LPCXpresso IDE Demo This demonstration provides an overview of developing with the various components of the LPCXpresso Ecosystem, showing the main features of the LPCXpresso IDE tools, from project import/creation to multi-core debug, trace and power measurement. A variety of LPCXpresso development boards with their built in LPC-Link2 debug probes will be shown off in conjunction with the LPCXpresso IDE.  The LPCOpen peripheral drivers and examples will be used, demonstrating features of several of NXP's low power and flexible LPC MCU families     For more information : LPCXpresso IDE http://www.nxp.com/pages/:LPCXPRESSO LPCXpresso Boards http://www.nxp.com/pages/:LPCXPRESSO-BOARDS http://www.nxp.com/pages/:LPCXPRESSO-BOARDS  LPC Low Power 32-bit Microcontrollers http://www.nxp.com/pages/:LPC-ARM-CORTEX-M-MCUS     Video Link Communications Infrastructure Re: LPCXpresso IDE Dear Hiroshi Noma, the videos have been edited to fix the audio issue. Re: LPCXpresso IDE Dear Hiroshi Noma, Thanks for this feedback. We will fix the video and update it as soon as possible. Re: LPCXpresso IDE Hello. Left and Right balance of the audio of the video in the community page below is offset, which causes dizziness. There are several others with the same symptom. (I will attach ones that I had identified) Would it be possible to fix it? Best Regards, Hiroshi Noma 野間　比呂志 Senior Engineer Security & Connectivity Application Engineering Department Customer Application Engineering Division NXP Semiconductors Japan Ltd Yebisu Garden Place Tower 24F 4-20-3 Ebisu, Shibuya-ku, Tokyo 150-6024 JAPAN TEL: +81-3-6732-7867, FAX: +81-3-6732-7947 E-mail: [email protected] URL: www.nxp.com<>;

AMF-AUT-T2343 - S32K and MagniV Overview Overview of NXP’s General Purpose and Integrated Solutions (GPIS) Portfolio with focus on the S32K and S32M (MagniV) products.   Overview of NXP’s General Purpose and Integrated Solutions (GPIS) Portfolio with focus on the S32K and S32M (MagniV) products.  

Flomio EASyPOS... No checkout needed! Flomio was able to take our SLN-POS-RDR and develop their first EASyPOS prototype in 2 short months! What is an EASyPOS? EASyPOS is an item level point of sale. A light weight terminal that connects wirelessly to the payment network to securely process transactions and unlock from products for consumers to take. EASyPOS is the first of it’s kind and though placing a POS on every item may seem impractical, it offers several advantages. For one the device is able to monitor it’s location with a high degree of accuracy, guiding shoppers directly to the products they seek and consistently delivering positive purchase experiences. Also, inventory accuracy is all but guaranteed so omnichannel commerce and other popular retail trends are supported. Finally, EASyPOS has lights and sound alerts to enable smart filtering and encourage impulse buys.     How do I use it? Using the EASyPOS is —in fact— “easy”. Follow these steps to complete your purchase: - Grab the product you want to purchase.  - Place your Contactless Payment credential on the surface of the contactless payment logo and wait for 4 LEDs to blink green. EASyPOS is now disarmed. - Slide apart the magnetic halves and remove your from your purchase.     How is it built? The EASyPOS was built by Flomio, an expert in mobile NFC device design. It operates at very low power while actively monitoring for payment engagements, remote notifications, tamper attacks, and location changes throughout the retail environment. Smaller than a deck of cards, the EASyPOS is a payments certifiable device leverages the hardened security and miniaturization advances of NXP Semiconductors. It’s split in two assemblies, the top hosting active components like the freakishly loud 90dB speaker and the bottom containing the wireless recharging power system.   Short Video: https://www.youtube.com/watch?v=FQrnTWPpRHE About Flomio, Inc. Disney’s Magic Band™ technology revolutionized their theme park business. Companies eager to “Disney-fy” their businesses without their own team of imagineers and billions to invest turn to Flomio, imagineers for the rest of us. Flomio creates proximity ID solutions that help enterprise clients and developers cross the chasm to the next web, the Internet of Things (IoT). Funded by TechStars, Flomio is fundamentally changing the way people engage with the spaces around them by making proximity ID simple to integrate, easy to deploy, and fun to use. Soon, 50 billion devices will regularly connect to the internet. Flomio’s platform empowers enterprise customers and developers to create applications that communicate with these devices. The future is ubiquitous connectivity. Flomio makes sure businesses take advantage of it. Mobile

