Classification10
Botany 
•Herbaceousorsemi-woody,annualsorperennials. 
•Straight,woodystemsandtheleavesareovate,taperingtoasharppoint,measuringupto15cm,darkgreenontheuppersurfaceandpalegreenonthelowersurface. 
•Flowers:small,star-shaped,whiteandbornesinglyorinclustersof2or3intheaxilsoftheleaves. 
•Theflowersarefollowedbyjuicelessberrieswhicharegreenatfirstandchangetored,yelloworpurple. 11
•Fruitsvaryinshape,size,colouranddegreeofpungencyasperthecultivar. 
•Fruitcontainnumerousflat,kidney-shaped,whiteseeds,whichhaveverypungenttaste. 
•PungencyofCapsicumisduetoanalkaloid“Capsaicin” 
•Redcolouroffruitisduetothepigment“Capsanthin” 
•Domesticatedspecies:largerbutfewerfruitswildspecies:morebutsmallerfruitsbutseedperplantisaboutthesame. 12 
Pedicel
Flower:actinomorphic,bisexual,pedicellate,hypogynous 
Gynoecium:Bicarpellary,syncarpous,bilocularortetralocularduetopseudoseptum.Manyovulesonaxileplacentation,ovarysuperior. 
Androecium:Stamens5,epipetalous 
Selfpollinatedcrop. 
Flowersopenat5a.m. 
Receptivityofstigma:fromadayearliertoanthesisandupto2daysafteranthesis. 
Fertilityofpollen:adaybeforeanthesiswithmaximumfertilityonthedayofanthesis. 
EmasculationandPollinationonthesameday. 
Percentfruitset:20%oftheflowersproduced. 
Isolationdistance:500m. 
Handemasculationandpollinationismostcommonmethodusedforhybridseedproductioninchilli. 
Floral morphology 
13
Crossing technique 14A bud one day prior to anthesisshould be selected for emasculation 
Emasculation should be carried out without damaging female reproductive parts and bagged it 
At a same time pollen should be collected from the fully opened male flower 
Gently transfer the pollen to the stigma , bagging and tagging should be done simultaneously
•Capsicumgenusincludes30species,mostlyclassifiedaswildandsemi-domesticated. 
•Outofthatfivespeciesaredomesticatedandcultivatedworldwide. 
•C.annuumL.varannuum(bellpepper,chilli) 
•C.frutescensL.(tabasco) 
•C.chinenseL.Jacq.(habanero) 
•C.baccatumL. 
•C.pubescensL. 
•Threespicesviz.,C.annum,C.frutescens,andC.chinenseevolvedfromacommonancestorinaNorthAmazonbasin 
•MostofthechilliesgrowninIndiabelongtoC.annuumandC.frutescensspecies. Marishaet al. (2006)15
Species and variety 
Growth form 
Corolla shape and colour 
Fruit shape and colour 
Seed colour 
2n 
Geographical distribution 
C. annumL. 
Herb or sub shrub (1-2 m) 
Stellate; white or cream (exceptionally violate) 
Highly variable shape; violate, red, orange, yellow or green 
Yellow 
24 
Cultivate Worldwide 
Highest diversity of fruit shape, size and colour. 
Quite tolerant to weather extremes. 
Productive in warm and dry climates and cannot survive in very cold conditions. 
Exotic Varieties : 
Jalapenos, New Mexican, Peter Pepper, Sweet Banana, Thai Hot etc. 
16 
Indian varieties : 
ArkaMohini, PusaJwala,PusaMeghdoot, California Wonder, Chinese Giant 
Reshampatto, GVC-101, 111, 121, AVNPC-131, GAVC-112, GAVC-1
Species and variety 
Growth form 
Corolla shape and colour 
Fruit shape and colour 
Seed colour 
2n 
Geographical distribution 
C. frutescensL. 
Herb or shrub 
(1-2 m) 
Stellate,white or cream 
Elongate; red 
Yellow 
24 
USA, Mexico, America, Africa, India, China, Japan 
frutescens,meaning "shrubby or bushy" 
Fruit typically grow erectlanceoloidor ellipsoid-conical in shape. 
Produceclustersof fruits. 
Includes very few varieties of chillies. 
Varieties : 
Tabasco, African bird’seye,Malagueta, Thai pepper,Demon Red 
17
Species and variety 
Growth form 
Corolla shape and colour 
Fruit shape and colour 
Seed colour 
2n 
Geographical distribution 
C. chinenseL. 
Herb or shrub (0.5-2 m) 
Stellate; white or cream 
Spherical or conical; red, orange, yellow or white 
Yellow 
24 
USA, Mexico, Peru, Bolivia, Brazil, China, Argentina, Japan 
Chinense, literally ‘from china’, incorrect. 
Famous for its exceptional pungency 
Fruit shape is vary tremendously in this species 
Resistance to fruit rot 
Varieties : 
Trinidad scorpion, Bhutjolokia, Habanero, Congo pepper , jamaicanhot 
18
Species and variety 
Growth form 
Corolla shape and colour 
Fruit shape and colour 
Seed colour 
2n 
Geographical distribution 
C.baccatumL. 
Shrub(0.6-3.5 m) 
Stellat, white with yellowish spots in the throat 
Ovoid or elliptic; red 
Yellow 
24 
Colombia, Peru, Brazil, Argentina, Bolivia 
baccatum,meaning "berry like” 
A smoky-fruity flavour 
Fruity aroma, similar to that of apricot. 
Resistance to Anthracnose 
Varieties : 
AjiAmarilllo, Brazilian Starfish, Peppadewand Lemon Drop19
Species and variety 
Growth form 
Corolla shape and colour 
Fruit shape and colour 
Seed colour 
2n 
Geographical distribution 
C. pubescensL. 
Shrub (0.8-2 m) 
Rotate, purple or violet in the lobules, white or yellowish in the tube 
Turban-shaped, spherical or elongate, red, orange or yellow 
Blackish, irregular shape 
24 
Cultivated in Mexico, Central and South America 
pubescens,meaning "hairy" 
Least cultivated and least widespread 
Identified by their black seeds and hairy leaves 
Ability to withstand and even thrive in lower temperatures that other, but not frost 
Roots of the plant lignifyrapidly as it matures, giving the plant a tree-like appearance 
Varieties : 
Mexican Manzanos, Bolivian Locotosand Peruvian Rocotos. 20
Flower 
Male Parent 
Female Parent 
baccatum 
frute- scens 
chinense 
annuum 
galapa- goense 
pubescens 
eximium 
carde- nasii 
White 
baccatum 
= 
NG 
NG 
NG 
- 
- 
- 
- 
frutescens 
NG 
= 
PF 
NG 
- 
- 
- 
- 
chinense 
NG 
PF 
= 
PF 
- 
- 
- 
- 
annuum 
NG 
PF 
PF 
= 
IV 
- 
- 
- 
galapagoense 
NG 
- 
IV 
NG 
= 
- 
- 
- 
Purple 
pubescens 
IV 
EC 
IV 
- 
- 
= 
HF 
NG 
eximium 
NG 
NG 
IV 
IV 
- 
HF 
= 
HF 
cardenasii 
NG 
NG 
- 
IV 
- 
HF 
HF 
= 
NG=F1hybridsgerminatenormallyEC=F1hybridsraisedbyembryocultureIV=fruits/seedsset,butF1seedsinviablePF=F1hybridspartiallyfertileHF=F1hybridshighlyfertile-= no data, or perhaps "does not cross" (original publication does not specify) Table 1: Crossabilityof Capsicum spp. 
Genetic Resources of Capsicum (1983)21
22
1.Morenumberoffruitsperplant 
2.Higherfruitweightandlargersize 
3.Uniformfruitshape,sizeandcolorinsweetpepper 
4.Earliness 
5.Wideradaptability 
6.Improved nutritional quality 
7.Longer shelf lifeBreeding objectives in Capsicum spp. 
1.Higheryield 
2.Morepungency(capsaicin)andoleoresininhotchilli 
3.Zeropungency(capsaicin)andmoreantioxidantinsweetpepper 
4.Resistancetoanthracnose,viruscomplex,fruitrotandbacterialwiltetc. 
5.MoredrypowderfromgreenfruitMajorMinor 23
1)Introduction 
2)Pure line selection 
3)Pedigree method 
4)Backcross method 
5)Heterosisbreeding 
6)Distance hybridization 
1)Tissue culture 
2)Mutation breedingConventionalNon conventional 24 
Breeding strategy / methods
Table 2: Scale for ideal plant (ideotype) in chilli 
Scale 
Plot 
Uniformity 
Plant height 
Branching height 
Leaf colour 
Plant type 
Fruit bearing 
1 
Perfect Uniformity 
Good height (80-85 cm) 
Above 15 cm 
Dark green 
Compact plant 
Very good 
2 
Uniform 
Moderate height (75-80 cm) 
10-15 cm 
Medium dark green 
Semi compact 
Good 
3 
Moderately Uniform 
Medium height (60-70 cm) 
5-10 cm 
Green 
Semi spreading 
Moderate 
4 
Poor Uniform 
Variable height 
Less than 5 cm 
Light green 
Spreading 
Poor 
5 
Very Poor Uniform 
Highly variable height 
At base 
Pale green 
Highly spreading 
Very poor 
Giritammannavar& Patil(2006)Dharwad( 1-desirable, 5-undesirable) 26
Table 3: Scale for scoring fruit wrinkles as quality parameters 
Grade 
Description 
1 
Predominant fine network of vertical and horizontal wrinkles all over the fruit surface 
2 
Moderate network of varietal and horizontal wrinkles all over the fruit surface 
3 
Predominantly vertical wrinkles with sparse network of horizontal wrinkles all over the fruit surface 
4 
Very sparse network of vertical and horizontal wrinkles over the fruit surface 
5 
Fruit surface almost devoid of wrinkles 
Table 4: Scale for scoring fruit colour as quality parameter 
Grade 
Description 
1 
Verydarkredfruit 
2 
Darkredfruit 
3 
Mediumredfruit 
4 
Mediumredwithorangetingefruits 
5 
Lightredtonearorangefruit(anthracnoseinfectedfruitsarenotconsideredonthisscale) 
DharwadGiritammannavarand Patil(2006) (1-desirable, 5-undesirable) 
27
Variability
Table 5: Range, mean, coefficient of variation, heritability and genetic advance for different characters in C. chinense 
Srno. 
Character 
Range 
Mean +SEm 
PCV % 
GCV% 
Heritab- ility% 
Genetic Advance % 
1 
Plant height (cm) 
61.-133.33 
98.69+4.00 
20.09 
18.82 
87.77 
36.32 
2 
Primary branches per plant 
3.33-8.67 
5.44+0.75 
30.56 
19.17 
39.35 
24.77 
3 
Days to first flowering 
54.67-83.00 
70.18+1.54 
8.85 
7.99 
81.60 
14.87 
4 
Days to maturity 
22.00-37.33 
31.04+0.66 
12.44 
11.89 
91.32 
23.41 
5 
Fruits per plant 
18.99-637.44 
168.58+9.54 
90.08 
89.54 
98.82 
183.37 
6 
Fruit length (cm) 
3.60-8.33 
5.75+0.15 
18.07 
17.51 
93.95 
34.97 
7 
Fruit girth (cm) 
5.27-10.37 
8.45+10.09 
17.79 
17.67 
98.68 
36.17 
8 
Fruit weight (g) 
1.22-8.63 
5.02+0.15 
33.41 
33.03 
97.75 
67.28 
9 
Yield per plant (g) 
51.31-1649.7 
445.96+18.14 
89.39 
89.12 
99.38 
183.01 
10 
Yield per harvest (g) 
19.78-278.31 
98.78+14.76 
68.82 
68.28 
98.44 
139.55 
11 
Number of harvest 
2.03-6.94 
4.18+0.08 
32.48 
32.30 
98.89 
66.16 
12 
Capsaicin (%) 
1.20-3.74 
2.49+10.02 
27.57 
27.52 
99.62 
56.58 
13 
Oleoresin (%) 
4.92-24.25 
12.44+0.47 
36.07 
35.46 
96.65 
71.81 
14 
Ascorbic acid (mg/100g) 
61.83-136.33 
98.07+0.52 
17.07 
17.04 
99.71 
35.05 
Manjuand Shreelathkumary(2002) 
Thiruvanatpuram 
PCV= Phenotypic coefficient of variation, GCV= Genotypic coefficient of variance 
29
Table 6: Estimates of genetic variability in chilligenotypes 
Characters 
PCV 
% 
GCV 
% 
Heritability 
(BS) % 
Genetic Advance % 
Days to 50% flowering 
27.97 
27.47 
96.50 
25.33 
Green fruit weight (g) 
111.95 
111.26 
98.80 
12.88 
Green fruit length (cm) 
38.85 
38.75 
99.50 
6.05 
Green fruit girth (cm) 
89.76 
48.93 
96.70 
1.18 
Weight of red ripe fruit (g) 
112.02 
111.93 
99.80 
11.31 
Weight of dry fruit (g) 
111.63 
110.97 
98.80 
2.57 
Number of fruits per plant 
86.05 
85.02 
97.60 
74.75 
Green fruit yield per plant (g) 
50.87 
50.58 
99.00 
122.97 
Dry fruit yield per plant (g) 
50.87 
50.60 
99.00 
24.59 
Ascorbic acid content (mg/100g) 
61.79 
61.70 
99.00 
102.60 
Oleoresin content (%) 
40.57 
40.29 
98.60 
17.55 
Capsaisincontent (%) 
46.32 
45.97 
98.50 
0.15 
PCV: Phenotypic coefficient of variation, GCV: Genotypic coefficient of variation. West BengalChattopadhyayet al. (2011) 
30
Table7:Estimationof variabilityparameters in capsicum 
Characters 
GCV 
PCV 
Heritability 
(h2%) 
Genetic Advance 
Genetic gain (%) 
Days to 50% flowering 
4.94 
4.29 
93.83 
7.06 
9.55 
Days to first picking 
7.02 
5.17 
54.16 
8.69 
7.83 
No. of branches 
16.42 
14.57 
89.36 
2.44 
28.37 
Fruit length (cm) 
29.46 
28.39 
92.86 
4.02 
56.35 
Fruit diameter (cm) 
17.97 
17.65 
96.44 
1.26 
35.51 
Pericarp thickness (cm) 
18.71 
16.33 
76.15 
0.12 
29.36 
Dry matter content (%) 
8.67 
8.08 
86.83 
0.90 
15.51 
No. of fruits per plant 
40.14 
39.39 
96.20 
3.66 
79.63 
Fruit weight at maturity (g) 
18.44 
17.32 
88.19 
17.26 
33.50 
Yield per plant (g) 
36.33 
37.66 
97.63 
176.03 
77.01 
Ascorbic acid (mg/100 g) 
60.37 
60.33 
99.86 
186.03 
124.19 
Mishraet al. (2005)Himachal Pradesh 
31
Scale 
Env. 
Yield traits 
Quality traits 
Disease 
No. of fruits/ plant 
Fruit length (cm) 
Fruit dia. (cm) 
Fresh wt. of fruit (g) 
Total fresh yield/ pl. (g) 
Dry wt. of fruit (g) 
Total dry yield/ pl. (g) 
L/D ratio of fruit 
Capsaicin 
content (%) 
Ascorbic acid 
(mg/ 100g) 
Leaf curl incidence 
Grand mean 
C 
106.5 
5.28 
0.67 
2.68 
286.1 
0.82 
65.18 
8.01 
0.89 
228.37 
3.23 
E 
96.95 
5.21 
0.67 
2.63 
259.4 
0.61 
57.05 
7.92 
0.83 
223.47 
6.33 
GCV 
C 
6.45 
14.86 
9.71 
3.85 
7.36 
3.80 
7.67 
25.95 
6.12 
5.60 
77.49 
E 
6.57 
18.58 
10.52 
3.93 
7.59 
5.92 
10.11 
25.85 
8.67 
4.00 
32.55 
PCV 
C 
8.22 
19.22 
9.96 
4.09 
8.52 
4.50 
8.72 
28.05 
6.36 
5.86 
78.68 
E 
7.19 
19.01 
10.52 
3.98 
8.23 
6.10 
11.05 
25.86 
8.80 
4.69 
32.64 
Heritability(h2) 
C 
78.47 
94.27 
97.00 
88.40 
74.40 
71.60 
77.40 
99.30 
92.80 
98.20 
97.60 
E 
83.60 
91.30 
99.40 
97.60 
85.00 
94.30 
83.70 
99.90 
97.10 
92.10 
99.50 
GA 
C 
11.11 
2.09 
0.13 
0.20 
37.36 
0.04 
9.06 
4.27 
0.11 
26.09 
5.10 
E 
12.00 
2.04 
0.15 
0.21 
37.39 
0.07 
10.87 
4.21 
0.15 
19.88 
4.24 
GA as % of mean 
C 
10.43 
39.58 
19.40 
7.46 
13.05 
6.45 
13.90 
53.31 
12.36 
11.42 
157.89 
E 
12.38 
39.16 
22.99 
7.98 
14.41 
11.48 
19.06 
53.16 
18.07 
8.90 
66.98 
Table 8: Mean, range, GCV, PCV, heritability, genetic advance(GA) and GA as a percent of mean for different traits in capsicum 
Env. = Environment; C= control;E = epidemic; L/D = Length/Diameter 
Varansi 
Acharyaand Rajput(2003) 
32
Correlation
Table 9: Genotypic correlations among yield and quality traits in chilli (C. annuum) genotypes 
Capsaicin (CPN) 
%Edible portion (%EPR) 
Fruit wrinkles (FWR) 
Fruit colour (FCL) 
Dry fruit weight (DFW) 
Total yield/ plant 
Capsaicin 
(D) 
-- 
0.29** 
0.35** 
0.39** 
0.45** 
0.05 
(H) 
-- 
0.48** 
0.15** 
0.12* 
0.84** 
0.16 
% Edible portion 
(D) 
-- 
0.61** 
0.16 
0.17 
0.11* 
(H) 
-- 
0.56** 
0.40** 
0.19* 
0.16** 
Fruit wrinkles 
(D) 
-- 
0.22** 
0.35** 
-0.27** 
(H) 
-- 
0.21** 
0.43** 
-0.21** 
Fruit colour 
(D) 
-- 
-0.57** 
-0.42** 
(H) 
-- 
-0.11 
-0.004 
Dry fruit weight 
(D) 
-- 
0.44** 
(H) 
