For the most part, I have been happy with the AR11’s cooling performance in most of my workflow. However, there were occasional temperature spikes as high as 80C, especially when running software that utilizes all eight cores. And, when higher temperatures were reached after a sustained workload, it took some time before a lower idle temperature in the 30-40C range was reached.
I hypothesized that the AR11 could perform better if it had more airflow (the AR11 comes with a Silverstone-branded 92mm x 92mm x 15mm fan that has straight blades and is nearly silent) and if it had better thermal conductivity (I had used the included disposable packet of thermal grease) between the CPU lid and the AR11’s four heat pipes.
However, I had some limitations to consider. As you can see below, there is only about 15mm of space between the stock AR11 fan and my 3.5″ Western Digital hard disk.
This amount of space would permit me to replace the 15mm tall Silverstone fan with a larger 25mm tall fan. I chose the Noctua NF-A9 PWM after reading so many people sing their praises for Noctua’s products and considering how this fan’s maximum airflow of 78.9 m³/h and static pressure of 2.28 mm H₂O, which make it a good fan for moving air over a heatsink.
After removing the four screws holding the Silverstone fan to the top of the AR11 heatsink, I attached the Noctua NF-A9 with four fine-thread 3/8″ screws that I had on-hand. I attached the fan so that it would push air down and through the fins of the heatsink.
When I had first removed the stock AR11, I had to clean the Silverstone thermal compound off. First, I wiped off the excess with a paper towel, and then, I used cotton swabs dipped in isopropyl alcohol to clean off any residue. I continued cleaning until the swabs remained clean and the metal surfaces of the Ryzen 7 lid and AR11 heatpipes were immaculately clean. With these contact surfaces clean, I applied a very small pea sized amount of Arctic MX-4 thermal compound, which I had read performed very well and was on sale at the time, to the top of the Ryzen 7 lid. I painted the top of the lid with the thermal compound using an old credit card so that there was a very, very thin layer of compound across the top. Finally, I placed the AR11 on top of the Ryzen 7 CPU and affixed the nuts under the motherboard to pull the two together. As you can see in the image above, there is no excess thermal compound extruding out and absolutely no space left between the cooler and the CPU.
After reassembling the Ideacentre, there is about 5mm of space between the Noctua fan on the AR11 and the 3.5″ hard drive (see image above).
After rebooting, I ran Cinebench r23‘s multicore benchmark to max out the CPU. Before replacing the fan and thermal compound, Open Hardware Monitor reported a max temperature of 80C and the Cinebench score was 11,352. After replacing the fan and thermal compound, the max temperature was 69.8C and the Cinebench score was 11,446!
Needless to say, I am happy about the results of this inexpensive upgrade to my computer’s cooling system.
There are three caveats that I should mention in closing.
First, Lenovo’s BIOS has only two fan control settings for its PWM fan headers on the motherboard. These are “Performance,” which I have been using since I first got it–on the stock cooler and the AR11, and “Experience,” which should adjust system fan speeds according to rising or lowering temperatures. Since I want maximum cooling, I am leaving it on the “Performance” setting, but this has the side effect of an audible difference between the Silverstone (virtually silent) and Noctua (noticeable fan noise).
Second, some folks online recommend applying the thermal compound to the AR11’s heatpipes instead of the CPU lid. I didn’t do this, because the heatpipes extend across the Ryzen 7 CPU on two sides. Also, the milled fins between the heatpipes should make contact with the CPU lid, too. I wanted to make sure there was as much heat transfer as possible over the entire face of the Ryzen 7’s lid. Therefore, I applied the thin layer of thermal compound to the entire lid before installing the AR11.
Third, and finally, the AR11 is made for Intel 115x applications. I’m only using it with my Ryzen 7, because Lenovo seems to use the Intel 115x cooling solution hole pattern on both their Intel and AMD motherboards. Also, Lenovo’s chassis-integrated CPU backplate limits what kinds of headsinks that I can easily install. The AR11 uses bolts that don’t require a backplate. When I purchased it, I was unsure if another impressive cooler, the ID-Cooling IS-60, would fit (I think it would not). However, other low profile coolers that might fit within the IdeaCentre 5’s tight interior, such as the Noctua NH-L9x65 and Scythe Big Shuriken 3, use a backplate for installation. The built-in chassis backplate can be removed–the top part is glued down but removable, and the chassis ‘bump’ that hold it in place potentially could be cut out with a Dremel-type tool (but this might not be necessary depending on the thickness of the backplate used.
As an English professor at the New York City College of Technology, CUNY who teaches classes asynchronously with weekly posted video lectures anchoring each class, a lot of my time goes into planning, shooting, and editing these lectures in addition to designing course sites, writing syllabi, adding content and assignments, and corresponding with students via email.
Overall, my i7-based computer supported my work admirably except for the final step of rendering my edited videos into single files before uploading them to my YouTube channel. For a two-hour-long lecture, the rendering time could be as long as 30 minutes. While not excessive, I knew that a newer computer with a CPU with more cores and threads than the 4-core/8-thread CPU that I had built several years ago would render the videos much more quickly.
