Unbinare - User contributions [en]

File:Unb-banner.jpg

2023-07-06T15:10:15Z

Unbinawiki: Unbinawiki uploaded a new version of File:Unb-banner.jpg

== Summary ==
UNB Banner
== Licensing ==
{{CC BY-NC-SA 4.0 }}

UNBRK

2023-07-05T15:21:32Z

Unbinawiki:

{{PAGEBANNER:Unb-banner.jpg|origin=660,150}}
UNBRK is a 3.2x3.2cm QFP48/64/100/144 breakout board with a VCC bus on all four edges of the topside of the board and a GND bus on all four edges on the bottom of the board. The buses have been placed adjacent to the breakout pads to simplify the process of powering the MCU and the placement of decoupling capacitors where this might be necessary. Due to the board being as small as it is, we've added ruler lines to the breakout pads on the top of the board to ease finding the correct pin numbers when using the pinout diagrams on this page. The remaining area on the bottom of the UNBRK functions as a prototyping area for 0201-sized surface-mount components. The aim of the project is to allow rapid prototyping with MCUs by using components salvaged from discarded mobile phones. Full documentation is currently under development.
<br></br>
<div id="UNBRKCarousel" class="carousel slide carousel-slide" data-ride="carousel" data-interval="5000" style="filter: invert(100%)">


<ol class="carousel-indicators mb-3">
<li data-target="#UNBRKCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#UNBRKCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#UNBRKCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
</ol>


<ol class="carousel-control">
<li class="carousel-control-prev" data-target="#UNBRKCarousel" role="button" data-slide="prev">
<span class="carousel-control-prev-icon" aria-hidden="true"></span>
<span class="sr-only">Previous</span>
</li>
<li class="carousel-control-next" data-target="#UNBRKCarousel" role="button" data-slide="next">
<span class="carousel-control-next-icon" aria-hidden="true"></span>
<span class="sr-only">Next</span>
</li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:UNBRK-60.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBRK-Front-35.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBRK-Back-35.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
== '''Pinout:''' ==
<br><br>
<gallery widths=300px heights=300px perrow=2 mode="packed">
Image:Unbrk-pinout-front.png
Image:Unbrk-pinout-back.png
Image:Unbrk_GND_VCC_Front.png
Image:Unbrk GND_VCC_Back.png
</gallery>

UNBProbeBase

2023-07-05T15:21:14Z

Unbinawiki:

{{PAGEBANNER:Unb-banner.jpg|origin=660,150}}
UNBProbeBase is magnetic base to connect up to 12 UNBProbes. The base has been developed to keep probes free from movement during probing sessions. It has 12 SMA connectors, 12 Headers and a prototyping area with pads for salvaged 0603-sized surface-mount components.
<br></br>
<div id="UNBProbeBaseCarousel" class="carousel slide carousel-slide" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-2">
<li data-target="#UNBProbeBaseCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#UNBProbeBaseCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
</ol>


<ol class="carousel-control">
<li class="carousel-control-prev" data-target="#UNBProbeBaseCarousel" role="button" data-slide="prev">
<span class="carousel-control-prev-icon" aria-hidden="true"></span>
<span class="sr-only">Previous</span>
</li>
<li class="carousel-control-next" data-target="#UNBProbeBaseCarousel" role="button" data-slide="next">
<span class="carousel-control-next-icon" aria-hidden="true"></span>
<span class="sr-only">Next</span>
</li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:UNBProbeBase-Solo-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBProbeBase-Side-30.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
== '''Pinout:''' ==
<br><br>
[[Image:ProbeBase-Front.png | class=img-fluid]]

UNBProbe

2023-07-05T15:20:54Z

Unbinawiki:

{{PAGEBANNER:Unb-banner.jpg|origin=660,150}}
UNBProbe is a passive, spring-loaded needle probe for probing PCBs. The spring loaded needle can be removed from its receptacle to allow for different types of probe tips. The PCB contains two solder jumpers and pads for two 0402-sized surface-mount components near the tip. It contains a header for jumper wires and an SMA Connector rated for a frequency range up to 26.5 GHz. We are currently testing version 0.2 of the probe, which has new silkscreen art, an improved via fence, curved traces and an SMA footprint to the manufacturer's spec. Full documentation is currently under development.
<br><br>
<div id="UNBProbeCarousel" class="carousel slide carousel-slide" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-2">
<li data-target="#UNBProbeCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#UNBProbeCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#UNBProbeCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
</ol>


<ol class="carousel-control">
<li class="carousel-control-prev" data-target="#UNBProbeCarousel" role="button" data-slide="prev">
<span class="carousel-control-prev-icon" aria-hidden="true"></span>
<span class="sr-only">Previous</span>
</li>
<li class="carousel-control-next" data-target="#UNBProbeCarousel" role="button" data-slide="next">
<span class="carousel-control-next-icon" aria-hidden="true"></span>
<span class="sr-only">Next</span>
</li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:UNBProbe-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBProbe-PCB-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBProbe-v02-50.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
== '''Pinout:''' ==
<br><br>
[[Image:UNBProbe-25.png | class=img-fluid]]

File:Unb-banner.jpg

2023-07-05T15:19:20Z

Unbinawiki: UNB Banner

== Summary ==
UNB Banner
== Licensing ==
{{CC BY-NC-SA 4.0 }}

OI!STER

2023-07-05T14:09:41Z

Unbinawiki:

{{PAGEBANNER:Oister_banner.jpg|origin=625,150}}
The OI!STER is an STM32L5 Target Board with a QFP48 clamshell socket aimed at debugging and glitching salvaged MCUs. The board can be powered via USB-C, a 2032 coin cell battery on the back of the board or an external power suppy. All pins are broken out in the 24-pin headers on either side at the top of the board. The OI!STER contains five debug headers, to support a wide range of debugging hardware such as a [https://hydrabus.com/hydrabus-1-0-specifications/ Hydrabus] or a [https://1bitsquared.com/products/black-magic-probe Black Magic Probe]. It comes with six SMA connectors arranged in I/O pairs. One pair is dedicated to glitching the external LSE clock, another for glitching the external HSE clock and one pair for power analysis and fault injection with a [https://www.newae.com/chipwhisperer Chipwhisperer]. Each SMA connector can be bypassed by removing a small jumper. The OI!STER also has additional solder jumpers for the external clocks and each of the power traces to the MCU to allow for quick experimentation.
<br><br>
The Pinout diagrams below are directed at reverse engineering. The first diagram is targeted at debugging and reverse engineering an STM32L5 MCU itself. The second diagram is aimed at the communication between external peripherals and the MCU. Although some functionaly might overlap, we've found it practical to define these two pinout groups. Additional documentation is currently under development.
<br><br>
<div id="OisterCarousel" class="carousel slide carousel-slide" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-2">
<li data-target="#OisterCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#OisterCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#OisterCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
</ol>


<ol class="carousel-control">
<li class="carousel-control-prev" data-target="#OisterCarousel" role="button" data-slide="prev">
<span class="carousel-control-prev-icon" aria-hidden="true"></span>
<span class="sr-only">Previous</span>
</li>
<li class="carousel-control-next" data-target="#OisterCarousel" role="button" data-slide="next">
<span class="carousel-control-next-icon" aria-hidden="true"></span>
<span class="sr-only">Next</span>
</li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[Image:OISTER-DIAG-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[Image:OISTER-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[Image:OISTER-PCB-30.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
=='''Debug Pinout Diagram'''==
[[Image:OISTER Pinout DBG-50.png | class=img-fluid]]
<br>
{| class="wikitable" cellspacing=5 cellpadding=5
|+
! colspan="3" |Debug Pinout
|-
! width="50" colspan="1" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" scope="col" |Alternate Function
|-
! scope="row" |1
|VBAT
|-
! scope="row" |2
|PC13
|-
! scope="row" |3
|PC14
| OSC32_IN
|-
! scope="row" |4
|PC15
|OSC32_OUT
|-
! scope="row" | 5
|PH0
|OSC_IN
|-
! scope="row" |6

|PH1
|OSC_OUT
|-
! scope="row" |7
|NRST
|-
! scope="row" |8
|VSSA
|VREF-
|-
! scope="row" |9
|VDDA
|VREF+
|-
! scope="row" | 10
|PA0
|UART4_TX
|-
! scope="row" |11
|PA1
|UART4_RX
|-
! scope="row" |12
|PA2
|LPUART1_TX
|-
! scope="row" |13
|PA3
|LPUART1_RX
|-
! scope="row" |14
|PA4
|USART2_CK
|-
! scope="row" |15
|PA5
|-
! scope="row" |16
|PA6
|LPUART1_CTS
|-
! scope="row" |17
|PA7
|-
! scope="row" | 18
|PB0
|LED1
|-
! scope="row" |19
|PB1
|LED2
|-
! scope="row" |20
|PB2
|UCPD1_FRSTX2
|-
! scope="row" |21
| PB10
|USART3_TX
|-
! scope="row" |22
|PB11
|USART3_RX
|-
! scope="row" |23
|VSS
|-
! scope="row" |24
|VDD
|-
! scope="row" |25
|PB12
|LPUART1_RTS
|-
! scope="row" |26
|PB13
|LPUART1_CTS
|-
! scope="row" |27
|PB14
|UCPD1_DB2
|-
! scope="row" |28
|PB15
|UCPD1_CC2
|-
! scope="row" |29
|PA8
|USART1_CK
|-
! scope="row" |30
|PA9
|USART1_TX
|-
! scope="row" |31
|PA10
|USART1_RX
|-
! scope="row" |32
|PA11
|USART1_CTS
|-
! scope="row" |33
|PA12
|USART1_RTS
|-
! scope="row" |34
| PA13
|JTMS
|-
! scope="row" |35
|VSS_2
|-
! scope="row" |36
|VDD_2
|-
! scope="row" |37
|PA14
|JTCK
|-
! scope="row" |38
|PA15
|JTDI
|-
! scope="row" |39
|PB3
| JTDO
|-
! scope="row" |40
|PB4
|NJTRST

|-
! scope="row" | 41
|PB5
|UCPD1_DB1
|-
! scope="row" |42

|PB6
|USART1_TX
|-
! scope="row" |43
|PB7
|UART4_CTS
|-
! scope="row" |44

|PH3
|BOOT0
|-
! scope="row" |45
|PB8
|-
! scope="row" | 46
|PB9
|-
! scope="row" |47
|VSS_3
|-
! scope="row" |48
|VDD_3
|}

=='''Protocol Pinout Reference'''==
{| class="wikitable" cellspacing=5 cellpadding=5
|+
! colspan="3" |'''USB'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
|-
! scope="row" |32
|USB_DM
|Data -
|-
! scope="row" |33
|USB_DP
| Data +
|-
! scope="row" |34
|USB_NOE
|Output Enable
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''UCPD1'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |12
|UCPD1_FRSTX1
|Fast Role Swap Signal
|-
! scope="row" |20
|UCPD1_FRSTX2
|Fast Role Swap Signal
|-
! scope="row" | 27
|UCPD1_DB2
|Dead-Battery Signal
|-
! scope="row" |28
|UCPD1_CC2
|Configuration Control Line
|-
! scope="row" |38
|UCPD1_CC1
|Configuration Control Line
|-
! scope="row" |41
|UCPD1_DB1
|Dead-Battery Signal
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''UART4'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |10
|UART4_TX
| Transmit Data
|-
! scope="row" |11
|UART4_RX
|Receive Data
|-
! scope="row" |38
|UART4_RTS
|Request To Send
|-
! scope="row" |43
|UART4_CTS
|Clear To Send
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''LPUART1'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |12
! scope="row" |22
|LPUART1_TX
|Transmit Data
|-
! scope="row" |13
! scope="row" |21
|LPUART1_RX
|Receive Data
|-
! scope="row" |16
! scope="row" | 26
| LPUART1_CTS
| Clear To Send
|-
! scope="row" |19
! scope="row" | 25
|LPUART1_RTS
|Request To Send
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''USART1'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |29
! scope="row" |41
|USART1_CK
|Transmitter Clock
|-
! scope="row" | 30
! scope="row" |42
|USART1_TX
|Transmit Data
|-
! scope="row" |31
! scope="row" | 43
|USART1_RX
|Receive Data
|-
! scope="row" |32
! scope="row" |40
|USART1_CTS
| Clear To Send
|-
! scope="row" |32
! scope="row" |40
|USART1_NSS
|Slave Select
|-
! scope="row" |33
! scope="row" | 39
|USART1_RTS
| Request To Send
|-
! scope="row" |33
! scope="row" | 39
|USART1_DE
|Driver Enable
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''USART2'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |10
! scope="row" |
|USART2_CTS
|Clear To Send
|-
! scope="row" |10
! scope="row" |
|USART2_NSS
|Slave Select
|-
! scope="row" |11
! scope="row" |
|USART2_RTS
|Request To Send
|-
! scope="row" |11
! scope="row" |
|USART2_DE
|Driver Enable
|-
! scope="row" |12
! scope="row" |
| USART2_TX
| Transmit Data
|-
! scope="row" |13
! scope="row" |38
|USART2_RX
|Receive Data
|-
! scope="row" |14
! scope="row" |
|USART2_CK
|Transmitter Clock
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="5" |'''USART3'''
|-
! width="90" colspan="3" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |16
! scope="row" |26
! scope="row" |
|USART3_CTS
|Clear To Send
|-
! scope="row" |16
! scope="row" |26
! scope="row" |
|USART3_NSS
|Slave Select
|-
! scope="row" |18
! scope="row" |25
! scope="row" |
|USART3_CK
|Transmitter Clock
|-
! scope="row" | 19
! scope="row" |27
! scope="row" |38
|USART3_RTS
|Request To Send
|-
! scope="row" |21
! scope="row" | 27
! scope="row" |38
|USART3_DE
| Driver Enable
|-
! scope="row" |21
! scope="row" |
! scope="row" |
|USART3_TX
|Transmit Data
|-
! scope="row" |22
! scope="row" |
! scope="row" |
|USART3_RX
|Request Data
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''JTAG'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |34
|JTMS
|Test Mode State
|-
! scope="row" |37
|JTCK
|Test Clock
|-
! scope="row" |38
|JTDI
|Test Data In
|-
! scope="row" |39
|JTDO
|Test Data Out
|-
! scope="row" |40

|NJTRST
|Reset
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''SWD'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |7
|NRST
|Reset
|-
! scope="row" |34
|SWDIO
|Data I/O
|-
! scope="row" |37
|SWCLK
|Clock
|-
! scope="row" |39
|TRACESWO
|Trace Output
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''OSC'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150"colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |5
|OSC_IN
|High Speed External Clock In (HSEI)
|-
! scope="row" |6
|OSC_OUT
|High Speed External Clock Out (HSEO)
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''OSC32'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |3
|OSC32_IN
|Low Speed External Clock In (LSEI)
|-
! scope="row" |4
|OSC32_OUT
|Low Speed External Clock Out (LSEO)
|}

=='''Peripheral Pinout Diagram'''==
[[Image:OISTER Peripheral Pinout.png | class=img-fluid]]
<br>
{| class="wikitable"" cellspacing=5 cellpadding=5
|+
| colspan="6" |'''Peripheral Pinout'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" colspan="1" scope="col" |Alternate
! width="150" colspan="1" scope="col" |
! width="150" colspan="1" scope="col" |
! width="150" colspan="1" scope="col" |
|-
! scope="row" |1
|VBAT
|-
! scope="row" |2
|PC13
|-
! scope="row" | 3
|PC14
|-
! scope="row" |4
|PC15
|-
! scope="row" |5
|PH0
|-
! scope="row" |6
|PH1

|-
! scope="row" | 7
|NRST
|-
! scope="row" |8
|VSSA
|-
! scope="row" | 9
|VDDA
|-
! scope="row" |10
|PA0
|-
! scope="row" |11
|PA1
| I2C1_SMBA
|SPI1_SCK
|-
! scope="row" |12
|PA2
|OCTOSPI1_NCS

|-
! scope="row" |13
|PA3
|OCTOSPI1_CLK
|-
! scope="row" |14
|PA4
|SPI1_NSS
|SPI3_NSS
|OCTOSPI1_NCS
|-
! scope="row" |15
| PA5
|SPI1_SCK
|-
! scope="row" |16
|PA6
|SPI1_MISO
|OCTOSPI1_IO3
|-
! scope="row" |17
|PA7
|I2C3_SCL
|SPI1_MOSI
|OCTOSPI1_IO2
|-
! scope="row" |18
|PB0
|SPI1_NSS
| OCTOSPI1_IO1
|-
! scope="row" |19
|PB1
|OCTOSPI1_IO0
|-
! scope="row" |20
|PB2
|I2C3_SMBA
|-
! scope="row" | 21
|PB10
|I2C2_SCL
|I2C4_SCL
|SPI2_SCK
|OCTOSPI1_CLK
|-
! scope="row" |22
|PB11
|I2C2_SDA
|I2C4_SDA
|OCTOSPI1_NCS
|-
! scope="row" |23
|VSS
|-
! scope="row" | 24
|VDD
|-
! scope="row" |25
|PB12
|I2C2_SMBA
| SPI2_NSS
|OCTOSPI_NCLK
|-
! scope="row" |26
|PB13
|I2C2_SCL
|SPI2_SCK
|-
! scope="row" |27
|PB14
|I2C2_SDA
|SPI2_MISO
|-
! scope="row" | 28
|PB15
|SPI2_MOSI
|-
! scope="row" |29
|PA8
|-
! scope="row" |30
|PA9
|SPI2_SCK
|-
! scope="row" |31
|PA10
|-
! scope="row" | 32
|PA11
|SPI1_MISO
|FDCAN1_RX
|-
! scope="row" |33
|PA12
|SPI1_MOSI
|FDCAN1_TX
|-
! scope="row" |34
|PA13

|-
! scope="row" |35
|VSS_2
|-
! scope="row" |36
|VDD_2
|-
! scope="row" |37
|PA14
|I2C1_SMBA
| I2C4_SMBA
|-
! scope="row" |38
|PA15
|SPI1_NSS
|SPI3_NSS
|-
! scope="row" |39
|PB3
|SPI1_SCK
|SPI3_SCK
|-
! scope="row" |40
|PB4
|I2C3_SDA
|SPI1_MISO

|SPI3_MISO
|-
! scope="row" |41
|PB5
|I2C1_SMBA
| SPI1_MOSI
| SPI3_MOSI
|-
! scope="row" |42
|PB6
|I2C2_SCL
|I2C4_SCL
|-
! scope="row" |43
| PB7
|I2C1_SDA
|I2C4_SDA
|-
! scope="row" |44
|PH3
|-
! scope="row" |45
|PB8
|I2C1_SCL
|FDCAN1_RX
|-
! scope="row" |46
|PB9
|I2C1_SDA
|SPI2_NSS
|FDCAN1_TX
|-
! scope="row" |47
|VSS_3
|-
! scope="row" |48
|VDD_3
|}

=='''Protocol Pinout Reference'''==

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''I2C1'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |11
! scope="row" |41
|I2C1_SMBA
|System Management Bus Alert (SMBus mode)
|-
! scope="row" |43
! scope="row" |46
|I2C1_SDA
|Serial Data Line
|-
! scope="row" |42
! scope="row" |45
|I2C1_SCL
|Serial Clock Line
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''I2C2'''
|-
! width="60" colspan="2" scope="col" | Pin
! width="100" colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |21
! scope="row" |26
|I2C2_SCL
| Serial Clock Line
|-
! scope="row" | 22
! scope="row" |27
|I2C2_SDA
| Serial Data Line
|-
! scope="row" |25
! scope="row" |
|I2C2_SMBA
|System Management Bus Alert (SMBus mode)
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''I2C3'''
|-
! width="60" colspan="1" scope="col" |Pin
! width="100" colspan="1" scope="col" | Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" | 17
|I2C3_SCL
|Serial Clock Line
|-
! scope="row" |25
| I2C3_SMBA
|System Management Bus Alert (SMBus mode)
|-
! scope="row" |40
|I2C3_SDA
|Serial Data Line
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''I2C4'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |21
! scope="row" |42
|I2C4_SCL
| Serial Clock Line
|-
! scope="row" |22
! scope="row" |43
|I2C4_SDA
|Serial Data Line
|-
! scope="row" |37

! scope="row" |
|I2C4_SMBA
|System Management Bus Alert (SMBus mode)
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''SPI1'''
|-
! width="90" colspan="3" scope="col" |Pin
! width="100" colspan="1" scope="col" | Function
! width="150" colspan="1" scope="col" |Description
|-
! scope="row" |11
! scope="row" |15
! scope="row" |39
|SPI1_SCK
|Serial Clock
|-
! scope="row" |14

