Evernode Review

Evernode

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Their Official site text:

Seriously smart contracts for the XRPL Ecosystem

Evernode Labs Pty Ltd

20 Nov 2023

(updated 12 January 2024)

Whitepaper 2.0

Page | 2 © Evernode Labs Pty Ltd 2023

Table of Contents

1. EXECUTIVE SUMMARY 4

Evernode’s Five Components 4

Hosts 4

Developers 4

Initiator 4

Proposed Launch 4

2. HOTPOCKET – CONSENSUS-AS-AN-OPERATING-SYSTEM 5

UNL Consensus Protocol 5

Rapid State Syncing 6

Contract Config Sync 7

3. SASHIMONO – DECENTRALISED HOSTING 7

Anatomy Of A DApp Instance 7

State Filesystem 8

HotPocket vs dApp 8

Multi-Tenant Instance/Container Management 9

Sashimono – Container Daemon Separation 9

Multi-Tenant Separation 10

4. XAHAU REGISTRY HOOK - DECENTRALISED NETWORK 11

The Xahau Network & Hooks 11

Making Evernode Decentralised with Xahau Hooks 12

Ensuring Quality Hosts 12

Why Not Be a “Layer 1” Network? 13

Why Choose the Xahau Network? 13

Why Not the XRP Ledger? 14

5. EVERS - EVERNODE’S NATIVE DIGITAL CURRENCY 15

Holding Evers 15

Using Evers 15

Acquiring Evers 15

Why Have a Native Currency? 16

Why Not Use XRP or XAH? 16

6. EVERNODE’S ON-CHAIN GOVERNANCE GAME 17

Participants 17

Types of Proposals 17

Withdrawing a Proposal 18

Purging a Proposal 18

Voting 18

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Electing a Proposal 18

Evernode Labs Special Rights 18

Governance Mode – 3 Levels of Decentralisation 18

7. ANYONE CAN BE A GOOD HOST & EARN EVERS 19

Being a Good Evernode Host 20

Hosting Rewards – Incentivising Hosts to Exist 20

Hosting Fees – Paying Hosts for Hosting 21

8. ANYONE CAN BE AN EVERNODE DAPP DEVELOPER 21

Benefits of Evernode dApps 21

Sample Use Cases 22

9. INITIATOR - EVERNODE LABS PTY LTD 22

10. PROPOSED LAUNCH 23

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1. EXECUTIVE SUMMARY

1.1 Evernode is a global, permissionless, decentralised “layer 2” network tailored to

hosting hyper-flexible, hyper-scalable dApps that perform as bespoke miniblockchains (“AppChains”), empowering developers to build with their choice

of language, functionality, geography, and scale, but without needing to

invent their own consensus mechanism.

Evernode’s Five Components

1.2 Evernode has five main components:

(a) Consensus: A consensus-as-an-operating-system environment in which

code runs to enable multiple instances to function as a bespoke chain.

(b) Hosting: A way to deploy multiple instances of an executable program to

a global network of independently owned and operated hosts.

chain so the network is as secure and decentralised as possible.

(d) Native Token: A new digital asset for the network to incentivise hosts and

facilitate automated payment for network registration and hosting fees.

(e) Decentralised Governance: A way for hosts to vote to update the rules for

registration, rewards, and governance, including deregistering bad hosts.

Hosts

1.3 In concert, these five components create a decentralised network where

anybody can become a Host by downloading the Evernode software and

paying the registration fee in Evers. Reliable hosts earn network rewards for

being connected to the network and earn income in the network’s currency

from hosting dApps.

Developers

1.4 For Developers, these five components result in a global network of

independently owned and operated Hosts on which they can build and deploy

dApps with their choice of language, behaviours, geography, and scale. In

conjunction with Hooks, Xahau’s lite smart contract solution, a vast new range

of use cases for decentralised applications arises.

Initiator

1.5 Evernode is an initiative of Evernode Labs Pty Ltd, a private Australian company

spun out of the Australian National University to commercialise IP arising from

research funded by grants from Ripple’s University Blockchain Research

Initiative.

Proposed Launch

1.6 Evernode plans to launch fully functional on 18th December, or as soon as

possible thereafter, depending on the existence of a wallet that fully supports

the Xahau Network and its XRPL account-cloning feature.

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2. HOTPOCKET – CONSENSUS-AS-AN-OPERATING-SYSTEM

2.1 The inspiration for Evernode was this: the XRP Ledger is a payment App inside a

consensus engine, so what if you could take the payment App out and insert

any other type of App as desired into the consensus engine? Thus, was born the

consensus engine we call HotPocket.