I didn’t want to reinvest in my desktop setup unless I could afford to double the performance of my current setup (a rule of thumb that I picked up from my friend Mark). As a point of reference, the i7-7700 has an average CPU Mark of 8,617. Considering the price and long-term support of Intel and AMD’s platforms, including the cost of a new CPU, motherboard, and RAM, I focused on AMD’s Ryzen 7 3700X and OEM-only Ryzen 7 4700G, both of which seemed to fit the bill with CPU Mark scores of 22,804 and 19,863 respectively. The lower cost of processors and motherboards combined with higher out-of-the-box RAM speed support and a commitment to supporting multiple CPU generations across motherboard chipsets via the AM4 socket also weighed in AMD’s favor.
While I could reuse my PC’s case, power supply, and drives, I thought about how much room the i7’s Corsair Carbide Series 100R case, which I had purchased earlier in the pandemic to accommodate a large video card, takes in my small closet-sized work area (approximately 18.5″ x 7 7/8″ x 17″ or 2477 cubic square inches). My cramped work environment led me to lean toward a pre-built system using the OEM-only Ryzen 7 4700G, because these systems, primarily made by HP and Lenovo for sale in the USA, are relatively tiny desktop PC systems.
Additionally, the Ryzen 7 4700G’s integrated graphics are nearly as strong as the discrete graphics in the Radeon RX 550 video card that I had in the i7-7700 system. This would mean that I didn’t need to have a discrete video card if I went with a 4700G-based system.
Another plus for the Ryzen 7 4700G is that it supports dual-channel DDR4-3200 RAM out of the box without a need to overclock the RAM (and having a motherboard that supports this function). Having fast RAM is essential for my workloads and it is needed even more so if I am relying on integrated graphics, which would share the RAM with the operating system and applications.
However, I didn’t want to overspend on a pre-built system with a 4700G processor. I knew from tracking computer prices that there had been deep cut sales on HP’s 4700G system (an incredible $450) around Black Friday 2020 and early in 2021. In fact, my friend Mark in Atlanta had worked on such a system for a friend of his family, and he filled me in on his experiences with upgrading its RAM and heat-sink and fan (HSF).
Ultimately, I choose the Lenovo IdeaCentre 5 with Ryzen 7 4700G system, because commenters online seemed to have stronger out-of-the-box experiences with it than that HP Desktop M01-1024. In particular, the Lenovo IdeaCentre 5 with a 4700G CPU included two sticks of DDR4 memory (which enables dual channel, as opposed to a single stick not in a dual channel configuration) and two drives (one SSD and one HDD). Also, I was impressed by my experience with a Lenovo ThinkPad, including its long life and build-quality, which I hoped would carry over with the IdeaCentre-line of desktops.
The Lenovo IdeaCentre 5 came with 16GB (2x8GB) DDR4-3200 RAM, a 256GB M.2 SSD, and a 1TB HDD. Its small footprint (13.5″ tall x 11″ deep x 5.75″ wide or 854 cubic square inches–almost 1/3 the volume of the Corsair 100R case!) saved space in my office, too. As I needed to begin working right away with the new system before making any upgrades, the Lenovo system seemed like the right way to go for me. Though, it took me about a month of price watching on Lenovo’s official eBay store before they lowered the price to an acceptable $560.69 with free shipping.
Below, I’m recording some of my experiences with the Lenovo IdeaCentre 5, including installing Linux Mint, upgrading the RAM, swapping out hard drives, installing an aftermarket heat-sink and fan, accounting of the costs involved, and concluding with a look ahead.
Installing Linux Mint
Since late last year, I’ve been using Linux Mint as my daily driver. My long-term issues with Microsoft Windows 10 and its data collection and forced upgrade regime, and frustration with Apple’s direction immediately before and certainly after Steve Jobs’ passing led me to switch to Linux where I have more control over my computer, my data, and the software that I use. Using Linux, I can get my work done without feeling that my computer isn’t mine, I’m being spied on, or I’m locked into a corporation’s walled garden.
The software that I use on Linux Mint supports my workflow great. For recording my weekly lectures, I use Google Slides (for the background), OBS Studio (to capture part of my screen with my webcam video overlayed), and Shotcut (to edit the video before uploading to YouTube). Also, I use open-source software, including LibreOffice (word processing and spreadsheet use), GIMP (image editing), Audacious (music playback), Firefox (web browsing), Thunderbird (email), Handbrake (trancoding), and SMPlayer (video playback), as well as proprietary software, including Wolfram Mathematica (mathematical modeling) and Zoom (video conferencing and online event management). While I could install Microsoft Office and Adobe Acrobat and run them in Linux via WINE, but I have found that their web-based, online counterparts work remarkably well when it is absolutely necessary that I use them.
Perhaps the biggest reason why I prefer Linux over Mac OS X and Windows 10 is how well the Linux operating system does disk and file system specific things like handling large numbers of files and nested directories. Throughout my career, I have collected copious notes, articles, and other research data that are organized in many nested folders, each potentially containing thousands of files. Mac OS X and Windows 10 would bog down when opening these directories of files. Searching through these files was also an ordeal with Apple and Microsoft’s offerings despite some third-party tools that made things better. Linux file systems and open-source tools give me far more control over my files both in handling and searching them, which helps me do my research more efficiently. Some of the search tools that I use include grep, Catfish, and Recoll.
