[Q] Windows CE for Tegra2 on the Adam? - Adam General

I've been looking around at Tegra2 Linux support (it has been suspended) to learn a bit more about ubuntu on the adam, but instead I found WinCE.
Mind you it is for the Tango dev kit, not the Ventana (which i'm lead to believe is the board used to template the Adam). It includes an image to flash via a familiar method used to unbrick the Adam.
My question is can we "frankenstein" the image to flash it onto the Adam, despite it being tooled for HDMI output and not based upon the Tango dev kit?
http://developer.download.nvidia.com/tegra/docs/ce6_tegra_250_pack_5265393.pdf
http://developer.download.nvidia.com/tegra/files/ce6_tegra_250_5265393.msi

Wait is the Adam running Harmony or Ven...something ?

Adam is running on a custom board developed by Malata. The board design is patterned on the Harmony DevKit board. (So it's *not* the actual Harmony board, it's just a board that's relatively similar to Harmony).

The board is meant to be Vendetta compatible or something of the ilk right?

Related

Building ARM PC from old qualcom boards?

Sometimes good ideas come from bad situations! Yesterday my girlfriend accidently kicked my lg optimus v into a glass of ginger ale. This is really putting a damper on my kernel development projects.
Anyways to see if I could save the phone at all to use till the replacement gets here I had an idea. Why not reuse the working board and build a mini arm pc with embedded linux on it.
So I'm wondering if anyone out there knows if qualcom will give you chipset schematics and data sheets there site seems fairly sparse. I need schematics for the msm7627. See I figured you could replace the charger with a five port hub then bypass the battery and connect a power supply to the board. You can easily build keyboard mouse support into even the android kernel. But I'm wondering how to connect a monitor maybe if you knew the lcd pin layout you could connect a vga screen to the old socket for the lcd. This is where I think I need schematics unless the pin layout is standard?
I have so many qualcom arm phones with screen damage why not make them into low powered desktop arm dev systems or server, routers, embedded toasters?
Sent from my SPH-M930BST using XDA App
Qualcomm? Schematics for Qualcomm CPUs? Hah! Sorry, forget it. It's probably harder to get than sourcecode of current version of Windows.
There are leaked parts of schemas/manuals for older SoCs. Also if you can find ARMLinux (Android) kernel for such qualcomm CPU - You can build whole new system basing on SFRs description and deep analyse of mainboard. But without schemas it's hundreds hours of blind shots.
I think the biggest issue your going to face is the fact that Qualcomm has never been keen on giving out architectural sheets on their chipsets. Since most newer chipsets incorporate improvements from older models, it would be akin to them giving their competitors access to some very guarded information.
The odds of them giving the design to you without you representing a company that is licensing their chipset for use in a phone, greatly decreases your chances even further.
On a positive note, bypassing the battery should be relatively simple, however, as with all lithium batteries there is a voltage control mechanism built into the phone that you will need to adapt to function properly with a different type of power supply.
As for the monitor, the odds of you being able to adapt a VGA/HDMI cable to a system that is designed to read input from the touchscreen/digitizer is another chore, and would require you to pioneer something from scratch.
I would say your work is cut out for you.
If you really want to do something like this, buy a Raspberry Pi when they hit. It'll be much more adaptable to what your looking to do.
~Jasecloud4
Yap, why going for stuffs like dat? It will blow the entire time u have got to work with roms.
About supply, yap u can manage it.
About chip spec. , its hard
About external/internal display, its nearly impossible unless u have VGA/HDMI o/p.
Sent from my HTC HD2 using xda premium
Well my primary device is is trashed from it beimg totally drenched in soda so all my kernel development is at a schreeching halt basically. Hopefully it will be replaced in the next few days so I can get back on track.
As far as building a little workstation goes that dream is dead lol. I bypassed the battery and hooked the board up to a power supply that was 3volts at 1300ma and it smoked the board. I have plenty of other qualcom phones with bad screens but I didn't realize that they were so closed. I was just tryin to make crap into something usefull lol.
Sent from my LGL55C using XDA App
[email protected]
this rasberry pi thing is exactly what I was looking for and its just the right price! Seriously this is goning to be an awesome little system to vnc into and build arm based assembly. The only thing qualcom has over this is that there are obviously kernel supported drivers for it to use the multiple arm chips and dsp chips so I'm assuming the low end msm 7x qualcom boards are a bit faster although idk they said this thing will push q3 at 1080p. I'm also looking at the beagleboard but this has such a nice price price 25 bucks is right up everyones ally. I smell an android port!
Sent from my LGL55C using XDA App
If you're looking for something with good open source support AND open documentation - check out the BeagleBoard and PandaBoard.
PandaBoard ES has the same CPU as the GNex.
rwgast said:
....So I'm wondering if anyone out there knows if qualcom will give you chipset schematics and data sheets there site seems fairly sparse....
Click to expand...
Click to collapse
Unlikely. Qualcomm considers the information proprietary and requires you to contact support. See Where are the datasheets?
Here are some! Hack away!

