Skip to the beginning of the images gallery

49-solo-negative-microwave

$29,471.63

In stock

SKU

2080

Solo Negative Microwave: the microwave pump runs, heat is drawn out of the working medium, which turns cold, and is dumped at the remote heat exchanger, animated picture

Asset valuation: $3,000,000,000. Design Author: Christopher Gabriel Brown Address: Lawrenceville, Georgia Email: christopher@cri-one.com — christopher@cri-one.com Date: 2026-06-14 Anchor disclosure: Invent Deposition #3554 — Negative Microwave Technology and Format, Inv

For the curious

Think of the microwave oven on your kitchen counter, then run it backwards. The oven pumps energy into a polar medium and leaves it there as heat. The negative microwave keeps the same cavity engineering, magnetron supply chain and dielectric materials, but reverses the pump: it draws energy out of the medium's thermal mode and dumps it at a remote heat exchanger. No fluorinated refrigerant, no compressor wear, no phase-out exposure, and a service-life target of three to five times a comparable vapour-compression plant. The 2017 deposition put it plainly: "the same ovens that make things work for warmth can make things stay cold." Project 49 lifts that paragraph out of the Private Energy Building and gives it a product line of its own.

What ships is the configuration catalog: forty-two named configurations in seven application domains, set by ten axes, from one watt to fifty megawatts of cold-side authority. A datacenter operator will find chip, rack, immersion-cabinet and aisle configurations; a building owner the chillers and district plants, the largest of which fills about the volume of a small shipping container. Pick a named configuration, tune one inside its published envelope, or derive a new one with the eleven-step recipe. It is patent-pending, framed as closed-loop refrigeration and nothing more, design targets only, with its own safety bulletin. The buyer walks away with the catalog, the sizing rule and the integration playbook for every domain where cold-side authority is the bottleneck. The IP stays with the inventor.

Details

Description

Project 49 — Solo Negative Microwave

Inventor: Christopher Gabriel Brown

Anchor disclosure: Invent Deposition #3554 — Negative Microwave Technology and Format , published in Invent Depositions by Christopher Gabriel Brown (ISBN 9781979767897, CreateSpace Independent Publishing Platform, shipped 24 November 2017)

Patent-pending. Design targets only. Closed-loop refrigeration framing, not self-recharging or perpetual-motion claim. First to market — documented public offering, not a determination of patent priority.

Safety Bulletin: CRI-ONE-SB-49-001, Revision 1.0, issued 2026-06-14

SKU: 2080

Overview

49-solo-negative-microwave is the standalone product that lifts Negative Microwave Technology and Format out of its first appearance as a subsystem of the Project 48 Private Energy Building and gives it its own product line, its own configuration catalog, its own price ladder, and its own integration playbook for every application domain in which active cold-side authority is the bottleneck.

The 2017 deposition established the principle in plain English: “the same ovens that make things work for warmth can make things stay cold.” Project 49 is the operationalisation of that paragraph as a sellable product family. Negative Microwave is not a peripheral technology and it is not a single appliance; it is a parametric-process cold-side discipline whose underlying physics is shared with the consumer microwave oven, whose underlying supply chain is the same supply chain that produces magnetrons by the million, and whose deployment surface ranges from microliter quantum-chip refrigerators to cubic-metre commercial building chillers to fifty-cubic-metre utility-scale district-cooling plants.

The technology is active microwave-band parametric refrigeration . The consumer microwave oven is a parametric down-conversion device — the pump at 2.45 GHz couples to the polar working medium and deposits energy as bulk heating. The negative microwave is an up-conversion device — the pump draws energy out of the medium’s thermal mode population and transfers it into a pump-frequency signal that is dumped at a remote heat exchanger. Same cavity engineering, same magnetron supply chain, same dielectric materials; the pump direction is reversed. No fluorinated refrigerant, no compressor wear, no GWP phase-out exposure. Working medium is a polar liquid, gas, or engineered dipole compound. Service life is 3–5× a comparable vapour-compression plant.

The Configuration Catalog

The configuration catalog spans seven orders of magnitude in cold-side authority — from 1 W to 50 MW — across 42 named configurations in seven application domains , specified by ten orthogonal configuration axes . Three modes of use are supported: selection (pick a named configuration), specification (tune within the published variability envelope), and derivation (design a new configuration from first principles via the eleven-step custom-configuration recipe).

