MicroLink Technology

MicroLink Data Centers Technology dossier

MicroLink's
Technology
Development

Where we are developing intellectual property
and first to market solutions.

Elevation drawing of a MicroLink host campus: greenhouse range, energy centre and data hall
L1 SERVER LOOP L3 HOST DELIVERY EXCH A EXCH B SERVER RACK COOLER DIGESTER 70 °C (158 °F) 35 °C (95 °F) 55 °C (131 °F) 10 °C (50 °F)
Supply side, cool loopReturn side, recovered heat
Section drawing of a MicroLink deployment: compute hall with heat recovery loops feeding an adjacent greenhouse MICROLINK DEVELOPED Control, monitoring and management software System and solution design Generation solutions Heat recovery solutions STANDARDISED WITH PARTNERS Cooling plant Power modules IT hardware Vertiv and other leading manufacturers

Who we are

MicroLink Data Centers builds high density, liquid cooled compute inside industrial host partner facilities: places that already hold the power and already buy the heat. Almost every watt a chip draws leaves the silicon as heat. Everyone else throws it away. We treat it as a second product.

What we do

We develop and operate compute across three scales on one shared stack: a 50 kW edge block, a 1.25 MW pod, and campuses from 10 MW up to 1 GW. No other company is developing a continuous range across these applications. Every scale runs the same software, the same thermal philosophy and the same dry cooler backed architecture, so what is proven at one scale carries to the next.

How we do it

We standardise the hardware and develop the layer above it. Cooling distribution, power modules and IT hardware are standardised with Vertiv and other leading manufacturers. MicroLink's own development, and its IP, sits in control, monitoring and management software, in system and solution design for compute inside industrial sites, in 800 V DC power, and in the systems that couple generation optimisation and heat recovery to compute. Delivered performance is reported as ERE alongside PUE, from live metering.

What the IP is worth

Our first three filings were all submitted in 2026, focused on the system, the category and the method that make heat a second product. Each is valued three ways: what it earns in use as a product, what it would cost to licence in if someone else owned it, and what it commands at a sale on a ten year horizon.

The engine behind these numbers is the delivered heat. One MW of IT rejects close to 0.9 MW thermal, and delivered into a host partner's boiler or digester load it displaces roughly $85k to $190k of fuel per MW each year at current US industrial gas prices, corroborated by Stockholm's open district heating market, which prices recovered data center heat at roughly €175k per MW per year. The owned control and delivery layer is what converts a free, unreliable by product into a contracted thermal input, and regulation is moving the same way: Germany mandates a minimum energy reuse factor for new data centers from July 2026, rising in 2028, turning heat recovery from an option into a licence to operate.

The ranges are triangulated three ways: royalty benchmarks for industrial control and energy software at 5 to 10 percent of the revenue the layer enables, a licensor share of 25 to 50 percent for the licence in column, and exit multiples read from the sector's own transactions, including Ecolab's $4.75B acquisition of CoolIT at 8.6 times revenue and Schneider Electric's $850M for a 75 percent interest in Motivair. The broad category filing carries most of the portfolio's value; the method filing carries the most legal risk and is drafted against hardware for exactly that reason. Exit ranges span deployment scenarios of 50 to 400 MW at year ten.

FilingWhat it protectsValue in useTo licence inValue at exit, 10 yr
ML 001Wastewater deploymentThe pod deployed onto a wastewater treatment host: the first embodiment, proven and priority dated.$40kper MW per year$14kper MW per year$3M to $45Mcomparable transactions
ML-IND-001Industrial Symbiosis Data Center SystemThe pod onto any industrial host: wastewater, brewery, agriculture, food processing. The category, not a site.$135kper MW per year$50kper MW per year$25M to $380Mcomparable transactions
ML-TRN-001Thermal Mode Transition MethodUninterrupted switching between host delivery and rejection: the uptime layer that makes the pod bankable.$90kper MW per year$32kper MW per year$8M to $170Mcomparable transactions
PortfolioOne product: a pod that fits onto any host, protected end to end.$210kper MW per year$90kper MW per year$40M to $560Mbase case near $170M

Solutions Technology under development

Three families,
one stack

The metered heat delivery interface: server loop and dry cooler path, heat meter, metered exchanger on the ownership boundary, delivery to the host process

Recovery

RC 01

Metered heat delivery interface

One metered exchanger between MicroLink plant and the host partner's systems: process hot water, digesters, district heat, greenhouses. The commercial and physical boundary in a single engineered product.

