More on Quantum Fields and Strings

The marriage of quantum mechanics and special relativity gave us quantum field theory, our most powerful theoretical framework for the description of nature. 

From the more difficult union of quantum field theory and general relativity, string theory was born as a tantalisingly elegant but also mysterious – and incomplete – framework. 
 
Among its mysteries is holography, which tells us that certain string theories are actually equivalent to quantum field theories. This fascinating intersection of ideas has dominated much of the more theoretical thinking of recent times and has given rise to a number of surprising results, like the connection of entanglement and geometry, and the discovery of a wealth of new quantum field theories beyond those previously known.
 
Holography has also equipped physicists with powerful new computational tools which have led to results that would have been deemed fantasy in the not the too distant past.
 
The quantum fields and strings research area at PI is not only the largest but also one of the most diverse. All of its faculty members are conducting strong research programs which, when combined, span a very large cross section of this area’s research in the world. 
 
Fully understanding the emergence of spacetime from a deeper quantum structure is now becoming a realistic goal. This new view may change the way we think about the early universe, and yield a deeper fundamental understanding of information theory.
 

FURTHER EXPLORATION

INTRODUCTORY:

INTERMEDIATE:
  • String Theory Lego for Black Holes (Perimeter Public Lecture) - Amanda Peet explains how string theory can provide the Lego pieces of the universe to understand phenomena like black holes.
ADVANCED:
 
 

 

Fully understanding the emergence of spacetime from a deeper quantum structure is now becoming a realistic goal.