Fruits are grown on 0.64 million hectares in

Similar documents
Population Dynamics of Three Species of Genus Bactrocera (Diptera: Tephritidae: Dacinae) in BARI, Chakwal (Punjab)

Progress. Agric. 18(2) : 93-97, 2007 ISSN

Comparative Toxicity of Certain Pesticides to Peach Fruit Fly, Bactrocera zonata Saunders (Diptera: Tephritidae) under Laboratory Conditions

BIO-EFFICACY OF PROMISING BOTANICALS AGAINST INSECT INFESTING COWPEA. CV. CO 4

Ecology and Sustainable Management of Major Bactrocera Fruit Flies in Goa, India

ORIENTATIONAL EFFECT OF AQUEOUS LEAF EXTRACT OF CITRUS AURANTIFOLIA ON HOUSEFLY, MUSCA DOMESTICA (DIPTERA:MUSCIDAE)

The Mediterranean Fruit Fly in Central America

Full Length Research Paper. Pretheep-Kumar, P. 1*, Balasubramanian, A. 1 and Mohan, S. 2

BIONOMICS OF BACTROCERA DORSALIS (DIPTERA: TEPHRITIDAE) AN IMPORTANT PEST OF MANGO (MANGIFERA INDICA) IN JAMMU (J & K) J. S. Tara and Madhvi Gupta*

Evaluation of some plant products for their oviposition deterrent properties against the Callosobruchus maculatus (F.) on Chik pea seeds

Area-wide integrated pest management of tephritid fruit flies using the sterile insect technique

REGIONAL STANDARDS FOR PHYTOSANITARY MEASURES GUIDELINES FOR THE CONFIRMATION OF NON-HOST STATUS OF FRUIT AND VEGETABLES TO TEPHRITID FRUIT FLIES

PHYTOSANITARY IRRADIATION TO CONTROL QUARANTINE PESTS

Curre nt Status of the Solanaceous Fruit Fly Control Project in Yonaguni Island. Abstract

The Threat of the Mediterranean Fruit Fly1 to American Agriculture and Efforts Being Made to Counter This Threat2 3

Comparative Effects of Neem or Mineral Oil on Maize Weevil, Sitophilus zeamais Motsch. And its Parasitoid, Anisopteromalus calandrae (Howard).

whereas the fourth inhibitor was extracted and semi purified from cabbage (Brassica oleracae) in the Insect Physiology Laboratory of the Department of

Bactrocera dorsalis : Current status JH VENTER NPPOZA MAY 2017

Fruit Fly Surveillance in Nepal

Bionomics of Fruit Fly, Bectrocera cucurbitae (Coquillet) on Cucumber under Laboratory Condition

Improved postharvest market access treatments for horticultural commodities (3097)

[Attachment] Survey guidelines for major fruit flies

VQ612 Determination of Fruit Fly Host Status for Red Tiger, Shadow, Gemini & Baby-lee Watermelons. MD Jess, RJ Corcoran QDPI

Demographic parameters and biotic factors of two Dacini species, Bactrocera cucurbitae and Dacus ciliatus, on Réunion Island

Irradiation Quarantine Treatments for Deciduous Tree Fruits

Effect of temperature and food on the biology of Khapra beetle, Trogoderma granarium Everts

PILOT APPLICATION OF STERILE INSECT TECHNIQUE FOR THE ORIENTAL FRUIT FLY, BACTROCERA PHJLIPPJNENSIS, IN NAOWAY ISLET

Efficacy of Protein Bait Sprays in Controlling Melon Fruit Fly [Bactrocera Cucurbitae (Coquillett)] in Vegetable Agro-ecosystems

PT 7: Irradiation treatment for fruit flies of the family Tephritidae (generic)

BIOLOGY OF GALL FLY, Procontarina matteiana (Kieffer & Cecconi) ON MANGO *JADHAV, K. M., PATEL, R. K. AND PATEL S. A.

EFFICACY OF SOME BOTANICALS AS INSECTICIDES ON THE MELON FLY, BACTROCERA CUCURBITAE (COQUILLETT) (DIPTERA : TEPHRITIDAE)

*Asawalam EF and U. Igwe

EFFECT OF CUSTARD APPLE ON BIOLOGY OF RICE MOTH C. cephalonica

DETERMINATION OF FRUIT FLIES (DIPTERA: TEPHRITIDAE) INFESTATION IN GUAVA, PEACH AND BITTER GOURD ORCHARDS IN KHYBER PAKHTUNKHWA.

