Hydrogen production from the thermochemical conversion of biomass: issues and challenges

Dou, Binlin; Zhang, Hua; Song, Yongchen; Zhao, Lei; Jiang, Bo; He, Mingxing; Ruan, Chenjie; Chen, Haisheng; Xu, Yujie

doi:10.1039/c8se00535d

Cited by 262 publications

(133 citation statements)

References 210 publications

Supporting

Mentioning

120

Contrasting

Order By: Relevance

“…The most common catalytic thermochemical process intended for H2 production from hydrocarbons (CaHb, such as plastic wastes) and oxygenated hydrocarbons (CnHmOk, such as biomass-derived compounds) is the reforming process [9,26,27]. This may be conducted under several operating conditions, the most extensively studied being that performed with steam cofeeding, namely steam reforming, since it gives the maximum theoretical yield of hydrogen and is responsible for 78 % of the world H2 production [11].…”

Section: Introductionmentioning

confidence: 99%

Coke formation and deactivation during catalytic reforming of biomass and waste pyrolysis products: A review

Ochoa

Bilbao

Gayubo

et al. 2020

Renewable and Sustainable Energy Reviews

344

158

View full text Add to dashboard Cite

Section: Introductionmentioning

confidence: 99%

Coke formation and deactivation during catalytic reforming of biomass and waste pyrolysis products: A review

Ochoa

Bilbao

Gayubo

et al. 2020

Renewable and Sustainable Energy Reviews

344

158

View full text Add to dashboard Cite

“…It is expected that hydrogen will play a key role as an energy carrier in future energy systems . Although its production is still in the early stage and depends on the design and operation of reactor systems, there exists already a variety of experimental systems developed with promising potentials , .…”

Section: Introductionmentioning

confidence: 99%

Enhanced Hydrogen Generation from Empty Fruit Bunches by Charcoal Addition into a Downdraft Gasifier

Monir¹,

Aziz

et al. 2020

Chem Eng & Technol

View full text Add to dashboard Cite

Hydrogen production by co‐gasification of empty fruit bunches of palm oil could be enhanced by adding charcoal. Physiochemical characterization of raw feedstocks was performed to determine their exergy potentiality. The raw feedstocks, gasified charcoal, and the end product of produced gas were analyzed by different techniques. Gasification experiments were performed using a pilot‐scale downdraft gasifier. The heating value, composition of product gas, yield of hydrogen, and exergy efficiency were used to verify the improvement of hydrogen production during the co‐gasification process. Charcoal with empty fruit bunches of palm oil leads to a much higher yield of hydrogen than lower charcoal ratios or solely empty fruit bunches. This enhanced hydrogen fuel can contribute to future energy demand.

show abstract

“…Steam reforming, being the most promising and a mature technology, is widely used because it produces a larger number of moles of hydrogen per mole of ethanol than in auto‐thermal reforming, followed by partial oxidation . In addition, some novel methods like sorption‐enhanced steam reforming (SESR) and chemical looping steam reforming (CLSR) are being developed for low cost and energy‐efficient hydrogen production …”

Section: Introductionmentioning

confidence: 99%

“…4 In addition, some novel methods like sorption-enhanced steam reforming (SESR) and chemical looping steam reforming (CLSR) are being developed for low cost and energy-efficient hydrogen production. 5 Several studies [6][7][8][9][10][11][12][13][14][15][16] have been carried out in the recent past focusing on the reaction kinetics, catalysis, and catalyst development of these processes. This includes experimental and theoretical studies on the development of reforming catalysts using the noble metals like Pt, Pd, Rh, Au, etc., and non-noble metals like Ni, Co, Cu, etc.…”

Section: Introductionmentioning

confidence: 99%

Simulation and multi‐objective optimization of a fixed bed catalytic reactor to produce hydrogen using ethanol steam reforming

et al. 2019

View full text Add to dashboard Cite

Summary A mathematical model is developed for a fixed bed catalytic reactor to produce hydrogen using ethanol steam reforming in the presence of a Ni (II)‐Al (III)‐LDH catalyst. The simulation of the reactor has been carried out using the ode23s module of MATLAB (version 2010a) based on a mechanistic kinetic model (Langmuir‐Hinshelwood approach) with proven reaction kinetics. There is a confusion regarding the values of the kinetic parameters even though earlier workers have used the same experimental data and the same model equations. The values of the model parameters obtained using two different curve‐fitting techniques, the generalized reduced gradient (GRG) algorithm and a derivative‐free approach based on the simplex method, were different. This leads to differences in the agreement of model predictions vs experimental results. A more powerful and recent technique, genetic algorithm (GA), has been used to resolve this problem by minimizing a sum‐of‐square errors (SSE). Our tuned model parameters gave good agreement with experimental data. An SSE value of the order of 10−4 is obtained in the present study over the SSE values of the order of 10−2 obtained from earlier studies. Using this tuned model, multi‐objective optimization (MOO) of an isothermal fixed bed ESR reactor has been carried out using NSGA‐II to achieve the maximum hydrogen mole fraction in the product gas while simultaneously minimizing the mole fractions of the greenhouse gases, CO + CO2. The maximum theoretical mole fraction of hydrogen obtained is 0.088 at 911.86 K vs 0.080 at 923 K, as observed experimentally. The more recent jumping gene adaptation of NSGA‐II, namely, NSGA‐II‐JG, was also tried to check if it can give more rapid convergence to the Pareto set. It is found that the present problem is far too simple, and the advantage of the JG adaptation is small.

show abstract

Hydrogen production from the thermochemical conversion of biomass: issues and challenges

Abstract: Hydrogen production from thermochemical conversion has been considered the most promising technology for the use of biomass, and some novel methods are also being developed for low cost and high efficiency.

Cited by 262 publications

References 210 publications

Coke formation and deactivation during catalytic reforming of biomass and waste pyrolysis products: A review

Coke formation and deactivation during catalytic reforming of biomass and waste pyrolysis products: A review

Enhanced Hydrogen Generation from Empty Fruit Bunches by Charcoal Addition into a Downdraft Gasifier

Simulation and multi‐objective optimization of a fixed bed catalytic reactor to produce hydrogen using ethanol steam reforming

Contact Info

Product

Resources

About