Hardware for Android Device

Hey guys,
Recently I have been seeing companies releasing devices for Android that are not phones e.g.
Android USB Sticks:
techland.time.com/2012/05/18/pc-in-your-pocket-74-android-stick-goes-on-sale/
or more recently a game console:
kickstarter.com/projects/ouya/ouya-a-new-kind-of-video-game-console
I'm in University now studying Electrical Engineering and I've had an interest in electronics since I was young, so now I thought it was possible for me to design my own device. But so far my only luck with getting anywhere was drafting designs of the device and finding development boards online. Sure i could start off with development boards to test software (which i'm planning to do) but I am quite lost as to where I should go next. For example where to I get a manufacturer to produce my device or where to purchase a processor/motherboard that is custom designed for my project.
It would be really great if someone could point me in the right direction,
Scott
that's an ambitious project, I've just finished 2 degrees in EE and in the long term i'm looking to do similiar projects, but right now it is beyond my capabilities. But what i have done is buy a very cheap dev kit from STmicroelectronics with their ARM m4 chip onboard. (STM32F4)
this chip should be powerful enough to get started on and all the pins are broken out, plus the device includes a programmer and is powered over usb.
It was less than €20 but is still sat in its box as I've a lot to learn before cracking it open.
Have you any experience with RTOS for ARM, Keil offer a free trial version of their well respected uVision MDK software, it supports the above board directly and removes the need to configure a tool chain etc. Personally i'm trying to get eclipse on ubuntu to program it bit Keil uVision will allow me to blink LED's etc so long as my program is under 4Kb.
I too am only starting down this project but i hope the little i know has been of some help.
As for custom devices, well thats a whole other ball game, you will need to make out a schematic, then a board layout, then gerber files. After that you need a small run on a pick and place / reflow line. It's very rare these work out first time round, attention has to be paid to details like noise sinking, pull up resistors, matching logic levels and optically isolating external devices etc.
It's great that you are looking beyond your course material, I've learned much more from personal geekery rather than just taking notes from a lecturer. Anything you do outside the course will benefit you in a better degree at the end.
I've never been designing device from scratch, and I'm also just first grade student. Anyway I could imagine how this might look for small company or single person:
1) Decide what do you want to build-up. Easiest todo is custom dev-board, it can be always redesigned and packed into tablet case. The hardest to-do is mobile phone, and it's nearly impossible to create such thing due to high level of embedding everything, and need to sign pretty serious agreements with RF CPU (and other things like transceivers, antennas, duplexers) supplier like Infineon or Qualcomm.
2) Think what main components you'll need, like LPDDR, SoC (CPU), PMIC (SoC manufacturer usually recommend PMICs to be used and provide reference board schemas for using both), battery fuel gauge, charging controller (both might be built into PMIC, depends on model), screen+touchscreen (there are dozens of such, one might want to decide its size already, but in case of dev-board like build it usually can be replaced by some smaller/bigger with small HW modifications or without modifications at all), sensors like gyro, compass, pressure, light, whatever.
3) Search through suppliers websites and decide what models of ICs you want to use (I'd pick only open hardware), order engineering samples and get reference schemas, rather start from SoC(OMAP4460 for eg.)+PMIC pair, then decide about the rest.
4) Don't forget about extension slots like USB ports, DC supply, serial converters, whatsoever.
5) Start designing PCB board. IMO it's impossible for begginer to project any usable PCB for embedded system, I'm begginer and I'm failing with simplest boost HF DC/DC converters (like 10-20 parts on board), while such board would have thousands of elements on it, and multi layer board to fit it everything in some rational size.
6) Find company that will make prototype for you - they should make board + solder all the components you provide them - one with no professional (and very, very expensive) soldering stations is not able to solder BGA components at home.
7) Test it out.
Relatively, assuming that main components are free engineering samples, this might be not so money-expensive way to create some useful stuff. But for sure it's very, very time expensive, and begginer alone will nearly for sure fail.
