Elvis Wiki - User contributions [en]

ESP-RFID

2023-01-30T11:10:51Z

LLaschitz: /* Settings = */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing
* PICC RFID-tags equal to the amount of users

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

==== Settings ====

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the admin password as well as changing the network settings.

[[File:Wireless settings.png|500px|Wireless settings.png]]

[[File:ESP-RFID General settings.png|500px|ESP-RFID General settings.png]]

==== Adding Users ====

To add users go to the Users page in the Webinterface. Here you can add users manually or by scanning a RFID-tag. Each user as Label or Username and a UID which is saved on the RFID-tag. Administrators can also revoke access from this interface.

[[File:ESP-RFID Users.png|600px]]

After adding a user they can get access via their RFID-tag.

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

*NodeMCU Lolin V3 Module ESP8266 ESP-12F
*MFRC522 RFID reader

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:51:11Z

LLaschitz: /* Adding Users */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing
* PICC RFID-tags equal to the amount of users

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

==== Settings =====

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the admin password as well as changing the network settings.

[[File:Wireless settings.png|500px|Wireless settings.png]]

[[File:ESP-RFID General settings.png|500px|ESP-RFID General settings.png]]

==== Adding Users ====

To add users go to the Users page in the Webinterface. Here you can add users manually or by scanning a RFID-tag. Each user as Label or Username and a UID which is saved on the RFID-tag. Administrators can also revoke access from this interface.

[[File:ESP-RFID Users.png|600px]]

After adding a user they can get access via their RFID-tag.

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

*NodeMCU Lolin V3 Module ESP8266 ESP-12F
*MFRC522 RFID reader

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:50:49Z

LLaschitz: /* Adding Users */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing
* PICC RFID-tags equal to the amount of users

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

==== Settings =====

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the admin password as well as changing the network settings.

[[File:Wireless settings.png|500px|Wireless settings.png]]

[[File:ESP-RFID General settings.png|500px|ESP-RFID General settings.png]]

==== Adding Users ====

To add users go to the Users page in the Webinterface. Here you can add users manually or by scanning a RFID-tag. Each user as Label or Username and a UID which is saved on the RFID-tag. Administrators can also revoke access from this interface.

[[File:ESP-RFID Users.png|600px]]

After adding a user they can get access via their RFID-tag

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

*NodeMCU Lolin V3 Module ESP8266 ESP-12F
*MFRC522 RFID reader

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:49:47Z

LLaschitz: /* Adding Users */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing
* PICC RFID-tags equal to the amount of users

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

==== Settings =====

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the admin password as well as changing the network settings.

[[File:Wireless settings.png|500px|Wireless settings.png]]

[[File:ESP-RFID General settings.png|500px|ESP-RFID General settings.png]]

==== Adding Users ====

To add users go to the Users page in the Webinterface. Here you can add users manually or by scanning a RFID-tag. Each user as Label or Username and a UID which is saved on the RFID-tag. Administrators can also revoke access from this interface.

[[File:ESP-RFID Users.png|600px]]

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

*NodeMCU Lolin V3 Module ESP8266 ESP-12F
*MFRC522 RFID reader

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

File:ESP-RFID Users.png

2023-01-30T09:48:29Z

LLaschitz:

ESP-RFID

2023-01-30T09:47:40Z

LLaschitz: /* Requirements */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing
* PICC RFID-tags equal to the amount of users

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

==== Settings =====

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the admin password as well as changing the network settings.

[[File:Wireless settings.png|500px|Wireless settings.png]]

[[File:ESP-RFID General settings.png|500px|ESP-RFID General settings.png]]

==== Adding Users ====

To add users go to the Users page in the Webinterface. Here you can add users manually or by scanning a RFID-tag. Each user as Label or Username and a UID which is saved on the RFID-tag

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

*NodeMCU Lolin V3 Module ESP8266 ESP-12F
*MFRC522 RFID reader

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:47:34Z

LLaschitz: /* Adding Users */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing
* PICC RFID-Tags equal to the amount of users

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

==== Settings =====

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the admin password as well as changing the network settings.

[[File:Wireless settings.png|500px|Wireless settings.png]]

[[File:ESP-RFID General settings.png|500px|ESP-RFID General settings.png]]

==== Adding Users ====

To add users go to the Users page in the Webinterface. Here you can add users manually or by scanning a RFID-tag. Each user as Label or Username and a UID which is saved on the RFID-tag

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

*NodeMCU Lolin V3 Module ESP8266 ESP-12F
*MFRC522 RFID reader

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:45:55Z

LLaschitz: /* Requirements */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing
* PICC RFID-Tags equal to the amount of users

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

==== Settings =====

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the admin password as well as changing the network settings.

[[File:Wireless settings.png|500px|Wireless settings.png]]

[[File:ESP-RFID General settings.png|500px|ESP-RFID General settings.png]]

==== Adding Users ====

To add users go to the Users page in the Webinterface. Here you can add users manually or by scanning a RFID-Tag.

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

*NodeMCU Lolin V3 Module ESP8266 ESP-12F
*MFRC522 RFID reader

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:45:25Z

LLaschitz: /* Adding Users */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

==== Settings =====

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the admin password as well as changing the network settings.

[[File:Wireless settings.png|500px|Wireless settings.png]]

[[File:ESP-RFID General settings.png|500px|ESP-RFID General settings.png]]

==== Adding Users ====

To add users go to the Users page in the Webinterface. Here you can add users manually or by scanning a RFID-Tag.

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

*NodeMCU Lolin V3 Module ESP8266 ESP-12F
*MFRC522 RFID reader

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:44:05Z

LLaschitz: /* Webinterface */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

==== Settings =====

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the admin password as well as changing the network settings.

[[File:Wireless settings.png|500px|Wireless settings.png]]

[[File:ESP-RFID General settings.png|500px|ESP-RFID General settings.png]]

==== Adding Users ====

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

*NodeMCU Lolin V3 Module ESP8266 ESP-12F
*MFRC522 RFID reader

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:43:40Z

LLaschitz: /* Webinterface */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the admin password as well as changing the network settings.

[[File:Wireless settings.png|500px|Wireless settings.png]]

[[File:ESP-RFID General settings.png|500px|ESP-RFID General settings.png]]

==== Adding Users ====

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

*NodeMCU Lolin V3 Module ESP8266 ESP-12F
*MFRC522 RFID reader

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:43:14Z

LLaschitz: /* Used Hardware */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the admin password as well as changing the network settings.

[[File:Wireless settings.png|500px|Wireless settings.png]]

[[File:ESP-RFID General settings.png|500px|ESP-RFID General settings.png]]

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

*NodeMCU Lolin V3 Module ESP8266 ESP-12F
*MFRC522 RFID reader

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:38:42Z

LLaschitz: /* Description */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the admin password as well as changing the network settings.

[[File:Wireless settings.png|500px|Wireless settings.png]]

[[File:ESP-RFID General settings.png|500px|ESP-RFID General settings.png]]

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

[[Device to be used with this documentation]]
[[Maybe another device to be used with this documentation]]

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

File:ESP-RFID General settings.png

2023-01-30T09:32:07Z

LLaschitz:

ESP-RFID

2023-01-30T09:31:19Z

LLaschitz: /* Description */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the admin password as well as changing the network settings.

[[File:Wireless settings.png|500px|Wireless settings.png]]

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

[[Device to be used with this documentation]]
[[Maybe another device to be used with this documentation]]

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:31:09Z

LLaschitz: /* Description */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the admin password as well as changing the network settings.

[[File:Wireless settings.png|500px|thumb|Wireless settings.png]]

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

[[Device to be used with this documentation]]
[[Maybe another device to be used with this documentation]]

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:30:56Z

LLaschitz: /* Description */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the admin password as well as changing the network settings.

[[File:Wireless settings.png|500px|thumb|right|Wireless settings.png]]

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

[[Device to be used with this documentation]]
[[Maybe another device to be used with this documentation]]

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:30:42Z

LLaschitz: /* Description */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the admin password as well as changing the network settings.

[[File:Wireless settings.png|500px|thumb|right|Wireless settings.png]]

[[File:]]

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

[[Device to be used with this documentation]]
[[Maybe another device to be used with this documentation]]

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:30:24Z

LLaschitz: /* Description */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the admin password as well as changing the network settings.

[[File:Wireless settings.png|500px|thumb|left|Wireless settings.png]]

[[File:]]

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

[[Device to be used with this documentation]]
[[Maybe another device to be used with this documentation]]

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:28:53Z

LLaschitz: /* Webinterface */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the admin password as well as changing the network settings.

[[File:Wireless settings.png]]

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

[[Device to be used with this documentation]]
[[Maybe another device to be used with this documentation]]

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:28:02Z

LLaschitz: /* Webinterface */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the admin password as well as changing the network settings.

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

[[Device to be used with this documentation]]
[[Maybe another device to be used with this documentation]]

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:26:38Z

LLaschitz: /* Webinterface */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

After accessing the interface you will be prompted to enter the adminstrator password which is admin after the initial setup.

The next step should be changeing the

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

[[Device to be used with this documentation]]
[[Maybe another device to be used with this documentation]]

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

File:Wireless settings.png

2023-01-30T09:24:37Z

LLaschitz:

ESP-RFID

2023-01-30T09:21:49Z

LLaschitz: /* Webinterface */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address http://192.168.4.1.

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

[[Device to be used with this documentation]]
[[Maybe another device to be used with this documentation]]

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:21:32Z

LLaschitz: /* Webinterface */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address [http://192.168.4.1].