2.2 HotPocket uses a cooperative UNL-based consensus algorithm akin to the

Ripple Consensus Protocol, abstracted for any transaction or input type. It

transforms standard Apps into dApps.

2.3 We call them dApps, but really, they are bespoke mini-blockchains (or

“AppChains”) that behave as the developer wants. Its UNL, the files it reads and

writes, its inputs and outputs etc are all subject to consensus within the dApp’s

UNL. HotPocket provides all this as a sort of “consensus-as-an-operating-system”

solution as summarised in Figure 1 below.

Figure 1: Evolution of a HotPocket Cluster

2.4 HotPocket has four main components:

(a) UNL Consensus Protocol: HotPocket is a Unique Node List (UNL) based

consensus protocol that allows multiple Linux machines to become a

mini-blockchain by enforcing consensus rules on inputs and outputs and

maintaining a shared, canonical state across multiple instances.

(b) Rapid State Sync: HotPocket contains a bundle of additional features

designed to make it as easy as possible to spin up a HotPocket node and

sync it to the existing network.

contract have the same configuration and allows contracts to be

upgraded automatically at consensus.

(d) Minimal Setup: HotPocket enables new nodes to join an existing contract

with minimal known information to sync the new node with the cluster.

UNL Consensus Protocol

2.5 The HotPocket consensus engine works as follows:

(a) Set Up: The programmer configures a set of servers and builds a Unique

Node List of these servers’ public keys and a peer list of IPs and ports. This

configuration is copied to all servers in the contract’s network.

(b) Synchronisation: During execution, each HotPocket instance connects to

its peers and synchronizes the current contract state across all UNL peers

according to a configurable consensus threshold of between 50% and

100% of nodes, depending on the desired trade-off between liveness and

security. Once state transfer and synchronization are achieved, the

contract’s network collects inputs from the contract’s users.

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configured to reject their connections. Users identify themselves by

proving ownership of a public key and their inputs are then circulated into

the consensus mechanism, akin to transactions being circulated into the

Bitcoin, XRPL, or Ethereum networks.

(d) Consensus on Inputs: The contract’s nodes then execute a consensus

round deciding which user inputs made it into this block and which will be

held off for next block. Other essential consensus information, like the time

of the round, the current contract state, and the identity of the last closed

ledger (the canonical state of the network) also enter into consensus.

After three rounds, consensus is reached by the dev-configured majority

of UNL peers. Non-UNL peers can also observe consensus if the contract

network is configured as a public network.

(e) Execution: Upon consensus, each HotPocket node simultaneously

executes the smart contract binary and provides the same set of user

inputs in the same canonical order to the binary. The smart contract

processes the batch of user inputs and produces a set of contract

outputs. These outputs are of two forms: updates to the contract’s state

and user outputs (to be sent back to users).

(f) Node Party Line & Sub-Consensus Feature: During smart contract

execution, the UNL nodes may communicate with each other over a

broadcast service provided by HotPocket. This is called the Node Party

Line. This feature allows nodes to run sub-consensus agreement and

information sharing before exiting and alleviates the need for each node

to behave completely deterministically. For example, the nodes may wish

to pass a multi-sig transaction between themselves and each sign with a

key only that individual node possesses, before agreeing on a canonical

final signed multi-sig transaction and exiting.

(g) User Outputs: Once the smart contract has executed, another consensus

round takes place to ensure all nodes produced the same output and

the same changes to their state. Once the result of the execution is

agreed upon, the user outputs are passed to the users for whom they

were destined according to the contract’s internal programming or

dropped if the user is no longer connected anywhere on the contract’s

network. In practice, this new consensus round also gathers up a new

batch of user inputs to feed into the contract’s next execution.

2.6 The above features provide a robust and proven byzantine-fault-tolerant

consensus mechanism that is agnostic as to the nature of the App inside it.

Rapid State Syncing

2.7 To enable new nodes to quickly catch-up state, HotPocket uses a state

management system akin to BitTorrent.

2.8 Each contract execution allows the contract binary to read and write into its

state folder which is in fact a mounted FUSE device managed by a HotPocket

sub-process. Each time the contract writes to, or alters, its on-disk state the FUSE

sub-process updates its Merkel tree representation of the contract’s state. The

deltas between Merkel trees are then computed to allow efficient transfer of

only the changed data between two arbitrarily distant states in the ledger

chain.

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2.9 This means nodes do not need to replay old ledgers to catch up state, which

would likely be otherwise impossible for high throughput contracts.

