Customer Proposal
Capacity on a site that already has power. Reserved critical IT load, priced per kilowatt month on the instrument you already sign. What changes is where the load sits and what leaves the building with the heat. Two units of sale: a 1.25 MW pod inside an energised industrial partner site, and a 10 to 45 MW liquid cooled facility.
The Offer
You buy reserved critical IT load in megawatts, priced per kilowatt per month, modified gross plus electric, with metered power passed through at cost. That is the instrument your existing colocation and wholesale agreements already run on. Nothing about how you contract has to change. What changes is where the load sits, how quickly it can be energised, and what leaves the building with the heat.
Two units of sale sit inside the same architecture. Track A is a 1.25 MW IT load pod delivered to an operating industrial or municipal partner facility and tied in behind an existing meter. It repeats on one partner interface until the site is full, so the increment is small and the ceiling is whatever the partner can carry.
Track B is a 10 to 45 MW liquid cooled facility, contracted in halls or suites, with the full security, certification and carrier furniture a regulated buyer expects around the capacity it takes.
Both are direct liquid cooled to the cold plate at a capture fraction of 0.85, on a facility loop at 32 °C flow (90 °F) and 42 °C return (108 °F). Both reject the full duty through a dry cooler field that carries the load on its own, so recovered heat is upside and never a condition of your availability.
Power for the compute load is bought at the site price and passed through at cost. We take no margin on the energy line. It moves with the site rather than with us.
| Element | Track A, the pod | Track B, the facility | Common to both |
|---|---|---|---|
| Unit of sale | 1.25 MW IT load per pod, thirteen rack positions | 10 to 45 MW IT load, taken in tranches of roughly 1 to 5 MW | Reserved critical IT load in MW, priced per kW month |
| Cooling | Direct liquid to the cold plate, 0.85 capture | Same architecture at hall scale | 32 °C flow (90 °F), 42 °C return (108 °F), 10 K rise |
| Heat rejection | Dry cooler field carries the whole duty alone | Dry cooler field carries the whole duty alone | Recovered heat is upside, never a dependency |
| Siting | Behind an existing meter at a partner already carrying firm load | A shell on or adjacent to a partner parcel | Energised site, not a queue position |
| Facility furniture | Partner site security, module certification, one defined network handoff | Four layer security, carrier neutral meet me room, full certification stack | Component level service level in both cases |
| Energy margin | Zero | Zero | Pass through at the site price |
Reserved critical IT load in megawatts, priced per kilowatt month. The instrument does not change. The site underneath it does.
Speed to Power
Speed to power is now the first criterion in site selection, ahead of community support, latency and proximity to customers. Power availability rather than capital is the principal constraint, and a will serve letter is not powered land. MicroLink starts at a tie in to a partner that is already carrying firm load, so no interconnection application opens at any step.
What is not on the critical path
- No interconnection queue position
- No load study on a utility timetable
- No upgrade scope to negotiate
- No transformer on a 128 week lead time
- No new large load connection request
What is
- The site survey and the data request
- Partner capacity confirmed deliverable
- Module build and delivery
- Tie in and commissioning
- Your own hardware lead times
What we need from you
- Capacity required in MW
- The date it has to be live
- Rack density and platform
- The market or region it has to sit in
- Any residency or certification constraint
A queue position is not capacity and a will serve letter is not powered land. The only schedule that binds here is the survey, the module build and your own hardware.
Technical Requirements
Direct liquid cooling to the cold plate at a capture fraction of 0.85. Facility loop at 32 °C flow (90 °F) and 42 °C return (108 °F) on a 10 K rise, inside the supply window the current rack scale platform specifies. Busway distribution at row level rather than a power distribution unit per rack. Structural design to the concentrated rack case.
Heat leaves by one of two routes and both are built. The dry cooler field carries the whole duty on its own, so partner thermal demand is upside rather than a dependency in your availability calculation.
Service Level
A Tier label certifies a design. The contract is what binds operations. The service level here is written per component class, with penalties attaching to the liquid cooling circuits by name rather than only to the electrical path, because a synchronised training run does not fail gracefully. It goes back to the last checkpoint.
