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THE PLANT CELL, Vol 4, Issue 3 333-347, Copyright © 1992 by American Society of Plant Biologists
Effects of Ionizing Radiation on a Plant Genome: Analysis of Two Arabidopsis transparent testa Mutations
B. W. Shirley, S. Hanley and H. M. Goodman
Department of Genetics, Harvard Medical School, and Department of Molecular Biology, Massachusetts General Hospital, Boston, Massachusetts 02114
Ionizing radiation is known to cause chromosomal alterations such as
inversions and deletions and has been used extensively for inducing
mutations. In Arabidopsis, two methods for the isolation of genes
identified on the basis of mutant phenotypes[mdash]genomic subtraction and
chromosome walking[mdash]either rely on or are greatly facilitated by the
availability of these types of mutations. This article gives a detailed
characterization of ionizing radiation-induced mutations in plants. The
Arabidopsis genes encoding chalcone flavanone isomerase (CHI) and
dihydroflavonol 4-reductase (DFR) were cloned and found to correspond to
two transparent testa loci. A CHI allele, generated by fast-neutron
irradiation, consisted of an inversion within the gene. A 272-bp fragment
from 38 centimorgans away on the same chromosome was transferred to one end
of this inversion. A DFR allele, induced by x-irradiation, contained two
deletions and an inversion of the 2.8-centimorgan intervening region.
Sequence analysis of the break points in both mutants indicate that repair
of radiation-induced damage involves mechanisms similar or identical to
those that mediate the integration of foreign sequences into the genome.
The chromosome rearrangements found in these mutants have important
implications for the use of ionizing radiation-induced alleles in classical
and molecular genetic experiments in plants.
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