DES-N2051 Boundary Devices: Android OTA Updates When adapting Android to a custom product, system updates are a very important matter. Fortunately Android provides a reliable update mechanism which can also be customized to your needs. Learn how to use it and/or implement some customizations from the recovery image to the OTA client application. A demonstration will be featured showing different use cases on i.MX6-based hardware. When adapting Android to a custom product, system updates are a very important matter. Fortunately Android provides a reliable update mechanism which can also be customized to your needs. Learn how to use it and/or implement some customizations from the recovery image to the OTA client application. A demonstration will be featured showing different use cases on i.MX6-based hardware. Design | Software & Services

NET-N1861 NXP 商业网络加速解决方案 <meta http-equiv="Content-Type" content="text/html; charset=utf-8" /> NXP 为非虚拟化和虚拟化环境中的常见网络应用提供商业级加速解决方案。本次会议涵盖了 NXP 在 Layerscape 和 iNIC 平台上的加速解决方案前景。Layerscape 利用 LayerScape 加速输入输出处理器 (LS AIOP) 为网络和安全应用程序、交换机补充应用程序和基于 OpenFlow 的应用程序提供加速解决方案。VortiQa-IAAS（智能应用程序加速软件）提供自主 SSL 处理（SSL 终止）和 SSL 代理功能，VortiQa-IVAS（智能虚拟化加速软件）为 NFV（网络功能虚拟化）提供加速基础设施，以便在基于 QorIQ T2 的 iNIC 上的 VNF（虚拟化网络功能）中部署和管理虚拟网络和服务。VMM Offload 是一种利用 LS AIOP 的 NFV 解决方案。 <meta http-equiv="Content-Type" content="text/html; charset=utf-8" /> NXP 为非虚拟化和虚拟化环境中的常见网络应用提供商业级加速解决方案。本次会议涵盖了 NXP 在 Layerscape 和 iNIC 平台上的加速解决方案前景。Layerscape 利用 LayerScape 加速输入输出处理器 (LS AIOP) 为网络和安全应用程序、交换机补充应用程序和基于 OpenFlow 的应用程序提供加速解决方案。VortiQa-IAAS（智能应用程序加速软件）提供自主 SSL 处理（SSL 终止）和 SSL 代理功能，VortiQa-IVAS（智能虚拟化加速软件）为 NFV（网络功能虚拟化）提供加速基础设施，以便在基于 QorIQ T2 的 iNIC 上的 VNF（虚拟化网络功能）中部署和管理虚拟网络和服务。VMM Offload 是一种利用 LS AIOP 的 NFV 解决方案。 智能网络

NXP Technology Days - Barcelona - November 17, 2016 Design, Software & Services EUF-DES-T2474 - Interface Solutions  Insight & Innovation EUF-INS-T2477 - Sensor Update  Secure Connected & Automated Vehicles Advanced Analog Products for Automotive and Industrial Markets  EUF-AUT-T2475 - Analog Products  Secure Mobile, Healthcare & Wearables EUF-MHW-T2470 - Wireless Solutions  Smart Home & Buildings EUF-HMB-T2472 - Are You Ready for the Next Generation of NFC?  Smart Networks EUF-NET-T2471 - Layerscape Update 

