Download Helicon Remote 3.9.6 APK File for Android. Home → Photography → Helicon Remote APK File v3.9.6 → Download APK File. Download Helicon Remote Latest Version 3.9.6 for Android, click the direct download link below to download APK file with maximum download speed.
Note: See the updates in the comments at the bottom. A Windows 10 UWP app can be built upon the Remote-Wiring library such that the app can interact with an Arduino device running Firmata. An app, similar to the Windows Remote Arduino “Blinky” example, but with feature additions, is developed. It performs GPIO (output AND input) as well as some analog IO. This app is functionally the same as Windows 8.1 version in the previous blog in this series. This blog works through the same material (ie repeats much of it) as the previous blog but from the Universal Windows Platform (UWP) context rather Windows 8.1 Universal App context. The target for the app is Win 10 desktop, Win 10 phone and Raspberry PI2 (running Win 10 IoT).
The latter target is a 'work-in-progress though'.This blog can be read without reference to the previous blog. This project is detailed on my blog at The Windows Remote Arduino “Blinky” example is at. Universal Apps and Universal Windows Platform Apps Universal apps (UA) reached their zenith in Windows 8.1 You could implement apps targeted at Windows Intel desktop, the ARM RT Surface and the Windows Phone (ARM), all in the same solution. They could share common code such as event handlers, general computation and data.
XAML code had to be specific to the target. You just compiled the separate subprojects for each target. During the compilations, the common code was included. With the “One Windows” paradigm shift in Windows 10 the same code for all targets, including the XAML code can be used for all targets. The same project just needs to be recompiled for different targets. With the UA name applied to Windows 8 apps, a new name was needed for the truly universal apps. Hence the name Universal Windows Platform apps was coined for Windows 10.
All Windows 10 platforms support UWP apps. But there are extensions specific to the each platform. For example Windows 10 IoT extensions support GPIO, I2C, SPIO etc. Mobile extensions support phone functions. UWP provides a guaranteed core API layer across all devices. The Windows 10 Extension SDKs.
The Desktop, Mobile and IoT extensions are checked. For tis blog we use the UWP template rather than the UA as in the previous blog. We don't need any of the extension SDKs.
1 Set up the Bluetooth communication with the Arduino device. You can skip this section if you have already done the Win 8.1 activity. USB or Bluetooth can be used for the Firmata communications between the Arduino device and the Windows device. For Windows 10 both can be used, whereas for Windows 8.1 only Bluetooth can be used. For this version of the app, Bluetooth will be used. I used a whereas the was used with the “Blinky” example referenced above. The main difference is the range of the Gold is up to 100m whereas that of the Silver is 10m.
The default handshaking settings are also different. These both have a TTL level UART interface that can be used both for configuring the operating mode of the Bluetooth device and for interacting with the Arduino serial port. If you need to configure the Bluetooth device, a Sparkfun or Freetronics USB-Serial or Free device can be used to configure the device via a desktop serial terminal.
You can also factory reset the device to default settings by connecting the PIO6 (its actually PIO4) pin to high, and toggle three times. Bluetooth Mate has the same pin out as the Sparkfun FTDI Basic, and so they can be used interchangeably. You cannot directly plug the Bluetooth Mate to an FTDI Basic board (you’ll have to swap TX and RX). That configuration can be used with a desktop serial terminal, with the FTDI device USB connected to the desktop, to configure the Bluetooth device (or to use Bluetooth device for serial communications from the desktop. The default TTL UART serial settings are:.
Baud rate 115,200. 8 bits.
No Parity. 1 stop bit. Hardware flow control enabled (on Mate Silver this is None). Serial Port Profile (SPP): FireFly-WXYZ where WXYZ is the last 4 digits of the device's BT MAC Address.
Passkey 1234 Note that the device can store up to 8 device parings. The documentation for the Bluetooth device is at: The Firmata configuration is for a Baud rate of 57600 which needs to be changed or the Bluetooth device configured for that. For this exercise, we will modify the Firmata configuration, which is the easier approach. The Hardware flow of control also can be handled by configuring the Bluetooth device, but for this exercise is handled by connecting RTS to CTS. Whist the Bluetooth device can be mounted on a Breadboard and connected to the Arduino device from there, I elected to mount a socket for it on a Prototyping Shield.
A 6 pin Arduino Shield Header was soldered onto the Bluetooth device at the TTL UART pins with the socket facing outwards. The pins were bent 900 downwards so that the device can be plugged vertically into another shield header. The BT socket then can be used to directly connect it to similarly mounted FTDI Basic module if configuration is required.
A wire was later soldered to PIO6 (PIO4) on the Bluetooth module, for factory resetting. Figure 3 Bluetooth Module with shield header at UART pins, and shield headers An 8 shield header was mounted in the middle of the prototype shield at the bottom.
Also add headers at the outside of the shield so that it can plug directly into the Uno. Figure 4 Arduino Prototype Shield for mounting the Bluetooth module The Bluetooth module is then inserted facing the GPIO pins, towards the pins 0 and 1 (Rx/Tx)., leaving the yellow location clear. One of those can be used a temporary location for the factory reset wire. Figure 6 Mounted Bluetooth module on Arduino device 2 Set up Firmata You can skip this section if you have already done the Win 8.1 activity.
Note: The Arduino Uno’s UART Pins 0 and 1 are unavailable when it is being programmed via USB from the Arduino IDE. These same pins are what are connected to the Bluetooth module’s TTL UART interface when it is interfaced for Firmata communications. Therefore, when the Arduino device is to be programmed in this section, the Bluetooth device should not be connected.
