You will further your understanding of UX/UI tools in the design process and expand your knowledge in the development of the human-machine interaction concept” 

Numerous studies have shown that the quality of the interface design of any application or software has a significant impact on its results, since having a program based on a good user experience can help the specialist by facilitating its use and allowing him to achieve the objectives for which it was designed more quickly and with better results. 

In the field of biomedical technology, where advances are made on a daily basis, it is important that there is collaboration and communication between engineers and physicians in order to increase productivity in both the design and creation processes, as well as in information gathering once they are underway. This is why there is a need among healthcare professionals to find a degree that introduces them to this field and allows them to acquire all the information they need to increase their knowledge in this field.  

In response to this demand TECH launches the Postgraduate certificate in Design and Creation of Human-Machine Interface in Biomedical Engineering , in which the specialist will work from the interface and human-machine interaction to the design process based on prototyping and evaluation. In addition, this program places special emphasis on the interaction methods of current technologies and the importance of graphic design as a key to success.  

150 hours of content including additional audiovisual material, summaries of each unit, case studies and complementary readings, all in the characteristic online format that defines TECH. In addition, during the academic process, the specialist will be able to consult with the teaching staff for any doubts or questions that may arise during the course.

A 100% online degree where you decide. We provide you with all the content and the best tools, but you set the pace" 

This Postgraduate certificate in Design and Creation of Human-Machine Interface in Biomedical Engineering is the most comprehensive and up-to-date educational program on the market. The most important features include:  

• Practical cases presented by experts in Biomedicine 
• The graphic, schematic, and eminently practical contents with which they are created, provide scientific and practical information on the disciplines that are essential for professional practice
• Practical exercises where self-assessment can be used to improve learning 
• Its special emphasis on innovative methodologies  
• Theoretical lessons, questions to the expert, debate forums on controversial topics, and individual reflection assignments 
• Content that is accessible from any fixed or portable device with an Internet connection 

An opportunity to access the best program from the best experts and with the guarantee offered by a university with years of experience in online teaching of the highest quality"

The program’s teaching staff includes professionals from the sector who contribute their work experience to this training program, as well as renowned specialists from leading societies and prestigious universities.  

The multimedia content, developed with the latest educational technology, will provide the professional with situated and contextual learning, i.e., a simulated environment that will provide immersive training programmed to train in real situations.  

This program is designed around Problem Based Learning, whereby the professional must try to solve the different professional practice situations that arise during the academic year. For this purpose, the student will be assisted by an innovative interactive video system created by renowned and experienced experts.

Enter the world of prototyping and interface evaluation and delve into the techniques of organizing ideas and the importance of User Experience (UX)"

You will have all the contents from day one. In addition, you will be able to access the Virtual Classroom and download the entire program from any device"

Following TECH's pedagogical line, this Postgraduate certificate has been designed following the criteria of the teaching team and based on the most modern and effective educational methodology. In addition, thanks to the tools available at this university, the graduate will find in this and in all TECH courses an academic experience of the highest quality, which guarantees the best results and with which the specialist will feel satisfied since the progress is visible from the first day. 

You will have additional content of the highest quality: videos, images, dynamic summaries, real case studies and much more!”

Module 1. Human-Machine Interface Applied to Biomedical Engineering

1.1. Human-Machine Interface 

1.1.1. Human-Machine Interface 
1.1.2. Model, System, User, Interface and Interaction 
1.1.3. Interface, Interaction and Experience 

1.2. Human-Machine Interaction 

1.2.1. Human-Machine Interaction 
1.2.2. Principles and Laws of Interaction Design 
1.2.3. Human Factors 

1.2.3.1. Importance of the Human Factor in the Interaction Process 
1.2.3.2. Psychological-Cognitive Perspective: Information Processing, Cognitive Architecture, User Perception, Memory, Cognitive Ergonomics and Mental Models 