Solution detail
RC 02

High grade return water

Direct to chip liquid cooling engineered from the first decision for recovery, returning water at 40 to 65°C (104 to 149°F) matched to real industrial demand.

Solution detail
RC 03

Heat pump temperature boosting

Conditioning stage heat pumps lift return water to the temperature the host process actually needs, from digester duty at 35 to 55°C (95 to 131°F) up to cleaning and pasteurisation duty at 60 to 90°C (140 to 194°F).

Solution detail
RC 04

Demand matching and storage

Buffering and demand matching between a constant compute heat source and a variable industrial heat user, so compute never waits on thermal demand.

Solution detail
RC 05

Process integration kits

Integration engineered per host industry: district networks, digesters, brewery hot water and cleaning, pasteurisation, greenhouse climate.

Solution detail
RC 06

Loop closure and by product return

Host by products return to the data center as supplementary resource: biogas to power, CO2 to cooling or plant growth, chilled water to the cooling system.

Solution detail

Generation

GN 03

Grid aware operation

Curtailment capture, demand response and constrained grid operation, so compute lands in markets where new utility load waits years.

Solution detail
GN 04

Waste to energy integration

Compute taking the electrons from upgraded waste to energy facilities, with recovered heat returned to the process.

Solution detail
GN 05

Heat to power

Organic Rankine and other heat driven cycles regenerating electricity from the compute heat stream, turning recovered heat into a second power product.

Solution detail

Optimisation

OP 03

Node Intelligence

Fleet analytics: cross fleet learning, predictive maintenance and benchmarking across every MicroLink deployment.

Solution detail
OP 04

MCS platform

The management and control platform tying the suite together, named in the ML-IND-001 filing as the adaptive controller balancing IT load, thermal export and host demand signal in real time.

Solution detail
OP 06

Digital twin and forecasting

Site models and forecasting for industrial thermal demand, weather, price and grid state, feeding every dispatch decision.

Solution detail

RC 01 Solution detail

Metered heat delivery interface

One metered exchanger between MicroLink plant and the host partner's systems: process hot water, digesters, district heat, greenhouses. The commercial and physical boundary in a single engineered product.

What is new here

  • A standard, meterable boundary product for delivered heat where the industry has ad hoc engineering
  • Heat accounting built for ERE reporting alongside PUE from live metering
$85k to $190kFuel displaced, MW yr
0.9 MWThermal per MW IT
LiveERE with PUE
Process diagram of metered heat delivery: the server loop through the exchanger and inline meter into the host partner process, with the dry cooler path

Fig RC 01.1 Draft

Elevation drawing of the metered heat interface skid: plate exchanger, inline meter and valves at the ownership boundary

Fig RC 01.2 Draft

IP position

Covered by the ML-IND-001 industrial symbiosis filing, patent pending. Detail on the overview.

All solutions

RC 02 Solution detail

High grade return water

Direct to chip liquid cooling engineered from the first decision for recovery, returning water at 40 to 65°C (104 to 149°F) matched to real industrial demand.

What is new here

  • Cooling designed backwards from the heat user's temperature requirement, not forwards from the chip
  • Dry coolers sized for the full load carry whatever the host partner does not take, hour by hour
65 °C (149 °F)Return water
ZeroPrior topologies
100%Dry cooler backed
Process diagram of high grade return water: direct to chip liquid cooling returning water at 40 to 65 degrees Celsius to industrial demand

Fig RC 02.1 Draft

Section drawing of a liquid cooled data hall with rooftop dry coolers and warm return pipework

Fig RC 02.2 Draft

IP position

Placeholder. Candidate protection route, related filings and trade secret scope for high grade return water. Summary on the overview.

