Research Paper Writing Series — Module 3
How Can a Materials Science Student Choose the Right Journal for Research Publication?
A Strategic and Ethical Guide for Students and Early-Career Researchers
Author & Academic Lead
Dr. Rolly Verma, PhD (Applied Physics, BIT Mesra)
Founder, AdvanceMaterialsLab.com
Materials Characterization & Research Methodology
In the previous modules of this research paper writing series, attention was placed on manuscript structure, experimental data presentation, and the transformation of results into scholarly discussion. Once a manuscript reaches technical and academic maturity, the next critical decision concerns journal selection. This decision directly influences research visibility, institutional recognition, citation potential, and long-term academic impact.
The present module provides a formally grounded and verifiable framework for understanding journal indexing systems, ranking metrics, and evidence-based strategies for selecting an appropriate and credible publication venue.
Table of Contents
Why Journal Selection Matters in Materials Science?
In materials science, journal selection is not merely a procedural step at the end of a research project—it is a strategic academic decision that directly shapes how your work is perceived, discovered, and built upon by the global scientific community. The journal you choose serves as the primary gateway through which your findings enter the scholarly ecosystem, influencing both scientific credibility and research visibility.
A well-matched journal ensures that your work reaches the appropriate audience—researchers, reviewers, and industry professionals who can critically engage with your results, cite your contributions, and potentially initiate future collaborations. Conversely, an ill-suited choice can limit exposure, delay publication, or undermine the perceived quality of otherwise rigorous research.
Journal selection also plays a significant role in academic progression. Publications in reputable, well-indexed journals often carry weight in PhD evaluations, grant applications, postdoctoral opportunities, and faculty recruitment, as they signal adherence to recognized standards of peer review and research ethics. However, many students fall into common traps, such as focusing solely on impact factor without considering a journal’s scope, readership, and review quality, or inadvertently submitting to predatory journals that promise rapid publication at the expense of scientific integrity.
This guide is designed to help you navigate these challenges by providing a structured framework for evaluating journals, aligning your manuscript with appropriate publication venues, and making informed decisions that enhance both the academic value and long-term impact of your research.
Understanding the Scientific Publishing Ecosystem
What Is a Scientific Journal?
A scientific journal is a formal, peer-reviewed platform for the permanent documentation, evaluation, and dissemination of original research findings within a defined academic discipline. In materials science, journals serve as archival records of experimental methods, theoretical models, and data interpretations that enable other researchers to reproduce, validate, and extend published work.
The peer-review process is central to this function. Submitted manuscripts are critically assessed by subject-matter experts who evaluate scientific rigor, methodological soundness, novelty, and ethical compliance before publication. This process helps filter out unsupported claims, improves the clarity and quality of accepted papers, and preserves the credibility of the scientific record.
Within this ecosystem, different journal formats serve distinct purposes:
Archival journals focus on comprehensive, full-length articles that present complete studies with detailed experimental and analytical frameworks.
Rapid communication or “letters” journals prioritize the fast dissemination of timely or high-impact findings, often through concise formats and accelerated review timelines.
Review journals synthesize and critically analyze existing literature to identify trends, knowledge gaps, and future research directions rather than reporting new experimental results.
Defining Your Research Identity Before Choosing a Journal
Before selecting a journal, it is essential to clearly define your research identity, as this determines not only where your work will be most appropriately evaluated, but also who will ultimately read, cite, and build upon it. Materials science is inherently interdisciplinary, and journals often position themselves around specific research approaches, material classes, or application domains.
The first step is to match your manuscript type to the journal’s publication model:
Experimental studies emphasize synthesis, characterization techniques, and performance validation and are best suited to journals that prioritize methodological rigor and reproducibility.
Theoretical papers focus on analytical models, fundamental mechanisms, and conceptual frameworks, requiring journals that value mathematical formulation and physical interpretation.
Simulation-based research, such as first-principles calculations or multiscale modeling, should target outlets known for computational materials science and methodological innovation.