The Ten Configuration Axes

Axis Options Range

1. Pump Frequency Band F1–F9 (9 options) 433 MHz to 183 GHz

2. Cavity Volume V1–V9 (9 options) 1 cm³ to 50 m³

3. Working Medium W1–W7 (7 families) 0.01 K to 340 K operating window

4. Heat-Rejection Style H1–H8 (8 styles) Passive radiation to thermoelectric recovery

5. Operating Envelope T1–T8 (8 windows)

6. Coupling Architecture C1–C7 (7 architectures) Direct contact to immersion bath

7. Power Tier P1–P9 (9 tiers) 1 W to 50 MW

8. Form Factor FF1–FF9 (9 factors) Chip-embedded to distributed multi-node

9. Control Authority CL1–CL6 (6 families) Open-loop to quantum-coherent

10. Pump-Source Technology PS1–PS6 (6 sources) Phase-locked magnetron to maser-style coherent source

Pump Frequency Options

Option Frequency Application Domain Supply-Chain Anchor

F1 433 MHz UHF, low-loss, large cavity Amateur-radio class

F2 915 MHz ISM lower band, industrial heating Industrial cooker class

F3 2.45 GHz (canonical) ISM, consumer microwave oven Consumer oven class

F4 5.8 GHz ISM upper band Industrial Wi-Fi class

F5 24.125 GHz K-band, automotive radar Automotive radar class

F6 60 GHz V-band, short-haul wireless Datacomp transceiver class

F7 94 GHz W-band, millimetre-wave Instrument class

F8 122 GHz D-band, high-resolution sensing Research instrument class

F9 183 GHz Sub-mm, atmospheric water Research class

Working-Medium Families

Family Type Operating Window Pump Frequency tan δ at 2.45 GHz COGS per Litre

W1 Polar liquid, aqueous 270–320 K F1–F4 1.5–3.0 × 10³

W2 Polar liquid, organic 230–320 K F1–F4 0.8–2.5 × 10³ $50–$500

W3 Polar gas, conventional 80–250 K F2–F5 0.3–1.2 × 10³ $200–$2,000

W4 Engineered dipole compound 200–340 K F2–F6 0.5–1.5 × 10³ $1,000–$25,000

W5 Quantum-paramagnetic medium 0.01–4 K F6–F9 n/a $50,000–$2,000,000

W6 Phase-change intermediate 200–340 K F2–F4 Family-dependent $200–$5,000

W7 Solid-state dielectric 4–300 K F4–F9 0.4–1.2 × 10³ $5,000–$50,000

Power Tiers and Cavity Sizing

Tier Cold-Side Authority Approx. Cavity Volume Form Factor

P1 — Instrument 1 W 1 cm³ Chip-embedded

P2 — Module 10 W 10 cm³ Plug-in module

P3 — Electronics 100 W 100 cm³ Compact appliance / tabletop

P4 — Small Appliance 1 kW 1 L Tabletop

P5 — Rack 10 kW 10 L 1U–2U rack-mount

P6 — Commercial Chiller 100 kW 100 L Floor cabinet

P7 — Building Chiller 1 MW 1 m³ Service-room install

P8 — District Plant 10 MW 10 m³ Equipment-room / container

P9 — Utility Plant 50 MW 50 m³ Multi-container

Cavity volume sizing rule: approximately 1 cm³ of cavity volume per watt of cold-side authority for polar-liquid working medium at the design-target saturation fraction of 20–40%. Even the largest configuration (50 MW utility plant) occupies only 50 m³ of cavity volume — comparable to a small intermodal shipping container.

