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Journal of Precision Mechatronics and Intelligent Control

JPMICPeer-reviewedEnglish

Description

The Journal of Precision Mechatronics and Intelligent Control (JPMIC) is an international, peer-reviewed scholarly journal dedicated to advancing scientific knowledge, engineering methodologies, and technological innovations in precision mechatronics, high-performance motion control, servo systems, intelligent control, precision positioning, and integrated electromechanical technologies.

The journal provides an interdisciplinary platform for researchers, academics, engineers, and industry professionals to disseminate original research addressing the modelling, design, analysis, optimization, implementation, and experimental validation of precision mechatronic systems and advanced motion-control technologies.

GLOBAL LITERACY PUBLISHING JPMIC Journal ofPrecisionMechatronics andIntelligentControl Peer-reviewed · International

JPMIC emphasizes rigorous theoretical development, dynamic system modelling, advanced feedback and feedforward control, intelligent and adaptive control strategies, precision sensing, electromechanical and electro-pneumatic actuation, disturbance compensation, and real-time control implementation. Particular attention is given to measurable improvements in positioning accuracy, trajectory tracking, repeatability, stability, robustness, energy efficiency, and dynamic response.

The journal welcomes research integrating mechanical engineering, electrical engineering, control engineering, robotics, instrumentation, computational intelligence, and advanced manufacturing, provided that the primary scientific contribution concerns precision motion, mechatronic dynamics, servo performance, high-accuracy positioning, or intelligent control of electromechanical systems.

JPMIC particularly encourages research on ultra-precision positioning stages, high-performance servo drives, nonlinear motion control, multi-axis coordinated motion, micro- and nano-positioning, vibration suppression, intelligent actuators, industrial robotic motion, sensor-based feedback control, and precision manufacturing equipment.

The journal also welcomes selected contributions from industrial automation and intelligent control when the research demonstrates a substantial advancement in motion-control accuracy, servo-system performance, dynamic stability, disturbance rejection, or the integration of intelligent control into precision mechatronic machinery.

JPMIC aims to bridge fundamental research in precision mechatronics and control engineering with experimentally validated applications in advanced manufacturing, robotics, semiconductor equipment, biomedical devices, scientific instrumentation, and other high-precision engineering environments.

Preparing for submissions. Manuscripts will be evaluated on scientific contribution, validation and fit with the journal. See Submissions.

Research areas include

  • Precision Mechatronic System Design
  • Servo Systems and High-Performance Motion Control
  • Intelligent and Adaptive Motion Control
  • Precision Positioning and Micro-/Nano-Motion Systems
  • Mechatronic Dynamics and System Identification
  • Advanced Control Methods for Precision Systems
  • Precision Actuators and Drive Technologies
  • Precision Sensing, Measurement, and Metrology
  • Vibration Suppression and Disturbance Compensation
  • Precision Robotics and Robotic Motion Systems
  • + 6 more areas »

Latest Articles

No articles have been published in JPMIC yet. The first issue is in preparation.

View All Issues

Announcements

Call for Papers — JPMIC

Journal of Precision Mechatronics and Intelligent Control invites original research articles, reviews, methodological and technical articles, and short communications for its first volume.

Focus and Scope

The Journal of Precision Mechatronics and Intelligent Control (JPMIC) is an international, peer-reviewed scholarly journal dedicated to advancing scientific knowledge, engineering methodologies, and technological innovations in precision mechatronics, high-performance motion control, servo systems, intelligent control, precision positioning, and integrated electromechanical technologies.

The journal provides an interdisciplinary platform for researchers, academics, engineers, and industry professionals to disseminate original research addressing the modelling, design, analysis, optimization, implementation, and experimental validation of precision mechatronic systems and advanced motion-control technologies.

JPMIC emphasizes rigorous theoretical development, dynamic system modelling, advanced feedback and feedforward control, intelligent and adaptive control strategies, precision sensing, electromechanical and electro-pneumatic actuation, disturbance compensation, and real-time control implementation. Particular attention is given to measurable improvements in positioning accuracy, trajectory tracking, repeatability, stability, robustness, energy efficiency, and dynamic response.

The journal welcomes research integrating mechanical engineering, electrical engineering, control engineering, robotics, instrumentation, computational intelligence, and advanced manufacturing, provided that the primary scientific contribution concerns precision motion, mechatronic dynamics, servo performance, high-accuracy positioning, or intelligent control of electromechanical systems.

JPMIC particularly encourages research on ultra-precision positioning stages, high-performance servo drives, nonlinear motion control, multi-axis coordinated motion, micro- and nano-positioning, vibration suppression, intelligent actuators, industrial robotic motion, sensor-based feedback control, and precision manufacturing equipment.

The journal also welcomes selected contributions from industrial automation and intelligent control when the research demonstrates a substantial advancement in motion-control accuracy, servo-system performance, dynamic stability, disturbance rejection, or the integration of intelligent control into precision mechatronic machinery.

