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Change of Perspective.

Photo: Paderborn University

Alexander Sprenger, M.Sc.

Contact
Publications
 Alexander Sprenger, M.Sc.

Computer Engineering (DATE)

Member - Research Student - Research, Teaching

Phone:
+49 5251 60-3923
Fax:
+49 5251 60-4221
Office:
P1.6.08.5
Office hours:

after agreement

Visitor:
Pohlweg 47-49
33098 Paderborn

Studienberatung Elektrotechnik (Studi.ET)

Member - Employee - Study Counselor Computer Engineering (from 01.11.2020)

Phone:
+49 5251 60-3202
Fax:
+49 5251 60-3873
Office:
P1.3.38
Visitor:
Pohlweg 47-49
33098 Paderborn

Open list in Research Information System

2020

Variation-Aware Test for Logic Interconnects using Neural Networks - A Case Study

A. Sprenger, S. Sadeghi-Kohan, J.D. Reimer, S. Hellebrand, in: IEEE International Symposium on Defect and Fault Tolerance in VLSI and Nanotechnology Systems (DFT’20), October 2020, 2020


Logic Fault Diagnosis of Hidden Delay Defects

S. Holst, M. Kampmann, A. Sprenger, J.D. Reimer, S. Hellebrand, H. Wunderlich, X. Weng, in: IEEE International Test Conference (ITC'20), November 2020, 2020


2019

A Hybrid Space Compactor for Varying X-Rates

M.U. Maaz, A. Sprenger, S. Hellebrand, 31. Workshop "Testmethoden und Zuverlässigkeit von Schaltungen und Systemen" (TuZ'19), 2019


Divide and Compact - Stochastic Space Compaction for Faster-than-At-Speed Test

A. Sprenger, S. Hellebrand, Journal of Circuits, Systems and Computers (2019), 28(1), pp. 1-23


A Hybrid Space Compactor for Adaptive X-Handling

M.U. Maaz, A. Sprenger, S. Hellebrand, in: 50th IEEE International Test Conference (ITC), IEEE, 2019, pp. 1-8

The test for small delay faults is of major importance for predicting potential early life failures or wearout problems. Typically, a faster-than-at-speed test (FAST) with sev¬eral different frequencies is used to detect also hidden small delays, which can only be propagated over short paths. But then the outputs at the end of long paths may no longer reach their stable values at the nominal observation time and must be considered as unknown (X-values). Thus, test response compaction for FAST must be extremely flexible to cope with high X-rates, which also vary with the test frequencies. Stochastic compaction introduced by Mitra et al. is controlled by weighted pseudo-random signals allowing for easy adaptation to varying conditions. As demonstrated in previous work, the pseudo-random control can be optimized for high fault efficiency or X-reduction, but a given target in fault efficiency cannot be guaranteed. To close this gap, a hybrid space compactor is introduced in this paper. It is based on the observation that many faults are lost in the compaction of relatively few critical test patterns. For these critical patterns a deterministic compaction phase is added to the test, where the existing compactor structure is re-used, but controlled by specifically determined control vectors.


    2018

    Stochastische Kompaktierung für den Hochgeschwindigkeitstest

    A. Sprenger, S. Hellebrand, 30. Workshop "Testmethoden und Zuverlässigkeit von Schaltungen und Systemen" (TuZ'18), 2018


    Tuning Stochastic Space Compaction to Faster-than-at-Speed Test

    A. Sprenger, S. Hellebrand, in: 2018 IEEE 21st International Symposium on Design and Diagnostics of Electronic Circuits & Systems (DDECS), IEEE, 2018


    Open list in Research Information System

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