Seven Application Domains — 42 Named Configurations

Domain 1: Quantum Computing and Cryogenic (6 configurations)

Configuration Authority Target Temp COP Pump Medium Refresh

NM-Q-80K 100 W 80 K 0.4–0.6 F5 (24.125 GHz) W3 (polar gas, NH₃-class) 30,000–50,000 h

NM-Q-50K 300 W 50 K 0.25–0.35 F5 (24.125 GHz) W3 (refined NH₃) 25,000 h

NM-Q-10K 10 W 10 K 0.08–0.12 F6 (60 GHz) W3+W4 (mixed gas + engineered dipole) 18,000 h

NM-Q-04K 1 W 4 K 0.03–0.05 F6 (60 GHz) + F7 (94 GHz) trim W5 (quantum-paramagnetic) 12,000 h

NM-Q-01K 100 mW 1 K 0.005–0.008 F8 (122 GHz) W5 (quantum-paramagnetic, custom) 8,000 h

NM-Q-04mK 10 mW 40 mK 0.0008–0.0012 F9 (183 GHz) W5 (quantum-paramagnetic, custom) 5,000 h

Domain 2: Data-Centre and Compute-Cooling (5 configurations)

Configuration Authority Target Temp COP Pump Medium Refresh

NM-DC-CHIP 300 W 295 K (chip junction) 4–6 F4 (5.8 GHz) W7 (solid-state dielectric) 40,000 h

NM-DC-RACK 25 kW per rack 295 K 4.5–5.5 F3 (2.45 GHz) W1 (polar liquid, aqueous) 35,000 h

NM-DC-IMMERSE 100 kW per cabinet 300 K 4.0–5.0 F3 (2.45 GHz) W1 (polar liquid, aqueous) 30,000 h

NM-DC-AISLE 250 kW per aisle 293 K 5.0–6.0 F3 (2.45 GHz) W1 (polar liquid, aqueous) 40,000 h

NM-DC-ROOM 1 MW per plant 293 K 5.5–6.5 F3 (2.45 GHz) W1 (polar liquid, aqueous, circulating) 45,000 h

Domain 3: Building HVAC (5 configurations)

Configuration Authority Target Temp COP Pump Medium Refresh

NM-HVAC-SMALL 30 kW 293 K 4.5–5.5 F3 (2.45 GHz) W1 (polar liquid, aqueous) 40,000 h

NM-HVAC-MED 200 kW 293 K 5.0–6.0 F3 (2.45 GHz) W1 (polar liquid, aqueous) 40,000 h

NM-HVAC-LARGE 1 MW 293 K 5.5–6.5 F3 (2.45 GHz) W1 (polar liquid, aqueous) 45,000 h

NM-HVAC-DISTRICT 10 MW 293 K 6.0–7.0 F3 (2.45 GHz) W1 (polar liquid, aqueous) 50,000 h

NM-HVAC-UTILITY 50 MW 293 K 6.5–7.5 F3 (2.45 GHz) + F2 (915 MHz) trim W1 (polar liquid, aqueous) 50,000 h

Domain 4: Industrial Process Cooling (5 configurations)

Configuration Authority Target Temp COP Pump Medium Refresh

NM-IND-CHEM 100 kW 230 K 2.5–3.5 F3 (2.45 GHz) W2 (polar liquid, organic) 30,000 h

NM-IND-METAL 2 MW 305 K 5.0–6.0 F2 (915 MHz) W1 (polar liquid, aqueous, treated) 35,000 h

NM-IND-FOOD 150 kW 255 K 3.0–4.0 F3 (2.45 GHz) W1 (polar liquid, food-grade) 35,000 h

NM-IND-PHARMA 50 kW 250 K 3.0–4.0 F4 (5.8 GHz) W2 (polar liquid, pharma-grade organic) 40,000 h

NM-IND-SEMI 200 kW (± 0.01 K stability) 293 K 4.5–5.5 F4 (5.8 GHz) W4 (engineered dipole, ultrapure) 50,000 h

Domain 5: Aerospace and Defence (5 configurations)

Configuration Authority Target Temp COP Pump Medium Refresh

NM-AD-DEW 50 kW peak / 10 kW sustained 300 K 3.0–4.0 sustained F5 (24.125 GHz) W4 (engineered dipole, fast-response) 20,000 h

NM-AD-SAT 200 W 120 K 0.6–0.9 F6 (60 GHz) W7 (solid-state, space-qualified) Mission life (10 yr design)

NM-AD-SPACE 20 W 4 K 0.02–0.04 F7 (94 GHz) W5 (quantum-paramagnetic, custom) Mission life (15+ yr design)

NM-AD-AIRCRAFT 5 kW 300 K 4.0–5.0 F4 (5.8 GHz) W1 (polar liquid, aviation-grade) 25,000 flight hours

