Mediante esta Postgraduate diploma, basado en el Relearning, manejarás las técnicas más vanguardistas de la Inteligencia Artificial y Big Data para optimizar la calidad de tus diagnósticos clínicos” 

Un nuevo estudio elaborado por la Organización Mundial de la Salud estima que el 70% de los errores diagnósticos en las Imágenes Médicas pueden reducirse empleando Inteligencia Artificial. Una muestra de ello es que el análisis de pruebas imagenológicas por Resonancia Magnética ha posibilitado la detección temprana de Patologías Neurodegenerativas como el Alzheimer en un 30% en comparación con métodos tradicionales. Frente a esto, los facultativos requieren mantenerse a la vanguardia de los avances en este ámbito con el objetivo de tomar decisiones clínicas más informadas y personalizar las terapias para optimizar la salud de los pacientes significativamente.  

En este escenario, TECH presenta un innovador programa en Artificial Intelligence and Big Data Technologies for Medical Imaging Processing. El itinerario académico profundizará en cuestiones que abarcan desde el uso de Deep Learning o Redes Neuronales Convolucionales hasta las técnicas más sofisticadas de Machine Learning. De esta manera, los egresados desarrollarán competencias clínicas avanzadas que les permitirán realizar diagnósticos más precisos en etapas tempranas. Asimismo, el temario ofrecerá diversos métodos de modelado para predecir tanto la aparición como progreso de enfermedades, lo que contribuirá a que los profesionales realicen intervenciones preventivas.  En adición, los materiales didácticos ahondarán en las consideraciones éticas y legales del empleo de la Inteligencia Artificial en el ámbito sanitario.   

Por otro lado, para afianzar todos estos contenidos, TECH se basa en su disruptivo sistema del Relearning. Este método de enseñanza se respalda en la repetición de los contenidos claves, para garantizar una actualización de conocimientos progresiva y natural. Además, lo único que necesitarán egresados será un dispositivo con acceso a internet para acceder a los materiales de estudio de manera remota, en el momento o lugar de su preferencia. Por otro lado, en el Campus Virtual hallarán una variedad de recursos multimedia como casos de estudio, resúmenes interactivos o vídeos explicativos. 

Disfrutarás de recursos multimedia de vanguardia como lecturas especializadas respaldadas en los últimos hallazgos científicos en el ámbito del Procesamiento de Imágenes Médicas”   

Esta Postgraduate diploma en Artificial Intelligence and Big Data Technologies for Medical Imaging Processing contiene el programa educativo más completo y actualizado del mercado. Sus características más destacadas son:  

• El desarrollo de casos prácticos presentados por expertos en Inteligencia Artificial 

• Los contenidos gráficos, esquemáticos y eminentemente prácticos con los que está concebido recogen una información científica y práctica sobre aquellas disciplinas indispensables para el ejercicio profesional 

• Los ejercicios prácticos donde realizar el proceso de autoevaluación para mejorar el aprendizaje 

• Su especial hincapié en metodologías innovadoras  

• Las lecciones teóricas, preguntas al experto, foros de discusión de temas controvertidos y trabajos de reflexión individual 

• La disponibilidad de acceso a los contenidos desde cualquier dispositivo fijo o portátil con conexión a internet 

TECH te proporciona una metodología 100% online, basada en el acceso libre a los contenidos didácticos, que podrás realizar mientras desarrollas tu labor profesional a tiempo completo” 

El programa incluye en su cuadro docente a profesionales del sector que vierten en esta capacitación la experiencia de su trabajo, además de reconocidos especialistas de sociedades de referencia y universidades de prestigio.

Su contenido multimedia, elaborado con la última tecnología educativa, permitirá al profesional un aprendizaje situado y contextual, es decir, un entorno simulado que proporcionará una capacitación inmersiva programada para entrenarse ante situaciones reales.

El diseño de este programa se centra en el Aprendizaje Basado en Problemas, mediante el cual el profesional deberá tratar de resolver las distintas situaciones de práctica profesional que se le planteen a lo largo del curso académico. Para ello, contará con la ayuda de un novedoso sistema de vídeo interactivo realizado por reconocidos expertos.