Installing Linux Mint was a snap on the Lenovo IdeaCentre 5 with a Ryzen 7 4700G CPU. On my old PC, I used balena Etcher to burn a copy of the installation media for Linux Mint 20.1 on a USB drive. Before installing Linux, I backed up the Windows 10 installation media to a separate USB drive in case I needed to reinstall Windows on the Lenovo for some reason. Then, I rebooted the Lenovo, went into the BIOS, changed the boot order so that it would load the USB drive first and disabled SecureBoot, which causes problems with some Linux drivers for the WiFi card and other hardware. Continuing with the bootup process, I directed Linux Mint to launch the desktop so that I could see that everything worked before installing. Everything did work out of the box except for high resolution graphics, which I figured might be due to the older long-term support kernel that might not have drivers for the 4700G’s integrated graphics. So, I erased the m.2 SSD, installed Linux Mint, and after booting in successfully with the 5.4.0 kernel, I updated to the 5.8.0 kernel, which solved the graphics issue and restored 2560×1440 resolution on my 32″ MSI Optix MAG322CQRV monitor.
Maxing Out the RAM and Swapping the HDD
After receiving the Lenovo IdeaCentre 5 and testing out its stock capabilities, which were impressive compared to my i7-7700, I installed its first major upgrades: swapped the 16GB (2x8GB) DDR4-3200 RAM for 32GB (2x16GB) DDR4-3200 RAM, and swapped its included 1TB HDD (a Western Digital Blue) for my 4TB HDD (also a Western Digital Blue).
After taking out two screws on the back of the case, I slid the side panel off, which exposed the computer’s components–motherboard, CPU, RAM, PSU, and drive cage (to the left above). Before opening the drive cage to locate the RAM underneath, there are three plastic tabs on the front panel that need to be lifted to release the panel and then it can be unhooked on the opposite by swinging the panel open-and-out. To open the drive cage, there is a metal tab now exposed after removing the front panel. Press the tab down and the cage slides forward and then up.
The stock Lenovo RAM is a matched pair of SK Hynix 8GB DDR4-3200 RAM (HMA81GU6CJR8N CL22 Single Rank). This is good RAM, but I wanted to max out what this system could use, so I ordered a 32GB Crucial Kit (16GBx2) DDR4-3200 (CT2K16G4DFD832A CL22 Dual Rank x8 Unbuffered). As with any other desktop system, it was easy enough to replace the RAM. First, the tabs on both sides of a stick of RAM are depressed, which lifts the DIMM out of the slot. Pull the stick of RAM out, place the new RAM in the slot–paying attention to the placement of the DIMM’s notch (the RAM goes in only one way)–and press down until the tabs fold in and lock into place.
While I had the case open, I also swapped the stock 1TB HDD with my 4TB HDD from my i7-7700 PC. This involved several steps due to how tight the drive cage assembly is designed. First, the DVD-R drive has to be removed, which exposes the screws underneath holding the HDD in place. After disconnecting the SATA data and power cables, I removed the screws and vibration pads, pulled out the 1TB drive, put in the 4TB drive, replaced the screws and vibration pads, connected the cables, and reinstalled the DVD-R drive. Then, the drive cage can be swung back into place and locked, and the front panel can be notched and snapped into place, and finally, the side panel slid into place and screwed down.
Installing the Silverstone Argon Series AR11 HSF
After using the Lenovo IdeaCentre 5 for a month, I noticed that the video editing software Shotcut would would bog down about halfway through rendering an hour-long video. Using CPU-X as root, I saw the CPU temperature rise to 72C and then the CPU voltage and CPU clock rate would decrease to lower the temperature. When the temperature decreased, the voltage and clock rate would creep up again. This feedback cycle would persist through the rendering process.
Lenovo, perhaps to cut costs by standardizing heatsink and motherboard designs, uses what they rate as a 65watt TDP (thermal design power) heatsink and fan (HSF). It’s made out of extruded aluminum with an offset 80mm, 4-pin fan mounted on top to blow air through the heatsink’s fins. What’s interesting about this part’s design is that its mounting hardware is for an Intel 1151 socket hole pattern instead of AMD’s AM4 socket, which the Ryzen 7 4700G processor uses.
My guess is that Lenovo sells many more computers with Intel CPUs than AMD CPUs, so even when they design a product that uses AMD parts, they design the motherboard and cooling solution to reuse the same hole pattern and heatsink fan as their Intel-based products.
While Lenovo’s HSF was rated for the 65watt TDP of the 4700G CPU, it didn’t seem capable of displacing the heat generated when the CPU was under a sustained load. This led me to replace Lenovo’s HSF solution with an aftermarket HSF that had a higher TDP.
