I've got a brute force solver for the NYT Pips game. There's a particular puzzle that it takes 45.2 seconds on on my M2 Max Mac Studio. The solver is single threaded and doesn't use much memory so it is mostly limited by CPU and memory speed.
I ran it on my Pi 3, 4, 5, Intel iMac, and on my cheap Amazon Lightsail instance. Here are the results, in seconds:
680.4 RPi 3
274.5 RPi 4
131.3 RPi 5
108.5 Lightsail
78.7 2017 iMac (3.4 GHz Intel Core i5)
45.2 M2 Max Mac Studio
It says "512 MB RAM, 1 vCPU, 20 GV SSD" and "General Purpose". It was whatever was the cheapest when I made it.
Looking at the instance creation page it looks like it is no longer available. The cheapest now has 2 vCPU and the same other specs.
If anyone would like to run it on something else for comparison I've put it Pastebin [1].
Normally, a script converts the puzzle into a header file that describes the puzzle in terms of the data structures the solver uses, and then the solver is compiled with that header included via #include, but for benchmarking I manually included the header, so it is just a single C file that you simply compile and run. Add a -q flag to have it just find and count the solutions but not display them. For this particular puzzle it is fine to let it show the solutions. For some puzzles with a ton of solutions it displaying them can take significant time.
If anyone actually wants a Pips solver to solve Pips puzzles, there's a copy of mine along with the scripts that convert puzzles from the JSON format the NYT provides for download to the header file for the solver and some other stuff as a shar archive on Pastebin [2]. Pastebin's download link messes up something with that, so click the raw link and copy/paste from the browser.
Note: I'm still doing a lot of experimenting with it, both in the solving algorithm and in how the display the results, and am not at a point where I'm able to accept outside contributions. There are other Pips solvers that have been put on Github (and even posted on HN) that are (1) more sophisticated than mine, and (2) almost certainly more open to contributions. Just use mine if for some reason you want a fairly simple (aside from the damn display stuff...) brute force solver in C and aren't going to expect anything else from me :-)
Thanks for pointing that out. I had thought maybe as the tiers went up you'd get faster CPUs, but upon reflection the pricing schedule seems to confirm your point. I guess they are completely virtualized because there is not mention of CPU type on the pricing page.
I'm not an expert on this but I recently read that "vCPU" doesn't actually mean anything, and there's indications that they might not even be cores but hyperthreads.
Which makes sense with the policies many providers have against actually utilizing all the CPU you paid for.
I think the Pi 3 range is a sweet spot for low cost, low power draw, decent-enough CPU. Newer models draw increasingly more power; going from 1.4W to 2.8W may not seem like much, but that's half your battery life. There's a few differences in Raspberry Pi 3 versions that may lead you to buy one or the other:
- The Pi 3B has 10/100 Ethernet, 802.11n (single-band) WiFi, Bluetooth 4.1. Power idled at 1.4W and peaked at 3.7W.
- The Pi 3B+ removed the 10/100 Ethernet in favor of USB Ethernet (~300Mbps w/USB2.0). CPU cores were overclocked from 1.2GHz to 1.4GHz (so a heatsink is more necessary), with ~15% increase in benchmark performance. It added 802.11ac (dual band) WiFi and Bluetooth 4.2 w/BLE. Power idled at 1.9W and peaked at 5.1W. This is also the only 3-model supporting PoE (w/ extra HAT).
- The Pi 3A+ removed Ethernet and reduced USB to a single port. The RAM was reduced from 1GB to 512MB. Power idled at 1.13W and peaked at 4.1W. The A+ form factor is more compact. Overall the 3A+ is smaller, cheaper, and less power draw than the 3B+ (but not as low as the 3B).
The lowest power draw with acceptable performance is the 3B. For slightly more power draw and more CPU performance, go with 3A+. For "everything" (including PoE) the 3B+ is it.
If you want the 3A+ but don't need the video, want a smaller form factor, and half the power draw, the Pi Zero 2 W is it. Though the Pi Zero 2 W is supposed to be cheapest, due to demand it's often sold out or more expensive. The 3A+ is still cheap (~$25) and available, with the downside of the higher power draw and larger form factor.
(disabling HDMI, LEDs, Wifi, Bluetooth, etc reduces power draw more. in testing, the 3A+ drew less power than the Zero 2 W with everything disabled. all of them draw ~0.1W when powered off)
> I think the Pi 3 range is a sweet spot for low cost, low power draw, decent-enough CPU. Newer models draw increasingly more power; going from 1.4W to 2.8W may not seem like much, but that's half your battery life.
Is that with the same load? The chart in the article shows a Pi 3 and Pi 4 using the same idle power, with the 4 drawing more under full load. But the 4 can do more at full load, raising the question of what would be the 4's power usage running a load equal to the 3's full load?
The author's chart is incorrect. He has the idle power at "1" for the Pi 2, "2" for the Pi 1/3/4, and "3" for the Pi 5. No other published power draw numbers are whole numbers like this, they are floating points, like 1.2, 1.9, etc. Google around and you'll find several different power testing comparisons with more detail.
Most reports show the Pi 4 drawing ~2.8 W in idle headless mode, and the Pi 3B+ drawing ~1.9-2.0 W in idle headless mode. With full load the Pi 4 draws more (6.4W, to the Pi 3B+'s 5.1W) with the same test procedure.
