Journal Guide
Bioresource Technology Impact Factor 9.0: Publishing Guide
Converting biomass to energy and chemicals: sustainable bioresource technology
9.0
Impact Factor (2024)
~35-45%
Acceptance Rate
~90-120 days median
Time to First Decision
What Bioresour. Technol. Publishes
Bioresource Technology published by Elsevier is the premier journal for biomass conversion and bioresource utilization. With JIF 9.0 and Q1 ranking in Biotechnology & Environmental Biotechnology, BRT emphasizes research converting biomass to biofuels, biochemicals, and energy. The journal publishes research on anaerobic digestion, fermentation, thermochemical conversion, and biorefinery development. Critically: BRT values technological innovation with functional demonstration. Pure characterization of biomass or feedstock without conversion technology is less competitive. The journal seeks papers showing how bioresources are converted to useful products efficiently.
- Anaerobic digestion: biogas production, methane generation, digestate utilization
- Fermentation: ethanol, butanol, biochemical production from biomass
- Thermochemical conversion: pyrolysis, gasification, liquefaction
- Biorefinery development: integrated biomass utilization, waste valorization
- Enzyme technology: cellulase, pretreatment, enzyme efficiency
- Waste utilization: agricultural waste, food waste, industrial waste conversion
- Biochar production: soil amendment, carbon sequestration
- Bioproduct development: biopolymers, biochemicals, biomedicals
Editor Insight
“Bioresource Technology publishes research converting biomass to energy and biochemicals. We seek innovative conversion technologies with demonstrated performance, realistic scalability, sound economics, and genuine sustainability advantage. The best papers maximize bioresource value through integrated biorefinery approaches.”
What Bioresour. Technol. Editors Look For
Novel bioresource conversion approach with superior technology performance
Present conversion technology showing functional advantage. Higher yield? Better selectivity? Improved economics? Demonstrate superior performance: conversion efficiency, product yield, selectivity, or cost advantage over existing technologies.
Complete process characterization and technology optimization
Thoroughly characterize conversion process: feedstock analysis, conversion conditions, product characterization. Optimize key parameters: temperature, pressure, catalyst, residence time, feedstock composition. Data-driven optimization valuable.
Scalability analysis and economic feasibility assessment
Demonstrate technology can scale from lab to commercial. Address manufacturing challenges, capital requirements, operating costs. Show economic viability: calculate bioproduct cost and compare with conventional alternatives.
Life-cycle environmental assessment and sustainability metrics
Quantify environmental impacts: carbon footprint, energy balance, water use, land requirements. Compare with conventional fuel or chemical production. Genuine sustainability advantage over fossil alternatives strengthens papers.
Real biomass feedstock validation and waste stream utilization
Validate process on actual biomass sources (agricultural residue, food waste, forestry waste). Using real feedstocks demonstrates practical applicability. Waste valorization adds circular economy value.
Why Papers Get Rejected
These patterns appear repeatedly in manuscripts that don't make it past Bioresour. Technol.'s editorial review:
Biomass characterization without demonstrating conversion technology
Detailed biomass analysis alone insufficient. BRT expects conversion technology demonstration. Show how biomass is converted to useful product or energy. What's the conversion approach?
Laboratory-scale conversion without scalability analysis
Lab-scale results often don't translate to commercial scale. Address scale-up challenges: equipment requirements, capital cost, operational complexity. Practical scalability matters.
Ignoring economics and commercialization pathway
Economic viability critical for bioresource utilization. Calculate bioproduct cost and compare with conventional alternatives. Economically uncompetitive approaches lack practical impact.
Environmental claims without comprehensive lifecycle assessment
Bioresource sustainability requires full lifecycle perspective: feedstock production/collection, conversion process, product use, end-of-life. Incomplete environmental analysis weakens claims.
Pure model feedstock without real biomass validation
Idealized feedstocks (pre-treated, pure compounds) don't represent actual biomass. Real agricultural waste, food waste, or forestry residue validation demonstrates practical relevance.
Does your manuscript avoid these patterns?
The quick diagnostic reads your full manuscript against Bioresour. Technol.'s criteria and flags the specific issues most likely to cause rejection.
Insider Tips from Bioresour. Technol. Authors
Waste valorization and circular economy approaches increasingly competitive
Converting agricultural waste, food waste, or industrial byproducts to useful products aligns with sustainability priorities. Circular economy positioning strengthens impact.
