One notable approach involves the selective fetching and transmission of weak blocks to manage bandwidth consumption more efficiently. This strategy suggests that not all weak blocks need to be communicated between nodes within a certain period. To further minimize bandwidth usage, the proposal includes prioritizing the use of weakheaders before considering the transmission of subsequent weak block transactions. This method aims to strike a balance between reducing extra data transfer load and accepting a marginal increase in latency.

Additionally, the frequency at which weak blocks are discovered poses both an opportunity and a concern within this framework. Weak blocks could be found just seconds apart from each other, which on one hand, demonstrates the system's efficiency in generating new blocks. However, this also raises questions regarding the volume of data transmitted, especially if the succeeding weak blocks contain largely unseen transactions compared to the most recently confirmed top block. The implication here is that while the system might benefit from the rapid discovery of weak blocks, there is a risk of committing or transmitting more data than necessary unless a strategic filtering mechanism is employed to prevent redundancy. This scenario underscores the need for a carefully considered design space that accommodates the efficient handling of weak blocks without overwhelming network resources.