Skip to main content

AI assistant

Sign in to chat with this filing

The assistant answers questions, extracts KPIs, and summarises risk factors directly from the filing text.

Saga Pure Investor Presentation 2021

Nov 10, 2021

3730_rns_2021-11-10_3a1c939e-7e46-4dcf-a1cf-a98df2c95922.pdf

Investor Presentation

Open in viewer

Opens in your device viewer

Next generation liquid hydrogen storage and transportation

Leiv Låte, CEO

1

Global demand for hydrogen will see significant growth towards 2050 to reach net zero

Hydrogen demand by sector needed to achieve Net Zero Emissions by 2050*

2 * IEA Global Hydrogen Review 2021. Note: "Fuel" in chart is the compound volume of "Transport", "NH3-fuels" and "Synfuels" from original report

Global liquid hydrogen (LH2 ) market expected to grow rapidly in the coming years

Expected LH2 production IRENA estimates

New technologies can increase the addressable market substantially from IRENA estimates

How fast can the liquid hydrogen (LH2 ) market grow?

  • In 2021, a total of 350 tons LH2 is produced
  • In 2020, shipping consumed a total of 412 Mt fuel, corresponding to 11 exajoules
  • The expected maritime consumption, based on tenders and signed contracts, corresponds to a consumption of ~3,000 tons of LH2 in 2025
  • IRENA: 10% of the energy mix for ship fuels will be LH2 -based in 2050, corresponding to 4.6 Mt LH2
  • Company estimates: Based on the physical properties of LH2 stores with ICT storage tanks, 62% of the fuel mix for ships will be the addressable market for LH2 , corresponding to 28.4 Mt 0

Expected LH2 production

ICT and IRENA estimates

Liquid hydrogen has great benefits, but also challenges that need to be addressed

The key challenge is enabling long-term storage and transport of large quantities of hydrogen

Pros of LH2

Zero emission, non-toxic energy carrier

  • High energy density (energy/kg)
  • Allows for high fueling/bunkering rate
  • Low pressure, giving lower risk of explosion and lighter storage and transportation tanks

Cons of LH2

  • Low temperature
  • Prone to high boil-off/evaporation rates
  • Limited infrastructure in place high capex
  • Energy demanding liquefaction process high opex

ICT reduces constraints related to storage and transportation of liquid hydrogen

Creating the basis for both large- and small-scale storage and transportation infrastructure for LH2

Low-pressure LH2 tanks have clear benefits

P
17

Lower pressure (<0.5 barg vs 6 barg) → higher energy density, less strain on tank

Lower tank weight
→ High efficiency factor (kg LH2
                                /kg steel)

Customizable to any shape → Adaptable to any ship's hull (prismatic design)

Active cooling if required

  • → Ultra low boil-off
  • → Minimal ullage/expansion volume

Energy efficient insulation → Low heat flux into the tank

Increased safety

→ Near atmospheric pressure and double barrier due to membrane

Thermodynamics explains why LH2 will be the preferred energy carrier

ICT's technologies have clear benefits compared to existing solutions*

9 * Conventional LH2 storage tanks, referred to as "dewar", is a double-walled flask of metal or silvered glass with a vacuum between the walls, used to hold liquids at well below ambient temperature.

Norwegian technology company developing LH2 applications, built on leading LNG competence

ICT improves the competitiveness of liquid hydrogen through two primary technologies

ICT's technology is suitable for a wide range of applications, from small-scale to large-scale

400.000 m3

Membrane tank for medium to very large carriers and land tanks

ICT – Deep sea and seasonal storage

2.000 m3

Membrane technology Fuel tank and portable storage technology

Fuel tank and small to medium scale portable storage technology

ICT – Short sea and distribution

ICT's membrane technology represents the future of large-scale storage and transportation of hydrogen

Two separate vacuum insulation compartments Twin primary membrane with leak detection

Modular design and construction Solid and robust vs. sloshing* or earthquake loads

Use

Membrane tank for large to very large carriers and land tanks

Tank size 1.000 – 400.000 m3

Status

  • ✓ Patent approved in EU, US, China & Japan
  • ✓ Approval In Principle
  • ✓ Designed for liquid hydrogen excellent for LNG and NH3
  • ✓ Digital twin on pilot tank

13 * Sloshing: Liquid waves inside partly filled tanks

Liquid hydrogen carrier, also for LNG, with smart cooling system

ICT membrane 9.000 m3 carrier

Regional distribution of bunkering at sea for LH2 or LNG

14

ICT's fuel and distribution tank combines low weight with flexible, prismatic design and optional cooling system

Light weight Integrated evaporator Flexibility in shape Portable

Use

Fuel and distribution tank for small to large marine vessels, trains, HDV and possibly aviation

Tank size 0,5 – 2.000 m3

Status

✓ Pilot tank construction ongoing

ICT enables low weight fuel tanks for LH2 where weight saving is essential

Large potential within several market segments, covering small to large scale applications

Suitable for carriers, fuel tanks, distribution and energy segments

HDV, buses, trains and aviation Fast ferries and car ferries Medium-scale LH2 logistics < 6.000 m3 Large-scale LH2 logistics > 6.000 m3 Small-scale LH2 fuel tank < 1000 m3

ICT aims to bring new opportunities to the cryogenic liquid storage and transportation sectors

Full speed ahead toward making liquid hydrogen accessible

Timeline

Completed Ongoing Next steps

Approval In Principle (AIP) for membrane tank

Approval In Principle (AIP) for fuel and
distribution tank

Pilot tank construction ongoing, scheduled to
start testing in H1-22

Evaporation system design on going,
construction and testing in H2-22

Customer dialogs world wide

Proof of concept by representative pilot tank
size in close cooperation with potential users,
designer and yard, DNV and Maritime
Authorization

Building organization

Fuel tank onboard installation

Large-scale applications (international)

19