Wiki

Analog Devices Wiki

English
English
简体中文
简体中文
日本語
日本語
Руccкий
Руccкий

Differences

This shows you the differences between two versions of the page.

Link to this comparison view

Both sides previous revisionPrevious revision
Next revision		Previous revision
resources:eval:user-guides:circuits-from-the-lab:cn0566 [16 Feb 2022 01:20] – Add custom Pluto firmware, update instructions Mark Thorenresources:eval:user-guides:circuits-from-the-lab:cn0566 [15 Jun 2023 20:52] (current) – [Phased Array Software] Dongmin Lee
Line 1: Line 1:
-======EVAL-CN0566-RPIZ Overview======+====== CN0566 Phased Array 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. +===== Introduction =====
  
-The RF input signal is received from an onboard 8 element patch antenna that operates from 10 to 10.5 GHz. Each antenna element is input to an [[ADI>ADL8107]], a low noise amplifier (LNA) that operates from 6-18GHz with 1.3dB NF and 24 dB gain. The output of these amplifiers are fed into the main core of this circuitry, two of the [[ADI>ADAR1000]]. The [[ADI>ADAR1000]] is an 8 GHz to 16 GHz, 4-Channel, beamformer that allow 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. +Phased array communications and radar systems are finding increased use in a variety of applications. This places a greater importance on training engineers and rapidly prototyping new phased array concepts. However, both those imperatives have historically been difficult and expensive. That is why Analog Devices launched the ADALM-PHASER.  It is a low cost, simplified phased array radar which allows real beamforming hardware to be used for education, project proposals, and even software development.\\ 
 +Most of the labs are run on a Python GUI, with several helper scripts. These can be run on a remote host computer, or directly on the phaser's Raspberry Pi computer with the addition of a keyboard, mouse, and display.\\ 
 +For more advanced application development, the Phaser is also supported in the MATLAB RF Microwave Toolbox. Equivalent MATLAB lab exercises are in development, and will be added below as they are completed.
  
-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. +{{ :resources:eval:user-guides:circuits-from-the-lab:cn0566:phaser_with_topics.png?600 |}}
- +
-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. \\ +
- +
-{{ :resources:eval:user-guides:circuits-from-the-lab:cn0566:cn0566_complete_array.jpg?direct&400 |}}+
  
 +Here is a brief video introduction to beamforming and the Phased Array Platform:
 <WRAP centeralign> <WRAP centeralign>
-<fc>Figure 1. EVAL-CN0566-RPIZ Circuit Evaluation Board, array/Raspberry Pi side</fc>+{{youtube>dUn2_fiOh94?large}}
 </WRAP> </WRAP>
 +
 +===== Quick Start Guide =====
 +  * There are a few steps that need to be performed before diving into the lab exercises. Please visit the **[[:resources:eval:user-guides:circuits-from-the-lab:cn0566:quickstart|Quick Start Guide]]**.
 \\ \\
-{{ :resources:eval:user-guides:circuits-from-the-lab:cn0566:cn0566_complete_top.jpg?direct&400 |}} +===== Phased Array Hardware =====
-<WRAP centeralign> +
-Figure 2. EVAL-CN0566-RPIZ Circuit Evaluation Board, RF circuitry/Pluto side +
-</WRAP>+
  
----- +  * To get acquainted with the hardware, see the **[[resources:eval:user-guides:circuits-from-the-lab:cn0566:overview_setup|Phaser Hardware Overview]]** page.
-===== Features ===== +
-  * Provides CN0566 software control via Raspberry Pi w/ Kuiper Linux +
-  * Includes an 10-10.5 GHz onboard antenna array design but with option to connect your own antenna +
-  * Supports applications running GNURadio, Python, or MATLAB+
  
-===== Videos =====+===== Phased Array Software ======
  
-{{youtube>0hnWfTvETcU?medium}}+There are several pieces of software used with the CN0566 Phaser, including a user-friendly Graphical User Interface (GUI) and a number of command-line utilities. This page describes the various pieces of software:
  
