Siemens expands 1.5T MRI portfolio with resource-efficient scanner

Siemens Healthineers has unveiled an expansion of its Magnetom Flow platform with a new 70-centimetre bore 1.5 Tesla magnetic resonance imaging scanner. The system features DryCool technology, requiring only 0.7 litres of helium compared to conventional 1,500-litre systems, whilst incorporating AI-driven image reconstruction capabilities.

Technical specifications and sustainability

The new scanner represents a significant advancement in sustainable MRI technology, incorporating an innovative closed helium circuit that eliminates the need for a quench pipe. With a compact footprint of 25 square metres and sub-two-metre height, the system offers installation flexibility whilst maintaining high-performance imaging capabilities.

AI-powered workflow optimisation

Deep Resolve, the platform’s AI-powered image reconstruction algorithm, marks a pioneering implementation for 3D imaging applications. This technological integration aims to enhance both acquisition speed and image quality, potentially reducing examination times and improving diagnostic efficiency.

Patient-centric design elements

The system introduces contour coils with integrated sensors, engineered to conform to patient anatomy and simplify positioning procedures. A notable innovation includes bone conduction audio technology in head and neck coils, facilitating clearer communication between operators and patients during examinations.

Scalable implementation

Healthcare facilities can select from various gradient strength configurations, with the platform designed to accommodate future upgrades. The system enables in-situ conversion from 60cm to 70cm bore configurations, minimising operational disruption during system evolution.

Energy efficiency advances

The introduction of Eco Power Mode Pro represents an evolution in energy conservation, featuring intelligent cooling performance regulation based on scanner load. This advancement, combined with complementary power management solutions, suggests significant energy savings compared to previous-generation systems.