//edit:
I just re-read my post and figured it might be pretty demotivating. I'm not saying it's impossible, but I'd suggest you to start from something easier - ARM dev board is the thing you need. As Quiggers stated above.
Just noticed these - cheap and powerful dev boards:
http://wiki.xbmc.org/index.php?title=Allwinner_A10#Other
Custom design
I'm looking to do the same, has this worked for you? I'm looking to build a custom android based mobile device as the original poster. I haven't had any look finding the correct electrical or device engineer to provide me any assistance. Are you available to assist?
Quiggers said:
that's an ambitious project, I've just finished 2 degrees in EE and in the long term i'm looking to do similiar projects, but right now it is beyond my capabilities. But what i have done is buy a very cheap dev kit from STmicroelectronics with their ARM m4 chip onboard. (STM32F4)
this chip should be powerful enough to get started on and all the pins are broken out, plus the device includes a programmer and is powered over usb.
It was less than €20 but is still sat in its box as I've a lot to learn before cracking it open.
Have you any experience with RTOS for ARM, Keil offer a free trial version of their well respected uVision MDK software, it supports the above board directly and removes the need to configure a tool chain etc. Personally i'm trying to get eclipse on ubuntu to program it bit Keil uVision will allow me to blink LED's etc so long as my program is under 4Kb.
I too am only starting down this project but i hope the little i know has been of some help.
As for custom devices, well thats a whole other ball game, you will need to make out a schematic, then a board layout, then gerber files. After that you need a small run on a pick and place / reflow line. It's very rare these work out first time round, attention has to be paid to details like noise sinking, pull up resistors, matching logic levels and optically isolating external devices etc.
It's great that you are looking beyond your course material, I've learned much more from personal geekery rather than just taking notes from a lecturer. Anything you do outside the course will benefit you in a better degree at the end.
Click to expand...
Click to collapse
Technexion
I have used OMAP3530 CPU. The TAO3530 is a good starting point and you can get a Tsunami board.
s8500 board with tablet touchscreen
hi dudes,
i have an old wave s8500 but the screen is broken. and i have an old tablet screen 7" from herotab8/dropad8.
can i use the tablet screen with the s8500 board? is not drivers necessary for the touchscreen? and where will i get the drivers?
and do i not need the datasheets of the pins to connect?
)
What we REALLY need is for someone to make a SoC that's basically like the one in the Raspberry Pi, but substitutes a FPGA for the GPU that's big enough to re-implement GPU functionality... long after the chip has left the fab & gotten soldered onto an open-ended generic ARM stick with no specific purpose, and thus manages to officially avoid getting infected by DRM-mandated licensing terms (ie, anything *officially* licensed to support h.264 or HDMI) that keep making totally open drivers nearly impossible. After all, if the drivers were 100% open source, there's no way they can stop you from commenting out the part responsible for implementing Cinavia, or lying to endpoint devices (like your home theater amp) about HDCP compliance
To deflect infringement claims, a company that made Android boards from the FPGA-equipped SoCs could make it with a soldered-on DVI port instead of HDMI (HDMI connectors are encumbered by viral licensing, DVI isn't), and put a reference design on their website for a wacky octopus cable that used the DVI-A pins to output unbuffered 3-bit pseudo-VGA, and used the remaining pins as a high-density breakout connector for a bunch of half-duplex RS-485 ports and GPIO lines that just *happened* to use DVI/HDMI logic levels
Of course, you'd never be able to legally sell a product based upon that board to end users in the US with the taboo technologies supported "out of the box", but other companies outside the US not subject to our self-inflicted wackiness could, and hopefully WOULD, buy enough of those boards to drive the price down enough to make them cheap for American hobbyists to buy on eBay and use for our own guerrilla Android-powered hardware projects.
In theory, the Xilinx Zynq 7000 series sort of does this... but at the moment, they're so ungodly expensive, you could almost buy a half-dozen Nexus 7 tablets for the price of their Android-capable dev board.
sounds great dude
Nice
Nice post
Hardware for Android D
Its not even turning on now...guess i will have to take it to a computer shop now, are you sure it has to be major things like "dead hard drive to a burned up chip to a bad motherboard."?