Contract Config Sync

2.10 HotPocket has two features to help elegantly manage contract lifecycles.

(a) Online Configuration: First, the contract config is subjected to consensus

ensuring all contract nodes use the same configuration which effects

deterministic execution. Contracts can also update their own

configuration at runtime and rely on consensus to ensure all the nodes

retain the same configuration.

(b) Self-Editable Contracts: Second, HotPocket smart contracts can be

configured (if desired) to “live” among the contract data, subjecting the

contract binaries and upgrade activities to consensus. HotPocket offers a

handoff mechanism to perform contract upgrades in between consensus

rounds by means of an installation shell script provided by the contract.

The results of the upgrade are automatically validated in subsequent

consensus rounds.

2.11 Combined, these two contract management features mean HotPocket offers a

rich administrative environment in which the contract can self-manage its own

life cycle.

3. SASHIMONO – DECENTRALISED HOSTING

3.1 Despite HotPocket’s utility, it would be a relatively centralised solution if

developers had to spin up each of the machines on which their dApps run.

Instead, there should be a global marketplace of independently owned and

operated Hosts running software capable of hosting HotPocket dApps. This

network of dApp Hosts is the problem Sashimono solves.

3.2 Sashimono is a hosting daemon. It provides the ability to deploy an instance of

a HotPocket dApp to a shared Linux hosting environment and have the dApp

instance run without interfering with any other dApp instances running on the

same host. This makes Sashimono a multi-tenant cloud hosting environment

specialized in HotPocket dApp deployment.

Anatomy Of A DApp Instance

3.3 Sashimono packages the HotPocket and dApp executables into a container

image and runs them with the help of a security-hardened container manager.

Figure 2: Sashimono 1st Design Stage

3.4 In Figure 2 above, the dApp box essentially contains untrusted code. Bundling

the dApp and dependencies into a secure container helps protect the rest of

the system from malicious dApps.

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State Filesystem

3.5 HotPocket uses a FUSE filesystem layer to help manage the dApp state as

shown in Figure 3. This provides for necessary HotPocket-specific features such

as checkpointing and rapid state syncing.

Figure 3: Sashimono 2nd Design Stage

3.6 Granting containers direct access to the Host’s native FUSE device may

become a security risk, so Sashimono maintains the state filesystem in an outer

sandbox alongside the container s shown in figure 4.

Figure 4: Sashimono 3rd Design Stage

3.7 In this manner the container still has access to the dApp sate filesystem without

requiring access to the FUSE device on the host. However, privileged containers

are a security risk.

3.8 Since the state filesystem is outside the container, container privileged mode

can now be removed, and the state filesystem can directly access the FUSE

device on the host.

HotPocket vs dApp

3.9 Within the container, HotPocket and the dApp are running at the same

capability level. So, a malicious dApp can affect the execution of HotPocket

and perform unintended operations. We solve this problem by having the dApp

execute under an unprivileged user account within the container as depicted

in Figure 5 below.

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Figure 5: Sashimono 4th Design Stage

3.10 Since the dApp is executing under a least-privileged user account within the

container, it cannot affect HotPocket execution or perform anything outside its

user permission boundary. We now have two barriers to defend against a

malicious dApp. To perform an attack on the host system, the dApp must break

out of its unprivileged user account inside the container, and then also break

out of the unprivileged container itself.

Multi-Tenant Instance/Container Management

3.11 However, for Evernode to work as a network each Host must be capable of

hosting separate instances of multiple dApps without those dApps interfering

with the Host or each other. To achieve this, we implement the following set-up,

where multiple dApp instances run as containers managed by a container

daemon as shown in Figure 6 below.

Figure 6: Sashimono 5th Design Stage

Sashimono – Container Daemon Separation

3.12 However, if a malicious dApp escapes the container barriers, it could affect the

operation of the Sashimono agent, because the container daemon and the

Sashimono agent run in the same privilege level (root). To solve this, we move

all container management activities to an unprivileged user account as shown

in Figure 7 below.

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Figure 7: Sashimono 6th Design Stage

3.13 Since all dApp containers and the container daemon are running under an

unprivileged user account, they cannot affect Sashimono or the host itself.

Multi-Tenant Separation

3.14 A weakness of the setup in Figure 7 is that even though all dApps are isolated

from the critical components of the system, they can still interfere with each

other. A malicious dApp which breaks the container defences will be able to

compromise ALL the other dApp instances (tenants) running on the same host.

Therefore, we allocate dedicated Linux user accounts for each dApp tenant as

shown below in Figure 8.

Figure 8: Sashimono Finalised Design

3.15 With this final setup, each dApp and its container management environment

gets its own unprivileged user account, significantly increasing per-tenant

isolation and system security. The final multi-tenant separation design has 3

barriers to prevent malicious code breaking out, is able to rely on strong user

account security provided by the Linux operating system, can restrict resource

allocation (CPU, RAM, Disk space) with Linux user quotas, and allows for the

clean creation and destruction of tenants.

