Municipal green waste as substrate for the microbial production of platform chemicals

Volkmar, Marianne; Maus, Anna-Lena; Weisbrodt, Martin; Bohlender, Jonathan; Langsdorf, Alexander; Holtmann, Dirk; Ulber, Roland

doi:10.1186/s40643-023-00663-2

Bioresources and Bioprocessing

Table 3 Overview of publications using different lignocellulosic waste fractions as feedstock for the microbial production of various products

From: Municipal green waste as substrate for the microbial production of platform chemicals

Substrate	Product	Organism	References
Press juice from a mixture of Festulolium and perennial ryegrass	1.01 g_{algal biomass} L⁻¹ with 41% protein content	Co-cultivation of microalgae Chlorella sorokiniana and Acutodesmus obliquus	Schoeters et el. 2023
Extracted juice from mixed grass clippings	2 mg_α-humulene L⁻¹	Cupriavidus necator	Langsdorf et al. 2022
Press juice of Lolium perenne	22.5 g_ethanol L⁻¹, 7.89 mg_squalene·g_{dry mass}⁻¹	S. cerevisiae YUG37-ERG1	Hull et al. 2014
Cashew apple juice	38.6 g_ethanol L⁻¹ 0.47 g_ethanol g_sugar⁻¹	S. cerevisiae	Pacheco et al. 2010
Simulated corn stover hydrolysate	53.4 g_ethanol L⁻¹ 0.498 g_ethanol g_{total sugars}⁻¹	Engineered S. cerevisiae strain	Wang et al. 2022
100% press juice from mixed grass cuttings without additional components	9.4 g_ethanol L⁻¹ 0.61 ± 0.03 g_ethanol g_sugar⁻¹	S. cerevisiae	This work
Unsterile press juice of Miscanthus x giganteus (MxG) with the addition of saccharolytic enzymes	11.91 g_lactic acid L⁻¹, 0.29 g_ethanol L⁻¹ ethanol 0.63 to 1.38 g_acetuc acid L⁻¹	Heterolactic co-culture of Lactobacillus plantarum and Lactobacillus brevis	Boakye- Boaten et al. 2016
Press juice of grass-clover mixtures	22 g_lactic acid L⁻¹	L. salivarius BC 1001	Santamaria‐ Fernandez et al. 2019
Hydrothermally pretreated sugarcane bagasse	52.4 g_lactic acid L⁻¹ 0.66 g_lactic acid g_sugar⁻¹	B. coagulans under non-sterile conditions	Cox et al. 2023
Chemically and enzymatically pretreated P. australis reed stems	28.3 g_lactic acid L⁻¹	B. coagulans	2020
100% press juice from mixed grass cuttings without supplements	16.93 g_lactic acid L⁻¹ 1.36 ± 0.04 g_lactic acid g_sugar⁻¹	Lactobacillus delbrueckii subsp. lactis	This work
Beech wood xylan	0.08 g_itaconate L⁻¹	U. maydis MB215P_omaxyn11A	Schroedter et al. 2016
Cellobiose	5.2 g_itaconate L⁻¹	U. maydis MB215_omabgl1	Geiser et al. 2016
Hydrolyzed hemicellulose fraction from beech wood	0.36 g_{itaconic acid} L⁻¹	U. maydis MB215	Klement et al. 2012
Hydrolyzed hemicellulose fraction from beech wood with added glucose	8.5 g_{itaconic acid} L⁻¹	U. maydis MB215	Klement et al. 2012
Brewer’s spent grain, hydrothermally pretreated and enzymatically hydrolyzed	6 g_{itaconic acid} L⁻¹ 0.38 g_{itaconic acid} g_sugar⁻¹	U. maydis MB215 ΔCyp3 P_etefRia1	Weiermüller et al. 2021
Mineral salt medium + 70% (v/v) press juice of mixed grass cuttings	19.18 g_{itaconic acid} L⁻¹ 0.51 g_{itaconic acid} g_glucose⁻¹	U. maydis MB215 ΔCyp3 P_etefRia1	This work
Mineral salt medium with 40% (v/v) enzymatic hydrolysate of mixed wood chips after organosolv pretreatment	17.2 g_{itaconic acid} L⁻¹ 0.40g_{itaconic acid} g_glucose⁻¹	U. maydis MB215 ΔCyp3 P_etefRia1	This work
Enzymatic hydrolysate of alkaline pretreated coffee silverskin	3.2 g_ABE·L⁻¹ 0.1 g_ABE g_sugar⁻¹	C. acetobutylicum	Niglio et al. 2019
Detoxified wood hydrolysate and alfalfa juice with buffering agents, vitamins and minerals	0.17 g_solvents g_{total sugars}⁻¹	C. acetobutylicum	Mechmech et al. 2016
Detoxified pine wood hydrolysates	5.7 g_butanol L⁻¹	C. acetobutylicum	Maddox and Murray 1983
Mineral salt medium with 30% (v/v) enzymatic hydrolysate of mixed wood chips after organosolv pretreatment	15.5 g_ABE L⁻¹ 0.31 ± 0.01 g_ABE g_glucose⁻¹	C. acetobutylicum	This work

Back to article page