Generally speaking, the FunC code `op::increase = "op::increase"c` first converts this into a `uint` (unsigned integer), since in TVM (Turing Virtual Machine), communication is done only in unsigned integers to distinguish the `unlimited` functions that you build. On the other hand, the `uint` can be converted into `hex` code to save space when storing it in a Smart Contract. **Here's an example in TypeScript to finalize the op-code into uint and hex data. It uses the CRC32 method to decompress this OP-code information. ** **Code:** ```typescript const POLYNOMIAL = -306674912; let crc32_table: Int32Array | undefined = undefined; export function crc32(str: string, crc = 0xFFFFFFFF) { let bytes = Buffer.from(str); if (crc32_table === undefined) { calcTable(); } for (let i = 0; i < bytes.length; ++i) crc = crc32_table![(crc ^ bytes[i]) & 0xff] ^ (crc >>> 8); return (crc ^ -1) >>> 0; } function calcTable() { crc32_table = new Int32Array(256); for (let i = 0; i < 256; i++) { let r = i; for (let bit = 8; bit > 0; --bit) r = ((r & 1) ? ((r >>> 1) ^ POLYNOMIAL) : (r >>> 1)); crc32_table[i] = r; } } ``` Once we call the function `crc32("deposit")`, we can obtain the value `0xb04a29cf` in practice. For more information about the CRC32 method, you can refer to the following links: - [TON CRC32 Documentation](https://docs.ton.org/develop/data-formats/crc32) - [Online CRC32 Tool](https://emn178.github.io/online-tools/crc32.html)

Generally speaking, the FunC code `op::increase = "op::increase"c` first converts this into a `uint` (unsigned integer), since in TVM (Turing Virtual Machine), communication is done only in unsigned integers to distinguish the `unlimited` functions that you build. On the other hand, the `uint` can be converted into `hex` code to save space when storing it in a Smart Contract. Here's an example in TypeScript to finalize the op-code into uint and hex data. It uses the CRC32 method to decompress this OP-code information. **Code:** ```typescript const POLYNOMIAL = -306674912; let crc32_table: Int32Array | undefined = undefined; export function crc32(str: string, crc = 0xFFFFFFFF) { let bytes = Buffer.from(str); if (crc32_table === undefined) { calcTable(); } for (let i = 0; i < bytes.length; ++i) crc = crc32_table![(crc ^ bytes[i]) & 0xff] ^ (crc >>> 8); return (crc ^ -1) >>> 0; } function calcTable() { crc32_table = new Int32Array(256); for (let i = 0; i < 256; i++) { let r = i; for (let bit = 8; bit > 0; --bit) r = ((r & 1) ? ((r >>> 1) ^ POLYNOMIAL) : (r >>> 1)); crc32_table[i] = r; } } ``` Once we call the function `crc32("deposit")`, we can obtain the value `0xb04a29cf` in practice. For more information about the CRC32 method, you can refer to the following links: - [TON CRC32 Documentation](https://docs.ton.org/develop/data-formats/crc32) - [Online CRC32 Tool](https://emn178.github.io/online-tools/crc32.html)