But you do have to check the testing method; enabling/disabling hardware features changes the figure, and each additional USB peripheral draws more power. Otoh, to get a "max power draw" reading you have to enable everything and stress all CPUs at once, and then it will dip under thermal load.
I had Home Assistant on an RPi 3 with 1 GB RAM and a USB thumb drive until sometime maybe 7-10 days ago when I switched to an RPi 5 with 8 GB RAM and the 256 GB SSD and NVME had sold by the RPi company.
The 3 was and the 5 is plugged into an energy monitoring smart outlet. Here's a graph of power for that outlet [1] for the last 30 days.
HA uses long term statistics for older than 10 days, which is why the 2/3 to the left shows much less variation. The switch from the 3 to the 5 is somewhere a little way into the right 1/3, where it is using shorter term data which has a much higher sample rate.
It does look like the average power goes up with the 5, but not nearly as much as I would have thought. The left 2/3 which was definitely all RPi 3, averages 2.48 W. From Jan 17 to the present, which was definitely all RPi 5, it averages 2.64 W.
If those reports of 2.8 W for an idle 4 are accurate I'm curious why my HA 5 is lower. I've got an unused energy monitoring smart plug of the same kind my HA Pi is on. I'll have to put the 4 on that and see how it compares.
About 7 years ago, we deployed a “gateway/orchestration” role device in ag tech. Power draw is a big concern for us (not a lot of free power out in the middle of fields). We used an SBC from Emtrion. I remember asking my EE counterpart at the time “why not a Pi? Surely someone makes hardened versions of those?” He was skeptical and I think the aura of “toy/hobby/maker” scared him off.
Fast forward. We’re getting ready to role out our next generation. It’s based on the Pi Compute Module 4 (the CMs are basically just the basic Pi and you put your own carrier board for peripherals under it). It is amazing. It has easily 20x the power, 20x the RAM, better temp specs and such, a great eco system, uses about 30% less power, and about 1/5 of the price. The only thing we’re not sure about yet, is the robustness of the BLE with the onboard radio chip.
It’s amazing how far these things have come. For low volume product builds, it’s hard to find a reason not to use one of the CMs.
Honestly, in all my life I've never seen the Pi being sold in EU for €35. The min. price I've found has always been around 45/50, with Pi5 never under 75, because of scalpers
Even funnier is the history. IIRC, the very first Raspberry Pi was an idea based on a bunch of stock of shitty SoCs for set-top boxes that Broadcom couldn't get sold, so Eben Upton got these for cheap for the foundation he and a few others had started to promote computer literacy.
I finally found a job for my Raspberry Pi 1 Model B from 2012. It’s been sitting in a drawer for years, but about a 2 years ago added it to my Tailscale network as an exit node.
It’s a single-core 700MHz ARMv6 chip with 512MB of RAM. It's a fossil—a Pi 5 is 600x faster (according to the video). But for the 'low-bandwidth' task of routing some banking traffic or running a few changedetection watches via a Hetzner VPS (where the actual docker image runs), it’s rock solid. There’s something deeply satisfying about giving 'e-waste' a second life as a weekend project.
As a fun weekend project in 2013, I stood up a weather station using Weewx and my RPI 2 with 1 GB RAM. I told myself if it ever crashes or the SD card gets corrupted, I'll just tear everything down.
Well, it's still running today on the original SD card. At noon today it processed its 1,055,425th record in the database.
Still, if it ever crashes, I'll just tear it down. :)
That's a great idea - if I understood you right, you mean you used it to make a printer "wireless / wifi enabled" with it, right? Is there any guide you can recommend for that?
Well on the other hand, at which point does it become wasteful to run something when it gets less and less power efficient compared to newer devices? According to OP's benchmarks, the Pi 1 burns 2W constant to do essentially zero work and running that on a more modern device that's already running would use almost no extra power.
Then again we use a kW or two to microwave things for minutes on a daily basis so who really gives a shit.
Enough energy to run that thing for an entire year in under 1/2 a gallon of gasoline.
When you can pretty easily offset the entire yearly energy use by skipping a mow of your yard once, or even just driving slightly more conservatively for a few days... I'm not so worried about the power use.
In my region - it's about $3.50 in yearly power costs.
This site[0] claims a Prius Prime XSE gets 1.42 miles/kWh. Or (1.42 miles /1000Wh)*2 = 0.0028 miles. Which is ~14 feet, which is significantly more in line with my expectations (though still high)
You are missing a factor of 24, which comes in because they said "0.155 miles per day on battery power".
The easiest way to do the calculation would be, assuming a Prius Prime can do M mi/kWh on battery power, is to calculate 0.155 mi/day x 1/M kWh/mi x 1 day/24h = 0.0065 kW = 6.5/M W. That gives us W which can directly be compared with the 2 W he gave.
Also, 1.42 mi/kWh seems way low for battery power operation. I'm pretty sure that is for mixed gas/electric operation, expressed in MPG-e (47.9) and mi/kWh for convenient comparison to pure EVs. (You can convert between MPG-e and mi/kWh used the conversion factor for 33.7 kWh/gal.
It has a 13.6 kWh battery and a 39 mile all electric range, which suggests M = 2.9 mi/kWh. Plugging that into 6.5/M W gives 2.2 W.
M is probably actually a little higher because the car probably doesn't let the battery actually use 100% of its capacity. Most sites I see seem to say 3.1-3.5 mi/kWh.
