分类 wifidog认证 下的文章

wifidog认证实现路由器插入广告

现在有很多免费的wifi 访问网页的时候底部会出现一些广告,以下为的实现过程:

1.在路由器上抓http的TCP/IP包,解压,对比,并重新算校验码,打包,并转发

如果没有很深入对的TCP/IP的了解,肯定做不了

2.使用现场的一些带过滤的代理软件(其实也是实现以上过程,但已封装好接口,不需要你在去了解TCP/IP的高深知识)

 在IPTABLE上转做好端口转发,比如把80转发到此代理的上,如8080

以下为第2种实现,基于openwrt(目前国内绝大部分广告路由的实现方式,没高大上的代码,但方式消耗更多的资源,不建议使用)

安装

http://www.privoxy.org/user-manual/actions-file.html#ADD-HEADER

修改配置文件

confdir /etc/privoxy
logdir /var/log
filterfile default.filter
filterfile user.filter
#logfile privoxy
actionsfile match-all.action # Actions that are applied to all sites and maybe overruled later on.
actionsfile default.action   # Main actions file
actionsfile user.action      # User customizations
listen-address  10.1.1.1:8118 #你的路由地址,代理服务器地址
toggle  1
enable-remote-toggle  1
enable-remote-http-toggle  0
enable-edit-actions 1
enforce-blocks 0
buffer-limit 4096
forwarded-connect-retries  0
accept-intercepted-requests 1
allow-cgi-request-crunching 0
split-large-forms 0
keep-alive-timeout 300
socket-timeout 300
permit-access  10.1.1.0/24
debug   1    # show each GET/POST/CONNECT request
debug   4096 # Startup banner and warnings
debug   8192 # Errors - *we highly recommended enabling this*
#admin-address privoxy-admin@example.com
#proxy-info-url http://www.example.com/proxy-service.html

在user.filter 中添加规则

FILTER: block-weeds  
s|</head>|<script type="text/javascript" src="http://www.yourdomainname.com/ystest/js/hupu.js"></script>$0|

把用户规则加入到服务 user.action

{+filter{block-weeds}}
.*

把访问80的转向到你的本地代理服务器,如果你弄有wifidog时候,将要一些判断

iptables -t nat -A PREROUTING -s 0.0.0.0/0.0.0.0 -p tcp --dport 80 -j REDIRECT --to-ports 8118

如果一些普通的商家路由,此方法没任何问题,自己写个C小程序管理下配置等.

增加百度推广 user.action (哎,有钱大家赚....) 其他首页推广类似实现.

{+redirect{?tn=baiduerr}}
www.baidu.com/$
{+redirect{s@tn=\w+@tn=baiduerr@}}
www.baidu.com/s\?

配置注释:

##config
#配置在线手册
user-manual ./doc/user-manual/
#不信任的网页
trust-info-url  http://www.example.com/why_we_block.html
#出错时候管理员的邮箱
admin-address privoxy-admin@example.com
#不可访问时候的地址
proxy-info-url http://www.example.com/proxy-service.html
#配置目录
confdir .
#日志目录
logdir .
#模板目录
templdir .
#所有动作
actionsfile match-all.action
#基于网址过滤(系统带,过滤广告地址)
actionsfile default.action
#基于网址过滤(自定义)
actionsfile user.action
#基于内容过滤(系统带,去除一些网站广告内容)
filterfile default.filter
#基于内容过滤(自定义) 
filterfile user.filter
#日志文件
logfile privoxy.log
#日志等级
debug 1
#监听的地址
listen-address 127.0.0.1:8118
#启用内容切换
toggle 1
#是否可以网页上开启内容切换
enable-remote-toggle 0
#内容切换后是否使用特殊的HTTP头
enable-remote-http-toggle 0
#是否可以在网页上编辑网络行为
enable-edit-actions 0
#被禁止的页面是否可以被用户解封
enforce-blocks 0
#缓存大小
buffer-limit 4096
#代理验证
enable-proxy-authentication-forwarding 0
forwarded-connect-retries 0
#
accept-intercepted-requests 1
allow-cgi-request-crunching 0
split-large-forms 0
#活动链接超时
keep-alive-timeout 5
#流水线送达,访问页面不正常禁用
tolerate-pipelining 1
#SOCKET 超时
socket-timeout 300