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3.16 This set-up is not without trade-offs. It involves a higher per-tenant container

daemon overhead, container images must be duplicated as common

container images cannot be shared among tenants, and container

management upgrades are more cumbersome as they need to be performed

on a per-tenant basis.

4. XAHAU REGISTRY HOOK - DECENTRALISED NETWORK

4.1 Sashimono enables a decentralised network of hosts specialising in hosting

HotPocket dApps. A Sashimono cluster thus looks something as shown below in

Figure 9.

Figure 9: A Sashimono Network

4.2 But for the network to be useable, there must exist a register of Hosts so people

can know which machines comprise the network. If this register is centralised,

then Evernode risks being centralised with a single source of failure. The

problem of making Evernode’s registry of Hosts decentralised is solved via a

Registry Hook on the Xahau Network.

The Xahau Network & Hooks

4.3 The Xahau Network (Xahau) is the new smart contract sidechain for the XRPL

ecosystem. It’s whitepaper describes it as follows:

“…a code-fork of the XRP Ledger’s (XRPL’s) open-source rippled codebase. It

embodies all the useful and innovative features of the XRPL, including its speed and

low transaction costs, but tweaks and upgrades them to support smart contracts.”

4.4 Xahau implements Hooks, a smart contract technology developed specifically

for the XRPL ecosystem. The Xahau whitepaper describes Hooks as follows:

“Hooks are small, efficient pieces of code defined on a Xahau account that

execute logic on transactions sent to or received by the account before those

transactions are finalised in the ledger. Hooks are thus a way for developers to

create and deploy smart contracts on Xahau, opening a wide range of possibilities

for decentralized applications (dApps) and automated transactions.”

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Making Evernode Decentralised with Xahau Hooks

4.5 So, Hooks are a way of automating transactions received by and emitted from

Xahau Accounts. Evernode uses a Hook set on a Xahau Account to automate

its canonical registry of Evernode Hosts.

Figure 10: Xahau Registry Hook

4.6 The mechanics for registration and deregistration of Hosts on the network relies

on the Hook auto-issuing and redeeming Registration NFTs on the Xahau

Network in exchange for deposits of Evers. It works as outlined in Figure 11:

Figure 11: Registration & Rewards Mechanics

Ensuring Quality Hosts

4.7 It is important to maintain Host quality in a decentralised way. At launch, this will

be achieved in several ways:

(a) The Carrot: To earn network rewards, Hosts must send a “heartbeat”

message to the Hook every hour. A Host that fails to send a heartbeat is

classified “Inactive”. Inactive Hosts are ineligible to earn rewards.

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(b) The Stick: 80% of Hosts can vote to deregister bad actors by forcibly

redeeming their Registration NFT. The penalty for unilateral deregistration

is that the Hook will rebate only 50% of their Registration Deposit and the

other 50% to that Epoch’s rewards.

Registration Hook. In response, the Registration Hook will unilaterally

redeem/burn the Registration NFT of any Host that has not sent a

heartbeat in the last 10 consecutive days.

(d) The Auditors: We will use bounties to incentivise the emergence of thirdparty “Audit” services that use our Host Audit Tool – a tool for confirming

that a Host is properly configured to accept new dApp instances onto its

“Slots” – to provide Host ranking services to dApps, developers, and the

Evernode community. Immediately after launch, while the network is in

Piloted mode, Evernode Labs will perform this role.

4.8 Further improvements to these measures will be explored and implemented

after the network is live and its real behaviour known.

Why Not Be a “Layer 1” Network?

4.9 The way Evernode is designed it could have been constructed as a standalone chain to manage its network registry and native currency.

4.10 We chose to build Evernode as a layer 2 solution composed via another chain

because of benefits that come from being within an existing ecosystem. Those

benefits include:

(a) Integration: By issuing Evers as a token on a layer 1 chain we avoid the

need to build an independent ecosystem of wallets, browser plug-ins,

and explorers. Evernode will interoperate with existing Xahau tools, like

Xumm. Exchanges that support Xahau’s native token (XAH) can easily

support Evers.

(b) No dUNL: By issuing Evers on a layer 1 chain, we avoid the need for a

separate Evernode network with a separate dUNL and all the

complications that come with specifying, identifying, and incentivising a

decentralised dUNL.

Why Choose the Xahau Network?

4.11 The way Evernode is designed it could have been “nailed” to any layer 1 chain

with sufficient smart contract capabilities to issue tokens and function as a host

registry.

