Dope sheet for Video News Release "LHC run2-14 Feb"

https://cds.cern.ch/record/1987384?ln=en

TIME

/

FOOTAGE

00:00 – 00:12

/

CERN logo, opening credits

00:13 - 00:18

/

CERN signage, Entrance "B" on the CERN site

00:19 – 00:34

/

Slow panning shots of the Large Hadron Collider (LHC) in its tunnel

00:35 – 00:51

/

Workers in green overalls open an interconnection between to superconducting dipole magnets on the LHC

00:52 – 01:09

/

Close-ups of opening the interconnection

01:10

/

The interconnection from below

01:31

/

Close-up of the niobium-tin wires that carry the 11,000 amp current between magnets when the LHC is switched on

01:42

/

Sawing open the protective sheath around the interconnection

01:46

/

A custom tool designed at CERN closes the protective sheath around the interconnection

02:00

/

Welding the sheath back together

02:14

/

Shot from above of worker adding a splice to the interconnection to carry the current in case of a fault

02:26

/

Closeup – Screwing the splice into place

02:33

/

Closing the radiation-protection doors to the LHC tunnel

02:53

/ Studio interview with Frederick Bordry, CERN’s Director for Accelerators and Technology.
TRANSCRIPT:
"This work finished in June 2014, and since we have been testing the LHC, to be able to add current in a secure way, and to be able to run the machine at 13 teraelectronvolts (TeV)"

03:03

/

"This test work will finish in March, and then afterwards, we will inject beams. That way we have time to prepare the beams to have the first collisions at 13 TeV towards the end of May or the beginning of June."

03:19

/

"This is what we expect – we will collide beams together even stronger. Before we collided them at 8 TeV, now we're adding even more energy -imagine nuts that we will be smashing even harder – and this will allow us to look at what is in the structure of these particles."

03:30

/

"Physicists are very interested to move into this new era of physics – 13 TeV, nearly double what there was at 8 TeV. We really expect many more collisions at this energy, and we can hope maybe to have new physics. Of course we will better study the Higgs boson – its properties – we have just met this particle, we don't know it well yet. But also, maybe we will find new, supersymmetric particles – new physics, which would explain part of dark matter."

04:03

/

Shots of a crowded CERN Control Centre at the LHC restart on 20 November 2009.

04: 17

/

Control screens show the status of the LHC's various sectors

04:24

/

Close up of a screen with diagnostics of the beams in the LHC

04:27

/

High shot of physicists in the CERN Control Centre on 20 November 2009

04:31

/

Physicists in the CERN Control Centre cheer, then applaud, as the beam travels around the LHC once again.

04:44

/

Physicists in the CERN Control Centre throw their hats in the air and cheer for the beam in the LHC on 20 November 2009

04:48

/

Animation showing a circulating beams of protons as they travel through CERN's accelerator chain to full velocity in the LHC

05:00

/

Animated cross section of a dipole magnet in the LHC. Zoom into the beampipe showing how magnets focus bunches of protons (shown in red)

05:18

/

Animated cross section of an LHC dipole, showing how proton bunches are separated in time

05:25

/

Magnetic field of a dipole magnet (field shown in green)

05:30

/

How the beams are made to travel around the curve of the LHC

05:39

/

B-Roll

05:40

/

The ATLAS detector

05:46

/

The CMS detector

05:57

/

The ALICE detector

06:03

/

The LHCb detector

06:08

/

Animated simulation of beams colliding in the ATLAS detector, producing a Z boson which decays into a muon and an antimuon

06:38

/

Researchers applaud in the CERN auditorium on 4 July 2012, when the CMS and ATLAS experiments report they have found the Higgs boson with a mass of 126 GeV

06:44

/

A teary Peter Higgs removes his glasses

06: 48

/

Further applause from the crowd