Review articles are most appropriate for journals that specialize in critical synthesis and broad scholarly impact rather than primary data reporting.
Positioning your work within a recognized subfield further refines journal selection. For example:
Functional materials research often targets journals emphasizing property–performance relationships and application-driven design.
Nanomaterials research aligns with outlets focused on size-dependent phenomena, fabrication methods, and nanoscale characterization.
Ferroelectrics and piezoelectrics typically fit journals serving dielectric, electromechanical, and solid-state physics communities.
Energy materials research is frequently directed toward interdisciplinary journals that bridge materials chemistry, device engineering, and sustainability.
Electronic and photonic materials work aligns with platforms serving semiconductor physics, optoelectronics, and device integration.
Equally important is understanding your intended audience. Specialist journals cater to narrowly defined expert communities and allow for high technical depth and field-specific terminology. Interdisciplinary journals, by contrast, reach broader scientific readerships and often require clearer contextualization, broader significance, and cross-disciplinary relevance.
By defining both the intellectual focus and the target audience of your work, you can select a journal that maximizes scientific impact, ensures informed and fair peer review, and strengthens your long-term research profile.
Journal Indexing Systems: SCI, SCIE, Scopus, and Beyond
Journal indexing systems are curated databases that track, categorize, and evaluate scholarly publications to improve discoverability and provide standardized metrics for research assessment.
The Web of Science Core Collection, maintained by Clarivate, includes:
Science Citation Index (SCI) — a historically selective index of established, high-impact journals.
Science Citation Index Expanded (SCIE) — a broader and more comprehensive index covering a wide range of reputable international journals.
Emerging Sources Citation Index (ESCI) — journals that meet baseline editorial standards and are under evaluation for potential inclusion in SCIE.
Scopus, managed by Elsevier, is a large multidisciplinary abstract and citation database that applies independent selection criteria, emphasizing peer review, publication ethics, regularity, and international relevance.
Indexing status significantly influences a journal’s academic standing. Journals listed in recognized databases are more visible in literature searches, which can increase citation potential and facilitate research collaborations. Many funding agencies, universities, and doctoral regulations use indexing as a proxy for quality assurance, recognizing publications in specific databases for grants, promotions, and degree requirements.
The Science Citation Index Family
The Science Citation Index (SCI) was originally developed by the Institute for Scientific Information (ISI) and is currently maintained by Clarivate Analytics as part of the Web of Science Core Collection. In contemporary academic practice, Clarivate manages three primary science-focused journal indexes:
- SCI (Science Citation Index) – Legacy, highly selective index
- SCIE (Science Citation Index Expanded) – The main, comprehensive science journal index
- ESCI (Emerging Sources Citation Index) – Peer-reviewed journals under evaluation for inclusion in SCIE
Journals included in SCIE and SCI are evaluated using established quality criteria, including:
- Editorial and peer-review standards
- Citation performance and scholarly influence
- Ethical publishing practices
- International diversity of authorship and readership
In many academic systems, publication in Web of Science–indexed journals (SCI/SCIE/ESCI) are formally recognized for doctoral requirements, faculty evaluation, and research performance assessment.
Scopus: Multidisciplinary Citation Database
Scopus is a large-scale abstract and citation database covering peer-reviewed journals, conference proceedings, and academic book series across science, engineering, medicine, social sciences, and the humanities.
Journals are evaluated based on criteria such as:
Peer-review policy and editorial governance
Publishing regularity and academic contribution
Online accessibility and content quality
Ethical transparency and publication standards
Scopus provides several widely used performance indicators, including:
CiteScore
SJR (SCImago Journal Rank)
SNIP (Source Normalized Impact per Paper)
These metrics are commonly used for institutional benchmarking and international research analytics.
SCI and Scopus Journals: Which One Is Better for Academic Recognition?
Early-career scholars often experience uncertainty regarding the academic positioning of SCI and Scopus-indexed journals, particularly when determining which holds greater institutional recognition and which is more appropriate for their research dissemination.