-- 
0.69** 
Total yield/plant 
(D) 
-- 
(H) 
-- 
(D) –Dharwad, (H) -Hanumanamatti 
Giritammannavarand Patil (2006) 
Dharwad 
34
Table 10: Phenotypic and genotypic correlation coefficient with quality parameter 
P = Phenotypic correlation coefficient; G= Genotypic correlation coefficient 
*= Significant at 5 % level; **= Significant at 1 % level 
Character 
Capsaicin 
Oleoresin 
Ascorbic acid 
Correlation coefficient 
P 
G 
P 
G 
P 
G 
Plant height 
-0.06 
-0.06 
0.20 
0.20 
0.32* 
0.33 
Primary branches/ plant 
0.40* 
0.65** 
0.17 
0.21 
-0.04 
-0.07 
Fruit length 
0.15 
0.15 
0.29 
0.29 
0.42** 
0.42** 
Pedicel length 
-0.29 
-0.29 
0.10 
0.10 
0.04 
0.04 
Fruit Weight 
-0.35* 
-0.36* 
0.09 
0.09 
0.24 
0.24 
Oleoresin 
0.42** 
0.43** 
1.00 
1.00 
0.12 
0.12 
Sonia (2007) 
Palmpur 
35
Trait 
Plant height 
(cm) 
Fruit weight 
(g) 
Fruit diameter (mm) 
Fruit length (mm) 
Pericarp thickness (mm) 
Soluble solids 
(%) 
Plant height (cm) 
-- 
-0.32 
-0.45 
-0.03 
-0.41 
0.06 
Fruit weight (g) 
-- 
0.67 
0.24 
0.63 
-0.08 
Fruit diameter (mm) 
-- 
-0.11 
0.86 
-0.03 
Fruit length (mm) 
-- 
-0.12 
-0.06 
Pericarp thickness (mm) 
-- 
-0.14 
Soluble solids (%) 
-- 
Table 11: Genotypic correlations among quantitative traits in a cross of two chilli(C. annum) genotypes ‘Maor’ with ‘Perennial’ 
Israel 
Arnonand Ilan(2000) 
36
Combining ability and Geneaction
Parents 
Days to 50 % 
flowe- ring 
Height of 
plant (cm ) 
No. of primary 
branches/ plant 
Length of 
fruit (cm) 
Diame- terof 
fruit (cm) 
Average weight 
of fruit (g) 
No. of fruits/ 
plant 
Yield of green 
fruits / plant (kg ) 
PhuleJoyti 
4.09* 
3.27* 
0.06 
-0.34* 
0.10 
-0.21* 
149.8* 
0.22* 
PhuleMukta 
-2.28* 
0.12 
-0.18* 
-0.96* 
0.43 
-0.24* 
13.59 
0.006 
AC-2 
-2.42* 
-1.12* 
0.76* 
1.38* 
-4.43* 
0.17* 
141.5* 
0.37* 
Surakta 
0.92 
-6.55* 
-0.62* 
-0.99* 
-0.10 
-0.140* 
-78.78* 
-0.25* 
AC-8 
1.18* 
-3.25* 
-0.26* 
-0.71* 
5.70* 
0.04 
-76.84* 
-0.19* 
Guntur-2 
0.92 
1.28* 
-0.39* 
0.32* 
-5.70* 
-0.37* 
-65.87* 
-0.23* 
Delhi Heart-2 
-0.50 
4.48* 
0.76* 
1.39* 
2.30* 
0.40* 
15.75 
0.19* 
Agnirekha 
-0.65 
1.81* 
0.10 
0.50* 
1.70* 
0.30* 
-99.24* 
-0.17* 
S.E. ( gi) ± 
0.35 
0.39 
0.07 
0.05 
0.47 
0.03 
14.61 
0.034 
Table12:Estimates of general combining ability (gca) in chilli 
*,**,significant at 5% and 1% respectively 
Rahuri 
Patilet al. (2010) 
38
Hybrids 
No. of primary branches/ plant 
Length of fruit (cm) 
Diameter of fruit (cm) 
Average weight of fruit (g) 
No. of fruits/ plant 
Yield of green fruits/ plant (kg) 
PhuleJoytix PhuleMukta 
0.90** 
1.11 
7.28** 
0.25* 
251.44** 
0.45** 
PhuleJoytix AC-2 
-0.64** 
0.002 
3.48* 
0.26* 
-16.39 
-0.004 
PhuleJoytix Surakta 
0.20 
-0.11 
-10.85** 
-0.55** 
154.77** 
0.24* 
PhuleJoytix AC-8 
-0.02 
0.80** 
14.86** 
0.19 
-198.38** 
-0.32** 
PhuleMuktax AC-2 
0.67** 
2.07** 
4.48** 
0.39** 
257.36** 
0.60** 
PhuleMuktax Surakta 
0.45* 
0.29 
3.48* 
0.34** 
-145.39** 
-0.27** 
PhuleMuktax AC-8 
-0.25 
0.55** 
1.01 
0.29** 
-14.07 
-0.10 
AC-2 x Surakta 
0.23 
0.86** 
2.34 
0.88** 
1.17 
0.06 
AC-2 xAC-8 
0.47* 
-0.35* 
-2.78 
0.07 
248.77* 
0.60** 
Suraktax AC-8 
-0.55* 
0.10 
-5.11** 
0.05 
55.78 
0.04 
SE (Sij) + 
0.21 
0.17 
1.46 
0.11 
44.88 
0.10 
Table13:Estimates of specific combining ability (sca) in chilli 
*,**, significant at 5% and 1% respectively 
Rahuri 
Patilet al. (2010) 
39
Table 14: Estimates of gene effect for yield and yield contributing traits in chilliusing six parameter model 
Trait 
Cross 
m 
d 
h 
i 
j 
l 
Epistaticgene action 
Fruit length (cm) 
C1 
8.34** 
-0.18 
-0.37 
-1.57** 
0.02 
1.38** 
- 
C2 
6.07** 
0.97** 
2.96** 
3.04** 
1.43** 
-2.67** 
Duplicate 
C3 
7.46** 
0.25 
0.71 
0.40 
-0.85** 
2.86** 
- 
Fruit width (mm) 
C1 
9.25** 
0.68** 
-5.08** 
-5.47** 
-0.56** 
9.57** 
Duplicate 
C2 
9.14** 
0.14 
2.28** 
2.27** 
0.22 
-1.95** 
Duplicate 
C3 
9.71** 
0.65** 
-3.21** 
-2.65** 
-0.09 
8.09** 
Duplicate 
Fruit weight (g) 
C1 
2.86** 
0.42** 
0.28 
-0.58** 
-0.08 
0.64 
- 
C2 
3.02** 
0.35** 
0.68** 
0.40 
0.22** 
-0.65 
- 
C3 
3.53** 
-0.13 
-0.04 
-0.16 
-1.72** 
4.00** 
- 
Number of fruits per plant 
C1 
137.70** 
-77.97** 
131.39** 
53.18** 
-57.48** 
142.01** 
Complementary 
C2 
125.29** 
-82.30** 
245.86** 
71.44** 
-54.58** 
145.79** 
Complementary 
C3 
96.31** 
-18.41** 
136.33** 
73.07** 
13.66** 
27.71 
- 
Yield per plant(g) 
C1 
383.05** 
-149.6** 
448.37** 
23.74 
-149.7** 
531.73** 
Complementary 
C2 
371.79** 
-259.1** 
723.64** 
133.36* 
-194.6** 
671.57** 
Complementary 
C3 
331.83** 
-69.3** 
486.53** 
37.19 
-53.27** 
695.36** 
Complementary 
C1=CCA 5 X CCA 15, C2=BARI Morich1 X CCA 19, C3=CCA 5 X CCA 11. 
Hasanuzzaman& Golam(2011) 
Bangladesh 
m=mean, d=additive effect, h=dominance effect, i=additive x additive, j=additive x dominance l=dominance x dominance type gene interaction. 
40
Character 
Crosses 
Per se 
Performance 
scaeffects 
Plant height (cm) 
B-Kaddi x CO-2 
62.80 
7.77** 
B-Kaddix KDC-1 
62.70 
3.44** 
B-Dabbi x AKC-86-39 
58.50 
5.75** 
No. of primary branchesperplant 
B-Kaddi x KDC-1 
5.60 
1.00** 
B-Dabbi x H-Shakthi 
4.15 
0.72** 
B-Dabbix LCA-312 
4.40 
0.79** 
No. of fruits per plant 
B-Kaddi x GPC-82 
109 
21.22** 
B-Kaddix KDC-1 
130 
28.89** 
B-Kaddix ArkaLohith 
139 
25.89** 
Fruit weight per plant 
B-Kaddi x H-Shakthi 
8.23 
1.16** 
B-Dabbi x AKC-86-39 
11.46 
1.4** 
VN-2 x LCA-312 
16.92 
1.98** 
Dry fruit yield per plant 
B-Kaddix KDC-1 
118.0 
26.24** 
B-Kaddix PMR-5 
97.5 
18.24** 
B-Dabbi x Arka Abir 
49.5 
18.98** 
Arabhavi 
*,**,significant at 5% and 1% respectively 
Jagdeeshaand Vali(2005) 
Table15:scaeffects of different crosses 
41
Heterosis
Table 16: Standard heterosis (SH) in five top ranking crosses. 
Crosses 
Characters 
Green fruit yield/ plant (g) 
Days to first flowering 
No.of prima. branches 
No. of fruits/ plant 
Ave. fruit length (cm) 
ACMS 8 x IPS-2005-15 
448.5** 
4.86** 
28.89** 
277.6** 
-22.76** 
ACMS 5 x IPS-2005-15 
310.1** 
-11.71** 
38.06** 
270.3** 
-33.24** 
ACMS 4 x IPS-2005-15 
305.6** 
20.00** 
46.08 
246.9** 
-31.11** 
ACMS 6 x ACS-2004-03 
297.5** 
-2.00 
33.45** 
205.7** 
-13.73** 
ACMS 8 x RHRC Pendent 
289.0** 
16.29** 
66.21** 
229.1** 
-33.44** 
Crosses 
Ave. fruit girth (cm) 
Fruit shape index 
Ave. fruit weight (g) 
Capsaicin (μg/g) 
Ascorbic acid (μg/g) 
ACMS 8 x IPS-2005-15 
38.42** 
-46.01** 
30.23** 
-8.10** 
53.46** 
ACMS 5 x IPS-2005-15 
11.71** 
-40.75** 
-0.85 
8.90** 
-22.82** 
ACMS 4 x IPS-2005-15 
11.51** 
-39.27** 
4.58 
-3.65** 
5.71** 
ACMS 6 x ACS-2004-03 
-17.3** 
2.47 
16.18** 
9.70** 
11.99** 
ACMS 8 x RHRC Pendent 
16.64** 
-43.92** 
5.89 
-6.35** 
41.64** 
*,**,significant at 5 % and 1 % level of probability , respectively 
Patel et al. (2010) 
Anand 
43
Characters 
Length of fruit (cm) 
Days to 50% flowering 
Diameter of fruit (cm) 
No. of fruits/ plant 
Green fruit yield/ plant (kg) 
PhuleJoytix PhuleMukta 
-19.76** 
0.66 
-6.25 
31.73** 
25.73* 
PhuleJoytix AC-2 
-8.71** 
0.36 
-15.62 
11.75* 
16.91 
PhuleJoytix Surakta 
-32.21** 
2.06 
-26.04 
4.69 
-5.88 
PhuleJoytix AC-8 
-21.07** 
-19.47** 
7.29 
-45.57** 
-41.91** 
PhuleJoytix Guntur-2 
-26.40** 
-14.12** 
-26.04 
-12.93 
-27.20* 
PhuleMuktax AC-2 
5.52* 
-13.48** 
-13.54 
31.42** 
41.91** 
PhuleMuktax Surakta 
-33.61** 
0.68 
-10.42 
-57.75** 
-63.23** 
PhuleMuktax AC-8 
-28.56** 
-12.06** 
-7.29 
-38.70** 
-44.85** 
PhuleMuktax Guntur-2 
-27.06** 
-4.0 
-19.79 
-37.50** 
-44.11** 
AC-2 x Surakta 
-6.74** 
-9.38** 
-16.67 
-18.43 
-13.97 
AC-2 x AC-8 
-15.54** 
-1.9 
-15.62 
17.26 
33.09** 
AC-2 x Guntur-2 
-15.54** 
0.02 
-21.87 
-4.40 
-19.85 
Suraktax AC-8 
-33.61** 
-0.66 
-13.54 
-41.91** 
-50.73** 
Suraktax Guntur-2 
-35.86** 
0.68 
-11.46 
-55.25** 
-63.23** 
AC-8 x Guntur-2 
-11.70** 
-11.40** 
-18.75 
-57.12** 
-59.56** 
SEd 
0.27 
1.68 
2.28 
7.00 
0.16 
Table17:Standard heterosis for different characters inchilli 
Rahuri 
Patiletal. (2012) 
*,**,significant at 5 % and 1 % level of probability , respectively 
44
Cross 
Plant 
height 
No. of 
secondary 
branches 
No. of 
tertiary 
branches 
Days to 
50 per cent 
flowering 
Early 
green 
fruit yield 
L1 x T12 
-1.24 
6.05** 
17.42** 
-9.40** 
-47.22** 
L1 x T13 
49.03** 
19.50** 
3.72** 
-31.1** 
26.21* 
L1 x T14 
49.59** 
15.02** 
26.09** 
-38.22** 
-42.63** 
L1 x T15 
-14.81** 
4.70** 
4.38** 
-27 6** 
-44.90** 
L1 x T16 
15.37** 
32.95** 
-4.93** 
-0.58 
-14.79 
L3 x T12 
13.29** 
-1.34** 
3.1** 
-19.39** 
-40.37** 
L3 x T13 
4.03** 
0.22 
14.35** 
-4.69* 
43.01** 
L3 x T14 
42.26** 
4.70** 
-6.80** 
-21.16** 
112.60** 
L3 x T15 
59.83** 
4.70** 
13.69** 
-16.4** 
31.08** 
L3 x T16 
48.20** 
23.99** 
27.95** 
-9.98** 
50.92** 
L5 x T12 
41 .01** 
13.67** 
3.16** 
0.60 
-10.37 
L5 x T13 
15.37** 
15 02** 
5.03** 
-23.52** 
56.00** 
L5 x T14 
16.76** 
23.99** 
4.38** 
-9.40** 
118.83** 
L5 x T15 
13.02** 
10.53** 
1.86** 
-7.04** 
96.95** 
L5 x T16 
8.31* 
19.50** 
8.10* 
0.60 
-43.20** 
SEm± 
0.62 
0.08 
0.34 
1.41 
7.24 
Table 18: Heterosis (%) over commercial check (HCH-9646) In respect of growth, earliness and early yield in male sterile basedF1 
Karnataka 
Shankarnaget al. (2006) 
*,**,significant at 5 % and 1 % level of probability , respectively 
45 
L = CGMS line, T = Tester line
Male sterility
Table 19: Screening for fertility restorer and maintainer lines in chilli 
Sr. no. 
Lines used as male 
F1plant population 
Tester used as female (CGMS) 
Remarks 
JNKVVA1 
ACBGA1 
ACBGA2 
Fertile 
fertile in F1 (%) 
Fertile 
(fertile in F1 (%) 
Fertile 
fertile in F1 (%) 
1 
Sankeshwar 
40 
40 
100 
40 
100 
40 
100 
Rf 
2 
Pant C-1 
40 
40 
100 
40 
100 
40 
100 
Rf 
3 
BVC-1 
40 
40 
100 
40 
100 
40 
100 
Rf 
4 
GUK-1 
40 
40 
100 
40 
100 
40 
100 
Rf 
5 
LCA-334 
40 
40 
100 
40 
100 
40 
100 
Rf 
6 
D. DABBI 
40 
40 
100 
40 
100 
40 
100 
Rf 
7 
KDSC210-10 
40 
40 
100 
40 
100 
40 
100 
Rf 
8 
P. jwala 
40 
40 
100 
40 
100 
40 
100 
Rf 
9 
B. Kaddi 
40 
40 
100 
40 
100 
40 
100 
Rf 
10 
GCV111 
40 
40 
100 
40 
100 
40 
100 
Rf 
11 
P. Sadabahar 
40 
40 
100 
40 
100 
40 
100 
Rf 
12 
BVC-37 
40 
40 
100 
40 
100 
40 
100 
Rf 
13 
AVNPC131 
40 
00 
00 
00 
00 
00 
00 
rf 
14 
X235 
40 
00 
00 
00 
00 
00 
00 
rf 
15 
PhuleJyoti 
40 
36 
90 
35 
87.5 
40 
100 
Rf/rf 
16 
HisarVijay 
40 
35 
87.5 
36 
90 
40 
100 
Rf/rf 
17 
KDSC510-10 
40 
34 
85 
00 
00 
00 
00 
Rf/rf 
Rf= Fertility restoration 
rf= Sterility maintainer 
Temburne& Rao(2012) 
Jabalpur 
47
Table 20: Pollen quantity and self-crossed fruit setting in F1hybrid of CMS lines and maintainers in pepper 
Cross 
code 
Number of 
F1 
Self-crossed fruit-setting rate (mean+SE) 
Fertility 
Cross 
code 
Number of F1 
Self-crossed fruit-setting rate (mean+SE) 
fertility 
++ 
+- 
-- 
++ 
+- 
-- 
M1 
0 
0 
36 
0.00+0.00 
S 
M5 
38 
0 
0 
23.00+6.75 
F 
M2 
0 
0 
38 
0.00+0.00 
S 
M11 
40 
0 
0 
48.00+10.3 
F 
M3 
0 
30 
0 
28.00+7.75 
F 
M13 
38 
0 
0 
38.00+15.5 
F 
M7 
0 
0 
21 
0.00+0.00 
S 
M14 
34 
0 
0 
34.00+12.2 
F 
M9 
0 
0 
24 
0.00+0.00 
S 
M16 
42 
0 
0 
42.0+12.2 
F 
M10 
22 
0 
0 
46.00+13.5 
F 
M19 
34 
0 
0 
50+11.5 
F 
M15 
38 
0 
0 
14.00+5.67 
F 
M20 
0 
32 
0 
55.0+8.5 
F 
M18* 
0 
0 
34 
14.00+5.67 
PF 
M21 
40 
0 
0 
11.0+5.65 
PF 
M28 
0 
0 
36 
0.00+0.00 
S 
M24* 
0 
0 
44 
0.00+0.00 
S 
(++)= pollen quantity is equal to that of the male parent; (+-)= pollen quantity is equal to 50% of the male parent; (--) = lack of pollen grains or no pollen; SE= standard error; F= fertile; S = sterile; PF = partially fertile; * = no seed. 
China 
Ma et al. (2013) 
48
Non conventional breeding methods
Trait 
Gamma rays (kR) 
EMS (mM) 
Total 
viable 
mutants 
10 
20 
30 
40 
50 
10 
20 
30 
40 
50 
Tall mutant 
- 
1 
3 
1 
- 
2 
- 
5 
1 
- 
13 
Profuse branching 
- 
2 
4 
3 
- 
- 
1 
7 
2 
- 
19 
Curved leaf 
1 
- 
4 
- 
- 
1 
- 
3 
- 
- 
9 
Diminished morphology 
1 
- 
2 
2 
4 
- 
- 
1 
- 
- 
10 
Dwarf plant 
1 
- 
4 
2 
2 
1 
- 
1 
2 
4 
17 
Flower mutant 
- 
2 
6 
1 
- 
- 
2 
12 
4 
- 
27 
Rosette leaf 
- 
- 
- 
- 
- 
- 
- 
2 
- 
- 
2 
Pointed fruit apex 
- 
1 
1 
1 
- 
- 
1 
5 
- 
- 
9 
Male sterile 
1 
- 
7 
4 
4 
- 
1 
6 
1 
3 
27 
Long fruits 
- 
1 
4 
1 
- 
- 
1 
16 
1 
- 
24 
Dark green fruits 
- 
- 
6 
2 
2 
- 
2 
14 
1 
- 
27 
Yellowish green fruits 
- 
1 
4 
- 
- 
- 
- 
1 
- 
- 
6 
Total 
4 
8 
47 
17 
12 
4 
9 
67 
8 
7 
190 
Table21:Viable mutations frequency for various traits in M2generation 
Tamil Nadu 
Srideviand Mullainathan(2011) 
50
Sr. No. 
Mutant type 
Mutagen Dose 
Variety 
Generation 
Frequency 
1 
Tall mutant (high yielding) 
0.3 % EMS 
Co -1 
M3 
13.63 
2 
Tall with short fruit mutant 
0.2 % EMS 
Co -1 
M3 
9.09 
3 
Tall with crinkled fruit mutant 
0.3 % SA 
Co -1 
M2 
9.09 
4 
Dwarf mutant 
0.3 % EMS 
Ujwala 
M2 
13.63 
5 
Short fruit mutant (high yielding) 
0.3 % EMS 
Co -1 
M2 
11.36 
6 
Erect fruit mutant 
0.2 % EMS 
Co -1 
M3 
13.63 
7 
Yellow slender fruit mutant 
0.01 % SA 
Co -1 
M3 
4.55 
8 
Long thick fruit mutant 
0.02 % SA 
Co -1 
M2 
11.36 
9 
Long slender fruit mutant 
0.02 % SA 
Co -1 
M2 
4.55 
10 
Seedless mutant 
0.03 % SA 
Ujwala 
M2 
4.55 
11 
Non viable mutant 
0.03 % SA 
Co -1 
M2 
2.27 
12 
Viable chlorophyll deficient mutant 
0.2 % EMS 
Co -1 
M2 
2.27 
Table22:Frequency (%) of morphological mutants in C. annum after chemical mutagenesis 
Calicut 
Abdul et al. (2010) 
51 
Ethyl methane sulphonate(EMS) Sodium azide(SA)
Treatment no. 
Growth regulator (mg/l) 
No.of shoots/explant 
