Omkar2118/datasets huggingface dataset:
Gait3D-Parsing

**Gait3D-Parsing** is a dataset for gait recognition in the wild. It is an extension of the large-scale and challenging Gait-3D dataset which is collected from an in-the-wild environment. The train set has 3,000 IDs, and the test set has 1,000 IDs. Meanwhile, 1,000 sequences in the test set are taken as the query set, and the rest of the test set is taken as the gallery set.

Introducing paper: Parsing is All You Need for Accurate Gait Recognition in the Wild
BioCoder

**BioCoder** is a benchmark developed to evaluate existing pre-trained models in generating bioinformatics code. In relation to function-code generation, BioCoder covers potential package dependencies, class declarations, and global variables. It incorporates 1026 functions and 1243 methods in Python and Java from GitHub and 253 examples from the Rosalind Project.

Introducing paper: BioCoder: A Benchmark for Bioinformatics Code Generation with Large Language Models
TILT corpus
Full name: GDPR machine-readable transparency information powered by the Transparency Information Language and Toolkit

A corpus of GDPR machine-readable transparency information powered by the Transparency Information Language and Toolkit (TILT). These statements were extracted from real-world services for academic research purposes. They contain information about the collection, processing, and use of personal data in accordance with the legal requirements of the GDPR. The corpus makes it possible to process the information for various applications, such as automated checks or analyses, and to illustrate the practical applicability.

Introducing paper: Towards Cross-Provider Analysis of Transparency Information for Data Protection
DeepFakeFace

The rise of deepfake images, especially of well-known personalities, poses a serious threat to the dissemination of authentic information. To tackle this, we present a thorough investigation into how deepfakes are produced and how they can be identified. The cornerstone of our research is a rich collection of artificial celebrity faces, titled DeepFakeFace (DFF). We crafted the DFF dataset using advanced diffusion models and have shared it with the community through online platforms. This data serves as a robust foundation to train and test algorithms designed to spot deepfakes. We carried out a thorough review of the DFF dataset and suggest two evaluation methods to gauge the strength and adaptability of deepfake recognition tools. The first method tests whether an algorithm trained on one type of fake images can recognize those produced by other methods. The second evaluates the algorithm's performance with imperfect images, like those that are blurry, of low quality, or compressed. Given varied results across deepfake methods and image changes, our findings stress the need for better deepfake detectors. Our DFF dataset and tests aim to boost the development of more effective tools against deepfakes.

Introducing paper: Robustness and Generalizability of Deepfake Detection: A Study with Diffusion Models
AI-ready multiplex IHC-IF dataset
Full name: AI-ready restained and co-registered multiplex dataset for head-and-neck squamous cell carcinoma

We introduce a new AI-ready computational pathology dataset containing restained and co-registered digitized images from eight head-and-neck squamous cell carcinoma patients. Specifically, the same tumor sections were stained with the expensive multiplex immunofluorescence (mIF) assay first and then restained with cheaper multiplex immunohistochemistry (mIHC). This is a first public dataset that demonstrates the equivalence of these two staining methods which in turn allows several use cases; due to the equivalence, our cheaper mIHC staining protocol can offset the need for expensive mIF staining/scanning which requires highly skilled lab technicians. As opposed to subjective and error-prone immune cell annotations from individual pathologists (disagreement > 50%) to drive SOTA deep learning approaches, this dataset provides objective immune and tumor cell annotations via mIF/mIHC restaining for more reproducible and accurate characterization of tumor immune microenvironment (e.g. for immunotherapy). We demonstrate the effectiveness of this dataset in three use cases: (1) IHC quantification of CD3/CD8 tumor-infiltrating lymphocytes via style transfer, (2) virtual translation of cheap mIHC stains to more expensive mIF stains, and (3) virtual tumor/immune cellular phenotyping on standard hematoxylin images. The code for stain translation is available at https://github.com/nadeemlab/DeepLIIF and the code for performing interactive deep learning whole-cell/nuclear segmentation is available at https://github.com/nadeemlab/impartial. After scanning the full images, nine regions of interest (ROIs) from each slide/Case were chosen by an experienced pathologist on both mIF and mIHC images: three in the tumor core (T), three at the tumor margin (M),and three outside in the adjacent stroma (S) area. These individual ROIs were further subdivided into four 512x512 patches with indices [0_0], [0_1], [1_0], [1_1]. The final notation for each file is Case[patient_id]_[T/M/S][1/2/3]_[ROI_index]_[Marker_name]. More details can be found in the paper.

Introducing paper: An AI-Ready Multiplex Staining Dataset for Reproducible and Accurate Characterization of Tumor Immune Microenvironment