power supply with lcd screen free sample

There aren’t many components as boring as the power supply in your PC, but the new Aorus P1200W 80+ Platinum modular power supply is looking to change that. The unit includes an LCD screen on the side that allows you to quickly monitor system information or just add a little more bling to your build.

The main purpose of the screen is to show system information like your total power consumption, fan speed, and PSU temperature. However, you can customize it with just about anything. The screen supports custom text, image files, GIFs, and even MP4s, so you can loop your favorite clip or perhaps even play a full movie.

Gigabyte hasn’t listed any information about the screen, so the resolution and refresh rate might kill the experience. Under the screen is a thin RGB strip with some Aorus branding, which you can customize and sync through Gigabyte’s RGB Fusion 2.0 software.

Glitz isn’t all that makes the P1200W stand out. As a high-end unit capable of taking on the best power supplies, it comes with 80+ Platinum certification, flat modular cables, Japanese capacitors, and a slew of temperature, current, and voltage protections.

It isn’t short of connections, either. It comes with 24-pin motherboard power, two 8-pin CPU connectors, six 8-pin PCIe cables, 16 SATA connections through four cables, and two Molex connectors. All of the cables are fully modular, too, so you only have to plug in what ones you’ll use.

Keeping everything cool is a single 140mm fan, which stays idle if the load is under 20%. The fan also has a unique feature that lets you reverse its direction to blow dust out that’s accumulated inside the power supply. You can set the fan to do that every time you turn on your computer, or you can do it manually.

Unlike a lot of high-wattage power supplies, the Aorus P1200W isn’t any bigger than a standard ATX unit. It measures only 160mm in length compared to the 200mm seen on most other 1200W PSUs.

Shenzhen Teng Da Xing Electron Co., Ltd was established in 2009.,Which is located in Shenzhen.It is a professional manufacturer of Power adapter ,integrating R&D, mass production, sales and after-sale services.

The PowerPac Universal power supply fits the broadest range of applications of all power supplies on the market, from mini vertical and high-throughput electrophoresis to blotting.

In this article, I will show you how to communicate with a DWIN display using the serial port of a computer. I got the privilege to receive two displays from the manufacturer for a review in exchange for content made about them. I accepted their offer because I have been always interested in human-machine interfaces (HMI) and I could see that I can use their displays in many of my upcoming projects as well as I can upgrade some of my older projects using the displays.

So, finally, after climbing the steep learning curve, the content is ready for consumption. If you better like listening to the instructions, I made a video with similar content as you can see below.

If you have any inquiries about the screens or want to get a free sample, you can contact them on social platforms like WhatsApp or Email details are given below.

These displays communicate via serial communication through their TX and RX pins. This makes it simple to connect them to microcontrollers without implementing difficult i2c or SPI libraries. Just two wires and the power supply rails (+5 V and GND), that’s all.

The software is created with DWIN’s own developing environment called DGUS. This software creates the binary files for controlling, configuring and handling the display as well as it can communicate with the display via the serial port. The display handles images, fonts, icons and other visual stuff. All these features are compiled into a binary (BIN) file which is uploaded to the display. The uploading of the resources (at least on the displays I have) can be done via an SD card. Certain files can be uploaded via serial connection as well, but generally, the SD card upload method has to be used.

Once you installed the driver and unpacked the DGUS tool into a folder, you can start working with the display. Keep in mind that at the end of the process, the config files will need to be copied on an SD card. The SD card has to be formatted in a specific way described by the manufacturer. The display then can read the SD card properly. More on this a bit later below.

Let’s look at the welcome screen of the DGUS software. Here you have many options. You can start a new project or open an old project, you can generate fonts, pictures…etc, you can start the serial communication tool and many more. I think the first thing that you should do here is to start a new project. You can create a project as I do in this article and follow my steps so you can see how the files are structured and handled.

Click on New, then enter the screen resolution (I manually entered “480X800” because I could not find it in the drop-down list) and select a folder where you want to store the files for your project.

Then we start building up the GUI. This display works in an initially unusual way if you are used to the typical WYSWYG editors where you can drag and drop the different controls over a specified area and then configure them. With this type of editor, you have to first draw the controls in an image editing software (Paint, GIMP, Photoshop…etc.), then create areas over the image and assign a certain behaviour to these areas. This was very unusual for me in the beginning but once I understood the principles, it actually all made sense.