V1 
V2 
V3 
V4 
Mean 
T1 
2.0 BAP + 0.25 IAA 
2.23 
2.25 
1.98 
1.1 
1.8 
T2 
3.0 BAP + 0.25 IAA 
2.8 
2.8 
2.5 
1.2 
2.3 
T3 
4.0 BAP + 0.25 IAA 
3.1 
2.9 
3.0 
1.9 
2.7 
T4 
5.0 BAP + 0.25 IAA 
3.2 
3.0 
3.7 
2.2 
3.0 
T5 
6.0 BAP + 0.25 IAA 
3.8 
5.1 
4.2 
3.6 
4.1 
T6 
7.0 BAP + 0.25 IAA 
4.9 
5.1 
4.7 
3.8 
4.6 
T7 
8.0 BAP + 0.25 IAA 
4.1 
4.8 
3.8 
2.9 
3.9 
T8 
9.0 BAP + 0.25 IAA 
2.3 
3.1 
2.9 
2.7 
3.0 
Mean 
3.66 
3.3 
3.44 
2.4 
CD0.05 T=0.08; V=0.06; Interaction=0.17, V1= KtPL-19; V2= Pusasadabahar; V3= ArCH-001; V4= Salem 
New Delhi 
Ranjanet al. (2010) 
Table 23: Effect of different growth regulators on multiple shoot formation on shoot tip explant 
52
Ranjanet al. (2010) 
New Delhi 
Table 24: Effect of different growth regulators on direct orgenogenesisfrom cotyledon explant 
53 
Treat. 
Medium +growth regulator (mg/l) 
No. of buds/explant 
V1 
V2 
V3 
V4 
Mean 
T1 
MS+2.0BAP+1.0 IAA 
1.89 
1.90 
1.00 
0.75 
1.38 
T2 
MS+4.0BAP+1.0 IAA 
2.25 
2.10 
1.95 
1.09 
1.85 
T3 
MS+6.0BAP+1.0 IAA 
4.25 
4.1 
3.0 
2.9 
3.5 
T4 
MS+8.0BAP+1.0 IAA 
5.1 
5.7 
4.7 
3.2 
4.7 
T5 
MS+10.0BAP+1.0 IAA 
4.2 
4.8 
3.2 
2.0 
3.5 
T6 
MS+0.5 TDS 
2.0 
2.5 
2.1 
1.1 
1.9 
T7 
MS+1.0 TDS 
6.2 
6.9 
5.2 
4.5 
5.7 
T8 
MS+1.5 TDS 
5.2 
5.2 
4.2 
2.5 
4.9 
T9 
MS+2.0 TDS 
4.2 
3.9 
2.1 
1.2 
2.8 
mean 
3.9 
4.1 
3.0 
2.1 
TDZ= Thidiazuron 
V1= KtPL-19; V2= Pusasadabahar; V3= ArCH-001; V4= Salem
Abioticand Biotic stress resistance
SN 
Genotype 
100 marketable 
fruit wt. (g) 
Ascorbic acid 
mg/100g 
Fruit set 
percent 
Number of fruits per plant 
Fruit yield (q/ha) 
1 
CCA-3331 
100.8cf 
136.3d 
9 33c-e 
53.34b 
23.63ef 
2 
CCA-336B 
141.9c-e 
47.84h 
14.00c-e 
39.90c 
24.69ef 
3 
CCA-984A 
308.1b 
32.86i 
10.68c-e 
5.61d 
7.970g 
4 
Mr.LeeNa3 
333.1b 
144.8c 
31.28b 
68.96a 
95.33a 
5 
PBC-142 
77.85f 
153.1b 
15.02cd 
33.62c 
11.24g 
6 
Maor 
152.3cd 
166.4a 
6.66e 
36.46c 
22.87ef 
7 
CCA-119A 
189.3C 
54.5h 
26.28b 
61.76ab 
45.68c 
8 
CCA-3288 
295.1b 
75.71g 
12.66c-e 
28.86c 
35.72d 
9 
Susan'sJoy 
499.6a 
85.70f 
7.33de 
29.78c 
64.23b 
10 
CO-5678 
99.85ef 
93.74f 
41.33a 
63.30ab 
25.76ef 
11 
Suryamukhi 
110.6d-f 
90.41f 
40.66a 
37.85c 
17.00fg 
12 
NS-1701 
146.7c-e 
173.6d 
12.66c-e 
38.40c 
21.26ef 
13 
Jwala 
105.5d-f 
113.7e 
16.66c 
71.00a 
30.62de 
LSD (p=0.05) 
43.99 
7.89 
7.25 
10.20 
8.834 
SEm+ 
15.07 
2.70 
2.48 
3.49 
3.026 
Means within the column followed by the same letter (s) do not differ significantly at 0.05 level by DNMRT 
Dahalet al. (2006) 
Nepal 
Table 25: Effect of Temperature stress (30.8 to 16.0 0C) on fruit setting, yield and other quality characters 
55
Genotype 
Salinity level 
Control 
2 EC 
4 EC 
6 EC 
8 EC 
Mean 
Dry weight of the plant (g) 
LCA 235 
17.35 
17.62 
16.84 
14.87 
9.24 
15.18 
LCA 315 
18.36 
17.29 
14.99 
11.91 
6.31 
13.85 
LCA 324 
16.82 
16.52 
13.38 
8.87 
5.55 
12.23 
LCA 224 
16.86 
15.23 
12.95 
9.22 
4.99 
11.85 
CA 960 
18.38 
18.20 
15.74 
12.92 
8.56 
14.76 
G4 
10.03 
17.08 
16.65 
13.71 
9.15 
14.92 
Pod weight (g) 
LCA 235 
2.56 
2.60 
2.46 
2.33 
2.03 
2.40 
LCA 315 
3.43 
3.03 
2.46 
1.87 
1.23 
2.41 
LCA 324 
2.36 
2.30 
2.23 
1.67 
1.23 
1.96 
LCA 334 
2.53 
2.36 
2.06 
1.60 
1.03 
1.92 
CA 960 
2.73 
2.83 
2.23 
1.50 
1.06 
2.07 
G4 
2.93 
2.70 
2.26 
1.70 
1.33 
2.18 
Number of pods per plant 
LCA 235 
12.23 
12.00 
11.66 
9.00 
6.66 
10.33 
LCA 315 
6.33 
6.00 
4.66 
1.00 
0.33 
3.66 
LCA 324 
8.33 
8.00 
6.00 
3.66 
2.00 
5.60 
LCA 334 
9.66 
8.33 
6.66 
3.66 
0.66 
5.80 
CA 960 
9.66 
8.66 
7.00 
3.66 
2.33 
6.26 
G4 
9.33 
10.00 
8.66 
4.33 
2.66 
7.00 
Kameswari& Prasad (2005) 
Bapatala 
Table 26: Effect of different salinity levels of irrigation water on a plant growth characters of chilli genotypes 
56
CausalOrganism:Colletotrichumspp. 
Infectionoccursduringperiodsofexcessirrigationorrain 
Small,watersoakedlesionsthatexpandrapidly. Fullyexpandedlesionsaresunkenandrangeincolorfromdarkredtoblackinconcentricrings 
CausalOrganism:TobaccoMosaicVirus 
Transmittedby:whitefly 
Mosaicpatternsconsistingofbandsoflightgreenoryellowalternatingwithdarkgreen. 
Sometimestheleavesarecrinkledordistortion. 
Plantgrowthisstunted. C. O. : Alternariaspp. 
•Dusty black spot on fruit and leaves 
•Fruit rotC. O. : Phytoptheracapsici 
•Dark lesions of the stem 
•Blighting of plant 
•Water soaked gray spot on fruit & it mummifies 
57
Line 
Reference 
Jwala 
Tewariand Ramanujam1974 
Karanja, Pant C-l, S 46-1, IC 18253, IC 1.8885, CA 196, Cross 218, PC 121490 
Ihallet al. 1983 
Pant C-1, Pant C-2, Capsicum Lpirinsul 
Iconaiand Nariani1980 
Jwala, C-9, CA-960 
Dhanju1983 
Pant C-1, lorai, Loungi, Perennial, S 118-2 
Sharma and Singh 1985 
Ci-1, LIC-45, N-146 
Nlemaneet al. 1987 
Pant C-1, Pusa Jwala, NP 46A, JCA 19 
Sangaret al. 1988; Braret al. 1989 
Perennial, Surjamani 
Soochet al. 1976 
LS-VIII, LS-IV, IS-1 
I Lundej, personal communication 1993 
Sele94-4-9-3, Sel101-2-33 
(Pusa Jwalax Delhi Local), Sel38-2-1 
Tewariand Viswanath1986 
Table 27: Pepper germplasm and breeding lines reported to be resistant or tolerant to leaf curl viruses in India 
Hundel(1999) 
Ludhiana 
58
WD= whitefly density (whiteflies/leaf), Ovi= Oviposition(eggs/cm), OR= ovipositionrate (eggs/whitefly) 
Syarifin(2012) 
Indonesia 
SN 
Accession Name 
Resistance parameters 
RI 
R Class 
TrichomeDensity trichomes/cm 
Cuticle 
Thicknes(mm) 
WD 
Ovi 
OR 
1 
C. annum Sweet Chocolate 
3.0+0.8 
0.6+0.4 
0.21-0.16 
0.50 
MS 
47.3+5.6 
5.9+0.1 
2 
C. annum Bisbas 
11.8+2. 
9.8+0.2 
0.85+0.15 
0.67 
MR 
43.8+3.4 
4.1+0.2 
3 
C. annum de Arbol 
2.0+0.8 
0.2+0.4 
0.19+0.38 
0.75 
MR 
46.5+14,0 
5.2+0.1 
4 
C. annum CM 331 
0.3+0.5 
0.0+0.0 
0.00+0.00 
0.92 
R 
78.5+ 6.6 
5.0+0.1 
5 
C. annum California Wonder 
4.0+0.8 
2.5+0.4 
0.65+0.17 
0.50 
MS 
49.0+11.0 
7.4+0.1 
6 
C. annum KalifomischeP. 
12.3+1.0 
0.8+0.5 
0.06+0.04 
0.67 
MR 
27.8+2.9 
5.7+0.1 
7 
C. annum Mild California 
1.0+0.8 
0.2+0.2 
0.08+0.14 
0.75 
MR 
61.0+19.6 
7.3+0.1 
8 
C. annum California W. 300 
1.5+0.6 
0.2+0.4 
0.25+0.35 
0.90 
R 
63.0+10.1 
7.6+0.0 
9 
C. annum Wonder v Kal, 
1.0+0.8 
0.3+0.4 
0.33+0.58 
0.67 
MR 
40.5+ 7,6 
7.7+10.1 
10 
C. annum Gold California W. 
2.5+1.3 
0.3+0.2 
0.12+0.10 
0.83 
R 
80.0+9.8 
7.8+0.1 
11 
C. annum Yolo Wonder Imp 
7.0+0.8 
2.3+0.5 
0.32+0.08 
0.67 
MR 
59.3+ 5.0 
6.5+0.0 
12 
C. baccatum No. 1553 
4.8+1.5 
13.1+1.3 
3.07+1.38 
0.17 
S 
123.5+3.4 
5.3+0.1 
13 
C. chinense RU 72-241 
7.3+1.7 
20.9+1.1 
3.02+0.80 
0.33 
S 
37.3+ 0.5 
4.4+0.1 
14 
C. chinenseAC 2212 
6.8+1.3 
0.2+0.2 
0.03+0.04 
0.81 
R 
75.8+ 7.3 
6.5+0.2 
15 
C. chinenseMiseucho 
20.0+0.8 
11.4+1.3 
0.57+0.08 
0.50 
MS 
132.5+6.6 
3.7+0.2 
16 
C. chinense PI 281428 
4.0+0.8 
17.4+2.3 
4.52+1.19 
0.17 
S 
89.3+9.8 
3.4+0.1 
17 
C. fruitescensL. Tabasco 
18.3+2.4 
30.8+2.4 
1.70+0.25 
0.08 
S 
54.5+6.8 
3.8+0.0 
59 
Table28: Mean of whitefly resistance parameters, value of resistance index (RI), resistance level (R class) and leaf characteristics for pepper accessions
Species 
No. of lines screened 
Disease incidence (%) 
0 
<10 
10-20 
21-40 
41-70 
71- 100 
C. annuum 
291 
1 
15 
93 
182 
C. baccatum 
26 
6 
6 
6 
3 
2 
3 
C. chinense 
5 
2 
2 
1 
C. frutescens 
2 
2 
C. pubescens 
2 
2 
Disease evaluation RMRS HS 
Table 29: Disease reactions of Capsicumaccessions to 
KSCa-1 isolate of Colletotrichumacutatum 
Korea 
Yoon (2003) 
60
Pepper line 
PA-1 
RO-4 
BE-4 
C05A 
2.42 * 
2.53 * 
0.09 * 
C05B 
4.25 
2.52 * 
1.42 * 
C05C 
3.47 * 
3.73 
0.91 * 
CO10A 
3.84 
3.45 
1.23 * 
CO10B 
3.82 
4.65 
0.55 * 
CO10C 
4.20 
4.21 * 
1.78 * 
C012B 
4.32 
2.80 * 
1.06 * 
C012C 
4.32 
2.82 * 
1.52 * 
C018A 
3.62 * 
3.45 
1.32 * 
CO2.20 
4.72 
2.41 * 
0.97 * 
CO5.04 
3.70 * 
4.27 * 
0.99 * 
C02.16 
4.82 
4.88 
0.93 * 
C03.15 
3.30 * 
4.85* 
1.30 * 
PA 124 
3.14 * 
3.09 * 
0.62 * 
PA 129 
3.49 * 
1.98 * 
0.28 * 
PA158 
4.55 
3.02 * 
0.57 * 
PA 172 
4.09 
4.05 
0.40 * 
Yolo Wonder 
4.66 
3.69 
3.05 
Table30:Resistance of C. annuumgermplasm to three isolates of Phytoptheracapsici 
*, Statistically different from the susceptible control Yolo Wonder according to the Waller-Duncan's multiple range test at P < 0.05. 
0 (0% disease) -5 (100% disease) scale 
Andres et al. (2005) 
Spain 
61
Table 31: Evalutionof chilligermplasmsagainst fruit rot (Phytoptheraspp.) 
Grade 
Reaction (% infection) 
Germplasm / Variety 
0 
Tolerant (0%) 
- 
1 
Resistant (1-10%) 
LCA-301,LCA-324,K-1,ByadagiKaddi 
3 
Moderately resistant 
(11-25%) 
Pusajwala,LCA-312,Co-2,No-8,SNK-8 
5 
Moderately susceptible 
(26-50%) 
Hissarshakti,G-4,GPC-82,LCA-304,S-32,GPC-80, LCA-306,SNK-12,TNSP-33,SNK-11,Pant-C-1, Byadagidabbi,LCA-206,PKM-1,GPC-69,No-20, No-71,Co-3,SIC-11-179,No-38,No-65,SIC-10- 166,No-33,B-1-1,No-74,G-4,Dh-9-6-6,N0-70, SKN-10-1 
7 
Susceptible 
(51-75%) 
KDSC-510-10,Co-1,KDSC-110-10,DS-1,R-11-22, LCA-307,Paprika,SNK-9,SNK-10 
9 
Highly susceptible (>75%) 
KDSC-210-10,S-32 
Ekboteet al. (2002) 
Dharwad 
62
Genotypes 
Wiltincidence (%) 
Reaction 
1stweek 
2ndweek 
Ajeet-6 
20.00 
20.00 
MR 
ArkaMeghana 
100.00 
100.00 
HS 
ArkaIohit 
71.43 
71.43 
S 
ArkaHarita 
42.46 
45.46 
MS 
F-112-5-83 
0.00 
10.00 
R 
Jawahar-218 
80.00 
80.00 
HS 
JCA-28.3 
50.00 
5O. 00 
S 
KCS-2013 
20.00 
20.00 
MR 
Pant C-1 
18.20 
27.28 
MR 
ArkaSuphala 
87.50 
87.50 
HS 
Punjab Gucchedar 
60.00 
80.00 
HS 
Pusa Jwala 
50.00 
50.00 
MS 
Ravindra 
40.00 
60.00 
S 
SKAU-C-101 
10.00 
10.00 
R 
Tiwari 
90.00 
100.00 
HS 
HCA-283 
100.00 
100.00 
HS 
ArkaSuphala 
87.50 
87.50 
HS 
Pusa Sadabahar 
100.00 
100.00 
HS 
PC-6 
10.00 
1 0.00 
R 
ACS-201 
11.12 
33.34 
MR 
Table 32: Screening of different chilligenotypes against Fusariumwilt 
R-Resistant, MR-Moderately resistant, S-Susceptible, MS-Moderately susceptible, HS-Highly susceptible 
Raichur 
Raniet al.(2008) 
63
Variety 
% Disease suseptibility 
Date after Inoculation 
Field Resistant 
Evaluation 
7 
14 
21 
61 
Wonkyo306 
0 
0 
0 
0.03 
R 
R 
Shinhong 
5 
23 
32 
75 
M 
M 
Cheonanjaelae 
10 
70 
70 
95 
S 
MS 
Table 33: Reaction of Wonkyo306 To Phytophthoracapsici. 
Variety 
Virus 
Anthracnose 
Bacterial Leaf Spot 
Wonkyo306 
R 
MR 
MR 
Shinhong 
S 
MS 
MS 
Cheonan 
S 
M 
S 
Table 34: Reaction of Wonkyo306to Virus, Anthracnose and Bacterial Leaf Spot. 
Kwan et al. (1985) 
Korea 
Three way F1'wonkyo306' with the multi resistance in Capsicum annuum 
Taenjaelae(F1) 
Gimjanggochu 
three way F1 
WONKYO 306 (F6) 
Selfed& subsequent selection 
X 
(local selection) 
Resistance to TMV, Anthracnose 
Good yielding, 
Susceptible to 
Bacterial LS 
64
Disease/insect /stress 
Resistant/tolerant source 
Fruit rot (Colletotrichumsp.) 
C. chinense, Accr1555, 1554, 906, Chinese Giant, Hungarian Yellow Wax, Spartan 
Cercosporaleaf spot 
California Wonder, Hungarian Wax 
Bacterial leaf spot 
PI 163192, PI 260435, PI 163189, PI 163192, PI 271322, PI 32219 
Phytophthoraroot rot 
PI 201234 
Phytophthoranicotianae 
PBG 631, UHF-1 
Root knot nematode 
Santaba 
TMV 
Sonnette, Keystone Resistant Giant, YW, Yolo Y 
Tolerant to drought 
ArkaLohit 
Tolerant to salinity 
PLR 1 
Table 35: Resistant / Tolerant sources 
65
Achievement 
PusaJwala 
ArkaLohit 
ArkaMeghna 
Reshampatto 
ArkaGaurav 
ArkaMohini 
GAVCH 1 
PusaMeghdoot 
66
Table36: Varieties 
Bellpepper 
Hot chilli 
Introduced 
California Wonder, Yolo Wonder,World Beater, Chinese Giant, Golden Wonder,Bull nose, Sweet Banana 
By IARI 
From USA 
Selection 
ArkaMohini, A. Gaurav, A. Basant 
IIHR 
ArkaLohit 
IIHR 
Agnirekha, PhuleJyoti, Suryamukhi 
MPKV 
Heterosisbreeding : public sector 
Solan Bharpur 
UHF, Solan 
CH-1,Punjab-27 
Ludhiana 
Hybrid (private) 
Bharat, Laxmi, Mamta, super gold, chocolatewonder 
Indo-American 
Tejaswini 
Mahyco 
Indira, Larica 
Sandoz 
Agni 
Novartis 
Green Gold 
Mahyco 
ARCH-236 
AnkurSeeds 
Hira, NAFCR-101 
NathSeeds 
Seoul HOE-808, HOE-888 
Hoechest 
Early Bounty, Gem Giant 
Suttons 
INDAM-5,67, chilli-2006-1 
Indo-American 
NS-436 
Namdhari 
Hybrid (public) 
P. meghdoot,P.Deepti(Kt-1), KTCPH-3 & 5 
IARI (Katrain) 
PusaJwala, 
IARI 
Solan Hybrid-1, Solan Hybrid-2 
UHF (Solan) 
Kashianmol, Kashisurkh 
IIVR 
ArkaMeghana, ArkaSweta 
IIHR 
67
Highvariabilitypresentinnatureforqualityandyieldcontributingcharacters. 
Characterslikefruitsperplant,pricarpthickness,fruitsize,fruitweightandoleoresincontentcanbeusedforselection. 
Heterosiscanbemanifestedusingdiversegermplasm. 
Easyandmorehybridseedproductioncanbepossiblethroughproperexploitationofmalesterilitysystem. 
Mutationcanbeemployedtocreatenewusefulmutantforcropimprovement. 
Invitrocloningismoresuccessfulwhencotyledonleafwasusedasanexplants. 
Abioticstresstolerantgermplasmpresentinnature. 
Diseaseresistantcultivarcanbedevelopedthroughcrossingandbackcrossingwithresistancegermplasm. 
68
DevelopmentofvarietieswithinbuiltresistanceagainstCMVandanthracnose. 
Genesisofvarietieswithlesspungencyandconsumerpreference. 
Exploitationofmalesterilityandchemicalhybridizingagentsindevelopingnewhybrids. 
Introductionofheatanddroughttolerancegermplasmasastrategyforclimatechange. 
Developmentoflocationspecificvarieties. 
Developmentofvarietieswithhighdrymatter(chillipowder)output. 
Todevelopavarietieswhichcanmaintainassuchcapsaicincontentevenafteralongerstorageperiod. 
Developmentsofvarietieswithhigherantioxidentandoleoresincontent. 
Useofwildrelativesinbreedingprogrammebasedonembryorescueandsomatichybridizationtechniques. 
Breedingforornamentalplanttype. 
Future thrust 
69
Genetic improvement in chilli