例 MPC5777C MCAN simpleTXRX GHS616 <meta http-equiv="Content-Type" content="text/html; charset=utf-8" /> ******************************************************************************** *詳細な説明: * * MCAN が CAN メッセージを送受信するように設定します。 * * この設定では、MCAN_0 がメッセージを送信します。MCAN_1 はメッセージを受信します。 * * MCAN_0 は 1 秒ごとにメッセージを送信します。この間隔は PIT によって生成されます。 * 単一のTXバッファを使用してnバイトを送信します。メッセージ ID は、それぞれに変更されます *感染。2 つの標準 ID と 2 つの拡張 ID が送信されます。 * ※メッセージを受信する設定MCAN_1、SWポーリングが使用されます。 * 2 つの標準 ID フィルター テーブルと 2 つの拡張 ID フィルター テーブルが定義されています。クラシックフィルター *設定が設定されている、フィルタIDとマスクを意味します。 ※標準IDが一致したメッセージはRXFIFO_0に受信され、一致したメッセージは * 拡張 ID は RXFIFO_1 に保存されます。 * * EVB接続: * * J37およびJ38を位置2-3に押して、MCAN1 TX / RXをトランシーバーに接続します * * P15-1のCAN0-CANHからP14-1のCAN1-CANH * P15-2 の CAN0-CANL から P14-2 の CAN1-CANL * * * ------------------------------------------------------------------------------ ※テストHW:MPC5777C-512DS Rev.A + MPC57xx マザーボード Rev.C * MCU:PPC5777CMM03 2N45H CTZZS1521A * Fsys: PLL1 = core_clk = 264MHz, PLL0 = 192MHz *デバッガ:Lauterbach Trace32 * 対象:internal_FLASH *端末:19200-8-パリティなし-1ストップビット-eSCI_Aのフロー制御なし *ミニモジュールのUSBコネクタ(J21)を使用してください * ※EVB接続:ETPUA30(PortP P23-15)--> - > USER_LED_1(P7-1) ※ETPUA31(PortP P23-14) - >--> USER_LED_2(P7-2) * ******************************************************************************** <meta http-equiv="Content-Type" content="text/html; charset=utf-8" /> ******************************************************************************** *詳細な説明: * * MCAN が CAN メッセージを送受信するように設定します。 * * この設定では、MCAN_0 がメッセージを送信します。MCAN_1 はメッセージを受信します。 * * MCAN_0 は 1 秒ごとにメッセージを送信します。この間隔は PIT によって生成されます。 * 単一のTXバッファを使用してnバイトを送信します。メッセージ ID は、それぞれに変更されます *感染。2 つの標準 ID と 2 つの拡張 ID が送信されます。 * ※メッセージを受信する設定MCAN_1、SWポーリングが使用されます。 * 2 つの標準 ID フィルター テーブルと 2 つの拡張 ID フィルター テーブルが定義されています。クラシックフィルター *設定が設定されている、フィルタIDとマスクを意味します。 ※標準IDが一致したメッセージはRXFIFO_0に受信され、一致したメッセージは * 拡張 ID は RXFIFO_1 に保存されます。 * * EVB接続: * * J37およびJ38を位置2-3に押して、MCAN1 TX / RXをトランシーバーに接続します * * P15-1のCAN0-CANHからP14-1のCAN1-CANH * P15-2 の CAN0-CANL から P14-2 の CAN1-CANL * * * ------------------------------------------------------------------------------ ※テストHW:MPC5777C-512DS Rev.A + MPC57xx マザーボード Rev.C * MCU:PPC5777CMM03 2N45H CTZZS1521A * Fsys: PLL1 = core_clk = 264MHz, PLL0 = 192MHz *デバッガ:Lauterbach Trace32 * 対象:internal_FLASH *端末:19200-8-パリティなし-1ストップビット-eSCI_Aのフロー制御なし *ミニモジュールのUSBコネクタ(J21)を使用してください * ※EVB接続:ETPUA30(PortP P23-15)--> - > USER_LED_1(P7-1) ※ETPUA31(PortP P23-14) - >--> USER_LED_2(P7-2) * ******************************************************************************** 全般 日時:MCAN MPC5777C simpleTXRX GHS616の例 <meta http-equiv="Content-Type" content="text/html; charset=utf-8" /> Petr様 コード付きのCAN-Messageを受信できません。MPC5777C-516DS評価ボードを使用しています。コードをコピーして SingleTogglePin の例に貼り付けます。 私のケースの何が間違っているのか教えていただけますか? 日時:MCAN MPC5777C simpleTXRX GHS616の例 <meta http-equiv="Content-Type" content="text/html; charset=utf-8" /> こんにちはペトル、 ちょうどあなたのサンプルコードを見て、私はあなたがmpc577xC.hを持っていることに気づきましたファイル。この生成されたファイルはNXPによって提供されましたか、はいの場合は、どこから入手したのか教えていただけますか?

示例模型：S12ZVM梯形电机控制 <meta http-equiv="Content-Type" content="text/html; charset=utf-8" /> <meta http-equiv="Content-Type" content="text/html; charset=utf-8" /> 示例模型

Now Available: MQX v4.2.0.2 Patch A new patch, MQX v4.2.0.2, is now available at www.nxp.com/mqxclassic​.This release comes in one download that contains both .zip packages and patch files. See the Release Notes (attached) for a full list of issues that are fixed in this release. The Release Notes also contain instructions for how to install via the .zip or patch files. To Download the patch: 1. go to www.nxp.com/mqxclassic 2. Click the "Download" button (below the Overview paragraph) -- you may be prompted to Sign In 3. Click on "MQX RTOS v4.2 releases and patches" 4. Review and click through the license agreement 5. Click on "MQX 4.2.0.2 Patch.zip" Re: Now Available: MQX v4.2.0.2 Patch it was added to the end of this thread: Where to find MQX 4.2.0.1 / 4.2.0.2 | NXP Community  Have you found where its loaded on the nxp website? Re: Now Available: MQX v4.2.0.2 Patch Do you have a direct download for the Linux version? Because the link to mqxclassic redirects to V5 and there is no way to go to 4.2.0 from there.

