基于变压器的架构在许多下游流动任务中显示出显着的结果，包括问题应答。另一方面，数据的可用性阻碍了获得低资源语言的合法性能。在本文中，我们调查了预先训练的多语言模型的适用性，以提高低资源语言的问题的表现。我们使用与MLQA DataSet类似的七种语言进行多语言变压器架构测试了四种语言和任务适配器的组合。此外，我们还提出了使用语言和任务适配器回答的低资源问题的零拍摄转移学习。我们观察到堆叠语言和任务适配器对低资源语言的微语文变压器模型的性能显着提高。

过去十年互联网上可用的信息和信息量增加。该数字化导致自动应答系统需要从冗余和过渡知识源中提取富有成效的信息。这些系统旨在利用自然语言理解（NLU）从此巨型知识源到用户查询中最突出的答案，从而取决于问题答案（QA）字段。问题答案涉及但不限于用户问题映射的步骤，以获取相关查询，检索相关信息，从检索到的信息等找到最佳合适的答案等。当前对深度学习模型的当前改进估计所有这些任务的令人信服的性能改进。在本综述工作中，根据问题的类型，答案类型，证据答案来源和建模方法进行分析QA场的研究方向。此细节随后是自动问题生成，相似性检测和语言的低资源可用性等领域的开放挑战。最后，提出了对可用数据集和评估措施的调查。

为低资源语言开发自然语言处理资源是一个具有挑战性的，但必不可少的任务。在本文中，我们为古吉拉特提提出了一种形态学分析仪。我们使用了基于双向LSTM的方法来执行语素边界检测和语法特征标记。我们创建了一个带有引理和语法特征的古吉拉特语的数据集。本文讨论的基于Bi-LSTM的Morph分析仪模型，有效地处理了语言形态，而不知道任何手工制作的后缀规则。据我们所知，这是Gujarati语言的第一个DataSet和Morph分析仪模型，它执行语法特征标记和语素边界检测任务。

Soft actuators have attracted a great deal of interest in the context of rehabilitative and assistive robots for increasing safety and lowering costs as compared to rigid-body robotic systems. During actuation, soft actuators experience high levels of deformation, which can lead to microscale fractures in their elastomeric structure, which fatigues the system over time and eventually leads to macroscale damages and eventually failure. This paper reports finite element modeling (FEM) of pneu-nets at high angles, along with repetitive experimentation at high deformation rates, in order to study the effect and behavior of fatigue in soft robotic actuators, which would result in deviation from the ideal behavior. Comparing the FEM model and experimental data, we show that FEM can model the performance of the actuator before fatigue to a bending angle of 167 degrees with ~96% accuracy. We also show that the FEM model performance will drop to 80% due to fatigue after repetitive high-angle bending. The results of this paper objectively highlight the emergence of fatigue over cyclic activation of the system and the resulting deviation from the computational FEM model. Such behavior can be considered in future controllers to adapt the system with time-variable and non-autonomous response dynamics of soft robots.

通用形态（UNIMORPH）项目是一项合作的努力，可为数百种世界语言实例化覆盖范围的标准化形态拐角。该项目包括两个主要的推力：一种无独立的特征架构，用于丰富的形态注释，并以各种语言意识到该模式的各种语言的带注释数据的类型级别资源。本文介绍了过去几年对几个方面的扩张和改进（自McCarthy等人（2020年）以来）。众多语言学家的合作努力增加了67种新语言，其中包括30种濒危语言。我们已经对提取管道进行了一些改进，以解决一些问题，例如缺少性别和马克龙信息。我们还修改了模式，使用了形态学现象所需的层次结构，例如多肢体协议和案例堆叠，同时添加了一些缺失的形态特征，以使模式更具包容性。鉴于上一个UniMorph版本，我们还通过16种语言的词素分割增强了数据库。最后，这个新版本通过通过代表来自metphynet的派生过程的实例丰富数据和注释模式来推动将衍生物形态纳入UniMorph中。

With the substantial performance of neural networks in sensitive fields increases the need for interpretable deep learning models. Major challenge is to uncover the multiscale and distributed representation hidden inside the basket mappings of the deep neural networks. Researchers have been trying to comprehend it through visual analysis of features, mathematical structures, or other data-driven approaches. Here, we work on implementation invariances of CNN-based representations and present an analytical binary prototype that provides useful insights for large scale real-life applications. We begin by unfolding conventional CNN and then repack it with a more transparent representation. Inspired by the attainment of neural networks, we choose to present our findings as a three-layer model. First is a representation layer that encompasses both the class information (group invariant) and symmetric transformations (group equivariant) of input images. Through these transformations, we decrease intra-class distance and increase the inter-class distance. It is then passed through a dimension reduction layer followed by a classifier. The proposed representation is compared with the equivariance of AlexNet (CNN) internal representation for better dissemination of simulation results. We foresee following immediate advantages of this toy version: i) contributes pre-processing of data to increase the feature or class separability in large scale problems, ii) helps designing neural architecture to improve the classification performance in multi-class problems, and iii) helps building interpretable CNN through scalable functional blocks.