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

[[Device to be used with this documentation]]
[[Maybe another device to be used with this documentation]]

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:21:21Z

LLaschitz: /* Webinterface */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a wireless public network with an SSID like "esp-rfid-xxxxxx" where x stand for random numbers.

Join the wireless network and access the address ()[http://192.168.4.1].

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

[[Device to be used with this documentation]]
[[Maybe another device to be used with this documentation]]

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:16:24Z

LLaschitz: /* Security Concerns */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board with at least 4 MBytes flash memory or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* ESP-RFID firmware from [https://github.com/esprfid/esp-rfid GitHub]
* a firmware flashing tool of your choice (on Windows not required)
* any necessary drivers that are needed for the microcontroller board of you choosing

== Description ==

The ESP-RFID is an open-source RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to add up to 1000 users to the access controll system.

=== Setup ===

First you have to physically connect the RFID reader with the ESP8266 microcontroller board.

The pin connection can be taken from the following table.

{| class="wikitable" style="text-align:center;"
|-
! ESP8266
! NodeMcu/WeMos
! Wiegand
! PN532
! MFRC522
! RDM6300
|-
| GPIO-15
| D8
|
| SS
| SDA/SS
|
|-
| GPIO-13
| D7
| D0
| MOSI
| MOSI
|
|-
| GPIO-12
| D6
| D1
| MISO
| MISO
|
|-
| GPIO-14
| D5
|
| SCK
| SCK
| TX
|-
| GPIO-04
| D2
|
|
|
|
|-
| GPIO-05
| D1
|
|
|
|
|}

After connecting the pins correctly between the ESP8266 microcontroller board and the RFID reader of your choosing you can flash the firmware on the ESP8266 microcontroller board.

For windows there is an ready made bat-file that can be used for flashing the firmware.

After the firmware has been flashed the system is ready to use and can be configured via the webinterface.

=== Webinterface ===

After the initial setup the ESP8266 microcontroller board broadcasts a public network

== Security Concerns ==

Due to the system only using the UID of a RFID-Tag for authentification the system is prone to copying & spoofing attacks. It should not be used when security is a major concern.

== Used Hardware ==

[[Device to be used with this documentation]]
[[Maybe another device to be used with this documentation]]

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T09:14:36Z

LLaschitz:

ESP-RFID

2023-01-30T09:13:29Z

LLaschitz: /* Setup */

ESP-RFID

2023-01-30T09:09:33Z

LLaschitz: /* Requirements */

ESP-RFID

2023-01-30T09:08:53Z

LLaschitz: /* Setup */

ESP-RFID

2023-01-30T09:08:18Z

LLaschitz: /* Requirements */

ESP-RFID

2023-01-30T09:07:40Z

LLaschitz: /* Setup */

ESP-RFID

2023-01-30T09:06:47Z

LLaschitz: /* Description */

ESP-RFID

2023-01-30T08:49:28Z

LLaschitz: /* Requirements */

ESP-RFID

2023-01-30T08:48:50Z

LLaschitz: /* Description */

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* a firmware flashing tool of your choice (on Windows not required)

== Description ==

The ESP-RFID is a RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors. The administrator of the system is able to

=== Step 1 ===

Enter these commands in the shell

echo foo
echo bar

=== Step 2 ===

Make sure to read

* War and Peace
* Lord of the Rings
* The Baroque Cycle

== Used Hardware ==

[[Device to be used with this documentation]]
[[Maybe another device to be used with this documentation]]

== Courses ==

* [[A course where this documentation was used]] (2017, 2018)
* [[Another one]] (2018)

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

ESP-RFID

2023-01-30T08:46:37Z

LLaschitz: Created page with "== Summary == Introduction to the ESP-RFID access control system == Requirements == * a ESP8266 microcontroller board or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board] * a RC522, PN532, Wiegand, or RDM6300 RFID reader * a firmware flashing tool of your choice (on Windows not required) == Description == The ESP-RFID is a RFID access control system that uses ESP8266 microcontroller board and one of the re..."

== Summary ==

Introduction to the ESP-RFID access control system

== Requirements ==

* a ESP8266 microcontroller board or the [https://www.tindie.com/products/nardev/esp-rfid-relay-board-12v-for-esp8266-board/ official relay board]
* a RC522, PN532, Wiegand, or RDM6300 RFID reader
* a firmware flashing tool of your choice (on Windows not required)

== Description ==

The ESP-RFID is a RFID access control system that uses ESP8266 microcontroller board and one of the required RFID readers that is able to unlock doors.

=== Step 1 ===

Enter these commands in the shell

echo foo
echo bar

=== Step 2 ===

Make sure to read

* War and Peace
* Lord of the Rings
* The Baroque Cycle

== Used Hardware ==

[[Device to be used with this documentation]]
[[Maybe another device to be used with this documentation]]

== Courses ==

* [[A course where this documentation was used]] (2017, 2018)
* [[Another one]] (2018)

== References ==

* https://github.com/esprfid/esp-rfid

[[Category:Documentation]]

Chameleon Mini RevE rebooted Usage

2023-01-30T08:12:39Z

LLaschitz: /* Updating Firmware on Windows */

== Summary ==

Functionality and usage of Chameleon Mini RevE rebooted

== Requirements ==

* Chameleon Mini RevE Rebooted
* Operating systems are referred as:
** Linux: Ubuntu 18.04 bionic amd64
** Windows: Windows 10 (tested in a VM)

== Description ==

The RFID Multitool ChameleonMini is a powerful and portable RFID emulation and manipulation tool that can emulate RFID tags, read tokens and sniff the radio communication. The credit card-shaped housing and integrated battery make it suitable for mobile use. In addition, transmissions can be read out and all data can be conveniently processed on the computer. Using a freely available open-source application, the ChameleonMini can be conveniently configured via a graphical user interface. Otherwise, it can be connected to a smartphone via USB cable or, in part, via Bluetooth and can thus also be configured on the move. This makes it possible, for example, to read an access card in passing and emulate it directly with the ChameleonMini and thus open a (actually protected) door. The ChameleonMini hardware is capable of emulating various ISO 14443, NFC and ISO 15693 cards, as well as other types of RFID transponders operating at 13.56 MHz. The ChameleonMini hardware consists of a PCB antenna driven by power transistors on the board to generate a 13.56 MHz RFID field. They thus function as an active RFID reader. An integrated Li-Ion battery can be charged via USB and enables stand-alone operation. The core of the hardware is an Atmel ATXMega128A4U microcontroller. The AES and DES hardware engines in the microcontroller enable very fast calculation of the cryptographic algorithms.

[[File:Chameleon-Mini-RevE-Rebooted.jpg|500px]]

=== Functionality of Chameleon Mini RevE rebooted ===

Chameleon Mini RevE rebooted has 8 card slots to simulate cards/UIDs, each slot can be set in an own configuration mode to
* simulate cards/UIDs to readers
* help getting a first auth key from a dialogue with a reader
* only first slot allows up to 4K dumps/uploads because of memory limitations
* the default firmware can only configure MIFARE cards
* RevE does not copy cards

Chameleon Mini RevE rebooted is a stand-alone device powered by CR2032 button battery

===Card configurations supported by default firmware===

* NONE: No functionality, ChameleonMini does nothing, the current setting is skipped when cycling through the settings
* MF_ULTRALIGHT: Emulates a MiFare Ultralight card
* MF_ULTRALIGHT_EV1_80B: Emulates a MiFare Ultralight EV1 80B card
* MF_ULTRALIGHT_EV1_164B: Emulates a MiFare Ultralight EV1 164B card
* MF_CLASSIC_1K: Emulates a MiFare Classic 1k card
* MF_CLASSIC_4K: Emulates a MiFare Classic 4k card
* MF_CLASSIC_1K_7B: Emulates a MiFare Classic 1k card with 7b UID
* MF_CLASSIC_4K_7B: Emulates a MiFare Classic 4k card with 7b UID
* MF_DETECTION: Emulates a MiFare Classic 1k card and saves nonces which can be used for mfkey32 attack in GUI

(Source: https://github.com/iceman1001/ChameleonMini-rebooted/wiki/Configurations, Feb 2,2020)

=== Hardware Description ===
[[File:Chameleon mini.png|200px|thumb|left|Chameleon Mini RevE rebooted]]

* Red Leds on left side:
: - 8 red LEDs which indicate the active slot
* Black Button - "KEY":
: - “short press” referred as BUTTON in commands and GUI and let you switch the active slot
: - “long press” - BUTTON_LONG
: - “long press while plugging USB cable” - BOOTLOADER Mode
* Red Buttern - "POWER":
: - used to power on the device when used stand-alone on battery

 
=== Device Recognition ===

==== Linux ====
The linux kernel recognizes a usb device from the idVendor 03eb with the product id 2fe4

dmesg | grep usb
[ 167.571731] usb 1-3: USB disconnect, device number 3
[ 180.768751] usb 1-3: new full-speed USB device number 11 using xhci_hcd
[ 180.917821] usb 1-3: New USB device found, idVendor=03eb, idProduct=2fe4, bcdDevice= 0.04
[ 180.917829] usb 1-3: New USB device strings: Mfr=0, Product=0, SerialNumber=0

The chameleon RevE is seen as a USB modem

lsusb
Bus 001 Device 011: ID 03eb:2fe4 Atmel Corp. ATxmega32A4U DFU bootloader

==== Windows ====

* in the Windows device manager should appear an Atmel USB Device: ATxmega32A4U
![](https://i.imgur.com/EJXyvdJ.png)

== Usage ==
===GUI Usage with Chameleon Mini GUI v1.3.0.5 in Windows===
First you need to install the software in order to have a GUI to use the Chameleon Mini. The Version 1.3.0.5 can be downloaded here (http://www.icesql.se/download/ChameleonMiniGUI/publish.htm)
Afterwards connect the Chameleon Mini RevE Rebooted with an USB-Cable to your PC. The first LED with the label "TAG1" now lights up red.

