Remembering What is Important: A Factorised Multi-Head Retrieval and Auxiliary Memory Stabilisation Scheme for Human Motion Prediction

Tharindu Fernando;Harshala Gammulle;Sridha Sridharan;Simon Denman;Clinton Fookes
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Abstract

Humans exhibit complex motions that vary depending on the activity they are performing, the interactions they engage in, as well as subject-specific preferences. Therefore, forecasting a human’s future pose based on the history of his or her previous motion is a challenging task. This paper presents an innovative auxiliary-memory-powered deep neural network framework to improve the modelling of historical knowledge. Specifically, we disentangle subject-specific, action-specific, and other auxiliary information from the observed pose sequences and utilise these factorised features to query the memory. A novel Multi-Head knowledge retrieval scheme leverages these factorised feature embeddings to perform multiple querying operations over the historical observations captured within the auxiliary memory. Moreover, we propose a dynamic masking strategy to make this feature disentanglement process adaptive. Two novel loss functions are introduced to encourage diversity within the auxiliary memory, while ensuring the stability of the memory content such that it can locate and store salient information that aids the long-term prediction of future motion, irrespective of any data imbalances or the diversity of the input data distribution. Extensive experiments conducted on two public benchmarks, Human3.6M and CMU-Mocap, demonstrate that these design choices collectively allow the proposed approach to outperform the current state-of-the-art methods by significant margins: $> $ 17% on the Human3.6M dataset and $> $ 9% on the CMU-Mocap dataset.
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记住什么是重要的:一个分解的多头检索和辅助记忆稳定方案,用于人体运动预测
人类表现出复杂的动作,这些动作取决于他们正在进行的活动、他们参与的互动以及特定主题的偏好。因此,根据一个人之前的运动历史来预测他或她未来的姿势是一项具有挑战性的任务。本文提出了一种创新的辅助记忆驱动的深度神经网络框架,以改进历史知识的建模。具体来说,我们从观察到的姿势序列中分离出特定于主体、特定于动作和其他辅助信息,并利用这些分解的特征来查询记忆。一种新的多头知识检索方案利用这些因式特征嵌入对辅助存储器中捕获的历史观测值执行多个查询操作。此外,我们提出了一种动态掩蔽策略,使该特征解纠缠过程自适应。引入了两个新的损失函数来鼓励辅助记忆中的多样性,同时确保记忆内容的稳定性,使其能够定位和存储有助于长期预测未来运动的显著信息,而不考虑任何数据不平衡或输入数据分布的多样性。在两个公共基准(human360 m和mu - mocap)上进行的大量实验表明,这些设计选择共同允许所提出的方法以显著的优势优于当前最先进的方法:human360万数据集17%;在CMU-Mocap数据集上花费9%。
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