DA+BMAC : Distance-Aware Bidirectional Medium Access Control for Mesh Wireless Network-on-Chip

Medium access control (MAC) protocol and routing strategy significantly influence Wireless Network-on-Chip (WiNoC) performance and energy characteristics. Conventional WiNoC MAC typically utilizes a daisy-chained ring topology, which limits wireless channel performance due to maximum waiting times...

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Main Authors: MOHD SHAHRIZAL, RUSLI, Asrani, Lit, MUHAMMAD NADZIR, MARSONO, Ab Al-Hadi, Ab Rahman, SHAHIDATUL, SADIAH, MICHAEL LOONG, PENG TAN, SUHAILA, ISAAK, NORLINA, PARAMAN
Format: Article
Language:en
Published: IEEE 2025
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Online Access:http://ir.unimas.my/id/eprint/49310/1/DA%2BBMAC.pdf
http://ir.unimas.my/id/eprint/49310/
https://ieeexplore.ieee.org/document/11104118
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author MOHD SHAHRIZAL, RUSLI
Asrani, Lit
MUHAMMAD NADZIR, MARSONO
Ab Al-Hadi, Ab Rahman
SHAHIDATUL, SADIAH
MICHAEL LOONG, PENG TAN
SUHAILA, ISAAK
NORLINA, PARAMAN
author_facet MOHD SHAHRIZAL, RUSLI
Asrani, Lit
MUHAMMAD NADZIR, MARSONO
Ab Al-Hadi, Ab Rahman
SHAHIDATUL, SADIAH
MICHAEL LOONG, PENG TAN
SUHAILA, ISAAK
NORLINA, PARAMAN
author_sort MOHD SHAHRIZAL, RUSLI
building Centre for Academic Information Services (CAIS)
collection Institutional Repository
content_provider Universiti Malaysia Sarawak
content_source UNIMAS Institutional Repository
continent Asia
country Malaysia
description Medium access control (MAC) protocol and routing strategy significantly influence Wireless Network-on-Chip (WiNoC) performance and energy characteristics. Conventional WiNoC MAC typically utilizes a daisy-chained ring topology, which limits wireless channel performance due to maximum waiting times when a radio hub misses the token before packet arrival. Additionally, due to limited wireless channel bandwidth compared to aggregate wired interconnect capacity, radio hubs become susceptible to congestion when multiple processing cores simultaneously request wireless access. The lack of intelligent traffic control leads to indiscriminate wireless transmission even when efficient wired paths are available. This paper proposes DA+BMAC, a Distance-Aware (DA) Bidirectional Medium Access Control (BMAC) scheme for mesh WiNoC architecture. BMAC employs bidirectional links allowing token reversal when it overshoots an idle radio hub, reducing worst-case token wait time. DA+BMAC implements distance-aware routing to reserve single-hop wireless transmission exclusively for source-destination pairs beyond a specific distance threshold, while dedicating wired interconnects with higher aggregate bandwidth to short-range communication. Comprehensive validation using a cycle-accurate Noxim simulator on an 8 × 8 mesh with 16 radio hubs demonstrates up to 11.49× throughput improvement and 15% energy savings compared to a baseline token-ring WiNoC. Scalability analysis confirms performance benefits extend to larger networks (256 and 1024 cores), making DA+BMAC suitable for future many-core systems. The proposed approach has been validated using both synthetic traffic distributions (random, shuffle, transpose, and hotspot) and real-application traces (Barnes and Fluidanimate) from PARSEC and SPLASH-2 benchmark suites, confirming its effectiveness across diverse workloads.
