Houston, TX·Est. 2020·US Patent 11,391,511·US Patent 12,181,214

Patented Liquefaction Technology
for LH₂, LNG & Power Islands.

JTurbo has developed a twin turboexpander cryogenic platform designed to improve the energy economics of liquefaction and support modular deployment across selected LH₂, LNG, Bio-LNG, and Data Center behind-the-meter Power Island applications.

5.3kWh/kg
LH₂ Specific Energy Consumption
10–150 TPD · US Patent 11,391,511
270–300kWh/ton
LNG Specific Energy Consumption
SMR & N₂ Expander Cycles · US Patent 12,181,214
15–3,000TPD
Modular LNG Deployment Range
Bio-LNG & distributed gas applications
US Patent
11,391,511
LH₂ liquefaction platform architecture
US Patent
12,181,214
LNG liquefaction platform architecture
LH₂ SEC
5.3 kWh/kg
US Patent 11,391,511 · 10–150 TPD
LNG SEC
300 kWh/ton
US Patent 12,181,214 · 15–3,000 TPD
Modular LNG Range
15–3,000 TPD
Bio-LNG & distributed gas applications
About JTurbo

Founded to solve
the hydrogen cost problem.

Jacob Thomas founded JTurbo in Houston in 2020 with a specific engineering goal: reduce the specific energy consumption of liquid hydrogen production below the threshold that makes green hydrogen commercially competitive.

The result is the Twin Turboexpander Reverse-Brayton Cycle — a patented architecture that achieves 5.3 kWh/kg for LH₂ and 300 kWh/ton for LNG. Both figures are independently verifiable against published industry benchmarks. OEM performance guarantees are available to all clients.

LH₂ Patent
US 11,391,511
Twin Turboexpander Reverse-Brayton Cycle
LNG Patent
US 12,181,214
Same platform, natural gas application
Cryogenic Turboexpander
Core Technology

One patented platform.
Three critical applications.

JTurbo has developed a twin turboexpander cryogenic platform designed to improve the energy economics of liquefaction and support modular deployment across selected LH₂, LNG, Bio-LNG, and Data Center behind-the-meter Power Island applications.

How It Works
01

Feed Gas Preparation

Hydrogen or natural gas is purified and conditioned for cryogenic duty before entering the main liquefaction architecture.

02

Pre-Cooling Strategy

Pre-cooling is optimized to the project basis, leveraging available energy inputs and integration opportunities to maximize efficiency.

03

Twin Turboexpander Stage

The core platform uses twin turboexpanders operating in parallel to deliver industry-leading thermodynamic efficiency in cryogenic liquefaction.

04

Liquefaction & Storage Interface

The cold-box and storage handoff are engineered as part of a complete deployment architecture, ready for EPC integration.

Applications
LH₂

Liquid Hydrogen

A liquid hydrogen pathway built around transport, storage, export, and industrial decarbonization economics — delivering 5.3 kWh/kg in standard configuration.

5.3 kWh/kg
Standard configuration · 10–150 TPD
LNG / Bio-LNG

LNG / Bio-LNG

Modular liquefaction for natural gas, biomethane, landfill gas, and distributed LNG — where efficiency and modularity drive project economics.

270–300 kWh/ton
SMR & N₂ Expander Cycles · 15–3,000 TPD
Power Infrastructure

Power-Constrained Infrastructure

Liquefaction-enabled energy architectures for data centers, industrial facilities, and remote power applications requiring fuel storage and grid independence.

Behind-the-Meter
On-site LH₂/LNG production · Power autonomy
Liquid Hydrogen — LH₂

Hydrogen
Liquefaction

5.3 kWh/kg Specific Energy Consumption — 50–65% below any incumbent system. Three configurations are available depending on pre-cooling source and site constraints. All configurations carry OEM performance guarantees.

