How MOR Actually Works

The basics

MOR is the native tokenTokenA digital unit of value or access rights tracked on a blockchain. Tokens can represent ownership in a project, a right to use a service, a share of future revenue, or simply a tradable asset with no underlying claim.Like a physical poker chip a casino issues. The chip itself has no value. What makes it worth something is what it lets you do at the casino, what the casino has promised, and how much other people will pay you for it.Read more → of the Morpheus network. It is distributed daily to four groups: compute providers, code contributors, capital providers and community builders. There was no pre-mine, no ICOICOInitial Coin Offering. A token sale where a project sells tokens directly to the public, usually before any product exists. ICOs dominated 2017-2018 funding and are now mostly replaced by airdrops, IDOs, or fair launches.Like a company selling shares to the public before going public, except with no SEC oversight, no audited financials, and often no product at all. The 2017 ICO boom showed why those guardrails exist in traditional finance.Read more → and no VCVCVenture Capital. Private investors who fund projects at an early stage in exchange for equity or token allocations. VC rounds are typically pre-launch, at steep discounts to any future public price, with multi-year vesting.Like angel investors in a startup who buy shares before the company goes public. They take more risk because the company might fail, so they get a better price. Once the company IPOs they can sell, and the public market pays whatever price it thinks is fair.Read more → allocation. Every MOR in existence was earned through direct contribution to the network.

That’s the single most important thing about MOR’s tokenomics. In a space littered with projects where insiders hold 30-50% of supply, Morpheus has zero insider allocation. When you buy or earn MOR, you aren’t providing exit liquidityLiquidityHow easily a token can be bought or sold without moving the price. High liquidity means you can enter or exit large positions quickly at the quoted price. Low liquidity means even small trades can swing the market.Like the difference between selling a house and selling a share of Apple stock. The house might be worth more on paper, but finding a buyer at that price takes weeks. The Apple share converts to cash in one click.Read more → for venture capitalists.

Emission schedule

Total supply follows a declining emission curve. Day one: 14,400 MOR emitted, split across five buckets. The daily rate falls from there.

EmissionsEmissionsNew tokens created and distributed by a blockchain protocol over time as rewards to validators, stakers, or miners. Emissions fund network security and participation at the cost of diluting existing holders.Like a company that pays employees partly in newly printed shares. Every year the total number of shares goes up, which means existing shareholders own a slightly smaller slice of the same company unless the company grows faster than the printing.Read more → decline linearly. The day-one rate of 14,400 MOR drops by a fixed 2.468994701 MOR every day, reaching zero around day 5,833 (roughly 16 years out, early 2040). The schedule is a straight line to zero, so early participants earn disproportionately more per unit of contribution: the daily rate is highest at the start and falls at a constant pace.

Maximum supply is capped at 42 million MOR. At current emission rates, roughly 5.25 million MOR will be distributed in year one.

The protection fund receives 4% of daily emissions, compensating users affected by smart contractSmart ContractA program stored on a blockchain that runs automatically when its conditions are met. Smart contracts are how blockchains do anything beyond just transferring tokens — DeFi, NFTs, DAOs, and DeAI infrastructure all run on smart contracts.Like a vending machine. You put in the right input and it produces the expected output, no human operator required. The rules are fixed in the machine itself, anyone can use it, and nobody can stop a transaction in the middle.Read more → bugs or failures. Community-governed. Think of it as self-insurance for the protocol.

Capital provider mechanics

This is where most participants enter the Morpheus ecosystem. The mechanism:

1. You deposit stETH (Lido’s staked Ethereum) into the Morpheus smart contract on Ethereum
2. The yield generated by your stETH (currently ~3-4% annually) flows to the protocol
3. In return, you receive a proportional share of the capital provider MOR emissions
4. MOR rewards are distributed on Arbitrum (bridged via LayerZero)

Your principal is never sold or spent. Only the yield is diverted. It is bridged to Arbitrum, unwrapped, and spent on MOR through a continuous order that fills in thousands of small pieces. Where that MOR then goes changed in early 2025, and the change is easy to miss if you read the protocol-owned liquidityProtocol-Owned LiquidityLiquidity that a protocol owns directly instead of renting from outside providers. The protocol funds and holds its own AMM position, so the trading depth is permanent and can't be pulled when farming rewards dry up.Like a marketplace that owns the building its traders work in, rather than renting stalls week to week. Renters pack up the moment a better deal appears elsewhere. An owner stays put, so the floor never empties out from under the people trying to buy and sell.Read more → documentation rather than the chain.

