IPv6 on Your Mobile Phone

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From: http://www.networkworld.com/community/node/37125

 

By Scott Hogg on Sun, 01/11/09 - 9:32pm.

 

You may have IPv6 capabilities on your mobile phone and not even realize it. It has become apparent in 2008 that several mobile phone providers in the U.S. have started to include IPv6 capabilities in their phones. While this is great it has also caused the mobile phone providers to receive a wake-up call about the security implications of IPv6.

The issue is that if the security of a new communications protocol is not considered before it is deployed unforeseen consequences can result. In fact, those service providers who have deployed IPv6 connectivity to their subscribers phones have pulled back some support because of the security issues encountered. I have a HTC 6800 phone from SprintPCS running Windows Mobile 6.1 CE OS 5.2.19208 (Build 19208.1.0.1). Even though my phone has IPv6 connectivity it has less capabilities than when it had CE OS 5.2.1629 (Build 18136.0.4.8).

There is a tool that you can use for your Windows Mobile devices called the Windows Mobile Network Analyzer PowerToy that can tell you about the IP addresses your phone has. This utility has been available for quite some time but it can still be used to help you find out valuable information about how your mobile phone is connected to the Internet. Here is the Windows Network Analyzer output from when I ran it on my SprintPCS HTC 6800. You can see the phones IPv4 address, its 6to4 tunnel interface and address, the beginnings of an ISATAP interface, and the packet statistics for IPv4 and IPv6 protocols.

*** 1/10/2009, 18:50:11 ***
Network Analyzer running...

+++ AnalyzerIPconfig.dll +++
Windows IP configuration
Ethernet adapter Local Area Connection:
IP Address ........ : 0.0.0.0
Subnet Mask ....... : 0.0.0.0
Adapter Name ...... : TNETW12511
Description ....... : TNETW12511
Adapter Index ..... : 2
Address............ : 00 18 41 5a 3a 65
DHCP Enabled....... : YES
DHCP Server........ :
Primary WinsServer :
Secondary WinsServer:
Lease obtained on : Saturday, February 6 ,2106 23 : 28 : 15
Lease expires on : Tuesday, November 10 ,1970 23 : 50 : 23
AutoConfig Enabled : YES

PPP Adapter [Cellular Line]:
IP Address ........ : 173.117.187.133
Subnet Mask ....... : 255.255.0.0
Default Gateway ... : 173.117.187.133
Adapter Name ...... : Cellular Line
Description ....... :
Adapter Index ..... : 1376259
Address............ : 00 00 00 00 00 00
DHCP Enabled....... : NO

Tunnel adapter []:
Interface Number .. : 4

Tunnel adapter [6to4 Tunneling Pseudo-Interface]:
Interface Number .. : 3
IP Address ........ : 2002:ad75:bb85::ad75:bb85
Default Gateway ... : 2002:c058:6301::c058:6301

Tunnel adapter [Automatic Tunneling Pseudo-Interface]:
Interface Number .. : 2
IP Address ........ : fe80::5efe:173.117.187.133

Host name.......... : scottsipphone
Domain Name........ :
DNS Servers........ : 68.28.58.92
68.28.50.91
NODETYPE........... : 8
Routing Enabled.... : NO
Proxy Enabled...... : NO
Test Module Result: True
--- AnalyzerIPconfig.dll ---

+++ AnalyzerPing.dll +++
Ping(Logger, localhost)
PingLink: Reply from 127.0.0.1:Echo size=32 time=31ms TTL=128
PingLink: Reply from 127.0.0.1:Echo size=32 time=1ms TTL=128
PingLink: Reply from 127.0.0.1:Echo size=32 time<10ms TTL=128
PingLink: Reply from 127.0.0.1:Echo size=32 time=1ms TTL=128
Test Module Result: True
--- AnalyzerPing.dll ---

+++ AnalyzerHTTPPing.dll +++
HTTPPing(Logger, http://www.microsoft.com )
dwBytesToRead=128 dwBytesRead=128
InternetCheckConnection() --> TRUE
Test Module Result: True
--- AnalyzerHTTPPing.dll ---

+++ AnalyzerDeviceInfo.dll +++
OSVERSIONINFO.dwMajorVersion = 5
OSVERSIONINFO.dwMinorVersion = 2
OSVERSIONINFO.dwBuildNumber = 19208
OSVERSIONINFO.dwPlatformId = 3
OSVERSIONINFO.szCSDVersion =
Test Module Result: True
--- AnalyzerDeviceInfo.dll ---

