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Monitored neuroimaging powering data driven MR

NeuroCam and skope-i, image production software

Picture of the NeuroCam


  • Coil array with integrated field monitoring and image reconstruction
  • Whole-brain coverage
  • Robust imaging for data consistency


Person using the NeuroCamPlug-and-play concurrent magnetic field monitoring
Fast and quantitative MRI methods are commonly limited by inaccurate or unstable image encoding. These limitations can be elegantly avoided by using the actual encoding for image reconstruction. The NeuroCam provides an integrated solution for acquiring the image encoding. Together with the skope-i image reconstruction software, it provides all of the benefits of cutting-edge field monitoring and push-button image reconstruction. The combination enables a focus on ground-breaking research and a move towards more reliable diagnosis.


Accelerated brain imaging: T1 weighted MP-RAGE
Accelerated brain imaging: T1 weighted MP-RAGE

Excellent SNR and parallel imaging performance
A challenging requirement from MR imaging is increasing SNR while shortening acquisition time. The NeuroCam‘s integrated MR receiver array was specifically designed to provide researchers with optimum SNR and parallel imaging performance in specialized imaging of the whole brain. Because the NeuroCam also includes an integrated field monitoring array, it delivers a considerable increase in quality and resolution of single-shot images. This enables the elucidation of small pathologies and performing of advanced research.


Diffusion imaging with highest SNR Single-shot spiral DWI
Diffusion imaging with highest SNR Single-shot spiral DWI

Unprecedented fMRI and diffusion imaging performance
Diffusion MRI and fMRI are commonly limited by image artifacts and low SNR. In DWI, the NeuroCam removes image distortions, and the coil‘s intrinsic high SNR can be further boosted by using spiral readouts enabled by field monitoring. Thereby, the NeuroCam can deliver highest spatial resolution images and most accurate quantification results. In fMRI, high parallel imaging acceleration reduces artifacts and increases the temporal resolution. Moreover, spiral acquisitions widen the horizons for fMRI investigations by the possibility to combine outside-in and inside-out variants and fully flexible TE to control signal dropout.

NeuroCam for 3T

Physical dimensions
Housing (w x d x h), incl. base 60 cm x 46 cm x 30 cm
Head fit > 95% of adult population
Full face access open view and possibility to use eye tracking tools
Dynamic field measurement
Measurable variable Magnetic field magnitude
Temporal resolution 1 μs
intrinsic kmax ± 9580 rad/m
Spatial field expansion
Basis Real-valued spherical harmonics up to 3rd order
Output terms for image correction Generalized k-space (16 terms: k0 – k15)

  • 3D k-space (k1– k3)
  • Dynamic B0 perturbation (k0)
  • 2nd order perturbations (k4 – k8)
  • 3rd order perturbations (k9 – k15)
Camera Acquisition System

The field sensor signals of the NeuroCam are acquired by the 16-channel Skope Camera Acquisition System and automatically processed to provide the actual magnetic field dynamics. The field dynamics can be conveniently displayed in the user interface or piped directly into the skope-i, image production software.

skope-i, image production software

The image production software complements the NeuroCam and takes into account

  • Measured/simulated gradient encoding
  • Coil sensitivity information (SENSE)
  • Static B0 maps
  • Higher order field evolution
Parallel imaging performance

The NeuroCam is developed for fast and robust neuroimaging by advanced radiofrequency design with low SNR penalty for accelerated Cartesian and spiral imaging (see image below).

Technical illustration

NeuroCam - Technical illustrationNeuroCam - Technical illustration

Integration into MRI set-up

Integration Skope System graphic

Acquired images

NeuroCam acquired images

Parallel imaging performance

NeuroCam parallel imaging performance

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