-===== Documents Needed =====+  * **[[resources:eval:user-guides:circuits-from-the-lab:cn0566:software|Phaser Software guides (GUI and CLI utilities)]]** 
 +  * **[[:phaser_matlab|Phaser Software guide for MATLAB]]** 
 +===== Phased Array Assembly and Testing ======
  
-  * [[ADI>CN0566]] Circuit Note+The phaser ships fully assembled and ready to go. Should you need to re-assemble a disassembled board, or do a quick functionality test, refer to this page:
  
-===== Equipment Required ===== +  * **[[resources:eval:user-guides:circuits-from-the-lab:cn0566:assy_prod_test|CN0566 Assembly and Production Test]]**
-  * **Hardware** +
-    * EVAL-CN0566-RPIZ Circuit Evaluation Board +
-    * Raspberry Pi 4 +
-    * 15.3W USB-C Power Supply  +
-    * SMA cables +
-    * Monitor with HDMI display +
-    * Micro HDMI to HDMI adaptor +
-    * HDMI to HDMI cable +
-    * 16GB or larger SD card +
-    * USB keyboard and mouse +
-  * **Software** +
-    * ADI Kuiper Linux image +
-\\ +
----- +
-===== Block Assignments =====+
  
-<wrap center 50%> +===== Labs and Lectures =====
-//<fc>Figure 2. EVAL-CN0566-RPIZ Circuit Evaluation Board Top View</fc>// +
-</wrap> +
-\\ +
-{{ :resources:eval:user-guides:circuits-from-the-lab:cn0508:tbd.png?nolink&350 | EVAL-CN0566-RPIZ Circuit Evaluation Board Side View}} +
-<wrap center 50%> +
-//<fc>Figure 3. EVAL-CN0566-RPIZ Circuit Evaluation Board Side View</fc>// +
-</wrap> +
-\\ +
-  * Connector **P1** is the 14 pin header for connection to ADALM-Pluto +
-  * Connector **P2** is the 40 pin connector for Raspberry Pi 4 +
-  * 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 first TX output +
-  * Connector **TX_OUT_2** is the SMA connector for second TX output +
-  * Connector **LO_OUT** is the SMA connector for LO output +
-  * Connector **EXT_LO** is the SMA connector for external LO input +
-  * Connector **P11** is the TR pins of ADAR1000s +
-  * Connector **J3 to J10** are the footprints for SMP connectors in case external antenna is to be used +
-  * Potentiometer **R43** is the manual control of output voltage +
-  * Potentiometer **R14** is the manual control of output current limit +
-  * Header **P12** contains the output signal for the fan control +
-\\ +
----- +
-===== Running the System =====  +
-{{ :resources:eval:user-guides:circuits-from-the-lab:cn0508:tbd.png?nolink&350 | Figure 4. Test Setup Functional Block Diagram}} +
-<wrap center 50%> +
-//<fc #c0c0c0>Figure 4. Test Setup Functional Block Diagram</fc>// +
-</wrap> +
-  - Set solder jumpers for the desired settings.  +
-  - Proceed with the [[/resources/eval/user-guides/circuits-from-the-lab/cn0566#hardware_setup | hardware setup]]. Ensure the power supply  Raspberry Pi are connected properly +
-  - Burn the SD card with the latest ADI Kuiper Linux image. Insert the flashed SD card on designated slot on Raspberry Pi. +
-  - Turn on the input supply. Wait for the Raspberry Pi to boot up. +
-  - Open terminal and configure the device tree overlay file. See [[/resources/eval/user-guides/circuits-from-the-lab/cn0566#software_setup | software section]] for detailed instructions. Make sure to reboot the Raspberry Pi after saving the //config.txt// file. +
-  - Wait for the Raspberry Pi to boot up again. +
  
-<fc #ff0000>**TO BE EDITED**</fc>+{{ :resources:eval:user-guides:circuits-from-the-lab:cn0566:phasers_to_fun.png?direct&800 |}}
  