This is visible on-chain. In the 12 months to 15 June 2026, 21 POL generation events routed roughly 290 wstETH (wrapped stETH) of harvested yield through the protocol’s Arbitrum executor, taking the all-time total to around 2,680 wstETH across 74 events since May 2024 (Arbiscan). Per-event size has fallen as deposits came down from their 2024 peak, so recent months run closer to 10 wstETH each rather than the 40-plus seen in mid-2025.

The pairing half of that description has expired. The protocol’s Uniswap positions were all minted during 2024. The last MOR it added to the pool went in on 3 January 2025, and the last wETH on 6 December 2024, so protocol-owned liquidityProtocol-Owned LiquidityLiquidity that a protocol owns directly instead of renting from outside providers. The protocol funds and holds its own AMM position, so the trading depth is permanent and can't be pulled when farming rewards dry up.Like a marketplace that owns the building its traders work in, rather than renting stalls week to week. Renters pack up the moment a better deal appears elsewhere. An owner stays put, so the floor never empties out from under the people trying to buy and sell.Read more → has not grown since (Arbiscan, checked 19 August 2026). Every disposal since then has been an exact half to the burn address and half to the 16-year tail-emission lock, with no liquidity leg at all.

Your MOR earnings are determined by your share of the total stETH pool. If 100,000 stETH is staked and you contribute 100 stETH, you receive 0.1% of daily capital emissions. That is roughly 3.5 MOR per day at year one rates.

The 7-day lock on deposits. When you first deposit stETH, there’s a 7-day lock before you can withdraw your capital. After that, your stETH is freely withdrawable at any time. You stop earning MOR the moment you unstake, but your principal isn’t trapped. One caveat: making a new deposit restarts the 7-day lock for your entire balance from that address.

No lock on earned MOR. Earned MOR rewards can be claimed at any time; there’s no vestingVestingA schedule that locks up tokens allocated to insiders, investors, and team members, releasing them gradually over months or years. Vesting prevents insiders from dumping on public buyers immediately after launch.Like a new employee's stock options at a startup. You don't get all the shares on day one. They unlock over four years so you stick around and do the work rather than cashing out and leaving.Read more → or lock on claims. You can claim as frequently as you like, even every Ethereum blockBlockA batch of transactions added to a blockchain at a set interval. Each block cryptographically links to the previous one, creating an append-only chain that can't be rewritten without redoing all the work since.Like a page in a ledger. Every page has a fixed number of entries, every page references the previous page, and once a page is filled and signed off it can't be edited without visibly invalidating every page that came after. The chain is just a very long series of these sealed pages.Read more →, though each claim incurs a transaction feeGasThe fee paid to a blockchain to process a transaction. Gas is denominated in the chain's native token and varies with network demand. Sending a transaction without enough gas means the transaction fails and the gas is still consumed.Like the petrol that powers a car. You need to put petrol in to make the engine run. The amount of petrol you need depends on how far you're driving and how much you're carrying. If you run out, the car stops.Read more →. The only lock on MOR rewards is the voluntary Power Factor lock (covered below), where you choose to lock earned MOR in exchange for multiplied emissions.

Historical note. At launch in February 2024, there was a one-time 90-day bootstrapping period where no MOR could be claimed or transferred. This ended in May 2024 and doesn’t apply to new stakers.

Multi-asset staking (Capital V2)

In September 2025, Morpheus expanded capital staking beyond stETH. You can now stake USDC, USDT and WBTC via Aave integration. The yield from these assets (Aave lending rates) is used in the same way as stETH yield, diverted to the protocol to buy MOR and build liquidity.

Chainlink oracles normalise yields across asset types in real time, converting everything to USDC equivalents so MOR rewards are distributed fairly regardless of which asset you stake. This matters because stETH yield (~3-4%) is meaningfully different from USDC lending yield (~5-8% depending on market conditions), and the oracle ensures you earn proportional to your actual yield contribution, not just the dollar value of your deposit.

For the multi-asset pools, MOR rewards begin accruing after 7 days.

The Power Factor: locking MOR for multiplied rewards

The mechanic that changed my strategy. Introduced via MRC42, the Power Factor lets you lock your earned MOR rewards for a set period in exchange for a multiplier on your emissions.