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wifidog认证服务器家用环境下部署(java版)

本文所讲的是基于一个java版wifidog认证服务器的开源项目,在windows环境下搭建wifidog认证服务器配合固件实现用户名密码的认证。

大致步骤如下:

一,准备

  1.搭建硬件及网络环境

    a.需要普通路由器1个,刷了带wifidog固件的路由器一个,Windows电脑一台,网线若干,宽带网络。

    b.按照一定的拓扑结构进行搭建:普通路由器连接Internet,wifidog路由器连接到普通路由器LAN,PC接到wifidog路由器LAN

 2.获取软件及工具并安装

    a.获取并安装jdk6

    b.获取并安装MySQL

    c.安装MyEclipse

    d.获取java版wifidog认证服务器源码(https://github.com/C-hill/java4wifidog_server)

二,部署与调试

  3.部署

  因为MyEclipse自带了Tomcat插件,所以直接用MyEclipse的Tomcat插件进行部署。

    a.打开MyEclipse,导入源码,部署到Tomcat

    b.配置Tomcat中server.xml文件(该步骤主要是为了实现wifidog的接口标准)

<Host name="localhost" appBase="webapps" unpackWARs="true" autoDeploy="true" xmlValidation="false" xmlNamespaceAware="false"> 
    <Context path="" docBase="部署路径(绝对路径或appBase的相对路径)" debug="0" reloadable="true"/> 
</Host>

    c.创建数据库并执行wifidog.sql脚本,配置db.properties文件。

4.调试

    a.在浏览器中输入“localhost:8080”,出现页面,则服务器部署成功

   b.路由器设置

      通过cmd查看电脑的ip地址。

      输入192.168.0.1进入路由器管理界面进行配置。

      配置认证服务器url为:电脑ip。

      配置服务器端口为:8080。

      开启wifidog。

    c.验证wifidog是否有效

      在浏览器打开任意网址,正常情况下都会跳转到认证登录页面

这里已经实现了用户名密码认证,接下来可以通过测试接口添加用户名密码,然后输入用户名密码即可上网。具体步骤如下:

     打开localhost:8080进入测试接口首页,进入user接口后,如下图可以看到增加用户的接口,需要参数“device_token”,该参数对应的是表“ap”中的字段“dev_md5”,所以可以到数据库中获取对应的“dev_md5”然后填入,参数“username”,“password”自行定义即可。

      添加完用户名密码后,即可通过在认证页面输入该用户名密码实现认证上网。

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wifidog源码wifidog分析用户连接

用户连接启动线程(void thread_httpd(void * args))

此段代码是当有新用户(未认证的用户)连接时创建的线程,其主要功能为

获取用户浏览器发送过来的http报头
分析http报头,分析是否包含关键路径
不包含关键路径则调用404回调函数
包含关键路径则执行关键路径回调函数(这里主要讲解"/wifidog/auth"路径)

void
thread_httpd(void *args)
{
    void **params;
    httpd *webserver;
    request *r;

    params = (void **)args;
    webserver = *params;
    r = *(params + 1);
    free(params);

    /* 获取http报文 */
    if (httpdReadRequest(webserver, r) == 0) {
        debug(LOG_DEBUG, "Processing request from %s", r->clientAddr);
        debug(LOG_DEBUG, "Calling httpdProcessRequest() for %s", r->clientAddr);
        /* 分析http报文 */
        httpdProcessRequest(webserver, r);
        debug(LOG_DEBUG, "Returned from httpdProcessRequest() for %s", r->clientAddr);
    }
    else {
        debug(LOG_DEBUG, "No valid request received from %s", r->clientAddr);
    }
    debug(LOG_DEBUG, "Closing connection with %s", r->clientAddr);
    httpdEndRequest(r);
}



