USDA. Project: Brown Marmorated Stink Bug: Damage Survey and' Monitoring Efforts

Similar documents
Status of Halyomorpha halys in the Mid-Atlantic U.S. Tom Kuhar Professor and Vegetable Entomology Specialist Department of Entomology, Virginia Tech

Insects in Vegetables: A Review of 2011 and What to Know for 2012

Identification. Adults may be confused with other native brown stink bugs and western conifer seed bugs.

Emerging Insect Fruit Pests

PNVA Update: Brown Marmorated Stink Bug versus Trissolcus japonicus. Michael R. Bush, WSU Extension & Joshua Milnes, WA State University

The Invasive Brown Marmorated Stink Bug In Utah Halyomorpha halys

Progress Report Submitted Feb 10, 2013 Second Quarterly Report

Managing Insect Pests of Ripening Grapes

Invasive Insects Threatening Vegetable Production in The Midwest

Spotted wing drosophila in southeastern berry crops

Phenology and Distribution of Brown Marmorated Stink Bugs

Managing Navel Orangeworm (NOW) in Walnuts. Kathy Kelley Anderson Farm Advisor Stanislaus County

Fruit-infesting Flies

Fruit Flies (Apple maggot, Cherry Fruit Flies, etc.) Diptera: Tephritidae

Corn Earworm Management in Sweet Corn. Rick Foster Department of Entomology Purdue University

Spotted Wing Drosophila

BMSB Small Fruit Stakeholder Report

Vineyard Insect Management what does a new vineyard owner/manager need to know?

2005 Research: Monitoring, Sanitation, and Insect Pest Management in Figs

How to Identify and Manage Brown Marmorated Stink Bug (Halyomorpha halys)

A Review of Corn Earworm and Other Insect Problems in 2011

Managing Brown Marmorated Stink Bug in Michigan Orchards

Area-Wide Program to Eradicate the European Grapevine Moth, Lobesia botrana in California, USA.

Colorado State University Viticulture and Enology. Grapevine Cold Hardiness

Mike Waldvogel Department of Entomology North Carolina State University

Title: Western New York Sweet Corn Pheromone Trap Network Survey

Spotted wing drosophila and brown marmorated stink bug - the biggest challenges to berry growers

Giant whitefly. Perennial Crops. Biological Control Update on. Citrus Leafminer Olive fruit fly. Giant Whitefly. Release

The Bean Plataspid, Megacopta cribraria, Feeding on Kudzu: an Accidental Introduction with Beneficial Effects

The Threat of Brown Marmorated Stink Bugs in Peach Production

Attack of Trissolcus japonicus and native parasitoids on BMSB and nontarget egg masses in MD, DC, VA, WV, and DE.

Biological Control of the Mexican Bean Beetle Epilachna varivestis (Coleoptera: Coccinellidae) Using the Parasitic Wasp Pediobius foveolatus

How About Brown Marmorated Stink Bug in California?

Update on BMSB in the Southern Region. Jim Walgenbach NC State University MHCREC, Mills River, NC

ALTERNATIVE CONTROL METHODS FOR GRAPE LEAFHOPPER: PART 2 FINAL REPORT 1/22/01

Integrated Pest Management Program Department of Plant Science and Landscape Architecture UConn Extension

Journal of Economic Entomology Advance Access published February 8, 2015

Wisconsin Fruit News. Insect Pest Supplemental Feb 2, 2018

Invasive insects in California an update. Matt Daugherty, Department of Entomology, UC Riverside

New England Grape Notes

MONITORING WALNUT TWIG BEETLE ACTIVITY IN THE SOUTHERN SAN JOAQUIN VALLEY: OCTOBER 2011-OCTOBER 2012

Brown Marmorated Stink Bug (Halyomorpha halys)

MANAGING INSECT PESTS IN BERRIES AND FRUITS. Small Farm School 8 September 2012 Bruce Nelson, CCC Horticulture Department

Crops - Commercial. Soybean

Integrated Crop Management for Vineyards

Lygus: Various Species Monitoring Protocol

Spotted Wing Drosophila (SWD) Baiting and Trapping. Hannah Lee Dr. Gerard Krewer Dr. Elke Weibelzahl

Monitoring and Controlling Grape Berry Moth in Texas Vineyards

The multicolored Asian lady beetle, Harmonia axyridis: A nuisance pest in Ohio

Metallic Wood Borer in the News. Emerald Ash Borer

Brown Marmorated Stink Bug (Halyomorpha halys)

Vineyard IPM Scouting Report for week of 26 July 2010 UW-Extension Door County and Peninsular Agricultural Research Station Sturgeon Bay, WI

Coffee Berry Borer (CBB) Preliminary Results

Crops - Commercial. Soybeans

Mating Disruption an AreawideApproach to Controlling the Borer Complex in cherry

Crops - Commercial. Soybeans

Insect Control Research for Pecan

Managing Spotted Wing Drosophila, Drosophila Suzukii Matsumara, In Raspberry.

