DOCSLIB.ORG

Odroid C2 Android 6 Image Download Odroid C2 Android 6 Image Download

Total Page：16

File Type：pdf, Size：1020Kb

Download full-text PDF Read full-text
Odroid C2 Android 6 Image Download Odroid C2 Android 6 Image Download odroid c2 android 6 image download Odroid c2 android 6 image download. Completing the CAPTCHA proves you are a human and gives you temporary access to the web property. What can I do to prevent this in the future? If you are on a personal connection, like at home, you can run an anti-virus scan on your device to make sure it is not infected with malware. If you are at an office or shared network, you can ask the network administrator to run a scan across the network looking for misconfigured or infected devices. Another way to prevent getting this page in the future is to use Privacy Pass. You may need to download version 2.0 now from the Chrome Web Store. Cloudflare Ray ID: 66aa2216fddf1600 • Your IP : 188.246.226.140 • Performance & security by Cloudflare. ODROID. We will need a few things to get started with installing Home Assistant. Links below lead to Ameridroid. If you’re not in the US, you should be able to find these items in web stores in your country. To get started we suggest the ODROID N2+, it’s the most powerful ODROID. It’s fast and with built-in eMMC one of the best boards to run Home Assistant. It’s also the board that powers our Home Assistant Blue. If unavailable, we also recommend the ODROID C4 or ODROID XU4. Write the image to your installation media. Attach the installation media (eMMC module/SD card) to your computer. Download and start Balena Etcher. Select “Flash from URL” Get the URL for your ODROID: Select and copy the URL or use the “copy” button that appear when you hover it. Paste the URL for your ODROID into Balena Etcher and click “OK” Balena Etcher will now download the image, when that is done click “Select target” Select the eMMC module/SD card you want to use for your ODROID Click on “Flash!” to start writing the image When Balena Etcher is finished writing the image you will get this confirmation. Start up your ODROID. Insert the installation media (eMMC module/SD card) you just created. Attach a ethernet cable for network. Attach a cable for power. Within a few minutes you will be able to reach Home Assistant on homeassistant.local:8123. If you are running an older Windows version or have a stricter network configuration, you might need to access Home Assistant at homeassistant:8123 or http://X.X.X.X:8123 (replace X.X.X.X with your ODROID’s IP address). With the Home Assistant Operating System installed and accessible you can continue with onboarding. Install Home Assistant Container. These below instructions are for an installation of Home Assistant Container running in your own container environment, which you manage yourself. Any OCI compatible runtime can be used, however this guide will focus on installing it with Docker. This guide assumes that you already have an operating system setup and a container runtime installed (like Docker). Platform Installation. Installation with Docker is straightforward. Adjust the following command so that /PATH_TO_YOUR_CONFIG points at the folder where you want to store your configuration and run it. Once the Home Assistant Container is running Home Assistant should be accessible using http://<host>:8123 (replace with the hostname or IP of the system). You can continue with onboarding. Restart Home Assistant. If you change the configuration you have to restart the server. To do that you have 3 options. In your Home Assistant UI go to the Configuration panel -> Server management and click the “Restart” button. You can go to the Developer Tools -> Services , select the service homeassistant.restart and click “Call Service”. Restart it from a terminal. Docker Compose. In order to use docker-compose you first need to install docker-compose on your system. As the Docker command becomes more complex, switching to docker-compose can be preferable and support automatically restarting on failure or system restart. Create a docker-compose.yml file: Start it by running: Exposing Devices. In order to use Z-Wave, Zigbee or other integrations that require access to devices, you need to map the appropriate device into the container. Ensure the user that is running the container has the correct privileges to access the /dev/tty* file, then add the device mapping to your container instructions: Optimizations. The Home Assistant Container is using an alternative memory allocation library jemalloc for better memory management and Python runtime speedup. As jemalloc can cause issues on certain hardware, it can be disabled by passing the environment variable DISABLE_JEMALLOC with any value, for example: The error message <jemalloc>: Unsupported system page size is one known indicator. Install Home Assistant Core. This guide