+++ AnalyzerNetStats.dll +++

Interface Statistics Received Sent
Bytes 0 0
Unicast Packets 0 0
NonUnicast Packets 0 0
Discards 0 0
Errors 0 0
Unknown Protocols 0
Name =
Index =2
Physical Addrress =0018415A3A65
Description =TNETW12511
Type =6
Mtu =1500
Speed - bps =54000000
Administrative Status =1
Oprerational Status =0
Output Queue Length =0

Interface Statistics Received Sent
Bytes 2769 3237
Unicast Packets 28 28
NonUnicast Packets 0 0
Discards 0 0
Errors 0 0
Unknown Protocols 0
Name =
Index =1376259
Physical Addrress =000000000000
Description =
Type =23
Mtu =1500
Speed - bps =28800
Administrative Status =1
Oprerational Status =1
Output Queue Length =0

TCP TABLE
Loc Addr Loc Port Rem Addr Rem Port State
192.168.55.101 1528 192.168.55.100 990 ESTAB
192.168.55.101 1533 192.168.55.100 990 ESTAB
192.168.55.101 1534 192.168.55.100 990 ESTAB
192.168.55.101 1540 192.168.55.100 990 ESTAB
192.168.55.101 1546 192.168.55.100 990 ESTAB
192.168.55.101 1554 192.168.55.100 990 ESTAB

UDP TABLE
Loc Addr Loc Port
0.0.0.0 137
0.0.0.0 138
0.0.0.0 9204
127.0.0.1 1883

TCP6 Statistics:
--------------
Active Opens = 0
Passive Opens = 0
Connect Attempt Fails = 0
Reset Connections = 0
Current Connections = 0
Segments Received = 0
Segments Sent = 0
Segments Retransmitted = 0
Errors Received = 0
Sgmnts sent w/Reset Flag= 0
Cumulative Connections = 0
Time-Out Algorithm = 4
Time-Out Minimim = 300
Time-Out Maximum = 240000
Maximum Connections = Dynamic (-1)

TCP Statistics:
--------------
Active Opens = 260
Passive Opens = 0
Connect Attempt Fails = 1
Reset Connections = 188
Current Connections = 6
Segments Received = 11982
Segments Sent = 16572
Segments Retransmitted = 75
Errors Received = 0
Sgmnts sent w/Reset Flag= 79
Cumulative Connections = 6
Time-Out Algorithm = 4
Time-Out Minimim = 300
Time-Out Maximum = 120000
Maximum Connections = Dynamic (-1)

UDP6 Statistics:
--------------
Datagrams Received = 0
No Ports = 0
Receive Errors = 0
Datagrams Sent = 0
Number UDP entries = 1

UDP Statistics:
--------------
Datagrams Received = 2035
No Ports = 59
Receive Errors = 2
Datagrams Sent = 2142
Number UDP entries = 4

IP6 Statistics:
--------------
Packets Received = 0
Received Header Errors = 0
Received Address Errors = 0
Datagrams Forwarded = 0
Unknown Protocols Received = 0
Received Packets Discarded = 0
Received Packets Delivered = 0
Output Requests = 17
Routing Discards = 0
Discarded Output Packets = 0
Output Packet No Route = 0
Reassembly Required = 0
Reassembly Successful = 0
Reassembly Failures = 0
Datagrams Fragmented OK = 0
Datagrams Fragmented Fail = 0
Fragments Created = 0
DefaultTTL = 128
Datagrams All Frgs Not Rcvd = 120
Number of Interfaces = 5
Number of Addresses = 5
Number of Routes in Table = 0
Forwarding Enabled = 1

IP Statistics:
--------------
Packets Received = 28160
Received Header Errors = 0
Received Address Errors = 0
Datagrams Forwarded = 0
Unknown Protocols Received = 0
Received Packets Discarded = 0
Received Packets Delivered = 14080
Output Requests = 18815
Routing Discards = 0
Discarded Output Packets = 0
Output Packet No Route = 69
Reassembly Required = 0
Reassembly Successful = 0
Reassembly Failures = 0
Datagrams Fragmented OK = 0
Datagrams Fragmented Fail = 0
Fragments Created = 0
DefaultTTL = 128
Datagrams All Frgs Not Rcvd = 60
Number of Interfaces = 3
Number of Addresses = 3
Number of Routes in Table = 8
Forwarding Enabled = 2

