Section id
stringlengths
9
9
Website URL
stringlengths
35
66
Heading
stringlengths
4
119
Text
stringlengths
0
6k
YouTube Links
stringclasses
1 value
Images
stringlengths
0
8.32k
Data Collection Date
stringclasses
13 values
rpl000501
https://docs.rocketpool.net/guides/redstone/docker-migration.html
Initialize your Fee Distributor
If you aren't planning to opt into the Smoothing Pool and claim all of your priority fees and MEV rewards to your fee distributor contract, you will eventually have to initialize it (create the contract instance on the chain) in order to claim rewards from it to your withdrawal address. This is a fairly cheap operation and only needs to be done once. TIPInitializing your fee distributor can be done at any time. You can let rewards accumulate in its address long before you initialize it, and your balance will remain after initialization.We recommend you do so when gas prices are low to minimize the overhead cost.Note that it must be initialized in order to claim your rewards.
19:09:25hrs 10-06-2023
rpl000502
https://docs.rocketpool.net/guides/redstone/docker-migration.html
Opt Into the Smoothing Pool
If you plan on taking advantage of the Smoothing Pool right away, you should opt in before the end of the first Redstone rewards period to maximize your "eligibility" amount. Opting in can be done via running the following command: rocketpool node join-smoothing-pool
19:09:25hrs 10-06-2023
rpl000503
https://docs.rocketpool.net/guides/redstone/docker-migration.html
Claim Rewards
The Redstone upgrade replaces the expensive, problematic old rewards system with a brand new one that's much cheaper, supports automatic restaking of RPL (both partial and full amounts), and - most importantly - lets you claim your rewards whenever you want. Because there is no longer a time limit on claiming rewards, and because it's cheaper to claim many rewards intervals at once, the automatic rewards claiming feature of the Smartnode has been removed. You will now be able to claim rewards via the following command: rocketpool node claim-rewards This will show you all of the rewards you've accumulated across all of the rewards intervals starting with the Redstone upgrade.
19:09:25hrs 10-06-2023
rpl000504
https://docs.rocketpool.net/guides/redstone/docker-migration.html
Reverting to v1.4.3
If, for any reason, something isn't to your liking and you want to revert to the previous Smartnode release, you can do so easily. The Smartnode automatically backs up your settings from the previous version when you upgrade it, so simply get the previous version (here we're demonstrating v1.4.3) and replace the settings with the backup: rocketpool service stop rocketpool service install -d cp ~/.rocketpool/user-settings-backup.yml ~/.rocketpool/user-settings.yml rocketpool service config rocketpool service start All set! You're now back on the old version and should begin attesting shortly after starting the service. WARNINGv1.4.3 is deprecated and will no longer be usable after the Redstone update is deployed. If you do need to revert to it, please make plans to upgrade back to v1.5.0 before the contracts are updated!
19:09:25hrs 10-06-2023
rpl000505
https://docs.rocketpool.net/guides/redstone/hybrid-migration.html
[Hybrid Mode] Guide to the Redstone Update and the Merge
This guide will cover everything you need to know in order to prepare your node for the Redstone Update and The Merge if you are using Hybrid Mode.
19:09:25hrs 10-06-2023
rpl000506
https://docs.rocketpool.net/guides/redstone/hybrid-migration.html
Things to Do Before Upgrading to v1.5.0
Before upgrading to v1.5.0 and higher of the Smartnode, please go through the following checklist to make sure you're prepared:
19:09:25hrs 10-06-2023
rpl000507
https://docs.rocketpool.net/guides/redstone/hybrid-migration.html
Switch to a Full Execution Client
The Merge requires you to run your own Execution client, so you won't be able to use remote providers like Infura or Pocket anymore. Because of this change, if you're currently using a light Execution client, you should switch to a full client while you're still on v1.4, let it sync to completion, and then upgrade to v1.5.
19:09:25hrs 10-06-2023
rpl000508
https://docs.rocketpool.net/guides/redstone/hybrid-migration.html
Ensure the EC and CC are Both Externally Managed
Previous versions of the Smartnode stack allowed you to have one client locally managed, and the other externally managed. For example, you could have an Execution client that the Smartnode manages and connect it to a Consensus client that you manage externaly. Starting with v1.5, this configuration is no longer supported. You'll have to switch to either a locally managed Execution and Consensus client (also known as Docker Mode), or set up both an Execution and a Consensus client that you manage on your own. TIPIf you are interested in letting the Smartnode maintain its own Execution and Consensus client but want to keep control over your own Validator client (e.g., if you have your own solo staking validator keys attached to it), you may want to consider Reverse Hybrid Mode which does exactly this!
19:09:25hrs 10-06-2023
rpl000509
https://docs.rocketpool.net/guides/redstone/hybrid-migration.html
Set Up the Engine API
The Merge changes the way your Execution client talks to your Consensus client. Instead of using the old HTTP or Websocket based RPC system, The Merge requires a new system exposed by your Execution client called the Engine API. This is a special connection that lets the Consensus client replace the old Proof-of-Work mining system with Proof-of-Stake; it's the heart of The Merge. It's also authenticated with a secret token, so only your Consensus client can connect to your Execution client - nothing else can. As you manage your own Execution and Consensus clients, you'll need to set up the Engine API manually. How to do it depends entirely on which clients you're running. CoinCashew has a great and concise guide on how to set up the Engine API on your Execution and Consensus clients. Give that a look, and test the new configuration out by making sure it still attests properly before upgrading. As always, Rocket Pool will manage its own Validator client so you don't need to worry about manually modifying it.
19:09:25hrs 10-06-2023
rpl000510
https://docs.rocketpool.net/guides/redstone/hybrid-migration.html
Upgrading to v1.5.0
Upgrading the Smartnode stack to v1.5.0 is no different than any other upgrade. Simply follow the normal directions here.
19:09:25hrs 10-06-2023
rpl000511
https://docs.rocketpool.net/guides/redstone/hybrid-migration.html
Things the Smartnode Handles Automatically
In Hybrid mode, the Smartnode will take care of some of the changes needed to support Redstone automatically once you update to v1.5.0, but you will need to handle others manually in Hybrid Mode. Here's a brief list of what it will do for you without any manual intervention:
19:09:25hrs 10-06-2023
rpl000512
https://docs.rocketpool.net/guides/redstone/hybrid-migration.html
Your Fee Recipient
The fee recipient is the address on the Execution layer (eth1) chain that will receive all of the priority fees for blocks you propose. It is a setting provided to your Validator client when it first starts. The Smartnode will handle setting it up to the correct address on the Validator client it manages when you upgrade to v1.5, and will constantly check to make sure you're using the correct one so you don't get penalized accidentally. If you opted into the Smoothing Pool, it will make that your fee recipient. If you didn't, it will make your fee distributor contract the fee recipient.