Standard LH₂

SEC5.3 kWh/kg
Exergy Efficiency74%
Capacity10–150 TPD
Pre-CoolingNone

LNG Pre-Cooled

SEC4.5 kWh/kg
Exergy Efficiency87%
Capacity10–150 TPD
Pre-CoolingLNG

LN₂ Pre-Cooled

SEC3.6 kWh/kg
Exergy Efficiency108%
Capacity10–150 TPD
Pre-CoolingLiquid N₂

Competitive Landscape

CompanySEC (kWh/kg)CapacityEst. CAPEX
Legacy Industries11–15 kWh/kg15–30 TPDHigh CAPEX
JTurbo5.3 kWh/kg10–150 TPD~50% lower CAPEX
Legacy Industries
SEC11–15 kWh/kg
Capacity15–30 TPD
Est. CAPEXHigh CAPEX
JTurbo
SEC5.3 kWh/kg
Capacity10–150 TPD
Est. CAPEX~50% lower CAPEX
LH2 Liquefaction Plant
Performance Guarantee

5.3 kWh/kg SEC — 74% Exergy Efficiency

With LNG pre-cooling: 4.5 kWh/kg (87% exergy)  ·  With LN₂: 3.6 kWh/kg (108% exergy)

LNG Liquefaction

LNG Liquefaction — 300 kWh/ton

Pure nitrogen refrigerant — inherently safe, inert, non-flammable. Modular and scalable from 15 to 3,000 TPD, deployable on land or offshore. 300 kWh/ton SEC with OEM performance guarantees.

Key Performance Metrics

PatentUS 12,181,214
Capacity Range15 – 3,000 TPD
Output Temperature−162 °C
Nitrogen Expander Cycle SEC300 kWh/ton · 50–3,000 TPD
SMR Cycle SEC270 kWh/ton · 15–3,000 TPD
RefrigerantPure Nitrogen (N₂)
Refrigerant SafetyNon-flammable, inert
DesignModular, skid-mounted
DeploymentOnshore & FLNG
Bio-LNG / Distributed GasAdditional configurations available

vs. Legacy LNG Technology

CompanySECCapacityEst. CAPEX
Legacy Industries500–600 kWh/ton50–3,000 TPDHigh CAPEX
JTurbo270–300 kWh/ton15–3,000 TPD~50% lower CAPEX
Legacy Industries
SEC500–600 kWh/ton
Capacity50–3,000 TPD
Est. CAPEXHigh CAPEX
JTurbo
SEC270–300 kWh/ton
Capacity15–3,000 TPD
Est. CAPEX~50% lower CAPEX

Target Applications

Floating LNG (FLNG)

Compact, modular design ideal for offshore FLNG vessels. Pure N₂ refrigerant eliminates flammable refrigerant risks on marine platforms.

Stationary LNG Plants

Scalable from 15 to 3,000 TPD. Competitive with mixed-refrigerant systems at a fraction of the complexity and operational risk.

Bio-LNG

Liquefaction of biomethane from agricultural waste, landfill gas, and wastewater treatment — enabling carbon-negative LNG for transport and industry.

Data Center Power

On-site LH₂/LNG production for behind-the-meter power generation at hyperscale AI data centers, bypassing grid constraints entirely.

LNG Liquefaction Plant — JTurbo
N₂ Expander Cycle
300 kWh/ton
50–3,000 TPD
SMR Cycle
270 kWh/ton
15–3,000 TPD
Capacity Range
15–3,000 TPD
Modular Deployment

LNG / Bio-LNG Liquefaction — N₂ Expander & SMR Cycles · US Patent 12,181,214

Performance

OEM-guaranteed
energy performance.

JTurbo has developed a twin turboexpander cryogenic platform designed to improve the energy economics of liquefaction and support modular deployment across selected LH₂, LNG, Bio-LNG, and Data Center behind-the-meter Power Island applications.

Liquid Hydrogen — LH₂
US Patent 11,391,511
Capacity: 10–150 TPD · N₂ Reverse-Brayton Cycle
Standard Configuration
10–150 TPD
5.3 kWh/kg
N₂ Pre-Cooled
10–150 TPD
4.5 kWh/kg
Integrated Industrial Complex
10–150 TPD
3.6 kWh/kg
LNG / Bio-LNG
US Patent 12,181,214
Capacity: 15–3,000 TPD · Modular Deployment
Nitrogen Expander Cycle
50–3,000 TPD
300 kWh/ton
SMR Cycle
15–3,000 TPD
270 kWh/ton
Additional configurations available for Bio-LNG and distributed gas applications.
Applications

Where the platform applies.

JTurbo has developed a twin turboexpander cryogenic platform designed to improve the energy economics of liquefaction and support modular deployment across selected LH₂, LNG, Bio-LNG, and Data Center behind-the-meter Power Island applications.