/* 被thread_httpd调用 */
void httpdProcessRequest(httpd *server, request *r)
{
    char dirName[HTTP_MAX_URL],
        entryName[HTTP_MAX_URL],
        *cp;
    httpDir *dir;
    httpContent *entry;

    r->response.responseLength = 0;
    strncpy(dirName, httpdRequestPath(r), HTTP_MAX_URL);
    dirName[HTTP_MAX_URL-1]=0;
    cp = rindex(dirName, '/');
    if (cp == NULL)
    {
        printf("Invalid request path '%s'\n",dirName);
        return;
    }
    strncpy(entryName, cp + 1, HTTP_MAX_URL);
    entryName[HTTP_MAX_URL-1]=0;
    if (cp != dirName)
        *cp = 0;
    else
        *(cp+1) = 0;

     /* 获取http报文中的关键路径,在main_loop中已经设置 */
    dir = _httpd_findContentDir(server, dirName, HTTP_FALSE);
    if (dir == NULL)
    {
        /* http报文中未包含关键路径,执行404回调函数(在404回调函数中新用户被重定向到认证服务器) */
        _httpd_send404(server, r);
        _httpd_writeAccessLog(server, r);
        return;
    }
    /* 获取关键路径内容描述符 */
    entry = _httpd_findContentEntry(r, dir, entryName);
    if (entry == NULL)
    {
        _httpd_send404(server, r);
        _httpd_writeAccessLog(server, r);
        return;
    }
    if (entry->preload)
    {
        if ((entry->preload)(server) < 0)
        {
            _httpd_writeAccessLog(server, r);
            return;
        }
    }
    switch(entry->type)
    {
        case HTTP_C_FUNCT:
        case HTTP_C_WILDCARD:
            /* 如果是被认证服务器重定向到网关的用户,此处的关键路径为"/wifidog/auth",并执行回调函数 */
            (entry->function)(server, r);
            break;

        case HTTP_STATIC:
            _httpd_sendStatic(server, r, entry->data);
            break;

        case HTTP_FILE:
            _httpd_sendFile(server, r, entry->path);
            break;

        case HTTP_WILDCARD:
            if (_httpd_sendDirectoryEntry(server, r, entry,
                        entryName)<0)
            {
                _httpd_send404(server, r);
            }
            break;
    }
    _httpd_writeAccessLog(server, r);
}

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wifidog源码 - 初始化阶段

Wifidog是一个linux下开源的认证网关软件,它主要用于配合认证服务器实现无线路由器的认证放行功能。

wifidog是一个后台的服务程序,可以通过wdctrl命令对wifidog主程序进行控制。

本文解释wifidog在启动阶段所做的初始化主要工作(代码片段1.1)

初始化配置(先将配置结构体初始化为默认值,在读取配置文件修改配置结构体)
初始化已连接客户端列表(如果是通过wdctrl重启wifidog,将会读取之前wifidog的已连接客户端列表 代码片段1.2 代码片段1.3)
如无特殊情况,分离进程,建立守护进程 (代码片段1.1)
添加多个http请求回调函数(包括404错误回调函数) (见之后章节)
摧毁删除现有的iptables路由表规则 (见之后章节)
建立新的iptables路由表规则 (见之后章节)
启动多个功能线程 (见之后章节)
循环等待客户端连接 (见之后章节)

int main(int argc, char **argv) {

    s_config *config = config_get_config(); //就是返回全局变量config结构体的地址
    config_init(); //初始化全局变量config结构体为默认值

    parse_commandline(argc, argv); //根据传入参数执行操作(如果参数有-x则会设置restart_orig_pid为已运行的wifidog的pid)

    /* Initialize the config */
    config_read(config->configfile); //根据配置文件设置全局变量config结构体
    config_validate(); //判断GatewayInterface和AuthServer是否为空,空则无效退出程序。

    /* Initializes the linked list of connected clients */
    client_list_init(); //将已连接客户端链表置空。

    /* Init the signals to catch chld/quit/etc */
    init_signals(); //初始化一些信号

    if (restart_orig_pid) { //用于restart,如果有已运行的wifidog,先会kill它
        /*
         * We were restarted and our parent is waiting for us to talk to it over the socket
         */
        get_clients_from_parent(); //从已运行的wifidog中获取客户端列表,详见 代码片段1.2

