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Table 1 The comparison between the existing studies is presented

From: SAlign–a structure aware method for global PPI network alignment

Method

Features

Topological method

Alignment heuristic

Datasets

Advantages

Limitations

HubAlign

Sequence + topology

Min. degree heuristic

Greedy algorithm

IntAct

Scalable better alignment in terms of no. of aligned nodes

AFS is not better as HubAlign prioritises topology

ModuleAlign

Sequence + topology + clustering based scores

Min. degree heuristic + cluster similarity scores

Hungarian algorithm

HINT

Module based (clustering) scoring matrix helps in producing quality alignment

Complexity is high

PROPER

Sequence + topology

Local network topology

Percolation graph matching algorithm

IntAct

Takes less resources and time

Align few no. of nodes

IBNAL

Functional similarity + topology

Clique-degree signature similarity

Greedy Algorithm (based on clique size)

IsoBase

Uses less resources

Go-annotations are required in alignment phase

MAGNA

Sequence only

Genetic algorithm

BioGRID

Efficient for alignments that required high topological quality

1-optimize the results w.r.t topology only that results in low semantic similarity 2-exponential complexity time

NETAL

Topology only

Local topological measure with iterative updates

Greedy-algorithm

IntAct

High speed

Performance is measured using topological measures only

UAlign

Sequence + topology

UAlign unifies the alignments of eight aligners which include Natalie, SPINAL, PISwap, MAGNA, HubAlign, L-GRAAL, OptNetAlign and ModuleAlign. The best features of all aligners are used to optimize the alignment w.r.t different measures

  1. The features used by the existing aligners, topological measures, alignment heuristics, datasets, advantages and limitations are compared