==== Device Recognition ====
On start of the Windows GUI the device should be recognized and following lines should appear in the output window

[=] Connecting to USB Serial Device (COMX) at COMX
[+] Success, found Chameleon Mini device on 'COMX' with Firmware RevE rebooted installed

[[File:ChameleonMiniSuccess.PNG|500px]]

If this is not the case and you are using Windows in a VM verify that the USB device is redirected to the VM and test to connect again in the submenu "Settings"

==== Use of the Chameleon Mini with the GUI in Window ====

In the first tab "Operation" of the Chameleon Mini GUI, up to eight different memory slots can be freely configured. In order to change an entry, the corresponding box of the entry must first be marked. Then one of four different variants can be selected in the "Mode" selection and any ID can be entered in the UID input field as shown below in the screenshot.

[[File:ChameleonOperation.PNG|500px]]

Below this, you can configure what happens when the button is pressed briefly or for a long time.
[[File:ChameleonButton.PNG|300px]]

To save the changes made, the "Apply" button must be clicked at the bottom. It is possible to edit several entries at the same time. To do this, simply select the corresponding checkboxes.

To emulate an RFID tag, first press the red button on the ChameleonMini RevE Rebooted. Now the memory slot that was marked as active in the software is active. Accordingly, the red LED lights up. Alternatively, ChameleonMini RevE Rebooted is activated when an RFID reader is detected. Then it activates automatically and the corresponding LED lights up. Depending on how the buttons have been configured, it is possible to switch through to RFID emulation through the corresponding memory loads.

==Command Line Interface==

==== Command return codes ====
Status numbers beginning with a '1' denote an informational item and those beginning with a '2' denote an error.
{|class="wikitable"
|-
! Response
! Description
|-
|100:OK
|The command has been successfully executed
|-
| 101:OK WITH TEXT
| The command has been successfully executed and this response is appended with an additional line of information, terminated with CR+LF
|-
| 110:WAITING FOR XMODEM
| The Chameleon is waiting for an XMODEM connection to be established
|-
| 120:FALSE
| The request is answered with false
|-
| 121:TRUE
| The request is answered with true
|-
| 200:UNKNOWN COMMAND
| This command is unknown to the Chameleon
|-
| 201:INVALID COMMAND USAGE
| This action is not supported by this command
|-
| 202:INVALID PARAMETER
| The format or value of the given parameter value is invalid
|-
| 203:TIMEOUT
| The timeout of the currently active command has expired
|+ Command response codes
|}

== Updating Firmware on Windows ==

First you should download the necessary drivers, firmware, and software.

You can the latests manufacturer firmware [https://lab401.com/products/chameleon-mini/firmware/latest.zip here].

Download [https://github.com/iceman1001/ChameleonMini-rebooted iceman1001's GitHub repo] and unzip it. It contains the necessary drivers and software to update the firmware.

Download and install Windows C++ Redistributable for Visual Studio 2013 (VC 12.0) x64 and x86 versions. You can [https://support.microsoft.com/en-us/topic/update-for-visual-c-2013-and-visual-c-redistributable-package-5b2ac5ab-4139-8acc-08e2-9578ec9b2cf1 download them from Microsoft] directly.

After downloading and installing all necessary software navigate to the settings page in the Chameleon Rebooted GUI and press the Upgrade button.

[[File:ChameleonMiniSuccess.PNG|500px]]

This will set the Chameleon Mini RevE rebooted into bootloader mode.

The device will no longer be recognized by Windows.

The next step is to open the Windows Device Manager and look for an unkown USB device. Once you have found the unknown device right-click and select "Update driver".

Then navigate the assistant to the unziped GitHub repo downloaded earlier and go to Drivers/DFU Driver and select .inf-file in the folder.

After this step the Chameleon Mini RevE rebooted should be listed as a Amtel USB Device.

Now move the files Myfile.bin and Myfilee.bin from the downladed firmware to the directory where BOOT_LOADER_EXE.exe is. This should be in the directory Software/Flashing-Windows within the GitHub repo directory.

After Moving the files execute the BOOT_LOADER_EXE.exe.

To finish and verify the installation disconnect and reconnect the Chameleon Mini RevE rebooted and restart the GUI.

== Used Hardware ==

[[Chameleon Mini: RevE Rebooted]]

== References ==

* Wiki: https://github.com/iceman1001/ChameleonMini-rebooted/wiki
* Linux GUI: https://github.com/WolfgangMau/chamgo-qt/releases
* Windows GUI: https://github.com/iceman1001/ChameleonMini-rebootedGUI
* Product description: https://lab401.com/products/chameleon-mini-reve-rebooted
* https://scheible.it/chameleon-mini/
* Updating Firmware: https://github.com/iceman1001/ChameleonMini-rebooted/wiki/Getting-started

[[Category:Documentation]]

Chameleon Mini RevE rebooted Usage

2023-01-30T08:11:10Z

LLaschitz: /* Updating Firmware on Windows */

== Summary ==

Functionality and usage of Chameleon Mini RevE rebooted

== Requirements ==

* Chameleon Mini RevE Rebooted
* Operating systems are referred as:
** Linux: Ubuntu 18.04 bionic amd64
** Windows: Windows 10 (tested in a VM)

== Description ==

The RFID Multitool ChameleonMini is a powerful and portable RFID emulation and manipulation tool that can emulate RFID tags, read tokens and sniff the radio communication. The credit card-shaped housing and integrated battery make it suitable for mobile use. In addition, transmissions can be read out and all data can be conveniently processed on the computer. Using a freely available open-source application, the ChameleonMini can be conveniently configured via a graphical user interface. Otherwise, it can be connected to a smartphone via USB cable or, in part, via Bluetooth and can thus also be configured on the move. This makes it possible, for example, to read an access card in passing and emulate it directly with the ChameleonMini and thus open a (actually protected) door. The ChameleonMini hardware is capable of emulating various ISO 14443, NFC and ISO 15693 cards, as well as other types of RFID transponders operating at 13.56 MHz. The ChameleonMini hardware consists of a PCB antenna driven by power transistors on the board to generate a 13.56 MHz RFID field. They thus function as an active RFID reader. An integrated Li-Ion battery can be charged via USB and enables stand-alone operation. The core of the hardware is an Atmel ATXMega128A4U microcontroller. The AES and DES hardware engines in the microcontroller enable very fast calculation of the cryptographic algorithms.

[[File:Chameleon-Mini-RevE-Rebooted.jpg|500px]]

=== Functionality of Chameleon Mini RevE rebooted ===

Chameleon Mini RevE rebooted has 8 card slots to simulate cards/UIDs, each slot can be set in an own configuration mode to
* simulate cards/UIDs to readers
* help getting a first auth key from a dialogue with a reader
* only first slot allows up to 4K dumps/uploads because of memory limitations
* the default firmware can only configure MIFARE cards
* RevE does not copy cards

Chameleon Mini RevE rebooted is a stand-alone device powered by CR2032 button battery

===Card configurations supported by default firmware===

* NONE: No functionality, ChameleonMini does nothing, the current setting is skipped when cycling through the settings
* MF_ULTRALIGHT: Emulates a MiFare Ultralight card
* MF_ULTRALIGHT_EV1_80B: Emulates a MiFare Ultralight EV1 80B card
* MF_ULTRALIGHT_EV1_164B: Emulates a MiFare Ultralight EV1 164B card
* MF_CLASSIC_1K: Emulates a MiFare Classic 1k card
* MF_CLASSIC_4K: Emulates a MiFare Classic 4k card
* MF_CLASSIC_1K_7B: Emulates a MiFare Classic 1k card with 7b UID
* MF_CLASSIC_4K_7B: Emulates a MiFare Classic 4k card with 7b UID
* MF_DETECTION: Emulates a MiFare Classic 1k card and saves nonces which can be used for mfkey32 attack in GUI

(Source: https://github.com/iceman1001/ChameleonMini-rebooted/wiki/Configurations, Feb 2,2020)

=== Hardware Description ===
[[File:Chameleon mini.png|200px|thumb|left|Chameleon Mini RevE rebooted]]

* Red Leds on left side:
: - 8 red LEDs which indicate the active slot
* Black Button - "KEY":
: - “short press” referred as BUTTON in commands and GUI and let you switch the active slot
: - “long press” - BUTTON_LONG
: - “long press while plugging USB cable” - BOOTLOADER Mode
* Red Buttern - "POWER":
: - used to power on the device when used stand-alone on battery

 
=== Device Recognition ===

==== Linux ====
The linux kernel recognizes a usb device from the idVendor 03eb with the product id 2fe4

dmesg | grep usb
[ 167.571731] usb 1-3: USB disconnect, device number 3
[ 180.768751] usb 1-3: new full-speed USB device number 11 using xhci_hcd
[ 180.917821] usb 1-3: New USB device found, idVendor=03eb, idProduct=2fe4, bcdDevice= 0.04
[ 180.917829] usb 1-3: New USB device strings: Mfr=0, Product=0, SerialNumber=0

The chameleon RevE is seen as a USB modem

lsusb
Bus 001 Device 011: ID 03eb:2fe4 Atmel Corp. ATxmega32A4U DFU bootloader

==== Windows ====

* in the Windows device manager should appear an Atmel USB Device: ATxmega32A4U
![](https://i.imgur.com/EJXyvdJ.png)

== Usage ==
===GUI Usage with Chameleon Mini GUI v1.3.0.5 in Windows===
First you need to install the software in order to have a GUI to use the Chameleon Mini. The Version 1.3.0.5 can be downloaded here (http://www.icesql.se/download/ChameleonMiniGUI/publish.htm)
Afterwards connect the Chameleon Mini RevE Rebooted with an USB-Cable to your PC. The first LED with the label "TAG1" now lights up red.