On the other hand there are some losses when charging. On my EV during times I've the year when I do not need to use the heating or AC the car is reporting 4.1 or higher mi/kWh, but it is measuring what is coming out of the battery.
When calculated based on what is coming out of my charger it works out to 3.9 mi/kWh. This is with level 2 charging (240 V, 48 A). Level 1 charging is not as efficient as level 2.
If we go with 3.1-3.5 mi/kWh, and assume that is measured on the battery output side and that the loses during charging are about 8%, we get 2.9-3.2 mi/kWh on the "this is what I've getting billed for" side. If we use the average of that and plug into 6.5/M W we get 2.1 W.
> I finally found a job for my Raspberry Pi 1 Model B from 2012.
Nice! Even though I've got a Proxmox serve at home running on a real PC (but it's not on 24/7), I do run my DNS, unbound, on a Pi 2. It's on 24/7 and it's been doing its job just fine since years.
Got as far as the cookie request, and this is one of those without a "Reject All" option where you have to scroll through dozens of options to deselect. I went no further.
I'd say my browser is doing exactly what I want it to do here. The third-party cookies are being rejected off the top by my browser settings; there's no annoying cookie consent dialog because the JS for it isn't running; and the site is still readable.
Pi 5 pricing gets harder to justify when you add up the extras. 8GB board + active cooler + good SD card + case + power supply = $150+ easily.
Used 1L mini PCs (EliteDesk, ThinkCentre Tiny, etc.) with i5-8400T/8GB/256GB go for $50-100 on eBay. You get x86 compatibility, NVMe support, real Ethernet, and no thermal throttling.
Running an EliteDesk 800 G4 with 2.5GbE adapter and 2x2TB NVMe for home server duties. Draws ~15W idle, handles everything I threw at it. The Pi would need USB adapters for any of that.
Pi still wins for GPIO projects and actual embedded use. But for "small Linux box" use cases, the used business mini PC market is tough to beat.
Nobody sane buys a Pi to do regular computing stuff. People buy Pis because:
- They are small and can be powered with PoE.
- They come with GPIO.
- They can be paired with a small display and turned into appliance.
- They use very little power and generate very little heat.
Building Raspberry Pi clusters with kubernetes is just something youtubers do for clicks. Normal people buy Raspberry Pis because they want an open and hackable Home Assistant control panel built into their wall or they enjoy playing with servos and LEDs.
Side note: that site has well over three hundred vendors listed for cookies! I thought they were generating fake outs without end but I did eventually reach the end
When I did that on Pi3 when it first came out you could crash the system because the thermal throttling wasn't fast enough (the temp sensor was on the GPU not CPU). When I reported the issue on the pi forums the answer was essentially "why would anyone ever want to do that"
Oh no, it appears to have received the hug of death?
I am interested in this, I have been using Raspberry Pis for various projects and home servers since the original - Currently one is hosting my navidrome music server, my password manager, and several other local network servers.
I feel the upgrade each time, and then get used to it, as I suppose we tend to do. I still remember the upgrade from 1 to 2 being the most impactful to me personally though. (I think maybe because that's when game emulation became viable?)
The graphs are interesting but, really, if you’re considering your readers rather than SEOing for last decade’s search engine technology, you should lead with them and discuss the findings afterwards.
I.e., get to the point quickly and then unpack the detail.
It’s interesting seeing where the incremental vs revolutionary improvements have occurred. CPU-wise, a huge leap with the 3 and then solid but steady improvement with 4 and 5. But the most meaningful jump in GPU performance seems to be 4 -> 5, and I’d be really interested in what that maybe opens up in terms of console emulation.
Anyway, fewers ads, please. Scanning through the article on mobile felt like playing hopscotch in a minefield.
And had I been on a desktop browser (thanks uBlock Origin), or sitting behind pihole, I'd never have noticed, but unfortunately with Safari on my iPhone over 5G... not so much.
Worth noting: A Pi 1 will decode 1080p h264 video flawlessly. I used one as a media center for a long time, running OpenELEC (now LibreELEC). Moving around the UI was a bit sluggish, but video playback was smooth.
YouTube is an absolute clown show. It's so bad that I'm certain Google devs are actively making it terrible on purpose. I use Newpipe on an older (but not that old) tablet. Whenever Google breaks Newpipe and I have to use a browser, it takes like 30 seconds just to load the page.
Decoding video is trivial when you have hardware decoders.
> YouTube is an absolute clown show. It's so bad that I'm certain Google devs are actively making it terrible on purpose.
Exactly, which is why I thought this was a terrible and meaningless benchmark. It completely obfuscates the actual video playback performance of these machines. It is more a measure of how awful and inefficient YouTube is. I am surprised that the author did not remark on or seem to be aware of this at all.
For $50 you can pick up a used mini PC with say, i5-6500T and 8GB ram, that'll be much faster than the Pi 5. And it'll be compatible with all Linux distros. Really the Pi 3 is good enough as an edge device where you want to hook up things to the GPIO pins.
I've got a i5-7500T box running as a Proxmox Backup Server, and it idles at 6-7W. It runs at near idle most of the time (it's just running PBS and a few network services), so I'm not expecting it to cause much difference to my power bills. Even under full load, it only draws ~30W, so it's not _that_ much power.
