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ESS, Lund

  • Flight scanning of the ESS site, July 2017
    1 / 21 –Flight scanning of the ESS site, July 2017
  • Flight scanning of the ESS site, 1st of November 2016
    2 / 21 –Flight scanning of the ESS site, 1st of November 2016
  • Installation of bored piles for the ESS Target station.
    3 / 21 –Installation of bored piles for the ESS Target station.
  • Casting of the first part of the ESS Target station bottom slab. This 400 mm slab will be followed by another 1600 mm bottom slab.
    4 / 21 –Casting of the first part of the ESS Target station bottom slab. This 400 mm slab will be followed by another 1600 mm bottom slab.
  • Reinforcement for the 400 mm bottom slab in the ESS Target station.
    5 / 21 –Reinforcement for the 400 mm bottom slab in the ESS Target station.
  • Floor casting in the ESS Klystron Gallery.
    6 / 21 –Floor casting in the ESS Klystron Gallery.
  • The Cryo Building, where large compressors will cool down helium gas, to be fed into the ESS accelerator tunnel making it superconductive.
    7 / 21 –The Cryo Building, where large compressors will cool down helium gas, to be fed into the ESS accelerator tunnel making it superconductive.
  • Facades on the 489 meter long Gallery Building that stretches all the way along the Accelerator tunnel giving it the acceleration power needed.
    8 / 21 –Facades on the 489 meter long Gallery Building that stretches all the way along the Accelerator tunnel giving it the acceleration power needed.
  • Inside the Front End Building at ESS.
    9 / 21 –Inside the Front End Building at ESS.
  • The Loading Hall in the Klystron Gallery, containing an overhead crane for lifting heavy equipment.
    10 / 21 –The Loading Hall in the Klystron Gallery, containing an overhead crane for lifting heavy equipment.
  • Cold Box in the Klystron Gallery, here an enormous fridge will cool down Helium from 4k to 2K (-271 degrees Celsius).
    11 / 21 –Cold Box in the Klystron Gallery, here an enormous fridge will cool down Helium from 4k to 2K (-271 degrees Celsius).
  • Overview of the ESS Target, Monolith. In the middle a rotating wheel made of Tungsten will be installed, and this is where spallation occurs.
    12 / 21 –Overview of the ESS Target, Monolith. In the middle a rotating wheel made of Tungsten will be installed, and this is where spallation occurs.
  • Piling for the Beam Line Gallery, rows of neutron guides streaming out towards the experimental halls.
    13 / 21 –Piling for the Beam Line Gallery, rows of neutron guides streaming out towards the experimental halls.
  • Refill of the ESS Accelerator tunnel, which will be hidden under a 5-7 meter high reinforced slope.
    14 / 21 –Refill of the ESS Accelerator tunnel, which will be hidden under a 5-7 meter high reinforced slope.
  • Reinforcement for the 1600 mm bottom slab for the ESS Target station.
    15 / 21 –Reinforcement for the 1600 mm bottom slab for the ESS Target station.
  • Steel structure for the ESS Klystron Gallery.
    16 / 21 –Steel structure for the ESS Klystron Gallery.
  • Aerial image of the ESS construction site in June 2017. Photo: Perry Nordeng / ESS.
    17 / 21 –Aerial image of the ESS construction site in June 2017. Photo: Perry Nordeng / ESS.
  • Cold Box located in the Klystron Gallery at ESS in Lund, Sweden. This is where the helium gas is cooled down to very low temperature before it enters the accelerator where the final cooling to 2 Kelvin (-271O C) takes place inside cryomodules.
    18 / 21 –Cold Box located in the Klystron Gallery at ESS in Lund, Sweden. This is where the helium gas is cooled down to very low temperature before it enters the accelerator where the final cooling to 2 Kelvin (-271O C) takes place inside cryomodules.
  • The Cryo Building at ESS in Lund, contains compressors for helium gas, stored in large outdoor tanks. The helium gas is cooled down to 2 Kelvin (K) and then transforms into liquid form, making the accelerator tunnel superconductive.
    19 / 21 –The Cryo Building at ESS in Lund, contains compressors for helium gas, stored in large outdoor tanks. The helium gas is cooled down to 2 Kelvin (K) and then transforms into liquid form, making the accelerator tunnel superconductive.
  • The bunker of the Target Building at ESS in Lund, with the concrete structure where the Monolith is to be placed. This is where spallation will occur.
    20 / 21 –The bunker of the Target Building at ESS in Lund, with the concrete structure where the Monolith is to be placed. This is where spallation will occur.
  • The ESS accelerator tunnel roof is underground and covered by a five-meter thick layer of soil where grass is sown.
    21 / 21 –The ESS accelerator tunnel roof is underground and covered by a five-meter thick layer of soil where grass is sown.

The world’s most modern research facility

Right now in Lund, Sweden, Skanska is building what will be a cross-discipline research facility based on the world’s most powerful neutron source. Here, researchers worldwide will be able to study future materials in detail. Skanska has signed a cooperation agreement with ESS, European Spallation Source, to construct the buildings and infrastructure for the research unit.

ESS is a joint European research facility to which 17 member countries are contributing competence and financing. This is referred to as a spallation facility, which means that protons are shot away almost at the speed of light through an accelerator tunnel and when they then collide with the target – a helium-cooled wheel – the neutrons are released and are led away to experimental stations in long glass tubes.

The instruments at the facility can be compared to a gigantic microscope that permits the study of materials at the molecular and atomic levels. It will be possible to use the facility in a series of sciences such as medicine, biology, chemistry, physics and technology.

In cooperation with ESS, Skanska’s assignment includes planning and building the shell and infrastructure for the research facility. The cooperation agreement was signed in February 2014. The construction project is planned for a number of stages, with the signing of a new agreement at the beginning of each stage.

When ESS is commissioned, some 500 people will work there, many of whom will be researchers. The facility will be a meeting place for researchers worldwide and is expected to attract 2,000-3,000 researchers each year. The research will contribute to many exciting results in the areas of materials research, renewable energy, biomedicine and pharmaceuticals.

Contacts

Per Smidfelt
Projektchef
Skanska ESS Construction HB

Facts

Service: Construction
Mark segment: Research centers
Start date: 2014
Completion date: 2019
Clients: ESS
Country: Sweden
City: Lund
Project status: Ongoing

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