2.1 Assuming that you have previously developed for an Arduino (Uno) device, create a new Standard Firmata shield: 2.2 There is one change to be made, the Baud rate. In the IDE, do a search for 57600. Replace it 115200. Save the Sketch, I called it Firmata115200.
Program the Uno and this part is done. 3 Set up the Universal App Firmata software stack This section only slightly different that already done the Win 8.1 activity. The software stack consists of three layers: The Remote-Wiring API implements properties (configuration), methods and event at a conceptually high level for Arduino hardware interaction.
For example, GPIO (eg Get and Set Pin, On Pin changed etc). It communicates with the Firmata layer using the Firmata protocol. Firmata communicates down the stack via the serial protocol that is implemented as Bluetooth and USB-Serial transport layers in the Serial layer. The USB option isn’t available for Windows 8.1. This software stack called is available for two sources:.
Both contain Windows 8.1 and Windows 10 versions. Whilst both versions’ Windows 10 versions will build, I have found that the second one’s Windows 8.1 won’t build. I used the Visual Studio 2015 RC version:.
Microsoft Visual Studio Community 2015 RC. Version 14.0.22823.1 D14REL.
Microsoft.NET Framework. Version 4.6.00076 3.1 Download the first version. To do so properly, you need to clone the repository (don’t download the zip):.
Install git or GitHub. In the git shell or GitHub Desktop Shell (it’s Powershell), enter the following from a suitable directory: git clone -recursive The directory structure of what you get is: windows-remote-arduino-samples o remote-wiring Microsoft.Maker.win81 Microsoft.Maker.win10 source o win81 o win10 The latter two folders (win81 and win10) are just example apps (including the “blinky” example) which we will ignore for now. Both Maker versions make use of the same sources folder so for Windows 10 we need just: windows-remote-arduino-samples o remote-wiring Microsoft.Maker.win10 source to a suitable folder. I suggest one at the root of the drive, say, c: wras10 as I have found that you can get some errors with an ARM build to do with path names being too long. You might want to also copy the.md files for reference.
These can be opened in VS. 3.2 Open the solution file in Microsoft.Maker.win10 3.3 Set the target to Win32 build the solution. Three builds are done. One for each of the three layers in the software stack. 3.4 Do same for the ARM configuration.
If you have an x64 machine, then you might like to try that build as well. 4 Create the HW LED UWP app There is a 'short-circuit' in this section for those who have done the previous Win 8.1 activity. For this initial version of the app/s, a software button will turn a hardware LED on and another will turn it off.
The LED will be connected to GPIO pin 5. The “Blinky” documentation says that there are a number of ways to get and use these libraries. Ultimately Nuget will be the way but that is not yet available.
You can reference these built versions in a general manner on your development system, The easiest way is to just add the required Universal app to the solution and reference them. We will use that method. 4.1 Add a new C# Windows Blank Universal app to the solution. (Note not Windows 8.1 this time). Give it a suitable name. I called mine wrauwp: Windows Remote Arduino Universal app UWP.
Note that this time there is only ONE project created (UWP). The XAML and CSharp code is the same for the desktop and mobile versions of the app.
The difference is in how it is compiled. The Serial and Bluetooth capabilities are needed in the pacakage manifest: 4.2 Open the package.appmanifest in the text editor (not its GUI) by View Code. The Internet Client capability is included at the bottom. Modify this section to: In packkage.appmanifest Also, if we were using USB-Serial rather than Bluetooth-Serial on the desktop, we would add a capability for that. A reference to each of the relevant software layers is required: 4.3 Add references Firmata, RemoteWiring and Serial for the desktop UA (again only need do this for one project). 5.3 Connect the Arduino Pin 5 to a hardware LED. Provide GND, VCC and a suitable resistor in series.
![Remote Remote](/uploads/1/2/5/6/125605251/815809299.jpg)
![Remote play port apk Remote play port apk](/uploads/1/2/5/6/125605251/753776392.png)
As mentioned in a previous blog with respect to I use a development board for implementing my testing IO such as LEDs, switches etc. If you do not have a similar board you might like to use the but you will need to reverse the polarity of pin setting in button handlers. 5.4 Power up the Arduino device and pair up the Bluetooth module with your desktop (Passkey=1234).
I’ll assume you know how to do this. 5.6 It will probably ask you whether it’s OK for the app to connect to the Bluetooth device. OK 5.7 Test the functionality of the app. Set a breakpoint in the button handler/s and check that you can debug. 5.8 Repeat 4.1 to 4.6 for x64 if you have a 64 bit desktop. 5.9 Turn off Bluetooth on your desktop Now to test your Windows 10 Phone, assuming the phone is configured for development.
5.10 Turn on your phone, go to Settings/Bluetooth and turn it on. Pair with the Bluetooth module (Passkey = 1234). 5.11 Continuing with the Windows Universal app as the startup project. 5.12 Set the Target to ARM, Device and rebuild 5.11 Connect up the phone via USB Serial to the desktop and deploy the app. Now to test the Raspberry PI 2 THIS IS A WORK IN PROGRESS.
SEE NOTE AT END OF THIS SECTION 5.13 The Remote debugger is already installed and active on the RPI2 configured for Win 10 IoT. 5.14 Determine the IP address of the RPI2, eg with the Windows IoT Core Watcher.