Novel biodegradable composites based on treated lignocellulosic waste flour as filler. Part I. Surface chemical modification and characterization of waste flour

By V. Tserki, P. Matzinos, S. Kokkou, C. Panayiotou. 2005

176 citations recorded by the source corpus.

Subfields: Biomaterials, Biomedical Engineering, Polymers and Plastics

View Paper: https://www.semanticscholar.org/paper/c4c4c683c52c2422494cddb3b5f4fca4fd39d868

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In Biomaterials

1. I. Abdullah
2. I. Ahmad
3. H. L. Ornaghi Júnior
4. M. Poletto
5. A. J. Zattera
6. V. Pistor

In Biomedical Engineering

1. I. Ahmad
2. M. Poletto
3. I. Abdullah
4. Debabrata Das
5. A. J. Zattera
6. V. Pistor

In Polymers and Plastics

1. Vivek Kumar
2. H. L. Ornaghi Júnior
3. M. Poletto
4. I. Abdullah
5. I. Ahmad
6. A. J. Zattera

Citations in the corpus

• PEA PEEL WASTE: A LIGNOCELLULOSIC WASTE AND ITS UTILITY IN CELLULASE PRODUCTION BY Trichoderma reesei UNDER SOLID STATE CULTIVATION (2011, background): “Due to the higher biochemical oxygen demand (BOD5) of whey, it poses a major world-wide disposal and pollution problem; thus an effective and permanent solution is urgently needed (Marwaha and Kennedy 2007; Venkatraman and Achi 2004).”
• Thermophilic biohydrogen production using pre-treated algal biomass as substrate (2014, methodology): “The CrI of the sampleswere calculated using thewide angle X-ray diffraction counts at 2q angle close to 22 and 18 according to the Segal empirical method [21,22].”
• Isolation and Characterization of Cellulose Nanocrystals from Agave angustifolia Fibre (2013, background): “For fibres with high cellulose content, like cotton and flax, two peaks around 16o were observed; however, for the raw Agave fibres, only one broad peak was observed due to the presence of amorphous material which covered the two peaks (Subramanian et al. 2005; Tserki et al. 2005).”
• Characterization of new natural cellulosic fabric Grewia tilifolia (2010, background): “pectin from the fabric (Ouajai, & Shanks, 2005; Roncero et al., 2005; Tserki et al., 2005).”
• Structural Characteristics and Thermal Properties of Native Cellulose (2013, background): “The bands at 1430, 1370, 1335 and 1320 cm-1 are attributed to CH2 symmetric bending, CH bending, in-plane OH bending, CH2 rocking vibration, respectively [17, 38-39], and the bands at 1162, 1111, 1057, 1033, 898 cm-1 are assigned to asymmetric C-OC bridge stretching, anhydroglucose ring asymmetric s”
• Native Cellulose: Structure, Characterization and Thermal Properties (2014, background): “Hence, it is imperative that the degradation profile of the fibers must be determined prior to their use in composite applications [35].”
• Advances in the Valorization of Lignocellulosic Materials by Biotechnology: An Overview (2013, background): “All of these features enable the fibers to maintain the desired aspect ratio for good performance of the prepared composites (Shaw 2002; Tserki et al. 2005).”