Unfortunately, there were some constraints that I had to work around. First, as mentioned above, the cooler had to support a 1151 hole pattern. Second, the drive cage in the IdeaCentre 5 case overlaps the CPU area of the motherboard. This limits the height of the cooler to about 55-60mm (this was my best measurement due to taking it with Lenovo’s HSF installed). At the upper end of this range, it would be very tight, and airflow into the HSF might be restricted. Also, if a larger HSF with a wider fan were installed, it might not permit the installation of a 3.5″ HDD in the underside of the drive cage.
Ultimately, I decided to purchase the Silverstone Argon Series AR11 heatsink and fan.
It is only 47mm tall, but it features four heat-pipes that make direct contact with the CPU. Included in its height is the 15mm tall 92mm x 92mm fan, which should supply more air flow at the same rpm as the 80mm fan on the Lenovo-made HSF.
And, it has a 95 watt TDP rating, which means that it should give the 4700G’s 65 watt TDP some cooling headroom.
It included four nuts with spacers and a pouch of thermal compound.
To remove the Lenovo HSF and install the Silverstone AR11, I had to completely remove the motherboard from the case.
I could see that the Lenovo HSF was secured to (what I thought) was a backplate with threaded lugs that the spring-mounted screws on the four corners of the HSF would screw into. Since the Ideacentre 5’s case has the motherboard-side of the case riveted to the chassis, I had to remove the motherboard as I couldn’t see what the underside of the motherboard looked like from the other side (as you can in many aftermarket/hobbyist cases). Before dealing with the motherboard and the HSF, I began disconnecting all of the cables running to the motherboard, removing the drive cage, and removing the front-side frame around the USB connectors and the power button module.
Then, after removing all of the screws holding the motherboard to the chassis, I discovered that the motherboard wouldn’t budge. I had not yet removed the HSF, but it dawned on me that the HSF screws were connected to what I hoped were easily removable stand-offs beneath the motherboard. I would soon learn that this wasn’t the case. But, first, I removed the HSF to expose the 4700G covered in thermal compound underneath, which I cleaned off with a paper towel, a few Q-tips, and alcohol.
Underneath the motherboard, I found four stand-offs built into the chassis that were used to secure the HSF. I think that this design is a cost-saving measure on Lenovo’s part, because it might reduce a step or simplify the installation of the cooling solution during assembly of the PC.
Nevertheless, these four stand-offs were in the way of the nuts that would hold the SilverStone AR11 to the motherboard, so they had to be removed.
Thankfully, I was able to drill out each of these standoffs with a 1/4″ drill bit. Drilling each out, left a thin-walled bushing and it popped out the rivet underneath.
I was able to vacuum the metal shavings, which left four clean holes in the chassis.
With nothing obstructing my work now, I proceeded to install the AR11 HSF on the 4700G. I applied the included thermal compound to the 4700G and smoothed it with an old credit card. Then, I positioned the AR11 over the 4700G and through the four mounting holes. Carefully holding the AR11 in place with one hand, I used my other hand to flip the motherboard over. Balancing the motherboard on the AR11, I threaded each nut with spacer on the protruding studs from the AR11’s mounting hardware. I tightened the nuts slowly in a four bolt torque pattern until it was secure. Then, I reinstalled the motherboard with the new AR11 mounted into the IdeaCentre 5’s case.
While I had everything exposed inside the IdeaCentre 5 case, I canibalized the 80mm fan from the original Lenovo-supplied HSF and mounted it as an intake fan in the front of the case (lower right above). The exhaust fan (upper left above) came mounted with the computer. Both use 4-pin power connectors. The motherboard supports one 4-pin CPU HSF connector and three 4-pin case fan connectors.
With the drive cage re-installed, there is a safe clearance of about 10mm between the AR11 and the 3.5″ HDD installed above it in the drive cage.
With everything reassembled, the Lenovo fired up without any issues, and psensor reports lower minimum temperatures (24C after, 31C before) and lower maximum temperatures (60C after, 65C before). When I record this coming week’s lectures in Science Fiction and Technical Writing, I will have a better idea about whether the AR11 keeps the temperatures low enough to avoid excessive clock rate throttling during extended load times.
Calculating the Cost
As a computer enthusiast and retrocomputing preservationist, I wish that I could keep all of my old computers.
Unfortunately, the costs of living prohibit my holding on to everything. As such, I needed to sell my i7-7700 PC and its components, and sell/repurpose parts from the Lenovo IdeaCentre to lower the overall cost of switching to a new computer system.
Below, I am including a tally of my costs and profits surrounding the new system. The new components cost $777.67 (excluding tax), but I was able to sell my old PC and some components for $529.00. This makes the final cost for the new computer to be $248.67.