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spelling my.unimas.ir-493102025-08-28T01:52:11Z http://ir.unimas.my/id/eprint/49310/ DA+BMAC : Distance-Aware Bidirectional Medium Access Control for Mesh Wireless Network-on-Chip MOHD SHAHRIZAL, RUSLI Asrani, Lit MUHAMMAD NADZIR, MARSONO Ab Al-Hadi, Ab Rahman SHAHIDATUL, SADIAH MICHAEL LOONG, PENG TAN SUHAILA, ISAAK NORLINA, PARAMAN TK Electrical engineering. Electronics Nuclear engineering Medium access control (MAC) protocol and routing strategy significantly influence Wireless Network-on-Chip (WiNoC) performance and energy characteristics. Conventional WiNoC MAC typically utilizes a daisy-chained ring topology, which limits wireless channel performance due to maximum waiting times when a radio hub misses the token before packet arrival. Additionally, due to limited wireless channel bandwidth compared to aggregate wired interconnect capacity, radio hubs become susceptible to congestion when multiple processing cores simultaneously request wireless access. The lack of intelligent traffic control leads to indiscriminate wireless transmission even when efficient wired paths are available. This paper proposes DA+BMAC, a Distance-Aware (DA) Bidirectional Medium Access Control (BMAC) scheme for mesh WiNoC architecture. BMAC employs bidirectional links allowing token reversal when it overshoots an idle radio hub, reducing worst-case token wait time. DA+BMAC implements distance-aware routing to reserve single-hop wireless transmission exclusively for source-destination pairs beyond a specific distance threshold, while dedicating wired interconnects with higher aggregate bandwidth to short-range communication. Comprehensive validation using a cycle-accurate Noxim simulator on an 8 × 8 mesh with 16 radio hubs demonstrates up to 11.49× throughput improvement and 15% energy savings compared to a baseline token-ring WiNoC. Scalability analysis confirms performance benefits extend to larger networks (256 and 1024 cores), making DA+BMAC suitable for future many-core systems. The proposed approach has been validated using both synthetic traffic distributions (random, shuffle, transpose, and hotspot) and real-application traces (Barnes and Fluidanimate) from PARSEC and SPLASH-2 benchmark suites, confirming its effectiveness across diverse workloads. IEEE 2025 Article PeerReviewed text en http://ir.unimas.my/id/eprint/49310/1/DA%2BBMAC.pdf MOHD SHAHRIZAL, RUSLI and Asrani, Lit and MUHAMMAD NADZIR, MARSONO and Ab Al-Hadi, Ab Rahman and SHAHIDATUL, SADIAH and MICHAEL LOONG, PENG TAN and SUHAILA, ISAAK and NORLINA, PARAMAN (2025) DA+BMAC : Distance-Aware Bidirectional Medium Access Control for Mesh Wireless Network-on-Chip. IEEE Access, 13. 140914 -140932. ISSN 2169-3536 https://ieeexplore.ieee.org/document/11104118 DOI: 10.1109/ACCESS.2025.3594190
spellingShingle TK Electrical engineering. Electronics Nuclear engineering
MOHD SHAHRIZAL, RUSLI
Asrani, Lit
MUHAMMAD NADZIR, MARSONO
Ab Al-Hadi, Ab Rahman
SHAHIDATUL, SADIAH
MICHAEL LOONG, PENG TAN
SUHAILA, ISAAK
NORLINA, PARAMAN
DA+BMAC : Distance-Aware Bidirectional Medium Access Control for Mesh Wireless Network-on-Chip
title DA+BMAC : Distance-Aware Bidirectional Medium Access Control for Mesh Wireless Network-on-Chip
title_full DA+BMAC : Distance-Aware Bidirectional Medium Access Control for Mesh Wireless Network-on-Chip
title_fullStr DA+BMAC : Distance-Aware Bidirectional Medium Access Control for Mesh Wireless Network-on-Chip
title_full_unstemmed DA+BMAC : Distance-Aware Bidirectional Medium Access Control for Mesh Wireless Network-on-Chip
title_short DA+BMAC : Distance-Aware Bidirectional Medium Access Control for Mesh Wireless Network-on-Chip
title_sort da+bmac : distance-aware bidirectional medium access control for mesh wireless network-on-chip
topic TK Electrical engineering. Electronics Nuclear engineering
url http://ir.unimas.my/id/eprint/49310/1/DA%2BBMAC.pdf
http://ir.unimas.my/id/eprint/49310/
https://ieeexplore.ieee.org/document/11104118
url_provider http://ir.unimas.my/