Please join us for a webinar tomorrow - July 30 at 10 AM CDT. Register here: https://info.cranksoftware.com/resources/modernize-embedded-graphics-ultra-low-power-ui-nxpcranksoftware NXP’s i.MX 7ULP applications processor, alongside Crank's Storyboard GUI design and development software, gives embedded teams the best of both worlds – rich 2D/3D performance with MCU-level low power. Join Brian Edmond and Nik Jedrzejewski to get a technical deep dive into the i.MX 7ULP and Storyboard and learn: the latest trends in graphics for battery-powered devices hardware features of the i.MX 7ULP, including the Heterogeneous Domain Computing architecture how to leverage Storyboard's hybrid rendering solution when switching between 2D and 3D graphics to minimize power consumption   PANELLISTS Brian Edmond, President, Crank Software Nik Jedrzejewski, i.MX Product Manager, NXP

Setting the host          1 - Install NFS Service on host typing: your slackware linux probably already have a version of nfs"utils installed, but if it doesn't you can get it downloading the nfs-utils from:  [1] then as root:  #installpkg nfs-utils-1.0.7-i386-1.tgz 2 - Setup exports typing: $sudo kedit /etc/exports          and add the following line: /tftpboot/ltib/ *(rw,no_root_squash,async)          3 - Restart the NFS server: $sudo /etc/rc.d/rc.rpc restart $sudo /etc/rc.d/rc.nfsd restart          Now the host is ready to use NFS.      Setting Target Linux Image to use NFS          1 - Run LTIB configuration typing: $./ltib -c 2 - On first page menu, go to "Target Image Generation -> Options".               3 - Select the option NFS only and exit LTIB configuration to compile with the new configuration.          4 - LTIB should start new compiling and create a new Linux image on /<ltib instalation folder>/rootfs/boot/zImage         5 - Copy the created image on /<ltib instalation folder>/rootfs/boot/zImage to /tftpboot/zImage 6 - The system is ready to run with NFS. The root file system on target will be located on host on /<ltib instalation folder>/rootfs/                           

