A novel high-pressure liquid-liquid extraction process for downstream processing in biotechnology: Extraction of cardiac glycosides

Adrian, T.; Freitag, Jörg; Maurer, Gerd

doi:10.1002/1097-0290(20000905)69:5<559::aid-bit10>3.0.co;2-7

Cited by 17 publications

(2 citation statements)

References 7 publications

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“…Surprisingly, this behavior is often seen between water and polar solvents that are completely miscible at ambient conditions; for a review see Adrian et al (40). Maurer and coworkers (41) have used this phenomena for inducing separation of biomolecules from aqueous solutions with compressed C0 2 . While C0 2 is the most common compressed gas, this behavior has been observed with ethylene, ethane and N 2 0 (41).…”

Section: Liquidsmentioning

confidence: 99%

Gas-Expanded Liquids: Fundamentals and Applications

Scurto

Hutchenson

Subramaniam

2009

Gas-Expanded Liquids and Near-Critical Media

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Section: Liquidsmentioning

confidence: 99%

Gas-Expanded Liquids: Fundamentals and Applications

Scurto

Hutchenson

Subramaniam

2009

Gas-Expanded Liquids and Near-Critical Media

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“…A D R I A N et al [6]) und des Aromastoffs Maltol (Ml) (vgl. A D R I A N et al [4]), auf die im Dreiphasengleichgewicht koexistierenden flüssigen Phasen des Systems CO 2 + H 2 O + 1-Propanol vorgestellt und diskutiert werden.…”

Section: * Vortrag Anlässlich Der Gemeinsamenunclassified

Hochdruck‐Flüssig/Flüssig‐Extraktion in Anwesenheit nahekritischen Kohlendioxids

Freitag

Tůma

Maurer

2003

Chemie Ingenieur Technik

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Expanded Liquid Phases in Catalysis: Gas‐expanded Liquids and Liquid–Supercritical Fluid Biphasic Systems

Hintermair

Leitner

Jessop

2010

Handbook of Green Chemistry

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The sections in this article are A Practical Classification of Biphasic Systems Consisting of Liquids and Compressed Gases for Multiphase Catalysis Physical Properties of Expanded Liquid Phases Volumetric Expansion Density Viscosity Melting Point Interfacial Tension Diffusivity Polarity Gas Solubility Chemisorption of Gases in Liquids and their Use for Synthesis and Catalysis In Situ Generation of Acids and Temporary Protection Strategies Switchable Solvents and Catalyst Systems Using Gas‐expanded Liquids for Catalysis Motivation and Potential Benefits Sequential Reaction–Separation Processes Tunable Precipitation and Crystallization Tunable Phase Separations Tunable Miscibility Hydrogenation Reactions Carbonylation Reactions Oxidation Reactions Miscellaneous Why Perform Liquid– SCF Biphasic Reactions? By Necessity (Unintentional Immiscibility) To Facilitate Post‐Reaction Separation To Facilitate Product/Catalyst Separation in Continuous Flow Systems To Stabilize a Catalyst To Remove a Kinetic Product To Control the Concentration of Reagent or Product in the Reacting Phase To Permit Emulsion Polymerization To Create Templated Materials Biphasic Liquid– SCF Systems Solvent Selection Aqueous– SCF Biphasic Systems Ionic Liquid– SCF Biphasic Systems Polymer– SCF Biphasic Systems Liquid Product– SCF Biphasic Systems Biphasic Reactions in Emulsions Water‐in‐ SCF Inverse Emulsions SCF ‐in‐Water Emulsions Ionic Liquid‐in‐ SCF Emulsions Applications of Emulsions

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A novel high-pressure liquid-liquid extraction process for downstream processing in biotechnology: Extraction of cardiac glycosides

Cited by 17 publications

References 7 publications

Gas-Expanded Liquids: Fundamentals and Applications

Gas-Expanded Liquids: Fundamentals and Applications

Hochdruck‐Flüssig/Flüssig‐Extraktion in Anwesenheit nahekritischen Kohlendioxids

Expanded Liquid Phases in Catalysis: Gas‐expanded Liquids and Liquid–Supercritical Fluid Biphasic Systems

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