¿Quieres implementar en tu práctica clínica diaria las técnicas de Big Data más innovadoras? Con este programa universitario lo conseguirás en solamente 450 horas” 

Ahondarás en el modelado predictivo con IBM Watson Oncology, lo que te permitirá realizar seguimientos exhaustivos de diversas Enfermedades Crónicas” 

This university program has been designed by prestigious experts in Artificial Intelligence Technologies and Big Data for Medical Image Processing. The syllabus will delve into the management of sophisticated techniques such as Deep Learning, Convolutional Neural Networks or Machine Learning. In this way, graduates will develop advanced clinical skills to obtain high-resolution imaging tests. In this sense, the syllabus will delve into the use of algorithms with Google DeepMind Health, which will help specialists implement automated procedures to detect patterns of complex diseases such as Cancer.  

You will master the most sophisticated Big Data techniques to identify complex patterns in Medical Images and increase the accuracy of clinical diagnoses”

Module 1. Artificial Intelligence Innovations in Diagnostic Imaging

1.1. Artificial Intelligence Technologies and Tools in Diagnostic Imaging with IBM Watson  Imaging Clinical Review

1.1.1. Leading Software Platforms for Medical Image Analysis
1.1.2. Radiology-Specific Deep Learning Tools
1.1.3. Innovations in Hardware to Accelerate Image Processing
1.1.4. Integration of Artificial Intelligence Systems in Existing Hospital Infrastructures

1.2. Statistical Methods and Algorithms for Medical Image Interpretation with DeepMind AI for Breast Cancer Analysis

1.2.1. Image Segmentation Algorithms
1.2.2. Classification and Detection Techniques in Medical Imaging
1.2.3. Use of Convolutional Neural Networks in Radiology
1.2.4. Noise Reduction and Image Quality Improvement Methods

1.3. Design of Experiments and Analysis of Results in Diagnostic Imaging with Google Cloud Healthcare API

1.3.1. Design of Validation Protocols for Artificial Intelligence Algorithms
1.3.2. Statistical Methods for Comparing the Performance of Artificial Intelligence and Radiologists
1.3.3. Setting Up Multicenter Studies for Artificial Intelligence Testing
1.3.4. Interpretation and Presentation of Performance Test Results

1.4. Detection of Subtle Patterns in Low-Resolution Images

1.4.1. Artificial Intelligence for Early Diagnosis of Neurodegenerative Diseases
1.4.2. Artificial Intelligence Applications in Interventional Cardiology
1.4.3. Use of Artificial Intelligence for the Optimization of Imaging Protocols

1.5. Biomedical Image Analysis and Processing

1.5.1. Pre-Processing Techniques to Improve Automatic Interpretation
1.5.2. Texture and Pattern Analysis in Histological Images
1.5.3. Extraction of Clinical Features from Ultrasound Images
1.5.4. Methods for Longitudinal Analysis of Images in Clinical Studies

1.6. Advanced Data Visualization in Diagnostic Imaging with OsiriX MD

1.6.1. Development of Graphical Interfaces for 3D Image Exploration
1.6.2. Tools for Visualization of Temporal Changes in Medical Images
1.6.3. Augmented Reality Techniques for the Teaching of Anatomy
1.6.4. Real-Time Visualization Systems for Surgical Procedures

1.7. Natural Language Processing in Medical Image Documentation and Reporting with Nuance PowerScribe 360

1.7.1. Automatic Generation of Radiological Reports
1.7.2. Extraction of Relevant Information from Electronic Medical Records
1.7.3. Semantic Analysis for the Correlation of Imaging and Clinical Findings
1.7.4. Image Search and Retrieval Tools Based on Textual Descriptions

1.8. Integration and Processing of Heterogeneous Data in Medical Imaging

1.8.1. Fusion of Imaging Modalities for Complete Diagnostics
1.8.2. Integration of Laboratory and Genetic Data in the Image Analysis
1.8.3. Systems for Handling Large Volumes of Imaging Data
1.8.4. Strategies for Normalization of Datasets from Multiple Sources

1.9. Applications of Neural Networks in Medical Image Interpretation with Zebra Medical Vision

1.9.1. Use of Generative Networks for the Creation of Synthetic Medical Images
1.9.2. Neural Networks for Automatic Tumor Classification
1.9.3. Deep Learning for the Analysis of Time Series in Functional Imaging
1.9.4. Fitting of Pre-Trained Models on Specific Medical Image Datasets

1.10. Predictive Modeling and its Impact on Diagnostic Imaging with IBM Watson Oncology

1.10.1. Predictive Models for Risk Assessment in Oncology Patients
1.10.2. Predictive Tools for Chronic Disease Follow-Up
1.10.3. Survival Analysis Using Medical Imaging Data
1.10.4. Prediction of Disease Progression using Machine Learning Techniques

