The Experts below are selected from a list of 63222 Experts worldwide ranked by ideXlab platform
Jaciane Lutz Ienczak - One of the best experts on this subject based on the ideXlab platform.
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Bioethanol production by recycled Scheffersomyces stipitis in sequential batch fermentations with high cell density using xylose and glucose mixture.
Bioresource technology, 2016Co-Authors: Samantha Christine Santos, Suzane R Dionísio, Amanda Silva De Sousa, Robson Tramontina, Roberto Ruller, Fabio M. Squina, Carlos Eduardo Vaz Rossell, Aline Carvalho Da Costa, Jaciane Lutz IenczakAbstract:Here, it is shown three-step investigative procedures aiming to improve pentose-rich fermentations performance, involving a simple system for elevated mass production by Scheffersomyces stipitis (I), cellular recycle batch fermentations (CRBFs) at high cell density using two temperature strategies (fixed at 30°C; decreasing from 30 to 26°C) (II), and a short-term Adaptation Action seeking to acclimatize the microorganism in xylose rich-media (III). Cellular propagation provided 0.52gdrycellweightgRS(-1), resulting in an expressive value of 45.9gdrycellweightL(-1). The yeast robustness in CRBF was proven by effective ethanol production, reaching high xylose consumption (81%) and EtOH productivity (1.53gL(-1)h(-1)). Regarding the short-term Adaptation, S. stipitis strengthened its robustness, as shown by a 6-fold increase in xylose reductase (XR) activity. The short fermentation time (20h for each batch) and the fermentation kinetics for ethanol production from xylose are quite promising.
Samantha Christine Santos - One of the best experts on this subject based on the ideXlab platform.
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Bioethanol production by recycled Scheffersomyces stipitis in sequential batch fermentations with high cell density using xylose and glucose mixture.
Bioresource technology, 2016Co-Authors: Samantha Christine Santos, Suzane R Dionísio, Amanda Silva De Sousa, Robson Tramontina, Roberto Ruller, Fabio M. Squina, Carlos Eduardo Vaz Rossell, Aline Carvalho Da Costa, Jaciane Lutz IenczakAbstract:Here, it is shown three-step investigative procedures aiming to improve pentose-rich fermentations performance, involving a simple system for elevated mass production by Scheffersomyces stipitis (I), cellular recycle batch fermentations (CRBFs) at high cell density using two temperature strategies (fixed at 30°C; decreasing from 30 to 26°C) (II), and a short-term Adaptation Action seeking to acclimatize the microorganism in xylose rich-media (III). Cellular propagation provided 0.52gdrycellweightgRS(-1), resulting in an expressive value of 45.9gdrycellweightL(-1). The yeast robustness in CRBF was proven by effective ethanol production, reaching high xylose consumption (81%) and EtOH productivity (1.53gL(-1)h(-1)). Regarding the short-term Adaptation, S. stipitis strengthened its robustness, as shown by a 6-fold increase in xylose reductase (XR) activity. The short fermentation time (20h for each batch) and the fermentation kinetics for ethanol production from xylose are quite promising.
Aline Carvalho Da Costa - One of the best experts on this subject based on the ideXlab platform.
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Bioethanol production by recycled Scheffersomyces stipitis in sequential batch fermentations with high cell density using xylose and glucose mixture
'Elsevier BV', 2020Co-Authors: Santos, Samantha Christine, Amanda Silva De Sousa, Aline Carvalho Da Costa, Dionísio, Suzane Rodrigues, Tramontina Robson, Ruller Roberto, Squina, Fabio Márcio, Rossell, Carlos Eduardo Vaz, Lutzienczak JacianeAbstract:Here, it is shown three-step investigative procedures aiming to improve pentose-rich fermentations performance, involving a simple system for elevated mass production by Scheffersomyces stipitis (I), cellular recycle batch fermentations (CRBFs) at high cell density using two temperature strategies (fixed at 30 °C; decreasing from 30 to 26 °C) (II), and a short-term Adaptation Action seeking to acclimatize the microorganism in xylose rich-media (III). Cellular propagation provided 0.52 gdry cell weight gRS−1, resulting in an expressive value of 45.9 gdry cell weight L−1. The yeast robustness in CRBF was proven by effective ethanol production, reaching high xylose consumption (81%) and EtOH productivity (1.53 g L−1 h−1). Regarding the short-term Adaptation, S. stipitis strengthened its robustness, as shown by a 6-fold increase in xylose reductase (XR) activity. The short fermentation time (20 h for each batch) and the fermentation kinetics for ethanol production from xylose are quite promising219319329FUNDAÇÃO DE AMPARO À PESQUISA DO ESTADO DE SÃO PAULO - FAPESP2008/57873-8; 2014/01135-
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Bioethanol production by recycled Scheffersomyces stipitis in sequential batch fermentations with high cell density using xylose and glucose mixture.