Michigan Grape & Wine Industry Council 2014 Research Report. Biology and management of invasive insect pests in Michigan vineyards 2014

The Pepper Weevil and Its Management

Sweet corn insect management by insecticides in Ohio, 2015 Final report 12/31/2015

The Benefits of Insecticide Use: Avocados

Nik Wiman, Silvia Rondon, Vaughn Walton, & Peter Shearer

2012 Leek Moth Survey Report

What s New in Vegetable Insect Management

Citrus Crop Guide. New registration for citrus gall wasp

Risk Assessment of Grape Berry Moth and Guidelines for Management of the Eastern Grape Leafhopper

Bugs and Pests: What You Need to Know

Cankers Disease of Walnut. Whitney Cranshaw

Dry Beans XIII-14. Western Bean Cutworm Larva. Identification (and life cycle/seasonal history)

BMSB in Western Region California s and Utah s Increasing Concerns

Thousand Cankers Disease (TCD) Simeon Wright Forest Pathologist Missouri Dept. of Conservation November 6, 2015

cone and seed insects -specialists in highly nutritious structures -life cycle closely tied to reproductive structure development

Tom Kuhar & D. Ames Herbert Dept. of Entomology Virginia Tech

Oriental Fruit Moth Invades Illinois

TITLE: SEASONAL PHENOLOGY AND MANAGEMENT OF SPOTTED WING DROSOPHILA IN RASPBERRY CROPS IN NY DEC-2012 PROGRESS REPORT

Western Cherry Fruit Fly Research Update

Experimentation to Monitor and Control Grape Root Borer. Martin Keen Landey Vineyards Lancaster, PA

Sawflies : order Hymenoptera

Michigan Grape & Wine Industry Council 2012 Research Report. Understanding foliar pest interactions for sustainable vine management

Spotted Wing Drosophila & Other Threats

California Tree Fruit Agreement Research Report 2002

Current research status and strategic challenges on the black coffee twig borer, Xylosandrus compactus in Uganda

New Developments in Tomato and Lettuce Pest Management in California

BIOLOGY, MONITORING, CONTROL & UPDATE ON THE SPOTTED-WING DROSOPHILA (SWD) Blair Sampson USDA-ARS Poplarville, MS

6/18/18. Garden Insects of Eastern North America. Good Bugs, Bad Bugs: Friends and Foes in the Garden. Tips for Organic Gardening

Fátima Gonçalves, Cristina Carlos, Susana Sousa, Márcio Nóbrega, José C. Franco, José Manso, António Pinto, Laura Torres

2009 SUNFLOWER INSECT PEST PROBLEMS AND INSECTICIDE UPDATE

This presentation is about the Light Brown Apple Moth, an invasive pest posing an economic and environmental threat to New York.

Metallic Wood Borer in the News. Emerald Ash Borer

Demonstration Vineyard for Seedless Table Grapes for Cool Climates

Identifying Leafrollers Including the Light Brown Apple Moth

Emerald Ash Borer in Colorado

Joseph A. Fiola, Ph.D. Specialist in Viticulture and Small Fruit Western MD Research & Education Center Keedysville Road Keedysville, MD

Studies in the Postharvest Handling of California Avocados

Light Brown Apple Moth; Biology, monitoring and control

Marvin Butler, Rhonda Simmons, and Ralph Berry. Abstract. Introduction

Final Report 2011 to the NYS Dry Bean Industry

The Economic Impact of Bird Damage to Select Fruit Crops in New York

Southern Region Small Fruit Consortium Final Report Title: Final Report Grant Code: Research Project Personnel: Objectives: Justification:

Transcription:

