  MARTINI is a popular coarse-grained force-field that is mainly used in
molecular dynamics (MD) simulations. It is based on the ``Lego'' approach where
intermolecular interactions between coarse-grained beads representing chemical
units of different polarity are obtained through water--octanol partition
coefficients. This enables the simulation of a wide range of molecules by only
using a finite number of parametrized coarse-grained beads, similar to the Lego
game, where a finite number of bricks are used to create larger structures.
Moreover, the MARTINI force-field is based on the Lennard-Jones potential with
the shortest possible cutoff including attractions, thus rendering it very
efficient for MD simulations. However, MD simulation is in general a
computationally expensive method. Here, we demonstrate that using the MARTINI
``Lego'' approach is suitable for many-body dissipative particle (MDPD)
dynamics, a method that can simulate multi-component and multi-phase soft
matter systems in a much faster time (about 4--7 times) than MD. In this study,
a DPPC lipid bilayer is chosen to provide evidence for the validity of this
approach and various properties are compared to highlight the potential of the
method. Thus, we anticipate that our study opens new possibilities for faster
simulations of a wide range of soft matter systems by using the MDPD method.