Lenovo IdeaCentre 5 Desktop, Ryzen 7 4700G, AMD Radeon Graphics, 16GB
Crucial 32GB Kit (16GBx2) DDR4 3200 MT/s (PC4-25600) CL22 DR x8 Unbuffered DIMM 288-Pin Memory - CT2K16G4DFD832A
Silverstone Argon Series (AR11-USA) Intel Socket LGA1150/1151/1155/1156 Compatible
-$300 (thanks to Patrick for getting this for his daughter)
i7-7700 PC, 16GB RAM, 480GB SSD, 1TB HDD (the HDD was from Lenovo PC)
SK Hynix 16GB (2x8GB) DDR4 3200 RAM Kit HMA81GU6CJR8N CL22 Single Rank (from Lenovo PC)
MSI Radeon RX 550 AERO ITX 2G OC 2GB PCIe Graphics Card (from i7 PC)
Creative Sound Blaster Audigy FX PCIe 5.1 Sound Card [SB1570] (from i7 PC)
One of my goals in purchasing a pre-build system with a Ryzen 7 4700G processor was ultimately to get one of these OEM-only CPUs. In the USA, the options are few for purchasing one–either order it online from an overseas seller or buy a pre-built system that comes with one. In a sense, the latter turns into a shucking situation like many people have done for years with Western Digital external USB hard drives and now others are doing with pre-built systems that come with a video card. The market and pricing drive computer hobbyists to do things that save them a buck or land them a hard-to-find component. For me, this system serves this purpose in the long run. For the time being, I plan to run the 4700G in the Lenovo IdeaCentre 5, but if/when component prices return to saner price points, I would like to build a new system with a motherboard that can do more with the 4700G and its system RAM than the extremely limited Lenovo-made AM4 socket motherboard.
My needs change depending on the work that I happen to be doing at any given time. I imagine that I might get a dedicated graphics card again in the future, but I have no interest in dealing with the scarcity and market-inflated prices right now. I realize that there are a number of forces at play that are driving up prices, including the pandemic’s effects on workers, their families, and supply chains, ensuing component part scarcity, high demand among computer users working, learning, and playing remotely from home, and high demand among cryptocurrency miners. As we dig ourselves out of the pandemic, I think the former issues will sort themselves out. However, as we’ve seen before, cryptocurrency’s built-in blockchain inefficiencies and the proof-of-work concept that underlies their systems continues to wreak havoc on the cyclical graphics card market while simultaneously damaging the environment through its outsized and ever increasing energy needs. Crypto-mining doesn’t appear to be going anywhere, so it’s an issue that we need to collectively deal with before it virtually absorbs the graphics card market and inaugurates a new industrial-market revolution with detrimental environmental costs.
I like Syncthing, the continuous file synchronization program. Syncthing helps me pickup and continue my work regardless of the device I happen to be using, because it synchronizes my files across all devices. Think Dropbox but on my own hardware.
Also, I like tiny, low-power computers, like the Raspberry Pi 2. The Raspberry Pi and other lightweight computers demonstrate how even small computers are powerful enough for servers and desktop computing.
When Dropbox became more bloated with the new app design and refusing to offer a lower cost tier for those of us with modestly lower file synchronization needs, I began using Syncthing to create a folder of files synchronized between my desktop computer (at home) and my Surface Go (laptop used at work). I’ve been wanting to add a third node in my personal cloud storage solution, in part as an exercise in Linux and tiny computing and in part as another safe repository of my files. So, it made sense to combine my use of Syncthing with my enthusiasm for tiny computing by adding a third node to my Syncthing setup with a $10 Raspberry Pi Zero W (RPi0).
I picked up a RPi0 version 1.1, a C4 Labs Zebra Zero Black Ice Case with heatsink from Microcenter using their curbside pickup, which cost about $26 total.
I setup the RPi0 as a headless computer, meaning that it doesn’t have a monitor or keyboard attached. I will configure and control it remotely over my LAN.
Before turning to the software and preparing the microSD card for the RPi, I assembled the case and installed the heatsink on the CPU. A case for the RPi0 wasn’t necessary, but I thought it prudent to get one for two reasons: 1) I have a cat and a small thing with a wire sticking out might be enticing, and 2) I plan to leave it on all the time, so a heatsink like the one included in this case kit will help dissipate heat produced by the RPi0’s CPU.
Before powering up the RPi0, I downloaded Raspbian Lite (a lean version of the Linux-based Raspbian OS for the RPi), balena Etcher (to burn the installer image to my microSD card), PuTTY (to SSH into the RPi0 to configure, administer, and install software), and Apple’s Bonjour network printer software (to easily connect to the .local hostname of the RPi0).
Since I installed Apple’s Bonjour software as part of Mitch Allen’s instructions above, I was able to easily connect to the RPi0’s Syncthing web admin page by going to “raspberrypi.local:8384” on my desktop’s web browser.
Before setting up Syncthing to sync files, I wanted to lockdown the web admin page by going to Actions > Settings > GUI where I checked “Use HTTPS for GUI” and added a “GUI Authentication User” and “GUI Authentication Password”.
As a test, I rebooted the RPi0 and confirmed that Syncthing launched automatically at bootup and confirmed that authentication was required to access the web admin page remotely.
Also, I made sure that I had Syncthing running on the desktop computer and the RPi0. Due to some initial problems with syncing, I unlinked my desktop and Surface Go from syncing, and moved the files and folders out of my default sync folder so that the sync folder is empty to begin with.
Then, I added a remote device to Syncthing on my desktop PC and on the RPi0 (both installations of Syncthing have to have the other device added).
