Quercus petraea

Common Names: durmast oak

Ethnobotanical Studies

1.

Güce district, north-eastern Turkey

Uses: stomach disorders, wounds, cancer, eczema, liver steatosis, diarrheal

DOI:: 10.1016/j.pld.2022.03.005
PubMed:: 36540712

2.

Lika-Senj County, Croatia

Uses: pig fodder

DOI:: 10.3390/plants11223133
PubMed:: 36432861

Studies

1.

Photosynthetic Response to Phosphorus Fertilization in Drought-Stressed Common Beech and Sessile Oak from Different Provenances.

Vukmirović A et al (2024).; Plants (Basel).
DOI:: 10.3390/plants13162270
PubMed:: 39204706

2.

High heat tolerance, evaporative cooling, and stomatal decoupling regulate canopy temperature and their safety margins in three European oak species.

Gauthey A et al (2024).; Glob Chang Biol.
DOI:: 10.1111/gcb.17439
PubMed:: 39092538

3.

The potential of non-native tree species to provide major ecosystem services in Austrian forests.

Konic J et al (2024).; Front Plant Sci.
DOI:: 10.3389/fpls.2024.1402601
PubMed:: 39011308

4.

Pest categorisation of Coniella castaneicola.

EFSA Panel on Plant Health (PLH) et al (2024).; EFSA J.
DOI:: 10.2903/j.efsa.2024.8890
PubMed:: 38984216

5.

A Strategy for Studying Epigenetic Diversity in Natural Populations: Proof of Concept in Poplar and Oak.

Lesur I et al (2024).; J Exp Bot.
DOI:: 10.1093/jxb/erae266
PubMed:: 38889253

6.

Can mixing Quercus robur and Quercus petraea with Pinus sylvestris compensate for productivity losses due to climate change?

Vospernik S et al (2024).; Sci Total Environ.
DOI:: 10.1016/j.scitotenv.2024.173342
PubMed:: 38848911

7.

In vivo X-ray microtomography locally affects stem radial growth with no immediate physiological impact.

Mekarni L et al (2024).; Plant Physiol.
DOI:: 10.1093/plphys/kiae285
PubMed:: 38757896

8.

Does lower water availability limit stem CO(2) efflux of oak and hornbeam coppices?

Darenova E, Knott R and Vichta T (2024).; AoB Plants.
DOI:: 10.1093/aobpla/plae023
PubMed:: 38638333

9.

Habitat Degradation Facilitates the Invasion of Neophytes: A Resurvey Study Based on Permanent Vegetation Plots in Oak Forests in Slovenia (Europe).

Kermavnar J and Kutnar L (2024).; Plants (Basel).
DOI:: 10.3390/plants13070962
PubMed:: 38611491

10.

Cryopreservation of sessile oak (Quercus petraea (Matt.) Liebl.) plumules using aluminium cryo-plates: influence of cryoprotection and drying.

Wasileńczyk U et al (2024).; Plant Methods.
DOI:: 10.1186/s13007-024-01161-y
PubMed:: 38610046

11.

Incorporating high-resolution climate, remote sensing and topographic data to map annual forest growth in central and eastern Europe.

Jevšenak J et al (2023).; Sci Total Environ.
DOI:: 10.1016/j.scitotenv.2023.169692
PubMed:: 38160816

12.

Declining Radial Growth in Major Western Carpathian Tree Species: Insights from Three Decades of Temperate Forest Monitoring.

Rybar J et al (2023).; Plants (Basel).
DOI:: 10.3390/plants12244081
PubMed:: 38140406

13.

What is the role of soil nutrients in drought responses of trees?

Rehschuh R and Ruehr NK (2024).; Tree Physiol.
DOI:: 10.1093/treephys/tpad152
PubMed:: 38113532

14.

Evaluation of the Surface Irregularities of the Cross-Section of the Wood after CO(2) Laser Cutting.

Adamčík L et al (2023).; Materials (Basel).
DOI:: 10.3390/ma16227175
PubMed:: 38005104

15.