Study some biological aspects of peach fruit fly Bactrocera zonata (Saunders) (Diptera: Tephritidae) In laboratory and field

Toxicity of Diazinon against Adults of confused flour beetle (Tribolium confusum Jasquelin) under laboratory condition

ISPM No. 30 ESTABLISHMENT OF AREAS OF LOW PEST PREVALENCE FOR FRUIT FLIES (TEPHRITIDAE) (2008)

PT 31: Vapour heat treatment for Bactrocera tryoni on Mangifera indica

Chandrakala et al. Int. J. Pure Appl. Zool., 1(1): 86-91, 2013

Rearing Fopius arisanus (Sonan) (Hymenoptera: Braconidae) in Mediterranean Fruit Fly (Diptera: Tephritidae)

Laboratory Evaluation of Leucas lavandulifolia Smith (Labiatae) Leaf Extracts Against Pulse Beetle, in Stored Green Gram Seed (Vigna radiata L.

PT 10: Irradiation treatment for Grapholita molesta

Mella (Olax zeylanica) Leaves as an Eco-friendly Repellent for Storage Insect Pest Management

PT 4: Irradiation treatment for Bactrocera jarvisi

Color preferences of fruit flies to methyl eugenol traps, population trend and dominance of fruit fly species in citrus orchards of Sargodha, Pakistan

The Hawaii Fruit Fly Area-Wide Pest Management Program: Accomplishments and Future Directions

FRUIT FLY OF CUCURBITS IN SEMI ARID REGION OF NORTH GUJARAT CHAUDHARY, F. K. *

Genetic Control Tactic Against Fruit Flies (Diptera: Tephritidae) Insect to Escape Destruction of Perishable Horticulture Crops

Research Paper PESTICIDAL ACTIVITIES OF MORINGA OLEIFERA SEED OIL EXTRACT TO TRIBOLIUM CASTANEUM AND TRIBOLIUM CONFUSUM ON MILLED MAIZE

EFFECT OF TEMPERATURE ON DEVELOPMENT AND REPRODUCTION OF PEACH FRUIT FLY, BACTROCERA ZONATA (SAUND.)(DIPTERA: TEPHRITIDAE)

Effect of Field Plot Design on the Efficacy of Boom Sprayer

Resistance in Stored Rice Varieties Against Angoumois Grain Moth, Sitotroga cerealella (Olivier) (Lepidoptera: Gelechiidae)

Efficacy of various edible and non-edible oils against Sitophilus oryzae L. in sorghum

Botanicals in Integrated Pest Management

Melon Fly (Diptera: Tephritidae) Genetic Sexing: All-male Sterile Fly Releases in Hawaii

The sterile insect technique for control of the oriental fruit fly, Bactrocera dorsalis (Hendel), in mango orchards in Ratchaburi Province, Thailand

Antibiosis of Physical Characteristics of Maize Grains to Sitotroga cerealella (Oliv.) (Gelechiidae: Lepidoptera) in Free Choice Test

ISPM No. 28 PHYTOSANITARY TREATMENTS FOR REGULATED PESTS (2009)

Insect growth regulators in pest management programs. Frank Arthur USDA-ARS-GMPRC Manhattan, KS 66502

N.H. El-Sinary. National Center For Radiation Research And Technology (NCRRT), P.O. Box 29, Nasr City, Cairo, Egypt

Volume 1 Issue 2 April-June,2012 DOSE OF CUE- LURE FOR SUPPRESSION OF MELON FLY POPULATION IN PUMPKIN CHAUDHARY*, F. K. AND PATEL, G. M.

