jvelasc2 · jvelasc2 · Jan 16, 2026
diff --git a/docs/solutions/reference-designs/eval-cn0566-rpiz/assy-prod-test/camera_mount.jpg b/docs/solutions/reference-designs/eval-cn0566-rpiz/assy-prod-test/camera_mount.jpg
diff --git a/docs/solutions/reference-designs/eval-cn0566-rpiz/assy-prod-test/index.rst b/docs/solutions/reference-designs/eval-cn0566-rpiz/assy-prod-test/index.rst
@@ -0,0 +1,90 @@
+.. _cn0566_assy_prod_test:
+
+CN0566 Assembly and Production Test
+===================================
+
+Assembly and Production Test Procedure for CN0566 (ADALM-PHASER)
+
+.. video:: https://youtu.be/WR1DHfraLf8
+
+Assembly
+--------
+
+1. Install the u.fl cables as shown. Ensure that the connector is aligned
+   before seating, and use a flat surface to press, such as an unused pencil
+   eraser: 
+
+   .. figure:: u_fl_cables.jpg
+    :width: 600 px
+
+2. Install the 40-pin M-F extender on the reverse side of the board. Place the
+   board on stiff antistatic foam while doing this, and use a steady, even
+   pressure. 
+
+   .. figure:: rpi_riser.jpg
+    :width: 600 px
+
+3. Install a 22mm M-F standoff and 12mm M-F standoff as shown below. The
+   threads from the 22mm standoff enter from the reverse side of the board.
+
+  .. figure:: standoff_stackup.png
+
+4. Install the camera mount using two 3mm pan head screws as shown. Do not over-tighten.
+
+  .. figure:: camera_mount.jpg
+
+5. Install the four tall standoffs from the top side of the board, at the four
+   corners. 
+
+6. Prepare the ADALM-PLUTO:
+
+    - Remove the board from the enclosure, leaving the SMA panel intact
+    - Solder the 14-pin header as noted.
+
+  .. figure:: pluto_prep.jpg
+
+7. Mount the ADALM-Pluto from the top side of the board. Note that the
+   threaded ends of the standoff will need to be flexed slightly. Secure with 4x
+   M2.5 nylon nuts.
+
+8. Connect the U.FL cables to the ADALM-PLUTO as shown:
+
+    - The previously installed RX2 cable from the CN0566 board to Pluto RX2A
+    - Snap the second cable onto the SMA to U.FL adapter.
+    - Snap the other end of the second cable onto Pluto TX2A, then snake the
+      adapter between the Pluto and CN0566, thread onto CN0566 TX_IN SMA.
+    - Install a 90-degree SMA adapter onto CN0566 J1 as shown, facing downward.
+
+  .. figure:: pluto_u_fls.jpg
+
+
+9. Connect the 14-pin ribbon cable between CN0566 and Pluto as shown:
+
+  .. figure:: ribbon_cable_installation.jpg
+
+10. Mount the Raspberry Pi from the reverse side of the board. Use 4x M2.5 x 4mm pan head screws to secure.
+
+Test
+----
+
+- Place the Vivaldi antenna / Selfie-Stick directly above the assembly as shown.
+  The antenna should aim directly down at the center of the array.
+- Plug a micro HDMI to HDMI cable into the Raspberry Pi HDMI connector closest
+  to the USB-C power input.
+- Insert a pre-prepared SD card into the Raspberry Pi. (See below for
+  preparation instructions).
+- Plug a keyboard into one of the remaining USB ports on the Raspberry Pi 
+  (A mouse is optional).
+- Connect a 3 amp USB-C power adapter to the power input on the CN0566. The
+  Raspberry Pi will boot.
+- Create an SD card by following the instructions here:
+  :ref:`quickstart <cn0566_quickstart>`
+- Type the following command:
+
+  ::
+
+    cd ~/pyadi-iio/examples/phaser
+    python3 phaser_prod_tst.py
+
+- Then press enter. The test script will automatically run and print pass/fail
+  results.