! scope="row" |18
! scope="row" |38
|SPI1_NSS
|Slave Select
|-
! scope="row" |16
! scope="row" |32
! scope="row" |40
|SPI1_MISO
|Master-in, Slave-out
|-
! scope="row" |17
! scope="row" |33
! scope="row" |41
|SPI1_MOSI
|Master-out, Slave-in
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''SPI2'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" colspan="1" scope="col" |Description
|-
! scope="row" |21

! scope="row" |26
|SPI2_SCK
|Serial Clock
|-
! scope="row" |25
! scope="row" |
|SPI2_NSS
|Slave Select
|-
! scope="row" |27
! scope="row" |
|SPI2_MISO
|Master-in, Slave-out
|-
! scope="row" |28
! scope="row" |
|SPI2_MOSI
|Master-out, Slave-in
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''SPI3'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" colspan="1" scope="col" |Description
|-
! scope="row" |14

! scope="row" |38
|SPI3_NSS
|Slave Select
|-
! scope="row" |39
! scope="row" |
|SPI3_SCK
|Serial Clock
|-
! scope="row" |40
! scope="row" |
|SPI3_MISO
|Master-in, Slave-out
|-
! scope="row" |41
! scope="row" |
|SPI3_MOSI
|Master-out, Slave-in
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''OCTOSPI1'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="130" colspan="1" scope="col" | Function
! width="150" colspan="1" scope="col" |Description
|-
! scope="row" |12
! scope="row" |14
| OCTOSPI1_NCS
|Chip Select
|-
! scope="row" |13
! scope="row" |21
|OCTOSPI1_CLK
|Clock
|-
! scope="row" |16
! scope="row" |
|OCTOSPI1_IO3
|I/O Data Line
|-
! scope="row" |17
! scope="row" |
|OCTOSPI1_IO2
|I/O Data Line
|-
! scope="row" | 18
! scope="row" |
|OCTOSPI1_IO1
|I/O Data Line
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''FDCAN'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" colspan="1" scope="col" | Description
|-
! scope="row" | 32
! scope="row" |45
|FDCAN_RX
| Receive Data
|-
! scope="row" |33
! scope="row" |46
|FDCAN_TX
|Transmit Data
|}

DEDBUG ProtoFlex

2023-07-05T14:09:17Z

Unbinawiki:

{{PAGEBANNER:Dedbugbanner.jpg|origin=690,150}}
The DEDBUG ProtoFlex boards accompany the [[DEDBUG Protoboard]]. The aim of the DEDBUG ProtoFlex boards is to provide additional functionality to the Protoboard by soldering them to the prototyping area. Currently we are testing six ProtoFlex boards with more to follow. The six boards are 12x12 pad grids of which the left column terminates to an edge connector that can be bridged with the cross-shaped pads on the Protoboard. The current six ProtoFlex grids are at 0201, 0402, 0603, 0805, 1206 and 1210-sized.
<br><br>
<div id="ProtoFlexCarousel" class="carousel slide carousel-slide" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-1">
<li data-target="#ProtoFlexCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#ProtoFlexCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
</ol>


<ol class="carousel-control">
<li class="carousel-control-prev" data-target="#ProtoFlexCarousel" role="button" data-slide="prev">
<span class="carousel-control-prev-icon" aria-hidden="true"></span>
<span class="sr-only">Previous</span>
</li>
<li class="carousel-control-next" data-target="#ProtoFlexCarousel" role="button" data-slide="next">
<span class="carousel-control-next-icon" aria-hidden="true"></span>
<span class="sr-only">Next</span>
</li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:DEDBUG ProtoFlex 50.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG ProtoFlex Soldered 30.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
=='''DEDBUG ProtoFlex Diagram [Front]'''==
<br>
[[Image:FLEX plot front 50 2nd.png | class=img-fluid]]

DEDBUG Protoboard

2023-07-05T14:09:00Z

Unbinawiki:

{{PAGEBANNER:Dedbugbanner.jpg|origin=690,150}}
{{DISPLAYTITLE:DEDBUG Protoboard}}
'''DEDBUG''' is a protoboard aimed at [https://en.wikipedia.org/wiki/Point-to-point_construction deadbug prototyping and free-form circuit construction] with components salvaged from [[wikipedia:Electronic_waste|electronic waste]]. Unlike traditional [[wikipedia:Perfboard|perfboards]] and [[wikipedia:Stripboard|stripboards]], the main objective of this protoboard is to provide a means to work with [https://en.wikipedia.org/wiki/Surface-mount_technology SMD] components. Since founding the lab in 2020, due to the influence of the manufacturing industry on the hardware hacking community we have observed a gradual decline in manual experimentation and prototyping with SMD components in favour of establishing small-scale production pipelines with desktop [[wikipedia:CNC_router|CNC routers]], [https://en.wikipedia.org/wiki/Pick-and-place_machine pick-and-place machines] and [[wikipedia:Reflow_oven|reflow ovens]] and other costly production-oriented equipment. We find that this trend loosely mirrors production processes in larger production pipelines, aimed at commercially producing and selling devices. At Unbinare, we would like to preserve the noncommercial, unpremeditated, spur-of-the-moment nature of hardware hacking and openly share the skills required to manually hack free-form circuits with SMD components. The DEDBUG protoboard is designed to allow anyone to experiment and build free-form circuits with relative ease and demonstrates that with few resources one is able to [[wikipedia:Modding|modify]] and [https://en.wikipedia.org/wiki/Repurposing repurpose] discarded electronic devices instead of creating new products. The project has been supported by [https://constantvzw.org Constant VZW] as part of their [https://constantvzw.org/site/-Techno-desobeissance,246-.html TechnoDisobedience] Project. They generously provided the resources for the design, production and the organization of the first [https://constantvzw.org/site/Workshop-DEDBUG,3744.html DEDBUG workshop]. Further development of the project is supported by [https://nlnet.nl/ NLnet] and the [https://nlnet.nl/NGI0/ NGI Zero Fund] as part of our [https://nlnet.nl/project/Unbinare-RET/ Reverse Engineering Toolkit] project. Additional documentation is currently under development.
<br><br>
<div id="DedbugCarousel" class="carousel slide carousel-slide" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-3">
<li data-target="#DedbugCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="3" style="background-color: #C6C2B6"></li>
</ol>


<ol class="carousel-control">
<li class="carousel-control-prev" data-target="#DedbugCarousel" role="button" data-slide="prev">
<span class="carousel-control-prev-icon" aria-hidden="true"></span>
<span class="sr-only">Previous</span>
</li>
<li class="carousel-control-next" data-target="#DedbugCarousel" role="button" data-slide="next">
<span class="carousel-control-next-icon" aria-hidden="true"></span>
<span class="sr-only">Next</span>
</li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:DEDBUG ALL 50 Square.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG FB Detail 30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG F Detail 2 30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG B Detail 30b.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
=='''DEDBUG Protoboard Diagram [Front]'''==
<br><br>
[[Image:DEDBUG plot front description 50.png | class=img-fluid]]
<br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
!width="60" colspan="1" scope="col" |Color
!width="100" colspan="1" scope="col" |Function
!width="1000" colspan="1" scope="col" |Description
|-
|style="vertical-align:top"|[[File:Blue table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Bus
|A bus on the right and bottom edge of the Protoboard. On the top right edge of the Protoboard it is possible to solder a wire or attach a [[wikipedia:Crocodile_clip|crocodile clip]] to create either a VCC or GND Bus.
|-
|style="vertical-align:top"|[[File:Orange table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads
|The edge pads can be bridged with the Bus, bridged to adjacent edge pads and bridged with the prototyping area. It is possible to bridge with just solder, or an 0402-sized zero-ohm resistor.
|-
|style="vertical-align:top"|[[File:Yellow table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads [Vias]
|These edge pads connect to their corresponding pads on the other side using vias. If one side has a VCC Bus and the other the GND bus, it is possible to complete a circuit by bridging an edge pad with vias on the relevant side so both buses are available to the prototyping area.
|-
|style="vertical-align:top"|[[File:Gray table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Prototyping Area
|This prototyping area has been designed to both accommodate building circuits with [[wikipedia:Magnet_wire|magnet wire]] or without any wire at all by bridging the cross-shaped pads. Since two-terminal SMD components can be difficult to solder using freeform prototyping techniques, the prototyping grid allows for the most common (0201/0402/0603/0805/1206/1210) two-terminal SMD components. A guide will be created in a future iteration of this wiki page.
|}
<br><br>

=='''DEDBUG Protoboard Diagram [Back]'''==
<br><br>
[[Image:DEDBUG plot back description 50.png | class=img-fluid]]
<br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
!width="60" colspan="1" scope="col" |Color
!width="100" colspan="1" scope="col" |Function
!width="1000" colspan="1" scope="col" |Description
|-
|style="vertical-align:top"|[[File:Blue table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Bus
|A bus on the right and bottom edge of the Protoboard. On the top right edge of the Protoboard it is possible to solder a wire or attach a [[wikipedia:Crocodile_clip|crocodile clip]] to create either a VCC or GND Bus.
|-
|style="vertical-align:top"|[[File:Orange table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads
|The edge pads can be bridged with the Bus, bridged to adjacent edge pads and bridged with the prototyping area. It is possible to bridge with just solder, or an 0402-sized zero-ohm resistor.
|-
|style="vertical-align:top"|[[File:Yellow table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads [Vias]
|These edge pads connect to the edge pads on the other side using vias. If one side has a VCC Bus and the other the GND bus, it is possible to complete a circuit by bridging an edge pad with vias on the relevant side so both buses are available to the prototyping area.
|-
|style="vertical-align:top"|[[File:Gray table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Prototyping Area
| This prototyping area has been designed to both accommodate building circuits with [[wikipedia:Magnet_wire|magnet wire]] or without any wire at all by bridging the cross-shaped pads. Slightly different from the prototyping area found on the front of the Protoboard,
This side accommodates building zones and makes it easier to attach DEDBUG ProtoFlex PCBs.
|-
|style="vertical-align:top"|[[File:Green table icon.png|alt=Green table icon|frameless|50x50px]]
|style="vertical-align:top"|Bridge Guard
|The function of this small pad is to prevent accidental shorting of the the buses on opposite sides of the board when using crocodile clips. It is not possible to use solder to bridge the two buses, as the surface tension of the solder and the shape of the area prevents it. The best way to bridge the two buses on the left and bottom sides of the board is to cut off a 2x2mm piece of solder wick and solder it on top of the bridge guard.
|}

DEDBUG ProtoFlex

2023-07-05T14:06:46Z

Unbinawiki:

{{PAGEBANNER:Dedbugbanner.jpg|origin=500,150}}
The DEDBUG ProtoFlex boards accompany the [[DEDBUG Protoboard]]. The aim of the DEDBUG ProtoFlex boards is to provide additional functionality to the Protoboard by soldering them to the prototyping area. Currently we are testing six ProtoFlex boards with more to follow. The six boards are 12x12 pad grids of which the left column terminates to an edge connector that can be bridged with the cross-shaped pads on the Protoboard. The current six ProtoFlex grids are at 0201, 0402, 0603, 0805, 1206 and 1210-sized.
<br><br>
<div id="ProtoFlexCarousel" class="carousel slide carousel-slide" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-1">
<li data-target="#ProtoFlexCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#ProtoFlexCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
</ol>


<ol class="carousel-control">
<li class="carousel-control-prev" data-target="#ProtoFlexCarousel" role="button" data-slide="prev">
<span class="carousel-control-prev-icon" aria-hidden="true"></span>
<span class="sr-only">Previous</span>
</li>
<li class="carousel-control-next" data-target="#ProtoFlexCarousel" role="button" data-slide="next">
<span class="carousel-control-next-icon" aria-hidden="true"></span>
<span class="sr-only">Next</span>
</li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:DEDBUG ProtoFlex 50.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG ProtoFlex Soldered 30.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
=='''DEDBUG ProtoFlex Diagram [Front]'''==
<br>
[[Image:FLEX plot front 50 2nd.png | class=img-fluid]]

File:Dedbugbanner.jpg

2023-07-05T14:04:58Z

Unbinawiki: Unbinawiki uploaded a new version of File:Dedbugbanner.jpg

== Summary ==
DEDBUG Banner
== Licensing ==
{{CC BY-NC-SA 4.0 }}

OI!STER

2023-07-05T14:00:33Z

Unbinawiki:

{{PAGEBANNER:Oister_banner.jpg|origin=500,150}}
The OI!STER is an STM32L5 Target Board with a QFP48 clamshell socket aimed at debugging and glitching salvaged MCUs. The board can be powered via USB-C, a 2032 coin cell battery on the back of the board or an external power suppy. All pins are broken out in the 24-pin headers on either side at the top of the board. The OI!STER contains five debug headers, to support a wide range of debugging hardware such as a [https://hydrabus.com/hydrabus-1-0-specifications/ Hydrabus] or a [https://1bitsquared.com/products/black-magic-probe Black Magic Probe]. It comes with six SMA connectors arranged in I/O pairs. One pair is dedicated to glitching the external LSE clock, another for glitching the external HSE clock and one pair for power analysis and fault injection with a [https://www.newae.com/chipwhisperer Chipwhisperer]. Each SMA connector can be bypassed by removing a small jumper. The OI!STER also has additional solder jumpers for the external clocks and each of the power traces to the MCU to allow for quick experimentation.
<br><br>
The Pinout diagrams below are directed at reverse engineering. The first diagram is targeted at debugging and reverse engineering an STM32L5 MCU itself. The second diagram is aimed at the communication between external peripherals and the MCU. Although some functionaly might overlap, we've found it practical to define these two pinout groups. Additional documentation is currently under development.
<br><br>
<div id="OisterCarousel" class="carousel slide carousel-slide" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-2">
<li data-target="#OisterCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#OisterCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#OisterCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
</ol>


<ol class="carousel-control">
<li class="carousel-control-prev" data-target="#OisterCarousel" role="button" data-slide="prev">
<span class="carousel-control-prev-icon" aria-hidden="true"></span>
<span class="sr-only">Previous</span>
</li>
<li class="carousel-control-next" data-target="#OisterCarousel" role="button" data-slide="next">
<span class="carousel-control-next-icon" aria-hidden="true"></span>
<span class="sr-only">Next</span>
</li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[Image:OISTER-DIAG-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[Image:OISTER-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[Image:OISTER-PCB-30.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
=='''Debug Pinout Diagram'''==
[[Image:OISTER Pinout DBG-50.png | class=img-fluid]]
<br>
{| class="wikitable" cellspacing=5 cellpadding=5
|+
! colspan="3" |Debug Pinout
|-
! width="50" colspan="1" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" scope="col" |Alternate Function
|-
! scope="row" |1
|VBAT
|-
! scope="row" |2
|PC13
|-
! scope="row" |3
|PC14
| OSC32_IN
|-
! scope="row" |4
|PC15
|OSC32_OUT
|-
! scope="row" | 5
|PH0
|OSC_IN
|-
! scope="row" |6

|PH1
|OSC_OUT
|-
! scope="row" |7
|NRST
|-
! scope="row" |8
|VSSA
|VREF-
|-
! scope="row" |9
|VDDA
|VREF+
|-
! scope="row" | 10
|PA0
|UART4_TX
|-
! scope="row" |11
|PA1
|UART4_RX
|-
! scope="row" |12
|PA2
|LPUART1_TX
|-
! scope="row" |13
|PA3
|LPUART1_RX
|-
! scope="row" |14
|PA4
|USART2_CK
|-
! scope="row" |15
|PA5
|-
! scope="row" |16
|PA6
|LPUART1_CTS
|-
! scope="row" |17
|PA7
|-
! scope="row" | 18
|PB0
|LED1
|-
! scope="row" |19
|PB1
|LED2
|-
! scope="row" |20
|PB2
|UCPD1_FRSTX2
|-
! scope="row" |21
| PB10
|USART3_TX
|-
! scope="row" |22
|PB11
|USART3_RX
|-
! scope="row" |23
|VSS
|-
! scope="row" |24
|VDD
|-
! scope="row" |25
|PB12
|LPUART1_RTS
|-
! scope="row" |26
|PB13
|LPUART1_CTS
|-
! scope="row" |27
|PB14
|UCPD1_DB2
|-
! scope="row" |28
|PB15
|UCPD1_CC2
|-
! scope="row" |29
|PA8
|USART1_CK
|-
! scope="row" |30
|PA9
|USART1_TX
|-
! scope="row" |31
|PA10
|USART1_RX
|-
! scope="row" |32
|PA11
|USART1_CTS
|-
! scope="row" |33
|PA12
|USART1_RTS
|-
! scope="row" |34
| PA13
|JTMS
|-
! scope="row" |35
|VSS_2
|-
! scope="row" |36
|VDD_2
|-
! scope="row" |37
|PA14
|JTCK
|-
! scope="row" |38
|PA15
|JTDI
|-
! scope="row" |39
|PB3
| JTDO
|-
! scope="row" |40
|PB4
|NJTRST

|-
! scope="row" | 41
|PB5
|UCPD1_DB1
|-
! scope="row" |42

|PB6
|USART1_TX
|-
! scope="row" |43
|PB7
|UART4_CTS
|-
! scope="row" |44

|PH3
|BOOT0
|-
! scope="row" |45
|PB8
|-
! scope="row" | 46
|PB9
|-
! scope="row" |47
|VSS_3
|-
! scope="row" |48
|VDD_3
|}

=='''Protocol Pinout Reference'''==
{| class="wikitable" cellspacing=5 cellpadding=5
|+
! colspan="3" |'''USB'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
|-
! scope="row" |32
|USB_DM
|Data -
|-
! scope="row" |33
|USB_DP
| Data +
|-
! scope="row" |34
|USB_NOE
|Output Enable
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''UCPD1'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |12
|UCPD1_FRSTX1
|Fast Role Swap Signal
|-
! scope="row" |20
|UCPD1_FRSTX2
|Fast Role Swap Signal
|-
! scope="row" | 27
|UCPD1_DB2
|Dead-Battery Signal
|-
! scope="row" |28
|UCPD1_CC2
|Configuration Control Line
|-
! scope="row" |38
|UCPD1_CC1
|Configuration Control Line
|-
! scope="row" |41
|UCPD1_DB1
|Dead-Battery Signal
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''UART4'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |10
|UART4_TX
| Transmit Data
|-
! scope="row" |11
|UART4_RX
|Receive Data
|-
! scope="row" |38
|UART4_RTS
|Request To Send
|-
! scope="row" |43
|UART4_CTS
|Clear To Send
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''LPUART1'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |12
! scope="row" |22
|LPUART1_TX
|Transmit Data
|-
! scope="row" |13
! scope="row" |21
|LPUART1_RX
|Receive Data
|-
! scope="row" |16
! scope="row" | 26
| LPUART1_CTS
| Clear To Send
|-
! scope="row" |19
! scope="row" | 25
|LPUART1_RTS
|Request To Send
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''USART1'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |29
! scope="row" |41
|USART1_CK
|Transmitter Clock
|-
! scope="row" | 30
! scope="row" |42
|USART1_TX
|Transmit Data
|-
! scope="row" |31
! scope="row" | 43
|USART1_RX
|Receive Data
|-
! scope="row" |32
! scope="row" |40
|USART1_CTS
| Clear To Send
|-
! scope="row" |32
! scope="row" |40
|USART1_NSS
|Slave Select
|-
! scope="row" |33
! scope="row" | 39
|USART1_RTS
| Request To Send
|-
! scope="row" |33
! scope="row" | 39
|USART1_DE
|Driver Enable
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''USART2'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |10
! scope="row" |
|USART2_CTS
|Clear To Send
|-
! scope="row" |10
! scope="row" |
|USART2_NSS
|Slave Select
|-
! scope="row" |11
! scope="row" |
|USART2_RTS
|Request To Send
|-
! scope="row" |11
! scope="row" |
|USART2_DE
|Driver Enable
|-
! scope="row" |12
! scope="row" |
| USART2_TX
| Transmit Data
|-
! scope="row" |13
! scope="row" |38
|USART2_RX
|Receive Data
|-
! scope="row" |14
! scope="row" |
|USART2_CK
|Transmitter Clock
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="5" |'''USART3'''
|-
! width="90" colspan="3" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |16
! scope="row" |26
! scope="row" |
|USART3_CTS
|Clear To Send
|-
! scope="row" |16
! scope="row" |26
! scope="row" |
|USART3_NSS
|Slave Select
|-
! scope="row" |18
! scope="row" |25
! scope="row" |
|USART3_CK
|Transmitter Clock
|-
! scope="row" | 19
! scope="row" |27
! scope="row" |38
|USART3_RTS
|Request To Send
|-
! scope="row" |21
! scope="row" | 27
! scope="row" |38
|USART3_DE
| Driver Enable
|-
! scope="row" |21
! scope="row" |
! scope="row" |
|USART3_TX
|Transmit Data
|-
! scope="row" |22
! scope="row" |
! scope="row" |
|USART3_RX
|Request Data
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''JTAG'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |34
|JTMS
|Test Mode State
|-
! scope="row" |37
|JTCK
|Test Clock
|-
! scope="row" |38
|JTDI
|Test Data In
|-
! scope="row" |39
|JTDO
|Test Data Out
|-
! scope="row" |40

|NJTRST
|Reset
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''SWD'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |7
|NRST
|Reset
|-
! scope="row" |34
|SWDIO
|Data I/O
|-
! scope="row" |37
|SWCLK
|Clock
|-
! scope="row" |39
|TRACESWO
|Trace Output
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''OSC'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150"colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |5
|OSC_IN
|High Speed External Clock In (HSEI)
|-
! scope="row" |6
|OSC_OUT
|High Speed External Clock Out (HSEO)
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''OSC32'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |3
|OSC32_IN
|Low Speed External Clock In (LSEI)
|-
! scope="row" |4
|OSC32_OUT
|Low Speed External Clock Out (LSEO)
|}