Hi All, The new Android kk4.4.2_1.0.0 GA release is now available on www.freescale.com ·         Files available                Description IMX6_KK442_100_ANDROID_DOCS i.MX   6Quad, i.MX 6Dual, i.MX 6DualLite, i.MX 6Solo and i.MX 6Sololite Android   KK4.4.2_1.0.0 BSP Documentation. Includes Release Notes, User's Guide, QSG   and FAQ Sheet. IMX6_KK442_100_ANDROID_SOURCE_BSP i.MX   6Quad, i.MX 6Dual, i.MX 6DualLite, i.MX 6Solo and i.MX 6Sololite Android   KK4.4.2_1.0.0 BSP, Source Code for BSP and Codecs. IMX6_SABRE_AI_KK442_100_ANDROID_DEMO_BSP i.MX   6Quad, i.MX 6Dual, i.MX 6DualLite,  and   i.MX 6Solo  Android KK4.4.2_1.0.0 BSP   Binary Demo Files for the SABRE for Automotive Infotainment IMX6SL_EVK_KK442_100_ANDROID_DEMO_BSP i.MX 6Sololite Android KK4.4.2_1.0.0  BSP Binary Demo Files for the i.MX   6SoloLite Evaluation Kit IMX6_SABRE_SD_KK442_100_ANDROID_DEMO_BSP i.MX   6Quad, i.MX 6Dual, i.MX 6DualLite,  and   i.MX 6Solo  Android KK4.4.2_1.0.0 BSP   Binary Demo Files for the SABRE Platform and SABRE Board for Smart Devices IMX6_KK442_100_AACP_CODEC_CODA AAC Plus Codec for i.MX 6Quad, i.MX 6Dual, i.MX   6DualLite, i.MX 6Solo and i.MX 6Sololite Android KK4.4.2_1.0.0 BSP IMX6_MFG_kk4.4.2_1.0.0_TOOL i.MX 6Family Manufacturing Toolkit for kk4.4.2_1.0.0. ·         Target HW boards o   i.MX6DL  SABRE SD board o   i.MX6Q  SABRE SD board o   i.MX6DQ SABRE AI board o   i.MX6DL SABRE AI board o   i.MX6SL EVK board ·         Release Description i.MX Android kk4.4.2_1.0.0 is GA release for Android 4.4.2 Kitkat(KK) on Freescale's i.MX 6Quad, i.MX 6Dual,i.MX 6DualLite, i.MX 6Solo and i.MX 6SoloLite applications processors. i.MX Android kk4.4.2_1.0.0 release includes all necessary codes, documents and tools to assist users in building and running Android 4.4.2 on the i.MX 6Quad, i.MX 6DualLite and i.MX6SoloLite hardware board from the scratch. The prebuilt images are also included for a quick trial on Freescale i.MX 6Quad and i.MX 6DualLite SABRE-SD Board and Platform, i.MX 6Quad and i.MX 6DualLite SABRE-AI Board and Platforms and i.MX6SoloLite EVK Board and Platforms. This release includes all Freescale porting and enhancements based on Android open source code. ·         What's in this release        Android Source Code Patch android_kk4.4.2_1.0.0-ga_core_source.tar.gz:   Freescale i.MX specific patches (apply to Google Android repo) to enable   Android on i.MX based boards. For   example, Hardware Abstraction Layer implementation, hardware codec   acceleration, etc. Documents The   following documents are included in android_kk4.4.x_1.0.0-ga_docs.tar.gz •   Android Quick Start Guide: A manual that explains how to run Android on an i.MX   board by using prebuilt images. •   Android User's Guide: A detailed manual for this release package. •   Android Frequently Asked Questions: A document that contains Frequently Asked   Questions (FAQs). •   Android Release Notes: A document that introduces key updates and known   issues in this release. •   i.MX 6 G2D API User Guide: A document that introduces the G2D API usages. Tools Tools   in android_kk4.4.2_1.0.0-ga_tools.tar.gz •   MFGTool: Manufacturing tools for i.MX platform. •   tool/tetherxp.inf: USB tethering windows .inf driver configuration file. Prebuilt Images You   can test Android with a prebuilt image on i.MX reference board before   building any code: •   android_kk4.4.2_1.0.0-ga_core_image_6qsabresd.tar.gz: Prebuilt images with   default android features for the SABRE-SD board. •   android_kk4.4.2_1.0.0-ga_core_image_6qsabreauto.tar.gz: Prebuilt images with   default android features for the SABRE-AI board. •   android_kk4.4.2_1.0.0-ga_core_image_6slevk.tar.gz: Prebuilt images with   default android features for the 6SoloLite EVK platform. •   android_kk4.4.2_1.0.0-ga_full_image_6qsabresd.tar.gz: Prebuilt images with   Freescale Extended Multimedia features for the SABRE-SD board •   android_kk4.4.2_1.0.0-ga_full_image_6qsabreauto.tar.gz: Prebuilt images with   Freescale Extended Multimedia features for the SABRE-AI board. ·         Known issues For known issues and limitations please consult the release notes

Computer On Module • Processor Freescale i.MX535,1GHz/i.MX536, 800MHz • RAM 512MB/1GB DDR3 SDRAM • ROM 4GB EMMC,up to 32GB • Power supply Single 3.1V to 5.5V • Size 54mm SO-DIMM • Temp.-Range -20°C..70°C   -40°C..120°C Key Features • 10/100Mbps Ethernet • Two High Speed USB 2.0 ports • LCD controller up to 1600 x 1200, 24bpp • OpenGL ES 2.0 and OpenVG 1.1 hardware accelerators • Multi-format HD 1080p video decoder and 720p video encoder hardware engine • Two Camera Interfaces • NEON SIMD media accelerator • Unified 256KB L2 cache • Vector Floating Point Unit • Several interfaces: 3x UART, 2x SDIO, 2x SSI/AC97/I2S, I2C, CSPI, Keypad, Ext. Memory I/F • 3.3V I/O OS Support     • Linux     • Android Application:Smart mobile devices,Smart Display,Automotive Infotainment,Digital Signage, Telemedicine,Retail POS Terminal,Security,Barcode Scanner,Visual IP Phone,Patient Monitors,Surveillance Cameras,building control, factory / home automation, HMI For more information, please see Attachment We can provide a complete solution