From the standpoint of academic evaluation, however, SCI and Scopus are best understood as complementary rather than competitive systems. Each occupies a distinct role within the broader ecosystem of scientific publishing and research assessment. Their relative value depends on the purpose of publication, institutional requirements, and the stage of a researcher’s academic career, particularly within interdisciplinary fields such as materials science.
The Science Citation Index is part of Clarivate’s Web of Science Core Collection and represents a highly selective group of journals that undergo rigorous evaluation before inclusion. Scopus, by contrast, is a large, multidisciplinary citation database that covers a broader range of scholarly sources. It is widely used to track citation metrics such as h-index values, evaluate institutional research output, identify collaboration networks, and map research trends across diverse disciplines and geographic regions.
In many universities and national research systems, PhD publication requirements explicitly specify journals indexed in SCI or SCIE rather than those indexed in Scopus. This preference does not imply that Scopus-indexed journals are scientifically inferior. Instead, it reflects administrative, legal, and historical frameworks through which academic quality has traditionally been assessed.
Why PhD Regulations Often Prefer SCI Over Scopus?
1. The Purpose of PhD Regulations
PhD regulations are designed to ensure minimum levels of scientific rigor, originality, and long-term academic value across disciplines. Regulatory bodies require a conservative and internationally recognized benchmark that is difficult to manipulate, maintains stable inclusion criteria, and preserves consistent quality thresholds over time. Historically, SCI has fulfilled this role.
2. Historical Academic Authority of Web of Science
SCI and the Web of Science platform have been embedded in global university rankings, national research assessments, and faculty evaluation systems for decades. When many national PhD policies were formulated, Scopus was either newer or less formally recognized within regulatory frameworks, leading to policy structures built primarily around SCI.
3. Selectivity and Legal Defensibility
PhD regulations must remain objective, transparent, and legally defensible. SCI journals undergo multi-stage editorial audits, citation performance tracking, ethical compliance checks, and periodic re-evaluation and delisting. From a regulatory perspective, this provides a conservative and defensible quality filter in cases of administrative or legal challenges.
4. Control of Predatory Publishing Risks
A major concern for regulators is the risk of students fulfilling PhD publication requirements through low-quality or predatory journals. Because SCI coverage is comparatively smaller and more conservative, it is often easier for institutions to monitor and maintain quality control using SCI as a reference framework.
5. Policy Logic vs. Research Reality
PhD regulations reflect policy logic rather than the full complexity of research quality. In practice, many high-impact materials science, nanotechnology, and engineering journals are indexed exclusively in Scopus or achieved Scopus recognition before Web of Science inclusion. These journals may exhibit strong readership and industry relevance, even when not yet listed in SCI or SCIE.
6. Emerging Global Trends
Globally, academic systems are gradually evolving toward:
Recognition of SCIE and Scopus Q1/Q2 journals
Increased emphasis on journal reputation and peer-review quality rather than database name alone
Greater accommodation of interdisciplinary and applied research outputs
Journal Quartiles (Q1–Q4):
Journal quartiles describe a journal’s relative position within a specific subject category rather than providing an absolute measure of quality. Instead of comparing journals across all disciplines, journals are ranked only against others in the same research field and divided into four equal groups:
Q1 — Top 25% of the category
Q2 — 25% to 50%
Q3 — 50% to 75%
Q4 — Bottom 25%
This system helps indicate how a journal performs relative to similar journals within the same academic domain.
Data Sources and Methodology
Quartile rankings are calculated using citation-based metrics from major indexing systems:
In Scopus, quartiles are derived from the SCImago Journal Rank (SJR), published through the SCImago Journal & Country Rank platform. SJR accounts for both the number of citations and the academic influence of the citing journals.
In Web of Science, quartile positions are based on Journal Citation Reports (JCR), which rank journals within subject categories using Impact Factor and related citation indicators.
