Management Milestones GSI 1992 - 1999

Directorate Structure (CERN-like, appointments also from outside GSI)
1992 Chairman: Prof. Hans. J. Specht (WGF)
Research: Prof. V. Metag (Giessen), since 1997 Prof. J. Kluge (Mainz)
Accelerators: Dr. Norbert Angert
Technical Infrastruture: Dr. W. von Rüden (CERN)
Administration: Dr. Helmut Zeitträger (KGF)
Scientific Secretary: Dr. K.D. Gross
 
Further Internationalization of GSI
1992 Change of language in the GSI Scientific Council from German to English

Much broader level of outside advice, accompanied by a strong increae of
mutual lab exchanges and internationalization of the users community
 
Cancer Therapy with Ion Beams
1993Project Proposal, May 1993

„Errichtung einer experimentellen Strahlentherapie bei der GSI Darmstadt“
Radiologische Klinik der Universität Heidelberg,
GSI Darmstadt (Project lead), DKFZ Heidelberg

Successful treatment of about 450 patients from 1997-2008 in the medical
cave at the GSI synchrotron SIS18. Prerequisite around 2001 for the smooth
approval procedure of the clinic machine in Heidelberg. There was hardly a
happier hour in my professional life than after the first patient irradiation....
 
1998 Project Proposal, September 1998

„Construction of a Clinical Therapy Facility for Cancer Treatment with
Ion Beams“
Radiologische Klinik der Universität Heidelberg (Project lead),
GSI Darmstadt (Accelerator), DKFZ Heidelberg (Treatment planning)

Clinical machine in Heidelberg (HIT) essentially built by GSI and inaugurated
in November 2009. More than 3500 patients successfully treated by 2016
 
Experiment ALICE at CERN
1994Approval for Participation of GSI, including funding by GSI
Funding of the German Universitiy Groups by the BMFT
 
Experiment HADES at GSI
1994 Approval as High Acceptance Di-Electron Spectrometer

Unusually long delays in construction. Quite successful in topics of hadron
production (in particular strangeness), but results on di-electrons not yet
up to orginal expectations (status 2016)
 
Long-Term Future of GSI
1996Installation of 9 Working Groups with European Participation
(Pre-NUPECC, with a mixture of low- and high-energy physicists as
independent advisors)

- Deep-inelastic electron-nucleon and electron-nucleus scattering
- X-ray spectroscopy and radiation physics
- Nuclear collisions at maximum baryon density
- Physics of secondary beams
- Nuclear structure with radioactive beams
- Plasma physics with heavy ion beams
- Accelerator studies (electron-nucleon/nucleus collider)
- Accelerator studies (high-intensity option)
- High Power Lasers at GSI
1999 A Long-Range Plan for an Upgrade of the GSI Facilities
(Status Report for the Scientific Council of GSI, May 1999; not public)

Spirit of the recommendations after a 3 years’ discussion period (citations):
Heavy ion beams as the continued backbone of any future program, with
very high beam intensities rather than much higher energies; in line with
the best tradition of the laboratory, ensuring uniqueness on a world-wide
scale also in the longer run; present proposal so far abstained from ’foreign
terrain’, i.e leptonic and hadronic probes (groups 1 and 4, resp.): the first
was transferred to DESY (joint workshop 1997 in Seeheim), the second
(primarily antiprotons) was being discussed by a community outside GSI,
mostly former LEAR users, and subject to their own separate document

Concrete proposal in 2 phases, addressing the topics of all other groups:
(1) new fragment separator; intermediate collector ring with stochastic
cooling; much improved ESR with electron cooling; new electron storage
ring (filled by a new 100 MeV electron linac) for a colliding mode with
fragments in the ESR; net luminosity gain of the new fragmentation and
storage ring facility a factor of about 100. (2) new 50 Tm synchrotron in
combination with a new 18 Tm accumulator ring to get the full benefits
of (1) together with strong further luminosity increases
 
High-Power Laser at GSI
1998PHELIX - Petawatt High-Energy Laser for Heavy-Ion EXperiments

A Kilojoule, Petawatt Laser at GSI, offering stand-alone possibilities among
the leading European facilities, but with the combination of high-current
heavy-ion beams and intense laser beams world-wide unique synergies
for basic issues in nuclear, atomic and plasma physics, apart from direct
relevance for applied physics topics like inertial confinement fusion

Highly successful and in great demand by a large users community