Neuroscience

Welcome to Skope

Your Partner in MR Imaging

We develop innovative solutions in collaboration with the world’s best MR technology scientists and engineers to deliver the highest image quality and reproducibility at the required speed for medical research and clinical applications. Our products and solutions are vendor-agnostic.

Resources

Connectome 2.0 & Initial Experience with the Skope System

Learn how advances in MRI physics and technology, driven by increasing magnetic field strengths and gradient power, are revolutionizing diffusion MRI to uncover the intricate pathophysiology of diseases.

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Resources

NeuroCam™ 3T & 7T DICOM Viewer

Our new DICOM Viewer now includes images acquired with the NeuroCam 3T Excellence and the NeuroCam 7T Standard. Take a look at the latest images!

Products & Services

NeuroCam™ 7T

Discover the NeuroCam™ 7T – now also explained in a video! Check it out to learn about our MR head coil for neuroimaging at 7 Tesla.

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T2-Weighted Imaging: Hippocampus
Susceptibility-Weighted Imaging

Focus on Neuroscience

Image quality is at the heart of neuroimaging studies. Images which do not accurately reflect the anatomy and physiology of the subject do not contribute meaningful data to a study. Image artifacts obscure the data needed for the study, increasing the number of subjects, cost, and length of the study. Accounting for these artifacts post-acquisition can mean resorting to complex post-processing steps which may only partially remove the artifact - possibly without improving the research value of the image.

Skope develops advanced imaging solutions tailored to meet the critical needs of neuroscientists in their quest to unravel the brain structures and function, by providing high-quality, reproducible imaging for precise analysis and insight. These solutions are essential for functional MRI (fMRI), diffusion/DTI studies, and other scan advanced imaging protocols ensuring reliable data with minimal workflow disruption and mitigating scanner performance issues. 

Skope’s technology accurately measures scanner performance, capturing deviations in image encoding caused by real-world scanner and subject sources. These field measurements are then used to produce images with consistent geometry, fewer artifacts, and improved signal-to-noise ratio (SNR). Images generated with Skope tools, because scanner and subject induced sources are greatly reduced, better reflect the underlying physiology being imaged.

Utilizing Skope tools has allowed neuroimaging researchers to both better utilize well-proven imaging techniques such as the Human Connectome Project protocols and pursue state-of the art techniques, such as non-linear diffusion encoding. One of Skope’s critical innovation and development directions is to enable crucial progress in understanding, diagnosing, and treating neurodegenerative diseases such as multiple sclerosis (MS) and Alzheimer's, helping to advance research that leads to better outcomes for patients.

Products Overview

NeuroCam™ 7T

MR Head Coil for Parallel Transmission with 64 Independent Receive Elements and 16 Field Probes for High Image Quality and Stability at 7T.

Relevant resources

References

Being able to directly visualize the gradient moments made it easy to identify the error and fix the calculation in the pulse sequence.

Lars Mueller, PhD

University of Leeds

Oscillating gradient spin-echo (OGSE) diffusion acquisitions offer unique microstructural insight but suffer limited sensitivity due to the characteristically long TEs. This shortcoming can be mitigated by combining OGSE with spiral readouts…

Eric S. Michael

Institute for Biomedical Engineering, ETH Zurich

Having access to the raw trajectory data from the Skope system and libraries with which to read them allowed us to successfully develop our model-based reconstruction algorithm and generate high-fidelity images.

Paul Dubovan

Department of Medical Biophysics at Western University

Our Clip-on Camera has been invaluable to monitor field stability and fluctuations in MR thermometry. If thermal measurements are to remain non-invasive in vivo, it is impossible to obtain definite proof without in situ measurements.

Nicolas Boulant, PhD

NeuroSpin/CEA