Container, Dry-Bulk, and Liquid Terminals

A marine terminal is the working face between a ship and the shore: the quay, the cranes or loading arms, the yard or tank farm, and the rail and road links that move cargo on. Three terminal families carry almost all seaborne trade, and they share little beyond the word “terminal.” A container terminal lifts standardized boxes one at a time with ship-to-shore gantry cranes and stacks them in a paved yard. A dry-bulk terminal loads or discharges loose ore, coal, or grain through shiploaders, grabs, and conveyors linked to open stockyards. A liquid-bulk terminal pumps crude oil, products, or chemicals through fixed loading arms at a jetty manifold into shore tanks. The cargo decides the equipment, the equipment decides the berth, & the berth decides which ships the terminal can serve and how fast.

This article is the hub for the site’s terminal profiles. It defines the three families precisely, explains berth productivity & terminal capacity, sets out what a terminal profile actually records, and then indexes a representative spread of the named-terminal calculators across every container, dry-bulk, and liquid hub region. Port-level detail (the authority, the channel, the tides, the charges) sits one level up at world port profiles, and the parent hub for the whole ports cluster is ports and terminals overview. The berthing side of terminal operation, the energy a ship lands on a fender and the tug power needed to bring it alongside, is covered at berthing operations and fender selection.

The three terminal families

The cleanest way to hold the families apart is by what the cargo forces on the berth. A box is rigid, stackable, and identical to the next box, so a container terminal optimizes for vertical lift speed and yard density. Dry bulk is loose and heavy and flows, so a bulk terminal optimizes for tonnes per hour through a continuous or near-continuous loading system and for stockyard volume. Liquid bulk flows through pipes, so an oil or chemical terminal optimizes for safe high-rate pumping and for tank storage, and the ship barely needs a crane at all. Each family then sizes its berth to the ships its trade runs.

The economic logic differs too. A container terminal earns on the move: every box lifted is a billable handling event, and faster cranes turn ships around quicker and free the berth for the next call. A dry-bulk export terminal earns on the tonne and runs as the seaward end of a mine-to-ship conveyor, so its job is to fill a Capesize or a VLOC as fast as the railed-in ore arrives. A liquid-bulk terminal earns on throughput and storage and sits inside a refining or petrochemical cluster, so its rhythm follows the refineries it feeds rather than the shipping schedule alone. Read the three that way and the equipment list for each falls out.

The comparison below sets the families side by side on the three axes that matter: the cargo, the handling gear, and the ships each berth is built to serve.

Container terminals: STS cranes, yard equipment, and automation

The defining machine of a container terminal is the ship-to-shore (STS) gantry crane, the tall portal crane that straddles the quay rail and reaches out over the ship to lift boxes from the cells. The single number that matters most about an STS crane is its outreach, the number of container rows it can reach across the ship’s beam, because that is what decides whether the crane can work the outboard rows of a large vessel. A crane built for a Panamax of 13 rows can’t reach across a 24-row ultra-large container vessel, so terminals that take the biggest ships run super-post-Panamax cranes with outreach beyond 23 or 24 rows. The crane lifts the box, traverses it landward, and lands it on the quay for the horizontal-transport system to carry into the yard.

Behind the quay sits the yard, where boxes are stacked while they wait for the next ship, the train, or the truck. Two gantry types dominate the stack. The rubber-tired gantry (RTG) is a wheeled crane that drives between rows and stacks boxes typically four to six high; it’s flexible and cheap to redeploy but needs a driver and aisle space. The rail-mounted gantry (RMG) runs on fixed rails over a denser block of containers, stacks higher, and is the natural choice for automation because a crane that can’t leave its rails is easier to run without a driver. The choice between RTG and RMG, and between driver-operated and automated, is the single biggest design decision a modern container terminal makes, because it sets the yard density, the labor bill, and the round-the-clock running profile.