-\\ +The ADALM-PHASER is meant for you to experience, first hand, phased array beamforming and radar concepts.  But to go along with the hardware, we’ve put together a series of short lectures followed by hands-on labs that you can perform with your own Phaser. A complete, printable lab manual is available here: 
----- +<WRAP round 80% download> 
-===== Solder Jumper Settings and Configuration===== +**{{ :resources:eval:user-guides:circuits-from-the-lab:cn0566:phaser_lab_instructions_june14_2022_no_title.docx |Printable Phaser Lab Instructions (DOCX)}}**
-The [[ADI>CN0566]] has jumper headers which configure different settings as shown below. Also, the default shunt positions are highlighted.\\ +
-{{ :resources:eval:user-guides:circuits-from-the-lab:cn0508:tbd.png?nolink&350 | EVAL-CN0566-RPIZ Evaluation Board Solder Jumper Guide}} +
-<wrap center 50%> +
-//<fc #c0c0c0>Figure 5. EVAL-CN0566-RPIZ Evaluation Board Solder Jumper Guide</fc>// +
-</wrap>\\+
  
-<wrap center 50%> +**{{ :resources:eval:user-guides:circuits-from-the-lab:cn0566:phaser_lab_instructions_june14_2022_no_title.pdf |Printable Phaser Lab Instructions (PDF)}}** 
-<fc #ff0000>**TO BE EDITED**</fc> +</WRAP>
-</wrap>+
  
-\\ +The expanded list of topics is as follows:
-===EEPROM_ID: EEPROM Address Selection=== +
-EEPROM_ID sets the EEPROM I2C address. It consists of P4, P5 and P6 solder jumpers connected respectively to A2, A1 and A0 address selection pins of U7. The default address configuration is “111”. This EEPROM I2C address is configurable from 001 to 111. It cannot be set to "000" since U4 already uses this address for RPi HAT identification. +
-^   A0    ^   A1    ^   A2    ^   Address Set   ^  +
-|   0     |   0     |   1     |      0x51       | +
-|   0     |   1     |   0     |      0x52       | +
-|   0     |   1     |   1     |      0x53       | +
-|   1     |   0     |   0     |      0x54       | +
-|   1     |   0     |   1     |      0x55       | +
-|   1     |   1     |   0     |      0x56       | +
-|   1     |   1     |   1     |      0x57       | +
-\\ +
----- +
-===== Hardware Setup ===== +
-==== Setting up and Connecting the Raspberry Pi ==== +
-The output display of the system will be through an external monitor with HDMI capability. To do this, connect the micro HDMI to HDMI adapter on the Raspberry Pi 4 HDMI port. Connect this to the monitor via the HDMI to HDMI cable. +
-{{ :resources:eval:user-guides:circuits-from-the-lab:cn0508:tbd.png?nolink&300 | Hardware connection of Raspberry Pi to Monitor Display}} +
-<wrap center 50%> +
-//<fc #c0c0c0>Figure 6. Hardware connection of Raspberry Pi to Monitor Display</fc>// +
-</wrap>\\ +
-Connect an USB mouse and keyboard on the USB port of the Raspberry Pi Zero W. This shall allow us to control the Raspberry Pi upon boot up. +
-{{ :resources:eval:user-guides:circuits-from-the-lab:cn0508:tbd.png?nolink&300 | Hardware connection of Input Devices to Raspberry Pi}} +
-<wrap center 50%> +
-//<fc #c0c0c0>Figure 7. Hardware connection of Input Devices to Raspberry Pi</fc>// +
-</wrap>\\ +
-Raspberry Pi connects to the EVAL-CN0508-RPIZ through P2 which is a 40-pin connector. You may do this directly by connecting the RPi on the bottom side of the connector or through a 40-pin ribbon cable. +
-{{ :resources:eval:user-guides:circuits-from-the-lab:cn0508:tbd.png?nolink&300 | Hardware connection of CN0566 Board and Raspberry Pi}} +
-<wrap center 60%> +
-//<fc #c0c0c0>Figure 8. Hardware connection of EVAL-CN0566-RPIZ and Raspberry Pi Zero W</fc>// +
-</wrap>\\ +
-\\ +
-==== Input Supply ==== +
-Power to the EVAL-CN0566-RPIZ can be connected through P16. P16 is a 3.0A USB-C receptacle. +
-{{ :resources:eval:user-guides:circuits-from-the-lab:cn0508:tbd.png?nolink&300 | Hardware Connection of Input Power Supply to CN0566 Evaluation Board}} +
-<wrap center 60%> +
-//<fc #c0c0c0>Figure 9. Hardware Connection of Input Power Supply to EVAL-CN0566-RPIZ</fc>// +
-</wrap>\\ +
-\\ +
-==== Output connections ==== +
-Connect an ADALM-Pluto on RX1 or RX2 to process the output of CN0566 +
-{{ :resources:eval:user-guides:circuits-from-the-lab:cn0508:tbd.png?nolink&300 | EVAL-CN0566-RPIZ Evaluation Board Output Connections}} +
-<wrap center 50%> +
-//<fc #c0c0c0>Figure 10. EVAL-CN0566-RPIZ Evaluation Board Output Connections</fc>// +
-</wrap>\\ +
-\\+
  
