More recently, bridged singlet fission chromophore systems have emerged as promising light-harvesting candidates for optoelectronic and chemical applications. These intramolecular singlet fission (iSF) compounds exhibit long-lived multiexciton states (in the form of a coupled triplet pair) that extend over multiple chromophores. Studies have revealed the critical role of the bridging unit (β) in modulating coupling between two (or more) singlet fission chromophores (SFCs) and dictating the rate of triplet pair formation and decay. However, the impact of bridge connectivity on the SF dynamics in these systems has been largely excluded. The exception is a recent suggestion that bridge connectivity can modulate triplet pair binding energies, although this is only one consideration. To date, there is no comprehensive model for applying QI concepts to multiexcitonic organic systems. Importantly, the platform of iSF systems offers versatility to study the role of QI, since covalent linkages and chromophores can be varied to access different conjugation and orbital symmetry patterns. Furthermore, clear spectroscopic observables exist that allow for precise correlations to be made regarding the nature of QI and its influence on the rate of triplet pair formation. Defining the role of QI in SF would provide an important understanding of how bridge structure can be used to optimize electronic communication between SFCs and, more broadly, how conductance principles can be extended to multiexcitonic systems.