Michael Lienemann
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Explore the profile of Michael Lienemann including associated specialties, affiliations and a list of published articles.
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Articles
21
Citations
164
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Recent Articles
1.
Li F, Lienemann M
FEBS J
. 2025 Mar;
PMID: 40028997
Molybdenum-dependent formate dehydrogenases (Mo-FDHs) reversibly catalyze the interconversion of CO and formate, and therefore may be utilized for the development of innovative energy storage and CO utilization concepts. Mo-FDHs contain...
2.
Li F, Scheller S, Lienemann M
Appl Environ Microbiol
. 2024 Aug;
90(9):e0147224.
PMID: 39194220
Enzyme engineering is a powerful tool for improving or altering the properties of biocatalysts for industrial, research, and therapeutic applications. Fast and accurate screening of variant libraries is often the...
3.
Nolle F, Starke L, Griffo A, Lienemann M, Jacobs K, Seemann R, et al.
Langmuir
. 2023 Sep;
39(39):13790-13800.
PMID: 37726241
One of the most important properties of membranes is their permeability to water and other small molecules. A targeted change in permeability allows the passage of molecules to be controlled....
4.
Salusjarvi L, Ojala L, Peddinti G, Lienemann M, Jouhten P, Pitkanen J, et al.
Front Bioeng Biotechnol
. 2022 Oct;
10:989481.
PMID: 36281430
Hydrogen oxidizing autotrophic bacteria are promising hosts for conversion of CO into chemicals. In this work, we engineered the metabolically versatile lithoautotrophic bacterium strain DSM 43205 for synthesis of polymer...
5.
Lienemann M
Comput Struct Biotechnol J
. 2021 Jan;
19:206-213.
PMID: 33425252
Recent advances in enzymatic electrosynthesis of desired chemicals in biological-inorganic hybrid systems has generated interest because it can use renewable energy inputs and employs highly specific catalysts that are active...
6.
Nappa M, Lienemann M, Tossi C, Blomberg P, Jantti J, Tittonen I, et al.
ACS Omega
. 2021 Jan;
5(51):33242-33252.
PMID: 33403286
This study evaluates the techno-economic feasibility of five solar-powered concepts for the production of autotrophic microorganisms for food and feed production; the main focus is on three concepts based on...
7.
Hahl H, Griffo A, Safaridehkohneh N, Heppe J, Backes S, Lienemann M, et al.
Langmuir
. 2019 Jul;
35(28):9202-9212.
PMID: 31268722
Class II hydrophobins are amphiphilic proteins produced by filamentous fungi. One of their typical features is the tendency to accumulate at the interface between an aqueous phase and a hydrophobic...
8.
Givirovskiy G, Ruuskanen V, Ojala L, Lienemann M, Kokkonen P, Ahola J
Heliyon
. 2019 Jun;
5(5):e01690.
PMID: 31193244
Hydrogen-oxidizing bacteria (HOB) have been shown to be promising micro-organisms for the reduction of carbon dioxide to a wide range of value-added products in bioelectrochemical systems with in situ water...
9.
Lienemann M, TerAvest M, Pitkanen J, Stuns I, Penttila M, Ajo-Franklin C, et al.
Microb Biotechnol
. 2018 Oct;
11(6):1184-1194.
PMID: 30296001
Biosensors detect signals using biological sensing components such as redox enzymes and biological cells. Although cellular versatility can be beneficial for different applications, limited stability and efficiency in signal transduction...
10.
Hahl H, Vargas J, Jung M, Griffo A, Laaksonen P, Lienemann M, et al.
Langmuir
. 2018 Jun;
34(29):8542-8549.
PMID: 29886739
Hydrophobins are a family of small-sized proteins featuring a distinct hydrophobic patch on the protein's surface, rendering them amphiphilic. This particularity allows hydrophobins to self-assemble into monolayers at any hydrophilic/hydrophobic...