Journal Guides9 min read•Updated Mar 16, 2026

How to Avoid Desk Rejection at International Journal of Hydrogen Energy

The editor-level reasons papers get desk rejected at International Journal of Hydrogen Energy, plus how to frame the manuscript so it looks like a fit from page one.

By ManuSights Team•March 16, 2026

Desk-reject risk

Check desk-reject risk before you submit to International Journal of Hydrogen Energy.

Run the Free Readiness Scan to catch fit, claim-strength, and editor-screen issues before the first read.

Run Free Readiness ScanAnthropic Privacy Partner. Zero-retention manuscript processing.Open International Journal of Hydrogen Energy Guide

Question	Quick read
Editors care most about	Clear energy application and pathway to decarbonization
Fastest red flag	Materials or chemistry research without clear hydrogen energy application
Typical article types	Research Article, Review, Short Communication
Best next step	Manuscript preparation

How to avoid desk rejection at International Journal of Hydrogen Energy starts with understanding that this isn't just an energy journal—it's a decarbonization journal. Editors screen manuscripts for three non-negotiable elements before sending anything to peer review: clear hydrogen energy application with pathway to decarbonization, performance metrics compared to existing state-of-the-art technologies, and economic feasibility discussion that addresses real-world scalability concerns.

That distinction matters because authors often submit solid materials science or electrochemistry work that happens to involve hydrogen without connecting it to energy systems or climate solutions. The work might be technically sound, but if it reads like fundamental research with a weak energy connection tacked on, it won't survive the editorial screen.

Quick Answer: What Gets You Past IJHE's Editorial Screen

Three elements prevent desk rejection at IJHE. First, your manuscript needs a clear hydrogen energy application—not just hydrogen chemistry, but a pathway from your research to energy production, storage, or fuel cell systems. Second, you must benchmark your performance against state-of-the-art alternatives with specific comparison data. Third, you need economic feasibility discussion that acknowledges cost and scalability, even for early-stage research.

Editors reject manuscripts that feel like materials science papers with hydrogen mentioned in the abstract, chemistry studies without energy device context, or performance claims made in isolation. Your paper should answer why this hydrogen research matters for decarbonization and how it compares to what's already available.

What IJHE Editors Actually Want (And What They Reject)

IJHE editors prioritize research that advances hydrogen as a clean energy solution. They want papers that connect directly to hydrogen production, storage, fuel cells, or catalysis with clear pathways to reducing carbon emissions. The journal's scope emphasizes practical energy applications, not hydrogen chemistry for its own sake.

Successful submissions position research within energy systems context from the first paragraph. For example, a catalyst paper that starts with "Efficient hydrogen production requires cost-effective electrocatalysts for industrial water electrolysis" immediately signals energy relevance. Compare that to "Transition metal catalysts show interesting electronic properties for hydrogen evolution reactions"—the second approach sounds academic rather than application-focused.

Editors expect performance metrics compared to established benchmarks. If you're developing a new hydrogen storage material, compare your capacity, kinetics, and operating conditions against commercial hydrides, compressed storage, or liquid hydrogen. Don't just report "high hydrogen capacity of 6.2 wt%" without context about whether that's competitive with existing options.

Cost analysis requirements have increased significantly. Even fundamental research papers now need sections addressing economic feasibility. You don't need detailed cost modeling, but you should discuss material costs, processing requirements, or scalability challenges. Editors reject papers that ignore economic reality entirely.

Durability and cycling stability data matter more than peak performance numbers. A fuel cell catalyst that shows excellent activity for 100 cycles won't impress editors if commercial catalysts already operate for thousands of cycles. Long-term stability, degradation mechanisms, and operational lifetime directly impact commercial viability.

Decarbonization pathway discussion should be explicit, not implied. Don't assume editors will connect your hydrogen research to climate benefits. State clearly how your work contributes to reducing greenhouse gas emissions, whether through cleaner hydrogen production, more efficient storage, or lower-cost fuel cells that enable hydrogen adoption.

The Hydrogen Energy Application Problem

Materials and chemistry research fails at IJHE when it lacks clear energy relevance. Authors often submit papers about hydrogen-involved reactions or hydrogen-containing materials without explaining the energy application. The research might be solid, but if the energy connection feels forced or superficial, editors will desk reject it.

Weak application statements sound generic: "This research contributes to hydrogen energy development" or "These materials could potentially be used in fuel cells." Strong statements connect specific properties to energy performance: "The 150 mA/cm² current density at 0.7 V makes this catalyst viable for commercial electrolyzers operating at industrial scale."