The logic is elegant. MOR has a declining emission curve, which means holders get diluted over time as new MOR is minted. If you lock your MOR and can’t sell it, you’re absorbing that dilution without contributing sell pressure. The protocol rewards you for this by multiplying your effective stake.

How the multiplier works

Your share of emissions is your stake times your multiplier, over the pool’s total of the same. The multiplier itself is not a dilution ratio, whatever the proposal describes. LockMultiplierMath.getLockPeriodMultiplier takes two timestamps, your lock start and your lock end, and returns the difference between a hyperbolic tangent evaluated at each, scaled by a constant and capped at 10.7x. Nothing in it reads supply.

The consequence is the thing to understand before you lock. The curve is anchored to a fixed window, 25 July 2024 to 26 January 2040, so what you get depends on when you start, not only on how long you commit. The same six-year lock is worth steadily less each month that passes.

Reaching the 10.7x cap took a six-year lock at launch. From here it takes about ten years, because most of the curve’s budget was spent before you arrived. The calculator below computes your figure from the live anchor rather than from this table, so trust it over any duration quoted anywhere, including here.

The rules

• Minimum meaningful lock: about 6 months before the multiplier starts growing
• Maximum lock: there isn’t one. claimLockEnd takes any timestamp later than now and later than your current lock, so a lock can run past 2040 and one address on chain runs to the year 2528. What stops is the multiplier, which reaches its cap and then flattens at the 26 January 2040 anchor. Anything beyond that date is committed for nothing.
• Lock can only be increased, never decreased. Once you commit to a duration you can’t shorten it. You can extend it, and extending recalculates from your original start, not from today.
• Locked MOR can’t be withdrawn early. _claim refuses to pay while your lock end is in the future. A hard commitment, not a suggestion.
• Applies to all contributor types. Capital providers, code contributors, compute providers and community builders can all use the Power Factor.

What a long lock actually costs

Six years is a long time in crypto and most projects do not survive it, so the multiplier is the wrong place to start. Start with what you are giving up.

The case for locking, if you are going to make one, rests on three things and none of them is the headline number.

1. The timescale has to match. Decentralised AI infrastructure is a generational build. If Morpheus works it will not be inside eighteen months, it will be years of organic growth. A lock only makes sense for capital held on that horizon.
2. Fair-launch projects grow differently. VC-backed projects buy growth with investor money. Fair launches grow organically, slower and more durably. Being early in something organic is a different bet from being late in something engineered.
3. Size for the lock, not the multiplier. Locked MOR is not income you can draw on. The multiplier is only worth having if you would have held anyway.

Two facts are easy to miss. Your principal stays liquid: only the MOR rewards lock, so the stETH remains withdrawable after its 7-day deposit lock and walking away costs you the locked rewards rather than the capital. And the multiplier decays with your start date, so the number quoted in most write-ups belongs to the 2024 cohort rather than to you.

The behaviour of people who have already been through it is worth a look, because it is on chain. Of 711 locks that have reached their end date, about 62% went on to claim, one in seven extended rather than claiming, and roughly a quarter had still not claimed a year later.

The yield, in numbers

Here is the trade in one line: you give up your stETH staking yield (~3% a year, paid in ETH) and receive a share of the 24% capital MOR emission instead. So the only honest comparison values the MOR earned in dollars and sets it against the dollar value of the deposit.

Drag the lock from zero. With no lock you earn the pool’s no-lock rate; a longer lock multiplies your share of the capital emission, against the same ~3% stETH yield you give up. The capital pillar emits 2,906 MOR a day across all deposit pools, and the calculator spreads that over the live Power-Factor-weighted pool read on-chain. On paper a long lock is a wide positive spread over stETH. Three things make it treacherous, and they matter more than the headline.

• It is paid in MOR, not ETH. MOR is down ~98% from its high and trades with dangerously thin liquidity. A yield you cannot exit at the quoted price is not really that yield; the dollar figure assumes you can sell MOR at spot, which at size you cannot.
• The yield is high because the pool shrank. The same daily emission now spreads over a pool of $21.5 million instead of its mid-2024 peak near $579 million, so the per-dollar yield is far higher than it was, simply because most of the capital left. A yield that climbs as everyone exits is a warning rather than a reward.
• Your share depends on the Power Factor, yours and everyone else’s. Rewards are distributed by deposit times your lock multiplier, against the pool’s total weighted stake. On-chain the blended multiplier is only 2.05 times, so a no-lock deposit earns about 5.1% while a long lock earns a multiple of that. Only 268 of the pool’s 6,430 stakers hold a live lock at all, which is why the blended figure sits so far below the headline. Claims are also gated 7 days apart, and the multiplier itself requires locking those rewards for years.