=='''Peripheral Pinout Diagram'''==
[[Image:OISTER Peripheral Pinout.png | class=img-fluid]]
<br>
{| class="wikitable"" cellspacing=5 cellpadding=5
|+
| colspan="6" |'''Peripheral Pinout'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" colspan="1" scope="col" |Alternate
! width="150" colspan="1" scope="col" |
! width="150" colspan="1" scope="col" |
! width="150" colspan="1" scope="col" |
|-
! scope="row" |1
|VBAT
|-
! scope="row" |2
|PC13
|-
! scope="row" | 3
|PC14
|-
! scope="row" |4
|PC15
|-
! scope="row" |5
|PH0
|-
! scope="row" |6
|PH1

|-
! scope="row" | 7
|NRST
|-
! scope="row" |8
|VSSA
|-
! scope="row" | 9
|VDDA
|-
! scope="row" |10
|PA0
|-
! scope="row" |11
|PA1
| I2C1_SMBA
|SPI1_SCK
|-
! scope="row" |12
|PA2
|OCTOSPI1_NCS

|-
! scope="row" |13
|PA3
|OCTOSPI1_CLK
|-
! scope="row" |14
|PA4
|SPI1_NSS
|SPI3_NSS
|OCTOSPI1_NCS
|-
! scope="row" |15
| PA5
|SPI1_SCK
|-
! scope="row" |16
|PA6
|SPI1_MISO
|OCTOSPI1_IO3
|-
! scope="row" |17
|PA7
|I2C3_SCL
|SPI1_MOSI
|OCTOSPI1_IO2
|-
! scope="row" |18
|PB0
|SPI1_NSS
| OCTOSPI1_IO1
|-
! scope="row" |19
|PB1
|OCTOSPI1_IO0
|-
! scope="row" |20
|PB2
|I2C3_SMBA
|-
! scope="row" | 21
|PB10
|I2C2_SCL
|I2C4_SCL
|SPI2_SCK
|OCTOSPI1_CLK
|-
! scope="row" |22
|PB11
|I2C2_SDA
|I2C4_SDA
|OCTOSPI1_NCS
|-
! scope="row" |23
|VSS
|-
! scope="row" | 24
|VDD
|-
! scope="row" |25
|PB12
|I2C2_SMBA
| SPI2_NSS
|OCTOSPI_NCLK
|-
! scope="row" |26
|PB13
|I2C2_SCL
|SPI2_SCK
|-
! scope="row" |27
|PB14
|I2C2_SDA
|SPI2_MISO
|-
! scope="row" | 28
|PB15
|SPI2_MOSI
|-
! scope="row" |29
|PA8
|-
! scope="row" |30
|PA9
|SPI2_SCK
|-
! scope="row" |31
|PA10
|-
! scope="row" | 32
|PA11
|SPI1_MISO
|FDCAN1_RX
|-
! scope="row" |33
|PA12
|SPI1_MOSI
|FDCAN1_TX
|-
! scope="row" |34
|PA13

|-
! scope="row" |35
|VSS_2
|-
! scope="row" |36
|VDD_2
|-
! scope="row" |37
|PA14
|I2C1_SMBA
| I2C4_SMBA
|-
! scope="row" |38
|PA15
|SPI1_NSS
|SPI3_NSS
|-
! scope="row" |39
|PB3
|SPI1_SCK
|SPI3_SCK
|-
! scope="row" |40
|PB4
|I2C3_SDA
|SPI1_MISO

|SPI3_MISO
|-
! scope="row" |41
|PB5
|I2C1_SMBA
| SPI1_MOSI
| SPI3_MOSI
|-
! scope="row" |42
|PB6
|I2C2_SCL
|I2C4_SCL
|-
! scope="row" |43
| PB7
|I2C1_SDA
|I2C4_SDA
|-
! scope="row" |44
|PH3
|-
! scope="row" |45
|PB8
|I2C1_SCL
|FDCAN1_RX
|-
! scope="row" |46
|PB9
|I2C1_SDA
|SPI2_NSS
|FDCAN1_TX
|-
! scope="row" |47
|VSS_3
|-
! scope="row" |48
|VDD_3
|}

=='''Protocol Pinout Reference'''==

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''I2C1'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |11
! scope="row" |41
|I2C1_SMBA
|System Management Bus Alert (SMBus mode)
|-
! scope="row" |43
! scope="row" |46
|I2C1_SDA
|Serial Data Line
|-
! scope="row" |42
! scope="row" |45
|I2C1_SCL
|Serial Clock Line
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''I2C2'''
|-
! width="60" colspan="2" scope="col" | Pin
! width="100" colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |21
! scope="row" |26
|I2C2_SCL
| Serial Clock Line
|-
! scope="row" | 22
! scope="row" |27
|I2C2_SDA
| Serial Data Line
|-
! scope="row" |25
! scope="row" |
|I2C2_SMBA
|System Management Bus Alert (SMBus mode)
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''I2C3'''
|-
! width="60" colspan="1" scope="col" |Pin
! width="100" colspan="1" scope="col" | Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" | 17
|I2C3_SCL
|Serial Clock Line
|-
! scope="row" |25
| I2C3_SMBA
|System Management Bus Alert (SMBus mode)
|-
! scope="row" |40
|I2C3_SDA
|Serial Data Line
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''I2C4'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |21
! scope="row" |42
|I2C4_SCL
| Serial Clock Line
|-
! scope="row" |22
! scope="row" |43
|I2C4_SDA
|Serial Data Line
|-
! scope="row" |37

! scope="row" |
|I2C4_SMBA
|System Management Bus Alert (SMBus mode)
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''SPI1'''
|-
! width="90" colspan="3" scope="col" |Pin
! width="100" colspan="1" scope="col" | Function
! width="150" colspan="1" scope="col" |Description
|-
! scope="row" |11
! scope="row" |15
! scope="row" |39
|SPI1_SCK
|Serial Clock
|-
! scope="row" |14

! scope="row" |18
! scope="row" |38
|SPI1_NSS
|Slave Select
|-
! scope="row" |16
! scope="row" |32
! scope="row" |40
|SPI1_MISO
|Master-in, Slave-out
|-
! scope="row" |17
! scope="row" |33
! scope="row" |41
|SPI1_MOSI
|Master-out, Slave-in
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''SPI2'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" colspan="1" scope="col" |Description
|-
! scope="row" |21

! scope="row" |26
|SPI2_SCK
|Serial Clock
|-
! scope="row" |25
! scope="row" |
|SPI2_NSS
|Slave Select
|-
! scope="row" |27
! scope="row" |
|SPI2_MISO
|Master-in, Slave-out
|-
! scope="row" |28
! scope="row" |
|SPI2_MOSI
|Master-out, Slave-in
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''SPI3'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" colspan="1" scope="col" |Description
|-
! scope="row" |14

! scope="row" |38
|SPI3_NSS
|Slave Select
|-
! scope="row" |39
! scope="row" |
|SPI3_SCK
|Serial Clock
|-
! scope="row" |40
! scope="row" |
|SPI3_MISO
|Master-in, Slave-out
|-
! scope="row" |41
! scope="row" |
|SPI3_MOSI
|Master-out, Slave-in
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''OCTOSPI1'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="130" colspan="1" scope="col" | Function
! width="150" colspan="1" scope="col" |Description
|-
! scope="row" |12
! scope="row" |14
| OCTOSPI1_NCS
|Chip Select
|-
! scope="row" |13
! scope="row" |21
|OCTOSPI1_CLK
|Clock
|-
! scope="row" |16
! scope="row" |
|OCTOSPI1_IO3
|I/O Data Line
|-
! scope="row" |17
! scope="row" |
|OCTOSPI1_IO2
|I/O Data Line
|-
! scope="row" | 18
! scope="row" |
|OCTOSPI1_IO1
|I/O Data Line
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''FDCAN'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" colspan="1" scope="col" | Description
|-
! scope="row" | 32
! scope="row" |45
|FDCAN_RX
| Receive Data
|-
! scope="row" |33
! scope="row" |46
|FDCAN_TX
|Transmit Data
|}

File:Oister banner.jpg

2023-07-05T13:59:29Z

Unbinawiki: OI!STER Banner

== Summary ==
OI!STER Banner
== Licensing ==
{{CC BY-NC-SA 4.0 }}

File:Dedbugbanner.jpg

2023-07-05T13:51:18Z

Unbinawiki: Unbinawiki uploaded a new version of File:Dedbugbanner.jpg

== Summary ==
DEDBUG Banner
== Licensing ==
{{CC BY-NC-SA 4.0 }}

DEDBUG Protoboard

2023-07-05T13:40:47Z

Unbinawiki:

{{PAGEBANNER:Dedbugbanner.jpg|origin=500,150}}
{{DISPLAYTITLE:DEDBUG Protoboard}}
'''DEDBUG''' is a protoboard aimed at [https://en.wikipedia.org/wiki/Point-to-point_construction deadbug prototyping and free-form circuit construction] with components salvaged from [[wikipedia:Electronic_waste|electronic waste]]. Unlike traditional [[wikipedia:Perfboard|perfboards]] and [[wikipedia:Stripboard|stripboards]], the main objective of this protoboard is to provide a means to work with [https://en.wikipedia.org/wiki/Surface-mount_technology SMD] components. Since founding the lab in 2020, due to the influence of the manufacturing industry on the hardware hacking community we have observed a gradual decline in manual experimentation and prototyping with SMD components in favour of establishing small-scale production pipelines with desktop [[wikipedia:CNC_router|CNC routers]], [https://en.wikipedia.org/wiki/Pick-and-place_machine pick-and-place machines] and [[wikipedia:Reflow_oven|reflow ovens]] and other costly production-oriented equipment. We find that this trend loosely mirrors production processes in larger production pipelines, aimed at commercially producing and selling devices. At Unbinare, we would like to preserve the noncommercial, unpremeditated, spur-of-the-moment nature of hardware hacking and openly share the skills required to manually hack free-form circuits with SMD components. The DEDBUG protoboard is designed to allow anyone to experiment and build free-form circuits with relative ease and demonstrates that with few resources one is able to [[wikipedia:Modding|modify]] and [https://en.wikipedia.org/wiki/Repurposing repurpose] discarded electronic devices instead of creating new products. The project has been supported by [https://constantvzw.org Constant VZW] as part of their [https://constantvzw.org/site/-Techno-desobeissance,246-.html TechnoDisobedience] Project. They generously provided the resources for the design, production and the organization of the first [https://constantvzw.org/site/Workshop-DEDBUG,3744.html DEDBUG workshop]. Further development of the project is supported by [https://nlnet.nl/ NLnet] and the [https://nlnet.nl/NGI0/ NGI Zero Fund] as part of our [https://nlnet.nl/project/Unbinare-RET/ Reverse Engineering Toolkit] project. Additional documentation is currently under development.
<br><br>
<div id="DedbugCarousel" class="carousel slide carousel-slide" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-3">
<li data-target="#DedbugCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="3" style="background-color: #C6C2B6"></li>
</ol>


<ol class="carousel-control">
<li class="carousel-control-prev" data-target="#DedbugCarousel" role="button" data-slide="prev">
<span class="carousel-control-prev-icon" aria-hidden="true"></span>
<span class="sr-only">Previous</span>
</li>
<li class="carousel-control-next" data-target="#DedbugCarousel" role="button" data-slide="next">
<span class="carousel-control-next-icon" aria-hidden="true"></span>
<span class="sr-only">Next</span>
</li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:DEDBUG ALL 50 Square.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG FB Detail 30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG F Detail 2 30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG B Detail 30b.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
=='''DEDBUG Protoboard Diagram [Front]'''==
<br><br>
[[Image:DEDBUG plot front description 50.png | class=img-fluid]]
<br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
!width="60" colspan="1" scope="col" |Color
!width="100" colspan="1" scope="col" |Function
!width="1000" colspan="1" scope="col" |Description
|-
|style="vertical-align:top"|[[File:Blue table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Bus
|A bus on the right and bottom edge of the Protoboard. On the top right edge of the Protoboard it is possible to solder a wire or attach a [[wikipedia:Crocodile_clip|crocodile clip]] to create either a VCC or GND Bus.
|-
|style="vertical-align:top"|[[File:Orange table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads
|The edge pads can be bridged with the Bus, bridged to adjacent edge pads and bridged with the prototyping area. It is possible to bridge with just solder, or an 0402-sized zero-ohm resistor.
|-
|style="vertical-align:top"|[[File:Yellow table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads [Vias]
|These edge pads connect to their corresponding pads on the other side using vias. If one side has a VCC Bus and the other the GND bus, it is possible to complete a circuit by bridging an edge pad with vias on the relevant side so both buses are available to the prototyping area.
|-
|style="vertical-align:top"|[[File:Gray table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Prototyping Area
|This prototyping area has been designed to both accommodate building circuits with [[wikipedia:Magnet_wire|magnet wire]] or without any wire at all by bridging the cross-shaped pads. Since two-terminal SMD components can be difficult to solder using freeform prototyping techniques, the prototyping grid allows for the most common (0201/0402/0603/0805/1206/1210) two-terminal SMD components. A guide will be created in a future iteration of this wiki page.
|}
<br><br>

=='''DEDBUG Protoboard Diagram [Back]'''==
<br><br>
[[Image:DEDBUG plot back description 50.png | class=img-fluid]]
<br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
!width="60" colspan="1" scope="col" |Color
!width="100" colspan="1" scope="col" |Function
!width="1000" colspan="1" scope="col" |Description
|-
|style="vertical-align:top"|[[File:Blue table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Bus
|A bus on the right and bottom edge of the Protoboard. On the top right edge of the Protoboard it is possible to solder a wire or attach a [[wikipedia:Crocodile_clip|crocodile clip]] to create either a VCC or GND Bus.
|-
|style="vertical-align:top"|[[File:Orange table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads
|The edge pads can be bridged with the Bus, bridged to adjacent edge pads and bridged with the prototyping area. It is possible to bridge with just solder, or an 0402-sized zero-ohm resistor.
|-
|style="vertical-align:top"|[[File:Yellow table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads [Vias]
|These edge pads connect to the edge pads on the other side using vias. If one side has a VCC Bus and the other the GND bus, it is possible to complete a circuit by bridging an edge pad with vias on the relevant side so both buses are available to the prototyping area.
|-
|style="vertical-align:top"|[[File:Gray table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Prototyping Area
| This prototyping area has been designed to both accommodate building circuits with [[wikipedia:Magnet_wire|magnet wire]] or without any wire at all by bridging the cross-shaped pads. Slightly different from the prototyping area found on the front of the Protoboard,
This side accommodates building zones and makes it easier to attach DEDBUG ProtoFlex PCBs.
|-
|style="vertical-align:top"|[[File:Green table icon.png|alt=Green table icon|frameless|50x50px]]
|style="vertical-align:top"|Bridge Guard
|The function of this small pad is to prevent accidental shorting of the the buses on opposite sides of the board when using crocodile clips. It is not possible to use solder to bridge the two buses, as the surface tension of the solder and the shape of the area prevents it. The best way to bridge the two buses on the left and bottom sides of the board is to cut off a 2x2mm piece of solder wick and solder it on top of the bridge guard.
|}

File:Dedbugbanner.jpg

2023-07-05T13:40:12Z

Unbinawiki: Unbinawiki uploaded a new version of File:Dedbugbanner.jpg

== Summary ==
DEDBUG Banner
== Licensing ==
{{CC BY-NC-SA 4.0 }}

File:Dedbugbanner.jpg

2023-07-05T13:37:40Z

Unbinawiki: Unbinawiki uploaded a new version of File:Dedbugbanner.jpg

== Summary ==
DEDBUG Banner
== Licensing ==
{{CC BY-NC-SA 4.0 }}

File:Dedbugbanner.jpg

2023-07-05T13:36:09Z

Unbinawiki: DEDBUG Banner

== Summary ==
DEDBUG Banner
== Licensing ==
{{CC BY-NC-SA 4.0 }}

DEDBUG Protoboard

2023-07-05T13:32:34Z

Unbinawiki:

{{PAGEBANNER:Dedbug_banner.jpg|origin=500,150}}
{{DISPLAYTITLE:DEDBUG Protoboard}}
'''DEDBUG''' is a protoboard aimed at [https://en.wikipedia.org/wiki/Point-to-point_construction deadbug prototyping and free-form circuit construction] with components salvaged from [[wikipedia:Electronic_waste|electronic waste]]. Unlike traditional [[wikipedia:Perfboard|perfboards]] and [[wikipedia:Stripboard|stripboards]], the main objective of this protoboard is to provide a means to work with [https://en.wikipedia.org/wiki/Surface-mount_technology SMD] components. Since founding the lab in 2020, due to the influence of the manufacturing industry on the hardware hacking community we have observed a gradual decline in manual experimentation and prototyping with SMD components in favour of establishing small-scale production pipelines with desktop [[wikipedia:CNC_router|CNC routers]], [https://en.wikipedia.org/wiki/Pick-and-place_machine pick-and-place machines] and [[wikipedia:Reflow_oven|reflow ovens]] and other costly production-oriented equipment. We find that this trend loosely mirrors production processes in larger production pipelines, aimed at commercially producing and selling devices. At Unbinare, we would like to preserve the noncommercial, unpremeditated, spur-of-the-moment nature of hardware hacking and openly share the skills required to manually hack free-form circuits with SMD components. The DEDBUG protoboard is designed to allow anyone to experiment and build free-form circuits with relative ease and demonstrates that with few resources one is able to [[wikipedia:Modding|modify]] and [https://en.wikipedia.org/wiki/Repurposing repurpose] discarded electronic devices instead of creating new products. The project has been supported by [https://constantvzw.org Constant VZW] as part of their [https://constantvzw.org/site/-Techno-desobeissance,246-.html TechnoDisobedience] Project. They generously provided the resources for the design, production and the organization of the first [https://constantvzw.org/site/Workshop-DEDBUG,3744.html DEDBUG workshop]. Further development of the project is supported by [https://nlnet.nl/ NLnet] and the [https://nlnet.nl/NGI0/ NGI Zero Fund] as part of our [https://nlnet.nl/project/Unbinare-RET/ Reverse Engineering Toolkit] project. Additional documentation is currently under development.
<br><br>
<div id="DedbugCarousel" class="carousel slide carousel-slide" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-3">
<li data-target="#DedbugCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="3" style="background-color: #C6C2B6"></li>
</ol>