Setting up LCD with Android

I'm just looking to be pointed in the right general direction here.
How would I go about hooking up an LCD and touch panel to an Android board (Raspberry PI or something similar). This is for an embedded device.
Something like a Hannstar HSD062IDW1
sbarrow said:
I'm just looking to be pointed in the right general direction here.
How would I go about hooking up an LCD and touch panel to an Android board (Raspberry PI or something similar). This is for an embedded device.
Something like a Hannstar HSD062IDW1
Click to expand...
Click to collapse
Hey, most of these ARM dev boards have raw LCD headers. If you're an electronics designer then you can go design a PCB to do things like level shift those bits and maybe convert those parallel signals to something else (LVDS or HDMI or watever). But from what I understand, you already have a video out in the form of HDMI and svideo. Some of us here at ArcDatum have done embedded systems research on a whole bunch of ARM boards (BeagleBoard, Pandaboard, the obscure ODROID-X) and almost all of them should have LCD headers. As for touch screens, that's more difficult. Chances are you'll have to use GPIOs or find a screen with HDMI input and USB output for touch sensing. Otherwise you'll have to design an touch screen input/output driver (which actually isn't that hard once you know how.....finding out how is the difficult part since so many of the chips they use have little or no documentation).
You might be in luck with iPhone screens. I personally have heard rumors of people reverse engineering the screen signals and driving them.
Edit: So i looked at your Hannstar link. Looks like you have a 10.5V LED backlight. So u'll have to drive that separately; that's easy enough. As for the actual signals. Looks like the pinouts you have all the RGB 8bit per color channels as well as your power stuff, ground stuff, and your clock inputs all of which can come from either your LCD header on ur RPi (if it has one; i know the BeagleBoard-XM has them) or an external power supply (for Vcc etc). Note you should tie all grounds together in many cases. As for the other random signals you will have to figure out if they're necessary to connect to something (Even if it's ground) or if you can leave them floating. Watch out for your voltage levels and how much current the RGB signals on the display will sink. Likely case is you have to do a level shift from something like 1.8V logic to 3.3V logic or something like that. When you're picking your IC to do that level shifting, also be very aware that the IC has to be able to change from 0 to 3.3V fast enough. You will have to verify that within one clock cycle, the slew rate of every pin (aka each bit for the RGB channels) is high enough to change from a high value to low or vice versa before the next clock edge comes along. If not you're data will be considered corrupt or just completely invalid.
Edit2: Your title states that you're trying to make this work with Android. I think in fact you are trying to drive the LCD with the System on a Chip on the RPi. Depending on the SoC and kernel, you might have to enable the LCD header pinouts in the kernel. Don't quote me on this though. I could be totally bull****ting you. My GUESS is that the same signals that go to the HDMI chip go to the header and in fact when using the header, you're just pulling the logic of those same signal lines (which also means you have to be extra careful of the current you're sourcing from those lines)
I wish to understand your motivation.
There are plenty of cheap Android tablets available with LCD touch screen. Now instead of trying to use one of these you want to get inferior "WhateverBerry" and engineer LCD interface + software stack etc spending your time and money.
Am I correct describing your intention?
Also I am not sure that Android is a good fit for embedded development which is mostly applied to some type of real-time controllers. It is not real-time OS.
If your want to build quickly an embedded controller with LCD touch you can get it done using Arduino boards. There are few LCD modules with touch capabilities available but with very poor documentation. It will require some work but it is feasible to achieve in a few days. It would cost you about $100 in components including Arduino and LCD shield and software is free.
Good luck!
sbarrow said:
I'm just looking to be pointed in the right general direction here.
How would I go about hooking up an LCD and touch panel to an Android board (Raspberry PI or something similar). This is for an embedded device.
Something like a Hannstar HSD062IDW1
Click to expand...
Click to collapse
Adapt0r said:
I wish to understand your motivation.
There are plenty of cheap Android tablets available with LCD touch screen. Now instead of trying to use one of these you want to get inferior "WhateverBerry" and engineer LCD interface + software stack etc spending your time and money.
Am I correct describing your intention?
Also I am not sure that Android is a good fit for embedded development which is mostly applied to some type of real-time controllers. It is not real-time OS.
If your want to build quickly an embedded controller with LCD touch you can get it done using Arduino boards. There are few LCD modules with touch capabilities available but with very poor documentation. It will require some work but it is feasible to achieve in a few days. It would cost you about $100 in components including Arduino and LCD shield and software is free.
Good luck!
Click to expand...
Click to collapse
I agree with this, for the most part. Although theres no reason his application wouldnt be better with Android. What if theyre making some sort of consumer friendly appliance. Android wud be a great place to start. Arduinos wud be good for tiny applications but if they want anything pretty it wont have enough horse power.
Also Im not sure how RTOS fits into this. Sure Android isnt an RTOS, but ur phone is Android and thats an embedded system too. Just because it isnt deterministic doesnt mean it isnt suited for embedded. Just go look at basically any of the Texas Instruments ARM based android/linux dev boards.
Anyway back to the topic at hand. If you want a high powered device then try a BeagleBoard with a third party LCD attachment. It wont be cheap, you would basically have an android tablet only itd be for development (and I mean product development, not just software development). But if you dont need 700+mghz of 32 bit addressing lol, then yes go with a much cheaper arduino and lcd.
Edit: Look at this, I think you'll like it (its an all in one ARM development board):
e2e.ti.com/group/universityprogram/educators/w/wiki/2252.am335x-starter-kit.aspx?sp_rid_pod4=MTk2NzAwNDYzODgS1&sp_mid_pod4=40798754
Also I should clarify Arduinos are a 'cheaper' solution, not a 'cheap' solution. Arduinos are not cheap for the amount of processing power u get and they are almost never suited for LCD applications (but there are a few).
Sent from my SGH-I747M using xda app-developers app
I am glad to have this discussion, it helps to clarify choices we make and avoid waste of time.
RTOS is needed if high rate data acquisition is the core application. If time uncertainty of Android apps execution is tolerable then it might be a good choice considering great UI and communication capabilities.
A number of projects utilize commercial Android hardware with external Bluetooth or USB accessory/ host. In this configuration external accessory acquires and stores data in a buffer, Android terminal reads this data buffer and then does data processing and visualization if necessary.
This combination looks the most efficient since it provides great flexibility with minimal resources.
Low price of Raspberry PI and good marketing attracted a lot of people but usability of this board is very limited. You get what you paid for. It is underpowered for modern Linux and Android, does not have ADC, not suitable for low power (battery) applications. Originally, its main purpose was declared to make learning of programming languages more accessible.
Cheers!
screen
hello Folks,
i even have a broken tablet, but the touchscreen is still ok.
and i still have a samsung wave s8500 with broken screen but it still running.
is there any solution how i can connect the 7 inch screen with the wave?
the 7 inch screen is a mid tablet dropad/haipad.
is there any link to hardware manuall..
and where can i get the driver of the mid?
thanks in advance
Samsung Galaxy Tab 2 7" to LCD
is ther anyone trying connect samsung galaxy tab 2 7" to LCD
or it is imposible.... (