More Related Content

What's hot

Cotton
CottonCotton
Advances in breeding of guava
Advances in breeding of guavaAdvances in breeding of guava
Advances in breeding of guava
sukhjinder mann
 
Pract no. 9 (a) floral biology of banana
Pract no. 9 (a) floral biology of bananaPract no. 9 (a) floral biology of banana
Pract no. 9 (a) floral biology of banana
tusharamodugu
 
APPLICATION OF BIOTECHNOLOGICAL TOOLS IN VEGETABLE IMPROVEMENT
 APPLICATION OF BIOTECHNOLOGICAL TOOLS IN VEGETABLE IMPROVEMENT APPLICATION OF BIOTECHNOLOGICAL TOOLS IN VEGETABLE IMPROVEMENT
APPLICATION OF BIOTECHNOLOGICAL TOOLS IN VEGETABLE IMPROVEMENT
shikha singh
 
Marker-assisted Selection (MAS) in fruit crops
Marker-assisted Selection (MAS) in fruit cropsMarker-assisted Selection (MAS) in fruit crops
Marker-assisted Selection (MAS) in fruit crops
MANDEEP KAUR
 
BREEDING FOR QUALITY TRAITS IN VEGETABLE CROPS
BREEDING FOR QUALITY TRAITS IN VEGETABLE CROPSBREEDING FOR QUALITY TRAITS IN VEGETABLE CROPS
BREEDING FOR QUALITY TRAITS IN VEGETABLE CROPS
Adhiyamaan Raj
 
Breeding in sapota
Breeding in sapotaBreeding in sapota
Breeding in sapota
srikaanth akshay
 
Grape breeding
Grape breedingGrape breeding
Grape breeding
Vilas Ghule
 
Sugarcane-Bismoy Mohanty
Sugarcane-Bismoy MohantySugarcane-Bismoy Mohanty
Sugarcane-Bismoy Mohanty
Bismoy Mohanty
 
cucurbits seed production
cucurbits seed productioncucurbits seed production
cucurbits seed production
Hridya Rejeendran
 
Chickpea
ChickpeaChickpea
Advances in Vegetable Improvement through Biotechnological Approach
Advances in Vegetable Improvement through Biotechnological ApproachAdvances in Vegetable Improvement through Biotechnological Approach
Advances in Vegetable Improvement through Biotechnological Approach
Aditika Sharma
 
Tomato Breeding
Tomato BreedingTomato Breeding
Tomato BreedingLav Kumar
 
Emasculation, crossing techniques in cereals (Rice, Wheat, Maize)
Emasculation, crossing techniques in cereals (Rice, Wheat, Maize)Emasculation, crossing techniques in cereals (Rice, Wheat, Maize)
Emasculation, crossing techniques in cereals (Rice, Wheat, Maize)
nimmu307
 
Presentation on Breeding Techniques of Mango
Presentation on Breeding Techniques of MangoPresentation on Breeding Techniques of Mango
Presentation on Breeding Techniques of Mango
Dr. Kaushik Kumar Panigrahi
 
Breeding Methods of Brinjal.
Breeding Methods of Brinjal.Breeding Methods of Brinjal.
Breeding Methods of Brinjal.
BajrangKusro
 
Advances breeding of Papaya
 Advances breeding of Papaya Advances breeding of Papaya
Advances breeding of Papaya
GANGARAM RANA
 
Advances in breeding of citrus
Advances in breeding of citrusAdvances in breeding of citrus
Advances in breeding of citrus
sukhjinder mann
 
Grapes breeding
Grapes breedingGrapes breeding
Grapes breeding
PoojaHorti
 

What's hot (20)

Cotton
CottonCotton
Cotton
 
Advances in breeding of guava
Advances in breeding of guavaAdvances in breeding of guava
Advances in breeding of guava
 
Pract no. 9 (a) floral biology of banana
Pract no. 9 (a) floral biology of bananaPract no. 9 (a) floral biology of banana
Pract no. 9 (a) floral biology of banana
 
APPLICATION OF BIOTECHNOLOGICAL TOOLS IN VEGETABLE IMPROVEMENT
 APPLICATION OF BIOTECHNOLOGICAL TOOLS IN VEGETABLE IMPROVEMENT APPLICATION OF BIOTECHNOLOGICAL TOOLS IN VEGETABLE IMPROVEMENT
APPLICATION OF BIOTECHNOLOGICAL TOOLS IN VEGETABLE IMPROVEMENT
 
Marker-assisted Selection (MAS) in fruit crops
Marker-assisted Selection (MAS) in fruit cropsMarker-assisted Selection (MAS) in fruit crops
Marker-assisted Selection (MAS) in fruit crops
 
BREEDING FOR QUALITY TRAITS IN VEGETABLE CROPS
BREEDING FOR QUALITY TRAITS IN VEGETABLE CROPSBREEDING FOR QUALITY TRAITS IN VEGETABLE CROPS
BREEDING FOR QUALITY TRAITS IN VEGETABLE CROPS
 
Breeding in sapota
Breeding in sapotaBreeding in sapota
Breeding in sapota
 
Grape breeding
Grape breedingGrape breeding
Grape breeding
 
Sugarcane-Bismoy Mohanty
Sugarcane-Bismoy MohantySugarcane-Bismoy Mohanty
Sugarcane-Bismoy Mohanty
 
cucurbits seed production
cucurbits seed productioncucurbits seed production
cucurbits seed production
 
Chickpea
ChickpeaChickpea
Chickpea
 
Advances in Vegetable Improvement through Biotechnological Approach
Advances in Vegetable Improvement through Biotechnological ApproachAdvances in Vegetable Improvement through Biotechnological Approach
Advances in Vegetable Improvement through Biotechnological Approach
 
vegetable Breeding by adnan
vegetable Breeding by adnanvegetable Breeding by adnan
vegetable Breeding by adnan
 
Tomato Breeding
Tomato BreedingTomato Breeding
Tomato Breeding
 
Emasculation, crossing techniques in cereals (Rice, Wheat, Maize)
Emasculation, crossing techniques in cereals (Rice, Wheat, Maize)Emasculation, crossing techniques in cereals (Rice, Wheat, Maize)
Emasculation, crossing techniques in cereals (Rice, Wheat, Maize)
 
Presentation on Breeding Techniques of Mango
Presentation on Breeding Techniques of MangoPresentation on Breeding Techniques of Mango
Presentation on Breeding Techniques of Mango
 
Breeding Methods of Brinjal.
Breeding Methods of Brinjal.Breeding Methods of Brinjal.
Breeding Methods of Brinjal.
 
Advances breeding of Papaya
 Advances breeding of Papaya Advances breeding of Papaya
Advances breeding of Papaya
 
Advances in breeding of citrus
Advances in breeding of citrusAdvances in breeding of citrus
Advances in breeding of citrus
 
Grapes breeding
Grapes breedingGrapes breeding
Grapes breeding
 

Viewers also liked

Presentation on chillie breeding
Presentation on chillie breedingPresentation on chillie breeding
Presentation on chillie breeding
Seen Sheen Ka Pahara
 
Chilli capsicum sp..
Chilli capsicum sp..Chilli capsicum sp..
Chilli capsicum sp..
Varsha Gayatonde
 
Chilli breeding
Chilli  breedingChilli  breeding
Chilli breeding
mutturaj13
 
Production technology of chili and capsicum
Production technology of chili and capsicumProduction technology of chili and capsicum
Production technology of chili and capsicumkuldeepgarwa
 
Chili cultivation in India
Chili cultivation in IndiaChili cultivation in India
Chili cultivation in India
Prince Verma
 
Chili
ChiliChili
Major diseases of chilli
Major diseases of chilliMajor diseases of chilli
Major diseases of chillicsapramod
 
Chilli cultivation, trading process
Chilli  cultivation, trading  processChilli  cultivation, trading  process
Chilli cultivation, trading processkuntalpatra01
 
RED CHILLY PROCESSING
RED CHILLY PROCESSINGRED CHILLY PROCESSING
RED CHILLY PROCESSING
Senthamizh Selvan
 
Mendel's experiment on hybridisation and monohybrid cross
Mendel's experiment on hybridisation and monohybrid crossMendel's experiment on hybridisation and monohybrid cross
Mendel's experiment on hybridisation and monohybrid crossICHHA PURAK
 
Indian Red Spice (Chilli)
Indian Red Spice (Chilli)Indian Red Spice (Chilli)
Indian Red Spice (Chilli)
sudhanshu_pandey
 
Brinjal
BrinjalBrinjal
ABC of cultivation of documented Medicinal and Aromatic Plants By Allah Dad ...
ABC  of cultivation of documented Medicinal and Aromatic Plants By Allah Dad ...ABC  of cultivation of documented Medicinal and Aromatic Plants By Allah Dad ...
ABC of cultivation of documented Medicinal and Aromatic Plants By Allah Dad ...
Mr.Allah Dad Khan
 
Organic Farming of Vegetables In India
Organic Farming of Vegetables In IndiaOrganic Farming of Vegetables In India
Organic Farming of Vegetables In India
x3G9
 
Solanaceae
SolanaceaeSolanaceae
Solanaceae
biologia-conectado
 
Agriculture Supported Communities
Agriculture Supported Communities Agriculture Supported Communities
Agriculture Supported Communities
greenjeans76
 
Important Solanaceae crops
Important Solanaceae cropsImportant Solanaceae crops
Important Solanaceae crops
IIM Ahmedabad
 
Impacts of Plastic and Cover Crop Mulches on Weeds, Soil Quality, Yields and ...
Impacts of Plastic and Cover Crop Mulches on Weeds, Soil Quality, Yields and ...Impacts of Plastic and Cover Crop Mulches on Weeds, Soil Quality, Yields and ...
Impacts of Plastic and Cover Crop Mulches on Weeds, Soil Quality, Yields and ...
greenjeans76
 

Viewers also liked (20)

Presentation on chillie breeding
Presentation on chillie breedingPresentation on chillie breeding
Presentation on chillie breeding
 
Chilli capsicum sp..
Chilli capsicum sp..Chilli capsicum sp..
Chilli capsicum sp..
 
Chilli breeding
Chilli  breedingChilli  breeding
Chilli breeding
 
Chilli slide
Chilli slideChilli slide
Chilli slide
 
Production technology of chili and capsicum
Production technology of chili and capsicumProduction technology of chili and capsicum
Production technology of chili and capsicum
 
Chili cultivation in India
Chili cultivation in IndiaChili cultivation in India
Chili cultivation in India
 
Chili
ChiliChili
Chili
 
Major diseases of chilli
Major diseases of chilliMajor diseases of chilli
Major diseases of chilli
 
Chilly brochu
Chilly brochuChilly brochu
Chilly brochu
 
Chilli cultivation, trading process
Chilli  cultivation, trading  processChilli  cultivation, trading  process
Chilli cultivation, trading process
 
RED CHILLY PROCESSING
RED CHILLY PROCESSINGRED CHILLY PROCESSING
RED CHILLY PROCESSING
 
Mendel's experiment on hybridisation and monohybrid cross
Mendel's experiment on hybridisation and monohybrid crossMendel's experiment on hybridisation and monohybrid cross
Mendel's experiment on hybridisation and monohybrid cross
 
Indian Red Spice (Chilli)
Indian Red Spice (Chilli)Indian Red Spice (Chilli)
Indian Red Spice (Chilli)
 
Brinjal
BrinjalBrinjal
Brinjal
 
ABC of cultivation of documented Medicinal and Aromatic Plants By Allah Dad ...
ABC  of cultivation of documented Medicinal and Aromatic Plants By Allah Dad ...ABC  of cultivation of documented Medicinal and Aromatic Plants By Allah Dad ...
ABC of cultivation of documented Medicinal and Aromatic Plants By Allah Dad ...
 
