+
+
+
+
+
+ A flexible, GUI-driven suite for full DCE-MRI analysis. Covers pre-contrast
+ T1 mapping, AIF selection and fitting, multi-model pharmacokinetic curve
+ fitting (Tofts, Extended Tofts, Patlak, Two-Compartment Exchange, FXR, …),
+ and results visualization. Supports NIFTI and DICOM inputs and optional
+ GPU acceleration.
+
+
+ - Tofts, Extended Tofts, Patlak, 2CXM, FXR, tissue-uptake models
+ - GUI-based workflow — no scripting required
+ - Batch processing via parallel computing toolbox
+ - Optional GPU acceleration (Gpufit)
+ - Cited in BMC Medical Imaging
+
+
+
+
+
+
+
+
+ Preferred for AIF detection. A 3D U-Net deep-learning model (Keras/TensorFlow)
+ that automatically detects the arterial input function in brain DCE-MRI.
+ Pretrained weights are provided; the model handles multi-site data by
+ resampling inputs to a canonical resolution and outputs a vascular
+ function curve together with a 3D vascular mask.
+
+
+ - Fully automatic — no manual ROI drawing required
+ - Pretrained on multi-site brain DCE-MRI cohorts
+ - Outputs vascular function curve + 3D mask (NIfTI)
+ - Supports inference and fine-tuning on new datasets
+ - Published in Magnetic Resonance in Medicine (2025)
+
+
+
+
+
+
+
+
+ A napari desktop application for manual arterial input function (AIF)
+ annotation on 4D MRI NIfTI data. Designed for high-volume multi-rater
+ review sessions: draw a 3D ROI, inspect the mean signal-intensity
+ curve over time, save a BIDS-style derivative, and jump straight to
+ the next case.
+
+
+ - Loads BIDS-compliant 4D
desc-hmc_DCE.nii[.gz] files, directories, or manifest lists
+ - Live ROI curve preview with per-label and normalized views
+ - BIDS-style derivative outputs with rater ID embedded in filenames
+ - Auto-resumes at first unreviewed case; prefetches next image
+ - Flag-and-skip for poor AIFs or missing baselines
+
+
+
+
+
+
+
+
+ The ROCKETSHIP parametric mapping module, also usable as a
+ stand-alone tool. Generates T1, T2, T2*, and ADC maps from
+ multi-echo or inversion-recovery NIFTI series — a required
+ pre-processing step for accurate DCE pharmacokinetic modeling.
+
+
+ - T1 (inversion recovery), T2, T2*, and ADC map generation
+ - GUI-based interface (fitting_gui)
+ - Batch processing and parallel fitting support
+ - NIFTI and DICOM input support
+
+
+
+
+
+
+
+
+ A GPU-accelerated Levenberg–Marquardt curve-fitting library with
+ Python and MATLAB wrappers. This PET/MRI Lab fork adds MRI-specific
+ pharmacokinetic models and updated compiler/CUDA support. Used by
+ ROCKETSHIP for fast voxel-wise model fitting.
+
+
+ - Patlak, Tofts, Extended Tofts, Tissue Uptake, 2CXM, T1 FA Exponential
+ - Full GPU (Gpufit) and CPU (Cpufit) parity for all MRI models
+ - Pre-built binaries for Windows, Linux (CUDA 11.8–13.0), and macOS (CPU)
+ - Python and MATLAB wrappers included
+ - Based on Przybylski et al., Scientific Reports (2017)
+
+
+
+
+
+
+
+
+ An end-to-end preprocessing and analysis pipeline for brain DCE-MRI.
+ Wraps FSL, ANTs, FreeSurfer, ROCKETSHIP, and AutoAIF into a single
+ configurable shell script. Handles VFA-based T1 mapping, bias field
+ correction, z-axis normalization, head motion correction, AIF
+ selection, Ktrans fitting, and automated QC reporting. A Docker
+ image is provided for a consistent, reproducible environment.
+
+
+ - BIDS-compliant input/output
+ - VFA T1 mapping, bias field correction, z-axis normalization
+ - Head motion correction via FSL
mcflirt
+ - AutoAIF integration for automatic AIF detection
+ - Ktrans / vp mapping + per-case & population HTML QC reports
+ - Docker image available for easy, reproducible deployment
+
+
+
+
+
+