Gas demand could treble by 2050, gaining traction not just as the world’s cleanest fossil fuel, but also the most economical. The ascent would be driven by technology. Hence this note outlines 200MTpa of potential upside to consensus LNG demand, via de-carbonised power and shipping fuels. LNG demand could thus compound at 8% pa to 800MTpa by 2030, justifying greater investment in unsanctioned LNG projects.
Shell is the leading Major in driving new LNG demand, based on patent filings (chart above). As an example, we highlight a leading new technology to promote LNG demand in transportation, by mitigating the problem of boil-off.
Multiple records have just been broken for an LNG-powered ship, as construction completed at Heerema’s “Sleipnir” heavy-lift vessel (charted above). It substantiates our recent deep-dive note, which sees 40-60MTpa upside to LT LNG demand, from large, fuel-intensive ships, after IMO 2020.
Sleipnir is a record-setting crane-lift vessel, with capacity to pick up 20,000T. This eclipses the prior records in offshore oil and gas, which were around 12,000T, set by the Heerema Thialf and the Saipem 7000. Hence Sleipnir has already lined up 18 contracts, starting with the 15,800T topsides for Israel’s Leviathan gas field, and progressing on to Johan Sverdrup Phase II.
Sleipnir is a record-setting LNG vessel, burning gas as its primary fuel (although it can also burn diesel). With a displacement of 273,700T, we estimate it is the heaviest LNG-powered vessel ever built (eclipsing the largest such container ships, at 220,000T). With a cost of $1.5bn, we estimate it is also the most expensive LNG-powered ship ever built (eclipsing Carnival’s $1.1bn AidaNova cruise ship). It has the world’s first Type-C LNG tank in an enclosed column. Numbers are updated in our data-file here.
There is upside to LNG demand in large, fuel-intensive ships, especially cruise- and container ships, after IMO 2020. Small-scale LNG may offer an economic “bridge”, while bunkering becomes increasingly attractive as volumes per port scale past c80kTpa. Forward-thinking Majors are already investing to capture the future market.
Finally, for a video of the construction vessel being constructed…
The downstream industry is currently debating whether IMO 2020 sulphur regulations will be resolved quickly or slowly. We think the market-distortions may be prolonged by under-appreciated technology challenges.
Opportunities amidst the Challenge?
So if the market-distortions of IMO 2020 have longevity, who will stand to benefit? We are maintaining a data-file of the ‘Top Technologies for IMO 2020’ around the industry, which give specific companies an edge. The data file now contains over 25 technologies across 7 Majors.
Al-Shahrani, F., Koseoglu, O. R. & Bourane, A. (2018). Integrated System and Process for In-Situ Organic Peroxide Production and Oxidative HeteroAtom Conversion. Saudi Aramco Patent.
Koseoglu, O. R., (2018). Integrated Isomerisation and Hydrotreating Process. Saudi Aramco Patent CN107529542
Hanks, P. (2018). Trim Alkali Metal Desulfurisation of Refinery Fractiions. ExxonMobil Patent US2018171238
Next-generation technology in small-scale LNG has potential to reshape the global shipping-fuels industry. Especially after IMO 2020 sulphur regulations, LNG should compete with diesel. Opportunities in trucking and shale are less clear-cut.
This note outlines the technologies, economics and opportunities for LNG as a transport fuel, following a three-month investigation.
- Why technology matters. Pages 2-4 of the note describe incumbent technologies in small-scale LNG, and the need for superior solutions.
- The cutting edge . Pages 5-7 draw on patents and technical papers to describe next-generation technologies, at the cutting edge of small-scale LNG. We model that they are economic. They can can provide LNG to the market at $10/mcf.
- Potential to transform shipping-fuels. Pages 9-13 find strong economic upside for novel LNG technologies in the shipping industry, with potential to create 40-60MTpa of incremental LNG demand, looking across the global shipping fleet.
- Less positive on LNG as a trucking fuel. Pages 14-15 explain why the economics are more challenging for LNG use in land-transportation, i.e., trucking.
- Less positive on LNG use in shale. Page 16 explains, similarly, why LNG is less advantageous in the shale patch than converting rigs and frac spreads to piped gas.
- Other technologies. Page 17 notes other companies with interesting offerings in small-scale LNG liquefaction, including advances by Exxon and Shell.
Have further questions? Please contact us and we’ll be happy to help: [email protected]com
So far we have reviewed 400 patents in the downstream oil and gas industry (ex-chemicals). A rare few prompted an excited thought — “that could be really useful when IMO 2020 comes around”.
Specifically, from January 2020, marine fuel standards will tighten, cutting the maximum sulphur content from 3.5% to 0.5%. It will reduce the value of high-sulphur fuel oil, and increase the value of low-sulphur diesel.
This note summarises the top dozen proprietary technologies we have seen to capitalise on the shift, summarised by company (chart below).