19:09:25hrs 10-06-2023
rpl000513
https://docs.rocketpool.net/guides/redstone/hybrid-migration.html
Things You Should Do After Upgrading
While the Smartnode handles most of the changes for you, there are a few additional things you should do manually:
19:09:25hrs 10-06-2023
rpl000514
https://docs.rocketpool.net/guides/redstone/hybrid-migration.html
Ensure a Successful Upgrade
The first thing to do is ensure that your node is working correctly. Consider taking the following steps: Check the logs for errors with rocketpool service logs validator and rocketpool service logs node.Confirm with a Block Explorer (such as your Grafana dashboard and https://beaconcha.in) that you are still attesting properly Remember that if you have Doppelganger protection enabled, you will miss a few attestations after the restart. This is normal!
19:09:25hrs 10-06-2023
rpl000515
https://docs.rocketpool.net/guides/redstone/hybrid-migration.html
Set Up MEV-Boost
MEV-boost is the system Flashbots provides to give MEV rewards to Proof-of-Stake validators after The Merge. Rocket Pool requires all nodes to use it to maximize their returns and thus keep the protocol competitive with other staking services. You will need to make some adjustments to your Beacon Node / Consensus client to connect it to MEV-boost. MEV-boost is currently not available on Prater or Mainnet, so you do not need to set it up at this time. Of course, you will not be penalized for not using it during this transition period. Once it becomes available, we will announce a date at which it must be installed and connected to your node. Flashbots will provide instructions you can follow at that time, and we will link to them here. NOTEOnce we make the announcement that MEV-boost must be enabled by all node operators, you must ensure you have it properly installed and configured with your Beacon Node!Not doing so will result in your minipool being penalized.
19:09:25hrs 10-06-2023
rpl000516
https://docs.rocketpool.net/guides/redstone/hybrid-migration.html
Set Up a Fallback Node
Because The Merge is not compatible with remote providers like Infura and Pocket, you'll lose the ability to use them as fallback Execution clients when your primary goes offline. The Smartnode still has the ability to provide a fallback Execution client (and now a fallback Consensus client as well), but you will now need to use Execution and Consensus clients that you control. For more information on setting up a fallback node, see the Fallback node guide.
19:09:25hrs 10-06-2023
rpl000517
https://docs.rocketpool.net/guides/redstone/hybrid-migration.html
Initialize your Fee Distributor
If you aren't planning to opt into the Smoothing Pool and claim all of your priority fees and MEV rewards to your fee distributor contract, you will eventually have to initialize it (create the contract instance on the chain) in order to claim rewards from it to your withdrawal address. This is a fairly cheap operation and only needs to be done once. TIPInitializing your fee distributor can be done at any time. You can let rewards accumulate in its address long before you initialize it, and your balance will remain after initialization.We recommend you do so when gas prices are low to minimize the overhead cost.Note that it must be initialized in order to claim your rewards.
19:09:25hrs 10-06-2023
rpl000518
https://docs.rocketpool.net/guides/redstone/hybrid-migration.html
Opt Into the Smoothing Pool
If you plan on taking advantage of the Smoothing Pool right away, you should opt in before the end of the first Redstone rewards period to maximize your "eligibility" amount. Opting in can be done via running the following command: rocketpool node join-smoothing-pool
19:09:25hrs 10-06-2023
rpl000519
https://docs.rocketpool.net/guides/redstone/hybrid-migration.html
Claim Rewards
The Redstone upgrade replaces the expensive, problematic old rewards system with a brand new one that's much cheaper, supports automatic restaking of RPL (both partial and full amounts), and - most importantly - lets you claim your rewards whenever you want. Because there is no longer a time limit on claiming rewards, and because it's cheaper to claim many rewards intervals at once, the automatic rewards claiming feature of the Smartnode has been removed. You will now be able to claim rewards via the following command: rocketpool node claim-rewards This will show you all of the rewards you've accumulated across all of the rewards intervals starting with the Redstone upgrade.
19:09:25hrs 10-06-2023
rpl000520
https://docs.rocketpool.net/guides/redstone/hybrid-migration.html
Reverting to v1.4.3
If, for any reason, something isn't to your liking and you want to revert to the previous Smartnode release, you can do so easily. The Smartnode automatically backs up your settings from the previous version when you upgrade it, so simply get the previous version (here we're demonstrating v1.4.3) and replace the settings with the backup: rocketpool service stop rocketpool service install -d cp ~/.rocketpool/user-settings-backup.yml ~/.rocketpool/user-settings.yml rocketpool service config rocketpool service start All set! You're now back on the old version and should begin attesting shortly after starting the service. WARNINGv1.4.3 is deprecated and will no longer be usable after the Redstone update is deployed. If you do need to revert to it, please make plans to upgrade back to v1.5.0 before the contracts are updated!
19:09:25hrs 10-06-2023
rpl000521
https://docs.rocketpool.net/guides/redstone/native-migration.html
[Native Mode] Guide to the Redstone Update and the Merge
This guide will cover everything you need to know in order to prepare your node for the Redstone Update and The Merge if you are using Native Mode.
19:09:25hrs 10-06-2023
rpl000522
https://docs.rocketpool.net/guides/redstone/native-migration.html
Things to Do Before Upgrading to v1.5.0
Before upgrading to v1.5.0 and higher of the Smartnode, please go through the following checklist to make sure you're prepared:
19:09:25hrs 10-06-2023
rpl000523
https://docs.rocketpool.net/guides/redstone/native-migration.html
Switch to a Full Execution Client
The Merge requires you to run your own Execution client, so you won't be able to use remote providers like Infura or Pocket anymore. Because of this change, if you're currently using a light Execution client, you should switch to a full client while you're still on v1.4, let it sync to completion, and then upgrade to v1.5.
19:09:25hrs 10-06-2023
rpl000524
https://docs.rocketpool.net/guides/redstone/native-migration.html
Set Up the Engine API
The Merge changes the way your Execution client talks to your Consensus client. Instead of using the old HTTP or Websocket based RPC system, The Merge requires a new system exposed by your Execution client called the Engine API. This is a special connection that lets the Consensus client replace the old Proof-of-Work mining system with Proof-of-Stake; it's the heart of The Merge. It's also authenticated with a secret token, so only your Consensus client can connect to your Execution client - nothing else can. As you manage your own Execution and Consensus clients, you'll need to set up the Engine API manually. How to do it depends entirely on which clients you're running. CoinCashew has a great and concise guide on how to set up the Engine API on your Execution and Consensus clients. Give that a look, and test the new configuration out by making sure it still attests properly before upgrading. We'll show you how to set up your Validator client so that it uses the correct fee recipient required by the Smartnode software automatically below.