The calculator above is driven by live data: each deposit pool exposes its total Power-Factor-weighted stake (rewardPoolsData(0).totalVirtualDeposited) in a single call, refreshed into the snapshot, and the multiplier is the deployed LockMultiplierMath curve anchored to 2024. It computes the anchor from the current date on every build, which is why its figure for a fresh six-year lock keeps falling and why it should be trusted over any duration quoted in prose.

Compute provider mechanics

Compute providers run inferenceInferenceRunning a trained AI model to produce an answer. Inference is what happens when you type a prompt into ChatGPT and get a response. The model takes your input, computes a best guess, and returns it.Like asking an expert for their opinion. The training was the decades they spent becoming an expert. The inference is the 30 seconds it takes them to answer your specific question.Read more → infrastructure and serve requests from the Morpheus network. The contract redeployed in December 2025 and ran an open beta with free inference until 2 March 2026, when the API officially launched. Provider earnings come from two sources: MOR emissions (24% of daily allocation, distributed based on uptime, response quality and throughput) plus per-second payments settled when sessions close on-chain. The OYM-built live inference activity tracker tracks the second flow.

Allocation is weighted by performance: better hardware, more reliable availability, faster response times. $20 million in MOR rewards were made available for compute providers in December 2024 to bootstrap the supply side.

Running a competitive compute node is real work. GPUGPUGraphics Processing Unit. Originally designed to render video game graphics, GPUs turned out to be exceptionally good at the massively parallel math that AI models need. Modern AI training and inference runs almost entirely on GPUs.Like a factory with 10,000 workers doing the same simple task in parallel, versus a CPU which is more like 10 workers each doing different complex tasks. AI training involves doing simple math a million times per second on a million numbers, which is exactly what the GPU factory is designed for.Read more → hardware, bandwidth, monitoring, all of it. The bar for profitability depends on the total compute capacity in the network and the volume of inference requests.

What drives MOR value

MOR is the access token for the Morpheus compute network. There are now two ways users get compute:

1. Stake-for-access via builder subnets. Most users access the network through the API gateway at app.mor.org. You stake MOR into a builder subnet (the Morpheus Marketplace API subnet, on the BuilderSubnets.sol contract on Base). Your share of the subnet’s total stake converts to a daily credit allowance, refreshed at midnight UTC and scaled by the current MOR price. API calls debit your credit balance. Your stake itself stays put and can be withdrawn (subject to a min-withdraw lock).
2. Direct per-session payment on-chain. A user (or a custom integration) opens a session directly on the Inference Contract and pays MOR per second to the provider. Used today for about 4% of sessions.

Different from a pay-per-query model where MOR gets burned. In both flows MOR is held, either as subnet stake or as session collateral. That’s the value accrual mechanism: persistent demand for holding MOR to access compute, not burn-on-use.

Where the MOR for paying providers actually comes from

The gateway path is the bit non-technical readers usually miss. When the gateway opens a session on a credit-using user’s behalf, the provider is not paid from that user’s stake. They’re paid from the protocol’s fundingAccount treasury on Base, drawn from the 24% compute pool slice of MOR emissions. About 96% of all sessions today follow this subsidised path. The user’s collateral is locked at session open and returned at session close.

This means the IPS-quota access model is currently a demand subsidy carried by scheduled emission rather than by users. Year-1 emissions allocate ~3,456 MOR/day to the compute pool, and the pillar accrues about 2,912 MOR/day today. The contract’s getComputeBalance view reports 2,799,521 MOR, with the hard-coded 1% cap putting the daily settlement budget at 27,995 MOR. Provider claims run at roughly 800 MOR/day, about 2.9% of that cap.

That last figure crossed a threshold during July. Claims now exceed the 2906 MOR/day the pillar accrues, so the pool peaked near 2,805,000 MOR in mid-July and has been falling at roughly 900 MOR a day since. The reservoir still holds years of settlement at that rate, so read it as a change of direction rather than a cliff. The live activity tracker carries the current figures.