UPDATE: Note that this document describes eIQ Machine Learning Software for the NXP L4.14 BSP release. Beginning with the L4.19 BSP, eIQ Software is pre-integrated in the BSP release and this document is no longer necessary or being maintained. For more information on eIQ Software in these releases (L4.19, L5.4, etc), please refer to the "NXP eIQ Machine Learning" chapter in the Linux User Guide for that specific release.  Original Post: eIQ Machine Learning Software for iMX Linux 4.14.y kernel series is available now. The NXP eIQ™ Machine Learning Software Development Environment enables the use of ML algorithms on NXP MCUs, i.MX RT crossover processors, and i.MX family SoCs. eIQ software includes inference engines, neural network compilers, and optimized libraries and leverages open source technologies. eIQ is fully integrated into our MCUXpresso SDK and Yocto development environments, allowing you to develop complete system-level applications with ease. Source download, build and installation Please refer to document NXP eIQ(TM) Machine Learning Enablement (UM11226.pdf) for detailed instructions on how to download, build and install eIQ software on your platform. Sample applications To help get you started right away we've posted numerous howtos and sample applications right here in the community. Please refer to eIQ Sample Apps - Overview. Supported platforms eIQ Machine learning software for i.MX Linux 4.14.y supports the L4.14.78-1.0.0 and L4.14.98-2.0.0 GA releases running on i.MX 8 Series Applications Processors. For more information on artificial intelligence, machine learning and eIQ Software please visit AI & Machine Learning | NXP.

Hi everybody, The attached document walks you through to build a Linux image for UDOO Quad board with QT5 support by using a Yocto Project build environment. The Kernel used in this process is 3.14.52. I hope you find it useful. Best regards, Carlos

Important: If you have any questions or would like to report any issues with the DDR tools or supporting documents please create a support ticket in the i.MX community. Please note that any private messages or direct emails are not monitored and will not receive a response.   These are the detailed programming aids for the registers associated with DRAM initialization (DDR3 and LPDDR2) of the MX6DQP (also known as Rev 2 or Dual/Quad Plus), and covers the Sabre_SD boards and DDR3 based Auto Infotainment board. The last work sheet tab in the tool formats the register settings for use with the ARM RealView debugger (.inc) and the DDR Stress Test. It can be manually converted, by the user, to the DS5 .ds format or to a DCD file format used by uboot or other. The programming aids were developed based on NXP development boards and can be customized by the user for their board design. This tool serves as an aid to assist with programming the DDR interface of the MX6DQP and is based on the DDR initialization scripts developed by the R&D team and no guarantees are made by this tool. The following are some general notes regarding this tool: • Refer to the "How To Use" tab in the tool as a starting point to use this tool. • This tool may be updated on an as-needed basis for bug fixes or future improvements.  There is no schedule for aforementioned maintenance. • The MX6DQP adds a new third party IP called the NoC. The programming for these registers are automatically updated in the tool given a set of user input MMDC parameters and should not be modified manually.

Here are two patchs: Patch 1: 0001-I.MX6-SSI_ASRC_P2P_Capture-for-SabreSD-board-Kernel-.patch Patch 2: 0001-I.MX6-SSI_ASRC_P2P-Capture-for-SebreSD-board.patch Patch 1 is based on patch 2.     memory <-- ASRC_Output FIFO | ASRC_Input FIFO <-- SSI_RX FIFO <-- Audio Codec                                              |           |     ASRC Out clk ASRCK1 <---|           |--->   ASRC In clk None                                              |           |     ASRC OutPut width            |           |       ASRC InPut width and data format     is set by arecord            <---|           |--->   is set by ASRC P2P parameter     parameter                          |           |                                             |           |     support 44100/48000          |           |       support 44100/48000     and S24_LE/S16_LE     <---|           |--->   and S24_LE/S16_LE    You can use:     arecord -Dhw:0,1 -c 2 -f S16_LE/S24_LE -r 44100/48000 XXX.wav     aplay XXX.wav     to test this patch.

NFS After LTIB installation, follow the instructions below to configure and build Linux Image and Root File System. TIP: Type: $./ltib --help to get more information on ltib In the folder where LTIB were installed, execute the file: $./ltib It should take some minutes to complete the installation. Configure the ltib to select the options and packages to be defined and installed in Linux Image and Root File System. $./ltib -c     or     $./ltib -m config The menu configuration should appear: To configure for use the system with NFS, go to: Target Image Generation -> Target Image -> NFS Only For basic compilation, exit LTIB. It will compile and add some pre-built packages to make the target file system.