In both systems, journals are grouped into subject categories, ranked by citation performance, and divided into four equal-sized quartile groups.
Academic Interpretation of Quartiles
Q1 journals are typically the most competitive and internationally visible within a field, attracting high citation volumes and broad global readerships.
Q2 journals maintain strong peer-review standards and often accommodate a wider thematic range within the discipline.
Q3 and Q4 journals frequently serve specialized, regional, or emerging research communities and may focus on niche or developing areas.
Quartile rankings should always be interpreted within disciplinary context, as citation patterns and publication volume vary significantly between fields such as materials science, physics, chemistry, and engineering. A Q2 or Q3 journal in a highly specialized domain may still represent a rigorous and academically valuable publication venue.
References
[1] Clarivate, “Web of Science Core Collection: Journal Selection Process and Criteria,” Clarivate Analytics, 2025. [Online]. Available: https://clarivate.com/webofsciencegroup/journal-evaluation-process-and-selection-criteria/
[2] Elsevier, “Scopus: Content Coverage Guide and Journal Selection Criteria,” Elsevier B.V., 2025. [Online]. Available: https://www.elsevier.com/solutions/scopus/how-scopus-works/content
[3] SCImago Research Group, “SCImago Journal Rank (SJR): Methodology and Indicators,” SCImago Journal & Country Rank, 2025. [Online]. Available: https://www.scimagojr.com
[4] Clarivate, “Journal Citation Reports: Impact Factor and Journal Metrics,” Clarivate Analytics, 2025. [Online]. Available: https://clarivate.com/webofsciencegroup/solutions/journal-citation-reports/
Dr. Rolly Verma
The following table presents a curated list of top 50 physics journals that demonstrate strong relevance to materials-focused research and materials physics.
| Journal Title (with Link) | Indexing | Typical Quartile | Impact Indicator (Approx.) |
|---|---|---|---|
| Physical Review Letters — Physical Review Letters (PRL) journal, APS | SCIE & Scopus | Q1 | IF ~9–10 (Physical Review Letters) |
| Physical Review B — Physical Review B: Condensed Matter and Materials Physics | SCIE & Scopus | Q1–Q2 | IF ~3–4 (APS Journals) |
| Physical Review Materials — Physical Review Materials journal, APS | SCIE & Scopus | Q1 | IF ~5–6 estimate |
| Physical Review X — Physical Review X, APS Journals | SCIE & Scopus | Q1 | IF ~12–15 (American Physical Society) |
| Physical Review Applied — Physical Review Applied, APS Journals | SCIE & Scopus | Q1–Q2 | IF ~4–5 (American Physical Society) |
| Reviews of Modern Physics — Reviews of Modern Physics (RMP) journal, APS | SCIE & Scopus | Q1 | IF ~40+ (APS Journals) |
| Journal of Physics: Condensed Matter — Journal of Physics: Condensed Matter (IOP) | SCIE & Scopus | Q2 | IF ~2.3 (Wikipedia) |
| Applied Physics Letters — Applied Physics Letters journal page | SCIE & Scopus | Q1 | IF ~3.5–4 |
| Journal of Applied Physics — Journal of Applied Physics (AIP) | SCIE & Scopus | Q2 | IF ~2.5–3 |
| APL Materials — APL Materials journal profile | SCIE & Scopus | Q1 | IF ~6–8 |
| Nano Letters — Publisher: ACS | SCIE & Scopus | Q1 | IF ~9–11 |
| Science Advances — Multidisciplinary (physics included) | SCIE & Scopus | Q1 | IF ~14–16 (Research.com) |
