The track category is the heading under which your abstract will be reviewed and later published in the conference printed matters if accepted. During the submission process, you will be asked to select one track category for your abstract.
Digital pathology is a dynamic, image-based environment that enables the acquisition, management and interpretation of pathology information generated from a digitized glass slide. Digital imaging today represents more of an evolution than a revolution in pathology. With the advent of clinical trials (e.g. teleconferencing), pathologists today are beginning to interact more with each other. However, more integration of digital photo frame with computer systems is needed, as well as standards for the entire digital imaging process.
Digital pathology is proving to provide large benefits for healthcare providers, but growing adoption is now presenting these early adopters with new challenges.
The audience for Digital Pathology includes pathologists, laboratory professionals, students and any other medical practitioners with a particular interest in the history and future of Digital Pathology.
- Track 1-1Whole Slide Image Storage
- Track 1-2Comparative Effectiveness Research (CER)
- Track 1-3Human Computer Interaction and Evaluation
- Track 1-4Pharmacoepidemiology
- Track 1-5Telemedicine and public health
- Track 1-6Prenatal DNA Sequencing
- Track 1-7Hematopathology
- Track 1-8Telepathology
- Track 1-9Radiopathology
- Track 1-10Digital Pathology on Biobanking and Clinical Trials
- Track 1-11Computational Pathology
- Track 1-12Ex Vivo Applications of IVM
- Track 1-13Optical Coherence Tomography
- Track 1-14Whole Slide Imaging (WSI)
- Track 1-15Telemedicine
- Track 1-16E-learning and pathology
- Track 1-17Data mining
- Track 1-18Models in pathology
- Track 1-19Telediagnosis
Digital pathology can be considered as an adjunct to traditional microscopy. In traditional microscopy, we require a microscope to view the glass slide. We can only view one slide, one field of view, and one exaggeration at a time. If we want to do any sort of analysis with a microscope, we have to remember the information from each field of view. In digital pathology, we have the benefit of doing things different way. We can view some digital slides on a computer monitor. We can combine them side-by-side if we want to calculate the entire cells or calculate protein expression; these can be done easily by computer software that can be seen on an image file and it is called a digital slide.
In case of traditional microscopy, if we want to transfer the data with someone in a distant place, the slide has to be mailed. But with Digital Pathology, we can transmit the data with anyone in the world directly.
It is also comparatively very easy to integrate a Digital Pathology system into a laboratory data system. Digital pathology can support the monitoring and consolidation of different sources of information required for pathological purposes to do work more proficiently and innovatively.
- Track 2-1Traditional microscopy
- Track 2-2Virtual Microscopy
- Track 2-3Digital slides
Medical imaging is the technique and process of creating visual representations of the interior of a body for clinical analysis and medical intervention. medical imaging constitutes a sub-discipline of biomedical engineering, medical physics or medicine depending on the context: Research and development in the area of instrumentation, image acquisition (e.g. Radiography), modeling and quantification are usually the preserve of biomedical engineering, medical physics, and computer science; Research into the application and interpretation of medical images is usually the preserve of radiology and the medical sub-discipline relevant to medical condition or area of medical science (neuroscience, cardiology, psychiatry, psychology, etc.) under investigation. Many of the techniques developed for medical imaging also have scientific and industrial applications.
- Track 3-1X-RAY
- Track 3-2Ultrasound
- Track 3-3Magnetic Resonance Imaging
- Track 3-4Echocardiography
- Track 3-5Position emission tomography
- Track 3-6Tactile imaging
- Track 3-7Photoacoustic imaging
- Track 3-8Conventional Radiography
- Track 3-9Tomography
- Track 3-10Computed Tomography
Digital imaging offers many advantages over conventional film based imaging, the most compelling of which is the ability to store, retrieve, distribute and review images at any time and in any location which is appropriately networked. This means that the referring physician, the patient and the radiologist can all be in different locations, both to one another and to the stored image, but still communicate effectively. They do not even need to communicate at the same time.
Imaging informatics involve the computerized management of imaging data and related information, extending from patient demographic information and referral data to reports, statistics and image diagnosis, review and distribution through teleradiology platforms.
- Track 4-1Digital image analysis in drug discovery
- Track 4-2Computer aided diagnoses
- Track 4-3virtual microscopy and digital image analysis
- Track 4-4Image registration
- Track 4-5Image quality and scanning speed
- Track 4-6Visualization methods for diagnosis and prognosis
- Track 4-7Image Processing and pattern recognition
- Track 4-8Biomarker analysis
- Track 4-93D imaging
Telepathology is the practice of pathology at a distance. It uses telecommunications technology to facilitate the transfer of image-rich pathology data between distant locations for the purposes of diagnosis, education, and research.
Telepathology has been successfully used for many applications, including the rendering of histopathology tissue diagnoses at a distance. Although digital pathology imaging, including virtual microscopy, is the mode of choice for telepathology services in developed countries, analog telepathology imaging is still used for patient services in some developing countries.