I have an N95 mini PC (32GB DDR4, 250GB SSD, 1TB NVMe), a 4 disk USB enclosure, an access point, and a 16 port switch plugged into a UPS.
The UPS says 35W for all of it, but I’ve always been too lazy to unplug devices to see how it breaks down. I’m also not sure how accurate the measurements are, especially under a load that low.
I’d be willing to believe the mini PC draws less than the other components at this point.
I recently got a junk M2 MacBook Air (16GB/512GB) with a broken screen for $250.
It idles at just 0.2W (!) when accessed via SSH. While it offers zero expandability, lacks wired LAN, and runs on a non-free OS, it's an interesting candidate for an ultra-low-power inference server.
Interestingly the original Pi had the same amount of memory as the PS3 which was available at the time of the Pi release. Still amazes me how much we did with only 512MB.
The article shows how performance has always increased at a somewhat continually increasing level of inconvenience. Weird connectors, SUPER demanding power requirements, new case designs every generation, new cooling required every generation, etc.
My applications have remained the same for many years my octoprint and retropie don't require more FLOPs as time goes on but I'd really enjoy a modern board that has fewer headaches. Works on any normal USB port instead of requiring specialized power supplies, doesn't brown out and reset as much, doesn't heat up as much, etc. I suspect "a pi 3, but now with fewer headaches" would sell better than "a pi 3 but even more headaches and bigger numbers that you don't want".
I still use a PI3 as a daily driver. I never got around to the PI4 (too expensive, low availability), and when the PI 5 came along it was severely downgraded for my main usage purpose (x264/AVC playback) while much pricier too. I don't expect a further PI 6 will remedy this properly.
I suppose its unintentional comedy that they picked a 1080p H264 video playback as the benchmark. Because of course the chip in the Raspberry Pi 1 was literally designed for that! The only thing it asks of you is that you make use of the fixed function blocks that take up much of its silicon space. So no wonder that utterly fails with modern software - we need to go all the way to RPi 5 to smother the problem with enough generic computing power to overcome the careless people that spearhead much of browser development.
I don't think it is really a fair test because I doubt the browser is going to use any of the video decoding hardware that maybe available. I suspect if you used something native then any video decoding hardware would be used correctly.
Yep. A Pi 1 can almost play 1080p60 with a proper zero-copy decoding setup. Pi 2 and beyond have no issue with that. As you said: The Pi5 has enough CPU power, so even the H264 decoding itself now uses software as it no longer has a hardware decoder. Oh well.
I've got a brute force solver for the NYT Pips game. There's a particular puzzle that it takes 45.2 seconds on on my M2 Max Mac Studio. The solver is single threaded and doesn't use much memory so it is mostly limited by CPU and memory speed.
I ran it on my Pi 3, 4, 5, Intel iMac, and on my cheap Amazon Lightsail instance. Here are the results, in seconds:
This reminds me of the Pi Digits benchmark, used back then, when Pentium III/IV were sold, to sell how CPU had improved back then
Very cool. I feel like Lightsail performed quite well. Feels like a local optimum of some kind. Mind specifying the tier?
It says "512 MB RAM, 1 vCPU, 20 GV SSD" and "General Purpose". It was whatever was the cheapest when I made it.
Looking at the instance creation page it looks like it is no longer available. The cheapest now has 2 vCPU and the same other specs.
If anyone would like to run it on something else for comparison I've put it Pastebin [1].
Normally, a script converts the puzzle into a header file that describes the puzzle in terms of the data structures the solver uses, and then the solver is compiled with that header included via #include, but for benchmarking I manually included the header, so it is just a single C file that you simply compile and run. Add a -q flag to have it just find and count the solutions but not display them. For this particular puzzle it is fine to let it show the solutions. For some puzzles with a ton of solutions it displaying them can take significant time.
If anyone actually wants a Pips solver to solve Pips puzzles, there's a copy of mine along with the scripts that convert puzzles from the JSON format the NYT provides for download to the header file for the solver and some other stuff as a shar archive on Pastebin [2]. Pastebin's download link messes up something with that, so click the raw link and copy/paste from the browser.
Note: I'm still doing a lot of experimenting with it, both in the solving algorithm and in how the display the results, and am not at a point where I'm able to accept outside contributions. There are other Pips solvers that have been put on Github (and even posted on HN) that are (1) more sophisticated than mine, and (2) almost certainly more open to contributions. Just use mine if for some reason you want a fairly simple (aside from the damn display stuff...) brute force solver in C and aren't going to expect anything else from me :-)
[1] https://pastebin.com/5HmymPXw
[2] https://pastebin.com/SfSk3eNB
Fun!
Interesting username
Deep-ish cut
If it's low RAM and single threaded then I would expect every tier to perform identically.
(Also I was just looking at the pricing, you don't get any extra CPU cores until the $84 tier!)
Thanks for pointing that out. I had thought maybe as the tiers went up you'd get faster CPUs, but upon reflection the pricing schedule seems to confirm your point. I guess they are completely virtualized because there is not mention of CPU type on the pricing page.
I'm not an expert on this but I recently read that "vCPU" doesn't actually mean anything, and there's indications that they might not even be cores but hyperthreads.
Which makes sense with the policies many providers have against actually utilizing all the CPU you paid for.
