Aim & Scopes

Aims and Scope

Academic focus and interdisciplinary research areas of the Journal of Offshore Production Technology and Society

The Journal of Offshore Production Technology and Society (JOPTES) is an international peer-reviewed scholarly journal dedicated to advancing fundamental and applied research in offshore production systems, subsea technologies, floating production facilities, production processing, flow assurance, offshore operations, asset integrity, reliability, digital technologies, safety, sustainability, and socio-technical dimensions of offshore production.

JOPTES provides an interdisciplinary platform for offshore engineers, ocean engineers, petroleum engineers, naval architects, subsea specialists, production engineers, process engineers, reliability professionals, digital-technology researchers, safety specialists, environmental researchers, economists, policymakers, social scientists, and industry practitioners.

The journal particularly encourages studies that examine offshore production as an integrated technical and operational system connecting wells, subsea production equipment, flowlines, risers, floating facilities, topsides processing, storage, offloading, monitoring, maintenance, logistics, human decision-making, and lifecycle management.

JOPTES also recognizes that offshore production technologies operate within broader environmental, organizational, regulatory, economic, and societal systems. The journal therefore welcomes research addressing human factors, safety culture, workforce transformation, governance, stakeholder engagement, local content, responsible innovation, environmental performance, energy transition, and the social implications of offshore technology.

RESEARCH AREAS

Scope of the Journal

JOPTES welcomes theoretical, analytical, experimental, numerical, computational, field-based, review, methodological, and interdisciplinary research in areas including, but not limited to:

Offshore Production Systems
Offshore Field Development
Production System Architecture
Integrated Production System Design
Deepwater Production Systems
Ultra-Deepwater Production
Marginal Offshore Field Development
Brownfield Production Optimization
Offshore Well Production
Well Completion and Production
Artificial Lift Systems
Production Surveillance
Well Intervention
Well Integrity
Production Chemistry
Production Optimization
Subsea Production Systems
Subsea Trees
Subsea Manifolds
Subsea Tiebacks
Subsea Processing
Subsea Separation
Subsea Boosting and Pumping
Subsea Compression
Subsea Power Systems
Subsea Control Systems
All-Electric Subsea Systems
Subsea Instrumentation and Monitoring
Subsea Flowlines
Flexible Pipelines
Rigid Pipelines
Production Risers
Flexible Risers
Steel Catenary Risers
Hybrid Riser Systems
Riser–Floater Interaction
Flow Assurance
Multiphase Flow
Hydrate Management
Wax and Paraffin Deposition
Asphaltene Management
Scale Control
Slugging and Transient Flow
Thermal Management
Pipeline Restart and Shut-In
Production Operability
Floating Production Systems
Floating Production Storage and Offloading (FPSO)
Floating LNG (FLNG)
Floating Storage and Offloading (FSO)
Semi-Submersible Production Units
Spar Production Platforms
Tension Leg Platforms
Floating Facility Integration
Offshore Process Facilities
Topsides Processing Systems
Oil–Gas–Water Separation
Gas Compression
Produced Water Treatment
Gas Treatment
Utility Systems
Process Debottlenecking
Process Simulation
Offshore Facility Optimization
Offshore Mooring Systems
Station Keeping
Dynamic Positioning
Floating Structure Hydrodynamics
Vessel–Facility Interaction
Marine Operations
Offshore Loading Systems
Tanker Offloading
Offshore Storage Systems
Crude Oil Offloading
LNG Offloading
Export Pipelines
Offshore Logistics
Marine Transportation Interfaces
Offshore Asset Integrity
Structural Integrity
Pipeline Integrity
Riser Integrity
Pressure Equipment Integrity
Corrosion Management
Erosion and Wear
Fatigue Assessment
Remaining Life Assessment
Life Extension
Offshore Inspection Technologies
Non-Destructive Testing
Structural Health Monitoring
Condition Monitoring
Reliability-Centred Maintenance
Predictive Maintenance
Maintenance Optimization
Inspection Robotics
Offshore Reliability Engineering
Reliability, Availability and Maintainability
Probabilistic Risk Assessment
Failure Mode and Effects Analysis
Hazard and Operability Studies
Quantitative Risk Assessment
Barrier Management
Reliability-Based Design
Offshore Process Safety
Operational Safety
Major Accident Risk
Emergency Response
Safety Barrier Performance
Offshore Safety Management
Digital Offshore Production
Digital Twins
Artificial Intelligence
Machine Learning
Industrial Internet of Things
Production Analytics
Real-Time Optimization
Remote Operations
Autonomous Offshore Systems
Decision Support Systems
Robotics and Autonomous Inspection
AUV and ROV Technologies
Computational Fluid Dynamics
Finite Element Analysis
Multiphysics Modelling
Multiphase Flow Simulation
Process Simulation
System-Level Simulation
Optimization and Decision Models
Uncertainty and Sensitivity Analysis
Offshore Decarbonization
Offshore Electrification
Energy-Efficient Production
Methane Emissions Reduction
Flaring Reduction
Carbon Capture, Utilization and Storage
Offshore CO₂ Transport
CO₂ Injection Systems
Offshore Renewable Integration
Hybrid Offshore Energy Systems
Offshore Asset Lifecycle Management
Aging Offshore Infrastructure
Brownfield Modification
Offshore Repurposing
Offshore Decommissioning
Circular Economy for Offshore Assets
Offshore Production Economics
CAPEX and OPEX Optimization
Lifecycle Cost Analysis
Techno-Economic Assessment
Offshore Project Decision-Making
Production Portfolio Optimization
Human Factors in Offshore Operations
Offshore Safety Culture
Human–Machine Interaction
Workforce Competence
Workforce Digital Transformation
Organizational Reliability
Offshore Decision-Making
Organizational Risk
Offshore Governance
Offshore Regulation
Technology Governance
Responsible Offshore Innovation
Local Content Development
Stakeholder Engagement
Social Licence to Operate
Offshore Technology Acceptance
Environmental Performance
Environmental Risk Assessment
Marine Environmental Management
Oil Spill Risk and Response
Socioeconomic Impacts
Offshore Communities and Industry
Environmental Justice
Responsible Energy Transition
JOPTES SYSTEM FRAMEWORK

