What is she best known for?
The fields of study she is best known for:
- Organic chemistry
- Catalysis
- Ion
Katja Heinze mostly deals with Ferrocene, Photochemistry, Stereochemistry, Polymer chemistry and Hydrogen bond.
Her Ferrocene study combines topics from a wide range of disciplines, such as Affinities and Solid-phase synthesis.
Her Photochemistry research incorporates themes from Excited state, Ligand field theory, Terpyridine and Ruthenium.
Her Polymer chemistry study integrates concerns from other disciplines, such as Hydrolysis and Nickel.
Her study on Hydrogen bond also encompasses disciplines like
- Intramolecular force, Redox and Nuclear magnetic resonance spectroscopy most often made with reference to Amide,
- Intermolecular force most often made with reference to Carboxylic acid,
- Protein secondary structure that connect with fields like Intervalence charge transfer.
Her study in Inorganic chemistry is interdisciplinary in nature, drawing from both Crystallography, Nanowire and Peroxidase.
Her most cited work include:
- V2O5 Nanowires with an Intrinsic Peroxidase‐Like Activity (432 citations)
- Main Chain Ferrocenyl Amides from 1‐Aminoferrocene‐1′‐carboxylic Acid (104 citations)
- Cooperative Transformations of Small Molecules at a Dinuclear Nickel(II) Site (97 citations)
What are the main themes of her work throughout her whole career to date?
Her main research concerns Photochemistry, Crystallography, Ferrocene, Stereochemistry and Medicinal chemistry.
Her Photochemistry research includes themes of Luminescence, Excited state, Electron paramagnetic resonance and Ruthenium.
Her biological study spans a wide range of topics, including Cobalt, Nuclear magnetic resonance spectroscopy, Molecule and Ligand.
Katja Heinze combines subjects such as Proton NMR, Amide, Organic chemistry, Carboxylic acid and Hydrogen bond with her study of Ferrocene.
Her work in Amide addresses issues such as Polymer chemistry, which are connected to fields such as Solid-phase synthesis.
Her Medicinal chemistry study combines topics in areas such as Steric effects, Coordination complex and Reactivity.
She most often published in these fields:
- Photochemistry (34.25%)
- Crystallography (23.29%)
- Ferrocene (15.07%)
What were the highlights of her more recent work (between 2017-2020)?
- Photochemistry (34.25%)
- Luminescence (10.05%)
- Excited state (11.87%)
In recent papers she was focusing on the following fields of study:
Her primary scientific interests are in Photochemistry, Luminescence, Excited state, Chromium and Redox.
The Photochemistry study combines topics in areas such as Electron paramagnetic resonance, Metal ions in aqueous solution and Photon upconversion.
Katja Heinze has included themes like Pyridine, Quantum yield, Phosphorescence and Ruthenium in her Luminescence study.
She interconnects Chemical physics, Ligand, Chromophore and Analytical chemistry in the investigation of issues within Excited state.
Her research investigates the connection with Redox and areas like Open shell which intersect with concerns in Molybdenum.
Her Crystallography research extends to Terpyridine, which is thematically connected.
Between 2017 and 2020, her most popular works were:
- Photophysics and photochemistry with Earth-abundant metals – fundamentals and concepts (39 citations)
- Understanding and exploiting long-lived near-infrared emission of a molecular ruby (39 citations)
- Deuterated Molecular Ruby with Record Luminescence Quantum Yield. (27 citations)
In her most recent research, the most cited papers focused on:
- Organic chemistry
- Catalysis
- Ion
Katja Heinze mainly investigates Excited state, Luminescence, Photochemistry, Redox and Ligand.
Her Luminescence research includes elements of Chromium and Quantum yield.
Her research combines Metal ions in aqueous solution and Photochemistry.
Her research in Redox intersects with topics in Combinatorial chemistry, Halide, Catalysis and Benzamide.
Her work is dedicated to discovering how Ligand, Chromophore are connected with Electron transfer and Azulene and other disciplines.
Her study looks at the relationship between Terpyridine and fields such as Molecular dynamics, as well as how they intersect with chemical problems.
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