Organic Farming of Vegetables In India
Organic Farming of Vegetables In IndiaOrganic Farming of Vegetables In India
Organic Farming of Vegetables In India
 
Solanaceae
SolanaceaeSolanaceae
Solanaceae
 
Agriculture Supported Communities
Agriculture Supported Communities Agriculture Supported Communities
Agriculture Supported Communities
 
Important Solanaceae crops
Important Solanaceae cropsImportant Solanaceae crops
Important Solanaceae crops
 
Impacts of Plastic and Cover Crop Mulches on Weeds, Soil Quality, Yields and ...
Impacts of Plastic and Cover Crop Mulches on Weeds, Soil Quality, Yields and ...Impacts of Plastic and Cover Crop Mulches on Weeds, Soil Quality, Yields and ...
Impacts of Plastic and Cover Crop Mulches on Weeds, Soil Quality, Yields and ...
 

Similar to Genetic improvement in chilli

1. breeding of tomato
1. breeding of tomato1. breeding of tomato
1. breeding of tomato
ATMA RAM MEENA
 
Muskmelon breeding
Muskmelon breedingMuskmelon breeding
Muskmelon breeding
Indranil Bhattacharjee
 
03 & 04 Pepper breeding.ppt
03 & 04 Pepper breeding.ppt03 & 04 Pepper breeding.ppt
03 & 04 Pepper breeding.ppt
SumanthBT1
 
CROP IMPROVEMENT OF CHILLI AND CAPSICUM
CROP IMPROVEMENT OF CHILLI AND CAPSICUMCROP IMPROVEMENT OF CHILLI AND CAPSICUM
CROP IMPROVEMENT OF CHILLI AND CAPSICUM
pavanknaik
 
Vegetables
VegetablesVegetables
Vegetables
Jovi Barreras
 
CHILLIES (GENETICS) FLORAL BIOLOGY,BREEDING PROCEDURE,OBJECTIVES
CHILLIES (GENETICS) FLORAL BIOLOGY,BREEDING PROCEDURE,OBJECTIVESCHILLIES (GENETICS) FLORAL BIOLOGY,BREEDING PROCEDURE,OBJECTIVES
CHILLIES (GENETICS) FLORAL BIOLOGY,BREEDING PROCEDURE,OBJECTIVES
ANFAS KT
 
Breeding for color development.
Breeding for color development.Breeding for color development.
Breeding for color development.
Eminent Doll
 
Presentation on Brinjal Breeding
Presentation on Brinjal BreedingPresentation on Brinjal Breeding
Presentation on Brinjal Breeding
DATTATRAYA PADALKAR
 
Specialty Vegetables
Specialty VegetablesSpecialty Vegetables
Specialty Vegetables
ElisaMendelsohn
 
carrot breeding
carrot breedingcarrot breeding
carrot breeding
Sanmathiashihal
 
Carrot Breeding
Carrot BreedingCarrot Breeding
Pest of Horticultural Crops :Apple to study the Identification, Damaging Symp...
Pest of Horticultural Crops :Apple to study the Identification, Damaging Symp...Pest of Horticultural Crops :Apple to study the Identification, Damaging Symp...
Pest of Horticultural Crops :Apple to study the Identification, Damaging Symp...
KiranJadhav172815
 
genetic improvement in chilli
genetic improvement in chilligenetic improvement in chilli
genetic improvement in chilli
Anilkumar C
 
Cherry &amp; strawberry
Cherry &amp; strawberryCherry &amp; strawberry
Cherry &amp; strawberry
Pawan Nagar
 
Solanaceae - Parvin Mammadova
Solanaceae - Parvin  MammadovaSolanaceae - Parvin  Mammadova
Solanaceae - Parvin Mammadova
Pervin Memmedova
 
NCompass Live: Seed Saving for Libraries
NCompass Live: Seed Saving for LibrariesNCompass Live: Seed Saving for Libraries
NCompass Live: Seed Saving for Libraries
Nebraska Library Commission
 
Advances breeding of Pear
Advances breeding of PearAdvances breeding of Pear
Advances breeding of Pear
GANGARAM RANA
 
Tomato
TomatoTomato
Saurabh kasera
Saurabh kaseraSaurabh kasera
Saurabh kasera
Saurabh Kasera
 
cucurbitaceae.pptx
cucurbitaceae.pptxcucurbitaceae.pptx
cucurbitaceae.pptx
VishwarajsinhSindha
 

Similar to Genetic improvement in chilli (20)

1. breeding of tomato
1. breeding of tomato1. breeding of tomato
1. breeding of tomato
 
Muskmelon breeding
Muskmelon breedingMuskmelon breeding
Muskmelon breeding
 
03 & 04 Pepper breeding.ppt
03 & 04 Pepper breeding.ppt03 & 04 Pepper breeding.ppt
03 & 04 Pepper breeding.ppt
 
CROP IMPROVEMENT OF CHILLI AND CAPSICUM
CROP IMPROVEMENT OF CHILLI AND CAPSICUMCROP IMPROVEMENT OF CHILLI AND CAPSICUM
CROP IMPROVEMENT OF CHILLI AND CAPSICUM
 
Vegetables
VegetablesVegetables
Vegetables
 
CHILLIES (GENETICS) FLORAL BIOLOGY,BREEDING PROCEDURE,OBJECTIVES
CHILLIES (GENETICS) FLORAL BIOLOGY,BREEDING PROCEDURE,OBJECTIVESCHILLIES (GENETICS) FLORAL BIOLOGY,BREEDING PROCEDURE,OBJECTIVES
CHILLIES (GENETICS) FLORAL BIOLOGY,BREEDING PROCEDURE,OBJECTIVES
 
Breeding for color development.
Breeding for color development.Breeding for color development.
Breeding for color development.
 
Presentation on Brinjal Breeding
Presentation on Brinjal BreedingPresentation on Brinjal Breeding
Presentation on Brinjal Breeding
 
Specialty Vegetables
Specialty VegetablesSpecialty Vegetables
Specialty Vegetables
 
carrot breeding
carrot breedingcarrot breeding
carrot breeding
 
Carrot Breeding
Carrot BreedingCarrot Breeding
Carrot Breeding
 
Pest of Horticultural Crops :Apple to study the Identification, Damaging Symp...
Pest of Horticultural Crops :Apple to study the Identification, Damaging Symp...Pest of Horticultural Crops :Apple to study the Identification, Damaging Symp...
Pest of Horticultural Crops :Apple to study the Identification, Damaging Symp...
 
genetic improvement in chilli
genetic improvement in chilligenetic improvement in chilli
genetic improvement in chilli
 
Cherry &amp; strawberry
Cherry &amp; strawberryCherry &amp; strawberry
Cherry &amp; strawberry
 
Solanaceae - Parvin Mammadova
Solanaceae - Parvin  MammadovaSolanaceae - Parvin  Mammadova
Solanaceae - Parvin Mammadova
 
NCompass Live: Seed Saving for Libraries
NCompass Live: Seed Saving for LibrariesNCompass Live: Seed Saving for Libraries
NCompass Live: Seed Saving for Libraries
 
Advances breeding of Pear
Advances breeding of PearAdvances breeding of Pear
Advances breeding of Pear
 
Tomato
TomatoTomato
Tomato
 
Saurabh kasera
Saurabh kaseraSaurabh kasera
Saurabh kasera
 
cucurbitaceae.pptx
cucurbitaceae.pptxcucurbitaceae.pptx
cucurbitaceae.pptx
 

Recently uploaded

SAR of Medicinal Chemistry 1st by dk.pdf
SAR of Medicinal Chemistry 1st by dk.pdfSAR of Medicinal Chemistry 1st by dk.pdf
SAR of Medicinal Chemistry 1st by dk.pdf
KrushnaDarade1
 
mô tả các thí nghiệm về đánh giá tác động dòng khí hóa sau đốt
mô tả các thí nghiệm về đánh giá tác động dòng khí hóa sau đốtmô tả các thí nghiệm về đánh giá tác động dòng khí hóa sau đốt
mô tả các thí nghiệm về đánh giá tác động dòng khí hóa sau đốt
HongcNguyn6
 
Topic: SICKLE CELL DISEASE IN CHILDREN-3.pdf
Topic: SICKLE CELL DISEASE IN CHILDREN-3.pdfTopic: SICKLE CELL DISEASE IN CHILDREN-3.pdf
Topic: SICKLE CELL DISEASE IN CHILDREN-3.pdf
TinyAnderson
 
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
 
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
 
Eukaryotic Transcription Presentation.pptx
Eukaryotic Transcription Presentation.pptxEukaryotic Transcription Presentation.pptx
Eukaryotic Transcription Presentation.pptx
RitabrataSarkar3
 
Shallowest Oil Discovery of Turkiye.pptx
Shallowest Oil Discovery of Turkiye.pptxShallowest Oil Discovery of Turkiye.pptx
Shallowest Oil Discovery of Turkiye.pptx
Gokturk Mehmet Dilci
 
Nucleophilic Addition of carbonyl compounds.pptx
Nucleophilic Addition of carbonyl  compounds.pptxNucleophilic Addition of carbonyl  compounds.pptx
Nucleophilic Addition of carbonyl compounds.pptx
SSR02
 
Remote Sensing and Computational, Evolutionary, Supercomputing, and Intellige...
Remote Sensing and Computational, Evolutionary, Supercomputing, and Intellige...Remote Sensing and Computational, Evolutionary, Supercomputing, and Intellige...
Remote Sensing and Computational, Evolutionary, Supercomputing, and Intellige...
University of Maribor
 
DERIVATION OF MODIFIED BERNOULLI EQUATION WITH VISCOUS EFFECTS AND TERMINAL V...
DERIVATION OF MODIFIED BERNOULLI EQUATION WITH VISCOUS EFFECTS AND TERMINAL V...DERIVATION OF MODIFIED BERNOULLI EQUATION WITH VISCOUS EFFECTS AND TERMINAL V...
DERIVATION OF MODIFIED BERNOULLI EQUATION WITH VISCOUS EFFECTS AND TERMINAL V...
Wasswaderrick3
 
Introduction to Mean Field Theory(MFT).pptx
Introduction to Mean Field Theory(MFT).pptxIntroduction to Mean Field Theory(MFT).pptx
Introduction to Mean Field Theory(MFT).pptx
zeex60
 
Mudde & Rovira Kaltwasser. - Populism - a very short introduction [2017].pdf
Mudde & Rovira Kaltwasser. - Populism - a very short introduction [2017].pdfMudde & Rovira Kaltwasser. - Populism - a very short introduction [2017].pdf
Mudde & Rovira Kaltwasser. - Populism - a very short introduction [2017].pdf
frank0071
 
Travis Hills' Endeavors in Minnesota: Fostering Environmental and Economic Pr...
Travis Hills' Endeavors in Minnesota: Fostering Environmental and Economic Pr...Travis Hills' Endeavors in Minnesota: Fostering Environmental and Economic Pr...
Travis Hills' Endeavors in Minnesota: Fostering Environmental and Economic Pr...
Travis Hills MN
 
Oedema_types_causes_pathophysiology.pptx
Oedema_types_causes_pathophysiology.pptxOedema_types_causes_pathophysiology.pptx
Oedema_types_causes_pathophysiology.pptx
muralinath2
 
原版制作(carleton毕业证书)卡尔顿大学毕业证硕士文凭原版一模一样
原版制作(carleton毕业证书)卡尔顿大学毕业证硕士文凭原版一模一样原版制作(carleton毕业证书)卡尔顿大学毕业证硕士文凭原版一模一样
原版制作(carleton毕业证书)卡尔顿大学毕业证硕士文凭原版一模一样
yqqaatn0
 
Red blood cells- genesis-maturation.pptx
Red blood cells- genesis-maturation.pptxRed blood cells- genesis-maturation.pptx
Red blood cells- genesis-maturation.pptx
muralinath2
 
THEMATIC APPERCEPTION TEST(TAT) cognitive abilities, creativity, and critic...
THEMATIC  APPERCEPTION  TEST(TAT) cognitive abilities, creativity, and critic...THEMATIC  APPERCEPTION  TEST(TAT) cognitive abilities, creativity, and critic...
THEMATIC APPERCEPTION TEST(TAT) cognitive abilities, creativity, and critic...
Abdul Wali Khan University Mardan,kP,Pakistan
 
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
 
DMARDs Pharmacolgy Pharm D 5th Semester.pdf
DMARDs Pharmacolgy Pharm D 5th Semester.pdfDMARDs Pharmacolgy Pharm D 5th Semester.pdf
DMARDs Pharmacolgy Pharm D 5th Semester.pdf
fafyfskhan251kmf
 
Deep Behavioral Phenotyping in Systems Neuroscience for Functional Atlasing a...
Deep Behavioral Phenotyping in Systems Neuroscience for Functional Atlasing a...Deep Behavioral Phenotyping in Systems Neuroscience for Functional Atlasing a...
Deep Behavioral Phenotyping in Systems Neuroscience for Functional Atlasing a...
Ana Luísa Pinho
 

Recently uploaded (20)

SAR of Medicinal Chemistry 1st by dk.pdf
SAR of Medicinal Chemistry 1st by dk.pdfSAR of Medicinal Chemistry 1st by dk.pdf
SAR of Medicinal Chemistry 1st by dk.pdf
 
mô tả các thí nghiệm về đánh giá tác động dòng khí hóa sau đốt
mô tả các thí nghiệm về đánh giá tác động dòng khí hóa sau đốtmô tả các thí nghiệm về đánh giá tác động dòng khí hóa sau đốt
mô tả các thí nghiệm về đánh giá tác động dòng khí hóa sau đốt
 
Topic: SICKLE CELL DISEASE IN CHILDREN-3.pdf
Topic: SICKLE CELL DISEASE IN CHILDREN-3.pdfTopic: SICKLE CELL DISEASE IN CHILDREN-3.pdf
Topic: SICKLE CELL DISEASE IN CHILDREN-3.pdf
 
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...
 
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.
 
Eukaryotic Transcription Presentation.pptx
Eukaryotic Transcription Presentation.pptxEukaryotic Transcription Presentation.pptx
Eukaryotic Transcription Presentation.pptx
 
Shallowest Oil Discovery of Turkiye.pptx
Shallowest Oil Discovery of Turkiye.pptxShallowest Oil Discovery of Turkiye.pptx
Shallowest Oil Discovery of Turkiye.pptx
 
Nucleophilic Addition of carbonyl compounds.pptx
Nucleophilic Addition of carbonyl  compounds.pptxNucleophilic Addition of carbonyl  compounds.pptx
Nucleophilic Addition of carbonyl compounds.pptx
 
Remote Sensing and Computational, Evolutionary, Supercomputing, and Intellige...
Remote Sensing and Computational, Evolutionary, Supercomputing, and Intellige...Remote Sensing and Computational, Evolutionary, Supercomputing, and Intellige...
Remote Sensing and Computational, Evolutionary, Supercomputing, and Intellige...
 
DERIVATION OF MODIFIED BERNOULLI EQUATION WITH VISCOUS EFFECTS AND TERMINAL V...
DERIVATION OF MODIFIED BERNOULLI EQUATION WITH VISCOUS EFFECTS AND TERMINAL V...DERIVATION OF MODIFIED BERNOULLI EQUATION WITH VISCOUS EFFECTS AND TERMINAL V...
DERIVATION OF MODIFIED BERNOULLI EQUATION WITH VISCOUS EFFECTS AND TERMINAL V...
 
Introduction to Mean Field Theory(MFT).pptx
Introduction to Mean Field Theory(MFT).pptxIntroduction to Mean Field Theory(MFT).pptx
Introduction to Mean Field Theory(MFT).pptx
 
Mudde & Rovira Kaltwasser. - Populism - a very short introduction [2017].pdf
Mudde & Rovira Kaltwasser. - Populism - a very short introduction [2017].pdfMudde & Rovira Kaltwasser. - Populism - a very short introduction [2017].pdf
Mudde & Rovira Kaltwasser. - Populism - a very short introduction [2017].pdf
 
Travis Hills' Endeavors in Minnesota: Fostering Environmental and Economic Pr...
Travis Hills' Endeavors in Minnesota: Fostering Environmental and Economic Pr...Travis Hills' Endeavors in Minnesota: Fostering Environmental and Economic Pr...
Travis Hills' Endeavors in Minnesota: Fostering Environmental and Economic Pr...
 
Oedema_types_causes_pathophysiology.pptx
Oedema_types_causes_pathophysiology.pptxOedema_types_causes_pathophysiology.pptx
Oedema_types_causes_pathophysiology.pptx
 
原版制作(carleton毕业证书)卡尔顿大学毕业证硕士文凭原版一模一样
原版制作(carleton毕业证书)卡尔顿大学毕业证硕士文凭原版一模一样原版制作(carleton毕业证书)卡尔顿大学毕业证硕士文凭原版一模一样
原版制作(carleton毕业证书)卡尔顿大学毕业证硕士文凭原版一模一样
 
Red blood cells- genesis-maturation.pptx
Red blood cells- genesis-maturation.pptxRed blood cells- genesis-maturation.pptx
Red blood cells- genesis-maturation.pptx
 
THEMATIC APPERCEPTION TEST(TAT) cognitive abilities, creativity, and critic...
THEMATIC  APPERCEPTION  TEST(TAT) cognitive abilities, creativity, and critic...THEMATIC  APPERCEPTION  TEST(TAT) cognitive abilities, creativity, and critic...
THEMATIC APPERCEPTION TEST(TAT) cognitive abilities, creativity, and critic...
 
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
 
DMARDs Pharmacolgy Pharm D 5th Semester.pdf
DMARDs Pharmacolgy Pharm D 5th Semester.pdfDMARDs Pharmacolgy Pharm D 5th Semester.pdf
DMARDs Pharmacolgy Pharm D 5th Semester.pdf
 
Deep Behavioral Phenotyping in Systems Neuroscience for Functional Atlasing a...
Deep Behavioral Phenotyping in Systems Neuroscience for Functional Atlasing a...Deep Behavioral Phenotyping in Systems Neuroscience for Functional Atlasing a...
Deep Behavioral Phenotyping in Systems Neuroscience for Functional Atlasing a...
 