assumes that you already have an operating system setup and have installed Python 3.8 (including the package python3-dev ) or newer. Install dependencies. Before you start make sure your system is fully updated, all packages in this guide are installed with apt , if your OS does not have that, look for alternatives. Install the dependencies: Create an account. Add an account for Home Assistant Core called homeassistant . Since this account is only for running Home Assistant Core the extra arguments of -rm is added to create a system account and create a home directory. The arguments -G dialout,gpio,i2c adds the user to the dialout , gpio and the i2c group. The first is required for using Z-Wave and Zigbee controllers, while the second is required to communicate with GPIO. Create the virtual environment. First we will create a directory for the installation of Home Assistant Core and change the owner to the homeassistant account. Next up is to create and change to a virtual environment for Home Assistant Core. This will be done as the homeassistant account. Once you have activated the virtual environment (notice the prompt change to (homeassistant) [email protected]:/srv/homeassistant $ ) you will need to run the following command to install a required Python package. Once you have installed the required Python package it is now time to install Home Assistant Core! Start Home Assistant Core for the first time. This will complete the installation for you, automatically creating the .homeassistant configuration directory in the /home/homeassistant directory, and installing any basic dependencies. You can now reach your installation via the web interface on http://homeassistant.local:8123 . If this address doesn’t work you may also try http://localhost:8123 or http://X.X.X.X:8123 (replace X.X.X.X with your machines’ IP address). When you run the hass command for the first time, it will download, install and cache the necessary libraries/dependencies. This procedure may take anywhere between 5 to 10 minutes. During that time, you may get “site cannot be reached” error when accessing the web interface. This will only happen for the first time, and subsequent restarts will be much faster. We get commissions for purchases made through links in this post. ODROID-C2. The ODROID-C2 is a $40 quad-core computer, providing one of the most cost-effective ARMv8 AArch64 development boards available. Board dimensions are identical to the ODROID-C1, and it can use the same power supply or be powered through the micro USB port. Features of the board include: Amlogic S905 ARM Cortex-A53 1.5Ghz quad core CPU Mali-450 MP3 GPU (OpenGL ES 2.0/1.1) 2GB DDR3 SDRAM Gigabit Ethernet HDMI 2.0 4K/60Hz display 40+7pin IO port eMMC5.0 HS400 flash storage slot UHS-1 SDR50 MicroSD Card slot USB 2.0 Host x 4, USB OTG x 1 (power and data capable) Infrared (IR) Receiver. Micro SD and eMMC Creation. Replace sdX in the following instructions with the device name for the SD card as it appears on your computer. Use the provided micro SD to eMMC adapter card to install to eMMC. Zero the beginning of the SD card or eMMC module: Start fdisk to partition the SD card: At the fdisk prompt, create the new partition: Type o . This will clear out any partitions on the drive. Type p to list partitions. There should be no partitions left. Type n , then p for primary, 1 for the first partition on the drive, and enter twice to accept the default starting and ending sectors. Write the partition table and exit by typing w . For e2fsprogs = 1.43: Open the file root/boot/boot.ini with a text editor. Uncomment the line with the desired resolution, and ensure all others are commented. Save and close the file. Login as the default user alarm with the password alarm . The default root password is root . Additional Packages. X.org video driver package: xf86-video-odroid-c2 Note: Add your user to the "video" group to be able to access /dev/mali and /dev/ump. Note: Reboot after installation for udev rules to take effect. Headless Mode. For servers (ie, no need for a display), uncomment the following in /boot/boot.ini to free up approx 300M of memory at the cost of disabling the video subsystem: ODROIDs have dual LEDs: a red power LED which is always on if power is supplied, and a blue LED which can be configured. By default, the blue LED is a heartbeat LED, which flashes when the kernel is running. This can be configured in /sys/class/leds/blue:heartbeat/trigger . To list available triggers: Replace TRIGGER with one of the available triggers. This setting will apply instantly, but be lost upon reboot. To create a persistent configuration, edit or create /etc/tmpfiles.d/leds.conf : Copyright ©2009-2020 Arch Linux ARM The registered trademark Linux® is used pursuant to a sublicense from LMI, the exclusive licensee of Linus Torvalds, owner of the mark on a world-wide basis.