NM-AD-VEHICLE 20 kW 293 K 4.0–5.0 F3 (2.45 GHz) W1 (polar liquid, vehicle-grade) 15,000 h

Domain 6: Medical and Biological (5 configurations)

Configuration Authority Target Temp COP Pump Medium Refresh

NM-MED-MRI 500 W 4 K 0.04–0.06 F6 (60 GHz) W3+W5 30,000 h

NM-MED-VACCINE 10 kW 190 K (mRNA-compatible) 1.5–2.0 F3 (2.45 GHz) W2 (polar liquid, organic) 40,000 h

NM-MED-CRYO 15 kW 110 K (LN₂ cryo class) 0.6–0.9 F4 (5.8 GHz) W3 (polar gas, biocompatible) 40,000 h

NM-MED-PCR 200 W (fast cycling 270–370 K) Cycling 2.0–3.0 (averaged) F4 (5.8 GHz) W7 (solid-state dielectric) 20,000 h

NM-MED-IMPLANT 50 mW 310 K (body temperature) 1.0–1.5 F6 (60 GHz) W7 (solid-state, biocompatible) Device life (5–10 yr design)

Domain 7: Speciality and Research (6 configurations)

Configuration Authority Target Temp COP Pump Medium Refresh

NM-SP-LAB 300 W (± 0.001 K stability) 293 K 4.0–5.0 F3 (2.45 GHz) W1 (polar liquid, aqueous) 30,000 h

NM-SP-CONCPV 20 kW 325 K 3.5–4.5 F3 (2.45 GHz) W1 (polar liquid) 40,000 h

NM-SP-FUSION 5 W 2 K 0.01–0.02 F8 (122 GHz) W5 (quantum-paramagnetic) 10,000 h

NM-SP-PHOTO 30–90 kW (three loops combined) 293–340 K 4.0–6.0 weighted F3 (2.45 GHz) W1 (polar liquid, aqueous) 25,000–50,000 h

NM-SP-DATAARCHIVE 5 kW 150 K 0.7–1.0 F4 (5.8 GHz) W3 (polar gas, archival-grade) 80,000 h (10-year continuous)

NM-SP-CUSTOM Customer-specified Customer-specified Derived Customer-specified Customer-specified Derived

Engineering Specifications

The vault includes a complete engineering specification covering parametric-process working equations, cavity-Q and loss budgets, thermodynamic accounting, pump-frequency selection rules, working-medium parameter tables, pump-amplitude and saturation-fraction rules, cavity-volume sizing equations, dielectric-stack compatibility matrices, heat-rejection sizing, coupling heat-exchanger sizing, cross-axis compatibility rules, control-law families, and service-life modelling.

Key Equations

Three-mode coupled-amplitude formalism — the pump ( p ), signal ( s ), and idler ( i ) complex amplitudes satisfy:

da p /dt = −γ p a p + κ a s a i *
da s /dt = −γ s a s − κ a p a i
da i /dt = −γ i a i + κ a p a s *

Steady-state cold-side authority: Q̇ c = ℏω s × |κ|² × |a p |² × N s

Coefficient of performance: COP = (η pump × ℏω s × |κ|² × N s ) / γ p

Carnot bound: COP ≤ COP Carnot = T c / (T h − T c )

Cavity-Q decomposition: 1/Q total = 1/Q dielectric + 1/Q wall + 1/Q coupling

Cavity volume sizing: V c = Q̇ c × (cm³/W coefficient) × (0.30 / α s )

Service-life model: L r = L 0 × (0.30 / α s ) 2.5 × f medium × f temperature — where L 0 ≈ 35,000 hours for W1 polar-liquid aqueous on alumina dielectric.