19:09:25hrs 10-06-2023
rpl000525
https://docs.rocketpool.net/guides/redstone/native-migration.html
Upgrading to v1.5.0
Upgrading the Smartnode stack to v1.5.0 is no different than any other upgrade. Simply follow the normal directions here.
19:09:25hrs 10-06-2023
rpl000526
https://docs.rocketpool.net/guides/redstone/native-migration.html
Things You Should Do After Upgrading
In Native mode, there are several things you will need to do manually after upgrading:
19:09:25hrs 10-06-2023
rpl000527
https://docs.rocketpool.net/guides/redstone/native-migration.html
Ensure a Successful Upgrade
The first thing to do is ensure that your node is working correctly. Consider taking the following steps: Check your log scripts for the Execution client, the Consensus client, the Validator client, and the Smartnode daemon (the rp-node service) to ensure they're all functioning normally without errors.Confirm with a Block Explorer (such as your Grafana dashboard and https://beaconcha.in) that you are still attesting properly Remember that if you have Doppelganger protection enabled, you will miss a few attestations after the restart. This is normal!
19:09:25hrs 10-06-2023
rpl000528
https://docs.rocketpool.net/guides/redstone/native-migration.html
Set up the Fee Recipient in your Validator Client
One of the critical details to set up prior to the Merge is the fee recipient specified by your validator client. As described in the overview article, this can be one of two values: If you are opted into the Smoothing Pool, this must be the address of the Smoothing Pool contract. You can get the address from the official contracts page.If you are not in the Smoothing Pool, this must be the address of your node's fee distributor contract. You can get the address by running rocketpool node status, under the Fee Distributor and Smoothing Pool section. In Native mode, you have the choice of letting the Smartnode manage this for you if you use the Smartnode daemon service, rp-node, or managing it yourself if you do not use the daemon.
19:09:25hrs 10-06-2023
rpl000529
https://docs.rocketpool.net/guides/redstone/native-migration.html
Automatic Management via the Daemon
The Smartnode daemon will automatically determine the appropriate fee recipient for your node and manage it in case it changes (such as opting into and out of the Smoothing Pool). This is the safest option, because the Smartnode will always ensure it's set to a value that prevents penalization. The way it does this is by maintaining a file with the correct fee recipient in it, and regularly refreshing it to ensure its correctness. When it needs to be updated, it modifies the file and restarts your Validator client automatically so it loads the new recipient - similarly to how it restarts your Validator client after staking a new minipool. Select your client below to learn how to set it up: LighthouseNimbusPrysmTekuModify your Validator Client service by adding the following line before the ExecStart line:EnvironmentFile=<data dir>/validators/rp-fee-recipient-env.txtFor example:EnvironmentFile=/srv/rocketpool/data/validators/rp-fee-recipient-env.txtNext, add the following command line argument to the end of your ExecStart line:--suggested-fee-recipient ${FEE_RECIPIENT}Your VC will now use the file managed by the Smartnode daemon, and will automatically be restarted whenever the fee recipient changes. :::::
19:09:25hrs 10-06-2023
rpl000530
https://docs.rocketpool.net/guides/redstone/native-migration.html
Manual Fee Recipient Management
WARNINGBy doing this, you assume full responsibility for ensuring your fee recipient is always set to the correct address.Please read the penalty specification to understand what it must be set to given your configuration, and when you can safely change it from one value to another.Failure to do so could result in your minipools being penalized! Prior to Redstone being deployed, you can simply use the rETH address for the network you're on (which can be found in the official contracts page). The rETH address is always safe no matter what. Once Redstone has been deployed, you can see the exact address that you should set your fee recipient to via rocketpool node status. For example, if you are opted into the Smoothing Pool, it will show the Smoothing Pool's address and note that you must use it as your fee recipient: If you are not opted into the Smoothing Pool, it will show your fee distributor address and note that you must use it as your fee recipient: Select your Consensus client below to learn how to configure it. LighthouseNimbusPrysmTekuAdd the following command line argument to your Validator Client's service definition file:--suggested-fee-recipient <address>Where <address> is:The rETH address before the Redstone update is deployed (e.g., 0xae78736Cd615f374D3085123A210448E74Fc6393 on Mainnet)Your node's fee distributor after Redstone is deployed, which you can retrieve with rocketpool node status once the contract upgrade occursThe Smoothing Pool address if you opt into the Smoothing PoolAs a reminder, rocketpool node status will show you the correct fee recipient to use at any time.Please read the penalty specification carefully to understand the conditions and expectations around the fee recipient. :::::
https://docs.rocketpool.…out.2d764441.png
19:09:25hrs 10-06-2023
rpl000531
https://docs.rocketpool.net/guides/redstone/native-migration.html
Set Up MEV-Boost
MEV-boost is the system Flashbots provides to give MEV rewards to Proof-of-Stake validators after The Merge. Rocket Pool requires all nodes to use it to maximize their returns and thus keep the protocol competitive with other staking services. You will need to make some adjustments to your Beacon Node / Consensus client to connect it to MEV-boost. MEV-boost is currently not available on Prater or Mainnet, so you do not need to set it up at this time. Of course, you will not be penalized for not using it during this transition period. Once it becomes available, we will announce a date at which it must be installed and connected to your node. Flashbots will provide instructions you can follow at that time, and we will link to them here. NOTEOnce we make the announcement that MEV-boost must be enabled by all node operators, you must ensure you have it properly installed and configured with your Beacon Node!Not doing so will result in your minipool being penalized.
19:09:25hrs 10-06-2023
rpl000532
https://docs.rocketpool.net/guides/redstone/native-migration.html
Set Up a Fallback Node
Because The Merge is not compatible with remote providers like Infura and Pocket, you'll lose the ability to use them as fallback Execution clients when your primary goes offline. The Smartnode still has the ability to provide a fallback Execution client (and now a fallback Consensus client as well), but you will now need to use Execution and Consensus clients that you control. For more information on setting up a fallback node, see the Fallback node guide.