Load more

Recommended publications
  • INSTALL ARCH LINUX ARM for a SIMPLE LAN SERVER the Hardware
    INSTALL ARCH LINUX ARM FOR A SIMPLE LAN SERVER The Hardware At the top, two possibilities for the DATA drive which will store all your files. A USB-3 SSD external housing with a SSD of your choice and size. In this case a Samsung 850 500GB SSD. OR if more storage is needed, a USB-3 3.5 inch external hard drive enclosure, in this case with a 2 TB WD Red Label hard drive. Next is a 5 VDC 6 Amp power brick for the Odroid-XU4, not shown is a 12 VDC power supply included with the 3.5 inch hard drive if used. At the bottom, a USB SD Reader. A micro SD to SD adapter. A micro SD card OR an emmc to micro SD adapter with an emmc card for the Operating System. Then the Odroid- XU4 SBC (Single Board Computer). With optional Real Time Clock battery, 40 mm cooling fan, and a 1/4 inch plywood base with stand offs to protect the components on the bottom. Of course, any ARM device that Arch Linux Arm supports can be used, such as a Raspberry PI 4 or the new Odroid N2 with 4 GB RAM, or what ever. Just go to the Arch Linux Arm site, https://archlinuxarm.org/ Hover over "Platforms" then the Architecture, brand name, etc. to see if your device is supported. Click on your device and get a page with overview and installation tabs. Page 1 of 12 EndeavourOS_Server_ARM.odt For security reasons, this server is not intended to be accessed from the internet and should be connected directly by LAN cable to a router or to a switch connected to the router.
    [Show full text]
  • Iot Configuration for Industrial and Domestic Water Saving Monitoring
    ARISTOTLE UNIVERSITY OF THESSALONÍKI COMPUTER SCIENCE DEPARTMENT IoT Configuration for Industrial and Domestic Water Saving Monitoring Iraklis Moutidis Advisor: Ioannis Stamelos 1 Abstract The main objective of the thesis is to implement a water flow monitoring system, using a water flow sensor, the Arduino prototyping board and the Raspberry Pi board. The system should be efficient regarding the electricity consumption and flexible regarding the water installation it will be placed. The information obtained from the sensor(s) is uploaded to a cloud platform (Thingspeak.com) and also locally stored on the Raspberry Pi, which is used as a server for any boards like the Arduino that control a sensor. The data can be further processed to obtain more information about the water consumption of the installation. 2 Contents 1. Introduction………………………..………………………………………..………..……6 1.1 Research Background……………………………………………………………….6 1.2 Problem Statement…………………………………………………………………..7 1.3 Objective of the Study……………………………………………………………….8 1.4 Scope of the Study…………………………………………………………………..8 2. Wireless Sensor Networks………….………………………..……………………….9 2.1 Introduction…….…...………………………………………………………………...9 2.2 Types of Wireless Sensor Networks……………………………………………...10 2.3 Applications………………………………………………………………………….12 2.3.1 Military Applications…….…………………………………………………13 2.3.2 Environmental Monitoring………………………………………………..13 2.3.3 Inventory Monitoring……………………………………………………...15 2.3.4 Health Applications………………………………………………………..16 2.4 Internal Sensor System……………..……………………………………………..16
    [Show full text]
  • Energy-Efficient ARM64 Cluster with Cryptanalytic Applications
    Energy-Efficient ARM64 Cluster with Cryptanalytic Applications 80 Cores That Do Not Cost You an ARM and a Leg Thom Wiggers Institute of Computing and Information Science, Radboud University, The Netherlands Abstract Getting a lot of CPU power used to be an expensive under- taking. Servers with many cores cost a lot of money and consume large amounts of energy. The developments in hardware for mobile devices has resulted in a surge in relatively cheap, powerful, and low-energy CPUs. In this paper we show how to build a low-energy, eighty-core cluster built around twenty ODROID-C2 development boards for under 1500 USD. The ODROID-C2 is a 46 USD microcomputer that provides a 1.536 GHz quad-core Cortex-A53-based CPU and 2 GB of RAM. We investigate the cluster's application to cryptanalysis by implementing Pollard's Rho method to tackle the Certicom ECC2K-130 elliptic curve challenge. We optimise software from the Breaking ECC2K-130 technical report for the Cortex-A53. To do so, we show how to use microbenchmarking to derive the needed instruction characteristics which ARM neglected to document for the public. The implementation of the ECC2K-130 attack finally allows us to compare the proposed platform to various other platforms, including \classical" desktop CPUs, GPUs and FPGAs. Although it may still be slower than for example FPGAs, our cluster still provides a lot of value for money. Keywords: ARM, compute cluster, cryptanalysis, elliptic curve crypto- graphy, ECC2K-130 1 Introduction Bigger is not always better. Traditionally large computational tasks have been deployed on huge, expensive clusters.