==== Device Recognition ====
On start of the Windows GUI the device should be recognized and following lines should appear in the output window

[=] Connecting to USB Serial Device (COMX) at COMX
[+] Success, found Chameleon Mini device on 'COMX' with Firmware RevE rebooted installed

[[File:ChameleonMiniSuccess.PNG|500px]]

If this is not the case and you are using Windows in a VM verify that the USB device is redirected to the VM and test to connect again in the submenu "Settings"

==== Use of the Chameleon Mini with the GUI in Window ====

In the first tab "Operation" of the Chameleon Mini GUI, up to eight different memory slots can be freely configured. In order to change an entry, the corresponding box of the entry must first be marked. Then one of four different variants can be selected in the "Mode" selection and any ID can be entered in the UID input field as shown below in the screenshot.

[[File:ChameleonOperation.PNG|500px]]

Below this, you can configure what happens when the button is pressed briefly or for a long time.
[[File:ChameleonButton.PNG|300px]]

To save the changes made, the "Apply" button must be clicked at the bottom. It is possible to edit several entries at the same time. To do this, simply select the corresponding checkboxes.

To emulate an RFID tag, first press the red button on the ChameleonMini RevE Rebooted. Now the memory slot that was marked as active in the software is active. Accordingly, the red LED lights up. Alternatively, ChameleonMini RevE Rebooted is activated when an RFID reader is detected. Then it activates automatically and the corresponding LED lights up. Depending on how the buttons have been configured, it is possible to switch through to RFID emulation through the corresponding memory loads.

==Command Line Interface==

==== Command return codes ====
Status numbers beginning with a '1' denote an informational item and those beginning with a '2' denote an error.
{|class="wikitable"
|-
! Response
! Description
|-
|100:OK
|The command has been successfully executed
|-
| 101:OK WITH TEXT
| The command has been successfully executed and this response is appended with an additional line of information, terminated with CR+LF
|-
| 110:WAITING FOR XMODEM
| The Chameleon is waiting for an XMODEM connection to be established
|-
| 120:FALSE
| The request is answered with false
|-
| 121:TRUE
| The request is answered with true
|-
| 200:UNKNOWN COMMAND
| This command is unknown to the Chameleon
|-
| 201:INVALID COMMAND USAGE
| This action is not supported by this command
|-
| 202:INVALID PARAMETER
| The format or value of the given parameter value is invalid
|-
| 203:TIMEOUT
| The timeout of the currently active command has expired
|+ Command response codes
|}

== Updating Firmware on Windows ==

First you should download the necessary drivers, firmware, and software.

You can the latests manufacturer firmware [https://lab401.com/products/chameleon-mini/firmware/latest.zip here].

Download [https://github.com/iceman1001/ChameleonMini-rebooted iceman1001's GitHub repo] and unzip it. It contains the necessary drivers and software to update the firmware.

Download and install Windows C++ Redistributable for Visual Studio 2013 (VC 12.0) x64 and x86 versions. You can [https://support.microsoft.com/en-us/topic/update-for-visual-c-2013-and-visual-c-redistributable-package-5b2ac5ab-4139-8acc-08e2-9578ec9b2cf1 download them from Microsoft] directly.

After downloading and installing all necessary software navigate to the settings page in the Chameleon Rebooted GUI and press the Upgrade button.

[[File:ChameleonMiniSuccess.PNG|500px]]

This will set the Chameleon Mini RevE rebooted into bootloader mode.

The device will no longer be recognized by Windows.

The next step is to open the Windows Device Manager and look for an unkown USB device. Once you have found the unknown device right-click and select "Update driver".

Then navigate the assistant to the unziped GitHub repo downloaded earlier and go to Drivers/DFU Driver and select .inf-file in the folder.

After this step the Chameleon Mini RevE rebooted should be listed as a Amtel USB Device.

Now move the files Myfile.bin and Myfilee.bin from the downladed firmware to the directory where BOOT_LOADER_EXE.exe is. This should be in the directory Software/Flashing-Windows within the GitHub repo directory.

After Moving the files execute the BOOT_LOADER_EXE.exe.

== Used Hardware ==

[[Chameleon Mini: RevE Rebooted]]

== References ==

* Wiki: https://github.com/iceman1001/ChameleonMini-rebooted/wiki
* Linux GUI: https://github.com/WolfgangMau/chamgo-qt/releases
* Windows GUI: https://github.com/iceman1001/ChameleonMini-rebootedGUI
* Product description: https://lab401.com/products/chameleon-mini-reve-rebooted
* https://scheible.it/chameleon-mini/
* Updating Firmware: https://github.com/iceman1001/ChameleonMini-rebooted/wiki/Getting-started

[[Category:Documentation]]

Chameleon Mini RevE rebooted Usage

2023-01-30T07:23:46Z

LLaschitz: /* Updating Firmware on Windows */

== Summary ==

Functionality and usage of Chameleon Mini RevE rebooted

== Requirements ==

* Chameleon Mini RevE Rebooted
* Operating systems are referred as:
** Linux: Ubuntu 18.04 bionic amd64
** Windows: Windows 10 (tested in a VM)

== Description ==

The RFID Multitool ChameleonMini is a powerful and portable RFID emulation and manipulation tool that can emulate RFID tags, read tokens and sniff the radio communication. The credit card-shaped housing and integrated battery make it suitable for mobile use. In addition, transmissions can be read out and all data can be conveniently processed on the computer. Using a freely available open-source application, the ChameleonMini can be conveniently configured via a graphical user interface. Otherwise, it can be connected to a smartphone via USB cable or, in part, via Bluetooth and can thus also be configured on the move. This makes it possible, for example, to read an access card in passing and emulate it directly with the ChameleonMini and thus open a (actually protected) door. The ChameleonMini hardware is capable of emulating various ISO 14443, NFC and ISO 15693 cards, as well as other types of RFID transponders operating at 13.56 MHz. The ChameleonMini hardware consists of a PCB antenna driven by power transistors on the board to generate a 13.56 MHz RFID field. They thus function as an active RFID reader. An integrated Li-Ion battery can be charged via USB and enables stand-alone operation. The core of the hardware is an Atmel ATXMega128A4U microcontroller. The AES and DES hardware engines in the microcontroller enable very fast calculation of the cryptographic algorithms.

[[File:Chameleon-Mini-RevE-Rebooted.jpg|500px]]

=== Functionality of Chameleon Mini RevE rebooted ===

Chameleon Mini RevE rebooted has 8 card slots to simulate cards/UIDs, each slot can be set in an own configuration mode to
* simulate cards/UIDs to readers
* help getting a first auth key from a dialogue with a reader
* only first slot allows up to 4K dumps/uploads because of memory limitations
* the default firmware can only configure MIFARE cards
* RevE does not copy cards

Chameleon Mini RevE rebooted is a stand-alone device powered by CR2032 button battery

===Card configurations supported by default firmware===

* NONE: No functionality, ChameleonMini does nothing, the current setting is skipped when cycling through the settings
* MF_ULTRALIGHT: Emulates a MiFare Ultralight card
* MF_ULTRALIGHT_EV1_80B: Emulates a MiFare Ultralight EV1 80B card
* MF_ULTRALIGHT_EV1_164B: Emulates a MiFare Ultralight EV1 164B card
* MF_CLASSIC_1K: Emulates a MiFare Classic 1k card
* MF_CLASSIC_4K: Emulates a MiFare Classic 4k card
* MF_CLASSIC_1K_7B: Emulates a MiFare Classic 1k card with 7b UID
* MF_CLASSIC_4K_7B: Emulates a MiFare Classic 4k card with 7b UID
* MF_DETECTION: Emulates a MiFare Classic 1k card and saves nonces which can be used for mfkey32 attack in GUI

(Source: https://github.com/iceman1001/ChameleonMini-rebooted/wiki/Configurations, Feb 2,2020)

=== Hardware Description ===
[[File:Chameleon mini.png|200px|thumb|left|Chameleon Mini RevE rebooted]]

* Red Leds on left side:
: - 8 red LEDs which indicate the active slot
* Black Button - "KEY":
: - “short press” referred as BUTTON in commands and GUI and let you switch the active slot
: - “long press” - BUTTON_LONG
: - “long press while plugging USB cable” - BOOTLOADER Mode
* Red Buttern - "POWER":
: - used to power on the device when used stand-alone on battery

 
=== Device Recognition ===

==== Linux ====
The linux kernel recognizes a usb device from the idVendor 03eb with the product id 2fe4

dmesg | grep usb
[ 167.571731] usb 1-3: USB disconnect, device number 3
[ 180.768751] usb 1-3: new full-speed USB device number 11 using xhci_hcd
[ 180.917821] usb 1-3: New USB device found, idVendor=03eb, idProduct=2fe4, bcdDevice= 0.04
[ 180.917829] usb 1-3: New USB device strings: Mfr=0, Product=0, SerialNumber=0

The chameleon RevE is seen as a USB modem

lsusb
Bus 001 Device 011: ID 03eb:2fe4 Atmel Corp. ATxmega32A4U DFU bootloader

==== Windows ====

* in the Windows device manager should appear an Atmel USB Device: ATxmega32A4U
![](https://i.imgur.com/EJXyvdJ.png)

== Usage ==
===GUI Usage with Chameleon Mini GUI v1.3.0.5 in Windows===
First you need to install the software in order to have a GUI to use the Chameleon Mini. The Version 1.3.0.5 can be downloaded here (http://www.icesql.se/download/ChameleonMiniGUI/publish.htm)
Afterwards connect the Chameleon Mini RevE Rebooted with an USB-Cable to your PC. The first LED with the label "TAG1" now lights up red.

