Data mining approaches to pneumothorax detection: Integrating mask-RCNN and medical transfer learning techniques

With the medical condition of pneumothorax, also known as collapsed lung, air builds up in the pleural cavity and causes the lung to collapse. It is a critical disorder that needs to be identified and treated right as it can cause breathing difficulties, low blood oxygen levels, and, in extreme circumstances, death. Chest X-rays are frequently used to diagnose pneumothorax. Using the Mask R-CNN model and medical transfer learning, the proposed work offers • A novel method for pneumothorax segmentation from chest X-rays. • A method that takes advantage of the Mask R-CNN architecture's for object recognition and segmentation. • A modified model to address the issue of segmenting pneumothoraxes and then polish it using a sizable dataset of chest X-rays.The proposed method is tested against other pneumothorax segmentation techniques using a dataset of ‘chest X-rays’ with ‘pneumothorax annotations. The test findings demonstrate that proposed method outperforms other cutting-edge techniques in terms of segmentation accuracy and speed. The proposed method could lead to better patient outcomes by increasing the precision and effectiveness of pneumothorax diagnosis and therapy. Proposed method also benefits other medical imaging activities by using the medical transfer learning approaches which increases the precision of computer-aided diagnosis and treatment planning

Dry fruit image dataset for machine learning applications

Dry fruits are convenient and nutritious snacks that can provide numerous health benefits. They are packed with vitamins, minerals, and fibres, which can help improve overall health, lower cholesterol levels, and reduce the risk of heart disease. Due to their health benefits, dry fruits are an essential part of a healthy diet. In addition to health advantage, dry fruits have high commercial worth. The value of the global dry fruit market is estimated to be USD 6.2 billion in 2021 and USD 7.7 billion by 2028. The appearance of dry fruits is utilized for assessing their quality to a great extent, requiring neat, appropriately tagged, and high-quality images. Hence, this dataset is a valuable resource for the classification and recognition of dry fruits. With over 11500+ high-quality processed images representing 12 distinct classes, this dataset is a comprehensive collection of different varieties of dry fruits. The four dry fruits included in this dataset are Almonds, Cashew Nuts, Raisins, and Dried Figs (Anjeer), along with three subtypes of each. This makes it a total of 12 distinct classes of dry fruits, each with its unique features, shape, and size. The dataset will be useful for building machine learning models that can classify and recognize different types of dry fruits under different conditions, and can also be beneficial for dry fruit research, education, and medicinal purposes.Due to their nutritional value and health advantages, dry fruits have been consumed for a very long time. One of the best strategies to improve general health is to include dry fruits in the diet

IDENTIFYING INDIVIDUAL SPECIMENS AMONG SPECIES USING COMPUTER VISION

Earth provides shelter to more than 8.7 million species, when confronted with accelerating extinction rates of species during the last half of this century concerns for conservation of this ecological cycle is of utmost importance. Several methods are used for conservation of species and gather data for their sustenance, most of these methods utilises direct contact with the individual for their surveillance this results in a tedious process of handling the specimen and mounting devices on the individual and also causes these devices to stay on the individuals even after the devices are unable to function. Computer Vision and Artificial intelligence has shown promising results for the last decade for systems like facial recognition, object detection, etc. Camera trap methods were used to for tracking animals in a designated area but they rarely provide information about individual animal. We in this manuscript provide with a solution using Computer Vision for determining individual specimen among several species

Identifying Individual Specimens Among Species Using Computer Vision

Earth provides shelter to more than 8.7 million species, when confronted with accelerating extinction rates of species during the last half of this century concerns for conservation of this ecological cycle is of utmost importance. Several methods are used for conservation of species and gather data for their sustenance, most of these methods utilises direct contact with the individual for their surveillance this results in a tedious process of handling the specimen and mounting devices on the individual and also causes these devices to stay on the individuals even after the devices are unable to function. Computer Vision and Artificial intelligence has shown promising results for the last decade for systems like facial recognition, object detection, etc. Camera trap methods were used to for tracking animals in a designated area but they rarely provide information about individual animal. We in this manuscript provide with a solution using Computer Vision for determining individual specimen among several species