Automation is where the flagship terminals separate from the rest, and the documented examples are specific. On HHLA’s terminal specification, Hamburg’s HHLA Container Terminal Altenwerder (CTA) opened in 2002 and runs a fleet of about 80 battery-powered automated guided vehicles (AGVs) that carry boxes between the quay cranes and an automated block-stacking yard, routed by software over more than 17,000 transponders set into the ground. On the APM Terminals specification, Rotterdam’s APM Terminals Maasvlakte II opened in 2015 with eight fully automated electric STS cranes, 62 lift-AGVs (the first AGVs that could themselves lift and stack a box), and remotely controlled STS gantry cranes, on 86 hectares with 1,000 meters of quay and a rated 2.7 million TEU a year, expanding toward 6 million TEU at full build-out. On the Maritime and Port Authority of Singapore’s figures, Singapore’s Tuas Port opened on 1 September 2022 and is being built to handle 65 million TEU a year, fully automated, by the 2040s, with electrified yard cranes and a fleet already past 200 AGVs run from a central control center. These aren’t marketing claims; they’re the operators’ published terminal specifications, and they mark the current frontier of what a box terminal can do.

The interactive side of container-berth planning lives in the terminal profiles. Each profile calculator records the equipment and capacity for a named terminal, so a planner can read the crane count and outreach against the ship being fixed. The flagship automated berths are profiled at Rotterdam Maasvlakte II APM and the neighboring Rotterdam Maasvlakte II RWG, at Hamburg HHLA CTA Altenwerder, and at Singapore Tuas Mega Port.

Dry-bulk terminals: shiploaders, stockyards, and Capesize berths

A dry-bulk export terminal looks nothing like a box terminal. There are no gantry cranes lined along the quay; instead a small number of shiploaders, large travelling machines that pour cargo down a chute into the ship’s holds, work each berth, fed by a conveyor network that runs back to open stockyards where the ore or coal waits. On the import side the same trade reverses through grab cranes or continuous ship unloaders that dig cargo out of the holds and onto the conveyor. The stockyard is the heart of the operation: stacker machines build long rows of material as it rails in from the mine, and reclaimers cut into those rows to feed the shiploader, so the terminal can keep loading a ship even when the trains run in surges.

The binding constraint on a dry-bulk berth is depth, not quay length. The iron ore trade runs Capesize bulk carriers of around 180,000 deadweight tonnes and, increasingly, very large ore carriers (VLOCs) of 200,000 to 400,000 DWT, and a fully laden ore carrier sits deep. Port Hedland in Western Australia, the world’s largest bulk-export port, moved a record 577.7 million tonnes in the 2024 to 2025 financial year on the Pilbara Ports Authority throughput figures, more than 90 percent of it iron ore, and dredges its channel toward 21 meters so loaded VLOCs sail on the high tide rather than wait days for water. On the Transnet National Ports Authority overview, South Africa’s Port of Saldanha runs the largest iron ore export facility in Africa, with two Capesize berths carrying 18 to 20 meters alongside, an entrance channel dredged to 23 meters chart datum, and an installed terminal capacity of about 57 million tonnes of iron ore a year, fed by the roughly 861-kilometer Sishen to Saldanha heavy-haul railway from the Northern Cape. These are export machines tuned to fill the deepest ships the trade can float.

The economics push the trade toward the biggest hull the route allows, because the cost per tonne-mile falls as the ship grows, which is why the Pilbara and Saldanha berths are sized for VLOCs rather than ordinary Capesizes. That same logic governs the loading rate: a terminal that can pour several tens of thousands of tonnes an hour fills a Capesize in a day or two and keeps the berth turning, while a slow loader strands an expensive ship alongside. The Pilbara export berths are profiled at Port Hedland Fortescue and Port Hedland BHP Jimblebar and Nelson Point, with the Rio Tinto loadout ports at Dampier Rio Tinto and Cape Lambert Rio Tinto; the African iron ore berth is at Saldanha Bay iron ore. The coal side of the dry-bulk trade runs through the same kind of berth at Newcastle NSW Kooragang and Gladstone RG Tanna, and the import end of the iron ore trade is profiled at Ningbo Daxie iron ore.

Liquid-bulk terminals: jetties, manifolds, and the Europoort cluster

A liquid-bulk terminal handles crude oil, refined products, liquefied gas, or chemicals, and its working face is a jetty rather than a quay. The ship moors against breasting dolphins, runs its cargo lines to a manifold of fixed marine loading arms at the jetty head, and pumps the cargo to or from shore tanks through pipeline. There’s no crane and no yard; the value sits in the tank farm behind the jetty and in the pipelines that connect it to refineries and to other terminals. Because the cargo is hazardous and moves at high rate, the terminal’s design is dominated by fire protection, vapor handling, emergency release couplings on the arms, and the safe approach and mooring of very large tankers.