Project: Brown Marmorated Stink Bug: Damage Survey and' Monitoring Efforts USDA Institution: Appalachian Fruit Research Station, USDA-ARS, Kearneysville, WV 25430 Date: September 3, 2010 Background The brown marmorated stink bug (BMSB), Halyomorpha halys (Stal) was introduced from Asia into the mid-atlantic region. The epicenter of this infestation is believed to have originated in Allentown, PA in the mid 1990s. Since then, BMSB has spread to New Jersey, Maryland, Delaware, West Virginia, and Virginia. Lirnited populations also have been detected in Mississippi, Ohio, Oregon, and California. BMSB is polyphagous pest whose host range includes tree fruit, ornamentals, hardwood trees and cultivated crops such as soybean. Among host plants surveyed in the mid-atlantic, several hosts emerged as supporting populations of BMSBs at different periods throughout the season. Nymphal abundance appeared to be associated with maturing fruit and pods. BMSB is known to attack high value crops, such as tree fruit, in Asia. In the mid-atlantic, BMSB populations were detected on apple and pear, particularly later lin the season in Pennsylvania and cage studies revealed the potential for BMSB damage on both stone and pome fruits. In the region encompassing western Maryland, the eastern panhandle of West Virginia and southeastern Pennsylvania, populations have steadily increased annually since first detection in 2003. During the 2009 growing season, serious economic injury to peach, apple, and Asian pear due to large BMSB populations was commonly detected in commercial late in the season. Some commercial growers used late-season pyrethroid applications in an attempt to control BMSB and mitigate economic injury, while other growers were unaware of the extent of BMSB injury until harvest. These late-season applications severely disrupt beneficials within the orchard agroecosystem and result in limitations to fundamental IPM practices put in place over the past several decades. Thus, as the threat posed by BMSB to U.S. agriculture continues to increase, there is no established detection method, treatment threshold or control strategy for BMSB in any cropping system including tree fruit. In order to effectively monitor and manage BMSB in the narrowspectrum, reduced-spray environment of tree fruit, it is imperative that insecticide treatments be triggered by tools designed to detect increases in BMSB abundance or activity. Current Study lin 2010, the USDA-ARS Appalachian Fruit Research Station initiated a study with commercial growers in Maryland and West Virginia aimed at defining the threat posed by BMSB in commercial

orchards, as severe injury was detected early in the growing season for the first time. This study includes weekly sampling of fruit to identify abundance and severity of injury in peach and apple. One hundred fruit are picked from both perimeter and interior trees in -3-4 acre blocks. Each fruit is visually examined for the presence of external injury. The side of the fruit bearing the most severe injury is subsequently sectioned mulnple times. The total number of injured fruit and the number of distinct BMSB feeding sites per fruit are recorded. If a fruit has greater than 10 injury sites, it is rated a 10+. In addition, three black pyramid traps baited' with a known attractant for BMSB have been deployed in the perimeter row of the sampled apple block in each grower orchard. Total numbers of adults and nymphs per trap are removed and counted weekly. Collaborators lin PA, NU, and VA also have agreed to conduct similar studies in commercial orchards in their respective states. Peach Injury Caused by BMSB Apple Injury Caused by BMSB

Current Results and Observations Damage,in commercial orchards affected by BMSB has reached critical levels with some growers losing entire blocks of stone fruit, and with severe injury also being detected in apples and Asian pears. The threat from BMSB in tree fruit begins in early Mayas overwintered adults enter orchards to feed on developing fruit. Fruit injury from nymphal and adult feeding can continue until harvest. This is different from native stink bugs in that injury is only inflicted by adults and generally only very early in the season on stone fruit and later in the season in apple. Early season feeding on stone fruit may not only result in dimpling and cat-facing, but also in internal injury, with areas of corky or gummy tissue found be'low the skin and extending deep into the flesh almost to the pit. Injury in apple and Asian pear results in severe corky areas beneath the skin Aggressive management against BMSB appears to reduce economic injury. However, concerns regarding IPM programs and resistance management must be carefully considered. Even small populations of BMSB can cause serious economic,injury if left unchecked. The current monitoring system is inadequate and requires improvement to allow for reliable season-long captures of adults. Questions? Please contact Dr. Tracy Leskey, (304)-725-3451x329, lracy.leskey@ars.usda.gov;

Current Commercial Orchard Results (8 20 2010) Perimeter Orchard Sample Interior Orchard Sample Mean Captures Overwintering BMSB Management Level Per Trap / Week %Fruit # Feeding Sites %Fruit # Feeding Sites Fruit Orchard Population Size Targeting BMSB. Nymph AdulL Injury jseverity) _ Injury (Severity) Apple WV 1 Large Moderate 1093.3 5.7 81.0 3.2 61.0 3.2 WV2 Large Aggressive 1.0 6.0 29.0 1.6 6.0 1.5 WV3 Large Light 1007.7 27.0 99.0 6.9 88.0 3.9 MD1 Moderate Moderate 129.3 3.0 70.0 3.4 29.0 2.6 MD2 Small-Moderate Moderate 7.3 0.0 70.0 3.5 46.0 3.3 MD3 Small Light 5.3 0.3 24.0 1.8 20.0 2.0 Regional Average 374.0 7.0 62.1 3.4 41.7 2.8 Peach WV1 Large Moderate 16.0 1.6 13.0 1.5 WV2 Large Aggressive 58.0 2.5 18.0 1.7 WV3 Large Light 47.0 2.3 10.0 2.0 MD 1 Moderate Moderate 74.0 3.6 MD2 Small-Moderate Moderate 92.0 5.1 85.0 4.7 MD3 Small Light 24.0 2.1 15.0 1.4 Regional Average 51.8 2.9 28.2 1.9