    Attached is the SDHC DMA read supported patch, it is based on WCE600_MX51_ER_1104, it was verified on iMX51 EVK board. The SDHC DMA read can reduce the NK copy time, in this way it can speed up the WinCE boot.

Video Unit Test The BSP provides a package that allows testing of several i.MX 31 peripherals on the PDK. The name of this package is 'imx-test'.   The name of the package may vary according to SDK release, at the time of the writing SDK 1.4 was used, on SDK 1.2 the name of a similar package was 'mxc-misc'   For more information on the imx-test package refer to the SDK 1.4 manual, imx31_Linux_RM.pdf, chapter 49 - Unit Tests. This file is available on BSP tarball Testing To test the image sensor and the display on the PDK follow the steps below: Enable imx-test and util-linux packages: $ ./ltib -c Once "ltib" finishes boot the system. On the target board: $ modprobe mxc_v4l2_capture Check if /dev/video0 was created $ ll /dev/video* lrwxrwxrwx  1 root root            6 Jan 1 20:47 /dev/video -> video0 crw-rw----     1 root root    81,   0 Jan 1 20:47 /dev/video0 crw-rw----     1 root root    81, 16 Jan 1 20:46 /dev/video16 Now run the unit tests: $./mxc_v4l2_overlay.out -iw 640 -ih 480 -ow 480 -oh 640 -r 4 -fr 30 -t 10 - capture images with the sensor and display on the LCD $./mxc_v4l2_capture.out -w 640 -h 480 -r 0 -c 150 -fr 30 test3.yuv - capture images and save on /unit-tests/test3.yuv $./mxc_v4l2_output.out -iw 640 -ih 480 -ow 480 -oh 640 -d 4 -fr 60 test3.yuv - capture images and save on /unit-tests/test3.yuv   For usage syntax type: command -help. ./mxc_v4l2_output.out -help Source Code If you want to check the source code, on the host machine "ltib" install path type: $./ltib -m prep -p imx-tests Then, go to <ltib install path>/rpm/BUILD/imx-test-2.3.2/test/mxc_v4l2_test

MX6X_DDR3_调校_应用手册_V4_20150730.doc

Introduction i.MX25 PDK Board Get Started Bootloader i.MX25 PDK Board Flashing NAND i.MX25 PDK Board Flashing SD Card i.MX25 PDK Board Flashing SPI NOR I.MX25 PDK U-boot SDCard I.MX25 PDK U-boot SplashScreen I.MX25 PDK Using FEC

This steps are basically the same used to boot Linux mainline on i.MX 31 ADS, just replacing Network Driver cs89x0 by i.MX 27 internal FEC. Download Linux kernel 2.6.30: $ wget -c http://www.kernel.org/pub/linux/kernel/v2.6/linux-2.6.30.tar.bz2 Extract this: $ tar jxvf linux-2.6.30.tar.bz2 Export CROSS_COMPILE environmet: $ export PATH="$PATH:/opt/freescale/usr/local/gcc-4.1.2-glibc-2.5-nptl-3/arm-none-linux-gnueabi/bin/" $ export CROSS_COMPILE=arm-none-linux-gnueabi- Unselect all no essentials features: $ make ARCH=arm allnoconfig Start the configuration menu: $ make ARCH=arm menuconfig Change/Select the kernel options below. Select the MXC/iMX platform and iMX27ADS board: System Type ->             ARM system type -> (X) Freescale MXC/iMX-based             Freescale MXC Implementations  ->                            MXC/iMX Base Type -> (X) MX2-based                            MX2 Options  -> [*] Support MX27ADS platforms (NEW) Select ARM EABI standard to compile the kernel: Kernel Features  --->           [*] Use the ARM EABI to compile the kernel Add support to Linux Binary Format ELF: Userspace binary formats ->              [*] Kernel support for ELF binaries Add support to Network (TCP/IP): [*] Networking support  ->          Networking options  ->                           [*] Packet socket                           [*] Unix domain sockets                           [*] PF_KEY sockets                           [*] TCP/IP networking                                    [*] IP: kernel level autoconfiguration                                    [*]     IP: DHCP support Select network driver (FEC), serial driver and unselect VGA console: Device Drivers  ->                      [*] Network device support  --->                                       [*]   Ethernet (10 or 100Mbit)  --->                                              [*]   FEC ethernet controller (of ColdFire CPUs)                      Character devices  ->                              Serial drivers  --->                                       [*] IMX serial port support                                       [*]   Console on IMX serial port                      Graphics support  ->                              Console display driver support  --->                                         [ ] VGA text console Add support to NFS and support to use it as root file system: File systems  ->                           [*] Network File Systems (NEW)  ->                                    [*]   NFS client support                                    [*]     Root file system on NFS Compile the kernel: $ make ARCH=arm Copy the created zImage to tftp directory: $ cp arch/arm/boot/zImage /tftpboot/ Configure your RedBoot to boots with this kernel: load -r -b 0x100000 /tftpboot/zImage exec -b 0x100000 -l 0x200000 -c "noinitrd console=ttymxc0,115200 root=/dev/nfs nfsroot=10.29.240.191:/tftpboot/rootfs ip=dhcp" Change the default network device on RedBoot to internal FEC: Default network device: mxc_fec Connect the network cable on FEC connector (connector T3). Notes: We are using rootfs from LTIB then select to get parameters from DHCP: "Target System Configuration" Options  --->               [*] start networking                      Network setup  --->                            [*]   get network parameters using dhcp