<ol class="carousel-control">
<li class="carousel-control-prev" data-target="#DedbugCarousel" role="button" data-slide="prev">
<span class="carousel-control-prev-icon" aria-hidden="true"></span>
<span class="sr-only">Previous</span>
</li>
<li class="carousel-control-next" data-target="#DedbugCarousel" role="button" data-slide="next">
<span class="carousel-control-next-icon" aria-hidden="true"></span>
<span class="sr-only">Next</span>
</li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:DEDBUG ALL 50 Square.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG FB Detail 30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG F Detail 2 30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG B Detail 30b.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
=='''DEDBUG Protoboard Diagram [Front]'''==
<br><br>
[[Image:DEDBUG plot front description 50.png | class=img-fluid]]
<br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
!width="60" colspan="1" scope="col" |Color
!width="100" colspan="1" scope="col" |Function
!width="1000" colspan="1" scope="col" |Description
|-
|style="vertical-align:top"|[[File:Blue table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Bus
|A bus on the right and bottom edge of the Protoboard. On the top right edge of the Protoboard it is possible to solder a wire or attach a [[wikipedia:Crocodile_clip|crocodile clip]] to create either a VCC or GND Bus.
|-
|style="vertical-align:top"|[[File:Orange table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads
|The edge pads can be bridged with the Bus, bridged to adjacent edge pads and bridged with the prototyping area. It is possible to bridge with just solder, or an 0402-sized zero-ohm resistor.
|-
|style="vertical-align:top"|[[File:Yellow table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads [Vias]
|These edge pads connect to their corresponding pads on the other side using vias. If one side has a VCC Bus and the other the GND bus, it is possible to complete a circuit by bridging an edge pad with vias on the relevant side so both buses are available to the prototyping area.
|-
|style="vertical-align:top"|[[File:Gray table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Prototyping Area
|This prototyping area has been designed to both accommodate building circuits with [[wikipedia:Magnet_wire|magnet wire]] or without any wire at all by bridging the cross-shaped pads. Since two-terminal SMD components can be difficult to solder using freeform prototyping techniques, the prototyping grid allows for the most common (0201/0402/0603/0805/1206/1210) two-terminal SMD components. A guide will be created in a future iteration of this wiki page.
|}
<br><br>

=='''DEDBUG Protoboard Diagram [Back]'''==
<br><br>
[[Image:DEDBUG plot back description 50.png | class=img-fluid]]
<br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
!width="60" colspan="1" scope="col" |Color
!width="100" colspan="1" scope="col" |Function
!width="1000" colspan="1" scope="col" |Description
|-
|style="vertical-align:top"|[[File:Blue table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Bus
|A bus on the right and bottom edge of the Protoboard. On the top right edge of the Protoboard it is possible to solder a wire or attach a [[wikipedia:Crocodile_clip|crocodile clip]] to create either a VCC or GND Bus.
|-
|style="vertical-align:top"|[[File:Orange table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads
|The edge pads can be bridged with the Bus, bridged to adjacent edge pads and bridged with the prototyping area. It is possible to bridge with just solder, or an 0402-sized zero-ohm resistor.
|-
|style="vertical-align:top"|[[File:Yellow table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads [Vias]
|These edge pads connect to the edge pads on the other side using vias. If one side has a VCC Bus and the other the GND bus, it is possible to complete a circuit by bridging an edge pad with vias on the relevant side so both buses are available to the prototyping area.
|-
|style="vertical-align:top"|[[File:Gray table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Prototyping Area
| This prototyping area has been designed to both accommodate building circuits with [[wikipedia:Magnet_wire|magnet wire]] or without any wire at all by bridging the cross-shaped pads. Slightly different from the prototyping area found on the front of the Protoboard,
This side accommodates building zones and makes it easier to attach DEDBUG ProtoFlex PCBs.
|-
|style="vertical-align:top"|[[File:Green table icon.png|alt=Green table icon|frameless|50x50px]]
|style="vertical-align:top"|Bridge Guard
|The function of this small pad is to prevent accidental shorting of the the buses on opposite sides of the board when using crocodile clips. It is not possible to use solder to bridge the two buses, as the surface tension of the solder and the shape of the area prevents it. The best way to bridge the two buses on the left and bottom sides of the board is to cut off a 2x2mm piece of solder wick and solder it on top of the bridge guard.
|}

DEDBUG Protoboard

2023-07-05T13:30:54Z

Unbinawiki:

{{PAGEBANNER:Banner.jpg|origin=500,150}}
{{DISPLAYTITLE:DEDBUG Protoboard}}
'''DEDBUG''' is a protoboard aimed at [https://en.wikipedia.org/wiki/Point-to-point_construction deadbug prototyping and free-form circuit construction] with components salvaged from [[wikipedia:Electronic_waste|electronic waste]]. Unlike traditional [[wikipedia:Perfboard|perfboards]] and [[wikipedia:Stripboard|stripboards]], the main objective of this protoboard is to provide a means to work with [https://en.wikipedia.org/wiki/Surface-mount_technology SMD] components. Since founding the lab in 2020, due to the influence of the manufacturing industry on the hardware hacking community we have observed a gradual decline in manual experimentation and prototyping with SMD components in favour of establishing small-scale production pipelines with desktop [[wikipedia:CNC_router|CNC routers]], [https://en.wikipedia.org/wiki/Pick-and-place_machine pick-and-place machines] and [[wikipedia:Reflow_oven|reflow ovens]] and other costly production-oriented equipment. We find that this trend loosely mirrors production processes in larger production pipelines, aimed at commercially producing and selling devices. At Unbinare, we would like to preserve the noncommercial, unpremeditated, spur-of-the-moment nature of hardware hacking and openly share the skills required to manually hack free-form circuits with SMD components. The DEDBUG protoboard is designed to allow anyone to experiment and build free-form circuits with relative ease and demonstrates that with few resources one is able to [[wikipedia:Modding|modify]] and [https://en.wikipedia.org/wiki/Repurposing repurpose] discarded electronic devices instead of creating new products. The project has been supported by [https://constantvzw.org Constant VZW] as part of their [https://constantvzw.org/site/-Techno-desobeissance,246-.html TechnoDisobedience] Project. They generously provided the resources for the design, production and the organization of the first [https://constantvzw.org/site/Workshop-DEDBUG,3744.html DEDBUG workshop]. Further development of the project is supported by [https://nlnet.nl/ NLnet] and the [https://nlnet.nl/NGI0/ NGI Zero Fund] as part of our [https://nlnet.nl/project/Unbinare-RET/ Reverse Engineering Toolkit] project. Additional documentation is currently under development.
<br><br>
<div id="DedbugCarousel" class="carousel slide carousel-slide" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-3">
<li data-target="#DedbugCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="3" style="background-color: #C6C2B6"></li>
</ol>


<ol class="carousel-control">
<li class="carousel-control-prev" data-target="#DedbugCarousel" role="button" data-slide="prev">
<span class="carousel-control-prev-icon" aria-hidden="true"></span>
<span class="sr-only">Previous</span>
</li>
<li class="carousel-control-next" data-target="#DedbugCarousel" role="button" data-slide="next">
<span class="carousel-control-next-icon" aria-hidden="true"></span>
<span class="sr-only">Next</span>
</li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:DEDBUG ALL 50 Square.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG FB Detail 30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG F Detail 2 30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG B Detail 30b.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
=='''DEDBUG Protoboard Diagram [Front]'''==
<br><br>
[[Image:DEDBUG plot front description 50.png | class=img-fluid]]
<br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
!width="60" colspan="1" scope="col" |Color
!width="100" colspan="1" scope="col" |Function
!width="1000" colspan="1" scope="col" |Description
|-
|style="vertical-align:top"|[[File:Blue table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Bus
|A bus on the right and bottom edge of the Protoboard. On the top right edge of the Protoboard it is possible to solder a wire or attach a [[wikipedia:Crocodile_clip|crocodile clip]] to create either a VCC or GND Bus.
|-
|style="vertical-align:top"|[[File:Orange table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads
|The edge pads can be bridged with the Bus, bridged to adjacent edge pads and bridged with the prototyping area. It is possible to bridge with just solder, or an 0402-sized zero-ohm resistor.
|-
|style="vertical-align:top"|[[File:Yellow table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads [Vias]
|These edge pads connect to their corresponding pads on the other side using vias. If one side has a VCC Bus and the other the GND bus, it is possible to complete a circuit by bridging an edge pad with vias on the relevant side so both buses are available to the prototyping area.
|-
|style="vertical-align:top"|[[File:Gray table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Prototyping Area
|This prototyping area has been designed to both accommodate building circuits with [[wikipedia:Magnet_wire|magnet wire]] or without any wire at all by bridging the cross-shaped pads. Since two-terminal SMD components can be difficult to solder using freeform prototyping techniques, the prototyping grid allows for the most common (0201/0402/0603/0805/1206/1210) two-terminal SMD components. A guide will be created in a future iteration of this wiki page.
|}
<br><br>

=='''DEDBUG Protoboard Diagram [Back]'''==
<br><br>
[[Image:DEDBUG plot back description 50.png | class=img-fluid]]
<br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
!width="60" colspan="1" scope="col" |Color
!width="100" colspan="1" scope="col" |Function
!width="1000" colspan="1" scope="col" |Description
|-
|style="vertical-align:top"|[[File:Blue table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Bus
|A bus on the right and bottom edge of the Protoboard. On the top right edge of the Protoboard it is possible to solder a wire or attach a [[wikipedia:Crocodile_clip|crocodile clip]] to create either a VCC or GND Bus.
|-
|style="vertical-align:top"|[[File:Orange table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads
|The edge pads can be bridged with the Bus, bridged to adjacent edge pads and bridged with the prototyping area. It is possible to bridge with just solder, or an 0402-sized zero-ohm resistor.
|-
|style="vertical-align:top"|[[File:Yellow table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads [Vias]
|These edge pads connect to the edge pads on the other side using vias. If one side has a VCC Bus and the other the GND bus, it is possible to complete a circuit by bridging an edge pad with vias on the relevant side so both buses are available to the prototyping area.
|-
|style="vertical-align:top"|[[File:Gray table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Prototyping Area
| This prototyping area has been designed to both accommodate building circuits with [[wikipedia:Magnet_wire|magnet wire]] or without any wire at all by bridging the cross-shaped pads. Slightly different from the prototyping area found on the front of the Protoboard,
This side accommodates building zones and makes it easier to attach DEDBUG ProtoFlex PCBs.
|-
|style="vertical-align:top"|[[File:Green table icon.png|alt=Green table icon|frameless|50x50px]]
|style="vertical-align:top"|Bridge Guard
|The function of this small pad is to prevent accidental shorting of the the buses on opposite sides of the board when using crocodile clips. It is not possible to use solder to bridge the two buses, as the surface tension of the solder and the shape of the area prevents it. The best way to bridge the two buses on the left and bottom sides of the board is to cut off a 2x2mm piece of solder wick and solder it on top of the bridge guard.
|}

Unbinare Wiki

2023-07-05T13:03:30Z

Unbinawiki:

{{PAGEBANNER:Banner.jpg|origin=500,150}}
<br></br>
'''[https://unbina.re Unbinare]''' is an [[wikipedia:Electronic_waste|e-waste]] [[wikipedia:Reverse_engineering|reverse engineering]] lab. Our objective is to reduce the increase of e-waste by finding ways to [[wikipedia:Reuse|reuse]] discarded electronic devices. A strong characteristic of this increase is the shortening [[wikipedia:Product_lifetime|lifespan]] of electronic devices. Factors such as [[wikipedia:Planned_obsolescence|planned obsolescence]], the [[wikipedia:Repairability|inability to repair]] and [[wikipedia:Abandonware|abandoned software support]] for devices that have reached [[wikipedia:End-of-life_product|end-of-life]] all contribute to electronics prematurely ending up in a waste stream. We believe we can help to change this trend by increasing the lifespan of discarded devices by changing their purpose; an electronic device consists of a lot of different components that all work in conjunction to provide its functionality. Each of these components can be repurposed into something else ''before'' the device ends up in a waste stream. More importantly, we operate from an [[wikipedia:Anarchism|anarchist]] context and consider our research to be a form of [[wikipedia:Direct_action|direct action]] to counter state and corporate control of the environment.<br></br>
In order to meet this objective, we create hardware and software tools that assist in the analysis and reverse engineering of discarded devices and their components to help reimagine what they could become next. We believe in developing and using devices that are cheap, easy to obtain and easy to produce in order to allow anybody to join the effort. Finding new uses for discarded devices requires research and development and this wiki publicly documents our process. All of our projects are under continuous development and will be updated regularly. We make all of the source code and design files we produce available under a reciprocal open source license. Once they are available they can be found in our [https://repo.unbina.re public git repository]. Project updates will be announced on [https://kolektiva.social/@unbinare Mastodon]
<br><br>
{| class="wikitable" cellspacing=5 cellpadding=5
|+
|-
! width="200" colspan="1" scope="col" | Project
! width="800" colspan="1" scope="col" | Description
|-
| [[OI!STER]] || Target board with a QFP48 clamshell socket for debugging and glitching STM32L5 MCUs.
|-
| [[UNBProbe]] || Passive, spring-loaded needle probe for probing PCBs.
|-
| [[UNBProbeBase]] || Magnetic base with a prototyping area connecting up to 12 UNBProbes.
|-
| [[UNBRK]] || QFP48/64/100/144 Breakout board with a prototyping area.
|-
| [[DEDBUG Protoboard]] || Protoboard aimed at SMD deadbug prototyping.
|-
| [[DEDBUG ProtoFlex]] || Set of Flex PCBs for the DEDBUG Protoboard
|-
|}
<br><br><br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
! width="145" colspan="1" scope="col" | Supported By:
! width="75" colspan="1" scope="col" | [[File:Anarchy-small.png|frameless|35x35px|link=https://en.wikipedia.org/wiki/Total_liberation]]
! width="135" colspan="1" scope="col" | [[File:NLnet Tag.png|frameless|100x100px|link=https://nlnet.nl]]
! width="135" colspan="1" scope="col"| [[File:NGI Zero Tag.png|frameless|100x100px|link=https://www.ngi.eu/ngi-projects/ngi-zero/]]
|-
|}

File:Banner.jpg

2023-07-05T13:01:49Z

Unbinawiki: Unbinawiki uploaded a new version of File:Banner.jpg

== Summary ==
Wiki PageBanner
== Licensing ==
{{CC BY-NC-SA 4.0 }}

Unbinare Wiki

2023-07-05T12:59:34Z

Unbinawiki:

{{PAGEBANNER:Banner.jpg}}
<br></br>
'''[https://unbina.re Unbinare]''' is an [[wikipedia:Electronic_waste|e-waste]] [[wikipedia:Reverse_engineering|reverse engineering]] lab. Our objective is to reduce the increase of e-waste by finding ways to [[wikipedia:Reuse|reuse]] discarded electronic devices. A strong characteristic of this increase is the shortening [[wikipedia:Product_lifetime|lifespan]] of electronic devices. Factors such as [[wikipedia:Planned_obsolescence|planned obsolescence]], the [[wikipedia:Repairability|inability to repair]] and [[wikipedia:Abandonware|abandoned software support]] for devices that have reached [[wikipedia:End-of-life_product|end-of-life]] all contribute to electronics prematurely ending up in a waste stream. We believe we can help to change this trend by increasing the lifespan of discarded devices by changing their purpose; an electronic device consists of a lot of different components that all work in conjunction to provide its functionality. Each of these components can be repurposed into something else ''before'' the device ends up in a waste stream. More importantly, we operate from an [[wikipedia:Anarchism|anarchist]] context and consider our research to be a form of [[wikipedia:Direct_action|direct action]] to counter state and corporate control of the environment.<br></br>
In order to meet this objective, we create hardware and software tools that assist in the analysis and reverse engineering of discarded devices and their components to help reimagine what they could become next. We believe in developing and using devices that are cheap, easy to obtain and easy to produce in order to allow anybody to join the effort. Finding new uses for discarded devices requires research and development and this wiki publicly documents our process. All of our projects are under continuous development and will be updated regularly. We make all of the source code and design files we produce available under a reciprocal open source license. Once they are available they can be found in our [https://repo.unbina.re public git repository]. Project updates will be announced on [https://kolektiva.social/@unbinare Mastodon]
<br><br>
{| class="wikitable" cellspacing=5 cellpadding=5
|+
|-
! width="200" colspan="1" scope="col" | Project
! width="800" colspan="1" scope="col" | Description
|-
| [[OI!STER]] || Target board with a QFP48 clamshell socket for debugging and glitching STM32L5 MCUs.
|-
| [[UNBProbe]] || Passive, spring-loaded needle probe for probing PCBs.
|-
| [[UNBProbeBase]] || Magnetic base with a prototyping area connecting up to 12 UNBProbes.
|-
| [[UNBRK]] || QFP48/64/100/144 Breakout board with a prototyping area.
|-
| [[DEDBUG Protoboard]] || Protoboard aimed at SMD deadbug prototyping.
|-
| [[DEDBUG ProtoFlex]] || Set of Flex PCBs for the DEDBUG Protoboard
|-
|}
<br><br><br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
! width="145" colspan="1" scope="col" | Supported By:
! width="75" colspan="1" scope="col" | [[File:Anarchy-small.png|frameless|35x35px|link=https://en.wikipedia.org/wiki/Total_liberation]]
! width="135" colspan="1" scope="col" | [[File:NLnet Tag.png|frameless|100x100px|link=https://nlnet.nl]]
! width="135" colspan="1" scope="col"| [[File:NGI Zero Tag.png|frameless|100x100px|link=https://www.ngi.eu/ngi-projects/ngi-zero/]]
|-
|}

Unbinare Wiki

2023-07-05T12:24:31Z

Unbinawiki:

{{PAGEBANNER:Banner.jpg}}
[[Image:Banner.jpg | class=img-fluid]]
<br></br>
'''[https://unbina.re Unbinare]''' is an [[wikipedia:Electronic_waste|e-waste]] [[wikipedia:Reverse_engineering|reverse engineering]] lab. Our objective is to reduce the increase of e-waste by finding ways to [[wikipedia:Reuse|reuse]] discarded electronic devices. A strong characteristic of this increase is the shortening [[wikipedia:Product_lifetime|lifespan]] of electronic devices. Factors such as [[wikipedia:Planned_obsolescence|planned obsolescence]], the [[wikipedia:Repairability|inability to repair]] and [[wikipedia:Abandonware|abandoned software support]] for devices that have reached [[wikipedia:End-of-life_product|end-of-life]] all contribute to electronics prematurely ending up in a waste stream. We believe we can help to change this trend by increasing the lifespan of discarded devices by changing their purpose; an electronic device consists of a lot of different components that all work in conjunction to provide its functionality. Each of these components can be repurposed into something else ''before'' the device ends up in a waste stream. More importantly, we operate from an [[wikipedia:Anarchism|anarchist]] context and consider our research to be a form of [[wikipedia:Direct_action|direct action]] to counter state and corporate control of the environment.<br></br>
In order to meet this objective, we create hardware and software tools that assist in the analysis and reverse engineering of discarded devices and their components to help reimagine what they could become next. We believe in developing and using devices that are cheap, easy to obtain and easy to produce in order to allow anybody to join the effort. Finding new uses for discarded devices requires research and development and this wiki publicly documents our process. All of our projects are under continuous development and will be updated regularly. We make all of the source code and design files we produce available under a reciprocal open source license. Once they are available they can be found in our [https://repo.unbina.re public git repository]. Project updates will be announced on [https://kolektiva.social/@unbinare Mastodon]
<br><br>
{| class="wikitable" cellspacing=5 cellpadding=5
|+
|-
! width="200" colspan="1" scope="col" | Project
! width="800" colspan="1" scope="col" | Description
|-
| [[OI!STER]] || Target board with a QFP48 clamshell socket for debugging and glitching STM32L5 MCUs.
|-
| [[UNBProbe]] || Passive, spring-loaded needle probe for probing PCBs.
|-
| [[UNBProbeBase]] || Magnetic base with a prototyping area connecting up to 12 UNBProbes.
|-
| [[UNBRK]] || QFP48/64/100/144 Breakout board with a prototyping area.
|-
| [[DEDBUG Protoboard]] || Protoboard aimed at SMD deadbug prototyping.
|-
| [[DEDBUG ProtoFlex]] || Set of Flex PCBs for the DEDBUG Protoboard
|-
|}
<br><br><br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
! width="145" colspan="1" scope="col" | Supported By:
! width="75" colspan="1" scope="col" | [[File:Anarchy-small.png|frameless|35x35px|link=https://en.wikipedia.org/wiki/Total_liberation]]
! width="135" colspan="1" scope="col" | [[File:NLnet Tag.png|frameless|100x100px|link=https://nlnet.nl]]
! width="135" colspan="1" scope="col"| [[File:NGI Zero Tag.png|frameless|100x100px|link=https://www.ngi.eu/ngi-projects/ngi-zero/]]
|-
|}

