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voluseg
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pipeline for volumetric cell segmentation
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voluseg
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# Volumetric Segmentation Pipeline Reference: [DOI: 10.1016/j.cell.2019.05.050](https://doi.org/10.1016/j.cell.2019.05.050) Mu Y*, Bennett DV*, Rubinov M*, Narayan S, Yang CT, Tanimoto M, Mensh BD, Looger LL, Ahrens MB. Glia accumulate evidence that actions are futile and suppress unsuccessful behavior. Cell 2019 178:27-43. Contact: Mika Rubinov, `mika.rubinov at vanderbilt.edu` ## Run from Docker Container Instructions [here](https://github.com/mikarubi/voluseg/blob/master/README-docker.md). ## Dependencies - `h5py`, `dask`, `scipy`, `scikit-image`, `scikit-learn`, `matplotlib`, `nibabel`, `requests`, `numpy`, `pandas`, `pydantic>=2.8.0`, `pynwb>=2.8.0`, `loguru==0.7.2` - Advanced Normalization Tools (ANTs) for registration (can install via conda) ## Installation Use pip to install: ```sh pip install git+https://github.com/mikarubi/voluseg.git ``` ## Example Usage 1. Download an example dataset folder: [Example Dataset](https://www.dropbox.com/sh/psrj9lusohj7epu/AAAbj8Jbb3o__pyKTTDxPvIKa?dl=0) 2. Import package and load default parameters. 3. Execute code sequentially to perform cell detection. 4. The final output is in the file `cells0_clean.hdf5` in the output directory. ## Example Code ```python # set up import os import pprint import voluseg # check for updates voluseg.update() # Download sample data voluseg._tools.download_sample_data("/path/to/input/") # set and save parameters filename_parameters = voluseg.step0_define_parameters( dir_input='/path/to/input/downloaded_data/', dir_output='/path/to/output/directory/', registration='high', diam_cell=5.0, f_volume=2.0 ) # load and print parameters parameters = voluseg.load_parameters(filename_parameters) pprint.pprint(parameters) print("process volumes.") voluseg.step1_process_volumes(parameters) print("align volumes.") voluseg.step2_align_volumes(parameters) print("mask volumes.") voluseg.step3_mask_volumes(parameters) print("detect cells.") voluseg.step4_detect_cells(parameters) print("clean cells.") voluseg.step5_clean_cells(parameters) ``` ## Pipeline Output ### parameters.json - Parameter dictionary. - `parameters = voluseg.load_parameters('parameters.json')` - Required as input to individual pipeline steps. ### mask_plots - Directory of average volume plane images. - Brain mask superimposed on brain volume. - Can be used to assess goodness of brain masks. ### transforms directory - Directory of affine transforms for individual volumes. - Can be used to assess movement of individual volumes. - Can be used to register volumes from a concurrent recording. ### volume0.hdf5 - `background`: estimated background fluorescence. - `block_valids`: indices of blocks used for segmentation. - `block_xyz0/1`: min/max block xyz coordinates. - `n_blocks`: total number of blocks. - `n_voxels_cells`: approximate number of voxels in each cell. - `thr_intensity`: brain-mask intensity threshold. - `thr_probability`: brain-mask probability threshold. - `volume_mean/mask/peak`: volume mean/mask/local peak intensity. ### mean_timeseries.hdf5 - `mean_baseline`: baseline of detrended volume-mean timeseries. - `mean_timeseries`: detrended volume-mean timeseries. - `mean_timeseries_raw`: raw volume-mean timeseries. - `timepoints`: indices of timepoints used for cell segmentation. ### cells0_clean.hdf5 - `background`: estimated background fluorescence. - `cell_baseline`: computed cell baselines. - `cell_timeseries`: detrended [+ optionally filtered] cell timeseries. - `cell_timeseries_raw`: raw cell timeseries (direct output of segmentation). - `cell_weights`: cell spatial footprints (spatial NMF components). - `cell_x/y/z`: cell coordinates. - `n/t`: number of cells/timepoints. - `volume_id`: cell ids represented on a volume. - `volume_weight`: cell spatial footprints represented on a volume. - `x/y/z`: volume dimensions.