Module 2. Big Data and Predictive Analytics in Medical Imaging

2.1. Big Data in Diagnostic Imaging: Concepts and Tools with GE Healthcare Edison

2.1.1. Fundamentals of Big Data applied to Imaging
2.1.2. Technological Tools and Platforms for Handling Large Volumes of Imaging Data
2.1.3. Challenges in the Integration and Analysis of Big Data in Imaging
2.1.4. Use Cases of Big Data in Diagnostic Imaging

2.2. Data Mining in Biomedical Image Registries with IBM Watson Imaging

2.2.1. Advanced Data Mining Techniques to Identify Patterns in Medical Images
2.2.2. Strategies for Extracting Relevant Features in Large Image Databases
2.2.3. Applications of Clustering and Classification Techniques in Image Registries
2.2.4. Impact of Data Mining on Improving Diagnosis and Treatment

2.3. Machine Learning Algorithms in Image Analysis with Google DeepMind Health

2.3.1. Development of Supervised and Unsupervised Algorithms for Medical Imaging
2.3.2. Innovations in Machine Learning Techniques for Recognition of Disease Patterns
2.3.3. Applications of Deep Learning in Image Segmentation and Classification
2.3.4. Evaluation of the Efficacy and Accuracy of Machine Learning Algorithms in Clinical Studies

2.4. Predictive Analytics Techniques Applied to Diagnostic Imaging with Predictive Oncology

2.4.1. Predictive Models for the Early Identification of Diseases from Images
2.4.2. Use of Predictive Analytics for Monitoring and Treatment Evaluation
2.4.3. Integration of Clinical and Imaging Data to Enrich Predictive Models
2.4.4. Challenges in the Implementation of Predictive Techniques in Clinical Practice

2.5. Image-Based Artificial Intelligence Models for Epidemiology with BlueDot

2.5.1. Application of Artificial Intelligence in the Analysis of Epidemic Outbreaks Using Images
2.5.2. Models of Disease Spread Visualized by Imaging Techniques
2.5.3. Correlation Between Epidemiological Data and Imaging Findings
2.5.4. Contribution of Artificial Intelligence to the Study and Control of Pandemics

2.6. Analysis of Biological Networks and Disease Patterns from Images

2.6.1. Application of Network Theory in the Analysis of Images to Understand Pathologies
2.6.2. Computational Models to Simulate Biological Networks Visible in Images
2.6.3. Integration of Image Analysis and Molecular Data for Mapping Diseases
2.6.4. Impact of these Analyses on the Development of Personal Therapies

2.7. Development of Image-Based Tools for Clinical Prognosis

2.7.1. Artificial Intelligence Tools for the Prediction of Clinical Course from Diagnostic Images
2.7.2. Advances in the Generation of Automated Prognostic Reports
2.7.3. Integration of Prognostic Models in Clinical Systems
2.7.4. Validation and Clinical Acceptance of AI-Based Prognostic Tools

2.8. Advanced Visualization and Communication of Complex Data with Tableau

2.8.1. Visualization Techniques for the Multidimensional Representation of Image Data
2.8.2. Interactive Tools for the Exploration of Large Image Datasets
2.8.3. Strategies for Effective Communication of Complex Findings Through Visualizations
2.8.4. Impact of Advanced Visualization on Medical Education and Decision Making

2.9. Data Security and Challenges in Big Data Management

2.9.1. Security Measures to Protect Large Volumes of Medical Imaging Data
2.9.2. Challenges in Privacy and Ethics of Large-Scale Image Data Management
2.9.3. Technological Solutions for the Secure Management of Healthcare Big Data
2.9.4. Case Studies on Security Breaches and how they Were Addressed

2.10. Practical Applications and Case Studies on Biomedical Big Data

2.10.1. Examples of Successful Applications of Big Data in the Diagnosis and Treatment of Diseases
2.10.2. Case Studies on the Integration of Big Data
2.10.3. Lessons Learned from Big Data Projects in the Biomedical Field
2.10.4. Future Directions and Potentials of Big Data in Medicine

Module 3. Ethical and Legal Aspects of Artificial Intelligence in Diagnostic Imaging