JPMIC aims to bridge fundamental research in precision mechatronics and control engineering with experimentally validated applications in advanced manufacturing, robotics, semiconductor equipment, biomedical devices, scientific instrumentation, and other high-precision engineering environments.

Detailed Scope

1Precision Mechatronic System Design
  • Design and modelling of precision mechatronic systems.
  • Integrated mechanical, electrical, and control system design.
  • High-accuracy electromechanical mechanisms.
  • Precision positioning stages and motion platforms.
  • Flexure-based mechanisms and compliant systems.
  • Precision mechanical transmission and drive mechanisms.
  • Mechatronic system integration and optimization.
  • Mechanical–electrical coupling in precision equipment.
  • Design for repeatability, accuracy, and dynamic stability.
  • Performance evaluation of precision mechatronic devices.
2Servo Systems and High-Performance Motion Control
  • Servo motor control and advanced servo drive systems.
  • Position, velocity, force, and torque control.
  • High-bandwidth and high-accuracy motion control.
  • Precision trajectory tracking and contouring control.
  • Feedforward and feedback motion control.
  • Multi-axis coordinated and synchronized motion.
  • Servo tuning, parameter optimization, and auto-tuning.
  • Friction, backlash, and nonlinear motion compensation.
  • Motion control under dynamic disturbances.
  • Industrial motion-control platforms for precision machinery.
  • Cascaded and multi-loop servo control architectures.
  • High-performance motion control of electromechanical and electro-pneumatic systems.
  • Experimental evaluation of servo accuracy, tracking error, settling time, and dynamic response.
3Intelligent and Adaptive Motion Control
  • Adaptive control for precision motion systems.
  • Intelligent servo and motion-control architectures.
  • Neural network-based motion control.
  • Fuzzy and hybrid intelligent control.
  • Reinforcement learning for precision positioning.
  • Learning-based disturbance compensation.
  • Iterative learning control and repetitive control.
  • Data-driven motion controller design.
  • Intelligent controller parameter adaptation.
  • Online identification and adaptive servo tuning.
  • Uncertainty-aware and learning-based motion control.
  • Intelligent control for precision industrial machinery.
Artificial intelligence-based submissions must demonstrate substantive improvements in motion accuracy, tracking performance, dynamic response, robustness, or precision mechatronic system behavior rather than merely applying general-purpose algorithms.
4Precision Positioning and Micro-/Nano-Motion Systems
  • Micro-positioning and nano-positioning technologies.
  • Piezoelectric positioning systems.
  • Precision linear and rotary stages.
  • High-resolution motion control.
  • Ultra-precision positioning mechanisms.
  • Precision alignment systems.
  • Multi-degree-of-freedom positioning.
  • Positioning error modelling and compensation.
  • Precision positioning repeatability and resolution.
  • Dynamic performance of micro- and nano-motion systems.
  • Hybrid electric-pneumatic precision positioning stages.
  • Thermal drift and mechanical compliance compensation.
5Mechatronic Dynamics and System Identification
  • Dynamic modelling of electromechanical systems.
  • Nonlinear dynamics of precision mechanisms.
  • System identification for motion control.
  • Parameter estimation in mechatronic systems.
  • Coupled mechanical and electrical dynamics.
  • Resonance and vibration modelling.
  • Frequency response analysis.
  • Dynamic uncertainty and model validation.
  • Reduced-order modelling for real-time control.
  • Model-based compensation of mechatronic nonlinearities.
  • Dynamic modelling of servo-driven machinery.
  • Identification of actuator and transmission dynamics.
6Advanced Control Methods for Precision Systems
  • Model predictive control for precision motion systems.
  • Robust control and disturbance rejection.
  • Optimal control of precision mechatronic devices.
  • Sliding mode control for precision positioning.
  • Nonlinear control of electromechanical systems.
  • Observer-based control and disturbance estimation.
  • State estimation and feedback design.
  • Fractional-order control.
  • Multi-input and multi-output precision control.
  • Stability and robustness analysis of motion controllers.
  • Adaptive and gain-scheduled motion control.
  • Constrained control for high-performance servo systems.
  • Data-driven and learning-based precision control.
  • Hybrid feedback–feedforward control architectures.
Submissions emphasizing general control theory must demonstrate clear relevance to precision motion, servo dynamics, electromechanical positioning, or experimentally validated mechatronic control applications.
7Precision Actuators and Drive Technologies
  • Piezoelectric actuators and precision drives.
  • Voice coil actuators.
  • Electromagnetic precision actuators.
  • Linear motors and direct-drive mechanisms.
  • Micro-actuators and compact electromechanical drives.
  • Actuator hysteresis and nonlinear compensation.
  • Actuator dynamics and precision control.
  • High-resolution actuation systems.
  • Hybrid actuation mechanisms.
  • Electro-pneumatic and electrohydraulic precision actuation.
  • Pressure and force control for precision positioning.
  • Energy-efficient precision actuation.
  • Performance characterization of precision actuators.
Studies primarily addressing general industrial actuator hardware, fluid power equipment, or manufacturing machinery without a precision motion or high-performance control contribution fall outside the principal scope of JPMIC.
8Precision Sensing, Measurement, and Metrology
  • High-resolution position and displacement sensing.
  • Optical encoders and precision measurement.
  • Laser displacement measurement.
  • Capacitive and inductive precision sensors.
  • Sensor fusion for precision motion.
  • Calibration of precision positioning systems.
  • Measurement uncertainty and traceability.
  • Precision error identification and compensation.
  • Real-time measurement for closed-loop control.
  • Experimental metrology of mechatronic performance.
  • High-speed feedback sensing for servo systems.
  • Sensor-based estimation of motion disturbances.
  • Integrated measurement and motion-control systems.
9Vibration Suppression and Disturbance Compensation
  • Active vibration control.
  • Passive and hybrid vibration isolation.
  • Structural resonance suppression.
  • Disturbance observer-based control.
  • Friction compensation in precision motion systems.
  • Backlash and compliance compensation.
  • Thermal drift compensation.