First, on each computer (in my case, the desktop PC and the RPi0), click “Add Remote Device” on the Syncthing web admin page.
Second, on the “Add Device” screen that appears, type in the Device ID of the other computer. In my case, Syncthing auto-suggested the Device ID of the desktop PC when I was configuring the RPi0 and vice versa since these devices are on the same local area network.
Third, click on the “Sharing” tab on the “Add Device” screen, and check all three boxes: Introducer tells connected devices to add devices from the other synced devices, Default Folder is what folder is being shared, and Auto Accept will automatically include new folders created or shared within the default shared path. Finally, click “Save.”
After adding each other device on each Syncthing installation, they should begin syncing the default folder. I added one file back on my desktop PC to test this. After that file synced on both devices, I added my files back and they began syncing with the RPi0.
The final step in my setup was to add the Surface Go as another remote device. After starting Syncthing on the Surface Go, I added it to the desktop PC and I added the desktop PC to the Surface Go’s Syncthing configuration. While the Surface Go began copying files, the RPi0 added the Surface Go as a remote device automatically. Now, all three devices sync my files.
A better configuration would be to have the RPi0 off-site so that my files would be protected from burglary or fire. Therefore, I wouldn’t recommend Syncthing as a foolproof backup solution that gives you the same sense of security as off-site storage unless you can arrange to have your files off-site (then, I would recommend going further than what I did and have your RPi0’s drive encrypted to protect your files should the off-site device be compromised).
For my purposes, using Syncthing on two work-focused devices and one tiny RPi0 computer server gives me some peace of mind through an additional layer of redundancy.
Now, I want to explore what else I can have this RPi0 do as a headless server!
Yesterday, I deleted my EA Origin account, because I was fed up with how things were “going according to plan.” EA’s and other forced online game portals plan seems to be two fold: 1) require players to login to a service to play a local-instance, single-player video game, and 2) waste as much time and bandwidth resources of players as possible in the function of updating the front end portal and the games accessed via the portal by denying users the choice to update if and when they choose to do so.
The straw that broke the camel’s back for me was the above message from EA–“it’s all going according to plan” and the unending “preparing” to download a very large, required update for Star Wars: Battlefront II.
Finding a few free minutes before bed, I wanted to fly the Millennium Falcon through the wreckage of blasted cruisers and obliterate as many TIE Fighters as possible. I play against computer-controlled adversaries. I don’t play against other players over the Internet. Everything regarding my game play experience takes place locally on my PC.
Nevertheless, EA requires me to login to Origin before playing Star Wars: Battlefront II. Before logging in, Origin required a software update. I did this. Since I hadn’t logged in for a few months, I had forgotten my password. I had to reset it. I logged in. Then, Origin required a large update to Star Wars: Battlefront II before I could play the game. I waited. I waited some more. I only wanted to play the game for about 10 minutes before bed time. Now, I had invested about 20 minutes on updating software and resetting passwords.
While it was “preparing to update” as seen above, I began researching how to delete my EA Origin account. I discovered that they make this as difficult as possible. You have to chat with a representative instead of clicking a link after logging into your account. I began doing this while still Origin was still “preparing.” The representative, who was nice enough, followed his script to try to dissuade me from deleting my account and instead deactivate it. I persisted with deletion and after another 10 minutes, I was told that it would take some additional time to delete my account but I didn’t need to stay on the chat while this was done.
Finally, the representative asked me if I would like to share why I wanted to leave EA Origin. I told him this:
I simply don’t like having to login to a service to play a game–especially when logging in might involve downloading gigabytes of installation updates. I understand why EA and other game publishers do this, but I don’t want to have to do this. I should be able to launch the game that I want to play and just play it. So, I wanted to delete my account and give up on EA Origin and Star Wars Battlefront II. I’ll seek out those games that let me play them on my terms.
I am vociferously against the shift to enforced online-only gaming for games that have a single-player mode. Games should be able to be enjoyed locally without hindrance if there is a single-player mode built into the game as there is with Star Wars: Battlefront II. Of course, I understand the need to login to a service when the game is enjoyed in multiplayer mode, but not all players opt for this kind of game play experience. Some of us enjoy playing the various single-player experiences within the game.
I purchased the game when it was on sale, so I will consider the money that I spent on it already invested in the times that I was able to fly the Millennium Falcon through the blasted wrecks of space battles.
However, I will never purchase another single-player option game from EA or any other video game publisher that doesn’t give me a modicum of respect to enjoy the game on my terms–no logging into online services (if I’m not playing against others online, I don’t need to login) and no required updates (I should be able to choose how and when I update the software on my computer).
I encourage others to avoid these games and seek out those made by publishers who respect players who value single-player game experiences.
When I built my desktop PC last year, I opted for a low-end video card, because my graphics requirements were modest and it helped keep the cost of computer parts down. Since then, I’ve wanted to experience a better visual experience on my computer in games and graphics simulations, meaning more detail and effects, and higher frame rates at 1080p resolution.
