Refine
Year of publication
Document Type
- Article (454)
- Conference Proceeding (23)
- Part of a Book (18)
- Patent (17)
- Book (9)
- Preprint (1)
Language
- English (522) (remove)
Has Fulltext
- no (522) (remove)
Keywords
- Heparin (3)
- Chemometrics (2)
- IR spectroscopy (2)
- NMR spectroscopy (2)
- Principal component analysis (2)
- Standardization (2)
- (R)- or (S)- gamma-valerolactone (1)
- 4-hydroxy valeric acid (1)
- Alginate beads (1)
- Analytics (1)
- Authenticity (1)
- Bioeconomy (1)
- Bioethanol (1)
- Biomass (1)
- Biorefinery (1)
- Biorefinery definitions (1)
- Bladder (1)
- Bragg peak (1)
- CRISPR/Cas9 (1)
- Chimeric liver-humanized mice (1)
- Chiralidon-R (1)
- Chiralidon-S (1)
- Crude heparin (1)
- Cyclotron production (1)
- Decentral (1)
- Dehydrogenase (1)
- Detergent protease (1)
- Deuterated solvents (1)
- Deuterium NMR (1)
- Diaphorase (1)
- Drug distribution (1)
- Drug metabolism (1)
- Enzymatic biosensor (1)
- Extracellular enzymes (1)
- Ga-68 (1)
- Growth modelling (1)
- Hypersecretion (1)
- IR (1)
- Inorganic ions (1)
- Introduction (1)
- Ions (1)
- Knockout mice (1)
- Levulinic acid (1)
- Lignocellulose feedstook (1)
- Linear discriminant analysis (1)
- Manufacturer (1)
- Marker-free mutagenesis (1)
- Mechanical (1)
- Mechanical simulation (1)
- Medical radionuclide production (1)
- Metal contaminants (1)
- Microfluidic solvent extraction (1)
- Minor chemistry (1)
- Molecular modelling (1)
- Molecular weight determination (1)
- NMR (1)
- On-site (1)
- P2G (1)
- PLS-regression (1)
- Physical chemistry (1)
- Physical chemistry basics (1)
- Physical chemistry starters (1)
- Pre-treatment (1)
- Process schemes (1)
- Quality control (1)
- Quantum chemistry (1)
- Reconstruction (1)
- Renewable resources (1)
- Simultaneous determination (1)
- Soft independent modeling of class analogy (1)
- Stenotrophomonas maltophilia (1)
- Thermodynamics as minor (1)
- Toxicology (1)
- USP (1)
- Uracil-phosphoribosyltransferase (1)
- Ureter (1)
- actuator-sensor system (1)
- aspergillus (1)
- bacterial cellulose (1)
- bi-enzyme biosensor (1)
- bioavailability (1)
- biodegradable polymers (1)
- biological dosimeter (1)
- biomethane (1)
- borehole disposal (1)
- bubble column (1)
- capacitive field-effect sensor (1)
- coculture (1)
- deficit irrigation (1)
- disposal facility (1)
- drug metabolising enzymes (1)
- drug–drug interactions (1)
- elastomers (1)
- enzyme kinetics (1)
- enzyme-logic gate (1)
- exopolysaccharides (1)
- filamentous fungi (1)
- genome engineering (1)
- geological disposal (1)
- glycine (1)
- human metabolites (1)
- hydrogel (1)
- hydrogels (1)
- light-addressable electrode (1)
- light-addressable potentiometric sensor (1)
- mechanical properties (1)
- methanation (1)
- microfluidics (1)
- micronutrients (1)
- neutrons (1)
- nuclear waste (1)
- onion (1)
- optical fibers (1)
- penicillinase (1)
- plug flow reactor (1)
- polyaspartic acid (1)
- prebiotic (1)
- proton therapy (1)
- protons (1)
- pullulan (1)
- qNMR (1)
- relative dosimetry (1)
- retention time (1)
- rubber (1)
- superabsorbent polymers (1)
- supramolecular structures (1)
- swelling properties (1)
- theory and modeling (1)
- tobacco mosaic virus (TMV) (1)
- transporters (1)
- urease (1)
- water economy (1)
- yield (1)
Institute
- Fachbereich Chemie und Biotechnologie (522) (remove)
Diffusion in simple fluids / R. J. Speedy; F. X. Prielmeier; T. Vardag; E. W. Lang; H.-D. Lüdemann
(1989)
Differentiation between Phaeocystis pouchetii (Har.) Lagerheim and Phaeocystis globosa Scherffel
(1987)
The objective of this study is the establishment of a differential scanning calorimetry (DSC) based method for online analysis of the biodegradation of polymers in complex environments. Structural changes during biodegradation, such as an increase in brittleness or crystallinity, can be detected by carefully observing characteristic changes in DSC profiles. Until now, DSC profiles have not been used to draw quantitative conclusions about biodegradation. A new method is presented for quantifying the biodegradation using DSC data, whereby the results were validated using two reference methods.
The proposed method is applied to evaluate the biodegradation of three polymeric biomaterials: polyhydroxybutyrate (PHB), cellulose acetate (CA) and Organosolv lignin. The method is suitable for the precise quantification of the biodegradability of PHB. For CA and lignin, conclusions regarding their biodegradation can be drawn with lower resolutions. The proposed method is also able to quantify the biodegradation of blends or composite materials, which differentiates it from commonly used degradation detection methods.