radare2中文版
  • 介绍
  • 历史
  • 框架
  • 下载 radare2
  • 编译和可移植性
  • 在Windows上编译
  • 用户界面
  • 第一步
    • 命令行标志
    • 命令格式
    • 表达式
    • 基本调试器会话
    • 对radare2的贡献
  • 配置
    • 颜色
    • 配置变量
    • Files
  • 基本命令
    • Seeking(寻求)
    • Block Size(区块大小)
    • Sections(分节)
    • Mapping Files(映射文件)
    • Print Modes(打印模式)
    • Flags(标志)
    • Write(写)
    • Zoom(缩放)
    • Yank/Paste(拉伸/粘贴)
    • Comparing Bytes(比较字节)
    • SDB
    • Dietline
  • 视图模式
    • 反汇编
    • 汇编
    • 配置编辑器
    • 面板
  • 搜索字节
    • 基本搜索
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    • 正则搜索
    • 自动化
    • 向后搜索
    • 在程序集中搜索
    • 搜索AES密钥
  • 反汇编
    • 添加元数据
    • ESIL
  • 分析
    • 代码分析
    • 变量
    • 类型
    • 调用约定
    • 虚拟表
    • 系统调用
    • 模拟
    • 符号信息
    • 签名
    • 图形命令
  • 脚本
    • 循环
    • 宏
    • R2pipe
  • 调试器
    • 入门
    • 迁移自ida, GDB or WinDBG
    • 寄存器
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    • 堆
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    • 反向调试
  • 远程访问
    • 远程GDB
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  • 命令行工具
    • Rax2(数值转换)
    • Rafind2(查找)
    • Rarun2
    • Rabin2(文件格式)
      • 文件标识
      • 入口
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      • 符号 (导出)
      • 库
      • 字符串
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    • Radiff2(比较)
      • Binary Diffing
    • Rasm2(反汇编)
      • 汇编
      • 反汇编
      • 配置
    • Ragg2(C编译器)
      • Language
    • Rahash2(加密算法)
      • Rahash Tool
  • 插件
    • IO 插件
    • 汇编插件
    • 分析插件
    • 二进制插件
    • 其他插件
    • Python插件
    • 调试
    • 测试
    • Packaging
  • Crackmes
    • IOLI
      • IOLI 0x00
      • IOLI 0x01
    • Avatao R3v3rs3 4
      • .radare2
      • .first_steps
      • .main
      • .vmloop
      • .instructionset
      • .bytecode
      • .outro
  • 参考卡
  • 致谢
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  • Ascii Art ** (e.g. agf)
  • Interactive Ascii Art (e.g. agfv)
  • Tiny Ascii Art (e.g. agft)
  • Graphviz dot (e.g. agfd)
  • JSON (e.g. agfj)
  • Graph Modelling Language (e.g. agfg)
  • SDB key-value (e.g. agfk)
  • R2 custom graph commands (e.g. agf*)
  • Web / image (e.g. agfw)

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  1. 分析

图形命令

When analyzing data it is usually handy to have different ways to represent it in order to get new perspectives to allow the analyst to understand how different parts of the program interact.

Representing basic block edges, function calls, string references as graphs show a very clear view of this information.

Radare2 supports various types of graph available through commands starting with ag:

[0x00005000]> ag?
|Usage: ag<graphtype><format> [addr]
| Graph commands:
| agc[format] [fcn addr]  Function callgraph
| agf[format] [fcn addr]  Basic blocks function graph
| agx[format] [addr]      Cross references graph
| agr[format] [fcn addr]  References graph
| aga[format] [fcn addr]  Data references graph
| agd[format] [fcn addr]  Diff graph
| agi[format]             Imports graph
| agC[format]             Global callgraph
| agR[format]             Global references graph
| agA[format]             Global data references graph
| agg[format]             Custom graph
| ag-                     Clear the custom graph
| agn[?] title body       Add a node to the custom graph
| age[?] title1 title2    Add an edge to the custom graph
|
| Output formats:
| <blank>                 Ascii art
| v                       Interactive ASCII art
| t                       Tiny ASCII art
| d                       Graphviz dot
| j                       JSON ('J' for formatted disassembly)
| g                       Graph Modelling Language (GML)
| k                       SDB key-value
| *                       r2 commands
| w                       Web/image (see graph.extension and graph.web)

The structure of the commands is as follows: ag <graph type> <output format>.

For example, agid displays the imports graph in dot format, while aggj outputs the custom graph in JSON format.

Here's a short description for every output format available:

Ascii Art ** (e.g. agf)

Displays the graph directly to stdout using ASCII art to represent blocks and edges.

Warning: displaying large graphs directly to stdout might prove to be computationally expensive and will make r2 not responsive for some time. In case of a doubt, prefer using the interactive view (explained below).

Interactive Ascii Art (e.g. agfv)

Displays the ASCII graph in an interactive view similar to VV which allows to move the screen, zoom in / zoom out, ...

Tiny Ascii Art (e.g. agft)

Displays the ASCII graph directly to stdout in tiny mode (which is the same as reaching the maximum zoom out level in the interactive view).

Graphviz dot (e.g. agfd)

JSON (e.g. agfj)

Prints a JSON string representing the graph.

  • In case of the f format (basic blocks of function), it will have detailed information about the function and will also contain the disassembly of the function (use J format for the formatted disassembly.

  • In all other cases, it will only have basic information about the nodes of the graph (id, title, body, and edges).

Graph Modelling Language (e.g. agfg)

SDB key-value (e.g. agfk)

Prints key-value strings representing the graph that was stored by sdb (radare2's string database).

R2 custom graph commands (e.g. agf*)

Prints r2 commands that would recreate the desired graph. The commands to construct the graph are agn [title] [body] to add a node and age [title1] [title2] to add an edge. The [body] field can be expressed in base64 to include special formatting (such as newlines).

To easily execute the printed commands, it is possible to prepend a dot to the command (.agf*).

Web / image (e.g. agfw)

Radare2 will convert the graph to dot format, use the dot program to convert it to a .gif image and then try to find an already installed viewer on your system (xdg-open, open, ...) and display the graph there.

The extension of the output image can be set with the graph.extension config variable. Available extensions are png, jpg, gif, pdf, ps.

Note: for particularly large graphs, the most recommended extension is svg as it will produce images of much smaller size

If graph.web config variable is enabled, radare2 will try to display the graph using the browser (this feature is experimental and unfinished, and disabled by default.)

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最后更新于4年前

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Prints the dot source code representing the graph, which can be interpreted by programs such as or online viewers like

Prints the GML source code representing the graph, which can be interpreted by programs such as

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