==== Device Recognition ====
On start of the Windows GUI the device should be recognized and following lines should appear in the output window

[=] Connecting to USB Serial Device (COMX) at COMX
[+] Success, found Chameleon Mini device on 'COMX' with Firmware RevE rebooted installed

[[File:ChameleonMiniSuccess.PNG|500px]]

If this is not the case and you are using Windows in a VM verify that the USB device is redirected to the VM and test to connect again in the submenu "Settings"

==== Use of the Chameleon Mini with the GUI in Window ====

In the first tab "Operation" of the Chameleon Mini GUI, up to eight different memory slots can be freely configured. In order to change an entry, the corresponding box of the entry must first be marked. Then one of four different variants can be selected in the "Mode" selection and any ID can be entered in the UID input field as shown below in the screenshot.

[[File:ChameleonOperation.PNG|500px]]

Below this, you can configure what happens when the button is pressed briefly or for a long time.
[[File:ChameleonButton.PNG|300px]]

To save the changes made, the "Apply" button must be clicked at the bottom. It is possible to edit several entries at the same time. To do this, simply select the corresponding checkboxes.

To emulate an RFID tag, first press the red button on the ChameleonMini RevE Rebooted. Now the memory slot that was marked as active in the software is active. Accordingly, the red LED lights up. Alternatively, ChameleonMini RevE Rebooted is activated when an RFID reader is detected. Then it activates automatically and the corresponding LED lights up. Depending on how the buttons have been configured, it is possible to switch through to RFID emulation through the corresponding memory loads.

==Command Line Interface==

==== Command return codes ====
Status numbers beginning with a '1' denote an informational item and those beginning with a '2' denote an error.
{|class="wikitable"
|-
! Response
! Description
|-
|100:OK
|The command has been successfully executed
|-
| 101:OK WITH TEXT
| The command has been successfully executed and this response is appended with an additional line of information, terminated with CR+LF
|-
| 110:WAITING FOR XMODEM
| The Chameleon is waiting for an XMODEM connection to be established
|-
| 120:FALSE
| The request is answered with false
|-
| 121:TRUE
| The request is answered with true
|-
| 200:UNKNOWN COMMAND
| This command is unknown to the Chameleon
|-
| 201:INVALID COMMAND USAGE
| This action is not supported by this command
|-
| 202:INVALID PARAMETER
| The format or value of the given parameter value is invalid
|-
| 203:TIMEOUT
| The timeout of the currently active command has expired
|+ Command response codes
|}

== Updating Firmware on Windows ==

First you should download the necessary drivers, firmware, and software.

You can the latests manufacturer firmware [https://lab401.com/products/chameleon-mini/firmware/latest.zip here].

Download [https://github.com/iceman1001/ChameleonMini-rebooted iceman1001's GitHub repo] and unzip it. It contains the necessary drivers and software to update the firmware.

Download and install Windows C++ Redistributable for Visual Studio 2013 (VC 12.0) x64 and x86 versions. You can [https://support.microsoft.com/en-us/topic/update-for-visual-c-2013-and-visual-c-redistributable-package-5b2ac5ab-4139-8acc-08e2-9578ec9b2cf1 download them from Microsoft] directly.

After downloading and installing all necessary software navigate to the settings page in the Chameleon Rebooted GUI and press the Upgrade button.

[[File:ChameleonMiniSuccess.PNG|500px]]

This will set the Chameleon Mini RevE rebooted into bootloader mode.

The device will no longer be recognized by Windows.

The next step is to open the Windows Device Manager and look for an unkown USB device. Once you have found the unknown device right-click and select "Update driver".

Then navigate the assistant to the unziped GitHub repo downloaded earlier and go to Drivers/DFU Driver and select .inf-file in the folder.

== Used Hardware ==

[[Chameleon Mini: RevE Rebooted]]

== References ==

* Wiki: https://github.com/iceman1001/ChameleonMini-rebooted/wiki
* Linux GUI: https://github.com/WolfgangMau/chamgo-qt/releases
* Windows GUI: https://github.com/iceman1001/ChameleonMini-rebootedGUI
* Product description: https://lab401.com/products/chameleon-mini-reve-rebooted
* https://scheible.it/chameleon-mini/
* Updating Firmware: https://github.com/iceman1001/ChameleonMini-rebooted/wiki/Getting-started

[[Category:Documentation]]

Chameleon Mini RevE rebooted Usage

2023-01-30T07:09:08Z

LLaschitz: /* References */

== Summary ==

Functionality and usage of Chameleon Mini RevE rebooted

== Requirements ==

* Chameleon Mini RevE Rebooted
* Operating systems are referred as:
** Linux: Ubuntu 18.04 bionic amd64
** Windows: Windows 10 (tested in a VM)

== Description ==

The RFID Multitool ChameleonMini is a powerful and portable RFID emulation and manipulation tool that can emulate RFID tags, read tokens and sniff the radio communication. The credit card-shaped housing and integrated battery make it suitable for mobile use. In addition, transmissions can be read out and all data can be conveniently processed on the computer. Using a freely available open-source application, the ChameleonMini can be conveniently configured via a graphical user interface. Otherwise, it can be connected to a smartphone via USB cable or, in part, via Bluetooth and can thus also be configured on the move. This makes it possible, for example, to read an access card in passing and emulate it directly with the ChameleonMini and thus open a (actually protected) door. The ChameleonMini hardware is capable of emulating various ISO 14443, NFC and ISO 15693 cards, as well as other types of RFID transponders operating at 13.56 MHz. The ChameleonMini hardware consists of a PCB antenna driven by power transistors on the board to generate a 13.56 MHz RFID field. They thus function as an active RFID reader. An integrated Li-Ion battery can be charged via USB and enables stand-alone operation. The core of the hardware is an Atmel ATXMega128A4U microcontroller. The AES and DES hardware engines in the microcontroller enable very fast calculation of the cryptographic algorithms.

[[File:Chameleon-Mini-RevE-Rebooted.jpg|500px]]

=== Functionality of Chameleon Mini RevE rebooted ===

Chameleon Mini RevE rebooted has 8 card slots to simulate cards/UIDs, each slot can be set in an own configuration mode to
* simulate cards/UIDs to readers
* help getting a first auth key from a dialogue with a reader
* only first slot allows up to 4K dumps/uploads because of memory limitations
* the default firmware can only configure MIFARE cards
* RevE does not copy cards

Chameleon Mini RevE rebooted is a stand-alone device powered by CR2032 button battery

===Card configurations supported by default firmware===

* NONE: No functionality, ChameleonMini does nothing, the current setting is skipped when cycling through the settings
* MF_ULTRALIGHT: Emulates a MiFare Ultralight card
* MF_ULTRALIGHT_EV1_80B: Emulates a MiFare Ultralight EV1 80B card
* MF_ULTRALIGHT_EV1_164B: Emulates a MiFare Ultralight EV1 164B card
* MF_CLASSIC_1K: Emulates a MiFare Classic 1k card
* MF_CLASSIC_4K: Emulates a MiFare Classic 4k card
* MF_CLASSIC_1K_7B: Emulates a MiFare Classic 1k card with 7b UID
* MF_CLASSIC_4K_7B: Emulates a MiFare Classic 4k card with 7b UID
* MF_DETECTION: Emulates a MiFare Classic 1k card and saves nonces which can be used for mfkey32 attack in GUI

(Source: https://github.com/iceman1001/ChameleonMini-rebooted/wiki/Configurations, Feb 2,2020)

=== Hardware Description ===
[[File:Chameleon mini.png|200px|thumb|left|Chameleon Mini RevE rebooted]]

* Red Leds on left side:
: - 8 red LEDs which indicate the active slot
* Black Button - "KEY":
: - “short press” referred as BUTTON in commands and GUI and let you switch the active slot
: - “long press” - BUTTON_LONG
: - “long press while plugging USB cable” - BOOTLOADER Mode
* Red Buttern - "POWER":
: - used to power on the device when used stand-alone on battery

 
=== Device Recognition ===

==== Linux ====
The linux kernel recognizes a usb device from the idVendor 03eb with the product id 2fe4

dmesg | grep usb
[ 167.571731] usb 1-3: USB disconnect, device number 3
[ 180.768751] usb 1-3: new full-speed USB device number 11 using xhci_hcd
[ 180.917821] usb 1-3: New USB device found, idVendor=03eb, idProduct=2fe4, bcdDevice= 0.04
[ 180.917829] usb 1-3: New USB device strings: Mfr=0, Product=0, SerialNumber=0

The chameleon RevE is seen as a USB modem

lsusb
Bus 001 Device 011: ID 03eb:2fe4 Atmel Corp. ATxmega32A4U DFU bootloader

==== Windows ====

* in the Windows device manager should appear an Atmel USB Device: ATxmega32A4U
![](https://i.imgur.com/EJXyvdJ.png)

== Usage ==
===GUI Usage with Chameleon Mini GUI v1.3.0.5 in Windows===
First you need to install the software in order to have a GUI to use the Chameleon Mini. The Version 1.3.0.5 can be downloaded here (http://www.icesql.se/download/ChameleonMiniGUI/publish.htm)
Afterwards connect the Chameleon Mini RevE Rebooted with an USB-Cable to your PC. The first LED with the label "TAG1" now lights up red.