  • External disturbance rejection.
  • Vibration-induced positioning error analysis.
  • High-precision motion under uncertain operating conditions.
  • Servo vibration suppression and resonance compensation.
  • Precision machinery disturbance modelling.
  • Robust motion control under variable mechanical loads.
10Precision Robotics and Robotic Motion Systems
  • Precision robotic manipulators.
  • High-accuracy robot positioning.
  • Robot calibration and error compensation.
  • Precision trajectory planning.
  • Robotic motion control and tracking.
  • Parallel kinematic mechanisms.
  • Precision robotic assembly.
  • Micro-robotic manipulation.
  • Force and position control in precision robotics.
  • Dynamic performance of precision robotic systems.
  • Multi-axis robotic motion synchronization.
  • Intelligent robotic servo control.
  • Sensor-based precision robotic motion.
  • Collaborative robotic motion requiring high accuracy and repeatability.
General robotics applications without substantial contributions to motion accuracy, dynamics, servo performance, or precision control are not the primary focus of JPMIC.
11Embedded and Real-Time Precision Control
  • Real-time controllers for precision motion.
  • FPGA-based servo control.
  • Embedded motion-control systems.
  • Real-time motion planning and execution.
  • High-speed sensor and actuator interfaces.
  • Hardware-in-the-loop precision control.
  • Software-in-the-loop motion-control validation.
  • Low-latency motion-control architectures.
  • Deterministic communication for servo systems.
  • Real-time controller implementation and validation.
  • Computationally efficient precision-control algorithms.
  • Real-time multi-axis motion coordination.
  • Embedded intelligent control for precision machinery.
  • Timing synchronization and latency compensation in servo systems.
Industrial communication studies are considered when their principal contribution concerns deterministic motion control, servo synchronization, or measurable precision-system performance.
12Precision Mechatronics in Advanced Manufacturing
  • Precision machine-tool motion systems.
  • High-accuracy CNC servo control.
  • Precision assembly equipment.
  • Semiconductor manufacturing positioning systems.
  • Precision inspection and measurement equipment.
  • Automated alignment and calibration systems.
  • Ultra-precision machining motion control.
  • Precision motion in additive manufacturing.
  • Intelligent compensation of manufacturing motion errors.
  • Mechatronic performance improvement in manufacturing equipment.
  • Air turbine spindle rotation and motion control.
  • Precision manufacturing machine dynamics.
  • Servo-based machining accuracy improvement.
  • Multi-axis coordinated manufacturing motion.
  • Intelligent motion control for automated production equipment.
Manufacturing studies must demonstrate a substantive contribution to precision machine dynamics, servo control, positioning performance, motion accuracy, or mechatronic integration.
13Precision Mechatronics in Biomedical and Scientific Systems
  • Precision medical robotic systems.
  • Surgical positioning and motion control.
  • Precision rehabilitation devices.
  • Biomedical micro-manipulation.
  • Laboratory automation with high-accuracy motion.
  • Precision microscopy positioning.
  • Scientific instrumentation motion systems.
  • Miniaturized precision mechatronic devices.
  • High-resolution positioning in medical imaging equipment.
  • Intelligent control of precision biomedical mechanisms.
  • Precision actuation in assistive technologies.
  • High-accuracy motion systems for scientific experiments.
14Reliability and Performance of Precision Mechatronic Systems
  • Reliability of servo and positioning systems.
  • Accuracy degradation and drift modelling.
  • Condition monitoring of precision mechanisms.
  • Predictive maintenance of precision equipment.
  • Repeatability and reproducibility assessment.
  • Performance degradation of precision actuators.
  • Thermal and mechanical error compensation.
  • Fault diagnosis in motion-control systems.
  • Reliability-oriented precision system design.
  • Life-cycle performance of precision mechatronic devices.
  • Fault-tolerant servo control.
  • Sensor and actuator fault accommodation.
  • Performance monitoring of precision motion systems.
  • Robust precision operation under component degradation.
15Digital Twins and Computational Intelligence for Precision Systems
  • Digital twins of precision motion systems.
  • Physics-informed modelling of mechatronic dynamics.
  • Surrogate modelling for controller optimization.
  • Machine learning-assisted system identification.
  • Intelligent parameter estimation.
  • Virtual commissioning of precision equipment.
  • Data-driven precision motion prediction.
  • Hybrid physics-based and learning-based servo models.
  • Digital twin-assisted motion controller development.
  • Predictive compensation of positioning errors.
  • Intelligent monitoring of precision machine dynamics.
  • Simulation-based optimization of mechatronic control systems.
Digital twin and computational intelligence studies must establish a direct relationship between the proposed methodology and measurable improvements in precision motion, servo performance, dynamic modelling, or mechatronic system reliability.
16Industrial Motion Automation and Intelligent Servo Integration
  • Industrial motion automation for precision machinery.
  • Intelligent servo integration in automated manufacturing systems.
  • Multi-axis motion synchronization in production equipment.
  • Coordinated motion control of industrial machines.
  • Motion-control architectures for high-precision automation.
  • Sensor-based feedback and intelligent motion monitoring.
  • Real-time trajectory generation and execution.
  • Adaptive motion control under changing operating conditions.
  • High-performance servo control in industrial robotic systems.
  • Precision motion control for automated assembly equipment.
  • Intelligent compensation of mechanical and actuator nonlinearities.
  • Integration of motion controllers, servo drives, and precision sensors.
  • Performance validation of industrial precision-motion systems.
  • Robust and fault-tolerant motion automation.
  • Energy-efficient servo operation in precision manufacturing machinery.
This section incorporates selected research areas from industrial automation and intelligent control while preserving the specialized scientific identity of JPMIC. Research in industrial automation is suitable for JPMIC only when the central contribution concerns motion accuracy, servo performance, precision positioning, dynamic stability, high-performance actuation, or intelligent mechatronic control.

