Analysis of information sources in references of the Wikipedia article "Very Large Hadron Collider" in English language version.
The giant machine would dwarf all of its predecessors. It would collide protons at energies around 100 teraelectronvolts (TeV), compared with the planned 14 TeV of the LHC at CERN, Europe's particle-physics lab near Geneva in Switzerland. And it would require a tunnel 80–100 kilometres around, compared with the LHC's 27-km circumference. For the past decade or so, there has been little research money available worldwide to develop the concept. But this summer, at the Snowmass meeting in Minneapolis, Minnesota – where hundreds of particle physicists assembled to dream up machines for their field's long-term future – the VLHC concept stood out as a favourite.
The giant machine would dwarf all of its predecessors. It would collide protons at energies around 100 teraelectronvolts (TeV), compared with the planned 14 TeV of the LHC at CERN, Europe's particle-physics lab near Geneva in Switzerland. And it would require a tunnel 80–100 kilometres around, compared with the LHC's 27-km circumference. For the past decade or so, there has been little research money available worldwide to develop the concept. But this summer, at the Snowmass meeting in Minneapolis, Minnesota – where hundreds of particle physicists assembled to dream up machines for their field's long-term future – the VLHC concept stood out as a favourite.
The giant machine would dwarf all of its predecessors. It would collide protons at energies around 100 teraelectronvolts (TeV), compared with the planned 14 TeV of the LHC at CERN, Europe's particle-physics lab near Geneva in Switzerland. And it would require a tunnel 80–100 kilometres around, compared with the LHC's 27-km circumference. For the past decade or so, there has been little research money available worldwide to develop the concept. But this summer, at the Snowmass meeting in Minneapolis, Minnesota – where hundreds of particle physicists assembled to dream up machines for their field's long-term future – the VLHC concept stood out as a favourite.
The giant machine would dwarf all of its predecessors. It would collide protons at energies around 100 teraelectronvolts (TeV), compared with the planned 14 TeV of the LHC at CERN, Europe's particle-physics lab near Geneva in Switzerland. And it would require a tunnel 80–100 kilometres around, compared with the LHC's 27-km circumference. For the past decade or so, there has been little research money available worldwide to develop the concept. But this summer, at the Snowmass meeting in Minneapolis, Minnesota – where hundreds of particle physicists assembled to dream up machines for their field's long-term future – the VLHC concept stood out as a favourite.
The giant machine would dwarf all of its predecessors. It would collide protons at energies around 100 teraelectronvolts (TeV), compared with the planned 14 TeV of the LHC at CERN, Europe's particle-physics lab near Geneva in Switzerland. And it would require a tunnel 80–100 kilometres around, compared with the LHC's 27-km circumference. For the past decade or so, there has been little research money available worldwide to develop the concept. But this summer, at the Snowmass meeting in Minneapolis, Minnesota – where hundreds of particle physicists assembled to dream up machines for their field's long-term future – the VLHC concept stood out as a favourite.