International Journal of Multimedia, Image Processing and Pattern Recognition [ISSN: 2581-625X (online)] https://technology.eurekajournals.com/index.php/IJMIPPR <p style="text-align: justify;">International Journal of Multimedia, Image Processing and Pattern Recognition (IJMIPPR) publishes articles on Multimedia, Image Processing and Pattern Recognition. It covers aspects from fundamental principles to practical implementation, intending to bring up-to-date, emerging and active technical developments, issues, and events to the research, educational, and professional communities. The journal focused on fast peer review process of submitted paper to ensure accuracy, relevance of article and originality of paper.</p> Eureka Journals en-US International Journal of Multimedia, Image Processing and Pattern Recognition [ISSN: 2581-625X (online)] 2581-625X Review on Deep learning Techniques for Medical Image Processing https://technology.eurekajournals.com/index.php/IJMIPPR/article/view/708 <p>Preventive medicine sector is totally different from other industry. It is on high priority zone of people and people want top level of care and services without worrying about cost. It did not realize social acceptance even through it consume high proportion of budget. Deep learning is widely used nowadays in medical imaging and solution of many disease related problems. This paper provide a review on medical images using deep learning techniques. It also provide comparison between CNN and RNN.</p> Kishan Kanhaiya Gaurav Sharma Sonam Gour Arpit Kumar Sharma 5 1 Image Numerification Processor Measurement using AI https://technology.eurekajournals.com/index.php/IJMIPPR/article/view/709 <p>The Image Numerification Processor is a new type of technology based on machine learning and also that is to work hand in hand with artificial intelligence as technology evolves. This type of technology is meant to carry our calculations of life like images and then bring those calculations to help solve the pending problems that we may be adversely facing the INP in short is meant to use the Camera that allows it to capture an object then latter on bring into light the different dimensions of the object through the different calculations. The Processor aims at being an application meant for the calculations of object within an image, calculations of an image such as height, length and width just to mention a few, this image processor was brought up with the concept that if we are unable to take measurement of something due to various reasons what would our other alternative be hence I started to create the Image Numerification Processor this will allow us to simply take a picture then have the calculations that we need in place the creation of this project has used to coordinate with existing technologies. Any person having the knowledge of using a computer and a mathematical nullification of images is able to know about how to use the Image Numerification processor better from any place in the world. The processor is provided with the mathematical equations to see just how far an object is, making more information about the processor and can further make any more changes to the image scale, using the Image Numerification Processor (INP) means that the images have to be taken in either Raster or Vector types.</p> S. Nagarajan Kitraj Penchinkilas S. P. Sudha 5 1 Anomaly Detection in Surveillance Videos https://technology.eurekajournals.com/index.php/IJMIPPR/article/view/715 <p>Observation recordings are able to capture a assortment of practical inconsistencies. In this paper, we propose to memorize peculiarities by misusing both typical and odd recordings. To maintain a strategic distance from clarifying the atypical portions or clips in preparing recordings, which is exceptionally time consuming, we propose to memorize inconsistencies through the profound different occasion positioning system by leveraging feebly named preparing recordings, i.e. the preparing labels (anomalous or typical) are at video level rather than clip-level.</p> <p>In our approach, we consider typical and odd recordings as packs and video fragments as occurrences in different occurrence learning (MIL) and consequently learn a profound irregularity positioning demonstrate that predicts tall inconsistency scores for odd video sections. Moreover, we present sparsity and transient smoothness imperatives within the positioning misfortune work to superior localize peculiarities amid preparing.</p> <p>We too present a modern large-scale beginning with of its kind dataset video. It comprises of untrimmed real-world reconnaissance recordings, with practical inconsistencies such as battling, street mishap, burglary, theft, etc. as well as ordinary exercises. This dataset can be utilized for two errands. To begin with, common irregularity location considers all irregularities in one gather and all typical exercises in another bunch.</p> <p>Moment, for recognizing each odd movement our exploratory comes about appear that our MIL strategy for irregularity location accomplishes noteworthy enhancement in inconsistency location execution as compared to the state-of-the-art approaches. We offer the outcomes about of a few later profound learning baselines on odd movement acknowledgment. The acknowledgment execution of these baselines uncovers that our dataset is exceptionally challenging and opens more openings for future work.</p> <p>&nbsp;</p> Gourab Ghosh Md. Noorzafir Mondal Riyanka Saha Snehadrita Sett Koushik Sarkar 5 1 Automatic Classification for Accurate Representation of Defected Region of a Medical Image Segmentation https://technology.eurekajournals.com/index.php/IJMIPPR/article/view/716 <p>Automatic or semi-automatic detection of the two-dimensional (2D) or three-dimensional (3D) image is included in the process of medical image segmentation that is performed automatically. In the fields of Intelligent Data Engineering and Automated Learning, image segmentation refers to the principles that are used to divide a digital image into a set of different sets of pixels (IDEAL). The representation of medical images must first be simplified before they can be transformed into a meaningful topic, which is one of the primary purposes of the segmentation process. Due to the significant degree of variation present in the images, segmentation is the job that presents the most challenge. The difficult difficulty in the medical image is segmenting the regions that are lacking edges, have no textural contrast, have a region of interest (ROI), and have a backdrop. “Intelligent Data Engineering and Automated Learning (IDEAL)” are two approaches that may help solve this problem. In response to this article, several automatic segmentation approaches have been presented, many of which have shown encouraging results. Because of the segmentation, medical professionals have an easier time diagnosing patients and making judgments. Following segmentation, a process known as feature descent must be extracted to extract the flawed features. With the aid of the ROI, the form of dimensionality reduction known as "feature descent" successfully displays the defective area of a medical image as a condensed version of the feature vector. The process of attribute reduction is referred to as the feature descent process. The feature is a graphical representation of the combined keywords. The issue with computer vision is solved by combining the processes of feature detection and descent. After the features have been extracted, the descent features will be included in the model construction process for more precise detection.</p> Mr. Selvarajan Nagarajan Dr. Ibrahim Olanya Bwalya Dr. A. Sivarama Krishnan 5 1 Human Gait Datasets: A Review https://technology.eurekajournals.com/index.php/IJMIPPR/article/view/734 <h1>Human gait recognition is a non-intrusive distance-based second generation biometric. Human motion capture is utilized in a variety of fields to evaluate, interpret, and duplicate the wide range of movements required in daily living. To consider a new recognition system, several researchers had focused on this issue. One of the most significant advantages of this recognition above others is that it does not necessitate the attention and participation of the observed person. Many human gait datasets have been developed in the previous years, Chinese Academy of Sciences (CASIA) Gait Dataset, TUM-GAID, and Southampton University (SOTON) Gait Dataset are some of the most extensively used databases.This research paper conducts a thorough study of the publicly available gait databases for gait recognition.</h1> Er. Kriti Sankhla Dr. Bhawesh Kumawat S. Mahalakshmi 5 1