diff --git a/docs/solutions/reference-designs/eval-cn0566-rpiz/assy-prod-test/pluto_prep.jpg b/docs/solutions/reference-designs/eval-cn0566-rpiz/assy-prod-test/pluto_prep.jpg
diff --git a/docs/solutions/reference-designs/eval-cn0566-rpiz/assy-prod-test/pluto_u_fls.jpg b/docs/solutions/reference-designs/eval-cn0566-rpiz/assy-prod-test/pluto_u_fls.jpg
diff --git a/...reference-designs/eval-cn0566-rpiz/assy-prod-test/ribbon_cable_installation.jpg b/...reference-designs/eval-cn0566-rpiz/assy-prod-test/ribbon_cable_installation.jpg
diff --git a/docs/solutions/reference-designs/eval-cn0566-rpiz/assy-prod-test/rpi_riser.jpg b/docs/solutions/reference-designs/eval-cn0566-rpiz/assy-prod-test/rpi_riser.jpg
diff --git a/...olutions/reference-designs/eval-cn0566-rpiz/assy-prod-test/standoff_stackup.png b/...olutions/reference-designs/eval-cn0566-rpiz/assy-prod-test/standoff_stackup.png
diff --git a/docs/solutions/reference-designs/eval-cn0566-rpiz/assy-prod-test/u_fl_cables.jpg b/docs/solutions/reference-designs/eval-cn0566-rpiz/assy-prod-test/u_fl_cables.jpg
diff --git a/...ions/reference-designs/eval-cn0566-rpiz/hardware-guide/2-23-2023_4-08-38_pm.png b/...ions/reference-designs/eval-cn0566-rpiz/hardware-guide/2-23-2023_4-08-38_pm.png
diff --git a/...ions/reference-designs/eval-cn0566-rpiz/hardware-guide/2-23-2023_4-26-39_pm.png b/...ions/reference-designs/eval-cn0566-rpiz/hardware-guide/2-23-2023_4-26-39_pm.png
diff --git a/...ions/reference-designs/eval-cn0566-rpiz/hardware-guide/2-23-2023_4-37-00_pm.png b/...ions/reference-designs/eval-cn0566-rpiz/hardware-guide/2-23-2023_4-37-00_pm.png
diff --git a/docs/solutions/reference-designs/eval-cn0566-rpiz/hardware-guide/cn0566-design-files.zip b/docs/solutions/reference-designs/eval-cn0566-rpiz/hardware-guide/cn0566-design-files.zip
diff --git a/docs/solutions/reference-designs/eval-cn0566-rpiz/hardware-guide/ex1.png b/docs/solutions/reference-designs/eval-cn0566-rpiz/hardware-guide/ex1.png
diff --git a/docs/solutions/reference-designs/eval-cn0566-rpiz/hardware-guide/ex2.png b/docs/solutions/reference-designs/eval-cn0566-rpiz/hardware-guide/ex2.png
diff --git a/docs/solutions/reference-designs/eval-cn0566-rpiz/hardware-guide/ex3.png b/docs/solutions/reference-designs/eval-cn0566-rpiz/hardware-guide/ex3.png
diff --git a/docs/solutions/reference-designs/eval-cn0566-rpiz/hardware-guide/index.rst b/docs/solutions/reference-designs/eval-cn0566-rpiz/hardware-guide/index.rst
@@ -0,0 +1,161 @@
+.. _cn0566_hardware:
+
+CN0566 Hardware User Guide
+===========================
+
+:adi:`CN0566` is a phased-array beamforming antenna demonstration
+platform that allows the user to experience the principles and applications of
+phased array antennas.
+
+The RF input signal is received from an onboard 8-element patch antenna that
+operates from 10GHz to 10.5GHz. Each antenna element is input to an
+:adi:`ADL8107`, a low noise amplifier (LNA) that operates from
+6GHz to 18GHz with 1.3dB NF and 24dB gain. The output of these amplifiers is fed into
+the main core of this circuitry, two of the :adi:`ADAR1000`. The
+:adi:`ADAR1000` is an 8GHz to 16GHz, 4-Channel, beamformer that
+allows per-channel, 360° phase adjustment with 2.8° resolution, and 31dB gain
+adjustment with 0.5dB resolution. The ADAR1000s are capable of bidirectional,
+half-duplex operation. However, :adi:`CN0566` only connects the
+ADAR1000 receive paths. The outputs of four LNAs get phase and amplitude shifted
+by an :adi:`ADAR1000`, then summed together at its RFIO output.
+
+The ADAR1000’s RFIO output passes through a low pass filter before entering the
+:adi:`LTC5548` mixer. The low pass filter removes the high side image
+of the mixer as well as any re-radiation of the high side LO.
+:adi:`LTC5548` outputs an IF of approximately 2.2 GHz which passes
+through a low pass filter (LPF) to remove mixer spurs and attenuate any RF or LO
+leakage. The LPF’s output, at Rx1 and Rx2, can then be mixed down and sampled by
+an external 2-channel SDR receiver, such as the ADALM-PLUTO.
+
+The system consists of the EVAL-CN0566-RPIZ, Raspberry Pi 3 or 4 running ADI
+Kuiper Linux, an ADALM-Pluto Rev. C, 5V power source, and either
+keyboard/mouse/monitor OR separate host connected via VNC. The Raspberry Pi 4
+provides all SPI, I2C, and discrete digital I/O control signals.
