MicroLink HostH-01
Host partner proposal  ·  H-01

Heat you already pay for

A compute plant inside your site, delivering 1.29 MWth of recovered heat into your process at 55 °C (131 °F). MicroLink owns, builds, operates and maintains every part of it up to your exchanger. No capital is asked of you at any stage, and there is no obligation on you to take heat at any point in the term.

1.29 MWthDelivered per pod, continuous, at 55 °C (131 °F)
ZeroCapital from you at any stage, including on your side of the exchanger
NoneObligation on you to take heat, at any time
What you sign, in order, one mark per document
Mutual NDA, before anything elseSite survey, half a dayHeads of terms, licence, thermal supply, metering
Unit
One 1.25 MW IT load pod, repeatable
Delivery grade
55 °C (131 °F) native, 70 °C (158 °F) boosted
Footprint
Two ISO containers on a slab, plus dry cooler setback
Power
One tie in at 480 VAC three phase, behind your meter
Payment
Cents per kWh of heat delivered and metered
Metering
EN 1434, reuse on DIN EN 50600-4-6

A partner, not a landlord and not a customer

MicroLink owns, builds, operates and maintains everything up to the handover exchanger. You provide a slab, a setback, one electrical tie in and a metered demand. The capital, the plant, the controls, the spares and the electricity bill for the compute load are ours. You take heat when you want it and pay in cents per kilowatt hour of heat actually delivered and metered.

The arrangement is deliberately narrow on your side. There is no building, no ground up construction and no new operating discipline for your team to carry. A licence to occupy covers the container footprint and the setback, and nothing beyond it. Your plant runs as it runs today.

Where your loop already accepts the delivery grade, the integration capital on your side of the exchanger is also ours. Where a lift is needed, it is scoped and priced at heads of terms rather than assumed.

Power is a single tie in at 480 VAC three phase behind your existing meter. We buy the electricity for the compute load and it never touches your tariff, your demand charge or your reporting.

No capital is requested of you at any point in this proposal, and nothing beyond the mutual non disclosure agreement is signed before the site survey returns a metered demand figure for your site.

The boundary, and what sits on each side of it
MICROLINK CAPITAL, MICROLINK MAINTENANCE COMPUTE Two ISO containers Thirteen rack positions, direct liquid cooled Delivered as finished blocks, not built on site COOLING AND REJECTION Dry cooler field Carries 100 percent of duty on its own No evaporative draw, no discharge permit change CONTROLS AND SERVICE Our staff and spares Controls, telemetry, maintenance regime Separate from your OT and process control POWER FOR THE LOAD Bought by us 480 VAC three phase, one tie in point Behind your meter, never on your tariff THE HANDOVER EXCHANGER, THE CONTRACTUAL BOUNDARY YOU SUPPLY A slab and a setback  ·  one tie in point  ·  a metered demand Everything above the boundary is funded, built, warranted and operated by MicroLink.
The split, line by line, with one owner each
ItemYou provideMicroLink providesThe boundary
HeatA metered demand1.29 MWth continuousDelivered across the handover exchanger. Everything upstream of it is ours.
PaymentCents per kWh deliveredA heat creditPriced per kilowatt hour of heat actually delivered and metered. You pay for heat you take, never for heat you do not.
SpaceA slab and a setbackTwo ISO containersLicence to occupy over a defined footprint. No building and no ground up construction.
PowerOne tie in point480 VAC three phaseBehind your existing meter. We buy the electricity for the compute load and it never touches your tariff.
PlantNothingAll of itCooling plant, controls, heat recovery chain and the dry cooler field are our capital and our maintenance.
Capital from youZeroFixed at every stageIncluding on your side of the exchanger wherever your loop already accepts the delivery grade.
Metric first with imperial in brackets throughout this document. Nothing beyond the mutual non disclosure agreement is signed before the survey returns a metered demand figure.

You take heat when you want it and pay for what is metered. There is no take or pay and no minimum offtake against you.

Delivered at a grade your loop already takes

Direct liquid cooling captures the heat at the chip rather than dumping it into a room, so what reaches your exchanger is warm water on a stable flow at 55 °C (131 °F), lifted to 70 °C (158 °F) by booster where a process needs it. Digester loops at 35 to 37 °C (95 to 99 °F) and sludge preheat below 60 °C (140 °F) take the native delivery directly.