USB host mass storage class (MSC) example NXP Semiconductors and OnChip Technologies have partnered to provide USBHostLite software for our LPC1000, LPC2000, and LPC3000 families of microcontrollers with USB host capability. These include members of the LPC17xx series, the LPC23xx series, the LPC24xx series, the LPC29xx series, the LPC31xx series, and the LPC32xx series of microcontrollers. USBHostLite is a stripped-down USB host stack that includes only USB mass storage class support with the bare minimum code to run in an OS-less environment. USBHostLite provides a simple solution for accessing the files on USB mass storage devices such as USB Pen Drives, USB Hard Disk Drives, etc., connected to the USB Host port. Features The USBHostLite supports the following features: Runs without any operating system Contains small memory footprint Source code is written in ANSI C and is independent of IDE Supports control and bulk transfers Supports FAT16 file system Simple File APIs allow file read and write operations Well structured and easily understandable source code Limitations The complimentary USBHostLite software from NXP has following limitations: USBHostLite is currently only ported to and tested on Embedded Artists' LPC2468 OEM board and Keil's MCB1760 board. Classes other than the mass storage are not supported. The mass storage interface must be present in the first configuration. Max Logical Unit Number (LUN) greater than zero not supported. File systems other than FAT16 are not supported. Long filenames are not supported. Files located in folders other than root directory cannot be accesed. The buffer size used in the application must not exceed 4KB. Note: This application note describes the USBHostLite stack in general and its application on the Embedded Artists LPC2468 OEM board in particular. Software USBHostLite for LPC source code is free to NXP customers for unlimited use with NXP LPC2000 and LPC3000 families of microcontrollers only. By downloading or using the USBHostLite software, you agree to use it solely with these NXP microcontrollers.USBHostLite stack ported to the LPC293x devices on the Hitex LPC2939 board: USBHostLite for LPC293x VBeta 0.01 (Jul 28, 2009) - Attached USBHostLite stack ported to the LPC2468 device on the Embedded Artists LPC2468 OEM board: USBHostLite for LPC23xx/LPC24xx V1.00 (Jan 4, 2010) USBHostLite stack ported to the LPC1768 device on the Keil MCB1760 evaluation board: USBHostLite for LPC17xx VBeta 0.01 (Jul 14, 2009) - Attached For customer applications requiring full featured and production quality embedded USB stacks, OnChip Technologies LLC provides embedded USB Host/Device/OTG stacks that are fully compliant with the USB specifications and offers great degree of stability and configurability. More Information Disclaimer This software is provided AS-IS by NXP Semiconductors. NXP Semiconductors does not support or warrant the software contained herein for any purpose other than for informational use. Please contact OnChip Technologies LLC for further assistance including support options and other embedded USB host/device/OTG stacks. For Further Assistance OnChip Technologies LLC Other Professional USB Host Stack Solutions for the LPC3000, LPC2000, and LPC1000 families CMX Systems CMX-USB Host HCC Embedded USB (EUSB) HostLite Stack Micrium μC/USB Host Micro Digital smxUSBH Quadros RTXCusb Software Thesycon Embedded USB Host Stack