LNG / Bio-LNG

Modular LNG Liquefaction

For onshore, distributed gas, stranded gas, and small-to-midscale LNG opportunities where modularity and energy efficiency improve project economics.

270–300 kWh/ton
LNG SEC · SMR & N₂ Expander Cycles
▼ More
Bio-LNG

Bio-LNG and Methane Monetization

For landfill gas, agricultural waste, wastewater gas, and biomethane sources where liquefaction converts distributed methane into transportable low-carbon fuel.

25–100 TPD
Near-term Bio-LNG capacity range
▼ More
LH₂

Hydrogen Liquefaction

For hydrogen storage, transport, export, and industrial decarbonization — delivering lower liquefaction energy that materially improves delivered hydrogen economics.

5.3 kWh/kg
LH₂ SEC · 10–150 TPD
▼ More
Power Infrastructure

Behind-the-Meter Fuel and Power

For large-load sites where grid constraints, resilience requirements, fuel security, and thermal integration justify an on-site LNG or LH₂ energy architecture.

Behind-the-Meter
On-site LH₂/LNG energy architecture
▼ More
Market Opportunity

Four markets.
One platform.

JTurbo has developed a twin turboexpander cryogenic platform designed to improve the energy economics of liquefaction and support modular deployment across selected LH₂, LNG, Bio-LNG, and Data Center behind-the-meter Power Island applications.

$300B+ by 2030

Green Hydrogen

Electrolysis-based green H₂ requires liquefaction to be economically transportable. JTurbo's 5.3 kWh/kg SEC makes LH₂ cost-competitive with grey hydrogen for the first time.

IRA tax credits (USA)
EU Hydrogen Strategy
Japan/Korea import demand
Industrial decarbonization
$500B+ infrastructure build-out

Hyperscale Data Centers

AI compute demand is outpacing grid capacity. On-site LH₂/LNG using JTurbo technology provides reliable, dispatchable power independent of constrained electricity grids.

AI/GPU cluster power demand
Grid interconnection delays (2–7 yrs)
Tier-4 uptime requirements
Carbon-neutral mandates
$120B global FLNG market

Floating LNG (FLNG)

Pure N₂ refrigerant is inherently safe for offshore FLNG — eliminating the fire/explosion risk of mixed-refrigerant systems on marine platforms.

Stranded offshore gas monetization
LNG demand growth in Asia & Africa
Safety regulations favoring N₂ cycles
Modular deployment
50% of global CO₂ emissions

Industrial Decarbonization

Steel, cement, chemicals, and refining cannot electrify directly. Green hydrogen as LH₂ is the only viable pathway to deep decarbonization for these sectors.

Carbon border adjustment mechanisms
Net-zero corporate commitments
Green steel demand
Carbon pricing globally
Hyperscale AI Data Center with On-Site LH₂/LNG Production
Data Centers — Closer Look

AI data centers need power
the grid cannot reliably provide.

Power Autonomy
LH₂ / LNG
On-Site Production

Hyperscale AI Data Center — On-Site LH₂/LNG Production for Power Autonomy

On-Site Power — Key Points

3–7 Day On-Site Fuel Reserve

JTurbo's on-site LH₂/LNG production provides immediate, dispatchable, behind-the-meter power — independent of grid constraints. On-site storage provides full-load backup for 3–7 days with no external supply chain dependency.

Why Not Diesel

Diesel generators are inadequate for modern hyperscale AI facilities: fire/explosion hazard at scale, supply chain vulnerability, NOₓ/SOₓ emissions that violate air quality permits, carbon intensity that disqualifies ESG-compliant roadmaps, and 30–90 second startup latency incompatible with tier-4 uptime and additional CAPEX (for Diesel Gen sets).

Scalable from 10 MW to 500 MW+

JTurbo's modular architecture scales from small edge data centers to the largest hyperscale campuses. Multiple liquefaction trains can be deployed in parallel, each independently operable — providing N+1 redundancy at the fuel production level.

Commercial Engagement

Active discussions across six continents.

JTurbo has active engagements and technical discussions across the USA, EU, India, Middle East, Africa, and Australia — each at a different stage of commercial and technical development.

Active Engagement
Proposal Stage
Technical Review
Under Evaluation
JTurbo Global Commercial Engagement Map
USA
Houston, TX (HQ)
ACTIVE ENGAGEMENT

LH₂ for green ammonia and industrial decarbonization; data center LNG; refinery hydrogen applications.

