Evaluation of an empirical model for predicting the calorific value of biomass briquettes from candlenut shells and kesambi twigs

Biomass briquettes offer a sustainable alternative to conventional fossil fuels, contributing to renewable energy while reducing environmental impact. This research explores the development of biomass briquettes from candlenut shell charcoal (Aleurites moluccanus) and kesambi twigs (Schleichera oleo...

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Published in:Advances in Food Science, Sustainable Agriculture, and Agroindustrial Engineering
Main Author: Jemmy Jonson Sula Dethan
Format: Article
Language:English
Published: Universitas Brawijaya, Fakultas Teknologi Pertanian 2024-09-01
Subjects:
Online Access:https://afssaae.ub.ac.id/index.php/afssaae/article/view/18902/262
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author Jemmy Jonson Sula Dethan
author_facet Jemmy Jonson Sula Dethan
author_sort Jemmy Jonson Sula Dethan
collection DOAJ
container_title Advances in Food Science, Sustainable Agriculture, and Agroindustrial Engineering
description Biomass briquettes offer a sustainable alternative to conventional fossil fuels, contributing to renewable energy while reducing environmental impact. This research explores the development of biomass briquettes from candlenut shell charcoal (Aleurites moluccanus) and kesambi twigs (Schleichera oleosa), focusing on their physical properties and heating values. Using tapioca as a binder, briquettes were produced with varying ratios: A. Control (90% kesambi twigs + 10% adhesive), B. 3:1 (67.5% kesambi twigs + 22.5% candlenut shell charcoal + 10% adhesive), C. 1:1 (45% kesambi twigs + 45% candlenut shell charcoal + 10% adhesive), and D. 1:3 (22.5% kesambi twigs + 67.5% candlenut shell charcoal + 10% adhesive). The study aimed to optimize briquette composition for maximum density, compressive strength, and calorific value while minimizing moisture, ash, and volatile matter. Results indicated that a higher proportion of candlenut shell charcoal enhanced density, compressive strength, and fixed carbon content, with the highest calorific value exceeding 19 MJ/kg observed in the 1:3 ratio. Additionally, the study evaluated three empirical models for predicting the Higher Heating Value (HHV) of the briquettes, finding the Nhuchhen model to be the most accurate, with an R² value of 0.93, providing a reliable method for predicting calorific value.
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spelling doaj-art-d5612467aa8a4e2dbdac2f2daf7203282025-08-20T01:10:24ZengUniversitas Brawijaya, Fakultas Teknologi PertanianAdvances in Food Science, Sustainable Agriculture, and Agroindustrial Engineering2622-59212024-09-017325326410.21776/ub.afssaae.2024.007.03.6Evaluation of an empirical model for predicting the calorific value of biomass briquettes from candlenut shells and kesambi twigsJemmy Jonson Sula Dethan0Universitas Kristen Artha WacanaBiomass briquettes offer a sustainable alternative to conventional fossil fuels, contributing to renewable energy while reducing environmental impact. This research explores the development of biomass briquettes from candlenut shell charcoal (Aleurites moluccanus) and kesambi twigs (Schleichera oleosa), focusing on their physical properties and heating values. Using tapioca as a binder, briquettes were produced with varying ratios: A. Control (90% kesambi twigs + 10% adhesive), B. 3:1 (67.5% kesambi twigs + 22.5% candlenut shell charcoal + 10% adhesive), C. 1:1 (45% kesambi twigs + 45% candlenut shell charcoal + 10% adhesive), and D. 1:3 (22.5% kesambi twigs + 67.5% candlenut shell charcoal + 10% adhesive). The study aimed to optimize briquette composition for maximum density, compressive strength, and calorific value while minimizing moisture, ash, and volatile matter. Results indicated that a higher proportion of candlenut shell charcoal enhanced density, compressive strength, and fixed carbon content, with the highest calorific value exceeding 19 MJ/kg observed in the 1:3 ratio. Additionally, the study evaluated three empirical models for predicting the Higher Heating Value (HHV) of the briquettes, finding the Nhuchhen model to be the most accurate, with an R² value of 0.93, providing a reliable method for predicting calorific value.https://afssaae.ub.ac.id/index.php/afssaae/article/view/18902/262biomass briquettescalorific valuecandlenuts shellkesambi twig
spellingShingle Jemmy Jonson Sula Dethan
Evaluation of an empirical model for predicting the calorific value of biomass briquettes from candlenut shells and kesambi twigs
biomass briquettes
calorific value
candlenuts shell
kesambi twig
title Evaluation of an empirical model for predicting the calorific value of biomass briquettes from candlenut shells and kesambi twigs
title_full Evaluation of an empirical model for predicting the calorific value of biomass briquettes from candlenut shells and kesambi twigs
title_fullStr Evaluation of an empirical model for predicting the calorific value of biomass briquettes from candlenut shells and kesambi twigs
title_full_unstemmed Evaluation of an empirical model for predicting the calorific value of biomass briquettes from candlenut shells and kesambi twigs
title_short Evaluation of an empirical model for predicting the calorific value of biomass briquettes from candlenut shells and kesambi twigs
title_sort evaluation of an empirical model for predicting the calorific value of biomass briquettes from candlenut shells and kesambi twigs
topic biomass briquettes
calorific value
candlenuts shell
kesambi twig
url https://afssaae.ub.ac.id/index.php/afssaae/article/view/18902/262
work_keys_str_mv AT jemmyjonsonsuladethan evaluationofanempiricalmodelforpredictingthecalorificvalueofbiomassbriquettesfromcandlenutshellsandkesambitwigs