A RRAM-based FPGA for energy-efficient edge computing
However, breaking through the energy wall of FPGAs is a challenge, as low-power operation often requires compromising performances. In this paper, we study a low-power high
Home / Energy-efficient Raman amplifier for edge computing
The RAMAN accelerator is designed to leverage data and weight sparsity to deploy deep neural networks at the edge, ensuring low power consumption, minimal storage requirements, and reduced processing latency. To introduce novel solutions that can be viable for extreme edge cases, hybrid solutions combining conventional. Abstract—The shift from centralized cloud to edge comput-ing demands hardware systems with data processing capability at ultra-low power. Researchers at the Department of Electronic Systems Engineering, IISc, led by Chetan Singh Thakur, have developed an AI co-processor called RAMAN, or Re-configurable And sparse tinyML Accelerator for infereNce. This paper introduces the Modified Dadda Approximate Multiplier (MDAM), an innovative architecture that optimizes hardware economy.
However, breaking through the energy wall of FPGAs is a challenge, as low-power operation often requires compromising performances. In this paper, we study a low-power high
Edge computing helps to release the tension at the center of IoT systems'' networks, thus reducing the latency, optimizing the bandwidth, and providing new privacy and security solutions, among others.
In this paper, we consider the RISs-assisted multi-UAVs collaborative edge Computing Network (RUCN) in urban environment, in which we study the computational offloading problem. Our goal is to
To achieve maximum gain with small ripple, pump powers are selected using multiparameter optimization algorithm. The paper is organized in five sections.
As smart cities evolve, rising computational demands strain infrastructures. Offloading tasks to edge cloud data centers offers potential but faces challenges like high latency, energy use, and data
In the landscape of cloud-driven environments, the convergence of artificial intelligence (AI) workloads with edge computing architectures holds promise for optimizing computational efficiency and
This paper proposes for the first time an approximate computing based energy-efficient hardware accelerator using Ramanujan Sums for edge detection applications
In this work, we propose NEON, a novel compiler optimization to enable the end-to-end execution of the NN workload in RRAM. The key idea of NEON is to transform each non-MAC
Approximate computing (a design paradigm that trades off a small degradation in application quality for disproportionate energy savings) is a promising technique
while using a fraction of the power of conventional ML solutions. In this work, we are proposing a hybrid software-hardware edge classifier aimed at the extreme edge near-sensor systems. The classifier
Plasma Raman amplifiers have been proposed as a mean to increase laser intensity beyond what is currently possible with solid state devices. The
We investigate the joint optimization problem of stochastic computation offloading, content caching strategy, and dynamic resource allocation to maximize the energy efficiency of mobile edge
This research focuses on energy-efficient edge computing in the context of intelligent edge computing. With the increasing demand for computation and data processing at edge network nodes, the study
The RAMAN accelerator is designed to leverage data and weight sparsity to deploy deep neural networks at the edge, ensuring low power consumption, minimal storage requirements, and reduced
Approximate computing has emerged as a promising paradigm for error-tolerant AI/ML applications deployed on energy-constrained edge devices where the complexity of hardware computing units
Background and Purpose: Edge Artificial Intelligence (AI) has emerged as a crucial solution for minimizing power consumption during real-time data processing in computing devices.
An efficient method to design the broadband gain-flattened Raman fiber amplifier (RFA) with multiple pumps is proposed based on a Extreme learning machine optimized by the salp swarm
Moreover, lowering cloud-edge systems'' energy footprints is essential for fostering sustainability in light of growing concerns about environmental effects. This research presents a comprehensive review of
Both 8-bit and 16-bit versions of existing approximate multipliers (AMs) were implemented in Verilog and synthesized using MATLAB, Xilinx Vivado, and Cadence RTL Compiler
Neuromorphic computing, inspired by the brain''s efficiency, offers a transformative solution by enabling parallel, adaptive learning with ultra-low power consumption, making it ideal for
Reconfigurable systems such as Field-Programmable Gate Arrays (FPGAs) have been a ubiquitous media in many edge computing systems, thanks to their flexibility in hardware implementation.
Abstract: The present research investigates optimizing energy-efficient computing environments through dynamic resource allocation in edge computing settings. The primary objective is to enhance system
In order to achieve energy efficiency in edge computing, a systematic review on energy efficiency of edge devices, edge servers, and cloud data centers is required.
The power consumption of a 5G base station using massive MIMO is dominated by the power consumption of the radio units whose power amplifier(s) consume most of the energy, thus
The von Neumann computing architecture faces considerable challenges (e.g., high throughput and improving energy efficiency) in developing artificial intelligence (AI) edge devices. In
In this paper, we investigate the energy efficiency maximization for mobile edge computing (MEC) in intelligent reflecting surface (IRS) assisted unmanned aerial vehicle (UAV) communications. In
F. Discussion In this paper, we introduce the lightweight, secure, and energy-efficient edge computing platform architecture. This architecture addresses edge computing platforms'' security and energy
This research proposed an energy-efficient framework for edge AI hardware platforms that balances performance and power consumption through the use of a deep reinforcement learning
Abstract This paper presents a new approach based on Boltzmann Distribution and Bayesian Optimization to solve the energy-efficient resource allocation in edge computing.
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