----- +  * Phaser Hardware Overview, Software Setup, and Frequency Plan 
-===== Software Setup ===== +    * **[[resources:eval:user-guides:circuits-from-the-lab:cn0566:overview_setup|Phaser Hardware Overview]]** 
-==== Loading CN0566 Image on SD Card ==== +    * Lecture Video 
-In order to control the CN0566 from the Raspberry Pi, you will need to install ADI Kuiper Linux on an SD card. Complete instructions, including where to download the SD card image, how to write it to the SD card, and how to configure the system are provided at **[[resources:tools-software:linux-software:adi-kuiper_images| Analog Devices Kuiper Linux]]**. +      * {{youtube>-Vqbgf0MjPk?small}}
-\\ +
-<WRAP todo> +
-REMOVE when Kuiper 12/13/2022 RC released.\\ +
-For now, use this release candidate:\\ +
-[[https://swdownloads.analog.com/cse/kuiper/image_2021-12-13-ADI-Kuiper-full.zip|image_2021-12-13-ADI-Kuiper-full.zip]] +
-</WRAP> +
-Write the image and follow the system configuration procedure. +
-==== Configuring the SD Card ==== +
-Follow the Hardware Configuration procedure under **Preparing the Image: Raspberry Pi** in the [[resources:tools-software:linux-software:adi-kuiper_images|Analog Devices Kuiper Linux]] page, adding the following lines to the very end of **/boot/config.txt**:+
  
-<code> +  * Basics of SDR and Beamforming Control 
-# Phaser board overlay: +    * **[[resources:eval:user-guides:circuits-from-the-lab:cn0566:basic_example|Lab: Controlling the Phaser with Python]]** 
-dtoverlay=rpi-cn0566+    * **[[resources:eval:user-guides:circuits-from-the-lab:cn0566:matlab_basic_example|Lab: Controlling the Phaser with MATLAB]]** 
 +    * Lecture Video 
 +      * {{youtube>jBGzOlThpRE?small}} 
 +    * Lab Video 
 +      * {{youtube>5lihNPh4Rm0?small}}
  
-# Heartbeat blinky: +  * Phased Array Beam Steering 
-dtparam=act_led_trigger=heartbeat+    * **[[resources:eval:user-guides:circuits-from-the-lab:cn0566:steering_angle|Lab Material]]** 
 +    * Lecture and Lab Video 
 +      * {{youtube>AKmxmQUwYw0?small}}
  
-# Short GPIO21 (pin 40) to ground for shutdown: +  * Phased Array Antenna Patterns 
-dtoverlay=gpio-shutdown,gpio_pin=21,active_low=1,gpiopull=up +    * **[[resources:eval:user-guides:circuits-from-the-lab:cn0566:antenna_patterns|Lab Material]]** 
-</code>+    * Lecture and Lab Video 
 +      * {{youtube>UQgmtWChNfM?small}}
  