ICMP6 Statistics Received Sent
--------------- ------ ------
Messages 0 27
Errors 0 0
Destination Unreachable 0 0
Packet Too Big 0 0
Time Exceeded 0 0
Param Problem 0 0
Echo Request 0 17
Echo Reply 0 0
Membership Query 0 0
Membership report 0 2
Membership reduction 0 0
Router Solicitation 0 8
Router Advertisment 0 0
Neighbor Solicitation 0 0
Neighbor Advertisment 0 0
Redirect 0 0

ICMP Statistics Received Sent
--------------- ------ ------
Messages 60 67
Errors 0 0
Destination Unreachable 52 59
Time Exceeded 0 0
Parmeter Problems 0 0
Source Quenches 0 0
Redirects 0 0
Echos 4 4
Echo Replies 4 4
Timestamps 0 0
Timestamp Replies 0 0
Address Masks 0 0
Address Mask Replies 0 0
Test Module Result: True
--- AnalyzerNetStats.dll ---

*** 1/10/2009, 18:50:14 ***

Once we have this information we can try to communicate with the phone. An IPv4 ping doesn’t provide any results. This is probably a good thing because if we could send many packets to the mobile phones they might run out of battery life quickly. This might cause the phone to get hot to the touch because it is so busy communicating with the Internet. That hasn’t happened to you recently has it?
C:/Users/scott>ping 173.117.187.133

Pinging 173.117.187.133 with 32 bytes of data:
Request timed out.
Request timed out.
Request timed out.
Request timed out.

Ping statistics for 173.117.187.133:
Packets: Sent = 4, Received = 0, Lost = 4 (100% loss),

At this point we can also perform an nmap scan of the IPv4 address to see what protocols the phone is listening on. This provides some interesting results as we can see that the phone has several open TCP ports.

Starting Nmap 4.76 ( http://nmap.org ) at 2009-01-10 19:28 Mountain Standard Time
Initiating Ping Scan at 19:28
Scanning 172.117.187.133 [2 ports]
Completed Ping Scan at 19:28, 1.10s elapsed (1 total hosts)
Initiating Parallel DNS resolution of 1 host. at 19:28
Completed Parallel DNS resolution of 1 host. at 19:28, 0.81s elapsed
Initiating SYN Stealth Scan at 19:28
Scanning 172.117.187.133 [1000 ports]
Discovered open port 25/tcp on 172.117.187.133
Discovered open port 80/tcp on 172.117.187.133
Discovered open port 8080/tcp on 172.117.187.133
Discovered open port 3128/tcp on 172.117.187.133
Completed SYN Stealth Scan at 19:28, 4.54s elapsed (1000 total ports)
Initiating Service scan at 19:28
Scanning 4 services on 172.117.187.133
Completed Service scan at 19:30, 123.67s elapsed (4 services on 1 host)
Initiating OS detection (try #1) against 172.117.187.133
Initiating Traceroute at 19:30
172.117.187.133: guessing hop distance at 1
Completed Traceroute at 19:30, 0.09s elapsed
Initiating Parallel DNS resolution of 3 hosts. at 19:30
Completed Parallel DNS resolution of 3 hosts. at 19:30, 0.03s elapsed
SCRIPT ENGINE: Initiating script scanning.
Initiating SCRIPT ENGINE at 19:30
Completed SCRIPT ENGINE at 19:30, 20.77s elapsed
Host 172.117.187.133 appears to be up ... good.
Interesting ports on 172.117.187.133:
Not shown: 996 filtered ports
PORT STATE SERVICE VERSION
25/tcp open smtp?
80/tcp open http Apache httpd
3128/tcp open http Apache httpd
8080/tcp open http-proxy Squid webproxy 2.5.STABLE14
Warning: OSScan results may be unreliable because we could not find at least 1 open and 1 closed port
Device type: general purpose|router|firewall|VoIP phone
Running: Linux 2.4.X, MikroTik RouterOS 2.X, Secure Computing embedded, WebVOIZE embedded
OS details: Linux 2.4.18 - 2.4.32 (likely embedded), Linux 2.4.21 - 2.4.33, Linux 2.4.28 - 2.4.30, MicroTik RouterOS 2.9.46, Secure Computing SnapGear SG300 firewall, WebVOIZE 120 IP phone
Uptime guess: 15.056 days (since Mon Dec 22 18:10:30 2008)
TCP Sequence Prediction: Difficulty=200 (Good luck!)
IP ID Sequence Generation: All zeros