19:09:25hrs 10-06-2023
rpl000533
https://docs.rocketpool.net/guides/redstone/native-migration.html
Initialize your Fee Distributor
If you aren't planning to opt into the Smoothing Pool and claim all of your priority fees and MEV rewards to your fee distributor contract, you will eventually have to initialize it (create the contract instance on the chain) in order to claim rewards from it to your withdrawal address. This is a fairly cheap operation and only needs to be done once. TIPInitializing your fee distributor can be done at any time. You can let rewards accumulate in its address long before you initialize it, and your balance will remain after initialization.We recommend you do so when gas prices are low to minimize the overhead cost.Note that it must be initialized in order to claim your rewards.
19:09:25hrs 10-06-2023
rpl000534
https://docs.rocketpool.net/guides/redstone/native-migration.html
Opt Into the Smoothing Pool
If you plan on taking advantage of the Smoothing Pool right away, you should opt in before the end of the first Redstone rewards period to maximize your "eligibility" amount. Opting in can be done via running the following command: rocketpool node join-smoothing-pool
19:09:25hrs 10-06-2023
rpl000535
https://docs.rocketpool.net/guides/redstone/native-migration.html
Claim Rewards
The Redstone upgrade replaces the expensive, problematic old rewards system with a brand new one that's much cheaper, supports automatic restaking of RPL (both partial and full amounts), and - most importantly - lets you claim your rewards whenever you want. Because there is no longer a time limit on claiming rewards, and because it's cheaper to claim many rewards intervals at once, the automatic rewards claiming feature of the Smartnode has been removed. You will now be able to claim rewards via the following command: rocketpool node claim-rewards This will show you all of the rewards you've accumulated across all of the rewards intervals starting with the Redstone upgrade.
19:09:25hrs 10-06-2023
rpl000536
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Preparing a Raspberry Pi
NOTEThis page has been left here for archival purposes. We no longer recommend running Rocket Pool on a Raspberry Pi due to the increased hardware and performance requirements of running an Ethereum validator. This guide will walk you through how run a Rocket Pool node using a Raspberry Pi. While this is not typically recommended in most staking guides, we recognize that it is attractive because it is a much more affordable option than standing up an entire PC. To that end, we've worked hard to tweak and optimize a whole host of settings and have determined a configuration that seems to work well. This setup will run a full Execution node and a full Consensus node on the Pi, making your system contribute to the health of the Ethereum network while simultaneously acting as a Rocket Pool node operator.
19:09:25hrs 10-06-2023
rpl000537
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Preliminary Setup
To run a Rocket Pool node on a Raspberry Pi, you'll need to first have a working Raspberry Pi. If you already have one up and running - great! You can skip down to the Mounting the SSD section. Just make sure you have a fan attached before you go. If you're starting from scratch, then read on.
19:09:25hrs 10-06-2023
rpl000538
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
What You'll Need
These are the recommended components that you'll need to buy in order to run Rocket Pool on a Pi: A Raspberry Pi 4 Model B, the 8 GB modelNote: while you can use a 4 GB with this setup, we strongly recommend you go with an 8 GB for peace of mind... it's really not much more expensive.A USB-C power supply for the Pi. You want one that provides at least 3 amps.A MicroSD card. It doesn't have to be big, 16 GB is plenty and they're pretty cheap now... but it should be at least a Class 10 (U1).A MicroSD to USB adapter for your PC. This is needed so you can install the Operating System onto the card before loading it into the Pi. If your PC already has an SD port, then you don't need to pick up a new one.Some heatsinks. You're going to be running the Pi under heavy load 24/7, and it's going to get hot. Heatsinks will help so it doesn't throttle itself. You ideally want a set of 3: one for the CPU, one for the RAM, and one for the USB controller. Here is a good example of a nice set.A case. There are two ways to go here: with a fan, and fanless. With a fan: A 40mm fan. Same as the above, the goal is to keep things cool while running your Rocket Pool node.A case with a fan mount to tie it all together. You could also get a case with integrated fans like this one so you don't have to buy the fans separately.Without a fan: A fanless case that acts as one giant heatsink, like this one. This is a nice option since it's silent, but your Pi will get quite hot - especially during the initial blockchain sync process. Credit to Discord user Ken for pointing us in this direction!As a general rule, we recommend going with a fan because we're going to be overclocking the Pi significantly. You can get a lot of this stuff bundled together for convenience - for example, Canakit offers a kit with many components included. However, you might be able to get it all cheaper if you get the parts separately (and if you have the equipment, you can 3D print your own Pi case.) Other components you'll need: A USB 3.0+ Solid State Drive. The general recommendation is for a 2 TB drive. The Samsung T5 is an excellent example of one that is known to work well.⚠️ Using a SATA SSD with a SATA-to-USB adapter is not recommended because of problems like this. If you go this route, we've included a performance test you can use to check if it will work or not in the Testing the SSD's Performance section.An ethernet cable for internet access. It should be at least Cat 5e rated. Running a node over Wi-Fi is not recommended, but if you have no other option, you can do it instead of using an ethernet cable.A UPS to act as a power source if you ever lose electricity. The Pi really doesn't draw much power, so even a small UPS will last for a while, but generally the bigger, the better. Go with as big of a UPS as you can afford. Also, we recommend you attach your modem, router, and other network equipment to it as well - not much point keeping your Pi alive if your router dies. Depending on your location, sales, your choice of SSD and UPS, and how many of these things you already have, you're probably going to end up spending around $200 to $500 USD for a complete setup.
19:09:25hrs 10-06-2023
rpl000539
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Making the Fan Run More Quietly
When you get the fan, by default you're probably going to be instructed to connect it to the 5v GPIO pin, as shown in the picture below. The fan will have a connector with two holes; the black one should go to GND (pin 6), and the red one should go to +5v (pin 4). However, in our experience, this makes the fan run very loud and fast which isn't really necessary. If you want to make it more quiet while still running cool, try connecting it to the 3.3v pin (Pin 1, the blue one) instead of the 5v pin. This means that on your fan, the black point will go to GND (pin 6) still, but now the red point will go to +3.3v (pin 1). If your fan has a connector where the two holes are side by side and you can't split them apart, you can put some jumpers like this in between it and the GPIO pins on the Pi.