Genetic improvement in chilli

  • 1. Speaker : MayankBoghara Degree : M. Sc. (Agri.) Guide : Dr. H. L. Dhaduk Course No. : GP –591 Reg. No. : 04-2100-2013 Date : 24-09-2014
  • 2. 2
  • 3. •Importantvegetablecumspicecropgrownthroughouttheworld. •Cultivatedforgreenordryfruit. •‘Capsicum’=Greekword‘kapto’,meaning"tobite"or"toswallow." •Commonnames:hotpepper,sweetpepper,bellpepper,shimlamirch,paprika. •Almost400typesofchillisaregrownthroughouttheworld. •Itcomprisesnumerouschemicalsincludingsteamvolatileoils,fattyoils,capsaicinoids,carotenoids,vitamins,proteins,fibresandmineralelements(BoslandandVotava,2000). 3
  • 4. •Animportantpartofdailydiet. •KeyElementinmanyregionalcuisines,pickles,soups,sauce, Salads,curriesetc.duetoitsuniqueflavor,aromaandcolour. •Increasethetasteandpalatability. •FreshgreencapsicumcontainmorevitaminCthancitrusfruitsandfreshredchillihasmorevitaminAthancarrot.(Thanetal. 2008). •Chilliesarelowinsodiumandcholesterolfree. 4
  • 5. •ManyothermedicinalPropertiesarefound… •stimulatebloodcirculation •improvesthedigestionprocess •speedupthemetabolicrate •richsourceofantioxidants •booststotheimmunesystem •bloodthinningproperties •sourceofnaturalbactericidalagents •Apartfrommedicinaluseschillialsousedincosmetic,liquorindustriesandasaweaponforselfdefense(chillispray). 5
  • 6. NUTRITIONALVALUENational Institute of Nutrition, Hyderabad Value (per 100 gm) Parameters Chillies(dry) Chillies(green) Moisture 10.0 gm 85.7 gm Protein 15.0 gm 2.9 gm Fat 6.2 gm 0.6 gm Minerals 6.1gm 1.0 gm Fibre 30.2 gm 6.8 gm Carbohydrates 31.6 gm 3.0 gm Iron 2.3 mg 4.4 mg Carotene 345.0 mg 175.0 mg Vitamin C 50.0 mg 111.0 mg 6
  • 7. Domesticated around 5000 BC Carried by Columbus to Spain, 1493 Brought by Portuguese from Brazil to India, 1584 Evolved as a wild crop 7500 BCFig 1: Origin 7
  • 8. 2012- 2013 AREA (lakhha) Produ- ction(lakh MT) Produ- ctivity(T/ha) World 19.89 33.52 1.69 India 7.94 13.04 1.64 Gujarat 0.43 0.68 1.57Fig 2: Major hot chilliproducing states of IndiaIndiaisaleadingproducer&consumerofchilliintheworld,with38%shareintotalchilliproductionIn India: Andhra Pradesh, Karnataka, Maharastra, Punjab, Haryana, Rajasthan, Gujarat, Uttar Pradesh, Assam, West Bengal and Himachal PradeshIn Gujarat: Rajkot, Vadodara, Mahesana, Banaskantha, Amreli, Kheda, Anand, Sabarkantha and JamnagarSource : FAO 8
  • 9. Fig 3: State wise contribution 2012-2013Andhrapradesh26% Karnataka13% Maharashtra12% Odisa10% Westbengal8% Madhya pradesh7% Tamilnadu6% Gujarat5% Assam3% Uttar pradesh2% Rajasthan2% Punjab1% Others5% AreaSource :Indian Horticulture Database, GOIProduction9
  • 10. Kingdom: Plantae Class: Angiosperm Order: Solanales Family: Solanaceae Genus: Capsicum Species:annum Scientific name : Capsicum annum L., var. annum var. paprika Chromosomeno. : 2n=24 & 2n=26 Scientific Classification10
  • 11. Botany •Herbaceousorsemi-woody,annualsorperennials. •Straight,woodystemsandtheleavesareovate,taperingtoasharppoint,measuringupto15cm,darkgreenontheuppersurfaceandpalegreenonthelowersurface. •Flowers:small,star-shaped,whiteandbornesinglyorinclustersof2or3intheaxilsoftheleaves. •Theflowersarefollowedbyjuicelessberrieswhicharegreenatfirstandchangetored,yelloworpurple. 11
  • 12. •Fruitsvaryinshape,size,colouranddegreeofpungencyasperthecultivar. •Fruitcontainnumerousflat,kidney-shaped,whiteseeds,whichhaveverypungenttaste. •PungencyofCapsicumisduetoanalkaloid“Capsaicin” •Redcolouroffruitisduetothepigment“Capsanthin” •Domesticatedspecies:largerbutfewerfruitswildspecies:morebutsmallerfruitsbutseedperplantisaboutthesame. 12 Pedicel
  • 13. Flower:actinomorphic,bisexual,pedicellate,hypogynous Gynoecium:Bicarpellary,syncarpous,bilocularortetralocularduetopseudoseptum.Manyovulesonaxileplacentation,ovarysuperior. Androecium:Stamens5,epipetalous Selfpollinatedcrop. Flowersopenat5a.m. Receptivityofstigma:fromadayearliertoanthesisandupto2daysafteranthesis. Fertilityofpollen:adaybeforeanthesiswithmaximumfertilityonthedayofanthesis. EmasculationandPollinationonthesameday. Percentfruitset:20%oftheflowersproduced. Isolationdistance:500m. Handemasculationandpollinationismostcommonmethodusedforhybridseedproductioninchilli. Floral morphology 13
  • 14. Crossing technique 14A bud one day prior to anthesisshould be selected for emasculation Emasculation should be carried out without damaging female reproductive parts and bagged it At a same time pollen should be collected from the fully opened male flower Gently transfer the pollen to the stigma , bagging and tagging should be done simultaneously
  • 15. •Capsicumgenusincludes30species,mostlyclassifiedaswildandsemi-domesticated. •Outofthatfivespeciesaredomesticatedandcultivatedworldwide. •C.annuumL.varannuum(bellpepper,chilli) •C.frutescensL.(tabasco) •C.chinenseL.Jacq.(habanero) •C.baccatumL. •C.pubescensL. •Threespicesviz.,C.annum,C.frutescens,andC.chinenseevolvedfromacommonancestorinaNorthAmazonbasin •MostofthechilliesgrowninIndiabelongtoC.annuumandC.frutescensspecies. Marishaet al. (2006)15
  • 16. Species and variety Growth form Corolla shape and colour Fruit shape and colour Seed colour 2n Geographical distribution C. annumL. Herb or sub shrub (1-2 m) Stellate; white or cream (exceptionally violate) Highly variable shape; violate, red, orange, yellow or green Yellow 24 Cultivate Worldwide Highest diversity of fruit shape, size and colour. Quite tolerant to weather extremes. Productive in warm and dry climates and cannot survive in very cold conditions. Exotic Varieties : Jalapenos, New Mexican, Peter Pepper, Sweet Banana, Thai Hot etc. 16 Indian varieties : ArkaMohini, PusaJwala,PusaMeghdoot, California Wonder, Chinese Giant Reshampatto, GVC-101, 111, 121, AVNPC-131, GAVC-112, GAVC-1
  • 17. Species and variety Growth form Corolla shape and colour Fruit shape and colour Seed colour 2n Geographical distribution C. frutescensL. Herb or shrub (1-2 m) Stellate,white or cream Elongate; red Yellow 24 USA, Mexico, America, Africa, India, China, Japan frutescens,meaning "shrubby or bushy" Fruit typically grow erectlanceoloidor ellipsoid-conical in shape. Produceclustersof fruits. Includes very few varieties of chillies. Varieties : Tabasco, African bird’seye,Malagueta, Thai pepper,Demon Red 17
  • 18. Species and variety Growth form Corolla shape and colour Fruit shape and colour Seed colour 2n Geographical distribution C. chinenseL. Herb or shrub (0.5-2 m) Stellate; white or cream Spherical or conical; red, orange, yellow or white Yellow 24 USA, Mexico, Peru, Bolivia, Brazil, China, Argentina, Japan Chinense, literally ‘from china’, incorrect. Famous for its exceptional pungency Fruit shape is vary tremendously in this species Resistance to fruit rot Varieties : Trinidad scorpion, Bhutjolokia, Habanero, Congo pepper , jamaicanhot 18
  • 19. Species and variety Growth form Corolla shape and colour Fruit shape and colour Seed colour 2n Geographical distribution C.baccatumL. Shrub(0.6-3.5 m) Stellat, white with yellowish spots in the throat Ovoid or elliptic; red Yellow 24 Colombia, Peru, Brazil, Argentina, Bolivia baccatum,meaning "berry like” A smoky-fruity flavour Fruity aroma, similar to that of apricot. Resistance to Anthracnose Varieties : AjiAmarilllo, Brazilian Starfish, Peppadewand Lemon Drop19
  • 20. Species and variety Growth form Corolla shape and colour Fruit shape and colour Seed colour 2n Geographical distribution C. pubescensL. Shrub (0.8-2 m) Rotate, purple or violet in the lobules, white or yellowish in the tube Turban-shaped, spherical or elongate, red, orange or yellow Blackish, irregular shape 24 Cultivated in Mexico, Central and South America pubescens,meaning "hairy" Least cultivated and least widespread Identified by their black seeds and hairy leaves Ability to withstand and even thrive in lower temperatures that other, but not frost Roots of the plant lignifyrapidly as it matures, giving the plant a tree-like appearance Varieties : Mexican Manzanos, Bolivian Locotosand Peruvian Rocotos. 20
  • 21. Flower Male Parent Female Parent baccatum frute- scens chinense annuum galapa- goense pubescens eximium carde- nasii White baccatum = NG NG NG - - - - frutescens NG = PF NG - - - - chinense NG PF = PF - - - - annuum NG PF PF = IV - - - galapagoense NG - IV NG = - - - Purple pubescens IV EC IV - - = HF NG eximium NG NG IV IV - HF = HF cardenasii NG NG - IV - HF HF = NG=F1hybridsgerminatenormallyEC=F1hybridsraisedbyembryocultureIV=fruits/seedsset,butF1seedsinviablePF=F1hybridspartiallyfertileHF=F1hybridshighlyfertile-= no data, or perhaps "does not cross" (original publication does not specify) Table 1: Crossabilityof Capsicum spp. Genetic Resources of Capsicum (1983)21
  • 22. 22
  • 23. 1.Morenumberoffruitsperplant 2.Higherfruitweightandlargersize 3.Uniformfruitshape,sizeandcolorinsweetpepper 4.Earliness 5.Wideradaptability 6.Improved nutritional quality 7.Longer shelf lifeBreeding objectives in Capsicum spp. 1.Higheryield 2.Morepungency(capsaicin)andoleoresininhotchilli 3.Zeropungency(capsaicin)andmoreantioxidantinsweetpepper 4.Resistancetoanthracnose,viruscomplex,fruitrotandbacterialwiltetc. 5.MoredrypowderfromgreenfruitMajorMinor 23
  • 24. 1)Introduction 2)Pure line selection 3)Pedigree method 4)Backcross method 5)Heterosisbreeding 6)Distance hybridization 1)Tissue culture 2)Mutation breedingConventionalNon conventional 24 Breeding strategy / methods
  • 25.
  • 26. Table 2: Scale for ideal plant (ideotype) in chilli Scale Plot Uniformity Plant height Branching height Leaf colour Plant type Fruit bearing 1 Perfect Uniformity Good height (80-85 cm) Above 15 cm Dark green Compact plant Very good 2 Uniform Moderate height (75-80 cm) 10-15 cm Medium dark green Semi compact Good 3 Moderately Uniform Medium height (60-70 cm) 5-10 cm Green Semi spreading Moderate 4 Poor Uniform Variable height Less than 5 cm Light green Spreading Poor 5 Very Poor Uniform Highly variable height At base Pale green Highly spreading Very poor Giritammannavar& Patil(2006)Dharwad( 1-desirable, 5-undesirable) 26
  • 27. Table 3: Scale for scoring fruit wrinkles as quality parameters Grade Description 1 Predominant fine network of vertical and horizontal wrinkles all over the fruit surface 2 Moderate network of varietal and horizontal wrinkles all over the fruit surface 3 Predominantly vertical wrinkles with sparse network of horizontal wrinkles all over the fruit surface 4 Very sparse network of vertical and horizontal wrinkles over the fruit surface 5 Fruit surface almost devoid of wrinkles Table 4: Scale for scoring fruit colour as quality parameter Grade Description 1 Verydarkredfruit 2 Darkredfruit 3 Mediumredfruit 4 Mediumredwithorangetingefruits 5 Lightredtonearorangefruit(anthracnoseinfectedfruitsarenotconsideredonthisscale) DharwadGiritammannavarand Patil(2006) (1-desirable, 5-undesirable) 27
  • 29. Table 5: Range, mean, coefficient of variation, heritability and genetic advance for different characters in C. chinense Srno. Character Range Mean +SEm PCV % GCV% Heritab- ility% Genetic Advance % 1 Plant height (cm) 61.-133.33 98.69+4.00 20.09 18.82 87.77 36.32 2 Primary branches per plant 3.33-8.67 5.44+0.75 30.56 19.17 39.35 24.77 3 Days to first flowering 54.67-83.00 70.18+1.54 8.85 7.99 81.60 14.87 4 Days to maturity 22.00-37.33 31.04+0.66 12.44 11.89 91.32 23.41 5 Fruits per plant 18.99-637.44 168.58+9.54 90.08 89.54 98.82 183.37 6 Fruit length (cm) 3.60-8.33 5.75+0.15 18.07 17.51 93.95 34.97 7 Fruit girth (cm) 5.27-10.37 8.45+10.09 17.79 17.67 98.68 36.17 8 Fruit weight (g) 1.22-8.63 5.02+0.15 33.41 33.03 97.75 67.28 9 Yield per plant (g) 51.31-1649.7 445.96+18.14 89.39 89.12 99.38 183.01 10 Yield per harvest (g) 19.78-278.31 98.78+14.76 68.82 68.28 98.44 139.55 11 Number of harvest 2.03-6.94 4.18+0.08 32.48 32.30 98.89 66.16 12 Capsaicin (%) 1.20-3.74 2.49+10.02 27.57 27.52 99.62 56.58 13 Oleoresin (%) 4.92-24.25 12.44+0.47 36.07 35.46 96.65 71.81 14 Ascorbic acid (mg/100g) 61.83-136.33 98.07+0.52 17.07 17.04 99.71 35.05 Manjuand Shreelathkumary(2002) Thiruvanatpuram PCV= Phenotypic coefficient of variation, GCV= Genotypic coefficient of variance 29
  • 30. Table 6: Estimates of genetic variability in chilligenotypes Characters PCV % GCV % Heritability (BS) % Genetic Advance % Days to 50% flowering 27.97 27.47 96.50 25.33 Green fruit weight (g) 111.95 111.26 98.80 12.88 Green fruit length (cm) 38.85 38.75 99.50 6.05 Green fruit girth (cm) 89.76 48.93 96.70 1.18 Weight of red ripe fruit (g) 112.02 111.93 99.80 11.31 Weight of dry fruit (g) 111.63 110.97 98.80 2.57 Number of fruits per plant 86.05 85.02 97.60 74.75 Green fruit yield per plant (g) 50.87 50.58 99.00 122.97 Dry fruit yield per plant (g) 50.87 50.60 99.00 24.59 Ascorbic acid content (mg/100g) 61.79 61.70 99.00 102.60 Oleoresin content (%) 40.57 40.29 98.60 17.55 Capsaisincontent (%) 46.32 45.97 98.50 0.15 PCV: Phenotypic coefficient of variation, GCV: Genotypic coefficient of variation. West BengalChattopadhyayet al. (2011) 30
  • 31. Table7:Estimationof variabilityparameters in capsicum Characters GCV PCV Heritability (h2%) Genetic Advance Genetic gain (%) Days to 50% flowering 4.94 4.29 93.83 7.06 9.55 Days to first picking 7.02 5.17 54.16 8.69 7.83 No. of branches 16.42 14.57 89.36 2.44 28.37 Fruit length (cm) 29.46 28.39 92.86 4.02 56.35 Fruit diameter (cm) 17.97 17.65 96.44 1.26 35.51 Pericarp thickness (cm) 18.71 16.33 76.15 0.12 29.36 Dry matter content (%) 8.67 8.08 86.83 0.90 15.51 No. of fruits per plant 40.14 39.39 96.20 3.66 79.63 Fruit weight at maturity (g) 18.44 17.32 88.19 17.26 33.50 Yield per plant (g) 36.33 37.66 97.63 176.03 77.01 Ascorbic acid (mg/100 g) 60.37 60.33 99.86 186.03 124.19 Mishraet al. (2005)Himachal Pradesh 31