Unbinare Wiki

2023-07-05T12:23:40Z

Unbinawiki:

[[Image:Banner.jpg | class=img-fluid]]
<br></br>
'''[https://unbina.re Unbinare]''' is an [[wikipedia:Electronic_waste|e-waste]] [[wikipedia:Reverse_engineering|reverse engineering]] lab. Our objective is to reduce the increase of e-waste by finding ways to [[wikipedia:Reuse|reuse]] discarded electronic devices. A strong characteristic of this increase is the shortening [[wikipedia:Product_lifetime|lifespan]] of electronic devices. Factors such as [[wikipedia:Planned_obsolescence|planned obsolescence]], the [[wikipedia:Repairability|inability to repair]] and [[wikipedia:Abandonware|abandoned software support]] for devices that have reached [[wikipedia:End-of-life_product|end-of-life]] all contribute to electronics prematurely ending up in a waste stream. We believe we can help to change this trend by increasing the lifespan of discarded devices by changing their purpose; an electronic device consists of a lot of different components that all work in conjunction to provide its functionality. Each of these components can be repurposed into something else ''before'' the device ends up in a waste stream. More importantly, we operate from an [[wikipedia:Anarchism|anarchist]] context and consider our research to be a form of [[wikipedia:Direct_action|direct action]] to counter state and corporate control of the environment.<br></br>
In order to meet this objective, we create hardware and software tools that assist in the analysis and reverse engineering of discarded devices and their components to help reimagine what they could become next. We believe in developing and using devices that are cheap, easy to obtain and easy to produce in order to allow anybody to join the effort. Finding new uses for discarded devices requires research and development and this wiki publicly documents our process. All of our projects are under continuous development and will be updated regularly. We make all of the source code and design files we produce available under a reciprocal open source license. Once they are available they can be found in our [https://repo.unbina.re public git repository]. Project updates will be announced on [https://kolektiva.social/@unbinare Mastodon]
<br><br>
{| class="wikitable" cellspacing=5 cellpadding=5
|+
|-
! width="200" colspan="1" scope="col" | Project
! width="800" colspan="1" scope="col" | Description
|-
| [[OI!STER]] || Target board with a QFP48 clamshell socket for debugging and glitching STM32L5 MCUs.
|-
| [[UNBProbe]] || Passive, spring-loaded needle probe for probing PCBs.
|-
| [[UNBProbeBase]] || Magnetic base with a prototyping area connecting up to 12 UNBProbes.
|-
| [[UNBRK]] || QFP48/64/100/144 Breakout board with a prototyping area.
|-
| [[DEDBUG Protoboard]] || Protoboard aimed at SMD deadbug prototyping.
|-
| [[DEDBUG ProtoFlex]] || Set of Flex PCBs for the DEDBUG Protoboard
|-
|}
<br><br><br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
! width="145" colspan="1" scope="col" | Supported By:
! width="75" colspan="1" scope="col" | [[File:Anarchy-small.png|frameless|35x35px|link=https://en.wikipedia.org/wiki/Total_liberation]]
! width="135" colspan="1" scope="col" | [[File:NLnet Tag.png|frameless|100x100px|link=https://nlnet.nl]]
! width="135" colspan="1" scope="col"| [[File:NGI Zero Tag.png|frameless|100x100px|link=https://www.ngi.eu/ngi-projects/ngi-zero/]]
|-
|}

File:Banner.jpg

2023-07-05T12:22:45Z

Unbinawiki: Wiki PageBanner

== Summary ==
Wiki PageBanner
== Licensing ==
{{CC BY-NC-SA 4.0 }}

DEDBUG ProtoFlex

2023-07-05T10:47:20Z

Unbinawiki:

The DEDBUG ProtoFlex boards accompany the [[DEDBUG Protoboard]]. The aim of the DEDBUG ProtoFlex boards is to provide additional functionality to the Protoboard by soldering them to the prototyping area. Currently we are testing six ProtoFlex boards with more to follow. The six boards are 12x12 pad grids of which the left column terminates to an edge connector that can be bridged with the cross-shaped pads on the Protoboard. The current six ProtoFlex grids are at 0201, 0402, 0603, 0805, 1206 and 1210-sized.
<br><br>
<div id="ProtoFlexCarousel" class="carousel slide carousel-slide" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-1">
<li data-target="#ProtoFlexCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#ProtoFlexCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
</ol>


<ol class="carousel-control">
<li class="carousel-control-prev" data-target="#ProtoFlexCarousel" role="button" data-slide="prev">
<span class="carousel-control-prev-icon" aria-hidden="true"></span>
<span class="sr-only">Previous</span>
</li>
<li class="carousel-control-next" data-target="#ProtoFlexCarousel" role="button" data-slide="next">
<span class="carousel-control-next-icon" aria-hidden="true"></span>
<span class="sr-only">Next</span>
</li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:DEDBUG ProtoFlex 50.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG ProtoFlex Soldered 30.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
=='''DEDBUG ProtoFlex Diagram [Front]'''==
<br>
[[Image:FLEX plot front 50 2nd.png | class=img-fluid]]

DEDBUG Protoboard

2023-07-05T10:45:45Z

Unbinawiki:

{{DISPLAYTITLE:DEDBUG Protoboard}}
'''DEDBUG''' is a protoboard aimed at [https://en.wikipedia.org/wiki/Point-to-point_construction deadbug prototyping and free-form circuit construction] with components salvaged from [[wikipedia:Electronic_waste|electronic waste]]. Unlike traditional [[wikipedia:Perfboard|perfboards]] and [[wikipedia:Stripboard|stripboards]], the main objective of this protoboard is to provide a means to work with [https://en.wikipedia.org/wiki/Surface-mount_technology SMD] components. Since founding the lab in 2020, due to the influence of the manufacturing industry on the hardware hacking community we have observed a gradual decline in manual experimentation and prototyping with SMD components in favour of establishing small-scale production pipelines with desktop [[wikipedia:CNC_router|CNC routers]], [https://en.wikipedia.org/wiki/Pick-and-place_machine pick-and-place machines] and [[wikipedia:Reflow_oven|reflow ovens]] and other costly production-oriented equipment. We find that this trend loosely mirrors production processes in larger production pipelines, aimed at commercially producing and selling devices. At Unbinare, we would like to preserve the noncommercial, unpremeditated, spur-of-the-moment nature of hardware hacking and openly share the skills required to manually hack free-form circuits with SMD components. The DEDBUG protoboard is designed to allow anyone to experiment and build free-form circuits with relative ease and demonstrates that with few resources one is able to [[wikipedia:Modding|modify]] and [https://en.wikipedia.org/wiki/Repurposing repurpose] discarded electronic devices instead of creating new products. The project has been supported by [https://constantvzw.org Constant VZW] as part of their [https://constantvzw.org/site/-Techno-desobeissance,246-.html TechnoDisobedience] Project. They generously provided the resources for the design, production and the organization of the first [https://constantvzw.org/site/Workshop-DEDBUG,3744.html DEDBUG workshop]. Further development of the project is supported by [https://nlnet.nl/ NLnet] and the [https://nlnet.nl/NGI0/ NGI Zero Fund] as part of our [https://nlnet.nl/project/Unbinare-RET/ Reverse Engineering Toolkit] project. Additional documentation is currently under development.
<br><br>
<div id="DedbugCarousel" class="carousel slide carousel-slide" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-3">
<li data-target="#DedbugCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="3" style="background-color: #C6C2B6"></li>
</ol>


<ol class="carousel-control">
<li class="carousel-control-prev" data-target="#DedbugCarousel" role="button" data-slide="prev">
<span class="carousel-control-prev-icon" aria-hidden="true"></span>
<span class="sr-only">Previous</span>
</li>
<li class="carousel-control-next" data-target="#DedbugCarousel" role="button" data-slide="next">
<span class="carousel-control-next-icon" aria-hidden="true"></span>
<span class="sr-only">Next</span>
</li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:DEDBUG ALL 50 Square.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG FB Detail 30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG F Detail 2 30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG B Detail 30b.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
=='''DEDBUG Protoboard Diagram [Front]'''==
<br><br>
[[Image:DEDBUG plot front description 50.png | class=img-fluid]]
<br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
!width="60" colspan="1" scope="col" |Color
!width="100" colspan="1" scope="col" |Function
!width="1000" colspan="1" scope="col" |Description
|-
|style="vertical-align:top"|[[File:Blue table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Bus
|A bus on the right and bottom edge of the Protoboard. On the top right edge of the Protoboard it is possible to solder a wire or attach a [[wikipedia:Crocodile_clip|crocodile clip]] to create either a VCC or GND Bus.
|-
|style="vertical-align:top"|[[File:Orange table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads
|The edge pads can be bridged with the Bus, bridged to adjacent edge pads and bridged with the prototyping area. It is possible to bridge with just solder, or an 0402-sized zero-ohm resistor.
|-
|style="vertical-align:top"|[[File:Yellow table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads [Vias]
|These edge pads connect to their corresponding pads on the other side using vias. If one side has a VCC Bus and the other the GND bus, it is possible to complete a circuit by bridging an edge pad with vias on the relevant side so both buses are available to the prototyping area.
|-
|style="vertical-align:top"|[[File:Gray table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Prototyping Area
|This prototyping area has been designed to both accommodate building circuits with [[wikipedia:Magnet_wire|magnet wire]] or without any wire at all by bridging the cross-shaped pads. Since two-terminal SMD components can be difficult to solder using freeform prototyping techniques, the prototyping grid allows for the most common (0201/0402/0603/0805/1206/1210) two-terminal SMD components. A guide will be created in a future iteration of this wiki page.
|}
<br><br>

=='''DEDBUG Protoboard Diagram [Back]'''==
<br><br>
[[Image:DEDBUG plot back description 50.png | class=img-fluid]]
<br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
!width="60" colspan="1" scope="col" |Color
!width="100" colspan="1" scope="col" |Function
!width="1000" colspan="1" scope="col" |Description
|-
|style="vertical-align:top"|[[File:Blue table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Bus
|A bus on the right and bottom edge of the Protoboard. On the top right edge of the Protoboard it is possible to solder a wire or attach a [[wikipedia:Crocodile_clip|crocodile clip]] to create either a VCC or GND Bus.
|-
|style="vertical-align:top"|[[File:Orange table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads
|The edge pads can be bridged with the Bus, bridged to adjacent edge pads and bridged with the prototyping area. It is possible to bridge with just solder, or an 0402-sized zero-ohm resistor.
|-
|style="vertical-align:top"|[[File:Yellow table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads [Vias]
|These edge pads connect to the edge pads on the other side using vias. If one side has a VCC Bus and the other the GND bus, it is possible to complete a circuit by bridging an edge pad with vias on the relevant side so both buses are available to the prototyping area.
|-
|style="vertical-align:top"|[[File:Gray table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Prototyping Area
| This prototyping area has been designed to both accommodate building circuits with [[wikipedia:Magnet_wire|magnet wire]] or without any wire at all by bridging the cross-shaped pads. Slightly different from the prototyping area found on the front of the Protoboard,
This side accommodates building zones and makes it easier to attach DEDBUG ProtoFlex PCBs.
|-
|style="vertical-align:top"|[[File:Green table icon.png|alt=Green table icon|frameless|50x50px]]
|style="vertical-align:top"|Bridge Guard
|The function of this small pad is to prevent accidental shorting of the the buses on opposite sides of the board when using crocodile clips. It is not possible to use solder to bridge the two buses, as the surface tension of the solder and the shape of the area prevents it. The best way to bridge the two buses on the left and bottom sides of the board is to cut off a 2x2mm piece of solder wick and solder it on top of the bridge guard.
|}

DEDBUG Protoboard

2023-07-05T10:45:14Z

Unbinawiki:

{{DISPLAYTITLE:DEDBUG Protoboard}}
'''DEDBUG''' is a protoboard aimed at [https://en.wikipedia.org/wiki/Point-to-point_construction deadbug prototyping and free-form circuit construction] with components salvaged from [[wikipedia:Electronic_waste|electronic waste]]. Unlike traditional [[wikipedia:Perfboard|perfboards]] and [[wikipedia:Stripboard|stripboards]], the main objective of this protoboard is to provide a means to work with [https://en.wikipedia.org/wiki/Surface-mount_technology SMD] components. Since founding the lab in 2020, due to the influence of the manufacturing industry on the hardware hacking community we have observed a gradual decline in manual experimentation and prototyping with SMD components in favour of establishing small-scale production pipelines with desktop [[wikipedia:CNC_router|CNC routers]], [https://en.wikipedia.org/wiki/Pick-and-place_machine pick-and-place machines] and [[wikipedia:Reflow_oven|reflow ovens]] and other costly production-oriented equipment. We find that this trend loosely mirrors production processes in larger production pipelines, aimed at commercially producing and selling devices. At Unbinare, we would like to preserve the noncommercial, unpremeditated, spur-of-the-moment nature of hardware hacking and openly share the skills required to manually hack free-form circuits with SMD components. The DEDBUG protoboard is designed to allow anyone to experiment and build free-form circuits with relative ease and demonstrates that with few resources one is able to [[wikipedia:Modding|modify]] and [https://en.wikipedia.org/wiki/Repurposing repurpose] discarded electronic devices instead of creating new products. The project has been supported by [https://constantvzw.org Constant VZW] as part of their [https://constantvzw.org/site/-Techno-desobeissance,246-.html TechnoDisobedience] Project. They generously provided the resources for the design, production and the organization of the first [https://constantvzw.org/site/Workshop-DEDBUG,3744.html DEDBUG workshop]. Further development of the project is supported by [https://nlnet.nl/ NLnet] and the [https://nlnet.nl/NGI0/ NGI Zero Fund] as part of our [https://nlnet.nl/project/Unbinare-RET/ Reverse Engineering Toolkit] project. Additional documentation is currently under development.
<br><br>
<div id="DedbugCarousel" class="carousel slide carousel-slide carousel-fade" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-3">
<li data-target="#DedbugCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="3" style="background-color: #C6C2B6"></li>
</ol>


<ol class="carousel-control">
<li class="carousel-control-prev" data-target="#DedbugCarousel" role="button" data-slide="prev">
<span class="carousel-control-prev-icon" aria-hidden="true"></span>
<span class="sr-only">Previous</span>
</li>
<li class="carousel-control-next" data-target="#DedbugCarousel" role="button" data-slide="next">
<span class="carousel-control-next-icon" aria-hidden="true"></span>
<span class="sr-only">Next</span>
</li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:DEDBUG ALL 50 Square.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG FB Detail 30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG F Detail 2 30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG B Detail 30b.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
=='''DEDBUG Protoboard Diagram [Front]'''==
<br><br>
[[Image:DEDBUG plot front description 50.png | class=img-fluid]]
<br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
!width="60" colspan="1" scope="col" |Color
!width="100" colspan="1" scope="col" |Function
!width="1000" colspan="1" scope="col" |Description
|-
|style="vertical-align:top"|[[File:Blue table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Bus
|A bus on the right and bottom edge of the Protoboard. On the top right edge of the Protoboard it is possible to solder a wire or attach a [[wikipedia:Crocodile_clip|crocodile clip]] to create either a VCC or GND Bus.
|-
|style="vertical-align:top"|[[File:Orange table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads
|The edge pads can be bridged with the Bus, bridged to adjacent edge pads and bridged with the prototyping area. It is possible to bridge with just solder, or an 0402-sized zero-ohm resistor.
|-
|style="vertical-align:top"|[[File:Yellow table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads [Vias]
|These edge pads connect to their corresponding pads on the other side using vias. If one side has a VCC Bus and the other the GND bus, it is possible to complete a circuit by bridging an edge pad with vias on the relevant side so both buses are available to the prototyping area.
|-
|style="vertical-align:top"|[[File:Gray table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Prototyping Area
|This prototyping area has been designed to both accommodate building circuits with [[wikipedia:Magnet_wire|magnet wire]] or without any wire at all by bridging the cross-shaped pads. Since two-terminal SMD components can be difficult to solder using freeform prototyping techniques, the prototyping grid allows for the most common (0201/0402/0603/0805/1206/1210) two-terminal SMD components. A guide will be created in a future iteration of this wiki page.
|}
<br><br>

=='''DEDBUG Protoboard Diagram [Back]'''==
<br><br>
[[Image:DEDBUG plot back description 50.png | class=img-fluid]]
<br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
!width="60" colspan="1" scope="col" |Color
!width="100" colspan="1" scope="col" |Function
!width="1000" colspan="1" scope="col" |Description
|-
|style="vertical-align:top"|[[File:Blue table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Bus
|A bus on the right and bottom edge of the Protoboard. On the top right edge of the Protoboard it is possible to solder a wire or attach a [[wikipedia:Crocodile_clip|crocodile clip]] to create either a VCC or GND Bus.
|-
|style="vertical-align:top"|[[File:Orange table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads
|The edge pads can be bridged with the Bus, bridged to adjacent edge pads and bridged with the prototyping area. It is possible to bridge with just solder, or an 0402-sized zero-ohm resistor.
|-
|style="vertical-align:top"|[[File:Yellow table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads [Vias]
|These edge pads connect to the edge pads on the other side using vias. If one side has a VCC Bus and the other the GND bus, it is possible to complete a circuit by bridging an edge pad with vias on the relevant side so both buses are available to the prototyping area.
|-
|style="vertical-align:top"|[[File:Gray table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Prototyping Area
| This prototyping area has been designed to both accommodate building circuits with [[wikipedia:Magnet_wire|magnet wire]] or without any wire at all by bridging the cross-shaped pads. Slightly different from the prototyping area found on the front of the Protoboard,
This side accommodates building zones and makes it easier to attach DEDBUG ProtoFlex PCBs.
|-
|style="vertical-align:top"|[[File:Green table icon.png|alt=Green table icon|frameless|50x50px]]
|style="vertical-align:top"|Bridge Guard
|The function of this small pad is to prevent accidental shorting of the the buses on opposite sides of the board when using crocodile clips. It is not possible to use solder to bridge the two buses, as the surface tension of the solder and the shape of the area prevents it. The best way to bridge the two buses on the left and bottom sides of the board is to cut off a 2x2mm piece of solder wick and solder it on top of the bridge guard.
|}

UNBRK

2023-07-05T10:43:53Z

Unbinawiki:

UNBRK is a 3.2x3.2cm QFP48/64/100/144 breakout board with a VCC bus on all four edges of the topside of the board and a GND bus on all four edges on the bottom of the board. The buses have been placed adjacent to the breakout pads to simplify the process of powering the MCU and the placement of decoupling capacitors where this might be necessary. Due to the board being as small as it is, we've added ruler lines to the breakout pads on the top of the board to ease finding the correct pin numbers when using the pinout diagrams on this page. The remaining area on the bottom of the UNBRK functions as a prototyping area for 0201-sized surface-mount components. The aim of the project is to allow rapid prototyping with MCUs by using components salvaged from discarded mobile phones. Full documentation is currently under development.
<br></br>
<div id="UNBRKCarousel" class="carousel slide carousel-slide" data-ride="carousel" data-interval="5000" style="filter: invert(100%)">


<ol class="carousel-indicators mb-3">
<li data-target="#UNBRKCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#UNBRKCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#UNBRKCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
</ol>


<ol class="carousel-control">
<li class="carousel-control-prev" data-target="#UNBRKCarousel" role="button" data-slide="prev">
<span class="carousel-control-prev-icon" aria-hidden="true"></span>
<span class="sr-only">Previous</span>
</li>
<li class="carousel-control-next" data-target="#UNBRKCarousel" role="button" data-slide="next">
<span class="carousel-control-next-icon" aria-hidden="true"></span>
<span class="sr-only">Next</span>
</li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:UNBRK-60.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBRK-Front-35.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBRK-Back-35.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
== '''Pinout:''' ==
<br><br>
<gallery widths=300px heights=300px perrow=2 mode="packed">
Image:Unbrk-pinout-front.png
Image:Unbrk-pinout-back.png
Image:Unbrk_GND_VCC_Front.png
Image:Unbrk GND_VCC_Back.png
</gallery>

UNBProbeBase

2023-07-05T10:40:37Z

Unbinawiki:

UNBProbeBase is magnetic base to connect up to 12 UNBProbes. The base has been developed to keep probes free from movement during probing sessions. It has 12 SMA connectors, 12 Headers and a prototyping area with pads for salvaged 0603-sized surface-mount components.
<br></br>
<div id="UNBProbeBaseCarousel" class="carousel slide carousel-slide" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-2">
<li data-target="#UNBProbeBaseCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#UNBProbeBaseCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
</ol>