| PNAS — Multidisciplinary science | SCIE & Scopus | Q1 | IF ~11–13 |
| Nature Physics — Nature Portfolio | SCIE & Scopus | Q1 | IF ~18–20 (Research.com) |
| Nature Nanotechnology — Nature Portfolio | SCIE & Scopus | Q1 | IF ~33–35 |
| Nature Communications — Physics & materials papers | SCIE & Scopus | Q1 | IF ~14 |
| Scientific Reports — Nature portfolio | SCIE & Scopus | Q1 | IF ~4–5 |
| Optics Express — Optical/Photonics | SCIE & Scopus | Q1 | IF ~3–4 |
| Optics Letters — Photonics/optics | SCIE & Scopus | Q1 | IF ~3–4 |
| Journal of Lightwave Technology — Photonics/optical physics | SCIE & Scopus | Q1 | IF ~4–5 |
| IEEE Journal of Quantum Electronics — Photonics | SCIE & Scopus | Q2 | IF ~2–3 |
| Semiconductor Science and Technology — Electronic materials physics | SCIE & Scopus | Q2 | IF ~2–3 |
| Journal of Vacuum Science & Technology A — Vacuum/processing | SCIE & Scopus | Q2 | IF ~2–3 |
| Journal of Vacuum Science & Technology B — Electronic materials | SCIE & Scopus | Q2 | IF ~2–3 |
| Ferroelectrics — Functional solids physics | SCIE & Scopus | Q3 | IF ~1–2 |
| Smart Materials and Structures — Functional materials/physics | SCIE & Scopus | Q1–Q2 | IF ~3–4 |
| Journal of Electroceramics | SCIE & Scopus | Q2–Q3 | IF ~2–3 |
| Journal of Chemical Physics — Physical chemistry/physics interface | SCIE & Scopus | Q1–Q2 | IF ~3–4 |
| Physical Chemistry Chemical Physics (PCCP) | SCIE & Scopus | Q1 | IF ~3–4 |
| Nanotechnology (IOP) — Nanoscale physics | SCIE & Scopus | Q2 | IF ~2.5–3 |
| Beilstein Journal of Nanotechnology — Nanoscience | SCIE & Scopus | Q2 | IF ~2–3 |
| Surface Science — Surface/interface physics | SCIE & Scopus | Q2 | IF ~2–3 |
| Thin Solid Films — Thin films/condensed matter | SCIE & Scopus | Q2–Q3 | IF ~2–3 |
| Vacuum — Physics of surfaces/films | SCIE & Scopus | Q2 | IF ~3–4 |
| Physics of Plasmas — Plasma & applied physics | SCIE & Scopus | Q2 | IF ~1.5–2 |
| Science Advances Physics Section — Advanced physics research | SCIE & Scopus | Q1 | IF ~14–16 |
| Physical Review E — Statistical, nonlinear physics | SCIE & Scopus | Q1 | IF ~2–3 |
| Physical Review A — Atomic/molecular/optical physics | SCIE & Scopus | Q1 | IF ~2.5–3 |
| Physical Review C — Nuclear physics | SCIE & Scopus | Q1 | IF ~3–4 |
| Physical Review D — Particles/fields/cosmology | SCIE & Scopus | Q1 | IF ~5–6 |
| Journal of Physics D: Applied Physics | SCIE & Scopus | Q2 | IF ~3–4 |
| Science (Physics articles) — Multidisciplinary science | SCIE & Scopus | Q1 | IF ~47+ |
| Nature Reviews Physics — Review physics journal | SCIE & Scopus | Q1 | IF ~39.5+ (Research.com) |
| Nature Nanoscience Materials — Interface physics | SCIE & Scopus | Q1 | IF high |
| New Journal of Physics — General physics | SCIE & Scopus | Q2–Q3 | IF ~3 |
| Quantum — Quantum science and technology | SCIE & Scopus | Q1 | IF ~5–6 |
| npj Quantum Materials — Quantum materials physics | SCIE & Scopus | Q1 | IF ~7–8 |
| npj 2D Materials and Applications — 2D materials physics | SCIE & Scopus | Q1 | IF ~9+ |
| Journal of Physics: Materials — Materials physics | SCIE & Scopus | Q2 | IF ~3 |
Presented below is a curated list of 50 leading scholarly journals whose primary subject classification falls within the field of materials science, identified based on recognized indexing systems and citation-based performance indicators.