I think the Pi 3 range is a sweet spot for low cost, low power draw, decent-enough CPU. Newer models draw increasingly more power; going from 1.4W to 2.8W may not seem like much, but that's half your battery life. There's a few differences in Raspberry Pi 3 versions that may lead you to buy one or the other:
- The Pi 3B has 10/100 Ethernet, 802.11n (single-band) WiFi, Bluetooth 4.1. Power idled at 1.4W and peaked at 3.7W.
- The Pi 3B+ removed the 10/100 Ethernet in favor of USB Ethernet (~300Mbps w/USB2.0). CPU cores were overclocked from 1.2GHz to 1.4GHz (so a heatsink is more necessary), with ~15% increase in benchmark performance. It added 802.11ac (dual band) WiFi and Bluetooth 4.2 w/BLE. Power idled at 1.9W and peaked at 5.1W. This is also the only 3-model supporting PoE (w/ extra HAT).
- The Pi 3A+ removed Ethernet and reduced USB to a single port. The RAM was reduced from 1GB to 512MB. Power idled at 1.13W and peaked at 4.1W. The A+ form factor is more compact. Overall the 3A+ is smaller, cheaper, and less power draw than the 3B+ (but not as low as the 3B).
The lowest power draw with acceptable performance is the 3B. For slightly more power draw and more CPU performance, go with 3A+. For "everything" (including PoE) the 3B+ is it.
If you want the 3A+ but don't need the video, want a smaller form factor, and half the power draw, the Pi Zero 2 W is it. Though the Pi Zero 2 W is supposed to be cheapest, due to demand it's often sold out or more expensive. The 3A+ is still cheap (~$25) and available, with the downside of the higher power draw and larger form factor.
(disabling HDMI, LEDs, Wifi, Bluetooth, etc reduces power draw more. in testing, the 3A+ drew less power than the Zero 2 W with everything disabled. all of them draw ~0.1W when powered off)
> I think the Pi 3 range is a sweet spot for low cost, low power draw, decent-enough CPU. Newer models draw increasingly more power; going from 1.4W to 2.8W may not seem like much, but that's half your battery life.
Is that with the same load? The chart in the article shows a Pi 3 and Pi 4 using the same idle power, with the 4 drawing more under full load. But the 4 can do more at full load, raising the question of what would be the 4's power usage running a load equal to the 3's full load?
The author's chart is incorrect. He has the idle power at "1" for the Pi 2, "2" for the Pi 1/3/4, and "3" for the Pi 5. No other published power draw numbers are whole numbers like this, they are floating points, like 1.2, 1.9, etc. Google around and you'll find several different power testing comparisons with more detail.
Most reports show the Pi 4 drawing ~2.8 W in idle headless mode, and the Pi 3B+ drawing ~1.9-2.0 W in idle headless mode. With full load the Pi 4 draws more (6.4W, to the Pi 3B+'s 5.1W) with the same test procedure.
But you do have to check the testing method; enabling/disabling hardware features changes the figure, and each additional USB peripheral draws more power. Otoh, to get a "max power draw" reading you have to enable everything and stress all CPUs at once, and then it will dip under thermal load.
I had Home Assistant on an RPi 3 with 1 GB RAM and a USB thumb drive until sometime maybe 7-10 days ago when I switched to an RPi 5 with 8 GB RAM and the 256 GB SSD and NVME had sold by the RPi company.
The 3 was and the 5 is plugged into an energy monitoring smart outlet. Here's a graph of power for that outlet [1] for the last 30 days.
HA uses long term statistics for older than 10 days, which is why the 2/3 to the left shows much less variation. The switch from the 3 to the 5 is somewhere a little way into the right 1/3, where it is using shorter term data which has a much higher sample rate.
It does look like the average power goes up with the 5, but not nearly as much as I would have thought. The left 2/3 which was definitely all RPi 3, averages 2.48 W. From Jan 17 to the present, which was definitely all RPi 5, it averages 2.64 W.
If those reports of 2.8 W for an idle 4 are accurate I'm curious why my HA 5 is lower. I've got an unused energy monitoring smart plug of the same kind my HA Pi is on. I'll have to put the 4 on that and see how it compares.
[1] https://imgur.com/a/qa7SD2O
Right. In CPU scheduling this is the “race to idle” idea.
Sometimes it’s more efficient to run a task at full CPU power for 25ms than low (non-idle) CPU power 100ms.
It wouldn’t surprise me too much if the 4 could run the 3’s full load in less power than the 3 does.
Is the $25 price used? I'm finding the 3, 4 and 5 cost almost the same from web shops (for the 1GB version).
The 3A+ is $25 on most sites; Sparkfun lists the 3B+ in stock for $43.50, Adafruit has the 3B in stock for $35, you can find more examples by googling
The 3A+ is a different form factor than the 3B(+), 4s, and 5s. And only comes in 512 MB. https://www.raspberrypi.com/products/raspberry-pi-3-model-a-...
About 7 years ago, we deployed a “gateway/orchestration” role device in ag tech. Power draw is a big concern for us (not a lot of free power out in the middle of fields). We used an SBC from Emtrion. I remember asking my EE counterpart at the time “why not a Pi? Surely someone makes hardened versions of those?” He was skeptical and I think the aura of “toy/hobby/maker” scared him off.
Fast forward. We’re getting ready to role out our next generation. It’s based on the Pi Compute Module 4 (the CMs are basically just the basic Pi and you put your own carrier board for peripherals under it). It is amazing. It has easily 20x the power, 20x the RAM, better temp specs and such, a great eco system, uses about 30% less power, and about 1/5 of the price. The only thing we’re not sure about yet, is the robustness of the BLE with the onboard radio chip.
