Upm-kymmene Corporation

Teknologian Tutkimuskeskus Vtt Oy

Valtion Teknillinen Tutkimuskeskus

Genencor International, Inc.

Solazyme, Inc.

Aalto University Foundation Sr

Genecor International, Inc.

Terravia Holdings, Inc.

Jaakko Pere

Markus Nuopponen

Vesa Kunnari

Michael C Ward

Jeffrey Jacob Cernohous

Ali Harlin

Janne Laine

Antti Laukkanen

Markku Saloheimo

Liisa Viikari

Matti Siika-Aho

Adam R Pawloski

John Piechocki

Jaakko Hiltunen

Monika Österberg

Tiina Liitiä

Barbara A Swanson

Anna-Stiina Jääskeläinen

Adrienne McKee

Christiane Laine

Sonia Sousa

Jani Kiuru

Kalle Nättinen

Katariina Kemppainen

Merja Penttilä

Isko Kajanto

Marjo Yliperttula

Merja Penttil&auml;

Pekka Ahtila

Yan-Ru Lou

Matti Kairi

Teija Jokila

Atte Mikkelson

Tytti Kuisma

Johanna Nikander

Johanna Niklander

Monika Osterberg

Monika ÖSterberg

Disclosed is a method for treating wood veneer, including the steps of providing at least one sheet of wood veneer; coating at least one side of the sheet of wood veneer with an aqueous coating composition including nanocellulose to obtain a coated sheet of wood veneer; and drying the coated sheet using compression pressure and heat. Also disclosed is a coated wood veneer including a sheet of wood veneer and a coating including nanocellulose arranged on at least one surface of the sheet.

Coated wood veneer and method for treating wood veneer

According to an example aspect of the present invention, there is provided a non-toxic bio-based fire-retardant composition and fire-protective coating comprising high consistency nanofibrillated cellulose together with mineral component(s).

Fire-retardant composition and coating

According to an example aspect of the present invention, there is provided a method of producing films from nanocellulose based raw materials having high consistency and thereby providing low energy consuming and feasible manufacturing process of CNF films and film materials.

Method of producing films from high consistency enzyme fibrillated nanocellulose

The present invention provides a method for producing fibrillated cellulose, the method comprising providing pulp, treating said pulp at a consistency of at least 10% with a cellulase, and fibrillating said pretreated pulp to obtain fibrillated cellulose. The present invention also provides a nanofibrillar cellulose product.

Method for producing fibrillated cellulose

The present invention provides a method for determining carbonyl ratio and/or concentration of oxidized nanofibrillar cellulose in a sample. In accordance with the invention oxidized nanofibrillar cellulose comprised in the sample is enzymatically hydrolyzed into oxidized cellobioses which are specific markers to oxidized nanofibrillar cellulose. The cellobioses may be then analyzed and quantified to reveal the amount of oxidized nanofibrillar cellulose in the sample. A method for determining the concentration of oxidized nanofibrillar cellulose in a sample comprises steps of providing an analytical sample of material comprising oxidized nanofibrillar cellulose; hydrolyzing the analytical sample to breakdown products of oxidized nanofibrillar cellulose in presence of one or more enzymes; subjecting the breakdown products to a separation analysis to reveal the relative amounts of the breakdown products; and determining the concentration of oxidized nanofibrillar cellu-lose.

Analytical method for determining the concentration of oxidized nanofibrillar cellulose in a sample

The present invention relates to a process for producing a fibrillated cellulose material. In the invention fibrillated cellulose is produced enzymatically by using a low energy demanding mechanical mixer such as plough share mixer, to enhance the fibrillation. Enzymes and process conditions are chosen so that the cellulose degradation is as low as possible, while obtaining a high yield of nanofibrils. Sugars that are produced into the end-product may also be furthermore exploited.

Process for producing fibrillated cellulose material

Provided are biomass-based materials and valuable uses of microalgal biomass including: (i) acetylation of microalgal biomass to produce a material useful in the production of thermoplastics; (ii) use of triglyceride containing microalgal biomass for production of thermoplastics; (iii) combination of microalgal biomass and at least one type of plant polymer to produce a material useful in the production of thermoplastics; (iv) anionization of microalgal biomass to form a water absorbant material; (v) cationization of microalgal biomass, and optional flocculation, to form a water absorbant material; (vi) crosslinking of anionized microalgal biomass; (vii) carbonization of microalgal biomass; and (viii) use of microalgal biomass in the making of paper.

Algal thermoplastics, thermosets, paper, adsorbants and absorbants

The invention relates to pretreating of native cellulose pulp in the manufacture of nanofibrillated cellulose, and to a nanofibrillated cellulose product obtainable by the method.

Method for pretreating cellulose pulp

The present invention is related to methods and materials for culturing and transporting stem cells in a three-dimensional culture. The materials comprise cellulose nanofibrils in a form of three-dimensional discontinuous entities in a biocompatible hydrogel.

Three-dimensional discontinuous entity for cell culturing

A Method of pretreating native cellulose pulp in the manufacture of nanofibrillated cellulose, and a nanofibrillated cellulose product obtainable by the method.

A novel microbial protein is described which appears to have significant homology to plant expansin proteins and has the ability to weaken filter paper and swell cellulose. A DNA is described which encodes the novel protein.

Microbial swollenin protein, DNA sequences encoding such swollenins and method of producing such swollenins

Process for preparing mechanical pulp by treating the pulp with an

Process for preparing and treating mechanical pulp with an enzyme

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Vantaa, Finland

Jaakko Pere