4.12 We chose to develop Evernode on the Xahau Network because Xahau is

fundamentally the XRP Ledger but with the Hooks lite-smart-contract

amendment added as summarised in Figure 12 below.

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Figure 12: Benefits of Xahau Network

Why Not the XRP Ledger?

4.13 In initial conception and development, Evernode was intended to be launched

on the XRP Ledger. At the time, it was expected Hooks would be adopted as

an amendment to the XRP Ledger. In our initial Whitepaper, we noted that

without Hooks we would have to pivot to a new chain.

4.14 As it became increasingly apparent that Hooks would not be adopted by the

XRP Ledger in the foreseeable future, we experimented in development with a

version of Evernode that did not rely on Hooks, where a multi-sig XRPL Account

acted as the registry of Hosts and treasury of Evers.

4.15 This option proved unviable for two reasons:

(a) Finalisation of Transactions: First, badly formed registration requests (for

example, the wrong number of Evers provided as a deposit) are still valid

XRPL transactions and would still enter the ledger. They would have to be

reversed by a subsequent transaction, leading to reputational risks and

potential attack vectors. Instead, with Hooks, the Hook can reject a badly

formed transaction and that failed transaction simply never enters the

ledger: there’s nothing to reverse and Evernode can’t be accused of

wrongly taking people’s Evers and giving nothing in return.

(b) Centralised Treasury: The second problem is that Evers could not be autodistributed as rewards. Those rewards would be controlled by a multi-sig

account, and that account would be controlled by whoever held the

keys. Significant, and ultimately unacceptable, security and regulatory

complications arise from a limited number of people controlling the

treasury of a blockchain project. Nobody wanted to be the custodian of

the project’s Evers.

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4.16 In the end, it was deemed infeasible to launch on the XRPL as intended.

Thankfully, Xahau Network was launched which from Evernode’s perspective

was the XRPL codebase but with Hooks implemented.

5. EVERS - EVERNODE’S NATIVE DIGITAL CURRENCY

5.1 Evernode uses a new digital currency, called Evers (see Figure 13 for details).

Figure 13: Evers Details

Holding Evers

5.2 Evers will be issued on the Xahau Network. Any Xahau-compatible wallet will

hold Evers. Since Xahau is a code fork of the XRP Ledger, most wallets that

support XRP will find it easy enough to also support Xahau (and therefore Evers).

Using Evers

5.3 All services on Evernode will be priced and paid for in Evers. Hosts will need

Evers to pay for registration on the network and Tenants (dApps) will need Evers

to pay for hosting.

Acquiring Evers

5.4 At launch Evers will trade on Xahau’s native DEX. Other exchanges may

subsequently choose to list Evers, but since Xahau has a DEX, the protocol

doesn’t need exchanges to list the token for people to acquire it.

Evers Distribution – Fixed Supply, Fairly Distributed

5.5 No pre-sale or ICO is planned. The protocol will be launched fully-functioning

without pooling of any external funds for development, other than grant funds.

Evers will be either gifted via discretionary airdrops or distributed by a Hook as

rewards for running a reliable Host. This is summarised in Figure 14 below.

Page | 16 © Evernode Labs Pty Ltd 2023

Figure 14: Evers Distribution Model

5.6 Details of the eligibility and process for claiming airdrops will be announced

prior to launch.

Why Have a Native Currency?

5.7 Pricing network services in Evers allows developers to automate their dApps’

buying and selling of hosting services from Evernode Hosts. Without a native

digital currency (and the related features of Lease NFTs) this process would be

prohibitively cumbersome or hopelessly centralised.

5.8 Evers will be instantly useful as a means of exchange for hosting services on

Evernode, regardless of whether Evers have any value outside the network. In

the long run, the price (if any) of Evers should reflect the perceived value (if

any) of the decentralised dApp hosting services Evernode provides.

Why Not Use XRP or XAH?

5.9 During development, we experimented with building Evernode without a native

currency. We explored the option of network registration and fees being paid in

the layer 1’s native currency (XRP or XAH). This did not work for several reasons.

(a) No Host Rewards: First, it would mean we had no mechanism for

incentivising Hosts. There could be no rewards for being a member of the

network because the protocol had no rewards to give, and acquiring

those rewards to give away for free would be prohibitively expensive.

Further, the potential tax implications would be complicated, existentially

so in some scenarios.

Page | 17 © Evernode Labs Pty Ltd 2023

(b) Constant Re-Pricing: Second, it would have made the problem of pricing

network services almost impossible. It would be possible-but-impractical

for Hosts to adjust what they charge in rent based upon current value of

XRP, but it would be much harder for the protocol itself to adjust the

registration fee. That would require a range of oracles and other

complicated mechanisms all of which can be gamed and lead to

undesirable outcomes.