It’s amazing how far these things have come. For low volume product builds, it’s hard to find a reason not to use one of the CMs.
Hah! And the value of the Pi for these kinds of ~industrial applications is why there was a shortage of Pis for hobbyists.
It's funny how Raspberry Pi started out for an educational market, and accidentally revolutionized the embedded market.
Honestly, in all my life I've never seen the Pi being sold in EU for €35. The min. price I've found has always been around 45/50, with Pi5 never under 75, because of scalpers
Even funnier is the history. IIRC, the very first Raspberry Pi was an idea based on a bunch of stock of shitty SoCs for set-top boxes that Broadcom couldn't get sold, so Eben Upton got these for cheap for the foundation he and a few others had started to promote computer literacy.
I finally found a job for my Raspberry Pi 1 Model B from 2012. It’s been sitting in a drawer for years, but about a 2 years ago added it to my Tailscale network as an exit node.
It’s a single-core 700MHz ARMv6 chip with 512MB of RAM. It's a fossil—a Pi 5 is 600x faster (according to the video). But for the 'low-bandwidth' task of routing some banking traffic or running a few changedetection watches via a Hetzner VPS (where the actual docker image runs), it’s rock solid. There’s something deeply satisfying about giving 'e-waste' a second life as a weekend project.
As a fun weekend project in 2013, I stood up a weather station using Weewx and my RPI 2 with 1 GB RAM. I told myself if it ever crashes or the SD card gets corrupted, I'll just tear everything down.
Well, it's still running today on the original SD card. At noon today it processed its 1,055,425th record in the database.
Still, if it ever crashes, I'll just tear it down. :)
Sounds like you want it to crash really badly :)
Indeed. I'm not going to do anything to cause its demise, but when it does go, it is gone.
They'll run CUPS too! My B modernized some old, commercial Brother laser printers I was running.
That's a great idea - if I understood you right, you mean you used it to make a printer "wireless / wifi enabled" with it, right? Is there any guide you can recommend for that?
I've done the same thing - making a USB-only printer available on my LAN - following this guide: https://pimylifeup.com/raspberry-pi-print-server/
One nice thing is I can print to the CUPS server even if the printer is off
I did the same with an rpi3, not sure if I used this guide but it seems good:
https://www.raspberrypi.com/news/printing-at-home-from-your-...
I run customised NetBSD on the Model B. Fits in 512MB
I never use a wall plug as I can easily power it from other computers' USB ports
It came with a WiFi dongle but I prefer to connect it to a WiFi travel router via Ethernet if I need wireless
I have a few older models lying around too, there's some other minor benefits as well:
Well on the other hand, at which point does it become wasteful to run something when it gets less and less power efficient compared to newer devices? According to OP's benchmarks, the Pi 1 burns 2W constant to do essentially zero work and running that on a more modern device that's already running would use almost no extra power.
Then again we use a kW or two to microwave things for minutes on a daily basis so who really gives a shit.
Yeah... 2W is just not that much energy.
Enough energy to run that thing for an entire year in under 1/2 a gallon of gasoline.
When you can pretty easily offset the entire yearly energy use by skipping a mow of your yard once, or even just driving slightly more conservatively for a few days... I'm not so worried about the power use.
In my region - it's about $3.50 in yearly power costs.
I did unplug my GPU to save 30 watts, but... 2 watts is equivalent to driving a Prius Prime 0.155 miles per day on battery power. So there's that
That seems an impossible range.
This site[0] claims a Prius Prime XSE gets 1.42 miles/kWh. Or (1.42 miles /1000Wh)*2 = 0.0028 miles. Which is ~14 feet, which is significantly more in line with my expectations (though still high)
[0] https://www.motortrend.com/reviews/2024-toyota-prius-prime-x...
You are missing a factor of 24, which comes in because they said "0.155 miles per day on battery power".
The easiest way to do the calculation would be, assuming a Prius Prime can do M mi/kWh on battery power, is to calculate 0.155 mi/day x 1/M kWh/mi x 1 day/24h = 0.0065 kW = 6.5/M W. That gives us W which can directly be compared with the 2 W he gave.
Also, 1.42 mi/kWh seems way low for battery power operation. I'm pretty sure that is for mixed gas/electric operation, expressed in MPG-e (47.9) and mi/kWh for convenient comparison to pure EVs. (You can convert between MPG-e and mi/kWh used the conversion factor for 33.7 kWh/gal.
It has a 13.6 kWh battery and a 39 mile all electric range, which suggests M = 2.9 mi/kWh. Plugging that into 6.5/M W gives 2.2 W.
M is probably actually a little higher because the car probably doesn't let the battery actually use 100% of its capacity. Most sites I see seem to say 3.1-3.5 mi/kWh.
On the other hand there are some losses when charging. On my EV during times I've the year when I do not need to use the heating or AC the car is reporting 4.1 or higher mi/kWh, but it is measuring what is coming out of the battery.
When calculated based on what is coming out of my charger it works out to 3.9 mi/kWh. This is with level 2 charging (240 V, 48 A). Level 1 charging is not as efficient as level 2.
If we go with 3.1-3.5 mi/kWh, and assume that is measured on the battery output side and that the loses during charging are about 8%, we get 2.9-3.2 mi/kWh on the "this is what I've getting billed for" side. If we use the average of that and plug into 6.5/M W we get 2.1 W.