After roughly year 16, emissions decline to tail levels (~50% of burns, capped at 16% of circulating supply). For the model to remain sustainable past that horizon, the gateway operators would have to fund the treasury directly, or a fee-redistribution mechanism would need to be introduced. Direct payment cannot carry it as the contract stands: _validateSession sizes every session from stakeToStipend whether or not the direct-payment flag is set, so paying buys no access beyond your ration, and the overflow path the Lake Travis proposal describes was never deployed. None of those transitions are scheduled today; the current model is a runway funded by emission, not a perpetual motion machine.

Privacy as a demand vector

The compute network’s privacy model is what makes the IPS demand thesis defensible. v7.0.0 (released 23 April 2026) completed Phase 2 of the Trusted Execution EnvironmentTEETrusted Execution Environment. A hardware-secured region of a CPU or GPU where code runs in isolation, so even the machine's operator can't read what's happening inside. TEEs give decentralised AI inference privacy guarantees.Like a bank vault inside a bank. The bank owns the building, staffs the lobby, and runs the security cameras. But what's inside the vault is invisible to everyone, including the bank staff, unless the customer opens it.Read more → stack. A TEE-tagged provider’s proxy-router now cryptographically attests its own backend LLM on every prompt: Intel TDX CPU quotes, NVIDIA NRAS GPU attestationAttestationA cryptographic proof that a piece of code is running on a specific hardware enclave in an unmodified state. Attestation lets remote users verify that a service is genuinely running what it claims to be running.Like a tamper-evident seal on a medicine bottle. The seal itself doesn't make the medicine safe, but it gives you a way to verify that nobody opened the bottle and swapped the contents before you bought it.Read more →, anti-replay nonce binding, TLS pinning, and a workload measurement that proves the loaded models match what the operator declared. Logging inside the enclaveEnclaveAn isolated region of CPU or GPU memory protected by hardware. Code and data inside the enclave are inaccessible to the operating system, the hypervisor, or even the machine's physical owner.Like a secure room inside a much larger office building. The building's caretakers have keys to every other room but not this one. What happens inside is invisible to them by design.Read more → is locked in production mode and cannot be raised to capture prompts. End-to-end, hardware-level.

That matters for the token. Confidential inference opens buyer cohorts that centralised AI cannot serve. Regulated workloads (legal, medical, financial), builders who owe their users verifiable confidentiality, sovereign use-cases where “we promise we won’t log it” is not good enough. All of them need MOR for the IPS quota that buys access.

The constraint: this only translates into MOR demand at the rate TEE-tagged provider supply scales. v7.0.0 didn’t auto-upgrade existing providers. Each one has to opt in by deploying the TEE Docker compose into a SecretVM (Intel TDX hardware via the Secret Labs partnership). The plumbing is live. How fast the TEE side of the marketplace fills out is the variable to watch.

The actual burn mechanism

Burns come from protocol-owned liquidity generation, not compute usage. Under MRC43:

• 50% of MOR remaining after protocol-owned liquidity generation is sent to a permanent burnBurnPermanently removing tokens from circulation by sending them to an address that no one controls. Burns reduce total supply, which (all else equal) makes each remaining token worth more of the network's value.Like a company buying back its own shares and shredding them. The company's total value stays the same, but each remaining share now represents a slightly bigger slice of that value.Read more → address
• The other 50% is locked for 16 years as a reserve for tail emissions
• Community builder fees also involve a prorated MOR burn as proof of status

The mechanism is live, not theoretical. A buyback executor on Arbitrum swaps the captured yield into MOR and sends the burn share to a dead address; roughly 275,000 MOR has accumulated there to date (June 2026). Because it is funded by capital-provider yield, the burn rate tracks the deposit base, so it has slowed sharply as that base shrank.

After approximately 16 years (day 5,833), tail emissions kick in at 50% of MOR burned during the preceding period, capped at 16% of circulating supplyCirculating SupplyThe number of tokens currently in circulation and tradeable on the open market. Differs from total supply (which includes locked or unvested tokens) and max supply (the upper limit, if there is one).Like the number of cars on the road today versus the number ever produced. Some are in showrooms, some in junkyards, some still at the factory. Only the ones on the road count toward what people are actually driving.Read more →. Because tail emissions are always less than total burns, MOR becomes structurally deflationary over the long term. Deflation is designed into the system, not dependent on usage exceeding emissions.

The bull case. Morpheus becomes a significant decentralised compute network. Inference demand grows, requiring more MOR to be held for access. The burn mechanism steadily reduces supply. Token supply contracts while demand for holding increases.