https://docs.rocketpool.…out.919c9ea6.png
19:09:25hrs 10-06-2023
rpl000540
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Installing the Operating System
There are a few varieties of Linux OS that support the Raspberry Pi. For this guide, we're going to stick to Ubuntu 20.04. Ubuntu is a tried-and-true OS that's used around the world, and 20.04 is (at the time of this writing) the latest of the Long Term Support (LTS) versions, which means it will keep getting security patches for a very long time. If you'd rather stick with a different flavor of Linux like Raspbian, feel free to follow the existing installation guides for that - just keep in mind that this guide is built for Ubuntu, so not all of the instructions may match your OS. The fine folks at Canonical have written up a wonderful guide on how to install the Ubuntu Server image onto a Pi. Follow steps 1 through 4 of the guide above for the Server setup. For the Operating System image, you want to select Ubuntu Server 20.04.2 LTS (RPi 3/4/400) 64-bit server OS with long-term support for arm64 architectures. If you decide that you want a desktop UI (so you can use a mouse and have windows to drag around), you'll need to follow step 5 as well. We suggest that you don't do this and just stick with the server image, because the desktop UI will add some additional overhead and processing work onto your Pi with relatively little benefit. However, if you're determined to run a desktop, then we recommend choosing the Xubuntu option. It's pretty lightweight on resources and very user friendly. Once that's complete, you're ready to start preparing Ubuntu to run a Rocket Pool node. You can use the local terminal on it, or you can SSH in from your desktop / laptop as the installation guide suggests. The process will be the same either way, so do whatever's most convenient for you. If you aren't familiar with ssh, take a look at the Intro to Secure Shell guide. NOTEAt this point, you should strongly consider configuring your router to make your Pi's IP address static. This means that your Pi will have the same IP address forever, so you can always SSH into it using that IP address. Otherwise, it's possible that your Pi's IP could change at some point, and the above SSH command will no longer work. You'll have to enter your router's configuration to find out what your Pi's new IP address is.Each router is different, so you will need to consult your router's documentation to learn how to assign a static IP address.
19:09:25hrs 10-06-2023
rpl000541
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Mounting the SSD
As you may have gathered, after following the above installation instructions, the core OS will be running off of the microSD card. That's not nearly large enough or fast enough to hold all of the Execution and Consensus blockchain data, which is where the SSD comes in. To use it, we have to set it up with a file system and mount it to the Pi.
19:09:25hrs 10-06-2023
rpl000542
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Connecting the SSD to the USB 3.0 Ports
Start by plugging your SSD into one of the Pi's USB 3.0 ports. These are the blue ports, not the black ones: The black ones are slow USB 2.0 ports; they're only good for accessories like mice and keyboards. If you have your keyboard plugged into the blue ports, take it out and plug it into the black ones now.
https://docs.rocketpool.…USB.183b9759.png
19:09:25hrs 10-06-2023
rpl000543
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Formatting the SSD and Creating a New Partition
WARNINGThis process is going to erase everything on your SSD. If you already have a partition with stuff on it, SKIP THIS STEP because you're about to delete it all! If you've never used this SSD before and it's totally empty, then follow this step. Run this command to find the location of your disk in the device table: sudo lshw -C disk *-disk description: SCSI Disk product: Portable SSD T5 vendor: Samsung physical id: 0.0.0 bus info: [email protected]:0.0.0 logical name: /dev/sda ... The important thing you need is the logical name: /dev/sda portion, or rather, the /dev/sda part of it. We're going to call this the device location of your SSD. For this guide, we'll just use /dev/sda as the device location - yours will probably be the same, but substitute it with whatever that command shows for the rest of the instructions. Now that we know the device location, let's format it and make a new partition on it so we can actually use it. Again, these commands will delete whatever's already on the disk! Create a new partition table: sudo parted -s /dev/sda mklabel gpt unit GB mkpart primary ext4 0 100% Format the new partition with the ext4 file system: sudo mkfs -t ext4 /dev/sda1 Add a label to it (you don't have to do this, but it's fun): sudo e2label /dev/sda1 "Rocket Drive" Confirm that this worked by running the command below, which should show output like what you see here: sudo blkid ... /dev/sda1: LABEL="Rocket Drive" UUID="1ade40fd-1ea4-4c6e-99ea-ebb804d86266" TYPE="ext4" PARTLABEL="primary" PARTUUID="288bf76b-792c-4e6a-a049-cb6a4d23abc0" If you see all of that, then you're good. Grab the UUID="..." output and put it somewhere temporarily, because you're going to need it in a minute.
19:09:25hrs 10-06-2023
rpl000544
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Optimizing the New Partition
Next, let's tune the new filesystem a little to optimize it for validator activity. By default, ext4 will reserve 5% of its space for system processes. Since we don't need that on the SSD because it just stores the Execution (ETH1) and Consensus (ETH2) chain data, we can disable it: sudo tune2fs -m 0 /dev/sda1
19:09:25hrs 10-06-2023
rpl000545
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Mounting and Enabling Automount
In order to use the drive, you have to mount it to the file system. Create a new mount point anywhere you like (we'll use /mnt/rpdata here as an example, feel free to use that): sudo mkdir /mnt/rpdata Now, mount the new SSD partition to that folder: sudo mount /dev/sda1 /mnt/rpdata After this, the folder /mnt/rpdata will point to the SSD, so anything you write to that folder will live on the SSD. This is where we're going to store the chain data for Execution (ETH1) and Consensus (ETH2). Now, let's add it to the mounting table so it automatically mounts on startup. Remember the UUID from the blkid command you used earlier? This is where it will come in handy. sudo nano /etc/fstab This will open up an interactive file editor, which will look like this to start: LABEL=writable / ext4 defaults 0 0 LABEL=system-boot /boot/firmware vfat defaults 0 1 Use the arrow keys to go down to the bottom line, and add this line to the end: LABEL=writable / ext4 defaults 0 0 LABEL=system-boot /boot/firmware vfat defaults 0 1 UUID=1ade40fd-1ea4-4c6e-99ea-ebb804d86266 /mnt/rpdata ext4 defaults 0 0 Replace the value in UUID=... with the one from your disk, then press Ctrl+O and Enter to save, then Ctrl+X and Enter to exit. Now the SSD will be automatically mounted when you reboot. Nice!