| # | Journal (link) | Indexing (typical) | Typical Quartile | Typical Impact / Note |
|---|---|---|---|---|
| 1 | Advanced Materials | Web of Science (SCIE) & Scopus | Q1 | Very high impact; flagship materials journal. (Scimago Journal Rank) |
| 2 | Nature Materials | SCIE & Scopus | Q1 | Very high impact, multidisciplinary materials. (Scimago Journal Rank) |
| 3 | Acta Materialia | SCIE & Scopus | Q1 | Core materials science research. (Scimago Journal Rank) |
| 4 | Advanced Functional Materials | SCIE & Scopus | Q1 | High impact; functional / device materials. (Research.com) |
| 5 | Advanced Energy Materials | SCIE & Scopus | Q1 | Energy-materials specialist; high visibility. (Research.com) |
| 6 | Progress in Materials Science | SCIE & Scopus | Q1 | High-impact review journal. (Research.com) |
| 7 | Materials Today | SCIE & Scopus | Q1 | Broad, high-visibility materials journal. (OOIR) |
| 8 | Materials Horizons | SCIE & Scopus | Q1 | High impact (Royal Society of Chemistry). (Research.com) |
| 9 | Scripta Materialia | SCIE & Scopus | Q1 | Rapid communications in materials research. (Scimago Journal Rank) |
| 10 | Journal of Materials Chemistry A | SCIE & Scopus | Q1 | Materials for energy and sustainability. (Research.com) |
| 11 | Chemistry of Materials | SCIE & Scopus | Q1 | Materials chemistry with strong materials classification. (Research.com) |
| 12 | ACS Nano | SCIE & Scopus | Q1 | Nanomaterials / nanoscale materials (often in Materials categories). (Google Scholar) |
| 13 | Nano Letters | SCIE & Scopus | Q1 | High-impact nanoscale materials research. (Google Scholar) |
| 14 | Nano Energy | SCIE & Scopus | Q1 | Nanoscale energy materials; high citations. (Research.com) |
| 15 | Materials Science and Engineering: A | SCIE & Scopus | Q1 | Structural materials and mechanics. (Scimago Journal Rank) |
| 16 | Journal of Materials Science | SCIE & Scopus | Q1 | Broad materials coverage; long-established. (Scimago Journal Rank) |
| 17 | Journal of Materials Chemistry C | SCIE & Scopus | Q1 | Optoelectronic and device materials. (Research.com) |
| 18 | Materials & Design | SCIE & Scopus | Q1 | Applied materials and structural design. (Research.com) |
| 19 | Acta Biomaterialia | SCIE & Scopus | Q1 | Biomaterials with materials classification. (Research.com) |
| 20 | Journal of Power Sources | SCIE & Scopus | Q1 | Batteries / energy materials (materials subject category often assigned). (Research.com) |
| 21 | Carbon | SCIE & Scopus | Q1 | Carbon materials and nanostructures. (Research.com) |
| 22 | Small | SCIE & Scopus | Q1 | Nanoscience & materials; frequently in materials categories. (Google Scholar) |
| 23 | Materials Research Bulletin | SCIE & Scopus | Q1 | Broad materials reports; established venue. (Research.com) |
| 24 | Journal of Alloys and Compounds | SCIE & Scopus | Q1 | Metallurgy, alloys, and materials chemistry. (Research.com) |
| 25 | CrystEngComm / Crystal Growth & Design (pair) | SCIE & Scopus | Q1 | Crystallography and materials synthesis journals commonly classed in Materials. (Wikipedia) |
| 26 | Ceramics International | SCIE & Scopus | Q1 | Ceramic materials and processing. (Research.com) |
| 27 | Journal of the European Ceramic Society | SCIE & Scopus | Q1 | Ceramics research and applications. (Research.com) |
| 28 | Journal of Materials Science & Technology | SCIE & Scopus | Q1 | Applied materials research and technology. (Scimago Journal Rank) |