55 °CNative delivery grade at the handover exchanger, 131 °F
1.29 MWthContinuous thermal delivery from one 1.25 MW IT load pod
100 pctOf rejection duty carried by the dry cooler field alone
EN 1434Metering standard for settlement, with a written dispute route
S-303 Thermal chain from cold plate to your process
CAPTURED AT THE CHIP, CARRIED TO YOUR FENCE COLD PLATE0.85 capture at the chip COOLANT DISTRIBUTION32 / 42 °C loop (90 / 108 °F) HANDOVER EXCHANGER55 °C native (131 °F) Everything on this line is our capital, our plant and our maintenance. Delivered heat is metered on EN 1434 and settled with you on a defined period with a written dispute route. YOUR SIDE OF THE BOUNDARY YOUR PROCESS 55 °C native, 70 °C boosted (131 °F, 158 °F) DRY COOLER FIELD Full duty, always available If you take nothing, the dry cooler field takes all of it and our compute keeps running. Dry rejection. No evaporative draw, no water treatment, nothing new on your discharge permit. There is no obligation on you to take delivery at any point in the term.
Where the native delivery grade lands, by sector
SectorFitLoop conditionWhat the heat does
Wastewater with digestionDirect35 to 37 °C (95 to 99 °F) digestersSludge preheat sits below 60 °C (140 °F), so native delivery feeds it directly and displaces boiler or biogas duty.
Greenhouse and CEADirect45 to 60 °C (113 to 140 °F) hydronicDirect feed into the existing hydronic circuit with no intermediate plant.
Low temperature district loopDirectFourth and fifth generation networksDirect where the network runs low temperature. Process makeup water absorbs delivery at 45 °C (113 °F).
Campus hot water plantPartialHot water and preheat dutySuits domestic hot water and preheat. Steam raising sits outside the delivery grade.
Legacy steamConversion180 to 246 °C (356 to 475 °F)Requires a low temperature sub loop or a steam to hot water conversion before delivery is useful.
Delivered heat is measured and settled on EN 1434 with a defined settlement period and dispute route. Energy reuse is reported on DIN EN 50600-4-6 so the figure survives an audit, and ERE is reported alongside PUE.

The line that matters to you sits at the bottom of the drawing. The dry cooler field carries the entire rejection duty on its own. If your plant is down, in turnaround, or simply does not want heat that week, our compute keeps running and you have no obligation to take delivery.

Recovered heat is cheaper than the gas you burn for it

Your boiler is already paying for this heat. Delivered recovered heat lands at 12 to 30 per MWh against 35 to 55 for a gas boiler on the same delivered basis. It competes with your gas boiler rather than with your own cogeneration, and the integration capital on our side of the exchanger is ours in every case.

Cost per MWh delivered, recovered heat against a gas boiler
USD per MWh delivered, scale 0 to 80
Recovered
12 to 30
12 to 30
Gas boiler
35 to 55
35 to 55
Recovered heat delivered to your exchangerGas boiler on the same delivered basis
Electricity to gas on a common energy basis, by state
StateIndustrial powerGas, USD per MMBtuRatio
Ohio9.81 c/kWh11.352.4
Pennsylvania10.33 c/kWh11.492.6
Illinois9.19 c/kWh7.953.3
New York19.0 c/kWh est15.693.6
Virginia10.25 c/kWh5.575.1
California20.06 c/kWh12.115.1
EIA, March 2026. New York uses a Con Edison SC 9 delivered estimate. The ratio is the cost of a unit of electricity against a unit of gas on a common energy basis, which is what sets the value of heat you no longer have to fire a boiler to make.
25 to 40 pctOf wastewater plant opex is electricity, at about 2.5 MWh per 3 785 m³ (one million gallons) treated
30 to 60 pctOf municipal energy use is water and wastewater treatment, typically a community's largest consumer
USD 177kMean greenhouse heating cost per business above 9 290 m² (100 000 sq ft), USDA NASS Michigan
190k vs 730kCapex per MW of heat, recovery integration against new gas CHP, ours to carry either way

Two containers, one slab, one tie in point

The physical ask is small and bounded before anything is signed. Two high cube ISO containers on a slab, a setback for the dry cooler field, one tie in at 480 VAC three phase, and a pipe run to your exchanger under 200 m (656 ft) of buried soft dig.

S-001 Site arrangement inside your boundary
HOST SITE BOUNDARY COMPUTE HALL THIRTEEN RACK POSITIONS COOLING PLANT CDU  ·  UPS  ·  HX DRY COOLER FIELD DRY, NO WATER DRAW TIE IN  ·  480 VAC 3PH HANDOVER HX THE BOUNDARY YOUR PROCESS 55 °C (131 °F) 1.80 m (5 ft 11 in) PIPE RUN UNDER 200 m (656 ft) BURIED SOFT DIG

What lands on your site

  • Two high cube ISO containers on a slab
  • A setback for the dry cooler field
  • One tie in at 480 VAC three phase
  • A buried pipe run under 200 m (656 ft)
  • Licence to occupy that footprint and nothing beyond it

What does not

  • No water draw, the rejection path is dry
  • Nothing new on your discharge permit
  • No ground up construction on your site
  • No new operating discipline for your team
  • No compute load on your electricity tariff