Second-Law Efficiency by Configuration Class

Configuration Class Typical η (COP / COP Carnot )

HVAC, building chiller, data centre 0.50–0.70

Industrial process cooling 0.30–0.55

Aerospace and defence (ambient-T) 0.40–0.60

Vaccine and pharma 0.25–0.40

LN₂ replacement (80 K class) 0.60–0.90

Cryogenic (4–80 K) 0.25–0.40

Sub-Kelvin ( 0.08–0.20

Cavity-Q by Working Medium

Medium Q dielectric Q wall Q coupling Q total

W1 polar liquid aqueous at 2.45 GHz 600–700 8,000–15,000 2,000–5,000 500–650

W5 quantum-paramagnetic at 60 GHz 10⁶ 10⁵ 10⁴ 9,000–10,000

Dielectric-Stack Compatibility Matrix

Dielectric W1 W2 W3 W4 W5 W6 W7

Alumina (Al₂O₃) Yes Yes Yes Yes Yes Yes Yes

Fused silica (SiO₂) Yes Yes Yes Yes Yes Yes Yes

PTFE (Teflon) Yes Yes Yes Yes — Yes —

Magnesium fluoride Conditional Yes Yes Yes Yes Yes Yes

Polyimide Yes Yes — — — Yes Yes

Sapphire Yes Yes Yes Yes Yes Yes Yes

Beryllium oxide Yes Yes Yes Yes Yes Yes Yes

Diamond CVD Yes Yes Yes Yes Yes Yes Yes

Saturation Fraction Operating Guidelines

Application Class Recommended α s Rationale

Steady-state HVAC 0.20–0.35 Maximum COP, longest service life

Building chiller 0.25–0.40 Maximum COP, long service life

Industrial process 0.30–0.45 Modest authority headroom

Aerospace transient 0.35–0.55 Peak-shaving headroom

Directed-energy peak 0.50–0.70 Maximum authority, accepted reduced refresh

Sub-Kelvin 0.40–0.65 Required for adequate authority

Operating above α s = 0.75 is strongly discouraged: cavity-Q degrades rapidly, dielectric-stack heat absorption accelerates, and dielectric refresh interval drops by an order of magnitude.

Pump-Source Technologies

Source Type Frequency Range Max Amplitude per Chain COGS Anchor

PS1 Magnetron, phase-locked F2–F3 5 kW Consumer oven

PS2 Klystron, phase-locked F1–F5 500 kW Industrial broadcast

PS3 Solid-state Doherty amplifier F1–F4 50 kW Modern RF

PS4 Solid-state phased array F1–F6 5 MW combined Modern phased-array

PS5 Travelling-wave tube amplifier F4–F9 1 MW Aerospace/defence

PS6 Maser-style coherent source F6–F9 Specialised Research instrument

Heat-Rejection Styles

Style Type Surface Flux Limit Recovery

H1 Passive radiation ≤ 800 W/m² None

H2 Forced-air heat exchanger ≤ 5 kW/m² None

H3 Forced-liquid heat exchanger ≤ 50 kW/m² Optional

H4 Phase-change heat pipe ≤ 100 kW/m² None

H5 District-cooling tap ≤ 10 MW/m² Yes (district recovery)

H6 Underground thermal mass ≤ 5 MW seasonal Yes (seasonal recovery)

H7 Thermoelectric recovery layer Up to 5% returned to bus Yes (electrical recovery)

H8 Sky-radiation panel ≤ 200 W/m² (night-enhanced) None

Control-Law Families

Family Implementation Response Time Typical Applications

CL1 Open-loop set-and-forget n/a Instrument, implantable, deep-space

CL2 Slow PID, soft and moderate 1–10 min HVAC, building chiller, district

CL3 Fast PID, application-tuned 10–60 s Rack, server, vehicle, aircraft

CL4 Model-predictive control 1–10 s Semiconductor fab, transient DEW

CL5 Phase-locked parametric Sub-Kelvin, dilution-adjacent

CL6 Quantum-coherent control sub-ms Research / sub-Kelvin extremes

Coupling Architectures

Code Architecture Design Heat Flux Typical Application

C1 Direct contact 100 W/cm² Chip-scale, small electronics

C2 Cold plate, conductive 20 W/cm² Rack-mount, board-level

C3 Cooled fluid loop 5 W/cm² Building chiller, district plant

C4 Heat-pipe distribution 50 W/cm² Geographically distributed loads

C5 Radiative coupling 0.1 W/cm² Cryogenic, space, isolated load

C6 Phase-change intermediate 200 W/cm² peak Transient-response, peak-shaving

C7 Immersion bath 10 W/cm² Server immersion, IC packaging

Prior Art and Patent Landscape

The vault includes a verified prior-art document listing real, checkable patent numbers and academic references. The key finding: no patent or peer-reviewed paper of record describes a microwave-band parametric cavity operated in the cold-side direction as a refrigerator, using the consumer-microwave-oven supply chain as the cost-of-goods anchor. The 2017 deposition sits in this gap.