    [Show full text]
  • Raspberry Pi from Scratch – 1
    Raspberry Pi from scratch – 1 Christophe Blaess Cet article a été publié dans le numéro 155 (décembre 2012) de Gnu Linux Magazine France. Le succès du petit système Raspberry Pi n'est plus à démontrer. Alliant un prix de revient modique et un potentiel informatique prometteur, il s'impose comme une base expérimentale incontournable pour Linux embarqué. Mais il est dommage de se contenter d'utiliser des images ou des packages précompilés sur cette plate-forme dédiée aux hackers... Je vous propose de construire votre système entièrement personnalisé en partant de zéro. Découverte du Raspberry Pi Dans le courrier du matin une enveloppe blanche dépasse, un peu plus épaisse que les autres et portant la mention « Royal Mail International ». Expéditeur : Farnell. À l'intérieur une petite boîte en carton contenant la fameuse carte Raspberry Pi au format d'une carte de crédit. Pas de notice ni de documentation, toutes les informations seront à chercher sur Internet, essentiellement dans des forums ou des wikis. Mon premier réflexe est évidemment de vérifier si la carte fonctionne. Je branche donc dans le connecteur micro-USB le câble du chargeur de mon téléphone. Une LED rouge s'allume instantanément et aucune autre activité ne se manifeste. Le Raspberry Pi ne contient pas de système d'exploitation intégré (contrairement par exemple des Beagleboard, Pandaboard, Igep, etc. qui embarquent d'origine un petit système Linux). Il n'y a d'ailleurs pas de mémoire flash accessible et nous devrons ajouter une petite carte SD contenant tout le système d'exploitation. Pour être honnête, je dois avouer que j'ai téléchargé à ce stade une image Arch Linux Arm sur http://www.raspberrypi.org/downloads que j'ai copiée sur une carte SD pour vérifier le bon fonctionnement de ma carte, mais j'ai rapidement décidé de l'effacer et de reconstruire le système en repartant de zéro.
    [Show full text]
  • Raspberry Pi As Hardware In- and Outputs (GPIO)
    A credit-card sized, $35 single-board computer. It runs linux from an SD card and has support for popular options for connection and peripherals (USB, Ethernet) as well Raspberry Pi as hardware in- and outputs (GPIO). It’s open-source and built for hacking. Raspberry Pi GPIO connector (P1) pinout +5V +5V GND GPIO14(TXD) GPIO15(RXD) GPIO18(PCM_CLK) GND GPIO23 GPIO24 GND GPIO25 GPIO8(CE0) GPIO7(CE1) GND GND +3.3V +3.3V GPIO17 GPIO27 GPIO22 GPIO0(SDA1) GPIO1(SCL1) GPIO9(MISO) GPIO10(MOSI) GPIO11(SCLK) GPIO4(GPCLK0) = changed since board revision 2 ACT SD Card activity indicator PWR Device is powered okay. FDX Full duplex connection RCA Composite Video Output Outputs to older TV’s 3.5mm Analog Audio Output headphones or amplifier For LNK Network link established Broadcom ARM CPU (700MHz) & 100 100MBit Ethernet connection Memory (512MB) DSI Screen Connector Broadcom Ethernet controller 2x Full Speed USB SD Memory Card 480MBit Contains Operating System Ethernet Network Micro USB Power Connection 100MBit Requires 5VDC / 800mA HDMI Video Output CSI Camera Connector Outputs screen to newer HD-TV’s Popular operating systems / distributions: of emulators, or as their tag-line says: old computers, classic games, consoles note that some pin and I2C port numbers of connector P1 have been modified and arcade on your Pi... Worth giving a try if you love vintage computers! between revisions! Raspbian “wheezy” http://bit.ly/cham-pi – Header P6 (left from the HDMI port) was added, short these two pins to reset This is the recommended distribution for beginners, based on the Raspbian the computer or wake it up when powered down with the “sudo halt” optimised version of Debian (a Linux distribution), containing development tools Other operating systems command.