Unfortunately, video card prices were outrageously inflated due to high demand from Etherium and other easy-entry cryptocurrency miners. With the welcome crash of electricity-wasting cryptocurrency markets and the anticipated announcement of a new generation of video cards from nVidia, the prices of video cards began to return to lower prices, which prompted me to begin looking for an upgrade.
Considering that I have a 400-watt EVGA PSU and my monitor is 1080p, I focused on nVidia’s GeForce GTX 1060, because despite its Pascal architecture’s very modest power requirements (recommended 400 watt PSU and 6-pin PCIe auxiliary power), it pushes very high-quality graphics at 1080p resolution. While the 3GB model was less expensive than the 6GB model, I chose the latter, because it has more CUDA cores (1280 vs. 1152), more texture mapping units/TMU (80 vs. 72), and more streaming multiprocessors/SM (10 vs. 9). These enhancements coupled with twice as much GDDR5 video ram justified its slightly higher price for better performance and hopefully greater use lifespan. I went with EVGA’s single fan version of the 1060, because I have had good experiences with their products and I appreciate their streamlined, unostentatious, and quiet design on this video card.
After purchasing the GeForce GTX 1060 6GB video card for $280 from Microcenter and installing it in my PC, I stress tested it and ran benchmarks to verify that everything was okay after the upgrade. As you can see above, it scored a 3D Graphics Mark of 10684, which is more than twice as high as the 3,954 scored by my old Radeon RX 550 4GB video card.
In the Final Fantasy XiV Heavensward benchmark, the GTX 1060 GB scored an 11,797 at 1080p, while the RX 550 4GB scored only 4,416 at the same resolution.
In the Docking Bay 94 Unreal Engine 4 simulation, I get well over 40 fps with the settings maxed out at 1080p. Read about how the simulation was made and find download links on 80 level.
And, I get to fly the Millennium Falcon in EA’s Star Wars: Battlefront 2 video game. While the game’s graphics are amazing, I was reticent to purchase it after its launch debacle with in-game purchases and loot crates. Thankfully, EA backtracked on those things after the gaming and Star Wars fan communities collectively denounced these greedy and unethical practices.
Finally, EVGA’s current video game promotion includes a free copy of Destiny 2 with the purchase of a GTX 1060 or higher video card. After redeeming my copy, I’ve played a little of it, and I like it. I’m a big fan of the original Halo by Bungie, and this game reminds me of that game without the story relying on a single archtype hero, such as Master Chief. In Destiny 2, you can create your own character based on class (Titan, Hunter, or Warlock), species, sex, and appearance. For my first experience in the game, I created a Hunter. The GTX 1060 6GB video card makes this game run smooth and look beautiful at 1080p.
Overall, I’m very glad that I made this upgrade to my PC. If you’re considering an upgrade now rather than waiting for nVidia’s recently announced RTX line of video cards, I strongly recommend the GTX 1060 6GB as a lower cost, high performance video card.
I’ve wanted an IBM ThinkPad since I first saw my boss’ at Netlink in the fall of 1998. But, while I’ve been invested in PCs over the years tangentially, I reserved Macs as my primary desktop or laptop computing platform, which combined with the premium price on IBM and then Lenovo ThinkPads kept me in the Apple premium category. Put another way, I could afford one but not both.
Apple, as I’ve confided with friends, is diverging from my computing interests and needs. While design has been an important part of Apple’s DNA since the Apple II (arguably even earlier if we consider Woz’s design aesthetics for the Apple I motherboard layout), its increasing emphasis on fashion and accessorization and seeming less technological investment and innovation in its desktop and laptop computers have soured my allegiance to the company and its computers.
So, I thought about how to try out a different kind of PC laptop–one that I had wanted but could not afford when it was originally released–and make an investment in extending the life of what some folks might consider an obsolete or recyclable computer.
Within this framework, I wanted a laptop to take the place of the MacBook Pro that I had sold on eBay awhile back while the resell value was still high before rumored price reductions as product refreshes roll in. It needed to be relatively lightweight and have a small footprint. Also, it needed to have good battery life. And of course, it needed to run the software that I use on my home-built desktop PC.
Eventually, I decided to purchase a very well taken care of Lenovo ThinkPad X230 on eBay. Originally released in 2012 for a lot more than what I paid for it, this ThinkPad model features an Intel Core i5 3320M Ivy Bridge CPU running at 2.6GHz with 2 cores and supporting 4 threads. It has 8GB DDR3 RAM and a 180 GB SSD. In addition to built-in WiFi, it has an ethernet port, 3 USB 3.0 connectors, an SD Card reader, VGA and Display port connectors, and a removable battery.
From a user interface perspective, it has a chiclet keyboard which responds well to typing quickly. Its touchpad leaves a little to be desired in terms of responding to some gestures like scrolling, but its red pointing nub and paddle-style mouse buttons at the top of the touchpad are exquisite. It includes some feature buttons like a speaker mute button next to volume keys above the function key row, and on the left side there is a radio on/off switch for the WiFi and Bluetooth.
Initially, I tried out the ThinkPad X230 with Ubuntu, and everything seemed to work out of the box (though, I added TLP for advanced power management). However, I switched back to Windows 10 Professional with a full nuke-and-pave installation, because I have some software that is far easier to run natively in Windows instead of through Wine or virtualization in Linux.