Adjacent Patent Families Reviewed

Patent Title Anchor Gap

US5715690A Microwave thermal heat pump defroster 1998 MW as auxiliary to vapour-compression; not the cycle itself

US4880954A Combined refrigerator and microwave oven 1989 Two separate appliances in one cabinet

US3548199A Parametric devices utilizing Ba₂NaNb⁵O₁₅ 1970 Parametric amplification, not refrigeration

US6281746B1 Parametric cavity microwave amplifier 2001 Cavity parametric amplifier; energy pump→signal, not cold-side

US9574801B1 Solid state optical refrigeration (Stark manifold) 2017 Anti-Stokes fluorescence, not parametric microwave

US4757688A Solid-state electrocaloric cooling 1988 Electrocaloric effect, different mechanism

US4332135A Active magnetic regenerator 1982 Magnetocaloric, different mechanism

Academic References

Reference Topic

Boyd, Nonlinear Optics , 3rd ed. (2008) Parametric-process textbook

Yariv & Yeh, Optical Waves in Crystals (1984) Parametric coupling formalism

Caves, Phys. Rev. D 26, 1817 (1982) Quantum limits on parametric noise

Pozar, Microwave Engineering , 4th ed. (2011) Cavity engineering reference

Breeze et al., Nature 555, 493 (2018) Continuous-wave room-temperature diamond maser

Sherrill et al., Phys. Rev. X 14, 041066 (2024) Room-temperature solid-state maser amplifier

Devoret & Schoelkopf, Science 339, 1169 (2013) Superconducting circuits for quantum information

Çengel & Boles, Thermodynamics , 8th ed. (2014) Engineering thermodynamics

ASHRAE Handbook — Refrigeration, 2022 SI Edition Industry refrigeration standard

Christopher Gabriel Brown, Invent Depositions (2017) Anchor disclosure, entry #3554

Safety Bulletin Summary (CRI-ONE-SB-49-001 Rev 1.0)

The vault includes a formal safety bulletin covering all 42 configurations from instrument tier to utility tier. Hazard classifications reference FCC OET-65, IEEE C95.1, ICNIRP 2020, NFPA 70/70E/75/850, OSHA 29 CFR 1910/1926, and ASHRAE 15. Coverage includes RF exposure (ISM-band and millimetre-wave), electrical safety (low-voltage to medium-voltage), cryogenic surfaces, hot surfaces, chemical working-medium hazards, fire suppression, confined-space entry, and falls/height for large-tier installations.

Off-Normal Event Classes

Class Trigger Response

Normal All parameters within design envelope Continue operation

Alert Any parameter at 80% of off-normal threshold Operator notification

Off-normal A Single parameter excursion Controlled load reduction; investigate

Off-normal B Two+ parameter excursions or RF-leakage alarm Pump-source amplitude reduced; investigate; restore

Emergency Working-medium release, fire, electrical fault, sustained personnel exposure Full emergency shutdown sequence

Scheduled Maintenance Intervals

Activity Interval Tier Coverage

Routine inspection Weekly All

RF-leakage survey Monthly All

Working-medium-loop inspection Quarterly All

Cavity-Q measurement Quarterly P3+

Pump-amplitude calibration Quarterly P3+

Dielectric-stack inspection At 50% of refresh interval All

Dielectric-stack refresh At published refresh interval (5,000–80,000 h) All

Full annual inspection Annual All

Commercial Terms and Pricing Ladder

The technology is available through a four-step framework: Proof of Function (POF), Tech Validation (TV), Evaluation Licence (EL), and Full Acquisition (FA). All prices are USD, firm, and not negotiated. All payments are final, non-refundable, and non-recoverable. Available only to US-incorporated, US-headquartered, US-primarily-operating entities.