Journal History

Precision Engineering, Mechatronics, and Intelligent Control

The Journal of Precision Mechatronics and Intelligent Control (JPMIC) is being developed for its planned 2027 launch by Global Literacy Publishing (GLP), Indonesia, to foster international research in precision mechatronics, intelligent control, advanced sensing, electromechanical systems, robotics, and high-performance engineering applications.

The journal aims to advance fundamental and applied research through rigorous scientific evaluation and international scholarly collaboration. Its inaugural issue is planned for 2027.

Publisher: Global Literacy Publishing (GLP), Indonesia.

Peer review: Double-anonymous peer review · License: CC BY 4.0 · Frequency: Biannual.

Editorial Board

Editor-in-Chief

TK
Prof. Tomonori KatoEditor-in-ChiefHosei University, JapanProposed — subject to confirmation

International Editorial Advisors

KI
Prof. Kazuyuki ItoInternational Editorial AdvisorHosei University, JapanProposed — subject to confirmation
KE
Prof. Kei EguchiInternational Editorial AdvisorFukuoka Institute of Technology, JapanProposed — subject to confirmation
NA
Assoc. Prof. Ir. Dr. Nor Azlan OthmanInternational Editorial AdvisorUniversiti Teknologi MARA (UiTM), MalaysiaProposed — subject to confirmation

Managing Editor

DP
Dr. Dias Prihatmoko, S.T., M.Eng.Managing Editor (All 5 Journals)Universitas Islam Nahdlatul Ulama Jepara (UNISNU), IndonesiaProposed — subject to confirmation

Editorial appointments are subject to final confirmation (consent of each nominee). See also the GLP master editorial board.

Current Issue

The first issue of JPMIC is in preparation.
Submit your manuscript to be considered for Volume 1.

Archives

No issues have been published yet.

Submissions

Please read the focus and scope before submitting. Submissions are made through the journal's OJS site.

Article types

Original Research Articles

Original theoretical, computational, experimental, or empirical studies presenting significant advances in precision mechatronics, intelligent motion control, servo systems, or high-performance positioning technologies.

Review Articles

Systematic, critical, or state-of-the-art reviews synthesizing advances in precision mechatronics and intelligent control, identifying unresolved scientific challenges and future research directions.

Methodological Articles

Research introducing new control algorithms, modelling frameworks, identification techniques, measurement procedures, or computational methodologies supported by rigorous theoretical or experimental validation.

Technical Research Articles

Studies presenting validated engineering solutions involving precision motion systems, servo drives, mechatronic equipment, or intelligent control implementation with measurable scientific and practical contributions.