All solutions

RC 03 Solution detail

Heat pump temperature boosting

Conditioning stage heat pumps lift return water to the temperature the host process actually needs, from digester duty at 35 to 55°C (95 to 131°F) up to cleaning and pasteurisation duty at 60 to 90°C (140 to 194°F).

What is new here

  • Heat pump integration sized against a live compute heat source rather than ambient
  • Temperature upgrade selected per host process, not per industry rule of thumb
35 to 90 °CRange served
Up to 6.0Heat pump COP
60 MWProven, Hamburg
Process diagram of heat pump boosting: buffer tanks either side of the heat pump lifting 65 to 85 degrees Celsius

Fig RC 03.1 Draft

Plant room section: heat pump units flanked by buffer vessels between data hall and host process

Fig RC 03.2 Draft

IP position

Placeholder. Candidate protection route, related filings and trade secret scope for heat pump temperature boosting. Summary on the overview.

All solutions

RC 04 Solution detail

Demand matching and storage

Buffering and demand matching between a constant compute heat source and a variable industrial heat user, so compute never waits on thermal demand.

What is new here

  • Placeholder: storage sizing method, demand forecasting for industrial thermal loads
  • Placeholder: charge and discharge control against host process schedules
70%Demand swing buffered
30 sFailover bridge
8 kLMinimum store
Process diagram of thermal storage matching constant compute heat to variable host demand with the dry cooler balance

Fig RC 04.1 Draft

Elevation drawing of twin thermal storage tanks between the data hall and the host facility

Fig RC 04.2 Draft

IP position

Placeholder. Candidate protection route, related filings and trade secret scope for demand matching and storage. Summary on the overview.

All solutions

RC 05 Solution detail

Process integration kits

Integration engineered per host industry: district networks, digesters, brewery hot water and cleaning, pasteurisation, greenhouse climate.

What is new here

  • An embodiment library spanning wastewater treatment, brewing, controlled environment agriculture and food processing
  • One architecture proven across four host process families
4Host families
1Architecture
35 to 90 °CDelivery range
Process diagram of one architecture integrating greenhouse, brewery, digester and food processing hosts through integration kits

Fig RC 05.1 Draft

Elevation lineup of host types: greenhouses, brewery, digester and containerised data hall on one pipe run

Fig RC 05.2 Draft

IP position

Placeholder. Candidate protection route, related filings and trade secret scope for process integration kits. Summary on the overview.

All solutions

RC 06 Solution detail

Loop closure and by product return

Host by products return to the data center as supplementary resource: biogas to power, CO2 to cooling or plant growth, chilled water to the cooling system.

What is new here

  • Closed loop energy cycling between compute and host, metered in both directions
  • By product paths designed into the system architecture from the first line
3Return paths
2 wayMetered exchange
Process diagram of closed loop exchange: heat delivery out, biogas to power, CO2 to growth and chilled water returning

Fig RC 06.1 Draft

Section drawing of closed loop returns: gas to engine, duct to greenhouse, chilled water back to the hall

Fig RC 06.2 Draft

IP position

Covered by the ML-IND-001 industrial symbiosis filing, patent pending. Detail on the overview.

All solutions

GN 03 Solution detail

Grid aware operation

Curtailment capture, demand response and constrained grid operation, so compute lands in markets where new utility load waits years.

What is new here

  • Placeholder: grid services scope
  • Placeholder: interconnection strategy method
2 wayGrid signals
3One dispatched load
Process diagram of grid aware operation: grid, transformer, switchgear, battery storage and compute load under grid signals

Fig GN 03.1 Draft

IMAGE PLACEHOLDER: Grid aware operation hardware or interface

Fig GN 03.2 Draft

IP position

Placeholder. Candidate protection route, related filings and trade secret scope for grid aware operation. Summary on the overview.

All solutions

GN 04 Solution detail

Waste to energy integration

Compute taking the electrons from upgraded waste to energy facilities, with recovered heat returned to the process.