19:09:25hrs 10-06-2023
rpl000546
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Testing the SSD's Performance
Before going any further, you should test your SSD's read/write speed and how many I/O requests it can handle per second (IOPS). If your SSD is too slow, then it won't work well for a Rocket Pool node and you're going to end up losing money over time. To test it, we're going to use a program called fio. Install it like this: sudo apt install fio Next, move to your SSD's mount point: cd /mnt/rpdata Now, run this command to test the SSD performance: sudo fio --randrepeat=1 --ioengine=libaio --direct=1 --gtod_reduce=1 --name=test --filename=test --bs=4k --iodepth=64 --size=4G --readwrite=randrw --rwmixread=75 The output should look like this: test: (g=0): rw=randrw, bs=(R) 4096B-4096B, (W) 4096B-4096B, (T) 4096B-4096B, ioengine=libaio, iodepth=64 fio-3.16 Starting 1 process test: Laying out IO file (1 file / 4096MiB) Jobs: 1 (f=1): [m(1)][100.0%][r=63.9MiB/s,w=20.8MiB/s][r=16.4k,w=5329 IOPS][eta 00m:00s] test: (groupid=0, jobs=1): err= 0: pid=205075: Mon Feb 15 04:06:35 2021 read: IOPS=15.7k, BW=61.5MiB/s (64.5MB/s)(3070MiB/49937msec) bw ( KiB/s): min=53288, max=66784, per=99.94%, avg=62912.34, stdev=2254.36, samples=99 iops : min=13322, max=16696, avg=15728.08, stdev=563.59, samples=99 write: IOPS=5259, BW=20.5MiB/s (21.5MB/s)(1026MiB/49937msec); 0 zone resets ... What you care about are the lines starting with read: and write: under the test: line. Your read should have IOPS of at least 15k and bandwidth (BW) of at least 60 MiB/s.Your write should have IOPS of at least 5000 and bandwidth of at least 20 MiB/s. Those are the specs from the Samsung T5 that we use, which work very well. We have also tested a slower SSD with read IOPS of 5k and write IOPS of 1k, and it has a very hard time keeping up with the ETH2 chain. If you use an SSD slower than the specs above, just be prepared that you might see a lot of missed attestations. If yours meets or exceeds them, then you're all set and can move on. NOTEIf your SSD doesn't meet the above specs but it should, you might be able to fix it with a firmware update. For example, this has been experienced by the Rocket Pool community with the Samsung T7. Two of them fresh out of the box only showed 3.5K read IOPS and 1.2K write IOPS. After applying all available firmware updates, the performance was back up to the numbers shown in the above example. Check with your manufacturer's support website for the latest firmware and make sure your drive is up to date - you may have to update the firmware multiple times until there are no more updates left. Last but not least, remove the test file you just made: sudo rm /mnt/rpdata/test
19:09:25hrs 10-06-2023
rpl000547
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Setting up Swap Space
The Pi has 8 GB (or 4 GB if you went that route) of RAM. For our configuration, that will be plenty. Then again, it never hurts to add a little more. What we're going to do now is add what's called swap space. Essentially, it means we're going to use the SSD as "backup RAM" in case something goes horribly, horribly wrong and the Pi runs out of regular RAM. The SSD isn't nearly as fast as the regular RAM, so if it hits the swap space it will slow things down, but it won't completely crash and break everything. Think of this as extra insurance that you'll (most likely) never need.
19:09:25hrs 10-06-2023
rpl000548
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Creating a Swap File
The first step is to make a new file that will act as your swap space. Decide how much you want to use - a reasonable start would be 8 GB, so you have 8 GB of normal RAM and 8 GB of "backup RAM" for a total of 16 GB. To be super safe, you can make it 24 GB so your system has 8 GB of normal RAM and 24 GB of "backup RAM" for a total of 32 GB, but this is probably overkill. Luckily, since your SSD has 1 or 2 TB of space, allocating 8 to 24 GB for a swapfile is negligible. For the sake of this walkthrough, let's pick a nice middleground - say, 16 GB of swap space for a total RAM of 24 GB. Just substitute whatever number you want in as we go. Enter this, which will create a new file called /mnt/rpdata/swapfile and fill it with 16 GB of zeros. To change the amount, just change the number in count=16 to whatever you want. Note that this is going to take a long time, but that's ok. sudo dd if=/dev/zero of=/mnt/rpdata/swapfile bs=1G count=16 status=progress Next, set the permissions so only the root user can read or write to it (for security): sudo chmod 600 /mnt/rpdata/swapfile Now, mark it as a swap file: sudo mkswap /mnt/rpdata/swapfile Next, enable it: sudo swapon /mnt/rpdata/swapfile Finally, add it to the mount table so it automatically loads when your Pi reboots: sudo nano /etc/fstab Add a new line at the end so that the file looks like this: LABEL=writable / ext4 defaults 0 0 LABEL=system-boot /boot/firmware vfat defaults 0 1 UUID=1ade40fd-1ea4-4c6e-99ea-ebb804d86266 /mnt/rpdata ext4 defaults 0 0 /mnt/rpdata/swapfile none swap sw 0 0 Press Ctrl+O and Enter to save, then Ctrl+X and Enter to exit. To verify that it's active, run these commands: sudo apt install htop htop Your output should look like this at the top: If the second number in the last row labeled Swp (the one after the /) is non-zero, then you're all set. For example, if it shows 0K / 16.0G then your swap space was activated successfully. If it shows 0K / 0K then it did not work and you'll have to confirm that you entered the previous steps properly. Press q or F10 to quit out of htop and get back to the terminal.
https://docs.rocketpool.…wap.7779ed7f.png
19:09:25hrs 10-06-2023
rpl000549
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Configuring Swappiness and Cache Pressure
By default, Linux will eagerly use a lot of swap space to take some of the pressure off of the system's RAM. We don't want that. We want it to use all of the RAM up to the very last second before relying on SWAP. The next step is to change what's called the "swappiness" of the system, which is basically how eager it is to use the swap space. There is a lot of debate about what value to set this to, but we've found a value of 6 works well enough. We also want to turn down the "cache pressure", which dictates how quickly the Pi will delete a cache of its filesystem. Since we're going to have a lot of spare RAM with our setup, we can make this "10" which will leave the cache in memory for a while, reducing disk I/O. To set these, run these commands: sudo sysctl vm.swappiness=6 sudo sysctl vm.vfs_cache_pressure=10 Now, put them into the sysctl.conf file so they are reapplied after a reboot: sudo nano /etc/sysctl.conf Add these two lines to the end: vm.swappiness=6 vm.vfs_cache_pressure=10 Then save and exit like you've done before (Ctrl+O, Ctrl+X).