Journal of Entomology and Zoology Studies 2018; 6(2): Sahadat Hossain and M Khalequzzaman

Irradiation Control of Plodia interpunctella L. (Lepidoptera: Pyralidae) in Dehydrated Ginseng

LABORATORY ASSESSMENT OF THE REPELLENT PROPERTIES OF ETHANOLIC EXTRACTS OF FOUR PLANTS AGAINST

and productivity of Tribolium castaneum on resistant starches

PT 21: Vapour heat treatment for Bactrocera melanotus and Bactrocera xanthodes on Carica papaya

Fruit Sampling Guidelines for Area-Wide Fruit Fly Programmes

24/01/2011. Bioassays some definitions

Efficacy of different lures in male annihilation technique of peach fruit fly, Bactrocera zonata (Diptera: Tephritidae)

[fll ~ft:

REPELLENT ACTIVITY OF CARDAMOM, GINGER AND NUTMEG AGAINST CERTAIN INSECT PESTS

Journal of Applied and Natural Science 7 (1) : (2015) Evaluation of different plant oils against Lasioderma serricorne Fab.

Tree Fruit IPM Advisory: June 20 th, 2006

EFFECTS OF DIFFERENT PLANT EXTRACTS ON OVIPOSITION OF CALLOSOBRUCHUS CHINENSIS

Pheromone Based Mating Disruption

The fruit flies are the classical international

Phytosanitary Irradiation: Technology and Efficacy

Assessment of grain damage and weight loss caused by Sitophilus oryzae (L.) feeding on split pulses

Relationship between Population Fluctuation of Oriental Fruit Fly Bactrocera dorsalis Hendel and Abiotic Factors in Yezin, Myanmar

INSECTICIDE RESISTANCE MONITORING IN LEPIDOPTERAN COTTON PESTS

ANTIFEEDANT AND GROWTH REGULATORY EFFECTS OF NEEM LEAF EXTRACTS AGAINST SPILARCTIA OBLIQUA (WALKER)

AGRICULTURE DOCUMENTATION INVENTORY OF NON-TARIFF MEASURES

J. Bio.Env. Sci. 2018

LAOYAN, EDEN K. APRIL Efficacy of Crude Extract of Resurrection Lily

Susceptibility of Three Local Sorghum Varieties to Sitophilus zeamais Motschulsky [Coleoptera: Curculionidae]

Effect of grain protectants on biology of pulse beetle (Callosobruchus chinensis L.) in black gram

Quarantine Treatments for Mortality of Eggs and Larvae of Fruit Flies (Diptera: Tephritidae) Invading Fresh Horticulture Perishable Produces

In Pakistan cereals and pulses are stored by

Repellency and Residual effect of Neem or Mineral Oil on the Distribution and Oviposition of Maize Weevil, Sitophillus zeamais Motsch

Effect Of Bagging On Chemical Properties Of Mango (MangiferaindicaL.) CV. Alphonso

Entomology and the Evolution of Generic Doses

Saskatoon fruitinfesting

Project Objective. Logical Framework Matrix (LFM) for RAS Agenda item: 7.1

Population dynamics of fruit fly (Diptera: Tephritidae) species associated with mango in the Guinea Savanna Agro-Ecological zone of Ghana

Effects of feeding different levels of sesame oil cake on performance and digestibility of Awassi lambs

Tribolium castaneum (Herbst) (Coleoptera: Tenebrionidae)

PT 18: Cold treatment for Bactrocera tryoni on Citrus limon

Glycyrrhiza glabra L. against cowpea bruchid, Callosobruchus chinensis L. (Coleoptera: Bruchidae)

SCREENING OF PLANT LEAVES AS GRAIN PROTECTANTS AGAINST TRIBOLIUM CASTANEUM DURING STORAGE

Low-dose methyl bromide fumigation as a quarantine treatment against fruit flies

Transcription:

