Marco Lanuzza

Associate Professor

University of Calabria

Italy

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Marco Lanuzza is an Associate Professor at Università della Calabria, Italy. His research focuses on physical unclonable functions, dynamic comparators, and innovative sensor designs for microfluidic applications. Recent publications include topics on content-addressable memory architectures and low-power designs for space communication, highlighting his expertise in enhancing performance and efficiency in electronic systems.

Marco Lanuzza

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Articles (22)

Hybrid Multiband Sensor for Dielectric Spectroscopy in Microfluidic Applications

A Physical Unclonable Function Based on a Differential Subthreshold PMOS Array with 9.73 × 10−4 Stabilized BER and 1.3 pJ/bit in 65 nm

An Accurate and Low-Complexity Offset Calibration Methodology for Dynamic Comparators

SpaceCAM: A 16 nm FinFET Low-Power Soft-Error Tolerant TCAM Design for Space Communication Applications

A 128-kbit Approximate Search-Capable Content-Addressable Memory (CAM) With Tunable Hamming Distance

FASTA: Revisiting Fully Associative Memories in Computer Microarchitecture

Highly Stable PUFs Based on Stacked Voltage Divider for Near-Zero BER Native Sensitivity to Voltage Variations

Monolithic 3-D-Based Nonvolatile Associative Processor for High-Performance Energy-Efficient Computations

PUF-Based Authentication-Oriented Architecture for Identification Tags

Weak Physycally Unclonable Functions in CMOS Technology: A Review

Cryo-SIMPLY: A Reliable STT-MRAM-Based Smart Material Implication Architecture for In-Memory Computing

Designing Precharge-Free Energy-Efficient Content-Addressable Memories

Voltage-controlled magnetic anisotropy based physical unclonable function

Approximate Content-Addressable Memories: A Review

AM4: MRAM Crossbar Based CAM/TCAM/ACAM/AP for In-Memory Computing

Efficiency of Double-Barrier Magnetic Tunnel Junction-Based Digital eNVM Array for Neuro-Inspired Computing

XNOR-Bitcount Operation Exploiting Computing-In-Memory With STT-MRAMs

A Low-Complexity Sensing Scheme for Approximate Matching Content-Addressable Memory

A Low-Energy DMTJ-Based Ternary Content- Addressable Memory With Reliable Sub-Nanosecond Search Operation

Efficient Implementation of Many-Ported Memories by Using Standard-Cell Memory Approach

FlexDML: High Utilization Configurable Multimode Arithmetic Units Featuring Dual Mode Logic

Voltage Reference With Corner-Aware Replica Selection/Merging for 1.4-mV Accuracy in Harvested Systems Down to 3.9 pW, 0.2 V

Collaborators (6)

Andrea Meo

Adam Teman

Giovanni Finocchio

Massimo Alioto

Benjamin Zambrano

Dominique Schreurs

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