Short Communications

Concise reports of significant and sufficiently validated findings in precision mechatronics, intelligent motion control, or advanced servo technologies.

Scientific contribution requirements

Manuscripts submitted to JPMIC are expected to demonstrate:

  • A clearly defined research problem related to precision mechatronics, motion control, servo systems, or high-performance electromechanical technologies.
  • An identifiable theoretical, methodological, computational, experimental, or engineering contribution.
  • Appropriate analytical, numerical, or experimental validation.
  • Quantitative performance assessment using relevant metrics such as positioning accuracy, tracking error, repeatability, settling time, bandwidth, disturbance rejection, stability, robustness, or energy efficiency.
  • Meaningful comparison with established methods, reference systems, or existing research where applicable.
  • Clear discussion of the contribution, limitations, and engineering significance of the findings.

How to submit

  1. Check scope against the 16 research areas.
  2. Prepare the manuscript following the author guidelines.
  3. Submit through the online submission site (register or log in first).
  4. Peer review — double-anonymous peer review, at least two reviewers.

Author Guidelines & Checklist (OJS) · APC: FREE ($0)

Author Guidelines

Journal of Precision Mechatronics and Intelligent Control · Published by Global Literacy Publishing

Author Guidelines

PT Global Literacy Publishing (GLP)

1. General Information

GLP journals welcome original scholarly manuscripts within the aims and scope of the selected journal. Manuscripts may be submitted in English or Bahasa Indonesia for initial editorial consideration; the official publication language is English (see the language requirements below). Manuscripts must not be simultaneously submitted elsewhere and must comply with publication ethics and editorial policies.

2. Manuscript Types

Original Research Articles

Review Articles (including systematic and critical reviews)

Methodological Articles

Technical Research Articles

Short Communications (where accepted by the selected journal)

Available manuscript types may vary according to the individual journal’s aims and scope.

3. Manuscript Preparation

Prepare the manuscript using the official GLP Master Manuscript Template v1.0 in editable Microsoft Word (.docx) format. Use A4 paper, a single-column main text, and the first-page journal-information sidebar provided in the template. Remove author names and affiliations from the manuscript file: GLP uses double-anonymous peer review (see Section 7).

ComponentRequirement
LanguageEnglish (publication); initial submission may be in English or Bahasa Indonesia
Paper / layoutA4 / single-column main text
FontTimes New Roman; follow the element-specific sizes in Table 1 of the official template
AbstractOne paragraph, 150–250 words
Keywords5–8 relevant keywords
CitationsNumerical square brackets: [1], [2,3], [4–6]
FiguresConsecutively numbered; captions below figures
TablesConsecutively numbered; captions above tables
EquationsEditable; centered with consecutive numbers at the right margin

4. Manuscript Structure

Article title, full author names, affiliations, and corresponding-author details

Abstract (150–250 words) and 5–8 keywords

1. Introduction — context, literature, research gap, objectives, and contribution

2. Materials and Methods — research design and reproducible procedures

3. Results — findings, evidence, tables, and figures

4. Discussion — interpretation, comparison with literature, implications, and limitations

5. Conclusion — concise summary of supported findings and contributions

Author Contributions, Funding, Acknowledgments (if applicable), Conflict of Interest, AI Use Statement, and References

Ethics approval and informed consent must be reported where applicable. A separate Data Availability Statement is not required by the GLP master template.

5. Figures, Tables, and Equations

Cite each figure and table in the text. Place figures near their first mention and provide captions below; place table captions above. Use editable Word tables, preferably with minimal horizontal rules and no unnecessary vertical borders. Multi-panel figures should identify panels as (a), (b), etc. Mathematical expressions should use Word Equation or an equivalent editable format and be numbered (1), (2), etc.

6. References and Citations

Number references by first appearance in the manuscript. Cite sources in square brackets, for example [1], [1–3], and [1,3]. Include complete bibliographic details and DOI links when available. Follow the reference examples in the official template. Reference-management tools such as Zotero, Mendeley, and EndNote are recommended.

7. Double-Anonymous Peer Review

GLP journals use double-anonymous peer review: authors and reviewers are not identified to each other during review, and reviewers’ identities are not disclosed to authors. Submit a fully anonymized manuscript — no author names, affiliations, contact details, or acknowledgments revealing identity, and no identifying information in file properties — and enter author names, affiliations, and corresponding-author details in the submission metadata (Contributors step) instead. A separate title-page file is not required. Manuscripts passing editorial screening are normally evaluated by at least two independent reviewers.

8. Publication Ethics

Plagiarism, fabrication, falsification, duplicate submission, inappropriate authorship, and undisclosed conflicts of interest are prohibited. Studies requiring ethics approval or informed consent must provide the relevant information.

9. Artificial Intelligence Use

Disclose AI assistance in the AI Use Statement as specified in the template, identifying the tool and purpose where used. AI tools cannot be authors. Human authors remain responsible for accuracy, originality, confidentiality, and integrity.