Most i.MX8QXP/QM customers already work on L4.14.98 GA for their Auto product, like C-V2X TBOX, Car infortainment system. Some customers also want to adopt OP-TEE in their security design, but OP-TEE on i.MX8QXP/QM platform don't support HW cryptography accelerating which base on CAAM module. So I worked on the issue last week and fixed it. The package meta-optee-add-on_4.14.98_2.0.0_ga.tgz is Yocto layer which includes all patches for fixing the issue. Software environments as the belows: Linux kernel: imx_4.14.98_2.0.0_ga HW platform:  i.MX8QM/QXP MEK. How to build: 1, decompress meta-optee-add-on_4.14.98_2.0.0_ga.tgz and copy meta-optee-add-on to folder (Yocto 4.14.98_2.0.0_ga dir)/sources/ 2, Run DISTRO=fsl-imx-wayland MACHINE=imx8qxpmek source fsl-setup-release.sh -b build-optee and add BBLAYERS += " ${BSPDIR}/sources/meta-optee-add-on " into (Yocto 4.14.98_2.0.0_ga dir)/build-optee/conf/bblayers.conf  3, Run bitbake fsl-image-validation-imx. 4, You can run xtest or xtest -l 1 4007 on your MEK board to test optee crypto feature after completing build image. You can find it only take about one second comparing no CAAM accelerating when test "regression_4007.11 Generate RSA-2048 key".

This document provide an overall guide how to get started with i.MX6 development. There are several chapters: 1. how to get necessary docs from freescale website; 2. how to setup environment and build your own images;3. Hardware design consideration;4. How to get help. I hope the doc will bring you in i.MX world more easily, and hope you all have a fun in it.

