Now crowdfunding the Lapdock project on Indiegogo at http://igg.me/at/lapdock starting at $100. The future of Laptops will not have a powerful CPU in them but will be modular when you buy them, they can be powered by your phone, or you can buy a small compact ARM Powered internal or external Type-C Stick to run them off of. Laptops are all about getting a great keyboard, mouse and display, but the CPU, Memory, Connectivity, those things can be swapped according to progress in the industry. I will be posting updates on this project at http://Lapdock.net and on the Updates tab at http://igg.me/at/lapdock if this project gets funded by at least $100 thousand, then the suppliers in Shenzhen China will be able to deliver the Lapdock at this price. If Lapdocks can become a larger success with a lot of demand then prices will be able to reach sub-$100 for high quality components, high quality keyboard, mouse pad, display and batteries also that last at least 20 hours on a charge. With a lot of support, this concept will also bring high performance and affordable USB Type-C Sticks to run all sorts of productivity user interfaces based on Android (such as the OXI UI) or Linux OSes or even Microsoft can bring Windows support to the Lapdock. This form factor could also bring the developers who use development boards closer to the mass market consumers, as all work done around the development boards of the future (very compact and affordable USB Type-C Sticks) will directly be able to impact also how end consumers can use devices for actual real work and productivity. The Lapdock will also move Smartphone market more towards their "PC Mode" as Samsung and Huawei already support each their PC Modes, and that is great because Samsung and Huawei are the two biggest Smartphone manufacturers in the world, yet most consumers don't even know that the PC Mode is there. With Lapdocks, the performance of latest 7nm ARM Processors in phones will be tuned further for multi-window, multi-tasking and for running more advanced productivity apps on Android. 2019 will hopefully be the year where ARM Powered productivity finally reaches mass adoption and the mass market and I think that the Lapdock will be at the center point of that major electronics industry upgrade.
At Linaro Connect Vancouver 2018, some engineers are showing the Open Source Chromium OS running on the 10nm Qualcomm Snapdragon 845. With some talk on the status of using Freedreno for hardware accelerated GPU support in that Chromium OS demo. Over the past few months this solution has been upstreamed into the mainline kernel, display driver, audio driver, wifi driver, all the connectivity and periferal storage drivers, all to make Chromium OS work on that chipset. Running the 4.18 kernel with very few additional patches, it has hardware accelerated video playback using the open source freedreno driver. This could be a clue towards what I think could be an ultimate ARM Powered Laptop, a Snapdragon 845 Powered Chromebook would be so awesome, with Gigabit LTE, with good ARM single thread and multi-thread performance, with smooth Android and Linux apps supported, perhaps even it would be nice if Microsoft could contribute full x86 and ARM compiled Windows 10 apps support directly on this device.
Ultra96 is an ARM-based, Xilinx Zynq UltraScale+ MPSoC development board based on the Linaro 96Boards Consumer Edition specification. The processor is a Xilinx Zynq UltraScale+ MP ZU3EG A484 and the RAM is a Micron LPDDR4 memory provides 2GB of RAM in a 512M x 32 configuration. The Ultra96 includes 40-pin 1x 96Boards Low-speed expansion header and 1x 60-pin 96Boards High speed expansion header. The 96Boards’ specifications are open and define a standard board layout for development platforms that can be used by software application, hardware device, kernel, and other system software developers. Ultra96 represents a unique position in the 96Boards community with a wide range of potential peripherals and acceleration engines in the programmable logic that is not available from other offerings.
Shiratech is an Israeli company that creates development boards. Shiratech produces ARM system on modules that cut time to market significantly and reduce project development risk. Shiratech has several new platforms launching soon.
Shiratech produces ARM system on modules that cut time to market significantly and reduce project development risk. The Mezzanine board by shiratech is a dev board that provides LTE connectivity and can be connected to an arduino or Raspberry Pi. The SPECIFICATIONS are MAX-10 10M04: 256 FPGA package, 4K Logic Elements, 189Kb Block memory, Up to 156KB user FLASH memory, Dual internal configuration, and 178 GPIO FPGA programming using Altera standard programming connector.
Koen Kooi is a release manager at Linaro, developer on the Angstrom project, contributor to the Kodi project, demonstrating Kodi running on a lot of different development boards at Linaro Demo Friday here https://www.youtube.com/watch?v=wipB2_6OKus One of his projects is video playback using accelerated decoding. This accelerated playback can be used in Kodi as well as in HTML5 and web video playback.
Arrow shows some of their latest 96Boards and Mezzanine boards such as the Renesas ANT96 board based on the Renesas RZ Family Renesas RZ/G1E processor featuring a dual-core Arm Cortex-A7. Novtech Meerkat i.MX7D and Chameleon Cyclone V Altera/Intel FPGA board. NextBiometrics NB-2023-S fingerprint sensor mezzanine board, STM32 Sensor mezzanine board and more. Arrow has more than 5 Mezzanine boards in the pipeline and at least 2 base boards too. Oxalis Layerscape LS1012A.
Marcelo Knörich Zuffo is a professor of the Electronic Systems Engineering Department of the Polytechnic School of the University of San Paolo in Brazil. He teaches people how to design electronics and has projects going on such as drones using development boards such as the 96Boards platform. He also teaches PCB design. His particular specialty is autonomous drones that don't require human control. He uses boards from 96boards.
Standard pre-boot environment and boot sequence for embedded platforms, featuring:
- Upstream support in U-Boot
- UEFI ABI
- Firmware-provided system description (DT)
- Boots generic OS images
By standardizing the boot interfacei, platform specific details don't need to be encoded into the OS, and the ABI supports portable pre-boot applications for test and boot control, future work will be on the more standard UEFI featured (e.g. Secure Boot).
Android Treble implemented on TI Beagle-X15 development board which is ARM Cortex-A15, making the upgrade process easier. So there is no need to communicate with the vendor to upgrade a device.