Pakistan J. Zool., vol. 38(2), pp. 131-135, 2006. Effect of Turmeric Extracts on Settling Response and Fecundity of Peach Fruit Fly (Diptera: Tephritidae) ABDUL RAUF SIDDIQI, GHULAM JILANI, JUNAID-UR-REHMAN AND SADIA KANVIL Insect Pest Management Programme, IPEP, NARC, Islamabad Abstract. Extracts of turmeric, Curcuma longa in petroleum ether, acetone and ethanol were separately prepared using Soxhlet s extractor. Settling response of peach fruit fly Bactrocera zonata to the extracts in a cage having treated or untreated guava indicated that the acetone extract had the maximum effect on settling response and fecundity. In 48 hours at 2% concentration of this extract average number of flies settled on treated guava were 0.13 as compared with 0.83 in control showing 84.64% non-preference. The progeny was inhibited in the exposed treated fruits. Acetone extract at 2% caused the maximum inhibition of 85.84% in pupation and 94.71 % in adult emergence. Key words: Turmeric, peach fruit fly, Bactrocera zonata, solvent extracts, settling response, fecundity. INTRODUCTION Fruits are grown on 0.64 million hectares in Pakistan with an annual production of about 6.3 million tonnes. Fruits are used not only for local consumption but are also exported. The value of total fruit exports during the fiscal year 2002-2003 was 11.35 billion rupees (Agricultural Statistics of Pakistan 2002-2003). Peach fruit fly, Bactrocera zonata (Saunders), causes heavy damage to guava, mango, peach, apricot, loquat, etc. The damage is caused by the larvae only and the attack is characterized by the dark punctures, oozing of fluid, and the rotting or dropping of fruits. The fruits attacked by this pest are malformed, misshaped, undersized and are found rotting inside. B. zonata is the most common and wide spread species not only in Pakistan but also in all the fruit growing areas of the world (Ghouri, 1960; Syed, 1967; Hashmi, 1994). Therefore, it has attracted the attention of economic entomologists. It is abundant in Punjab, Sindh and Balochistan and rare in northern foothills and Peshawar valley (Mohyuddin, 1989). B. zonata alone has 80.6% population, thus the most abundant species in Bannu (Marwat and Baloch, 1986). Fruit flies have been important pests of fruits in the past in Pakistan but now these are being 0030-9923/2006/0002-0131 $ 8.00/0 Copyright 2006 Zoological Society of Pakistan. considered as quarantine pests in the international trade. They have attained more importance with respect to WTO. Fruit fly infestations and its resultant consequences in the shape of pesticide residues and quality deterioration of fruits are putting adverse effects on the economy of farmers and traders. Some of the fruits which could fetch foreign exchange are not being exported due to infestation of fruit flies. Although the use of plant species to control insect pests has been in practice for centuries to a limited extent, but recently the interest has been renewed in the pest management potential of natural products. Plants are nature s chemical factories, providing the richest source of organic chemicals on Earth. Plant products have several uses in insect control (Hashmi, 2001). Turmeric, Curcuma longa, has been traditionally used for insect control in Indo-Pak Sub-Continent (Chattergee, 1980; Jilani, 1985). Turmeric extracts have also shown repellent and growth inhibiting effects against Tribolium castaneum (Jilani and Su, 1983; Mostafa, 1993). Turmerone and ar-turmerone isolated from turmeric oil are repellents against T. castaneum (Su et al., 1982). Some plants have shown various types of effects on fruit flies. Neem seed kernel extracts are oviposition deterrent to Bactrocera cucurbitae and B. dorsalis (Shivendra and Singh, 1998), extracts of Acorus calamus affected longevity and showed chemosterilant effects on adults of B. cucurbitae (Shankutala and Thomas, 2001a) and reduced field population (Tewari, 2001; Shankutala and Thomas, 2001b).