Telepathology is currently being used for a wide spectrum of clinical applications including diagnosing of frozen section specimens,primary histopathology diagnoses, second opinion diagnoses, subspecialty pathology expert diagnoses, education,compentency assessment, and research. Benefits of telepathology include providing immediate access to off-site pathologists for rapid frozen section diagnoses. Another benefit can be gaining direct access to subspecialty pathologists such as a renal pathologist, a neuropathologist, or a dermatopathologist, for immediate consultations.
- Track 5-1Digital microscopy
- Track 5-2Remote robotic microscopy
- Track 5-3Teleconferencing
- Track 5-4Video microscopy
- Track 5-5Web conferencing
- Track 5-6Virtual Microscopy
- Track 5-7Telemicroscopy
- Track 5-8Teleconsultation
Virtual microscopy and advances in machine learning have paved the way for the ever-expanding field of Digital Pathology. Multiple image-based computing environments capable of performing automated quantitative and morphological analyses are the foundation on which Digital Pathology is built. The applications for Digital Pathology in the clinical setting are numerous and are explored along with the digital software environments themselves, as well as the different analytical modalities specific to Digital Pathology.
The potential of Digital Pathology is vast, particularly with the introduction of numerous software environments available for use. With all the Digital Pathology tools available as well as those in development, the field will continue to advance, particularly in the era of personalized medicine, providing health care professionals with more precise prognostic information as well as helping them guide treatment decisions.
- Track 6-1Clinical trials support
- Track 6-2Next generation sequencing
- Track 6-3Biomarker research
- Track 6-4Tissue-based imaging
- Track 6-5Biobanking
Pathology informatics is an interdisciplinary information science discipline primarily concerned with the collection, classification, manipulation, storage, retrieval and dissemination of information to solve problems in pathology.
Informatics is the study of the structure, behaviour, and interactions of natural and engineered computational systems. Informatics studies the representation, processing, and communication of information in natural and engineered systems. It has computational, cognitive and social aspects.
- Track 7-1Cloud computing
- Track 7-2Access through mobile devices
- Track 7-3Pathology PACS
- Track 7-4Pathology IT
- Track 7-5Integration with LIMS/LIS
Diagnostic Pathology is a branch deals with examination of body tissues and their examination. Microscopical study of abnormal tissue development, disease determination, histopathology of lesions and sometimes post-mortem. It does research on critical diagnosis in surgical pathology.
- Track 8-1Organ resection
- Track 8-2Biopsies
- Track 8-3Tumor pathology
- Track 8-4Renal pathology
- Track 8-5exfoliate and fluid cytology
- Track 8-6Immunophenotyping markers
Biomedical engineering (BME) is the application of engineering principles and design concepts to medicine and biology for healthcare purposes (e.g. diagnostic or therapeutic). This field seeks to close the gap between engineering and medicine, combining the design and problem solving skills of engineering with medical and biological sciences to advance health care treatment, including diagnosis, monitoring, and therapy.
Prominent biomedical engineering applications include the development of biocompatible prostheses, various diagnostic and therapeutic medical devices ranging from clinical equipment to micro-implants, common imaging equipment such as MRIs and EEGs, regenerative tissue growth, pharmaceutical drugs and therapeutic biological.
- Track 9-1Biochips
- Track 9-2Biosensor Devices
- Track 9-3Tissue Engineering
- Track 9-4Photonic sensing
- Track 9-5Data mining in drug discovery
- Track 9-6optical lithography
Image Analysis software provides easy-to-use solutions for the automated quantitative evaluation of bright field and fluorescent slides. Powerful image analysis solutions combined with an intuitive interface enables users to easily tailor algorithms to their own specific needs.
The broad menu of trainable algorithms can be run on whole slide images, regions of interest or batches of slides, with a range of deployment options to meet your unique requirements. Automated quantification of complex staining enables researchers to interpret biomarker expression and stratify individuals and cohorts. Improve accuracy, standardization and reproducibility in tissue analysis by removing the subjectivity and inter- / intra-observer variability inherent in manual review.
- Track 10-1Whole Slide Imaging (WSI)
- Track 10-2Image Analysis Software
- Track 10-3Whole Slide Image Storage
New technology is transforming Digital Pathology and has the potential to enhance diagnostics in several ways. These include improving the integration of data, consultation among experts, and quantitative and qualitative image analysis.
Slowly but surely, healthcare is going digital. Many of the recent innovations in healthcare, from telemedicine and smart devices to the growing capabilities in managing big data, can be traced back to the adoption of new digital technologies that have fostered a different way of working. Across medicine’s varied specialty areas, however, the adoption and progress of digital technology advances varies significantly.
Whole slide imaging (WSI) uses computerized technology to scan and convert entire pathology glass slides into digital images at high resolution, which are then made available to pathologists. One of the most important aspects of digitization of slides is the ability to perform image analysis and computer-aided diagnostic tools on WSI.