First, the file name has to start with two zeroes, for example, you can name the file as “00_background.jpg”. Then, this file has to be loaded into the DWIN ICL Generator and an ICL file has to be generated from it. Here comes another trick: the ICL file that you just generated has to start with the number “32”, for example, call it “32.ICL”.

If I understood correctly, the display will recognize the different configuration files and their purpose by these two numbers at the beginning of their file name, so it is important to name them properly. Once this is done, we can start filling up our picture in the editor with functionalities such as buttons, sliders, variables, icons, curves and so on.

In this simple demo, I want to show you how we can send some data from the serial port to the display and how we can translate the interaction with the display (e.g. touching it) into a message on the serial port.

To be able to communicate with the display, before doing anything we must understand how the display communicates. As I said, it communicates via serial communication. It uses hexadecimal (HEX) characters to send and receive information. There are two types of operations: reading and writing.

To accommodate the above functions, I drew a very low-budget design image in GIMP. Both the ADC value and the slide value will be displayed in one of those blue areas. The display can print texts, numbers…etc., so all we will need to do is to place the text over the blue areas and then send the values to the corresponding VP addresses. Then we have that green rectangle which will be functioning as the slider. I also drew a small box that will indicate the position of the slider. And the final item will be that big dark orange/brown button with the “LED” text on it. Pressing it will toggle the LED in a future demonstration. I will implement the handing of the button press in Arduino because it is more straightforward for me.

Once again, the most important thing here is to give a proper VP address to this field. Always keep track of each control’s VP address and be careful not to define them in the way that they overlap with each other.

The slider variable parameters are shown on the right side of this text block. I already explained all the parameters for the ADC variable and they are almost the same here. Since this is a different value, it needs another address. I put the variable on the 1000 VP address. This means that when the slider is moved, it will have to write its position to the 1000 VP address and we also know that if the display sends something to the serial with the 1000 VP address then it comes from this variable that represents the position of the slider.

Once the control is added to the display, we can adjust its settings. Here, I also chose the 1000 VP address. This is very important! Why I did this is because when I move the slider, then the display will put the corresponding value in the 1000 address. Since the slider variable is also tied to this address, it will get this value and it will display it on the display as a human-readable number. Furthermore, you can see that I checked the “Data auto-uploading” checkbox. This means that whenever I interact with the control, the display will send out the value of the variable under the 1000 VP address through its serial connection. So, as I mentioned above, when we see a message from the display coming from the 1000 address, we will know that the value in that message is the position of the slider. The dragging mode does not need any explanation, neither the “start value” nor the “terminated value”. I think that this is a mistranslation, I would call this parameter the final value or max value.

Finally, we add the button area over the “LED” text with the orange/brown background. First, let’s select the Touch Control menu and select the “Return Key Code” icon. Probably this is not the most efficient way of doing this, but I found it very simple and I can also easily customize the message to be sent.

Here comes a little trick that I needed to discover myself because I could not find an explanation for it. So, first I could not get any reply from the display on the serial terminal whenever I interacted with it. If I sent a command to the display and read the VP address manually, I could see that the value of my variable changed in a way I wanted to, but I could not get it to show up automatically on the serial terminal. Despite the fact that the “Data auto-uploading” was checked in!

Click on the CFG Edit tab. Then, on the left side, you can see an option called “Touch-sensitive Variable Changes Update”. For some weird reason, this is “Non-auto” by default. Change it to “Auto”. Also, if you are bothered by the beeping sound of the display whenever you touch it, change the “Touch sound” to “Off”. Furthermore, you can play around with the “Power-on Display Direction”. In my case, I left it at “0°” because I use the display in portrait mode in an orientation where the serial connector is at the bottom of the display and the SD card reader is at the top. Otherwise, I would use 90° or 270° depending on how I want to rotate the display in landscape mode. Once you chose the settings you want, click on “New CFG” and save the file named as T5LCFG.CFG in the DWIN_SET folder of your project. Later on, you will have to copy this file onto an SD card, so it is better to keep everything together in the same folder.

But, before doing anything, please DO NOT hot-swap the SD card in the display. First, remove all power (screen is OFF), then plug in the SD card to the slot, and then connect the display to a power source. Otherwise, you might damage the display. Also, you cannot use the display’s SD card slot as a card reader to upload the config files to the display. You will need a separate card reader!