5.10 By having a native currency that is distributed in a fixed and decentralised

manner by a smart contract/Hook we avoid all these problems. In particular,

we can set the registration fee at a specific number of Evers and let the market

work out what that fee should cost. Having a native asset became a no brainer

because it solved so many problems.

6. EVERNODE’S ON-CHAIN GOVERNANCE GAME

6.1 Since Evernode uses Hooks on the Xahau Network, there must exist a

mechanism for those Hooks to be updated in the future. This function is handled

by a third Hook that implements Evernode’s Governance Game.

6.2 The Governance Game allows eligible participants in the Evernode network to

propose and vote on new Hooks. These proposals will get accepted or purged

according to a predetermined rule-set on received votes.

Participants

6.3 There are two classes of participants in the Governance Game.

(a) Evernode Labs: Evernode Labs always has 1 vote and has special rights

when the Hooks are in Piloted and Co-Piloted modes, but no special rights

when the Hooks are in Auto-Piloted mode.

(b) Valid Hosts: Accounts that hold a Registration NFT for the previous 3

continuous months and are not eligible to be pruned due to unreliability

have 1 vote each.

Types of Proposals

6.4 Participants can submit three types of proposals:

(a) Proposal for a New Hook Candidate: A proposal for a new hash for

Evernode’s three Hooks.

(b) Proposal for removing a Dud Host: A proposal for the Registration Hook to

forcibly redeem the Registration NFT of an allegedly dud Host.

governing mode of the Hooks between Piloted, Co-Piloted, and AutoPiloted modes.

6.5 To propose a change to any Hook, the Proposer must present the hash of all

three Hooks that would apply if the proposal were successful. Any Participant

can submit a Proposal for a new Hook. The Proposer must collateralize their

Proposal with an amount of Evers equivalent to the current Moment’s reward

quota, according to the Evernode Reward Schedule. The Hooks which bear the

proposed hashes must be deployed to some existing Xahau account.

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6.6 A Dud host removal Proposal nominates the Xahau Address of the

malfunctioning host to be removed from the platform. Any Participant can

submit this kind of proposal. Proposer must collateralize their Proposal with Evers

rewards worth 25% of the current Moment’s reward quota.

6.7 The rules for submitting a proposal to change the Governance Mode are set

out below.

Withdrawing a Proposal

6.8 The Proposer can withdraw their Proposal at any time before it Succeeds or

Purges. If the Proposal is withdrawn, the proposer gets half their Evers back. Lost

Evers are added to that Epoch’s reward pool.

Purging a Proposal

6.9 If a Proposal has not Succeeded three months after being proposed, it will be

purged. If a Proposal expires, the Proposer loses all their staked Evers. Lost Evers

are added to that Epoch’s reward pool.

Voting

6.10 Hosts can make their choice of voting via Evernode-CLI. The Participant’s vote

is captured via their heartbeat, which is managed by the Evernode software

installed on the host. They either Support or Reject a Proposal, with Reject being

the default. Support is a positive vote for the Proposal.

Electing a Proposal

6.11 A Proposal succeeds if it is continuously Supported by at least 80% of possible

Participants for 2 weeks. If a Proposal for a new Hook Candidate succeeds all

other existing Proposals for that Hook are Purged and their staked Evers are

added to the Epoch’s reward pool. For any proposal, the Proposer gets all their

staked Evers back.

Evernode Labs Special Rights

6.12 As the licensor of the Evernode software and the developer of the three Hooks,

Evernode Labs has agreed to provide a limited, ongoing role to guard against

catastrophic failure, reflected in some special privileges for its Xahau Account

within the Governance Game.

6.13 First, a Xahau Account controlled by Evernode Labs will be always eligible to

vote. This means even if there are no other eligible Participants for any reason

(such as the Registration Hook becomes corrupted and all Registration NFTs

become invalid), Evernode Labs will at least be able to vote to recover and

restart the Hooks.

6.14 Second, Evernode Lab’s vote carries special weight depending upon the mode

of the Governance Game.

Governance Mode – 3 Levels of Decentralisation

6.15 The Governance Game has three modes:

(a) Piloted: Evernode Labs vote determines the outcome of all Proposals.

(b) Co-Piloted: No Proposal can succeed unless Evernode Labs Supports it.

treated equally with any other Participant.

