Heike Liesebach

Dr. Heike Liesebach

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Research Focus & Metrics

Academic Career Length

19Years (2008-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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18 November 2009 in Tree Genetics & Genomes
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Journal Article
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HLHeike Liesebach
Heike Liesebach
VSVolker Schneck
Volker Schneck
EEElke Ewald
Elke Ewald

27 September 2020 in Plants
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Journal Article
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MMMalte Mader
Malte Mader
HSHilke Schroeder
Hilke Schroeder
TSThomas Schott
Thomas Schott
KSKatrin Schöning-Stierand
Katrin Schöning-Stierand
AMAna Paula Leite Montalvão
Ana Paula Leite Montalvão
BKBirgit Kersten
Birgit Kersten
European beech, Fagus sylvatica L., is one of the most important and widespread deciduous tree species in Central Europe and is widely managed for its hard wood. The complete DNA sequence of the mitochondrial genome of Fagus sylvatica L. was assembled and annotated based on Illumina MiSeq reads and validated using long reads from nanopore MinION sequencing. The genome assembled into a single DNA sequence of 504,715 bp in length containing 58 genes with predicted function, including 35 protein-coding, 20 tRNA and three rRNA genes. Additionally, 23 putative protein-coding genes were predicted supported by RNA-Seq data. Aiming at the development of taxon-specific mitochondrial genetic markers, the tool SNPtax was developed and applied to select genic SNPs potentially specific for different taxa within the Fagales. Further validation of a small SNP set resulted in the development of four CAPS markers specific for Fagus, Fagaceae, or Fagales, respectively, when considering over 100 individuals from a total of 69 species of deciduous trees and conifers from up to 15 families included in the marker validation. The CAPS marker set is suitable to identify the genus Fagus in DNA samples from tree tissues or wood products, including wood composite products.

11 February 2019 in Forest Ecology and Management
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Journal Article
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JWJanine Wojacki
Janine Wojacki
PEPascal Eusemann
Pascal Eusemann
DADiana Ahnert
Diana Ahnert
BPBirte Pakull
Birte Pakull
HLHeike Liesebach
Heike Liesebach

7 October 2010 in Tree Genetics & Genomes
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Journal Article
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CJCéline Jolivet
Céline Jolivet
AHAki M. Höltken
Aki M. Höltken
HLHeike Liesebach
Heike Liesebach
WSWilfried Steiner
Wilfried Steiner
BDBernd Degen
Bernd Degen

13 November 2014 in Tree Genetics & Genomes
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Journal Article
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HLHeike Liesebach
Heike Liesebach
KUKristina Ulrich
Kristina Ulrich
DEDietrich Ewald
Dietrich Ewald

1 January 2021 in Silvae Genetica
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Journal Article
Open access
HLHeike Liesebach
Heike Liesebach
KLKatharina Liepe
Katharina Liepe
CBCornelia Bäucker
Cornelia Bäucker
New first and 1.5 generation seed orchards are to be created in Germany based on recently assembled breeding populations ofAcer pseudoplatanus,Larixsp.,Picea abies,Pinus sylvestris,Pseudotsuga menziesii, andQuercussp. To justify the high expenses in time and cost for orchard establishment and maintenance, planning should make use of consolidated knowledge and experience of both the national and international scientific community. Here, we briefly describe advances in genetic gains achieved through tree breeding, and resume population genetic aspects and design considerations to draw conclusions for clonal composition and spatial design of the new orchards.We conclude that to avoid outbreeding depression separate orchards are required for each breeding zone. The zones are species-specific and defined by ecological and climatic aspects. A minimum of 60-80 clones per orchard is recommended for native tree species with high proportions of natural regeneration in forest practice. This would allow future selective thinning based on estimated breeding values from progeny testing. It would also permit the transfer of seed orchard progenies into a naturally regenerating forest stands without the risk of a genetic bottleneck. Lower clone numbers are appropriate for non-native species and hybrids. It is important to strictly avoid inbreeding depression, achieved by using only one clone per progeny or population, from which the plus trees were selected. Further, the spatial layout should promote random mating by optimizing the neighbourhood of each clone. With all of these considerations taken into account, we expect superior quality traits and at least 10-15 % more volume from the new seed orchards.