Commodity risk assessment of Quercus petraea plants from the UK.

EFSA Panel on Plant Health (PLH) et al (2023).; EFSA J.
DOI:: 10.2903/j.efsa.2023.8313
PubMed:: 37908445

16.

Divergent role of nutrient availability in determining drought responses of sessile oak and Scots pine seedlings: evidence from 13C and 15N dual labeling.

Ou-Yang SN et al (2023).; Tree Physiol.
DOI:: 10.1093/treephys/tpad105
PubMed:: 37672222

17.

Evaluation and Comparison of Dermo-Cosmetic Activities of Three Oak Species by Targeting Antioxidant Metabolites and Skin Enzyme Inhibitors.

Immunology

Buche G et al (2023).; Metabolites.
DOI:: 10.3390/metabo13070804
PubMed:: 37512511

18.

Key triggers of adaptive genetic variability of sessile oak [Q. petraea (Matt.) Liebl.] from the Balkan refugia: outlier detection and association of SNP loci from ddRAD-seq data.

Tóth EG et al (2023).; Heredity (Edinb).
DOI:: 10.1038/s41437-023-00629-2
PubMed:: 37316726

19.

Cynipid galls on oak leaves are resilient to leaf vein disruption.

Giertych MJ, Łukowski A and Karolewski P (2023).; J Plant Res.
DOI:: 10.1007/s10265-023-01462-8
PubMed:: 37133571

20.

Restoration of Vegetation Greenness and Possible Changes in Mature Forest Communities in Two Forests Damaged by the Vaia Storm in Northern Italy.

Giupponi L et al (2023).; Plants (Basel).
DOI:: 10.3390/plants12061369
PubMed:: 36987057

21.

Influence of the use of sulfur dioxide, the distillation method, the oak wood type and the aging time on the production of brandies.

Guerrero-Chanivet M et al (2023).; Curr Res Food Sci.
DOI:: 10.1016/j.crfs.2023.100486
PubMed:: 36969564

22.

A matter of size and shape: Microclimatic changes induced by experimental gap openings in a sessile oak-hornbeam forest.

Horváth CV et al (2023).; Sci Total Environ.
DOI:: 10.1016/j.scitotenv.2023.162302
PubMed:: 36822430

23.

Repeated stand structure inventory dataset in long abandoned deciduous forest reserves in Hungary.

Szegleti Z et al (2023).; Data Brief.
DOI:: 10.1016/j.dib.2023.108929
PubMed:: 36819895

24.

New and Interesting Fungi. 5.

Crous PW et al (2022).; Fungal Syst Evol.
DOI:: 10.3114/fuse.2022.10.02
PubMed:: 36789279

25.

A Small Set of Nuclear Markers for Reliable Differentiation of the Two Closely Related Oak Species Quercus Robur and Q. Petraea.

Schroeder H and Kersten B (2023).; Plants (Basel).
DOI:: 10.3390/plants12030566
PubMed:: 36771649

26.

Oak masting drivers vary between populations depending on their climatic environments.

Fleurot E et al (2023).; Curr Biol.
DOI:: 10.1016/j.cub.2023.01.034
PubMed:: 36764300

27.

Molinia caerulea alters forest Quercus petraea seedling growth through reduced mycorrhization.

Fernandez M et al (2022).; AoB Plants.
DOI:: 10.1093/aobpla/plac043
PubMed:: 36751368

28.

Characterization of some Fagaceae kernels nutritional composition for potential use as novel food ingredients.

Socaciu MI et al (2023).; Food Chem.
DOI:: 10.1016/j.foodchem.2022.135053
PubMed:: 36527986

29.

Viscum album mother tinctures: Harvest conditions and host trees influence the plant metabolome and the glycolytic pathway of breast cancer cells.

Cancer

Melo MNO et al (2022).; Front Pharmacol.
DOI:: 10.3389/fphar.2022.1027931
PubMed:: 36386174

30.

A Study on the Influence of the Use of Sulphur Dioxide, the Distillation System and the Aging Conditions on the Final Sensory Characteristics of Brandy.