132 A.R. SIDDIQI ET AL. Akhtar et al. (2004) have demonstrated repellent and growth inhibiting effects of various solvent extracts of neem, turmeric and sweetflag. Turmeric extracts probably suppressed egg laying, egg hatching or larval survival as minimum number of pupae were recovered from the treated guava. The present studies are continuation of these studies and aimed at determination of effects of turmeric extracts on settling response and fecundity of peach fruit fly, B. zonata. MATERIALS AND METHODS Rearing of fruit fly Peach fruit fly, B. zonata, was reared under controlled conditions of 28±1 C and 55±5% R.H. Fresh and clean guava fruit were exposed for 48 hours to the graved B. zonata females for egg laying. The infested fruits were transferred to glass jars (1-lb capacity) containing sand. The pupae were collected by sieving and kept in a cage for obtaining fruit fly adults of uniform age. For mass culture, the adults were provided artificial diet consisting of two bananas, six egg yolks, four table spoons of honey, two table spoons of Leaderplex vit B. complex syrup, one table spoon of yeast and eight table spoons of sugar. Preparation of test materials Turmeric, Curcuma longa L., rhizomes purchased from a local ayervadec shop were ground to a fine powder in an electric grinder. A weighed amount of 100 grams turmeric powder was extracted separately with 500ml acetone, petroleum ether and ethanol on Soxhlet s extraction apparatus for 8 hours. The extracts were concentrated on rotary evaporator and finally made solvent free in a vacuum desiccator. Preparation of solutions One gram of each extract was separately dissolved in 50 ml water to get stock solutions of 2% concentration from which lower concentrations of 1.0 and o.5% were obtained by dilution. The guava fruits were treated by dipping in 2, 1 and 0.5% solution, air dried for 24 hours and evaluated for settling response of B. zonata adults. Bioassays Settling response The treated and untreated fruits were offered to 15 pairs of 20 days old gravid B. zonata adults in a cage of 18 // x 16 // x 16 // providing free choice. The experiment was replicated three times. The number of fruit fly adults settled on treated or untreated fruits were counted after every 2 hours from 8 a.m. to 4 p.m. for 2 days. Percent non-preference was worked out by comparing the mean number of the adults settled on treated or untreated fruits as given by the following formula: Mean number of flies settled on treated fruit x100 Percentage non preference = 100 - Mean number of flies settled on untreated fruit Effect on fecundity After 48 hours, both treated and untreated fruits were individually kept in separate plastic jars containing sand for pupation at 28±1 C and 55±5% R.H. The jars were covered with muslin cloth. After 15 days, pupae were collected by sieving and kept in separate glass vials for adult emergence. The number of pupae and adults emerged from different treatments were compared to evaluate the effect of plant extracts on fecundity. RESULTS Settling response and non-preference Table I shows that the number of flies settled on guava fruit separately treated with petroleum ether, acetone and ethanol extracts of turmeric were significantly lower than those on untreated fruits. The lowest number of flies settled was 0.13 on guava fruit treated with 2.0% acetone extract of turmeric followed by 0.23 and 0.33 on the fruits treated with 1.0% and 0.5% concentration of the same plant extract, respectively, as compared with 0.83 in control. Number of adults settled on guava fruits treated with 2.0% concentration of petroleum ether extract were significantly lower than those settled on fruits treated with 1.0% and 0.5% concentrations. The highest level of non-preference shown by the flies was 84.64% to the fruits treated with 2.0%

EFFECT OF TURMERIC ON SETTLING RESPONSE AND FECUNDITY 133 acetone extract of turmeric followed by 71.82% and 59.73% to the guava fruits treated with 1.0% and 0.5% concentration of the same extract with reference to control, respectively. Non -preference of flies to the fruits treated with petroleum ether or ethanol extracts was lower than those treated with acetone extract. Table I.- Mean number of B. zonata settled on untreated guava fruit or those treated with different concentrations of turmeric extracts in various solvents exposed for 48 hours in a free choice test Solvent % Conc. Settling response No. settled % Nonpreference Acetone 2.00 0.13 e 84.64 1.00 0.23 ef 71.82 0.50 0.33 de 59.73 Petroleum ether 2.00 0.35 e 58.05 1.00 0.59 bc 28.29 0.50 0.65 d 21.76 Ethanol 2.00 0.43 cd 47.64 1.00 0.49 bcd 40.38 0.50 0.53 bc 35.55 Control 0.83 a Values followed by the same letters are not significantly different from each other (P<0.05), [Duncan s 1951] Multiple Range Test LSD=0.153 Average of 3 replications. Settling of comparatively lower number of adults on a treated than on untreated fruit is considered as a marker of non-preference of that particular material applied to the fruit. The material having non-preference is considered as repellent. Such materials affect insect behaviour. This indicated that fruit fly adults preferred untreated guava fruits Fecundity Effect of plant extracts on pupation The number of pupae obtained from guava fruits treated with various extracts of turmeric in different concentrations and exposed to B. zonata for 48 hours are presented in Table II. It revealed that the number of pupae obtained from fruits treated with acetone extract was significantly lower than those treated with petroleum ether and ethanol extracts and from untreated fruits. The minimum number of 14.00 pupae recovered from guava treated with 2.0% acetone extract were followed by 21.00 at 1.0% which were not significantly higher. However 26.00 pupae recovered at 0.5% concentration were significantly higher than those at 2.0% concentration. The number of pupae recovered from guava treated with petroleum ether extract at 2.0, 1.0 and 0.5% concentration was 46.67,47.67 and 56.33, respectively, which were non-significant from each other but significantly lower than 98.67 obtained from untreated fruits and 67.00, 87.67 and 88.67 from those treated with ethanol extract at 2.0, 1.0 and 0.5% concentration, respectively. Inhibition of pupae recovered from fruits treated with acetone extract of turmeric at 2.0, 1.0, and 0.5% concentrations was 85.84, 78.72, and 73.65%, respectively with reference to control. Pupal inhibition in petroleum ether extract and ethanol extract was lower than that in acetone extract Effect of plant extracts on adult emergence Minimum number of 4.67 adults were recovered from guava fruits treated with 2.0% acetone extract of turmeric followed by 11.00 and 15.33 from those treated with 1.0 and 0.5% concentrations, respectively, as compared with 88.33 in control The number of adults emerged at different concentrations of the acetone extract were nonsignificant from each other but significantly lower than those treated with petroleum ether and ethanol extract and from untreated fruits. The number of adults were 41.00, 42.67, and 51.33 at 2.0, 1.0 and 0.5% from petroleum ether extract treated fruits, respectively. These were significantly lower than 72.00 adults recovered each from 1.0% and 0.5% ethanol extract treated fruits. There were 54.33 adults emerged at 2.0% ethanol extract and 72.00 each at 1.0 and 0.5% concentration which were nonsignificant from each other and from 88.33 in control. Inhibition of adult emergence was highest