+
+.. figure:: 2-23-2023_4-26-39_pm.png
+
+  EVAL-CN0566-RPIZ Hardware
+
+Features
+--------
+
+- Provides CN0566 software control via Raspberry Pi w/ Kuiper Linux
+- Includes a 10GHz to 10.5GHz onboard antenna array design but with the option to
+  connect your own antenna
+- Supports applications running GNU Radio, Python, or MATLAB
+
+Videos
+------
+
+.. video:: https://www.youtube.com/watch?v=0hnWfTvETcU
+
+Documents Needed
+----------------
+
+- :adi:`CN0566` Circuit Note
+
+Equipment Required
+------------------
+
+**Hardware**
+
+  - EVAL-CN0566-RPIZ Board
+  - Raspberry Pi 4
+  - ADALM-PLUTO
+  - 5V, 3A, USB-C wall adapter
+  - HB100 microwave source
+  - Micro HDMI to HDMI adaptor
+  - HDMI to HDMI cable
+  - 16GB or larger SD card
+  - USB keyboard and mouse
+  - Monitor with HDMI display
+  - Tripod
+
+**Software**
+
+  - ADI Kuiper Linux image
+
+Block Assignments
+-----------------
+
+.. figure:: 2-23-2023_4-08-38_pm.png
+
+  EVAL-CN0566-RPIZ Circuit Evaluation Block Assignment
+
+- Connector **P1** is the 14-pin header for connection to ADALM-Pluto
+- Connector **P16** is the type C port for the supply
+- Connector **RX1** is the SMA connector for RX1 output
+- Connector **RX2** is the SMA connector for RX2 output
+- Connector **TX_IN** is the SMA connector for TX input
+- Connector **TX_OUT_1** is the SMA connector for the first TX output
+- Connector **TX_OUT_2** is the SMA connector for the second TX output
+- Connector **LO_OUT** is the SMA connector for the LO output
+- Connector **EXT_LO** is the SMA connector for external LO input
+- Connector **J3 to J10** are the footprints for SMP connectors in case an
+  external antenna is to be used
+
+Running the System
+------------------
+
+.. figure:: 2-23-2023_4-37-00_pm.png
+
+  Test Setup Functional Block Diagram
+
+#. Connect ADALM-Pluto to Raspberry Pi via micro-USB to USB cable.
+#. Connect the Raspberry Pi to the monitor via the HDMI cable.
+#. Connect the keyboard and mouse to the USB port of Raspberry Pi.
+#. Follow the Phaser Quick Start Guide here:
+   `quickstart </resources/eval/user-guides/circuits-from-the-lab/cn0566/quickstart>`__
+
+
+CN0566 Configuration/Setup Examples
+-----------------------------------
+
+.. figure:: ex1.png
+
+.. figure:: ex2.png
+
+.. figure:: ex3.png
+
+More Information and Useful Links
+---------------------------------
+
+- :adi:`CN0566 Circuit Note Page <CN0566>`
+- :adi:`ADAR1000 Product Page <ADAR1000>`
+- :adi:`ADF4159 Product Page <ADF4159>`
+- :adi:`ADRF5019 Product Page <ADRF5019>`
+- :adi:`ADL8107 Product Page <ADL8107>`
+- :adi:`HMC654LP2E Product Page <HMC654LP2E>`
+- :adi:`AD8065 Product Page <AD8065>`
+- :adi:`LTC5548 Product Page <LTC5548>`
+- :adi:`ADM7170 Product Page <ADM7170>`
+- :adi:`AD7291 Product Page <AD7291>`
+- :adi:`LT3460 Product Page <LT3460>`
+- :adi:`ADP7158 Product Page <ADP7158>`
+- :adi:`HMC652 Product Page <HMC652-die>`
+- :adi:`HMC735 Product Page <HMC735>`
+- :adi:`LTC4217 Product Page <LTC4217>`
+- :adi:`LT8609S Product Page <LT8609S>`
+- :adi:`ADM7150 Product Page <ADM7150>`
+- :adi:`ADP7118 Product Page <ADP7118>`
+
+Schematic, PCB Layout, Bill of Materials, Casing
+------------------------------------------------
+
+.. admonition:: Download
+
+  :download:`EVAL-CN0566-RPIZ Design & Integration Files <cn0566-design-files.zip>`
+
+  - Schematics
+  - PCB Layout
+  - Bill of Materials
+  - Assembly Drawing
+  - Allegro Project
+
+Additional Information
+----------------------
+
+- `pyADI-IIO <https://github.com/analogdevicesinc/pyadi-iio>`__
+- :ref:`PyADI-IIO Installation Guide <pyadi-iio>`
+- :dokuwiki:`IIO Oscilloscope Installation Guide </resources/tools-software/linux-software/iio_oscilloscope>`
+- :dokuwiki:`Kuiper Linux </resources/tools-software/linux-software/kuiper-linux>`