    [Show full text]
  • 1 Using ARM-Based Boards in a Second Year Course by Amanpreet
    1 Using ARM-based boards in a second year course by Amanpreet Dhaliwal B.Sc., Punjab University Chandigarh (India)1998 M.Sc. (Physics), Punjabi University Patiala (India)2004 M.Tech., Punjabi University Patiala (India) 2007 Project Report Submitted in Partial Fulfillment of the Requirements for the Degree of MASTER OF SCIENCE in the Department of Computer Science c Amanpreet Dhaliwal 2015 University of Victoria All rights reserved. This report may not be reproduced in whole or in part, by photocopying or other means, without the permission of the author. Supervisory Committee Using ARM-based boards in a second year course by Amanpreet Dhaliwal B.Sc., Punjab University Chandigarh (India) 1998 M.Sc. (Physics), Punjabi University Patiala (India) 2004 M.Tech., Punjabi University Patiala (India) 2007 Dr. M. Serra, Supervisor Department of Computer Science Dr. J. C. Muzio, Member Department of Computer Science ii Dr. M. Serra, Supervisor Department of Computer Science Dr. J. C. Muzio, Member Department of Computer Science Abstract The Raspberry Pi and the Arduino have emerged as very interesting platforms to learn about the ARM processor and its programming environment, and to develop small systems. They are also fairly inexpensive and could be bought directly by students. In this project we investigate the suitability of using the Raspberry Pi as a platform for the assignments in Computer Science 230, a second year course which introduces computer architecture and uses low-level programming to provide hands-on experience with registers and CPU components. To accomplish this goal, all assignments for the last few years are implemented using the Raspberry Pi.
    [Show full text]
  • Raspberry Pi Needs an Operating System, and the Preferred One for the Pi Is Linux
    CHAPTER 2 Install an Operating System Like every computer, the Raspberry Pi needs an operating system, and the preferred one for the Pi is Linux. That’s partly because it’s free, but mainly it’s because it runs on the Pi’s ARM processor while most other operating systems work only on the Intel architecture. Still, not every Linux distribution will run on the Pi, because some do not support the Pi’s particular type of ARM processor. For example, you cannot install Ubuntu Linux on a Pi. So, in this chapter, you’ll first learn what your options are. Choosing an operating system is only a first step, because you also have to install it. The installation procedure on the Pi is quite different from what you’re probably used to, but it’s not difficult: you need to install the operating system on an SD card. In this chapter, we’re going to install the latest Debian Linux distribution, but the process is the same for all operating systems. You can actually create several SD cards, each with a different operating system, so at the end you’ll have a pretty versatile system that you can turn into completely different machines by simply replacing the card. 2.1 See What’s Available Linux is still the most popular choice for an operating system on the Pi, and it helps you to get the most out of the Pi. Also, many people are already familiar with Linux, while the other operating systems running on the Pi are a bit more exotic.
