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<p>Power management for embedded devices in Fifth Generation (5G) networks is mandatory for synchronizing the communication between the devices. In such cases, the need for integration power optimization is recommended aiding lossless and high-speed communications. To suppress the issues in embedded hardware-based power failures during transmissions, this article proposes a Compressive Transmission Scheme (CTS) through Power Regulation (PR). The proposed scheme identifies multiple transmission possibilities under low power and high throughput constraints of 5G in a single interval. The device integrations are decided by the available devices under power-efficient transmission slots. Such allocation slots are defined for integrated transmission using neural-diffracted networks. The learning network defines the objectives for transmission between embedded hardware and the 5G device under low power. This is pursued until the transmission is completed; the adverse energy drain impact is handled by offloading the slots to the active hardware available. This balances the power management to prevent communication loss satisfying the 5G constraints. For the maximum slots/device, the proposed scheme achieves 11.46% high slot allocation, 12.47% low latency, and 9.99% less power consumption.</p>

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Compressive transmission scheme for power regulation of embedded 5G communication devices

  • 期刊论文

  • 出版模式：

    开放获取

  • 发表日期：

    2025年2月18日

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  • Min Zhu,
  • Xianghua Liu,
  • Zhanxiang Ye,
  • Salwa Othmen,
  • Ayman Alfahid,
  • Aymen Flah,
  • Zdenek Slanina

摘要

Power management for embedded devices in Fifth Generation (5G) networks is mandatory for synchronizing the communication between the devices. In such cases, the need for integration power optimization is recommended aiding lossless and high-speed communications. To suppress the issues in embedded hardware-based power failures during transmissions, this article proposes a Compressive Transmission Scheme (CTS) through Power Regulation (PR). The proposed scheme identifies multiple transmission possibilities under low power and high throughput constraints of 5G in a single interval. The device integrations are decided by the available devices under power-efficient transmission slots. Such allocation slots are defined for integrated transmission using neural-diffracted networks. The learning network defines the objectives for transmission between embedded hardware and the 5G device under low power. This is pursued until the transmission is completed; the adverse energy drain impact is handled by offloading the slots to the active hardware available. This balances the power management to prevent communication loss satisfying the 5G constraints. For the maximum slots/device, the proposed scheme achieves 11.46% high slot allocation, 12.47% low latency, and 9.99% less power consumption.