I thought the same thing but then I realized that it's 48 W hr for a full day.
I mean in theory and practice a Pentium 2 300 could do full 1gpbs routing with Vyatta and I used that and other distros to do that for years
> I finally found a job for my Raspberry Pi 1 Model B from 2012.
Nice! Even though I've got a Proxmox serve at home running on a real PC (but it's not on 24/7), I do run my DNS, unbound, on a Pi 2. It's on 24/7 and it's been doing its job just fine since years.
https://web.archive.org/web/20260114232734/https://the-diy-l...
Got as far as the cookie request, and this is one of those without a "Reject All" option where you have to scroll through dozens of options to deselect. I went no further.
Here's the referenced YouTube Video: https://www.youtube.com/watch?v=zQM4CD64xDE
Safari’s “Show Reader” feature circumvents this particular one, at least partially (didn’t check whether accepting things showed different/more stuff)
Sounds like you could use uBlock and/or a DNS server with Hagezi Pro++.
I see no cookie request using NoScript.
Same thing here I don't see any cookie request thanks to uBlock with the most restrictive settings.
I do - perhaps something is misconfigured on your end?
I'd say my browser is doing exactly what I want it to do here. The third-party cookies are being rejected off the top by my browser settings; there's no annoying cookie consent dialog because the JS for it isn't running; and the site is still readable.
Pi 5 pricing gets harder to justify when you add up the extras. 8GB board + active cooler + good SD card + case + power supply = $150+ easily.
Used 1L mini PCs (EliteDesk, ThinkCentre Tiny, etc.) with i5-8400T/8GB/256GB go for $50-100 on eBay. You get x86 compatibility, NVMe support, real Ethernet, and no thermal throttling. Running an EliteDesk 800 G4 with 2.5GbE adapter and 2x2TB NVMe for home server duties. Draws ~15W idle, handles everything I threw at it. The Pi would need USB adapters for any of that. Pi still wins for GPIO projects and actual embedded use. But for "small Linux box" use cases, the used business mini PC market is tough to beat.
Nobody sane buys a Pi to do regular computing stuff. People buy Pis because:
- They are small and can be powered with PoE.
- They come with GPIO.
- They can be paired with a small display and turned into appliance.
- They use very little power and generate very little heat.
Building Raspberry Pi clusters with kubernetes is just something youtubers do for clicks. Normal people buy Raspberry Pis because they want an open and hackable Home Assistant control panel built into their wall or they enjoy playing with servos and LEDs.
This 100%; if you need GPIO use a USB adapter.
Side note: that site has well over three hundred vendors listed for cookies! I thought they were generating fake outs without end but I did eventually reach the end
you should try running Linpack on them all (you can find the results here mixed in with other machines I own) https://web.eece.maine.edu/~vweaver/group/machines.html
When I did that on Pi3 when it first came out you could crash the system because the thermal throttling wasn't fast enough (the temp sensor was on the GPU not CPU). When I reported the issue on the pi forums the answer was essentially "why would anyone ever want to do that"
I've been testing HPL on all my SBCs for years: https://sbc-reviews.jeffgeerling.com/reviews/results/
But still haven't gotten a full run on any Pi prior to the 4 B.
>"why would anyone ever want to do that"
The more things change, the more things stay the same.
> When I reported the issue on the pi forums the answer was essentially "why would anyone ever want to do that"
With all due respect to Raspberry Pi and everything they’ve accomplished in the educational and hobby space,
I felt that one in my bones. I suspect a lot of people with embedded experience who worked with Raspberry Pi over the years feel it too.
Least useless Pi forums answer. it's always the same five people too.
Oh no, it appears to have received the hug of death?
I am interested in this, I have been using Raspberry Pis for various projects and home servers since the original - Currently one is hosting my navidrome music server, my password manager, and several other local network servers.
I feel the upgrade each time, and then get used to it, as I suppose we tend to do. I still remember the upgrade from 1 to 2 being the most impactful to me personally though. (I think maybe because that's when game emulation became viable?)
Do we think this page loads enough ads?
The graphs are interesting but, really, if you’re considering your readers rather than SEOing for last decade’s search engine technology, you should lead with them and discuss the findings afterwards.
I.e., get to the point quickly and then unpack the detail.
It’s interesting seeing where the incremental vs revolutionary improvements have occurred. CPU-wise, a huge leap with the 3 and then solid but steady improvement with 4 and 5. But the most meaningful jump in GPU performance seems to be 4 -> 5, and I’d be really interested in what that maybe opens up in terms of console emulation.
Anyway, fewers ads, please. Scanning through the article on mobile felt like playing hopscotch in a minefield.
I'll always agree that sites should be clear of ads, but ad blockers are the true solution. I can't stand browsing the internet without one.
And had I been on a desktop browser (thanks uBlock Origin), or sitting behind pihole, I'd never have noticed, but unfortunately with Safari on my iPhone over 5G... not so much.
> The Pi 2 managed to open the browser and actually started playing back a 1080P video, which was surprising, but playback was terrible.
A Youtube tab, web browser modern enough for YouTube, and OS modern enough for that web browser, all fit in 1GB of memory? Wow.
Worth noting: A Pi 1 will decode 1080p h264 video flawlessly. I used one as a media center for a long time, running OpenELEC (now LibreELEC). Moving around the UI was a bit sluggish, but video playback was smooth.