19:09:25hrs 10-06-2023
rpl000550
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Overclocking the Pi
By default, the 1.5 GHz processor that the Pi comes with is a pretty capable little device. For the most part, you should be able to validate with it just fine. However, we have noticed that on rare occasions, your validator client gets stuck working on some things and it just doesn't have enough horsepower to keep up with your validator's attestation duties. When that happens, you'll see something like this on the beaconcha.in explorer (described in more detail in the Monitoring your Node's Performance guide later on): That inclusion distance of 8 means that it took a really long time to send that attestation, and you will be slightly penalized for being late. Ideally, all of them should be 0. Though rare, these do occur when running at stock settings. There is a way to mitigate these, however: overclocking. Overclocking is by far the easiest way to get some extra performance out of your Pi's CPU and prevent those nasty high inclusion distances. Frankly, the default CPU clock of 1.5 GHz is really underpowered. You can speed it up quite a bit via overclocking, and depending on how far you take it, you can do it quite safely too. Overclocking the Pi is very simple - it just involves changing some numbers in a text file. There are two numbers that matter: the first is the core clock, which directly determines how fast the ARM CPU runs. The second is overvoltage, which determines the voltage that gets fed into the ARM CPU. Higher speeds generally require higher voltage, but the Pi's CPU can handle quite a bit of extra voltage without any appreciable damage. It might wear out a little faster, but we're still talking on the order of years and the Pi 5 will be out by then, so no real harm done! Rather, the real concern with overvoltage is that higher voltages lead to higher temperatures. This section will help you see how hot your Pi gets under a heavy load, so you don't push it too far. WARNINGWhile overclocking at the levels we're going to do is pretty safe and reliable, you are at the mercy of what's called the "silicon lottery". Every CPU is slightly different in microscopic ways, and some of them can simply overclock better than others. If you overclock too far / too hard, then your system may become unstable. Unstable Pis suffer from all kinds of consequences, from constant restarts to completely freezing. In the worst case, you could corrupt your microSD card and have to reinstall everything from scratch!By following the guidance here, you have to accept the fact that you're running that risk. If that's not worth it for you, then skip the rest of this section.
https://docs.rocketpool.…ist.6e86226b.png
19:09:25hrs 10-06-2023
rpl000551
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Benchmarking the Stock Configuration
Before overclocking, your should profile what your Pi is capable of in its stock, off-the-shelf configuration. There are three key things to look at: We're going to get stats on all three of them as we go.
19:09:25hrs 10-06-2023
rpl000552
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Performance
For measuring performance, you can use LINPACK. We'll build it from source. cd ~ sudo apt install gcc wget http://www.netlib.org/benchmark/linpackc.new -O linpack.c ... cc -O3 -o linpack linpack.c -lm ... sudo mv linpack /usr/local/bin rm linpack.c Now run it like this: linpack Enter array size (q to quit) [200]: Just press enter to leave it at the default of 200, and let it run. When it's done, the output will look like this: Memory required: 315K. LINPACK benchmark, Double precision. Machine precision: 15 digits. Array size 200 X 200. Average rolled and unrolled performance: Reps Time(s) DGEFA DGESL OVERHEAD KFLOPS ---------------------------------------------------- 512 0.70 85.64% 3.76% 10.60% 1120802.516 1024 1.40 85.70% 3.74% 10.56% 1120134.749 2048 2.81 85.71% 3.73% 10.56% 1120441.752 4096 5.62 85.69% 3.74% 10.57% 1120114.452 8192 11.23 85.67% 3.74% 10.59% 1120277.186 What you need to look at is the last row, in the KFLOPS column. This number (1120277.186 in the above example) represents your computing performance. It doesn't mean anything by itself, but it gives us a good baseline to compare the overclocked performance to. Let's call this the stock KFLOPS.
19:09:25hrs 10-06-2023
rpl000553
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Temperature
Next, let's stress the Pi out and watch its temperature under heavy load. First, install this package, which will provide a tool called vcgencmd that can print details about the Pi: sudo apt install libraspberrypi-bin Once this is installed, reboot the Pi (this is necessary for some new permission to get applied). Next, install a program called stressberry. This will be our benchmarking tool. Install it like this: sudo apt install stress python3-pip pip3 install stressberry source ~/.profile NOTEIf stressberry throws an error about not being able to read temperature information or not being able to open the vchiq instance, you can fix it with the following command:sudo usermod -aG video $USERThen log out and back in, restart your SSH session, or restart the machine and try again. Next, run it like this: stressberry-run -n "Stock" -d 300 -i 60 -c 4 stock.out This will run a new stress test named "Stock" for 300 seconds (5 minutes) with 60 seconds of cooldown before and after the test, on all 4 cores of the Pi. You can play with these timings if you want it to run longer or have more of a cooldown, but this works as a quick-and-dirty stress test for me. The results will get saved to a file named stock.out. During the main phase of the test, the output will look like this: Current temperature: 41.3°C - Frequency: 1500MHz Current temperature: 41.3°C - Frequency: 1500MHz Current temperature: 41.8°C - Frequency: 1500MHz Current temperature: 40.9°C - Frequency: 1500MHz Current temperature: 41.8°C - Frequency: 1500MHz This basically tells you how hot the Pi will get. At 85­°C, the Pi will actually start to throttle itself and bring the clock speed down so it doesn't overheat. Luckily, because you added a heatsink and a fan, you shouldn't get anywhere close to this! That being said, we generally try to keep the temperatures below 65°C for the sake of the system's overall health. If you want to monitor the system temperature during normal validating operations, you can do this with vcgencmd: vcgencmd measure_temp temp=34.0'C
19:09:25hrs 10-06-2023
rpl000554
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Stability
Testing the stability of an overclock involves answering these three questions: Does the Pi turn on and get to a login promp / start the SSH server?Does it randomly freeze or restart during normal operations?Does it randomly freeze or restart during heavy load? For an overclock to be truly stable, the answers must be yes, no, and no. There are a few ways to test this, but the easiest at this point is to just run stressberry for a really long time. How long is entirely up to you - the longer it goes, the more sure you can be that the system is stable. Some people just run the 5 minute test above and call that good if it survives; others run it for a half hour; others run it for 8 hours or even more. How long to run it is a personal decision you'll have to make based on your own risk tolerance. To change the runtime, just modify the -d parameter with the number of seconds you want the test to run. For example, if you decided a half-hour is the way to go, you could do -d 1800.
19:09:25hrs 10-06-2023
rpl000555
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Your First Overclock - 1800 MHz (Light)
The first overclock we're going to do is relatively "light" and reliable, but still provides a nice boost in compute power. We're going to go from the stock 1500 MHz up to 1800 MHz - a 20% speedup! Open this file: sudo nano /boot/firmware/usercfg.txt Add these two lines to the end: arm_freq=1800 over_voltage=3 Then save the file and reboot. These settings will increase the CPU clock by 20%, and it will also raise the CPU voltage from 0.88v to 0.93v (each over_voltage setting increases it by 0.025v). This setting should be attainable by any Pi 4B, so your system should restart and provide a login prompt or SSH access in just a few moments. If it doesn't, and your Pi stops responding or enters a boot loop, you'll have to reset it - read the next section for that.
19:09:25hrs 10-06-2023
rpl000556
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Resetting After an Unstable Overclock
If your Pi stops responding, or keeps restarting over and over, then you need to lower the overclock. To do that, follow these steps: If the Pi works, then great! Continue below. If not, repeat the whole process with even more conservative settings. In the worst case you can just remove the arm_freq and over_voltage lines entirely to return it to stock settings.
