Digital Signal Processing Reference
In-Depth Information
new algorithms and implementations. For related reading, see [ 43 ] on FPGA-based
signal processing architectures and [ 60 ] on the process of mapping dataflow graphs
to FPGAs.
In this chapter, we have outlined the unique characteristics of HEP applications,
highlighted many of the technical and developmental challenges posed to the
designers of signal processing systems, and described techniques and strategies
that can help meet these challenges. The design of the Large Hadron Collider has
already pushed today's engineering capabilities to their limit, and historical trends
have shown that the amount of data collected by HEP experiments is increasing at
an exponential rate. Advancements to the triggering systems that handle this data
will be vital to the creation of the next generation of particle accelerators. The
development of novel tools, techniques, and architectures for these signal processing
systems will play a crucial role through the completion of the Super Large Hadron
Collider and beyond.
Acknowledgements This work was supported in part by the National Science Foundation, under
grant #0824040. Any opinions, findings, and conclusions or recommendations expressed in this
material are those of the authors and do not necessarily reflect the views of the NSF.
References
1. Abolins, M., Edmunds, D., Laurens, P., Linnemann, J., Pi, B.: A high luminosity trigger design
for the Tevatron collider experiment in DO. IEEE Trans. Nuclear Science 36 , 384-389 (1989)
2. Adler, S.S., et al.: PHENIX on-line systems. Nucl. Inst. and Meth. in Phys. Res. A 449 ,
560-592 (2003)
3. Altegoer, J., et al.: The trigger system of the NOMAD experiment. Tech. Rep. CERN-EP
98-202, CERN (1998)
4. Amidei, D., et al.: A two level FASTBUS based trigger system for CDF. Tech. Rep.
FERMILAB-Pub-87/187-E, The Enrico Fermi Institute (1987)
5. Amsler, C., et al.: Review of particle physics, 2008-2009. Review of particle properties, 2008-
2009. Phys. Lett. B 667 (2008)
6. Ang, R., Dutt, N.: Equivalent design representations and transformations for interactive
scheduling (1992)
7. Anikeev, K., et al.: CDF Level 2 Trigger upgrade (2005)
8. Anvar, S., et al.: The charged trigger system of NA48 at CERN. Nucl. Inst. and Meth. in Phys.
Res. A 419 , 686-694 (1998)
9. Azuelos, G., et al.: The Beyond the Standard Model Working Group: Summary report (2002)
10. Bachtis, M.: SLHC CMS Calorimeter Trigger dataflow and algorithms (2008)
11. Bachtis, M.: SLHC Calorimeter Trigger algorithms (2009)
12. Baudrenghien, P., Hfle, W., Kotzian, G., Rossi, V.: Digital signal processing for the multi-bunch
LHC transverse feedback system. Tech. Rep. LHC-PROJECT-Report-1151, CERN (2008)
13. Bene, P., et al.: First-level charged particle tirgger for the L3 detector. Nucl. Inst. and Meth. in
Phys.Res.A 306 , 150-158 (1991)
14. Bhattacharyya, S.S., Brebner, G., Eker, J., Janneck, J.W., Mattavelli, M., von Platen, C.,
Raulet, M.: OpenDF—A dataflow toolset for reconfigurable hardware and multicore systems.
In: Proceedings of the Swedish Workshop on Multi-Core Computing, pp. 43-49. Ronneby,
Sweden (2008)
 
 
 
 
 
 
 
 
 
 
 
 
 
 
Search WWH ::




Custom Search