Apparent Biology and Phenology of Brown Marmorated Stink Bugs in Tree Fruit Orchards lin the Mid Atlantic USDA Tracy C. Leskey, Insect Behavior and Ecology Laboratory USDA-ARS Appalachian Fruit Research Station Kearneysville, WV 25430 USA Brown Marmorated Stink Bug Life Stages,, "', 3,d 4th Egg Mass 1 5 ' Instar Instar Nymphs I Nymphs Adult Male Adult Female Apparent Seasonal Phenology Overwintered adults become active, enter orchards, and begin feeding a'nd mating. Summer generation adults emerge. Feeding and mating occur. Second generation adults emerge and feed prior to overwintering Overwintering Adults Outside Orchard Overwintered Adults Present In Orchard Summer Generation Adults Present Adults Leave Orchard to Overwinter Nymphs Present and Feeding J F M A Egg Masses Present M, J J A S 0 N 0 Risk iperlod For Adult A~tiVi~ Risk Period For Nymphal Activity I I Observations and Tentative Conclusions There appears to be two distinct generations per year, and three primary periods of adult risk. However, there are periods when activity likely overlaps between generations. Unlike native stink bugs, adult brown marmorated stink bug can easily reproduce within tree fruit orchards. Unlike native stink bugs, brown marmorated stink bug nymphs will feed on and damage fruit. Nymphal activity within the orchard can occur season-long if proper control measures are not put in place. Biology and seasonal pheno l'ogy of brown marmorated stink bug must be closely studied and thoroughly documented. Photos co urtesy of Wilbur Hershberger and Ralph Sco rza

Toward Development of Effective Monitoring Traps and 'Attract and Kill' Strategies for Brown Marmorated Stink Bug USDA Tracy C. leskey, Insect Behavior and Ecology laboratory USDA ARS Appalachian Fruit Research Station Kearneysville, WV 25430 USA INTRODUCTION Due to the introduction of and subsequent increases in populations of brown marmorated stink bug (BMSB), fruit growers have suffered serious economic injury. In 2009, severe injury to peach, apple, and Asian pear due to large BMSB populations was commonly detected in the mid-atlantic forcing growers to apply late-season pyrethroid insecticides. In 2010, severe early-season injury to stone fruit was detected, as was increasing injury to apple. BMSB has the potential,to dismantle IPM strategies put in place over the past several decades. As the threat posed by BMSB to U.S. agriculture continues to increase, there is no established detection method, treatment threshold, or control strategy for BMSB in any cropping system including tree fruit. In order to effectively monitor a~d manage BMSB, it is imperative that insecticide treatments be triggered by tools designed to detect increases in BMSB abundance or activity. Current Experiments and Results VISUAL STIMULI (TRAP COLOR) AND OLFACTORY STIMULI (LURES) We found in late 2009 (9 October - 16 November) that BMSB adults were captured in significantly greater numbers in ground-deployed black pyramid traps baited with lures containing 45 mg of methyl 2,4,6 decatrienoate compared with all other baited and un baited traps. This was surprising because native species such as Euschistus servus (Say), the brown stink bug, have been captured in significantly greater numbers in foliar-mimicking yellow pyramid traps. In late July 2010, we began to quantify responses of BMSB adults and nymphs to baited and unbaited traps representing a range of visual stimuli. These traps were constructed of white Sintra (partially extruded PVC) sheets and painted in the following colors: black, green, yellow, or white. Another set of traps was constructed of clear polycarbonate. Traps were baited with 50 mg of methyl 2,4,6-decatrienoate or left unbaited, and lures are replaced every 4 weeks. The number of nymphs and adults are counted twice weekly. To date, we have found that: 1) nymphs respond season-long to the lures, but increased response appears in late August; 2) adults appear to only respond to the lure beginning I'ate in August. Black Green Yellow Whrt. Clear.".BlACI< Trunk Foliar Foliar No No Mimic Stimulus Stimulus Stimulus Stimulus BAJrEll....OREEN O v.tl1te "" o CLEAR 300 250 200 150 '00 50 2010 ( Current) Total Captures 2010 (Current) 2010 ( Current) Nymphs AduJrs 8000 -.-Pfymph,8aU.d 1000 Nymph. unbaued -+-AduUII Bairld 5000 4000 1800 1800 1400 1200 Black Green c retlow a White JOO >SO 200 Btack.Green looo 150 '000 100 50 Sample Dale Observations and Future Directions BMSB nymphs likely respond to lures of methyl 2,4,6-decatrienoate season-long and over long distances, but adults only respond later in the season. An olfactory stimulus attractive to BMSB season-long is critical in terms of developing effective monitoring tools. Because both adults and nymphs do aggregate within the vicinity of methyl 2,4,6-decatrienoate lures, this behavioral response could lead to development of a late-season "attract and kill" strategy. Odor collection from adults aggregating and mating at a light source. We are now attempting to determine ifa pheromone is being produced by adults.