This is the procedure and patch to set up Ubuntu 13.10 64bit Linux Host PC and building i.MX6x L3.0.35_4.1.0. It has been tested to build GNOME profile and with FSL Standard MM Codec for i.MX6Q SDB board. A) Basic Requirement: Set up the Linux Host PC using ubuntu-13.10-desktop-amd64.iso Make sure the previous LTIB installation and the /opt/freescale have been removed B) Installed the needed packages to the Linux Host PC $ sudo apt-get update $ sudo apt-get install gettext libgtk2.0-dev rpm bison m4 libfreetype6-dev $ sudo apt-get install libdbus-glib-1-dev liborbit2-dev intltool $ sudo apt-get install ccache ncurses-dev zlib1g zlib1g-dev gcc g++ libtool $ sudo apt-get install uuid-dev liblzo2-dev $ sudo apt-get install tcl dpkg $ sudo apt-get install asciidoc texlive-latex-base dblatex xutils-dev $ sudo apt-get install texlive texinfo $ sudo apt-get install lib32z1 lib32ncurses5 lib32bz2-1.0 $ sudo apt-get install libc6-dev-i386 $ sudo apt-get install u-boot-tools $ sudo apt-get install scrollkeeper $ sudo apt-get install gparted $ sudo apt-get install nfs-common nfs-kernel-server $ sudo apt-get install git-core git-doc git-email git-gui gitk $ sudo apt-get install meld atftpd $ sudo ln -s /usr/lib/x86_64-linux-gnu/librt.so   /usr/lib/librt.so C) Unpack and install the LTIB source package and assume done on the home directory: $ cd ~ $ tar -zxvf L3.0.35_4.1.0_130816_source. tar.gz $ ./L3.0.35_4.1.0_130816_source/install      After that, you will find ~/ltib directory created D) Apply the patch to make L3.0.35_4.1.0 could be installed and compiled on Ubuntu 13.10 64bit OS $ cd ~/ltib $ git apply 0001_make_L3.0.35_4.1.0_compile_on_Ubuntu_13.10_64bit_OS.patch What the patch is doing: a) The patch modifies the following files:    dist/lfs-5.1/base_libs/base_libs.spec    dist/lfs-5.1/m4/m4.spec    dist/lfs-5.1/ncurses/ncurses.spec b) Add the following files to the pkgs directory:    pkgs/m4-1.4.16-1383761043.patch    pkgs/m4-1.4.16-1383761043.patch.md5 E) Then, it is ready to proceed the rest of the LTIB env setup process: $ cd ~/ltib $ ./ltib -m config $ ./ltib Reference: L3.0.35_4.1.0_130816_docs/doc/mx6/Setting_Up_LTIB_host.pdf https://community.freescale.com/message/332385#332385 https://community.freescale.com/thread/271675 https://community.freescale.com/message/360556#360556 m4 compilation issue: 1. https://github.com/hashdist/hashstack/commit/f6be2a58de62327d05e052d89c9aa931d4c926b3 2. https://github.com/hashdist/hashstack/issues/81 rpm-fs package failed to build issue: https://community.freescale.com/message/355771#355771 scrollkeeper is for the gnome-desktop compilation NOTE: When compiling gstreamer, this warning was pop up.  Just ignore it seems okay.

[中文翻译版] 见附件   原文链接： https://community.nxp.com/docs/DOC-343715 

The Compatibility Test Suite Verifier is a supplement to the Compatibility Test Suite. The main difference lies in that the verifier is developed for tests that cannot run on their own so they require user input in order to be tested. These tests would include the audio quality, the touchscreen, accelerometer, camera, etc. There is no “best verifier option”, one CTS complements the other. In this document we will focus on how to perform the Verifier test. Requirements: A PC with the Android SDK installed. Your “Device Under Test” (your development board) Optional >> A second android device with compatible Wifi and Bluetooth Setup Steps: Install de Android SDK on your PC Download the appropriate CTS Verifier APK. The list of APK’s can be found here: https://source.android.com/compatibility/downloads.html Make sure that your Device Under Test has its system date and time set correctly. Install the CTS Verifier APK on the Device Under Test* For more information regarding ADB commands, follow this link: https://community.freescale.com/docs/DOC-102514 Initialization: After the setup is done, you should see the application installed: You will see the list of available tests for manual verification: Video Link : 4502 For each test, you will see detailed instructions to run it, and a “pass” and “fail” buttons. Video Link : 4530 Once you run each test, you will have the posibility to choose the outcome. (in some cases, pass/fail outcome will be determined automatically). The list of tests (for CTS Verifier 5.1_r2) is: Camera: FOV Calibration, Formats, ITS, Intents, Orientation, Video. Car: Car Dock Test Clock: Alarms and Timers Test Device Administration: Policy serialization test, screen lock test. Features: Hardware/Software feature summary Hardware: USB Accessory Test Job Scheduler: Charging constraints, connectivity constraints, idle mode constraints. Location: Battery saving mode test, location mode off test Managed provisioning: BYOD managed provisioning, device owner provisioning Networking: Bluetooth test, Wi-Fi direct test Notifications: CA Cert notification, CA Cert notificacion on boot, notification attention management, notification listener, notificacion package priority Other: Data backup, screen pinning, widget framework Projection: Projection cube, projection multitouch, projection offscreen, projection scrolling, projection video playback, projection widget Security: Keyguard password verification, SUID file scanner. Sensors: Accelerometer mearument, CTS Sensor batching, CTS Sensor integration, CTS sensor test, CTS single sensor test, magnetic field measurement, sensor batching. Streaming: Streaming video quality verifier. Exporting test results: Tap the “save disk” icon. A pop-up will show the path of the report that was created. Video Link : 4531 With the board connected to the PC through USB, pull the report using ADB: To download all reports run : adb pull /mnt/sdcard/ctsVerifierReports/ .