The Europoort and Maasvlakte areas of the Port of Rotterdam form one of the world’s largest oil clusters, and the figures are documented. On the Port of Rotterdam Authority’s figures, Rotterdam receives 95 to 100 million tonnes of crude oil a year, almost all of it bound for refineries in the port itself and in the Netherlands, Belgium, and Germany, fed onward by pipeline to ten refineries. Because Rotterdam has no locks and no tidal lock-out on these berths, the crude terminals on deep water can take the largest tankers afloat, the ultra-large crude carriers (ULCCs) up to about 500,000 DWT, straight off the sea. Rotterdam, taken with the refineries at Antwerp and across the wider Rhine to Scheldt delta, forms one of the three largest fuel hubs in the world. The crude side of that cluster is profiled at Rotterdam Europoort oil, and the Singapore equivalent, the refining and chemicals island that anchors that hub’s liquid trade, at Singapore Jurong Island.

The liquid family stretches well beyond crude. Product terminals handle gasoline, diesel, and jet fuel; chemical terminals handle a long list of bulk liquids each with its own compatibility and cleaning rules; and gas terminals handle LNG and LPG with cryogenic arms and dedicated storage. What unites them is the jetty, manifold, and tank architecture and the safety regime that follows from pumping flammable or toxic cargo at high rate, rather than any single piece of lifting gear.

The landside: how a terminal connects inland

A terminal is only as good as the way cargo leaves it on the land side, and the landside link is where many terminals actually hit their limit. A container terminal that lands 4,000 boxes off a single ship call has to clear those boxes through a gate to trucks, onto on-dock rail, or onto a barge, and if the gate queues or the rail siding fills, the boxes back up into the yard and the yard slows the cranes that feed it. So a modern box terminal is judged not just on its quay rate but on its dwell time, the days a box sits in the stack before it moves on, and on the share of cargo it can move by rail rather than road. On-dock rail is the prize: Maasvlakte II APM was built with on-dock rail and barge facilities so the lift-AGVs can deliver straight to a train, and the North American intermodal terminals at Prince Rupert and the Los Angeles and Long Beach complex live or die on the rail link to the inland network.

The dry-bulk side has the cleanest landside link of the three, because the heavy-haul railway is part of the terminal rather than an afterthought. The Pilbara iron ore ports run dedicated mine-to-port heavy-haul lines that feed the stockyard directly, so the terminal is one continuous conveyor from the mine face to the shiploader. Saldanha is the same idea over a longer distance: the 861-kilometer Sishen to Saldanha line was built with the port as a single ore-export system, not as a port that happens to have a railway. A bulk terminal whose railway can’t keep the stockyard full is a terminal whose berths sit idle waiting for ore, which is why the rail capacity, the stockyard volume, and the shiploader rate have to be matched.

Liquid-bulk terminals connect inland by pipeline, the densest and least visible landside link of all. The Rotterdam crude cluster feeds ten refineries by pipeline, and the value of the terminal is partly the value of being plugged into that pipeline grid: a tanker discharges into shore tanks, and the crude then moves to refineries in the Netherlands, Belgium, and Germany without ever touching a road or a railway. The pipeline is the reason a crude terminal can take a ULCC and clear half a million tonnes of cargo without the road congestion a comparable dry-bulk or container tonnage would cause.

Roll-on/roll-off, multipurpose, and the mixed berth

Not every terminal fits cleanly into one of the three families. Roll-on/roll-off (ro-ro) berths handle wheeled cargo (cars, trucks, and trailers) that drives on and off over a stern or side ramp, so the berth needs a linkspan that matches the ship’s ramp and the tide, not a crane. Many ports run a multipurpose berth that takes general cargo, project cargo, and break-bulk with mobile harbor cranes that can switch between a hook, a grab, and a spreader, which is the flexible middle ground for a port whose trade doesn’t justify a dedicated container or bulk terminal. The Saldanha multipurpose terminal, alongside its iron ore berths, carries about 8.5 million tonnes of break-bulk cargo a year on that model.