-<WRAP todo> +  * Sidelobes and Beam Tapering 
-REMOVE this when merged:\\ +    * **[[resources:eval:user-guides:circuits-from-the-lab:cn0566:sidelobes_tapering|Lab Material]]** 
-For now - the CN0566 overlay is not yet merged to master or included in the latest Kuiper Linux image. Copy this file to /boot/overlays (this can be done from Windows, Linux, Mac. If your computer has drive encryption, you can do this from within the Raspberry Pi itself.)\\ +    * Lecture and Lab Video 
-[[https://github.com/mthoren-adi/devicetree_overlays/raw/main/rpi-cn0566.dtbo|CN0566 Device Tree Overlay]]\\ +      * {{youtube>be_5D4eNtCY?small}}
-Or from the Raspberry Pi command line: +
-<code> +
-wget https://github.com/mthoren-adi/devicetree_overlays/raw/main/rpi-cn0566.dtbo +
-sudo cp rpi-cn0566.dtbo /boot/overlays +
-sudo reboot +
-</code>+
  
-</WRAP>+  * Grating Lobes 
 +    * **[[resources:eval:user-guides:circuits-from-the-lab:cn0566:grating_lobes|Lab Material]]** 
 +    * Lecture and Lab Video 
 +      * {{youtube>qksh4lGysbI?small}}
  
-===== Pluto Setup =====+  * Beam Squint 
 +    * **[[resources:eval:user-guides:circuits-from-the-lab:cn0566:beam_squint|Lab Material]]** 
 +    * Lecture and Lab Video 
 +      * {{youtube>LYVD014ClZI?small}}
  
-A Pluto Rev C or higher is required. For the CN0566, a custom firmware image is used that incorporates a TDD engine and additional control signals.+  * Quantization Sidelobes 
 +    * **[[resources:eval:user-guides:circuits-from-the-lab:cn0566:quantization_sidelobes|Lab Material]]** 
 +    * Lecture and Lab Video 
 +      * {{youtube>51O5FLVZE4c?small}}
  
-<WRAP todo> +  * Analog, Digital, and Hybrid Beamforming 
-REMOVE this when it's got a proper home on Github releases\\ +    * **[[resources:eval:user-guides:circuits-from-the-lab:cn0566:hybrid_beamforming|Lab Material]]** 
-The first step is to update the firmware to the latest release, following the procedure at:\ +    * Lecture and Lab Video 
-[[https://wiki.analog.com/university/tools/pluto/users/firmware | Pluto/M2k Firmware Updates]]. Make sure to upload the entire zip file, not the pluto.frm contained within.\\ +      * {{youtube>hMiJs2NdXZY?small}}
-Next, download and unzip the updated firmware image, located here:\\ +
-{{ :resources:eval:user-guides:circuits-from-the-lab:cn0566:pluto_dw_feb_7_2022.zip |}}\\ +
-(**Yes**, unzip, UNlike upgrading to the latest release.)\\ +
-Drag and drop the pluto_DW_feb_7_2022.frm to the Pluto mass storage device, then eject.\\ +
-</WRAP>+
  
-The next step is to update the Pluto configuration to enable the AD9361's second channel. Follow the directions at:\\ +  * Monopulse Tracking 
-[[university:tools:pluto:users:customizing#updating_to_the_ad9364|Updating to the AD9364, ]]\\ +    * **[[resources:eval:user-guides:circuits-from-the-lab:cn0566:monopulse_tracking|Lab Material]]** 
-For //**setting the mode of a Rev. C PlutoSDR to 2r2t, the following would be sequence of commands:**//\\+    * Lecture and Lab Video 
 +      * {{youtube>hZDopcNjVzY?small}}
  
-Verify that the configuration was programmed properly by entering the following commands: +  * Radar:  Simple FMCW 
-<code> +    * **[[resources:eval:user-guides:circuits-from-the-lab:cn0566:fmcw_radar|Lab Material]]** 
-fw_printenv attr_name +    * Lecture and Lab Video 
-fw_printenv attr_val +      * {{youtube>CXSbLQgRFAA?small}}
-fw_printenv compatible +
-fw_printenv mode +
-</code> +
-Wihich should return: +
-<code> +
-# fw_printenv attr_name +
-attr_name=compatible +
-# fw_printenv attr_val +
-attr_val=ad9361 +
-# fw_printenv compatible +
-compatible=ad9361 +
-# fw_printenv mode +
-mode=2r2t +
-# +
-</code>+
  