DFUSec programming examples These examples show several possible uses for the DFUSec programming feature of the tool. LPC1857 single bootable image programmed in internal FLASH This example shows how to burn a snigle bootanle image into internal FLASH. When booting from internal FLASH, the boot address is 0x1A000000. The image has been linked for this address with data in IRAM. This operation requires a simple 1-step programming sequence. The operation will do the following: Erase just the area of internal FLASH dedicated to the bootable image (we'll use 64K starting at address 0x1A000000) Program the image (up to 64K) into address 0x1A000000 DFUSec configuration The image below shows the DFUSec configuration and a successful program cycle. This uses the LPC18xx/43xx internal FLASH programming algorithm. The 2nd file box contains the path/filename to the image file to program. The image file already includes the checksum and CRP. The address (0x1A000000) and size (0x10000) designate the erase region, program address, and maximum program size. Since the 'Erase region before programming' option is selected, the FLASH at address 0x1A000000-0x1A00FFFF will be erased prior to programming. After rease completes, the image will be sent to the board (in small chunks) and programmed into FLASH. If the image exceeds 64K (specified by the same size parameter used for region erase), an error will be generated, even if FLASH extended beyond the 64K limit specified. LPC1857 multiple images in internal FLASH This example shows how to burn multiple images into different location in internal FLASH. Although this example is shown using the Keil MCB1857 board, the example can easily be used to separately program (or update) M0 and M4 images into different location in internal FLASH for the LPC4350 dual core device! Either image can be updated later without erasing the entire device or the other image. This operation requires a 2-step programming sequence. Step 1 will erase the entire device and program image_1 into bank A. Step 2 will program image_2 into bank B. Optionally, with step 2, we can program image_2 into another area of bank A if needed. Step 1 DFUSec configuration The internal FLASH programming algorithm is used with the image_1.bin program file. Step 1 will erase the entire device (both bank A and B) before programming. Then image_1 will be placed at the bootup address (0x1A000000). We'll limit the image size to a maximum of 128K for programming. The configuration is show below: Step 2 DFUSec configuration The internal FLASH programming algorithm is used with the image_2.bin program file. Step 2 will place image_2 at the 2nd bank address (0x1B000000). We'll limit the image size to a maximum of 16K for programming. The configuration is show below: Screenshot of the completed DFUSec 2-step program operation

APF-DES-T2297 - Add Wired Connectivity and Graphics Capability to Next-generation Embedded Application with LPC MCUs Detailed, session for developing your application using the LPCXpresso ecosystem, including USB and Ethernet stacks, and free emWin libraries that embedded engineers need for successful USB application development. Detailed, session for developing your application using the LPCXpresso ecosystem, including USB and Ethernet stacks, and free emWin libraries that embedded engineers need for successful USB application development.

LPCXpresso54608 开箱即用 <meta http-equiv="Content-Type" content="text/html; charset=utf-8" /> LPCXpresso54608 开发板可与我们的统一软件开发套件 (SDK) 一起开箱运行！ （在 “我的视频” 中查看）

SDN-Ready enterprise wireless access point solutions Demo High Performance Enterprise Access Point OEM Reference Solutions for Layerscape and QorIQ families.  Demo showcases 802.11AC based Enterprise Access Points showing >2.2Gbps of WIFI with Dual 11AC WIFI cards with very low CPU to provide head room for additional applications to be run.  OEM  Alpha Networks & Embedded Planet Reference Solutions for T1023 and LS1043 Features Wireless Performance up to 2.5Gbps Maximum ARM A53 or Power PC application headroom Proven Wireless partners Quantenna, Celeno & QCA Support for new multi-user MIMO transmission to groups of clients NXP Recommends QorIQ T1024/14 and T1023/13 Dual- and Single-Core C QorIQ LS1043A and LS1023A Multicore Communications Communications Infrastructure

Android Open Accessory (AOA) kit Link to board: http://www.lpcware.com/content/devboard/android-open-accessory-aoa-kit Android Demos There are three demos available for download on the Embedded Artists website http://embeddedartists.com/products/app/aoa_kit.php The code bundle contains the following: Demo 1: Android Open Accessory demo which lets you control and monitor the AOA Board (LPC1769 side) from an Android device. Demo 2: Android Open Accessory demo which lets an Android device detect CAN nodes (such as the LPC11C24 side of the AOA board) in a CAN network. The CAN nodes can be controlled and monitored from the Android device. Demo 3: Android Open Accessory demo which lets an Android device detect Xbee nodes in an Xbee network. The Xbee nodes can be controlled and monitored from the Android device. FreeRTOS has been ported to the board and a demo is available that show how to use it. lwIP v1.4.0 has been ported to the board. The httpserver_raw (webserver) application from the lwIP contrib package is available with a small modification to use the on-board SD-card interface instead of the ROM based file system. FatFs file system module has been ported to the board. The lwIP demo (based on httpserver_raw) is using this module to access files on an SD card. nxpUSBlib is available and used in the AOA demos. How to setup the projects in LPC Xpresso Make sure that the latest version of the LPCXpresso IDE is installed. Download the package of sample application projects into the Eclipse workspace. The package can be downloaded (as a zip-file) from Embedded Artists’ support page after registering the product. The zip-file contains all project files and is a simple way to distribute complete Eclipse projects. Start the LPCXpresso IDE and select a new (and empty) workspace directory. Select the Import and Export tab in the Quickstart Panel and then Import archived projects (zip), see Figure 1 below. Browse and select the downloaded zip file containing the archived sample applications. Select all sub-projects to be imported, see Figure 2 below. By default the NXP USB library has been configured for USB device only. This needs to be changed to USB host. Right click on the nxpUSBlib project and select Build Configuration, then Set Active. In the list select LPC17xx_Host. See Figure 3. The projects are now imported. Click (to select) the project to work with. Click Build in the Quickstart Panel (under Start Here). See Figure 4 There is also a video on how to setup Demo 1 and get it running by connecting your android device. (Getting started video provided by Embedded Artists) http://www.youtube.com/watch?v=l3f2ss1IdV0&feature=player_embedded

