“…For example, Poly (lactic acid), Poly (ethylene-alt-maleic anhydride) with microwave assisted biochar by Khui [16], polylactic acid with biochar nanoparticle by Sobhan et al [17], polylactic acid with activated biochar by Sobhan et al [18], epoxy with Bael shells and arhar stalk biochar by Minugu et al [19], polyvinyl alcohol with corn straw derived biochar along with silver nano particle by Zhao et al [20], polyesters with rice husk pyrolyzed biochar by Richard et al [9], polyamides with biochar by Huber et al [21], styrene-butadiene rubber (SBR) with maple wood waste derived biochar by Peterson and Kim [22], poly (vinyl alcohol) with wood biochar (PVA) by Nan et al [6], epoxy with three types of biochar (plastic waste biochar, wood shavings biochar, and pine cone char) by Ahmetli et al [23], poly (trimethylene terephthalate) (PTT) with lignin carbonized biochar by Myllytie et al [24], polypropylene with pine wood biochar by Das et al [10,11], poly (trimethylene terephthalate/poly (lactic acid) (PTT/PLA) blend with Miscanthusbased biochar by Nagarajan et al [25], polyurethane with carbon nanotube and graphite oxide particles by Gaidukovs et al [26], and ethylene vinyl acetate copolymer composite filled with carbon nanotubes to investigate electrical and mechanical characteristics by Gaidukovs et al [27]. Povilas et al [28] investigated thermal and dielectric properties of the composites prepared with carbon and Fe 3 O 4 nanoparticles and layered ethylene vinyl acetate. Minugu et al used three different loading levels (2 wt.%, 4 wt.%, and 6 wt.%) of biochar and maximum tensile strength found for the composite with 4 wt.% biochar [19].…”