 +  * Radar:  CFAR, Range Normalization, Clutter Suppression, and Range/Velocity
 +    * Lab Material (Coming Soon)
 +    * Lecture Video (Coming Soon)
 +    * Lab Video (Coming Soon)
  
  
-\\ +===== Additional Resources =====
-\\ <WRAP center round tip 50%>Make sure to have the latest version of IIO Oscilloscope. Complete instructions and update scripts are found at **[[resources:tools-software:linux-software:iio_oscilloscope| Analog Devices IIO Oscilloscope]]**. </WRAP>\\  +
----- +
-===== CN0566 Configuration/Setup Examples ===== +
-{{ :resources:eval:user-guides:circuits-from-the-lab:cn0566:ex1.png?nolink&750 |}}\\ +
-{{ :resources:eval:user-guides:circuits-from-the-lab:cn0566:ex2.png?nolink&750 |}}\\ \\ +
-{{ :resources:eval:user-guides:circuits-from-the-lab:cn0566:ex3.png?nolink&750 |}}\\ +
-{{ :resources:eval:user-guides:circuits-from-the-lab:cn0566:ex4.png?nolink&700 |}} +
-\\ +
----- +
-===== More Information and Useful Links  =====+
  
-  * [[adi>media/en/reference-design-documentation/design-integration-files/CN0566-DesignSupport.zip|CN0566 Design Support Package]] +This series is partially derived from several sources that also provide valuable background information. 
-  * [[ADI>CN0566|CN0566 Circuit Note Page]] +  * Analogue Dialogue Phased array paper series: 
-  * [[ADI>ADAR1000|ADAR1000 Product Page]] +    * [[adi>en/analog-dialogue/articles/phased-array-antenna-patterns-part1.html|Phased Array Antenna Patterns—Part 1: Linear Array Beam Characteristics and Array Factor]]   
-  * [[ADI>ADF4159|ADF4159 Product Page]] +    * [[adi>en/analog-dialogue/articles/phased-array-antenna-patterns-part2.html|Phased Array Antenna Patterns—Part 2: Grating Lobes and Beam Squint]] 
-  * [[ADI>ADRF5019|ADRF5019 Product Page]] +    * [[adi>en/analog-dialogue/articles/phased-array-antenna-patterns-part3.html|Phased Array Antenna Patterns—Part 3: Sidelobes and Tapering]]
-  * [[ADI>ADL8107|ADL8107 Product Page]] +
-  * [[ADI>HMC654LP2E|HMC654LP2E Product Page]] +
-  * [[ADI>LT3042|LT3042 Product Page]] +
-  * [[ADI>LTC5548|LTC5548 Product Page]] +
-  * [[ADI>LT3045|LT3045 Product Page]] +
-  * [[ADI>AD7291|AD7291 Product Page]] +
-  * [[ADI>LT3461|LT3461 Product Page]] +
-  * [[ADI>ADP7158|ADP7158 Product Page]] +
-  * [[ADI>hmc655-die|HMC655 Product Page]] +
-  * [[ADI>HMC735|HMC735 Product Page]] +
-  * [[ADI>LTC4217|LTC4217 Product Page]] +
-  * [[ADI>LT8609S|LT8609S Product Page]]+
  
-===== Schematic, PCB Layout, Bill of Materials, Casing ===== +===== More Information and Useful Links  ===== 
-<WRAP round 80% download> +  * [[ADI>CN0566|CN0566 Product Page]] 
-[[adi>media/en/reference-design-documentation/design-integration-files/CN0566-DesignSupport.zip|EVAL-CN0566-RPIZ Design & Integration Files]] +  * [[:resources:eval:user-guides:circuits-from-the-lab:cn0566:software | CN0566 Software Guide]] 
-  * Schematics  +  * [[:resources:eval:user-guides:circuits-from-the-lab:cn0566:overview_setup | CN0566 Hardware Guide]]
-  * PCB Layout  +
-  * Bill of Materials  +
-  * Allegro Project +
-  * LTSpice Simulations +
-</WRAP>+
  
 //End of Document// //End of Document//
resources/eval/user-guides/circuits-from-the-lab/cn0566.1644970806.txt.gz · Last modified: 16 Feb 2022 01:20 by Mark Thoren

Page Tools