10. Article Processing Charges

Current policy: No APC (FREE, $0). There are no submission, editorial assessment, peer review, processing, or publication fees under this policy. Any future fee changes will be announced transparently on the relevant journal website and will not apply retroactively to submissions accepted under the No APC policy.

11. Manuscript Submission

Submit the anonymized manuscript (.docx) through the selected journal’s OJS submission portal and enter complete author details in the submission metadata. Upload supplementary material or separate high-resolution figures only when requested. Confirm all author metadata, declarations, and permissions before submission.

12. Editorial Decisions

Submissions undergo editorial screening, peer review, and a final editorial decision. Outcomes may include acceptance, minor revision, major revision, or rejection. Accepted articles undergo copyediting and proofreading.

13. Copyright and Open Access

Authors retain copyright and grant the journal a non-exclusive right of first publication. Published articles use the Creative Commons Attribution 4.0 International (CC BY 4.0) License. The article copyright notice identifies PT Global Literacy Publishing as publisher.

Reviewer Guidelines

Journal of Precision Mechatronics and Intelligent Control · Published by Global Literacy Publishing

Reviewer Guidelines

Global Literacy Publishing (GLP)Guidelines for Peer Reviewers

1. Introduction

Global Literacy Publishing (GLP) is committed to maintaining the scientific quality, integrity, and credibility of the scholarly journals under its management.

Peer reviewers play an essential role in evaluating the originality, scientific contribution, methodological rigor, and overall quality of submitted manuscripts.

These guidelines provide a consistent framework for conducting objective, constructive, confidential, and ethical peer review.

2. Peer Review Model

All GLP journals adopt a double-anonymous peer review process: authors and reviewers are not identified to each other. Reviewer identities are not disclosed to authors, and reviewers must not attempt to establish author identities.

Under this model:

Reviewers are informed of the authors' identities and affiliations.

Reviewers' identities remain confidential to authors.

Reviewers must provide objective evaluations based on the scientific merits of the manuscript.

Reviewers must not disclose manuscript content or their participation in the review process without editorial authorization.

Manuscripts that pass the initial editorial screening are normally evaluated by at least two independent reviewers with relevant expertise.

The final editorial decision is made by the Editor-in-Chief or an authorized handling editor.

3. Reviewer Responsibilities

Reviewers are expected to:

Evaluate manuscripts objectively, fairly, and professionally.

Assess the scientific originality and significance of the research.

Examine the appropriateness and reliability of the research methodology.

Evaluate the validity of the results and conclusions.

Provide clear, constructive, and evidence-based comments.

Maintain the confidentiality of unpublished manuscripts.

Declare any potential conflicts of interest.

Complete reviews within the agreed timeframe.

Inform the editor when a manuscript falls outside their area of expertise.

Avoid personal criticism, discriminatory remarks, or inappropriate requests for citations.

Reviewers should not use unpublished findings, data, or ideas obtained through peer review for personal or professional advantage.

4. Reviewer Invitation and Acceptance

Before accepting a review invitation, reviewers should consider:

Whether the manuscript falls within their expertise.

Whether they have sufficient time to complete a meaningful review.

Whether any personal, professional, financial, or institutional conflict of interest exists.

Whether they can maintain the confidentiality of the manuscript.

Reviewers who are unable to complete the review should decline the invitation promptly so that the editor can appoint another reviewer.

Reviewers should evaluate manuscripts against the official GLP single-column template: Introduction, Materials and Methods, Results, Discussion, and Conclusion; 150–250-word abstract; 5–8 keywords; editable numbered equations; and numbered figures, tables, and references. Formatting issues should be distinguished from substantive scientific concerns.

5. Manuscript Evaluation Criteria

Reviewers should evaluate manuscripts according to the following criteria.

5.1 Relevance to the Journal's Scope

The manuscript should address topics relevant to the journal's aims and scope.

5.2 Originality and Scientific Contribution

The manuscript should present original findings, meaningful methodological developments, new scientific insights, or substantial contributions to existing knowledge.

5.3 Research Methodology

The research design, experimental procedures, datasets, mathematical models, computational methods, or analytical approaches should be appropriate and sufficiently explained.

5.4 Results and Validation

Results should be presented clearly and supported by appropriate evidence.

Where relevant, reviewers should assess the adequacy of experimental validation, statistical analysis, benchmarking, uncertainty assessment, or model evaluation.

5.5 Discussion and Interpretation

The discussion should interpret the findings critically, compare them with relevant literature, and acknowledge important limitations.

5.6 Conclusions

Conclusions should be consistent with the presented results and should not contain unsupported claims.

5.7 References

References should be relevant, accurate, sufficiently current where appropriate, and properly cited.

Reviewers must not request unnecessary citations to their own publications or those of colleagues.

