PPT-From Full Stopping To Transparency In holography

Towards more realistic models of the QGP thermalisation Wilke van der Schee Supervisors Gleb Arutyunov Thomas Peitzmann and Raimond Snellings Conference on initial stages of heavyion collisions Ila de Toxa Spain. A more detailed explanation of holography can be found in the PhD theses of Dr R Barth and Dr M Sch57535rmann and in the Diploma thesis of T Gorniak all carried out in our group Furthermore this introduction is based on the corresponding chapt STOPPING RULE PROBLEMS The theory of optimal stopping is concerned with the problem of choosing a time to take a given action based on sequentially observed random variables in order to maximize an expected payo64256 or to minimize an expected cost Muhammad Hasan Danish Khan. University of . Vaasa, Finland. Outline. Introduction. Principles. Optical holograms. Applications. References. Holography. Is a technique that allows the light scattered from an object to be recorded and later reconstructed so that when an imaging system (a camera or an eye) is placed in the reconstructed beam, an image of the object will be seen even when the object is no longer present. . Lecture . 5.. Display Holography. David J. Brady. Duke University. Lecture 5. Display Holography. www.disp.duke.edu/~dbrady/courses/holography. Outline. Homework. Review from Friday. Bragg mismatch. Lecture . 12. . Computer Generated . Holograms II. David J. Brady. Duke University. Lecture . 11. . Computer Generated . Holograms II. www.disp.duke.edu/~dbrady/courses/holography. Review. Lecture 10. Computer Generated Holograms. Lecture 11. Computer Generated Holograms. David J. Brady. Duke University. Lecture 11. Computer Generated Holograms. www.disp.duke.edu/~dbrady/courses/holography. Holographic projectors. Lecture . 11. . Lecture 12. HW catch-up and Digital Holography Introduction. David J. Brady. Duke University. Lecture 12: Catch-up. www.disp.duke.edu/~dbrady/courses/holography. HW 5. Make volume holograms using the material described in. Lecture 7. Information capacity of volume holograms. David J. Brady. Duke University. Lecture 7. Information capacity of volume holograms. www.disp.duke.edu/~dbrady/courses/holography. Lecture 5. Display Holography. Chiral Magnetic . Effect and . Background-Dependence. . . . . Ingo Kirsch. . DESY Hamburg, Germany. `. International . Symposium . Ahrenshoop. . on . Lecture . 9. Optical Coherence Tomography. David J. Brady. Duke University. Lecture 9. Optical coherence tomography. www.disp.duke.edu/~dbrady/courses/holography. Outline. Huang paper. Tomography. OCT and light-in-flight holography. Towards more realistic models of the QGP thermalisation. Wilke van der Schee. Supervisors: Gleb Arutyunov, . Thomas Peitzmann and Raimond Snellings. Conference on initial stages of heavy-ion collisions, Ila de Toxa, Spain. Lecture 8. Light in flight holography. David J. Brady. Duke University. Lecture 8. Light in flight holography. www.disp.duke.edu/~dbrady/courses/holography. Lecture 8. Light in flight holography. www.disp.duke.edu/~dbrady/courses/holography. Lecture 3 Three exercises in hologram analysis. David J. Brady. Duke University. Lecture 3. Three exercises. www.disp.duke.edu/~dbrady/courses/holography. Outline. Resolution of off axis holograms. Holographic magnification. Multicultural Toronto English. Lauren Bigelow, Tim Gadanidis, Lisa Schlegl, . Pocholo Umbal, and Derek Denis. 2nd Annual Buffalo-Toronto Workshop on Linguistic Perspectives on Variation Within and Across Languages.