European Union
Germany, Netherlands
PROPOSAL STAGE

Green H₂ for DRI steelmaking; offshore wind-to-LH₂ storage; Bio-LNG from agricultural waste.

India
Multiple states
ACTIVE ENGAGEMENT

Green ammonia export; industrial hydrogen for refining; LNG distributed gas monetization.

Middle East
Saudi Arabia, UAE
TECHNICAL REVIEW

Blue/green H₂ export; LNG capacity expansion; behind-the-meter power infrastructure.

Africa
South Africa, Namibia
ACTIVE ENGAGEMENT

Green H₂ export hub; renewable energy storage; distributed LNG for industrial applications.

Australia
Western Australia
UNDER EVALUATION

LH₂ export to Japan and Korea; solar-powered hydrogen production; stranded gas monetization.

Execution Model

From technical review to first liquid.

JTurbo is positioned as a technology platform and commercial counterpart for projects that may move from qualification into licensing, FEED, and delivery integration.

01
01

Technical Review and Qualification

JTurbo begins with a structured technical review so counterparties can evaluate commercial fit, site conditions, and the role of liquefaction within the broader project architecture.

Use-case and site fit discussion
Technology selection pathway
Initial qualification of deployment logic
Commercial project fit assessment
02
02

Licensing and FEED Support

Quantum Technology40 Years Cryogenic Expertise

Where alignment exists, JTurbo can progress into a licensing and engineering path that defines the process basis, pre-cooling approach, and integration boundary conditions. Supported by Quantum Technology’s 40 years of cryogenic engineering expertise.

Process license framework
FEED and engineering coordination
Configuration-dependent technical basis
Pre-cooling strategy definition
03
03

EPC Integration to First Liquid

The platform works alongside established engineering and delivery teams so projects can move from diligence into execution, commissioning, and handover.

EPC coordination pathway
Modular deployment planning
Commissioning and performance handover
Post-commissioning technical support
Commercial Discussions

From technical review into FEED, licensing, and delivery integration.

Commercial discussions can progress from technical review into FEED, licensing, and delivery integration. JTurbo works alongside established engineering and EPC teams to support projects from qualification through commissioning.

100%
OEM Guaranteed
Performance
Request Technical Review
Leadership

The team behind the platform.

JTurbo combines proprietary technology with deep cryogenic engineering expertise and an established delivery ecosystem.

JT
Jacob Thomas
Founder and CEO

Jacob Thomas founded JTurbo in 2020 with the goal of making cryogenic liquefaction commercially viable at modular scale. He leads the company's technology development, commercial strategy, and project qualification activities.

Technology DevelopmentCommercial StrategyProject Qualification
JTurbo Twin Turboexpander Platform
Platform
Twin Turboexpander Architecture
Quantum Technology
Engineering Partner
40 Years Cryogenic Expertise

40 years of proven expertise in helium and hydrogen liquefaction and cryogenic storage. Quantum Technology supports JTurbo on FEED studies, detailed engineering, and equipment specification.

Delivery Ecosystem
EPC Partners
Project-Specific Selection

JTurbo works alongside established EPC contractors and engineering firms to support project execution from FEED through commissioning and handover.

Technical Brochure

Download the Full
JTurbo Technical Brochure

Our 20-page technical brochure covers the full JTurbo technology platform in detail — including process flow diagrams, thermodynamic performance data, competitive analysis, application case studies, and the global deployment roadmap. Ideal for engineering teams, project developers, and investors.

20 Pages
Process Flow Diagrams
Performance Data
SMR & N₂ Expander Cycles
Competitive Analysis
Application Case Studies
Download PDF
Get in Touch

Request a Technical Review.

If your project involves LNG, Bio-LNG, LH₂, or power-constrained infrastructure, JTurbo can run a structured technical review to determine whether the platform is a fit — before any commitment to licensing or FEED.

Contact Information

Headquarters
Houston, Texas, USA
General Inquiries
Jacob Thomas, CEO
What happens next?

We'll review your project details and respond within 2 business days. If there is a potential fit, we'll schedule a structured technical review call at no cost or commitment.

Typical Inquiry Types
Request a Technical Review
Technology Licensing Discussion
FEED Study Request
Strategic Partnership
General Inquiry

We'll review your details and respond within 2 business days.