19:09:25hrs 10-06-2023
rpl000557
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Testing 1800 MHz
Once you're logged in, run linpack again to test the new performance. Here's an example from our test Pi: linpack Enter array size (q to quit) [200]: ... Reps Time(s) DGEFA DGESL OVERHEAD KFLOPS ---------------------------------------------------- 512 0.59 85.72% 3.75% 10.53% 1338253.832 1024 1.18 85.72% 3.75% 10.53% 1337667.003 2048 2.35 85.72% 3.75% 10.53% 1337682.272 4096 4.70 85.73% 3.75% 10.53% 1337902.437 8192 9.40 85.71% 3.76% 10.53% 1337302.722 16384 18.80 85.72% 3.75% 10.52% 1337238.504 Again, grab the KFLOPS column in the last row. To compare it to the stock configuration, simply divide the two numbers: 1337238.504 / 1120277.186 = 1.193668 Alright! That's a 19.4% boost in performance, which is to be expected since we're running 20% faster. Now let's check the temperatures with the new clock speed and voltage settings: stressberry-run -n "1800_ov3" -d 300 -i 60 -c 4 1800_ov3.out You should see output like this: Current temperature: 47.2°C - Frequency: 1800MHz Current temperature: 48.7°C - Frequency: 1800MHz Current temperature: 47.7°C - Frequency: 1800MHz Current temperature: 47.7°C - Frequency: 1800MHz Current temperature: 47.7°C - Frequency: 1800MHz Not bad, about 6° hotter than the stock settings but still well below the threshold where we'd personally stop. You can run a longer stability test here if you're comfortable, or you can press on to take things even higher.
19:09:25hrs 10-06-2023
rpl000558
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Going to 2000 MHz (Medium)
The next milestone will be 2000 MHz. This represents a 33.3% boost in clock speed, which is pretty significant. Most people consider this to be a great balance between performance and stability, so they stop the process here. Our recommendation for this level is to start with these settings: arm_freq=2000 over_voltage=5 This will boost the core voltage to 1.005v. Try this out with the linpack and stressberry tests. If it survives them, then you're all set. If it freezes or randomly restarts, then you should increase the voltage: arm_freq=2000 over_voltage=6 That puts the core voltage at 1.03v, which is as high as you can go before voiding the warranty. That usually works for most Pis. If it doesn't, instead of increasing the voltage further, you should lower your clock speed and try again. For reference, here are the numbers from our 2000 run: linpack Enter array size (q to quit) [200]: ... Reps Time(s) DGEFA DGESL OVERHEAD KFLOPS ---------------------------------------------------- 512 0.53 85.76% 3.73% 10.51% 1482043.543 1024 1.06 85.74% 3.73% 10.53% 1481743.724 2048 2.12 85.74% 3.72% 10.54% 1482835.055 4096 4.24 85.73% 3.74% 10.53% 1482189.202 8192 8.48 85.74% 3.73% 10.53% 1482560.117 16384 16.96 85.74% 3.73% 10.53% 1482441.146 That's a 32.3% speedup which is in-line with what we'd expect. Not bad! Here are our temperatures: Current temperature: 54.0°C - Frequency: 2000MHz Current temperature: 54.5°C - Frequency: 2000MHz Current temperature: 54.0°C - Frequency: 2000MHz Current temperature: 54.5°C - Frequency: 2000MHz Current temperature: 55.5°C - Frequency: 2000MHz An increase of 7 more degrees, but still under our threshold of 65°C.
19:09:25hrs 10-06-2023
rpl000559
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Going to 2100 MHz (Heavy)
The next step represents a solid 40% speedup over the stock configuration. NOTE: Not all Pi's are capable of doing this while staying at over_voltage=6. Try it, and if it breaks, go back to 2000 MHz. The configuration will look like this: arm_freq=2100 over_voltage=6 For reference, here are our results: linpack Enter array size (q to quit) [200]: ... Reps Time(s) DGEFA DGESL OVERHEAD KFLOPS ---------------------------------------------------- 512 0.50 85.68% 3.76% 10.56% 1560952.508 1024 1.01 85.68% 3.76% 10.56% 1554858.509 2048 2.01 85.70% 3.74% 10.56% 1561524.482 4096 4.03 85.72% 3.73% 10.55% 1560152.447 8192 8.06 85.72% 3.73% 10.54% 1561078.999 16384 16.11 85.73% 3.73% 10.54% 1561448.736 That's a 39.4% speedup! Here are our temperatures: Current temperature: 59.4°C - Frequency: 2100MHz Current temperature: 58.9°C - Frequency: 2100MHz Current temperature: 58.4°C - Frequency: 2100MHz Current temperature: 59.4°C - Frequency: 2100MHz Current temperature: 58.9°C - Frequency: 2100MHz Just shy of 60°C, so there's plenty of room.
19:09:25hrs 10-06-2023
rpl000560
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Going to 2250 MHz (Extreme)
This is the setting we run our Pi's at, which has been stable for over a year at the time of writing. Still, users are cautioned in overclocking this high - ensure you do thorough stability tests and have plenty of thermal headroom before attempting to make this your node's production configuration! Our configuration is: arm_freq=2250 over_voltage=10 Here are our results: Reps Time(s) DGEFA DGESL OVERHEAD KFLOPS ---------------------------------------------------- 1024 0.95 85.69% 3.85% 10.47% 1650081.294 2048 1.91 85.64% 3.91% 10.45% 1646779.068 4096 3.84 85.41% 4.15% 10.44% 1637706.598 8192 7.75 85.50% 4.03% 10.46% 1620589.096 16384 15.34 85.43% 4.13% 10.44% 1638067.854 That's 46% faster than the stock configuration! OV10 is as the stock firmware will let the Pi go, and 2250 MHz is the fastest we could reliably run in production. The temperatures in the stress test get this high: Current temperature: 70.6°C - Frequency: 2251MHz Current temperature: 71.1°C - Frequency: 2251MHz Current temperature: 71.1°C - Frequency: 2251MHz Current temperature: 71.1°C - Frequency: 2251MHz Current temperature: 71.1°C - Frequency: 2251MHz But during actual validation, they tend to stay below 60C which is acceptable for us.
19:09:25hrs 10-06-2023
rpl000561
https://docs.rocketpool.net/guides/node/local/prepare-pi.html
Next Steps
And with that, your Pi is up and running and ready to run Rocket Pool! Move on to the Choosing your ETH Clients section.
19:09:25hrs 10-06-2023