<ol class="carousel-control">
<li class="carousel-control-prev" data-target="#UNBProbeBaseCarousel" role="button" data-slide="prev">
<span class="carousel-control-prev-icon" aria-hidden="true"></span>
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<li class="carousel-control-next" data-target="#UNBProbeBaseCarousel" role="button" data-slide="next">
<span class="carousel-control-next-icon" aria-hidden="true"></span>
<span class="sr-only">Next</span>
</li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:UNBProbeBase-Solo-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBProbeBase-Side-30.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
== '''Pinout:''' ==
<br><br>
[[Image:ProbeBase-Front.png | class=img-fluid]]

OI!STER

2023-07-05T10:38:42Z

Unbinawiki:

The OI!STER is an STM32L5 Target Board with a QFP48 clamshell socket aimed at debugging and glitching salvaged MCUs. The board can be powered via USB-C, a 2032 coin cell battery on the back of the board or an external power suppy. All pins are broken out in the 24-pin headers on either side at the top of the board. The OI!STER contains five debug headers, to support a wide range of debugging hardware such as a [https://hydrabus.com/hydrabus-1-0-specifications/ Hydrabus] or a [https://1bitsquared.com/products/black-magic-probe Black Magic Probe]. It comes with six SMA connectors arranged in I/O pairs. One pair is dedicated to glitching the external LSE clock, another for glitching the external HSE clock and one pair for power analysis and fault injection with a [https://www.newae.com/chipwhisperer Chipwhisperer]. Each SMA connector can be bypassed by removing a small jumper. The OI!STER also has additional solder jumpers for the external clocks and each of the power traces to the MCU to allow for quick experimentation.
<br><br>
The Pinout diagrams below are directed at reverse engineering. The first diagram is targeted at debugging and reverse engineering an STM32L5 MCU itself. The second diagram is aimed at the communication between external peripherals and the MCU. Although some functionaly might overlap, we've found it practical to define these two pinout groups. Additional documentation is currently under development.
<br><br>
<div id="OisterCarousel" class="carousel slide carousel-slide" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-2">
<li data-target="#OisterCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
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<div class="carousel-inner">
<div class="carousel-item active">[[Image:OISTER-DIAG-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[Image:OISTER-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[Image:OISTER-PCB-30.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
=='''Debug Pinout Diagram'''==
[[Image:OISTER Pinout DBG-50.png | class=img-fluid]]
<br>
{| class="wikitable" cellspacing=5 cellpadding=5
|+
! colspan="3" |Debug Pinout
|-
! width="50" colspan="1" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" scope="col" |Alternate Function
|-
! scope="row" |1
|VBAT
|-
! scope="row" |2
|PC13
|-
! scope="row" |3
|PC14
| OSC32_IN
|-
! scope="row" |4
|PC15
|OSC32_OUT
|-
! scope="row" | 5
|PH0
|OSC_IN
|-
! scope="row" |6

|PH1
|OSC_OUT
|-
! scope="row" |7
|NRST
|-
! scope="row" |8
|VSSA
|VREF-
|-
! scope="row" |9
|VDDA
|VREF+
|-
! scope="row" | 10
|PA0
|UART4_TX
|-
! scope="row" |11
|PA1
|UART4_RX
|-
! scope="row" |12
|PA2
|LPUART1_TX
|-
! scope="row" |13
|PA3
|LPUART1_RX
|-
! scope="row" |14
|PA4
|USART2_CK
|-
! scope="row" |15
|PA5
|-
! scope="row" |16
|PA6
|LPUART1_CTS
|-
! scope="row" |17
|PA7
|-
! scope="row" | 18
|PB0
|LED1
|-
! scope="row" |19
|PB1
|LED2
|-
! scope="row" |20
|PB2
|UCPD1_FRSTX2
|-
! scope="row" |21
| PB10
|USART3_TX
|-
! scope="row" |22
|PB11
|USART3_RX
|-
! scope="row" |23
|VSS
|-
! scope="row" |24
|VDD
|-
! scope="row" |25
|PB12
|LPUART1_RTS
|-
! scope="row" |26
|PB13
|LPUART1_CTS
|-
! scope="row" |27
|PB14
|UCPD1_DB2
|-
! scope="row" |28
|PB15
|UCPD1_CC2
|-
! scope="row" |29
|PA8
|USART1_CK
|-
! scope="row" |30
|PA9
|USART1_TX
|-
! scope="row" |31
|PA10
|USART1_RX
|-
! scope="row" |32
|PA11
|USART1_CTS
|-
! scope="row" |33
|PA12
|USART1_RTS
|-
! scope="row" |34
| PA13
|JTMS
|-
! scope="row" |35
|VSS_2
|-
! scope="row" |36
|VDD_2
|-
! scope="row" |37
|PA14
|JTCK
|-
! scope="row" |38
|PA15
|JTDI
|-
! scope="row" |39
|PB3
| JTDO
|-
! scope="row" |40
|PB4
|NJTRST

|-
! scope="row" | 41
|PB5
|UCPD1_DB1
|-
! scope="row" |42

|PB6
|USART1_TX
|-
! scope="row" |43
|PB7
|UART4_CTS
|-
! scope="row" |44

|PH3
|BOOT0
|-
! scope="row" |45
|PB8
|-
! scope="row" | 46
|PB9
|-
! scope="row" |47
|VSS_3
|-
! scope="row" |48
|VDD_3
|}

=='''Protocol Pinout Reference'''==
{| class="wikitable" cellspacing=5 cellpadding=5
|+
! colspan="3" |'''USB'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
|-
! scope="row" |32
|USB_DM
|Data -
|-
! scope="row" |33
|USB_DP
| Data +
|-
! scope="row" |34
|USB_NOE
|Output Enable
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''UCPD1'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |12
|UCPD1_FRSTX1
|Fast Role Swap Signal
|-
! scope="row" |20
|UCPD1_FRSTX2
|Fast Role Swap Signal
|-
! scope="row" | 27
|UCPD1_DB2
|Dead-Battery Signal
|-
! scope="row" |28
|UCPD1_CC2
|Configuration Control Line
|-
! scope="row" |38
|UCPD1_CC1
|Configuration Control Line
|-
! scope="row" |41
|UCPD1_DB1
|Dead-Battery Signal
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''UART4'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |10
|UART4_TX
| Transmit Data
|-
! scope="row" |11
|UART4_RX
|Receive Data
|-
! scope="row" |38
|UART4_RTS
|Request To Send
|-
! scope="row" |43
|UART4_CTS
|Clear To Send
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''LPUART1'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |12
! scope="row" |22
|LPUART1_TX
|Transmit Data
|-
! scope="row" |13
! scope="row" |21
|LPUART1_RX
|Receive Data
|-
! scope="row" |16
! scope="row" | 26
| LPUART1_CTS
| Clear To Send
|-
! scope="row" |19
! scope="row" | 25
|LPUART1_RTS
|Request To Send
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''USART1'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |29
! scope="row" |41
|USART1_CK
|Transmitter Clock
|-
! scope="row" | 30
! scope="row" |42
|USART1_TX
|Transmit Data
|-
! scope="row" |31
! scope="row" | 43
|USART1_RX
|Receive Data
|-
! scope="row" |32
! scope="row" |40
|USART1_CTS
| Clear To Send
|-
! scope="row" |32
! scope="row" |40
|USART1_NSS
|Slave Select
|-
! scope="row" |33
! scope="row" | 39
|USART1_RTS
| Request To Send
|-
! scope="row" |33
! scope="row" | 39
|USART1_DE
|Driver Enable
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''USART2'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |10
! scope="row" |
|USART2_CTS
|Clear To Send
|-
! scope="row" |10
! scope="row" |
|USART2_NSS
|Slave Select
|-
! scope="row" |11
! scope="row" |
|USART2_RTS
|Request To Send
|-
! scope="row" |11
! scope="row" |
|USART2_DE
|Driver Enable
|-
! scope="row" |12
! scope="row" |
| USART2_TX
| Transmit Data
|-
! scope="row" |13
! scope="row" |38
|USART2_RX
|Receive Data
|-
! scope="row" |14
! scope="row" |
|USART2_CK
|Transmitter Clock
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="5" |'''USART3'''
|-
! width="90" colspan="3" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |16
! scope="row" |26
! scope="row" |
|USART3_CTS
|Clear To Send
|-
! scope="row" |16
! scope="row" |26
! scope="row" |
|USART3_NSS
|Slave Select
|-
! scope="row" |18
! scope="row" |25
! scope="row" |
|USART3_CK
|Transmitter Clock
|-
! scope="row" | 19
! scope="row" |27
! scope="row" |38
|USART3_RTS
|Request To Send
|-
! scope="row" |21
! scope="row" | 27
! scope="row" |38
|USART3_DE
| Driver Enable
|-
! scope="row" |21
! scope="row" |
! scope="row" |
|USART3_TX
|Transmit Data
|-
! scope="row" |22
! scope="row" |
! scope="row" |
|USART3_RX
|Request Data
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''JTAG'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |34
|JTMS
|Test Mode State
|-
! scope="row" |37
|JTCK
|Test Clock
|-
! scope="row" |38
|JTDI
|Test Data In
|-
! scope="row" |39
|JTDO
|Test Data Out
|-
! scope="row" |40

|NJTRST
|Reset
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''SWD'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |7
|NRST
|Reset
|-
! scope="row" |34
|SWDIO
|Data I/O
|-
! scope="row" |37
|SWCLK
|Clock
|-
! scope="row" |39
|TRACESWO
|Trace Output
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''OSC'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150"colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |5
|OSC_IN
|High Speed External Clock In (HSEI)
|-
! scope="row" |6
|OSC_OUT
|High Speed External Clock Out (HSEO)
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''OSC32'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |3
|OSC32_IN
|Low Speed External Clock In (LSEI)
|-
! scope="row" |4
|OSC32_OUT
|Low Speed External Clock Out (LSEO)
|}

=='''Peripheral Pinout Diagram'''==
[[Image:OISTER Peripheral Pinout.png | class=img-fluid]]
<br>
{| class="wikitable"" cellspacing=5 cellpadding=5
|+
| colspan="6" |'''Peripheral Pinout'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" colspan="1" scope="col" |Alternate
! width="150" colspan="1" scope="col" |
! width="150" colspan="1" scope="col" |
! width="150" colspan="1" scope="col" |
|-
! scope="row" |1
|VBAT
|-
! scope="row" |2
|PC13
|-
! scope="row" | 3
|PC14
|-
! scope="row" |4
|PC15
|-
! scope="row" |5
|PH0
|-
! scope="row" |6
|PH1

|-
! scope="row" | 7
|NRST
|-
! scope="row" |8
|VSSA
|-
! scope="row" | 9
|VDDA
|-
! scope="row" |10
|PA0
|-
! scope="row" |11
|PA1
| I2C1_SMBA
|SPI1_SCK
|-
! scope="row" |12
|PA2
|OCTOSPI1_NCS

|-
! scope="row" |13
|PA3
|OCTOSPI1_CLK
|-
! scope="row" |14
|PA4
|SPI1_NSS
|SPI3_NSS
|OCTOSPI1_NCS
|-
! scope="row" |15
| PA5
|SPI1_SCK
|-
! scope="row" |16
|PA6
|SPI1_MISO
|OCTOSPI1_IO3
|-
! scope="row" |17
|PA7
|I2C3_SCL
|SPI1_MOSI
|OCTOSPI1_IO2
|-
! scope="row" |18
|PB0
|SPI1_NSS
| OCTOSPI1_IO1
|-
! scope="row" |19
|PB1
|OCTOSPI1_IO0
|-
! scope="row" |20
|PB2
|I2C3_SMBA
|-
! scope="row" | 21
|PB10
|I2C2_SCL
|I2C4_SCL
|SPI2_SCK
|OCTOSPI1_CLK
|-
! scope="row" |22
|PB11
|I2C2_SDA
|I2C4_SDA
|OCTOSPI1_NCS
|-
! scope="row" |23
|VSS
|-
! scope="row" | 24
|VDD
|-
! scope="row" |25
|PB12
|I2C2_SMBA
| SPI2_NSS
|OCTOSPI_NCLK
|-
! scope="row" |26
|PB13
|I2C2_SCL
|SPI2_SCK
|-
! scope="row" |27
|PB14
|I2C2_SDA
|SPI2_MISO
|-
! scope="row" | 28
|PB15
|SPI2_MOSI
|-
! scope="row" |29
|PA8
|-
! scope="row" |30
|PA9
|SPI2_SCK
|-
! scope="row" |31
|PA10
|-
! scope="row" | 32
|PA11
|SPI1_MISO
|FDCAN1_RX
|-
! scope="row" |33
|PA12
|SPI1_MOSI
|FDCAN1_TX
|-
! scope="row" |34
|PA13

|-
! scope="row" |35
|VSS_2
|-
! scope="row" |36
|VDD_2
|-
! scope="row" |37
|PA14
|I2C1_SMBA
| I2C4_SMBA
|-
! scope="row" |38
|PA15
|SPI1_NSS
|SPI3_NSS
|-
! scope="row" |39
|PB3
|SPI1_SCK
|SPI3_SCK
|-
! scope="row" |40
|PB4
|I2C3_SDA
|SPI1_MISO

|SPI3_MISO
|-
! scope="row" |41
|PB5
|I2C1_SMBA
| SPI1_MOSI
| SPI3_MOSI
|-
! scope="row" |42
|PB6
|I2C2_SCL
|I2C4_SCL
|-
! scope="row" |43
| PB7
|I2C1_SDA
|I2C4_SDA
|-
! scope="row" |44
|PH3
|-
! scope="row" |45
|PB8
|I2C1_SCL
|FDCAN1_RX
|-
! scope="row" |46
|PB9
|I2C1_SDA
|SPI2_NSS
|FDCAN1_TX
|-
! scope="row" |47
|VSS_3
|-
! scope="row" |48
|VDD_3
|}

=='''Protocol Pinout Reference'''==

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''I2C1'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |11
! scope="row" |41
|I2C1_SMBA
|System Management Bus Alert (SMBus mode)
|-
! scope="row" |43
! scope="row" |46
|I2C1_SDA
|Serial Data Line
|-
! scope="row" |42
! scope="row" |45
|I2C1_SCL
|Serial Clock Line
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''I2C2'''
|-
! width="60" colspan="2" scope="col" | Pin
! width="100" colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |21
! scope="row" |26
|I2C2_SCL
| Serial Clock Line
|-
! scope="row" | 22
! scope="row" |27
|I2C2_SDA
| Serial Data Line
|-
! scope="row" |25
! scope="row" |
|I2C2_SMBA
|System Management Bus Alert (SMBus mode)
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''I2C3'''
|-
! width="60" colspan="1" scope="col" |Pin
! width="100" colspan="1" scope="col" | Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" | 17
|I2C3_SCL
|Serial Clock Line
|-
! scope="row" |25
| I2C3_SMBA
|System Management Bus Alert (SMBus mode)
|-
! scope="row" |40
|I2C3_SDA
|Serial Data Line
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''I2C4'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |21
! scope="row" |42
|I2C4_SCL
| Serial Clock Line
|-
! scope="row" |22
! scope="row" |43
|I2C4_SDA
|Serial Data Line
|-
! scope="row" |37

! scope="row" |
|I2C4_SMBA
|System Management Bus Alert (SMBus mode)
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''SPI1'''
|-
! width="90" colspan="3" scope="col" |Pin
! width="100" colspan="1" scope="col" | Function
! width="150" colspan="1" scope="col" |Description
|-
! scope="row" |11
! scope="row" |15
! scope="row" |39
|SPI1_SCK
|Serial Clock
|-
! scope="row" |14

! scope="row" |18
! scope="row" |38
|SPI1_NSS
|Slave Select
|-
! scope="row" |16
! scope="row" |32
! scope="row" |40
|SPI1_MISO
|Master-in, Slave-out
|-
! scope="row" |17
! scope="row" |33
! scope="row" |41
|SPI1_MOSI
|Master-out, Slave-in
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''SPI2'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" colspan="1" scope="col" |Description
|-
! scope="row" |21

! scope="row" |26
|SPI2_SCK
|Serial Clock
|-
! scope="row" |25
! scope="row" |
|SPI2_NSS
|Slave Select
|-
! scope="row" |27
! scope="row" |
|SPI2_MISO
|Master-in, Slave-out
|-
! scope="row" |28
! scope="row" |
|SPI2_MOSI
|Master-out, Slave-in
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''SPI3'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" colspan="1" scope="col" |Description
|-
! scope="row" |14

! scope="row" |38
|SPI3_NSS
|Slave Select
|-
! scope="row" |39
! scope="row" |
|SPI3_SCK
|Serial Clock
|-
! scope="row" |40
! scope="row" |
|SPI3_MISO
|Master-in, Slave-out
|-
! scope="row" |41
! scope="row" |
|SPI3_MOSI
|Master-out, Slave-in
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''OCTOSPI1'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="130" colspan="1" scope="col" | Function
! width="150" colspan="1" scope="col" |Description
|-
! scope="row" |12
! scope="row" |14
| OCTOSPI1_NCS
|Chip Select
|-
! scope="row" |13
! scope="row" |21
|OCTOSPI1_CLK
|Clock
|-
! scope="row" |16
! scope="row" |
|OCTOSPI1_IO3
|I/O Data Line
|-
! scope="row" |17
! scope="row" |
|OCTOSPI1_IO2
|I/O Data Line
|-
! scope="row" | 18
! scope="row" |
|OCTOSPI1_IO1
|I/O Data Line
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''FDCAN'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" colspan="1" scope="col" | Description
|-
! scope="row" | 32
! scope="row" |45
|FDCAN_RX
| Receive Data
|-
! scope="row" |33
! scope="row" |46
|FDCAN_TX
|Transmit Data
|}

UNBProbe

2023-07-05T10:38:15Z

Unbinawiki:

UNBProbe is a passive, spring-loaded needle probe for probing PCBs. The spring loaded needle can be removed from its receptacle to allow for different types of probe tips. The PCB contains two solder jumpers and pads for two 0402-sized surface-mount components near the tip. It contains a header for jumper wires and an SMA Connector rated for a frequency range up to 26.5 GHz. We are currently testing version 0.2 of the probe, which has new silkscreen art, an improved via fence, curved traces and an SMA footprint to the manufacturer's spec. Full documentation is currently under development.
<br><br>
<div id="UNBProbeCarousel" class="carousel slide carousel-slide" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-2">
<li data-target="#UNBProbeCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#UNBProbeCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#UNBProbeCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
</ol>


<ol class="carousel-control">
<li class="carousel-control-prev" data-target="#UNBProbeCarousel" role="button" data-slide="prev">
<span class="carousel-control-prev-icon" aria-hidden="true"></span>
<span class="sr-only">Previous</span>
</li>
<li class="carousel-control-next" data-target="#UNBProbeCarousel" role="button" data-slide="next">
<span class="carousel-control-next-icon" aria-hidden="true"></span>
<span class="sr-only">Next</span>
</li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:UNBProbe-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBProbe-PCB-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBProbe-v02-50.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
== '''Pinout:''' ==
<br><br>
[[Image:UNBProbe-25.png | class=img-fluid]]

UNBProbe

2023-07-05T10:37:25Z

Unbinawiki:

UNBProbe is a passive, spring-loaded needle probe for probing PCBs. The spring loaded needle can be removed from its receptacle to allow for different types of probe tips. The PCB contains two solder jumpers and pads for two 0402-sized surface-mount components near the tip. It contains a header for jumper wires and an SMA Connector rated for a frequency range up to 26.5 GHz. We are currently testing version 0.2 of the probe, which has new silkscreen art, an improved via fence, curved traces and an SMA footprint to the manufacturer's spec. Full documentation is currently under development.
<br><br>
<div id="UNBProbeCarousel" class="carousel slide carousel-fade" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-2">
<li data-target="#UNBProbeCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#UNBProbeCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#UNBProbeCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
</ol>


<ol class="carousel-control">
<li class="carousel-control-prev" data-target="#UNBProbeCarousel" role="button" data-slide="prev">
<span class="carousel-control-prev-icon" aria-hidden="true"></span>
<span class="sr-only">Previous</span>
</li>
<li class="carousel-control-next" data-target="#UNBProbeCarousel" role="button" data-slide="next">
<span class="carousel-control-next-icon" aria-hidden="true"></span>
<span class="sr-only">Next</span>
</li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:UNBProbe-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBProbe-PCB-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBProbe-v02-50.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
== '''Pinout:''' ==
<br><br>
[[Image:UNBProbe-25.png | class=img-fluid]]