The mixed berth matters because it’s the realistic case for most of the world’s ports, which don’t move enough of any one cargo to justify a specialized terminal. A profile that reads “two berths, mobile harbor cranes, mixed general and bulk cargo” is describing exactly that flexible facility, and the question a planner asks of it isn’t the box rate or the iron ore loading rate but whether the crane and the berth can take the specific parcel on offer. The terminal profiles in this cluster lean toward the specialized container and bulk berths that carry the named trades, because those are the berths where the equipment and capacity figures are public and worth tabulating, but the mixed berth is the quiet majority of the world’s quay length.

Berth productivity and terminal capacity

Two numbers describe how a terminal performs: the productivity of a berth while a ship is alongside, and the annual capacity of the whole terminal. They’re related but distinct, and confusing them is the most common error in reading a terminal profile.

Container-berth productivity is measured in moves per hour. Gross moves per hour (GMPH) is the total container moves on a vessel divided by the elapsed time from the first move to the last, counting every delay, and berth moves per hour sums the rate across all cranes working the ship. A single well-tuned STS crane reaches 30 to 45 moves per hour under good conditions, and on the JOC port-productivity data the US East Coast terminals at Charleston and Savannah regularly post 35 to more than 40 moves per crane per hour, at the top of the documented range. Put four such cranes on one ship and the berth runs at well over 100 moves an hour, which is what turns a large container vessel around in a day rather than a week. Every extra move per hour cuts the ship’s time alongside and frees the berth sooner, which is the whole point of buying faster cranes & automating the yard that feeds them.

The berth rate has two factors, and the JOC port-productivity work names them: crane intensity, the number of cranes worked on the ship at once, and crane speed, the moves per hour of each crane, weighted toward the slowest crane carrying the heaviest stack. Multiply the two and the berth rate falls out, which is why a terminal that can swing six cranes onto one ultra-large vessel beats one that can only fit four, even at the same per-crane speed. The published JOC figures put the spread in context: Long Beach and the Elizabeth, New Jersey terminal averaged about 74 container moves per hour across a ship’s stay, while the 2013 world leader on the largest ships, Khor Fakkan in the United Arab Emirates, averaged about 179 berth moves per hour on vessels of 8,000 TEU and above. The table below sets the working constants side by side.

These are planning constants, not guarantees: the moves-per-hour band assumes a well-found crane, a yard that can take the boxes as fast as the crane lands them, and no hatch-cover or lashing delay, and the occupancy ceiling reflects that a berth worked much above 70 percent of the time queues ships rather than serving them faster.

Worked example: where 2.7 million TEU comes off 1,000 meters of quay

Take the rated 2.7 million TEU a year at APM Terminals Maasvlakte II and work it back to the gear. The terminal has 1,000 meters of quay and eight STS cranes, which on the usual planning rule of a deep-sea berth per 350 to 400 meters gives roughly two and a half deep-sea berths, call it two and a half berth-equivalents sharing the eight cranes. Run the arithmetic on berth-hours rather than ship calls, because that is what the cranes actually sell.

The annual move throughput is berth-equivalents x berth moves per hour x operating hours x occupancy: 2.5 x 90 x 8,000 x 0.65, which is about 1.17 million container moves a year. Convert at 1.6 TEU per move and the terminal handles about 1.87 million TEU on this conservative set of inputs. Lift the berth rate to 110 moves per hour, the rate eight modern automated cranes reach when three or four work each ship, and the same arithmetic gives 2.5 x 110 x 8,000 x 0.65 x 1.6, about 2.3 million TEU, and pushing occupancy and the box factor to the top of their bands closes the gap to the 2.7 million the operator rates. The point of the exercise is not the exact figure but the structure: rated annual capacity is berth count times berth speed times available hours times the occupancy a terminal dares run, and a planner who reads a 2.7 million TEU rating against 1,000 meters of quay can check whether the crane count and yard make it real or whether it assumes a move rate the gear cannot hold.

