Revolutionizing PTO with
MARES presents a groundbreaking PTO system leveraging superconductivity for high efficiency and compact design. Our technology minimizes energy losses and reduces reliance on rare-earth materials, making it ideal for various applications.
In-Depth Look at Our PTO System
Our novel PTO system leverages superconductivity to achieve unparalleled efficiency and compact design. This section provides a detailed explanation of its key components and benefits, illustrated with images for clarity. (coming soon)
PTO System
The Power Take-Off (PTO) system is a versatile and essential technology designed to convert mechanical energy into electrical energy across multiple applications. In the MARES project, the PTO is based on an innovative Reciprocating Superconducting Generator (RSG), which utilizes superconducting materials such as Magnesium Diboride (MgB2) and REBCO tapes. This advanced design provides high efficiency, compactness, and robust performance, making it suitable for a wide range of energy conversion systems. By offering superior force density and reduced losses, the PTO system is adaptable for various renewable energy sources, contributing to enhanced energy efficiency and sustainability.
Cryocooler
A cryocooler is a refrigeration system designed to cool components to cryogenic temperatures, typically below 150 K (-123°C), essential for applications such as superconducting technologies. In the MARES project, the cryocooler is part of the Cryogenic Supply System (CSS) used to maintain superconducting materials like MgB2 and REBCO tapes at their optimal operating temperatures (15-25 K for MgB2 and 50-65 K for REBCO). The cryocooler ensures efficient cooling by circulating helium gas through heat exchangers, which enables high efficiency and reliability of the superconducting generator system.
Control Sytem
The MARES project will develop an advanced control and energy conversion system. This system is designed to optimize the performance of the superconducting generator by minimizing energy losses, particularly AC losses in the superconducting coils. It will include power converters on both the generator and motor sides, as well as a sophisticated control strategy to enhance the overall efficiency. The system’s ability to operate in single-pulse mode further increases its effectiveness, making it an essential component for ensuring the high performance and integration of the PTO into various energy applications.