==== Device Recognition ====
On start of the Windows GUI the device should be recognized and following lines should appear in the output window

[=] Connecting to USB Serial Device (COMX) at COMX
[+] Success, found Chameleon Mini device on 'COMX' with Firmware RevE rebooted installed

[[File:ChameleonMiniSuccess.PNG|500px]]

If this is not the case and you are using Windows in a VM verify that the USB device is redirected to the VM and test to connect again in the submenu "Settings"

==== Use of the Chameleon Mini with the GUI in Window ====

In the first tab "Operation" of the Chameleon Mini GUI, up to eight different memory slots can be freely configured. In order to change an entry, the corresponding box of the entry must first be marked. Then one of four different variants can be selected in the "Mode" selection and any ID can be entered in the UID input field as shown below in the screenshot.

[[File:ChameleonOperation.PNG|500px]]

Below this, you can configure what happens when the button is pressed briefly or for a long time.
[[File:ChameleonButton.PNG|300px]]

To save the changes made, the "Apply" button must be clicked at the bottom. It is possible to edit several entries at the same time. To do this, simply select the corresponding checkboxes.

To emulate an RFID tag, first press the red button on the ChameleonMini RevE Rebooted. Now the memory slot that was marked as active in the software is active. Accordingly, the red LED lights up. Alternatively, ChameleonMini RevE Rebooted is activated when an RFID reader is detected. Then it activates automatically and the corresponding LED lights up. Depending on how the buttons have been configured, it is possible to switch through to RFID emulation through the corresponding memory loads.

==Command Line Interface==

==== Command return codes ====
Status numbers beginning with a '1' denote an informational item and those beginning with a '2' denote an error.
{|class="wikitable"
|-
! Response
! Description
|-
|100:OK
|The command has been successfully executed
|-
| 101:OK WITH TEXT
| The command has been successfully executed and this response is appended with an additional line of information, terminated with CR+LF
|-
| 110:WAITING FOR XMODEM
| The Chameleon is waiting for an XMODEM connection to be established
|-
| 120:FALSE
| The request is answered with false
|-
| 121:TRUE
| The request is answered with true
|-
| 200:UNKNOWN COMMAND
| This command is unknown to the Chameleon
|-
| 201:INVALID COMMAND USAGE
| This action is not supported by this command
|-
| 202:INVALID PARAMETER
| The format or value of the given parameter value is invalid
|-
| 203:TIMEOUT
| The timeout of the currently active command has expired
|+ Command response codes
|}

== Updating Firmware on Windows ==

First you should download the necessary drivers, firmware, and software.

You can the latests manufacturer firmware [https://lab401.com/products/chameleon-mini/firmware/latest.zip here].

Download [https://github.com/iceman1001/ChameleonMini-rebooted iceman1001's GitHub repo]. It contains the necessary drivers and software to update the firmware.

[[File:ChameleonMiniSuccess.PNG|500px]]

== Used Hardware ==

[[Chameleon Mini: RevE Rebooted]]

== References ==

* Wiki: https://github.com/iceman1001/ChameleonMini-rebooted/wiki
* Linux GUI: https://github.com/WolfgangMau/chamgo-qt/releases
* Windows GUI: https://github.com/iceman1001/ChameleonMini-rebootedGUI
* Product description: https://lab401.com/products/chameleon-mini-reve-rebooted
* https://scheible.it/chameleon-mini/
* Updating Firmware: https://github.com/iceman1001/ChameleonMini-rebooted/wiki/Getting-started

[[Category:Documentation]]

Chameleon Mini RevE rebooted Usage

2023-01-30T07:06:59Z

LLaschitz: /* Updating Firmware */

== Summary ==

Functionality and usage of Chameleon Mini RevE rebooted

== Requirements ==

* Chameleon Mini RevE Rebooted
* Operating systems are referred as:
** Linux: Ubuntu 18.04 bionic amd64
** Windows: Windows 10 (tested in a VM)

== Description ==

The RFID Multitool ChameleonMini is a powerful and portable RFID emulation and manipulation tool that can emulate RFID tags, read tokens and sniff the radio communication. The credit card-shaped housing and integrated battery make it suitable for mobile use. In addition, transmissions can be read out and all data can be conveniently processed on the computer. Using a freely available open-source application, the ChameleonMini can be conveniently configured via a graphical user interface. Otherwise, it can be connected to a smartphone via USB cable or, in part, via Bluetooth and can thus also be configured on the move. This makes it possible, for example, to read an access card in passing and emulate it directly with the ChameleonMini and thus open a (actually protected) door. The ChameleonMini hardware is capable of emulating various ISO 14443, NFC and ISO 15693 cards, as well as other types of RFID transponders operating at 13.56 MHz. The ChameleonMini hardware consists of a PCB antenna driven by power transistors on the board to generate a 13.56 MHz RFID field. They thus function as an active RFID reader. An integrated Li-Ion battery can be charged via USB and enables stand-alone operation. The core of the hardware is an Atmel ATXMega128A4U microcontroller. The AES and DES hardware engines in the microcontroller enable very fast calculation of the cryptographic algorithms.

[[File:Chameleon-Mini-RevE-Rebooted.jpg|500px]]

=== Functionality of Chameleon Mini RevE rebooted ===

Chameleon Mini RevE rebooted has 8 card slots to simulate cards/UIDs, each slot can be set in an own configuration mode to
* simulate cards/UIDs to readers
* help getting a first auth key from a dialogue with a reader
* only first slot allows up to 4K dumps/uploads because of memory limitations
* the default firmware can only configure MIFARE cards
* RevE does not copy cards

Chameleon Mini RevE rebooted is a stand-alone device powered by CR2032 button battery

===Card configurations supported by default firmware===

* NONE: No functionality, ChameleonMini does nothing, the current setting is skipped when cycling through the settings
* MF_ULTRALIGHT: Emulates a MiFare Ultralight card
* MF_ULTRALIGHT_EV1_80B: Emulates a MiFare Ultralight EV1 80B card
* MF_ULTRALIGHT_EV1_164B: Emulates a MiFare Ultralight EV1 164B card
* MF_CLASSIC_1K: Emulates a MiFare Classic 1k card
* MF_CLASSIC_4K: Emulates a MiFare Classic 4k card
* MF_CLASSIC_1K_7B: Emulates a MiFare Classic 1k card with 7b UID
* MF_CLASSIC_4K_7B: Emulates a MiFare Classic 4k card with 7b UID
* MF_DETECTION: Emulates a MiFare Classic 1k card and saves nonces which can be used for mfkey32 attack in GUI

(Source: https://github.com/iceman1001/ChameleonMini-rebooted/wiki/Configurations, Feb 2,2020)

=== Hardware Description ===
[[File:Chameleon mini.png|200px|thumb|left|Chameleon Mini RevE rebooted]]

* Red Leds on left side:
: - 8 red LEDs which indicate the active slot
* Black Button - "KEY":
: - “short press” referred as BUTTON in commands and GUI and let you switch the active slot
: - “long press” - BUTTON_LONG
: - “long press while plugging USB cable” - BOOTLOADER Mode
* Red Buttern - "POWER":
: - used to power on the device when used stand-alone on battery

 
=== Device Recognition ===

==== Linux ====
The linux kernel recognizes a usb device from the idVendor 03eb with the product id 2fe4

dmesg | grep usb
[ 167.571731] usb 1-3: USB disconnect, device number 3
[ 180.768751] usb 1-3: new full-speed USB device number 11 using xhci_hcd
[ 180.917821] usb 1-3: New USB device found, idVendor=03eb, idProduct=2fe4, bcdDevice= 0.04
[ 180.917829] usb 1-3: New USB device strings: Mfr=0, Product=0, SerialNumber=0

The chameleon RevE is seen as a USB modem

lsusb
Bus 001 Device 011: ID 03eb:2fe4 Atmel Corp. ATxmega32A4U DFU bootloader

==== Windows ====

* in the Windows device manager should appear an Atmel USB Device: ATxmega32A4U
![](https://i.imgur.com/EJXyvdJ.png)

== Usage ==
===GUI Usage with Chameleon Mini GUI v1.3.0.5 in Windows===
First you need to install the software in order to have a GUI to use the Chameleon Mini. The Version 1.3.0.5 can be downloaded here (http://www.icesql.se/download/ChameleonMiniGUI/publish.htm)
Afterwards connect the Chameleon Mini RevE Rebooted with an USB-Cable to your PC. The first LED with the label "TAG1" now lights up red.