Guerrero-Chanivet M et al (2022).; Foods.
DOI:: 10.3390/foods11213540
PubMed:: 36360152

31.

Identification and Distribution of New Impact Aldehydes in Toasted Oak Wood (Quercus petraea).

Courregelongue M et al (2022).; J Agric Food Chem.
DOI:: 10.1021/acs.jafc.2c01828
PubMed:: 36069166

32.

Gene expression and genetic divergence in oak species highlight adaptive genes to soil water constraints.

Genetics

Le Provost G et al (2022).; Plant Physiol.
DOI:: 10.1093/plphys/kiac420
PubMed:: 36066428

33.

Molecular plasticity to soil water deficit differs between sessile oak (Quercus Petraea (Matt.) Liebl.) high- and low-water use efficiency genotypes.

Genetics

Le Provost G et al (2022).; Tree Physiol.
DOI:: 10.1093/treephys/tpac087
PubMed:: 35867420

34.

Root Carbon Resources Determine Survival and Growth of Young Trees Under Long Drought in Combination With Fertilization.

Yang Y et al (2022).; Front Plant Sci.
DOI:: 10.3389/fpls.2022.929855
PubMed:: 35720584

35.

Effect of Irrigation Dose on Powdery Mildew Incidence and Root Biomass of Sessile Oaks (Quercus petraea (Matt.) Liebl.).

Kasprzyk W et al (2022).; Plants (Basel).
DOI:: 10.3390/plants11091248
PubMed:: 35567249

36.

Effect of drought on root exudates from Quercus petraea and enzymatic activity of soil.

Staszel K, Lasota J and Błońska E (2022).; Sci Rep.
DOI:: 10.1038/s41598-022-11754-z
PubMed:: 35538167

37.

What Drives Caterpillar Guilds on a Tree: Enemy Pressure, Leaf or Tree Growth, Genetic Traits, or Phylogenetic Neighbourhood?

Molleman F et al (2022).; Insects.
DOI:: 10.3390/insects13040367
PubMed:: 35447809

38.

Oak Species Quercus robur L. and Quercus petraea Liebl. Identification Based on UHPLC-HRMS/MS Molecular Networks.

Buche G et al (2021).; Metabolites.
DOI:: 10.3390/metabo11100684
PubMed:: 34677399

39.

Small-scale genetic structure and mating patterns in an extensive sessile oak forest (Quercus petraea (Matt.) Liebl.).

Eusemann P and Liesebach H (2021).; Ecol Evol.
DOI:: 10.1002/ece3.7613
PubMed:: 34188852

40.

Maternal effects shape the seed mycobiome in Quercus petraea.

Genetics

Fort T et al (2021).; New Phytol.
DOI:: 10.1111/nph.17153
PubMed:: 33341934

41.

Triterpenoids from Quercus petraea: Identification in Wines and Spirits and Sensory Assessment.

Gammacurta M et al (2019).; J Nat Prod.
DOI:: 10.1021/acs.jnatprod.8b00682
PubMed:: 30689385

42.

Atmospheric pCO(2) impacts leaf structural and physiological traits in Quercus petraea seedlings.

Arab L et al (2019).; Planta.
DOI:: 10.1007/s00425-018-3016-5
PubMed:: 30259170

43.

Short-term response to waterlogging in Quercus petraea and Quercus robur: A study of the root hydraulic responses and the transcriptional pattern of aquaporins.

Rasheed-Depardieu C et al (2015).; Plant Physiol Biochem.
DOI:: 10.1016/j.plaphy.2015.10.016
PubMed:: 26519820

44.

Natural hybridisation between Quercus petraea (Matt.) Liebl. and Quercus pubescens Willd. within an Italian stand as revealed by microsatellite fingerprinting.

Salvini D et al (2009).; Plant Biol (Stuttg).
DOI:: 10.1111/j.1438-8677.2008.00158.x
PubMed:: 19689784

45.

Proanthocyanidins from Quercus petraea Bark.

Pallenbach E et al (1993).; Planta Med.
PubMed:: 17235969