Bioresource technology, 2016Co-Authors: Samantha Christine Santos, Suzane R Dionísio, Amanda Silva De Sousa, Robson Tramontina, Roberto Ruller, Fabio M. Squina, Carlos Eduardo Vaz Rossell, Aline Carvalho Da Costa, Jaciane Lutz IenczakAbstract:Here, it is shown three-step investigative procedures aiming to improve pentose-rich fermentations performance, involving a simple system for elevated mass production by Scheffersomyces stipitis (I), cellular recycle batch fermentations (CRBFs) at high cell density using two temperature strategies (fixed at 30°C; decreasing from 30 to 26°C) (II), and a short-term Adaptation Action seeking to acclimatize the microorganism in xylose rich-media (III). Cellular propagation provided 0.52gdrycellweightgRS(-1), resulting in an expressive value of 45.9gdrycellweightL(-1). The yeast robustness in CRBF was proven by effective ethanol production, reaching high xylose consumption (81%) and EtOH productivity (1.53gL(-1)h(-1)). Regarding the short-term Adaptation, S. stipitis strengthened its robustness, as shown by a 6-fold increase in xylose reductase (XR) activity. The short fermentation time (20h for each batch) and the fermentation kinetics for ethanol production from xylose are quite promising.
Amanda Silva De Sousa - One of the best experts on this subject based on the ideXlab platform.
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Bioethanol production by recycled Scheffersomyces stipitis in sequential batch fermentations with high cell density using xylose and glucose mixture
'Elsevier BV', 2020Co-Authors: Santos, Samantha Christine, Amanda Silva De Sousa, Aline Carvalho Da Costa, Dionísio, Suzane Rodrigues, Tramontina Robson, Ruller Roberto, Squina, Fabio Márcio, Rossell, Carlos Eduardo Vaz, Lutzienczak JacianeAbstract:Here, it is shown three-step investigative procedures aiming to improve pentose-rich fermentations performance, involving a simple system for elevated mass production by Scheffersomyces stipitis (I), cellular recycle batch fermentations (CRBFs) at high cell density using two temperature strategies (fixed at 30 °C; decreasing from 30 to 26 °C) (II), and a short-term Adaptation Action seeking to acclimatize the microorganism in xylose rich-media (III). Cellular propagation provided 0.52 gdry cell weight gRS−1, resulting in an expressive value of 45.9 gdry cell weight L−1. The yeast robustness in CRBF was proven by effective ethanol production, reaching high xylose consumption (81%) and EtOH productivity (1.53 g L−1 h−1). Regarding the short-term Adaptation, S. stipitis strengthened its robustness, as shown by a 6-fold increase in xylose reductase (XR) activity. The short fermentation time (20 h for each batch) and the fermentation kinetics for ethanol production from xylose are quite promising219319329FUNDAÇÃO DE AMPARO À PESQUISA DO ESTADO DE SÃO PAULO - FAPESP2008/57873-8; 2014/01135-
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Bioethanol production by recycled Scheffersomyces stipitis in sequential batch fermentations with high cell density using xylose and glucose mixture.
Bioresource technology, 2016Co-Authors: Samantha Christine Santos, Suzane R Dionísio, Amanda Silva De Sousa, Robson Tramontina, Roberto Ruller, Fabio M. Squina, Carlos Eduardo Vaz Rossell, Aline Carvalho Da Costa, Jaciane Lutz IenczakAbstract:Here, it is shown three-step investigative procedures aiming to improve pentose-rich fermentations performance, involving a simple system for elevated mass production by Scheffersomyces stipitis (I), cellular recycle batch fermentations (CRBFs) at high cell density using two temperature strategies (fixed at 30°C; decreasing from 30 to 26°C) (II), and a short-term Adaptation Action seeking to acclimatize the microorganism in xylose rich-media (III). Cellular propagation provided 0.52gdrycellweightgRS(-1), resulting in an expressive value of 45.9gdrycellweightL(-1). The yeast robustness in CRBF was proven by effective ethanol production, reaching high xylose consumption (81%) and EtOH productivity (1.53gL(-1)h(-1)). Regarding the short-term Adaptation, S. stipitis strengthened its robustness, as shown by a 6-fold increase in xylose reductase (XR) activity. The short fermentation time (20h for each batch) and the fermentation kinetics for ethanol production from xylose are quite promising.
Carlos Eduardo Vaz Rossell - One of the best experts on this subject based on the ideXlab platform.
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Bioethanol production by recycled Scheffersomyces stipitis in sequential batch fermentations with high cell density using xylose and glucose mixture.
Bioresource technology, 2016Co-Authors: Samantha Christine Santos, Suzane R Dionísio, Amanda Silva De Sousa, Robson Tramontina, Roberto Ruller, Fabio M. Squina, Carlos Eduardo Vaz Rossell, Aline Carvalho Da Costa, Jaciane Lutz IenczakAbstract:Here, it is shown three-step investigative procedures aiming to improve pentose-rich fermentations performance, involving a simple system for elevated mass production by Scheffersomyces stipitis (I), cellular recycle batch fermentations (CRBFs) at high cell density using two temperature strategies (fixed at 30°C; decreasing from 30 to 26°C) (II), and a short-term Adaptation Action seeking to acclimatize the microorganism in xylose rich-media (III). Cellular propagation provided 0.52gdrycellweightgRS(-1), resulting in an expressive value of 45.9gdrycellweightL(-1). The yeast robustness in CRBF was proven by effective ethanol production, reaching high xylose consumption (81%) and EtOH productivity (1.53gL(-1)h(-1)). Regarding the short-term Adaptation, S. stipitis strengthened its robustness, as shown by a 6-fold increase in xylose reductase (XR) activity. The short fermentation time (20h for each batch) and the fermentation kinetics for ethanol production from xylose are quite promising.