OI!STER

2023-07-05T10:31:29Z

Unbinawiki:

The OI!STER is an STM32L5 Target Board with a QFP48 clamshell socket aimed at debugging and glitching salvaged MCUs. The board can be powered via USB-C, a 2032 coin cell battery on the back of the board or an external power suppy. All pins are broken out in the 24-pin headers on either side at the top of the board. The OI!STER contains five debug headers, to support a wide range of debugging hardware such as a [https://hydrabus.com/hydrabus-1-0-specifications/ Hydrabus] or a [https://1bitsquared.com/products/black-magic-probe Black Magic Probe]. It comes with six SMA connectors arranged in I/O pairs. One pair is dedicated to glitching the external LSE clock, another for glitching the external HSE clock and one pair for power analysis and fault injection with a [https://www.newae.com/chipwhisperer Chipwhisperer]. Each SMA connector can be bypassed by removing a small jumper. The OI!STER also has additional solder jumpers for the external clocks and each of the power traces to the MCU to allow for quick experimentation.
<br><br>
The Pinout diagrams below are directed at reverse engineering. The first diagram is targeted at debugging and reverse engineering an STM32L5 MCU itself. The second diagram is aimed at the communication between external peripherals and the MCU. Although some functionaly might overlap, we've found it practical to define these two pinout groups. Additional documentation is currently under development.
<br><br>
<div id="OisterCarousel" class="carousel slide carousel-fade" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-2">
<li data-target="#OisterCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#OisterCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#OisterCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
</ol>


<ol class="carousel-control">
<li class="carousel-control-prev" data-target="#OisterCarousel" role="button" data-slide="prev">
<span class="carousel-control-prev-icon" aria-hidden="true"></span>
<span class="sr-only">Previous</span>
</li>
<li class="carousel-control-next" data-target="#OisterCarousel" role="button" data-slide="next">
<span class="carousel-control-next-icon" aria-hidden="true"></span>
<span class="sr-only">Next</span>
</li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[Image:OISTER-DIAG-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[Image:OISTER-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[Image:OISTER-PCB-30.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
=='''Debug Pinout Diagram'''==
[[Image:OISTER Pinout DBG-50.png | class=img-fluid]]
<br>
{| class="wikitable" cellspacing=5 cellpadding=5
|+
! colspan="3" |Debug Pinout
|-
! width="50" colspan="1" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" scope="col" |Alternate Function
|-
! scope="row" |1
|VBAT
|-
! scope="row" |2
|PC13
|-
! scope="row" |3
|PC14
| OSC32_IN
|-
! scope="row" |4
|PC15
|OSC32_OUT
|-
! scope="row" | 5
|PH0
|OSC_IN
|-
! scope="row" |6

|PH1
|OSC_OUT
|-
! scope="row" |7
|NRST
|-
! scope="row" |8
|VSSA
|VREF-
|-
! scope="row" |9
|VDDA
|VREF+
|-
! scope="row" | 10
|PA0
|UART4_TX
|-
! scope="row" |11
|PA1
|UART4_RX
|-
! scope="row" |12
|PA2
|LPUART1_TX
|-
! scope="row" |13
|PA3
|LPUART1_RX
|-
! scope="row" |14
|PA4
|USART2_CK
|-
! scope="row" |15
|PA5
|-
! scope="row" |16
|PA6
|LPUART1_CTS
|-
! scope="row" |17
|PA7
|-
! scope="row" | 18
|PB0
|LED1
|-
! scope="row" |19
|PB1
|LED2
|-
! scope="row" |20
|PB2
|UCPD1_FRSTX2
|-
! scope="row" |21
| PB10
|USART3_TX
|-
! scope="row" |22
|PB11
|USART3_RX
|-
! scope="row" |23
|VSS
|-
! scope="row" |24
|VDD
|-
! scope="row" |25
|PB12
|LPUART1_RTS
|-
! scope="row" |26
|PB13
|LPUART1_CTS
|-
! scope="row" |27
|PB14
|UCPD1_DB2
|-
! scope="row" |28
|PB15
|UCPD1_CC2
|-
! scope="row" |29
|PA8
|USART1_CK
|-
! scope="row" |30
|PA9
|USART1_TX
|-
! scope="row" |31
|PA10
|USART1_RX
|-
! scope="row" |32
|PA11
|USART1_CTS
|-
! scope="row" |33
|PA12
|USART1_RTS
|-
! scope="row" |34
| PA13
|JTMS
|-
! scope="row" |35
|VSS_2
|-
! scope="row" |36
|VDD_2
|-
! scope="row" |37
|PA14
|JTCK
|-
! scope="row" |38
|PA15
|JTDI
|-
! scope="row" |39
|PB3
| JTDO
|-
! scope="row" |40
|PB4
|NJTRST

|-
! scope="row" | 41
|PB5
|UCPD1_DB1
|-
! scope="row" |42

|PB6
|USART1_TX
|-
! scope="row" |43
|PB7
|UART4_CTS
|-
! scope="row" |44

|PH3
|BOOT0
|-
! scope="row" |45
|PB8
|-
! scope="row" | 46
|PB9
|-
! scope="row" |47
|VSS_3
|-
! scope="row" |48
|VDD_3
|}

=='''Protocol Pinout Reference'''==
{| class="wikitable" cellspacing=5 cellpadding=5
|+
! colspan="3" |'''USB'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
|-
! scope="row" |32
|USB_DM
|Data -
|-
! scope="row" |33
|USB_DP
| Data +
|-
! scope="row" |34
|USB_NOE
|Output Enable
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''UCPD1'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |12
|UCPD1_FRSTX1
|Fast Role Swap Signal
|-
! scope="row" |20
|UCPD1_FRSTX2
|Fast Role Swap Signal
|-
! scope="row" | 27
|UCPD1_DB2
|Dead-Battery Signal
|-
! scope="row" |28
|UCPD1_CC2
|Configuration Control Line
|-
! scope="row" |38
|UCPD1_CC1
|Configuration Control Line
|-
! scope="row" |41
|UCPD1_DB1
|Dead-Battery Signal
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''UART4'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |10
|UART4_TX
| Transmit Data
|-
! scope="row" |11
|UART4_RX
|Receive Data
|-
! scope="row" |38
|UART4_RTS
|Request To Send
|-
! scope="row" |43
|UART4_CTS
|Clear To Send
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''LPUART1'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |12
! scope="row" |22
|LPUART1_TX
|Transmit Data
|-
! scope="row" |13
! scope="row" |21
|LPUART1_RX
|Receive Data
|-
! scope="row" |16
! scope="row" | 26
| LPUART1_CTS
| Clear To Send
|-
! scope="row" |19
! scope="row" | 25
|LPUART1_RTS
|Request To Send
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''USART1'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |29
! scope="row" |41
|USART1_CK
|Transmitter Clock
|-
! scope="row" | 30
! scope="row" |42
|USART1_TX
|Transmit Data
|-
! scope="row" |31
! scope="row" | 43
|USART1_RX
|Receive Data
|-
! scope="row" |32
! scope="row" |40
|USART1_CTS
| Clear To Send
|-
! scope="row" |32
! scope="row" |40
|USART1_NSS
|Slave Select
|-
! scope="row" |33
! scope="row" | 39
|USART1_RTS
| Request To Send
|-
! scope="row" |33
! scope="row" | 39
|USART1_DE
|Driver Enable
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''USART2'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |10
! scope="row" |
|USART2_CTS
|Clear To Send
|-
! scope="row" |10
! scope="row" |
|USART2_NSS
|Slave Select
|-
! scope="row" |11
! scope="row" |
|USART2_RTS
|Request To Send
|-
! scope="row" |11
! scope="row" |
|USART2_DE
|Driver Enable
|-
! scope="row" |12
! scope="row" |
| USART2_TX
| Transmit Data
|-
! scope="row" |13
! scope="row" |38
|USART2_RX
|Receive Data
|-
! scope="row" |14
! scope="row" |
|USART2_CK
|Transmitter Clock
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="5" |'''USART3'''
|-
! width="90" colspan="3" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |16
! scope="row" |26
! scope="row" |
|USART3_CTS
|Clear To Send
|-
! scope="row" |16
! scope="row" |26
! scope="row" |
|USART3_NSS
|Slave Select
|-
! scope="row" |18
! scope="row" |25
! scope="row" |
|USART3_CK
|Transmitter Clock
|-
! scope="row" | 19
! scope="row" |27
! scope="row" |38
|USART3_RTS
|Request To Send
|-
! scope="row" |21
! scope="row" | 27
! scope="row" |38
|USART3_DE
| Driver Enable
|-
! scope="row" |21
! scope="row" |
! scope="row" |
|USART3_TX
|Transmit Data
|-
! scope="row" |22
! scope="row" |
! scope="row" |
|USART3_RX
|Request Data
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''JTAG'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |34
|JTMS
|Test Mode State
|-
! scope="row" |37
|JTCK
|Test Clock
|-
! scope="row" |38
|JTDI
|Test Data In
|-
! scope="row" |39
|JTDO
|Test Data Out
|-
! scope="row" |40

|NJTRST
|Reset
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''SWD'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="200" colspan="1" scope="col" |Description
|-
! scope="row" |7
|NRST
|Reset
|-
! scope="row" |34
|SWDIO
|Data I/O
|-
! scope="row" |37
|SWCLK
|Clock
|-
! scope="row" |39
|TRACESWO
|Trace Output
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''OSC'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150"colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |5
|OSC_IN
|High Speed External Clock In (HSEI)
|-
! scope="row" |6
|OSC_OUT
|High Speed External Clock Out (HSEO)
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="3" |'''OSC32'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="150" colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |3
|OSC32_IN
|Low Speed External Clock In (LSEI)
|-
! scope="row" |4
|OSC32_OUT
|Low Speed External Clock Out (LSEO)
|}

=='''Peripheral Pinout Diagram'''==
[[Image:OISTER Peripheral Pinout.png | class=img-fluid]]
<br>
{| class="wikitable"" cellspacing=5 cellpadding=5
|+
| colspan="6" |'''Peripheral Pinout'''
|-
! width="50" colspan="1" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" colspan="1" scope="col" |Alternate
! width="150" colspan="1" scope="col" |
! width="150" colspan="1" scope="col" |
! width="150" colspan="1" scope="col" |
|-
! scope="row" |1
|VBAT
|-
! scope="row" |2
|PC13
|-
! scope="row" | 3
|PC14
|-
! scope="row" |4
|PC15
|-
! scope="row" |5
|PH0
|-
! scope="row" |6
|PH1

|-
! scope="row" | 7
|NRST
|-
! scope="row" |8
|VSSA
|-
! scope="row" | 9
|VDDA
|-
! scope="row" |10
|PA0
|-
! scope="row" |11
|PA1
| I2C1_SMBA
|SPI1_SCK
|-
! scope="row" |12
|PA2
|OCTOSPI1_NCS

|-
! scope="row" |13
|PA3
|OCTOSPI1_CLK
|-
! scope="row" |14
|PA4
|SPI1_NSS
|SPI3_NSS
|OCTOSPI1_NCS
|-
! scope="row" |15
| PA5
|SPI1_SCK
|-
! scope="row" |16
|PA6
|SPI1_MISO
|OCTOSPI1_IO3
|-
! scope="row" |17
|PA7
|I2C3_SCL
|SPI1_MOSI
|OCTOSPI1_IO2
|-
! scope="row" |18
|PB0
|SPI1_NSS
| OCTOSPI1_IO1
|-
! scope="row" |19
|PB1
|OCTOSPI1_IO0
|-
! scope="row" |20
|PB2
|I2C3_SMBA
|-
! scope="row" | 21
|PB10
|I2C2_SCL
|I2C4_SCL
|SPI2_SCK
|OCTOSPI1_CLK
|-
! scope="row" |22
|PB11
|I2C2_SDA
|I2C4_SDA
|OCTOSPI1_NCS
|-
! scope="row" |23
|VSS
|-
! scope="row" | 24
|VDD
|-
! scope="row" |25
|PB12
|I2C2_SMBA
| SPI2_NSS
|OCTOSPI_NCLK
|-
! scope="row" |26
|PB13
|I2C2_SCL
|SPI2_SCK
|-
! scope="row" |27
|PB14
|I2C2_SDA
|SPI2_MISO
|-
! scope="row" | 28
|PB15
|SPI2_MOSI
|-
! scope="row" |29
|PA8
|-
! scope="row" |30
|PA9
|SPI2_SCK
|-
! scope="row" |31
|PA10
|-
! scope="row" | 32
|PA11
|SPI1_MISO
|FDCAN1_RX
|-
! scope="row" |33
|PA12
|SPI1_MOSI
|FDCAN1_TX
|-
! scope="row" |34
|PA13

|-
! scope="row" |35
|VSS_2
|-
! scope="row" |36
|VDD_2
|-
! scope="row" |37
|PA14
|I2C1_SMBA
| I2C4_SMBA
|-
! scope="row" |38
|PA15
|SPI1_NSS
|SPI3_NSS
|-
! scope="row" |39
|PB3
|SPI1_SCK
|SPI3_SCK
|-
! scope="row" |40
|PB4
|I2C3_SDA
|SPI1_MISO

|SPI3_MISO
|-
! scope="row" |41
|PB5
|I2C1_SMBA
| SPI1_MOSI
| SPI3_MOSI
|-
! scope="row" |42
|PB6
|I2C2_SCL
|I2C4_SCL
|-
! scope="row" |43
| PB7
|I2C1_SDA
|I2C4_SDA
|-
! scope="row" |44
|PH3
|-
! scope="row" |45
|PB8
|I2C1_SCL
|FDCAN1_RX
|-
! scope="row" |46
|PB9
|I2C1_SDA
|SPI2_NSS
|FDCAN1_TX
|-
! scope="row" |47
|VSS_3
|-
! scope="row" |48
|VDD_3
|}

=='''Protocol Pinout Reference'''==

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''I2C1'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |11
! scope="row" |41
|I2C1_SMBA
|System Management Bus Alert (SMBus mode)
|-
! scope="row" |43
! scope="row" |46
|I2C1_SDA
|Serial Data Line
|-
! scope="row" |42
! scope="row" |45
|I2C1_SCL
|Serial Clock Line
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''I2C2'''
|-
! width="60" colspan="2" scope="col" | Pin
! width="100" colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |21
! scope="row" |26
|I2C2_SCL
| Serial Clock Line
|-
! scope="row" | 22
! scope="row" |27
|I2C2_SDA
| Serial Data Line
|-
! scope="row" |25
! scope="row" |
|I2C2_SMBA
|System Management Bus Alert (SMBus mode)
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''I2C3'''
|-
! width="60" colspan="1" scope="col" |Pin
! width="100" colspan="1" scope="col" | Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" | 17
|I2C3_SCL
|Serial Clock Line
|-
! scope="row" |25
| I2C3_SMBA
|System Management Bus Alert (SMBus mode)
|-
! scope="row" |40
|I2C3_SDA
|Serial Data Line
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''I2C4'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="350" colspan="1" scope="col" |Description
|-
! scope="row" |21
! scope="row" |42
|I2C4_SCL
| Serial Clock Line
|-
! scope="row" |22
! scope="row" |43
|I2C4_SDA
|Serial Data Line
|-
! scope="row" |37

! scope="row" |
|I2C4_SMBA
|System Management Bus Alert (SMBus mode)
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''SPI1'''
|-
! width="90" colspan="3" scope="col" |Pin
! width="100" colspan="1" scope="col" | Function
! width="150" colspan="1" scope="col" |Description
|-
! scope="row" |11
! scope="row" |15
! scope="row" |39
|SPI1_SCK
|Serial Clock
|-
! scope="row" |14

! scope="row" |18
! scope="row" |38
|SPI1_NSS
|Slave Select
|-
! scope="row" |16
! scope="row" |32
! scope="row" |40
|SPI1_MISO
|Master-in, Slave-out
|-
! scope="row" |17
! scope="row" |33
! scope="row" |41
|SPI1_MOSI
|Master-out, Slave-in
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''SPI2'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" colspan="1" scope="col" |Description
|-
! scope="row" |21

! scope="row" |26
|SPI2_SCK
|Serial Clock
|-
! scope="row" |25
! scope="row" |
|SPI2_NSS
|Slave Select
|-
! scope="row" |27
! scope="row" |
|SPI2_MISO
|Master-in, Slave-out
|-
! scope="row" |28
! scope="row" |
|SPI2_MOSI
|Master-out, Slave-in
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''SPI3'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" colspan="1" scope="col" |Description
|-
! scope="row" |14

! scope="row" |38
|SPI3_NSS
|Slave Select
|-
! scope="row" |39
! scope="row" |
|SPI3_SCK
|Serial Clock
|-
! scope="row" |40
! scope="row" |
|SPI3_MISO
|Master-in, Slave-out
|-
! scope="row" |41
! scope="row" |
|SPI3_MOSI
|Master-out, Slave-in
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''OCTOSPI1'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="130" colspan="1" scope="col" | Function
! width="150" colspan="1" scope="col" |Description
|-
! scope="row" |12
! scope="row" |14
| OCTOSPI1_NCS
|Chip Select
|-
! scope="row" |13
! scope="row" |21
|OCTOSPI1_CLK
|Clock
|-
! scope="row" |16
! scope="row" |
|OCTOSPI1_IO3
|I/O Data Line
|-
! scope="row" |17
! scope="row" |
|OCTOSPI1_IO2
|I/O Data Line
|-
! scope="row" | 18
! scope="row" |
|OCTOSPI1_IO1
|I/O Data Line
|}

{| class="wikitable" cellspacing=5 cellpadding=5
|+
| colspan="4" |'''FDCAN'''
|-
! width="60" colspan="2" scope="col" |Pin
! width="100" colspan="1" scope="col" |Function
! width="150" colspan="1" scope="col" | Description
|-
! scope="row" | 32
! scope="row" |45
|FDCAN_RX
| Receive Data
|-
! scope="row" |33
! scope="row" |46
|FDCAN_TX
|Transmit Data
|}

File:DEDBUG ALL 50 Square.png

2023-07-03T08:25:51Z

Unbinawiki: /* Summary */

== Summary ==
Same Image as DEDBUG ALL 50, but square for the carousel. License: [https://creativecommons.org/licenses/by-nc-sa/4.0/ CC BY-NC-SA 4.0] 2021-2023 Unbinare

File:DEDBUG B Detail 30b.png

2023-07-03T08:22:59Z

Unbinawiki: Unbinawiki uploaded a new version of File:DEDBUG B Detail 30b.png

== Summary: ==
DEDBUG Protoboard back close-up. License: [https://creativecommons.org/licenses/by-nc-sa/4.0/ CC BY-NC-SA 4.0] 2021-2023

File:DEDBUG F Detail 2 30.png

2023-07-03T08:21:24Z

Unbinawiki: Unbinawiki uploaded a new version of File:DEDBUG F Detail 2 30.png

== Summary: ==
close-up of the front side of the DEDBUG Protoboard License: [https://creativecommons.org/licenses/by-nc-sa/4.0/ CC BY-NC-SA 4.0] 2021-2023

File:DEDBUG FB Detail 30.png

2023-07-03T08:18:23Z

Unbinawiki: Unbinawiki uploaded a new version of File:DEDBUG FB Detail 30.png

== Summary: ==
a close-up of the front- and backside of the DEDBUG Protoboard. License: [https://creativecommons.org/licenses/by-nc-sa/4.0/ CC BY-NC-SA 4.0] 2021-2023 Unbinare

File:DEDBUG ALL 50 Square.png

2023-07-03T08:15:49Z

Unbinawiki: Unbinawiki uploaded a new version of File:DEDBUG ALL 50 Square.png

== Summary ==
Same Image as DEDBUG ALL 50, but square for the carousel.

