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This project has received funding from the European Union´s Horizon 2020 research and innovation programme under grant agreement No 685648. This publication reflects the views only of the author, and the Commission cannot be held responsible for any use which may be made of the information contained therein. nanohybrids.eu NEW GENERATION OF NANOPOROUS ORGANIC AND HYBRID AEROGELS FOR INDUSTRIAL APPLICATIONS BIOBASED AEROGELS From renewable resources to ultra- light nanostructured materials Bio-aerogels are one of the classes of aerogel mate- rials that exhibit open-porous nanofibrillar network. They are based on natural polymers such as poly- saccharides or proteins. Bio-aerogels are produced by sol-gel synthesis via biopolymer dissolution followed by chain self-assembly and drying with supercritical CO 2 . No toxic compounds or processes are involved in bio-aerogel synthesis, and thus they are “human- friendly” materials. In the frame of Nanohybrids pro- ject, alginate, cellulose, chitosan and their composite aerogels were prepared on a large scale as particles either by emulsion or Jet-Cutter techniques. Bio-aerogels possess amazing properties such as high porosity (>90 %), very low density and high specific surface area (200-500 m 2 /g). Particle size can vary from few microns to few millimeters. Bio-aerogels can be used as classical aerogels: for thermal insulation, in separation, adsorption and ab- sorption and in catalysis. A strong advantage is that bio-aerogels can also be used in food and feed, in cosmetics and bio-medical and pharma applications as scaffolds, matrices for drug delivery, etc. Bio-aerogels: a new class of versatile and functional biobased materials Properties and advantages Application potential

BIOBASED AEROGELS · 2019. 3. 29. · Bio-aerogels can be used as classical aerogels: for thermal insulation, in separation, adsorption and ab-sorption and in catalysis. A strong

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Page 1: BIOBASED AEROGELS · 2019. 3. 29. · Bio-aerogels can be used as classical aerogels: for thermal insulation, in separation, adsorption and ab-sorption and in catalysis. A strong

This project has received funding from the European Union´s Horizon 2020 research and innovation programme under grant agreement No 685648. This publication reflects the views only of the author, and the Commission cannot be held responsible for any use which may be made of the information contained therein.

nanohybrids.eu

NEW GENERATION OF

NANOPOROUS ORGANIC

AND HYBRID AEROGELS FOR

INDUSTRIAL APPLICATIONS

BIOBASED AEROGELSFrom renewable resources to ultra- light nanostructured materials

Bio-aerogels are one of the classes of aerogel mate-rials that exhibit open-porous nanofibrillar network. They are based on natural polymers such as poly-saccharides or proteins. Bio-aerogels are produced by sol-gel synthesis via biopolymer dissolution followed by chain self-assembly and drying with supercritical

CO2. No toxic compounds or processes are involved in bio- aerogel synthesis, and thus they are “human-friendly” materials. In the frame of Nanohybrids pro-ject, alginate, cellulose, chitosan and their composite aerogels were prepared on a large scale as particles either by emulsion or Jet-Cutter techniques.

Bio-aerogels possess amazing properties such as high porosity (>90 %), very low density and high specific surface area (200-500 m2/g). Particle size can vary from few microns to few millimeters.

Bio-aerogels can be used as classical aerogels: for thermal insulation, in separation, adsorption and ab-sorption and in catalysis. A strong advantage is that bio-aerogels can also be used in food and feed, in cosmetics and bio-medical and pharma applications as scaffolds, matrices for drug delivery, etc.

Bio-aerogels: a new class of versatile and functional biobased materials

Properties and advantages Application potential

Page 2: BIOBASED AEROGELS · 2019. 3. 29. · Bio-aerogels can be used as classical aerogels: for thermal insulation, in separation, adsorption and ab-sorption and in catalysis. A strong

nanohybrids.eu

CONTACT

Coordinator:Hamburg University of Technology (TUHH)Institute of Thermal Separation ProcessesProf. Irina Smirnova | [email protected]ßendorfer Str. 38, 21073 Hamburg

Industrial leader:BASF Polyurethanes GmbHDr. Wibke Lölsberg | [email protected]. Marc Fricke | [email protected]. Dirk Weinrich | [email protected]. 60, 49448 Lemförde