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Seeking improved nutritional properties for the potato: Ethionine-resistant protoclones

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Abstract

Russet Burbank leaf protoplasts were cultured in Shepard’s (1980) cell layer (CL) medium containing the amino acid analog ethionine (ETN), at concentrations ranging from 0 to 6 µM. Repeated counts of viable cells and dividing colonies during the 21 day incubation period permitted calculation of plating efficiencies for each ETN concentration. Plating efficiency was observed to decrease when ETN concentration in CL exceeded 3 µM. Calli which developed were placed on Shepard’s (1980) C media containing ETN concentrations up to 200 µM; however, few calli survived concentrations above 100 µM. Regenerated plants were grown to maturity and resulting tubers were analyzed for free methionine content. Selected protoclones produced tubers with free methionine content as much as 2.66 times that of the Russet Burbank control.

Resumen

Protoplastos de hojas de Russet Burbank se cultivaron en capa celular de Shepard (1980), medio conteniendo al aminoácido análogo etionina (ETN) en concentraciones que oscilaban entre 0 y 6 M. Contajes repetitivos de células viables y colonias en división durante los 21 días de la incubación de ETN. Se observó que el rendimiento de las plantas disminuyó cuando las concentraciones de ETN excedían los 3M.

Los callos que desarrollaron fueron colocados en medio C Shepard conteniendo concentraciones hasta 200 M de ETN; sin embargo, algunos callos sobrevivieron a concentraciones por encima de los 100M.

Las plantas regneradas se dejaron crecer hasta la madurez y los tubérculos resultantes fueron analizados para su contenido de metionina. Los protoclones seleccionados produjeron tubérculos con un contenido de metionina libre de más de 2,66 que el control de Russet Burbank.

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Correspondence to Alan R. Langille.

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Maine Agricultural and Forest. Experiment Station Publication No. 2241.

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Langille, A.R., Lan, Y. & Gustine, D.L. Seeking improved nutritional properties for the potato: Ethionine-resistant protoclones. Am. J. Pot Res 75, 201–205 (1998). https://doi.org/10.1007/BF02854213

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