What is new here

  • Placeholder: facility upgrade model and offtake structure
  • Placeholder: firm baseload pairing with compute load
FirmBehind the meter
2 wayPower in, heat back
Process diagram of waste to energy integration: power to the data center, recovered heat returned to the plant

Fig GN 04.1 Draft

Elevation drawing of a waste to energy facility bridged to a containerised data hall campus

Fig GN 04.2 Draft

IP position

Placeholder. Candidate protection route, related filings and trade secret scope for waste to energy integration. Summary on the overview.

All solutions

GN 05 Solution detail

Heat to power

Organic Rankine and other heat driven cycles regenerating electricity from the compute heat stream, turning recovered heat into a second power product.

What is new here

  • The one generation route that runs on the same recovered heat as the delivery business, not alongside it
  • Placeholder: cycle selection, low grade conversion economics, pairing with the dry cooler path
65 °C (149 °F)Input heat
2ndPower product
Process diagram of heat to power: the ORC module and generator converting 65 degree Celsius heat with the condenser

Fig GN 05.1 Draft

Elevation drawing of a heat to power module: organic Rankine skid feeding from the data hall

Fig GN 05.2 Draft

IP position

Placeholder. Candidate protection route, related filings and trade secret scope for heat to power. Summary on the overview.

All solutions

OP 03 Solution detail

Node Intelligence

Fleet analytics: cross fleet learning, predictive maintenance and benchmarking across every MicroLink deployment.

What is new here

  • A telemetry and data model that turns every site into training data for the next
  • Placeholder: analytics scope
24Fleet lessons
5Sites in the loop
16Field reports
Process diagram of Node Intelligence: telemetry up from three sites, learning back down

Fig OP 03.1 Draft

Data hall section with telemetry gathered from every rack to a roof mast

Fig OP 03.2 Draft

IP position

Placeholder. Candidate protection route, related filings and trade secret scope for node intelligence. Summary on the overview.

All solutions

OP 04 Solution detail

MCS platform

The management and control platform tying the suite together, named in the ML-IND-001 filing as the adaptive controller balancing IT load, thermal export and host demand signal in real time.

What is new here

  • ERE reported alongside PUE as a live operational metric at every site
  • The control layer of a filed patent architecture, not a roadmap item
4Systems, one controller
LiveERE with PUE
ML-IND-001Filed controller
Process diagram of the MCS platform coordinating compute, cooling, heat delivery and the host signal with ERE and PUE live

Fig OP 04.1 Draft

Control room section: operator desks and display wall adjoining the data hall

Fig OP 04.2 Draft

IP position

Placeholder. Candidate protection route, related filings and trade secret scope for mcs platform. Summary on the overview.

All solutions

OP 06 Solution detail

Digital twin and forecasting

Site models and forecasting for industrial thermal demand, weather, price and grid state, feeding every dispatch decision.

What is new here

  • Placeholder: model scope per host industry
  • Placeholder: forecast horizon and accuracy targets
2 wayTelemetry and forecasts
3Forecast inputs
Process diagram of the live site and its digital twin exchanging telemetry and forecasts

Fig OP 06.1 Draft

The facility drawn solid beside its dashed digital twin

Fig OP 06.2 Draft

IP position

Placeholder. Candidate protection route, related filings and trade secret scope for digital twin and forecasting. Summary on the overview.

All solutions

Projects Where the technology is proven

Development projects

Twelve sites across the portfolio. Each card shows what the site is, its stage, and the technologies it proves, mapped to the register on the solutions page.

Franklin Twp, Richland Co, OH

Mansfield

250+ MW IT · Owned · Pre construction

Ground up campus on owned land. Proves the full campus stack: pod repetition, on site generation dispatch and campus scale DC distribution.

GN 01 800 V DC
GN 02 Generation coupling
OP 02 Mesh AI
OP 04 MCS platform
RC 01 Metered heat delivery

Arizona

Gigawatt Land

250+ MW IT · Owned · Site identified

Ground up campus with solar, storage and gas at the same point of interconnection. The proving ground for generation and storage coupling at full scale.