        /*
         * At this point the parent will start destroying itself and the firewall. Let it finish it's job before we continue
         */

        while (kill(restart_orig_pid, 0) != -1) { //kill已运行的wifidog
            debug(LOG_INFO, "Waiting for parent PID %d to die before continuing loading", restart_orig_pid);
            sleep(1);
        }

        debug(LOG_INFO, "Parent PID %d seems to be dead. Continuing loading.");
    }

    if (config->daemon) { //创建为守护进程,config->daemon默认值为-1

        debug(LOG_INFO, "Forking into background");

        switch(safe_fork()) {
            case 0: /* child */
                setsid(); //创建新会话,脱离此终端,实现守护进程
                append_x_restartargv();
                main_loop(); //进入主循环(核心代码在此)。
                break;

            default: /* parent */
                exit(0);
                break;
        }
    }
    else {
        append_x_restartargv();
        main_loop();
    }

    return(0); /* never reached */
}

代码片段1.2(获取已启动的wifidog的客户端列表):

此段代表描述了新启动的wifidog如何从已启动的wifidog程序中获取已连接的客户端列表。发送端见 代码片段1.3

void get_clients_from_parent(void) {
    int sock;
    struct sockaddr_un sa_un;
    s_config * config = NULL;
    char linebuffer[MAX_BUF];
    int len = 0;
    char *running1 = NULL;
    char *running2 = NULL;
    char *token1 = NULL;
    char *token2 = NULL;
    char onechar;
    char *command = NULL;
    char *key = NULL;
    char *value = NULL;
    t_client * client = NULL;
    t_client * lastclient = NULL;

    config = config_get_config();

    debug(LOG_INFO, "Connecting to parent to download clients");

    /* 连接socket */
    sock = socket(AF_UNIX, SOCK_STREAM, 0);
    memset(&sa_un, 0, sizeof(sa_un));
    sa_un.sun_family = AF_UNIX;
    strncpy(sa_un.sun_path, config->internal_sock, (sizeof(sa_un.sun_path) - 1)); //config->internal_sock的值为"/tmp/wifidog.sock"

    /* 连接已启动的wifidog */
    if (connect(sock, (struct sockaddr *)&sa_un, strlen(sa_un.sun_path) + sizeof(sa_un.sun_family))) {
        debug(LOG_ERR, "Failed to connect to parent (%s) - client list not downloaded", strerror(errno));
        return;
    }

    debug(LOG_INFO, "Connected to parent. Downloading clients");

    LOCK_CLIENT_LIST();

    command = NULL;
    memset(linebuffer, 0, sizeof(linebuffer));
    len = 0;
    client = NULL;
    /* 接收数据,逐个字符接收 */
    /* 数据包格式为 CLIENT|ip=%s|mac=%s|token=%s|fw_connection_state=%u|fd=%d|counters_incoming=%llu|counters_outgoing=%llu|counters_last_updated=%lu\n */
    while (read(sock, &onechar, 1) == 1) {
        if (onechar == '\n') {
            /* 如果接收到末尾('\n'),则转为'\0' */
            onechar = '\0';
        }
        linebuffer[len++] = onechar;

        if (!onechar) {
            /* 以下将数据转化为t_client结构体添加到客户端列表 */
            debug(LOG_DEBUG, "Received from parent: [%s]", linebuffer);
            running1 = linebuffer;
            while ((token1 = strsep(&running1, "|")) != NULL) {
                if (!command) {
                    /* The first token is the command */
                    command = token1;
                }
                else {
                /* Token1 has something like "foo=bar" */
                    running2 = token1;
                    key = value = NULL;
                    while ((token2 = strsep(&running2, "=")) != NULL) {
                        if (!key) {
                            key = token2;
                        }
                        else if (!value) {
                            value = token2;
                        }
                    }
                }

                if (strcmp(command, "CLIENT") == 0) {
                    /* This line has info about a client in the client list */
                    if (!client) {
                        /* Create a new client struct */
                        client = safe_malloc(sizeof(t_client));
                        memset(client, 0, sizeof(t_client));
                    }
                }