  • 32. Scale Env. Yield traits Quality traits Disease No. of fruits/ plant Fruit length (cm) Fruit dia. (cm) Fresh wt. of fruit (g) Total fresh yield/ pl. (g) Dry wt. of fruit (g) Total dry yield/ pl. (g) L/D ratio of fruit Capsaicin content (%) Ascorbic acid (mg/ 100g) Leaf curl incidence Grand mean C 106.5 5.28 0.67 2.68 286.1 0.82 65.18 8.01 0.89 228.37 3.23 E 96.95 5.21 0.67 2.63 259.4 0.61 57.05 7.92 0.83 223.47 6.33 GCV C 6.45 14.86 9.71 3.85 7.36 3.80 7.67 25.95 6.12 5.60 77.49 E 6.57 18.58 10.52 3.93 7.59 5.92 10.11 25.85 8.67 4.00 32.55 PCV C 8.22 19.22 9.96 4.09 8.52 4.50 8.72 28.05 6.36 5.86 78.68 E 7.19 19.01 10.52 3.98 8.23 6.10 11.05 25.86 8.80 4.69 32.64 Heritability(h2) C 78.47 94.27 97.00 88.40 74.40 71.60 77.40 99.30 92.80 98.20 97.60 E 83.60 91.30 99.40 97.60 85.00 94.30 83.70 99.90 97.10 92.10 99.50 GA C 11.11 2.09 0.13 0.20 37.36 0.04 9.06 4.27 0.11 26.09 5.10 E 12.00 2.04 0.15 0.21 37.39 0.07 10.87 4.21 0.15 19.88 4.24 GA as % of mean C 10.43 39.58 19.40 7.46 13.05 6.45 13.90 53.31 12.36 11.42 157.89 E 12.38 39.16 22.99 7.98 14.41 11.48 19.06 53.16 18.07 8.90 66.98 Table 8: Mean, range, GCV, PCV, heritability, genetic advance(GA) and GA as a percent of mean for different traits in capsicum Env. = Environment; C= control;E = epidemic; L/D = Length/Diameter Varansi Acharyaand Rajput(2003) 32
  • 34. Table 9: Genotypic correlations among yield and quality traits in chilli (C. annuum) genotypes Capsaicin (CPN) %Edible portion (%EPR) Fruit wrinkles (FWR) Fruit colour (FCL) Dry fruit weight (DFW) Total yield/ plant Capsaicin (D) -- 0.29** 0.35** 0.39** 0.45** 0.05 (H) -- 0.48** 0.15** 0.12* 0.84** 0.16 % Edible portion (D) -- 0.61** 0.16 0.17 0.11* (H) -- 0.56** 0.40** 0.19* 0.16** Fruit wrinkles (D) -- 0.22** 0.35** -0.27** (H) -- 0.21** 0.43** -0.21** Fruit colour (D) -- -0.57** -0.42** (H) -- -0.11 -0.004 Dry fruit weight (D) -- 0.44** (H) -- 0.69** Total yield/plant (D) -- (H) -- (D) –Dharwad, (H) -Hanumanamatti Giritammannavarand Patil (2006) Dharwad 34
  • 35. Table 10: Phenotypic and genotypic correlation coefficient with quality parameter P = Phenotypic correlation coefficient; G= Genotypic correlation coefficient *= Significant at 5 % level; **= Significant at 1 % level Character Capsaicin Oleoresin Ascorbic acid Correlation coefficient P G P G P G Plant height -0.06 -0.06 0.20 0.20 0.32* 0.33 Primary branches/ plant 0.40* 0.65** 0.17 0.21 -0.04 -0.07 Fruit length 0.15 0.15 0.29 0.29 0.42** 0.42** Pedicel length -0.29 -0.29 0.10 0.10 0.04 0.04 Fruit Weight -0.35* -0.36* 0.09 0.09 0.24 0.24 Oleoresin 0.42** 0.43** 1.00 1.00 0.12 0.12 Sonia (2007) Palmpur 35
  • 36. Trait Plant height (cm) Fruit weight (g) Fruit diameter (mm) Fruit length (mm) Pericarp thickness (mm) Soluble solids (%) Plant height (cm) -- -0.32 -0.45 -0.03 -0.41 0.06 Fruit weight (g) -- 0.67 0.24 0.63 -0.08 Fruit diameter (mm) -- -0.11 0.86 -0.03 Fruit length (mm) -- -0.12 -0.06 Pericarp thickness (mm) -- -0.14 Soluble solids (%) -- Table 11: Genotypic correlations among quantitative traits in a cross of two chilli(C. annum) genotypes ‘Maor’ with ‘Perennial’ Israel Arnonand Ilan(2000) 36
  • 37. Combining ability and Geneaction
  • 38. Parents Days to 50 % flowe- ring Height of plant (cm ) No. of primary branches/ plant Length of fruit (cm) Diame- terof fruit (cm) Average weight of fruit (g) No. of fruits/ plant Yield of green fruits / plant (kg ) PhuleJoyti 4.09* 3.27* 0.06 -0.34* 0.10 -0.21* 149.8* 0.22* PhuleMukta -2.28* 0.12 -0.18* -0.96* 0.43 -0.24* 13.59 0.006 AC-2 -2.42* -1.12* 0.76* 1.38* -4.43* 0.17* 141.5* 0.37* Surakta 0.92 -6.55* -0.62* -0.99* -0.10 -0.140* -78.78* -0.25* AC-8 1.18* -3.25* -0.26* -0.71* 5.70* 0.04 -76.84* -0.19* Guntur-2 0.92 1.28* -0.39* 0.32* -5.70* -0.37* -65.87* -0.23* Delhi Heart-2 -0.50 4.48* 0.76* 1.39* 2.30* 0.40* 15.75 0.19* Agnirekha -0.65 1.81* 0.10 0.50* 1.70* 0.30* -99.24* -0.17* S.E. ( gi) ± 0.35 0.39 0.07 0.05 0.47 0.03 14.61 0.034 Table12:Estimates of general combining ability (gca) in chilli *,**,significant at 5% and 1% respectively Rahuri Patilet al. (2010) 38
  • 39. Hybrids No. of primary branches/ plant Length of fruit (cm) Diameter of fruit (cm) Average weight of fruit (g) No. of fruits/ plant Yield of green fruits/ plant (kg) PhuleJoytix PhuleMukta 0.90** 1.11 7.28** 0.25* 251.44** 0.45** PhuleJoytix AC-2 -0.64** 0.002 3.48* 0.26* -16.39 -0.004 PhuleJoytix Surakta 0.20 -0.11 -10.85** -0.55** 154.77** 0.24* PhuleJoytix AC-8 -0.02 0.80** 14.86** 0.19 -198.38** -0.32** PhuleMuktax AC-2 0.67** 2.07** 4.48** 0.39** 257.36** 0.60** PhuleMuktax Surakta 0.45* 0.29 3.48* 0.34** -145.39** -0.27** PhuleMuktax AC-8 -0.25 0.55** 1.01 0.29** -14.07 -0.10 AC-2 x Surakta 0.23 0.86** 2.34 0.88** 1.17 0.06 AC-2 xAC-8 0.47* -0.35* -2.78 0.07 248.77* 0.60** Suraktax AC-8 -0.55* 0.10 -5.11** 0.05 55.78 0.04 SE (Sij) + 0.21 0.17 1.46 0.11 44.88 0.10 Table13:Estimates of specific combining ability (sca) in chilli *,**, significant at 5% and 1% respectively Rahuri Patilet al. (2010) 39
  • 40. Table 14: Estimates of gene effect for yield and yield contributing traits in chilliusing six parameter model Trait Cross m d h i j l Epistaticgene action Fruit length (cm) C1 8.34** -0.18 -0.37 -1.57** 0.02 1.38** - C2 6.07** 0.97** 2.96** 3.04** 1.43** -2.67** Duplicate C3 7.46** 0.25 0.71 0.40 -0.85** 2.86** - Fruit width (mm) C1 9.25** 0.68** -5.08** -5.47** -0.56** 9.57** Duplicate C2 9.14** 0.14 2.28** 2.27** 0.22 -1.95** Duplicate C3 9.71** 0.65** -3.21** -2.65** -0.09 8.09** Duplicate Fruit weight (g) C1 2.86** 0.42** 0.28 -0.58** -0.08 0.64 - C2 3.02** 0.35** 0.68** 0.40 0.22** -0.65 - C3 3.53** -0.13 -0.04 -0.16 -1.72** 4.00** - Number of fruits per plant C1 137.70** -77.97** 131.39** 53.18** -57.48** 142.01** Complementary C2 125.29** -82.30** 245.86** 71.44** -54.58** 145.79** Complementary C3 96.31** -18.41** 136.33** 73.07** 13.66** 27.71 - Yield per plant(g) C1 383.05** -149.6** 448.37** 23.74 -149.7** 531.73** Complementary C2 371.79** -259.1** 723.64** 133.36* -194.6** 671.57** Complementary C3 331.83** -69.3** 486.53** 37.19 -53.27** 695.36** Complementary C1=CCA 5 X CCA 15, C2=BARI Morich1 X CCA 19, C3=CCA 5 X CCA 11. Hasanuzzaman& Golam(2011) Bangladesh m=mean, d=additive effect, h=dominance effect, i=additive x additive, j=additive x dominance l=dominance x dominance type gene interaction. 40
  • 41. Character Crosses Per se Performance scaeffects Plant height (cm) B-Kaddi x CO-2 62.80 7.77** B-Kaddix KDC-1 62.70 3.44** B-Dabbi x AKC-86-39 58.50 5.75** No. of primary branchesperplant B-Kaddi x KDC-1 5.60 1.00** B-Dabbi x H-Shakthi 4.15 0.72** B-Dabbix LCA-312 4.40 0.79** No. of fruits per plant B-Kaddi x GPC-82 109 21.22** B-Kaddix KDC-1 130 28.89** B-Kaddix ArkaLohith 139 25.89** Fruit weight per plant B-Kaddi x H-Shakthi 8.23 1.16** B-Dabbi x AKC-86-39 11.46 1.4** VN-2 x LCA-312 16.92 1.98** Dry fruit yield per plant B-Kaddix KDC-1 118.0 26.24** B-Kaddix PMR-5 97.5 18.24** B-Dabbi x Arka Abir 49.5 18.98** Arabhavi *,**,significant at 5% and 1% respectively Jagdeeshaand Vali(2005) Table15:scaeffects of different crosses 41
  • 43. Table 16: Standard heterosis (SH) in five top ranking crosses. Crosses Characters Green fruit yield/ plant (g) Days to first flowering No.of prima. branches No. of fruits/ plant Ave. fruit length (cm) ACMS 8 x IPS-2005-15 448.5** 4.86** 28.89** 277.6** -22.76** ACMS 5 x IPS-2005-15 310.1** -11.71** 38.06** 270.3** -33.24** ACMS 4 x IPS-2005-15 305.6** 20.00** 46.08 246.9** -31.11** ACMS 6 x ACS-2004-03 297.5** -2.00 33.45** 205.7** -13.73** ACMS 8 x RHRC Pendent 289.0** 16.29** 66.21** 229.1** -33.44** Crosses Ave. fruit girth (cm) Fruit shape index Ave. fruit weight (g) Capsaicin (μg/g) Ascorbic acid (μg/g) ACMS 8 x IPS-2005-15 38.42** -46.01** 30.23** -8.10** 53.46** ACMS 5 x IPS-2005-15 11.71** -40.75** -0.85 8.90** -22.82** ACMS 4 x IPS-2005-15 11.51** -39.27** 4.58 -3.65** 5.71** ACMS 6 x ACS-2004-03 -17.3** 2.47 16.18** 9.70** 11.99** ACMS 8 x RHRC Pendent 16.64** -43.92** 5.89 -6.35** 41.64** *,**,significant at 5 % and 1 % level of probability , respectively Patel et al. (2010) Anand 43
  • 44. Characters Length of fruit (cm) Days to 50% flowering Diameter of fruit (cm) No. of fruits/ plant Green fruit yield/ plant (kg) PhuleJoytix PhuleMukta -19.76** 0.66 -6.25 31.73** 25.73* PhuleJoytix AC-2 -8.71** 0.36 -15.62 11.75* 16.91 PhuleJoytix Surakta -32.21** 2.06 -26.04 4.69 -5.88 PhuleJoytix AC-8 -21.07** -19.47** 7.29 -45.57** -41.91** PhuleJoytix Guntur-2 -26.40** -14.12** -26.04 -12.93 -27.20* PhuleMuktax AC-2 5.52* -13.48** -13.54 31.42** 41.91** PhuleMuktax Surakta -33.61** 0.68 -10.42 -57.75** -63.23** PhuleMuktax AC-8 -28.56** -12.06** -7.29 -38.70** -44.85** PhuleMuktax Guntur-2 -27.06** -4.0 -19.79 -37.50** -44.11** AC-2 x Surakta -6.74** -9.38** -16.67 -18.43 -13.97 AC-2 x AC-8 -15.54** -1.9 -15.62 17.26 33.09** AC-2 x Guntur-2 -15.54** 0.02 -21.87 -4.40 -19.85 Suraktax AC-8 -33.61** -0.66 -13.54 -41.91** -50.73** Suraktax Guntur-2 -35.86** 0.68 -11.46 -55.25** -63.23** AC-8 x Guntur-2 -11.70** -11.40** -18.75 -57.12** -59.56** SEd 0.27 1.68 2.28 7.00 0.16 Table17:Standard heterosis for different characters inchilli Rahuri Patiletal. (2012) *,**,significant at 5 % and 1 % level of probability , respectively 44
  • 45. Cross Plant height No. of secondary branches No. of tertiary branches Days to 50 per cent flowering Early green fruit yield L1 x T12 -1.24 6.05** 17.42** -9.40** -47.22** L1 x T13 49.03** 19.50** 3.72** -31.1** 26.21* L1 x T14 49.59** 15.02** 26.09** -38.22** -42.63** L1 x T15 -14.81** 4.70** 4.38** -27 6** -44.90** L1 x T16 15.37** 32.95** -4.93** -0.58 -14.79 L3 x T12 13.29** -1.34** 3.1** -19.39** -40.37** L3 x T13 4.03** 0.22 14.35** -4.69* 43.01** L3 x T14 42.26** 4.70** -6.80** -21.16** 112.60** L3 x T15 59.83** 4.70** 13.69** -16.4** 31.08** L3 x T16 48.20** 23.99** 27.95** -9.98** 50.92** L5 x T12 41 .01** 13.67** 3.16** 0.60 -10.37 L5 x T13 15.37** 15 02** 5.03** -23.52** 56.00** L5 x T14 16.76** 23.99** 4.38** -9.40** 118.83** L5 x T15 13.02** 10.53** 1.86** -7.04** 96.95** L5 x T16 8.31* 19.50** 8.10* 0.60 -43.20** SEm± 0.62 0.08 0.34 1.41 7.24 Table 18: Heterosis (%) over commercial check (HCH-9646) In respect of growth, earliness and early yield in male sterile basedF1 Karnataka Shankarnaget al. (2006) *,**,significant at 5 % and 1 % level of probability , respectively 45 L = CGMS line, T = Tester line
  • 47. Table 19: Screening for fertility restorer and maintainer lines in chilli Sr. no. Lines used as male F1plant population Tester used as female (CGMS) Remarks JNKVVA1 ACBGA1 ACBGA2 Fertile fertile in F1 (%) Fertile (fertile in F1 (%) Fertile fertile in F1 (%) 1 Sankeshwar 40 40 100 40 100 40 100 Rf 2 Pant C-1 40 40 100 40 100 40 100 Rf 3 BVC-1 40 40 100 40 100 40 100 Rf 4 GUK-1 40 40 100 40 100 40 100 Rf 5 LCA-334 40 40 100 40 100 40 100 Rf 6 D. DABBI 40 40 100 40 100 40 100 Rf 7 KDSC210-10 40 40 100 40 100 40 100 Rf 8 P. jwala 40 40 100 40 100 40 100 Rf 9 B. Kaddi 40 40 100 40 100 40 100 Rf 10 GCV111 40 40 100 40 100 40 100 Rf 11 P. Sadabahar 40 40 100 40 100 40 100 Rf 12 BVC-37 40 40 100 40 100 40 100 Rf 13 AVNPC131 40 00 00 00 00 00 00 rf 14 X235 40 00 00 00 00 00 00 rf 15 PhuleJyoti 40 36 90 35 87.5 40 100 Rf/rf 16 HisarVijay 40 35 87.5 36 90 40 100 Rf/rf 17 KDSC510-10 40 34 85 00 00 00 00 Rf/rf Rf= Fertility restoration rf= Sterility maintainer Temburne& Rao(2012) Jabalpur 47
  • 48. Table 20: Pollen quantity and self-crossed fruit setting in F1hybrid of CMS lines and maintainers in pepper Cross code Number of F1 Self-crossed fruit-setting rate (mean+SE) Fertility Cross code Number of F1 Self-crossed fruit-setting rate (mean+SE) fertility ++ +- -- ++ +- -- M1 0 0 36 0.00+0.00 S M5 38 0 0 23.00+6.75 F M2 0 0 38 0.00+0.00 S M11 40 0 0 48.00+10.3 F M3 0 30 0 28.00+7.75 F M13 38 0 0 38.00+15.5 F M7 0 0 21 0.00+0.00 S M14 34 0 0 34.00+12.2 F M9 0 0 24 0.00+0.00 S M16 42 0 0 42.0+12.2 F M10 22 0 0 46.00+13.5 F M19 34 0 0 50+11.5 F M15 38 0 0 14.00+5.67 F M20 0 32 0 55.0+8.5 F M18* 0 0 34 14.00+5.67 PF M21 40 0 0 11.0+5.65 PF M28 0 0 36 0.00+0.00 S M24* 0 0 44 0.00+0.00 S (++)= pollen quantity is equal to that of the male parent; (+-)= pollen quantity is equal to 50% of the male parent; (--) = lack of pollen grains or no pollen; SE= standard error; F= fertile; S = sterile; PF = partially fertile; * = no seed. China Ma et al. (2013) 48
  • 50. Trait Gamma rays (kR) EMS (mM) Total viable mutants 10 20 30 40 50 10 20 30 40 50 Tall mutant - 1 3 1 - 2 - 5 1 - 13 Profuse branching - 2 4 3 - - 1 7 2 - 19 Curved leaf 1 - 4 - - 1 - 3 - - 9 Diminished morphology 1 - 2 2 4 - - 1 - - 10 Dwarf plant 1 - 4 2 2 1 - 1 2 4 17 Flower mutant - 2 6 1 - - 2 12 4 - 27 Rosette leaf - - - - - - - 2 - - 2 Pointed fruit apex - 1 1 1 - - 1 5 - - 9 Male sterile 1 - 7 4 4 - 1 6 1 3 27 Long fruits - 1 4 1 - - 1 16 1 - 24 Dark green fruits - - 6 2 2 - 2 14 1 - 27 Yellowish green fruits - 1 4 - - - - 1 - - 6 Total 4 8 47 17 12 4 9 67 8 7 190 Table21:Viable mutations frequency for various traits in M2generation Tamil Nadu Srideviand Mullainathan(2011) 50