YouTube is an absolute clown show. It's so bad that I'm certain Google devs are actively making it terrible on purpose. I use Newpipe on an older (but not that old) tablet. Whenever Google breaks Newpipe and I have to use a browser, it takes like 30 seconds just to load the page.
Decoding video is trivial when you have hardware decoders.
> YouTube is an absolute clown show. It's so bad that I'm certain Google devs are actively making it terrible on purpose.
Exactly, which is why I thought this was a terrible and meaningless benchmark. It completely obfuscates the actual video playback performance of these machines. It is more a measure of how awful and inefficient YouTube is. I am surprised that the author did not remark on or seem to be aware of this at all.
Are they even pushing H264 to the pi? Or is this more of their “you’ll take WebP and like it” stuff.
I had this on my old laptop too, it would really struggle with HD YouTube, but if I copy pasted the url into VLC or MPV it would play just fine.
... Pis have hardware video decoders? I thought they were just fairly generic CPUs.
The original CPU was designed for set top boxes by Broadcom.
For $50 you can pick up a used mini PC with say, i5-6500T and 8GB ram, that'll be much faster than the Pi 5. And it'll be compatible with all Linux distros. Really the Pi 3 is good enough as an edge device where you want to hook up things to the GPIO pins.
But a PC like what you’re suggesting would result in a much higher energy bill compared to a Pi if you leave it on 24/7 to use as a server.
I've got a i5-7500T box running as a Proxmox Backup Server, and it idles at 6-7W. It runs at near idle most of the time (it's just running PBS and a few network services), so I'm not expecting it to cause much difference to my power bills. Even under full load, it only draws ~30W, so it's not _that_ much power.
Those Intel N100 machines sip power. Supposedly with some tweaking, people have gotten them down to idle at ~2watts.
I have an N95 mini PC (32GB DDR4, 250GB SSD, 1TB NVMe), a 4 disk USB enclosure, an access point, and a 16 port switch plugged into a UPS.
The UPS says 35W for all of it, but I’ve always been too lazy to unplug devices to see how it breaks down. I’m also not sure how accurate the measurements are, especially under a load that low.
I’d be willing to believe the mini PC draws less than the other components at this point.
I recently got a junk M2 MacBook Air (16GB/512GB) with a broken screen for $250. It idles at just 0.2W (!) when accessed via SSH. While it offers zero expandability, lacks wired LAN, and runs on a non-free OS, it's an interesting candidate for an ultra-low-power inference server.
At a huge boost in power consumption and space.
Interestingly the original Pi had the same amount of memory as the PS3 which was available at the time of the Pi release. Still amazes me how much we did with only 512MB.
And you didn't even get the luxury of unified memory on the PS3 - the CPU and GPU had separate 256MB chunks.
I can still barely believe they got Grand Theft Auto 5 running on that thing.
I think it’s more amazing it’s the latest GTA not only had been V for 3 console generations, but it’s still selling well.
What Moore giveth, Gates taketh away...
TIL the N97 has a substantially (60%) faster clocked GPU than the N100.
Finaly a test done properly.
> Even once set up it takes about 8 minutes to boot up to the desktop
I presume this is running some sort of KDE or Gnome, which are slow to boot even on a resonable new PC.
Running fvwm2 on a Pi1 had resonable speed.
The article shows how performance has always increased at a somewhat continually increasing level of inconvenience. Weird connectors, SUPER demanding power requirements, new case designs every generation, new cooling required every generation, etc.
My applications have remained the same for many years my octoprint and retropie don't require more FLOPs as time goes on but I'd really enjoy a modern board that has fewer headaches. Works on any normal USB port instead of requiring specialized power supplies, doesn't brown out and reset as much, doesn't heat up as much, etc. I suspect "a pi 3, but now with fewer headaches" would sell better than "a pi 3 but even more headaches and bigger numbers that you don't want".
I still use a PI3 as a daily driver. I never got around to the PI4 (too expensive, low availability), and when the PI 5 came along it was severely downgraded for my main usage purpose (x264/AVC playback) while much pricier too. I don't expect a further PI 6 will remedy this properly.
I suppose its unintentional comedy that they picked a 1080p H264 video playback as the benchmark. Because of course the chip in the Raspberry Pi 1 was literally designed for that! The only thing it asks of you is that you make use of the fixed function blocks that take up much of its silicon space. So no wonder that utterly fails with modern software - we need to go all the way to RPi 5 to smother the problem with enough generic computing power to overcome the careless people that spearhead much of browser development.
I don't think it is really a fair test because I doubt the browser is going to use any of the video decoding hardware that maybe available. I suspect if you used something native then any video decoding hardware would be used correctly.
Yeah.
Except it's not even fixed function blocks, it's the 12 core VideoCore IV GPU running software that does the decoding.
VideoCore is the real Raspberry Pi, the ARM block running Linux was just a subprocessor that VC controls.
Yep. A Pi 1 can almost play 1080p60 with a proper zero-copy decoding setup. Pi 2 and beyond have no issue with that. As you said: The Pi5 has enough CPU power, so even the H264 decoding itself now uses software as it no longer has a hardware decoder. Oh well.
To be fair it was the most indicative test.
Yawn, not even test of AES encryption which is probably the biggest performance boost switching to a Pi 5.