- Track 11-1IHCÂ markers
- Track 11-2WSI system
- Track 11-3Melanoma Biopsies
- Track 11-4Electronic Aspirin
- Track 11-5Needle-Free Diabetes Care
- Track 11-6Robotic Check-ups
- Track 11-7Detecting Lung Cancer With a Cough
- Track 11-8Other advances in Digital Pathology
We are living in an exciting time when disease diagnostics and treatment are becoming more accurate and patient specific. Computerized imaging methods are beginning to assist the pathologist and radiologist in making an accurate diagnosis of disease and identify morphological features correlated with prognosis. Molecular profiling of disease promises to help the clinician understand the underlying biology of the disease and suggest new and more effective therapeutics.
The goal of our research is aimed at a future when disease diagnostics will involve the quantitative integration of multiple sources of diagnostic data, including genomic, imaging, proteomic and metabolic data acquired across multiple scales/resolutions that can distinguish between individuals or between subtle variations of the same disease to guide therapy.
- Track 12-1Basal Cell Carcinoma
- Track 12-2Squamous cell Carcinoma
- Track 12-3Vitiligo
- Track 12-4harmonisation in laboratory medicine
- Track 12-5MammaPrint test
- Track 12-6cancer biomarkers
- Track 12-7Auto loading hematology system
- Track 12-8In VivoÂ andÂ Ex VivoÂ Microscopy
Biomedical Informatics is the field that is concerned with the optimal use of information, often aided by the use of technology and people, to improve individual health, health care, public health, and biomedical research. Biomedical Informatics is positioned with scientific, financial, and regulatory challenges faced by the healthcare industry to apply technology know-how at every step from design to execution and to FDA application.
Biomedical informatics (BMI) is the interdisciplinary field that studies and pursues the effective uses of biomedical data, information, and knowledge for scientific inquiry, problem solving, and decision making, motivated by efforts to improve human health.
This course will provide a high level introduction to the field and will serve as a Launchpad into other more focused courses that explore the computational and analytic needs of BMI, as well as the clinical, research and translational application of informatics.
- Track 13-1Systems Biology and Computational Biology
- Track 13-2clinical and translational informatics
- Track 13-3Clinical Predictive Modeling
- Track 13-4Data-Driven Modeling of Usual Clinical Care
- Track 13-5Datawarehouses and data mining
- Track 13-6Dental Informatics and Oral Health Translational Research
- Track 13-7Federated Data Sharing for Translational Research
- Track 13-8Genomic and Proteomic Data: Analysis and Data Mining
- Track 13-9Image Perception Research
- Track 13-10Natural Language Processing and Deep Phenotyping
Radiology is a specialty that uses medical imaging to diagnose and treat diseases seen within the body. A variety of imaging techniques such as X-ray radiography, ultrasound, computed tomography (CT), nuclear medicine including positron emission tomography (PET), and magnetic resonance imaging (MRI) are used to diagnose and/or treat diseases. Interventional radiology is the performance of medical procedures with the guidance of imaging technologies.
Diagnostic radiology is concerned with the use of various imaging modalities to aid in the diagnosis of disease. Diagnostic radiology can be further divided into multiple sub-specialty areas. Interventional radiology, one of these sub-specialty areas, uses the imaging modalities of diagnostic radiology to guide minimally invasive surgical procedures.
Therapeutic radiology—as it is now called, radiation oncology uses radiation to treat diseases such as cancer using a form of treatment called radiation therapy.
- Track 14-1Chest-cardiac Imaging
- Track 14-2GI-GU Imaging
- Track 14-3Pediatric Imaging
- Track 14-4Nuclear Medicine
- Track 14-5Musculoskeletal Imaging
- Track 14-6Neuro - radiology
- Track 14-7Breast Imaging
The role of medical informatics in telemedicine is dependent on using the power of the computerized database to not only feed patient specific information to the health care providers, but to use the epidemiological and statistical information in the data base to improve decision making and ultimately care. The computer is also a powerful tool to facilitate standardizing and monitoring of care and when applied in continuous quality improvement methodology it can enhance the improvement process well beyond what can be done by hand. The coupling of medical informatics with telemedicine allows sophisticated medical informatics systems to be applied in low population density and remote areas.
- Track 15-1Medical Informatics and Health Information technology
- Track 15-2Medical Informatics and Informatic Management
- Track 15-3Medical Informatics and Public Health, Epidemiology
- Track 15-4Neuroinformatics and behavioural Neurology
Dermatopathology involve study of the microscopic morphology of skin sections. It mirrors pathophysiologic changes occurring at the microscopic level in the skin and its appendages. Sometimes, we come across certain morphologic features that bear a close resemblance to our physical world.
The complete sequencing of the human genome has ushered in an era of medical advances that was previously unimaginable.Scientists are continually discovering novel genetic and epigenetic mechanisms that are associated with human disease states and therapeutic responses. The ability to determine the underlying defect in single-gene diseases, many of which are rare, has improved both diagnosis in symptomatic patients and risk prediction of future disease in asymptomatic individuals.
- Track 16-1Dermatomyositis
- Track 16-2Virtual Dermatopathology
- Track 16-3Reactive Erythemas
- Track 16-4Eczema
- Track 16-5Digital Skin Cancer and Screening
- Track 16-6Psoriasis