  • 51. Sr. No. Mutant type Mutagen Dose Variety Generation Frequency 1 Tall mutant (high yielding) 0.3 % EMS Co -1 M3 13.63 2 Tall with short fruit mutant 0.2 % EMS Co -1 M3 9.09 3 Tall with crinkled fruit mutant 0.3 % SA Co -1 M2 9.09 4 Dwarf mutant 0.3 % EMS Ujwala M2 13.63 5 Short fruit mutant (high yielding) 0.3 % EMS Co -1 M2 11.36 6 Erect fruit mutant 0.2 % EMS Co -1 M3 13.63 7 Yellow slender fruit mutant 0.01 % SA Co -1 M3 4.55 8 Long thick fruit mutant 0.02 % SA Co -1 M2 11.36 9 Long slender fruit mutant 0.02 % SA Co -1 M2 4.55 10 Seedless mutant 0.03 % SA Ujwala M2 4.55 11 Non viable mutant 0.03 % SA Co -1 M2 2.27 12 Viable chlorophyll deficient mutant 0.2 % EMS Co -1 M2 2.27 Table22:Frequency (%) of morphological mutants in C. annum after chemical mutagenesis Calicut Abdul et al. (2010) 51 Ethyl methane sulphonate(EMS) Sodium azide(SA)
  • 52. Treatment no. Growth regulator (mg/l) No.of shoots/explant V1 V2 V3 V4 Mean T1 2.0 BAP + 0.25 IAA 2.23 2.25 1.98 1.1 1.8 T2 3.0 BAP + 0.25 IAA 2.8 2.8 2.5 1.2 2.3 T3 4.0 BAP + 0.25 IAA 3.1 2.9 3.0 1.9 2.7 T4 5.0 BAP + 0.25 IAA 3.2 3.0 3.7 2.2 3.0 T5 6.0 BAP + 0.25 IAA 3.8 5.1 4.2 3.6 4.1 T6 7.0 BAP + 0.25 IAA 4.9 5.1 4.7 3.8 4.6 T7 8.0 BAP + 0.25 IAA 4.1 4.8 3.8 2.9 3.9 T8 9.0 BAP + 0.25 IAA 2.3 3.1 2.9 2.7 3.0 Mean 3.66 3.3 3.44 2.4 CD0.05 T=0.08; V=0.06; Interaction=0.17, V1= KtPL-19; V2= Pusasadabahar; V3= ArCH-001; V4= Salem New Delhi Ranjanet al. (2010) Table 23: Effect of different growth regulators on multiple shoot formation on shoot tip explant 52
  • 53. Ranjanet al. (2010) New Delhi Table 24: Effect of different growth regulators on direct orgenogenesisfrom cotyledon explant 53 Treat. Medium +growth regulator (mg/l) No. of buds/explant V1 V2 V3 V4 Mean T1 MS+2.0BAP+1.0 IAA 1.89 1.90 1.00 0.75 1.38 T2 MS+4.0BAP+1.0 IAA 2.25 2.10 1.95 1.09 1.85 T3 MS+6.0BAP+1.0 IAA 4.25 4.1 3.0 2.9 3.5 T4 MS+8.0BAP+1.0 IAA 5.1 5.7 4.7 3.2 4.7 T5 MS+10.0BAP+1.0 IAA 4.2 4.8 3.2 2.0 3.5 T6 MS+0.5 TDS 2.0 2.5 2.1 1.1 1.9 T7 MS+1.0 TDS 6.2 6.9 5.2 4.5 5.7 T8 MS+1.5 TDS 5.2 5.2 4.2 2.5 4.9 T9 MS+2.0 TDS 4.2 3.9 2.1 1.2 2.8 mean 3.9 4.1 3.0 2.1 TDZ= Thidiazuron V1= KtPL-19; V2= Pusasadabahar; V3= ArCH-001; V4= Salem
  • 55. SN Genotype 100 marketable fruit wt. (g) Ascorbic acid mg/100g Fruit set percent Number of fruits per plant Fruit yield (q/ha) 1 CCA-3331 100.8cf 136.3d 9 33c-e 53.34b 23.63ef 2 CCA-336B 141.9c-e 47.84h 14.00c-e 39.90c 24.69ef 3 CCA-984A 308.1b 32.86i 10.68c-e 5.61d 7.970g 4 Mr.LeeNa3 333.1b 144.8c 31.28b 68.96a 95.33a 5 PBC-142 77.85f 153.1b 15.02cd 33.62c 11.24g 6 Maor 152.3cd 166.4a 6.66e 36.46c 22.87ef 7 CCA-119A 189.3C 54.5h 26.28b 61.76ab 45.68c 8 CCA-3288 295.1b 75.71g 12.66c-e 28.86c 35.72d 9 Susan'sJoy 499.6a 85.70f 7.33de 29.78c 64.23b 10 CO-5678 99.85ef 93.74f 41.33a 63.30ab 25.76ef 11 Suryamukhi 110.6d-f 90.41f 40.66a 37.85c 17.00fg 12 NS-1701 146.7c-e 173.6d 12.66c-e 38.40c 21.26ef 13 Jwala 105.5d-f 113.7e 16.66c 71.00a 30.62de LSD (p=0.05) 43.99 7.89 7.25 10.20 8.834 SEm+ 15.07 2.70 2.48 3.49 3.026 Means within the column followed by the same letter (s) do not differ significantly at 0.05 level by DNMRT Dahalet al. (2006) Nepal Table 25: Effect of Temperature stress (30.8 to 16.0 0C) on fruit setting, yield and other quality characters 55
  • 56. Genotype Salinity level Control 2 EC 4 EC 6 EC 8 EC Mean Dry weight of the plant (g) LCA 235 17.35 17.62 16.84 14.87 9.24 15.18 LCA 315 18.36 17.29 14.99 11.91 6.31 13.85 LCA 324 16.82 16.52 13.38 8.87 5.55 12.23 LCA 224 16.86 15.23 12.95 9.22 4.99 11.85 CA 960 18.38 18.20 15.74 12.92 8.56 14.76 G4 10.03 17.08 16.65 13.71 9.15 14.92 Pod weight (g) LCA 235 2.56 2.60 2.46 2.33 2.03 2.40 LCA 315 3.43 3.03 2.46 1.87 1.23 2.41 LCA 324 2.36 2.30 2.23 1.67 1.23 1.96 LCA 334 2.53 2.36 2.06 1.60 1.03 1.92 CA 960 2.73 2.83 2.23 1.50 1.06 2.07 G4 2.93 2.70 2.26 1.70 1.33 2.18 Number of pods per plant LCA 235 12.23 12.00 11.66 9.00 6.66 10.33 LCA 315 6.33 6.00 4.66 1.00 0.33 3.66 LCA 324 8.33 8.00 6.00 3.66 2.00 5.60 LCA 334 9.66 8.33 6.66 3.66 0.66 5.80 CA 960 9.66 8.66 7.00 3.66 2.33 6.26 G4 9.33 10.00 8.66 4.33 2.66 7.00 Kameswari& Prasad (2005) Bapatala Table 26: Effect of different salinity levels of irrigation water on a plant growth characters of chilli genotypes 56
  • 57. CausalOrganism:Colletotrichumspp. Infectionoccursduringperiodsofexcessirrigationorrain Small,watersoakedlesionsthatexpandrapidly. Fullyexpandedlesionsaresunkenandrangeincolorfromdarkredtoblackinconcentricrings CausalOrganism:TobaccoMosaicVirus Transmittedby:whitefly Mosaicpatternsconsistingofbandsoflightgreenoryellowalternatingwithdarkgreen. Sometimestheleavesarecrinkledordistortion. Plantgrowthisstunted. C. O. : Alternariaspp. •Dusty black spot on fruit and leaves •Fruit rotC. O. : Phytoptheracapsici •Dark lesions of the stem •Blighting of plant •Water soaked gray spot on fruit & it mummifies 57
  • 58. Line Reference Jwala Tewariand Ramanujam1974 Karanja, Pant C-l, S 46-1, IC 18253, IC 1.8885, CA 196, Cross 218, PC 121490 Ihallet al. 1983 Pant C-1, Pant C-2, Capsicum Lpirinsul Iconaiand Nariani1980 Jwala, C-9, CA-960 Dhanju1983 Pant C-1, lorai, Loungi, Perennial, S 118-2 Sharma and Singh 1985 Ci-1, LIC-45, N-146 Nlemaneet al. 1987 Pant C-1, Pusa Jwala, NP 46A, JCA 19 Sangaret al. 1988; Braret al. 1989 Perennial, Surjamani Soochet al. 1976 LS-VIII, LS-IV, IS-1 I Lundej, personal communication 1993 Sele94-4-9-3, Sel101-2-33 (Pusa Jwalax Delhi Local), Sel38-2-1 Tewariand Viswanath1986 Table 27: Pepper germplasm and breeding lines reported to be resistant or tolerant to leaf curl viruses in India Hundel(1999) Ludhiana 58
  • 59. WD= whitefly density (whiteflies/leaf), Ovi= Oviposition(eggs/cm), OR= ovipositionrate (eggs/whitefly) Syarifin(2012) Indonesia SN Accession Name Resistance parameters RI R Class TrichomeDensity trichomes/cm Cuticle Thicknes(mm) WD Ovi OR 1 C. annum Sweet Chocolate 3.0+0.8 0.6+0.4 0.21-0.16 0.50 MS 47.3+5.6 5.9+0.1 2 C. annum Bisbas 11.8+2. 9.8+0.2 0.85+0.15 0.67 MR 43.8+3.4 4.1+0.2 3 C. annum de Arbol 2.0+0.8 0.2+0.4 0.19+0.38 0.75 MR 46.5+14,0 5.2+0.1 4 C. annum CM 331 0.3+0.5 0.0+0.0 0.00+0.00 0.92 R 78.5+ 6.6 5.0+0.1 5 C. annum California Wonder 4.0+0.8 2.5+0.4 0.65+0.17 0.50 MS 49.0+11.0 7.4+0.1 6 C. annum KalifomischeP. 12.3+1.0 0.8+0.5 0.06+0.04 0.67 MR 27.8+2.9 5.7+0.1 7 C. annum Mild California 1.0+0.8 0.2+0.2 0.08+0.14 0.75 MR 61.0+19.6 7.3+0.1 8 C. annum California W. 300 1.5+0.6 0.2+0.4 0.25+0.35 0.90 R 63.0+10.1 7.6+0.0 9 C. annum Wonder v Kal, 1.0+0.8 0.3+0.4 0.33+0.58 0.67 MR 40.5+ 7,6 7.7+10.1 10 C. annum Gold California W. 2.5+1.3 0.3+0.2 0.12+0.10 0.83 R 80.0+9.8 7.8+0.1 11 C. annum Yolo Wonder Imp 7.0+0.8 2.3+0.5 0.32+0.08 0.67 MR 59.3+ 5.0 6.5+0.0 12 C. baccatum No. 1553 4.8+1.5 13.1+1.3 3.07+1.38 0.17 S 123.5+3.4 5.3+0.1 13 C. chinense RU 72-241 7.3+1.7 20.9+1.1 3.02+0.80 0.33 S 37.3+ 0.5 4.4+0.1 14 C. chinenseAC 2212 6.8+1.3 0.2+0.2 0.03+0.04 0.81 R 75.8+ 7.3 6.5+0.2 15 C. chinenseMiseucho 20.0+0.8 11.4+1.3 0.57+0.08 0.50 MS 132.5+6.6 3.7+0.2 16 C. chinense PI 281428 4.0+0.8 17.4+2.3 4.52+1.19 0.17 S 89.3+9.8 3.4+0.1 17 C. fruitescensL. Tabasco 18.3+2.4 30.8+2.4 1.70+0.25 0.08 S 54.5+6.8 3.8+0.0 59 Table28: Mean of whitefly resistance parameters, value of resistance index (RI), resistance level (R class) and leaf characteristics for pepper accessions
  • 60. Species No. of lines screened Disease incidence (%) 0 <10 10-20 21-40 41-70 71- 100 C. annuum 291 1 15 93 182 C. baccatum 26 6 6 6 3 2 3 C. chinense 5 2 2 1 C. frutescens 2 2 C. pubescens 2 2 Disease evaluation RMRS HS Table 29: Disease reactions of Capsicumaccessions to KSCa-1 isolate of Colletotrichumacutatum Korea Yoon (2003) 60
  • 61. Pepper line PA-1 RO-4 BE-4 C05A 2.42 * 2.53 * 0.09 * C05B 4.25 2.52 * 1.42 * C05C 3.47 * 3.73 0.91 * CO10A 3.84 3.45 1.23 * CO10B 3.82 4.65 0.55 * CO10C 4.20 4.21 * 1.78 * C012B 4.32 2.80 * 1.06 * C012C 4.32 2.82 * 1.52 * C018A 3.62 * 3.45 1.32 * CO2.20 4.72 2.41 * 0.97 * CO5.04 3.70 * 4.27 * 0.99 * C02.16 4.82 4.88 0.93 * C03.15 3.30 * 4.85* 1.30 * PA 124 3.14 * 3.09 * 0.62 * PA 129 3.49 * 1.98 * 0.28 * PA158 4.55 3.02 * 0.57 * PA 172 4.09 4.05 0.40 * Yolo Wonder 4.66 3.69 3.05 Table30:Resistance of C. annuumgermplasm to three isolates of Phytoptheracapsici *, Statistically different from the susceptible control Yolo Wonder according to the Waller-Duncan's multiple range test at P < 0.05. 0 (0% disease) -5 (100% disease) scale Andres et al. (2005) Spain 61
  • 62. Table 31: Evalutionof chilligermplasmsagainst fruit rot (Phytoptheraspp.) Grade Reaction (% infection) Germplasm / Variety 0 Tolerant (0%) - 1 Resistant (1-10%) LCA-301,LCA-324,K-1,ByadagiKaddi 3 Moderately resistant (11-25%) Pusajwala,LCA-312,Co-2,No-8,SNK-8 5 Moderately susceptible (26-50%) Hissarshakti,G-4,GPC-82,LCA-304,S-32,GPC-80, LCA-306,SNK-12,TNSP-33,SNK-11,Pant-C-1, Byadagidabbi,LCA-206,PKM-1,GPC-69,No-20, No-71,Co-3,SIC-11-179,No-38,No-65,SIC-10- 166,No-33,B-1-1,No-74,G-4,Dh-9-6-6,N0-70, SKN-10-1 7 Susceptible (51-75%) KDSC-510-10,Co-1,KDSC-110-10,DS-1,R-11-22, LCA-307,Paprika,SNK-9,SNK-10 9 Highly susceptible (>75%) KDSC-210-10,S-32 Ekboteet al. (2002) Dharwad 62
  • 63. Genotypes Wiltincidence (%) Reaction 1stweek 2ndweek Ajeet-6 20.00 20.00 MR ArkaMeghana 100.00 100.00 HS ArkaIohit 71.43 71.43 S ArkaHarita 42.46 45.46 MS F-112-5-83 0.00 10.00 R Jawahar-218 80.00 80.00 HS JCA-28.3 50.00 5O. 00 S KCS-2013 20.00 20.00 MR Pant C-1 18.20 27.28 MR ArkaSuphala 87.50 87.50 HS Punjab Gucchedar 60.00 80.00 HS Pusa Jwala 50.00 50.00 MS Ravindra 40.00 60.00 S SKAU-C-101 10.00 10.00 R Tiwari 90.00 100.00 HS HCA-283 100.00 100.00 HS ArkaSuphala 87.50 87.50 HS Pusa Sadabahar 100.00 100.00 HS PC-6 10.00 1 0.00 R ACS-201 11.12 33.34 MR Table 32: Screening of different chilligenotypes against Fusariumwilt R-Resistant, MR-Moderately resistant, S-Susceptible, MS-Moderately susceptible, HS-Highly susceptible Raichur Raniet al.(2008) 63
  • 64. Variety % Disease suseptibility Date after Inoculation Field Resistant Evaluation 7 14 21 61 Wonkyo306 0 0 0 0.03 R R Shinhong 5 23 32 75 M M Cheonanjaelae 10 70 70 95 S MS Table 33: Reaction of Wonkyo306 To Phytophthoracapsici. Variety Virus Anthracnose Bacterial Leaf Spot Wonkyo306 R MR MR Shinhong S MS MS Cheonan S M S Table 34: Reaction of Wonkyo306to Virus, Anthracnose and Bacterial Leaf Spot. Kwan et al. (1985) Korea Three way F1'wonkyo306' with the multi resistance in Capsicum annuum Taenjaelae(F1) Gimjanggochu three way F1 WONKYO 306 (F6) Selfed& subsequent selection X (local selection) Resistance to TMV, Anthracnose Good yielding, Susceptible to Bacterial LS 64
  • 65. Disease/insect /stress Resistant/tolerant source Fruit rot (Colletotrichumsp.) C. chinense, Accr1555, 1554, 906, Chinese Giant, Hungarian Yellow Wax, Spartan Cercosporaleaf spot California Wonder, Hungarian Wax Bacterial leaf spot PI 163192, PI 260435, PI 163189, PI 163192, PI 271322, PI 32219 Phytophthoraroot rot PI 201234 Phytophthoranicotianae PBG 631, UHF-1 Root knot nematode Santaba TMV Sonnette, Keystone Resistant Giant, YW, Yolo Y Tolerant to drought ArkaLohit Tolerant to salinity PLR 1 Table 35: Resistant / Tolerant sources 65
  • 66. Achievement PusaJwala ArkaLohit ArkaMeghna Reshampatto ArkaGaurav ArkaMohini GAVCH 1 PusaMeghdoot 66
  • 67. Table36: Varieties Bellpepper Hot chilli Introduced California Wonder, Yolo Wonder,World Beater, Chinese Giant, Golden Wonder,Bull nose, Sweet Banana By IARI From USA Selection ArkaMohini, A. Gaurav, A. Basant IIHR ArkaLohit IIHR Agnirekha, PhuleJyoti, Suryamukhi MPKV Heterosisbreeding : public sector Solan Bharpur UHF, Solan CH-1,Punjab-27 Ludhiana Hybrid (private) Bharat, Laxmi, Mamta, super gold, chocolatewonder Indo-American Tejaswini Mahyco Indira, Larica Sandoz Agni Novartis Green Gold Mahyco ARCH-236 AnkurSeeds Hira, NAFCR-101 NathSeeds Seoul HOE-808, HOE-888 Hoechest Early Bounty, Gem Giant Suttons INDAM-5,67, chilli-2006-1 Indo-American NS-436 Namdhari Hybrid (public) P. meghdoot,P.Deepti(Kt-1), KTCPH-3 & 5 IARI (Katrain) PusaJwala, IARI Solan Hybrid-1, Solan Hybrid-2 UHF (Solan) Kashianmol, Kashisurkh IIVR ArkaMeghana, ArkaSweta IIHR 67
  • 68. Highvariabilitypresentinnatureforqualityandyieldcontributingcharacters. Characterslikefruitsperplant,pricarpthickness,fruitsize,fruitweightandoleoresincontentcanbeusedforselection. Heterosiscanbemanifestedusingdiversegermplasm. Easyandmorehybridseedproductioncanbepossiblethroughproperexploitationofmalesterilitysystem. Mutationcanbeemployedtocreatenewusefulmutantforcropimprovement. Invitrocloningismoresuccessfulwhencotyledonleafwasusedasanexplants. Abioticstresstolerantgermplasmpresentinnature. Diseaseresistantcultivarcanbedevelopedthroughcrossingandbackcrossingwithresistancegermplasm. 68
  • 69. DevelopmentofvarietieswithinbuiltresistanceagainstCMVandanthracnose. Genesisofvarietieswithlesspungencyandconsumerpreference. Exploitationofmalesterilityandchemicalhybridizingagentsindevelopingnewhybrids. Introductionofheatanddroughttolerancegermplasmasastrategyforclimatechange. Developmentoflocationspecificvarieties. Developmentofvarietieswithhighdrymatter(chillipowder)output. Todevelopavarietieswhichcanmaintainassuchcapsaicincontentevenafteralongerstorageperiod. Developmentsofvarietieswithhigherantioxidentandoleoresincontent. Useofwildrelativesinbreedingprogrammebasedonembryorescueandsomatichybridizationtechniques. Breedingforornamentalplanttype. Future thrust 69