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Matrix Multiplication in the MPC Model
Lakshya Joshi, Arya Deshmukh, Atharv Chhabra, Chetan Gupta · 2025-05-25 · via cs.DC updates on arXiv.org

In this paper, we present algorithms to solve matrix multiplication problems in the MPC model. In particular, we consider the problem under various processor/memory constraints in the MPC model and prove the following results. 1. Multiplication of two rectangular matrices of size $d \times n$ and $n \times d$ ( where $d \leq n$) respectively can be done in, i) $O(\sqrt{d} + \log_d n)$ rounds with $n$ processors and $Θ(d)$ memory per processor ii) $O(\frac{d}{\sqrt{n}})$ rounds with $d$ processors and $Θ(n)$ memory per processor. 2. Multiplication of two rectangular matrices of size $n \times d$ and $d \times n$ (where $d \leq n$) respectively, with $n$ processors of $Θ(n)$ memory per processor, can be done in $O(\frac{d}{\sqrt{n}})$ rounds. 3.The multiplication of two $d$-sparse matrices (matrices that contain at most $d$-nonzero elements in each row and in each column) with $n$ processors and $Θ(d)$ memory per processor can be done in $O(d^{0.9})$ rounds.