Raspberry pi

This is a device that can legitimately be described as a fully-fledged PC, albeit one that's embedded into a diminutive printed circuit board, measuring just 85.60 mm by 53.98 mm.
The CPU isn't powerful, an ARMv6 running by default at 700Mhz, but it can be powered by a USB cable, and even batteries, and is capable of running a graphical environment with accelerated video - through either an HDMI port or a composite RCA jack suitable for televisions.
The lack of old-style VGA is a problem when you consider there are now so many old redundant monitors, but this oversight is more likely to be a limitation of the SoC hardware than a shortfall in design.
It can also be used to learn developing.
Nothing to do with Android though
News from nowhere.
howard bamber said:
Nothing to do with Android though
News from nowhere.
Click to expand...
Click to collapse
It is a Dev's thing
Raspberry Pi runs Android and we have a forum dedicated to it.
AdamOutler said:
Raspberry Pi runs Android and we have a forum dedicated to it.
Click to expand...
Click to collapse
Raspberry Pi hacking
Right
Sent from my GT-I9103

idea to make a new android dev board

Hello!
I'm working on a very ambitious project and I thought i'd reach out to see if anyone here at xda would have some comments.
I detailed the basics in this reddit post:
http://www.reddit.com/r/SideProject/comments/2pqh3f/an_idea_to_end_the_proprietary_living_room/
TL/DR: I want to make a new embedded dev board (like a raspberry pi) but with more power, and HDMI Inputs, and HDCP Compliance. This dev board would be the heart (brain) of new open source AV Receivers.
I want to target linux, as well as Android with this. I think an Android powered AV Receiver would be AMAZING!
Currently i'm leaning towards an atom processor, as the price is right, and the performance seems to be very good. x86 development is very mature, however that could prove a hindrance, as arm is more optimized. However, i'm sure others have insight into the ideal configuration. I haven't used the nexus player (only x86 device i know of), so i'm interested in hearing peoples experiences.
I welcome all questions and comments. I'm looking for someone interested in helping with the design of the board.
The Open Home Alliance
Freeing humanity from the proprietary living room
Coming soon to other rooms...

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