The Fermilab Booster is a fast-cycling synchrotron which accelerates protons from 400 MeV to 8 GeV of kinetic energy for injection into the Main Injector and for use by all of the Lab's physics programs. The Booster was originally built in 1970. In 2004, as part of the Booster upgrade, a decision was made to upgrade the Booster survey network by densification with monuments and to survey the main Booster components using modern survey and alignment instruments. This paper discusses the survey and alignment methodology employed for the Booster Accelerator upgrade
The goal of achieving the Tevatron luminosity of 3 x 10{sup 32} cm{sup -2}s{sup -1} requires Electro...
The installation of seven large aperture quadrupoles during shut-down of 2006 necessitates new latti...
In Part I, three independent models of Fermilab's Booster synchrotron are presented. All three model...
To better control the beam position, tune, and chromaticity in the Fermilab Booster synchrotron, a n...
The surveying and alignment activities at Fermilab are the responsibility of the Alignment and Metro...
We present an ambitious ongoing project to build and install a new corrector system in the Fermilab ...
The first phase of the BooNE (Booster Neutrino Experiment) program at Fermilab is called MiniBooNE. ...
A new package of six corrector elements has been designed to better control the beam position, tune,...
To better control the beam position, tune, and chromaticity in the Fermilab Booster synchrotron, a n...
Multi-element corrector magnets are being produced at Fermilab that enable correction of orbits and ...
To better control the beam position, tune, and chromaticity in the Fermilab Booster synchrotron, a n...
The performance of the Fermilab proton accelerator complex is reviewed. The coming into operation of...
The Fermilab Main Injector is moving toward providing 400 kW of 120 GeV proton beams using slip stac...
Since its initial operation over 30 years ago, most correction magnets in the Fermilab Booster Synch...
To better control the beam position, tune, and chromaticity in the Fermilab Booster synchrotron, a n...
The goal of achieving the Tevatron luminosity of 3 x 10{sup 32} cm{sup -2}s{sup -1} requires Electro...
The installation of seven large aperture quadrupoles during shut-down of 2006 necessitates new latti...
In Part I, three independent models of Fermilab's Booster synchrotron are presented. All three model...
To better control the beam position, tune, and chromaticity in the Fermilab Booster synchrotron, a n...
The surveying and alignment activities at Fermilab are the responsibility of the Alignment and Metro...
We present an ambitious ongoing project to build and install a new corrector system in the Fermilab ...
The first phase of the BooNE (Booster Neutrino Experiment) program at Fermilab is called MiniBooNE. ...
A new package of six corrector elements has been designed to better control the beam position, tune,...
To better control the beam position, tune, and chromaticity in the Fermilab Booster synchrotron, a n...
Multi-element corrector magnets are being produced at Fermilab that enable correction of orbits and ...
To better control the beam position, tune, and chromaticity in the Fermilab Booster synchrotron, a n...
The performance of the Fermilab proton accelerator complex is reviewed. The coming into operation of...
The Fermilab Main Injector is moving toward providing 400 kW of 120 GeV proton beams using slip stac...
Since its initial operation over 30 years ago, most correction magnets in the Fermilab Booster Synch...
To better control the beam position, tune, and chromaticity in the Fermilab Booster synchrotron, a n...
The goal of achieving the Tevatron luminosity of 3 x 10{sup 32} cm{sup -2}s{sup -1} requires Electro...
The installation of seven large aperture quadrupoles during shut-down of 2006 necessitates new latti...
In Part I, three independent models of Fermilab's Booster synchrotron are presented. All three model...