Once all the files are on the SD card under the DWIN_SET folder, put the card into the display while the display is OFF! After the card is inserted, you can connect the display to a power source. If everything is correct, you should see a blue display that is showing you the progress of the uploading from the SD card to the display. It shows you which file is being transferred at the moment and at the end of the process, there will be a message at the top of the screen (2nd line) which says:SD Card Process… END !

Once you see this message, unplug the display from the power source and then remove the SD card. Now, without the SD card in the slot, power up the display again. If you followed my instructions properly, you should see the background picture you have uploaded and you should be able to interact with the display.

From this point, you can upload modified code to the display via USB, but only the files starting with 13, 14 and 22 numbers. I could not find a way to update everything on the display via USB, so if you want to make a change, it is better to stick to the SD card uploading method. The USB connection is used for communicating with the display but not programming it!

Initially, it was a bit difficult to understand the principles of these DWIN displays. But after some time, I got the hang of it and I started to understand how to work with the display. They are really cheap but powerful devices and they can serve a lot of projects. In exchange for their extremely good value-to-performance ratio, you pay a bit more in time while learning how to work with these displays.

Insert the TF Card to Raspberry Pi, connect the Raspberry Pi and LCD by HDMI cable; connect USB cable to one of the four USB ports of Raspberry Pi, and connect the other end of the USB cable to the USB port of the LCD; then supply power to Raspberry Pi; after that if the display and touch both are OK, it means drive successfully (please use the full 2A for power supply).

After execution, the driver will be installed. The system will automatically restart, and the display screen will rotate 90 degrees to display and touch normally.

The iPhone 13 Pro display has rounded corners that follow a beautiful curved design, and these corners are within a standard rectangle. When measured as a standard rectangular shape, the screen is 6.06 inches diagonally (actual viewable area is less).

.jpg, .tiff, .gif (images); .doc and .docx (Microsoft Word); .htm and .html (web pages); .key (Keynote); .numbers (Numbers); .pages (Pages); .pdf (Preview and Adobe Acrobat); .ppt and .pptx (Microsoft PowerPoint); .txt (text); .rtf (rich text format); .vcf (contact information); .xls and .xlsx (Microsoft Excel); .zip; .ics; .usdz (USDZ Universal)

As part of our efforts to reach our environmental goals, iPhone 13 Pro do not include a power adapter or EarPods. Included in the box is a USB‑C to Lightning Cable that supports fast charging and is compatible with USB‑C power adapters and computer ports.

We encourage you to re‑use your current USB‑A to Lightning cables, power adapters, and headphones, which are compatible with these iPhone models. But if you need any new Apple power adapters or headphones, they are available for purchase.

We’re committed to making our products without taking from the earth, and to become carbon neutral across our entire business, including products, by 2030.

Available space is less and varies due to many factors. A standard configuration uses approximately 12GB to 17GB of space, including iOS 15 with its latest features and Apple apps that can be deleted. Apple apps that can be deleted use about 4.5GB of space, and you can download them back from the App Store. Storage capacity subject to change based on software version, settings, and iPhone model.

iPhone 13 Pro and iPhone 13 Pro Max are splash, water, and dust resistant and were tested under controlled laboratory conditions with a rating of IP68 under IEC standard 60529 (maximum depth of 6 meters up to 30 minutes). Splash, water, and dust resistance are not permanent conditions. Resistance might decrease as a result of normal wear. Do not attempt to charge a wet iPhone; refer to the user guide for cleaning and drying instructions. Liquid damage not covered under warranty.

To send and receive money with Apple Pay, you must be at least 18 years old and a resident of the United States. If you’re under 18 years old in the United States, your family organizer can set up Apple Cash for you as part of Apple Cash Family. Then you can send and receive money with Apple Pay. Sending and receiving money with Apple Pay and the Apple Cash card are services provided by Green Dot Bank, Member FDIC. Learn more about the Terms and Conditions.

Testing conducted by Apple in August 2021 using preproduction iPhone 13 mini, iPhone 13, iPhone 13 Pro, and iPhone 13 Pro Max units and software and accessory Apple USB-C Power Adapter (20W Model A2305). Fast-charge testing conducted with drained iPhone units. Charge time varies with settings and environmental factors; actual results will vary.

Apple defines its restrictions on harmful substances, including definitions for what Apple considers to be “free of,” in the Apple Regulated Substances Specification. Every Apple product is free of PVC and phthalates with the exception of AC power cords in India, Thailand (for two-prong AC power cords), and South Korea, where we continue to seek government approval for our PVC and phthalates replacement.