==== Device Recognition ====
On start of the Windows GUI the device should be recognized and following lines should appear in the output window

[=] Connecting to USB Serial Device (COMX) at COMX
[+] Success, found Chameleon Mini device on 'COMX' with Firmware RevE rebooted installed

[[File:ChameleonMiniSuccess.PNG|500px]]

If this is not the case and you are using Windows in a VM verify that the USB device is redirected to the VM and test to connect again in the submenu "Settings"

==== Use of the Chameleon Mini with the GUI in Window ====

In the first tab "Operation" of the Chameleon Mini GUI, up to eight different memory slots can be freely configured. In order to change an entry, the corresponding box of the entry must first be marked. Then one of four different variants can be selected in the "Mode" selection and any ID can be entered in the UID input field as shown below in the screenshot.

[[File:ChameleonOperation.PNG|500px]]

Below this, you can configure what happens when the button is pressed briefly or for a long time.
[[File:ChameleonButton.PNG|300px]]

To save the changes made, the "Apply" button must be clicked at the bottom. It is possible to edit several entries at the same time. To do this, simply select the corresponding checkboxes.

To emulate an RFID tag, first press the red button on the ChameleonMini RevE Rebooted. Now the memory slot that was marked as active in the software is active. Accordingly, the red LED lights up. Alternatively, ChameleonMini RevE Rebooted is activated when an RFID reader is detected. Then it activates automatically and the corresponding LED lights up. Depending on how the buttons have been configured, it is possible to switch through to RFID emulation through the corresponding memory loads.

==Command Line Interface==

==== Command return codes ====
Status numbers beginning with a '1' denote an informational item and those beginning with a '2' denote an error.
{|class="wikitable"
|-
! Response
! Description
|-
|100:OK
|The command has been successfully executed
|-
| 101:OK WITH TEXT
| The command has been successfully executed and this response is appended with an additional line of information, terminated with CR+LF
|-
| 110:WAITING FOR XMODEM
| The Chameleon is waiting for an XMODEM connection to be established
|-
| 120:FALSE
| The request is answered with false
|-
| 121:TRUE
| The request is answered with true
|-
| 200:UNKNOWN COMMAND
| This command is unknown to the Chameleon
|-
| 201:INVALID COMMAND USAGE
| This action is not supported by this command
|-
| 202:INVALID PARAMETER
| The format or value of the given parameter value is invalid
|-
| 203:TIMEOUT
| The timeout of the currently active command has expired
|+ Command response codes
|}

== Updating Firmware on Windows ==

First you should download the necessary drivers, firmware, and software.

You can the latests manufacturer firmware [https://lab401.com/products/chameleon-mini/firmware/latest.zip here].

Download [https://github.com/iceman1001/ChameleonMini-rebooted iceman1001's GitHub repo]. It contains the necessary drivers and software to update the firmware.

[[File:ChameleonMiniSuccess.PNG|500px]]

== Used Hardware ==

[[Chameleon Mini: RevE Rebooted]]

== References ==

* Wiki: https://github.com/iceman1001/ChameleonMini-rebooted/wiki
* Linux GUI: https://github.com/WolfgangMau/chamgo-qt/releases
* Windows GUI: https://github.com/iceman1001/ChameleonMini-rebootedGUI
* Product description: https://lab401.com/products/chameleon-mini-reve-rebooted
* https://scheible.it/chameleon-mini/

[[Category:Documentation]]

Chameleon Mini RevE rebooted Usage

2023-01-30T06:54:55Z

LLaschitz:

== Summary ==

Functionality and usage of Chameleon Mini RevE rebooted

== Requirements ==

* Chameleon Mini RevE Rebooted
* Operating systems are referred as:
** Linux: Ubuntu 18.04 bionic amd64
** Windows: Windows 10 (tested in a VM)

== Description ==

The RFID Multitool ChameleonMini is a powerful and portable RFID emulation and manipulation tool that can emulate RFID tags, read tokens and sniff the radio communication. The credit card-shaped housing and integrated battery make it suitable for mobile use. In addition, transmissions can be read out and all data can be conveniently processed on the computer. Using a freely available open-source application, the ChameleonMini can be conveniently configured via a graphical user interface. Otherwise, it can be connected to a smartphone via USB cable or, in part, via Bluetooth and can thus also be configured on the move. This makes it possible, for example, to read an access card in passing and emulate it directly with the ChameleonMini and thus open a (actually protected) door. The ChameleonMini hardware is capable of emulating various ISO 14443, NFC and ISO 15693 cards, as well as other types of RFID transponders operating at 13.56 MHz. The ChameleonMini hardware consists of a PCB antenna driven by power transistors on the board to generate a 13.56 MHz RFID field. They thus function as an active RFID reader. An integrated Li-Ion battery can be charged via USB and enables stand-alone operation. The core of the hardware is an Atmel ATXMega128A4U microcontroller. The AES and DES hardware engines in the microcontroller enable very fast calculation of the cryptographic algorithms.

[[File:Chameleon-Mini-RevE-Rebooted.jpg|500px]]

=== Functionality of Chameleon Mini RevE rebooted ===

Chameleon Mini RevE rebooted has 8 card slots to simulate cards/UIDs, each slot can be set in an own configuration mode to
* simulate cards/UIDs to readers
* help getting a first auth key from a dialogue with a reader
* only first slot allows up to 4K dumps/uploads because of memory limitations
* the default firmware can only configure MIFARE cards
* RevE does not copy cards

Chameleon Mini RevE rebooted is a stand-alone device powered by CR2032 button battery

===Card configurations supported by default firmware===

* NONE: No functionality, ChameleonMini does nothing, the current setting is skipped when cycling through the settings
* MF_ULTRALIGHT: Emulates a MiFare Ultralight card
* MF_ULTRALIGHT_EV1_80B: Emulates a MiFare Ultralight EV1 80B card
* MF_ULTRALIGHT_EV1_164B: Emulates a MiFare Ultralight EV1 164B card
* MF_CLASSIC_1K: Emulates a MiFare Classic 1k card
* MF_CLASSIC_4K: Emulates a MiFare Classic 4k card
* MF_CLASSIC_1K_7B: Emulates a MiFare Classic 1k card with 7b UID
* MF_CLASSIC_4K_7B: Emulates a MiFare Classic 4k card with 7b UID
* MF_DETECTION: Emulates a MiFare Classic 1k card and saves nonces which can be used for mfkey32 attack in GUI

(Source: https://github.com/iceman1001/ChameleonMini-rebooted/wiki/Configurations, Feb 2,2020)

=== Hardware Description ===
[[File:Chameleon mini.png|200px|thumb|left|Chameleon Mini RevE rebooted]]

* Red Leds on left side:
: - 8 red LEDs which indicate the active slot
* Black Button - "KEY":
: - “short press” referred as BUTTON in commands and GUI and let you switch the active slot
: - “long press” - BUTTON_LONG
: - “long press while plugging USB cable” - BOOTLOADER Mode
* Red Buttern - "POWER":
: - used to power on the device when used stand-alone on battery

 
=== Device Recognition ===

==== Linux ====
The linux kernel recognizes a usb device from the idVendor 03eb with the product id 2fe4

dmesg | grep usb
[ 167.571731] usb 1-3: USB disconnect, device number 3
[ 180.768751] usb 1-3: new full-speed USB device number 11 using xhci_hcd
[ 180.917821] usb 1-3: New USB device found, idVendor=03eb, idProduct=2fe4, bcdDevice= 0.04
[ 180.917829] usb 1-3: New USB device strings: Mfr=0, Product=0, SerialNumber=0

The chameleon RevE is seen as a USB modem

lsusb
Bus 001 Device 011: ID 03eb:2fe4 Atmel Corp. ATxmega32A4U DFU bootloader

==== Windows ====

* in the Windows device manager should appear an Atmel USB Device: ATxmega32A4U
![](https://i.imgur.com/EJXyvdJ.png)

== Usage ==
===GUI Usage with Chameleon Mini GUI v1.3.0.5 in Windows===
First you need to install the software in order to have a GUI to use the Chameleon Mini. The Version 1.3.0.5 can be downloaded here (http://www.icesql.se/download/ChameleonMiniGUI/publish.htm)
Afterwards connect the Chameleon Mini RevE Rebooted with an USB-Cable to your PC. The first LED with the label "TAG1" now lights up red.

==== Device Recognition ====
On start of the Windows GUI the device should be recognized and following lines should appear in the output window

[=] Connecting to USB Serial Device (COMX) at COMX
[+] Success, found Chameleon Mini device on 'COMX' with Firmware RevE rebooted installed

[[File:ChameleonMiniSuccess.PNG|500px]]

If this is not the case and you are using Windows in a VM verify that the USB device is redirected to the VM and test to connect again in the submenu "Settings"

==== Use of the Chameleon Mini with the GUI in Window ====

In the first tab "Operation" of the Chameleon Mini GUI, up to eight different memory slots can be freely configured. In order to change an entry, the corresponding box of the entry must first be marked. Then one of four different variants can be selected in the "Mode" selection and any ID can be entered in the UID input field as shown below in the screenshot.

[[File:ChameleonOperation.PNG|500px]]

Below this, you can configure what happens when the button is pressed briefly or for a long time.
[[File:ChameleonButton.PNG|300px]]

To save the changes made, the "Apply" button must be clicked at the bottom. It is possible to edit several entries at the same time. To do this, simply select the corresponding checkboxes.

To emulate an RFID tag, first press the red button on the ChameleonMini RevE Rebooted. Now the memory slot that was marked as active in the software is active. Accordingly, the red LED lights up. Alternatively, ChameleonMini RevE Rebooted is activated when an RFID reader is detected. Then it activates automatically and the corresponding LED lights up. Depending on how the buttons have been configured, it is possible to switch through to RFID emulation through the corresponding memory loads.