Positioning fundamental research within energy context requires connecting molecular or material properties to device performance. If you're studying hydrogen bonding in metal-organic frameworks, explain how binding strength affects storage capacity and release kinetics for automotive applications. If you're investigating reaction mechanisms, connect mechanistic insights to catalyst design principles that could improve efficiency or durability.

The "pathway to application" doesn't need to be immediate, but it should be credible. Early-stage research can acknowledge development timeline while still demonstrating energy relevance. Frame your work as addressing specific technical barriers rather than general scientific curiosity.

Performance Metrics That Matter (And Those That Don't)

IJHE editors expect benchmarking data that positions your results within the current technology landscape. Isolated performance claims without comparison context signal that authors don't understand the field's competitive environment. Your metrics should directly address how your approach compares to existing solutions.

For hydrogen production research, compare your catalyst or process against commercial electrolyzers, steam methane reforming, or other established methods. Include current density, overpotential, energy efficiency, and operating conditions. Don't just report that your catalyst works—show how it performs relative to platinum, iridium oxide, or other benchmarks.

Storage research requires capacity, kinetics, and operating condition comparisons. If you're developing a new hydride, compare gravimetric and volumetric capacity against compressed hydrogen at 700 bar, liquid hydrogen, or existing metal hydrides. Include absorption/desorption rates and temperature requirements. Missing context makes even impressive numbers meaningless.

Fuel cell research needs power density, voltage, and durability metrics compared to commercial systems. A new membrane that operates at higher temperature means nothing without comparing proton conductivity, chemical stability, and cost projections against Nafion or other established materials.

Durability and Economic Reality Checks

Short-term laboratory results aren't sufficient for IJHE publication. Editors increasingly require cycling stability data, degradation analysis, and long-term performance projections. Peak performance numbers from pristine samples don't predict real-world viability if materials degrade quickly under operating conditions.

Cycling stability requirements vary by application. Fuel cell catalysts need thousands of voltage cycles. Hydrogen storage materials need hundreds of absorption/desorption cycles. Electrolyzers need continuous operation data over extended periods. Your stability testing should match realistic operating scenarios, not convenient laboratory conditions.

Economic feasibility discussion doesn't require detailed cost modeling, but it should acknowledge commercial reality. Address material costs, processing complexity, and scalability challenges honestly. If your approach uses expensive rare metals, discuss whether performance improvements justify higher costs or suggest pathways to cost reduction.

Manufacturing scalability considerations matter for editorial evaluation. Laboratory synthesis methods that can't scale to industrial production limit commercial potential. Discuss manufacturing requirements, processing conditions, and potential production volumes. Even early-stage research should consider how laboratory procedures might translate to larger scale.

Cost comparison context helps editors evaluate commercial potential. If existing hydrogen storage costs $10/kg capacity, mention whether your approach could achieve competitive costs at scale. You don't need precise numbers, but you should demonstrate awareness of economic benchmarks.

Submit If... Think Twice If...

Submit to IJHE if your research directly addresses hydrogen energy systems with clear application pathways. Your work should fit these scenarios: developing catalysts for electrolyzers or fuel cells with performance benchmarking, creating hydrogen storage materials with capacity and kinetics data, improving hydrogen production processes with efficiency comparisons, or advancing fuel cell components with durability testing.

Submit if you can connect fundamental research to energy device performance. Materials characterization becomes relevant when linked to storage capacity, reaction kinetics studies matter when applied to catalyst design, and computational modeling helps when validated against experimental energy metrics.

Think twice if your work involves hydrogen chemistry without energy context. Pure catalysis research, hydrogen bonding studies, or reaction mechanism investigations might fit better in chemistry journals unless you clearly connect findings to energy applications. Similarly, materials research that mentions "potential fuel cell applications" without demonstrating energy relevance won't survive editorial screening.

Consider Journal of Power Sources for electrochemical energy research, Applied Energy for broader energy systems work, or Energy Storage Materials for storage-focused research if your hydrogen connection feels weak. These alternatives might better match your research scope and increase acceptance probability.

Common Desk Rejection Triggers at IJHE

Materials science papers with weak energy connections get rejected quickly. Examples include metal-organic framework synthesis without storage performance data, catalyst characterization without electrochemical testing, and hydrogen-containing compound studies without energy device relevance.

Performance claims without state-of-the-art comparison trigger desk rejection. Editors reject papers that report "excellent hydrogen evolution activity" without comparing to platinum benchmarks, "high storage capacity" without hydride or compressed hydrogen context, or "efficient fuel cell performance" without commercial system comparison.

Missing durability data for energy devices causes rejection. Short-term testing over hours or days doesn't demonstrate commercial viability for systems requiring years of operation. Editors expect cycling data, degradation analysis, and stability projections appropriate for intended applications.