    [Show full text]
  • Creating a Raspberry Pi-Based Beowulf Cluster Joshua Kiepert May 14Th, 2013 Introduction Raspberry Pis Have Really Taken the Embedded Linux Community by Storm
    Creating a Raspberry Pi-Based Beowulf Cluster Joshua Kiepert May 14th, 2013 Introduction Raspberry Pis have really taken the embedded Linux community by storm. For those unfamiliar, however, a Raspberry Pi (RPi) is a small (credit card sized), inexpensive single-board computer that is capable of running Linux and other lightweight operating systems which run on ARM processors. Figure 1 shows a few details on the RPi capabilities. Figure 1: Raspberry Pi Model B (512MB RAM) The RPiCluster project was started a couple months ago in response to a need during my PhD dissertation research. My research is currently focused on developing a novel data sharing system for wireless sensor networks to facilitate in-network collaborative processing of sensor data. In the process of developing this system it became clear that perhaps the most expedient way to test many of the ideas was to create a distributed simulation rather than developing directly on the final target embedded hardware. Thus, I began developing a distributed simulation in which each simulation node would behave like a wireless sensor node (along with inherent communications limitations), and as such, interact with all other simulation nodes within a LAN. This approach provided true asynchronous behavior and actual network communication between nodes which enabled better emulation of real wireless sensor network behavior. For those who may not have heard of a Beowulf cluster before, a Beowulf cluster is simply a collection of identical, (typically) commodity computer hardware based systems, networked together and running some kind of parallel processing software that allows each node in the cluster to share data and computation.
    [Show full text]
  • Implementation and Evaluation of Android on an ARM-Based Vehicle Computer
    UPTEC 14 014 Examensarbete 30 hp September 2014 Implementation and Evaluation of Android on an ARM-based Vehicle Computer Christoffer Klarin Dennis Rosén Abstract Implementation and Evaluation of Android on an ARM-based Vehicle Computer Christoffer Klarin and Dennis Rosén Teknisk- naturvetenskaplig fakultet UTH-enheten The public transport system today has a growing number of information sources that need to be presented to the driver. Most of these information sources are Besöksadress: displayed on separate screens - viewing and interacting with all of them at once is not Ångströmlaboratoriet Lägerhyddsvägen 1 beneficial from a safety and economical point of view. A solution to this problem Hus 4, Plan 0 would be to create a common platform where the driver can interact with all the information sources on a single display. This thesis aim has been to research suitable Postadress: operating systems for this target platform through a survey, which has led to the Box 536 751 21 Uppsala implementation and evaluation of Android on the platform. The target hardware has limited resources such as low memory and no GPU. Therefore two versions of Telefon: Android have been implemented and evaluated to find out which one is the most 018 – 471 30 03 suitable for the system. The implementations of the two Android versions have Telefax: support for an external touch screen. The evaluation of the final systems shows that 018 – 471 30 00 the target hardware is not suitable to run Android with acceptable performance. Expansion of RAM and the integration of a GPU is suggested to improve the Hemsida: performance of the system.
    [Show full text]
  • Raspberry Pi User Guide
    RASPBERRY PI FOR BEGINNERS © 2013, Dogwood Apps Raspberry Pi ® is the registered trademark of Raspberry Pi Foundation, United Kingdom. Important note: Author has no affiliation with Raspberry Pi Foundation, United Kingdom. All rights are reserved. All trademark holders are owners of their respective trademarks. The copyright of this e-book, as well as the matter contained herein (including illustrations), rests with the author(s). No person shall copy the name of the book, its title design, matter, and illustrations in any form and in any language, totally or partially, or in any distorted form. Anybody doing so shall face legal action and will be responsible for damages. CONNECT WITH US ON FACEBOOK! Come and join our Facebook page where you will be the first to know everything about our upcoming titles. On our page, we will also share promotional information for our current ebooks. This is also a great place to ask us any questions you may have concerning our ebooks as well. Join our Facebookpage here: https://www.facebook.com/DogwoodApps Contents Chapter 1 What is Raspberry Pi? Chapter 2 Models of Raspberry Pi Chapter 3 What Do You Need to Get Raspberry Pi Up and Running? Chapter 4 Installing the OS on Raspberry Pi Chapter 5 Other OSes for Pi Chapter 6 Programming Your Pi Using Scratch Chapter 7 Arduino and Raspberry Pi Chapter 8 Awesome Pi Uses Chapter 9 Raspberry Pi as Standard Productivity Computer Chapter 10 Using Raspberry Pi to Drive a Multimedia Center Chapter 11 Using Raspberry Pi for Time-Lapse Photography Chapter 12 Using Raspberry Pi as FM Transmitter Chapter 1 What is Raspberry Pi? Raspberry Pi is an affordable, credit card–sized, single-board computer.