Bulk and liquid berth rates

Bulk-berth productivity is measured in tonnes per hour instead, set by the shiploader or unloader rate and the conveyor and reclaimer system behind it for dry bulk, or by the pumping rate through the loading arms for liquid bulk. The figures are large: BHP’s iron ore shiploaders at Port Hedland are each rated at about 12,500 tonnes per hour, so a single loader pours a 180,000 tonne Capesize cargo in roughly 15 hours of pure loading time, and a fully laden VLOC of 250,000 tonnes in about 20 hours, before the trimming, draft surveys, and ballast exchange that stretch the real alongside time. A high-rate iron ore loader fills a Capesize in a day or two; a slow one strands the ship, and on a 100,000 dollar-a-day Capesize charter every idle day at the berth is a direct loss. The arithmetic mirrors the container case: annual bulk tonnage is the loader rate times the hours the berth actually loads times the number of berths, capped by how fast the heavy-haul railway can refill the stockyard behind it. Terminal annual capacity, by contrast, is the throughput the whole facility is rated to handle in a year: TEU per year for a container terminal (2.7 million at Maasvlakte II APM, a target of 65 million at full-build Tuas), or tonnes per year for a bulk terminal (about 57 million tonnes of iron ore installed at Saldanha). Annual capacity depends on berth productivity but also on the number of berths, the yard or tank storage, and the landside rail and road links, so a terminal can be limited by its gate or its rail siding long before its cranes run out of speed. The berthing-energy and approach-speed side of getting these ships safely alongside is handled by the PIANC berthing energy calculator and the docking approach velocity check.

What a terminal profile records

A terminal profile is a structured snapshot of one named terminal, and four field groups carry the substance. The first is the operator: the company that runs the terminal, which in the global container business is most often one of the large operators (APM Terminals, the Maersk-linked operator behind Maasvlakte II; DP World, behind Jebel Ali and many others; PSA, behind Singapore and a wide network; or HHLA, behind the Hamburg automated terminals). The operator matters because it sets the equipment standard, the IT system, and the service the shipping lines buy.

The second group is berth geometry: the quay length in meters, which decides how many ships, and how long a ship, can berth at once, and the alongside depth or draft limit, which decides how deep a ship can come in. For a container berth the quay length and crane spread set the ship size; for a bulk berth the depth is usually the binding constraint, as the Capesize and VLOC depths above show. The third group is the handling equipment: for a container terminal the STS crane count and the crane outreach in container rows, plus the yard gantry type; for a dry-bulk terminal the shiploader count and rated tonnes per hour and the stockyard capacity; for a liquid terminal the number and size of loading arms and the tank storage. The fourth group is the rated annual capacity, in TEU per year for boxes or tonnes per year for bulk.

Read together, those fields answer the two questions a planner asks of any terminal: can my ship physically use this berth, and how fast will it be worked? A profile that lists 1,000 meters of quay, eight super-post-Panamax STS cranes, automated yard gantries, and 2.7 million TEU a year is describing a berth that takes the largest container ships and works them fast; a profile that lists two Capesize berths at 18 to 20 meters alongside and 57 million tonnes a year is describing a dedicated iron ore export machine. The profile is deliberately a snapshot, not a live feed, so the figures in any one profile reflect the published specification at the time it was compiled, not the day-to-day operating state.

The terminal profiles: container terminals

The container profiles span every major load center across Asia, Europe, the Americas, the Middle East, and the transhipment hubs. The North European range runs through the automated Rotterdam berths above and on to the Hamburg pair, the automated Hamburg HHLA CTA Altenwerder and the conventional Hamburg Eurogate CTH. The Mediterranean transhipment hubs that feed the east-west trades are at Algeciras APM Terminals, Tangier Med TC3, and Piraeus Pier II and III.

The Asian load centers carry the largest volumes in the world. Shanghai, the busiest container port every year since 2010 and the first to pass 50 million TEU in a single year (during 2024), is profiled at the automated Shanghai Yangshan Phase 1 to 4, whose Phase 4 launched in 2017 as one of the largest automated terminals built, and at the older river-side Shanghai Waigaoqiao. The other Chinese giants are at Ningbo Beilun and the Hong Kong box hub at Hong Kong Kwai Chung. The Korean transhipment center is at Busan New Port, and the Southeast Asian hubs include the Singapore Tuas Mega Port and Singapore Pasir Panjang terminals.

The South Asian and Indian Ocean profiles include Mundra Adani and Nhava Sheva JNPCT and BMCT on the Indian coast and the Colombo CICT, SAGT, and JCT transhipment cluster off the main east-west lane. The Middle East gateway is at Dubai Jebel Ali T2 and T3. Across the Pacific, the North American container gateways are profiled at Los Angeles Pier 400, Long Beach Pier T, and the Canadian intermodal hub at Prince Rupert Fairview. The South American box trade is at Santos BTP and DP World. Each profile holds the operator, berth, crane, and capacity figures for that terminal; the full set of container profiles in this cluster runs well past the names listed here.