TRACEROUTE (using port 80/tcp)
HOP RTT ADDRESS
1 29.00 172.117.187.133

Read data files from: C:/Program Files/Nmap
OS and Service detection performed. Please report any incorrect results at http://nmap.org/submit/ .
Nmap done: 1 IP address (1 host up) scanned in 155.48 seconds
Raw packets sent: 2042 (92.272KB) | Rcvd: 27 (1252B)

However, from my IPv6 Internet-attached laptop I can ping IPv6 sites on the Internet as well as the IPv6 address of the phone.
C:/Users/scott>ping -6 ipv6.google.com

Pinging ipv6.l.google.com [2001:4860:0:2001::68] from 2001:5c0:1000:b::17b3 with 32 bytes of data:
Reply from 2001:4860:0:2001::68: time=139ms
Reply from 2001:4860:0:2001::68: time=136ms
Reply from 2001:4860:0:2001::68: time=137ms
Reply from 2001:4860:0:2001::68: time=145ms

Ping statistics for 2001:4860:0:2001::68:
Packets: Sent = 4, Received = 4, Lost = 0 (0% loss),
Approximate round trip times in milli-seconds:
Minimum = 136ms, Maximum = 145ms, Average = 139ms

As you may know, the IPv4 address of a device is used when forming its 6to4 IPv6 address. The IPv4 address of my phone is 172.117.187.133 and if we convert each of these octets into hex characters we then get something that can be used inside an IPv6 address notation. (172 = 0xAC, 117 = 0x75, 187 = 0xBB, 133 = 0x85) Therefore, the 6to4 address of my phone is 2002:ad75:bb85::ad75:bb85.

C:/Users/scott>ping -6 2002:ad75:bb85::ad75:bb85

Pinging 2002:ad75:bb85::ad75:bb85 from 2001:5c0:1000:b::17b3 with 32 bytes of data:
Request timed out.
Reply from 2002:ad75:bb85::ad75:bb85: time=441ms
Reply from 2002:ad75:bb85::ad75:bb85: time=432ms
Reply from 2002:ad75:bb85::ad75:bb85: time=531ms

Ping statistics for 2002:ad75:bb85::ad75:bb85:
Packets: Sent = 4, Received = 3, Lost = 1 (25% loss),
Approximate round trip times in milli-seconds:
Minimum = 432ms, Maximum = 531ms, Average = 468ms

There are others within the North American IPv6 Task Force (NAv6TF) who are trying to determine which manufacturers of mobile phones and service providers have and permit IPv6 communications. Jeff Doyle recently got a T-Mobile G1 Google Android phone and found that it didn’t have any IPv6 connectivity. David Green and Joe Klein of Command Information have also been experimenting with IPv6-enabled phones and described the security implications of this type of IPv6 connectivity in their recent presentations .

You can use these techniques to experiment with your own mobile phone. You may be surprised by what you find. Please feel free to share with us if your mobile phone has IPv6 connectivity and what capabilities it has.

Scott

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内容概要:本文系统研究了基于动态窗口法(DWA)的机器人局部路径规划算法,深入剖析其在动态环境中实现自主避障与实时轨迹优化的核心机制。文章详细阐述了DWA算法的速度空间采样策略、轨迹预测模型、动力学约束处理及多目标代价函数的设计原理,并通过构建完整的Matlab仿真框架验证算法有效性。结合典型场景的仿真实验,展示了机器人在复杂障碍物环境下如何实时生成安全、平滑且符合运动学约束的最优路径,充分体现了DWA在移动机器人导航中的实用性与鲁棒性。; 适合人群:具备机器人运动规划基础知识和Matlab编程能力,从事智能移动机器人、自动驾驶或服务机器人研发的研究生、科研人员及工程技术人员。; 使用场景及目标:①深入理解DWA算法的理论基础与实现细节;②掌握机器人局部路径规划的仿真实现方法;③为实际机器人系统的导航模块开发提供可复用的算法原型与代码参考;④作为进一步研究高级导航算法(如TEB、MPC)的技术基础。; 阅读建议:建议结合提供的Matlab代码逐模块分析与调试,重点关注速度采样、轨迹积分、障碍物距离计算及代价评估等关键环节,通过调整参数在不同地图环境中进行对比实验,以深刻把握算法性能与参数之间的关系,进而提升对实时路径规划系统设计的理解与应用能力。

