Name | Purpose | Technique | Targeting approach | Ref | Language | Web page |
---|---|---|---|---|---|---|
MBO | Inference 3D structure of chromosomes from single-cell Hi-C | Manifold-based optimization (MBO) | scHi-C | [46] | MATLAB | |
NucDynamics | Inference 3D structure of chromosomes from single-cell Hi-C | Force field approach integrating molecular dynamics and optimization | scHi-C | [31] | Python and Cython | |
Lavaburst | Contact cluster identification | Network modularity score | scHi-C | [20] | Python | |
scHiCNorm | Normalization of scHi-C data | Poisson and negative binomial model | scHi-C | [40] | R and Perl | |
HiCRep + MDS | Embedding scHi-C data into two dimensions | HiCRep and multidimensional scaling (MDS) | scHi-C | [40] |  |  |
scHiCluster | Clustering cell type-specific chromosome structural patterns | Linear convolution and random walk | scHi-C | [47] | Python | |
SCL | Inference 3D structure of chromosomes from single-cell Hi-C | Cubic lattice representation of a chromosome 3D structure and contact matrix imputation based on a 2D Gaussian function | scHi-C | [48] | C++  | |
SIMBA3D | Inference 3D structure of chromosomes from single-cell Hi-C | Bayesian approach with bulk Hi-C prior and multiscale optimization | scHi-C | [49] | Python | |
GiniQC | Quantifying unevenness in the distribution of interchromosomal reads in the scHi-C contact matrix | Gini coefficient from cumulative distribution of trans read pairs | scHi-C | [38] | Python | |
Inter-chromosomal-interactions | Analyzing interchromosomal interaction of single-cell Hi-C data | Significant interchromosomal interactions were derived with assumption where trans in single cell follows Bernoulli trial | scHiC | [50] | Python | https://github.com/bignetworks2019/Inter-chromosomal-interactions |
schic-topic-model | Distinguishing cell type differences | Latent Dirichlet allocation (LDA) | scHi-C | [13] | Python and R | |
deTOKI | TAD-like domain (TLD) detection in single cell | Nonnegative matrix factorization (NMF) | scHi-C | [51] | Python | |
Si–C | Inference 3D structure of chromosomes from single-cell Hi-C | Bayesian theory framework and polymer physics | scHi-C | [52] | C | |
DPDchrom | Inference 3D structure of chromosomes from single-cell Hi-C | Dissipative particle dynamics (DPD) | scHi-C | [53] | Fortran and Python | |
Higashi | Multiscale and integrative scHi-C analysis | Transformation of scHi-C data into a hypergraph and hypergraph neural network | scHi-C | [54] | Python | |
Fast-Higashi | Ultrafast and interpretable scHi-C analysis | Tensor decomposition and partial random walk | scHi-C | [55] | Python | |
BandNorm | Normalization of scHi-C data | Baseline scaling-based normalization | scHi-C | [39] | R | |
scVI-3D | Deep generative model for scHi-C data | Nonlinear latent factor model and hierarchical generative model | scHi-C | [39] | Python | |
HiCS | Association between regulatory factor binding and chromatin domain | Hierarchical chromatin domain structure identification | scHi-C | [56] | Python | |
scHi-Csim | Simulation of scHi-C data | Interval sampling of raw scHi-C data | scHi-C | [57] | Python | |
ScHiCEDRN | Imputation of single-cell Hi-C | Generative adversarial network (GAN) | scHi-C | [58] | Python | |
DeDoc2 | TAD-like domain (TLD) detection in single cell | Seeking minimal structural entropy | scHi-C | [59] | Java | |
SnapHiC-D | Differential chromatin contact from scHi-C | Random walk with restart (RWR) and two-sided two-sample t-test with Benjamini–Hochberg procedure (FDR) | scHi-C | [42] | Python | |
HiC-SGL | Imputation of single-cell Hi-C | Subgraph extraction and graph representation learning | scHi-C | [60] | Python |