134 A.R. SIDDIQI ET AL. Table II.- Mean number of B.. zonata pupae recovered from untreated guava fruits and those treated with various concentrations of turmeric extracts in various solvents exposed for three days in a free choice test. Solvent % Concentration Progeny Pupae Adults Number % inhibition Number %inhibition Acetone 2.00 14.00 e 85.84 4.67 d 94.71 1.00 21.00 de 78.72 11.00 d 87.54 0.50 26.00 d 73.65 15.33 d 82.64 Petroleum ether 2.00 46.67 c 52.70 41.00 c 53.58 1.00 47.67 c 51.68 42.67 c 51.69 0.50 56.33 bc 42.91 51.33 c 41.89 Ethanol 2.00 67.00 a 32.09 54.33 c 38.49 1.00 87.67 a 11.15 72.00 b 18.48 0.50 88.67 a 10.13 72.00 b 18.48 Control 98.67 a 88.33 a Values followed by the same letters are not significantly different from each other (P<0.05), [Duncan s 1951] Multiple Range Test LSD=10.83(Pupae), 13.27(Adults) Average of 3 replications. in acetone extract of turmeric. It was 94.71, 87.54 and 82.64% at 2.0, 1.0 and 0.5% respectively. Petroleum ether and ethanol extracts had comparatively lower inhibition of adults. Acetone extract of turmeric being the most promising was further studied for its effect by feeding through admixture with artificial diet used for rearing. Feeding on treated diet increased mortality and inhibited progeny by affecting reproduction process. DISCUSSION Presently, farmers rely mainly on the use of insecticides for controlling fruit flies. In some of the fruits like guava, the cover sprays of insecticides are being applied about 5-7 times at every 10-15 days interval in summer crop, 2-3 times in mango, two times in plums, peaches, persimmon, pear apricot and at weekly interval in melons for protection against fruit flies. In an estimate about 10% of insecticides used in the country are applied for the control of fruit flies (Stonehuose et al., 1998). This state of affairs is most concerning from ecological point of view as well as the issue of insecticide residues in exportable fruits and vegetables. Pakistan s export of fruits and vegetables faces serious threat to the use of insecticides. Sri Lanka refused to accept onion from Pakistan in 2002 because of insecticide residues and required certification that the imported citrus fruit should come from fruit fly free area. Similarly, Mauritius needs certification for the import of persimmon. Korea, Japan and Jordan have already banned the import of fruits from Pakistan. Under such circumstances massive thrust to increase export of fruits by Pakistan to new and existing markets may suffer a serious set back unless solutions to pest attack are found other than pesticides. Under WTO regulations, the international standards of exportable fruits and vegetables have to be followed especially under sanitary and phytosanitary measures under which these must be free of pest and pesticide residues. Plant derivatives appear to be a good source of safe and environment friendly chemicals which can be used as alternatives to insecticides. Studies by Shivedra and Singh (1998), Shakuntala and Thomas (2001), Tewari (2001) and present research indicated great potential of some indigenous plants for controlling fruit flies. Being medicinal and having traditional uses, these plants are not expected to leave any harmful residues in the treated commodities.