GhostTrack:三合一开源追踪工具,掌握数字世界的蛛丝马迹

在当今数字化时代,信息追踪已成为网络安全分析和数字取证的重要环节。GhostTrack作为一款功能强大的开源追踪工具,集成了IP地址追踪、手机号码查询和用户名搜索三大核心功能,为技术爱好者和安全研究人员提供了便捷的信息收集解决方案。无论是进行网络安全评估、数字足迹分析,还是简单的信息验证,这款工具都能提供准确可靠的追踪结果。 ## 三大核心功能深度解析 ### IP地址追踪:定位网络节点的精确

gitblog_00666的博客 428

【轴承故障诊断】用于轴承故障诊断的集中时频分析研究(Matlab代码实现)

内容概要:本文系统研究了用于轴承故障诊断的集中时频分析技术,重点解决了传统时频分析方法在处理非平稳信号时存在的能量分散与分辨率不足等问题。通过引入集中时频分析方法,能够有效聚焦信号能量,精确提取轴承故障特征频率,提升故障识别的准确性与时效性。文章详细阐述了该方法的理论基础,并结合仿真信号与实际实验数据验证其优越性能,同时提供了完整的Matlab代码实现流程,涵盖信号预处理、时频变换、参数优化及结果可视化等环节,便于读者复现与拓展应用。; 适合人群:具备一定信号处理理论基础和Matlab编程能力的研究生、科研人员,以及从事机械设备状态监测、故障诊断与预测性维护工作的工程技术人员。; 使用场景及目标:①应用于电机、风机、齿轮箱等旋转机械的早期轴承故障检测,实现故障预警;②提升工业设备运维系统的智能化水平,支撑预测性维护体系构建;③作为高校或研究机构在信号处理、机械故障诊断等课程中的教学案例与实践素材。; 阅读建议:建议读者结合文中提供的Matlab代码逐段运行与调试,深入理解集中时频分布的生成机制及其关键参数(如核函数选择、平滑窗口大小)对诊断效果的影响,并尝试将其应用于其他类型的机械故障信号分析中,开展对比研究以深化对该方法适用性的认识。

如何3步掌握位置追踪:GhostTrack快速上手终极指南

你是否曾经需要快速查找某个IP地址的位置信息,或者想了解一个手机号码的归属地?GhostTrack就是你的理想选择!这款实用的位置追踪工具,也被称为开源情报(OSINT)工具,能够帮助你轻松获取目标IP、手机号码和社交媒体的相关信息。作为一款信息收集工具,GhostTrack的设计理念就是让位置追踪变得简单直观,即使你是完全的新手也能快速上手。 ## 🎯 为什么选择GhostTrack? 在

gitblog_01162的博客 494

激光条纹中心提取——Steger

激光条纹中心提取-Steger 好久没有记录了,记录一下今天学习的内容,据说Steger在激光条纹中心提取上神一般的存在。文章和代码都分享给大家了哈,其中有四个文件,3个C++,一个python,python一个抠图文件,3个c++包含背景图+原图, 单张图提取, 多张图提取。 分享代码 #include <opencv2\core.hpp> #include <opencv2\highgui.hpp> #include <opencv2\imgproc.hpp> #i

CharmsLUO的博客 5380

慕课软件质量保证与测试(习题集)

慕课金陵科技学院.软件质量保证与测试.期末复习.习题汇总0 总目录1 绪论1.1 软件质量保证与测试的产生与发展1.2 软件缺陷,软件错误,软件故障1.3 软件质量保证与测试的意义,原则和挑战1.4 单元测试1.5 课后作业2 软件测试策略2.1 软件测试的模型,过程和生命周期2.2 软件测试的方法和技术2.3 单元测试2.4 课后作业3 黑盒测试3.1 黑盒测试概述3.2 等价类划分测试3.3 边界值测试3.4 错误推测法3.5 判定表驱动法3.6 因果图法3.7 场景法3.8 正交实验法3.9 单元测试

weixin_42473228的博客 5万+

3分钟掌握GhostTrack:终极开源位置与手机号码追踪工具指南

在数字时代,信息追踪工具已经成为网络安全和个人隐私保护的重要助手。今天,我将为你详细介绍一款功能强大的开源追踪工具——GhostTrack,这款工具能够帮助你轻松追踪IP地址、手机号码和社交媒体用户名信息。无论你是网络安全爱好者、研究人员,还是普通用户,GhostTrack都能为你提供实用的信息收集能力。 ## 为什么选择GhostTrack?🚀 GhostTrack是一款基于Python开