6.16 This provides a transparent and flexible framework for monitoring the

performance of the Hooks and ensuring everything is running smoothly before

transitioning to a protocol entirely controlled by participants. In particular:

(a) Launch In Piloted Mode: At launch, governance will be in Piloted mode so

Evernode Labs can quickly address any catastrophic Hook failures.

(b) Moving to Co-Pilot Mode: The governance mode moves from Piloted to

Co-piloted at the election of Evernode Labs. It is intended this step would

be taken as soon as it becomes clear the Hooks are functioning properly

and some catastrophic bug is unlikely to emerge immediately postlaunch.

becomes Auto-Piloted, again, at the election of Evernode Labs. At this

point Evernode Labs becomes just another participant with no special

rights except the persistence of its 1 vote.

(d) Moving Back to Co-Piloted/Piloted Mode: Finally, if the game is AutoPiloted, Participants can vote under standard rules to return the game to

Piloted or Co-Piloted mode. This is another safety measure that enables

Participants to give a single entity the ability to make quick changes to

the Hooks. It is a measure to guard against catastrophe and enable a

quick response where Participants feel it is warranted.

6.17 Taken as a whole, Evernode’s governance arrangements provide a

transparent, on-chain mechanism for Participants to govern the three Hooks

into the long term, tempered by some temporary emergency powers available

to Evernode Labs to quickly address catastrophic failure.

7. ANYONE CAN BE A GOOD HOST & EARN EVERS

7.1 The Evernode Network will be comprised of a global network of independently

owned and operated Hosts. Thanks to the decentralised registry, anyone can

become an Evernode host by downloading and running the software and

registering with the network.

7.2 The minimum requirements for an Evernode host are quite modest as

summarised in Figure 15 below.

Figure 15: Minimum Host Requirements

Being a Good Evernode Host

7.3 To facilitate their role as a host, Evernode requires Hosts to have a domain,

email address, and SSL certificate before it’s Registration Hook will issue a

Registration NFT. These are all necessary to ensure a smooth user/dApp

experience. Without the email and domain, you cannot get an SSL certificate

and without the SSL certificate the dApp user’s experience will be degraded or

even impossible as the dApp will be flagged as having potential security or

privacy concerns.

7.4 Further, Evernode supports IPv6, meaning each “Slot” (see para 7.8) can be

given a unique IP address. This is highly advised. Otherwise, a Host with many

instances risks being treated as malicious by nodes on the Xahau Network and

other third-party. Too many simultaneous requests coming from the same IP

address will be regarded as an attack. The Host will be temporarily blocked

from accessing the node, meaning all dApps it hosts might fail because they

will be unable to submit transactions to the Xahau Network to pay their hosting

fees.

Hosting Rewards – Incentivising Hosts to Exist

7.5 At launch, Evernode will face a chicken-and-egg problem arising from the

symbiotic relationship between Hosts and dApps: Hosts will only exist if there’s

sufficient demand for hosting from dApps, while developers will only build on

Evernode if a vibrant and reliable network of Hosts exists.

7.6 To solve this problem, the protocol will reward Hosts simply for being a reputable

host on the network, similar to block rewards in Bitcoin and Ethereum. The

emission schedule for Evers programmed into the Hook are summarised below

in Table 1.

Evernode Reward Schedule

The Rules: Rewards are distributed every Moment (=1 hour). Rewards are shared equally among eligible Hosts. Rewards

start at 5120 Evers per Moment and halve every Epoch. The first Epoch lasts 6 weeks. Each subsequent Epoch doubles in

duration. Rewards cease at the end of the tenth Epoch, after roughly 118.04 years.

Epoch Epoch Duration

(est. Weeks)

Reward Trigger

(1hr/Moment)

Hosting Rewards Elapsed

Years

Each

Hour

Each

Day

Each

Week

Each

Epoch

1st 6 Every hour 5120 122,880 860,160 5,160,690 0.11

2nd 12 Every hour 2560 61,440 430,080 5,160,690 0.23

3rd 24 Every hour 1280 30,720 215,040 5,160,690 0.46

4th 48 Every hour 640 15,360 107,520 5,160,690 0.92

5th 96 Every hour 320 7,680 53,760 5,160,690 1.85

6th 192 Every hour 160 3,840 26,880 5,160,690 3.69

7th 384 Every hour 80 1,920 13,440 5,160,690 7.38

8th 768 Every hour 40 960 6,720 5,160,690 14.77

9th 1536 Every hour 20 480 3,360 5,160,690 29.54

10th 3072 Every hour 10 240 1,680 5,160,690 59.08

TOTALS 6138 51,606,900 118.04

Table 1- Evernode Reward Schedule

7.7 Distribution is skewed to favour early-adopters, since each new Host is relatively

more valuable to the network when it is young and small.

