1 Structural analyses of MAT sequences from
homothallic and heterothallic Cochliobolus species suppo
2 pha opposite-sex congenic mating; thus, both
homothallic and heterothallic sexual reproduction can ge
3 Both species are
homothallic,
and inversion of their MAT regions can be i
4 fertility compared to other heterothallic or
homothallic aspergilli and require unusually fastidious
5 All 28 isolates are
homothallic (
capable of mating-type switching) and wild
6 tagprB eliminated fruiting body formation in
homothallic conditions.
7 etes but also confirm that heterothallic and
homothallic Dothideomycete fungi can be interconverted b
8 h MAT1-1-1 and MAT1-2-1 genes as observed in
homothallic filamentous Ascomycetes.
9 inates asexual and sexual development in the
homothallic fungal species Aspergillus nidulans.
10 e occurrence and frequency of outcrossing in
homothallic fungal species in nature is an unresolved qu
11 ort detection of frequent outcrossing in the
homothallic fungus Sclerotinia sclerotiorum.
12 These results establish that
homothallic mating can occur in C. albicans, revealing t
13 icient to drive same-sex a-a cell fusion and
homothallic mating.
14 ether sexual reproduction can potentially be
homothallic or is exclusively heterothallic.
15 bodies (cleistothecia) can be formed in both
homothallic (
self) and heterothallic (outcross) conditio
16 -sterile); those not requiring a partner are
homothallic (
self-fertile).
17 Chlamydomonas monoica undergoes
homothallic sexual reproduction in response to nitrogen
18 The self-compatible (
homothallic)
sexual systems of many fungi severely limit
19 tion of heterochromatin at telomeres and the
homothallic silent mating type loci require the Sir3 pro
20 Homothallic species carry both MAT genes in a single nuc
21 Expression of a fused MAT gene from a
homothallic species confers self-fertility on a MAT-null
22 in contrast, the organization of MAT in each
homothallic species is unique.
23 udy the global pattern of transcription in a
homothallic strain of Saccharomyces cerevisiae isolated
24 Homothallic strains of Saccharomyces cerevisiae can chan
25 During
homothallic switching of the mating-type (MAT) gene in S
26 Homothallic switching of the mating-type MATa gene in Sa
27 functions of the matA mating type gene in a
homothallic system.
28 terothallic a- sexual cycle or an inbreeding/
homothallic -
unisexual mating process.
29 Remarkably,
homothallic yeast cells can switch their mating type as
30 information used in mating type switching in
homothallic yeast strains.