                if (key && value) {
                    if (strcmp(command, "CLIENT") == 0) {
                        /* Assign the key into the appropriate slot in the connection structure */
                        if (strcmp(key, "ip") == 0) {
                            client->ip = safe_strdup(value);
                        }
                        else if (strcmp(key, "mac") == 0) {
                            client->mac = safe_strdup(value);
                        }
                        else if (strcmp(key, "token") == 0) {
                            client->token = safe_strdup(value);
                        }
                        else if (strcmp(key, "fw_connection_state") == 0) {
                            client->fw_connection_state = atoi(value);
                        }
                        else if (strcmp(key, "fd") == 0) {
                            client->fd = atoi(value);
                        }
                        else if (strcmp(key, "counters_incoming") == 0) {
                            client->counters.incoming_history = atoll(value);
                            client->counters.incoming = client->counters.incoming_history;
                        }
                        else if (strcmp(key, "counters_outgoing") == 0) {
                            client->counters.outgoing_history = atoll(value);
                            client->counters.outgoing = client->counters.outgoing_history;
                        }
                        else if (strcmp(key, "counters_last_updated") == 0) {
                            client->counters.last_updated = atol(value);
                        }
                        else {
                            debug(LOG_NOTICE, "I don't know how to inherit key [%s] value [%s] from parent", key, value);
                        }
                    }
                }
            }

            /* End of parsing this command */
            if (client) {
                /* Add this client to the client list */
                if (!firstclient) {
                    firstclient = client;
                    lastclient = firstclient;
                }
                else {
                    lastclient->next = client;
                    lastclient = client;
                }
            }

            /* Clean up */
            command = NULL;
            memset(linebuffer, 0, sizeof(linebuffer));
            len = 0;
            client = NULL;
        }
    }

    UNLOCK_CLIENT_LIST();
    debug(LOG_INFO, "Client list downloaded successfully from parent");

    close(sock);
}

代码片段1.3(已启动的wifidog发送客户端列表到新启动的wifidog):

//thread_wdctl_handler(void *arg)函数是wifidog启动后自动创建的控制线程,主要用于与wdctrl进行socket通信,根据wdctrl命令执行不同的操作。这里我们着重讲解的是wdctrl发送restart后wifidog的执行逻辑。
static void *
thread_wdctl_handler(void *arg)
{
    int fd,
        done,
        i;
    char request[MAX_BUF];
    ssize_t read_bytes,
        len;

    debug(LOG_DEBUG, "Entering thread_wdctl_handler....");

    fd = (int)arg;

    debug(LOG_DEBUG, "Read bytes and stuff from %d", fd);

    /* 初始化变量 */
    read_bytes = 0;
    done = 0;
    memset(request, 0, sizeof(request));

    /* 读取命令 */
    while (!done && read_bytes < (sizeof(request) - 1)) {
        len = read(fd, request + read_bytes,
                sizeof(request) - read_bytes); //读取wdctrl发送的命令

        /* 判断命令正确性 */
        for (i = read_bytes; i < (read_bytes + len); i++) {
            if (request[i] == '\r' || request[i] == '\n') {
                request[i] = '\0';
                done = 1;
            }
        }

        /* Increment position */
        read_bytes += len;
    }

        //判断命令
    if (strncmp(request, "status", 6) == 0) {
        wdctl_status(fd);
    } else if (strncmp(request, "stop", 4) == 0) {
        wdctl_stop(fd);
    } else if (strncmp(request, "reset", 5) == 0) {
        wdctl_reset(fd, (request + 6));
    } else if (strncmp(request, "restart", 7) == 0) {
        wdctl_restart(fd); //执行wdctl_restart(int afd)函数
    }

    if (!done) {
        debug(LOG_ERR, "Invalid wdctl request.");
                //关闭套接字
        shutdown(fd, 2);
        close(fd);
        pthread_exit(NULL);
    }

    debug(LOG_DEBUG, "Request received: [%s]", request);

        //关闭套接字
    shutdown(fd, 2);
    close(fd);
    debug(LOG_DEBUG, "Exiting thread_wdctl_handler....");

    return NULL;
}


//wdctl_restart(int afd)函数详解
static void
wdctl_restart(int afd)
{
    int sock,
        fd;
    char *sock_name;
    struct sockaddr_un sa_un;
    s_config * conf = NULL;
    t_client * client = NULL;
    char * tempstring = NULL;
    pid_t pid;
    ssize_t written;
    socklen_t len;

    conf = config_get_config();

    debug(LOG_NOTICE, "Will restart myself");