EFFECT OF TURMERIC ON SETTLING RESPONSE AND FECUNDITY 135 ACKNOWLEDGEMENT The authors feel highly obliged to Agricultural Linkages Programme of Pakistan Agricultural Research Council, Islamabad for providing funds and facilities to undertake this piece of research work under an Umbrella project on Integrated Management of Fruit Flies in Pakistan. REFERENCES AKHTAR, N., JILANI, G., MAHMOOD, R., ASHFAQUE, M. AND IQBAL, J., 2004. Effects of plant derivatives on settling response and fecundity of peach fruit fly Bactrocera zonata (Saunders). Sarhad J. Agric., 20: 269-274. ANONYMOUS, 2004. Agricultural statistics of Pakistan. Government of Pakistan, Ministry of Agriculture and Livestock, pp. 278. CHATTERJEE, P.B., 1980. Correspondence contribution, In: The use of plants and mineral as traditional protectants of stored products (eds. P. Golob and D. J. Webley), p. 5. Report of Tropical Product Institute London, G 138, pp. 32. GHOURI, A. S. K., 1960. Insect pests of Pakistan. FAO Plant Rot. Comm. S. Asia Pacific Reg. Tech Doc. No. 8, pp. 21. HASHMI, A. A., 1994. Insect pest management, of horticultural and forest crops. Pakistan Agricultural Research Council, Islamabad, pp. 664. HASHMI, A.A., 2001. Integrated pest management in the 21 st century, PARC publication, Islamabad. JILANI, G. AND SU, C. F., 1983. Laboratory studies on several plant materials as insect repellents for protection of stored grains. J. econ. Ent., 76: 154-157. JILANI, G., 1985. Quality improvement in basmati rice in aging process. In: Proc. FAO regional field workshop on rice grading, Inspection and analysis, Lahore- Karachi, Pakistan. pp. 192-211. MARWAT, N. K. AND BALOCH, U. K., 1986. Methyl eugenol-a male fruit fly sex attractant. Pakistan J. agric. Res., 7: 234. MOHYUDDIN, A. I., 1989. Integrated pest management of three mango pests. In: Proc. International mango workshop, Feb. 27-March 1, 1989. Directorate of Agric. Ext., Multan region, pp. 137-141. MOSTAFA, T. S., 1993. Effect of certain plant extracts on body weight and some biochemical aspects of the khapra beetle, Trogoderma granarium Everts. Bull. ent. Soc. Egypt Econ. Ser., 20: 77-85. SHAKUNTHALA, N. AND THOMAS, J., 2001a. Evaluation of chemosterilent effect of Acorus calamus L. extracts on melon fly, Bactrocera cucurbitae Coq. J. trop. Agric., 39: 145-148. SHAKUNTALA, N. AND THOMAS, J., 2001b. Oviposition deterrence of Acorus calamus L. extracts on melon fly, Bactrocera cucurbitae. J. trop. Agric., 39: 149-151. SHIVENDRA, S. AND SINGH, R.P., 1998. Neem (Azadirachta indica) seed kernel extracts and azadirachtin as oviposition deterrents against the melon fly (Bactrocera cucurbitae) and the oriental fruit fly (Bactrocera dorsalis). Phytoparasitica, 26: 191-197. STONEHOUSE, J. M., MUMFORD, J. D. AND MUSTAFA, G., 1998. Economic losses to tephritid fruit flies (Diptera: Tephritidae) in Pakistan. Crop Prot., 17: 159-164. SU, H. C. F., ROBERT, H. AND JILANI, G., 1982. Isolation, purification and characterization of insect repellents from Curcuma longa (L.). J. Agric. Fd. Chem., 30: 290-292. SYED, R. A., 1967. Special problems of fruit fly control in West Pakistan. In: Proc. Sem. Insect Pest Cont. Pakistan, PAEC, Lahore 18-21 July, 1967, pp 182-186. TEWARI, K. K., 2001. Effect of plant extracts spray on fruit fly transmission of cucumber mosaic virus. J. Phyt. Res., 14: 207-208. (Received 21 January 2006, revised 5 April 2006)