| Element | Posture | Why it is written this way |
|---|---|---|
| Electrical path | 99.982 percent | Power is responsible for 45 percent of serious outages in the published outage analysis. Tier III equivalence is 99.982 percent, or 1.6 hours a year. |
| Liquid cooling circuits | N+1 explicit | Penalties attach to the cooling circuits by name. A liquid cooled hall fails differently from an air cooled one and the contract has to say so. |
| Block exclusivity | Dedicated | IT power guaranteed in kilowatts, not in rack equivalents. No resource contention with another tenant during a demand squeeze. |
| Mean time to repair | In writing | Stated per component class rather than as a single facility number. |
| Partner heat demand | Not a dependency | Deliberately outside your service level. The dry cooler field carries full duty whether the partner takes heat or not. |
| Density overrun | Written | Clause already standard in the market |
Commercial Terms
USD 154 per kilowatt per month, power excluded, on a 15 year base term with a 3.0 percent fixed escalator. That is the MicroLink reference of USD 1.85M per MW of IT per year expressed per kilowatt month. Market figures below are asking rates rather than transacted rates, and vary by market and by deployment size.
| Term | MicroLink | Bracket | Market position |
|---|---|---|---|
| Rate | USD 154 per kW month | Wholesale | Wholesale colocation asks 150 to 250. Hyperscale asks 100 to 150. The US wholesale average was 195.94 in H2 2025. |
| Power | Pass through at cost | Modified gross plus electric | Operators typically bill a markup over their own wholesale energy cost. Electricity related charges are 30 to 50 percent of colocation revenue. |
| Tenor | 15 years | Anchor | Wholesale and hyperscale anchor leases run 10 to 15 years. |
| Escalator | 3.0 percent fixed | Fixed | Market is index linked or fixed at 3 to 4 percent on long terms. |
| Increment | 1.25 MW per pod, or 1 to 5 MW tranches in a facility | 250 kW to 4 MW | AI campus leases contract at 100 to 300 MW and the unit repeats to reach them. |
| Structure | Power floor, take or pay | Standard | Base rent anchored to reserved MW from the end of a defined ramp, with termination economics tied to the net present value of remaining rent. |
| Our margin on energy | Zero | At the site price | Power reaches you at what the site pays. It moves with the site rather than with us. |
Seventy to eighty percent of operator revenue is base rent on reserved capacity. Fifteen to twenty percent is metered power, where operators typically take a markup. We take none.
Efficiency and Reuse Reporting
Everyone quotes PUE, and a conventional hall can reach a competitive one. It cannot report an energy reuse figure at all, because it has nowhere to send the heat. Where you operate in Europe that is already a compliance line. Where you operate in the United States it is the disclosure your competitors will be asked about next.
| Jurisdiction | Requirement | Threshold | From |
|---|---|---|---|
| Germany, EnEfG section 11 | Energy reuse factor, new data centers | 10 percent | July 2026 |
| Germany, EnEfG section 11 | Energy reuse factor | 15 percent | July 2027 |
| Germany, EnEfG section 11 | Energy reuse factor | 20 percent | July 2028 |
| Germany, EnEfG section 11 | PUE ceiling | 1.2 | July 2026 |
| Germany, EnEfG section 11 | Renewable supply | 100 percent | January 2027 |
| European Union | Energy Efficiency Directive recast, waste heat recovery at 1 MW and above, or a demonstration that it is not technically feasible | In force | Member state transposition |
A reuse figure is only worth reporting if it survives diligence. Delivered heat is metered on EN 1434 and the reuse fraction is defined by DIN EN 50600-4-6, so the number holds in a diligence pack rather than only in a press release.
Facility Standards
If your capacity carries a regulator, an auditor or a card scheme behind it, the questions arrive before the rate does. This section states what the 10 to 45 MW facility carries in full, and what a pod inside a partner site carries instead, without pretending the two are the same.
| Layer | What sits in it | Track A, the pod |
|---|---|---|
| Perimeter and site | Multi layer fencing and anti climb barriers, thermal perimeter cameras and ground radar, crash rated gates and bollards, 24/7 guardhouse patrols, integrated security lighting | The partner's own site regime |
| Building | Concentric zoning from public through reception, controlled, secure operations and critical infrastructure to white space, with active authentication at every transition boundary | Not available inside a partner building |
| Identity and access | Biometric and facial recognition, multi factor by card, PIN and biometric, role based and time bound permissions, an audit trail for every door cycle, escort policy | Module level access control and logging |
| Data hall and rack | Dual authentication mantraps at hall entry, customer cages and isolated private suites, electronic cabinet locks, cabinet access logging, continuous tamper detection | Cabinet locking, access logging and tamper detection |
Certification stack
- ISO 27001, information security
- ISO 22301, business continuity
- ISO 9001, quality management
- SOC 2 Type II
- PCI DSS readiness
- NIST cybersecurity framework
- SWIFT customer security programme
- Data residency stated per site
Fire and environment
- Very early smoke detection, plus ceiling and under floor detectors
- Physical fire zoning and compartmentation
- Double interlock pre action, zero residue clean agent
- Emergency smoke extraction, continuous monitoring
- NFPA 75
- Temperature, humidity, power quality, smoke
- Flood and leak detection on the liquid path
Network and isolation
- Carrier neutral core, multiple dedicated carriers
- Dark fibre routing and duct ownership options
- Private tunnels, your own equipment and topology
- Management and production separation
- Out of band management
- Firewalls with intrusion detection and prevention
- Micro segmentation and denial of service protection
| Lens | What you are buying | What the agreement carries |
|---|---|---|
| Hyperscale | Infrastructure as a controlled asset. Contiguous space, raw density, dark fibre and duct ownership, no bottlenecks | Power floor, ramp with hard dates, expansion options, density overrun, cross connect |
| Enterprise | Infrastructure as a managed risk. A single point of accountability, turnkey capacity and an uptime guarantee | All of the above plus the security schedule, the certification schedule, residency and continuity |
A pod is one envelope inside somebody else's building. It cannot offer a reception zone or a meet me room, and this document does not claim it can. What it offers instead is module level certification, cabinet level control and a single defined network handoff.