Codes and basis

  • Fire basis NFPA 75
  • Structural loading designed to ASCE 7-16
  • Metering and settlement on EN 1434
  • Energy reuse reported on DIN EN 50600-4-6
  • ERE reported alongside PUE

Access and operations

  • Our staff, our spares holding, our maintenance regime
  • Controls separate from your OT and process control
  • Access regime agreed at heads of terms
  • Your safety regime governs on your site
  • Incident authority named in writing, not left to practice
What the site survey returns, and what is fixed before it
RequirementFigureNoteCloses at
Thermal demandMetered, hourly if heldFirm demand replaces the assumption. The sector band is 0.5 to 3 MW thermal and the design carries 1.10 MW until a partner figure lands.Survey
Loop conditionFlow, supply, returnDetermines whether native 55 °C (131 °F) delivery is direct or whether a lift is required, and on whose side it sits.Survey
Electrical positionSpare capacity, boardSingle point tie in at 480 VAC three phase to existing distribution.Survey
Space and loadingSlab, setback, ASCE 7-16Two container footprint plus the dry cooler setback. The structural case is the concentrated rack load.Survey
WaterNone requiredDry rejection. No evaporative makeup and nothing new on your discharge permit.Fixed
On the power arrangement in PJM territory: FERC ordered PJM to revise its behind the meter generation rules, including a new threshold for the load a customer may net using behind the meter generation, with a transition and grandfathering process for existing contracts. The threshold is not yet set, and any arrangement is written against the rules in force at signature.

Every risk has one named owner

Each line below is written into the thermal supply agreement rather than left to practice, and the document chain that carries it is fixed before drafting begins.

Risk allocation, written into the thermal supply agreement
RiskOwnerBasis
Heat availabilityMicroLinkNo take or pay and no minimum offtake on you.
Compute availabilityMicroLinkYour plant state never appears in our tenant's service level.
CapitalMicroLinkContainers, cooling plant, controls, exchanger and dry cooler field.
MaintenanceMicroLinkOurs up to the exchanger, on our staff and our spares holding.
Electricity priceMicroLinkWe buy the power for the compute load. It does not touch your tariff.
Loop beyond the exchangerHostWhere a lift is needed it is scoped at heads of terms, not assumed.
Measurement disputeSharedOn EN 1434, with a defined settlement period and a written dispute route.
The dry cooler field carries full duty whether you take heat or not, which is what allows the availability obligation on you to be none at any point in the term.

What happens when your plant stops

Turnaround, an outage, a seasonal shutdown or a week where the process simply does not want heat all resolve the same way. Delivery falls to zero, the dry cooler field takes the whole duty, and nothing is owed by you for heat not taken. Our compute load is unaffected, so there is no pressure back onto your plant to run for our benefit.

Operating precedent at this delivery grade

In Odense the energy provider built a 45 MW heat pump plant taking data center surplus heat into the city network. In Greater Copenhagen a 22.5 MW campus on direct liquid cooling has contracted surplus heat to a municipal network for more than 8 000 homes from 2028.

Thirteen US states now hold laws promoting thermal energy networks, and the New York Public Service Commission has adopted rules letting utility thermal networks accept third party heat.

Separation from your operation

Our controls and telemetry sit apart from your OT and process control, with no shared network path and no dependency in either direction. Our staff work to your site safety regime while they are inside your fence. Access is agreed at heads of terms and incident authority is named in writing rather than left to practice.

What is stated and what is not

The delivery figures in this document are MicroLink's own, for one 1.25 MW IT load pod. The thermal demand figure for your site does not exist until the survey returns it, and no agreement below the mutual NDA is drafted against an assumed one. MicroLink holds no letter of intent at any site and is not in pre construction.

One pod, then the same pod again

The pod is the increment. It repeats on the same slab arrangement, the same tie in discipline and the same exchanger boundary until your site is full, and the ceiling is whatever your electrical position and your thermal demand can carry. Nothing in the design changes between the first pod and the last one.

Scale ladder, one thermal architecture throughout
THE SAME EXCHANGER BOUNDARY AT EVERY STEP EDGE30 kW, single unit POD1.25 MW, 1.29 MWth MULTI POD SITEMultiples of 1.25 MW FACILITY10 to 45 MW Thermal delivery scales with the count. Two pods deliver 2.58 MWth, four deliver 5.16 MWth. Each additional pod is a separate slab, a separate tie in and a separate line on the thermal supply agreement. Expansion is pre priced at heads of terms and exercisable inside a defined window, conditioned on your capacity being confirmed deliverable. No pod is added without your written agreement to that increment.
What each step adds on your site
TierIT loadThermal deliveryWhat it needs from you
Edge30 kW31 kWthA cabinet position and a small hydronic tie. Used to prove the loop before a pod is sited.
Pod1.25 MW1.29 MWthA slab, a setback, one tie in point and a metered demand.
Multi pod siteMultiples of 1.25 MWMultiples of 1.29 MWthThe same again per pod, on the same interface and the same exchanger discipline.
Facility10 to 45 MWAbove 10 MWthA parcel on or adjacent to your site rather than a licence over a footprint inside it.
Thermal delivery figures are gross at the handover exchanger for the stated IT load. What your process can absorb is set by the survey, and delivery above your demand is rejected dry rather than forced into your loop.