DEDBUG ProtoFlex

2023-07-03T00:21:37Z

Unbinawiki:

The DEDBUG ProtoFlex boards accompany the [[DEDBUG Protoboard]]. The aim of the DEDBUG ProtoFlex boards is to provide additional functionality to the Protoboard by soldering them to the prototyping area. Currently we are testing six ProtoFlex boards with more to follow. The six boards are 12x12 pad grids of which the left column terminates to an edge connector that can be bridged with the cross-shaped pads on the Protoboard. The current six ProtoFlex grids are at 0201, 0402, 0603, 0805, 1206 and 1210-sized.
<br><br>
<div id="ProtoFlexCarousel" class="carousel slide carousel-fade" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-1">
<li data-target="#ProtoFlexCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#ProtoFlexCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:DEDBUG ProtoFlex 50.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG ProtoFlex Soldered 30.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
=='''DEDBUG ProtoFlex Diagram [Front]'''==
<br>
[[Image:FLEX plot front 50 2nd.png | class=img-fluid]]

UNBRK

2023-07-03T00:20:38Z

Unbinawiki:

UNBRK is a 3.2x3.2cm QFP48/64/100/144 breakout board with a VCC bus on all four edges of the topside of the board and a GND bus on all four edges on the bottom of the board. The buses have been placed adjacent to the breakout pads to simplify the process of powering the MCU and the placement of decoupling capacitors where this might be necessary. Due to the board being as small as it is, we've added ruler lines to the breakout pads on the top of the board to ease finding the correct pin numbers when using the pinout diagrams on this page. The remaining area on the bottom of the UNBRK functions as a prototyping area for 0201-sized surface-mount components. The aim of the project is to allow rapid prototyping with MCUs by using components salvaged from discarded mobile phones. Full documentation is currently under development.
<br></br>
<div id="UNBRKCarousel" class="carousel slide carousel-fade" data-ride="carousel" data-interval="5000" style="filter: invert(100%)">


<ol class="carousel-indicators mb-3">
<li data-target="#UNBRKCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#UNBRKCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#UNBRKCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:UNBRK-60.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBRK-Front-35.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBRK-Back-35.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
== '''Pinout:''' ==
<br><br>
<gallery widths=300px heights=300px perrow=2 mode="packed">
Image:Unbrk-pinout-front.png
Image:Unbrk-pinout-back.png
Image:Unbrk_GND_VCC_Front.png
Image:Unbrk GND_VCC_Back.png
</gallery>

UNBProbeBase

2023-07-03T00:20:10Z

Unbinawiki:

UNBProbe

2023-07-03T00:19:46Z

Unbinawiki:

UNBProbe is a passive, spring-loaded needle probe for probing PCBs. The spring loaded needle can be removed from its receptacle to allow for different types of probe tips. The PCB contains two solder jumpers and pads for two 0402-sized surface-mount components near the tip. It contains a header for jumper wires and an SMA Connector rated for a frequency range up to 26.5 GHz. We are currently testing version 0.2 of the probe, which has new silkscreen art, an improved via fence, curved traces and an SMA footprint to the manufacturer's spec. Full documentation is currently under development.
<br><br>
<div id="UNBProbeCarousel" class="carousel slide carousel-fade" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-2">
<li data-target="#UNBProbeCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#UNBProbeCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#UNBProbeCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:UNBProbe-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBProbe-PCB-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBProbe-v02-50.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
== '''Pinout:''' ==
<br><br>
[[Image:UNBProbe-25.png | class=img-fluid]]

DEDBUG ProtoFlex

2023-07-03T00:19:14Z

Unbinawiki:

The DEDBUG ProtoFlex boards accompany the [[DEDBUG Protoboard]]. The aim of the DEDBUG ProtoFlex boards is to provide additional functionality to the Protoboard by soldering them to the prototyping area. Currently we are testing six ProtoFlex boards with more to follow. The six boards are 12x12 pad grids of which the left column terminates to an edge connector that can be bridged with the cross-shaped pads on the Protoboard. The current six ProtoFlex grids are at 0201, 0402, 0603, 0805, 1206 and 1210-sized.
<br><br>
<div id="ProtoFlexCarousel" class="carousel slide carousel-fade" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-1">
<li data-target="#ProtoFlexCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#ProtoFlexCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:DEDBUG ProtoFlex 50.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG ProtoFlex Soldered 30.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br><br>
=='''DEDBUG ProtoFlex Diagram [Front]'''==
<br>
[[Image:FLEX plot front 50 2nd.png | class=img-fluid]]

DEDBUG ProtoFlex

2023-07-03T00:17:21Z

Unbinawiki:

The DEDBUG ProtoFlex boards accompany the [[DEDBUG Protoboard]]. The aim of the DEDBUG ProtoFlex boards is to provide additional functionality to the Protoboard by soldering them to the prototyping area. Currently we are testing six ProtoFlex boards with more to follow. The six boards are 12x12 pad grids of which the left column terminates to an edge connector that can be bridged with the cross-shaped pads on the Protoboard. The current six ProtoFlex grids are at 0201, 0402, 0603, 0805, 1206 and 1210-sized.
<br><br>
<div id="ProtoFlexCarousel" class="carousel slide carousel-fade" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-1">
<li data-target="#ProtoFlexCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#ProtoFlexCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:DEDBUG ProtoFlex 50.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG ProtoFlex Soldered 30.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br><br>
=='''DEDBUG ProtoFlex Diagram [Front]'''==
<br><br>
[[Image:FLEX plot front 50 2nd.png | class=img-fluid]]

DEDBUG Protoboard

2023-07-03T00:16:31Z

Unbinawiki:

{{DISPLAYTITLE:DEDBUG Protoboard}}
'''DEDBUG''' is a protoboard aimed at [https://en.wikipedia.org/wiki/Point-to-point_construction deadbug prototyping and free-form circuit construction] with components salvaged from [[wikipedia:Electronic_waste|electronic waste]]. Unlike traditional [[wikipedia:Perfboard|perfboards]] and [[wikipedia:Stripboard|stripboards]], the main objective of this protoboard is to provide a means to work with [https://en.wikipedia.org/wiki/Surface-mount_technology SMD] components. Since founding the lab in 2020, due to the influence of the manufacturing industry on the hardware hacking community we have observed a gradual decline in manual experimentation and prototyping with SMD components in favour of establishing small-scale production pipelines with desktop [[wikipedia:CNC_router|CNC routers]], [https://en.wikipedia.org/wiki/Pick-and-place_machine pick-and-place machines] and [[wikipedia:Reflow_oven|reflow ovens]] and other costly production-oriented equipment. We find that this trend loosely mirrors production processes in larger production pipelines, aimed at commercially producing and selling devices. At Unbinare, we would like to preserve the noncommercial, unpremeditated, spur-of-the-moment nature of hardware hacking and openly share the skills required to manually hack free-form circuits with SMD components. The DEDBUG protoboard is designed to allow anyone to experiment and build free-form circuits with relative ease and demonstrates that with few resources one is able to [[wikipedia:Modding|modify]] and [https://en.wikipedia.org/wiki/Repurposing repurpose] discarded electronic devices instead of creating new products. The project has been supported by [https://constantvzw.org Constant VZW] as part of their [https://constantvzw.org/site/-Techno-desobeissance,246-.html TechnoDisobedience] Project. They generously provided the resources for the design, production and the organization of the first [https://constantvzw.org/site/Workshop-DEDBUG,3744.html DEDBUG workshop]. Further development of the project is supported by [https://nlnet.nl/ NLnet] and the [https://nlnet.nl/NGI0/ NGI Zero Fund] as part of our [https://nlnet.nl/project/Unbinare-RET/ Reverse Engineering Toolkit] project. Additional documentation is currently under development.
<br><br>
<div id="DedbugCarousel" class="carousel slide carousel-slide carousel-fade" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-3">
<li data-target="#DedbugCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="3" style="background-color: #C6C2B6"></li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:DEDBUG ALL 50 Square.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG FB Detail 30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG F Detail 2 30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG B Detail 30b.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br>
=='''DEDBUG Protoboard Diagram [Front]'''==
<br><br>
[[Image:DEDBUG plot front description 50.png | class=img-fluid]]
<br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
!width="60" colspan="1" scope="col" |Color
!width="100" colspan="1" scope="col" |Function
!width="1000" colspan="1" scope="col" |Description
|-
|style="vertical-align:top"|[[File:Blue table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Bus
|A bus on the right and bottom edge of the Protoboard. On the top right edge of the Protoboard it is possible to solder a wire or attach a [[wikipedia:Crocodile_clip|crocodile clip]] to create either a VCC or GND Bus.
|-
|style="vertical-align:top"|[[File:Orange table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads
|The edge pads can be bridged with the Bus, bridged to adjacent edge pads and bridged with the prototyping area. It is possible to bridge with just solder, or an 0402-sized zero-ohm resistor.
|-
|style="vertical-align:top"|[[File:Yellow table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads [Vias]
|These edge pads connect to their corresponding pads on the other side using vias. If one side has a VCC Bus and the other the GND bus, it is possible to complete a circuit by bridging an edge pad with vias on the relevant side so both buses are available to the prototyping area.
|-
|style="vertical-align:top"|[[File:Gray table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Prototyping Area
|This prototyping area has been designed to both accommodate building circuits with [[wikipedia:Magnet_wire|magnet wire]] or without any wire at all by bridging the cross-shaped pads. Since two-terminal SMD components can be difficult to solder using freeform prototyping techniques, the prototyping grid allows for the most common (0201/0402/0603/0805/1206/1210) two-terminal SMD components. A guide will be created in a future iteration of this wiki page.
|}
<br><br>

=='''DEDBUG Protoboard Diagram [Back]'''==
<br><br>
[[Image:DEDBUG plot back description 50.png | class=img-fluid]]
<br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
!width="60" colspan="1" scope="col" |Color
!width="100" colspan="1" scope="col" |Function
!width="1000" colspan="1" scope="col" |Description
|-
|style="vertical-align:top"|[[File:Blue table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Bus
|A bus on the right and bottom edge of the Protoboard. On the top right edge of the Protoboard it is possible to solder a wire or attach a [[wikipedia:Crocodile_clip|crocodile clip]] to create either a VCC or GND Bus.
|-
|style="vertical-align:top"|[[File:Orange table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads
|The edge pads can be bridged with the Bus, bridged to adjacent edge pads and bridged with the prototyping area. It is possible to bridge with just solder, or an 0402-sized zero-ohm resistor.
|-
|style="vertical-align:top"|[[File:Yellow table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads [Vias]
|These edge pads connect to the edge pads on the other side using vias. If one side has a VCC Bus and the other the GND bus, it is possible to complete a circuit by bridging an edge pad with vias on the relevant side so both buses are available to the prototyping area.
|-
|style="vertical-align:top"|[[File:Gray table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Prototyping Area
| This prototyping area has been designed to both accommodate building circuits with [[wikipedia:Magnet_wire|magnet wire]] or without any wire at all by bridging the cross-shaped pads. Slightly different from the prototyping area found on the front of the Protoboard,
This side accommodates building zones and makes it easier to attach DEDBUG ProtoFlex PCBs.
|-
|style="vertical-align:top"|[[File:Green table icon.png|alt=Green table icon|frameless|50x50px]]
|style="vertical-align:top"|Bridge Guard
|The function of this small pad is to prevent accidental shorting of the the buses on opposite sides of the board when using crocodile clips. It is not possible to use solder to bridge the two buses, as the surface tension of the solder and the shape of the area prevents it. The best way to bridge the two buses on the left and bottom sides of the board is to cut off a 2x2mm piece of solder wick and solder it on top of the bridge guard.
|}

DEDBUG Protoboard

2023-07-03T00:15:56Z

Unbinawiki:

{{DISPLAYTITLE:DEDBUG Protoboard}}
'''DEDBUG''' is a protoboard aimed at [https://en.wikipedia.org/wiki/Point-to-point_construction deadbug prototyping and free-form circuit construction] with components salvaged from [[wikipedia:Electronic_waste|electronic waste]]. Unlike traditional [[wikipedia:Perfboard|perfboards]] and [[wikipedia:Stripboard|stripboards]], the main objective of this protoboard is to provide a means to work with [https://en.wikipedia.org/wiki/Surface-mount_technology SMD] components. Since founding the lab in 2020, due to the influence of the manufacturing industry on the hardware hacking community we have observed a gradual decline in manual experimentation and prototyping with SMD components in favour of establishing small-scale production pipelines with desktop [[wikipedia:CNC_router|CNC routers]], [https://en.wikipedia.org/wiki/Pick-and-place_machine pick-and-place machines] and [[wikipedia:Reflow_oven|reflow ovens]] and other costly production-oriented equipment. We find that this trend loosely mirrors production processes in larger production pipelines, aimed at commercially producing and selling devices. At Unbinare, we would like to preserve the noncommercial, unpremeditated, spur-of-the-moment nature of hardware hacking and openly share the skills required to manually hack free-form circuits with SMD components. The DEDBUG protoboard is designed to allow anyone to experiment and build free-form circuits with relative ease and demonstrates that with few resources one is able to [[wikipedia:Modding|modify]] and [https://en.wikipedia.org/wiki/Repurposing repurpose] discarded electronic devices instead of creating new products. The project has been supported by [https://constantvzw.org Constant VZW] as part of their [https://constantvzw.org/site/-Techno-desobeissance,246-.html TechnoDisobedience] Project. They generously provided the resources for the design, production and the organization of the first [https://constantvzw.org/site/Workshop-DEDBUG,3744.html DEDBUG workshop]. Further development of the project is supported by [https://nlnet.nl/ NLnet] and the [https://nlnet.nl/NGI0/ NGI Zero Fund] as part of our [https://nlnet.nl/project/Unbinare-RET/ Reverse Engineering Toolkit] project. Additional documentation is currently under development.
<br><br>
<div id="DedbugCarousel" class="carousel slide carousel-slide carousel-fade" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-3">
<li data-target="#DedbugCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
<li data-target="#DedbugCarousel" data-slide-to="3" style="background-color: #C6C2B6"></li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:DEDBUG ALL 50 Square.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG FB Detail 30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG F Detail 2 30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:DEDBUG B Detail 30b.png|class=img-fluid d-block w-100]]</div>
</div>

</div>

=='''DEDBUG Protoboard Diagram [Front]'''==
<br><br>
[[Image:DEDBUG plot front description 50.png | class=img-fluid]]
<br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
!width="60" colspan="1" scope="col" |Color
!width="100" colspan="1" scope="col" |Function
!width="1000" colspan="1" scope="col" |Description
|-
|style="vertical-align:top"|[[File:Blue table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Bus
|A bus on the right and bottom edge of the Protoboard. On the top right edge of the Protoboard it is possible to solder a wire or attach a [[wikipedia:Crocodile_clip|crocodile clip]] to create either a VCC or GND Bus.
|-
|style="vertical-align:top"|[[File:Orange table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads
|The edge pads can be bridged with the Bus, bridged to adjacent edge pads and bridged with the prototyping area. It is possible to bridge with just solder, or an 0402-sized zero-ohm resistor.
|-
|style="vertical-align:top"|[[File:Yellow table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads [Vias]
|These edge pads connect to their corresponding pads on the other side using vias. If one side has a VCC Bus and the other the GND bus, it is possible to complete a circuit by bridging an edge pad with vias on the relevant side so both buses are available to the prototyping area.
|-
|style="vertical-align:top"|[[File:Gray table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Prototyping Area
|This prototyping area has been designed to both accommodate building circuits with [[wikipedia:Magnet_wire|magnet wire]] or without any wire at all by bridging the cross-shaped pads. Since two-terminal SMD components can be difficult to solder using freeform prototyping techniques, the prototyping grid allows for the most common (0201/0402/0603/0805/1206/1210) two-terminal SMD components. A guide will be created in a future iteration of this wiki page.
|}
<br><br>

=='''DEDBUG Protoboard Diagram [Back]'''==
<br><br>
[[Image:DEDBUG plot back description 50.png | class=img-fluid]]
<br><br>
{| class="wikitable" cellspacing=10 cellpadding=10
|+
!width="60" colspan="1" scope="col" |Color
!width="100" colspan="1" scope="col" |Function
!width="1000" colspan="1" scope="col" |Description
|-
|style="vertical-align:top"|[[File:Blue table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Bus
|A bus on the right and bottom edge of the Protoboard. On the top right edge of the Protoboard it is possible to solder a wire or attach a [[wikipedia:Crocodile_clip|crocodile clip]] to create either a VCC or GND Bus.
|-
|style="vertical-align:top"|[[File:Orange table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads
|The edge pads can be bridged with the Bus, bridged to adjacent edge pads and bridged with the prototyping area. It is possible to bridge with just solder, or an 0402-sized zero-ohm resistor.
|-
|style="vertical-align:top"|[[File:Yellow table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Edge Pads [Vias]
|These edge pads connect to the edge pads on the other side using vias. If one side has a VCC Bus and the other the GND bus, it is possible to complete a circuit by bridging an edge pad with vias on the relevant side so both buses are available to the prototyping area.
|-
|style="vertical-align:top"|[[File:Gray table icon.png|frameless|50x50px]]
|style="vertical-align:top"|Prototyping Area
| This prototyping area has been designed to both accommodate building circuits with [[wikipedia:Magnet_wire|magnet wire]] or without any wire at all by bridging the cross-shaped pads. Slightly different from the prototyping area found on the front of the Protoboard,
This side accommodates building zones and makes it easier to attach DEDBUG ProtoFlex PCBs.
|-
|style="vertical-align:top"|[[File:Green table icon.png|alt=Green table icon|frameless|50x50px]]
|style="vertical-align:top"|Bridge Guard
|The function of this small pad is to prevent accidental shorting of the the buses on opposite sides of the board when using crocodile clips. It is not possible to use solder to bridge the two buses, as the surface tension of the solder and the shape of the area prevents it. The best way to bridge the two buses on the left and bottom sides of the board is to cut off a 2x2mm piece of solder wick and solder it on top of the bridge guard.
|}

UNBRK

2023-07-03T00:14:45Z

Unbinawiki:

UNBRK is a 3.2x3.2cm QFP48/64/100/144 breakout board with a VCC bus on all four edges of the topside of the board and a GND bus on all four edges on the bottom of the board. The buses have been placed adjacent to the breakout pads to simplify the process of powering the MCU and the placement of decoupling capacitors where this might be necessary. Due to the board being as small as it is, we've added ruler lines to the breakout pads on the top of the board to ease finding the correct pin numbers when using the pinout diagrams on this page. The remaining area on the bottom of the UNBRK functions as a prototyping area for 0201-sized surface-mount components. The aim of the project is to allow rapid prototyping with MCUs by using components salvaged from discarded mobile phones. Full documentation is currently under development.
<br></br>
<div id="UNBRKCarousel" class="carousel slide carousel-fade" data-ride="carousel" data-interval="5000" style="filter: invert(100%)">


<ol class="carousel-indicators mb-3">
<li data-target="#UNBRKCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#UNBRKCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#UNBRKCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:UNBRK-60.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBRK-Front-35.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBRK-Back-35.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br><br>
== '''Pinout:''' ==
<br><br>
<gallery widths=300px heights=300px perrow=2 mode="packed">
Image:Unbrk-pinout-front.png
Image:Unbrk-pinout-back.png
Image:Unbrk_GND_VCC_Front.png
Image:Unbrk GND_VCC_Back.png
</gallery>

UNBProbeBase

2023-07-03T00:14:04Z

Unbinawiki:

UNBProbe

2023-07-03T00:12:44Z

Unbinawiki:

UNBProbe is a passive, spring-loaded needle probe for probing PCBs. The spring loaded needle can be removed from its receptacle to allow for different types of probe tips. The PCB contains two solder jumpers and pads for two 0402-sized surface-mount components near the tip. It contains a header for jumper wires and an SMA Connector rated for a frequency range up to 26.5 GHz. We are currently testing version 0.2 of the probe, which has new silkscreen art, an improved via fence, curved traces and an SMA footprint to the manufacturer's spec. Full documentation is currently under development.
<br><br>
<div id="UNBProbeCarousel" class="carousel slide carousel-fade" data-ride="carousel" data-interval="5000" style="filter: invert(100%);>


<ol class="carousel-indicators mb-2">
<li data-target="#UNBProbeCarousel" data-slide-to="0" class="active" style="background-color: #C6C2B6"></li>
<li data-target="#UNBProbeCarousel" data-slide-to="1" style="background-color: #C6C2B6"></li>
<li data-target="#UNBProbeCarousel" data-slide-to="2" style="background-color: #C6C2B6"></li>
</ol>


<div class="carousel-inner">
<div class="carousel-item active">[[File:UNBProbe-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBProbe-PCB-30.png|class=img-fluid d-block w-100]]</div>
<div class="carousel-item">[[File:UNBProbe-v02-50.png|class=img-fluid d-block w-100]]</div>
</div>

</div>
<br><br>
== '''Pinout:''' ==
<br><br>
[[Image:UNBProbe-25.png | class=img-fluid]]