Anaerobic digestion and biogas production remain core but competitive
Anaerobic digestion with improved biogas yield, methane enrichment, or digestate utilization remains scientifically prominent and practically valuable.
Emerging bioproducts (biochemicals, biopolymers) gaining attention
Converting biomass to bio-based chemicals or polymers replacing fossil-derived alternatives increasingly competitive as sustainability pressure grows.
Pretreatment and enzyme efficiency critical for cellulose conversion
Improving biomass pretreatment or enzyme efficiency enabling economic cellulose-to-fuel or chemical conversion increasingly important.
Multi-product biorefinery concepts with integrated utilization valued
Comprehensive biorefinery approaches maximizing product value from biomass feedstock (energy + chemicals + materials) more competitive than single-product routes.
The Bioresour. Technol. Submission Process
Manuscript preparation
Prep6,000-9,000 words with 6-8 figures. Include feedstock characterization, conversion technology and process, product analysis, performance metrics (yield, selectivity, efficiency), scalability discussion, economic assessment, and lifecycle environmental analysis. Supporting: detailed experimental procedure, additional data.
Submission via Elsevier system
Day 0Submit at https://www.editorialmanager.com/BRT/. Required: manuscript emphasizing conversion technology novelty and sustainability benefits, figures showing process and product performance, cover letter highlighting sustainability and economic advantages.
Editorial assessment
1-2 weeksEditor assesses technology novelty, scalability, and sustainability significance. Papers lacking conversion technology or economic analysis face lower priority. Moderate desk rejection ~25-35%.
Peer review
90-120 days2-3 bioresource experts assess conversion technology innovation, experimental rigor, scalability analysis, and sustainability. First decision 90-120 days.
Revision and publication
Revision: 4-8 weeksRevisions often request additional scalability analysis, economic detail, or lifecycle assessment. Publication 2-4 weeks after acceptance.
Bioresour. Technol. by the Numbers
| 2024 Impact Factor | 13.3 |
| 5-Year Impact Factor | 13.9 |
| Acceptance rate | ~35-45% |
| Desk rejection rate | ~25-35% |
| Median first decision | ~105 days |
| Open access option | $3,200 USD |
| Publisher | Elsevier |
| Founded | 1990 |
Before you submit
Bioresour. Technol. accepts a small fraction of submissions. Make your attempt count.
The pre-submission diagnostic runs a live literature search, scores your manuscript section by section, and gives you a prioritized fix list calibrated to Bioresour. Technol.. ~30 minutes.
Article Types
Research Article
6,000-9,000 wordsBioresource conversion technology with scaling and analysis
Review
10,000-15,000 wordsBioresource technology review
Short Communication
3,500-5,000 wordsBrief bioresource conversion finding
Landmark Bioresour. Technol. Papers
Papers that defined fields and changed science:
- Anaerobic digestion for biogas (1970s+) - renewable methane from biomass
- Cellulosic ethanol development (2000s+) - second-generation biofuels
- Biochar soil amendment research (2010s+) - carbon sequestration through biochar
- Waste-to-energy systems (various) - municipal waste and food waste utilization
- Bio-based chemical and polymer production (2010s+) - replacing fossil chemicals
Preparing a Bioresour. Technol. Submission?
Get pre-submission feedback from reviewers who've published in Bioresour. Technol. and know exactly what editors look for.
Run Free Readiness ScanNeed expert depth? Human review from $1,000
Primary Fields
Related Journal Guides
- Publishing in Journal of Cleaner Production
- Publishing in Energy
- Publishing in Applied Energy
- Publishing in Fuel
Related Articles
- Desk Rejection: What It Means, Why It Happens, and What to Do Next
- How to Respond to Reviewer Comments (Without Losing Your Mind)
- How to Choose the Right Journal for Your Paper (A Practical Guide)
- Pre-Submission Scientific Review: What It Costs, When It Works, and When to Skip It
Ready to submit to Bioresour. Technol.?
A desk rejection costs months. Get expert feedback before you submit, from scientists who know exactly what Bioresour. Technol. editors look for.
Avoid Desk Rejection
Get expert pre-submission review before you submit to Bioresour. Technol.. 3-7 day turnaround.
Manuscript Rejected?
Expert revision help to strengthen your manuscript and resubmit with confidence.
Reviewer Response Help
Get expert guidance crafting your response to Bioresour. Technol. reviewers.
Need field-expert depth? Human review from $1,000