Barbara B. Shew

Summary of tillage practices in peanut in the Virginia-Carolina region of the United States

CROP FORAGE & TURFGRASS MANAGEMENT, 9(1).

A Risk Tool and Production Log Created using Microsoft Excel to Manage Pests in Peanut (Arachis hypogaea)

JOURNAL OF INTEGRATED PEST MANAGEMENT, 13(1).

Examples of Risk Tools for Pests in Peanut (Arachis hypogaea) Developed for Five Countries Using Microsoft Excel

JOURNAL OF INTEGRATED PEST MANAGEMENT, 13(1).

Bio-control of Stem Rot in Jerusalem Artichoke (Helianthus tuberosus L.) in Field Conditions

PLANT PATHOLOGY JOURNAL, 37(5), 428–436.

Evaluating Fungicide Selections to Manage Pythium Root Rot on Poinsettia Cultivars with Varying Levels of Partial Resistance

PLANT DISEASE, 105(6), 1640–1647.

Pythium spp. Associated with Root Rot and Stunting of Winter Crops in North Carolina

PLANT DISEASE, 105(11), 3433–3442.

Pythium spp. Associated with Root Rot and Stunting of Winter Wheat in North Carolina

PLANT DISEASE, 105(4), 986–996.

Identifying interest, risks, and impressions of organic peanut production: A survey of conventional farmers in the Virginia-Carolina region

CROP FORAGE & TURFGRASS MANAGEMENT, 6(1).

Peanut Yield Loss in the Presence of Defoliation Caused by Late or Early Leaf Spot

PLANT DISEASE, 104(5), 1390–1399.

Peanut and soybean response to cropping systems including corn, cotton, and grain sorghum

CROP FORAGE & TURFGRASS MANAGEMENT, 6(1).

Risk to sustainability of pest management tools in peanut

AGRICULTURAL & ENVIRONMENTAL LETTERS, Vol. 5.

Survey of Practices by Growers in the Virginia-Carolina Region Regarding Digging and Harvesting Peanut

CROP FORAGE & TURFGRASS MANAGEMENT, 5(1).

Association of seedling and adult plant resistance to Sclerotium rolfsii in Jerusalem artichoke (Helianthus tuberosus L.) under field conditions

EUROPEAN JOURNAL OF PLANT PATHOLOGY, 151(1), 251–255.

Examples of Differences in Red Edge Reflectance and Normalized Difference Vegetative Index caused by Stress in Peanut

Crop, Forage & Turfgrass Management, 4(1), 1–2.

Fitness Attributes of Pythium aphanidermatum with Dual Resistance to Mefenoxam and Fenamidone

Plant Disease, 102(10), 1938–1943.

Summary of Variables Associated with Application of Plant Protection Products in Peanut

Jordan, D. L., Hare, A. T., Roberson, G. T., Shew, B. B., Brandenburg, R. L., Anco, D., … Taylor, S. (2018, October 18). CROP FORAGE & TURFGRASS MANAGEMENT, Vol. 4.

First report of pythium root rot of stevia caused by Pythium myriotylum, P. irregulare, and P. aplzanidermatum in North Carolina

Plant Disease, 101(7), 1331–1332.

Genotypic diversity of Jerusalem artichoke for resistance to stem rot caused by Sclerotium rolfsii under field conditions

EUPHYTICA, 213(8).

Impact of intercropping on epidemics of groundnut leaf spots: defining constraints and opportunities through a 7-year field study

PLANT PATHOLOGY, 65(4), 601–611.

Inoculation with Sclerotium rolfsii, cause of stem rot in Jerusalem artichoke, under field conditions

EUROPEAN JOURNAL OF PLANT PATHOLOGY, 146(1), 47–58.

Mefenoxam Sensitivity, Aggressiveness, and Identification of Pythium Species Causing Root Rot on Floriculture Crops in North Carolina

PLANT DISEASE, 99(11), 1550–1558.

Registration of ‘Sugg’ peanut

J. Plant Reg., 9(1), 44–52.

Peanut Response to Planting Date, Tillage, and Cultivar in North Carolina

AGRONOMY JOURNAL, 106(2), 486–490.

Interactions of agrochemicals applied to peanut; part 1: Effects on herbicides

Crop Protection, 41, 134–142.

Interactions of agrochemicals applied to peanut; part 2: Effects on fungicides

Crop Protection, 41, 143–149.

Interactions of agrochemicals applied to peanut; part 3: Effects on insecticides and prohexadione calcium

Crop Protection, 41, 150–157.

Influence of Cover Crops on Weed Management in Strip Tillage Peanut

WEED TECHNOLOGY, 25(4), 568–573.

Sclerotinia Blight Resistance in Virginia-Type Peanut Transformed with a Barley Oxalate Oxidase Gene

PHYTOPATHOLOGY, 101(7), 786–793.

Evaluation of Microbial, Botanical, and Organic Treatments for Control of Peanut Seedling Diseases

PLANT DISEASE, 94(4), 445–454.

Registration of ‘Bailey’ peanut

J. Plant Reg., 5(1), 27–39.

Crop Response to Rotation and Tillage in Peanut-Based Cropping Systems

AGRONOMY JOURNAL, 100(6), 1580–1586.

Evaluation of application timing and efficacy of the fungicides fluazinam. and boscalid for control of Sclerotinia blight of peanut

CROP PROTECTION, 27(3-5), 823–833.

A site-specific, weather-based disease regression model for Sclerotinia blight of peanut

PLANT DISEASE, 91(11), 1436–1444.

Analysis of factors that influence the epidemiology of Sclerotinia minor on peanut

PLANT DISEASE, 90(11), 1425–1432.

Registration of N96076L peanut germplasm line

CROP SCIENCE, 46(5), 2329–2330.

First report of Sclerotinia minor on Allium vineale in North Carolina.

Hollowell, J. E., & Shew, B. B. (2005, August). PLANT DISEASE, Vol. 89, pp. 908–908.

First report of Sclerotinia minor on Sida spinosa in North Carolina

Hollowell, J. E., & Shew, B. B. (2005, October). PLANT DISEASE, Vol. 89, pp. 1128–1128.

First report of Sclerotium rolfsii on common chickweed in North Carolina.

Hollowell, J. E., & Shew, B. B. (2004, April). PLANT DISEASE, Vol. 88, pp. 426–426.

Evaluating isolate aggressiveness and host resistance from peanut leaflet inoculations with Sclerotinia minor

PLANT DISEASE, 87(4), 402–406.

Weed species as hosts of Sclerotinia minor in peanut fields

PLANT DISEASE, 87(2), 197–199.

Registration of five leaf spot-resistant peanut germplasm lines

CROP SCIENCE, 42(1), 314–316.

Registration of two root-knot nematode-resistant peanut germplasm lines

Crop Science, 42(1), 312–313.

Resistance of peanut to sclerotinia blight and the effect of acibenzolar-S-methyl and fluazinam on disease incidence

PLANT DISEASE, 86(12), 1315–1317.

Wheat straw mulch and its impacts on three soilborne pathogens of peanut in microplots

PLANT DISEASE, 85(6), 661–667.

Yellow nutsedge (Cyperus esculentus L.) as a host of Sclerotinia minor

Plant Disease, 85(5), 562.

Occurrence of pod rot pathogens in peanuts grown in North Carolina

Plant Disease, 82(12), 1345–1349.

Toward sustainable peanut production: Progress in breeding for resistance to foliar and soilborne pathogens of peanut

Plant Disease, 79(12), 1259.