AMF-AUT-T1782 - Introduction to Sensor Fusion and Autonomous Drive Vehicle Algorithms Autonomous vehicles are able to drive themselves without human supervision or input. Vehicles can also operate semi-autonomously - taking some control of aspects of driving, whilst a human driver retains control of others. In order to do this, the vehicle must be able to perceive its environment and make decisions about where it is safe and desirable to move, and do so. This session will go through various aspects of the algorithms for sensor fusion to build perception, map building and path planning with particular reference to the Blue Box development platform.   Autonomous vehicles are able to drive themselves without human supervision or input. Vehicles can also operate semi-autonomously - taking some control of aspects of driving, whilst a human driver retains control of others. In order to do this, the vehicle must be able to perceive its environment and make decisions about where it is safe and desirable to move, and do so. This session will go through various aspects of the algorithms for sensor fusion to build perception, map building and path planning with particular reference to the Blue Box development platform.  

Fatigue Detection on the I.MX 6Quad Applications Processor Demo      Features Detect fatigue using a camera via an algorithm based on optical absorption rate of facial blood vessels Efficient processing with up to 1.2MHz Quad ARM Cortex-A9 architecture with a NEON multimedia processing acceleration engine Video processing unit in i.MX 6Quad to record front camera video in H.264 format Face tracking algorithm to track the driver's head for a real driving use case   NXP Recommends i.MX6Q|i.MX 6Quad Processors|Quad Core Automotive Industrial

Generate aligned HEX and S-record data output with GNU in KDS 3.2 Some customers have special requirements for the output data.  They need them to be aligned, especially when they are using the customized bootloader or Flash Programmer.     However, the hex file generated in KDS3.2 is not aligned as the customer expected. Below is extracted from the hex file generated in a KE06 project.  In this file, the data is not aligned at 16 bytes, and the size of each line is different.   The attached document shows generate aligned Hex and S-record file step by step. General

Automotive Magnetic Sensors Demo The Automotive Magnetic Sensors demo will showcase the use of Rotational Wheel Speed Sensors for car ABS and Angular Sensors for Electric Throttle Control (ETC) as well as for Steering Angle measurement.     Features: NXP supplies magnetic sensors for rotational wheel speed and true angular measurement systems: ABS speed sensors with simple ferrites instead of expensive rare earth magnets, and with best in class jitter performance required for iTPMS, Angular sensors with outstanding accuracy of ±1˚ over full temp range and lifetime while operating in a wide temperature range up to 160 °C/320 °F. _______________________________________________________________________________________________________     Featured NXP Products: Sensors for Automotive|NXP _______________________________________________________________________________________________________     S01 Automotive

Datapath Software Acceleration using DPAA 2.0 This demo shows AIOP based data path offload for some of the popular Network Functions: IP Forward, IPSec, Netflow and Open Flow     Features: The Data path offload software is 'C' program running in the AIOP and provides control interface at the GPP for integrating with the GPP based control stack. The demonstration shows functionality of the above mentioned popular network applications live in the pedestal. Performance demonstration of the above mentioned popular network applications using remote setup. This implementation uses AIOP hardware accelerators – Table Lookup Unit, Statistics Engine,Timer Manager, Security Engine, Parser, CDMA/FDMA.   _______________________________________________________________________________________________________   Featured NXP Products: QorIQ Processors Based on ARM Technology|NXP QorIQ LS2085A Communication Processors|NXP _______________________________________________________________________________________________________     N09 Communications Infrastructure