1.2.4. Technological factors 
1.2.5. Basis of Interaction: Levels and Styles of Interaction 
1.2.6. At the Forefront of Interaction 

1.3. Interface Design (I): Design Process 

1.3.1. Design Process 
1.3.2. Value Proposition and Differentiation 
1.3.3. Requirements Analysis and Briefing 
1.3.4. Collection, Analysis and Interpretation of Information 
1.3.5. The Importance of UX and UI in the Design Process 

1.4. Interface Design (II): Prototyping and Evaluation 

1.4.1. Prototyping and Evaluation of Interfaces 
1.4.2. Methods for the Conceptual Design Process 
1.4.3. Techniques for Idea Organization 
1.4.4. Prototyping Tools and Process 
1.4.5. Evaluation Methods 
1.4.6. Evaluation Methods With Users: Interaction Diagrams, Modular Design, Heuristic Evaluation 
1.4.7. Evaluation Methods Without Users: Surveys and Interviews, Card Sorting, A/B Testing and Design of Experiments 
1.4.8. Applicable ISO Norms and Standards 

1.5. User Interfaces (I): Interaction Methods in Current Technologies 

1.5.1. User Interface (UI) 
1.5.2. Classical User Interfaces: Graphical User Interfaces (GUIs), Web, Touch, Voice, etc. 
1.5.3. Human Interfaces and Limitations: Visual, Hearing, Motor and Cognitive Diversity 
1.5.4. Innovative User Interfaces: Virtual Reality, Augmented Reality, Collaborative 

1.6. User Interfaces (II): Interaction Design 

1.6.1. The Importance of Graphic Design 
1.6.2. Design Theory 
1.6.3. Design Rules: Morphological Elements, Wireframes, Use and Theory of Color, Graphic Design Techniques, Iconography, Typography 
1.6.4. Semiotics Applied to Interfaces 

1.7. User Experience (I): Methodologies and Design Fundamentals 

1.7.1. User Experience(UX) 
1.7.2. Evolution of Usability Effort-to-Benefit Ratio 
1.7.3. Perception, Cognition and Communication 

1.7.3.1. Mental Models 

1.7.4. User Focused Design Methodology 
1.7.5. Methodology of Design Thinking 

1.8. User Experience (II): Principles of User Experience 

1.8.1. UX Principles 
1.8.2. UX Hierarchy: Strategy, Scope, Structure, Skeleton and Visual Component 
1.8.3. Usability and Accessibility 
1.8.4. Information Architecture: Classification, Labeling, Navigation, and Search Systems 
1.8.5. Asequibles y Significantes 
1.8.6. Heuristics: Heuristics of Understanding, Interaction and Feedback 

1.9. Interfaces in the Field of Biomedicine (I): the Interaction of the Health Care Worker 

1.9.1. Usability in the Intrahospital Context 
1.9.2. Interaction Processes in Healthcare Technology 
1.9.3. Health Care Provider and Patient Perception 
1.9.4. Healthcare Ecosystem: Primary Care Physician Vs. Operating Room Surgeon 
1.9.5. Interaction of the Healthcare Worker in a Context of Stress 

1.9.5.1. ICU Cases 
1.9.5.2. The Case of Extreme Circumstances and Emergencies 
1.9.5.3. The Case of the Operating Rooms 

1.9.6. Open Innovation 
1.9.7. Persuasive Design

1.10. Interfaces in the Field of Biomedicine (II): Current Outlook and Future Trends 

1.10.1. Classical Biomedical Interfaces in Healthcare Technologies 
1.10.2. Innovative Biomedical Interfaces in Healthcare Technologies 
1.10.3. The role of Nanomedicine 
1.10.4. Biochips 
1.10.5. Electronic Implants 
1.10.6. Brain-Computer Interfaces (BCI)

If you have long wanted to direct your career towards the world of interface design in biomedicine, this is your opportunity and TECH is the best option to achieve your goals”