5.8 Presentation and Organization

The manuscript should demonstrate logical organization, clear academic writing, appropriate figures and tables, and consistent terminology.

6. Reviewer Evaluation Form

Reviewers are encouraged to use the following evaluation criteria when assessing manuscripts.

Evaluation CriterionRating
Relevance to journal scope1–5
Originality and novelty1–5
Scientific contribution1–5
Methodological rigor1–5
Results and validation1–5
Discussion and conclusions1–5
References and literature coverage1–5
Clarity and presentation1–5

Rating scale:

1 = Poor2 = Fair3 = Satisfactory4 = Good5 = Excellent

Ratings support the review process but do not automatically determine acceptance or rejection.

7. Reviewer Comments

Reviewers should provide comments in two categories.

A. Comments to Authors

These comments should explain the manuscript's strengths, weaknesses, and necessary improvements.

Reviewers are encouraged to identify:

Major scientific or methodological concerns.

Missing validation or insufficient evidence.

Problems with interpretation or conclusions.

Suggestions for improving clarity and presentation.

B. Confidential Comments to the Editor

Reviewers may provide confidential observations concerning ethical concerns, suspected research misconduct, major methodological deficiencies, or other issues relevant to the editorial decision.

Confidential comments should not contradict the substantive assessment communicated to the authors.

8. Reviewer Recommendations

After completing the evaluation, reviewers may recommend one of the following:

Accept: The manuscript meets the journal's scientific and editorial standards and requires no substantive revision.

Minor Revision: The manuscript is scientifically sound but requires limited corrections or clarifications.

Major Revision: The manuscript has potential scientific merit but requires substantial improvements, additional analysis, or stronger validation.

Reject: The manuscript has fundamental scientific, methodological, ethical, or scope-related deficiencies that cannot reasonably be addressed through revision.

Reviewer recommendations are advisory. The final decision remains the responsibility of the Editor-in-Chief or an authorized handling editor.

9. Review Timeline

Reviewers should complete their evaluations within the timeframe specified in the review invitation.

As an initial operational target, GLP recommends a 14–21-day review period, subject to reviewer availability and the complexity of the manuscript.

Reviewers who require additional time should inform the editorial team as early as possible.

The journal does not guarantee a fixed review completion or publication date.

10. Confidentiality and Research Integrity

Submitted manuscripts are confidential scholarly documents.

Reviewers must not:

Share manuscripts with unauthorized individuals.

Disclose unpublished findings or research data.

Use manuscript content for personal research without permission.

Contact authors directly regarding the review without editorial authorization.

Upload confidential manuscript content to external AI tools without explicit authorization and appropriate confidentiality safeguards.

Suspected plagiarism, duplicate publication, fabricated data, image manipulation, or other research integrity concerns should be reported confidentially to the editor.

Reviewers should provide supporting explanations rather than making unsupported allegations.

11. Conflicts of Interest

Reviewers must disclose any circumstances that could compromise their impartiality, including:

Close personal or professional relationships with authors.

Recent or ongoing research collaborations.

Direct financial or commercial interests.

Competitive interests that could affect objective judgment.

Other circumstances creating actual or perceived conflicts.

Reviewers should decline assignments when an appropriate level of independence cannot be maintained.

12. Use of Artificial Intelligence in Peer Review

Reviewers remain personally responsible for their assessments and recommendations.

Generative AI tools must not be used to replace independent scientific judgment.

Reviewers must not submit confidential manuscripts or unpublished research data to public or external AI systems without explicit editorial authorization and adequate data protection arrangements.

Any authorized AI assistance must comply with the journal's confidentiality, research integrity, and AI-use policies.

13. Ethical and Constructive Reviewing

Reviewers should maintain a respectful and professional tone.

Constructive reviews should identify specific concerns and explain how authors may address them.

Reviewers should distinguish between essential scientific corrections and optional suggestions.

Reviewers must not impose personal preferences or demand unnecessary additional experiments that are unrelated to the manuscript's principal scientific claims.

14. Reviewer Recognition

GLP values the voluntary contributions of peer reviewers to scholarly publishing.

Subject to reviewer consent and confidentiality requirements, the publisher may recognize reviewer contributions through certificates of appreciation or other appropriate forms of acknowledgment.

Recognition must not compromise reviewer anonymity or editorial independence.

15. Final Editorial Responsibility

Peer reviewers provide independent scientific assessments and recommendations.

The Editor-in-Chief or an authorized handling editor is responsible for making the final editorial decision after considering the manuscript's scientific quality, reviewers' comments, ethical compliance, and journal policies.

Editorial decisions must remain independent of financial considerations, author affiliations, and institutional influence.

