// Copyright 2017 Jan-Erik Rediger // // Adopted from tests in `tests/assembler.rs` // // Licensed under the Apache License, Version 2.0 or // the MIT license , at your option. This file may not be // copied, modified, or distributed except according to those terms. extern crate solana_rbpf; use solana_rbpf::{ assembler::assemble, program::{BuiltinProgram, FunctionRegistry}, static_analysis::Analysis, vm::{Config, TestContextObject}, }; use std::sync::Arc; // Using a macro to keep actual line numbers in failure output macro_rules! disasm { ($src:expr) => {{ let src = $src; let loader = BuiltinProgram::new_loader( Config { enable_symbol_and_section_labels: true, ..Config::default() }, FunctionRegistry::default(), ); let executable = assemble::(src, Arc::new(loader)).unwrap(); let analysis = Analysis::from_executable(&executable).unwrap(); let mut reasm = Vec::new(); analysis.disassemble(&mut reasm).unwrap(); assert_eq!(src, String::from_utf8(reasm).unwrap()); }}; } #[test] fn test_empty() { disasm!(""); } // Example for InstructionType::NoOperand. #[test] fn test_exit() { disasm!("entrypoint:\n exit\n"); } // Example for InstructionType::AluBinary. #[test] fn test_add64() { disasm!("entrypoint:\n add64 r1, r3\n"); disasm!("entrypoint:\n add64 r1, 5\n"); } // Example for InstructionType::AluUnary. #[test] fn test_neg64() { disasm!("entrypoint:\n neg64 r1\n"); } // Example for InstructionType::LoadReg. #[test] fn test_ldxw() { disasm!("entrypoint:\n ldxw r1, [r2+0x5]\n"); disasm!("entrypoint:\n ldxw r1, [r2-0x5]\n"); } // Example for InstructionType::StoreImm. #[test] fn test_stw() { disasm!("entrypoint:\n stw [r2+0x5], 7\n"); disasm!("entrypoint:\n stw [r2-0x5], 7\n"); } // Example for InstructionType::StoreReg. #[test] fn test_stxw() { disasm!("entrypoint:\n stxw [r2+0x5], r8\n"); disasm!("entrypoint:\n stxw [r2-0x5], r8\n"); } // Example for InstructionType::JumpUnconditional. #[test] fn test_ja() { disasm!( "entrypoint: ja lbb_1 lbb_1: exit " ); } // Example for InstructionType::JumpConditional. #[test] fn test_jeq() { disasm!( "entrypoint: jeq r1, 4, lbb_1 lbb_1: exit " ); disasm!( "entrypoint: jeq r1, r3, lbb_1 lbb_1: exit " ); } // Example for InstructionType::Call. #[test] fn test_call() { disasm!( "entrypoint: call function_1 function_1: exit " ); } // Example for InstructionType::Endian. #[test] fn test_be32() { disasm!("entrypoint:\n be32 r1\n"); } // Example for InstructionType::LoadImm. #[test] fn test_lddw() { disasm!("entrypoint:\n lddw r1, 0x1234abcd5678eeff\n"); disasm!("entrypoint:\n lddw r1, 0xff11ee22dd33cc44\n"); } // Example for InstructionType::LoadReg. #[test] fn test_ldxdw() { disasm!("entrypoint:\n ldxdw r1, [r2+0x7999]\n"); disasm!("entrypoint:\n ldxdw r1, [r2-0x8000]\n"); } // Example for InstructionType::StoreImm. #[test] fn test_sth() { disasm!("entrypoint:\n sth [r1+0x7999], 3\n"); disasm!("entrypoint:\n sth [r1-0x8000], 3\n"); } // Example for InstructionType::StoreReg. #[test] fn test_stxh() { disasm!("entrypoint:\n stxh [r1+0x7999], r3\n"); disasm!("entrypoint:\n stxh [r1-0x8000], r3\n"); } // Test all supported AluBinary mnemonics. #[test] fn test_alu_binary() { disasm!( "entrypoint: add64 r1, r2 sub64 r1, r2 mul64 r1, r2 div64 r1, r2 or64 r1, r2 and64 r1, r2 lsh64 r1, r2 rsh64 r1, r2 mod64 r1, r2 xor64 r1, r2 mov64 r1, r2 arsh64 r1, r2 " ); disasm!( "entrypoint: add64 r1, 2 sub64 r1, 2 mul64 r1, 2 div64 r1, 2 or64 r1, 2 and64 r1, 2 lsh64 r1, 2 rsh64 r1, 2 mod64 r1, 2 xor64 r1, 2 mov64 r1, 2 arsh64 r1, 2 " ); disasm!( "entrypoint: add32 r1, r2 sub32 r1, r2 mul32 r1, r2 div32 r1, r2 or32 r1, r2 and32 r1, r2 lsh32 r1, r2 rsh32 r1, r2 mod32 r1, r2 xor32 r1, r2 mov32 r1, r2 arsh32 r1, r2 " ); disasm!( "entrypoint: add32 r1, 2 sub32 r1, 2 mul32 r1, 2 div32 r1, 2 or32 r1, 2 and32 r1, 2 lsh32 r1, 2 rsh32 r1, 2 mod32 r1, 2 xor32 r1, 2 mov32 r1, 2 arsh32 r1, 2 " ); } // Test all supported AluUnary mnemonics. #[test] fn test_alu_unary() { disasm!( "entrypoint: neg64 r1 neg32 r1 " ); } // Test all supported LoadReg mnemonics. #[test] fn test_load_reg() { disasm!( r"entrypoint: ldxw r1, [r2+0x3] ldxh r1, [r2+0x3] ldxb r1, [r2+0x3] ldxdw r1, [r2+0x3] " ); } // Test all supported StoreImm mnemonics. #[test] fn test_store_imm() { disasm!( "entrypoint: stw [r1+0x2], 3 sth [r1+0x2], 3 stb [r1+0x2], 3 stdw [r1+0x2], 3 " ); } // Test all supported StoreReg mnemonics. #[test] fn test_store_reg() { disasm!( "entrypoint: stxw [r1+0x2], r3 stxh [r1+0x2], r3 stxb [r1+0x2], r3 stxdw [r1+0x2], r3 " ); } // Test all supported JumpConditional mnemonics. #[test] fn test_jump_conditional() { disasm!( "entrypoint: jeq r1, r2, lbb_11 jgt r1, r2, lbb_11 jge r1, r2, lbb_11 jlt r1, r2, lbb_11 jle r1, r2, lbb_11 jset r1, r2, lbb_11 jne r1, r2, lbb_11 jsgt r1, r2, lbb_11 jsge r1, r2, lbb_11 jslt r1, r2, lbb_11 jsle r1, r2, lbb_11 lbb_11: exit " ); disasm!( "entrypoint: jeq r1, 2, lbb_11 jgt r1, 2, lbb_11 jge r1, 2, lbb_11 jlt r1, 2, lbb_11 jle r1, 2, lbb_11 jset r1, 2, lbb_11 jne r1, 2, lbb_11 jsgt r1, 2, lbb_11 jsge r1, 2, lbb_11 jslt r1, 2, lbb_11 jsle r1, 2, lbb_11 lbb_11: exit " ); } // Test all supported Endian mnemonics. #[test] fn test_endian() { disasm!( "entrypoint: be16 r1 be32 r1 be64 r1 le16 r1 le32 r1 le64 r1 " ); } #[test] fn test_large_immediate() { disasm!("entrypoint:\n add64 r1, -1\n"); disasm!("entrypoint:\n add64 r1, -1\n"); }