The terminal profiles: dry-bulk terminals

The dry-bulk profiles concentrate where the iron ore and coal export trades run, because that’s where the dedicated bulk berths are. The Pilbara iron ore export ports of Western Australia carry the largest single concentration: Port Hedland Fortescue and Port Hedland BHP Jimblebar and Nelson Point load the Fortescue and BHP tonnage through the world’s largest bulk-export port, while Dampier Rio Tinto and Cape Lambert Rio Tinto handle the Rio Tinto ore from the same region. The African iron ore export berth is at Saldanha Bay iron ore, the largest such facility on the continent.

The Australian coal trade runs through purpose-built coal terminals at Newcastle NSW Kooragang and Gladstone RG Tanna, each a stacker, reclaimer, and shiploader system feeding Capesize and Panamax coal carriers. The import end of the dry-bulk trade, where the ore arrives to be discharged at a steel-making region, is profiled at Ningbo Daxie iron ore. These berths share the depth-limited, conveyor-fed design described above, and the binding figure in each profile is the alongside depth that decides which laden ore carrier can come in.

The terminal profiles: liquid-bulk terminals

The liquid-bulk profiles cover the oil and chemical clusters that anchor the world’s refining hubs. The crude oil and products cluster at the mouth of the Rhine is profiled at Rotterdam Europoort oil, the seaward end of the refinery complex that takes 95 to 100 million tonnes of crude a year and feeds ten refineries by pipeline. The Southeast Asian refining and petrochemical center is profiled at Singapore Jurong Island, the reclaimed island that concentrates Singapore’s oil refining and chemical industry on deep water. These profiles record the jetty, manifold, and tank architecture, the tanker size the berths can take, and the tank and pipeline links to the refineries behind them, rather than the crane and yard figures that define a box terminal.

Limitations

A terminal profile is a snapshot of a published specification, not a live operating record. Operators dredge channels, add or relocate cranes, change the yard equipment, and re-rate capacity over time, and ownership and operator names change as concessions are re-let, so any single figure (a crane count, an alongside depth, an annual capacity) reflects the source at the time the profile was compiled and should be confirmed against the operator’s current terminal page or the port authority before it’s relied on for a real call. The automation, throughput, and capacity figures in this hub are drawn from the operators and port authorities cited (APM Terminals, HHLA, the Maritime and Port Authority of Singapore, the Port of Rotterdam Authority, and Transnet); they describe documented terminals, not projections.

This hub indexes a representative spread of the terminal profiles across the container, dry-bulk, and liquid families and across every hub region; it doesn’t list every profile in the cluster, and the absence of a terminal here doesn’t mean it’s missing from the site. The berth-design and approach figures (depths for Capesizes and VLOCs, crane outreach for box rows) are typical industry values that vary terminal by terminal; the governing number for any specific berth is in that terminal’s own profile and, behind it, in the port authority’s published port information. None of the profiles replaces the operator’s berthing instructions, the pilotage requirements, or the port authority’s draft and tide restrictions for an actual port call.

See also

• Ports and terminals overview: the parent hub for the whole ports, terminals, and coastal-engineering cluster.
• World port profiles: port-level detail (authority, channel, tides, charges) behind the terminal profiles.
• Berthing operations and fender selection: the energy a ship lands on a fender and the safe approach to the berth.
• Tug operations and bollard pull: the tug power needed to bring large ships alongside a terminal.
• PIANC berthing energy calculator: the kinetic energy a berthing ship transfers to the fenders.
• Docking approach velocity check: the approach-speed check for a controlled berthing.
• Rotterdam Maasvlakte II APM: the automated APM container terminal profile.
• Hamburg HHLA CTA Altenwerder: the automated AGV container terminal profile.
• Singapore Tuas Mega Port: the fully automated mega-port profile.
• Shanghai Yangshan Phase 1 to 4: the busiest port’s automated deep-water terminal profile.
• Port Hedland Fortescue: an iron ore export berth at the world’s largest bulk-export port.
• Saldanha Bay iron ore: Africa’s largest iron ore export berth profile.
• Rotterdam Europoort oil: the crude oil terminal profile in the Europoort cluster.
• Singapore Jurong Island: the refining and chemicals island liquid-bulk profile.