GN 01 800 V DC
GN 02 Generation coupling
GN 03 Grid aware operation
OP 04 MCS platform

Pennsylvania

Fort Cherry District

250+ MW IT · Owned · Site identified

Ground up district development in early diligence. Proves campus master planning and grid aware operation on a constrained interconnection.

GN 01 800 V DC
GN 02 Generation coupling
GN 03 Grid aware operation
OP 02 Mesh AI

Northampton County, PA

Bethlehem

8 MW IT · Owned · Pre construction

Smaller owned build. First full test of the pod as the unit of repetition with heat delivery engineered in from day one.

RC 01 Metered heat delivery
RC 02 High grade return water
OP 01 Edge Gateway
OP 02 Mesh AI

Massena, NY

Massena St Lawrence

250+ MW IT · Owned · Site identified

Deliberately the hardest environment in the New York programme. Proves winter operation, grid aware dispatch and the co optimisation stack under real constraint.

GN 02 Generation coupling
GN 03 Grid aware operation
OP 02 Mesh AI
OP 04 MCS platform

Chicago, IL

Stickney MWRD

45 MW IT · Host · LOI in place

Compute inside one of the largest wastewater treatment plants in the world, heat delivered to process. The reference case for the metered heat interface at scale.

RC 01 Metered heat delivery
RC 02 High grade return water
RC 04 Demand matching and storage
OP 02 Mesh AI

New York

NYSERDA pilot

45 MW IT · Host · Confirmed interest

Pilot developed with New York State support. Proves the host partner model and live ERE reporting alongside PUE for a public counterpart.

RC 01 Metered heat delivery
RC 02 High grade return water
OP 02 Mesh AI
GN 03 Grid aware operation

Japan

Undisclosed

45 MW IT · Host · Confirmed interest

Host partner deployment in Japan, name withheld. Proves the stack in a second regulatory and grid environment.

RC 01 Metered heat delivery
RC 02 High grade return water
OP 02 Mesh AI

Philadelphia, PA

Grays Ferry

25 MW IT · Host · LOI in place

Deployment at a district energy site. Proves delivery of recovered heat into a live district network and thermal demand matching.

RC 01 Metered heat delivery
RC 02 High grade return water
RC 04 Demand matching and storage
GN 03 Grid aware operation

New York, NY

Newtown Creek

15 MW IT · Host · LOI in place

Compute at a wastewater treatment site in New York City, heat to digesters. Proves the edge and pod stack inside dense urban infrastructure.

RC 01 Metered heat delivery
RC 02 High grade return water
OP 01 Edge Gateway
OP 02 Mesh AI

San Jose, CA

San Jose

15 MW IT · Host · Confirmed interest

Host partner site in the Bay Area. Proves unstaffed operation under Edge Gateway close to compute demand.

RC 01 Metered heat delivery
RC 02 High grade return water
OP 01 Edge Gateway

New Jersey

Princeton

4 MW IT · Host · Site identified

Small host deployment feeding a district heating opportunity. Proves the 50 kW to pod transition on one control stack.

RC 01 Metered heat delivery
RC 02 High grade return water
OP 01 Edge Gateway

Reference Partners, technologies, research

What we build on

The manufacturers we standardise with, the technologies we work with, and the research behind the programme.

Partners

MANUFACTURING

Vertiv

Cooling distribution, CDUs, dry coolers and power modules standardised against MicroLink reference designs.

MANUFACTURING

Leading manufacturers

Additional manufacturing and component partners, named as disclosure clears.

HOST PARTNERS

Industrial and district energy

Host partner categories across wastewater treatment, food and beverage, and district energy networks.

Long section through a MicroLink data hall delivering recovered heat to an adjacent greenhouse, with hot and cool loops and the dry cooler rejection path

Research

ReferenceTopicWithStatus
R1Heat recovery performance, placeholder topicUniversity research collaborationPlaceholder
R2Co dispatch of compute, generation and heatInternalPlaceholder
R3800 V DC distribution studyPlaceholder partnerPlaceholder