Power Tier Authority POF TV EL FA

P1 Instrument 1 W $5,000 $50,000 $500,000 $5,000,000

P2 Module 10 W $5,000 $50,000 $500,000 $5,000,000

P3 Electronics 100 W $10,000 $100,000 $1,000,000 $10,000,000

P4 Small Appliance 1 kW $10,000 $100,000 $1,000,000 $10,000,000

P5 Rack 10 kW $25,000 $250,000 $2,500,000 $25,000,000

P6 Commercial Chiller 100 kW $50,000 $500,000 $5,000,000 $50,000,000

P7 Building Chiller 1 MW $100,000 $1,000,000 $10,000,000 $100,000,000

P8 District Plant 10 MW $250,000 $2,500,000 $25,000,000 $250,000,000

P9 Utility Plant 50 MW $500,000 $5,000,000 $50,000,000 $500,000,000

Complete-product-family Full Acquisition of all 42 configurations across all seven application domains, with worldwide commercialisation rights and the full IP package: $10,000,000,000 (ten billion United States dollars), fixed and not negotiated. Up to four jointly-and-severally-liable USA-incorporated buyers; staged delivery within 90 business days.

Bundle Discounts

Bundle Discount

2 configurations 10%

3–5 configurations 15%

6–10 configurations 20%

Entire application domain (5–6 configs) 25%

Two entire application domains 30%

Three or more entire application domains 35%

Complete 42-configuration family $10B fixed

Payment Structures

Structure Availability Terms

One-time All tiers Full payment at execution

Instalments All tiers Monthly or quarterly, up to 60 months; interest at 5% or prime + 2%

Annual licensing EL only 25% of EL price annually; five-year cap at EL price

Revenue share FA only 5–15% of gross revenue, quarterly, for seven years

Royalty FA only Fixed royalty per unit, quarterly, for seven years

Milestone-based Any tier Keyed to validation/integration/revenue milestones

Deferred / net terms Any tier Net 90 or Net 180 days; pre-approval required

Strategic acquisition Any tier As part of broader portfolio acquisition

Target Customer Segments

Domain Target Buyers Core Pain Point

Quantum Computing IBM, Google, IonQ, Rigetti, PsiQuantum, Quantinuum, national labs, defence agencies Dilution refrigerators: $500K–$5M each, 6–12 month lead, He-3 logistics, milliwatt authority cap

Hyperscale Data Centres AWS, Microsoft, Google, Meta, Oracle, Equinix, Digital Realty Cooling = 30–50% of total facility power; HFO phase-out; immersion-cooling deployment friction

Commercial & Utility HVAC REITs, district-cooling utilities, hospital systems, university campuses HFO phase-out, ammonia safety, decarbonisation mandates

Industrial Process Chemical plants, semiconductor fabs, food/beverage, pharma, metallurgical mills Process-cooling reliability, refrigerant compliance, aging chiller fleets

Aerospace & Defence Lockheed Martin, Northrop Grumman, Boeing, Raytheon, L3Harris, satellite manufacturers Cooling for DEWs, satellite IR, deep-space probes; pulse-tube wear, JT low capacity, weight

Medical & Biological GE Healthcare, Siemens Healthineers, Philips, Canon Medical, vaccine & biotech firms MRI helium supply, vaccine cold-chain reliability, cryopreservation costs

Speciality & Research National labs, university groups, instrument manufacturers, fusion startups Bespoke cooling, long delivery, high specialised-cryocooler prices

Related Projects

Project Connection to Negative Microwave

48 — Private Energy Farms First operational use as a subsystem: three integrations (air-conditioning, oxygen stability, stable receiver box) inside the Artificial Laser Solar Recycle Building. Project 49 is the parent technology Project 48 borrowed.

31 — AutoPhi Electromagnetic IC Peltier-electromagnetic cooling at chip scale; complementary, not competitive.

05 / 32 — Quantum Battery / Quantum Battery Seed Two Closed-loop energy recovery context for cold-side demand; recovery thermoelectric layer is the same family.

17 — Small Microwave Nuclear Recycler Shares cavity-engineering discipline; same flange, same magnetron, different pump phase.

23, 35, 37 — Zetta Flops, AutoPhi Quantum PCIe5, Quantum Triplet Pi Cryogenic cooling for high-density compute; Project 49 cryo-tier configurations provide the cold-side authority.