3.1. Ethics in the Application of Artificial Intelligence in Diagnostic Imaging with Ethics and Algorithms Toolkit

3.1.1. Fundamental Ethical Principles in the Use of Artificial Intelligence for Diagnosis
3.1.2. Algorithmic Bias Management and its Impact on Diagnostic Fairness
3.1.3. Informed Consent in the Era of Diagnostic Artificial Intelligence
3.1.4. Ethical Challenges in the International Implementation of Artificial Intelligence Technologies

3.2. Legal and Regulatory Considerations in Artificial Intelligence Applied to Medical Imaging with Compliance.ai

3.2.1. Current Regulatory Framework for Artificial Intelligence in Diagnostic Imaging
3.2.2. Compliance with Privacy and Data Protection Regulations
3.2.3. Validation and Certification Requirements for Artificial Intelligence Algorithms in Healthcare
3.2.4. Legal Liability in Case of Diagnostic Errors due to Artificial Intelligence

3.3. Informed Consent and Ethical Aspects in the Use of Clinical Data

3.3.1. Review of Informed Consent Processes Adapted to Artificial Intelligence
3.3.2. Patient Education on the Use of Artificial Intelligence in their Medical Care
3.3.3. Transparency in the Use of Clinical Data for Artificial Intelligence Training
3.3.4. Respect for Patient Autonomy in Decisions Based on Artificial Intelligence

3.4. Artificial Intelligence and Accountability in Clinical Research

3.4.1. Assignment of Responsibilities in the Use of Artificial Intelligence for Diagnosis
3.4.2. Implications of Artificial Intelligence Errors in Clinical Practice
3.4.3. Insurance and Coverage for Risks Associated with the Use of Artificial Intelligence
3.4.4. Strategies for the Management of Incidents Related to Artificial Intelligence

3.5. Impact of Artificial Intelligence on Equity and Access to Health Care with AI for Good

3.5.1. Assessment of the Impact of Artificial Intelligence on the Distribution of Medical Services
3.5.2. Strategies to Ensure Equitable Access to AI Artificial Intelligence Technology
3.5.3. Artificial Intelligence as a Tool to Reduce Health Disparities
3.5.4. Case Studies on the Implementation of Artificial Intelligence in Resource-Limited Settings

3.6. Privacy and Data Protection in Research Projects using Duality SecurePlus

3.6.1. Strategies for Ensuring Data Confidentiality in Artificial Intelligence Projects
3.6.2. Advanced Techniques for Patient Data Anonymization
3.6.3. Legal and Ethical Challenges in the Protection of Personal Data
3.6.4. Impact of security breaches on public trust and confidence

3.7. Artificial Intelligence and Sustainability in Biomedical Research with Green Algorithm

3.7.1. Use of Artificial Intelligence to Improve Efficiency and Sustainability in Research
3.7.2. Life Cycle Assessment of Artificial Intelligence Technologies in Healthcare
3.7.3. Environmental Impact of Artificial Intelligence Technology Infrastructure
3.7.4. Sustainable Practices in the Development and Deployment of Artificial Intelligence

3.8. Auditing and Explainability of Artificial Intelligence Models in the Clinical Setting with IBM AI Fairness 360

3.8.1. Importance of Regular Auditing of AI Algorithms
3.8.2. Techniques to Improve the Explainability of AI Models
3.8.3. Challenges in Communicating AI-Based Decisions to Patients and Physicians
3.8.4. Regulations on the Transparency of Artificial Intelligence Algorithms in Healthcare

3.9. Innovation and Entrepreneurship in the Field of Clinical Artificial Intelligence with Hindsait

3.9.1. Opportunities for Startups in Artificial Intelligence Technologies for Healthcare
3.9.2. Collaboration Between the Public and Private Sectors in the Development of Artificial Intelligence
3.9.3. Challenges for Entrepreneurs in the Healthcare Regulatory Environment
3.9.4. Success Stories and Lessons Learned in Clinical Artificial Intelligence Entrepreneurship

3.10. Ethical Considerations in International Clinical Research Collaboration with Global Alliance for Genomics and Health with GA4GH

3.10.1. Ethical Coordination in International AI Projects
3.10.2. Managing Cultural and Regulatory Differences in International Collaborations
3.10.3. Strategies for Equitable Inclusion in Global Studies
3.10.4. Challenges and Solutions in Data Sharing

You will have unrestricted access to all the contents of the Virtual Campus and you will be able to download them to consult them whenever you want. Enroll now!”