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Lynne McLandsborough

Professor

Research Areas

In general bacteria tend to accumulate at interfaces between two phases in heterogeneous systems. As long as water is available for microbial growth, microorganisms can be found foods and processing environments at solids-liquid, gas-liquid, and solid-gas interfaces.  In their natural environments, bacteria do not exist as isolated cells but grow and survive in organized communities on surfaces.  These communities are called biofilms and can be simplistically defined as bacterial growth on a solid surface.  When growing in a biofilm, bacteria are known to have different growth rate, morphology, and physiology than their planktonic counterparts and may exhibit varied physiological responses to nutrient conditions resulting in increased resistance to antimicrobials agents compared with their planktonic forms. 

Multispecies biofilms within food processing environments are a major source of L. monocytogenes in processed foods.  When growing on surfaces, this organism exhibits enhanced resistance to conventional chemical sanitizers, germicides and heat making control even more challenging.

My laboratory is interested in multiple aspects of biofilms:

  • The genetics of Listeriasp. biofilm growth.
  • The biological, physical and chemical aspects of bacterial adhesion, transfer and removal.
  • Antimicrobial delivery systems for cleaning and sanitation 

Academic Background

  • BA, Miami University 
  • MS, University of Minnesota
  • PhD, University of Minnesota
Ryu, V., M. Corradini, D. J. McClements, L. McLandsborough. 2019. Impact of ripening inhibitors on molecular transport of antimicrobial components form essential oil nanoemulsions. J. Coll. Int. Sci. 556:568-576
Hung, Y-T, L. A. McLandsborough, J. M. Goddard and L. J. Bastarrachea. 2018. Antimicrobial polymer coating with efficacy against pathogenic and spoilage microorganisms. LWT-Food Sci Tech. 97:546-554.
Ryu, V, D. J. McClements, M. G. Corradini, J. S. Yang and L. McLandsborough, 2018. Natural antimicrobial delivery systems: formation, antimicrobial activity, and mechanism of action of quillaja saponin-stablilized carvacrol nanoemulsions. Food Hydrocolloids. 82:442-450.
Chuesiang P, U. Siripatrawan, R. Sanguandeekul. L. McLandsborough. J. D. McClements. Optimization of cinnamon oil nanoemulsions using phase inversion temperature method: Impact of oil phase composition and surfactant concentration. J. Col. Interf. Sci. 154:208-216
Pearson B, Mills A, Tucker M, Gao S, McLandsborough L, He L. 2018. Rationalizing and advancing the 3-MPBA SERS sandwich assay for rapid detection of bacteria in environmental and food matrices. Food Microbiology 72:89-97.
Ryu V, McClements DJ, Corradini MG, McLandsborough L. 2018. Effect of ripening inhibitor type on formation, stability, and antimicrobial activity of thyme oil nanoemulsion. Food Chemistry 245:104-111
Landry, K. S., Sela, D. A., & McLandsborough, L. (2018). Influence of sprouting environment on the microbiota of sprouts. Journal of Food Safety. DOI: 10.1111/jfs.12380
 
Contact Info

Food Science
248 Chenoweth Laboratory
100 Holdsworth Way
Amherst, MA 01003-9292

Office: (413) 545-1016
Email: lm@foodsci.umass.edu

Web: https://www.umass.edu/foodsci/faculty/lynne-mclandsborough