Explainable Artificial Intelligence (AI) in the form of an interpretable and semiautomatic approach to stage grading ocular pathologies such as Diabetic retinopathy, Hypertensive retinopathy, and other retinopathies on the backdrop of major systemic diseases. The experimental study aims to evaluate an explainable staged grading process without using deep Convolutional Neural Networks (CNNs) directly. Many current CNN-based deep neural networks used for diagnosing retinal disorders might have appreciable performance but fail to pinpoint the basis driving their decisions. To improve these decisions' transparency, we have proposed a clinician-in-the-loop assisted intelligent workflow that performs a retinal vascular assessment on the fundus images to derive quantifiable and descriptive parameters. The retinal vessel parameters meta-data serve as hyper-parameters for better interpretation and explainability of decisions. The semiautomatic methodology aims to have a federated approach to AI in healthcare applications with more inputs and interpretations from clinicians. The baseline process involved in the machine learning pipeline through image processing techniques for optic disc detection, vessel segmentation, and arteriole/venule identification.

Deep learning classifiers provide the most accurate means of automatically diagnosing diabetic retinopathy (DR) based on optical coherence tomography (OCT) and its angiography (OCTA). The power of these models is attributable in part to the inclusion of hidden layers that provide the complexity required to achieve a desired task. However, hidden layers also render algorithm outputs difficult to interpret. Here we introduce a novel biomarker activation map (BAM) framework based on generative adversarial learning that allows clinicians to verify and understand classifiers decision-making. A data set including 456 macular scans were graded as non-referable or referable DR based on current clinical standards. A DR classifier that was used to evaluate our BAM was first trained based on this data set. The BAM generation framework was designed by combing two U-shaped generators to provide meaningful interpretability to this classifier. The main generator was trained to take referable scans as input and produce an output that would be classified by the classifier as non-referable. The BAM is then constructed as the difference image between the output and input of the main generator. To ensure that the BAM only highlights classifier-utilized biomarkers an assistant generator was trained to do the opposite, producing scans that would be classified as referable by the classifier from non-referable scans. The generated BAMs highlighted known pathologic features including nonperfusion area and retinal fluid. A fully interpretable classifier based on these highlights could help clinicians better utilize and verify automated DR diagnosis.

这项研究的重点是在分析二维肺X射线图像中的特定人工智能子场的应用，以辅助医学诊断普通肺炎。卷积神经网络算法是在基于Python编码的基于烧瓶的Web应用程序中实现的，该应用程序可以分析X射线图像以检测普通肺炎。由于卷积神经网络算法依靠机器学习来识别和检测模式，因此实施了一种称为转移学习的技术来训练神经网络，以识别和检测数据集中的模式。开源肺X射线图像被用作训练数据，以创建一个知识库，该知识库是Web应用程序的核心元素，实验设计采用了5次验证性测试来验证Web应用程序。 5次验证性测试的结果显示，每次试验的诊断精度百分比，一般诊断精度百分比和一般诊断错误百分比的计算，而混淆矩阵进一步显示了标签和Web应用程序相应诊断结果之间的关系。每个测试图像。开发的Web应用程序可以由医生可以在A.I.辅助诊断普通肺炎的诊断中以及计算机科学和生物信息学领域的研究人员中使用。

Designing experiments often requires balancing between learning about the true treatment effects and earning from allocating more samples to the superior treatment. While optimal algorithms for the Multi-Armed Bandit Problem (MABP) provide allocation policies that optimally balance learning and earning, they tend to be computationally expensive. The Gittins Index (GI) is a solution to the MABP that can simultaneously attain optimality and computationally efficiency goals, and it has been recently used in experiments with Bernoulli and Gaussian rewards. For the first time, we present a modification of the GI rule that can be used in experiments with exponentially-distributed rewards. We report its performance in simulated 2- armed and 3-armed experiments. Compared to traditional non-adaptive designs, our novel GI modified design shows operating characteristics comparable in learning (e.g. statistical power) but substantially better in earning (e.g. direct benefits). This illustrates the potential that designs using a GI approach to allocate participants have to improve participant benefits, increase efficiencies, and reduce experimental costs in adaptive multi-armed experiments with exponential rewards.