Programme

Conference Programme

SCIENTIFIC OUTLINE

Modern physics has been founded by the development of two fundamental theories in the first half of the 20th century: general relativity and quantum mechanics. Quantum mechanics governs the physics of the small fundamental particles such as electrons; general relativity describes large objects with gravitational interactions such as stars and galaxies. Despite the great success of modern physics in explaining most of our physical observations, there are a number of open, unanswered questions. For example, cosmological observations prove that there must be unknown sources of matter and energy in the universe that we cannot see with our current detectors – the so-called dark matter and dark energy. Dark matter is a form of massive particles that exists but barely interferes with the world that we experience. Another example is the incompatibility of general relativity and quantum mechanics: Scientists have so far been unable to formulate a unifying theory that describes the physics of both electrons and stars.

Fundamental questions of this kind are typically approached by cosmological observations or huge particle accelerator facilities. However, it is also possible to find answers in standard laboratories, where possible effects are tiny and require extremely sensitive devices. Such extreme sensitivities can be reached by so-called quantum sensors – sensors that exploit the fascinating properties of quantum mechanics. For example, today’s best atomic clocks can measure time with 18-digit precision, and one may hope to detect passing clouds of dark matter by tiny frequency changes. 

CONFERENCE PROGRAMME

The conference time table and book of abstracts for download [PDF]
Time

Tuesday,
11 June 2019

Wednesday,
12 June 2019

Thursday,
13 June 2019

Friday,
14 June 2019

09:00

 

M. Kasevich

J. Thompson

H. Müller

09:40

 

W. Schleich

M. Zych

K. Jungmann

10:20

 

 BREAK

 BREAK

 BREAK

10:50

 

T. Zelevinsky

P. Treutlein

D. Leibrandt

11:30

 

M. Mitchell

D. Budker

M. Schleier-Smith

12:10

 

N. Huntemann

S. Gleyzes

S. Schiller

12:50

 

 LUNCH 

 LUNCH

 LUNCH 

14:00

Lab tours

Leibniz Universität Hannover
(3pm, foyer to lecture hall E001, main building of Leibniz University Hannover)

OR

Physikalisch-Technische Bundesanstalt (2pm, foyer to lecture hall E001, main building of Leibniz University Hannover)


 

 

J. Eby

P. Kunkel

H. Winter

14:20 P. Feldmann L. Morel A. Aloy

14:40

M. Barrett

I. Fuentes

V. Flambaum

15:20

C. Champenois

P. Bouyer

B. Sauer

16:00 BREAK BREAK BREAK

16:30

W. Ubachs

K. Chabuda

E. Giese

16:50
S. Ulmer

M. Bonneau
17:10 E. Witkowska

 

17:30

 J. Crespo López

S. Abend

17:50P. Bushev DEPARTURE
18:10 DINNER DINNER
19:00 Welcome Reception

(7pm, foyer to lecture hall E001, main building of Leibniz University Hannover)

20:00 – 22:00

Poster Session I

Poster Session II


LAB TOURS

On 11 th June 2019, we offer lab tours. Participants can choose either a tour at Leibniz University Hannover or at Physikalisch-Technische Bundesanstalt. Please indicate if you wish to participate in your application.

Afterwards, a welcome reception takes place at Leibniz University Hannover at 7pm. Participants may sign in for the welcome reception in their application. We will serve food and beverages.

Lab tours at Leibniz University Hannover

Meeting point is at 3pm in the foyer to lecture hall E001, main building of Leibniz University Hannover.

Lab tours for the groups

  • Carsten Klempt - Quantum Atom Optics
  • Silke Ospelkaus - Molecular Quantum Gases
  • Christian Ospelkaus - Trapped-Ion Quantum Computing
  • Ernst Rasel - Quantum Sensing
  • Hannover Institute of Technology (HITec)
    • Very-Long Baseline Atom Interferometer
    • Einstein Elevator

Bus tour to the lab visit at PTB Braunschweig

Meeting point is at 2pm in the foyer to lecture hall E001, main building of Leibniz University Hannover. A bus will take the participants to the PTB (1 hour) and back until 7pm.

Lab tours for the groups

  • Piet Schmidt - Quantum logic spectroscopy of Al+, molecules and highly charged ions
  • Tanja Mehlstäubler - Quantum clocks and complex systems; scalable ion traps
  • Uwe Sterr - Highly stable laser sources with sub-hertz linewidth
  • Christian Lisdat - Strontium optical lattice clocks: in the lab and on tour
  • Ekkehard Peik - Optical frequency standards with 171Yb+
© Christian Malsch / LUH
© PTB

PROGRAMME COMMITTEE

  • Carsten Klempt
    Leibniz University Hannover

  • Klemens Hammerer
    Leibniz University Hannover

  • Tanja Mehlstäubler
    Physikalisch-Technische Bundesanstalt Braunschweig (PTB)

  • Teresa Meiners
    Leibniz University Hannover
  • Luis Santos
    Leibniz University Hannover

  • Dennis Schlippert
    Leibniz University Hannover

  • Piet Schmidt
    Leibniz University Hannover/ PTB Braunschweig

  • Augusto Smerzi
    Leibniz Universität Hannover / European Laboratory for Non-Linear Spectroscopy, Florence, Italy