The bear case. Usage doesn’t materialise at sufficient scale. There’s insufficient demand for holding MOR for compute access. Supply grows via emissions faster than demand grows via utility. Compute providers leave and the network contracts.

The realistic case. Somewhere between the two. The network grows but slowly. Early participants earn well on emissions, especially those using the Power Factor. Long-term value depends on whether Morpheus can capture meaningful market share in the decentralised compute market against competitors like Akash, Render and io.net.

The buy pressure problem

The burn works, but it is small next to the daily emission. The only structural buy pressure on MOR is the yield-funded buyback under MRC43, and against the fixed schedule it barely registers. That, more than anything, is why value accrual scores low.

The reason is structural, and partly by design. Almost all inference is subsidised: providers are paid from the 24% compute emission bucket through the funding account, not from user fees, so the protocol itself covers the compute bill. The hosted gateway is a builder-subnet product reselling that subsidised inference in dollars, which is normal application behaviour, no more obliged to buy MOR than a dapp is obliged to buy ETH. The one path that does spend user MOR, on-chain direct-pay, is a rounding error today, as the chart shows.

It is worth being precise about that path. When direct-pay happens, the MOR moves from the user to the compute provider as payment and stays in circulation. So it adds demand when the user buys MOR to spend, but it removes no supply. Permanent removal happens through the separate MRC43 buyback, funded by capital-provider yield rather than by usage.

The question for sustainability is whether usage ever creates MOR demand. Today it does not, because the protocol subsidises inference from emissions and almost nobody pays in MOR. The protocols that closed the same gap tied a token sink to usage, so demand scales with adoption instead of resting on emissions.

• Akash switched on Burn-Mint Equilibrium in March 2026. Compute paid in stable units forces AKT to be burned, so the sink grows with usage.
• Virtuals routes trading-fee revenue into buy-and-burn and makes its token the mandatory base pair under every agent it launches, so demand compounds with the ecosystem.
• Bittensor’s dTAO makes every subnet issue a token bought by staking TAO, turning emissions into market-priced allocation.

Morpheus has the rails for a version of this: MRC43 buy-and-burn, direct-pay that already settles in MOR, and builder subnets that gate access behind staked MOR. What would lift the Revenue Sustainability score is usage flowing through those rails at scale, so adoption pulls MOR rather than the Power Factor lock-up doing the work alone. Until then, the token’s floor rests on locked supply more than on demand.

So is the float shrinking?

Buy pressure is one of four things that keep MOR out of circulation, and on its own it is the smallest. The others are what each pillar never pays out, what recipients stake rather than sell, and what is owed but not yet minted. Put them together and the question becomes arithmetic: does the locked stock grow faster than MOR reaches somebody’s hands?

Is MOR locked up faster than it is issued?from the ecosystem model, 2026-08-25

12,130/dayWhere a day's issuance goes+2,537/dayNet to the loose float, today2027-08The loose float runs dry2027-08Provider pay peaks and rolls over901k MOROwed MOR that mints over the schedule

+2,537 MOR a day is still being added to the loose float. On these settings it turns negative in 2026-09.

Received by somebody, less what the bid removes, less what the recipient staked, less the MOR users pull out of the float to stake for compute. That last term is how usage demand reaches the token: growth in the staked-for-compute pot is bought out of the loose float, and MOR that is not loose cannot be staked, so the model caps each month's growth at what the float holds. At these dials the float runs dry in 2027-08: from that month, staking and provider pay grow only as fast as new loose MOR appears, and any faster growth would need MOR bid away from existing holders, which is where this price-free model deliberately stops. The buyback hits the same wall in 2037-06: its dollars want more MOR than the float can supply, so from there it fills only what recipients sell, and the burn slows with it. Above zero the loose float grows.

Compute retention110%of what continuing providers are paid, the share posted back as collateral. Measured: 110%Builders retention93%of what the builders pillar pays subnets, the share that ends up staked. Measured: 93%Growth in MOR staked for compute6.0xusers get compute by staking MOR: the contract pays providers on their behalf, in proportion to what each user staked. This dial is how fast that staked pot grows each year; provider pay then follows the contract, not a dial. Default (an assumption): 6.0xReturn at which staking stops0%/yrstaking for compute returns about 108% a year today, paid as compute rather than cash. The contract lets that return fall as the pool tightens and has no brake of its own. This dial adds one: below this return, no new stake arrives. At 0% it never stops. Default (an assumption): 0%/yrCapital deposit growth+0%/yrthe only thing that grows the bid without a price move. Measured: +0%/yrClaim propensity62%when a capital lock expires, the share of holders who go on to claim. Measured: 62%Moves what is owed, not this chart: 901k MOR ever minted. Show it

Every retention and claim default is a dated on-chain reading, not a choice. Compute retention sits above 100% because collateral grew faster than earnings, so MOR came into the pillar from outside it. One provider earns 70% of the pillar and sits at exactly 100%, because the contract caps a provider's annual earnings at its own posted stake and it has to top up to keep earning. Take that provider out and the rest of the field retains more, not less.

