Still, I would like to hear about the engineering process behind these grid fins. Do you want to know if the Russian version uses this technology? Moreover, I want to know how to develop in the future. I can definitely see Falcon 9 get grid 0 and take advantage of atmospheric slowdown. Also, use in BFR
Also, are BFS still using grid fins? I did not see them with any rendering. It seems to be wonderful for the Earth's reentry.
I think that the same thing will happen in the field of decentralization. As the first entry point, you can imagine a distributed version of each AWS block. However, each ecosystem (cloud and mobile, decentralized) has its own special block, such as token storage for decentralization, so there are differences. This will be a pleasant trip! You can actually put more layers in these building blocks. For example. The database is at the top of the file system and the file system is in raw data (BLOB) storage. The distributed database involves communication. For example, most modern databases communicate with underlying storage via a file system such as Ext4, XFS, or GridFS. The framework introduced in this article is the application programmer's framework. What is the file system user experience, the database user experience, and so on?
In this article, we will explain how Segwit determines the difference between block transaction capacity and currently determined block transaction capacity. If you have heard that "Segwit is an increase in block size" and do not know its meaning, please read this article. It also explains how this affects Segwit 2x and the block transaction capacity seen before and after the 2x hard fork. Some people think that the answer to the last question before the witness is "no". In fact, this can be implemented as a soft fork, allowing more transactions to be a breakthrough in engineering. Significant insight is that most transactions, scriptSig (signature, pubkey etc) can basically not be sent to the Legacy node and still be considered valid.
Figure 3 shows how to create blocks based on the transactions shown in the figure. Initially, it is assumed that the most recent block is block 5-2 (ie, chain ..., 5-2). Assuming that block 5-2 is connected to the block chain, blocks 6-1 and 8-4 are mined at the same time. At this point, users and miners can continue to work hard by choosing any fork. When minor a is built on Chain ..., 5-2, 6-1, minor b searches for new blocks on Chain ..., 5-2, 8-4. After all, the two chains are the same length, and selecting a chain is the beginning. Next, miner a also mines block 8 - 4, so the fork becomes a chain ..., 5 - 2, 6 - 1, 8 - 4. As you can see from Figure 1, since blocks 6-1 and 8-4 contain different transactions, they can be mined in order. At this point, other miners in the system saw the two forks and chains ..., 5-2, 6-1, and 8-4 were the longest. They choose to build on this long chain