Produce → Integrate → Optimize → Protect → Transition

JOPTES approaches offshore production as a connected technical, operational, environmental, and societal system.

01 Produce

Develop technologies and methods for efficient offshore hydrocarbon and energy production.

02 Integrate

Connect wells, subsea systems, risers, floaters, processing and export.

03 Optimize

Improve production, availability, energy efficiency and lifecycle performance.

04 Protect

Strengthen integrity, reliability, safety, people and environment.

05 Transition

Enable lower-carbon, digitally enabled, responsible offshore systems.

INTEGRATED PRODUCTION

Well-to-Export Research

JOPTES encourages research that considers the entire production pathway rather than analyzing components in isolation.

Strong contributions may demonstrate how design or operational decisions at one part of the system affect production, integrity, reliability, cost, emissions, or safety elsewhere.

01 Well
02 Subsea
03 Riser
04 Floater
05 Processing
06 Export
TECHNOLOGY & SOCIETY

Engineering Systems in Their Human and Social Context

JOPTES welcomes socio-technical research when it demonstrates a direct relationship with offshore production technology, operations, safety, sustainability, governance, workforce, or energy-transition systems.

Human Factors Safety Culture Workforce Human–Machine Interaction Governance Regulation Local Content Stakeholder Engagement Social Impact Technology Acceptance Energy Transition Responsible Innovation
INTERDISCIPLINARY FOCUS

Engineering, Digital Technology and Society

JOPTES encourages interdisciplinary research connecting ocean engineering, offshore engineering, petroleum engineering, naval architecture, mechanical engineering, chemical engineering, process engineering, materials science, reliability engineering, data science, safety engineering, environmental science, economics, management, policy, and social sciences.

Offshore Engineering Ocean Engineering Petroleum Engineering Naval Architecture Subsea Engineering Process Engineering Mechanical Engineering Materials Engineering Reliability Engineering Data Science Safety & Risk Social Sciences
SCOPE & RELEVANCE

What JOPTES Seeks

Manuscripts should demonstrate a clear and substantive relationship to offshore production technology, subsea or floating production systems, offshore processing, production operations, integrity, reliability, digitalization, safety, sustainability, or socio-technical aspects of offshore production.

Studies dealing solely with reservoir characterization, general naval architecture, generic offshore structures, marine transportation, renewable energy, social science, or petroleum economics without a meaningful connection to offshore production systems may be considered outside the journal's primary scope.

Routine simulations, basic parameter variations, descriptive industrial case studies, or purely conceptual technology proposals without sufficient novelty, verification, validation, system-level insight, transferable engineering knowledge, or societal relevance may not meet JOPTES' publication priorities.