gitblog_00248的博客 429

EGE基础入门篇(一):绘图基础知识

EGE绘图所需要了解的相关基础知识

依稀_yixy的博客 2万+

GhostTrack全面指南:三合一追踪定位工具的实战应用

在数字时代,信息追踪和定位技术已成为网络安全、数字取证和个人隐私保护的重要工具。GhostTrack作为一款开源的多功能追踪定位工具,集IP地址追踪、电话号码查询和社交媒体用户名搜索于一体,为技术爱好者和安全研究人员提供了高效的信息收集解决方案。本文将深入解析GhostTrack的核心功能、安装配置和使用技巧,帮助您快速掌握这款实用的信息追踪工具。 ## 工具概述与核心价值 GhostTrac

gitblog_01083的博客 1143

AVL Cruise 2020.1 安装教程

AVL Cruise 2020.1 安装教程

chengkai730的博客 9480

最优化方法 25:PDHG

前面的章节要么从原始问题出发,要么从对偶问题出发,通过求解近似点或者一个子优化问题进行迭代,而且推导过程中我们发现根据问题的参数特征,比如矩阵 AAA 是瘦高型的还是矮胖型的,采用对偶和原始问题的复杂度会不一样,可以选择一个更简单的。而这一节,我们将要从原始对偶问题出发来优化,什么是原始对偶问题呢?就是原始优化变量和对偶优化变量(原始函数和共轭函数)混合在一块,看下面的原理就知道了。 1. 原始对偶问题 现在考虑原始优化问题,其中 f,gf,gf,g 为闭凸函数 min⁡f(x)+g(Ax) \min \q

Glooow的博客 4599

Django框架整理

Django是一个功能强大的web框架。 前言:框架模式简介 1、MVC和MTV框架模式:分层级进行管理 说到框架模式我们有必要简单的说下设计模式,了解下设计模式这个概念,因为有人对设计模式和框架模式的概念经常混淆 设计模式: 是一套被反复使用,多数人知道并经过分类的代码设计经验总结,是为了解决一些通用性问题的 目的:重用代码并保证代码的可靠性 设计模式分类:单例,抽象工厂 等等 23种模式 一句话总结:解

有用的话关个注,点个赞,收个藏🫶。 1713

C#实现图片裁剪 (附完整源码)

C#实现图片裁剪 (附完整源码)

希望我的博客,能帮上你解决学习中工作中所遇到的问题 505

云原生技术问题

整体流程涉及DNS、ARP、TCP、IP、HTTP核心协议,完整过程如下:首先进行DNS解析,将域名解析为服务器IP,依次查询浏览器缓存、系统hosts、本地DNS缓存,未命中则向DNS服务器迭代查询。核心区别:TCP是面向连接的可靠传输协议,需三次握手建连,具备重传、校验、流量控制、拥塞控制机制,报文开销大、传输延迟高;traceroute利用ICMP超时报文:通过逐级递增数据包TTL值,每经过一台路由器TTL减1,TTL归零后路由器返回ICMP超时报文,以此获取链路所有路由节点IP,定位故障链路。

2303_81849819的博客 464

爬虫实战:拆解WASM加密参数,破局2026电商动态接口反爬(实测某头部电商可用)

sign和wasm_token,而且每次请求这两个参数都在动态变化。用常规的参数拼接、MD5加密尝试还原,结果全是403;反编译前端JS,发现核心加密逻辑被打包成了.wasm,把关键参数加密、签名逻辑藏在二进制模块里,让爬虫无法直接逆向JS拿到加密规则。前后折腾了5天,从WASM文件解析、JS与WASM交互逻辑拆解,到本地还原加密参数、实战验证,踩了无数坑(比如WASM版本不兼容、内存数据读取失败、加密依赖环境缺失),最终成功还原了加密流程,稳定爬取商品详情、价格、销量等核心数据,连续运行72小时无封禁。

专注于Python爬虫开发,分享爬虫技巧、项目实战与反爬经验,使用Scrapy、BeautifulSoup等工具,解决数据抓取难题。 1913

YOLOv8独家原创改进:原创自研 | 自研独家创新DSAM注意力 ,基于BiLevelRoutingAttention注意力升级

提出新颖的注意力DSAM(Deformable Bi-level SpatialAttention Module),创新度极佳,适合科研创新,效果秒杀CBAM,Channel Attention+Spartial Attention升级为新颖的Deformable Bi-level Attention+Spartial Attention

①答疑群聊服务;②YOLO大模型知识问答系统;③计算机视觉论文生成智能体; 1512
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