    [Show full text]
  • W W W . B a S E T R a I N I N G I N S T I T U T E . C O M | @Shahimbaker
    www.basetraininginstitute.com | @ShahimBaker Disclaimer: Some of the images and most of the data in this presentation are collected from various sources in the internet. If you notice any copyright issues or mistakes, please let me know by mailing me at : shahim<at>ieee<dot>org , so that I can correct/remove the information as required www.basetraininginstitute.com | @ShahimBaker Open Hardware Refers to the design specifications of a physical object which are licensed in such a way that it can be studied, modified, created, and distributed by anyone. Is a set of design principles and legal practices, not a specific type of object. Can refer to any objects—like automobiles, chairs, computers, robots, or even houses. Food recipe ?? www.basetraininginstitute.com | @ShahimBaker Open Hardware - Electronics “Source code" for electronic circuits—schematics, blueprints, logic designs, Computer Aided Design (CAD) drawings or files, etc.—is available for modification or enhancement by anyone under permissive licenses. FOSH Not, “Free as in Free Beer”, but “Free as in Free Speech” www.basetraininginstitute.com | @ShahimBaker Open Hardware Advantages Faster developments More accessories(in case of hardware , more shields etc), More apps No need to reinvent the wheel Increase popularity Common Hardware Mass Production- Reduced Price Easy Troubleshooting www.basetraininginstitute.com | @ShahimBaker www.basetraininginstitute.com | @ShahimBaker www.basetraininginstitute.com | @ShahimBaker www.basetraininginstitute.com | @ShahimBaker RepRap 3D Printer Project www.basetraininginstitute.com | @ShahimBaker Thymio- Educational Robot www.basetraininginstitute.com | @ShahimBaker iCub- Humanoid Robot Project www.basetraininginstitute.com | @ShahimBaker inMoov- 3D Printable Open Source Robot www.basetraininginstitute.com | @ShahimBaker SBCs Single Board Computers www.basetraininginstitute.com | @ShahimBaker What is Arduino? • A microcontroller board, contains on-board power supply, USB port to communicate with PC, and an Atmel microcontroller chip.
    [Show full text]
  • The 16Th Winona Computer Science Undergraduate Research Symposium
    The 16th Winona Computer Science Undergraduate Research Symposium April 27, 2016 9:30am to 12:30pm Kryzsko Commons Purple Rooms 247 & 248 Winona State University Winona, MN Sponsored by the Department of Computer Science at Winona State University Table of Contents Title Author Page Comparing Linux Operating Systems for the John Bellows 8 Raspberry Pi 2 Winona State University Speed Index and Critical Path Rendering Malek Hakim 41 Performance for Isomorphic Single Page Winona State University Applications Effectiveness of Children Online Privacy Komal Bansal 1 Strategies Winona State University Java Implementation of Cox Proportional Nathan Martin 28 Hazards Model Winona State University Distance Accuracies with Mobile Applications Nathan Karlstad 22 And Tracking Watches Winona State University Performance Analysis of ArrayList and Hashmap Asiqur Rahman 33 Winona State University Mesh Sensor Network for Atmospheric and Nicholas McNeely 14 Weather Data Acquisition Winona State University Configuring a Drone Flight Controller over WiFi Mitchell Gerber 18 Winona State University ii Effectiveness of Children Online Privacy Strategies Komal Bansal Winona State University April 22, 2016 [email protected] ABSTRACT these guidelines [1]: 1. Provide a clear and complete privacy policy on their The Children’s Online Privacy Protection Act (COPPA) is a website Federal Trade Commission (FTC) approved regulation directed 2. Obtain verifiable parental consent before collecting towards websites/apps that collect and use personal information private information about their children (PI) of children under 13 years of age. Under COPPA, FTC has 3. Provide parents access to the information collected on approved a fees-based Safe Harbor program, in which their children and allow them to withdraw permission websites/apps would be subjected to the disciplinary procedures on future collection on their children’s information of the Safe Harbor in lieu of the FTC enforcement.
    [Show full text]