==Command Line Interface==

==== Command return codes ====
Status numbers beginning with a '1' denote an informational item and those beginning with a '2' denote an error.
{|class="wikitable"
|-
! Response
! Description
|-
|100:OK
|The command has been successfully executed
|-
| 101:OK WITH TEXT
| The command has been successfully executed and this response is appended with an additional line of information, terminated with CR+LF
|-
| 110:WAITING FOR XMODEM
| The Chameleon is waiting for an XMODEM connection to be established
|-
| 120:FALSE
| The request is answered with false
|-
| 121:TRUE
| The request is answered with true
|-
| 200:UNKNOWN COMMAND
| This command is unknown to the Chameleon
|-
| 201:INVALID COMMAND USAGE
| This action is not supported by this command
|-
| 202:INVALID PARAMETER
| The format or value of the given parameter value is invalid
|-
| 203:TIMEOUT
| The timeout of the currently active command has expired
|+ Command response codes
|}

== Updating Firmware ==

First you should download the necessary drivers and firmware.

You can the latests manufacturer firmware [https://lab401.com/products/chameleon-mini/firmware/latest.zip here].

[[File:ChameleonMiniSuccess.PNG|500px]]

== Used Hardware ==

[[Chameleon Mini: RevE Rebooted]]

== References ==

* Wiki: https://github.com/iceman1001/ChameleonMini-rebooted/wiki
* Linux GUI: https://github.com/WolfgangMau/chamgo-qt/releases
* Windows GUI: https://github.com/iceman1001/ChameleonMini-rebootedGUI
* Product description: https://lab401.com/products/chameleon-mini-reve-rebooted
* https://scheible.it/chameleon-mini/

[[Category:Documentation]]

CVE Webscraper

2022-07-13T10:24:33Z

LLaschitz:

== Summary ==
Web Scraping is a way of automated data mining.
This means it is used for collecting various information in an automated way from open sources. 
The Web scraper usually makes HTTP requests to a target Website in order to do so, it can also make requests to APIs for further data. 
There are many uses for this, not even exclusively for security reasons. For example is it used for price monitoring, news monitoring and other types of automated research that needs big amounts of data.

== Web crawler and Web scraper – not the same, but working together ==
These two get often confused and are sometimes even used as synonyms, but on closer inspection there is a different purpose and function to them.

=== Web Crawler ===
Compared to the Web scraper you do not have a specified URL and you don’t know the domain the crawler will look at. 
Actually, that is the purpose of the crawler, you want to get the URLs, with which you might for example scrape later. 
So the output here is a list of URLs that might include what you were looking for.

=== Web scraper ===

The purpose of web crawling is about getting the desired data from specific websites. Here you usually know what data you want and the specific website you want it from, this is the most significant difference. 
Here the output is usually the data we specifically “ask” for.

== How Can Web Scraping Enhance Cyber Security? ==
Even though web scraping activities fundamentally do not aim to harm the website they are targeting, there are still some concerns that one should be aware of. 
Some scraper bots purposefully perform malicious attacks, but there are also those issues that aren’t on purpose. 
Some of the dangers are: extracting sensitive data, extract web apps, help attackers identify vulnerabilities, overwhelming the website with too many requests and more.

== Pen testing ==

While web crawler have enough concerning properties, it can also be useful in cyber security, it can for example be used for penetration testing. 
With the web crawler and web scraper it is possible to find possible vulnerabilities and remodel it in order to get rid of the vulnerability.

== Our web scraper ==

=== General ===
Quickly find known vulnerabilities for a certain application.
Runs on windows and Linux.

The application was written in C# with the [https://dotnet.microsoft.com/en-us/ .NET 6.0 Framework] with a focus on a crossplatform availability.

The software is available at the [https://git.fh-campuswien.ac.at/sisch/cve-crawlwe FH Campus Wien Git] or at [https://github.com/karaxis/wpf1/tree/main Github].

It scans the vulnerability database of [https://cve.mitre.org/ mitre.org] for vulerabilities for a given software and saves all CVE numbers with corresponding links in a file.

=== Use ===

For a detailed explation of how to setup and use the software please refer to the README.md at the [https://git.fh-campuswien.ac.at/sisch/cve-crawlwe FH Campus Wien Git] or at [https://github.com/karaxis/wpf1/tree/main Github].

==Sources==
https://realpython.com/python-web-scraping-practical-introduction/#your-first-web-scraper 
https://www.cyberdb.co/how-web-scraping-can-enhance-cyber-security/ 
https://thehackernews.com/2020/09/zenscrape-simple-web-scraping-solution.html

CVE Webscraper

2022-07-13T10:22:52Z

LLaschitz: /* General */

== Summary ==
Web Scraping is a way of automated data mining.
This means it is used for collecting various information in an automated way from open sources. 
The Web scraper usually makes HTTP requests to a target Website in order to do so, it can also make requests to APIs for further data. 
There are many uses for this, not even exclusively for security reasons. For example is it used for price monitoring, news monitoring and other types of automated research that needs big amounts of data.

== Web crawler and Web scraper – not the same, but working together ==
These two get often confused and are sometimes even used as synonyms, but on closer inspection there is a different purpose and function to them.

=== Web Crawler ===
Compared to the Web scraper you do not have a specified URL and you don’t know the domain the crawler will look at. 
Actually, that is the purpose of the crawler, you want to get the URLs, with which you might for example scrape later. 
So the output here is a list of URLs that might include what you were looking for.

=== Web scraper ===

The purpose of web crawling is about getting the desired data from specific websites. Here you usually know what data you want and the specific website you want it from, this is the most significant difference. 
Here the output is usually the data we specifically “ask” for.

== How Can Web Scraping Enhance Cyber Security? ==
Even though web scraping activities fundamentally do not aim to harm the website they are targeting, there are still some concerns that one should be aware of. 
Some scraper bots purposefully perform malicious attacks, but there are also those issues that aren’t on purpose. 
Some of the dangers are: extracting sensitive data, extract web apps, help attackers identify vulnerabilities, overwhelming the website with too many requests and more.

== Pen testing ==

While web crawler have enough concerning properties, it can also be useful in cyber security, it can for example be used for penetration testing. 
With the web crawler and web scraper it is possible to find possible vulnerabilities and remodel it in order to get rid of the vulnerability.

== Our web scraper ==

=== General ===
Quickly find known vulnerabilities for a certain application.
Runs on windows and Linux.

The application was written in C# with the [https://dotnet.microsoft.com/en-us/ .NET 6.0 Framework] with a focus on a crossplatform availability.

The software is available at the [https://git.fh-campuswien.ac.at/sisch/cve-crawlwe FH Campus Wien Git] or at [https://github.com/karaxis/wpf1/tree/main Github].

It scans the vulnerability database of [https://cve.mitre.org/ mitre.org] for vulerabilities for a given software and saves all CVE numbers with corresponding links in a file.

=== Use ===

==Sources==
https://realpython.com/python-web-scraping-practical-introduction/#your-first-web-scraper 
https://www.cyberdb.co/how-web-scraping-can-enhance-cyber-security/ 
https://thehackernews.com/2020/09/zenscrape-simple-web-scraping-solution.html

Flare VM Installation

2022-07-13T10:10:51Z

LLaschitz: LLaschitz moved page (Article title) to CVE Webscraper: Title was Article Title

#REDIRECT [[CVE Webscraper]]

CVE Webscraper

2022-07-13T10:10:51Z

LLaschitz: LLaschitz moved page (Article title) to CVE Webscraper: Title was Article Title

== Summary ==
Web Scraping is a way of automated data mining.
This means it is used for collecting various information in an automated way from open sources. 
The Web scraper usually makes HTTP requests to a target Website in order to do so, it can also make requests to APIs for further data. 
There are many uses for this, not even exclusively for security reasons. For example is it used for price monitoring, news monitoring and other types of automated research that needs big amounts of data.

== Web crawler and Web scraper – not the same, but working together ==
These two get often confused and are sometimes even used as synonyms, but on closer inspection there is a different purpose and function to them.

=== Web Crawler ===
Compared to the Web scraper you do not have a specified URL and you don’t know the domain the crawler will look at. 
Actually, that is the purpose of the crawler, you want to get the URLs, with which you might for example scrape later. 
So the output here is a list of URLs that might include what you were looking for.

=== Web scraper ===

The purpose of web crawling is about getting the desired data from specific websites. Here you usually know what data you want and the specific website you want it from, this is the most significant difference. 
Here the output is usually the data we specifically “ask” for.

== How Can Web Scraping Enhance Cyber Security? ==
Even though web scraping activities fundamentally do not aim to harm the website they are targeting, there are still some concerns that one should be aware of. 
Some scraper bots purposefully perform malicious attacks, but there are also those issues that aren’t on purpose. 
Some of the dangers are: extracting sensitive data, extract web apps, help attackers identify vulnerabilities, overwhelming the website with too many requests and more.

== Pen testing ==

While web crawler have enough concerning properties, it can also be useful in cyber security, it can for example be used for penetration testing. 
With the web crawler and web scraper it is possible to find possible vulnerabilities and remodel it in order to get rid of the vulnerability.

== Our web scraper ==

=== General ===
Quickly find known vulnerabilities for a certain application.
Runs on windows and Linux.

=== Use ===

==Sources==
https://realpython.com/python-web-scraping-practical-introduction/#your-first-web-scraper 
https://www.cyberdb.co/how-web-scraping-can-enhance-cyber-security/ 
https://thehackernews.com/2020/09/zenscrape-simple-web-scraping-solution.html