Cloud-Side Transactional Orchestration Framework for Resource-Constrained Embedded Systems

📅 2026-09-17
📈 Citations: 0
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🤖 AI Summary
论文提出了一种针对资源受限嵌入式系统的云端事务编排框架,通过迁移状态机和微服务编排到云端,并采用双握手协议,减少了客户端开销并提高了交易性能。
📝 Abstract
As digital commerce ecosystems expand into low-end consumer electronics (CE), hardware constraints-specifically limited CPU duty cycles and volatile heap fragmentation-become significant bottlenecks for complex transactional flows. Traditional on-device middleware requires high "network chattiness" to manage multi-step state machines, leading to increased latency and potential transaction failure on unstable residential networks. This paper proposes a novel Transactional Backend-for-Front-End (T-BFF) Orchestration Framework designed for resource-constrained embedded platforms. By migrating the transactional state machine and microservice orchestration to a cloud-side layer, we achieve a significant reduction in client-side overhead. Our framework introduces a "Double-Handshake" protocol utilizing non-volatile flash memory for state recovery after hardware reboots. Experimental results on an ARM Cortex-A53 platform demonstrate a 35% reduction in maximum heap usage and a 40% improvement in end-to-end transaction latency. This framework provides a scalable, sustainable blueprint for maintaining transactional integrity on legacy hardware in the 2026 IoT landscape.
Problem

Research questions and friction points this paper is trying to address.

Resource-Constrained
Embedded Systems
Transactional Flows
Network Chattiness
Heap Fragmentation
Innovation

Methods, ideas, or system contributions that make the work stand out.

Transactional Backend-for-Front-End (T-BFF)
Double-Handshake Protocol
Non-volatile Flash Memory
Resource-Constrained Embedded Systems
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