This course introduces the biomedical engineering field to freshman engineering students. The course focuses in teaching the main scope of the profession in the medical devices industry, healthcare industry, and research and development.
Introduction to Computer Aided and Drafting and Design (CADD), Engineering design process: drafting solid modeling dimensioning and tolerances. Graphics communication in biomedical engineering. 2D and 3D construction, visualization, sketching and standard lettering techniques using CADD. Orthographic Projections. Multi-view drawings for engineering design and production. Basic Dimensioning and tolerancing.
Introductory course in Bioethics covering a range of challenging topics and debates in the field of biomedical ethics. Students will receive the tools to analyze ethical arguments and be introduced to rigorous debates in the field. Primary texts include philosophical essays, court decisions and opinion pieces. Real and hypothetical cases will be discussed, and students will hone their oral presentation skills by preparing original philosophical responses to a series of challenging bioethical dilemmas.
This course is designed to be a first experience in computer programming for Biomedical Engineering students. Students will learn how to design, write, and implement MATLAB scripts and subroutines to solve simple engineering problems. Topics include MATLAB environment, selection and repetition structures, used defined functions , Data input and output, 2D Plotting, and how to create a simple Graphical User Interface (GUI). Students are required to complete a series of computer programming projects.
A wide variety of biomedical processes behave as dynamic systems where the system states vary in time, often in response to external stimuli or interventions. The aims of this module are to introduce techniques and computer tools for modeling, predicting, analyzing, and understanding dynamic behavior in biomedical systems.
This course introduces biomaterials of synthetic as well as natural origin that can be in contact with tissue, blood, and biological fluids with the intended use for prosthetic, diagnostic, therapeutic, and storage applications without adversely affecting the living organism or its components. The course emphasizes the selection and application of biomaterials to the design of bioengineering applications.
The mechanics of living tissue, e.g., arteries, skin, heart muscle, ligament, tendon, cartilage, and bone. Constitutive equations and some simple mechanical models. Mechanics of cells applications.
This laboratory course provides a hands-on introduction to the experimental analysis of the biomechanics of human motion. Students will learn to use computer software for data acquisition and analysis. Kinematic analysis will be performed using optoelectronic and electromagnetic motion sensors. Movement kinematics will be correlated to muscle activity data provided by electromyography (EMG). Analysis of movement kinetics will be performed using strain gauges and force sensors, including force plates for balance control experiments. The laboratory course emphasizes teamwork and communication skills through the submission of group written reports and oral presentations.
This course introduces the integrated study of momentum, mass, and energy transfer, as well as thermodynamics and chemical reactions kinetics for the physiological and cellular processes characterization. This course is used for designing and operating medical devices and developing new therapies.
This course covers typical manufacturing processes in the Pharmaceutical and Medical Devices Industries. Processes such as cleaning in place processes, automation, cnc programming, metal stampings, wiring, among others are covered.
Overview of semiconductors materials, introduction to solid-state devices such as diodes, Bipolar Junction Transistors (BJTs), Metal Oxide Semiconductor Field Effect Transistors (MOSFETs) and their characteristics, operation, circuits, and typical applications. The operating principles and understanding of these nonlinear devices are studied to learn their use in electronic equipment. Characteristics of the Operational Amplifier and typical applications such as inverting and non-inverting amplifiers, comparators, summing and differentiating amplifiers, and active filters are studied. Classical applications of OPAMPs in biomedical circuits are discussed.
This laboratory is designed to develop in the students the necessary skills to perform electrical measurements, as well as the necessary skills for the implementation and testing of typical electronic circuits. Experimental verification of the fundamental laws of electric circuits is required for all the experiments. Electrical measuring devices are used in the laboratory such as, the multimeter, the oscilloscope and the RLC meter, and any other equipment like power supplies, function generators and breadboards, which are used in the construction and testing of electric and electronic circuits. Practical electronics circuits that contain diodes, transistors and operational amplifiers are studied and implemented. Use of computer programs to simulate the circuits to be implemented in the laboratory.
This course is centered on the theory of signal and systems, with focus in the analysis of signals that originate in living systems. In particular, the course emphasizes signal examples related to the human body, such as ECG, EEG, EMG and others. Topics covered include Continuous-Time Signal and Systems, Discrete-Time Signal and Systems, Sampling, Fourier Analysis, z-Transform, Basic Filter Design and Spectral Analysis with applications to biomedical signals.
This is the application of science and technology to design, research or improve devices and their ability to work and live as normally as possible. Assistive technology is applicable to musculoskeletal and sensory disabilities. Additionally, the course includes automation and digital control of industrial applications using electrical, electronic, hydraulic, and pneumatic control devices and systems.
Laboratory experiences in Rehabilitation engineering and Industrial Automation using electrical, electronic, hydraulic, and pneumatic systems. The laboratory practices include the selection and implementation of sensors and actuators along to Programmable Logic Controllers and microcontrollers. The laboratory emphasizes the application of these technologies in the rehabilitation and/or improvement of the quality of life for individuals with disabilities.
This course explores the content and interpretation of the FDA pharmaceutical and medical devices regulations. Using the regulations and warning letters the students analyze and apply their knowledge to identify trends and implications to compliance with the FDA regulations.
This course introduces the most relevant and important concepts of medical implants. Therapeutic instrumentation, such as pacemakers, defibrillators and prosthetic devices, will be reviewed considering the area of placement, the duration of the implant, the safety and efficacy. Each medical implant studied includes an exposition of appropriate physiology, mathematical modeling or biocompatibility issues, as well as clinical need.
This course describes the principles, design, and applications of the most used medical instruments in hospitals. Due to the rapid changes in the different model of instruments, the course focuses more on the fundamental principles of operation of those instruments that are common to all different models of these kind of instruments. The course assumes the students are familiar with differential equations, strong knowledge of physics, and some knowledge in electric and electronic courses.
You will need to ask for a special permit from your institution to take a course within the PUPR.
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It begins on August 7, 2023 and ends on October 28, 2023.
To transfer credits earned at PUPR, you need to obtain a written authorization from your home institution’s dean or department chair prior to registering for online courses at PUPR.
Online students are not required to come in-person to campus. All academic work may be completed online. All supporting services and required transactions may be completed online.
The course instructional content is divided into 12 modules. Each term is twelve (12) weeks long. Therefore, students must complete one module per week. Thus, the online courses at PUPR are not self-paced.
The minimum requirement for taking Online courses thru the Blackboard Platform LMS are:
Asynchronous instructional modality. The instructional content is divided into 12 modules.
Most courses are three credit hours. The following are three examples of the total tuition and fees based on enrolling in a 3 credit-hour course, two 3-credit hour courses; two 3-credit hour courses and a 1-credit-hour lab.
Yes, during the week prior to the beginning of the next term, we will offer a training session on how to use the Blackboard Learn platform to navigate and complete online courses. The training session is approximately 2 hours long.
Yes, once you had a successful admission, you will be able to start the enrollment validation process and pay. All online.
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