Naval Architecture

Initial design

• Conceptual design package.
• Design & Performance presentation material.
• Ship yard tendering package and support.

Comprehensive conceptual design package, inclusive of design and performance presentation materials. Additionally, provision of shipyard tendering packages and support services, focusing on purpose-driven designs, solutions that augment vessel performance, as well as commitment to dedication and prompt responsiveness

Detail design

• Comprehensive detail design package.
• Powerful 3D model of the complete vessel.
• Pepper® data and document management toolbox.

Site support

• Flexibility to meet actual needs and yard standards
• Design review through powerful 3D visualization
• Extensive and informative documentation

Conversion Feasibility Studies & Study

In a feasibility study, several key aspects are typically addressed:

Solutions and Impact Analysis: The study will offer potential solutions for battery applications and provide estimates of their effects on ship performance. Pellica marine conducts thorough analyses across various operational parameters from a multi-disciplinary standpoint to optimize the vessel and operator's energy storage and consumption strategies.

Opportunities and Challenges: There are numerous opportunities and challenges associated with integrating a Battery Energy Storage System (BESS) within a power system. The study aims to identify and quantify operational benefits (such as fuel efficiency) and enhanced safety levels.

Hybrid Feasibility Report Process: As part of Pellica marine advisory, they produce a hybrid feasibility report by following these steps:

• Identifying Suitable BESS Functions: Determine the most suitable functions of a BESS, such as peak shaving, enhanced dynamic performance, spinning reserve, enhanced ride-through capability, and power regeneration from mission equipment.
• Determining Integration Points: Define the correct physical integration points of a BESS within the system architecture based on the desired functionality.
• Failure Mode Performances: Evaluate the performance under defined error conditions for failure modes, mission equipment, and ship platform joint error conditions.
• Estimating Capacities and Capabilities: Provide estimates on the system's capacities and capabilities required to meet design functionality requirements.
• Predicting Fuel Savings and Emissions Reduction: Estimate the potential fuel savings and emission reductions in selected operations.
• Sizing Energy Storage: Determine viable configurations and sizes of energy storage systems to meet performance objectives.
• Cost-Benefit Analysis: Provide estimates on cost benefits associated with different levels of system integration.
• This comprehensive approach ensures that the feasibility study covers various technical aspects and potential outcomes regarding the implementation of a Battery Energy Storage System for marine applications.