The increment is small on purpose. You can take one pod, see the metered heat and the settlement run for a season, and decide about the second one with a year of your own data rather than ours.

What you get to report

Displaced gas is the part of this that lands in your own numbers. The heat is metered on EN 1434 and the reuse fraction is defined on DIN EN 50600-4-6, so the figure you publish is auditable rather than asserted, and it holds in a permit file, a board pack or a public meeting.

EN 1434Delivered heat metered and settled on the European heat meter standard
50600-4-6Energy reuse fraction defined on DIN EN, so the figure survives an audit
Below 0.5Energy reuse effectiveness, reported alongside PUE and never in place of it
Scope 1Gas displaced at your burner tip is a reduction in your own direct emissions
The claims that survive diligence, and what each rests on
ClaimEvidenceWhat it rests on
No new demand on the gridBehind the meterThe compute load sits behind an existing meter rather than arriving as a new large load connection request.
Gas displaced on siteMeteredDelivered heat replaces combustion at your burner, measured and settled on EN 1434.
An industrial site stays openPer siteThe thermal payment lands on your operating cost rather than on a landowner's rent.
Reported on a standardDIN EN 50600-4-6The reuse fraction is defined and auditable, so the claim holds in a diligence pack.
No water takenDry rejectionNothing new on your discharge permit and no evaporative makeup at any duty.
These are the four claims that survive diligence, and they are the sentences a policy team or a public affairs team can use in a hearing.

A conventional data center can quote a competitive PUE and cannot report an energy reuse figure at all, because it has no route for the heat. What sits on your site produces both, and the reuse figure is measured at your exchanger rather than modelled.

Basis and sequence

One site visit. We arrive with the data request and leave with a number you can check. Nothing beyond the mutual non disclosure agreement is signed before the qualification report on your site exists.

The document chain

H-04
Mutual NDA. The first and only document signed before the survey.
H-02
Survey and data request. A fixed list, so your site is assessed on the same basis as every other.
H-05
Heads of terms. Sets the shape of everything below it before any of it is drafted.
H-06
Licence to occupy. Over the container footprint and the setback only.
H-07
Thermal supply. Drafted against your metered demand, never an assumed figure.
H-09
Metering and billing. EN 1434, settlement period, dispute route.

The licence, the thermal supply and the metering basis are drafted together rather than in sequence, because the delivery grade, the tie in route and the settlement basis all depend on the same survey figures.

Sequence to delivery

01
Mutual NDA, and a half day on site with whatever metering you already hold on the thermal side.
02
We return a qualification report against a fixed template: thermal demand, loop fit, tie in route, footprint, and the heat credit at your delivery grade.
03
Heads of terms covering the licence, the thermal supply and the metering basis.
04
Design freeze against your survey figures, and the site arrangement is issued.
05
Slab, delivery, tie in, commission, first metered delivery.

The fixed position

Capital from you
Zero at every stage
Obligation to take heat
None, at any point in the term
Water taken
None, the rejection path is dry
Compute load on your tariff
None, we buy the power

If the loop does not fit, we say it does not fit.

  1. Delivered heat figures are for one 1.25 MW IT load pod. The design carries 1.10 MW thermal against an assumed sector band of 0.5 to 3 MW until a metered partner figure lands at survey.
  2. Electricity and gas prices are EIA figures for March 2026. The New York electricity figure is a Con Edison SC 9 delivered estimate rather than a published state industrial average.
  3. Odense and Greater Copenhagen figures are as published by the operators. Thirteen US states hold thermal energy network legislation, and the New York Public Service Commission rules on third party heat into utility thermal networks are as adopted.
  4. FERC ordered PJM to revise its behind the meter generation rules. The netting threshold is not yet set and any arrangement is written against the rules in force at signature.
  5. Metric first with imperial in brackets throughout. Energy reuse effectiveness is reported alongside power usage effectiveness rather than in place of it.
  6. This document is issued for discussion. It does not constitute an offer capable of acceptance and no representation is made that any site named or implied is contracted, permitted or under construction.

One electron, two jobs

Your plant already burns gas to make heat this pod produces as a by product of work that is paid for somewhere else. We arrive with the data request and leave with a number you can check. One site visit, one NDA, and nothing else signed until the report exists.