Electronics for Instrumentation in Nuclear Science

A special issue of Instruments (ISSN 2410-390X).

Deadline for manuscript submissions: closed (30 September 2020) | Viewed by 417

Special Issue Editor


E-Mail Website
Guest Editor
Department of Physics, University of Naples “Federico II” and INFN, I-80126 Napoli, Italy
Interests: Field Programmable Gate Arrays (FPGAs); single event upsets (SEUs); configuration scrubbing; radiation hardening by design (RHBD); high-energy physics (HEP); trigger and data acquistion (TDAQ) systems; high-speed serial links; clock distribution; time-to-digital converters (TDCs)

Special Issue Information

Dear Colleagues,

The design of instrumentation for Nuclear Science, including experiments in Nuclear, Particle, and Astroparticle Physics is a very active field of research. Very often it is necessary to use state-of-art techniques to design systems with special features, which are driven by the extreme requirements of the experiments. The production volumes normally range from tens of units, in space and in other niche experiments, to thousands of units, in large experiments at hadronic and leptonic colliders. As far as it concerns digital components, Field Programmable Gate Arrays (FPGAs) are usually the preferred solution due to the lack of non-recurrent engineering costs and turnaround time. Latest-generation FPGAs integrate hundred thousands of registers and look-up-tables, equivalent to millions of logic gates. They embed dozens of high-speed serial transceivers exceeding 30 Gbps per line. Most FPGA families are also reconfigurable, even after the final deployment in the system. Their processing capabilities and their flexibility pushed the use of reconfigurable FPGAs also to mild-radiation areas, e.g. on outer detectors of experiments at particle accelerators. This required the development of complex firmware-level mitigation techniques against radiation effects. Moreover, recently, deep and machine learning techniques have started being implemented in FPGAs for real-time applications.

Other the other hand, application specific integrated circuits (ASICs) have been and still are a key technology for on-detector applications Nuclear Science. The main reasons are:

  1. possibility to perform analog signal conditioning and implement mixed-signal functions in a single device;
  2. small physical size, which make them compatible with the tight space constraints of detectors, e.g. in pixel vertex detectors. Small custom ASICs can often be positioned closer to sensor to reduce input capacitance and improve noise performance;
  3. low power dissipation, which is required to reliably power and cool down on-detector electronics;
  4. extreme radiation tolerance, as experiments at colliders normally require total ionization dose (TID) tolerance from few Mrads to 1 Grad (as for example at the Large Hadron Collider) and immunity against single event effects (SEEs);

The aim of this Special Issue of Instruments is to collect contributions focused on advancements in applications of modern programmable logic and application specific integrated circuits to any field of Nuclear Science. Manuscripts describing novel techniques and/or the implementation of systems for real-time data conversion, acquisition, processing, and transfer are welcome. Topics of interests include, but are not limited to, the following aspects:

  • trigger and data acquisition systems (TDAQ): novel architectures deployed in machines and particle detectors but also conceptual designs for future applications;
  • real-time data processing: novel techniques for feature extraction, data compression, signal processing and their implementation;
  • time to digital converters (TDCs), analog to digital converters (ADCs), digital to analog converters (DACs): novel architectures, implementations in ASICs and FPGAs, and their applications in experiments or machine control;
  • fast serial links for data transfer, trigger and clock distribution: architectures for data transfers from few units to several tens of Gbps per transmission line;
  • applications in radiation environments: including particle detectors, accelerators, and instrumentation in space, and mitigation techniques for radiation effects;
  • machine and deep learning for real-time applications: methods and algorithms and their hardware implementation.

Dr. Raffaele Giordano
Guest Editor

Manuscript Submission Information

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Keywords

  • FPGAs
  • real-time
  • radiation
  • TDAQ
  • fast links

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Published Papers

There is no accepted submissions to this special issue at this moment.
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