What Is in the Package

The package contains 16 files (8 Markdown documents, 3 Word documents, 4 PDF documents, and 1 PNG block diagram) totalling approximately 2,782 lines of Markdown specification across 8 core documents.

File Format Description

README.md Markdown Overview, mission statement, vault contents, relation to other projects. 68 lines.

BOOK.md Markdown Long-form engineering and patent-history book. Six parts, 23 chapters. Covers the 2017 disclosure provenance, parametric-process physics, cavity design, working-medium selection, pump-source technology, coupling architectures, control philosophy, application surface, vapour-compression / thermoelectric / cryocooler prior art, patent landscape, and filing position. 321 lines.

CONFIGURATIONS.md Markdown The complete configuration catalog. Ten orthogonal axes, 42 named configurations across seven application domains, custom-configuration eleven-step recipe, cross-reference lookup tables (by authority, by working medium, by pump frequency, by COP), and working-medium selection procedure with loss budgets, pump-frequency compatibility, dielectric-stack compatibility, and cost-of-goods anchors. 11 chapters. 1,056 lines.

ENGINEERING.md Markdown Engineering specification. Notation and symbols, parametric-process working equations (three-mode coupled-amplitude formalism), cavity-Q and loss budget, thermodynamic accounting and Carnot bound, pump-frequency selection rules, working-medium parameter tables (all seven families), pump-amplitude and saturation-fraction rules, cavity-volume sizing equations, dielectric-stack compatibility matrix, heat-rejection sizing, coupling heat-exchanger sizing, cross-axis compatibility rules, control-law families, service-life and refresh-interval modelling, and bibliography. 15 chapters. 431 lines.

PLAYBOOK.md Markdown Commercial outreach playbook. Target customer segments, qualification questionnaire (10 questions), engagement workflow (POF through complete-family FA), conversation patterns (8 scenarios), term-sheet structure (12 sections), communication discipline, disqualification triggers. 8 chapters. 270 lines.

SAFETY_BULLETIN.md Markdown Formal safety bulletin CRI-ONE-SB-49-001 Rev 1.0. Hazard classification (RF, electrical, thermal, chemical, fire, falls, confined space), personnel requirements and PPE, engineering controls (RF shielding, cryogenic surfaces, hot surfaces, working-medium release, electrical isolation, fire suppression), off-normal event classification (5 classes), emergency response procedures, inspection and maintenance schedule, documentation and record-keeping requirements, variance procedures. 10 sections. 234 lines.

VALUATION.md Markdown Pricing tiers, IP-transfer scope by tier, payment structures (8 options), deliverable schedule, acquirer qualification requirements, restrictions and reservations, governing law (State of Georgia, Gwinnett County). 9 chapters. 217 lines.

PRIOR_ART.md Markdown Verified prior-art landscape. Adjacent patent families (17 verified patents reviewed across microwave heat-pump, parametric amplifier, solid-state refrigeration, and adjacent thermal-cycle categories), academic literature (10 references), gap analysis, honest assessment of what the 2017 deposition does and does not establish, filing strategy implications, risk factors. 7 chapters. 185 lines.

APPLICATION_DATA_SHEET.docx Word USPTO application data sheet.

INVENTOR_DECLARATION.docx Word Inventor declaration for patent filing.

NONPROVISIONAL_APPLICATION.docx Word Non-provisional patent application document.

aia0001.pdf PDF Patent filing documentation.

sb0015a.pdf PDF Supporting documentation.

N417.pdf PDF Filing reference document.

N417.PYMT.pdf PDF Payment confirmation document.

deliverables/fig1-block-diagram.png PNG Block diagram of the negative-microwave plant architecture.

How this is delivered

This package ships on a single Blu-ray disc, posted to the delivery address on your order. The archive on the disc is AES-256 encrypted; the passphrase is sent separately, by email, once the disc is despatched — so the disc alone is of no use to anyone who intercepts it.

Discs are despatched by tracked, signed-for post. Allow 5 business days for mastering and verification before despatch.

Photo

Stainless 'APEX' microwave, door open, with a salad-and-chicken dish inside, on a kitchen counter

Footnotes

Product number 8499.
Family: microwave energy recovery.
Purchase: When you buy, you buy the use of that blueprint only.

Reviews

Write Your Own Review