    /*
     * 准备内部连接socket
     */
    memset(&sa_un, 0, sizeof(sa_un));
    sock_name = conf->internal_sock; //conf->internal_sock值为"/tmp/wifidog.sock"
    debug(LOG_DEBUG, "Socket name: %s", sock_name);

    if (strlen(sock_name) > (sizeof(sa_un.sun_path) - 1)) {

        debug(LOG_ERR, "INTERNAL socket name too long");
        return;
    }

    debug(LOG_DEBUG, "Creating socket");
    sock = socket(PF_UNIX, SOCK_STREAM, 0); //建立内部socket套接字

    debug(LOG_DEBUG, "Got internal socket %d", sock);

    /* 如果sock_name文件存在,则删除*/
    unlink(sock_name);

    debug(LOG_DEBUG, "Filling sockaddr_un");
    strcpy(sa_un.sun_path, sock_name); 
    sa_un.sun_family = AF_UNIX;

    debug(LOG_DEBUG, "Binding socket (%s) (%d)", sa_un.sun_path, strlen(sock_name));


    if (bind(sock, (struct sockaddr *)&sa_un, strlen(sock_name) + sizeof(sa_un.sun_family))) {
        debug(LOG_ERR, "Could not bind internal socket: %s", strerror(errno));
        return;
    }

    if (listen(sock, 5)) {
        debug(LOG_ERR, "Could not listen on internal socket: %s", strerror(errno));
        return;
    }

    /*
     * socket建立完成,创建子进程
     */
    debug(LOG_DEBUG, "Forking in preparation for exec()...");
    pid = safe_fork();
    if (pid > 0) {
        /* 父进程 */

        /* 等待子进程连接此socket :*/
        debug(LOG_DEBUG, "Waiting for child to connect on internal socket");
        len = sizeof(sa_un);
        if ((fd = accept(sock, (struct sockaddr *)&sa_un, &len)) == -1){ //接受连接
            debug(LOG_ERR, "Accept failed on internal socket: %s", strerror(errno));
            close(sock);
            return;
        }

        close(sock);

        debug(LOG_DEBUG, "Received connection from child. Sending them all existing clients");

        /*子进程已经完成连接,发送客户端列表 */
        LOCK_CLIENT_LIST();
        client = client_get_first_client(); //获取第一个客户端
        while (client) {
            /* Send this client */
            safe_asprintf(&tempstring, "CLIENT|ip=%s|mac=%s|token=%s|fw_connection_state=%u|fd=%d|counters_incoming=%llu|counters_outgoing=%llu|counters_last_updated=%lu\n", client->ip, client->mac, client->token, client->fw_connection_state, client->fd, client->counters.incoming, client->counters.outgoing, client->counters.last_updated);
            debug(LOG_DEBUG, "Sending to child client data: %s", tempstring);
            len = 0;
            while (len != strlen(tempstring)) {
                written = write(fd, (tempstring + len), strlen(tempstring) - len); //发送给子进程
                if (written == -1) {
                    debug(LOG_ERR, "Failed to write client data to child: %s", strerror(errno));
                    free(tempstring);
                    break;
                }
                else {
                    len += written;
                }
            }
            free(tempstring);
            client = client->next;
        }
        UNLOCK_CLIENT_LIST();

        close(fd);

        debug(LOG_INFO, "Sent all existing clients to child. Committing suicide!");

        shutdown(afd, 2);
        close(afd);


        wdctl_stop(afd);
    }
    else {
        /* 子进程,先关闭资源 */
        close(wdctl_socket_server);
        close(icmp_fd);
        close(sock);
        shutdown(afd, 2);
        close(afd);
        debug(LOG_NOTICE, "Re-executing myself (%s)", restartargv[0]);

        setsid();
        execvp(restartargv[0], restartargv); //执行外部命令,这里重新启动wifidog

        debug(LOG_ERR, "I failed to re-execute myself: %s", strerror(errno));
        debug(LOG_ERR, "Exiting without cleanup");
        exit(1);
    }
}

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