In Windows 10 Professional, the ThinkPad X230 meets all of my productivity needs. I use LibreOffice for most things, but I also rely on Google Docs in Chrome for some tasks (like inventorying the City Tech Science Fiction Collection). The WiFi works well even at City Tech, which has one of the most cantankerous wireless networks I’ve encountered. At home, I use it on my lap to browse while watching TV.
The X230 is snappy and quick despite its age. Of course, the SSD and ample RAM support increased input/output for the older CPU. Chrome, LibreOffice, and Windows Explorer respond without hesitation. It easily plays downloaded Solo: A Star Wars Story 1080p trailers in VLC, too.
With the included 6 cell 45N1022 battery, it runs for several hours (this is a used battery, so its capacity might be lower than one that is brand new). I purchased a 9 cell 45N1175 battery, which I’m testing out now. With the 6 cell battery, it is just shy of 3 pounds, and with the 9 cell battery is a little over 3 pounds. I’m hoping that between the two of them that I can get plenty of work done on the go without being tethered to a power outlet.
Future tests include running World of Warcraft and watching full length movies. The display’s viewing angles could be better, but I’m willing to accept them as they are as I can adjust the brightness and display gamma easily using keyboard shortcuts and the Intel Display Adapter software to minimize its poorer display quality as compared to the latest HiDPI displays available now.
I’m tickled to use the Lenovo ThinkPad X230 as my main laptop. Now, I can say that I’m a proud ThinkPad owner instead of a zealous Apple user.
At the bottom of this post, I’ve included more photos of the X230.
If you’re considering a new computer, I would, based on this and my other vintage computing experiences, suggest that you consider trading up for a used or refurbished machine. Getting a used computer keeps that computer out of a landfill or being destroyed for its rare metals, and it might be an opportunity to try out a computer that you might have missed on its first time around.
In addition to working on a book review today, I created a new OpenLab site for Retrocomputing at City Tech. In addition to recording how I use vintage computers in the classroom and in research, the new OpenLab site contains a catalog of my vintage computing archive. I populated this catalog with most of the hardware, but I plan to granulize it further and create a catalog of my software. This, of course, will take time. At least there is a place for me to record these things now within the auspices of the work that I do at City Tech. I updated my previous Retrocomputing Lab page on this site with a link to the updated site on OpenLab.
The August 1994 issue of PC Computing was my go-to source for customizing my 486/DX2 66MHz system back in high school. I wanted to relive some of those tricks in my emulated DOS environments today, so I began hunting around for a copy to refresh my memory. After having no luck with nearby collections on Worldcat, I reached out to several eBay sellers who offer back issues of computer magazines. Seller sij167 replied that he had a copy that he would offer up, which I immediately purchased. It arrived very well protected this afternoon.
In this issue, the Operating Environments section is particularly helpful for building batch files to do a variety of otherwise tedious typing tasks. There are tips from “superstars,” including Bill Gates and Peter Norton. There are opposite-end-of-the-spectrum columns by John Dvorak and Penn Jillette. And, of course, the advertising! I wonder if I would get a reply if I send off a bubbled-in information request postcard?
A note about the magazine’s title: The Wikipedia page for the magazine lists it as “PC/Computing.” The magazine’s logo is styled with a slash between PC and Computing as shown in the photo above. However, the magazine’s masthead page lists the magazine as “PC Computing” with a space separating PC and Computing, as does the footer on odd number pages throughout the magazine.
Ever since I installed Windows 10 on this desktop computer build (detailed here), I have been distracted by a tiny spinning blue circle next to my mouse pointer about every 5 minutes. This mouse pointer change indicates that a process is working in the background. I could still move the mouse around and click on things, but the mouse pointer change visually distracted me from the work that I was doing. The user interface, which should facilitate my focused work on the computer, was pulling my attention away from my work and towards what should otherwise fade into the background: the user interface and the operating system.
There are many discussions about what causes Working in Background mouse pointer change, such as here, here, and here. I tried troubleshooting what was causing the regularly appearing “Working in Background” pointer change on my computer, but I couldn’t definitively pin down the cause and resolve it.
Nevertheless, I found a solution to the distraction caused by spinning blue circle: change the “Working in Background” pointer to match the “Normal Select” pointer icon. Here’s how to do this:
Click Start > Settings > Device
In Devices, click Mouse on the left, and then click “Additional Mouse Options” on the right.
This pops up a new window with additional mouse settings. Click Pointers > Working in Background > Browse.
This pops up a pointer selection window. Choose “aero_arrow.cur” and then click “Open.”
This returns you to the previous window where you will click “Apply” and “Okay.” Finally, you can close Settings. Now, your mouse pointer should remain as the arrow pointer icon even when a process is working in the background.
Since I have made this change to my computer, I am not distracted by the mouse switching intermittently between the arrow and the arrow with spinning blue circle. Of course, the underlying cause of the spinning blue circle remains, but at least with this solution, whatever is working in the background is no longer disturbing my attentional focus by leaping front-and-center into the UI.