Author(s): Feria MJ, Lopez F, Garcia JC, Pérez A, Zamudio MAM, et al.
In this work, Leucaena leucocephala K366 was characterized chemical and energy terms, and assessed its potential as a lignocellulosic raw material and energetic and industrial crop specie, and its integral fractionation by autohydrolysis by evaluating its calorific value, holocellulose, glucan, xylan, arabinan, lignin and oligomers and monomers contents in autohydrolysis liquor and solid phase. Also, this paper will consider the influence of the temperature and time of autohydrolysis process from L. leucocephala K366 to obtain valuable liquor and a suitable solid phase to produce energy by combustion.Valuable liquor was obtained from the autohydrolysis of L. leucocephala by simultaneously using operating temperatures and times in the medium–high ranges studied, namely: 172–184 °C and 15–30 min. The optimum processing conditions provided an acceptable yield (16–26%), and high xylose and xylo-oligomer contents in the liquor (10.0 and 58.6%, respectively, of the amounts present in the starting raw material when operating at 184 °C for 30 min) in comparison with other raw materials. The arabinan fraction was extracted virtually completely —only 8.3% remained in the solid fraction—, and the acetyl group fraction was recovered in full. In addition, these conditions reduced the glucose content of the liquor to 2.9% of the amount present in the raw material while largely preserving the integrity of cellulose fibers.Klason lignin was scarcely dissolved under the operating conditions of the autohydrolysis process. This increased the calorific value of the solid phase by 9% (under the most drastic operating conditions) with respect to the starting raw material.Highlights► L. leucocephala K366 was characterized chemical and energy terms. ► The optimum processing conditions provided a 10.0 % xylose contents in the liquor. ► The calorific value of solid phase increases by 9 % respect of raw material. ► The arabinan and acetyl group fractions were extracted completely.
Referred From: https://www.researchgate.net/publication/229094029_Valorization_of_Leucaena_leucocephala_for_energy_and_chemicals_from_autohydrolysis
Author(s): Dayegamiye NA, Dubé A
Author(s): Beauchemin S, Dayegamiye NA, Laverdière MR
Author(s): Dayegamiye NA, Angers DA
Author(s): Tremblay J, Beauchamp CJ
Author(s): Haynes RJ
Author(s): Stevenson FJ
Author(s): Swift MJ, Heal OW, Anderson JM
Author(s): Edmonds RL
Author(s): Edmonds RL
Author(s): Moore TR, Trofymow JA, Taylor B, Camiré C, Duchesne L, et al.
Author(s): Eriksson KE, Blanchette RA, Anderson P
Author(s): Berg B, McClaugherty C
Author(s): Bekunda M, Sanginga N, Woomer PL
Author(s): Eriksson KE, Blanchette RA, Anderson P
Author(s): Berg B, McClaugherty C
Author(s): Sun Y, Royer M, Diouf P, Stevanovic TJ
Author(s): ASTM International
Author(s): García-Moralesa M, Minerva FL, Zamudio AM, Alfaro A, de Alva HE, et al.
Author(s): Muller RN, Kalisz PJ, Kimmerer TW
Author(s): Mendieta-Araica B, Spörndly E, Reyes-Sànchez N, Salmeron-Miranda F, Halling M
Author(s): Mburu F, Dumerçay S, Bocquet SF, Pétrissans M, Gérardin F
Author(s): Brosse N, El Hage R, Chaouch M, Pétrissans M, Dumerçay S, et al.
Author(s): Nuopponen MH, Wiberg HI, Birch GM, Jääskeläinen AS, Maunu SL, et al.
Author(s): Jing-shuang L, Jun-bao Y
Author(s): Rana R, Langenfeld-Heyser R, Finkeldey R, Polle A
Author(s): Luxmoore RJ, Grizzard T, Strand RH
Author(s): Melesse A, Steingass H, Boguhn J, Schollenberger M, Rodehutscord M
Author(s): Dumon R
Author(s): Van den Driessche FI
Author(s): Dumon R, Gélus M