The two staking dials are the model's only assumptions. The growth in MOR staked for compute has no measured history yet: the series is too short and too concentrated to yield a rate, so 6x is an analogy to token growth, not a reading. The cut-off return has no basis in data by construction: staking is observed to continue at a 108% return and nothing below that has ever been seen. Retention cannot outrun the emission funding it, which is the point the whole model turns on.

Reset to measuredCopy link to these settings

The model has its own page at /tools/morpheus-model/, which is the one to send someone. Every dial setting is in the URL, so a scenario can be linked to directly.

Two things that surprised me building this. The measured retention rates are high, so a great deal of what the schedule pays out never reaches a market. And it still is not enough, because retention is bounded by the emission funding it: over the measured window builder stake grew by very nearly everything the pillar paid subnets, and the float still grows. Closing the gap needs MOR from outside the pillars, which means the float or the market.

The two panels after that are about timing rather than rate. One dates the month provider pay peaks and starts decaying onto what the schedule releases: pay follows the deployed stipend formula applied to the committed access stake, so the pool spends down but never hits a wall, and the earlier version of this model that showed a hard ceiling overstated the break. The other tracks MOR that is owed and still unclaimed. That MOR hasn’t been minted, so it sits outside supply until a holder calls claim, and every figure on both panels moves with the sliders.

The numbers I care about

As a capital provider with a 6-year Power Factor lock, I track five things:

1. Total stETH staked. As more stETH enters the pool, my share of emissions dilutes. According to Morpheus dashboard data, over 6,500 capital providers have participated, with 320,000+ ETH flowing through the contracts historically. My per-unit returns decline as the pool grows, but a growing pool signals network health.

2. Power Factor adoption. My effective multiplier depends not just on my own lock, but on how many other participants also lock. If everyone locks for six years, my relative advantage disappears. If most people don’t lock, my ~10.7x multiplier gives me a massive edge. So far, most participants haven’t locked for the maximum duration.

3. MOR price. My stETH yield is denominated in MOR. The dollar value of my earnings depends on what MOR trades at. Daily MOR earnings multiplied by MOR price gives the actual yield.

4. What the yield actually buys. Every day capital providers stake, the diverted yield buys MOR, and half of what it buys is burned. None of it has gone into the Uniswap position since January 2025, so the liquidity-deepening half of the old thesis is dormant and only the burn half is running. I track the burn address and the pool depth separately, because they no longer move together.

5. Compute demand. This is the leading indicator for long-term token value. If compute demand grows, more MOR needs to be held for access and the economic model strengthens. The move to production on Base in December 2025 was a meaningful milestone.

My assessment

The tokenomics are well designed for long-term alignment. Fair launchFair LaunchA token launch where everyone has the same access from day one. No private sale, no insider allocation, no VC discount. Tokens are distributed by mining, staking, or open public sale at a single price.Like a 100m sprint where everyone starts behind the same line at the same time. Some runners are faster, but nobody gets to start 10 metres ahead because they paid extra. The race is decided by the run, not by who bought the best position.Read more → eliminates insider dump risk. The emission curve rewards early commitment. Power Factor rewards conviction with a material multiplier. And the burn mechanism creates structural deflation independent of usage volume.

The main risks are the long lock period for Power Factor participants (you can’t change your mind), dependence on compute demand materialising at scale, and smart contract risk across a multi-chain architecture (Ethereum for staking, Arbitrum for rewards, Base for inference). The Code4rena audit in August 2025 found medium-severity issues around stETH rounding and Aave pool migration. These are the kinds of edge cases that matter when real capital is at stake.

I’m in this position because I believe the Morpheus compute network will achieve meaningful scale over the next several years. The six-year lock is a feature of my conviction, not a constraint on it. If that thesis proves wrong, I lose the locked MOR but keep my stETH principal. I sized the position with that outcome in mind.