Publisher: PT Global Literacy Publishing (GLP)Peer Review Model: Double-anonymousStandard Reviewer Assignment: Normally at least two independent reviewersArticle Processing Charges: Free ($0)

Peer Review Process

Journal of Precision Mechatronics and Intelligent Control · Published by Global Literacy Publishing

Peer Review Process

All manuscripts submitted to the journal undergo double-anonymous peer review: authors and reviewers are not identified to each other during review, insofar as anonymity is feasible, and reviewers’ identities remain confidential to authors. Authors submit an anonymized manuscript using the official GLP template — without author names, affiliations, or identifying information — and enter author details in the submission metadata only.

1. Initial Editorial Screening. The editorial team assesses each submission for relevance to the journal’s aims and scope, originality, scientific quality, manuscript preparation, and compliance with publication ethics and journal policies. Manuscripts that do not meet these requirements may be returned for correction or declined before external review.

2. Independent Peer Review. Manuscripts that pass screening are normally evaluated by at least two independent reviewers with relevant expertise. Reviewers assess the research contribution, methodological rigor, adequacy of evidence, interpretation of findings, and clarity of presentation.

3. Editorial Decision and Revision. Based on the reviewers’ reports and the journal’s editorial standards, the Editor-in-Chief or an authorized handling editor may decide to accept, request minor revision, request major revision, or reject a manuscript. Authors invited to revise should submit a revised manuscript and a point-by-point response to reviewer comments. Further review may be requested when necessary.

4. Confidentiality and Editorial Independence. Reviewers must keep manuscripts confidential, disclose potential conflicts of interest, and provide objective, constructive assessments. Reviewers’ recommendations are advisory; the final editorial decision rests with the Editor-in-Chief or an authorized handling editor and is based on scientific merit and ethical compliance.

5. After Acceptance. Accepted manuscripts proceed to copyediting, proofreading, and publication preparation in accordance with the journal’s policies and the official GLP manuscript template.

Manuscript flow

  1. Manuscript submission — in English or Bahasa Indonesia via the journal's OJS site; the manuscript file is anonymized (double-anonymous review).
  2. Initial editorial screening — scope, originality, and scientific quality.
  3. Peer review — at least two independent qualified reviewers.
  4. English manuscript — translation and language revision when the submission was in Bahasa Indonesia.
  5. Final editorial decision & production — copyediting, proofreading, and English-only publication.

Article Processing Charges (APC)

Journal of Precision Mechatronics and Intelligent Control · Published by Global Literacy Publishing

Article Processing Charges (APC)

All journals published by Global Literacy Publishing (GLP) currently operate under a No Article Processing Charges (No APC) policy.

Authors are not required to pay any fees for manuscript submission, peer review, article processing, or publication.

All manuscripts are evaluated based on scientific quality, originality, and relevance to the journal's aims and scope.

APC: FREE ($0)

Any future changes to this policy will be announced on the official journal website and will not affect manuscripts submitted under the No APC policy.

Announcements

Call for Papers 2027 — JPMIC →

Call for Papers — JPMIC

Journal of Precision Mechatronics and Intelligent Control invites original research articles, reviews, methodological and technical articles, and short communications for its first volume.

Call for Papers 2027

Journal of Precision Mechatronics and Intelligent Control (JPMIC) invites original research articles, review articles, methodological studies, and technical research papers within its stated aims and scope.

Inaugural issue: June 2027 (Wave 2) · Submissions open: December 1, 2026 (year-round thereafter).

Submission deadlines: Volume 1, No. 1 (June 2027): April 30, 2027 · Volume 1, No. 2 (December 2027): October 31, 2027. Submissions received after a deadline are considered for the following issue.

Publication language: English (initial submission may be in English or Bahasa Indonesia) · Peer review: Double-anonymous peer review · Open Access: CC BY 4.0 · APC: FREE ($0).

Research Areas

  • Precision Mechatronic System Design
  • Servo Systems and High-Performance Motion Control
  • Intelligent and Adaptive Motion Control
  • Precision Positioning and Micro-/Nano-Motion Systems
  • Mechatronic Dynamics and System Identification
  • Advanced Control Methods for Precision Systems
  • Precision Actuators and Drive Technologies
  • Precision Sensing, Measurement, and Metrology
  • Vibration Suppression and Disturbance Compensation
  • Precision Robotics and Robotic Motion Systems
  • Embedded and Real-Time Precision Control
  • Precision Mechatronics in Advanced Manufacturing

Submission Guidelines

Authors should follow the Author Guidelines. Submissions are made via the journal's OJS submission site.

Questions: [email protected]. Publication is subject to peer review and editorial acceptance. No indexing or accreditation status is claimed.

Contact

Editorial office

Journal of Precision Mechatronics and Intelligent Control
Global Literacy Publishing
Kalipucang Kulon, RT 006/RW 004, Welahan District, Jepara Regency, Central Java, Indonesia

WhatsApp: +62 896-8378-3115

Principal contact

Dr. Dias Prihatmoko, S.T., M.Eng.
Managing Editor
Universitas Islam Nahdlatul Ulama Jepara (UNISNU), Indonesia