ausgewählte Veröffentlichungen

• Artikel

  • Relationships between soil organic carbon fractions and their thermal stability in forest soils (Bavaria, Germany).  Geoderma Regional, Vol.35, p. e00712.  2023
  • Practical applications of thermogravimetry in soil science: Part 5. Linking the microbial soil characteristics of grassland and arable soils to thermogravimetry data.  Journal of thermal analysis and calorimetry, Vol.148(4), pp. 1599-1611.  2023
  • Effects of Organic Amendments on Enzymes Activities in a Calcareous Sandy Soil.  Eurasian soil science, Vol.54(2), pp. 271-284.  2021
  • Determination of soil properties using thermogravimetry under laboratory conditions.  European journal of soil science, Vol.71(3), pp. 415-419.  2020
  • Introducing a soil universal model method (SUMM) and its application for qualitative and quantitative determination of poly(ethylene), poly(styrene), poly(vinyl chloride) and poly(ethylene terephthalate) microplastics in a model soil.  Chemosphere (Oxford), Vol.225, pp. 810-819.  2019
  • Detectability of degradable organic matter in agricultural soils by thermogravimetry.  Journal of plant nutrition and soil science, Vol.182(5), pp. 729-740.  2019
  • Cherry growing in Germany, science and education - a field trip summary.  Ecocycles, Vol.5(2), pp. 39-43.  2019
  • Contribution of organic amendments to soil organic matter detected by thermogravimetry.  Journal of plant nutrition and soil science, Vol.181(5), pp. 664-674.  2018
  • Soil-ecological excursions to permafrost-affected areas in West Siberia for European scientists and students.  Berichte zur Polar- und Meeresforschung, Vol.716, p. 64.  2018
  • Practical applications of thermogravimetry in soil science. Part 4: Relationship between clay, organic carbon and organic matter contents.  Journal of thermal analysis and calorimetry, Vol.123(3), pp. 2441-2450.  2016
  • Practical applications of thermogravimetry in soil science Part 3: I interrelations between soil components and unifying principles of pedogenesis.  Journal of thermal analysis and calorimetry, Vol.120(1), pp. 471-480.  2015
  • Teaching soil science and ecology in West Siberia: 17years of field courses.  Environmental education research, Vol.20(6), pp. 858-876.  2014
  • Thermopile chip based calorimeter for the study of aggregated biological samples in segmented flow.  Sensors and actuators. B, Chemical, Vol.201, pp. 460-468.  2014
  • Interrelations between soil respiration and its thermal stability.  Journal of thermal analysis and calorimetry, Vol.110(1), pp. 413-419.  2012
  • Erratum to: Interrelations between soil respiration and its thermal stability.  Journal of thermal analysis and calorimetry, Vol.110(1), pp. 421-421.  2012
  • Thermal stability of soils and the detection of use-induced changes.  Mineralogical magazine, Vol.75(3), p. 1873.  2011
  • Mineralisation and structural changes during the initial phase of microbial degradation of pyrogenic plant residues in soil.  Organic geochemistry, Vol.40(3), pp. 332-342.  2009
  • Rapid screening of soil properties using thermogravimetry.  Soil Science Society of America journal, Vol.68(5), pp. 1656-1661.  2004
  • Aspects of peat conservation and water management.  Journal of plant nutrition and soil science, Vol.165(4), pp. 487-493.  2002
  • Soil hydrology and CO2 release of peat soils.  Journal of plant nutrition and soil science, Vol.165(4), pp. 494-500.  2002
  • Kinetics of the release of dissolved organic matter (DOM) from air-dried and pre-moistened soil material.  Journal of plant nutrition and soil science, Vol.163(1), pp. 1-5.  2000
  • Evaluating Drought Effects on Soil: Innovative Soil Salinity Monitoring via SAR Data, Sentinel-2 Imagery, and Machine Learning Algorithms in Kerkennah Archipelago.  Atmosphere, Vol.14(10), p. 1514. 
  • Linking soil organic matter thermal stability with contents of clay, bound water, organic carbon and nitrogen.  Geoderma, Vol.316, pp. 38-46. 
  • Linking thermogravimetric data with soil organic carbon fractions.  Geoderma, Vol.362, p. 114124. 
  • New Approach to Experimental Soil Health Definition Using Thermogravimetric Fingerprinting.  Agronomy (Basel), Vol.15(2), p. 487. 
  • Practical application of thermogravimetry in soil science: Part 2. Modeling and prediction of soil respiration using thermal mass losses.  Journal of thermal analysis and calorimetry, Vol.116(2), pp. 563-570. 
  • Towards future land-use technologies: Life-long learning experiences on excursions.  Ecocycles, Vol.5(1), pp. 62-66.