Hosting Fees – Paying Hosts for Hosting

7.8 In addition to Hosting Rewards, Hosts earn hosting fees in Evers. In the long-term,

this will be the primary source of revenue for Hosts. Sashimono divides the Host

machine into equal-sized hosting “Slots”. It then mints Lease NFTs for each Slot,

specifying the hourly rent in Evers, and then offers them for sale on the Xahau

Network. Sashimono automatically handles all this for the Host. The model is

summarised in Figure 16 below.

Figure 16: Leasing "Slots"

7.9 The Lease NFT represents a “best-endeavours” promise to provide exclusive use

of that Slot to the holder of the Lease NFT for so long as the hourly rent is paid.

At any time, a Host can revoke a Lease NFT and cancel the tenant dApp’s

instance, or a tenant can just stop paying rent. This right is necessary because

Hosts have no relationship with the dApp but may have real-world legal

obligations to meet, like copyright takedown requests, depending on their

home jurisdiction.

8. ANYONE CAN BE AN EVERNODE DAPP DEVELOPER

8.1 HotPocket dApps don’t run on blockchains, they are blockchains. Each dApp is

its own mini-blockchain (sometimes called “AppChain”) with its own chain

history and dedicated nodes. This unique architecture allows for hyper-flexible,

hyper-powerful dApps.

Benefits of Evernode dApps

8.2 Evernode dApps may be public or private. They may call external services,

read and write data directly to disk and the web, and generally perform any

task a regular program can, without centralisation or trusted third parties and

without requiring the programmer to implement their own consensus

mechanisms.

8.3 This flexibility solves many problems that limit mass adoption of dApps including:

(a) Any Language: Because Evernode dApps are just normal Apps with a

consensus engine, Evernode dApps can be programmed in any POSIXcompliant language, including NodeJS, C++, and rust.

(b) Any Functionality: Evernode dApps can do in concert anything normal

Apps can do solo, including read/write data, perform complex

computations, and connect to external services.

servers from certain jurisdictions, giving developers the flexibility to comply

with problematic laws like privacy/GDPR and trade embargoes.

(d) Any Scale: Evernode dApps can be deployed to as many or as few Hosts

as you desire to meet competing needs on cost, security, performance,

and censorship resistance.

Sample Use Cases

8.4 In the course of development, we piloted and demonstrated a number of

“working toy” versions of various use-cases, including:

(a) Nomadic Contract: A simple contract that spawns itself on a target

number of Hosts, then randomly shuts down an instance and spins up on

a new Host, making it harder to compromise.

(b) Membership Contract: A demo of a contract concept whereby people

join the contract by running (and funding) an instance.

identity documents are encrypted and stored on-chain and shared via

single-use keys.

(d) EVM Cluster: A tool that lets you cut-and-paste your solidity contracts and

have them run as Evernode dApps on the Evernode network.

(e) Decentralised Hotel Booking: A decentralised hotel booking site running

on Evernode.

(f) Digital Cows: A working toy of a project for tokenising and trading

interests in Australian cattle.

(g) “Everdog” NFT Project: A sample NFT project where all the data, including

the generated jpegs, were stored on-chain.

(h) On-Demand Oracles: HotPocket dApps can elect a sub-set or jury of their

own nodes to get data from off-chain, agree on the truth, and report to

the rest of the chain as a bespoke, on-demand oracle.

8.5 This is a small sample of the full range of applications and use-cases Evernode

can support. The scope for Evernode dApps is so broad because they are

normal Apps that function as mini-blockchains and maintain a shared

canonical state across multiple instances via an out-of-the-box consensus

mechanism. The capacity for valuable and profitable businesses to be built on

Evernode is at least as deep as the existing market for Apps.

9. INITIATOR - EVERNODE LABS PTY LTD

9.1 The Evernode Network is an initiative of Evernode Labs Pty Ltd. Evernode Labs

Pty Ltd is the owner of the Evernode IP generated inside the Australian National

University through UBRI-funded research and with the help of XRPL Grants.

9.2 Evernode Labs will make the Evernode IP available to the world for bona-fide

purposes associated with the Evernode Network through a mixture of free

open-source software (the 3 Hooks) and closed-source licensing arrangements

(HotPocket/Sashimono binaries).

10. PROPOSED LAUNCH

10.1 Evernode is targeting a launch before the end of 2023. Launch of the network is

dependent on full wallet support for the Xahau Network. Until there is a reliable

wallet that supports users cloning their XRPL Account on Xahau, we will be

unable to finalise our airdrop and unable to launch because prospective Hosts

will not be able to access the Evers they need to become a Host.

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