Scale
The pod is not a competitor to a campus lease. It is the unit that lands inside an energised site while a campus is still in a queue, and it repeats on the same partner interface and the same thermal architecture until the site is full. Nothing about the design changes between one pod and the campus that follows it. What changes is how many sit on the slab.
| Claim | Evidence | What it rests on |
|---|---|---|
| No new demand on the grid | Behind the meter | Capacity sits behind an existing meter rather than arriving as a new large load connection request. |
| Gas displaced on site | Metered | Delivered heat replaces combustion at the partner, measured and settled on EN 1434. |
| An industrial site stays open | Per partner | The thermal payment lands on the partner's operating cost rather than on a landowner's rent. |
| Reported on a standard | DIN EN 50600-4-6 | The reuse fraction is defined and auditable, so the claim holds in a diligence pack. |
Basis and Sequence
Bring the megawatts and the date. We come back with the sites that hold it, the rate at your term, and the reuse figure you get to report. Nothing beyond the mutual non disclosure agreement is signed before that return exists.
The document chain
- C-04
- Mutual NDA. The first and only document signed before the capacity return.
- C-02
- Capacity and data request. A fixed list, so every requirement is assessed on the same basis.
- C-05
- Heads of terms. Sets the shape of everything below it before any of it is drafted.
- C-10
- Master services agreement. Signed once, solution agnostic, carrying definitions, liability, insurance, data and term.
- C-11
- Service order. Per deployment. Reserved MW, rate, term, escalator, ramp tranches with dates, site, density and platform.
- C-12
- Onboarding document. Access, remote hands, change control, escalation, acceptance testing, delivery logistics.
Schedules hang off the master agreement and are selected per track: service levels, security and compliance, thermal and reuse reporting, metering and billing.
Sequence to live
- 01
- You send capacity in MW, the live date, rack density and platform, the market it has to sit in, and any residency or certification constraint.
- 02
- We return candidate partner sites with metered thermal demand, the tie in position, the rate at your term, and the reuse figure each site supports.
- 03
- Site qualification against the fixed data request, and the partner interface specification is issued.
- 04
- Capacity contracted at design freeze, on the master agreement and a service order.
- 05
- Build, tie in, commission, acceptance test, live.
What is stated and what is not
Track A figures follow the design record. Track B figures are design position rather than delivered precedent, and are marked as such wherever they appear. MicroLink holds no letter of intent at any site and is not in pre construction; site status is confirmed partner interest.
- Rate is the MicroLink reference of USD 1.85M per MW of IT per year expressed per kilowatt month, power excluded in every line.
- Market rate brackets and the US wholesale average of 195.94 are CBRE H2 2025 asking rates rather than transacted rates, and vary by market and by deployment size.
- Speed to power, vacancy at 1.6 percent and the 73 percent pre lease figure are per the published 2026 outlooks. Tier III equivalence at 99.982 percent and the 45 percent power share of serious outages are per the published outage analysis.
- Reuse thresholds are as adopted in the German Energy Efficiency Act and the recast EU Energy Efficiency Directive. The metric named in the standards and the regulation is the energy reuse factor.
- Facility security, certification, fire, environmental and network content in section 07 states the market expectation set for a facility of this size. It applies in full to track B. Track A positions are stated separately in the same tables.
Next Steps
You sign the instrument you already sign, at a rate inside the wholesale band, with the energy line taken out of our margin. What you get that a conventional hall cannot give you is a live date that does not depend on a queue, and a reuse figure you get to report. Bring the megawatts and the date.