Multi-Label Proportion Learning for Sea-Ice Type Prediction
本文针对海冰类型预测问题,提出了一种弱监督多标签比例学习方法,通过结合多实例学习与多模态数据,直接利用多边形级别标注,提高了预测精度。
本文针对海冰类型预测问题,提出了一种弱监督多标签比例学习方法,通过结合多实例学习与多模态数据,直接利用多边形级别标注,提高了预测精度。
本文通过早期哈希算力监控和基于检查点的防御机制,提出了一种两层防御策略来缓解区块链系统中的51%攻击问题。
研究提出了一种基于GeoAI的自主导航系统,通过整合多准则优化路线规划,解决北极航行中生态和社区影响被忽视的问题。
本文通过量化多标注者不确定性和模型不确定性,采用软监督和Monte Carlo dropout方法改进了海冰类型图的不确定性感知映射。
The exponentiation of Artificial intelligence (AI) in the recent past has entered a transformative era that has been driven by the growth in large language models (LLMs), large-scale compute infrastructures, and autonomous reasoning systems. However, the rapid acceleration of AI has increasingly shown technological, societal, economic, ethical and infrastructural challenges associated with peak data limitations, rising computational demands, synthetic data recursion, valuation inflation, and societal instability. The traditional scaling paradigms that have powered the modern AI systems are gradually encountering friction in sustaining continuous exponential growth. This paper views ``the end of AI exponentiation,''thus exploring how it flutters inside and outside the bubble, where instability emerges within the AI ecosystem through compute and data-center races, speculative investments, and the rat-race toward superintelligence, and outside the ecosystem through labor disruption, governance concerns, public uncertainty, and geopolitical acceleration surrounding future intelligent systems and infrastructures globally.
本文针对海冰类型预测问题,提出了一种弱监督多标签比例学习方法,通过结合多实例学习与多模态数据,直接利用多边形级别标注,提高了预测精度。
本文通过早期哈希算力监控和基于检查点的防御机制,提出了一种两层防御策略来缓解区块链系统中的51%攻击问题。
研究提出了一种基于GeoAI的自主导航系统,通过整合多准则优化路线规划,解决北极航行中生态和社区影响被忽视的问题。
本文通过量化多标注者不确定性和模型不确定性,采用软监督和Monte Carlo dropout方法改进了海冰类型图的不确定性感知映射。
The exponentiation of Artificial intelligence (AI) in the recent past has entered a transformative era that has been driven by the growth in large language models (LLMs), large-scale compute infrastructures, and autonomous reasoning systems. However, the rapid acceleration of AI has increasingly shown technological, societal, economic, ethical and infrastructural challenges associated with peak data limitations, rising computational demands, synthetic data recursion, valuation inflation, and societal instability. The traditional scaling paradigms that have powered the modern AI systems are gradually encountering friction in sustaining continuous exponential growth. This paper views ``the end of AI exponentiation,''thus exploring how it flutters inside and outside the bubble, where instability emerges within the AI ecosystem through compute and data-center races, speculative investments, and the rat-race toward superintelligence, and outside the ecosystem through labor disruption, governance concerns, public uncertainty, and geopolitical acceleration surrounding future intelligent systems and infrastructures globally.