Design of high-added value, innovative,  

functional and biosourced materials

Target markets

• 

Green Printed Electronics

• 

Nano-electronics

• 

Health

• 

Transport

• 

Biosensors

• 

Packaging

• 

Plastics

• 

Food processing 

• 

Building…

A different thinking in Green 

Carbon chemistry…

The PolyNat Institute aims to develop 

biosourced materials, from laboratory to 

industrial production, based on leading-

edge research as well as scientific 

expertise in the key fields of:

  production and conversion processing 

functionalized biosourced materials: 

design of industrial eco-processes,
  glyco-nano-objects and self-assembly
  nano-organized thin glycofilms for 

electronic applications,
  natural polymers and colloids science,
  micro-nano-rheology, multi-scale 

approaches of heterogeneous mediums,
  transformation of biomass for 

technological purposes: physics of fibrous 

structures, complex biomimetic 

organization of the plant wall.

Towards an innovative green 

engineering…

Five research centers from Grenoble 

have joined in an industrial research 

partnership, strongly related to 

key world economic sectors in 

order to further develop: 

 the understanding of the 

organization of natural fibers: 

cellulose nanocrystals, nanofibers 

and microfibers (CNC, CNF, CMF), 

 glycopolymers engineering 

(“ surfactants “ based on oligo 

and polysaccharides) at nano and 

micro scales : new architectures/

applications to functional materials,

 design processes of high-added 

value functional materials,

 the understanding of structure-

property relationships at different scales: 

thermo-hygro-mechanical behavior.

www.polynat.eu

The PolyNat Carnot Institute is devoted to the design, 

production and application of high-added value, functional 

materials, either « hybrid » (partly derived from fossils and 

natural ressources), or totally « biosourced », by taking 

advantage of the self-assembly of elementary bricks  

(oligo and polysaccharides, glycopolymers, nanocrystals  

and cellulose fiber), at micro and nano scales.