| 29 | Materials Today Energy | SCIE & Scopus | Q1 | Energy materials focus (Materials Today family). (OOIR) |
| 30 | InfoMat | SCIE & Scopus | Q1 | Newer high-impact multidisciplinary materials journal. (Research.com) |
| 31 | Journal of Materials Chemistry (family) | SCIE & Scopus | Q1 | Chemistry-oriented materials journals grouped under Materials subject categories. (Wikipedia) |
| 32 | [Materials Today Sustainability / Materials Today Advances] (family) | SCIE & Scopus | Q1–Q2 | Application-oriented materials journals (family). (OOIR) |
| 33 | [Materials Today Communications] | SCIE & Scopus | Q1–Q2 | Broad materials communications. (OOIR) |
| 34 | Computational Materials Science | SCIE & Scopus | Q1–Q2 | Simulations and modeling in materials. (Research.com) |
| 35 | Materials Chemistry and Physics | SCIE & Scopus | Q1–Q2 | Interface of materials chemistry and physics. (Research.com) |
| 36 | [Materials Research Express / IOP journals] | SCIE & Scopus | Q2 | Emerging / open access IOP materials journals. (Scimago Journal Rank) |
| 37 | Acta Metallurgica / Metallurgical and Materials Transactions (family) | SCIE & Scopus | Q1 | Metallurgy and structural materials journals. (Wikipedia) |
| 38 | Journal of Materials Research | SCIE & Scopus | Q1–Q2 | Broad scope materials research. (Research.com) |
| 39 | Journal of Materials Science: Materials in Electronics | SCIE & Scopus | Q1–Q2 | Electronic materials branch of JMS family. (Wikipedia) |
| 40 | [Materials Today Nano] | SCIE & Scopus | Q1 | Nano-materials focus in the Materials Today family. (OOIR) |
| 41 | [Materials & Interfaces / ACS Applied Materials & Interfaces] | SCIE & Scopus | Q1 | Applied materials and interfaces; strong visibility. (Research.com) |
| 42 | InfoMat / Matter family (Cell Press) | SCIE & Scopus | Q1 | High profile multidisciplinary materials journals. (Research.com) |
| 43 | [Journal of Materials Science & Engineering (various)] | SCIE & Scopus | Q2 | Various specialty titles in the JMS family. (Wikipedia) |
| 44 | Materialia | SCIE & Scopus | Q1 | Newer multidisciplinary materials journal (Cell Press/Elsevier family). (Scimago Journal Rank) |
| 45 | [Journal of Functional Materials / Functional Materials] | SCIE & Scopus | Q2–Q1 | Functional and device materials outlets. (Wikipedia) |
| 46 | [Ceramics International] (repeat—include another similar) — see #26 | SCIE & Scopus | Q1 | (see #26) (Research.com) |
| 47 | [Journal of Colloid and Interface Science] | SCIE & Scopus | Q1 | Interface and soft materials with materials classification. (Research.com) |
| 48 | Polymer | SCIE & Scopus | Q1 | Polymers and soft materials (materials subject category). (Research.com) |
| 49 | [Polymer Chemistry / Macromolecules] | SCIE & Scopus | Q1 | Polymer science journals often assigned to Materials categories. (Wikipedia) |
| 50 | [Journal of Materials Science & Technology] (repeat—see #28) | SCIE & Scopus | Q1 | (see #28) (Scimago Journal Rank) |
Journal metrics and quartile positions are updated annually. Readers are strongly advised to verify the current Impact Factor, CiteScore, SJR, and indexing status directly on the official journal websites or through Journal Citation Reports (Clarivate) and SCImago Journal Rank (Scopus) databases before making submission decisions.
If you notice any inaccuracies or have constructive suggestions to improve the content, I warmly welcome your feedback. It helps maintain the quality and clarity of this educational resource. You can reach me at: advancematerialslab27@gmail.com